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Solar Power Solution for CCTV & Security Camera Systems

Reliable 24/7 off-grid power for surveillance cameras, routers, wireless bridges and monitoring equipment in remote and outdoor locations.

ZEMU designs the power system around the actual surveillance load rather than applying one generic kit to every project. The engineering scope can include the solar array, battery storage, MPPT controller, protected DC or PoE output, outdoor enclosure, mounting structure and remote monitoring.

A complete design must account for camera night mode, PTZ movement, heaters, infrared illumination, routers, wireless bridges, PoE conversion losses, the lowest-sunlight month and the required number of backup days.

Designed for Remote and Outdoor CCTV Applications

Roadside and Traffic Monitoring

Independent power for fixed cameras, PTZ cameras, wireless bridges and traffic monitoring equipment where trenching is impractical.

Construction Site Security

Rapid-deployment systems for temporary monitoring points that may move as the project develops.

Perimeter and Property Security

Power for remote gates, fence lines, farms, ranches, warehouses and distributed surveillance points.

Farms, Ranches and Remote Properties

Reliable power for cameras, routers and monitoring equipment across distributed rural sites.

Oil, Gas and Mining Sites

Outdoor power packages for CCTV and communications equipment in harsh, isolated operating environments.

Forest and Border Monitoring

Long-duration off-grid power for cameras and data transmission equipment at difficult-to-access sites.

How We Calculate a CCTV Solar Power System

Daily device energy: total equipment power (W) × operating hours (h/day).

Design energy: daily device energy × loss factor.

Nominal battery energy: design energy × autonomy days ÷ usable depth of discharge.

Minimum panel power: design energy ÷ design-month peak-sun hours ÷ solar derating factor.

Calculation assumptions used in the reference table below
  • Load operates continuously, 24 hours per day.
  • 25% allowance for controller, conversion, cable and operating losses.
  • Two days of battery autonomy.
  • 80% usable depth of discharge for the reference LiFePO4 battery bank.
  • Four design-month peak-sun hours and a 0.70 solar derating factor.
  • Final sizing must use the actual site location, equipment datasheets and temperature range.

Example Engineered Configurations

These are transparent design references, not universal product promises. Camera peak power, site sunlight, winter temperature and required autonomy may increase the final configuration.

Reference ApplicationContinuous LoadDesign EnergyReference Solar ArrayReference BatteryTypical Output
Single fixed camera10W300Wh/day150WApprox. 0.75kWh nominal12V DC or compatible PoE
Camera + 4G router / bridge20W600Wh/day300WApprox. 1.5kWh nominal12V/24V DC or PoE
PTZ camera + communications40W1.2kWh/day600WApprox. 3.0kWh nominal24V DC, PoE or project-specific
Multi-camera remote node80W2.4kWh/day1.2kWApprox. 6.0kWh nominalDC distribution or AC inverter

Battery Chemistry and Product Model Consistency

Battery chemistry options: the standard configurations of the H-series models below use NCM batteries. LiFePO4 versions are also available as project-specific configurations. Battery chemistry, nominal voltage, capacity, BMS and charging parameters will be clearly stated in the final model specification, quotation and BOM.
Published ModelSolar PanelBattery EnergyStandard BatteryOptional BatteryPublished Typical Load
ZM-H30S60-N60W333WhNCMLiFePO4 (custom configuration)5–10W
ZM-H40S80-N80W444WhNCMLiFePO4 (custom configuration)8–15W
ZM-H50S100-N100W555WhNCMLiFePO4 (custom configuration)10–20W

The H-series values above reproduce the currently published CCTV Solar Power Kit specifications. “Typical load” must not be interpreted as a guaranteed 24/7 load at every location. Continuous-operation suitability requires the energy calculation and site assumptions shown above.

Published CCTV Project Evidence

Remote CCTV Solar Power System — USA

ZEMU’s published project case documents an outdoor surveillance power system configured for continuous operation without utility power.

Wiring and system configuration for ZEMU's remote CCTV solar power project in the USA
Published system configuration from ZEMU’s USA remote CCTV solar power project.

View the complete USA CCTV project case

Region
USA
Operating Mode
24/7
Solar Panel
200W monocrystalline
Battery
12.8V 100Ah LiFePO4
Controller
MPPT
Enclosure
IP66 outdoor cabinet
Output
12V DC
Optional Output
PoE
Evidence boundary: this case proves the documented project configuration. It does not mean the same 200W/100Ah combination is suitable for every camera or climate; final design remains load- and location-specific.

System Architecture and Engineering Options

Solar and MPPT Charging

Panel voltage and current are matched to the MPPT controller, battery voltage and the site’s lowest design temperature.

Protected Battery Storage

NCM or LiFePO4 is selected by model and application. The quotation states chemistry, nominal energy, BMS limits and temperature options.

DC and PoE Output

Available output may include regulated 12V/24V DC, active IEEE 802.3af/at PoE or a verified passive-PoE configuration.

Outdoor Enclosure

Cabinet protection, cable glands, surge protection, ventilation and condensation control are chosen for the installation environment.

Mounting Structure

Pole- or wall-mounted structures are configured around the panel area, pole diameter, wind exposure and service access.

Remote Monitoring

Optional monitoring can report battery voltage, charging status, load state and alarms for remote maintenance.

Frequently Asked Questions

Can a solar CCTV system provide power 24/7?

Yes, when the panel, battery and output system are sized for the complete daily load, the site’s lowest-sunlight design period and the required autonomy. “24/7” is a design outcome, not a guarantee from panel wattage alone.

How many backup days can the system support?

Backup time depends on usable battery watt-hours and the total daily load. As a simplified check: backup hours = usable battery energy ÷ continuous load. Conversion losses, temperature and BMS limits reduce the real result. ZEMU normally sizes autonomy from the project requirement and local weather risk.

Can the system power PTZ and infrared cameras?

Yes, but sizing must include maximum PTZ movement power, infrared night mode, heaters, wipers and communication equipment. The camera’s average daytime power is not sufficient for final design.

Do all ZEMU CCTV solar systems use LiFePO4 batteries?

Both NCM and LiFePO4 battery options are available. The listed H-series standard models use NCM batteries by default, while LiFePO4 versions can be configured according to project requirements. The final quotation and BOM will specify the exact battery chemistry, nominal voltage, capacity, BMS and charging parameters.

Can the system work in winter or cloudy regions?

Yes, with project-specific derating. The design should use the lowest relevant monthly peak-sun hours, required cloudy-day autonomy and battery charging limits at the minimum site temperature. Heating or thermal management may be required.

Can the system provide PoE output?

Yes. Confirm whether the camera requires active IEEE 802.3af/at PoE or passive PoE, as well as its voltage, pin assignment and maximum power. These requirements determine the converter and protection configuration.

What information is needed for an accurate configuration?

Provide the camera and network-equipment models, maximum power, operating voltage, site location, backup days, temperature range, cable length, mounting method and required output type. This information is used to calculate the solar array, battery, controller and enclosure.

Technical Resources for Project Planning

Get a Project-Specific CCTV Solar Power Configuration

Send the complete equipment load, operating voltage, installation location and required backup days. ZEMU will prepare a configuration based on the actual project assumptions.

Request a System Design