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This paper presents laboratory corrosion and chemical inertness test results of SilcoTek®’s CVD coatings, and evaluates their performance in environments common to hydrocarbon processing.
This paper summarizes methods used by SilcoTek® to remove rust from stainless steel surfaces.
Testing was conducted to determine the relative corrosion resistance of Hastelloy C-22, commercial 316L SS, commercial tube with fused silica coating.
This paper discusses how silicon barrier coatings improve corrosion resistance and prevent metal contamination in semiconductor etch processes.
This Technical Insight focuses on using an electrochemical method to gain corrosion rate information.
This Technical Insight will investigate whether Dursan® and other SilcoTek® coatings can prevent metal ions from leaching into pure organic solvents.
In this study titanium is investigated as a substrate for SilcoTek®’s coating prevention of metal ion leaching.
In this Technical Insight we investigate the corrosion and metal contamination of C-22 in pure methanol and the impact that SilcoTek® coatings have on this corrosion.
We test ultrapure DI water to see if the corrosion patterns follow the methanol studies.
We test HPLC grade acetonitrile for metal ion leaching to see how it may compare to other typical solvents.
We investigate the metal ion leaching of MP35N in pure methanol, water, and acetonitrile.
This Technical Insight explores the impact of 5% sodium hydroxide (NaOH) solution on four SilcoTek coatings.
This paper presents laboratory corrosion and chemical inertness test results for a variety of chemically deposited coatings.
This paper will discuss the method to extract and sample the process stream with minimal loss or adsorption of the analyte and provide data for on-line total sulfur and HHV analysis.
Learn about SilcoNert® 2000 applications and benefits.
A review of packed column analysis of sulfur in beverage grade CO2.
Learn about sulfur adsorption rate in stainless steel sample cylinders and how to minimize sample loss.
Analysis of low level sulfur stability in air sampling canisters and sampling cylinders. Sulfur VOC analysis in 1-20 ppbv range.
A review of trace level analysis of sulfur in refinery, beverage grade CO2, and environmental emissions analysis applications.
Get tips on how to accurately sample and test trace sulfur in GC analytical systems for refinery and process applications.
An overview of coating performance for sulfur analysis, active compound analysis, corrosion resistance, moisture resistance, UHV, and anti-coking applications.
This paper discusses ways to test mercury emissions from syngas sorbent samples. Inert coatings are used to minimize adsorption.
This whitepaper presents data from two separate analytical and chemical bench tests, designed to first measure baseline mercury mass and concentrations and then quantify the subsequent reductions from chemical processes as measured primarily by atomic fluorescence spectrometry.
This presentation will discuss the need for inert system components when testing mercury. Prevent mercury loss and surface adsorption during holding and transfer.
This paper discusses development of an arsine gas, selenium (as hydrogen selenide), and mercury (as elemental mercury) Analytical Method for Reducing Flue Gas Environments. A sampling protocol will be developed including sample-conditioning solutions that will convert the desired species into a form suitable for CEMs.
This presentation compares adsorption rates of ammonia on metal, coated metal, and polymer surfaces.
In this report, researchers tested a number of different cylinder types by performing a series of decant tests at the 100 and 10 µmol/mol levels. They showed that adsorption of ammonia molecules on cylinder walls was minimised when the internal surfaces of stainless steel cylinders were passivated using the SilcoNert 2000® treatment.
This presentation discusses multiple design factors to maximize system performance and reliability. Including surface inertness in ammonia sampling and other applications.
Researchers looking to develop an ammonia detection system investigated the use of anodized aluminum and SilcoNert® 2000 coated aluminum.
NASA has developed an experiment to study the interaction between iodine and a variety of common spacecraft materials. In their tests, they have included Silcolloy® and Dursan®-coated coupons for evaluation.
This paper presents laboratory corrosion and chemical inertness test results of SilcoTek®’s CVD coatings, and evaluates their performance in environments common to the petrochemical, refining and offshore industries.
This presentation reviews sampling methods and results for trace level analysis of sulfur and sulfur containing compounds in various applications.
This paper will discuss theoretical and practical analysis of factors and design guidelines used to minimize sample loss and adsorption in analytical sampling systems.
