LTC1315CG [Linear]
PCMCIA Switching Matrix with Built-In N-Channel VCC Switch Drivers; PCMCIA开关矩阵与内置N沟道VCC开关驱动器
| 型号： | LTC1315CG |
| 厂家： | 
Linear |
| 描述： | PCMCIA Switching Matrix with Built-In N-Channel VCC Switch Drivers |
| 文件： | 总12页 (文件大小：276K) |
| 中文： | 中文翻译 | 下载： | 下载PDF数据表文档文件 |
LTC1314/LTC1315
PCMCIA Switching Matrix
with Built-In N-Channel
VCC Switch Drivers
U
DESCRIPTIO
EATURE
S
F
The LTC®1314/LTC1315 provide the power switching
necessary to control Personal Computer Memory Card
InternationalAssociation(PCMCIA)Release2.0cardslots.
WhenusedinconjunctionwithaPCcardinterfacecontrol-
ler, these devices form a complete minimum component
count interface for palmtop, pen-based and notebook
computers.
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■
■
■
■
■
■
■
■
Output Current Capability: 120mA
External 12V Regulator Can Be Shut Down
Built-In N-Channel VCC Switch Drivers
Digital Selection of 0V, VCCIN, VPPIN or Hi-Z
3.3V or 5V VCC Supply
Break-Before-Make Switching
0.1µA Quiescent Current in Hi-Z or 0V Mode
No VPPOUT Overshoot
The LTC1314/LTC1315 provide 0V, 3.3V, 5V, 12V and
Hi-Z power output for flash VPP programming. A built-in
charge pump produces 12V of gate drive for inexpensive
N-channel 3.3V/5V VCC switching. The 12V regulator can
be shut down when 12V is not required at VPPOUT. All
digital inputs are TTL compatible and interface directly
with industry standard PC card interface controllers.
Logic Compatible with Standard PCMCIA Controllers
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PPLICATI
S
A
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Notebook Computers
Palmtop Computers
Pen-Based Computers
Handi-Terminals
The LTC1314 is available in 14-pin SO and the LTC1315 in
24-pin SSOP.
Bar-Code Readers
, LTC and LT are registered trademarks of Linear Technology Corporation.
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Linear Technology PCMCIA Product Family
TYPICAL APPLICATION
DEVICE
LT1312
LT1313
DESCRIPTION
PACKAGE
8-PIN SO
SINGLE PCMCIA VPP DRIVER/REGULATOR
Typical PCMCIA Single Slot Driver
DUAL PCMCIA VPP DRIVER/REGULATOR
LTC®1314 SINGLE PCMCIA SWITCH MATRIX
16-PIN SO*
14-PIN SO
24-PIN SSOP
8-PIN SO
STEP-UP
3.3V OR 5V
V
V
IN
REGULATOR
LT®1301
SHDN
LTC1315 DUAL PCMCIA SWITCH MATRIX
12V
OUT
+
LTC1470 PROTECTED V 5V/3.3V SWITCH MATRIX
CC
C
OUT
LTC1472 PROTECTED V AND VPP SWITCH MATRIX 16-PIN SO*
VPP
CC
IN
5V
V
SHDN
VPP
DD
*NARROW BODY
VPP1
VPP2
OUT
5V
LTC1314
0.1µF
LTC1314 Truth Table
PCMCIA
CARD SLOT
CONTROLLER
EN0
EN1
PCMCIA
CARD SLOT
DRV5
EN0
0
EN1
0
VCC0
X
VCC1
X
VPPOUT
GND
VCCIN
VPPIN
Hi-Z
X
DRV3
DRV5
V
CC
V
CC0
V
X
