News | INNOVACERA

Category Archives: News

The use of Boron Nitride (BN) Ceramics

Basic information about Boron Nitride (BN)

Boron nitride (BN) is a thermally and chemically resistant refractory material, compound of boron and nitrogen. It exists in various crystalline forms that are isoelectronic to a similarly structured carbon lattice. The hexagonal form corresponding to graphite is the most stable and soft among BN polymorphs. With excellent thermal and chemical stability, boron nitride ceramics are used in high-temperature equipment and metal casting, which has potential use in nanotechnology.

In the neutral reducing atmosphere, Boron Nitride’s heat resistance can be to 2000℃, the use temperature in nitrogen and argon can reach 2800℃, the stability is poor in the oxygen atmosphere below 1000℃. The expansion coefficient of hexagonal boron nitride is equivalent to that of quartz, but the thermal conductivity is ten times that of quartz.

Boron Nitride (BN) Material Available:

1. 99% BN
2. 99.7% BN
3. BN + AL
4. BN + Si
5. BN + SiC
6. BN + Zirconia
7. BN + ALN

The Following are the Characteristics of Different Boron Nitride (BN) Materials:

The Main Use of Boron Nitride Ceramics:

1. Vacuum high temperature equipment electrode insulation (99BN, BN+AL)

Advantage: high temperature resistance 2000 degrees, good thermal shock resistance, high electrical breakdown strength (3-4 times of alumina). Carbon atmosphere corrosion resistance is much stronger than alumina

2. Semiconductor equipment insulation heat dissipation (99BN, BN+ALN)

Advantages: large resistance, high temperature resistance, high breakdown resistance, no pollution corrosion resistance and processable

3. Gas atomizing nozzle (BN 99, BN+AL,BN+SIC,BN+ALN)

Mainly used in powder metallurgy industry, gas atomization process to produce metal powder (iron powder, aluminum powder, copper powder, stainless steel, welding powder, iron silicon aluminum, iron silicon nickel, aluminum iron boron, etc.)
Advantages: Resistance to metal corrosion wear and erosion, high thermal shock resistance, non-bonding and non-reaction with metal liquid.

4. Crucible for transparent ceramic sintering or bearing plate for Aluminum nitride, silicon nitride substrate (BN 99.7)

Advantages: high temperature resistance (2000 degrees), high purity (99.7% or more), no pollution of the product, no deformation at high temperature, and the product will not bond.

The Use Of Zirconia Ceramic Blade

The Popularity of Zirconia Cearmic Blade

Zirconia Ceramic blades are becoming popular in recent years for its extremely high cutting edge strength and excellent flexural strength and hardness. The blade is made by sintering zirconia powder at high temperatures, which make it a dense homogeneous material with high hardness and sharpness. Zirconia Ceramic is known for its toughness, compressive strength and thermal shock resistance. Besides zirconia, it can also use ceramic like Alumina, Silicon Nitride and Boron Nitride. But material zirconia is more common.

Why It is Becoming Popular

Compared with traditional blade like steel or diamond blades, Zirconia ceramic blade has the advantages of high durability, sharpness and high level of chemical resistance. It is resistant to wear and tear, so it can be used for a long time. This makes it a cost-effective option for business.At the same time it can be sharpened to a fine edge, which makes it ideal for cutting application.

Here is the Properties of Zirconia Ceramic

Properties	Unit	Value
Main Composition	%	ZrO2
Density	g/cm3	≥6.0
Vickers Hardness	kg/mm2	1,200.00
Rockwell Hardness	HRA	88
Modulus of Elasticity	GPa	220
Bending Strength	MPa	2,500.00
Fracture Toughness	Mpa.m1/2	10
Compressive Strength	MPa	2,500.00
Melting Point	℃	2,850.00
Thermal Conductivity (In 25℃)	W/m.k	1.5~2
High Temperature Resistant	℃	1000

Zirconia Ceramic Blade VS Traditional Metal Cutting Blades:

Never rust like metal blades
Good electrical insulation
Good corrosion resistance to acids and alkali
High temperature resistance
Sharpness of cutting edge will remain 60 times longer than steel blades

Where We Can Use Zirconia Ceramic Blade

The range of applications for zerconia ceramic blade in industry as below:

Medial
Aerospace
Automotive
Paper
Semiconductor
Chemical Fibers
Firm and Foil
Fiberglass
Textile Industry
Food and beverage production

Here we would like to introduce its use in the industries of medical, aerospace, and automotive. In medical industry, zirconia ceramic blade is used for surgical procedures, such as cutting bone or tissue. It is also used for dental applications, such as cutting crowns or implants. In aerospace industry, zirconia ceramic blade is used for cutting composites that are difficult. They are also used for precision cutting of components for aircraft engines and other critical parts.
In the automotive industry, ceramic zirconia blade is used for cutting and shaping brake pads, clutch plates, and other components that require precision and durability.

