Optical Transceiver Market by Form Factor (SFF and SFP; SFP+ and SFP28; XFP; CXP), Data Rate, Wavelength, Fiber Type, Connector, Distance, Protocol, Application (Data Center, Enterprise), and Region (2021-2026)
[365 Pages Report] According to MarketsandMarkets, the optical transceiver market is projected to grow from USD 7.0 billion in 2021 to USD 14.3 billion by 2026; it is expected to grow at a Compound Annual Growth Rate (CAGR) of 15.2% from 2021 to 2026.
The market has a promising growth potential due to several driving factors including, increase in adoption of smart devices and rising data traffic; rise in demand for compact and energy-efficient transceivers; and growth in the importance of mega data centers, for longer reach and high rates of data transmission with efficient power consumption.
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Impact of COVID-19 on current optical transceiver market size and forecast
The emergence of the COVID-19 pandemic, a deadly respiratory disease that originated in China, is now become a worldwide issue and has also affected the optical transceiver market. Most optical transceiver manufacturers have been affected by this crisis, which is expected to be a medium-term impact. This is mainly due to the temporary halt in operations of several well-known companies based in China such as Baidu, Alibaba, Tencent (BAT) and they also operate data centers out of the country and globally. US, with a large number of data centers by players such as Amazon, Facebook, Microsoft, and Apple, is another important country that is severely affected by COVID-19 and businesses are struggling. COVID-19 is expected to have a short-term impact on companies based in China, with the country having been under lockdown across various countries across Asia Pacific, Europe, North America, South America, and RoW. As a result, market players have recorded a drop in sales.
- For instance, due to the COVID-19 epidemic, Facebook (US) halted building on its new, USD 750 million data center in Alabama, as well as the expansion of data centers in Ireland in March 2020.
- In their annual report 2020, optical transceiver OEMs such as Broadcom (US), Lumentum (US) Amphenol (US) and II-VI (US) agreed that the COVID-19 epidemic has impacted their production facilities around the world, as well as disrupted their supplies from the reliable suppliers.
Optical Transceiver Market Dynamics
Driver : Growth in demand for cloud-based services
Cloud computing is the process of storing data over the internet and accessing it over a remote server. The users can access data anytime, thus saving substantial capital costs in infrastructure and deriving huge benefits in business. There has been an immense growth of cloud computing applications in the field of consumers as well as business applications over the past few years. The increase in internet data traffic and rising demand for smartphones and other smart gadgets are driving the growth of cloud-based services, hence increasing opportunities for the optical transceiver market. This is mainly due to the assured reliability cloud computing provides as compared to in-house servers. The presence of cloud companies such as Amazon (US), Microsoft (US), and Google (US) speed up the market for optical transceivers for achieving higher bandwidth and faster data rates in order to manage huge amounts of data.
The advent of cloud computing has generated new business capabilities and opportunities for enterprises. With the help of cloud-based services such as software as a service (SaaS), platform as a service (PaaS), and infrastructure as a service (IaaS), small enterprises and consumers can subscribe to a range of services by replacing locally housed computing solutions. Considering cloud computing is no more a disruptive technology and has become common in the organization, software as a service (SaaS) is an emerging cloud-based service with multiple perks of ease of use. With cloud computing, a user is able to customize and manage any software application on a server that is hosted remotely by a third party such as AWS by Amazon (US) and the users are granted access to their data on those servers via the internet. However, with SaaS, the user only needs to pay a subscription in order to access an already developed, cloud-based software application via the internet. This eliminates the software maintenance responsibility on the users’ end. A few examples of SaaS include Salesforce, Microsoft Office 365, Amazon Web Services, Zoom, and Slack.
On the other hand, large enterprises and data centers use private clouds to consolidate their own resources and public clouds to accommodate peak demand solutions. In April 2016, Green Computing Consortium (GCC) was introduced in China, a collaboration between cloud solution providers, servers, and academic institutions to develop big data, Advanced RISC Machine (ARM) architecture platform-based enterprise, and cloud computing applications. Companies involved in GCC include Baidu (China) and Alibaba (China). As of 2019, GCC focused on emerging acceleration applications of machine learning and 5G wireless technology. So, by leveraging this technology, data center, and telecom operators can adapt quickly as per changing user demands and provide more efficient solutions using optical transceivers. Also, according to GSMA report 2020, most of the value gain for telecommunication and cloud firms supplying enterprise clients will be in the applications/platform layer, which accounted for the largest share of total IoT in terms of value in 2019 and is further expected to account for 67% share of the total USD 1.1 trillion IoT revenue by 2025. For this reason, the growing demands of cloud-based services are one of the important drivers of the optical transceiver market.
Restraint : Increase in network complexity
Multiple protocols, platforms, and consistent need for the compact network have resulted in the growing usage of connectivity ICs. With time, the transceiver ICs have become more compact and efficient. However, as hardware and software both play a key role in the emerging infrastructures, such as the Internet of things (IoT) and the adoption of open-source platforms through the cloud, the network demands more compactness. These compact modules require drop modules for multiplexing and demultiplexing, variable optical attenuators, and tap power monitors in a single compact unit for network monitoring and control. In addition, the increasing connectivity speed and high-bandwidth connections over fixed and wireless networks have resulted in increased complexity of the network.
Data center networks comprise several layers, including the core, spine (distribution layer), and leaf (access layer). Transceivers are distributed across these layers. Because the switches in these layers are frequently swamped with data traffic, the receiver units of transceivers may experience delayed data packet delivery. All these factors generate a need for more compact form factors to enable compatibility and increase space inside the network. The current network infrastructure is fragmented, focused more on domain-specific growth than the consumer-centric joint approach. The companies need to adopt an innovative and network-oriented approach to minimize the network complexity, which acts as a restraint for the growth of the optical transceiver market.
Opportunity : Introduction of 800G optical transceivers for extended wavelengths over longer distances without regeneration
The emergence of 800G optical transceivers and extensive R&D activities are expected to drive the market considering the demand for faster data rate transmission amid the COVID-19 pandemic and work-from-home culture. The rising demand for higher bandwidth resulted in the reduction of costs associated with component fiber (PSM4) and many other components (including PSM4 and CWDM4). Among the 800G transceivers, the QSFP modules have gained significant importance because of their low power consumption and high density. A transceiver MSA group that includes Cisco (US), Broadcom (US), Juniper (US), Intel (US), and others believes that the pluggable form factor is an excellent choice for data center connectivity. In the first quarter of 2020, this organization released the first version of the 800G QSFP Double Density (QSFP-DD800) pluggable optical transceiver connector and case system standards, defining the 800G optical transceiver form factor, QSFP-DD800. The QSFP-DD800 supports 8 high-speed electrical interfaces connecting to the host, with each lane capable of 100G/s. Furthermore, it is backward compatible with previous QSFP-DD or QSFP modules such as QSFP+, QSFP28, QSFP56, and 400G QSFP-DD, giving network operators significant commercial and operational advantages during the 800G network deployment.
Companies such as II-VI (US) announced 800G QSFP modules, whereas Source Photonics (US) announced a Suite of 800G QSFP & OSFP optical transceivers. InnoLight (China) and Eoptolink (China) offer 800G QSFP as well as OSFP module optical transceivers. Ciena's (US) WaveLogic 5 Extreme supports line rates ranging from 200Gbps to 800 Gbps in 50G increments, allowing operators to achieve maximum capacity for any link in the network using a single technology, from short-distance terrestrial links to Trans-Pacific and over 10,000 km (6,213.7 miles) subsea links. As of November 2020, NTT Communications (Japan) will deploy a single-wave 800G line speed solution for data center interconnect (DCI) based on Ciena’s (US) optical technology that will enable the first 800G ultra-high-capacity network for DCI in Japan. With an 800G solution, network operators, service providers, and content providers can transport more throughput per wavelength deployed or extend wavelengths over longer distances without regeneration.
When compared to 200G and 400G Ethernet, 800G is a relatively new technology. However, as the demand for higher bandwidth networking equipment and connections grows in cloud expansion and hyperscale data centers, 800G optical modules and transmissions will be unavoidable trends in the next 3 to 5 years.
Challenge : Device compatibility and sustainability issues
Optical transceivers are frequently integrated with laser diodes and signal decoders. The transceiver operates between the transmitter and receiver using optical pulses generated by laser diodes and electric signals decoded by signal decoders. Fiber optic cables and devices are compatible with this phenomenon. However, many data centers use copper-based networking devices that are incompatible with fiber optic transmission. In some cases, optical transceivers should be strategically integrated. This is where optical transceivers face difficulties with device compatibility.
Another major concern with optical transceivers is sustainability. Because of the complexity and high-temperature generation in data center networks, optical transceivers' sustainability is a major challenge. Because optical transceivers are sensitive to dust particles, moisture, and high temperatures, they must be built to withstand these conditions. As a result, a lack of sustainability may result in an abrupt network failure.
Optical Transceiver Ecosystem
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FTTx protocol to witness highest growth rate during the forecast period
The market for FTTx protocol is expected to grow at the highest CAGR during the forecast period. This growth can be attributed to the increasing number of smart homes and the growing demand for high-speed internet connectivity for smart devices, which are expected to be adopted in smart homes globally during the forecast period. The primary advantage of FTTx (such as fiber to the building (FTTB), fiber to the office (FTTO), fiber to the home (FTTH)) is that it can provide unlimited bandwidth with a long reach. With the advancement of technology, video applications such as video streaming, IPTV, high-quality video conferencing, smart home technology, IP video home surveillance, and smart gaming devices are gradually infiltrating customers’ daily lives, resulting in an increase in people's demand for bandwidth. Hence, the market for optical transceivers operating over FTTx protocol is expected to grow at the fastest CAGR during the forecast period.
Optical transceivers supporting data rate of 41 Gbps to 100 Gbps are estimated to grow at the fastest rate throughout the forecast period
Optical transceivers supporting data rate 41 Gbps to 100 Gbps is expected to grow at the highest CAGR during the forecast period. The rising demand for higher data transmission drives the growing demand for 100G, 200G, and 400G transceivers. With the advent of advanced technologies such as AI and 5G, there is an increased requirement for higher bandwidth, which is eventually necessary for data center applications. There has been an increase in internet penetration traffic owing to different factors such as high-bandwidth applications, enhanced data transfer capabilities, fast fixing broadband speeds, growing online video content, mobile internet users, and the proliferation of connected devices. Furthermore, the rising adoption of smart devices and IoT is responsible for the increasing demand for high data rate-enabled optical transceivers along with the shift toward cloud storage. These are some factors leading to the rise in demand for high data rate transceivers for communicating the data efficiently. The rapid expansion of data centers that support streaming videos, cloud services, social networking, and online commerce is another factor fueling the growth of the market. It has been observed that many large-scale enterprises are now increasingly dependent on cloud services. . Optical transceivers in the range of 41 Gbps to 100 Gbps and more than 100 Gbps are becoming predominant among global cloud service providers, such as Amazon, Facebook, Google, and Microsoft. Owing to these advancements, it is evident that the increase in data rates across hyperscale data center applications will drive the growth of the optical transceiver market for 100 Gbps and more than 100 Gbps data rates.
