It’s good seeing other paid members have finally worked out how to edit their “custom title”.
It was a bit of a surprise when Volvo announced last week to bring the Nvidia Drive AGX Orin platform into production models end of 2022. Just a reminder, Orin was the platform in development used in the EQXX. Depending on Mercedes announcements production start of Orin is planned for 2024 together with the new MB.OS. Would be great if some of the techs could step in at the latest Orin specifications to find out if there is any chance of the use of neuromorphic IP, thanks.
Thanks for that. We can all have a bit of funIt’s good seeing other paid members have finally worked out how to edit their “custom title”.
I still do a double take every now and then when I see your profile picture.Thanks for that. We can all have a bit of fun
So they are trying to reopen the ozone layer again.Nvidia use 16-bit or 32-bit weights/actuations.
3rd Generation Tensor Cores and Sparsity NVIDIA Tensor cores provide the performance necessary to accelerate next generation AI applications. Tensor cores are programmable fused matrix-multiply-and-accumulate units that execute concurrently alongside the CUDA cores. Tensor cores implement floating point HMMA (HalfPrecision Matrix Multiply and Accumulate) and IMMA (Integer Matrix Multiple and Accumulate) instructions for accelerating dense linear algebra computations, signal processing, and deep learning inference
They do try to fudge a bit of sparsity by ignoring zeros if 2 out of every 4 bits are non-zero (or do they mean if 2 out of every 4 bits are zero?). Anyhow, they have to count the bits (fine-tuning weights), and add the address (value) of the non-zero bits (non-zero indices, ie, is its value 1, 2, 4, 8, 16, 32, ...?). Rather inelegant!
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https://developer.nvidia.com/blog/nvidia-jetson-agx-xavier-32-teraops-ai-robotics/
The latest generation of NVIDIA’s industry-leading Jetson AGX family of embedded Linux high-performance computers, Jetson AGX Xavier delivers GPU workstation class performance with an unparalleled 32 TeraOPS (TOPS) of peak compute and 750Gbps of high-speed I/O in a compact 100x87mm form-factor. Users can configure operating modes at 10W, 15W, and 30W as needed for their applications. Jetson AGX Xavier sets a new bar for compute density, energy efficiency, and AI inferencing capabilities deployable to the edge, enabling next-level intelligent machines with end-to-end autonomous capabilities.
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There is an opportunity to plug Akida in in place of the Vision Accelerator in the green Xavier SoC box - but they have Watts to burn.
So, on the disclosed information ...
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I have see big billboards in Taylor square for appleHave not bothered to post a link but just read a tech news item claiming without any real details that rumour has it that Apple is planing to release a new more powerful upgraded Pod later this year or early 2023.
No other details provided but one for the 1,000 Eyes to keep in mind.
My opinion only DYOR
FF
AKIDA BALLISTA
Nothing we don’t already know, but still so great to read as an investor in BrainChip
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#edgecomputing #edgetocloud #tinyml | Sheena Patel
Business leaders at industrial and automotive companies need to start thinking about a full edge computing strategy, including areas like edge machine learning and tinyML, if they want to stay one step ahead of the competition. #edgecomputing #edgetocloud #tinymlwww.linkedin.com
Why a Complete Edge Strategy Will Help Business Leaders Win
MACHINE LEARNING, EMBEDDED DEVICES
Sheena Patel
2 June 2022
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Digital transformation as it relates to cloud computing has been in full force over the last couple of years but very few are prepared for the upcoming shift to edge computing. Truly innovative leaders in industrial, automotive, and consumer organizations have already begun to recognize the impact of edge computing — as seen in Gartner’s “Hype Cycle for Edge Computing” from August 2021, shown below.
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Edge computing as a whole is quite broad.
While certain categories like edge servers, IoT gateways, and 5G are generally known and have been made a part of deployment initiatives like Factory 4.0 or other digital transformation focus areas, other subsets of “edge” like edge AI hardware or tinyML (tiny machine learning) are on the cusp of innovation.
Companies like Google, Amazon, and Apple are already putting machine learning algorithms into smaller, constrained hardware for smart home and consumer applications like wake words and glass break detection. Cell phone manufacturers have been doing this for years. In the next shift of edge computing, machine learning will go into real-time applications in industrial environments for applications such as quality control, predictive maintenance, and augmenting human-in-the loop operations.
As the number of connected devices in industrial environments begins to exponentially grow, organizations will struggle to keep up with large amounts of raw data that must be analyzed and leveraged to derive useful insights.
As Cardinal Peak says, more applications will require real-time decision making and the cloud will struggle to keep up due to its latency in providing back intelligence to the end user or operator.
Gartner goes so far as to say that more than 75% of enterprise data will be created and processed outside of the data center or cloud over the next 5 years.
The reality will likely be that most companies need to adopt and execute on a hybrid edge to cloud strategy, if they have not already. Some intelligence and compute-related tasks will make sense to keep in the cloud, especially big data related problems such as analyzing financial transactions or monitoring cybersecurity related activities.
