HSP Series, Pads, Sheets

Results:
7
Manufacturer
Series
Outline
Usage
Color
Thermal Conductivity
Adhesive
Material
Thickness
Shape
Thermal Resistivity
Backing, Carrier
Type
Results remaining7
Applied Filters:
HSP
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ImageProduct DetailPriceAvailabilityECAD ModelColorShapeMaterialThermal ConductivityBacking, CarrierSeriesUsageTypeOutlineThicknessAdhesiveThermal Resistivity
HSP-5
THERM PAD 104.39MMX73.66MM W/ADH
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Quantity
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PCB Symbol, Footprint & 3D Model
Black
Rectangular
-
2.0W/m-K
-
HSP
Three Phase SSRs
Pad, Sheet
104.39mm x 73.66mm
0.0050" (0.127mm)
Adhesive - One Side
-
HSP-1
THERM PAD 57.15X44.45MM WHT
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Quantity
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PCB Symbol, Footprint & 3D Model
White
Rectangular
-
1.0W/m-K
-
HSP
Single Phase SSRs, M50 Power Modules
Pad, Sheet
57.15mm x 44.45mm
0.0039" (0.100mm)
-
-
HSP-2
THERM PAD 57.15X44.45MM W/ADH
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Quantity
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PCB Symbol, Footprint & 3D Model
Black
Rectangular
-
2.0W/m-K
-
HSP
Single Phase SSRs, M50 Power Modules
Pad, Sheet
57.15mm x 44.45mm
0.0050" (0.127mm)
Adhesive - One Side
-
HSP-6
THERM PAD 33.78X17.02MM W/ADH
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Quantity
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PCB Symbol, Footprint & 3D Model
Black
Rectangular
-
2.0W/m-K
-
HSP
EL Series SSRs
Pad, Sheet
33.78mm x 17.02mm
0.0050" (0.127mm)
Adhesive - One Side
-
HSP-8
THERM PAD FOR PM67 PINK
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Quantity
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PCB Symbol, Footprint & 3D Model
Pink
Rectangular
-
0.07W/m-K
-
HSP
NOVA22 SSRs
Pad, Sheet
-
0.0050" (0.127mm)
-
-
HSP-3
THERM PAD 104.39MMX73.66MM WHT
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Quantity
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PCB Symbol, Footprint & 3D Model
White
Rectangular
-
1.0W/m-K
-
HSP
Three Phase SSRs
Pad, Sheet
104.39mm x 73.66mm
0.0039" (0.100mm)
-
-
HSP-7
THERM PAD 39.4X17MM PINK
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Quantity
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PCB Symbol, Footprint & 3D Model
Pink
Rectangular
Phase Change Compound
0.07W/m-K
-
HSP
NOVA22 SSRs
Pad, Sheet
39.40mm x 17.00mm
0.0050" (0.127mm)
Tacky - Both Sides
-

About  Pads, Sheets

Thermal interface pads and thermal interface materials are designed to provide heat transfer between components and heatsinks. They are made from a variety of different materials and thicknesses, which determine their thermal conductivity and/or resistance. Some thermal interface pads and materials are coated on one or both sides with an adhesive to help maintain contact with the surfaces they are applied to. The main purpose of these thermal interface materials is to fill in small gaps and irregular shapes that exist between components and heatsinks. These imperfections slow down heat transfer, causing the component temperature to rise and decreasing performance. By filling these gaps, thermal interface pads and materials can enhance the efficiency of the interface's heat transfer, resulting in more effective heat dissipation. Thermal interface pads and materials can be made from a variety of materials such as silicon-based compounds, lubricant-like substances, phase-change materials, and synthetic graphite sheets. Each material has its unique combination of thermal properties, such as thermal conductivity and thermal resistance, which determine its effectiveness in promoting heat transfer. Thickness is also a critical factor that affects the thermal performance of thermal interface pads and materials. Thinner pads and materials typically offer lower thermal resistance and better thermal conductivity, while thicker pads and materials may have other advantages, such as better adaptability and less susceptibility to surface roughness. Some thermal interface pads and materials come with adhesive coatings, which serve several purposes. They enhance the contact between the thermal interface pad or material and the surfaces it is applied to, ensuring optimal heat transfer. Adhesives also help maintain the mechanical stability of the thermal interface pad or material, preventing displacement or separation caused by vibration or other external factors. In summary, thermal interface pads, thermal interface materials, and similar materials aim to improve heat transfer efficiency between components and heatsinks by filling in micro-imperfections. They use different materials and thicknesses, where each material provides specific thermal properties. Adhesive coatings help maintain contact and stability. By using thermal interface pads, thermal interface materials, and similar materials, significant improvements in overall thermal management in electronic devices can be achieved, resulting in improved performance, reliability, and lifespan.