2. EVB FEATURES .................................................................................................................................................................................. 3
5.1. Power Supply Configuration ....................................................................................................................................................... 7
5.1.1. Power Supply Connectors (P21, P23) .................................................................................................................................... 7
5.1.2. Power Switch (SW5) .............................................................................................................................................................. 8
5.1.3. Regulator Power Jumper (J23) ............................................................................................................................................... 8
5.1.4. Power Status LED’s and Fuse ................................................................................................................................................ 8
5.1.6. Daughtercard Power Jumpers (J3 to J11) ............................................................................................................................. 10
5.1.7. Peripheral Power Supply Jumpers (J24, J25) ....................................................................................................................... 11
5.1.8. EVB Voltage Regulators ...................................................................................................................................................... 11
5.2. Reset Control (J9, SW1) ............................................................................................................................................................ 13
Note that removing jumper J9 will mean that an external reset source will not reset the MCU. This will impact most debuggers
which will typically issue a reset before establishing a debug connection. .......................................................................................... 13
6.1. CAN Interfaces (P14, P15, J14, J15) ......................................................................................................................................... 17
6.2. LIN Interfaces (P9, P11, J10, J12) ............................................................................................................................................. 18
6.3. USB RS232 Serial Interface (P17, J16) ..................................................................................................................................... 19
6.4. USB HOST / OTG Interfaces .................................................................................................................................................... 20
12. REVISION HISTORY ......................................................................................................................................................................... 33
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Page 3
1. Introduction
This user guide details the setup and configuration of the Freescale MPC5748G customer Evaluation
Board (hereafter referred to as the EVB). The EVB is intended to provide a mechanism for easy
evaluation of the MPC5748G family of microcontrollers, and to facilitate hardware and software
development. Various daughtercards are available which connect to the EVB via two high density
connectors. Please consult your Freescale representative for more details on daughtercard pricing and
availability.
The EVB is intended for bench / laboratory use and has been designed using normal temperature
specified components (+70°C).
This product contains components that may be damaged by electrostatic discharge. Observe precautions
for handling electrostatic sensitive devices when using this EVB and associated microcontroller.
The user manual is intended to be read alongside the respective MCU documentation available at
The EVB has connectors for various peripheral daughtercards (for example MLB) that provide
additional peripheral functionality. These are not supplied with the EVB and must be sourced separately.
Please contact your Freescale representative for pricing and availability.
2. EVB Features
The EVB provides the following key features:
Single 10-14 V DC external power supply input with on-board regulators to provide all of the
necessary EVB and MCU voltages. Power may be supplied to the EVB via a 2.1 mm barrel style
power jack or a 2-way screw type connector. 12 V operation allows in-car use if desired.
Master power switch and regulator status LED’s.
USB Serial interface
2 x High Speed CAN transceiver routed to 3-way headers
2 x LIN interfaces routed to standard Molex headers
Main clock supplied from on board crystal or SMA connector
User reset switch with reset status LED’s
Ethernet PHY and RJ45 socket configurable as RMII or MII
USB Type A Host interface
USB Type AB (micro USB) OTG interface
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Page 4
2 x FlexRay interfaces with standard 2-pin connectors
14-pin JTAG and 50 pin Nexus (Trace) connectors
2 x High Density daughter card connectors allowing an MCU specific daughtercard to be fitted1
MLB daughtercard connector
SAI Audio board connectors (2 x 0.1 inch pitch headers and 2 x TWRPI style headers)
SD connector (mounted to the underside of the board) supporting hardware write protect and
card detection
4 user LEDs wired to MCU ports, also available at a user header
4 user pushbutton switches wired to MCU ports, also available at a user header
Hexadecimal encoded switch wired to 4 MCU ports, also available at a user header
Simple potentiometer connected to analogue input channel
NOTE
To alleviate confusion between jumpers and connector headers, all EVB
jumpers are 2 mm pitch whereas headers are 0.1 inch (2.54 mm). This
prevents inadvertently fitting a jumper to a header.
1
There is no MCU fitted to the EVB. A daughtercard must be fitted before the EVB can be used.
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Page 5
Configuration Overview
3. Configuration Overview
Throughout this document, all of the default jumper and switch settings are clearly marked with “(D)”
and are shown in blue text. This allows a more rapid return to the default state of the EVB if required.
Note that the default configuration for 3-way jumpers is a header fitted between pins 1 and 2. On the
EVB, 2-way, and 3-way jumpers have been aligned such that pin1 is either to the top or to the left of the
jumper. On 2-way jumpers, the source of the signal is connected to pin1.
The EVB has been designed with ease of use in mind and has been segmented into functional blocks as
shown below. Detailed silkscreen legend has been used throughout the board to identify all switches,
jumpers and user connectors.
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Figure 1. EVB Functional Blocks
Page 6
4. MCU Daughtercard information
In order to use the EVB, an MCU daughtercard must be fitted as described in the following section.
Before fitting or removing a daughtercard, ensure the EVB is powered OFF
4.1.
Fitting a daughtercard
Gently place the daughtercard on the EVB connectors ensuring the correct orientation as shown in the
following figure. The connectors are polarized so the daughtercard will only fit in one orientation (with
the jumpers at the bottom of the daughtercard). Once the connectors have been located correctly, firmly
push down all four corners of the daughter card simultaneously in order to ensure the connectors are
mated. (The following picture also shows the default jumper positions for the 256BGA daughtercard)
Figure 2. Daughtercard Fitted to EVB
4.2.
Removing a daughtercard
In order to prevent damage to the daughtercard connectors, it is important to remove the daughtercard
correctly. Carefully lift either the top or bottom edge of the daughtercard and it should easily lift off as
shown in the following figure (viewed from the left side of the EVB).
Figure 3. Removing a daughtercard
CAUTION
Do not attempt to lift the left or right edge of the daughtercard as this will
result in connector damage.
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Page 7
Initial Configuration
The Power supply
section is located in
the bottom left
corner of the EVB
5. Initial Configuration
This section details the power, reset, clocks, and debug configuration which is the minimum
configuration needed in order to power ON the EVB.
5.1.
Power Supply Configuration
The EVB requires an external power supply voltage of between 10 V-14 V DC (nominal 12 V),
minimum 2 A. This allows the EVB to be used in a vehicle if required. The 12 V input is regulated on
the EVB using two switching and three linear regulators to provide the required voltages of 5.0 V, 3.3 V
(both linear and switcher) and 1.25 V (linear). For flexibility, there are two power supply input
connectors on the EVB as detailed below:
5.1.1.
Power Supply Connectors (P21, P23)
2.1 mm Barrel Connector – P21
This connector should be used to connect the supplied wall-plug mains adapter. Note – if a
replacement or alternative adapter is used, care must be taken to ensure the 2.1 mm plug uses the
correct polarisation as shown below:
Figure 4. 2.1mm Power Connector
2-Way Screw Type Connector – P23
This can be used to connect a bare wire lead to the EVB, typically from a laboratory power supply.
The polarisation of the connectors is clearly marked on the EVB. Care must be taken to ensure
correct connection.
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Figure 5. 2-Lever Power Connector
Page 8
Jumper
Position
PCB Legend
Description
J23
(INPUT SEL)
1-2 (D)
12V
1.25V Linear regulator is powered from main 12V
2-3
5V
1.25V Linear regulator is powered from 5V switching regulator output
Removed
1.25V Linear regulator is not powered (disabled)
5.1.2.
Power Switch (SW5)
Slide switch SW5 can be used to isolate the power supply input from the EVB voltage regulators if
required.
Moving the slide switch to the right (away from the fuse) will turn the EVB OFF.
Moving the slide switch to the left (towards the fuse) will turn the EVB ON.
5.1.3.
Regulator Power Jumper (J23)
All of the regulators are permanently powered from the main 12 V supply line and active with the
exception of the 1.25 V linear regulator which has a 3-way jumper to allow selection of the input
voltage.
The table below details the jumper configurations for the linear 1.25 V regulator source voltage. By
default, the regulator is powered from the 12 V supply line.
Table 1. 1.25 V Linear Regulator Source Select (J23)
5.1.4.
Power Status LED’s and Fuse
When power is applied to the EVB, five green LED’s adjacent to the voltage regulators show the
presence of the supply voltages as follows:
LED DS4 – Indicates that the 1.25V linear regulator is enabled and working correctly
LED DS5 – Indicates that the 5.0V linear regulator is enabled and working correctly
LED DS6 – Indicates that the 3.3V linear regulator is enabled and working correctly
LED DS9 – Indicates that the 5.0V switching regulator is enabled and working correctly
LED DS10 – Indicates that the 3.3V switching regulator is enabled and working correctly
If no LED’s are illuminated when power is applied to the EVB and the regulators are correctly enabled
using the appropriate jumpers, it is possible that either power switch SW5 is in the “OFF” position or
that the fuse F1 has blown. The fuse is provided to protect the external power supply and for EVB
circuitry reverse-bias protection. If the fuse has blown, check the polarity of your power supply and
replace the fuse with a 20 mm 1.5 A fast blow fuse.
Note that the fuse will not protect against one of the EVB regulators being shorted. If this happens,
damage is likely to occur to the EVB and / or components.
CAUTION
In the event of a short in the regulator output, the regulator and/or the
shorted component may be hot
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Page 9
Initial Configuration
The MCU Daughtercard
power jumpers are in the
bottom left quarter of the
EVB, above the power
5.1.5.
MCU Power Supply Jumpers
(J18, J19, J20, J21, J22, J23)
All of the regulated power supplies are routed to the MCU daughtercard via jumpers. This allows each
power supply to be individually isolated and facilitates current measurement at the respective jumper.
Note that only the daughtercard is connected to the power lines after the jumpers so MCU current
measurements are accurate. There are an additional two jumpers that control the voltages used by EVB
peripherals connected to the VDD_HV_A and VDD_HV_B domains as described in section 5.1.7.
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Figure 6. Power Supply Jumper Schematic
Page 10
Jumper
Position
PCB Legend
Description
J18
1V25L
Fitted (D)
1.25V Linear regulator output is routed to daughter card
Removed
1.25V Linear regulator output is disconnected from daughtercard
J19
5V0S
Fitted (D)
5.0V Switching regulator output is routed to daughter card
Removed
5.0V Switching regulator output is disconnected from daughtercard
J20
3V3L
Fitted (D)
3.3V Linear regulator output is routed to daughter card
Removed
3.3V Linear regulator output is disconnected from daughtercard
J21
5V0L
Fitted (D)
5.0V Linear regulator output is routed to daughter card
Removed
5.0V Linear regulator output is disconnected from daughtercard
J22
3V3S
Fitted (D)
3.3V Switching regulator output is routed to daughter card
Removed
3.3V Switching regulator output is disconnected from daughtercard
J23
INPUT SEL
(Above Power
Jack)
1-2 (D)
12V
1.25v Linear regulator is powered by main 12V input
2-3
5V
1.25v Linear regulator is powered by output from 5.0V switching reg
Removed
1.25v Linear regulator is not powered (disabled)
Jumper
Position
PCB Legend
Description
J3
ADC0
1-2 (D)
3V3
MCU ADC0 pin is connected to 3.3V (Linear)
2-3
5V0
MCU ADC0 pin is connected to 5.0V (Linear)
Removed
MCU ADC0 pin is not connected to power
J4
ADC1
1-2 (D)
3V3
MCU ADC1 pin is connected to 3.3V (Linear)
2-3
5V0
MCU ADC1 pin is connected to 5.0V (Linear)
Removed
MCU ADC1 pin is not connected to power
J5
HVA
1-2 (D)
3V3
MCU VDD_HV_A domain is connected to 3.3V (Switching Regulator)
2-3
5V0
MCU VDD_HV_A domain is connected to 5.0V (Switching Regulator)
Removed
MCU VDD_HV_A domain is not connected to power
J6
HVB
1-2 (D)
3V3
MCU VDD_HV_B domain is connected to 3.3V (Switching Regulator)
2-3
5V0
MCU VDD_HV_B domain is connected to 5.0V (Switching Regulator)
Removed
MCU VDD_HV_B domain is not connected to power
J7
HVC
1-2 (D)
3V3
MCU VDD_HV_C domain is connected to 3.3V (Switching Regulator)
2-3
5V0
MCU VDD_HV_C domain is connected to 5.0V (Switching Regulator)
Removed
MCU VDD_HV_C domain is not connected to power
The power supply jumper description table is shown in the following table:
Table 2. Daughter Card Power Supply Jumpers (on main board)
5.1.6.
The following power control jumpers are located on the MCU daughtercard. Note that not all of the
jumpers will be on each daughtercard variant.
Daughtercard Power Jumpers (J3 to J11)
Table 3. MCU Power Supply Jumpers (on daughtercard)
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Initial Configuration
Jumper
Position
PCB Legend
Description
J8 2
FLA
Fitted (D)
MCU VDD_HV_FLA pin is connected to 3.3v (Switching Regulator)
Removed
MCU VDD_HV_C domain is connected to 5.0V (Switching Regulator)
J9
REG
1-2 (D)
3V3
MCU ballast transistor collector is connected to 3.3V (Switching)
2-3
5V0
MCU ballast transistor collector is connected to 5.0V(Switching)
Removed
MCU ballast transistor collector is not connected to power
J10
VDDLV
1-2 (D)
REG
MCU VDD_LV domain is powered from ballast transistor
2-3
1V25L
MCU VDD_LV domain is powered from 1.25V Linear regulator
Removed
MCU VDD_LV domain is not powered
J11
DAC
1-2 (D)
HVA
MCU VIN1_CMP_REF is powered from VDD_HV_A
2-3
USR
MCU VIN1_CMP_REF is powered from user testpoint (TPH3)
Removed
MCU VIN1_CMP_REF is not powered
Jumper
Position
PCB Legend
Description
J24
HVA
1-2 (D)
3V3
EVB peripherals in HVA domain are set to use I/O voltage of 3.3V
2-3
5V0
EVB peripherals in HVA domain are set to use I/O voltage of 5.0V
Removed
Invalid Configuration, avoid!
J25
HVB
1-2 (D)
3V3
EVB peripherals in HVB domain are set to use I/O voltage of 3.3V
2-3
5V0
EVB peripherals in HVB domain are set to use I/O voltage of 5.0V
Removed
Invalid Configuration, avoid!
The peripheral power
jumpers are in the bottom
left quarter of the EVB,
above the power area
5.1.7.
Peripheral Power Supply Jumpers (J24, J25)
There are two additional power supply jumpers controlling the I/O voltage for the peripherals on the
EVB in the HVA and HVB voltage domains.
The settings on these jumpers must match the VDD_HV_A and VDD_HV_B jumper voltage setting on
the MCU daughtercard.
The default configuration matches the MCU daughtercard default configuration with both jumpers set to
3.3V.
Table 4. Peripheral Power Control (J24, J25)
5.1.8.
EVB Voltage Regulators
The following table shows the usage of each EVB voltage regulator. This provides a useful cross
reference point should any regulator be disabled. In addition, the distribution of the peripheral voltages
HVA (J24) and HVB (J25) are shown.
2
Note that jumper J8 (FLA) jumper must only be fitted when VDD_HV_A (J5) is connected to 3.3V.
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Page 12
Regulator
Used On
12V
(Unregulated)
P12V
All voltage regulators (switching and Linear, jumper selectable on 1.25V linear)
1.25V linear regulator LED supply via FET
MCU Daughtercard connector
MLB Daughtercard connector
FlexRay transceiver VBAT pin
5.0V
Switcher
5V0_SR
Daughtercard connector (post daughtercard power jumper)
Daughtercard connector (direct feed via zero ohm link)
Peripheral power control jumpers (position 2-3)
CAN transceivers VCC (main power)
USB RS232 (FTDI) transceiver (main power and protection diode)
USB Host / OTG transceiver power (VBAT) pin
FlexRay Transceiver power pins (VCC / VBUF)
SAI Audio connector
Input to 1.25V linear regulator (in alternate jumper configuration)
3.3V
Switcher
3V3_SR
Daughtercard connector (post daughtercard power jumper)
Daughtercard connector (direct feed via zero ohm link)
Peripheral power control jumpers (position 1-2)
Reset LED’s (user and target)
USB HOST / OTG transceiver I/O voltage (USB operation is fixed at 3.3V)3
Ethernet Transceiver supply and I/O (Ethernet operation is fixed at 3.3V) 3
SAI Audio connector
MLB Daughtercard connector
SD Card power supply / pullup resistors (SD Card operation is fixed at 3.3V)3User LED’s supply voltage
Hex encoder switch supply voltage
User pushbutton switches supply voltage
5.0V
Linear
5V0_LR
Daughtercard connector (post daughtercard power jumper)
Daughtercard connector (direct feed via zero ohm link)
3.3V
Linear
3V3_LR
Daughtercard connector (post daughtercard power jumper)
Daughtercard connector (direct feed via zero ohm link)
MLB Daughtercard connector
ADC Input Pot (user variable resistor)
1.25V
Linear
1V25_LR
Daughtercard connector (post daughtercard power jumper)
Daughtercard connector (direct feed via zero ohm link)
J24 PER_HVA
Reset control circuitry (including reset pullup)
JTAG Pullup resistors & reference voltage
CAN Transceiver I/O Voltage select
LIN Transceiver Enable (and I/O voltage select)
USB RS232 (FTDI) transceiver I/O voltage select
FlexRay Transceiver I/O Voltage select (and pullups)
J25 PER_HVB
Nexus Connector reference voltage and Pullups
Table 5. Power Supply Distribution
3
These voltages are fixed due to device specifications and cannot be changed.
12 Freescale Semiconductor, Inc.
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Page 13
Initial Configuration
Jumper
Position
PCB Legend
Description
J9 (EN)
Fitted (D)
Reset from reset switch and debug connectors is active
Removed
Reset from reset switch and debug connectors is inactive
The reset circuitry and
switch are located in the
top left quarter of the
EVB next to theRJ45
Note that the JTAG pins are in domain VDD_HV_A whereas the Nexus pins are VDD_HV_B.
Normally this would mean that for trace, the HVA and HVB domains should be at the same voltage
however some development tools can automatically adapt to the voltages on the trace signals. Please
consult your tools vendor for further details.
5.2.
Reset Control (J9, SW1)
The MCU has a single bi-directional open drain Reset pin. Rather than connect multiple devices to the
reset pin directly, a reset-in and reset-out buffering scheme has been implemented on the EVB as shown
in Figure 7 below. The reset “in” from the reset switch (SW1) and the debug connectors are logically OR’d together using an AND gate and then connected to the buffer to provide an open-drain output.
The “reset-out” circuitry provides a buffered reset signal that can be used to drive any circuitry requiring
a reset control from the MCU.
Jumper J9 is used to disconnect the reset signal from the external reset sources if required.
Note that removing jumper J9 will mean that an external reset source will not reset the MCU. This will
impact most debuggers which will typically issue a reset before establishing a debug connection.
5.2.1.
