APOLLO project’s Post

In facing complex challenges, the solution may lie in simplicity. A recent study by researchers at POSTECH highlights this approach in developing ultra-thin lithium solid-state batteries with high stability and energy density. Key points include: - Development of an air-handleable LLZO technology to prevent contamination layer formation - Creation of a new hydrophobic compound to inhibit reactions with moisture - Production of ultra-thin lithium solid-state batteries through a simple wetting process - Significant reduction in lithium metal usage, improving energy density and practical usability How can this innovative approach to solid-state batteries impact the future of energy storage? #sustainability #innovation #energydensity #postech #solidstatebatteries

Industrial Few Layers #GrapheneNanoplates Product Details: Product Code: 102036 CAS Number: 7440-44-0 Packaging: 1 kg per package Storage Conditions: Store in a dry, cool place, away from light Product ID: XFQ023 Specifications: Weight: 1 kg Electrical Conductivity: 550-1100 S/cm Shelf Life: 6 days Product Overview: Industrial Few Layers Graphene Nanoplates are high-quality graphene materials designed for industrial applications. These nanoplates consist of a few layers of graphene, providing a balance of properties that are beneficial for various advanced technologies. Technical Specifications: Electrical Conductivity: 550-1100 S/cm Bulk Density: 0.10-0.12 g/cm³ Tapped Density: 0.14-0.16 g/cm³ Appearance: Black powder Applications: These graphene nanoplates have wide-ranging applications, including but not limited to: New Energy Batteries: Enhancing battery performance and longevity. Antistatic Materials: Used in coatings and materials to prevent static buildup. Heat Dissipation: In electronic devices and systems requiring efficient thermal management. Mechanical Strength Enhancement: Improving the mechanical properties of composite materials. Conductive Composites: Enhancing electrical conductivity in composite materials. Coating Modifiers: Modifying the properties of coatings for improved durability and functionality. Fundamental Research: Serving as a material for physical science research. Graphene Transistors: Potential use in next-generation electronic devices. Electronic Chips: In semiconductor and microelectronic applications. Antenna Materials: For high-performance, lightweight antennas. Aerospace: Used in advanced aerospace materials for lightweight and high-strength components. This product offers significant potential for innovation in industries ranging from electronics to aerospace, providing advanced material properties essential for cutting-edge technologies. [email protected] https://lnkd.in/gMh_gH_h

🔬 Link��ping University researchers have developed a groundbreaking method to enhance the conductivity of organic semiconductors by using air as a dopant, published in Nature. This innovative approach holds promise for affordable and sustainable electronics. 💡 Key Insights from Research: 🌱 Led by Simone Fabiano, an associate professor at Link��ping University, the research team devised a method to augment the conductivity of organic semiconductors by employing air as a dopant. 🌱 Inspired by natural processes such as photosynthesis, the method utilizes light to activate a photocatalyst, enabling efficient electron transfer from inefficient dopants to the organic semiconductor material, thereby improving conductivity. 🌱 This innovative approach, conducted at room temperature, not only simplifies production processes but also offers superior conductivity compared to traditional methods, presenting a significant advancement in the field of organic electronics. #OrganicElectronics #SustainableTech #SemiconductorResearch #Innovation #LinköpingUniversity #NatureJournal #ConductivityEnhancement #AirDoping #PhotocatalyticDoping #GreenTech

🔋🔬 Innovative Battery Technology from Linköping University A Research from Sweden's Linköping University has led to a prototype of a cost-effective and highly durable battery, poised for future use in electric vehicles. As lithium batteries approach their technological limits, incorporating a solid electrolyte can extend their lifespan. However, zinc-based battery technology is emerging as a promising alternative. Key Highlights: 1. Zinc and Lignin-Based Batteries:   - ⚡ Linköping University's research, in collaboration with Karlstad University and Chalmers University of Technology, has created a battery using zinc and lignin—both economical and environmentally friendly materials.   - 🌍 These batteries offer energy density similar to lead-acid batteries without the toxicity of lead. 2. Advantages and Challenges:   - 🔋 Zinc batteries have typically been non-rechargeable, used in small devices like watches and hearing aids.   - 🛠 The main challenge has been their low durability due to zinc's reaction with water, causing hydrogen gas production and dendritic growth, making the batteries unusable. 3. Breakthrough with WiSPE:   - 🚀 The team used a water-in-salt polymer electrolyte (WiSPE) based on potassium polyacrylate to stabilize zinc.   - 🔧 When used with zinc and lignin, WiSPE ensures high stability, maintaining 80% of the battery's nominal capacity after 8,000 charge-discharge cycles. 4. Impressive Stability and Future Potential:   - 📈 These batteries retain charge for about a week while inactive, significantly longer than other zinc batteries.   - 🚗 Researchers are confident in scaling up the battery size to that of a car battery, leveraging the abundance and low cost of lignin and zinc. This breakthrough could lead to more sustainable and cost-effective battery options, complementing or even replacing lithium-ion batteries in the future. #BatteryTech #Innovation #EnergyStorage #Sustainability #ElectricVehicles 🌍🔋

