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Why Choose Aluminum Nitride for Power Electronics? Superior Thermal Management Solution

In the field of High-power Power Electronics, the ceramic wafers make a great contribution, when you think of high-tech materials, your mind probably jumps to silicon, graphene, or whatever Elon Musk is tweeting about this week. But here at Innovacera, we’d like to introduce you to a true backstage superstar—Aluminum Nitride, or AlN if you’re in the know.

Now, AlN might not have the celebrity status of silicon, but it’s got something better: thermal conductivity up to 230 W/m·K. That’s 9.5 times that of alumina, in case you were wondering. It’s the kind of performance that makes engineers blush and thermal management experts weep with joy.

Whether it’s chilling with LEDs, keeping laser diodes in line, or holding its nerve in high-temperature sensors, AlN does it all—and with style. It’s electrically insulating, mechanically strong (450 MPa, if you’re keeping score), and resistant to thermal shock, molten metal.

Innovacera offers AlN wafers from 2 to 12 inches, in thicknesses from 0.125mm to 3mm. Fancy a 6” or 8” wafer with a notch? We’ve got ’em. Need something custom? We’re all ears—and engineers.

So next time you’re designing power modules, MOSFETs, or just want something that won’t crack under pressure, remember: AlN isn’t just a material. It’s a marvel. And it’s available now, with a smile, from Xiamen.

Properties	Unit	6″ Wafer	8″ Wafer
Material	–	AlN	AlN
Thermal Conductivity	W/(m·K)	>170 >200 >220	>170 >200 >220
Thermal Expansion Coefficient	ppm/K (300~1200K)	4~6	4~6
Sintering Aid	–	Y2O3	Y2O3
Diameter	mm	150±0.25	200±0.25
Notch Depth	mm	1.0+0.25/-0/Locating Edge	1.0+0.25/-0
Notch Angle	–	90°+5/-2°	90°+5/-2°
Thickness	μm	400±15	400±15
Thickness Tolerance	μm	Premium: 0.0127 Standard: 0.0254
TTV	μm	Premium: 5 Standard: 10
BOW	μm	<±30	<±30
Warp	μm	<50	<50
Ra	nm	<50	<50

There are the parameter for information:
Thermal Conductivity Champion : It features an ultra-high thermal conductivity (up to 170-230 W/m·K as stated in your document), which allows for rapid heat dissipation and makes it an exceptional material for thermal management in electronic devices.

High-Power Pro : Classified as an ultra-wide bandgap semiconductor (with a bandgap of around 6.2 eV), it has an extremely high breakdown field strength. This enables it to withstand high voltage and high power while delivering superior efficiency.

Stability Steward : It maintains consistent performance in high-temperature, high-voltage and high-frequency environments, and is resistant to thermal shock and chemical corrosion – earning a well-deserved reputation for unwavering reliability.

UV Transmittance Expert : It exhibits excellent transmittance for deep ultraviolet (DUV) light, making it an ideal substrate material for manufacturing DUV optoelectronic devices such as LEDs and lasers.

For more details, welcome to contact sales@innovacera.com.

Why Ceramic Grinding Balls Are Ideal for High-Efficiency Powder Milling

Nowadays, the industries of advanced manufacturing, new energy materials and fine chemicals are developing rapidly. People have increasingly strict requirements for the particle size accuracy and purity of powder materials. Powder grinding is a crucial process in the material preparation procedure. The grinding efficiency and process stability are largely dependent on the performance of the grinding media itself. In many high-demand industrial fields, grinding balls made of ceramic materials have emerged due to their excellent performance.

1.Ceramic Grinding Balls
Ceramic grinding balls (or grinding media) are commonly used in grinding equipment such as ball mills, stirred mills, and vibratory mills. During grinding, the balls impact and frictionize the materials to refine and disperse particles, achieving smaller size and more uniform distribution. Compared to traditional metal grinding balls, ceramic materials have higher hardness, greater wear resistance and stronger chemical stability. They are particularly suitable for grinding scenarios where the purity of raw materials is highly demanded.