Reset LEDs
As can be seen in Figure 7 above, there are two reset LED’s that can be used to identify the source /
cause of a reset:
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Figure 7. EVB Reset Control
Table 6. Reset Control (J9)
Page 14
LED DS1 (Yellow)
LED D1 (Red)
Description
OFF
OFF
No Reset being issued from MCU or external logic
OFF
ON
MCU has issued a reset
ON
OFF
External reset issued from switch or debug BUT not being issued to MCU
(check J9 is fitted on the EVB)
ON
ON
External reset issued from reset switch or debug and has been issued to MCU.
RED LED D1 (titled “MCU”) will illuminate if:
The MCU issues a reset (in this condition ONLY this LED will be illuminated and LED DS1
will be off)
There is a target reset (ie from the reset switch or from the debugger in which case LED DS1
will be ON)
YELLOW LED DS1 (titled “USR”) will illuminate when an external hardware device issues a reset to
the MCU:
The reset switch is pressed
There is a reset being driven from one of the debug connectors
Table 7. Reset LED Decoding
MCU Clock Configuration
5.3.
There are 2 clock configuration jumpers on the daughtercard and an external clock input connector on
the main board to allow an externally generated clock to be supplied if desired. See Figure 8 below.
Figure 8. EVB Clock Selection
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Page 15
Initial Configuration
Jumper
Position
PCB Legend
Description
J1 (XTAL)
1-2 (D)
Y1
MCU XTAL signal is routed to crystal Y1
2-3
GND
MCU XTAL signal is Grounded (for ext clock mode)4
J2 (EXTAL)
1-2 (D)
Y1
MCU EXTAL signal is routed to crystal Y1
2-3
EXT
MCU EXTAL signal is routed from EVB SMA P7
The external SMA
clock connector is
located in the top left
corner of the EVB
5.3.1.
External Clock Input (P7)
The external clock input on the EVB is applied via SMA connector P7. When driving an external clock
into the SMA connector, the jumpers on the daughtercard must be reconfigured to route the external
clock to the MCU.
Note that the following conditions must be met when supplying an external clock:
The clock frequency must be between 8MHz and 40MHz
The amplitude of the clock input should not exceed the voltage being driven into the
VDD_HV_A pins. This is selectable between 3.3V and 5.0V on the daughtercard.
5.3.2.
MCU Clock Configuration (J1, J2 on Daughtercard)
There are two external clock crystals on the MPC5748G daughtercards:
40MHz fast external crystal for clocking the main system clock
32KHz slow external crystal for accurate time of day keeping
The 40MHz crystal is connected to the MCU XTAL and EXTAL pins via 3-way jumper headers as
shown in the diagram above. These jumpers allow an external clock to be routed from the SMA
connector (P7) on the main board if desired. The default configuration is with both daughtercard
jumpers (J1 and J2) set to position 1-2 which routes the external 40MHz crystal to the MCU pins. If you
wish to supply a clock via the SMA connector on the main EVB, move the daughtercard jumpers J1 and
J2 to position 2-3.
The 32 KHz external crystal is permanently connected to the MCU EXTAL32 and XTAL32 pins and
has no configuration options.
Note that the XTAL pin is left open by default with J1 in position 2-3. Resistor R34 must be populated with a zero
ohm resistor in order to ground the XTAL pin.
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Page 16
Pin No
Function
Connection
Pin No
Function
Connection
1
TDI
PC0 2 GND
GND
3
TDO
PC1 4 GND
GND
5
TCLK
PH9 6 GND
GND
7
EVTI
PL8 8 N/C
--- 9 RESET
JTAG-RSTx
10
TMS
PH10
11
VREF
PER_HVA
12
GND
GND
13
RDY
---
14
JCOMP
10K Pulldown
Pin No
Function
Connection
Pin No
Function
Connection
1
MSEO_0
PL9 2 VREF
PER_HVB
3
MSEO_1
PL11 4 TCK
PH9 5 GND
GND 6 TMS
PH10
7
MDO0
PL2 8 TDI
PC0
9
MDO1
PL3
10
TDO
PC1
11
GND
GND
12
JCOMP
10K Pulldown
13
MDO2
PL4
14
RDY
---
15
MDO3
PL5
16
EVTI
PL8
17
GND
GND
18
EVTO
PL12
19
MCKO
PL10
20
RESET
DBUG_RST
21
MDO4
PL6
22
RST_OUT
MCU_RST
23
GND
GND
24
GND
GND
25
MDO5
PL7
26
CLKOUT
Test Point
27
MDO6
PL13
28
TD/WT
---
29
GND
GND
30
GND
GND
The JTAG and
Nexus debug
connectors are in
the top right corner
5.4.
Debug Connectors (P8, P10)
The EVB provides two debug connectors:
Standard 14 pin JTAG
50 Pin Nexus connector (Samtec ASP-148422-01, Nexus Standard HP50 connector)
There is no user configuration required to use the connectors however the following points should be
noted:
The JTAG connector is routed to the JTAG signals in the default position which are powered
from the MCU VDD_HV_A power domain. The Nexus signals are located in the VDD_HV_B
power domain. If you are using Nexus, you may have to ensure that the VDD_HV_A and
VDD_HV_B domains are at the same voltage. Consult your tools vendor for specific information
The Nexus signals are not bonded out in every MCU package. Before using Nexus, please ensure
the MCU fitted to the EVB (via the daughtercard) supports the Nexus signals.
5.4.1.
Debug Connector Pinouts
The following tables list the pinouts for each of the debug connectors used on the EVB
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Page 17
Communications & Memory Interfaces:
Pin No
Function
Connection
Pin No
Function
Connection
31
MDO7
PL14
32
DAI1
---
33
MDO8
PL15
34
DAI2
---
35
GND
GND
36
GND
GND
37
MDO9
PM0
38
ARBREQ
---
39
MDO10
PM1
40
ARBGRT
---
41
GND
GND
42
GND
GND
43
MD011
PM2
44
MDO13
PM8
45
MDO12
PM7
46
MDO14
PM9
47
GND
GND
48
GND
GND
49
MDO15
PM10
50
N/C
---
H
L
GND
1
The CAN Physical
interface circuits are
located on the left
edge of the EVB
6. Communications & Memory Interfaces:
This section details the communication interface and storage peripherals that are implemented on the
EVB.
6.1.
CAN Interfaces (P14, P15, J14, J15)
The EVB incorporates two identical CAN interface circuits connected to MCU CAN0 and CAN1 using
MC33901 transceivers. Both transceivers are configured for high speed operation by pulling pin 8 to
GND via a 4.7K Ohm resistor. There are test points to allow the Select pin to be driven high if desired.
The MC33901 is pin compatible with other CAN transceivers supporting full CAN FD data rates.
For flexibility, the CAN transceiver I/O is connected to a standard 0.1” connector (P14 for CAN1 / P15
for CAN0) rather than using non standard DB9 connectors. The pinout of these headers is shown below
and is also detailed on the PCB silkscreen
Figure 9. CAN Physical Interface Connectors
The CAN0 and CAN1 MCU TX/RX signals are jumpered as shown in the table below to allow the
transceivers to be isolated from the respective MCU pin if desired. The default configuration is with all
jumper headers fitted routing the TX and RX signals to the MCU.
MPC5748G EVB User Guide, User Guide, Rev. 0, 08/2015
Freescale Semiconductor, Inc. 17
Page 18
Jumper
Position
PCB Legend
Description
J15 (CAN0)
Posn 1-2
FITTED (D)
TX
MCU CAN0_TX signal (PB0) is routed to CAN interface
Removed
MCU CAN0_TX signal (PB0) is not routed to CAN interface
J15 (CAN0)
Posn 3-4
FITTED (D)
RX
MCU CAN0_RX signal (PB1) is routed to CAN interface
Removed
MCU CAN0_RX signal (PB1) is not routed to CAN interface
J14 (CAN1)
Posn 1-2
FITTED (D)
TX
MCU CAN1_TX signal (PC10) is routed to CAN interface
Removed
MCU CAN1_TX signal (PC10) is not routed to CAN interface
J14 (CAN1)
Posn 3-4
FITTED (D)
RX
MCU CAN1_RX signal (PC11) is routed to CAN interface
Removed
MCU CAN1_RX signal (PC11) is not routed to CAN interface
The LIN Physical
interface circuits are
located on the left
edge of the EVB
Table 11. CAN Control Jumpers (J51, J53)
NOTE
Care should be taken when fitting the jumper headers to the 2x2 jumper
blocks J14 and J15 as they can easily be fitted in the incorrect orientation.
Jumper headers should be fitted horizontally.
The CAN TX / RX MCU pins are powered from the VDD_HV_A domain, which is configured between
3.3V and 5.0V on the daughtercard using jumper J5. The CAN transceivers I/O voltage is connected to
the PER_HVA net configured with jumper J24 on the main EVB. Care must be taken to ensure that the
MCU VDD_HV_A and PER_HVA supplies are the same when using the CAN transceiver.
6.2.
LIN Interfaces (P9, P11, J10, J12)
The EVB incorporates two identical LIN transceiver circuits connected to MCU LIN0 and LIN1 using a
Freescale MC33662LEF transceiver supporting both master and slave mode (jumper selectable)
The output from the LIN transceiver is connected to a standard 4-pin Molex connector as used on most
other Freescale EVB’s supporting LIN as shown in the following figure:
Figure 10. LIN Molex Physical Interface Connector
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Page 19
Communications & Memory Interfaces:
Jumper
Position
PCB Legend
Description
J10 (LIN0)
Posn 1-2
FITTED (D)
RX
MCU LIN0_RX signal (PB3) is routed to LIN0 interface
Removed
MCU LIN0_RX signal (PB3) is not routed to LIN0 interface
J10 (LIN0)
Posn 3-4
FITTED (D)
TX
MCU LIN0_TX signal (PB2) is routed to LIN0 interface
Removed
MCU LIN0_TX signal (PB2) is not routed to LIN0 interface
J11
(Master_EN)
FITTED (D)
LIN0 is configured in Master Mode
Removed
LIN0 is configured in Slave Mode
J12 (LIN1)
Posn 1-2
FITTED (D)
RX
MCU LIN1_TX signal (PC7) is routed to LIN1 interface
Removed
MCU LIN1_TX signal (PC7) is not routed to LIN1 interface
J12 (LIN1)
Posn 3-4
FITTED (D)
TX
MCU LIN1_RX signal (PC6) is routed to LIN interface
Removed
MCU LIN1_RX signal (PC6) is not routed to LIN interface
J13
(Master_EN)
FITTED (D)
LIN1 is configured in Master Mode
Removed
LIN1 is configured in Slave Mode
The USB RS232
interface is on the
left hand edge of the
board (USB Type B
The LIN0 and LIN1 MCU TX/RX signals are jumpered as shown in the following to allow the
transceivers to be isolated from the respective MCU pin if desired. The default configuration is with all
jumper headers fitted routing the TX and RX signals to the MCU.
Each transceiver also has a master mode enable jumper which is fitted by default to configure the
transceiver for Master mode. To configure the transceiver for slave mode, remove the respective
“Master_EN” jumper.
Table 12. LIN Control Jumpers (J10, J11, J12, J13)
NOTE
Care should be taken when fitting the jumper headers to the 2x2 jumper
blocks J10 and J12 as they can easily be fitted in the incorrect orientation.
Jumper headers should be fitted horizontally
The LIN TX / RX MCU pins are powered from the VDD_HV_A domain, which is configured between
3.3V and 5.0V on the daughtercard using jumper J5. The LIN transceivers enable pin is connected to the
PER_HVA net configured with jumper J24 on the main EVB. Care must be taken to ensure that the
MCU VDD_HV_A and PER_HVA supplies are the same when using the LIN transceiver.
Note that in order for the LIN transceiver to function, external power must be supplied via pin 3 of the
molex connector as detailed in Figure 10.
6.3.
USB RS232 Serial Interface (P17, J16)
The EVB incorporates a USB RS232 serial interface providing RS232 connectivity via a direct USB
connection between the PC and the EVB. The circuit contains an FTDI FT2232D USB to Serial
interface which should automatically install the drivers for two additional COM ports on your PC. Note
that only one of these is used so you will need to try both (usually the higher numbered COM port is the
active one). For more information on the USB drivers and general fault finding, consult the FTDI
website at http://www.ftdichip.com/
The MCU LIN2 signals are routed to the FTDI transceiver via a 2-way jumper header (J16) allowing the
transceiver to be isolated from the MCU pin if desired. The default configuration is with the jumper
MPC5748G EVB User Guide, User Guide, Rev. 0, 08/2015
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Page 20
Jumper
Position
PCB Legend
Description
J16
Posn 1-2
FITTED (D)
RX
MCU LIN2_RX signal (PC9) is routed to the FTDI interface
Removed
MCU LIN2_RX signal (PC9) is not routed to the FTDI interface
J16
Posn 3-4
FITTED (D)
TX
MCU LIN2_TX signal (PC8) is routed to the FTDI interface
Removed
MCU LIN2_TX signal (PC8) is not routed to the FTDI interface
The USB interfaces
are on the top right
quarter on the board
on the top edge
The USB interfaces
are on the top right
quarter on the board
on the top edge
header fitted, routing the TX and RX signals from the MCU to the FTDI transceiver. No other
configuration is required.
Table 13. USB RS232 Control Jumpers
NOTE
Care should be taken when fitting the jumper headers to the 2x2 jumper
block J16 as they can easily be fitted in the incorrect orientation. Jumper
headers should be fitted horizontally.
The MCU LIN2 (SCI) pins are powered from the VDD_HV_A domain, which is configured between
3.3V and 5.0V on the daughtercard using jumper J5. The FTDI transceiver I/O voltage pin is connected
to the PER_HVA net configured with jumper J24 on the main EVB. Care must be taken to ensure that
the MCU VDD_HV_A and PER_HVA supplies are the same when using the FTDI transceiver.
6.4.
USB HOST / OTG Interfaces
The EVB includes Type A (Host) and Type AB (OTG) USB interfaces, routed to standard and micro
USB sockets respectively. Each USB circuit contains a USB83340 transceiver with a shared USB power
switch. There is no user configuration required on either of the USB circuits.
The USB transceivers have a 3.3V (only) interface. All of the USB0 (connected to the OTG transceiver)
and USB1 (connected to the HOST transceiver) signals are in the VDD_HV_A domain and must be
configured as 3.3V via daughtercard jumper J5. If VDD_HV_A is set to 5V, the USB0 and USB1 MCU
signals should be left tri-stated to prevent damage to the USB transceivers.
6.5.
Ethernet (P6, J5, J6, J7, J8, R45, R80)
The MPC5748G supports both MII and RMII Ethernet interfaces. The EVB incorporates a DP83848c
transceiver supporting both MII and RMII modes. The transceiver is connected to a pulse J1011F21PNL
RJ45 connector which includes a built-in isolation transformer.
The default configuration, with all 2-way jumpers fitted and all 3-way jumpers in position 1-2,
configures the transceiver for MII mode with the reset signal to the PHY being driven from the MCU
Reset out (eg any reset causing the MCU Reset line to assert will reset the PHY)
In order to configure the EVB for RMII mode, jumpers J5, J6 and J7 need to be changed as described in
Table 14 below. In addition, a surface mount 0Ω resistor needs to be de-soldered and moved as shown in
the figure below. This option is fitted as a resistor instead of a jumper to maintain signal integrity on the
Ethernet clock signal.
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20 Freescale Semiconductor, Inc.
Page 21
Communications & Memory Interfaces:
Jumper
Position
PCB Legend
Description
J5
1-2 (D)
MII
Ethernet PHY is configured in MII mode
2-3 R Ethernet PHY is configured in RMII mode
Removed
Invalid Configuration, avoid!
J6
(X1)
1-2 (D)
Ethernet PHY X2 clock is connected to 25MHz xtal
2-3 Ethernet PHY X2 clock is not connected to 25MHz xtal5, 6
J7
(X2)
1-2 (D)
Ethernet PHY X1 clock is connected to 25MHz xtal
2-3 Ethernet PHY X1 clock is driven from 50MHz xtal
Removed
Ethernet PHY X1 clock is disconnected (invalid configuration, avoid)
J8
(RST)
1-2 (D)
NORM
The Ethernet PHY will be reset along with MCU reset
2-3
PI11
The Ethernet PHY reset is controlled via MCU pin PI11 (Pulled high)
Removed
Invalid Configuration, avoid!
R45 (R80)
Fitted R45
MII Mode – Clock is supplied from PHY to MCU
R45 to R80
RMII Mode – Clock is supplied from external 50MHz oscillator to MCU
For RMII mode
remove R45 and re-fit
in this position
For MII mode (default) R45 should have a jumper populated as shown. For RMII mode, remove R45
and fit it between R45 and R80
Figure 11. MII / RMII Clock Selection Resistor
To change the reset routing so that the Ethernet PHY can be reset via MCU pin PI11 (rather than being
tied to the MCU reset), jumper J8 should be moved to position 2-3
The MCU Ethernet signals are all in the VDD_HV_B domain. The Ethernet PHY will ONLY function
with 3.3V I/O so VDD_HV_B must be set to 3.3V on the MCU daughtercard before the Ethernet is
used. If VDD_HV_B is set to 5V, the signals routed to the Ethernet PHY (see the EVB schematics) must
be left as tristate.
5
If jumper J7 is in position 1-2 (25MHz XTAL), J6 must be fitted and R45 must be fitted.
6
If jumper J7 is in position 2-3 (50MHz oscillator), J6 must be removed and R45 must be removed and placed
between R45 and R80
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Page 22
Jumper
Position
PCB Legend
Description
FlexRay A
J3
Posn 1-2
FITTED (D)
TX
MCU PC5 is connected to FlexRay A transceiver TX
Removed
MCU PC5 is not connected to FlexRay A transceiver TX
J3
Posn 3-4
FITTED (D)
TXEN
MCU PE2 is connected to FlexRay A transceiver TXEN
Removed
MCU PE2 is not connected to FlexRay A transceiver TXEN
J3
Posn 5-6
FITTED (D)
RX
MCU PE3 is connected to FlexRay A transceiver RX
Removed
MCU PE3 is not connected to FlexRay A transceiver RX
J2
Posn 1-2
FITTED (D)
BGE
FlexRay A PHY Bus Guardian Enable (Transmitter is enabled)
Removed
FlexRay A PHY transmitter is disabled (Receive only mode)
J2
Posn 3-4
FITTED (D)
EN
FlexRay A PHY is enabled
Removed
FlexRay A PHY is disabled
J2
Posn 5-6
FITTED (D)
STBN
FlexRay A PHY will not enter Standby Mode
Removed
FlexRay A PHY will enter Standby Mode
J2
Posn 7-8
FITTED (D)
WAKE
FlexRay A PHY Wakeup signal pulled low
Removed
FlexRay A PHY Wakeup signal pulled high
FlexRay B
J4
Posn 1-2
FITTED (D)
TX
MCU PE4 is connected to FlexRay B transceiver TX
Removed
MCU PE4 is not connected to FlexRay B transceiver TX
J4
Posn 3-4
FITTED (D)
TXEN
MCU PC4 is connected to FlexRay B transceiver TXEN
Removed
MCU PC4 is not connected to FlexRay B transceiver TXEN
J4
Posn 5-6
FITTED (D)
RX
MCU PE5 is connected to FlexRay B transceiver RX
Removed
MCU PE5 is not connected to FlexRay B transceiver RX
J1
Posn 1-2
FITTED (D)
BGE
FlexRay B PHY Bus Guardian Enable (Transmitter is enabled)
Removed
FlexRay B PHY transmitter is disabled (Receive only mode)
J1
Posn 3-4
FITTED (D)
EN
FlexRay B PHY is enabled
Removed
FlexRay B PHY is disabled
J1
Posn 5-6
FITTED (D)
STBN
FlexRay B PHY will not enter Standby Mode
Removed
FlexRay B PHY will enter Standby Mode
J1
Posn 7-8
FITTED (D)
WAKE
FlexRay B PHY Wakeup signal pulled low
Removed
FlexRay B PHY Wakeup signal pulled high
The FlexRay
interface is in the top
right corner of the
EVB on the top edge
6.6.
