The optical spectrum analyzer (OSA) market is expected to have a consistent increase in its sales between 2025 and 2035. The reason behind this is the rising utilization of OSAs in the fields of telecommunications, semiconductor manufacturing, biomedical research, and aerospace & defense. Starting from USD 411.3 million in 2025, the total revenue is estimated to reach USD 715.9 million by 2035, indicating a 5.7% CAGR during this period.
The optical spectrum analyzers, which play an essential role in the determination of the wavelength distribution of light signals, are the main components for the tech industries seeking to reach standards in fiber optics, laser systems, and optical communication networks. The adoption of 5G networks, photonic integrated circuits (PICs), and developing data center facilities are the factors driving demand for more precise OSAs with real-time monitoring and ultra-fast scanning features.
The ongoing improvements in LIDAR (Light Detection and Ranging), optical sensing, quantum computing, and silicon photonics are also responsible for the changes in the state of the market. The transition to AI-based optical analysis, the development of compact forms, and the introduction of portable OSA devices are making it easier for all sectors to adopt and use this technology.
Metric | Value |
---|---|
Industry Size (2025E) | USD 411.3 million |
Industry Value (2035F) | USD 715.9 million |
CAGR (2025 to 2035) | 5.7% |
The significant development in the field of telecommunications, cloud computing, and data communication by satellite is the foremost reason for the requirement of next-level OSAs having improved resolution, multi-wavelength analysis, and wider dynamic range. The laser-centered environmental initiative adopted by the aerospace, biomedical, and defense industries drives the demand for a high-level of OSAs in the application of spectroscopy, material characterization, and quantum optics.
The development of smart factories, autonomous quality control systems, and AI-powered photonic diagnostics is, thus, the major factor for the promotion of digitalized, cloud-integrated spectrum analyzers. Governments and private sectors are not only heavily financing the photonics research but also the quantum communication infrastructure and space-based optical networks, thus expanding the market for these products.
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As a result of its robust performance in telecommunications, aerospace, and semiconductor industries, optical spectrum analyzers are being driven by North America as a leading market. The United States and Canada have witnessed an increase in the demand for highly accurate OSAs used in 5G deployment, optical fiber testing, and laser system development.
The government initiatives that are backing photonics research, secure optical communications, and next-generation semiconductor fabrication are also the reasons for the investments in high-performance spectrum analyzers. Major sectors of the aerospace and defense are the laser targeting systems, satellite communication, and quantum optics that are the major contributors to the market growth.
The rising number of data centers that are being set up in the region, the quick expansion of cloud computing, and the adoption of AI-driven optical diagnostics are some other reasons that are sustaining the need for high-resolution OSAs. In addition to that, the investments in quantum computing and biomedical photonics research have made North America the next-gen optical spectrum analysis technologies hub.
Sustainable growth is being witnessed in the OSA market in Europe, while Germany, France, the UK, and Italy lead in the fields of telecommunications, industrial automation, and photonics research. The European Union's will and faith in the 5G program roll-out, as well as the smart infrastructures and quantum communication technologies, is the main factor of the increased need for these tools.
Germany, which has industrial photonics, semiconductor fabrication, and automotive LIDAR systems as its mainstays, is still a crucial market for the precision high optical testing instruments. The UK and France are turning their attention to the AI-powered optical diagnostics, biomedical imaging, and the latest development in quantum optics research thus pushing the OSA adoption forwards.
Europe's commitment to the implementation of fast optical fiber networks, and the introduction of laser-based security systems, as well as the use of renewable energy (like solar cell optimization) are the reasons for the creation of the new market niches. The region's effort for the manufacture of miniaturized and portable OSAs is likely to be another driving force for the application in field tests and on-site diagnostics.
Asia-Pacific is the quickest developing zone, with China, Japan, India, and South Korea leading the charge for telecommunications, semiconductor testing, and advanced optical sensing. The region's rapid urbanization, 5G deployment, and fiber-optic infrastructure investment are the main factors driving OSA acceptance.
China is making considerable efforts in developing photonics, optical networking and semiconductor technologies which establish it as the main player in OSA production and deployment. Japan and South Korea are top players in the high-tech optical electronics and precision engineering fields and have developed miniaturized OSAs fit for portable and remote applications.
