ZLED7001 [IDT]
Universal LED Driver;
| 型号： | ZLED7001 |
| 厂家： | 
INTEGRATED DEVICE TECHNOLOGY |
| 描述： | Universal LED Driver |
| 文件： | 总14页 (文件大小：304K) |
| 中文： | 中文翻译 | 下载： | 下载PDF数据表文档文件 |
ZLED7001
Universal LED Driver with
Temperature Compensation
Datasheet
Brief Description
ZLED7001 Features
The ZLED7001, one of our ZLED family of LED control
ICs, is a peak current-mode control LED driver IC that is
optimal for buck LED driver applications. The ZLED7001
operates in constant off-time mode. Capable of
operating efficiently with voltage sources ranging from 8
VDC to 450 VDC or rectified 110 VAC/ 220 VAC, it is
ideal for High Brightness (HB) LED applications. The
ZLED7001 provides a PWM input for an external
dimming control signal. The ZLED7001’s linear dimming
input can be used both for linear dimming (0 to 240 mV)
and temperature compensation of the LED current.
• Wide input range from 8 VDC to 450 VDC or
110 VAC/220 VAC
• Temperature compensation to protect the LEDs and
extend LED lifetime
• Operates in constant off-time mode
• Both PWM and linear dimming control signal inputs
available
• Very few external components needed for operation
• Broad range of applications: outputs greater than 1A
Because the ZLED7001’s response time is limited only
by the rate of change in the inductor current, it attains a
high performance pulse-width modulation (PWM) dim-
ming response. The ZLED7001 ensures proper output
current regulation, without loop compensation, via peak
current-mode operation.
Application Examples
• Line-powered replacement LED lighting
• Illuminated LED signs and other displays
• LED street and traffic lighting
• Constant-current source for general purposes
• Architecture / building LED lighting
• LED backlighting
• Line powered LED flood lighting
• Interior / exterior LED lighting
ZLED7001 Application Circuit
8 to 450 VDC
VS
R2
NTC
n LED
RIN
CLED
D1
8
L1
1
VIN
VREF
ZLED7001
CIN
R1
Q1
3
2
5
6
LD
PWMD
TOFF GND
GATE
C1
CS
7
4
RCS
COFF
© 2016 Integrated Device Technology, Inc.
1
April 20, 2016
ZLED7001
Universal LED Driver with
Temperature Compensation
Datasheet
ZLED7001 Block Diagram
8 to 450 VDC
VS
TOFF
7
ZLED7001
COFF
RIN
Voltage
Regulator
8
Timing
Circuit
vdda
VIN
vddd
7.1V Clamp
1
R2
NTC
Bandgap
n LED
CIN
D1
CLED
VREF
R
R
0.24V
0.05V
L1
R1
C1
+
CMP1
R
Blanking
480ns
–
S
R
Q1
5
3
Driver
RS
–
GATE
LD
Q
CMP2
+
6
+
CMP3
CS
POR
UVLO
RCS
vdda
0.24V
–
REN
2
PWMD
4
GND
SOP-8 Package Dimensions (mm, except θ)
A
A1
A2
b
1.550 ± 0.200
0.175 ± 0.075
1.450 Typical
0.420 ± 0.070
0.214 ± 0.036
4.900 ± 0.100
E
E1
e
3.900 ± 0.100
6.020 ± 0.220
1.270 Typical
0.835 ± 0.435
4° ± 4°
L
c
θ
D
Ordering Information
Sales Code
Description
Package
SOP8 (Tape & Reel)
Kit
ZLED7001 – Universal LED Driver with Temperature Compensation
ZLED7001ZI1R
ZLED7001Kit-E1
ZLED-PCB1
ZLED7001 Evaluation Board up to 24VAC / 40VDC, including 1 ZLED-PCB1
Test PCB with one 3W white HB-LED, cascadable to one multiple LED string
Printed Circuit Board
Printed Circuit Board
10 unpopulated test PCBs for modular LED string with footprints of 9 common HB-LED types
ZLED-PCB2
Corporate Headquarters
6024 Silver Creek Valley Road
San Jose, CA 95138
Sales
Tech Support
www.IDT.com/go/support
1-800-345-7015 or 408-284-8200
Fax: 408-284-2775
www.IDT.com/go/sales
www.IDT.com
DISCLAIMER Integrated Device Technology, Inc. (IDT) reserves the right to modify the products and/or specifications described herein at any time, without notice, at IDT's sole discretion. Performance
specifications and operating parameters of the described products are determined in an independent state and are not guaranteed to perform the same way when installed in customer products. The
information contained herein is provided without representation or warranty of any kind, whether express or implied, including, but not limited to, the suitability of IDT's products for any particular purpose, an
implied warranty of merchantability, or non-infringement of the intellectual property rights of others. This document is presented only as a guide and does not convey any license under intellectual property
rights of IDT or any third parties.
