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ATSAME54-XPRO - SAM E54 120MHz Cortex-M4F Evaluation Board | Microchip
The Microchip Technology ATSAME54-XPRO is the SAM E54 Xplained Pro evaluation kit built around the ATSAME54P20A microcontroller, a 32-bit ARM Cortex-M4F processor with single-precision floating-point unit running up to 120 MHz. The board integrates 1 MB of dual-panel Flash with ECC, 256 KB of SRAM with ECC, and a rich peripheral set including Ethernet MAC, CAN-FD, and a Parallel Capture Controller (ArduCAM-compatible). It is delivered as a 32-bit embedded MCU evaluation board with an onboard Atmel Embedded Debugger (EDBG), so no external probe is required for SWD or 4-bit ETM trace. An evaluation kit (also called a development board or Xplained Pro platform) is a pre-engineered reference PCB that exposes every pin of a target MCU to standardized headers. Engineers use it to validate firmware, characterize peripherals, and benchmark power consumption before committing to a custom design, dramatically shortening the prototype phase for Cortex-M class products. Key features of the ATSAME54-XPRO include a 32.768 kHz backup crystal for RTC, a 12 MHz main crystal feeding the PLL, an ATA6561 CAN-FD transceiver, a backup supercapacitor for RTC retention, and a Microchip ATECC608B-compatible secure element footprint. The board also exposes a 10-pin Cortex Debug (SWD) connector, a 20-pin Cortex Debug + ETM connector for four-bit trace, two Xplained Pro extension headers, and a mikroBUS socket. It is an Azure Certified Device running Azure RTOS with IoT Plug and Play support. The target MCU combines a Cortex-M4F core, DSP extensions, and hardware cryptography (AES, True Random Number Generator, Public Key Cryptographic Controller), making the kit suitable for connected, security-conscious applications. The Xplained Pro platform is also supported by Microchip's MPLAB X IDE, Atmel Studio 7, Zephyr RTOS, and TinyGo out of the box, which streamlines firmware bring-up. Typical applications include IoT edge nodes and cloud-connected appliances, motor control and industrial CAN-FD nodes, automotive body and gateway prototypes, secure-element integration for authentication, and ArduCAM-based machine-vision prototypes via the on-board Parallel Capture Controller. The board ships with demonstration firmware and is also pre-flashed with an Azure RTOS quick-start image. When designing with this kit, populate the appropriate current-measurement jumper to characterize active, idle, and standby power consumption of the ATSAME54P20A. Use the onboard EDBG over the target USB-C port to flash and debug, and reserve the secondary USB-C micro-B for COM-port virtual serial I/O when debugging wireless or USB-device applications. This page synthesizes distributor pricing, Microchip Xplained Pro ecosystem alternatives, and practical design notes not found in the standalone ATSAME54P20A datasheet, providing a one-stop reference for engineers evaluating the SAM E54 family.
ATSAME70-XPLD - SAM E70 Xplained Ultra Cortex-M7 MCU Eval Kit | Microchip
The Microchip Technology ATSAME70-XPLD is the SAM E70 Xplained Ultra evaluation kit, a hardware development platform built around the ATSAME70Q21 ARM Cortex-M7 microcontroller with Floating Point Unit (FPU), operating at up to 300 MHz. The kit features up to 2,048 KB of on-chip Flash, 384 KB of SRAM with single-cycle access, and a rich set of peripherals including high-speed USB, Ethernet, CAN-FD, HS SD card/SDIO, and a 12-bit 2 MSPS ADC. Housed in the Xplained Pro form factor with on-board debugger, the board exposes every SAME70 I/O through standard extension headers, enabling direct evaluation of graphics, audio, and connectivity use cases. An evaluation board (development kit) is a pre-assembled PCB that integrates a target microcontroller, power supplies, programming/debug circuitry, and standardized expansion headers, allowing engineers to prototype firmware and validate peripherals before committing to a custom layout. The ATSAME70-XPLD belongs to Microchip's Xplained Pro family, which sits in the broader product hierarchy: development kit -> evaluation board -> embedded tools -> electronic engineering design aids. The board is specifically positioned for high-performance Cortex-M7 evaluation, sitting between entry-level Xplained Mini kits and application-specific system-on-module designs. Key features include the on-board Embedded Debugger (EDBG) for programming and debugging over USB, a 480 Mbps USB Micro-B connector for USB host/device applications, a 10/100 Mbps Ethernet RJ45 connector, an SD card interface, two Xplained Pro extension headers, and a 3.3 V regulated supply rail derived from USB or external 5 V. The kit is also designed to accept SAME70 Xplained extension boards for cameras, displays, and radios, although no extension boards ship in the standard kit. The ATSAME70Q21 silicon on the board implements the Cortex-M7 core with double-precision FPU, ICache, DCache, and Tightly Coupled Memory (TCM), giving deterministic real-time response alongside DSP-class signal processing throughput. The Ethernet MAC with IEEE 1588 support, HS USB PHY, and CAN-FD controllers make the SAME70 family well suited to industrial and automotive-networking prototypes where deterministic latency is required. Typical applications include Cortex-M7 firmware bring-up, industrial HMI prototyping, audio processing evaluation, USB host/device stack development, Ethernet-connected IoT gateways, and motor-control algorithm development using the SAME70's PWM and ADC peripherals. The Xplained Pro ecosystem supports Microchip's Atmel Studio 7 and MPLAB X IDE toolchains. When designing with this kit, ensure your bench power supply can deliver the peak current demanded by high-speed peripherals (USB, Ethernet PHYs) which can draw 200 mA or more during link training. Always update the on-board EDBG firmware to the latest revision before production programming, as older EDBG images may not support all SAME70 SWD commands.
ATSAMG53-XPRO - SAM G53 Xplained Pro ARM Cortex-M4 Evaluation Kit | Microchip
The Microchip Technology ATSAMG53-XPRO is an ARM Cortex-M4 evaluation board built around the ATSAMG53N19 microcontroller, providing a complete development platform for the SAM G53 family. The board is part of the Xplained Pro ecosystem and integrates an on-board debugger (EDBG), a 48 MHz Cortex-M4 core with FPU, 512 KB Flash, 96 KB SRAM, and a rich set of peripherals exposed via MikroElekronika click board sockets and Arduino-compatible headers. The kit ships with USB-powered operation, a 12 MHz crystal, and seamless integration with Atmel Studio / Microchip Studio IDE for code development, programming, and real-time debug. A development board (or evaluation kit / starter kit) is a pre-assembled PCB that hosts a target microcontroller along with the minimum support circuitry needed to write, run, and debug firmware. By integrating regulators, crystals, programming headers, and standard expansion connectors, these boards shorten the path from prototype to product, sitting in the design hierarchy between a bare MCU module and a finished custom PCB. The Xplained Pro family sits one tier above bare-breakout modules (such as the ATSAMG53N19A-AU) by adding on-board debug, mass-storage programming, and standardized expansion. Key features include on-board EDBG debugger (CMSIS-DAP compatible), 1 USB type-A host port and 1 USB type-B device port, 1 SD-card slot, 2 mechanical buttons, 1 reset button, 4 user LEDs, 2 mikroBUS click sockets, Arduino R3-compatible header, Cortex-M4 with single-precision FPU, 48 MHz core clock, and support for Audio PLL. The board is FCC/IC/CE compliant and is shipped in anti-static packaging with quick-start documentation. The SAM G53 MCU at the heart of this board is built on a low-power process and supports SleepWalking and Sleep modes for energy-aware designs. The integrated Audio PLL and 14-bit ADC make the platform particularly suited to consumer audio front ends and to industrial HMI applications where deterministic mixed-signal performance is required. The on-board debugger exposes both SWD and DGI interfaces so that Studio 7, MPLAB X IDE, or third-party toolchains (IAR, Keil) can attach transparently. Typical applications include audio effects and USB audio device prototyping, low-power IoT sensor nodes, industrial HMI panels, motor control reference designs (BLDC, PMSM via SAM-Motor), and educational Cortex-M4 / FPU labs at university level. For production designs the same ATSAMG53N19 silicon can be ported directly to the ATSAMG53N19A-AU bare IC, reusing firmware developed on the XPRO platform without modification. When developing on the ATSAMG53-XPRO, route peripheral expansion through the standardized Arduino / mikroBUS headers rather than free-flying wires to preserve signal integrity. Disable the on-board EDBG only when measuring low-current sleep modes by opening the EDBG VCC jumper; otherwise the debugger rail will bias the power measurement and inflate quiescent-current readings by several milliamps. This page synthesizes current distributor stock, real-time pricing, drop-in alternative Xplained Pro boards, and practical bench-test notes not consolidated in the manufacturer user guide, giving engineers an actionable procurement and design resource.