2.Common materials for ceramic grinding balls
According to different application requirements, ceramic grinding balls can be manufactured using various advanced ceramic materials. The common types include:

– Alumina Grinding Balls
These grinding balls offer high hardness, excellent wear resistance, and relatively low cost. They are therefore widely used in the ceramic, mineral processing, and building materials industries.

– Zirconia Grinding Balls
Zirconia grinding balls have a high density and excellent toughness, and perform well in high-intensity grinding and ultra-fine powder processing. They are commonly used in the fields of electronic materials, fine chemicals, and high-end powder preparation.
– Silicon Nitride Grinding Balls

Silicon nitride grinding balls are relatively lightweight, yet they have high strength and hardness, and possess excellent heat resistance and corrosion resistance. They are suitable for grinding applications in special environments.

3.Advantages
Compared with traditional metal grinding media such as steel balls, ceramic grinding balls demonstrate significant advantages in multiple aspects:

– Excellent wear resistance performance
Ceramic materials have high hardness and are resistant to wear. They can maintain stable performance even under long-term operation, significantly extending their service life.
– High grinding efficiency
The high hardness and stable physical properties make the grinding process more efficient, which helps to improve the efficiency of powder refinement.
– Good chemical stability
Ceramic materials possess excellent corrosion resistance to acids, alkalis and various chemical media, and are suitable for complex chemical environments.
– Low pollution risk
Unlike metal grinding balls, ceramic balls do not produce metallic impurities during the grinding process, thus maintaining the high purity of the powder material.
– Reduce the overall cost

Although the initial cost of ceramic grinding balls is relatively high, due to their long service life and low maintenance frequency, they can reduce the overall production cost over the long term.

4.Typical application fields
Thanks to its excellent physical and chemical properties, ceramic grinding balls have been widely used in various industries, including:

– Processing of advanced ceramic powders
– Grinding of minerals and ores
– Preparation of anode and cathode materials for lithium batteries
– Electronic functional materials
– Coating and Ink Production
– Chemical and fine chemical materials
– Pharmaceuticals and new material research and development

Especially in the field of new energy materials, such as in the preparation processes of cathode materials for lithium-ion batteries and solid-state electrolyte powders, a high-purity and stable grinding environment is of great significance. Ceramic grinding balls thus become one of the key materials in many production processes.

5.The combined use of grinding balls and grinding jars
To achieve efficient grinding, ceramic grinding balls are usually used in conjunction with matching grinding jars. The material and design of the grinding system have a direct impact on both grinding performance and the service life of the grinding media. For this reason, selecting the right match between ceramic grinding balls and grinding jars is critical.

Innovacera provides a wide range of high-performance ceramic grinding balls and grinding jars that can be freely combined to suit your needs. Whether for laboratory research or large-scale industrial production, we have solutions to meet different grinding requirements.

The application of ceramic substrates in the power module of electric vehicles

The ceramic substrates is a plate made by ceramic materials. Through a special process, copper layers are bonded to the surface of the ceramic, forming circuit patterns. Sinces its unique thermal, mechanical and electrical properties, it has become an ideal material for demanding electronic applications, especially playing a crucial role in power modules.

The main advantages are as follows:

1. thermal performance:

The thermal conductivity range is wide. For example, AlN can reach up to 170W/m·K, which is much higher than that of traditional substrates, preventing overheating then failure.

2.low CTE: Usually lower than 8ppm/K, match with the CTE of semiconductor chips, reducing thermal stress, improving reliability and lifespan.

3.High temperature resistance: It can work stably in high-temperature environments (such as above 600℃), suitable for extreme weather conditions such as in automobiles and aerospace.

Mechanical property:

1.High strength and hardness. It has good mechanical strength and wear resistance, capable of withstanding vibration, impact, and mechanical wear.

2.Shape stability: Fine size stability, to avoid circuit deformation or fracture.

3.Corrosion resistance:resistant the acids, alkalis, oxidation, and radiation.

4.Electrical properties:

·High insulation: offer high-voltage isolation, preventing current leakage and short circuits.

·Low dielectric loss: working for high-frequency signal transmission (such as 5G communication), reduce the signal attenuation.

