Q.ANT photonic ai accelerator

Photonic Processor for energy-efficient High-Performance Computing and real-time AI Applications available as industry-standard PCI Express Card 

Shifting paradigms in compute: The photonic approach for high energy efficiency and accelerated data processing

The Q.ANT Native Processing Unit NPU, the first commercially available photonic processor, sets a new era, going beyond traditional  computing. With the promise to deliver up to 30 times the energy efficiency of conventional CMOS technologies, the system reduces operational costs and the environmental impact of data centers significantly. The product is fully compatible with the computing ecosystem as it comes on the industry-standard PCI Express card. Experience the platform  powered by light instead of electrons, where complex mathematical models for AI training and inference, machine learning, physics simulations and time-series analysis can be executed with exceptional performance. Q.ANT tackles  complex functions at their core by using native operations of light. That’s why we call it Native Computing.

30x Energy Efficiency

Skip the Queue and be part of a new era

Seize the exclusive opportunity to experience Q.ANT’s first commercial Photonic AI Accelerator, promising to set new standards in energy efficiency and computational speed. Test, innovate, and get hands-on with a technology that promises a sustainable and powerful future. Redefine the possibilities of AI processing – where cutting-edge efficiency meets the brilliance of light.

Exploit the potential of Photonic Computing

  1. High performance: Photonics can run at few tens of GHz bandwidth compared to few GHz in digital electronics, giving more operations performed per second.
  2. Inherent parallelism: Using multiple wavelengths of light to run calculations on the same chip at the same time drastically increases compute density.
  3. Better energy efficiency: Since only light, and no current, is flowing through the circuit, photonic chips have lower cooling requirements. Combining this with higher performance and compute density leads to an energy savings.

Technical specifications of the Native Processing Server NPS

The Native Processing Server NPS as 19″ rack-mountable server with  our photonic NPU PCIe card is designed specifically for AI inference and advanced data processing. Its Plug & Play system design makes it ready to be integrated in datacenters and HPCs for immediate access to photonic computing. The NPS is upgradable with additional NPU PCIe cards for even more processing power in the future.

System / SubsystemFeature
System nodex86 processor architecture; based 19” 4U commercially available rack system
Operating SystemLinux Debian/Ubuntu with Kernel Version 5
Network interfaceEthernet with up to 10 Gbit speed
Software interfacePython library functions; upgradable to HPC job submission
API to subsystemLinux device driver
Native Processing Unit NPU
  • Full length PCle card with 3 slot height
  • PCIe Gen3 x8 interface, shared memory & I/O windows
  • Upgradable with enhanced photonic integrated circuits
  • Upgradable with enhanced logic functions for performance
Power consumption of NPU30 W
Photonic integrated circuit (PIC)Ultrafast photonic core based on z-cut Lithium Niobate on Insulator (LNoI)
Throughput of NPU100 MOps
Cooling of NPUPassive
Operating temperature range15 to 35°C

Light meets algorithms to redefine AI processing - The Q.ANT Toolkit

As an analog computing unit, the NPU enables the solution of complex, non-linear mathematical functions that would be too energy-intensive to calculate on conventional processors. Initial applications are in the field of AI inference and AI training, paving the way for efficient and sustainable AI computing. Start programming the Q.ANT NPU using our custom Software Development Kit, called the Q.ANT Toolkit. This interface enables users to operate directly at the chip level or to leverage higher level optimized neural network operations, such as fully connected layers or convolutional layers to build your AI model. The Toolkit offers a comprehensive collection of example applications that illustrate how AI models can be programmed. These examples can be used directly or as a foundation for creating own implementations.