The transceivers operating across 1310 nm bandwidth, are projected to grow at the fastest rate during the forecast period
The transceivers operating across 1310 nm are expected to grow at the highest CAGR during the forecast period due to factors such as lower level of scattering and high data transmission rates with improved accuracy and security. Additionally, the 1310 nm bandwidth level is designed to perform at higher operational temperatures at lower power and reduced cost. Single-mode fibers can be optimized for 1310 nm wavelengths. The fiber optic attenuation is much lower at this wavelength. Optical transceivers operating across the 1310 nm bandwidth support high-speed data transmission. At this wavelength, the absorption losses are minimal. Hence, the growing demand for high data rate transceivers for high-speed computing across data center applications drives the growth of the market to a great extent. The CWDM (Coarse Wavelength Division Multiplexing) optical module can be implemented for the 1310 nm wavelength, which provides the benefits of high flexibility, economy, and reliability of networking. It greatly saves optical fiber resources and reduces the construction cost. Transceivers operating across the 850 nm bandwidth held the largest share in 2020. Factors such as lower attenuation generated by this band and data accuracy contribute to the growth of this market.
North America to account for the largest share in the optical transceiver market in 2021
North America accounted for the largest share of the optical transceiver market in 2020. The market in North America witnessed a revenue drop of ~5% between pre-COVID-19 and post-COVID-19 scenarios. The market is driven by developments in optical transceivers by North American companies such as II-VI, Lumentum, Broadcom, Mellanox (now a part of Nvidia (US)), NeoPhotonics, Reflex Photonics (now a part of Smiths Interconnect (UK)), Cisco, and Ciena to list a few. These companies replenish the growing demand for specialized optical transceiver modules, such as coherent pluggable modules, bidirectional (BiDi) modules, QSFP modules with a distance range of more than 2,000 km, and ultra-high-speed 800G optical transceiver modules for telecommunication, data center, and enterprise applications. The presence of five major cloud providers’ R&D headquarters across the US, which are Microsoft, Google, Amazon, Facebook, and Apple, has enhanced the growth of the data center market and, consequently, the optical transceiver market to a substantial extent.
The recent COVID-19 pandemic is expected to impact the global optical transceiver industry. The entire supply chain is disrupted due to limited supply of parts. The US is the largest market for optical transceivers with a huge base of global players, including II-VI, Broadcom, NeoPhotonics, Lumentum, Smartoptics, Infinera, Ciena, Cisco, and Applied Optoelectronics. The huge knowledge base, expertise, and R&D can also be considered important factors for North America being the least impacted region due to COVID-19. However, the pandemic impacted the demand and supply in the market. Companies such as II-VI (US), Broadcom (US), and Lumentum (US) accepted the halt and disruption in both demand and supply sides.
Key Market Players
Major vendors in the optical transceiver market include II-VI (US), Broadcom (US), Lumentum (US), Sumitomo Electric Industries (Japan), Accelink (China), Smartoptics (Norway), Infinera (US), Fujitsu optical Components (Japan), Hisense Broadband (China), Huawei (China), Innolight (China), Ciena (US), Mellanox (US) (the company was acquired by Nvidia in April 2020), Applied Optoelectronics (US), Amphenol (US), Intel (US), NEC (Japan), Cisco (US), NeoPhotonics (US), Perle Systems (Canada), FOCI (Taiwan), Source Photonics (US), Solid Optics (US), Eoptolink (China), and Reflex Photonic (Canada) (the company was acquired by Smiths Interconnect (US) in November 2019). uSenlight (Taiwan), and Precision Optical Transceivers (US), POET Technologies (US), ProLabs (US), Elenion Technologies (US), HRB Technologies (India), and Alpine Optoelectronics (China) are few startup companies that provide such type of transceivers.
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Report Metric |
Detail |
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Market size available for years |
2017—2026 |
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Base year |
2020 |
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Forecast period |
2021—2026 |
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Units |
Value (USD Million/USD Billion) |
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Segments covered |
Form factor, Data rate, Wavelength, Fiber type, Connector, Distance, Protocol, Application, and Geography |
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Geographic regions covered |
North America, Europe, APAC, and RoW |
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Companies covered |
II-VI (US), Broadcom (US), Lumentum (US), Sumitomo Electric industries (Japan), Accelink (China), Smartoptics (Norway), Infinera (US), Fujitsu optical Components (Japan), Hisense Broadband (China), Huawei (China), Innolight (China), Ciena (US), Mellanox (US) (acquired by Nvidia in April 2020), Applied Optoelectronics (US), Amphenol (US), Intel (US), NEC (Japan), Cisco (US), NeoPhotonics (US), Perle Systems (Canada), FOCI (Taiwan), Source Photonics (US), Solid Optics (US), Eoptolink (China), and Reflex Photonic (Canada); (acquired by Smiths Interconnect (US) in November 2019) |
This report categorizes the optical transceiver market based on form factor, data rate, wavelength, fiber type, connector, distance, protocol, application, and geography.
Optical Transceiver Market, by Form factor:
- QSFP, QSFP+, QSFP-DD, and QSFP28
- SFP+ and SFP28
- SFF and SFP
- CFP, CFP2, and CFP4
- CXP
- XFP
- COVID-19 impact on various form factors of optical transceiver
Optical Transceiver Market, by Data rate:
- Less Than 10 Gbps
- 10 Gbps to 40 Gbps
- 41 Gbps to 100 Gbps
- More Than 100 Gbps
- COVID-19 impact on various data rates of optical transceivers
Optical Transceiver Market, by Wavelength:
- 850 nm Band
- 1310 nm Band
- 1550 nm Band
- Others (C-Band DWDM fixed, C-Band DWDM tunable, and BiDi)
Optical Transceiver Market, by Fiber type:
- Single mode fiber
- Multimode fiber
Optical Transceiver Market, by Connector:
- LC
- SC
- MPO
- RJ-45
Optical Transceiver Market, by Distance:
- Less Than 1 Km
- 1 to 10 Km
- 11 to 100 Km
- More Than 100 Km
Optical Transceiver Market, by Protocol:
- Ethernet
- Fiber Channel
- CWDM/DWDM
- FTTx
- Other Protocols (SONET, SDH, CPRI)
Optical Transceiver Market, by Application:
- Telecommunication (Ultra-long-haul Network, Long-haul Network, Metro Network)
- Data Center (Data Center Interconnect, Intra-Data Center Connection)
- Enterprise (Enterprise Routing, Enterprise Switching)
- COVID-19 impact on various applications of optical transceivers
Optical Transceiver Market, by Region:
- North America
- US
- Canada
- Mexico
- Europe
- Germany
- UK
- France
- Rest of Europe
- APAC
- China
- Japan
- South Korea
- Rest of APAC
- RoW
- Middle East & Africa
- South America
Impact of COVID-19 on the optical transceiver market in various regions
Recent Developments
- In December 2020, Lumentum (US) announced the addition of a 100G PAM4 (53 Gbaud) directly-modulated laser (DML) for hyper-scale data center applications to its broad datacom laser chip portfolio. This product was designed to complement Lumentum’s existing 100G PAM4 externally modulated laser (EML) products and provides transceiver designers with a lower-cost option.
- In August 2020, Chengdu Shuhan Technology (China) and InnoLight joined hands together and announced four major application solutions at exhibit CIOE 2020. This included a comprehensive product line for interconnection within and between data centers; optimized solutions for 5G prequels, mid-pass and backhaul; coherent optical communication module; and improved market layout to provide access network high-speed optical device optical modules a full range of solutions.
- In September 2019, II-VI successfully completed the acquisition of Finisar (US), a global provider of engineered materials and optoelectronic devices. The acquisition of Finisar was first announced on November 9, 2018. II-VI financed the acquisition partly with USD 1.9 billion in cash from two new loans and announced that it plans to save an annual USD 150 million through post-merger cost-cutting, although that will take around three years to complete.
Frequently Asked Questions (FAQ):
What is the current size of the global optical transceiver market?
The global optical transceiver market is estimated to be USD 7.0 billion in 2021 and is projected to reach USD 14.3 billion by 2026, at a CAGR of 15.2% during the forecast period.
What will be the dynamics for the adoption of optical transceivers based on form factor?
QSFP, QSFP+, QSFP-DD, and QSFP28 optical transceiver modules are expected to be the most widely adopted form factors of optical transceiver. Quad small form-factor pluggable (QSFP) form factor of optical transceivers is designed for high performance and low power consumption, which makes them ideal for data center applications. With the advent of technological advancements, such as AI, machine learning, and 5G communication, data traffic is increasing, which creates a demand for high-scale data centers. Optical transceivers of QSFP form factors are mainly used across telecommunication and data center applications, switches & router connections, and are capable of high data transmission.
How the data center is contributing to the overall market growth by 2026?
The optical transceivers for data center applications are expected to continue to have the largest share of the market. The market for data center applications is expected to grow at the highest CAGR during the forecast period. This growth in the market is due to factors such as transitions towards cloud storage and increasing technological developments including machine learning, artificial intelligence, and deep learning which in turn increases data traffic across networks which create demand for high data rate transceivers for efficient data communication.
Which region is expected to adopt optical transceivers at a fast rate?
APAC is expected to adopt optical transceivers at the fastest rate. Developing countries such as China, South Korea, and Taiwan are expected to have a high potential for the future growth of the market.
What are the key market dynamics influencing market growth? How will they turn into strengths or weaknesses of companies operating in the market space?
Increase in adoption of smart devices and rising data traffic is expected to increase the surge in the data traffic globally, which in turn will also drive the need for optical transceivers. There has been increased adoption of smart devices smartphones, tablets, notebooks, IoT, wearables, connected devices among others. It is resulting rising data traffic which requires components supporting high speed data transmission driving the growth of market .
