TWR-SB0800-36EVB tower system platform · 2019-09-24 · TP8 ADN2 signal (10-bit ADC) TP9 ADN3...
Transcript of TWR-SB0800-36EVB tower system platform · 2019-09-24 · TP8 ADN2 signal (10-bit ADC) TP9 ADN3...
NXP SemiconductorsUser’s Guide
© 2016 NXP B.V.
Document Number: KTTWRSB0800-36EVBUGRev. 1.0, 7/2016
TWR-SB0800-36EVB tower system platform
Figure 1. TWR-SB0800-36EVB
TWR-SB0800-36EVB tower system platform, Rev. 1.0
2 NXP Semiconductors
Contents
1 Important notice . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 32 Getting started . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 43 Understanding the tower system modular development board platform . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 54 Getting to know the hardware . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 75 Setting up the hardware. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 146 Schematic . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 167 Board layout. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 198 Board bill of materials . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 209 References . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2210 Revision history . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 23
Important notice
TWR-SB0800-36EVB tower system platform, Rev. 1.0
NXP Semiconductors 3
1 Important noticeNXP provides the enclosed product(s) under the following conditions:
This evaluation kit is intended for use of ENGINEERING DEVELOPMENT OR EVALUATION PURPOSES ONLY. It is provided as a sample IC pre-soldered to a printed circuit board to make it easier to access inputs, outputs, and supply terminals. This evaluation board may be used with any development system or other source of I/O signals by simply connecting it to the host MCU or computer board via off-the-shelf cables. This evaluation board is not a Reference Design and is not intended to represent a final design recommendation for any particular application. Final device in an application will be heavily dependent on proper printed circuit board layout and heat sinking design as well as attention to supply filtering, transient suppression, and I/O signal quality.
The goods provided may not be complete in terms of required design, marketing, and or manufacturing related protective considerations, including product safety measures typically found in the end product incorporating the goods. Due to the open construction of the product, it is the user's responsibility to take any and all appropriate precautions with regard to electrostatic discharge. In order to minimize risks associated with the customers applications, adequate design and operating safeguards must be provided by the customer to minimize inherent or procedural hazards. For any safety concerns, contact NXP sales and technical support services.
Should this evaluation kit not meet the specifications indicated in the kit, it may be returned within 30 days from the date of delivery and will be replaced by a new kit.
NXP reserves the right to make changes without further notice to any products herein. NXP makes no warranty, representation or guarantee regarding the suitability of its products for any particular purpose, nor does NXP assume any liability arising out of the application or use of any product or circuit, and specifically disclaims any and all liability, including without limitation consequential or incidental damages. “Typical” parameters can and do vary in different applications and actual performance may vary over time. All operating parameters, including “Typical”, must be validated for each customer application by customer’s technical experts.
NXP does not convey any license under its patent rights nor the rights of others. NXP products are not designed, intended, or authorized for use as components in systems intended for surgical implant into the body, or other applications intended to support or sustain life, or for any other application in which the failure of the NXP product could create a situation where personal injury or death may occur.
Should the Buyer purchase or use NXP products for any such unintended or unauthorized application, the Buyer shall indemnify and hold NXP and its officers, employees, subsidiaries, affiliates, and distributors harmless against all claims, costs, damages, and expenses, and reasonable attorney fees arising out of, directly or indirectly, any claim of personal injury or death associated with such unintended or unauthorized use, even if such claim alleges NXP was negligent regarding the design or manufacture of the part. NXP™ and the NXP logo are trademarks of NXP Semiconductors. All other product or service names are the property of their respective owners. © 2016 NXP B.V.
Getting started
TWR-SB0800-36EVB tower system platform, Rev. 1.0
4 NXP Semiconductors
2 Getting started
2.1 Kit contents/packing listThe TWR-SB0800-36EVB contents include:
• TWR-SB0800-36EVB tower board• Plug-in connectors• Warranty card
2.2 Jump startNXP’s analog product development boards help to easily evaluate NXP products. These tools support analog mixed signal and power solutions including monolithic ICs using proven high-volume SMARTMOS mixed signal technology, and system-in-package devices utilizing power, SMARTMOS and MCU dies. NXP products enable longer battery life, smaller form factor, component count reduction, ease of design, lower system cost, and improved performance in powering state of the art systems.
• Go to www.nxp.com/TWR-SB0800-36EVB• Review your Tool Summary Page• Look for
• Download the documents, software and other resourcesOnce the files are downloaded, review the user guide in the bundle. The user guide includes setup instructions, BOM, and schematics. Jump start bundles are available on each tool summary page with the most relevant and current information. The information includes everything needed for design.
2.3 Required equipment and software To use this kit, you need:
• Power supply 6.0 V to 36 V with current limit set initially to 2.5 A to 9.0 A• Oscilloscope (preferably 4-channel) with current probe(s) • Digital multimeter• Typical loads: (DC motor, valve)• TWR-KL25Z48M, K20D72M, KV31F120M or other Tower boards (check compatibility)• Kinetis Design Studio or compatible CodeWarrior for MCUs (Eclipse IDE). For information on getting started with CodeWarrior,
see the MC34Valve Controller Processor Expert Component User Guide.
2.4 System requirementsThe kit requires the following to function properly with the software:
• USB-enabled PC with Windows® XP or higher
Jump Start Your Design
Understanding the tower system modular development board platform
TWR-SB0800-36EVB tower system platform, Rev. 1.0
NXP Semiconductors 5
3 Understanding the tower system modular development board platform
NXP’s Tower System peripheral module is designed to be combined and used with other Tower System modules. The Tower System is a modular development platform for 8-, 16-, and 32-bit MCUs and MPUs enabling advanced development through rapid prototyping. Featuring more than fifty development boards or modules, the Tower System provides designers with building blocks for entry-level to advanced MCU development. Figure 2 shows a Tower System platform with the TWR-SB0800-36EVB configured with another Tower System module, the TWR-KL25Z48M board.
