S-8733B0EUP-APCT2X_技术文档

S-87x Series

HIGH WITHSTAND-VOLTAGE

VOLTAGE REGULATOR WITH RESET FUNCTION

www.ablic.com

www.ablicinc.com

Rev.8.0_02

The S-87x Series is a low-power high withstand-voltage regulators with a reset function, which integrates high-

precision voltage detection and voltage regulation circuits on a single chip.

The S-87x Series has lineups for lithium-ion battery packs.

 Features

 Accuracy of output voltage:

 Accuracy of detection voltage:

 Low I/O voltage difference:

 Low current consumption:

 Wide operating voltage range:

2.4 %

2.5 V to 5.8 V (0.1 V step)

2.4 % (For the F type, the release voltage is 1.1 %)

2.1 V to 11.3 V (0.1 V step)

0.15 V typ. (at I_OUT30 mA, V_OUT5.0 V)

0.45 V typ. (at I_OUT30 mA, V_OUT3.0 V)

At Operation mode: 8 A max.

At Shutdown mode: 3.5 A max. (Available for the C/E/G type)

24 V max.

 Wide operating temperature range: 40°C to 85°C

 Built-in delay circuit or shutdown circuit

 Built-in short-circuit protection circuit

 Lead-free, Sn 100%, halogen-free^*1

*1. Refer to “ Product Name Structure” for details.

 Applications

 Constant voltage power supply or reset circuit of battery-powered equipment, VTR, camera,

communications equipment and others.

 Lithium-ion secondary battery pack

 Package

 SOT-89-5

1

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

 Block Diagrams

1. A/F type

Short-circuit

protection circuit

Voltage

regulator

VIN

VOUT

VOR

Voltage detection

circuit

Delay circuit

VSS

CD

Figure 1

2. B type

Short-circuit

protection circuit

Voltage

regulator

VIN

VOUT

Voltage detection

circuit

VOR

Delay circuit

VSS

CD

Figure 2

2

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

3. C type

Short-circuit

protection circuit

Voltage

regulator

VOUT

VOR

VIN

Voltage detection

circuit

VSS

Shutdown circuit

VPF

Figure 3

4. E type

Short-circuit

protection circuit

Voltage

regulator

VIN

VOUT

Power on/off

SENSE

VOR

Voltage detection

circuit

VSS

Figure 4

3

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

5. G type

Short-circuit

protection circuit

Voltage

regulator

VOUT

VOR

VIN

Voltage detection

circuit

VSS

Shutdown circuit

VPF

Figure 5

4

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

Rev.8.0_02

S-87x Series

 Product Name Structure

1. Function list

Table 1

Shutdown

function

Detection voltage

(V_DET) accuracy

Release voltage

(V_DET) accuracy

Built-in

delay

circuit

Yes

No

Yes

No

Voltage detector

Type name

(VD)

[%]



1.1



VR

No

VD

No

A type

B type

C type

E type

F type

G type

Detects V_IN

Detects V_OUT

Detects V_IN

Detects V_SENSE

Detects V_IN

2.4



No

Yes

No

Detects V_OUT

Yes

2.4

2. Product name selection guide

S-87 xx xx x UP - xxx T2 x

Environmental code

U: Lead-free (Sn 100%), halogen-free

G: Lead-free (for details, please contact our sales office)

IC direction in the tape sepecifications^*1

Product name (Abbreviation)^*2

Package name (Abbreviation)

UP: SOT-89-5

Product type

A: Built-in delay circuit, V_INdetection (V_DETdetection)

B: Built-in delay circuit, V_OUTdetection

C: Built-in shudown circuit for regulator, V_INdetection

E: Built-in shudown circuit for regulator, V_SENSEdetection

F: Built-in delay circuit, V_INdetection (V_DETdetection)

G: Built-in shudown circuit for regulator, V_OUTdetection

Detection voltage of voltage detector

21 to 94, A0, B0, B3 (Ex. When the detection voltage of voltage

detector is 2.1 V, it is expressed as 21.^*3)

Output voltage of voltage regulator

25 to 56 (Ex. When the output voltage of voltage regulator is

*1. Refer to the tape specifications at the end of this document.

*2. Refer to the Table 2 to Table 3 in the “4. Product name list”.

*3. A0 for 10.0 V, B0 for 11.0 V, B3 for 11.3 V.

3. Package

Drawing Code

Tape

UP005-A-C-SD

Package Name

SOT-89-5

Package

UP005-A-P-SD

Reel

UP005-A-R-SD

5

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

4. Product name list

Table 2 (1/2)

VR output

voltage [V]

5.6

VD detection

S-87xxxxA Series

S-87xxxxB Series

S-87xxxxC Series

voltage [V]

3.5

9.4

7.1

5.5

11.0

7.7

6.1

4.5

4.3

4.1

3.9

3.7

3.4

2.9

2.1

7.7

6.1

4.1

2.8

2.5

6.9

5.9

2.5

2.4

2.3

2.2

2.1

2.2

S-875635BUP-AGAT2x



5.2

S-875294CUP-AHCT2x

S-875271CUP-AHAT2x

S-875255CUP-AHBT2x

S-8750B0CUP-ACGT2x

S-875077CUP-ACFT2x

S-875061CUP-ACHT2x



5.0



S-875077AUP-AAFT2x



S-875045AUP-AAAT2x S-875045BUP-ABAT2x S-875045CUP-ACAT2x

S-875043AUP-AABT2x S-875043BUP-ABBT2x S-875043CUP-ACBT2x

S-875041AUP-AACT2x S-875041BUP-ABCT2x S-875041CUP-ACCT2x

S-875039AUP-AADT2x S-875039BUP-ABDT2x S-875039CUP-ACDT2x

S-875037AUP-AAET2x S-875037BUP-ABET2x S-875037CUP-ACET2x

S-875034BUP-ABFT2x

S-875029BUP-ABHT2x

S-875021BUP-ABGT2x



3.3

3.0

S-873377AUP-0AAT2x



S-873361CUP-AOHT2x

S-873341CUP-AOCT2x



S-873328AUP-0ABT2x

S-873325BUP-ALAT2x



S-873069CUP-AFFT2x

S-873059CUP-AFGT2x



S-873025AUP-ADAT2x S-873025BUP-AEAT2x S-873025CUP-AFAT2x

S-873024AUP-ADBT2x S-873024BUP-AEBT2x S-873024CUP-AFBT2x

S-873023AUP-ADCT2x S-873023BUP-AECT2x S-873023CUP-AFCT2x

S-873022AUP-ADDT2x S-873022BUP-AEDT2x S-873022CUP-AFDT2x

S-873021AUP-ADET2x S-873021BUP-AEET2x S-873021CUP-AFET2x

2.6

S-872622BUP-OLAT2x



6

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

Table 2 (2/2)

VR output VD detection

S-87xxxxE Series

S-87xxxxG Series

voltage [V]

5.0

voltage [V]

11.0

8.7

S-8750B0EUP-AJIT2x

S-875087EUP-AJGT2x

S-875077EUP-AJFT2x

S-875061EUP-AJHT2x



7.7

6.1

4.2

S-875042GUP-ANCT2x

S-875037GUP-ANET2x

3.7



S-875033EUP-AJAT2x

S-875030EUP-AJBT2x

S-8733B0EUP-APCT2x

S-8733A0EUP-APFT2x

S-873382EUP-APHT2x

S-873372EUP-APET2x

S-873364EUP-APGT2x

S-873348EUP-APDT2x

S-873330EUP-APBT2x

S-8730B3EUP-AMFT2x

S-873082EUP-AMCT2x

S-873062EUP-AMBT2x

S-873050EUP-AMET2x

S-873042EUP-AMDT2x

S-872548EUP-AZBT2x

S-872530EUP-AZCT2x

S-872526EUP-AZAT2x

3.3

3.0

11.0

10.0

8.2

7.2

6.4

4.8

3.0

11.3

8.2

6.2

5.0

4.2

4.8

3.0

2.6



3.3

3.0

2.5

Caution In the S-87xxxxB/S-87xxxxG Series, when the output voltage of the voltage regulator is

close to the detection voltage of the voltage detector, the transient response of the

voltage regulator may cause false detection. Please take transient response into

account when deciding voltages.

Remark1. x: G or U

2. Please select products of environmental code = U for Sn 100%, halogen-free products.

Table 3

VR output

voltage [V]

5.0

VD release

voltage [V]

8.7

S-87xxxxF Series

S-875087FUP-AKAT2x

Remark1. x: G or U

2. Please select products of environmental code = U for Sn 100%, halogen-free products.

7

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

 Pin Configuration

Table 4

SOT-89-5

Top view

Pin No.

Symbol

VOUT

VSS

Description

1

2

Voltage output pin of voltage regulator

Ground pin

5

4

CD

(A/B/F type)

Connection pin of external capacitor

for delay of voltage detector

3

VPF

Input pin of shutdown circuit

(C/G type)

SENSE

(E type)

Voltage monitoring pin of voltage

detector

Output pin of voltage detector,

Nch opendrain output

Positive power-supply

1

3

2

4

5

VOR

VIN

Figure 6

8

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

Rev.8.0_02

S-87x Series

 Absolute Maximum Ratings

Table 5

Symbol

(Unless otherwise specified: Ta25°C)

Item

Absolute maximum rating

Unit

Input voltage^*1

V_IN

V

V_SS0.3 to V_SS26

V_CD

V_SS0.3 to V_IN0.3

(A/B/F type)

V_SS0.3 to V_SS26

VPF

(C/G type)

V_SENSE

(E type)

V_OUT

Output voltage

V_SS0.3 to V_IN0.3

V_SS0.3 to V_SS26

500 (When not mounted on board)

1000^*2

Output voltage of voltage detector

Power dissipation

V_OR

P_D

mW

°C

Operating ambient temperature

Storage temperature

T_opr

T_stg

40 to 85

40 to 125

*1. Even pulse (s) noise exceeding the above input voltage (V_SS26 V) may damage the IC. Observe the

rated input voltage (V_SS26 V).