Along with the growing Indian telecom sector, the government-endorsed optical fiber expansion schemes and the increased application of laser technologies for medical diagnostics are speeding up the market growth. The increase in smart city projects, self-driving cars, and AI-powered optical diagnostics is the main factor behind the sharp rise in the demand for high-speed, compact spectrum analyzers in the various industries.
Optical spectrum analyzers in telecommunications, defense, and energy sectors are experiencing a gradual increase in demand in emerging markets like Brazil, Mexico, Saudi Arabia, and South Africa. The Middle East's reliance on satellite communication, secure optical networks, and AI photonic applications is increased, consequently setting new areas of growth.
Latin America which includes Brazil and Mexico has been the main fiber-optic network and 5G infrastructure pilot in the region, which has prompted the use of OSA-bound monitoring solutions. Africa is putting the emphasis on green energy, smart grid improvements, and space-borne optical studies which additionally drives OSA in offsite and industrial applications.
High Equipment Costs & Technological Complexity
Optical spectrum analyzers (OSAs) stand out as photonic systems that use advanced components, precision optical systems, and high-speed data processing, making them very costly and complex technologically. Ultra-high-resolution, AI-driven analytics, and multi-channel testing break the way for high-end OSAs, especially the ones that can utilize all the features.
This is not an easy task for small and medium-sized enterprises (SMEs) to implement. Besides, risks of calibration, irregular software updates, and maintenance costs can all hike the budget, thus, making the chances of installation quite slim. In general, most OSAs require specific training for their functioning and configuration of such things as wavelength parameters, spectral data interpretation, and solving optical interference issues call for an expert's assistance.
Such features as the absence of user-friendly automation and lack of standard compatibility between different OSA models pose an extra burden in attaching to existing LIDAR systems, fiber-optic networks, and applying photonic research facilities, hence, making the products trike-wide adoption in the oft- quoted financial and health sectors.
Evolving Standards & Compatibility Issues
The fast-paced progress in five-gigabyte networks, photonic computing, and quantum communication technologies is the reason behind the quite frequent turmoil in the optical testing standards, which requires OSA manufacturers to periodically do away with old software, hardware, and update measuring protocols.
Different industries such as telecommunications, aerospace, and semiconductor manufacturing each have different compliance requirements, which results in incompatibility issues between OSA models. Compliance with industry standard protocols like the ITU-T for fiber optics, IEEE 802.3bs for data transmission, and ISO 9001 for laboratory testing can all involve equipment upgrades in terms of resolution, wavelength range, and optical signal analysis.
The lack of a common ground in the interoperability of multi-vendor OSA setups further incurs additional costs for calibration, interoperability testing, and certification compliance, and subsequently hampers the penetration of the market into emerging areas like silicon photonics and AI-based optical sensing.
Shortage of Skilled Professionals
A shortfall of human resources is one of the main issues the optical spectrum analyzer sector has to deal with at the moment and this is due to the fact that we have very few qualified individuals that are adept in fiber optics, quantum computing, and high-level photonic diagnostics.
Operating OSAs refers to the need for experts in optics, signal processing, and hardware engineers for AI spectral analysis, while the shortage of engineers and technicians impedes the process. Many enterprises often face this dilemma of sourcing for good technicians who can handle the issue of integrating high-resolution spectrometers, fixing signals defects, and interlinking OSAs with AI-based diagnostic setups.
An even worse scenario regarding this matter comes from the lack of standard training programs, partnerships between industries and academic institutions, and furthermore the absence of hands-on workforce development initiatives which is further separating the two parties. The firms are left with no option but to turn to training and automation which in turn leads to a rise in operational costs and creates barriers to the adoption of the required technology.
Advancements in AI-Powered Optical Testing
The merge between artificial intelligence (AI) and machine learning (ML) with OSAs is devastatingly changing the nature of optical spectrum analysis since it allows for automated signal interpretation, real-time fault detection, and predictive maintenance. The OSAs with an AI edge can not only improve spectral resolution but also can adjust data accuracy and attachment to highly trained specialists.
For instance, in the telecommunications of the era of 5G, the OSAs that are powered by AI can adjust the wavelength autonomously, detect the anomalies in the course of transmission, and thus be intact at all times in the said network. Likewise, in the field of biomedical research, AI-assisted spectroscopy can be utilized to facilitate the detection of cancer, pharmaceutical analysis, and laser diagnostics.
