epowertrain: nxp portfolio for the electrification …
TRANSCRIPT
NXP and the NXP logo are trademarks of NXP B.V. All other product or service names are the property
of their respective owners. © 2017 NXP B.V.
PUBLIC
APPLICATIONS ENGINEER
JIM SHEPARD
EPOWERTRAIN: NXP PORTFOLIO
FOR THE ELECTRIFICATION OF
VEHICLES
AMF-AUT-T2720 | JUNE 2017
BUSINESS DEVELOPMENT
DON LAYBOURN
PUBLIC 1
AGENDA• System / Module Diagrams
• Product Intro
• Functional Safety
• Development Tools
• Summary
• Q&A
PUBLIC 2
System / Module Diagrams
01.
PUBLIC 3
Start/Stop Start/StopStart/Stop Start/Stop Start/Stop
Regenerative
Braking Regenerative
Braking
Regenerative
Braking
Regenerative
Braking
Power
Assist
Power
Assist
Power
Assist
Short
Electrical Drive
Extended
Electrical Drive
Plugin
Capability
Micro Hybrid
Mild Hybrid
Full Hybrid
Plugin Hybrid
Electrical Assistance & Energy Mgt.
Conventional
ICE
Conventional
ICE Downsized ICE Downsized ICE Downsized ICE
Electrical Drive Capability
2 to 4kW / 12V
10 to 20 kW
48 to 100V4 to 10 kW
12 to 48V
15 to 60 kW
100 to 300V
40 to 80 kW
> 300V
Full
Electrical Drive
Plugin
Capability
Full Electric>80 kW
> 400-800V
Types of ePowertrain Systems
PUBLIC 4
NXP: Uniquely Positioned To Address HEV/EV
Traction Battery
Charger
12V
Power
Net
LV Battery
Driver Controller
Charge Point
• MCU
• Communications
LV Battery Monitoring
• MCU
• V, I & T Monitoring
Start Stop
• Drivers
• Re-Gen Braking
• Power Devices
Inverter
• Control & Safing MCU
• Isolation
• Drivers
• Power Devices Partnership
• FOC Software
• Modeling and Simulation Tools
HV Battery
Management
• MCU
• Charge Monitoring
• Charge Balancing
• Communications
• IsolationDC/DC
Converter
PUBLIC 5
NXP High Voltage Inverter Solution
PUBLIC 6
MCU
MPC57xx
48VBAT
GD3200
VBAT
GD3200
VBAT
GD3200
SPI
PWMHS
PWMLS
INTb
AOUT
PWMHS
PWMLS
INTb
AOUT
PWMHS
PWMLS
INTb
AOUT
FSOb
VAUX
VCORE
VCCA
RSTb
INTb
IGN
FCCU
CAN
FS65xx
VAUX
VAUX
VAUX
12VBAT
FCCUb
FS1b LFET2TA
SPI
3F motor
NXP Start / Stop Solution
PUBLIC 7
MOSI
CS1\
SCK1
MISO
CS2\
SCK2
33771
33771
33664
FS65xx
MOSI
CS\
SCK
MISO
FCCUI/O2
I/O3
FS0\
Contactor
To Contactors
MOSI
CS4\
SCK4
MISO
CS5\
SCK5
33664
Contactor
Driver
10XS6200
MOSI
CS3\
SCK3
MISO3
MPC57xx
VcoreVDD
CAN-FD
NXP BMS Solution
PUBLIC 8
Product Introductions
02.
PUBLIC 9
GD3100 IGBT Gate Driver
03.
