仮想網膜ディスプレイ市場シェア分析、業界動向と統計、成長予測 2026-2031年

仮想網膜ディスプレイ（VRD）市場の規模は、2025年の12億8,000万米ドルから2026年には15億9,000万米ドルへと拡大し、2026年から2031年にかけて年平均成長率（CAGR）24.02%で推移し、2031年には46億6,000万米ドルに達すると予測されています。シリコンフォトニクスのコスト低下、軍事関連の受注拡大、そして先進国における医療機関のビジョンケア（視覚ケア）業務のデジタル化に伴い、軽量な網膜投影技術は実験段階から本格的な量産段階へと移行しつつあります。画面（スクリーン）を使用する方式からスクリーンレスの拡張現実（AR）アーキテクチャへの移行は、視野角や周囲の光による制約を解消すると同時に、通常の眼鏡と同等の形状（フォームファクタ）の実現を可能にします。米陸軍による兵士向けカラーMicroLED導入計画や、日本の高齢者介護における視覚リハビリテーションへの資金提供といった調達プログラムが、需要を喚起しています。その一方で、コンポーネントメーカーはコントローラー、レーザー、導波路の小型化を進めており、これにより消費電力の低減と民生用電子機器市場への参入が可能になっています。

レポートの主なポイント

• コンポーネント別では、2025年の仮想網膜ディスプレイ（バーチャル網膜ディスプレイ）市場において「ディスプレイ光源」が33.92%のシェアを占め最大となりました。一方、「アイトラッキングおよびキャリブレーションモジュール」は、2031年までCAGR 26.17%で成長すると予測されています。
• 製品タイプ別では、2025年の市場シェアにおいて「ARスマートグラス」が40.35%を占めました。「埋め込み型／ロービジョン（低視力）支援機器」は、2031年までCAGR 26.45%で成長すると予測されています。
• 用途別では、2025年の市場規模において「医療・ライフサイエンス」分野が37.65%のシェアを占めました。家電・ゲーミング市場は、2031年に向けて年平均成長率（CAGR）24.84%で拡大しています。
• 解像度別では、2025年時点でフルHDが29.12%のシェアを占めて首位となりました。一方、4Kを超える解像度は、2031年まで年平均成長率（CAGR）28.07%で増加すると予測されています。
• 地域別では、2025年にアジア太平洋地域が収益シェアの27.45%を占め、同地域は2031年に向けて年平均成長率（CAGR）26.94%で拡大すると予測されています。

製品タイプ別：市場変革を牽引するARグラス

2025年、ARスマートグラスは仮想網膜ディスプレイ（バーチャル網膜ディスプレイ）市場の収益の40.35%を占め、同市場における中核的なハードウェア・カテゴリーとしての地位を確立しました。埋め込み型デバイスやロービジョン（低視力）支援機器は、現時点では市場規模こそ小さいものの、高齢化の進行や保険償還制度の整備に伴う普及拡大により、2031年まで年平均成長率（CAGR）26.45%で成長すると予測されています。臨床的エビデンスの蓄積が進むにつれ、治療用支援機器向けの仮想網膜ディスプレイ市場も拡大する見通しです。Quanta ComputerによるVuzixへの500万ドルの追加投資（導波路の生産能力向上を目的とするもの）などは、受託製造（EMS）の存在感が高まっていることを示唆しています。

スタンドアロン型の網膜投影ヘッドセットは、長時間の運用が求められ、専用電源パックの使用が正当化される防衛や産業用シミュレーションといったニッチな分野で引き続き利用されています。車載用HUDについては、適切な品質基準を満たすMEMSミラーの登場待ちという状況にあり、これが量産拡大の足かせとなっています。Texas Instrumentsが2025年3月にMouserを通じて車載用マイクロミラー「DLP4620S-Q1」を投入したものの、依然としてこの状況は続いています。市場は「一般消費者向けの利便性」と「プロフェッショナル向けの専門性」という二極化の傾向を示しており、サプライヤーにはこれら2つのロードマップのバランスを取ることが求められています。

Virtual Retinal Display Market Analysis by Mordor Intelligence

The virtual retinal display market size is expected to grow from USD 1.28 billion in 2025 to USD 1.59 billion in 2026 and is forecast to reach USD 4.66 billion by 2031 at 24.02% CAGR over 2026-2031. Light-weight retinal projection is moving from experimental labs to mainstream production because silicon-photonics costs are declining, military orders are accelerating, and healthcare providers in developed economies are digitizing vision-care workflows. Transitioning from screen-based to screen-less augmented-reality architecture removes viewing-angle and ambient-light limits while enabling glasses-grade form factors. Procurement programs such as the U.S. Army’s soldier color MicroLED initiative and Japan’s aged-care vision rehabilitation funding are pulling demand forward. Meanwhile, component makers are shrinking controllers, lasers, and waveguides, which lowers power budgets and opens consumer electronics channels.

