Emergency Lighting Lithium Iron Phosphate Battery 14505 3.2V 600mAh
Product Parameters:
| Pos. |
Product Parameters |
Data |
| 1 |
Standard Charge Mode |
CC/CV |
| 2 |
Cycle Life |
≥2000 times |
| 3 |
Operating Temperature |
Charge:(0℃)-(45℃)
Discharge(-20℃) - (+60℃)
|
| 4 |
Storage Temperature |
(-20℃) - (+25℃) |
| 4 |
Expected Life |
10 years |
| 5 |
Cell Dimension |
14(W), 50.5(H)mm |
| 6 |
Cell Weight |
≈8.5g |
| 7 |
Packaging |
Standard export package or customized package |
What is the cost of using lithium iron phosphate (LFP) batteries in emergency lighting?
Lithium iron phosphate is very cost effective as an emergency lighting power source compared to alternatives such as NiCd. This applies to its acquisition cost, operating cost and maintenance cost.
-- Acquisition Costs For more than four years, the acquisition cost of lithium iron phosphate (LFP) batteries for emergency lighting has been lower than the cost of NiCd batteries. When compared on a capacity (Ah) basis, lithium iron phosphate batteries are more expensive than NiCd batteries. However, because the performance of NiCd batteries degrades relatively quickly during their service life, more batteries are needed to provide the expected 3-hour duration after 4 years of use. In addition, LFP cells are expected to last twice as long as NiCd cells, so the acquisition cost of LFPs is lower than NiCd over 4 years or more.
--Operating Costs. Lithium iron phosphate (LFP) batteries are the most economical batteries for emergency lighting. This is because the primary replacement for NiCd batteries has a high self-discharge rate (about 20% per month) and therefore must be constantly recharged to be ready in the event of a power outage. In contrast, LFPs have a much lower self-discharge rate, which means that the charger can only be used for a short time every month or two. Based on tests conducted using commercially available emergency bulkhead accessories with NiCd and LFP batteries, the following power consumption data was recorded.
LED emergency bulkheads were used to compare the power consumption of NiCd and LiFePO4 batteries.
In summary, the use of LFPs instead of NiCd in popular emergency light fittings resulted in >40% power savings.
On the financial side, assuming an electricity price of £0.145 per kWh, the savings are £2.25 per emergency light fitting per year.
--Maintenance costs. Lithium iron phosphate (LFP) is less expensive to maintain than alternatives such as NiCd. This is because the NiCd batteries used in emergency lighting are typically designed to last only 4 years. Comparable lithium iron phosphate batteries have an expected life of 8-10 years.
Performance Curves of LiFePO4 Cell:
1. LiFePO4 Cell Charge Curve (Charge at 0.1C)
2. LiFePO4 Cell Discharge Curve (Discharge at 0.2C )
3. LiFePO4 Cell Charge Efficiency At Different Temperature
4. LiFePO4 Cell Cycle Life Curve
5. LiFePO4 Cell Capacity Change At Smart Floating Charge At 55 degree
FAQ:
Q1:Are these new cells?
yes 100% ,factory direct.
Q2: Are you a trading company or manufacturer?
A: We are globally trusted supplier and manufacturer of emergency lighting battery, emergency lighting products, whose batteries range covers Ni-Cd, Ni-MH, LiFePO4,, Lion-polymer and other relevant lithium batteries.
Q3: Can you do OEM?
A: Yes, OEM is acceptable. You can provide the detailed specification requirements to us, our engineers can design the most suitable battery solution for you.
Q4:Where can I get the price?
A: Please Click Contact Now or Request a Quote. We will offer you the best quote in 24 hours after we get the product specifications such as voltage capacity application etc.
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