➀ Advanced Linear Devices Inc. (ALD) has launched a dual MOSFET in its Supercapacitor Auto-Balancing (SAB) MOSFET family, enabling auto-balancing and power management for supercapacitors operating between 2.8V and 3.3V.

➁ The ALD910030 consumes minimal power for cell balancing and helps prevent failures in supercapacitors, which are increasingly being used in utility boxes, backup power systems, and industrial applications.

➂ The dual MOSFET monitors and controls voltage and leakage current for each supercapacitor in a series-connected stack, preventing power fluctuations and ensuring stable operation across temperatures ranging from -40°C to +85°C.

➀ This study introduces a hyperstable aqueous zinc-ion battery (AZIB) using Mo1.74CTz MXene as the cathode material, offering significant performance improvements and long-term stability.

➁ The Mo1.74CTz MXene-based battery achieves a high specific discharge capacity and excellent cycling stability.

➂ The research addresses the growing demand for efficient energy storage and could drive broader adoption and commercialization of sustainable energy solutions.

➀ Fraunhofer researchers have developed sensor systems and measurement devices to detect leaks in hydrogen pipelines or tanks.

➁ These systems enable continuous monitoring of hydrogen transport or chemical industry facilities.

➂ Multiple sensor technologies are used to ensure safety in various future hydrogen industry scenarios.

➀ MXenes are layered materials with excellent electrical conductivity and mechanical stability, promising for energy storage applications such as supercapacitors and batteries.

➁ Recent studies focus on the ion transport behaviors and potential in various electrochemical applications, including CO2 reduction and water splitting.

➂ Optimizing the structure and composition of MXenes can lead to substantial improvements in energy storage performance.

The University of Bayreuth is involved in the SIB:DE FORSCHUNG project, aiming to advance the industrial application of sodium-ion batteries. The project, funded by €14 million from the German Federal Ministry of Education and Research, involves 21 institutions to fast-track the application of research discoveries. Professor Dr. Matteo Bianchini leads the 'Anodes' subteam focusing on the development of new active materials for cathodes and anodes. The project includes seven industrial partners and 14 academic partners, with an extended consortium of 42 associated partners.

The University of Bayreuth is involved in the project 'Sodium-Ion Battery: Germany Research – SIB:DE RESEARCH' aimed at the rapid industrial implementation of sodium-ion batteries. Twenty-one national institutions from science and industry are pooling their expertise to quickly transfer research results into practical application. The research project is funded by the Federal Ministry of Education and Research (BMBF) with approximately 14 million euros.

Lithium-ion batteries are the most commonly used energy storage devices currently. However, resource dependence and scarcity are significant challenges for this technology. Therefore, alternatives for mobile and stationary energy storage are urgently needed. Sodium-ion batteries (NIB, SIB) are considered a promising approach due to their abundance, affordability, and safety. Thus, sodium-ion batteries could play a key role in a stable and sustainable European energy supply.

The SIB:DE RESEARCH project involves 21 German institutions that are examining the suitability of SIB for the energy and mobility transition and aim to quickly industrialize its use. The project focuses on identifying SIB active materials that can be produced on a scalable basis and offer competitive cell performance. Prof. Dr. Matteo Bianchini from the University of Bayreuth's Chair of Inorganic Active Materials for Electrochemical Energy Storage is working on developing new active materials for cathodes and anodes, which are crucial for the performance of SIB.

➀ 国际工程师和材料科学家团队开发了一种新型锂硫电池，该电池在25,000次充放电循环后仍能保持80％的充电容量。

➁ 研究人员通过设计一种具有多孔原子结构的固体硫基电极，解决了硫在充放电过程中易膨胀和离子损失的问题。

➂ 这项突破性的技术不仅提高了电池的快速充电性能，还增强了其耐用性。然而，研究人员表示还需要进一步开发以提高能量密度并探索替代材料。

➀ Amphenol推出了DuraSwap Concentric Connectors和Type 6充电枪解决方案，旨在支持印度的电动出行生态系统。

➁ DuraSwap Concentric Connectors具有双向插接、IP67防护等级和高达100A的连续电流，适用于电动汽车和储能设备。

➂ Amphenol还推出了包括DuraEV、EnergyKlip、Multi-Trak、PwrBlade连接器和电缆组件、BarKlip解决方案以及Minitek Power紧凑组合连接器在内的其他先进解决方案。