Global Optical Transceiver Market – Industry Analysis and Forecast (2019-2027) – By Form Factor, Wavelength, Fiber Type, Distance, Application, and Region.


Global optical transceiver market size was US$ XX Bn in 2019 and is expected to reach US$ XX Bn by 2027, at a CAGR of 10% during the forecast period.

 

Global Optical Transceiver Market

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The report study has analyzed the revenue impact of COVID -19 pandemic on the sales revenue of market leaders, market followers, and market disrupters in the report, and the same is reflected in our analysis.

Market Definition

An Optical transceiver is a small and powerful device that uses fiber optical technology to transmit and receive data. This data travels across extremely long distances and at very high speeds. The transceiver is an essential component of a fiber-optic network as it is used to convert light signals into electrical signals and vice versa.

Market Dynamics

Growing adoption of optical transceivers in networking hardware installations as they allow switches to support a variety of types of transmission and wiring formats is the major driving factor behind the growth of the market. Increasing data traffic, growing demand of smart devices and high data transfer capabilities, rising requirements for cloud computing applications, surge in the demand for small and energy-efficient transceivers, growing technological advancements in 5G infrastructure, the rising market for telecommunication industry across the globe and availability of various types of optical transceivers in different sizes and shapes are expected to improve the growth of the market during the forecast period. The Optical transceiver provides some benefits such as high bandwidth, longer distance, low-security risks, and lightweight design, which are ultimately propelling the growth of the market.

However, difficult installation, fragility, and higher cost are major restraining factors that could hamper the growth of the market. Also, rising network complexity and continuous changes in consumer demands could restrict the growth of market.

Global Optical Transceiver Market: Segmentation Analysis

By form factor, QSFP, QSFP+, QSFP14, and QSFP28 segment are expected to witness fast growth at CAGR of XX% during the forecast period. QSFP stands for quad (4-channel) small form-factor pluggable optics transceiver. Growing adoption of QSFB optical transceivers for data communications applications such as in 40 Gigabit Ethernet (40GbE) due to its compact, high performance, and low power consumption benefits is driving the growth of the market. Increasing requirements for QSFP optical transceivers for the applications of data centre, infiniband, service provider applications, enterprise core, and other data communication standards is expected to improve growth of the market during the forecast period. Rising adoption of QSFP in routers, Ethernet switches, network interface cards, and firewalls are further propelling the growth of the market.

By application, data centre segments dominated the market in 2019 and is expected to maintain its dominance at CAGR of XX% during the forecast period. Growing switch towards cloud storage, rising technological advancements in technologies such as deep learning, artificial intelligence, and machine learning and therefore increasing demand for high bandwidth and high-density optical transceivers for efficient data communication is driving the growth of the market in data centre application. Continuous developments and new deployments along with continuously evolving network architecture in data centres to achieve nonblocking network performance have increased the demand for high-speed optical transceivers, which is ultimately propelling the growth of the market. Moreover, growing transmission capacity demands in hyper-scale data centres and optical backbone network is driving the demand for next-generation transmission platforms like optical transceivers.

Regional Analysis

Region-wise, North America held the largest market share in 2019 and is expected to maintain its dominance at CAGR of XX% during the forecast period. The US and Canada are major key contributors behind the growth of the market. The growth is attributed to the massive presence of the world’s largest cloud providers and data centres in the US.
The increasing requirement for mobile data through wireless connectivity, demand for high data speed communication, and growing technological advancements in 5G network infrastructure are driving the growth of the market in the region.

 Key Development

In March 2020, II‐VI Incorporated a leader in coherent optics announced the introduction of the 400G CFP2-DCO, its first module to support high-performance 400 Gbps coherent transmission in a pluggable form factor for high-speed optical backbone networks and data centre interconnects.

In Feb 2020, II‐VI Incorporated announced the availability of its portfolio of integrated circuits (ICs) for high-speed transceivers deployed in data centres and the 5G optical access infrastructure.

The objective of the report is to present a comprehensive analysis of the Global Optical Transceiver Market including all the stakeholders of the industry. The past and current status of the industry with forecasted market size and trends are presented in the report with the analysis of complicated data in simple language. The report covers all the aspects of the industry with a dedicated study of key players that includes market leaders, followers, and new entrants. PORTER, SVOR, PESTEL analysis with the potential impact of micro-economic factors of the market have been presented in the report. External as well as internal factors that are supposed to affect the business positively or negatively have been analyzed, which will give a clear futuristic view of the industry to the decision-makers. The report also helps in understanding Global Optical Transceiver Market dynamics, structure by analyzing the market segments and projects the Global Optical Transceiver Market. Clear representation of competitive analysis of key players by Application, price, financial position, Product portfolio, growth strategies, and regional presence in the Global Optical Transceiver Market make the report investor’s guide.