Key Report Takeaways

• By component, Display Light Source led with 33.92% of virtual retinal display market share in 2025, while Eye-Tracking & Calibration Modules are advancing at a 26.17% CAGR through 2031.
• By product type, AR Smart Glasses held 40.35% of virtual retinal display market share in 2025; Implantable/Low-Vision Aids are forecast to grow 26.45% CAGR to 2031.
• By application, Medical & Life Sciences commanded a 37.65% share of the virtual retinal display market size in 2025; Consumer Electronics & Gaming is growing at 24.84% CAGR to 2031.
• By resolution, Full HD led with 29.12% share in 2025, while Above 4K resolutions are projected to rise 28.07% CAGR through 2031.
• By geography, Asia-Pacific captured 27.45% revenue share in 2025, and the region is projected to expand 26.94% CAGR to 2031.

Note: Market size and forecast figures in this report are generated using Mordor Intelligence’s proprietary estimation framework, updated with the latest available data and insights as of 2026.

Global Virtual Retinal Display Market Trends and Insights

Drivers Impact Analysis*

Surging Demand for Ultra-Compact Near-Eye Displays in Military Smart Helmets

Defense programs prioritize displays invisible to night-vision detectors yet bright in daylight. The U.S. Army’s Light Secure Special Warfare Display project funds prototypes that illuminate the retina directly, eliminating outward light leakage. Kopin’s soldier color MicroLED contracts worth more than USD 7.5 million underscore how ruggedized retinal projection meets size, weight, and power targets for field use.

Rapid Adoption of Retinal Projection Aids for Low-Vision Patients across Japan and DACH

Randomized trials show retinal laser eyewear improves acuity where lenses fail, prompting Japan’s insurers and German clinics to reimburse high-end systems. Streamlined EU-MDR approvals and generous coverage in Switzerland support premium therapeutic devices, encouraging manufacturers to prioritize health-care-focused designs.

Shift from Screen-Based to Screen-Less AR Wearables Driven by Silicon-Photonics Cost Drops in U.S.

Large-scale integration in silicon photonics is reducing per-unit optical costs, placing retinal projection within consumer price envelopes. U.S. fabrication incentives tighten the domestic supply chain, while the same foundries that serve data-center optics now fabricate compact waveguides for smart glasses, consolidating volume economies.

Vision-Safe Class-1 Laser Regulations Enabling Wider Consumer Adoption in EU

EU harmonization around Class-1 limits gives product engineers clear optical-power ceilings, lowering certification costs compared with higher-class lasers. [3] The precedent set by the Valeda photobiomodulation clearance reassures consumers that retinal laser exposure is safe, expanding the addressable consumer base.

Restraints Impact Analysis*

High Per-Unit Laser Scanner ASPs Causing BOM Pressures below USD 400 AR Glass Price-Point

RGB laser engines still consume up to 40% of total device cost because compound-semiconductor wafers and precision MEMS scanners lack mass-volume scale. Automotive experience shows similar price rigidity for AEC-Q100 mirrors, meaning consumer brands must subsidize optics or forego sub-USD 400 price targets. [4]

Complex FDA and MDR Pathways for Implantable/Therapeutic VRDs

Retinal implants meet significant-risk classifications, triggering multi-year clinical studies. Dual compliance with FDA’s IDE rules and Europe’s MDR demands exhaustive evidence packages, lengthening time-to-market and raising capital barriers for startups.

*Our forecasts treat driver/restraint impacts as directional, not additive. The impact forecasts reflect baseline growth, mix effects, and variable interactions.

