BRN Discussion Ongoing

[Baneino]

IF we are actively engaged and working with them, how come our revenues from providing engineering support is so tiny? Is that how development work where small tech firms don't charge much for their work for years and years with no promises?.

In the semiconductor and IP licensing world, especially with bleeding-edge technologies like neuromorphic computing, it’s not uncommon for smaller firms to collaborate for extended periods with large partners ( like Accenture, OEMs, or chipmakers) in a pre-commercial or evaluation phaseoften with very little revenue at first.
These engagements are typically strategic: The goal is to prove out integrationdemonstrate scalability and validate real-world use casesbefore any licensing or commercial contract ist finalized.
BrainChip seems to be following that pattern prioritizing long-term enablement over short-term service fees. While this may look like "no activity" on a financial level, it often reflects a high-trust, embedded collaboration behid the scenes.
It’s definitely not the traditional “consulting-for-hire” model. But if the tech proves itself, the leverage can be enormous once scaled.
So yes it’s not unusual in this field. Frustratingly quiet sometimes but not meaningless.
No matter the clouds we see today I firmly believe that beyond them, the sun is already shining waiting to warm us with its light. Patience is the gentle bridge to that bright horizon."I like to take on the role of motovating and encouriging othersespecialy at the right moments. I hope I’m not beeing intrusive, but rather contributng something positive. What I share here is my personal conviction, combinned with my experiences."

 

[cosors]

Hang on a sec, Felix - I haven't got the contact details yet.

Never before has my ignore list grown as quickly as it has in the weeks since May.

 

[Esq.111]

Morning Chippers ,

USA, Pentagon just gave the ALL GO on drones.

Pentagon Just Made A Massive, Long Overdue Shift To Arm Its Troops With Thousands Of Drones https://share.google/csWNyipwLyXPcsNZt

Regards,
Esq.

 

[manny100]

Morning Chippers ,

USA, Pentagon just gave the ALL GO on drones.

Pentagon Just Made A Massive, Long Overdue Shift To Arm Its Troops With Thousands Of Drones https://share.google/csWNyipwLyXPcsNZt

Regards,
Esq.

Thanks for you post Esq 111.
Drones are volume consumables Ukraine churns out about 200k of drones per month According to the article.
Because they are unmanned testing will be fast tracked (fewer safety issues) and because they are cheap they will be continually updated.
Can only be good for BRN.

 

[JB49]

IF we are actively engaged and working with them, how come our revenues from providing engineering support is so tiny? Is that how development work where small tech firms don't charge much for their work for years and years with no promises?

Remember the last 4C they noted we just missed out on 540K on engineering revenue. That 540K will appear on the upcoming 4C.

What I'm really watching for in the upcoming 4C is whether that $540K is accompanied by additional engineering revenue, ideally another $500K+. That would be a good sign things are ramping up.

 

[smoothsailing18]

Can we expect to see anything financial due to be released this month ?.

 

[Bravo]

BrainChip gets a mention here.

Neuromorphic-computing market projected at US $20.4 billion by 2031.

If we capture a mere 2% it would translate into approx $400 million in annual revenue.

A 5% portion would translate in approx 1 billion.

Neuromorphic Computing Market to Reach US$ 20.4 Billion by 2031 Fueled by AI and Edge Intelligence - Persistence Market Research​

07-11-2025 09:12 AM CET | IT, New Media & Software

Press release from: Persistence Market Research​

Neuromorphic Computing Market

Market Set to Expand at 20.9% CAGR Amid Rising Demand for Brain-Inspired Computing in AI and Robotics

According to the latest study by Persistence Market Research, the global neuromorphic computing market is projected to grow significantly from US$ 5.4 billion in 2024 to US$ 20.4 billion by 2031, exhibiting a robust CAGR of 20.9% over the forecast period. This surge is primarily driven by the growing demand for low-power, high-speed computing systems, especially in artificial intelligence (AI), edge computing, and advanced robotics. Neuromorphic systems mimic the architecture and operational principles of the human brain, enabling real-time data processing and cognitive functions with significantly reduced energy consumption.

Neuromorphic computing systems are rapidly gaining traction in industries that require ultra-efficient data processing such as defense, healthcare, automotive, and industrial automation. The market is being propelled by advances in hardware design, particularly the integration of neuromorphic chips with AI frameworks, enabling improved pattern recognition, decision-making, and adaptation in uncertain environments. The edge computing segment leads the market due to the rising need for real-time inference at the device level without relying heavily on cloud infrastructure. Geographically, North America dominates the neuromorphic computing landscape, largely due to its early adoption of AI technologies, strong presence of tech giants, and heavy R&D investments in next-generation computing platforms.

Get a Sample PDF Brochure of the Report (Use Corporate Email ID for a Quick Response): https://www.persistencemarketresearch.com/samples/34726

Key Market Insights

➤ The neuromorphic computing market is set to grow more than 3.7x by 2031, driven by AI and IoT integration.
➤ Edge computing is the dominant segment due to its synergy with neuromorphic hardware for real-time decision-making.
➤ North America leads globally, thanks to extensive research initiatives and a strong base of semiconductor innovation.
➤ Increasing deployment of neuromorphic processors in autonomous vehicles and robotic systems boosts market expansion.
➤ Startups and tech giants alike are investing in neuromorphic chip development for next-gen intelligent applications.

What is the future of neuromorphic computing in AI applications?

Neuromorphic computing is expected to play a pivotal role in advancing AI applications by offering real-time learning, adaptability, and energy efficiency, which traditional Von Neumann architectures cannot match. With AI models becoming more complex, neuromorphic systems provide faster processing at lower power, especially suitable for applications in autonomous driving, smart surveillance, robotics, and edge analytics. Their brain-inspired structure enables efficient handling of unstructured data, noise tolerance, and dynamic decision-making-traits essential for developing human-like machine intelligence. As demand for smarter, faster, and greener AI grows, neuromorphic computing will become central to the next wave of AI innovation.

Market Dynamics

Drivers: The surge in AI-driven applications, the growing use of smart sensors and devices, and the push toward efficient edge computing are key drivers for the neuromorphic computing market. These systems offer unparalleled processing efficiency and are ideal for real-time applications like smart surveillance, industrial robotics, and autonomous vehicles, where latency and power efficiency are critical.

Market Restraining Factor: Despite the promise, the market faces significant challenges in terms of scalability, software compatibility, and lack of standardized programming frameworks. Neuromorphic systems require a different approach than traditional computing models, which can slow down adoption among enterprises not equipped to handle such architectural shifts.

