Synthetic diamond is shifting from jewellery to high-tech uses, led by AI cooling, power electronics, quantum systems, nanodiamonds and PFAS remediation.

Dublin, Sept. 14, 2026 (GLOBE NEWSWIRE) -- "Advanced Diamond Materials and Technology Market 2026-2036" has been added to ResearchAndMarkets.com's offering.

The synthetic diamond industry is undergoing a structural transformation. Although lab-grown diamond prices in the gem and jewellery market have fallen by 50%-80% since 2020, culminating in De Beers closing its Lightbox brand in May 2025, demand for technology-grade diamond continues to accelerate. More than $4 billion in committed capital flowed into technology-grade diamond manufacturing between 2024 and 2026, supporting applications in AI chip cooling, quantum computing, power electronics, environmental remediation, aerospace and defence.

Diamond's thermal conductivity of 900-2,200 W/mK, 5.47 eV ultra-wide bandgap, chemical inertness, radiation hardness and room-temperature quantum coherence make it a strategically important advanced material. This market report provides detailed analysis and forecasts for the global advanced diamond materials and technology market from 2026 to 2036.

The research covers five principal market segments: lab-grown diamonds produced through chemical vapour deposition (CVD) and high-pressure, high-temperature (HPHT) methods; nanodiamonds; diamond semiconductors and power electronics; diamond quantum technologies; and diamond thermal management. It also examines diamond environmental remediation using boron-doped diamond (BDD) electrodes, an emerging growth market supported by increasingly stringent PFAS regulations.

AI and high-performance computing are major catalysts for the diamond thermal management market. GPU power densities now exceed 1,000 watts per chip, creating thermal constraints that conventional cooling materials struggle to resolve. Diamond heat spreaders, copper-diamond composites, GaN-on-Diamond power amplifiers and diamond thermal interface materials are moving into commercial deployment. Current developments include diamond-cooled NVIDIA H200 GPU servers and satellite radio systems with demonstrated space heritage.

The diamond semiconductor market is advancing through industrial clusters in Japan, France and the United States. Government support includes the U.S. CHIPS Act, Japan's NEDO and METI initiatives, Bpifrance investment programmes, and European Chips Act measures. Diamond power MOSFETs, Schottky diodes and GaN-on-Diamond devices are progressing towards commercialisation, supported by packaged device demonstrations, wafer-scaling programmes and space qualification testing.

Diamond quantum technology analysis spans NV-centre quantum sensing, quantum diamond microscopy, magnetometry, navigation, room-temperature quantum processors, photonic interconnects and quantum repeaters. Significant investments include the Element Six and Bosch quantum sensing joint venture, IonQ's acquisition of Lightsynq Technologies, and QuantumDiamonds' planned €152 million production facility in Munich.

The report also evaluates established and emerging nanodiamond applications, including lubricants, polishing, electroplating, polymer and metal composites, skincare, supercapacitors, batteries, drug delivery, additive manufacturing and thermal pastes. Fluorescent nanodiamonds with engineered NV centres are assessed as a growing convergence between nanomaterials and quantum technology.

Environmental applications focus on BDD electrode systems for the electrochemical destruction of per- and polyfluoroalkyl substances in municipal water, industrial wastewater and contaminated groundwater. Market growth is being reinforced by the U.S. Environmental Protection Agency's PFAS maximum contaminant levels and the proposed near-total PFAS restriction under EU REACH.