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TABLE OF CONTENTS
1 INTRODUCTION (Page No. - 43)
1.1 STUDY OBJECTIVES
1.2 MARKET DEFINITION AND SCOPE
1.2.1 INCLUSIONS AND EXCLUSIONS
1.3 STUDY SCOPE
FIGURE 1 OPTICAL TRANSCEIVER MARKET SEGMENTATION
1.3.1 YEARS CONSIDERED
1.4 CURRENCY, PRICING, AND VOLUME
1.5 STAKEHOLDERS
1.6 SUMMARY OF CHANGES
2 RESEARCH METHODOLOGY (Page No. - 49)
2.1 RESEARCH DATA
FIGURE 2 OPTICAL TRANSCEIVER MARKET: RESEARCH DESIGN
2.1.1 SECONDARY DATA
2.1.1.1 Major secondary sources
2.1.1.2 Key data from secondary sources
2.1.2 PRIMARY DATA
2.1.2.1 Key data from primary sources
2.1.2.2 Breakdown of primaries
2.1.3 SECONDARY AND PRIMARY RESEARCH
2.1.3.1 Key industry insights
2.2 MARKET SIZE ESTIMATION
2.2.1 BOTTOM-UP APPROACH
FIGURE 3 MARKET SIZE ESTIMATION METHODOLOGY: APPROACH 1 – BOTTOM-UP (DEMAND SIDE): DEMAND FOR OPTICAL TRANSCEIVERS IN THE US
FIGURE 4 OPTICAL TRANSCEIVER MARKET: BOTTOM-UP APPROACH
2.2.2 TOP-DOWN APPROACH
FIGURE 5 MARKET SIZE ESTIMATION METHODOLOGY: APPROACH 2 (SUPPLY SIDE): REVENUE GENERATED FROM PRODUCTS IN THE MARKET
FIGURE 6 MARKET SIZE ESTIMATION METHODOLOGY: APPROACH 2 (SUPPLY SIDE): ILLUSTRATION OF REVENUE ESTIMATION FOR ONE COMPANY IN THE OPTICAL TRANSCEIVER MARKET
FIGURE 7 OPTICAL TRANSCEIVER MARKET: TOP-DOWN APPROACH
2.2.3 MARKET PROJECTIONS
TABLE 1 MARKET GROWTH ASSUMPTIONS
2.3 DATA TRIANGULATION
FIGURE 8 DATA TRIANGULATION
2.4 RESEARCH ASSUMPTIONS
2.4.1 ASSUMPTIONS
2.5 LIMITATIONS
2.6 RISK ASSESSMENT
3 EXECUTIVE SUMMARY (Page No. - 63)
FIGURE 9 GLOBAL PROPAGATION OF COVID-19
TABLE 2 RECOVERY SCENARIOS FOR THE GLOBAL ECONOMY
3.1 REALISTIC SCENARIO
3.2 OPTIMISTIC SCENARIO
3.3 PESSIMISTIC SCENARIO
FIGURE 10 GROWTH PROJECTIONS OF THE OPTICAL TRANSCEIVER MARKET IN REALISTIC, OPTIMISTIC, AND PESSIMISTIC SCENARIOS
FIGURE 11 OPTICAL TRANSCEIVERS WITH FORM FACTORS OF QSFP, QSFP+, QSFP-DD, AND QSFP28 EXPECTED TO HOLD THE LARGEST SHARE DURING THE FORECAST PERIOD
FIGURE 12 MULTIMODE OPTICAL TRANSCEIVERS TO EXHIBIT A HIGHER CAGR DURING THE FORECAST PERIOD
FIGURE 13 OPTICAL TRANSCEIVERS WITH LC CONNECTORS EXPECTED TO HOLD A LARGER SHARE DURING THE FORECAST PERIOD
FIGURE 14 MARKET FOR DATA CENTER APPLICATION TO GROW AT THE HIGHEST CAGR DURING THE FORECAST PERIOD
FIGURE 15 NORTH AMERICA HELD THE LARGEST SHARE OF THE MARKET IN 2020
4 PREMIUM INSIGHTS (Page No. - 72)
4.1 ATTRACTIVE GROWTH OPPORTUNITIES IN THE OPTICAL TRANSCEIVER MARKET
FIGURE 16 INCREASING ADOPTION OF SMART DEVICES AND RISING DATA TRAFFIC ARE EXPECTED TO FUEL MARKET GROWTH
4.2 MARKET, BY FORM FACTOR
FIGURE 17 QSFP FORM FACTOR TO HOLD THE LARGEST SHARE IN 2021
4.3 MARKET, BY APPLICATION
FIGURE 18 DATA CENTER PROJECTED TO ACCOUNT FOR THE LARGEST SHARE OF THE MARKET IN 2021
4.4 NORTH AMERICAN MARKET, BY APPLICATION AND COUNTRY
FIGURE 19 DATA CENTER APPLICATION TO ACCOUNT FOR THE LARGEST SHARE OF THE NORTH AMERICAN MARKET IN 2021
4.5 OPTICAL TRANSCEIVER MARKET, BY COUNTRY
FIGURE 20 US HELD THE LARGEST SHARE OF THE GLOBAL MARKET IN 2020
5 MARKET OVERVIEW (Page No. - 75)
5.1 INTRODUCTION
5.2 MARKET DYNAMICS
FIGURE 21 INCREASING ADOPTION OF SMART DEVICES AND RISING DATA TRAFFIC TO DRIVE THE MARKET
5.2.1 DRIVERS
FIGURE 22 IMPACT OF DRIVERS ON THE OPTICAL TRANSCEIVER MARKET
5.2.1.1 Increase in adoption of smart devices and rise in data traffic
TABLE 3 BREAKDOWN FOR THE SHARE OF DATA TRAFFIC BY SMART DEVICES (2020–2021)
FIGURE 23 GLOBAL INTERNET USERS AND INTERNET PENETRATION RATE DURING 2012–2021
5.2.1.2 Growth in demand for cloud-based services
5.2.1.3 Rise in demand for compact and energy-efficient transceivers
5.2.1.4 Growth in the importance of mega data centers
FIGURE 24 100G AND 400G OPTICAL TRANSCEIVER PATENTS BETWEEN 2010 AND 2020
5.2.2 RESTRAINTS
FIGURE 25 IMPACT OF RESTRAINTS ON THE MARKET
5.2.2.1 Increase in network complexity
5.2.3 OPPORTUNITIES
FIGURE 26 IMPACT OF OPPORTUNITIES ON THE MARKET
5.2.3.1 Emerging focus on 5G network
5.2.3.2 Introduction of 800G optical transceivers for extended wavelengths over longer distances without regeneration
FIGURE 27 800G OPTICAL TRANSCEIVER PATENTS BETWEEN 2010 AND 2020
5.2.3.3 Expansion of telecom infrastructure in developing economies
5.2.4 CHALLENGES
FIGURE 28 IMPACT OF CHALLENGES ON THE OPTICAL TRANSCEIVER MARKET
5.2.4.1 Everchanging customer demands for portable devices and better speeds
5.2.4.2 Device compatibility and sustainability issues
5.3 SUPPLY CHAIN ANALYSIS
FIGURE 29 SUPPLY CHAIN ANALYSIS OF THE OPTICAL TRANSCEIVER ECOSYSTEM: R&D AND MANUFACTURING PHASE CONTRIBUTE THE MOST VALUE
5.3.1 PLANNING AND REVISING FUND
5.3.2 RESEARCH & DEVELOPMENT
5.3.3 MANUFACTURING
5.3.4 ASSEMBLY, DISTRIBUTION, AND AFTER-SALES SERVICES
5.4 ECOSYSTEM
FIGURE 30 OPTICAL TRANSCEIVER ECOSYSTEM
TABLE 4 LIST OF COMPANIES AND THEIR ROLE IN THE OPTICAL TRANSCEIVER ECOSYSTEM
5.5 TRENDS IMPACTING CUSTOMERS BUSINESS
FIGURE 31 REVENUE SHIFT IN THE OPTICAL TRANSCEIVER MARKET
5.6 CASE STUDIES
5.6.1 TELIA CARRIER IS PLANNING TO USE ACACIA COMMUNICATIONS’ COHERENT PLUGGABLE TRANSCEIVER FOR ROUTER INTERCONNECTION
5.6.2 CHAMPION ONE (US) UPGRADES A US-BASED UNIVERSITY'S NETWORK WITH AN LR4-TO-LR4 INTERFACE SOLUTION FOR 10G, 40G, AND 100G OPTICAL TRANSCEIVERS
5.6.3 TXO'S (UK) QSFP28 TRANSCEIVERS ARE BEING USED BY A MULTINATIONAL TELECOMMUNICATIONS COMPANY TO ADVANCE THEIR GLOBAL 100G NETWORK
5.6.4 FS (US) PROVIDED A LONG-DISTANCE 10G DWDM SOLUTION WITH LINK PROTECTION FOR BUSINESS EXPANSION
5.6.5 SMITHS INTERCONNECT OFFERED OPTICAL INTERCONNECT FOR HIGH-SPEED, HIGH-BANDWIDTH 10GIGE AND 40GIGE CAMERAS WITH OPTICAL ENGINE EMQSFP+
5.6.6 SMITHS INTERCONNECT (UK) UPGRADED OPTICAL TRANSCEIVERS FOR 100/140 µM AIRCRAFT OPTICAL CABLING
5.7 PORTER’S FIVE FORCES ANALYSIS
FIGURE 32 PORTER’S FIVE FORCES ANALYSIS
TABLE 5 OPTICAL TRANSCEIVER MARKET: PORTER’S FIVE FORCES ANALYSIS
5.7.1 THREAT OF NEW ENTRANTS
5.7.2 THREAT OF SUBSTITUTES
5.7.3 BARGAINING POWER OF BUYERS
5.7.4 BARGAINING POWER OF SUPPLIERS
5.7.5 DEGREE OF COMPETITION
5.8 TECHNOLOGY TRENDS
5.8.1 KEY TECHNOLOGY
5.8.1.1 Use of Silicon Photonics (SiPh) Technology for manufacturing optical transceivers
5.8.1.2 XR optics-based networking solutions
5.8.1.3 Development of PAM4 for 100G and 400G applications
5.8.1.4 Rise of ultra-high-speed 800G optical transceivers
5.8.1.5 The wave of high performance coherent pluggable modules with greater reach
5.8.2 COMPLEMENTARY TECHNOLOGY
5.8.2.1 The emergence of 5G networks and integration with AI and IoT
5.8.3 ADJACENT TECHNOLOGY
5.8.3.1 Laser technology for modulation of high data rate
5.9 TRADE ANALYSIS
5.9.1 IMPORT SCENARIO
5.9.1.1 Import scenario for the optical transceiver market
TABLE 6 TRANSMISSION OR RECEPTION APPARATUS (INCLUDING OPTICAL TRANSCEIVERS) IMPORTS, BY KEY COUNTRY, 2012–2020 (USD BILLION)
FIGURE 33 IMPORT DATA FOR TRANSMISSION OR RECEPTION APPARATUS (INCLUDING OPTICAL TRANSCEIVERS) IN THE MARKET FOR THE TOP FIVE COUNTRIES, 2016–2020 (USD BILLION)
5.9.2 EXPORT SCENARIO
5.9.2.1 Export scenario for optical transceiver market
TABLE 7 TRANSMISSION OR RECEPTION APPARATUS (INCLUDING OPTICAL TRANSCEIVERS) EXPORTS, BY KEY COUNTRY, 2012–2020 (USD BILLION)
FIGURE 34 EXPORT DATA FOR TRANSMISSION OR RECEPTION APPARATUS (INCLUDING OPTICAL TRANSCEIVERS) IN THE MARKET FOR TOP FIVE COUNTRIES, 2016–2020 (USD BILLION)
5.10 PATENT ANALYSIS
TABLE 8 PATENTS FILED FOR VARIOUS TYPES OF OPTICAL TRANSCEIVER, 2018–2020
FIGURE 35 OPTICAL TRANSCEIVER PATENTS PUBLISHED BETWEEN 2010 & 2020
FIGURE 36 TOP 10 COMPANIES WITH LARGEST NO. OF PATENT APPLICATIONS, 2010–2020
5.11 TARIFFS AND REGULATIONS
5.11.1 TARIFFS
TABLE 9 US: MFN TARIFFS FOR TRANSMISSION OR RECEPTION APPARATUS (INCLUDING OPTICAL TRANSCEIVERS) EXPORTED, BY KEY COUNTRY, 2021
TABLE 10 CHINA: MFN TARIFFS FOR TRANSMISSION OR RECEPTION APPARATUS (INCLUDING OPTICAL TRANSCEIVERS) EXPORTED, BY KEY COUNTRY, 2021
