Performance comparison of our battery systems
Depending on the battery system variant selected, the maximum power output (Watt) and the stored energy (kWh) differ. We have compiled several tables below so that you can get an overview of how long the respective battery system can supply the consumers mentioned with electricity.
In order to be able to better imagine the stored energy of the battery system, here is a short example for your understanding: With a 48v battery system with a capacity of 14.3kWh (14. 336 Wattstunden) can theoretically provide an output of 14. 336 watt until the battery is empty. This continues analogously, i. H you can also draw 1433 watts for 10 hours or 143 watts for 100 hours or 14.3 watts for 1000 hours.
Example: An LED lamp with a consumption of 9W (corresponds to a 60W light bulb) can be operated with a battery system with 48v 280Ah (i.e. 14. 336 watt hours) can be operated as follows:
14. 336 Wh / 9W = 1592 hours = 66 days = approx. 2 months
Typical areas of application for our battery systems are e.g. B :
Storage for solar systems, balcony power plants, mobile homes/campers, boats with electric motors, vehicles with electric motors (e.g. B golf cart or e-mobile), mobile storage (e.g. B festival), uninterruptible power supplies and many other applications
| Battery system | Capacity | Discharge/charge power |
|
12v 280Ah |
3.58kWh = 3584Wh | 2560 watts |
|
12v 560Ah |
7.16kWh = 7168Wh | 2560 watts |
| 24v 280Ah | 7.16kWh = 7168Wh | 5120 watts |
| 24v 560Ah | 14.34kWh = 14336Wh | 5120 watts |
| 48v 280Ah | 14.34kWh= 14336Wh | 10240 watts |
The higher the voltage of the battery system, the higher the possible power output or Power consumption of the battery system.
Depending on the battery system variant selected, the maximum power output (Watt) and the stored energy (kWh) differ. We have compiled several tables below so that you can get an overview of how long the respective battery system can supply the consumers mentioned with electricity.
In order to be able to better imagine the stored energy of the battery system, here is a short example to help you understand it: With a 48v battery system with a capacity of 14.3kWh (14,336 Watt hours), it can theoretically last for one hour a power of 14,336 Watt can be removed until the battery is empty. This continues analogously, i. H. you can also draw 1433 watts for 10 hours or 143 watts for 100 hours or 14.3 watts for 1000 hours.
Example: An LED lamp with a consumption of 9W (equivalent to 60W light bulb) can be operated with a battery system with 48v 280Ah (i.e. 14,336 watt hours) as follows:
14,336 Wh / 9W = 1592 hours = 66 days = approx. 2 months
Typical areas of application for our battery systems are e.g.:
Storage for solar systems, balcony power plants, mobile homes/campers , boats with electric motors, vehicles with electric motors (e.g. golf carts or e-mobiles), mobile storage (e.g. festivals), uninterruptible power supplies and many other applications
| Battery system | Capacity | Discharge/charge power |
|
12v 280Ah |
3.58kWh = 3584Wh | 2560 watts |
|
12v 560Ah |
7.16kWh = 7168Wh | 2560 watts |
| 24v 280Ah | 7.16kWh = 7168Wh | 5120 watts |
| 24v 560Ah | 14.34kWh = 14336Wh | 5120 watts |
| 48v 280Ah | 14.34kWh= 14336Wh | 10240 watts |
The higher the voltage of the battery system, the higher the possible power output or power consumption of the battery system.
battery system 12v 280Ah
Stored energy: 3.58kWh (3580 watt hours)
Maximum power: 2560 watts
| Consumer | Operating time |
|
iPhone 13 |
300 full charges |
| Samsung Galaxy S22 | 262 full charges |
|
LED lamp 9W (equivalent to 60W incandescent bulb) |
398 hours, equals 17 days continuously |
|
Samsung TV (32 inch, GU32T5379) |
109 hours |
| Travel hair dryer 1200W |
3 hours |
| Laptop 45W | 80 hours |
| Siemens refrigerator KG39NXIDR iQ300 191kWh/year | 7 days |
| 1.7L Braun kettle with 3000Watt | 21.5 times |
battery system 12v 560Ah single row and double row
Stored energy: 7.17kWh (7168 watt hours)
Maximum power: 2560 watts
| Consumer | Operating time |
|
iPhone 13 |
600 full charges |
| Samsung Galaxy S22 | 524 full loads |
|
LED lamp 9W (equivalent to 60W incandescent bulb) |
796 hours, corresponds to 33 days continuously |
|
Samsung TV (32 inch, GU32T5379) |
217 hours |
| Travel hair dryer 1300W |
6 hours |
| Laptop 45W | 159 hours |
| Siemens refrigerator KG39NXIDR iQ300 191kWh/year | 13 days |
| 1.7L Braun kettle with 3000Watt | 43 times |
battery system 24v 280Ah single row and double row
Stored energy: 7.17kWh (7168 watt hours)
Maximum power: 5120Watt
| Consumer | Operating time |
|
iPhone 13 |
600 full charges |
| Samsung Galaxy S22 | 524 full loads |
|
LED lamp 9W (equivalent to 60W incandescent bulb) |
796 hours, corresponds to 33 days continuously |
|
Samsung TV (32 inch, GU32T5379) |
217 hours |
| Travel hair dryer 1300W |
6 hours |
| Laptop 45W | 159 hours |
| Siemens refrigerator KG39NXIDR iQ300 191kWh/year | 13 days |
| 1.7L Braun kettle with 3000Watt | 43 times |
battery system 24v 560Ah
Stored energy: 14.3kWh (14336 watt hours)
Maximum power: 5120Watt
| Consumer | Operating time |
|
iPhone 13 |
1201 complete charges |
| Samsung Galaxy S22 | 1047 full charges |
|
LED lamp 9W (equivalent to 60W incandescent bulb) |
1593 hours, corresponds to 66 days continuously |
|
Samsung TV (32 inch, GU32T5379) |
434 hours |
| Travel hair dryer 1300W |
almost 11 hours |
| Laptop 45W | 319 hours |
| Siemens refrigerator KG39NXIDR iQ300 191kWh/year | 27 days |
| 1.7L Braun kettle with 3000Watt | 86 times |
battery system 48v 280Ah
Stored energy: 14.3kWh (14336 watt hours)
Maximum power: 10240Watt
| Consumer | Operating time |
|
iPhone 13 |
1201 complete charges |
| Samsung Galaxy S22 | 1047 full charges |
|
LED lamp 9W (equivalent to 60W incandescent bulb) |
1593 hours, corresponds to 66 days continuously |
|
Samsung TV (32 inch, GU32T5379) |
434 hours |
| Travel hair dryer 1300W |
almost 11 hours |
| Laptop 45W | 319 hours |
| Siemens refrigerator KG39NXIDR iQ300 191kWh/year | 27 days |
| 1.7L Braun kettle with 3000Watt | 86 times |
The calculations listed above are theoretical and do not take into account losses that can occur, for example, when converting DC voltage to AC voltage. The values should serve as a guide and for the design of your own battery system . All information without guarantee.
If you have any questions or suggestions, you are welcome to here using our contact form or at kontakt@lifepo.dereach.
B can occur when converting DC voltage to AC voltage. The values should serve as a guide and for the design of your own battery system. All statements without guarantee.
If you have any questions or suggestions, you are welcome to here using our contact form or at kontakt@lifepo. de reach .
