C45 Conductive Carbon Black for Solid-State & Lithium-Ion Batteries (400 g)

Premium 1235 Single Side Polished Aluminum Foil designed for battery manufacturing and advanced industrial applications. Engineered from high-purity aluminum with a smooth polished surface, this foil delivers stable mechanical performance, excellent surface quality, and strong coating compatibility for use as current collectors or precision foil substrates.

Matlabs Technologies offers Aluminum Mesh Foil, a high-performance current collector material engineered for advanced battery and energy storage applications. With a precisely controlled mesh structure and uniform thickness, this foil supports enhanced electrolyte access, stable electrical conductivity, and improved electrode performance in lithium-ion and related systems.

Matlabs Technologies offers Conductive Carbon-Coated Aluminum Foil, a performance-tuned current collector designed to improve electrode conductivity and enhance slurry adhesion in modern battery systems. Featuring a uniform 1 µm conductive carbon coating on aluminum substrate, this foil supports strong electrical contact, improved electrochemical stability, and repeatable manufacturing results for advanced lithium-ion, sodium-ion, and hybrid battery formats.

High-quality MCMB (MesoCarbon MicroBeads) Graphite Powder engineered as an advanced anode material for lithium-ion batteries. With its spherical morphology and high tap density, this graphite powder supports excellent electrode packing, reduced side reactions, and improved battery performance.

Premium Natural Graphite Powder BTR918 — a high-performance anode material engineered for lithium-ion battery applications. Featuring low moisture content, high reversible capacity, and stable performance, this natural graphite powder supports enhanced electrochemical behavior and efficient charge storage in battery cells.

High-performance 1070 Double Sides Polished Aluminum Foil engineered for battery manufacturing and advanced industrial applications. This product offers excellent purity, surface quality, tensile strength, and coating compatibility — ideal for use as a current collector or critical foil substrate in energy storage systems and precision components.

Matlabs Technologies offers Hard Carbon Anode Material (KURANODE series) designed for next-generation rechargeable batteries. This non-graphitizable carbon powder is derived from sustainable plant-based sources and delivers reliable electrochemical performance, excellent cycle stability, and superior moisture resistance for modern energy storage applications.

Matlabs Technologies presents PVDF Binder (Solef® 5130) — a high-performance Polyvinylidene Fluoride binder tailored for advanced lithium-ion battery electrode formulations. Manufactured to ultra-high viscosity standards, this white polymer powder enhances electrode adhesion, mechanical integrity, and electrochemical stability in battery cell production

Matlabs Technologies offers Styrene-Butadiene Rubber (SBR 2919), a high-performance aqueous binder system specifically developed for lithium-ion battery electrode fabrication. This latex-based binder provides excellent flexibility, adhesion, and mechanical strength, making it highly suitable for water-based anode and cathode formulations.

Matlabs Technologies offers NCM 811 (Lithium Nickel Manganese Cobalt Oxide) — a high-energy-density cathode active material engineered for next-generation lithium-ion batteries. With a nickel-rich composition (Ni:Co:Mn = 8:1:1), this polycrystalline powder delivers enhanced capacity, balanced thermal stability, and reliable cycling performance for advanced energy storage systems.

Matlabs Technologies offers LiFePO₄ (Lithium Iron Phosphate) cathode active material — a stable, long-life powder suited for high-safety lithium-ion battery systems. With excellent thermal and structural stability, LiFePO₄ is widely used in electric vehicles, energy storage systems, and power tools that require dependable performance over extended cycles.

Matlabs Technologies supplies LiMn₂O₄ (Lithium Manganese Oxide) cathode material — a spinel-structured active powder ideal for lithium-ion batteries requiring high power output, strong safety performance, and environmental stability. This material is widely used in consumer electronics, power tools, and hybrid electric systems where balance of performance and reliability is critical.

Matlabs Technologies supplies CR2032 Coin Cell Case Sets manufactured from 316 stainless steel, designed for laboratory-scale battery assembly, electrochemical testing, and research applications. These precision-engineered components ensure reliable sealing, corrosion resistance, and consistent test results for coin-cell-based experiments.

