MAX1602_技术文档

19-1125; Rev 0; 9/96

S in g le -Ch a n n e l Ca rd Bu s a n d P CMCIA VCC/VP P

P o w e r-S w it c h in g Ne t w o rk

MAX1602

_______________Ge n e ra l De s c rip t io n

____________________________Fe a t u re s

The MAX1602 DC power-switching IC contains a net-

work of low-resistance MOSFET switches that deliver

selectable VCC and VPP voltages to a single CardBus

or PC Ca rd hos t s oc ke t. Ke y fe a ture s inc lud e low-

resistance switches, small packaging, soft-switching

action, and compliance with PCMCIA specifications for

3V/5V switching. 3.3V-only power switching for fast,

32-bit CardBus applications is supported in two ways:

low-resistance 3.3V switches allow high 3.3V load cur-

rents (up to 1A); and completely independent internal

charge pumps let the 3.3V switch operate normally,

even if the +5V and +12V supplies are disconnected or

turne d off to c ons e rve p owe r. The inte rna l c ha rg e

pumps are regulating types that draw reduced input

current when the VCC switches are static. Power con-

sumption is automatically reduced to 11µA max when

the outputs are high-Z or GND.

♦ Supports a Single PC Card/CardBus Socket

♦ 1A, 0.25Ω Max 3.3V VCC Switch

1A, 0.25Ω Max 5V VCC Switch

♦ Soft Switching for Low Inrush Surge Current

♦ Overcurrent Protection

♦ Overcurrent/Thermal-Fault Flag Output

♦ Thermal Shutdown at T = +150°C

j

♦ Independent Internal Charge Pumps

♦ Break-Before-Make Switching Action

♦ 11µA Max Standby Supply Current

♦ 5V and 12V Not Required for Low-R

DS(ON)

3.3V Switching

♦ Complies with PCMCIA 3V/5V Switching

Other key features include guaranteed specifications

for output current limit level, and guaranteed specifi-

cations for output rise/fall times (in compliance with

PCMCIA specifications). Reliability is enhanced by

thermal-overload protection, accurate current limiting,

an overcurrent-fault flag output, and undervoltage lock-

outs. The CMOS/TTL-logic interface is flexible, and can

tolerate logic input levels in excess of the positive sup-

ply rail.

Specifications

♦ Super-Small 16-Pin QSOP Package

♦ Code Compatible with:

Cirrus CL-PD67XX Family

Databook DB86184

Intel 82365SL (industry-standard coding)

__________S im p lifie d Blo c k Dia g ra m

The MAX1602 fits a complete CardBus/PCMCIA switch

into a space-saving, 16-pin QSOP package.

VPP

12IN

MAX1602

________________________Ap p lic a t io n s

VCC

VX

Data Loggers

VY

VCC

Handy-Terminals

Docking Stations

VDD

PCMCIA Read/Write Drives

OVERCURRENT

AND

THERMAL

SHUTDOWN

DECODE

LOGIC

CONTROL

INPUTS

FAULT

CODE

SELECT

______________Ord e rin g In fo rm a t io n

GND

PART

TEMP. RANGE

PIN-PACKAGE

MAX1602EEE

-40°C to +85°C

16 QSOP

Pin Configuration appears on last page.

________________________________________________________________ Maxim Integrated Products

1

For free samples & the latest literature: http://www.maxim-ic.com, or phone 1-800-998-8800

S in g le -Ch a n n e l Ca rd Bu s a n d P CMCIA VCC/VP P

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ABSOLUTE MAXIMUM RATINGS

Inputs/Outputs to GND

VCC Short Circuit to GND ..........................................Continuous

VPP Short Circuit to GND...........................................Continuous

(VX, VY, VCC) (Note 1) ..........................................-0.3V, +6V

VPP Input/Output to GND

Continuous Power Dissipation (T = +70°C)

