Intersil ISL71026MEVAL1Z User manual

User’s Manual
Rev 0.00 May 2017
ISL71026MEVAL1Z
User’s Manual: Evaluation Board
High Reliability Space

UG121 Rev.0.00 Page 1 of 20
May 3, 2017
UG121
Rev.0.00
May 3, 2017
ISL71026MEVAL1Z
Evaluation Board User Guide
1. Overview
The ISL71026M is a 3.3V CAN transceiver that is compatible with the ISO11898-2 standard for use in Controller Area
Network (CAN) serial communication systems. The transceiver performs transmit and receive functions between the
CAN controller and the CAN differential bus. It can transmit and receive at bus speeds of up to 1Mbps. It was
specifically designed to operate in harsh environments such as space.
The ISL71026MEVAL1Z board was designed to provide a quick and easy method for evaluating the ISL71026M 3.3V
CAN transceiver. This device is a unique IC. Using this evaluation board properly requires a thorough knowledge of
the operation of the IC. Refer to the ISL71026M datasheet for an understanding of the functions and features of the
device.
A picture of the ISL71026MEVAL1Z evaluation board is shown in Figure 5.1 on page 11. The ISL71026MVZ 14 Ld
TSSOP IC is soldered onto the evaluation board. It is located in the upper center of the board and is designated as U1.
The transceiver performs transmit and receive functions between the CAN controller and the CAN differential bus. It
can transmit and receive at bus speeds of up to 1Mbps. It is designed to operate over a common-mode range of -7V to
+12V with a maximum of 120 nodes. The device is capable of withstanding ±20V on the CANH and CANL bus pins.
The part has various configurations of operation. The evaluation board contains standard jumpers, BNC connector,
banana connectors, cable connector, and load resistors to allow the user to easily interface with the IC to evaluate its
functions, features, and performance.
This user guide will guide the user through the process of configuring and using the evaluation board to evaluate the
ISL71026M device.
Figure 1.1 shows the block diagram/pin-out for the part.
1.1 Ordering Information
1.2 Key Features
• D-SUB 9-pin male connector for connection to another CAN evaluation board.
• 60Ω resistor across the differential signal lines to evaluate propagation delay, rise/fall time, and skew parameters.
• Convenient test points and connections for test equipment.
• Jumpers to select between the three rise/fall settings or tie RS high to enter low power listen state.
• Banana jacks for power, ground, and voltage common-mode (VCM) connections.
1.3 Related Literature
• For a full list of related documents, visit our website
•ISL71026M product page
Part Number Description
ISL71026MEVAL1Z ISL71026M Evaluation Board

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ISL71026MEVAL1Z 1. Overview
1.4 Specifications
The evaluation board has been configured and optimized for the following conditions:
•V
CC = 3V to 3.6V
• Data rate: ≤1Mbps
• CAN bus termination resistance of 60Ω across the CANH and CANL differential signal lines
• Board temperature: +25°C
Figure 1.1 ISL71026MEVAL1Z Block Diagram
1
2
3
4
8
7
6
5
RS
CANH
CANL
LBK
D
GND
VCC
R
Tx DATA IN
Rx DATA OUT
CANH
CANL
ISL71026M
0.1µF
VCC
µController