Report coverage includes:

Global advanced diamond materials market size, growth drivers, restraints, trends and forecasts from 2026 to 2036.
Mechanical, thermal, electrical, optical, chemical, biocompatibility and quantum properties of diamond materials.
Comparisons with silicon carbide, gallium nitride, graphene, boron nitride and carbon nanotubes.
CVD, HPHT, detonation synthesis, laser ablation, HFCVD, fluorescent nanodiamond production and colour-centre engineering.
Lab-grown diamond market analysis covering jewellery price dynamics, technology applications and regional forecasts.
Diamond semiconductor and power electronics applications in AI data centres, satellite communications, space systems and extreme environments.
Diamond thermal management solutions for AI, high-performance computing, advanced semiconductor packaging, 5G and 6G telecommunications, electric vehicles and defence.
Diamond quantum sensing, computing, networking, microscopy, magnetometry and repeater technologies.
Nanodiamond consumption and revenue forecasts across industrial, biomedical, energy storage and additive manufacturing applications.
BDD electrode technology for PFAS destruction, wastewater treatment and groundwater remediation.
Global supply chains, production capacity, investment activity, export controls, industrial policy and strategic sovereignty.
Total addressable market forecasts, segment growth rankings, regional analysis, scenarios and key uncertainties.
Emerging applications including diamond nuclear batteries, in-space manufacturing, Raman lasers, spectroscopy, medical devices and polycrystalline diamond tools.
Industry barriers such as wafer scaling, doping asymmetry, production costs, qualification timelines and competition from alternative materials.
Profiles of 45 companies, including technologies, products, funding, headquarters and strategic market positioning.
Research methodology and supporting references.

This report is designed for advanced materials producers, semiconductor companies, quantum technology developers, investors, government agencies, research organisations and corporate strategy teams seeking actionable intelligence on the global diamond materials market through 2036.

Key Topics Covered:

1 EXECUTIVE SUMMARY
1.1 Market Overview and Scope
1.2 Advanced Diamond Materials
1.2.1 Lab-Grown Diamonds (Single-Crystal CVD & HPHT)
1.2.2 Nanodiamonds (Detonation, HPHT, CVD)
1.2.3 Diamond Semiconductors & Power Electronics
1.2.4 Diamond Quantum Technologies
1.2.5 Diamond Thermal Management
1.3 The Diverging Trajectories: Gem vs. Technology Diamond Markets
1.4 Key Market Trends 2026-2036
1.5 Market Drivers and Restraints
1.6 Global Market Size and Forecast Summary, 2026-2036
1.7 Market by Region
1.8 Competitive Landscape Overview

2 PROPERTIES OF DIAMOND MATERIALS
2.1 Fundamental Properties of Diamond
2.1.1 Mechanical Properties (Hardness: 167 GPa, Wear Resistance)
2.1.2 Thermal Properties (Thermal Conductivity: 900-2,200 W/mK)
2.1.3 Electrical Properties (Wide Bandgap: 5.47 eV, High Resistivity)
2.1.4 Optical Properties (Refractive Index: 2.417, IR Transparency)
2.1.5 Chemical and Radiation Resistance
2.1.6 Biocompatibility
2.2 Properties of Nanodiamonds
2.2.1 Surface Area (250-450 m/g), Surface Chemistry, and Functional Groups
2.2.2 Fluorescence and Colour Centres
2.2.3 Properties Comparison: DND vs. HPHT vs. CVD Nanodiamonds
2.3 Quantum Properties of Nitrogen-Vacancy (NV) Centres
2.3.1 Spin Coherence and Quantum States
2.3.2 Optically Detected Magnetic Resonance (ODMR)
2.3.2.1 Room-Temperature Quantum Operation
2.4 Comparison with Competing Materials
2.4.1 Diamond vs. SiC, GaN, and Other Wide-Bandgap Semiconductors
2.4.2 Diamond vs. Graphene, BN Nanosheets, Carbon Nanotubes
2.4.3 Nanodiamonds vs. Competing Nanomaterials