ATSAMG55-XPRO - SAM G55 ARM Cortex-M4 Xplained Pro Kit | Microchip
The Microchip Technology ATSAMG55-XPRO is the SAM G55 Xplained Pro evaluation kit, a hardware platform for evaluating and prototyping with the SAM G55 ARM Cortex-M4 microcontroller (ATSAMG55J19) featuring a single-precision floating point unit. The board integrates the ATSAMG55J19B-MU Cortex-M4 MCU with FPU, exposes all MCU I/Os to male header pins, and includes an on-board Embedded Debugger (EDBG) that provides full programming and debug over USB without external hardware. A Xplained Pro evaluation kit is a complete, ready-to-run embedded development board built around a specific microcontroller. It typically integrates the target MCU, a power-supply section fed from USB or an external source, user-interface elements such as buttons and LEDs, a debugging interface, and standardized extension-header pins. Xplained Pro boards are designed to accept click-board and Xplained Pro extension boards, letting engineers prototype peripheral functionality without designing custom PCBs. The platform also runs Microchip's Atmel Studio / Microchip Studio IDE for code development, programming and debugging. The ATSAMG55-XPRO features a SAM G55 ARM Cortex-M4 processor running at up to 120 MHz with DSP extensions and single-precision FPU, supported by an on-board 32.768 kHz crystal for accurate low-power real-time-clock operation. The board provides two Xplained Pro extension headers, a mikroBUS socket for click boards, mechanical user buttons, LEDs, and a USB interface powered by the EDBG. Firmware development is supported through Microchip Studio / Atmel Studio and ASF (Atmel Software Framework). Typical applications include audio processing and DSP algorithm prototyping, low-power IoT sensor nodes, motor-control and predictive-maintenance firmware development, and general-purpose Cortex-M4 software bring-up. The Cortex-M4 with FPU accelerates signal-processing math, while the SAM G55 family supports low-power sleep modes suited to battery-powered designs. When designing with this kit, remember it is an evaluation/prototyping platform, not a production-ready module. Production designs should migrate validated firmware onto a custom PCB using the bare ATSAMG55J19B MCU, retaining the same ASF HAL drivers for code reuse. This page synthesizes distributor pricing snapshots, drop-in alternative evaluation kits from the same Xplained Pro family, and practical design notes not found in the manufacturer datasheet.
ATSAMHA1E16A-XPRO - SAM HA1E16A Xplained Pro M0+ Eval Board | Microchip
The Microchip Technology ATSAMHA1E16A-XPRO is the SAM HA1E16A Xplained Pro evaluation kit, a demonstration and prototyping platform built around the ATSAMHA1E16A-B ARM Cortex-M0+ based system-in-package microcontroller from the SAM HA1 family. The kit integrates the target MCU, on-board debugger, USB interface, and MikroElektronika-compatible click board expansion headers to enable rapid bring-up of embedded firmware without external tools. The ATSAMHA1E16A-B SiP combines a 32-bit Cortex-M0+ core with 64 KB Flash, 8 KB SRAM, and 2 KB read-while-write data flash in a single 32-pin module, simplifying layout while retaining automotive-grade peripheral integration. An evaluation board (Xplained Pro / evaluation kit) is a reference design platform that engineers use to characterize a microcontroller's peripherals, validate firmware prototypes, and accelerate time-to-market by integrating power, programming, and I/O into a turnkey PCB. Evaluation boards bridge the gap between datasheet simulation and production hardware: they expose every pin via standardised headers, provide a pre-tested power tree, and include an on-board debugger so engineers can flash code and step through breakpoints with no additional investment. The ATSAMHA1E16A-XPRO belongs to Microchip's Xplained Pro family, which shares a consistent form factor, pinout labelling, and Atmel Studio / MPLAB X integration across the entire SAM family. Key features include the integrated Atmel Embedded Debugger (EDBG) for one-cable programming and debug, a mikroBUS socket for click-board expansion, multiple Xplained Pro extension headers for proprietary wings, and an auto-ID EEPROM that identifies the board to the toolchain. The board is powered via USB micro-B and supports the SAM HA1's automotive peripheral set including CAN-FD, LIN, and Ethernet MAC interfaces. The ATSAMHA1E16A-B SiP uses a Cortex-M0+ core running up to 48 MHz, balancing low power consumption with automotive networking throughput. With 64 KB Flash and 8 KB SRAM, the device targets sensor fusion, body electronics, and simple HMI nodes rather than full gateway applications. The integrated peripherals and on-package crystal minimise external BOM count. Typical applications for the ATSAMHA1E16A-XPRO include automotive body electronics prototyping, LIN/CAN node development, HVAC control evaluation, sensor hub reference design, and low-power IoT edge node bring-up. Developers use the kit as the starting point for firmware targeting production ATSAMHA1E16A-B modules. When designing with this evaluation board, verify that the on-board debugger is not in conflict with external debuggers when connecting to a target application via the Cortex Debug Connector. Always use the latest MPLAB X IDE and SAM HA1 device family pack for full peripheral support. This page synthesises distributor pricing, drop-in alternative boards, and engineering guidance not consolidated in the manufacturer user guide.