This Technical Insight presents laboratory corrosion and chemical inertness test results of SilcoTek®’s CVD coatings, and evaluates their performance in environments common to the petrochemical, refining and offshore industries.
A comprehensive study is performed of SilcoTek® coated and uncoated surfaces utilized on both the Tekmar 3100 and Tekmar 3000 Sample Concentrators and the results are compared.
This Technical Insight will determine relative response times of commercial 316L SS tubing, electropolished 316L SS tubing, and SilcoNert® coated electropolished 316L SS tubing for the transmission of sample streams containing low concentrations of moisture.
This paper presents laboratory corrosion and chemical inertness test results for a variety of chemically deposited coatings.
This report will evaluate and discuss the significance of contact angle data for two different liquids on a variety of SilcoTek® surfaces. SilcoNert® 2000, SilcoKlean®, Silcolloy®, Dursan® and a Dursan-based prototype will be highlighted.
This report will determine relative response times of commercial 316L SS tubing, electropolished 316L SS tubing, and SilcoNert®-coated electropolished 316L SS tubing for the transmission of sample streams containing low concentrations of moisture.
This paper will review test data and recommend coating compatibility for moisture and moisture related adsorptive effects in continuous emission monitor (CEM) flow paths.
This report discusses methods for removing rust from stainless steel surfaces.
This report tests and discusses the electrical properties of SilcoTek® coatings.
This whitepaper discusses the various types of surface defects that contribute to an imperfect coating appearance, and how SilcoTek® may or may not be able to improve the appearances on these parts.
This guide highlights factors to consider when selecting tubing and surface properties for sample transport in analytical applications.
This whitepaper discusses electropolish frosting and its effect on coating quality.
This white paper aims to provide a brief introduction of different materials characterization techniques available to SilcoTek®, both in-house and through Penn State University, to give our customers a glimpse of the possibilities.
This presentation highlights the performance of Dursan® coated surfaces in various applications including moisture analysis, inertness, and corrosion resistance.
This Technical Insight provides information about brazing and soldering as well as guidelines for treating brazed or soldered parts with SilcoTek®’s chemical vapor deposition coating process.
This Technical Insight is a summary of findings on the effect of autoclave exposure on various surfaces offered by Silcotek®, using contact angles, thickness, and FT-IR spectroscopy as characterization methods.
The authors of this paper examined Dursan® as an alternative coating solution that may prevent non-specific protein adsorption to surfaces.
This Technical Insight discusses NASA's efforts to study coatings for protection against supercritical CO2 atmospheres found in nuclear plants or in a Venusian atmosphere.
This Technical insight will discuss the impact of anodization and hard anodization on aluminum surface finish, and how they may affect the success of SilcoTek®’s coating processes.
This Technical Insight will discuss how our coatings impact Elgiloy (cobalt, chrome, nickel alloy) and its emissivity to solar radiation.
This Technical Insight will discuss the suitability of SilcoTek® coatings for use in oxygen service applications.
This Technical Insight studies metallurgical testing of tensile strength, impact resistance and hardness on untreated 316 stainless steel, Dursan® coated 316 stainless, and 316 stainless exposed to the Dursan heat profile under a nitrogen atmosphere.
This Technical Insight discusses SilcoTek®’s recent improvements on this front to deliver a more thermally stable Silcolloy® coating.
This Technical Insight will discuss details of why certain EDM processes are incompatible with our coating technology.
This paper discusses how SilcoTek® coatings perform under carbon fouling conditions.
This paper explores mitigating thermal stability problems, where a single-tube heat exchanger is used to assess thermal-oxidative and pyrolytic deposition from high temperature jet fuels.
This presentation discusses how SilcoTek® coatings help to minimize carbon fouling under test conditions of JP-8 fuels.
This study discusses the impact of coatings and various fuels have on carbon fouling and soot formation in various test engines.
This presentation compares the outgassing rate and pump down of coated and uncoated stainless steel UHV chambers.
This paper discusses how SilcoTek® silicon barrier coatings protect against corrosion in high purity applications.
This presentation compares the pump down rate of coated and uncoated UHV chambers.
