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US Photonic Integrated Circuits (PICs) Market

US Photonic Integrated Circuits (PICs) Market By Integration Type (Monolithic Integration, Hybrid Integration); By Raw Material (Indium Phosphide (InP), Silicon (Si), Silicon Nitride (SiN)); By Components (Lasers, Modulators, Detectors, Waveguides, Multiplexers/Demultiplexers); By Application (Telecommunications, Data Centers, Sensing); By End User (Telecommunication Service Providers, Data Center Operators, Healthcare, Defense and Aerospace, Manufacturing and Industrial); By Region – Growth, Share, Opportunities & Competitive Analysis, 2024 – 2032

Summary
Table Of Content

REPORT ATTRIBUTE	DETAILS
Historical Period	2019-2022
Base Year	2023
Forecast Period	2024-2032
US Photonic Integrated Circuits (PICs) Market Size 2023	USD 2,935.30 million
US Photonic Integrated Circuits (PICs) Market, CAGR	21.31%
US Photonic Integrated Circuits (PICs) Market Size 2032	USD 16,793.18 million

Market Overview

The US Photonic Integrated Circuits (PICs) Market is projected to grow from USD 2,935.30 million in 2023 to an estimated USD 16,793.18 million by 2032, with a compound annual growth rate (CAGR) of 21.31% from 2024 to 2032. This significant growth is driven by the increasing demand for high-speed data transmission, advancements in optical communication technologies, and the rising adoption of PICs in various industries, including telecommunications, healthcare, and data centers.

Key drivers of this market include the surge in data traffic, the need for enhanced network bandwidth, and the benefits of PICs in reducing energy consumption and system costs. Trends such as the development of silicon photonics, which integrates optical and electronic components on a single chip, are also fueling market growth. The push for more sustainable and energy-efficient technologies further supports the adoption of PICs across different sectors, including automotive and aerospace.

Geographically, the United States leads the market, driven by strong research and development activities and the presence of key players. The Western region, particularly Silicon Valley, serves as a hub for innovation in photonics and semiconductor technologies. Key players in the market include Infinera Corporation, Lumentum Holdings Inc., Intel Corporation, and Cisco Systems, Inc., who are continuously investing in new product developments and strategic collaborations to maintain a competitive edge. This regional dominance is bolstered by favorable government initiatives and funding to support technological advancements in photonic integration.

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Market Drivers

Rising Demand for High-Speed Data Transmission

The rapid increase in data consumption and the growing need for faster and more efficient data transmission are primary drivers for the US PICs market. As industries and consumers demand higher internet speeds and more reliable connectivity, traditional electronic systems face limitations in terms of speed and bandwidth. PICs offer a compelling solution by utilizing light rather than electrical signals, enabling significantly faster data transmission rates. This capability is particularly crucial in sectors such as telecommunications, data centers, and cloud computing, where the volume of data is exponentially increasing. For instance, according to a report, the United States mobile data market is expected to witness substantial growth, driven by the increasing adoption of 5G infrastructure and the surge in mobile data usage. Major telecom providers like Verizon and AT&T are investing heavily in expanding their 5G networks across the country, further accelerating the demand for high-speed data transmission solutions like PICs. The push for high-speed 5G networks and the expansion of data centers across the US are further accelerating the adoption of PICs, positioning them as a critical technology for modern communication infrastructure.

Technological Advancements in Silicon Photonics

Technological innovations in silicon photonics, which integrate photonic and electronic components on a single silicon chip, are a significant market driver. Silicon photonics technology has been pivotal in reducing the size, cost, and power consumption of photonic components, making them more accessible and scalable for various applications. The ability to fabricate photonic components using standard semiconductor manufacturing processes has attracted substantial investment from major technology companies and venture capitalists. This has led to the development of new and improved PICs that are not only cost-effective but also highly efficient. A recent study highlights the breakthroughs in silicon photonics technology, particularly in the areas of telecommunications, biosensing, and gas sensing. The research confirms the advantages of silicon photonics, such as enhanced performance, affordability, and integration possibilities, which are driving its adoption across multiple industries. The versatility of silicon photonics extends to multiple industries, including healthcare, where it enables advanced imaging and diagnostic technologies, and in consumer electronics, where it enhances device functionality and performance. The ongoing research and development in this area promise to unlock new applications and market opportunities for PICs.