Figure 2. TWR-SB0800-36EVB on tower system
TWR-SB0800-36EVB or TWR-SB0410-36EVB
Elevator Board(Secondary)
Elevator Board(Primary)
Tower MCU Board (TWR-KL25Z48M in this example)
Understanding the tower system modular development board platform
TWR-SB0800-36EVB tower system platform, Rev. 1.0
6 NXP Semiconductors
3.1 Block diagram
Figure 3. Block diagram
Note:
Warning lamp application is proposed as an example in Figure 3. The lamp is connected to the low-side driver (general purpose).
MC34SB0800
Octal Valves Controller
Primary Elevator
Secondary Elevator
MCU Tower Board Selection (Jumpers)
x4
Tower System Interface
GPIO & ADC input (x3)
SPI (single, daisy chain)
x2
Valves
War
ning
Lam
p
Motor
Power Supply 6.0 V to 36 V
Digital Supply 5.0 V
x4
Valv
es
Getting to know the hardware
TWR-SB0800-36EVB tower system platform, Rev. 1.0
NXP Semiconductors 7
4 Getting to know the hardware
4.1 Board overviewThe TWR-SB0800-36EVB is a tower peripheral module that exercises valve control functions on SoC products based on the Tower System. The Tower System acts as a debug and communication port for the PC being used to debug/download programs from the Kinetis Design Studio/CodeWarrior system.
4.2 Board featuresThe board features are as follows:
• Valve controller with embedded safety features: MC34SB0800• Four current regulated valve driver outputs (maximum current: 2.25 A; maximum frequency 5.0 kHz)• Four PWM valve driver outputs (maximum current 5.0 A; maximum frequency 5.0 kHz)• High-side pre-driver Safe Switch• High-side pre-driver motor control (maximum frequency 500 Hz)• Embedded Safety Supervision• Simplified MCU connections• SPI daisy chain communication with other TWR-SB0800-36EVB or TWR-0410-36EVB boards (daisy chain mode jumper
selectable)• Single SPI communication support• On-board LED ON/OFF indicators for each high-side and low-side (general purpose) channel• Three 10-bit ADC inputs
4.3 Device featuresThis tower system features the following NXP product:
Table 1. Device features
Device Description Features
MC34SB0800 Octal Valve Controller System on Chip
Control features• Operating voltage up to 36 V
• Four low-side drivers regulate up to 2.25 A
• ± 2.0% precision reachable with calibration
• Four low-side drivers PWM up to 5 kHz with a maximum current capability up to 5.0 A
• Integrated low-side drivers to save PCB space
• ADC monitoring of external or internal signals to enhance the control unit safety level
• Single SPI device control
• MCU sent only when current or duty-cycle is targeted through the SPI
• MCU does not need to generate PWM signals at high frequency
Safety features• Safe MOSFET turns off valves and motor when problems occur
• Watchdog feature
• Under-voltage, over-voltage clock fail detection
• Open load, short circuit, over-temperature detection on each low side
• VDS monitoring of each low-side driver in real time
• Over-current and over-temperature detection on the high-side pre-driver
Getting to know the hardware
TWR-SB0800-36EVB tower system platform, Rev. 1.0
8 NXP Semiconductors
4.4 Board description
Figure 4. Board overview
Table 2. Board description
Name Description
Reset switch Resets the MC34SB0800 device
Primary elevator Edge connector to primary elevator board (white stripe to white connector on elevator board)
Secondary Elevator Edge connector to secondary elevator board
Daisy chain/input PWM motor control Jumper block for selection of daisy chain or input PWM motor control
MC34SB0800 Octal Valve Controller System on Chip
Primary Elevator
(White Strip)
Secondary Elevator
MC34SB0800
Reset Switch
Jumper Block(Daisy Chain/Input PWM Motor Control
Selection)
Getting to know the hardware
TWR-SB0800-36EVB tower system platform, Rev. 1.0
NXP Semiconductors 9
4.4.1 LED displayThe following LEDs are provided as visual output devices for the TWR-SB0800-36EVB:
Figure 5. LED locations
Table 3. LEDs
LED ID Description
D2 Indicates when the MC34SB0800 is in Reset or Safe /Normal Mode (Blinking = Reset Mode; ON = Safe/Normal Mode)
D14 Indicates when power is being supplied to the MC34SB0800
D17 Indicates when the low-side general purpose driver is in the ON state
D20 Indicates when 5.0 V is being supplied to the VCC5 input
D22 Indicates when the high-side general purpose driver is in the ON state
HD_G Not connected
PD_G Not connected
D2
D14 D20
D22
D17
HD_GPD_G
Getting to know the hardware
TWR-SB0800-36EVB tower system platform, Rev. 1.0
10 NXP Semiconductors
4.4.2 Test point definitionsThe following tests point are provided for signal analysis of the MC34SB0800 device.
Figure 6. Test point locations
Table 4. Test points
Schematic label Description
TP1 DOSV (digital output) signal
TP2 DC motor gate driver signal
TP3 SPI/Chip Select signal
TP4 SPI clock signal
TP5 SPI MOSI signal
TP6 SPI MISO signal
TP7 ADN1 signal (10-bit ADC)
TP8 ADN2 signal (10-bit ADC)
TP9 ADN3 signal (10-bit ADC)
TP10 High-side pre-driver Safe Switch gate signal
TP11 VPWR signal
TP12 AGND signal
TP13 AGND signal
TP14 AGND signal
TP1TP2
TP14
TP3
TP4
TP5
TP11
TP13
TP9
TP8
TP7
TP12
TP2 TP10
Getting to know the hardware
TWR-SB0800-36EVB tower system platform, Rev. 1.0
NXP Semiconductors 11
4.4.3 ConnectorsInput/output connectors provide the following signals:
Figure 7. Connector locations
Table 5. Connectors
Name Description
J2 VPWR - Power supply inputs for the MC34SB0800 (6.0 V to 36 V)
J2 AGND - Ground input for the MC34SB0800
J2 SB0800_HSD - High-side Safe Switch output for the MC34SB0800
J4 LSD1 - Regulated valve driver output 1 for the MC34SB0800 (2.25 A maximum, 5.0 kHz maximum)
J4 LSD2 - Regulated valve driver output 2 for the MC34SB0800 (2.25 A maximum, 5.0 kHz maximum)
J4 LSD3 - Regulated valve driver output 3 for the MC34SB0800 (2.25 A maximum, 5.0 kHz maximum)
J4 LSD4 - Regulated valve driver output 4 for the MC34SB0800 (2.25 A maximum, 5.0 kHz maximum)
J3VCC5 - 5.0 V external digital input to the MC34SB0800 (not required if J5, J10 and J11 select the 5.0 V tower supply)
J3 ADIN1 - 10-bit ADC input 1 to the MC34SB0800 (for safety and general purpose external monitoring)
J3 ADIN2 - 10-bit ADC input 2 to the MC34SB0800 (for safety and general purpose external monitoring)
J3 ADIN3 - 10-bit ADC input 3 to the MC34SB0800 (for safety and general purpose external monitoring)
J6 LSD5 - PWM valve driver output 5 for the MC34SB0800 (5.0 A maximum; 5.0 kHz maximum)
J2
VPWR
AGND
SB0800_HSD
J4LSD3
LSD4
LSD1
LSD2
J1Motor -
Motor +
ADN2
ADN3
VCC5
ADN1J3
LSD7
LSD8
LSD5
LSD6J6
J8HD
LD
Getting to know the hardware
TWR-SB0800-36EVB tower system platform, Rev. 1.0
12 NXP Semiconductors
4.4.4 Jumper definitionsFigure 8 and Table 6 define the jumper positions and explains their functions. (The default settings are shown in bold.)