3 SYNTHETIC DIAMOND PRODUCTION METHODS
3.1 Chemical Vapour Deposition (CVD)
3.1.1 Process Description and Reactor Technologies
3.1.2 Single-Crystal CVD Growth
3.1.3 Polycrystalline CVD Diamond Films
3.1.4 Quantum-Grade CVD (Ultra-Pure, Controlled NV Density)
3.1.5 Treatments and Post-Processing
3.1.6 Scaling Challenges and Wafer-Size Development (2-Inch to 4-Inch)
3.2 High Pressure High Temperature (HPHT)
3.2.1 Process Description
3.2.2 Industrial Abrasive and Gem-Quality Production
3.2.3 Treatments
3.3 Detonation Synthesis (Nanodiamonds)
3.3.1 Process Description
3.3.2 Purification and Surface Functionalization
3.3.3 Production Capacity and Major Producers
3.4 Other Synthesis Methods
3.4.1 Laser Ablation
3.4.2 Ultrasound Cavitation
3.4.3 Hot-Filament CVD (HFCVD)
3.4.4 Ion Irradiation of Graphite
3.4.5 Autoclave Synthesis from Supercritical Fluids
3.5 Fluorescent Nanodiamond (FND) Production
3.5.1 NV Centre Creation by Irradiation and Annealing
3.5.2 Colour Centre Engineering (SiV, GeV, SnV)
3.6 Production Methods Comparison: Advantages and Disadvantages
3.7 Pricing of Synthetic Diamonds and Nanodiamonds
3.7.1 Cost of Lab-Grown Diamonds
3.7.2 Pricing of Nanodiamonds, by Producer/Distributor

4 LAB-GROWN DIAMONDS MARKET
4.1 Global Market Overview and Revenues to 2036
4.2 Jewellery Market Segment
4.2.1 Market Overview and Consumer Trends
4.2.2 De Beers Lightbox Closure and Industry Implications
4.2.3 Lab-Grown vs. Natural Diamond Price Dynamics and Collapse
4.2.4 Lab-Grown Diamond Producers List
4.3 Advanced Technology Applications
4.3.1 Electronics and Computing
4.3.1.1 Diamond Heat Spreaders for AI/HPC Chips
4.3.1.2 Diamond Thermal Substrates and Packaging
4.3.1.3 High-Power Electronics and RF Components
4.3.2 Quantum Computing Substrates
4.3.3 Medicine and Biomedical
4.3.3.1 Biomedical Imaging
4.3.3.2 Medical Implants
4.3.4 Lasers and Optics
4.3.5 Spectroscopy
4.3.6 Industrial Cutting, Drilling, and Mining Tools
4.3.7 3D Printing
4.4 Global Market Size and Forecast to 2036, by Segment
4.5 Market by Region
4.6 Companies

5 DIAMOND SEMICONDUCTOR AND POWER ELECTRONICS MARKET
5.1 Market Overview and Technology Readiness
5.2 Diamond Power Transistors and Schottky Diodes
5.2.1 Vertical Diamond Schottky Diodes
5.2.2 Diamond MOSFETs
5.2.3 Doping Technologies (Boron, Phosphorus)
5.2.4 Novel Switching Mechanisms
5.3 Diamond RF Components and High-Frequency Electronics
5.4 GaN-on-Diamond Technology
5.4.1 Technology Description and Thermal Benefits
5.4.2 Applications in Satellite Communications
5.4.2.1 Applications in AI Data Centre Cooling
5.5 Diamond Semiconductors for Space and Extreme Environments
5.5.1 Radiation Hardness and Space Qualification (JAXA-PDS Partnership)
5.5.2 Nuclear and High-Temperature Applications
5.6 In-Space Diamond Manufacturing (Space Forge)
5.7 Wafer Scaling Roadmap: 2-Inch to 4-Inch and Beyond
5.7.1 Element Six-Orbray 50mm Single-Crystal Diamond Wafer Milestone
5.7.2 AI-Assisted Defect Detection
5.8 Government Investments and CHIPS Act Funding
5.8.1 Applications in Satellite Communications
5.8.1.1 Applications in AI Data Centre Cooling
5.9 Global Market Size and Forecast to 2036
5.10 Market by Region
5.10.1 United States
5.10.2 Japan (Ookuma, PDS, Orbray, ExtenD Cluster)
5.10.3 France (Diamfab-HiQuTe Diamond Alliance)
5.10.4 Rest of World
5.11 Company Profiles