Matlabs Technologies offers CR2032 coin cell case sets manufactured from 304 stainless steel, designed for laboratory battery assembly, material evaluation, and electrochemical testing. These components provide reliable structural integrity and consistent sealing performance for repeatable coin-cell experiments.

Matlabs Technologies supplies C65 Conductive Carbon Black, a high-purity conductive additive engineered to enhance electrical conductivity in lithium-ion battery electrodes. With optimized particle morphology and stable dispersion behavior, this material supports efficient electron transport and uniform current distribution in both cathode and anode formulations.

Matlabs Technologies supplies C45 Conductive Carbon Black, a battery-grade conductive additive designed to improve electrical conductivity and charge transport within lithium-ion battery electrodes. With balanced surface area and structure, C45 delivers reliable conductivity enhancement while supporting stable slurry processing and uniform electrode performance.

Matlabs Technologies offers Ketjenblack ECP600JD Conductive Carbon Black (50g) — an ultra-high-performance conductive additive engineered for advanced electrode conductivity in lithium-ion and other rechargeable battery systems. Featuring an exceptionally high specific surface area and nanostructured morphology, this grade supports superior electron transport and enhanced electrode performance with minimal additive loading.

Matlabs Technologies supplies Conductive Acetylene Black, a battery-grade conductive additive engineered to enhance electron transport and reduce internal resistance in lithium-ion battery electrodes. Known for its high purity and strong conductive network formation, acetylene black supports stable electrochemical performance in both cathode and anode systems.

Matlabs Technologies supplies high-purity Copper Foil engineered for use as an anode current collector in lithium-ion and advanced rechargeable batteries. Manufactured with controlled thickness, uniform surface finish, and excellent electrical conductivity, this copper foil supports efficient charge transport, strong electrode adhesion, and stable long-term cycling performance.

Matlabs Technologies offers high-quality Copper Foam — a lightweight, porous copper material ideal for advanced battery current collectors, 3D electrodes, and energy storage applications. With a uniform open-cell structure, this copper foam provides excellent electrical conductivity, high surface area, and superior mechanical strength for optimized charge transport and enhanced electrode performance.

Matlabs Technologies presents PVDF Binder (Solvay 5130) — a premium battery-grade Polyvinylidene Fluoride binder engineered for use in lithium-ion battery electrode slurries. With high viscosity and strong adhesion properties, this polymer binder improves electrode integrity and contributes to stable long-term electrochemical performance.

Matlabs Technologies offers YP-50F (EDLC) Active Carbon, an ultra–high surface area activated carbon designed for use in energy storage applications, including electrochemical double layer capacitors (EDLCs) and research-grade battery systems. This grade delivers a combination of large micropore volume, high specific surface area, and stable electrical performance, making it suitable for high-efficiency capacitive and hybrid electrode structures.

Matlabs Technologies offers Novel Cellulose and PET Battery Separators engineered to deliver safe, stable, and efficient ion transport in lithium-ion and advanced rechargeable battery systems. Designed with controlled porosity and excellent mechanical strength, these separators provide reliable electrical insulation between electrodes while maintaining high electrolyte wettability and thermal stability.

Matlabs Technologies offers the NKK TF4530 Cellulose Separator, a high-performance low self-discharge separator designed for lithium-ion and advanced rechargeable battery systems. Manufactured from refined cellulose materials, this separator provides excellent electrolyte affinity, stable ionic conductivity, and enhanced cycle stability while minimizing self-discharge behavior in finished cells.

High-precision Single Side CMS Graphite Coating on Copper Foil designed for advanced battery electrode manufacturing. This product features uniform graphite coating on copper substrate for enhanced electrical conductivity and consistent electrode performance — ideal for lithium-ion battery anode applications in research and production environments.

Premium Lithium Titanate (Li₄Ti₅O₁₂) Powder designed as a high-performance anode material for advanced lithium-ion battery systems. This spinel-phase titanate powder offers excellent structural stability, enhanced safety, and consistent electrochemical performance, making it suitable for R&D, prototype development, and energy storage applications.