A

(12IN, VPP) (Note 1) ............................................-0.3V, +15V

Logic Inputs to GND (A0VCC, A1VCC,

QSOP (derate 8.3mW/°C above +70°C) ....................667mW

Operating Temperature Range

A0VPP, A1VPP) (Note 1)........................................-0.3V, +6V

CODE Input to GND ........................................-0.3V, (VY + 0.3V)

VCC Output Current (Note 2)...................................................4A

VPP Output Current (Note 2).............................................260mA

MAX1602EEE.................................................-40°C to +85°C

Storage Temperature Range .............................-65°C to +160°C

Lead Temperature (soldering, 10sec) .............................+300°C

MAX1602

Note 1: There are no parasitic diodes between any of these pins, so there are no power-up sequencing restrictions (for example,

logic input signals can be applied even if all of the supply voltage inputs are grounded).

Note 2: VCC and VPP outputs are internally current limited. See the Electrical Characteristics.

Stresses beyond those listed under “Absolute Maximum Ratings” may cause permanent damage to the device. These are stress ratings only, and functional

operation of the device at these or any other conditions beyond those indicated in the operational sections of the specifications is not implied. Exposure to

absolute maximum rating conditions for extended periods may affect device reliability.

ELECTRICAL CHARACTERISTICS

(VY = 3.3V, VX = 5V, 12IN = 12V, T = 0°C to +85°C, unless otherwise noted. Typical values are at T = +25°C.)

A

PARAMETER

CONDITIONS

MIN

TYP

MAX

UNITS

POWER-SUPPLY SECTION

VX, VY

3.0

11

5.5

13

Input Voltage Range

V

12IN

VY falling edge

12IN falling edge

12IN rising edge

VX falling edge

2.4

1.8

5.0

1.4

2.6

3.0

8.0

1.9

2.8

Undervoltage Lockout Threshold

V

10.0

2.8

All switches 0V or high-Z,

control inputs = 0V or VY, T = +25°C

A

VY Standby Supply Current

VX Standby Supply Current

12IN Standby Supply Current

3

11

1

µA

VX all switches 0V or high-Z,

control inputs = 0V or VY, T = +25°C

A

All switches 0V or high-Z,

control inputs = 0V or VY, T = +25°C

A

1

Any combination of VY switches on,

control inputs = 0V or VY, no VCC loads

VY Quiescent Supply Current

VX Quiescent Supply Current

12IN Quiescent Supply Current

VCC SWITCHES

20

10

5

200

50

µA

Control inputs = 0V or VY, no VCC loads

VPP 12V switches on,

control inputs = 0V or VY, no VPP loads

100

Operating Output Current Range VCC, VX = VY = 3V to 5.5V

0

1

A

12IN = 0V to 13V, VY = 3V, VX = 0V to 5.5V,

= 1A, T = +25°C

On-Resistance, VY Switches

0.09

0.25

Ω

I

SWITCH

A

12IN = 0V to 13V, VX = 4.5V, VY = 0V to 5.5V,

= 1A, T = +25°C

On-Resistance, VX Switches

Output Current Limit

0.25

4

Ω

I

SWITCH

A

VCC

1.2

A

2

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P o w e r-S w it c h in g Ne t w o rk

MAX1602

ELECTRICAL CHARACTERISTICS (continued)

(VY = 3.3V, VX = 5V, 12IN = 12V, T = 0°C to +85°C, unless otherwise noted. Typical values are at T = +25°C.)