Such developments obviously will make the market more accessible and thus lead the way for the availability of high-performance OSAs to companies that draw less attention like small research labs, telecom operators, and industrial automation units.
Expansion in 5G, Quantum Computing, and Space Optics
The swift roll-out of 5G networks, quantum computing, and space-based optical communication has led to a spike in high-resolution scopes. With the expansion of fiber-optic networks, the telecom providers are thus required to use advanced OSAs for wavelength division multiplexing (WDM), optical amplifier testing, and high-speed data transmission validation.
The application of scopes in quantum computing helps to analyze entangled photons, measure ultra-fast light pulses, and test out quantum encryption methods. The increasing focus on satellite communication, deep-space laser transmissions, and interstellar spectroscopy is persuading OSA manufacturers to produce, robust high-precision spectrum analyzers that can operate under extreme conditions in space. Companies that go for the new generation of this type of scope in quantum networks, satellite photonics, and laser navigation will clearly put themselves ahead of their rivals.
Growing Demand for Portable & Compact OSAs
The need for small-sized, transport-friendly OSAs is being felt more and more as the industries hunt for decentralized, real-time spectrum monitoring solutions. Classical OSAs are space-hoggers and so have to be confined to the lab for many people. But thanks to innovations in photonics integration, software, and AI Remote Sensing are the energy of the handheld, battery-operated OSAs.
These devices are portable and very suitable for the telecom field technicians, aerospace engineers, and industrial automation specialists who want to perform quick and direct spectral diagnoses. The inside of autonomous vehicles, smart city infrastructure, and industrial IoT applications is liberated from OSAs which perform laser-based navigation, optical sensor calibration, and predictive analytics.
Producers who will work on simple, affordable, and field-deployable OSA solutions are bound to grab the opportunities emerging and in that process, accelerate the representative industrial adoption.
The optical spectrum analyzer industry had its time of significant growth from 2020 to 2024, mainly facilitated by the growing needs of fiber optics, telecommunications, and research facilities. In addition to supporting the 5G networks' expansion and the digitalization process, the progress in photonics was one of the most important factors, the market was experiencing.
Moreover, the increasing investments in data centers and the high-speed communication networks were also triggering the operators' acceptance of the optical spectrum analyzers. The progress of high-tech testing equipment such as optical spectrum analyzer was made, as industries were willing to achieve efficient, precise, and great speed data transmission under high-quality conditions.
The COVID-19 pandemic also played a significant role in speeding up the digital transformation by providing the telecom infrastructure better with equipment which advanced optical testing at the same time.
From the perspective of 2025 to 2035, the market is very likely to continue an upward trend of growth by the launch of AI, cloud computing collaboration plus aerospace, defense, and biomedical research applications. The increased use of the advanced quantum chips coupled with new photonic devices will create potential business deals, demanding so much more advanced analysis tool for the spectrum resource.
Those enterprises will get higher returns on investments (ROI) when they adopt automation and software-manufactured changes that will be implemented as real-time monitoring and ultra-precise analysis increases. On the other hand, it is likely that the manufacturers will pay more attention to the sustainability of production by introducing the making of devices with lower energy consumption and recyclable parts.
Comparative Market Analysis
Market Shift | 2020 to 2024 |
---|---|
Regulatory Landscape | Fulfillment of ITU and FCC protocols for telecom and optical communications. |
Technological Advancements | Machine learning for fault detection and prognosis in Ethernet networks. |
Industry-Specific Demand | High market entry for telecommunications companies, semiconductor manufacturers & research laboratories. |
Sustainability & Circular Economy | Main concern on energy efficiency and diminished E-waste. |
Market Growth Drivers | Increased focus on fiber optic networks, 5G deployment, and research advancements. |
Market Shift | 2025 to 2035 |
---|---|
Regulatory Landscape | Change in the norm by enforcing the stringent transmission and cybersecurity regulations on optical networks. The need for privacy and secure optical communication is gaining importance. |
Technological Advancements | IoT-based cloud monitoring, data gathering, and analysis; automation, and intelligence-leading to predictive maintenance. |
Industry-Specific Demand | Aerospace, defense, biomedical imaging, and quantum computing are augmented by the precise spectrum analysis. |
Sustainability & Circular Economy | Environmentally-friendly products, better recycling potential, and sustainable procedures are all ensured due to this manufacturing process. |
Market Growth Drivers | Smart cities, quantum computing, and new medical diagnostics are set to be the next sectors to use optical spectrum analyzers for the first time, with newly developed applications. |
The United States is experiencing a noticeable increase in the optical spectrum analyzer thanks to the growth of fiber-optic networks and telecommunications infrastructure, as well as the high precision that are mandatory in the testing of research and defense applications. The market expansion is heavily influenced by the introduction of 5G technology and data centers.