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 By Form Factor

• SFF and SFP
• SFP+ and SFP28
• QSFP, QSFP+, QSFP14, and QSFP28
• CFP, CFP2, and CFP4
• XFP
• CXP

By Wavelength

• 850 nm Band
• 1310 nm Band
• 1550 nm Band
• Other

 By Fiber Type

• Single-mode
• Multimode

 By Distance

• Less than 1Km
• 1 Km to 10 Km
• 11 Km to 100 Km
• More Than 100 Km

 By Application

• Telecommunication
• Data Centre
• Enterprise

 By Region

• North America
• Europe
• Asia Pacific
• South America
• Middle East & Africa

 Key Players

• II-VI Incorporated
• FIT Hong Teng Limited
• Lumentum
• Sumitomo Electric Industries Ltd
• Accelink
• Applied Optoelectronics
• Fujitsu Optical Components
• Innolight
• Mellanox
• NeoPhotonics
• Ciena
• Cisco
• Hisense Broadband
• Intel
• NEC
• Perle Systems
• Reflex Photonics
• Smartoptics
• Solid Optics
• Source Photonics 




Global Optical Transceiver Market

1. Preface
1.1. Report Scope and Market Segmentation
1.2. Research Highlights
1.3. Research Objectives

2. Assumptions and Research Methodology
2.1. Report Assumptions
2.2. Abbreviations
2.3. Research Methodology
2.3.1. Secondary Research
2.3.1.1. Secondary data
2.3.1.2. Secondary Sources
2.3.2. Primary Research
2.3.2.1. Data from Primary Sources
2.3.2.2. Breakdown of Primary Sources

3. Executive Summary: Global Optical Transceiver Market Size, by Market Value (US$ Bn)

4. Market Overview
4.1. Introduction
4.2. Market Indicator
4.2.1. Drivers
4.2.2. Restraints
4.2.3. Opportunities
4.2.4. Challenges
4.3. Porter’s Analysis
4.4. Value Chain Analysis
4.5. Market Risk Analysis
4.6. SWOT Analysis
4.7. Industry Trends and Emerging Technologies

5. Supply Side and Demand Side Indicators
6. Global Optical Transceiver Market Analysis and Forecast
6.1. Global Optical Transceiver Market Size& Y-o-Y Growth Analysis
6.1.1. North America
6.1.2. Europe
6.1.3. Asia Pacific
6.1.4. Middle East & Africa
6.1.5. South America

7. Global Optical Transceiver Market Analysis and Forecast, By Form Factor
7.1. Introduction and Definition
7.2. Key Findings
7.3. Global Optical Transceiver Market Value Share Analysis, By Form Factor
7.4. Global Optical Transceiver Market Size (US$ Bn) Forecast, By Form Factor
7.5. Global Optical Transceiver Market Analysis, By Form Factor
7.6. Global Optical Transceiver Market Attractiveness Analysis, By Form Factor

8. Global Optical Transceiver Market Analysis and Forecast, By Wavelength
8.1. Introduction and Definition
8.2. Key Findings
8.3. Global Optical Transceiver Market Value Share Analysis, By Wavelength
8.4. Global Optical Transceiver Market Size (US$ Bn) Forecast, By Wavelength
8.5. Global Optical Transceiver Market Analysis, By Wavelength
8.6. Global Optical Transceiver Market Attractiveness Analysis, By Wavelength

9. Global Optical Transceiver Market Analysis and Forecast, By Fiber Type
9.1. Introduction and Definition
9.2. Key Findings
9.3. Global Optical Transceiver Market Value Share Analysis, By Fiber Type
9.4. Global Optical Transceiver Market Size (US$ Bn) Forecast, By Fiber Type
9.5. Global Optical Transceiver Market Analysis, By Fiber Type
9.6. Global Optical Transceiver Market Attractiveness Analysis, By Fiber Type

10. Global Optical Transceiver Market Analysis and Forecast, By Distance
10.1. Introduction and Definition
10.2. Key Findings
10.3. Global Optical Transceiver Market Value Share Analysis, By Distance
10.4. Global Optical Transceiver Market Size (US$ Bn) Forecast, By Distance
10.5. Global Optical Transceiver Market Analysis, By Distance
10.6. Global Optical Transceiver Market Attractiveness Analysis, By Distance

11. Global Optical Transceiver Market Analysis and Forecast, By Application
11.1. Introduction and Definition
11.2. Key Findings
11.3. Global Optical Transceiver Market Value Share Analysis, By Application
11.4. Global Optical Transceiver Market Size (US$ Bn) Forecast, By Application
11.5. Global Optical Transceiver Market Analysis, By Application
11.6. Global Optical Transceiver Market Attractiveness Analysis, By Application

12. Global Optical Transceiver Market Analysis, By Region
12.1. Global Optical Transceiver Market Value Share Analysis, By Region
12.2. Global Optical Transceiver Market Size (US$ Bn) Forecast, By Region
12.3. Global Optical Transceiver Market Attractiveness Analysis, By Region