Segment Analysis

By Component: Light Sources Drive Integration Complexity

Display Light Source elements, chiefly RGB laser and MicroLED engines, accounted for 33.92% of virtual retinal display market share in 2025. Their dominance stems from the direct link between optical efficiency and battery life. Eye-Tracking & Calibration Modules are expanding fastest at 26.17% CAGR, fueled by AI-enabled gaze analytics. The virtual retinal display market size for Eye-Tracking is expected to widen as MEMS mirrors remain supply-constrained, nudging integrators toward software-centric precision monitoring. Texas Instruments’ DLPC8445 controller shrinks by 90% while driving 4K UHD, proving backend silicon keeps pace with front-end lasers.

Optical Combiners and Waveguides are advancing through collaborations such as DigiLens and Avegant, which merge transparent waveguides with retinal projectors. Meanwhile, Q-Pixel’s 10,000 PPI tunable polychromatic LEDs hint at single-pixel architectures that could lower alignment tolerances and yield gains. As vertical integration deepens, component vendors that control both emitters and control electronics command sustainable margins.

By Product Type: AR Glasses Lead Market Transformation

AR Smart Glasses delivered 40.35% of virtual retinal display market revenue in 2025, cementing their role as the anchor hardware category. Implantable/Low-Vision Aids, though smaller today, will post a 26.45% CAGR to 2031 as aging populations and insurer reimbursement accelerate uptake. The virtual retinal display market size for therapeutic aids is poised to climb because clinical evidence keeps expanding. Investments such as Quanta Computer’s additional USD 5 million in Vuzix improve waveguide throughput, signaling contract manufacturing’s growing influence.

Standalone Retinal Projection Headsets persist in defense and industrial simulation niches where long-mission runtimes justify dedicated power packs. Automotive HUDs await qualified MEMS mirrors, which restrains volume scaling despite Texas Instruments’ new DLP4620S-Q1 automotive micromirror introduction through Mouser in March 2025. Market skews show consumer convenience versus professional specialization, and suppliers must balance the two roadmaps.

By Application: Medical Dominance Faces Gaming Challenge

Medical and Life Sciences applications comprised 37.65% of virtual retinal display market revenue in 2025, supported by Europe’s generous reimbursement and Japan’s national vision-care policies. Consumer Electronics & Gaming, projected to grow at 24.84% CAGR, is next in line as latency and speckle issues are engineered out. Aerospace & Defense contracts such as Kopin’s microLED awards widen recurring revenue, while Industrial Training taps AI eye-tracking to adapt curricula dynamically.

The virtual retinal display market size for consumer gaming will depend on solving laser coherence artifacts that currently limit fast-motion scenes. Conversely, regulated medical pathways, though complex, create high-margin niches once approvals are granted. Thus developers often pursue dual portfolios: premium therapeutic devices for cash flow stability and mass-market gaming models for scale upside.

By Resolution: 4K+ Growth Challenges Infrastructure

Full HD retained 29.12% share in 2025 because it balances clarity with thermal and battery constraints. Above 4K formats, however, are racing ahead at 28.07% CAGR, driven by flight simulation and e-sports that demand photorealism. The virtual retinal display market size for Above 4K panels will expand as silicon-carbide substrates improve thermal paths.

Yet, processing overhead rises proportionally: a 4K retinal engine needs more than double the pixel-rate of a 1080p equivalent. Research on 2,117 PPI liquid-crystal displays proves feasibility but spotlights power draw hurdles. Consequently, vendors are integrating edge AI chips to compress rendering workloads closer to the eye.

Complete Report Scope:

• By Component
  • Display Light Source (RGB Laser, Micro-LED, OLED)
  • MEMS Scanning Unit
  • Driver and Control Electronics
  • Eye-Tracking and Calibration Module
  • Optical Combiner and Waveguide
  • Others
• By Product Type
  • Standalone Retinal Projection Headsets
  • Augmented-Reality Smart Glasses
  • Automotive Head-Up Displays
  • Implantable/Low-Vision Aids
  • Others
• By Application
  • Medical and Life Sciences
  • Aerospace and Defense
  • Consumer Electronics and Gaming
  • Automotive and Transportation
  • Industrial, Education and Training
• By Resolution
  • HD (Upto 720p)
  • Full HD (1080p)
  • 2K-4K
  • Above 4K
• By Geography
  • North America
    • United States
    • Canada
    • Mexico
  • Europe
    • Germany
    • United Kingdom
    • France
    • Nordics
    • Rest of Europe
  • South America
    • Brazil
    • Rest of South America
  • Asia-Pacific
    • China
    • Japan
    • India
    • South-East Asia
    • Rest of Asia-Pacific
  • Middle East and Africa
    • Middle East
      • Gulf Cooperation Council Countries
      • Turkey
      • Rest of Middle East
    • Africa
      • South Africa
      • Rest of Africa

