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市場調查報告書
商品編碼
1935823

全球主動式、被動式和固態冷卻市場（2026-2036）

The Global Market for Active, Passive and Solid-State Cooling 2026-2036
出版日期: | 出版商: Future Markets, Inc. | 英文 520 Pages, 152 Tables, 54 Figures | 訂單完成後即時交付

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受現代經濟幾乎所有領域日益增長的熱管理需求驅動，全球冷卻市場正經歷根本性的變革。從每機架功率密度超過 100kW 的人工智慧資料中心，到需要先進電池熱管理的電動車，再到運行在太赫茲頻率的 6G 通訊基礎設施，以及需要毫開爾文低溫環境的量子計算機，對先進冷卻解決方案的需求從未如此迫切。

強大的融合力量正在重塑這個市場。電氣化和能源效率要求正在推動性能標準的提升，而人工智慧運算、電動車、6G 通訊和量子計算等新興技術領域則帶來了全新的熱管理挑戰，傳統的蒸汽壓縮系統無法應對。

新材料在這一市場演變中發揮核心作用。碳奈米材料，例如石墨烯、碳奈米管和奈米鑽石，正在顯著提高導熱性能。 金屬有機框架（MOF）正在為固態空調開闢新的途徑。超材料和超表面正在實現白天被動輻射冷卻和晶片級的精確熱管理。水凝膠和氣凝膠的應用範圍十分廣泛，從建築物冷卻到電子產品中的熱緩衝，無所不包。

本報告分析了全球主動式、被動式和固態冷卻市場，並依技術類型、材料類別、最終用途和地區提供了詳細的市場預測。報告中還包含超過315家公司的簡介和詳細的技術路線圖。

目錄

第一章：摘要整理

  • 市場概覽
  • 市場驅動因素
  • 新材料概覽
  • 被動冷卻與主動冷卻
  • 技術展望
  • 應用路線圖（2025-2046）
  • 市場預測（2025-2046）
  • 技術路線圖

第二章 被動冷卻材料與技術

  • 冷卻或隔熱原理
  • 導熱界面材料 (TIM)
  • 相變材料 (PCM)
  • 用於熱管理的碳材料
  • 金屬有機框架 (MOF)
  • 熱管和蒸氣腔室
  • 輻射冷卻
  • 用於冷卻的水凝膠
  • 被動冷卻塗料和塗層
  • 氣凝膠

第三章：用於熱管理的超材料與超表面

  • 超材料簡介
  • 熱超材料
  • 熱超材料的應用
  • 日光輻射冷卻 (PDRC) 超材料
  • 用於熱應用的可調諧超材料
  • 熱超材料技術路線圖
  • 超材料的全球市場

第四章 固態冷卻技術

  • 簡介與技術分類
  • 價值鏈分析
  • 熱電（珀爾帖）冷卻
  • 磁熱效應冷卻
  • 電熱冷卻
  • 彈性熱和壓縮熱冷卻
  • 基於LED的熱釋光冷卻
  • 其他新興技術
  • 技術比較分析
  • 市場整體細分及規模
  • 技術比較分析
  • 依技術劃分的市場預測
  • 以最終用戶劃分的市場預測
  • 性價比演變
  • 區域市場分析
  • 市場驅動因素與成長催化劑
  • 依應用劃分的市場細分

第五章 量子計算低溫冷卻解決方案

  • 量子低溫冷卻技術
  • 超導冷卻技術
  • 量子感測與通訊冷卻
  • 低溫基礎設施與擴展挑戰
  • 低溫元件市場分析

第六章：先進半導體封裝的熱管理

  • 先進半導體封裝概述
  • 高功率先進封裝的熱管理
  • 半導體封裝領域的新興熱技術
  • 熱建模與仿真
  • 資料中心冷卻系統
  • 市場預測

第七章：導熱界面材料

  • 依最終用途劃分的導熱界面材料市場
  • 全球導熱界面材料市場依類型劃分的預測（2022-2036）

第八章：主動冷卻技術與系統

  • 新機遇
  • 重塑主動冷卻
  • 電池和儲能的主動冷卻
  • 多模式整合冷卻

第九章：6G通訊用熱材料

  • 6G熱管理挑戰
  • 6G基礎設施的PDRC（相位偵測與控制）
  • 6G相變與熱冷卻
  • 6G熱電冷卻與發電
  • 6G蒸發冷卻、熱管與水凝膠冷卻
  • 6G導熱界面材料與傳導冷卻
  • 6G先進隔熱材料、絕緣體與離子凝膠
  • 6G熱超材料

第十章：公司簡介（244家公司簡介）

第十一章：附錄

第十二章：參考文獻

The global cooling market is undergoing a fundamental transformation driven by escalating thermal management demands across virtually every sector of the modern economy. From AI data centers pushing power densities beyond 100 kW per rack to electric vehicles requiring sophisticated battery thermal management, and from 6G communications infrastructure operating at terahertz frequencies to quantum computers demanding millikelvin cryogenic environments, the need for advanced cooling solutions has never been more urgent.

This comprehensive market research report provides an in-depth analysis of the global market for active, passive, and solid-state cooling technologies and materials for the period 2026-2036, with extended forecasts to 2046. The report examines the full spectrum of cooling approaches, from established passive cooling materials such as thermal interface materials (TIMs), phase change materials (PCMs), heat pipes, vapor chambers, and radiative cooling coatings, through to next-generation solid-state technologies including thermoelectric (Peltier) cooling, magnetocaloric, electrocaloric, elastocaloric, LED-based thermophotonic, phononic, and advanced thermionic cooling systems.

The market is being reshaped by powerful converging forces: electrification and energy efficiency mandates are tightening performance standards; and emerging technology sectors-AI computing, electric vehicles, 6G communications, and quantum computing-are creating entirely new thermal management challenges that conventional vapor compression systems cannot address.