13. North America Optical Transceiver Market Analysis
13.1. Key Findings
13.2. North America Optical Transceiver Market Overview
13.3. North America Optical Transceiver Market Value Share Analysis, By Form Factor
13.4. North America Optical Transceiver Market Forecast, By Form Factor
13.4.1. SFF and SFP
13.4.2. SFP+ and SFP28
13.4.3. QSFP, QSFP+, QSFP14, and QSFP28
13.4.4. CFP, CFP2, and CFP4
13.4.5. XFP
13.4.6. CXP
13.5. North America Optical Transceiver Market Value Share Analysis, By Wavelength
13.6. North America Optical Transceiver Market Forecast, By Wavelength
13.6.1. 850 nm Band
13.6.2. 1310 nm Band
13.6.3. 1550 nm Band
13.6.4. Other
13.7. North America Optical Transceiver Market Value Share Analysis, By Fiber Type
13.8. North America Optical Transceiver Market Forecast, By Fiber Type
13.8.1. Single-mode
13.8.2. Multimode
13.9. North America Optical Transceiver Market Value Share Analysis, By Distance
13.10. North America Optical Transceiver Market Forecast, By Distance
13.10.1. Less than 1Km
13.10.2. 1 Km to 10 Km
13.10.3. 11 Km to 100 Km
13.10.4. More Than 100 Km
13.11. North America Optical Transceiver Market Value Share Analysis, By Application
13.12. North America Optical Transceiver Market Forecast, By Application
13.12.1. Telecommunication
13.12.2. Data Centre
13.12.3. Enterprise
13.13. North America Optical Transceiver Market Value Share Analysis, by Country
13.14. North America Optical Transceiver Market Forecast, by Country
13.14.1. U.S.
13.14.2. Canada
13.15. North America Optical Transceiver Market Analysis, by Country
13.16. U.S. Optical Transceiver Market Forecast, By Form Factor
13.16.1. SFF and SFP
13.16.2. SFP+ and SFP28
13.16.3. QSFP, QSFP+, QSFP14, and QSFP28
13.16.4. CFP, CFP2, and CFP4
13.16.5. XFP
13.16.6. CXP
13.17. U.S. Optical Transceiver Market Forecast, By Wavelength
13.17.1. 850 nm Band
13.17.2. 1310 nm Band
13.17.3. 1550 nm Band
13.17.4. Other
13.18. U.S. Optical Transceiver Market Forecast, By Fiber Type
13.18.1. Single-mode
13.18.2. Multimode
13.19. U.S. Optical Transceiver Market Forecast, By Distance
13.19.1. Less than 1Km
13.19.2. 1 Km to 10 Km
13.19.3. 11 Km to 100 Km
13.19.4. More Than 100 Km
13.20. U.S. Optical Transceiver Market Forecast, By Application
13.20.1. Telecommunication
13.20.2. Data Centre
13.20.3. Enterprise
13.21. Canada Optical Transceiver Market Forecast, By Form Factor
13.21.1. SFF and SFP
13.21.2. SFP+ and SFP28
13.21.3. QSFP, QSFP+, QSFP14, and QSFP28
13.21.4. CFP, CFP2, and CFP4
13.21.5. XFP
13.21.6. CXP
13.22. Canada Optical Transceiver Market Forecast, By Wavelength
13.22.1. 850 nm Band
13.22.2. 1310 nm Band
13.22.3. 1550 nm Band
13.22.4. Other
13.23. Canada Optical Transceiver Market Forecast, By Fiber Type
13.23.1. Single-mode
13.23.2. Multimode
13.24. Canada Optical Transceiver Market Forecast, By Distance
13.24.1. Less than 1Km
13.24.2. 1 Km to 10 Km
13.24.3. 11 Km to 100 Km
13.24.4. More Than 100 Km
13.25. Canada Optical Transceiver Market Forecast, By Application
13.25.1. Telecommunication
13.25.2. Data Centre
13.25.3. Enterprise
13.26. North America Optical Transceiver Market Attractiveness Analysis
13.26.1. By Form Factor
13.26.2. By Wavelength
13.26.3. By Fiber Type
13.26.4. By Distance
13.26.5. By Application
13.27. PEST Analysis
13.28. Key Trends
13.29. Key Developments