Figure 8. Jumper locations
J6 LSD6 - PWM valve driver output 6 for the MC34SB0800 (5.0 A maximum; 5.0 kHz maximum)
J6 LSD7 - PWM valve driver output 7 for the MC34SB0800 (5.0 A maximum; 5.0 kHz maximum)
J6 LSD8 - PWM valve driver output 8 for the MC34SB0800 (5.0 A maximum; 5.0 kHz maximum)
J8 HD - High-side general purpose driver output for MC34SB0800 with LED indicator
J8 LD - Low-side general purpose driver output for MC34SB0800 with LED indicator
Table 5. Connectors (continued)
Name Description
J11 J13 J10 J5
J9
J7
Getting to know the hardware
TWR-SB0800-36EVB tower system platform, Rev. 1.0
NXP Semiconductors 13
.
Table 6. Jumpers
Jumper Description Setting Connection
J5Selects between Tower 5.0 V supply and external 5.0 V supply
1–2 External 5.0 V supply
2–3 Tower 5.0 V supply
J7Connect/Disconnect LED as the general purpose low-side driver load
1–2 LED connected
Not connected LED disconnected
J9Connect/Disconnect LED as the general purpose high-side driver load
1–2 LED connected
Not connected LED disconnected
J10Selects between digital voltage level of 5.0 V and 3.3 V
1–2 5.0 V digital voltage level
2–3 3.3 V digital voltage level
J11Selects between digital under voltage level of 5.0 V and 3.3 V
1–2 5.0 V digital under-voltage level
2–3 3.3 V digital under-voltage level
J13Selects compatibility settings when using additional tower boards
Multiple See Section 5.2 "Tower board settings"
Setting up the hardware
TWR-SB0800-36EVB tower system platform, Rev. 1.0
14 NXP Semiconductors
5 Setting up the hardware
5.1 Configuring the hardwareTable 7 shows jumper settings for various MCU Tower Boards. Figure 9 shows a typical configuration using the TWR-KL25Z48M and the jumper settings outlined in red in Table 7.
In this example, J5 is set to connect to an external 5.0 V power supply, J10 selects 3.3 V as the digital voltage level and J11 sets the digital under-voltage level at 3.3 V. J7 and J9 connect the LED low-side and high-side driver loads.
Figure 9. Configuration example
Table 7. MCU tower board TWR-KL25Z48M jumper settings
TWR-KL25Z48M TWR-KV31F120M TWR-KV10Z32 TWR-K64F120M TWR-K20 TWR-K22F120 TWR-K70
RSTB GPIO1 GPIO1 GPIO1 GPIO1 GPIO8 GPIO1 GPIO2
CSB GPIO2 GPIO2 GPIO2 GPIO2 GPIO9 GPIO2 GPIO3
PDI PWM4 PWM4 PWM4 PWM4 PWM4 PWM0 PWM4
Setting up the hardware
TWR-SB0800-36EVB tower system platform, Rev. 1.0
NXP Semiconductors 15
5.2 Tower board settingsA jumper block (J13) on the TWR-SB0800-36EVB provides a means of configuring the board for use with additional MCUs. The J13 jumper settings define the routing of all SPI signals, the reset signal from the MCU and the PWM motor control signal. In addition, jumper J10 allows you to select between either 3.3 V or 5.0 V depending on the requirement of the MCU being used.
Make sure that you set jumper J10 to the proper voltage level and that you set the jumpers on J13 to appropriate positions for the selected MCU. Check the schematic of each tower elevator board to assure that all signals are correctly connected.
Figure 10 shows the selection options on the TWR-SB0800-36EVB.
Figure 10. Jumpers for IO selection
Blue text indicates signals coming from the MC34SB0800 of the TWR-SB0800-36EVB.Red text indicates signals coming from the tower elevator board (Primary and Secondary).
Table 8 shows J13 jumper settings for compatible tower boards. These settings are important because the Reset (RSTB) and Chip Select (CSB) signals must be routed to MCU IO header positions that can handle such signals. Note that the ADIN1 pin can be used either to directly control the Pump Motor Pre-Driver or to measure external voltage.
5.3 Step-by-step instructions for setting up the hardwareTo perform the demonstration examples, the following connections and setup must be performed:
1. Mount the TWR-SB0800-36EVB and TWR-KL25Z48M board firmly to the tower elevator connectors. Notice that, on the board, the edge connector with the white stripe must be matched with the white connector on the primary elevator module.
2. Connect the positive wire from the power supply to the positive "VPWR" terminal on connector J2 of the TWR-SB0800-36EVB. Connect the negative wire from the power supply to the "AGND" terminal on connector J2.
3. Check to assure that all jumpers are in the default position on the TWR-SB0800-36EVB and the TWR-KL25Z48M board (refer to the tower MCU board User Guide).
4. Attach a USB mini-cable between the PC and the USB mini-plug connector on the TWR-KL25Z48M board. This cable serves as the VCC5 supply and the communication link between the tower boards platform and the PC.