Emerging materials are central to the market's evolution. Carbon nanomaterials including graphene, carbon nanotubes, and nanodiamonds are enabling step-change improvements in thermal conductivity. Metal-organic frameworks (MOFs) are opening new pathways for solid-state air conditioning. Metamaterials and metasurfaces are enabling passive daytime radiative cooling and precision thermal management at the chip level. Hydrogels and aerogels are finding applications from building cooling to electronics thermal buffering.

The report delivers granular market forecasts segmented by technology type, material category, end-use application, and geography. It covers passive cooling materials, solid-state cooling modules and systems, cryogenic cooling for quantum computing, semiconductor packaging thermal management, data center cooling, EV thermal management, and 6G communications thermal materials. With over 315 company profiles, detailed technology roadmaps, and application suitability mapping from 2025 through 2046, this report is an essential strategic resource for materials suppliers, device manufacturers, system integrators, and investors navigating the rapidly evolving advanced cooling landscape.

The Global Market for Active, Passive and Solid-State Cooling 2026-2036 report delivers comprehensive market intelligence on the advanced cooling technologies and thermal management materials market, projected to experience significant growth driven by AI data centers, electric vehicles, 6G telecommunications, and quantum computing infrastructure demands.

Report coverage includes:

  • Passive cooling materials market analysis - thermal interface materials (TIMs), phase change materials (PCMs), graphene and carbon nanotube thermal solutions, heat pipes and vapor chambers, radiative cooling paints and coatings, aerogels, hydrogels, and metal-organic frameworks (MOFs)
  • Solid-state cooling technology assessment - thermoelectric (Peltier) cooling, magnetocaloric, electrocaloric, elastocaloric, barocaloric, LED-based thermophotonic cooling, phononic cooling, quantum dot cooling, photonic crystal cooling, and advanced thermionic cooling
  • Metamaterials and metasurfaces for thermal management - passive daytime radiative cooling (PDRC), thermal cloaking, metamaterial heat spreaders, and cooling films with global market forecasts to 2036
  • Quantum computing cryogenic cooling solutions - dilution refrigeration, adiabatic demagnetization refrigeration (ADR), He-3 free solutions, and cryogenic component market sizing
  • Semiconductor packaging thermal management - TIM1 and TIM1.5 materials, advanced 2.5D and 3D IC thermal solutions, liquid cooling for HPC, diamond substrates, and AI-enhanced thermal design
  • 6G communications thermal materials - vapor chambers, PDRC for infrastructure, thermoelectric cooling/harvesting, metamaterial thermal management, hydrogel cooling, and ionogels
  • Data center cooling market - liquid cooling, immersion cooling, chip-level cooling, thermoelectric integration, and heat recovery systems
  • Electric vehicle thermal management - battery cooling, power electronics, cabin comfort, and ADAS sensor thermal management
  • Active cooling innovations - electrochromic smart windows, MEMS micro-fan cooling, air conditioner alternatives, and energy storage thermal management
  • Global market forecasts 2025-2046 segmented by technology, material type, end-use application, and region (North America, Europe, Asia-Pacific, Rest of World)
  • Technology roadmaps - passive cooling, active cooling, and solid-state cooling development timelines with TRL assessments and commercialization projections
  • 240+ company profiles spanning established thermal management leaders and innovative startups across the global cooling value chain. Companies profiled include: 3M, ABIS Aerogel Co., Accelcius, ADA Technologies, Advanced Thermal Solutions, AegiQ, Aerofybers Technologies, aerogel-it GmbH, Aerogel Technologies, Aerogel UK, AI Technology, Aismalibar, Akash Systems, Anyon Systems, Barocal, Carbice, Corintis, Eaton, Frore Systems, Krosslinker, Magnotherm, Phononic, Sophia Space more.....

TABLE OF CONTENTS

1 EXECUTIVE SUMMARY

  • 1.1 Market Overview
    • 1.1.1 The Global Cooling Market Landscape
    • 1.1.2 Key Materials and Technologies in Passive Cooling
    • 1.1.3 Global Solid-State Cooling Market Size and Growth Projections 2025-2046
    • 1.1.4 Emerging Technologies Cooling Market Opportunity Assessment
  • 1.2 Market Drivers
    • 1.2.1 Electrification and Energy Efficiency Mandates
    • 1.2.2 AI Data Centres and High-Performance Computing
    • 1.2.3 Electric Vehicles and Zero-Emission Transportation
    • 1.2.4 6G Communications Infrastructure
    • 1.2.5 Quantum Computing Growth
  • 1.3 Emerging Materials Overview
    • 1.3.1 Types and Formats of Emerging Carbon Materials for Thermal Cooling
    • 1.3.2 Types and Formats of Emerging Inorganic Compounds
    • 1.3.3 Emerging Polymer and Hybrid Materials
  • 1.4 Passive Versus Active Cooling
    • 1.4.1 Definitions, Operating Principles, and Energy Requirements
    • 1.4.2 Comparative Performance
    • 1.4.3 Cooling People Versus Cooling Things
  • 1.5 Technology Landscape
    • 1.5.1 Established Versus Emerging Solid-State Cooling Technologies
    • 1.5.2 Cooling Toolkit and Potential Winners
    • 1.5.3 Technology Readiness Levels and Commercialisation Timelines
    • 1.5.4 LED-Based Thermophotonic Cooling Performance Benchmarks
    • 1.5.5 Quantum Cryogenic Cooling Requirements and Market Applications
  • 1.6 Applications Roadmap 2025-2046
    • 1.6.1 Near-Term Applications (2025-2030)
    • 1.6.2 Medium-Term Applications (2030-2036)
    • 1.6.3 Long-Term Applications (2036-2046)
  • 1.7 Market Forecasts 2025-2046
    • 1.7.1 Passive Cooling Materials and Technologies
    • 1.7.2 Active Cooling Technologies and Systems
    • 1.7.3 Solid-State Cooling Technologies
    • 1.7.4 Cryogenic Equipment Market
    • 1.7.5 Combined Advanced Cooling Market Summary
  • 1.8 Technology Roadmaps
    • 1.8.1 Passive Cooling Roadmap by Market and by Technology
    • 1.8.2 Active Cooling and Thermal Management Roadmap
    • 1.8.3 Solid-State Cooling Roadmap 2025-2046

