ZXCL SERIES
Document number: DS33439 Rev. 10 - 3
1 of 13
www.diodes.com
November 2015
© Diodes Incorporated
ZXCL SERIES
Not Recommended for New Design:
USE:
- ZXCLxx0E5TA: AP2121AK-x.xTRG1
- ZXCLxx0H5TA: AP7115-xxSEG-7 or AP2125KS-X.XTRG1
- ZXCL5213VxxH5TA: No Alternative
MICROPOWER SC70-5/SOT353 & SOT25 LOW DROPOUT REGULATORS
Description
The ZXCL series have been designed with space sensitive
systems in mind. They are available in the ultra-small SC70-
5/SOT353 package, which is half the size of SOT23 based
regulators.
The devices can be used with all types of output capacitors
including low ESR ceramics and typical dropout voltage is
only 85mV at 50Ma load. Supply current is minimized with a
ground pin current of only 50µA at full 150mA load.
Logic control allows the devices to be shut down, consuming
typically less than 10nA.
These features make the device ideal for battery powered
applications where power economy is critical.
For applications requiring improved performance over
alternative devices, the ZXCL is also offered in the 5 pin
SOT23 package with an industry standard pinout.
The devices feature thermal overload and overcurrent
protection and are available with output voltages of 2.5V,
2.6V, 2.8V, 3V, 3.3V.
Features
• Low 85mV dropout at 50mA load
• 50µA ground pin current with full 150mA load
• 2.5, 2.6, 2.8, 3, & 3.3 volts output
• Very low noise, without bypass capacitor
•5-pin SC70/SOT353 and SOT25 package
• No-load stable
Pin Assignments
(Top View)
SOT25/SC70-5/SOT353 (H5)
ZXCLxxx
VIN
GND
N/C
VO
EN
Applications
• Cellular and Cordless Phones
• PDA
• Handheld Instruments
• Camera, Camcorder, Personal Stereo
• PC Cards
• Portable and Battery-Powered Equipment
No-Load Stability - the ZXCL device will maintain regulation and is stable with no external load. e.g. CMOS RAM applications
Typical Application Circuit
Battery Supply
C
1µF
IN
Output Voltage
ZXCL
VIN VO
ENC
2.2µF
OUT
GND
ZXCL SERIES
Document number: DS33439 Rev. 10 - 3
2 of 13
www.diodes.com
November 2015
© Diodes Incorporated
ZXCL SERIES
Not Recommended for New Design:
USE:
- ZXCLxx0E5TA: AP2121AK-x.xTRG1
- ZXCLxx0H5TA: AP7115-xxSEG-7 or AP2125KS-X.XTRG1
- ZXCL5213VxxH5TA: No Alternative
Pin Descriptions
Pin
Name
Pin Number
Description
ZXCLxxx
SC70-5/SOT353
(H5) SOT25/
ZXCL5213Vxx
SC70-5/SOT353
(H5)
VIN
1
5
Supply Voltage
GND
2
3
Ground
EN
3
1
Active HIGH enable input. TTL/CMOS logic compatible. Connect VIN
or logic high for normal operation
N/C
4
2*
No Connection (*Should be left open circuit or connected to pin 3)
VO
5
4
Regulator Output
Functional Block Diagram
Input
Enable
GND
Bandgap
Reference
1.25V
Bias
Circuit
Thermal
Shutdown
Error
Amp Buffer
Amp
Current
Limit
Pass
Device
Ouput
R1
R2
ZXCL SERIES
Document number: DS33439 Rev. 10 - 3
3 of 13
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November 2015
© Diodes Incorporated
ZXCL SERIES
Not Recommended for New Design:
USE:
- ZXCLxx0E5TA: AP2121AK-x.xTRG1
- ZXCLxx0H5TA: AP7115-xxSEG-7 or AP2125KS-X.XTRG1
- ZXCL5213VxxH5TA: No Alternative
Absolute Maximum Ratings (TA = +25C)
Parameter
Rating
Unit
Terminal voltage with respect to GND
VIN
-0.3 to 7.0
V
EN
-0.3 to 10
V
VO
-0.3 to 5.5V
V
Output short circuit duration
Infinite
Continuous power dissipation
Internally Limited
Operating temperature range
-40 to +85
°C
Storage temperature range
-55 to +125
°C
Package Power Dissipation (TA = +25°C)
SC70-5/SOT353
300 (Note 1)
mW
SOT25
450 (Note 1)
mW
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 conditions
for extended periods may affect device reliability.
