StoreDot’s Post

A #sustainable #battery value chain is crucial for faster #emobility transformation. Discover how Keysight helps enhance #EV battery lab efficiency and rigorously emulates and tests energy storage for cells, modules, and packs: https://ow.ly/ReYb50SEEht

#CEODesk StoreDot Charts New Horizons with Fast-Charging Battery Innovation In a world hungry for sustainable solutions, StoreDot's silicon-dominant battery teases a future where electric vehicle (EV) drivers effortlessly fast-charge daily without anxiety over battery longevity. Achieving over 2,000 fast charging cycles while retaining 80% capacity is not just impressive; it's transformative for the EV industry's trajectory. 🔋 A Charged Leap for EV Longevity: StoreDot's feat of enduring 2,000 consecutive extreme fast charging cycles surpasses the stringent demands of current and prospective EV regulations. This breakthrough doesn't just incrementally improve existing technologies—it redefines expectations of them. 🚘 Shifting Gears in Market Dynamics: The strategic impact of this advance will ripple through the EV sector. StoreDot, armed with high energy density cells (330Wh/kg, 860Wh/L at stack level), is poised to reset the competitive landscape, propelling itself as a key player and challenging rivals to match pace. 🔌 Fast-Charging as the New Normal: What's particularly electrifying about StoreDot's batteries is the rapidity—with goals of charging 100 miles in 5 minutes currently, and scaling down to just 3 minutes by 2028. Such charging invigoration prompts a question: Are we approaching a time when electric refueling could outpace gasoline? 💡 Investor Flashpoints: While the ambition is luminous, investor focus should sharpen on StoreDot's path from flash to function—translating innovation into consumer-ready products. Partnering giants like Daimler and Mercedes-Benz signal strong industry faith and potential windfalls for early backers. So, as StoreDot accelerates towards its high-octane fast-charging future, the market stands on the precipice of a watershed moment in EV adoption, technology, and investment opportunities. Your charge, fellow strategists, is to determine how StoreDot's trajectory will interweave with your portfolio's roadmap. Join the energy transition dialogue with #MarketUnwinded. Read More: https://lnkd.in/eAg4Zj2M 🖊️ Rohith Sampathi #EVMarket #EnergyInnovation #StoreDot #FastChargeRevolution #SustainableEnergy #MarketLeadership #GameChangingTech #StrategicInvestments #EVChargingFuture

🔋 1899: The Nickel-Cadmium Battery Breakthrough by Waldemar Jungner 🔋 #TechThrowback: Today, we're turning the spotlight on a significant moment in battery technology - the year 1899, when Waldemar Jungner introduced the Nickel-Cadmium (NiCd) battery. This invention marked a pivotal shift in the landscape of rechargeable batteries. 👨🔬 Waldemar Jungner, a visionary scientist, developed the NiCd battery, leveraging the unique properties of nickel and cadmium. This combination resulted in a battery that was not just rechargeable but also offered enhanced longevity and performance, especially notable in colder temperatures - a significant leap over the existing lead-acid batteries of the time. 🔋 The NiCd battery brought several advantages to the table. Its longer lifespan and ability to perform more efficiently in low temperatures made it a preferred choice in a variety of applications. These batteries found their way into numerous devices, paving the way for more reliable and durable portable power sources. 🌡️ The resilience of NiCd batteries in colder climates opened up new possibilities for electronic devices and equipment used in more challenging environments. This feature alone set a new standard in battery technology, expanding the horizons of what could be powered and where. 🌍 The introduction of the NiCd battery was a cornerstone moment in the evolution of rechargeable batteries, highlighting the importance of innovation in the field of energy storage. Waldemar Jungner's contribution went beyond just creating a new battery; it inspired future advancements and set a new benchmark in the industry. As we celebrate over a century of progress in battery technology, let's remember and honor the pioneering work of Waldemar Jungner, whose NiCd battery played a crucial role in shaping the portable power landscape. #WaldemarJungner #NickelCadmiumBattery #BatteryInnovation #TechHistory

