Properties and Application of Hafnium Carbide

Hafnium carbide (HfC), is a chemical compound with a distinct character. It has many uses.

1. Hafnium Carbide: Its Properties

Hafnium carburide is a grayish powder that belongs in the metal carbide category. It has high melting points, good hardness and high thermal stability.

Physical property

Hafnium carburide crystals have a cubic face-centered structure and a lattice constant 0.488nm. It is a hard material with a melting temperature of 3410 degrees Celsius.

Chemical property

Hafnium carburide is chemically stable, and it is not soluble in water or acid-base solutions. It is not easily affected by high temperatures. This material is stable at high temperatures. Hafnium carburide has a high radiation resistance, and is therefore suitable for use in nuclear reactors and particle acceleraters.

2. Hafnium Carbide Application

Hafnium carbide is used widely in many industries due to its high melting points, high hardness as well as good thermal and chemical properties.

Electronic field

Hafnium carburide is widely used in electronic fields, and it’s a key component of electronic glue. Hafnium carburide can be used to increase the adhesion and conductivity in electronic paste. Hafnium can be used as an electronic device sealant, increasing the reliability and durability of electronic devices.

Catalytic field

Hafnium carburide is an excellent catalyser that can be used to catalyze countless chemical reactions. One of the most common uses is in auto exhaust treatment, which reduces harmful gas emissions. Hafnium carburide is used in a variety of fields, including hydrogen production, petrochemicals and others.

The optical field

Hafnium carbide is transparent, and it can be used for optical fibers and components. It can enhance the durability and transmission of optical components, and reduce light losses. Hafnium carbide can be used for key components such as lasers, optoelectronics devices and optical fields.

Ceramic field

Hafnium carbide can be used to improve the density and hardness of ceramic materials. It can also improve the performance of high-performance materials such as structural and high temperature ceramics. Hafnium carbide can be used to grind and coat materials.


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Ti6Al4V powder is an important titanium alloy powd

Uses and properties of Ti6Al4V Particles

Ti6Al4V powder Due to its excellent physical, chemical, and biocompatibility properties, titanium alloy is widely used in aerospace, medical, and industrial fields. This article will describe the properties, preparation techniques, and applications of titanium alloy powder Ti6Al4V.

Properties of Ti6Al4V Particles

It is an alloy of titanium, vanadium and aluminum. Ti-6Al-4V is its molecular formulation, and it has the following features:

Outstanding performance at all temperatures: Ti6Al4V is a powder with excellent overall performance. It has high strength and stiffness as well as good low-temperature toughness.

Good biocompatibility – Ti6Al4V is used in a variety of medical applications due to its biocompatibility.

Low density: This powder is lighter than stainless steel, nickel-based metals and other materials.

Preparation and use of Ti6Al4V powder

Preparation of Ti6Al4V includes the following methods:

Melting Method: Ti6Al4V is made by melting metal elements like Ti, Al and V. Powder of Ti6Al4V is produced through ball milling processes and hydrogenation.

Mechanical alloying method: By using high-energy balls milling, metal elements like Ti, Al and V can be prepared into Ti6Al4V alloy powder.

Vapor Deposition Method: Ti6Al4V is made by vaporizing elements like Ti, Al, or V onto a substrate using chemical vapor depositing or physical vapor depositing.

Method of ion implantation: Using ion implantation, metal elements like Ti, Al and V are implanted in the matrix to produce Ti6Al4V powder.

Use of Ti6Al4V Particles

The excellent physical and chemical characteristics of Ti6Al4V and its good biocompatibility make it a powder that is widely used in aerospace, medical, and industrial fields.

Medical field

Ti6Al4V Powder is widely used in medical fields due to the biocompatibility of the powder and its high corrosion resistance. For example, it is used in the manufacture of artificial joints and dental implants. These include its good wear resistance and fatigue resistance. It also has a biocompatibility.

Industrial sector

Ti6Al4V Powder is mainly used to manufacture high-temperature materials and equipment in the industrial sector. A good corrosion-resistant and high temperature material, Ti6Al4V powder can be used in the manufacture of key components, such as those for chemical equipments, marine engineering equipment, power tools, and automobile manufacturing. To improve safety and reliability, it can be used to produce key components, such as offshore platforms and ships.

Aerospace field

Ti6Al4V Powder is widely used to produce high-temperature components for aircraft engines and aircraft. Because of its high strength and stiffness as well as good low temperature toughness and excellent corrosion resistance it can withstand extreme temperatures and harsh conditions during high-altitude flights. For example, it can be used to make key parts like aircraft fuselages and wings, landing gears and engines.

