Carbon nanotubes exist within the advanced carbon family, which consists of many types and dimensions. This article explores some of the main applications and manufacturing methods for carbon nanotubes.

This article explores the key technological advancements in the critical components within the water electrolyzer stacks. Drawing from the comprehensive IDTechEx report, "Materials for Green Hydrogen Production 2026-2036: Technologies, Players, Forecasts", it focuses on recent innovations in core components including separators and membranes, electrodes and MEAs, bipolar plates, and porous transport layers. The analysis highlights how developments in these materials and designs are vital for improving the overall efficiency, durability, and cost-effectiveness of green hydrogen production, thereby accelerating its widespread adoption.

The new independent IDTechEx report, "Additives for Li-ion Batteries and PFAS-Free Batteries 2026-2036" offers an in-depth analysis of the evolving market for binders, conductive additives, and electrolyte additives. It examines the impact of PFAS regulation, new production methods, and silicon anodes, with 10-year forecasts projecting the market to exceed US$18 billion by 2036.

Nuclei and sun-powered vehicles, emission-free data center ecosystems, and hydrogen-fuelled planes are just some of the potential building blocks of a cleaner energy future. This article explores the future possibilities of developing energy technologies.

Li-ion battery (LIB) recyclers have continued to gather large volumes of new funding, form new strategic partnerships, and commission large-scale facilities over the last few years. This article explores how tariffs and policy changes may affect the US market and analyzes the likelihood of EU LIB recyclers and automotive OEMs reaching minimum recycled contents targets as mandated by the EU Battery Regulation.

Conventional battery pack sensors measure the voltage, current and temperature of cells within the pack. However, it is increasingly clear that additional sensors would significantly enhance safety and allow for early warning and even prevention of thermal runaway, and in turn battery fires, in electric vehicles (EVs) and energy storage systems (ESS). Gas sensors, pressure sensors, moisture sensors, humidity sensors and aerosol sensors can all play a role.

Webinar: The Growing Role of Gas Sensors in Battery Pack Systems Date: Thursday 10 July Presenter: Daniel Parr, Technology Analyst, IDTechEx

This article explores the transformative potential of solid-state batteries (SSBs), forecast to be a US$9 billion market by 2035, and provides an in-depth analysis of technological advances, manufacturing progress, commercialization challenges, and global supply chain shifts, particularly in electric vehicle and industrial applications.

Ion exchange membranes are emerging as critical materials in the transition to green energy. Emerging applications in hydrogen fuel cells, water electrolyzers, and redox flow batteries are expected to drive significant market growth through 2035.

Surging battery demand is creating significant opportunities for raw material suppliers, particularly those adapting to battery-specific needs. Along the battery value chain, players are increasingly pursuing vertical integration strategies to capture greater value.

Lithium-ion batteries are a growing technology worldwide in line with the demand for electricity and regulations to lower emissions.

Self-healing materials have the ability to extend the lifespan of mission critical components such as energy storage devices, sensors and soft robotics. This article looks at some of the key materials developments, pain points and potential growth opportunities for self-healing materials in these emerging markets.

Sodium-ion batteries offer a promising alternative to lithium-ion, with advantages in mineral abundance, system compatibility, and safety. They provide a cost-effective, scalable solution with lower material costs and reduced supply chain risks. Despite lower energy density, sodium-ion cells benefit from existing manufacturing infrastructure. Safety benefits include reduced fire risks and enhanced thermal stability. Key strategies for success include improving energy densities, competing on total cost of ownership, and targeting niche performance areas such as low temperature and high-power applications.

Machine learning is a subset of artificial intelligence, which refers to the process of computers drawing conclusions from a dataset, which can be a powerful tool across various sectors, including the battery market.

Cars that wirelessly charge on the move, AI assistants to schedule in-vehicle meetings, and radar technology for advancing safety all boast the growing intelligence of automotive technologies. IDTechEx's portfolio of Electric Vehicles and Robotics & Autonomy market research reports showcase the latest technologies bringing an engaging and forward-thinking future of driving into reality.

This article discusses battery innovations in China and the role next-generation battery technologies play in improving battery performance and in enabling Europe and North America to build competitive battery industries.

Thursday 22 May 2025 - IDTechEx Discusses the Hyperactive Li-ion Batteries Recycling Market: Key Trends, Technologies, and Outlook; An introduction to Li-ion battery demand, LIB circular economy and recycling; A snapshot into key Li-ion battery recycling market trends and key player activity; Key trends in LIB recycling technologies, including cathode, direct, graphite anode, and binder recycling; A keynote on LIB Battery Regulation in the EU; IDTechEx's outlook and conclusions on the global Li-ion battery recycling market

Wednesday 14 May 2025 - The Status and Role of Next-Generation Li-ion Battery Technologies; Next generation anode materials such as silicon, lithium and anode-free designs; Innovations in cathode active materials and their manufacture; Li-S developments; Key cost and resource consideration from advanced Li-ion battery chemistries; IDTechEx's outlook for advanced Li-ion technology

AI and machine learning methods can be used across a battery's entire life, from material discovery and cell testing to second-life assessment, to enhance new developments and diagnostic capabilities.