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The design of HDI PCB enables more electrical connections in a relatively small space, which is suitable for modern precision electronic devices.
Due to better wiring design, HDI PCB can reduce the loss and interference during signal transmission and ensure the integrity of the signal.
Through effective interlayer design and material selection, HDI PCB can significantly reduce electromagnetic interference and is suitable for high-frequency applications.
The design of HDI PCB usually considers thermal management, which can effectively dissipate heat, increase current carrying capacity, and adapt to high-power applications.
HDI PCB adopts strict process control during the manufacturing process to ensure that the final product has high reliability and durability.
It is usually necessary to ensure that the line width and spacing meet the manufacturing capabilities in the design to support high-density interconnection.
Consider the reasonable layout of micro blind vias and blind vias in the design to achieve electrical connection between different layers.
In order to reduce signal loss, impedance matching should be considered in the design, especially in high-frequency applications.
HDI PCB usually requires multi-layer design to achieve more complex circuit structure, so factors such as lamination, stacking and bypass need to be fully considered at the beginning of the design.
Thermal management strategies should be considered during design, such as properly arranging heat-generating components and designing heat dissipation channels to enhance heat dissipation performance.
The design of HDI PCB enables more electrical connections in a relatively small space, which is suitable for modern precision electronic devices.
Due to better wiring design, HDI PCB can reduce the loss and interference during signal transmission and ensure the integrity of the signal.
Through effective interlayer design and material selection, HDI PCB can significantly reduce electromagnetic interference and is suitable for high-frequency applications.
The design of HDI PCB usually considers thermal management, which can effectively dissipate heat, increase current carrying capacity, and adapt to high-power applications.
HDI PCB adopts strict process control during the manufacturing process to ensure that the final product has high reliability and durability.
It is usually necessary to ensure that the line width and spacing meet the manufacturing capabilities in the design to support high-density interconnection.
Consider the reasonable layout of micro blind vias and blind vias in the design to achieve electrical connection between different layers.
In order to reduce signal loss, impedance matching should be considered in the design, especially in high-frequency applications.
HDI PCB usually requires multi-layer design to achieve more complex circuit structure, so factors such as lamination, stacking and bypass need to be fully considered at the beginning of the design.
Thermal management strategies should be considered during design, such as properly arranging heat-generating components and designing heat dissipation channels to enhance heat dissipation performance.
Parameter | Description |
---|---|
Layer Count | Supports 1-20 layer HDI designs, providing customized multilayer solutions based on customer requirements |
Minimum Hole Size | 0.1mm (4mil), supports micro-hole processing, suitable for high-density designs |
Minimum Trace Width/Spacing | 0.05mm (2mil) - 0.1mm (4mil), meets the requirements for ultra-fine traces and high-density interconnections |
Blind/Buried Via Design | Supports blind vias, buried vias, and micro-via designs, providing high-density interconnection solutions |
Impedance Control | Offers precise impedance control, with common impedance values of 50Ω ±10%, suitable for high-speed signal transmission and RF applications |
Surface Treatment | Supports various surface treatments such as ENIG (Electroless Nickel Immersion Gold), HASL, OSP (Organic Solderability Preservative), ensuring solder reliability and electrical performance |
Copper Thickness | 1oz, 2oz, and supports thicker copper layers to address high power applications, providing better current carrying capacity and thermal performance |
Thickness Range | Ranges from 0.4mm to 2.0mm, thickness can be flexibly adjusted according to different design needs |
Signal Transmission Rate | Supports high-speed data transmission, suitable for 5G, communication, and smart device applications |
Surface Finish | Provides a smooth, flat surface that helps reduce signal loss and electromagnetic interference, improving PCB stability |
Product Size | Maximum size can reach 500mm x 500mm, supports large-scale production and customized size designs |
Assembly Capability | Supports SMT, DIP, and BGA packaging technologies, enabling precise soldering and high-precision automated assembly |
Functional Testing | Offers comprehensive functional testing services, including electrical testing, performance testing, and reliability testing, ensuring final product quality |
Sample Delivery Time | Fast sample delivery, typically within 7-15 working days, to meet customer rapid prototyping needs |
Mass Production Capability | Supports mass production of up to millions of units, ensuring reliability in production cycles and delivery times |
Parameter | Description |
---|---|
Layer Count | Supports 1-20 layer HDI designs, providing customized multilayer solutions based on customer requirements |
Minimum Hole Size | 0.1mm (4mil), supports micro-hole processing, suitable for high-density designs |
Minimum Trace Width/Spacing | 0.05mm (2mil) - 0.1mm (4mil), meets the requirements for ultra-fine traces and high-density interconnections |
Blind/Buried Via Design | Supports blind vias, buried vias, and micro-via designs, providing high-density interconnection solutions |
Impedance Control | Offers precise impedance control, with common impedance values of 50Ω ±10%, suitable for high-speed signal transmission and RF applications |
Surface Treatment | Supports various surface treatments such as ENIG (Electroless Nickel Immersion Gold), HASL, OSP (Organic Solderability Preservative), ensuring solder reliability and electrical performance |
Copper Thickness | 1oz, 2oz, and supports thicker copper layers to address high power applications, providing better current carrying capacity and thermal performance |
Thickness Range | Ranges from 0.4mm to 2.0mm, thickness can be flexibly adjusted according to different design needs |
Signal Transmission Rate | Supports high-speed data transmission, suitable for 5G, communication, and smart device applications |
Surface Finish | Provides a smooth, flat surface that helps reduce signal loss and electromagnetic interference, improving PCB stability |
Product Size | Maximum size can reach 500mm x 500mm, supports large-scale production and customized size designs |
Assembly Capability | Supports SMT, DIP, and BGA packaging technologies, enabling precise soldering and high-precision automated assembly |
Functional Testing | Offers comprehensive functional testing services, including electrical testing, performance testing, and reliability testing, ensuring final product quality |
Sample Delivery Time | Fast sample delivery, typically within 7-15 working days, to meet customer rapid prototyping needs |
Mass Production Capability | Supports mass production of up to millions of units, ensuring reliability in production cycles and delivery times |