2 PASSIVE COOLING MATERIALS AND TECHNOLOGIES

  • 2.1 Principles Employed for Cooling or Prevention of Heating
    • 2.1.1 Conduction
    • 2.1.2 Convection
    • 2.1.3 Radiation
    • 2.1.4 Evaporation
    • 2.1.5 Insulation
    • 2.1.6 Phase Change
  • 2.2 Thermal Interface Materials (TIMs)
    • 2.2.1 What Are TIMs?
    • 2.2.2 Types of TIMs
    • 2.2.3 Thermal Conductivity of TIM Fillers
    • 2.2.4 Comparative Properties of TIMs
    • 2.2.5 Advantages and Disadvantages of TIMs, by Type
    • 2.2.6 Thermal Greases and Pastes
    • 2.2.7 Thermal Gap Pads
    • 2.2.8 Thermal Gap Fillers
    • 2.2.9 Thermal Adhesives and Potting Compounds
    • 2.2.10 Metal-Based TIMs
      • 2.2.10.1 Overview
      • 2.2.10.2 Solders and Low Melting Temperature Alloy TIMs
      • 2.2.10.3 Liquid Metals
      • 2.2.10.4 Solid Liquid Hybrid (SLH) Metals
      • 2.2.10.5 Hybrid Liquid Metal Pastes
      • 2.2.10.6 SLH Created During Chip Assembly (m2TIMs)
    • 2.2.11 TIM Fillers: Trends, Chemistry, and Selection
  • 2.3 Phase Change Materials (PCMs)
    • 2.3.1 Key Properties
    • 2.3.2 Classification
    • 2.3.3 PCM Types and Properties
    • 2.3.4 Organic PCMs
      • 2.3.4.1 Paraffin Wax
      • 2.3.4.2 Non-Paraffins (Fatty Acids, Esters, Alcohols)
      • 2.3.4.3 Bio-Based Phase Change Materials
    • 2.3.5 Inorganic PCMs
      • 2.3.5.1 Salt Hydrates
      • 2.3.5.2 Metal and Metal Alloy PCMs (High-Temperature)
    • 2.3.6 Eutectic PCMs
    • 2.3.7 Encapsulation of PCMs
      • 2.3.7.1 Macroencapsulation
      • 2.3.7.2 Micro/Nanoencapsulation
      • 2.3.7.3 Shape-Stabilised PCMs
      • 2.3.7.4 Self-Assembly Encapsulation
    • 2.3.8 SWOT Analysis for Phase Change Materials for Passive Cooling
  • 2.4 Carbon Materials for Thermal Management
    • 2.4.1 Comparison: Silicone Versus Carbon-Based Polymers
    • 2.4.2 Graphene
      • 2.4.2.1 Graphene as TIM Fillers
      • 2.4.2.2 Graphene Foam and 3D Structures
      • 2.4.2.3 Graphene Films and Heat Spreaders
    • 2.4.3 Carbon Nanotubes (CNTs)
      • 2.4.3.1 Vertically Aligned CNT Arrays
      • 2.4.3.2 CNT Buckypapers
    • 2.4.4 Fullerenes
    • 2.4.5 Nanodiamonds
    • 2.4.6 SWOT analysis for carbon materials for passive cooling
  • 2.5 Metal Organic Frameworks (MOFs)
    • 2.5.1 Structure and Properties
    • 2.5.2 Water Adsorption Cooling Cycles
    • 2.5.3 MOF-Based Adsorption Cooling Systems
    • 2.5.4 Development Stage and Commercialisation Outlook
  • 2.6 Heat Pipes and Vapour Chambers
    • 2.6.1 Technology Description and Operating Principle
    • 2.6.2 Loop Heat Pipes
    • 2.6.3 Vapour Chambers
    • 2.6.4 Flat Plate and Pulsating Derivatives
    • 2.6.5 Emerging Heat Pipe Designs
  • 2.7 Radiative Cooling
    • 2.7.1 Heat Sinks
      • 2.7.1.1 Conventional Heat Sinks
      • 2.7.1.2 Advanced Heat Sinks
      • 2.7.1.3 PCM-Enhanced Latent Heat Sinks
    • 2.7.2 Traditional Radiative Cooling
    • 2.7.3 Building Radiative Cooling
    • 2.7.4 Passive Daytime Radiative Cooling (PDRC)
      • 2.7.4.1 Overview and Mechanism
      • 2.7.4.2 Materials Innovations
      • 2.7.4.3 Commercialisation Requirements
      • 2.7.4.4 Nano-Photonic Film Example
    • 2.7.5 Thermal Louvers
    • 2.7.6 Anti-Stokes Fluorescence Cooling
  • 2.8 Hydrogels for Cooling
    • 2.8.1 Structure
    • 2.8.2 Classification
    • 2.8.3 Formulations and Benefits
    • 2.8.4 Cooling Systems and Applications
      • 2.8.4.1 Evaporative Hydrogel Cooling
      • 2.8.4.2 Hydroceramic Systems
      • 2.8.4.3 Solar Panel Cooling
      • 2.8.4.4 Electronics and Data Centre Cooling
      • 2.8.4.5 Moisture Thermal Battery
      • 2.8.4.6 Smart Windows
      • 2.8.4.7 Aerogel + Hydrogel Combined Systems
  • 2.9 Passive Cooling Paints and Coatings
    • 2.9.1 Super-White Paints
    • 2.9.2 Metamaterial-Enhanced Coatings
    • 2.9.3 Self-Cleaning Cooling Coatings
    • 2.9.4 Application Markets
  • 2.10 Aerogels
    • 2.10.1 Silica Aerogels
      • 2.10.1.1 Properties
      • 2.10.1.2 Chemical Precursors
      • 2.10.1.3 Product Forms
    • 2.10.2 SWOT Analysis