14. Europe Optical Transceiver Market Analysis
14.1. Key Findings
14.2. Europe Optical Transceiver Market Overview
14.3. Europe Optical Transceiver Market Value Share Analysis, By Form Factor
14.4. Europe Optical Transceiver Market Forecast, By Form Factor
14.4.1. SFF and SFP
14.4.2. SFP+ and SFP28
14.4.3. QSFP, QSFP+, QSFP14, and QSFP28
14.4.4. CFP, CFP2, and CFP4
14.4.5. XFP
14.4.6. CXP
14.5. Europe Optical Transceiver Market Value Share Analysis, By Wavelength
14.6. Europe Optical Transceiver Market Forecast, By Wavelength
14.6.1. 850 nm Band
14.6.2. 1310 nm Band
14.6.3. 1550 nm Band
14.6.4. Other
14.7. Europe Optical Transceiver Market Value Share Analysis, By Fiber Type
14.8. Europe Optical Transceiver Market Forecast, By Fiber Type
14.8.1. Single-mode
14.8.2. Multimode
14.9. Europe Optical Transceiver Market Value Share Analysis, By Distance
14.10. Europe Optical Transceiver Market Forecast, By Distance
14.10.1. Less than 1Km
14.10.2. 1 Km to 10 Km
14.10.3. 11 Km to 100 Km
14.10.4. More Than 100 Km
14.11. Europe Optical Transceiver Market Value Share Analysis, By Application
14.12. Europe Optical Transceiver Market Forecast, By Application
14.12.1. Telecommunication
14.12.2. Data Centre
14.12.3. Enterprise
14.13. Europe Optical Transceiver Market Value Share Analysis, by Country
14.14. Europe Optical Transceiver Market Forecast, by Country
14.14.1. Germany
14.14.2. U.K.
14.14.3. France
14.14.4. Italy
14.14.5. Spain
14.14.6. Rest of Europe
14.15. Europe Optical Transceiver Market Analysis, by Country
14.16. Germany Optical Transceiver Market Forecast, By Form Factor
14.16.1. SFF and SFP
14.16.2. SFP+ and SFP28
14.16.3. QSFP, QSFP+, QSFP14, and QSFP28
14.16.4. CFP, CFP2, and CFP4
14.16.5. XFP
14.16.6. CXP
14.17. Germany Optical Transceiver Market Forecast, By Wavelength
14.17.1. 850 nm Band
14.17.2. 1310 nm Band
14.17.3. 1550 nm Band
14.17.4. Other
14.18. Germany Optical Transceiver Market Forecast, By Fiber Type
14.18.1. Single-mode
14.18.2. Multimode
14.19. Germany Optical Transceiver Market Forecast, By Distance
14.19.1. Less than 1Km
14.19.2. 1 Km to 10 Km
14.19.3. 11 Km to 100 Km
14.19.4. More Than 100 Km
14.20. Germany Optical Transceiver Market Forecast, By Application
14.20.1. Telecommunication
14.20.2. Data Centre
14.20.3. Enterprise
14.21. U.K. Optical Transceiver Market Forecast, By Form Factor
14.21.1. SFF and SFP
14.21.2. SFP+ and SFP28
14.21.3. QSFP, QSFP+, QSFP14, and QSFP28
14.21.4. CFP, CFP2, and CFP4
14.21.5. XFP
14.21.6. CXP
14.22. U.K. Optical Transceiver Market Forecast, By Wavelength
14.22.1. 850 nm Band
14.22.2. 1310 nm Band
14.22.3. 1550 nm Band
14.22.4. Other
14.23. U.K. Optical Transceiver Market Forecast, By Fiber Type
14.23.1. Single-mode
14.23.2. Multimode
14.24. U.K. Optical Transceiver Market Forecast, By Distance
14.24.1. Less than 1Km
14.24.2. 1 Km to 10 Km
14.24.3. 11 Km to 100 Km
14.24.4. More Than 100 Km
14.25. U.K. Optical Transceiver Market Forecast, By Application
14.25.1. Telecommunication
14.25.2. Data Centre
14.25.3. Enterprise
14.26. France Optical Transceiver Market Forecast, By Form Factor
14.26.1. SFF and SFP
14.26.2. SFP+ and SFP28
14.26.3. QSFP, QSFP+, QSFP14, and QSFP28
14.26.4. CFP, CFP2, and CFP4
14.26.5. XFP
14.26.6. CXP
14.27. France Optical Transceiver Market Forecast, By Wavelength
14.27.1. 850 nm Band
14.27.2. 1310 nm Band
14.27.3. 1550 nm Band
14.27.4. Other
14.28. France Optical Transceiver Market Forecast, By Fiber Type
14.28.1. Single-mode
14.28.2. Multimode
14.29. France Optical Transceiver Market Forecast, By Distance
14.29.1. Less than 1Km
14.29.2. 1 Km to 10 Km
14.29.3. 11 Km to 100 Km
14.29.4. More Than 100 Km
14.30. France Optical Transceiver Market Forecast, By Application
14.30.1. Telecommunication
14.30.2. Data Centre
14.30.3. Enterprise
14.31. Italy Optical Transceiver Market Forecast, By Form Factor
14.31.1. SFF and SFP
14.31.2. SFP+ and SFP28
14.31.3. QSFP, QSFP+, QSFP14, and QSFP28
14.31.4. CFP, CFP2, and CFP4
14.31.5. XFP
14.31.6. CXP
14.32. Italy Optical Transceiver Market Forecast, By Wavelength
14.32.1. 850 nm Band
14.32.2. 1310 nm Band
14.32.3. 1550 nm Band
14.32.4. Other
14.33. Italy Optical Transceiver Market Forecast, By Fiber Type
14.33.1. Single-mode
14.33.2. Multimode
14.34. Italy Optical Transceiver Market Forecast, By Distance
14.34.1. Less than 1Km
14.34.2. 1 Km to 10 Km
14.34.3. 11 Km to 100 Km
14.34.4. More Than 100 Km
14.35. Italy Optical Transceiver Market Forecast, By Application
14.35.1. Telecommunication
14.35.2. Data Centre
14.35.3. Enterprise
14.36. Spain Optical Transceiver Market Forecast, By Form Factor
14.36.1. SFF and SFP
14.36.2. SFP+ and SFP28
14.36.3. QSFP, QSFP+, QSFP14, and QSFP28
14.36.4. CFP, CFP2, and CFP4
14.36.5. XFP
14.36.6. CXP
14.37. Spain Optical Transceiver Market Forecast, By Wavelength
14.37.1. 850 nm Band
14.37.2. 1310 nm Band
14.37.3. 1550 nm Band
14.37.4. Other
14.38. Spain Optical Transceiver Market Forecast, By Fiber Type
14.38.1. Single-mode
14.38.2. Multimode
14.39. Spain Optical Transceiver Market Forecast, By Distance
14.39.1. Less than 1Km
14.39.2. 1 Km to 10 Km
14.39.3. 11 Km to 100 Km
14.39.4. More Than 100 Km
14.40. Spain Optical Transceiver Market Forecast, By Application
14.40.1. Telecommunication
14.40.2. Data Centre
14.40.3. Enterprise
14.41. Rest of Europe Optical Transceiver Market Forecast, By Form Factor
14.41.1. SFF and SFP
14.41.2. SFP+ and SFP28
14.41.3. QSFP, QSFP+, QSFP14, and QSFP28
14.41.4. CFP, CFP2, and CFP4
14.41.5. XFP
14.41.6. CXP
14.42. Rest of Europe Optical Transceiver Market Forecast, By Wavelength
14.42.1. 850 nm Band
14.42.2. 1310 nm Band
14.42.3. 1550 nm Band
14.42.4. Other
14.43. Rest of Europe Optical Transceiver Market Forecast, By Fiber Type
14.43.1. Single-mode
14.43.2. Multimode
14.44. Rest Of Europe Optical Transceiver Market Forecast, By Distance
14.44.1. Less than 1Km
14.44.2. 1 Km to 10 Km
14.44.3. 11 Km to 100 Km
14.44.4. More Than 100 Km
14.45. Rest Of Europe Optical Transceiver Market Forecast, By Application
14.45.1. Telecommunication
14.45.2. Data Centre
14.45.3. Enterprise
14.46. Europe Optical Transceiver Market Attractiveness Analysis
14.46.1. By Form Factor
14.46.2. By Wavelength
14.46.3. By Fiber Type
14.46.4. By Distance
14.46.5. By Application
14.47. PEST Analysis
14.48. Key Trends
14.49. Key Developments

