stdClass Object
(
    [nazev] => Technopark Kralupy
    [adresa_url] => 
    [api_hash] => 
    [seo_desc] => 
    [jazyk] => 
    [jednojazycny] => 
    [barva] => 
    [indexace] => 
    [obrazek] => 
    [ga_force] => 
    [cookie_force] => 
    [secureredirect] => 1
    [google_verification] => 
    [ga_account] => 
    [ga_domain] => 
    [ga4_account] => 
    [gtm_id] => 
    [gt_code] => 
    [kontrola_pred] => 
    [omezeni] => 
    [pozadi1] => 
    [pozadi2] => 
    [pozadi3] => 
    [pozadi4] => 
    [pozadi5] => 
    [robots] => 
    [htmlheaders] => 
    [newurl_domain] => 'www.technopark-kralupy.cz'
    [newurl_jazyk] => 'en'
    [newurl_akce] => '[en]'
    [newurl_iduzel] => 
    [newurl_path] => 8549/7608/25473
    [newurl_path_link] => Odkaz na newurlCMS
    [iduzel] => 25473
    [platne_od] => 05.04.2022 08:54:00
    [zmeneno_cas] => 05.04.2022 08:54:38.61403
    [zmeneno_uzivatel_jmeno] => Jan Kříž
    [canonical_url] => 
    [idvazba] => 32312
    [cms_time] => 1713864198
    [skupina_www] => Array
        (
        )

    [slovnik] => stdClass Object
        (
            [logo_href] => /
            [logo] => 
            [paticka_adresa] => Technopark Kralupy

Náměstí G. Karse 7/2

Kralupy nad Vltavou

278 01



info@technopark-kralupy.cz
            [paticka_odkaz_mail] => mailto:info@technopark-kralupy.cz
            [copyright] =>  © 2017 Technopark Kralupy
            [drobecky] => You are here: UCT Prague  - Technopark Kralupy 
            [stahnout] =>  
            [prilohy] =>  
            [google_search] =>  011624207255538609363:zhpxb6kqnrc
            [preloader] =>  
            [logo_mobile_href] =>  
            [logo_mobile] =>  
            [social_fb_odkaz] =>  
            [social_tw_odkaz] =>  
            [social_yt_odkaz] =>  
            [mobile_over_nadpis_menu] =>  
            [mobile_over_nadpis_search] =>  
            [mobile_over_nadpis_jazyky] =>  
            [mobile_over_nadpis_login] =>  
            [menu_home] =>  
            [aktualizovano] =>  
            [autor] =>  
            [zobraz_desktop_verzi] =>  
            [social_fb_title] =>  
            [social_tw_title] =>  
            [social_yt_title] =>  
            [intranet_odkaz] =>  
            [intranet_text] =>  
            [more_info] =>  
            [zobraz_mobilni_verzi] =>  
            [nepodporovany_prohlizec] =>  
            [social_in_odkaz] =>  
            [den_kratky_2] =>  
            [archiv_novinek] =>  
            [novinky_servis_archiv_rok] =>  
            [novinky_kategorie_1] =>  
            [novinky_kategorie_2] =>  
            [novinky_kategorie_3] =>  
            [novinky_kategorie_4] =>  
            [novinky_kategorie_5] =>  
            [novinky_archiv_url] =>  
            [novinky_servis_nadpis] =>  
            [novinky_dalsi] =>  
            [hledani_nadpis] => hledání
            [hledani_nenalezeno] => Nenalezeno...
            [hledani_vyhledat_google] => vyhledat pomocí Google
            [social_li_odkaz] =>  
        )

    [poduzel] => stdClass Object
        (
            [25474] => stdClass Object
                (
                    [obsah] => 
                    [poduzel] => stdClass Object
                        (
                            [25612] => stdClass Object
                                (
                                    [obsah] => 
                                    [iduzel] => 25612
                                    [canonical_url] => //www.technopark-kralupy.cz
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => 
                                    [sablona] => stdClass Object
                                        (
                                            [class] => 
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 
                                        )

                                )

                            [25610] => stdClass Object
                                (
                                    [obsah] => 
                                    [iduzel] => 25610
                                    [canonical_url] => //www.technopark-kralupy.cz
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => 
                                    [sablona] => stdClass Object
                                        (
                                            [class] => 
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 
                                        )

                                )

                        )

                    [iduzel] => 25474
                    [canonical_url] => 
                    [skupina_www] => Array
                        (
                        )

                    [url] => 
                    [sablona] => stdClass Object
                        (
                            [class] => 
                            [html] => 
                            [css] => 
                            [js] => 
                            [autonomni] => 
                        )

                )

            [25476] => stdClass Object
                (
                    [obsah] => 
                    [poduzel] => stdClass Object
                        (
                            [48830] => stdClass Object
                                (
                                    [nazev] => Testing of adhesion and long-term stability of adhesives
                                    [seo_title] => Adhesives
                                    [seo_desc] => Testing of adhesion and long-term stability of adhesives
                                    [autor] => 
                                    [autor_email] => 
                                    [perex] => 
Adhesive bonding has attracted more and more attention in recent years and its share across industry (automotive, construction, etc.) is increasing. This is mainly due to the good mechanical properties and low technological demands of bonding compared to conventional methods such as welding.
Adhesive bonding is a method of material bonding using adhesive, where a permanent, non-detachable joint is formed.
An adhesive is a substance that has the ability to bond two surfaces based on adhesion and its own cohesion. Adhesion and cohesion are thus essential properties defining the substance as an adhesive.
Adhesion of the adhesive to the surface is based on the molecular structure of the adhesive and results from the action of physical, chemical and intermolecular bonding forces. Several models have been developed for the description of adhesion:

Mechanical theory. Adhesion is caused by solidification of an adhesive in cracks, cavities and pores of bonded material.
Electrostatic theory. Adhesion is based on electrostatic forces and the adhesive/material interface can be described as a capacitor.
Diffusion theory assumes mutual diffusion of macromolecules of an adhesive and polymer material intended for bonding.
Chemical bonding assumes formation of chemical bonds at the adhesive/material interface
Adsorption (thermodynamic) theory. Unlike the theory of chemical bonding, adsorption theory assumes formation of a joint through intermolecular interactions of van der Waals forces.

Cohesion of the adhesive is related to the intermolecular and valence forces in the adhesive structure. The amount of energy required to pull the adhesive particle out of the structure is characterized by decohesive energy.
Adhesive bonding is at present a fully-fledged alternative to other materials bonding techniques. The main advantages are:

variability of materials that can be combined,
variability of desired properties of the final joint,
minimizing the risk of corrosion damage due to galvanic corrosion when different metals are connected,
absorption of vibration and high fatigue resistance.

Disadvantages of adhesive joints are above all in the necessity of a proper surface preparation and precise compliance to the recommended procedure, including the need to fix the bonded materials until the adhesive cures in the joint. Service life of the joint also depends heavily on the environment and temperature. Factors affecting the quality and functionality of the adhesive joint can be divided into three categories:
 




Material


Adhesive


Conditions




•       surface geometry
•       wettability
•       surface cleanliness
•       solubility
•       swelling
•       thermal expansion


•       degree of polymerization
•       viscosity
•       homogeneity
•       pH
•       volume stability
•       structure and composition of the filler


•       construction of the joint
•       surface treatment
•       application of the adhesive
•       pressure and fixation
•       cure conditions




 
Notes to selected factors:

Surface of the material needs to be sufficiently wettable for quality joint.
Solubility and swelling represent in most cases undesirable interactions between adhesive and the material.
Thermal expansion. Different thermal expansion of the bonded material and adhesive or two dissimilar bonded materialsleads to increased mechanical stress and shorten the service life of the joint.
Volume stability. Volume contractions caused by the solidification of the adhesive can introduceadditional mechanical stress to the joint.
Construction of the joint. Choice of suitable layout and joint geometry based on expected load.

A wide range of adhesives and adhesive systems currently available can be sorted by a variety of aspects and properties:

By origin:

Natural or synthetic.
Inorganic and organic.


By curing mechanism:

Reactive

cured by hardener (multi-component adhesives),
cured by presence of relative humidity,
cured by temperature,
cured by radiation (UV),
cured in anaerobic conditions (when in contact with metal).


Non-reactive

hot-melt adhesives,
solvent based adhesives,
dispersion adhesives,
contact adhesives.




By chemical composition:

Epoxy, acrylate, rubber, cellulose derivate adhesives, polyurethane etc.

By thermal properties:

Thermosetting.
Thermoplastic.
Rubber.


By viscosity, by water resistance etc.


 
Evaluation of bonded joints properties
Properties of bonded joints are determined by a range of procedures and tests:

Evaluation of tensile, shear, peeling, static and impact strength of bonded joints by standardized tests. Sample geometry and type of stress vary based on the test. After the test, adhesive and cohesive failures of tested bond are evaluated.
Evaluation of aging, e. effect of temperature, humidity, UV radiation and environment on long-term durability and properties, for example in cyclic tests.
Non-destructive methods such as defectoscopy (acoustic, ultrasonic) to detect hidden joint defects. These procedures cannot determine the strength.






Exposure of samples with bonded joints in corrosion chamber
Technopark Kralupy currently offers testing according to the following standards:
ISO 4624 Paints and varnishes – Pull-off test for adhesion. It is a quantitative evaluation of the coating adhesion to a metallic substrate. The coating can be tested in cured form or after exposure test, e.g. accelerated corrosion test VW P1210 or after degradation of the organic coating by ultraviolet or broad-spectrum light.

Sample preparation for pull-off test according to ISO 4624

Device for pull-off test according to ISO 4624

ISO 9142 Adhesives – Guide to the selection of standard laboratory ageing conditions for testing bonded joints. Test for degradation of bonded joints in various configurations:

Conditions simulating atmospheric exposure (23 ± 2 °C, 50 ± 5 % relative humidity, RH).
Increased temperature (20-200 ° C).
Reduced temperature (-20 and -40 ° C).
Constant elevated or reduced humidity (25-100 % RH).
Increased atmospheric pressure.
Cyclic variations of the conditions (combination of the above).


Tests of bonded assemblies – test of the strength of a bonded joint under mechanical load. The test can be done in several configurations:

T-peel test (ISO 11339, ASTM D5170, ASTM F88).
180-degree peel test (ISO 8510-2, ASTM D1000, ASTM D3330).
90-degree peel test (ISO 8510-1, ISO 29862, ASTM D5109, ASTM 2861, ASTM 5375).


EN 1465 Adhesives – Determination of tensile lap-shear strength of bonded assemblies. Test to assess the mechanical strength of a bonded joint under shear mechanical loading.
ISO 4587 Adhesives – Determination of tensile lap-shear strength of rigid-to-rigid bonded assemblies.
ISO 10365 Adhesives – Designation of main failure patterns. Regulation defining the type of failure at various interfaces (adhesion), in the bonded material (decohesion), etc.
ISO 175, ISO 291, ISO 483 – Tests of chemical resistance. Mostly immersion tests to assess the resistance to chemicals in liquid form.
ISO 4892-1, ISO 4892-2, ISO 4892-3 – Radiation degradation tests. Tests of degradation of plastics in broad-spectrum radiation, which corresponds to the spectrum of solar radiation or in the narrow spectrum of UV (UV-A, UV-B) radiation. Critical test to assess the resistance of adhesives, especially in exteriors. For more information, see the climatic tests.
 
Literature:
Petrie, E. M. Handbook of Adhesives and Sealants, 1st ed.; McGraw Hill Professional, 1999.
Pizzi, A., Mittal, K. L., Eds. Handbook of Adhesive Technology, 2nd ed.; Marcel Dekker, Inc.: New York, 2003.
 
About us

Technopark Kralupy is a spin-off of The University of Chemistry and Technology Prague serving the Czech and international industry in the field of building chemistry and similar subjects since 2015.
 
Contact

Department of Metallic Construction Materials 
Technopark Kralupy of the University of Chemistry and Technology Prague
Technopark Kralupy VŠCHT Praha
Náměstí G. Karse 7
278 01 Kralupy nad Vltavou
Czech Republic
kovy@technopark-kralupy.cz
Phone: +420 220 446 104, +420 723 242 413
© 2017–2024 Technopark Kralupy
                                    [ikona] => 
                                    [obrazek] => 
                                    [ogobrazek] => 
                                    [pozadi] => 
                                    [obsah] => 
                                    [urlnadstranka] => 
                                    [iduzel] => 48830
                                    [canonical_url] => 
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /adhesives
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [76514] => stdClass Object
                                (
                                    [nazev] => 
                                    [seo_title] => ALCOAT PROJECT
                                    [seo_desc] => Recycled aluminium alloy coatings with chemically tailored electrochemical potential for safe protection of steel structures
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 
← Home | ALCOAT in a nutshell | → How do we do that | → Expected outcome | → Team | → Further information | → Contact
ALCOAT PROJECT

 
 
 
 
Recycled aluminium alloy coatings with chemically tailored electrochemical potential for safe protection of steel structures
 
We aim to develop new families of aluminium-based coatings from aluminium scrap for the protection of steel.




ALCOAT in a nutshell






Steel is the world’s most important metallic construction material due to its advantageous mechanical properties, general availability, and low price. However, it must be protected against corrosion in most environments to provide a sufficiently long service life and meet the safety requirements. Today, zinc coatings are widely used for steel protection in automotive, construction, home appliances, renewable energy, and other industries, with the global market for zinc galvanised steel estimated at 174.6 billion US dollars in 2022. Of approximately 14 million tons of yearly worldwide zinc production, 60 % are used for steel corrosion protection. Zinc coatings applied by continuous hot-dip galvanising of steel sheets dominate the market. They bring strong economic benefits as a result of a longer service life of the final products and improved aesthetic properties. In particular, zinc coatings are unique in their ability to galvanically protect steel, serving as a sacrificial anode in defects. Corroding zinc polarises steel to a more negative potential where it does not corrode.








Although currently indispensable in steel corrosion protection, zinc coatings have several drawbacks, namely:

Lower corrosion resistance in marine environments, requiring the application of thick coatings or costly additional means of corrosion protection such as organic coatings and cathodic protection for marine structures such as the hulls of ships and the towers of wind power plants.
Increased risk of hydrogen entry into steel in defects in zinc coatings due to steel polarisation and the consequent risk of hydrogen embrittlement (HE). In an extreme case, it can lead to a fracture of the affected steel part. This is of particular importance for high-strength steels gradually replacing traditional steel grades in automotive, construction, and elsewhere. 
Low recycling rate of zinc. According to the International Zinc Association, the end-of-life recycling rate for zinc is 45 % worldwide, with even a lower ratio expected for galvanised steel products (exact value not known). Currently, economic reserves are at 250 million tons, covering zinc consumption for another 20 years. In the long term, zinc resources can be depleted.









The only economically viable alternative metallic coating material, aluminium, is cheaper, lighter, widely available, and more corrosion resistant. However, it is unable to provide sufficient protection to steel in defects, leading to red rust formation, and thus it is used only marginally.








To solve these shortcomings, ALCOAT will develop two new families of aluminium alloy coatings for protection of wind towers, ships and other structures exposed to seawater and atmosphere, and steel sheet products for automotive, building, and home appliance industries. The coating composition and microstructure will be designed using advanced computational and molecular modelling. A novel, ground-breaking chemically-tailored potential difference concept will be developed and applied to precisely tailor the potential difference between the coatings and steel substrate in relevant environments. Application of this concept will ensure that the corrosion potential of the coatings is more negative than that of steel, thus guaranteeing sacrificial protection of steel in defects and protection against red rust formation, and is still more noble than that of zinc, which is in a range where the risk of hydrogen embrittlement exists.








The concept is schematically shown below.








The new coatings will be more sustainable than zinc coatings because of the lower corrosion rate, lighter because of the lower specific mass of aluminium, ensure savings of primary raw materials due to the use of iron-contaminated aluminium scrap, and improve the safety of steel constructions because of risk of hydrogen embrittlement.




← Home | ALCOAT in a nutshell | → How do we do that | → Expected outcome | → Team | → Further information | → Contact
                                    [urlnadstranka] => 
                                    [ogobrazek] => 
                                    [pozadi] => 
                                    [iduzel] => 76514
                                    [canonical_url] => 
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /alcoat
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [63615] => stdClass Object
                                (
                                    [nazev] => Analysis of materials using computed microtomography
                                    [seo_title] => Analysis of materials using computed microtomography
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 
Summary of all activities of Metallic Construction Materials group is here.
Principle of computed tomography
Computed tomography is a non-destructive imaging method capable of creating a 3D model of the scanned object showing its external and internal structure. X-ray passes through the scanned object to the detector and is partially absorbed. Information about the scanned object is obtained based on the amount of absorbed radiation. A large number of these projections are made, and the sample is gradually rotated after the individual images are taken until a 360° rotation is achieved. Individual sections of the material and a 3D model composed of groups of points, so-called voxels, are then created by the mathematical composition of the obtained data.
X-ray absorbance depends on the density of the material. Less dense materials with a lower proton number absorb only a smaller fraction of X-rays and appear dark in the images. Denser materials with a high proton number absorb X-rays more and, on the contrary, appear bright in the images. In order for the radiation to penetrate through materials with higher absorbance, it is necessary to apply a higher electrical voltage during its generation, which broadens the spectrum of X-ray radiation and achieves a higher penetration ability.
Equipment
The Diondo d2 microtomograph, which is available in the Technopark Kralupy, is capable of scanning at a resolution of up to 2 μm. It is equipped with a transmission tube capable of working at a voltage of up to 225 kV, a flat detector with a size of 417 × 417 mm, and a rotary table with a load capacity of up to 20 kg. The VGStudio 3.4. program is used for data processing.









Microtomograph Diondo d2 
Interior of Diondo d2 microtomograph



  
Possibilities of computed microtomography
Computed microtomography has a wide range of applications in the analysis of the internal structure of a material. The non-destructive nature and relatively short measurement time, combined with the universality for different types of materials, make this method interesting for various applications in material research.
The size of the sample that can be observed depends on the type of material. Samples from light materials (e.g., polymers) can have a thickness of up to 20 cm in full cross-section, while for example steel samples can only be examined at a thickness of less than 2 cm in full cross-section due to their higher absorbance. Approximate values of maximum material thicknesses are summarized in the table below.




Material


Maximal thickness [mm]




Polymer


220




Aluminium


120




Light ceramics


140




Steel


20





Analysis of internal material defects
With the help of microtomography, internal material defects can be visualized with relatively high accuracy and their size and morphology can be described. These defects include cracks, shrinkage, pores, cavities, etc. Software tools for data processing allow to create a whole range of visualizations that facilitate the interpretation of the obtained results. A few examples are given below.
The first set of images shows a climbing anchor that has developed a crack due to corrosion cracking. As seen from the images, the crack passes through the entire volume of the sample and has a branched morphology. Although the anchor did not fracture in this case, the material will no longer exhibit the required mechanical properties.

  
The second set of images shows a casting of the high entropy alloy CoCrFeNiMn. These alloys show some interesting mechanical properties, but when processed by casting, they contain a significant amount of shrinkage, which is highlighted in red in the images. The shrinkages can be well recognized and described using computed tomography.

  
Computed microtomography can also be used for quality control of industrial products. The pressed product in the following picture contains a large number of cracks and was therefore not processed by the correct procedure.

  
Multimaterial analyses
As mentioned above, the absorbance of X-ray radiation depends on the proton number or the density of the material. This can be used when examining samples composed of several types of material. By analysing the gray levels, i.e., the intensity of the radiation weakened by passing through the scanned object, we can distinguish the individual materials in the images. An example is the image below showing a polymer filter composed of materials of different densities.

  
Determination of material porosity
Due to the ability to distinguish different types of materials, pores in the internal structure of the sample can also be distinguished. This is useful for determining total porosity, especially in the case of closed pores.
Shape and size comparison
Computed microtomography provides images with comparatively high resolution (µm to tens of µm). This can be used to compare the shape and size changes of different components due to wear, formation of deposits or corrosion products. The visualization shows engine intake valves after production and after years of service when in some places the dimensions of the valve are larger due to the formation of deposits. Similarly, it is possible to compare finished products with a CNC or a 3D printing model.

  
About us
Technopark Kralupy is a spin-off of The University of Chemistry and Technology Prague serving the Czech and international industry in the field of building chemistry and similar subjects since 2015.
Contact
Department of Metallic Construction Materials 
Technopark Kralupy of the University of Chemistry and Technology Prague
Technopark Kralupy VŠCHT Praha
Náměstí G. Karse 7
278 01 Kralupy nad Vltavou
Czech Republic
kovy@technopark-kralupy.cz
Phone: +420 220 446 104, +420 723 242 413
© 2022–2024 Technopark Kralupy
                                    [urlnadstranka] => 
                                    [ogobrazek] => 
                                    [pozadi] => 
                                    [iduzel] => 63615
                                    [canonical_url] => 
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /tomography
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [56176] => stdClass Object
                                (
                                    [nazev] => Durability of paint systems according to EN ISO 12944
                                    [seo_title] => Durability of paint systems according to EN ISO 12944
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 
Summary of all activities of Metallic Construction Materials group is here.