Energy Efficiency and Cost Reduction

Energy efficiency is a critical concern for modern data centers and telecommunications infrastructure, which consume significant amounts of power. Photonic Integrated Circuits offer a solution by providing energy-efficient alternatives to traditional electronic systems. PICs require less power to operate, primarily because they use light, which generates less heat compared to electronic circuits. This reduction in heat output also decreases the need for extensive cooling systems, further lowering energy consumption and operational costs. A report by the U.S. Department of Energy in 2023 highlighted that the adoption of PIC-based optical interconnects in data centers could potentially reduce energy consumption by up to 30% compared to traditional electrical interconnects, emphasizing the importance of energy efficiency in driving the adoption of PICs. Additionally, PICs reduce the physical size and weight of components, leading to cost savings in terms of materials and assembly. The cumulative effect of these efficiencies is a compelling economic incentive for industries to adopt PICs. As companies strive to reduce their carbon footprint and meet regulatory standards for energy consumption, the demand for energy-efficient technologies like PICs is expected to grow.

Increasing Applications Across Industries

The versatility of Photonic Integrated Circuits is expanding their application across various industries, driving market growth. In telecommunications, PICs are essential for enhancing the capacity and performance of fiber-optic networks. They are also crucial in data centers, where they help manage the growing data loads by enabling faster and more efficient data transfer. In the healthcare sector, PICs are used in medical devices for imaging and diagnostic purposes, offering high precision and reliability. The automotive industry leverages PICs for advanced driver-assistance systems (ADAS) and autonomous vehicle technologies, where they contribute to improved sensing and communication capabilities. Moreover, the defense and aerospace sectors use PICs for secure communications and advanced sensing applications. The broadening scope of applications highlights the critical role of PICs in driving innovation and efficiency across various technological landscapes. As industries continue to explore and implement photonic solutions, the market for PICs is poised for sustained growth.

Market Trends

Integration of Artificial Intelligence and Machine Learning

One of the most significant trends in the US Photonic Integrated Circuits (PICs) market is the increasing integration of artificial intelligence (AI) and machine learning (ML) technologies. These advanced technologies are being incorporated into PICs to enhance data processing capabilities and enable smarter, more efficient systems. AI and ML algorithms can optimize the performance of PICs by dynamically adjusting parameters to improve data transmission rates, reduce latency, and manage energy consumption. For instance, Lightelligence, a US-based startup, is developing photonic AI accelerators that leverage the power of light to perform complex computations. Their technology demonstrates ultra-low power consumption on the order of sub-femtojoules per bit, showcasing the potential of AI-driven PICs in energy-efficient computing. This integration is particularly valuable in data centers, telecommunications, and optical computing, where the need for real-time data analysis and decision-making is critical. Moreover, AI-driven PICs are finding applications in healthcare, enabling precise medical diagnostics and treatment planning. A study published in the Journal of Biophotonics in 2023 reported that a PIC-based OCT system developed by researchers at the University of California, Davis, demonstrated enhanced imaging resolution and faster scanning speeds compared to conventional OCT systems. This trend not only enhances the functionality of PICs but also expands their potential applications, positioning them as key components in next-generation technologies.

Growth of Silicon Photonics and Hybrid Integration

The growth of silicon photonics, along with the trend towards hybrid integration, is reshaping the PICs market. Silicon photonics, which involves the use of silicon as a medium for photonic circuits, has gained prominence due to its compatibility with existing semiconductor manufacturing processes and its potential for mass production. This technology allows for the integration of photonic and electronic components on a single chip, reducing costs and improving performance. For example, Intel Corporation inaugurated a Photonic Integrated Circuit (PIC) research center at its Santa Clara, California campus in 2023, dedicated to advancing PIC technologies with an emphasis on innovation for data center interconnects. Hybrid integration, on the other hand, involves combining different photonic materials and components into a single device to leverage the unique properties of each. This approach is particularly useful in achieving high-performance optical communication systems and sensing applications. Researchers from the University of California, Santa Barbara, have developed a novel high-performance hybrid integration technique for merging indium phosphide (InP) devices with silicon photonics, enabling the creation of multi-functional PICs that overcome the limitations of a single material platform. The trend towards these technologies is driven by the demand for smaller, more efficient, and cost-effective photonic devices. As a result, there is increased research and development activity aimed at advancing silicon photonics and hybrid integration techniques, with significant investments from both industry and government entities. A report by the U.S. Department of Energy in 2023 highlighted that the adoption of PIC-based optical interconnects in data centers could potentially reduce energy consumption by up to 30% compared to traditional electrical interconnects. This trend is expected to accelerate the adoption of PICs in a broader range of applications, from telecommunications and data centers to healthcare and consumer electronics.