Table 8. Jumper settings for compatible tower boards
TWR-KL25Z48M TWR-KV31F120M TWR-KV10Z32 TWR-K64F120M TWR-K20 TWR-K22F120 TWR-K70
RSTB GPIO1 GPIO1 GPIO1 GPIO1 GPIO8 GPIO1 GPIO2
CSB GPIO2 GPIO2 GPIO2 GPIO2 GPIO9 GPIO2 GPIO3
ADIN1 PWM4 PWM4 PWM4 PWM4 PWM4 PWM0 PWM4
GPIO1
GPIO2GPIO8
GPIO8
PWM0
PWM4PWM1
PWM5GPIO9
GPIO2GPIO3
GPIO8SB0800_CSB
SB0800_RESET SB0800_ADIN1
J13
HDR_2X10
1 23 4
657 89 10
11 1213 1415 1617 1819 20
Schematic
TWR-SB0800-36EVB tower system platform, Rev. 1.0
16 NXP Semiconductors
6 Schematic
Figure 11. Schematic part 1
Motor Function - 40A -
LSDx drain 5A maximum, be carefull
about wires size on Layout.
Current can raise at 70A peak during 2ms
and 10 A in DC, be aware about wire size on Layout.
In/Out Signal
Note :
Motor Pump -
Motor Pump +
Note :
C5 must be placed closed to pin
HSD Function - 20A -
Note :
Current can raise at 50A peak (for short
circuit tests)
and 30 A in DC, be aware about wire size on
Layout.
24 "CP" & pin 25 "VPWR"
VPW
R
SB08
00_P
D_D
SB08
00_P
D_G
VCC
5
SB08
00_P
D_S
AGN
D
DO
SV
SB08
00_R
ESET
VCC
5
SB08
00_P
D_D
SB08
00_P
D_G
SB08
00_P
D_S
SB08
00_H
D_S
SB08
00_H
D_G
SB08
00_H
D_D
VPW
R
DO
SV
VCC
5
VPW
R
SB08
00_H
D_S
SB08
00_H
D_G
SB08
00_H
D_D
AGN
D
AGN
D
AGN
D
AGN
D
AGN
D
AGN
D
AGN
D
AGN
D
AGN
D
AGN
D
AGN
D
VPW
R
VCC
5
AGN
D
DO
SV
SB08
00_R
ESET
SB08
00_C
SB
SB08
00_R
ESET
VPW
R
SB08
00_A
DIN
1SB
0800
_AD
IN2
SB08
00_A
DIN
3
MIS
O0
MO
SI0
SCLK
0
SB08
00_L
SD_2
SB08
00_L
SD_3
SB08
00_L
SD_4
SB08
00_L
SD_5
SB08
00_L
SD_6
SB08
00_L
SD_7
SB08
00_L
SD_8
SB08
00_L
D
SB08
00_H
SSB
0800
_LSD
_1
SB08
00_H
SD
SB08
00_P
53_C
FG
VPW
R
R10
1.8K
R7
2K
C8
1000
PF
D8
OR
ANG
E
A C
TP5
DN
P
R2
2K
SW1
PB s
witc
h
1 4
2 3
TP4
DN
P
TP10
DN
P
R4
1K
C9
10uF
Q1
RJK
0301
DPB
5
4
123
D2
GR
EEN
A C
R11
100
U1
MC
34SB
0800
AE
CP
24
HD
_D33
HD
_G31
HD
_S32
LSD
1_1
5
LSD
1_2
6
LSD
2_1
7
LSD
2_2
8
LSD
3_1
9
LSD
3_2
10
LSD
4_1
11
LSD
4_2
12
LSD
5_1
44
LSD
5_2
45
LSD
6_1
42
LSD
6_2
43
LSD
7_1
40
LSD
7_2
41
LSD
8_1
38
LSD
8_2
39
GND_P02
GND_P14
GND_P213
GND_P337
GND_P446
GND_A51
GND_D54
EPAD65
RS
T1
CS
16
SC
LK14
SI
15
SO
57
LD18
HS
26
AD
IN3
48A
DIN
249
AD
IN1
50
PD
_G28
PD
_S29
PD
_D30
NC
_33
NC
_17
17
NC
_19
19
NC
_20
20
NC
_21
21
NC
_22
22
NC
_23
23
NC
_27
27
NC
_34
34
NC
_35
35
NC
_36
36
NC
_47
47
NC
_58
58
NC
_59
59
NC
_60
60
NC
_61
61
NC
_62
62
NC
_63
63
DOSV56
VCC555
P53_CFG64
VPWR25
VINT_A52
VINT_D53
C7
0.22
uF
D3
GD
Z15B
-E3-
08
AC
D1
GD
Z15B
-E3-
08
AC
J1CO
N_2
_TB
A1
B2
R6
1.8K
C1
0.1U
F
R8
100
R9
100
C2
0.22
UF
C4
10uF
TP1
DN
P
D4
OR
ANG
E
A C
C6
1uF
C3
0.22
UF
D5
SS2H
10
AC
TP9
DN
P
R5
100
TP6
DN
P
TP3
DN
P
TP7
DN
P
TP2
DN
P
R1
0
Q2
RJK
0301
DPB
5
4
123
R3
10K
C10
0.1u
F
TP8
DN
P
D6
GD
Z15B
-E3-
08
AC
D7
GD
Z15B
-E3-
08
AC
C5
0.22
UF
Schematic
TWR-SB0800-36EVB tower system platform, Rev. 1.0
NXP Semiconductors 17
Figure 12. Schematic part 2
SUPPLY
VCC5 & ADIN Connector
MC34SB0800 LSD_1 to LSD_8
VCC5 - Supply
1 & 2
2 & 3
Pin
External VCC5
Tower VCC5
VCC
1 & 2
2 & 3
Pin
5V3.3V
DOSV
Digital Supply
Low Side Driver Connectors
1 & 2
2 & 3
Pin
3.3V
5V
P53_CFG
CO
N_V
CC
5
CO
N_V
CC
5
VPW
R
VCC
5
AGN
D
AGN
D
AGN
D
AGN
D
AGN
D
AGN
D
AGN
D
AGN
D
AGN
D
AGN
D
AGN
D
AGN
D
AGN
D
AGN
D
SB08
00_H
SDSB
0800
_LSD
_1
SB08
00_L
SD_2
SB08
00_L
SD_3
SB08
00_L
SD_4
VCC
5
SB08
00_A
DIN
1
SB08
00_A
DIN
2
SB08
00_A
DIN
3
SB08
00_H
S
SB08
00_L
D
DO
SV
AGN
D
VPW
R
TWR
_VC
C5
ELE_
PS_S
ENSE
_1TW
R_V
CC
3V3
VCC
5
SB08
00_H
SD
SB08
00_P
53_C
FG
SB08
00_L
SD_5
SB08
00_L
SD_6
SB08
00_L
SD_7
SB08
00_L
SD_8
C17
2200
PF
R15
1.8K
D22 O
RAN
GE
A CR
131.