Other fields

Other fields can use Ti6Al4V, such as construction, electronics, and environmental protection. As an example, it can be used to make electronic components like high-performance electrode materials or capacitor materials. It can also be used to create high-performance coatings, glass materials, and structural materials.


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building materials industry indispensable good material

Amazing! The best building material for the industry.

Cement foam board is widely used. Its superior performance can be seen in:

Achieving good fire insulation performance

Cement foam The board is classified as a non-combustible, inorganic thermal insulating material of class A. It can maintain its integrity even at high temperatures and improve the fire performance. Closed porosity is more than 95%. It has excellent thermal insulation properties.

Sound insulation with excellent performance

Cement foam board can have a sound insulation coefficient greater than 45 decibels. This is due to the formation many independent, porous bubbles.

Lightweight seismic capacity

Cement foam board can resist a magnitude 9 earthquake by welding steel structure. Its density is about 250kg/cubic-meter.

Construction is efficient and convenient

Cement Foam Boards can be easily constructed, they require little time to construct and do not need extra materials like sand or cement. They are also easy to stack and use less space. Cement Foam Board can be constructed in 60 minutes by three people, compared to the traditional block walls.

Strengthens the bonding and compression forces

Addition of special fibers increases the compressive force of the cement board. The national testing agency confirms that the bending load can be up to three times the weight of the board (1.5 times national standard), compressive strength more than five MPa (3.5MPa national standard), hanging force more than 1,500N (1,000N national standard).

Environment protection, energy savings and non-toxic and safe

Cement fly ash is used to make cement foam. It won’t melt at high temperatures, and it doesn’t emit any toxic gases. It’s a material that is both environmentally friendly and safe. Cement foam board is not recyclable, and this fact has been recognized by the national industrialization policy.

Cement Foam Board is used widely in industrial plants with large spans, storage facilities, large machine workshops, stadiums exhibition halls airports large-scale utilities and mobile homes as well as residential wall insulation and other construction engineering areas. The problems associated with foam insulation before have been overcome by cement foam board. These include poor thermal insulation properties, high thermal conduction, and cracking.

Which is the best way to backfill a bathroom

The backfilling of the bathroom is a crucial part of any renovation. Backfilling is an essential part of bathroom renovations. It’s used to stop leakage, protect the pipe, improve thermal insulation, etc. In selecting bathroom materials, you should consider several factors depending on your specific situation. For example, take into account the performance and cost of backfill material as well the environmental protection.

There are five types of backfills available on the market: common slags, carbon-slags backfills (also known as “carbon slag”), ceramics backfills (also known as “ceramic backfills”), overhead backfills and foam cements backfills. We are confused about the different types of backfill:

Backfilling with slag can be cheaper, but because it is heavy and so dense, the slab is more likely to crack. This could lead to leakage of water.

It is cheaper to use overhead backfill because you don’t need as much material.

Since a few decades, foam cement backfilling has been popular. But does it come with any disadvantages?

For your information, here are five bathroom backfill materials with their advantages and disadvantages and some selection advice:

Building debris backfill


The advantages of slag backfill are its lower cost, ease of construction and certain thermal insulation properties.


Backfilling with construction waste will damage the waterproofing or the pipeline due to its sharp edges.


Has been eliminated. This is not a method that should be used. It will cost too much for a family to backfill with construction debris. To protect the waterproofing of the ground, first use fine sand, then red bricks, to protect the pipeline. The backfill should be compacted in layers. Finally, mud-mortar to level the surface will provide good secondary drainage.

Carbon Dregs Backfill


Carbon slag as a backfill has many advantages, including its low cost, ease of construction, lightweight structure, good moisture absorption, and excellent moisture control.


However, carbon dregs are not as stable, they can easily deform and fall off. They’re also flimsy.


In recent years, carbon slag has rarely been chosen as a backfill in bathrooms due to its negatives.

Ceramic Backfill


Ceramic backfill has many advantages including high strength, good insulation and corrosion resistance.


Before pouring in the ceramic, use lightweight bricks for layered partition. Divide the bathroom into several squares. Fill the squares with the ceramic, then place a reinforcing mesh with a diameter around one centimetre. Finally, level with cement mortar.

Suggestion: Look at your family’s budget and take it into consideration.

