View a PDF Datasheet of the Complete Series.

FEATURES
Highest power rating with long life – Standard parts stocked*
APPLICATIONS
Wearable electronic & IoT devices – Memory backup circuits
Nominal Voltage
Operating Temperature
Range
3.7VDC (4.2VDC to 3.0VDC)
-20°C to +60°C
-20°C to +60°C (one month)
-20°C to +40°C (up to 3 months)
-20°C to +25°C (up to 1 year)
See part listing 0.2C rate, 3.0V cut-off
See part listing 0.2C rate, 3.0V cut-off
4.2VDC + 0.03V
0.5CA
< 3.0 hours
Constant Current/ Constant Voltage (CCCV)
0.2CA
2CA
3.0V
Graphite
Lithium nickel manganese cobalt oxide
Storage Temperature
Range
Storage Capacity
Nominal
Minimum
Charging Voltage
Charging current
Charging Time
Charging method
Discharge Current
Standard
Maximum
Discharge Cut-off Voltage
Anode
Cathode
Standard Part Listing
Capacity
(mAh)
Discharge
Maximum
Maximum
Current
Internal
Weight
Diameter
(mA)
Resistance
(G)
(mm)
Nom. Min.
(mΩ)
STD
MAX
RJD2032C1
85
80
40
16
160
600
3.4
20
RJD2048
120
110
60
24
240
700
4.2
20.
RJD2430C1
110
104
55
22
220
500
4.5
24.5
RJD2440
150
140
75
30
300
700
5.4
24.5
RJD2450
200
190
100
40
400
500
6.5
24.5
RJD3032*
200
190
100
40
400
600
7.2
30
RJD3048*
300
290
150
60
600
400
9.3
30
RJD3555*
500
490
250
100
1000
200
14
35.2
* Additional stocked standard cells with PCM (protection circuit module) & connector
RJD3032HPPV30M
RJD3048HPPV30M
D3555HPPV30M
IC
Part
Number
Charging
Current
(mA)
Height
(mm)
3.5
5.0
3.15
4.3
5.4
3.4
4.8
5.7
Termination Styles
Bare Cell - (Standard)
Style - T0
Style - ST1
Style - T1
Style - SP8
Style - ST9
Style - SP9
Style - WL
Style - ST8
Style - T9
Style – SW
Style - HP
Contact IC if other termination type is preferred
Part Numbering
RJD 2032C1
Section 1
AAA
Section 2
BBB
Section 3
CCC
Section 4
D
Section 5
Section 1 – IC standard part number (Bare cell)
Section 2 – Optional lead style (see above options)
HP lead style can be supplied with a PCM (Protection Circuit Module).PCM is recommended.
PCM Type: Powerlogics part # RJD9901 (see Protection Circuit Module section for complete specifications).
PCM
Included
with
Connector
P
Connector
without
PCM
N
Section 3 - Wire gauge if other than #30AWG (Standard)
AWG Code AWG Code AWG
12
A
16
E
20
13
B
17
F
21
14
C
18
G
22
15
D
19
H
23
Contact IC if other wire gauge is desired.
Code
J
K
L
M
AWG
24
25
26
27
Code
N
P
Q
R
AWG
28
29
30
31
Section 4 – Lead Length. Specify lead length in mm.
Section 5 – Connector option (types SW and HP)
IC Code
M
J
Connector
Manufacturer
Molex
JST
Connector
Part Number
51021-0200
ACHR-02V-S
Code
T
U
V
W
AWG
32
33
34
35
Code
X
Y
Z
O
Markings
Standard (bare cells)
Non-Standard Terminations
Cell Dimensions
Fresh Cell
IC
Part
Number
RJD2032C1
RJD2048
RJD2430C1
RJD2440
RJD2450
RJD3032
RJD3048
RJD3555
Shipping (Charged)
Maximum Maximum
Diameter
Height
(mm)
(mm)
20
3.5
20
5
24.5
3.15
24.5
4.3
24.5
5.4
30
3.4
30
4.8
35.2
5.7
Full Charge
Maximum Maximum
Diameter
Height
(mm)
(mm)
20
3.6
20
5.2
24.5
3.25
24.5
4.4
24.5
5.5
30
3.5
30
4.9
35.2
5.8
Cycled cell
(after 500 cycles)
Full Charge
Maximum Maximum
Diameter
Height
(mm)
(mm)
20
3.7
20
5.3
24.5
3.3
24.5
4.5
24.5
5.6
30
3.6
30
5.2
35.2
5.9
Protection Circuit Module
(RJD 9901)
(Optional for HP lead style)
-
Specification
RJD 9901
Main IC
SP31ABE
PCB
SALTEK, APEX
FET
X
PTC
MicroSMD175F-2
(TE)
L terminal
X
Capacitor
2Point
Resistor
2Point
Dimension(L*W*T)
16.9*3.9*2.0mm
Wake-up Function
NO
Overcharge Detection
Voltage
4.275V ± 25mV
Overcharge Detection
Delay Time
700.0mSec ~ 1300mSec
Specification
Over-Discharge
Detection Voltage
Over-Discharge
Detection Delay Time
Over-Discharge
Current Detection
Overcharge Current
Detection
Over-Discharge
Current Protection
Delay Time
Short Detection
Delay Time
PCM Impedance
Operation Current
Consumption
Power-Down Mode
Current Consumption
Distance Between
B+, B- Tab
RJD 9901
2.242V~2.358V
14.0mSec~26.0mSec
1.2 ~ 4.0A
0.9A ~ 4.4A
8.0mSec ~ 16.0mSec
100μs ~ 500μs
< 220mΩ
Max 6.0μA(TYP 4.0μA)
Max 0.1μA
13.93mm
Battery Operation Instruction:
Charging
a. Charge the battery in a temperature range of 0°C to + 45°C.