Recommended Operating Conditions (TA = +25C)
Symbol
Parameter
Min
Max
Unit
VIN
Input voltage range
2.0*
5.5
V
VENH
Enable pin logic level High pin
2.2
10
V
VENL
Enable pin logic Low pin
0
0.8
V
TA
Ambient temperature range
-40
+85
°C
* Output voltage will start to rise when VIN exceeds a value or approximately 1.3V. For normal operation,VIN(min) > VOUT(nom) + 0.5V.
ZXCL SERIES
Document number: DS33439 Rev. 10 - 3
4 of 13
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November 2015
© Diodes Incorporated
ZXCL SERIES
Not Recommended for New Design:
USE:
- ZXCLxx0E5TA: AP2121AK-x.xTRG1
- ZXCLxx0H5TA: AP7115-xxSEG-7 or AP2125KS-X.XTRG1
- ZXCL5213VxxH5TA: No Alternative
Electrical Characteristics VIN = VO =0.5V, all values @ TA = 25°C (Unless otherwise stated)
Symbol
Parameter
Conditions
Limit
Units
Min
Typ
Max
VO
Ouput Voltage
IO=1mA
IO=100mA
VO+0.5V < VIN < VIN max
-2%
-3%
+2%
+3%
V
ΔVO/ΔT
Output voltage
temperature
coefficient
-15
ppm/°C
IO(Max)
Output current
XCL250/5213V25 only
150
100
mA
IOLIM
Overcurrent limit
XCL250/5213V25 only
160
105
230
800
150
mA
IO
Ground pin current
No Load
25
50
µA
IO=150mA
50
120
µA
IO=100mA
40
100
µA
VDO
Dropout voltage
(Note 3)
IO=10mA
All variants
15
mV
IO=50mA
85
mV
IO=100mA
ZXCL250 / 5213V25
163
325
mV
IO=100mA
ZXCL260 / 5213V26
155
310
mV
IO=100mA
ZXCL280 / 5213V28
140
280
mV
IO=100mA
ZXCL300 / 5213V30
140
280
mV
IO=100mA
ZXCL330 / 5213V33
140
280
mV
IO=100mA
ZXCL400 / 5213V40
140
280
mV
ΔVLNR
Line regulation
VIN=(VO+0.5V) to 5.5V, IO=1mA
0.02
0.1
%/V
ΔVLDR
Load regulation
IO=1mA to 100mA
0.01
0.04
%/mA
EN
Output noise
voltage
f=10Hz to 100kHz, CO=10µF
50
µVRMS
VENHS
Enable pin
hysteresis
150
mV
IEN
Enable pin input
current
VEN=5.5V
100
nV
IOSD
Shutdown supply
current
VEN=0V
1
µA
TSD
Thermal shutdown
temperature
125
+165
°C
Device testing is performed at TA=25°C. Device thermal performance is guaranteed by design.
Notes: 1. Maximum power dissipation is calculated assuming the device is mounted on a PCB measuring 2 inches square
2. Output voltage will start to rise when VIN exceeds a value or approximately 1.3V. For normal operation, VIN(min) > VOUT(nom) + 0.5V.
3. Dropout voltage is defined as the difference between VIN and VO, when VO has dropped 100mV below its nominal value. Nominal value of VO is
defined at VIN=VO+0.5V.