Overhead Backfill


Backfilling with overhead backfill has many advantages, including its simplicity, stability, inability to deform and easy fall-off.


Construction takes a long time, and labour costs are higher than other backfilling techniques. The bottom drain is located overhead and will make the sound of running waters more noticeable.

It is important to carefully consider whether the disadvantages of the situation outweigh any advantages.

Foamed Cement Backfill


Foamed cement is an increasingly popular backfill. It is also safe and eco-friendly. The raw material for cement foaming agents, plant-based fat acid, is both safe and environmentally friendly.

Benefits include good heat conservation, light weight, high strength and corrosion resistance. The backfilling process is greatly accelerated and reduced in cost, as it can be filled seamlessly and with very little effort.

Foamed cement can be mixed with cement and used to fix the pipe. If not, the pipe will easily float.


It is best to find a builder that has worked with foam cement or look up construction tutorials.


The majority of people backfill their bathrooms with foamed-cement. Its advantages are still quite obvious.

The five types of backfill for bathrooms all have advantages and disadvantages. In order to choose the right material for your bathroom backfill, you should consider several factors. You must always consider the environment when choosing bathroom backfill materials to ensure the decor of the bathroom is safe and sustainable.

Titanium nitride is a refractory compound with high microhardness and chemical and thermal stability

What is titanium Nitride? Titanium Nitride is a refractory with high chemical and heat stability. TiN can be used for many purposes: as part of special refractory material and cermets. It is also used as the crucible in metal anoxic casts and as a catalyst for decorative, wear-resistant coatings that look like gold. In a study of the combustion of compacted samples of titanium powder in nitrogen, it was found that the nitrogen content in the titanium powder is the most important factor in the combustion. Titanium sponges are a cheaper, more convenient and purer source of titanium compared to titanium powder.
What are the uses of titanium nitride?
Titanium nitride, a ceramic bright gold coating, is applied by PVD to metal surfaces. The coating has a high degree of hardness, has low friction, and is moderately resistant against oxidation. This method creates a coating that is extremely smooth, and doesn’t require any post-painting.
TiN is commonly used on machine tools to improve their corrosion resistance and maintain the edges.

TiN, which is a golden metal, can be used for decorating costume jewelry or car accessories. It is also used widely as a top-coat on consumer sanitary items and door hardware. The substrates are usually nickel (Ni), or chrome (Cr). It can be used in aerospace and military applications, to protect the sliding surfaces found on front forks for bicycles and motorbikes, as well as the shock-absorbing shafts for radio-controlled vehicles. As TiN is extremely durable, it is also used on moving parts for many rifles and semiautomatic firearms. The coating is very smooth and removes carbon deposits easily. TiN, which is FDA compliant and non-toxic has been used on medical equipment, such as orthopedic bone saw blades and scalpels where edge retention is important. TiN coatings were also used to coat implanted medical implants, such as hip replacement implants.

TiN film, although not as visible, is used in microelectronics as a conductive contact between active devices, such as circuits and metal contacts, as well as as a barrier for metal diffusion. silicon. Although TiN is a ceramic material from a mechanical or chemical point of view in this case, it is classified a “barrier-metal” (resistivity less than 25 uO*cm). TiN can also be used in the latest chip designs (45 nm or higher) to improve transistor performances. When combined with a gate-dielectric that has a higher dielectric coefficient than standard SiO2 such as HfSiO, the gate length is reduced while maintaining low leakage. A TiN coating is also being considered for zirconium-alloys that resist accidental nuclear fuel.

TiN electrodes can also be used for bioelectronic applications because of their high biological stability. They are ideal as electrodes for smart implants, in vivo biosensors and other bioelectronic devices where they need to withstand the corrosion caused by body liquids. TiN electrodes have been used in subretinal prosthesis projects and biomedical microelectromechanical systems (BioMEMS).

What’s better, titanium or Titanium Nitride?
Titanium alloy bits are the best choice for softer materials, such as wood and plastic. They can also be used on soft metals. While the type of coating for titanium is different. As an example, titanium nitride and titanium carbonitride are more effective at treating harder materials. Titanium, an element and metal, is composed of nitrogen and titanium.

Is titanium Nitride toxic?
Titanium Nitride, also called Tinite, is a very tough ceramic material that’s used to improve surface properties on titanium alloys and steel components.
TiN is used for a thin, protective coating on cutting and sliding surfaces. Due to its golden coloration, it can also be used for decorative purposes and to provide a nontoxic surface for medical implant. In many applications, the thickness of the coating is less that 5 microns. The study concluded the material tested was not toxic, nonirritating and nonhemolytic.

