Page 1
Power Supply IC
S1F76980
Technical Manual
SEIKO EPSON CORPORATION
Rev.1.0
Page 2
NOTICE
No part of this material may be reproduced or duplicated in any form or by any means without the written
permission of Seiko Epson. Seiko Epson reserves the right to make changes to this material without notice.
Seiko Epson does not assume any liability of any kind arising out of any inaccuracies contained in this material
or due to its application or use in any product or circuit and, further, there is no representation that this material is
applicable to products requiring high level reliability, such as, medical products. Moreover, no license to any
intellectual property rights is granted by implication or otherwise, and there is no representation or warranty that
anything made in accordance with this material will be free from any patent or copyright infringement of a third
party. This material or portions thereof may contain technology or the subject relating to strategic products
under the control of the Foreign Exchange and Foreign Trade Law of Japan and may require an export license
from the Ministry of International Trade and Industry or other approval from another government agency.
All other product names mentioned herein are trademarks and/or registered trademarks of their respective
companies.
©SEIKO EPSON CORPORATION 2006, All rights reserved.
Page 3
Configuration of product number
zDEVICES
S1 F 76980 F 0C00 00
Packing specifications
Specifications
Shape
(F:QFN)
Model number
Model name
(F : Power Supply)
Product classification
(S1:Semiconductors)
Page 4
CONTENTS
1. DESCRIPTION.................................................................................................................................1
2. FEATURES ......................................................................................................................................1
3. SERIES PRODUCT NAME LIST.....................................................................................................1
4. BLOCK DIAGRAM...........................................................................................................................2
5. DESCRIPTION OF BLOCK DIAGRAM ...........................................................................................3
6. PIN ASSIGNMENT...........................................................................................................................4
7. PIN DESCRIPTION..........................................................................................................................5
7.1 Pin Functions...........................................................................................................................5
8. FUNCTIONAL DESCRIPTION.........................................................................................................6
8.1 Operation Description..............................................................................................................6
8.2 Power Voltage Monitoring Circuit (V
8.3 Switching Control Circuit..........................................................................................................9
8.4 Recommended IC Protection Circuit......................................................................................15
CC, VBUS, VBAT)................................................................6
9. ELECTRICAL CHARACTERISTICS..............................................................................................16
9.1 Absolute Maximum Ratings...................................................................................................16
9.2 Recommended Operating Conditions....................................................................................17
9.3 Electrical Characteristics........................................................................................................18
9.3.1 Overall Operations ...................................................................................................18
9.3.2 V
9.3.3 V
9.3.4 V
CC Voltage Monitoring Circuit Characteristics.........................................................19
BUS Voltage Monitoring Circuit Characteristics.......................................................20
BAT Voltage Monitoring Circuit Characteristics.......................................................21
9.3.5 Overvoltage Limiter Characteristics..........................................................................22
10. EXTERNAL CONNECTION DIAGRAMS.......................................................................................24
10.1 S1F76980F0A000B Recommended Connection
(For 1-cell Li-ion, OFF-OFF switching, overvoltage limiter not used).....................................24
10.2 S1F76980F0B/C000B Recommended Connection
(For 2-cell dry battery, ON-ON switching, overvoltage limiter used).......................................25
11. DIMENSIONAL OUTLINE DRAWING (QFN4-24) .........................................................................26
12. CHARACTERISTIC DATA .............................................................................................................27
12.1 S1F76980F0C000* Characteristic Data ................................................................................27
S1F76980 Technical Manual (Rev.1.0) EPSON i
Page 5
1. DESCRIPTION
1. DESCRIPTION
The S1F76980 series is a low consumption current power supply input control IC, which monitors the voltage
of 3-system input power supply and is capable of continuously switching power supply of the system selected in
the priority sequence in the IC. For operations below the operating voltage, the product also guarantees
operations in reduced power mode by setting the output level of the control signal to Hi-Z.
The use of this IC decreases voltage drop, if the Pch power MOS transistor is used as a switch for a
conventional diode circuit, and contributes to the battery life extension. If the result of monitoring the output
voltages shows the voltage higher than that set externally, the voltage limiter circuit operates and provides
measures against overvoltage after output stage.
The package is QFN4-24.
This IC is most suitable for power input control circuit of portable device that is used by switching 3-system
input power.
2. FEATURES
• Consumption current : Typ. 20µA (VCC=0V, VBUS=0V, VBAT=2.5V, 25°C)
Max. 40µA (V
Typ. 0.1µA (V
CC=0V, VBUS=0V, VBAT=2.5V, -30°C to +85°C)
CC=0V, VBUS=0V, VBAT=2.5V, POWER switch OFF, 25°C)
• Operating voltage : 0 to 6.5V (Absolute maximum rating - 0.3 to 9.0V)
(The output level of control signal is forced to be Hi-Z under the output
guarantee voltage.)
• Temperature characteristics : Typ. ±100ppm/°C
• Built-in power monitoring circuit (V
CC, VBUS) :
Detecting voltage 2.0 to 6.3V (Aluminum option: 0.1V steps)
Hysteresis width: 0.05 to 1.00V (Aluminum option: 0.05V steps)
Accuracy: Set voltage ±3.0%
• Built-in power monitoring circuit (V
BAT):
Detecting voltage 1.6 to 4.3V (Aluminum option: 0.1V steps)
Hysteresis width: 0.1 to 2.1V (Aluminum option: 0.1V steps)
Accuracy: Set voltage ±3.0%
• Built-in power-on detecting circuit, voltage limiter circuit for preventing output overvoltage, and power
input control logic circuit.
• Operating temperature : -30°C to +85°C
• Package : QFN4-24P(4×4×0.85mm)
• This IC is neither designed for strong radiation activity proof nor light resistance.
3. SERIES PRODUCT NAME LIST
Table 3.1 Series product name list
Power voltage monitoring [V] Typ.
Product name
S1F76980F0A000* 5.000 5.250 3.800 4.000 2.800 3.600 2.250 QFN4-24
S1F76980F0B000* 2.300 2.400 3.800 4.000 1.600 2.000 1.150 QFN4-24
S1F76980F0C000* 2.300 2.400 3.800 4.000 1.600 1.900 1.150 QFN4-24
VCC VBUS VBAT
-CDET +CDET -UDET +UDET -BDET +BDET VHIZ
Output
guarantee
Voltage
[V]Typ.
Shipment
mode
Remarks
-
-
-
(Note 1) For detecting voltage (-*DET) and release voltage (+*DET), those other than the above table are also
available.
