PTFE material

Hydrothermal Synthesis Reactor for Polytetrafluoroethylene Carbon Paper and Carbon Cloth Nano-growth

Name: Hydrothermal Synthesis Reactor for Polytetrafluoroethylene Carbon Paper and Carbon Cloth Nano-growth
Brand: Kintek Solution
SKU: PTFE-19
Rating: 4.8 (18 reviews)

Item Number : PTFE-19

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Applications

The PTFE Carbon Paper Reaction Stand Fixture is a versatile tool in various scientific and industrial settings, particularly in laboratories and research facilities. This fixture is designed to securely hold carbon paper. The applications of this fixture are diverse, ranging from chemical experiments to medical research, leveraging the unique properties of PTFE.

Chemical Research: In laboratories, the fixture is used to conduct experiments involving corrosive chemicals, where PTFE's resistance to strong acids and alkalis is crucial.
Medical Device Testing: It is employed in the testing and development of medical devices, especially those that require non-stick surfaces to prevent contamination and facilitate easy release.
Material Science: Researchers use the fixture to study the properties of PTFE and its composites, exploring their potential in various industrial applications.
Education and Training: In educational settings, the fixture serves as a practical tool for demonstrating the unique properties of PTFE and its applications in real-world scenarios.

Features

The PTFE Carbon Paper Reaction Stand Fixture is a specialized laboratory tool designed to enhance the efficiency and safety of chemical reactions. This fixture is crafted from high-quality PTFE (polytetrafluoroethylene), a material renowned for its exceptional chemical resistance, high-temperature stability, and non-stick properties. The integration of a stabilized PTFE Carbon base ensures that the fixture can withstand temperatures up to 270°C without any distortion, making it ideal for use in high-temperature chemical processes.

High-Temperature Resistance: The fixture's unique composition allows it to endure temperatures up to 270°C, ensuring stability during high-temperature reactions without the risk of deformation.
Chemical Resistance: Made from pure PTFE, the fixture is virtually immune to chemical attack, safeguarding the integrity of your experiments even in the presence of aggressive chemicals.
Non-Stick Surface: The smooth PTFE surface prevents residues from sticking, simplifying the cleaning process and reducing the risk of cross-contamination between experiments.
Durability and Safety: The fixture's robust design, coupled with its ability to resist wear and tear, ensures long-term reliability and safety in the laboratory setting.
Compatibility: The fixture is designed to fit seamlessly with standard laboratory equipment, enhancing its versatility and ease of use across various applications.

These features not only improve the efficiency of laboratory procedures but also enhance safety and reduce the risk of experimental errors, making the PTFE Carbon Paper Reaction Stand Fixture an indispensable tool for any modern laboratory.

Details & Parts

Single Clip

Single clip with Carbon paper

Double-clip

Double-clip with carbon paper

Technical specifications

Model	diameter
Single Clip	20mm
Single Clip	35mm
Double Clip	20mm
Double Clip	35mm

Advantages

The PTFE Carbon Paper Reaction Stand Fixture is a versatile and reliable tool in laboratory settings, offering numerous advantages that enhance its functionality and usability. Here are some of the key benefits:

Chemical Resistance: Made from high-quality PTFE, this fixture is resistant to a wide range of chemicals, including acids and alkalis, making it ideal for use in various chemical reactions without the risk of corrosion or degradation.
High Temperature Resistance: With the ability to withstand temperatures up to 260º C, the PTFE fixture is suitable for high-temperature experiments, ensuring stability and safety during operations.
Low Friction Coefficient: The PTFE material used in this fixture has an extremely low friction coefficient, which facilitates smooth operation and reduces the risk of wear and tear, thereby extending the lifespan of the equipment.
Excellent Lubricity: The inherent lubricity of PTFE ensures that the fixture operates smoothly, reducing the need for additional lubricants and minimizing maintenance requirements.
Optical Clarity: Similar to PTFE Petri Dish Liners, this fixture may offer optical clarity, allowing for visual monitoring of reactions without interference.
Non-Stick Surface: The non-stick properties of PTFE make it easy to clean and prevent contamination of subsequent experiments, ensuring the integrity of your research.
Corrosion Resistance: The fixture's corrosion resistance ensures that it maintains its structural integrity and performance over time, even in harsh chemical environments.
Enhanced Safety: The compact design and adjustable tightness of the PTFE fixture provide stability and safety, reducing the risk of accidents during experiments.

