LED Thermal Products

Part Number	Description / PDF	Quantity
19755-M-AB Wakefield-Vette	ROUND HEAT SINK BRIDGELUX LED	24
PINLED-7850 Wakefield-Vette	PIN LED HEAT SINK 78MM DIA 50H	34
DUALLED-5830 Wakefield-Vette	LED FAN HEAT SINK 58X30MM	57
SPIRLED-9680 Wakefield-Vette	SPIR LED HEAT SINK 96MM DIA 80H	42
19757-M-AB Wakefield-Vette	ROUND HEAT SINK BRIDGELUX LED	0
DUALLED-13030 Wakefield-Vette	LED FAN HEAT SINK 130X30MM	87
SPIRLED-11050 Wakefield-Vette	SPIR LED HEAT SINK 110MM DIA 50H	81
PADLED-16580 Wakefield-Vette	PAD LED HEAT SINK 165MM DIA 80H	26
FLOWLED-7040 Wakefield-Vette	FLOW LED HEAT SINK 70MM DIA 40H	178
PINLED-4830 Wakefield-Vette	PIN LED HEAT SINK 48MM DIA 30H	15
FLOWLED-9680 Wakefield-Vette	FLOW LED HEAT SINK 80MM DIA 90H	45
19755-S-AB Wakefield-Vette	ROUND HEAT SINK BRIDGELUX LED	0
19755-L-AB Wakefield-Vette	ROUND HEAT SINK BRIDGELUX LED	0
PINLED-4850 Wakefield-Vette	PIN LED HEAT SINK 48MM DIA 50H	105
SPIRLED-7080 Wakefield-Vette	SPIR LED HEAT SINK 70MM DIA 80H	86
124212 Wakefield-Vette	ROUND HEAT SINK LED MODULES	20
PINLED-5830 Wakefield-Vette	PIN LED HEAT SINK 58MM DIA 30H	20
DUALLED-13050 Wakefield-Vette	LED FAN HEAT SINK 130X50MM	81
SPIRLED-11080 Wakefield-Vette	SPIR LED HEAT SINK 110MM DIA 80H	30
DUALLED-22560 Wakefield-Vette	LED FAN HEAT SINK 225X60MM	95

LED Thermal Products

1. Overview

LED Thermal Products are specialized components designed to manage heat dissipation in light-emitting diode (LED) systems. These products ensure optimal thermal management by transferring heat away from LED junctions, maintaining performance efficiency, and extending operational lifespan. With LEDs generating significant thermal energy during operation, these thermal management solutions are critical in applications ranging from consumer electronics to industrial lighting systems. Effective thermal control prevents luminous efficacy degradation, color shift, and premature device failure.

2. Main Types and Functional Classification

Type	Functional Features	Application Examples
Heat Sinks	Passive cooling with high surface-area structures (e.g., aluminum fins)	Street lighting, high-power LED modules
Thermoelectric Coolers (TEC)	Active cooling using Peltier effect for precise temperature control	Automotive LED headlights, medical imaging devices
Thermal Interface Materials (TIM)	Gap-filling pads or adhesives enhancing heat transfer between components	LED downlights, display backlighting
Phase Change Materials (PCM)	Store/release thermal energy during phase transitions	Smartphone LED flashes, aerospace systems
Heat Pipes	Two-phase heat transfer using evaporative cooling	Industrial laser diodes, stadium lighting

3. Structure and Composition

Typical LED thermal products consist of: - Metal-based substrates (aluminum/copper) for heat sinks and PCBs - Thermoelectric ceramics (Bi₂Te₃-based) in TECs - Graphene-enhanced polymers in advanced TIMs - Capillary structures in heat pipes with water/ammonia working fluids - Phase-change alloys (paraffin wax composites) for PCM systems

4. Key Technical Specifications

Parameter	Importance
Thermal Conductivity (W/m K)	Measures heat transfer efficiency; higher values indicate better performance
Operating Temperature Range ( C)	Defines material stability limits under thermal stress
Thermal Resistance ( C/W)	Quantifies resistance to heat flow between interfaces
Material Compatibility	Ensures chemical/electrical compatibility with LED components
Dimensional Tolerance ( m)	Impacts mechanical fit and thermal contact quality

5. Application Fields

General Lighting: Commercial LED fixtures, tunnel lighting
Consumer Electronics: Smartphone camera flashes, TV backlight units
Automotive: Adaptive driving beam (ADB) systems, LiDAR sensors
Industrial: UV curing systems, machine vision equipment
Medical: Endoscopic illumination, phototherapy devices

6. Leading Manufacturers and Products

Manufacturer	Representative Product
Laird Thermal Systems	HiTemp TE Series (127-stage thermoelectric coolers)
Fischer Elektronik	SKIN-Top series (extruded aluminum heat sinks)
Cool Innovations	CoolGaN (GaN-on-diamond thermal substrates)
Bergquist	PhaseTEC TPCM (0.25W/cm thermal storage materials)
Advanced Cooling Technologies	ACT800 heat pipes (1000W thermal capacity)

7. Selection Guidelines

Key considerations: - Match thermal conductivity ( 5W/m K for TIMs) with application power density - Ensure material compatibility with LED substrate (avoid galvanic corrosion) - Balance cost vs. performance for volume production - Consider environmental factors (humidity, vibration) - Case Study: Outdoor LED displays require IP68-rated heat sinks with 200W/m K conductivity

8. Industry Trends

Emerging developments include: - Graphene-integrated TIMs reaching 20W/m K conductivity - MEMS-based micro-TECs for wearable devices - AI-optimized heat sink topologies reducing weight by 30% - Bio-based phase change materials for eco-friendly solutions - Integrated sensor-thermal systems for real-time feedback control