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Paris, France
11-50 Employees
2020
Miniaturized, yet highly sensitive and fast LiDAR systems serve market demands for their use on platforms ranging from robots, drones, and autonomous vehicles (cars, trains, boats, etc.) that are mostly used in complex environments. The widespread use of high performance LiDAR tools faces a need for cost and size reduction. A key component of a LiDAR system is the light source. Very few laser light sources exist that provide sufficient performance to achieve the required distance range, distance resolution and velocity accuracy of the emerging applications identified in LiDAR roadmaps. The available sources, namely single mode or multimode laser diodes and fiber lasers, are either very costly, not sufficiently robust or not compact enough.
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Featured
H2020 Ophellia: On-chip PHotonics Erbium-doped Laser for LIdar Applications – H2020 Ophellia: On-chip PHotonics Erbium-doped Laser for LIdar Applications
... H2020 Ophellia: On-chip PHotonics Erbium-doped Laser for LIdar ...
51-100 Employees
2014
We developed an optical fiber link diagnostic instrument based on OFDR technology in 2016. ETSC Europe is a manufacturer of third-generation semiconductor and silicon photonics test equipment. In the fields of fiber optic sensing and fiber optic link diagnostics, we also provide world-class equipment to partners in academia and industry. We insist on being customer-centric and providing customers with high-tech and high-quality products and services.
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Featured
CA-1000 Silicon Photonics Chip Auto-Alignment System
... Description CA-1000 Silicon photonics chip auto-alignment system is consisted of sub-micron high-precision motion subsystems, high-performance vibration isolation system and multi-directional visual inspection system. The system adopts self-developed host computer software, integrates image ...
Karlsruhe, Germany
11-50 Employees
2017
The company offers automated photonics assembly processes and machines for 3D nano-printing in the field of photonic multi-chip integration and packaging. Our solutions cover the entire range from small-scale prototyping to fully automated industrial production. We build upon an internationally unique technology portfolio and exploit nearly two decades of experience in industrial automation through our partner companies. The core team at Vanguard Automation comprises experts in photonics, material science, high-precision opto-mechanics, and automation engineering. Vanguard Automation GmbH was founded in 2017 as a joint venture of Vanguard Photonics GmbH and ficonTEC Service GmbH.
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Featured
Photonic multi-chip integration from Vanguard Automation
... With 3D printing of freeform waveguides and micro-optical elements, Vanguard Automation is about to revolutionize photonic multi-chip integration. ...
Karlsruhe, Germany
11-50 Employees
2016
Our customers are looking for industrially viable solutions to meet their needs of packaging photonic integrated circuits (PIC) or assembling photonic multi-chip systems from discrete dies of different materials. From a user perspective, the key advantage of this approach is that it combines the technological flexibility of conventional discrete systems with the compactness and economic advantages of large-scale photonic integration. Vanguard Photonics GmbH is a high-tech spin-off company, offering services and technologies in the area of large-scale photonic integration. The company was founded in 2016 by Prof. Christian Koos, Alois Hauk and Philipp-Immanuel Dietrich as a spin-off from Karlsruhe Institute of Technology (KIT), one of Europe’s largest higher education and research organizations in the area of engineering and natural sciences.
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Home - Vanguard Photonics
... Are you facing challenges in packaging photonic integrated circuits (PIC), in assembling photonic multi-chip systems, or in simply fabricating micro-optical elements with complex shapes? ...
Marcoussis, France
11-50 Employees
2016
Almae’s buried heterostructure laser technology offers a seamless solution to scale transmission speed from 10G to more than 100Gb/s. Wafer fab organization enables a quick wafer turnaround time for new product development and a straightforward and seamless transfer to production.
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Featured
About Us - Our Innovation at your service
... Almae designs and manufactures InP based ultra-high speed integrated photonic chips which are essential to next generation telecom and datacom infrastructures, and more broadly to all future connectivity solutions. Almae Technologies was founded in 2016 as an industrial spin-off company from ...
2019
Optical Coherence Tomography revolutionized the way doctors examine and monitor their patients, exposing microscopic detail in the skin, eyes and more. Sadly, OCT remains expensive and bulky, relegated to the back room of a specialist's office. Pharos is building a new OCT platform, smaller than a cell phone and about the same price. There is enough light for those who want to believe and enough shadows to blind those who don't.
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Featured
On-Chip OCT | Pharos Imaging
... Silicon Photonics on Chip ...
Menlo Park, United States
1-10 Employees
2015
Entrepreneurs at heart, we invest in and support visionary founders with breakthrough technologies to build world class companies. Tyche Partners is a venture capital firm that focuses on investments in early and early growth stage companies with disruptive technologies. We thrive to invest in and work with entrepreneurs with big dreams and drive to change the world. We look for companies with products that can achieve 10X performance improvement and have the potential of redefine the industry landscape. Some of the sectors where we have invested include:.