Market Restraints and Challenges

High Initial Costs and Complex Manufacturing Processes

One of the primary restraints in the US Photonic Integrated Circuits (PICs) market is the high initial costs associated with developing and deploying PIC technology. The manufacturing processes for PICs, especially those involving silicon photonics, require specialized equipment and materials that can be expensive. Additionally, the fabrication of PICs often involves complex steps, including precision alignment of optical components and integration with electronic circuits, which increases production costs. These high upfront investments can be a barrier for smaller companies and startups, limiting market entry and innovation. Furthermore, the return on investment (ROI) for these high initial expenditures can be uncertain, particularly in a rapidly evolving technology landscape where newer, more advanced solutions may emerge quickly. This financial barrier may slow down the adoption rate of PICs, particularly in industries where cost sensitivity is high.

Technical Challenges and Standardization Issues

Technical challenges and the lack of standardization are significant hurdles in the widespread adoption of PICs. One of the key technical challenges is achieving efficient and reliable integration of photonic and electronic components on a single chip. This integration is critical for the functionality and performance of PICs but poses difficulties in terms of thermal management, signal loss, and packaging. Additionally, the industry faces a shortage of skilled professionals with expertise in photonic engineering and design, which can slow down innovation and development. Another major challenge is the lack of standardization across the industry, which hampers interoperability between different PIC technologies and products. This lack of standardization can lead to compatibility issues, making it difficult for end-users to integrate PICs into existing systems or across different platforms. Standardization is crucial for the scalability and mass adoption of PIC technology, as it facilitates manufacturing, reduces costs, and ensures consistent performance. Addressing these technical and standardization challenges is essential for the US PICs market to realize its full potential and expand its application across various industries.

Market Segmentation Analysis

By Type

Monolithic integration in photonic integrated circuits (PICs) involves placing all optical and electronic components on a single substrate, providing compact, reliable, and cost-effective solutions, particularly for applications requiring significant miniaturization, such as optical communication systems. Hybrid integration, on the other hand, combines different materials and components within a single circuit, leveraging their unique properties to enhance performance in specific applications like high-speed data transmission and sensing. This flexibility makes it suitable for complex and customized applications. Module integration involves assembling photonic and electronic components within a single module, simplifying system design and reducing assembly time, making it ideal for telecommunications and data communication infrastructure.

By Application

Photonic Integrated Circuits (PICs) are integral to telecommunications, significantly enhancing data transmission speed and bandwidth, which is crucial for developing high-capacity optical networks and expanding 5G infrastructure. In data centers and cloud computing, PICs efficiently manage increasing data traffic, reduce latency, and support faster communication systems. Their high sensitivity and precision make them ideal for advanced sensing applications in industries such as automotive, aerospace, and environmental monitoring. In the medical field, PICs are used in imaging, diagnostics, and therapeutic applications, offering high-resolution imaging and precise measurements. Additionally, PICs are being incorporated into consumer electronics to improve functionality, including high-speed data transfer, advanced display technologies, and wearable devices.

Segments

Based on Type

Monolithic Integration
Hybrid Integration
Module Integration

Based on Application

Telecommunications
Data Communication
Sensing
Medical
Consumer Electronics

Based on Component

Lasers
Modulators
Detectors
Optical Amplifiers
Multiplexers/De-multiplexers

Based on Raw Material

Indium Phosphide
Gallium Arsenide
Lithium Niobate
Silicon
Silica-on-Insulator

Based on Region

West Coast
East Coast
Midwest
South

Regional Analysis

West Coast (40%):

The West Coast, particularly Silicon Valley, holds a dominant position in the US PICs market, accounting for approximately 40% of the market share. This region is a global center for technology and innovation, housing major players in the semiconductor and photonics industries. Companies such as Intel Corporation, Cisco Systems, and Lumentum Holdings Inc. have significant operations here, leveraging the region’s strong research and development (R&D) infrastructure. The concentration of universities and research institutions also fuels innovation, leading to advancements in PIC technologies, particularly in silicon photonics. The West Coast’s robust ecosystem supports startups and fosters collaboration between academia and industry, driving the market’s growth.

