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XCZU5EV-1SFVC784E - Zynq UltraScale+ MPSoC EV | AMD
XCZU5EV-1SFVC784E

XCZU5EV-1SFVC784E - Zynq UltraScale+ MPSoC EV | AMD

The AMD XCZU5EV-1SFVC784E is a Zynq® UltraScale+™ MPSoC EV device that integrates a quad-core ARM® Cortex®-A53 application processor, a dual-core ARM® Cortex™-R5 real-time processor, and an ARM Mali™-400 MP2 graphics processing unit with programmable logic. This System-on-Chip (SoC) is housed in a 784-pin FCBGA package (23x23 mm) and is designed for high-performance embedded applications requiring both processing and hardware acceleration. A Zynq UltraScale+ MPSoC is a heterogeneous computing platform that combines a multi-core ARM processing system (PS) with FPGA programmable logic (PL) on a single die. This architecture allows designers to implement complex algorithms in hardware for performance and power efficiency while maintaining the flexibility of software-defined control. The EV family specifically adds video codec units, making it ideal for multimedia and vision applications. Key features of the XCZU5EV-1SFVC784E include 256K+ logic cells, a 500MHz Cortex-A53 processor, a 600MHz Cortex-R5 processor, and a 1.2GHz Mali-400 MP2 GPU. The device supports high-speed transceivers and a wide range of I/O standards, enabling high-bandwidth data movement. The programmable logic is based on the UltraScale+ architecture, offering advanced clocking, DSP slices, and block RAM resources. Technically, the XCZU5EV-1SFVC784E is fabricated on a 16nm process, providing a balance of performance and power. The PS and PL are connected via a high-bandwidth AXI interconnect, allowing low-latency communication. The device includes security features such as AES and RSA for secure boot, and supports a comprehensive set of peripherals including USB, PCIe, and Ethernet. Typical applications include software-defined radio, machine vision, medical imaging, and aerospace/defense systems. The combination of ARM cores and FPGA fabric makes it suitable for edge computing where low latency and high throughput are critical. The Mali-400 GPU enables graphical user interfaces and video processing. When designing with this device, careful attention must be paid to power supply sequencing and decoupling. The multiple power rails (VCCINT, VCCAUX, VCCO) require proper filtering and sequencing to ensure reliable operation. The FCBGA package requires a multi-layer PCB with controlled impedance for high-speed signals.

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XCZU5EV-2SFVC784I - Zynq UltraScale+ MPSoC EV | AMD
XCZU5EV-2SFVC784I

XCZU5EV-2SFVC784I - Zynq UltraScale+ MPSoC EV | AMD

The AMD XCZU5EV-2SFVC784I is a Zynq® UltraScale+™ MPSoC EV device that integrates a quad-core ARM® Cortex®-A53 MPCore™ application processor, a dual-core ARM® Cortex™-R5 real-time processor, and an ARM Mali™-400 MP2 graphics processing unit with programmable logic. This System-on-Chip (SoC) is housed in a 784-pin FCBGA package (23x23 mm) and is designed for high-performance embedded applications requiring both processing and hardware acceleration. A Zynq UltraScale+ MPSoC is a heterogeneous computing platform that combines a multi-core ARM-based processing system (PS) with FPGA programmable logic (PL) on a single die. This architecture allows designers to implement complex algorithms in hardware for high throughput and low latency, while the PS handles operating systems and control tasks. The EV family specifically adds video codec units, making it ideal for multimedia and vision applications. Key features of the XCZU5EV-2SFVC784I include 256K+ logic cells, a maximum operating frequency of 1.3 GHz for the Cortex-A53 cores, 600 MHz for the Cortex-R5 cores, and 533 MHz for the Mali-400 GPU. The device supports a wide range of I/O standards and includes high-speed transceivers for serial communication. The -2 speed grade indicates a balanced performance-power profile. The device is built on TSMC's 16nm FinFET process technology, offering a good balance of performance and power efficiency. The programmable logic is based on the UltraScale+ architecture, featuring 6-input look-up tables (LUTs), block RAM, and DSP slices. The integrated video codec supports H.264/H.265 encoding and decoding, offloading these tasks from the CPU. Typical applications include video surveillance systems, medical imaging equipment, automotive driver assistance systems, and software-defined radio. The combination of ARM processing, FPGA flexibility, and video codec support makes it a versatile platform for edge computing and vision-based AI. When designing with this device, careful attention must be paid to power supply sequencing and decoupling. The multiple power rails (VCCINT, VCCAUX, VCCO, etc.) require proper filtering and sequencing to ensure reliable operation. The FCBGA package requires a multi-layer PCB with controlled impedance traces for high-speed signals.

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XCZU6CG-1FFVC900E - Zynq UltraScale+ MPSoC CG, Dual A53/R5, 900-FCBGA | AMD
XCZU6CG-1FFVC900E

XCZU6CG-1FFVC900E - Zynq UltraScale+ MPSoC CG, Dual A53/R5, 900-FCBGA | AMD

The AMD (formerly Xilinx) XCZU6CG-1FFVC900E is a heterogeneous Zynq UltraScale+ MPSoC CG device integrating a dual-core ARM Cortex-A53 application processor (up to 1.2 GHz) with a dual-core ARM Cortex-R5 real-time processor (up to 500 MHz), CoreSight debug, and approximately 469K+ programmable logic cells, all housed in a 900-ball FCBGA (31x31 mm) package. The CG subfamily is the cost-optimized dual-core variant without the integrated H.264/H.265 video codec, which AMD explicitly targets at industrial motor control and sensor-fusion workloads. The -1 speed grade and E (0C to +100C) extended temperature grade make this part well suited for industrial and edge deployments where power-constrained enclosures and harsh environments are common. A heterogeneous MPSoC (Multiprocessor System-on-Chip) is a class of integrated device that tightly couples deterministic real-time microcontrollers, application-class CPUs, graphics/video engines, and hardware-programmable FPGA fabric on a single die. The Zynq UltraScale+ family sits at the top of AMD's SoC taxonomy: heterogeneous MPSoC > Zynq UltraScale+ > Zynq-7000 > earlier Zynq devices, and competes directly with Microchip PolarFire SoC, NXP Layerscape, and TI Jacinto in the embedded edge AI and industrial control segment. Key features include dual ARM Cortex-A53 cores with NEON/SIMD and ARMv8-A 64-bit support, dual ARM Cortex-R5 cores with lock-step capability, ARM Mali-400MP2 GPU, integrated memory controller supporting DDR4/LPDDR4 with ECC, high-speed transceivers (GTH/GTX), common-use peripherals such as USB 2.0, Gigabit Ethernet, CAN, SPI, I2C, UART, and 256-bit AES/RSA hardware root of trust for secure boot. The 900-FCBGA package exposes approximately 256 user I/O pins grouped into high-range, high-performance, and high-density banks. The programmable logic portion contains roughly 469K system logic cells plus DSP slices, block RAM, and UltraRAM, all accessible through the ARM PS-PL AXI interconnect. Designers can implement custom peripherals, hardware accelerators, and vision pipelines in the PL fabric, while the hardened PS handles real-time and application tasks. The Vivado and Vitis toolchains from AMD provide C/C++, RTL, and high-level synthesis flows. Typical applications include industrial motor drives, robotics, sensor fusion gateways, machine-vision controllers, 5G edge radio units, automotive ADAS prototyping, and medical imaging. The CG subfamily is optimal when video encode/decode is not needed but deterministic real-time control, Linux application processing, and FPGA acceleration are all required. When designing with this device, allocate PCB power-delivery for the multi-rail requirement (typically 0.85 V VCCINT, 1.8 V VCCAUX, 0.9 V DDR4 VTT, plus 3.3 V I/O). Proper decoupling, ground plane stitching under the BGA, and length-matched DDR4 address/command traces are critical; AMD UG583 and UG1075 are the primary hardware-design references. This page synthesizes distributor pricing, validated drop-in same-package alternatives, and practical design notes not found in the manufacturer datasheet alone.

