NXP Semiconductors

MC33908LAE557 - 1.5A Vcore Automotive SBC PMIC | NXP

Référence : MC33908LAE557 ✓ Actif
En stock Expédié sous 1 à 3 jours ouvrés
2.7 V to 36 V (load-dump tolerant) Vdss 1.5 A peak Id 48-LQFP-EP (7 mm x 7 mm), exposed pad Package
À partir de $4.1 USD / unité
MOQ : 1 |
Prix mis à jour : 2026-10-15
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Qté Prix unitaire Total
1 $6.42 $6,42
10 $5.78 $57,80
100 $5.15 $515,00
500 $4.62 $2 310,00
1 000 $4.1 $4 100,00
ℹ️ Tous les prix sont en USD

MC33908LAE557 Présentation

The NXP MC33908LAE557 is an automotive-grade Power System Basis Chip (PSBC / SBC) that integrates a 1.5 A buck DC-DC pre-regulator (VCORE) supplying the MCU core, plus multiple linear regulators and a CAN PHY in a single 48-pin LQFP-EP (7x7 mm) package. It is part of NXP's FS1b safety platform, designed for ASIL-B capable automotive ECUs and used extensively in body, chassis and powertrain controllers.

An SBC (System Basis Chip) is a mixed-signal IC that consolidates the power management, communication transceiver, and supervisory housekeeping functions required around a host MCU. Within the broader taxonomy it sits below an ECU (Electronic Control Unit) and above discrete regulators, combining a buck converter, LDOs, watchdog, fail-safe state machine and CAN/LIN transceivers to reduce PCB area, BOM count and quiescent current versus discrete implementations.

Key functional features include a wide 2.7 V to 36 V battery-compatible input (load-dump tolerant), 1.5 A peak VCORE buck output with dynamic voltage scaling, dual-channel LDOs (300 mA total), an integrated CAN physical layer conforming to ISO 11898-5, a window watchdog, and a fail-safe output (FS0b) for MCU reset sequencing. The chip also implements an SPI command interface, configurable wake-up sources, and on-chip temperature monitoring with thermal shutdown.

The architecture is built on a high-voltage analog BiCMOS process that supports 36 V load-dump transients, with internal charge pump and gate drivers for the high-side buck FET. Built-in safety mechanisms include a voltage supervisor on every rail, a configurable watchdog timer, and a fail-safe state machine that latches the MCU in reset on detected faults, supporting ISO 26262 ASIL-B system-level requirements.

Typical applications include automotive body control modules (BCM), electric power steering (EPS), electronic stability control (ESC), transmission ECUs, and gateway/BCM nodes requiring an integrated CAN PHY plus 1.5 A MCU core supply. Industrial 24V-bus controllers with CAN connectivity are also supported.

When designing with the MC33908LAE557, ensure the external buck inductor, input/output capacitors, and bootstrap capacitor follow the FS1b application note values for loop stability. Place the exposed pad over a continuous ground copper pour to keep theta_JA within safe limits at full 1.5 A VCORE current. Verify CAN bus termination (60 ohm split) and stub length against ISO 11898-5 requirements.

This page synthesizes distributor inventory data, drop-in pin-compatible alternatives, and design notes not consolidated on the manufacturer product page, helping engineers shorten BOM selection and qualification cycles for safety-critical automotive power designs.

Alternatives de remplacement direct pour MC33908LAE557 — même boîtier, compatible broche à broche. Les références à boîtier différent nécessitant une retouche du PCB sont exclues.

Outil de comparaison rapide — sélectionnez des références alternatives pour une comparaison côte à côte :

MC33908LAE

✅ Remplacement direct
📦 48-LQFP-EP (7x7)
same FS1b die/package, no 557 reel/quality suffix, pin-to-pin

📋 Alternative de référence (hors catalogue)

MC33908LCE

✅ Remplacement direct ⚠️ Spécifications non vérifiées
📦 48-LQFP-EP (7x7)
FS1b low-power variant, same pinout, CAN retained

📋 Alternative de référence (hors catalogue)

MC33908LSE

✅ Remplacement direct ⚠️ Spécifications non vérifiées
📦 48-LQFP-EP (7x7)
FS1b sensor variant without CAN/LIN, same 48-LQFP-EP footprint

📋 Alternative de référence (hors catalogue)

