Top 10 vicomtech.org Competitors

fraunhofer.at

Fraunhofer Austria ist ein etablierter und innovativer Forschungspartner für die österreichische Industrie. Wir helfen Unternehmen dabei, besser zu werden! Sie finden bei uns Expertinnen und Experten für digitale Vernetzung und Automatisierung in Fertigung, Montage und Logistik ebenso wie für menschzentrierte Arbeitsgestaltung und Assistenzsysteme, maschinelles Sehen, KI und viele weitere Themen. Unsere Mitarbeiterinnen und Mitarbeiter planen nachhaltige und effiziente Fabriken, unterstützen beim Produktionsmanagement sowie beim Supply Chain Management oder forschen an neuen Methoden in der digitalen Logistik. Sie sind spezialisiert auf Advanced Data Analytics, widmen sich Forschungsfragen in den Bereichen Computergraphik, Computer Vision sowie Datenvisualisierung und wenden Methoden der Künstlichen Intelligenz auf konkrete praktische Fragestellungen von Unternehmen an. Bei uns finden Sie die Expertinnen und Experten für Industrie 4.0!

ceit.es

en ceit llevamos a cabo proyectos industriales de investigación en estrecha colaboración con los departamentos de i+d de la empresas.

gradiant.org

Partnering with RTOs and universities to foster research and technological development, creating innovative solutions that drive science and technology forward.

staqu.com

Staqu JARVIS is a patented AI video analytics & VMS platform for retail, manufacturing, and smart cities with 99.9% accuracy across 100k+ cameras.

la.disneyresearch.com

We introduce a novel method that integrates kinematic generative models with physics based character control. Our approach begins by training a reward surrogate to predict the performance of the downstream non-differentiable control task, offering an efficient and differentiable loss function.

ffb.fraunhofer.de

Die industrielle Batteriezellfertigung ist zu einem strategischen Schlüsselthema für Europas Wettbewerbsfähigkeit geworden. Vor diesem Hintergrund diskutiert Institutsleiter Prof. Simon Lux auf der weltweit führenden Industriemesse mit Vertretern aus Industrie und Politik, zentrale Herausforderungen und Perspektiven der europäischen Batteriezellfertigung. Ergänzend zeigt die Fraunhofer FFB, wie angewandte Forschung, digitale Produktionskonzepte und vernetzte Fabriklösungen den Transfer von Forschungsergebnissen in den industriellen Maßstab beschleunigen.

cine.org.br

A series of recently published studies presents significant advances in overcoming the limitations of lithium-sulfur batteries—an emerging technology that offers advantages in cost, capacity, and sustainability over the lithium-ion technology that currently dominates the rechargeable battery market. Lithium-sulfur batteries generally consist of a sulfur-based positive electrode (the cathode), a metallic lithium negative electrode (the anode), and an electrolyte situated between them. Their charge and discharge operations (the energy storage and delivery) rely on electrochemical reactions occurring between the sulfur and the lithium ions. A major advantage of this technology is that its primary active element, sulfur, is abundant on Earth and widely available as a byproduct of industrial processes, meaning it can be obtained without the need for mining. Furthermore, these batteries can store significantly more energy than lithium-ion batteries within the same volume. Lithium-sulfur batteries have a theoretical energy density of 2,600 Wh/kg. While practical values ​​are lower, they remain superior to those of conventional lithium-ion batteries, explains Murilo Machado Amaral, who conducted research on this emerging technology during his doctoral studies at UNICAMP—as part of CINE—and is currently a postdoctoral researcher at USP, also working in the field of batteries. However, lithium-sulfur batteries still face limitations that hinder their widespread commercialization. One of the main issues is the rapid, irreversible capacity loss these devices experience during each charge-discharge cycle, which leads to degraded performance and a shortened lifespan. The problem stems from the interaction between soluble polysulfides and the anode. These compounds, which form during electrochemical reactions that typically occur in lithium-sulfur batteries, can migrate from the cathode to the anode. There, they react with the metallic lithium, forming insoluble compounds tha