Key Market Opportunity: The most promising opportunity lies in the integration of neuromorphic hardware in edge AI systems, particularly in sectors such as defense, automotive, and healthcare. As edge devices become more autonomous, neuromorphic processors can offer localized intelligence with minimal power draw, enabling new applications in wearable tech, drones, and real-time diagnostics.

Market Segmentation

The neuromorphic computing market is segmented by component, application, end-use industry, and deployment. By component, the market is categorized into hardware (neuromorphic chips and sensors) and software (learning algorithms and frameworks). Hardware holds the dominant share due to ongoing innovations in neuromorphic chips and their adoption in edge and AI devices. Neuromorphic sensors, capable of capturing data in a brain-like manner, are also seeing rapid uptake in autonomous navigation and surveillance applications.

Based on application, the market includes image recognition, signal processing, data mining, object detection, and others. Among these, image and signal recognition applications lead, particularly in automotive and healthcare sectors where real-time interpretation is crucial. In terms of end-use, automotive, aerospace & defense, healthcare, consumer electronics, and industrial automation are key sectors. Automotive, particularly in self-driving and driver-assistance systems, is leading due to the need for rapid, low-latency decision-making. Software advancements that enable real-time learning and self-optimization are also fostering deeper neuromorphic adoption across new AI use cases.

Regional Insights

North America remains the most dominant region in the neuromorphic computing market, supported by the presence of major semiconductor companies, high research investments, and rapid deployment of AI applications. The U.S. is leading the region with substantial funding for defense and AI-focused neuromorphic innovations, including partnerships between universities, startups, and government bodies.

Europe is showing strong momentum, particularly in automotive and robotics applications, with countries like Germany and the U.K. leading in research and development. Asia Pacific is an emerging hotspot, driven by rising tech adoption in China, Japan, and South Korea. These countries are heavily investing in AI, IoT, and next-gen chip manufacturing. Additionally, increased demand for smart electronics and autonomous technologies in the region presents significant future growth potential.

Competitive Landscape

The competitive landscape in the neuromorphic computing market is characterized by strategic collaborations, patent-driven innovation, and a race to commercialize neuromorphic hardware. Companies are also focusing on hybrid architectures that combine traditional and neuromorphic elements to ease the transition and expand use cases.

Company Insights

✦ Intel Corporation
✦ IBM Corporation
✦ BrainChip Holdings Ltd.
✦ Qualcomm Inc.
✦ Hewlett Packard Enterprise Development LP
✦ Samsung Electronics Co., Ltd.
✦ HRL Laboratories, LLC
✦ Nepes Corporation
✦ General Vision Inc.
✦ SynSense AG
✦ Applied Brain Research, Inc.

For Customized Insights on Segments, Regions, or Competitors, Request Personalized Purchase Options @ https://www.persistencemarketresearch.com/request-customization/34726

Key Industry Developments

Recent years have witnessed several key developments shaping the neuromorphic computing market. Intel's Loihi neuromorphic chip has been central to various research collaborations, showing promise in edge AI and robotics. IBM, through its TrueNorth chip project, continues to pioneer in neural-inspired computing, aiming to scale commercial applications. Meanwhile, BrainChip's Akida chip is gaining traction across smart home and security device manufacturers for its energy-efficient inference capabilities.

The market is also experiencing growing academic-industry collaborations. Universities and research labs are partnering with tech companies to develop programmable neuromorphic platforms, making it easier for developers to create applications that utilize spiking neural networks (SNNs). These developments are gradually making neuromorphic computing accessible to a broader tech community.

Innovation and Future Trends

Innovation in neuromorphic computing is centered on spiking neural networks (SNNs), 3D chip stacking, and on-device learning. Researchers are exploring how to develop chips that can learn from their environment in real time-much like biological brains. Unlike traditional AI models that require vast data centers, these innovations focus on real-world interaction and decision-making at ultra-low power, making neuromorphic devices ideal for mobile and wearable technologies.

Future trends indicate a shift toward neuromorphic-as-a-service platforms, where enterprises can access neuromorphic capabilities without building custom hardware. Furthermore, as AI grows increasingly decentralized, neuromorphic chips will be pivotal in enabling autonomous decision-making at the edge, reducing dependence on the cloud. Industries such as smart cities, healthcare, defense, and aerospace are expected to be early beneficiaries of these trends, paving the way for more human-like cognition in machines.

Explore the Latest Trending "Exclusive Article" @

 

[7für7]

BrainChip gets a mention here.

Neuromorphic Computing Market to Reach US$ 20.4 Billion by 2031 Fueled by AI and Edge Intelligence - Persistence Market Research​

07-11-2025 09:12 AM CET | IT, New Media & Software

Press release from: Persistence Market Research​

Neuromorphic Computing Market

Market Set to Expand at 20.9% CAGR Amid Rising Demand for Brain-Inspired Computing in AI and Robotics

According to the latest study by Persistence Market Research, the global neuromorphic computing market is projected to grow significantly from US$ 5.4 billion in 2024 to US$ 20.4 billion by 2031, exhibiting a robust CAGR of 20.9% over the forecast period. This surge is primarily driven by the growing demand for low-power, high-speed computing systems, especially in artificial intelligence (AI), edge computing, and advanced robotics. Neuromorphic systems mimic the architecture and operational principles of the human brain, enabling real-time data processing and cognitive functions with significantly reduced energy consumption.

Neuromorphic computing systems are rapidly gaining traction in industries that require ultra-efficient data processing such as defense, healthcare, automotive, and industrial automation. The market is being propelled by advances in hardware design, particularly the integration of neuromorphic chips with AI frameworks, enabling improved pattern recognition, decision-making, and adaptation in uncertain environments. The edge computing segment leads the market due to the rising need for real-time inference at the device level without relying heavily on cloud infrastructure. Geographically, North America dominates the neuromorphic computing landscape, largely due to its early adoption of AI technologies, strong presence of tech giants, and heavy R&D investments in next-generation computing platforms.

Get a Sample PDF Brochure of the Report (Use Corporate Email ID for a Quick Response): https://www.persistencemarketresearch.com/samples/34726

Key Market Insights

➤ The neuromorphic computing market is set to grow more than 3.7x by 2031, driven by AI and IoT integration.
➤ Edge computing is the dominant segment due to its synergy with neuromorphic hardware for real-time decision-making.
➤ North America leads globally, thanks to extensive research initiatives and a strong base of semiconductor innovation.
➤ Increasing deployment of neuromorphic processors in autonomous vehicles and robotic systems boosts market expansion.
➤ Startups and tech giants alike are investing in neuromorphic chip development for next-gen intelligent applications.

