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Coating evaluation electrolytic cell

Electrochemical Consumables

Coating evaluation electrolytic cell

Item Number : ELEC

Price varies based on specs and customizations

$199.90 / set

Specifications
8/30/50/80ml
Applicable temperature range
0 ~ 60℃
Reaction area
0.5~ 2cm²
Material
boron glass + PTFE
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Coating Evaluation Electrolytic Cells for Electrochemical Experiments, corrosion resistance, complete specifications, good sealing, high-quality material selection, safe and durable, can be customized.

Technical specifications

Specifications 8/30/50/80ml
Applicable temperature range 0 ~ 60℃
Reaction area 0.5~ 2cm²
Material boron glass + PTFE
Opening hole of electrolytic cell Two electrode holes (including graphite rod electrode*1 silver chloride electrode*1)

Detail & Parts

Coating evaluation electrolytic cell structure
1. Graphite rod electrode; 2. Silver chloride electrode; 3. 6.2mm electrode hole cover; 4. Fixing clip; 5. Cell body (reaction area 2cm2); 6. Base

Coating evaluation electrolytic cell detail 1Coating evaluation electrolytic cell detail 2Coating evaluation electrolytic cell detail 3Coating evaluation electrolytic cell detail 4Coating evaluation electrolytic cell detail 5

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FAQ

What is Physical vapor deposition (PVD)?

Physical vapor deposition (PVD) is a technique for depositing thin films by vaporizing a solid material in a vacuum and then depositing it onto a substrate. PVD coatings are highly durable, scratch-resistant, and corrosion-resistant, making them ideal for a variety of applications, from solar cells to semiconductors. PVD also creates thin films that can withstand high temperatures. However, PVD can be costly, and the cost varies depending on the method used. For instance, evaporation is a low-cost PVD method, while ion beam sputtering is rather expensive. Magnetron sputtering, on the other hand, is more expensive but more scalable.

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 materials used in electrochemical cell?

The materials used in an electrochemical cell are the anode, cathode, and electrolyte. The anode is the negative electrode that releases electrons to the external circuit and oxidizes during the electrochemical reaction. The cathode is the positive electrode that acquires electrons from the external circuit and is reduced during the electrochemical reaction. The electrolyte is the medium that provides the ion transport mechanism between the cathode and anode of a cell. The desirable properties for anode, cathode, and electrolyte materials include high efficiency, stability, good conductivity, ease of fabrication, and low cost.

What is reference electrode with an example?

A reference electrode is an electrode with a stable and known electrode potential, used in electrochemical measurements and devices. An example of a reference electrode is the Standard Hydrogen Electrode (SHE), which has a potential of 0.000 V and an activity of H+ of 1 Molar. Other examples of reference electrodes include the Normal Hydrogen Electrode (NHE), Saturated Calomel Electrode (SCE), Silver Chloride Electrode, Copper-Copper Sulfate Electrode, and the pH Electrode. Reference electrodes are used in building electrochemical cells and determining the potential of the other half-cell.

What is the H type of electrochemical cell?

The H-type electrochemical cell is a replaceable membrane sealed cell that consists of two electrochemical cells coupled together. It features a gas inlet and outlet for easy degassing and multiple electrode feedthroughs for working, counter, and reference electrodes.

What is magnetron sputtering?

Magnetron sputtering is a plasma-based coating technique used to produce very dense films with excellent adhesion, making it a versatile method for creating coatings on materials that have high melting points and cannot be evaporated. This method generates a magnetically confined plasma near the surface of a target, where positively charged energetic ions collide with the negatively charged target material, causing atoms to be ejected or "sputtered." These ejected atoms are then deposited on a substrate or wafer to create the desired coating.

What are electrolytic cells used for?

Electrolytic cells are used for the decomposition of chemical compounds through electrolysis. This process involves the use of an external electric current to facilitate a non-spontaneous redox reaction. Electrolytic cells are commonly used to produce oxygen and hydrogen gas from water, extract aluminum from bauxite, and electroplate various metals. Additionally, electrolytic cells are used in the electrorefining and electrowinning of non-ferrous metals such as aluminum, copper, zinc, and lead. Overall, electrolytic cells have numerous industrial applications in the production and refinement of various chemical compounds and metals.

