
Suryamanu aims to enable India's portable energy landscape through revolutionary battery technology to widen India's economic growth.
Our R&D agenda is organised around six engineering pillars — from cell chemistry and pack architecture to thermal control and cloud-based intelligence. Each pillar pushes a specific metric to the frontier, and together they define what a modern Indian battery should be.
330
Wh/kg
Cell-level energy density
2M
km
Service-life target
500
A
Direct charging current
6
°C/min
Warm-up performance
Every breakthrough below is being researched, prototyped and validated in-house. Together they define a battery that is denser, longer-lasting, faster, safer and smarter than the previous generation.

165 Wh/kg at cell level
Highly integrated structural design that boosts volumetric utilization from 55% (Gen 1) to 72% (Gen 3 / SuryaManu battery). NMC SuryaManu reaches 265 Wh/kg; LFP version 205 Wh/kg.
Integrates the battery with vehicle body, chassis, thermal management and control modules — enabling 1,000+ km range and sub-12 kWh/100km consumption.
Nano-rivet technology reinforces the cell structurally, balancing maximum energy density with safety.
Single-crystal particles with anti-oxidation electrolytes expand voltage limits and liberate more active lithium.

16 years · 2 million km
Reduces active lithium loss and improves anode stability over thousands of cycles.
FIC coating creates a self-dormant interface that reactivates during use, reducing parasitic side reactions.
Automatically repairs the SEI layer to maintain interface integrity and stability.
Engineered ion and electron high-speed channels reduce diffusion resistance throughout the electrode.
Keeps cell expansion force in its optimal range to prolong useful life.
Staged electrolyte enrichment and gas release slow capacity fade across the battery's lifespan.

500A direct charging architecture
Nano-crystallised cathode surface accelerates response and lithium extraction.
Porous anode coating provides abundant active sites for lithium exchange.
Allows lithium ions to insert from any angle, sharply boosting charging speed.
Speeds up lithium-ion transmission in the liquid and at interfaces.
Shortens transmission distance and lowers internal resistance.
Supports 500A direct charging while keeping temperature rise under control.
Real-time adjustment prevents lithium plating during aggressive charging.

Engineered for zero propagation
"Material gene pool" screening improves thermostability of NMC chemistry.
Nano-coating forms a stable SEI membrane and lowers material reactivity.
Functional additives reduce heat generated by solid-liquid reactions.
Gas-electric separation with active isolation, purpose-built for high-energy systems.
Big-data early warning automatically triggers cooling before risk escalates.
Real-time fault detection identifies every abnormality across the fleet.

6 °C / min warm-up performance
Pulse current via motor control heats the battery — saving two-thirds of the heating time vs conventional films.
Predicts cell state within one minute, maintaining SOC error within ±3%.
Stable discharge platform under extreme low temperature and low SOC conditions.
Customised graphite anode, high-activity cathode and low-viscosity electrolyte for all-weather performance.

24/7 lifecycle monitoring
Real-time monitoring with failure-mechanism models identifies abnormal cells early.
BMS charges within healthy zones based on real-time temperature and SOC.
Big-data models predict cell status and prevent sudden power or range drops.
Intelligent algorithms dynamically balance different chemical systems together.
Simplifies wiring, cuts cost and improves reliability.
Battery and aging models couple to predict remaining useful life.
Vehicle-mounted edge computing plus cloud services for comprehensive diagnosis.
Vehicles become distributed energy storage units for grid peak-shaving and additional revenue.