PUBLIC 10
GD3100 IGBT Gate Driver for High Voltage Inverter
Differentiation:• Fast short circuit protection via direct feedback through i-sense IGBTs
• High speed over current protection with soft shutdown
• SPI interface for ASIL C/D monitor and reporting, device
programmability and flexibility
• Integrated temperature sense for system warning and ultimately soft
shutdown for system protection
• Integrated galvanic signal isolation between the low-voltage drive electronics
and the high-voltage power electronics in single package to reduce PCB area
Features:• SPI for configurability and for providing detailed fault & status data for
integrated protection and programmability
• High speed over current protection with soft shutdown
• Isolated AMUX for monitoring key circuit voltages and currents
• Gate-emitter clamp eliminates the need for negative gate supply voltage
• Integrated gate drive power stage capable of 10A source and sink
• Compatible with 200V to 1200V IGBTs, power range >125kW
Applications• HEV Motor Inverters
• HV UPS Inverters
• Alternate Energy Inverters
32-Pin
SOIC-WB
PART # PKG SAMPLES RELEASE
MC33HB3100EK SOICWB32 OCT (P2.0) Q1’18
PUBLIC 11
High Voltage Inverter Schematic
VCC_LU
GND2_LU
VCC_LV
GND2_LV
- DC Link
MPC5744P,
MPC5777C
PWML
SCLK
CSB
MOSI
MISO
INTL
PHASEU
+ DC Link
GND1
PWMH
INTH
TIMER_INH
5V
Isolaton
barrier
Safing Logic
FSSTATEL
FSSTATEH
FSENB
TIMER_INL
VBATT1
VBATT2
TSENSEA
TSENSEK
GND2_LU
VCC_LU
VCC_LW
GND2_LW
GND2_LU
Single flyback powers all 3
low side gate drives.
High side supplies are
similarly created.
These are powered by
VBATT or the backup
power supply when
VBATT is lost.
2X
Redundant
5V Supply
FS6500
Backup Power
Supply
VSUP
VDD
VSUP VDD
VSUP
(opt)
VDD
(opt)
RGL
RGH
VSUP
VDD
TSENSEA
TSENSEK
VCC_HU
GND2_HU
RGL
RGH
GND2_HU
MC33GD3100
VCC
CLAMP
DESAT
TSENSEA
FSISO
GH
GL
AMC
ISENSE
VREF
AMUXIN
GND2
GND2
VEE
VCCREG
VEE
FSSTATE
AOUT
PWMALT
PWM
INTB
NC13
GND1
FSENB
VSUP
NC2
VDD
CSB
SCLK
MISO
MOSI
GND1
MC33GD3100
VCC
CLAMP
DESAT
TSENSEA
FSISO
GH
GL
AMC
ISENSE
VREF
AMUXIN
GND2
GND2
VEE
VCCREG
VEE
FSSTATE
AOUT
PWMALT
PWM
INTB
NC13
GND1
FSENB
VSUP
NC2
VDD
CSB
SCLK
MISO
MOSI
GND1
Omit when using
current sense IGBT
PUBLIC 12
Fuji Current Sensing IGBT M653When the over current is protected quickly, the device channel density can be increased.
VCE saturation can be decreased allowing a decrease in total power dissipation.
©Fuji Electric, Ltd., All rights reserved
Current Sense
Feedback
Temp Sense
Feedback
PUBLIC 13
GD3200 MOSFET Gate Driver
04.
PUBLIC 14
GD3200 MOSFET Gate Driver for 48V Start/Stop
• Differentiation:
− Temperature and current sensing to safely extend operating range
− Compliant with ISO26262 ASIL D applications
− Isolation for 48V system with surge protection over 120V
• Features:
− SPI for configurability and detailed fault & status data
− Programmable deadtime
− Programmable desat/short circuit protection
− Low impedance drive transistors
− Package: 32 lead SOICWB
Applications• HEV 48V inverters
• 48V UPS systems
• Servers / Telecom inverters
PART # PKG SAMPLES RELEASE
MC33GD3200EK SOICW32 Q2’18 Q3’19
PUBLIC 15
33771 / 33772 Li-Ion Cell Monitor
05.