FlexRay (P2, P3, J1, J2, J3, J4)
The EVB incorporates two FlexRay TJA1080TS/N interfaces connected to MCU FlexRay channels A
and B and routed to two Molex 1.25mm pitch PicoBlade shrouded headers (standard on many Freescale
EVB’s). Jumpers are provided to disconnect the MCU signals from the FlexRay interface if required as
well as providing general configuration.
By default, all of the jumper headers are fitted which routes the MCU signals to the FlexRay physical
interface as well as configuring the controller for a default mode of operation (Transmitter enabled,
Receiver enabled, not in low power mode). Please consult the FlexRay transceiver and general FlexRay
specifications before changing any of the mode jumpers.
MPC5748G EVB User Guide, User Guide, Rev. 0, 08/2015
22 Freescale Semiconductor, Inc.
Page 23
AV Interface Connectors
Important:
The EVB daughtercards are supplied with a 40 MHz crystal which is a requirement for FlexRay in
order to generate the correct clock timing. If you have changed the default crystal on the daughtercard
and wish to use FlexRay, you must ensure a 40 MHz crystal is fitted.
The SD socket is
mounted on the
underside of the
board in the top left
The SAI audio
connector is on the
bottom edge of the
EVB
The MCU FlexRay pins are powered from the VDD_HV_A domain, which is configured between 3.3V
and 5.0 V on the daughtercard using jumper J5. The FlexRay tranceivers I/O voltage pin is connected to
the PER_HVA net configured with jumper J24 on the main EVB. Care must be taken to ensure that the
MCU VDD_HV_A and PER_HVA supplies are the same when using the FlexRay transceiver.
6.7.
SD Card Socket (P200)
The EVB supports a 4-bit SD interface (note that MPC5748G supports 8-bit SD data) which is routed to
a full sized SD card connector on the underside of the EVB. There is no user configuration required.
The SD socket has hardware card detection (routed to PA0) and write protection (routed to PH8) status
outputs which will be grounded when active.
The MCU SD card signals are all in the VDD_HV_A domain. The SD card specification is for an
interface voltage of between 2.7V and 3.6V so the SD card can only be used when VDD_HV_A is set to
3.3V (PER_HVA has no impact on the voltage on the SD card)
CAUTION
If VDD_HV_A is set to 5V, damage may be caused to an SD card if an
attempt is made to access it in software. If you need to leave the SD card
in the socket with VDD_HV_A set to 5V, ensure all the SD card pads are
left as high impedance
7. AV Interface Connectors
This section details the Audio / Video interface connectors on the EVB. Each of these connectors can be
used to add additional daughtercards (not supplied) to add functionality.
7.1.
SAI Audio Connectors (P24, P25)
The EVB includes two 0.1” headers that can be used to interface to an SAI audio board (available
separately, please consult your Freescale representative). There is no EVB configuration required when
using these connectors other than to ensure the EVB is switched off prior to fitting or removing the
daughtercard.
The pinout of the connectors is shown below for reference and these connectors can also be used for
GPIO connectivity
MPC5748G EVB User Guide, User Guide, Rev. 0, 08/2015
Freescale Semiconductor, Inc. 23
Page 24
Pin No
Function
Connection
Pin No
Function
Connection
1
3.3V
3V3_SR
2
GND
GND
3
SAI0_DATA3
PF2 4 GND
GND
5
SAI0_DATA2
PF3 6 GND
GND
7
SAI0_DATA1
PF4 8 GND
GND
9
SAI0_DATA0
PF5
10
GND
GND
11
SAI0_BCLK
PF1
12
GND
GND
13
SAI0_SYNC
PB10
14
GND
GND
15
SAI0_MCLK
PF0
16
GND
GND
17
eMIOS1_7H
PH5
18
GND
GND
19
I2C_SCL3
PE11
20
GND
GND
21
I2C_SDA3
PE10
22
GND
GND
23
SAI1_DATA0
PJ2
24
GND
GND
25
SAI1_BCLK
PJ3
26
GND
GND
27
eMIOS1_6H
PH4
28
GND
GND
29
SAI1_SYNC
PF6
30
GND
GND
31
SAI1_MCLK
PF7
32
GND
GND
33
I2C_SCL2
PE9
34
GND
GND
35
I2C_SDA2
PE8
36
GND
GND
37
SAI2_DATA0
PI14
38
GND
GND
39
SAI2_BCLK
PJ1
40
GND
GND
41
SAI2_SYNC
PJ0
42
GND
GND
43
SAI2_MCLK
PI15
44
GND
GND
45
eMIOS1_5H
PH3
46
GND
GND
47
GPIO Control
PA5
48
GND
GND
49
5.0V
5V0_SR
50
GND
GND
Pin No
Function
Connection
Pin No
Function
Connection
1
N/C
N/C 2 GND
GND
3
DSPI0_SIN
PA12
4
GND
GND
5
DSPI0_SOUT
PA13
6
GND
GND
7
DSPI0_SCK
PA14
8
GND
GND
9
DSPI0_SS0
PA15
10
GND
GND
11
DSPI3_SOUT
PG2
12
GND
GND
13
DSPI3_SS3
PG3
14
GND
GND
15
DSPI3_SCK
PG4
16
GND
GND
17
DSPI3_SIN
PG5
18
GND
GND
19
N/C
N/C
20
GND
GND
Table 16. 50-pin SAI Audio Daughtercard Connector P24
Table 17. 20-pin SAI Audio Daughtercard Connector P25
Note that connector P25 is not populated and must be fitted if required
CAUTION
Before the daughtercard is installed or removed, the EVB must be
powered OFF to prevent potential damage to the EVB or daughter card
components.
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24 Freescale Semiconductor, Inc.
Page 25
AV Interface Connectors
Pin No
Function
Connection
Pin No
Function
Connection
1
5V
5V0_SR
2
3.3V
3V3_SR
3
GND
GND 4 3.3V
3V3_LR
5
GND
GND
6
GND
GND
7
GND
GND
8
ADC0
PD5
9
ADC1
PD6
10
GND
GND
11
GND
GND
12
ADC2
PD4
13
GND
GND
14
GND
GND
15
GND
GND
16
GND
GND
17
ID0
PD77
18
ID17
PD8
19
GND
GND
20
Pin No
Function
Connection
Pin No
Function
Connection
1
GND
GND 2 GND
GND
3
I2C0_SCL
PO0
4
I2C0_SDA
PO1 5 GND
GND 6 GND
GND
7
GND
GND 8 GND
GND
9
DSPI0_SIN
PA12
10
DSPI0_SOUT
PA13
11
DSPI0_SS0
PA15
12
DSPI0_SCK
PA14
13
GND
GND
14
GND
GND
15
GPIO0/IRQ
PK3
16
GPIO1
PK0
17
GPIO2
PK1
18
GPIO3
PK2
19
GPIO4
PK4
20
N/C
N/C
The TWRPI
connectors are at
the bottom right
hand corner
The MLB
daughtercard
connector is on the
RHS of the EVB
7.2.
TWRPI Connectors (P26, P27)
The EVB includes two fine pitch TWRPI headers that can be used to interface to an SAI audio board
(available separately, please consult your Freescale representative) along with the 0.1” headers
mentioned in the section above. There is no EVB configuration required when using these connectors
other than to ensure the EVB is switched off prior to fitting or removing the daughtercard. The pinout of
the connectors is shown below for reference.
Table 18. TWRPI Connector P26
Table 19. TWRPI Connector P27
7.3.
MLB Daughtercard Connector (P16)
There is a 40-pin interface connector on the EVB for connecting an MLB (Media Local Bus)
daughtercard. There is no hardware configuration possible at EVB level for this connector.
MLB Daughtercards are available direct from SMSC
As with all daughtercards, the EVB must be powered OFF to prevent damage to the EVB or daughter
card components.
7
ID0 and ID1 have a 10K pullup to 3V3
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Page 26
The GPIO matrix is
on the bottom edge
of the EVB above
the SAI audio
8. User Interface (I/O)
This section details the user I/O available on the EVB and includes the GPIO matrix, switches, LED’s
and the ADC variable resistor.
8.1.
GPIO Matrix
All of the available GPIO pins (those not already used for existing EVB peripherals) are available at the
GPIO matrix shown below. The matrix provides an easy to follow, intuitive, space saving grid of 0.1”
header through-hole pads. Users can solder wires, fit headers or simply insert a scope probe into the
respective pad.
To use the matrix, simply read the port letter from the top or bottom row of text then the pad number
from the columns on the left or right of the matrix. For example, the 1st pad available on Port B is PB5
as highlighted in green below.
If a pad is populated in the matrix, it means this is available for exclusive use as GPIO. The exception to
this are the port pins detailed below which are also shared with switches or user LED’s (shaded red in
the matrix diagram above).
In addition there are GPIO pins that are shared with the SAI Audio and TWRPI connectors as detailed
below and shaded orange. These are totally available unless the SAI / TWRPI headers are being used.
MPC5748G EVB User Guide, User Guide, Rev. 0, 08/2015
26 Freescale Semiconductor, Inc.
Figure 12. GPIO Matrix
Page 27
User Interface (I/O)
Switch
Number
MCU Pin
P18 Connection Pin
SW3
1
PA1
Pin1 (UpperMost)
SW4
2
PA2
Pin2
SW6
3
PF9
Pin3
SW7
4
PF11
Pin4
The user pushbutton
switches are in the
bottom left corner of
the EVB
8.2.
User Switches (SW3, SW4, SW6, SW7, P22)
There are 4 active high (pulled low, driven to 3.3V) pushbutton switches (SW3, SW4, SW6, SW7)
connected to a 4 way header (P22) in a box titled “User Switches”. The switches are also directly
connected to MCU ports so no additional wiring is required unless you require to route these to a
different GPIO port.
The switches are connected as follows:
Table 20. User Pushbutton Switches (SW3, SW4, SW6, SW7)
NOTE
The MCU ports used on the user pushbutton switches are also routed to
the GPIO matrix.
There are zero ohm resistors on the direct connections between each
switch and the MCU pins. These can be removed if required to isolate the
switch from the respective MCU pin (useful if the switch is being
manually routed to another pin on the GPIO matrix).
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Page 28
Position
HEX_SW4
(PD3, P20-4)
HEX_SW3
(PD2, P20-3)
HEX_SW2
(PD1, P20-2)
HEX_SW1
(PD0, P20-1)
0 0 0 0 0 1 0 0 0
1
2
0
0 1 0 3 0 0 1
1 4 0 1 0
0 5 0 1 0
1 6 0 1 1
0 7 0 1 1
1
8
1
0 0 0 9 1 0 0
1
A
1
0 1 0
B
1
0 1 1
C
1
1 0 0
D
1
1 0 1
E
1
1 1 0
F
1
1 1 1
Jumper
Position
PCB Legend
Description
J26
(3V3)
FITTED (D)
The hex encoder switch is powered with 3.3V (functional)
Removed
The hex encoder switch is not powered and will not drive outputs
The hex encoder
switch is located
above the user
pushbutton switches
8.3.
Hex Encoder Switch (SW2, J26, P20)
There is a single hex encoded 16 position rotary switch on the EVB. This outputs a binary encoded hex
value (active high) on 4 MCU ports (Port D[0..3]) as well as a 4 pin header P20. There is a jumper J26
which can be used to isolate the supply to the hex encoder if required. This prevents any voltage being
asserted on the MCU pins irrespective of the position of the switch
Table 21. Hex Encoder Switch (SW2)
Table 22. Hex Encoder Switch Power Jumper (J26)
The MCU ports used on the user pushbutton switches are also routed to
the GPIO matrix.
There are zero ohm resistors on the direct connections between the switch
output and the MCU pins. These can be removed if required to isolate the
switch from the respective MCU pin (useful if the switch is being
manually routed to another pin on the GPIO matrix).
MPC5748G EVB User Guide, User Guide, Rev. 0, 08/2015
28 Freescale Semiconductor, Inc.
NOTE
Page 29
User Interface (I/O)
Switch
Number
MCU Pin
P19 Connection Pin
DS2
1
PG2
Pin1 (Upper Pin)
DS3
2
PG3
Pin2
DS7
3
PG4
Pin3
DS8
4
PG5
Pin4
Jumper
Position
PCB Legend
Description
J17
FITTED (D)
Output from RV1 is routed to MCU PB4 pin
Removed
MCU PB4 is not connected to RV1
The user LED’s are
above the user
switches in the lower
right quarter
The ADC Pot is to
the right of the user
LED’s in the lower
right corner
8.4.
User LED’s (DS2, DS3, DS7, DS8, P19)
There are four active low user LED’s connected directly to 4 MCU ports (PG[2..5]) as well as to a 4 pin
header.
Table 23. User LEDs (DS2, DS3, DS7, DS8, P19)
NOTE
The MCU ports used on the LEDs are also routed to the GPIO matrix.
There are zero ohm resistors on the direct connections between each LED
and the MCU pins. These can be removed if required to isolate the LED
from the respective MCU pin (useful if the LED is being manually routed
to another pin on the GPIO matrix).
8.5.
ADC Input Potentiometer (J17, RV1)
There is a small variable resistor RV1 on the EVB which routes a voltage between 0v and 3.3V to MCU
pin PB4. This is useful for quick ADC testing. Jumper J17 which is fitted by default can be removed to
disconnect MCU PB4 from RV1 if desired.
Table 24. ADC Input Potentiometer Enable (J19)
There is also a test point TP18 connected to the variable resistor output for monitoring purposes.
MPC5748G EVB User Guide, User Guide, Rev. 0, 08/2015
Freescale Semiconductor, Inc. 29
Page 30
No
PortA
PortB
PortC
PortD
PortE
PortF
PortG
PortH
0
SD Card
CAN0
JTAG
GPIO 3
MLB
SAI Audio
Ethernet
Ethernet
1
GPIO 2
CAN0
JTAG
GPIO 3
MLB
SAI Audio
Ethernet
Ethernet
2
GPIO 2
LIN0
USB1
GPIO 3
FlexA
SAI Audio
GPIO
4, 5
Ethernet
3
Ethernet
LIN0
USB1
GPIO 3
FlexA
SAI Audio
GPIO
4 , 5
SAI Audio
4
GPIO
ADC Pot
FlexB
GPIO 5
FlexB
SAI Audio
GPIO
4, 5
SAI Audio
5
SAI Audio
GPIO
FlexA
GPIO 5
FlexB
SAI Audio
GPIO
4 , 5
SAI Audio
6
MLB
GPIO
LIN1
GPIO 5
SD Card
SAI Audio
GPIO
MLB
7
Ethernet
GPIO
LIN1
GPIO 5
SD Card
SAI Audio
GPIO
MLB
8
Ethernet
EXTAL32
RS232
GPIO 5
SAI Audio
GPIO
GPIO
SD Card
9
Ethernet
XTAL32
RS232
GPIO
SAI Audio
GPIO 2
MLB
JTAG
10
Ethernet
SAI Audio
CAN1
GPIO
SAI Audio
GPIO
USB1
JTAG
11
Ethernet
GPIO
CAN1
GPIO
SAI Audio
GPIO 2
USB1
USB1
12
GPIO 5
GPIO
Flex
GPIO
Ethernet
GPIO
Ethernet
USB1
13
GPIO 5
MLB
Flex
GPIO 1
Ethernet
GPIO
Ethernet
GPIO
14
GPIO 5
MLB
Flex
MLB
USB1
Ethernet
USB1
GPIO
15
GPIO 5
MLB
Flex
MLB
USB1
Ethernet
USB1
GPIO
No
PortI
PortJ
PortK
PortL
PortM
PortN
PortO
PortP
PortQ
0
SD Card
SAI Audio
GPIO 5
GPIO
NEXUS
GPIO
GPIO 5
GPIO
USB0
1
SD Card
SAI Audio
GPIO 5
GPIO
NEXUS
GPIO
GPIO 5
GPIO
USB0
2
SD Card
SAI Audio
GPIO 5
NEXUS
NEXUS
GPIO
GPIO
GPIO
USB0
3
SD Card
SD Card
GPIO 5
NEXUS
GPIO
GPIO
GPIO
GPIO
USB0
4
USB1
GPIO
GPIO 5
NEXUS
GPIO
GPIO
GPIO
GPIO
USB0
5
USB1
GPIO
GPIO
NEXUS
GPIO
GPIO
GPIO
GPIO
USB0
6
USB0
GPIO
GPIO
NEXUS
GPIO
GPIO
GPIO
GPIO
USB0
7
USB1
GPIO
GPIO
NEXUS
NEXUS
GPIO
GPIO
GPIO
USB0
8
MLB
GPIO
GPIO
JTAG
NEXUS
GPIO
GPIO
GPIO
-
9
GPIO
GPIO
GPIO
NEXUS
NEXUS
GPIO
GPIO
GPIO
-
10
GPIO
GPIO
GPIO
NEXUS
NEXUS
GPIO
GPIO
GPIO
-
11
Ethernet
GPIO
GPIO
NEXUS
GPIO
GPIO
GPIO
GPIO
-
12
GPIO 1
GPIO
GPIO
NEXUS
GPIO
GPIO
GPIO
USB0
-
13
GPIO 1
GPIO
GPIO
NEXUS
GPIO
GPIO
GPIO
USB0
-
14
SAI Audio
GPIO
GPIO
NEXUS
GPIO
GPIO
GPIO
USB0
-
15
SAI Audio
GPIO
GPIO
NEXUS
GPIO
GPIO
GPIO
USB0
-
9. MCU Port Pin EVB Functions
The table below shows what each MCU pin is used for on the EVB. Note that not all MCU pins will be
available depending on the device package being used.