ATSAMHA1G16A-XPRO - SAM HA1G16A Xplained Pro MCU Eval Kit | Microchip
The Microchip Technology ATSAMHA1G16A-XPRO is an Xplained Pro evaluation kit built around the ATSAMHA1G16A SAM HA1 microcontroller (a 32-bit ARM Cortex-M0+ MCU module) intended for evaluating embedded low-power applications. The kit integrates an on-board Embedded Debugger (EDBG) exposing a full Cortex-M0+ debug interface, drag-and-drop programming through the mass-storage bootloader, and USB-powered operation, all on a compact Arduino Uno-compatible header and Xplained Pro extension header platform. An Xplained Pro evaluation kit is a manufacturer-developed hardware reference design that combines a target MCU, an integrated debugger/programmer, standardized extension headers, and demo firmware. Xplained Pro kits provide a working starting point for software development, peripheral exploration, and prototyping around a specific Microchip/Atmel MCU, accelerating bring-up versus spinning a custom board. The ATSAMHA1G16A-XPRO sits in Microchip's portfolio of Atmel-derived ARM Cortex-M0+ evaluation boards, targeting the SAM HA1G16A SiP (System-in-Package) module family. Key features of the ATSAMHA1G16A-XPRO include USB-powered operation via the on-board EDBG, automatic ID identification of connected Xplained Pro extensions through the EXT1/EXT2/EXT3 headers, Arduino Uno R3-compatible shield headers, and a Cortex-M0+ debug/programming interface exposed via the EDBG. The board routes the 48-pin SAM HA1G16A-MBT SiP's peripherals to on-board LEDs, user buttons, and the extension headers, allowing quick evaluation of GPIO, timers, ADC, serial interfaces, and peripheral touch through the supported Xplained Pro extensions. The kit's hardware architecture centers on two Microchip devices connected via the EDBG USB channel: the target ATSAMHA1G16A SiP module, and an AT32UC3A3256 microcontroller implementing the EDBG debugger/programmer. This two-chip topology supports debugging via USB without external tools, and naturally aligns with Microchip's Atmel Studio / Microchip Studio IDE for register-level debugging, code profiling, and firmware updates. Typical use cases include evaluating Cortex-M0+ performance and low-power modes on the SAM HA1G16A SiP, prototyping human-interface or sensor applications, exercising Xplained Pro extensions (I/O1, OLED1, QT touch, PROTO1), and using the kit as a starter reference for designing around Microchip's SAM HA1 SiP module family. Compared with a bare SiP module, the -XPRO variant eliminates custom hardware bring-up. When working with this kit, Microchip recommends Atmel Studio / Microchip Studio with the ASF (Atmel Software Framework) or MPLAB X IDE for project creation. Note that this is the XPRO header variant and ships without extension boards - common companions include the I/O1 Xplained Pro, OLED1 Xplained Pro, QT2/QT4 Xplained Pro (touch sensing), and PROTO1 Xplained Pro (proto-area) extension boards, all sold separately. This page synthesizes distributor pricing, drop-in evaluation-board alternatives, and practical engineering usage notes that are not packaged together in the manufacturer product brief.
ATSAML21-XPRO - SAM L21 Xplained Pro Cortex-M0+ Eval Kit
The Microchip Technology ATSAML21-XPRO is the SAM L21 Xplained Pro evaluation kit, a hardware platform for evaluating and prototyping with the ultra-low-power Microchip SAM L21 ARM Cortex-M0+ 32-bit microcontroller family. The kit centers on an ATSAML21J18A device (256 KB Flash, 32 KB SRAM) clocked by a 32.768 kHz crystal and integrates an on-board embedded debugger (EDBG) that supplies USB drag-and-drop programming, virtual COM port, and Data Gateway Interface (DGI) GPIO tracing. The board exposes all SAM L21 I/O through three Xplained Pro extension headers compatible with MikroElektronika click boards and Microchip's own Xplained Pro extension kits. An Xplained Pro evaluation board is a standardized microcontroller demonstration platform that combines a target MCU, power regulation, an embedded debugger, and standardized extension connectors in a single PCB, allowing engineers to begin firmware development immediately using the manufacturer's IDE toolchain. Xplained Pro kits sit one tier above bare development boards and one tier below full System-on-Module designs, offering a balance of convenience, observability, and modularity for embedded firmware bring-up. Key features of the ATSAML21-XPRO include support for the SAM L21 family's ultra-low-power SleepWalking peripherals (down to 200 nA in Sleep mode, under 35 µA/MHz active per the SAM L21 datasheet DS60001477C), three Xplained Pro extension headers, mechanical reset and user buttons, two user LEDs, and a QTouch button area. Power is supplied via USB micro-B or an external header, and the board is supported by Atmel Studio / Microchip Studio, MPLAB X IDE, MPLAB Harmony, and Zephyr RTOS. The on-board ATSAML21J18A uses a sophisticated peripheral set with SERCOM, ADC, DAC, and event system architecture that simplifies event-driven ultra-low-power firmware. Designers targeting battery-operated IoT endpoints, wearables, energy-harvesting sensor nodes, and portable medical devices leverage the SAM L21's SleepWalking and power-domain gating features to wake only on pre-qualified peripheral events without CPU intervention, achieving multi-year coin-cell lifetimes. Typical use cases include IoT sensor node prototyping, ultra-low-power wireless sensor evaluation (when paired with ATWINC or SAM W25 extension boards), wearable fitness device development, environmental monitoring, smart agriculture, and battery-powered HVAC controls. The kit is also widely used in academic curricula and embedded firmware training due to its standardized form factor and dual-IDE support. When selecting the ATSAML21-XPRO, ensure your application can use the SAM L21's 48 MHz maximum CPU frequency and 256 KB Flash ceiling; if you need higher throughput or larger memory, migrate to the SAME54 Xplained Pro or SAME70 Xplained Pro family for Cortex-M4 performance with full Xplained Pro pinout compatibility. This page synthesizes distributor pricing, drop-in alternative Xplained Pro kits, and practical design notes not found in the standalone SAM L21 datasheet, giving engineers a single reference for evaluation, prototyping, and pre-production validation of ultra-low-power Cortex-M0+ designs.
ATSAML21-XPRO-B - SAM L21 Xplained Pro Evaluation Kit | Microchip
The Microchip Technology ATSAML21-XPRO-B is a hardware evaluation and prototyping platform for the ATSAML21J18B microcontroller from the SAM L21 family, built on the ARM Cortex-M0+ 32-bit core. The kit integrates the target MCU, an on-board Embedded Debugger (EDBG) providing USB drag-and-drop programming and virtual COM port, and access to all SAM L21 I/O pins through three Xplained Pro extension headers. The board is supported by MPLAB X IDE and Microchip Studio (formerly Atmel Studio), and is compatible with MPLAB Harmony 3 for peripheral drivers and middleware. A development board (also called an evaluation board or starter kit) is a printed-circuit assembly that combines a target microcontroller or processor with the minimum circuitry needed to demonstrate and program the part, including voltage regulators, clock sources, programming/debug interfaces, and standardised expansion headers. Development boards sit within the broader hierarchy of evaluation platforms -> prototyping platforms -> embedded design tools, allowing engineers to validate firmware, measure power consumption, and prototype interfaces before committing to a custom PCB layout. The Xplained Pro form factor standardises extension-board compatibility across the entire SAM and PIC32 family, simplifying peripheral expansion through MikroElektronika Click boards, weather sensors, and other Xplained Pro extensions. Key features of the ATSAML21-XPRO-B include the ATSAML21J18B MCU with 256 KB Flash, 32 KB SRAM, and a Cortex-M0+ core running up to 48 MHz reaching 2.46 CoreMark/MHz. The board exposes the SAM L21 ultra-low-power peripherals through the standard Xplained Pro headers, supports SleepWalking peripherals and event system, and integrates an on-board 32.768 kHz crystal for RTC operation. The integrated EDBG provides full programming and debug via USB, eliminating the need for an external programmer. The ATSAML21-X18B silicon itself is built on a low-power process and offers 6 SERCOM (serial communication) interfaces configurable as UART/SPI/I2C, a 12-bit ADC, 10-bit DAC, and a segmented LCD controller. Power analysis is supported through Atmel Data Visualizer or Microchip Data Visualizer, allowing real-time current profiling of the target MCU down to nanoamp resolution when paired with a Power Debugger accessory. Typical applications for this evaluation kit include low-power IoT sensor nodes, battery-powered wearable devices, energy-harvesting designs, home automation endpoints, and industrial wireless sensor networks. Engineers typically use this platform to validate SleepWalking-based firmware, benchmark ultra-low-power RTC wake cycles, and prototype LoRa or BLE sensor nodes that depend on the SAM L21's sub-microamp sleep current. When developing with the ATSAML21-XPRO-B, ensure that the target MCU is powered from the on-board 3.3 V regulator when the USB cable is connected. For accurate power measurements, disconnect the EDBG power rail using the relevant current-measurement jumper so the on-board debugger does not skew nanoamp-level consumption readings. This page synthesises distributor pricing, drop-in Xplained Pro alternatives from the same product family, and practical development notes not found in the manufacturer user guide.
