OEM Dash Cam Battery Packs
Reliable parking-mode power for extended recording
Charge-rate options matched to your system requirements
Custom integration for your vehicle platform
Custom Dash Cam Battery Packs for Parking Mode
A vehicle may be parked for 12 hours after only a 30-minute drive. If the battery cannot power the camera long enough or recharge quickly, parking-mode recording may stop too early. A reliable dash cam battery pack must balance four requirements: parking runtime, recharge time, starter-battery protection and in-vehicle temperature conditions.
VTCBATT designs and manufactures custom battery modules for dash cam and car camera systems, serving brands, OEMs and fleet video integrators. We tailor cell selection, capacity, protection circuits, wiring and connectors to your system’s power requirements, available space and target parking runtime.
Use the module in your own parking-power unit, dash cam, DVR or telematics system. Vehicle-input charging, regulated camera output, ACC control and the final housing are integrated by the customer.
Reference ModulesReference Battery Modules and Integration Options
These battery models are for reference. Capacity, dimensions and interfaces can be customized to your project requirements.
For an external battery pack for dash cam parking power, the 51.2Wh, 102.4Wh and 153.6Wh modules provide starting points for your system design.
For single-channel and lower-power dual-channel dash cams
- Battery Model: 12.8V 4Ah, 51.2Wh LiFePO4
- Suitable for: compact installations, time-lapse recording and event-based parking modes.
- Integration: External Add-on — battery module for a customer-developed parking-power unit.
For mainstream front-and-rear dash cam systems
- Battery model: 12.8V 8Ah, 102.4Wh LiFePO4
- Suitable for: front-and-rear systems; check overnight runtime against actual camera power.
- Integration: External Add-on — battery module for a customer-developed parking-power unit.
For multi-channel, IR and connected video systems
- Battery model: 12.8V 12Ah, 153.6Wh LiFePO4
- Suitable for: multi-channel cameras, cabin IR, LTE and longer parking targets, subject to the measured power budget.
- Integration: External Add-on — battery module for a customer-developed parking-power unit.
For integration into dash cams, DVRs and telematics equipment
- Cell options: pouch LiFePO4 or Li-ion/LiPo, subject to the selected cell’s approved temperature range and project validation.
- Configuration: defined by required energy, current, available space and the customer’s charging circuit
- Integration: Internal Embedded — protected module inside the customer’s dash cam, DVR or telematics product.
Chemistry ComparisonLiFePO4 vs Li-ion vs LiPo vs NiMH for Dash Cam Systems
Battery chemistry affects size, lifespan, temperature performance and charging. Compare the options below for your dash cam application.
| Chemistry / format | Sizing consideration | Cycle life / aging (reference) | Best fit | Key trade-off |
|---|---|---|---|---|
| LiFePO4 3.2V/cell | Check pack Wh and dimensions | Approx. 2,000–6,000 cycles | External parking-power packs | Long life and thermal stability; larger pack and cold-charge control needed |
| Li-ion (NMC/NCA) 3.6–3.7V/cell | Compare energy within available space | Approx. 500–1,000 cycles | Compact embedded modules | Higher energy density; more heat-sensitive and needs tighter BMS control |
| Pouch Li-ion / LiPo Voltage depends on chemistry | Check thickness and swelling allowance | Approx. 500–1,000 cycles | Thin/custom-shaped embedded modules | Thin and flexible; heat/aging can cause swelling, so high-temp cells and clearance matter |
| NiMH 1.2V/cell | Check mass and required energy | Approx. 300–500 cycles | Legacy/special backup | Robust but heavier, lower-energy and slower to recharge |
| Supercapacitor Not a battery | Size for shutdown energy | Assess capacitance retention and ESR after aging | File saving / shutdown | Usually suited to brief backup; confirm energy and temperature ratings |
Selection: LiFePO4 for external parking power; Li-ion/LiPo for compact embedded designs; NiMH or supercapacitors for special short-backup use.
LiPo/pouch describes a format or product category rather than a separate cathode chemistry. Energy density and cycle life require model-specific data with a stated temperature, charge/discharge rate, DoD and end-of-life criterion.
Protection & IntegrationTemperature, BMS Protection and Installation
Match protection settings to the cells, wiring, connectors and installation.
Define separate charge, discharge and storage limits, sensor locations and the monitoring circuit. Include cold-charge inhibition, high-temperature cutoffs and restart conditions.
Specify PCM/BMS cutoffs for overcharge, over-discharge, overcurrent and short circuits, including delays and recovery. Confirm balancing and fuse requirements. Protection does not replace charger regulation.
Provide insulation, strain relief and secure mounting; check cable routing, clearance and vibration. The customer integrates vehicle charging, regulated output, ACC control and housing. Communication features require separate review.
Confirm model-specific UN38.3, UL or IEC documentation for the target market, distinguishing cell and pack evidence. Verify any UL94 V-0 claim against the housing material and thickness, and define installation-specific vibration and shock tests.
