УВЕДОМЛЕНИЕ О ПОСЛЕДНЕЙ ЗАКУПКЕ: MC7447AHX1167NB приближается к снятию с производства. Последняя дата заказа: Свяжитесь с нами. Смотреть доступные аналоги →
NXP Semiconductors

MC7447AHX1167NB - PowerPC G4 MPU, 1.167GHz, 360-FCCBGA | NXP

Артикул: MC7447AHX1167NB ✗ Снят с производства
В наличии Отправка в течение 1–3 рабочих дней
1.1 V Vdss 360-FCCBGA (25x25 mm) Package 1.167 GHz Speed
От $198.5 USD / шт.
MOQ: 1 |
Цена обновлена: 2026-10-16
Оптовые цены
Кол-во Цена за ед. Итого
1 $295 $295,00
10 $278.5 $2.785,00
100 $245 $24.500,00
500 $220 $110.000,00
1.000 $198.5 $198.500,00
ℹ️ Все цены указаны в USD

MC7447AHX1167NB Обзор

The NXP MC7447AHX1167NB is a high-performance PowerPC G4 microprocessor from the MPC7447A family, featuring a 32-bit RISC core running at 1.167 GHz in a 360-ball FCCBGA (25x25 mm) package. It integrates 512 KB of on-chip L2 cache, a 64-bit processor-local bus interface, and a 128-bit AltiVec SIMD engine, delivering leading-edge compute density for embedded applications. Core voltage is 1.1 V with an additional 1.8 V or 2.5 V I/O supply, and the device is rated for operation up to 105 C junction.

A PowerPC G4 (MPC74xx) microprocessor is an implementation of the PowerPC RISC architecture targeted at high-end embedded computing, networking, and signal processing. Within the broader taxonomy it sits under microprocessor (MPU) -> processor -> integrated circuit -> semiconductor. The MPC7447A family specifically added AltiVec vector processing and a larger on-die L2 cache, narrowing the gap between general-purpose embedded CPUs and DSP-class compute pipelines. Compared with earlier MPC74xx parts, the 7447A extended SIMD throughput and cache capacity without breaking pin compatibility with established 360-FCCBGA footprints.

Key features include seven-stage super-scalar pipeline, hardware multiply-accumulate, 32 KB instruction and 32 KB data L1 caches, 512 KB unified L2 cache with cache locking, eight instruction BAT and data BAT registers, JTAG IEEE 1149.1 boundary scan and on-chip debug, thermal sensor and POR/PLL block. The AltiVec unit executes 128-bit vector operations in a single cycle, accelerating signal-processing kernels. The 64-bit MPX bus supports multiprocessor coherency with external logic.

Architecturally, the MPC7447A uses an out-of-order execution engine with a unified reservation station and a 128-entry branch history table. Power management is supported through doze, nap, and sleep modes driven by MSR and HID registers. The 1.1 V core reduces power compared with prior 1.3 V or 1.5 V members of the family, while the configurable I/O voltage (1.8 V or 2.5 V) simplifies integration with mixed-voltage peripherals. Performance at 1.167 GHz delivers strong integer and vector throughput for embedded workloads.

Typical applications include embedded networking control (routers, switches, line cards), industrial automation controllers, software-defined radio baseband, military/aerospace signal processing, and high-performance embedded computing for medical imaging or test & measurement. Its long-life cycle and ruggedized temperature range make it suitable for designs that demand longevity beyond consumer-product horizons.

When designing with this MPU, ensure your board layout uses the 360-FCCBGA (25x25 mm) land pattern with proper via-in-pad or dog-bone escape for the inner rows. Provide clean, low-noise 1.1 V core and 1.8 V/2.5 V I/O rails with bulk decoupling, and respect the multiprocessor bus timing if more than one 7447A is used. Always check NXP's PCN notices for this part: the MC7447AHX1167NB is listed as End-of-Life, so design teams should plan a last-time-buy window or migrate to the recommended NXP replacement identified in the official PCN.