Table 25. Port Pin Functions
1
Shared with MLB header (via no populated zero ohm resistors)
2
Shared with user switches
3
Shared with Hex Encoder Switch
4
Shared with user LED’s
5
Shared with TWRPI (P26, P27) or SAI Audio P25
MPC5748G EVB User Guide, User Guide, Rev. 0, 08/2015
30 Freescale Semiconductor, Inc.
Page 31
Default Jumper Summary Table
Jumper
Default
Posn
PCB
Legend
Description
J1 Posn 1-2
Fitted (D)
BGE
FlexRay B PHY Bus Guardian Enable (Transmitter is enabled)
J1 Posn 3-4
Fitted (D)
EN
FlexRay B PHY is enabled
J1 Posn 5-6
Fitted (D)
STBN
FlexRay B PHY will not enter Standby Mode
J1 Posn 7-8
Fitted (D)
WAKE
FlexRay B PHY Wakeup signal pulled low
J2 Posn 1-2
Fitted (D)
BGE
FlexRay A PHY Bus Guardian Enable (Transmitter is enabled)
J2 Posn 3-4
Fitted (D)
EN
FlexRay A PHY is enabled
J2 Posn 5-6
Fitted (D)
STBN
FlexRay A PHY will not enter Standby Mode
J2 Posn 7-8
Fitted (D)
WAKE
FlexRay A PHY Wakeup signal pulled low
J3 Posn 1-2
Fitted (D)
TX
MCU PC5 is connected to FlexRay A transceiver TX
J3 Posn 3-4
Fitted (D)
TXEN
MCU PE2 is connected to FlexRay A transceiver TXEN
J3 Posn 5-6
Fitted (D)
RX
MCU PE3 is connected to FlexRay A transceiver RX
J4 Posn 1-2
Fitted (D)
TX
MCU PE4 is connected to FlexRay B transceiver TX
J4 Posn 3-4
Fitted (D)
TXEN
MCU PC4 is connected to FlexRay B transceiver TXEN
J4 Posn 5-6
Fitted (D)
RX
MCU PE5 is connected to FlexRay B transceiver RX
J5
1-2 (D)
MII
Ethernet PHY is configured in MII mode
J6 (X1)
1-2 (D)
Ethernet PHY X2 clock is connected to 25MHz xtal
J7 (X2)
1-2 (D)
Ethernet PHY X1 clock is connected to 25MHz xtal
J8 (RST)
1-2 (D)
NORM
The Ethernet PHY will be reset along with MCU reset
J9 (EN)
Fitted (D)
Reset from reset switch and debug connectors is active
J10 (LIN0) 1-2
Fitted (D)
RX
MCU LIN0_RX signal (PB3) is routed to LIN0 interface
J10 (LIN0) 3-4
Fitted (D)
TX
MCU LIN0_TX signal (PB2) is routed to LIN0 interface
J11 (Master_EN)
Fitted (D)
LIN0 is configured in Master Mode
J12 (LIN1) 1-2
Fitted (D)
RX
MCU LIN1_TX signal (PC7) is routed to LIN1 interface
J12 (LIN1) 3-4
Fitted (D)
TX
MCU LIN1_RX signal (PC6) is routed to LIN interface
J13 (Master_EN)
Fitted (D)
LIN1 is configured in Master Mode
J14 (CAN1) 1-2
Fitted (D)
TX
MCU CAN1_TX signal (PC10) is routed to CAN interface
J14 (CAN1) 3-4
Fitted (D)
RX
MCU CAN1_RX signal (PC11) is routed to CAN interface
J15 (CAN0) 1-2
Fitted (D)
TX
MCU CAN0_TX signal (PB0) is routed to CAN interface
J15 (CAN0) 3-4
Fitted (D)
RX
MCU CAN0_RX signal (PB1) is routed to CAN interface
J16 Posn 1-2
Fitted (D)
RX
MCU LIN2_RX signal (PC9) is routed to the FTDI interface
J16 Posn 3-4
Fitted (D)
TX
MCU LIN2_TX signal (PC8) is routed to the FTDI interface
J17
Fitted (D)
Output from RV1 is routed to MCU PB4 pin
J18 (1V25L)
Fitted (D)
1.25V Linear regulator output is routed to daughter card
J19 (5V0S)
Fitted (D)
5.0V Switching regulator output is routed to daughter card
J20 (3V3L)
Fitted (D)
3.3V Linear regulator output is routed to daughter card
J21 (5V0L)
Fitted (D)
5.0V Linear regulator output is routed to daughter card
J22 (3V3S)
Fitted (D)
3.3V Switching regulator output is routed to daughter card
J23 (INPUT SEL)
1-2 (D)
12V
1.25V Linear regulator is powered from main 12V
J24 (HVA)
1-2 (D)
3V3
EVB peripherals in HVA domain are set to use I/O voltage of 3.3V
J25 (HVB)
1-2 (D)
3V3
EVB peripherals in HVB domain are set to use I/O voltage of 3.3V
J26 (3V3)
Fitted (D)
The hex encoder switch is powered with 3.3V (functional)
10. Default Jumper Summary Table
The following tables detail the default (D) jumper configuration of the EVB and daughtercards
Table 26. Default Jumper Positions (Main Board)
MPC5748G EVB User Guide, User Guide, Rev. 0, 08/2015
Freescale Semiconductor, Inc. 31
Page 32
Jumper
Default
Posn
PCB
Legend
Description
1 (XTAL)
1-2 (D)
Y1
MCU XTAL signal is routed to crystal Y1
J2 (EXTAL)
1-2 (D)
Y1
MCU EXTAL signal is routed to crystal Y1
J3 (ADC0)
1-2 (D)
3V3
MCU ADC0 pin is connected to 3.3V (Linear)
J4 (ADC1)
1-2 (D)
3V3
MCU ADC1 pin is connected to 3.3V (Linear)
J5 (HVA)
1-2 (D)
3V3
MCU VDD_HV_A domain is connected to 3.3V (Switching Regulator)
J6 (HVB)
1-2 (D)
3V3
MCU VDD_HV_B domain is connected to 3.3V (Switching Regulator)
J7 (HVC)
1-2 (D)
3V3
MCU VDD_HV_C domain is connected to 3.3V (Switching Regulator)
J8 (FLA )
Fitted (D)
MCU VDD_HV_FLA pin is connected to 3.3v (Switching Regulator)
J9 (REG)
1-2 (D)
3V3
MCU ballast transistor collector is connected to 3.3V (Switching)
J10 (VDDLV)
1-2 (D)
REG
MCU VDD_LV domain is powered from ballast transistor
J11 (DAC)
1-2 (D)
HVA
MCU VIN1_CMP_REF is powered from VDD_HV_A
J12
Fitted (D)
Ballast collector supply is enabled (jumper can be used for current measure)
J13
1-2 (D)
** Only valid on certain devices – External Ballast enabled.
Note that not all jumpers will be present on all of the daughtercards.
MPC5748G EVB User Guide, User Guide, Rev. 0, 08/2015
32 Freescale Semiconductor, Inc.
Page 33
Default Jumper Diagram
Date
Substantial changes
August 2015
Initial release
11. Default Jumper Diagram
The diagram below shows the location and configuration of the default jumpers of the main board and
provides an easy to use cross reference. By default all of the jumpers are fitted to the daughtercard (3
way jumpers in position 1-2).
NOTE
Following figure is of an older board revision however there were no
additional jumpers and no jumpers have moved position.
12. Revision History
MPC5748G EVB User Guide, User Guide, Rev. 0, 08/2015
Freescale Semiconductor, Inc. 33
Figure 13. Default Jumper Position
Page 34
13. Appendix
The following EVB schematics are detailed in the following sections:
These schematics are provided for reference purposes only. As such,
Freescale does not make any warranty, implied or otherwise, as to the
suitability of circuit design or component selection (type or value) used in
these schematics for hardware design using the Freescale MPC574xG family
of Microprocessors. Customers using any part of these schematics as a
basis for hardware design, do so at their own risk and Freescale does not
assume any liability for such a hardware design.
Sheet 2
Sheet 3
Sheet 4
Sheet 5
Sheet 6
Sheet 7Comms - CAN and LIN
Comms - Ethernet
Comms - USB Interfaces
Memory - SD Card Slot
AV - MOST Interface
User notes are given throughtout the schematics.
Specific PCB LAYOUT notes are detailed in ITALICS
Caution:
19 Feb 2012
Comms - RS232 (USB FTDI interface)
Comms - FlexRAY
User - Switches, LED's and Potentiometer
User - GPIO Pin Matrix
- All components and board processes are to be ROHS compliant
- All small capacitors are 0402 unless otherwise stated
- All resistors are 0603 5% 0.1w unless otherwise stated. All zero ohm links are 0603
- All connectors and headers are denoted Px and are 2.54mm pitch unless otherwise stated
- All jumpers are denoted Jx. Jumpers are 2mm pitch
- Jumper default positions are shown in the schematics. For 3 way jumpers, default is always posn 1-2.
2 Pin jumpers generally have the "source" on pin 1.
- All switches are denoted SWx
- All test points (SMT wire loop style) are denoted TPx
- Test point Vias (just through hole pads) are denoted TPVx
X1
Power - Main input and Linear voltage regulators
Daughter Card Connectors (Sockets)
JTAG and Nexus Connectors
Start of capture, Working version01 Feb 2012
1st release for internal review (Complete Board)
28 Feb 2012
Alasdair Robertson
Alasdair Robertson2nd release for internal review (split into main board and DC)
Signals (ports) have not been routed via busses as this makes it harder to determine where each signal goes.
Alasdair Robertson
Version sent to Pre Layout, incorporating fixes from review
Final review (including new USB transceiver)11 Mar 2013
Alasdair Robertson13 Mar 2013
14 Mar 2013Alasdair RobertsonComponent consolodation, Few minor changes. Sent to Layout
3 Different test points used in design:
TPVx - Through Hole Pad small
TPHx - Through Hile Pad Large (for standard 0.1" header).
Also used on IO Matrix (IOMx)
TPX - Surface Mount Wire Loop
29 Mar 2013Alasdair RobertsonChanges made during layout to Daughtercard Connectors
02 Apr 2013Alasdair RobertsonLAY RefDes Resequence and SCH BackAnnotateX7
17 Apr 2013
AX1 24 Jun 2013Alasdair RobertsonFixes and changes to RevA Prototype design
AX2 10 July 2013Alasdair RobertsonAdded CAN Term (DNP)
AX3 12 July 2013Alasdair RobertsonCorrected ground on ADC Pot
B12 July 2013 Alasdair RobertsonProduction Release
BX1 20 Aug 2013Alasdair RobertsonChange to Ethernet 50MHz clock control
C20 Aug 2013 Alasdair RobertsonProduction Release
CX1 18 Dec 2013Alasdair RobertsonCAN transceivers -> MC33901, ENET clock in RMII mode
CX2 05 May 2014 Alasdair RobertsonAdded comment about LM1117 VREG output
CX3 25 June 2014 Alasdair RobertsonPH3..5 now GPIO matrix (was SAI), PM4, PD13, PM3 to SAI
CX4 26 June 2014 Alasdair RobertsonMinor changes made during layout (no component changes)
CX5 26 June 2014 Alasdair RobertsonPart Manager Tidy up
CX6 18 Aug 2014Alasdair RobertsonAdded additional connector with DSPI Signals for AVB
CX7 03 Sept 2014 Alasdair RobertsonAdded additional TWRPI header (Sheet 12)
D24 Sept 2014 Alasdair RobertsonReleased to Production (RevD PCB)
D1 14 Aug 2015Alasdair RobertsonTidy up Schematics for UM (RevD PCB)
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Designer:
Drawn by:
Approved:
Automotive Microcontroller Applications
East Kilbride, Scotland
This document contains information proprietary to Freescale and shall not be used for engineering design,
procurement or manufacture in whole or in part without the express written permission of Freescale
SCH-27897 PDF: SPF-27897D1
MPC574xx Customer EVB Main Board
B
Friday, August 14, 2015
Index and Title Page
A. Robertson
A. Robertson
A. Robertson
116
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Designer:
Drawn by:
Approved:
Automotive Microcontroller Applications
East Kilbride, Scotland
This document contains information proprietary to Freescale and shall not be used for engineering design,
procurement or manufacture in whole or in part without the express written permission of Freescale
SCH-27897 PDF: SPF-27897D1
MPC574xx Customer EVB Main Board
B
Friday, August 14, 2015
Index and Title Page
A. Robertson
A. Robertson
A. Robertson
116
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Designer:
Drawn by:
Approved:
Automotive Microcontroller Applications
East Kilbride, Scotland
This document contains information proprietary to Freescale and shall not be used for engineering design,
procurement or manufacture in whole or in part without the express written permission of Freescale
SCH-27897 PDF: SPF-27897D1
MPC574xx Customer EVB Main Board
B
Friday, August 14, 2015
Index and Title Page
A. Robertson
A. Robertson
A. Robertson
116
Freescale General Business Use
Page 37
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
Rfb1
Rfb2
Main EVB
Power In
Vout = 1.25(1 + (R2/R1))
= 5.0V
(0603
50V)
GND Test Points, Top Side
Rfb1
Rfb2
Vout = 1.25(1 + (R2/R1))
= 3.295V
3.3V Linear Regulator (800mA Max **)
(35V TANT)(35V
TANT)
(0402 50V)
Could also use 2x82 Ohm resistors for RFB2 but not in agile...
1% resitors1% resitors
Rfb1
Rfb2
Vout = 1.25(1 + (R2/R1))
= 1.25V
1% resitors
1.25V Linear Regulator (800mA Max **)
(35V TANT)
(35V
TANT)
Power Input and Linear Voltage Regulators
Input 12V DC nominal (range 10v - 14v)
See note on schematic sheet 3 regarding 3.3V regulator when running at < 11V)
1.25V for External core supply. Simpler to use linear rather than switcher so can safely
power from 5V switcher (slight ripple not an issue) for reduced heat dissipation
(c200 rad
pol 50V)
2.1mm Barrel
Connector
(2 Screw
Connector)
(Power Switch)
Power Supply Input and FilterTest and reference points
GND Test Points for underside of board
5.0V Linear Regulator (800mA Max **)
(35V TANT)(35V
TANT)
(CC7343-43
25V)
(10v-14v)
(3A)
(3A)
1K Load
resistor to
ensure proper
regulation if
1.25V MCU
jumper removed
The LM1117 linear regulators provide a maximum output
current of 800mA in ideal conditions. The current
requirement for each regulator is in the region of 10's
of mA (significantly under the maximum rating) so
these regulators will run cool on the EVB.
** Notes on Linear Regulator LM1117
VFused12V-INVSwitched
3V3_LRP12V
GND
1V25_LR
GND
P12V
5V0_SR
GND
P12V
GND
GND
GND
5V0_LRP12V
GND
GND
P12V
Drawing Title:
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Date:Sheet
of
Page Title:
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Applications
East Kilbride, Scotland
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B
Friday, August 14, 2015
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216
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27897 PDF: SPF-27897D1
MPC574xx Customer EVB Main Board
B
Friday, August 14, 2015
Power Input and Linear Voltage Regulators
216
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
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B
Friday, August 14, 2015
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DS6
LED GREEN
AC
R305
1K
GND13
1
GND4
1
C268
0.1UF
TP17
1
L5
27uH
12
F1
Fuse Holder
12
GND10
1
R77 0
R72
100
DNP
GND17
1
GND7
1
GND1
1
+
C27
10UF
R73
100
U16
LM1117MPX-ADJ
ADJ
1
VOUT
2
IN3TAB_VOUT
4
R273
270
GND5
1
P23
A
1
B
2
+
C26
10UF
U15
LM1117MPX-ADJ
ADJ
1
VOUT
2
IN3TAB_VOUT
4
GND8
1
+
C30
10UF
DS5
LED GREEN
AC
R76 0
GND12
1
+
C32
1000UF
GND2
1
DS4
LED GREEN
AC
GND15
1
+
C29
10UF
C269
1000pF
R74
100
P21
1
3
2
R271 5.6
GND3
1
R284
0
+
C33
68UF
R75 0
DNP
SW5
13
42
5
R272
0
R70 300
GND11
1
+
C28
10UF
GND9
1
TP16
1
GND14
1
TP15
1
D202
B340A
AC
R274
560
U14
LM1117MPX-ADJ
ADJ
1
VOUT
2
IN3TAB_VOUT
4
GND6
1
J23
1
2
3
GND16
1
R285
0
GND18
1
Q1
BSH103
1
23
R71
158
+
C31
10UF
R283 1.8K
Page 38
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
Design requires
B220A-13-F
diode. Use3A
version to
reduce no of
components
(12v input, 2.0A Output, 89% Efficient, 11.24w)
Switching Voltage Regulators and Supply Jumpers
5.0v Switching Regulator
(1210
25V)
(0603
50V)
(0603 50V)
(All Resistors 1% 0603_CC)
Rfb1
Rfb2
Vout = 1.21(1 + Rfb2/Rfb1) = 4.98V
APXE100ARA151MF80G
(1210
25V)
APXE100ARA151MF80G
(0603
50V)
3.3v Switching Regulator
(12v input, 2A Output, 83% Efficient)
(0603 50V)
(All Resistors 1% 0603_CC)
Rfb1
Rfb2
Vout = 1.21(1 + Rfb2/Rfb1) = 3.3V
Using Adjustable version of LM2676 rather than fixed 3.3V /
5V regulators to reduce number of components in BOM.
Where possible, components have been shared accross the
regulator designs to further reduce component count.
The 3.3v regulator design is optimised for an input voltage of 12V. If
the input voltage drops below approx 11V, the 3.3v output voltage
ripple may increase. This can be reduced by increasing the bulk storage
capacitor if required.
Caution
Global MCU Daughtercard
Supply Jumpers and DC power
Peripheral Power Control
These jumpers control the voltage of the
peripherals connected to MCU pads in the
VDD_HV_A / HV_B domains and are required
so the respective jumpers at the MCU can
be used for MCU current measurement.