These advantages make the PTFE Carbon Paper Reaction Stand Fixture an indispensable tool for researchers and scientists working in various fields, including chemistry, materials science, and biotechnology. Its robust design and superior material properties ensure reliable and efficient operation in a wide range of laboratory applications.

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FAQ

What is polytetrafluoroethylene (PTFE)?

Polytetrafluoroethylene (PTFE) is a synthetic fluoropolymer of tetrafluoroethylene. It is a white, waxy solid that is known for its exceptional nonstick properties, high chemical resistance, and low friction coefficient. PTFE is widely recognized by its brand name Teflon, which is a registered trademark of Chemours, a spin-off of DuPont.

What are the primary applications of PTFE in industrial production and life?

PTFE is widely used due to its excellent properties such as thermal stability, chemical corrosion resistance, low friction coefficient, and low water absorption rate. It is commonly used in gaskets, bearings, and coatings due to its non-stick properties and resistance to high temperatures and chemicals.

How can the hardness and wear resistance of PTFE be improved?

The hardness and wear resistance of PTFE can be enhanced by adding fillers and wear-resistant materials. This modification helps to improve its mechanical strength and resistance to deformation and wear.

What is the impact of PTFE's non-stick properties on its industrial applications?

While PTFE's non-stick properties are beneficial in certain applications like textile and fluid handling, they can limit its bonding capabilities with other materials. Surface treatments like sodium treatment can be used to improve its adhesion properties.

Why is antistatic material added to PTFE?

Despite its excellent electrical properties, PTFE has high static electricity, which can be problematic in many applications. Adding antistatic materials helps to mitigate this issue, making it suitable for a broader range of uses.

What are the common applications of alumina crucibles?

Alumina crucibles have diverse applications in industries such as metallurgy, ceramics, chemistry, and materials research. They are commonly used for high-temperature processes, including melting, calcination, and sintering of metals, alloys, and ceramics. Alumina crucibles are also utilized in the production of catalysts, glass, and advanced materials. In laboratories, they are used for sample preparation, heating, and chemical reactions. Additionally, alumina crucibles find applications in thermal analysis techniques such as differential scanning calorimetry (DSC) and thermogravimetric analysis (TGA).

What are the key properties and characteristics of PTFE?

PTFE possesses several unique properties that make it highly desirable for various applications. It has excellent chemical resistance, being virtually unaffected by most chemicals and solvents. PTFE is also non-reactive, making it suitable for use in harsh environments. It has a low coefficient of friction, providing excellent nonstick properties, and it retains its nonstick characteristics even at high temperatures. PTFE is also electrically insulating, with high dielectric strength, and has a wide temperature range of -200 to +260 degrees Celsius (-328 to +500 degrees Fahrenheit). Additionally, PTFE is biologically inert, making it suitable for use in medical and food-grade applications.

What is a high pressure reactor?

A high-pressure reactor is an equipment designed to perform chemical reactions or other processes under elevated pressure and temperature conditions. It is used in various industries, such as chemical, petrochemical, pharmaceutical, and materials science, to carry out processes requiring high pressure or temperatures. It includes a pressure vessel, closure, temperature, and pressure control, stirring or mixing mechanism, and ports or connections. High-pressure reactors are useful in studying reaction kinetics, performing catalytic reactions, synthesizing new materials, and developing novel chemical processes. They come in various sizes and designs, with temperature control and agitation options, making them suitable for a wide range of reactions.

What is a glass reactor?

