Overview of the supported Microcontroller Architectures

Supported Microcontroller Cores by Universal Debug Engine UDE - Debugger, Emulator, FLASH Programmer

C166, C166S V2
TriCore™ TC 1.2, TC1.3
PowerPC™ e200
Cortex™-M3
ARM® ARM7TDMI, ARM7RDMI-S, ARM710T, ARM720T, ARM740T, ARM7EJ
ARM® ARM9TDMI, ARM920T, ARM922T, ARM926EJ, ARM940T, ARM946E, ARM966E, ARM968E
ARM® ARM11MP, ARM1136JF-S
SuperH™ SH-2A

Supported Microcontrollers by Universal Debug Engine UDE - Debugger, Emulator, FLASH Programmer

AMCC PowerPC PPC440SPe, PPC440EP, PPC440GP, PPC440GR, PPC440SP, PPC460GT
Analog Devices ARM7 ADuC7019, ADuC7020, ADuC7021, ADuC7022, ADuC7024, ADuC7025, ADuC7026, ADuC7027
Atmel ARM7 AT91M40, ARM7 AT91SAM7A1, AT91SAM7A2, AT91SAM7A3 AT91SAM7S32, AT91SAM7S64, AT91SAM7S128, AT91SAM7S256 AT91FR40162
Atmel ARM9 AT91RM9200
Atmel ARM9 AT91SAM9260, AT91SAM9261, AT91SAM9263, AT91SAM9R64, AT91SAM9RL64, AT91SAM9XE128, AT91SAM9XE256, AT91SAM9XE512
Cirrus Logic ARM7 EP7309, EP7311, EP7312
Cirrus Logic ARM9 EP9301, EP9302, EP9307, EP0312, EP9315
Freescale PowerPC MPC5514, MPC5516, MPC5517, MPC5533, MPC5534, MPC5553, MPC5554, MPC5561, MPC5565, MPC5566, MPC5567, MPC5568, MPC5510, MPC560xB, MPC560xP, MPC560xS, MPC563xM
Freescale ARM11 i.MX31
Freescale ARM9 MC9328MX1 i.MX1, MC9328MX21S i.MX21S, MC94MX21 i.MX21, i.MX25, i.MX27
Freescale ARM7 PAC72x1, PAC72x2, MAC71x1, MAC71x2, MAC71x4, MAC71x5, MAC71x6, MAC7241, MAC7242
Infineon C166 80C166, 83C166, 88C166
Infineon C166 C161, C163, C164, C165UTAH, C165H, C167
Infineon C166 Vecon, EGOLD
Infineon XC166 XC161, XC164, XC167
Infineon XC2000 XC2264, XC2267, XC2285, XC2286, XC2287
Infineon XC2000 XC2365, XC2387
Infineon XC2000 XC2766, XC2786
Infineon XE166 XE162, XE164, XE167
Infineon TriCore TC11IB, TC1100, TC1115, TC1130, TC1161, TC1162, TC1163, TC1164, TC1165, TC1166, TC1167, TC1197
Infineon TriCore TC1736, TC1765, TC1766, TC1766ED, TC1767, TC1767ED, TC1775, TC1796, TC1796ED, TC1797, TC1797ED
Infineon TriCore TC1910, TC1912, TC1920
Infineon TriCore AUDO-Future, AUDO-NextGeneration
LuminaryMicro Cortex-M3 LM3S
Marvell/Intel XScale PXA255, PXA270
Marvell/Intel XScale IXP420, IXP421, IXP422, IXP423, IXP425, IXP455, IXP460, IXP465
Micronas C166 SDA6000, SDA6001
NEC ARM9 Ertec200, Ertec400
NetSilicon ARM7 NET+15, NET+20, NET+40, NET+50
NetSilicon ARM7 NS7520
NetSilicon ARM9 NS9360, NS9750, NS9775
NXP ARM9 LH7A400N0, LH7A404N0
NXP Cortex-M3 LPC1311, LPC1313, LPC1342, LPC1343
NXP Cortex-M3 LPC1751, LPC1752, LPC1754, LPC1756, LPC1758, LPC1764, LPC1765, LPC1766, LPC1768
NXP ARM7 LPC2114, LPC2119, LPC2124, LPC2129, LPC2131, LPC2132, LPC2134, LPC2136, LPC2138, LPC2142, LPC2144, LPC2146, LPC2148, LPC2194
NXP ARM7 LPC2212, LPC2214, LPC2220, LPC2292, LPC2294
NXP ARM7 LPC2364, LPC2366, LPC2368, LPC2378, LPC2387
NXP ARM7 LPC2468, LPC2470, LPC2478, LPC2880, LPC2888
NXP ARM9 LPC2915, LPC2917, LPC2919
NXP ARM9 LPC2921, LPC2923, LPC2924, LPC2927, LPC2929
NXP ARM9 LPC2930, LPC2939
NXP ARM9 LPC3180
NXP ARM9 LPC3220, LPC3230, LPC3240, LPC3250
Renesas SuperH SH-2A SH7254
STMicroelectronics C166 ST10R163, ST10F163, ST10R165, ST10F166, ST10R167, ST10F167, ST10F168, ST10F169, ST10R172
STMicroelectronics C166 ST10F251, ST10F252, ST10F269, ST10R271, ST10R272, ST10R273, ST10F275, ST10F276, ST10F280, ST10F282, ST10F296
STMicroelectronics ARM7 ST30F771, ST30F772, ST30F774
STMicroelectronics ARM7 STR710, STR711, STR712, STR720, STR730, STR731, STR750
STMicroelectronics ARM9 STR910, STR911, STR912
STMicroelectronics PowerPC SPC560, SPC563
STMicroelectronics Cortex-M3 STM32F105, STM32F107
TexasInstruments ARM9 OMAP5912
TexasInstruments ARM7/Cortex-M3 TMS470R1A64, TMS470R1A128, TMS470R1A256, TMS470R1A288, TMS470R1A384, TMS470R1B512, TMS470R1B768
Toshiba Cortex-M3 TMPM320, TMPM330, TMPM332, TMPM370
ARM11 ARM1136J, ARM11MP