15. Asia Pacific Optical Transceiver Market Analysis
15.1. Key Findings
15.2. Asia Pacific Optical Transceiver Market Overview
15.3. Asia Pacific Optical Transceiver Market Value Share Analysis, By Form Factor
15.4. Asia Pacific Optical Transceiver Market Forecast, By Form Factor
15.4.1. SFF and SFP
15.4.2. SFP+ and SFP28
15.4.3. QSFP, QSFP+, QSFP14, and QSFP28
15.4.4. CFP, CFP2, and CFP4
15.4.5. XFP
15.4.6. CXP
15.5. Asia Pacific Optical Transceiver Market Value Share Analysis, By Wavelength
15.6. Asia Pacific Optical Transceiver Market Forecast, By Wavelength
15.6.1. 850 nm Band
15.6.2. 1310 nm Band
15.6.3. 1550 nm Band
15.6.4. Other
15.7. Asia Pacific Optical Transceiver Market Value Share Analysis, By Fiber Type
15.8. Asia Pacific Optical Transceiver Market Forecast, By Fiber Type
15.8.1. Single-mode
15.8.2. Multimode
15.9. Asia Pacific Optical Transceiver Market Value Share Analysis, By Distance
15.10. Asia Pacific Optical Transceiver Market Forecast, By Distance
15.10.1. Less than 1Km
15.10.2. 1 Km to 10 Km
15.10.3. 11 Km to 100 Km
15.10.4. More Than 100 Km
15.11. Asia Pacific Optical Transceiver Market Value Share Analysis, By Application
15.12. Asia Pacific Optical Transceiver Market Forecast, By Application
15.12.1. Telecommunication
15.12.2. Data Centre
15.12.3. Enterprise
15.13. Asia Pacific Optical Transceiver Market Value Share Analysis, by Country
15.14. Asia Pacific Optical Transceiver Market Forecast, by Country
15.14.1. China
15.14.2. India
15.14.3. Japan
15.14.4. ASEAN
15.14.5. Rest of Asia Pacific
15.15. Asia Pacific Optical Transceiver Market Analysis, by Country
15.16. China Optical Transceiver Market Forecast, By Form Factor
15.16.1. SFF and SFP
15.16.2. SFP+ and SFP28
15.16.3. QSFP, QSFP+, QSFP14, and QSFP28
15.16.4. CFP, CFP2, and CFP4
15.16.5. XFP
15.16.6. CXP
15.17. China Optical Transceiver Market Forecast, By Wavelength
15.17.1. 850 nm Band
15.17.2. 1310 nm Band
15.17.3. 1550 nm Band
15.17.4. Other
15.18. China Optical Transceiver Market Forecast, By Fiber Type
15.18.1. Single-mode
15.18.2. Multimode
15.19. China Optical Transceiver Market Forecast, By Distance
15.19.1. Less than 1Km
15.19.2. 1 Km to 10 Km
15.19.3. 11 Km to 100 Km
15.19.4. More Than 100 Km
15.20. China Optical Transceiver Market Forecast, By Application
15.20.1. Telecommunication
15.20.2. Data Centre
15.20.3. Enterprise
15.21. India Optical Transceiver Market Forecast, By Form Factor
15.21.1. SFF and SFP
15.21.2. SFP+ and SFP28
15.21.3. QSFP, QSFP+, QSFP14, and QSFP28
15.21.4. CFP, CFP2, and CFP4
15.21.5. XFP
15.21.6. CXP
15.22. India Optical Transceiver Market Forecast, By Wavelength
15.22.1. 850 nm Band
15.22.2. 1310 nm Band
15.22.3. 1550 nm Band
15.22.4. Other
15.23. India Optical Transceiver Market Forecast, By Fiber Type
15.23.1. Single-mode
15.23.2. Multimode
15.24. India Optical Transceiver Market Forecast, By Distance
15.24.1. Less than 1Km
15.24.2. 1 Km to 10 Km
15.24.3. 11 Km to 100 Km
15.24.4. More Than 100 Km
15.25. India Optical Transceiver Market Forecast, By Application
15.25.1. Telecommunication
15.25.2. Data Centre
15.25.3. Enterprise
15.26. Japan Optical Transceiver Market Forecast, By Form Factor
15.26.1. SFF and SFP
15.26.2. SFP+ and SFP28
15.26.3. QSFP, QSFP+, QSFP14, and QSFP28
15.26.4. CFP, CFP2, and CFP4
15.26.5. XFP
15.26.6. CXP
15.27. Japan Optical Transceiver Market Forecast, By Wavelength
15.27.1. 850 nm Band
15.27.2. 1310 nm Band
15.27.3. 1550 nm Band
15.27.4. Other
15.28. Japan Optical Transceiver Market Forecast, By Fiber Type
15.28.1. Single-mode
15.28.2. Multimode
15.29. Japan Optical Transceiver Market Forecast, By Distance
15.29.1. Less than 1Km
15.29.2. 1 Km to 10 Km
15.29.3. 11 Km to 100 Km
15.29.4. More Than 100 Km
15.30. Japan Optical Transceiver Market Forecast, By Application
15.30.1. Telecommunication
15.30.2. Data Centre
15.30.3. Enterprise
15.31. ASEAN Optical Transceiver Market Forecast, By Form Factor
15.31.1. SFF and SFP
15.31.2. SFP+ and SFP28
15.31.3. QSFP, QSFP+, QSFP14, and QSFP28
15.31.4. CFP, CFP2, and CFP4
15.31.5. XFP
15.31.6. CXP
15.32. ASEAN Optical Transceiver Market Forecast, By Wavelength
15.32.1. 850 nm Band
15.32.2. 1310 nm Band
15.32.3. 1550 nm Band
15.32.4. Other
15.33. ASEAN Optical Transceiver Market Forecast, By Fiber Type
15.33.1. Single-mode
15.33.2. Multimode
15.34. ASEAN Optical Transceiver Market Forecast, By Distance
15.34.1. Less than 1Km
15.34.2. 1 Km to 10 Km
15.34.3. 11 Km to 100 Km
15.34.4. More Than 100 Km
15.35. ASEAN Optical Transceiver Market Forecast, By Application
15.35.1. Telecommunication
15.35.2. Data Centre
15.35.3. Enterprise
15.36. Rest of Asia Pacific Optical Transceiver Market Forecast, By Form Factor
15.36.1. SFF and SFP
15.36.2. SFP+ and SFP28
15.36.3. QSFP, QSFP+, QSFP14, and QSFP28
15.36.4. CFP, CFP2, and CFP4
15.36.5. XFP
15.36.6. CXP
15.37. Rest of Asia Pacific Optical Transceiver Market Forecast, By Wavelength
15.37.1. 850 nm Band
15.37.2. 1310 nm Band
15.37.3. 1550 nm Band
15.37.4. Other
15.38. Rest of Asia Pacific Optical Transceiver Market Forecast, By Fiber Type
15.38.1. Single-mode
15.38.2. Multimode
15.39. Rest of Asia Pacific Optical Transceiver Market Forecast, By Distance
15.39.1. Less than 1Km
15.39.2. 1 Km to 10 Km
15.39.3. 11 Km to 100 Km
15.39.4. More Than 100 Km
15.40. Rest of Asia Pacific Optical Transceiver Market Forecast, By Application
15.40.1. Telecommunication
15.40.2. Data Centre
15.40.3. Enterprise
15.41. Asia Pacific Optical Transceiver Market Attractiveness Analysis
15.41.1. By Form Factor
15.41.2. By Wavelength
15.41.3. By Fiber Type
15.41.4. By Distance
15.41.5. By Application
15.42. PEST Analysis
15.43. Key Trends
15.44. Key Developments