The enhancement of broadband connectivity, especially in rural areas is a fostering factor for the demand of photographic testing solutions. The quick development of photonic integrated circuits (PICs) and quantum computing research is a major investment point in high-resolution OSAs.
The innovative technology companies and research facilities of the USA focus on AI-powered spectrum analysis for enhanced precision and efficiency that in turn is leading the innovation in the optical measurement.
Country | CAGR (2025 to 2035) |
---|---|
United States | 5.4% |
The UK optical spectrum analyzer market is prospering with the dramatic increase in investments targeting the fiber-optic communication network, as well as the research in quantum optics, and medical laser applications. The UK is also the project leader in 6G research and the driving force in the innovation of optical sensors that is boosting the sales of OSAs.
Data-driven policy programs focusing on digital transformation and smart cities are the reasons behind increased investments in novel optical testing technology. The use of laser spectroscopy for diagnostics is one of the examples of OSAs in biomedical applications, and it is one more factor that is adding to the market expansion. The Major OSAs utilization in surveillance and secure communication networks is the practical proof of the UK's benefits from aeronautics and defense industries.
Country | CAGR (2025 to 2035) |
---|---|
United Kingdom | 5.5% |
In the European Union, the demand for optical spectrum analyzers is booming, backed by considerable funding in telecommunications, photonics research, and industrial automation projects. The EU's commitment to environmental and energy-efficient technologies is another factor that has a positive impact on the implementation of cutting-edge optical testing facilities.
The European Commission's effort to digital transformation and the endorsement of 6G research are generating prospects for the OSA manufacturers. Besides, the widespread use of optical sensors across autonomous vehicles, smart grids, and industrial automation is pushing the market forward. Sufficient semiconductor production facilities as well as silicon photonics are the key contributors to demand for high-precision OSAs.
Country | CAGR (2025 to 2035) |
---|---|
European Union | 5.6% |
Japan has a growing market for optical spectrum analyzers propelled by its position as a leader in high-end optical communication, semiconductor research, and the high-speed network infrastructure. Japan is spending extensively on research and development involving 6G technologies, photonic computing, and tiny optical testing appliances.
The realization of semiconductor fabrication and progress in laser technology for medical as well as industrial applications are the drivers of OSAs demand. Japan's objective of the ultra-high-speed internet and satellite communication is contributing to the market growth. The country is benefiting as it further enhances quality control in advanced manufacturing through the use of OSAs in the automotive and electronics sectors.
Country | CAGR (2025 to 2035) |
---|---|
Japan | 5.2% |
The optical spectrum analyzer market in South Korea is notably rising, due to the aid of the government in telecommunications, semiconductor research and the increase in applications in biotechnology. The country is at the forefront of the 5G and 6G technology developments which in turn boosts the need of optical testing solutions.
The semiconductor and display manufacturing industries of South Korea are mainly dependent on OSAs for their high-precision spectral analysis needs. The optical spectrum analyzers are also gaining traction in bio-photonics, fiber-optic sensors, and industrial automation in the country. The integration of AI-driven spectral analysis tools is one more improvement in the capabilities of OSAs in the advanced research and production sector in South Korea.
Country | CAGR (2025 to 2035) |
---|---|
South Korea | 5.8% |
Portable Optical Spectrum Analyzers Gain Traction for Field Applications
Portable optical spectrum analyzers are a common choice for field testing and maintenance operation due to their compact structure, convenience of use, and excellent performance. These equipment is a must-have for telecom service providers, fiber optic network operators, and research centers that require mobility without sacrificing measurement fidelity. Propelled by the deployment of 5G networks and high-speed fiber-optic infrastructures, higher demand for portable OSAs is inevitable in the future.