SAB C166 Microcontrollers (C164, C165, C167) and ST10 (ST10F276, ST10F280) Microcontrollers

The architecture of the SAB C166, C167, ST10 combines the advantages of both RISC and CISC processors in a very well-balanced way. The sum of the features that are combined result in a high-performance microcontroller, which is the right choice not only for today’s applications but also for future engineering challenges. The C16x not only integrates a powerful CPU core and a set of peripheral units into one chip but also connects the units in a very efficient way. One of the four buses used concurrently on the C16x is the XBUS, an internal representation of the external bus interface. This bus provides a standardized method of integrating application-specific peripherals to produce derivatives of the standard C16x.

C166CBC Microcontrollers (C165UTAH, EGOLD, SDA6000) and C166S V2 (XC161, XC164, XC167) Microcontrollers

The C166CBC and C166S V2 (XC161, XC164, XC167) derivatives are new derivatives of the popular C166 microcontroller family. Based on the enhanced C166 architecture they outperform existing 16-bit solutions. They combine the extended functionality and performance of the C166 Core with powerful on-chip peripheral subsystems.

C166S V2 (XC2000, XE166) Microcontrollers - the enhanced C166 16-Bit Single-Chip Microcontrollers with 32-bit Perfomance

The new C166S V2 (XC2200, XC2300, XC2700, XE166) derivatives are the latest derivatives of the popular C166 microcontroller family. Based on the enhanced C166 architecture they outperform existing 16-bit solutions with 32-bit Performance. They combine the extended functionality and performance of the C166 Core with powerful on-chip peripheral subsystems.