6 DIAMOND THERMAL MANAGEMENT MARKET
6.1 Market Overview
6.2 Diamond as a Thermal Interface and Heat Spreading Material
6.2.1 CVD Diamond Heat Spreaders (1,500-2,200 W/mK)
6.2.2 Copper-Diamond Composites (400-800 W/mK)
6.2.3 Diamond-on-Silicon Heterostructures
6.2.4 Diamond-Graphene Composites
6.2.5 Comparison with Competing TIM Materials (Graphene, BN, Liquid Metal)
6.3 Applications by End-Use Sector
6.3.1 AI and High-Performance Computing (GPU/CPU Thermal Management)
6.3.2 Advanced Semiconductor Packaging (TIM1, TIM1.5, 3D Packaging)
6.3.3 5G/6G Telecommunications Infrastructure
6.3.3.1 Diamond TIM Roadmap: 5G Sub-6 GHz to 6G THz
6.3.3.2 Dual-Function TIMs (Thermal EMI Shielding)
6.3.4 Consumer Electronics
6.3.5 Electric Vehicles and Automotive Power Electronics
6.3.6 Laser Diodes, High-Power Photonics, and GaN Power Amplifiers
6.3.7 Defence and Aerospace
6.4 Diamond in Next-Generation Thermal Solutions
6.4.1 Metamaterial Heat Spreaders
6.4.2 Bio-Inspired Thermal Management Approaches
6.4.3 Embedded Microfluidic Diamond Cooling for 3D Packages
6.5 Die-Attach Technology and Diamond Integration
6.6 Thermal Modelling and Simulation for Diamond Packages
6.7 Advanced Semiconductor Packaging Thermal Management SWOT Analysis
6.8 Global Market Size and Forecast to 2036
6.9 Market by Region
6.10 Companies

7 DIAMOND QUANTUM TECHNOLOGY MARKET
7.1 Market Overview
7.2 NV Centre Quantum Sensing
7.2.1 Technology Description and Operating Principles
7.2.2 Quantum Diamond Microscope (QDM) for Semiconductor Chip Inspection
7.2.3 Quantum Magnetometry for Geophysics, Mining, and Defence
7.2.4 Quantum Navigation and Gyroscopes
7.2.5 Biomedical Quantum Sensing
7.3 NV Centre RF Reception and Communications
7.3.1 Diamond-Based RF Receivers
7.3.2 Comparison with Rydberg Atom RF Sensors
7.4 Diamond Quantum Computing
7.4.1 NV-Centre Qubits: Technology Description
7.4.2 SWOT Analysis for Diamond-Defect Quantum Computing
7.4.3 Materials for Diamond Quantum Devices
7.4.4 Market Players
7.4.5 IonQ-Element Six-AWS Foundry-Compatible Quantum Diamond Films
7.5 Diamond Quantum Communication and Networking
7.5.1 Quantum Repeaters and Memory Nodes
7.5.2 Quantum Key Distribution (QKD) Components
7.6 Element Six-Bosch Quantum Sensing Joint Venture
7.7 Government Investment in Diamond Quantum Technology
7.8 Global Market Size and Forecast to 2036
7.9 Company Profiles

8 NANODIAMONDS MARKET
8.1 Market Overview
8.2 Applications and End-Use Markets
8.2.1 Lubricant Additives
8.2.2 Electronic Polishing Materials
8.2.3 Electroplating and Anti-Wear/Friction Coatings
8.2.4 Polymer Composites (Thermosets and Thermoplastics)
8.2.4.1 Thermosets
8.2.4.2 Thermoplastics
8.2.4.3 Metal-Matrix Composites
8.2.5 Skincare and Cosmetics
8.2.6 Supercapacitors
8.2.7 Batteries
8.2.8 Drug Delivery
8.2.9 3D Printing Additives
8.2.10 Thermal Pastes and TIMs
8.3 Nanodiamond Market Forecast by Application
8.4 Nanodiamond Consumption Forecasts by Application (Tons)
8.5 Company Profiles