16. Middle East & Africa Optical Transceiver Market Analysis
16.1. Key Findings
16.2. Middle East & Africa Optical Transceiver Market Overview
16.3. Middle East & Africa Optical Transceiver Market Value Share Analysis, By Form Factor
16.4. Middle East & Africa Optical Transceiver Market Forecast, By Form Factor
16.4.1. SFF and SFP
16.4.2. SFP+ and SFP28
16.4.3. QSFP, QSFP+, QSFP14, and QSFP28
16.4.4. CFP, CFP2, and CFP4
16.4.5. XFP
16.4.6. CXP
16.5. Middle East & Africa Optical Transceiver Market Value Share Analysis, By Wavelength
16.6. Middle East & Africa Optical Transceiver Market Forecast, By Wavelength
16.6.1. 850 nm Band
16.6.2. 1310 nm Band
16.6.3. 1550 nm Band
16.6.4. Other
16.7. Middle East & Africa Optical Transceiver Market Value Share Analysis, By Fiber Type
16.8. Middle East & Africa Optical Transceiver Market Forecast, By Fiber Type
16.8.1. Single-mode
16.8.2. Multimode
16.9. Middle East & Africa Optical Transceiver Market Value Share Analysis, By Distance
16.10. Middle East & Africa Optical Transceiver Market Forecast, By Distance
16.10.1. Less than 1Km
16.10.2. 1 Km to 10 Km
16.10.3. 11 Km to 100 Km
16.10.4. More Than 100 Km
16.11. Middle East & Africa Optical Transceiver Market Value Share Analysis, By Application
16.12. Middle East & Africa Optical Transceiver Market Forecast, By Application
16.12.1. Telecommunication
16.12.2. Data Centre
16.12.3. Enterprise
16.13. Middle East & Africa Optical Transceiver Market Value Share Analysis, by Country
16.14. Middle East & Africa Optical Transceiver Market Forecast, by Country
16.14.1. GCC
16.14.2. South Africa
16.14.3. Rest of Middle East & Africa
16.15. Middle East & Africa Optical Transceiver Market Analysis, by Country
16.16. GCC Optical Transceiver Market Forecast, By Form Factor
16.16.1. SFF and SFP
16.16.2. SFP+ and SFP28
16.16.3. QSFP, QSFP+, QSFP14, and QSFP28
16.16.4. CFP, CFP2, and CFP4
16.16.5. XFP
16.16.6. CXP
16.17. GCC Optical Transceiver Market Forecast, By Wavelength
16.17.1. 850 nm Band
16.17.2. 1310 nm Band
16.17.3. 1550 nm Band
16.17.4. Other
16.18. GCC Optical Transceiver Market Forecast, By Fiber Type
16.18.1. Single-mode
16.18.2. Multimode
16.19. GCC Optical Transceiver Market Forecast, By Distance
16.19.1. Less than 1Km
16.19.2. 1 Km to 10 Km
16.19.3. 11 Km to 100 Km
16.19.4. More Than 100 Km
16.20. GCC Optical Transceiver Market Forecast, By Application
16.20.1. Telecommunication
16.20.2. Data Centre
16.20.3. Enterprise
16.21. South Africa Optical Transceiver Market Forecast, By Form Factor
16.21.1. SFF and SFP
16.21.2. SFP+ and SFP28
16.21.3. QSFP, QSFP+, QSFP14, and QSFP28
16.21.4. CFP, CFP2, and CFP4
16.21.5. XFP
16.21.6. CXP
16.22. South Africa Optical Transceiver Market Forecast, By Wavelength
16.22.1. 850 nm Band
16.22.2. 1310 nm Band
16.22.3. 1550 nm Band
16.22.4. Other
16.23. South Africa Optical Transceiver Market Forecast, By Fiber Type
16.23.1. Single-mode
16.23.2. Multimode
16.24. South Africa Optical Transceiver Market Forecast, By Distance
16.24.1. Less than 1Km
16.24.2. 1 Km to 10 Km
16.24.3. 11 Km to 100 Km
16.24.4. More Than 100 Km
16.25. South Africa Optical Transceiver Market Forecast, By Application
16.25.1. Telecommunication
16.25.2. Data Centre
16.25.3. Enterprise
16.26. Rest of Middle East & Africa Optical Transceiver Market Forecast, By Form Factor
16.26.1. SFF and SFP
16.26.2. SFP+ and SFP28
16.26.3. QSFP, QSFP+, QSFP14, and QSFP28
16.26.4. CFP, CFP2, and CFP4
16.26.5. XFP
16.26.6. CXP
16.27. Rest of Middle East & Africa Optical Transceiver Market Forecast, By Wavelength
16.27.1. 850 nm Band
16.27.2. 1310 nm Band
16.27.3. 1550 nm Band
16.27.4. Other
16.28. Rest of Middle East & Africa Optical Transceiver Market Forecast, By Fiber Type
16.28.1. Single-mode
16.28.2. Multimode
16.29. Rest of Middle East & Africa Optical Transceiver Market Forecast, By Distance
16.29.1. Less than 1Km
16.29.2. 1 Km to 10 Km
16.29.3. 11 Km to 100 Km
16.29.4. More Than 100 Km
16.30. Rest of Middle East & Africa Optical Transceiver Market Forecast, By Application
16.30.1. Telecommunication
16.30.2. Data Centre
16.30.3. Enterprise
16.31. Middle East & Africa Optical Transceiver Market Attractiveness Analysis
16.31.1. By Form Factor
16.31.2. By Wavelength
16.31.3. By Fiber Type
16.31.4. By Distance
16.31.5. By Application
16.32. PEST Analysis
16.33. Key Trends
16.34. Key Developments