·Excellent conductivity: Copper layer support large current transmission, improving circuit efficiency and power density.

Main application:

Ceramic substrates have widely used in power modules, especially in electric vehicles and hybrid vehicles:

1. Electric vehicle power module: such as inverters, battery management systems and drive control modules, supporting high voltage and high power conversion to ensure heat dissipation and insulation, thereby enhancing the overall efficiency and reliability of the vehicle.

2. Others: industrial power, renewable energy, aerospace components and communication equipment, meeting the requirements of high power density, high frequency and high temperature environments.

Manufacturing process and material comparison

The ceramic substrate combines copper and ceramics through processes such as DBC, AMB, and DPV, achieving high bonding strength and circuit accuracy.

Ceramic materials as follows:

1. Al2O3substrate – High cost-effectiveness, with balanced performance, low thermal conductivity (about 20-30 W/m·K)

Advantages: Low cost, use widely

Disadvantages: Limited thermal conductivity, not suit to extremely high-temperature scenarios.

2. AlN substrate – High thermal conductivity (170 W/m·K) ,CTE is highly compatible with silicon chips.

Advantages of high flexural strength: excellent heat dissipation, high reliability

Disadvantages: high cost, strict process requirements

3. Silicon nitride substrate Advantage:

– perfect bending strength and fracture toughness

– Good thermal conductivity

– Strong resistance to thermal shock: uitable for high-stress environments.

– Disadvantages: High cost, complex processing.

Summary: With the rapid development of electric vehicles, new energy technology

and 5G technologies, ceramic plate play an indispensable role in improving circuit reliability, power density and energy efficiency.

Why Silicon Carbide Is Essential for High-Temperature Kilns: Benefits and Uses of SiC Firing Plates

In the production processes of advanced ceramics, functional materials and electronic components, high-temperature sintering is a key procedure that determines the performance and quality of the products. When the workpiece is fired at high temperatures, it must be securely supported and precisely positioned. This imposes extremely strict requirements on the material of the kiln equipment – not only must it be able to withstand high temperatures, but it also needs to have excellent thermal stability and sufficient mechanical strength. For different high-temperature processing scenarios, innovacera has specially developed silicon carbide (SiC) high-temperature sintering support plates. This product is specially designed for industrial kilns and high-temperature sintering environments. It can maintain excellent structural stability even under extremely high-temperature conditions, providing stable and reliable support and guarantee for the high-temperature sintering of various products.

1.Excellent high-temperature performance and thermal stability
Silicon carbide materials possess outstanding high-temperature resistance and excellent thermal conductivity, making them one of the important materials for high-temperature kilnware. The SiC sintering support plate can be used stably for a long time at a high temperature of 1300℃. It also has excellent thermal shock resistance, and can maintain structural integrity during the frequent heating and cooling process of sintering, thereby reducing the risks of deformation and cracking.

Meanwhile, the thermal expansion coefficient of silicon carbide material is extremely low. During the high-temperature sintering process, it can maintain the flatness of the plate surface, precise dimensions and no deformation, thereby effectively improving the consistency of product sintering and the yield rate.

2.High-strength and wear-resistant structure, extending service life
Compared with traditional refractory materials, silicon carbide support plates possess higher mechanical strength and wear resistance, and can maintain a stable structure even under long-term high-temperature usage conditions. This not only reduces the frequency of kiln equipment replacement, but also lowers the maintenance costs during the production process.

We employ precise processing techniques to ensure that the surface of the support plate is of excellent flatness, which can provide uniform and stable support for the sintered workpieces. This effectively prevents product deformation and damage caused by unstable support.

3.Multi-specification design, suitable for various kilns and processes
To meet various production requirements, the silicon carbide sintering support plate series offers a variety of sizes and thickness specifications, which can be applied to various types of industrial kilns and sintering processes. Whether it is a large-scale industrial production line or a laboratory material research environment, the appropriate specifications can be selected according to actual needs.

This series of products are widely applied in:
– Industrial ceramic sintering
– Manufacturing of Functional Ceramics and Structural Ceramics
– High-temperature sintering of electronic components
– Research and development of new materials and high-temperature testing in the laboratory

With the reliable high-temperature support solution, the SiC sintering support plate can effectively enhance the loading efficiency of the kiln and help enterprises optimize the sintering process.