9 DIAMOND ENVIRONMENTAL REMEDIATION AND ELECTROCHEMISTRY MARKET
9.1 Market Overview
9.2 Boron-Doped Diamond (BDD) Electrode Technology
9.2.1 Technology Description
9.2.2 Element Six DiamoxT BDD Electrodes
9.2.3 Electrochemical PFAS Destruction Mechanism
9.3 Applications
9.3.1 Municipal Water and Wastewater Treatment
9.3.2 Industrial Wastewater (Semiconductor, Chemical, Firefighting Foam)
9.3.3 Groundwater Remediation (Military Bases, Industrial Sites)
9.3.4 Other Electrochemical Applications
9.4 Regulatory Drivers
9.5 Global Market Size and Forecast to 2036
9.6 Company Profiles

10 SUPPLY CHAIN, GEOPOLITICS, AND STRATEGIC CONSIDERATIONS
10.1 Global Diamond Production Landscape
10.1.1 CVD Diamond Production
10.1.2 HPHT Diamond Production
10.1.3 Nanodiamond Production
10.2 Supply Chain Sovereignty and Strategic Materials Concerns
10.2.1 The Diamond Semiconductor Supply Chain Gap
10.2.2 CHIPS Act and Supply Chain Reshoring
10.2.3 Export Controls and Quantum Technology Restrictions
10.3 Price Dynamics and Cost Trajectories
10.3.1 Jewellery Market Price Collapse Impact on Technology Supply
10.3.2 Technology-Grade Diamond Cost Reduction Roadmap
10.4 Competitive Dynamics: Diamond vs. Alternative Materials
10.5 Investment Landscape

11 MARKET FORECASTS
11.1 Total Addressable Market: Advanced Diamond Materials and Technology, 2026-2036
11.2 Market by Segment: Growth Rate Ranking
11.3 Market by Region
11.4 The Structural Divergence: Jewellery vs. Technology
11.5 Scenario Analysis
11.6 Key Uncertainties and Risks

12 EMERGING APPLICATIONS AND TECHNOLOGY OUTLOOK
12.1 Diamond Nuclear Voltaic Batteries
12.1.1 Technology Description
12.1.2 NDB (Nano Diamond Battery)
12.1.3 Market Outlook
12.2 In-Space Diamond Manufacturing
12.2.1 Space Forge
12.2.2 Market Outlook
12.3 Diamond Raman Lasers
12.3.1 Technology Description
12.3.2 Applications and Market
12.4 Diamond Spectroscopy Components
12.4.1 ATR-FTIR Crystals
12.4.2 Synchrotron and X-Ray Beamline Windows
12.5 Diamond Medical Devices and Implant Coatings
12.5.1 Biocompatibility
12.5.2 Applications
12.5.3 MRI Enhancement
12.6 Diamond in 3D Printing and Additive Manufacturing
12.6.1 Nanodiamond Filament Additives
12.6.2 Metal Additive Manufacturing with Diamond Reinforcement
12.6.2.1 Market Outlook
12.7 Diamond PCD Tools and Industrial Cutting
12.7.1 Polycrystalline Diamond (PCD) Cutting Tools
12.7.2 Element Six-Master Drilling Partnership
12.8 Technology Maturity Summary and Commercialisation Timeline

13 INDUSTRY CHALLENGES AND BARRIERS
13.1 Technical Challenges
13.1.1 Wafer Scaling: The Critical Bottleneck
13.1.2 Doping Asymmetry (n-Type Challenge)
13.1.3 Manufacturing Cost
13.2 Market and Commercial Challenges
13.2.1 Competing Materials: The SiC/GaN Incumbency
13.2.2 Qualification Timelines
13.2.3 Customer Awareness and Design-In Complexity
13.2.4 Jewellery Market Perception Spillover
13.3 Supply Chain and Strategic Challenges
13.3.1 Supplier Concentration Risk
13.3.2 MPCVD Reactor Availability
13.3.3 Workforce Skills Gap