5.11.1.1 Positive impact of tariffs on transmission or reception apparatus (including optical transceivers)
5.11.1.2 Negative impact of tariffs on transmission or reception apparatus (including optical transceivers)
5.11.2 REGULATIONS
FIGURE 37 VARIOUS STANDARDS FOR OPTICAL TRANSCEIVERS
5.11.2.1 ISO 9001:2015
5.11.2.2 IEEE
5.11.2.3 IEC laser safety regulation
5.11.2.4 RoHS
5.11.2.5 REACH
5.11.2.6 CB
5.11.2.7 CE
5.11.2.8 FCC
5.11.2.9 FDA
TABLE 11 FDA AND IEC LASER CLASS AND LASER PRODUCT HAZARD
5.11.2.10 RCM
5.12 AVERAGE SELLING PRICE TRENDS
TABLE 12 AVERAGE SELLING PRICES OF OPTICAL TRANSCEIVERS BASED ON DATA RATES SUPPORTED
6 OPTICAL TRANSCEIVER MARKET, BY FORM FACTOR (Page No. - 119)
6.1 INTRODUCTION
TABLE 13 OPTICAL TRANSCEIVER MARKET, BY FORM FACTOR, 2017–2020 (USD MILLION)
FIGURE 38 OPTICAL TRANSCEIVERS WITH QSFP, QSFP+, QSFP-DD, AND QSFP28 EXPECTED TO GROW AT THE HIGHEST CAGR DURING THE FORECAST PERIOD
TABLE 14 MARKET, BY FORM FACTOR, 2021–2026 (USD MILLION)
6.2 SFF AND SFP
6.2.1 SFF AND SFP ENABLE A LOWER DATA RATE TRANSMISSION
TABLE 15 MARKET FOR SFF AND SFP, BY WAVELENGTH, 2017–2020 (USD MILLION)
FIGURE 39 1310 NM BAND WAVELENGTH FOR SFF AND SFP OPTICAL TRANSCEIVERS EXPECTED TO GROW AT THE HIGHEST CAGR DURING THE FORECAST PERIOD
TABLE 16 MARKET FOR SFF AND SFP, BY WAVELENGTH, 2021–2026 (USD MILLION)
TABLE 17 MARKET FOR SFF AND SFP, BY FIBER TYPE, 2017–2020 (USD MILLION)
TABLE 18 MARKET FOR SFF AND SFP, BY FIBER TYPE, 2021–2026 (USD MILLION)
TABLE 19 MARKET FOR SFF AND SFP, BY CONNECTOR, 2017–2020 (USD MILLION)
FIGURE 40 LC CONNECTORS FOR SFF AND SFP TO HOLD THE LARGEST SHARE DURING THE FORECAST PERIOD
TABLE 20 MARKET FOR SFF AND SFP, BY CONNECTOR, 2021–2026 (USD MILLION)
6.3 SFP+ AND SFP28
6.3.1 SFP+ AND SFP28 ENABLE BOTH SINGLE-MODE AND MULTIMODE FIBER OPTIC COMMUNICATION
TABLE 21 MARKET FOR SFP+ AND SFP28, BY WAVELENGTH, 2017–2020 (USD MILLION)
FIGURE 41 850 NM BAND WAVELENGTH FOR SFP+ AND SFP28 EXPECTED TO HOLD THE LARGEST SHARE DURING THE FORECAST PERIOD
TABLE 22 MARKET FOR SFP+ AND SFP28, BY WAVELENGTH, 2021–2026 (USD MILLION)
TABLE 23 MARKET FOR SFP+ AND SFP28, BY DATA RATE, 2017–2020 (USD MILLION)
TABLE 24 MARKET FOR SFP+ AND SFP28, BY DATA RATE, 2021–2026 (USD MILLION)
TABLE 25 MARKET FOR SFP+ AND SFP28, BY FIBER TYPE, 2017–2020 (USD MILLION)
FIGURE 42 SINGLE MODE FIBER TYPE FOR SFP+ AND SFP28 SEGMENT TO HOLD A LARGER SHARE DURING THE FORECAST PERIOD
TABLE 26 MARKET FOR SFP+ AND SFP28, BY FIBER TYPE, 2021–2026 (USD MILLION)
6.4 QSFP, QSFP+, QSFP-DD, AND QSFP28
6.4.1 FASTEST-GROWING SEGMENT OWING TO THE ADOPTION OF HIGH DATA RATE TRANSMISSION
TABLE 27 OPTICAL TRANSCEIVER MARKET FOR QSFP, QSFP+, QSFP-DD, AND QSFP28, BY WAVELENGTH, 2017–2020 (USD MILLION)
FIGURE 43 850 NM BAND WAVELENGTH FOR QSFP, QSFP+, QSFP-DD, AND QSFP28 EXPECTED TO HOLD A LARGER SHARE DURING THE FORECAST PERIOD
TABLE 28 MARKET FOR QSFP, QSFP+, QSFP-DD, AND QSFP28, BY WAVELENGTH, 2021–2026 (USD MILLION)
TABLE 29 MARKET FOR QSFP, QSFP+, QSFP-DD, AND QSFP28, BY DATA RATE, 2017–2020 (USD MILLION)
TABLE 30 MARKET FOR QSFP, QSFP+, QSFP-DD, AND QSFP28, BY DATA RATE, 2021–2026 (USD MILLION)
TABLE 31 MARKET FOR QSFP, QSFP+, QSFP-DD, AND QSFP28, BY FIBER TYPE, 2017–2020 (USD MILLION)
FIGURE 44 MULTIMODE FIBER TYPE FOR THE QSFP, QSFP+, QSFP-DD, AND QSFP28 SEGMENT TO HOLD A LARGER SHARE DURING THE FORECAST PERIOD
TABLE 32 MARKET FOR QSFP, QSFP+, QSFP-DD, AND QSFP28, BY FIBER TYPE, 2021–2026 (USD MILLION)
TABLE 33 MARKET FOR QSFP, QSFP+, QSFP-DD, AND QSFP28, BY CONNECTOR, 2017–2020 (USD MILLION)
TABLE 34 MARKET FOR QSFP, QSFP+, QSFP-DD, AND QSFP28, BY CONNECTOR, 2021–2026 (USD MILLION)
6.5 CFP, CFP2, AND CFP4
6.5.1 MARKET FOR CFP, CFP2, AND CFP4 TYPE TRANSCEIVERS EXPECTED TO GROW AT THE HIGHEST CAGR IN APAC
TABLE 35 MARKET FOR CFP, CFP2, AND CFP4, BY WAVELENGTH, 2017–2020 (USD MILLION)
FIGURE 45 1310 NM BAND WAVELENGTH FOR THE CFP, CFP2, AND CFP4 OPTICAL TRANSCEIVER MARKET EXPECTED TO GROW AT THE HIGHEST CAGR DURING THE FORECAST PERIOD
TABLE 36 MARKET FOR CFP, CFP2, AND CFP4, BY WAVELENGTH, 2021–2026 (USD MILLION)
TABLE 37 MARKET FOR CFP, CFP2, AND CFP4, BY FIBER TYPE, 2017–2020 (USD MILLION)
FIGURE 46 SINGLE-MODE FIBER TYPE FOR THE CFP, CFP2, AND CFP4 SEGMENT TO HOLD A LARGER SHARE DURING THE FORECAST PERIOD
TABLE 38 MARKET FOR CFP, CFP2, AND CFP4, BY FIBER TYPE, 2021–2026 (USD MILLION)
TABLE 39 MARKET FOR CFP, CFP2, AND CFP4, BY CONNECTOR, 2017–2020 (USD MILLION)
TABLE 40 MARKET FOR CFP, CFP2, AND CFP4, BY CONNECTOR, 2021–2026 (USD MILLION)
6.6 XFP
6.6.1 IT SUPPORTS ETHERNET, FIBER CHANNEL, AND SONET STANDARDS
TABLE 41 MARKET FOR XFP, BY WAVELENGTH, 2017–2020 (USD MILLION)
FIGURE 47 1550 NM BAND WAVELENGTH FOR THE XFP OPTICAL TRANSCEIVER MARKET EXPECTED TO HOLD THE LARGEST SHARE DURING THE FORECAST PERIOD
TABLE 42 MARKET FOR XFP, BY WAVELENGTH, 2021–2026 (USD MILLION)
6.7 CXP
6.7.1 CXP TRANSCEIVERS ARE USED FOR HIGH-DENSITY APPLICATIONS
6.8 COVID-19 IMPACT ON VARIOUS FORM FACTORS OF OPTICAL TRANSCEIVERS
6.8.1 MOST IMPACTED FORM FACTOR
FIGURE 48 IMPACT OF COVID-19 ON THE CXP MARKET
6.8.2 LEAST IMPACTED FORM FACTOR
FIGURE 49 IMPACT OF COVID-19 ON THE QSFP, QSFP+, QSFP-DD, AND QSFP28 MARKET
7 OPTICAL TRANSCEIVER MARKET, BY DATA RATE (Page No. - 143)
7.1 INTRODUCTION
TABLE 43 OPTICAL TRANSCEIVER MARKET, BY DATA RATE, 2017–2020 (USD MILLION)
FIGURE 50 OPTICAL TRANSCEIVERS SUPPORTING 41 GBPS TO 100 GBPS DATA RATE EXPECTED TO GROW THE FASTEST FROM 2021 TO 2026
TABLE 44 MARKET, BY DATA RATE, 2021–2026 (USD MILLION)
TABLE 45 MARKET, BY DATA RATE, 2017–2020 (THOUSAND UNITS)
TABLE 46 MARKET, BY DATA RATE, 2021–2026 (THOUSAND UNITS)
7.2 LESS THAN 10 GBPS
7.2.1 LESS THAN 10 GBPS DATA RATE MODULES OPERATE THROUGH SINGLE-MODE AS WELL AS MULTIMODE FIBERS
TABLE 47 LIST OF PRODUCTS FOR LESS THAN 10 GBPS DATA RATE
TABLE 48 MARKET FOR LESS THAN 10 GBPS DATA RATE, BY FORM FACTOR, 2017–2020 (USD MILLION)
TABLE 49 MARKET FOR LESS THAN 10 GBPS DATA RATE, BY FORM FACTOR, 2021–2026 (USD MILLION)
TABLE 50 MARKET FOR LESS THAN 10 GBPS DATA RATE, BY REGION, 2017–2020 (USD MILLION)
TABLE 51 MARKET FOR LESS THAN 10 GBPS DATA RATE, BY REGION, 2021–2026 (USD MILLION)
7.3 10 GBPS TO 40 GBPS
7.3.1 10 GBPS TO 40 GBPS OF DATA RATE MODULES ARE MOSTLY USED FOR SWITCHING AND ROUTING APPLICATIONS
TABLE 52 LIST OF PRODUCTS FOR 10 GBPS TO 40 GBPS DATA RATE
TABLE 53 MARKET FOR 10 GBPS TO 40 GBPS DATA RATE, BY FORM FACTOR, 2017–2020 (USD MILLION)
TABLE 54 MARKET FOR 10 GBPS TO 40 GBPS DATA RATE, BY FORM FACTOR, 2021–2026 (USD MILLION)
TABLE 55 MARKET FOR 10 GBPS TO 40 GBPS DATA RATE, BY REGION, 2017–2020 (USD MILLION)
TABLE 56 MARKET FOR 10 GBPS TO 40 GBPS DATA RATE, BY REGION, 2021–2026 (USD MILLION)
7.4 41 GBPS TO 100 GBPS
7.4.1 MARKET FOR OPTICAL TRANSCEIVERS SUPPORTING DATA RATES BETWEEN 41 GBPS AND 100 GBPS TO GROW AT THE HIGHEST CAGR DURING THE FORECAST PERIOD
TABLE 57 LIST OF PRODUCTS FOR 41 GBPS TO 100 GBPS DATA RATE
TABLE 58 MARKET FOR 41 GBPS TO 100 GBPS DATA RATE, BY REGION, 2017–2020 (USD MILLION)
TABLE 59 MARKET FOR 41 GBPS TO 100 GBPS DATA RATE, BY REGION, 2021–2026 (USD MILLION)
7.5 MORE THAN 100 GBPS
7.5.1 MORE THAN 100 GBPS DATA RATE MODULES ARE PROMINENTLY USED FOR SHORT-REACH COMMUNICATIONS
TABLE 60 LIST OF PRODUCTS FOR MORE THAN 100 GBPS DATA RATE
TABLE 61 MARKET FOR ABOVE 100 GBPS, BY FORM FACTOR, 2017–2020 (USD MILLION)
TABLE 62 MARKET FOR ABOVE 100 GBPS, BY FORM FACTOR, 2021–2026 (USD MILLION)
TABLE 63 MARKET FOR MORE THAN 100 GBPS DATA RATE, BY REGION, 2017–2020 (USD MILLION)
TABLE 64 MARKET FOR MORE THAN 100 GBPS DATA RATE, BY REGION, 2021–2026 (USD MILLION)
7.6 IMPACT OF COVID-19 ON THE OPTICAL TRANSCEIVER MARKET FOR DATA RATE
7.6.1 MOST IMPACTED DATA RATE
FIGURE 51 IMPACT OF COVID-19 ON THE MARKET FOR LESS THAN 10 GBPS DATA RATE
7.6.2 LEAST IMPACTED DATA RATE
FIGURE 52 IMPACT OF COVID-19 ON THE MARKET FOR 41 GBPS TO 100 GBPS DATA RATE
8 OPTICAL TRANSCEIVER MARKET, BY FIBER TYPE (Page No. - 157)