East Coast (25%):

The East Coast, including key cities like New York and Boston, represents about 25% of the US PICs market. This region is known for its strong academic presence, with institutions such as MIT and Harvard leading research in photonics and related fields. The East Coast also benefits from a well-established industrial base, particularly in telecommunications and data communication sectors, which are major consumers of PIC technologies. The proximity to financial hubs and venture capital also supports funding for research and commercialization of new technologies. Additionally, the East Coast is home to a number of specialized companies focused on optical networking and sensing, contributing to the region’s market share.

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Key players

Intel Corporation
Mellanox Technologies
Lumentum Operations LLC
Infinera Corporation
Mitsubishi Electric Corporation
IBM Corporation
Cisco Systems, Inc.
STMicroelectronics N.V.
Agilent Technologies
Broadcom
NeoPhotonics Corporation

Competitive Analysis

The US Photonic Integrated Circuits (PICs) market is characterized by a competitive landscape where key players strive for technological innovation and market leadership. Intel Corporation and Cisco Systems, Inc. are dominant, leveraging their extensive R&D capabilities and strong market positions. Lumentum Operations LLC and Infinera Corporation focus on advanced optical components and networking solutions, catering to telecommunications and data center needs. STMicroelectronics N.V. and Mitsubishi Electric Corporation offer a range of semiconductor solutions, enhancing the integration of photonic and electronic components. Companies like NeoPhotonics Corporation and Mellanox Technologies are noted for their specialization in high-speed optical transmission systems. The market’s competitive dynamics are further shaped by strategic collaborations, mergers, and acquisitions, aiming to expand technological capabilities and market reach.

Recent Developments

In May 2023, ANELLO Photonics partnered with NVIDIA Inception to support startups focused on transformative technological advancements. The collaboration aims to utilize ANELLO’s patented photonic gyroscope integrated circuit technology to develop low-noise, low-drift optical sensors. This partnership seeks to drive innovation in optical sensor technology and support emerging businesses that are poised to revolutionize their respective industries with cutting-edge advancements.

In August 2022, DustPhotonics and MaxLinear formed a strategic partnership to demonstrate exceptional performance in their silicon photonics chipset. This collaboration integrates lasers directly driven by a digital signal processor (DSP), eliminating the need for an external driver chip. The joint effort highlights advancements in silicon photonics technology, aiming to enhance overall system performance and simplify design by reducing the number of required components.

In March 2022, Source Photonics introduced its Silicon-Photonics 400G DR4 QSFP56-DD products at OFC 2022. These transceivers are designed to work seamlessly with Source Photonics’ pump laser chip and exceed IEEE 802.3bs 400GBASE-DR4 and 400G AUI-8 specifications. They support connections up to 100GB ASEDR1 and 100GB ASEFR1 over distances exceeding 500 meters and 2 kilometers. With typical power consumption of 8W, a 7 nm DSP, and housed in a Type 2 FP QSDD form factor with an MPO-12 connector, these transceivers offer advanced optical performance.

In March 2023, iPronics introduced a versatile photonic chip designed for wireless signal processing, data centers, machine learning, and advanced computing applications. The company focuses on developing programmable photonic systems featuring adaptable optical hardware to cater to diverse application needs. This innovation aims to enhance the capabilities of photonic technology across various sectors, providing flexible and high-performance solutions.

In March 2022, EFFECT Photonics and Jabil Photonics collaborated to develop a new generation of coherent optical modules. These modules offer network operators and hyper-scalers a unique solution by combining the high performance of QSFP-DD with advantages such as compact design, low power consumption, cost-effectiveness, field replaceability, and vendor interoperability. These next-generation modules address the growing demands for increased data flow, service continuity, enhanced security, global expansion, and sustainability in cloud Data Center Interconnects (DCIs).

