How can you spot emerging technology innovation at public companies? And how could you scale this up, so that you could track not just a handful but hundreds or even thousands of companies?
For this article, I analyzed more than 650,000 financial news to find out.
How can you spot emerging technology innovation at public companies? And how could you scale this up, so that you could track not just a handful but hundreds or even thousands of companies?
For this article, I analyzed more than 650,000 financial news to find out.
The motor control center puts the starters, protection and controls for many electric motors into one lineup of cabinets. This guide explains what it is, how it is built, how it differs from switchgear and a VFD, and what current standards expect for safety and maintenance.
A solid oxide fuel cell converts fuel directly into electricity through a ceramic electrolyte that conducts oxygen ions at high temperatures. This guide covers the electrochemistry, the material choices, where the efficiency really comes from, and the degradation mechanisms.
A microbial fuel cell turns the metabolism of living bacteria into an electrical current. This guide covers the electrochemistry, microbiology, materials, real performance numbers from pilot plants, and the economics that still keep the technology out of mainstream power generation.
A PEM fuel cell converts hydrogen and oxygen into electricity at around 80 degrees C, with water and heat as the only products. This guide covers electrochemistry, layer materials, efficiency limits, and cost and durability to help you understand the practical applications of this technology.
A solid oxide fuel cell converts fuel directly into electricity through a ceramic electrolyte that conducts oxygen ions at high temperatures. This guide covers the electrochemistry, the material choices, where the efficiency really comes from, and the degradation mechanisms.
A microbial fuel cell turns the metabolism of living bacteria into an electrical current. This guide covers the electrochemistry, microbiology, materials, real performance numbers from pilot plants, and the economics that still keep the technology out of mainstream power generation.
A PEM fuel cell converts hydrogen and oxygen into electricity at around 80 degrees C, with water and heat as the only products. This guide covers electrochemistry, layer materials, efficiency limits, and cost and durability to help you understand the practical applications of this technology.
This article explains how load cells work, the main types, what accuracy specs and OIML/NTEP classes mean, and best practices for sizing, wiring, and installation.
How can you spot emerging technology innovation at public companies? And how could you scale this up, so that you could track not just a handful but hundreds or even thousands of companies?
For this article, I analyzed more than 650,000 financial news to find out.
Solar panels with different colours can be integrated in the façades of buildings and become an aesthetically exciting part of the architecture. DTU collaborates with façade contractor HSHansen to document the effect of different-coloured photovoltaic elements.
Solar power at night? Wind energy without wind? The German Aerospace Center (DLR) as a scientific project participant together with industry and research groups, has built and successfully tested a storage system for renewable energies.
Article #8 of Power Management for Tomorrow’s Innovations Series: Power electronics converters with an efficiency of up to 95% and very low quiescent current can make the Internet of Things devices last for months together.
Article #5 of Power Management for Tomorrow’s Innovations Series: Single-Inductor Multiple-Output (SIMO) architecture enables design engineers to extend the battery life, and reduce the circuit board size for hearables and wearables
A new startup, Quino Energy, aims to bring to market a grid-scale energy storage solution developed by Harvard researchers to facilitate more widespread adoption of renewable energy sources.
NanoXplore has been a pioneer in commercialising graphene. Many know it for its ambitious activities in breaking down the cost and availability barrier of graphene by massively scaling up a well-engineered production process. This is a prerequisite for market development but is not sufficient.
Printed batteries offer thinness and flexibility, enabling new applications, but their production is deceivingly complex. Gunter Hübner from Stuttgart Media University offered some insights at the e-Swiss conference last week.
A collaborative effort has installed electronic “brains” on solar-powered robots that are 100 to 250 micrometers in size – smaller than an ant’s head – so that they can walk autonomously without being externally controlled.
This article describes the TAeTTOOz printable battery technology developed by Evonik and acquired by InnovationLab for upscaling and mass production. In this article, you can learn about the operating principles, the key working characteristics, the material set, production techniques, and emerging applications of this technology