List of NXP products

Last updated

The following is a partial list of NXP and Freescale Semiconductor products, including products formerly manufactured by Motorola until 2004. Note that NXP and Freescale merged in 2015. [1]

Contents

Microprocessors

Early microprocessors

68000 series

88000 series (RISC)

PowerPC and Power ISA processors

ARM cores

i.MX

ARM920 based:

  • i.MX1 (MC9328MX1)
  • i.MXL (MC9328MXL)
  • i.MXS (MC9328MXS)

ARM926 based:

  • i.MX21 (MC9328MX21)
  • i.MX23 (MCIMX23)
  • i.MX25 (MCIMX25)
  • i.MX27 (MCIMX27)
  • i.MX28 (MCIMX28)

ARM11 based:

  • i.MX31 (MCIMX31)
  • i.MX35 (MCIMX355)
  • i.MX37 (MCIMX37)

Cortex-A8 based:

  • i.MX51 family (e.g. MCIMX515)
  • i.MX50 family (i.MX508)
  • i.MX53 family (e.g. MCIMX535)

Cortex-A9 based:

  • i.MX6 solo
  • i.MX6 dual
  • i.MX6 quad

Cortex-A7 based:

Cortex-A72 based:

S32

ARM Cortex-A53 and/or ARM Cortex-M4 based:

Layerscape / QorIQ

ARM Cortex-A7 based:

  • LS1020A
  • LS1021A
  • LS1022A

ARM Cortex-A9 based:

  • LS1024A

ARM Cortex-A53 based:

  • LS1012A
  • LS1043A
  • LS1046A
  • LS1088A

ARM Cortex-A72 based:

  • LS1028A
  • LS2084A/44A
  • LS2048A/44A
  • LS2160A (16x Cortex-A72) [6]

Microcontrollers

6800 series

8-bit

16-bit

68000 series

M·CORE-based

The M·CORE-based RISC microcontrollers are 32 bit processors specifically designed for low-power electronics. [7] M·CORE processors, like 68000 family processors, have a user mode and a supervisor mode, and in user mode both see a 32 bit PC and 16 registers, each 32 bits. The M·CORE instruction set is very different from the 68k instruction set—in particular, M·CORE is a pure load-store machine and all M·CORE instructions are 16 bit, while 68k instructions are a variety of lengths. However, 68k assembly language source code can be mechanically translated to M·CORE assembly language. [8]

The M·CORE processor core has been licensed by Atmel for smart cards. [9]

  • MMC2001
  • MMC2114

Power-Architecture

ARM11 Application Processor with Modem

ARM Cortex-M cores

Cortex-M0+ microcontrollers

  • Kinetis L series
  • Kinetis E series
  • Kinetis M series
  • Kinetis W series

Cortex-M4 microcontrollers

  • Kinetis K series
  • Kinetis KW2x series

see also: S32K

ARM7 cores

ARM7TDMI automotive microcontrollers

  • MAC71xx
  • MAC72xx

TPU and ETPU modules

The Time Processing Unit (TPU) and Enhanced Time Processing Unit (eTPU) are largely autonomous timing peripherals found on some Freescale parts.

Digital signal processors

Note: the 56XXX series is commonly known as the 56000 series, or 56K, and similarly the 96XXX is known as the 96000 series, or 96K.

56000 series

96000 series

StarCore series

Note: "There is no native support for floating point operations on StarCore" [10]

MEMS Sensors

Reconfigurable compute fabric device

Software

Related Research Articles

<span class="mw-page-title-main">PowerPC</span> RISC instruction set architecture by AIM alliance

PowerPC is a reduced instruction set computer (RISC) instruction set architecture (ISA) created by the 1991 Apple–IBM–Motorola alliance, known as AIM. PowerPC, as an evolving instruction set, has been named Power ISA since 2006, while the old name lives on as a trademark for some implementations of Power Architecture–based processors.