PUBLIC 16
MC33771B - 7 to 14 Cells Li-ion Battery Cell Controller
Differentiating Points
• Single chip 48 V battery control scalable to > 1000 V
• ASIL-C functional safety compliant
• 300 mA cell balancing transistors and 0.5% current sensors
• Isolated 2 Mbps differential communication or 4.0 Mbps SPI
• >2.5x higher transformer coupled daisy chain isolation (3750 V)
• Synchronized cell I/V measurement with coulomb counter
• 2 mV voltage measurement accuracy
• 65µs one shot synchronized cell impedance determination
• Fast data acquisition: 3.6 ms for 96 cells, 4.5 ms for 112 cells
• Functional verification & diagnostics supporting ISO26262
• Automotive robustness: ESD, EMC, Hot plug, AEC Q-100
Product Features
• 9.6 V ≤ VPWR ≤ 61.6 V operation, 70V transient
• 7 to 14x differential cell voltage + stack voltage measurement
• 7x ADC + GPIO + temperature sensor Inputs
• Low power modes
• 64 pin QFP package
• Low-level drivers to simplify SW development
Typical Applications• 48 V and High Voltage EV battery system
• Energy storage systems (ESS)
• Uninterrupted power supply (UPS)
• E-bikes, E-scooters
PUBLIC 17
33771 Block Diagram
Features• 9.6 V ≤ VPWR ≤ 61.6 V operation, 75 V transient
• 7 to 14 cells management
• Isolated 2.0 Mbps differential communication or 4.0 Mbps
SPI
• Addressable on initialization
• Synchronized cell voltage/current measurement with
coulomb count
• Total stack voltage measurement
• Seven GPIO/temperature sensor inputs
• 5.0 V at 5.0 mA reference supply output
• Automatic over/under voltage and temperature detection
routable to fault pin
• Integrated sleep mode over/under voltage and
temperature monitoring
• Onboard 300 mA passive cell balancing with diagnostics
• Hot plug capable
• Detection of internal and external faults, as open lines,
shorts, and leakages
• Single chip ASIL C capable
• Fully compatible with the MC33772 for a maximum of six
cells
PUBLIC 18
MC33772 – 3 to 6 Cells Li-Ion Battery Cell Controller
• Operating Voltage:
− 5 V ≤ VPWR ≤ 30 V Operation, 42 V Transient
(for SPI communication)
− 7 V ≤ VPWR ≤ 30 V Operation, 42 V Transient
(for TPL communication)
• 4.0 Mbps SPI or Isolated 2 Mbps Differential Communication
• 3 to 6 Cells Voltage Measurement Channels
• Total Stack Voltage Measurement
• Current sensor with ±0.5% accuracy from mA to kA
• Coulomb Counter (in low-power mode as well)
• 7 x ADC/GPIO/Temperature sensor inputs
• 5.0 V @ 5mA Reference Supply Output
• Integrated Sleep Mode Over/Under Voltage & Temperature Monitoring
• Over/Under Voltage, Over/Under Temperature Fault Verification
• Onboard Passive Cell Balancing with Diagnostics and balancing timers
• Open Cell Terminal Detection
• Internal Diagnostics
• Hot Plug Capable
• Operational Low Power Mode
• 48-LEAD LQFP-EP
• Temp range: -40°C to 125°C
• AEC-Q100 Automotive Qualified
• EMC/ESD Robustness
PUBLIC 19
Safety Power Management
06.
PUBLIC 20
FS65/FS45 – Functional safety SBC (safeassure)
System Solution
• Analog Multiplexer to sense multiple critical signal
• Small package size :49 mm²
• Robust CAN PHY FD 2M
• Configurable I/Os
• Long Duration Timer, Keep Alive memory supply
Independent Safety Monitoring
• Single Point Failure : UV/OV Monitoring Unit
• Latent Failure : ABIST & LBIST
• Common Cause Failure : Independent electrical
and physical fail safe circuitry and state machine
• Reset, Fail Safe pin to set system in predictive state
when system is failing.
• Configurable Fail Safe State, while allowing
system availibility, diagnostic and possible recovery.