How strong is Titanium Nitride?
feature. The Vickers hardness is 1800-2100. The elastic modulus of TiN, is 251GPa. The tiN oxidizes at 800degC. Normal atmosphere.

Titanium Nitride: Other Advanced Applications

1. Photocatalysis of indium oxide CO2 by plasma titanium Nitride .
Photothermal titanium nitride (TiN) is a nano-scale metal material capable of capturing sunlight across a broad spectrum and generating a higher temperature locally through its photothermal effects. Indium oxide hydroxide (In2O3-x)(OH), a nanoscale semiconductor material, is capable of photocatalytic hydrogenation of CO2 gas. The wide electron gap of In2O3-x(OH)y limits its ability to absorb photons in the ultraviolet range of the solar spectrum. In this article, two nanomaterials are combined in a ternary heterstructure: TiN at TiO2 and In2O3 -x(OH). This heterogeneous structural material synergistically combines metal TiN with semiconductor In2O3(OH)y via the interface semiconductor, TiO2. The conversion rate of photo-assisted reverse gas shift reaction will be much greater than the single component or binary combination.

2. Li-S battery polysulfide adjustments can be made by dissolving the vanadium within the titanium nitride grid.
The ability to adapt the host-guest interaction chemical is very important, but has not been applied effectively to lithium-sulfur battery (LiS) batteries. Here, a unique titanium-vanadium-vanadium nitride (TVN) solid solution fabric was developed as an ideal platform for fine structure adjustment to achieve efficient and long-lasting sulfur electrochemistry. It is shown that by dissolving vanadium in the TiN structure, it can be used to adjust the electronic and coordination structure of Ti and Vanadium. This will change their chemical affinity toward sulfur species. This optimized TiV interaction provides the highest total polysulfide capacity and helps to fix sulfur and accelerate reaction kinetics. The final LiS battery has excellent cycling capability. Its capacity retention rate after 400 cycles is as high at 97.7%. The reversible surface capacity can also be maintained under high sulfur loads of 6.0 mcg cm-2, and an electrolyte with a concentration of only 6.5 mL/g-1. This study provides a novel perspective for future adjustments of high-quality Li-Lithium batteries.
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Penetrating agent SF CAS 68238-81-3

Penetrating agent SF has excellent permeability properties and emulsification and cleaning abilities. It also produces low foam and is easy to remove oil.

Alkylphenol Polyoxyenthylene Block Polyether Penetrating agent SF dissolves easily in water or general organic solvents. It is low foaming, has excellent permeability properties, emulsification, and cleaning capabilities. This product can be used in any ratio. It is not frozen.
It is a global trusted brand Alkylphenol polyoxyenthylene polyoxypropylene block polyether . Send an inquiry for the latest. Prices of Alkylphenol polyoxyenthylene polyoxypropylene block polyether. If you are interested in buying Alkylphenol block polyether Bulk discounts are available.

Product Performance of Alkylphenol, polyoxyenthylene, polyoxypropylene blocks polyether
Penetrating agent SF dissolves easily in water or general organic solvents. It is low foaming, has excellent permeability properties, emulsification, and cleaning capabilities. This product can be used in any ratio. It is not frozen.
Technical Parameter: Alkylphenol polyoxyenthylene blocks polyoxypropylene
Lon type Nonionic
Appearance(25) Clear liquid that is colorless to yellowish
pH(25,1%) 5.0-7.0
Solid content (%) >99
Cloud point(,1%aqueous solution) 55~65

Applicable Alkylphenol polyoxyenthylene polyoxypropylene block polyether :
This product can be used to prepare a variety fiber fabric pretreatment agent. It is conducive for oil dispersion and shedding, so the foam produced by the treatment agent is much lower than JFC.

Packing & Shipping of Alkylphenol, polyoxyenthylene, polyoxypropylene blocks polyether:
We offer a variety of different packing options based on the Alkylphenol, polyoxypropylene, polyoxyenthylene and polyether quantities.
Alkylphenol Polyoxyenthylene Polyoxypropylene Block Polyether Packaging: 1kg/bottle; 25kg/barrel or 200kg/barrel.
After payment, the shipping of alkylphenol polyoxyenthylene blocks polyoxypropylene is .

