MPXS2010VMM80 - 80MHz 1MB 32-Bit MCU | NXP
MPN: MPXS2010VMM80 ✗ End of Life| Qty | Unit Price | Extended |
|---|---|---|
| 1 | $16.8965 | $16.90 |
| 10 | $0 | $0.00 |
| 100 | $0 | $0.00 |
| 500 | $0 | $0.00 |
| 1,000 | $0 | $0.00 |
MPXS2010VMM80 Overview
A microcontroller is a programmable integrated circuit containing a processor core, memory, peripherals, and interface logic. The PXS20 family belongs to the embedded-processing hierarchy of 32-bit MCU, embedded controller, real-time control, and industrial automation semiconductor devices. This MPXS2010VMM80 combines an e200 RISC architecture with flash-backed program storage for embedded control, communications, and safety-oriented industrial systems.
The principal verified specifications are a 32-bit processing architecture, 80 MHz operating frequency, and 1 MB (1M x 8) flash memory. Distributor records also identify an automotive temperature grade, although the exact numeric operating-temperature limits and qualification status are not supplied in the verified data. The 257-ball package exposes the device's extensive external memory, communication, control, debug, and power connections.
Typical automotive and industrial uses include powertrain-related control, electronic control units, body and chassis electronics, real-time communications, and safety subsystems. The 80 MHz processing rate supports deterministic embedded workloads, while the 1 MB flash capacity provides room for application code and configuration data. The PXS20 documentation references the PXS20 Microcontroller Reference Manual for functional characteristics and a Safety Application Guide for fail-safe system implementation under IEC 61508.
The large BGA package makes PCB layout and thermal design more demanding than a leaded package. Designers should follow the manufacturer's pin assignment, escape-routing, decoupling, and soldering guidance, verify the exposed thermal and supply connections, and complete signal-integrity and power-integrity reviews before release.
This page combines the verified distributor identity, package, frequency, memory, pricing, and availability information with application guidance and explicit sourcing boundaries. Missing electrical, pin-level, lifecycle, and qualification values remain marked for verification rather than being inferred from related PXS20 devices.
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Request AlternativesMPXS2010VMM80 Maximum Ratings & Electrical Characteristics
| Product Type | 32-bit microcontroller |
| Product Series | PXS20 |
| Processor Core | e200z4d |
| Architecture | 32-bit e200 RISC |
| Maximum CPU Frequency | 80 MHz |
| Flash Memory | 1 MB (1M x 8) |
| Package | 257-LFBGA (14 x 14 mm) |
| Package Type | MAPBGA-257 |
| Terminal Count | 257 balls |
| Package Shape | Square |
| Terminal Form | Ball |
| Temperature Grade | Automotive |
| Supply Voltage | 3.3 V / 5 V |
| Core Architecture | e200 RISC |
| Functional Documentation | PXS20 Microcontroller Reference Manual |
| Fail-Safety Reference | IEC 61508 Safety Application Guide |
MPXS2010VMM80 square Pin Configuration Guide
Pin configuration for MPXS2010VMM80 (square package). This digital IC includes GPIO, communication interfaces (UART, SPI, I2C), and power pins. Refer to the manufacturer datasheet for alternate pin functions and configuration options. Essential for embedded system design and PCB layout.
No detailed pinout data available for MPXS2010VMM80.
Refer to the datasheet for full pin configuration.
Typical Applications
MPXS2010VMM80 is suitable for 6 applications: Automotive Electronic Control Units, Powertrain and Chassis Control, Industrial Real-Time Controller, Vehicle Network Gateway, Safety-Oriented Industrial Control, Equipment Control and Diagnostics.
Automotive Electronic Control Units
The MPXS2010VMM80 fits an automotive ECU evaluation when a design needs an 80 MHz 32-bit e200z4d core, 1 MB of flash, and extensive device integration in a 257-LFBGA package. Its verified automotive temperature-grade classification supports preliminary automotive targeting, although AEC-Q100 status and the numeric temperature range must be confirmed. Implementation would place the MCU beside communication transceivers, power regulators, sensors, and actuators, while preserving deterministic timing and fault containment. Real design approval requires worst-case task timing, memory-margin analysis, brownout testing, diagnostics, and qualification evidence for the exact part.
Recommended
Powertrain and Chassis Control
An 80 MHz e200z4d core can support real-time powertrain, chassis, or motor-control supervisory functions where deterministic execution and substantial embedded logic are required. The verified 1 MB (1M x 8) flash capacity provides storage for application code, calibration tables, diagnostics, and configuration data, but the final partition must be validated against the binary image. The 257-LFBGA package demands careful high-speed escape routing and multilayer power distribution. Because the supplied data does not verify motor-control peripherals, analog interfaces, safety certification, or exact temperature limits, these functions require direct PXS20 device verification.
