ST X-NUCLEO-OUT02A1 User manual

Introduction
The X-NUCLEO-OUT02A1 industrial digital output expansion board for STM32 Nucleo is based on the ISO8200AQ galvanic
isolated octal high-side smart power solid state-relay.
It provides an affordable and easy-to-use solution for the development of 8-channel digital output modules, letting you easily
evaluate the ISO8200AQ communication and industrial load driving features.
The X-NUCLEO-OUT02A1 can be connected to a NUCLEO-F401RE, NUCLEO-F103RB or NUCLEO-F302R8 development
board via Arduino™ UNO R3 connectors.
You can also evaluate the 16-channel digital output modules by connecting two X-NUCLEO-OUT02A1 expansion boards and
activating the daisy chaining feature.
The X-NUCLEO-OUT02A1 interfaces with the STM32 controller via SPI and GPIO pins and is compatible with the Arduino™
UNO R3 (default configuration) and ST morpho (optional, not mounted) connectors.
Industrial PLC functionality with 8 inputs and 16 outputs can be added with the X-NUCLEO-PLC01A1 expansion board.
Figure 1. X-NUCLEO-OUT02A1 expansion board
Getting started with the X-NUCLEO-OUT02A1 industrial digital output expansion
board for STM32 Nucleo
UM2507
User manual
UM2507 - Rev 1 - November 2018
For further information contact your local STMicroelectronics sales office.
www.st.com

1Getting started
1.1 Overview
The X-NUCLEO-OUT02A1 expansion board features:
• Based on the ISO8200AQ whose main characteristics are:
– Embedded 4kV galvanic isolation
– Radio frequency communication between the logic and process sides for maximum noise immunity
– Very low power dissipation (RON(MAX) = 220 mΩ)
– Fast decay for inductive loads
– 20 MHz SPI I/F on logic side
– VCC power good diagnostics
– Overload and overheating protections with thermal shutdown and diagnostics
– QFN-32L (9x11x1 mm) package
• 10.5 to 33 V operating voltage range
• Green LED (x8) for output on/off status
• Red LED for process supply power good fault
• Red LED for overload and overheating
• Supply reverse polarity protection
• EMC compliance according to IEC61000-4-2, IEC61000-4-3, IEC61000-4-5
• Compatible with STM32 Nucleo boards
• Equipped with Arduino™ UNO R3 connectors
• CE certified
• RoHS and China RoHS compliant
• WEEE compliant
The SPI interface and the embedded power good detection allow a deeper diagnostics, daisy chaining and less
MCU GPIO resources on the PLC logic stage.
Note: The X-NUCLEO-OUT02A1 offers a digital output solution: each output stage is managed at microcontroller level.
As the board has no input stage, no sensors can be connected to it.
1.2 Hardware requirements
To use STM32 Nucleo development boards with the X-NUCLEO-OUT02A1 expansion board, match the boards
via the Arduino™ UNO R3 connector pins on the STM32 Nucleo development board.
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Getting started
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Figure 2. X-NUCLEO-OUT02A1 expansion board connected to an STM32 Nucleo development board
The X-NUCLEO-OUT02A1 has been designed to be used with
•NUCLEO-F103RB
•NUCLEO-F302R8
•NUCLEO-F401RE
1.3 System requirements
To use the STM32 Nucleo boards with the X-NUCLEO-OUT02A1 expansion board you need:
• a Windows PC/laptop (Windows 7 or above) to install the firmware package (X-CUBE-OUT02)
• a type A to Mini-B USB cable to connect the STM32 Nucleo board to the PC
• an STM32 Nucleo development board (NUCLEO-F103RB, NUCLEO-F302R8 or NUCLEO-F401RE)
• an X-NUCLEO-OUT02A1 expansion board
1.4 Board setup
Step 1. Connect the micro-USB cable to the PC.
Step 2. Download the firmware version onto the microcontroller.
Step 3. Set the following jumper configurations on the STM32 Nucleo board:
– Close SB62 and SB63 jumpers
– Open SB13 and SB14 jumpers
Step 4. Connect the ISO8200AQ device supply voltage to the X-NUCLEO-OUT02A1 via J1.
Step 5. Provide the digital supply voltage.
– when connected to the PC: keep the micro-USB cable connected and close jumper JP5 on the
STM32 Nucleo board between pins 1 and 2.
– in standalone mode: provide a 7 to 12 V external supply via J2 on the X-NUCLEO- OUT02A1 and
close jumper JP5 on the STM32 Nucleo board between pins 2 and 3.
Step 6. Connect the load on the output connector.
Step 7. Run the STM32 and push the blue button on the STM32 Nucleo board to select the example provided
in the firmware package.
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System requirements
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2Hardware description and configuration
2.1 Digital section
The digital section is associated with the STM32 interface and digital supply voltage to and from the X-NUCLEO-
OUT02A1 expansion board.
Figure 3. X-NUCLEO-OUT02A1 expansion board: digital interface components
The four Arduino™ UNO R3 connectors:
• allow the ISO8200AQ communication with the STM32 Nucleo board microcontroller and access to the
STM32 peripheral and GPIO resources;
• provide digital supply voltage to/from the STM32 Nucleo development board and the X-NUCLEO-OUT02A1
expansion board.
To provide an external digital supply:
• close jumper JP5 between pins 2 and 3 on the STM32 Nucleo development board;
• connect a 7 to 12 V supply at screw connector J2 on the X-NUCLEO-OUT02A1 expansion board.
2.2 Power section
The power section involves the power supply voltage, load connection and electromagnetic compatibility (EMC)
protections.
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Hardware description and configuration
UM2507 - Rev 1 page 4/14