3 METAMATERIALS AND METASURFACES FOR THERMAL MANAGEMENT

  • 3.1 Introduction to Metamaterials
    • 3.1.1 Definition and Fundamental Principles
    • 3.1.2 Types of Metamaterials
    • 3.1.3 Metamaterial Landscape by Wavelength
    • 3.1.4 Passive vs Active Metamaterials
    • 3.1.5 Manufacturing Methods
  • 3.2 Thermal Metamaterials
    • 3.2.1 Overview
    • 3.2.2 Types of Thermal Management Metamaterials
    • 3.2.3 Advanced 3D Printing for Thermal Metamaterials
    • 3.2.4 Functionally Graded Materials
    • 3.2.5 Thermoelectric Enhancement via Metamaterials
  • 3.3 Thermal Metamaterial Applications
    • 3.3.1 Static Radiative Cooling Materials
    • 3.3.2 Photonic Cooling
    • 3.3.3 Ultra-Conductive Thermal Metamaterials
    • 3.3.4 Thermal Convective Metamaterials
    • 3.3.5 Thermal Cloaking Metamaterials
    • 3.3.6 Thermal Concentrators
    • 3.3.7 Thermal Diodes
    • 3.3.8 Thermal Expanders and Rotators
    • 3.3.9 Greenhouses and Windows
    • 3.3.10 Industrial Heat Harvesting
    • 3.3.11 Thermal Metalenses
    • 3.3.12 Microchip Cooling
    • 3.3.13 Photovoltaics Cooling
    • 3.3.14 Space Applications
    • 3.3.15 Electronic Packaging
    • 3.3.16 Advanced Cooling Textiles
    • 3.3.17 Automotive Thermal Management
  • 3.4 Passive Daytime Radiative Cooling (PDRC) Metamaterials
    • 3.4.1 Principles and Performance
    • 3.4.2 PDRC Technology Comparison
    • 3.4.3 Transparent PDRC for Buildings
    • 3.4.4 Cooling Films for Power Plants and Industry
    • 3.4.5 Optical Solar Reflection Coatings
  • 3.5 Tunable Metamaterials for Thermal Applications
    • 3.5.1 Overview
    • 3.5.2 Tunable Electromagnetic Metamaterials
    • 3.5.3 Tunable THz Metamaterials
    • 3.5.4 Tunable Optical Metamaterials
    • 3.5.5 Applications of Tunable Metamaterials for Thermal Management
  • 3.6 Thermal Metamaterial Technology Roadmap
    • 3.6.1 Development Timeline
    • 3.6.2 Technology Readiness Levels
  • 3.7 Global Market for Metamaterials
    • 3.7.1 Market Overview
    • 3.7.2 SWOT Analysis
    • 3.7.3 Global Revenues by End-Use Market
    • 3.7.4 Market Opportunity Assessment
    • 3.7.5 Companies in Thermal Metamaterials
    • 3.7.6 Market and Technology Challenges

4 SOLID-STATE COOLING TECHNOLOGIES

  • 4.1 Introduction and Technology Classification
  • 4.2 Value Chain Analysis
  • 4.3 Thermoelectric (Peltier) Cooling
    • 4.3.1 Technology Principles
    • 4.3.2 Thermoelectric Materials
      • 4.3.2.1 Bismuth Telluride
      • 4.3.2.2 Alternative Thermoelectric Materials
    • 4.3.3 Performance Characteristics and Limitations
    • 4.3.4 Applications and Market Penetration
    • 4.3.5 Thermoelectric Market Size
    • 4.3.6 SWOT Analysis
  • 4.4 Magnetocaloric Cooling
    • 4.4.1 Technology Principles and Development Status
    • 4.4.2 Magnetocaloric Materials
    • 4.4.3 Performance Comparison
    • 4.4.4 Commercial Applications and Development Status
    • 4.4.5 Commercialisation Challenges
    • 4.4.6 SWOT Analysis
  • 4.5 Electrocaloric Cooling
    • 4.5.1 Technology Fundamentals
    • 4.5.2 Electrocaloric Materials
    • 4.5.3 Development Status and Commercialisation Timeline
    • 4.5.4 SWOT Analysis
  • 4.6 Elastocaloric and Barocaloric Cooling
    • 4.6.1 Caloric Effects Comparison
    • 4.6.2 Elastocaloric Cooling
    • 4.6.3 Barocaloric Cooling
    • 4.6.4 Engineering Challenges
  • 4.7 LED-Based Thermophotonic Cooling
    • 4.7.1 Principles
    • 4.7.2 Development Status
  • 4.8 Other Emerging Technologies
    • 4.8.1 Phononic Cooling
    • 4.8.2 Advanced Thermionic Cooling
    • 4.8.3 Ionic Wind Cooling
  • 4.9 Comparative Technology Analysis
    • 4.9.1 Technology Roadmap
  • 4.10 Overall Market Segmentation and Sizing
    • 4.10.1 Global Solid-State Cooling Market Overview
  • 4.11 Comparative Technology Analysis
    • 4.11.1 Performance Benchmarking Matrix Across All Technologies
    • 4.11.2 Cost Competitiveness Analysis by Application Segment
    • 4.11.3 Application Suitability Mapping and Temperature Ranges
    • 4.11.4 Technology Roadmap and Convergence Trends
    • 4.11.5 Quantum Technology Integration Capabilities
  • 4.12 Market Forecasts by Technology
  • 4.13 Market Forecasts by End User
  • 4.14 Price Performance Evolution
  • 4.15 Regional Market Analysis
  • 4.16 Market Drivers and Growth Catalysts
  • 4.17 Application-Based Market Segmentation
    • 4.17.1 Cryogenic Applications (sub-100K)
    • 4.17.2 Ultra-Low Temperature Applications (100-150K)
    • 4.17.3 Moderate Cooling Applications (>150K)
    • 4.17.4 Semiconductor Sensor Cooling
    • 4.17.5 Scientific Instrumentation
    • 4.17.6 Medical Devices and Diagnostics
    • 4.17.7 Defence and Aerospace
    • 4.17.8 Consumer Electronics Thermal Management
    • 4.17.9 Data Centre and IT Cooling
    • 4.17.10 Automotive Thermal Systems
    • 4.17.11 Cost Sensitivity and Value Drivers
    • 4.17.12 Technology Adoption Criteria and Decision Factors