X
X
X
1
0
0
0
X
X
X
X
0
1
0
0
CCIN
+
0
1
X
X
V
CC1
DRV3
1µF
LTC1314 • TA01
1
0
X
X
GND
1
1
X
X
X
X
1
0
X
X
0
1
X
3.3V
X
X
0
0
X
X
X
1
1
X
X = DON’T CARE
1
LTC1314/LTC1315
W W W
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ABSOLUTE AXI U RATI GS
VPPIN to GND ........................................ 13.2V to –0.3V
VDD to GND................................................. 7V to –0.3V
VCCIN to GND .............................................. 7V to –0.3V
VPPOUT to GND...................................... 13.2V to –0.3V
Digital Input Voltage ................................... 7V to –0.3V
Operating Temperature Range .................... 0°C to 70°C
Storage Temperature Range ................ –65°C to 150°C
Lead Temperature (Soldering, 10 sec)................. 300°C
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/O
PACKAGE RDER I FOR ATIO
TOP VIEW
ORDER PART
NUMBER
ORDER PART
1
2
AV
CCIN
24
23
22
21
20
19
18
17
16
15
14
13
AVPP
NUMBER
IN
AVPP
ASHDN
AEN0
OUT
TOP VIEW
3
GND
LTC1315CG
LTC1314CS
VPP
1
2
3
4
5
6
7
14
13
12
11
10
9
V
IN
4
V
CCIN
AEN1
DD
NC
SHDN
EN0
NC
5
ADRV3
ADRV5
AV
CC0
AV
CC1
VPP
OUT
6
GND
7
BV
CCIN
BVPP
IN
EN1
V
DD
8
BVPP
BSHDN
BEN0
OUT
V
CC0
DRV3
DRV5
9
GND
V
8
CC1
10
11
12
V
BEN1
DD
BDRV3
BDRV5
BV
CC0
CC1
S PACKAGE
14-LEAD PLASTIC SO
BV
T
JMAX = 125°C, θJA = 110°C/W
G PACKAGE
24-LEAD PLASTIC SSOP
TJMAX = 125°C, θJA = 95°C/W
Consult factory for Industrial and Military grade parts.
V
DD = 5V, VCCIN = 5V, VPPIN = 12V, TA = 25°C unless otherwise specified.
ELECTRICAL CHARACTERISTICS
LTC1314/LTC1315
SYMBOL
PARAMETER
CONDITIONS
MIN
3
TYP
MAX
5.5
12.6
5.5
1
UNITS
V
Input Voltage Range
Input Voltage Range
Supply Voltage Range
●
●
●
●
V
V
CCIN
VPP
0
IN
V
4.5
V
µA
DD
I
I
V
Supply Current, No Load
VPP
= VPP , V , 0V or Hi-Z
IN CCIN
0.1
CC
CCIN
OUT
VPP Supply Current, No Load
VPP
VPP
= VPP , V
IN CCIN
= 0V, Hi-Z
●
●
15
0.1
40
1
µA
µA
PP
IN
OUT
OUT
I
V
Supply Current, No Load
VPP
VPP
VPP
= VPP or V
●
●
●
60
0.1
85
120
10
200
µA
µA
µA
DD
DD
OUT
OUT
OUT
IN
CCIN
= 0V or Hi-Z
= 0V or Hi-Z, DRV3 or DRV5 On
I
I
Input Current: EN0, EN1, V
or V
0V < V < V
DD
●
●
±1
µA
µA
IN
CC0
CC1
IN
High Impedance Output Leakage Current
EN0 = EN1 = 5V, 0V < VPP
< 12V
0.1
10
OUT
OUT
R
On Resistance, VPP
On Resistance, VPP
On Resistance, VPP
= VPP
VPP = 12V, I
= 120mA
●
●
●
0.55
2
100
1.2
5
250
Ω
Ω
Ω
ON
OUT
OUT
OUT
IN
CCIN
IN
LOAD
= V
= GND
V
V
= 5V, I
= 5mA
CCIN
LOAD
= 5V, I
= 1mA
DD
SINK
V
V
Input High Voltage, Digital Inputs
Input Low Voltage, Digital Inputs
●
●
2
V
V
INH
INL
0.8
2
LTC1314/LTC1315
VDD = 5V, VCCIN = 5V, VPPIN = 12V, TA = 25°C unless otherwise specified.
