- Lithium Golf Cart Battery
- Forklift Lithium Battery
-
48V
- 48V 210Ah
- 48V 300Ah
- 48V 420Ah (949 x 349 x 569 mm)
- 48V 420Ah (950 x 421 x 450 mm)
- 48V 456Ah
- 48V 460Ah (830 x 630 x 590 mm)
- 48V 460Ah (950 x 421 x 450 mm)
- 48V 460Ah (800 x 630 x 600 mm)
- 48V 460Ah (820 x 660 x 470 mm)
- 48V 500Ah
- 48V 560Ah (810 x 630 x 600 mm)
- 48V 560Ah (950 x 592 x 450 mm)
- 48V 600Ah
- 48V 630Ah
-
48V
- 12V Lithium Battery
12V 150Ah Lithium RV Battery
Bluetooth App | BCI Group 31
LiFePO4 Lithium
Discharge Temperature -20°C ~ 65°C
Fast Charger 14.6V 50A
Solar MPPT Charging - 24V Lithium Battery
- 36V Lithium Battery
- 48V Lithium Battery
-
48V LiFePO4 Battery
- 48V 50Ah
- 48V 50Ah (for Golf Carts)
- 48V 60Ah (8D)
- 48V 100Ah (8D)
- 48V 100Ah
- 48V 100Ah (Discharge 100A for Golf Carts)
- 48V 100Ah (Discharge 150A for Golf Carts)
- 48V 100Ah (Discharge 200A for Golf Carts)
- 48V 150Ah (for Golf Carts)
- 48V 160Ah (Discharge 100A for Golf Carts)
- 48V 160Ah (Discharge 160A for Golf Carts)
-
48V LiFePO4 Battery
- 60V Lithium Battery
-
60V LiFePO4 Battery
- 60V 20Ah
- 60V 30Ah
- 60V 50Ah
- 60V 50Ah (Small Size / Side Terminal)
- 60V 100Ah (for Electric Motocycle, Electric Scooter, LSV, AGV)
- 60V 100Ah (for Forklift, AGV, Electric Scooter, Sweeper)
- 60V 150Ah (E-Motocycle / E-Scooter / E-Tricycle / Tour LSV)
- 60V 200Ah (for Forklift, AGV, Electric Scooter, Sweeper)
-
60V LiFePO4 Battery
- 72V~96V Lithium Battery
- Rack-mounted Lithium Battery
- E-Bike Battery
- All-in-One Home-ESS
- Wall-mount Battery ESS
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Home-ESS Lithium Battery PowerWall
- 24V 100Ah 2.4kWh PW24100-S PowerWall
- 48V 50Ah 2.4kWh PW4850-S PowerWall
- 48V 50Ah 2.56kWh PW5150-S PowerWall
- 48V 100Ah 5.12kWh PW51100-F PowerWall (IP65)
- 48V 100Ah 5.12kWh PW51100-S PowerWall
- 48V 100Ah 5.12kWh PW51100-H PowerWall
- 48V 200Ah 10kWh PW51200-H PowerWall
- 48V 300Ah 15kWh PW51300-H PowerWall
PowerWall 51.2V 100Ah LiFePO4 Lithium Battery
Highly popular in Asia and Eastern Europe.
CE Certification | Home-ESS -
Home-ESS Lithium Battery PowerWall
- Portable Power Stations
How to Properly Configure Batteries for a 3000W Inverter Power and Surge
Configuring batteries for a 3000W inverter involves understanding power requirements, calculating necessary capacity, and selecting appropriate battery types. Proper configuration ensures reliable power delivery, especially during surge conditions when appliances require more energy at startup. This guide will help you set up your system effectively.
What are the power requirements for a 3000W inverter?
A 3000W inverter is designed to convert DC power from batteries into AC power suitable for household appliances and tools. It typically requires:
- Continuous Power:Â 3000 watts.
- Surge Power:Â Up to 6000 watts during startup of certain devices.
Understanding these requirements is crucial for configuring your battery system to handle both continuous and surge loads effectively.
Chart: Power Requirements Overview
Inverter Power Rating | Continuous Power (W) | Surge Power (W) |
---|---|---|
3000W | 3000 | 6000 |
How do you calculate the necessary battery capacity for a 3000W inverter?
To determine the required battery capacity:
- Calculate Total Watt-Hours Needed:Â Multiply the inverter’s continuous wattage by the number of hours you plan to use it.