•Optional Fail Silent operation
• Second Fail Safe pin to manage safe delay after
failure event
• Advanced SafeAsssure documentation to fit for
safety assessment
• BOM cost savings : No need for external MCU
challenger
• MCU & external IC Safety Monitoring
Advanced Power Management
• Buck/Boost Vpre from 2.7 to 36V
• 2.0A / 6.5V Vpre capable
• FS65xx with Vcore 2.4MHz SMPS 0.8/1.5/2.2A
• FS450x with Vcore LDO 0.5A
• Configurable Vcore (external resistor bridge)
• Multiple LDO and Tracker
• Ultra Low Standby Current 30µA
Flexible (I/O)
Wake / INH
0 or 1 CAN HS w FD2M
Vcca (100 / 300mA)
3.3V or 5.0V LDO
0 or 1 LIN 2.x, J2602-2
Secured SPI
Fail Safe State Machine (RST, FS0)
AMUX (Battery, I/O, Temp, Vref)
VPRE DC/DC
6.5V / 2.0A Buck
LV124 compliant
Advanced Low Power Modes / Vkam
VAUX – tracker (400mA)
5.0V or 3.3V LDO
VCOM (100mA)
5.0V LDO
Boost Driver
Battery Sense
before RBP
System Solutions (LDT, FS1)
VCORE DC/DC or LDO
From 1V to 5.0V0.5/0.8/1.5/2.2A versions
SCALABLEFamily concept
PROVENDesigned at OEMs
SAFEFlexible Fail Silent
SIMPLIFIEDTools & Documents
ROBUSTPASS 4200h HTOL
PUBLIC 21
SafetySBC integrates MCU Safety Monitoring capabilities
Independent Fail Safe State
Machine
Physical & Electrical
independance to fit for ASILD
Power Management Monitoring
Unit (UV / OV)
Analog & Digital Built In Self
Test to minimize Latent Faults
Own Reference & Supply to
Reduce Common Cause Failure
MCU Monitoring
FCCU : Fault Collection Control
Unit
Monitor Dual Core Lock Step
Modes MCUs
HW Redundancy
Vcore external Monitoring
Safety SBC - FS65
Advanced Watchdog
Challenger
Replace external MCU
Monitoring
Fail Safe Pin (FS0b) :
Redundant System Fail Safe
enabler
Second Fail Safe pin to assert
safety path with configurable
delay after failure
RSTb – Fail Silent Mode
Configurable RSTb activation
giving more system availability
Safety MCU
All safety mechanism reaction are < FTTI < 10ms
FTTI = Faul Tolerant Time Interval
PUBLIC 22
FS65 FS1B Tdelay Use Case: Motor Demagnetization
PUBLIC 23
MPC5777C Microcontroller
07.
PUBLIC 24
MPC5777C (Cobra55) Block Diagram
Cores & Memory
• Two independent z7 dual issue computational cores @ 264MHz • Cores include VLE, SPE1.1, FPU , MMU
• 16kB i-cache & 16kB data-cache w/ coherency
• Single z7 lockstep core @ 264MHz (for ISO26262 and ASIL-D)
• Up to 8.25MB Flash RWW w/ ECC including 4 x 64kB EEPROM
• Up to 589kB total SRAM • 512kB on chip static RAM w/ECC (up to 48KB standby)
• 45kB eTPU RAM , 32kB data cache (w/line locking)
• Security• PASS and TDM (Tamper Detection)
• CSE2 (Crypto Services Engine for Encryption & Secure Boot)
I/O & System• Up to 70ch eQADC from 4 converters w/12bit resolution
• On-chip temperature sensor and VGA (x1,x2,x4)
• 12 x Decimation Filters w/ hardware knock integrators
• 20ch ΣΔ ADC (4 converters w/16bit resolution)
• Timers – up to 128 channels (96ch eTPU2+ and 32ch eMIOS)
• 2 x 64ch eDMA support (128ch total)
• 6 x CAN ports (4 x FlexCAN + 2 x MCAN with Flexible Datarate)
• Ethernet
• DSPI – 5 channels (2 supporting µSec ch.)
• eSCI – 6 channels (2 supporting uSec ch.)