b. Charge the battery at a constant current of 0.5C until 4.20VDC±0.03VDC per cell is attained. Charge rates greater
than 1C are NOT recommended. (C: Rated Capacity of Battery)
c. Maintain charge voltage at 4.20VDC per cell for 3.0 hours (recommended for maximum capacity).
* Use a constant current, constant voltage (CC/CV) lithium-ion (Li+) battery charge controller.
* Do not continue to charge battery over specified time.
Discharging
a. Recommended cut-off voltage to 3.0VDC. Recommended maximum discharge rate is 2C at constant current.
b. For maximum performance, discharge the battery in a temperature range of –20°C to + 45°C.
Protection Circuit
Protection circuit can be provided upon request. However, protection circuit may be omitted for most applications
without damaging performance and safety. Please consult our engineering staff for technical advice.
Storage Recommendations
a. Storage Temperature and Humidity
Storage the battery at temperature range of –20 ~ +45°C, low humidity and no corrosive gas atmosphere
No condensation on the battery.
b.
Long Period Storage
In case of long period storage (more than 3 months), storage the battery at temperature range of –20 ~ +25°C, low
humidity, no corrosive gas atmosphere.
Standard Test Conditions
Unless otherwise specified, all tests are conducted at 25°C + 3°C and relative humidity of
65% + 20%.
Electrical Characteristics
Standard Charge and Discharge Conditions
A. The "Standard Charge" means charging the Cell with initial charge current (0.5C) and
with a constant voltage of 4.2VDC (+ 0.03VDC) and the specified cut-off current (see table
1) at 25°C for 3 hours.
B. Standard discharge means discharging cell with constant discharge current (0.2C)(see
table 1) and with 3.0VDC cut-off voltage at 25°C
C. Initial Discharge Capacity
D. The initial capacity measured under the standard test conditions
E. Initial Discharge Capacity: See standard part listing
F. Initial Internal Impedance: see standard part listing
G. Internal resistance measured at 1 kHz after Standard Charge.
H. Initial internal impedance: See standard part listing
I. Cycle Life (500 cycles): See table 1
J. Temperature dependence of discharge capacity. See discharge table.
K. Relative capacity at each temperature measured with a constant discharge current (0.2C) with
3.0VDC cutoff after the standard charge shown below
Discharge Table
IC
Part
Number
RJD2032C1
RJD2048
RJD2430C1
RJD2440
RJD2450
RJD3032
RJD3048
RJD3555
Discharge Temperature
-20°C
-10°C
25°C
60°C
>60 %
>60 %
>60 %
>60 %
>60 %
>60 %
>60 %
>60 %
>80%
>80%
>80%
>80%
>80%
>80%
>80%
>80%
100 %
100 %
100 %
100 %
100 %
100 %
100 %
100 %
>95%
>80%
>95%
>80%
>80%
>80%
>80%
>80%
Table 1
IC
Part
Number
Charging
Current
(0.5C)
(mA)
RJD2032C1
RJD2048
RJD2430C1
RJD2440
RJD2450
RJD3032
RJD3048
RJD3555
40
60
55
75
100
100
150
250
Constant
Discharge Current
(0.2C)
(mA)
16
24
22
30
40
40
60
100
Charging end
condition
(at CV mode)
(mA)
2.4
3.6
3.3
4.5
6
6
9
15
Capacity
after 500
cycles
(mAh)
56
77
72.8
98
133
133
203
350
Discharge Characteristics on Current Load (C-Rate)
Relative capacity at each load, measured with constant discharge current 0.2C, 0.5C, 1.0C,
2C with 3.0VDC cut-off after Standard Charge shown below.
Charge Current
Standard Charge
Discharge Current
0.2 CA
100 %
0.5 CA
> 95 %
1 CA
> 90 %
2.0 CA
> 50%
Shipment
The Cell shall be shipped with 30% of the nominal voltage. (Nominal Cell voltage range: 3.7 ~ 3.8 V).