Figure 4. X-NUCLEO-OUT02A1 expansion board: power section components
For EMC:
• a Transil™ diode SMC30J30CA is placed on VCC track to protect the ISO8200AQ against surge discharge;
• for common mode surge testing, two single-layer capacitors (C1 and C3, not mounted) must be soldered;
• 22 nF capacitors are included on the output lines for burst disturbance filtering.
To supply the load, connect the supply voltage to the J1 2-way screw connector. The load is connected to the 8-
way output.
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Power section
UM2507 - Rev 1 page 5/14

3Bill of materials
Table 1. X-NUCLEO-OUT02A1 bill of materials
Item Q.ty Ref. Part/Value Description Manufacturer Order code
1 1 U1 ISO8200AQ TFQFPN32
Galvanic isolated
octal high-side
smart power solid
state-relay
ST ISO8200AQ
2 8
C19, C20,
C21, C22,
C23, C24,
C25, 26
22 nF 50 V ±10% 0603 X7R Capacitors TDK C1608X7R1H223K080AA
3 8
D5, D6, D7,
D8 D9, D10,
D11, D12
0603 AlGaInP Green LEDs OSRAM LG L29K-G2J1-24
4 8
R21, R22,
R23, R24
R25, R26,
R27, R28
10 kΩ 0.1 W ±1% 0603 Resistors Bourns CR0603-FX-1002ELF
5 1 J5 8 ways, 1 row, screw
connector TH 2.54 mm Jumper Phoenix Contact 1725711
6 1 C2, C7 2.2 µF 50 V ±10% 1206 X7R Capacitors Murata GRM31C71H225KA88K
7 1 C5 100 nF 50 V ±10% 0603 X7R Capacitor TDK CGA3E2X7R1H104K080AA
8 1 C28 100 nF 16 V ±5% 0603 X7R Capacitor AVX 0603YC104JAT2A
9 1 C27 2.2 µF 16 V ±10% 0805 X7R Capacitor Murata GCM21BR71C225KA64L
10 1 R31 47 kΩ 63 mW ±5% 0402 Resistor Vishay CRCW040247k0JNED
11 1 C18 10 pF 50 V ±5% 0402 COG Capacitor YAGEO CC0402JRNP09BN100
12 4 R20, R29,
R30, R32 0 Ω 100 mW ±1% 0603 Resistors TE Connectivity CRG0603ZR
14 4 C8, C15,
C16, C17 33 pF 50 V ±5% 0402 Capacitors Phycomp 2.23887E+11
15 2 R16, R36 910 Ω 63 mW ±1% 0402 Resistors Vishay CRCW0402910RFKED
16 2 D13, D4 AlGaInP 0603 Red LEDs OSRAM LS L29K-G1 J2-1
17 3 J6, J7, J8 6 ways, 2 rows connector
SMD 2.54mm Jumpers Harwin M20-8760342
18 7
R1, R2, R3,
R4 R5, R6,
R7
100 Ω 0.1 W ±0.5% 0603 Resistors Panasonic ERJ3BD1000V
19 0
R101, R102,
R103, R104,
R105, R106,
R107, R108,
R109, R110,
R111, R112,
R113, R114,
R115, R116
DNM 0603 Resistors (not
mounted) Any
20 1 CN5 10 ways, 1 row TH 2.54 mm Capacitor SAMTEC SSQ-110-04-F-S
21 2 CN6, CN9 8 ways, 1row TH 2.54 mm Capacitors SAMTEC SSQ-108-04-F-S
22 0 CN7, CN10 TH 2.54 mm Capacitors (not
mounted) SAMTEC SSQ-119-04-L-D
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Bill of materials
UM2507 - Rev 1 page 6/14