Moreover, the technological progress herein, such as adopting higher wavelength resolution and real-time data processing, has been further increasing the number of novel portable OSAs in industries where on-site diagnostics and troubleshooting are crucial.
Benchtop Optical Spectrum Analyzers Dominate in High-Precision Laboratory Testing
Benchtop optical spectrum analyzers have long been the popular choice for laboratory and industrial testing environments because of their better accuracy, longer wavelength coverage, and set of analytical capabilities. These analyzers are typically used in the R&D sector, semiconductor testing, and in the optical component manufacturing. The rapid rise of photonics research is pushing the need for benchtop OSAs, due to increased demand for high-speed communication systems.
Also, the integration of automated measurement functions and AI-based data analytics in modern benchtop models is positively affecting the efficiency and precision that further result in the market growth in the high-end applications segment.
Spectrometer Mode Drives Demand for Detailed Optical Signal Analysis
The spectrometer detector mode in optical spectrum analyzers serves wide-field applications that require detailed spectral analysis such as laser characterization, wavelength tuning, and coherence test. It is this mode that drives spectacular resolutions and thus, it is the sine qua non in research laboratories, medical diagnostics, and environmental monitoring.
Spectrometer-based OSAs adopted in applications like Raman spectroscopy, biophotonics, and astronomy are actively contributing to the market growth. Besides, innovations in multi-channel and ultra-high-resolution spectrometers have been enhancing the capability of OSAs especially in the scientific field caught between spectrum analysis and optics.
Wavelength Meter Mode Gains Popularity for High-Precision Wavelength Measurement
Wavelength meter mode plays a key role for industries that depend on accurate wavelength measurements, such as telecommunications, fiber optic manufacturing, and laser development. The mode is very precise and stable and therefore, it is used to calibrate optical sources, confirm the correctness of DWDM (Dense Wavelength Division Multiplexing) networks, and to ascertain the quality of optical components.
As high-speed data transmission and quantum communication technologies keep growing, the popularity of wavelength meter-mode OSAs will be anticipated to rise. The real-time wavelength tracking integration and automated calibration features are the main reasons for the adoption of this technology in those industries where optical precision is the ultimate aim.
Optical Spectrum Analyzers market is going through a period of excellent development due to factors such as high-speed data transmission, increased efficiency in optical communication technologies, and the proliferation of 5G networks. The OSAs, which are typical analyzers in telecommunications, research and development, and manufacturing, have been instrumental in analyzing the spectral composition of optical signals. Another cause of the expanding market is the increasing deployment of DWDM technology and fiber optic communication.
The market is experiencing regular advancements in optical measurement techniques that cottonseed, along with the efforts being made to manufacture compact, ultra-precise, and economical spectrum analyzers, therefore, these are subjected to mark unattached advantages in all areas.
Furthermore, the increasing investments for research projects carried out in photonics and the rise in the use of lasers in the biomedical sector are likely to provide new growth propellers. Companies are focusing on boosting product capability, automating functions, and creating software-based OSAs that are user-friendly.
Market Share Analysis by Company
Company Name | Estimated Market Share (%) |
---|---|
Yokogawa Electric Corporation | 20-24% |
Anritsu Corporation | 15-18% |
EXFO Inc. | 10-14% |
Keysight Technologies | 8-12% |
VIAVI Solutions Inc. | 5-9% |
Other Companies (combined) | 30-40% |
Company Name | Key Offerings/Activities |
---|---|
Yokogawa Electric Corporation | Leading provider of optical spectrum analyzers with advanced measurement accuracy, offering solutions for telecom, R&D, and industrial applications. Expanding into AI-driven analysis tools. |
Anritsu Corporation | Specializes in high-speed optical testing solutions, focusing on 5G, high-speed data networks, and next-gen communication technologies. Investing in miniaturized, portable OSAs. |
EXFO Inc. | Develops innovative test, monitoring, and analytics solutions for optical networks, emphasizing high-performance OSAs for field and lab use. Strengthening partnerships with telecom operators. |
Keysight Technologies | Offers cutting-edge optical measurement solutions, integrating AI-driven data analysis to enhance spectral accuracy and efficiency. Expanding market presence in aerospace and defense. |
VIAVI Solutions Inc. | Provides compact, high-precision optical spectrum analyzers with real-time measurement capabilities, catering to telecom and aerospace industries. Investing in cloud-based spectral analysis. |
Key Company Insights
Yokogawa Electric Corporation
Yokogawa Electric Corporation holds a dominant position in the optical spectrum analyzer arena, with the provision of a variety of high-performance tools for the optical testing and measurementapplications. The company is appreciated for its precise instruments and progressive innovation in the photonics eld. Yokogawa is committed to the ongoing expansion of its portfolio of fiber optic networks, ensuring superior efficiency and accuracy.