The Motorola 68000 series is a family of 32-bit complex instruction set computer (CISC) microprocessors. During the 1980s and early 1990s, they were popular in personal computers and workstations and were the primary competitors of Intel's x86 microprocessors. They were best known as the processors used in the early Apple Macintosh, the Sharp X68000, the Commodore Amiga, the Sinclair QL, the Atari ST and Falcon, the Atari Jaguar, the Sega Genesis, the Philips CD-i, the Capcom System I (Arcade), the AT&T UNIX PC, the Tandy Model 16/16B/6000, the Sun Microsystems Sun-1, Sun-2 and Sun-3, the NeXT Computer, NeXTcube, NeXTstation, and NeXTcube Turbo, early Silicon Graphics IRIS workstations, computers from MASSCOMP, the Texas Instruments TI-89/TI-92 calculators, the Palm Pilot, the Control Data Corporation CDCNET Device Interface, and the Space Shuttle. Although no modern desktop computers are based on processors in the 680x0 series, derivative processors are still widely used in embedded systems.

The PowerPC 7xx is a family of third generation 32-bit PowerPC microprocessors designed and manufactured by IBM and Motorola. This family is called the PowerPC G3 by Apple Computer, which introduced it on November 10, 1997. The term "PowerPC G3" is often, and incorrectly, imagined to be a microprocessor when in fact a number of microprocessors from different vendors have been used. Such designations were applied to Mac computers such as the PowerBook G3, the multicolored iMacs, iBooks and several desktops, including both the Beige and Blue and White Power Macintosh G3s. The low power requirements and small size made the processors ideal for laptops and the name lived out its last days at Apple in the iBook.

PowerPC G4 is a designation formerly used by Apple and Eyetech to describe a fourth generation of 32-bit PowerPC microprocessors. Apple has applied this name to various processor models from Freescale, a former part of Motorola. Motorola and Freescale's proper name of this family of processors is PowerPC 74xx.

<span class="mw-page-title-main">NXP ColdFire</span> Microprocessor

The NXP ColdFire is a microprocessor that derives from the Motorola 68000 family architecture, manufactured for embedded systems development by NXP Semiconductors. It was formerly manufactured by Freescale Semiconductor which merged with NXP in 2015.

The QUICC was a Motorola 68k -based microcontroller made by Freescale Semiconductor, targeted at the telecommunications market. It lends its name to a family of successor chips called PowerQUICC.

PowerQUICC is the name for several PowerPC- and Power ISA-based microcontrollers from Freescale Semiconductor. They are built around one or more PowerPC cores and the Communications Processor Module which is a separate RISC core specialized in such tasks such as I/O, communications, ATM, security acceleration, networking and USB. Many components are System-on-a-chip designs tailor-made for embedded applications.

The PowerPC 600 family was the first family of PowerPC processors built. They were designed at the Somerset facility in Austin, Texas, jointly funded and staffed by engineers from IBM and Motorola as a part of the AIM alliance. Somerset was opened in 1992 and its goal was to make the first PowerPC processor and then keep designing general purpose PowerPC processors for personal computers. The first incarnation became the PowerPC 601 in 1993, and the second generation soon followed with the PowerPC 603, PowerPC 604 and the 64-bit PowerPC 620.

The PowerPC e500 is a 32-bit microprocessor core from Freescale Semiconductor. The core is compatible with the older PowerPC Book E specification as well as the Power ISA v.2.03. It has a dual issue, seven-stage pipeline with FPUs, 32/32 KiB data and instruction L1 caches and 256, 512 or 1024 KiB L2 frontside cache. Speeds range from 533 MHz up to 1.5 GHz, and the core is designed to be highly configurable and meet the specific needs of embedded applications with features like multi-core operation interface for auxiliary application processing units (APU).

<span class="mw-page-title-main">PowerPC e300</span>

The PowerPC e300 is a family of 32-bit PowerPC microprocessor cores developed by Freescale for primary use in system-on-a-chip (SoC) designs with speed ranging up to 800 MHz, thus making them ideal for embedded applications.

The i.MX range is a family of Freescale Semiconductor proprietary microcontrollers for multimedia applications based on the ARM architecture and focused on low-power consumption. The i.MX application processors are SoCs (System-on-Chip) that integrate many processing units into one die, like the main CPU, a video processing unit, and a graphics processing unit for instance. The i.MX products are qualified for automotive, industrial, and consumer markets. Most of them are guaranteed for a production lifetime of 10 to 15 years.
Devices that use i.MX processors include Ford Sync, the Amazon Kindle and Kobo eReader series of e-readers until 2021, Zune, Sony Reader, Onyx Boox readers/tablets, SolidRun SOM's, Purism's Librem 5, some Logitech Harmony remote controls and Squeezebox radio and some Toshiba Gigabeat MP4 players. The i.MX range was previously known as the "DragonBall MX" family, the fifth generation of DragonBall microcontrollers. i.MX originally stood for "innovative Multimedia eXtension".