S1F76980 Technical Manual (Rev.1.0) EPSON 1
Page 6
4. BLOCK DIAGRAM
4. BLOCK DIAGRAM
VBAT
VBUS
VCC
VCC
BSEL
V
IQ
CUDLY
ONOFSW
CSFT
V
PSW
CBDLY
TM3
VDD
V
BUS
BAT
SS
Power
switching circuit
Reference
voltage
generator
Power
voltage
monitoring
circuit
(V
CC)
Power
voltage
monitoring
circuit
(V
BUS)
Power
voltage
monitoring
circuit
(V
BAT)
Power-on
reset
circuit
Fig.4.1 Block diagram
S1F76980
Switching
control
circuit
OC1
OC2
OU1
OU2
OB1
OB2
OUT
V
FB
CDET
UDET
BDET
2 EPSON S1F76980 Technical Manual (Rev.1.0)
Page 7
5. DESCRIPTION OF BLOCK DIAGRAM
5. DESCRIPTION OF BLOCK DIAGRAM
(1) Power voltage monitoring circuit (VCC, VBUS, VBAT)
This circuit monitors input voltage of each power supply pin and detects low voltage. Leaving hysteresis width
prevents output from becoming unstable (oscillating) when low voltage is detected.
Moreover, the IC contains a circuit to guarantee the voltage monitoring result below the operating voltage.
(2) Power switching circuit
This circuit selects a power supply (V
(3) Reference voltage generator
This circuit generates reference voltage and reference current necessary in this IC.
(4) Power-on reset circuit
This circuit generates IC initialization signal until the internal power supply of the IC (V
(5) Switching control circuit
This circuit controls output of a signal that selects optimum input power supply according to input conditions of
three power supplies (V
BUS and VBAT can also be switched during operation, using the external pin BSEL.
V
CC, VBUS, and VBAT) and in the priority sequence set in the IC. The priority sequence of
DD) used in the IC from three power supplies (VCC, VBUS and VBAT).
DD) is recharged.
S1F76980 Technical Manual (Rev.1.0) EPSON 3
Page 8
6. PIN ASSIGNMENT
6. PIN ASSIGNMENT
QFN4-24pin S1F76980F0*****
Pin No. Pin Name Pin No. Pin Name
1 VCC 13 FB
2 ONOFSW 14 VBAT
3 VDD 15 PSW
4 BSEL 16 CBDLY
5 VOUT 17 IQ
6 OC1 18 BDET
7 OC2 19 TM3
8 VSS 20 CUDLY
9 OU1 21 UDET
10 OU2 22 VBUS
11 OB2 23 CSFT
12 OB1 24 CDET
1
2
3
4
6
24 22 21
23
987
10 11 12
Fig.6.1 Pin assignment
TOP VIEW
20 19
18
17
16
15
14 5
13
4 EPSON S1F76980 Technical Manual (Rev.1.0)
Page 9
7. PIN DESCRIPTION
7. PIN DESCRIPTION
7.1 Pin Functions
• Functional pins
Pin Name I/O
ONOFSW I 2 Power switching operation select pin. H: ON-ON switching, L: OFF-OFF switching
PSW I 15 VBAT power supply switch pin H: OFF, L: ON (normally fixed at LOW)
BSEL I 4 Used to set the priority sequence of VBUS and VBAT. H:VBUS, L:VBAT
FB I 13
CBDLY O 16
CUDLY O 20
CSFT O 23 Pin used to connect the soft start time setting capacitor
CDET O 24
UDET O 21
BDET O 18
OC1 O 6
OC2 O 7 VCC (adapter) power supply output-side control pin. L: Switch ON, H: Switch OFF
OU1 O 9
OU2 O 10 VBUS (USB) power supply output-side control pin. L: Switch ON, H: Switch OFF
OB1 O 12
OB2 O 11 VBAT (battery) power supply output-side control pin. L: Switch ON, H: Switch OFF
Pin
No.
Feedback input pin.
If measures against overvoltage are taken after output stage, feed back voltage at
an appropriate voltage dividing ratio.
If it is not necessary to take measures against overvoltage, pull down.
Pin used to connect the V
capacitor
Pin used to connect the V
capacitor
Output pin used to monitor the V
On Nch open drain output L: Input enabled, Hi-Z: Input disabled
Output pin used to monitor the V
On Nch open drain output L: Input enabled, Hi-Z: Input disabled
Output pin used to monitor the V
On Nch open drain output L: Input enabled, Hi-Z: Input disabled
CC (adapter) power supply input-side control pin. L: Switch ON, H: Switch OFF
V
To take measures against overvoltage, operate an external MOS transistor as a
regulator.
BUS (USB) power supply input-side control pin. L: Switch ON, H: Switch OFF
V
To take measures against overvoltage, operate an external MOS transistor as a
regulator.
BAT (battery) power supply input-side control pin. L: Switch ON, H: Switch OFF
V
To take measures against overvoltage, operate an external MOS transistor as a
regulator.
BAT-system low voltage detection dead time setting
BUS-system low voltage release delay time setting
• Power Supply Pin
Pin Name I/O
VCC I 1 VCC (adapter) power supply input-side pin.
VBUS I 22 VBUS (USB) power supply input-side pin.
VBAT I 14 VBAT (battery) power supply input-side pin.
VOUT I 5 3-system select power supply output-side pin.
VSS I 8 GND pin.
VDD O 3 Pin used to connect the smoothing capacitor in the IC.
Pin
No.
• Test pin
Pin Name I/O
TM3 I 19 Normally fixed to LOW.
IQ I 17 Normally fixed to LOW.
Pin
No.
Function
CC (adapter) power supply input voltage.
BUS (USB) power supply input voltage.
BAT (battery) power supply input voltage.
Function
Function
S1F76980 Technical Manual (Rev.1.0) EPSON 5
Page 10
8. FUNCTIONAL DESCRIPTION
8. FUNCTIONAL DESCRIPTION
8.1 Operation Description
The S1F76980 series is a low consumption current power supply input control IC, which monitors the voltage
of 3-system input power supply and is capable of continuously switching power supply of the system selected in
the priority sequence in the IC. The voltage limiter function of output voltage is included in the switching
control circuit to control the output voltage V
of an external resistor. For operations below the operating voltage, the function also guarantees operations in
reduced power mode by setting the output level of the control signal to Hi-Z.
8.2 Power Voltage Monitoring Circuit (VCC, VBUS, VBAT)
This circuit monitors input voltage of each power supply pin and detects low voltage. It inputs the dividing
voltage (V
REF) generated in the IC to the comparator for detecting voltage. The comparator detects a potential
(V
difference between V
possible defective condition due to power noise or the like.