14 COMPANY PROFILES (45 COMPANY PROFILES)

15 RESEARCH METHODOLOGY
15.1 Information Sources
15.2 Market Sizing and Forecasting Approach
15.3 Company Identification and Profiling Methodology
15.4 2Limitations and Assumptions

16 REFERENCES

LIST OF TABLES
Table 1. Market taxonomy - segments, sub-segments, key applications, and representative companies
Table 2. Key market trends and impact assessment, 2026-2036
Table 3. Market drivers, restraints, and opportunities summary
Table 4. Total advanced diamond materials market size and forecast, 2026-2036 ($ millions)
Table 5. Market size by region, 2026-2036 ($ millions)
Table 6. Leading companies by segment, headquarters, funding status, and technology focus
Table 7. Fundamental properties of diamond - mechanical, thermal, electrical, optical, chemical
Table 8. Nanodiamond properties comparison - DND vs. HPHT vs. CVD
Table 9. NV centre quantum properties - coherence times, sensitivity benchmarks, operating temperature
Table 10. Diamond vs. SiC vs. GaN - thermal conductivity, bandgap, breakdown field, electron mobility, saturation velocity
Table 11. Diamond vs. graphene, BN, CNTs - properties comparison for thermal and structural applications
Table 12. Nanodiamonds vs. competing nanoparticles for biomedical and industrial applications
Table 13. CVD diamond wafer scaling roadmap - size, defect density, applications, producer, timeline
Table 14. Production methods, by main nanodiamond producers
Table 15. Comparison of nanodiamonds produced by detonation and laser synthesis
Table 16. Production methods comparison - CVD, HPHT, detonation, laser ablation, other
Table 17. Cost of lab-grown diamonds, by type and application grade
Table 18. Pricing of nanodiamonds, by producer/distributor (selected examples)
Table 19. Global revenues for lab-grown diamonds to 2036, by market segment ($ millions)
Table 20. Lab-grown diamond price history vs. natural diamonds, 2015-2026 ($/carat, 1-carat G-H VS equivalent)
Table 21. Lab-grown diamond jewellery producers - company, country, technology, estimated capacity
Table 22. Advanced technology applications of lab-grown diamonds - application, diamond type required, TRL, market potential rating
Table 23. Lab-grown diamond market forecast by segment, 2026-2036 ($ millions)
Table 24. Lab-grown diamond market by region, 2026-2036 ($ millions)
Table 25. Lab-Grown Diamond Companies
Table 26. Diamond semiconductor technology readiness - device type, TRL, key developer, expected commercialisation
Table 27. Diamond doping technologies - dopant, method, carrier concentration, activation energy, challenges
Table 28. GaN-on-Diamond thermal performance vs. GaN-on-SiC and GaN-on-Si
Table 29. Satellite PA substrate comparison - GaN-on-Diamond vs. GaN-on-SiC vs. GaAs
Table 30. Satellite communications GaN-on-Diamond market forecast, 2026-2036 ($ millions)
Table 31. Diamond thermal solutions for AI data centres - technology, function, performance, TRL
Table 32. AI data centre diamond thermal management market forecast, 2026-2036 ($ millions)
Table 33. Diamond wafer scaling milestones - size, producer, date, achievement, target application
Table 34. Government investments in diamond semiconductor programmes, 2024-2026
Table 35. Diamond semiconductor and power electronics market forecast, 2026-2036 ($ millions)
Table 36. Diamond semiconductor market by region, 2026-2036 ($ millions)
Table 37. Diamond Semiconductor & Power Electronics Companies
Table 38. Diamond thermal management product landscape - product type, thermal conductivity range, target application, key supplier
Table 39. Copper-diamond composite properties - thermal conductivity, CTE, density, manufacturer
Table 40. Diamond vs. competing TIM materials - thermal conductivity, electrical isolation, cost, TRL, limitations
Table 41. Diamond thermal solutions for AI/HPC - product type, integration point, performance benefit, target chip architecture
Table 42. Semiconductor packaging technology evolution - 2D to 2.5D to 3D and thermal management implications
Table 43. TIM1 and TIM1.5 material selection for advanced packaging
Table 44. TIM1 and TIM1.5 market size forecast for advanced semiconductor packaging, 2026-2036, by area share (%)
Table 45. TIM1 and TIM1.5 revenue forecast for advanced semiconductor packaging, 2026-2036 ($ millions)
Table 46. TIM requirements for 6G compared to 5G
Table 47. Diamond thermal management applications in consumer electronics