UG121 Rev.0.00 Page 3 of 20
May 3, 2017
ISL71026MEVAL1Z 2. Functional Description
2. Functional Description
The ISL71026MEVAL1Z evaluation board provides easy access to the pins of the ISL71026M IC and convenient
connectors/test points for connecting test equipment. The schematic, bill of materials, and top silkscreen for the board
are available in “PCB Layout Guidelines” on page 11.
“Typical Performance Curves” on page 15 shows performance data taken using the ISL71026MEVAL1Z evaluation
board and basic lab equipment.
In the following sections, we will discuss using the evaluation board.
2.1 Basic Layout of Evaluation Board
The basic layout of the evaluation board is described in the following sections. For more information, see “Board
Layout” on page 14 or the actual ISL71026MEVAL1Z evaluation board.
Located in the upper center of the board is the IS71026MVZ transceiver IC (U1). The evaluation board has a pin 1
dot, to show how the IC should be oriented onto the evaluation board. The IC pin 1 indicator dot needs to be
aligned with the evaluation board pin 1 dot indicator. The board comes with the IC soldered onto the board.
Power for the IC is located at the left side of the board through banana jacks labeled VCC and GND. A DC voltage
source of 3.3V must be connected between VCC and GND to power the part. Test points TP13 (VCC) and TP2
(GND) are available to measure the VCC voltage to the part.
Access to the D input to the transceiver is at the BNC connector labeled D at the upper right corner of the
evaluation board. You would connect the digital source of the CAN digital test pattern at this connector.
Access to the R output of the transceiver is at the test point labeled TP4 located at the top center of the evaluation
board. There is a through hole labeled R that could have a wire soldered to it, if you want to feed the digital output
into a CAN controller board.
Control of the RS pin is through jumpers J5, J6, J7, and J8 located at middle left side of the evaluation board. Only
one of these jumper locations should have a jumper installed at any one time. Putting the jumper at J5 will put the
transceiver in the listen mode. Putting the jumper at J6 will put the transceiver driver in the slow speed mode, at J7
in the medium speed mode, and at J8 in the fast speed mode. Note: J4 and R3 are not populated. They can be used
to put a mechanical potentiometer at the RS pin.
Access to the differential pins (CANH and CANL) are through the test points TP7 and TP8 or through the BNC
connectors labeled CANH and CANL (not populated) or through the D-SUB 9 pin male connector J1, located at
the bottom of the board. Use the J1 connector to connect two evaluation boards together for evaluating the
performance of two boards communicating with each other over various length cables. The CANH and CANL
BNCs can be used to apply voltages to the differential pins to evaluate the receiver of the transceiver.
The board comes populated with a 60Ω resistor (R9) installed across the CANH and CANL lines. Many
performance tests for the transceiver such as propagation delay, rise time, fall time, and skew are done with a 60Ω
resistor. In a normal CAN system the bus is terminated at both ends with a 120Ω resistor, which gives a differential
loading of 60Ω.
See the board schematic (“Schematic” on page 12) for the reference designators of the jumpers, resistors and
connectors associated with each I/O.
2.2 Power Supply
The ISL71026M IC requires a DC power supply in the range of 3.0V to 3.6V for proper operation.
The power supply is connected at banana jacks VCC and GND. The power supply should be capable of delivering
100mA of current.
2.3 Evaluation Board Logic Control
The ISL71026M IC has three logic control input pins; the D (pin 1), RS (pin 8), and LBK (pin 5).

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ISL71026MEVAL1Z 2. Functional Description
2.3.1 D Pin
The D pin is the digital input to the driver of the transceiver. A digital bit pattern is applied at this pin. A logic 1
on the D pin puts the CANH and CANL differential pins in the recessive state. A logic 0 on the D pin, puts the
CANH and CANL differential pins in the dominant state.
The logic 1 VIH level is from 2.0V to 5.5V with a VCC supply voltage of 3.0V to 3.6V. The logic 0 VIL level is
from 0.8V to 0V.
2.3.2 RS Pin
The output driver has three distinct speed selections that may be chosen by using a resistor from the RS pin to
GND. Connecting the RS pin directly to GND (Jumper at J6) results in output switching times that are the
fastest, limited only by the drive capability of the output stage. RS = 10kΩ (Jumper at J7) provides for a typical
slew rate of 8V/µs and RS = 50kΩ (Jumpter at J8) provides for a typical slew rate of 4V/µs.
Putting a high logic level to the RS pin (Jumper at J5) places the transceiver in a low current listen mode.
2.3.3 LBK Pin
When a high level is applied to the LBK pin, the device enters the loop-back state. The transceiver CANH and
CANL pins are disconnected from the bus. The driver and receiver circuitry of the transceiver remains active to
allow for diagnostic testing of the node. Installing a jumper at position 1 to 2 on jumper J9 of the evaluation
board will connect the LBK pin to VCC putting the part in loop-back state. Removing the jumper will put the
part back into normal operation. LBK pin of the transceiver has an internal pull-down.
2.4 Test Points
The board has various test points for ease of connecting probes to make measurements. The test points available are
described in Table 2.1.
Table 2.1 Test Points
Designator Description
TP1 Ground test point
TP2 Ground test point
TP3 D input test point
TP4 R output test point
TP5 LBK pin test point
TP6 RS pin test point
TP7 CANH pin test point
TP8 CANL pin test point
TP9 Ground test point
TP10 Not populated - VCM test point
TP11 Ground test point
TP12 Not populated - R output test point
TP13 VCC test point