• Reaction module – 10 channels for current control
• Up to 12ch SENT, Zipwire, 2ch PSI-5
• 1 x CRC unit – w/ 3 independent channels,
• 4 x protected port outputs, MPU and MMU
• FMPLL + PLL
• Safety Monitors – e2eECC, CLK, Voltage, Fault Collection
Packaging & Enablement• 416 MAPBGA, 516 MAPBGA
• Calibration – VertiCal (using 552CSP)
COMPUTATIONAL SHELL
8.25MB Flash(including 4x64kB EEPROM)
256K
SRAM
SRAM
Control
CACHE
16k D-Cache
External
Bus
Interface
16k I-Cache
VLE
FPU
MPU
Cross Bar Switch with ECC – 132MHz
STM
INTC
SWT
DEBUG
Flash Control
MMU
Bridge
B
Bridge
A
DTS
MMU
Nexus 3+
JTAGPowerPC™
e200420
e200Z7 lock-step
STM
INTC
SWT
eTPU2+ (A + B)
16ch eMIOS
1 x PSI5
3 x eSCI
2 x DSPI
CMU + PMU
(I) Glitch Filter
1 x eQADC
2 x SD ADC
PIT / RTI
2 x SIUx
1 x MCAN-FD
2 x FlexCAN
Confidential and Proprietary
1 x
MC
AN
-FD
10ch R
eactio
n
PC
SM
+ P
CM
CR
C (3
ch)
16 x
Sem
aphore
s
DT
S fo
r DA
Q
EIM
+ E
RM
DT
M (N
exus)
Te
mp S
ensor
eT
PU
2+
(C)
FM
PLL +
PLL
1 x
PS
I-5
16 c
heM
IOS
1 x
Zip
wire
1 x
eQ
AD
C
2 x
SD
AD
C
3 x
DS
PI (M
SC
)
3 x
eS
CI
(MS
C)
PA
SS
/ TD
M
SE
NT
12 x
DE
CF
IL
2 x
Fle
xC
AN
64ch eDMA
SPE1.1
16k D-Cache
16k I-Cache
VLE
MMU
FPU
SPE1.1
e200Z7
(dual issue)e200Z7
(dual issue)
SRAM
Control
64ch eDMA
SECURITY
TDM/PASS
SENT
256K
SRAM
Ethernet
Zipwire
CSE2
FCCU
PUBLIC 25
eTPU-Based R2DC – Block Diagram
Application
eTPU
SDADC
Resolver
Cos
Sin
Excitation
Amplifier
Diagnostics
Angle
Tracking
Observer
Angular
Position
Angular
Speed
EXC
SIN
COS
Diagnostic
Measures
Diagnostic
Flags
Excitation
Generator
Revolution
Count
DA
TA
R
AM
ADC
1
ADC
0
eDMA
eDMA
MPC5777C
• SDADC
− 2 channels continuously running
− SIN, COS differential inputs
− eQADC option
• eDMA
− Transfer of ADC results to eTPUDATA RAM
− Command to start R2DC update by eTPU
• eTPU_A
− Excitation signal generation
− Angle & Speed tracking
• eTPU_B
− Diagnostics
Completely
CPU-Independent
Processing
PUBLIC 26
Vehicle Networking
08.
PUBLIC 27
TJA1052i Isolated HS CAN Transceiver
• High Speed CAN transceiver, including galvanic Isolation up to 5kV rated Isolation
• Fully ISO11898-2:2003 compliant, meeting German OEM HW requirements
− Guaranteed Loop Delay < 220ns
• Available in SO16WB package
• Additional Loop Delay Symmetry timing parameters for speeds up to 5Mbps
• Opportunity for PCB space saving by integrating transceiver and isolator
• Applications: Battery Management Systems, (Plug In) Hybrid and Electrical Vehicle ECU’s
Key Product Data
CAN pin robustness: ±58 V
Rated Isolation Up to 5kV
ESD IEC61000-4-2: ±8 kV
ESD HBM (CANH/L): ±4 kV
CAN
TJA1052i
µC
TxD
RxD
CanH
CanL
CAN
Transceiver
Digital
Isolator
Product Datasheet : http://www.nxp.com/documents/data_sheet/TJA1052i.pdf
PUBLIC 28
CAN Portfolio 1/2
NXP HS-CAN PORTFOLIO - STANDARD FUNCTIONS:
Battery
System
MCU
voltage
NXP HS-CAN PORTFOLIO - ADVANCED POWER MODES:
Basic Standby Dual-Standby
12V
OptimisedPassenger
Vehicles
5V TJA1057G TJA1044G TJA1046
IN PRODUCTION IN PRODUCTION IN PRODUCTION
3V3Pin 5: VIO
TJA1057G/3 TJA1044G/3
IN PRODUCTION IN DEVELOPMENT - SAMPLES: Q3-16 / SOP: Q1-17
FD-Passive
Full 24V
SupportCommercial
Vehicles
5V TJA1051 TJA1042 TJA1059
IN PRODUCTION IN PRODUCTION IN PRODUCTION
3V3Pin 5: VIO
TJA1051/3 TJA1042/3
IN PRODUCTION IN PRODUCTION
Sleep Partial Networking
TJA1043 TJA1145 TJA1145/FD
IN PRODUCTION IN PRODUCTION IN PRODUCTION12V and 24V Support
MbpsHVSON
MbpsHVSON
MbpsHVSON
MbpsHVSON
HVSONHVSON
MbpsHVSON
HVSON
HVSONHVSON HVSONMbps Mbps
Mbps
Mbps
Mbps
Mbps
Mbps
Mbps
REASONS TO
PROMOTE: HVSON Mbps MbpsMbps
Parts internally
dual sourced
Chokeless EMC
performance
HVSON package
option available