What is the future of neuromorphic computing in AI applications?

Neuromorphic computing is expected to play a pivotal role in advancing AI applications by offering real-time learning, adaptability, and energy efficiency, which traditional Von Neumann architectures cannot match. With AI models becoming more complex, neuromorphic systems provide faster processing at lower power, especially suitable for applications in autonomous driving, smart surveillance, robotics, and edge analytics. Their brain-inspired structure enables efficient handling of unstructured data, noise tolerance, and dynamic decision-making-traits essential for developing human-like machine intelligence. As demand for smarter, faster, and greener AI grows, neuromorphic computing will become central to the next wave of AI innovation.

Market Dynamics

Drivers: The surge in AI-driven applications, the growing use of smart sensors and devices, and the push toward efficient edge computing are key drivers for the neuromorphic computing market. These systems offer unparalleled processing efficiency and are ideal for real-time applications like smart surveillance, industrial robotics, and autonomous vehicles, where latency and power efficiency are critical.

Market Restraining Factor: Despite the promise, the market faces significant challenges in terms of scalability, software compatibility, and lack of standardized programming frameworks. Neuromorphic systems require a different approach than traditional computing models, which can slow down adoption among enterprises not equipped to handle such architectural shifts.

Key Market Opportunity: The most promising opportunity lies in the integration of neuromorphic hardware in edge AI systems, particularly in sectors such as defense, automotive, and healthcare. As edge devices become more autonomous, neuromorphic processors can offer localized intelligence with minimal power draw, enabling new applications in wearable tech, drones, and real-time diagnostics.

Market Segmentation

The neuromorphic computing market is segmented by component, application, end-use industry, and deployment. By component, the market is categorized into hardware (neuromorphic chips and sensors) and software (learning algorithms and frameworks). Hardware holds the dominant share due to ongoing innovations in neuromorphic chips and their adoption in edge and AI devices. Neuromorphic sensors, capable of capturing data in a brain-like manner, are also seeing rapid uptake in autonomous navigation and surveillance applications.

Based on application, the market includes image recognition, signal processing, data mining, object detection, and others. Among these, image and signal recognition applications lead, particularly in automotive and healthcare sectors where real-time interpretation is crucial. In terms of end-use, automotive, aerospace & defense, healthcare, consumer electronics, and industrial automation are key sectors. Automotive, particularly in self-driving and driver-assistance systems, is leading due to the need for rapid, low-latency decision-making. Software advancements that enable real-time learning and self-optimization are also fostering deeper neuromorphic adoption across new AI use cases.

Regional Insights

North America remains the most dominant region in the neuromorphic computing market, supported by the presence of major semiconductor companies, high research investments, and rapid deployment of AI applications. The U.S. is leading the region with substantial funding for defense and AI-focused neuromorphic innovations, including partnerships between universities, startups, and government bodies.

Europe is showing strong momentum, particularly in automotive and robotics applications, with countries like Germany and the U.K. leading in research and development. Asia Pacific is an emerging hotspot, driven by rising tech adoption in China, Japan, and South Korea. These countries are heavily investing in AI, IoT, and next-gen chip manufacturing. Additionally, increased demand for smart electronics and autonomous technologies in the region presents significant future growth potential.

Competitive Landscape

The competitive landscape in the neuromorphic computing market is characterized by strategic collaborations, patent-driven innovation, and a race to commercialize neuromorphic hardware. Companies are also focusing on hybrid architectures that combine traditional and neuromorphic elements to ease the transition and expand use cases.

Company Insights

✦ Intel Corporation
✦ IBM Corporation
✦ BrainChip Holdings Ltd.
✦ Qualcomm Inc.
✦ Hewlett Packard Enterprise Development LP
✦ Samsung Electronics Co., Ltd.
✦ HRL Laboratories, LLC
✦ Nepes Corporation
✦ General Vision Inc.
✦ SynSense AG
✦ Applied Brain Research, Inc.

For Customized Insights on Segments, Regions, or Competitors, Request Personalized Purchase Options @ https://www.persistencemarketresearch.com/request-customization/34726

Key Industry Developments

Recent years have witnessed several key developments shaping the neuromorphic computing market. Intel's Loihi neuromorphic chip has been central to various research collaborations, showing promise in edge AI and robotics. IBM, through its TrueNorth chip project, continues to pioneer in neural-inspired computing, aiming to scale commercial applications. Meanwhile, BrainChip's Akida chip is gaining traction across smart home and security device manufacturers for its energy-efficient inference capabilities.

The market is also experiencing growing academic-industry collaborations. Universities and research labs are partnering with tech companies to develop programmable neuromorphic platforms, making it easier for developers to create applications that utilize spiking neural networks (SNNs). These developments are gradually making neuromorphic computing accessible to a broader tech community.

Innovation and Future Trends

Innovation in neuromorphic computing is centered on spiking neural networks (SNNs), 3D chip stacking, and on-device learning. Researchers are exploring how to develop chips that can learn from their environment in real time-much like biological brains. Unlike traditional AI models that require vast data centers, these innovations focus on real-world interaction and decision-making at ultra-low power, making neuromorphic devices ideal for mobile and wearable technologies.

Future trends indicate a shift toward neuromorphic-as-a-service platforms, where enterprises can access neuromorphic capabilities without building custom hardware. Furthermore, as AI grows increasingly decentralized, neuromorphic chips will be pivotal in enabling autonomous decision-making at the edge, reducing dependence on the cloud. Industries such as smart cities, healthcare, defense, and aerospace are expected to be early beneficiaries of these trends, paving the way for more human-like cognition in machines.

Explore the Latest Trending "Exclusive Article" @

This is actually insane, amazing, and ridiculous all at the same time…. just look at the companies we’re listed alongside! And then you look at our share price… If you were a new potential investor, you’d probably think: ‘What? I’m going all in before it explodes…. Wohioo jackpot!!!’” But somehow… aaaa don’t know maaaaan…

 

[JB49]

Has this patent from Valeo been shared before?

https://patentimages.storage.googleapis.com/da/ee/5b/2f2f9cbab704fe/WO2024160994A1.pdf

 

[Bravo]

Has this patent from Valeo been shared before?

https://patentimages.storage.googleapis.com/da/ee/5b/2f2f9cbab704fe/WO2024160994A1.pdf

Hi @JB49,

Here's the link #89,847 to Diogenese last post about this patent.

Valeo have publicly stated that SCALA 3 is capable of 3D object detection, prediction, and fusion of Lidar, radar, camera, and ultrasonic data. This kind of multi-modal sensor fusion would definitely benefit from state-space models like TENNs that can model long-range temporal dependencies efficiently.

