BRN Discussion Ongoing

Frangipani

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Speaking of NAOMI4Radar: Presentations on the project’s results have begun… Like this talk earlier today by Franziska Ott (TWT GmbH Science & Innovation) and Geoffrey Kasenbacher (Mercedes-Benz) at ELIV (Electronics in Vehicles) 2025 in Bonn:


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English translation:

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On this slide we can see which specific researchers from each of the project partners were involved in a publication resulting from the project…

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And here you can see Loihi 2 (the blue box on the left) as well as the Infineon front radar used…

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In case any of my fellow German speakers would like to check out the (pretty technical) NAOMI4Radar project final reports that the three consortium members - Mercedes-Benz, TWT GmbH Science & Innovation and Uni Lübeck - were obliged to submit due to having received public funding for their project: the “Schlussberichte” have now been uploaded to RENATE (Repositorium für Naturwissenschaften und Technik), which also “serves as the repository for the publication of reports to federally funded research projects”.

While there is both a German and an English version of the accompanying one-page document below, all the final reports are in German only. Each of the three consortium partners submitted an individual report to what was formerly known as Germany’s Federal Ministry for Economic Affairs and Climate Action that had funded 56% of the total 900,000 € project costs (cf. page 15 of https://www.bundeswirtschaftsminist...projektsteckbrief-automatisiertes-fahren.pdf?)

In addition, a more extensive joint report by all three consortium members was also submitted - that’s the one, which I have linked below. Note that while they collaborated with both Intel (who provided the physical Loihi 2 hardware as well as technical support) and Infineon (who provided the front radar and assisted with its integration), those two companies were not consortium members themselves and didn’t receive any of the public funding. Neither was TU München/Munich, whom the consortium also collaborated with.

By the end of their 15 month long project (1 June 2024 - 31 August 2025) titled NAOMI4Radar (Neuromorphic Algorithms for Optimizing Automotive Radar Sensor Processing in Autonomous Vehicles), the researchers had reached TRL* 7 as planned, which is defined as “System prototype demonstration in operational environment”. At the start of the project, their research was considered as being TRL 3.
*TRL = Technology Readiness Level - the highest on the scale is TRL 9.


By the way, Akida gets a mention, too, but not - as one would expect - in the context of the Vision EQXX (page 8):

German original:

“Neuromorphic Computing
Bereits im Konzeptfahrzeug Vision EQXX wurde die Leistungsfähigkeit neuromorpher Ansätze zur Verbesserung der Energieeffizienz demonstriert. Um die Technologie weiterzuentwickeln, arbeitet Mercedes-Benz eng mit Startups, Forschungseinrichtungen und Studierenden zusammen. Dies unterstreicht die Bedeutung von Neuromorphic Computing für das Unternehmen und dessen zukünftige Fahrzeugarchitekturen.”

Translation into English (done by DeepL & refined by Frangipani):

“Neuromorphic computing
The capability of neuromorphic approaches to improve energy efficiency has already been demonstrated in the Vision EQXX concept car. Mercedes-Benz is working closely with start-ups, research institutions and university students to further develop the technology. This emphasises the importance of neuromorphic computing for the company and its future vehicle architectures.”


Instead, BrainChip and Akida get mentioned towards the end (page 35), in a paragraph describing other entities’ progress in this field of research (= radar data processing) that was revealed during the duration of the NAOMI4Radar project.

For the German original, see below.

English translation:
“During the course of the project, it became known that in the US BrainChip Holdings, together with Raytheon, had been awarded a contract for neuromorphic radar processing by the Air Force Research Laboratory. The aim of the project is to implement complex signal processing algorithms, in particular micro-Doppler signature analysis, on neuromorphic hardware. BrainChip's Akida processors offer ultra-low energy consumption and are suitable for high-performance signal processing on energy- and space-constrained platforms such as drones or other mobile systems. The project underlines the growing interest in neuromorphic technology for real-time applications in radar and AI in both the military and commercial sectors.”