Thanks to great mechanical properties, processability, availability of iron ore and low cost is steel the most widely used metallic construction material. The amount of steel used worldwide is more than 30 times higher than that of aluminium and its alloys. However, non-alloyed and low-alloyed steel grades are prone to corrosion in water, wet atmosphere and soil. To avoid formation of red corrosion products (rust) on a steel surface, it needs to be protected for majority of applications. Painting is, by far, the most commonly used corrosion protection method. A protective paint system can be composed of a single layer or several layers of organic, or less often inorganic, paint films applied on a well prepared steel surface. Through selection of chemical composition, thickness and number of paint layers, the protective ability of a paint system can be tailored to fit the intended application. There are few micrometres thick single-layer coatings for temporary corrosion protection or for use in very low corrosive environments, as well as robust paint systems composed of several layers with different properties as thick as 1 mm for protection under the most aggressive conditions.






 
Standards EN ISO 12944-1 to 9 were designed to simplify selection of the right paint system from numerous options available on the market. They introduce a system of classification of atmospheric and water environments and recommend paint systems suitable for particular corrosivity classes. It helps designers, project architects and end users in selection of a paint system with appropriate durability.

Part 1 (EN ISO 12944-1) describes general principles of corrosion protection of steel structures and products by paints.
Part 2 (EN ISO 12944-2) defines classes of corrosion aggressiveness of atmospheres (C1 – Very low, C2 – Low, C3 – Medium, C4 – High, C5 – Very high and CX – Extreme) and presents corrosion risks of steel structures immersed in water or buried in soil (Im1 – Clear, fresh or potable water, Im2 – Sea or brackish water, Im3 – Soil, Im4 – Sea or brackish water with cathodic protection).
Part 3 (EN ISO 12944-3) deals with construction aspects and identifies suitable and unsuitable solutions in view of corrosion protection by paints.
Part 4 (EN ISO 12944-4) describes surface preparation methods and requirements for the resulting surface state.
Part 5 (EN ISO 12944-5) recommends paint systems suitable for particular corrosivity classes as a function of required durability. The durability is expressed by four ranges as Low (L) to 7 years, Medium (M) from 7 to 15 years, High (H) from 15 to 25 years and Very high (VH) over 25 years.
Part 6 (EN ISO 12944-6) specifies laboratory performance test methods for determination of the paint system durability.
Part 7 (EN ISO 12944-7) defines painting application conditions.
Part 8 (EN ISO 12944-8) provides recommendations for development of specifications for paint application.
Part 9 (EN ISO 12944-9) deals with paint systems for marine climates and other extremely corrosive atmospheres and for corrosion protection of steel structures in sea water in combination with cathodic protection.


Technopark Kralupy offers a complete service for determination of the paint system durability (C3-H, C2-M, C4-VH etc.). In our laboratories, we will:

Prepare test samples (carbon steel CR4 according to ISO 3574 of 150×100 mm and thickness of 3 mm);
Blast clean the samples (Sa 2½ according to EN ISO 8501-1 with medium degree of roughness G according to EN ISO 8503-1);
Apply specified paint films using provided paints (spraying or other requested method);
Verify the paint film thickness (magnetic induction method);
Determine the paint adhesion (cross cut test according to EN ISO 2409 or pull-off test);
Fabricate scribes (milling, 50 mm long and 2 mm wide scribe following requirements of EN ISO 12994-6, A.1);
Carry out the condensation test (EN ISO 6270-2) and accelerated corrosion test in neutral salt spray (NSST, EN ISO 9227);
Evaluate paint system degradation (blistering according to EN ISO 4628-2, degree of rusting according to EN ISO 4628-3, cracking according to EN ISO 4628-4, degree of flaking according to EN ISO 4628-5, delamination from scribe according to EN ISO 12944-6; Appendix A.2 and adhesion).

 








Sample with a scribe
Sample with a scribe after the neutral salt spray test
Sample after a cross-cut test








 
If a paint system passes the requirements of EN ISO 12944-6, we will issue a Test protocol  certifying the paint system durability in an environment with given corrosivity classification.







Example of a certificate for a paint system, which passed tests according to EN ISO 12944



 
We carry out qualification tests of paint systems for the most aggressive conditions of marine climate and sea water according to the requirements of EN ISO 12944-9, i.e. the cyclic weathering test combining UV degradation, water condensation, deposition of salt spray and freezing, the test of resistance against cathodic delamination according to EN ISO 15711, Method A and the immersion test in artificial sea water according to EN ISO 2812-2.
 
About us

Technopark Kralupy is a spin-off of The University of Chemistry and Technology Prague serving the Czech and international industry in the field of building chemistry and similar subjects since 2015.
 
Contact

Department of Metallic Construction Materials 
Technopark Kralupy of the University of Chemistry and Technology Prague
Technopark Kralupy VŠCHT Praha
Náměstí G. Karse 7
278 01 Kralupy nad Vltavou
Czech Republic
kovy@technopark-kralupy.cz
Phone: +420 220 446 104, +420 723 242 413
© 2020–2024 Technopark Kralupy
                                    [urlnadstranka] => 
                                    [ogobrazek] => 
                                    [pozadi] => 
                                    [iduzel] => 56176
                                    [canonical_url] => 
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /paint-systems
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [48831] => stdClass Object
                                (
                                    [nazev] => Weathering tests
                                    [seo_title] => weathering-tests
                                    [seo_desc] => Weathering tests
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 
Summary of all activities of Metallic Construction Materials group is here.
For corrosion testing, click here.

Water, heat, thermal cycles, sun irradiation and combination of these factors cause changes in properties of natural and synthetic materials such as wood, leather, paper, textile, plastics, organic coatings and adhesives. Weathering tests are used for the assessment of material and product resistance against climatic degradation factors both in exterior and interior. The effect of climatic parameters on colour changes, gloss, strength, elasticity, adhesion and other properties is evaluated. The tests are used widely for example in automotive, textile, packaging and building industry.


Our testing laboratory is equipped with climatic, condensation, UV, sun irradiation and other chambers, which allow us performing most standardized and customer-defined weathering tests.
We run weathering tests for industry and within research and development projects.
 
Water condensation and high humidity tests




EN ISO 6270-1 Paints and varnishes - Determination of resistance to humidity - Part 1: Condensation (single-sided exposure)
EN ISO 6270-2 Paints and varnishes - Determination of resistance to humidity - Part 2: Procedure for exposing test specimens in condensation-water atmospheres
EN ISO 13523-25 Coil coated metals - Test methods - Part 25: Resistance to humidity
EN 13523-26 Coil coaled metals - Test methods - Part 26: Resistance to condensation of water
EN 13523-27 Coil coaled metals - Test methods - Part 27: Resistance to humid poultice (Cataplasm test)
ASTM D2247
ASTM D1735
DEF STAN 00-35, část 3, Method CL7
DIN 50017 (invalid)
 
Water condensation can cause corrosion degradation especially in enclosed locations. The tests are particularly suitable for painted substrates and for adhesives as an indication of tendency to blistering and loss of adhesion.




 Weathering and UV resistance tests
The UV component of sun irradiation is an important degradation factor for organic, mostly polymeric, materials. Combination of UV irradiation, humidity and eventually other degradation factors cause susceptible materials to become brittle, chalk, crack, blister, change colour and gloss or otherwise lose their application properties.
Although the UV irradiation at wavelengths from 295 to 400 nm accounts for only 7% of total sunlight energy (visible light forms 55 % and infrared irradiation (IR) 38 % of sun irradiation reaching the Earth surface), it is responsible for almost entire degradation of organic materials. In the Czech Republic, the maximal irradiance reaches from 950 to 1350 W/m², which corresponds to radiant exposure of about 2 MWh/m² a year. The relevant yearly dose of UV irradiation can be applied artificially in a chamber with UV-emitting lamps in about 800 to 1800 hours. The exact exposure time depends on the irradiation intensity. There is a general rule that the correlation between an accelerated test and service experience will be better if the intensity of an artificial UV source is closer to sunlight intensity. Indeed, the lower is the UV intensity the longer is the test.
To break a bond in an organic molecule, energy corresponding to the bond strength has to be provided. Stable bonds such as O-H or C-H needs more energy to be broken than less stable bonds such as C-N, N-H or C-C. In view of UV degradation, stable bonds will be cleft only by high energy, i.e. low wavelength, irradiation. Besides direct cleavage of organic bonds, UV irradiation can initiate reactions with other substances such as oxygen. Interaction between irradiation and organic polymer matter necessitates absorption of an irradiation energy quantum, a photon. Ranges of irradiation wavelengths that can be absorbed in a particular material depend on the chemical composition, presence of pollutants and stabilizers (antioxidants, UV absorbers and extinguishers). Therefore, two products made of an identical polymer, e.g. PVC, may show dramatic differences in weathering resistance.
Following photochemical reaction may lead to polymer bond cleavage, monomer formation, cross-linking and other, usually undesirable reactions, which are macroscopically observable in degradation of functional properties of the product. The rate of degradation is affected also by heat (increase in temperature, dimensional changes and evaporation), presence of oxidants (oxygen, ozone, etc.) and water (chemical reactivity, increase in oxygen transport, erosion, freeze-thaw, thermal shocks).
Since the intensity and spectrum of sunlight depend on the Sun and Earth position (season), elevation, geographical location, daytime and orientation of exposed surfaces, it is practical to use standardized “average” spectra defined in Table 4 of the Publication #85 of the International Commission on Illumination (Commission internationale de l'éclairage, CIE) or in a US standard ASTM G177. They define the spectral irradiance at 340 nm as 0.68 and 0.73 W/m², respectively.
Currently, two types of lamps are used in weathering chambers: xenon arc and UV fluorescent ones. The former one provided a spectrum similar to sunlight including visible and IR components. The latter lamps emit mainly UV irradiation. Comparison of these UV sources is given in the chart.

Comparison of sun irradiation spectrum (A) and spectra of fluorescent lamp UVA-340 (B) and xenon arc with daylight filter (C); the chart is reproduced from the Technical bulletin LU-0822 „Sunlight, Weathering & Light Stability Testing“ of Q-Lab Corporation
 
Tests in a chamber with xenon arc lamps
Our testing laboratory is equipped with a Q-Lab Xe3 chamber, which can run complex tests on the effect of sunlight, heat and water on the weathering resistance of organic materials such as textile, geotextile, organic coatings and paints, packaging, plastics, adhesives and sealants and 3D products made of these materials. The spectrum can be adjusted specific optical filters inserted in between lamps and specimens. Daylight, indoor light behind window glass of different types and extended UV spectra can be simulated. Besides irradiation intensity and spectrum, the chamber can control surface temperature of specimens, air temperature and air relative humidity. In addition, it is possible to spray specimens with water or any other water solution, simulating e.g. acid rain. These factors can be combined in standardized and customer-defined programmable cycles.

Figures are reproduced from materials of Q-Lab Corporation
 
Our laboratory can carry out tests according to the following standards in the chamber with xenon arc lamps:




General standards


IEC 68-2-9, ISO 4892-1, ISO 16474-1, ASTM G151, ASTM G155, MIL-STD-810G, GB/T 16422.1




Automotive


SAE J2412 (Ford, General Motors), SAE J2527 (Ford, General Motors), PV 1303 (Volkswagen), PV 1306 (Volkswagen), PV 3929 (Volkswagen), PV 3930 (Volkswagen), GMW 14162 (General Motors), GME 60292 (GM Opal), PF-1 1365 (Chrysler), VDA 75202 (BMW), ISO 105-B06 (Porsche), DBL 5555 (Daimler), DIN 75202 (Porsche, Daimler), 50451 (Fiat), FLTM EU BO 050-1 (Ford), GMW 14660 (General Motors), GM 9125P (General Motors), ISO 4892-2 (General Motors, Porsche), GMW 14170 (General Motors), DBL 7399 (Daimler), HES D6601 (Honda), JIS D0205 (Japan Autospec), ISO 11341 (International), ISO 4892-2 (International), ASTM D7356 (International), ASTM D7869 (International), ISO 105 B10 (International)




Roofing


ASTM D1670, ASTM D4434, ASTM D4637, ASTM D4798, ASTM D4811, ASTM D5019, ASTM D6083, ASTM D6878




Adhesives and sealants


ASTM C732, ASTM C734, ASTM C793, ASTM C1257, ASTM C1442, ASTM C1519, ASTM C1251, ASTM C1501, ASTM C1184, ASTM D904




Printing inks and paper


ISO 11798, ISO 12040, ISO 18909, ASTM D3424, ASTM D4303, ASTM D5010, ASTM D6901, ASTM F2366, GB/T 22771




Packaging


ASTM D6551




Textile


AATCC TM 16, AATCC TM 169, Adidas TM 5.11, GB/T 8427, GB/T 8430, GB/T 8431, GB/T 16991, IS: 2454, ISO 105-B02, ISO 105-B04, ISO 105-B06, ISO 105-B07, M & S C9, M & S C9A, CPAI-84




Geotextile


ASTM D4355




Photovoltaic


IEC 61345




Coatings


EN ISO 16474-2 Paints and varnishes - Methods of exposure to laboratory light sources - Part 2: Xenon-are lamps
ISO 11341, ISO 15110, ASTM D3451, ASTM D3794, ASTM D6577, ASTM D6695, GB/T 1865, MIL-A-8625-F, MIL-P-14105-D, JIS K 5600-7-7, MPI: #113, MS 133: Part F14, IRAM 1109-B14:2008, JDQ-533, #85 FMR




Plastics


EN ISO 4892-2 Plastics - Methods of exposure to laboratory light sources - Part 2: Xenon-arc lamps
ISO 29664, JIS K 7350-2, DIN EN 513, ASTM D1248, ASTM D2565, ASTM D4101, ASTM F1515, EH-438-2, ASTM D4459, ASTM D5071, ASTM D6662, UL 1581, GB/T 16422.2, GB/T 29365




Rubber


ASTM D750, ASTM D925, ASTM D1148, ISO 3865, ISO 4665, GB/T 3511




Pharmaceuticals and cosmetics


FDA Part III, ICH Guideline




 
Tests in a chamber with UV fluorescent lamps
QUV chambers of Q-Lab are used for testing of roofing, sealants, plastics, textile, organic paints and automotive materials. Specimens are usually flat but there are sample holders able to accommodate 3D specimens as well. Specimens can be intermittently irradiated with UV, exposed to condensing water at different temperatures and sprayed with water. Most used are UVA-340 lamps with intensity maxima at 340 nm wavelength (outdoor conditions), but is it possible to apply UVA-351 (conditions behind window glass), UVB-313EL and FS-40 lamps (extreme conditions, high acceleration) and lamps emitting cool white light (simulation of conditions in office, commercial and retail buildings).

Figures are reproduced from materials of Q-Lab Corporation
 
Our laboratory can carry out tests according to the following standards in the chamber with UV fluorescent lamps:




General standards


ASTM G-151, Standard Practice for Exposing Nonmetallic Materials in Accelerated Test Devices that Use Laboratory Light Sources
ASTM G-154, Standard Practice for Operating Fluorescent Light Apparatus for UV Exposure of Non-Metallic Materials
BS 2782: Part 5, Method 540B (Methods of Exposure to Lab Light Sources)
Colts Standard Test – UV Dye Resistance to Fade - QUV
GB/T 14522 – Artificial Weathering Test Method for Plastics, Coatings, and Rubber Materials used for Machinery Industrial Products – Fluorescent UV Lamps
GSB AL 631 – International Quality Guidelines for the Coatings of Aluminum Building Components
ISO 4892-1 Plastics- Methods of exposure to laboratory light sources-Part 1: General Guidance
JIS D 0205, Test Method of Weatherability for Automotive Parts (Japan)
SAE J2020, Accelerated Exp. of Automotive Exterior Matls Using a Fluorescent UV/Condensation Apparatus




Plastics


EN ISO 4892-3 Plastics - Methods of Exposure to Laboratory Light Sources-Part 3: Fluorescent UV Lamps
DIN 53 384, Testing of plastics, Artificial Weathering and Exposure to Artificial Light
UNE 53.104 (Stability of Plastics Materials Exposed to Simulated Sunlight)
JIS K 7350, Plastics - Methods of Exposure to Laboratory Light Sources-Part 3: Fluorescent UV Lamps
ASTM D-1248, Standard Specification for Polyethylene Plastics Extrusion Materials for Wire and Cable
ASTM D-4329, Standard Practice for Light/Water Exposure of Plastics
ASTM D-4674, Test Method for Accelerated Testing for Color Stability of Plastics Exposed to Indoor Fluorescent Lighting and Window-Filtered Daylight
ASTM D-5208, Standard Practice for Exposure of Photodegradable Plastics
ASTM D-6662, Standard Specification for Plastic Lumber Decking Boards
ANSI C57.12.28 Specification for Accelerated Weathering of Padmounted Equipment Enclosure Integrity
ANSI, A14.5 Specification for Accelerated Weathering of Portable Reinforced Plastic Ladders
Edison Electrical Inst. Specification for Accelerated Weathering of Padmounted Equip. Enclosure Integrity
Wisconsin Electric Power Specification for Polyethylene Signs




Adhesives and sealants


UNE 104-281-88 Accelerated Testing of Paints and Adhesives with Fluorescent UV Lamps
ASTM C 1501, Standard Test Method for Color Stability of Building Construction Sealants as Determined by Laboratory Accelerated Weathering Procedures
ASTM C-1184, Specification for Structural Silicone Sealants
ASTM C-1442, Standard Practice for Conducting Tests on Sealants Using Artificial Weathering Apparatus
ASTM D-904, Standard Practice for Exposure of Adhesive Specimens to Artificial Light
ASTM D-5215, Standard Test Method for Instrumental Evaluation of Staining of Vinyl Flooring by Adhesives
American Plywood Assn., Approval Procedures for Synthetic Patching Materials, Section 6




Printing inks


ASTM F1945, Lightfastness of Ink Jet Prints Exposed to Indoor Fluorescent Lighting




Textile


AATCC Test Method 186, “Weather Resistance: UV Light and Moisture Exposure”
ACFFA Test Method for Colorfastness of Vinyl Coated Polyester Fabrics




Coatings


EN ISO 16474-3 Paints and varnishes - Methods of exposure to laboratory light sources - Part 3: Fluorescent UV lamps
UNE 104-281-88 Accelerated Testing of Paints and Adhesives with Fluorescent UV Lamps
ASTM D-3794, Std. Guide for Testing Coil Coatings
ASTM D-4587, Std. Practice for Light/Water Exposure of Paint
GB/T 8013 Anodic Oxide Coatings and Organic Polymer Coatings on Aluminum and its Alloys
GB/T 16585 Rubber, Vulcanized Test Method of Resistance to Artificial Weathering – Fluorescent UV Lamps
GM 4367M Topcoat Materials - Exterior
GM 9125P Laboratory Accelerated Exposure of Automotive Material
ISO 11507, Exposure of Coatings to Artificial Weathering-Exposure to Fluorescent UV and water
ISO 20340, Performance Requirements for Protective Paint Systems for Offshore and Related Structures
JIS K 5600-7-8, Testing Methods for Paints
M5982-1990, Test Method for Accelerated Weathering
MS 133: Part F16: Exposure of Ctgs to Artificial Weathering- Exposure to Fluorescent UV and Water (ISO 11507)
NACE Standard TM-01-84 Procedures for Screening Atmospheric Surfaced coatings
NBR -15.380 Paints for buildings–Methods for performance evaluation of paints for non-industrial buildings – Resistance to UV irradiation/water vapor condensation, by accelerated test
NISSAN M0007, Fluorescent UV/Condensation Test
prEN 927-6– Pt. 6: Exposure of Wood Coatings to Artificial Weathering Using Fluorescent UV and Water
UNE 104-281-88 Accelerated Testing of Paints and Adhesives with Fluorescent UV Lamps
FED-STD-141B




Roofing


EN ISO 13523-10 Coil coaled metals - Test methods - Part 10: Resistance to fluorescent UV radiation and water condensation
BS 903: Part A54 Annex A & D, Methods of Testing Vulcanized Rubber
CGSB-37.54-M, Canadian General Standards Board Spec. for PVC Roofing & Waterproofing Membrane
DIN EN 534, Corrugated Bitumen Sheets
EOTA TR 010, Exposure procedure for artificial weathering
RMA Specification for Reinforced Non-Vulcanized Chlorosulfonated Polyethylene Sheet for Roofing Membrane
ASTM D-4799, Test Method for Accelerated Weathering of Bituminous Roofing Materials
ASTM D-4811, Std. Specification for Non-vulcanized Rubber Sheet Used as Roof Flashing
ASTM D-3105, List of Test Methods for Elastomeric and Plastomeric Roofing & Waterproofing
ASTM D-4434, Std. Specification for PVC Sheet Roofing
ASTM D-5019, Std. Specification for Reinforced Non-Vulcanized Polymeric Sheet Used in Roofing Membrane
ANSI/RMA IPR-1-1990 Req. for Non-Reinforced Black EPDM Sheet for Roofing Membrane
ANSI/RMA IPR-2-1990 Req. for Fabric-Reinforced Black EPDM Sheet for Roofing Membrane
ANSI/RMA IPR-5-1990 Req. for Non-Reinforced Non-Black EPDM Sheet for Roofing Membrane
ANSI/RMA IPR-6-1990 Req. for Fabric-Reinforced Non-Black EPDM Sheet for Roofing Membrane
EN 1297, Flexible sheets for waterproofing—Bitumen, plastic and rubber sheets for roof waterproofing —
Method of artificial ageing by long term exposure to the combination of UV radiation, elevated temperature and water




 
For corrosion tests, click here.
We can help with selection of the optimal procedure in view of the required product lifetime and service conditions.
We provide complete service including sample preparation and intermediate and final evaluation of the material stability. Our analytical, electrochemical, metallographic and further equipment allows for detail characterization of eventual degradation.