8K
R17 0
D16
SS2H
10
AC
TP14
DN
P
R12
1.8K
D15
SS2H
10
AC
D9
SS2H
10
AC
D14
GR
EEN
A C
J2
CO
N_4
_TB
1234
C11
2200
PF
C16
2200
PF
D21
SS2H
10
AC
TP13
DN
PC
1522
00PF
C14
2200
PF
R16
10K
J6
CO
N_4
_TB
1234
J10
HD
R_1
X3
1 2 3
J3
CO
N_4
_TB
1234
R14
1K
TP11
DN
P
D13
SS2H
10
AC
C12
10uF
J9 HD
R 1
X2 T
H
1 2
D18
SS2H
10
AC
J5 HD
R_1
X3
1
2
3
TP12
DN
P
D12
SS2H
10
AC
D10
STPS
2H10
0AY
AC
C18
0.1u
F
D11
STPS
2H10
0AY
AC
J8CO
N_2
_TB
A1
B2
D17 O
RAN
GE
A C
D19
SS2H
10
AC
J7HD
R 1
X2 T
H
12
C21
2200
PF
C13
0.1u
F
J4
CO
N_4
_TB
1 2 3 4
C20
2200
PF
J11
HD
R_1
X3
123
D20
BLU
E
A C
C19
2200
PF
Schematic
TWR-SB0800-36EVB tower system platform, Rev. 1.0
18 NXP Semiconductors
Figure 13. Schematic part 3
Note:
Allows to adress several IO of MCU
TWR
_VC
C5
TWR
_VC
C5
AGN
DAG
ND
TWR
_VC
C5
AGN
D
AGN
D
AGN
D
AGN
D
AGN
D
AGN
D
AGN
DAG
ND
AGN
D
AGN
D
AGN
D
AGN
D
TWR
_VC
C5
TWR
_VC
C5
AGN
DAG
ND
AGN
D
AGN
D
AGN
D
AGN
D
AGN
D
AGN
DAG
ND
AGN
D
AGN
D
AGN
D
AGN
D
TWR
_VC
C3V
3
TWR
_VC
C3V
3
AGN
D
TWR
_VC
C3V
3
TWR
_VC
C3V
3TW
R_V
CC
3V3
TWR
_VC
C3V
3
TWR
_VC
C3V
3TW
R_V
CC
3V3
TWR
_VC
C3V
3
TWR
_VC
C3V
3TW
R_V
CC
3V3
TWR
_VC
C3V
3
AGN
D
TWR
_VC
C3V
3
GPI
O1
GPI
O2
GPI
O1
GPI
O2
GPI
O3
GPI
O8
GPI
O8
PWM
0
PWM
4
PWM
5PW
M4
PWM
0PW
M1
PWM
1
PWM
5G
PIO
9
GPI
O8
GPI
O9
GPI
O2
GPI
O3
GPI
O8
AGN
D
TWR
_VC
C5
ELE_
PS_S
ENSE
_1
TWR
_VC
C3V
3
MIS
O0
MO
SI0
SCLK
0
SB08
00_C
SB
SB08
00_R
ESET
SB08
00_A
DIN
1
J13
HD
R_2
X10
12
34 6
5 78
910
1112
1314
1516
1718
1920
SE
CO
ND
AR
YPC
I EXP
RES
S TO
WER
SYS
TEM
J12B
5V_3
D1
GN
D_1
7D
2
3.3V
_8D
3
ELE
_PS
_SE
NS
E_2
D4
GN
D_1
8D
5
GN
D_1
9D
6
SP
I2_C
LKD
7
SP
I2_C
S1
D8
SP
I2_C
S0
D9
SP
I2_M
OS
ID
10
SP
I2_M
ISO
D11
ETH
_CO
L_2
D12
ETH
_RX
ER
_2D
13
ETH
_TX
CLK
_2D
14
ETH
_TX
EN
_2D
15
GP
IO18
D16
GP
IO19
/SD
HC
D4
D17
GP
IO20
/SD
HC
D5
D18
ETH
_TX
D1_
2D
19
ETH
_TX
D0_
2D
20
ULP
I_N
XT/
US
B1_
DM
D21
ULP
I_D
IR/U
SB
1_D
PD
22
ULP
I_D
5/U
SB
2_D
MD
23
ULP
I_D
6/U
SB
2_D
PD
24
ULP
I_D
7D
25
GN
D_2
0D
26
LCD
_HS
YN
C/L
CD
_P24
D27
LCD
_VS
YN
C/L
CD
_P25
D28
AN
13D
29
AN
12D
30
GN
D_2
1D
31
LCD
_CLK
/LC
D_P
26D
32
TMR
11D
33
TMR
10D
34
GP
IO21
D35
3.3V
_9D
36
PW
M15
D37
PW
M14
D38
PW
M13
D39
PW
M12
D40
CA
NR
X1
D41
CA
NTX
1D
42
GP
IO22
D43
LCD
_OE
/LC
D_P
27D
44
LCD
_D0/
LCD
_P0
D45
LCD
_D1/
LCD
_P1
D46
LCD
_D2/
LCD
_P2
D47
LCD
_D3/
LCD
_P3
D48
GN
D_2
2D
49
GP
IO23
D50
GP
IO24
D51
LCD
_D12
/LC
D_P
12D
52
LCD
_D13
/LC
D_P
13D
53
LCD
_D14
/LC
D_P
14D
54
IRQ
_P/S
PI2
_CS
2D
55
IRQ
_O/S
PI2
_CS
3D
56
IRQ
_ND
57
IRQ
_MD
58
IRQ
_LD
59
IRQ
_KD
60
IRQ
_JD
61
IRQ
_ID
62
LCD
_D18
/LC
D_P
18D
63
LCD
_D19
/LC
D_P
19D
64
GN
D_2
3D
65
EB
I_A
D20
/LC
D_P
42D
66
EB
I_A
D21
/LC
D_P
43D
67
EB
I_A
D22
/LC
D_P
44D
68
EB
I_A
D23
/LC
D_P
45D
69
EB
I_A
D24
/LC
D_P
46D
70
EB
I_A
D25
/LC
D_P
47D
71
EB
I_A
D26
/LC
D_P
48D
72
EB
I_A
D27
/LC
D_P
49D
73
EB
I_A
D28
/LC
D_P
50D
74
EB
I_A
D29
/LC
D_P
51D
75
EB
I_A
D30
/LC
D_P
52D
76
EB
I_A
D31
/LC
D_P
53D
77
LCD
_D20
/LC
D_P
20D
78
LCD
_D21
/LC
D_P
21D
79
LCD
_D22
/LC
D_P
22D
80
GN
D_2
4D
81
3.3V
_10
D82
5V_4
C1
GN
D_2
5C
2
3.3V
_11
C3
3.3V
_12
C4
GN
D_2
6C
5
GN
D_2
7C
6
SC
L2C
7
SD
A2
C8
GP
IO25
C9
ULP
I_S
TOP
C10
ULP
I_C
LKC
11
GP
IO26
C12
ETH
_MD
C_2
C13
ETH
_MD
IO_2
C14
ETH
_RX
CLK
_2C
15
ETH
_RX
DV
_2C
16
GP
IO27
/SD
HC
D6
C17
GP
IO28
/SD
HC
D7
C18
