Other Materials

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Cat Products Name Key Features Price
BM-OM-011 Functional diaphragm with selective permeability 12.0μm Good Conductivity; Stable Performance Request a Quote
BM-OM-012 Functional diaphragm with selective permeability 14.4μm Good Conductivity; Stable Performance Request a Quote
BM-OM-013 Functional diaphragm with selective permeability 16.0μm Good Conductivity; Stable Performance Request a Quote
BM-OM-014 CCS Ceramic-Coated Separator 11.9μm Good Conductivity; Stable Performance Request a Quote
BM-OM-015 CCS Ceramic-Coated Separator 14.2μm Good Conductivity; Stable Performance Request a Quote
BM-OM-016 PVDF Adhesive-Coated Separator 15.1μm Good Conductivity; Stable Performance Request a Quote
BM-OM-017 PVDF Adhesive-Coated Separator 18.2μm Good Conductivity; Stable Performance Request a Quote
BM-OM-018 PMMA Adhesive-Coated Separator 16.8μm Good Conductivity; Stable Performance Request a Quote
BM-OM-019 Ultra-thin thickness separator 7.3μm Good Conductivity; Stable Performance Request a Quote
BM-OM-020 Ultra-thin thickness separator 9.2μm Good Conductivity; Stable Performance Request a Quote

As a premier supplier of advanced energy materials, AIMRSE offers a comprehensive portfolio of other battery materials essential for next‑generation lithium‑ion, sodium‑ion, and solid‑state batteries. Our product range includes conductive additives (carbon black, CNT, graphene), polymeric binders (PVDF, SBR, CMC), high‑purity solvents (NMP), functional electrolyte additives (VC, FEC), and advanced separator coatings. Engineered to meet the stringent demands of industrial production and cutting‑edge research, every batch is subjected to rigorous quality control, ensuring traceability, consistent particle size distribution, low impurity levels, and electrochemical stability. AIMRSE supports customers across North America and Europe with tailored material solutions that enhance energy density, cycle life, and safety of modern energy storage systems.

Introduction to Other Battery Materials

AIMRSE Other Battery Materials – Conductive Additives, Binders and Electrolyte Additives

Beyond primary cathode and anode materials, auxiliary components—such as conductive additives (carbon black, CNT, graphene), polymeric binders (PVDF, SBR, CMC), high-purity solvents (NMP), electrolyte additives (VC, FEC), and ceramic-coated separators—are critical for battery performance, durability, and safety. AIMRSE precisely engineers these materials to optimize electrode architecture, interfacial stability, and ionic transport, mitigating challenges like electrode cracking, impedance rise, gas generation, and thermal runaway in liquid-electrolyte and solid-state batteries. Our products undergo rigorous quality control to ensure traceability, consistent particle size, and low impurity levels, meeting the stringent demands of industrial production and cutting-edge R&D.

Our development approach emphasizes close collaboration with cell manufacturers and research institutions. We supply from lab-scale samples for R&D to tonne-scale shipments for commercial production, backed by comprehensive technical datasheets and application support. Whether for high-energy density EV cells, stationary storage, or specialty applications, AIMRSE delivers tailored auxiliary materials that enhance energy density, cycle life, and safety, enabling next-generation energy storage innovations.

Key Application Fields

AIMRSE’s comprehensive portfolio of battery materials extends far beyond cathodes, providing essential components that enhance performance, processability, and safety across the entire energy storage landscape. From raw material synthesis to cell assembly, our products are engineered to meet the rigorous demands of modern battery technology.

Lithium‑ion Battery R&D using AIMRSE advanced conductive additives and binders

Lithium‑ion Battery R&D and Manufacturing

AIMRSE supplies high-purity conductive carbons, CNT dispersions, and functional binders (PVDF, SBR, CMC) that enhance electron transport, adhesion, and electrode integrity. Our electrolyte additives like VC and FEC form stable SEI layers, suppressing parasitic reactions and extending cycle life. These materials enable higher rate capabilities and improved performance in consumer and automotive lithium-ion cells.

Solid-state battery development with AIMRSE ceramic coated separators and specialty binders

Solid-State & Next‑Generation Batteries

For solid-state batteries, AIMRSE provides ceramic-coated separators with thin, uniform layers that inhibit dendrite penetration and enhance thermal stability. We also supply specialty polymeric binders compatible with sulfide- and oxide-based solid electrolytes, enabling processing of thin membranes and composite cathodes while minimizing interfacial resistance.

Electrode coating process using AIMRSE high‑purity NMP solvent and binder systems

Electrode Coating & Process Optimization

AIMRSE supports solvent-based and aqueous electrode coating with high-purity NMP solvent and ready-to-use binder dispersions. Our products ensure stable slurry rheology, prevent agglomeration, and enable consistent coating weights, faster coating speeds, and improved adhesion, directly contributing to higher manufacturing yields and lower production costs.

Academic research on new battery chemistries using AIMRSE electrolyte additives and conductive agents

Academic & Industrial Research Programs

AIMRSE collaborates with research institutions by supplying materials with full analytical characterization, including particle size, surface area, purity, and electrochemical data. Low lot-to-lot variability ensures reproducible experiments, accelerating discovery from fundamental studies to prototype validation. Our team provides technical support to integrate materials into novel cell designs.

Customization & Technical Services

Recognizing that every battery project has unique requirements, AIMRSE offers extensive customization options for other battery materials. Our engineers work alongside your team to fine‑tune material properties and integrate them seamlessly into your existing processes.

Particle Size & Morphology Tailoring

For conductive additives and binder powders, we can adjust particle size distribution, specific surface area, and morphology (e.g., fibrous vs. spherical) to optimize slurry dispersion and electrode density. Customized carbon nanotube lengths and functionalization are also available.