 
Service data are often required for confirmation of laboratory results. We oversee field exposures at well-managed natural weathering sites in the Czech Republic and other European countries, USA, China and elsewhere.

 
About us

Technopark Kralupy is a spin-off of The University of Chemistry and Technology Prague serving the Czech and international industry in the field of building chemistry and similar subjects since 2015.
 
Contact

Department of Metallic Construction Materials 
Technopark Kralupy of the University of Chemistry and Technology Prague
Technopark Kralupy VŠCHT Praha
Náměstí G. Karse 7
278 01 Kralupy nad Vltavou
Czech Republic
kovy@technopark-kralupy.cz
Phone: +420 220 446 104, +420 723 242 413
© 2017–2024 Technopark Kralupy
                                    [urlnadstranka] => 
                                    [ogobrazek] => 
                                    [pozadi] => 
                                    [iduzel] => 48831
                                    [canonical_url] => 
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /weathering-tests
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [38862] => stdClass Object
                                (
                                    [nazev] => Project BioMates
                                    [seo_title] => BioMates
                                    [seo_desc] => BioMates
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 

Technopark in European projects

Technopark Kralupy together with the Institute of Petroleum Technology and Alternative Fuels ICT Prague involved in solving BioMates new project, which is funded by the Framework Program for Research and Innovation Horizon EU by 2020.
BioMates project is focused on the treatment of non-food biomass into chemical intermediates, which could be used in conventional processes of oil. The development of a process which would enable effective and decentralized processing residues from the non-food crop production and biomass, such as straw and perennial grass (Miscanthus x giganteus) is a key activity of the project. The aim of the project is to get out of the processing of biomass such bio-components, which are compatible with the current resource base for the production of motor fuels. These components would be then manufactured in existing refineries conformed for processing of fossil fuels. The resulting hybrid fuel should, despite the high content of bio-components could be used in conventional combustion systems.
The main task of ICT together with another Czech subscriber by RANIDO, Ltd., development and testing of a suitable catalyst system for the above described use. Besides ICT and RANIDO them into the project involved the Fraunhofer Institute for Environmental, Safety, and Energy Technology UMSICHT, Germany (project coordinator), Center for Research & Technology Hellas / ČeRth - Chemical Process & Energy Resources Institute / CPER, Greece, Imperial College London , United Kingdom, ifeu - Institut für Energie- und Umweltforschung Heidelberg GmbH, Germany, Hydrogen Efficiency Technologies (HyET) BV, the Netherlands and BP Europa SE, Germany.
Name of Project: Reliable Bio-based Refinery Intermediates
Website: www. biomates.eu
Period of solution: 1. 10. 2016 – 30. 9. 2020
Principal investigator for UCT Praha: Ing. David Kubička, Ph.D. MBA.
   
This project has received funding from the European Union’s Horizon 2020 research and innovation programme under the grant agreement No 727463.
This press release reflects only the authors’ view; the European Commission and its responsible executive agency INEA are not responsible for any use that may be made of the information it contains.
                                    [iduzel] => 38862
                                    [canonical_url] => 
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /biomates-en
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [41780] => stdClass Object
                                (
                                    [nazev] => EU projects
                                    [seo_title] => EU projects
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 



   




 Reliable Bio-based Refinery Intermediates


The Technopark Kralupy, together with the Institute of Oil and Alternative Fuels of UCT Prague, has been involved in the solution of the new BioMates project, which is funded by the EU Horizon 2020 Framework Program for Research and Innovation.




 
 
Development and retrofitting of Technopark Kralupy of the University of Chemistry and Technology Prague
 
Instrumentation retrofitting of research workplaces
Development of Technopark activities
Collaboration with entrepreneurs






 
Use of heat-resistant materials for advanced applications in vehicles
 
Research and use of composite materials with high thermal resistance in the transport industry





Creating a system for effective collaboration with the application sphere
 
Building internal and external infrastructure for effective collaboration with the application sphere












Invitation


Title


State



MPO  OP PIK 
Development of a low H2O2 gas phase detector
Realization 


MPO  OP PIK 
Photo papers - Vavex
Realization


MPO  OP PIK
Foam ceramic photocatalytic panels - Lanik
Realization


MPO  OP PIK
A new type of butter maker - B e H o
Realization



                                    [urlnadstranka] => 
                                    [iduzel] => 41780
                                    [canonical_url] => 
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /eu-projects
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [41968] => stdClass Object
                                (
                                    [nazev] => TP projects
                                    [seo_title] => Our projects
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 




Invitation


Title


State



MPO  OP PIK
Innovative voucher - Photocatalysis
Done


MPO  TRIO
Innovation of material requirements for products with high heat resistance
Realization


GA ČR
Hydrogenation catalysts
Realization


GA ČR
Effect of microstructure on hydrogen induced corrosion damage of high strength steels
Realization


MPO  OP PIK
Innovative voucher - Water glass
Realization


MPO  OP PIK
Innovative voucher - EKAZ
Realization


MPO TRIO II
Development of special polymeric material
Realization



                                    [urlnadstranka] => 
                                    [iduzel] => 41968
                                    [canonical_url] => 
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /tp-projects
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [39026] => stdClass Object
                                (
                                    [nazev] => Project Development and retrofitting of Kralupy Technopark of UCT Praha
                                    [seo_title] => Development and retrofitting of Kralupy Technopark of UCT Praha
                                    [seo_desc] => Development and retrofitting of Kralupy Technopark of UCT Prague
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 

Project title: Development and retrofitting of Technopark Kralupy of UCT Prague
Reg. No .: CZ.01.1.02 / 0.0 / 0.0 / 15_035 / 0007164
The main source of funding for the Technopark development and retrofitting project was the European Regional Development Fund, from which funds were provided through the Operational Program Enterprise and Innovation for Competitiveness, Infrastructure Services - Call I. in the total amount of CZK 17,071,500
The aim of the project is to upgrade Technopark's facility for equipment and technology that will contribute to:
- Extending specialized specialist services offered to cooperating businesses
- increase the attractiveness of TPKs for regional businesses and strengthen the competitiveness of the region
- extension of professional background and possibility of practical application for graduates of technical branches
- Enhancement of the possibilities for involving ICTs in grant projects especially for SMEs,
- increasing the professional scope of the workplace especially in the field of special technical tests and analyzes
- extending the range of cooperation with existing and new industrial partners, offering some equipment not requiring trained operators, increasing flexibility
- shortening the time of solving individual problems, speeding up the process of realizing new ideas
- an increase in the number of professionals working in the industrial sphere and involved in technology transfer
- Implementation of the measures resulting from the NRIS3 strategy and significant support for the implementation of the Regional Innovation Strategy of the Central Bohemia Region
                                    [iduzel] => 39026
                                    [canonical_url] => //www.technopark-kralupy.cz/development
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /development
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [27726] => stdClass Object
                                (
                                    [nazev] => Technopark Kralupy
                                    [seo_title] => Technopark Kralupy
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 
                                    [iduzel] => 27726
                                    [canonical_url] => //www.technopark-kralupy.cz/home
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /home
                                    [sablona] => stdClass Object
                                        (
                                            [class] => boxy
                                            [html] => 
                                            [css] => 
                                            [js] => $(function() { 
	setInterval(function () { $('*[data-countdown]').each(function() { CountDownIt('#'+$(this).attr("id")); }); },1000); 
	setInterval(function () { $('.homebox_slider:not(.stop)').each(function () { slide($(this),true); }); },5000);
});

function CountDownIt(selector) {
	var el=$(selector);foo = new Date;
	var unixtime = el.attr('data-countdown')*1-parseInt(foo.getTime() / 1000); if(unixtime<0) unixtime=0;
	var dnu = 1*parseInt(unixtime / (3600*24)); unixtime=unixtime-(dnu*(3600*24)); 
	var hodin = 1*parseInt(unixtime / (3600));  unixtime=unixtime-(hodin*(3600));
	var minut = 1*parseInt(unixtime / (60));    unixtime=unixtime-(minut*(60));
        if(unixtime<10) {unixtime='0'+unixtime;}
        if(dnu<10) {unixtime='0'+dnu;}
        if(hodin<10) {unixtime='0'+hodin;}
        if(minut<10) {unixtime='0'+minut;}

	el.html(dnu+':'+hodin+':'+minut+':'+unixtime);
}

function slide(el,vlevo) {
	if(el.length<1) return false; var leva=el.find('.content').position().left; var sirka=el.width(); var pocet=el.find('.content .homebox').length-1;
	var cislo=leva/sirka*-1; if(vlevo) { if(cislo+1>pocet) cislo=0; else cislo++; } else { if(cislo==0) cislo=pocet-1; else cislo--; }
	el.find('.content').animate({'left':-1*cislo*sirka});
	el.find('.slider_puntiky a').removeClass('selected');
	el.find('.slider_puntiky a.puntik'+cislo).addClass('selected');
	return false;
}

function slideTo(el,cislo) {
	if(el.length<1) return false; var sirka=el.width(); var pocet=el.find('.content .homebox').length-1; if(cislo<0 || cislo>pocet) return false;
	el.find('.content').animate({'left':-1*cislo*sirka});
	el.find('.slider_puntiky a').removeClass('selected');
	el.find('.slider_puntiky a.puntik'+cislo).addClass('selected');
	return false;
}

                                            [autonomni] => 1
                                        )

                                )

                            [27969] => stdClass Object
                                (
                                    [nazev] => 
                                    [seo_title] => Pok
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [perex] => 
                                    [ikona] => 
                                    [obrazek] => 
                                    [obsah] => 
                                    [iduzel] => 27969
                                    [canonical_url] => //www.technopark-kralupy.cz/pok
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /pok
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka_ikona
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [27968] => stdClass Object
                                (
                                    [nazev] => 
                                    [seo_title] => Silicates
                                    [seo_desc] => Silicates
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 
 
Building materials based on silicates
Silicate materials find applications in many industries. They are used for example in the construction industry (concrete, cement, lime), the ceramics and glass industries (from classic cups and glasses to special applications such as catalyst supports or special filters), in paint industries (binders and fillers), fireproof and refractory applications (the lining of domestic fireplaces to large foundry and glass furnaces) or in the restoration of artworks.Our group is focused on a number of projects in the field of silicates. We offer to our customers except the classic tests of materials also consulting and an expert services.
Research group of building materials based on silicates carries out sample testing of construction materials to withstand high temperatures, pressures and aggressive environment.
For testing of building materials we have a top-class laboratory equipment and qualified professionals in the properties of silicate building materials.



 

Tests at elevated and high temperatures

 

Mechanical tests
 




Combined furnace
 
Standards:
ČSN EN – 993-6, ČSN EN – 993-7
Use:
Determination of flexural strength, E-modulus determination by static method in bending and creep bending at temperatures of 25-1550 ° C.
Max sample size:
25x25x160mm



Equipment for determining the bending strength and pressure
MATEST C089 SERIE
 
Standards:
ČSN EN 1015-11, ČSN EN 772-6, ČSN EN 1170-4, ČSN EN 993-6, ČSN EN 843-1, ČSN EN 658-3 
Use:
Determination of compressive? strength (0-3000kN) and bending (0-15kN). Determination of Young's modulus by the static method (pressure).
Max sample size:
pressure: cube sizes up to 200 mm
    cylinder size up to d = 160mm, h = 320 mm
  bending up to 200x200x800mm





Furnace for determination of corrosion resistance
refractory material by a melts
 
Standards:
ČSN P CEN/TS 15418
Use:
Determination of the corrosion resistance of refractories by a melt at temperatures of 25- 1650 ° C.
Available:
  A: Pouch corrosion test procedure
  B: Corrosion test by immersion of small bars, procedure
  C: Corrosion test in a rotating cylinder.




Equipment for determining the bending strength and pressure
MATEST E183N
 
Standards:
ČSN EN 1015-11, ČSN EN 12808-3, ČSN EN 993-6
Use:
Determination of compressive strength (0-250 kN)
and bending (0-15kN).
Determination of Young's modulus by the static method (pressure).
Max sample size:
Pressure: S1 = 10-100 mm, W2 = 10 to 100 mm,
v = 20-180 mm
  Bend: 40x40x160mm






Furnace for determination of load capacity in heat and creep in pressure
Standards:
ČSN EN 993-8
Use:
Determination of strength in the heat and creep under pressure
at temperatures of 25- 1650 ° C.
Max sample size:
d1 = 50mm, d2 = 12mm, h = 50mm




  
Instrumentation




Device name


Details




Combined furnace for determining
- bending strength at high temperature,
- E - module static method at high temperature,
- creep bending at high temperatures


Max. temperature 1550°C
Max sample size 150x25x25mm, load up to 2500N, deflection accuracy  4µm/1mm
ČSN EN – 993-6, ČSN EN – 993-7




Furnace for determination of corrosion resistance
refractory material by a melts


Max. temperature 1700°C, operating temperature 1650°C, 0-20 rpm,
ČSN P CEN/TS 15418




Furnace for determination of load capacity in heat and creep in pressure


Max. temperature 1650°C, accuracy  4µm/1mm, load up to 0,2MPa (3 ranges)
ČSN EN 993-8




Vicat automatic recording device


Determining the setting time of putty,
EN-UNI 196-3, DIN 1168 SADRA, ASTM C 191




Le-Chatelier water bath


EN196-3




Moisture analyzer


 




Laboratory oven VENTICELL


Tempering of materials with hot air forced by the fan. Designed for temperatures up to 250 ° C.




Drying MEMMERT UF75 with forced air


Max. temparature 300°C, interior width [mm] 400, interior high [mm] 560





Automatic laboratory mixer of mortal mixtures


EN 196-1





Electro-hydraulic testing machine with a drive unit
servo-plus


Determination of compressive strength (0-3000kN), flexural strength, modulus of elasticity
ČSN EN 1015-11, ČSN EN 772-6, ČSN EN 1170-4, ČSN EN 993-6, ČSN EN 843-1,
ČSN EN 658-3




Electro-hydraulic testing machine with microprocessor unit cyber-plus evolution


Determination of compressive strength (0-250 kN) and the bending (0-15kN), measuring the modulus of elasticity
ČSN EN 1015-11, ČSN EN 993-6




Laboratory mixer of concrete mixtures LMB - C1 CYCLOS


Preparation of concrete mixtures and mortars in a volume to 70 liters. The speed of the blades 48 rpm




Vibration high frequency table VSB-70 REM


Zhutňování betonových směsí běžného i vozovkového betonu
Compacting concrete mixtures of ordinary and roadway concrete.
Speed 2 000-10 000 rpm.




Autoclave


 V = 8l, Tmax = 300°C, pmax = 40bar




Large capacity cabinet for wet storing 


Storing large quantities of cement and mortar samples at saturated humidity and regulated temperature.




Diamond saw


There is even a blade for cutting metal samples




Equipment for measuring fluidity test


 ČSN EN ISO 4534




Furnace


Max. temperature 1200°C, diameterr x high = 170x230 mm




Climatic chamber


Temperature = -25 to +70°C




Water bath (Matest C304-02)


Capacity = 200l,
EN 196-8 EN ISO 679 ASTM C511 ASTM C109 EN 196-1





CARRYING OUT THE TEST





Flexural strength at temperatures 25-1550°C
Determination of E - module by static method (flexural) at temperatures 25-1550°C
Bend creeping at temperatures 25-1550°C
Firing at temperature up to 1650 ° C
Resistance to heat up to the temperature 1650°C
Creep in compression at temperatures up to 1650°C
Cutting of samples
Permanent linear changes in the heat
Loss on annealition
Compressive strength
Determination of E - module static method (compressive)
Density criteria
Grinding
Milling
Frost resistance






FIELDS OF ACTION





Measurement of basic physico - chemical properties of refractory materials
Expert assessment of the use of refractory materials and equipment
Expert assessment of manufacturing defects silicate materials
Applied research in the areas of shaped refractory materials
Development of new technologies for the preparation of ceramic refractory products
Applied research in the areas of unshaped refractory materials
Optimizing the properties of refractory repair and shotcrete mixtures 
Development of water glass for applications in construction and foundry
Expert assessment non-flammability, respectively heat resistantantability of materials






Assessment of the properties of materials under extreme conditions allows better understand the properties of materials, to determine their real life and in non-standard situations and avoid accidents buildings in crisis situations - fires or earthquakes.

Contact:
Department of silicate building materials 
Technopark Kralupy of The University of Chemistry and Technology, Prague
Dr. Ing. Petr Antoš, Ph.D.
antosp@vscht.cz
Tel. +420 22044 6110, +420 22044 6130 
Ing. Jan Urbánek
urbanekj@vscht.cz
Tel. +420 22044 6121, +420 22044 4149
                                    [urlnadstranka] => 
                                    [ogobrazek] => 
                                    [pozadi] => 
                                    [iduzel] => 27968
                                    [canonical_url] => 
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /silicates
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [27741] => stdClass Object
                                (
                                    [nazev] => 
                                    [seo_title] => Building and Insulating Materials based on Plastics
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 

Building and Insulating Materials based on Plastics
The Research Group for Plastics Research focuses on research tasks related to new applications of plastics in industry and construction, as well as the role of plastics in environmental protection.
 


 
For this purpose, it is equipped with modern laboratory technology for research, analysis and testing of plastic properties.








Contact:
Jana.Marelova@vscht.cz
Tel. 220 446 111




                                    [urlnadstranka] => 
                                    [ogobrazek] => 
                                    [pozadi] => 
                                    [iduzel] => 27741
                                    [canonical_url] => 
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /plastics
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [26783] => stdClass Object
                                (
                                    [nazev] => Accelerated corrosion testing
                                    [seo_title] => Accelerated corrosion testing
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 
Summary of all activities of Metallic Construction Materials group is here .
For weathering and climatic tests (degradation by UV and other climatic factors), click here.
Accelerated corrosion and weathering tests are useful tools for material selection, initial and residual life time prediction of bare and painted metallic, polymeric, adhesive and other materials in atmospheric exposure conditions and quality control. It is widely used in the automotive, aerospace, building, off-shore, military and infrastructure applications.
Beside generally known Neutral Salt Spray (NSS), Acetic Acid Salt Spray (ASS) and Copper-Accelerated Acetic Acid Salt Spray (CASS) tests, a number of modern cyclic corrosion tests including wet and dry phases has been developed. Because of more realistic conditions, their results correlate better to those from natural exposures and thus provide significantly improved predictive ability. The traditional NSS and its variants are more suitable for quality control.

   
In our advanced automated corrosion chambers with a volume of 2000 and 1000 liters with temperature control from –40 to 80 °C and control of the relative humidity (RH) from about 20 to 100 %, we are able to perform tests according to most international, national and industrial standards for commercial applications and research purposes.
 
Cyclic corrosion tests
VDA 233-102, SEP 1850 (N-VDA)



This test has been created jointly by a group within the German Association of the Automotive Industry, VDA, with the aim to serve for the development of new materials and coatings. It allows for the assessment of the corrosion behaviour of components and of the corrosion protection provided by coating systems for applications in the automotive industry. The accelerated test covers in particular the delamination around a defined artificial defect in a coating as well as surface and cut edge corrosion on special test panels, bonding specimens or components. This laboratory-scale cyclic corrosion test is also suitable for assessing perforation corrosion in flanged areas or gaps (hem flanges) and of unpainted surfaces. This method induces corrosion processes and generates reproducible corrosion patterns which correlate well with the results obtained in natural weathering tests and driving operation. In particular, the corrosion patterns for steel, galvanised steel and aluminium closely reflect real-life phenomena. The test method is based on real corrosive climate conditions and delivers differentiated results for a large number of uses in automotive applications.







Conditions: Complex test including a variety of technical phases such as a salt spray phase (1 wt.% NaCl solution, pH neutral), wet and dry cycles at temperatures up to 50 °C and a freezing phase at –15 °C. Typical duration: 6 weeks. A week cycle is shown in the chart.
VW PV 1210 (Volkswagen Group)




This method is designed for corrosion testing of automotive materials conducted on completely painted bodies, body panels, assemblies and add-on parts with differing corrosion protection coatings. It serves to monitor and evaluate corrosion behaviour or corrosion protection measures when exposed to static load.
Conditions: 5-day cycle comprising of NSS (35 °C, 5 wt.% NaCl solution), dry phase and humid phase at 40 °C and 100% RH followed by 2-day rest at laboratory temperature. Typical duration: 3, 6, 12 or 18 weeks. A week cycle is shown in the chart.





VW PV 1209 (Volkswagen Group)
Conditions: Combination of the PV 1210 with cycles of rapid variations of temperature and RH from –40 to 80 °C and from 30 to 80 % RH. The chloride solution used for salt spraying is modified and contains 4 wt.% NaCl and 1wt.% CaCl2.
The high/low temperature cycle is designed for testing vehicle parts in the engine compartment in view of e.g. susceptibility to cracks, deformation, separation of the composite material, etc. It can be informative in view of paint stability as well.
Volvo STD 423-0014, VCS 1027,149 (ACT I), Scania STD4319



This test procedure is designed for assessment of corrosion resistance in environments with a significant effect of chloride ions, in particular in marine climates and in regions where de-icing salts are applied in winter for road treatment. It is used for metals and their alloys and metallic, conversion and organic coatings. In contrary to most other procedures, salt solution is applied in a form of rain with the deposition intensity of 15 mm/hour. Six weeks of the test simulate about 2 years of service in an area where de-icing salts are used during winter.
Conditions: Two times a week, samples are shortly contaminated with 1 wt.% sodium chloride solution acidified with sulphuric acid to pH 4.2. Wetting (35 °C and 95 % RH) and drying (45 °C and 50 % RH) cycles are altered for the rest of the time. A week cycle is shown in the chart.