Max 1Mbps bit
rate for HS-CAN
Supports max 2 /
5Mbps CAN FD
PUBLIC 29
CAN Portfolio 2/2
PUBLIC 30
NXP Ethernet Portfolio: The Auto-Native Portfolio Flexible, Scalable Solution
TJA1102
100BASE-T1
PHY
TJA1102
100BASE-T1
PHY
e.g. MPC574xC/D/G
TJA1100• IEEE 100BASE-T1 & OABR Compliant PHY
• Fully automotive qualified
• Enhanced Power Management to save battery life
TJA1102 / TJA1102S• Dual / Single IEEE 100BASE-T1 & OABR PHY
• Minimal external component count
• Robust automotive grade EMC and ESD
• Standardized Sleep/Wake-Up per OPEN TC10
802.1Q + AVB
802.1Q + AVB + TSN
SJA1105T/Q/S
SJA1105/P/R
AVB Software Stack
AUTOSAR Capability
Host Processor(i.MX, MPC574x, S32x)
SJA1105 /P/Q/R/S/T• Layer 2 Store and Forward Switch family
• Supports AVB, TSN and Deterministic Ethernet
• 10/100/1000 Mbps interfaces
• MII/RMII/RGMII/SGMII
Interface
• Port Mirroring and VLAN
support (IEEE 802.1Q
and IEEE 802.1P)
PUBLIC 31
Functional Safety
09.
PUBLIC 32
Functional safety is the absence of
unreasonable risk due to hazards
caused by malfunctioning behavior of
electrical or electronic systems
What is
Functional Safety?
32PUBLIC
PUBLIC 33
Functional Safety NXP Values5P’s Functional Safety Pillars & Differentiation
• Philosophy – Culture − « To design systems that work correctly we MUST understand and correct how they
can go wrong » Daniel Saul Goldin, NASA Administrator
− SafeAssure : Corporate commitment to support functional Safety
• Process – Discipline − Analog & Sensor ISO26262 Development Process Compliance certified by TÜV-
SAAR
• People – Know how − Training, Safety Culture & mindset. Expertise on ISO26262 Standard, Hardware
architecture & documentation
• Partners – Collaboration − System solution to fit for ASIL (SBC + MCU + Drv)
− System safety Goals (Car OEM)
• Products – Value & Differentiation− 1st ISO26262 SBC to fit for ASIL D systems
− Innovative Hardware Monitoring Architecture
Philosophy
Process
PeoplePartners
Products
ISO26262 certified hardware development process for analog and sensor products
Development rules, processes and tools certified as compliant with ISO 26262 standard part requirements :
ISO 26262-2:2011 – Safety Management
ISO 26262-5:2011 – Hardware Development
ISO 26262-7:2011 – Production
ISO 26262-8:2011 – Supporting Processes
ISO 26262-9:2011 – Safety Analysis
PUBLIC 34
GD3100 - Functional Safety Process
NPI LIFECYCLE
TO CES RQ ECQS
CONCEPT DEFINITION PLANNING EXECUTION CLOSURE
PROJECT LIFECYCLE
PDA PPA R PCPCAPI
(4-6) Safety Context
(4-7) Safety Concept
(5-6) Requirements
Specifications (RS)
(5-7) Detailed Design
Specifications (DDTS)
(5-8,9) Initial Safety
Analysis
(5-10) Validation
Testing
(5-7) Block Level
Verification Testing
(8-13) Qualification
Testing
(5-7) Chip Level
Verification Testing
Implement
Safety Documentation Silicon TestingSimulation TestingFunctional Documentation
Diagram Color Schema Development Flow Requirement Traceability
Fault Injection Testing
Fault Injection Testing
Fault Injection Testing
Input Requirements
Standard
Customer
Marketing (MRD)
Internal
Product
Requirements (PRD)
Architectural
Specification
Data Sheet
Reference
Manual
Safety Manual
FMEDA, FTA,
DFA
(7-5) Production
Testing
Customer Documents
Input Document
PI Gate
Define product type
QM or ISO 26262
R Gate
Product Functional Safety
Assessment Report &
Safety Case
All functional safety deliverables defined
All functional safety
reviews defined
Maps to
ISO 26262
PUBLIC 35
GD3100 IGBT GDIC SAFETY FEATURES
• IGBT Gate Driver Advanced Safety Features for EV HV inverter application example:
• FSENB and FSSTATE pins to interface with Safing Logic