A glass reactor is a laboratory instrument used to facilitate chemical reactions. It provides an environment conducive for reactions and holds the reactants in place, while also allowing for easy monitoring of the progress of the reaction. There are two main types of glass reactors: batch reactors and continuous reactors. Batch reactors are smaller in size and can only handle small quantities of reactants, while continuous reactors allow for the pouring of reactants into the reaction chamber continuously and can handle larger volumes of reactants. Glass reactors are used in a variety of applications, from chemical synthesis to environmental and life science research.

What is an electrode in electrochemistry?

An electrode is a solid electrical conductor that serves as the point where current enters and leaves the electrolyte in an electrochemical cell. When the current leaves the electrode, it is called the cathode, and when it enters, it is called the anode. Electrodes are essential components of electrochemical cells, transporting produced electrons from one half-cell to another, which produces an electrical charge. The charge is based on a standard electrode system (SHE) with a reference potential of 0 volts and serves as a medium for any cell potential calculation.

What are the advantages of using alumina crucibles?

Alumina crucibles offer several advantages in high-temperature applications. Firstly, they have excellent thermal shock resistance, allowing them to withstand rapid heating and cooling without cracking. Alumina crucibles also have high chemical resistance, making them suitable for use with acids, bases, and other corrosive materials. They have low electrical conductivity, which is beneficial for preventing electrical interference in certain applications. Alumina crucibles are also inert and do not react with most substances, ensuring the purity of the materials being processed. Additionally, they have a long lifespan and can withstand repeated use at high temperatures.

What are the applications of PTFE?

PTFE finds applications in a wide range of industries due to its unique properties. It is commonly used as a nonstick coating for cookware, such as frying pans and baking sheets. PTFE is also used as a lining material for pipes, tanks, and vessels that handle corrosive chemicals. Its low friction coefficient makes it suitable for bearings, seals, and gaskets in various mechanical systems. PTFE is used in electrical insulation, such as wire and cable coatings, and it is also employed in the manufacturing of electrical components, such as connectors and insulators. Additionally, PTFE is utilized in medical devices, such as catheters and surgical implants, due to its biocompatibility.

What causes an increase in pressure within a high-pressure reactor?

Increasing pressure inside a pressure reactor can be achieved through various means. One common method is by heating a sealed pressure vessel, where temperature and pressure increase proportionately, impacting reaction kinetics. Alternatively, the reaction occurring inside the vessel can induce pressure, and agitation can accelerate this process.

In situations where heating is unsuitable or insufficient pressure is generated, manual pressurization is possible with a compressed gas source, such as a compressor or a pre-compressed canister of inert gas.

Pressure reactors utilize pressure relief valves to safely regulate and maintain pressure, emphasizing their reliable and safe operation.

What are the advantages of glass reactor?

The advantages of glass reactors are their ability to optimize and replicate chemical reactions, and provide a clear view of the reaction process. They are corrosion-resistant, work with different atmospheric pressures and vacuum, and can be used for a variety of applications such as catalytic research, process engineering, and biomass research. Glass reactors are also designed with safety in mind, allowing for safe processing of solvents and acids. Other benefits include the availability of various options such as heating/cooling systems, vacuum pumps, PH probes, and pressure gauges.

What are the 3 electrodes in electrochemistry?

The three electrodes commonly used in electrochemistry are the Working Electrode (WE), Reference Electrode (RE), and Counter Electrode (CE). The WE is where the electrochemical reaction occurs and the current is measured. The RE provides a stable reference potential for the measurement. The CE completes the circuit and balances the charge between the WE and RE. Proper preparation and use of each electrode is crucial for accurate electrochemical experiments.

How should alumina crucibles be handled and maintained?

Proper handling and maintenance of alumina crucibles are crucial to ensure their longevity and optimal performance. When handling, it is important to avoid dropping or impacting the crucibles to prevent cracking or damage. They should be stored in a clean and dry environment to avoid contamination. Regular cleaning of the crucibles is necessary to remove any residual materials or impurities. This can be done using a soft brush, mild detergent, or solvents suitable for alumina. It is recommended to preheat the crucibles before use, especially when subjected to rapid temperature changes, to prevent thermal shock. Crucibles should be inspected for cracks, erosion, or other damage, and if any issues are found, they should be replaced to maintain the quality of the materials being processed. Following the manufacturer's guidelines for maintenance and handling is essential.