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XCZU7CG-L2FFVF1517E - Zynq UltraScale+ MPSoC CG | AMD
XCZU7CG-L2FFVF1517E

XCZU7CG-L2FFVF1517E - Zynq UltraScale+ MPSoC CG | AMD

The AMD XCZU7CG-L2FFVF1517E is a Zynq UltraScale+ MPSoC CG device that integrates a dual-core ARM Cortex-A53 application processor and a dual-core ARM Cortex-R5 real-time processor with an UltraScale+ programmable logic fabric. This System-on-Chip (SoC) is housed in a 1517-ball FCBGA package (40x40 mm) and is designed for high-performance embedded applications requiring both processing and hardware acceleration. A Zynq UltraScale+ MPSoC is a heterogeneous computing platform that combines multi-core ARM processors with FPGA fabric on a single die. The CG variant is the cost-optimized family, offering a balanced mix of processing system (PS) and programmable logic (PL) resources. The device supports a wide range of operating systems including Linux, VxWorks, and bare-metal applications, making it a versatile choice for edge computing, industrial automation, and aerospace systems. Key features of the XCZU7CG-L2FFVF1517E include 504K+ logic cells, 533 MHz maximum frequency for the Cortex-A53 cores, and 1.3 GHz for the Cortex-R5 cores. The device also includes 256 KB of on-chip memory, high-speed transceivers, and a comprehensive set of I/O interfaces. The 'L2' speed grade indicates a high-performance variant, and the 'E' suffix denotes an extended temperature range (-40°C to +100°C). From an architectural perspective, the XCZU7CG integrates a quad-core ARM Cortex-A53 MPCore with CoreSight debug, a dual-core ARM Cortex-R5 with CoreSight, and a Mali-400 MP2 GPU. The programmable logic is based on the UltraScale+ architecture, featuring 6-input LUTs, block RAM, and DSP slices. The device supports PCIe Gen3, USB 3.0, DisplayPort, and Gigabit Ethernet, providing extensive connectivity options. Typical applications include software-defined radio, machine vision, autonomous driving, and data center acceleration. The combination of high-performance processing and reconfigurable logic allows designers to implement complex algorithms with low latency and high throughput. When designing with this device, careful attention must be paid to power supply sequencing, decoupling, and thermal management. The FCBGA package requires a multi-layer PCB with controlled impedance for high-speed signals. AMD provides comprehensive reference designs and documentation to facilitate development.

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XCZU7EV-1FFVC1156E - Zynq UltraScale+ MPSoC EV | AMD
XCZU7EV-1FFVC1156E

XCZU7EV-1FFVC1156E - Zynq UltraScale+ MPSoC EV | AMD

The AMD XCZU7EV-1FFVC1156E is a Zynq UltraScale+ MPSoC EV device that integrates a quad-core ARM Cortex-A53 application processor, dual-core ARM Cortex-R5 real-time processor, and ARM Mali-400 MP2 graphics processing unit with programmable logic. It is housed in a 1156-ball FCBGA package (35x35 mm) and operates with a core voltage of 0.85V. The device features 504K+ logic cells and supports speeds of 500MHz, 600MHz, and 1.2GHz for the respective processor subsystems. A Zynq UltraScale+ MPSoC is a multiprocessor system-on-chip that combines a hardened processing system (PS) with programmable logic (PL) on a single device. This architecture enables designers to implement complex embedded systems with both software flexibility and hardware acceleration. The EV variant specifically targets video codec applications, providing hardware-accelerated H.264/H.265 encoding and decoding capabilities. Key features of the XCZU7EV-1FFVC1156E include the 504K+ logic cells for extensive programmable logic, the quad-core A53 application processor for high-performance computing, and the Mali-400 MP2 GPU for graphics acceleration. The device also supports a wide range of high-speed serial transceivers and memory interfaces, making it suitable for demanding applications. The device is built on TSMC's 16nm process technology, offering a balance of performance and power efficiency. The programmable logic is based on the UltraScale+ architecture, which provides advanced features such as integrated block RAM, DSP slices, and high-speed transceivers. The processing system includes a comprehensive set of peripherals, including USB, PCIe, and Ethernet controllers. Typical applications for the XCZU7EV-1FFVC1156E include video processing and surveillance systems, 5G wireless infrastructure, industrial automation, and automotive ADAS. The combination of high-performance processing and programmable logic makes it ideal for applications requiring both software flexibility and hardware acceleration. When designing with this device, careful attention must be paid to power supply sequencing and decoupling. The multiple power rails (VCCINT, VCCAUX, VCCO, etc.) require proper sequencing to ensure reliable operation. Additionally, the high-speed transceivers require careful PCB layout to maintain signal integrity.

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XCZU7EV-2FFVC1156I - Zynq UltraScale+ MPSoC EV, 504K Logic Cells | AMD
XCZU7EV-2FFVC1156I

XCZU7EV-2FFVC1156I - Zynq UltraScale+ MPSoC EV, 504K Logic Cells | AMD

The AMD XCZU7EV-2FFVC1156I is a Zynq UltraScale+ MPSoC EV device that integrates a quad-core ARM Cortex-A53 application processor, a dual-core ARM Cortex-R5 real-time processor, and an ARM Mali-400 MP2 graphics processing unit with a programmable FPGA fabric. This System-on-Chip (SoC) is housed in a 1156-ball FCBGA package measuring 35x35 mm and operates with a maximum clock frequency of 1.3 GHz for the Cortex-A53 cores, 600 MHz for the Cortex-R5 cores, and 533 MHz for the FPGA fabric. A Zynq UltraScale+ MPSoC is a heterogeneous computing platform that combines a multi-core ARM processing system (PS) with programmable logic (PL) on a single device. This architecture enables designers to implement complex algorithms in hardware for high throughput while maintaining the flexibility of software-based control. The EV variant specifically targets video codec applications, providing hardware-accelerated H.264/H.265 encode and decode capabilities that offload the processing system. Key features of the XCZU7EV-2FFVC1156I include 504K+ logic cells, 34.9 Mb of block RAM, and 1,152 DSP slices in the programmable logic. The device supports a wide range of I/O standards including LVCMOS, LVDS, and high-speed transceivers. The -2 speed grade offers a balanced performance-power trade-off, making it suitable for a variety of embedded applications. The processing system includes a memory management unit, cache coherence, and a rich set of peripherals such as USB 3.0, DisplayPort, SATA, and PCIe. The device also features advanced security with AES and RSA decryption, and supports secure boot. The integration of these capabilities reduces system complexity and bill-of-materials cost. Typical applications include video surveillance systems, medical imaging equipment, software-defined radio, and automotive driver assistance systems. The combination of high-performance processing and programmable logic makes it ideal for edge computing and AI inference workloads. When designing with this device, careful attention must be paid to power supply sequencing and decoupling. The multiple power rails require a controlled power-up sequence to prevent latch-up or damage. A dedicated power management IC is recommended to ensure reliable operation.