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ISL71026MEVAL1Z 2. Functional Description
2.5 Board Component Definitions
Designator Description
U1 ISL71026M TSSOP IC
VCC VCC power supply connection (nominal 3.3VDC)
GND Ground connection
J1 9-pin male D-SUB connector (used to connect to another CAN evaluation board)
J4 Not populated - jumper on RS pin to connect mechanical potentiometer
J5 Jumper on the RS pin to connect it to VCC (a jumper installed at this location will put the transceiver in listen
mode).
J6 Jumper on the RS pin to connect the RS pin to ground through a 50kΩ resistor (jumper installed at this location will
put the transceiver in slow speed mode).
J7 Jumper on the RS pin to connect the RS pin to ground through a 10kΩ resistor (jumper installed at this location will
put the transceiver in medium speed mode).
J8 Jumper on the RS pin to connect the RS pin to ground (jumper installed at this location will put the transceiver in
high speed mode).
J9 Three pin jumper on the LBK pin. Install jumper in upper position (1 to 2) to connect the LBK pin to VCC to put the
part in loop-back mode. Remove jumper or put the jumper in the lower position (2 to 3) to connect LBK pin to
ground for normal operation.
J10 Jumper, location is not populated. It needs to be populated if you are going to use the BNC connector labeled
CANH.
J11 Jumper, location is not populated. It needs to be populated if you are going to use the BNC connector labeled
CANL.
D BNC connector. Provides access to the D pin of the transceiver.
CANH BNC connector, location is not populated. Provides access to the CANH pin for special receiver testing and fault
testing.
CANL BNC connector, location is not populated. Provides access to the CANL pin for special receiver testing and fault
testing.
VCM Banana jack for testing with various common mode voltages (-7V to +12V). For CM testing, R12 and R13 should
be populated with 330Ω resistors and TP10 populated to measure VCM voltage.

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ISL71026MEVAL1Z 2. Functional Description
Figure 2.1 Basic Evaluation Test Setup Block Diagram (Measuring Propagation Delay, Skew,
and Rise/Fall Time)
+3.3V
DC POWER SUPPLY
ISL71026MEVAL1Z
VCC GND
-
+
J5
J7
J8
J6
R8
R7
R6
R9
TP7
TP8
TP3
TP4
R1
TP5
TP6
R10
R11
D
CANH
CANL
R
RS
LOOP
VCM
TP9
GND
TP11
GND
TP2
GND
GND
TP1
J1
TP13
C2
U1
0V to 3.3V
FUNCTION
GENERATOR
125kHz SQUARE WAVE
CH1 CH2 CH3 CH4
OSCILLOSCOPE
TP3 TP7 TP8 TP4
CONNECT PROBES AT THE FOLLOWING
D CANH CANL R
50Ω
TEST POINTS ON THE EVALUATION
BOARD