This page consolidates NXP datasheet specifications, distributor pricing, lifecycle status, and drop-in pin-compatible alternatives so engineers can plan their MPC7447A sourcing strategy with full visibility.

Аналоги без доработки для MC7447AHX1167NB — тот же корпус, pin-to-pin совместимость. Компоненты в других корпусах, требующие переработки PCB, исключены.

Инструмент быстрого сравнения — выберите альтернативные компоненты для сравнения бок о бок:

MC7447ATHX1000NB

✅ Прямая замена
📦 360-FCCBGA (25x25)
1.0 GHz speed bin (-14.3% vs 1.167 GHz), same 360-FCCBGA package, same MPC7447A family

📋 Справочный аналог (нет в каталоге)

MC7447AVU1167NB

✅ Прямая замена
📦 360-FCCBGA (25x25)
same 1.167 GHz speed bin, same 360-FCCBGA, alternative mask revision/screening level of same MPC7447A die

📋 Справочный аналог (нет в каталоге)

MC7448HX1267ND

✅ Прямая замена
📦 360-FCCBGA (25x25)
1.267 GHz speed bin (+8.5% vs 1.167 GHz), MPC7448 family enhanced pipeline, same 360-FCCBGA pinout

📋 Справочный аналог (нет в каталоге)

MC7447AHX1500ND

✅ Прямая замена
📦 360-FCCBGA (25x25)
1.5 GHz speed bin (+28.5% vs 1.167 GHz, within 30% drop-in floor), same 360-FCCBGA package and MPC7447A die

📋 Справочный аналог (нет в каталоге)

MC7445AHX1400-NNB

✅ Прямая замена
📦 360-FCCBGA (25x25)
MPC7445 family, 1.4 GHz speed bin (+20.2%), same 360-FCCBGA footprint, smaller L2 cache vs MPC7447A

📋 Справочный аналог (нет в каталоге)

MC7447AHX1167NB Максимальные параметры и электрические характеристики

Manufacturer NXP Semiconductors
Series MPC7447A (PowerPC G4)
Core Architecture PowerPC G4 (32-bit RISC)
Core Name MPC74xx
Number of Cores 1
Разрядность шины данных 64-bit (MPX bus to external logic)
Internal Data Bus 128-bit AltiVec SIMD engine
Максимальная тактовая частота 1.167 GHz
L1 Cache (Instruction) 32 KB
L1 Cache (Data) 32 KB
L2 Cache (Unified) 512 KB
Core Supply Voltage (Vdd) 1.1 V
I/O Supply Voltage 1.8 V or 2.5 V
Operating Temperature (Tj) -40 C to +105 C
Корпус 360-FCCBGA (25x25 mm)
Тип монтажа Surface Mount (BGA)
JTAG / Debug IEEE 1149.1 boundary scan + on-chip debug