IDT's products are not intended for use in applications involving extreme environmental conditions or in life support systems or similar devices where the failure or malfunction of an IDT product can be
reasonably expected to significantly affect the health or safety of users. Anyone using an IDT product in such a manner does so at their own risk, absent an express, written agreement by IDT.
Integrated Device Technology, IDT and the IDT logo are trademarks or registered trademarks of IDT and its subsidiaries in the United States and other countries. Other trademarks used herein are the
property of IDT or their respective third party owners. For datasheet type definitions and a glossary of common terms, visit www.idt.com/go/glossary. All contents of this document are copyright of Integrated
Device Technology, Inc. All rights reserved.
© 2016 Integrated Device Technology, Inc.
2
April 20, 2016
ZLED7001 Datasheet
Contents
1
IC Characteristics.......................................................................................................................................................... 4
1.1.
Absolute Maximum Ratings ................................................................................................................................... 4
Operating Conditions............................................................................................................................................. 4
Electrical Parameters............................................................................................................................................. 4
1.2.
1.3.
2
Circuit Description......................................................................................................................................................... 6
2.1.
ZLED7001 Block Diagram ..................................................................................................................................... 6
Application Signal Flow.......................................................................................................................................... 6
Input Voltage Regulator......................................................................................................................................... 7
Current Sensing..................................................................................................................................................... 8
Timing Circuit......................................................................................................................................................... 8
PWM Dimming Application Circuit ......................................................................................................................... 8
Linear Dimming Application Circuit........................................................................................................................ 8
Temperature Compensation .................................................................................................................................. 9
Design Example..................................................................................................................................................... 9
2.2.
2.3.
2.4.
2.5.
2.6.
2.7.
2.8.
2.9.
3
4
5
6
ESD/Latch-Up-Protection............................................................................................................................................ 11
Pin Configuration and Package................................................................................................................................... 12
Ordering Information ................................................................................................................................................... 13
Document Revision History......................................................................................................................................... 14
List of Figures
Figure 2.1
Figure 4.1
Figure 4.2
Input Current .................................................................................................................................................. 7
Pin Configuration ZLED7001........................................................................................................................ 12
Package Drawing SOP-8.............................................................................................................................. 13
List of Tables
Table 1.1
Table 1.2
Table 1.3
Table 4.1
Table 4.2
Absolute Maximum Ratings............................................................................................................................ 4
Operating Conditions...................................................................................................................................... 4
Electrical Conditions....................................................................................................................................... 4
Pin Description SOP-8.................................................................................................................................. 12
Package Dimensions SOP-8........................................................................................................................ 13
© 2016 Integrated Device Technology, Inc.
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April 20, 2016
ZLED7001 Datasheet
1
IC Characteristics
1.1. Absolute Maximum Ratings
Table 1.1
No.
Absolute Maximum Ratings
PARAMETER SYMBOL
Input voltage
Voltage to GND at pin CS,
CONDITIONS
MIN
-0.3
-0.3
TYP
MAX
UNIT
V
1.1.1
VIN
8
6
1.1.2
V
CS, VLD,
V
LD, PWMD, GATE, TOFF
VREF
,
VPWMD,
VGATE, VTOFF
VVREF
,
1.1.3
1.1.4
1.1.5
Input current VIN pin 1
Junction temperature
Storage temperature
IVIN
Tj MAX
TST
1
10
mA
°C
150
150
-55
°C
1.2. Operating Conditions
Table 1.2
No.
Operating Conditions
PARAMETER
SYMBOL
TOP
CONDITIONS
MIN
-40
8
TYP
MAX
+85
450
UNIT
°C
1.2.1
Operating temperature
Input DC supply voltage
1.2.2
VINDC
Resistor RIN required
between DC supply
V
voltage and VIN pin with
resistance determined by
equation (2) and with
proper voltage rating. 2
1.3. Electrical Parameters
Production testing of the chip is performed at 25°C. Functional operation of the chip and specified parameters at
other temperatures are guaranteed by design, characterization, and process control.