ZXCL SERIES
Document number: DS33439 Rev. 10 - 3
5 of 13
www.diodes.com
November 2015
© Diodes Incorporated
ZXCL SERIES
Not Recommended for New Design:
USE:
- ZXCLxx0E5TA: AP2121AK-x.xTRG1
- ZXCLxx0H5TA: AP7115-xxSEG-7 or AP2125KS-X.XTRG1
- ZXCL5213VxxH5TA: No Alternative
Typical Characteristics (ZXCL280/5213 shown)
VOLTAGE (V)
0
1
2
4
5
6
INPUT VOLTAGE (V)
Input to Output Characteristics
0 1 2 4 5 63
3VIN
I = 100mA
OUT
I = 1mA
OUT
OUTPUT CURRENT (mA)
Dropout Voltage vs. Output Current
025 50 100 125 150 17575
DROPOUT VOLTAGE (V)
0.00
0.05
0.10
0.15
0.20
0.25
TEMPERATURE (°C)
Output Voltage vs. Temperature
-50 -25 0 50 75 10025
OUTPUT VOLTAGE (V)
2.79
2.80
2.81
V = 3.3V
No Load
IN
V = 3.3V
No Load
IN
TEMPERATURE (°C)
Ground Current vs. Temperature
-50 -25 0 25 50 75 100
GROUND CURRENT (µA)
23.0
23.2
23.4
23.6
23.8
24.0
24.2
24.4
24.6
25.0
24.8
INPUT VOLTAGE (V)
Ground Current vs. Input Voltage
0 1 2 4 5
GROUND CURRENT (µA)
0
15
30
3
5
10
20
25 No Load
LOAD CURRENT (mA)
Ground Current vs. Load Current
GROUND CURRENT (µA)
025 50 75 100 125 150
20
25
30
35
45
50
55
60
40
V = 5V
IN
V = 3.3V
IN
ZXCL SERIES
Document number: DS33439 Rev. 10 - 3
6 of 13
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November 2015
© Diodes Incorporated
ZXCL SERIES
Not Recommended for New Design:
USE:
- ZXCLxx0E5TA: AP2121AK-x.xTRG1
- ZXCLxx0H5TA: AP7115-xxSEG-7 or AP2125KS-X.XTRG1
- ZXCL5213VxxH5TA: No Alternative
Typical Characteristics
VOLTAGE (V)
6
5
4
3
TIME (µs)
Start-Up Response
020 40 60 80 10010 30 50 70 90
2
0
1
C = 1µF
OUT
V = 5V
I = 1mA
I = 100mA
IN
L
L
Enable
V = 3.3V
I = 1mA
I = 100mA
IN
L
L
C = 1µF
OUT
C = 10µF
OUT
V = 5V
I = 1mA to 50mA
IN
L
V (mV) I (mA)
OUT L
100
50
0
100
50
0
-50
-100
TIME (ms)
Load Response
0.0 0.1 0.2 0.3 0.4 0.5
C = 1µF
OUT
C = 10µF
OUT
TIME (ms)
Line Rejection I = 1mA
L
0.0 0.1 0.2 0.3 0.4 0.5
C = 1µF
T & T = 2.5 s
OUT µ
V (mV) V (V)
OUT IN
6
5
4
3
20
10
0
-10
-20
TIME (ms)
Line Rejection I = 100mA
L
0.0 0.1 0.2 0.3 0.4 0.5
V (mV) V (V)
OUT IN
6C = 1µF
T & T = 2.5 s
OUT µ
5
4
3
20
10
0
-10
-20
C = 10µF
OUT
FREQUENCY (Hz)
Power Supply Rejection vs. Frequency
10 100 1k 10k 100k 1M
POWER SUPPLY REJECTION (dB)
0
80
70
60
50
40
20
10
30 C = 2.2µF
OUT
C = 1µF
OUT
All Caps Ceramic
Surface Mount
I = 50mA
L
FREQUENCY (Hz)
Output Noise vs. Frequency
NOISE (µV/ Hz)
0.01
0.1
1
10
10 100 1k 10k 100k 1M
I = 100mA, C = 1µF
L OUT
I = 100mA, C = 10µF
L OUT
No Load, C = 1µF
OUT
No Load, C = 10µF
OUT
ZXCL SERIES
Document number: DS33439 Rev. 10 - 3
7 of 13
www.diodes.com
November 2015
© Diodes Incorporated
ZXCL SERIES
Not Recommended for New Design:
USE:
- ZXCLxx0E5TA: AP2121AK-x.xTRG1
- ZXCLxx0H5TA: AP7115-xxSEG-7 or AP2125KS-X.XTRG1
- ZXCL5213VxxH5TA: No Alternative
Application Information
Input to Output Diode
In common with many other LDO regulators, the ZXCL device
has an inherent diode associated with the output series pass
transistor. This diode has its anode connected to the output
and its cathode to the input. The internal diode is normally