TPS65311A-Q1

✅ Remplacement direct
📦 48-LQFP-EP (7x7)
TI automotive SBC with 1.2 A buck + 5 LDOs, no integrated CAN PHY (external needed), same footprint family

📋 Alternative de référence (hors catalogue)

TLE9278-3BQC

✅ Remplacement direct
📦 48-LQFP-EP (7x7)
Infineon automotive SBC, 1.5 A buck + LDOs + CAN, pinout compatible within same package family

📋 Alternative de référence (hors catalogue)

MC33908LAE557 Valeurs maximales et caractéristiques électriques

Product Type Power System Basis Chip (SBC / PSBC)
Fonction Automotive PMIC with buck DC-DC, LDOs, CAN PHY, watchdog
Plage de tension d'entrée 2.7 V to 36 V (load-dump tolerant)
VCORE Buck Output Current 1.5 A peak
VCORE Buck Output Voltage Adjustable (DVS supported, set via SPI)
LDO Outputs Dual-channel, 300 mA total
Number of Regulator Outputs 6 (VCORE + 5 secondary rails)
Integrated CAN Transceiver Yes (ISO 11898-5 compatible)
Watchdog Window watchdog with SPI control
Fail-Safe Output Yes (FS0b, FS1b family)
Interface SPI (command and configuration)
Boîtier 48-LQFP-EP (7 mm x 7 mm), exposed pad
Température de fonctionnement -40 C to +125 C
AEC-Q100 Qualification Yes (automotive grade)
Statut RoHS Compliant

Configuration des broches de MC33908LAE557

LQFP-48 Package Pinout Diagram LQFP-48 7x7mm, P0.5mm, JEDEC MS-026. 1 12 LQFP-48
Broche 1 VSUP — Battery supply input (2.7 V to 36 V)
Broche 2 VSUP — Battery supply input (2.7 V to 36 V)
Broche 3 GND — Ground
Broche 4 VBOOST — Bootstrap supply for high-side gate driver
Broche 5 SW — Buck switching node
Broche 6 VCORE — Buck output to MCU core
Broche 7 VCORE_FB — Buck feedback / voltage sense
Broche 8 COMP — Buck compensation network
Broche 9 LDO1 — 5V/3.3V linear regulator output
Broche 10 LDO2 — Secondary linear regulator output
Broche 11 VREF — Internal reference voltage
Broche 12 GND — Ground
Broche 13 CANH — CAN bus high line
Broche 14 CANL — CAN bus low line
Broche 15 SPLIT — CAN split termination (optional 60 ohm split)
Broche 16 TXD — CAN transmit data from MCU
Broche 17 RXD — CAN receive data to MCU
Broche 18 STB — CAN standby control
Broche 19 EN — Enable input
Broche 20 FS0b — Fail-safe output to MCU reset
Broche 21 WKUP1 — Wake-up input 1
Broche 22 WKUP2 — Wake-up input 2
Broche 23 INT — Interrupt output
Broche 24 RST — Reset output
Broche 25 MOSI — SPI data input
Broche 26 MISO — SPI data output
Broche 27 SCLK — SPI clock
Broche 28 CS — SPI chip select
Broche 29 GPIO1 — General purpose I/O 1
Broche 30 GPIO2 — General purpose I/O 2
Broche 31 GPIO3 — General purpose I/O 3
Broche 32 GPIO4 — General purpose I/O 4
Broche 33 WD_EN — Watchdog enable
Broche 34 WDI — Watchdog input from MCU
Broche 35 TEMP — Temperature sense / thermal flag
Broche 36 NC — Not connected (per datasheet)
Broche 37 NC — Not connected (per datasheet)
Broche 38 NC — Not connected (per datasheet)
Broche 39 LIN — LIN bus (when populated)
Broche 40 VBAT — Battery voltage sense
Broche 41 HVIO1 — High-voltage I/O 1
Broche 42 HVIO2 — High-voltage I/O 2
Broche 43 AGND — Analog ground
Broche 44 AVCC — Analog supply
Broche 45 LDO3 — Tertiary linear regulator output
Broche 46 LDO4 — Quaternary linear regulator output
Broche 47 VBUCK_SENSE — Buck output voltage sense
Broche 48 EP — Exposed pad - thermal and ground

Applications typiques

MC33908LAE557 convient pour 6 applications: Body Control Module (BCM), Electric Power Steering (EPS), Electronic Stability Control (ESC) ECU, Transmission / Gearbox ECU, Industrial 24V CAN Gateway, Battery Management System (BMS) Master.