The company is also taking steps to integrate into society and health care by focusing on sustainability through the reduction of environmental impacts by its devices. Along with this, iYokogawa is also investing in the AI-based spectral analysis and automation to enhance the user experience.
Anritsu Corporation
Anritsu Corporation is involved in the manufacturing of advanced optical spectrum analyzers which are almost exclusively made for high-capacity data communication, 5G networks, and next-generation connectivity viable solutions.
The company is deeply rooted in the telecommunications sector, and it is known for its compact testing solutions that are automated and improve the performance and reliability of the network. Anritsu has also been working on the development of smaller, portable OSAs designed for field applications as well as remote monitoring, thereby enabling engineers to efficiently analyze optical signals in real-time.
EXFO Inc.
EXFO Inc. is a major player in the optical spectrum analyzer market thanks to its cutting-edge testing and monitoring solutions for fiber optic networks. The company lays emphasis on real-time analytics; thus, making it easier for the service providers to optimize the network efficiency, and decrease the downtime.
EXFO has been consolidating its partnerships with the major telcos and enterprises to design customized OSA solutions for the next-generation networks. Its main focus on Internet of Things network automation, aided better diagnostics and enhanced performance, and as a result, the company gained a bigger market share.
Keysight Technologies
Keysight Technologies specializes in high-precision optical measurement solutions, integrating AI and advanced analytics to improve spectrum analysis accuracy. The company offers a broad portfolio of testing equipment catering to telecommunications, aerospace, and research applications.
Keysight is actively expanding its market presence in the aerospace and defense sectors, where high-reliability optical testing is crucial. With continuous investments in cloud-based spectral monitoring and automation, Keysight is positioning itself as a leader in the next-generation optical testing market.
VIAVI Solutions Inc.
VIAVI Solutions provides compact and high-performance optical spectrum analyzers tailored for telecom and aerospace industries. The company’s focus is on real-time spectral monitoring and precision measurement which has made it a preferred choice for network operators and defense applications.
VIAVI continues to expand its product line, focusing on increased automation and cloud-based analysis tools. The company is also investing in AI-powered spectrum interpretation tools to further enhance efficiency and reduce manual effort in spectral diagnostics.
In terms of Product Type, the industry is divided into Portable, Benchtop, and Handheld.
In terms of Mode Type, the industry is divided into Spectrometer Mode and Wavelength Meter Mode.
In terms of End Use, the industry is divided into IT & Telecommunication, Medical & Healthcare, Energy & Utilities, Automotive, Institutions, Aerospace & Defense, and Semiconductors & Electronics.
The report covers key regions, including North America, Latin America, Western Europe, Eastern Europe, East Asia, South Asia, and the Middle East and Africa (MEA).
The global optical spectrum analyzer market is projected to reach USD 411.3 million by the end of 2025.
The market is anticipated to grow at a CAGR of 5.7% over the forecast period.
By 2035, the optical spectrum analyzer market is expected to reach USD 715.9 million.
The IT & Telecommunication segment is expected to hold a significant share due to the increasing demand for high-speed internet, 5G network expansion, and the rising need for precise optical testing in fiber optic communications.
Key players in the optical spectrum analyzer market include Yokogawa Electric Corporation, Anritsu Corporation, Keysight Technologies, Viavi Solutions Inc., and EXFO Inc.
Market Expected Size in 2023 | USD 2,782.8 million |
---|---|
Projected Market Value in 2033 | USD 7,023.5 million |
Value-based CAGR from 2023 to 2033 | 9.7% |
Estimated Year Market Value (2023) | USD 10,640.1 million |
---|---|
Projected Year Market Value (2033) | USD 39,386.8 million |
CAGR (2023 to 2033) | 15.2% |
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