Volvo VCS 1027,1449 (ACT II), Ford CETP 00.00-L-467
Salt solution is applied five times a week in a form of rain by an automatic device or, if it is not available, manually. Six weeks of the test corresponds to 2-4 years of car service in areas where de-icing salts are used. This  method differs from VCS 1027,149 (ACT I) in folowing aspects: (1) The corrosion rate for steel is approximately 50 % higher with respect to paint undercutting in confined mode (crevices, etc), but only 10 % higher for general corrosion in open mode; (2) The corrosion rate for zinc is in the order of 30 % lower for open corrosion, but 10-30 % higher for under-paint corrosion of galvanized steel; (3) The test method in this standard is applicable to painted aluminium, contrary to ACT I; (4) This method is better suited to corrosion testing of magnesium (due to longer time of macro wetness), especially when under bimetallic influence; (5)  This test is less efficient regarding pitting of aluminium and staining of anodized aluminium, due to the lower frequency of humid to semi-dry cycles; (6) Austenitic stainless steels may exhibit exaggerated red rust due to the comparatively high exposure temperature combined with cyclic drying (above critical pitting temperature).
Conditions: Five 24-hour workday cycles comprise each of 6-hour wet phase at 25 °C with intermittent exposure to 0.5 wt.% sodium chloride solution, 2.5-hour transition drying period and 15.5-hour phase with constant temperature and humidity of 50 °C and 70 % RH. The same conditions are maintained during weekends.
Nissan CCT I (CCT 1)
Conditions: Repetition of 8-hour cycles with 4 hours of NSS (35 °C, 5 wt.% NaCl solution), 2 hours of drying at 60 °C and RH < 30 % and 2 hours of moistening at 50 °C and 95 % RH. Typical duration: 500 to 1500 hours.
Nissan NES M0158 (CCT IV, CCT 4)
Conditions: Repetition of 24-hour cycles with 4 hours of NSS (35 °C, 5 wt.% NaCl solution), 2 hours of drying at 60 °C and RH < 30 % and 2 hours of moistening at 50 °C and 95 % RH followed by 5 wet/dry cycles at constant temperature of 60 °C
Renault ECC1 D17 2028
Conditions: Test performed at constant temperature of 35 °C and comprising wet (90 % RH) and dry (55 % RH) phases. Sodium chloride solution with 1 wt. % NaCl at pH 4 is sprayed over samples during 30 minutes once a day followed by a drying phase at 20% RH. Typical duration: 6 weeks.
Toyota TSH1555G, Method C




The test procedure reproduces corrosion conditions on car bodies.
Conditions: Salt spray is applied at 50 °C for 4 hours, followed by drying at 70 °C for 5 hours, wetting at 50 °C and 85-90 % RH for 12 hours, drying at 70 °C for 2 hours and final drying at laboratory temperature for 1 hour. A week cycle is shown in the chart.






PSA TCAC D13 5486 (Peugeot, Citroën)
Conditions: Salt spray with 1 wt.% NaCl solution at pH 4.1 and wet and dry cycling at a constant temperature of 35 °C.
BMW AA-0224 (PA-P 029)
Conditions: A day of salt spray at 35 °C, 4 days of intermittent condensation at 40 °C and repose in laboratory air and 2 days of repose.
Fiat 50493/05
Conditions: A cycle comprises of 3 hours of salt spray at 35 °C, 1 hour of drying at 60 °C, 12 hours of wet conditions at 95 % RH and 40° C, 1 hour of freezing at –10 °C and 6 hours of repose at 25 °C and at 60 % RH.
SAE J-2334, GM 954OP, GMW 14872
Procedure used throughout the North American (GM group) and Japanese (Suzuki, Mitsubishi) automotive industry. Since it is a field-correlated test, it can be used as a validation tool as well as a development tool. If corrosion mechanisms other than cosmetic or general corrosion are to be examined using this test, field correlation must be established.
Conditions: Test specimens are exposed to a changing climate that comprises of three repeating sub-cycles of 24 hours in total: 6 hours exposure to a water fog/condensing humidity at 50 °C; 15 minutes immersion in or a direct spray of salt water at ambient conditions; and air drying at 50 % RH and 60 °C. The contamination solution contains NaCl, CaCl2 and NaHCO3. 
JSAE JASO M 609, JASO M 610, ISO 14993, EN ISO 11997-1 Cycle A
A procedure designed for bare, metallic coated and painted steel panels for use in the automotive industry.
Conditions: Repetition of cycles of salt spray with neutral 5 wt.% NaCl solution at 35 °C (2 hours), drying phase at 60 °C and at 20–30 % RH (4 hours) and wetting condensing phase at 50 °C and at 95 % RH (2 hours). Typical duration: 30–180 cycles (240–1440 hours).
VDA 621-415, EN ISO 11997-1 Cycle B
The predecessor of VDA 233-102. Due to high chloride load, the test provides rather unrealistic results for non-protected metals comparable to those in NSS. It is used for testing of therally cured paint systems for automotive applications.
Conditions: 1 day of NSS (35 °C, 5 wt.% NaCl solution), 4 days of wet (40 °C / condensation) and  dry (23 °C / 50 % RH) cycling, 2 days at laboratory temperature and RH. Typical duration: 5 weeks (ISO) or 10 weeks (VDA).
ISO 16701 (CCT)
Conditions: Humidity cycling between 95 and 50 % RH at 35 °C with 6-hour salt spray sub-cycle carried out twice a week. The sub-cycle consists of 3 cycles of 15-minute spraying with a 1 wt.% NaCl solution acidified to pH 4.2 followed by a 105-minute period of wet stand-by. 
The low pH level of the spraying solution simulates acidic precipitation present in industrialized areas.
ASTM D 5894
Cyclic corrosion and UV exposure of paints on metal using alternating periods of exposure in two different cabinets: a cycling salt spray/dry cabinet and a fluorescent UV/condensation cabinet.
Conditions: The fluorescent UV/condensation cycle is 4-hour UV at 0.89 W m–2 nm–1 at 340 nm and at 60 °C and 4-hour condensation at 50 °C. The salt spray/dry chamber runs a cycle of 1-hour salt spray at ambient temperature and 1-hour dry-off at 35 °C. The salt spray electrolyte contains 0.05 wt.% sodium chloride and 0.35 wt.% ammonium sulphate.
ASTM G 85, Practice A2 (Cyclic Acidified Salt Fog Testing
Modifications of NSS with humidity cycling and altered spraying solution.
Conditions: Six-hour repetitive cycles of 45 minutes of spraying with acidified 5 wt.% NaCl solution, 120 minutes of drying and 195 minutes of exposure to high RH.
ASTM G 85, Practice A3 (Acidified Synthetic Sea Water (Fog) Testing)
Modifications of NSS with humidity cycling and altered spraying solution. This test is particularly useful for production control of exfoliation-resistant heat treatments for the 2000, 5000, and 7000-series aluminium alloys. It is also applicable to developmental studies of varying heat treatment parameters to determine effect on corrosion behaviour. For this purpose, a temperature of 49 °C is recommended for the exposure zone. For testing organic coatings on various metallic substrates, an exposure zone temperature of 24 to 35°C may be used since temperatures in excess of 35°C frequently result in paint blistering.
Conditions: Two-hour repetitive cycles of 30 minutes of spraying with acidified artificial sea water and 90 minutes of exposure to elevated RH.
ASTM G 85, Practice A5 (Dilute Electrolyte Cyclic Fog/Dry Test, Prohesion)
Prohesion is a shortened form of “protection is adhesion”. It was designed for paints on steel and believed to be somewhat more representative of outdoor corrosion than NSS. Prohesion testing has been found especially useful for industrial maintenance coatings.
Conditions: Short cycles of 1-hour spraying with a diluted solution of sodium chloride (0.05 wt.%) and ammonium sulphate (0.35 wt.%) at pH 5–5.4 and 1-hour dry-off.
EN ISO 11997-1 Cycle C
A test developed for water based and latex paint systems.
Conditions: Repetition of phases of salt spray deposition made of sodium chloride (0.31 g/L) and ammonium sulphate (4.10  g/L), drying at 40 °C, wetting at 40 °C and 75 % RH, drying at 30 °C and condensation at 30 °C. A cycle takes 48 hours and the whole test includes 21 cycles (1008 hours).
EN ISO 11997-1 Cycle D, JIS K 5621
A test for paint systems.
Conditions: 30 minutes NSS (35 °C, solution of 5 wt. % NaCl), 90 minutes high humidity (30 °C / 95 % RH), 120 minutes hot dry (50 °C),  120 minutes warm dry (30 °C). This 6-hour cycle is repeated 28 times. The whole test takes 168 hours.
EN ISO 12944-9
This standard deals with performance of heavy-duty paint systems designed for protection of off-shore and similar structures.
Conditions: Each week cycle includes 3-day exposure to intermittent UV irradiation (4 hours, 60 °C) and water condensation (4 hours, 50 °C) according to EN ISO 16474-3, 3-day exposure to NSS according to EN 9227 and 1-day exposure at –20 °C. Typical duration: 10, 16 or 25 weeks.
IEC 60068-2-52
A collection of cyclic corrosion test methods for environmental testing of electronic equipment and products to assess their ability to perform under environmental conditions.
Conditions: The test methods include a 2-hour salt mist (salt spray) phase using 5% NaCl (Test method 1–7) or acidified  salt solution (Test method 8) at 35 °C, a humid phase at 40 °C and at 93 % RH (Test method 1–6) or at 50 °C and at 95 % RH (Test method  7, 8), and some of them also a dry phase  at 23 °C and at 50 % RH (Test method 3–6) or at 60 °C and at RH > 30 % (Test method 7, 8).
Other standard or custom-defined tests can be performed upon demand.
 
Salt spray tests (NSS/NSST, ASS, CASS)


  ·    EN ISO 9227 
  ·    EN ISO 13523-8 
  ·    ASTM B 117
  ·    IEC 60068-2-11
  ·    JIS Z 2371
  ·    MIL-STD-810G, Test Method 509.6
  ·    MIL-DTL-5541F
  ·    DEF STAN 00-35, Part 3, Test CN2
  ·    ASTM G 85, Practice A1 (AAS)
  ·    DIN 50021 (invalid)
  ·    EN ISO 7253 (invalid)
  ·    BS 7479 (invalid)
  ·    NF X41-002 (invalid)

NSS (5 wt.% solution of NaCl at pH 6.5–7.2 sprayed continuously over sample surface) is the oldest and still most widely used accelerated test recommended for corrosion assessment of metals and alloys, metallic coatings, conversion layers and organic coatings on metal substrates. ASS (5 wt.% NaCl acidified by acetic acid to pH 3.1–3.3) and CASS (further addition of cupper (II) chloride) are used for decorative coatings of copper, nickel and chrome or nickel and chrome and coated aluminium.
 
Sulfur dioxide (SO2) test in a humid atmosphere(Kesternich test) 
 ·    EN ISO 22479
 ·    EN ISO 13523-23
 ·    ASTM G87
 ·    EN 60086-2-42
 ·    DIN 50018 (DIN 50018 - 1,0 S, DIN 50018 - 2,0 S, DIN 50018 - KFW 1,0 S, DIN 50018 - KFW 2,0 S, DIN 50018 - AHT 1,0 S, DIN 50018 - AHT 2,0 S)
 ·    ISO 6988 (invalid)
 ·    ISO 3231 (invalid)
 
Kesternich testing (determination of resistance to humid atmospheres containing sulfur dioxide) was originally developed to model exposures of painted metals to industrially polluted atmospheres. Due to high sulphur dioxide concentrations, the correlation between results of field and Kesternich tests is limited. However, the SO2 tests proved to highlight efficiently presence of pores and other defects in organic and metallic coatings and their use has thus been growing in past years.
Conditions: Parts or panels with the total surface area of 0.5 m2 are placed inside a 300-litre chamber where 0.2, 1 or 2 litres of SO2 is introduced or generated and high humidity (condensation conditions) maintained for 8 hours. According to Method B, these periods are alternated with 16-hour repose at laboratory temperature at at relative humidity close to 50 %. When Method A is used, no drying is applies. A cycle takes 24 hours. Test duration is 1, 2, 5, 10, 15, 20 or more daily cycles. 
 
Other corrosion tests
EN ISO 12944
Procedures for performance testing of painted steel structures aimed for application in atmosphere with defined corrosivity are described. It is described here.

IEC 61646, Part 10.12
The procedure is similar to PV 1200. It was developed for photovoltaic panels but can be used as a very tough test of paint stability in view of adhesion and tendency to blistering.
Conditions: The test comprises at least ten 24-hour cycles at 85 % RH with the temperature varying between laboratory temperature, 85 °C, and –40 °C with two rates of cooling and heating at 100 and 200 °C per hour.
DEF STAN 00-35, Part 3, Test CN3
This test is applicable to materiel which is liable to be exposed to acidic atmospheres, particularly when deployed in industrial areas or near exhausts of any fuel burning appliance.
Conditions: The test procedure is comprised of test cycles each consisting of 2 hours exposure to an acid-laden atmosphere and a period of storage at 40 °C and 93 % RH.
DEF STAN 00-35, Part 3, Test CN4
The test is intended to determine the response of materiel to any potentially damaging effects of contaminating fluids such as fuels, oils, solvents, cleaning fluids, disinfectants, etc.

 
For weathering and climatic tests (degradation by UV and other climatic factors), click here.

We can help with selection of the optimal procedure in view of the required product or structure lifetime and service conditions.
We provide complete service including sample preparation, intermediate evaluations, e.g. for the assessment of time to red rust appearance, final evaluation and documentation of actual test conditions. The extent of intermediate and final assessment can be tailored according to the customer needs, following standards such as EN ISO 4628 on the evaluation of degradation of organic coatings (rusting, cracking, chalking, blistering, flaking, filiform corrosion, delamination), or particular customary procedures. Our analytical, electrochemical, metallographic and other equipment allows for in-detail analysis of corrosion degradation in terms of uniformity, mean and maximal pit depth, composition of corrosion products, paint delamination morphology and mechanism, paint adhesion (EN ISO 2409, ASTM D3359), paint water uptake, hem flange corrosion, etc.


In addition to standard tests, we offer the possibility to develop customary tests according to your specific needs. A battery of dc and ac electrochemical methods and immersion tests in combination with procedures listed above constitute a strong basis for proper assessment of material stability.
Service data are often required for confirmation of laboratory results. We oversee field exposures at well-managed natural weathering sites in the Czech Republic and other European countries, USA, China and elsewhere. The accelerated outdoor test by intermittent spraying of a salt solution according to ISO 11474, the SCAB (Simulated Corrosion Atmospheric Breakdown) test, can also be carried out.



Accelerated corrosion testing will help you reducing detrimental effects of corrosion.




About us

Technopark Kralupy is a spin-off of The University of Chemistry and Technology Prague serving the Czech and international industry in the field of building chemistry and similar subjects since 2015.
 
Contact

Department of Metallic Construction Materials 
Technopark Kralupy of the University of Chemistry and Technology Prague
Technopark Kralupy VŠCHT Praha
Náměstí G. Karse 7
278 01 Kralupy nad Vltavou
Czech Republic
kovy@technopark-kralupy.cz
Phone: +420 220 446 104, +420 723 242 413
© 2017–2024 Technopark Kralupy
                                    [submenuno] => 1
                                    [urlnadstranka] => 
                                    [ogobrazek] => 
                                    [pozadi] => 
                                    [iduzel] => 26783
                                    [canonical_url] => 
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /corrosion-testing
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [26281] => stdClass Object
                                (
                                    [nazev] => 
                                    [seo_title] => Photocatalytic materials and technologies
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 

Photocatalytic materials and technologies




Responsible worker


Expert adviser


Department of UCT Prague




Ing. Michal Baudys, Ph.D.


Prof. Dr. Ing. Josef Krýsa


Department of Inorganic Technology




 


 




1.  Offered services

 2.  Research and development activities
 3.  Equipment



determination of photocatalytic activity in gas phase using ISO standard methods
(removal of NOx, acetaldehyde, formaldehyde)


development of new photocatalytic materials, pigments and paints


apparatus for determination of photocatalytic activity in the gas phase according to the ISO methodology (including NOx analyzer. GC-FID chromatograph)




determination of photocatalytic activity using smart inks
 


development of new methods of photocatalytic activity assessment


equipment for the preparation of photocatalytic coatings, dispersions and active surfaces (dissolver, Turrax homogenizer, ultrasonic bath,)




equipment for application of photocatalytic active layers (dryer, set of round wound rot K-bars)




consultation in the field of photocatalytic materials


standardization


colorimeter for objective color measurement




 
The specialization of the group is focused on evaluation of photocatalytically active surface such as glass, ceramics, paints, concrete, textiles etc. Semiconductor photocatalysis represents promising method for removing pollutants from the environment, whether it is a degradation of toxic substances dissolved in water (pesticides, dyes, pharmaceuticals), in air (VOCs, NOx) or solid phase (fats). Another application is based on the ability to inactivate growth of the microorganism.
Application of photocatalysis can be divided in two main areas:

self-cleaning surfaces – the current application of such surface is mainly with regard to exterior facade paints which, via the photocatalytic processes are not susceptible to soiling and so help exterior of the building clean
air or water treatment- -based on the ability of photoactive material to oxidative decompose of specific undesirable substances present in the polluted air or water. This makes it possible to suppress some of the adverse effects of human activities, eg. air pollution in densely populated areas. Application of such methods it is possible to suppress some of the adverse effects of human activities. (air pollution in densely populated areas.)

 

 
Cooperation:







Faculty of Civil Engineering. CTU Prague
 







Queen’s University Belfast
 







Leibnitz Univerzität Hannover
 







Technishe Universität Berlin
 






Determination of photocatalytic activity in gas phase using ISO standard methods
These ISO standard methods are suitable for testing of photocatalytic products (paints, tiles, etc.) in terms of their ability to degrade of pollutants in the air.
Standard ISO methods of photocatalytic activity assessment in gas phase are based on photocatalytic degradation of pollutant such as NOx, formaldehyde in air during irradiation of sample by UV light in trough-flow photoreactor. Photocatalytic activity is than expressed as an amount of degraded pollutant during test.
 
Apparatus for photocatalytic activity assessment in gas phase using ISO methodology
 
 




standard


ISO 22197-1


ISO 22197-2


ISO 22197-3


ISO 22197-4




pollutant


NO


acetaldehyde


toluene


formaldehyde




Overview of the installed ISO methods, ISO 22197-3 (removal of toluene) is realized in cooperation with the Department of Inorganic Technology
Dimensions of sample:
The standard sample size is 5x10 cm (thickness 4 and 8 mm).
 
 
Determination of photocatalytic activity using new rapid method based on smart inks
This method is suitable for rapid testing of various photocatalytic materials such as self-cleaning glass, paints, and tiles. The principle of method is based on color change of dye in ink which occurs on photocatalytic surface. Currently, this method is in preliminary proceedings for the ISO standard.
Smart inks contain besides dye also glycerol which act as a sacrificial electron donor. Photogenerated holes oxidized glycerol to glyceraldehyde or to other intermediates, excited electrons reduce irreversible dye and this reduction is connected with change of the color. Due to the presence of glycerol, it comes to good charge separation and the reduction of dye is comparing to oxidative reaction (e.g. oxidation of azodye in aqueous solution) very quick and takes few seconds.
The assessment of photocatalytic activity is based on graphical analysis of sample cover with thin film of ink. Photocatalytic activity is than expressed as a time needed for 90% of overall color change of ink film.
Dimension of sample:
At least 8 samples (2,5x 2,5 cm) thickness 3 mm.
On the bottom there is illustrated an example of reduction of Resazurin on commercial self -cleaning glass and on reference sample without active layer. On the self-cleaning glass it comes to reduction of Resazurin to Resorufin which is connected with the color change form blue to pink. On the reference sample without active layer the photocatalytic reduction of Resazurin does not occur.


Color change of Resazurin on commercial self- cleaning glass (up) and reference inactive sample (bottom). 

 




Contact:
Skupina Fotokatalytické materiály a technologie
Technopark Kralupy VŠCHT Praha
Žižkova 7, 278 01 Kralupy nad Vltavou
baudysm@vscht.cz
Tel. 220 446 131





                                    [iduzel] => 26281
                                    [canonical_url] => //www.technopark-kralupy.cz/photocatalytic-materials
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /photocatalytic-materials
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [27960] => stdClass Object
                                (
                                    [nazev] => Microbial contamination of buildings and building material
                                    [seo_title] => Microbial contamination of buildings and building material
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 
Using of biotechnologies in building industry and environment protection, using of secondary raw materials
 
Technopark Kralupy in collaboration with The University of Chemistry and Technology, Prague pursues in fields of microbiology, biotechnology, environmental technology and using of wastes as a secondary raw materials following activities:
 

Isolation and determination of bacterial and fungal contamination of external masonry (plasters), internal spaces (walls - wood, masonry, decorating), floors (various floorings – linoleum, wood, various types of floating floors etc., ceilings, cellars etc.)

 
 
 
 
Microscope, equipped with fluorescent attachment and digital camera
 

Isolation and determination of presence of degradeting microflora and her biodiversity in a soil contaminate by organic pollutants on building sites


Isolation and determination of microbial contamination in the air of contaminated buildings - rooms


Determination of microbial purity of water sources (water wells, running and stagnant water etc.)