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XCZU9CG-L2FFVB1156E - Zynq UltraScale+ MPSoC CG, 599K+ Logic Cells | AMD
XCZU9CG-L2FFVB1156E

XCZU9CG-L2FFVB1156E - Zynq UltraScale+ MPSoC CG, 599K+ Logic Cells | AMD

The AMD (formerly Xilinx) XCZU9CG-L2FFVB1156E is a Zynq UltraScale+ MPSoC in the CG (Cost-Optimized) family, integrating a Dual-core ARM Cortex-A53 MPCore application processor with CoreSight, a Dual-core ARM Cortex-R5 real-time processor with CoreSight, and 599K+ UltraScale+ FPGA logic cells in a single 1156-ball FCBGA (35x35 mm) package. The part operates at -2 (extended) speed grade and is offered as an E (engineering sample / standard) temperature grade device, supporting the heterogeneous compute requirements of advanced embedded systems. A Zynq UltraScale+ MPSoC (Multiprocessor System-on-Chip) is a class of adaptive SoC devices that tightly couples an FPGA fabric with multi-core ARM CPUs, GPU, and real-time controllers on a single die. Within AMD's portfolio, Zynq UltraScale+ devices sit at the top of the MPSoC hierarchy under the Adaptive Compute Acceleration Platform (ACAP) family, preceding Versal devices; the CG sub-family omits the Mali GPU and Video Codec Unit to reduce silicon cost while retaining the A53 + R5 + FPGA triad - a popular middle-ground for compute-intensive embedded designs that do not require on-chip graphics. Key features of the XCZU9CG-L2FFVB1156E include up to 599K logic cells, an extensive DDR4/LPDDR4 memory controller subsystem, integrated Programmable Logic (PL) hardening blocks (DSP48E2, UltraRAM, BRAM), and rich connectivity with high-speed transceivers (GTH), PCIe Gen2/3, SATA, DisplayPort, and USB 3.0 controllers. The device is built on TSMC's 16nm FinFET process and supports MultiBoot, partial reconfiguration, and platform management via PMU + CSU. The 1156-ball FCBGA package offers a 35x35 mm body compatible with the ZU7CG / ZU9EG / ZU15EG stack, enabling footprint-scalable design. The architecture integrates high-speed serial interfaces directly into the PL through GTH transceivers supporting up to 16.3 Gb/s line rates. Security features include ARM TrustZone, secure boot, hardware root of trust, and AES/SHA acceleration engines. The embedded programmers' view exposes four ARM cores through separate SMP/AMP clusters, allowing Linux-and-RTOS concurrent operation with deterministic real-time response. Typical applications include industrial machine vision, 5G baseband preprocessing, ADAS sensor fusion, medical imaging, and military/aerospace signal processing. The CG sub-family cost-down makes the device attractive when the Mali GPU is not needed but ARM Cortex-A53 + FPGA horsepower is still required. Designers also use the ZU9CG in IoT edge gateways, software-defined radio front-ends, and broadcast video processing at 4K/8K resolutions. When designing with the XCZU9CG-L2FFVB1156E, ensure that the selected reference design accommodates the FCBGA-1156 footprint thermal requirements - the package does not expose a thermal pad in the conventional sense but requires 4-8 stacked PCB layers with microvia stitching for signal and ground integrity. Power sequencing of MIO banks and PS/PL voltage rails must follow UG1085 / UG1087 (Zynq UltraScale+ PCB Design Guide); designers usually employ a UCD90120A or equivalent sequencer. The device must be paired with an AMD-supported JTAG programmer (Xilinx Platform Cable USB II or SmartLynq+). This page synthesizes distributor availability, drop-in same-family and same-package alternatives, and practical design notes not consolidated into a single document on the AMD datasheet site.

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XCZU9EG-1FFVB1156E - Zynq UltraScale+ MPSoC EG | AMD
XCZU9EG-1FFVB1156E

XCZU9EG-1FFVB1156E - Zynq UltraScale+ MPSoC EG | AMD

The AMD XCZU9EG-1FFVB1156E is a Zynq UltraScale+ MPSoC EG family system-on-chip (SoC) that integrates a quad-core ARM Cortex-A53 application processor, a dual-core ARM Cortex-R5 real-time processor, and an ARM Mali-400 MP2 graphics processing unit with programmable logic. It is housed in a 1156-ball FCBGA package (35x35 mm) and is designed for high-performance embedded applications requiring both processing and hardware acceleration. A Zynq UltraScale+ MPSoC is a heterogeneous computing platform that combines a multi-core ARM-based processing system (PS) with Xilinx programmable logic (PL) on a single device. The EG variant is optimized for embedded and industrial applications, offering a balance of processing power, logic density, and I/O capabilities. This architecture enables designers to implement complex algorithms in hardware while maintaining software flexibility. Key features include 599,550 logic cells, 32.1 Mb of block RAM, and 2,520 DSP slices in the programmable logic. The processing system operates at speeds up to 1.2 GHz for the Cortex-A53, 600 MHz for the Cortex-R5, and 500 MHz for the Mali-400 GPU. The device supports a wide range of high-speed transceivers and I/O standards, making it suitable for diverse interface requirements. The XCZU9EG-1FFVB1156E is fabricated on a 16nm process technology, providing high performance with low power consumption. The device includes comprehensive security features such as AES decryption, RSA authentication, and secure boot. It also supports partial reconfiguration, allowing dynamic updates to the programmable logic without interrupting system operation. Typical applications include software-defined radio, medical imaging, industrial automation, and aerospace and defense systems. The combination of ARM processing and FPGA fabric makes it ideal for edge computing, machine vision, and 5G infrastructure where low latency and high throughput are critical. When designing with this device, careful attention must be paid to power supply sequencing and decoupling. The multiple power rails require proper filtering and sequencing to ensure reliable operation. Thermal management is also critical due to the high power dissipation of the device under full load.

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XCZU9EG-2FFVB1156I - Zynq UltraScale+ MPSoC EG | AMD
XCZU9EG-2FFVB1156I

XCZU9EG-2FFVB1156I - Zynq UltraScale+ MPSoC EG | AMD

The AMD XCZU9EG-2FFVB1156I is a Zynq UltraScale+ MPSoC EG family device, combining a quad-core ARM Cortex-A53 application processor, dual-core ARM Cortex-R5 real-time processor, ARM Mali-400 MP2 graphics processing unit, and 599,550 programmable logic cells in a single 1156-pin FCBGA package. This System-on-Chip (SoC) integrates the processing system (PS) and programmable logic (PL) on one die, enabling heterogeneous computing for demanding embedded applications. A Zynq UltraScale+ MPSoC is a class of adaptive SoC that pairs multi-core ARM processing with FPGA fabric. The EG variant targets embedded and industrial applications, offering a balance of processing performance, programmable logic capacity, and I/O flexibility. It sits within the broader hierarchy: Zynq UltraScale+ MPSoC -> adaptive SoC -> System-on-Chip -> semiconductor device. Key features include 599,550 logic cells, 32.1 Mb of block RAM, 1,968 DSP slices, and support for 533 MHz (Cortex-R5), 600 MHz (Mali-400), and 1.3 GHz (Cortex-A53) clock speeds. The device operates at 0.85V core voltage and is fabricated on a 20nm process. The -2 speed grade offers a balance of performance and power efficiency. The architecture integrates the PS with the PL via high-bandwidth AXI interfaces, enabling low-latency data movement between software and hardware accelerators. The Mali-400 MP2 GPU supports 2D/3D graphics, while the video codec unit handles H.264/H.265 encoding and decoding. The device includes comprehensive security features such as RSA authentication, AES decryption, and secure boot. Typical applications include software-defined radio, industrial motor control, medical imaging, aerospace and defense systems, and multi-axis robotics. The combination of real-time processing (Cortex-R5), application processing (Cortex-A53), and programmable logic makes it suitable for complex control and signal processing tasks. When designing with this device, careful attention must be paid to power supply sequencing, decoupling, and thermal management. The 1156-pin FCBGA package requires a multi-layer PCB with controlled impedance for high-speed transceivers and DDR memory interfaces.