ETH
_RX
D1_
2C
19
ETH
_RX
D0_
2C
20
ULP
I_D
0/U
SB
3_D
MC
21
ULP
I_D
1/U
SB
3_D
PC
22
ULP
I_D
2/U
SB
4_D
MC
23
ULP
I_D
3/U
SB
4_D
PC
24
ULP
I_D
4C
25
GN
D_2
8C
26
AN
11C
27
AN
10C
28
AN
9C
29
AN
8C
30
GN
D_2
9C
31
GP
IO29
C32
TMR
9C
33
TMR
8C
34
GP
IO30
C35
3.3V
_13
C36
PW
M11
C37
PW
M10
C38
PW
M9
C39
PW
M8
C40
RX
D2/
TSI0
C41
TXD
2/TS
I1C
42
RTS
2/TS
I2C
43
CTS
2/TS
I3C
44
RX
D3/
TSI4
C45
TXD
3/TS
I5C
46
RTS
3/TS
I6C
47
CTS
3/TS
I7C
48
GN
D_3
0C
49
LCD
_D4/
LCD
_P4
C50
LCD
_D5/
LCD
_P5
C51
LCD
_D6/
LCD
_P6
C52
LCD
_D7/
LCD
_P7
C53
LCD
_D8/
LCD
_P8
C54
LCD
_D9/
LCD
_P9
C55
LCD
_D10
/LC
D_P
10C
56
LCD
_D11
/LC
D_P
11C
57
TMR
16C
58
TMR
15C
59
TMR
14C
60
TMR
13C
61
LCD
_D15
/LC
D_P
15C
62
LCD
_D16
/LC
D_P
16C
63
LCD
_D17
/LC
D_P
17C
64
GN
D_3
1C
65
EB
I_B
E_3
2_24
/LC
D_P
28C
66
EB
I_B
E_2
3_16
/LC
D_P
29C
67
EB
I_B
E_1
5_8/
LCD
_P30
C68
EB
I_B
E_7
_0/L
CD
_P31
C69
EB
I_TS
IZE
0/LC
D_P
32C
70
EB
I_TS
IZE
1/LC
D_P
33C
71
EB
I_TS
/LC
D_P
34C
72
EB
I_TB
ST/
LCD
_P35
C73
EB
I_TA
/LC
D_P
36C
74
EB
I_C
S4/
LCD
_P37
C75
EB
I_C
S3/
LCD
_P38
C76
EB
I_C
S2/
LCD
_P39
C77
EB
I_C
S1/
LCD
_P40
C78
GP
IO31
/LC
D_P
41C
79
LCD
_D23
/LC
D_P
23C
80
GN
D_3
2C
81
3.3V
_14
C82
PR
IMA
RY
J12A
PCI E
XPR
ESS
TOW
ER S
YSTE
M
5V_1
B1
GN
D_1
B2
3.3V
_1B
3
ELE
_PS
_SE
NS
E_1
B4
GN
D_2
B5
GN
D_3
B6
SD
HC
_CLK
/SP
I1_C
LKB
7
SD
HC
_D3/
SP
I1_C
S1
B8
SD
HC
_D3/
SP
I1_C
S0
B9
SD
HC
_CM
D/S
PI1
_MO
SI
B10
SD
HC
_D0/
SP
I1_M
ISO
B11
ETH
_CO
L_1
B12
ETH
_RX
ER
_1B
13
ETH
_TX
CLK
_1B
14
ETH
_TX
EN
_1B
15
ETH
_TX
ER
_1B
16
ETH
_TX
D3_
1B
17
ETH
_TX
D2_
1B
18
ETH
_TX
D1_
1B
19
ETH
_TX
D0_
1B
20
GP
IO1/
RTS
1B
21
GP
IO2/
SD
HC
_D1
B22
GP
IO3
B23
CLK
IN0
B24
CLK
OU
T1B
25
GN
D_4
B26
AN
7B
27
AN
6B
28
AN
5B
29
AN
4B
30
GN
D_5
B31
DA
C1
B32
TMR
3B
33
TMR
2B
34
GP
IO4
B35
3.3V
_2B
36
PW
M7
B37
PW
M6
B38
PW
M5
B39
PW
M4
B40
CA
NR
X0
B41
CA
NTX
0B
42
1WIR
EB
43
SP
I0_M
ISO
/IO1
B44
SP
I0_M
OS
I/IO
0B
45
SP
I0_C
S0
B46
SP
I0_C
S1
B47
SP
I0_C
LKB
48
GN
D_6
B49
SC
L1B
50
SD
A1
B51
GP
IO5/
SP
I0_H
OLD
/IO3
B52
US
B0_
DP
_PD
OW
NB
53
US
B0_
DM
_PD
OW
NB
54
IRQ
_HB
55
IRQ
_GB
56
IRQ
_FB
57
IRQ
_EB
58
IRQ
_DB
59
IRQ
_CB
60
IRQ
_BB
61
IRQ
_AB
62
EB
I_A
LE/E
BI_
CS
1B
63
EB
I_C
S0
B64
GN
D_7
B65
EB
I_A
D15
B66
EB
I_A
D16
B67
EB
I_A
D17
B68
EB
I_A
D18
B69
EB
I_A
D19
B70
EB
I_R
/WB
71
EB
I_O
EB
72
EB
I_D
7B
73
EB
I_D
6B
74
EB
I_D
5B
75
EB
I_D
4B
76
EB
I_D
3B
77
EB
I_D
2B
78
EB
I_D
1B
79
EB
I_D
0B
80
GN
D_8
B81
3.3V
_3B
82
5V_2
A1
GN
D_9
A2
3.3V
_4A
3
3.3V
_5A
4
GN
D_1
0A
5
GN
D_1
1A
6
SC
L0A
7
SD
A0
A8
GP
IO9/
CTS
1A
9
GP
IO8/
SD
HC
_D2
A10
GP
IO7/
SD
_WP
_DE
TA
11
ETH
_CR
SA
12
ETH
_MD
C_1
A13
ETH
_MD
IO_1
A14
ETH
_RX
CLK
_1A
15
ETH
_RX
DV
_1A
16
ETH
_RX
D3_
1A
17
ETH
_RX
D2_
1A
18
ETH
_RX
D1_
1A
19
ETH
_RX
D0_
1A
20
SS
I_M
CLK
A21
SS
I_B
CLK
A22
SS
I_FS
A23
SS
I_R
XD
A24
SS
I_TX
DA
25
GN
D_1
2A
26
AN
3A
27
AN
2A
28
AN
1A
29
AN
0A
30
GN
D_1
3A
31
DA
C0
A32
TMR
1A
33
TMR
0A
34
GP
IO6
A35
3.3V
_6A
36
PW
M3
A37
PW
M2
A38
PW
M1
A39
PW
M0
A40
RX
D0
A41
TXD
0A
42
RX
D1
A43
TXD
1A
44
VS
SA
A45
VD
DA
A46
VR
EFA
1A
47
VR
EFA
2A
48
GN
D_1
4A
49
GP
IO14
A50
GP
IO15
A51
GP
IO16
A52
GP
IO17
A53
US
B0_
DM
A54
US
B0_
DP
A55
US
B0_
IDA
56
US
B0_
VB
US
A57
TMR
7A
58
TMR
6A
59
TMR
5A
60
TMR
4A
61
RS
TIN
A62
RS
TOU
TA
63
CLK
OU
T0A
64
GN
D_1
5A
65
EB