 
 
 
Laminar boxes

Biodecontamination of soils, waste, ground and surface waters contaminated by organic pollutants (oil hydrocarbons – petrol, disel oil, mineral oil, dissolving agents and aromatic hydrocarbons cokechemical origin)

 
At this activity it is used the biodegradable effect of blend of microorganismgenus Acinetobacter and Klebsiella, usually in a demobilized form in a flow bioreactor.
 
 
Inner filling of flow bioreactor
 
 
 
  
Purification course of ground water contamitated by kerosine using flow bioreactor
 
 
 
Purification of waste water using flow bioreactor
 
Bioremediation technology gain sense by a need to decontamitate interal premises of halls, courtyards and historically preservated objects, where is very limited possibility of removing of pollutants from floors, soil, subsoil etc. Typical example is the bioremediation of brick floor of  riding hall on the Lednice castle.
    

Using of  mycorrhiza in combination with bio coal on planting and growing of plants when afforesting and optimalizing of urbanism

 
Application of mycorrhizal fungi in a combination with bio coal, supplemented by a fertilizers and hydrocolloids is attractive especially by growing forest woody plants on bare spaces, places used for pooring of material of mining, in areas with deficiency of soil moisture, microflora and nutriens.
 
 
 
Cultures of ektomycorrhizal fungi on GKCH agar
 
 
 
 
Planting material inokulated by ektomymycorrhizal fungius
 
Application of mycorrhizal fungi with bio coal brings following advantages:
- increased lenght of roots
- enlarged surface for receipt of mineral nutriens,
- possibility of exploitation bigger volume of soil,
- increased intake of mineral nutrients and some microelements,
- selective absorption of some ions from a soil,
- better possibility use of very low concentrations of nutriens in a soil,
- better use of some inaccessible nutriens forms,
- improved resistance against invasion of root pests and parasites,
- improved tolerance against toxins,
- improved tolerance against low temperatures and stressful influence of dryness
- improved tolerance to changes of pH 
- radical improving of quality and fertility of soil via improvement of water regime,
- improving of cations exchange capacity (CEC),
- reduction of quantity applied artificial fertilizers,
- reduction of flush out of nutrients,
- increasing of available elements Ca, Mg, P and K in soil,
- reduction of content carbon dioxine and next greenhouse gases in air,
- reduction of emissions of nitrous oxide and methane,
- better structure of soil and ability to retain moisture,
- support growth of mycorrhizal fungi include vesicular-arbuscular mycorrhiza,
- increasing of microbial biomass in the soil and soil microbial respiration,
- increasing of soil aggregation in consequence of increase fungal hyphae,
- significant reduction of risk of occurrence of plants diseases 
a significant reduction in the risk of occurrence of plant diseases,
- support symbiotic nitrogen fixation in legumes plants.


Surface protection of building materials prior to the occurrence and development of mold in the interior and exterior

 
Using catalysts photoproducts
To prepare the catalysts photoproducts was worked out in which it is used as a starting material waste from titanium engineering production of medical devices and special resistant materials based on titanium.
 Obtained photolytic catalysts are used not only in removing the mold, but also for the disposal of organic pollutants contained in the exhaust gases of internal combustion engines, in cigarette smoke in the flue exhibiting undesirable odor of the product range of technologies like.
 
 
Efficacy photolytic catalyst rhodamine B
 
 
 
 Inhibitory effect on growth of photolytic catalyst Aspergillus niger

Using "smart sponge" Pythium oligandrum
 
Pythium oligandrum
 
 
 
Cultivation of 'smart sponges' Pythium oligandrum on a solid substrate
  
 Zoospore Pythium oligandrum

Processing technology and utilization of waste rubber

 

Contact:
Group of Mikrobial contamination
Miroslav.Marek@vscht.cz
Tel. 220 446 106, 776 805 452
 
                                    [urlnadstranka] => 
                                    [ogobrazek] => 
                                    [pozadi] => 
                                    [iduzel] => 27960
                                    [canonical_url] => 
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /microbiology
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [27957] => stdClass Object
                                (
                                    [nazev] => 
                                    [seo_title] => Laboratory service
                                    [seo_desc] => Laboratory service
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 
 




Central laboratory service 




Head of department of central laboratory


 Researcher


Guarantory institute of UCT Prague



 RNDr František Novák, CSc. 

Mgr. Hana Hrabalová 


 Central laboratory of UCT Prague




 

 


 



 





Central laboratory works in Technopark for internal branch project groups and as a service for external customers. It is equipped by the apparates installed in central laboratory and uses apparates of other laboratories of branches project groups too.
 
Another important function of department of Central laboratory service of Technopark Kralupy is a possibility to provide technical consultancy in field of  materials and changes of theirs properties.  These services can be use for determining composition of unknown samples or recommending of suitale method to finding out of required informations.




Overwiev of used methods and offered services


Standardized methods


Installed apparates




 
Thermic analysis

UV-VIS spectrometry

Raman and infrared spectrometry

ICP-OES spectrometry
 

 

 


 
 
 
 


 



 




Setaram Evo TGA/DTA
 
UV-Vis-NIR spectrophotometer Shimadzu
 
FTIR-Raman spectrometer Nicolet
 
Spectrometer Agilent 5100  ICP-OES




 




 




 




 




 




 




 













Thermic analysis




 





Installed apparat:   
Setaram Evo TGA/DTA
 
– Measuring range to 1400 (1600) ° C
– Sample weight 30 – 40 mg
– Measuring in dynamical atmosfphere N2, air or Ar
– identification and qualifications (of minerals) by changing their weight and temperature during the warming  (comparation with the standard)
– study of  progress of reactions in a sample by the change of temperature
– prediction of  behaviour of materials by increased temperatures
 
Applictions:
Owewrseeing of thermal dissociation of homogenous materials (weight loss, exo- and edothermic processes) of:

silicates
polymers










UV-Vis spectrophotometry 





Installed apparatus:
UV-Vis-NIR spectrophotometr Shimadzu UV-2600
 
Applications:

Measuring of apsorption spectra in the visible, UV and near IR zone of spectrum
Determination of concentration representative substances in aqueous solutions










Infrared and Raman spectrophotometry





Installed apparatus:
FTIR-Raman spectrometr Nicolet iS50
 
Applications:
Characterization and  identification of:

Polymers
Silicates, building materials
Comparation of the sample with the standard
Structural characterization










Optical emission spectrometry with inductively bounted plasma





Installed apparatus:
Spectrometr Agilent 5100  ICP-OES
 
Applications:
Determination of trace concentrations of metallic ions

in dilluted aqueous solutions (waters) 
in the ash extracts






Another specialized analyses are available in Central laboratories of UCT Prague


  Laboratory of organic elementary analysis
  Laboratory of NMR spectroscopy
  Laboratory of molecular spectroscopy
  Laboratory of atomic absorption spectrometry
  Laboratory of X-ray difractometry
  Laboratory of weight spectrometry 
  Laboratory of thermic analysis
  Laboratory of surface analysis 
  Laboratory of transmissionelectron microscopy

                                    [iduzel] => 27957
                                    [canonical_url] => //www.technopark-kralupy.cz/laboratory
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /laboratory
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [26784] => stdClass Object
                                (
                                    [nazev] => Corrosion monitoring by resistometric sensors
                                    [seo_title] => Corrosion monitoring by resistometric sensors
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 
Summary of all activities of Metallic Construction Materials group is here.

Information on the actual corrosion aggressiveness of environment is crucial for effective corrosion protection. Implementation of on-line and real time monitoring enables operators to take immediate countermeasures if corrosion is accelerating and decrease thus the negative impact and costs of corrosion.

The principle of the resistometric monitoring is simple and yet highly effective. The electric resistance of a measuring element made of the material of interest increases as its cross-sectional area decreases due to corrosion. In practice, two such elements are built into a probe. One element is exposed to the corrosive environment and corrodes, whereas the other element is shielded and, thus, protected from corrosion. The resistances of both elements are measured at the same time and resistivity changes due to varying temperature are compensated for. Based on the initial cross-sectional area of the exposed element, the cumulative metal loss at the time of reading can be determined.   













 Measurement with brass sensors with different coatings exposed in air polluted with acetic acid
 


Schematic drawing shows a resistometric sensor for atmospheric applications with the sensing part on the left hand side and the reference part on the right




                                                                               
We offer design, installation, maintenance and data evaluation of corrosion monitoring systems.

 
 
Advantages of MetriCorr and AirCorr sensors and loggers we use:

Continuous monitoring of sensor thickness reduction (residual sensor thickness).
Assessment of the total and actual corrosion rate and corrosion aggressiveness of the environment.
Short response time and high sensitivity.
Universal applicability in soil, atmosphere, water and other liquids without limitations by electric conductivity.
Small sensor size allowing for easy installation even in constrained areas.
Corrosion monitoring for a wide range of materials; sensors made of steel, zinc, copper, silver, lead, aluminium, tin, brass and bronze are available.
Sensors made of practically any pure of alloy metal can be produced upon request.

  
Resistometric sensors can be used for monitoring of

Corrosion rate of steel rebar in concrete.
Efficiency of cathodic protection of buried structures such as pipelines.
Corrosion aggressiveness during transport of products.
Efficiency of air quality control in museums, archives and computer rooms.
Corrosivity in industrial environments.

 
About us

Technopark Kralupy is a spin-off of The University of Chemistry and Technology Prague serving the Czech and international industry in the field of building chemistry and similar subjects since 2015.
 
Contact

Department of Metallic Construction Materials 
Technopark Kralupy of the University of Chemistry and Technology Prague
Technopark Kralupy VŠCHT Praha
Náměstí G. Karse 7
278 01 Kralupy nad Vltavou
Czech Republic
kovy@technopark-kralupy.cz
Phone: +420 220 446 104, +420 723 242 413
© 2017–2020 Technopark Kralupy
                                    [urlnadstranka] => 
                                    [obrazek] => 
                                    [iduzel] => 26784
                                    [canonical_url] => 
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /corrosion-monitoring
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [27729] => stdClass Object
                                (
                                    [nazev] => About
                                    [seo_title] => About Us
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [perex] => 
Profile
Technopark Kralupy of The University of Chemistry and Technology, Prague is a scientific – technical park with focussion on innovation in building chemistry and in related material fields.
                                    [ikona] => 
                                    [obrazek] => 0003~~M9Qz1IsvyS8oNQQA.jpg
                                    [obsah] => 
Technopark Kralupy
was established by the University of Chemistry and Technology, Prague (hereafter UCT Prague) as their separated research facility with the use of European subsidies.
Technopark Kralupy was built by UCT Prague in 2013-2014 when reconstructing the abandoned industrial mill in the center of Kralupy nad Vltavou.
We are
scientific - research institute focusing on building chemistry and other related fields.
We have
a team of highly qualified researchers, capable of carrying out even the most demanding assignments in the field of construction chemicals and materials engineering.
We also have the top laboratory equipment, allowing us to take even the most demanding challenges in the field of research and development.
Technopark Kralupy
University of Chemistry and Technology, Prague is a project whose goal was to build and at the time of its sustainability further develop infrastructure for research and innovation activities of the chemistry technologies.

We provide
the services of qualified applied research and development using the potential of experienced researchers and young researchers at universities too.
We offer
also the possibility of renting our labs for your research activities.
We provide also
consultancy and advisory activities.
Our goal
is also popularizing science among school students in the region.
 
Technopark Kralupy
meets the requirments internationally recognized definition of science and technology park that provides highly qualified services.
Technopark Kralupy is a spin-off of The University of Chemistry and Technology Prague serving the Czech and international industry in the field of building chemistry and similar subjects since 2015.
                                    [iduzel] => 27729
                                    [canonical_url] => //www.technopark-kralupy.cz/about
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /about
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka_obrazek_sloupce
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [27751] => stdClass Object
                                (
                                    [nazev] => Offered services
                                    [seo_title] => Services
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 
Ob
                                    [iduzel] => 27751
                                    [canonical_url] => //www.technopark-kralupy.cz/services
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /services
                                    [sablona] => stdClass Object
                                        (
                                            [class] => nastenka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [27755] => stdClass Object
                                (
                                    [nazev] => Branch focus
                                    [seo_title] => Branch Focus
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 
n
                                    [iduzel] => 27755
                                    [canonical_url] => //www.technopark-kralupy.cz/branch-focus
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /branch-focus
                                    [sablona] => stdClass Object
                                        (
                                            [class] => nastenka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [27804] => stdClass Object
                                (
                                    [nazev] => People
                                    [seo_title] => People
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [perex] => 
                                    [ikona] => 
                                    [obrazek] => 
                                    [obsah] => 
                                    [iduzel] => 27804
                                    [canonical_url] => //www.technopark-kralupy.cz/people
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /people
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka_sloupce_submenu
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [27805] => stdClass Object
                                (
                                    [nazev] => 
                                    [seo_title] => Information services
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [perex] => 
                                    [ikona] => 
                                    [obrazek] => 
                                    [ogobrazek] => 
                                    [pozadi] => 
                                    [obsah] => 
                                    [urlnadstranka] => 
                                    [iduzel] => 27805
                                    [canonical_url] => 
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /informations
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka_submenu
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [27806] => stdClass Object
                                (
                                    [nazev] => Contact
                                    [seo_title] => Contact
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [perex] => 
Address and coordinates
       
Technopark Kralupy Vysoké školy chemicko-technologické v Praze
Náměstí G. Karse 7/2, 
278 01 Kralupy nad Vltavou
Czech Republic
 
Coordinates            
coordnates GPS: 50°14'28.793"N, 14°18'43.325"E
 
Phone              
+420 220 446 100
e-mail                 
info@technopark-kralupy.cz
web                     
www.technopark-kralupy.cz
 
                                    [ikona] => 
                                    [obrazek] => 8_R1jzc0sjDMN8wFAA.jpg
                                    [pozadi] => 
                                    [obsah] => 
Getting Here Details
 
Access road by a car from Prague - Dejvice (headquarters  of The University of Chemistry and Technology)
Drive in direction to Suchdol and keep straight on taking the road Nr. 240. You will drive through village Černý Vůl, Velké Přílepy and Tursko to the outskirt of town of Kralupy. Drive through Kralupy in direction Veltrusy and Neratovice. Past the main roundabout go under the railway and on the next roundabout turn to the right. You will see the building of Technopark in front of you. Reserved parking space for visitors and employees of the Technopark is located behind the building of Technopark – go past the building of Technopark and turn right.
To pick up the barrier in front of the car park, please contact our reception (reception opening hours 7.00 - 15.00) via the intercom or the person you are visiting directly.
  Road by a car from Dejvice (map)
 
Access road by a car from Prague taking the highway D8
 Use city exit in direction to Teplice, that converts into the motorway D8. Leave the motorway on EXIT 9 Úžice (cca 10km from outskirts of Prague). From the roundabout turn to Kralupy and Veltrusy direction,  on the next roundabout go straight and on the next crossroad turn to right. Drive cca 100m, to the next roundabout and turn left to the Kralupy. Now keep straight to the periphery of Kralupy and drive up to large roundabout  next to the industry area. Turn to left to the housing estate of town, and cross the all the crossroads straight to the bridge. Past the bridge on the next roundabout turn to left. The building of Technopark you will see in front of you. Reserved parking space for visitors and employees of the Technopatk you will find behind the building of Technopark – go past the building of Technopark and turn right.
 Road from motorway D8 (map)
 
By a train
From Prague – “Hlavní nádraží” (Main station), station “Masarykovo nádraží”, station “Praha – Holešovice” or train stop “Podbaba” depart the trains in direction to Kralupy.  This is the nearest stop from headquarters of The University of Chemistry and Technology. The stop is located close the terminal stop of tram “Podbaba” . Go behind the petrol station and use the underpass to come to peron of the stop in direction Kralupy. The journey takes about 25 min. From the building of station “Kralupy nad Vltavou” turn to the left and after cca 50m turn to the right to street “Žižkova” in direction to “Komenského”  square. You will find the building of the Technopark on the left side of the street.
 
By a bus
From Prague – station of the subway “Kobylisy” (line “C”) depart at hourly intervals buses Nr. 370 in direction Kralupy nad Vltavou. The journey takes cca 50 min. Get off the bus on bus stop “Městský úřad Kralupy”, this station is next to Technopark. The entrance is on the opposite side of building.
Train/bus timetables (IDOS)
How you will find us in Kralupy (map)


 
 
                                    [urlnadstranka] => 
                                    [iduzel] => 27806
                                    [canonical_url] => 
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /contact
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka_obrazek
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [1485] => stdClass Object
                                (
                                    [nazev] => Stránka nenalezena
                                    [seo_title] => Stránka nenalezena (chyba 404)
                                    [seo_desc] => Chyba 404
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 
Chyba 404
Požadovaná stránka se na webu (již) nenachází. Kontaktuje prosím webmastera a upozorněte jej na chybu.
Pokud jste změnili jazyk stránek, je možné, že požadovaná stránka v překladu neexistuje. Pro pokračování prosím klikněte na home.  
Děkujeme!
                                    [urlnadstranka] => 
                                    [ogobrazek] => 
                                    [pozadi] => 
                                    [iduzel] => 1485
                                    [canonical_url] => 
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /[error404]
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [10947] => stdClass Object
                                (
                                    [nazev] => Přístup odepřen (chyba 403)
                                    [seo_title] => Přístup odepřen
                                    [seo_desc] => Chyba 403
                                    [autor] => 
                                    [autor_email] => 
                                    [perex] => 
                                    [ikona] => zamek
                                    [obrazek] => 
                                    [ogobrazek] => 
                                    [pozadi] => 
                                    [obsah] => 
Nemáte přístup k obsahu stránky.
Zkontrolujte, zda jste v síti VŠCHT Praha, nebo se přihlaste (v pravém horním rohu stránek).
                                    [urlnadstranka] => 
                                    [iduzel] => 10947
                                    [canonical_url] => 
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /[error403]
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka_ikona
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                        )

                    [iduzel] => 25476
                    [canonical_url] => 
                    [skupina_www] => Array
                        (
                        )

                    [url] => 
                    [sablona] => stdClass Object
                        (
                            [class] => 
                            [html] => 
                            [css] => 
                            [js] => 
                            [autonomni] => 
                        )

                )

        )

    [sablona] => stdClass Object
        (
            [class] => web
            [html] => 
            [css] => 
            [js] => 
            [autonomni] => 1
        )

    [api_suffix] => 
)

DATA

stdClass Object
(
    [nazev] => People
    [seo_title] => People
    [seo_desc] => 
    [autor] => 
    [autor_email] => 
    [perex] => 
    [ikona] => 
    [obrazek] => 
    [ogobrazek] => 
    [pozadi] => 
    [obsah] => 
    [submenuno] => 
    [urlnadstranka] => 
    [newurl_domain] => 'www.technopark-kralupy.cz'
    [newurl_jazyk] => 'en'
    [newurl_akce] => '/people'
    [newurl_iduzel] => 27804
    [newurl_path] => 8549/7608/25473/25476/27804
    [newurl_path_link] => Odkaz na newurlCMS
    [iduzel] => 27804
    [platne_od] => 08.08.2016 16:32:00
    [zmeneno_cas] => 08.08.2016 16:39:49.040008
    [zmeneno_uzivatel_jmeno] => Karel Hrušovský
    [canonical_url] => //www.technopark-kralupy.cz/people
    [idvazba] => 35380
    [cms_time] => 1713865963
    [skupina_www] => Array
        (
        )

    [slovnik] => Array
        (
        )

    [poduzel] => stdClass Object
        (
            [28005] => stdClass Object
                (
                    [nazev] => Personnel policy of Technopark
                    [seo_title] => Personnel policy of Technopark
                    [seo_desc] => Personnel policy of Technopark
                    [autor] => 
                    [autor_email] => 
                    [obsah] => 
Technopark Kralupy of The University of Chemistry and Technology in Prague (Technopark) is a customer-oriented science and technology park and its priorities are customers, service quality and motivated staff.
Personnel work in Technopark will therefore be guided by the following principles:
In labor relations, to observe and respect the legislation, internal regulations and directives of ICT Prague Technopark issued for this area.
Observe the principle of equal opportunities in recruitment, placement, compensation, training, and career management staff and scientific workers Technopark, honoring the principles of scientific research, interdisciplinary collaboration, open communication and social responsibility to create conditions for a progressive innovative solutions.
On a project basis to create research teams to promote their effective composition, collaboration and exchange of experiences between different groups across the Technopark. Research groups to create a team atmosphere and proactive.
Staff research groups and employees of Technopark lead to the creation of conditions for creative research work and harmonious cooperation within the Technopark in order to achieve and maintain a competitive quality of services provided Technopark.
Promote training and development, which will be based on the needs of the activities of Technopark and its employees, while honoring the principle of full utilization of the talent, creativity and the benefits of teamwork. Any employee Technopark agree personal development plan that will be periodically evaluated.
Each employee receives Technopark for another term specific personal tasks. These personal tasks will be evaluated after a period of superiors.
Professionals working in Technopark as its employees or members of research groups will participate in the preparation of accreditation and certification and subsequent recertification. Familiar with and respect the principles of quality systems and will cooperate in their implementation.
Intellectual property generated in actions Technopark is inalienable, and will always be judged by the law and will follow the framework contracts between ICT and contractors.
Encourage employees with a sense of belonging to the Technopark and its activities, leading employees and other workers to spread the good name of the Technopark at universities and in public.
                    [poduzel] => Array
                        (
                        )

