Renogy Lite Power 600W Off-grid Solar Kit
Power your off-grid adventures with a cost-efficient kit. Safe. Hassle-free. High efficiency.
Advanced Solar Cells for Enhanced Efficiency
Built with Grade A+ solar cells, this panel maximizes efficiency with 9 busbars for enhanced conductivity and PERC technology for improved light reflection.

Secure and Durable Packaging
Renogy panels are securely packaged with extra-thick corrugated cardboard and foam L-brackets on all four corners, ensuring maximum protection during shipping.

Proven Reliability and Performance
Extensively tested for quality and dependability, this panel is certified for hail resistance, mechanical load endurance, and thermal stability, delivering consistent power output you can trust.

Quick and Easy Mounting
Pre-drilled holes on the back of the panel ensure quick, hassle-free installation and seamless compatibility with a range of Renogy mounting systems.

Resilient Across Weather Conditions
The IP65 junction box shields against environmental particles and low-pressure water jets, while IP67 waterproof solar connectors prevent water and dust infiltration, ensuring durability in extended outdoor use.
Power Simplified, Performance Amplified
Experience advanced solar charging with the Rover Lite 60A MPPT Charge Controller. Designed for efficiency and affordability, it delivers a compact yet powerful solution.

Maximize Efficiency with Exceptional Value
This 60A charge controller delivers 99% MPPT tracking efficiency and 97% conversion efficiency, maximizing your solar power output. With high-performance features at an affordable price, it offers exceptional value for budget-conscious users.

85% Lower Self-Consumption
With an ultra-low self-consumption of only 0.18W in 12V systems—far less than the 0.7W of other charge controllers—this MPPT solar charge controller maximizes energy efficiency by directing more solar power to charge your batteries.

Store Up to 2 Years of Data
Connect the Rover Lite 60A MPPT charge controller to the BT-2 Bluetooth module to monitor performance and store up to two years of data, giving you easy access to historical records and system adjustments.