reverse biased, but will conduct if the output is forced above
the input by more than a VBE (approximately 0.6V). Current
will then flow from VOUT to VIN. For safe operation, the
maximum current in this diode should be limited to 5mA
continuous and 30mA peak. An external schottky diode may
be used to provide protection when this condition cannot be
satisfied.
Increased Output Current
Any ZXCL series device may be used in conjunction with an
external PNP transistor to boost the output current capability.
In the application circuit shown below, a FMMT717 device is
employed as the external pass element. This SOT23 device
can supply up to 2.5A maximum current subject to the
thermal dissipation limits of the package (625mW). Alternative
devices may be used to supply higher levels of current. Note
that with this arrangement, the dropout voltage will be
increased by the VBE drop of the external device. Also, care
should be taken to protect the pass transistor in the event of
excessive output current.
VIN
Q1
FMMT717 VOUT
U1
ZXCL SERIES
C1
1µF
C2
1µF
C3
1µF
R1
5.6R
VIN
EN
VO
GND
Scheme to Boost Output Current to 2A
ZXCL SERIES
Document number: DS33439 Rev. 10 - 3
8 of 13
www.diodes.com
November 2015
© Diodes Incorporated
ZXCL SERIES
Not Recommended for New Design:
USE:
- ZXCLxx0E5TA: AP2121AK-x.xTRG1
- ZXCLxx0H5TA: AP7115-xxSEG-7 or AP2125KS-X.XTRG1
- ZXCL5213VxxH5TA: No Alternative
Application Information (cont.)
Enable Control
A TTL compatible input is provided to allow the regulator to
be shut down. A low voltage on the Enable pin puts the
device into shutdown mode. In this mode the regulator circuit
is switched off and the quiescent current reduces to virtually
zero (typically less than 10nA) for input voltages above the
minimum operating threshold of the device. A high voltage on
the Enable pin ensures normal operation.
The Enable pin can be connected to VIN or driven from an
independent source of up to 10V maximum. (e.g. CMOS
logic) for normal operation. There is no clamp diode from the
Enable pin to VIN, so the VIN pin may be at any voltage within
its operating range irrespective of the voltage on the Enable
pin. However input voltage rise time should be kept below
5ms to ensure consistent start-up response.
Current Limit
The ZXCL devices include a current limit circuit which
restricts the maximum output current flow to typically 230mA.
Practically the range of overcurrent should be considered as
minimum 160mA to maximum 800mA. The device’s robust
design means that an output short circuit to any voltage
between ground and VOUT can be tolerated for an indefinite
period.
Thermal Overload
Thermal overload protection is included on chip. When the
device junction temperature exceeds a minimum 125°C the
device will shut down. The sense circuit will re-activate the
output as the device cools. It will then cycle until the overload
is removed. The thermal overload protection will be activated
when high load currents or high input to output voltage
differentials cause excess dissipation in the device.