                    [iduzel] => 28005
                    [canonical_url] => //www.technopark-kralupy.cz/people/policy
                    [skupina_www] => Array
                        (
                        )

                    [url] => /people/policy
                    [sablona] => stdClass Object
                        (
                            [class] => stranka
                            [html] => 
                            [css] => 
                            [js] => 
                            [autonomni] => 1
                        )

                )

            [28007] => stdClass Object
                (
                    [nazev] => Education and personal development
                    [seo_title] => Education and personal development
                    [seo_desc] => Education and personal development
                    [autor] => 
                    [autor_email] => 
                    [obsah] => 
Qualified and motivated researchers and specialists of the Technopark are the precondition for success and satisfaction of its customers. Therefore, in the Technopark is put the great emphasis on training and personal development of researchers and technical - administrative staff.
To continue their studies
The researchers, who come from universities, have the opportunity to continue their education in master's or doctoral studies.
The newly initiated study
Members of the project team and staff Technopark may commence studies in fields related to the activity they perform in Technopark. It is also possible to realize part of their studies in solving projects in Technopark
Specialization
Another type of education is expanding, respectively. deepening specialization in the subject, which the researcher or specialist devotes Technopark. This is how a graduate or other specialized studies and fellowships at other institutions, including foreign ones. Here Technopark works closely with tribal constitution of UCT Prague.
Soft skills and team training
Technopark supports activities designed to increase the efficiency of management, team management, the application of project management principles, but also deepening presentation and communication skills. Trainings are conducted within teams and departments Technopark both internally and outside the building for special events.
Team skills are developed in the framework of Technopark in various forms in order to build effectively communicating and collaborating teams capable of addressing the challenges and innovations. Technopark promotes communication and collaboration across disciplines.
                    [poduzel] => Array
                        (
                        )

                    [iduzel] => 28007
                    [canonical_url] => //www.technopark-kralupy.cz/people/education
                    [skupina_www] => Array
                        (
                        )

                    [url] => /people/education
                    [sablona] => stdClass Object
                        (
                            [class] => stranka
                            [html] => 
                            [css] => 
                            [js] => 
                            [autonomni] => 1
                        )

                )

            [28006] => stdClass Object
                (
                    [nazev] => Our employees
                    [seo_title] => Our employees
                    [seo_desc] => 
                    [autor] => 
                    [autor_email] => 
                    [perex] => 
                    [ikona] => 
                    [obrazek] => 
                    [pozadi] => 
                    [obsah] => 
Professionals working in Technopark, according to the activity performed are divided into two basic groups:
Management, administration, technicians

The administrative-managerial, advisory and technical activities ensures a permanent group of workers - employees of Technopark Kralupy of The University of Chemistry and Technology in Prague.
These workers:
manage administrative and economic activity of the Technopark, negotiate with business partners, representatives of universities, experts and promote its services
provide security, management, maintenance and trouble-free operation of the building
carry out technical and economic support for research activities of project groups and their workers
providing services to third parties - design and innovation consulting, long-term and short-term rentals and technical - organizational and other services arising from the activities of Technopark
 
Researchers of Technopark

Researchers working in Technopark operate under industry-oriented project groups Technopark, more Branch focus.
These workers:
carry out research, development and innovation activities (R & D), testing, analysis, and other professional activities
work in project groups and are employed in Technopark on a project basis, therefore, for the duration of the project
the activity of research groups can work part-time
 
Inclusion of students, researchers and practitioners students
Students
The Technopark Kralupy of the UCT Prague students can act within the framework of research projects, especially master's or doctoral studies. A student is an employee while working in the UCT Technopark ensuring adherence to high professional standards of work in Technopark. Besides students of the UCT Prague are welcome also students of other universities. Employment of students is done on a project basis, and can be implemented on a part-time job.
Researchers
Within the framework of projects and other research and development in the Technopark may work scientists. Employment of researchers is done on a project basis.
Practitioners
In some projects, and other research and development find their employment also workers who come from areas outside of universities. Criterion is solved particular contribution to the project or contract, which is a particular research group engaged in Technopark.
                    [urlnadstranka] => 
                    [poduzel] => stdClass Object
                        (
                            [28395] => stdClass Object
                                (
                                    [nazev] => Petr Antoš, Dr., Ing., Ph.D., EUR ING, EurChem
                                    [seo_title] => Antos
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 




 
 
email:  petr.antos@vscht.cz

phone: +420220446110,130







 


Photos displayed with the consent of the photographed person.





EDUCATION


2000-2004       University of Pardubice, Faculty of Chemical Technology, technology of macromolecular substances (doctoral studies)
1992-1996       University of Pardubice, Faculty of Chemical Technology, inorganic technology (doctoral studies)
1975-1980     University of Chemistry and Technology, Pardubice, Technical Analytical and Physical Chemistry (master studies)


WORK EXPERIENCE

 
OTHER EXPERIENCE


Membership in professional organizations
Editor in chief of magazine "Chemagazín" 
Member of the Scientific Board of Faculty of Chemical Technology University of Pardubice
Member of the Board of doctoral study program "Surface Engineering" University of Pardubice
Member FATIPEC (Fédération d‘ Associations de Techniciens des Industries des Peintures, vernis, émaux et encres d’imprimerie de l’Europe Continentale)
Membership in Slovak society for surfacing
Membership in the Czech Chemical Society - a committee member expert group for paints, resins and pigments
Membership in Czech Society of Industrial Chemistry - a member of the Main Committee
A member of the local branch for building chemistry-Uniplast Liberec of Czech construction company
Club membership EUR ING

Awards

Languages
      German               
      English                  

Selected projects
* Advanced materials and technologies for the reconstruction of historic buildings, ev. no. FT-TA4 / 070. 
*Fillers based calcined kaolin and their use in the manufacture of paints and polymer composites, ev. no. 2A-1TP1 / 014.
* Mineral resources for heritage restoration, ev. no. DF11P01OVV005.
* Low viscosity inorganic binders and their applications, ev. no. TA01010160.
* Use of shale as an opening material for production of foundry molds and cores ev. no. FR-TI1 / 211.

Publications

Courses



1981-1983
Institute MoI Kralupy nad Vltavou, systems engineering and data processing (graduate studies)


1983-1985  
 Institute MoI Kralupy nad Vltavou, THN in the management of the chemical industry (graduate studies)


1992-1993
University of Technology – technological faculty Zlín, Cleaner production (graduate studies)


1995-1997
University of Pardubice, Faculty of Chemical Technology, New knowledge and experience in the field of paints and finishes (license studies) Certificate of professional competence for managing the work with ionizing radiation. Certificate of the Award of Designation of European Engineer, Certificate No. 24138 dated 11. 2. 1999. Certificate European Chemist Registration Board, Record of ECRB made on 12 5th, 2000 under No. 727th



       

Other activities


                                    [urlnadstranka] => 
                                    [iduzel] => 28395
                                    [canonical_url] => 
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /people/employees/antos-en
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [28402] => stdClass Object
                                (
                                    [nazev] => Michal Baudys, Ing., PhD.
                                    [seo_title] => Baudys
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 




 
 
email:  baudysm@vscht.cz

phone: +420 22044 6131, 6109








EDUCATION

2016      Ph.D.        University of Chemistry and Technology, Prague
2010      Ing.           University of Chemistry and Technology, Prague
2008      Bc.            University of Chemistry and Technology, Prague

WORK EXPIRIENCE





2015


-


present


scientistic worker
Technopark Kralupy of University of Chemistry and Technology, Praha
independent scientific-research activities 




2010


-


2015


scientistic worker
Institute of Inorganic Technology, University of Chemistry and Technology, Prague
independent scientific-research activities 




2009

 
 

Research Assistant
DCH - Sincolor a.s.
preparation of paints




2005


-


2006


lecturing
Teaching chemistry circle




 
OTHER EXPERIENCE

Membership in professional organizations

Awards
2011                            Scholarship of Votoček
2009                           Award of Agrofert 
                                    Work: Preparation and properties of self-cleaning epoxy coatings
2009                          1st place SVK - Section inorganic technology
                                    Work: Preparation and properties of self-cleaning coatings
2008                            2 st place SVK - Section inorganic technology
                                     Work: The photocatalytic degradation of azo dye Orange II in suspensions and layers of TiO2 photocatalysts
Languages
      German                      level C1
                                         passing the exam: Deutsches Sprachdiplom der Kultusminister Konferenz, Stufe II 
      English                   fluent written and spoken, basic level

Selected projects
2013 - 2014       Smart Inks as a Standard Testing Tool for Self Cleaning Surfaces - INTEC (FP7-NMP-2012-CSA-6, GA no. 319210)  http://www.fp7-intec.eu/
2012 - 2014      Research and development of technology of production of zinc oxide nanoparticles (MPO FR-TI4/364)
2005 - 2011      Research Centre for Nanosurface Engineering "NANOPIN"(Projekt 1M0577),  http://www.nanopin.eu/index.html

Publications
1) M.Baudys, J. Krýsa, A. Mills Smart inks as photocatalytic activity indicators  of self clenaing paints, Catalysis Today, Article in Press (2016), doi:10.1016/j.cattod.2016.04.041
2) M. Baudys, J. Krýsa, M. Zlámal, A. Mills, Chemical Engineering Journal 261 (2015) 83-87.
3) M. Baudys, M. Zlámal, J. Krýsa, J. Jirkovsky, P. Kluson, Reaction Kinetics, Mechanisms and Catalysis 106 (2012) 297-311.
4) J. Krýsa, M. Baudys, A. Mills, Catalysis Today 240 (2015) 132-137.
5) J. Krýsa, M. Baudys, M. Zlámal, H. Krýsová, M. Morozová, P. Klusoň, Catalysis Today 230 (2014) 2-7.
6) Mills, J. Hepburn, D. Hazafy, C. O'Rourke, J. Krysa, M. Baudys, M. Zlamal, H. Bartkova, C.E. Hill, K.R. Winn, M.E. Simonsen, E.G. Søgaard, S.C. Pillai, N.S. Leyland, R. Fagan, F. Neumann, C. Lampe, T. Graumann, Journal of Photochemistry and Photobiology A: Chemistry 272 (2013) 18-20.
7) Mills, J. Hepburn, D. Hazafy, C. O'Rourke, N. Wells, J. Krysa, M. Baudys, M. Zlamal, H. Bartkova, C.E. Hill, K.R. Winn, M.E. Simonsen, E.G. Søgaard, S. Banerjee, R. Fagan, S.C. Pillai, Journal of Photochemistry and Photobiology A: Chemistry 290 (2014) 63-71.
8) M. Morozova, P. Kluson, P. Dzik, M. Vesely, M. Baudys, J. Krysa, O. Solcova, Journal of Sol-Gel Science and Technology 65 (2013) 452-458.

Courses
2015       Taking of samples course
2011      Vibrational spectroscopy course

Other activities
Organizing committee of conference: Czech-Austrian workshop: New trends in application of photo and electrocatalysis



                                    [iduzel] => 28402
                                    [canonical_url] => //www.technopark-kralupy.cz/people/employees/baudys-en
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /people/employees/baudys-en
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [37837] => stdClass Object
                                (
                                    [nazev] => Adéla Fridrichová, Ing., Ph.D.
                                    [seo_title] => Fridrichova
                                    [seo_desc] => Fridrichova
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 




 
 
email:  Adela.Fridrichova@vscht.cz

phone: +420 22044 6117








 
EDUCATION

2017      Ph.D.       University of Pardubice, Faculty of Chemical Technology
2011      Ing.          University of Pardubice, Faculty of Chemical Technology
2009      Bc.            University of Pardubice, Faculty of Chemical Technology



WORK EXPERIENCE





2016


-


present


scientistic worker
Technopark Kralupy of University of Chemistry and Technology, Praha
independent scientific-research activities 




2011


-


2016


technical  worker
J. Heyrovsky Institute of Physical Chemistry of the CAS, v. v. i.,Praha
independent research activities 




 
 
OTHER EXPERIENCE


Awards
2011                           Price of the endowment fund of Miroslav Jurečka in competition for the best dissertations, 3rd prize

Languages
   English    
   German                    
              

Publications
 Adéla Fridrichová, Aleš Růžička, Martin Lamač, Michal Horáček 
Structural Differences of Half-sandwich Complexes of Scandium and Yttrium containing Bulky Substituents
     Inorganic Chemistry Communication, 76, 62–66, 2017
 Adéla Fridrichová, Vojtech Varga, Jiří Pinkas, Martin Lamač, Aleš Růžička, Michal Horáček
Yttrocene Chloride and Methyl Complexes with Variously Substituted Cyclopentadienyl Ligands: Synthesis, Characterization, and Reactivity toward Ethylenek 
   European Journal of Inorganic Chemistry, 3713-3721, 2016
 Roman Olejník, Zdeňka Padělková, Adéla Fridrichová, Michal Horáček, Jan Merna, Aleš Růžička 
Structure and potential applications of amido lanthanide complexes chelated by bifunctional β-diketiminate ligand 
    Journal of Organometallic Chemistry, 759, 1-10, 2014
 Adéla Fridrichová, Barbora Mairychová, Zdeňka Padělková, Antonín Lyčka, Klaus Jurkschat, Roman Jambor, Libor Dostál 
Straightforward synthesis of novel cyclic metallasiloxanes supported by an N,C,N-chelating ligand 
    Dalton Transactions, 42, 16403, 2013
 Adéla Fridrichová, Tomáš Svoboda, Roman Jambor, Zdeňka Padělková, Aleš Růžička, Milan Erben, Robert Jirásko, Libor Dostál 
Synthesis and Structural Study on Organoantimony(III) and Organobismuth(III) Hydroxides Containing an NCN Pincer Type Ligand
    Organometallics, 28, 5522-5528, 2009

Courses
Université de Strasbourg, Laboratoire de Chimie de Coordination, France
 Theme: Nickel Complexes with the zwitterionic benzoquinonemonoimine ligand

                                    [iduzel] => 37837
                                    [canonical_url] => //www.technopark-kralupy.cz/people/emploees/fridrichova-en
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /people/emploees/fridrichova-en
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [28406] => stdClass Object
                                (
                                    [nazev] => Hana Hrabalová, Mgr.
                                    [seo_title] => Hrabalová
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 





 email:  Hana.Hrabalova@vscht.cz

phone: +420 22044 6123, 6113








EDUCATION

1988      Mgr.        Faculty of Education Charles University Praha

WORK EXPERIENCE





2015


-


present


Chemist - analyst
Technopark Kralupy  University of Chemistry and Technology, Praha
chemical analysis




2004


-


2015


Chemist - analyst
Dekonta a.s., Dřetovice
active cooperation in grant projects, chemical analysis, coordination of operation of laboratories, accreditation of analytical methods




1992

 -
 2004

Teacher
Elementary School Komenského, Kralupy nad Vltavou
teaching mathematics and physics




1988


-


1992


Highschool teacher
Dvořákovo gymnázium Kralupy nad vltavou
teaching mathematics and physics




 
OTHER EXPERIENCE

Membership in professional organizations

Awards

Languages
      English            advanced level
      Russian           advanced level
       German          passive knowledge

Selected projects



2012 - 2014

Development and application of technology combined decontamination units for the removal of VOC emissions, including odor substances



2009 - 2014

Biological decontamination of materials on site Všebořice SITA CZ



2013 - 2014

Production and use of special activated carbon to large-scale environmental applications



2008 - 2012

Research of chemical and physical properties of humic substances, their biological activity and mechanisms of action on microorganisms, plant and animal cells, depending on their structure



2007 - 2011

Research progressive methods processing waste into secondary energy sources (alternative fuels)





Publications
Courses
2003 - 2016      
                                                         Determination of NEL and the EL in waters and soils – Nicolet CZ
                                                           Course measurement of vibration spectra - Spectroscopic Society of Marek Marci
                                                           Determination of NEL and the EL in waters and soils using FTIR spectroscopy – Nicolet.cz
                                                           Theoretical basics of IR microscopy – Nicolet CZ
                                                           FTIR diagnostics petroleum products – Nicolet CZ
                                                           New trends in chromatography – Sigma Aldrich
                                                           LC a LC/MS Tour – Agilent Technologies
                                                          Course: Sampling rate for workers of water management and control laboratories
                                                          Presentation Skills Course – TUTR
                                                           Course Corel Draw – Jubela,s.r.o
                                                          Gas chromatography Course – Pragolab
1998 - 2003      education courses in mathematics, chemistry and work on PC
Other activities


                                    [iduzel] => 28406
                                    [canonical_url] => //www.technopark-kralupy.cz/people/emploees/hrabalova-en
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /people/emploees/hrabalova-en
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [37834] => stdClass Object
                                (
                                    [nazev] => Oleg Kikhtyanin, Ing., Ph.D.
                                    [seo_title] => Kikhtyanin
                                    [seo_desc] => Kikhtyanin
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 




 
 
email:








Oleg.Kikhtyanin








@vscht.cz

phone: +420 22044 6131








EDUCATION


2012      Ph.D.       Tomsk State University 
1984       Ing.         Novosibirsk State University

 
WORK EXPERIENCE





2017


-


present


Researcher
Technopark Kralupy of University of Chemistry and Technology, Praha
independent scientific-research activities 




2013


-


2016


Senior Researcher
UNICRE (VUAnCh), Litvinov, Czech Republic
independent scientific-research activities 




2000

-
 2013

Researcher
Boreskov Institute of Catalysis, Novosibirsk
independent scientific-research activities 




1992


-


2000


Head of Group of Organic Synthesis
Scientific-Engineering Centre “Zeosit”, Novosibirsk
scientific-managerial activities 




1984


-


1992


Junior Researcher
Boreskov Institute of Catalysis, Novosibirsk
scientific-research activities 






 
OTHER EXPERIENCE


Languages
Russian                    native speaker
English                    advanced level, B2

Selected projects
2015 - 2016     Analysis of the relationship between structure / basicity Mg / Al, Ca / Al and Zn / Al mixed oxides and their activity in the aldol condensation (GACR)
2014 - 2016       Inteligent Design of Nanoporous Adsorbents and Catalysts (GACR)
2014 - 2016     The preparation of hydrocarbons suitable for jet fuel two-stage conversion of triglycerides of carboxylic acids in the presence of hydrogen (KONTAKT II, Ministry of Education)

Publications
 Ramos, R., Tišler, Z., Kikhtyanin, O., Kubička, D.,k 
Solvent effects in hydrodeoxygenation of furfural-acetone aldol condensation products over Pt/TiO2 catalyst
  Applied Catalysis A: General 2017, 530, pp. 174-183
  Kikhtyanin, O., Bulánek, R., Frolich, K., Čejka, J., Kubička, D.,
Aldol condensation of furfural with acetone over ion-exchanged and impregnated potassium BEA zeolites
   Journal of Molecular Catalysis A: Chemical 2016, 424, pp. 358-368
  Nguyen Thanh, D., Kikhtyanin, O., Ramos, R., (...), Munshi, T., Kubička, D., 
Document Nanosized TiO2—A promising catalyst for the aldol condensation of furfural with acetone in biomass upgrading
   Catalysis Today 2016, 277, pp. 97-107
  Kikhtyanin, O., Lesnik, E., Kubička, D.,
The occurrence of Cannizzaro reaction over Mg-Al hydrotalcites
   Applied Catalysis A: General 2016, 525, pp. 215-225
  Ramos, R., Tišler, Z., Kikhtyanin, O., Kubička, D.,
Towards understanding the hydrodeoxygenation pathways of furfural-acetone aldol condensation products over supported Pt catalysts 
   Catalysis Science and Technology 2016, 6 (6), pp. 1829-1841
  Kubička, D., Kikhtyanin, O.,
Opportunities for zeolites in biomass upgrading-Lessons from the refining and petrochemical industry 
   Catalysis Today 2015, 243 (C), pp. 10-22
  Kikhtyanin, O., Kubička, D., Čejka, J., 
Toward understanding of the role of Lewis acidity in aldol condensation of acetone and furfural using MOF and zeolite catalysts 
   Catalysis Today 2015, 243 (C), pp. 158-162
  Hora, L., Kikhtyanin, O., Čapek, L., Bortnovskiy, O., Kubička, D., 
Comparative study of physico-chemical properties of laboratory and industrially prepared layered double hydroxides and their behavior in aldol condensation of furfural and acetone
   Catalysis Today, 2015 241 (PB), pp. 221-230
  Kikhtyanin, O., Hora, L., Kubička, D.,
Document Unprecedented selectivities in aldol condensation over Mg-Al hydrotalcite in a fixed bed reactor setup 
   Catalysis Communications 2015, 58, pp. 89-92
  Kikhtyanin, O., Chlubná, P., Jindrová, T., Kubička, D.,
Document Peculiar behavior of MWW materials in aldol condensation of furfural and acetone 
   Dalton Transactions 2014 43 (27), pp. 10628-10641
                                    [iduzel] => 37834
                                    [canonical_url] => //www.technopark-kralupy.cz/people/emploees/kikhtyanin-en
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /people/emploees/kikhtyanin-en
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [28408] => stdClass Object
                                (
                                    [nazev] => David Kubička, Ing., Ph.D., MBA
                                    [seo_title] => Kubicka
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 





email:  David.Kubicka@vscht.cz

phone: +420 22044 6106








EDUCATION

2013      MBA          University of New York Prague (UNYP), Praha
2005      Ph.D.        Ǻbo Akademi, Laboratory of Industrial Chemistry and Reaction Engineering, Turku, Finland
1999      Ing.           University of Chemistry and Technology, Praha