*2. When mounted on board

[Mounted board]

(1) Board size: 114.3 mm  76.2 mm  t1.6 mm

(2) Board name: JEDEC STANDARD51-7

Caution The absolute maximum ratings are rated values exceeding which the product could suffer

physical damage. These values must therefore not be exceeded under any conditions.

(1) When mounted on board

(2) When not mounted on board

1200

600

1000

800

500

400

300

600

400

200

0

200

100

0

50

100

150

0

50

100

150

Ambient Temperature Ta (C)

Figure 7 Power dissipation of package

9

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

 Electrical Characteristics

1. S-8750xxA Series/S-8750xxB Series

Table 6

Condition

(Unless otherwise specified: Ta25°C)

Test

Item

Symbol

Min.

Typ.

Max.

Unit

circuit

Voltage Regulator

Output voltage

V_OUT

V_dif

V_IN7 V, I_OUT30 mA

4.88

5.00

0.15

5.12

0.40

V

1

I/O voltage difference

I_OUT30 mA

V_IN6 to 24 V,

I_OUT30 mA

V_IN7 V,



Line regulation

V_OUT1

V_OUT2



15

50

mV

Load regulation

Input voltage



15

50

24

I_OUT50 A to 40 mA

V_IN

∆V^OUT

∆Ta



V

Temperature

coefficient of V_OUT

V_IN7 V, I_OUT30 mA,

Ta40°C to 85°C

mV

/°C



0.38

1.52

Voltage Detector

Operating voltage

Delay time^*1

V_opr

t_pd

1.3

15

24

41

V

ms

2

3



27

C_D4.7 nF

∆  VDET

∆Ta

Tempertue

characteristic of V_DET

mV

/°C

Ta40°C to 85°C



0.5

2.0

2

Detection voltage

V_DET

S-875045A/B

S-875043A/B

S-875041A/B

S-875039A/B

S-875037A/B

S-875021B

4.392

4.196

4.001

3.806

3.611

2.049

0.25

4.50

4.30

4.10

3.90

3.70

2.10

0.60

2.60

4.50

4.608

4.404

4.199

3.994

3.789

2.151



V

Sink current

I_DOUT

V_IN1.3 V

mA

4

Nch,

V_DS0.5 V

V_IN2.4 V

V_IN3.6 V

1.50

3.00



Nch,

Leakage current

Hysteresis width

I_LEAK

V_HYS

0.1

A



V_DS24 V, V_IN10 V

V_DET

0.01

V_DET

0.03

V_DET

0.025

V_DET

0.08

S-875045A/B

V

2

5

S-875043A/B to

S-875021A/B

Total

Current consumption^*2

I_SS

V_IN7 V, Unloaded

3

8

A



*1. t_pd(ms)(3.18 min., 5.74 typ., 8.73 max.)C_D(nF)

*2. Excluding the charging current of C_D

10

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

Rev.8.0_02

S-87x Series

2. S-8730xxA Series/S-8730xxB Series

Table 7

Condition

(Unless otherwise specified: Ta25°C)

Test

Item

Symbol

Min.

Typ.

Max.

Unit

circuit

Voltage Regulator

Output voltage

V_OUT

V_dif

V_IN5 V, I_OUT30 mA

2.928

3.000

0.45

3.072

0.70

V

1

I/O voltage difference

I_OUT30 mA

V_IN4 to 24 V,

I_OUT30 mA

V_IN5 V,



Line regulation

V_OUT1

V_OUT2



15

50

mV

Load regulation

Input voltage



15

50

24

I_OUT50 A to 40 mA

V_IN

∆V^OUT

∆Ta



V

Temperature

coefficient of V_OUT

V_IN5 V, I_OUT30 mA,

Ta40°C to 85°C

mV

/°C



0.23

0.92

Voltage Detector

Operating voltage

Delay time^*1

V_opr

t_pd

1.3

15

24

41

V

ms

2

3



27

C_D4.7 nF

∆  VDET

∆Ta

Temperature

characteristic of V_DET

mV

/°C

Ta40°C to 85°C



0.3

1.2

2

Detection voltage

V_DET

S-873025A/B

S-873024A/B

S-873023A/B

S-873022A/B

S-873021A/B

2.440

2.342

2.244

2.147

2.049

2.500

2.400

2.300

2.200

2.100

2.560

2.458

2.356

2.253

2.151

V

Nch,

V_IN1.3 V

Sink current

I_DOUT

0.25

1.50



0.60

2.60



mA

4



V_DS0.5 V Other than below

V_IN2.4 V

S-873025A/B

Nch,

Leakage current

Hysteresis width

I_LEAK

V_HYS

0.1

A

V_DS24 V, V_IN10 V

V_DET

0.03

V_DET

0.08

V

2

5



Total

Current consumption^*2

I_SS

V_IN5 V, Unloaded

3

8

A



*1. t_pd(ms)(3.18 min., 5.74 typ., 8.73 max.)C_D(nF)

*2. Excluding the charging current of C_D

11

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

3. S-875635B

Item

Rev.8.0_02

Table 8

Condition

(Unless otherwise specified: Ta25°C)

Test

circuit

Symbol

Min.

Typ.

Max.

Unit

Voltage Regulator

Output voltage

V_OUT

V_dif

V_IN7.6 V, I_OUT30 mA

5.465

5.60

0.15

5.735

0.40

V

1

I/O voltage difference

I_OUT30 mA

V_IN6.6 to 24 V,

I_OUT30 mA

V_IN7.6 V,



Line regulation

V_OUT1

V_OUT2



15

50

mV

Load regulation

Input voltage



15

50

24

I_OUT50 A to 40 mA

V_IN

∆V^OUT

∆Ta



V

Temperature

coefficient of V_OUT

V_IN7.6 V, I_OUT30 mA,

Ta40°C to 85°C

mV

/°C



0.43

1.72

Voltage Detector

Operating voltage

Delay time^*1

V_opr

t_pd

1.3

15

24

41

V

ms

2

3



27

C_D4.7 nF

∆  VDET

∆Ta

Temperature

characteristic of V_DET

mV

/°C

Ta40°C to 85°C



0.3

1.2

2

Detection voltage

Sink current

V_DET

I_DOUT

3.416

0.25

1.50

3.50

0.60

2.60

3.584



V

mA



V_IN1.3 V

V_IN2.4 V

4

Nch,

V_DS0.5 V

Nch,

Leakage current

Hysteresis width

I_LEAK

V_HYS

0.1

A



V_DS24 V, V_IN10 V

V_DET

0.03

V_DET

0.08

V

2

5



Total

Current consumption^*2

I_SS

V_IN7.6 V, Unloaded

4

8

A



*1. t_pd(ms)(3.18 min., 5.74 typ., 8.73 max.)C_D(nF)

*2. Excluding the charging current of C_D

12

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

Rev.8.0_02

S-87x Series

4. S-873325B

Table 9

Condition

(Unless otherwise specified: Ta25°C)

Test

Item

Symbol

Min.

Typ.

Max.

Unit

circuit

Voltage Regulator

Output voltage

V_OUT

V_dif

V_IN5.3 V, I_OUT30 mA

3.220

3.300

0.45

3.380

0.70

V

1

I/O voltage difference

I_OUT30 mA

V_IN4.3 to 24 V,

I_OUT30 mA

V_IN5.3 V,



Line regulation

V_OUT1

V_OUT2



15

50

mV

Load regulation

Input voltage



15

50

24

I_OUT50 A to 40 mA

V_IN

∆V^OUT

∆Ta



V

Temperature

coefficient of V_OUT

V_IN5.3 V, I_OUT30 mA,

Ta40°C to 85°C

mV

/°C



0.25

1.00

Voltage Detector

Operating voltage

Delay time^*1

V_opr

t_pd

1.3

15

24

41

V

ms

2

3



27

C_D4.7 nF

∆  VDET

∆Ta

V_DET

Temperature

characteristic of V_DET

Detection voltage

mV

/°C

Ta40°C to 85°C



0.2

2.500

0.60

0.8

2.560



2

2.440

0.25

V



Nch,

V_DS0.5 V, V_IN1.3 V

Nch,

Sink current

I_DOUT

I_LEAK

V_HYS

mA

4

Leakage current

Hysteresis width



0.1

A

V_DS24 V, V_IN10 V

V_DET

0.03

V_DET

0.08

V

2

5



Total

Current consumption^*2

I_SS

V_IN5.3 V, Unloaded

4

8

A



*1. t_pd(ms)(3.18 min., 5.74 typ., 8.73 max.)C_D(nF)

*2. Excluding the charging current of C_D

13

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

5. S-8750xxC Series/S-875037G

Table 10 (1/2)

Condition

(Unless otherwise specified: Ta25°C)

Test

Item

Symbol

Min.

Typ.

Max.