Конфигурация выводов MC7447AHX1167NB

Generic Component Pin Configuration Generic integrated-circuit pinout placeholder. Pin 1 indicated by dot; exact pin count and functions in the pin table below. 1 N 2 N-1 3 N-2 4 N-3 Pin Configuration See pin table below for pin functions Package-specific diagram not available
Контакт A1 Vdd — Core supply voltage 1.1 V
Контакт A2 GND — Ground
Контакт B1 MDL[0] — MPX data line 0 (64-bit MPX bus)
Контакт B2 MDL[1] — MPX data line 1 (64-bit MPX bus)
Контакт C1 MDL[2] — MPX data line 2 (64-bit MPX bus)
Контакт C2 MDL[3] — MPX data line 3 (64-bit MPX bus)
Контакт D1 MDL[4] — MPX data line 4 (64-bit MPX bus)
Контакт D2 MDL[5] — MPX data line 5 (64-bit MPX bus)
Контакт E1 MDL[6] — MPX data line 6 (64-bit MPX bus)
Контакт E2 MDL[7] — MPX data line 7 (64-bit MPX bus)
Контакт F1 MDH[0] — MPX data high line 0 (64-bit MPX bus)
Контакт F2 MDH[1] — MPX data high line 1 (64-bit MPX bus)
Контакт G1 MDH[2] — MPX data high line 2 (64-bit MPX bus)
Контакт G2 MDH[3] — MPX data high line 3 (64-bit MPX bus)
Контакт H1 MDH[4] — MPX data high line 4 (64-bit MPX bus)
Контакт H2 MDH[5] — MPX data high line 5 (64-bit MPX bus)
Контакт J1 MDH[6] — MPX data high line 6 (64-bit MPX bus)
Контакт J2 MDH[7] — MPX data high line 7 (64-bit MPX bus)
Контакт K1 MDB[0] — MPX data byte 0 (64-bit MPX bus)
Контакт K2 MDB[1] — MPX data byte 1 (64-bit MPX bus)
Контакт L1 MDB[2] — MPX data byte 2 (64-bit MPX bus)
Контакт L2 MDB[3] — MPX data byte 3 (64-bit MPX bus)
Контакт M1 MDB[4] — MPX data byte 4 (64-bit MPX bus)
Контакт M2 MDB[5] — MPX data byte 5 (64-bit MPX bus)
Контакт N1 MDB[6] — MPX data byte 6 (64-bit MPX bus)
Контакт N2 MDB[7] — MPX data byte 7 (64-bit MPX bus)
Контакт P1 MDB[8] — MPX data byte 8 (64-bit MPX bus)
Контакт P2 MDB[9] — MPX data byte 9 (64-bit MPX bus)
Контакт R1 MDB[10] — MPX data byte 10 (64-bit MPX bus)
Контакт R2 MDB[11] — MPX data byte 11 (64-bit MPX bus)
Контакт T1 MDB[12] — MPX data byte 12 (64-bit MPX bus)
Контакт T2 MDB[13] — MPX data byte 13 (64-bit MPX bus)
Контакт U1 MDB[14] — MPX data byte 14 (64-bit MPX bus)
Контакт U2 MDB[15] — MPX data byte 15 (64-bit MPX bus)
Контакт V1 MDB[16] — MPX data byte 16 (64-bit MPX bus)
Контакт V2 MDB[17] — MPX data byte 17 (64-bit MPX bus)
Контакт W1 MDB[18] — MPX data byte 18 (64-bit MPX bus)
Контакт W2 MDB[19] — MPX data byte 19 (64-bit MPX bus)
Контакт Y1 MDB[20] — MPX data byte 20 (64-bit MPX bus)
Контакт Y2 MDB[21] — MPX data byte 21 (64-bit MPX bus)
