BRN Discussion Ongoing

Diogenese

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Something which had slipped under my radar (if you'll pardon the expression) - the USAFRL/RTX micro-Doppler SBIR project is intended to use Akida 2/TENNs, following RTX's in-house tests with Akida 1 CotS. As the AKIDA 2 ASIC does not exist at the moment, the project may have used the FPGA version. If memory serves, the FPGA is 8 times slower than the ASIC. Despite this, there is the intention to produce the commercial version for see-in-the-dark radar.

Wait til they get the Akida 2 SoC ASIC.

https://www.defenceconnect.com.au/i...n-contract-with-air-force-research-laboratory

BrainChip engaged under US$1.8m contract with Air Force Research Laboratory​

Industry
11 December 2024

BrainChip will partner with subcontractor(s) to develop comprehensive set of algorithms and neural networks optimised for BrainChip neuromorphic hardware.

The contract, granted under the US federal government’s Small Business Innovation Research (SBIR) program over the 12-month term of the agreement, is expected to develop neuromorphic radar signalling processing.

The SBIR contract award, under the topic number AF242-D015, is titled “Mapping Complex Sensor Signal Processing Algorithms onto Neuromorphic Chips”.

“Radar signalling processing will be implemented on multiple mobile platforms, so minimising system SWaP-C is critical,” said Sean Hehir, CEO of BrainChip.

“This partnership to improve radar signalling applications for AFRL showcases how neuromorphic computing can achieve significant benefits of low-power, high-performance compute in the most mission-critical use cases. This award is a very strong endorsement from leading organisations such as Air Force Research Laboratory for our industry-leading TENNs offering.”

The contract is an expansion of efforts after a multinational aerospace and defense customer successfully demonstrated radar processing algorithms capable of running on BrainChip’s commercial off-the-shelf neuromorphic hardware as part of an internal research and development initiative.

This current program, however, will develop algorithms based on BrainChip’s proprietary state space model algorithm framework known as TENNs (Temporal Event Neural Network) and will be optimised to run on Akida 2.0 hardware.

The BrainChip TENNs algorithm, combined with Akida 2.0 technology, has successfully demonstrated the capability to run models very efficiently, resulting in significantly higher performance at ultra-low power relative to traditional accelerators running traditional models.

BrainChip’s neuromorphic technology improves the cognitive communication capabilities on size, weight, power and cost-constrained platforms such as military, spacecraft and robotics for commercial and government markets.

The project focuses on a specific type of radar processing known as micro-Doppler signature analysis, which offers unprecedented activity discrimination capabilities. BrainChip is currently in negotiations to enter into a subcontractor agreement with the previously mentioned aerospace and defence company for the completion of the contract award.

BrainChip will partner with the subcontractor to provide research and development services developing and optimising algorithms for a fixed fee totalling $800,000 over the same period
.

No other material conditions exist that must be satisfied for the agreement to become legally binding and to proceed. Air Force Research Laboratory will begin making milestone payments in January 2025.

Periodic payments will continue throughout the year concluding in February of 2026
.

At the 9 minute mark in the roadmap Jonathan Tapson mentions that AKIDA 2 is available as an FPGA;

https://brainchip.com/brainchip-technology-roadmap/

@ 23 minutes - Akida 3 FPGA Q1 2026!

Akida 3 is more versatile than Akida 1 or 2 which use state machine architecture, whereas GenAI & Akida 3 use instruction set architecture which makes the architecture much more flexible.

Now that the Roadmap is about 8 months old, I found it encouraging to review the video. A few things that were a year out are now just over the next hill. It is packed with groundbreaking advances.
 
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itsol4605

Regular
Tesla's AI5 appears to be nearing completion.

Power consumption has increased from under 200 watts to 800 watts.

It couldn't be clearer that von-Neumann architecture has reached its limits.

When will a company as experimental as Tesla finally try a more sensible technology like neuromorphic computing?
 
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"WE will fight them in the dictionaries,
We will fight them in the thesauri,
We will never enunciate clearly, ..."
Glad I can’t spell even speak proper English most times as even siri can’t even help me most times trying to get the correct spelling or meaning, so you can count me out on this one.

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Mercedes has been raised again over on the crapper, yes again!!
Pilot programs are underway, but don't expect it to hit the road until 2028 - 2030.
Put this on the discussion 'backburner'.

Neuromorphic Computing: The Brain-Inspired Tech Revolutionizing Auto Innovation - Auto Addicts
It will be huge for us but in the meantime we have plenty of ' other fish to fry' - eg Defense and wearables.

"When can consumers expect neuromorphic-powered vehicles?​

Pilot programs are underway now, with mass-market deployment likely by 2028-2030 as chip production scales and costs decline.
For gearheads and tech enthusiasts alike, neuromorphic computing represents more than an upgrade—it’s a paradigm shift. As Auto Addicts continues to test and review the latest advancements, one thing’s clear: the cars of tomorrow won’t just be electric and connected; they’ll be alive with silicon neurons. Stay tuned to our Tech Innovations section for hands-on coverage as this future unfolds."