5 QUANTUM COMPUTING CRYOGENIC COOLING SOLUTIONS

  • 5.1 Quantum Cryogenic Cooling Technologies
    • 5.1.1 Adiabatic Demagnetisation Refrigeration (ADR)
      • 5.1.1.1 Single-Stage and Continuous ADR (cADR) Systems
      • 5.1.1.2 Paramagnetic Salt Cooling Media
      • 5.1.1.3 Applications in Quantum Computing and Sensing
    • 5.1.2 Dilution Refrigeration
      • 5.1.2.1 Helium-3 Supply and Alternatives
      • 5.1.2.2 Quantum Device Operation Requirements
  • 5.2 Superconducting Cooling Technologies
    • 5.2.1 Josephson Junction Cooling Applications
    • 5.2.2 Trapped-Ion Quantum Computer Cooling
    • 5.2.3 Superconducting Qubit Thermal Management
  • 5.3 Quantum Sensing and Communication Cooling
    • 5.3.1 Single-Photon Detector Cooling Requirements
    • 5.3.2 NV Centre and Quantum Sensor Thermal Management
    • 5.3.3 Optical Quantum Device Cooling Challenges
  • 5.4 Cryogenic Infrastructure and Scaling Challenges
  • 5.5 Cryogenic Component Market Analysis
    • 5.5.1 Market Overview and TAM/SAM/SOM Framework
    • 5.5.2 Component Market Segmentation
    • 5.5.3 Regional Market and Competitive Landscape
    • 5.5.4 Export Controls and Strategic Considerations
    • 5.5.5 SWOT Analysis - Quantum Cryogenic Market

6 THERMAL MANAGEMENT FOR ADVANCED SEMICONDUCTOR PACKAGING

  • 6.1 Advanced Semiconductor Packaging Overview
    • 6.1.1 Evolution of Semiconductor Packaging (2D to Advanced 2.5D and 3D)
    • 6.1.2 Thermal Design Power (TDP) Trends for HPC Chips
      • 6.1.2.1 2.5D and 3D Packaging in GPUs
    • 6.1.3 Power Delivery Challenges
  • 6.2 Thermal Management of High-Power Advanced Packages
    • 6.2.1 Die-Attach Technology
    • 6.2.2 TIM1 and TIM1.5 in 3D Semiconductor Packaging
    • 6.2.3 Liquid Cooling Technologies for HPC
    • 6.2.4 Hybrid Cooling Systems (Air + Liquid)
  • 6.3 Emerging Thermal Technologies for Semiconductor Packaging
    • 6.3.1 Carbon Nanotube Thermal Interface Materials
    • 6.3.2 Graphene for Thermal Management
      • 6.3.2.1 Graphene Manufacturing Methods
      • 6.3.2.2 Graphene Composites and Structures
    • 6.3.3 Aerogel-Based Thermal Solutions
    • 6.3.4 Metamaterial Heat Spreaders
    • 6.3.5 Bio-Inspired Thermal Management Approaches
  • 6.4 Thermal Modelling and Simulation
    • 6.4.1 Multi-Physics Simulation Requirements
    • 6.4.2 AI-Enhanced Thermal Design Optimisation
    • 6.4.3 Real-Time Thermal Monitoring Integration
  • 6.5 Cooling Systems for Data Centres
    • 6.5.1 Liquid Cooling and Immersion Cooling
    • 6.5.2 Chip-Level Cooling Approaches
    • 6.5.3 Thermoelectric Cooling Integration
    • 6.5.4 Heat Recovery and Reuse Systems
  • 6.6 Market Forecasts
    • 6.6.1 TIM1 and TIM1.5 Market for Advanced Semiconductor Packaging
    • 6.6.2 Thermal Management Market by Package Type
    • 6.6.3 Geographic Market Distribution
    • 6.6.4 SWOT Analysis - Advanced Semiconductor Packaging Thermal Management

7 THERMAL INTERFACE MATERIALS

  • 7.1 TIM Market by End-Use Sector
    • 7.1.1 Consumer Electronics
    • 7.1.2 Electric Vehicles
    • 7.1.3 Data Centres
    • 7.1.4 5G/6G Communications
    • 7.1.5 ADAS Sensors
    • 7.1.6 Aerospace and Defence
    • 7.1.7 Industrial Electronics
    • 7.1.8 Renewable Energy
    • 7.1.9 Medical Electronics
  • 7.2 Global TIM Market Forecasts, 2022-2036, by Type
    • 7.2.1 Market Overview
    • 7.2.2 Market by Material Type
    • 7.2.3 Geographic Market Analysis
    • 7.2.4 Key Market Trends and Drivers

