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Home > Products > SiC Substrate > Silicon Carbide Wafer Sic Substrate 4H-P Type Off Axis 4.0°toward Zero Grade For Temperature Sensor

Silicon Carbide Wafer Sic Substrate 4H-P Type Off Axis 4.0°toward Zero Grade For Temperature Sensor

Product Details

Place of Origin: CHINA

Brand Name: ZMSH

Certification: rohs

Model Number: SiC 4H-P

Payment & Shipping Terms

Price: by case

Payment Terms: T/T

Supply Ability: 1000pc/month

Get Best Price
Highlight:

4H-P Type Sic Substrate

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Temperature Sensor Sic Substrate

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Sic Substrate

Polytype:
4H-P
Density:
3.23 G/cm3
Resistivity:
≤0.1 Ω.cm
Mohs Hardness:
≈9.2
Surface Orientation:
Off Axis: 2.0°-4.0°toward [1120] ± 0.5°
Roughness:
Polish Ra≤1 Nm
Packaging:
Multi-wafer Cassette Or Single Wafer Container
Application:
Electric Cars, Smart Grids
Polytype:
4H-P
Density:
3.23 G/cm3
Resistivity:
≤0.1 Ω.cm
Mohs Hardness:
≈9.2
Surface Orientation:
Off Axis: 2.0°-4.0°toward [1120] ± 0.5°
Roughness:
Polish Ra≤1 Nm
Packaging:
Multi-wafer Cassette Or Single Wafer Container
Application:
Electric Cars, Smart Grids
Silicon Carbide Wafer Sic Substrate 4H-P Type Off Axis 4.0°toward Zero Grade For Temperature Sensor

Product Description:Silicon Carbide Wafer Sic Substrate 4H-P Type Off Axis 4.0°toward Zero Grade For Temperature Sensor 0

 

 

Silicon Carbide Wafer Sic Substrate 4H-P Type Off axis: 4.0°toward Zero Grade For temperature sensor

 

 

 
4H-P silicon carbide (SiC) substrate is a high performance semiconductor material with a unique hexagonal lattice structure. Its "4H" indicates the type of crystal structure of the material, while "P-type" refers to the P-type conductivity obtained by doping elements such as aluminum. The 4.0° off-axis design further optimizes its electrical and thermal performance, giving it significant advantages in high temperature, high frequency and high power electronics.
 
 

 


 

Features:

Silicon Carbide Wafer Sic Substrate 4H-P Type Off Axis 4.0°toward Zero Grade For Temperature Sensor 1

  • ​​Wide band gap: 4H-P type silicon carbide has a wide band gap of about 3.26 eV, making it able to withstand higher temperatures and voltages and suitable for high temperature and high-frequency applications.

 

  • High thermal conductivity: Its thermal conductivity is about 4.9W /m·K, much higher than silicon materials, can effectively guide and dissipate heat, suitable for high power density applications.

 

  • Low resistivity: P-type doped silicon carbide has a low resistivity, which is conducive to the construction of PN junction and improve the performance of the device.
 
  • High hardness and toughness: Very high mechanical strength and toughness for applications under harsh conditions.

 

  • High breakdown voltage: able to withstand higher voltages, helping to reduce device size and improve energy efficiency.

 

  • Low switching loss: Good switching characteristics in high frequency operation to improve overall efficiency.

 

  • Corrosion resistance: It has good corrosion resistance to a variety of chemicals, which enhances the stability and reliability of the device.

 

 


 

Technical Parameter:

 

6 inch diameter Silicon Carbide (SiC) Substrate Specification

 

等级Grade

精选级(Z 级)

Zero MPD Production

Grade (Z Grade)

工业级(P 级)

Standard Production

Grade (P Grade)

测试级(D 级)

Dummy Grade (D Grade)

直径 Diameter 145.5 mm~150.0 mm
厚度 Thickness 350 μm ± 25 μm
晶片方向 Wafer Orientation

        -

Off axis: 2.0°-4.0°toward [1120] ± 0.5° for 4H/6H-P, On axis:〈111〉± 0.5° for 3C-N

微管密度 ※ Micropipe Density 0 cm-2
电 阻 率 ※ Resistivity p-type 4H/6H-P ≤0.1 Ωꞏcm ≤0.3 Ωꞏcm
n-type 3C-N ≤0.8 mΩꞏcm ≤1 m Ωꞏcm
主定位边方向 Primary Flat Orientation 4H/6H-P