In the example below, the detecting voltage (-V
with input voltage raised are set using the following formulas:
Detecting voltage: -V
Release voltage: +V
The power line is equipped with an output guarantee circuit that turns the power off when the voltage drops to
below the output guarantee voltage and forces to set the *DET (*=C/U/B) pin to Hi-Z by fixing the XOFF
signal to LOW
Fig.8.2.1 shows the V
Fig.8.2.2 shows the V
Fig.8.2.3 shows the V
REG) of the resistors R1, R2, and R3 connected between power supplies and the reference voltage
REG and VREF even if it is inappreciable; therefore, a hysteresis circuit is added to avoid a
DET = (R2 + R3) / R3) x VREF (Formula 8.2.1)
DET = (R1 + R2 + R3 / R3) x VREF (Formula 8.2.2)
CC power voltage monitoring circuit.
BUS power voltage monitoring circuit.
BAT power voltage monitoring circuit.
The power is turned off when the voltage is below the
VCC
Output
guarantee
output guarantee voltage.
R1
R2
VREG
R3
Fig.8.2.1 Block diagram for V
OUT not to exceed the set voltage, using the voltage dividing ratio
DET) with input voltage lowered and the release voltage (+VDET)
CDET
+
CMP
-
V
REF
XOFF
CC power voltage monitoring circuit
6 EPSON S1F76980 Technical Manual (Rev.1.0)
Page 11
8. FUNCTIONAL DESCRIPTION
Y
VBUS
Output
guarantee
Fig.8.2.2 Block diagram for V
(Note 2) The release time may be specified by external capacitor only for the V
monitoring. The recommended value of the capacitor is approximately 50ms for 6800pF.
Release delay setting time TUDLY [ms] = Set coefficient (7353) × C [µF]
In case of the recommended C=6800[pF], the release delay time is TUDLY=50[ms].
The power is turned off when the voltage is below the
output guarantee voltage.
R1
R2
+
CMP
-
BUS power voltage monitoring circuit
XOFF
R3
VREG
V
REF
Typ.
UDET
(Note 2)
CUDL
BUS-system power voltage
S1F76980 Technical Manual (Rev.1.0) EPSON 7
Page 12
8. FUNCTIONAL DESCRIPTION
Y
VBAT
Output
guarantee
PSW
(Note 3)
Fig.8.2.3 Block diagram for V
(Note 3) The power switch built in the output guarantee circuit may be turned ON/OFF by the PSW pin only for
BAT-system power supply.
the V
(Note 4) The detecting voltage dead time of power voltage monitoring may be specified by external capacitor
only for the V
for 6800pF. However, when the voltage is temporarily below the output guarantee voltage, low voltage
is detected even during the dead time.
For detecting voltage = 1.6V, detecting voltage dead setting time TBDLY [S] = Set coefficient (147) × C [µF]
In case of the recommended C=6800[pF], the release delay time is TBDLY=1[S].
For detecting voltage = 2.8V, detecting voltage dead setting time TBDLY [S] = Set coefficient (250) × C [µF]
In case of the recommended C=6800[pF], the release delay time is TBDLY=1.7[S].
The power is turned off when the voltage is below the
output guarantee voltage.
R1
R2
+
VREG
R3
XOFF
BAT-system power supply. The recommended value of the capacitor is approximately 1s
V
REF
CMP
-
BAT power voltage monitoring circuit
BDET
(Note 4)
CBDL
Typ.
Typ.
8 EPSON S1F76980 Technical Manual (Rev.1.0)
Page 13
8. FUNCTIONAL DESCRIPTION
8.3 Switching Control Circuit
This circuit controls output of a signal that selects optimum input power supply according to input conditions of
three power supplies (V
(1) Power input control logic
(Note 5) The priority sequence may be changed with the BSEL pin.
It can be switched even during operation of IC.
(Note 6) L: Input disabled, H: Input enabled
(2) Switch configuration
Fig.8.4.1 shows the configuration diagram of power supply selection switches, that are configured outside the
IC.
The O*1 (OC1, OU1, and OB1) pin performs over voltage limiter control while the O*2 (OC2, OU2, and OB2)
pin controls backflow prevention.
OC1
OC2
CC, VBUS, and VBAT) and in the priority sequence set in the IC.
VCC
L L L OFF
L L H
L H L
L H H ()
H L L
H L H
H H L
H H H
VCC
VBUS
OU1
OU2
VBUS
VBAT
VOUT
Output selection system
VBAT
OB1
OB2
VOUT
Fig.8.4.1 Switch configuration
S1F76980 Technical Manual (Rev.1.0) EPSON 9
Page 14
8. FUNCTIONAL DESCRIPTION
(3) Power-on operation
Fig.8.4.2 shows an example of power-on operation from the initial state at power-on to the power selection.
State A State B State C
VBAT power-on
Description of each state
State A: Input power not selected.
(OB1:OFF, OB2:OFF, OU1:OFF, OU2:OFF, OC1:OFF, OC2:OFF)
State B: V
BAT input power supply selected, backflow from VOUT prevented
(OB1:ON, OB2:OFF, OU1:OFF, OU2:OFF, OC1:OFF, OC2:OFF)
State C: V
BAT input power supply selected, full on state
(OB1:ON, OB2:ON, OU1:OFF, OU2:OFF, OC1:OFF, OC2:OFF)
Description of transition conditions
BAT input enabled, backflow potential between input power supply (VBAT) and VOUT
{: V
BAT input enabled, elimination of backflow potential between input power supply (VBAT) and VOUT (Typ.
|: V
19mV)
BAT input disabled
}: V
Fig.8.4.2 State transition at V
BAT power-on
10 EPSON S1F76980 Technical Manual (Rev.1.0)
Page 15
8. FUNCTIONAL DESCRIPTION
(4) Power supply switching operation 1 (OFF-OFF switching)
Fig.8.4.3 shows an example of power supply switching operation 1 on connection / disconnection of power
supply with a higher priority level.
State C State B State E
State A State D
Description of each state
State A: Input power not selected.
(OB1:OFF, OB2:OFF, OU1:OFF, OU2:OFF, OC1:OFF, OC2:OFF)
State B: V
BAT input power supply selected, backflow from VOUT prevented
(OB1:ON, OB2:OFF, OU1:OFF, OU2:OFF, OC1:OFF, OC2:OFF)
State C: V
BAT input power supply selected, full on state
(OB1:ON, OB2:ON, OU1:OFF, OU2:OFF, OC1:OFF, OC2:OFF)
State D: V
CC input power supply selected, backflow from VOUT prevented
(OB1:OFF, OB2:OFF, OU1:OFF, OU2:OFF, OC1:ON, OC2:OFF)
State E: V
CC input power supply selected, full on state
(OB1:OFF, OB2:OFF, OU1:OFF, OU2:OFF, OC1:ON, OC2:ON)
Description of transition conditions
CC & VBAT input enabled
{: V
CC & VBAT input enabled, elimination of backflow potential between input power supply (VCC) and VOUT
|: V
(Typ. 19mV)
CC & VBAT input enabled, backflow potential between input power supply (VCC) and VOUT
}: V
CC input disabled, VBAT input enabled
~: V
CC input disabled, VBAT input enabled, elimination of backflow potential between input power supply
: V
BAT) and VOUT (Typ. 19 mV)
(V
CC input disabled, VBAT input enabled, backflow potential between input power supply (VBAT) and VOUT
: V
Fig.8.4.3 V
BAT ⇔ VCC power supply switching state transition 1
S1F76980 Technical Manual (Rev.1.0) EPSON 11
Page 16
8. FUNCTIONAL DESCRIPTION
(5) Power supply switching operation 2 (ON-ON switching)
Fig.8.4.4 shows an example of power supply switching operation 2 on connection / disconnection of power
supply with a higher priority level.