Table 48. Diamond TIM applications in EV power electronics
Table 49. Diamond thermal management in defence/aerospace
Table 50. Die-attach materials comparison
Table 51. Package size impact analysis - die size, heat flux, diamond spreader thickness, junction temperature reduction
Table 52. Diamond thermal management market forecast, 2026-2036 ($ millions), by product type
Table 53. Diamond thermal management market forecast, 2026-2036 ($ millions), by end-use sector
Table 54. Diamond thermal management market by region, 2026-2036 ($ millions)
Table 55. Geographic market analysis for thermal management in advanced semiconductor packaging
Table 56. Diamond thermal managment companies
Table 57. NV centre quantum sensing - modality, sensitivity, spatial resolution, operating temperature, competing technology
Table 58. Diamond quantum sensing applications - application, sensor type, TRL, key developer, market potential
Table 59. NV-centre vs. Rydberg atom RF sensors - comparison
Table 60. SWOT analysis - diamond-defect quantum computers
Table 61. Materials for diamond quantum computing devices - material, role, requirements
Table 62. Diamond quantum computing companies - company, country, technology focus, status
Table 63. Government and institutional investments in diamond quantum technology, 2024-2026
Table 64. Diamond quantum technology market forecast, 2026-2036 ($ millions), by application segment
Table 65. Diamond quantum technology market by region, 2026-2036 ($ millions)
Table 66. Diamond-based Quantum Technology Companies
Table 67. Nanodiamond lubricant market - overview, drivers, challenges
Table 68. Nanodiamond polishing market - overview
Table 69. Nanodiamond consumption in electroplating and anti-wear coatings to 2036 (tons, high and low estimates)
Table 70. Nanodiamond consumption in thermosets to 2036 (tons, high and low estimates)
Table 71. Nanodiamond consumption in thermoplastics to 2036 (tons, high and low estimates)
Table 72. Nanodiamond consumption in metal-matrix composites to 2036 (tons, high and low estimates)
Table 73. Nanodiamond consumption in skincare to 2036 (tons, high and low estimates)
Table 74. Nanodiamond consumption in supercapacitors to 2036 (tons, high and low estimates)
Table 75. Nanodiamond consumption in batteries to 2036 (tons, high and low estimates)
Table 76. Nanodiamond drug delivery market - overview, drivers, challenges
Table 77. Global nanodiamond market forecast by application, 2026-2036 ($ millions)
Table 78. Global nanodiamond market by region, 2026-2036 ($ millions)
Table 79. Global nanodiamond consumption forecast by application, 2026-2036 (tons, mid-range estimates)
Table 80. Nanodiamond producer proflels
Table 81. BDD electrode properties vs. competing electrode materials
Table 82. PFAS treatment technology comparison
Table 83. BDD electrode application landscape
Table 84. Key PFAS regulations driving BDD electrode market demand
Table 85. Diamond environmental remediation and electrochemistry market forecast, 2026-2036 ($ millions)
Table 86. Diamond environmental remediation market by region, 2026-2036 ($ millions)
Table 87. Diamond Environmental Remediation & Electrochemistry Market
Table 88. Global CVD diamond production landscape, 2026
Table 89. Global HPHT diamond production landscape, 2026
Table 90. Critical supply chain bottlenecks in diamond technology
Table 91. Government supply chain sovereignty programmes affecting diamond technology, 2024-2026
Table 92. Technology-grade diamond cost reduction trajectory, 2026-2036
Table 93. Diamond vs. competing advanced materials - strategic positioning
Table 94. Major diamond technology investments, 2024-2026
Table 95. Advanced diamond materials and technology total market forecast, 2026-2036 ($ millions)
Table 96. Diamond technology segments ranked by CAGR, 2026-2036
Table 97. Advanced diamond materials total market by region, 2026-2036 ($ millions)
Table 98. Market scenario analysis, 2036 total diamond technology market (excl. jewellery)
Table 99. Key market uncertainties and risk factors
Table 100. Diamond nuclear battery technology assessment
Table 101. Diamond in medical devices - application, diamond type, TRL, market status
Table 102. Diamond technology commercialisation timeline - all applications
Table 103. Diamond wafer scaling challenges - barrier, current status, required breakthrough, timeline
Table 104. Industry challenges and barriers - summary assessment