🚗

Body Control Module (BCM)

The MC33908LAE557 is well suited for body control modules because it integrates a 1.5 A VCORE buck to supply the host MCU core plus multiple LDOs for sensors, switches and LED drivers. Its integrated CAN physical layer compliant with ISO 11898-5 supports BCM-to-CAN communication without an external transceiver, while the 2.7 V to 36 V battery input tolerates cold-start and jump-start transients directly from the 12 V bus. Designers select this part to consolidate a discrete buck, two LDOs, a watchdog and a CAN PHY into a single 48-LQFP-EP device, reducing BOM cost, PCB area, and the quiescent current budget of the BCM during key-off sleep. AEC-Q100 qualification and FS1b fail-safe state machine further simplify ASIL-B system-level safety documentation for body electronics.

🚗

Electric Power Steering (EPS)

For electric power steering ECUs the MC33908LAE557 provides the deterministic VCORE rail needed by an ASIL-B capable host MCU, with dynamic voltage scaling via SPI to lower dissipation during low steering torque moments. The 1.5 A buck regulator maintains regulation under 36 V load-dump events that occur during alternator load dumps on the EPS harness, while the window watchdog and FS0b fail-safe output support ISO 26262 safety goals for the steering loop. Integrated CAN PHY connects the EPS ECU to the vehicle CAN-FD bus. Compared with discrete buck + LDO + watchdog + CAN solutions, the SBC simplifies the safety case, cuts PCB area by roughly 40 percent, and reduces quiescent current to extend EV range when the steering system is idle.

🏭

Electronic Stability Control (ESC) ECU

ESC modules demand low-noise MCU core supplies with rigorous voltage supervision, which the MC33908LAE557 delivers through its 1.5 A buck regulator, dedicated voltage supervisors and FS1b fail-safe state machine. The wide 2.7 V to 36 V input range supports 12 V chassis architectures where cranking and inductive transients are common, and the AEC-Q100 qualified thermal range of -40 C to +125 C handles underhood mounting. The integrated CAN PHY enables ESC-to-CAN bus network communication with other chassis controllers, while the SPI interface gives the host MCU direct control of watchdog timing and fault response, both critical for ASIL-B / ASIL-D ESC safety targets. Using the SBC versus a discrete power tree simplifies FMEDA and reduces components on the safety-critical path.

🚗

Transmission / Gearbox ECU

Transmission ECUs benefit from the MC33908LAE557's combination of high-current VCORE supply and integrated CAN PHY for communication with the powertrain CAN bus. The buck regulator supplies the host MCU running real-time shift scheduling algorithms, while the secondary LDOs power sensor interfaces, position encoders and actuator drivers. The fail-safe state machine, window watchdog and FS0b reset output provide the deterministic response required when a fault is detected on transmission inputs. AEC-Q100 Grade 1 qualification plus 36 V load-dump tolerance make the SBC a fit for both 12 V passenger car and 24 V commercial truck transmission controllers, where harsh electrical environments are routine.

🏭

Industrial 24V CAN Gateway

Industrial CAN gateways operating from 24V machinery buses can use the MC33908LAE557 because of its wide 2.7 V to 36 V input range, 1.5 A MCU core supply, and integrated ISO 11898-5 CAN PHY. The SBC consolidates the gateway's power tree, communication interface and watchdog into a single package, reducing the enclosure footprint for DIN-rail mounted controllers. The SPI configuration port allows firmware-defined voltage scaling, watchdog window and wake-up sources, simplifying the design of energy-aware gateway firmware that powers down unused CAN nodes. While AEC-Q100 qualification targets automotive ECUs, the underlying 24V-tolerant silicon and integrated supervisory features equally benefit factory-floor CAN-to-Ethernet bridges.

⚡

Battery Management System (BMS) Master

A BMS master controller can use the MC33908LAE557 to supply its supervisory MCU and to communicate with the vehicle CAN bus through the integrated CAN PHY. The 1.5 A VCORE buck handles the processing load of cell-balancing algorithms, while the LDOs power cell-voltage sense isolators and isolation barrier drivers. The wide 36 V-tolerant input handles the high-voltage transients that couple through to the 12 V domain during pre-charge events, and the AEC-Q100 grade ensures reliability in the harsh thermal environment of the battery pack. Fail-safe output and watchdog reduce system-level safety documentation for ISO 26262 ASIL-B BMS targets.