Example of Standard Shape and Size

1. 3 hole pentagon shape with size 62.32*0.2mm

2. 3 hole Rectangular shape with size 43220.3mm

Besides above standard size and shape, we can also do the customized one to meet your specific size and shape requirements.
Innovacera has developed a high-performance zirconia ceramic for cutting yarns, textiles and other industry. It stands out from other materials with its extremely high cutting edge strength and excellent flexural strength and hardness. If you have the need, feel free to contact us.

The Advantages of MCH Ceramic Heating Element for E-cigarettes

The traditional electronic cigarette heating element is a metal heating wire. Although the heating effect can meet the needs, it has many shortcomings in other aspects. Nowadays, most electronic cigarette heating elements gradually no longer use traditional metal heating wires, but choose ceramic heating elements.

Mainly because ceramic heating elements have the following advantages:

The heating speed of ceramic heating element is faster than that of traditional heating wire;
The heating temperature of ceramic heating element is higher than that of traditional heating wire;
The ceramic heating element does not leave any stains or dirt when used, which is especially beneficial to electronic cigarette products.

In the e-cigarette industry, heating elements are widely used, and ceramic heating elements are considered a breakthrough for the e-cigarette industry. Many e-cigarette customers give up using the traditional electric heating elements. Some e-cigarette heating elements could be viewed directly, so for dirty heating elements, it will affect the customer’s use. Ceramic heating elements have advantages in this regard, because the surface of the ceramic heating element is white. The key point is that it will not get dirty easily when used. From the appearance, it has a high-end and classy feeling.

About (Metal Ceramics Heater) MCH:

1. MCH is the abbreviation of Metal Ceramics Heater, which means metal ceramic heating element.

MCH refers to printing high melting point metal heating resistor paste such as metal tungsten or molybdenum manganese on a 92 to 96% alumina cast ceramic green body according to the requirements of the heating circuit design, and then laminating it by hot pressing, and then heating it at about 1650℃ The ceramic heating element, which is made by sintering ceramics and metal under the protection of a reducing atmosphere, has the advantages of corrosion resistance, high temperature resistance, long life, high efficiency and energy saving, uniform temperature, good thermal conductivity, fast thermal compensation, and does not contain lead or cadmium. , mercury, hexavalent chromium, polybrominated biphenyls, polybrominated diphenyl ethers and other harmful substances, and complies with EU RoHS and other environmental protection requirements and CE certification.

2. Main Raw Materials:

Substrate: Made of white multi-layer alumina ceramics, the Al2O3 content is not less than 95%.
Lead: Use Ф0.25mm, Ф0.3mm or Ф0.5mm nickel wire
Casing, tape: Teflon, high temperature resistant tape
Resistor: high temperature materials such as tungsten
Product thickness: 0.6~4mm can be customized
Operating voltage: 3.7V-240V can be customized
Resistance selection: between 0.3~1000 ohms, selected according to voltage, size, power and customer needs.

3. Performance and Features:

The structure is simple, and the shape, size and resistance power can be produced according to customer needs;
Good thermal uniformity and high power density: ≥45 W/cm2;
The resistance-temperature change is linear, and the temperature can be easily controlled by controlling the resistance or voltage;
Rapid heating and fast temperature compensation;
The temperature of 500W power reaches above 600℃ for 20 seconds after startup; the rated power of its components reaches above 200℃ for 10 seconds after startup;
High heating temperature, up to 800℃
High thermal efficiency, uniform heating, and energy saving (unit heat consumption saves 20 to 30% compared to PTC);
Nameless fire, safe and non-charged on the surface;
Good insulation performance: the surface is safe and uncharged: it can withstand the voltage test of 3700V/1S;
Long life, no power attenuation after long-term use;
The heating piece is resistant to acids, alkalis and other corrosive substances;
Environmental protection: does not contain harmful substances such as lead, cadmium, mercury, hexavalent chromium, polybrominated biphenyls, polybrominated diphenyl ethers, etc.
Fully complies with EU environmental protection requirements.