ATSAML22-XPRO - SAM L22 Cortex-M0+ Xplained Pro Eval Kit
The Microchip Technology ATSAML22-XPRO is the SAM L22 Xplained Pro evaluation kit, a hardware evaluation platform built around the ultra-low-power ATSAML22N18A ARM Cortex-M0+ microcontroller with an integrated segment LCD controller. The board features 256 KB Flash, 32 KB SRAM, an on-board debugger (nEDBG) with USB virtual COM port and Data Gateway Interface, and a segment LCD display directly driven by the SAM L22 device's integrated SLCD peripheral. Background Knowledge: An evaluation kit (eval board) is a printed-circuit assembly produced by a microcontroller vendor that exposes the device's peripherals — GPIOs, communication buses, analog blocks — through standardized headers and on-board sensors so that firmware engineers can prototype firmware before committing to a custom PCB. Within the hierarchy, the ATSAML22-XPRO sits under: evaluation kit -> development board -> engineering tool -> electronic test & measurement instrument. The Xplained Pro family specifically adds an embedded debugger, removing the need for an external programmer. Key features include a SAM L22 Cortex-M0+ core at up to 32 MHz, 256 KB Flash, 32 KB SRAM, segment LCD controller supporting up to 8 common and 32 segments, 12-bit ADC, multiple SERCOM peripherals, an onboard temperature sensor, an Atmel CryptoAuthentication footprint, and the QTouch slider/pad interface. The kit also offers Arduino Uno R3-compatible headers for shield expansion, a mikroBUS socket for Click board support, and a built-in Li-ion/LiPo charger for battery-powered prototypes. Architecturally, the ATSAML22N18A die pairs an ARM Cortex-M0+ core with Microchip's proprietary ultra-low-power SleepWalking peripherals and an integrated SLCD driver capable of driving glass displays directly — a combination aimed at wearables, metering, and battery-powered HMI applications where segment LCDs are preferred over TFTs for cost and power reasons. Typical applications include ultra-low-power IoT sensor nodes with segment LCD readout, smart thermostats, home energy meters, portable medical devices with battery indicator displays, asset-tracking tags, and wearable fitness bands. The kit is supported by Atmel Studio / Microchip Studio and MPLAB X IDE, plus the Atmel START code-configurator. When designing with this kit, route all SERCOM I/O via the Arduino headers to preserve shield compatibility, and use the on-board 32.768 kHz crystal footprint for RTC accuracy rather than relying on the internal oscillator in metering applications. This page synthesizes distributor pricing, related Xplained Pro boards, and design notes not collated in the user guide.
ATSAML22-XPRO-B - SAM L22 ARM Cortex-M0+ Xplained Pro Kit | Microchip
The Microchip ATSAML22-XPRO-B is an evaluation board built around the ultra-low-power SAM L22 ARM Cortex-M0+ microcontroller, featuring a 32-bit CPU core, segment LCD driver, integrated touch controller, and Microchip's proprietary SleepWalking peripheral event system. The kit ships in Microchip's standard Xplained Pro form factor with on-board debugger (nEDBG), mikroBUS socket, and a segment LCD breakout, making it a complete platform for evaluating SAM L22N18A silicon. A Xplained Pro evaluation kit (sometimes called a Starter Kit or Dev Kit) is a Microchip-branded development platform that integrates the target MCU with a built-in programmer/debugger, standard extension headers, and reference peripherals. It belongs to the broader hierarchy: development board -> MCU evaluation kit -> ARM Cortex starter platform, designed to accelerate firmware bring-up, peripheral evaluation, and reference design reuse before committing to a custom PCB. Key features of the ATSAML22-XPRO-B include the SAM L22 MCU running at up to 32 MHz, 256 KB Flash, 32 KB SRAM, a 4x40 segment LCD controller, Peripheral Touch Controller (PTC), 16-bit timers, and full-speed USB support on certain SAM L22 variants. The board's SleepWalking technology lets peripherals wake the CPU only on relevant events, achieving 39 µA/MHz active and 490 nA in ultra-low-power backup mode per the SAML22 family datasheet. The on-board nEDBG provides drag-and-drop programming, virtual COM port, and CMSIS-DAP debugging without an external programmer. Typical applications for this kit include wearable and battery-powered IoT sensor nodes, ultra-low-power human-machine interface (HMI) prototypes with segment LCD + touch, industrial metering and HVAC user panels, and portable medical/fitness devices. The built-in segment LCD and touch make it especially suited for thermostat, remote control, and appliance front-panel designs where power budget is critical. When designing with the ATSAML22-XPRO-B, engineers typically use Microchip Studio (Atmel Studio legacy) or MPLAB X IDE with the START code-configurator to generate peripherals and ASF (Advanced Software Framework) drivers. Pin-mapping documentation ships in the user guide PDF and the on-board silk-screen, allowing direct translation to a custom design. This page synthesizes distributor pricing across 12+ sources, drop-in alternatives, and practical design considerations not duplicated in the manufacturer user guide.
ATSAMR21-XPRO - ATSAMR21G18A 802.15.4 2.4GHz Eval Kit | Microchip
The Microchip Technology ATSAMR21-XPRO is a SAM R21 Xplained Pro evaluation kit built around the ATSAMR21G18A, an IEEE 802.15.4 compliant single-chip wireless microcontroller that combines an ARM Cortex-M0+ 32-bit MCU core with an integrated 2.4GHz RF transceiver, 256 KB flash, and 32 KB SRAM in a 64-pin QFN package. Per the verified Microchip product page, the kit operates in the 2.4 GHz ISM band, supports a link budget of 103 dBm, and consumes approximately 50% less active current than competing 2.4 GHz transceiver solutions, making it targeted at low-power wireless sensor networks. The Xplained Pro form factor exposes the same headers used by other SAM C/D/R/L/X evaluation kits, so it can be expanded with MikroElektronika click boards and Atmel/Microchip extension boards. What is an 802.15.4 evaluation board? An 802.15.4 evaluation board is a development platform that integrates a microcontroller and a sub-GHz or 2.4 GHz IEEE 802.15.4 radio on a single PCB, supported by a vendor IDE and stack, so engineers can prototype mesh-networking, point-to-point, and beacon-enabled protocols such as Zigbee, 6LoWPAN, Thread, WirelessHART, and proprietary point-to-point links. The ATSAMR21-XPRO sits in the platform hierarchy evaluation board -> 802.15.4 development kit -> wireless MCU ecosystem -> embedded hardware platform. Key features include the integrated ATSAMR21G18A wireless MCU, an on-board debugger compatible with Atmel Studio / Microchip Studio 6.x or later, an integrated 2.4 GHz ceramic-chip antenna, an external ATZB-RF-233PA extension header for power-amplifier add-on boards (the ATZB-SAMR21-XPRO variant), and full software-stack support for the Atmel BitCloud Zigbee PRO profile and the IEEE 802.15.4 MAC. The board is also pre-flashed with a Bootloader image, so new firmware can be loaded over USB without an external programmer. Technically, the ATSAMR21G18A device inside the kit pairs a Cortex-M0+ core running up to 48 MHz with a 2.4 GHz O-QPSK PHY and a hardware MAC layer. It is supported by the ASF (Atmel Software Framework) and Microchip Studio, and the on-board EDBG controller provides drag-and-drop programming, a virtual COM port, and Data Gateway Interface (DGI) GPIO/streaming for live debugging. Typical applications include Zigbee mesh nodes (light, lock, thermostat, sensor), 6LoWPAN and RPL-based IPv6 sensor networks, Thread border-router prototyping, custom 2.4 GHz proprietary point-to-point links, and low-power IoT sensor endpoints where an ARM Cortex-M0+ + certified radio shortens FCC/CE certification. When ordering, note that the ATSAMR21-XPRO is the base platform, while the ATZB-SAMR21-XPRO variant includes the extension board for the AT86RF233 PA output. Choose the base kit for software/firmware bring-up and the ATZB-SAMR21-XPRO variant when link-budget extension beyond 103 dBm is required. This page synthesizes distributor pricing, drop-in alternate platforms, and practical design notes not found in the standalone ATSAMR21-XPRO user guide.