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ISL71026MEVAL1Z 3. Using the Board to Measure Propagation Delay, Skew, and Rise/Fall Time
3. Using the Board to Measure Propagation Delay, Skew, and
Rise/Fall Time
Refer to Figure 2.1 on page 6.
3.1 Lab Equipment
The equipment, external supplies, and signal sources needed to operate the board:
• 3.3V DC power supply
• Function/signal generator (HP 8112A pulse generator or equivalent)
• Four channel oscilloscope (Tektronix TDS5140 digital oscilloscope or equivalent)
3.2 Initial Board Setup Procedure
(1) Attach the main evaluation board to the DC power supply to the banana jacks labeled VCC and GND as
shown in Figure 2.1 on page 6. Positive terminal at VCC and negative terminal at GND. The supply should be
capable of delivering 3.0V to 3.6V and 100mA of current. Set the supply voltage to 3.3V.
(2) Configure the board for high speed mode by installing a jumper at J8. No jumpers should be installed at J5, J6,
J7, and J9.
(3) Connect the oscilloscope to the evaluation board as indicated in Figure 2.1 on page 6.
(a) Connect the Channel 1 probe to the D pin by connecting the oscilloscope probe at TP3 on the evaluation
board and the probe ground at TP1.
(b) Connect the Channel 2 probe to the CANH differential pin by connecting the oscilloscope probe at TP7 on
the evaluation board and the probe ground at TP9.
(c) Connect the Channel 3 probe to the CANL differential pin by connecting the oscilloscope probe at TP8 on
the evaluation board and the probe ground at TP11.
(d) Connect the Channel 4 probe to the R pin by connecting the oscilloscope probe at TP4 on the evaluation
board and the probe ground at TP2.
(4) Connect the function/signal generator at the BNC connector labeled D on the evaluation board as shown in
Figure 2.1 on page 6. Set the generator to output a 125kHz square wave, 0V to 3.3V amplitude, 50% duty
cycle with a trise = tfall ≤6ns. Disable the generator output.
(5) Verify that a 60Ω resistor is installed at location R9 on the evaluation board.
3.3 Calculating VDIFF and Taking Measurements
(1) Set the oscilloscope to 2.0µs/division.
(2) Set channel CH1 of the oscilloscope to 5V/division.
(3) Set CH2, CH3, and CH4 of the oscilloscope to 2V/division.
(4) Using the math function of the oscilloscope, set the math 1 selection to measure CH2 - CH3 and display the
M1 trace on the oscilloscope screen.
M1 = CH2 - CH3 = VDIFF = VOD = CANH - CANL.
(5) Use the “Measure” menu on the oscilloscope to set up the following four measurements:
• LOW to HIGH propagation delay (tPLH) to measure the time from the 50% point of the falling edge of CH1 (D
pin) to the 900mV point on the rising edge of the M1 trace (VDIFF).
• HIGH to LOW propagation delay (tPHL) to measure the time from the 50% point of the rising edge of CH1 (D
pin) to the 500mV point on the falling edge of M1 trace (VDIFF).
• Output rise time (tr) to measure the 10% to 90% time of the rise edge of the M1 trace (VDIFF).
• Output fall time (tf) to measure the 90% to 10% time of the falling edge of the M1 trace (VDIFF).
(6) Ensure that a jumper is installed at J8 (selects fast driver edges by connecting the RS pin to ground) and no
jumpers are installed at J5, J6, J7, and J9.
(7) Enable the function generator. The scope plots should look like the ones shown in Figure 4.1 on page 9.

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ISL71026MEVAL1Z 3. Using the Board to Measure Propagation Delay, Skew, and Rise/Fall Time
(8) In fast speed mode (RS = 0V):
•t
PLH should be around 75ns and no greater than 150ns.
•t
PHL should be around 80ns and no greater than 155ns.
•t
rise should be around 55ns and no less than 20ns or greater than 100ns.
•t
fall should be around 25ns and no less than 10ns or greater than 75ns.
(9) Move the jumper from J8 to J7 (selects medium driver edges by connecting the RS pin to ground through a
10kΩ resistor). Note: No jumpers should be installed at J5, J6, J8, and J9.
(10) The scope plot should look like the ones in Figure 4.2 on page 9.
(11) In medium speed mode (RS = 10kΩ):
•t
PLH should be around 520ns and no greater than 850ns.
•t
PHL should be around 460ns and no greater than 800ns.
•t
r should be around 400ns and no less than 200ns or greater than 780ns.
•t
f should be around 300ns and no less than 175ns or greater than 500ns.
(12) Move the jumper from J7 to J6 (selects slow driver edges by connecting the RS pin to ground through a 50kΩ
resistor). Note: No jumpers should be installed at J5, J7, J8, and J9.
(13) The scope plot should look like the ones in Figure 4.3 on page 10.
(14) In slow speed mode (RS = 50kΩ):
•t
PLH should be around 850ns and no greater than 1400ns.
•t
PHL should be around 725ns and no greater than 1300ns.
•t
r should be around 700ns and no less than 400ns or greater than 1400ns.
•t
f should be around 650ns and no less than 300ns or greater than 1000ns.

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ISL71026MEVAL1Z 4. Waveforms
4. Waveforms
Figure 4.1 Oscilloscope Plot (Fast Speed) Waveforms and Measurements
Figure 4.2 Oscilloscope Plot (Medium Speed) Waveforms and Measurements

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ISL71026MEVAL1Z 4. Waveforms
Figure 4.3 Oscilloscope Plot (Slow Speed) Waveforms and Measurements

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ISL71026MEVAL1Z 5. PCB Layout Guidelines
5. PCB Layout Guidelines
5.1 Evaluation Board
Figure 5.1 ISL71026MEVAL1Z Evaluation Board