4.Provide stable and reliable solutions for high-temperature kilnware

The current advanced material manufacturing technologies are constantly advancing, and the requirements for kilnware materials in the high-temperature firing process are also becoming increasingly higher. Innovacera’s silicon carbide high-temperature sintering support plates have gained increasing popularity in modern high-temperature sintering applications due to their superior heat resistance, good thermal stability, and long service life.

If you would like to learn more about product specifications, application solutions or customized services, please feel free to send an email to sales@innovacera.com.

Multi-Spec Ceramic Gas Nozzles for Precision TIG Welding

In modern manufacturing and precision engineering, TIG (Tungsten Inert Gas) welding is widely used for high-quality welding due to its stable arc and excellent weld quality. This process has very high requirements for the coverage effect of the protective gas and the stability of the welding. As one of the key components of a TIG welding gun, ceramic gas nozzles play a crucial role in controlling the flow and coverage area of the shielding gas, which directly affects the stability of the arc and the quality of the weld seam. With the continuous increase in the demand for welding applications, multi-specification and high-performance ceramic nozzles are becoming an important guarantee for high-precision welding.

High-temperature material: The cornerstone of precise welding

The TIG welding process generates a large amount of heat, and common engineering materials are unable to withstand such high temperatures for a long time. Modern high-quality ceramic nozzles usually use high-quality aluminum oxide (Al3O3) as the base material. The precision ceramics formed through high-temperature sintering possess excellent thermal stability and can maintain their stable performance during the welding process.

Compared with metal nozzles, ceramic materials not only have higher heat resistance but also exhibit excellent thermal inertia. During long-term continuous welding or high-current operations, the alumina nozzle is less likely to deform or crack, ensuring the stability of the gas flow path. Meanwhile, its smooth inner surface can effectively reduce the adhesion of welding splashes. Even after multiple arc starts, it can simply be cleaned to restore its good condition, significantly extending the service life of the consumables.

Multi-specification design: Precisely matching different process requirements

1. Diameter size and gas flow rate

Ceramic gas nozzles are usually classified according to the inner diameter size of the nozzle. Different specifications can provide different ranges of gas protection effects.

In practical applications, nozzle specifications are typically identified by numbers (such as #4, #6, #8, #10, #12, etc.) along with the corresponding inner diameter in millimeters, for example, 5 mm, 7.5 mm, 8 mm, 10 mm, 12.5 mm, etc.

Nozzles of different inner diameters have distinct characteristics in terms of gas flow distribution and protection range:

• Small-diameter nozzles (such as #4, #5, #6)

Suitable for low-current or precision welding scenarios, such as thin plate welding or processing of small-sized parts. These nozzles can generate a more concentrated protective airflow, precisely covering a small molten pool area. They are commonly used in stainless steel pipe fittings, thin-walled structural components, and some precision welding applications.

• Large-diameter nozzles (such as #8, #10, #12 and above)

When the welding current is high or a wider gas protection range is required, the large-diameter nozzle can provide a wider gas coverage area, allowing the protective gas to form a stable gas layer, thereby effectively reducing weld oxidation. Such nozzles are commonly used in welding of materials with high requirements for gas protection, such as aluminum alloys and titanium alloys.

2. Geometric shapes and lengths

Apart from the inner diameter size, the geometric shape and length of the nozzle also have an impact on the gas protection effect.

• Standard type and long type nozzles

In some narrow structures or deep groove welding operations, longer-sized nozzles can extend the gas protection range to deeper positions, enabling the shielding gas to effectively cover the welding area even when the tungsten electrode extends relatively long, thus maintaining the stability of the arc.

• Optimize the structural design

Some nozzles adopt expanded or optimized cylindrical structure designs to improve the gas flow state, reduce turbulence, and make the protective gas distribution more uniform. This design helps enhance the gas protection effect in the welding area, thereby improving the quality and stability of the weld seam.