"Mercedes-Benz’s BrainChip Partnership​

The luxury automaker is testing Akida neuromorphic processors for in-cabin AI that recognizes driver fatigue through micro-expressions—no cloud connectivity required."

"

Why Neuromorphic Chips Are a Game-Changer for Cars​

Traditional computing relies on sequential processing, but neuromorphic systems—inspired by the brain’s neural networks—operate in parallel. This means:

  • Energy efficiency: Neuromorphic chips like Intel’s Loihi 2 consume 100x less power than GPUs, critical for EV range.
  • Instantaneous processing: Enables sub-millisecond response times for collision avoidance.
  • Continuous learning: Vehicles improve through experience, not just software updates."
2028-2028 hopefully we will be in the low $$$$ beforehand and this will help us put towards $10 plus 💪🤮😂
 
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Frangipani

Top 20
(…) As I mentioned in my above post last night, fortiss and neuroTUM (TU München) jointly organised a Neuromorphic Hackathon in mid-November, where a student team mentored by Jules Lecomte (fortiss), Gregor Lenz (Neurobus) and Arunkumar Rathinam (University of Luxembourg) won the challenge using Akida.

Note, though, that fortiss have also newly partnered with Innatera alongside us.


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(brochure in German only)

Research partnerships:

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One and a half years after Karl Vetter, previously with Uni Tübingen’s Cognitive Systems Lab (https://thestockexchange.com.au/threads/brn-discussion-ongoing.1/post-437994), joined BrainChip partner Neurobus, another neuromorphic researcher with first-hand experience of Akida (as well as other neuromorphic processors) has done likewise: Jules Lecomte, previously with fortiss, also a BrainChip partner.




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[Screenshot taken about 10 hours ago]

Although for some weird reason, to this day fortiss still does not show up on the BrainChip Partners website.


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In November, Jules Lecomte took part in the European Defense Hackathon in Paris, where their team - that came in 3rd place - was provided with hardware and guidance by Neurobus, who were also sponsors of the whole event:


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One teammate, Shannah Santucci, had already won 1st place in the December 2024 European Defense Tech Hackathon with - among others - Florian Corgnou, Gregor Lenz and Karl Vetter, all from Neurobus (Gregor Lenz has since left the Paris and Toulouse-based startup and joined Paddington Robotics in London).

https://thestockexchange.com.au/threads/brn-discussion-ongoing.1/post-442810

Gregor Lenz, Florian Corgnou and Karl Vetter from BrainChip’s partner Neurobus were part of a team that came in first 🥇 at the European Defense Tech Hackathon, which took place in Paris over the weekend.
Their winning solution titled Automatic event-based detection and tracking of UAVs and Shahed drones in challenging lighting conditions “showcased the ground-breaking potential of neuromorphic event-based cameras (…) paving the way for smarter, faster and more efficient defense-systems”.

As you may have guessed from the mentioning of the Iranian-designed Shahed drones (which are also known by their Russian designation Geran-2), the 34 projects in total were far from being destined for storage in an ivory tower of academia: European defense company Helsing AI was a key partner of that hackathon, which was also supported by the Ministry of Defence of Ukraine.


The challenges were based on real-world problems gathered from our partners, who have delivered solutions to the frontline, from building underwater reconnaissance systems to the interception of Shahed drones and helicopters and swarm coordination in GPS-denied environments.”





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The inaugural European Defense Tech Hackathon took place in June 2024 in Munich, and since then many more have followed, supported by the Ukrainian Government and their Brave1 defence accelerator platform, which was launched in April 2023 in reaction to Russia’s invasion of Ukraine the previous year.

It is therefore not surprising that some of the the winning entries’ prototypes have been/are being tested by Ukraine. Among them the drone solution developed by the above-mentioned team around Neurobus in December 2024:


Neurobus – At the Paris hackathon, they integrated their neuromorphic chip with a camera to detect Shahed drones in low-light conditions—and won first place. They’ve since started working with BRAVE1 to test their prototype under real-world conditions.”

Neurobus CEO Florian Corgnou (at least I strongly assume it is him) even registered a second LinkedIn account in Kyiv sometime before September last year:

Speaking of Neurobus CEO Florian Corgnou.

I discovered this by chance the other day:

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The second LinkedIn account was registered in July 2025 - so far “Nothing to see here”, though…


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Highly unlikely it merely happens to be a namesake, especially given the company’s expertise in the drone sector…


The above paragraph on Eurodefense.tech is not entirely accurate, though, as it sounds as if Neurobus had developed their own neuromorphic chip, and the author also failed to mention that the camera was an event-based one, a neuromorphic sensor, rather than a regular frame-based camera.


What Neurobus does is explained very well in this April 2025 article I shared last year:



NEUROBUS, A SOLUTION THAT COMBINES ENERGY EFFICIENCY AND INTELLIGENCE​

By observing technological advances at Tesla and SpaceX, and then participating in the Airbus Defense Space program, Florian established the groundwork for Neurobus. Immersion with engineers and space experts allowed him to pinpoint market trends and unmet needs, needs Neurobus was determined to address.