The PowerPC e700 or NG-64 were the codenames of Freescale's first 64-bit embedded RISC-processor cores.

<span class="mw-page-title-main">QorIQ</span> Microprocessor range

QorIQ is a brand of ARM-based and Power ISA–based communications microprocessors from NXP Semiconductors. It is the evolutionary step from the PowerQUICC platform, and initial products were built around one or more e500mc cores and came in five different product platforms, P1, P2, P3, P4, and P5, segmented by performance and functionality. The platform keeps software compatibility with older PowerPC products such as the PowerQUICC platform. In 2012 Freescale announced ARM-based QorIQ offerings beginning in 2013.

M·CORE is a low-power, RISC-based microcontroller architecture developed by Motorola, intended for use in embedded systems. Introduced in late 1997, the architecture combines a 32-bit internal data path with 16-bit instructions, and includes a four-stage instruction pipeline. Initial implementations used a 360nm process and ran at 50 MHz.

<span class="mw-page-title-main">ARM Cortex-A9</span> 32-bit multicore processor developed by SR1

The ARM Cortex-A9 MPCore is a 32-bit multi-core processor that provides up to 4 cache-coherent cores, each implementing the ARM v7 architecture instruction set. It was introduced in 2007.

<span class="mw-page-title-main">ARM Cortex-M</span> Group of 32-bit RISC processor cores

The ARM Cortex-M is a group of 32-bit RISC ARM processor cores licensed by ARM Limited. These cores are optimized for low-cost and energy-efficient integrated circuits, which have been embedded in tens of billions of consumer devices. Though they are most often the main component of microcontroller chips, sometimes they are embedded inside other types of chips too. The Cortex-M family consists of Cortex-M0, Cortex-M0+, Cortex-M1, Cortex-M3, Cortex-M4, Cortex-M7, Cortex-M23, Cortex-M33, Cortex-M35P, Cortex-M52, Cortex-M55, Cortex-M85. A floating-point unit (FPU) option is available for Cortex-M4 / M7 / M33 / M35P / M52 / M55 / M85 cores, and when included in the silicon these cores are sometimes known as "Cortex-MxF", where 'x' is the core variant.

<span class="mw-page-title-main">SolidRun</span> Israeli hardware developer

SolidRun is an Israeli company producing Embedded systems components, mainly mini computers, Single-board computers and computer-on-module devices. It is specially known for the CuBox family of mini-computers, and for producing motherboards and processing components such as the HummingBoard motherboard.

References

  1. NXP Semiconductors And Freescale Semiconductor Close Merger RTTNews. Retrieved on 2015-12-13.
  2. "i.MX 7 Series Applications Processors: Multicore Arm® Cortex®-A7, Cortex-M4". NXP. Retrieved 2018-12-03.
  3. "i.MX 8 Series Applications Processors: Multicore Arm® Cortex®-A72, Cortex-A53, Cortex-A35, Cortex-M4 cores". NXP. Retrieved 2018-12-03.
  4. "S32V234: Vision Processor for Front and Surround View Camera, Machine Learning and Sensor Fusion Applications". NXP. Retrieved 2018-12-03.
  5. "Chain ADAS and Autonomous Driving Market to 2017-2021: ACC, FCW and LKS Saw the Fastest Growth Rate". PRNewsWire. 2018-08-23. Retrieved 2018-12-03.
  6. "QorIQ® Layerscape Processors Based on Arm® Technology". NXP. Retrieved 2018-12-03.
  7. "Designing in Low Power: An Overview of the Power Saving Mechanisms used by Motorola's M·CORE Architecture"
  8. "PortAsm/68K for MCore: Source-level translation"
  9. press release: "Motorola's Secure M210 M-CORE Processor Licensed to Atmel"
  10. C64x to SC3850 Porting Guide Archived 2011-07-07 at the Wayback Machine (August, 2010 / Quote from page 29)