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Lithium Iron Phosphate Batteries

Lithium iron phosphate batteries convince through high current capability with high safety in combination with high cycle stability. They are particularly durable and safe.

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Lithium Iron Phosphate Batteries
Type
Volt­age (V)
Ca­pac­ity (mAh)
Enegery (Wh)
Size (mm)
HWL
 
LFP1207
12.80
7
90
95.065.0151.0
 
Type
LFP1207
Volt­age (V)
12.80
Ca­pac­ity (mAh)
7
Enegery (Wh)
90
Size (mm)
H, W, L
95.065.0151.0
LFP1210
12.80
10
128
95.065.0151.0
 
Type
LFP1210
Volt­age (V)
12.80
Ca­pac­ity (mAh)
10
Enegery (Wh)
128
Size (mm)
H, W, L
95.065.0151.0
LFP1212
12.80
12
154
95.098.0151.0
 
Type
LFP1212
Volt­age (V)
12.80
Ca­pac­ity (mAh)
12
Enegery (Wh)
154
Size (mm)
H, W, L
95.098.0151.0
LFP1216
12.80
16
205
95.098.0151.0
 
Type
LFP1216
Volt­age (V)
12.80
Ca­pac­ity (mAh)
16
Enegery (Wh)
205
Size (mm)
H, W, L
95.098.0151.0
LFP1220
12.80
20
256
167.075.5181.0
 
Type
LFP1220
Volt­age (V)
12.80
Ca­pac­ity (mAh)
20
Enegery (Wh)
256
Size (mm)
H, W, L
167.075.5181.0
LFP1230
12.80
30
384
157.0130.0195.0
 
Type
LFP1230
Volt­age (V)
12.80
Ca­pac­ity (mAh)
30
Enegery (Wh)
384
Size (mm)
H, W, L
157.0130.0195.0
LFP1250
12.80
50
640
209.0138.0228.0
 
Type
LFP1250
Volt­age (V)
12.80
Ca­pac­ity (mAh)
50
Enegery (Wh)
640
Size (mm)
H, W, L
209.0138.0228.0
LFP12100
12.80
100
1,280
212.0172.0328.0
 
Type
LFP12100
Volt­age (V)
12.80
Ca­pac­ity (mAh)
100
Enegery (Wh)
1,280
Size (mm)
H, W, L
212.0172.0328.0
LFP12200
12.80
200
2,560
218.0240.0522.0
 
Type
LFP12200
Volt­age (V)
12.80
Ca­pac­ity (mAh)
200
Enegery (Wh)
2,560
Size (mm)
H, W, L
218.0240.0522.0

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Lithium iron phosphate batteries are a type of lithium ion battery with a cell voltage of 3.2 V or 3.3 V. Lithium iron phosphate (LiFePO4) is used as cathode material in place of conventional lithium cobalt oxide (LiCoO2). The anode is made of graphite or hard carbon with intercalated lithium. LiFePO4 was first used in 1997 as cathode material for lithium ion batteries. It replaces the commonly used lithium cobalt cathode. The main reasons to use it as a replacement are improved environmental performance and higher reliability. The main applications of this technology include military, electric mobility, storage, and mobile devices with a focus on safety, such as in medical technology.

The charging end voltage is generally at 3.6 to 3.65 Volts, the discharge voltage is between 2.8 to 2.5 volts. The high cycle stability of this system is especially advantageous, it significantly exceeds the possible number of cycles of conventional lithium ion batteries with 1000 to 2000 cycles. Moreover, very high charge and discharge currents are possible. Unlike traditional lithium ion cells with lithium cobalt oxide (LiCoO2), no oxygen will be released in the event of an error. This can cause thermal leakage in other types of lithium-ion batteries, which can result in the burning of the cell under adverse conditions. This is less likely with lithium iron phosphate batteries. One disadvantage on the other hand is the lower voltage and lower energy density. This ultimately results in greater battery packs.