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XCZU9EG-2FFVC900E - Zynq UltraScale+ MPSoC EG | AMD
XCZU9EG-2FFVC900E

XCZU9EG-2FFVC900E - Zynq UltraScale+ MPSoC EG | AMD

The AMD XCZU9EG-2FFVC900E is a Zynq UltraScale+ MPSoC EG family device, integrating a quad-core ARM Cortex-A53 application processor, dual-core ARM Cortex-R5 real-time processor, and ARM Mali-400 MP2 graphics processing unit with programmable logic. It is housed in a 900-ball FCBGA package (31x31 mm) and is designed for high-performance embedded applications requiring both processing and FPGA flexibility. A System-on-Chip (SoC) FPGA combines a hard processor system (PS) with programmable logic (PL) on a single die, enabling software and hardware co-design. The Zynq UltraScale+ MPSoC family extends this concept with heterogeneous processing, including real-time and graphics cores, making it suitable for advanced driver assistance systems (ADAS), industrial automation, and aerospace applications. Key features include 599K+ logic cells, 533 MHz for the Cortex-A53, 600 MHz for the Cortex-R5, and 1.3 GHz for the Mali-400 MP2. The device supports DDR4, LPDDR4, and 32-bit/64-bit memory interfaces, and includes high-speed transceivers for serial connectivity. The EG variant provides a balanced mix of logic and DSP resources, with 2,520 DSP slices and 32.1 Mb of block RAM. The architecture leverages TSMC 16nm FinFET process technology, offering high performance with low power consumption. The programmable logic is based on the UltraScale+ architecture, featuring enhanced routing, clocking, and I/O capabilities. The device supports partial reconfiguration, enabling dynamic updates to the PL while the PS continues operation. Typical applications include 5G wireless baseband processing, machine vision systems, medical imaging, and defense electronics. The combination of ARM cores and FPGA fabric allows for real-time signal processing, hardware acceleration, and flexible I/O interfacing. When designing with this device, careful attention must be paid to power supply sequencing, decoupling, and thermal management. The 900-ball FCBGA package requires a multi-layer PCB with controlled impedance for high-speed signals. AMD provides comprehensive design resources, including the Zynq UltraScale+ MPSoC data sheet (DS891) and pinout files.

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XIO2221ZAY - PCIe to 1394b OHCI Bridge | Texas Instruments
XIO2221ZAY

XIO2221ZAY - PCIe to 1394b OHCI Bridge | Texas Instruments

The Texas Instruments XIO2221ZAY is a PCI Express (PCIe) to PCI translation bridge with an integrated 1394b Open Host Controller Interface (OHCI) and a 1-port 1394b PHY. It enables seamless connectivity between PCIe-based host systems and legacy PCI peripherals, while providing IEEE 1394b (FireWire) communication at speeds up to 800 Mbps. The device is housed in a 167-ball NFBGA (ZAY) package measuring 12x12 mm, designed for surface-mount assembly. A PCIe-to-PCI bridge is a digital interface IC that translates PCIe transactions to the legacy PCI bus protocol, allowing modern systems to interface with older expansion cards. The XIO2221 integrates this bridge with a 1394b OHCI controller and PHY, consolidating multiple functions into a single device. This reduces board space, power consumption, and system complexity compared to discrete implementations. Key features include full compliance with the PCI Express to PCI/PCI-X Bridge Specification, Revision 1.0, and support for the standard PCI-to-PCI bridge programming model. The integrated 1394b OHCI controller with 1-port PHY supports data rates of 100, 200, 400, and 800 Mbps. The device operates over a commercial temperature range of 0°C to 70°C and requires a 3.3V core supply. The XIO2221 uses a digital architecture that handles protocol translation and data buffering between the PCIe and PCI domains. It supports advanced error handling, power management, and configurable interrupt routing. The integrated PHY provides electrical signaling for the 1394b bus, including cable power and arbitration. Typical applications include desktop and laptop computers, industrial PCs, test and measurement equipment, and professional audio/video systems that require FireWire connectivity. The bridge enables designers to add 1394b ports to systems that only have PCIe slots, extending the life of legacy FireWire peripherals. When designing with the XIO2221, ensure proper decoupling of the 3.3V supply and follow the layout guidelines in the datasheet for the PCIe differential pairs and 1394b PHY signals. The device requires an external reference clock and EEPROM for configuration.

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XMC1301Q040F0008ABXUMA1 - 32MHz Cortex-M0 MCU, 8KB Flash | Infineon
XMC1301Q040F0008ABXUMA1

XMC1301Q040F0008ABXUMA1 - 32MHz Cortex-M0 MCU, 8KB Flash | Infineon

The Infineon XMC1301Q040F0008ABXUMA1 is a 32-bit ARM Cortex-M0 industrial microcontroller from the XMC1000 family, clocked at 32 MHz with 8 KB of Flash and 16 KB of SRAM, housed in a PG-VQFN-40-13 package (40-pin VQFN, 5x5 mm) with an exposed pad. It integrates the MATH co-processor (CCU6, two Capture/Compare Units) targeted at digital power conversion and industrial motor control, while retaining the ARM Cortex-M0 instruction set for software portability across the XMC family. An ARM Cortex-M0 microcontroller (MCU) is a 32-bit microprocessor core built around the von Neumann architecture with a Thumb-2 instruction set subset, optimized for minimal silicon area and ultra-low active power consumption. The XMC1000 family sits in Infineon's industrial MCU hierarchy: Cortex-M0 (XMC1000) -> Cortex-M3 (XMC4000) -> Cortex-M4F (XMC4500) -> 32-bit industrial microcontrollers, typically used where 8-bit legacy designs cannot deliver the required computational throughput, deterministic timing, or peripheral integration for power-electronic feedback loops. Key features include the CCU6 peripheral for PWM generation with dead-time insertion and emergency stop, a 12-bit A/D converter with up to 12 channels for current/voltage sensing, MATH coprocessor hardware divide, peripheral clock support up to 64 MHz, and a supply voltage range of 1.8 V to 5.5 V. The 32 MHz CPU frequency combined with the deterministic CCU6 timer cluster makes this device well-suited to the digital control loop bandwidth demanded by 100 kHz-class switch-mode power supplies (SMPS) and low-power field-oriented motor control. The architecture is a single-core Cortex-M0 with on-chip Flash, single-cycle multiplier (32-bit result), an AHB-APB peripheral bridge, and Infineon-specific peripherals including the HRPWM (high-resolution PWM) module and a hardware CRC engine. The MATH coprocessor accelerates 32-bit divide and saturation arithmetic for SMPS compensation networks and Clarke/Park transforms on small BLDC motors. Typical applications include digital power supply PFC and PFC+LLC controllers, low-end BLDC/PMSM sensorless fan pumps, LED lighting drivers, and consumer/industrial sensor conditioning. The wide operating voltage range and on-chip peripherals make it popular in 24V industrial sensor hubs and appliance sub-modules that previously relied on discrete 8-bit microcontrollers. When designing with the XMC1301Q040, ensure the exposed thermal pad is soldered to a ground copper pour of at least 50 mm² to meet the theta_JA specified in the datasheet. The CCU6 dead-time register must be loaded before enabling the PWM outputs to avoid shoot-through on a half-bridge. This page synthesizes distributor pricing from DigiKey/Mouser/LCSC, XAIPART partner dropshipping stock levels, and practical design notes that complement the manufacturer's 78-page datasheet with curated cross-references and lifecycle guidance.