State C State B State E
Description of each state
State A: Input power not selected.
(OB1:OFF, OB2:OFF, OU1:OFF, OU2:OFF, OC1:OFF, OC2:OFF)
State B: V
BAT input power supply selected, backflow from VOUT prevented
(OB1:ON, OB2:OFF, OU1:OFF, OU2:OFF, OC1:OFF, OC2:OFF)
State C: V
BAT input power supply selected, full on state
(OB1:ON, OB2:ON, OU1:OFF, OU2:OFF, OC1:OFF, OC2:OFF)
State D: V
CC input power supply selected, backflow from VOUT prevented
(OB1:OFF, OB2:OFF, OU1:OFF, OU2:OFF, OC1:ON, OC2:OFF)
State E: V
CC input power supply selected, full on state
(OB1:OFF, OB2:OFF, OU1:OFF, OU2:OFF, OC1:ON, OC2:ON)
State F: V
BAT and VCC input power supplies selected simultaneously (ON-ON), backflow from VOUT prevented
on the V
CC side only.
(OB1:ON, OB2:ON, OU1:OFF, OU2:OFF, OC1:ON, OC2:OFF)
State G: V
BAT and VCC input power supplies selected simultaneously (ON-ON), full on state
(OB1:ON, OB2:ON, OU1:OFF, OU2:OFF, OC1:ON, OC2:ON)
State G
State F
State A State D
12 EPSON S1F76980 Technical Manual (Rev.1.0)
Page 17
8. FUNCTIONAL DESCRIPTION
Description of transition conditions
CC & VBAT input enabled
{: V
CC & VBAT input enabled, elimination of backflow potential between input power supply (VCC) and VOUT
|: V
(Typ. 19mV) (TBD)
CC & VBAT input enabled, backflow potential between input power supply (VCC) and VOUT
}: V
CC input disabled, VBAT input enabled
~: V
CC input disabled, VBAT input enabled, elimination of backflow potential between input power supply
: V
BAT) and VOUT
(V
CC input disabled, VBAT input enabled, backflow potential between input power supply (VBAT) and VOUT
: V
CC & VBAT input enabled, elimination of backflow potential between input power supply (VCC) and VOUT
: V
(Typ. 19mV), simultaneous ON-time (Typ. 800µs) lapse
CC & VBAT input enabled, backflow potential between input power supply (VCC) and VOUT (Typ . 19mV),
: V
simultaneous ON-time (Typ.800µs) lapse
Fig.8.4.4 V
(Note 7) For ON-ON switching, input power supply is temporarily shorted. We recommend OFF-OFF
switching, however, use ON-ON switching on your own authority after carefully evaluating the
switching in the set if you want to minimize voltage drop when switching power supply. SEIKO
EPSON, however, shall not be liable for any defective conditions or the like due to backflow to input
power supply caused by ON-ON switching.
(Note 8) Combining the V
BAT priority (BSEL=LOW) pin with the ON-ON switching (ONOFSW=HIGH) pin
generates abnormal output waveforms at switching; therefore, this combination should be avoided to
output normal waveforms.
BAT ⇔ VCC power switching state transition 2
S1F76980 Technical Manual (Rev.1.0) EPSON 13
Page 18
8. FUNCTIONAL DESCRIPTION
(6) Overvoltage limiter control
If measures against overvoltage are required after output stage of V
resistance to the FB pin. To set the V
OUT voltage, refer to the formula below. Set so that the total resistance of
RFB1 + RFB2 is between 1 and 10 MegΩ .
OUT=VREF x ((RFB1+RFB2)/RFB2)
V
Incoming current can be prevented by connecting a capacitor for setting the soft start time to the CSFT pin as
measures against incoming current at cold start (no charge in the V
can be obtained from the following formula.
Typ.
Soft start setting time TSFT [ms] = Set coefficient (70) × C [µF]
For recommended C = 0.01 [µF], soft start time: TSFT = 0.7 [ms]
VCC
VREF = 1.05V
+
AMP
-
OC1
SFT
OC2
CSFT
CSFT
VOUT
RFB1
FB
RFB2
Fig.8.4.4 Overvoltage limiter circuit diagram
OUT, feed back and input voltage divided by
OUT smoothing capacitor). The setting time
VBUS
OU1
OU2
OB1
OB2
VOUT
VBAT
14 EPSON S1F76980 Technical Manual (Rev.1.0)
Page 19
8. FUNCTIONAL DESCRIPTION
p
p
r
8.4 Recommended IC Protection Circuit
The following external circuits for protection of IC are recommended.
(1) Measures against reverse insertion of V
Reverse insertion of power supply causes an IC breakage. Using the following external circuit configuration
prevents an IC breakage.
VBAT(+)+3V
VCC(+)-3V
VCC
Back-flow
revention
VBAT(-)
VSS
CC(-)
V
Fig.8.5.1 V
CC power supply reverse-insertion support circuit
(2) Measures against input power supply floating
Causing the floating state by removing the input power supplies (V
and reach the midpoint potential. This state is not effective for the IC, so we recommend that the IC be
connected to a discharge resistor. The recommended resistance value is between 1 and 2.2 MegΩ. If a lower
resistance is required depending on setting conditions, however, determine the appropriate value after careful
evaluation.
CC power supply
OC1
OC2
VOUT
FB
Current
limite
OFF
OFF
CC, VBUS, and VBAT) may eliminate the load
OB1
OB2
Back-flow
revention
VOUT
ON
ON
S1F76980 Technical Manual (Rev.1.0) EPSON 15
Page 20
9. ELECTRICAL CHARACTERISTICS
9. ELECTRICAL CHARACTERISTICS
9.1 Absolute Maximum Ratings
Item Symbol
Input power voltage VIN VSS-0.3 9.0 V
Input pin voltage 1 VI1 VSS-0.3 VBAT+0.3 V BSEL -
Input pin voltage 2 VI2 VSS-0.3 9.0 V PSW, IQ
Input pin voltage 3 VI3 VSS-0.3 VDD+0.3 V ONOFSW (Note 9)
Output voltage VO VSS-0.3 9.0 V
IOX1
Output current
Allowable dissipation Pd
Operating temperature Topr -30 85 °C
Storage temperature Tstg -55 150 °C
Soldering temperature and time Tsol
IOX2
IXDET
(Note 9) V
DD provides the power supply with VCC, VBUS and VBAT set to the highest power level.