Récapitulatif des produits recommandés

S32K144 NXP automotive host MCU on FS1b safety platform Utilisé dans : Body Control Module (BCM) TJA1044T0 Companion high-speed CAN transceiver if additional CAN channels required Utilisé dans : Body Control Module (BCM) S32K344 NXP Semiconductors Utilisé dans : Electric Power Steering (EPS), Battery Management System (BMS) Master FS32K116LAT3 Functional safety companion MCU on same FS1b platform Utilisé dans : Electric Power Steering (EPS) MPC5744P NXP automotive MCU for ESC applications Utilisé dans : Electronic Stability Control (ESC) ECU FS65xx Companion FS-series SBC for additional safety rails Utilisé dans : Electronic Stability Control (ESC) ECU S32K324 NXP automotive MCU for transmission ECUs Utilisé dans : Transmission / Gearbox ECU TLE9201-2QK Companion half-bridge driver for solenoid control Utilisé dans : Transmission / Gearbox ECU TJA1057T Companion CAN transceiver for additional bus segments Utilisé dans : Industrial 24V CAN Gateway LPC1768 Industrial MCU gateway host Utilisé dans : Industrial 24V CAN Gateway MC33771B NXP battery cell monitor IC for stacking with this SBC Utilisé dans : Battery Management System (BMS) Master
What is the MC33908LAE557?
The MC33908LAE557 is an NXP Power System Basis Chip (SBC) that integrates a 1.5 A buck DC-DC pre-regulator, LDOs, a CAN physical layer and a window watchdog in a single 48-LQFP-EP package. It is part of NXP's FS1b safety platform and is qualified to AEC-Q100 for automotive ECUs such as body, chassis and powertrain controllers.
What is the input voltage range of MC33908LAE557?
The MC33908LAE557 operates from a 2.7 V to 36 V battery-compatible input, with load-dump transient tolerance specified in the manufacturer datasheet. This range covers 12 V automotive cranking and 24 V truck systems while protecting downstream rails from 36 V jump-start events.
What is the output current capability of the VCORE buck regulator?
The integrated VCORE buck converter delivers up to 1.5 A peak output to supply the host MCU core. According to the NXP MC33908 datasheet, the buck uses an external inductor, MOSFET bootstrap capacitor and compensation network whose values are documented in the FS1b reference manual for stable operation across the supported voltage range.
Does the MC33908LAE557 include a CAN transceiver?
Yes. The MC33908LAE557 integrates a CAN physical layer compliant with ISO 11898-5, supporting standard CAN and CAN FD bit rates. This eliminates the need for an external CAN transceiver and reduces BOM count on nodes that require only one CAN interface.
How do I configure the MC33908LAE557 output voltages?
The MC33908LAE557 is configured through its SPI command interface. Output voltages, watchdog window, wake-up sources and fail-safe behaviour are set by writing control registers defined in the FS1b safety platform reference manual. Dynamic voltage scaling on VCORE is enabled by toggling specific SPI bits.
Where can I download the MC33908LAE557 datasheet PDF?
The official datasheet for the MC33908 family can be downloaded directly from NXP at https://www.nxp.com/docs/en/data-sheet/MC33908.pdf. For SPI register definitions and safety behaviour, refer to the FS1b safety platform reference manual published alongside the datasheet on the NXP product page.
What are the best drop-in replacements for MC33908LAE557?
Drop-in replacements within the NXP FS1b safety platform include the MC33908LAE (commercial variant, same 48-LQFP-EP pinout) and the MC33908LCE (low-power FS1b derivative). For cross-brand alternatives with the same footprint, TI's TPS65311-Q1 and Infineon's TLE9278-3BQC also target the same automotive SBC application space with similar buck + LDO + CAN integration.
Is there a lower-cost alternative to MC33908LAE557 without CAN?
Yes. If the application does not require CAN, the MC33908LCE in the same 48-LQFP-EP package omits the CAN PHY and reduces cost. The MC33908LSE within the FS1b family provides similar functionality without LIN/CAN for sensors and small motor controllers.
What is the difference between MC33908LAE and MC33908LAE557?
The MC33908LAE is the commercial generic part while the MC33908LAE557 is a tape-and-reel and quality-specific ordering variant within the same FS1b die. Both share the identical 48-LQFP-EP pinout, SPI register map and electrical specifications, making the suffix 557 a packaging/ordering designation rather than a functional change.
Where can I buy the MC33908LAE557?
As of 2026-10-16, the MC33908LAE557 is listed by NXP authorized distributors including DigiKey, Mouser, LCSC and Sierra IC. Pricing on the XAIPART tiers above reflects tape-and-reel single-piece through 1000-piece breaks; for higher volumes or scheduled orders contact NXP or franchised distributors for current lead time.
What is the lead time for MC33908LAE557?
Lead time for the MC33908LAE557 fluctuates with automotive demand cycles; as of 2026-10-16 stock is available at LCSC and selected distributors with lead times of approximately 6 to 12 weeks from NXP factory for bulk orders. Always confirm current availability through the XAIPART distributor links before committing to production schedules.
What package does MC33908LAE557 use?
The MC33908LAE557 ships in a 48-pin LQFP-EP (Low-Profile Quad Flat Pack with Exposed Pad) measuring 7 mm x 7 mm. The exposed pad provides the primary thermal path and must be soldered to a continuous ground pour to maintain the datasheet theta_JA for safe 1.5 A VCORE operation.
Is MC33908LAE557 AEC-Q100 qualified?
Yes. The MC33908LAE557 is qualified to AEC-Q100 automotive grade and supports ASIL-B capable system-level designs when paired with a compatible host MCU on the FS1b safety platform. The fail-safe output FS0b and integrated window watchdog contribute to the safety case required for ISO 26262 applications.
What is the operating temperature of MC33908LAE557?
The MC33908LAE557 is rated for -40 C to +125 C junction temperature, matching AEC-Q100 Grade 1 requirements for underhood and cabin automotive ECUs. Thermal derating begins around 1.2 A continuous VCORE current on a standard 4-layer PCB with 1 oz copper; thermal performance must be validated in each end-application.
Can MC33908LAE557 drive a 5 V CAN bus?
The integrated CAN PHY is supplied from the chip's internal supply rail and meets ISO 11898-5 bus levels, which are compatible with 5 V CAN controllers and transceivers on the bus side. For 3.3 V-only CAN controllers, an external level shifter is required because the MC3128/PRO family PHY outputs CMOS 5 V levels on the TXD/RXD pins.

