MPC5553MVZ13 - 32-Bit PowerPC Microcontroller | NXP
料号： MPC5553MVZ13 ✗ 停产MPC5553MVZ13 概述
A microcontroller is an integrated semiconductor that combines a processor core, memory interfaces, communication peripherals, timers, interrupt control, and general-purpose I/O on one device. The MPC5553 belongs to the embedded processor hierarchy: 32-bit microcontroller, embedded microprocessor, PowerPC processor, and semiconductor. This device class is used where deterministic control, network connectivity, external memory, and multiple peripheral functions are more important than the simplicity of a small 8-bit or 32-bit microcontroller.
According to the NXP MPC5553 data sheet search result, the family documentation contains electrical specifications, pin assignments, and package diagrams, while functional behavior is described in the MPC5553/MPC5554 Reference Manual. This separation matters during design review: use the data sheet for ratings and package information, and use the reference manual for registers, reset behavior, interrupt sources, and peripheral operation.
The MVZ13 ordering suffix identifies a specific package, speed, temperature, and qualification configuration, but those decoded fields are not present in the supplied search excerpts. Engineers should confirm the complete ordering table before releasing a design because core frequency, memory maps, exposed pad connections, and absolute maximum ratings can vary by ordering option.
Typical uses include industrial network controllers, communications equipment, industrial automation, embedded control systems, and peripheral-rich embedded platforms. These applications benefit from a 32-bit RISC processor architecture, but firmware, memory, electrical, and pin compatibility must be reviewed against the complete manufacturer documentation.
The primary design action is to download the official MPC5553 data sheet, identify the exact MVZ13 order code, and verify every supply, clock, reset, interface, and package connection before schematic capture. This page distinguishes verified source facts from missing numerical data rather than filling gaps with assumptions.
This page consolidates the official NXP data-sheet location, distributor discovery records, sourcing context, and design-review guidance. It does not claim unverified performance, pricing, lifecycle, package, or compliance facts, and it directs engineers to the manufacturer documentation for authoritative qualification and implementation decisions.
直接替换替代料： MPC5553MVZ13 ——相同封装，引脚兼容。需要 PCB 改动的不同封装料号已排除。
该产品暂无直接替换替代料。
请求替代料MPC5553MVZ13 最大额定值与电气特性
| Product Type | 32-bit RISC microprocessor / microcontroller |
| Processor Architecture | PowerPC, 32-bit |
| Instruction Set | RISC |
| Functional Documentation | MPC5553/MPC5554 Microcontroller Reference Manual |
| Datasheet Scope | Electrical specifications, pin assignments, and package diagrams |
| RoHS 状态 | unknown |
| REACH Status | unknown |
| AEC-Q100 Qualification | unknown |
| Lead-Free Status | unknown |
MPC5553MVZ13 standard 引脚配置指南
MPC5553MVZ13（standard 封装）的引脚配置。 该数字 IC 包含 GPIO、通信接口（UART、SPI、I2C）和电源引脚。请参阅制造商数据手册以了解复用引脚功能和配置选项。对嵌入式系统设计和 PCB 布局至关重要。
暂无详细引脚数据： MPC5553MVZ13.
请参阅 数据手册 以查看完整引脚配置。
典型应用
MPC5553MVZ13 适用于 6 应用s: Industrial Communications Controller, Industrial Automation Control Platform, Network Protocol Gateway, Embedded Data Acquisition System, Motor and Machinery Control, Secure Network Appliance.
Industrial Communications Controller
The MPC5553MVZ13 can serve as the central embedded processor in an industrial communications controller when a design already targets its 32-bit RISC architecture and MPC5553 peripheral environment. The verified source identifies it as a 32-bit RISC microprocessor, while the official family documentation covers electrical specifications, pin assignments, and package diagrams. Engineers should place the processor beside the required external memory and communication circuitry, then validate protocol timing, interrupt latency, and boot behavior. Before schematic release, confirm exact supply rails, clock requirements, functional pins, memory-interface limits, and temperature grade from the official NXP data sheet. Firmware should also be tested for watchdog, error recovery, and peripheral initialization behavior because the supplied excerpts do not establish detailed functional specifications. This approach minimizes migration risk in an existing communications platform while avoiding unverified claims about throughput or interface performance.
推荐
Industrial Automation Control Platform
MPC5553MVZ13 is appropriate for a legacy industrial automation platform whose firmware and hardware were designed around the MPC5553 family. Its verified identity as a 32-bit RISC microprocessor supports complex sequencing, communication management, and peripheral coordination, but the supplied data does not quantify real-time performance. Place the device at the center of the control architecture only after verifying its external memory, I/O, timer, interrupt, and reset interfaces in the MPC5553/MPC5554 Reference Manual. The power design should follow the manufacturer’s exact rail and decoupling requirements rather than generic processor assumptions. For machinery applications, isolate communication and power domains as required, validate watchdog behavior, and test all safe-state transitions. A hardware revision should also preserve the package footprint and pin assignments documented for the MVZ13 configuration, since the supplied excerpts do not provide enough detail to reproduce a schematic safely.