Geography Analysis

Asia-Pacific held 27.45% revenue share in 2025 and is forecast to compound 26.94% annually through 2031, reflecting unmatched semiconductor fabs, optics polishing supply chains, and domestic consumer appetites. China’s foundry incentives push down laser-die pricing, and Japan’s healthcare system actively deploys therapeutic devices for age-related degeneration. South Korea’s display giants couple OLED competencies with MicroLED pilot lines, while Taiwan tightens backend packaging yields.

North America leverages defense budgets and university R&D. The virtual retinal display market benefits from the U.S. Army’s successive microLED contracts and CHIPS-Act-backed silicon-photonics fabs that localize critical optics. Canada offers streamlined medical-device reviews, making it an attractive first-in-region for therapeutic launches, and Mexico’s maquiladora corridors provide tariff-free final assembly for export within North America.

Europe remains regulatory pacesetter. Class-1 laser regulations, coupled with the Valeda photobiomodulation precedent, furnish predictable frameworks that manufacturers can replicate globally. Germany and Switzerland merge precision optics machining with med-tech funding, fostering an ecosystem tailored to high-value medical displays. Nordic early-adopters test lifestyle-oriented AR eyewear, providing feedback loops for battery life and ergonomics. EU energy directives additionally steer suppliers toward low-power designs, giving European players leverage in sustainability-minded markets.

Regulatory Landscape

Virtual retinal displays are shaped by laser-product safety rules, and for therapeutic and implantable uses, by medical-device regulatory pathways. In the United States, laser-based near-eye and retinal-projection products must meet FDA laser product performance requirements under 21 CFR 1040.10 (and 1040.11 where applicable), including accessible emission limits and labeling. FDA also supports conformance routes aligned to IEC 60825-1 (Edition 3) for demonstrating compliance when the required declarations and documentation are provided, which affects how VRD OEMs prepare test reports, labeling, and technical files across consumer and defense-grade programs.

Standardization is also tightening around how raster-scanning retina direct projection performance is measured, with IEC 62906-5-5:2022 specifying optical measurement methods for RS-RDP laser displays. Trade and IP enforcement further influence go-to-market choices: a 2025 U.S. Customs and Border Protection ruling (HQ H345669) pointed to how country-of-origin and tariff exposure for smart glasses can depend on where the core PCBA is manufactured. Separately, USITC Section 337 proceedings involving certain electronic eyewear products remained active into mid-2026, reinforcing exclusion-order risk for suppliers operating in crowded near-eye display IP spaces.

Value Chain Analysis

The VRD value chain begins with specialized upstream components, including laser or microLED emitters, MEMS scanning units, driver and control ICs, eye-tracking and calibration sensors, plus optical combiners or waveguides that package light into glasses-grade form factors. Emission sources and scanning subsystems are concentrated among a limited set of compound-semiconductor and precision-MEMS supply bases. Optical fabrication (waveguides and advanced combiners) is often a practical bottleneck due to yield sensitivity and the tight tolerances needed for eye-box performance, field-of-view targets, and safety compliance.

Midstream integrators assemble these building blocks into optical engines and reference designs, and OEMs and EMS partners then industrialize assemblies for AR smart glasses, medical and low-vision aids, and defense wearables. Partnerships increasingly connect emitter and module expertise to reduce integration risk, including the June 2026 business cooperation between TDK and QD Laser to jointly develop RGB light source modules and optical engines using QD Laser retinal projection technology. Downstream channels split between regulated clinical deployment (where documentation, service networks, and reimbursement pathways matter) and consumer or enterprise wearables (where contract manufacturing scale, waveguide throughput, and component cost-down requirements shape adoption).

Competitive Landscape

The virtual retinal display market features medium fragmentation. Horizontal suppliers such as Texas Instruments guard micromirror patents that underpin DLP architecture, while vertically integrated challengers like Kopin advance MicroLED emitters and driver ICs. Partnerships overshadow outright acquisitions; Google’s tie-up with Magic Leap aligns cloud AI with retinal optics to shortcut the end-to-end software stack.