ATSAMR21ZLL-EK - SAM R21 802.15.4 2.4GHz Eval Kit | Microchip
The Microchip ATSAMR21ZLL-EK is an Xplained Pro evaluation kit that evaluates the ATSAMR21G18A wireless microcontroller — an ARM Cortex-M0+ SoC with an integrated 802.15.4 / 2.4 GHz transceiver — and provides all hardware needed to prototype ZigBee PRO, ZigBee Green Power, and IEEE 802.15.4 mesh networking nodes. The kit is delivered with a USB cable, Atmel Studio support, and on-board programmer/debugger so designers can begin firmware development immediately. The ATSAMR21G18A device runs at up to 48 MHz, integrates 32 KB SRAM, 256 KB flash, and a 2.4 GHz radio, providing a single-chip sub-GHz/2.4 GHz wireless platform. An evaluation kit (EK) is a fully assembled printed circuit board and software package used to characterize a microcontroller, SoC, or RF transceiver before committing to a custom PCB layout. Within the product taxonomy, the ATSAMR21ZLL-EK sits at: evaluation kit → development board → board-level product → electronic engineering hardware. Xplained Pro kits are Microchip's standardized evaluation platform that includes an on-board Embedded Debugger (EDBG), Arduino-compatible headers, and mikroBUS/QTouch extension connectors for rapid prototyping. Engineers use them to validate firmware, measure RF performance, and prototype wireless sensor networks. Key features of the ATSAMR21ZLL-EK include: an on-board ATSAMR21G18A Cortex-M0+ SoC with integrated 2.4 GHz 802.15.4 radio; USB-powered Xplained Pro motherboard with Embedded Debugger; Arduino R3-compatible extension headers for shield expansion; an RGB status LED driven by the device PWM channels; and the firmware library (bitcloud / SAM R21 stack) provided by Atmel/Microchip for certified ZigBee PRO and Green Power stacks, formerly marketed as ZigBee 3.0. According to the Atmel/Microchip user guide 42462A-MCU-06/2015, the three channel RGB PLCC4 LED is connected in current-sink configuration. Technical depth: the underlying ATSAMR21G18A microcontroller integrates a Cortex-M0+ core capable of 0.93 DMIPS/MHz, a 2.4 GHz AT86RF233-compatible 802.15.4 radio transceiver with link budget up to +4 dBm TX and −101 dBm RX sensitivity (per the ATSAMR21 family datasheet), and crypto accelerators supporting AES-128. The EDBG provides SWD debug, virtual COM port, and drag-and-drop programming over USB. Typical applications include ZigBee PRO home automation mesh nodes (lights, thermostats, sensors), ZigBee Green Power energy-harvesting switches, IEEE 802.15.4 point-to-point or star networks for industrial sensor telemetry, and rapid prototyping of 6LoWPAN wireless sensor networks. The kit is also the reference platform for Microchip's certified ZigBee PRO stack. When designing with this kit, connect antennas via the SMA footprint for conducted RF testing, and use Atmel Studio / Microchip Studio to load bitcloud stack example projects. For mass production, port the firmware to the standalone ATSAMR21G18A module — the ATSAMR21ZLL-EK is the development vehicle, not the end-product form factor. This page synthesizes distributor pricing (DigiKey / Mouser / LCSC / Octopart), same-brand and cross-brand kit alternatives, and practical design notes not found in the manufacturer datasheet.
ATSAMR30-XPRO - SAM R30 Xplained Pro Sub-GHz 802.15.4 Eval Kit | Microchip
The Microchip ATSAMR30-XPRO is the SAM R30 Xplained Pro hardware evaluation kit for the ATSAMR30G18A System-on-Chip, pairing a 32-bit ARM Cortex-M0+ MCU with an IEEE 802.15.4 compliant sub-GHz radio in a single integrated module. It features 256 KB of Flash, 40 KB of SRAM, a 32.768 kHz crystal for low-power RTC operation, and a 16 MHz main CPU clock. The on-board radio supports the 780 MHz band used in China and the 868 MHz band used in Europe, targeting long-range, ultra-low-power mesh networking. Background: A wireless evaluation kit (EVK / Xplained Pro board) is a hardware platform provided by a silicon vendor so engineers can exercise the MCU's peripherals, debug firmware through on-board programmers, and prototype RF links before committing to a custom PCB. The SAM R30 sits in the Microchip/Atmel smart-connected family that blends deterministic Cortex-M0+ control with an integrated radio transceiver, removing the cost and PCB complexity of a separate MCU plus discrete 802.15.4 chip. In the broader taxonomy the kit belongs to: development board -> evaluation kit -> wireless / RF evaluation kit -> sub-GHz 802.15.4 development platform. Key differentiating features include an integrated PCB antenna with matching network for the ISM sub-GHz bands, an on-board embedded debugger (EDBG) that exposes a USB CDC virtual COM port and Data Gateway Interface (DGI) GPIO, two mechanical Xplained Pro extension headers for mikroBUS-like add-ons, and Atmel Studio / MPLAB X IDE compatibility with predefined application examples such as MiWi and Thread stacks. The board accepts 5 V via the USB micro-B connector and regulates it down for the SoC. Technical depth: The ATSAMR30G18A SoC integrates a Cortex-M0+ core (Thumb-2 instruction set, hardware single-cycle multiplier), the AT86RF212B-derived sub-GHz radio transceiver, and a Cortex-M0+-class AES engine. The Xplained Pro form factor exposes the 20-pin EXT header carrying power, I/O, and the ID pins used by Atmel Studio to identify connected extension boards automatically. Typical applications include IEEE 802.15.4 sub-GHz mesh prototypes for smart metering, home and building automation sensor nodes, industrial wireless telemetry, agricultural / environmental monitoring, asset tracking pilots, and rapid MiWi / 6LoWPAN proof-of-concept builds. The kit is supported by Atmel Studio and MPLAB X IDE with sample projects for each stack. A key design consideration is antenna placement and clearance - the integrated PCB antenna performs best when the board is mounted at the edge of a host chassis with no metal within ~5 cm of the antenna trace. For lab bench testing the on-board antenna is usually adequate; for production range testing an external SMA-mounted antenna is recommended. This page synthesizes distributor pricing, parameter cross-reference, and practical evaluation-board design notes beyond the manufacturer user guide, giving engineers a single reference for selecting, sourcing, and deploying the ATSAMR30-XPRO in early-stage wireless product development.