A

MIN

10

PARAMETER

Output Sink Current

CONDITIONS

TYP

MAX

UNITS

mA

VCC < 0.4V, programmed to 0V state

Output Leakage Current

VCC forced to 0V, high-Z state, T = +25°C

1

2

10

µA

A

Output Propagation Delay

Plus Rise Time

VCC, 0V to VX or VY, C = 30µF, R = 25Ω,

L L

ms

µs

50% of input to 90% of output, T = +25°C

A

VCC, 0V to VX or VY, C = 1µF, R = open circuit,

L

Output Rise Time

100

1200

90

10% to 90% points, T = +25°C

A

Output Propagation Delay

Plus Fall Time

VCC, VX or VY to 0V, C = 30µF, R = open circuit,

L L

150

ms

50% of input to 10% of output, T = +25°C

A

VCC, VX or VY to 0V, C = 1µF, R = 25Ω,

L

Output Fall Time

6

90% to 10% points

VPP SWITCHES

Operating Output Current Range

On-Resistance, 12V Switches

VPP

0

120

1

mA

Ω

12IN = 11.6V, I

= 100mA, T = +25°C

0.70

3

SWITCH

A

On-Resistance, VPP = VCC Switches Programmed to VX (5V) or VY (3.3V), T = +25°C

6

Ω

A

Output Current Limit

Output Sink Current

Output Leakage Current

VPP programmed to 12V

130

10

200

260

mA

µA

VPP < 0.4V, programmed to 0V state

VPP forced to 0V, high-Z state, T = +25°C

0.1

1.2

10

30

A

Output Propagation Delay

Plus Rise Time

VPP, 0V to 12IN, C = 0.1µF,

L

50% of input to 90% of output, T = +25°C

ms

µs

A

VPP, 0V to 12IN, C = 0.1µF,

L

Output Rise Time

100

600

9

10% to 90% points, T = +25°C

A

Output Propagation Delay

Plus Fall Time

VPP, 12IN to 0V, C = 0.1µF,

L

50% of input to 10% of output, T = +25°C

60

ms

A

VPP, 12IN to 0V, C = 0.1µF, R = 100Ω

L

Output Fall Time

6

90% to 10% points

INTERFACE AND LOGIC SECTION

VCC or VPP, load step to FAULT output,

50% point to 50% point (Note 3)

1

µs

FAULT Signal Propagation Delay

I

= 1mA, low state

= 5.5V, high state

0.4

0.5

V

µA

°C

V

FAULT Output Low Voltage

FAULT Output Leakage Current

Thermal Shutdown Threshold

Logic Input Low Voltage

SINK

V

-0.5

FAULT

Hysteresis = 20°C (Note 4)

__VCC, __VPP

150

0.6

Logic Input High Voltage

Code Input Low Voltage

__VCC, __VPP

1.5

0

V

“Intel” code

0.4

VY

V

Code Input High Voltage

Code Input Mid-Level Voltage

Logic Input Bias Current

“Cirrus” code

VY - 0.4

1.2

V

“Databook” code

__VCC, __VPP, code

VY - 1.2

1

V

-1

µA

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ELECTRICAL CHARACTERISTICS

(VY = 3.3V, VX = 5V, 12IN = 12V, T = -40°C to +85°C, unless otherwise noted.)

A

PARAMETER

CONDITIONS

MIN

TYP

MAX

UNITS

POWER-SUPPLY SECTION

VX, VY

12IN

3.0

11

2.3

1.8

5

5.5

13

Input Voltage Range

V

VY falling edge, hysteresis = 1%

12IN falling edge

2.9

MAX1602

Undervoltage Lockout Threshold

VY Standby Supply Current

V

12IN rising edge

10

VX, VY falling edge

1.4

2.9

All switches 0V or high-Z, control inputs = 0V or VY

30

µA

VX, all switches 0V or high-Z,

VX Standby Supply Current

12IN Standby Supply Current

VY Quiescent Supply Current

15

µA

control inputs = 0V or VY, T = T

to T

MAX

A

MIN

All switches 0V or high-Z, control inputs = 0V or VY

Any combination of VY switches on,

control inputs = 0V or VY, no VCC loads

200

Any combination of VX switches on,

control inputs = 0V or high-Z, no VCC loads

VX Quiescent Supply Current

50

µA

12IN Quiescent Supply Current

FAULT Output Low Voltage

Logic Input Low Voltage

12V switches on, control inputs = 0V or VY, no VPP loads

100

0.4

0.6

µA

V

I_SINK= 1mA, low state

__VCC, __VPP

V

Logic Input High Voltage

__VCC, __VPP

1.6

V

Note 3: Not production tested.

Note 4: Thermal limit not active in standby state (all switches programmed to GND or high-Z state).