Unit

circuit

Voltage Regulator

Output voltage

V_OUT

V_dif

V_IN7 V, I_OUT30 mA

4.88

5.00

0.15

5.12

0.40

V

1

I/O voltage difference

I_OUT30 mA

V_IN6 to 24 V,

I_OUT30 mA

V_IN7 V,



Line regulation

V_OUT1

V_OUT2



15

50

mV

Load regulation

Input voltage



15

50

24

I_OUT50 A to 40 mA

V_IN

∆V^OUT

∆Ta



V

Temperature

coefficient of V_OUT

V_IN7 V, I_OUT30 mA,

Ta40°C to 85°C

mV

/°C



0.38

1.52

Shutdown output

voltage

V_IN7 V, VPF ”L”,

R_L1 M

V_OUT/OFF

6



0.1

V

Voltage Detector

Operating voltage

V_opr

∆  VDET

∆Ta

1.3



24

V

2



Temperature

characteristic of V_DET

Ta40°C

S-8750B0C

to 85°C

mV

/°C

0.8

0.6

3.2

2.4

S-875077C

S-875061C to

S-875037C,



0.5

2.0

S-875037G

Detection voltage

V_DET

S-8750B0C

10.736 11.00 11.264

V

S-875077C

S-875061C

S-875045C

S-875043C

S-875041C

S-875039C

S-875037C/S-875037G

Nch,

7.515

5.953

4.392

4.196

4.001

3.806

3.611

0.25

7.70

6.10

4.50

4.30

4.10

3.90

3.70

0.60

2.60

4.50

7.885

6.247

4.608

4.404

4.199

3.994

3.789



Sink current

I_DOUT

V_IN1.3 V

V_IN2.4 V

V_IN3.6 V

mA

4

V_DS0.5 V

1.50

3.00



V_IN10 V

S-875077C to

Nch,

Leakage current

I_LEAK

0.1

A



V_DS24 V S-875037C,

S-875037G

V_IN15 V

S-8750B0C

V_DET

0.01

V_DET

0.025

Hysteresis width

V_HYS

S-875045C

V

2



S-8750B0C to S-875061C,

S-875043C to S-875037C,

S-875037G

V_DET

0.03

V_DET

0.08

14

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

Rev.8.0_02

S-87x Series

Table 10 (2/2)

Condition

(Unless otherwise specified: Ta25°C)

Test

circuit

Item

Symbol

I_SS

Min.

Typ.

Max.

Unit

Total

V_IN7 V,

S-8750B0C to

S-875061C

Current consumption

4

3

8

A

5



Unloaded

S-875045C to

S-875037C,

S-875037G

VPF ”L”, Shutdown,

V_IN7 V

l_of

1.5



3.5

0.4



Shutdown input

voltage

VPF ”L”, Shutdown,

V_IN7 V

V_IL

V_IH

V

6

VPF ”H”, Power on,

V_IN7 V

2.0



15

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

6. S-8730xxC Series

Item

Rev.8.0_02

Table 11

Condition

(Unless otherwise specified: Ta25°C)

Test

circuit

Symbol

Min.

Typ.

Max.

Unit

Voltage Regulator

Output voltage

V_OUT

V_dif

V_IN5 V, I_OUT30 mA

2.928

3.000

0.45

3.072

0.70

V

1

I/O voltage difference

I_OUT30 mA

V_IN4 to 24 V,

I_OUT30 mA

V_IN5 V,



Line regulation

V_OUT1

V_OUT2



15

50

mV

Load regulation

Input voltage



15

50

24

I_OUT50 A to 40 mA

V_IN

∆V^OUT

∆Ta



V

Temperature

coefficient of V_OUT

V_IN5 V, I_OUT30 mA,

Ta40°C to 85°C

V_IN5V,

mV

/°C



0.23

0.92

Shutdown output

voltage

V_OUTOFF

6

2



0.1

V

VPF ”L”, R_L1 M

Voltage Detector

Operating voltage

V_opr

1.3

24

V



S-873069C

S-873025C to

S-873021C

0.5

2.0



∆  VDET

∆Ta

Temperature

characteristic of V_DET

Ta40°C

to 85°C

mV

/°C



0.3

1.2

Detection voltage

V_DET

S-873069C

S-873025C

S-873024C

S-873023C

S-873022C

S-873021C

Nch,

6.734

2.440

2.342

2.244

2.147

2.049

6.900

2.500

2.400

2.300

2.200

2.100

7.066

2.560

2.458

2.356

2.253

2.151

V

mA

4

V_IN1.3 V

Sink current

I_DOUT

0.25

1.50

3.00

0.60



V_DS0.5 V Other than below

V_IN2.4 V

S-873069C,

S-873025C

V_IN3.6 V

2.60

4.50



S-873069C

Leakage current

Hysteresis width

I_LEAK

V_HYS

Nch, V_DS24 V, V_IN10 V

0.1

V_DET

0.08

A



V_DET

0.03

V

2



Total

Current consumption

I_SS

l_of

3

8

5

6

V_IN5 V, Unloaded



A

1.5

3.5

0.4

VPF ”L”, Shutdown, V_IN5 V

VPF ”H”, Power on, V_IN5 V

V

Shutdown input voltage

V_IL

V_IH



2.0



16

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

Rev.8.0_02

S-87x Series

7. S-875271C, S-875255C

Table 12

Condition

(Unless otherwise specified: Ta25°C)

Test

Item

Symbol

Min.

Typ.

Max.

Unit

circuit

Voltage Regulator

Output voltage

V_OUT

V_dif

V_IN7.2 V, I_OUT30 mA

5.075

5.20

0.15

5.325

0.40

V

1

I/O voltage difference

I_OUT30 mA

V_IN6.2 to 24 V,

I_OUT30 mA

V_IN7.2 V,



Line regulation

V_OUT1

V_OUT2



15

50

mV

Load regulation

Input voltage



15

50

24

I_OUT50 A to 40 mA

V_IN

∆V^OUT

∆Ta



V

Temperature

coefficient of V_OUT

V_IN7.2 V, I_OUT30 mA,

Ta40°C to 85°C

V_IN7.2V,

mV

/°C



0.40

1.60

Shutdown output

voltage

V_OUTOFF

6

2



0.1

V

VPF ”L”, R_L1 M

Voltage Detector

Operating voltage

V_opr

∆  VDET

∆Ta

1.3

24

V



0.5

S-875271C

2.0



Temperature

characteristic of V_DET

Ta40°C

mV

/°C

to 85°C

S-875255C

0.4

7.10

5.50

0.60

2.60

4.50



1.6

7.271

5.632



0.1

V_DET

0.08

S-875271C

S-875255C

Nch,

6.929

5.368

0.25

1.50

3.00



V

Detection voltage

Sink current

V_DET

I_DOUT

V_IN1.3V

V_IN2.4V

V_IN3.6V

mA

4

V_DS0.5 V

Leakage current

Hysteresis width

I_LEAK

V_HYS

Nch, V_DS24 V, V_IN10 V

A

V_DET

0.03

V

2

5



Total

Current consumption

I_SS

l_of

V_IN7.2 V, Unloaded

4

8

A



VPF ”L”, Shutdown,

V_IN7.2 V

1.5

3.5

V

6

Shutdown input

voltage

VPF ”L”, Shutdown,

V_IN7.2 V

V_IL

V_IH

0.4



VPF ”H”, Power on,

V_IN7.2 V

2.0



17

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

8. S-875294C

Table 13

Condition

(Unless otherwise specified: Ta25°C)

Test

Item

Symbol

Min.

Typ.

Max.

Unit

circuit

Voltage Regulator

Output voltage

V_OUT

V_dif

V_IN14.4 V, I_OUT30 mA

5.075

5.20

0.15

5.325

0.40

V

1

I/O voltage difference

I_OUT30 mA

V_IN6.2 to 24 V,

I_OUT30 mA

V_IN14.4 V,

I_OUT50 A to 40 mA



Line regulation

V_OUT1

V_OUT2



15

50

mV

Load regulation

Input voltage



15

50

24

V_IN

∆V^OUT

∆Ta



V

Temperature

coefficient of V_OUT

V_IN14.4 V, I_OUT30 mA,

Ta40°C to 85°C

V_IN14.4 V,

mV

/°C



0.40

1.60

Shutdown output

voltage

V_OUTOFF

6

2



0.1

V

VPF ”L”, R_L1 M

Voltage Detector

Operating voltage

V_opr

∆  VDET

∆Ta

1.3

24

V



Temperature

characteristic of V_DET

mV

/°C

Ta40°C to 85°C



0.7

2.8

Detection voltage

V_DET

9.174

9.40

9.626

V



mA

4

V_IN1.3 V

Nch,

0.25

1.50

3.00



0.60

2.60

4.50



Sink current

I_DOUT

V_IN2.4 V

V_DS0.5 V

V_IN3.6 V

Leakage current

Hysteresis width

I_LEAK

V_HYS

Nch, V_DS24 V, V_IN10 V

0.1

A

V_DET

0.03

V_DET

0.08

V

2

5



Total

Current consumption

I_SS

l_of

V_IN14.4 V, Unloaded



4

9

A

VPF ”L”, Shutdown,,

V_IN14.4 V

2.1

4.7

V

6

Shutdown input

voltage

VPF ”L”, Shutdown,

V_IN14.4 V

V_IL

V_IH

0.4



VPF ”H”, Power on,

V_IN14.4 V

2.6



18

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

Rev.8.0_02

S-87x Series

9. S-873361C

Table 14

Condition

(Unless otherwise specified: Ta25°C)

Test

Item

Symbol

Min.

Typ.

Max.