8.1 INTRODUCTION
TABLE 65 OPTICAL TRANSCEIVER MARKET, BY FIBER TYPE, 2017–2020 (USD MILLION)
FIGURE 53 MULTIMODE OPTICAL TRANSCEIVERS TO GROW AT A HIGHER CAGR DURING THE FORECAST PERIOD
TABLE 66 MARKET, BY FIBER TYPE, 2021–2026 (USD MILLION)
8.2 SINGLE MODE FIBER (SMF)
8.2.1 SINGLE MODE FIBERS ARE SUITABLE FOR LONG-DISTANCE TRANSMISSION DUE TO LOWER ATTENUATION
TABLE 67 LIST OF PLAYERS OFFERING SINGLE-MODE TRANSCEIVERS
TABLE 68 MARKET FOR SINGLE MODE FIBER, BY FORM FACTOR, 2017–2020 (USD MILLION)
TABLE 69 MARKET FOR SINGLE MODE FIBER, BY FORM FACTOR, 2021–2026 (USD MILLION)
TABLE 70 MARKET FOR SINGLE MODE FIBER, BY APPLICATION, 2017–2020 (USD MILLION)
TABLE 71 MARKET FOR SINGLE MODE FIBER, BY APPLICATION, 2021–2026 (USD MILLION)
TABLE 72 MARKET FOR SINGLE MODE FIBER, BY REGION, 2017–2020 (USD MILLION)
TABLE 73 MARKET FOR SINGLE MODE FIBER, BY REGION, 2021–2026 (USD MILLION)
8.3 MULTIMODE FIBER (MMF)
8.3.1 MULTIMODE FIBERS CONSUME LESS POWER THAN SINGLE MODE FIBERS AND ARE BEST SUITED FOR DATA CENTER APPLICATIONS
TABLE 74 LIST OF PLAYERS OFFERING MULTIMODE TRANSCEIVERS
TABLE 75 MARKET FOR MULTIMODE FIBER, BY FORM FACTOR, 2017–2020 (USD MILLION)
TABLE 76 MARKET FOR MULTIMODE FIBER, BY FORM FACTOR, 2021–2026 (USD MILLION)
TABLE 77 MARKET FOR MULTIMODE FIBER, BY APPLICATION, 2017–2020 (USD MILLION)
TABLE 78 MARKET FOR MULTIMODE FIBER, BY APPLICATION, 2021–2026 (USD MILLION)
TABLE 79 MARKET FOR MULTIMODE FIBER, BY REGION, 2017–2020 (USD MILLION)
FIGURE 54 MULTIMODE MARKET TO GROW AT THE HIGHEST CAGR IN APAC DURING THE FORECAST PERIOD
TABLE 80 MARKET FOR MULTIMODE FIBER, BY REGION, 2021–2026 (USD MILLION)
9 OPTICAL TRANSCEIVER MARKET, BY DISTANCE (Page No. - 169)
9.1 INTRODUCTION
TABLE 81 OPTICAL TRANSCEIVER MARKET, BY DISTANCE, 2017–2020 (USD MILLION)
FIGURE 55 OPTICAL TRANSCEIVERS FOR LESS THAN 1 KM TO DOMINATE THE MARKET DURING THE FORECAST PERIOD
TABLE 82 MARKET, BY DISTANCE, 2021–2026 (USD MILLION)
9.2 LESS THAN 1 KM
9.2.1 MULTIMODE FIBER TRANSCEIVERS ARE PREFERRED FOR LESS THAN 1 KM DISTANCE CONNECTIVITY FOR HIGH DATA RATE TRANSMISSION
TABLE 83 PLAYERS MANUFACTURING OPTICAL TRANSCEIVERS WITH LESS THAN 1 KM REACH COMPATIBILITY
TABLE 84 MARKET FOR LESS THAN 1 KM, BY REGION, 2017–2020 (USD MILLION)
FIGURE 56 NORTH AMERICA TO DOMINATE THE MARKET FOR LESS THAN 1 KM RANGE MODULES DURING THE FORECAST PERIOD
TABLE 85 MARKET FOR LESS THAN 1 KM, BY REGION, 2021–2026 (USD MILLION)
9.3 1 TO 10 KM
9.3.1 TRANSCEIVER MODULES OPERATING WITHIN 1 TO 10 KM DISTANCE ARE USED FOR INTRA DATA CENTER CONNECTION APPLICATIONS
TABLE 86 PLAYERS MANUFACTURING OPTICAL TRANSCEIVERS WITH 1 TO 10 KM REACH
TABLE 87 MARKET FOR 1 TO 10 KM, BY REGION, 2017–2020 (USD MILLION)
FIGURE 57 APAC MARKET FOR 1 TO 10 KM RANGE MODULES EXPECTED TO GROW AT THE HIGHEST CAGR DURING THE FORECAST PERIOD
TABLE 88 OPTICAL TRANSCEIVER MARKET FOR 1 TO 10 KM, BY REGION, 2021–2026 (USD MILLION)
9.4 11 TO 100 KM
9.4.1 OPTICAL TRANSCEIVERS OPERATING WITHIN A DISTANCE OF 11 TO 100 KM ARE OPERATED ON SINGLE-MODE FIBERS
TABLE 89 PLAYERS MANUFACTURING OPTICAL TRANSCEIVERS WITH 11 TO 100 KM REACH
TABLE 90 MARKET FOR 11 TO 100 KM, BY REGION, 2017–2020 (USD MILLION)
FIGURE 58 APAC REGION FOR 11 TO 100 KM RANGE MODULES EXPECTED TO HOLD THE LARGEST MARKET SHARE DURING THE FORECAST PERIOD
TABLE 91 MARKET FOR 11 TO 100 KM, BY REGION, 2021–2026 (USD MILLION)
9.5 MORE THAN 100 KM
9.5.1 OPTICAL TRANSCEIVERS FOR MORE THAN 100 KM ARE MAINLY USED FOR LONG-DISTANCE TELECOMMUNICATION NETWORKS
TABLE 92 PLAYERS MANUFACTURING OPTICAL TRANSCEIVERS WITH MORE THAN 100 KM REACH
TABLE 93 MARKET FOR MORE THAN 100 KM, BY REGION, 2017–2020 (USD MILLION)
FIGURE 59 APAC REGION FOR MORE THAN 100 KM RANGE MODULES EXPECTED TO HOLD THE LARGEST MARKET SHARE DURING THE FORECAST PERIOD
TABLE 94 OPTICAL TRANSCEIVER MARKET FOR MORE THAN 100 KM, BY REGION, 2021–2026 (USD MILLION)
10 OPTICAL TRANSCEIVER MARKET, BY WAVELENGTH (Page No. - 179)
10.1 INTRODUCTION
TABLE 95 MARKET, BY WAVELENGTH, 2017–2020 (USD MILLION)
FIGURE 60 OPTICAL TRANSCEIVERS OPERATING IN THE 1310 NM BAND TO GROW AT THE HIGHEST CAGR DURING THE FORECAST PERIOD
TABLE 96 MARKET, BY WAVELENGTH, 2021–2026 (USD MILLION)
10.2 850 NM BAND
10.2.1 MULTIMODE OPTICAL TRANSCEIVERS OPERATING IN THE 850 NM BAND ARE USED FOR SHORT-DISTANCE COMMUNICATION
TABLE 97 LIST OF PRODUCTS OPERATING AT 850 NM BAND
TABLE 98 MARKET FOR 850 NM BAND, BY FORM FACTOR, 2017–2020 (USD MILLION)
TABLE 99 MARKET FOR 850 NM BAND, BY FORM FACTOR, 2021–2026 (USD MILLION)
TABLE 100 MARKET FOR 850 NM BAND, BY REGION, 2017–2020 (USD MILLION)
TABLE 101 MARKET FOR 850 NM BAND, BY REGION, 2021–2026 (USD MILLION)
10.3 1310 NM BAND
10.3.1 1310 NM BAND IS SUITED FOR DATA TRANSFER THROUGH SINGLE-MODE AND MULTIMODE FIBERS
TABLE 102 LIST OF PRODUCTS OPERATING AT 1310 NM BAND
TABLE 103 MARKET FOR 1310 NM BAND, BY FORM FACTOR, 2017–2020 (USD MILLION)
TABLE 104 MARKET FOR 1310 NM BAND, BY FORM FACTOR, 2021–2026 (USD MILLION)
TABLE 105 MARKET FOR 1310 NM BAND, BY REGION, 2017–2020 (USD MILLION)
FIGURE 61 NORTH AMERICA TO LEAD THE MARKET FOR THE 1310 NM BAND
TABLE 106 OPTICAL TRANSCEIVER MARKET FOR 1310 NM BAND, BY REGION, 2021–2026 (USD MILLION)
10.4 1550 NM BAND
10.4.1 1150 NM BAND IS APT FOR LONG-DISTANCE COMMUNICATION
TABLE 107 LIST OF PRODUCTS OPERATING AT 1550 NM BAND
TABLE 108 MARKET FOR 1550 NM BAND, BY FORM FACTOR, 2017–2020 (USD MILLION)
TABLE 109 MARKET FOR 1550 NM BAND, BY FORM FACTOR, 2021–2026 (USD MILLION)
TABLE 110 MARKET FOR 1550 NM BAND, BY REGION, 2017–2020 (USD MILLION)
TABLE 111 OPTICAL TRANSCEIVER MARKET FOR 1550 NM BAND, BY REGION, 2021–2026 (USD MILLION)
10.5 OTHERS
TABLE 112 MARKET FOR OTHER WAVELENGTHS, BY FORM FACTOR, 2017–2020 (USD MILLION)
TABLE 113 MARKET FOR OTHER WAVELENGTHS, BY FORM FACTOR, 2021–2026 (USD MILLION)
TABLE 114 MARKET FOR OTHER WAVELENGTHS, BY REGION, 2017–2020 (USD MILLION)
TABLE 115 MARKET FOR OTHER WAVELENGTHS, BY REGION, 2021–2026 (USD MILLION)
11 OPTICAL TRANSCEIVER MARKET, BY CONNECTOR (Page No. - 193)
11.1 INTRODUCTION
TABLE 116 OPTICAL TRANSCEIVER MARKET, BY CONNECTOR, 2017–2020 (USD MILLION)
FIGURE 62 MPO CONNECTOR-BASED OPTICAL TRANSCEIVERS TO GROW AT THE HIGHEST CAGR DURING THE FORECAST PERIOD
TABLE 117 MARKET, BY CONNECTOR, 2021–2026 (USD MILLION)
11.2 LC CONNECTORS
11.2.1 LC CONNECTORS ARE WELL-SUITED FOR COHERENT POINT-TO-POINT AND METRO APPLICATIONS
TABLE 118 PLAYERS MANUFACTURING OPTICAL TRANSCEIVERS WITH LC CONNECTOR COMPATIBILITY
TABLE 119 MARKET FOR LC CONNECTORS, BY FORM FACTOR, 2017–2020 (USD MILLION)
FIGURE 63 MARKET FOR QSFP, QSFP+, QSFP-DD, AND QSFP28 MODULES BASED ON LC CONNECTORS TO GROW AT THE HIGHEST CAGR DURING THE FORECAST PERIOD
TABLE 120 MARKET FOR LC CONNECTORS, BY FORM FACTOR, 2021–2026 (USD MILLION)
TABLE 121 MARKET FOR LC CONNECTORS, BY REGION, 2017–2020 (USD MILLION)
TABLE 122 MARKET FOR LC CONNECTORS, BY REGION, 2021–2026 (USD MILLION)
11.3 SC CONNECTORS
11.3.1 SC CONNECTOR-BASED OPTICAL TRANSCEIVERS ARE EXPECTED TO GROW AT THE HIGHEST CAGR IN APAC
TABLE 123 PLAYERS MANUFACTURING OPTICAL TRANSCEIVERS WITH SC CONNECTOR COMPATIBILITY
TABLE 124 MARKET FOR SC CONNECTORS, BY FORM FACTOR, 2017–2020 (USD MILLION)
FIGURE 64 MARKET FOR CFP, CFP2, AND CFP4 MODULES BASED ON SC CONNECTORS TO GROW AT A HIGHER CAGR DURING THE FORECAST PERIOD
TABLE 125 MARKET FOR SC CONNECTORS, BY FORM FACTOR, 2021–2026 (USD MILLION)
TABLE 126 MARKET FOR SC CONNECTORS, BY REGION, 2017–2020 (USD MILLION)
TABLE 127 MARKET FOR SC CONNECTORS, BY REGION, 2021–2026 (USD MILLION)
11.4 MPO CONNECTOR
11.4.1 USE OF MPO CONNECTORS FOR HIGH-SPEED OPTICAL TRANSCEIVERS TO DRIVE THE MARKET GROWTH
TABLE 128 PLAYERS MANUFACTURING OPTICAL TRANSCEIVERS WITH MPO CONNECTOR COMPATIBILITY
TABLE 129 MARKET FOR MPO CONNECTORS, BY FORM FACTOR, 2017–2020 (USD MILLION)
FIGURE 65 MARKET FOR QSFP, QSFP+, QSFP-DD, AND QSFP28 MODULES BASED ON MPO CONNECTOR TO HOLD THE LARGEST SHARE DURING THE FORECAST PERIOD