What are the methods used to deposit thin films?

The two main methods used to deposit thin films are chemical vapor deposition (CVD) and physical vapor deposition (PVD). CVD involves introducing reactant gases into a chamber, where they react on the surface of the wafer to form a solid film. PVD does not involve chemical reactions; instead, vapors of constituent materials are created inside the chamber, which then condense on the wafer surface to form a solid film. Common types of PVD include evaporation deposition and sputtering deposition. The three types of evaporation deposition techniques are thermal evaporation, electron-beam evaporation, and inductive heating.

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.

What are the examples of electrochemical material?

Examples of electrochemical materials include anode materials for the oxidation of acetic acid, cathode materials for the reduction of acrylonitrile, and electrode materials for the cathodic hydrodimerization of formaldehyde to ethylene glycol. Selectivity for synthetic electrochemical reactions can be determined by the materials used, with electrode materials imparting control and variation of outcomes. The choice of electrode material can also switch reactivity on or off, such as with the cathodic hydrodimerization of formaldehyde only occurring with mercury or carbon cathodes. Understanding the influence of electrode materials can facilitate improved rationalization of differences in achieved yields or selectivity.

What is the role of reference electrode?

The role of the reference electrode is to complete the electrical circuit necessary for an electrochemical measurement by providing the second electrode of a complete electrode cell whose total potential is measured. The reference electrode achieves this by providing contact with the sample through its liquid junction. For a reference electrode to be useful, it must provide both a stable and reproducible potential to which the indicating electrode potential can be compared. Most difficulties experienced while performing measurements with electrodes can be traced to the reference electrode, and more specifically, to the reference electrode's liquid junction.

What is H-cell used for?

The H-Cell is a two-compartment electrochemical cell used for membrane testing, H2 permeation, or any other experiment where two separate electrode chambers are required. Both compartments can be separated by an ion-exchange membrane.

Why magnetron sputtering?

Magnetron sputtering is preferred due to its ability to achieve high precision in film thickness and density of coatings, surpassing evaporation methods. This technique is especially suitable for creating metallic or insulating coatings with specific optical or electrical properties. Additionally, magnetron sputtering systems can be configured with multiple magnetron sources.

What is the difference between galvanic cell and electrolytic cell?

The main difference between a galvanic cell and an electrolytic cell is that a galvanic cell generates electrical energy from a spontaneous redox reaction, while an electrolytic cell uses electrical energy to drive a non-spontaneous redox reaction. Another difference is that a galvanic cell has a positive cell potential, while an electrolytic cell has a negative cell potential. Galvanic cells are used in batteries, while electrolytic cells are used in processes such as electroplating and purification of metals.

What is thin film deposition equipment?

Thin film deposition equipment refers to the tools and methods used to create and deposit thin film coatings onto a substrate material. These coatings can be made of various materials and have different characteristics that can improve or alter the substrate's performance. Physical vapor deposition (PVD) is a popular technique that involves vaporizing a solid material in a vacuum, then depositing it onto a substrate. Other methods include evaporation and sputtering. Thin film deposition equipment is used in the production of opto-electronic devices, medical implants, and precision optics, 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.

What is reference electrode used for?

A reference electrode is used to provide a stable and defined potential for electrochemical measurements. It consists of an internal element, typically silver-silver chloride, surrounded by an electrolyte-containing filling solution. The purpose of the reference electrode is to complete the electrical circuit necessary for an electrochemical measurement by providing the second electrode of a complete electrode cell whose total potential is measured. Most electrodes combine a stable reference and a working cell in one probe, but separate reference electrodes are available for certain applications. The choice of reference electrode depends on factors such as sample compatibility, stability, and temperature considerations.

What is the H type microbial fuel cell?

The Microbial H-Cell is a Microbial Fuel Cell (MFC) reactor chamber. The H-cell is defined according to the shape of the cell. It can be used as reactor and other electrochemical cells. The assembled H-cell has a volume of 100ml on each side of chamber.

What are the materials used in thin film deposition?