This paper will introduce Dursan® [1, 2], a siliconoxygen-carbon (carboxysilicon) coating that provides biochemical inertness, a low affinity for adsorbing proteins and other bio-molecules, corrosion resistance, and low energy properties to stainless steel and other substrates.
The authors of this paper examined Dursan® as an alternative coating solution to minimize protein binding and surface adsorption.
This Technical Insight will discuss the details of this test, and the results of an investigation into samples that were coated with Dursan® and subjected to Class VI testing.
In this Technical Insight we will focus on what a coating could potentially do in the food and beverage industry if metal ions can be blocked from entering the product.
This Technical Insight will explore a recent publication that investigates kinetics and reactor design for the ketonization process and where Dursan® can aid in better conversion rates.
A comprehensive overview of SilcoTek® and its patented CVD coating process. Questions about how we can improve the performance of parts? What markets we serve? Ideal applications for using our coatings? This e-book answers your questions.
This e-book features tips about how to improve your analytical sampling system. The e-book features signs your analytical system is not performing optimally and how to tell if a flow path is inert (and why it matters).
Learn how to ensure your sampling system always delivers maximum reliability. This e-book contains tips on how to improve product performance with inert coatings and how to improve surface performance over passivation.
Get corrosion resistance data on a wide range of coatings and materials. See how SilcoTek® coatings can improve the corrosion resistance of your products by 10x or more.
A review of SilcoTek® and our coatings, applications, and benefits.
A review of how silicon coating improve the reliability and accuracy of sampling systems used in sulfur, mercury, NOx, and ammonia testing in exhaust, CEMS, and flare gas streams.
Learn how coatings like SilcoNert® and Dursan® improve instrument sensitivity, response, and efficiency.
LC instruments benefit from coatings like Dursan® by improving flow path bio inertness, creating an iron free surface, and preventing unwanted protein interaction with the flow path surface.
Learn how SilcoTek® is helping customers in the medical device and diagnostics industry to solve their component surface problems successfully by using our Dursan® coating technology.
This test immerses two stainless steel ladles in hydrochloric acid (HCl). Will the Silco'd ladle from SilcoTek® corrode?
SilcoNert® has been improving the quality and accuracy of analytical applications with its inert chemical resistance for over 15 years.
Discover the durability, corrosion resistance, moisture resistance and inertness of Dursan®.
Get answers to commonly asked questions about SilcoTek® coatings.
Learn how to make the most out of our partner network and make buying and using our coatings easier. Learn how to become a partner to increase part quality and sales.
Learn about how our coatings are applied to your products. Take an informative walk through the coating process and learn how to improve your products.
Learn how SilcoTek® coatings help to prevent bio fouling and protein adhesion in medical diagnostic and HPLC applications.
Learn how SilcoTek® coatings help to improve trace analysis and corrosion resistance in process mass spectrometry applications.
Learn how an oil and gas tool company improved downhole sampling accuracy and test reliability worldwide.
SilcoTek® worked with a customer to solve adhesion problems. The Dursan® coating technology lowered surface energy and increased hydrophobicity.
SilcoTek® worked with a customer to solve adhesion problems with the Dursan® coating technology to lower surface energy and increase hydrophobicity.
Learn How SilcoTek® helped Armstrong International reduce maintenance and cost of operation while increasing power generation capabilities.
SilcoTek® partnered with ALI to help improve the quality and accuracy of sulfur contamination in beverage grade CO2.
SilcoTek® coatings were featured in a study in Food Control journal describing how to prevent the formation of listeria on stainless steel.
How SilcoTek® coated exhaust headers on a vintage car to eliminate coking and engine buildup.
Learn how SilcoTek® helped RMC Manufacturing reduce lead time and improve supply chain efficiency.
This presentation discusses how SilcoNert® and Dursan® improve sampling reliability and accuracy for mercury, sulfur, and ammonia testing.
A review of coating applications in analytical chemistry, environmental sampling, process analytical, HPLC, and refinery monitoring.
Learn how silicon coatings benefit semiconductor manufacturing by improving corrosion resistance and reducing metal ion contamination.