Design WorkflowHow to Design a Custom Dash Cam Battery Pack
Use these six steps to turn the camera load and parking target into a validated battery-module specification.
Record average power and peak current in the intended parking mode, including IR, LTE and other connected accessories.
Define the required parking hours and use the calculator above to estimate usable energy and nominal battery capacity.
Confirm vehicle voltage, available input current and typical drive time. Daily charging should replace the energy used while parked.
Specify regulated output, continuous and startup current, connector pinout, cable length and any BATT, ACC or GND signals.
Choose chemistry, voltage, capacity, dimensions, PCM/BMS, NTC, wiring and insulation for the available space and operating environment. Confirm mounting, cable exit and storage conditions; list any status indicators, communications or expansion requirements separately for system-level feasibility review.
Test charging time, ignition transitions, low- and high-temperature behavior, camera resets, recording continuity and final-file integrity.
CUSTOM DASH CAM BATTERY PACK
Custom Dash Cam Battery Pack Options
Customize the battery chemistry, capacity, protection circuit, wiring, connector and pack dimensions around the dash cam system’s parking-mode runtime, recharge time and vehicle installation space.
VTCBATT can review LiFePO4, Li-ion and LiPo pack options, ACC control, charging requirements, temperature exposure, cable routing and housing fit before sampling.
Runtime & CapacityDash Cam Battery Runtime & Capacity Calculator
Estimate parking runtime from measured load and usable battery energy.
Calculation example: A 12.8V 8Ah module stores 102.4Wh nominally. At a 4W camera-side load, assuming 90% usable energy and 90% output efficiency, estimated runtime is 20.7 hours (102.4 × 0.90 × 0.90 ÷ 4). This is a calculated estimate, not a measured runtime.
Enter measured camera-side power including accessories, and allow for converter standby losses. If using total battery-side power instead, set output efficiency to 100% to avoid double-counting losses. Results are estimates; validate charging time, temperature, cutoff behavior and camera compatibility.
Storage ValidationDash Cam Battery Validation: Storage Temperature and Capacity Recovery
VTC tested 12V 7Ah lifepo4 battery capacity recovery after 360 days of storage at different temperatures and initial SOC levels.
Reported Capacity Recovery After 360 Days
| Storage temperature | 5% starting SOC | 30% starting SOC | 100% starting SOC |
|---|---|---|---|
| 28°C | 98.57% | 95.94% | 91.88% |
| 35°C | 98.97% | 96.10% | 92.39% |
| 45°C | 96.61% | 87.19% | 69.38% |
| 60°C | 96.50% | 82.95% | 57.17% |
Conclusion: After 360 days at 45°C and 60°C, fully charged batteries showed lower capacity recovery. Balance storage SOC with parking-power needs; 5% SOC is not an operating recommendation. These results do not verify cycle life, pack runtime or safe operation at 60°C.
Common QuestionsDash Cam Battery FAQ
Measure average parking-mode power across standby, wake-up and recording states, accounting for quiescent draw, event-trigger frequency and duration, and IR, LTE or radar loads. Multiply by the required parking hours, then allow for usable capacity, conversion losses and design margin. Use the calculator above for initial sizing and validate runtime under representative and frequent-trigger conditions.
Only if the available drive time and net charging power can replace the energy consumed while parked. Include camera consumption during charging, input-current limits, temperature restrictions and charge taper. Confirm recharge time with the actual vehicle supply and connected load.
Use the parking battery to supply the camera after ignition-off, with vehicle-side charging disabled and unintended backfeed prevented. Measure residual vehicle-battery draw in parked states. The customer’s charging and input-control electronics implement this behavior; the battery module alone does not provide it.
The customer’s controller or compatible camera interface should interpret the vehicle ACC signal and manage charging and parking-mode transitions. Define signal levels, pinout, timing and ignition-off behavior. Do not assume a battery-module connector accepts ACC directly; validate the complete interface.
Specify separate charge, discharge and storage limits. Charging graphite-anode lithium-ion cells, including typical LiFePO4 cells, at low temperatures can cause lithium plating. Set cold-charge inhibition to the selected cell’s approved limits, with sensor locations, high-temperature cutoffs and recovery conditions defined. Validate protection at the installation point; storage ratings do not establish charging or operating limits.
Match output voltage, continuous and startup current, connector pinout and any parking-mode signals. Check cable voltage drop and firmware-dependent transitions between driving, parking and power loss. Verify recording continuity and final-file integrity with each intended camera configuration.
An OEM dashcam battery module can be specified for the product’s energy, dimensions, protection and interfaces; the customer supplies the system electronics. Compare cell chemistry, thermal stability and validated temperature limits, alongside low-load shutoff, simultaneous charging/output and parking-mode compatibility. Neither LiFePO4 chemistry nor pouch construction alone establishes suitability for a hot vehicle; assess the complete design.
No. Storage recovery measures capacity recovered under a stated storage and test procedure. Cycle life requires repeated charge/discharge testing, while parking runtime requires measurement with the complete camera system. The storage data therefore cannot establish either result for a finished dash cam battery pack.
