≥1,500 mAh/g
Specific Capacity
Project-stage value; protocol to be confirmed
Advanced Silicon-Composite Anode Materials
Engineering the Anode of Tomorrow
ENTROSIL develops high-entropy silicon-composite anode materials engineered for higher capacity, improved structural stability and scalable lithium-ion battery applications.
By integrating high-entropy oxide design, nano-silicon composites and controlled conductive networks, we are developing advanced anode solutions for electric mobility, energy storage and next-generation battery systems.
Project-Stage Technical Indicators
Values recorded during project-stage development and electrochemical validation.
≥82%
Capacity Retention
After 500 cycles at 0.2C
<10%
SEI Thickness Variation
Measurement method subject to validation
2,000 W/kg
Power Density
Project-stage value; technical approval required
≥90%
Target Initial Efficiency
Target at 0.1C under stated conditions
Values shown are based on project-stage laboratory testing and technical documentation. Performance may vary depending on material formulation, electrode design, cell configuration and testing conditions. Final specifications are subject to technical documentation, customer qualification and signed commercial agreements.
Silicon Offers More Capacity. Industrialization Demands More Stability.
Graphite Capacity Limits
Conventional graphite anodes have a theoretical specific capacity of approximately 372 mAh/g, limiting the potential of higher-energy battery systems.
Silicon Volume Change
Silicon offers significantly higher theoretical capacity, but substantial volume changes during cycling may damage electrode structures and reduce long-term stability.
Interface Instability
Continuous solid electrolyte interphase (SEI) growth, particle fracture and interface instability can accelerate irreversible capacity loss.
One Integrated Platform. Three Core Technologies.
High-Entropy Oxide Engineering
A multi-element materials design approach intended to improve structural stability, reaction kinetics and lithium-ion transport behavior within the anode matrix.
Nano-Silicon Composite Architecture
Nano-silicon is integrated with high-entropy oxide materials and supporting components to form a three-dimensional structure designed to accommodate mechanical stress and improve active-material utilization.
Controlled Carbon Coating
A controlled coating process forms a hierarchical conductive network designed to improve electrical conductivity, interface stability and process consistency.
Conceptual process definitions. Confidential formulation and process parameters are not disclosed.
Start a Technical DiscussionDEVELOPMENT MODEL: ES-A1500
High-Entropy Silicon-Composite Anode Material
A development-stage powder material designed for high-energy lithium-ion battery programs requiring increased capacity, improved structural stability and scalable process potential.
Development Status
Sample evaluation and industrial qualification stage
Material Form
Dry Powder
IP Portfolio7 Patent Applications4 Granted Patents
≥1,500 mAh/g
Specific Capacity
≥82%
Capacity Retention
<10%
SEI Thickness Variation
2,000 W/kg
Power Density
≥90%
Target Initial Efficiency
Potential Application Areas
Electric Mobility
Advanced material development for EV battery programs targeting increased energy density, fast-charging potential and structural stability.
Stationary Energy Storage
Material development for energy storage systems requiring cycle performance, sustained power capability and scalable economics.
High-Performance Systems
Material development for specialized systems with demanding space utilization, low-temperature behavior or power requirements.
From Materials Innovation to Industrial Qualification
Our commercialization strategy focuses on reducing qualification barriers through material evaluation, process adaptation and customer-specific optimization.
- 01Materials Concept Development
- 02Formulation Screening
- 03500+ Project-Stage Experiments
- 04Process Optimization
- 05Small-Scale Preparation
- 06Pilot-Scale Preparation
- 07Electrode & Cell Testing
- 08Existing Line Compatibility Assessment
- 09Customer Sample Evaluation
- 10Quality-Control Development
- 11Commercial-Scale Preparation Planning
Why ENTROSIL
Higher Capacity Potential
Silicon-composite architecture designed to support battery systems beyond the capacity limits of conventional graphite.
Structural Engineering
High-entropy and composite design approaches intended to improve material integrity during cycling.
Qualification Support
Technical collaboration covering slurry preparation, electrode processing, cell evaluation and parameter optimization.
Scale-Up Mindset
Development decisions made with process compatibility, cost structure and manufacturing repeatability in mind.
Developing Advanced Anodes Through Global Collaboration
Sample EvaluationJoint DevelopmentCustomer-Specific FormulationsElectrode Process AdaptationPilot QualificationTechnology LicensingManufacturing PartnershipsStrategic InvestmentAcademic Collaboration
Standard Partnership Pathway
InquiryTechnical FitNDASample EvaluationJoint Optimization & Qualification
Let’s Advance the Next Generation of Battery Materials
Whether you are evaluating advanced anode materials, developing new cell platforms or exploring a strategic partnership, our team welcomes technical and commercial discussions.