4

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MAX1602

__________________________________________Typ ic a l Op e ra t in g Ch a ra c t e ris t ic s

(VY = 3.3V, VX = 5V, 12IN = 12V, T = +25°C, unless otherwise noted.)

A

VCC SWITCHING (RISE)

3

2

1

0

6

4

2

VCC

(V)

VCC

(V)

0

5

0

CONTROL

INPUT

(V)

CONTROL

INPUT

(V)

5

0

500µs/div

C = 30µF, R = 25Ω

C = 1µF, R = ∞

L

VCC SWITCHING (FALL)

6

4

2

0

VCC

(V)

VCC

(V)

2

0

5

0

CONTROL

INPUT

(V)

CONTROL

INPUT

(V)

0

10ms/div

20ms/div

C = 33µF, R = ∞

C = 1µF, R = 25Ω

L

VPP SWITCHING (FALL)

VPP SWITCHING (RISE)

15

10

5

10

5

VPP

(V)

VPP

(V)

0

5

0

5

0

CONTROL

INPUT

(V)

CONTROL

INPUT

(V)

2ms/div

200µs/div

C = 0.1µF, R = ∞

L

C = 0.1µF, R = ∞

L

_______________________________________________________________________________________

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_____________________________Typ ic a l Op e ra t in g Ch a ra c t e ris t ic s (c o n t in u e d )

(VY = 3.3V, VX = 5V, 12IN = 12V, T = +25°C, unless otherwise noted.)

A

INPUT CURRENT (VCC OUTPUT SHORTED)

VCC CURRENT LIMITING

2.0

1.5

1.0

0.5

0

MAX1602

4

I

(A)

VY

2

0

VCC

(V)

1ms/div

2ms/div

C = 1µF, RESISTIVE OVERLOAD, R = 1Ω

L

INPUT CURRENT (VPP OUTPUT SHORTED)

VPP CURRENT LIMITING

10

5

10

VPP

(V)

VPP

(V)

0

5

0

300

200

I

12IN

(mA)

100

0

100µs/div

2ms/div

R = 0.1Ω

L

C = 1µF, R = 50Ω

L

6

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S in g le -Ch a n n e l Ca rd Bu s a n d P CMCIA VCC/VP P

P o w e r-S w it c h in g Ne t w o rk

MAX1602

_____________________________Typ ic a l Op e ra t in g Ch a ra c t e ris t ic s (c o n t in u e d )

(VY = 3.3V, VX = 5V, 12IN = 12V, T = +25°C, unless otherwise noted.)

A

12IN ON-RESISTANCE

vs. CURRENT

12IN ON-RESISTANCE

vs. TEMPERATURE

VX SUPPLY CURRENT

vs. INPUT VOLTAGE

680

675

670

665

850

800

0.9

0.8

I

= 100mA

LOAD

0.7

0.6

0.5

0.4

0.3

0.2

0.1

0

750

700

660

655

650

645

640

650

600

550

500

0

20

40

60

80

100 120

-40 -20

0

20

40

60

80 100

0

1

2

3

4

5

6

CURRENT (mA)

TEMPERATURE (°C)

INPUT VOLTAGE (V)

VY SUPPLY CURRENT

vs. INPUT VOLTAGE

12IN SUPPLY CURRENT

vs. INPUT VOLTAGE

50

7

6

5

45

40

35

30

25

20

15

10

5

NORMAL

OPERATION

4

3

2

1

0

SHUTDOWN

0

1

2

3

4

5

0

2

4

6

8

10

12

INPUT VOLTAGE (V)

VY ON-RESISTANCE

vs. VCC LOAD CURRENT

VX ON-RESISTANCE

vs. VCC LOAD CURRENT

130

120

130

120

T = +85°C

A

T = +85°C

A

110

100

110

100

T = +25°C

A

T = +25°C

A

90

80

90

80

T = -40°C

A

70

T = -40°C

A

70

60

0

200

400

600

800

1000

0

200

400

600

800

1000

VCC LOAD CURRENT (mA)

_______________________________________________________________________________________

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______________________________________________________________P in De s c rip t io n

NAME

GND

12IN

VPP

FUNCTION

1

Ground

2

+12V Supply Voltage Input

VPP Output

3

4, 6, 7, 9

5

VCC

VX

VCC Output. Connect all four VCC pins together.