Ceramic Target Materials for Sputtering

Innovacera adopts hot pressing sintering method to produce various ceramic targets, we supply high-quality LaB6, CeB6, Si3N4, AlN, BC, Al2O3, and other sputtering targets worldwide. Most ceramics targets have a heat strength, high melting point, corrosion, and excellent insulation. Our sputtering targets have such advantages: smooth surface, uniform color, no cracks, no chipping, no external inclusions, and contaminants. Therefore, they can be exposed to a oxidative environment and hyperthermal for a long time and have many engineering applications.

Ceramic sputtering targets have a wide range of applications in various industries due to their unique properties and advantages. Some common applications include:

Thin Film Deposition: Ceramic sputtering targets are used in physical vapor deposition techniques to deposit thin films of ceramic materials onto different substrates. They are widely used for applications such as semiconductor devices, solar cells, optical coatings, and magnetic recording media.
Optical Coatings: Ceramic targets are used in the production of optical coatings for lenses, mirrors, and other optical components. These coatings are used to enhance optical properties such as reflectivity, anti-reflection, hardness, and durability.

Wear and Corrosion Resistance: Ceramic sputtering targets are used to deposit wear and corrosion-resistant coatings on mechanical components to improve their surface hardness, reduce friction, and increase their lifespan. This makes them suitable for applications in the automotive, aerospace, and manufacturing industries.

Semiconductor Devices: Ceramic targets are used to deposit thin films of ceramic materials on semiconductor devices such as transistors, diodes, and integrated circuits. These films are used to improve the performance and reliability of these devices.

Magnetic Recording Media: Ceramic targets are used in the production of magnetic recording media, such as hard disk drives. They are used to deposit thin films of magnetic materials with high coercivity and remanence, enabling high-density data storage.

Decorative Coatings: Ceramic sputtering targets can also be used to deposit decorative coatings on various materials, such as glass, metal, and plastic. These coatings are used to provide a decorative finish, improve aesthetics, and provide scratch resistance.

Fuel Cells: Ceramic sputtering targets are used in the manufacture of solid oxide fuel cells (SOFCs). The targets are used to deposit the ceramic electrolyte and electrode layers required for efficient power generation in fuel cells.

Overall, ceramic sputtering targets find applications in a wide range of industries and technologies due to their versatility, excellent physical properties, and ability to deposit high-quality thin films.

What Materials are Used for High Temperature Ceramic Tubes

There are many types of high-temperature ceramics materials which is widely used for high temperature ceramic tubes. Innovacera would like to introduce some kinds of commonly used material for ultra high temperature ceramics tubes and its properties and application for you.

Alumina ceramics: Alumina ceramic tube have excellent properties such as high hardness, wear resistance, high temperature resistance, and corrosion resistance. It plays an important role in electronics, machinery, metallurgy, chemical industry and other fields. Typically application is as ceramic insulator and protector tube for high temperature kilns.

Silicon nitride ceramics: Silicon nitride ceramic tube has excellent high-temperature insulation properties, wear resistance and thermal shock resistance, and has been widely used in many fields, such as In the aerospace field, due to its high temperature resistance and wear resistance, it can be used to manufacture engine nozzles, gas servos and other components in high temperature environments. In the chemical industry, due to its corrosion resistance and wear resistance, it can be used to manufacture acid and alkali liquid transportation pipelines, catalyst carriers, etc. In the metallurgical field, due to its high temperature stability and excellent mechanical properties, it can be used to manufacture piping systems for high temperature furnaces. In the electric field, due to its excellent insulation properties and mechanical strength, it can be used to manufacture protective tubes for high-voltage power cables, etc.

Silicon carbide ceramics: Silicon carbide ceramic high-temperature sleeving has good high-temperature strength, oxidation resistance and wear resistance, and can be used to manufacture high-temperature kiln tubes, thermocouple protection tubes and other equipment.

Zirconia ceramics: Zirconia ceramic tubes has high strength, corrosion resistance, high temperature resistance and other properties, and can be used to manufacture high-temperature furnace tubes, reactors, heat exchangers and other equipment.

When selecting high-temperature ceramics materials, comprehensive considerations need to be made based on specific usage scenarios and requirements to ensure that the performance of the material meets the requirements.