Binder & Formulation Customization

We develop bespoke binder systems – including modified PVDF, SBR with specific styrene/butadiene ratios, and CMC with tailored degree of substitution – to match your active material, solvent system, and mechanical requirements. Custom solvent blends and electrolyte additive packages can be formulated.

Separator Engineering

Our ceramic‑coated separators can be customized in terms of base film thickness, coating composition (Al₂O₃, boehmite, or hybrid), and porosity to achieve desired thermal shutdown behavior and ionic conductivity. We also supply prototype‑scale rolls for pilot trials.

Application Support & Co‑Development

Beyond material supply, AIMRSE provides deep application engineering: slurry formulation guidance, electrode lamination trials, coin/pouch cell testing, and failure analysis. We engage in co‑development partnerships for next‑generation materials with pre‑competitive research programs.

Proven Success Cases

Real‑world performance of AIMRSE conductive additives, binders, separators, and electrolyte additives across research, industrial, medical, and commercial applications.

+42% cycle life improvement
CNT conductive paste PVDF binder VC additive

High‑loading silicon anode enabled by AIMRSE binder & additive package

R&D breakthrough

A top‑tier battery research institute achieved 42% longer cycle life in high‑silicon anodes by combining our custom SBR‑CMC binder system with VC electrolyte additive. The optimized formulation maintained electrode integrity and suppressed continuous SEI growth.

AIMRSE’s materials provided the consistency we needed to isolate the effects of our electrode design. The cycle‑life gain was unprecedented.

— M****b
‑18% electrode rejection rate
Al₂O₃ coated separator NMP solvent PVDF 5130

Large‑format LFP cell production with ultra‑low defect rate

Industrial scale‑up

A leading European cell manufacturer reduced electrode rejection by 18% after switching to AIMRSE’s high‑purity NMP and 5130 PVDF binder. The stable slurry rheology enabled uniform coating, while our ceramic‑coated separators eliminated internal shorts during calendering.

AIMRSE’s materials fit seamlessly into our existing process. The reduction in scrap alone justified the switch within six months.

— M***s
100% hermetic seal reliability
PP/PE/PP trilayer FEC additive high‑purity LiPF₆

Implantable neurostimulator battery with zero field failures

Medical grade

A medical device company required 10‑year reliability for an implantable battery. AIMRSE supplied ultra‑pure electrolyte with FEC additive and our trilayer PP/PE/PP separator. Accelerated aging tests confirmed zero internal shorts and consistent capacity retention after 2,000 cycles.

The traceability and purity of AIMRSE materials gave us the confidence to move directly to human trials.

— D****o
15% higher throughput
carbon black Super P CMC binder aqueous processing

Commercial ESS cells with aqueous processing and AIMRSE carbon black

Cost‑efficient scale‑up

A major ESS manufacturer transitioned to aqueous electrode processing using AIMRSE’s Super P carbon black and CMC binder. The change eliminated NMP recovery costs and increased line speed by 15%, while maintaining cell impedance and cycle life specs.

AIMRSE’s technical support during the solvent‑to‑water switch was outstanding. The production data matched lab predictions perfectly.

— C***s

The AIMRSE's Advantages

Our materials are distinguished by rigorous quality systems, deep electrochemical expertise, and a commitment to sustainability that meets the expectations of the global battery industry.

Ultra‑High Purity & Traceability

All materials are produced under strict ISO 9001 guidelines with full traceability from raw source to finished lot. Typical impurity levels (e.g., moisture, transition metals, chlorides) are kept well below industry thresholds, ensuring compatibility with high‑voltage and high‑nickel chemistries.

Excellent Batch‑to‑Batch Consistency

Using advanced process control and statistical quality assurance, we guarantee minimal variation in key parameters such as particle size, pH, viscosity, and electrochemical performance. This consistency translates directly to higher yields and predictable cell behavior in production.

Broad Electrochemical Compatibility

Our materials are formulated to perform across a wide range of electrolytes (carbonate, ether, ionic liquid) and electrode potentials. Additives like VC and FEC are tested in multiple cell formats to ensure they deliver the intended SEI reinforcement without adverse side reactions.

Frequently Asked Questions (FAQ)

How do AIMRSE conductive additives differ from standard carbon blacks?
Our conductive additives – including Super P, Ketjenblack, CNT, and graphene – are specifically optimized for lithium‑ion applications. They feature tailored surface chemistry (low oxygen content), controlled aggregate size, and excellent dispersibility in both PVDF/NMP and water‑based systems. This results in lower electrical resistivity at low loadings and improved rate capability.
Can AIMRSE provide electrolyte additives in small quantities for testing?
Yes, we supply research‑grade quantities (100g, 500g, 1kg) of all electrolyte additives (VC, FEC, PS, DTDO, etc.) with detailed impurity analysis. Larger pilot and production volumes are available with consistent quality from batch to batch.
What quality control is performed on binders like PVDF and SBR?
Each binder lot is tested for molecular weight (GPC), intrinsic viscosity, residual solvent content, particle size distribution (for aqueous dispersions), and adhesion strength via peel tests. Electrochemical testing in half‑cells is performed periodically to confirm compatibility with typical cathode/anode materials.
Do AIMRSE separator coatings affect ionic conductivity?
Our ceramic coatings are engineered to have high porosity (40‑60%) and thin coating layers (1‑4 µm per side), minimizing the impact on ionic resistance while providing excellent thermal shrinkage protection (<5% after 1h at 150°C). We can adjust coating thickness to balance safety and performance.

Related Products

Note: Our battery cells and materials are intended for R&D and industrial testing. Complete energy storage systems are certified for operational deployment.

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