Start up delay
A small amount of hysteresis is provided on the Enable pin to
ensure clean switching. This feature can be used to introduce
a start up delay if required. Addition of a simple RC network
on the Enable pin provides this function. The following
diagram illustrates this circuit connection. The equation
provided enables calculation of the delay period.
R
C
VIN VO
EN
Fig. 1 Circuit Connection
VIN
VO
Td
Fig. 2 Start Up Delay (Td)
TVV5.1
ININ
lnRC)NOM(d
Calculation of start up delay as above
ZXCL SERIES
Document number: DS33439 Rev. 10 - 3
9 of 13
www.diodes.com
November 2015
© Diodes Incorporated
ZXCL SERIES
Not Recommended for New Design:
USE:
- ZXCLxx0E5TA: AP2121AK-x.xTRG1
- ZXCLxx0H5TA: AP7115-xxSEG-7 or AP2125KS-X.XTRG1
- ZXCL5213VxxH5TA: No Alternative
Application Information (cont.)
Power Dissipation
The maximum allowable power dissipation of the device for
normal operation (PMAX), is a function of the package junction
to ambient thermal resistance (θJA), maximum junction
temperature (TJMAX), and ambient temperature (TAMB),
according to the expression:
PMAX = (TJMAX – TAMB) / θJA
The maximum output current (IMAX) at a given value of Input
voltage (VIN) and output voltage (VOUT) is then given by:
IMAX = PMAX / (VIN - VOUT)
The value of qja is strongly dependent upon the type of PC
board used. Using the SC70 package it will range from
approximately 280°C/W for a multi-layer board to around
450°C/W for a single sided board. It will range from 180°C/W
to 300°C/W for the SOT25 package. To avoid entering the
thermal shutdown state, Tjmax should be assumed to be
125°C and Imax less than the overcurrent limit, (IOLIM). Power
derating for the SC70 and SOT25 packages is shown in the
following graph.
TEMPERATURE (°C)
Derating Curve
-40 -20 0 20 40 60 80 100
500
300
200
100
0
MAX POWER DISSIPATION (mW)
SOT25
SC70-5/SOT353
Capacitor Selection and Regulator Stability
The device is designed to operate with all types of output
capacitor, including tantalum and low ESR ceramic. For
stability over the full operating range from no load to
maximum load, an output capacitor with a minimum value of
1μF is recommended, although this can be increased without
limit to improve load transient performance. Higher values of
output capacitor will also reduce output noise. Capacitors with
ESR less than 0.5V are recommended for best results.
The dielectric of the ceramic capacitance is an important
consideration for the ZXCL Series operation over
temperature. Zetex recommends minimum dielectric
specification of X7R for the input and output capacitors. For
example a ceramic capacitor with X7R dielectric will lose 20%
of its capacitance over a -40°C to +85°C temperature range,
whereas a capacitor with a Y5V dielectric loses 80% of its
capacitance at -40°C and 75% at +85°C.
An input capacitor of 1µF (ceramic or tantalum) is
recommended to filter supply noise at the device input and
will improve ripple rejection.
The input and output capacitors should be positioned close to
the device, and a ground plane board layout should be used
to minimise the effects of parasitic track resistance.
Dropout Voltage
The output pass transistor is a large PMOS device, which
acts like a resistor when the regulator enters the dropout
region. The dropout voltage is therefore proportional to output
current as shown in the typical characteristics.
Ground Current
The use of a PMOS device ensures a low value of ground
current under all conditions including dropout, start-up and
maximum load.
Power Supply Rejection and Load Transient
Response
Line and Load transient response graphs are shown in the
typical characteristics.
These show both the DC and dynamic shift in the output
voltage with step changes of input voltage and load current,
and how this is affected by the output capacitor.
If improved transient response is required, then an output
capacitor with lower ESR value should be used. Larger
capacitors will reduce over/undershoot, but will increase the
settling time. Best results are obtained using a ground plane
layout to minimise board parasitics.