VX Supply Voltage Input. Input range is +3.0V to +5.5V. VX is normally connected to 5V.

MAX1602

VY and Logic Supply Voltage Inputs. VY pins must be connected together. Input range is +3V to

+5.5V. VY is normally connected to 3.3V.

8, 10

VY

11

12

13

14

A0VPP

A1VPP

A0VCC

A1VCC

VPP Control Input (see Logic Truth Tables).

VCC Control Input (see Logic Truth Tables).

Three-Level Code-Select Input (see Logic Truth Tables): Low = Standard “Intel” code,

High = “Cirrus” code, Mid-Supply = “Databook” code (Figure 4).

15

16

CODE

Fault-Detection Output. FAULT goes low during current limit, undervoltage lockout, or thermal

limit. FAULT is an open-drain output that requires an external pull-up resistor.

FAULT

__________________________________________________________Lo g ic Tru t h Ta b le s

Table 1. Standard “Intel” Code (82365SL),

CODE = GND

Table 2. “Cirrus” Code, CODE = High (VY)

A1VCC A0VCC A1VPP A0VPP VCC

VPP

MODE

A1VCC A0VCC A1VPP A0VPP VCC

VPP

GND

VCC

12IN

MODE

STBY

Active

0

1

0

1

0

1

0

1

0

1

0

1

0

1

0

1

0

1

0

1

0

1

0

1

0

1

0

1

0

1

High-Z High-Z STBY

0

1

0

1

0

1

0

1

0

1

0

1

0

1

0

1

0

1

0

1

0

1

0

1

0

1

0

1

0

1

GND

VY

VX

GND

VCC

12IN

Active

VY

VX

VY

VX

High-Z Active

VY

High-Z Active

VY

GND

VCC

12IN

Active

VX

GND

VCC

12IN

Active

VY

VX

VY

VX

VY

High-Z Active

VX

High-Z Active

GND

STBY

VY

GND

VCC

12IN

Active

VY

High-Z Active

STBY = Standby Mode

8

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MAX1602

_________Lo g ic Tru t h Ta b le s (c o n t .)

_______________De t a ile d De s c rip t io n

The MAX1602 power-switching IC contains a network of

low-resistance MOSFET switches that deliver selectable

VCC and VPP voltages to two CardBus or PC Card host

socket. Figure 1 is the detailed block diagram.

Table 3. “Databook” Code,

CODE = Mid-Supply (VY/2)

A1VCC A0VCC AVPP A0VPP VCC

VPP

MODE

0

1

0

1

0

1

0

1

0

1

0

1

0

1

X

GND High-Z STBY

The power-input pins (VY, VX, 12IN) are completely

independent, however, power must always be applied

to VY for proper operation. Low inrush current is guaran-

teed by controlled switch rise times. VCC’s 100µs mini-

mum outp ut ris e time is 100% te s te d with a 1µF

capacitive load, and VPP’s 1ms minimum rise time is

guaranteed with a 0.1µF load. These respective capaci-

tive loads are chosen as worst-case card-insertion para-

meters. The internal switching control allows VCC and

VPP rise times to be controlled, and makes them nearly

VY

GND

VX

12IN

GND

12IN

VCC

GND

VCC

GND

Active

STBY

Active

VY

VX

STBY = Standby Mode, X = Don’t Care

1Ω

VB12

12IN

VPP

MAX1602

CHARGE

PUMP

CURRENT

LIMIT

6Ω

40Ω

VB3

0.25Ω

VY

VCC

CURRENT

LIMIT

CHARGE

PUMP

VCC

VB5 0.25Ω

VX

40Ω

CHARGE

PUMP

CURRENT

LIMIT

FAULT

VDD

DECODE

LOGIC

AND UVLO

CONTROL

INPUTS

SHDN

GND

THERMAL

SHUTDOWN

Figure 1. Detailed Block Diagram

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independent of resistive and capacitive loads (see rise-

time photos in the Typical Operating Characteristics).