WORK EXPERIENCE





2016


-


present


scientistic worker
Technopark Kralupy of University of Chemistry and Technology, Praha
independent scientific-research activities 




2011


-


2016


Leader of the research program RENTECH (Renewable & Environmental Technologies) of centre UniCRE
Research Institute of Inorganic Chemistry (VUANCH)




2006

- 
 2010

Research worker - senior
Research Institute of Inorganic Chemistry (VUANCH)




2005

 
 

post-doc position
Ǻbo Akademi, Laboratory of Industrial Chemistry and Reaction Engineering, Turku, Finland




 2001
- 
 2005

student doktorského studijního programu
Ǻbo Akademi, Laboratory of Industrial Chemistry and Reaction Engineering, Turku, Finland



1999
-
2001

Research worker – junior
Research Institute of Inorganic Chemistry (VUANCH)




 
OTHER EXPERIENCE

Membership in professional organizations
Member of the Czech Chemical Society
Member of the American Chemical Society
Member of the Czech Society of Industrial Chemistry
Member of Czech Catalysis Society (provisional chairman of the society)
Awards
2013 – Valedictorian of the MBA class at UNYP
2012 – Award of the CEO of Unipetrol, a.s. as a recognition of the active, engaged and innovative approach to work on research projects in Research Institute of Inorganic Chemistry
2012 – Best oral presentation award at Bio4SUD conference, Thessaloniki, Greece
2008 – Best poster award at Future Feedstocks for Fuels and Chemicals Conference, Berlin, Germany
2007 – Best doctoral thesis in the field of catalysis in Finland in the years 2004–2006 awarded by the Finnish Catalysis Society.
Languages
English                   fluent, C2
German                  advanced level B2/C1
 
Vybrané projekty 2014
1. D. Kubička, O. Kikhtyanin, „Opportunities for zeolites in biomass upgrading - lessons from the refining and petrochemical industry“, Catal. Today 243 (2015) 10-22, (prepared and accepted for publication in 2014)
2. S. Al-Khattaf, S.A. Ali, A.M. Aitani, N. Žilková, D. Kubička, J. Čejka, „Recent advances in reactions of alkylbenzenes over novel zeolites: The effect of zeolite structure and morphology“, Catal. Rev. 56 (2014) 333-402.
3. Successfuly concluded 5-year research project „Catalytic transformations of lignin to fine chemicals and monomers“ financed by the Czech Science Foundation (GAČR, project number P106/10/1733). D. Kubička was the principal investigator of the project.
Publications
* Dissemination activities (please see the appendix for details)
o 7 invited lectures (keynote / plenary) at international conferences / workshops
o 9 invited lectures at other meetings
o Numerous presentations (oral / poster) at international conferences
o More than 60 scientific articles
* Editing activities
o Editor of a book “Heterogeneous Catalysis in Biomass to Chemicals and Fuels”, Research Signpost, ISBN: 978-81-308-0462-0, (Co-editor I. Kubičková)
Courses

Other activities
o CZ patents: 1 awarded, 2 under evaluation
o 1 utility model, 1 verified technology
                                    [iduzel] => 28408
                                    [canonical_url] => //www.technopark-kralupy.cz/people/employees/kubicka-en
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /people/employees/kubicka-en
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [28414] => stdClass Object
                                (
                                    [nazev] => Miroslav Marek, Doc., Ing., CSc.
                                    [seo_title] => Marek
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 





 
email:  Miroslav.Marek@vscht.cz

phone: +420 22044 6112








EDUCATION

1985      Doc.        University of Chemistry and Technology, Prague
1978      CSc.        University of Chemistry and Technology, Prague
1974      Ing.         University of Chemistry and Technology, Prague

WORK EXPERIENCE





2015


-


doposud


scientistic worker
Technopark Kralupy of University of Chemistry and Technology, Praha
independent scientific-research activities




1986

- 
 2015

docent
University of Chemistry and Technology, Prague




1978


-


 1986


Assistant Professor
University of Chemistry and Technology, Prague




1974


-


1978


research assistant
University of Chemistry and Technology, Prague





 
OTHER EXPERIENCE

Membership in professional organizations
A member of the working group Applied Biocatalysis, European Federation of Biotechnology
Awards

Jazyky
      Angličtina
      Ruština 
                   
Selected projects

Publications

Jiří Jarý, Miroslav Marek, Zuzana Novotná: Process for preparing glycosides, CZ Pat. č. 257642 (1988).
Marek Miroslav, Vrbová Eva, Volf Radko, Doležal Bohuslav: An enzyme electrode based on flavin oxidoreductases, CZ Pat. č. 266011 (1989).
Miroslav Marek, Pavel Rauch, Ján Galoci, Petr Matějka, Vladimír Macháň: Way radioimmunochemical determination of digoxin, CZ Pat. č. 263648 (1988).
Petr Musil, Jiří Čížek, Jaroslav Žák, Kateřina Demnerová, Miroslav Marek: Method bioasanace of oil pollution by the selected bacteria, CZ Pat. č. 276879 (1992).
Marek Miroslav, Voldřich Michal, Pacák Jan, Vacl Pavel: The method of liquidation of spent cutting and hydraulic fluids and oils, CZ Pat. č. 280509 (1995).
Kubánek Vladimír, Marek Miroslav, Drha Lubomír, Kozák Jan: Process for the preparation of vulcanization mixtures of devulcanized rubber and recycled polymers, CZ Pat. č. 286214 (1999).
Dobiáš Jaroslav, Marek Miroslav, Chudáčková Kamila, Voldřich Michal: Process for the preparation of packaging materials with antimicrobial properties, CZ Pat. č. 292473 (2003).
Marek Miroslav, Šafner Karel, Koza Václav, Voldřich Michal: Method of purifying air contaminated with organic pollutants by biofilter, CZ Pat. č. 293988 (2004).
Miroslav Marek, Iveta Horsáková, Peter Vrba, Aleš Marek: The method of remediation and reclamation of contaminated surfaces with microorganisms and mycorrhizal fungi, CZ Pat. č. 304147 (2013).
Miroslav Marek, Iveta Horsáková, Rudolf Krchov, František Pudil, Aleš Marek: Způsob výroby přípravku na bázi biouhlu pro podporu růstu rostlin, CZ Pat. č. 305666 (2015).
Courses
Other activities

                                    [iduzel] => 28414
                                    [canonical_url] => //www.technopark-kralupy.cz/people/emploees/marek-en
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /people/emploees/marek-en
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [28418] => stdClass Object
                                (
                                    [nazev] => Jana Marelová, Ing., Ph.D.
                                    [seo_title] => Marelová
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 




 
 
email:  Jana.Marelova@vscht.cz

phone: +420 22044 6108, 6137








EDUCATION

1999      Ph.D.        University of Chemistry and Technology, Prague, Faculty of Chemical Technology
1993      Ing.            University of Chemistry and Technology, Prague, Faculty of Chemical Technology

WORK EXPERIENCE





2011


-


doposud


chief technologist for production of polystyrene
Synthos Kralupy a.s.
management of production technologies and individual technologists, implementation of developmental processes in the production, preparation of production documentation, coordination of investment projects in the fields of machinery, adjustment and control of quality processes, personnel and training




2009

 -
 2011

project manager
Synthos a.s., Kralupy nad Vltavou
cooperation in the creation of inquiries in the pre-stage, entrusted the coordination of the project and project team; project planning, monitoring achievement of objectives; responsibility for the budget of the project; communication with foreign partners, suppliers and other departments within the company; delegation of tasks to project team; technical supervision in placing the machines into operation; Preparation of new technology and its implementation in the project. management of grant projects in the field of research and development





2004


-


2009


product engineer
Kaučuk, a.s., Kralupy nad Vltavou
co-creating strategic plans of the company entrusted products; study and interpretation of papers and publications; Ensuring the design and creation of new products; Preparation of product materials company; company presentations at professional events, exhibitions and fairs; management of technical services; Active cooperation with other departments in the company




2000


-


2004


chief of the development of expanded polystyrene
Kaučuk, a.s., Kralupy nad Vltavou
Leading a team of experts within the dedicated project (work on international projects), formulation of new knowledge and theories, developing and overseeing the implementation of new manufacturing processes, participating in meetings with clients - professional support for trade cooperation with production staff in solving of technical tasks





1997


-


2000


research and development worker
Kaučuk, a.s., Kralupy nad Vltavou
research and development of new products processes, analysis of current knowledge, overseeing the correct implementation of the developed product into production, work on international projects, continuous expansion and deepening of knowledge about developments in their field, literary research to the problems and Publications




 
OTHER EXPERIENCE


Membership in professional organizations
Awards

Languages
      English      intermediate
      German     passive
      Russian       passive           

Selected projects

Publictions
1. Preparation of the operating recipes for the production of new types of expandable polystyrenesInSphere F a FR; Internal document Synthos Kralupy a. s. (2015); Mobiusova, Monika; Marelova, Jana;
2. The use of aluminum dibromosalicylate, preparing non-flammable organic plastics, and a flame retardant composition for its preparation; Marelova, Jana; Mobiusova, Monika; PCT Int. Appl. (2013), WO 2013022361 A1 20130214
3. New types of flame retardants for polystyrene; Internal document Synthos Kralupy a. s. (2012); Mobiusova, Monika; Marelova, Jana
4. Synthos Kralupy a. s. year 2012 – completion of the project for the construction and commissioning of a new pilot line for the production of expandable polystyrene by extrusion technology
5. Process for preparing dibasic aluminum salicylate; Tokarova, Venceslava; Dolezal, Jiri; Stavova, Gabriela; Marelova, Jana; Mobiusova, Monika; Czech Rep. (2011), CZ 302399 B6 2011042
6. Method for color lettering of plastic materials by making use of a laser; Gavrilov, Petr; Jancarek, Alexandr; Marelova, Jana; Czech Rep. (2005), CZ 295071 B6 20050518
7. Correlation among molecular parameters, composition, and foamability of foamable polystyrene; Juza, Josef; Kovarova, Jana; Marelova, Jana; Zach, Jiri; Horak, Zdenek; Plasty a Kaucuk (2001), 38(5), 132-136
8. Polymerization of lactams, 90; Anionic polymerization of e-caprolactam in the presence of symmetrically substituted ureas; Marelova, Jana; Roda, Jan; Stehlicek, Jaroslav; European Polymer Journal (1998), 35(1), 145-155

Courses
Project management, certificate George Washington University
Lean production
Total Quality management,ISO implementation in industrial production
Training on Chemical Substances and Preparations

Other activities


                                    [iduzel] => 28418
                                    [canonical_url] => //www.technopark-kralupy.cz/people/emploees/marelova-en
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /people/emploees/marelova-en
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [38532] => stdClass Object
                                (
                                    [nazev] => Jana Motyčková, Ing.
                                    [seo_title] => Motyckova
                                    [seo_desc] => Motyckova
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 




 
 
email:  Jana.Motyckova@vscht.cz

phone: +420 22044 6100








EDUCATION


1984      Ing.           University of Chemistry and Technology, Pardubice
                                    Study: Analytical and Physical Chemistry

WORK EXPERIENCE





2017


-


dosud


specialist
Technopark Kralupy, VŠCHT Praha
technical and organizational activities




2015


-


2016


technical worker
Lovochemie a.s, Lovosice
independent technical work




2006

 -
 2015

Head of the Laboratory of Plastics
Kaučuk a.s., later Synthos S.A., Kralupy nad Vltavou
technical and organizational activities




1985


-


2006


Head of the Laboratory of gas chromatography
Kaučuk a.s. Kralupy nad Vltavou
technical and organizational activities




 
OTHER EXPERIENCE


Languages
Russian                advanced level
English                 intermediate level

Courses
2016       Theoretical basics of IR microscopy - Nicolet CZ
2008        Lifelong learning course: Polymers
1999       School of Mass Spectrometry

                                    [iduzel] => 38532
                                    [canonical_url] => //www.technopark-kralupy.cz/people/emploees/motyckova-en
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /people/emploees/motyckova-en
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [28419] => stdClass Object
                                (
                                    [nazev] => František Novák, RNDr, CSc.
                                    [seo_title] => Novak
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 





 
 
email:  Frantisek1.Novak@vscht.cz

phone: +420 22044 6119, 6113








EDUCATION

1992      CSc.             Faculty of Science Charles University Praha
1986     RNDr           Faculty of Science Palacký University Olomouc
1983      Mgr.             Faculty of Science Palacký University Olomouc

WORK EXPERIENCE





2015


-


present


Research Scientist
Technopark Kralupy of University of Chemistry and Technology, Praha
independent scientific-research activities 




1987

 -
 2014

Research Scientist
Biology Centre of the Academy of Sciences in the Czech Republic, České Budějovice




1984


-


1987


trainee
University of Chemistry and Technology, Praha
Special Techniques NMR Spectroscopy
Specialization: Inorganic Technology




 
OTHER EXPERIENCE

Membership in professional organizations
Czech Chemical Society
International Humic Substances Society

Awards

Languages
      English
      Russian

Selected projects
* Share of the project LM2010007 CzeCOS / ICOS - National Infrastructure monitoring carbon (Centre for Research on Global Change ASCR) in the form of the joint project, 2012 – 2014.
* Investigation of possibilities of organic pollutants minimization in sources of drinking water in Ore Mts. (Projekt EU – Ziel 3 / Cíl 3, Czech Republic – Saxony, 2010 – 2013, co-principal investigator)
* Role of saprotrophic and ectomycorrhizal fungi in humic acids and phosphorus transformation in spruce needle litter (GA ČR, 2005 – 2007, co-principal investigator)
* Long-term dynamics of P-species in humic acids during secondary succession on a Cambisol. (GA ČR, 2002 – 2004, principal investigator)
* The role of nitrogen transformation in decline of mountain Norway spruce forest stands under different pollution stress. (GA ČR, 1994 – 1996, principal investigator)

Publications
1. HRABAL R., BRUS J., MADRONOVÁ L., NOVÁK F., 2011. Chapter 3. 13C NMR Spectra in the Liquid and Solid States. In: Madronová L. (Ed.), Humic Acids from Raw Materials of the Czech Republic. Nova Science Publisher, New York, pp. 35 – 46.
2. NOVÁK J., NOVÁK F., MADRONOVÁ L., MACHOVIČ V., KOZLER J., 2011. Chapter 8. Oxidation of Coal-Based Raw Materials by Nitric Acid. In: Madronová L. (Ed.), Humic Acids from Raw Materials of the Czech Republic. Nova Science Publisher, New York, pp. 105 – 123.
3. NOVÁK F., HRABAL R., 2011. Quantitative 13C NMR spectroscopy of humic substances. Chem. Listy 105: 752 – 760. (IF = 0,529)
4. ŠERÁ B., NOVÁK F., 2011. The effect of humic substances on germination and early growth of Lamb's Quarters (Chenopodium album agg.). Biologia 66: 470 – 476. (IF=0,557)
5. NOVÁK F., 2012. Export DOC aus dem Torfboden. ÚPB BC AV ČR, Most, Czech Republic, 21 pp, ISBN 978-80-86 525-22-8.
6. DRASTÍK M., NOVÁK F., KUČERÍK J., 2013. Origin of heat-induced structural changes in dissolved organic matter. Chemosphere 90: 789 – 795. (IF = 3,499)
7. JANOŠ P., KORMUNDA M., NOVÁK F., ŽIVOTSKÝ O., FUITOVÁ J., PILAŘOVÁ V., 2013. Multifunctional humate-based magnetic sorbent: Preparation, properties and sorption of Cu (II), phosphates and selected pesticides. Reactive & Functional Polymers 73: 46 – 52. (IF = 2,822)
8. NOVÁK F., ŠESTAUBEROVÁ M., 2013. Huminstoffe im Einzugsgebiet des Bachs Rašeliník. ÚPB BC AV ČR, České Budějovice, Czech Republic, 37 pp., ISBN 978-80-86525-26-6.
9. KURÁŇ P., TRÖGL J., NOVÁKOVÁ J., PILAŘOVÁ V., DÁŇOVÁ P., PAVLORKOVÁ J., KOZLER J., NOVÁK F., POPELKA J., 2014. Biodegradation of spilled petrol in agricultural soil: Effect of humates, zeolite and bioaugmentation. Sci. World Journal, Article ID 642427 DOI: DOI:10.1155/2014/642427. (IF = 1,730)
10. NOVÁK F., ŠESTAUBEROVÁ M., HRABAL R., 2015. Structural features of lignohumic acids. Journal of Molecular Structure 1093: 179 – 185. (IF = 1,780)
Courses
Other activities
· Consultant of thesis and Ph.D. thesis UCT Praha, Faculty of Forestry MENDELU Brno, Faculty og Science MU v Brně a University of South Bohemia České Budějovice
·Supervisor of bachelor students practice UCT Praha
· Organization of short-term (1-2 week) courses focused on methods to study the structure of humic substances for interested professors and postdocs
· Review articles in foreign and Czech science journals
· Reviewer of projects GACR, VEGA SR, IGA and universities
· Opponent assessments for diploma and doctoral theses

                                    [iduzel] => 28419
                                    [canonical_url] => //www.technopark-kralupy.cz/people/emploees/novak-en
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /people/emploees/novak-en
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [29301] => stdClass Object
                                (
                                    [nazev] => Darya Rudomilova, Ing.
                                    [seo_title] => Rudomilova
                                    [seo_desc] => Rudomilova
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 




 
 
email:  darya2.novikova@vscht.cz

phone: +420 22044 61








EDUCATION

2016      Ing.           University of Chemistry and Technology, Prague
2014      Bc.            University of Chemistry and Technology, Prague

WORK EXPIRIENCE





2015


-


present


researcher in the group of metal construction materials
Technopark Kralupy of University of Chemistry and Technology, Praha
independent scientific-research activities 




 
OTHER EXPERIENCE

Membership in professional organizations

Awards
2014       3rd place Student Research Conference - Section Metallic Materials II
               Work: Corrosion of carbon steel in the occluded sodium bentonite water under the conditions of storage of nuclear waste
 
Languages
Russian             native speaker
Czech                 highly advanced, level C1
English              advanced higher, level B2

Selected projects

Publications
The corrosion behavior of steel CSN (Czech state standard) 422707.9 in concentrated synthetic pore water bentonite. Corrosion and material protection 2016, 60 (3), 68-73.
Courses

Other activities




                                    [iduzel] => 29301
                                    [canonical_url] => 
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /people/emploees/novikova-en
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [28428] => stdClass Object
                                (
                                    [nazev] => Jiří Pokorný, Dr. Ing.
                                    [seo_title] => Pokorny
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 




 
 
email:  jiri.pokorny@vscht.cz

phone: +420220446128,130








EDUCATION

1997      Dr.       University of Chemistry and Technology, Prague, Faculty of Chemical Technology, Institute of polymers
1990      Ing.      University of Chemistry and Technology, Prague, Faculty of Chemical Technology, Institute of polymers

WORK EXPERIENCE





2016


-


doposud


scientistic worker
Technopark Kralupy of University of Chemistry and Technology, Praha
independent scientific-research activities 




2001

 -
 2016

Head of Research and Development BR/ESBR
Kaučuk, a.s. (later Synthos S.A., organizational unit), Kralupy nad Vltavou





1995


-


2000


research and development worker
Kaučuk, a.s., Kralupy nad Vltavou




 
OTHER EXPERIENCE

Membership in professional organizations
Czech Society of Industrial Chemistry, Rubber Group Zlín, local branch


Awards

Languages
English                  

Selected projects
FT-TA3/109 (2006 – 2009) Rubber doped ecologically harmless softeners
FT-TA4/081 (2007 – 2010) Improving quality parameters of SBR rubbers

Publications
B. Bednář, L. Karásek, J. Pokorný, Nonradiative energy transfer of block copolymers in selective solvents, Polymer 1996, 37(23), 5261-5268 (Impact Factor 1,461 (1996))
Schauer J., Sysel P., Maroušek V., Pientka Z., Pokorný J., Bleha M.: Pervaporation and Gas Separation Membranes Made from Polyimide/Polydimethylsiloxane Block Copolymer. J. Appl. Polym. Sci. 61, 1333 (1996). ISSN 0021-8995 C.A. 125:144421 (Impact Factor 0,934 (1996))
Kuta A., Hrdlička Z., Voldánová J., Brejcha J., Pokorný J., Plitz J., Dynamic Mechanical Properties of Rubbers with Standard Oils and Oils with Low Content of Polycyclic Aromatic Hydrocarbons, KGK - Kautsch. Gummi Kunstst. 2010, 63 (4), 120-122, ISSN 0948-3276. (Impact Factor 0,344 (2010))
Alexandr Zubov, Jiri Pokorny, Juraj Kosek, Styrene–butadiene rubber (SBR) production by emulsion polymerization: Dynamic modeling and intensification of the proces, Chemical Engineering Journal, Volumes 207–208, 1 October 2012, Pages 414–420 (Impact Factor 3,473 (2012))


Courses
1993       Itálie, Universita Degli Studi di Ferrara, „Intenational School of Advanced Studies in Polymer Science“ 6 months

Other activities


                                    [iduzel] => 28428
                                    [canonical_url] => //www.technopark-kralupy.cz/people/emploees/pokorny-en
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /people/emploees/pokorny-en
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [28429] => stdClass Object
                                (
                                    [nazev] => Tomáš Prošek, Ing. Ph.D.
                                    [seo_title] => Prošek
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 





 email:  Tomas.Prosek@vscht.cz

phone: +420 22044 6104








EDUCATION

2001      Ph.D.        University of Chemistry and Technology, Prague
1996      Ing.           University of Chemistry and Technology, Prague