ZXCL SERIES
Document number: DS33439 Rev. 10 - 3
10 of 13
www.diodes.com
November 2015
© Diodes Incorporated
ZXCL SERIES
Not Recommended for New Design:
USE:
- ZXCLxx0E5TA: AP2121AK-x.xTRG1
- ZXCLxx0H5TA: AP7115-xxSEG-7 or AP2125KS-X.XTRG1
- ZXCL5213VxxH5TA: No Alternative
Ordering Information
ZXCL XXX XX XX
Voltage Package Packing
2.5V: 250
2.6V: 260
2.8V: 280
3.0V: 300
3.3V: 330
4.0V: 400
H5 : SC70-5/SOT353
E5 : SOT25 TA : Tape & Reel
ZXCL5213V XX XX XX
Voltage Package Packing
2.5V: 25
2.6V: 26
2.8V: 28
3.0V: 30
3.3V: 33
4.0V: 40
H5 : SC70-5/SOT353 TA : Tape & Reel
Device
Voltage
Packaging
Packaging
Code
Identification
Code
Status – recommended
alternative
7” Tape & Reel
Quantity
ZXCL250H5TA
2.5
SC70-5/SOT353
H5
L25A
NRND – AP7115-25SEG-7 or
AP2125KS-2.5TRG1
3000
ZXCL260H5TA
2.6
SC70-5/SOT353
H5
L26A
NRND – No Alternative
3000
ZXCL280H5TA
2.8
SC70-5/SOT353
H5
L28A
NRND – AP7115-28SEG-7 or
AP2125KS-2.8TRG1
3000
ZXCL300H5TA
3.0
SC70-5/SOT353
H5
L30A
NRND – AP7115-30SEG-7 or
AP2125KS-3.0TRG1
3000
ZXCL330H5TA
3.3
SC70-5/SOT353
H5
L33A
NRND – AP7115-33SEG-7 or
AP2125KS-3.3TRG1
3000
ZXCL400H5TA
4.0
SC70-5/SOT353
H5
L40C
Obsolete – No Alternative
3000
ZXCL5213V25H5TA
2.5
SC70-5/SOT353
H5
L25C
NRND – No Alternative
3000
ZXCL5213V26H5TA
2.6
SC70-5/SOT353
H5
L26C
NRND – No Alternative
3000
ZXCL5213V28H5TA
2.8
SC70-5/SOT353
H5
L28C
NRND – No Alternative
3000
ZXCL5213V30H5TA
3.0
SC70-5/SOT353
H5
L30C
NRND – No Alternative
3000
ZXCL5213V33H5TA
3.3
SC70-5/SOT353
H5
L33C
NRND – No Alternative
3000
ZXCL5213V40H5TA
4.0
SC70-5/SOT353
H5
L40C
NRND – No Alternative
3000
ZXCL250E5TA
2.5
SOT25
E5
L25B
NRND – AP2121AK-2.5TRG1
3000
ZXCL260E5TA
2.6
SOT25
E5
L26B
NRND – No Alternative
3000
ZXCL280E5TA
2.8
SOT25
E5
L28B
NRND – AP2121AK-2.8TRG1
3000
ZXCL300E5TA
3.0
SOT25
E5
L30B
NRND – AP2121AK-3.0TRG1
3000
ZXCL330E5TA
3.3
SOT25
E5
L33B
NRND – AP2121AK-3.3TRG1
3000
ZXCL400E5TA
4.0
SOT25
E5
L40B
Obsolete – No Alternative
3000
ZXCL SERIES
Document number: DS33439 Rev. 10 - 3
11 of 13
www.diodes.com
November 2015
© Diodes Incorporated
ZXCL SERIES
Not Recommended for New Design:
USE:
- ZXCLxx0E5TA: AP2121AK-x.xTRG1
- ZXCLxx0H5TA: AP7115-xxSEG-7 or AP2125KS-X.XTRG1
- ZXCL5213VxxH5TA: No Alternative
Marking Information
SOT25, SC70-5/SOT353
1 2 3
5 4
( Top View )
XXXX : Identification code
XXXX
Package Outline Dimensions (All Dimensions in mm)
Please see AP02002 at http://www.diodes.com/datasheets/ap02002.pdf for the latest version.