The settings on these jumpers must
mirror the setting of the respective
MCU VDD_HV_A / HB_V jumpers
To Daughtercard
Connectors
MCU_3V3_S
MCU_5V0_S
MCU_3V3_L
MCU_5V0_L
MCU_1V25_L
DC_5V0_S
DC_3V3_S
DC_5V0_L
DC_3V3_L
DC_1V25_L
DC_P12V
P12V
GND
5V0_SR
GND
GND
3V3_SR
P12V
GND
3V3_SR
5V0_SR
3V3_LR
5V0_LR
1V25_LR
5V0_SR
3V3_SR
PER_HVAPER_HVB
P12V
DC_5V0_S
4
DC_3V3_S
4
DC_5V0_L
4
DC_3V3_L
4
DC_1V25_L
4
DC_P12V
4
MCU_1V25_L
4
MCU_5V0_S
4
MCU_5V0_L
4
MCU_3V3_S
4
MCU_3V3_L
4
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27897 PDF: SPF-27897D1
MPC574xx Customer EVB Main Board
B
Friday, August 14, 2015
Switching Voltage Regulators
316
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27897 PDF: SPF-27897D1
MPC574xx Customer EVB Main Board
B
Friday, August 14, 2015
Switching Voltage Regulators
316
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27897 PDF: SPF-27897D1
MPC574xx Customer EVB Main Board
B
Friday, August 14, 2015
Switching Voltage Regulators
316
Freescale General Business Use
D5
B340A
AC
C266
0.1UF
R2670
DNP
TP19
1
J18
12
TP20
1
C267
0.1UF
R297
261.0
C265 10nF
R291
0
R2660
DNP
C264 10nF
+
C36
150uF
D6
B340A
AC
R298 1.65K
J28
DNP
12
J21
12
R294
0
J25
1
2
3
C34
10uF
R300
560
J20
12
U17 LM2676S-ADJ
INPUT
2
SW_OUT
1
C_BOOST
3
GND4TAB
8
FEEDBACK
6
ON/OFF
7
NC
5
R2630
DNP
DS9
LED GREEN
AC
J19
12
DS10
LED GREEN
AC
R293 1.47K
R2650
DNP
C35
10uF
R292
1.0K
U18 LM2676S-ADJ
INPUT
2
SW_OUT
1
C_BOOST
3
GND4TAB
8
FEEDBACK
6
ON/OFF
7
NC
5
R2640
DNP
R2680
DNP
J24
1
2
3
L7 27uH
12
R296 1.47K
J27
DNP
12
R295
1.0K
+
C37
150uF
L6 27uH
12
R299
270
J22
12
Page 39
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
Socket
Not routed through the connectors:
- Crystal signals
- Specific MCU power pins (Power supplies are however taken to daughtercard)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
(GND)
Daughter Card Connectors (Sockets)
Socket
Notes:
- there was no neat way to fit these connectors onto a B sized sheet so unfortunately the sheet size has been
increased to C so will need to be printed on larger paper.
- The MCU Clock circuitry (apart from external clock) is local to the daughtercard so not pinned out on the
connectors
- Power is supplied to the daughtercard via MCU specific jumpered supplies (left connector) or direct supplies
from the regulators (right connector)
Note:
The Reset pad on the MPC5748G is in the VDD_HV_A domain which can be run from either
3.3V or 5V (selected by the VDD_HV_A and PER_HVA jumpers)
To maintian brightness on the LED's irrespective of the voltage setting, the LED's are
powered from constant 3.3V, grounded via the reset line.
Bi Directional reset
line to/from MCU
Active reset drive (high / low)
for any periperhals that need to
be reset when MCU is in reset
Reset from
Debugger
Reset Input / Output
PORST
Connect an external LVI to pad
when supplying external 1.25V so
that PORST is asserted until
exterbal 1.25V supply is at
threshold and stable
(2.5 to 5v operation)
SMA style
Connector
External Clock In (SMA)
(0603
50V)
(0603
50V)
(0603
50V)
Reset is in the
VDD_HVA domain.
MCU-RSTx
JTAG-RSTx
RST-SWITCHx
RST-OUTx
RST-INxSYSTEM-RSTx
PORSTx
EXT-CLK
GND
GND
GND
3V3_SR
GND
GND
PER_HVA
3V3_SR
PER_HVA
GND
JTAG-RSTx
6
MCU-RSTx
4,6
RST-OUTx
10,12
PORSTx
4
EXT-CLK
4
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27897 PDF: SPF-27897D1
MPC574xx Customer EVB Main Board
B
Friday, August 14, 2015
Reset Circuitry & External Clock In
516
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27897 PDF: SPF-27897D1
MPC574xx Customer EVB Main Board
B
Friday, August 14, 2015
Reset Circuitry & External Clock In
516
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27897 PDF: SPF-27897D1
MPC574xx Customer EVB Main Board
B
Friday, August 14, 2015
Reset Circuitry & External Clock In
516
Freescale General Business Use
R24
10.0K
J9
12
R214 270
R31
10.0K
SW1 B3WN-6002
12
C3
0.1UF
VCC
GND
U4A
SN74LVC2G08DCT
1
2
7
84
R4
10.0K
P7
CON 1 SMA
1
2
43
5
R217
270
TPV5
U4B
SN74LVC2G08DCT
5
6
3
C220
0.1UF
U3
ADM6315-26D2ARTZR7
GND
1
RESET
2
MR
3
VCC
4
R216
100
C224
0.1UF
R16
10.0K
DS1
YELLOW LED
AC
TPH1
1
D1
LED RED
AC
Page 41
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
Debug Connectors (JTAG and NEXUS)
JTAG Standard 14-pin Connector
(RDY)
Place One CAP
next to each
connector
ONCE Connector
(N/C)
(TMS)
(JCOMP)
(GND)
(GND)
(GND)
(GND)
(TDI)
(TDO)
(TCLK)
(EVTI)
(RESET)
(VREF)
TDI
TDO
TCLK
(All JTAG reset pullups are on Reset Page)
(MSEO_0)
(MSEO_1)
(MDO4)
(GND)
(GND)
(GND)
(GND)
(TMS)
(TDI)
(TDO)
(GND)
(GND)
(GND)
(GND)
(JCOMP)
(RDY)
(EVTI)
(EVTO)
(GND)
(GND)
(MDO0)
(RST OUT)
(RESET)
(GND)
(GND)
(GND)
(GND)
(MDO1)
(MDO2)
(MDO3)
(MCKO)
(N/C)
(MDO5)
(MDO6)
(MDO7)
(MDO8)
(MDO9)
(MDO10)
(MDO14)
(ARBREQ)
(ARBGRT)
(MDO15)
(MDO13)
(MDO12)
(MDO11)
(GND)
(VREF)
(TCK)
(CLKOUT)
(TD/WT)
(DAI1)
(DAI2)
Nexus
(buffered
reset TO MCU)
(bidirectional
MCU reset)
Note on EVTI:
EVTI is an optional
signal. Although it is
supported on the JTAG
connector, tools vendors
do not normally use EVTI
on non trace hardware.
EVTI is powered from
VDD_HV_B whereas the
rest of the JTAG signals
are from VDD_HV_A. In
order to use EVTI on the
JTAG, connector,
VDD_HV_A and HV_B should
be set to the same
voltage. Rather than
impose this limitation
for all customers, a
zero ohm link has been
added to allow EVTI to
be enabled on the JTAG
connector if required.
Optional
Config
EVTI
TMS
NEXUS 50-pin Connector
Neus
Specific
Pullups all
10K 0603
All of the signals used for JTAG (with the
exception of EVTI, see note) are powered from
the VDD_HV_A domain. All of the additional
signals used for Nexus are powered from
VDD_HV_B.
If you are using Nexus, you need to ensure that
the VDD_HV_A and VDD_HV_B domains are at the
same voltage as well as ensuring that the
peripheral supplies PER_HVA and PER_HVB match
VDD_HV_A / B. See the MCU power page for
configuration jumpers.
(Layout Note: Place Series
Termination resistor close
to USB IC)
(Layout Note: Route DP and DM with
90 Ohm Differential Pair. Keep
tracks as short as possible)
(Layout Note: Route DP and DM with
90 Ohm Differential Pair. Keep
tracks as short as possible)
General Layout Note. Recommendation is to keep all
tracks between MCU and USB PHI less than 3" See
additional SMSC Layout guidelines PDF to the right
(Layout Note: Place Series
Termination resistor close
to USB IC)
(1K for OTG)
Layout Note:
Place caps &
resistor as
close to
device as
possible
Crystals are
FOXSDLF/240F-20
(20pF Load
Capacitance)
Crystals are
FOXSDLF/240F-20
(20pF Load
Capacitance)
USB Signalsare in
power
domain
VDD_HV_A
The USB
interface
only supports
3.3V
operation.
All I/O
signals must
be 3.3V. If
VDD_HVA is
set to 5V,
USB MCU pads
must be left
as tri-state
with no
pullups.
USB_A_VDD1.8
USB_A_VDD3.3
PP15
PP14
PP13
PP12
PQ7
PQ6
PQ5
PQ4
PQ2
PQ0
PQ3
PQ1
USB_A_EN
USB_A_PWR
PI6
USB_B_EN
USB_B_EN
USB_B_DP
PI7
USB_A_EN
USB_A_VBUS
USB_A_DM
USB_A_DP
USB_B_PWR
USB_B_VBUS
USB_B_DP
USB_B_DM
USB_B_DM
USB_B_IDUSB_B_ID
USB_A_DM
USB_A_5V
USB_B_5V
USB_A_DP
PG14
PG15
PE14
PE15
PG10
PG11
PH11
PH12
PC3
PI4
PI5
PC2
USB_B_VDD1.8
USB_B_VDD3.3
FLG_A
FLG_B
A_XO
A_XI
B_XI
B_XO
USB1_CLK
USB0_CLK
3V3_SR
GND
5V0_SR
GND
5V0_SR
GND
GND
GND
GNDGNDGND
GND
GND
GNDGNDGND
GND
GND
GND
GND
GND
GND
3V3_SR
GND
5V0_SR
3V3_SR
GNDGNDGND
3V3_SR
3V3_SR
3V3_SR
GND
GND
PI6
4
PG15
4
PE14
4
PE15
4
PG10
4
PG11
4
PH11
4
PH12
4
PI44
PI54
PC24
PC34
PG14
4
PP14
4
PP13
4
PP12
4
PQ7
4
PQ6
4
PQ5
4
PQ4
4
PP15
4
PQ04
PQ34
PQ14
PQ24
PI7
4
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27897 PDF: SPF-27897D1
MPC574xx Customer EVB Main Board
B
Friday, August 14, 2015
USB Type A / Type AB
916
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27897 PDF: SPF-27897D1
MPC574xx Customer EVB Main Board
B
Friday, August 14, 2015
USB Type A / Type AB
916
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27897 PDF: SPF-27897D1
MPC574xx Customer EVB Main Board
B
Friday, August 14, 2015
USB Type A / Type AB
916
Freescale General Business Use
Y3
24MHZ
12
C16
33PF
R33
10
R39
8.06K
1%
+
C239
10UF
R36 20K
+
C5
1.0UF
C214
1000pF
+
C230
10UF
+
C244
10UF
+
C212
100UF
C13
33PF
TPV12
L3 26OHM
12
C10
1000pF
C2
1000pf
Y4
24MHZ
12
R213
100
+
C205
10UF
C19
1uF
+
C245
10UF
+
C9
1.0UF
C14
33PF
R27
1.0M
VD-D+G
USB_TYPE_A_FEMALE
P5
S1
A1
A2
A3
A4
S2
U7
USB83340
CPEN
17
VBUS
22
ID
23
VBAT_5V
21
DP
18
DM
19
RESET
27
NXT
2
DIR
31
STP
29
CLKOUT
1
VDD3V3_20
20
VDD1V8_28
28
XO
25
REFCLK/XI
26
VDD1V8_30
30
RBIAS
24
VDDIO
32
DATA7
13
DATA6
10
DATA5
9
DATA4
7
DATA3
6
DATA2
5
DATA1
4
DATA0
3
PAD_GND
33
SPK_L
15
SPK_R
16
REFSEL0
8
REFSEL1
11
REFSEL2
14
NC
12
C242
0.1UF
C243
0.1UF
L4 26OHM
12
R32
10
R202
100
C4
1000pF
U8
USB83340
CPEN
17
VBUS
22
ID
23
VBAT_5V
21
DP
18
DM
19
RESET
27
NXT
2
DIR
31
STP
29
CLKOUT
1
VDD3V3_20
20
VDD1V8_28
28
XO
25
REFCLK/XI
26
VDD1V8_30
30
RBIAS
24
VDDIO
32
DATA7
13
DATA6
10
DATA5
9
DATA4
7
DATA3
6
DATA2
5
DATA1
4
DATA0
3
PAD_GND
33
SPK_L
15
SPK_R
16
REFSEL0
8
REFSEL1
11
REFSEL2
14
NC
12
U9
MIC2026-1YM
ENA1FLGA
2
FLGB
3
ENB
4
OUTB
5
GND
6
IN7OUTA
8
R46
10.0K
C18
1uF
+
C216
10UF
P1
USB AB 5
VBUS1D-2D+3ID4GND
5
SHELL1
6
SHELL27SHELL3
8
SHELL4
9
R26
1.0M
+
C247
10UF
R37 1.0K
C238
1uF
R47
10.0K
R48
30
C246
0.1UF
C15
33PF
R49
30
TPV13
C206
1000pf
C237
1uF
R38
8.06K
1%
C1
1000pF
C236
0.1UF
C235
0.1UF
+
C8
100UF
Page 45
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
Ethernet
Place Caps close
to connector
Series Termination Resistors:
50 Ohms as per TI spec. Place
resistors as close to driving
source as possible. Termination
recommended for ALL MII signals
MCU Output
Resistors Next
to MCU on
daughtercard
PHI Output
Place Next to
PHI
- Auto Negotiation Enable (All speeds / duplex supported)
(AN_EN, AN0 and AN1 all Internal PullUP)
- Operating Mode (MII or RMII)
(SNI_Mode Internal PullDown, MII_Mode control via jumper)
- LED Configuraiton (Mode1)
(LED_CFG Internal PullUp)
Layout Note - Place Caps
and Resistors close to PHI
(RMII Clock)
(RMII)
(RMII)
(RMII)
(RMII)
(RMII)
(+MII)
(+MII)
(+MII)
(+MII)
(RMII)
(RMII)
(RMII)
(RMII)
(+MII)
(+MII)
(RMII)
(+MII)
(RMII)
(RMII)
(MII Clock)
(TANT)
Layout Note:
Place 0.1uF cap close
to each pin. 10uF
TANT as close to pin
23 as possible
PFBOUTPFBIN2PFBIN1
50MHz Osc for RMII and 25MHz XTAL for MII
(TANT)
Reset Control:
- Reset from MCU Reset Out (will reset with MCU)
- Reset from GPIO. Allows MCU to reset PHY as well as hold PHY in reset
while reset config data can be driven onto pins to change mode etc.
Boot Configuration (using PHY internal Pulls)
MDIO Pullup
Layout Note:
MII Mode resistor (MII / RMII mode) and the MDIP ullup resistor should be placed as close as
possible to the PF15 / PF14 tracks to reduce the effect of a stub on the transmission line.
(TXD3)
(TXD2)
(TXD1)
(TXD0)
(TXEN)
(MDC)
(Termination on DC)
(Termination on DC)
(Termination on DC)
(Termination on DC)
(Termination on DC)
(Termination on DC)
(0603
50V)
(0603
50V)
(0603
50V)
(0603
50V)
(0603
50V)
(0603
50V)
(0603
50V)
(0603
50V)
(0603
50V)
(0603
50V)
(0603
50V)
(MDIO)
All Ethernet Signals
are in power domain
VDD_HV_B
The Ethernet
interface only
supports 3.3V
operation. All I/O
signals must be 3.3V.
If VDD_HVA is set to
5V, Ethernet MCU pads
must be left as
tri-state with no
pullups.
(50MHz OSC
Power)
** See Layout Note
(bottom right)
** Layout Note - Place
resistors as shown
with shared pad on PG1
side of resistors
TXCLKPG1
PHY_50MHz
For RMII mode,
remove resistor
between PG1 and
TXCLK and place
between PG1 and
PHY_50MHz
TDN
TDP
RDN
LED_Y
LED_G
RBIAS
PA3
PE12
PA10
PA11
PF15
PA9
PA8
PA7
PE13
PG1
PF15
RDP
RST-OUTxRST-OUTx
X2
PHY_50MHz
PHY_25MHz
TXCLK
PH2-R
PH1-R
PH0-R
RXDV
PFBOUT
RXER
RXD1
RXD0
CRS
PG13-R
PG12-R
RXD3
RXD2
COL
RXCLK
PG0-R
RMII_50MHZ
PFBOUT
PF14
PF14
PI11
CLKIN_X1
RMII_50MHZ
GND
3V3_SR
GNDGND
3V3_SR3V3_SR
GND
GND
GND
3V3_SR
GND
GND
3V3_SR
3V3_SR
GND
GND
3V3_SR
GND
GND
GND
3V3_SR
GND
3V3_SR
3V3_SR
PE134
RST-OUTx
5,12
PG0-R
4
PG14
PA74
PA84
PA94
PF154
PA114
PA104
PE124
PA34
PF14
4
PI11
4
PG13-R
4
PG12-R
4
PH0-R
4
PH1-R
4
PH2-R
4
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27897 PDF: SPF-27897D1
MPC574xx Customer EVB Main Board
B
Friday, August 14, 2015
Ethernet
1016
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27897 PDF: SPF-27897D1
MPC574xx Customer EVB Main Board
B
Friday, August 14, 2015
Ethernet
1016
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27897 PDF: SPF-27897D1
MPC574xx Customer EVB Main Board
B
Friday, August 14, 2015
Ethernet
1016
Freescale General Business Use
R21
2.2K
5%
R233
49.9
1%
R2201.5K
J5
1
2
3
J7
1
2
3
dp83848c
U510/100 single phy
RXCLK
38
RSVDPU221RSVDPU1
20
RSVD512RSVD411RSVD310RSVD29RSVD1
8
RDN
13
RDP
14
LEDACTCOL_ANEN
28
IOVDD33_248IOVDD33_1
32
IOGND_247IOGND_135DGND
36
AVDD33
22
AGND_215AGND_1
19
TXD2
5
TXCLK
1
LEDLINK_AN0
26
RXER_MDIXEN
41
MDC
31
RESET
29
PWRDN_INT
7
MDIO
30
CRS_LEDCFG
40
RXD3_PHYAD3
46
RXD2_PHYAD2
45
RXD1_PHYAD1
44
RXD0_PHYAD1
43
RXDV_MIIMODE
39
TXEN
2
TXD0
3
LEDSPEED_AN1
27
PFBIN2
37
TXD3_SNIMODE
6
TXD1
4
RBIAS
24
COL_PHYAD0
42
PFBIN1
18
PFBOUT
23
X2
33
X1
34
TDN
16
TDP
17
25MHZ_OUT
25
C200
0.1UF
C228
0.1UF
J6
12
R550
C225
0.1UF
Y2
25MHZ
21
R3450
C227
0.1UF
R2850
C233
0.1UF
L200
120OHM
21
R218
10.0K
+
C241
10UF
R4250
R222
270
C232
0.1UF
R4350
C223
0.1UF
C211
33PF
C229
0.1UF
R8050 DNP
C11
0.1UF
R224
49.9
1%
R219
2.2K 5%
R1750
R244
49.9
1%
R215
0
R223
270
CLK
OUT
VDD
GND
OE
50MHZ
Y1
42
31
+
C240
10UF
C210
33PF
J8
1
2
3
C6
0.1UF
R2050
P6RJ45-8
TD+
1
TD-
2
CT_3
3
GND_4
4
GND_5
5
CT_6
6
RD+
7
RD-
8
YA9YC10GC11GA
12
GND1
CG1
GND2
CG2
R3550
C226
0.1UF
R18
4.87K
R29
2.2K
5%
R4050
R234
49.9
1%
R4550
R308 0
TPV10
Page 46
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
FlexRAY Physical Interface
FlexRAY
debug
connector
Decoupling Caps for BOTH IC's. Place next to power pins.