30% SOC is only for air transport.
Storage Characteristics
After storage at the conditions listed below, the battery is measured at the standard charge and discharge
condition stated above.
Storage Condition
Charge State
Capacity
Retention
Capacity
Recovery
20 days at 60oC
Shipping charge
-
> 85%
20 days at 60oC
Full charge
> 70%
> 85%
60 days at 60 C
Full charge
> 40%
> 60%
30 days at 60oC, 90%RH
Full charge
> 40%
> 70%
o
Safety Test
Test
High Temperature
High Temperature
and High Humidity
Thermal Shock
Test
Hot Box Test
Overcharge Test
Impact Test
Short-Circuit Test
Nail Test
Applying Pressure
Test Method
Storing a cell at 90°C for 4 hours after being
charged to 4.2VDC
Storing a cell at 60°C for 1 week after being
charged to 4.2VDC
Store a fully charged cell (4.2VDC) at 60°C for 2
hours then at -20°C for 2 hours. 10 cycles with a
maximum transition time of 5 minutes.
A cell is to be heated in a gravity convection
oven. The temperature of the oven is to be raised
5°C+/- 2°C per minute to a temperature of 130°C
and remain at that temperature for 10 minutes
Charge the test samples with constant current
(3C) and voltage 4.5VDC. Test samples remain on
test for 2.5 hours
A test cell is to be placed on a flat surface. The
bar of 9.1 kg weight and 15.8 mm diameter is
dropped from a height of 610 mm onto the cell.
A cell is to be short-circuited by connecting the
positive and negative terminals of the battery with
copper wire having a maximum resistance load of
100mΩ.
A stainless steel nail having a diameter of 4.0 mm
is punched through the cell until the nail has
passed through the opposite side of the cell.
Placing pressure on entire surface of a fully
charged cell with 7kg for 72 hours
Criteria
No leakage
No leakage
No leakage
No explosion, No fire
No explosion, No fire
No explosion, No fire
No fire or explosion, until
battery is completely
discharged
No explosion, No fire
No leakage, No weight
decrease
Precautions and Safety Instructions
Lithium-Ion rechargeable batteries subjected to abusive conditions can become damaged and/or cause personal
injury. Please read and observe the standard battery precautions below before using.
Note 1. The customer is required to contact Illinois Capacitor in advance, if and when the customer needs other
applications or operating conditions other than those described in this document.
Note 2. Illinois Capacitor will take no responsibility for any accident where the cell is used under other conditions
than those described in this document.
Precautions and Safety Instructions:
a.
b.
c.
d.
e.
f.
g.
h.
i.
j.
k.
l.
m.
n.
o.
p.
q.
r.
s.
t.
u.
v.
Do not expose the battery to extreme heat or flame.
Do not short circuit, over-charge or over-discharge the battery.
Do not subject the battery to strong mechanical shocks.
Do not immerse the battery in water or sea water, or get it wet.
Do not reverse the polarity of the battery for any reason.
Do not disassemble or modify the battery.
Do not remove charge/discharge protection circuitry.
Do not handle or store with metallic objects like necklaces, coins or hairpins, etc.
Do not use the battery with possible damage or deformation.
Do not connect battery to the plug socket or car-cigarette-plug.
Do not make the direct soldering onto a battery. Spot weld lead plate onto a battery. Soldering iron temperature
should be limited to 350°C with a soldering time of <5 seconds.
Do not place batteries in a solder bath.
Do not touch a leaked battery directly.
D o not use for other equipment.
Do not use Lithium-ion battery in mixture.
Do not use or leave the battery under direct sunlight (or in heated car by sunshine).
Keep battery away from children.
Do use the specified charger and observe charging requirement
Do not drive a nail into battery or strike battery with a battery or insert a screw into the battery
Do not smash or throw battery.
Recharge the battery every 6 months.
Follow recommended charging conditions when charging battery.
Warnings:
a. Do not swallow. Keep out of reach of infants and children. If swallowed call physician immediately.
b. Do not put battery in microwave or pressure cooker.
c. Do not use battery together with a primary battery, such as dry battery types or batteries with different
capacities.
d. Do not replace battery with a different type or model.
e. Discontinue use of battery if an unusual odor, discoloration, deformation, internal heating or other unusual
characteristic changes are detected.
f. Do not have any leaked electrolyte come in contact with eyes. If contact occurs flush eyes immediately with
water and consult a doctor.
g. If charging does not stop after expected charging time, stop charging battery.
Requirement for Safety Assurance
For the sake of safety assurance, please discuss the equipment design, its system and protection circuit of Lithiumion battery with Illinois capacitor in advance.
And consult about the high rate current, rapid charge and special application in the same way.