In short, choosing a suitable high-temperature ceramics material requires considering factors such as application scenarios, temperature range, physical properties, and cost. It is recommended to consult a professional ceramic material supplier sucha as Innovacera for more accurate advice before selecting high-temperature ceramic pipe materials.

Innovacera main ceramic material is Aluminum Oxide, Zirconium Oxide, Boron Nitride, Aluminum Nitride, Silicon Nitride, Machinable Glass Ceramic and other advanced materials. Through different manufacturing processes, Innovacera supply metallized ceramic components, ceramic brazing part, ceramic heater, ceramic reflector, ceramic pump components and other ceramic components.

Know More About Ceramic Metallization When Ceramic Perfectly Bond With Metal

Ceramic materials, which have excellent properties such as high hardness, high abrasion resistance and high corrosion resistance, but with poor electrical conductivity and weldability to limit their application. While metallization is a process of coating metal on the surface of ceramics, which can improve the conductivity and weldability of ceramics, thus expanding their range of applications. Ceramic after metallization has high thermal conductivity, insulation, heat resistance, strength and coefficient of thermal expansion that matched with the chip, and gradually developed into the ideal packaging substrate for new generation of integrated circuits, as well as power electronic modules.

The common ceramic substrate materials can be metallized include Al2O3, SiC, AlN and Si3N4.

1. Thick Film Metallization

Thick film metallization is a metal paste coated on the ceramic surface through the screen-printing method, and then after high temperature drying and heat treatment to form a metalized ceramic substrate technology. The advantage of this technology is that the process is simple and cost-effective cost, while the disadvantage is that the electrical performance of the conductive line is poor, can only be used for lower power and size requirements of the electronic devices.

2. Direct Bonded Copper

DBC (Direct Bonded Copper, DBC) is a copper foil (thickness greater than 0.1 mm) directly bonding to the surface of the Al2O3 ceramic substrate, in the N2 protection and temperature range of 1065 ℃ -1083 ℃. Pure copper in the molten state do not need to wet Al2O3, it needs to bring in oxygen elements in the reaction process, Cu-Cu2O eutectic liquid generated at high temperature has a good wettability on Al2O3, through the generation of CuAlO2 as a transition layer, you can be directly laying the copper foil on the Al2O3 ceramic substrate.

3. Thin Film Metallization

Thin film metallization is carried out in high vacuum conditions, with physical methods of solid material surface ionization for ions, followed by low-pressure gas in the ceramic substrate surface deposition of the required film process, that is, the physical vapor deposition technology ( PVD ), mainly including magnetron sputtering coating, deposition of a thin layer of Cu layer as a seed layer in the ceramic surface, so that the subsequent plating process to carry out. Electroplate is then performed to thicken (protect) the seed Cu. Then through the film, exposure, development and other processes to complete the transfer of graphics, and then plating so that the Cu layer grows to the required thickness, and finally through the film, etching process to complete the production of conductive lines.

Such ceramic substrate using thin-film process has shown great competitiveness in power LED packaging in recent years.

In summary, ceramic metallization can ensure the ceramic materials own the electrical and thermal conductivity of metal, thus expanding their applications including electronics, automotive sensors, optical devices, medical devices, and aerospace etc.

What Do You Know About Heating Elements Used In 3D Printing Pen

3D printing pen is a more convenient 3D printing product. You only need to write on any surface, even in the air. It can be produced directly without the support of a computer or other electronic products. The size of the 3D printing pen is the same as the ordinary pen. The material is generally made of aluminum. Generally, when the material is heated when drawing, the temperature of the pen tip will be as high as 80 degrees Celsius. When using the 3D printing pen, try to use it under the care of an adult, and do not burn your fingers.

What is a 3D Printing Pen?

A 3D printing pen is like a handheld 3D printer. It uses the same kind of heating element and extruder that you would find on a desktop 3D printer. But instead of being controlled with computer software and motors, you guide the printer head by hand.

How Does it Work?

Like all 3D printing devices, a 3D printing pen works by heating a plastic filament to its melting point and forcing it through an extruder tip. This is very similar to how a hot glue gun works; the melted plastic is very soft and can be fused onto a surface or worked into any shape that you want. Once the melted plastic leaves the tip, it cools quickly. After a few seconds, the plastic hardens and holds whatever shape you have worked it into.

What Can You Do With a 3D pen?