Other operational challenges will require real-time insights, like developing audio-based AI algorithms to detect a piece of obstructed or damaged machinery, which can be used to shut the machine off.
But executing an edge to cloud strategy is multi-faceted and will need to account for the various emerging yet rapidly growing trends such as tinyML, edge machine learning, and edge AI hardware.
If business leaders focus only on checking a box, and are content with simply purchasing and deploying edge compute platforms like gateways or local server environments for processing data outside of the cloud, they will rapidly fall behind competition over the next few years.
Those leaders who recognize the criticality of a full edge to cloud strategy will be the leaders whose companies will have the most efficient manufacturing operations, the most innovative new products on the market, and the most secure edge-to-cloud IT infrastructure.
The leaders who dismiss edge as all hype, while failing to recognize the diversity of edge computing applications, such as edge data management, edge AI or tinyML, will be the ones left scratching their heads at where they went wrong.
I'd call that SpywearCan’t get much more ubiquitous than smart clothing
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Smart Fabric and the Next Generation of Wearables - VigiLife
Smart fabric (a.k.a. intelligent textiles and e-textiles) look to be game-changers in the worker safety, health & wellness, and physical performance industries. Read on to learn more about smart fabric and its impact on wearable sensors.www.sentinelofsafety.com
How Will Electronic Textiles Impact the future of Wearable Sensors?
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Over the couple of decades, we've witnessed the evolution of wearables from a gimmick straight out of science fiction into a practical technology embraced by the mainstream. From fitness to healthcare to worker safety, more and more people are turning to wearables to provide real-time physiological data. In fact, Cisco Systems recently predicted that the number of wearable devices connected to networks will likely top a billion (with a b) by the end of 2022.
The technology itself is constantly evolving as well. The Fitbit (introduced in 2009) paved the way for smart watch monitors and smart rings. But now there's a new wearable technology on the block--smart fabric. And it looks to be a game changer.
What Is Smart Fabric?
Smart fabrics are textiles that look and feel like standard fabrics but contain sensors and other tech components that give it the ability to sense and respond to environmental conditions. This technology is also known as intelligent textiles, electronic textiles, or e-textiles.
While the need for heat- and light-sensitive fabric was originally driven by the sportswear market, the technology is rapidly expanding to other sectors.
Worker Safety
Wearable devices with sensors are already being used to protect workers from heat, exhaustion, and injury. But with smart fabric, these sensors will become even more unobtrusive than the current generation of smart watches, heart rate monitors, and gas sensors.
Imagine an employee uniform that's capable of capturing relevant health and safety signals--location, movement, biological reads, environmental conditions--and relaying them to an inspector or spotter. Or gloves that measure real-time vibration exposure to help workers avoid HAVS (hand-arm vibration syndrome).
Health and Wellness
Smart textiles can also revolutionize the way providers monitor and care for patients. By integrating discrete biosensors and chemical sensors into clothing, physicians can get a more accurate view of a patient's health.
For example, getting an EKG reading from a wearable is currently problematic. Watches and other devices can measure EKG, but they require the user to actively touch it to activate the scan. For continuous EKG monitoring without user intervention, healthcare providers have to rely on adhesive patches.
A shirt or a pair of pants made from e-textiles could provide continuous, real-time biometrics that would, in turn, help physicians to provide a more accurate diagnosis and treatment options.
Physical Performance
Sports and fitness is a major driver of smart fabric technology as companies and trainers continue to look for ways to improve the performance of athletes. According to report from Mordor Intelligence, the market for smart fabrics in sports and fitness was valued at $680 million in 2020 and is expected to hit $2.85 billion by the end of 2026.
While current monitors can readily track real-time physiological, performance, and safety readings, e-textiles have the potential to provide data that's even more granular and specific. The ability to continuously monitor an athlete's posture and body movement could be vital to improving technique *and* avoiding future injuries.
The Future of Smart Fabric
Although widespread adoption of smart fabric is still years away, there have already been a number ofimpressive innovations, such as Wi-Fi/Bluetooth connectivity and amazing power efficiency. Plus, most smart fabric garments can be laundered like any normal clothing.
Here at Sentinel, we're really excited about the potential of this new technology and you can bet we'll be looking for ways to integrate it with our current line of products as it develops.
References
"Smart Fabric - An Overview" - ScienceDirect
"Global Smart Wearable Market - Market to Grow by 19.48% from 2021 - 2026" - Business Wire
"Smart Safety Wear" - Health & Safety International Magazine
"Smart Fabrics for Sports and Fitness Market - Growth, Trends, COVID-19 Impact, and Forecasts (2022-2027)" -Mordor Intelligence
"'Smart Clothes' Can Conduct Bluetooth and Wi-Fi to Link All Your Tech at Once, and Can Boost Battery Life by 1,000" - Business Insider