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XMC1302T038X0200A - 32MHz Cortex-M0 MCU | Infineon
XMC1302T038X0200A

XMC1302T038X0200A - 32MHz Cortex-M0 MCU | Infineon

Infineon Technologies XMC1302T038X0200A is a 32-bit ARM Cortex-M0 industrial microcontroller operating at 32 MHz, with 200 KB of flash memory, 16 KB of SRAM, and a 34-I/O PG-TSSOP-38-9 package. It is designed for embedded control, industrial automation, and connected sensor applications requiring deterministic peripheral operation and compact surface-mount integration. What is an ARM Cortex-M0 microcontroller? A microcontroller is a semiconductor device that combines a processor core, memory, analog interfaces, timers, communication peripherals, and digital I/O in one integrated circuit. The ARM Cortex-M0 is a compact 32-bit processor core intended for cost-sensitive embedded systems. The XMC1302 family belongs to the industrial microcontroller hierarchy: MCU, embedded processor, semiconductor, and electronic component. The verified product data identifies an ARM Cortex-M0 core, 32-bit architecture, 32 MHz operating frequency, 200 KB flash, 16 KB SRAM, and a 34-I/O package. The associated Infineon family page describes the device as an industrial MCU with a TSSOP-38 package. These resources make it suitable for motor and machine control, sensor conditioning, digital I/O expansion, communications interfaces, and compact embedded platforms. The 200 KB flash memory supports firmware storage, while the 16 KB SRAM supports working memory for control logic, data acquisition, and peripheral buffering. The 32 MHz operating speed provides a defined computational basis for real-time control loops. The industrial positioning also indicates that the component is intended for embedded applications rather than general-purpose computing. Typical use cases include PLC peripheral modules, industrial sensor nodes, motor-control supervisory logic, building automation controllers, and industrial communication bridges. The compact PG-TSSOP-38-9 package supports surface-mount assembly but requires careful PCB layout and thermal verification for the final operating environment. The supplied distributor and manufacturer results do not provide verified pricing, pin-level details, temperature limits, or complete electrical timing tables, so those values must be confirmed against the manufacturer datasheet before release to production. This page combines the verified Infineon family specifications with practical sourcing, design, and replacement guidance. The provided data does not establish a pin-compatible substitute, current price, lead time, stock status, or complete pinout; engineers should validate those items directly with Infineon or an authorized distributor.

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XMC1404-F064X0128 - 48MHz ARM Cortex-M0 MCU 128KB Flash LQFP-64
XMC1404-F064X0128

XMC1404-F064X0128 - 48MHz ARM Cortex-M0 MCU 128KB Flash LQFP-64

The Infineon XMC1404-F064X0128 AA is an industrial-grade 32-bit ARM Cortex-M0 microcontroller from the XMC1000 family, delivering up to 48 MHz core performance with 128 KB of embedded flash memory in a PG-LQFP-64-6 package. The device integrates a Cortex-M0 core optimized for low-cost embedded control, 16 KB SRAM, and a rich peripheral set including CCU4/CCU8 PWM timers, POSIF for motor control, multiple USIC channels for UART/SPI/I2C, and a 12-bit ADC. A microcontroller (MCU) is a single-chip computer that integrates a CPU core, program and data memory, and programmable peripherals. The Cortex-M0 is the smallest ARM core, designed for deterministic real-time control in cost-sensitive applications where 8/16-bit MCUs previously dominated. The XMC1400 sits within the XMC1000 family, an industry-targeted extension of Cortex-M0 with hardware PWM and event-request units tailored for power and motion control. Key differentiating features include the CCU8 high-resolution PWM timer (150 ps resolution), HRPWMs for digital power conversion, a 12-bit 1 Msps ADC with up to 12 channels, and Infineon's ERU (Event Request Unit) for hardware event routing without CPU intervention. The device operates from 1.8 V to 5.5 V supply with 5 V-tolerant I/O on most pins, making it suitable for industrial 24 V bus-derived rails after regulation. The architecture combines Cortex-M0 simplicity with motor-control-specific peripherals, achieving deterministic interrupt latency below 25 ns. Integrated POSIF (Position Interface) supports encoder/multi-channel hall-sensor decoding directly in hardware, offloading CPU overhead in FOC motor loops. The XMC1404 family is also AEC-Q100 qualified variants available for automotive motor and lighting. Typical applications include BLDC/PMSM motor control, power conversion (PFC, LLC, solar micro-inverters), LED lighting drivers, industrial HMI panels, and low-cost sensor conditioning. The wide operating temperature range of -40 C to +125 C supports harsh industrial environments. When designing with this MCU, allocate at least 6 layer PCB stack-up for high-frequency signals, use low-ESR ceramic decoupling near each VDD pin, and leverage Infineon DAVE toolchain for code generation. Avoid routing PWM signals near ADC analog inputs to minimize switching noise coupling. This page synthesizes distributor inventory data, drop-in alternatives from the same XMC1400 family, and practical design notes beyond the manufacturer datasheet content.

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XMC1404Q064X0200AAXUMA1 - 200KB Flash 48MHz Cortex-M0 MCU | Infineon
XMC1404Q064X0200AAXUMA1

XMC1404Q064X0200AAXUMA1 - 200KB Flash 48MHz Cortex-M0 MCU | Infineon

The Infineon XMC1404Q064X0200AAXUMA1 is an industrial-grade 32-bit microcontroller built around an ARM Cortex-M0 core running at 48 MHz, integrating 200 KB of Flash and 16 KB of SRAM, and housed in a PG-VQFN-64-6 package with exposed pad. The XMC1400 family is designed for low-cost embedded control with deterministic peripherals aimed at motor control, power conversion, LED lighting and human-machine interface (HMI) applications. The 'Q064' suffix indicates the 64-pin VQFN package option, '0200' indicates 200 KB Flash, and 'XUMA1' is the tape-and-reel ordering code. A 32-bit microcontroller (MCU) is an integrated circuit that combines a CPU, memory, and programmable peripherals on a single die. The Cortex-M0 is ARM's smallest and most cost-optimized 32-bit core, offering Thumb-2 instruction set compatibility with deterministic interrupt latency. The XMC1000 family sits below the XMC4000 (Cortex-M4F) family in Infineon's portfolio, targeting cost-sensitive real-time control where the M0's instruction efficiency outperforms legacy 8-bit/16-bit architectures. Key features of the XMC1404 include the MATH coprocessor for hardware CORDIC and divide operations, the CCU (Capture Compare Unit 4) timers with hardware PWM support, the POSIF (Position Interface) for encoder feedback, a 12-bit ADC with up to 12 Msps, and the BCCU (Brightness and Colour Control Unit) for LED lighting. The device supports operating voltages from 3.0 V to 5.5 V and ambient temperatures from -40 C to +125 C, making it suitable for industrial environments. The XMC1404 integrates Infineon's proprietary peripheral set on a 130 nm process. The MATH coprocessor offloads trigonometric and arithmetic operations from the core, enabling faster field-oriented control (FOC) loops for motor control. Deterministic interrupt response (typical 12 cycles) and tightly-coupled peripherals minimize jitter in closed-loop applications. The 200 KB Flash supports both in-application programming and read-while-write operation for firmware updates. Typical applications include BLDC/PMSM motor control (PFC plus FOC), industrial automation drives, digital switched-mode power supplies, LED lighting controllers with dimming, and HMI panels with touch or LED feedback. The peripheral combination makes XMC1404 particularly effective for cost-sensitive real-time control loops up to a few kHz. When designing with this MCU, allocate the VQFN-64 thermal pad to a continuous ground copper pour for thermal and electrical performance. Place the 12 MHz crystal or external clock as close as possible to the XTAL pins to minimize EMI susceptibility, and follow Infineon's DAVE SDK for firmware development and code generation. This page consolidates distributor pricing, drop-in same-package alternatives from the XMC1400/XMC1300 family, and practical design notes beyond the manufacturer datasheet to support BOM decisions.