These pens effectively allow you to draw with plastic. You can work the plastic into just about any shape and apply it to most surfaces. You can use it to add raised decorative designs to everyday objects. With practice, you can even make 3D drawings in empty space. These pens can also be used to modify and repair other 3D printed objects.

What Are The Heating Elements Used In 3D Pen?

The heating element in a 3D pen is an important component that heats up the pen’s build platform or extruder nozzle. This heat is necessary to melt and fuse the material being used for printing, such as plastic filaments or resins.
There are different types of heating elements used in 3D pen, including:Cartridge heaters,Heater blocks,Flexible heaters and ceramic heaters.
Regardless of the type of heating element used, it is important to use a high-quality component that can withstand the high temperatures required for 3D printing. It is also important to ensure that the heating element is properly installed and wired to the controller board to prevent any safety hazards.

What is the Difference Between using Traditional Heating and Ceramic Heating Cores?

First, the traditional hot end is large and heavy, which affects printing accuracy and speed. If it is a direct extrusion system, the frequency of motor vibration will also be increased, further reducing accuracy and speed.
Second, there is an air gap between the heater block and the thermistor and heating tube, so effective heat transfer and accurate temperature control are not possible. This leads to the problem of being unable to print at different speeds and extrusion volumes without being able to quickly change the nozzle temperature to accommodate changing filament feed rates. This is something that all consumer printers have not yet solved.

What is the Advantage of Using Ceramic Heater?

First, it is more lighter and smaller in size. In other words, the replacement of traditional heating tubes by ceramic heating allows the hot end to be designed to be lighter and more compact than traditional ones, thereby improving printing accuracy and speed.
Secondly, ceramic heating has a positive temperature coefficient (PTC), specifically, it can reduce power when the temperature rises, thereby reducing the risk associated with temperature runaway when reaching the maximum temperature. At the same time, because ceramic heating can be integrated with the thermistor, precise temperature control can be achieved.
Finally, the ceramic heating core has more uniform heating performance and thermal efficiency. To achieve the same heating performance as traditional heating tubes, ceramic heating cores may only require lower power.

Summary

The iteration from single-head tube to ceramic heating embodies the charm of technological innovation. Ceramic heating can indeed bring many benefits to 3D printings. Technological innovation is generally led by industry leaders, and then subsequent followers expand the market. Therefore more and more 3D printing pen using ceramic heating will be used in the future.

Ceramic Metalized Thin Film Pads: The Perfect Solution for High-Performance Applications

As demand for high-performance electronics continues to grow, the need for reliable and efficient thermal management solutions has never been greater. That’s why we’re excited to introduce our new line of Ceramic Metalized Thin Film Pads, the perfect solution for a wide range of demanding applications.

Our Ceramic Metalized Thin Film Pads are made from high-quality ceramic materials that offer superior thermal conductivity, excellent mechanical strength, and outstanding electrical insulation properties. These materials are combined with a layer of metal that provides excellent thermal dissipation and electrical grounding capabilities, making them ideal for use in high-performance electronic devices.

With our Ceramic Metalized Thin Film Pads, you can enjoy a number of key benefits, including:
1. Excellent Thermal Conductivity: Our pads are designed to provide excellent thermal conductivity, ensuring that heat is efficiently dissipated away from critical components.
2. Superior Mechanical Strength: Thanks to their high-quality ceramic materials, our pads offer superior mechanical strength, making them resistant to damage from impact and vibration.
3. Outstanding Electrical Insulation: The ceramic materials used in our pads provide excellent electrical insulation, helping to protect your electronic devices from damage caused by electrical interference.
4. Versatile Applications: Our Ceramic Metalized Thin Film Pads are suitable for a wide range of applications, from consumer electronics to industrial machinery and beyond.

If you’re looking for a reliable and efficient thermal management solution for your high-performance electronic devices, look no further than our Ceramic Metalized Thin Film Pads. Contact us today to learn more about our full range of products and how we can help you meet your thermal management needs.

Silicon Nitride Ceramic Feature And Application

There are many types of special ceramics and structural ceramics, silicon nitride ceramic is known as the “King of Structural Ceramics” due to its balanced performance in all aspects. It is suitable for applications with large mechanical vibration, large thermal shock, high current impact, and require high reliability and stability. The purity, particle size, and crystal form of silicon nitride ceramic powder have a significant impact on the substrate molding process, sintering process, and final product performance. Therefore, the preparation process of silicon nitride powder is particularly important.