Recommended
Industrial Real-Time Controller
MPXS2010VMM80 can serve as the central controller in a real-time industrial subsystem when an application benefits from 80 MHz 32-bit processing and 1 MB flash without requiring a separate processor and memory devices. Possible duties include state-machine control, communication supervision, diagnostics, and timing coordination. The target's 257-LFBGA package increases assembly complexity compared with a leaded MCU, so impedance-controlled routing, solid power and ground planes, and thermal vias are essential. Before committing to a controller redesign, verify RAM capacity, peripheral mix, isolation requirements, industrial temperature limits, long-term supply, and functional-safety obligations.
Recommended
Vehicle Network Gateway
The 32-bit MPXS2010VMM80 is a plausible platform for a communications gateway or distributed control node that coordinates messages between vehicle networks and local I/O. Its 80 MHz core provides sequential processing headroom, while 1 MB flash can hold gateway software and protocol configuration. The real implementation still depends on verified CAN, LIN, Ethernet, FlexRay, or other interface availability, which is not supplied in the verified snippets. Board design must account for the 257-ball BGA, isolated communication transceivers, protection networks, deterministic timing, and fault recovery. No pin compatibility should be assumed between similarly positioned automotive MCUs.
Recommended
Safety-Oriented Industrial Control
The PXS20 documentation referenced in the verified search data includes a Safety Application Guide for fail-safe systems under IEC 61508, making MPXS2010VMM80 relevant to preliminary safety-control architecture studies. The 80 MHz 32-bit core can execute monitoring and control logic, while 1 MB flash supports program code and test data. That context does not by itself certify the exact MCU for a safety level. Designers must evaluate diagnostic coverage, freedom from interference, failure rates, tool qualification, safety manual scope, and the difference between generic guidance and device-specific certification evidence.
Recommended
Equipment Control and Diagnostics
MPXS2010VMM80 can be evaluated as the central controller for complex equipment that needs responsive sequencing, local diagnostics, and moderate code density. Its 80 MHz 32-bit core is appropriate when control loops and communication tasks must be scheduled predictably, while 1 MB flash provides room for production firmware. The 257-LFBGA implementation increases PCB layer count and assembly demands, and exact I/O voltage, RAM, timer, and communication resources remain unverified. Prototype planning should begin with a complete pin and memory-map audit, followed by worst-case latency measurement, brownout testing, boundary scan, and a controlled firmware-update strategy.
Recommended
Recommended Products Summary
Engineering reference data for MPXS2010VMM80 — comparison, design guidance, and compliance information.
Selection Guide
Design Notes
The verified package is a 257-LFBGA measuring 14 x 14 mm, so the PCB cannot be treated as a low-pin-count design. Use the manufacturer's ball map and recommended escape geometry, preserve power and ground-plane continuity, and place decoupling structures directly at the relevant supply balls. No ball-level assignments were supplied in the verified snippets, so do not infer routing from ball position until the official pin-assignment drawing has been checked line by line.
Thermal design must account for heat spreading from a large BGA and for the automotive-grade classification, but the verified data does not state maximum junction temperature, ambient range, package thermal resistance, or processor power. Measure or simulate worst-case ambient, activity, I/O loading, and supply conditions before selecting copper area, thermal-via density, heat spreaders, or forced airflow. Avoid presenting a numerical temperature rise until verified power and package data are available.
Do not treat the 80 MHz MPXS2010VMM80, 120 MHz MPXS2010VMM120, or any similarly numbered automotive MCU as interchangeable merely because naming and ball count resemble one another. Before redesign, compare the official package drawings, electrical limits, supply pins, clocks, memory map, boot configuration, peripherals, safety assumptions, and toolchain. Generic cross-reference search results in the supplied evidence do not establish pin-to-pin or software compatibility.
Build the supply network from the exact datasheet domain information rather than the search snippet alone. The verified AiPCBA result mentions 3.3 V / 5 V, but it does not identify which rails apply to which ball, tolerance, sequencing, or current budget. Confirm all core, I/O, memory, and auxiliary supplies, then size local high-frequency bypass paths and verify startup, shutdown, brownout, and load-transient behavior on the assembled PCB.
Compliance Information
The verified data identifies an automotive temperature grade and references an IEC 61508 Safety Application Guide, but it does not establish RoHS, REACH, AEC-Q100, lead-free, halogen-free, or conflict-mineral compliance. IEC 61508 appears only as referenced safety-application guidance and is not itself an MCU qualification.