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XMC4100F64F128ABXQMA1 - 80MHz Cortex-M4 128KB MCU | Infineon
XMC4100F64F128ABXQMA1

XMC4100F64F128ABXQMA1 - 80MHz Cortex-M4 128KB MCU | Infineon

Infineon Technologies XMC4100F64F128ABXQMA1 is a 32-bit ARM Cortex-M4 microcontroller operating at 80 MHz, with 128 KB of embedded Flash memory and 20 KB of SRAM, housed in a 64-pin PG-LQFP-64-19 package. The XMC4100 belongs to the XMC4000 family and targets industrial embedded systems requiring deterministic control, communications, and general-purpose processing. An MCU is a semiconductor device that combines a processor core, embedded memory, and peripherals in one integrated circuit. The XMC4100’s ARM Cortex-M4 core implements the ARM Thumb instruction set and provides the processing foundation for an industrial control hierarchy: MCU, embedded microcontroller, real-time control processor, and industrial automation component. Its 128 KB Flash supports firmware and application code, while 20 KB SRAM provides working memory for control algorithms, data buffers, and communication stacks. The XMC4100F64F128ABXQMA1 operates from a 1.3 V or 3.3 V supply and is identified as an industrial-temperature-grade component. Its 80 MHz clock rate supports responsive digital control, while the 32-bit architecture allows efficient handling of wider data values than an 8- or 16-bit processor. The 64-pin LQFP package also exposes a broad set of digital and analog interfaces for sensors, actuators, communications links, and supervisory circuitry. The XMC4000 family combines a Cortex-M4 core with embedded control peripherals designed for industrial equipment. At 128 KB Flash and 20 KB SRAM, this device offers more program and working memory than basic compact MCUs while retaining a 64-pin package suitable for conventional leaded-board assembly. The manufacturer lists XMC4100-F64K128-BA as an industrial Cortex-M4 configuration with the same 128 KB Flash, 20 KB SRAM, and 80 MHz operating frequency. Typical applications include industrial sensor controllers, building automation modules, motor and actuator control, industrial communications equipment, data acquisition systems, and compact embedded gateways. Its 80 MHz processing capability is useful when the firmware must combine control-loop execution with serial communications, diagnostics, and local data processing rather than perform only a simple sequential task. Designers should verify the exact pin functions, peripheral mix, clock requirements, and recommended decoupling in the manufacturer datasheet before layout. The 1.3 V and 3.3 V supply notation describes supported operating conditions rather than a choice of arbitrary rail voltage. PCB planning should preserve the exposed thermal and assembly geometry of the PG-LQFP-64-19 package and route sensitive analog and communication signals away from fast-switching nodes. This page combines the confirmed XMC4000-family specifications, same-package replacement candidates, application guidance, and design considerations needed to evaluate the XMC4100F64F128ABXQMA1 before schematic capture, PCB layout, firmware development, and production sourcing.

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XMC4100F64F128BAXQMA1 - 80MHz Cortex-M4 MCU | Infineon
XMC4100F64F128BAXQMA1

XMC4100F64F128BAXQMA1 - 80MHz Cortex-M4 MCU | Infineon

Infineon Technologies XMC4100F64F128BAXQMA1 is an industrial 32-bit Arm Cortex-M4 microcontroller operating at up to 80 MHz, with 128 KB of flash memory and 20 KB of SRAM in a 64-pin PG-TQFP-64-19 package. It belongs to the XMC4000 family and combines deterministic microcontroller performance with communication and embedded-control capabilities for motor-drive, industrial automation, and networked embedded systems. An Arm Cortex-M4 microcontroller is a 32-bit embedded processor designed for real-time control systems. Its instruction set, integrated memory, and dedicated peripherals place it within the hierarchy of embedded processor, microcontroller, and industrial semiconductor. The XMC4000 family targets applications that require more deterministic control than a general-purpose application processor while retaining a compact, integrated design. The device provides 128 KB of flash for program storage, 20 KB of SRAM for working data, and a maximum operating frequency of 80 MHz. A 64-pin TQFP package provides a practical surface-mount solution for control boards with moderate pin requirements. The ordering code also identifies a 3.3 V device configuration and an exposed-pad package, allowing compact PCB construction without relying on a large BGA assembly. The XMC4100 is positioned for embedded motor control, motion control, industrial communication, and connected industrial equipment. Its CAN and LIN support makes it suitable for distributed control networks where a controller must exchange diagnostic, status, or command data with remote nodes. The 80 MHz Cortex-M4 core provides computational headroom for control loops and supervisory logic while retaining deterministic peripheral-driven operation. A typical motor-drive design uses the microcontroller to execute current, speed, or position-control algorithms, operate communication interfaces, and supervise external sensors and actuators. In industrial automation equipment, the same device can coordinate analog and digital I/O, perform protocol handling, and implement safe state transitions through firmware. In building and industrial control systems, CAN or LIN connectivity helps reduce wiring complexity between a central controller and distributed modules. PCB design should treat the exposed thermal pad as both a thermal path and a low-impedance ground connection. Follow the manufacturer land-pattern and solder-reflow requirements, place decoupling capacitors close to their supply pins, and preserve a continuous ground plane under the package. Confirm the exact peripheral availability, pin multiplexing, voltage limits, and clock-tree configuration in the manufacturer datasheet before finalizing the schematic. This product page combines the manufacturer’s device description with practical package, application, comparison, and sourcing guidance. The comparison focuses on same-family alternatives that can support a controlled redesign, while the design notes emphasize exposed-pad layout, decoupling, firmware portability, and qualification checks for production use.

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XMC4100F64K128ABXQSA1 - 80MHz Cortex-M4 MCU | Infineon
XMC4100F64K128ABXQSA1

XMC4100F64K128ABXQSA1 - 80MHz Cortex-M4 MCU | Infineon

The Infineon XMC4100F64K128ABXQSA1 is a 32-bit Arm Cortex-M4 microcontroller operating at 80 MHz, with 128 KB of flash memory, 20 KB of SRAM, and a 64-pin LQFP exposed-pad package. It belongs to the XMC4000 industrial microcontroller family and supports the XMC4000 peripheral set for embedded control, communications, and real-time applications. A microcontroller is a programmable system-on-chip that combines a processor core, nonvolatile program memory, volatile data memory, peripherals, and interface control logic. The Cortex-M4 architecture provides a 32-bit processing platform with deterministic interrupt handling, while the XMC integration adds industrial-oriented peripherals and communication interfaces. The XMC4100F64K128ABXQSA1 therefore occupies the microcontroller -> embedded processor -> industrial control IC hierarchy. The principal device parameters are an 80 MHz Arm Cortex-M4 core, 128 KB of flash, 20 KB of SRAM, and a 3.3 V operating supply identified for this ordering code. Its documented connectivity includes CAN, I2C, LIN, SPI, UART/USART, and USB interfaces. These interfaces make the device suitable for distributed industrial controllers, motor-control gateways, and connected sensor systems requiring several communications protocols. The XMC4000 platform combines a 32-bit core with hardware peripherals for communication and control. Its 128 KB flash provides room for an embedded application, boot logic, and configuration data, while 20 KB of SRAM supports working memory and peripheral buffers. The 80 MHz clock rate allows the processor to service multiple interrupts and communication tasks, although final performance depends on peripheral configuration, memory latency, and the selected toolchain and operating system. Typical uses include industrial communication controllers, CAN-to-serial gateways, LIN-based body and factory nodes, USB-to-fieldbus adapters, sensor-hub controllers, and compact motor-control modules. A 64-pin LQFP exposed-pad package also provides a conventional PCB footprint and a thermal pad for distributing heat through the board structure. Designers should review the manufacturer pin-description table and electrical characteristics before assigning analog, communications, debug, clock, and power pins. Decoupling, exposed-pad soldering, clock stability, unused-pin treatment, and startup configuration must follow the XMC4100/XMC4200 datasheet and reference manual. This product page combines the exact ordering-code characteristics with an application-focused selection guide, interface recommendations, comparison parameters, and practical PCB guidance. These engineering-oriented details help teams evaluate the XMC4100F64K128ABXQSA1 without reducing the selection decision to processor speed and flash memory alone.