8 ACTIVE COOLING TECHNOLOGIES AND SYSTEMS

  • 8.1 Emerging Opportunities
    • 8.1.1 Buildings, Windows, and Greenhouses
    • 8.1.2 Electric Vehicles and Large Batteries
    • 8.1.3 Long-Duration Energy Storage
    • 8.1.4 Processors and Telecommunications
  • 8.2 Active Cooling Reinvented
    • 8.2.1 Conditioning Alternatives
    • 8.2.2 Powered Windows and Facades
    • 8.2.3 Fan Cooling Reinvented
  • 8.3 Active Cooling for Batteries and Energy Storage
    • 8.3.1 Battery Thermal Management Systems
    • 8.3.2 Compressed Air and Liquid Air Energy Storage Thermal Opportunities
  • 8.4 Multi-Mode Integrated Cooling
    • 8.4.1 Integrated Cooling and Energy Recovery (ICER)
    • 8.4.2 Smart Windows and Dynamic Building Envelopes
    • 8.4.3 Super-White Paint and Radiative Cooling Coatings
    • 8.4.4 Electronics Integration

9 6G COMMUNICATIONS THERMAL MATERIALS

  • 9.1 6G Thermal Management Challenges
    • 9.1.1 Phase One (Incremental) and Phase Two (Disruptive) 6G
    • 9.1.2 Severe New Microchip Cooling Requirements
    • 9.1.3 Cooling 6G Smartphones, Base Stations, and Infrastructure
  • 9.2 PDRC for 6G Infrastructure
  • 9.3 Phase Change and Caloric Cooling for 6G
  • 9.4 Thermoelectric Cooling and Harvesting for 6G
  • 9.5 Evaporative, Heat Pipe and Hydrogel Cooling for 6G
    • 9.5.1 Heat Pipes and Vapour Chambers
    • 9.5.2 Hydrogel Cooling for 6G
  • 9.6 TIMs and Conductive Cooling for 6G
    • 9.6.1 Conductive Cooling for 6G
  • 9.7 Advanced Heat Shielding, Thermal Insulation and Ionogels for 6G
    • 9.7.1 Ionogels for 6G
  • 9.8 Thermal Metamaterials for 6G
    • 9.8.1 Reconfigurable Intelligent Surfaces (RIS) and Thermal Management

10 COMPANY PROFILES (244 company profiles)

11 APPENDIX

  • 11.1 Report Scope and Objectives
    • 11.1.1 Markets and Technologies Covered
    • 11.1.2 Geographic Scope and Regional Definitions
    • 11.1.3 Forecast Period and Base-Year Assumptions
  • 11.2 Research Methodology
    • 11.2.1 Primary Research: Expert Interviews and Industry Questionnaires
    • 11.2.2 Secondary Research: Patent Analysis, Company Filings, Academic Literature
    • 11.2.3 Bottom-Up and Top-Down Market Sizing Approach
    • 11.2.4 Data Triangulation and Validation Procedures
  • 11.3 Definitions and Terminology
    • 11.3.1 Cooling Category Definitions
    • 11.3.2 Temperature Regime Classifications
    • 11.3.3 Technology Readiness Level (TRL) Definitions