(Note 10) Do not externally apply the voltage to the output pin.
(Note 11) Using with a condition exceeding the above absolute maximum rating may result in malfunction or
unrecoverable damage. Moreover, normal function may be achieved temporarily but its reliability
may be significantly low.
Rated value
Min. Max.
-
-
100 mA OC2, OU2, OB2
-
10 mA CDET, UDET, BDET
-
550 mW
-
260x10 °Cxs
10 mA OC1, OU1, OB1
Unit Applicable pin Remarks
V
CC, VBUS, VBAT,
V
OUT
OC1, OC2, OU1,
OU2, OB1, OB2,
CDET, UDET, BDET
-
-
-
-
-
-
-
-
-
-
-
-
-
-
16 EPSON S1F76980 Technical Manual (Rev.1.0)
Page 21
9. ELECTRICAL CHARACTERISTICS
9.2 Recommended Operating Conditions
Item Symbol
VCC 0.0 - 6.5 V
Input voltage
Output voltage
Smoothing capacitor
Dead time setting
capacitor
Release time setting
capacitor
Soft start setting
capacitor
Pull-up resistor
Pull-down resistor
Total feedback
resistor
External MOS FET MOS
VBUS 0.0 - 6.5 V
VBAT 0.0 - 6.5 V
V
OUT 0.0
OX1 0.0 - 6.5 V OC1, OU1, OB1
OX2 0.0 - 6.5 V OC2, OU2, OB2
XDET 0.0 - 6.5 V
CVCC
CVBUS
CVBAT
CVDD
CV
OUT
CBDL Y
CUDL Y
CSFT
ROX1 1 - 4.7 MΩ OC1, OU1, OB1
ROX2 1 - 4.7 MΩ OC2, OU2, OB2
RXDET 470 -
RVCC 1 - 2.2 MΩ VCC
RVBUS 1 - 2.2 MΩ VBUS
RVBAT 1 - 2.2 MΩ VBAT
RFB 1
(Note 12) All the values are based on V
SS = 0V.
(Note 13) It is recommended to use a tantalum capacitor of ESR = 1 Ω or more.
(Note 14) Connect 47 µF capacitors in parallel to increase the capacity.
(Note 15) It is recommended to use ON Semiconductor NTHD2102P.
Standard value
Min. Typ. Max.
-
6.5 V
-
1.0 - µF (Note 13)
-
1.0 - µF (Note 13)
-
1.0 - µF (Note 13)
-
0.1 - µF
-
94 - µF (Note 14)
-
6800 - pF TBDLY=1s
-
6800 - pF TUDLY=50ms
-
0.01 - µF TSFT=0.7ms
-
kΩ
-
10 MΩ RFB1+RFB2
-
-
-
Unit Remarks
CDET, UDET,
BDET
CDET, UDET,
BDET
-
(Note 14)
S1F76980 Technical Manual (Rev.1.0) EPSON 17
Page 22
9. ELECTRICAL CHARACTERISTICS
9.3 Electrical Characteristics
9.3.1 Overall Operations
S1F76980F0A, S1F7698F0B, S1F7698F0C T
Item Symbol
Range of input voltage
VCC-system consumption
current 1
VCC-system consumption
current 2
VBUS-system
consumption current 1
VBUS-system
consumption current 2
VOUT-system
consumption current 1
VOUT-system
consumption current 2
VCC 0.0
VBUS 0.0
VBAT 0.0
OUT 0.0
V
IoprC1
IoprC2
IoprU1
IoprU2
IoprO1
IoprO2
Standard value
Min. Typ. Max.
-
-
-
-
-
-
-
-
-
-
33 45 µA VCC=6V, VBUS=VBAT=0V
33 55 µA
27 38 µA VBUS=5V, VCC=VBAT=0V
27 50 µA
1.3 2 µA
1.3 2.4 µA
6.5 V
6.5 V
6.5 V
6.5 V
S1F76980F0A T
Item Symbol
VBAT-system
consumption current 1
VBAT-system
consumption current 2
VBAT-system
consumption current 3
VBAT-system
consumption current 4
VBAT-system
consumption current 5
IoprB1
IoprB2
IoprB3
IoprB4
IoprB5
Standard value
Min. Typ. Max.
-
27 46 µA VBAT=3.6V, VCC=VBUS=0V
-
27 54 µA
-
0.6 2 µA VBAT=2.0V, VCC=VBUS=0V
-
0.1 1 µA
-
16 32 µA
S1F76980F0B, S1F7698F0C T
Item Symbol
VBAT-system
consumption current 1
VBAT-system
consumption current 2
VBAT-system
consumption current 3
VBAT-system
consumption current 4
VBAT-system
consumption current 5
IoprB1
IoprB2
IoprB3
IoprB4
IoprB5
Standard value
Min. Typ. Max.
-
20 33 µA VBAT=2.5V, VCC=VBUS=0V
-
20 40 µA
-
0.3 1 µA VBAT=1.0V, VCC=VBUS=0V
-
0.1 1 µA
-
12 24 µA
(Note 16) This value may be higher than the current value described above by detecting or releasing the output
guarantee voltage near the output guarantee circuit VHIZ. If the voltage drops to below VHIZ, this
value is set to the current value of V
BAT-system consumption current 3.
a=25°C unless otherwise specified
Unit Conditions
CC=6V, VBUS=VBAT=0V
V
a=-30°C to +85°C
T
BUS=5V, VCC=VBAT=0V
V
a=-30°C to +85°C
T
CC=VBUS=VBAT=5V,
V
OUT=3.5V, FB=0V
V
VCC=VBUS=VBAT=5V,
OUT=3.5V, FB=0V,
V
Ta=-30°C to +85°C
a=25°C unless otherwise specified
Unit Conditions
BAT=3.6V, VCC=VBUS=0V,
V
Ta=-30°C to +85°C
VBAT=PSW=3.6V,
VCC=VBUS=0V,
a=-30°C to +85°C
T
BAT=VHIZ to -BDET,
V
CC=VBUS=0V,
V
Ta=-30°C to +85°C (Note 16)
a=25°C unless otherwise specified
Unit Conditions
BAT=2.5V, VCC=VBUS=0V,
V
Ta=-30°C to +85°C
VBAT=PSW=2.5V,
VCC=VBUS=0V,
a=-30°C to +85°C
T
VBAT=VHIZ to -BDET,
CC=VBUS=0V,
V
Ta=-30°C to +85°C (Note 16)
18 EPSON S1F76980 Technical Manual (Rev.1.0)
Page 23
9. ELECTRICAL CHARACTERISTICS
9.3.2 VCC Voltage Monitoring Circuit Characteristics
S1F76980F0A, S1F76980F0B, S1F7698F0C T
Item Symbol
Detecting voltage -CDET ×0.97
Release voltage +CDET ×0.97
Output current ICDET 0.9 1.6
TPLHC
Transmission delay time
TPHLC
Detecting voltage
temperature
characteristics
Release voltage
temperature
characteristics
∆-CDET
/∆T
opr
∆+CDET
/∆T
opr
Standard value
Min. Typ. Max.