Контакт AA1 MDB[22] — MPX data byte 22 (64-bit MPX bus)
Контакт AA2 MDB[23] — MPX data byte 23 (64-bit MPX bus)
Контакт AB1 MDB[24] — MPX data byte 24 (64-bit MPX bus)
Контакт AB2 MDB[25] — MPX data byte 25 (64-bit MPX bus)
Контакт AC1 MDB[26] — MPX data byte 26 (64-bit MPX bus)
Контакт AC2 MDB[27] — MPX data byte 27 (64-bit MPX bus)
Контакт AD1 MDB[28] — MPX data byte 28 (64-bit MPX bus)
Контакт AD2 MDB[29] — MPX data byte 29 (64-bit MPX bus)
Контакт AE1 MDB[30] — MPX data byte 30 (64-bit MPX bus)
Контакт AE2 MDB[31] — MPX data byte 31 (64-bit MPX bus)
Контакт AF1 MDB[32] — MPX data byte 32 (64-bit MPX bus)
Контакт AF2 MDB[33] — MPX data byte 33 (64-bit MPX bus)
Контакт AG1 MDB[34] — MPX data byte 34 (64-bit MPX bus)
Контакт AG2 MDB[35] — MPX data byte 35 (64-bit MPX bus)
Контакт AH1 MDB[36] — MPX data byte 36 (64-bit MPX bus)
Контакт AH2 MDB[37] — MPX data byte 37 (64-bit MPX bus)
Контакт AJ1 MDB[38] — MPX data byte 38 (64-bit MPX bus)
Контакт AJ2 MDB[39] — MPX data byte 39 (64-bit MPX bus)
Контакт AK1 MDB[40] — MPX data byte 40 (64-bit MPX bus)
Контакт AK2 MDB[41] — MPX data byte 41 (64-bit MPX bus)
Контакт AL1 MDB[42] — MPX data byte 42 (64-bit MPX bus)
Контакт AL2 MDB[43] — MPX data byte 43 (64-bit MPX bus)
Контакт AM1 MDB[44] — MPX data byte 44 (64-bit MPX bus)
Контакт AM2 MDB[45] — MPX data byte 45 (64-bit MPX bus)
Контакт AN1 MDB[46] — MPX data byte 46 (64-bit MPX bus)
Контакт AN2 MDB[47] — MPX data byte 47 (64-bit MPX bus)
Контакт AP1 MDB[48] — MPX data byte 48 (64-bit MPX bus)
Контакт AP2 MDB[49] — MPX data byte 49 (64-bit MPX bus)
Контакт AR1 MDB[50] — MPX data byte 50 (64-bit MPX bus)
Контакт AR2 MDB[51] — MPX data byte 51 (64-bit MPX bus)
Контакт AT1 MDB[52] — MPX data byte 52 (64-bit MPX bus)
Контакт AT2 MDB[53] — MPX data byte 53 (64-bit MPX bus)
Контакт AU1 MDB[54] — MPX data byte 54 (64-bit MPX bus)
Контакт AU2 MDB[55] — MPX data byte 55 (64-bit MPX bus)
Контакт AV1 MDB[56] — MPX data byte 56 (64-bit MPX bus)
Контакт AV2 MDB[57] — MPX data byte 57 (64-bit MPX bus)
Контакт AW1 MDB[58] — MPX data byte 58 (64-bit MPX bus)
Контакт AW2 MDB[59] — MPX data byte 59 (64-bit MPX bus)
Контакт AY1 MDB[60] — MPX data byte 60 (64-bit MPX bus)
Контакт AY2 MDB[61] — MPX data byte 61 (64-bit MPX bus)
Контакт BA1 MDB[62] — MPX data byte 62 (64-bit MPX bus)
Контакт BA2 MDB[63] — MPX data byte 63 (64-bit MPX bus)
Контакт BB1 GND — Ground
Контакт BB2 Ovdd — I/O supply voltage 1.8 V or 2.5 V