I_A
D14
A66
EB
I_A
D13
A67
EB
I_A
D12
A68
EB
I_A
D11
A69
EB
I_A
D10
A70
EB
I_A
D9
A71
EB
I_A
D8
A72
EB
I_A
D7
A73
EB
I_A
D6
A74
EB
I_A
D5
A75
EB
I_A
D4
A76
EB
I_A
D3
A77
EB
I_A
D2
A78
EB
I_A
D1
A79
EB
I_A
D0
A80
GN
D_1
6A
81
3.3V
_7A
82
Board layout
TWR-SB0800-36EVB tower system platform, Rev. 1.0
NXP Semiconductors 19
7 Board layout
7.1 Silkscreen
Board bill of materials
TWR-SB0800-36EVB tower system platform, Rev. 1.0
20 NXP Semiconductors
8 Board bill of materials
Table 9. Bill of materials(1)
Item Qty Schematic label Value Description Part Number Assy Opt
NXP components
1 1 U1IC VALVES AND PUMP CONTROLLER3.3 V / 5.0 V LQFP64
MC34SB0800AE
Active components
2 2 Q1, Q2 TRAN NMOS PWR 60 A 30 V LFPAK5 RJK0301DPB-00-J0Use referencePSMN1R8-40YLC
Diodes
3 4 D1, D3, D6, D7DIODE ZNR 5 MA 15V 0.2 W AEC-Q101 SOD-323
GDZ15B-E3-08
4 2 D2, D14 GREEN LED GRN SGL 30 MA SMT 0805 LTST-C171KGKT
5 2 D4, D8 ORANGE LED OR SGL 30 MA 0805 SMT APHCM2012SECK-F01 (2)
6 9D5, D9, D12, D13, D15, D16, D18, D19, D21
SS2H10 DIODE SCH RECT 2 A 100 V DO-214AA SS2H10-E3/52T
7 2 D10, D11DIODE PWR RECT SCH 2 A 100 V AEC-Q101 SMA
STPS2H100AY
8 2 D17, D22 ORANGE LED OR SGL 30 MA 0805 SMT APHCM2012SECK-F01
9 1 D20 BLUE LED BLUE SGL 30 mA 2.6 V 0603 UT-692NB
Capacitors
10 1 C1 0.1 μF CAP CER 0.1 μF 50 V 10% X7R 0603 GRM188R71H104KA93D (2)
11 3 C2, C3, C5 0.22 μF CAP CER 0.22 μF 50 V 5% X7R 1206 C1206C224J5RACTU
12 3 C4, C9, C12 10 μFCAP CER 10 μF 50 V 10% X7S AEC-Q200 1210
GCM32EC71H106KA03
13 1 C6 1 μF CAP CER 1 μF 25 V 10% X7R 0603 0603X105K250SNT
14 1 C7 0.22 μF CAP CER 0.22 μF 100 V 20% X7S 0805 C2012X7S2A224M/SOFT
15 1 C8 1000 pF CAP CER 1000 pF 25 V 5% C0G CC0603 C0603C102J3GACReplace by a strap or 0 ohm resistor
16 3 C10, C13, C18 0.1 μFCAP CER 0.1 μF 50 V 5% C0G AEC-Q200 1206
CGA5L2C0G1H104J160AA
17 8C11, C14, C15, C16, C17, C19, C20, C21
2200 pF CAP CER 2200 pF 50 V 5% X7R 0805 MCCE222J2NRTF
Resistors
18 1 R1 0 Ω RES MF ZERO Ω 1/10 W -- AEC-Q200 0603 CRCW06030000Z0EA
19 2 R2, R7 2 Ω RES MF 2 Ω 1/8 W 1% 0805 CR0805-FX-2001ELF
20 2 R3, R16 10 Ω RES MF 10 Ω 1/4 W 5% 1206 CR1206JW103ELF
21 2 R4, R14 1 Ω RES MF 1 Ω 1/10 W 0.5% 0603 MCT06030C1001DP500
22 4 R5, R8, R9, R11 100 Ω RES MF 100 Ω 1/10 W 1% AEC-Q200 0603 CRCW0603100RFKEA
23 2 R6, R10 1.8 Ω RES MF 1.8 Ω 1/10 W 5% 0603 WR06X182JTL (2)
24 3 R12, R13, R15 1.8 Ω RES MF 1.8 Ω 1/10 W 5% 0603 WR06X182JTL
25 1 R17 0 Ω RES MF ZERO Ω 1/10W -- AEC-Q200 0603 CRCW06030000Z0EA (2)
Switches, connectors, jumpers and test points
26 2 J1, J8 CON_2_TB CON 1X2 TB TH 5 MM SP 394H SN CTB5000/2
27 4 J2, J3, J4, J6 CON_4_TB CON 1X4 TB TH 5 MM SP 394H SN 282836-4
28 2 J5, J11 HDR_1X3 HDR 1X3 TH 100 MIL SP 374H AU 826629-3Place jumper on pin 2–3
29 2 J7, J9HDR 1X2 TH
HDR 1X2 TH 100 MIL SP 339H AU 98L TSW-102-07-G-SPlace jumper on pin 1–2
30 1 J10 HDR_1X3 HDR 1X3 TH 100 MIL SP 374H AU 826629-3Place jumper on pin 1–2
31 1 J12
PCI EXPRESS TOWER SYSTEM
CON DUAL 2X82 Edge PCI Express SMT 1MM SP 591H FOR TOWER SYSTEM NOT A PART TO ORDER
EDGE PCI EXPRESS 164
Board bill of materials
TWR-SB0800-36EVB tower system platform, Rev. 1.0
NXP Semiconductors 21
32 1 J13 HDR_2X10 HDR 2X10 SMT 50 MIL SP 251H AU FTSH-110-01-L-DV-KPlace jumpers on pin 1–3 and on pin 17–19
