Copper substrate single crystal Cu wafer 5x5x0.5/lmm 10x10x0.5/1mm 20x20x0.5/1mm a=3.607A

Copper substrate's abstract

Our copper substrates and wafers are made from high-purity copper (99.99%) with a single crystal structure, offering excellent electrical and thermal conductivity. These wafers are available in cubic orientations of <100>, <110>, and <111>, making them ideal for applications in high-performance electronics and semiconductor manufacturing. With dimensions of 5×5×0.5 mm, 10×10×1 mm, and 20×20×1 mm, our copper substrates are customizable to meet diverse technical needs. The lattice parameter for these single crystal wafers is 3.607 Å, ensuring precise structural integrity for advanced device fabrication. Surface options include single-side polished (SSP) and double-side polished (DSP) finishes, providing flexibility for various manufacturing processes.

These copper wafers are especially suited for microelectronics, thermal management, and interconnection technologies due to their superior conductivity and customizable orientations. Whether for small-scale components or larger systems, our copper substrates deliver the durability and performance required for cutting-edge technological applications.

Copper substrate's photo

copper substrate's properties

Copper substrates are highly regarded for their excellent electrical and thermal conductivity, which make them an ideal material for use in the electronics and semiconductor industries. With a purity level of 99.99%, these substrates have minimal impurities, ensuring high performance and reliability in sensitive applications. The low impurity content is critical for reducing defects in electronic devices, enhancing their lifespan and efficiency. Copper’s intrinsic conductive properties enable faster and more efficient energy transfer, which is crucial for circuits, microchips, and other high-speed electronic components.

The single crystal structure of these substrates, available in <100>, <110>, and <111> orientations, provides uniformity and mechanical stability. This crystalline precision ensures the substrates can support the creation of highly detailed, precise components in semiconductor manufacturing. The lattice constant of 3.607 Å further contributes to this structural consistency, offering an ideal platform for advanced device fabrication.

Additionally, copper substrates are available in both single-side polished (SSP) and double-side polished (DSP) finishes, offering versatility depending on the fabrication requirements. The smooth surface of polished substrates reduces scattering and improves adhesion during the fabrication of microelectronic devices.

With their ability to withstand high thermal loads and offer superior conductivity, copper substrates are widely used in applications such as thermal management, electronic interconnections, and high-performance power devices.

copper substrate's applications

Copper substrates are widely used across various industries due to their excellent electrical conductivity, thermal conductivity, and mechanical strength. Here are the key applications of copper substrates:

1. Electronics and Semiconductors

• Printed Circuit Boards (PCBs): Copper is commonly used in PCBs for electrical connections because of its high conductivity. Copper substrates enable the efficient transmission of electrical signals between electronic components.
• High-power Devices: Copper substrates are essential in power electronics and integrated circuits, where effective thermal management is critical. These substrates help dissipate heat, preventing overheating and enhancing the lifespan of the devices.
• LED Lighting: Copper substrates are used in high-power LED packages because they efficiently manage the high heat generated, which is vital for maintaining brightness and extending the LED's operational life.

2. Thermal Management

• Heat Sinks and Cooling Modules: Copper substrates are used in heat sinks for cooling electronic devices such as CPUs and GPUs. The high thermal conductivity of copper allows heat to be dissipated quickly, improving the performance and reliability of the device.
• Power Modules: In power semiconductors like MOSFETs and IGBTs, copper substrates serve as the base material to dissipate the heat generated during high-performance operations.

3. Renewable Energy

• Photovoltaic (Solar) Cells: Copper substrates are used in thin-film solar cells as they provide excellent electrical conduction while efficiently dissipating the heat generated by solar modules, improving energy efficiency.
• Fuel Cells: Copper substrates are used in solid oxide fuel cells (SOFCs) because of their ability to handle high temperatures and contribute to the overall energy efficiency of the fuel cell systems.

4. Telecommunications

• RF/Microwave Devices: Copper substrates are widely used in the packaging of high-frequency RF and microwave components, where both electrical performance and thermal management are critical.
• 5G and Wireless Networks: In the era of 5G technology, copper substrates are used in antennas and communication devices for signal integrity and effective heat dissipation in high-frequency applications.

5. Automotive and Aerospace

• Electric Vehicles (EVs): Copper substrates are crucial in electric vehicles' battery management systems, ensuring efficient power delivery and heat management in power modules.
• Aerospace Electronics: In aerospace applications, copper substrates are used in avionics and sensors for their durability, high thermal performance, and resistance to extreme conditions.

6. Medical Devices

• Medical Imaging Equipment: Copper substrates are used in high-performance medical devices like MRI and CT scanners, where heat dissipation and electrical conductivity are essential for reliable operation.
• Wearable Medical Devices: Copper substrates play a role in miniaturizing the electronic circuits in portable and wearable medical devices while maintaining their efficiency and thermal performance.

7. High-Temperature Applications

• Power Transistors and Diodes: Copper substrates are often used in high-temperature environments, such as in power electronics, where their ability to conduct heat away from critical components enhances the reliability of power systems.

Copper's exceptional thermal and electrical properties make it indispensable in applications requiring high-efficiency energy transfer and effective heat management. These characteristics drive its extensive use in modern technology and high-performance systems.

Q&A

What is copper material?

copper (Cu), chemical element, a reddish, extremely ductile metal of Group 11 (Ib) of the periodic table that is an unusually good conductor of electricity and heat. Copper is found in the free metallic state in nature. This native copper was first used