 -

{1010} ± 5.0°

3C-N

 -

{110} ± 5.0°

主定位边长度 Primary Flat Length 32.5 mm ± 2.0 mm
次定位边长度 Secondary Flat Length 18.0 mm ± 2.0 mm
次定位边方向 Secondary Flat Orientation Silicon face up: 90° CW. from Prime flat ± 5.0°
边缘去除 Edge Exclusion 3 mm 6 mm
局部厚度变化/总厚度变化/弯曲度/翘曲度 LTV/TTV/Bow /Warp ≤2.5 μm/≤5 μm/≤15 μm/≤30 μm ≤10 μm/≤15 μm/≤25 μm/≤40 μm
表面粗糙度 ※ Roughness Polish Ra≤1 nm
CMP Ra≤0.2 nm Ra≤0.5 nm
边缘裂纹(强光灯观测) Edge Cracks By High Intensity Light None Cumulative length ≤ 10 mm, single length≤2 mm
六方空洞(强光灯测) ※ Hex Plates By High Intensity Light Cumulative area ≤0.05% Cumulative area ≤0.1%
多型(强光灯观测) ※ Polytype Areas By High Intensity Light None Cumulative area≤3%
目测包裹物(日光灯观测) Visual Carbon Inclusions Cumulative area ≤0.05% Cumulative area ≤3%
硅面划痕(强光灯观测) # Silicon Surface Scratches By High Intensity Light None Cumulative length≤1×wafer diameter
崩边(强光灯观测) Edge Chips High By Intensity Light None permitted ≥0.2mm width and depth 5 allowed, ≤1 mm each
硅面污染物(强光灯观测) Silicon Surface Contamination By High Intensity None
包装 Packaging Multi-wafer Cassette or Single Wafer Container

 

Notes:

※ Defects limits apply to entire wafer surface except for the edge exclusion area. # The scratches should be checked on Si face only.

 

 


 

Applications:Silicon Carbide Wafer Sic Substrate 4H-P Type Off Axis 4.0°toward Zero Grade For Temperature Sensor 2

 

  • Electric vehicles: In the drive modules and charging stations of electric vehicles, 4H-P silicon carbide substrates can be used to manufacture power devices such as highly efficient IGBTs (insulated gate bipolar transistors) to optimize power conversion efficiency and extend battery range.

  • Inverter: It is used to manufacture high-performance inverters to convert direct current into alternating current, which is widely used in solar power generation, wind power generation and other fields to improve energy conversion efficiency.

 

  • High Power amplifier: In communications and radar systems, type 4H-P SIC substrates can be used to manufacture high-power amplifiers that provide reliable high-frequency performance and enhance signal transmission.
 
  • LED Technology: In the field of semiconductor lighting, it can be used to manufacture high-efficiency and high-reliability LED chips, improve the luminous efficiency, and is widely used in liquid crystal display backlight, landscape lighting, automotive lights and other fields.

 

  • Smart Grid: In high-voltage direct current (HVDC) transmission and grid management, 4H-P silicon carbide substrates can be used to manufacture efficient power devices, improve energy efficiency and stability, and contribute to a more intelligent and reliable grid system.

 

  • Sensor: In the field of sensors, it can be used to manufacture high-sensitivity and high-stability sensors, such as pressure sensors, temperature sensors, etc., which are widely used in automotive electronics, medical equipment, environmental monitoring and other fields.

 

  • Industrial Equipment: Equipment and instruments adapted to high temperature conditions, such as high temperature furnace, heat treatment equipment, etc., improve the stability and service life of the equipment.

 

 


 

Sample display:

 
 Silicon Carbide Wafer Sic Substrate 4H-P Type Off Axis 4.0°toward Zero Grade For Temperature Sensor 3Silicon Carbide Wafer Sic Substrate 4H-P Type Off Axis 4.0°toward Zero Grade For Temperature Sensor 4
 

 

 

FAQ:

 

1. Q: What is the effect of 4.0° off-axis on the performance of silicon carbide substrate?

 

     A: Off-axis cutting helps to improve the electrical and mechanical properties of the SIC substrate, such as increasing carrier mobility and optimizing surface topography, thereby improving the performance and reliability of the device.

 

 

2. Q: What is the difference between the silicon carbide substrate 4H-P off-axis to 4.0° and the standard axial substrate?

 

    A: A 4.0° off-axis substrate may have better electrical and mechanical properties, such as higher carrier mobility and better surface topography, but the specific differences need to be determined according to the application scenario and device design.

 

 

 

 


Tag: #Sic wafer, #silicon carbide substrate, #4H-P type, #Off axis: 2.0°-4.0°toward, #Sic 4H-P type