Unit

circuit

Voltage Regulator

Output voltage

V_OUT

V_dif

V_IN5.3 V, I_OUT30 mA

3.220

3.300

0.45

3.380

0.70

V

1

I/O voltage difference

I_OUT30 mA

V_IN4.3 to 24 V,

I_OUT30 mA

V_IN5.3 V,



Line regulation

V_OUT1

V_OUT2



15

50

mV

Load regulation

Input voltage



15

50

24

I_OUT50 A to 40 mA

V_IN

∆V^OUT

∆Ta



V

Temperature

coefficient of V_OUT

V_IN5.3 V, I_OUT30 mA,

Ta40°C to 85°C

mV

/°C



0.25

1.00

Shutdown output

voltage

V_IN5.3 V, VPF ”L”,

R_L1 M

V_OUTOFF

6

2



0.1

V

Voltage Detector

Operating voltage

V_opr

∆  VDET

∆Ta

1.3

24

V



Temperature

characteristic of V_DET

mV

/°C

Ta40°C to 85°C



0.5

2.0

Detection voltage

Sink current

V_DET

5.953

6.100

6.247

V



I_DOUT

V_IN1.3 V

V_IN2.4 V

V_IN3.6 V

0.25

1.50

3.00



V_DET

0.03

0.60

2.60

4.50



mA

4



0.1

V_DET

0.08

Nch,

V_DS0.5 V

Leakage current

Hysteresis width

I_LEAK

V_HYS

Nch, V_DS24 V, V_IN10 V

A

V

2

5



Total

Current consumption

I_SS

l_of

V_IN5.3 V, Unloaded



4

8

A

VPF ”L”, Shutdown,

V_IN5.3 V

1.5

3.5

V

6

Shutdown input

voltage

VPF ”L”, Shutdown,

V_IN5.3 V

V_IL

V_IH

0.4



VPF ”H”, Power on,

V_IN5.3 V

2.0



19

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

10. S-8750xxE Series

Table 15

(Unless otherwise specified: Ta25°C, Connect the SENSE pin to the VIN pin.)

Test

circuit

Item

Symbol

Condition

Min.

Typ.

Max. Unit

Voltage Regulator

Output voltage

V_IN7 V, I_OUT30 mA,

V_SENSEV_{DET (Typ.)}2 V

I_OUT30 mA,

V_SENSEV_{DET (Typ.)}2 V

V_IN6 to 24 V, I_OUT30 mA,

V_SENSEV_{DET (Typ.)}2 V

V_IN7 V, I_OUT50 A to 40 mA,

V_SENSEV_{DET (Typ.)}2 V



V_OUT

V_dif

4.88



5.00

0.15

15

5.12

0.40

50

V

1

I/O voltage difference

Line regulation

V_OUT1



mV

V

Load regulation

Input voltage

V_OUT2



15

50

24

V_IN



V_IN7 V, I_OUT30 mA,

Ta40°C to 85°C,

V_SENSEV_{DET (Typ.)}2 V

∆V^OUT

∆Ta

Temperature

coefficient of V_OUT

mV

/°C



0.38 1.52

Output voltage during

voltage detection

Voltage Detector

Operating voltage

V_OUTOFFV_INV_{DET (Typ.)}1V, R_L1 M

6

2



0.1

V

V_opr

∆  VDET

∆Ta

1.3

24

V



S-875077E

S-875061E

0.6

2.4



Temperature

characteristic of V_DET

Ta40°C to

85°C

mV

/°C

0.5

7.70

6.10

0.60

2.60

4.50

2.0

7.885

6.247



S-875077E

S-875061E

7.515

5.953

0.25

1.50

3.00

V

Detection voltage

Sink current

V_DET

I_DOUT

Nch, V_DS0.5 V

V_IN1.3 V

V_IN2.4 V

V_IN3.6 V

mA

4

7

Nch, V_DS24 V,

V_INV_{DET (Typ.)}2 V

V_IN7 V,

V_SENSEV_{DET (Typ.)}

2 V

Leakage current

I_LEAK

0.1

A



SENSE pin input current

l_SENSE

S-875077E

S-875061E

0.6

0.7

1.7

1.8



V_DET

0.03

V_DET

0.08

Hysteresis width

V_HYS

V

2

5



Total

Current consumption

A

I_SS

S-875077E

S-875061E

4

8



V_INV_{DET (Typ.)}2 V,

Unloaded

4

9



l_of

V_INV_{DET (Typ.)}1 V, Shutdown

1.5

3.5

20

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

11. S-8730xxE Series

Table 16

(Unless otherwise specified: Ta25°C, Connect the SENSE pin to the VIN pin.)

Test

circuit

Item

Symbol

Condition

Min.

Typ.

Max. Unit

Voltage Regulator

Output voltage

V_IN5 V, I_OUT30 mA,

V_SENSEV_{DET (Typ.)}2 V

I_OUT30 mA,

V_SENSEV_{DET (Typ.)}2 V

V_IN4 to 24 V, I_OUT30 mA,

V_SENSEV_{DET (Typ.)}2 V

V_IN5 V, I_OUT50 A to 40 mA,

V_SENSEV_{DET (Typ.)}2 V



V_OUT

V_dif

2.928 3.000 3.072

V

1

I/O voltage difference

Line regulation



0.45

15

0.70

50

V_OUT1

mV

V

Load regulation

Input voltage

V_OUT2



15

50

24

V_IN



V_IN5 V, I_OUT30 mA,

Ta40°C to 85°C,

V_SENSEV_{DET (Typ.)}2 V

∆V^OUT

∆Ta

Temperature

coefficient of V_OUT

mV

/°C



0.23 0.92

Output voltage during

voltage detection

Voltage Detector

Operating voltage

V_OUTOFFV_INV_{DET (Typ.)}1 V, R_L1 M

6

2



0.1

V

V_opr

∆  VDET

∆Ta

1.3



24

V



S-873082E

S-873062E

0.6

0.5

2.4

2.0

Temperature

characteristic of V_DET

Ta40°C to

85°C

mV

/°C

Detection voltage

V_DET

S-873082E

S-873062E

8.003 8.200 8.397

6.051 6.200 6.349

V

Sink current

I_DOUT

V_IN1.3 V

V_IN2.4 V

V_IN3.6 V

0.25

1.50

3.00

0.60

2.60

4.50

mA

4

7



Nch, V_DS0.5 V

Nch, V_DS24 V,

V_INV_{DET (Typ.)}2 V

V_IN5 V,

V_SENSEV_{DET (Typ.)}

2 V

A

Leakage current

I_LEAK

0.1



l_SENSE

S-873082E

S-873062E

0.6

1.7

1.8



SENSE pin input

current



V_DET

0.03

V_DET

0.08

Hysteresis width

V_HYS

V

2

5



Total

Current consumption

I_SS

l_of

V_INV_{DET (Typ.)}2 V, Unloaded

V_INV_{DET (Typ.)}1 V, Shutdown

4

1.5

8

3.5

A



21

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

12. S-873330E

Table 17

(Unless otherwise specified: Ta25°C, Connect the SENSE pin to the VIN pin.)

Test

circuit

Item

Symbol

Condition

Min.

Typ.

Max. Unit

Voltage Regulator

Output voltage

V_IN5.3 V, I_OUT30 mA,

V_SENSEV_{DET (Typ.)}2 V

I_OUT30 mA,

V_SENSEV_{DET (Typ.)}2 V

V_IN4.3 to 24 V, I_OUT30 mA,

V_SENSEV_{DET (Typ.)}2 V

V_IN5.3 V,

V_OUT

V_dif

3.220 3.300 3.380

V

1

I/O voltage difference

Line regulation



0.45

15

0.70

50

V_OUT1

mV

Load regulation

Input voltage

V_OUT2

I_OUT50 A to 40 mA,

V_SENSEV_{DET (Typ.)}2 V



V_IN5.3 V, I_OUT30 mA,

Ta40°C to 85°C,

V_SENSEV_{DET (Typ.)}2 V



15

50

24

V_IN



V

∆V^OUT

∆Ta

Temperature

coefficient of V_OUT

mV

/°C

0.25 1.00

Output voltage during

voltage detection

Voltage Detector

Operating voltage

V_OUTOFFV_INV_{DET (Typ.)}1 V, R_L1 M

6

2



0.1

V

V_opr

∆  VDET

∆Ta

1.3

24

V



Temperature

characteristic of V_DET

mV

/°C

Ta40°C to 85°C



0.2

0.8

Detection voltage

Sink current

V_DET



2.928 3.000 3.072

V

I_DOUT

V_IN1.3 V

V_IN2.4 V

0.25

1.50

0.60

2.60

mA

4



Nch,

V_DS0.5 V

Nch, V_DS24 V,

V_INV_{DET (Typ.)}2 V

A

Leakage current

I_LEAK

l_SENSE

V_HYS

0.1



0.5



SENSE pin input

current

V_IN5.3 V,

V_SENSEV_{DET (Typ.)}2 V

1.3

7

2

V_DET

0.03

V_DET

0.08

Hysteresis width

V



Total

Current consumption

I_SS

l_of

4

1.5

8

3.5

5

V_INV_{DET (Typ.)}2 V, Unloaded

V_INV_{DET (Typ.)}1 V, Shutdown



A

22

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

13. S-8725xxE Series

Table 18

(Unless otherwise specified: Ta25°C, Connect the SENSE pin to the VIN pin.)

Test

circuit

Item

Symbol

Condition

Min.

Typ.