Market Concentration and Characteristics

The US Photonic Integrated Circuits (PICs) market is characterized by a moderate to high level of concentration, with a few key players holding significant market shares. Companies such as Intel Corporation, Cisco Systems, Inc., and Lumentum Holdings LLC dominate the landscape, leveraging their extensive technological expertise, advanced R&D capabilities, and strong industry presence. The market is highly competitive, driven by continuous innovation and the integration of advanced technologies like silicon photonics. These characteristics enable leading firms to maintain a competitive edge through strategic partnerships, mergers, and acquisitions, as well as ongoing investment in product development and commercialization. The market’s focus on high-performance, energy-efficient solutions is also shaping its evolution, with increasing applications across telecommunications, data centers, healthcare, and other sectors.

Report Coverage

The research report offers an in-depth analysis based on Type, Application, Component, Raw Material and Region. It details leading market players, providing an overview of their business, product offerings, investments, revenue streams, and key applications. Additionally, the report includes insights into the competitive environment, SWOT analysis, current market trends, as well as the primary drivers and constraints. Furthermore, it discusses various factors that have driven market expansion in recent years. The report also explores market dynamics, regulatory scenarios, and technological advancements that are shaping the industry. It assesses the impact of external factors and global economic changes on market growth. Lastly, it provides strategic recommendations for new entrants and established companies to navigate the complexities of the market.

Future Outlook

The deployment of 5G networks will drive demand for PICs, enhancing data transmission speeds and network capacity, crucial for supporting next-generation mobile services.

Increasing data traffic will fuel the growth of data centers, requiring efficient PICs to manage high-speed data transfer and storage, and optimizing energy consumption.

Ongoing research in silicon photonics will lead to more compact and cost-effective PICs, broadening their application in consumer electronics and telecommunications.

PICs will see expanded use in healthcare, particularly in imaging and diagnostic equipment, offering higher precision and efficiency in medical procedures.

The integration of AI and machine learning with PICs will enhance system performance, enabling smarter data processing and real-time analytics across various industries.

The development of quantum computing will create new opportunities for PICs, as their photonic properties are well-suited for quantum information processing.

Increasing emphasis on energy efficiency and sustainability will boost demand for PICs, which offer lower power consumption and reduced heat generation in electronic systems.

The versatility of PICs will enable their adoption in emerging markets such as autonomous vehicles and advanced sensing technologies, supporting innovation and new applications.

Industry efforts towards standardization and interoperability will facilitate wider adoption of PICs, simplifying integration and ensuring consistent performance across platforms.

Ongoing strategic partnerships and collaborations will accelerate innovation and commercialization, as companies combine resources to develop cutting-edge PIC solutions and expand market reach.