12 REFERENCES

List of Tables

  • Table 1. Key materials and technologies in passive cooling.
  • Table 2. Passive cooling market drivers.
  • Table 3. Types and formats of emerging carbon materials and inorganic compounds for passive thermal cooling applications.
  • Table 4. Types and formats of emerging inorganic compounds for passive thermal cooling applications.
  • Table 5. Functions and materials format.
  • Table 6. Passive versus active cooling comparison.
  • Table 7. Established vs. emerging solid-state cooling technologies.
  • Table 8. LED-based thermophotonic cooling performance benchmarks.
  • Table 9. Quantum cryogenic cooling requirements by application.
  • Table 10. Solid-state cooling technologies compared.
  • Table 11. Global passive cooling materials market by end-use sector, 2022-2036 (billions USD).
  • Table 12. Global passive cooling materials market by material type, 2022-2036 (billions USD).
  • Table 13. Global passive cooling materials market by region, 2022-2036 (billions USD).
  • Table 14. Global active cooling market by technology segment, 2022-2036 (billions USD).
  • Table 15. Data centre liquid cooling market by technology, 2022-2036 (billions USD).
  • Table 16. Global solid-state cooling market by technology, 2020-2036 (millions USD).
  • Table 17. Global solid-state cooling market by end user, 2020-2036 (millions USD).
  • Table 18. Cryogenic equipment TAM by category, 2024-2036 (millions USD).
  • Table 19. Combined advanced cooling market summary, 2024-2036 (billions USD).
  • Table 20. Thermal conductivities (K) of common metallic, carbon, and ceramic fillers employed in TIMs.
  • Table 21. Commercial TIMs and their properties.
  • Table 22. Advantages and disadvantages of TIMs, by type.
  • Table 23. Commercial thermal paste products.
  • Table 24. Thermal adhesive tape products.
  • Table 25. Liquid metal challenges.
  • Table 26. TIM Prices and Supply Chain
  • Table 27. Classification of PCMs.
  • Table 28. PCM types and properties.
  • Table 29. Advantages and disadvantages of paraffin wax PCMs.
  • Table 30. Advantages and disadvantages of organic PCMs.
  • Table 31. Advantages and disadvantages of salt hydrate PCMs.
  • Table 32. Advantages and disadvantages of metal PCMs.
  • Table 33. Advantages and disadvantages of eutectic PCMs.
  • Table 34. Comparison of silicone versus carbon-based polymers for passive cooling.
  • Table 35. Properties of graphene, properties of competing materials, applications thereof.
  • Table 36. Properties of CNTs and comparable materials.
  • Table 37. Properties of nanodiamonds.
  • Table 38. Classification of hydrogels based on properties.
  • Table 39. Common hydrogel formulations for cooling applications.
  • Table 40. Benefits of hydrogels for cooling.
  • Table 41. Hydrogel cooling applications by sector.
  • Table 42. Passive Cooling Paints and Coatings
  • Table 43.Key properties of silica aerogels.
  • Table 44. Chemical precursors used to synthesise silica aerogels.
  • Table 45. Comparison of types of metamaterials - frequency ranges, key characteristics, and applications.
  • Table 46. Passive vs active metamaterials.
  • Table 47. Comparison of metamaterials manufacturing methods.
  • Table 48. Types of thermal management metamaterials by function.
  • Table 49. Radiative cooling technologies comparison.
  • Table 50. Types of tunable terahertz metamaterials and their tuning mechanisms.
  • Table 51. Types of tunable optical metamaterials and their tuning mechanisms.
  • Table 52. Markets and applications for tunable metamaterials in thermal management.
  • Table 53. Thermal metamaterial and cooling roadmap 2025-2035.
  • Table 54. Technology readiness level (TRL) of various metamaterial technologies.
  • Table 55. Global revenues for metamaterials, by market, 2020-2036 (millions USD).
  • Table 56. Market opportunity assessment matrix for metamaterials and metasurfaces applications.
  • Table 57. Applications and players in thermal metamaterials.
  • Table 58. Market and technology challenges in metamaterials and metasurfaces.
  • Table 59. Established vs. emerging solid-state cooling technologies - physical principles, maturity, and performance.
  • Table 60. Bismuth telluride material properties.
  • Table 61. Thermoelectric manufacturing methods - performance and scalability.
  • Table 62. Thermoelectric raw material supply chain.
  • Table 63. Alternative thermoelectric materials - performance and development status.
  • Table 64. Nanostructuring approaches for thermoelectric performance enhancement.
  • Table 65. Thermoelectric (Peltier) cooling performance characteristics.
  • Table 66. Thermoelectric cooling market penetration by application.
  • Table 67. Thermoelectric market by application segment, 2024-2036 (millions USD).
  • Table 68. Magnetocaloric material categories.
  • Table 69. Magnetocaloric cooling performance vs. conventional systems.
  • Table 70. Efficiency comparison in practical magnetocaloric systems.
  • Table 71. Magnetocaloric cooling commercial applications.
  • Table 72. Magnetocaloric development status by company.
  • Table 73. Magnetocaloric commercialisation challenges and solution paths.
  • Table 74. Electrocaloric materials and performance characteristics.
  • Table 75. Electrocaloric effect temperature changes by material type.
  • Table 76. Caloric effect comparison.
  • Table 77. Elastocaloric and barocaloric engineering challenges.
  • Table 78. Solid-state cooling technology roadmap.
  • Table 79. Global solid-state cooling market size, 2025-2036 ($M).
  • Table 80. Performance benchmarking matrix across all solid-state cooling technologies.
  • Table 81. Application suitability mapping and temperature ranges - current and projected best technology by application.
  • Table 82. Solid-state cooling technology roadmap, 2024-2036.
  • Table 83. Global solid-state cooling market size by technology, 2020-2036 (millions USD).
  • Table 84. Global solid-state cooling market size by end user market, 2020-2036 (millions USD).
  • Table 85. Price performance evolution by technology type, $/W of cooling capacity.
  • Table 86.Regional market analysis - solid-state cooling revenue by geography, 2022-2036 (millions USD).
  • Table 87. Regional market drivers and leading applications.
  • Table 88. Market drivers and growth catalysts for solid-state cooling.
  • Table 89. Growth catalyst probability and impact assessment.
  • Table 90. Cryogenic applications (sub-100K) - application, temperature range, technology, market size, growth rate.
  • Table 91. Ultra-low temperature applications (100-150K).
  • Table 92. Moderate cooling applications (>150K).
  • Table 93. Semiconductor sensor solid-state cooling.
  • Table 94. Solid-state cooling in consumer electronics thermal management.
  • Table 95. Solid-state cooling in automotive thermal systems.
  • Table 96. Quantum cooling requirements by application.
  • Table 97. Quantum device operating temperature requirements.
  • Table 98. ADR system characteristics.
  • Table 99. cADR performance by configuration.
  • Table 100. Dilution refrigerator characteristics.
  • Table 101. Dilution refrigerator suppliers.
  • Table 102. Multi-stage temperature environment requirements.
  • Table 103. Quantum computing scaling impact on cryogenic requirements.
  • Table 104. Quantum cryogenic market TAM analysis, 2024-2032.
  • Table 105. TAM market drivers.
  • Table 106. Cryogenic component market segmentation and competitive dynamics.
  • Table 107. Cryogenic component pricing ranges.
  • Table 108. Semiconductor packaging technology evolution.
  • Table 109. 2.5D and 3D packaging in GPUs.
  • Table 110. Die-attach materials comparison.
  • Table 111. TIM1 material selection for advanced packaging.
  • Table 112. Liquid cooling technologies comparison.
  • Table 113. Hybrid cooling system performance comparison.
  • Table 114. Graphene manufacturing for TIMs.
  • Table 115. Data centre liquid cooling market forecasts, 2022-2036 (billions USD).
  • Table 116. Liquid cooling market segmentation by end user.
  • Table 117. TIM1 and TIM1.5 market size forecast for advanced semiconductor packaging, 2026-2036 - by area share (%).
  • Table 118. TIM1 and TIM1.5 revenue forecast for advanced semiconductor packaging, 2026-2036 (millions USD).
  • Table 119. Package size impact analysis.
  • Table 120. Geographic market analysis for thermal management in advanced semiconductor packaging.
  • Table 121. Thermal management application areas in consumer electronics.
  • Table 122. Global market in consumer electronics, 2022-2036, by TIM type (millions USD).
  • Table 123. TIM suppliers for EV battery applications.
  • Table 124. Global market in electric vehicles, 2022-2036, by TIM type (millions USD).
  • Table 125. Global market in data centres, 2022-2036, by TIM type (millions USD).
  • Table 126. Global market in 5G, 2022-2036, by TIM type (millions USD).
  • Table 127. Global market for TIMs in aerospace and defence, 2022-2036, by TIM type (millions USD).
  • Table 128. Global market for TIMs in renewable energy, 2022-2036 (millions USD).
  • Table 129. Global market for TIMs in medical electronics, 2022-2036 (millions USD).
  • Table 130. Global TIM market summary by end-use sector, 2022-2036 (millions USD).
  • Table 131. Building cooling technology landscape comparison.
  • Table 132. EV thermal management subsystems and active cooling opportunities.
  • Table 133. Air cooling power consumption at various rack densities.
  • Table 134. Caloric effect comparison for HVAC applications.
  • Table 135. Battery thermal management system comparison.
  • Table 136. LDES thermal management requirements and material opportunities.
  • Table 137. Smart window technology comparison.
  • Table 138. Radiative cooling technology comparison.
  • Table 139. Multi-mode cooling system configurations for data centres.
  • Table 140. 6G development phases and thermal management implications.
  • Table 141. 6G frequency evolution and thermal impact.
  • Table 142. 6G chipset thermal requirements compared to 5G.
  • Table 143. 6G infrastructure thermal management requirements.
  • Table 144. PDRC applications in 6G infrastructure.
  • Table 145. PCM and caloric cooling applications for 6G.
  • Table 146. Thermoelectric applications in 6G infrastructure.
  • Table 147. Two-phase heat transfer technologies for 6G.
  • Table 148. TIM requirements for 6G compared to 5G.
  • Table 149. Advanced insulation and heat shielding for 6G.
  • Table 150. Thermal metamaterial applications for 6G communications.
  • Table 151. RIS thermal management approaches.
  • Table 152. CrodaTherm Range.