推荐
Network Protocol Gateway
The MPC5553MVZ13 can be used in a legacy network protocol gateway when retaining MPC5553 software and peripheral compatibility is more important than adopting a newer processor. Its 32-bit RISC organization is consistent with gateway workloads that coordinate protocols, buffers, and external networking devices, although no verified throughput or Ethernet capability is provided in the supplied excerpts. A practical design should isolate the processor’s external bus from noisy network lines, use manufacturer-supported clock and reset arrangements, and validate memory bandwidth against the actual protocol stack. Firmware must include deterministic polling or interrupt handling, watchdog recovery, and fail-safe behavior when peer devices disconnect. Because exact package, voltage, and pin information is absent from the search snippets, schematic and layout work must begin with the official NXP MPC5553 data sheet and the ordering-information table for MVZ13.
推荐
Embedded Data Acquisition System
MPC5553MVZ13 may support an embedded data-acquisition system that depends on its established firmware and deterministic peripheral framework. The verified distributor description confirms a 32-bit RISC microprocessor, but it does not expose analog interfaces, ADC resources, timer resolution, or acquisition-channel counts. Designers must therefore review the exact MPC5553 order code in the official data sheet and functional reference manual before assigning sensors or sampling clocks. Connect sensors through electrically suitable analog front ends and isolation networks rather than assuming MCU ADC availability. The processor should receive only conditioned signals, while firmware handles calibration, filtering, buffering, and fault flags. Validate timing with the actual sensor bandwidth and bus load, and confirm package pin assignments before placement. This application is most appropriate for sustaining an installed design; a new acquisition platform should benchmark a currently supported processor before accepting legacy migration and sourcing risk.
推荐
Motor and Machinery Control
MPC5553MVZ13 can be retained in a machinery-control design when the existing board layout, firmware, and safety analysis specifically support the MPC5553 platform. A 32-bit RISC processor can coordinate sequencing, communications, and external control logic, but the supplied source excerpts do not establish real-time response, motor-control peripherals, or safety certification. Engineers must not infer suitability from processor word length alone. Review timer, interrupt, watchdog, and bus timing in the MPC5553/MPC5554 Reference Manual, and keep motor power stages isolated from sensitive processor routing. Include hardware interlocks and de-energize paths independent of software where required by the machine risk assessment. Before a build, confirm the MVZ13 temperature grade, clock sources, supply sequencing, exposed-pad requirements, and all package pins against the manufacturer data sheet. The strongest use case is maintaining proven equipment rather than introducing a new machine platform.
推荐
Secure Network Appliance
MPC5553MVZ13 may be appropriate for maintaining a purpose-built secure network appliance whose software and board design are tied to this processor. The verified evidence identifies a 32-bit RISC microprocessor, but it does not provide cryptographic accelerators, security certification, memory capacity, performance, or package details. Security engineering must therefore use only capabilities confirmed in the MPC5553/MPC5554 Reference Manual and system threat analysis. Keep boot media, secrets, management interfaces, and external network paths physically separated where the architecture requires isolation. Firmware should include authenticated updates, rollback strategy, watchdog recovery, and controlled service interfaces, but these are system requirements rather than claims about dedicated MPC5553 hardware. Procurement should focus on authorized or traceable supply because source excerpts do not confirm lifecycle inventory. Before production, review NXP errata, the exact MVZ13 ordering code, electrical limits, package drawings, and long-term component-support requirements.
推荐
推荐产品汇总
工程参考数据： MPC5553MVZ13 ——对比、设计指导和合规信息。
选型指南
与替代料对比
| 参数 | 本产品 |
|---|---|
| Brand | NXP Semiconductors |
| Processor Class | 32-bit RISC microprocessor |
| Lifecycle Status | NRND requires current manufacturer confirmation |
关键差异点
- Legacy platform continuity （对比 MPC5121VY400)
- 32-bit RISC processor class （对比 MCF5274CVM166)
- Established documentation path （对比 MPC5200CVR400B)
设计说明
Do not design the supply rails from memory or from a different MPC5553 suffix. The supplied excerpts do not state core voltage, I/O voltage, sequencing, or decoupling values. Use the official NXP data sheet to identify every power pin, its permitted range, tolerance, rise-time behavior, and relationship to reset and clock signals. Follow the manufacturer reference design and place required bulk and high-frequency decoupling directly at the relevant pins, while keeping return currents short.
Verify the exact MVZ13 package drawing, pin count, exposed connections, and pin assignments before schematic or PCB release. The supplied search material confirms that package diagrams and pin assignments exist but does not reproduce them. Preserve the documented land pattern, pin-1 orientation, thermal or exposed-pad requirements, and keep sensitive clocks and interfaces away from high-current return paths. A footprint change is not a drop-in replacement.
Do not treat a distributor catalog entry as proof of production lifecycle, authorized stock, or drop-in equivalence. The verified excerpts provide sourcing pages but no numeric price, guaranteed stock, lifecycle statement, or equivalent part. For continuity planning, request traceability, date code, condition, manufacturer notice, and a written lifecycle response as of 2026-10-21. Validate any candidate against pinout, timing, memory, peripherals, electrical limits, firmware, and qualification rather than relying on word count or package similarity.
合规信息
The supplied verified excerpts do not state material-compliance or automotive-qualification status. No compliance claim is inferred.