Total Watt Hours=Inverter Power W ×Hours of Use
- Convert to Amp-Hours: Divide the total watt-hours by the nominal voltage of your battery system (typically 12V, 24V, or 48V).
Amp Hours=Total Watt HoursBattery Voltage
For example, if you plan to run a 3000W inverter for 3 hours on a 24V system:
Total Watt Hours=3000×3=9000WhÂ
Amp Hours=9000/24=375AhÂ
Chart: Battery Capacity Calculation Example
Usage Duration (Hours) | Total Watt-Hours | Required Amp-Hours (at 24V) |
---|---|---|
1 | 3000 | 125 |
3 | 9000 | 375 |
5 | 15000 | 625 |
What is the importance of understanding surge power?
Surge power is critical because many appliances require extra energy during startup, which can be significantly higher than their running wattage. For instance:
- A motor may require 2 to 3 times its rated running wattage at startup.
Understanding surge requirements ensures that your battery system can handle these temporary spikes without causing voltage drops or damaging equipment.
Chart: Surge Power Considerations
Device Type | Typical Surge Power (W) |
---|---|
Electric Motors | Up to 3x rated power |
Refrigerators | Up to 2x rated power |
Power Tools | Up to 4x rated power |
How do you choose the right battery type for your inverter system?
When selecting batteries, consider:
- Battery Chemistry:Â Common options include lead-acid (AGM, flooded) and lithium-ion (LiFePO4). Lithium-ion batteries offer higher energy density and longer cycle life but are more expensive.
- Discharge Rate:Â Ensure that the chosen battery can handle both continuous and surge demands without significant voltage drop.
- Cycle Life:Â Look for batteries with longer cycle lives if you plan frequent deep discharges.
Chart: Battery Types Comparison
Battery Type | Lifespan (Cycles) | Weight (kg/kWh) | Cost ($/kWh) |
---|---|---|---|
Lead-Acid | 300 – 500 | 20 – 30 | Low |
Lithium-Ion | >2000 | 6 – 8 | High |
What are the differences between series and parallel battery configurations?
When configuring batteries, you can connect them in either series or parallel:
- Series Configuration: Increases voltage while keeping amp-hour capacity constant. For example, connecting two 12V batteries in series results in a 24V system.
- Parallel Configuration: Increases amp-hour capacity while maintaining voltage. For instance, connecting two 12V batteries in parallel provides 12V with double the amp-hour capacity.
Chart: Series vs. Parallel Configuration
Configuration Type | Voltage Output | Amp-Hour Capacity |
---|---|---|
Series | Increases | Constant |
Parallel | Constant | Increases |
How can you ensure safe and efficient battery connections?
To maintain safety and efficiency:
- Use Proper Gauge Wiring:Â Ensure that wires are thick enough to handle current without overheating.
- Secure Connections:Â Use terminal connectors that are tightly secured to prevent arcing or resistance.
- Fuses and Circuit Breakers:Â Install fuses or circuit breakers on each connection to protect against overloads.
Chart: Recommended Wire Gauge by Current
Current (Amps) | Recommended Wire Gauge |
---|---|
Up to 30 | AWG 10 |
Up to 50 | AWG 8 |
Up to 100 | AWG 6 |
What maintenance practices should be followed for battery longevity?
To ensure your batteries last as long as possible:
- Regular Inspections:Â Check connections, terminals, and overall condition periodically.
- Keep Batteries Charged:Â Avoid deep discharges; recharge promptly after use.
- Clean Terminals:Â Keep terminals free from corrosion using a mixture of baking soda and water.
Chart: Maintenance Schedule
Maintenance Task | Frequency |
---|---|
Inspect Connections | Monthly |
Clean Terminals | Every Few Months |
Check Charge Levels | Weekly |
Industrial News
Recent developments in inverter technology have led to more efficient systems capable of handling higher loads with improved safety features. Manufacturers are focusing on integrating smart technology that allows users to monitor performance in real-time, ensuring optimal configurations for various applications, including renewable energy systems and mobile setups.
Redway Power Insight
Proper configuration of your battery system is crucial for maximizing efficiency and ensuring safety,” states an expert from Redway Power. “By understanding your power requirements and following best practices in setup and maintenance, users can significantly enhance performance while prolonging battery life.”