Test conditions: VIN = 12V; Tamb = 25°C; RIN=2kΩ; unless otherwise noted.
Table 1.3
No.
Electrical Conditions
PARAMETER
SYMBOL
CONDITIONS
MIN
TYP
MAX
UNIT
1.3.1
VIN clamp voltage
VINCL
Always higher than under
voltage lockout threshold
6.6
7.1
7.6
V
1.3.2
1.3.3
Operation current
IIN
VIN= 6V, GATE floating
VIN rising
0.33
6.1
0.5
6.5
0.64
6.8
mA
V
Under voltage lockout
threshold
VULO
1.3.4
1.3.5
Under voltage lockout
hysteresis
ΔVULO
VIN falling
500
mV
V
PWMD pin input low
voltage
VENL
1.2
1 Beyond the input current range, VIN might not clamp at 7.1V
2 This parameter limit is guaranteed by design, characterization, and application check. See equation (2) on page 8
© 2016 Integrated Device Technology, Inc.
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April 20, 2016
ZLED7001 Datasheet
No.
PARAMETER
SYMBOL
CONDITIONS
MIN
TYP
MAX
UNIT
1.3.6
PWMD pin input high
voltage
VENH
2
V
1.3.7
1.3.8
1.3.9
PWMD pin pull-up
resistance
REN
VCSTH
VLDL
100
240
50
kΩ
mV
mV
mV
ns
Current sense threshold
voltage
215
400
265
LD pin voltage low
threshold
1.3.10 LD pin voltage high
threshold
VLDH
240
480
30
1.3.11 Current sense blanking
interval
TBLANK
tDELAY
550
550
1.3.12 Output delay
VCS = VCSTH + 50mV, after
TBLANK
ns
1.3.13 OFF time
TOFF
tRISE
TOFF pin floating
CGATE = 500pF
CGATE = 500pF
480
510
19
ns
ns
1.3.14 GATE output rise time
1.3.15 GATE output fall time
1.3.16 REF pin voltage
1.3.17 REF pin load current
tFALL
29
ns
VREF
1.12
1.20
1.30
0.5
5
V
IREF
mA
mV
1.3.18 Load regulation of
reference voltage
VREFLOAD
IREF = 0 to 500µA, PWMD
= 5.0V
0.5
© 2016 Integrated Device Technology, Inc.
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April 20, 2016
ZLED7001 Datasheet
2
Circuit Description
The ZLED7001 is a peak current-mode-control LED driver IC that operates in constant off-time mode, enabling
proper LED current control without additional loop compensation or high-side current sensing. The ZLED7001
supports both linear and PWM control of the LED current. Only a few external components are needed for typical
applications. It is well-suited for buck LED driver applications.
2.1. ZLED7001 Block Diagram
8 to 450 VDC
VS
TOFF
7
ZLED7001
COFF
RIN
Voltage
Regulator
8
Timing
Circuit
vdda
VIN
vddd
7.1V Clamp
1
R2
NTC
Bandgap
n LED
CIN
D1
CLED
VREF
R
R
0.24V
0.05V
L1
R1
C1
+
CMP1
R
Blanking
480ns
–
S
R
Q1
5
3
Driver
RS
–
GATE
LD
Q
CMP2
+
6
+
CMP3
CS
POR
UVLO
RCS
vdda
0.24V
–
REN
2
PWMD
4
GND
2.2. Application Signal Flow
A capacitor between the TOFF pin and ground determines the internal timer’s off-time. The timer pulses set flip-flop
in the ZLED7001, turning on the GATE pin driver, which is connected to the Q1 external MOSFET. When Q1
turns on, a ramp current flows through the LED(s), the L1 external inductor, and the external sense resistor RCS.
This results in a ramp voltage applied at the CS pin, which the ZLED7001’s two internal comparators continually
compare to the voltage at its LD pin and its internal 240mV reference. If either comparator goes high and the
blanking time is expired (see Table 1.3), the flip-flop is reset, causing the GATE pin output to go low, shutting off
the current through the LED(s).
The peak current control scheme with constant off-time can easily operate at duty cycles higher than 0.5 and also
gives inherent input voltage rejection, making the LED current almost insensitive to input voltage variations.
© 2016 Integrated Device Technology, Inc.