CHAPTER NO. 1 : INTRODUCTION 14

1.1.1. Report Description 14

Purpose of the Report 14

USP & Key Offerings 14

1.1.2. Key Benefits for Stakeholders 14

1.1.3. Target Audience 15

1.1.4. Report Scope 15

CHAPTER NO. 2 : EXECUTIVE SUMMARY 16

2.1. U.S. Photonic Integrated Circuits Market Snapshot 16

2.1.1. U.S. Photonic Integrated Circuits Market, 2018 – 2032 (USD Million) 17

CHAPTER NO. 3 : U.S. PHOTONIC INTEGRATED CIRCUITS MARKET – INDUSTRY ANALYSIS 18

3.1. Introduction 18

3.2. Market Drivers 19

3.2.1. Driving Factor 1 Analysis 19

3.2.2. Driving Factor 2 Analysis 20

3.3. Market Restraints 21

3.3.1. Restraining Factor Analysis 21

3.4. Market Opportunities 22

3.4.1. Market Opportunity Analysis 22

3.5. Porter’s Five Forces Analysis 23

CHAPTER NO. 4 : ANALYSIS COMPETITIVE LANDSCAPE 24

4.1. Company Market Share Analysis – 2023 24

4.1.1. U.S. Photonic Integrated Circuits Market: Company Market Share, by Volume, 2023 24

4.1.2. U.S. Photonic Integrated Circuits Market: Company Market Share, by Revenue, 2023 25

4.1.3. U.S. Photonic Integrated Circuits Market: Top 6 Company Market Share, by Revenue, 2023 25

4.1.4. U.S. Photonic Integrated Circuits Market: Top 3 Company Market Share, by Revenue, 2023 26

4.2. U.S. Photonic Integrated Circuits Market Company Volume Market Share, 2023 27

4.3. U.S. Photonic Integrated Circuits Market Company Revenue Market Share, 2023 28

4.4. Company Assessment Metrics, 2023 29

4.4.1. Stars 29

4.4.2. Emerging Leaders 29

4.4.3. Pervasive Players 29

4.4.4. Participants 29

4.5. Start-ups /SMEs Assessment Metrics, 2023 29

4.5.1. Progressive Companies 29

4.5.2. Responsive Companies 29

4.5.3. Dynamic Companies 29

4.5.4. Starting Blocks 29

4.6. Strategic Developments 30

4.6.1. Acquisitions & Mergers 30

New Product Launch 30

Regional Expansion 30

4.7. Key Players Product Matrix 31

CHAPTER NO. 5 : PESTEL & ADJACENT MARKET ANALYSIS 32

5.1. PESTEL 32

5.1.1. Political Factors 32

5.1.2. Economic Factors 32

5.1.3. Social Factors 32

5.1.4. Technological Factors 32

5.1.5. Environmental Factors 32

5.1.6. Legal Factors 32

5.2. Adjacent Market Analysis 32

CHAPTER NO. 6 : U.S. PHOTONIC INTEGRATED CIRCUITS MARKET – BY TYPE SEGMENT ANALYSIS 33

6.1. U.S. Photonic Integrated Circuits Market Overview, by Type Segment 33

6.1.1. U.S. Photonic Integrated Circuits Market Revenue Share, By Type, 2023 & 2032 34

6.1.2. U.S. Photonic Integrated Circuits Market Attractiveness Analysis, By Type 35

6.1.3. Incremental Revenue Growth Opportunity, by Type, 2024 – 2032 35

6.1.4. U.S. Photonic Integrated Circuits Market Revenue, By Type, 2018, 2023, 2027 & 2032 36

6.2. Monolithic Integration 37

6.3. Hybrid Integration 38

6.4. Module Integration 39

CHAPTER NO. 7 : U.S. PHOTONIC INTEGRATED CIRCUITS MARKET – BY APPLICATION SEGMENT ANALYSIS 40

7.1. U.S. Photonic Integrated Circuits Market Overview, by Application Segment 40

7.1.1. U.S. Photonic Integrated Circuits Market Revenue Share, By Application, 2023 & 2032 41

7.1.2. U.S. Photonic Integrated Circuits Market Attractiveness Analysis, By Application 42

7.1.3. Incremental Revenue Growth Opportunity, by Application, 2024 – 2032 42

7.1.4. U.S. Photonic Integrated Circuits Market Revenue, By Application, 2018, 2023, 2027 & 2032 43

7.2. Telecommunications 44

7.3. Data Communication 45

7.4. Sensing 46

7.5. Medical 47

7.6. Consumer Electronics 48

CHAPTER NO. 8 : U.S. PHOTONIC INTEGRATED CIRCUITS MARKET – BY COMPONENT SEGMENT ANALYSIS 49

8.1. U.S. Photonic Integrated Circuits Market Overview, by Component Segment 49

8.1.1. U.S. Photonic Integrated Circuits Market Revenue Share, By Component, 2023 & 2032 50

8.1.2. U.S. Photonic Integrated Circuits Market Attractiveness Analysis, By Component 51