17. South America Optical Transceiver Market Analysis
17.1. Key Findings
17.2. Latin America Optical Transceiver Market Overview
17.3. Latin America Optical Transceiver Market Value Share Analysis, By Form Factor
17.4. Latin America Optical Transceiver Market Forecast, By Form Factor
17.4.1. SFF and SFP
17.4.2. SFP+ and SFP28
17.4.3. QSFP, QSFP+, QSFP14, and QSFP28
17.4.4. CFP, CFP2, and CFP4
17.4.5. XFP
17.4.6. CXP
17.5. Latin America Optical Transceiver Market Value Share Analysis, By Wavelength
17.6. Latin America Optical Transceiver Market Forecast, By Wavelength
17.6.1. 850 nm Band
17.6.2. 1310 nm Band
17.6.3. 1550 nm Band
17.6.4. Other
17.7. Latin America Optical Transceiver Market Value Share Analysis, By Fiber Type
17.8. Latin America Optical Transceiver Market Forecast, By Fiber Type
17.8.1. Single-mode
17.8.2. Multimode
17.9. Latin America Optical Transceiver Market Value Share Analysis, By Distance
17.10. Latin America Optical Transceiver Market Forecast, By Distance
17.10.1. Less than 1Km
17.10.2. 1 Km to 10 Km
17.10.3. 11 Km to 100 Km
17.10.4. More Than 100 Km
17.11. Latin America Optical Transceiver Market Value Share Analysis, By Application
17.12. Latin America Optical Transceiver Market Forecast, By Application
17.12.1. Telecommunication
17.12.2. Data Centre
17.12.3. Enterprise
17.13. Latin America Optical Transceiver Market Value Share Analysis, by Country
17.14. Latin America Optical Transceiver Market Forecast, by Country
17.14.1. Brazil
17.14.2. Mexico
17.14.3. Rest of South America
17.15. Latin America Optical Transceiver Market Analysis, by Country
17.16. Brazil Optical Transceiver Market Forecast, By Form Factor
17.16.1. SFF and SFP
17.16.2. SFP+ and SFP28
17.16.3. QSFP, QSFP+, QSFP14, and QSFP28
17.16.4. CFP, CFP2, and CFP4
17.16.5. XFP
17.16.6. CXP
17.17. Brazil Optical Transceiver Market Forecast, By Wavelength
17.17.1. 850 nm Band
17.17.2. 1310 nm Band
17.17.3. 1550 nm Band
17.17.4. Other
17.18. Brazil Optical Transceiver Market Forecast, By Fiber Type
17.18.1. Single-mode
17.18.2. Multimode
17.19. Brazil Optical Transceiver Market Forecast, By Distance
17.19.1. Less than 1Km
17.19.2. 1 Km to 10 Km
17.19.3. 11 Km to 100 Km
17.19.4. More Than 100 Km
17.20. Brazil Optical Transceiver Market Forecast, By Application
17.20.1. Telecommunication
17.20.2. Data Centre
17.20.3. Enterprise
17.21. Mexico Optical Transceiver Market Forecast, By Form Factor
17.21.1. SFF and SFP
17.21.2. SFP+ and SFP28
17.21.3. QSFP, QSFP+, QSFP14, and QSFP28
17.21.4. CFP, CFP2, and CFP4
17.21.5. XFP
17.21.6. CXP
17.22. Mexico Optical Transceiver Market Forecast, By Wavelength
17.22.1. 850 nm Band
17.22.2. 1310 nm Band
17.22.3. 1550 nm Band
17.22.4. Other
17.23. Mexico Optical Transceiver Market Forecast, By Fiber Type
17.23.1. Single-mode
17.23.2. Multimode
17.24. Mexico Optical Transceiver Market Forecast, By Distance
17.24.1. Less than 1Km
17.24.2. 1 Km to 10 Km
17.24.3. 11 Km to 100 Km
17.24.4. More Than 100 Km
17.25. Mexico Optical Transceiver Market Forecast, By Application
17.25.1. Telecommunication
17.25.2. Data Centre
17.25.3. Enterprise
17.26. Rest of Latin America Optical Transceiver Market Forecast, By Form Factor
17.26.1. SFF and SFP
17.26.2. SFP+ and SFP28
17.26.3. QSFP, QSFP+, QSFP14, and QSFP28
17.26.4. CFP, CFP2, and CFP4
17.26.5. XFP
17.26.6. CXP
17.27. Rest of South America Optical Transceiver Market Forecast, By Wavelength
17.27.1. 850 nm Band
17.27.2. 1310 nm Band
17.27.3. 1550 nm Band
17.27.4. Other
17.28. Rest of Latin America Optical Transceiver Market Forecast, By Fiber Type
17.28.1. Single-mode
17.28.2. Multimode
17.29. Rest of Latin America Optical Transceiver Market Forecast, By Distance
17.29.1. Less than 1Km
17.29.2. 1 Km to 10 Km
17.29.3. 11 Km to 100 Km
17.29.4. More Than 100 Km
17.30. Rest of Latin America Optical Transceiver Market Forecast, By Application
17.30.1. Telecommunication
17.30.2. Data Centre
17.30.3. Enterprise
17.31. Latin America Optical Transceiver Market Attractiveness Analysis
17.31.1. By Form Factor
17.31.2. By Wavelength
17.31.3. By Fiber Type
17.31.4. By Distance
17.31.5. By Application
17.32. PEST Analysis
17.33. Key Trends
17.34. Key Developments