Simple Controls and Clear Info
With intuitive built-in buttons and a clear LCD screen, this solar controller allows you to easily access and monitor real-time charging data with just a glance.
Engineered for Any Battery Configuration
This kit is compatible with all battery types and supports 12V, 24V, 36V, and 48V system voltages.
Power Your Home with Ease and Affordability
Say goodbye to complex setups—this all-in-one solar kit provides reliable power for your home, cabin, or backup needs. Simplify off-grid living today!
Easy-to-Follow Wiring Diagram
Simplify your solar installation with this clear, step-by-step wiring guide.
Package Includes
Renogy Lite Power 600W Off-grid Solar Kit
Rover Lite 12V/ 24V/ 36V/ 48V 60A MPPT Solar Charge Controller
x 1
Renogy 200 Watt 12 Volt Monocrystalline Solar Panel
x 3
Solar Panel to Charge Controller Adaptor Kit
x 1
2ft ANL Fuse Cable with Double Ring Terminals
x 1
Battery to Charge Controller Tray Cables for 3/8 in Lugs
x 2
Solar Panel Mounting Z Bracket -- Set of 4
x 3
Solar Connector Waterproof In-Line Fuse Holder w/ Fuse
x 1
80A ANL Fuse Set w/ Fuse
x 1
BT-2 Bluetooth Module
x 1
Rover Lite 12V/ 24V/ 36V/ 48V 60A MPPT Solar Charge Controller
General Data
Grounding
Common Negative
Communication
RS485
Full Load Operating Temperature
-31℉~113℉ /-35 ℃ ~65℃
Storage Temperature
-40℉~176℉ /-40 ℃~ 80℃
Enclosure Rating
IP32
Dimensions (LxWxH)
305 x 205 x 99 mm / 12.01 x 8.07 x 3.90 inch
Weight
3.5 kg /7.71 lb
Regulatory and Safety Specifications
FCC Path 15, Class B,CE,RoHS
Charger Data
System Voltage
Non-Lithium: 12VDC / 24 VDC / 36 VDC /48 VDC (Auto Recognition)
Battery Input Voltage Range
9VDC~64VDC
Rated Charge Current
60A
Maximum Solar Input Power
900 W (12V Battery);1800W (24V Battery);2000 W (36V Battery);3200W (48V Battery)
Maximum Solar Input Voltage (Voc)
150VDC
MPPT Tracking Efficiency
>99%
Conversion Efficiency
>97%
Charger Preset
AGM, Gel, Flooded, Lithium-iron Phosphate, User Custom
Renogy 200 Watt 12 Volt Monocrystalline Solar Panel
Max Power at STC
200W
Open Circuit Voltage
23V
Short Circuit Current
11.05A
Optimum Operating Voltage
19.2 V
Optimum Operating Current
10.42 A
Operating Temperature
-40°F~194°F / -40℃~90℃
Maximum System Voltage
600 VDC UL
Maximum Series Fuse Rating
20A
Output Cable
13 AWG (2.6 ft long)
Dimensions
58.7 x 27.5 x 1.38 in / 1491 x 699 x 35mm
Weight
26.46 lb (12 kg)
Junction Box
IP65
Frequently Asked Questions
What do I need to complete my off-grid solar power system ?
A solar panel has to be connected to a charge controller to regulate current, and a battery to store the electrical power. You will need adapter kit cables to wire the solar panel(s) and charge controller, and tray cables connecting the charge controller to a deep-cycle battery.
What does off-grid and on-grid mean ?
On-grid simply means solar power equipment (array or solar panel) is connected to the electrical grid, while off-grid refers to systems that are not connected to the grid and therefore store the generated power for later use. Off-grid systems are not affected by grid blackouts.
Why is my solar panel under producing ?
Solar panel performance may be hindered for a number of reasons. Most commonly environmental conditions such as indirect sunlight, temperature rise, cloudy sky, and dirt and stain build up on the top glass will cause a reduced power output.
How should I connect solar panels in my electrical circuit (series vs parallel)?
Solar panels can be connected in series or in parallel to meet your electrical circuit size and power demand. Connecting solar panels in series will have the effect of adding up their operating voltage output, while system current output will be the same as that for one panel. While, connecting solar panels in parallel will have a different effect; individual panels operating current output will add up to be the system output current, while system output voltage will be the same as the output voltage of one solar panel. To meet the optimum power output and system rating for your power system, you can use both parallel and series connections.
How many solar panels do I need ?
The best way to gauge how many solar panels you need, is to understand and define the power load needed from this system. Power is measured in Watts, and capacity is commonly measured in Watt-hours (multiplying power output in watts by the required number of hours of operation multiplied by a safety factor of 1.5-2). Therefore, it is wise to size your battery bank first based on the minimum required capacity, and accordingly decide how many panels or how much power input is needed.
Can I add more solar panels to the Rover 40A and expand my system power output?
Yes, more solar panels can be added to this system to increase the power output. The Rover 60A has a maximum PV input current of 60A, the maximum input voltage is 150VDC at 25℃ and 140VDC at -25℃, and maximum input solar power of 800W at 12V or 1600W at 24Vor 2400W at 36V or 3200W at 48V. You can wire more solar panels in series / in parallel to achieve larger power output, however you are limited by the maximum input voltage and current the charge controller can handle. It is safer to build a system operating at around 90% of the rated voltage and current to ensure there is a tolerance for any system overvoltage or overcurrent.
Will this solar kit power my AC unit ?
In order to determine what size solar kit is appropriate, you must first define the total load to be expected of the solar power system. Most manufacturers will publish a specification sheet of the AC unit online and will include a nameplate sticker on the AC body. Both can be used to determine the actual power rating of the AC. BTU is a common measuring unit for energy in AC and water heater products, however we are intrested in the energy rate, or simply power. Power will be listed in units of Watts, and can be used to determine the total load resulting from running the intended AC unit. Multiply the power rating recorded in watts by the total number of hours of operation intended, to obtain the total watt-hours. Divide the total watt-hours by the peak sun hours in the location of installation, and multiply by a safety factor of 1.5-2, to obtain the total number of watts your panels should produce to power the air conditioner load. The total power load can be divided by the power output of one panel to obtain the number of panels needed.
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