TABLE 130MARKET FOR MPO CONNECTORS, BY FORM FACTOR, 2021–2026 (USD MILLION)
TABLE 131 MARKET FOR MPO CONNECTORS, BY REGION, 2017–2020 (USD MILLION)
TABLE 132 MARKET FOR MPO CONNECTORS, BY REGION, 2021–2026 (USD MILLION)
11.5 RJ-45
11.5.1 RJ-45 TRANSCEIVERS OFFER THE LOWEST DATA RATE CAPABILITY
TABLE 133 PLAYERS MANUFACTURING OPTICAL TRANSCEIVERS WITH RJ-45 CONNECTOR COMPATIBILITY
TABLE 134 MARKET FOR RJ-45 CONNECTORS, BY REGION, 2017–2020 (USD MILLION)
FIGURE 66 APAC REGION FOR MODULES BASED ON RJ-45 CONNECTORS EXPECTED TO GROW AT THE HIGHEST CAGR DURING THE FORECAST PERIOD
TABLE 135 MARKET FOR RJ-45 CONNECTORS, BY REGION, 2021–2026 (USD MILLION)
12 OPTICAL TRANSCEIVER MARKET, BY APPLICATION (Page No. - 208)
12.1 INTRODUCTION
TABLE 136 MARKET, BY APPLICATION, 2017–2020 (USD MILLION)
FIGURE 67 MARKET FOR DATA CENTER APPLICATIONS TO GROW AT THE HIGHEST CAGR DURING THE FORECAST PERIOD
TABLE 137 MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
12.2 TELECOMMUNICATION
12.2.1 ULTRA-LONG-HAUL NETWORK
12.2.1.1 DWDM technology is used for ultra-long-haul network communication
12.2.2 LONG-HAUL NETWORK
12.2.2.1 Single mode fibers are mostly used for long distances (metro and long-haul networks)
12.2.3 METRO NETWORK
12.2.3.1 Expansion of 4G and rising adoption of 5G would present opportunities for market growth
TABLE 138 PLAYERS MANUFACTURING OPTICAL TRANSCEIVERS FOR TELECOMMUNICATION APPLICATIONS
TABLE 139 OPTICAL TRANSCEIVER MARKET FOR TELECOMMUNICATION, BY FIBER TYPE, 2017–2020 (USD MILLION)
FIGURE 68 SINGLE MODE FIBER OPTICAL TRANSCEIVERS TO LEAD THE MARKET FOR TELECOMMUNICATION APPLICATIONS DURING THE FORECAST PERIOD
TABLE 140 MARKET FOR TELECOMMUNICATION, BY FIBER TYPE, 2021–2026 (USD MILLION)
TABLE 141 MARKET FOR TELECOMMUNICATION, BY REGION, 2017–2020 (USD MILLION)
TABLE 142 MARKET FOR TELECOMMUNICATION, BY REGION, 2021–2026 (USD MILLION)
12.3 DATA CENTER
12.3.1 DATA CENTER INTERCONNECT
12.3.1.1 Increasing data traffic and demand for higher data rates create opportunities for 400G transceivers in the market
12.3.2 INTRA-DATA CENTER CONNECTION
12.3.2.1 Growing demand for cloud-based services, and emerging technologies such as AI, deep learning, and virtual reality are driving the growth of energy-efficient and high-speed transceivers
TABLE 143 PLAYERS MANUFACTURING OPTICAL TRANSCEIVERS FOR DATA CENTER APPLICATIONS
TABLE 144 MARKET FOR DATA CENTER, BY FIBER TYPE, 2017–2020 (USD MILLION)
FIGURE 69 MULTIMODE FIBER OPTICAL TRANSCEIVERS TO HOLD A LARGER MARKET SHARE FOR DATA CENTER APPLICATIONS DURING THE FORECAST PERIOD
TABLE 145 MARKET FOR DATA CENTER, BY FIBER TYPE, 2021–2026 (USD MILLION)
TABLE 146 MARKET FOR DATA CENTER, BY REGION, 2017–2020 (USD MILLION)
TABLE 147 MARKET FOR DATA CENTER, BY REGION, 2021–2026 (USD MILLION)
12.4 ENTERPRISE
12.4.1 INCREASING NEED FOR HIGH DATA RATES FOR VARIOUS ENTERPRISE APPLICATIONS DRIVES THE MARKET GROWTH
TABLE 148 PLAYERS MANUFACTURING OPTICAL TRANSCEIVERS FOR ENTERPRISE APPLICATIONS
TABLE 149 MARKET FOR ENTERPRISE, BY FIBER TYPE, 2017–2020 (USD MILLION)
FIGURE 70 MULTIMODE FIBER OPTICAL TRANSCEIVERS TO HOLD A LARGER MARKET SHARE FOR ENTERPRISE APPLICATIONS DURING THE FORECAST PERIOD
TABLE 150 MARKET FOR ENTERPRISE, BY FIBER TYPE, 2021–2026 (USD MILLION)
TABLE 151 MARKET FOR ENTERPRISE, BY REGION, 2017–2020 (USD MILLION)
TABLE 152 MARKET FOR ENTERPRISE, BY REGION, 2021–2026 (USD MILLION)
12.5 COVID-19 IMPACT ON VARIOUS APPLICATIONS OF OPTICAL TRANSCEIVERS
12.5.1 MOST IMPACTED APPLICATION
FIGURE 71 IMPACT OF COVID-19 ON THE MARKET FOR ENTERPRISE APPLICATIONS
12.5.2 LEAST IMPACTED APPLICATION
FIGURE 72 IMPACT OF COVID-19 ON THE OPTICAL TRANSCEIVER MARKET FOR DATA CENTER APPLICATIONS
13 OPTICAL TRANSCEIVER MARKET, BY PROTOCOL (Page No. - 223)
13.1 INTRODUCTION
TABLE 153 MARKET, BY PROTOCOL, 2017–2020 (USD MILLION)
FIGURE 73 MARKET FOR FTTX TO WITNESS THE HIGHEST GROWTH RATE DURING THE FORECAST PERIOD
TABLE 154 MARKET, BY PROTOCOL, 2021–2026 (USD MILLION)
13.2 ETHERNET
13.2.1 WIDE RANGE OF DATA RATE SUPPORT ENABLES THE ADOPTION OF ETHERNET OPTICAL TRANSCEIVERS FOR OFFICES AS WELL AS DATA CENTERS
TABLE 155 KEY COMPANIES OFFERING ETHERNET OPTICAL TRANSCEIVERS
13.3 FIBER CHANNEL
13.3.1 FIBER CHANNEL OPTICAL TRANSCEIVERS ARE MAINLY ADOPTED IN DATA CENTERS
TABLE 156 KEY COMPANIES OFFERING FIBER CHANNEL OPTICAL TRANSCEIVERS
13.4 CWDM/DWDM
13.4.1 WAVELENGTH DIVISION MULTIPLEXING (WDM) PROTOCOLS HELP IN INCREASING THE DATA CARRYING CAPACITY WITHOUT INCREASING THE DATA RATES
TABLE 157 KEY COMPANIES OFFERING CWDM/DWDM OPTICAL TRANSCEIVERS
13.5 FTTX (PON/BIDI)
13.5.1 FTTH IS ONE OF THE KEY APPLICATIONS FUELING THE GROWTH OF THE MARKET
TABLE 158 KEY COMPANIES OFFERING FTTX (PON/BIDI) OPTICAL TRANSCEIVERS
13.6 OTHER PROTOCOLS
TABLE 159 KEY COMPANIES OFFERING OPTICAL TRANSCEIVERS COMPATIBLE WITH OTHER PROTOCOLS
14 OPTICAL TRANSCEIVERS MARKET, BY GEOGRAPHY (Page No. - 229)
14.1 INTRODUCTION
FIGURE 74 OPTICAL TRANSCEIVER MARKET IN CHINA TO GROW AT THE HIGHEST CAGR
TABLE 160 MARKET, BY REGION, 2017–2020 (USD MILLION)
FIGURE 75 MARKET IN APAC TO GROW AT THE HIGHEST CAGR DURING THE FORECAST PERIOD
TABLE 161 MARKET, BY REGION, 2021–2026 (USD MILLION)
14.2 NORTH AMERICA
FIGURE 76 SNAPSHOT: NORTH AMERICAN OPTICAL TRANSCEIVER MARKET
TABLE 162 NORTH AMERICA: MARKET, BY COUNTRY, 2017–2020 (USD MILLION)
TABLE 163 NORTH AMERICA: MARKET, BY COUNTRY, 2021–2026 (USD MILLION)
TABLE 164 NORTH AMERICA: MARKET, BY APPLICATION, 2017–2020 (USD MILLION)
TABLE 165 NORTH AMERICA: MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
TABLE 166 NORTH AMERICA: MARKET, BY FIBER TYPE, 2017–2020 (USD MILLION)
TABLE 167 NORTH AMERICA: MARKET, BY FIBER TYPE, 2021–2026 (USD MILLION)
TABLE 168 NORTH AMERICA: MARKET, BY DATA RATE, 2017–2020 (USD MILLION)
TABLE 169 NORTH AMERICA: MARKET, BY DATA RATE, 2021–2026 (USD MILLION)
TABLE 170 NORTH AMERICA: MARKET, BY WAVELENGTH, 2017–2020 (USD MILLION)
TABLE 171 NORTH AMERICA: MARKET, BY WAVELENGTH, 2021–2026 (USD MILLION)
TABLE 172 NORTH AMERICA: MARKET, BY CONNECTOR, 2017–2020 (USD MILLION)
TABLE 173 NORTH AMERICA: MARKET, BY CONNECTOR, 2021–2026 (USD MILLION)
TABLE 174 NORTH AMERICA: MARKET, BY DISTANCE, 2017–2020 (USD MILLION)
TABLE 175 NORTH AMERICA: MARKET, BY DISTANCE, 2021–2026 (USD MILLION)
TABLE 176 NORTH AMERICA: MARKET, BY PROTOCOL, 2017–2020 (USD MILLION)
TABLE 177 NORTH AMERICA: MARKET, BY PROTOCOL, 2021–2026 (USD MILLION)
14.2.1 US
14.2.1.1 Data centers and cloud-based services are fueling the market growth in the United States
14.2.2 CANADA
14.2.2.1 Canada is an emerging hotspot for data center application and 5G networking
14.2.3 MEXICO
14.2.3.1 The increase in internet data traffic and data centers with leading streaming services and online gaming will propel the Mexican market
14.3 EUROPE
FIGURE 77 SNAPSHOT: EUROPEAN OPTICAL TRANSCEIVER MARKET
TABLE 178 EUROPE: MARKET, BY COUNTRY, 2017–2020 (USD MILLION)
TABLE 179 EUROPE: MARKET, BY COUNTRY, 2021–2026 (USD MILLION)
TABLE 180 EUROPE: MARKET, BY APPLICATION, 2017–2020 (USD MILLION)
TABLE 181 EUROPE: MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
TABLE 182 EUROPE: MARKET, BY FIBER TYPE, 2017–2020 (USD MILLION)
TABLE 183 EUROPE: MARKET, BY FIBER TYPE, 2021–2026 (USD MILLION)
TABLE 184 EUROPE: MARKET, BY DATA RATE, 2017–2020 (USD MILLION)
TABLE 185 EUROPE: MARKET, BY DATA RATE, 2021–2026 (USD MILLION)
TABLE 186 EUROPE: MARKET, BY WAVELENGTH, 2017–2020 (USD MILLION)
TABLE 187 EUROPE: MARKET, BY WAVELENGTH, 2021–2026 (USD MILLION)
TABLE 188 EUROPE: MARKET, BY CONNECTOR, 2017–2020 (USD MILLION)
TABLE 189 EUROPE: MARKET, BY CONNECTOR, 2021–2026 (USD MILLION)
TABLE 190 EUROPE: MARKET, BY DISTANCE, 2017–2020 (USD MILLION)
TABLE 191 EUROPE: MARKET, BY DISTANCE, 2021–2026 (USD MILLION)
TABLE 192 EUROPE: MARKET, BY PROTOCOL, 2017–2020 (USD MILLION)