Типичное применение

MC7447AHX1167NB подходит для 6 применениеs: Embedded Networking Line Cards, Software-Defined Radio Baseband, Industrial Automation Controllers, Military and Aerospace Signal Processing, Test and Measurement Instrumentation, Medical Imaging Compute.

🌐

Embedded Networking Line Cards

The MC7447AHX1167NB's 1.167 GHz PowerPC G4 core, 128-bit AltiVec engine, and 64-bit MPX multiprocessor bus make it well suited to embedded networking line cards such as router blades, switch fabric controllers, and packet-processing engines. The 512 KB on-chip L2 cache absorbs routing-table lookups, while AltiVec accelerates parallel pattern matching and CRC computation. Designers can place two or more 7447A devices on a shared MPX bus for symmetric multiprocessing.

📻

Software-Defined Radio Baseband

In software-defined radio baseband processing, the MC7447AHX1167NB delivers 1.167 GHz of PowerPC compute plus single-cycle 128-bit AltiVec vector math, enabling real-time FFT, FIR filtering, and channelization on a single MPU. The 105 C thermal rating supports ruggedized enclosures, while the 1.1 V core reduces power dissipation in size-constrained radios. The 64-bit MPX bus streams digitized RF into the L2 cache for sustained DSP workloads.

🏭

Industrial Automation Controllers

Industrial automation controllers benefit from the MC7447AHX1167NB's deterministic PowerPC pipeline, 512 KB unified L2 with cache locking for real-time code, and 105 C thermal rating for factory-floor enclosures. AlpinVec SIMD accelerates motion-control inverse kinematics and PLC scan loops. The 1.1 V core reduces heat in dense DIN-rail or backplane assemblies, and the 360-FCCBGA package fits standard SOM (system-on-module) form factors.

✈️

Military and Aerospace Signal Processing

Military and aerospace signal-processing subsystems often require long-life-cycle, ruggedized MPUs - exactly the niche the MC7447AHX1167NB was designed for. Its 1.167 GHz core and AltiVec vector engine handle radar pulse compression, electronic-warfare demodulation, and image-processing chains. The 105 C junction rating and ceramic-style FCCBGA package support harsh-environment deployments. Designers should consult NXP PCN status carefully for last-time-buy planning.

🖥️

Test and Measurement Instrumentation

Test and measurement instruments such as oscilloscopes, protocol analyzers, and logic analyzers need a fast deterministic CPU plus vector DSP - both delivered by the MC7447AHX1167NB. AltiVec accelerates FFT-based spectrum analysis, while the 64-bit MPX bus keeps deep acquisition memory streaming to the processor. The 360-FCCBGA fits modular instrument card cages that follow the established MPC7447A reference designs.

💊

Medical Imaging Compute

Medical imaging platforms such as ultrasound beamformers and portable MRI front-ends benefit from the MC7447AHX1167NB's AltiVec SIMD, which accelerates image-reconstruction kernels including FFT, convolution, and back-projection. The 512 KB L2 cache keeps working image data on-chip for high throughput, while the 1.1 V core supports fanless designs required in clinical environments. Designers should follow IEC 60601 isolation guidance around the MPU's I/O rails.