Thin film deposition commonly utilizes metals, oxides, and compounds as materials, each with its unique advantages and disadvantages. Metals are preferred for their durability and ease of deposition but are relatively expensive. Oxides are highly durable, can withstand high temperatures, and can be deposited at low temperatures, but can be brittle and challenging to work with. Compounds offer strength and durability, can be deposited at low temperatures and tailored to exhibit specific properties.

The selection of material for a thin film coating is dependent on the application requirements. Metals are ideal for thermal and electrical conduction, while oxides are effective in offering protection. Compounds can be tailored to suit specific needs. Ultimately, the best material for a particular project will depend on the specific needs of the application.

What is an electrolytic cell and how does it work?

An electrolytic cell is an electrochemical cell that uses electrical energy to drive a non-spontaneous redox reaction. It consists of an electrolyte and two electrodes (a cathode and an anode). When an external voltage is supplied to the electrodes, the ions in the electrolyte are attracted to an electrode with the opposite charge, allowing charge-transferring (also known as faradaic or redox) events to occur. The negative electrode is called the cathode and the positive electrode is called the anode. Oxidation occurs at the anode, and reduction occurs at the cathode.

What is thin-film deposition technology?

Thin film deposition technology is the process of applying a very thin film of material, ranging in thickness from a few nanometers to 100 micrometers, onto a substrate surface or onto previously deposited coatings. This technology is used in the production of modern electronics, including semiconductors, optical devices, solar panels, CDs, and disk drives. The two broad categories of thin film deposition are chemical deposition, where a chemical change produces a chemically deposited coating, and physical vapor deposition, where a material is released from a source and deposited on a substrate using mechanical, electromechanical, or thermodynamic processes.

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 is a reference electrode vs counter electrode?

A reference electrode is used as a comparison point for the potential of the working electrode in an electrochemical experiment. It must maintain a stable potential throughout the experiment. Common examples include Ag/AgCl, Ag/Ag+ and the saturated calomel electrode (SCE). On the other hand, a counter electrode transfers electrons between itself and some species in solution, in order to prevent inhibition of electron transfer at the working electrode. It must transfer electrons quickly and is commonly made of platinum metal, such as a platinum wire or a high surface area platinum gauze electrode.

What is the difference between standard and reference electrode?

Standard electrode potential is the potential difference between a half-cell and a standard reference electrode. A reference electrode, on the other hand, is an electrode that has a stable and well-known electrode potential. The key difference is that the standard electrode potential is a relative value, while the reference electrode potential is an absolute value. The standard electrode potential can be used to predict the direction of electron flow in a reaction, whereas the reference electrode potential is used to measure the potential of other half-cells and determine the absolute potential of a given electrode.

How many types of electrolytic cells are there?

There are two main types of electrolysis cells: The first type is called a "membrane cell" or "diaphragm cell". In this type of cell, a porous membrane or diaphragm is placed between the anode and cathode to prevent the reactions at each electrode from mixing.

What are the methods to achieve optimal thin film deposition?

To achieve thin films with desirable properties, high-quality sputtering targets and evaporation materials are essential. The quality of these materials can be influenced by various factors, such as purity, grain size, and surface condition.

The purity of sputtering targets or evaporation materials plays a crucial role, as impurities can cause defects in the resulting thin film. Grain size also affects the quality of the thin film, with larger grains leading to poor film properties. Additionally, the surface condition is crucial, since rough surfaces can result in defects in the film.

To attain the highest quality sputtering targets and evaporation materials, it is crucial to select materials that possess high purity, small grain size, and smooth surfaces.

Uses of Thin Film Deposition

Zinc Oxide-Based Thin Films

ZnO thin films find applications in several industries such as thermal, optical, magnetic, and electrical, but their primary use is in coatings and semiconductor devices.

Thin-Film Resistors

Thin-film resistors are crucial for modern technology and are used in radio receivers, circuit boards, computers, radiofrequency devices, monitors, wireless routers, Bluetooth modules, and cell phone receivers.

Magnetic Thin Films

Magnetic thin films are used in electronics, data storage, radio-frequency identification, microwave devices, displays, circuit boards, and optoelectronics as key components.

Optical Thin Films

Optical coatings and optoelectronics are standard applications of optical thin films. Molecular beam epitaxy can produce optoelectronic thin-film devices (semiconductors), where epitaxial films are deposited one atom at a time onto the substrate.