• FSISO pin to allow HV domain control of IGBT gate
• Safe SPI Configuration Mode
• Continuous monitoring of die to die communications link
• Framing error detection and 8-bit CRC to ensure error free SPI communications
• Safety functions tested on demand
• BIST (analog and logic) checks on demand
• Integrated deadtime enforcement via the PWMALT pin
• Ability to read all programmed SPI registers
• IGBT on/off state validation
• Continuous monitoring of power supplies
• Monitoring CRC of programmed registers
• Uninterrupted gate control during power up/down
• Rapid short circuit shutdown to minimize IGBT stress
• Input logic pins tolerant to18 V
• Redundant LV & HV grounds and VEE pins
• Design and documentation process meets ISO26262 requirements
PUBLIC 36
NXP’S SAFE ASSURE PROGRAM
NXP Quality Foundation
Functional Safety Standards
Safety
Support
Safety
Process
Safety
Hardware
Safety
Software
Automotive
ISO 26262
Industrial
IEC 61508Simplify Customer experienceISO26262 system compliance process
Optimize Customer R&D efficiencyReduces time and complexity required to develop
ISO26262 safety systems
Reduce risk of HarmSupports the most stringent Automotive Safety
Integrity Levels (ASILs)
Safety starts with QualityZero defect methodology from design to manufacturing to
help ensure our products meet the stringent demands of
safety applications
PUBLIC 37
Enablement Tools
10.
PUBLIC 38
Intro slide for enablement tools
• NXP provides evaluation boards with software for all the devices used in the typical
• EV. Here are a few examples:
PUBLIC 39
33771 / 33664 Evaluation Kit
KIT33771TPLEVB
KIT33771SPIEVB
BATT-14AAAPACK
http://www.nxp.com/products/automotive-products/energy-power-management/battery-management/battery-cell-controllers/14-channel-li-ion-battery-cell-controller-ic:MC33771?tab=Design_Tools_Tab
KIT33664AEVB
FRDM-KL25Z
PUBLIC 40
Documentation Available
AN5238
FMEDA
FS6500
Qualified
Data sheet
Safety Manual
PUBLIC 41
GD3100 EVB BOARD SET RUNNING SPI GEN
PUBLIC 42
MCAT in FreeMASTER
• MCAT is a plug-in tool for FreeMASTER – NXP’s real-time debug monitor and data visualization tool.
• MCAT tool in connection with FreeMASTER allows real-time monitoring, tuning and updating of the control parameters in motor control application.
− FreeMASTER
− visualization tool
− MCAT tool Real-time monitor
• MCAT features
• MCAT enables tuning of control
• parameters according to the target motor / application
• Dynamic tuning & update of control parameters
• Generation of header file with static configuration of the tuned parameters
• MCU independent (Kinetis, MPC, DSC)
• Arithmetic independent (16/32bit, Fix/Flt )
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FreeMASTER
• TESTING THE MOTOR PERFORMANCE WITH FREEMASTER INTERFACE
PUBLIC 44
NXP High Voltage Inverter Solution
MPC5746R
32-bit
MCU
Optional,
not included
in TAM
PUBLIC 45
Conclusion
11.
PUBLIC 46
Conclusion
• NXP has a complete portfolio for HV Inverter, LV Start/Stop and Li-Ion Battery Pack.
• NXP’s product development organization is ISO26262 certified and our ePowertrain devices are suitable in ASIL-D rated systems.
• During this session we looked at module diagrams featuring NXP devices and a basic overview of each of the devices.
• NXP’s expertise in functional safety will enable you to design your complete EV system with our broad product portfolio.
• Deeper Dive up next
− High voltage High current inverters at 1:10 pm
− Battery management at 2:30
− General purpose MCU’s overview and solutions at 3:30
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