What are the advantages of using PTFE?

The use of PTFE offers several advantages in various applications. Its exceptional nonstick properties make it easy to clean and release materials, reducing the need for excessive lubrication or cleaning agents. PTFE's high chemical resistance ensures long-term durability and protection against corrosion. Its low friction coefficient reduces wear and tear, improving the lifespan of mechanical systems. PTFE's electrical insulation properties make it safe for use in electrical applications. Furthermore, its biocompatibility makes it suitable for medical and food-grade applications. PTFE is also highly stable at high temperatures, maintaining its properties without degradation. Overall, the advantages of PTFE include its nonstick nature, chemical resistance, low friction, electrical insulation, biocompatibility, and high temperature stability.

How does a pressure reactor work?

A pressure reactor is a laboratory device used to conduct chemical reactions at high pressure. It works by controlling the pressure within the reactor vessel, allowing researchers to increase the pressure to desired levels and monitor the reaction as it occurs. The high-pressure environment can alter the reaction rate and outcome, making pressure reactors an essential tool for understanding the underlying mechanisms of chemical reactions. Pressure reactors are designed with safety in mind, featuring high-quality pressure-resistant materials, automatic pressure control systems, and leak-detection systems. They come in various sizes and designs, making them suitable for a wide range of reactions.

What material is glass reactor?

The glass reactor is made of borosilicate glass and has excellent physical and chemical properties. The borosilicate glass is highly resistant to thermal shock, chemical corrosion, and mechanical impacts, making it ideal for use in laboratory equipment. The glass is also transparent, allowing for easy observation of the reaction inside the vessel. The glass reactor is designed to withstand high temperatures and pressure, and it is used in various industries such as petrochemical, pharmaceutical, and dye, among others.

What are the different types of electrochemical electrodes?

There are several types of electrochemical electrodes, each designed for specific applications. The most common types include working electrodes, reference electrodes, and counter electrodes. Working electrodes are the primary electrodes where the electrochemical reaction of interest takes place. Reference electrodes provide a stable reference potential against which the working electrode potential can be measured. Counter electrodes complete the circuit by providing a site for the flow of electrons to balance out the current passing through the working electrode.

Are there any limitations or considerations when using PTFE?

While PTFE has many desirable properties, there are some limitations and considerations to keep in mind. PTFE has a relatively low mechanical strength compared to other engineering materials, so it may not be suitable for applications that require high load-bearing capabilities. It also has a relatively high coefficient of thermal expansion, which needs to be considered for dimensional stability in certain applications. PTFE has poor adhesion properties, making it difficult to bond or paint directly onto its surface. Pre-treatments or specialized adhesives may be required for proper adhesion. Additionally, PTFE is susceptible to damage from high-energy radiation, so it may not be suitable for applications in radiation-intensive environments. It is also important to consider the potential release of toxic fumes when PTFE is heated above its recommended temperature range.

What are the different types of glass reactors?

Different types of glass reactors include single-layer, double-layer, and three-layer glass reactors. Other types of reactors include glass-lined reactors, hydrothermal synthesis reactors, magnetic stirring reactors, electric heating reactors, and steam reactors. Glass reactors are commonly used in high and low-temperature reactions, vacuum reactions, solvent synthesis at a constant temperature, distillation and reflux reactions, vacuum distillation reactions, extraction separation reactions, purified reactions, and concentration reactions.

What materials are commonly used for electrochemical electrodes?

Various materials can be used for electrochemical electrodes depending on the specific application and requirements. Common materials include noble metals such as platinum, gold, and silver, which provide excellent conductivity and chemical stability. Carbon-based materials like graphite or glassy carbon are also commonly used due to their high surface area and good electrical properties. Additionally, metal oxides, conductive polymers, and composite materials are employed for specific applications that necessitate unique properties such as catalytic activity or selectivity.