ELECTRICAL CHARACTERISTICS
LTC1314/LTC1315
SYMBOL
PARAMETER
CONDITIONS
MIN
TYP
MAX
UNITS
V
V
V
SHDN Output High Voltage
SHDN Output Low Voltage
Gate Voltage Above Supply
Turn-On Time, DRV3 and DRV5
Turn-Off Time, DRV3 and DRV5
Delay + Rise Time
VPP
VPP
= V
, 0V or Hi-Z, I = 400µA
LOAD
●
●
●
3.5
OH
OL
OUT
OUT
CCIN
= VPP , I
= 400µA
0.4
13
500
30
V
IN SINK
DRV5
V -V
G
V
DRV3
C
GATE
C
GATE
or V
6
50
3
7
150
10
15
15
15
6
V
DD
t
t
t
t
t
t
t
t
t
= 1000pF, Time for V
= 1000pF, Time for V
> V + 1V
µs
µs
µs
µs
µs
µs
µs
µs
µs
ON
OFF
1
GATE
GATE
DD
< 0.5V
VPP
VPP
VPP
VPP
VPP
VPP
VPP
= GND to V
, VPP = 0V, Note 1
5
50
OUT
OUT
OUT
OUT
OUT
OUT
OUT
CCIN
IN
Delay + Rise Time
= GND to VPP (Note 1)
5
50
2
IN
Delay + Rise Time
Delay + Fall Time
= V
to VPP (Note 1)
5
2
50
20
3
CCIN
IN
= VPP to V (Note 3)
CCIN
4
IN
Delay + Fall Time
= VPP to GND (Note 2)
15
10
5
50
25
15
150
100
50
5
IN
Delay + Fall Time
Output Turn-On Delay
= V to GND, VPP = 0V (Note 2)
CCIN IN
6
= Hi-Z to VPP or V
(Notes 1, 6)
CCIN
7
IN
The
● denotes specifications which apply over the full operating
Note 3: To 50% of the initial value, C
= 0.1µF, R
= 2.9k.
OUT
OUT
temperature range.
Note 1: To 90% of the final value, C
Note 2: To 10% of the final value, C
Note 4: Measured current data is per channel.
Note 5: Input logic low equal to 0V, high equal to 5V.
Note 6: VPP = 0V when switching from Hi-Z to V
= 0.1µF, R
= 0.1µF, R
= 2.9k.
= 2.9k.
OUT
OUT
OUT
OUT
.
IN
CCIN
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TYPICAL PERFORMANCE CHARACTERISTICS
DRV3/DRV5 Output Voltage vs
Temperature
Switch On Resistance vs
Temperature
Supply Current vs Temperature
75
70
65
60
55
50
45
40
35
30
25
3.0
2.7
2.4
2.1
1.8
1.5
1.2
0.9
0.6
0.3
0
14.2
14.0
13.8
13.6
13.4
13.2
13.0
V
CC
SWITCH
VPP
= VPP = 12V
IN
OUT
VPP SWITCH
VPP
= V
CCIN
OUT
IN
VPP = 12V
30
50
90
–50 –30 –10 10
30
TEMPERATURE (°C)
50
70
90
–50
–10 10
30
50
70
90
–50
–30
–10 10
70
–30
TEMPERATURE (°C)
TEMPERATURE (°C)
1314/15 G02
1314/15 G03
1314/15 G01
3
LTC1314/LTC1315
TYPICAL PERFORMANCE CHARACTERISTICS
U W
IPPIN vs VPPIN
IDD vs VDD
20
18
16
14
12
10
8
80
70
60
50
40
30
20
10
0
V
= V
= 5V
CCIN
VPP = 12V
IN
DD
T = 25°C
V
= 5V
CCIN
T = 25°C
VPP
= VPP
OUT
IN
VPP
= VPP
IN
OUT
VPP
= V
CCIN
OUT
6
VPP
= V
CCIN
OUT
4
VPP
OR HI-Z
= 0V
VPP
= 0V
OUT
2
OUT
OR HI-Z
14
12
0
5
0
1
2
3
4
6
0
4
6
8
10
2
V
DD
(V)
VPP (V)
IN
1314/15 G04
1314/15 G05
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PIN FUNCTIONS
LTC1314
VPPIN (Pin 1): 12V Power Input.
NC (Pin 2): Not Connected.
DRV5, DRV3 (Pins 8, 9): Gate driver outputs that control
the external MOSFETs that switch the VCC pin of card slot
to Hi-Z, 3.3V, or 5V.