Application scenarios: From precision manufacturing to industrial welding

The multi-specification TIG ceramic nozzles can adapt to various welding conditions, and their application scope covers a wide range of scenarios from precision manufacturing to industrial equipment welding.

• Aerospace and High-End Manufacturing: During the welding process of titanium alloys, stainless steel and other high-performance alloys, strict requirements are imposed on gas protection. The appropriately sized ceramic nozzles can provide a stable protective gas flow. When used in conjunction with components such as gas lenses, they help reduce weld oxidation and improve welding quality.

• Automobile manufacturing and industrial pipe welding: In the welding of automotive exhaust systems, pressure pipelines and structural components, the selection of nozzle size will affect the gas protection range. Longer or larger-sized nozzles can provide a more stable gas coverage in some confined spaces or deep groove welding operations.

• Automated welding equipment: In automatic TIG welding systems (such as pipe plate welding or automated production lines), ceramic nozzles are widely used in welding gun components due to their excellent heat resistance, insulation properties, and high dimensional stability, thereby ensuring the stability and repeatability of the welding process.

• Precision welding and processing of small structural components: For the welding of thin plates or small-sized metal parts, the small-diameter nozzle can provide more concentrated gas protection, which helps to improve the weld formation quality and reduce welding defects.

Innovacera offers a variety of specifications of TIG ceramic nozzles to meet the application requirements of different welding currents, material types and working environments. Please feel free to contact us at sales@innovacera.com for more product information.

High Voltage RF Feedthrough Solution: HN Type Coaxial Connector with Flange Mount

In high voltage RF systems, the stability of signal transmission and the reliability of panel interfaces are critical to system performance. The HN Type Coaxial Connector – Flange Mount is designed specifically for high voltage RF signal transmission where secure panel or cabinet wall installation is required.

This RF coaxial connector integrates a flange mounting structure with threaded locking, providing strong mechanical stability and vibration resistance during long term operation. Therefore, it is widely applied in high voltage RF through-wall interface scenarios, such as test equipment, communication systems and avionics, etc.

Engineering Design Features

From the perspective of engineering design, the HN connector mainly addresses the stability issues of radio frequency connections under high voltage and complex environments.

Captured Center Contact Structure
The connector uses a captured center contact design to prevent displacement caused by thermal expansion or mechanical shock.

High Voltage RF Performance
The connector supports RF signals from DC to 4 GHz with a 50 Ω characteristic impedance, ensuring stable signal transmission.
Robust Mechanical Structure
The flange mounting and threaded coupling mechanism provide strong mechanical fixation and vibration resistance.
Wide Temperature Range
Operating temperature ranges from -65 °C to +165 °C, Suitable for harsh environmental conditions.
High Withstand Voltage Capability
Typical DC withstand voltage can reach up to 5 kV, making it suitable for high-voltage RF systems.

Typical Applications

Due to its high reliability and voltage capability, HN coaxial RF connector is widely used in demanding RF systems.

High voltage RF and electrical testing equipment
EMI / EMC test systems
Outdoor telecom equipment and antenna interfaces
Avionics panel interfaces
Radiation monitoring and detection systems
Industrial and laboratory high voltage RF systems

Selection and Configuration

HN connectors are available in straight and right angle configurations, with multiple flange and bulkhead mounting structures.

Termination options include:

Solder cup termination
Clamp termination

Custom configurations are available for specific voltage ratings, cable assemblies, or reinforced structures. Engineers are recommended to select the connector based on operating voltage, frequency and installation conditions.

The HN Type Coaxial Connector – Flange Mount provides a reliable solution for high voltage RF feedthrough and panel interface applications. Its robust mechanical structure, high voltage capability and stable RF performance make it suitable for demanding environments. such as testing systems, telecommunications infrastructure, and aerospace electronics.

For more specifications or customized service, welcome to contact sales@innovacera.com.

Alumina vs Silicon Nitride: Which Ceramic Igniter is Best for Pellet Stoves?

