Battery Selection

Selecting Battery Type

Select a battery or system of batteries that will provide your PowerVerter with proper DC voltage and an adequate amp hour capacity. Select ‘Deep-Cycle’ batteries to enjoy optimum performance from your PowerVerter. Batteries of either Wet-Cell (vented) or Gel-Cell/Absorbed Glass Mat (sealed) construction are ideal. 6 Volt “golf-cart,” Marine Deep-Cycle or 8D Deep-Cycle batteries are also acceptable.

Selecting Battery Amp-Hour Capacity

If you plan to connect your batteries to a vehicle's alternator or another charging current, Step 1:

Add the Wattage Ratings of your connected equipment to determine the Total Wattage Required.*

Step 2:

Divide the Total Wattage Required (from Step 1) by the PowerVerter's DC input voltage (either 12V or 24V; see specifications) to determine the DC Amperes Required.

Step 3:

Multiply the DC Amperes Required (from Step 2) by the number of hours you will want to run your equipment from battery power to determine a Battery Amp-Hours Required Rough Estimate.

Step 4:

Compensate for inefficiency by multipling your Battery Amp-Hour Required Rough Estimate (from Step 3) by 1.2 to determine how many amp-hours of battery power (from one or several batteries) you should connect to your PowerVerter. Note that the Amp-Hour ratings of batteries are usually given for a 20 hour discharge rate. Actual Amp-Hour capacities are less when batteries are discharged at faster rates: batteries discharged in 55 minutes provide only about 50% of their listed Amp-Hour ratings, while batteries discharged in 9 minutes provide as little as 30% of their Amp-Hour ratings.

Example: A park ranger wants to be able to power emergency lights off of 12V batteries for up to an hour after an AC power outage. She divides the total wattage of her equipment (150 watts) by her PowerVerter's DC input voltage (12V) and multiplies by 1 hour to get a Battery Amp-Hours Required Rough Estimate of 12.5. She multiplies this by 1.2 (for inefficiency) then divides by 50% (since a battery that discharges in an hour only provides about 50% of its stated amp-hour capacity) and determines that her 12V batteries' amp-hour capacities must add up to at least 30.

*The wattage rating is usually stated in a device's manual or on its nameplate. If your equipment is rated in amps rather than watts, you can approximate its watt rating by multiplying its ampere rating by its input voltage (120).

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Tripp Lite PV 500FC, PV 2400FC Battery Selection, Selecting Battery Type, Selecting Battery Amp-Hour Capacity, Step
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PV 1000FC, PV 2000FC, PV 500FC, PV 2400FC specifications

Tripp Lite, a renowned leader in power management solutions, offers a range of sine wave inverters designed to provide reliable power for various applications. The models PV 2400FC, PV 500FC, PV 2000FC, and PV 1000FC are popular choices among users seeking to convert DC power from batteries or solar panels into high-quality AC power for their devices.

The Tripp Lite PV 2400FC is a robust inverter capable of delivering a peak output of 2400 watts, making it suitable for heavy-duty applications. Key features include a pure sine wave output, which ensures that sensitive electronic equipment operates efficiently without distortion. Additionally, the PV 2400FC is equipped with built-in surge protection and overload control, providing added safety for both the inverter and connected devices.

The PV 500FC model is ideal for lighter applications, offering a rated output of 500 watts. Its compact and portable design allows for easy transport, making it perfect for camping or outdoor use. The inverter features a low voltage shutdown to prevent battery over-discharge, protecting battery life while delivering clean power for small electronics.

With a capacity of 2000 watts, the PV 2000FC is an excellent choice for moderate power needs. It boasts multiple output options, including standard AC outlets and USB ports, accommodating a variety of devices from laptops to smartphones. The inverter includes advanced cooling technologies to prevent overheating during use, ensuring consistent performance in various environments.

Lastly, the Tripp Lite PV 1000FC provides 1000 watts of power, combining efficiency with reliability. Its user-friendly interface allows for straightforward operation, while its lightweight design makes it convenient for users on the go. Like its counterparts, the PV 1000FC features surge protection and a built-in fan to maintain optimal operating temperatures.

All these models utilize advanced technologies to ensure efficient power conversion and safety. They are built with durable materials suitable for demanding environments and incorporate features like LED indicators for easy monitoring. Whether for recreational use or emergency backup, Tripp Lite’s inverters are designed to meet diverse power requirements while maintaining high standards of quality and reliability. With their varying capacities and robust features, the PV series inverters make excellent choices for users needing dependable AC power from DC sources.
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