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ZLED7001 Datasheet
2.3. Input Voltage Regulator
The value and rating of the RIN input resistor must be selected as needed to drop the application supply voltage
(Vs) to the proper operating voltage for the ZLED7001 specified in section 0 (see equation (2) below). When these
conditions are met, the ZLED7001’s internal input voltage regulator maintains a stable 7.1V (typical) at the VIN pin
to power the ZLED7001. A low-equivalent-series-resistance (ESR) bypass capacitor is required on the VIN pin to
provide a low-impedance path for the GATE pin output driver’s high frequency current.
The VIN pin draws an input current that is the sum of the 0.5mA (typical) required by the internal circuit and the
average current drawn by the GATE driver. The GATE driver current is primarily determined by the GATE charge
(QG) and switching frequency (fs) of the external MOSFET as shown in equation (1).
IIN ≈ 0.5mA +
(
QG ∗ fS
)
(1)
Where
fS
= Switching frequency
QG = External MOSFET gate charge (refer to the MOSFET data sheet)
The input resistor RIN value is given by equation (2).
VINDC −VIN
(2)
RIN
=
IIN
For two typical MOSFET types, the following IIN diagram will result:
Figure 2.1 Input Current
© 2016 Integrated Device Technology, Inc.
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ZLED7001 Datasheet
2.4. Current Sensing
Assuming a 30% current ripple in the inductor, the sense resistor RCS can be calculated as shown in equation (3):
VCSTH
RCS
=
(3)
1.15∗ILED
Where
VCSTH = 240mV (typical)
The current sense input of the ZLED7001 is connected to the non-inverting inputs of two comparators. The
inverting terminal of one comparator is tied to an internal 240mV reference and the inverting terminal of the other
comparator is connected to the LD pin. The outputs of both comparators are fed into an OR gate, and the output
of the OR gate is connected to the reset pin of the flip-flop. Thus, the comparator that has the lower voltage at the
inverting input determines when the GATE output is turned off.
The comparator outputs also include a typical 480ns blanking time that prevents spurious turn-offs of the external
MOSFET due to the turn-on spike normally present as a result of transistor gate-source capacitance. In rare
cases, this internal blanking time might not be enough to filter out the turn-on spike. If so, an external RC filter
must be added between the external sense resistor (RCS) and the CS pin.
Note that the comparators are relatively fast: 80ns typical response time. Invalid triggering by these comparators
could result if the layout fails to minimize external inductances.
2.5. Timing Circuit
The timing circuit in the ZLED7001 is controlled by a single capacitor connected from TOFF to ground.
T
OFF, the time of the cycle period, is given by equation (4):
COFF
(4)
TOFF _TIME = 510ns ∗ 1 +
10 pF
2.6. PWM Dimming Application Circuit
For PWM dimming applications, the ZLED7001’s PWMD pin is driven with a low-frequency square-wave control
signal. The GATE pin’s driver is enabled when the control signal is high and disabled when the control signal is
low. The LED current’s rise and fall rate is controlled only by the inductance value, the supply voltage, and LED
forward voltage.
If the PWMD pin is allowed to float, the PWM dimming function is disabled.
2.7. Linear Dimming Application Circuit
For linear dimming applications, an external voltage ranging from 50mV (typical) to 240mV (typical) is applied to
the LD (linear dimming) pin to control the LED current during operation. Linear dimming can be used to adjust the
LED current level to reduce the LED’s brightness. In this case, connect a resistor between the VREF pin and the
LD pin and connect a negative-temperature-coefficient (NTC) thermistor between the LD pin and ground. The
ZLED7001 can also provide temperature compensation, (see the application circuit on page 1 and section 2.8).
© 2016 Integrated Device Technology, Inc.
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April 20, 2016
ZLED7001 Datasheet
A group of modules based on the ZLED7001 can be matched in LED brightness using the linear dimming input
with the PWM dimming feature still available for overall brightness control.
If the LD pin is not used, it must be connected to the PWMD pin, which is internally pulled-up. When the LD pin
voltage drops below 50mV, the GATE output is switched off.