Exploring the frontiers of green energy solutions, a recent breakthrough in catalysis research reveals how aluminium nanoparticles can unlock versatile applications, from eco-friendly fuel generation to sustainable chemical synthesis. This innovative approach, utilising a common metal, paves the way for more accessible, cost-effective, and environmentally friendly catalytic processes. A step forward in redefining catalysis for a sustainable future. #Sustainability #Innovation https://lnkd.in/ezNdy4kf

#TataSteel, #RoyceInstitute Ink Deal for Advanced Materials Hub-"composites, graphene, & medical materials. The research programme at the Centre will not only focus on pushing the knowledge boundaries in these materials, but also explore 2D & second-life materials. Establishing #recycling technologies for materials will be an integral part of materials development"

In the rapidly evolving field of nanomaterials, a standardized approach often falls short. At Cerion, we partner closely with our clients to develop tailored solutions that address their unique scientific and technical challenges. Our expertise spans the entire lifecycle of nanomaterial development, from initial design through to large-scale manufacturing. This article delves into our bespoke approach to nanomaterial design and synthesis, underscoring the importance of customization in achieving optimal performance for specific applications. Learn more about our methodologies and the impact of our custom nanomaterials in various high-performance applications, including: ✔ Why Nano? ✔Customization in the Lab ✔Commercialization from the Lab ✔Big Things With Nano 🔗 Read the article “One Size Does Not Fit All” : https://lnkd.in/ecYJZRpX #Nanotechnology #SpecialtyChemicals #CustomNanomaterials #ScientificInnovation #AdvancedMaterials #CerionNanomaterials

An Israeli company has developed a nanomaterial-based industrial additives that allow for achieving lightweight and sustainable materials — making it an ideal component for enhancing the properties of plastics used in planes, trains, and yes even automobiles. The proprietary additives developed by Petah Tikva-based Nemo Nanomaterials can be mass produced in order to supplement a large range of parts. The additives are based on single-walled carbon nanotubes (SWCNT). VP Business Development Jonathan Antebi says he and co-founder and CEO Alexander Zinigrad began to develop the CNTs-based additives after realizing the potential of existing nanomaterial to enhance various kinds of plastics and other industrial material. “We established Nemo to take the promise of nanocarbons and bring it into industrial reality,” Antebi tells NoCamels. “A team of experts – of engineering, mechanical plastics, chemistry – enabled us to take an idea and convert it into actual up-and-running technology,” he says. #nanomaterials #nanocarbons #industrialadditives #additives #israelinnovation #israelitech #plastics

In a joint research project, #MitsubishiMaterials and Yokohama National University have developed a new electrode for #waterelectrolysis made of titanium. Using an evaluation process, we have discovered that a sophisticated double-layer structure with different functions effectively improves the efficiency of electrodes for #waterelectrolysis. However, electrodes consisting of two layers with different structures cannot be produced using conventional manufacturing methods. Accordingly, #MMC has utilised a #3DPrinter with high resolution, which enables the production of electrodes with a double-layer structure. By using this newly developed titanium electrode, a water electrolysis system can be operated with high efficiency. It also contributes to lowering #hydrogen production costs by reducing the consumption of materials. Get a deeper insight into this technology here: https://lnkd.in/e9hZTdaH #environment #sustainability #decarbonisation #biodiversity #decarbonization #climatechange #co2neutral #carbonfootprint #carbonneutral #copper

Researchers led by Professor Kang Kisuk of the Center for Nanoparticle Research within the Institute for Basic Science (IBS), have announced a major breakthrough in the field of next-generation solid-state batteries. It is believed that their new findings will enable the creation of batteries based on a novel chloride-based solid electrolyte that exhibits exceptional ionic conductivity. A pressing concern with current commercial batteries their reliance on liquid electrolytes, which leads to flammability and explosion risks. Therefore, the development of non-combustible solid electrolytes is of paramount importance for advancing solid-state battery technology. As the world gears up to regulate internal combustion engine vehicles and expand the use of electric vehicles in the ongoing global shift toward sustainable transportation, research into the core components of secondary batteries, particularly solid-state batteries, has gained significant momentum. #solidstatebatteries #conductivity