8.1.3. Incremental Revenue Growth Opportunity, by Component, 2024 – 2032 51

8.1.4. U.S. Photonic Integrated Circuits Market Revenue, By Component, 2018, 2023, 2027 & 2032 52

8.2. Lasers 53

8.3. Modulators 54

8.4. Detectors 55

8.5. Optical Amplifiers 56

8.6. Multiplexers/De-multiplexers 57

CHAPTER NO. 9 : U.S. PHOTONIC INTEGRATED CIRCUITS MARKET – BY RAW MATERIALS SEGMENT ANALYSIS 58

9.1. U.S. Photonic Integrated Circuits Market Overview, by Raw Materials Segment 58

9.1.1. U.S. Photonic Integrated Circuits Market Revenue Share, By Raw Materials, 2023 & 2032 59

9.1.2. U.S. Photonic Integrated Circuits Market Attractiveness Analysis, By Raw Materials 60

9.1.3. Incremental Revenue Growth Opportunity, by Raw Materials, 2024 – 2032 60

9.1.4. U.S. Photonic Integrated Circuits Market Revenue, By Raw Materials, 2018, 2023, 2027 & 2032 61

9.2. Indium Phosphide 62

9.3. Gallium Arsenide 63

9.4. Lithium Niobate 64

9.5. Silicon 65

9.6. Silica-on-Insulator 66

CHAPTER NO. 10 : COMPANY PROFILES 67

10.1. Intel Corporation 67

10.1.1. Company Overview 67

10.1.2. Product Portfolio 67

10.1.3. Swot Analysis 67

10.1.4. Business Strategy 68

10.1.5. Financial Overview 68

10.2. Mellanox Technologies 69

10.3. Lumentum Operations LLC 69

10.4. Infinera Corporation 69

10.5. Mitsubishi Electric Corporation 69

10.6. IBM Corporation 69

10.7. Cisco Systems, Inc. 69

10.8. STMicroelectronics N.V. 69

10.9. Agilent Technologies 69

10.10. Broadcom 69

10.11. NeoPhotonics Corporation 69

CHAPTER NO. 11 : RESEARCH METHODOLOGY 70

11.1. Research Methodology 70

11.1.1. Phase I – Secondary Research 71

11.1.2. Phase II – Data Modeling 71

Company Share Analysis Model 72

Revenue Based Modeling 72

11.1.3. Phase III – Primary Research 73

11.1.4. Research Limitations 74

Assumptions 74

List of Figures

FIG NO. 1. U.S. Photonic Integrated Circuits Market Revenue, 2018 – 2032 (USD Million) 17

FIG NO. 2. Porter’s Five Forces Analysis for U.S. Photonic Integrated Circuits Market 23

FIG NO. 3. Company Share Analysis, 2023 24

FIG NO. 4. Company Share Analysis, 2023 25

FIG NO. 5. Company Share Analysis, 2023 25

FIG NO. 6. Company Share Analysis, 2023 26

FIG NO. 7. U.S. Photonic Integrated Circuits Market – Company Volume Market Share, 2023 27

FIG NO. 8. U.S. Photonic Integrated Circuits Market – Company Revenue Market Share, 2023 28

FIG NO. 9. U.S. Photonic Integrated Circuits Market Revenue Share, By Type, 2023 & 2032 34

FIG NO. 10. Market Attractiveness Analysis, By Type 35

FIG NO. 11. Incremental Revenue Growth Opportunity by Type, 2024 – 2032 35

FIG NO. 12. U.S. Photonic Integrated Circuits Market Revenue, By Type, 2018, 2023, 2027 & 2032 36

FIG NO. 13. U.S. Photonic Integrated Circuits Market for Monolithic Integration, Revenue (USD Million) 2018 – 2032 37

FIG NO. 14. U.S. Photonic Integrated Circuits Market for Hybrid Integration, Revenue (USD Million) 2018 – 2032 38

FIG NO. 15. U.S. Photonic Integrated Circuits Market for Module Integration, Revenue (USD Million) 2018 – 2032 39

FIG NO. 16. U.S. Photonic Integrated Circuits Market Revenue Share, By Application, 2023 & 2032 41

FIG NO. 17. Market Attractiveness Analysis, By Application 42

FIG NO. 18. Incremental Revenue Growth Opportunity by Application, 2024 – 2032 42

FIG NO. 19. U.S. Photonic Integrated Circuits Market Revenue, By Application, 2018, 2023, 2027 & 2032 43

FIG NO. 20. U.S. Photonic Integrated Circuits Market for Telecommunications, Revenue (USD Million) 2018 – 2032 44

FIG NO. 21. U.S. Photonic Integrated Circuits Market for Data Communication, Revenue (USD Million) 2018 – 2032 45

FIG NO. 22. U.S. Photonic Integrated Circuits Market for Sensing, Revenue (USD Million) 2018 – 2032 46

FIG NO. 23. U.S. Photonic Integrated Circuits Market for Medical, Revenue (USD Million) 2018 – 2032 47