Diogenese has also previously said that "SCALA 3 is just the lidar electro-optical transceiver. They use software to process the signals. TENNS could be in the software."

 

[Diogenese]

Hi @JB49,

Here's the link #89,847 to Diogenese last post about this patent.

Valeo have publicly stated that SCALA 3 is capable of 3D object detection, prediction, and fusion of Lidar, radar, camera, and ultrasonic data. This kind of multi-modal sensor fusion would definitely benefit from state-space models like TENNs that can model long-range temporal dependencies efficiently.

Diogenese has also previously said that "SCALA 3 is just the lidar electro-optical transceiver. They use software to process the signals. TENNS could be in the software."



View attachment 88413

Yes. Unfortunately, the SDV (software defined vehicle) is the Pretender for the moment while we wait in the interregnum for the coronation of NN SoC. Although Akida has pulled the sword from the stone, they're still waiting for the release of the video.

 

[Fullmoonfever]

Yes. Unfortunately, the SDV (software defined vehicle) is the Pretender for the moment while we wait in the interregnum for the coronation of NN SoC. Although Akida has pulled the sword from the stone, they're still waiting for the release of the video.

Maybe one step closer though.

Just up on GitHub.

Suggest readers absorb the whole post to understand the intent of this repository.

Especially terms such as federated learning, scalable, V2X, MQTT, prototype level and distributed.

From what I can find, if correct, the author is as below and doesn't necessarily mean VW involved but suspect would be aware of this work in some division / department.

https://dl.acm.org/profile/99660951176

Fernando Sevilla Martínez​

• Open University of Catalonia
• Volkswagen AG

GitHub - SevillaFe/SNN_Akida_RPI5: Eco-Efficient Deployment of Spiking Neural Networks on Low-Cost Edge Hardware

Eco-Efficient Deployment of Spiking Neural Networks on Low-Cost Edge Hardware - SevillaFe/SNN_Akida_RPI5

github.com

SevillaFe/SNN_Akida_RPI5

Fernando Sevilla MartínezSevillaFe​

SevillaFe/SNN_Akida_RPI5Public

Eco-Efficient Deployment of Spiking Neural Networks on Low-Cost Edge Hardware

SNN_Akida_RPI5​

Eco-Efficient Deployment of Spiking Neural Networks on Low-Cost Edge Hardware

This work presents a practical and energy-aware framework for deploying Spiking Neural Networks on low-cost hardware for edge computing. We detail a reproducible pipeline that integrates neuromorphic processing with secure remote access and distributed intelligence. Using Raspberry Pi and the BrainChip Akida PCIe accelerator, we demonstrate a lightweight deployment process including model training, quantization, and conversion. Our experiments validate the eco-efficiency and networking potential of neuromorphic AI systems, providing key insights for sustainable distributed intelligence. This letter offers a blueprint for scalable and secure neuromorphic deployments across edge networks.

1. Hardware and Software Setup​

The proposed deployment platform integrates two key hardware components: the RPI5 and the Akida board. Together, they enable a power-efficient, cost-effective N-S suitable for real-world edge AI applications.

2. Enabling Secure Remote Access and Distributed Neuromorphic Edge Networks​

The deployment of low-power N-H in networked environments requires reliable, secure, and lightweight communication frameworks. Our system enables full remote operability of the RPI5 and Akida board via SSH, complemented by protocol layers (Message Queuing Telemetry Transport (MQTT), WebSockets, Vehicle-to-Everything (V2X)) that support real-time, event-driven intelligence across edge networks.

3. Training and Running Spiking Neural Networks​

The training pipeline begins with building an ANN using TensorFlow 2.x, which will later be mapped to a spike-compatible format for neuromorphic inference. Because Akida board runs models using low-bitwidth integer arithmetic (4–8 bits), it is critical to align the training phase with these constraints to avoid significant post-training performance degradation.

4. Use case validation: Networked neuromorphic AI for distributed intelligence​

4.1 Use Case: If multiple RPI5 nodes or remote clients need to receive the classification results in real-time, MQTT can be used to broadcast inference outputs​

MQTT-Based Akida Inference Broadcasting​

This project demonstrates how to perform real-time classification broadcasting using BrainChip Akida on Raspberry Pi 5 with MQTT.

Project Structure​

mqtt-akida-inference/
├── config/ # MQTT broker and topic configuration
├── scripts/ # MQTT publisher/subscriber scripts
├── sample_data/ # Sample input data for inference
├── requirements.txt # Required Python packages

Usage​

1. Install Mosquitto on RPI5

sudo apt update
sudo apt install mosquitto mosquitto-clients -y
sudo systemctl enable mosquitto
sudo systemctl start mosquitto

1. Run Publisher (on RPI5)

python3 scripts/mqtt_publisher.py

1. Run Subscriber (on remote device)

python3 scripts/mqtt_subscriber.py

1. Optional: Monitor from CLI

mosquitto_sub -h <BROKER_IP> -t "akida/inference" -v

Akida Compatibility

python3 outputs = model_akida.predict(sample_image)


Real-Time Edge AI This use case supports event-based edge AI and real-time feedback in smart environments, such as surveillance, mobility, and robotics.

Configurations Set your broker IP and topic in config/config.py

4.2 Use Case: If the Akida accelerator is deployed in an autonomous driving system, V2X communication allows other vehicles or infrastructure to receive AI alerts based on neuromorphic-based vision​

This Use Cases simulates a lightweight V2X (Vehicle-to-Everything) communication system using Python. It demonstrates how neuromorphic AI event results, such as pedestrian detection, can be broadcast over a network and received by nearby infrastructure or vehicles.

Folder Structure​

V2X/
├── config.py # V2X settings
├── v2x_transmitter.py # Simulated Akida alert broadcaster
├── v2x_receiver.py # Listens for incoming V2X alerts
└── README.md

Use Case​

If the Akida accelerator is deployed in an autonomous driving system, this setup allows:

• Broadcasting high-confidence AI alerts (e.g., "pedestrian detected")
• Receiving alerts on nearby systems for real-time awareness

Usage​

1. Start the V2X Receiver (on vehicle or infrastructure node)​

python3 receiver/v2x_receiver.py

2. Run the Alert Transmitter (on an RPI5 + Akida node)​

python3 transmitter/v2x_transmitter.py

Notes​

• Ensure that devices are on the same LAN or wireless network
• UDP broadcast mode is used for simplicity
• This is a prototype for real-time event-based message sharing between intelligent nodes

4.3 Use Case: If multiple RPI5-Akida nodes are deployed for federated learning, updates to neuromorphic models must be synchronized between devices​

Federated Learning Setup with Akida on Raspberry Pi 5​

This repository demonstrates a lightweight Federated Learning (FL) setup using neuromorphic AI models deployed on BrainChip Akida PCIe accelerators paired with Raspberry Pi 5 devices. It provides scripts for a centralized Flask server to receive model weight updates and a client script to upload Akida model weights via HTTP.