Polymer Thin Films

Polymer thin films are used in memory chips, solar cells, and electronic devices. Chemical deposition techniques (CVD) offer precise control of polymer film coatings, including conformance and coating thickness.

Thin-Film Batteries

Thin-film batteries power electronic devices such as implantable medical devices, and the lithium-ion battery has advanced significantly thanks to the use of thin films.

Thin-Film Coatings

Thin-film coatings enhance the chemical and mechanical characteristics of target materials in various industries and technological fields. Anti-reflective coatings, anti-ultraviolet or anti-infrared coatings, anti-scratch coatings, and lens polarization are some common examples.

Thin-Film Solar Cells

Thin-film solar cells are essential to the solar energy industry, enabling the production of relatively cheap and clean electricity. Photovoltaic systems and thermal energy are the two main applicable technologies.

What are the two points of difference between electrochemical and electrolytic cells?

Electrochemical and electrolytic cells both rely on the movement of electrons through the system. However, spontaneous chemical reactions occur in electrochemical cells, whereas nonspontaneous chemical reactions occur in electrolytic cells.

What are the advantages of using thin film deposition equipment?

Thin film deposition equipment offers several advantages in various industries and research fields. It enables precise control over film properties such as thickness, composition, and structure, allowing for tailored materials with specific functionalities. Thin films can be deposited over large areas, complex shapes, and different substrate materials. The deposition process can be optimized to achieve high uniformity, adhesion, and purity of the films. Additionally, thin film deposition equipment can operate at relatively low temperatures, reducing thermal stress on the substrate and enabling deposition on temperature-sensitive materials. Thin films find applications in fields such as electronics, optics, energy, coatings, and biomedical devices, offering enhanced performance, protection, or functionality.

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.

What is the H Cell for hydrogen permeation experiments?

The Devanathan-Stachurski cell (or «H cell») is successfully used to evaluate the permeation of hydrogen through sheets or membranes. An H cell consists of two electrochemical compartments separated by a sheet which acts as a working electrode (WE) in both cells.

Factors and Parameters that Influence Deposition of Thin Films

Deposition Rate:

The rate at which the film is produced, typically measured in thickness divided by time, is crucial for selecting a technology suitable for the application. Moderate deposition rates are sufficient for thin films, while quick deposition rates are necessary for thick films. It is important to strike a balance between speed and precise film thickness control.

Uniformity:

The consistency of the film across the substrate is known as uniformity, which usually refers to film thickness but can also relate to other properties such as the index of refraction. It is important to have a good understanding of the application to avoid under- or over-specifying uniformity.

Fill Capability:

Fill capability or step coverage refers to how well the deposition process covers the substrate's topography. The deposition method used (e.g., CVD, PVD, IBD, or ALD) has a significant impact on step coverage and fill.

Film Characteristics:

The characteristics of the film depend on the application's requirements, which can be categorized as photonic, optical, electronic, mechanical, or chemical. Most films must meet requirements in more than one category.

Process Temperature:

Film characteristics are significantly affected by process temperature, which may be limited by the application.

Damage:

Each deposition technology has the potential to damage the material being deposited upon, with smaller features being more susceptible to process damage. Pollution, UV radiation, and ion bombardment are among the potential sources of damage. It is crucial to understand the limitations of the materials and tools.

What is the example of electrolytic cell?

Important examples of electrolysis are the decomposition of water into hydrogen and oxygen, and bauxite into aluminum and other chemicals. Electroplating (e.g., of copper, silver, nickel, or chromium) is done using an electrolytic cell.

What factors should be considered when selecting thin film deposition equipment?

Several factors should be considered when selecting thin film deposition equipment. The technique (PVD, CVD, ALD, MBE) should align with the desired film properties and the specific material being deposited. The size and configuration of the deposition chamber should accommodate the substrate size and shape requirements. The equipment's capabilities in terms of film thickness control, uniformity, and deposition rate should meet the application needs. Considerations should also include the availability and compatibility of precursor materials or target sources for the desired film composition. Other factors to consider are the ease of operation, maintenance requirements, vacuum system reliability, and any additional features such as in situ monitoring or control options. Consulting with experts or manufacturers can provide valuable guidance in selecting the most suitable thin film deposition equipment for a specific application.