What temperature should a glass reactor be?

The temperature range of a glass reactor may vary depending on the model and its intended use. In general, glass reactors can operate at temperatures as low as -80°C and as high as 300°C. However, the optimal working temperature will depend on the specific reaction being conducted and the chemicals being used. It is important to carefully monitor and control the temperature of the glass reactor to ensure the safety and effectiveness of the reaction.

What factors should be considered when selecting an electrochemical electrode?

When selecting an electrochemical electrode, several factors should be considered. The choice of electrode material is crucial, as it determines the electrode's conductivity, stability, and catalytic activity. The electrode size and geometry should match the specific experimental setup and requirements. Consideration should also be given to the compatibility of the electrode material with the electrolyte and the potential range of the electrochemical system. Additionally, cost, availability, and ease of fabrication should be taken into account when selecting an electrode for practical applications.

How can electrochemical electrodes be used in various applications?

Electrochemical electrodes find applications in a wide range of fields, including energy storage and conversion, corrosion analysis, sensors and biosensors, electroplating, and water treatment. They are used in batteries and fuel cells to facilitate the electrochemical reactions that store and convert energy. Electrochemical sensors and biosensors utilize electrodes to detect and measure analytes in various samples. Electroplating and electrorefining processes rely on electrodes to deposit or extract metal ions. Additionally, electrochemical electrodes are employed in electrochemical machining, electroanalysis, and many other research and industrial applications that involve studying or manipulating electrochemical phenomena.

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4.9

out of

5

Efficient design and high-temperature stability. Perfect for chemical research and medical device testing.

Takumi Nakamura

4.8

out of

5

Outstanding chemical resistance and low friction coefficient. Ideal for materials science and educational demonstrations.

Leila Mansour

4.7

out of

5

Robust construction and corrosion resistance. Essential for various laboratory procedures and seamless compatibility with standard equipment.

Javier Fernandez

4.9

out of

5

Exceptional non-stick surface and enhanced safety features. A versatile and reliable tool for laboratory settings.

Sofia Kowalczyk

4.8

out of

5

Versatile and reliable with excellent optical clarity. An indispensable tool in various research fields.

Ashok Patel

4.7

out of

5

High-temperature resistance and durability. Perfect for chemical reactions and high-temperature experiments.

Lars Bjornsson

4.9

out of

5

Impressive stability and wear resistance. Suitable for diverse experiments and applications.

Nina Vukovic

4.8

out of

5

Low friction coefficient and compact design. A reliable tool for researchers in different fields.

Masaru Tanaka

4.7

out of

5

Superior chemical resistance and non-stick properties. Ideal for preventing contamination in experiments.

Emma Svensson

4.9

out of

5

Corrosion resistance and enhanced safety measures. An indispensable tool for scientists and researchers.

Antonio Costa

4.8

out of

5

High-temperature stability and seamless compatibility. Essential for various laboratory procedures.

Liam O'Reilly

4.7

out of

5

Reliable and efficient operation with exceptional non-stick surface. Ideal for research in chemistry and biotechnology.

Elena Ivanova

4.9

out of

5

Outstanding chemical resistance and versatility. A reliable tool in numerous laboratory settings.

Ananya Mehta

4.8

out of

5

Exceptional safety features and optical clarity. Perfect for visual monitoring of reactions without interference.

Wei Chen

4.7

out of

5

Versatile and reliable with high-temperature resistance. Ideal for various research fields.

Santiago Dominguez

4.9

out of

5

Durable and wear-resistant fixture. Suitable for a range of experiments and applications.

Katja Olsdatter

4.8

out of

5

Efficient operation and enhanced safety measures. An indispensable tool for laboratory procedures.

Ilham Yilmaz

4.7

out of

5

Stable and compatible design with excellent non-stick properties. Essential for preventing contamination and ensuring research integrity.

Jasmine Singh

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