Max. Unit

Voltage Regulator

Output voltage

V_IN4.5 V, I_OUT30 mA,

V_SENSEV_{DET (Typ.)}2 V

I_OUT30 mA,

V_SENSEV_{DET (Typ.)}2 V

V_IN4.5 to 24 V, I_OUT30 mA,

V_SENSEV_{DET (Typ.)}2 V

V_IN4.5 V,

V_OUT

V_dif

2.440 2.500 2.560

V

1

I/O voltage difference

Line regulation



0.65

15

1.00

50

V_OUT1

mV

Load regulation

Input voltage

V_OUT2

I_OUT50 A to 40 mA,

V_SENSEV_{DET (Typ.)}2 V



V_IN4.5 V, I_OUT30 mA,

Ta40°C to 85°C,

V_SENSEV_{DET (Typ.)}2 V



15

50

24

V_IN



V

∆V^OUT

∆Ta

Temperature

coefficient of V_OUT

mV

/°C

0.23 0.92

Output voltage during

voltage detection

Voltage Detector

Operating voltage

Temperature

V_OUTOFFV_INV_{DET (Typ.)}1 V, R_L1 M

6

2



0.1

V

V_opr

1.3



24

2.0

V



0.5

S-872548E

S-872530E to

S-872526E

∆  VDET

∆Ta

Ta40°C to

85°C

mV

/°C

characteristic of

V_DET



0.2

0.8

Detection voltage

S-872548E

S-872530E

S-872526E

4.685 4.800 4.915

2.928 3.000 3.072

2.538 2.600 2.662

V_DET

V

Sink current

I_DOUT

V_IN1.3 V

V_IN2.4 V

V_IN3.6 V

0.25

1.50

3.00

0.60

2.60

4.50

mA

4



Nch,

V_DS0.5 V

Nch, V_DS24 V,

V_INV_{DET (Typ.)}2 V

A

Leakage current

I_LEAK

0.1



V_IN4.5V,

V_SENSEV_{DET (Typ.)}

2 V

SENSE pin input

current

S-872548E to

S-872526E

l_SENSE

0.5

1.3

7

2

5



V_DET

0.03

V_DET

0.02

V_DET

0.08

V_DET

0.05

Hysteresis width

S-872548E to S-872530E



V_HYS

V

S-872526E

Total

Current consumption

I_SS

l_of

V_INV_{DET (Typ.)}2 V, Unloaded

V_INV_{DET (Typ.)}1 V, Shutdown

4

1.5

8

3.5

A



23

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

14. S-875087F

Table 19

Condition

(Unless otherwise specified: Ta25°C)

Test

Item

Symbol

Min.

Typ.

Max.

Unit

circuit

Voltage Regulator

Output voltage

V_OUT

V_dif

V_OUT1

V_IN7 V, I_OUT30 mA

I_OUT30 mA

V_IN6 to 24 V, I_OUT30 mA

V_IN7 V,

I_OUT50 A to 40 mA

4.88



5.00

0.15

15

5.12

0.40

50

V

1

I/O voltage difference

Line regulation

mV

Load regulation

Input voltage

V_OUT2



15

50

24

V_IN

∆V^OUT

∆Ta



V

Temperature

coefficient of V_OUT

V_IN7 V, I_OUT30 mA,

Ta40°C to 85°C

mV

/°C



0.38

1.52

Voltage Detector

Operating voltage

Delay time^*1

2

V_opr



1.3

15



24

41

V

t_pd

C_D4.7 nF

27

ms

3

2

∆  V^DET

∆Ta

Release voltage vs

Temperature

mV

/°C

Ta40°C to 85°C



0.7

2.8

Release voltage

(Overcharge detection

voltage)

V_DET



8.600

8.700

8.800

V

V_IN1.3 V

V_IN2.4 V

0.25

1.50

0.60

2.60



mA

4

Nch,

V_DS0.5 V

Sink current

I_DOUT

V_IN3.6 V

3.00

4.50



Leakage current

Hysteresis width

Total

I_LEAK

V_HYS

Nch, V_DS24 V, V_IN15 V

0.1

0.215

A

V



0.085



2

5



Current consumption^*2

I_SS

4

8

V_IN7 V, Unloaded



A

*1. t_pd(ms)(3.18min., 5.74typ., 8.73max.)C_D(nF)

*2. Excluding the charging current of C_D.

24

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

Rev.8.0_02

S-87x Series

 Measurement Circuits

1.

2.

VIN

(SENSE)

VOUT

VOR

VIN

(SENSE)

100 k

C_L

(VPF)

VSS

V

A

V

Figure 8

Figure 9

3.

4.

VOUT

VOR

VIN

100 k

VIN

VOR

CD

(SENSE)

(VPF)

A

VSS

V

C_D

Figure 10

Figure 11

5.

6.

VIN

VOUT

(VPF)

VIN

(SENSE)

A

R_L1 MΩ

(SENSE)

(VPF)

V

VSS

Figure 12

Figure 13

7.

VIN

SENSE

VSS

A

Figure 14

25

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

 Operation Timing Charts

1. Voltage regulator (C/G type)

V_IN[V]

V_SS

t [s]

V_OUT[V]

V_SS

*2

*1

t₁

t₂

VPF [V]

H

L

t [s]

V_SS

*1. Indicates shutdown state. When the load current (I_OUT) is less than 1 A, the output voltage (V_OUT) is

not always V_SSlevel.

*2. When the V_OUTis shorted at t₁, V_OUTbecomes V_SSlevel. When the short of V_OUTis removed at t₂,

V_OUTreturns to normal output.

Figure 15

2. Voltage detector (A/B/F type)

V_INor V_OUT[V]

V_HYS

V_DET

V_DET

t [s]

V_OR[V]

*1

t_pd

*1. Output delay time (t_pd) of the voltage detector can be changed with an external capacitance value to

CD pin. Delay circuit is not included in C/E/G type.

Remark Pull up V_ORthrough a resistor to V_INor V_OUT

.

Figure 16

26

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

3. When using the SENSE pin (E type)

V_INV_SENSE^*1[V]

V_DET

V_DET

t [s]

V_OUT[V]

V_OR[V]

*1. The SENSE pin is connected to VIN pin.

Remark Pull up V_ORthrough a resistor to V_OUT

.

Figure 17

 Explanation of Terms

1. I/O voltage difference (V_dif)

V_difV_IN1V_OUT1

V_OUT1:Initial output voltage

V_IN1: Input voltage which generates an output voltage (V_OUT2) decreased by 5 % from V_OUT1

2. Load regulation (V_OUT2

V_OUT2V_OUT1V_OUT2

)

V_OUT1: Output voltage when I_OUTis 50 A

V_OUT2: Output voltage when I_OUTis 40 mA

3. Line regulation (V_OUT1

)

V_OUT1V_OUT1V_OUT2

V_OUT1: Output voltage when V_INis 24 V

V_OUT2: Output voltage when V_INis (V_OUT1) V

4. Hysteresis width (V_HYS

)

V_HYS(V_DET)(V_DET

)

V_DET: Release voltage

V_DET: Detection voltage

27

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

 Operation

1. Reference voltage circuit

The reference voltage circuit operates all the time when the voltage is applied to VIN pin and is not

affected by the VPF signal.

2. Voltage regulator

Figure 18 shows the voltage regulator circuit. The S-87x Series has a Pch MOS transistor as the output

control transistor.

Reverse current may break IC if V_OUTpotential is higher than V_IN, because a parasitic diode is formed

between V_INand V_OUTdue to the structure of the control transistor. Therefore, keep V_OUTlower than

V_IN0.3 V.

The output voltage of the voltage regulator can be selected as follows:

2.5 V to 5.8 V2.4 % (0.1 V step)

V_IN

V_REF

M1



*1



V_OUT

R₁

R₂

*1. Parasitic diode

Figure 18 Voltage regulator circuit

Caution For an application with a load current of less than 1 A, the leakage current of the control

transistor M1 increases the output voltage.

3. Short-circuit protection circuit

The S-87x Series has a built-in short-circuit protection circuit to protect the element from break caused by

a large current in case of a short circuit. The output short current is internally limited to approx. 70 mA.

Short-circuit protection circuit has three kinds characteristics according to input voltage (V_IN) as shown in

Figure 19 to 21.

At 5 V Output:

(a) V_IN/V_OUT2.0

(b) 1.5V_IN/V_OUT2.0

(c) V_IN/V_OUT1.5

V_OUT

[V]

V_OUT

[V]

V_OUT

[V]

I_OUT

[mA]

I_OUT

[mA]

I_OUT

[mA]

I_OSI_max

Figure 19

I_OS

Figure 21

Figure 20

28

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

4. Delay circuit

The delay circuit outputs voltage detector output (V_OR) with delay after the voltage at V_INpin has become

release voltage (V_DET) at the rising of VIN pin.

In Figure 22, when V_cdexceeds the reference voltage (V_ref), the output voltage pin detection voltage

output (V_OR) changes from low to high level, providing delay output. When the voltage at VIN pin falls

under the detection voltage (V_DET), the N2 transistor turns ON, therefore the charge of the external

capacitor (C_D) is rapidly discharged and the voltage detector output (V_OR) changes from high to low level

without delay.

The external capacitor (C_D) is charged with constant current, and is practically independent of V_INvoltage.

Its delay time (t_pd) is expressed by the following equation:

t_pd(ms)Delay coefficient (3.18 min., 5.74 typ., 8.73 max.)C_D(nF)

I_C

V_cd





N2

VOR

V_ref

CD

C_D

Figure 22

Caution 1. Unless an output delay is needed, keep CD pin open. Do not apply external voltage

other than ground potential to CD pin, which may cause IC breakdown.