SHDN(Pin3):ShutdownOutput.Whentheoutputishigh,
the external 12V regulator can be shut down to conserve
power consumption.
VDD (Pin10):PositiveSupply, 4.5V ≤VDD ≤5.5V. Thispin
supplies the power to the control logic and the charge
pumps and must be continuously powered.
EN0,EN1(Pins4,5):Logicinputsthatcontrolthevoltage
output on VPPOUT. The input thresholds are compatible
with TTL/CMOS levels. Refer to Truth Table.
GND (Pin 11): Ground Connection.
VPPOUT (Pin12):Switchedoutputthatprovides0V, 3.3V,
5V, 12V, or Hi-Z to the VPP pin of the card slot. Refer to
Truth Table.
VCC0 (Pin 6): Logic input that controls the state of the
MOSFET gate driver DRV3. ESD protection device limits
input excursions to 0.6V below ground.
NC (Pin 13): Not Connected.
VCC1 (Pin 7): Logic input that controls the state of the
MOSFET gate driver DRV5. ESD protection device limits
input excursions to 0.6V below ground.
VCCIN (Pin 14): 5V or 3.3V Power Input.
4
LTC1314/LTC1315
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U
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PIN FUNCTIONS
LTC1315
VPPIN (Pins 1, 7): 12V Power Inputs.
DRV5, DRV3 (Pins 13, 14, 19, 20): Gate driver outputs
that control the external MOSFETs that switch the VCC pin
of card slot to Hi-Z, 3.3V, or 5V.
SHDN (Pins 2, 8): Shutdown Outputs. When the output is
high, the external 12V regulator can be shut down to
conserve power consumption.
VDD (Pins 15, 21): Positive Supplies, 4.5V ≤ VDD ≤ 5.5V.
These pins supply the power to the control logic and the
charge pumps and must be continuously powered.
EN0, EN1 (Pins 3, 4, 9, 10): Logic inputs that control the
voltage output on VPPOUT. The input thresholds are
compatible with TTL/CMOS levels. Refer to the Truth
Table.
GND (Pins 16, 22): Ground Connections.
VPPOUT (Pins 17, 23): Switched outputs that provide 0V,
3.3V, 5V, 12V, orHi-ZtotheVPPpinofthecardslot. Refer
to the Truth Table.
VCC0 (Pins5,11):Logicinputsthatcontrolthestateofthe
MOSFET gate driver DRV3. ESD protection device limits
input excursions to 0.6V below ground.
VCCIN (Pins 18, 24): 5V or 3.3V Power Inputs.
VCC1 (Pins6,12):Logicinputsthatcontrolthestateofthe
MOSFET gate driver DRV5. ESD protection device limits
input excursions to 0.6V below ground.
W
BLOCK DIAGRAM
LTC1314 or 1/2 LTC1315
SHDN
VPP
IN
GATE CHARGE
AND DISCHARGE
CONTROL LOGIC
CHARGE
PUMP
TTL TO CMOS
CONVERTER
EN0
EN1
BREAK-BEFORE-
MAKE SWITCHES
OSCILLATOR
AND BIAS
TTL TO CMOS
CONVERTER
V
CCIN
GATE CHARGE
AND DISCHARGE
CONTROL LOGIC
CHARGE
PUMP
VPP
IN
+
–
GATE CHARGE
CONTROL LOGIC
VPP
OUT
10V
GND
TTL TO CMOS
CONVERTER
V
V
DRV3
DRV5
CC0
CC1
GATE CHARGE
AND DISCHARGE
CONTROL LOGIC
TTL TO CMOS
CONVERTER
OSCILLATOR AND
CHARGE PUMP
OUTPUT
SWITCHES
LTC1314 • BD
5
LTC1314/LTC1315
U
W
W
SWITCHI G TI E WAVEFOR S
EN0
EN1
VPP
VCC
IN
IN
Hi-Z
VPP
OUT
GND
t
t
t
t
7
3
6
5
t
1
t
4
t
2
LTC1314 • SW
NOTE: 1µF CAPACITOR CONNECTED ON BOTH VPP AND V
PINS AT TIMING TEST
CCIN
IN
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APPLICATIONS INFORMATION
cally rated with an absolute maximum of 13.5V and VPP
must be maintained at 12V ±5% under all possible load
conditionsduringeraseandprogramcycles. Undervoltage
can decrease specified flash memory reliability and over-
voltage can damage the device.