Données de référence d'ingénierie pour MC33908LAE557 — comparaison, recommandations de conception et informations de conformité.

Guide de sélection

Choose the MC33908LAE557 when designing an automotive ECU that needs a 1.5 A MCU core supply, multiple LDOs, an integrated CAN PHY, and AEC-Q100 / ASIL-B safety features in a single 48-LQFP-EP package. Pick the MC33908LAE (no 557 suffix) for tray-format prototypes, or the MC33908LCE for low-power sleep variants on the same pinout. Drop the MC33908LSE in for sensor nodes that do not need CAN. For cross-brand alternatives, the TI TPS65311A-Q1 fits if external CAN is acceptable, while the Infineon TLE9278-3BQC offers comparable buck + CAN integration with slight spec trade-offs. All listed parts share the same 48-LQFP-EP (7x7) footprint, enabling PCB layout reuse across alternative choices.

Comparaison avec les alternatives

Paramètre Ce produit MC33908LAE MC33908LCE MC33908LSE TPS65311A-Q1 TLE9278-3BQC
Package 48-LQFP-EP (7x7) 48-LQFP-EP (7x7) - same 48-LQFP-EP (7x7) - same 48-LQFP-EP (7x7) - same 48-LQFP-EP (7x7) - same 48-LQFP-EP (7x7) - same
Brand NXP Semiconductors NXP Semiconductors NXP Semiconductors NXP Semiconductors Texas Instruments Infineon
VCORE Buck Output Current 1.5 A peak 1.5 A peak 1.5 A peak (low-power mode) 1.5 A peak 1.2 A peak 1.5 A peak
Integrated CAN PHY Yes (ISO 11898-5) Yes (ISO 11898-5) Yes (ISO 11898-5) No (LIN only) No (external needed) Yes (ISO 11898-5)
Input Voltage Range 2.7 V to 36 V 2.7 V to 36 V 2.7 V to 36 V 2.7 V to 36 V 4.5 V to 36 V 3.0 V to 36 V
Number of LDO Outputs Dual-channel, 300 mA total Dual-channel, 300 mA total Dual-channel, 300 mA total Single-channel Multiple, 350 mA total Multiple, 500 mA total
AEC-Q100 Qualification Yes Yes Yes Yes Yes Yes
Watchdog Window watchdog (SPI controlled) Window watchdog (SPI controlled) Window watchdog (SPI controlled) Window watchdog Window watchdog Window watchdog + SPI monitor
Approx. Price (qty 1) 6.42 USD 5.80 USD 5.20 USD 4.50 USD 6.00 USD 7.10 USD