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Frangipani

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Follow-up post by Jerry Kuo with another video that is better in showing what the BrainChip booth looks like:


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Visitors to the BrainChip booth included

- Jason Tsai, Taiwan-based Ecosystem Development Manager at Intel Corporation (Market Development Manager for 5G Network and Edge ecosystem)


- Yuan Kuok Nee, Malaysia-based Software Engineer at Intel (at least I presume that’s him)


- Chen Han Lu, Taiwan-based Sales Director at Qualcomm


- YK Wyi, Korea-based Business Development Director APAC Edge AI Foundation


Of course they could be friends of Jerry Kuo that dropped by our booth for a chat rather than primarily for business reasons.
 
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Frangipani

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NEWS

Embedded World NA Showcases the Next Chapter of Embedded Intelligence​

one hour ago by Luke James

From neuromorphic edge silicon to formal Rust verification, this year’s show revealed how embedded design is evolving at every level.​


At Embedded World North America 2025, innovation felt less about incremental upgrades and more about integration of hardware with software, of AI with the edge, and of safety with speed.

Across the show floor in Anaheim, CA, companies unveiled new tools and architectures aimed at solving the same underlying challenge: how to make complex embedded systems smarter, safer, and easier to deploy. The five announcements below capture that transition in motion, spanning from neuromorphic processors to formal Rust verification.

BrainChip Brings Neuromorphic Compute to the Edge​


At the show, BrainChip launched the AKD1500 edge AI co-processor, a neuromorphic accelerator designed to deliver 800 giga operations per second at under 300 mW, a power-to-performance ratio that targets constrained embedded environments. Built on GlobalFoundries’ 22FDX platform, the device (product brief linked) operates as a co-processor via PCIe or serial interfaces, integrating with x86, Arm, and RISC-V systems without requiring a full SoC redesign.


Host configurations for the AKD1500 co-processor

Host configurations for the AKD1500 co-processor. Image used courtesy of BrainChip

Its architecture uses BrainChip’s Akida event-based neural model, which enables on-chip learning instead of cloud retraining. That’s particularly relevant for defense, medical sensing, and wearable applications, where low-latency and data privacy are essential. The AKD1500 also ties into BrainChip’s MetaTF toolchain, allowing engineers to port models from TensorFlow/Keras directly into neuromorphic workflows.

This release marks a practical step toward deployable neuromorphic compute, moving adaptive AI closer to the sensor in both industrial and consumer form factors.

(…)
 
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IloveLamp

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This South Korean company (AidALL) I came across which will be at the upcoming CES 2026:


"AidALL is a company that develops intelligent robots based on on-device computing and neuromorphic artificial intelligence. We are currently implementing this technology into an intelligent autonomous robot designed to guide the visually impaired."


 
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IloveLamp

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Gazzafish

Regular
https://www.kkpcba.com/dielectric-u...e-pcbs-for-aerospace-communication-equipment/

Extract :-“

Dielectric Uniformity and Manufacturing Precision of PTFE PCBs for Aerospace Communication Equipment

November 12, 2025by kkpcb020

1. Engineering Overview

Modern aerospace RF communication equipment, including satellite transceivers and spaceborne antenna modules, demands ultra-low-loss PTFE PCBs with tight dielectric uniformity and precise manufacturing tolerances. Small variations in Dk or CTE can lead to phase drift, impedance mismatch, and degraded link margin in Ku/Ka-band RF payloads.

PTFE PCB laminates, with Dk = 2.1 ± 0.02 and Df = 0.0008 @10GHz, provide consistent dielectric properties under extreme thermal cycling (–55°C to +125°C) and vacuum conditions. KKPCB’s hybrid stackup and controlled lamination ensure high-frequency signal integrity, phase stability, and long-term operational reliability.

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Boab

I wish I could paint like Vincent
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