ISL71026MEVAL1Z 5. PCB Layout Guidelines UG121 Rev.0.00 Page 12 of 20 May 3, 2017
5.2 Schematic
Figure 5.2 ISL71026MEVAL1Z Circuit Schematic

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ISL71026MEVAL1Z 5. PCB Layout Guidelines
5.3 Bill of Materials
Qty Units
Reference
Designator Description Mfr Manufacturer Part Number
1 ea. SEE LABEL -
RENAME BOARD
PWB-PCB, ISL71026MEVAL1Z, Rev A, ROHS Imagineering Inc ISL71026MEVAL1ZREVAPCB
1 ea. C2 CAP, SMD, 0805, 0.1µF, 50V, 10%, X7R, ROHS KEMET C0805C104K5RACTU
1 ea. C1 CAP, SMD, 0805, 10µF, 25V, 10%, X5R, ROHS TDK C2012X5R1E106K
1 ea. D CONN - BNC, RECEPTACLE, TH, 4 POST, 50Ω,
GOLDCONTACT, ROHS
Amphenol 31-5329-52RFX
1 ea. TP13 CONN - MINI TEST PT, VERTICAL, RED, ROHS Keystone 5000
4 ea. TP1, TP2, TP9,
TP11
CONN - MINI TEST PT, VERTICAL, BLK, ROHS Keystone 5001
2 ea. TP7, TP8 CONN-MINI TEST PT, VERTICAL, WHITE,
ROHS
Keystone 5002
4 ea. TP3, TP4, TP5,
TP6
CONN-MINI TEST PT, VERTICAL, YEL, ROHS Keystone 5004
1 ea. J1 9 PIN MALE RIGHT ANGLE D-SUB
CONNECTOR
TE Connectivity /
AMP
5788792-1
3 ea. GND, VCC, VCM CONN - JACK, MINI BANANA, 0.175 PLUG,
NICKEL/BRASS, ROHS
Keystone 575-4
1 ea. U1 CAN BUS PART, 14Ld, TSSOP Intersil ISL71026MVZ
1 ea. J9 CONN - HEADER, 1X3, BREAKAWY 1X36,
2.54mm, ROHS
BERG/FCI 68000-236HLF
4 ea. J5, J6, J7, J8 CONN - HEADER, 1X2, RETENTIVE, 2.54mm,
0.230X0.120, ROHS
BERG/FCI 69190-202HLF
0 ea. R2, R7, R8, R12,
R13
RESISTOR, SMD, 0805, DNP, TF, ROHS - -
4 ea. R1, R6, R10, R11 RES, SMD, 0805, 0Ω, 1/8W, TF, ROHS Yageo RC0805JR-070RL
1 ea. R5 RES, SMD, 0805, 10kΩ, 1/8W, 1%, TF, ROHS Venkel CR0805-8W-1002FT
(PbFREE)
1 ea. R4 RES, SMD, 0805, 49.9kΩ, 1/8W, 1%, TF, ROHS Panasonic ERJ-6ENF4992V
1 ea. R9 RES, SMD, 0805, 60.4Ω, 1/8W, 1%, TF, ROHS Panasonic ERJ-6ENF60R4V
4 ea. Four Corners SCREW, 4-40X1/4in, PAN, SS, PHILLIPS - -
4 ea. Four Corners STANDOFF, 4-40X3/4in, F/F, HEX, ALUMINUM,
ROHS
Keystone 2204 (.250 OD)
1 ea. Place assy in bag BAG, STATIC, 6X8, ZIP LOC, ROHS ULINE S-2262
0 ea. TP10, TP12 CONN - MINI TEST POINT, VERTICAL, ROHS Keystone 5004
0 ea. C3, C4, C5, C6, C7 DO NOT POPULATE OR PURCHASE
0 ea. J4, J10, J11 DO NOT POPULATE OR PURCHASE
0 ea. R3 DO NOT POPULATE OR PURCHASE
0 ea. CANH, CANL DO NOT POPULATE OR PURCHASE
1 ea. AFFIX TO BACK
OF PCB
LABEL - DATE CODE_LINE 1: YRWK/REV#,
LINE 2: BOM NAME
Intersil LABEL-DATE CODE

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ISL71026MEVAL1Z 5. PCB Layout Guidelines
5.4 Board Layout
Figure 5.3 Top Layer Figure 5.4 Bottom Layer
Figure 5.5 Top Layer Silk Screen