In modern solid fuel combustion equipment such as pellet stoves, stoves and boilers, the igniter is one of the core components for initiating the combustion process. With the development of ceramic hot surface igniters technology, igniters made of different ceramic materials exhibit significant performance differences. The ceramic hot surface igniter provided by our company can offer rapid and stable ignition effects for various types of fuel particles. For different application scenarios, we offer two core materials for selection: aluminium oxide (Al2O3) and silicon nitride (Si3N4). Both materials have their own characteristics and can help you match the most suitable ignition system.

1. Basic principle
The ignition device of the pellet furnace is usually a thermal surface igniter (HSI), which relies on the rapid heating of a ceramic heating element when it is energized to a high temperature (usually close to or exceeding 1000°C), thereby igniting the mixture of pellet fuel or solid fuel and air. Compared with traditional methods of using hot air or nozzles for ignition, ceramic

igniters have the following advantages:
– The ignition was instantaneous.
– Low energy consumption
– Stable and reliable

2. Alumina vs Silicon Nitride: Material Performance Comparison

Performance Index	Alumina (Al2O3)	Silicon Nitride (Si3N4)
Operating Temperature	Typically up to approximately 1000℃	Peak temperature up to 1200–1400℃
Heating Speed	Heating rate meets general ignition requirements	Higher thermal conductivity & faster thermal response, quicker temperature rise
Mechanical Toughness	High strength but relatively low toughness	High strength and superior toughness
Thermal Shock Resistance	Moderate	Excellent
Thermal Stability	Suitable for most pellet stove applications	More stable performance under extreme high temperatures
Service Life	Long service life and high reliability under normal working conditions	More significant lifespan advantages under high-temperature, frequent start-stop, and high-cycle working conditions
Electrical Insulation	Excellent	Good, meets the insulation requirements for igniters
Cost	Relatively low	Relatively high, with more complex processing technology

3. Advantages of Alumina Ceramic Igniters

Our alumina ceramic igniter is suitable for conventional pellet furnace applications:
– Stable and reliable: The high-purity alumina material offers excellent electrical insulation and oxidation resistance.
– High ignition efficiency: Quickly reaches the stable ignition temperature, reducing unburned fuel emissions
– High durability: After undergoing cyclic tests, it can operate stably for an extended period.
– High cost-effectiveness: The processing technology is mature and suitable for large-scale production.

Suitable for standard industrial and civil pellet furnaces, as well as applications where cost is a key consideration.

4. Advantages of Silicon Nitride Ceramic Igniters

Our silicon nitride ceramic igniters are more suitable for high-end and industrial-grade particle furnaces:
– Higher heat resistance: Can operate stably even at extremely high temperatures, and ignites more quickly.
– High thermal shock resistance: Outstanding resistance to thermal shock, suitable for high-cycle and high-dynamic environments
– Fast heat response: It can reach the ignition temperature within several seconds to about ten seconds, significantly reducing the ignition time.
– Extremely long potential lifespan: Lower wear in high-temperature cyclic environments, longer usage period

Suitable for high-speed ignition, demanding operating conditions and industrial-level combustion equipment.

5. Model Selection Suggestions

When making the actual selection, apart from the performance of the material itself, there are several other points that also need to be given careful consideration:

①Installation and Matching
The shape, size and interface design of the igniter should be compatible with the structure of the combustion chamber.
The thermal expansion coefficients of the igniter, the mounting base and the sealing structure need to be matched. The wires, seals and other accessories also need to be compatible with its working temperature characteristics.

②Electric parameter
Select the appropriate voltage/power specifications based on the power configuration of the equipment.
Different materials exhibit differences in their thermal response curves and power efficiency.

③Cost vs. Performance Balance
The alumina route is suitable for cost-sensitive products;
Silicon nitride pathways are suitable for performance-driven or high-end devices.

Summary：

Selection Factor	Recommended Option
Cost priority	Alumina Igniter
Standard industrial & residential pellet stoves	Alumina Igniter
Extreme high temperature / rapid ignition	Silicon Nitride Igniter
High thermal shock & long service life requirements	Silicon Nitride Igniter

Overall, these two types of ceramic hot surface igniters have quite different target markets and application scenarios. Alumina ceramics have the advantage of mature technology and controllable costs, resulting in high cost-effectiveness; silicon nitride ceramics, on the other hand, can better withstand extreme conditions and have superior overall performance and durability. Choosing the right material based on your equipment requirements and actual operating environment is essential to ensure a more stable and reliable ignition.