Penetrating Agent SF Property

Alternative Names Low foam penetration JFC-SF
CAS Number 68238-81-3
Compound Formula


Molecular Mass N/A
Appearance Clear liquid that is colorless or yellowish
Boiling Point N/A
Density N/A
Solubility In H2O N/A
ExactMass N/A

Health & Safety Information

Sign Word N/A
Hazard Statements N/A
Hazard Codes N/A
Risk Codes N/A
Safety Declarations N/A
Transport Information

Disodium coco-glucoside citrate, 30

It is an anionic mild surfactant that has emulsifying qualities, resulting in a rich, stable foam.Solid Content: 30 %

Disodium Coco-Glucoside Citrate:
The foam produced by Disodium Coco-Glucoside Citrate is stable and rich.
It is a global trusted brand Disodium coco-glucoside citrate . Send an inquiry for the latest. Prices of Disodium coco-glucoside citrate If you want to buy Disodium coco-glucoside citrate bulk.

Disodium cocoglucoside Citrate Product Performance:
It can help reduce the irritation from liquid soaps.

Technical Parameter: Disodium cocoglucoside Citrate
Product Code Shortname Purity PH Odor Appearance
Disodium coco-glucoside citrate N/A 30% NA Characteristic smell Dark brown liquid

Applications Disodium coco-glucoside citrate:
When used at low doses, disodium Coco-Glucoside Citrate is more effective and easier to clean.
It is also suitable for other formulations such as wet wipes, makeup removers and personal cleaners.
Shipping & packaging of Disodium cocoglucoside citrate
Disodium cocoglucoside citrate is available in a variety of different packagings.
Disodium coco-glucoside citrate packing: 1kg/bottle. 25kg/barrel. 200kg/barrel.
Disodium coco-glucoside citrate shipping: The shipment can be made by sea, air, or express as soon after payment as possible.

Disodium coco-glucoside citrate Properties

Alternative Names N/A
CAS Number N/A
Compound Formula N/A
Molecular Mass N/A
Appearance Dark brown liquid
Melting Point N/A
Boiling Point N/A
Density N/A
Solubility In H2O N/A
Exact Amount N/A

Health & Safety Information on Disodium cocoglucoside Citrate

Sign Word N/A
Hazard Statements N/A
Hazard Codes N/A
Risk Codes N/A
Safety Declarations N/A
Transport Information

Ultrasonic Technology Can Reduce The Cost of Magnesium Diboride Superconductors

Magnesium diboride (MgB2) This is an ionic complex with a hexagonal crystalline structure. It is a type of compound that has alternating layers between magnesium and boron.
Researchers have found that the temperature at which magnesium boride transforms into a high-temperature superconductor is slightly below the absolute temperature of 233degC (40K). Its temperature of transition is about twice as high compared to other superconductors.

Many practical applications already exist for superconductivity such as magnetic levitation and medical imaging. Superconductors can be used in many other fields of technology, including medical imaging and magnetic levitation trains.

Magnesium diboride (MgB2) has been attracting the attention from researchers ever since it was discovered. It is a superconductor which offers many advantages. It is lightweight and easy to process, can be made out of many pre-materials. The total cost of using Magnesium Boride is greatly reduced.

Superconductors are characterized by their critical current densities (Jc). It is extremely difficult to increase MgB2’s Jc in an economical manner.

In a recent paper published in Materials Science and Engineering (B) (Materials Science and Engineering), researchers from Shibaura Institute of Technology, Japan, developed a new technology that uses ultrasound treatment to improve mass. MgB2Jc.

The method used is to use ultrasonic wave to completely disperse boron. The hexane can then be vaporized and removed to obtain a fine boron, which will then be sintered with the magnesium to create magnesium boride.

Researchers produce high-quality magnesium boride in bulk, the majority of which are free from oxidizing impurities. The Jc values increased between 20% and 30% depending on the time of sonication.
In addition, scanning electron microscope and energy dispersive-X-ray spectrum results revealed a secondary mechanism that could lead to an enhancement of Jc. The team discovered a layered structure on the boron-deficient por walls. This appeared to consist of a magnesium boronoxide coating.

Researchers say that this will reduce the cost and technical difficulty of superconductors. It will also make it easier to use for the public, particularly in the medical sector.