PCMCIA VPP control is easily accomplished using the
LTC1314 or LTC1315 switching matrix. Two control bits
(LTC1314) or four control bits (LTC1315) determine the
outputvoltageandstandby/operatemodeconditions. Out-
put voltages of 0V, VCCIN (3.3V or 5V), VPPIN, or a high
impedancestateareavailable. Wheneitherthehighimped-
anceorlowvoltage(0V)conditionsareselected,thedevice
switches into “sleep” mode and draws 0.1µA of current
from the VDD supply.
VCC Switch Driver and VPP Switch Matrix
Figures 1 and 2 show the approach that is very space and
power efficient. The LTC1314/LTC1315 used in conjunc-
tion with the LT1301 DC/DC converter, provide complete
power management for a PCMCIA card slot. The LTC1314/
LTC1315 and LT1301 combination provides a highly effi-
cient, minimal parts count solution. These circuits are
especially good for applications that are adding a PCMCIA
socket to existing systems that currently have only 5V or
3.3V available.
The LTC1314/LTC1315 are low resistance power MOSFET
switchingmatricesthatoperatefromthecomputersystem
main power supply. Device power is obtained from VDD,
which is 5V ±0.5V. The gate drives for the NFETs (both
internal and external) are derived from internal charge
pumps,thereforeVPPIN isonlyrequiredwhenit’sswitched
to VPPOUT. Internal break-before-make switches deter-
mine the output voltage and device mode.
The LTC1314 drives three N-channel (LTC1315 six
N-channel) MOSFETs that provide VCC pin power switch-
ing. On-chip charge pumps provide the necessary voltage
to fully enhance the switches. With the charge pumps on-
chip, the MOSFET drive is available without the need for a
12V supply. The LTC1314/LTC1315 provide a natural
break-before-make action and smooth transitions due to
Flash Memory Card VPP Power Considerations
PCMCIA compatible flash memory cards require tight
regulation of the 12V VPP programming supply to ensure
that the internal flash memory circuits are never subjected
to damaging conditions. Flash memory circuits are typi-
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LTC1314/LTC1315
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APPLICATIONS INFORMATION
D1
MBRS130LT3
L1
22µH
+
+
C1
47µF
C2
33µF
V
SW
SENSE
LT1301
CC
SELECT
5V
SHDN
PGND
I
NC
LIM
GND
C1: AVX TPSD476M016R0150
C2: AVX TPSD336M020R0200
L1: SUMIDA CD75-220K
V
DD
SHDN
VPP
IN
VPP1
VPP2
VPP
LTC1314
OUT
5V
0.1µF
EN0
EN1
PC CARD
SOCKET
Q1A
PCMCIA
CONTROLLER
DRV5
1/2 Si9956DY
V
V
CC0
V
CC
CCIN
+
1µF
LTC1314 • F01
Q2A
V
CC1
DRV3
GND
Si9956DY
Q2B
3.3V
Figure 1. LTC1314 Switch Matrix with the LT1301 Boost Regulator
D1
L1
22µH
MBRS130LT3
+
+
C1
47µF
C2
33µF
V
SW
CC
SELECT
SENSE
LT1301
SHDN
PGND
I
NC
LIM
GND
C1: AVX TPSD476M016R0150
C2: AVX TPSD336M020R0200
L1: SUMIDA CD75-220K
V
DD
ASHDN
BSHDN
AVPP
IN
BVPP
AVPP
IN
VPP1
VPP2
PC CARD
OUT
5V
0.1µF
AEN0
AEN1
Q1A
1/2 Si9956DY
ADRV5
SOCKET
#1
V
CC
AV
AV
CC0
CCIN
+
+
1µF
Q2A
AV
ADRV3
CC1
Si9956DY
Q2B
LTC1315
BVPP
PCMCIA
CONTROLLER
3.3V
5V
VPP1
VPP2
PC CARD
OUT
0.1µF
1µF
BEN0
BEN1
Q1B
1/2 Si9956DY
BDRV5
SOCKET
#2
V
CC
BV
BV
CC0
CCIN
Q3A
BV
BDRV3
CC1
1314/15 F02
Si9956DY
GND
Q3B
3.3V
Figure 2. Typical Two-Socket Application Using the LTC1315 and the LT1301
7
LTC1314/LTC1315
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APPLICATIONS INFORMATION
the asymmetrical turn-on and turn-off of the MOSFETs.