B-L072Z-LRWAN1 - LoRa/Sigfox Discovery Kit | STMicroelectronics
The STMicroelectronics B-L072Z-LRWAN1 is a LoRa/Sigfox Discovery kit built around the Murata CMWX1ZZABZ-091 all-in-one open module, which integrates an STM32L072CZ ARM Cortex-M0+ microcontroller with 192 KB Flash and 20 KB RAM plus a Semtech SX1276 sub-GHz transceiver. The board provides 157 dB maximum link budget, an SMA antenna connector, an on-board ST-LINK/V2-1 debugger, and Arduino Uno R3 compatible headers. A Discovery kit is a low-cost, ready-to-use evaluation platform that lets engineers prototype and validate a microcontroller or wireless technology before committing to a custom PCB. Within the STM32 ecosystem, the B-L072Z-LRWAN1 sits at the entry level of LoRaWAN development tools, above bare modules such as the CMWX1ZZABZ-091 and below full gateway kits such as the P-NUCLEO-LRWAN2. The kit's key differentiators are its all-in-one Murata module (MCU plus radio in a single certified package), its 157 dB link budget for long-range sub-GHz communication, its ultra-low-power STM32L072CZ core that supports multi-year battery operation, and its integrated ST-LINK/V2-1 probe that eliminates the need for an external programmer. The board also carries Arduino-compatible headers for expansion with shields. The CMWX1ZZABZ-091 module combines the STM32L072CZ MCU and the SX1276 transceiver in a single shielded package, simplifying RF layout and regulatory certification. The SX1276 uses LoRa spread-spectrum modulation for robust long-range links and also supports FSK/OOK and Sigfox modes, making the kit a multi-protocol LPWAN development platform. Typical applications include LoRaWAN end-node prototyping, Sigfox device development, smart-metering and smart-city sensor nodes, agricultural and environmental monitoring, asset tracking, and industrial IoT gateways. The 157 dB link budget supports kilometer-scale links in urban and rural environments. When designing with the kit, connect the supplied 900 MHz 50-ohm stub antenna to SMA connector CN10 before any RF transmission; operating without a load can damage the transceiver. Power the board through the USB connector or the external supply header, and use the ST-LINK/V2-1 virtual COM port for firmware download and serial debug. This page synthesizes distributor pricing, drop-in board alternatives, and practical design notes that are not consolidated in the manufacturer data brief, giving engineers a single reference for evaluation and sourcing decisions.
BC660K-GL-TE-B-KIT - NB-IoT LTE Cat NB2 Dev Kit | Quectel
The Quectel BC660K-GL-TE-B-KIT is a development and evaluation kit for the BC660K-GL, a high-performance LTE Cat NB2 (NB-IoT) module supporting 16 frequency bands (B1/B2/B3/B4/B5/B8/B12/B13/B17/B18/B19/B20/B25/B28/B66/B70/B85) with data rates up to 127 Kbps downlink and 158.5 Kbps uplink, supplied with a GNSS L1 ceramic antenna (1559-1606 MHz, 25x25x8.25 mm) with IPEX cable-mount connection. An NB-IoT (Narrowband Internet of Things) module is a low-power wide-area network (LPWAN) cellular transceiver standardized by 3GPP for machine-type communications. Within the wireless connectivity hierarchy, it sits in the cellular module family alongside LTE Cat-M1 and legacy 2G modules, and pairs with end devices such as microcontrollers and sensors. Development kits like this TE-B evaluation board bridge the module and the final product, exposing the module's LCC pads to accessible connectors, USB, and test points. The kit's headline value is the BC660K-GL module's extremely low power consumption and ultra-compact 17.7 mm x 15.8 mm x 2.0 mm, 1.8 g SMT LCC form factor, which engineers can validate before committing to a custom footprint. The included GNSS L1 antenna (1559-1606 MHz, ceramic, 55 +/-3, IPEX connector, cable mounting) enables positioning evaluation in the same sessions as cellular testing. Architecturally, the BC660K-GL adopts surface-mount technology in a compact LCC package, which Quectel states is ideal for durable, rugged designs and suits large-scale manufacturing with strict cost and efficiency requirements. Wide band coverage makes a single hardware design deployable across global NB-IoT networks, and the extended operating temperature range of -40C to +85C supports outdoor and industrial enclosures. Typical applications include smart meters, smart city sensors, asset trackers with GNSS positioning, and industrial IoT endpoints. The kit accelerates AT-command development, RF verification, and log capture (Quectel documents log capture workflows using the TE-B board with the EPAT tool). A key design consideration: the BC660K-GL's UART and reset behavior documented by Quectel engineers assumes 1.8 V logic levels; developers interfacing 3.3 V host MCUs should plan level shifting. Community examples also show reset (pin 15) control for programming workflows. This page synthesizes distributor pricing, kit contents, drop-in evaluation alternatives, and practical design notes not found in the manufacturer specification sheet alone.
BMD-341-EVAL - nRF52840 BLE 5.0 Eval Kit | u-blox
The u-blox BMD-341-EVAL is an evaluation kit for the BMD-341 stand-alone Bluetooth 5.0 low energy module, built on the Nordic Semiconductor nRF52840 ARM Cortex-M4F SoC, operating in the 2.4 GHz band with a U.FL connector for external antennas. It supports Bluetooth 5.x BLE, Thread, and Zigbee (IEEE 802.15.4) protocols. An evaluation kit is a development board that lets engineers prototype, program, and characterize a wireless module before committing to a production PCB design. Within the development-tools hierarchy, the BMD-341-EVAL belongs to RF evaluation and development boards, a subcategory of embedded development hardware used alongside software SDKs such as Nordic nRF Connect and the Zephyr RTOS. Key features include stand-alone operation of the BMD-341 module, programming support for off-board u-blox modules based on Nordic nRF5 SoCs, and flexible power options: a CR2032 coin cell or a LiPo battery connected through a JST-PH connector. This makes low-power current profiling realistic, since the module can run from an actual coin cell during BLE long-range tests. The underlying BMD-341 module is certified under ISED RSS-247 Issue 2 and RSS-Gen for Canada, and its footprint is identical to the BMD-340 with backwards compatibility to BMD-300, BMD-301, BMD-330, and BMD-360 module footprints (pins 1 through 47 map directly). The Zephyr project officially supports the BMD-340-EVAL and BMD-341-EVAL hardware, giving developers a maintained board port out of the box. Typical applications include BLE 5.0 long-range (coded PHY) prototyping, Thread and Zigbee mesh node development, NFC-paired device evaluation, and low-power IoT sensor prototyping. The U.FL connector enables conducted and radiated testing with external antennas for RF characterization. One design consideration: because the BMD-340 variant requires a copper keep-out for its PCB trace antenna, designs intended to accept BMD-340, BMD-341, or BMD-345 modules should follow the BMD-340 keep-out rules from the start. This page synthesizes distributor pricing, evaluation-kit alternatives, and practical design notes not found in the manufacturer datasheet alone.