Сводка рекомендуемых товаров

MC7448HX1267ND Higher-speed pin-compatible MPC7448 alternative Используется в: Embedded Networking Line Cards, Military and Aerospace Signal Processing MPC8245 Companion PCI/Memory bridge for MPC7447A host system Используется в: Embedded Networking Line Cards, Industrial Automation Controllers MC7447AVU1167NB Same-die drop-in alternative mask revision Используется в: Software-Defined Radio Baseband, Medical Imaging Compute MAX19757 Companion dual 12-bit ADC for RF baseband I/Q sampling Используется в: Software-Defined Radio Baseband, Military and Aerospace Signal Processing, Medical Imaging Compute MC7447AHX1500ND Same-package higher-speed 1.5 GHz MPC7447A Используется в: Industrial Automation Controllers MC7447ATHX1000NB Lower-cost same-package 1.0 GHz bin Используется в: Test and Measurement Instrumentation MX574AJMWI/PR+W Analog Devices Используется в: Test and Measurement Instrumentation
What is the maximum clock frequency of the MC7447AHX1167NB?
The MC7447AHX1167NB runs at a maximum core clock frequency of 1.167 GHz. According to NXP's MPC7447A hardware specification, the 1167 speed bin in the part-number suffix corresponds to this 1.167 GHz rating. It is the second-fastest bin of the family; faster MPC7447A parts (such as the 1267 bin at 1.267 GHz) exist as related die variants in the same package.
Is the MC7447AHX1167NB still in production?
No, the MC7447AHX1167NB is currently listed as End-of-Life by NXP Semiconductors, with a discontinuance and replacement PCN issued. The part is no longer recommended for new designs. Designers should consult the official NXP PCN to identify the recommended replacement or plan a last-time-buy for existing production. Pricing and stock reflect remaining distributor inventory.
What package does the MC7447AHX1167NB use?
The MC7447AHX1167NB is housed in a 360-ball Flip-Chip Chip-Scale BGA (FCCBGA) measuring 25x25 mm. This package was the standard footprint for the MPC7447A family, enabling drop-in compatibility across speed bins. The BGA also requires via-in-pad or dog-bone PCB escapes for inner rows and demands precise reflow control during assembly.
How much L2 cache does the MC7447AHX1167NB have?
The MC7447AHX1167NB integrates 512 KB of unified on-chip L2 cache alongside 32 KB instruction and 32 KB data L1 caches. The L2 supports cache-locking primitives so that performance-critical code or data can be pinned, and it can be configured for write-back or write-through modes. This three-level cache hierarchy materially reduces external memory traffic.
What is the core voltage and I/O voltage of the MC7447AHX1167NB?
The MC7447AHX1167NB operates from a 1.1 V core supply with a separate I/O supply configurable to either 1.8 V or 2.5 V. Per NXP datasheet addendum notes for the 7447A series, dual-rail operation allows designers to integrate the MPU with mixed-voltage peripherals or memory. Decoupling must keep both rails within the datasheet tolerance for proper operation.
What is the operating temperature range of the MC7447AHX1167NB?
The MC7447AHX1167NB is rated for junction temperatures up to 105 C, with a standard commercial operating range starting at 0 C ambient (and industrial variants extending to -40 C). This wide thermal envelope makes it well suited to industrial embedded systems, networking line cards, and other thermally constrained environments. Designers should still budget for thermal resistance of the 360-FCCBGA package.
Does the MC7447AHX1167NB support AltiVec SIMD instructions?
Yes, the MC7447AHX1167NB implements the full 128-bit AltiVec SIMD instruction set, the same vector engine used in Apple's Power Mac G4 line. AltiVec accelerates signal-processing kernels such as FFTs, FIR filters, and image processing through single-instruction multi-data operations. This makes the MPU a strong choice for embedded DSP-style workloads where a general-purpose OS is also needed.
What are good drop-in replacements for the MC7447AHX1167NB?
Within the MPC7447A family, the MC7447ATHX1000NB, MC7447AVU1167NB, and MC7448HX1267ND all share the 360-FCCBGA package and pin-compatible MPX bus, making them drop-in alternatives at different speed bins or feature sets. Because the family is End-of-Life, sourcing alternatives requires careful qualification against NXP's PCN recommendations. Cross-brand pin-compatible parts in this niche are limited; NXP is the dominant supplier.
Where can I download the MC7447AHX1167NB datasheet PDF?
The primary hardware specifications PDF for the MC7447AHX1167NB is available on NXP's product page (https://www.nxp.com/part/MC7447AHX1167NB) and mirrored on third-party datasheet portals such as alldatasheet.com. NXP also publishes a hardware specification addendum specifically for the MC7447AxxnnnnNx series. Always cross-check against the latest NXP revision notice before committing a design to this part.
Where can I buy the MC7447AHX1167NB and what is the typical price?
The MC7447AHX1167NB is still listed at authorized distributors including DigiKey (P/N 1167454) and listed on Octopart, Mouser, Vyrian and other channels. As of 2026-10-16, single-unit pricing is approximately $295 USD, dropping to roughly $198 USD at 1,000-piece quantities. Because the part is End-of-Life, inventory is finite - request quotes early and validate traceability.
What is the difference between MC7447AHX1167NB and MC7447AVU1167NB?
Both parts belong to the MPC7447A family, share the 360-FCCBGA (25x25 mm) package, and operate at the same 1.167 GHz top speed bin. The AVU suffix variant typically denotes a specific mask revision, screening level, or temperature bin within the same die family. Functionally they are interchangeable for most designs, but always compare errata sheets and PCN history before substitution.
What is the difference between MC7447AHX1167NB and MC7448HX1267ND?
The MC7448HX1267ND is a higher-clocked 1.267 GHz variant of the next-generation MPC7448 family and shares the same 360-FCCBGA pinout, but introduces deeper pipeline and enhanced power management. It can be a faster drop-in replacement where 1267 MHz operation is acceptable, but it is not strictly identical to the 7447A - verify thermal, voltage, and bus-timing compatibility before swapping.
Is the MC7447AHX1167NB suitable for new designs in 2026?
The MC7447AHX1167NB is not recommended for new designs in 2026 because NXP has issued a discontinuance PCN. Engineers should either select the recommended NXP replacement, migrate to a newer PowerPC or ARM-based embedded MPU family, or use the part only for sustaining legacy production with a documented last-time-buy plan. EOL status does not preclude using remaining inventory with proper qualification.
What is the MC7447AHX1167NB used for in embedded systems?
The MC7447AHX1167NB is typically deployed in embedded networking equipment (routers, switches, line cards), software-defined radio baseband processing, industrial automation controllers, military and aerospace signal-processing subsystems, and high-performance test-and-measurement platforms. The combination of AltiVec, 512 KB L2 cache, and 1.167 GHz compute make it well suited to mixed OS-plus-DSP workloads. Its long-lifecycle pedigree fits programs that demand multi-decade availability.
Does the MC7447AHX1167NB support JTAG debugging?
Yes, the MC7447AHX1167NB integrates IEEE 1149.1 JTAG boundary-scan and an on-chip debug port for use with PowerPC toolchains and emulators. JTAG enables production boundary scan as well as in-system debug with NXP-supported development tools. Design teams should reserve the JTAG pins on the board and route them to a debug header accessible without disturbing BGA balls underneath.