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The development of molybdenum disulfide

Semiconductor Molybdenum disulfide It is not a good semiconductor. Chemists, materials scientists and others are looking for alternatives to graphene. Scientists are synthesizing other two-dimensional materials, which are flexible and transparent with electronic properties that can’t be matched by graphene. Molybdenum disulfide This is one.
Molybdenum disulfide Overview
Molybdenum diulfide, a TMD (transition metal disulfide material), was synthesized in 2008. The name is the structure of these materials: a molybdenum-containing transition metal atom and a pair atoms, including selenium and sulfur from column 16, of the periodic chart.
TMDs are all semiconductors. This is a surprise to electronics manufacturers. The TMDs are about the same thickness as graphene. molybdenum disulfide They also have other benefits. One of the main advantages for molybdenum is its electron mobility, or the speed with which electrons move in the sheet. The electron migration of molybdenum is 100 cm2/vs. (That is, 100 electrons/square centimeter per second). This is significantly lower than that of crystalline silica, which is around 1400 cm2/vs. However, it is still thinner than amorphous silicone and other similar materials. Scientists study semiconductors to use them in future products like flexible display screens or other electronic devices that can be stretched.
Research on Molybdenum diulfide
Studies have shown molybdenum diulfide to be extremely easy-to-make, even in large pieces of materials. This allows engineers the ability to test electronic products quickly.
In 2011, a research team led by Andras Kis of the Swiss Federal Institute of Technology published an article in “Nature-Nanotechnology”, saying that they used a single layer of molybdenum disulfide thin-film of only 0.65 nanometers to make the first transistors. The products of the first generation and their subsequent versions have many unique features that distinguish them from more advanced silicon-based products.
Molybdenum diulfide also has some other desirable properties. One of them is the direct bandgap. It allows the material convert electrons to photons or vice versa. This feature makes molybdenum a great candidate for use in optical products, including light emitters. lasers. photodetectors. and solar cells. Yi-Hsien says that because this material has abundant reserves, is non-toxic, and low-priced, its future looks bright. Tomanek however believes that the rate of electron migration is higher than what Tomanek claims. molybdenum disulfide This is not sufficient. In a crowded market, it’s difficult to maintain a competitive advantage. This material has structural characteristics that explain this. It is because electrons will bounce when they come into contact with larger metals atoms. Scientists believe this “stumblingblock” is only temporary. Researchers are trying to overcome these obstacles. They have made a multilayer sheet of molybdenum that is slightly thicker to provide a route for the electrons to bypass this roadblock.

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Boride for rocket construction

What products can boride be used in? Boride Boride is more resistant to oxidation at high temperatures than the Group IVB Metal Boride. Boride dissolves in Molten Alkali. Boride from rare earth and alkaline metals does not corrode by wet oxygen or dilute Hydrochloric Acid, but it is soluble when exposed to nitric.
Almost all boride compounds have metallic appearance and properties, with high conductivity and positive resistance-temperature coefficient. The Ti, Zr, and HF borides have better conductivity compared to their metal counterparts. Boride’s creep resistance is excellent, which makes it a good material for rockets and gas turbines that need to operate at high temperatures. The material must also be strong, resistant to corrosion, and resist heat shock. The various alloys, cermets, or borides based on carbide, nitride or boride can be used for the manufacturing of rocket structural parts, aeronautical device component, turbine component, specimen clamps, instrument components and high-temperature materials testing machines.

Boride ceramics: Are they fragile?
Boride Ceramics have a high melting point and high thermal stability. They also have a high conductivity. Boride can be produced by normal pressurized sintering, ISOSTATIC pressing or hot pressing after injection or conventional molding.

What are boride compound?
Binary compound of Boron, metals and nonmetals like carbon. MMBN may be expressed using a generic formula. It is an interfilling and does not obey the valence rules. Boride can be formed by other metals as well as zinc (Zn), cadmium(CD), Mercury (Hg), gallium(Ga), indium (In), thallium(Tl), Germanium (GE), tin (Sn), lead (PB), and Bismuth. The crystals have high melting points and hardness. They are also stable chemically and insoluble in hot concentrated acid.

Boride: A micronutrient with a vital role ?
B is commonly added to all commercial superalloys for improved high temperature serviceability. It is believed that B tends towards segregation at grain borders, which can help to prevent grain boundary migration when temperatures are high. Superalloys contain B in two forms: as solid solution or boride precipitates. B’s solid solubility in superalloys is low. Therefore, a number of borides such as M2b and M5B3 will precipitate during high-temperature service. While these boride materials are widely used in superalloys and other alloys, they are only known at a relative macro-scale. The further understanding of the fine structure of precipitates is helpful to optimize the material design and elaborate the structure-performance relationship reasonably.

Boride powder is available at a reasonable price
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