18. Company Profiles
18.1. Market Share Analysis, by Company
18.2. Competition Matrix
18.2.1. Competitive Benchmarking of key players by price, presence, market share, Applications, and R&D investment
18.2.2. New Product Launches and Product Enhancements
18.2.3. Market Consolidation
18.2.3.1. M&A By Regions, Investment and Applications
18.2.3.2. M&A Key Players, Forward Integration and Backward Integration
18.3. Company Profiles: Key Players
18.3.1. II-VI Incorporated
18.3.1.1. Company Overview
18.3.1.2. Financial Overview
18.3.1.3. Product Portfolio
18.3.1.4. Business Strategy
18.3.1.5. Recent Developments
18.3.1.6. Development Footprint
18.3.2. FIT Hong Teng Limited
18.3.3. Lumentum
18.3.4. Sumitomo Electric Industries Ltd
18.3.5. Accelink
18.3.6. Applied Optoelectronics
18.3.7. Fujitsu Optical Components
18.3.8. Innolight
18.3.9. Mellanox
18.3.10. NeoPhotonics
18.3.11. Ciena
18.3.12. Cisco
18.3.13. Hisense Broadband
18.3.14. Intel
18.3.15. NEC
18.3.16. Perle Systems
18.3.17. Reflex Photonics
18.3.18. Smartoptics
18.3.19. Solid Optics
18.3.20. Source Photonics
19. Primary Key Insights

About This Report

Report ID 65410
Category Electronics
Published Date June 2020
Updated Date June 2021