Premium Double Sides CMS Graphite Coating on Copper Foil engineered for advanced lithium-ion battery electrode applications. Featuring uniform graphite coating on both sides of high-quality copper foil, this product delivers enhanced electrical conductivity, improved electrode formation, and consistent electrochemical performance — ideal for R&D and production use.

Advanced Silicon Monoxide (SiO) Powder — SL450A-SOC designed as a high-capacity anode material for lithium-ion batteries. Engineered for improved energy storage and enhanced charge/discharge performance, this SiO powder provides excellent electrochemical properties for research, development, and prototype battery applications.

Premium Silicon Nano Powder (50 nm) — ultra-fine, high-purity silicon nanoparticles engineered for advanced battery applications, especially as a high-capacity anode material in lithium-ion systems. With particle size around 50 nm and purity ≥ 99.9 %, this nano silicon powder supports improved energy storage and enhanced electrochemical performance when incorporated into anode formulations.

High-performance PVDF Binder — Solvay 5130 designed for lithium-ion battery electrode fabrication. This premium Polyvinylidene Fluoride (PVDF) binder powder delivers excellent adhesion, thermal stability, and electrochemical resistance — ideal for cathode and anode slurry formulations in advanced battery research and production.

High-performance Aqueous Binder LA133 designed for lithium-ion battery cathode electrode fabrication. This water-based binder delivers excellent adhesion, mechanical strength, and eco-friendly processing — ideal for advanced cathode slurries in research, prototype, and production applications.

Premium Styrene-Butadiene Rubber (SBR) Binder — SBR2919 engineered for lithium-ion battery anode electrode fabrication. This water-based, eco-friendly binder delivers strong adhesion, elasticity, and ageing resistance — ideal for use in high-performance anode slurries and composite electrode formulations in research, prototype development, and scalable production.

Premium Styrene-Butadiene Rubber (SBR) Binder — TRD104A designed as a high-performance aqueous binder for lithium-ion battery electrodes. This water-dispersible binder offers excellent adhesion, flexibility, and mechanical strength — ideal for anode slurry formulations and advanced electrode applications in research, prototype, and production settings.

High-performance PVDF Binder (HSV900) designed for lithium-ion battery electrode fabrication. This premium Polyvinylidene Fluoride (PVDF) binder powder delivers excellent adhesion, thermal stability, and chemical resistance — ideal for both cathode and anode slurry systems in advanced battery production and R&D environments.

Premium Sodium Carboxymethylcellulose (CMC) Powder — a high-quality, water-soluble binder and rheology modifier designed for lithium-ion battery electrode slurries. With excellent dispersion, viscosity control, and adhesion properties, this CMC powder enhances slurry stability and electrode performance in anode formulations.

Premium PTFE Condensed Liquid Binder — a high-performance, fluoropolymer-based liquid binder designed to enhance electrode slurry stability, adhesion, and mechanical integrity, particularly in advanced battery electrode formulations. Ideal for battery R&D, prototype builds, and scalable production use.

Premium Teflon PTFE-601 X-Fine Powder — a high-purity, ultra-fine polytetrafluoroethylene (PTFE) powder designed to enhance electrode formulation, binder systems, and composite materials for advanced battery and electrochemical applications. This fine powder delivers excellent lubrication, thermal stability, and mechanical strength — perfect for cutting-edge battery research and production.

Premium Aqueous Binder LA136 — a water-based cathode binder engineered for lithium-ion battery electrode slurries. Designed for eco-friendly processing with excellent adhesion and rheology control, this binder supports uniform cathode coatings and improved electrode mechanical integrity in research, prototyping, and production environments.

Premium PTFE Condensed Liquid Binder D-210C — a high-performance, fluoropolymer-based liquid binder designed to improve electrode adhesion, flexibility, and mechanical integrity in advanced battery electrode slurry formulations. Ideal for battery R&D, prototyping, and scalable manufacturing applications.

High-performance Polyflon PTFE F-208H Powder — an ultra-fine polytetrafluoroethylene (PTFE) powder designed for enhanced electrode formulations, binder systems, and advanced composite materials. With excellent chemical resistance and thermal stability, this fluoropolymer additive supports robust mechanical properties, improved slurry behavior, and enhanced electrode durability — ideal for battery R&D and production applications.