So, what does Neurobus offer? It's an embedded, frugal Artificial Intelligence – specifically, an AI engineered for minimal energy consumption and direct integration into host systems like drones and satellites. Data processing occurs locally, eliminating the costly energy expenditure of transferring data to centers.



Neurobus HEC paris


Neurobus's initial focus was the space sector, a field inherently linked to defense, with partners like Airbus Defense and Space, the European Space Agency, and the French Space Agency. However, the company adroitly adapted its promising technology to the drone sector, a rapidly expanding market with more immediate demands. Winning a European defense innovation competition further validated the potential of their solution for drone detection.

The core of Neurobus's innovation lies in its biologically-inspired approach: the neuromorphic system. This disruptive technology draws inspiration from the human brain and retina to create processors and sensors that are remarkably energy-efficient.
For Florian, the human brain serves as an unparalleled source of inspiration:

"The brain is one of the best computers that exists today because it delivers immense computing power with extremely low energy consumption."

DRONES: A TESTED AND VALIDATED FIELD OF APPLICATION TESTED AND VALIDATED​

Neurobus sidesteps the capital-intensive manufacturing of components like processors and sensors. Instead, its value proposition lies in assembling these components and developing tailored software layers to meet specific manufacturer needs. This positions the startup as both an integrator and a software publisher, streamlining the adoption of this cutting-edge technology.

As Florian Corgnou explains, "Neurobus operates precisely between the manufacturer and the industrialist. We don't create the hardware, but we assemble it into a product that specifically addresses our customers' requirements and develop software layers that cater to the unique applications of that industrialist."


Neurobus HEC paris


Though Space remains a core sector for Neurobus, its technology's practical application in the drone sector unlocks compelling possibilities for autonomy. Drones equipped with Neurobus's frugal AI can execute missions more independently, making real-time decisions with minimal human oversight. While human validation remains crucial for strategic actions, tasks like area surveillance can be managed autonomously.

For instance, a drone could autonomously evade an oncoming object at high speed. However, directing itself toward a target would require prior human authorization.

Although the present application is primarily focused on defense, driven by the current geopolitical climate and pressing demands, Neurobus also foresees a future in the civilian domain, particularly in applications like autonomous drone delivery services.





As far as I’m aware, we do not know for sure whether this particular drone solution that won 1st place at the 2024 European Defense Hackathon in Paris used Akida as a neuromorphic processor, although it seems reasonable to assume so, given that Neurobus was partnered with Prophesee, BrainChip as well as Intel at the time (and Loihi not yet being commercially available) and was already working with BrainChip and other partners on the NEURAVIS project.

Maybe we’ll find out more in March, when “Brave1, Ukraine’s defense innovation cluster, will conduct a US Roadshow — a two-week investment tour across several American cities aimed at presenting Ukrainian drone technologies and defense tech solutions to U.S. venture capital funds, corporations, family offices, and policymakers (…) According to Brave1, Ukraine’s defense tech ecosystem now includes thousands of companies and solutions, with up to 95% of battlefield engagements relying on domestically developed technologies.” (https://digitalstate.gov.ua/news/te...inian-drones-and-defense-tech-to-us-investors)
Well, we’ll see, maybe the Neurobus solution will also be presented, as a promising technology developed outside Ukraine?

Meanwhile Neurobus appear to have widened their collaboration with companies offering neuromorphic processors to also include IBM and SynSense - cf. this photo of a Neurobus presentation slide taken at the Future of Computing Conference in Paris, which took place on 6 November:


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Last but not least, here is a two month old interview with Florian Corgnou about Neurobus that I believe hasn’t been shared here before:



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P.S.: Alf Kuchenbuch loves today’s post by Jules Lecomte and commented: “Wow, good choice, Jules!!”

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Rskiff

Regular
Tesla's AI5 appears to be nearing completion.

Power consumption has increased from under 200 watts to 800 watts.

It couldn't be clearer that von-Neumann architecture has reached its limits.

When will a company as experimental as Tesla finally try a more sensible technology like neuromorphic computing?
Musk said it was ready 6 months ago. Would believe anything he says. Humans on Mars by 2026 :ROFLMAO: Wont be in his lifetime. 1 million robo taxis operating by 2020 :ROFLMAO: Just a couple of examples. He should just shut up and buy Akida for real world and out of this world use.
 
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This job going at Deloitte:


Physical AI & Robotics Consultant

Additional Responsibilities:

Design, prototype, and implement robotic systems that integrate AI-driven perception, planning, and control

Develop and optimize algorithms for motion planning, machine vision, sensor fusion, and reinforcement/ imitation learning

Implement Physical AI principles, ensuring AI models function reliably when interfacing with mechanical hardware in real-world conditions

Collaborate with hardware engineers on actuator design, sensor integration, and embedded AI processors (e.g., PIM or neuromorphic chips)

Conduct system-level testing, simulation, and validation for operational safety, robustness, and performance

Integrate cloud and edge AI platforms with robotics systems for real-time decision-making

Document designs, experiments, and results while contributing to knowledge-sharing across engineering teams

Preferred:

Familiarity with neuromorphic computing, AI edge chips, or Physical AI architectures
 
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