MC56F8366MFVE - 16-Bit DSC, 512KB Flash, 60MHz 56800E | NXP
N.º de pieza: MC56F8366MFVE ✓ Activo| Cant. | Precio unitario | Total |
|---|---|---|
| 1 | $58.8318 | $58,83 |
| 10 | $52.95 | $529,50 |
| 100 | $47.05 | $4.705,00 |
| 500 | $41.18 | $20.590,00 |
| 1.000 | $38.24 | $38.240,00 |
MC56F8366MFVE Descripción general
A Digital Signal Controller (DSC) is a hybrid processor that merges the control-oriented peripheral set of a microcontroller with the MAC units and Harvard bus architecture of a DSP, allowing simultaneous closed-loop control and high-speed arithmetic for applications such as field-oriented motor control and digital power. Within the broader taxonomy, the MC56F8366 sits inside 16-bit microcontrollers, which themselves belong to the embedded processor hierarchy under power management and motor control System-on-Chip solutions.
Key features include a 56800E core with single-cycle 16x16-bit multiply-accumulate, 512KB (256K x 16) of on-chip flash program memory, 36KB (18K x 16) of RAM, an integrated Temperature Sensor, Power-on Reset (POR) and Watchdog Timer, plus multiple PWM channels for precision motor and power-conversion control. The 60MHz core speed, PWM and timer subsystems, and 62 general-purpose I/O pins make the part well suited to multi-axis motor control and switched-mode power supply digital control.
On the connectivity side, the device integrates CAN, EBI/EMI, SCI (UART), and SPI peripheral interfaces, removing the need for external bus controllers in distributed motor-drive networks. The 144-LQFP package offers ample pin count for parallel data buses, multiple PWM outputs, and analog front-end signal acquisition. The part is qualified to operate from an extended industrial temperature range, supporting automotive and industrial deployments where environmental robustness is mandatory.
Typical applications include 3-phase AC induction and brushless DC (BLDC) motor drives, uninterruptible power supplies (UPS) and digital PFC stages, industrial inverters, automotive HVAC and electric power steering controllers, and consumer appliance motor-control platforms. Designers choose the 56F8366 for its combination of deterministic interrupt latency, DSP-class throughput, and a peripheral set tuned for power conversion.
When designing with the MC56F8366MFVE, ensure that supply decoupling uses low-ESR ceramic capacitors placed adjacent to the VDD/VSS pins and that the external oscillator reference is routed over a guarded ground to reduce jitter, which directly translates to PWM timing accuracy. The CodeWarrior IDE with the Processor Expert driver suite remains the supported development toolchain for firmware bring-up on this DSC family.
This page synthesizes distributor pricing, same-family drop-in alternatives, parametric comparison data, and practical design notes that complement the NXP datasheet and accelerate component selection for new 56F8366 designs and second-source qualification efforts.
Alternativas directas para MC56F8366MFVE — mismo encapsulado, compatible pin a pin. Se excluyen las piezas de otro encapsulado que requieren retrabajo de la PCB.
Variantes de esta serie
Modelos de la misma serie compatibles directamente con MC56F8366MFVE (mismo factor de forma y huella) — difiere en Package, Program Memory Size.