Set
voltage
Set
voltage
-
0.2 0.4 ms
-
0.13 0.26 ms
-
-
-
±100
-
±100
-
-
×1.03 V
×1.03 V
-
mA
100 µs
100 µs
-
-
ppm/°C
(Note 17) The temperature characteristics are obtained from the following formula.
∆CDET/∆Topr=(((CDETH-CDETL)/CDETM)/115) x 10
6
Detecting / release voltage value at CDETH: 85°C
Detecting / release voltage value at CDETL: -30°C
Detecting / release voltage value at CDETM: 25°C
(Note 18) The V
CC power is used as the standard value at VCC=4.95V ¤ 6V.
(Note 19) The V
CC power is used as the standard value at VCC=2.25V ¤ 3V.
(Note 20) The V
CC power is used as the standard value at VCC=6V ¤ 4.95V.
(Note 21) The V
CC power is used as the standard value at VCC=3V ¤ 2.25V.
a=25°C unless otherwise specified
Unit Conditions
ppm/°C
T
T
Nch open drain output,
V
CC=6V, CDET=1.5V
Nch open drain output,
(Note 32), (Note 18),
S1F76980F0A
Nch open drain output,
(Note 32), (Note 19),
S1F7698F0B, S1F7698F0C
Nch open drain output,
(Note 32), (Note 20),
S1F76980F0A
Nch open drain output,
(Note 32), (Note 21),
S1F7698F0B, S1F7698F0C
a=-30°C to +85°C, (Note 17),
S1F7698F0C
a=-30°C to +85°C, (Note 17),
S1F7698F0C
S1F76980 Technical Manual (Rev.1.0) EPSON 19
Page 24
9. ELECTRICAL CHARACTERISTICS
9.3.3 VBUS Voltage Monitoring Circuit Characteristics
S1F76980F0A, S1F76980F0B, S1F7698F0C T
Item Symbol
Detecting voltage -UDET ×0.97
Release voltage +UDET ×0.97
Output current IUDET 0.9 1.6
TPLHU 35 50 65 ms
Transmission delay time
TPHLU
Detecting voltage
temperature
characteristics
Release voltage
temperature
characteristics
∆-UDET
/∆T
opr
∆+UDET
/∆T
opr
Standard value
Min. Typ. Max.
- -
-
-
Set
voltage
Set
voltage
±100
±100
×1.03 V
×1.03 V
-
100 µs
-
-
(Note 22) The temperature characteristics are obtained from the following formula.
∆UDET/∆Topr=(((UDETH-UDETL)/UDETM)/115) x 10
6
Detecting / release voltage value at UDETH: 85°C
Detecting / release voltage value at UDETL: -30°C
Detecting / release voltage value at UDETM: 25°C
(Note 23) This is the standard value for the release delay capacitor at CUDLY=6800pF, V
a=25°C.
T
The capacity accuracy of capacitor is not included in the standard values. We recommend that you
select highly accurate capacitors.
(Note 24) This is the standard value for the release delay capacitor at CUDLY=6800pF and V
a=25°C unless otherwise specified
Unit Conditions
mA
ppm/°CTa=-30°C to +85°C, (Note 22)
ppm/°CTa=-30°C to +85°C, (Note 22)
Nch open drain output,
V
BUS=6V, UDET=1.5V
Nch open drain output,
(Note 32), (Note 23)
Nch open drain output,
(Note 32), (Note 24)
BUS=3.75V ¤ 5V, and
BUS=5V ¤ 3.75V.
20 EPSON S1F76980 Technical Manual (Rev.1.0)
Page 25
9. ELECTRICAL CHARACTERISTICS
9.3.4 VBAT Voltage Monitoring Circuit Characteristics
S1F76980F0A, S1F7698F0B, S1F7698F0C T
Item Symbol
Detecting voltage -BDET ×0.97
Release voltage +BDET ×0.97
Output guarantee voltage VHIZ
Output current IBDET 0.9 1.6
TPLHB
Transmission delay time
TPHLB
Detecting voltage
temperature
characteristics
Release voltage
temperature
characteristics
∆-BDET
/∆T
opr
∆+BDET
/∆T
opr
Standard value
Min. Typ. Max.
Set
voltage
Set
voltage
-
-
-
-
0.85 1.70 3.40 S
0.5 1 2 S
-
-
2.25
1.15
0.19 0.38 ms
0.13 0.26 ms
±100
±100
×1.03 V
×1.03 V
-
-
-
-
-
(Note 25) The temperature characteristics are obtained from the following formula.
∆BDET/∆Topr=(((BDETH-BDETL)/BDETM)/115) x 10
6
Detecting / release voltage value at BDETH: 85°C
Detecting / release voltage value at BDETL: -30°C
Detecting / release voltage value at BDETM: 25°C
(Note 26) This is the standard value for the dead time setting capacitor at CBDLY=6800pF, V
2.75V (F0A)/3V ¤ 1.55V (F0B, F0C), and T
a=25°C. The capacity accuracy of capacitor is not
included in the standard values. We recommend that you select highly accurate capacitors.
(Note 27) This is the standard value for the dead time setting capacitor at CBDLY=6800pF and
BAT=2.75V¤4.2V.
V
(Note 28) This is the standard value for the dead time setting capacitor at CBDLY=6800pF and
BAT=1.55V¤3V.