Overview​

Neuromorphic models trained on individual RPI5-Akida nodes can contribute updates to a shared model hosted on a central server. This setup simulates a federated learning architecture for edge AI applications that require privacy, low latency, and energy efficiency.

Repository Structure​

federated_learning/
├── federated_learning_server.py # Flask server to receive model weights
├── federated_learning_client.py # Client script to upload Akida model weights
├── model_utils.py # (Optional) Placeholder for weight handling utilities
├── model_training.py # (Optional) Placeholder for training-related code
└── README.md

Requirements​

• Python 3.7+
• Flask
• NumPy
• Requests
• Akida Python SDK (required on client device)

Install the dependencies using:

pip install flask numpy requests

Getting Started​

1. Launch the Federated Learning Server​

On a device intended to act as the central server:

python3 federated_learning_server.py

The server will listen for HTTP POST requests on port 5000 and respond to updates sent to the /upload endpoint.

2. Configure and Run the Client​

On each RPI5-Akida node:

• Ensure the Akida model has been trained.
• Replace the SERVER_IP variable inside federated_learning_client.py with the IP address of the server.
• Run the script:

python3 federated_learning_client.py

This will extract the weights from the Akida model and transmit them to the server in JSON format.

Example Response​

After a successful POST:

Model weights uploaded successfully.


If an error occurs (e.g., connection refused or malformed weights), you will see an appropriate status message.

Security Considerations​

This is a prototype-level setup for research. For real-world deployment:

• Use HTTPS instead of HTTP.
• Authenticate clients using tokens or API keys.
• Validate the format and shape of model weights before acceptance.

Acknowledgements​

This implementation is part of a broader effort to demonstrate low-cost, energy-efficient neuromorphic AI for distributed and networked edge environments, particularly leveraging the BrainChip Akida PCIe board and Raspberry Pi 5 hardware.

 

[Bravo]

Great find, as per usual @Fullmoonfever!

I just discovered this research paper titled "Spiking neural networks for autonomous driving" which Fernando Sevilla Martinez (Data Science Specialist, Volkswagen) co-authored. The paper was published in December 2024.

https://dl.acm.org/doi/10.1016/j.engappai.2024.109415

Fernando Sevilla Martínez's Github activity, which FMF just uncovered, demonstrates Akida-powered neuromorphic processing for V2X and federated learning prototypes.

CARIAD, Volkswagen's software company, have been working on developing and implementing V2X.

 

[Cardpro]

Remember the last 4C they noted we just missed out on 540K on engineering revenue. That 540K will appear on the upcoming 4C.

What I'm really watching for in the upcoming 4C is whether that $540K is accompanied by additional engineering revenue, ideally another $500K+. Thats would be a good sign things are ramping up.

thanks for the reminder!!! I totally forgot about those, feels much better!!!

 

[Frangipani]

Maybe one step closer though.

Just up on GitHub.

Suggest readers absorb the whole post to understand the intent of this repository.

Especially terms such as federated learning, scalable, V2X, MQTT, prototype level and distributed.

From what I can find, if correct, the author is as below and doesn't necessarily mean VW involved but suspect would be aware of this work in some division / department.

https://dl.acm.org/profile/99660951176

Fernando Sevilla Martínez​

• Open University of Catalonia
• Volkswagen AG

GitHub - SevillaFe/SNN_Akida_RPI5: Eco-Efficient Deployment of Spiking Neural Networks on Low-Cost Edge Hardware

Eco-Efficient Deployment of Spiking Neural Networks on Low-Cost Edge Hardware - SevillaFe/SNN_Akida_RPI5

github.com

SevillaFe/SNN_Akida_RPI5

Fernando Sevilla MartínezSevillaFe​

SevillaFe/SNN_Akida_RPI5Public

Eco-Efficient Deployment of Spiking Neural Networks on Low-Cost Edge Hardware

SNN_Akida_RPI5​

Eco-Efficient Deployment of Spiking Neural Networks on Low-Cost Edge Hardware

This work presents a practical and energy-aware framework for deploying Spiking Neural Networks on low-cost hardware for edge computing. We detail a reproducible pipeline that integrates neuromorphic processing with secure remote access and distributed intelligence. Using Raspberry Pi and the BrainChip Akida PCIe accelerator, we demonstrate a lightweight deployment process including model training, quantization, and conversion. Our experiments validate the eco-efficiency and networking potential of neuromorphic AI systems, providing key insights for sustainable distributed intelligence. This letter offers a blueprint for scalable and secure neuromorphic deployments across edge networks.

1. Hardware and Software Setup​

The proposed deployment platform integrates two key hardware components: the RPI5 and the Akida board. Together, they enable a power-efficient, cost-effective N-S suitable for real-world edge AI applications.

2. Enabling Secure Remote Access and Distributed Neuromorphic Edge Networks​

The deployment of low-power N-H in networked environments requires reliable, secure, and lightweight communication frameworks. Our system enables full remote operability of the RPI5 and Akida board via SSH, complemented by protocol layers (Message Queuing Telemetry Transport (MQTT), WebSockets, Vehicle-to-Everything (V2X)) that support real-time, event-driven intelligence across edge networks.

3. Training and Running Spiking Neural Networks​

The training pipeline begins with building an ANN using TensorFlow 2.x, which will later be mapped to a spike-compatible format for neuromorphic inference. Because Akida board runs models using low-bitwidth integer arithmetic (4–8 bits), it is critical to align the training phase with these constraints to avoid significant post-training performance degradation.

4. Use case validation: Networked neuromorphic AI for distributed intelligence​

4.1 Use Case: If multiple RPI5 nodes or remote clients need to receive the classification results in real-time, MQTT can be used to broadcast inference outputs​

MQTT-Based Akida Inference Broadcasting​

This project demonstrates how to perform real-time classification broadcasting using BrainChip Akida on Raspberry Pi 5 with MQTT.