Great news on the progress of solid-state batteries! 🚗⚡ It may take a few years before electric vehicles with solid-state batteries hit the roads and even longer before they support a clean electric grid. Nonetheless, the transition of this technology from labs to factories is a promising step forward. With ongoing innovation, we are headed towards a future where solid-state batteries, crafted from diverse materials, will enhance the longevity of our tech devices, increase the range of EVs, and promote cleaner and more stable electric grids. Exciting times ahead for sustainable energy solutions! #SolidStateBatteries #EVs #CleanEnergy #TechInnovation

File this one under H for How Low Can An EV Battery Go? 🚗⚡ A spinoff from CalTech called Sienza Energy has developed a groundbreaking silicon EV battery, completely eliminating cobalt. 🌿 This innovative nanoscale structure offers a triple win: cutting-edge performance, enhanced safety, and cost-efficiency. Learn more about this game-changing technology here: https://lnkd.in/dYRVi7ju #CleanTech #EV #BatteryInnovation

Battery technology has not really changed since the invention of the battery in 1799. Until recently, the classic battery has focused on different types of materials to improve the features of the battery. Enter solid-state batteries. While the solid-state battery has some issues, it represents a leap forward in technology that could eliminate many of the issues with lithium-based batteries. #batteries #ev #greenenergy #lithiumion #battery

This is a good example of using two different types of battery chemistries: LFP and NMC. At a battery conference (AABC-2018, AFAIR), I talked with a developer who mentioned they had created a new type of primary battery with very high energy density. While these batteries can't be recharged, that gave me an idea: What if we could use a small, high-energy battery like this for emergencies? For instance, it could once power an EV for a bit when your main battery is dead, and it should be unblocked by a call to support.

Our esteemed media brand Battery Technology discusses ''How Single-Wall Carbon Nanotubes Are Enhancing Battery Performance''. This report explores the role of SWCNTs in enhancing battery performance and how recent industry expansions have highlighted their potential for electric vehicles. Read the full article here: https://lnkd.in/e53ZgPxK #thebatteryshow #evtechexpo #batterytechnology #batteryperformance #evs #electricvehicles

Our esteemed media brand Battery Technology discusses ''How Single-Wall Carbon Nanotubes Are Enhancing Battery Performance''. This report explores the role of SWCNTs in enhancing battery performance and how recent industry expansions have highlighted their potential for electric vehicles. Read the full article here: https://lnkd.in/e53ZgPxK #thebatteryshow #evtechexpo #batterytechnology #batteryperformance #evs #electricvehicles

What type of batteries will power future EV fleets?🔋🚗 I'm often asked about the next wave of innovations that will power future electric vehicles (EVs) fleets. With the EV market expanding rapidly, the race to develop more efficient, safer, and cost-effective batteries is more intense than ever. Here's a glimpse into the promising battery technologies that are likely to revolutionize the industry: 1. Lithium-Ion Batteries (Li-ion): 🌟 Still leading the pack, Li-ion batteries are evolving. These are likely to remain dominant in the near future (think 2024) due to their unmatched energy density and performance. Researchers are constantly working on improvements to bring down costs and enhance range 2. Solid-State Batteries: 🔒 Regarded as the next frontier, solid-state batteries offer a leap in safety and performance. They eliminate liquid electrolytes, reducing fire risks and potentially increasing energy density significantly while they pose manufacturing challenges. 3. Lithium-Sulfur (Li-S) Batteries: 📈 Li-S technology promises exceptional energy potential. Li-S are making waves with their potential for higher energy storage at lower costs. 4. Lithium-Iron-Phosphate (LiFePO4) Batteries: 💪 For heavy-duty applications, LiFePO4 batteries stand out for their stability and safety. They are an ideal choice for commercial EVs where durability and operational security are paramount. 5. Advanced Silicon Anode Batteries: 🚀 Silicon anodes are on the brink of revolutionizing battery capacity. They can store up to ten times more energy than traditional graphite anodes.. 6. Metal-Air Batteries: 🌬️ Still in the experimental phase, metal-air batteries, especially lithium-air and aluminium-air, could dramatically increase the energy density. At Ipower, we are committed to leading these advancements, transforming challenges into opportunities, and driving the future of mobility. The journey towards more sustainable and efficient battery solutions is complex but crucial for our collective future. Let's innovate to empower the next generation of EVs. #EVTechnology #BatteryInnovation #SustainableFuture #ElectricVehicles #RenewableEnergy #TechLeadership 🌍🔧