2. When designing your printed-circuit board layout, take care that no leakage current

flows to the external capacitor (C_D), otherwise the correct delay time may not be

obtained. Because the value of the constant current source (I_C) is only 195 nA, C_Dto

impedance is high.

29

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

5. Voltage detection circuit

The built-in voltage detection circuit (Nch opendrain type) is equivalent to our S-808 Series/S-809 Series

voltage detectors. A pull-up resistor of about 100 k is required for output. Since the comparator power

of this circuit is supplied from VIN pin, this circuit operates while voltage is applied to VIN pin.

The detection voltage of the voltage detector can be selected as follows:

2.1 V to 11.3 V2.4 % (0.1 V step)

In the F type, the release voltage (+V_DET) accuracy is 1.1 %. So, it responds to the application for

overcharge detection of lithium-ion battery packs.

In the E type, the input voltage monitoring pin of the voltage detector is externally connected as the

SENSE pin. Because this pin is configured by a resistor only, temporary current such as a through-type

current does not flow. Consequently even when resistor (R_IN) is inserted between input power supply and

VIN pin, the input power voltage can be accurately monitored by connecting the SENSE pin to the input

power supply. Also, when a drop in the SENSE pin input voltage is detected, the voltage detector

generates a reset signal. At the same time, it powers off the voltage regulator.

Caution 1. As shown in Figure 23 to 25, when connecting V_ORoutput to VPF pin in the C type or

connecting SENSE pin to VIN pin in the E type, the following phenomena occur if

resistor (R_IN) is connected between input voltage and VIN pin. Be careful.

(1) At the time of voltage detection, the voltage regulator is shutdown and load

current is cut. Therefore, VIN pin voltage increases by V_INI_INR_IN, where the

current flowing into R_INis set to I_IN. Hence, if V_INexceeds hysterisis width

(V_HYS), oscillation starts immediately after detection and continues. It is

necessary to set V_INless than V_HYS

.

(2) At the time of voltage release, the voltage regulator is powered on and load

current flows. Therefore, if V_INexceeds hysterisis width (V_HYS), oscillation

starts immediately after release and continues. It is necessary to set V_INless

than V_HYS. Also at the time of voltage release, the rush current to charge output

capacitor (C_OUT) flows. Hence, oscillation momentarily starts until the output of

regulator (V_OUT) rises high enough even though V_INis set less than V_HYS. But

Short-circuit protection circuit controls the rush current less than I_MAXon

Figure 19 to 21. If this momentary oscillation is a problem in your applicaion,

setting R_INless than V_HYS/I_MAXprevents oscillation.

VOUT

VOR

R_IN

I_IN

VIN

R_L

C_OUT

S-87xxxxCUP

VPF

VSS

Figure 23 Attention connecting example 1

30

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

I_IN

R_IN

VOUT

S-87xxxxEUP

VIN

R_L

C_OUT

VOR

SENSE

VSS

Figure 24 Attention connecting example 2

Power Voltage

V_INVoltage

V_IN

V_HYS

V_DET

V_DET

A drop in V_INdue to

rush current

V_OR

Figure 25 When V_INV_HYS

2. In the E type, the minimum operating voltage becomes 2.0 V as V_INvoltage. If a drop

in V_INvoltage occurs due to load current or rush current to be charged to the output

capacitor when load current or the voltage regulator is powered on at the time of

release, set V_INto 2.0 V or more.

3. Also, in the E type, when sharply increasing only VIN pin voltage at 1 ms/V or less,

with the SENSE pin fixed to V_DETV_SENSEV_DET2 V, a release pulse is output to the

output pin of voltage detector. Be careful. In this case, this release pulse is removed

by setting the time constant of VOR pin 20 ms or more with capacitance and pull-up

resistance. In addition, when the voltage of SENSE pin is fixed to between the

detection voltage and the release voltage at the detect condition, if sharply increasing

only VIN pin voltage at 1 ms/V or less, the output of the detector turns to the release

condition. If this action is a problem in your system, please connect SENSE pin to

VIN pin.

31

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

6. Shutdown circuit (C/E/G type)

When VPF pin goes low (0.4 V or less) in the C/G type or at the time of voltage detection in the E type

current for the voltage regulator is shut down, the current consumption (excluding the current which flows

through the pull-up resistor) lowers to 3.5 A or less.

During shutdown, the M1 transistor in the voltage regulator shown in the Figure 17 is off and VOUT pin is

pulled down by R₁and R₂, whose value (R₁R₂) is 5 M to 10 M. Input current of VPF pin is 0.1 A or

less.

Caution 1. The output voltage may not become 0 V when the load which makes I_OUTunder 1 A is

connected during shutdown.

2. DO NOT keep VPF pin floating state or medium potential (between low and high

levels). Otherwise through-type current flows.

32

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

 Transient Characteristics

An undershoot or an overshoot may occur in the output voltage of the voltage regulator if input voltage or

load current fluctuates transiently. If an undershoot is large, the voltage detector operates to output reset

signal in the B type in which the voltage detector detects the output voltage of the regulator. If an overshoot

is large, the load circuit is adversely affected. Therefore it is important to determine the capacitor value so as

to minimize undershoot and overshoot.

1. Line: Transient characteristics due to input voltage fluctuation

Input voltage fluctuation differs depending on the types of the signal applied: type 1 which is a rectangular

wave between (V_OUT1) V and 10 V, and type 2 which is a rectangular wave from 0 V to 10 V. (Refer to

Figure 26 to 27) The ringing waveforms and parameter dependency of each type are described below.

The measuring circuit is shown in Figure 28 for reference.

10 V

Input voltage

(V_OUT1) V

Overshoot

Output voltage

deviation

Undershoot

Figure 26 Rectangular wave between (V_OUT1) V and 10 V (Type 1)

10 V

0 V

Input voltage

Overshoot

Undershoot

Output voltage

deviation

Remark Rise/fall time (time between 10 % and 90 %) is 1 s.

Figure 27 Rectangular wave from 0 V to 10 V (Type 2)

Fast amplifier

VIN

VOUT

R_O

S-87x Series

VSS

*1

Oscilloscope

10:1 probe



C_L



P.G.

*1. AL electrolytic capacitor

Figure 28 Measuring circuit

33

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

Type 1 (Rectangle wave between (V_OUT1) V and 10 V)

I_OUT40 mA, C_L10 F, Ta25C

10 V

Input voltage

[1 V/div]

(V_OUT1) V

Output voltage

[200 mV/div]

5 ms/div

Overshoot amount: 350 mV

Undershoot amount: 325 mV

Figure 29 Ringing waveform (Type 1)

Table 20 Parameter dependency (Type 1)

Method to decrease Method to decrease

Series

Parameter

Conditions

overshoot

undershoot

S-8750xxx

Load current (I_OUT

)

10 to 60 mA, C_L10 F

1 to 47 F, I_OUT40 mA

2 to 4 V

Decrease

Load capacitance (C_L)

Increase

*1

Input fluctuation (V_IN

)

Decrease

4 to 18 V

Increase

Decrease

Temperature (Ta)

40 °C to 85 °C

10 to 60 mA, C_L10 F

1 to 47 F, I_OUT40 mA

4 to 20 V

Low temperature

Increase

Low temperature

Decrease

S-8730xxx

Load current (I_OUT

)

Load capacitance (C_L)

Increase

*1

Input fluctuation (V_IN

)

Increase

Decrease

Temperature (Ta)

40 °C to 85 °C

Low temperature

*1. High voltage value  low voltage value

For reference, the following pages describe the ringing in V_OUTmeasured using the output load current (I_OUT),

output load capacitance (C_L), input fluctuation width (V_IN), and temperature (Ta) as parameters.

34

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

Reference Data: Type 1

S-8750xxx Series

1. I_OUTDependency

2. C_LDependency

500

1600

C_L10 F, Ta25C

1400

1200

1000

800

I_OUT40 mA, Ta25C

400

300

200

100

0

600

400

200

0

10

20

30

40

50

60

70

0

I

_OUT[mA]

10

20

C_L[F]

30

40

50

4. Temperature Dependency

3. V_INDependency

500

I_OUT40 mA, C_L10 F, Ta25C

I_OUT40 mA, C_L10 F

400

300

200

100

0

300

200

100

0

40

20

0

20

40

60

80

100

Ta [C]

0

5

10

V_IN[V]

15

20

Undershoot

Overshoot

Remark The lower voltage is fixed at 6 V.

S-8730xxx Series

1. I_OUTDependency

2. C_LDependency

600

1600

C_L10 F, Ta25C

1400

1200

1000

800

I_OUT40 mA, Ta25°C

500

400

300

200

100

0

600

400

200

0

10

20

C_L[F]

30

40

50

0

10

20

30

40

50

60

70

I_OUT[mA]

4. Temperature Dependency

3. V_INDependency

500

I_OUT40 mA, C_L10 F, Ta25C

I_OUT40 mA, C_L10 F

400

300

200

100

0

300

200

100

0

40

20

0

20

40

60

80

100

0

5

10

15

V_IN[V]

20

25

Ta [C]

Undershoot

Overshoot

Remark The lower voltage is fixed at 4 V.