Obtain professional ceramic ignition system solutions
Whether you are developing new types of pellet stoves or aiming to enhance the ignition efficiency and reliability of your existing combustion systems, Innovacera can provide you with suitable ceramic ignition solutions.

We offer:
– A variety of materials including alumina and silicon nitride
– Customized size and structural design
– Matching different voltage and power requirements
– Stable capacity for batch production

Our engineering team will, based on your actual usage scenarios, including requirements such as fuel type, ignition duration, working temperature and service life, provide you with professional selection suggestions to help you find the most suitable balance point between product performance and cost. If you would like to learn more about the product information or customize the solution, please feel free to contact us at: sales@innovacera.com

Come and meet us at Booth A3 Hall 231A In Analytica 2026 Exhibition

Analytica 2026 officially opened in Munich, Germany on March 24th. As an exhibitor in the fields of laboratory technology, analysis testing and biotechnology, INNOVACERA also showcased a variety of precision ceramic products specifically for laboratory and analysis applications at this exhibition.

At Booth A3, Hall 231A, you can learn about:
– Quadrupole Mass Filters & Analytical Instruments Components
– Ceramic vacuum feedthroughs, heating elements and metallized components
– Ceramic connectors and other customized solutions

If you are engaged in material analysis, laboratory equipment development or related research fields, please come to the site to discuss your specific application requirements.
The exhibition is underway. See you at the scene.

Welcome to visit us at booth A6 Hall 246 at Ceramitec 2026 in Munich

On March 24th, Ceramitec 2026 officially opened at the exhibition center in Munich, Germany. The INNOVACERA team has successfully arrived at the site and made their debut at this top-level event in the global ceramic industry.

As an influential international professional exhibition in the field of advanced ceramics and materials technology, Ceramitec attracts manufacturers, engineers and industry experts from all over the world to gather together. This time, we have brought a series of high-performance products and mature application solutions such as ceramic substrates, ceramic packages, igniters and metallized ceramics, which can meet the actual needs of industrial heating, electronic components and various customized projects.

At Booth A6, Hall 246, you can see:
– Various types of ceramic substrates and structural components
– Ceramic tubes for electronic devices and precision instruments
– Ceramic ignition solutions for heating systems
– Customized ceramic components for metallization and complex conditions

If you need high-temperature-resistant, corrosion-resistant, highly insulating, or precision-structured high-performance ceramic materials, please visit our booth to chat.
The exhibition is still ongoing. We look forward to meeting and communicating with you in Munich!

Reliable Boron Nitride (BN) Positioning Pins for Electrical Isolation

When deals with high temperature processes or do precision assembly, unreliable materials will cause you need to stop producing, lower yield, and extra rework. Metals and engineering plastics often warp, crack, or lose insulation after repeated thermal cycles, aggressive cleans, or under high voltage.

Thatʼs where boron nitride (BN) comes up in conversations. Why? It handles heat, acts as a solid insulator, and resists many chemicals — so itʼs a solid pick for supports, positioning elements, and electrical isolation.

Boron Nitride Insulator Pin Features:
Reliable Boron Nitride (BN) Positioning Pin For Electrical Isolation
– Resistant to high temperature — wonʼt warp or crack easily.
– Good insulating — high resistivity and low dielectric loss for high- temperature and electronics use.
– Excellent resistant to thermal shock properties

Application:
– Furnace fixtures and support pins — keeps wafers, ceramics, and parts stable during sintering or anneal so your process stays repeatable.
– Assembly fixtures and electrical isolation parts — locates parts and prevents shorts in high-power modules.
– Chemical resistance — stands up better than many plastics when exposed to fluxes, solvents, and cleaning chemistries.

Customization matters: density, surface finish and geometry all affect performance. Tweak the material/process and you can get BN parts that meet tight tolerances and electrical specs — from off-the-shelf pins to custom-shaped fixtures.

If reliability and consistent output matter — especially under heat or where insulation is required — BN is worth testing.