2.8. Temperature Compensation
ZLED7001 provides thermal protection for the connected LEDs. Applying an NTC thermistor close to the LED
string will enable the temperature compensation of the LED current. Refer to the application circuit on page 1. If
the temperature of the LEDs rises, the resistance of the NTC thermistor decreases until the voltage of the LD pin
falls below 240mV. Then the average current is controlled by the LD pin and the temperature compensation
function starts. The upper threshold to start compensation is given by equation (5):
RNTC
(5)
VLDH =~ 240mV =VREF
∗
RNTC + R1
Considering the limit for IREF, under all conditions R1 must be selected larger than 2.2kΩ. Assuming a 30%
inductor current ripple, the temperature compensated continuous current can be computed as shown in
equation (6):
VREF
RNTC
(6)
∗
IOUT
=
1.15 ∗ RS
RNTC + R1
When the LD pin voltage drops below 50mV (typical), the GATE output is switched off. The transition to dimming
as well as the switch-off is reversible as soon as the respective thresholds are exceeded after the LED assembly
cools. Adding a capacitor C1 from the LD pin to ground will reduce noise on the LD input.
2.9. Design Example
A common application for an AC-line-powered ZLED7001 is luminants with a string of several LEDs operated by
one driver. For the example, the following constraints are assumed:
Application:
15W LED luminant with 13 HB LEDs in 1 string
VINAC = 230 VAC
AC supply voltage:
Average DC supply voltage:
VINDC ≈ 280 VDC resulting after bridge rectification and filtering with a 10μF
capacitor; power factor correction is not considered.
LED string forward voltage:
LED string average current:
ΣVF = 13*3.3V ≈ 43V
ILED = 350mA
IC Input Resistor (RIN) and Hold Capacitor (CIN):
For a given 2N60 MOSFET and a maximum expected switching frequency of 100kHz, the IC input current will be
IIN ≈ 0.5mA +
(
QG ⋅fS = 0.5mA + (9nC ⋅100kHz) = 1.4mA
)
© 2016 Integrated Device Technology, Inc.
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April 20, 2016
ZLED7001 Datasheet
Resulting in a supply resistor of
VINDC −VIN 280V − 7V
RIN
=
=
≈ 195kΩ
IIN
1.4mA
An 180kΩ type can be chosen with a power rating of ≥0.5W. CIN is chosen to be a 10μF/ ≥10V capacitor.
TOFF Time Capacitor (COFF
)
The selection of the operation frequency is based on a tradeoff between higher frequencies allowing for smaller
and less expensive inductors and lower frequencies incurring lower losses in the power switch.
An estimation of the duty cycle D is based on the ratio of output voltage over input voltage:
TON _TIME
TON _TIME +TOFF _TIME VINDC 280V
A timing capacitor of 220pF yields
ΣVF
43V
D =
≈
=
≈ 0.15
COFF
220pF
10pF
TOFF _TIME = 0.51
µ
s ⋅1+
= 0.51
µ
s ⋅1+
= 11.7
µs
10pF
Resulting in an operation frequency of
1− D 1− 0.15
TOFF _TIME 11.7µs
fO =
=
≈ 72kHz
Inductor (L1)
The inductance L1 is determined by the LED string’s forward voltage, the off-time, and the acceptable current
ripple. Assuming a ripple of 30% of the average current yields
ΣVF ⋅TOFF _TIME
43V ⋅11.7µs
30% ⋅ 350mA
L =
=
≈ 4.8mH
IRipple
Lower ripple at the same average current will increase the lifetime of the LEDs but requires a more expensive
higher value inductor and increased thermal losses since the inductor’s DC resistance will increase as well. The
DC resistance of the inductor is an important design parameter, too. A capacitor placed in parallel with the array
of LEDs can be used to reduce the LED current ripple while keeping the same average current.
The inductor chosen must have a saturation current higher than the peak output current and a continuous current
rating above the required mean output current. The circuit design must also consider the decrease of inductance
and saturation current with rising temperature.
Current Sense Resistor (RCS)
With peak current-mode control, the output is switched off when the LED current reaches its maximum value
summing up the average LED current and half of the defined current ripple, yielding for the given example
IRipple
30%⋅350mA
IO _PEAK = ILED(AVG)
+
= 350mA +
= 402.5mA
2
2
© 2016 Integrated Device Technology, Inc.
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April 20, 2016
ZLED7001 Datasheet
The current sense resistor can now be calculated from the internal comparator threshold VCSTH and the peak
current as
VCSTH
240mV
RCS
=
=
= 0.596Ω
IO _PEAK 402.5mA
This value can be built by a 0.68Ω in parallel with a 4.7Ω type.
MOSFET (Q1) and Diode (D1)
The MOSFET and diode must be dimensioned with a minimum 50% safety rating of their relevant voltage and
current parameters. Thus a FET with minimum 500V drain-source breakdown voltage and 0.6A drain current as
well as a fast recovery diode with at least 500V reverse voltage and a 0.6A forward current may be selected.