FlexRAY A
Normal
EN STBN
1
Sleep
Go to Sleep
Rec Only011
1
MODE
00
0
VBATVBUFVCCVIO
(FR_A_TX)
(FR_A_RX)
(FR_A_TX_EN)
(FR_B_TX)
(FR_B_TX_EN)
(FR_B_RX)
(FR_DBG0)(FR_DBG1)
(FR_DBG2)(FR_DBG3)
FlexRAY B
(0603
50V)
(0603
50V)
(0603
50V)
(0603
50V)
Crimped lead - 279-9522
Receptacle housing - 279-9156
Crimped lead - 279-9522
Receptacle housing - 279-9156
(0603)
(0603)
(0603)
(0603)
(50V 0805)
(50V 0805)
Bus voltage +/- 12V (VBAT = 12v)
Components spec'd for 12V operation
Bus voltage +/- 12V (VBAT = 12v)
Components spec'd for 12V operation
All Signals are in
power domain VDD_HV_A.
FlexRAY interface will
work at 3.3V or 5.0V
(PER_HVA jumper)
Pin 17 was PH5, now PD13** (PH5 now routed to GPIO Matrix)
Pin 27 was PH4, now PM4 (PH4 now routed to GPIO Matrix)
Pin 45 was PH3, now PM3 (PH3 now routed to GPIO Matrix)
** Note PD13 is also routed to MLB header via DNP link
Pins used on this header are also at GPIO Matrix
PA12 - DSPI0_SIN (Also shared with TWRPI)
PA13 - DSPI0_SOUT (Also shared with TWRPI)
PA14 - DSPI0_SCK (Also shared with TWRPI)
PA15 - DSPI0_SS0 (Also shared with TWRPI)
PG2 - DSPI3_SOUT (Also shared with User LED)
PG3 - DSPI3_SS3 (Also shared with User LED)
PG4 - DSPI3_SCLK (Also shared with User LED)
PG5 - DSPI3_SIN (Also shared with User LED)
Amphenol 101-00565-64 SD
/ MMC socket with card
detection switch.
The SD card specification details an operating voltage of
between 2.7 and 3.6V. If using the SD card, it can ONLY be
used when VDD_HV_A (and PER_HVA) jumpers are set to 3.3V.
Inserting an SD card with VDD_HV_A / PER_HVA set to 5V will
result in card damage.
Card Detect: Grounded when Card Inserted, Pulled high when card removed
Write Protect: Grounded when NOT protected, Pulled high when protected (or card removed)
(SDHC_CD) WKPU19
(SDHC_WP)
Caution
(0603
50V)
PE6
PE7
PI1
PI3
PI2
SDHC1_CLK
SD_Detect
PA0
SD_WP
PH8
PI0
GND
GND
GND
3V3_SR
PE7
4
PH8
4
PA0
4
PE64
PI3
4
PI2
4
PI1
4
PI0
4
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27897 PDF: SPF-27897D1
MPC574xx Customer EVB Main Board
B
Friday, August 14, 2015
SD Card
1416
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27897 PDF: SPF-27897D1
MPC574xx Customer EVB Main Board
B
Friday, August 14, 2015
SD Card
1416
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27897 PDF: SPF-27897D1
MPC574xx Customer EVB Main Board
B
Friday, August 14, 2015
SD Card
1416
Freescale General Business Use
R12
10.0K
DNP
R6
10.0K
R10
10.0K
DNP
R9
10.0K
DNP
R220
R7
10.0K
C12
0.1UF
+
C7
10UF
P200
MMC_SD_CARD
WP_SW
1
CD_SW
2
DAT1
3
DAT0
4
DAT75GND/VSS2
6
DAT6
7
CLK
8
VCC/VDD
9
VSS1
10
DAT5
11
CMD
12
DAT4
13
DAT3
14
DAT2
15
GND1
S1
GND2
S2
GND3
S3
GND4
S4
R11
10.0K
DNP
R8
10.0K
DNP
R13
10.0K
DNP
R230
R14
22
Page 50
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
The LED's, Hex switches and push-button switches are
connected to MCU pads vvia zero ohm links. If desired
these can be removed and direct connection made to the
LED or switch. All of the ports used for LED's /
Switches are also bonded out to the GPIO matrix
Hex Encoded Switch (Active High)
Switches are hard wired to 3.3V rather than 5V so it's not possible to drive 5V into a 3.3V pad (which would cause damage)
Similarly, the LED's are active low with 3.3v supply so can be safely coupled to pads on either 3.3V or 5V domains
The ADC input is limited to 3.3V, again to prevent driving 5V into a 3.3V pad which would cause damage
PG[2..5] share eMIOS1
UC[11..14] with PWM
functionality
(eMIOS H / X)
(eMIOS G / X)
(eMIOS G / Y)
(eMIOS G)
User Pushbutton Switches (Active High)
User Peripherals, Audio Controls and GPIO
LED's are SMD (1206) Yellow
User LED's (Active Low)
OMRON B3WN-6002 Pushbutton Switch
Since the Hex switch always
has an active output, the
jumper is to allow the switch
to be powered off
ADC Input Pot and Test Point
(Note - This is run from linear 3.3v regulator to
provide a stable input voltage)
(ADC1_P[0])
(0603 50V)
Note - PA1 is also the NMI pin!
Note that LED2 and LED4 (PG3
and PG5) can be controlled in
LPU_RUN mode (and also have pad
keepers in LPU_STANDBY)
PB_SW1
PB_SW2
USR_LED4
PB_SW3
PB_SW4
USR_LED2
USR_LED1
USR_LED3
PA1
PA2
PF9
PF11
HEX_SW1
HEX_SW2
HEX_SW3
PD0
PD1
PD2
PD3
HEX_SW4
PG2
PG3
PG4
PG5
PB4
GND
3V3_SR
3V3_SR
3V3_SR
GND
3V3_LR
GND
GND
PG2
4,12,16
PG3
4,12,16
PG4
4,12,16
PG5
4,12,16
PA2
4,16
PF9
4,16
PF11
4,16
PD1
4,16
PD2
4,16
PD3
4,16
PD0
4,16
PA1
4,16
PB4
4
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27897 PDF: SPF-27897D1
MPC574xx Customer EVB Main Board
B
Friday, August 14, 2015
User Peripherals, Audio Controls and GPIO
1516
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27897 PDF: SPF-27897D1
MPC574xx Customer EVB Main Board
B
Friday, August 14, 2015
User Peripherals, Audio Controls and GPIO
1516
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27897 PDF: SPF-27897D1
MPC574xx Customer EVB Main Board
B
Friday, August 14, 2015
User Peripherals, Audio Controls and GPIO
1516
Freescale General Business Use
R2770
DS3
AC
R257 270
R286
100
DS8
AC
R269 270
R2750
R27810.0K
R2620
R2580
C25 0.1UF
DNP
R29010.0K
SW3
12
RV1 2K
13
2
R2870
R2890
P22
HDR 1X4
DNP
123
4
R261 270
P20
HDR 1X4
DNP
123
4
DS7
AC
R30110.0K
R3040
R27610.0K
DS2
AC
R2820
R30310.0K
TP18
1
R28110.0K
R2800
P19
HDR 1X4
DNP
123
4
R2600
R259 270
SW6
12
R2700
SW4
12
0
3
5
1
2
4
6
7
8
9
A
B
C
D
E
F
SW2
DRS4016
C
1
2
8
4
R3020
R28810.0K
J26
12
SW7
12
R27910.0K
J17
12
Page 51
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
All pads are DNP (Do Not Populate) 0.1" pitch headers placed on a 0.1" grid
GPIO Pin Matrix
PORTAPORTBPORTCPORTDPORTEPORTFPORTGPORTH
PORTQ
Layout Notes:
Pads must be placed in a 13 x 16 matrix pattern, 2.54 mm pitch
- 13 wide (one column for each port EXCLUDING those with no available pads ie C, E, H, Q)
- 16 tall (1 row for each port number from 0 to 15).
- GND pad at bottom of each colum
- After production, pads should be through hole (not solder filled)
No spare pins
on PortQ
No spare pins
on PortE
PORTIPORTJPORTKPORTLPORTMPORTNPORTOPORTP
No spare pins
on PortE
Busses are not used
on ports as it makes
it harder to see
which pins are shared
with other functions
14 GND Pads
(one at
bottom of
each colum)
PD[0..3] shared with
Hex Switch
PD[4..8] shared with
TWRPI connector with
pullup on PD[7], PD[8]
PA[1,2] shared with
user switches
PA[12..15] shared with
SAI Audio and TWRPI
PD[13] shared with
SAI Audio and MLB
headers
PI[12,13] shared with
MLB header
PK[0..4] shared with
TWRPI header
PF[9,11] shared with
user switches
PG[2..5] shared with
user LED's, SAI and
TWRPI headers
X1
Power - MPC5748G power pins footprint
Power - MPC5748G Decoupling Capacitors
Daughtercard Connectors
Bus Termination
28 Feb 2013Alasdair RobertsonInitial release sent for review
These schematics are provided for reference purposes only. As such,
Freescale does not make any warranty, implied or otherwise, as to the
suitability of circuit design or component selection (type or value) used in
these schematics for hardware design using the Freescale MPC5748G family
of Microprocessors. Customers using any part of these schematics as a
basis for hardware design, do so at their own risk and Freescale does not
assume any liability for such a hardware design.
User notes are given throughtout the schematics.
Specific PCB LAYOUT notes are detailed in ITALICS
Caution:
Notes:
- All components and board processes are to be ROHS compliant
- All small capacitors are 0402 unless otherwise stated
- All resistors are 0603 5% 0.1w unless otherwise stated. All zero ohm links are 0603
- All connectors and headers are denoted Px and are 2.54mm pitch unless otherwise stated
- All jumpers are denoted Jx. Jumpers are 2mm pitch
- Jumper default positions are shown in the schematics. For 3 way jumpers, default is always posn 1-2.
2 Pin jumpers generally have the "source" on pin 1.
- All switches are denoted SWx
- All test points are denoted TPx
- Test point Vias are denoted TPVx
Alasdair Robertson
Version sent to Pre Layout, incorporating fixes from review
Final Review11 Mar 2013
13 Mar 2013Alasdair Robertson
15 Mar 2013Alasdair RobertsonComponent consolodation, Few minor changes. Sent to Layout
3 Different test points used in design:
TPVx - Through Hole Pad small
TPHx - Through Hile Pad Large (for standard 0.1" header).
TPX - Surface Mount Wire Loop
A1 18 Aug 2015Alasdair RobertsonTidy up Schematics for UM (RevA PCB)
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Designer:
Drawn by:
Approved:
Automotive Microcontroller Applications
East Kilbride, Scotland
This document contains information proprietary to Freescale and shall not be used for engineering design,
procurement or manufacture in whole or in part without the express written permission of Freescale
SCH-27900 PDF: SPF-27900A1
MPC5748G 324 BGA Daughter Card
B
Tuesday, August 18, 2015
Index and Title Page
A. Robertson
A. Robertson
A. Robertson
18
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Designer:
Drawn by:
Approved:
Automotive Microcontroller Applications
East Kilbride, Scotland
This document contains information proprietary to Freescale and shall not be used for engineering design,
procurement or manufacture in whole or in part without the express written permission of Freescale
SCH-27900 PDF: SPF-27900A1
MPC5748G 324 BGA Daughter Card
B
Tuesday, August 18, 2015
Index and Title Page
A. Robertson
A. Robertson
A. Robertson
18
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Designer:
Drawn by:
Approved:
Automotive Microcontroller Applications
East Kilbride, Scotland
This document contains information proprietary to Freescale and shall not be used for engineering design,
procurement or manufacture in whole or in part without the express written permission of Freescale
SCH-27900 PDF: SPF-27900A1
MPC5748G 324 BGA Daughter Card
B
Tuesday, August 18, 2015
Index and Title Page
A. Robertson
A. Robertson
A. Robertson
18
Freescale General Business Use
Page 54
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
Individual MCU
supply control
jumpers
3v3
Default Configuraiton:
- ALL MCU supply voltages are set to 3.3V (ADC0, ADC1, VDD_HV_A,
VDD_HV_B, VDD_HV_C, VBallast)
- VDD_LV Supplied from ballast transistor
This is not necessarily the same as the default shown in the RM. All
VDD_HV_x domains have at least one peripheral that only functions at
3.3V. Therefore the default is to run these from 3.3V. The analogue pins
can only be driven to the same voltage as the VDD_HV_x domain they are
situated in (ie max 3.3V) so makes sense for the analogue supply and
reference to be 3.3V
Ground Links
(0 Ohm
Resistors)
DAC External
Ref Voltage
Select
3v35v05v05v05v05v03v33v33v3
3v3
3v35v0
(Current Limit Resistor to
protecxt against case when
other MCU supplies are
disconnected and external
reference supply is live)
MPC5748G MCU Power Connections
Caution:
- If VDD_HV_A is driven from 5V, the VDD_HV_FLA pin
must not be supplied from 3.3V (remove the HVA_FLA
jumper)
- Don't attempt to over drive an analogue pad to 5V
when the digital VDD_HV_x supply is set to 3.3V. This
will trigger the ESD protectrion on that pad. For
example if VDD_HV_A is set to 3.3V and the analogue
supplies are set to 5V, you cannot drive 5V into a
pad in the VDD_HV_A domain
4.7uF Alternative (150-78844)- Polymer ALU, 16V 20% ESR=0.08R
7343-18
Place small Caps as close as possible to MCU pins
ADC
Place small caps close to each MCU pin
VDD_HVAVDD_HVBVDD_HVC
VDD_LV
See caps below for Bypass Transistor bulk storage (some on VDD1V2 rail)
VDD_LV (1.25V) Decoupling. Place one of the non DNP caps each side of the device
as close as possible to pin. Distribute other (DNP) caps around rest of pins
Ballast Transistor
Flash
MPC5748G MCU Decoupling and bulk storage
LP Internal Reg Cap
Place
close to
transistor
Place one 0.68uF cap footprint
each side of package
NX8045GB-40.000M-STD-CSJ-1 XTAL
(Optimised for Automotive, 8pF Load capacitance)
FC-255 32.7680K-A3
(Load Capacitance 7pF)
(From SMA connector on main board)
Clocks
EXTAL
MCU-XTAL
PB8
MCU-EXTAL
XTAL
PB9
EXT-CLK
GND
GND
GND
MCU-XTAL
4
PB8
4
PB94
MCU-EXTAL4
EXT-CLK
8
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27900 PDF: SPF-27900A1
MPC5748G 324 BGA Daughter Card
B
Tuesday, August 18, 2015
Clocks
68
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27900 PDF: SPF-27900A1
MPC5748G 324 BGA Daughter Card
B
Tuesday, August 18, 2015
Clocks
68
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27900 PDF: SPF-27900A1
MPC5748G 324 BGA Daughter Card
B
Tuesday, August 18, 2015
Clocks
68
Freescale General Business Use
R33
1.0M
DNP
J2
1
2
3
Y20
32.768KHZ
12
C62 12PF
Y1
40.0MHZ
12
C7
12PF
C6
12PF
R34 0
DNP
C63
12PF
R8
1.0M
DNP
J1
1
2
3
Page 59
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
(PD[15] Shared with MLB_DAT for 3-pin mode)
(PB[15] Shared with MLB_SIG for 3-pin mode)
(PI[8] Shared with MLB_CLK for 3-pin mode)
Place resistors as close as possible to MCU
R1 Fitted by default
for LVDS 6-pin signals
Remove R1 and
fit R2 to
enable 3-pin
signals
Layout Note - Place resistors as shown with
shared pad (as close to MCU as possible)
Place resistors as close as possible to MCU
From MCUTo Daughtercard
MLB Termination
Ethernet Termination
High Speed Signal Termination
PB14
PD15
PB13
PD14
PI8
MLB_SN
MLB_SP
MLB_DN
MLB_DP
MLB_CN
MLB_CP
PB15
MLB_CLK
MLB_SIG
MLB_DAT
PH2
PH1
PG12
PH0
PG13
PH2-R
PH1-R
PH0-R
PG13-R
PG12-R
PG0-RPG0
PI8
5
PB144
PD15
4
PB154
PB134
PD14
4
MLB_DAT
8
MLB_SIG
8
MLB_CLK
8
MLB_SN
8
MLB_SP
8
MLB_DN
8
MLB_DP
8
MLB_CN
8
MLB_CP
8
PG13
4
PG12
4
PH0
4
PH1
4
PH2
4
PG13-R
8
PG12-R
8
PH0-R
8
PH1-R
8
PH2-R
8
PG0-R
8
PG0
4
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27900 PDF: SPF-27900A1
MPC5748G 324 BGA Daughter Card
B
Tuesday, August 18, 2015
High Speed Signal Termination
78
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27900 PDF: SPF-27900A1
MPC5748G 324 BGA Daughter Card
B
Tuesday, August 18, 2015
High Speed Signal Termination
78
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27900 PDF: SPF-27900A1
MPC5748G 324 BGA Daughter Card
B
Tuesday, August 18, 2015
High Speed Signal Termination
78
Freescale General Business Use
R20
100
DNP
R27100 1%
R26
0
R28
0
R32
0
R31105.0 1%
R25
100
DNP
R22105.0 1%
R30
0
R250
R350
R21
0
R23
0
R550
R29
100
DNP
R450
R150
R650
Page 60
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
Daughter Card Connectors (Plugs)
Notes:
- there was no neat way to fit these connectors onto a B sized sheet so unfortunately the sheet size
has been increased to C so will need to be printed on larger paper.
- The Crystal Signals are NOT routed via the daughtercard connectors
- The Specific MCU power pins are not routed via the daughter card however the jumpered MCU supply
lines are brought up from the main board (see the top pins of the connector on the left)
- The connector schematic symbols have been horizontally mirrored so they match the main EVB connector.
This has no bearing on the PCB placement or footprint. Pin1 on the recepticle mates with pin 1 on the
plug.
X1
Power - MPC5748G power pins footprint
Power - MPC5748G Decoupling Capacitors
Daughtercard Connectors
Bus Termination
11 Mar 2013Alasdair RobertsonInitial release sent for review based on X-MPC574XG-324DS X2
These schematics are provided for reference purposes only. As such,
Freescale does not make any warranty, implied or otherwise, as to the
suitability of circuit design or component selection (type or value) used in
these schematics for hardware design using the Freescale MPC5748G family
of Microprocessors. Customers using any part of these schematics as a
basis for hardware design, do so at their own risk and Freescale does not
assume any liability for such a hardware design.
User notes are given throughtout the schematics.
Specific PCB LAYOUT notes are detailed in ITALICS
Caution:
Notes:
- All components and board processes are to be ROHS compliant
- All small capacitors are 0402 unless otherwise stated
- All resistors are 0603 5% 0.1w unless otherwise stated. All zero ohm links are 0603
- All connectors and headers are denoted Px and are 2.54mm pitch unless otherwise stated
- All jumpers are denoted Jx. Jumpers are 2mm pitch
- Jumper default positions are shown in the schematics. For 3 way jumpers, default is always posn 1-2.