 

NameDescriptionProgramming Language
Digit RecognitionDetermination of the number shown in a picture (based on the MNIST data set)Python (Jupyter)
Matrix MultiplicationMultiplication of a matrix and a vectorPython / C++
Speech Recognition (coming soon)Recognition of spoken English words (based on LibriSpeech data set)Python (Jupyter)
 Semantic Segmentation (coming soon)Segmentation of an image (based on the KITTI data set)Python (Jupyter)

Experience the Future of AI: Our Photonic Processor in Action

Step into the future of computing and witness our Native Processing Unit (NPU) at work. Our video demo reveals our first cloud-deployed photonic processor tackling a real-world AI task. Watch as light powers through complex calculations paving the way for energy-efficient AI in data centers.

AI's diverse applications are transforming every aspect of our daily lives

Generative AI

Run ever larger generative models at fraction of the cost, pushing the bounderies of computer’s ability to understand natural language, and create content like text, images and videos by leveraging advanced machine learning models.

artificial intelligence,AI chat bot concept.Hands holding mobile phone on blurred urban city as background

Chatbot (LLMs like GPT)

a cat standing on planet mars wearing an astronaut suit

Image and video generation

Medical applications

Enhance healthcare by improving diagnosis of diseases and aiding discovery of completely new classes of medicine as well as personalized medicine using more complex photonic AI models.

Doctors use innovative medical technology and robots to diagnose and examine patients' brains with intelligent software and medical innovations.

Medical diagnosis

The Ethics of AI in Drug Development - Understanding the ethical considerations of using AI in drug discovery and development processes

Drug discovery

Automatization

Improve quality of life using low power AI-driven automation in smart factories and self-driving cars by performing mundane tasks, optimizing workflows and enhancing efficiency.

Autonomous Self-Driving Cars Using Sensing System and Wireless Communication Network on Curved Highway at Dusk, Smart Traffic Technology, Driverless Vehicles, Evening Urban Road

Self-driving cars

Car Factory Digitalization Industry 4.0 5G IOT Concept: Automated Robot Arm Assembly Line Manufacturing High-Tech Electric Vehicles. AI Computer Vision Analyzing, Scanning Production Efficiency

Smart factory

Q.ANT is recognized as a Sample Vendor in three Gartner® Hype Cycle™ 2024 reports.  

We provide complimentary access to the Gartner® Hype Cycle™ for Compute 2024 report. Learn how Photonic Computing can transform future business and society.

The Game Changer in Photonic Computing: Thin Film Lithium Niobate on Insulator

Thin Film Lithium Niobate on Insulator TFLNoI – The Optimal Material Choice for Photonic Integrated Circuits PIC. Q.ANT relies on our proprietary material platform for making the photonic chips inside the NPU. The central components in the PIC are optical waveguides, modulators and various other building blocks, which enable  high-speed and precise control of light, all  integrated in a single chip at nanoscopic level. In this chip, a very thin layer of lithium niobate  is bonded on a silicon wafer, on which the photonic components are fabricated. We believe that TFLNoI is the key to the future of photonic computing.

PICs based on TFLNoI show several main advantages:

The Photonic Chip

At the heart of photonic processors are photonic chips that perform calculations. In this process, photons deliver huge computing power.

Waveguides

These guide tiny particles of light (photons) through conductive paths.

Laser source

This beams classical light waves into the waveguide.

Interference

The photons are manipulated through the building blocks on the chip, as i.e. modulators or resonators. 

Interaction

This occurs on the waveguide at the narrow points, also called beam splitters. It means that photons can pass into the other waveguide.

Measurement

This is used to read out the information that the photons carry. 

Special algorithms

These control the interaction of photons and calculate previously unsolvable tasks.

Your contact

Andreas-Abt

Andreas Abt

SVP
Native Computing

I look forward to discussing the potentials of Photonic Computing with you.

Get in Touch

We look forward to explore and discuss the potential of our Native Processing Server NPS for your application. Please fill in this contact form  and we will contact you shortly.

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Q.ANT Photonic Computing in the Media

Ready to take The leap?

Work in the field of photonic computing

Q.ANT is recognized as a Sample Vendor in three Gartner® Hype Cycle™ 2024 reports.  

We provide exclusive access to the Gartner® Hype Cycle™ for Compute 2024 report. Learn how Photonic Computing can transform future business and society.