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XMC4100F64K128BAXQMA1 - 80MHz Cortex-M4 MCU | Infineon
XMC4100F64K128BAXQMA1

XMC4100F64K128BAXQMA1 - 80MHz Cortex-M4 MCU | Infineon

The Infineon Technologies XMC4100F64K128BAXQMA1 is an industrial 32-bit ARM Cortex-M4 microcontroller with an 80 MHz operating frequency, 128 KB of flash memory, and 20 KB of SRAM in a 64-pin PG-LQFP-19 package. It combines deterministic control capability with integrated DMA, I2S, LED control, power-on reset, PWM generation, and watchdog functions, making it suitable for industrial motor-control, communications, and embedded automation systems. A microcontroller is a programmable system-on-chip that integrates a processor core, nonvolatile program memory, volatile data memory, peripherals, and interrupt control into one device. The XMC4100 belongs to Infineon's XMC4000 family, where the ARM Cortex-M4 core is used in the hierarchy Cortex-M4 processor → 32-bit microcontroller → embedded microcontroller → industrial semiconductor. Its combination of 128 KB flash, 20 KB SRAM, and 80 MHz execution speed provides a practical balance between firmware capacity, real-time processing, and package size. Key features include the 80 MHz ARM Cortex-M4 processor core, 128 KB flash organized as 128K × 8, and 20 KB SRAM. On-chip resources include DMA for efficient data movement, I2S for digital audio data transfer, PWM generation for motor or power-converter control, an LED-control peripheral, a power-on reset function, and a watchdog timer. These integrated blocks reduce external component requirements and allow control software to service multiple deterministic tasks. The 64-pin LQFP package provides conventional leaded soldering access while supporting a board footprint identified as PG-LQFP-64-19. The industrial XMC4100-F64K128-BA device variant is explicitly presented by Infineon as an industrial ARM Cortex-M4 microcontroller. Its 80 MHz core is suitable for sampled control loops and protocol handling, while DMA reduces processor intervention when transferring data between memory and serial peripherals. Typical uses include industrial motor controllers, distributed automation nodes, digital audio interfaces, LED control systems, and embedded communications equipment. For motor-control designs, the PWM and DMA resources can support deterministic actuator timing, while the I2S interface can serve synchronous digital-audio paths. The 128 KB flash region accommodates control code, configuration tables, and field-update routines, while 20 KB SRAM supports working state and communication buffers. When designing a board, validate the exact package pin mapping, exposed-pad connection, decoupling requirements, clock configuration, and peripheral instance assignments against the manufacturer datasheet. Firmware should include watchdog servicing, controlled reset behavior, and graceful handling of communications loss. Production programming and lifecycle decisions should also use the ordering code rather than assuming that every XMC4100 package variant is electrically or pin compatible. This product page consolidates verified distributor availability, manufacturer specifications, package information, and honest drop-in replacement findings. It distinguishes verified electrical identity from unverified peripheral deltas, helping engineers review availability, procurement, firmware compatibility, and PCB reuse without relying on speculative substitutions.

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XMC4100Q48F128ABXUMA1 - 80MHz Cortex-M4 MCU | Infineon
XMC4100Q48F128ABXUMA1

XMC4100Q48F128ABXUMA1 - 80MHz Cortex-M4 MCU | Infineon

Infineon Technologies XMC4100Q48F128ABXUMA1 is a 32-bit ARM Cortex-M4 microcontroller operating at up to 80 MHz, with 128 KB of Flash memory organized as 128K x 8 and supplied in a 48-pin PG-VQFN-53 surface-mount package with an exposed pad. It belongs to the Infineon XMC4000 family and is designed for embedded industrial control applications requiring deterministic real-time performance, compact packaging, and integrated microcontroller resources. An ARM Cortex-M4 microcontroller is a reduced-instruction-set processor within the broader 32-bit embedded MCU category. It combines a processor core, Flash program memory, SRAM, communications peripherals, timers, and GPIO in one device. The XMC4000 family extends this architecture into industrial control systems where compact embedded processing, real-time interrupt handling, and deterministic peripheral interfaces are central design requirements. Key characteristics of the XMC4100Q48F128ABXUMA1 include an 80 MHz maximum clock, 128 KB of 128K x 8 Flash, a 32-bit architecture, and a 3.3 V supply designation. The 48-VFQFN package with exposed pad supports compact surface-mount construction and provides a central thermal and electrical land area. Tape-and-reel packaging is identified for this ordering configuration, supporting automated production and standard component handling. The XMC4000 architecture is positioned between basic Cortex-M microcontrollers and more complex application processors. It provides dedicated real-time capabilities suited to industrial automation, motor-control, communications, and embedded control systems. Its 80 MHz operating point supports timely peripheral servicing and control-loop execution, while the integrated Flash supports embedded firmware, configuration data, and application code within a single package. Typical uses include industrial automation controllers, communication equipment, motor-control systems, data acquisition modules, and compact embedded control platforms. The Cortex-M4 software ecosystem supports development with embedded IDEs, debug probes, compilers, and configuration tools designed for ARM-based microcontrollers. Firmware architecture should be checked against the selected peripherals, memory map, pin multiplexing, and device errata before production release. A key design consideration is thermal management around the exposed pad. Follow the Infineon land-pattern, solder, and exposed-pad requirements in the XMC4100/XMC4200 datasheet, and connect the thermal land to the appropriate ground plane and copper area. Decoupling, signal routing, and unused-pin treatment must also follow the manufacturer’s board-level guidance to preserve signal integrity and reliable operation. This page combines the exact ordering and package information, technical specifications, practical application guidance, comparison data, and engineering design notes for the XMC4100Q48F128ABXUMA1. It is intended to help hardware and firmware engineers assess the device, plan its implementation, and identify same-family alternatives without overlooking package, memory, or peripheral differences.

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XMC4100Q48F128BAXUMA1 - 80MHz Cortex-M4 MCU | Infineon
XMC4100Q48F128BAXUMA1

XMC4100Q48F128BAXUMA1 - 80MHz Cortex-M4 MCU | Infineon

The Infineon XMC4100Q48F128BAXUMA1 is a 32-bit industrial Arm Cortex-M4 microcontroller operating at up to 80 MHz, with 128 KB of embedded Flash memory and 20 KB of SRAM in a 48-pin PG-VQFN package with an exposed pad. It is designed for embedded motor-drive, motion-control, CAN, and LIN applications requiring deterministic real-time control and integrated connectivity. An Arm Cortex-M4 microcontroller is a 32-bit reduced-instruction-set processor core integrated with memory, communication peripherals, timers, analog conversion functions, and general-purpose input/output. Within the product hierarchy, Cortex-M4 belongs to the Arm Cortex-M embedded family, while the XMC4100 device is an industrial microcontroller and embedded processing system designed for control-oriented applications. The XMC4100Q48F128BAXUMA1 combines 128 KB of Flash with 20 KB of SRAM, an 80 MHz maximum clock, and a 3.13 V to 3.63 V operating-supply range. Its 12-bit conversion capability and CAN/LIN connectivity support motor-control, communications, and industrial automation designs. The -40 °C to +85 °C industrial temperature range supports use in factory automation, industrial networking, and motion-control equipment. The Arm Cortex-M4 architecture provides a balanced combination of processing performance and peripheral integration for embedded control. A 128 KB Flash allocation supports a bootloader and application code, while 20 KB of SRAM provides working memory for control loops and communications. Because the device targets a 3.3 V supply class, power sequencing, input levels, and exposed-pad layout must be handled according to the manufacturer datasheet during PCB implementation. Typical uses include fieldbus-connected motor controllers, servo and stepper-motor control platforms, industrial sensor nodes, CAN or LIN gateways, and compact automation equipment. The device is particularly appropriate when a design needs CAN and LIN support, an industrial temperature range, and a deterministic Cortex-M4 core without adopting a larger performance class. Use the exposed-pad assembly and pin-connection guidance in the manufacturer datasheet, and place decoupling capacitors close to the supply pins. Confirm thermal performance at the highest ambient temperature and worst-case processing load, because the exposed pad is an important thermal path but does not replace the layout and copper requirements of the package. This page combines the Infineon product specifications with package details, application guidance, comparison parameters, and verified drop-in assessment for engineers evaluating an XMC4000-family replacement or an industrial Cortex-M4 design.