BMXDDM16025 - Modicon X80 Mixed I/O, 8DI 24VDC 8 Relay Out | Schneider
The Schneider Electric BMXDDM16025 is a discrete mixed I/O module from the Modicon X80 range, providing 8 digital inputs rated for 24V DC and 8 relay outputs rated for 24 to 240V AC positive logic, mounted on an X80 rack chassis. A discrete I/O module is an interface device in a programmable logic controller (PLC) or programmable automation controller (PAC) system that converts field-level industrial signals into logic-level data and back. Discrete (digital) I/O handles binary states - sensors reporting ON/OFF, actuators commanded to RUN/STOP - and sits below analog I/O and communication modules in the automation system hierarchy. The X80 range is a common I/O platform shared by the Modicon M580 and M340 PAC families from Schneider Electric. The key feature of the BMXDDM16025 is its mixed-channel architecture: combining inputs and relay outputs on one module reduces rack space and slot count in the X80 chassis. The 8 input channels accept 24V DC discrete signals with positive-logic sensing, while the 8 relay output channels provide dry-contact switching capable of handling AC loads from 24V to 240V - a distinct advantage over transistor outputs, which are limited to DC loads. Relay isolation also separates the field wiring electrically from the internal logic. The module mounts directly on X80 racks using a removable terminal block (cage, screw, or spring type) or an FCN connector, per the Schneider Electric product data sheet. Status indication and channel diagnostics are accessible through the module front panel and via the PAC backplane. Typical applications include industrial control panels driving contactors, motor starters, solenoid valves, and indicator lamps, as well as machine retrofit projects where mixed AC/DC field wiring must be consolidated on a single I/O slot. When designing with this module, note that relay outputs have limited switching life at rated inductive loads compared to transistor outputs - consider snubbers or derating for frequently switched inductive loads such as contactor coils. This page synthesizes distributor pricing availability, datasheet references, and practical design notes not found in the manufacturer data sheet alone.
BMXNOR0200H - Modicon M340 RTU Comm Module | Schneider Electric
The Schneider Electric BMXNOR0200H is a ruggedized Ethernet/serial RTU communication module for the Modicon X80 platform, offering 1 Ethernet port and 1 serial port via 2 x RJ45 connectors, supporting IEC 60870-5-101/104 and DNP3 protocols, drawing 95 mA at 24 V DC from an internal power supply, and packaged as a chassis-mount module for severe environments. An RTU (Remote Terminal Unit) communication module is a type of industrial communication interface that connects a Programmable Automation Controller (PAC) to SCADA master stations using telecontrol protocols. Within the automation hierarchy - RTU module, communication module, PAC platform, supervisory control and data acquisition system - it serves as the protocol gateway that bridges field-side RTU stations and the control platform, enabling telemetry exchange over Ethernet and serial links. Key features include dual-protocol support for IEC 60870-5-101 (serial) and IEC 60870-5-104 (Ethernet), DNP3 telecontrol protocol support, a ruggedized 'H' build rated for severe environments, and native integration into the Modicon X80 module platform shared by the Modicon M580 and M340 PACs. According to Schneider Electric product documentation, the module operates from the rack's internal power supply with a current consumption of 95 mA at 24 V DC. The BMXNOR0200H is an in-rack X80 module, which means it requires no separate enclosure, external power wiring, or standalone gateway commissioning. Configuration is performed through the same Unity Pro / EcoStruxure Control Expert software environment as the host M340 or M580 controller, reducing integration effort. The Modicon X80 shared-platform design also means one spare-part SKU and one training program cover both M580 and M340 installations. Typical applications include water and wastewater telemetry, oil and gas pipeline SCADA, power generation and distribution substation automation, and other infrastructure remote monitoring where RTU master/slave protocol exchange with field RTU stations is required over serial or Ethernet links. One design consideration: because this is the 'H' (harsh environment) variant, verify the extended environmental ratings against your installation profile before standardizing on the standard BMXNOR0200 for less severe cabinets. This page synthesizes distributor availability, drop-in family alternatives, and practical deployment notes not found in the manufacturer datasheet.
BMXP342010 - Modicon M340 Processor Module | Schneider Electric
The Schneider Electric BMXP342010 is a Modicon M340 processor module (CPU) for Programmable Automation Controller (PAC) platforms, supporting up to 1024 discrete I/O and 256 analog I/O with native Modbus and CANopen communication. This rack-mounted processor module is the core controller of the Modicon M340 automation platform and has been discontinued by the manufacturer since 12/31/2010, with BMXP3420102 published as the official replacement by Schneider Electric. A PLC processor module is the central processing unit of a programmable logic controller system: it executes the control program, scans inputs, drives outputs, and manages industrial communication buses. In the automation hierarchy, it sits above I/O modules and communication couplers, and the Modicon M340 platform positions itself as a mid-range PAC between compact PLCs and larger Modicon M580 systems. Key capabilities of the BMXP342010 include scaling up to 1024 discrete and 256 analog I/O points, multi-rack configurations, CANopen master support with up to 63 CANopen slaves, and integrated Modbus communication. According to the RS Components listing for the successor module, this processor family operates on an internal power supply with a current consumption of approximately 90 mA at 24 V DC, and supports configurations of up to 4 racks with 11 slots. Typical applications include factory automation, water and wastewater treatment, material handling, and process control skids that already use the Modicon M340 rack ecosystem. The native Modbus and CANopen interfaces make it a practical fit for retrofit projects where legacy fieldbus wiring must be preserved. Design consideration: because the BMXP342010 is discontinued, new designs must specify the BMXP3420102, and existing installations should plan spares or migration strategy. According to the Schneider Electric FAQ FA241965, the BMXP342010 has been replaced with part BMXP3420102, which shares the same M340 rack ecosystem. This page synthesizes distributor pricing, official replacement cross-reference data, and lifecycle information from Schneider Electric, Radwell, Octopart, and reseller sources - information not consolidated on the manufacturer product page alone.
BMXSDO1602 - 16-Ch Safety Output Module 24VDC SIL3 | Schneider
The Schneider Electric BMXSDO1602 is a Modicon X80 safety discrete output module with 16 transistor output channels rated for 24 V DC positive-logic loads, certified for safety applications up to SIL3 (IEC 61508) and Performance Level e (PLe, ISO 13849). It mounts on the X80 backplane and is used with Modicon M580 and M340 safety PACs. A safety discrete output module is a specialized PLC I/O module that drives field actuators (contactors, valves, motor starters) through a certified safety path. Within the automation hierarchy - safety PLC, safety I/O module, field device - the safety output module is the final element that must fail predictably. Unlike standard output modules such as the BMXDDO1602, safety modules incorporate per-channel diagnostics, redundant output paths, and self-test circuits so that a single fault does not cause a dangerous undetected failure. Key features include 16 isolated transistor outputs at 24 V DC positive logic, per-channel diagnostic coverage required for SIL3, and compatibility with the X80 form factor shared across the Modicon M580/M340 platform. The module is chassis-mounted and hot-swappable on live backplanes, reducing mean time to repair. Architecturally, the module integrates with the M580 safety CPU over the X80 bus, executing output checks and reporting channel faults to the safety program. Fault detection per channel allows process engineers to sustain the required safety integrity level while maintaining availability. Typical applications include emergency stop actuation circuits, fire and gas shutdown systems, machine guarding outputs, and process interlock solenoid valves in oil and gas, chemical, and heavy industrial plants. Design consideration: verify total module current and derate per the manufacturer datasheet, and follow Schneider Electric safety implementation guidelines for wiring and proof-test intervals. This page synthesizes distributor availability, family cross-references, and application guidance not consolidated in the manufacturer datasheet. Pricing references are as of 2026-10-20.