Item Q.ty Ref. Part/Value Description Manufacturer Order code
23 1 CN8 6 ways, 1 row TH 2.54 mm Capacitor SAMTEC SSQ-106-04-F-S
24 1 J1 2 ways, 1 row (ISO8200AQ
HV supply) TH 3.5 mm Jumper RS 790-1149
25 1 J2
3 ways, 1 row (STM32,
ISO8200AQ LV supply) TH
3.5 mm
Jumper RS 790-1143
26 0 C1, C3 4.7 nF 3.15 kV TH Capacitors (not
mounted) Murata DEBE33F472ZC3B
27 1 D1 SMC 3000 W TVS in
SMC package ST SMC30J36A
28 1 D2 1 A, 100 V SMA Power Schottky
rectifier ST STPS1H100A
29 1 D3 0.35 A, 40 V SOD-323 Small signal
Schottky diodes ST BAT48JFILM
30 1 D14 700 W VBR = 6.8 V; VCL =
10.2 V 1610
High-power
transient voltage
suppressor (TVS)
ST ESDA7P60-1U1M
31 1 D15 1200 W VBR = 6.8 V; VCL =
10.2 V 1610
High-power
transient voltage
supressor (TVS)
ST ESDA15P60-1U1M
32 1 D16 600 W VBR =14.3 V; VCL =
20.8 V SMB
600 W TVS in
SMB ST SMBJ5.0A-TR
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Bill of materials
UM2507 - Rev 1 page 7/14