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Featured
Welcome - Tyche Partners
... U.S. silicon photonics chip startup Ayar Labs gets AI funding ...
Tokyo, Japan
11-50 Employees
2017
The silicon photonics technology provided by AIO Core is paving the way for a new era in the convergence of computing and optical technologies. Optical transceivers, IOCore®, that can operate for long periods of time over an industrial temperature range with extremely high reliability. IOCore®, enable NRZ signal transmission from 1 Gbps to 25 Gbps and 32 Gbps per channel operable in an industrial temperature range from -40°C to 100°C. AIO Core, NTT DATA and NTT Com Achieved Stable optical transmission between immersion equipment in Data Centers. A new quantum dot laser operates at higher temperature of 105℃.
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IOCore(tm) ｜AIO Core Co., LTd.
... IOCore(tm) - Si-Photonics based single chip solution of AIO Core provides users with maximum optical connectivity in wide application space- HPC, AI/ML accelerator, PCIe-based disaggregation, 5G, automobile and industry equipment. ...
Ixelles - Elsene, Belgium
Together we give birth to your innovation with photonics. You are a company looking to leverage innovation through photonics?You are a researcher looking to advance your breakthrough with photonics? We facilitate cross-border collaboration to match the best solutions to the biggest challenges. ACTPHAST4.0 was specially designed to support European SME's who want to boost the innovation of their projects with photonics. Even if the company was not using photonics before.Learn more about the supported companies and the ACTPHAST4.0 outcomes.
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European partners build efficient pilot production line for photonic chips - Interreg OIP4NWE
... European partners build efficient pilot production line for photonic chips - Interreg OIP4NWE | ...
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Robotics Research by IDTechEx
... Join Our Upcoming Webinar on Opportunities for Photonic Chips ...
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Some interesting numbers and facts about the results you have just received for Photonic Chip
| Country with most fitting companies | United States |
| Amount of fitting manufacturers | 31 |
| Amount of suitable service providers | 16 |
| Average amount of employees | 11-50 |
| Oldest suiting company | 2014 |
| Youngest suiting company | 2020 |
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A photonic chip is an advanced technological innovation that integrates photonic (light-based) components onto a semiconductor substrate. Unlike traditional electronic chips that rely on electrons to transmit information, photonic chips use photons, making them significantly faster and more efficient at data processing and transmission. This leap in technology is pivotal for applications requiring high bandwidth and low latency, such as quantum computing, telecommunications, and data center operations. The integration of photonic elements with conventional microelectronic circuits on a single chip has revolutionized the field of optical communication, enabling the development of more compact, energy-efficient, and high-speed devices. The impact of photonic chips extends beyond improving the performance and efficiency of optical networks; they also play a crucial role in advancing fields like biomedical devices, sensing, and photonic computing. By facilitating the manipulation of light at a chip scale, photonic chips are at the forefront of innovations that promise to shape the future of technology, enhancing capabilities across a broad spectrum of industries. Their development represents a significant stride in the evolution of integrated circuits, heralding a new era where light is the primary medium for information processing and communication.
1. Increased Data Transmission Speed
Photonic chips utilize light to transmit data, significantly outpacing the electrical signals used in traditional semiconductor chips. This advantage allows for faster processing and transfer of information, enhancing efficiency in communication networks and computing devices.
2. Lower Energy Consumption
By employing light instead of electricity for data transmission, photonic chips consume less energy. This reduction in power usage not only makes devices more environmentally friendly but also decreases operational costs for technology reliant on these chips.
3. Higher Bandwidth Capacity
The use of light enables photonic chips to handle a broader spectrum of frequencies compared to electronic chips. This increased bandwidth capacity allows for the simultaneous processing of larger volumes of data, making them ideal for applications requiring high-speed data transfer.
4. Reduced Heat Generation
Photonic chips generate less heat than their electronic counterparts due to their more efficient use of energy. This characteristic leads to longer lifespan of devices and reduces the need for cooling systems, further cutting down on energy consumption and costs.
While evaluating the different suppliers make sure to check the following criteria:
1. Technological Compatibility
Ensure the photonic chip's technology is compatible with your existing systems and meets your application's specific needs, including wavelength, power requirements, and connectivity.
2. Manufacturing Quality
Assess the supplier's manufacturing processes and quality control measures to ensure the chips are of high quality and reliability, minimizing the risk of defects or failures.
3. Performance Specifications
Verify that the photonic chip meets all necessary performance specifications, such as data transmission rates, energy efficiency, and thermal management capabilities.
4. Scalability
Consider the supplier's ability to scale production to meet your demands, especially if your needs are expected to grow rapidly or fluctuate.