2 Pin jumpers generally have the "source" on pin 1.
- All switches are denoted SWx
- All test points are denoted TPx
- Test point Vias are denoted TPVx
13 Mar 2013Alasdair Robertson
15 Mar 2013Component consolodation, Few minor changes. Sent to LayoutAlasdair Robertson
Version sent to Pre Layout, incorporating fixes from review
29 Mar 2013Alasdair RobertsonChanges made during layout to Daughtercard Connectors
Changes on MCU Power to validate MPC5746Jesus Sanchez16 Mar 2014X1
SCH-27899 change to SCH-28341
A18 Apr 2014Jesus SanchezPost Layout. RevA.
A1Alasdair RobertsonTidy up Schematics for UM (RevA PCB)18 Aug 2015
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Designer:
Drawn by:
Approved:
Automotive Microcontroller Applications
East Kilbride, Scotland
This document contains information proprietary to Freescale and shall not be used for engineering design,
procurement or manufacture in whole or in part without the express written permission of Freescale
SCH-28341 PDF: SPF-28341A
MPC5748G 256 BGA Daughter Card
B
Tuesday, August 18, 2015
Index and Title Page
A. Robertson / J. Sanchez
A. Robertson / J. Sanchez
A. Robertson
18
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Designer:
Drawn by:
Approved:
Automotive Microcontroller Applications
East Kilbride, Scotland
This document contains information proprietary to Freescale and shall not be used for engineering design,
procurement or manufacture in whole or in part without the express written permission of Freescale
SCH-28341 PDF: SPF-28341A
MPC5748G 256 BGA Daughter Card
B
Tuesday, August 18, 2015
Index and Title Page
A. Robertson / J. Sanchez
A. Robertson / J. Sanchez
A. Robertson
18
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Designer:
Drawn by:
Approved:
Automotive Microcontroller Applications
East Kilbride, Scotland
This document contains information proprietary to Freescale and shall not be used for engineering design,
procurement or manufacture in whole or in part without the express written permission of Freescale
SCH-28341 PDF: SPF-28341A
MPC5748G 256 BGA Daughter Card
B
Tuesday, August 18, 2015
Index and Title Page
A. Robertson / J. Sanchez
A. Robertson / J. Sanchez
A. Robertson
18
Freescale General Business Use
Page 63
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
Individual MCU
supply control
jumpers
3v3
Default Configuraiton:
- ALL MCU supply voltages are set to 3.3V (ADC0, ADC1, VDD_HV_A,
VDD_HV_B, VDD_HV_C, VBallast)
- VDD_LV Supplied from ballast transistor
This is not necessarily the same as the default shown in the RM. All
VDD_HV_x domains have at least one peripheral that only functions at
3.3V. Therefore the default is to run these from 3.3V. The analogue pins
can only be driven to the same voltage as the VDD_HV_x domain they are
situated in (ie max 3.3V) so makes sense for the analogue supply and
reference to be 3.3V
Ground Links
(0 Ohm
Resistors)
DAC External
Ref Voltage
Select
3v35v05v05v05v05v03v33v33v3
3v3
3v3
5v0
(Current Limit Resistor to
protecxt against case when
other MCU supplies are
disconnected and external
reference supply is live)
MPC5748G MCU Power Connections
Caution:
- If VDD_HV_A is driven from 5V, the VDD_HV_FLA pin
must not be supplied from 3.3V (remove the HVA_FLA
jumper)
- Don't attempt to over drive an analogue pad to 5V
when the digital VDD_HV_x supply is set to 3.3V. This
will trigger the ESD protectrion on that pad. For
example if VDD_HV_A is set to 3.3V and the analogue
supplies are set to 5V, you cannot drive 5V into a
pad in the VDD_HV_A domain
4.7uF Alternative (150-78844)- Polymer ALU, 16V 20% ESR=0.08R
7343-18
Place small Caps as close as possible to MCU pins
ADC
Place small caps close to each MCU pin
VDD_HVAVDD_HVBVDD_HVC
VDD_LV
See caps below for Bypass Transistor bulk storage (some on VDD1V2 rail)
VDD_LV (1.25V) Decoupling. Place one of the non DNP caps each side of the device
as close as possible to pin. Distribute other (DNP) caps around rest of pins
Ballast Transistor
Flash
MPC5748G MCU Decoupling and bulk storage
LP Internal Reg Cap
Place
close to
transistor
Place one 0.68uF cap footprint
each side of package
- 12 fewer pins on Port P
(And corresponding changes
to daughtercard connectors)
(GPIO & MLB_PS0)
(GPIO & MLB_PS1)
PI0
PI1
PI3
PI2
PI4
PI5
PI7
PI6
PI8
PI9
PI11
PI10
PI12
PI13
PI15
PI14
PJ0
PJ1
PJ3
PJ2
PJ4
PJ7
PJ6
PJ8
PJ9
PJ11
PJ10
PJ12
PJ13
PJ15
PJ14
PK0
PK1
PK3
PK2
PK4
PK5
PK7
PK6
PK8
PK9
PK11
PK10
PK12
PK13
PK14
PL0
PL1
PM3
PM4
PM5
PM14
PO0
PO1
PP12
PP13
PP15
PP14
PK15
PQ1
PQ3
PQ2
PQ4
PQ5
PQ6
PJ5
PQ7
PQ0
PI118
PI128
PI138
PI148
PI158
PI68
PI78
PI87
PI98
PI108
PI58
PI08
PI18
PI28
PI38
PI48
PJ118
PJ128
PJ138
PJ148
PJ158
PJ68
PJ78
PJ88
PJ98
PJ108
PJ58
PJ08
PJ18
PJ28
PJ38
PJ48
PK118
PK128
PK138
PK148
PK158
PK68
PK78
PK88
PK98
PK108
PK58
PK08
PK18
PK28
PK38
PK48
PL08
PL18
PM3
8
PM4
8
PM5
8
PM14
8
PO0
8
PO1
8
PP12
8
PP13
8
PP14
8
PP15
8
PQ48
PQ58
PQ68
PQ78
PQ08
PQ18
PQ28
PQ38
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28341 PDF: SPF-28341A
MPC5748G 256 BGA Daughter Card
B
Tuesday, August 18, 2015
MPC5748G GPIO 2of2
58
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28341 PDF: SPF-28341A
MPC5748G 256 BGA Daughter Card
B
Tuesday, August 18, 2015
MPC5748G GPIO 2of2
58
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28341 PDF: SPF-28341A
MPC5748G 256 BGA Daughter Card
B
Tuesday, August 18, 2015
MPC5748G GPIO 2of2
58
Freescale General Business Use
MPC5748G 256 BGA
Package 3of3 GPIO Pins2
U1C
PPC5748GSK0MMJ6 + OTB-256(324R)-1.0-006-00
PI0
C5
PI1
A4
PI2
D6
PI3
B5
PI4
A12
PI5
D12
PI6
D2
PI7
E2
PI8
J14
PI9
J15
PI10
J16
PI11
H16
PI12
G15
PI13
G14
PI14
T12
PI15
P11
PJ0
R11
PJ1
N10
PJ2
R10
PJ3
P10
PJ4
D3
PJ5
N12
PJ6
N15
PJ7
P16
PJ8
P15
PJ9
P5
PJ10
T5
PJ11
R3
PJ12
T1
PJ13
N5
PJ14
T4
PJ15
R4
PK0
T3
PK1
H4
PK2
L4
PK3
N1
PK4
M3
PK5
M5
PK6
M6
PK7
M7
PK8
M8
PK9
E8
PK10
E7
PK11
F8
PK12
G12
PK13
H12
PK14
J12
PK15
D5
PL0
C4
PL1
F7
PM3
K12
PM4
L12
PM5
F9
PM14
M12
PO0
K5
PO1
L5
PP12
E12
PP13
F12
PP14
E11
PP15
F11
PQ0
J5
PQ1
H5
PQ2
G5
PQ3
F5
PQ4
F6
PQ5
E9
PQ6
F10
PQ7
E10
Page 67
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
Oscillators and External Clock
(XTAL32)
(EXTAL32)
NX8045GB-40.000M-STD-CSJ-1 XTAL
(Optimised for Automotive, 8pF Load capacitance)
FC-255 32.7680K-A3
(Load Capacitance 7pF)
(From SMA connector on main board)
Clocks
EXTAL
MCU-XTAL
PB8
MCU-EXTAL
XTAL
PB9
EXT-CLK
GND
GND
GND
MCU-XTAL
4
PB8
4
PB94
MCU-EXTAL4
EXT-CLK
8
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28341 PDF: SPF-28341A
MPC5748G 256 BGA Daughter Card
B
Tuesday, August 18, 2015
Clocks
68
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28341 PDF: SPF-28341A
MPC5748G 256 BGA Daughter Card
B
Tuesday, August 18, 2015
Clocks
68
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28341 PDF: SPF-28341A
MPC5748G 256 BGA Daughter Card
B
Tuesday, August 18, 2015
Clocks
68
Freescale General Business Use
J2
1
2
3
R8
1.0M
DNP
C61 12PF
Y20
32.768KHZ
12
C7
12PF
Y1
40.0MHZ
12
R33
1.0M
DNP
R34 0
DNP
C6
12PF
C62
12PF
J1
1
2
3
Page 68
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
(PD[15] Shared with MLB_DAT for 3-pin mode)
(PB[15] Shared with MLB_SIG for 3-pin mode)
(PI[8] Shared with MLB_CLK for 3-pin mode)
Place resistors as close as possible to MCU
R1 Fitted by default
for LVDS 6-pin signals
Remove R1 and
fit R2 to
enable 3-pin
signals
Layout Note - Place resistors as shown with
shared pad (as close to MCU as possible)
Place resistors as close as possible to MCU
From MCUTo Daughtercard
MLB Termination
Ethernet Termination
High Speed Signal Termination
PB14
PD15
PB13
PD14
PI8
MLB_SN
MLB_SP
MLB_DN
MLB_DP
MLB_CN
MLB_CP
PB15
MLB_CLK
MLB_SIG
MLB_DAT
PH2
PH1
PG12
PH0
PG13
PH2-R
PH1-R
PH0-R
PG13-R
PG12-R
PG0-RPG0
PI8
5
PB144
PB154
PB134
MLB_DAT
8
MLB_SIG
8
MLB_CLK
8
MLB_SN
8
MLB_SP
8
MLB_DN
8
MLB_DP
8
MLB_CN
8
MLB_CP
8
PG13
4
PG12
4
PH0
4
PH1
4
PH2
4
PG13-R
8
PG12-R
8
PH0-R
8
PH1-R
8
PH2-R
8
PG0-R
8
PG0
4
PD15
4
PD14
4
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28341 PDF: SPF-28341A
MPC5748G 256 BGA Daughter Card
B
Tuesday, August 18, 2015
High Speed Signal Termination
78
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28341 PDF: SPF-28341A
MPC5748G 256 BGA Daughter Card
B
Tuesday, August 18, 2015
High Speed Signal Termination
78
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28341 PDF: SPF-28341A
MPC5748G 256 BGA Daughter Card
B
Tuesday, August 18, 2015
High Speed Signal Termination
78
Freescale General Business Use
R20
100
DNP
R26
0
R27100 1%
R28
0
R32
0
R25
100
DNP
R31105.0 1%
R22105.0 1%
R150
R30
0
R21
0
R350
R650
R23
0
R250
R550
R29
100
DNP
R450
Page 69
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
Daughter Card Connectors (Plugs)
Notes:
- there was no neat way to fit these connectors onto a B sized sheet so unfortunately the sheet
size has been increased to C so will need to be printed on larger paper.
- The Crystal Signals are NOT routed via the daughtercard connectors
- The Specific MCU power pins are not routed via the daughter card however the jumpered MCU
supply lines are brought up from the main board (see the top pins of the connector on the left)
- The connector schematic symbols have been horizontally mirrored so they match the main EVB
connector. This has no bearing on the PCB placement or footprint. Pin1 on the recepticle mates
with pin 1 on the plug.
X1
Power - MPC5748G power pins footprint
Power - MPC5748G Decoupling Capacitors
Daughtercard Connectors
Bus Termination
11 Mar 2013Alasdair Robertson
These schematics are provided for reference purposes only. As such,
Freescale does not make any warranty, implied or otherwise, as to the
suitability of circuit design or component selection (type or value) used in
these schematics for hardware design using the Freescale MPC5748G family
of Microprocessors. Customers using any part of these schematics as a
basis for hardware design, do so at their own risk and Freescale does not
assume any liability for such a hardware design.
User notes are given throughtout the schematics.
Specific PCB LAYOUT notes are detailed in ITALICS
Caution:
Notes:
- All components and board processes are to be ROHS compliant
- All small capacitors are 0402 unless otherwise stated
- All resistors are 0603 5% 0.1w unless otherwise stated. All zero ohm links are 0603
- All connectors and headers are denoted Px and are 2.54mm pitch unless otherwise stated
- All jumpers are denoted Jx. Jumpers are 2mm pitch
- Jumper default positions are shown in the schematics. For 3 way jumpers, default is always posn 1-2.
2 Pin jumpers generally have the "source" on pin 1.
- All switches are denoted SWx
- All test points are denoted TPx
- Test point Vias are denoted TPVx
Initial release sent for review based on X-MPC574XG-324DS X2
13 Mar 2013Alasdair Robertson
15 Mar 2013Component consolodation, Added MCU GND tab. Sent to LayoutAlasdair Robertson
Version sent to Pre Layout, incorporating fixes from review
Changes made during layout to Daughtercard Connectors29 Mar 2013Alasdair Robertson
15 Apr 2013
22 Jul 2013BAlasdair RobertsonUpdate to accomodate extra socket pins on MCU
19 Nov 2013CJesus SanchezThe socket was updated, exposed center PAD is grounded.
Changes on MCU Power to validate MPC5746Jesus Sanchez19 Dec 2013D
D1 17 Aug 2015Alasdair RobertsonTidy up Schematics for UM (RevD PCB)
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Designer:
Drawn by:
Approved:
Automotive Microcontroller Applications
East Kilbride, Scotland
This document contains information proprietary to Freescale and shall not be used for engineering design,
procurement or manufacture in whole or in part without the express written permission of Freescale
SCH-27898 PDF: SPF-27898D1
MPC5748G 176 QFP Daughter Card
B
Tuesday, August 18, 2015
Index and Title Page
A. Robertson
A. Robertson
A. Robertson
18
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Designer:
Drawn by:
Approved:
Automotive Microcontroller Applications
East Kilbride, Scotland
This document contains information proprietary to Freescale and shall not be used for engineering design,
procurement or manufacture in whole or in part without the express written permission of Freescale
SCH-27898 PDF: SPF-27898D1
MPC5748G 176 QFP Daughter Card
B
Tuesday, August 18, 2015
Index and Title Page
A. Robertson
A. Robertson
A. Robertson
18
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Designer:
Drawn by:
Approved:
Automotive Microcontroller Applications
East Kilbride, Scotland
This document contains information proprietary to Freescale and shall not be used for engineering design,
procurement or manufacture in whole or in part without the express written permission of Freescale
SCH-27898 PDF: SPF-27898D1
MPC5748G 176 QFP Daughter Card
B
Tuesday, August 18, 2015
Index and Title Page
A. Robertson
A. Robertson
A. Robertson
18
Freescale General Business Use
Page 72
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
Individual MCU
supply control
jumpers
3v3
Default Configuraiton:
- ALL MCU supply voltages are set to 3.3V (ADC0, ADC1, VDD_HV_A,
VDD_HV_B, VDD_HV_C, VBallast)
- VDD_LV Supplied from ballast transistor
This is not necessarily the same as the default shown in the RM. All
VDD_HV_x domains have at least one peripheral that only functions at
3.3V. Therefore the default is to run these from 3.3V. The analogue pins
can only be driven to the same voltage as the VDD_HV_x domain they are
situated in (ie max 3.3V) so makes sense for the analogue supply and
reference to be 3.3V
Ground Links
(0 Ohm
Resistors)
3v35v05v05v05v03v33v3
3v3
3v3
5v0
MPC5748G MCU Power Connections
Caution:
- If VDD_HV_A is driven from 5V, the VDD_HV_FLA pin
must not be supplied from 3.3V (remove the HVA_FLA
jumper)
- Don't attempt to over drive an analogue pad to 5V
when the digital VDD_HV_x supply is set to 3.3V. This
will trigger the ESD protectrion on that pad. For
example if VDD_HV_A is set to 3.3V and the analogue
supplies are set to 5V, you cannot drive 5V into a
pad in the VDD_HV_A domain
NX8045GB-40.000M-STD-CSJ-1 XTAL
(Optimised for Automotive, 8pF Load capacitance)
FC-255 32.7680K-A3
(Load Capacitance 7pF)
(From SMA connector on main board)
Clocks
EXTAL
MCU-XTAL
PB8
MCU-EXTAL
XTAL
PB9
EXT-CLK
GND
GND
GND
MCU-XTAL
4
PB8
4
PB94
MCU-EXTAL4
EXT-CLK
8
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27898 PDF: SPF-27898D1
MPC5748G 176 QFP Daughter Card
B
Tuesday, August 18, 2015
Clocks
68
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27898 PDF: SPF-27898D1
MPC5748G 176 QFP Daughter Card
B
Tuesday, August 18, 2015
Clocks
68
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27898 PDF: SPF-27898D1
MPC5748G 176 QFP Daughter Card
B
Tuesday, August 18, 2015
Clocks
68
Freescale General Business Use
J1
1
2
3
C6
12PF
C38 12PF
R35 0
DNP
R7
1.0M
DNP
Y20
32.768KHZ
12
C39
12PF
R30
1.0M
DNP
Y1
40.0MHZ
12
J2
1
2
3
C5
12PF
Page 77
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
(PD[15] Shared with MLB_DAT for 3-pin mode)
(PB[15] Shared with MLB_SIG for 3-pin mode)
(PI[8] Shared with MLB_CLK for 3-pin mode)
Place resistors as close as possible to MCU
R1 Fitted by default
for LVDS 6-pin signals
Remove R1 and
fit R2 to
enable 3-pin
signals
Layout Note - Place resistors as shown with
shared pad (as close to MCU as possible)
Place resistors as close as possible to MCU
From MCUTo Daughtercard
MLB Termination
Ethernet Termination
High Speed Signal Termination
PB14
PD15
PB13
PD14
PI8
MLB_SN
MLB_SP
MLB_DN
MLB_DP
MLB_CN
MLB_CP
PB15
MLB_CLK
MLB_SIG
MLB_DAT
PH2
PH1
PG12
PH0
PG13
PH2-R
PH1-R
PH0-R
PG13-R
PG12-R
PG0-RPG0
PI8
5
PB144
PB154
PB134
MLB_DAT
8
MLB_SIG
8
MLB_CLK
8
MLB_SN
8
MLB_SP
8
MLB_DN
8
MLB_DP
8
MLB_CN
8
MLB_CP
8
PG13
4
PG12
4
PH0
4
PH1
4
PH2
4
PG13-R
8
PG12-R
8
PH0-R
8
PH1-R
8
PH2-R
8
PG0-R
8
PG0
4
PD15
4
PD14
4
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27898 PDF: SPF-27898D1
MPC5748G 176 QFP Daughter Card
B
Tuesday, August 18, 2015
High Speed Signal Termination
78
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27898 PDF: SPF-27898D1
MPC5748G 176 QFP Daughter Card
B
Tuesday, August 18, 2015
High Speed Signal Termination
78
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-27898 PDF: SPF-27898D1
MPC5748G 176 QFP Daughter Card
B
Tuesday, August 18, 2015
High Speed Signal Termination
78
Freescale General Business Use
R250
R24
0
R33
0
R22
0
R23100 1%
R34
100
DNP
R550
R32105.0 1%
R150
R650
R21
100
DNP
R26
0
R28105.0 1%
R450
R25
100
DNP
R350
R29
0
R31
0
Page 78
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
Daughter Card Connectors (Plugs)
Notes:
- there was no neat way to fit these connectors onto a B sized sheet so unfortunately the
sheet size has been increased to C so will need to be printed on larger paper.