The LT1301 switching regulator is in shutdown mode and
consumes only 10µA until the VPP pins require 12V.
With Higher Voltage Supplies Available
Often systems have an available supply voltage greater
than 12V. The LTC1314/LTC1315 can be used in conjunc-
tion with an LT1121 linear regulator to supply the PC card
socket with all necessary voltages. Figures 3 and 4 show
these circuits. The LTC1314/LTC1315 enable the LT1121
linear regulator only when 12V is required at the VPP pins.
In all other modes the LT1121 is in shutdown mode and
consumes only 16µA. The LT1121 also provides thermal
shutdown and current limiting features to protect the
socket, the card and the system regulator.
The VPP switching is accomplished by a combination of
the LTC1314/LTC1315 and LT1301. The LT1301 is in
shutdown mode to conserve power until the VPP pins
require 12V. When the VPP pins require 12V, the LT1301
isactivatedandtheLTC1314/LTC1315’sinternalswitches
route the VPPIN pin to the VPPOUT pin. The LT1301 is
capable of delivering 12V at 120mA maintaining high
efficiency. The LTC1314/LTC1315’s break-before-make
andslope-controlledswitchingwillensurethattheoutput
voltage transition will be smooth, of moderate slope, and
without overshoot. This is critical for flash memory prod-
ucts to prevent damaging parts from overshoot and
ringing exceeding the 13.5V device limit.
Supply Bypassing
For best results, bypass VCCIN and VPPIN at their inputs
with1µFcapacitors. VPPOUT shouldhavea0.01µFto0.1µF
capacitor for noise reduction and electrostatic discharge
(ESD) damage prevention. Larger values of output capaci-
tor will create large current spikes during transitions,
requiring larger bypass capacitors on the VCCIN and VPPIN
pins.
13V TO 20V
(MAY BE FROM
AUXILLARY
V
V
OUT
IN
+
+
121k
1%
10µF
1µF
LT1121
5V
200pF
WINDING)
SHDN
PGND
ADJ
GND
5V
56.2k
1%
100k
2N7002
V
DD
SHDN
VPP
IN
VPP1
VPP2
VPP
LTC1314
OUT
5V
0.1µF
1µF
EN0
EN1
PC CARD
SOCKET
Q1A
PCMCIA
CONTROLLER
DRV5
1/2 Si9956DY
V
CC
V
V
CCIN
CC0
+
1314/15 F03
Q2A
V
DRV3
CC1
GND
Si9956DY
Q2B
3.3V
Figure 3. LTC1314 with the LT1121 Linear Regulator
8
LTC1314/LTC1315
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APPLICATIONS INFORMATION
(12V)
121k
13V TO 20V
V
V
OUT
(MAY BE FROM
IN
+
+
AUXILIARY WINDING)
1µF
10µF
200pF
LT1121
5V
SHDN
PGND