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.

Are electrolytic cells spontaneous?

Galvanic cells derives its energy from spontaneous redox reactions, while electrolytic cells involve non-spontaneous reactions and thus require an external electron source like a DC battery or an AC power source.

What safety considerations are associated with operating thin film deposition equipment?

Operating thin film deposition equipment requires certain safety considerations to ensure the well-being of operators and prevent potential hazards. Some deposition techniques involve the use of high temperatures, vacuum environments, or toxic gases. Adequate safety protocols should be in place, including proper training for operators, use of personal protective equipment (PPE), and adherence to safety guidelines provided by the equipment manufacturer and regulatory agencies. Proper ventilation systems should be installed to handle any hazardous gases or by-products generated during the deposition process. Emergency shut-off systems, alarms, and interlocks should be implemented to handle unexpected events or equipment malfunctions. Maintenance and periodic inspections should also be conducted to ensure the equipment's safety and functionality. It is crucial to have well-established safety protocols and follow recommended practices to minimize risks associated with thin film deposition equipment operation.
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4.9

out of

5

Excellent electrolytic cell for coating evaluation. Fast delivery and great quality.

Jessamine O'Neill

4.7

out of

5

The electrolytic cell is very well-made and works perfectly for my experiments. Very satisfied with my purchase.

Anika Khosla

4.8

out of

5

The cell is of high quality and is very easy to use. I highly recommend it to anyone who needs to perform coating evaluations.

David Knight

5.0

out of

5

This electrolytic cell is a must-have for any lab that does coating evaluations. It is very well-made and produces consistent results.

Maria Rodriguez

4.6

out of

5

The electrolytic cell arrived quickly and was well-packaged. It is exactly as described and works great. I am very happy with my purchase.

Oliver Chen

4.9

out of

5

The electrolytic cell is very easy to use and clean. It is also very durable and has held up well to repeated use.

Isabella Garcia

5.0

out of

5

I am very impressed with the quality and performance of this electrolytic cell. It is a great value for the price.

Muhammad Ali

4.8

out of

5

This electrolytic cell is a great addition to my lab. It is very versatile and can be used for a variety of experiments.

Sophia Patel

4.7

out of

5

The electrolytic cell is very well-made and is very easy to use. I am very happy with my purchase and would definitely recommend it to others.

Liam Brown

4.9

out of

5

I am very impressed with the quality and performance of this electrolytic cell. It is a great value for the price.

Amelia White

5.0

out of

5

This electrolytic cell is a must-have for any lab that does coating evaluations. It is very well-made and produces consistent results.

Benjamin Jones

4.8

out of

5

The electrolytic cell arrived quickly and was well-packaged. It is exactly as described and works great. I am very happy with my purchase.

Hannah Smith

4.7

out of

5

The electrolytic cell is very easy to use and clean. It is also very durable and has held up well to repeated use.

Lucas Clark

4.9

out of

5

Excellent electrolytic cell for coating evaluation. Fast delivery and great quality.

Mia Kim

4.8

out of

5

The cell is of high quality and is very easy to use. I highly recommend it to anyone who needs to perform coating evaluations.

Ethan Miller

5.0

out of

5

This electrolytic cell is a great addition to my lab. It is very versatile and can be used for a variety of experiments.

Harper Williams

4.6

out of

5

The electrolytic cell is very well-made and is very easy to use. I am very happy with my purchase and would definitely recommend it to others.

Jackson Taylor

4.9

out of

5

I am very impressed with the quality and performance of this electrolytic cell. It is a great value for the price.

Ava Johnson

5.0

out of

5

This electrolytic cell is a must-have for any lab that does coating evaluations. It is very well-made and produces consistent results.

Alexander Green

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Applications of H-Type Electrolytic Cell in Metal Extraction

Applications of H-Type Electrolytic Cell in Metal Extraction

H-type electrolytic cells uses an electrolyte solution to dissolve the metal ions and an electric current to separate the metal ions from the solution.

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Innovations in Electrochemical Electrodes Technology

Innovations in Electrochemical Electrodes Technology

Recent advancements in nanotechnology and materials science have led to significant improvements in electrochemical devices, making them more efficient, durable, and cost-effective.

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