TriCore™ Microcontrollers (TC1130, TC1766ED, TC1767, TC1796, TC1796ED, TC1797, TC1920)

TriCore is the first single-core 32-bit microcontroller-DSP architecture optimized for real-time embedded systems. TriCore unifies the best of three worlds—real-time capabilities of microcontrollers, the computational prowess of DSPs, and the highest performance/price implementations of RISC load-store architectures.
The architecture supports a uniform, 32-bit address space, with memory-mapped I/O. It allows for a wide range of implementations, ranging from simple scalar to superscalar. Furthermore, the ISA is capable of interacting with different system architectures, including those with multiprocessing.

PowerPC™ Microcontrollers (PPC440, MPC5500, SPC560)

Designed specifically to address high-end embedded applications, the PowerPC architecture provides a high-performance, low power solution that interfaces to a wide range of peripherals by incorporating on-chip power management.

Cortex™-M3 Microcontrollers (STM32F, LPC1000, LM3S, TMS470)

The Cortex™-M3 processor is an ARM 32-bit RISC processor based on the ARM v7-M architecture. It has been developed to provide a high-perfomance, low-cost platform for automotive body systems, industrial control system and wireless networking.

ARM7™ Microcontrollers (AT91x, LPC21xx, LPC22xx, NS7520, NET+50, ST30, MAC7100, STR710, STR720, STR730, STR731, TMS470)

The ARM7 ™ embedded microcontroller core is a member of the Advanced RISC Machines (ARM®) family of general purpose 32-bit microprocessors, which offer high performance and very lower power consumption. Its outstanding feature is the 16-bit Thumb® subset of the most commonly used 32-bit instructions. These are expanded at run time with no degradation of system performance. This gives 16-bit code density (saving memory area and cost) coupled with 32-bit processor performance.

ARM9™ Microcontrollers (AT91RM9200, LPC3180, AT91SAM9261, STR910)

The ARM9 ™ embedded microcontroller core is a member of the Advanced RISC Machines (ARM®) family of general purpose 32-bit microprocessors, which offer high performance and very lower power consumption. Its outstanding feature is the 16-bit Thumb® subset of the most commonly used 32-bit instructions. These are expanded at run time with no degradation of system performance. This gives 16-bit code density (saving memory area and cost) coupled with 32-bit processor performance.

XScale™ Microcontrollers (PXA25x, PXA27x, IXP4xx)

XScale ™ Derivatives - Architectural Overview of the HighEnd 32-Bit Single-Chip Microcontrollers The Intel® XScale ™ embedded microcontroller core is an ARM® V5TE compliant microprocessor. It is a high performance and low-power device that leads the industry in MIPS/mW.

SuperH™ SH-2A Microcontrollers (SH7250)

The SuperH SH-2A processor is a 32-bit RISC processor based on the SuperH™ architecture. It has been developed to provide a High-performance CPU core and large-capacity RAM for superior functional products.

UDE - Universal Debug Engine - Debugger, Emulator, FLASH Programmer

UDE - Universal Debug Engine - is a flexible debug platform (Debugger and Emulator) with Multi-core debugging. This development workbench is available for 16-bit architectures SAB C166, C166CBC, XC166, XC2000, XE166 and 32-bit architectures TriCore, PowerPC, ARM7, ARM9, ARM11, Cortex-M3, XScale and SuperH SH-2A.

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Trademarks: ARM, EmbeddedICE and Thumb are registered trademarks of ARM Limited. ARM7, ARM9 and Embedded Trace Macrocell, are trademarks of ARM Limited. Cortex is a trademark of ARM Limited. ST is a registered trademark of companies belonging to the STMicroelectronics Group. TriCore is a trademark of Infineon Technologies. Intel is a registered trademark of Intel Corporation. Freescale is a trademark of Freescale Semiconductor, Inc. PowerPC is a trademark of IBM Corporation. SuperH is a trademark of Renesas Technlogy Corporation. XScale is a trademark of Intel Corporation. All other brands or product names are the property of their respective holders.