3
ESD/Latch-Up-Protection
All pins have an ESD protection of >± 2000V according human body model (HBM). The ESD test follows the
Human Body Model with 1.5 kΩ/100 pF based on MIL 883-G, Method 3015.7
Latch-up protection of >± 100mA has been proven based on JEDEC No. 78A Feb. 2006, temperature class 1.
© 2016 Integrated Device Technology, Inc.
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April 20, 2016
ZLED7001 Datasheet
4
Pin Configuration and Package
Figure 4.1
Pin Configuration ZLED7001
VREF
VIN
PWMD
LD
TOFF
CS
GND
GATE
Table 4.1
Pin Description SOP-8
Pin Name NO.
Description
1.2V reference voltage. No bypass capacitor needed.
VREF
1
2
PWM dimming input. The gate driver operates normally if PWMD is pulled high. The gate driver is turned
off if PWMD is pulled to GND or open.
PWMD
Linear dimming input. If the voltage at LD is < 240mV (typical), LD controls the current sense threshold.
Can also be used as temperature compensation threshold voltage.
LD
3
GND
4
5
Internal circuit ground reference. Electrical connection to ground is required.
Output for external N-channel power MOSFET gate driver.
GATE
Current sense pin that senses the Q1 MOSFET drain current through external resistor RCS. The GATE
output goes low if the voltage at CS > the voltage at the LD pin or the internal 240mV.
CS
TOFF
VIN
6
7
8
Sets the off-time of the power MOSFET. If left floating, off-time will be 510ns. For increased off-time, a
capacitor must be connected between TOFF and GND.
Supply input of 8V to 450V through a resistor, clamped at 7.1V internally. Low-ESR bypass capacitor to
GND is required.
© 2016 Integrated Device Technology, Inc.
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April 20, 2016
ZLED7001 Datasheet
Figure 4.2
Package Drawing SOP-8
Table 4.2
Package Dimensions SOP-8
Dimension (mm)
Dimension (mm, except θ)
Symbol
Symbol
Min
Max
1.750
0.250
Min
Max
4.000
6.240
A
A1
A2
b
1.350
E
E1
e
3.800
5.800
0.100
1.450 Typical
0.350
1.270 Typical
0.490
0.250
5.000
L
0.400
0°
1.270
8°
c
0.178
θ
D
4.800
The SOP-8 package has a thermal resistance (junction to ambient) of RθJA = 80 K/W.
5
Ordering Information
Product Sales Code Description
Package
SOP8 (Tape & Reel)
ZLED7001 Evaluation Board up to 24VAC / 40VDC, including 1 ZLED-PCB1 Kit
ZLED7001ZI1R
ZLED7001Kit-E1
ZLED-PCB1
ZLED7001 – Universal LED Driver with Temperature Compensation
Test PCB with one 3W white HB-LED, cascadable to one multiple LED string Printed Circuit Board
ZLED-PCB2
10 unpopulated test PCBs for modular LED string with footprints of 9 common Printed Circuit Board
HB-LED types
© 2016 Integrated Device Technology, Inc.
13
April 20, 2016
ZLED7001 Datasheet
6
Document Revision History
Revision
1.0
Date
Description
June 2, 2010
August 12, 2010
Production release version
1.1
Removed references to thermal shutdown protection in “Features” section and in
section 2.9. Updated contact information
Updated block diagram connection for correct PWMD internal connection.
April 20, 2016
Changed to IDT branding.
Corporate Headquarters
Sales
Tech Support
www.IDT.com/go/support
6024 Silver Creek Valley Road
San Jose, CA 95138
www.IDT.com
1-800-345-7015 or 408-284-8200
Fax: 408-284-2775
www.IDT.com/go/sales
DISCLAIMER Integrated Device Technology, Inc. (IDT) reserves the right to modify the products and/or specifications described herein at any time, without notice, at IDT's sole discretion. Performance
specifications and operating parameters of the described products are determined in an independent state and are not guaranteed to perform the same way when installed in customer products. The
information contained herein is provided without representation or warranty of any kind, whether express or implied, including, but not limited to, the suitability of IDT's products for any particular purpose, an
implied warranty of merchantability, or non-infringement of the intellectual property rights of others. This document is presented only as a guide and does not convey any license under intellectual property
rights of IDT or any third parties.
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© 2016 Integrated Device Technology, Inc.
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