5. Customization Options
Determine if the supplier offers customization options that can tailor the photonic chip to your specific requirements, enhancing its integration and functionality within your system.
6. Cost Efficiency
Evaluate the cost-effectiveness of the supplier's offerings, balancing the initial investment against the expected lifespan, maintenance needs, and operational efficiency of the chip.
7. Technical Support and Warranty
Check the level of technical support provided, including troubleshooting, maintenance services, and the terms of the warranty to ensure ongoing support throughout the chip's lifecycle.
Photonic chips, leveraging light for data transmission, offer a revolutionary leap in processing speed and bandwidth, pivotal for the telecommunications industry. These chips enable ultra-high-speed internet and data services, ensuring telecom companies can meet the burgeoning demand for faster and more reliable communication networks. This advancement is critical for supporting the infrastructure required for 5G and beyond, facilitating seamless global connectivity. In the healthcare sector, photonic chips are instrumental in advancing diagnostic tools and treatments. They are used in non-invasive medical imaging technologies and highly precise laser surgeries, enhancing patient care by providing faster, more accurate diagnoses and reducing recovery times. This technology's precision and speed are vital for developing new, innovative healthcare solutions, including real-time monitoring devices that can significantly improve patient outcomes. The data centers powering today's digital economy heavily rely on photonic chips for energy-efficient, high-speed data processing and transmission. By replacing electronic components with photonic ones, data centers can achieve higher data throughput while reducing power consumption and heat generation. This shift is essential for managing the exponential growth in data traffic, ensuring data centers can sustainably meet future demands. In summary, photonic chips are transforming industries by providing cutting-edge solutions in telecommunications, healthcare, and data management. Their ability to process and transmit data using light makes them a cornerstone technology for future advancements across various sectors.
Photonic chips, representing a frontier in optical technology, are currently situated at varying stages of the Technology Readiness Level (TRL) scale, predominantly between TRL 4 to TRL 6. This range signifies that photonic chip technology has graduated from basic principles observed and applied (TRL 1-3) to technology validation in relevant environments (TRL 4-6). The rationale behind this placement is grounded in the substantial progress made in laboratory settings where the functionality of photonic chips has been demonstrated under controlled conditions. However, the transition towards higher TRLs is impeded by several technical challenges. These include the integration of photonic components at a micro-scale, ensuring compatibility with existing electronic infrastructure, and addressing the thermal management issues inherent in densely packed optical circuits. Additionally, the fabrication processes for photonic chips require further refinement to enhance scalability and reduce costs, vital for widespread adoption and commercialization. Despite these hurdles, ongoing research and development efforts are steadily pushing photonic chip technology towards higher maturity levels, driven by its potential to revolutionize data transfer speeds and computational efficiency in a range of applications, from telecommunications to quantum computing.
In the Short-Term, advancements in photonic chip technology are expected to be centered around improving integration with existing electronic circuits. This phase will likely see the development of more compact and efficient chips that can be easily incorporated into current devices, enhancing data transmission rates and reducing energy consumption. The focus will be on refining the manufacturing processes to lower costs and barriers to entry, making photonic technology more accessible across various industries. The Mid-Term phase is anticipated to bring significant breakthroughs in the field of quantum computing, where photonic chips will play a pivotal role in processing quantum information. These advancements will enable the creation of more powerful and secure quantum networks. Additionally, researchers are expected to make strides in developing all-optical processors, which will further boost computing speeds and reduce energy usage, marking a significant leap towards more sustainable computing practices. Looking into the Long-Term, the horizon of photonic chip technology is set to redefine telecommunications, with the potential for ultra-high-speed internet connections globally. The evolution of fully optical networks will facilitate instantaneous data transfer across continents, revolutionizing how information is shared and accessed. Moreover, long-term advancements may unlock new possibilities in healthcare and environmental monitoring, leveraging the unique properties of light to create non-invasive diagnostic tools and highly sensitive sensors for real-time, global environmental analysis.
Some interesting questions that has been asked about the results you have just received for Photonic Chip
What are related technologies to Photonic Chip?
Based on our calculations related technologies to Photonic Chip are Magnets, Printed Electronics, Industrial Amplifiers, Electronic Transducers, Electronic Oscillators
Who are Start-Ups in the field of Photonic Chip?
Start-Ups who are working in Photonic Chip are H2020 OPHELLIA
Which industries are mostly working on Photonic Chip?
The most represented industries which are working in Photonic Chip are Science and Engineering, Hardware, Manufacturing, Information Technology, Data and Analytics
How does ensun find these Photonic Chip Manufacturers?
ensun uses an advanced search and ranking system capable of sifting through millions of companies and hundreds of millions of products and services to identify suitable matches. This is achieved by leveraging cutting-edge technologies, including Artificial Intelligence.