35

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

Type 2 (Rectangle wave form 0 V to 10 V)

I_OUT40 mA, C_L10 F, Ta25C

10 V

Input voltage

[5 V/div]

0 V

Output voltage

[500 mV/div]

5 ms/div

Overshoot amount: 1300 mV

Undershoot amount: 610 mV

Figure 30 Ringing waveform (Type 2)

Table 21 Parameter dependency (Type 2)

Method to decrease Method to decrease

Series

Parameter

Conditions

overshoot

undershoot

S-8750xxx

Load current (I_OUT

)

10 to 60 mA, C_L10 F

1 to 47 F, I_OUT40 mA

8 to 24 V

Increase

Load capacitance (C_L)

Decrease

*1

Input fluctuation (V_IN

)

Increase

Temperature (Ta)

40 °C to 85 °C

10 to 60 mA, C_L10 F

1 to 47 F, I_OUT40 mA

8 to 24 V

Low temperature

Increase

Low temperature

Increase

S-8730xxx

Load current (I_OUT

)

Load capacitance (C_L)

Decrease

*1

Input fluctuation (V_IN

)

Increase

Temperature (Ta)

40 °C to 85 °C

Low temperature

*1. High voltage value  0 V

For reference, the following pages describe the ringing in V_OUTmeasured using the output load current (I_OUT),

output load capacitance (C_L), input fluctuation width (V_IN), and temperature (Ta) as parameters.

36

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

Reference Data: Type 2

S-8750xxx Series

1. I_OUTDependency

2. C_LDependency

200

C_L10 F, Ta25C

I_OUT40 mA, Ta25C

150

100

50

150

100

50

0

10

20

30

40

50

60

70

0

10

20

C_L[F]

30

40

50

I_OUT[mA]

4. Temperature Dependency

3. V_INDependency

250

300

I_OUT40 mA, C_L10 F, Ta25C

I_OUT40 mA, C_L47 F

250

200

150

100

50

200

150

100

50

0

40

20

0

20

40

60

80

100

0

5

Ta [C]

10

15

V_IN[V]

20

25

Undershoot

Overshoot

Remark The lower voltage is fixed at 0 V.

S-8730xxxSeries

1. I_OUTDependency

2. C_LDependency

120

140

C_L10 F, Ta25C

120

100

80

60

40

20

0

I_OUT40 mA, Ta25C

100

80

60

40

20

0

10

20

30

40

50

60

70

0

10

20

30

40

50

C_L[F]

I_OUT[mA]

4. Temperature Dependency

3. V_INDependency

140

I_OUT40 mA, C_L10 F,

Ta25C

I_OUT40 mA, C_L10 F

120

100

80

60

40

20

0

100

80

60

40

20

0

40

20

0

20

40

60

80

100

0

5

10

15

20

25

Ta [C]

V_IN[V]

Overshoot

Undershoot

Remark The lower voltage is fixed at 0 V.

37

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

2. Load transient response characteristics due to load current fluctuation

An overshoot and an undershoot are caused in the output voltage if the load current is changed from

50 A to 40 mA while the input voltage is kept constant. Figure 31 shows the output voltage fluctuation

due to a change in the load current. The measuring circuit is shown in Figure 32 for reference. The

latter half of this section describes ringing waveform and parameter dependency.

40 mA

50 A

Load current

Overshoot

Output Voltage deviation

Undershoot

Figure 31 Output voltage fluctuation due to a change in the load current

S-87x

Series

VIN

VOUT

*1

*3

*2



R₁

C_L

R₀

VSS



10 F



Power

supply

Oscilloscope

10:1 probe

V^OUT[V]

50 A

*1. R₁

*2. R₀

[]

V^OUT[V]

40 mA

*3. AL electrolytic capacitor

Figure 32 Measuring circuit

Table 22 Parameter dependency due to load current fluctuation

Method to decrease Method to decrease

Series

Parameter

Load current (I_OUT

Conditions

overshoot

undershoot

S-8750xxx,

S-8730xxx

)

10 to 60 mA, C_L10 F

1 to 47 F, I_OUT40 mA

(V_OUT1) to 24 V

Decrease

Load capacitance (C_L)

Power supply voltage (V_IN)

Temperature (Ta)

Increase

40 °C to 85 °C

Low temperature

38

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

 Reference Data

S-8750xxxSeries

1. I_OUTDependency

2. C_LDependency

800

350

C_L10 F, Ta25C, V_IN10 V

V_IN10 V, Ta25C

700

600

500

400

300

200

100

0

300

250

200

150

100

50

0

10

20

30

40

50

60

70

I_OUT[mA]

0

10

20

30

C_L[F]

40

50

Remark The lower current is fixed at 50 A.

3. V_INDependency

4. Temperature Dependency

300

C_L10 F, V_IN10 V

C_L10 F, Ta25C

250

200

150

100

50

200

150

100

50

0

40 20

0

20

40

60

80

100

0

5

10

V_IN[V]

15

20

25

Ta [C]

Undershoot

Overshoot

S-8730xxxSeries

1. I_OUTDependency

2. C_LDependency

300

C_L10 F, Ta25C, V_IN10 V

700

600

500

400

300

200

100

0

250

200

150

100

50

V_IN10 V, Ta25C

0

10

20

30

I_OUT[mA]

40

50

60

70

0

10

20

30

40

50

C_L[F]

Remark The lower current is fixed at 50 A.

3. V_INDependency

4. Temperature Dependency

300

C_L10 F, V_IN10 V

C_L10 F, Ta25C

250

200

150

100

50

200

150

100

50

0

40

20

0

20

40

60

80

100

0

5

10

15

V_IN[V]

20

25

Ta [C]

Undershoot

Overshoot

39

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

 Standard Circuits

1. A/B/F type

VIN

VOUT

VOR

V_OUT

R_L





C_I

10 F

CD

V_OR



VSS

C_L

 10 F

Figure 33

2. C/G type

VIN

VPF

V_OUT

VOUT

VOR

R_L





C_I

V_OR

C_L

10 F



VSS

 10 F

Figure 34

3. E type

VIN

SENSE

VSS

V_OUT

VOUT

R_L





C_I

VOR

V_OR

10 F



C_L

 10 F

Figure 35

Caution The above connection diagram and constants do not guarantee correct operation. Perform

sufficient evaluation using the actual application to set the constants.

40

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

 Application Circuits

1. Microcomputer power supply and reset circuit

To construct a microcomputer power supply and a reset circuit using conventional ICs, a voltage regulator

IC, a voltage detector IC, a delay time generation circuit and others are required. The A/B type allows

you to make these circuits without these ICs, and the delay time is variable.

V_OUT

VIN

CD

VOUT

VOR

100 k

CPU

RESET

C_D

V_SS

Figure 36

Caution The above connection diagram and constants do not guarantee correct operation.

Perform sufficient evaluation using the actual application to set the constants.

2. Output current boost circuit

A PNP transistor is used to increase the output current.

1. A/ B type

V_IN

VIN

CD

VOUT

VOR

V_OUT

V_OR

VSS

V_SS

Figure 37

41

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

2. C/ G type

V_IN

V_OUT

VIN

VPF

VOUT

VOR

V_OR

V_SS

VSS

Figure 38

Caution The above connection diagram and constants do not guarantee correct operation.

Perform sufficient evaluation using the actual application to set the constants.

3. Power supply for lithium-ion battery pack

When the lithium-ion battery goes down to the overdischarge voltage, the built-in voltage detector powers

OFF the voltage regulator, and at the same time it transmits the RESET signal to the microcomputer. R₁,

C₁, R₂and C₂are attached to eliminate the voltage exceeding the absolute maximum ratings of charger.

C₃is attached to give a delay and to release the RESET signal after power supply voltage for

microcomputer (V_OUT) rises high enough.

Li

Micro-computer

VIN

VOUT

S-87xxxxE

Series

R₁

330 

R₃

RESET

SENSE

100 k

Charger

R₂

10 F

330 

VSS

VOR

C₁

0.1 F

C₂

0.1 F

C₃

Figure 39

Caution The above connection diagram and constants do not guarantee correct operation.

Perform sufficient evaluation using the actual application to set the constants.

42

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

 Precautions

 DO NOT apply a ripple voltage of the following both conditions to VIN pin.

V [V]

*2

V_PP

T (cycle)^*1

t [s]

1

*1. f1000 Hz (f ) (“f” shows the frequency)

T

*2. V_PP0.5 V

Figure 40

 When connecting another power supply to the voltage regulator output pin, insert a diode to protect the IC.

OUT

V/R

VIN

VOUT

VSS

Figure 41

 Do not apply an electrostatic discharge to this IC that exceeds the performance ratings of the built-in

electrostatic protection circuit.