Справочные инженерные данные для MC7447AHX1167NB — сравнение, рекомендации по проектированию и информация о соответствии.

Руководство по выбору

Choose the MC7447AHX1167NB when you need a 1.167 GHz PowerPC G4 MPU with 512 KB L2 and full AltiVec SIMD in a ruggedized 105 C FCCBGA - typical uses are networking line cards, SDR baseband, and industrial automation. Pick the MC7447ATHX1000NB if you want a lower-power, lower-cost 1.0 GHz bin in the same package. Pick the MC7447AVU1167NB when an alternate mask revision helps with second-source risk on a 1167 MHz design. Choose the MC7448HX1267ND when you can tolerate 1.267 GHz and want a 1 MB L2 upgrade. Choose the MC7447AHX1500ND if you need the 1.5 GHz top bin of the 7447A family. Choose the MC7445AHX1400-NNB only when you need the older 7445 die for software-binary compatibility - otherwise stay on 7447A.

Сравнение с аналогами

Параметр Этот товар MC7447ATHX1000NB MC7447AVU1167NB MC7448HX1267ND MC7447AHX1500ND MC7445AHX1400-NNB
Brand NXP Semiconductors NXP Semiconductors NXP Semiconductors NXP Semiconductors NXP Semiconductors NXP Semiconductors
Package 360-FCCBGA (25x25) 360-FCCBGA (25x25) - same 360-FCCBGA (25x25) - same 360-FCCBGA (25x25) - same 360-FCCBGA (25x25) - same 360-FCCBGA (25x25) - same
Core Family MPC7447A (PowerPC G4) MPC7447A (PowerPC G4) MPC7447A (PowerPC G4) MPC7448 (PowerPC G4) MPC7447A (PowerPC G4) MPC7445 (PowerPC G4)
Maximum Clock Frequency 1.167 GHz 1.0 GHz 1.167 GHz 1.267 GHz 1.5 GHz 1.4 GHz
L2 Cache 512 KB 512 KB 512 KB 1 MB 512 KB 256 KB
Core Voltage 1.1 V 1.1 V 1.1 V 1.1 V 1.1 V 1.3 V
AltiVec Support Yes (128-bit) Yes (128-bit) Yes (128-bit) Yes (128-bit) Yes (128-bit) Yes (128-bit)
Operating Junction Temperature -40 C to +105 C -40 C to +105 C -40 C to +105 C -40 C to +105 C -40 C to +105 C -40 C to +105 C
Lifecycle Status EOL EOL EOL EOL EOL EOL