ADJ
GND
56.2k
V
DD
ASHDN
BSHDN
AVPP
IN
BVPP
AVPP
IN
VPP1
VPP2
OUT
5V
0.1µF
1µF
AEN0
AEN1
PC CARD
SOCKET
#1
Q1A
ADRV5
1/2 Si9956DY
V
CC
AV
AV
CCIN
CC0
+
+
Q2A
AV
CC1
ADRV3
Si9956DY
Q2B
LTC1315
PCMCIA
CONTROLLER
3.3V
5V
VPP1
VPP2
BVPP
OUT
0.1µF
1µF
BEN0
BEN1
PC CARD
SOCKET
#2
Q1B
1/2 Si9956DY
BDRV5
V
CC
BV
CC0
BV
CCIN
Q3A
BV
CC1
BDRV3
1314/15 F04
Si9956DY
GND
Q3B
3.3V
Figure 4. Typical Two-Socket Application Using the LTC1315 and the LT1121
U
TYPICAL APPLICATIONS N
Single Slot Interface to CL-PD6710
12V
FROM LT1301
5V
V
VPP
IN
DD
VPP_PGM
EN0
EN1
VPP1
VPP2
VPP
OUT
5V
0.1µF
1µF
VPP_V
CC
LTC1314
1/2 Si9956DY
OR
PCMCIA
CARD SLOT
CIRRUS LOGIC
CL-PD6710
DRV5
1/2 MMDF3N02HD
V
V
_5
_3
V
CC0
V
V
CC
CC
CC
CCIN
+
V
DRV3
CC1
LTC1314 • TA02
Si9956DY
OR
MMDF3N02HD
GND
NOTE: CL-PD6710 HAS ACTIVE-LOW V DRIVE
CC
3.3V
9
LTC1314/LTC1315
U
TYPICAL APPLICATIONS N
Dual Slot Interface to CL-PD6720
12V
5V
V
DD
VPP
IN
A_VPP_PGM
AEN0
AEN1
BEN0
BEN1
VPP1
VPP2
PCMCIA
AVPP
OUT
5V
A_VPP_V
CC
0.1µF
1µF
B_VPP_PGM
1/2 Si9956DY
Si9956DY
ADRV5
CARD SLOT
#1
B_VPP_V
CC
AV
CCIN
V
CC
+
+
ADRV3
CIRRUS LOGIC
CL-PD6720
LTC1315
3.3V
5V
A_V _5
CC
AV
VPP1
VPP2
PCMCIA
BVPP
CC0
CC1
CC0
CC1
OUT
A_V _3
AV
BV
BV
CC
0.1µF
1µF
B_V _5
CC
1/2 Si9956DY
BDRV5
CARD SLOT
#2
B_V _3
CC
BV
V
CC
CCIN
BDRV3
LTC1315 • TA02
Si9956DY
GND
3.3V
NOTE: CL-PD6720 HAS ACTIVE-LOW V DRIVE
CC
Single Slot Interface to “365” Type Controller
12V
FROM LT1301
5V
V
VPP
IN
DD
A_VPP_EN0
A_VPP_EN1
EN0
EN1
VPP1
VPP2
VPP
OUT
5V
0.1µF
1µF
LTC1314
1/2 Si9956DY
OR
PCMCIA
CARD SLOT
“365” TYPE
CONTROLLER
DRV5
1/2 MMDF3N02HD
A_V _EN0
CC
V
CC1
V
V
CC
CCIN
+
A_V _EN1
CC
V
DRV3
CC0
LTC1314 • TA03
Si9956DY
OR
MMDF3N02HD
GND
NOTE: “365” TYPE CONTROLLERS HAVE
ACTIVE-HIGH V DRIVE
3.3V
CC
10
LTC1314/LTC1315
U
TYPICAL APPLICATIONS N
Dual Slot Interfae to “365” Type Controller
12V
VPP
5V
V
DD
IN
A_VPP_EN0
A_VPP_EN1
B_VPP_EN0
B_VPP_EN1
AEN0
AEN1
BEN0
BEN1
VPP1
VPP2
AVPP
OUT
5V
0.1µF
1µF
PCMCIA
CARD SLOT
#1
1/2 Si9956DY
Si9956DY
ADRV5
AV
V
CC
CCIN
+
+
ADRV3
“365” TYPE
CONTROLLER
LTC1315
3.3V
5V
A_V _EN0
CC
AV
VPP1
VPP2
BVPP
CC1
CC0
CC1
CC0
OUT
A_V _EN1
AV
BV
BV
CC
0.1µF
1µF
PCMCIA
CARD SLOT
#2
B_V _EN0
CC
1/2 Si9956DY
BDRV5
B_V _EN1
CC
BV
CCIN
V
CC
BDRV3
LTC1315 • TA03
Si9956DY
GND
3.3V
NOTE: “365” TYPE CONTROLLERS
HAVE ACTIVE-HIGH V DRIVE
CC
Typical PCMCIA Dual Slot Driver