V
a=25°C unless otherwise specified
Unit Conditions
V S1F76980F0A
V S1F76980F0B, S1F76980F0C
mA
ppm/°C
ppm/°C
Nch open drain output,
V
BAT=6V, BDET=1.5V
Nch open drain output,
(Note 32), (Note 27),
S1F7698F0A
Nch open drain output,
(Note 32), (Note 28),
S1F7698F0B, S1F7698F0C
Nch open drain output,
(Note 32), (Note 26),
S1F7698F0A
Nch open drain output,
(Note 32), (Note 26),
S1F7698F0B, S1F7698F0C
T
a=-30°C to +85°C, (Note 25),
S1F7698F0C
T
a=-30°C to +85°C, (Note 25),
S1F7698F0C
BAT=4.2V ¤
S1F76980 Technical Manual (Rev.1.0) EPSON 21
Page 26
9. ELECTRICAL CHARACTERISTICS
9.3.5 Overvoltage Limiter Characteristics
S1F76980F0A, S1F76980F0B, S1F7698F0C T
Item Symbol
Range of input voltage VIN
Output voltage VOUT ×0.95
Output load current IVOUT 0.05
∆V
Input stability
Load stability
Output voltage
temperature coefficient
OUT/
∆V
IN
∆V
OUT/
∆IV
OUT
∆VOUT/
∆T
opr
Standard value
Min. Typ. Max.
- Set
voltage
-
-0.2 0.1 0.2 %/V V
0 0.5 1 mV
-
±100
6.5 V
×1.05 V
500 mA VIN-VOUT=0.5V
-
ppm/°C
(Note 29) These characteristics are applicable when the recommended parts are connected. If you use parts other
than recommended ones, be sure to carefully evaluate them.
(Note 30) The temperature characteristics are obtained from the following formula.
OUT/∆Topr=(((VOUTH-VOUTL)/VOUTM)/115) x 10
∆V
Output voltage value at V
Output voltage value at V
Output voltage value at V
OUTH: 85°C
OUTL: -30°C
OUTM: 25°C
6
(Note 31) The standard value does not include an error by the feedback resistance voltage dividing ratio.
a=25°C unless otherwise specified
Unit Conditions
Set by feedback resistor.
(Note 31)
OUT+0.5V≤VIN≤6.5V
V
IN-VOUT=0.5V
1mA≤IV
V
IN-VOUT=1.0V, IVOUT=100mA,
T
a=-30°C to +85°C, (Note 21)
OUT≤100mA
22 EPSON S1F76980 Technical Manual (Rev.1.0)
Page 27
9. ELECTRICAL CHARACTERISTICS
(Note 32) Measurement of transmission delay time (Nch open drain output)
VCC/VBUS/VBAT
C/U/BDET
VCC/VBUS/VBAT
+C/U/BDET
-C/U/BDET
VSS
VSO(5V)
1/2
V
SS t
TPHLC/U/B TPLHC/U/B
S1F76980 series
VCC/VBUS/VBAT
C/U/BDET
VSS
VSO
t
S1F76980 Technical Manual (Rev.1.0) EPSON 23
Page 28
10. EXTERNAL CONNECTION DIAGRAMS
Y
10. EXTERNAL CONNECTION DIAGRAMS
10.1 S1F76980F0A000B Recommended Connection (For 1-cell Li-ion, OFF-OFF switching, overvoltage limiter not used)
(17)
(20)
(1)
(21)
CDET
VCC
ONOFSW
CSFT
(4)
VDD
BSEL
S1F76980F0A000*
(6)
VOUT
OC1
OC2
VSS
(11)
(12)
(13) (14)
(8)
(1) CVCC= (2) CVBUS= (3) CVBAT=1.0µF(ESR≥1Ω, tantalum), (4) CVDD=0.1µF, (5) CBDLY=6800pF,
(6) CUDLY=6800pF, (7) CV
(8)(9)(10) MOS FET=NTHD2102P (Manufactured by ON Semiconductor.)
(11) ROC1= (12) ROC2= (13) ROU1= (14) ROU2= (15) ROB1= (16) ROB2=2.2MegΩ
(17) RCDET= (18) RUDET= (19) RBDET=470kΩ, (20) CSFT=0.01µF
(21) RV
CC= (22) RVBUS= (23) RVBAT=1MegΩ
OUT=94µF (Connect 47µF capacitors in parallel.)
(Note 33) The recommended connection diagram is carefully evaluated, ensure to verify characteristics by
installing the machine onto the set before using it.
(22)
(18)
(2)
BUS
V
OU1
UDET
OU2
(16)
(9) (10)
(6)
CUDLY
OB2
TM3
BDET
CBDL
PSW
OB1
IQ
V
BAT
FB
(15)
(5)
(3)
(19)
(23)
24 EPSON S1F76980 Technical Manual (Rev.1.0)
Page 29
10. EXTERNAL CONNECTION DIAGRAMS
Y
10.2 S1F76980F0B/C000B Recommended Connection (For 2-cell dry battery, ON-ON switching, overvoltage limiter used)
(19)
(22)
(23)
(1)
V
CC
CDET
CSFT
ONOFSW
(4)
VDD
S1F76980F0B000*
BSEL
(7)
VOUT
OC1
OC2
VSS
(11)
(12)
(13) (14)
(8)
(1) CVCC= (2) CVBUS= (3) CVBAT=1.0µF (ESR≥1Ω, tantalum), (4) CVDD=0.1µF, (5) CBDLY=6800pF
(6) CUDLY=6800pF, (7) CV
(8)(9)(10) MOS FET=NTHD2102P (Manufactured by ON Semiconductor.)
(11) ROC1= (12) ROC2= (13) ROU1= (14) ROU2= (15) ROB1= (16) ROB2=2.2MegΩ
(17) RFB1=1.0MegΩ, (18) RFB2=0.47MegΩ (Internal reference = 1.05V, V
(19) RCDET= (20) RUDET= (21) RBDET=470kΩ, (22)CSFT=0.01µF
(23) RVCC= (24) RVBUS= (25) RVBAT=1MegΩ
OUT=94µF (Connect 47µF capacitors in parallel.)
(Note 34) The recommended connection diagram is carefully evaluated, ensure to verify characteristics by
installing the machine onto the set before using it.
(24)
(20)
(2)
BUS
V
OU1
UDET
OU2
(16)
(9) (10)
(6)
CUDLY
OB2
(21)
TM3
BDET
IQ
CBDL
PSW
V
BAT
FB
OB1
(15)
OUT = 3.284V targeted.)
(5)
(3)
(18)
(25)
(17)
S1F76980 Technical Manual (Rev.1.0) EPSON 25
Page 30
11. DIMENSIONAL OUTLINE DRAWING (QFN4-24)
y
11. DIMENSIONAL OUTLINE DRAWING (QFN4-24)
T op View
Bottom View
D
Index
S
S
7 12
6 13
Index
1 18
L
24 19
e
A1
E
A
φb
Reference
Symbol
D
E
A
A1 0 -
b 0.17 - 0.3
e
L 0.3 - 0.5
x
y
Dimension in Millimeters
Min. Nom. Max.