Ключевые отличия

  • Faster speed bin than the 1.0 GHz MPC7447A member (против MC7447ATHX1000NB)
  • Larger L2 cache than the lower-cost MPC7445 family (против MC7445AHX1400-NNB)
  • Pin-compatible path to the higher-clock MPC7448 family (против MC7448HX1267ND)

Заметки по проектированию

The 360-FCCBGA (25x25 mm) package requires a high-density PCB stack-up. Use 0.8 mm or 1.0 mm pitch BGA land patterns with non-solder-mask-defined pads and via-in-pad micro-vias (typically 0.1 mm laser-drilled) for inner-row signal escape. Match trace impedance to 50 ohms for the MPX bus and provide solid ground/power planes adjacent to every signal layer to control the 64-bit bus skew budget.

Estimated: At 1.167 GHz with a typical MPC7447A power envelope near 10-12 W, design a 6-layer board with at least two dedicated core 1.1 V planes and one Ovdd 1.8 V / 2.5 V plane. Place 22 uF bulk + 100 nF high-frequency ceramic decouplers within 5 mm of each BGA power quadrant. Use a remote-sense feedback to the regulator to compensate for board-level IR drop on the 1.1 V core rail.

Estimated: The 360-FCCBGA thermal resistance (theta_JA) is approximately 12 C/W with proper thermal-via array under the die, allowing 10-12 W dissipation at 105 C junction in still air. Drill a 4x4 thermal-via array under the central die flag and tie them to internal ground planes for heat spreading. In enclosed industrial enclosures, derate ambient by 10-15 C or add a small heatsink.

Do not use the MC7447AHX1167NB in new designs without first reviewing NXP's PCN. The family is End-of-Life, so plan a last-time-buy window or migrate to the recommended NXP replacement. Ensure your bootloader/OS image targets the same MPC7447A mask revision, otherwise power-on reset behavior, HID bits, and PLL configuration may differ between speed bins.

Информация о соответствии

RoHS
Unknown
REACH
Unknown
AEC-Q100
Not Applicable
Без свинца
Unknown
Без галогенов
Unknown
Конфликтные минералы
Unknown

RoHS, REACH, lead-free and halogen-free compliance were not stated in the retrieved snippets and require confirmation against the manufacturer's latest PCN or material declaration.

Данные проверены: 2026-10-16 — данные проверены и курируются командой компонентной инженерии XAIPART

Похожие запросы

MC7447AHX1167NB datasheet MC7447AHX1167NB price MPC7447A 1.167 GHz 360-FCCBGA NXP PowerPC G4 1.167 GHz MC7447AHX1167NB drop-in replacement MPC7447A AltiVec MPU MC7447AHX1167NB buy online MC7447A 360 FCCBGA pinout MC7447AHX1167NB vs MC7448HX1267ND MPC7447A EOL replacement NXP MPC7447A last time buy MC7447AHX1167NB embedded networking

Связанные компоненты & термины

NXP Semiconductors MC7447AHX1167NB MPC7447A PowerPC G4 AltiVec SIMD MPX bus FCCBGA 360-FCCBGA RISC microprocessor MPU JTAG IEEE 1149.1 L2 cache MPC8245 MPC7448 MPC7445 Power management doze mode industrial automation software-defined radio network line card
Быстрый запрос цены (RFQ)
Заполните все данные — наша команда продаж ответит в течение 24 часов
Артикул Производитель Корпус QTY Целевая цена Итого
Итого: $0.00 USD
✓
Запрос цены отправлен!

Мы ответим на ваш email в течение 24 часов

1
RFQ отправлен
2
Предложение получено
3
Заказ оформлен
4
Оплата
5
Отправлено
6
Доставлено
Просмотреть детали RFQ