4Schematic diagrams
Figure 5. X-NUCLEO-OUT02A1 circuit schematic (1 of 2)
A3
28
29
GND_DEC
100R
ISO_PGOOD
NRST
CN9
1
25
A5
uC_MISO
ESDA15P60-1U1M
D3
BAT48JFILM
uC_MOSI
1
10
R110
23
100R N.M.
CN7
100R
19
3v3
D11
ISO_FAULT
R1
36
ISO_FAULT
5V
GND
2
1
CON38
2
25
CN5
15
D10
uC_MOSI
GND
ISO_FAULT
D5
R2
100R N.M.
100R N.M.
C1
ISO_CLK
3V3
7
EARTH
Vcc supply
D13
ISO_SDIO1
R104
3
1
2
3
4
5
6
R113
ISO_CLK
16
AVDD
35
12
13
A0
1
24
9
100R
CN10
ISO_SS
A0
14
26
27
7
R6
100R N.M.
D6
PB8
PB9
PA5
PA6
PA7
PB6
PC7
PA9
PA8
PB10
PB4
PB15/PA7
PB14/PA6
(PF0)
PF1
PA10
ALTERNATE USE
DEFAULT
DEFAULT
DEFAULT
DEFAULT
DEFAULT
PC1
PB0
PA1
ALTERNATE USE
PC0
PA4
PA0
ALTERNATE USE
ALTERNATE USE
DEFAULT
PB5
PA10
ALTERNATE USE
PB10
PA2
PA8
PB4
PA3
PB3
PA5
PB6
PC7
PA9
PA7
PB8
PA6
PB9
ALTERNATE USE
DEFAULT
ALTERNATE USE
ALTERNATE USE
ALTERNATE USE
ALTERNATE USE
ALTERNATE USE
ALTERNATE USE
ALTERNATE USE
1
onnectors
onnectors
100R N.M.
c
A4
GND_DEC
ALTERNATE USE
36
uC_MISO
17 3v3
100R
1
D8
11
100R N.M.
R111
100R N.M.
C3
CON38
2
ISO_PGOOD
ESDA7P60-1U1M
SMC30J36A
27
33
J2
10
J1
ISO_SS
A2
D2
D1
9
8
7
6
5
4
3
2
1
VIN
10.5 V - 30 V
17
ISO_PGOOD
(7-12 V STM32 Nucleo supply voltage)
PC12
PF7
USE
ALTERNATE
PC10
VDD
PF6
PA13
PB0
PD2
PB7
PC0
U5V
PA12
PB11
PA0
PF5PA2
PC6
PA14
PA4
8
D11
ISO_CLK
5V
R116
2
A1
Arduino
35
24
ISO_OUT EN
5
100R N.M.
R103
D4
32
D0
100R
26
8
7
6
5
4
3
2
1
ISO_SDIO1
38
R105
Analog supply
D4
16
D12
AVDD
ISO_FAULT
ISO_OUT EN
100R
32
ISO_PGOOD
D10
D9
Vcc supply
R3
2.2µF/50V
D9
D1
ISO_OUT EN
100R N.M.
R107
A5
4D15
ISO_PGOOD
D13
31
14
3
2
1
D5
IOREF
R7
1
2
3
4
5
6
7
8
11
uC_MISO
D0
NRST
CN6
37
100R N.M.
31
100R N.M.
R115
A3
GND_DEC
Vcc supply
R109
R101 100R N.M.
uC_MOSI
ISO_SDIO1
30
orpho
21
A1
ST m
12
13
c
D3
ISO_SDIO1
5
D14
Main voltage
R112
D6
28
29
3
D14
37
15
ISO_SDIO1
ISO_OUT EN
D1
2
C2
D3
CN8
PC11
PC1
PD8
PF4
PB12
PA3
PC8
PA1
PC9
PA15
PC2
PC3
VBAT/VLCD
PC13
(PC14)
PB13/PA5
(PC15)
ISO_FAULT
ISO_SS
STPS1H100A
100R
18
22
23
33
6
R5
100R N.M.
ISO_OUT EN
R102 100R N.M.
D14
IOREF
D7
ISO_SS
6
GND
VIND7
20
21
4.7nF/3kV N.M.
D8
A4
uC_MISO
4
2
uC_MOSI
ISO_SDIO1
10
ISO_CLK
D15
30
ISO_SS
100R N.M.
R114
D2
ISO_CLK
100R N.M.
R108
CON3
EXT_VDD
8
18
19
D12
E5v0
9
R106
A2
38
R4
D15
1
22
VIN
4.7nF/3kV N.M
20
34 D2
BOOT0
PB5
PB3
PA2
PC5
PB11
PB2
PB1
34
PC4
ISO8200AQ direct supply voltage:
- set to max. 3..3 V
when the X-NUCLEO-OUT02A1 is used with an STM32 Nucleo board
- can be set to max. 5.5 V
when the X-NUCLEO-OUT02A1 is used standalone
Figure 6. X-NUCLEO-OUT02A1 circuit schematic (2 of 2)
10k
C15
C22
ISO_OUT EN
ISO_SS
CON6A
2
33 GND2
2
R23
100nF
NC#29
30 NC#30
OUT8b
6
EXT_VDD
47k
22
R27
ISO_CLK
CON6A
2
10k
D4RED LED
R200R
22nF/50V
R30
U1
CON6A
2
2
R29 0R
10k
R36
1
22nF/50V
1
10k
1
3534
GND3
3
CLK
23
28
29
ISO_FAULT
C23
2.2µF/50V MLCC
D13RED LED GND_DEC
GND_DEC
ISO8200AQ
1
1 2
J5
TAB Vcc
1
2
3
4
5
6
7
8
R22
Vcc supply
4
GND1
NC#28
C18
3
C19
2
C16
100nF/50V
R21
33pF/6.3V
C24
910R
OUT4b 13
OUT3a 14
10k
OUT6b
OUT5a 10
ISO_PGOOD
22nF/50V
D6
SMBJ5.0A
4
2.2µF
4
SDI
C5
GND_DEC
1
27 NC#27
0R
2
OUT7b
8
R16
D11
1
C20
CON8
10k
D8
OUT3b 15
1
3
ISO_SS
1
24
D16
FAULT
32
1
OUT6a
9
ISO_PGOOD
2
Vdd
1
2
SDO
Vcc supply
4
36
J8
J6
R32 0R
22nF/50V 22nF/50V
uC_MISO
R28
31 OUT7a
7
GNDdd
2
10pF
ISO_SDIO1
Vdd 20
ISO_FAULT
1
ISO_OUT EN
5
22nF/50V
10k
C8
2
2
22nF/50V
OUT2b 17
C17
GND4
22nF/50V
C28
1
PGOOD
25
26 NC#26
ISO_SDIO1
6
OUT4a
33pF/6.3V
R25
3v3
D12
NC#2
3
OUT1a OUT1b 19
21
C7
ISO_SDIO1
2
D7
uC_MISO
6
uC_MOSI
6
C26
Vdd
C25
16
OUT2a
D9
R26
C27
ISO_CLK
5
1
OUT5b 11
12
1
R31
2
OUT8a
5
10k
OUT EN
SS
C21
18
910R
ISO_SDIO1
5
J7
uC_MOSI
D10
R24
33pF/6.3V
D5
33pF/6.3V
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Schematic diagrams
UM2507 - Rev 1 page 8/14

A References
Freely available on www.st.com:
•ISO8200AQ datasheet
•X-CUBE-OUT02A1 user manual
•X-NUCLEO-PLC01A1 user manual
•ST-PLC data brief
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References
UM2507 - Rev 1 page 9/14

Revision history
Table 2. Document revision history
Date Revision Changes
08-Nov-2018 1 Initial release.
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UM2507 - Rev 1 page 10/14