Fall times are a function of loading, and are compensat-

ed by internal circuitry.

Ove rc u rre n t P ro t e c t io n

Peak detecting circuitry protects both the VCC and VPP

switches against overcurrent conditions. When current

through any switch exceeds the internal current limit

(4A for VCC switches and 200mA for VPP switches) the

switch turns off briefly, then turns on again at the con-

trolled rise rate. If the overcurrent condition lasts more

than 2µs, the FAULT output goes low. FAULT is not

latched. A continuous short-circuit condition results in a

pulsed output current and a pulsed FAULT output until

thermal shutdown is reached. FAULT is open-drain and

requires an external pull-up resistor.

Power savings is automatic: internal charge pumps draw

very low current when the VCC switches are static.

Standby mode reduces switch supply current to 11µA.

Op e ra t in g Mo d e s

The MAX1602 is c omp a tib le with the Cirrus

CL-PD67XX, Databook DB86184, and Intel 82365SL PC

Card Interface Controllers (PCIC). Four control inputs

select the internal switches’ positions and the operating

modes according to the input code. Select the proper

code format for the chosen controller with the CODE

input pin (see Pin Description and Tables 1, 2, and 3).

CODE reconfigures the logic decoder to one of three

interface controllers:

MAX1602

Th e rm a l S h u t d o w n

If the IC junction temperature rises above +150°C, the

thermal shutdown circuitry opens all switches, including

the GND switches, and FAULT is pulled low. When the

temperature falls below +130°C, the switches turn on

again at the controlled rise rate. If the overcurrent con-

dition remains, the part cycles between thermal shut-

down and overcurrent.

Low = Standard “Intel” code (Figure 3)

High = “Cirrus” code (Figure 2)

Mid-supply = “Databook” code (Figure 4)

Un d e rvo lt a g e Lo c k o u t

If the VX switch input voltage drops below 1.9V, the

associated switch turns off and FAULT goes low. For

example, if VY is 3.3V and VX is 0V, and if the interface

controller selects VY, the VCC output will be 3.3V. If VX

is selected, VCC changes to a high-impedance output

and FAULT goes low.

An additional 1µA (3µA max) of VY supply current will

flow if CODE = mid-supply (VY/2).

The MAX1602 has two operating modes: normal and

standby. Normal mode supplies the selected outputs

with their appropriate supply voltages. Standby mode

places all switches at ground, high impedance, or a

combination of the two.

When a voltage is initially applied to 12IN, it must be

g re a te r tha n 8V to a llow the s witc h to op e ra te .

Operation continues until the voltage falls below 2V

(the VPP output is high impedance).

TO PC CARD SOCKET

Whe n VY d rop s to le s s tha n 2.6V, a ll s witc he s a re

turne d off a nd the VCC a nd VPP outp uts a re hig h

impedance.

V

CC

VCC VPP

MAX1602

SOCKET

INTERFACE

CIRRUS LOGIC

CL-PD6720

CL-PD6722

CL-PD6729

__________Ap p lic a t io n s In fo rm a t io n

+3.3V

VY

TO PC

CARD

SOCKET

S u p p ly Byp a s s in g

Bypass the VY, VX, and 12IN inputs with ceramic 0.1µF

capacitors. Bypass the VCC and VPP outputs with a

0.1µF capacitor for noise reduction and ESD protection.