List of Figures

  • Figure 1. SWOT analysis for the passive cooling market.
  • Figure 2. Application suitability mapping - best technology by application and timeframe.
  • Figure 3. Technology readiness levels across all segments.
  • Figure 4. Near-term passive and solid-state cooling applications roadmap, 2025-2030.
  • Figure 5. Medium-term passive and solid-state cooling applications roadmap, 2030-2036.
  • Figure 6. Long-term passive and solid-state cooling applications roadmap, 2036-2046.
  • Figure 7. Global passive cooling materials market by end-use sector, 2022-2036 (billions USD).
  • Figure 8. Global solid-state cooling market by technology, 2020-2036 (millions USD).
  • Figure 9. Passive cooling technology maturation roadmap, 2025-2046.
  • Figure 10. Active cooling and thermal management technology maturation roadmap, 2025-2046.
  • Figure 11. Solid-state cooling technology maturation roadmap, 2025-2046.
  • Figure 12. Schematic of thermal interface material operation in electronic devices.
  • Figure 13. SWOT analysis for silicone-based TIMs.
  • Figure 14. Thermal pad product.
  • Figure 15. Dispensing a bead of silicone-based gap filler onto the heat sink of a power electronics module.
  • Figure 16. Typical IC package construction identifying TIM1 and TIM2.
  • Figure 17. Liquid metal TIM product.
  • Figure 18. SWOT Analysis for Phase Change Materials for Passive Cooling
  • Figure 19. SWOT analysis for carbon materials for passive cooling.
  • Figure 20. Fujitsu loop heat pipe product for notebook applications.
  • Figure 21. SWOT analysis for aerogels.
  • Figure 22. Radi-Cool metamaterial film product.
  • Figure 23. Schematic of dry-cooling technology using metamaterial film.
  • Figure 24. SWOT analysis for metamaterials and metasurfaces.
  • Figure 25. Solid-state cooling value chain.
  • Figure 26. Thermoelectric cooling operation.
  • Figure 27. Thermoelectric (Peltier) cooling systems SWOT analysis.
  • Figure 28. Magnetocaloric effect.
  • Figure 29. Magnetocaloric cooling SWOT analysis.
  • Figure 30. Electrocaloric cooling cycle. (Diagram showing four stages: adiabatic polarisation -> heat rejection -> adiabatic depolarisation -> heat absorption.)
  • Figure 31. Electrocaloric cooling development timeline.
  • Figure 32. Electrocaloric cooling SWOT analysis.
  • Figure 33. Adiabatic Demagnetisation Refrigeration (ADR) process.
  • Figure 34. Quantum cryogenic market SWOT analysis.
  • Figure 35. Evolution roadmap of semiconductor packaging.
  • Figure 36. Data centre liquid cooling market by technology, 2022-2036 (billions USD).
  • Figure 37. Advanced semiconductor packaging thermal management SWOT analysis.
  • Figure 38. Application of thermal interface materials in automobiles.
  • Figure 39. Global market in electric vehicles, 2022-2036, by TIM type (millions USD).
  • Figure 40. Global market in data centres, 2022-2036, by TIM type (millions USD).
  • Figure 41. Global market for TIMs in aerospace and defence, 2022-2036, by TIM type (millions USD).
  • Figure 42. Global market for TIMs in medical electronics, 2022-2036 (millions USD).
  • Figure 43. Building cooling technology integration schematic.
  • Figure 44. Frore Systems AirJet solid-state active cooling architecture.
  • Figure 45. xMEMS micrometer Cooling fan-on-a-chip. (Microscale MEMS air mover showing silicon membrane structure and airflow direction.)
  • Figure 46. TIM evolution roadmap from 5G to 6G.
  • Figure 47. Transtherm-R PCMs.
  • Figure 48. Internal structure of carbon nanotube adhesive sheet.
  • Figure 49. Carbon nanotube adhesive sheet.
  • Figure 50. HI-FLOW Phase Change Materials.
  • Figure 51. Parker Chomerics THERM-A-GAP GEL.
  • Figure 52. Metamaterial structure used to control thermal emission.
  • Figure 53. Shinko Carbon Nanotube TIM product.
  • Figure 54. VB Series of TIMS from Zeon.