See how SilcoTek® Coatings improve vacuum pump down performance, reduce outgassing, improve hydrophobicity and corrosion resistance of vacuum and UHV components.
Learn about our coatings, our technology, and applications.
Learn how SilcoTek® high purity coatings can improve the performance of your products and process. Get coating performance data and see how our high purity silicon coatings improve stainless steel surfaces.
Learn how SilcoTek® coatings are used to repel water and prevent corrosion and cross contamination.
Learn how labs and refineries are able to reliably detect ultra low sulfur, even after days and weeks of storage.
Learn how an inert surface can improve trace mercury detection in stack sampling systems.
SilcoTek® coatings for medical devices and diagnostic instruments prevent flow path contamination, corrosion and carryover. Our coatings reduce test failures and false positive errors.
SilcoTek®’s Dursan® technology improves corrosion resistance while reducing protein carryover and contamination. Dursan® has been rigorously tested to ensure proper performance and to earn an NSF Certification and a USP Class VI Certification.
SilcoTek® coatings are used to improve detection of contaminants in hydrogen production flow paths, helping to prevent catalyst damage and improving production efficiency.
Learn how to improve sample test quality and reliability in sample flow path surfaces.
Learn how SilcoTek® coatings can improve durability and corrosion resistance of surfaces exposed to corrosives like produced water.
Get an overview of how inert coatings can improve performance and reliability of refinery and petrochemical sampling systems.
Learn how CVD coatings can improve the reliability of ultra low sulfur testing.
Learn how SilcoTek® coatings can improve VOC detection in fenceline monitoring applications.
Learn how CVD coatings can prevent corrosive attack even in high tolerance applications like seals, and precision filters.
Learn how Dursan® coated alloy C-22 can prevent metal ion leaching and corrosive attack in analytical systems.
Learn how our non stick surfaces can prevent heat exchanger and filter fouling and help to improve mold release.
Learn how SilcoTek® is helping customers in the plastics molding industry solve their surface problems successfully by using our Dursan® coating technology on their metal molds.
Learn how SilcoTek® coatings can prevent contamination, improve corrosion resistance and improve process yield.
Learn how our chemical vapor deposition coatings have helped customers solve surface issues like corrosion, contamination, durability, and more.
SilcoTek® is helping OEM and end-users in the packaging equipment market to minimize the need for costly part replacement and production line downtime using our Dursan® coating technology.
Will bending SilcoTek® treated tubing affect chemical inertness? Learn about the recommended tubing bend radii to ensure an inert surface throughout the tube.
This application brief will explain the reason behind the appearance of our coatings and how it falls into our acceptable specifications.
SilcoTek® has an optimized process for coating Aluminum parts in order to ensure the same quality coating that is always provided by SilcoTek on other substrates. Learn about our SP12 process.
See the superior water resistance of SilcoTek®'s hydrophobic CVD coating.
Watch as we turn up the heat on Dursan®. Will the coating fail under intense heat?
We drop the temperature to see if Dursan® can withstand cracking and peeling. How low can Dursan go?
We bend, smash and try our best to break our CVD coatings. See how SilcoTek® coatings remain intact even under extreme stress.
We test the abrasion resistance of Dursan®. Will it remain bonded to the stainless steel surface?
Get tips on how to keep your coating surface at peak performance.
Learn how to select the best coating for your application.
Learn about how Dursan® performs under corrosion, inertness and other conditions.
Learn how to get the optimum performance from your coating.
Learn how to improve analytical performance in HPLC and gas chromatography systems.
Learn how Dursan® provides an inert and metal free flow path in HPLC applications.
Learn how Dursan® provides a superior metal free flow path in HPLC applications.
Learn how SilcoTek® coatings can improve bio inertness and prevent carryover and contamination.
Learn how metal ion leaching can lead to contamination and poor analytical results in HPLC systems.
Learn how to get better analytical results from your HPLC system with SilcoTek® coated flow paths.
Learn how SilcoTek® coatings can improve the corrosion resistance of stainless steel and other alloys.
Learn when to use coatings and when to consider alternatives in corrosive environments.
Learn how SilcoTek® coatings can prevent contamination, reduce corrosion, and increase component life.