FIG NO. 24. U.S. Photonic Integrated Circuits Market for Consumer Electronics, Revenue (USD Million) 2018 – 2032 48

FIG NO. 25. U.S. Photonic Integrated Circuits Market Revenue Share, By Component, 2023 & 2032 50

FIG NO. 26. Market Attractiveness Analysis, By Component 51

FIG NO. 27. Incremental Revenue Growth Opportunity by Component, 2024 – 2032 51

FIG NO. 28. U.S. Photonic Integrated Circuits Market Revenue, By Component, 2018, 2023, 2027 & 2032 52

FIG NO. 29. U.S. Photonic Integrated Circuits Market for Lasers, Revenue (USD Million) 2018 – 2032 53

FIG NO. 30. U.S. Photonic Integrated Circuits Market for Modulators, Revenue (USD Million) 2018 – 2032 54

FIG NO. 31. U.S. Photonic Integrated Circuits Market for Detectors, Revenue (USD Million) 2018 – 2032 55

FIG NO. 32. U.S. Photonic Integrated Circuits Market for Optical Amplifiers, Revenue (USD Million) 2018 – 2032 56

FIG NO. 33. U.S. Photonic Integrated Circuits Market for Multiplexers/De-multiplexers, Revenue (USD Million) 2018 – 2032 57

FIG NO. 34. U.S. Photonic Integrated Circuits Market Revenue Share, By Raw Materials, 2023 & 2032 59

FIG NO. 35. Market Attractiveness Analysis, By Raw Materials 60

FIG NO. 36. Incremental Revenue Growth Opportunity by Raw Materials, 2024 – 2032 60

FIG NO. 37. U.S. Photonic Integrated Circuits Market Revenue, By Raw Materials, 2018, 2023, 2027 & 2032 61

FIG NO. 38. U.S. Photonic Integrated Circuits Market for Indium Phosphide, Revenue (USD Million) 2018 – 2032 62

FIG NO. 39. U.S. Photonic Integrated Circuits Market for Gallium Arsenide, Revenue (USD Million) 2018 – 2032 63

FIG NO. 40. U.S. Photonic Integrated Circuits Market for Lithium Niobate, Revenue (USD Million) 2018 – 2032 64

FIG NO. 41. U.S. Photonic Integrated Circuits Market for Silicon, Revenue (USD Million) 2018 – 2032 65

FIG NO. 42. U.S. Photonic Integrated Circuits Market for Silica-on-Insulator, Revenue (USD Million) 2018 – 2032 66

FIG NO. 43. Research Methodology – Detailed View 70

FIG NO. 44. Research Methodology 71

List of Tables

TABLE NO. 1. : U.S. Photonic Integrated Circuits Market: Snapshot 17

TABLE NO. 2. : Drivers for the U.S. Photonic Integrated Circuits Market: Impact Analysis 20

TABLE NO. 3. : Restraints for the U.S. Photonic Integrated Circuits Market: Impact Analysis 22

Frequently Asked Questions:

What is driving the growth of the US Photonic Integrated Circuits (PICs) market?

The market’s growth is driven by increasing demand for high-speed data transmission, advancements in optical communication technologies, and the rising adoption of PICs across industries such as telecommunications, healthcare, and data centers.

How significant is the projected growth for the US PICs market?

The US PICs market is projected to grow from USD 2,935.30 million in 2023 to USD 16,793.18 million by 2032, with a compound annual growth rate (CAGR) of 21.31% from 2024 to 2032, indicating substantial growth potential.

What are some key trends in the US PICs market?

Key trends include the development of silicon photonics, integration of AI and machine learning with PICs, and a focus on energy-efficient and sustainable technologies, all of which drive market innovation and expansion

Which regions in the US lead the PICs market, and why?

The West Coast, particularly Silicon Valley, leads the market due to its strong R&D infrastructure and concentration of key players. The East Coast also holds a significant share, driven by academic research and industrial base.

Who are the major players in the US PICs market?

Major players include Intel Corporation, Cisco Systems, Lumentum Holdings Inc., Infinera Corporation, and IBM Corporation, among others, all investing in product development and strategic collaborations to maintain their competitive edge.

Sushant Phapale

ICT & Automation Expert

Sushant is an expert in ICT, automation, and electronics with a passion for innovation and market trends.

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