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May 3, 2017
ISL71026MEVAL1Z 6. Typical Performance Curves
6. Typical Performance Curves
Unless noted: VCC = 3.3V, D = 125kHz, Square Wave, 0 to VCC, 50% Duty Cycle, tr = tf ≤6ns, TA = +25°C
Figure 6.1 Fast Driver and Receiver
Waveforms
Figure 6.2 Medium Driver and Receiver
Waveforms
Figure 6.3 Slow Driver and Receiver
Waveforms
Figure 6.4 Transmitter Propagation Delay
and Skew vs Temperature at Fast
Speed
0
4
0
TIME (1µs/DIV)
DRIVER OUTPUT (V)
DRIVER INPUT (V)
4
0
1
2
3
RECEIVER OUTPUT (V)
RS = GND, RD = 60Ω
CANH - CANL
R
D
0
4
0
TIME (1µs/DIV)
DRIVER OUTPUT (V)
DRIVER INPUT (V)
4
0
1
2
3
RECEIVER OUTPUT (V)
RS = 10kΩ, RD = 60Ω
CANH - CANL
R
D
0
4
0
TIME (1µs/DIV)
DRIVER OUTPUT (V)
DRIVER INPUT (V)
4
0
1
2
3
RECEIVER OUTPUT (V)
RS = 50kΩ, RD = 60Ω
CANH - CANL
R
D
0
20
40
60
80
100
120
-55 -35 -15 5 25 45 65 85 105 125
TIME (ns)
TEMPERATURE (°C)
RS = GND, RD = 60Ω
L TO H, VCC = 3.6V
L TO H, VCC = 3V
H TO L, VCC = 3.6V
H TO L, VCC = 3V
SKEW, VCC = 3.6V
SKEW, VCC = 3V

UG121 Rev.0.00 Page 16 of 20
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ISL71026MEVAL1Z 6. Typical Performance Curves
Figure 6.5 Transmitter Propagation Delay
and Skew vs Temperature at
Medium Speed
Figure 6.6 Transmitter Propagation Delay
and Skew vs Temperature at Slow
Speed
Figure 6.7 Transmitter Rise and Fall Times
vs Temperature at Fast Speed
Figure 6.8 Transmitter Rise and Fall Times
vs Temperature at Medium Speed
TIME (ns)
TEMPERATURE (°C)
0
100
200
300
400
500
600
700
800
-55 -35 -15 5 25 45 65 85 105 125
RS = 10kΩ, RD = 60Ω
L TO H, VCC = 3.6V
L TO H, VCC = 3V
H TO L, VCC = 3.6V
H TO L, VCC = 3V
SKEW, VCC = 3.6V
SKEW, VCC = 3V
TIME (ns)
TEMPERATURE (°C)
0
200
400
600
800
1000
1200
-55 -35 -15 5 25 45 65 85 105 125
RS = 10kΩ, RD = 60Ω
L TO H, VCC = 3.6V
L TO H, VCC = 3V
H TO L, VCC = 3.6V
H TO L, VCC = 3V
SKEW, VCC = 3.6V
SKEW, VCC = 3V
20
25
30
35
40
45
50
55
60
-55 -35 -15 5 25 45 65 85 105 125
TIME (ns)
TEMPERATURE (°C)
RS = GND, RD = 60Ω
RISE, VCC = 3V
RISE, VCC = 3.6V
FALL, VCC = 3V
FALL, VCC = 3.6V
TIME (ns)
TEMPERATURE (°C)
0
100
200
300
400
500
600
-55 -35 -15 5 25 45 65 85 105 125
RS = 10kΩ, RD = 60Ω
RISE, VCC = 3V
RISE, VCC = 3.6V
FALL, VCC = 3V
FALL, VCC = 3.6V

UG121 Rev.0.00 Page 17 of 20
May 3, 2017
ISL71026MEVAL1Z 7. Revision History
7. Revision History
Rev. Date
Description
Page Summary
0.00 May 3, 2017 — Initial release

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damages, costs, losses, or liabilities arising out of your use of these resources. Renesas' products are provided only subject
to Renesas' Terms and Conditions of Sale or other applicable terms agreed to in writing. No use of any Renesas resources
expands or otherwise alters any applicable warranties or warranty disclaimers for these products.
(Rev.1.0 Mar 2020)
© 2020 Renesas Electronics Corporation. All rights reserved.

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