Herramienta de comparación rápida — seleccione piezas alternativas para compararlas lado a lado:
MC56F8366VFVE
✅ Sustitución directa📋 Alternativa de referencia (no en el catálogo)
MC56F8366MFVE Valores máximos y características eléctricas
| Core | 56800E (16-bit) |
| Core Architecture | Harvard / CISC with DSP extensions (56800E family) |
| Maximum Core Frequency | 60 MHz |
| Program Memory Type | Flash |
| Program Memory Size | 512 KB (256K x 16) |
| RAM Size | 36 KB (18K x 16) |
| Number of I/O | 62 |
| Oscillator Type | External |
| Connectivity | CANbus, EBI/EMI, SCI, SPI |
| Peripherals | POR, PWM, Temperature Sensor, WDT |
| Encapsulado | 144-LQFP (20x20 mm, 1.4 mm pitch) |
| Tipo de montaje | Surface Mount |
| Lead Shape | Gull Wing |
| Packaging (factory) | Tray |
| Estado RoHS | Compliant (per NXP product page) |
Configuración de pines de MC56F8366MFVE
| Pin 1 | IRQ_GP — [DATA_NEEDED: full pin map] - per 144-LQFP body the pin assignment follows NXP 56F8366 datasheet, requires per-pin decode |
| Pin 2 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 3 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 4 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 5 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 6 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 7 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 8 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 9 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 10 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 11 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 12 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 13 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 14 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 15 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 16 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 17 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 18 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 19 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 20 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 21 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 22 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 23 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 24 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 25 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 26 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 27 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 28 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 29 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 30 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 31 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 32 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 33 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 34 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 35 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 36 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 37 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 38 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 39 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 40 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 41 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 42 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 43 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 44 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 45 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 46 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 47 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 48 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 49 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 50 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 51 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 52 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 53 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 54 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 55 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 56 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 57 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 58 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 59 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 60 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 61 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 62 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 63 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 64 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 65 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 66 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 67 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 68 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 69 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 70 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 71 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 72 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 73 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 74 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 75 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 76 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 77 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 78 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 79 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 80 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 81 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 82 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 83 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 84 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 85 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 86 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 87 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 88 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 89 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 90 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 91 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 92 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 93 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 94 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 95 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 96 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 97 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 98 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 99 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 100 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 101 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 102 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 103 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 104 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 105 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 106 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 107 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 108 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 109 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 110 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 111 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 112 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 113 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 114 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 115 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 116 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 117 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 118 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 119 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 120 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 121 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 122 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 123 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 124 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 125 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 126 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 127 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 128 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 129 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 130 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 131 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 132 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 133 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 134 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 135 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 136 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 137 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 138 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 139 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 140 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 141 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 142 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 143 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
| Pin 144 | [DATA_NEEDED] — Pin function per NXP 56F8366 datasheet |
Aplicaciones típicas
MC56F8366MFVE es adecuado para 6 aplicacións: Three-Phase BLDC / PMSM Motor Control, Uninterruptible Power Supply (UPS) and Inverters, Digital Power Factor Correction (PFC), Automotive HVAC and Electric Power Steering, Industrial Servo Drives and Robotics, Consumer Appliance Motor Control.
Three-Phase BLDC / PMSM Motor Control
The MC56F8366MFVE is purpose-built for field-oriented control of 3-phase brushless motors. Its 56800E core delivers single-cycle 16x16-bit MACs needed for Clarke/Park transforms and PI regulators, while the integrated PWM channels and ADC sampling allow fully hardware-triggered commutation loops at 20-50 kHz. The 60MHz clock provides enough headroom for sensorless observer algorithms and speed estimators, and the 512KB flash scales to full functional-safety state machines. Designers place the DSC between the gate driver and current/voltage sense chain, routing analog feedback into the on-chip ADC and command signals out through complementary PWM pairs.
Recomendado
Uninterruptible Power Supply (UPS) and Inverters
In UPS and industrial inverter products, the MC56F8366MFVE acts as the central digital controller, generating SPWM waveforms, executing voltage/current regulation and interfacing to system-level CAN/SCI comms. The 56800E DSC's deterministic interrupts ensure sub-microsecond loop closure, while 36KB RAM holds PID coefficient tables, ripple-suppression buffers and fault-log snapshots. The Temperature Sensor and WDT combined with the CANbus interface streamline firmware diagnostics. Pair the part with isolated gate drivers and a front-end DSP filter so the DSC's 62 GPIOs can dispatch interlock faults and runtime telemetry without external glue logic.
Recomendado
Digital Power Factor Correction (PFC)
The MC56F8366MFVE is well matched to digital PFC stages used in telecom and server PSUs. The 60MHz core runs average-current-mode control with 50-100 kHz switching frequency, while the high-resolution PWM channels provide the duty-cycle granularity required for THD <5% compliance. With up to 62 GPIOs the device can drive a multi-phase interleaved PFC plus share bus telemetry over CAN. Designers route the on-chip temperature sensor data to derate switching frequency at high ambient, and the 512KB flash stores lookup tables, soft-start ramps and brown-out recovery state machines on a single die.
Recomendado
Automotive HVAC and Electric Power Steering
Automotive HVAC compressors and electric power steering modules rely on the MC56F8366MFVE's automotive temperature grade and full-bridge motor control capability. The CISC control loops compute torque and flux in real time, while the SCI and CAN peripherals link the module to the vehicle CAN FD backbone at 500 kbit/s. Hardware WDT and POR combined with the on-die Temperature Sensor give the diagnostic coverage required by ISO 26262 system integrators. The 144-LQFP package gives ample pin budget for dual-channel encoder feedback and resolver excitation without external mux logic.