-
-
4 -
-
-
0.5 -
-
-
4
-
1
-
0.1
-
0.05
-
-
1 = 1 mm
26 EPSON S1F76980 Technical Manual (Rev.1.0)
Page 31
µ
µ
12. CHARACTERISTIC DATA
12.1 S1F76980F0C000* Characteristic Data
A]
IoprC2[
A]
IoprC2[
VCC-system consumption current 2 @VCC=6V
50
40
30
20
-10 10 30 50 70 90
-30
Ta[°C]
VCC-system consumption current 2 @VCC=3V
40
30
20
10
0
-30
-10 10 30 50 70 90
Ta[°C]
12. CHARACTERISTIC DATA
S1F76980 Technical Manual (Rev.1.0) EPSON 27
Page 32
12. CHARACTERISTIC DATA
µ
VBUS-system consumption current 2 @VBUS=5V
40.0
35.0
A]
30.0
IoprU2[
25.0
20.0
15.0
-30 -10 10 30 50 70 90
a[°C]
T
28 EPSON S1F76980 Technical Manual (Rev.1.0)
Page 33
12. CHARACTERISTIC DATA
µ
µ
A]
IoprB2[
VBAT-system consumption current 2 @VBAT=3.6V
35.0
30.0
25.0
20.0
15.0
10.0
-30
-10 10 30 50 70 90
Ta[°C]
VBAT-system consumption current 2 @VBAT=2.5V
35.0
30.0
A]
25.0
IoprB2[
20.0
15.0
10.0
-30 -10 10 30 50 70 90
Ta[°C]
S1F76980 Technical Manual (Rev.1.0) EPSON 29
Page 34
12. CHARACTERISTIC DATA
2.40
2.35
2.30
2.25
-CDET[V]
2.20
2.15
2.10
2.50
2.45
2.40
2.35
+CDET[V]
2.30
2.25
2.20
-30 -10 10 30 50 70 90
-30 -10 10 30 50 70 90
VCC detecting voltage
Ta[°C]
VCC release voltage
a[°C]
T
30 EPSON S1F76980 Technical Manual (Rev.1.0)
Page 35
12. CHARACTERISTIC DATA
3.90
3.85
3.80
3.75
-UDET[V]
3.70
3.65
3.60
-30
-10 10 30 50 70 90
4.10
4.05
4.00
3.95
+UDET[V]
3.90
3.85
3.80
-10 10 30 50 70 90
-30
VBUS detecting voltage
T
a[°C]
VBUS release voltage
T
a[°C]
S1F76980 Technical Manual (Rev.1.0) EPSON 31
Page 36
12. CHARACTERISTIC DATA
1.75
1.70
1.65
1.60
-BDET[V]
1.55
1.50
1.45
-30 -10 10 30 50 70 90
2.10
2.05
2.00
1.95
+BDET[V]
1.90
1.85
1.80
1.75
-30 -10 10 30 50 70 90
VBAT detecting voltage
T
a[°C]
VBAT release voltage
a[°C]
T
32 EPSON S1F76980 Technical Manual (Rev.1.0)
Page 37
12. CHARACTERISTIC DATA
1.6
1.4
VHIZ[V]
1.2
1.0
0.8
-30 -10 10 30 50 70 90
VBAT output guarantee voltage
T
a[°C]
S1F76980 Technical Manual (Rev.1.0) EPSON 33
Page 38
International Sales Operations
AMERICA
EPSON ELECTRONICS AMERICA, INC.
HEADQUARTERS
150 River Oaks Parkway
San Jose, CA 95134, U.S.A.
Phone: +1-800-228-3964 FAX: +1-408-922-0238
SALES OFFICES
Northeast
301 Edgewater Place, Suite 210
Wakefield, MA 01880, U.S.A.
Phone: +1-800-922-7667 FAX: +1-781-246-5443
EUROPE
EPSON EUROPE ELECTRONICS GmbH
HEADQUARTERS
Riesstrasse 15
80992 Munich, GERMANY
Phone: +49-89-14005-0 FAX: +49-89-14005-110
DÜSSELDORF BRANCH OFFICE
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51379 Leverkusen, GERMANY
Phone: +49-2171-5045-0 FAX: +49-2171-5045-10
FRENCH BRANCH OFFICE
1 Avenue de l’ Atlantique, LP 915 Les Conquerants
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Phone: +33-1-64862350 FAX: +33-1-64862355
UK & IRELAND BRANCH OFFICE
8 The Square, Stockley Park, Uxbridge
Middx UB11 1FW, UNITED KINGDOM
Phone: +44-1295-750-216/+44-1342-824451
FAX: +44-89-14005 446/447
Scotland Design Center
Integration House, The Alba Campus
Livingston West Lothian, EH54 7EG, SCOTLAND
Phone: +44-1506-605040 FAX: +44-1506-605041
ASIA
EPSON (CHINA) CO., LTD.
23F, Beijing Silver Tower 2# North RD DongSanHuan
ChaoYang District, Beijing, CHINA
Phone: +86-10-6410-6655 FAX : +86-10-6410-7320
SHANGHAI BRANCH
7F, High-Tech Bldg., 900, Yishan Road,
Shanghai 200233, CHINA
Phone: +86-21-5423-5522 FAX : +86-21-5423-5512
EPSON HONG KONG LTD.
20/F., Harbour Centre, 25 Harbour Road
Wanchai, Hong Kong
Phone: +852-2585-4600 FAX: +852-2827-4346
Telex: 65542 EPSCO HX
EPSON Electronic Technology Development (Shenzhen)
LTD.
12/F, Dawning Mansion, Keji South 12th Road,
Hi- Tech Park, Shenzhen
Phone: +86-755-2699-3828 FAX: +86-755-2699-3838
EPSON TAIWAN TECHNOLOGY & TRADING LTD.
14F, No. 7, Song Ren Road,
Taipei 110
Phone: +886-2-8786-6688 FAX : +886-2-8786-6677
EPSON SINGAPORE PTE., LTD.
1 HarbourFront Place,
#03-02 HarbourFront Tower One, Singapore 098633
Phone: +65-6586-5500 FAX: +65-6271-3182
SEIKO EPSON CORPORATION
KOREA OFFICE
50F, KLI 63 Bldg., 60 Yoido-dong
Youngdeungpo-Ku, Seoul, 150-763, KOREA
Phone: +82-2-784-6027 FAX: +82-2-767-3677
GUMI OFFICE
2F, Grand B/D, 457-4 Songjeong-dong,
Gumi-City, KOREA
Phone: +82-54-454-6027 FAX: +82-54-454-6093
SEIKO EPSON CORPORATION
SEMICONDUCTOR OPERATIONS DIVISION
IC Sales Dept.
IC International Sales Group
421-8, Hino, Hino-shi, Tokyo 191-8501, JAPAN
Phone: +81-42-587-5814 FAX: +81-42-587-5117
Document Code: 410800600
First Issue October 2006
Printed in JAPAN
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Page 39
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