Learn about coating applications in the semiconductor fabrication process.
Get the latest in advanced coating applications for semiconductor fabrication processes
Learn how SilcoTek® non-stick coatings improve fouling resistance in process, automotive and aerospace applications.
CVD coating care tips to optimize performance and coating life.
Watch our coating care webinar to get the complete story on how to get the most out of SilcoTek® coatings.
A quick reference guide highlighting key coating properties and their applications.
A reference of surface compatibility with our coatings. Learn about material compatibility with our coating process.
A quick reference guide about chemical compatibility with our coatings.
Learn how to sample and test successfully in challenging environments. Manage moisture, corrosion and reactive compounds with inert coatings for your instrumentation and sampling systems while getting reliable and accurate results.
Get our tips and strategies for solving industrial sampling problems. Learn how to solve sample cylinder inertness problems and sample transfer problems while improving sample transfer reliability in process and analytical systems.
Learn how to achieve better bioanalytical results with SilcoTek® coatings. Our coatings e-book will discuss how Dursan® and other CVD coatings improve material performance and how inert coatings are ideal for bioanalytical and medical diagnostic applications.
A comprehensive analysis of coating characteristics and properties.
Download the Heat Exchanger and Filtration e-book to learn how coatings can improve system fouling and corrosion resistance.
Learn how high purity silicon coatings can improve corrosion resistance and prevent contamination in semiconductor and electronics manufacturing.
Watch how to remove oil and grease from a coated surface. And watch how the coating seems to disappear and reappear!
Watch how particulates can be removed by sonication and understand the limits of ultrasonic cleaning.
Surface preparation is an important factor in providing a durable, long lasting coating. Learn how to prepare stainless steel surfaces by removing rust contamination.
Read our introductory presentation and learn about our CVD coating process and how our coatings can benefit your products and process.
A quick reference highlighting industry applications for our coatings.
A review of the properties and performance of our coatings. Compare and select the right coating for your application.
Get SilcoNert® 1000 performance and application data.
Get SilcoNert® 2000 performance and application data.
Get Dursan® performance and application data.
Get Silcolloy® 1000 performance and application data.
Get SilcoKlean® 1000 performance and application data.
Get SilcoGuard® performance and application data.
Get Dursox® performance and application data.
Get Notak® performance and application data.
This paper discusses the compatibility of silver plating with the SilcoNert® coating process.
SilcoTek® recommends customers who use coated stainless-steel parts in high temperature applications (over 450°C) to preheat the parts prior to sending them in for coating. This recommendation was based primarily on the knowledge of metal sensitization but lacked actual data support. This technical insight provides experimental data to show when and how preheating before coating may benefit high temperature applications.
When Samsung reached out concerning corrosion in their gas abatement systems (exhaust scrubbers), SilcoTek® jumped at the opportunity to help them create a game-changing system.
Turner Designs Hydrocarbon Instruments Inc. found that SilcoTek® coatings met their customer’s need for a low cost corrosion resistant coating able to stand up to harsh environments found in oil and gas exploration.
The ASEA® manufacturing facility was experiencing corrosion in their fill system that could not be combated with a nickel PTFE coating.
SilcoTek® is proud to work together with Smith Analytical to ensure they can provide their customer with a high quality and reliable analytical system.
When building a process mass spectrometer sampling system for a customer, Control Analytics, Inc. turned to SilcoTek® to ensure they produce the most reliable and accurate system.
The Spacecraft Atmosphere Monitor (S.A.M.) system is designed to monitor the atmosphere within the spacecraft to ensure the astronauts are not breathing harmful chemical compounds. This TI walks through the system’s past, present, and future with SilcoTek.
SilcoTek® coatings are used in a variety of applications for altering surface energy and providing corrosion protection. In this case study, the customer experienced problems with their stainless steel molds including release complications and mold corrosion.
An inert flow path is mandatory in modern HPLC analysis in order to manage the complex and reactive samples commonly used in today’s fast-paced analytical world. Modern LC systems feature an array of materials including costly alloys and polymers like PEEK to achieve inertness, but these materials come with their own set of limitations.
The complete listing of our metal ion leaching series.