- The Crystal Signals are NOT routed via the daughtercard connectors
- The Specific MCU power pins are not routed via the daughter card however the jumpered MCU
supply lines are brought up from the main board (see the top pins of the connector on the
left)
- The connector schematic symbols have been horizontally mirrored so they match the main EVB
connector. This has no bearing on the PCB placement or footprint. Pin1 on the recepticle
mates with pin 1 on the plug.
X1
Power - MPC5746C power pins footprint
Power - MPC5746C Decoupling Capacitors
Daughtercard Connectors
Bus Termination
05 Jan 2014Alasdair RobertsonInitial release sent for review based on X-MPC574XG-256DS RevA
These schematics are provided for reference purposes only. As such,
Freescale does not make any warranty, implied or otherwise, as to the
suitability of circuit design or component selection (type or value) used in
these schematics for hardware design using the Freescale MPC5746C family
of Microprocessors. Customers using any part of these schematics as a
basis for hardware design, do so at their own risk and Freescale does not
assume any liability for such a hardware design.
User notes are given throughtout the schematics.
Specific PCB LAYOUT notes are detailed in ITALICS
Caution:
Notes:
- All components and board processes are to be ROHS compliant
- All small capacitors are 0402 unless otherwise stated
- All resistors are 0603 5% 0.1w unless otherwise stated. All zero ohm links are 0603
- All connectors and headers are denoted Px and are 2.54mm pitch unless otherwise stated
- All jumpers are denoted Jx. Jumpers are 2mm pitch
- Jumper default positions are shown in the schematics. For 3 way jumpers, default is always posn 1-2.
2 Pin jumpers generally have the "source" on pin 1.
- All switches are denoted SWx
- All test points are denoted TPx
- Test point Vias are denoted TPVx
07 Jan 2014Alasdair RobertsonPost review corrections incl MCU Orcad Footprint
30 Jan 2014Alasdair RobertsonPrototype build releaseA
A1 18 Aug 2015Alasdair RobertsonTidy up Schematics for UM (RevA PCB)
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Designer:
Drawn by:
Approved:
Automotive Microcontroller Applications
East Kilbride, Scotland
This document contains information proprietary to Freescale and shall not be used for engineering design,
procurement or manufacture in whole or in part without the express written permission of Freescale
SCH-28701 PDF: SPF-28701A1
MPC5746C 100 BGA Daughter Card
B
Tuesday, August 18, 2015
Index and Title Page
A. Robertson
A. Robertson
A. Robertson
18
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Designer:
Drawn by:
Approved:
Automotive Microcontroller Applications
East Kilbride, Scotland
This document contains information proprietary to Freescale and shall not be used for engineering design,
procurement or manufacture in whole or in part without the express written permission of Freescale
SCH-28701 PDF: SPF-28701A1
MPC5746C 100 BGA Daughter Card
B
Tuesday, August 18, 2015
Index and Title Page
A. Robertson
A. Robertson
A. Robertson
18
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Designer:
Drawn by:
Approved:
Automotive Microcontroller Applications
East Kilbride, Scotland
This document contains information proprietary to Freescale and shall not be used for engineering design,
procurement or manufacture in whole or in part without the express written permission of Freescale
SCH-28701 PDF: SPF-28701A1
MPC5746C 100 BGA Daughter Card
B
Tuesday, August 18, 2015
Index and Title Page
A. Robertson
A. Robertson
A. Robertson
18
Freescale General Business Use
Page 81
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
Individual MCU
supply control
jumpers
3v3
Default Configuraiton:
- ALL MCU supply voltages are set to 3.3V (ADC0, ADC1, VDD_HV_A,
VDD_HV_B, VDD_HV_C, VBallast)
- VDD_LV Supplied from ballast transistor
This is not necessarily the same as the default shown in the RM. All
VDD_HV_x domains have at least one peripheral that only functions at
3.3V. Therefore the default is to run these from 3.3V. The analogue pins
can only be driven to the same voltage as the VDD_HV_x domain they are
situated in (ie max 3.3V) so makes sense for the analogue supply and
reference to be 3.3V
Ground Links
(0 Ohm
Resistors)
3v35v05v05v05v03v33v3
3v3
3v35v0
MPC5746C MCU Power Connections
Caution:
- If VDD_HV_A is driven from 5V, the VDD_HV_FLA pin
must not be supplied from 3.3V (remove the HVA_FLA
jumper)
- Don't attempt to over drive an analogue pad to 5V
when the digital VDD_HV_x supply is set to 3.3V. This
will trigger the ESD protectrion on that pad. For
example if VDD_HV_A is set to 3.3V and the analogue
supplies are set to 5V, you cannot drive 5V into a
pad in the VDD_HV_A domain
4.7uF Alternative (150-78844)- Polymer ALU, 16V 20% ESR=0.08R
7343-18
Place small Caps as close as possible to MCU pins
ADC
Place small caps close to each MCU pin
VDD_HVAVDD_HVB
VDD_LV
VDD_LV (1.25V) Decoupling. Place -.1uF
caps as close as possible to respective
VDD_LV pins
Ballast Transistor
Flash
MPC5746C MCU Decoupling and bulk storage
LP Internal Reg Cap
Place close
to transistor
Place one 0.68uF cap footprint
each side of package
(low ESR)
(low
ESR)
(low
ESR)
(Murata GCM219R71C684KA37)
(low
ESR)
(low
ESR)
(low
ESR)
(low
ESR)
(low ESR)
2.2uF caps are
DNP. Place close
to emitter
One of these is DNP to keep overall capacitance less
than max spec of 3uF. If necessary, these can be
replaced with 0.47uF caps as long as combined ESR of all
caps is less than 0.03 Ohms
ADC0_CAP
ADC0_GND
ADC1REF_CAP
ADC1_GND
ADC1_CAP
ADC1_GND
GND
HVA_CAP
GND
HVB_CAP
LV_CAP
GND
HVFLA_CAP
GND
LV_CAPB_CAPE_CAP
GND
LVDEC_CAP
GND
E_CAP
GND
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28701 PDF: SPF-28701A1
MPC5746C 100 BGA Daughter Card
B
Tuesday, August 18, 2015
MPC5746C MCU Decoupling
38
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28701 PDF: SPF-28701A1
MPC5746C 100 BGA Daughter Card
B
Tuesday, August 18, 2015
MPC5746C MCU Decoupling
38
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28701 PDF: SPF-28701A1
MPC5746C 100 BGA Daughter Card
B
Tuesday, August 18, 2015
MPC5746C MCU Decoupling
38
Freescale General Business Use
C52
0.1UF
C10
2.2UF
DNP
C48
1000pF
C54
1000pF
C57
1.0 UF
C23
0.1UF
C55
0.1UF
C20
0.68uF
DNP
C56
0.1UF
+
C1
10UF
C53
0.1UF
C59
1.0 UF
C39
0.1UF
C8 4700pF
C36
1000pF
+
C4
10UF
DNP
C46
1000pF
C9
2.2UF
DNP
+
C3
10UF
DNP
C35
0.1UF
C22
470pF
+
C2
10UF
DNP
C31
0.68uF
C27
470pF
C47
1000pF
C60
0.68uF
C26
0.1UF
C33
470pF
C32
0.1UF
C24
0.1UF
C34
2.2UF
LMK107B7225KA-T
C49
0.1UF
C29
0.68uF
C43
1uF
LMK107B7105KA-T
C58
1.0 UF
C51
1000pF
Page 83
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
MPC5746C GPIO 1 of 2
Key to text colours:
Purple - Comms Physical Interfaces
Blue - Debug (JTAG & Nexus)
(FR_A_TX)
(FR_A_TX_EN)
(FR_A_RX)
(USB1_D0)
(USB1_D1)
(USB1_D3)
(USB1_D5)
(USB1_D7)
Orange - Other Peripherals and I/O
(RMII_RXD0)
(RMII_RXD1)
(MII_RXD2)
(MII_RXD3)
(RMII_TXD0)
(RMII_TXD1)
(MII_TXD2)
(MII_TXD3)
(RMII_TXEN)
(RMII_MDC)
(RMII_TXCLK)
(RMII_RXDV)
(RMII_MDIO)
(RMII_RXER)
(MII_COL)
(MII_RXCLK)
(SAI0_D0)
(SAI0_MCLK)
(SAI0_SYNC)
(TDI)
(TDO)
(TCK)
(TMS)
Black - Clock, Reset and Control
(SAI_I2C2_SCL)
(SAI_I2C2_SDA)
Green - I/O Matrix (dedicated)
(CMP1_8 / IO)
(CMP1_10 / IO)
(CMP1_12 / IO)
(CMP1_13 / IO)
(CMP1_14 / IO)
(CMP1_15 / IO)
(CLKOUT1 GPIO)
(GPIO)
(HEX2 & GPIO)
(SW1 & GPIO**)
(SW2 & GPIO)
(LED1 & GPIO)
(LED2 & GPIO)
** PA1 is also NMI. Routed to I/O Matrix
RED - I/O Matrix and other functions (eg LED)
(CLKOUT0 GPIO)
(CAN0_TX)
(CAN0_RX)
(CAN1_RX)
(CAN1_TX)
(SW3 & GPIO)
(SD_CD - WKPU19)
(eMIOS E1UC_11_H)
(eMIOS E1UC_12_H)
(WKPU2 / NMI0)
(WKPU3)
WKPU22
(SAI_GPIO)
(MLB_GPIO)
(GPIO & MLB_ST)
PA0
PA1
PA3
PA2
PA4
PA5
PA7
PA6
PA8
PA9
PA11
PA10
PA12
PA13
PA15
PA14
PB0
PB1
PC0
PC1
PC5
PD1
PE3
PE2
PE8
PE9
PE13
PE15
PF0
PF5
PF8
PF9
PF10
PF15
PF14
PG0
PG1
PG3
PG2
PG7
PG6
PG11
PG12
PG13
PG15
PG14
PH0
PH1
PH2
PH9
PH10
PH12
PORSTx
PB10
PD13
PC10
PC11
MCU-XTAL
MCU-EXTAL
MCU-RSTx
PH0
7
PORSTx
8
MCU-RSTx8
MCU-EXTAL
6
MCU-XTAL6
PB08
PB18
PB108
PA118
PA128
PA138
PA148
PA158
PA68
PA78
PA88
PA98
PA108
PA58
PA08
PA18
PA28
PA38
PA48
PC118
PC108
PC58
PC08
PC18
PD138
PD18
PH1
7
PH2
7
PH9
8
PH10
8
PH12
8
PG0
7
PG1
8
PG2
8
PG3
8
PG6
8
PG7
8
PG11
8
PG12
7
PG13
7
PG14
8
PG15
8
PF0
8
PF5
8
PF8
8
PF9
8
PF10
8
PF14
8
PF15
8
PE2
8
PE3
8
PE8
8
PE9
8
PE13
8
PE15
8
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28701 PDF: SPF-28701A1
MPC5746C 100 BGA Daughter Card
B
Tuesday, August 18, 2015
MPC5746C GPIO 1of2
48
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28701 PDF: SPF-28701A1
MPC5746C 100 BGA Daughter Card
B
Tuesday, August 18, 2015
MPC5746C GPIO 1of2
48
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28701 PDF: SPF-28701A1
MPC5746C 100 BGA Daughter Card
B
Tuesday, August 18, 2015
MPC5746C GPIO 1of2
48
Freescale General Business Use
MPC5746C 100 BGA
Package 1of3 GPIO Pins1
U1A
SKT BGA 100 TH + MPC574XG-100
RESET
F1
PORST
A4
XTAL
K5
EXTAL
K6
PA0
H4
PA1
G3
PA2
F3
PA3
C10
PA4
J3
PA5
A5
PA6
B4
PA7
A10
PA8
B10
PA9
B9
PA10
B8
PA11
C8
PA12
J7
PA13
J6
PA14
J5
PA15
J4
PB0
H2
PB1
H1
PB10
K8
PC0/TDI
C5
PC1/TDO
C6
PC5
E3
PC11
G1
PD1
J10
PD13
G9
PE2
C3
PE3
D3
PE8
C2
PE9
C1
PE13
A9
PE15
A6
PF0
J8
PF5
G8
PF8
J2
PF9
J1
PF10
K1
PF14
D9
PF15
A8
PG0
F9
PG1
F10
PG2
B1
PG3
B2
PG6
H6
PG7
H5
PG11
B6
PG12
D10
PG13
D8
PG14
A7
PG15
B7
PH0
E10
PH1
E9
PH2
C9
TMS/PH10
C7
PH12
B5
PC10
G2
TCK/PH9
C4
Page 84
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
MPC5746C GPIO 2 of 2
(SD_D3)
(SD_D2)
(SD_D1)
(SD_D0)
(SAI1_D0)
(SAI2_D0)
(SAI2_BCLK)
(SAI2_SYNC)
(GPIO)
(GPIO)
Green - I/O Matrix (dedicated)
Key to text colours:
Purple - Comms Physical Interfaces
Blue - Debug (JTAG & Nexus)
RED - I/O Matrix and other functions (eg LED)
Orange - Other Peripherals and I/O
Black - Clock, Reset and Control
PI0
PI1
PI3
PI2
PI14
PJ0
PJ1
PJ2
PJ13
PJ14
PI148
PI08
PI18
PI28
PI38
PJ138
PJ148
PJ08
PJ18
PJ28
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28701 PDF: SPF-28701A1
MPC5746C 100 BGA Daughter Card
B
Tuesday, August 18, 2015
MPC5746C GPIO 2of2
58
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28701 PDF: SPF-28701A1
MPC5746C 100 BGA Daughter Card
B
Tuesday, August 18, 2015
MPC5746C GPIO 2of2
58
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28701 PDF: SPF-28701A1
MPC5746C 100 BGA Daughter Card
B
Tuesday, August 18, 2015
MPC5746C GPIO 2of2
58
Freescale General Business Use
MPC5746C 100 BGA
Package 3of3 GPIO Pins2
U1C
SKT BGA 100 TH + MPC574XG-100
PI0
A1
PI1
A2
PI2
B3
PI3
A3
PI14
J9
PJ0
F8
PJ1
H8
PJ2
H7
PJ13
K3
PJ14
K2
Page 85
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
Oscillators and External Clock
NX8045GB-40.000M-STD-CSJ-1 XTAL
(Optimised for Automotive, 8pF Load capacitance)
(From SMA connector on main board)
Clocks
(Note the 32KHz osc
pins are not bonded
out on the 100 pin
package)
EXTAL
MCU-XTAL
MCU-EXTAL
XTAL
EXT-CLK
GND
GND
MCU-XTAL
4
MCU-EXTAL4
EXT-CLK
8
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28701 PDF: SPF-28701A1
MPC5746C 100 BGA Daughter Card
B
Tuesday, August 18, 2015
Clocks
68
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28701 PDF: SPF-28701A1
MPC5746C 100 BGA Daughter Card
B
Tuesday, August 18, 2015
Clocks
68
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28701 PDF: SPF-28701A1
MPC5746C 100 BGA Daughter Card
B
Tuesday, August 18, 2015
Clocks
68
Freescale General Business Use
J1
1
2
3
C7
12PF
R34 0
DNP
Y1
40.0MHZ
12
R8
1.0M
DNP
J2
1
2
3
C6
12PF
Page 86
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
Place resistors as close as possible to MCU
Ethernet Termination
High Speed Signal Termination
PH2
PH1
PG12
PH0
PG13
PH2-R
PH1-R
PH0-R
PG13-R
PG12-R
PG0-RPG0
PG13
4
PG12
4
PH0
4
PH1
4
PH2
4
PG13-R
8
PG12-R
8
PH0-R
8
PH1-R
8
PH2-R
8
PG0-R
8
PG0
4
Drawing Title:
Size Document NumberRev
Date:Sheet
of
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28701 PDF: SPF-28701A1
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B
Tuesday, August 18, 2015
High Speed Signal Termination
78
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28701 PDF: SPF-28701A1
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B
Tuesday, August 18, 2015
High Speed Signal Termination
78
Freescale General Business Use
Drawing Title:
Size Document NumberRev
Date:Sheetof
Page Title:
Automotive Microcontroller
Applications
East Kilbride, Scotland
SCH-28701 PDF: SPF-28701A1
MPC5746C 100 BGA Daughter Card
B
Tuesday, August 18, 2015
High Speed Signal Termination
78
Freescale General Business Use
R150
R450
R250
R550
R650
R350
Page 87
5
5
4
4
3
3
2
2
1
1
DD
CC
BB
AA
Daughter Card Connectors (Plugs)
Notes:
- there was no neat way to fit these connectors onto a B sized sheet so unfortunately the sheet
size has been increased to C so will need to be printed on larger paper.
- The Crystal Signals are NOT routed via the daughtercard connectors
- The Specific MCU power pins are not routed via the daughter card however the jumpered MCU
supply lines are brought up from the main board (see the top pins of the connector on the left)
- The connector schematic symbols have been horizontally mirrored so they match the main EVB
connector. This has no bearing on the PCB placement or footprint. Pin1 on the recepticle mates
with pin 1 on the plug.
Information in this document is provided solely to enable system and software
implementers to use Freescale products. There are no express or implied copyright
licenses granted hereunder to design or fabricate any integrated circuits based on the
information in this document. Freescale reserves the right to make changes without
further notice to any products herein.
Freescale makes no warranty, representation, or guarantee regarding the suitability
of its products for any particular purpose, nor does Freescale 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 Freescale 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 customer's technical experts.
Freescale does not convey any license under its patent rights nor the rights of others.
Freescale sells products pursuant to standard terms and conditions of sale, which can
be found at the following address: freescale.com/SalesTermsandConditions.
Freescale and the Freescale logo are trademarks of Freescale Semiconductor, Inc.,
Reg. U.S. Pat. & Tm. Off. All other product or service names are the property of
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