Contract manufacturing is the new battleground. Vuzix joined forces with Quanta Computer to multiply waveguide output, shifting risk from optical startups to EMS powerhouses. Meanwhile, Q-Pixel and SolidddVision pursue niche disruption: the former by collapsing RGB into a single tunable pixel and the latter by focusing on macular-degeneration aids. Supply constraints around automotive-grade MEMS mirrors create white-space for new entrants able to certify devices faster.

Three technology clusters emerge. First, defense-grade systems emphasize brightness and ruggedization, leaning on public funding to mature new emitters. Second, therapeutic platforms concentrate on regulatory know-how and clinician networks. Third, consumer electronics players balance price with weight and style, betting that silicon photonics will keep BOMs within reach. Cross-licensing between clusters increases as core IP—waveguides, controllers, eye-tracking—converges.

Market Opportunities and Future Outlook

Product and component roadmaps are creating whitespace for standardized, manufacturable optical engines for AR smart glasses, particularly where OEMs want to avoid bespoke, one-off integrations across lasers, scanners, controllers, and safety subsystems. The June 2026 TDK and QD Laser cooperation to co-develop RGB light source modules and optical engines is a concrete signal that suppliers are packaging retinal projection capabilities into more repeatable modules, which can reduce OEM design cycles and broaden the set of device makers beyond vertically integrated incumbents.

A second opportunity area is the move toward alternative retinal-projection architectures that lessen dependence on laser sources or improve ergonomics and field-of-view constraints that have constrained consumer-grade designs. Academic prototypes disclosed in 2026 include an active retinal projection display approach using pixel-to-pixel collimated microLED arrays (reported by Huazhong University of Science and Technology) and curved-waveguide retinal projection concepts aimed at wide field-of-view and usable depth-of-field. As these architectures mature alongside fast-growing eye-tracking and calibration modules within the broader VRD bill of materials, suppliers able to provide safety-compliant optical modules, repeatable calibration workflows, and higher-yield waveguide and combiner manufacturing have clear paths to expand across medical, defense, and consumer electronics programs.

Recent Industry Developments

• July 2026: Magic Leap announced a strategic shift to focus on supplying AR waveguides, emphasizing its proprietary waveguide manufacturing capabilities for scaled production. The move aligns the company more directly with the VRD ecosystem by strengthening a critical optical-combiner node that influences yield, form factor, and overall device cost for glasses-grade designs.
• December 2025: Magic Leap signed an agreement with Pegatron to collaborate on high-volume manufacturing of AR glasses components, including waveguides. Working with a large-scale manufacturing partner supports process industrialization and throughput improvements that are central to meeting consumer-electronics supply requirements for near-eye display platforms.
• May 2024: Magic Leap entered into a multi-faceted technology partnership with Google to collaborate on XR solutions. The collaboration connected a waveguide-focused optics stack with a major platform ecosystem, reinforcing the importance of end-to-end hardware and software integration for next-generation wearable display products.

List of Companies Covered in this Report:

• Avegant Corporation
• QD Laser, Inc.
• Magic Leap, Inc.
• Texas Instruments Incorporated
• Himax Technologies, Inc.
• eMagin Corporation
• Vuzix Corporation
• OmniVision Technologies, Inc.
• Sony Group Corporation
• Kopin Corporation
• STMicroelectronics N.V.
• MicroVision, Inc.
• SeeYa Technology Co., Ltd.
• Syndiant, Inc.
• DigiLens Inc.
• Lumus Ltd.
• Mojo Vision Inc.
• Analogix Semiconductor, Inc.
• Jenoptik AG
• Corning Incorporated
• Optivent
• Human Interface Technology Laboratory

Additional Benefits:

• The market estimate (ME) sheet in Excel format
• 3 months of analyst support

Table of Contents

1 INTRODUCTION
1.1 Study Assumptions and Market Definition
1.2 Scope of the Study

2 RESEARCH METHODOLOGY

3 EXECUTIVE SUMMARY

4 MARKET LANDSCAPE
4.1 Market Overview
4.2 Market Drivers
4.2.1 Surging Demand for Ultra-Compact Near-Eye Displays in Military Smart Helmets
4.2.2 Rapid Adoption of Retinal Projection Aids for Low-Vision Patients across Japan and DACH
4.2.3 Shift from Screen-Based to Screen-Less AR Wearables Driven by Silicon-Photonics Cost Drops in U.S.
4.2.4 Vision-Safe Class-1 Laser Regulations Enabling Wider Consumer Adoption in EU
4.2.5 Integration of AI Eye-Tracking Modules Boosting Immersive Training Simulators in North America
4.3 Market Restraints
4.3.1 High Per-Unit Laser Scanner ASPs Causing BOM Pressures below USD 400 AR Glass Price-Point
4.3.2 Complex FDA and MDR Pathways for Implantable/Therapeutic VRDs
4.3.3 Latency and Speckle Artifacts in RGB-Laser Engines Limiting Gaming Experience
4.3.4 Shortage of Automotive-Grade MEMS Mirrors (AEC-Q100) for Head-Up Displays
4.4 Industry Ecosystem Analysis
4.5 Technological Outlook
4.6 Porter’s Five Forces Analysis
4.6.1 Bargaining Power of Suppliers
4.6.2 Bargaining Power of Buyers
4.6.3 Threat of New Entrants
4.6.4 Threat of Substitutes
4.6.5 Intensity of Competitive Rivalry

5 MARKET SIZE AND GROWTH FORECASTS (VALUES)
5.1 By Component
5.1.1 Display Light Source (RGB Laser, Micro-LED, OLED)
5.1.2 MEMS Scanning Unit
5.1.3 Driver and Control Electronics
5.1.4 Eye-Tracking and Calibration Module
5.1.5 Optical Combiner and Waveguide
5.1.6 Others
5.2 By Product Type
5.2.1 Standalone Retinal Projection Headsets
5.2.2 Augmented-Reality Smart Glasses
5.2.3 Automotive Head-Up Displays
5.2.4 Implantable/Low-Vision Aids
5.2.5 Others
5.3 By Application
5.3.1 Medical and Life Sciences
5.3.2 Aerospace and Defense
5.3.3 Consumer Electronics and Gaming
5.3.4 Automotive and Transportation
5.3.5 Industrial, Education and Training
5.4 By Resolution
5.4.1 HD (Upto 720p)
5.4.2 Full HD (1080p)
5.4.3 2K-4K
5.4.4 Above 4K
5.5 By Geography
5.5.1 North America
5.5.1.1 United States
5.5.1.2 Canada
5.5.1.3 Mexico
5.5.2 Europe
5.5.2.1 Germany
5.5.2.2 United Kingdom
5.5.2.3 France
5.5.2.4 Nordics
5.5.2.5 Rest of Europe
5.5.3 South America
5.5.3.1 Brazil
5.5.3.2 Rest of South America
5.5.4 Asia-Pacific
5.5.4.1 China
5.5.4.2 Japan
5.5.4.3 India
5.5.4.4 South-East Asia
5.5.4.5 Rest of Asia-Pacific
5.5.5 Middle East and Africa
5.5.5.1 Middle East
5.5.5.1.1 Gulf Cooperation Council Countries
5.5.5.1.2 Turkey
5.5.5.1.3 Rest of Middle East
5.5.5.2 Africa
5.5.5.2.1 South Africa
5.5.5.2.2 Rest of Africa

6 COMPETITIVE LANDSCAPE
6.1 Market Concentration
6.2 Strategic Moves
6.3 Market Share Analysis
6.4 Company Profiles (includes Global Level Overview, Market Level Overview, Core Segments, Financials as available, Strategic Information, Market Rank/Share for key companies, Products and Services, and Recent Developments)
6.4.1 Avegant Corporation
6.4.2 QD Laser, Inc.
6.4.3 Magic Leap, Inc.
6.4.4 Texas Instruments Incorporated
6.4.5 Himax Technologies, Inc.
6.4.6 eMagin Corporation
6.4.7 Vuzix Corporation
6.4.8 OmniVision Technologies, Inc.
6.4.9 Sony Group Corporation
6.4.10 Kopin Corporation
6.4.11 STMicroelectronics N.V.
6.4.12 MicroVision, Inc.
6.4.13 SeeYa Technology Co., Ltd.
6.4.14 Syndiant, Inc.
6.4.15 DigiLens Inc.
6.4.16 Lumus Ltd.
6.4.17 Mojo Vision Inc.
6.4.18 Analogix Semiconductor, Inc.
6.4.19 Jenoptik AG
6.4.20 Corning Incorporated
6.4.21 Optivent
6.4.22 Human Interface Technology Laboratory

7 MARKET OPPORTUNITIES AND FUTURE OUTLOOK
7.1 White-Space and Unmet-Need Assessment

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