+5V

+12V

VX

A:VPP_VCC

A:VPP_PGM

A:VCC_5

A0VPP

A1VPP

A0VCC

A1VCC

12IN

CODE

A:VCC_3

GND

Figure 2. Application with Cirrus Logic Interface

10 ______________________________________________________________________________________

S in g le -Ch a n n e l Ca rd Bu s a n d P CMCIA VCC/VP P

P o w e r-S w it c h in g Ne t w o rk

MAX1602

TO SOCKETS

V

CC

TO PC CARD SOCKET

V

CC

VCC VPP

MAX1602

SOCKET

INTERFACE

VCC VPP

MAX1602

SOCKET

INTERFACE

TO PC

CARD

SOCKET

82365SL DF

DB87144

+3.3V

VY

TO PC

CARD

+3.3V

VY

SOCKET

VY

A:VPP_EN0

A0VPP

A1VPP

A0VCC

A1VCC

A1VPP

A0VCC

A1VCC

A:_VCTL1

+5V

+12V

VX

A:VPP_EN1

A:VCC_EN0

A:VCC_EN1

1M

+5V

+12V

VX

A:_VCTL2

A:_VCTL0

12IN

CODE

12IN

CODE

GND

ISA

BUS

GND

NOTE: A0VPP, PIN 11 ON THE MAX1602, IS TIED TO GND.

Figure 3. Application with Intel Interface

Figure 4. Block Diagram of the Databook DB87144 PCI to

CardBus Controller Interface to the MAX1602

______________________________________________________________________________________ 11

S in g le -Ch a n n e l Ca rd Bu s a n d P CMCIA VCC/VP P

P o w e r-S w it c h in g Ne t w o rk

__________________P in Co n fig u ra t io n

___________________Ch ip In fo rm a t io n

TRANSISTOR COUNT: 1452

TOP VIEW

GND

12IN

VPP

VCC

VX

16

15

FAULT

CODE

1

2

3

4

5

6

7

8

14 A1VCC

13 A0VCC

12 A1VPP

11 A0VPP

10 VY

MAX1602

VCC

VY

9

VCC

QSOP

________________________________________________________P a c k a g e In fo rm a t io n

INCHES

MILLIMETERS

INCHES

MILLIMETERS

DIM

DIM PINS

MIN

0.061

MAX

MIN

MAX

1.73

0.25

1.55

0.31

0.25

MIN MAX MIN

MAX

4.98

0.18

8.74

1.40

8.74

0.76

9.98

A

0.068

1.55

16 0.189 0.196 4.80

16 0.0020 0.0070 0.05

20 0.337 0.344 8.56

20 0.0500 0.0550 1.27

24 0.337 0.344 8.56

24 0.0250 0.0300 0.64

28 0.386 0.393 9.80

28 0.0250 0.0300 0.64

D

S

D

S

D

S

D

S

D

A1 0.004 0.0098 0.127

A2 0.055

0.061

0.012

1.40

0.20

0.19

B

C

D

E

e

0.008

A

0.0075 0.0098

SEE VARIATIONS

e

0.150

0.157

3.81

3.99

A1

B

0.25 BSC

0.635 BSC

0.76

21-0055A

H

h

0.230

0.010

0.016

0.244

0.016

0.035

5.84

0.25

0.41

6.20

0.41

0.89

S

L

N

S

α

SEE VARIATIONS

0°

8°

0°

8°

E

H

QSOP

QUARTER

SMALL-OUTLINE

PACKAGE

h x 45°

α

A2

N

E

L

C

Maxim cannot assume responsibility for use of any circuitry other than circuitry entirely embodied in a Maxim product. No circuit patent licenses are

implied. Maxim reserves the right to change the circuitry and specifications without notice at any time.

12 __________________Ma x im In t e g ra t e d P ro d u c t s , 1 2 0 S a n Ga b rie l Drive , S u n n yva le , CA 9 4 0 8 6 (4 0 8 ) 7 3 7 -7 6 0 0

Printed USA

is a registered trademark of Maxim Integrated Products.


型号：	MAX1602
厂家：	MAXIM INTEGRATED PRODUCTS
描述：	Single-Channel CardBus and PCMCIA VCC/VPP Power-Switching Network 单通道的CardBus和PCMCIA VCC / VPP电力交换网 PC
文件：	总12页 (文件大小：132K)
中文：	中文翻译
下载：	下载PDF数据表文档文件

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