WORK EXPERIENCE





2016


-


present


Head of the research group Metal construction materials
Technopark Kralupy of University of Chemistry and Technology, Praha
independent scientific-research activities 




2007

- 
 2015

Head of Department Building and Infrastructure
Institut de la Corrosion / French Corrosion Institute, Brest, France 




2004


-


2007


Researcher, Project Manager
Institut de la Corrosion / French Corrosion Institute, Brest, France 



 2003
 -
2004 

Assistant Professor
Department of Metals and Corrosion Engineering, University of Chemistry and Technology, Praha



2001
-
2003

Visiting Researcher
Swedish Corrosion Institute (now Swerea KIMAB AB), Stockholm, Sweden



1999
-
2001

professional staff
Department of Metals and Corrosion Engineering, University of Chemistry and Technology, Praha





 
OTHER EXPERIENCE

Membership in professional organizations
European Federation of Corrosion (EFC), member of Board of Administration
Association of Corrosion Engineers (AKI), president
International Electrochemical Society (ISE), member 
National Association of Corrosion Engineers (NACE), member 

Awards
Kurt Schwabe Prize, European Federation of Corrosion (EFC) for scientific and technical contribution to the art of corrosion for aspiring scientists, 2006
Czech Business Council  for Sustainable Development Prize and the Second Prize Foundation EnviOptimum for 1996 for his work on the processing of alunite ammonium to sulfate ammonium
Foundation EnviOptimum Prize in 1996 (the same job)

Languages
      English                        advanced level
      French                          intermediate
      German                         basic level
      Russian                         basic level

Selected projects
Improving steel product durability through alloy coating microstructure, MICROCORR, RFSR-CT-2015-00011, Research Fund for Coal and Steel, 09/2015–12/2015: Coordinator; 01/2016–present: Solver
Duplex stainless steel in storage tanks, DUPLEXTANK, RFS-PR-08038, Research Fund for Coal and Steel, 09/2009–12/2012: Coordinator
Protection of cultural heritage by real-time corrosion monitoring, MUSECORR, Grant No. 226539, 7. Framework Programme, Collaborative Project, Theme 6: Environment, 06/2009–07/2012: Deputy coordinator
Optimal application conditions for zinc-based coating materials, OPTIZAM, Institut de la Corrosion, industry funding, 2012–2015: Coordinator
New zinc-based automotive steel protection technologies, International Zinc Association (IZA) ZCO-45, 2009–2015: Main solver

Publications

Publications: 38 peer-reviewed publications and over 100 professional publications in other journals and anthologies
Selected publications:

Prošek, T., Nazarov, A., Bexell, U., Thierry, D., Šerák, J., Corrosion mechanism of model zinc-magnesium alloys in atmospheric conditions, Corrosion Science 50 (2008) 2216-2231.
Prošek, T., Thierry, D., Taxén, C., Maixner, J., Effect of cations on corrosion of zinc and carbon steel covered with chloride deposits under atmospheric conditions, Corrosion Science 49 (2007) 2676-2693.
Prošek, T., Thierry, D., A model for the release of chromate from organic coatings, Progress in Organic Coatings 49 (2004) 209-217.
Prošek, T., Iversen, A., Taxén, C., Thierry, D., Low-temperature stress corrosion cracking of stainless steels in the atmosphere in the presence of chloride deposits, Corrosion 65 (2009) 105-117.
Nazarov, A., Prošek, T., Thierry, D., Application of EIS and SKP methods for the study of the zinc/polymer interface, Electrochimica Acta 53 (2008) 7531-7538.
Nazarov, A., Thierry, D., Prošek, T., Le Bozec, N., Protective action of vanadate at defected areas of organic coatings on zinc, Journal of the Electrochemical Society 152 (2005) B220-B227.
Persson, D., Thierry, D., LeBozec, N., Prošek, T., In situ infrared reflection spectroscopy studies of the initial atmospheric corrosion of Zn-Al-Mg coated steel, Corrosion Science 72 (2013) 54-63.
Prošek, T., Larché, N., Vlot, M., Goodwin, F., Thierry, D., Corrosion performance of Zn-Al-Mg coatings in open and confined zones in conditions simulating automotive applications, Materials and Corrosion 61 (2010) 412-420.
Prošek, T., Le Gac, A., Thierry, D., Le Manchet, S., Lojewski, C., Fanica, A., Johansson, E., Canderyd, C., Dupoiron, F., Snauwaert, T., Maas, F., Droesbeke, B., Low temperature stress corrosion cracking of austenitic and duplex stainless steels under chloride deposits, Corrosion 70 (2014) 1052–1063.
Prošek, T., Nazarov, A., Le Gac, A., Thierry, D., Coil-coated Zn-Mg and Zn-Al-Mg: Effect of climatic parameters on the corrosion at cut edges, Progress in Organic Coatings 83 (2015) 26–35
Prošek, T., Hagström, J., Persson, D., Fuertes, N., Lindberg, F., Chocholatý, O., Taxén, C., Šerák, J., Thierry, D., Effect of the microstructure of Zn-Al and Zn-Al-Mg model alloys on corrosion stability, Corrosion Science 110 (2016) 71–81

Courses
Electrochemistry, Electrochemical Engineering and Electrochemical Technology, pětidenní kurz, Schools of Chemistry and Engineering Sciences, University of Southampton, GB, 2010
Time management IV. generation, five-day course, Pragoeduca, Praha, 2008
Leadership, three-day course, EDCONSIA Praha, 2007
Presentation skills, two-day course, Positive Praha, 2006

Other activities
Research assistant at the Polytechnic School in Mons / Collaborateur scientifique de la Faculté Polytechnique de Mons, since academic year 2012/13
Reviewer of magazines Corrosion Science, Progress in Organic Coatings etc.
President of the Conference Organizing Committee Eurocorr and ICC 2017
Conference organizer Coil coated materials, Paris, 2005, 2008, 2012
Reviewer of grant applications for Knowledge Foundation / KK-stiftelsen, Sveden, by Technological agency of Czech Republic (TAČR) etc.
                                    [urlnadstranka] => 
                                    [iduzel] => 28429
                                    [canonical_url] => 
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /people/emploees/prosek-en
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [28439] => stdClass Object
                                (
                                    [nazev] => Zuzana Rácová, Ing.
                                    [seo_title] => Racova
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 




 
 
email:  racovaz@vscht.cz

phone: +420 22044 6132, 6127








EDUCATION

2013      Ing.          Czech Technical University in Prague, Faculty of Civil Engineering

WORK EXPERIENCE





2015


-


present


scientistic worker
Technopark Kralupy of University of Chemistry and Technology, Praha
independent scientific-research activities 




2015

- 

present 


Lecturer, External Teacher
Department of Building Structures, Faculty of Civil Engineering, Czech Technical University in Prague




2011


-


2016

project manager, planner

MMProjekt Litvínov v.o.s.,  field: Anorganická technologie 
administrative work




 
OTHER EXPERIENCE

Membership in professional organizations
Awards

Languages
      English                  advanced level
      German                basic level

Selected projects
Heat technical analysis space under the raised floor (crawl space), including the study of biological degradation of structural elements - SGS14/175/OHK1/3T/11, main solver
The use of nanotechnology in construction - SGS12/110/OHK1/2T/11, Pavla Ryparová, research team member
Nanomaterials and Nanotechnology Building 2012 až 2016 - SVK, Pavla Ryparová, research team member

Publications

• Wasserbauer, R. - Rácová, Z. - Loušová, I.: Influence of algae and bacteria on the formation of corrosive active compounds which degrade silicate building materials. Chemické listy, 2015, 109, s. 718-721. ISSN 0009-2770. IF 0,272
• Rácová, Z. - Hlaváč, R. - Mukařovský, J. - Nežerka, V. - Ryparová, P. - et al.: The Use of Nanomaterials As Protection of External Surfaces of Porous Building Materials. In CESB 13 - Central Europe towards Sustainable Building 2013. Praha: GRADA PUBLISHING, 2013, p. 441-444. ISBN 978-80-247-5018-7.
• Rácová, Z. - Prošek, Z. - Topič, J. - Tesárek, P. - Indrová, K. - et al.: Performance of Stabilized and Non-Stabilized PVA Nanofiber Textiles Subjected to Tension. In Applied Mechanics and Materials. Uetikon-Zurich: Trans Tech Publications, 2014, p. 119-122. ISSN 1660-9336. ISBN 978-3-03785-977-3. IF 0,15
• Rácová, Z. - Ryparová, P.: Silver Inhibition Effect of Nanoparticles on Specific Mold Group Growth. In Conference proceedings Nanocon 2015. Ostrava: Tanger, 2015, p. 337-341. ISBN 978-80-87294-63-5.
• Ryparová, P. - Wasserbauer, R. - Tesárek, P. - Rácová, Z.: Preparation of Antimicrobial Treatment Interiors Using Nano Textiles. In Central Europe towards Sustainable Building 2013. Praha: Grada, 2013, p. 453-456. ISBN 978-80-247-5018-7.
• Ryparová, P. - Rácová, Z. - Prošek, Z. - Topič, J. - Tesárek, P. - et al.: Evaluation Biocidal Effect of Nanofiber Textiles Prepeared Based on PVA and Biocidal Compounds Against Mold and Wood Decaying Fungi. In NANOCON 2014, 6TH INTERNATIONAL CONFERENCE. Ostrava: Technická universita Ostrava - Vysoká škola báňská, 2015, p. 496-500. ISBN 978-80-87294-53-6.
• Ryparová, P. - Rácová, Z.: Biocidal Efficiency on Consortium Algae and Bacteria of Nanofiber Textiles Doped by Biocide Substance. In Conference proceedings Nanocon 2015. Ostrava: Tanger, 2015, p. 276-281. ISBN 978-80-87294-63-5.
• Rácová, Z. - Wasserbauer, R. - Ryparová, P.: Microscopic filamentous fungi in buildings, preventing their occurrence and their remediation using nanofibers. In International Conference Buildings and Environment 2012. Brno: VUT v Brně, Fakulta stavební, 2012, p. 130-133. ISBN 978-80-214-4600-7.
* Rácová, Z. - Ryparová, P. - Hlaváč, R. - Tesárek, P. - Nežerka, V.: Influence of Copper Ions on Mechanical Properties of PVA-Based Nanofiber Textiles. In Applied Mechanics and Materials. Uetikon-Zurich: Trans Tech Publications, 2014, p. 201-204. ISSN 1660-9336. ISBN 978-3-03785-977-3. IF 0,15
* Lidmila, M. - Tesárek, P. - Plachý, T. - Rácová, Z. - Padevět, P. - et al.: Utilization of Recycled Fine-ground Concrete from Railway Sleepers for Production of Cement-based Binder. In Applied Mechanics and Materials. Uetikon-Zurich: Trans Tech Publications, 2014, p. 323-326. ISSN 1660-9336. ISBN 978-3-03785-977-3. IF 0,15
Courses

Other activities
Co-organizer of the student scientific conference Nanomaterials and nanotechnology in the construction industry in the years 2012-2016
                                    [iduzel] => 28439
                                    [canonical_url] => //www.technopark-kralupy.cz/people/emploees/racova-en
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /people/emploees/racova-en
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [28444] => stdClass Object
                                (
                                    [nazev] => Václav Šefl Ing., Ph.D.
                                    [seo_title] => Sefl
                                    [seo_desc] => Vaclav Sefl Ing., Ph.D.
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 




 
email:  Vaclav.Sefl@vscht.cz

phone: +420 22044 6136, 6105








EDUCATION

2017      Ph.D.       University of Chemistry and Technology, Prague 
2009      Ing.           University of Chemistry and Technology, Prague
2007      Bc.            University of Chemistry and Technology, Prague

WORK EXPERIENCE





2015


-


present

 
Researcher/project manager of the research group Metal construction materials
Technopark Kralupy of University of Chemistry and Technology, Praha
independent scientific-research activities 




2014


-


2015


Researcher
ÚJV Řež, a.s.
scientific-research activities 




2009

 -
 2014

Researcher
University of Chemistry and Technology, Prague Department of Metals and Corrosion Engineering
scientific-research activities 




 
OTHER EXPERIENCE

Membership in professional organizations
Association of Corrosion Engineers (AKI), member
Awards

Languages
English                  advanced level
German                  basic level
Italian                     basic level 


Selected projects

Publications










Stoulil, J.; Hemmer, V. Corrosion resistance of new powder metallurgy boron-containing stainless steel in the nuclear repository environment. Materials and Corrosion 2014, 66 (4), 342–346.
Stoulil, J.; Šefl, V.; Bystrianský,; Copper-assisted stress-corrosion cracking of stainless steel steam mesh, Metallic Materials, accepted. Metallic Materials 2014, 52 (2), 243–247.
Fojt, J.; Joska, L.; Málek, J.; Šefl, V. Corrosion behavior of Ti–39Nb alloy for dentistry. Materials Science and Engineering: C 2015, 56 (1), 532–537.
Rapouch, J.; Bystianský, J.; Šefl, V.; Svobodová, M. Evaluation of the structural changes in 9 % Cr creep-resistant steel using an electrochemical technique. Materiali in Tehnologije 2015, 49 (4), 543–548.
Šefl V.; Parameters influencing the low-cycle fatigue life of materials in pressure water reactor nuclear power plants. Koroze a ochrana materiálů 2015, 59 (3), 91–98
Bystrianský, J.; Šefl, V.; Sajdl, P.; Fojt, J.; Bábková, P. Influence of the state of the surface of high-alloy heat resistant steel for their resistance to oxidation. Corrosion and material protection 2014, 58 (1), 19–30.











Courses
Scientific writing, one-semester course, UCT Prague, 2012

Other activities
Reviewer journal Construction and Building Materials

                                    [iduzel] => 28444
                                    [canonical_url] => //www.technopark-kralupy.cz/people/emploees/sefl-en
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /people/emploees/sefl-en
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [40768] => stdClass Object
                                (
                                    [nazev] => Jan Švadlena, Ing.
                                    [seo_title] => Svadlena
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 




 
 
email:  Jan.Svadlena@vscht.cz

phone: +420 22044 6134








EDUCATION

2013      Ing.           University of Chemistry and Technology, Prague
2011      Bc.           University of Chemistry and Technology, Prague

WORK EXPIRIENCE





2017


-


present


research worker
Technopark Kralupy of University of Chemistry and Technology, Praha
independent scientific-research activities 





2015


-


2017


teacher of vocational subjects
FAMU - Cabinet Restoration of Photography
professional pedagogical activity




 
OTIHER EXPERIENCE


Languages

English                  advanced level
German                basic level
Spanish                basic level
 
Selected projects
2016 - preset   Historical Photographic Material - Identification, Documentation, Interpretation, Presentation, Application, Care and Protection in the Context of Basic Types of Memory Institutions, DF13P01OVV007, Academy of Performing Arts, NAKI Program of the Ministry of Culture of the Czech Republic, responsible investigator
2013 - 2015    Daguerro Light Recognition - New Methods and Procedures for the Protection, Care and Accessibility of Cultural Heritage in Daguerrotypia, DF12P01OVV038, Academy of Performing Arts, NAKI Program of the Ministry of Culture of the Czech Republic: Co-researcher.
 
Publications
Švadlena, J .; Stoulil, J. Evaluation of protective properties of acrylic lacquers used for preservation of historical metal objects. Corrosion and Materials Protection 2017, 61 (1), 25-31.

Stoulil, J .; Nikendey, V .; Sykora, V .; Drabkova, K .; Svadlena, J .; Dvorak, P., Anticorrosive zinc decanoate additive in acrylate varnish. Transactions of the Institute of Metal Finishing 2017, 95 (3), 173-176.

J., Pfeifer, T., Švadlena, J., Michalcová, A., Fojt, J., Marek, I .: Influence of temperature and inhibitor content on the lifetime of copper nanoparticles in a propylene glycol-based nanofluid, Materials and Corrosion, 2015.

Švadlena, J .; Vávrová, P. Method of revitalization of the daguerrotypic process. Certified methodology. NAKI DF12P01OVV038. Certification 4. 12. 2015 MK (No. MK 73350/2015 OVV).

Pokorný, P .; Švadlena, J .; Novák, P .; Szelag, P .; Šubert, L. Evaluation of Causes of Defective Metal Coatings on the ABS Polymer System. Corrosion and Materials Protection 2014, 58 (3), 75-83.
 
Courses
Language course Language in London (4 weeks), Level – Upper Intermediate, 2013
Soft skills I. 2010 (Procter & Gamble), semester course
Photography course in the center of FotoŠkoda (2016)
                                    [iduzel] => 40768
                                    [canonical_url] => 
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /people/employees/svadlena-en
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                            [28446] => stdClass Object
                                (
                                    [nazev] => Jan Urbánek, Ing.
                                    [seo_title] => Urbánek
                                    [seo_desc] => 
                                    [autor] => 
                                    [autor_email] => 
                                    [obsah] => 




 
email:  Jan.Urbanek@vscht.cz

phone: +420 22044 6121, 6130








EDUCATION

2013      Ing.           University of Chemistry and Technology, Prague

WORK EXPERIENCE





2015


-


doposud


professional staff
Technopark Kralupy of University of Chemistry and Technology, Praha
independent scientific-research activities 




2013

 -
 2015

student of doctoral study programme
University of Chemistry and Technology, Praha




2012


-


2013

professional staff

Laboratory Imagining s.r.o.,
Capturing an image database of bullets and shells, image analysis




 
OTHER EXPERIENCE


Membership in professional organizations
Silicate Society Czech Republic Z.S.



Awards
2012         2nd place at Student Scientific Conference of the Institute of Glass and Ceramics UCT Prague
2015          Designed for awards Silicate Price from young researcher (under 35 years) for 2015

Languages
English                  advanced level

Selected projects

Publications
Urbánek J.; Macháček J.; Kutzendörfer J.; Hamáček.; Rheological properties of castables, Preparation of ceramic materials, Proceedings of the XI. International conference,148-149, ID 43879598, Rok: 2015, Funding: [P TA03010849] 
Urbánek J.; Macháček J.; Hamáček J.; Kutzendörfer J.; High temperature properties of Refractories, Proceedings of the 91st DKG Annual Conference & Symposium on High-Performance Ceramics 2016, page 59, Rok 2016
Macháček, J.; Hamáček, J.; Urbánek, J.; Kutzendörfer, J. Hot Modulus of Rupture Model of Refractory Materials. Refractories Worldforum 2014, 6 (4), poč. stran: 4., ID 43879598, Year: 2015, Funding: [P TA03010849],
Macháček J.;   Hamáček J.;   Urbánek J.;   Kutzendörfer J.; Berka J., Modeling of HMOR of Refractory Castables at Very High Temperature, Proceedings of the 18., 59-65, ID 43878272, Year: 2014, Funding: [P GAP108/10/1631][P TA03010849]    
Courses
Other activities
Event organizer: Scientific seminar PhD - inorganic non-metallic materials at the Institute of Glass and Ceramics UCT Prague in 2015, 2016


                                    [iduzel] => 28446
                                    [canonical_url] => //www.technopark-kralupy.cz/people/emploees/urbanek-en
                                    [skupina_www] => Array
                                        (
                                        )

                                    [url] => /people/emploees/urbanek-en
                                    [sablona] => stdClass Object
                                        (
                                            [class] => stranka
                                            [html] => 
                                            [css] => 
                                            [js] => 
                                            [autonomni] => 1
                                        )

                                )

                        )

                    [iduzel] => 28006
                    [canonical_url] => 
                    [skupina_www] => Array
                        (
                        )

                    [url] => /people/employees
                    [sablona] => stdClass Object
                        (
                            [class] => stranka_submenu
                            [html] => 
                            [css] => 
                            [js] => 
                            [autonomni] => 1
                        )

                )

            [28008] => stdClass Object
                (
                    [nazev] => How to apply for a job
                    [seo_title] => How to apply for a job
                    [seo_desc] => How to apply for a job
                    [autor] => 
                    [autor_email] => 
                    [obsah] => 
Tracking Website
Any vacancies, open tenders and other information for job seekers in Technopark are listed on this website. This information is continuously updated and guaranteed by the leadership of the Technopark. Concurrently open tenders are placed on the website of ICT Prague on www.vscht.cz section Vacancies.
 
Sending a résumé and cover letter on the announced tender
For each competition for the job in Technopark send a movement called. Cover letter and a CV written according to international standards. To the knowledge of the languages ​​indicate the degree obtained or passed exams.
 
Job interview
In the context of the adoption of the job in administration, services, or research teams held a job interview. The interview takes place in the presence of a future supervisor and the employee in charge of personnel matters. During the interview, commenting your cover letter and resume, replying to questions on work experience, vocational focus of future work and your relationship to their work.
 

Vacancies
Currently Technopark ICT Prague Kralupy not print any selection process.
                    [poduzel] => Array
                        (
                        )

                    [iduzel] => 28008
                    [canonical_url] => //www.technopark-kralupy.cz/people/jobs
                    [skupina_www] => Array
                        (
                        )

                    [url] => /people/jobs
                    [sablona] => stdClass Object
                        (
                            [class] => stranka
                            [html] => 
                            [css] => 
                            [js] => 
                            [autonomni] => 1
                        )

                )

        )

    [sablona] => stdClass Object
        (
            [class] => stranka_sloupce_submenu
            [html] => 
            [css] => 
            [js] => 
            [autonomni] => 1
        )

    [api_suffix] => 
)