LIST OF FIGURES
Figure 1. Market size by region, 2026-2036 ($ millions)
Figure 2. CVD process for lab-grown diamonds - schematic
Figure 3. HPHT lab-grown diamond process
Figure 4. Detonation Nanodiamond - TEM image
Figure 5. Global revenues for lab-grown diamonds to 2036, by market segment ($ millions)
Figure 6. Lab-grown diamond market forecast by segment, 2026-2036 ($ millions)
Figure 7. Lab-grown diamond market by region, 2026-2036 ($ millions)
Figure 8. (a) Schematic of the fabrication steps for the GaN-on-diamond micro-pillars; (b) a typical GaN-on-diamond micro-pillar with the load applied by a Si probe onto the GaN layer; (c) fracture occurred through the thickness of the GaN at 300 ?N while the interface remained intact
Figure 9. Diamond semiconductor and power electronics market forecast, 2026-2036 ($ millions)
Figure 10. Diamond semiconductor market by region, 2026-2036 ($ millions)
Figure 11. Advanced semiconductor packaging thermal management SWOT analysis
Figure 12. Diamond thermal management market forecast, 2026-2036 ($ millions), by product type
Figure 13. Diamond thermal management market forecast, 2026-2036 ($ millions), by end-use sector
Figure 14. Diamond thermal management market by region, 2026-2036 ($ millions)
Figure 15. Diamond quantum technology market forecast, 2026-2036 ($ millions), by application segment
Figure 16. Diamond quantum technology market by region, 2026-2036 ($ millions)
Figure 17. Functional groups of Nanodiamonds
Figure 18. Global nanodiamond market forecast by application, 2026-2036 ($ millions)
Figure 19. Diamond environmental remediation and electrochemistry market forecast, 2026-2036 ($ millions)
Figure 20. Advanced diamond materials and technology total market forecast, 2026-2036 ($ millions)
Figure 21. NBD battery
Figure 22. Neomond dispersions
Figure 23. Visual representation of graphene oxide sheets (black layers) embedded with nanodiamonds (bright white points)

A selection of companies mentioned in this report includes, but is not limited to:

Akash Systems
Daicel Corporation
Diamfab
Diamond Foundry
Element Six
HiQuTe Diamond
IonQ
NDB Inc. (Nano Diamond Battery)
Orbray Co.
Photonic Inc.
Power Diamond Systems (PDS)
Qnami AG
Quantum Brilliance
QuantumDiamonds GmbH

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Advanced Diamond Materials and Technology Market Set for Strong Growth Through 2036, Driven by Semiconductor, Quantum Computing and Thermal Management Demand