➀ Scientists have developed the world's first carbon-14 diamond battery; ➁ The battery has a potential lifespan of 5,000 years; ➂ The technology could power devices for thousands of years without replacement.

➀ Researchers at KAIST have developed a high-energy, load-bearing structural battery; ➁ The battery combines high energy density with load support and eliminates fire risks; ➂ The technology could transform vehicles, drones, airplanes, and robots.

➀ The rise of generative AI, humanoid and service robots; ➁ AI notebooks and servers becoming mainstream; ➂ Advancements in advanced processes and CoWoS; ➃ Enhanced cybersecurity defenses and threat detection; ➄ AMOLED expansion in consumer electronics; ➅ Miniaturization and low-cost production of CubeSats; ➆ Modular end-to-end model production and Level 4 robotaxi commercialization; ➇ EVs and AI data centers driving battery and energy storage innovations.

➀ This study investigates the development of nano-ceramic electrolytes, particularly lithium indium chloride (Li3InCl6), to enhance the performance of solid-state lithium batteries (SSLBs). ➁ The research focuses on material design and processing to improve ionic conductivity and compatibility with electrodes. ➂ The study demonstrates high ionic conductivity of the synthesized Li3InCl6 and its potential for practical use in SSLBs.

➀ Qkera, a startup from Technische Universität München, has developed new electrolyte components for solid-state batteries with high energy density and stability. The technology aims to break through battery technology for electromobility and other fields. ➁ The electrolytes consist of a lithium-ion-conducting ceramic-oxide material, offering safety and sustainability benefits. ➂ Qkera received support from TUM Venture Lab ChemSPACE and aims to send prototypes to battery manufacturers by the end of this year.

➀ Qkera, a startup from the Technical University of Munich, has developed new electrolyte components for solid-state batteries. The technology aims to offer high energy density, stability, and low production costs. ➁ The company's electrolytes are made of a lithium-ion conducting oxide ceramic, which offers advantages in safety and sustainability. ➂ Qkera has received support from the TUM Venture Lab and has been selected as one of the 25 best science startups worldwide by the Falling Walls Science Summit.

➀ Researchers at Tokyo University of Science have developed a machine learning model to predict electrode materials for sodium-ion batteries; ➁ The model uses 11 years of experimental data to identify promising compositions; ➂ The research aims to speed up the development of sodium-ion batteries for applications like grid storage.

➀ These batteries represent a technological breakthrough with their slim profiles, often just a millimetre thick; ➁ Their flexibility is achieved through the thinness of the cells and the pliability of the substrate; ➂ Innovations in electrode and electrolyte materials enhance their performance and flexibility.

1. Enovix reported Q3/2024 results in line with muted expectations; 2. The company's financial performance was lackluster, but investors cheered the announcement of a new development agreement with a leading Chinese smartphone OEM; 3. Management expects high-volume manufacturing to ramp up in late 2025 and rise exponentially in 2026; 4. The surprise $100 million capital raise might be due to the new requirement to fully fund the first high-volume manufacturing line in Malaysia; 5. The author remains skeptical of Enovix's story and reiterates a 'Sell' rating on the shares.

1. I am initiating NIO stock with a buy for mid- to long-term investors; 2. I expect to see an upside surprise for NIO in 2025 as the company finds a stable footing in Beijing's stimulus plan; 3. NIO's Battery-as-a-Service (BaaS) position and its close ties with the Chinese government are highlighted as positive factors.

➀ Unico's advanced battery-cell formation device increases the life of lithium cells by 50%; ➁ The device features a 4-channel, 5-V, 300-A configuration; ➂ Gigafactories can produce lithium cells with higher throughput.

➀ The Fraunhofer IPA's Center for Digitalized Battery Cell Production (ZDB) has launched a flexible winding machine for cylindrical battery cells in partnership with acp systems AG. It serves as a platform for testing new cell formats, components, and tab designs. It enables the development of large-format cells for future battery technologies. The winding machine is unique globally and integrated into an automated and digitalized infrastructure for battery cell production. ➁ The machine is not only a production platform for Jelly Rolls but also a research platform for developing and testing innovative cell systems and formats. ➂ The entire production process is digitalized and networked to minimize waste and improve quality. Data collected by sensors are processed in real-time in the cloud, allowing for traceability technologies that can attribute data to individual battery cells. This enables data analysis, AI training, and the development of monitoring and predictive services.

1. QuantumScape's pivot to a capital-light licensing model with Volkswagen's PowerCo extends its cash runway to 2028; 2. The company is progressing with its Raptor and Cobra manufacturing processes, aiming for full-scale production by 2025; 3. QuantumScape's valuation remains aligned with peers, but risks include manufacturing execution challenges and dependency on Volkswagen's commitment.

➀ Nexeon, a battery silicon anode specialist, has won a decisive legal victory against Group14 Technologies in a U.S. District Court; ➁ The court dismissed all claims, including misappropriation of trade secrets, unjust enrichment, and breach of contract; ➂ Nexeon's suit for Tortious Interference is still active and pending.

➀ The global shift towards electric vehicles is driven by advancements in battery technology and decreasing costs. However, regional differences, like India's two- and three-wheeler landscape, present unique challenges. ➁ Lithium batteries face geopolitical challenges due to mineral distribution and dependence on key resources. ➂ Innovations in battery chemistry, such as sodium-ion and solid-state batteries, are shaping the future of energy storage and electric vehicles.

➀ Leclanché has launched the world's first commercial XNO Li-ion cell using niobium-based anode material from Echion Technologies; ➁ The cell, named XN50, is designed for heavy-duty e-mobility, rail, and marine use with an estimated life of over 10,000 cycles; ➂ The company aims to replace LTO and complement G/NMC in its product line.

➀ Researchers from the University of Bayreuth identify the lack of uniform standards for solid-state batteries; ➁ They highlight the significant differences in assembly and performance of battery cells across different research groups; ➂ The study emphasizes the need for standardized protocols to ensure the reliability of battery cell performance evaluations.

➀ Aston University set a world record by sending data at 402Tbit/s over standard optical fibres. ➁ Researchers at Bath University developed a lactic acid sensor using a graphene-like foam capacitor. ➂ Glasgow University's ANALOGUE IC packaging research could lead to applications in biomedical implants and quantum computing interfaces. ➃ Leicester University's space battery passed vibration tests, and Nottingham Trent University is exploring washable stretchable electronics for medical wearables. ➄ Oxford researchers demonstrated a low-noise qubit integrated circuit for quantum computing.

➀ Researchers at Shanghai University have developed a method for 3D printing structural lithium-ion batteries with customizable shapes and sizes, enhancing energy density and efficiency. ➁ This technology not only benefits electric vehicles but also extends to robotics and logistics, offering a significant step forward in sustainable energy solutions. ➂ The breakthrough leverages material science and scalable fabrication strategies, integrating energy storage materials into robust load-bearing components.