Silicon nitride ceramic components have excellent mechanical properties, thermal properties, electrical properties and chemical properties, and is widely used in various fields. Such as Si3N4 ceramics is an excellent material for preparing ceramic substrates in various applications. Here are some common application for reference:

1. Refractory material: Silicon nitride has the characteristics of high melting point, high hardness, low expansion coefficient, etc., and is an excellent refractory material. It can be used to make refractory bricks, refractory castables, refractory coatings, etc., and is used in high-temperature kilns and equipment in steel, nonferrous metals, glass and other industries.

2. Electronic materials: Silicon nitride can be used to manufacture packaging materials, heat sinks, insulating materials, etc. for semiconductor chips, as well as microwave communication devices, optoelectronic devices, etc.

3. Abrasive part: Silicon nitride can be used to make abrasives part, such as grinding wheels, grinding heads, grinding discs, etc., for grinding hard materials such as steel, non-ferrous metals, glass, etc.

4. Bicycle industry: Excellent high-temperature mechanical properties, wear resistance and corrosion resistance feature let SI3N4 parts can be used to manufacture ceramic engine parts, ceramic cutting tools, ceramic bearings, ceramic molds, etc. High-end bicycle accessories products use silicon nitride bearings and rear derailleur guide systems using mold injection carbon fiber technology.

5. Aerospace materials: Silicon nitride has excellent mechanical properties and corrosion resistance. It can be used to manufacture engine parts, wings, fuselages, etc. of aerospace vehicles, as well as solar panels, antennas, etc. for satellites.

6. Automobile industry: Silicon nitride can be used to manufacture automobile engine parts, brake pads, clutch plates, etc., as well as automobile tires, wheel hubs, etc.

In short, silicon nitride is an inorganic non-metallic material with widely application. With the continuous development of science and technology, its application fields will continue to expand.

Finally, we would like to thank all Innovacera customers to support our ceramic products. We are honored to be your supplier and hope to continue working together in the future to help to develop the advanced ceramics industry.

The Special Characteristics of Hot Pressed Aluminum Nitride

Common Sintering Methods for Aluminum Nitride Ceramics

To prepare AlN ceramics with high thermal conductivity, two problems must be solved in the sintering process: the first one is to improve the densification of the material, and the second one is to try to avoid the lattice of oxygen atoms dissolved in the high-temperature sintering. Common sintering methods are as follows:
1. atmospheric pressure sintering
2. hot pressure sintering
3. high pressure sintering
4. atmosphere sintering
5. discharge ion sintering
6. microwave sintering

This Time, We Focus on Hot-pressing Aluminum Nitride:

In order to reduce the sintering temperature of aluminum nitride ceramics and promote the densification of ceramics, aluminum nitride ceramics can be prepared by using hot-pressure sintering, which is one of the main process methods for the preparation of high-thermal conductivity densified AlN ceramics. The so-called hot pressure sintering, i.e., sintering ceramics under a certain pressure, can make the heating sintering and pressurized molding at the same time. The AlN ceramic sintered body with a density of 3.26 g/cm3 and a thermal conductivity of 200 W/(m.K) was produced by sintering at a high pressure of 25 MPa and 1700°C for 4 h. The AlN lattice oxygen content was 0.49 wt%, which is more than 60% lower than that of the AlN sintered body obtained by sintering at 1800°C for 8 h (1.25 wt%), and the thermal conductivity was improved.

Xiamen Innovacera Advanced Materials CO., LTD

Has advanced production lines for aluminum nitride ceramic materials and high precision machining capabilities. We are currently able to produce Aluminum Nitride ceramic wafer in different sizes from 6-12 inches, as well as large Aluminum Nitride ceramic plates with a diameter of up to 320mm and a thickness of over 26mm. These large size ALN ceramic wafers can be used to produce high thermal conductivity aluminum nitride heating pads.

Table of Properties of Hot Pressed Aluminum Nitride:

Hot Pressed Aluminium Nitride Material Properties – SU0023
Properties		Units	Value
Color		–	Black
Bulk Density		g/cm3	–
Compressive Strength		MPa	3416
Flexural Strength		MPa	337
Modulus of Elasticity		GPa	331
Fracture Toughness		MPa·m1/2	4.93
Coefficient Linear Thermal Expansion	RT-500℃	10-6/k	5.0732
	RT-800℃		5.3463
Volume Resistivity		Ω.cm	7.0×1012
Remark: The value is just for review, different using conditions will have a little difference.

TOP