Project Structure​

mqtt-akida-inference/
├── config/ # MQTT broker and topic configuration
├── scripts/ # MQTT publisher/subscriber scripts
├── sample_data/ # Sample input data for inference
├── requirements.txt # Required Python packages

Usage​

1. Install Mosquitto on RPI5

sudo apt update
sudo apt install mosquitto mosquitto-clients -y
sudo systemctl enable mosquitto
sudo systemctl start mosquitto

1. Run Publisher (on RPI5)

python3 scripts/mqtt_publisher.py

1. Run Subscriber (on remote device)

python3 scripts/mqtt_subscriber.py

1. Optional: Monitor from CLI

mosquitto_sub -h <BROKER_IP> -t "akida/inference" -v

Akida Compatibility

python3 outputs = model_akida.predict(sample_image)


Real-Time Edge AI This use case supports event-based edge AI and real-time feedback in smart environments, such as surveillance, mobility, and robotics.

Configurations Set your broker IP and topic in config/config.py

4.2 Use Case: If the Akida accelerator is deployed in an autonomous driving system, V2X communication allows other vehicles or infrastructure to receive AI alerts based on neuromorphic-based vision​

This Use Cases simulates a lightweight V2X (Vehicle-to-Everything) communication system using Python. It demonstrates how neuromorphic AI event results, such as pedestrian detection, can be broadcast over a network and received by nearby infrastructure or vehicles.

Folder Structure​

V2X/
├── config.py # V2X settings
├── v2x_transmitter.py # Simulated Akida alert broadcaster
├── v2x_receiver.py # Listens for incoming V2X alerts
└── README.md

Use Case​

If the Akida accelerator is deployed in an autonomous driving system, this setup allows:

• Broadcasting high-confidence AI alerts (e.g., "pedestrian detected")
• Receiving alerts on nearby systems for real-time awareness

Usage​

1. Start the V2X Receiver (on vehicle or infrastructure node)​

python3 receiver/v2x_receiver.py

2. Run the Alert Transmitter (on an RPI5 + Akida node)​

python3 transmitter/v2x_transmitter.py

Notes​

• Ensure that devices are on the same LAN or wireless network
• UDP broadcast mode is used for simplicity
• This is a prototype for real-time event-based message sharing between intelligent nodes

4.3 Use Case: If multiple RPI5-Akida nodes are deployed for federated learning, updates to neuromorphic models must be synchronized between devices​

Federated Learning Setup with Akida on Raspberry Pi 5​

This repository demonstrates a lightweight Federated Learning (FL) setup using neuromorphic AI models deployed on BrainChip Akida PCIe accelerators paired with Raspberry Pi 5 devices. It provides scripts for a centralized Flask server to receive model weight updates and a client script to upload Akida model weights via HTTP.

Overview​

Neuromorphic models trained on individual RPI5-Akida nodes can contribute updates to a shared model hosted on a central server. This setup simulates a federated learning architecture for edge AI applications that require privacy, low latency, and energy efficiency.

Repository Structure​

federated_learning/
├── federated_learning_server.py # Flask server to receive model weights
├── federated_learning_client.py # Client script to upload Akida model weights
├── model_utils.py # (Optional) Placeholder for weight handling utilities
├── model_training.py # (Optional) Placeholder for training-related code
└── README.md

Requirements​

• Python 3.7+
• Flask
• NumPy
• Requests
• Akida Python SDK (required on client device)

Install the dependencies using:

pip install flask numpy requests

Getting Started​

1. Launch the Federated Learning Server​

On a device intended to act as the central server:

python3 federated_learning_server.py

The server will listen for HTTP POST requests on port 5000 and respond to updates sent to the /upload endpoint.

2. Configure and Run the Client​

On each RPI5-Akida node:

• Ensure the Akida model has been trained.
• Replace the SERVER_IP variable inside federated_learning_client.py with the IP address of the server.
• Run the script:

python3 federated_learning_client.py

This will extract the weights from the Akida model and transmit them to the server in JSON format.

Example Response​

After a successful POST:

Model weights uploaded successfully.


If an error occurs (e.g., connection refused or malformed weights), you will see an appropriate status message.

Security Considerations​

This is a prototype-level setup for research. For real-world deployment:

• Use HTTPS instead of HTTP.
• Authenticate clients using tokens or API keys.
• Validate the format and shape of model weights before acceptance.

Acknowledgements​

This implementation is part of a broader effort to demonstrate low-cost, energy-efficient neuromorphic AI for distributed and networked edge environments, particularly leveraging the BrainChip Akida PCIe board and Raspberry Pi 5 hardware.

Great find, @Fullmoonfever!

This is his LinkedIn Profile:

https://www.linkedin.com/in/fernandosevillamartinez/

I came across the name Fernando Sevilla Martínez before, in connection with Raúl Parada Medina, whom I first noticed liking BrainChip LinkedIn posts more than a year ago (and there have been many more since… ).

Given that Raúl Parada Medina describes himself as an “IoT research specialist within the connected car project at a Spanish automobile manufacturer”, I had already suggested a connection to the Volkswagen Group via SEAT or CUPRA at the time.

https://thestockexchange.com.au/threads/brn-discussion-ongoing.1/post-424590

Raúl Parada Medina, PhD - CTTC | LinkedIn

IoT research specialist within the connected car project at a Spanish automobile… · Experience: CTTC · Education: Universitat Pompeu Fabra - Barcelona · Location: Castelldefels · 500+ connections on LinkedIn. View Raúl Parada Medina, PhD’s profile on LinkedIn, a professional community of 1...

www.linkedin.com

Agent Raul Parada Medina - Col·laboratori Catalunya

colabscatalunya.cat

Extremely likely the same Raúl Parada Medina whom you recently spotted asking for help with Akida in the DeGirum Community - very disappointingly, no one from our company appears to have been willing to help solve this problem for more than 3 months!

Why promote DeGirum for developers wanting to work with Akida and then not give assistance when needed? Not a good look, if we are to believe shashi from the DeGirum team, who wrote on February 12 he would forward Parada’s request to the BrainChip team, but apparently never got a reply.

https://thestockexchange.com.au/threads/brn-discussion-ongoing.1/post-461608

The issue continued, until it was eventually solved on 27 May by another DeGirum team member, stephan-degirum (presumably Stephan Sokolov, who recently demonstrated running the DeGirum PySDK directly on BrainChip hardware at the 2025 Embedded Vision Summit - see the video here: https://thestockexchange.com.au/threads/brn-discussion-ongoing.1/post-469037)

Create customized SNN code

Hi, I’m interested in the neuromorphic hardware available, Akida. How can I create my own code to be launched in the platform? Thanks

community.degirum.com

raul.parada.medina
May 27

Hi @alex and @shashi for your reply, it looks there is no update from Brianchip in this sense. Please, could you tell me how to upload this model in the platform? Age estimation (regression) example — Akida Examples documentation. Thanks!

