Posted in chemistry, nanotechnology, robotics/AI, transportation | Leave a Comment on Self-driving lab for the photochemical synthesis of plasmonic nanoparticles with targeted structural and optical properties
The automated synthesis of plasmonic nanoparticles with on-demand properties is a challenging task. Here the authors integrate a fluidic reactor, real-time characterization, and machine learning in a self-driven lab for the photochemical synthesis of nanoparticles with targeted properties.
A small team of AI researchers from Stanford University and the University of Washington has found a way to train an AI reasoning model for a fraction of the price paid by big corporations that produce widely known products such as ChatGPT. The group has posted a paper on the arXiv preprint server describing their efforts to inexpensively train chatbots and other AI reasoning models.
Corporations such as Google and Microsoft have made clear their intentions to be leaders in the development of chatbots with ever-improving skills. These efforts are notoriously expensive and tend to involve the use of energy-intensive server farms.
More recently, a Chinese company called DeepSeek released an LLM equal in capabilities to those being produced by countries in the West developed at far lower cost. That announcement sent stock prices for many tech companies into a nosedive.
Mercedes-Benz recently presented a brand new solar paint technology that aims to improve an EV’s driving range through the use of solar power. In the best-case scenario, this novel evolution could probably enable EVs to produce sufficient electrical energy for about 20,000 km (12,427 miles) of yearly driving.
The Science Behind Mercedes Solar Paint
Solar paint is a new Mercedes-Benz innovation that embeds highly efficient photovoltaic plates into the car’s body. Unlike ordinary solar panels, commonly seen on rooftops, or as accessories, this paint facilitates conversion of sunlight into electricity without needing to change the car’s appearance. These are tiny photovoltaic cells that are embedded in paint to capture sunlight and convert it to electricity that is needed to recharge the electric vehicle’s battery.
For decades, end users and systems designers have valued radar technology for its reliability. Especially in adverse weather conditions in which sensors based on other modalities are apt to fail, radar is a dependable technique offering broad application potential.
As a result of this robustness and widespread applicability, radar today is established as a standard sensing system in several high-growth technology sectors. The automotive industry, for example, has been a key driver of radar sensor miniaturization and overall performance improvements. The commercialization of radar for passenger vehicles predates the turn of the century, and radar sensors are also now commonly deployed in advanced driver-assistance systems, including for adaptive cruise control, autonomous emergency braking, and blind-spot assist.
#GigaBerlinArt #TechPainters #RoboticMuralist.
At Tesla’s Gigafactory Berlin-Brandenburg, creativity meets technology in a remarkable initiative to transform concrete surfaces into stunning artworks. Inspired by Elon Musk’s vision to turn the factory into a canvas, the project began with local graffiti crews. However, the sheer scale of the endeavor required innovative solutions, leading to the collaboration with a robotic muralist startup. This groundbreaking graffiti printer combines cutting-edge technology with artistry, using a triangulation method to maneuver its print head along factory walls. With 12 paint cans onboard, the robot sprays precise dots of color—10 million per wall and 300 million for the west side alone—creating intricate designs composed of five distinct colors. The curated artworks draw inspiration from Berlin’s vibrant culture, Tesla’s groundbreaking products, and the factory itself—described as “the machine that builds the machine.” A blend of global and in-house artistic talent has contributed to the ongoing project, making Giga Berlin not just a hub for innovation but also a celebration of art and ingenuity.
Courtesy: X:@Tesla.
#FactoryArt #BerlinCulture #GigaBerlinTransformation #MachineThatBuildsTheMachine.
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Posted in computing, nanotechnology, particle physics, transportation | Leave a Comment on Study demonstrates phase-tunable spin-wave-mediated mutual synchronization of spin Hall nano-oscillators
Spin Hall nano-oscillators (SHNOs) are nanoscale spintronic devices that convert direct current into high-frequency microwave signals through spin wave auto-oscillations. This is a type of nonlinear magnetization oscillations that are self-sustained without the need for a periodic external force.
Theoretical and simulation studies found that propagating spin-wave modes, in which spin waves move across materials instead of being confined to the auto-oscillation region, can promote the coupling between SHNOs.
This coupling may in turn be harnessed to adjust the timing of oscillations in these devices, which could be advantageous for the development of neuromorphic computing systems and other spintronic devices.
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The Man Machine (2009 Remaster) · Kraftwerk.
The Man-Machine.
℗ 1978, 2009 Capitol Records, LLC. All rights reserved.
Electronics, Programmer, Synthesizer, Vocoder: Florian Schneider.
Engineer, Producer: Florian Schneider.
Engineer: Henning Schmitz.
Unknown: Joschko Rudas.
Audio Recording Engineer: Joschko Rudas.
Electronic Drums: Karl Bartos.
Unknown: Leanard Jackson.
Audio Recording Engineer: Leanard Jackson.
Electronics, Keyboards, Programmer, Synthesizer, Vocals, Vocoder, Voices: Ralf Hütter.
Engineer, Producer: Ralf Hütter.
Electronic Drums: Wolfgang Flür.
Composer: Karl Bartos.
Composer: Ralf Hütter.
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Atlas Energy Solutions integrates driverless trucks for frac sand deliveries in the Permian Basin, marking a corporate milestone.
Are you ready to be amazed by the incredible advancements in artificial intelligence? In 2024, AI has reached unprecedented heights, showcasing breakthroughs that are revolutionizing industries and reshaping our everyday lives. This video explores the top 9 AI breakthroughs you won’t believe are real, highlighting innovations that are both astonishing and game-changing.
From groundbreaking developments in natural language processing to cutting-edge applications in healthcare, transportation, and creative arts, we cover the most significant strides in AI technology. Discover how these breakthroughs are enhancing efficiency, improving decision-making, and creating new possibilities that were once thought to be science fiction.
But it’s not just about the technology; we’ll also discuss the implications of these advancements. As AI becomes more integrated into our lives, understanding the benefits and challenges it presents is essential. This video provides insights into how these breakthroughs could change the way we interact with machines and each other.
What are the top AI breakthroughs of 2024? How is AI changing the world? What innovations in AI should I know about? What are the latest advancements in artificial intelligence? How will AI impact our future?This video will answer all these questions. Make sure you watch till the end!
#ai.
#artificialintelligence.
#aitechnology.
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Teslas can now drive themselves from their birthplace at the factory to their designated loading dock lanes without human intervention — Starting with the ~1.2 mile route at the Fremont Factory.
One step closer to large-scale unsupervised FSD.