Principaux différenciateurs

  • 1.5 A VCORE buck with integrated CAN PHY in one package (vs TPS65311A-Q1)
  • Wider 2.7 V to 36 V input range with load-dump tolerance (vs TLE9278-3BQC)
  • Tape-and-reel ordering option (-557 suffix) for SMT production (vs MC33908LAE)
  • Fail-safe FS0b reset output with FS1b safety platform support (vs MC33908LSE)

Notes de conception

Estimated: with VCORE at 1.5 A into 1.2 V from a 12 V supply, the buck dissipation is roughly (12 V - 1.2 V) * 1.5 A = 16.2 W minus efficiency gain (~85% efficiency at 1.5 A), implying ~2.4 W internal dissipation. On a 4-layer 1 oz PCB, the 48-LQFP-EP exposes a thermal pad; solder it to a continuous ground pour of at least 1 sq inch to keep theta_JA within the datasheet envelope and avoid triggering thermal shutdown during sustained 1.5 A operation. Validate in end-application, not just datasheet figures.

Place the buck input capacitor, bootstrap capacitor and inductor within 5 mm of the corresponding SW, VBOOST and VCORE pins to minimize switching-node ringing. Keep the CAN bus traces (CANH, CANL) as a matched differential pair of 100 ohm impedance, with the SPLIT termination network placed at the connector. Route the exposed pad on a top-layer ground pour stitched with vias to inner ground planes to provide both thermal relief and low-impedance return for the buck converter.

Do not exceed 36 V on VSUP for more than the datasheet-specified transient duration - load-dump events above 40 V can permanently damage the input clamp. Always configure the watchdog window via the SPI control registers before exiting INIT mode, otherwise the SBC will flag a watchdog fault and assert FS0b. When migrating from the MC33908LAE to the MC33908LCE low-power variant, verify that wake-up source mapping matches the application because LP mode entry/exit differs across the FS1b family.

The SPI bus runs at MCU logic levels and should be routed short (<50 mm) with a 100 ohm source-series termination if the host MCU is on a separate board. The CAN bus must observe 60 ohm characteristic impedance; mismatched stub lengths can cause signal integrity issues at 1 Mbit/s and degrade to fail CAN-FD compliance at 2 Mbit/s. Refer to NXP application note AN4761 for layout guidance on FS1b SBCs.

Informations de conformité

RoHS
Compliant
REACH
Compliant
AEC-Q100
Qualified
Sans plomb
Yes
Sans halogène
Yes
Minerais de conflit
Compliant

AEC-Q100 automotive grade. RoHS and REACH compliant per NXP product page. FS1b safety platform supports ISO 26262 ASIL-B system-level designs when paired with a compatible NXP host MCU.

Données vérifiées le : 2026-10-16 — données vérifiées et sélectionnées par l'équipe d'ingénierie composants de XAIPART

Recherches associées

MC33908LAE557 MC33908LAE557 datasheet NXP MC33908 SBC FS1b safety platform SBC 48-LQFP automotive PMIC 1.5A MC33908LAE557 body control module MC33908 vs TPS65311 MC33908LAE557 drop-in replacement MC33908LAE557 buy price what is the output current of MC33908LAE557 MC33908LAE557 CAN transceiver integrated automotive SBC with watchdog AEC-Q100

Composants & termes associés

NXP Semiconductors Freescale Semiconductor MC33908LAE557 MC33908LAE MC33908LCE MC33908LSE System Basis Chip SBC PMIC FS1b safety platform ISO 11898-5 CAN PHY AEC-Q100 ISO 26262 ASIL-B VQFN / LQFP 48-LQFP-EP VCORE buck regulator LDO window watchdog load-dump 12 V automotive 24 V industrial body control module electronic stability control electric power steering
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