TABLE 193 EUROPE: MARKET, BY PROTOCOL, 2021–2026 (USD MILLION)
14.3.1 GERMANY
14.3.1.1 Germany is expected to be driven by its leading 5G readiness, strong infrastructures, and cloud-based services integrated with big data, AI, and IoT
14.3.2 UK
14.3.2.1 The UK has a growing market for smart devices and 5G technology, as well as an increasing number of data center applications
14.3.3 FRANCE
14.3.3.1 The presence of several big telecom operators, as well as opportunities for digital skills, and AI integration with 5G networks across France, presents market opportunities
14.3.4 REST OF EUROPE (ROE)
14.4 APAC
FIGURE 78 SNAPSHOT: APAC OPTICAL TRANSCEIVER MARKET
TABLE 194 APAC: MARKET, BY COUNTRY, 2017–2020 (USD MILLION)
TABLE 195 APAC: MARKET, BY COUNTRY, 2021–2026 (USD MILLION)
TABLE 196 APAC: MARKET, BY APPLICATION, 2017–2020 (USD MILLION)
TABLE 197 APAC: MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
TABLE 198 APAC: MARKET, BY FIBER TYPE, 2017–2020 (USD MILLION)
TABLE 199 APAC: MARKET, BY FIBER TYPE, 2021–2026 (USD MILLION)
TABLE 200 APAC: MARKET, BY DATA RATE, 2017–2020 (USD MILLION)
TABLE 201 APAC: MARKET, BY DATA RATE, 2021–2026 (USD MILLION)
TABLE 202 APAC: MARKET, BY WAVELENGTH, 2017–2020 (USD MILLION)
TABLE 203 APAC: MARKET, BY WAVELENGTH, 2021–2026 (USD MILLION)
TABLE 204 APAC: MARKET, BY CONNECTOR, 2017–2020 (USD MILLION)
TABLE 205 APAC: MARKET, BY CONNECTOR, 2021–2026 (USD MILLION)
TABLE 206 APAC: MARKET, BY DISTANCE, 2017–2020 (USD MILLION)
TABLE 207 APAC: MARKET, BY DISTANCE, 2021–2026 (USD MILLION)
TABLE 208 APAC: MARKET, BY PROTOCOL, 2017–2020 (USD MILLION)
TABLE 209 APAC: MARKET, BY PROTOCOL, 2021–2026 (USD MILLION)
14.4.1 CHINA
14.4.1.1 The rapidly increasing number of data centers, as well as the advancement of 5G networks with higher bandwidths, are driving market opportunities in China
14.4.2 JAPAN
14.4.2.1 Increasing cloud-based services, smart electronic devices, and technological advancements in 5G and beyond 5G are expanding opportunities in Japan's optical transceiver market
14.4.3 SOUTH KOREA
14.4.3.1 South Korean market expected to be driven by 5G development and a strong foundation in electronics, semiconductors, and consumer electronic devices
14.4.4 REST OF APAC (ROAPAC)
14.5 REST OF THE WORLD (ROW)
FIGURE 79 SNAPSHOT: ROW OPTICAL TRANSCEIVER MARKET
TABLE 210 ROW: MARKET, BY REGION, 2017–2020 (USD MILLION)
TABLE 211 ROW: MARKET, BY REGION, 2021–2026 (USD MILLION)
TABLE 212 ROW: MARKET, BY APPLICATION, 2017–2020 (USD MILLION)
TABLE 213 ROW: MARKET, BY APPLICATION, 2021–2026 (USD MILLION)
TABLE 214 ROW: MARKET, BY FIBER TYPE, 2017–2020 (USD MILLION)
TABLE 215 ROW: MARKET, BY FIBER TYPE, 2021–2026 (USD MILLION)
TABLE 216 ROW: MARKET, BY DATA RATE, 2017–2020 (USD MILLION)
TABLE 217 ROW: MARKET, BY DATA RATE, 2021–2026 (USD MILLION)
TABLE 218 ROW: MARKET, BY WAVELENGTH, 2017–2020 (USD MILLION)
TABLE 219 ROW: MARKET, BY WAVELENGTH, 2021–2026 (USD MILLION)
TABLE 220 ROW: MARKET, BY CONNECTOR, 2017–2020 (USD MILLION)
TABLE 221 ROW: MARKET, BY CONNECTOR, 2021–2026 (USD MILLION)
TABLE 222 ROW: MARKET, BY DISTANCE, 2017–2020 (USD MILLION)
TABLE 223 ROW: MARKET, BY DISTANCE, 2021–2026 (USD MILLION)
TABLE 224 ROW: MARKET, BY PROTOCOL, 2017–2020 (USD MILLION)
TABLE 225 ROW: MARKET, BY PROTOCOL, 2021–2026 (USD MILLION)
14.5.1 SOUTH AMERICA
14.5.1.1 The market for South America is expected to be driven by 5G development and data centers as a result of the rising data traffic due to OTT platforms
14.5.2 MIDDLE EAST & AFRICA (MEA)
14.5.2.1 5G development and cloud services integration with IoT and digital skills are expected to drive the MEA market
14.6 COVID-19 IMPACT ON THE OPTICAL TRANSCEIVER MARKET IN VARIOUS REGIONS
14.6.1 MOST IMPACTED REGION
FIGURE 80 EUROPE: IMPACT OF COVID-19 ON THE MARKET
14.6.2 LEAST IMPACTED REGION
FIGURE 81 NORTH AMERICA: IMPACT OF COVID-19 ON THE MARKET
15 COMPETITIVE LANDSCAPE (Page No. - 273)
15.1 OVERVIEW
15.2 KEY PLAYER STRATEGIES/RIGHT TO WIN
TABLE 226 OVERVIEW OF STRATEGIES DEPLOYED BY OPTICAL TRANSCEIVER COMPANIES
15.2.1 PRODUCT PORTFOLIO
15.2.2 REGIONAL FOCUS
15.2.3 MANUFACTURING FOOTPRINT
15.2.4 ORGANIC/INORGANIC PLAY
15.3 MARKET SHARE ANALYSIS, 2020
TABLE 227 DEGREE OF COMPETITION IN THE MARKET, 2020
15.4 5-YEAR REVENUE ANALYSIS OF TOP 5 PLAYERS
FIGURE 82 5-YEAR REVENUE ANALYSIS OF TOP 5 PLAYERS IN THE OPTICAL TRANSCEIVER MARKET
15.5 COMPANY EVALUATION QUADRANT
15.5.1 STARS
15.5.2 EMERGING LEADERS
15.5.3 PERVASIVE
15.5.4 PARTICIPANTS
FIGURE 83 OPTICAL TRANSCEIVER MARKET: COMPANY EVALUATION QUADRANT, 2020
15.6 STARTUP/SME EVALUATION MATRIX
TABLE 228 STARTUPS/SMES IN THE MARKET
15.6.1 PROGRESSIVE COMPANIES
15.6.2 RESPONSIVE COMPANIES
15.6.3 DYNAMIC COMPANIES
15.6.4 STARTING BLOCKS
FIGURE 84 MARKET, STARTUP/SME EVALUATION MATRIX, 2020
15.7 COMPANY FOOTPRINT (40 COMPANIES)
TABLE 229 COMPANY FOOTPRINT (40 COMPANIES)
TABLE 230 COMPANY APPLICATION FOOTPRINT
TABLE 231 COMPANY DATA RATE FOOTPRINT (40 COMPANIES)
TABLE 232 COMPANY REGION FOOTPRINT (40 COMPANIES)
15.8 COMPETITIVE SITUATIONS AND TRENDS
15.8.1 PRODUCT LAUNCHES
TABLE 233 PRODUCT LAUNCHES, MARCH 2020–DECEMBER 2020
15.8.2 DEALS
TABLE 234 DEALS, FEBRUARY 2020–DECEMBER 2020
15.8.3 OTHERS
TABLE 235 EXPANSION, JANUARY 2018–DECEMBER 2020
16 COMPANY PROFILES (Page No. - 292)
(Business Overview, Products Offered, Recent Developments, SWOT Analysis, MnM View)*
16.1 KEY PLAYERS
16.1.1 II-VI
TABLE 236 II-VI: BUSINESS OVERVIEW
FIGURE 85 II-VI: COMPANY SNAPSHOT
16.1.2 BROADCOM
TABLE 237 BROADCOM: BUSINESS OVERVIEW
FIGURE 86 BROADCOM: COMPANY SNAPSHOT
16.1.3 LUMENTUM
TABLE 238 LUMENTUM: BUSINESS OVERVIEW
FIGURE 87 LUMENTUM: COMPANY SNAPSHOT
16.1.4 SUMITOMO ELECTRIC INDUSTRIES
TABLE 239 SUMITOMO ELECTRIC INDUSTRIES: BUSINESS OVERVIEW
FIGURE 88 SUMITOMO ELECTRIC INDUSTRIES: COMPANY SNAPSHOT
16.1.5 ACCELINK
TABLE 240 ACCELINK: BUSINESS OVERVIEW
FIGURE 89 ACCELINK: COMPANY SNAPSHOT
16.1.6 APPLIED OPTOELECTRONICS
TABLE 241 APPLIED OPTOELECTRONICS: BUSINESS OVERVIEW
FIGURE 90 APPLIED OPTOELECTRONICS: COMPANY SNAPSHOT
16.1.7 FUJITSU OPTICAL COMPONENTS
TABLE 242 FUJITSU OPTICAL COMPONENTS: BUSINESS OVERVIEW
FIGURE 91 FUJITSU OPTICAL COMPONENTS: COMPANY SNAPSHOT
16.1.8 INNOLIGHT
TABLE 243 INNOLIGHT: BUSINESS OVERVIEW
16.1.9 MELLANOX
TABLE 244 MELLANOX: BUSINESS OVERVIEW
FIGURE 92 MELLANOX: COMPANY SNAPSHOT
16.1.10 NEOPHOTONICS
TABLE 245 NEOPHOTONICS: BUSINESS OVERVIEW
FIGURE 93 NEOPHOTONICS: COMPANY SNAPSHOT
16.2 OTHER KEY PLAYERS
16.2.1 CIENA
16.2.2 CISCO
16.2.3 HISENSE BROADBAND
16.2.4 INTEL
16.2.5 NEC
16.2.6 PERLE SYSTEMS
16.2.7 REFLEX PHOTONICS
16.2.8 SMARTOPTICS
16.2.9 SOLID OPTICS
16.2.10 SOURCE PHOTONICS
16.2.11 HUAWEI
16.2.12 EOPTOLINK
16.2.13 INFINERA
16.2.14 FOCI
16.2.15 AMPHENOL
*Details on Business Overview, Products Offered, Recent Developments, SWOT Analysis, MnM View might not be captured in case of unlisted companies.
17 APPENDIX (Page No. - 357)
17.1 DISCUSSION GUIDE
17.2 KNOWLEDGE STORE: MARKETSANDMARKETS’ SUBSCRIPTION PORTAL
17.3 AVAILABLE CUSTOMIZATIONS
17.4 RELATED REPORTS (OPTICAL TRANSCEIVER MARKET)
17.5 AUTHOR DETAILS
This research study incorporates the use of extensive secondary sources, directories, and databases such as Hoovers, Bloomberg Businessweek, Factiva, and Dun & Bradstreet to identify and collect information useful for the technical, market-oriented, and commercial study of the optical transceiver market.
In-depth interviews have been conducted with various primary respondents, including key industry participants, subject matter experts (SMEs), C-level executives of the major companies in the market, and industry consultants to obtain and verify critical qualitative and quantitative information, as well as to assess the future market prospects.
Secondary Research