SOT25
SC70-5/SOT353
SOT25
Dim
Min
Max
Typ
A
0.35
0.50
0.38
B
1.50
1.70
1.60
C
2.70
3.00
2.80
D


0.95
H
2.90
3.10
3.00
J
0.013
0.10
0.05
K
1.00
1.30
1.10
L
0.35
0.55
0.40
M
0.10
0.20
0.15
N
0.70
0.80
0.75

0°
8°

All Dimensions in mm
SOT353
Dim
Min
Max
Typ
A
0.10
0.30
0.25
B
1.15
1.35
1.30
C
2.00
2.20
2.10
D
0.65 Typ
F
0.40
0.45
0.425
H
1.80
2.20
2.15
J
0
0.10
0.05
K
0.90
1.00
1.00
L
0.25
0.40
0.30
M
0.10
0.22
0.11
0°
8°
-
All Dimensions in mm
A
M
JL
D
B C
H
KN
A
M
JL
D
B C
H
KN
ZXCL SERIES
Document number: DS33439 Rev. 10 - 3
12 of 13
www.diodes.com
November 2015
© Diodes Incorporated
ZXCL SERIES
Not Recommended for New Design:
USE:
- ZXCLxx0E5TA: AP2121AK-x.xTRG1
- ZXCLxx0H5TA: AP7115-xxSEG-7 or AP2125KS-X.XTRG1
- ZXCL5213VxxH5TA: No Alternative
Suggested Pad Layout
Please see AP02001 at http://www.diodes.com/datasheets/ap02001.pdf for the latest version.
SOT25
SC70-5/SOT353
Dimensions
Value (in mm)
Z
3.20
G
1.60
X
0.55
Y
0.80
C1
2.40
C2
0.95
Dimensions
Value (in mm)
Z
2.5
G
1.3
X
0.42
Y
0.6
C1
1.9
C2
0.65
X
Z
Y
C1
C2C2
G
X
Z
Y
C1
C2C2
G
ZXCL SERIES
Document number: DS33439 Rev. 10 - 3
13 of 13
www.diodes.com
November 2015
© Diodes Incorporated
ZXCL SERIES
Not Recommended for New Design:
USE:
- ZXCLxx0E5TA: AP2121AK-x.xTRG1
- ZXCLxx0H5TA: AP7115-xxSEG-7 or AP2125KS-X.XTRG1
- ZXCL5213VxxH5TA: No Alternative
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INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR
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LIFE SUPPORT
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express written approval of the Chief Executive Officer of Diodes Incorporated. As used herein:
A. Life support devices or systems are devices or systems which:
1. are intended to implant into the body, or
2. support or sustain life and whose failure to perform when properly used in accordance with instructions for use provided in the
labeling can be reasonably expected to result in significant injury to the user.
B. A critical component is any component in a life support device or system whose failure to perform can be reasonably expected to cause
the
failure of the life support device or to affect its safety or effectiveness.
Customers represent that they have all necessary expertise in the safety and regulatory ramifications of their life support devices or systems,
and acknowledge and agree that they are solely responsible for all legal, regulatory and safety-related requirements concerning their products
and any use of Diodes Incorporated products in such safety-critical, life support devices or systems, notwithstanding any devices- or systems-
related information or support that may be provided by Diodes Incorporated. Further, Customers must fully indemnify Diodes Incorporated and
its representatives against any damages arising out of the use of Diodes Incorporated products in such safety-critical, life support devices or
systems.
Copyright © 2015, Diodes Incorporated
www.diodes.com