1 Reply



shashiDeGirum Team
May 27

@stephan-degirum
Can you please help @raul.parada.medina ?




stephan-degirum

raul.parada.medina
May 27

Hello @raul.parada.medina , conversion of a model from BrainChip’s model zoo into our format is straightforward:
Once you have an Akida model object, like Step 4 in the example:
model_akida = convert(model_quantized_keras)

You’ll need to map the model to your device and then convert it to a compatible binary:​

from akida import devices

# Map model onto your Akida device
dev = devices()[0]
try:
model_akida.map(dev, hw_only=True)
except RuntimeError:
model_akida.map(dev, hw_only=False)

# Extract the C++-compatible program blob
blob = model_akida.sequences[0].program
with open("model_cxx.fbz", "wb") as f:
f.write(blob)

print("C++-compatible model written to model_cxx.fbz")

Note: You want to be sure that the model is supported on your Akida device. There are many models on the BrainChip model zoo that are not compatible with their “version 1 IP” devices.
If your device is a v1 device, you’ll need to add a set_akida_version guard:

from cnn2snn import convert, set_akida_version, AkidaVersion
# Convert the model
with set_akida_version(AkidaVersion.v1):
model_akida = convert(model_quantized_keras)
model_akida.summary()

from akida import devices
# Map model onto your Akida device
# ... (see above)

for more information on v1/v2 model compatibility please see their docs: Akida models zoo — Akida Examples documentation

Once you have a model binary blob created:​

Create a model JSON file adjacent to the blob by following Model JSON Structure | DeGirum Docs or by looking at existing BrainChip models on our AI Hub for reference: https://hub.degirum.com/degirum/brainchip
ModelPath is your binary model file
RuntimeAgent is AKIDA
DeviceType is the middle output from akida devices in all caps.
For example for if akida devices shows: PCIe/NSoC_v2/0 you put: NSOC_V2
Your JSON + binary model blob are now compatible with PySDK. Try running the inference on your device locally by specifying the full path to the JSON as a zoo_url, see: PySDK Package | DeGirum Docs
“For local AI hardware inferences you specify zoo_urlparameter as either a path to a local model zoo directory, or a path to model’s .json configuration file.”
You can then zip them up and upload them to your model zoo in our AI Hub.
Let me know if this helped.
P.S. we currently have v1 hardware in our cloud farm, and this model is the face estimation model for NSoC_v2: https://hub.degirum.com/degirum/brainchip/vgg_regress_age_utkface--32x32_quant_akida_NSoC_1


Anyway, as you had already noticed in your first post on this DeGirum enquiry, Raúl Parada Medina (assuming it is the same person, which I have no doubt about) and Fernando Sevilla Martínez are both co-authors of a paper on autonomous driving:

https://thestockexchange.com.au/threads/brn-discussion-ongoing.1/post-450543

In fact, they have co-published two papers on autonomous driving, together with another researcher: Jordi Casas-Roma. He is director of the Master in Data Science at the Barcelona-based private online university Universitat Oberta de Catalunya, the same department where Fernando Sevilla Martínez got his Master’s degree in 2022 before moving to Wolfsburg the following year, where he now works as a data scientist at the headquarters of the Volkswagen Group.

https://www.linkedin.com/in/jcasasr/

 

[Frangipani]

Speaking of Raúl Parada Medina:

On 13 February I took this screenshot, but never followed up on it:

It appears the planned WISSA workshop as well as some others got eventually cancelled, as only three of the scheduled workshops actually took place in late June:

https://www.ie2025.fraunhofer.de/workshops/

Nevertheless it is evidence that Raúl Parada Medina’s work is also relevant in the field of smart agriculture.


Prior to that, he was part of the 5GMED project that ran from September 2020 to August 2024 (sorry, don’t have the time right now to look up the individual links - all the following screenshots were taken in mid-February).

Keep in mind that Raúl Parada Medina has a telecommunications background and works as a Senior Researcher for CTTC in Castelldefels near Barcelona, the Centre Tecnològic de Telecomunicacions de Catalunya.

So when he describes himself as an “IoT research specialist within the connected car project at a Spanish automobile manufacturer”, the emphasis is on “connected” rather than on “automobile”. Therefore, any upcoming research projects may not involve cars at all.

 

[Food4 thought]

Anyone seen Tony’s new post on linked in?

 

[Flenton]

Anyone seen Tony’s new post on linked in?

No

 

[uiux]

Maybe one step closer though.

Just up on GitHub.

Suggest readers absorb the whole post to understand the intent of this repository.

Especially terms such as federated learning, scalable, V2X, MQTT, prototype level and distributed.

From what I can find, if correct, the author is as below and doesn't necessarily mean VW involved but suspect would be aware of this work in some division / department.

https://dl.acm.org/profile/99660951176

Fernando Sevilla Martínez​

• Open University of Catalonia
• Volkswagen AG

GitHub - SevillaFe/SNN_Akida_RPI5: Eco-Efficient Deployment of Spiking Neural Networks on Low-Cost Edge Hardware

Eco-Efficient Deployment of Spiking Neural Networks on Low-Cost Edge Hardware - SevillaFe/SNN_Akida_RPI5

github.com

SevillaFe/SNN_Akida_RPI5

Fernando Sevilla MartínezSevillaFe​

SevillaFe/SNN_Akida_RPI5Public

Eco-Efficient Deployment of Spiking Neural Networks on Low-Cost Edge Hardware

SNN_Akida_RPI5​

Eco-Efficient Deployment of Spiking Neural Networks on Low-Cost Edge Hardware

This work presents a practical and energy-aware framework for deploying Spiking Neural Networks on low-cost hardware for edge computing. We detail a reproducible pipeline that integrates neuromorphic processing with secure remote access and distributed intelligence. Using Raspberry Pi and the BrainChip Akida PCIe accelerator, we demonstrate a lightweight deployment process including model training, quantization, and conversion. Our experiments validate the eco-efficiency and networking potential of neuromorphic AI systems, providing key insights for sustainable distributed intelligence. This letter offers a blueprint for scalable and secure neuromorphic deployments across edge networks.

1. Hardware and Software Setup​

The proposed deployment platform integrates two key hardware components: the RPI5 and the Akida board. Together, they enable a power-efficient, cost-effective N-S suitable for real-world edge AI applications.

2. Enabling Secure Remote Access and Distributed Neuromorphic Edge Networks​

The deployment of low-power N-H in networked environments requires reliable, secure, and lightweight communication frameworks. Our system enables full remote operability of the RPI5 and Akida board via SSH, complemented by protocol layers (Message Queuing Telemetry Transport (MQTT), WebSockets, Vehicle-to-Everything (V2X)) that support real-time, event-driven intelligence across edge networks.