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XMC4100Q48K128ABXLSA1 - 80MHz Cortex-M4 MCU | Infineon
XMC4100Q48K128ABXLSA1

XMC4100Q48K128ABXLSA1 - 80MHz Cortex-M4 MCU | Infineon

Infineon Technologies XMC4100Q48K128ABXLSA1 is a 32-bit ARM Cortex-M4 industrial microcontroller operating up to 80 MHz, with 128 KB of flash memory and 20 KB of SRAM in a 48-pin VQFN package. It combines a single Cortex-M4 processing core with embedded peripherals for connected industrial, embedded control, communications, and automation systems. An ARM Cortex-M4 microcontroller is a 32-bit reduced-instruction-computing processor within the embedded MCU hierarchy. It integrates CPU logic, program memory, data memory, interrupt control, timers, communications peripherals, and digital I/O on one device. The XMC4100 is based on the XMC4000 industrial-microcontroller series and is designed for applications that require deterministic embedded processing alongside multiple communication and control interfaces. The XMC4100Q48K128ABXLSA1 provides 128 KB of flash organized as 128K by 8 bits, 20 KB of SRAM, and a maximum operating frequency of 80 MHz. According to the Infineon product page, the device is an industrial ARM Cortex-M4 microcontroller. Its combination of embedded memory, a compact VQFN-48 package, and integrated peripherals supports space-constrained control boards that require more processing capability than an 8-bit or 16-bit controller. The XMC4000 architecture integrates a single Cortex-M4 core with the peripherals required for industrial embedded systems. Distributed listings identify the exact device as a single-core 32-bit microcontroller with 80 MHz maximum clock operation. This performance supports responsive control loops, protocol handling, supervisory logic, and human-machine-interface updates while retaining the simplicity of a single-chip embedded design. Typical uses include industrial automation controllers, building automation equipment, sensor and actuator hubs, communications modules, motor-control supervisory systems, and compact embedded gateways. The 48-pin VQFN package limits board area and supports high-density PCB layouts, while the exposed-pad construction requires careful thermal-pad and copper-layout treatment to transfer heat away from the device. Design the XMC4100Q48K128ABXLSA1 within its documented voltage, temperature, clock, and peripheral limits. Confirm the complete pin assignment and exposed-pad connection from the Infineon XMC4100-Q48x128 datasheet. Follow the recommended decoupling, clock, reset, and layout practices in the manufacturer's reference documentation rather than inferring connections from another 48-pin microcontroller. This product page combines the manufacturer's device description with distributor specifications, practical PCB guidance, a concise engineering selection guide, and verified lifecycle information. It helps engineers determine whether the 80 MHz Cortex-M4 core, 128 KB flash, 20 KB SRAM, and 48-pin VQFN package align with a new industrial or embedded-control design.

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XMC4100Q48K128ABXUMA1 - 80MHz Cortex-M4 MCU | Infineon
XMC4100Q48K128ABXUMA1

XMC4100Q48K128ABXUMA1 - 80MHz Cortex-M4 MCU | Infineon

The Infineon Technologies XMC4100Q48K128ABXUMA1 is a 32-bit Arm Cortex-M4 microcontroller in the XMC4000 family, featuring an 80 MHz maximum operating frequency, 128 KB of Flash program memory, and 20 KB of SRAM in a PG-VQFN-48-22 package. It is designed for embedded industrial, motor-control, and motion-control applications that require deterministic control, CAN/LIN connectivity, and a compact surface-mount footprint. The microcontroller combines a 32-bit RISC core with on-chip timers, PWM control, communication peripherals, and GPIO resources for connected industrial equipment. An Arm Cortex-M4 microcontroller is a 32-bit embedded processing device built around the ARM Cortex-M4 processor core. This MCU family belongs to the hierarchy of embedded processors, microcontrollers, and semiconductor devices used in real-time control systems. Unlike a general-purpose application processor, the XMC4100 is designed for compact, deterministic embedded operation where peripherals, interrupt handling, timing, and low board area are central to the design. Key features include 128 KB of Flash for firmware and 20 KB of SRAM for working memory, an 80 MHz maximum clock, and integrated CAN/LIN networking suitable for industrial communications. The 48-pin VQFN package supports a dense PCB layout while exposing the required digital interfaces and control resources. The part is identified as an industrial XMC4000-family device, making it appropriate for motor drives, motion control, and connected automation systems. The XMC4100 architecture is intended for real-time embedded control, where timer and PWM peripherals can generate deterministic control signals while CAN and LIN interfaces connect the controller to sensors, actuators, and system networks. The 128 KB Flash capacity provides practical space for control algorithms, communication stacks, diagnostics, and parameter storage, while the 20 KB SRAM supports working state, buffers, and interrupt-driven routines. Typical uses include industrial motor-drive controllers, motion-control modules, distributed automation nodes, CAN-connected equipment, LIN subnetwork controllers, and compact embedded control systems. CAN/LIN networking and timer/PWM resources make the device useful where multiple nodes must coordinate sensor inputs and actuator outputs within a deterministic control loop. Designers should verify the exact peripheral assignment, pin multiplexing, electrical limits, exposed-pad requirements, and package drawing against the manufacturer datasheet before layout. The VQFN-48-22 package has a central exposed thermal pad and requires careful soldermask and thermal design. Firmware development should account for startup configuration, clock setup, peripheral initialization, and the CAN/LIN interrupt requirements of the target system. This page summarizes the verified manufacturer and distributor specifications for the XMC4100Q48K128ABXUMA1 and adds practical guidance for selecting, comparing, and integrating the microcontroller. Pricing and lifecycle details should be confirmed from current distributor inventory because the supplied search data confirms product availability information but does not provide a price table.

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XMC4100Q48K128BAXUMA1 - 80MHz Cortex-M4 MCU | Infineon
XMC4100Q48K128BAXUMA1

XMC4100Q48K128BAXUMA1 - 80MHz Cortex-M4 MCU | Infineon

Infineon Technologies XMC4100Q48K128BAXUMA1 is a 32-bit Arm Cortex-M4 microcontroller in the XMC4000 family, operating at up to 80 MHz with 128 KB of Flash memory and 20 KB of SRAM. The device is supplied in a 48-pin PG-VQFN package with an exposed pad for compact industrial embedded designs. A microcontroller is a programmable semiconductor that integrates a processor core, memory, and peripherals on one device. In the product hierarchy, the XMC4100Q48K128BAXUMA1 is a 32-bit MCU, an embedded processing IC, and a member of the Arm Cortex-M4 microcontroller family. Its industrial positioning supports applications where deterministic real-time control, communications, and compact embedded processing are required. The principal specifications include an Arm Cortex-M4 processor core, a maximum clock frequency of 80 MHz, 128 KB of Flash, and 20 KB of SRAM. Product information also identifies CAN and LIN networking support, which makes the device suitable for distributed industrial and automotive-style control systems. A 3.3 V operating supply is listed for this ordered variant. The XMC4000 architecture combines a 32-bit RISC core with embedded Flash and SRAM in a single package. Flash retains firmware and configuration data without an external memory device, while SRAM supports working memory, stack operations, and interrupt-driven control tasks. The 48-pin VQFN form factor also reduces board area compared with larger leaded packages, although the exposed thermal pad requires careful PCB layout and adequate copper for heat dissipation. Typical applications include industrial motor drives, motion control, CAN-connected automation equipment, LIN sub-networks in distributed controllers, and embedded sensor-conditioning systems. Its combination of 80 MHz processing, 20 KB SRAM, and CAN/LIN connectivity is particularly useful when a controller must execute real-time algorithms while exchanging data with remote modules. For PCB implementation, follow the manufacturer package drawing and pin-description table for the exact XMC4100-Q48K128-BA footprint. Connect the exposed pad to the appropriate ground plane, place decoupling capacitors close to the supply pins, and route high-current and communication interfaces away from sensitive analog sections. Confirm pin multiplexing, operating limits, startup behavior, and peripheral assignments against the manufacturer datasheet before releasing a layout. This page combines the exact orderable MPN with verified core specifications, package information, practical applications, design guidance, and an evidence-based comparison with the closest identified same-family candidate.

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