Our Technology Approach

GarudaVolt is not a box-mover. Everything we do is grounded in understanding the electrochemistry, the systems engineering, and the regulatory environment deeply enough to make original design and integration decisions.

The Intelligence Inside Every Pack

The BMS is the most critical subsystem in any battery pack. It is the intelligence that keeps cells within safe operating limits, estimates remaining capacity, balances charge across cells, and communicates with external systems.

A poorly specified BMS is the single most common cause of field failures in battery packs. We do not treat it as an afterthought.

[PLACEHOLDER: Specify whether BMS is being designed in-house or sourced from a partner. If partner, identify. If in-house, describe design team and tools.]

GarudaVolt BMS Integration

  • Cell-level voltage monitoring — every cell, every cycle
  • Multi-point NTC thermistor placement for thermal monitoring
  • SOC estimation: Coulomb counting + voltage-based correction + [Kalman filter / ECM — confirm]
  • SOH tracking: capacity fade and resistance rise monitoring over lifetime
  • Active or passive cell balancing depending on application
  • Multi-level fault protection: over-voltage, under-voltage, over-current, over-temperature, ground fault
  • Communication: CAN 2.0B, RS485/Modbus RTU, SMBus as required
  • Cloud telemetry readiness: MQTT for remote monitoring integration
[PLACEHOLDER: BMS block diagram — add image once available]

Where Pack Design Most Often Goes Wrong

Cells that operate outside their thermal window degrade faster, deliver less capacity, and in extreme cases, enter thermal runaway. GarudaVolt designs thermal management in from the first layout decision — not as a retrofit.

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Passive Cooling

PCM (Phase Change Material), thermal foam, gap pads. Suitable for low to moderate power density applications where simplicity and cost are priorities.

Low to Moderate Power Density
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Active Air Cooling

Forced convection with fan management by BMS. Suitable for moderate power density in controlled environments. Cost-effective with good performance.

Moderate Power Density
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Liquid Cooling

Cold plate with glycol/water circuit. For high power density or harsh thermal environments — including Indian industrial sites with ambient temperatures above 45°C.

High Power Density

Thermal Runaway Propagation Prevention

Designed to UL 9540A requirements — cell-to-cell and module-to-module propagation barriers, venting paths, and fire suppression interface. Safety is a design input, not a retrofit.

[PLACEHOLDER: CFD simulation results or thermal images once available]

The Brain of Every BESS Deployment

The EMS determines when the battery charges and discharges relative to grid tariffs, solar generation, and load patterns. A good EMS is what separates a battery that saves money from one that merely stores energy.

[PLACEHOLDER: Specify EMS approach — in-house software development vs. licensed platform vs. partner platform. This section to be confirmed by founders.]

Discuss Your EMS Requirements

EMS Capabilities We Deliver

  • Real-time load monitoring and BESS dispatch optimisation
  • Predictive peak shaving based on load trend analysis
  • Solar generation forecast integration (for solar+storage systems)
  • Remote access via web dashboard and mobile app
  • Configurable alert and alarm management
  • Historical energy flow reporting for tariff verification
  • API connectivity for customer's existing SCADA or building management system

Standards We Build To

StandardScopeStatus
ISO 9001:2015Quality Management System[Target date — implementation underway]
IEC 62133Safety of portable secondary lithium cellsTarget
IEC 62619Safety of stationary secondary lithium cells and batteriesTarget
IEC 62933-1General parameters for electrical energy storage systemsTarget
IEC 62485-3Installation safety requirements for stationary batteriesTarget
UN 38.3Transport testing — mandatory for all battery shipmentsTarget
BIS IS 16046Indian standard — safety of secondary lithium batteriesTarget
UL 9540Standard for energy storage systems — US marketTarget
[PLACEHOLDER: Add further standards as quality manual is developed and certifications are obtained]

Key Terms Explained

BMS — Battery Management System

Electronics that monitor individual cells, estimate charge state, balance cells, and protect the pack from unsafe operating conditions.

BESS — Battery Energy Storage System

The complete installation comprising battery modules, power conversion system, thermal management, controls, and communications.

DOD — Depth of Discharge

The percentage of a battery's total capacity used per cycle. Higher DOD delivers more energy but reduces total cycle life.

EMS — Energy Management System

Software that determines when the battery charges and discharges relative to grid tariffs, solar generation, and load patterns.

IQC — Incoming Quality Control

Testing of components (e.g., cells) upon receipt before use in production.

LFP — Lithium Iron Phosphate (LiFePO₄)

A lithium-ion chemistry notable for safety, long cycle life, and thermal stability. The preferred chemistry for stationary storage.

MD — Maximum Demand

The peak power (kVA or kW) drawn by a facility in a defined interval, used to calculate demand charges in Indian industrial electricity tariffs.

PCS — Power Conversion System

The bidirectional inverter that converts DC (battery) to AC (grid/load) and vice versa during charging.

SOC — State of Charge

The current charge level of a battery expressed as a percentage of total capacity (0–100%).

ToU — Time of Use

An electricity tariff structure where rates vary by time of day, creating an opportunity for storage arbitrage.

Want to Discuss Our Technology Stack?

Our engineering team is happy to go deeper on BMS, thermal management, or EMS for your specific application.