33 1 SW1 PB switchSW SMT 4.0 MM FMS 0.1A MAX 16V MAX ROHS COMPLIANT
7914J-1-000E
34 14
TP1, TP2, TP3, TP4, TP5, TP6, TP7, TP8, TP9, TP10, TP11, TP12, TP13, TP14
TEST POINT WHITE
TEST POINT WHITE 40 MIL DRILL 180 MIL TH 109L
5002 (2)
Notes 1. NXP does not assume liability, endorse, or warrant components from external manufacturers are referenced in circuit drawings or tables. While
NXP offers component recommendations in this configuration, it is the customer’s responsibility to validate their application.2. Do not populate
Table 9. Bill of materials(1)
Item Qty Schematic label Value Description Part Number Assy Opt
References
TWR-SB0800-36EVB tower system platform, Rev. 1.0
22 NXP Semiconductors
9 ReferencesFollowing are URLs where you can obtain information on related NXP products and application solutions:
9.1 SupportVisit www.nxp.com/support for a list of phone numbers within your region.
9.2 WarrantyVisit www.nxp.com/warranty for a list of phone numbers within your region.
NXP.com Support Pages Description URL
TWR-SB0800-36EVB Tool Summary Page www.nxp.com/TWR-SB0800-36EVB
MC34SB0800 Product Summary Page www.nxp.com/MC34SB0800
Tower SystemTower System Modular Development Board Platform
www.nxp.com/tower
TWR-KL25Z48M Tool Summary Page www.nxp.com/TWR-KL25Z48M
K20D72M Tool Summary Page www.nxp.com/K20D72M
KV13F120M Tool Summary Page www.nxp.com/KV31F120M
Kinetis Design Studio Software www.nxp.com/kinetis
CodeWarrior Software www.nxp.com/codewarrior
Revision history
TWR-SB0800-36EVB tower system platform, Rev. 1.0
NXP Semiconductors 23
10 Revision history
Revision Date Description of Changes
1.01/2016 • Initial release
7/2016 • Updated to NXP document form and style
Information in this document is provided solely to enable system and software implementers to use NXP products. There
are no expressed or implied copyright licenses granted hereunder to design or fabricate any integrated circuits based on
the information in this document. NXP reserves the right to make changes without further notice to any products herein.
NXP makes no warranty, representation, or guarantee regarding the suitability of its products for any particular purpose,
nor does NXP assume any liability arising out of the application or use of any product or circuit, and specifically disclaims
any and all liability, including without limitation, consequential or incidental damages. "Typical" parameters that may be
provided in NXP data sheets and/or specifications can and do vary in different applications, and actual performance may
vary over time. All operating parameters, including "typicals," must be validated for each customer application by the
customer's technical experts. NXP does not convey any license under its patent rights nor the rights of others. NXP sells
products pursuant to standard terms and conditions of sale, which can be found at the following address:
http://www.nxp.com/terms-of-use.html.
NXP, the NXP logo, Freescale, the Freescale logo, and SMARTMOS are trademarks of NXP B.V. All other product or
service names are the property of their respective owners. All rights reserved.
© 2016 NXP B.V.
How to Reach Us:Home Page: NXP.com
Web Support: http://www.nxp.com/support
Document Number: KTTWRSB0800-36EVBUGRev. 1.0
7/2016