Custom LiFePO4 Architectures. Engineered from the Cell Up.

We engineer 4S to 30S LiFePO4 configurations aligned with inverter voltage cutoffs, thermal thresholds, and physical envelope constraints.

LiFePO4 battery pack engineering and cell grading at Holo Battery
12V – 96VScalable Voltage
All FormatsPrismatique • Cylindrique • Poche
CAN / RS485Protocol Matching
NormesUN38.3 • IECUL Ready

System Class Architectures

Cell series-parallel configurations dictate usable watt-hours and cycle longevity. We match structural cell counts to your continuous discharge rates and inverter operating windows.

12V / 24V Class
4S – 8S Series 12,8 V – 25.6V Nominal
Deep-cycling house banks, AGV logistics equipment, and off-grid remote nodes. Available with heavy-duty structural potting for high-vibration mobile equipment.
36V Class
12S Series 38.4V Nominal
Engineered for light electric mobility and high-torque industrial tooling, maintaining stable voltage discharge under rapid acceleration profiles.
48V Standard
15S16S Series 48,0 V – 51.2V Nominal
Standard architecture for server rack battery storage, robotic automated warehouses, and telecom backup systems requiring strict voltage cutoffs.
72V / 96V Class
24S – 30S Series 76,8 V – 96.0V Nominal
High-voltage traction batteries for heavy material handling, marine propulsion, and utility vehicles, utilizing automated laser busbar welding and FR4 epoxy insulation.

BMS Algorithms & Intégration

The Battery Management System actively enforces thermal boundaries, governs cell balancing routines, and executes low-latency cutoffs under peak surge loads.

Algorithm Logic

Balancing & Service Life

We analyze your equipment resting cycles. Active balancing is configured for deep-cycling duty profiles where long-term cell divergence must be minimized, aligning balancing currents with system idle periods to mitigate calendar fade.

Firmware Integration

Communication Handshakes

CANbus dialects vary across inverter manufacturers. We map BMS communication registers directly to your host controller protocol (e.g., Pylontech, Victron, SMA, bespoke CANopen) before production to eliminate integration issues.

Smart BMS Cloud Interface Cloud Telemetry
Remote State-of-Health Monitoring Optional 4G/IoT cloud gateway integration. Monitor operating cell temperatures, individual cell delta voltages, and historical cycle metrics across deployed fleets.
12V 180Ah Custom Battery Build Assembly Architecture
Structural Integrity in Assembly Precision laser busbar welding, anti-vibration cell fixtures, and flame-retardant epoxy insulation designed for harsh industrial deployment.

Gestion thermique & Environmental Protection

Batteries operating in demanding environments require thermal barriers and firmware safeguards to permit low-temperature charging without lithium plating.

  • Environmental Sealing
    From industrial sheet metal housings to fully potted IP68 enclosures, physical barriers exclude moisture, salt spray, and particulate ingress while providing structural heat sinking.
  • Active Thermal Heating
    Internal PTC heating elements pre-condition the cell core to safe charging temperatures before the BMS authorizes charge current in sub-zero environments.
  • Firmware Threshold Inhibitors
    Hardware-level sensors and firmware registers enforce low-temperature charge cutoffs below 0 deg C, protecting cells from permanent capacity degradation.

Engineering Evaluation FAQ

How do you model calendar fade versus operating cycle life?
Datasheet cycle claims reflect controlled laboratory conditions. Real-world operating life depends on sustained Depth of Discharge (DoD), continuous C-rates, and ambient temperature. We calculate expected service life based on your exact operational load profile and duty cycles.
Can you accommodate non-standard enclosure constraints?
Yes. We select cell form factors (prismatic, cylindrical, or pouch) to maximize volumetric energy density within your physical dimensions while maintaining necessary expansion clearances and thermal venting paths.
How do you verify communication with proprietary controllers?
Provide your controller’s communication specification sheet and baud rates. Our software engineers verify protocol handshakes in our test laboratory before pack assembly begins, ensuring seamless plug-and-play field integration.

Initiate an Engineering Architecture Review

Provide your operating voltage range, continuous and peak discharge profiles, dimensional envelope, and target communication protocols. Our engineering team will return a viable architecture proposal.

Soumettre les spécifications techniques
Accord mutuel de non-divulgation (NDA) signé dans les 2 heures.
  • Target equipment & operational duty profile
  • Nominal system voltage & capacité utilisable (Ah/kWh)
  • Continuous and peak load current requirements
  • Physical envelope constraints & Indice IP
  • Host communication protocol (CAN / RS485)
  • Target prototype date & annual volume forecast