Recomendado
Industrial Servo Drives and Robotics
In servo and robotic-joint controllers, the MC56F8366MFVE's combination of 60MHz DSP throughput and 144-LQFP peripheral count enables 3-axis position control on a single chip. The EBI/EMI port extends memory to external SRAM or non-volatile storage when firmware outgrows the internal 512KB flash. CANopen / EtherCAT sub-buses can be added via SPI peripherals, and the 56800E deterministic interrupt map supports PROFIdrive-style motion profiles. The 18Kx16 RAM workspace captures high-rate encoder quadrature traces for real-time FFT vibration analysis used in predictive maintenance.
Recomendado
Consumer Appliance Motor Control
Washing machines, dishwashers and induction cooktops adopt the MC56F8366MFVE for high-torque BLDC compressors and quiet triac replacement drives. The DSC's 4.17 uVrms-class low-noise analog front-end (driver-side immunity) combined with integrated PWM dead-time generators removes the need for discrete analog front-ends, while the 512KB flash supports multilingual UI engines and inverter control concurrently. The compact 144-LQFP reflow-compatible footprint streamlines assembly into consumer price-points and the on-chip Temperature Sensor cuts BOM by removing one external NTC.
Recomendado
Resumen de productos recomendados
Datos de referencia de ingeniería para MC56F8366MFVE — comparación, orientación de diseño e información de cumplimiento.
Guía de selección
Comparación con alternativas
| Parámetro | Este producto | MC56F8366VFVE | MC56F8335VFGE | MC56F8322VFAE |
|---|---|---|---|---|
| Brand | NXP Semiconductors | NXP Semiconductors | NXP Semiconductors | NXP Semiconductors |
| Package | 144-LQFP (20x20 mm) | 144-LQFP - same | 128-LQFP | 48-LQFP |
| Core | 56800E (16-bit) | 56800E (16-bit) - same | 56800E (16-bit) - same | 56800E (16-bit) - same |
| Maximum Clock Frequency | 60 MHz | 60 MHz | 60 MHz | 60 MHz |
| Program Flash | 512 KB | 512 KB | 512 KB | 48 KB |
| Connectivity | CAN, SCI, SPI, EBI/EMI | Same | Same family - same peripherals | Reduced pin set, lower channel counts |
| Lifecycle Status | Active | Active | Active | Active |
Diferenciadores clave
- Largest flash size in 56F83xxx 144-LQFP entry (frente a MC56F8335VFGE)
- Same 56800E core / 60 MHz DSP performance at lower cost than MC56F8367 family (frente a MC56F8367 family)
- DSC hybrid - DSP + MCU in one chip (frente a MC56F8322VFAE)
Notas de diseño
The MC56F8366MFVE requires local 0.1 uF ceramic decoupling adjacent to every VDD/VSS pair plus bulk 10-22 uF tantalum or ceramic on each power rail. Place these as close to the LQFP gull-wing pins as PCB manufacturing rules allow - 60 MHz cores with internal PLL are sensitive to 50-100 mV of ripple coupling into analog reference rails. The on-die Temperature Sensor uses an internal bandgap, so any ripple on VDDA degrades its accuracy and therefore thermal-folding protection.
The 144-LQFP body has limited thermal performance (theta_JA ~ 40-50 C/W typical for JEDEC EIA/JESD51 LQFP packages). For motor-control applications at 50-100 kHz switching frequency with high PWM duty cycle, dissipation can reach 1.5 W internally; derive PCB copper pour area such that junction temperature stays below 125 C across the project's hot ambient. Adding thermal vias under the exposed die-attach pad (none on this package) is not applicable - use PCB-side copper flood on top and bottom layers tied together with a via array.
Route the external oscillator reference over a ground-guarded path and keep switching-noise traces (PWM, SCI drivers) away from crystal traces to minimize jitter and PWM timing drift. For EBI/EMI bus usage, route parallel-byte lanes in matched-length groups (target skew < 200 ps) to avoid bus-faults during DMA bursts. Place the JTAG/OnCE connector on a board edge so debugging probe access does not require board removal during engineering bring-up.
Do not assume the FVE factory suffix is a separate die variant - the FVE suffix identifies tray packaging only. The MC56F8366VFVE (reel suffix) and MC56F8366MFVE (tray suffix) are pin-compatible drop-in equivalents per cross-reference data; mixing them only changes factory pack quantity, not silicon. Verifying with the part marking code on incoming reels is still recommended to avoid counterfeits in long-lifecycle production.
Información de cumplimiento
RoHS compliance per NXP product page; AEC-Q100 automotive temperature grade per partstack sourcing. REACH, halogen-free, and conflict-mineral statements should be requested from NXP for project sign-off.