In the secondary research process, various secondary sources have been referred to for identifying and collecting information pertinent to this study. Secondary sources include annual reports, press releases, investor presentations, white papers, journals and certified publications, and articles from recognized authors, directories, and databases. Secondary research has been conducted to obtain key information about the industry’s supply chain, value chain, the total pool of key players, market segmentation according to the industry trends (to the bottommost level), geographic markets, and key developments from both market- and technology-oriented perspectives.
After the complete market engineering (which includes calculations for market statistics, market breakdown, data triangulation, market size estimations, and market forecasting), extensive primary research has been carried out to gather information and verify and validate the critical numbers arrived at.
Primary research has also been conducted to identify the segmentation types, key players, competitive landscape, and key market dynamics such as drivers, restraints, opportunities, challenges, and industry trends, along with key strategies adopted by players operating in the optical transceiver market. Extensive qualitative and quantitative analyses have been performed on the complete market engineering process to list the key information and insights throughout the report.
Secondary sources used for this research study include government sources, corporate filings (such as annual reports, investor presentations, and financial statements), and trade, business, and professional associations. Secondary data has been collected and analyzed to arrive at the overall market size, which has been further validated through primary research.
Primary Research
Extensive primary research has been conducted after gaining knowledge about the optical transceiver market scenario through secondary research. Several primary interviews have been conducted with market experts from both demand (end-users) and supply (equipment manufacturers and distributors) sides across 4 major regions—North America, Europe, APAC, and RoW. Approximately 25% and 75% of primary interviews were conducted with parties from the demand side and supply side, respectively. Primary data has been collected through questionnaires, emails, and telephonic interviews.
To know about the assumptions considered for the study, download the pdf brochure
Market Size Estimation
In the complete engineering process, both top-down and bottom-up approaches, along with several data triangulation methods, have been used to estimate and validate the size of the optical transceiver market and other dependent submarkets. Key players in the market have been determined through primary and secondary research. This entire research methodology involves the study of the annual and financial reports of top market players and extensive interviews with industry experts such as CEOs, VPs, directors, and marketing executives for key insights (both qualitative and quantitative) about the optical transceiver market.
All percentage shares, splits, and breakdowns have been determined using secondary sources and verified through primary sources. All the possible parameters that affect the market segments covered in this research study have been accounted for, viewed in extensive detail, verified through primary research, and analyzed to get the final quantitative and qualitative data. This data has been consolidated and supplemented with detailed inputs and analysis from MarketsandMarkets and presented in the report.
Optical Transceiver Market: Bottom-Up Approach
Optical Transceiver Market: Top-Down Approach
Data Triangulation
After arriving at the overall market size from the estimation process explained above, the total market has been split into several segments and subsegments. To complete the overall market engineering process and arrive at the exact statistics for all the segments and subsegments, data triangulation, and market breakdown procedures have been employed, wherever applicable. The data has been triangulated by studying various factors and trends from both the demand and supply sides. The market has also been validated using both top-down and bottom-up approaches.
Report Objectives
- To describe and forecast the optical transceiver market, in terms of value, based on form factor, data rate, wavelength, fiber type, connector, distance, protocol, and application
- To describe and forecast the optical transceiver market, in terms of volume, based on data rates
- To describe and forecast the optical transceiver market size, in terms of value, with respect to four main regions, namely, North America, Europe, Asia Pacific (APAC), and the Rest of the World (RoW)
- To provide detailed information regarding the drivers, restraints, opportunities, and challenges influencing the growth of the optical transceiver market
- To provide a detailed overview of the supply chain of the optical transceiver ecosystem
- To strategically analyze the micromarkets1 with respect to individual growth trends, prospects, and contributions to the overall market
- To analyze the opportunities in the market for various stakeholders by identifying the high-growth segments of the market
- To benchmark the market players using the proprietary, company evaluation matrix framework, which analyzes the market players on various parameters within the broad categories of market ranking/share and product portfolio
- To strategically profile the key players and comprehensively analyze their market positions in terms of ranking and core competencies2, along with a detailed competitive landscape of the market
- To analyze the competitive developments such as acquisitions, product launches, partnerships, expansions, and collaborations undertaken in the optical transceiver market
- Triangulate with your Own Data
- Get Data as per your Format and Definition
- Gain a Deeper Dive on a Specific Application, Geography, Customer or Competitor
- Any level of Personalization
- What are the Known and Unknown Adjacencies Impacting the Optical Transceiver Market
- What will your New Revenue Sources be?
- Who will be your Top Customer; what will make them switch?
- Defend your Market Share or Win Competitors
- Get a Scorecard for Target Partners
Growth opportunities and latent adjacency in Optical Transceiver Market
I'm interesting about the tunable DWDM Optical Transceiver Markets and expectations while 5G wireless network environment. Has this been considered? How would 5G impact the use of optical transiver market?
Looking for market research on optical transceiver market broken down by speed and industry vertical. Which are the major industries apart from telecom sector? How 5G impact the further adoption of optical transivers?
We would like to know the market research of the optical transceiver. Have you considered the market by data ranges and data rates?
We are going to develop connector in optical fiber industry. Can you provide us with the market scope of the same? Has connectors been included in the scope of the study?
I am interested in a Optical Receiver / GBIC break down ... Esp. problems with GBIC counter fits (or use of non-compliant GBIC modules in service contracts) and the resulting financial damage. Is this a major restraining factor for the Optical Transceiver Market?
The key players in the optical transceiver market are 1. Finisar Corp. (U.S.), 2. Accelink Technologies Co., Ltd. (China), 3. Lumentum Holdings Inc. (U.S.), 4. Oclaro, Inc. (U.S.), 5. Sumitomo Electric Industries, Ltd. (Japan), 6. Foxconn Electronics Inc. (Taiwan), 7. NeoPhotonics Corp. (U.S.), 8. Fujitsu Optical Components Ltd. (Japan), 9. Reflex Photonics Inc. (Canada), and Source 10. Photonics Inc. (U.S.), among others. Which other players have you considered? How smartphones would impact the overall offerings of this market?