3.3V OR 5V
V
V
STEP-UP
REGULATOR
LT1301
IN
12V
OUT
SHDN
+
C
OUT
BVPP
AVPP
IN
IN
ASHDN
BSHDN
5V
V
DD
DD
VPP1
VPP2
LTC1315 Truth Table
AVPP
V
OUT
5V
0.1µF
1µF
AEN0
AEN1
PCMCIA
CARD SLOT
EN0
EN1
0
VCC0
X
VCC1
X
VPPOUT
GND
VCCIN
VPPIN
Hi-Z
X
DRV3
DRV5
ADRV5
0
0
1
1
X
X
X
X
X
X
X
X
1
0
0
0
X
X
X
X
0
1
0
0
#1
V
AV
AV
CCIN
CC
CC0
CC1
1
X
X
+
+
AV
ADRV3
0
X
X
1
X
X
PCMCIA
CARD SLOT
CONTROLLER
LTC1315
X
1
0
X
0
1
X
3.3V
5V
X
0
0
X
VPP1
VPP2
PCMCIA
CARD SLOT
BVPP
OUT
X
1
1
X
0.1µF
1µF
BEN0
BEN1
X = DON’T CARE
BDRV5
#2
V
BV
BV
CCIN
CC
CC0
BV
BDRV3
CC1
LTC1315 • TA01
GND
3.3V
Information furnished by Linear Technology Corporation is believed to be accurate and reliable.
However, no responsibility is assumed for its use. Linear Technology Corporation makes no represen-
tationthattheinterconnectionofitscircuitsasdescribedhereinwillnotinfringeonexistingpatentrights.
11
LTC1314/LTC1315
U
Dimensions in inches (millimeters) unless otherwise noted.
PACKAGE DESCRIPTION
G Package
24-Lead Plastic SSOP
0.318 – 0.328*
(8.04 – 8.33)
24 23 22 21 20 19 18 17 16 15 14
13
0.301 – 0.311
(7.65 – 7.90)
5
7
8
1
2
3
4
6
9
10 11 12
0.205 – 0.212*
(5.20 – 5.38)
0.068 – 0.078
(1.73 – 1.99)
0° – 8°
0.0256
(0.65)
BSC
0.005 – 0.009
(0.13 – 0.22)
0.022 – 0.037
(0.55 – 0.95)
0.002 – 0.008
(0.05 – 0.21)
0.010 – 0.015
(0.25 – 0.38)
*THESE DIMENSIONS DO NOT INCLUDE MOLD FLASH OR PROTRUSIONS.
MOLD FLASH OR PROTRUSIONS SHALL NOT EXCEED 0.006 INCH (0.15mm).
24SSOP 0694
S Package
14-Lead Plastic SOIC
0.337 – 0.344*
(8.560 – 8.738)
13
12
11
10
9
8
14
0.228 – 0.244
0.150 – 0.157*
(5.791 – 6.197)
(3.810 – 3.988)
1
2
3
4
5
6
7
0.010 – 0.020
(0.254 – 0.508)
× 45°
0.053 – 0.069
(1.346 – 1.752)
0.008 – 0.010
(0.203 – 0.254)
0.004 – 0.010
(0.101 – 0.254)
0° – 8° TYP
0.050
(1.270)
TYP
0.016 – 0.050
0.406 – 1.270
0.014 – 0.019
(0.355 – 0.483)
SO14 0294
*THESE DIMENSIONS DO NOT INCLUDE MOLD FLASH OR PROTRUSIONS.
MOLD FLASH OR PROTRUSIONS SHALL NOT EXCEED 0.006 INCH (0.15mm).
RELATED PARTS
See PCMCIA Product Family table on the first page of this data sheet.
LT/GP 0195 10K • PRINTED IN USA
Linear Technology Corporation
1630 McCarthy Blvd., Milpitas, CA 95035-7487
12
●
●
(408) 432-1900 FAX: (408) 434-0507 TELEX: 499-3977
LINEAR TECHNOLOGY CORPORATION 1995
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