3. Training and Running Spiking Neural Networks​

The training pipeline begins with building an ANN using TensorFlow 2.x, which will later be mapped to a spike-compatible format for neuromorphic inference. Because Akida board runs models using low-bitwidth integer arithmetic (4–8 bits), it is critical to align the training phase with these constraints to avoid significant post-training performance degradation.

4. Use case validation: Networked neuromorphic AI for distributed intelligence​

4.1 Use Case: If multiple RPI5 nodes or remote clients need to receive the classification results in real-time, MQTT can be used to broadcast inference outputs​

MQTT-Based Akida Inference Broadcasting​

This project demonstrates how to perform real-time classification broadcasting using BrainChip Akida on Raspberry Pi 5 with MQTT.

Project Structure​

mqtt-akida-inference/
├── config/ # MQTT broker and topic configuration
├── scripts/ # MQTT publisher/subscriber scripts
├── sample_data/ # Sample input data for inference
├── requirements.txt # Required Python packages

Usage​

1. Install Mosquitto on RPI5

sudo apt update
sudo apt install mosquitto mosquitto-clients -y
sudo systemctl enable mosquitto
sudo systemctl start mosquitto

1. Run Publisher (on RPI5)

python3 scripts/mqtt_publisher.py

1. Run Subscriber (on remote device)

python3 scripts/mqtt_subscriber.py

1. Optional: Monitor from CLI

mosquitto_sub -h <BROKER_IP> -t "akida/inference" -v

Akida Compatibility

python3 outputs = model_akida.predict(sample_image)


Real-Time Edge AI This use case supports event-based edge AI and real-time feedback in smart environments, such as surveillance, mobility, and robotics.

Configurations Set your broker IP and topic in config/config.py

4.2 Use Case: If the Akida accelerator is deployed in an autonomous driving system, V2X communication allows other vehicles or infrastructure to receive AI alerts based on neuromorphic-based vision​

This Use Cases simulates a lightweight V2X (Vehicle-to-Everything) communication system using Python. It demonstrates how neuromorphic AI event results, such as pedestrian detection, can be broadcast over a network and received by nearby infrastructure or vehicles.

Folder Structure​

V2X/
├── config.py # V2X settings
├── v2x_transmitter.py # Simulated Akida alert broadcaster
├── v2x_receiver.py # Listens for incoming V2X alerts
└── README.md

Use Case​

If the Akida accelerator is deployed in an autonomous driving system, this setup allows:

• Broadcasting high-confidence AI alerts (e.g., "pedestrian detected")
• Receiving alerts on nearby systems for real-time awareness

Usage​

1. Start the V2X Receiver (on vehicle or infrastructure node)​

python3 receiver/v2x_receiver.py

2. Run the Alert Transmitter (on an RPI5 + Akida node)​

python3 transmitter/v2x_transmitter.py

Notes​

• Ensure that devices are on the same LAN or wireless network
• UDP broadcast mode is used for simplicity
• This is a prototype for real-time event-based message sharing between intelligent nodes

4.3 Use Case: If multiple RPI5-Akida nodes are deployed for federated learning, updates to neuromorphic models must be synchronized between devices​

Federated Learning Setup with Akida on Raspberry Pi 5​

This repository demonstrates a lightweight Federated Learning (FL) setup using neuromorphic AI models deployed on BrainChip Akida PCIe accelerators paired with Raspberry Pi 5 devices. It provides scripts for a centralized Flask server to receive model weight updates and a client script to upload Akida model weights via HTTP.

Overview​

Neuromorphic models trained on individual RPI5-Akida nodes can contribute updates to a shared model hosted on a central server. This setup simulates a federated learning architecture for edge AI applications that require privacy, low latency, and energy efficiency.

Repository Structure​

federated_learning/
├── federated_learning_server.py # Flask server to receive model weights
├── federated_learning_client.py # Client script to upload Akida model weights
├── model_utils.py # (Optional) Placeholder for weight handling utilities
├── model_training.py # (Optional) Placeholder for training-related code
└── README.md

Requirements​

• Python 3.7+
• Flask
• NumPy
• Requests
• Akida Python SDK (required on client device)

Install the dependencies using:

pip install flask numpy requests

Getting Started​

1. Launch the Federated Learning Server​

On a device intended to act as the central server:

python3 federated_learning_server.py

The server will listen for HTTP POST requests on port 5000 and respond to updates sent to the /upload endpoint.

2. Configure and Run the Client​

On each RPI5-Akida node:

• Ensure the Akida model has been trained.
• Replace the SERVER_IP variable inside federated_learning_client.py with the IP address of the server.
• Run the script:

python3 federated_learning_client.py

This will extract the weights from the Akida model and transmit them to the server in JSON format.

Example Response​

After a successful POST:

Model weights uploaded successfully.


If an error occurs (e.g., connection refused or malformed weights), you will see an appropriate status message.

Security Considerations​

This is a prototype-level setup for research. For real-world deployment:

• Use HTTPS instead of HTTP.
• Authenticate clients using tokens or API keys.
• Validate the format and shape of model weights before acceptance.

Acknowledgements​

This implementation is part of a broader effort to demonstrate low-cost, energy-efficient neuromorphic AI for distributed and networked edge environments, particularly leveraging the BrainChip Akida PCIe board and Raspberry Pi 5 hardware.

Sort of looks like this one

US20210312257A1 - Distributed neuromorphic infrastructure - Google Patents

In non-limiting examples of the present disclosure, systems, methods and devices for synchronizing neuromorphic models are presented. A sensor input may be received by a first neuromorphic model implemented on a neuromorphic architecture of a first computing device. The neuromorphic model may...

patents.google.com

Distributed neuromorphic infrastructure​

Current Assignee Microsoft Technology Licensing LLC

In non-limiting examples of the present disclosure, systems, methods and devices for synchronizing neuromorphic models are presented. A sensor input may be received by a first neuromorphic model implemented on a neuromorphic architecture of a first computing device. The neuromorphic model may comprise a plurality of neurons, with each of the plurality of neurons associated with a threshold value, a weight value, and a refractory period value. The first sensor input may be processed by the first model. A first output value may be determined based on the processing. The model may be modified via modification of one or more threshold values, weight values, and/or refractory period values. A modified version of the first neuromorphic model may be saved to the first computing device based on the modification. An update comprising the modification may be sent to a second computing device hosting the model.

 

[CHIPS]

Anyone seen Tony’s new post on linked in?

Nope. Why don‘t you post it here?