43

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

 Characteristics (Typical Data)

1. Voltage regulator

(1) Output voltage (V_OUT) - Temperature (Ta) characteristics

S-8750xxx Series

S-8730xxx Series

3.10

3.05

3.00

5.10

5.05

5.00

4.95

4.90

2.95

2.90

50 25

0

25

50

75 100

50 25

0

25

50

75 100

Ta [C]

(2) Line regulation(V_OUT1) - Temperature (Ta) characteristics

S-8750xxx Series

S-8730xxx Series

20

15

10

5

15

10

5

0

50 25

0

25

50

75 100

50 25

0

25

50

75 100

Ta [C]

(3) Input voltage (V_IN) - Output voltage (V_OUT) characteristics

S-8750xxx Series

S-8730xxx Series

5.8

3.8

I_OUT50 A

5.0

3.0

I_OUT50 A

1 mA

10 mA

20 mA

30 mA

1 mA

10 mA

20 mA

30 mA

40 mA

50 mA

40 mA

50 mA

4.0

2.0

5.5

4.5

6.5

2.5

3.5

4.5

V_IN[V]

44

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

Rev.8.0_02

S-87x Series

(4) Load regulation(V_OUT2) - Temperature (Ta) characteristics

S-8750xxx Series

S-8730xxx Series

20

15

10

5

15

10

5

0

50 25

0

25

50

75 100

50 25

0

25

50

75 100

Ta [C]

(5) I/O voltage difference (V_dif) - Temperature (Ta) characteristics

S-8750xxx Series

S-8730xxx Series

700

600

500

400

300

200

100

0

250

200

150

100

50

0

50 25

0

25

50

75 100

50 25

0

25

50

75 100

Ta [C]

(6) Short-circuit protection circuit characteristics

S-8750xxx Series (Ta25C)

V_IN10 V

V_IN24 V

6.00

5.00

4.00

3.00

2.00

1.00

0.00

5.00

4.00

3.00

2.00

1.00

0.00

0

30 60 90 120 150 180 210 240

I_OUT[mA]

0

30

60

I

90 120 150 180

_OUT[mA]

V_IN8 V

V_IN6 V

6.00

5.00

4.00

3.00

2.00

1.00

0.00

6.00

5.00

4.00

3.00

2.00

1.00

0.00

0

30 60 90 120 150 180 210 240 270 300

I_OUT[mA]

0

30 60 90 120 150 180 210 240

I_OUT[mA]

45

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

S-8730xxx Series

S-8730xxx Series (Ta25C)

V_IN24 V

V_IN8 V

4.00

3.00

2.00

1.00

0.00

4.00

3.00

2.00

1.00

0.00

0

30

60

90

120 150 180

0

30

60

90

120 150 180 210

I_OUT[mA]

I

_OUT[mA]

V_IN6 V

V_IN4 V

4.00

3.00

2.00

1.00

0.00

4.00

3.00

2.00

1.00

0.00

0

30 60 90 120 150 180 210 240

I_OUT[mA]

0

30

60

90

120 150

I_OUT[mA]

(7) Ripple rejection characteristics

S-8750xxx Series

10

V_IN7 V

I_OUT40 mA

C_L10 F

20

30

Gain

[db]

40

50

60

10

100

1k

10k

100k

f [HZ]

S-8730xxx Series

10

V_IN5 V

20

I_OUT40 mA

C_L10 F

30

Gain

[db]

40

50

60

10

100

1k

10k

100k

f [HZ]

46

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

2. Voltage detector

(1) Detection voltage (V_DET) - Temperature (Ta) characteristics

S-875045

S-875043

20

10

20

10

0

10

20

10

20

50 25

0

25

50

75 100

50 25

0

25

50

75 100

Ta [C]

S-873023

20

10

0

10

20

50 25

0

25

50

75 100

Ta [C]

(2) Hysteresis width (V_HYS) - Temperature (Ta) characteristics

S-875045 S-875043

2.5

8

7

6

5

4

2

1.5

1

3

50 25

0

25

50

75 100

50 25

0

25

50

75 100

Ta [C]

S-873023

8

7

6

5

4

3

50 25

0

25

50

75 100

Ta [C]

47

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

(3) Nch transistor output current (I_DOUT) characteristics

Ta25C

15

10

V_IN3.6 V

V_IN2.4 V

V_IN1.3 V

5

0

1.0

0.0

2.0

V_DS[V]

(4) Delay time (t_pd) characteristics

Delay time (t_pd) - Temperature (Ta)

50

V_IN10 V

C_D4.7 nF

40

30

20

10

0

50 25

0

25

50

75 100

Ta [C]

3. Total

(1) Current consumption (Iss) characteristics

(a) Input voltage(V_IN) characteristics

S-8750xxC Series

S-8730xxC Series

5

Ta25C

4

3

2

1

0

2

1

0

25

0

5

10

15

20

0

5

10

15

20

V_IN[V]

(b) Current consumption (Iss) - Temperature (Ta) characteristics

S-8750xxC Series

S-8730xxC Series

10

V_IN7 V

V_IN5 V

7.5

5

7.5

5

2.5

0

2.5

0

50 25

0

25

50

75 100

50 25

0

25

Ta [C]

50

75 100

Ta [C]

48

HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION

S-87x Series

Rev.8.0_02

(2) Input voltage of shutdown circuit characteristics

(a) High level input voltage (V_IH) - Temperature (Ta) (b) Low level input voltage (V_IL) - Temperature (Ta)

characteristics

2

1

V_IN6 V

1.5

1

0.75

0.5

0.25

0

50 25

0

25

50

75 100

50 25

0

25

50

75 100

Ta [C]

(c) V_IH, V_IL- Power supply voltage dependency characteristics

3.0

Ta25C

2.4

V_IH

1.8

1.2

V_IL

0.6

0.0

0

12

24

V_IN[V]

49

4.5±0.1

1.6±0.2

1.5±0.1

5

4

0.3

45°

1

2

3

1.5±0.1 1.5±0.1

0.4±0.05

0.4±0.1

0.45±0.1

No. UP005-A-P-SD-2.0

SOT895-A-PKG Dimensions

UP005-A-P-SD-2.0

TITLE

No.

ANGLE

mm

UNIT

ABLIC Inc.

4.0±0.1(10 pitches : 40.0±0.2)

+0.1

-0

ø1.5

2.0±0.05

+0.1

-0

0.3±0.05

2.0±0.1

8.0±0.1

ø1.5

4.75±0.1

3

4

2

1

5

Feed direction

No. UP005-A-C-SD-2.0

TITLE

SOT895-A-Carrier Tape

UP005-A-C-SD-2.0

No.

ANGLE

mm

UNIT

ABLIC Inc.

16.5max.

13.0±0.3

Enlarged drawing in the central part

(60°)

No. UP005-A-R-SD-1.1

TITLE

SOT895-A-Reel

UP005-A-R-SD-1.1

No.

ANGLE

QTY.

1,000

mm

UNIT

ABLIC Inc.

Disclaimers (Handling Precautions)

1. All the information described herein (product data, specifications, figures, tables, programs, algorithms and application

circuit examples, etc.) is current as of publishing date of this document and is subject to change without notice.

2. The circuit examples and the usages described herein are for reference only, and do not guarantee the success of

any specific mass-production design.

ABLIC Inc. is not responsible for damages caused by the reasons other than the products described herein

(hereinafter "the products") or infringement of third-party intellectual property right and any other right due to the use

of the information described herein.

3. ABLIC Inc. is not responsible for damages caused by the incorrect information described herein.

4. Be careful to use the products within their specified ranges. Pay special attention to the absolute maximum ratings,

operation voltage range and electrical characteristics, etc.

ABLIC Inc. is not responsible for damages caused by failures and / or accidents, etc. that occur due to the use of the

products outside their specified ranges.

5. When using the products, confirm their applications, and the laws and regulations of the region or country where they

are used and verify suitability, safety and other factors for the intended use.

6. When exporting the products, comply with the Foreign Exchange and Foreign Trade Act and all other export-related

laws, and follow the required procedures.

7. The products must not be used or provided (exported) for the purposes of the development of weapons of mass

destruction or military use. ABLIC Inc. is not responsible for any provision (export) to those whose purpose is to

develop, manufacture, use or store nuclear, biological or chemical weapons, missiles, or other military use.

8. The products are not designed to be used as part of any device or equipment that may affect the human body, human

life, or assets (such as medical equipment, disaster prevention systems, security systems, combustion control

systems, infrastructure control systems, vehicle equipment, traffic systems, in-vehicle equipment, aviation equipment,

aerospace equipment, and nuclear-related equipment), excluding when specified for in-vehicle use or other uses. Do

not apply the products to the above listed devices and equipments without prior written permission by ABLIC Inc.

Especially, the products cannot be used for life support devices, devices implanted in the human body and devices

that directly affect human life, etc.

Prior consultation with our sales office is required when considering the above uses.

ABLIC Inc. is not responsible for damages caused by unauthorized or unspecified use of our products.

9. Semiconductor products may fail or malfunction with some probability.

The user of the products should therefore take responsibility to give thorough consideration to safety design including

redundancy, fire spread prevention measures, and malfunction prevention to prevent accidents causing injury or

death, fires and social damage, etc. that may ensue from the products' failure or malfunction.

The entire system must be sufficiently evaluated and applied on customer's own responsibility.

10. The products are not designed to be radiation-proof. The necessary radiation measures should be taken in the

product design by the customer depending on the intended use.

11. The products do not affect human health under normal use. However, they contain chemical substances and heavy

metals and should therefore not be put in the mouth. The fracture surfaces of wafers and chips may be sharp. Be

careful when handling these with the bare hands to prevent injuries, etc.

12. When disposing of the products, comply with the laws and ordinances of the country or region where they are used.

13. The information described herein contains copyright information and know-how of ABLIC Inc.

The information described herein does not convey any license under any intellectual property rights or any other

rights belonging to ABLIC Inc. or a third party. Reproduction or copying of the information from this document or any

part of this document described herein for the purpose of disclosing it to a third-party without the express permission

of ABLIC Inc. is strictly prohibited.

14. For more details on the information described herein, contact our sales office.

2.2-2018.06

www.ablic.com


型号：	S-8733B0EUP-APCT2X
厂家：	ABLIC
描述：	HIGH WITHSTAND-VOLTAGE VOLTAGE REGULATOR WITH RESET FUNCTION
文件：	总53页 (文件大小：547K)
中文：	中文翻译
下载：	下载PDF数据表文档文件

S-8733B0EUP-APCT2X [ABLIC]

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