BP35C5-T01 - Wi-SUN FAN Evaluation Board 902-928MHz | ROHM
The ROHM BP35C5-T01 is a Wi-SUN FAN evaluation board for the BP35C5 Sub-GHz wireless communication module, operating in the 902 MHz to 928 MHz band and mounted on an adapter board for rapid prototyping. According to ROHM's product page, the BP35C5-T01 lets engineers evaluate the BP35C5 Wi-SUN module without designing a custom RF carrier PCB. A Wi-SUN (Wireless Smart Utility Network) module is a Sub-GHz low-power radio transceiver with an integrated 32-bit MCU and protocol stack, designed for mesh networking in smart utility and smart community infrastructure. Wi-SUN FAN (Field Area Network) is an international standard optimized for large-scale, self-healing mesh networks, positioned within the broader hierarchy of wireless communication modules for industrial IoT. Key characteristics include the ultra-compact 15.0 mm x 19.0 mm BP35C5 module footprint, support for both the 920.6 MHz-928 MHz (Japan/920 MHz band) and 902.2 MHz-927.8 MHz (US 902-928 MHz ISM band) radio frequency standards, and mesh network scalability of up to 1000 units. The evaluation board provides two SMA connectors for antenna connection, allowing engineers to test with external high-gain antennas. The BP35C5 module integrates a Sub-GHz RF transceiver with a 32-bit microcontroller running the Wi-SUN FAN stack, and is Wi-SUN Alliance certified (product listing WSA0218). GPIOA0/SDA (pin 18) can drive a status LED that blinks according to network status in the default operation mode, per the BP35C5 application manual. Typical applications include smart electric, gas, and water metering networks, street lighting control, solar and renewable energy monitoring, and building/industrial automation where 1000-node mesh coverage is required. A key design consideration: the evaluation board does not include an antenna, so engineers must supply a suitable 902-928 MHz antenna via the SMA connectors, and final products must be re-certified for regional radio regulations. This page synthesizes distributor availability, verified product data, and practical design notes not found in the manufacturer datasheet, providing information gain for sourcing and evaluation decisions.
BQ51013CQWEVM - Qi 1.3 Wireless Receiver EVM | TI
The Texas Instruments BQ51013CQWEVM is a wireless power receiver evaluation module built around the BQ51013C-Q1, a highly integrated receiver IC compliant with Wireless Power Consortium version 1.3 specifications. The receiver can deliver up to 5 W when paired with a compliant transmitter, and the evaluation module provides a platform for evaluating power delivery, receiver integration, and system behavior. A wireless power receiver is a power-management semiconductor that captures energy from a wirelessly coupled transmitter, rectifies and regulates the received energy, and presents a usable DC output to a downstream load. In the broader hierarchy, the BQ51013C-Q1 belongs to the wireless power receiver class, then to battery and wireless charging management devices, then to power-management integrated circuits. This makes the module useful for developing contactless power systems without first fabricating a complete receiver layout. The verified product information identifies BQ51013CQWEVM as an evaluation board for the BQ51013C-Q1 and describes the device as a Qi-standard wireless power receiver. The receiver IC is specified as WPC v1.3 compliant and is capable of providing up to 5 W when used with a WPC v1.3-compliant transmitter. These are the principal verified performance facts for this evaluation platform. The module is intended for wireless charging and wireless power supply experiments, including evaluation of a receiver front end, output power delivery, and integration with a compatible transmitter. It can support development of embedded charging products where physical connectors are undesirable or inconvenient. Because it is an evaluation module rather than a finished product, final enclosure, thermal management, load regulation, and system certification must be established during product development. BQ51013CQWEVM should be selected when engineers need a Texas Instruments reference platform around the BQ51013C-Q1 rather than a discrete receiver implementation. The key design consideration is that the module’s demonstrated power capability depends on the transmitter, coupling conditions, board configuration, load, and the complete power path. The evaluation board should therefore be measured under defined operating conditions rather than treated as a guaranteed standalone charger rating. This product page consolidates the verified manufacturer identification, distributor references, application context, and practical evaluation guidance for BQ51013CQWEVM. It is intended to help engineers locate the official documentation and compare the evaluation module with other wireless-power development boards before committing to a design.
BR-100AH-OUT-KIT - 802.11ah HaLow Outdoor Bridge Kit | Silex Technology
The Silex Technology BR-100AH-OUT-KIT is a fully assembled outdoor deployment kit for the BR-100AH, the first commercially available IEEE 802.11ah Wi-Fi HaLow Ethernet-to-Wi-Fi bridge, packaged with an IP65-rated weatherproof enclosure, networking and power cables, waterproof cable glands, a high-temperature rated power supply, and a weatherproof outdoor antenna. Wi-Fi HaLow (IEEE 802.11ah) is a sub-1 GHz wireless standard designed for long-range, low-power IoT connectivity. Unlike conventional 2.4 GHz and 5 GHz Wi-Fi, 802.11ah operates in licensed-exempt sub-1 GHz spectrum (around 926.5 MHz in the US), trading raw throughput for dramatically extended range and better penetration through walls, vegetation, and other obstructions. A single 802.11ah access point such as Silex's companion AP-100AH can cover up to 3 kilometers and support up to 675 clients, making the technology a strong alternative to proprietary sub-GHz links and cellular for industrial IoT infrastructure. The BR-100AH at the core of this kit allows any Ethernet-enabled device to join a secure, long-range 802.11ah WLAN with over 1 megabit per second throughput. It is software transparent: no changes to drivers, management tools, or applications are required, because the bridge presents the wireless link as a plain Ethernet connection. The radio operates in Multi-client mode and ships in a box-level form factor with an integrated antenna connector. Typical applications include outdoor industrial IoT backhaul, smart agriculture sensor gateways, campus-wide meter and utility infrastructure, security camera connectivity across large facilities, and long-range wireless extensions of existing Ethernet networks where running cable is impractical. For deployment, mount the enclosure with the antenna vertical and clear of metal obstructions, and route all cabling through the supplied waterproof glands to preserve the IP65 sealing rating. The kit is RoHS compliant. This page synthesizes distributor availability data, the manufacturer product brief, and practical deployment guidance - including comparisons with the companion AP-100AH-OUT-KIT - in one place for engineers evaluating 802.11ah infrastructure.
C-NIM-8T - 8-Port 1G RJ45 LAN/WAN NIM with MACsec | Cisco
The Cisco C-NIM-8T is an 8-port 10M/100M/1G RJ-45 LAN/WAN Network Interface Module (NIM) for Catalyst 8200, 8200L, and 8300 Series Edge Platforms, with integrated IEEE 802.1AE MACsec, Layer 2 switching, and configurable Layer 3 routing on the last two ports. Housed in a single NIM slot form factor, it provides 8 × 1000Base-T copper line ports and is designed primarily as a next-generation replacement for the ISR 4000 Series NIM-ES2 switch module family, offering full feature parity plus added Layer 2 features. A Network Interface Module (NIM) is a hot-swappable line-module form factor used in Cisco enterprise routers to add copper, fiber, or service-module connectivity to a chassis. The C-NIM-8T belongs to the copper Gigabit Ethernet NIM family, which itself falls under router expansion modules, edge router accessories, and finally networking hardware. NIMs differ from older EHWIC and SM slots by supporting higher per-port throughput and richer service offload, including hardware-accelerated MACsec encryption on every port. Key features of the C-NIM-8T include eight auto-negotiating 10/100/1000Base-T RJ-45 ports, hardware-accelerated IEEE 802.1AE MACsec on all ports with line-rate performance, Layer 2 switching with VLAN, STP, and EtherChannel support, and configurable Layer 3 routing on ports 6 and 7 for WAN use. It also supports Cisco IOS XE management, hot-swappable insertion into a Catalyst 8000 NIM slot, and a separate per-VLAN STP instance for traffic isolation. The module draws power from the host chassis and is managed through the same IOS XE CLI as the router. Architecturally, the C-NIM-8T integrates an onboard switch ASIC and a MACsec engine. All eight ports share Layer 2 switching, while the last two ports can be reconfigured as routed Layer 3 WAN interfaces with MACsec, allowing branch sites to terminate encrypted WAN circuits on the same module that aggregates LAN access. This dual-mode design removes the need for a separate WAN NIM in many Catalyst 8300 deployments and supports IEEE 802.1Q VLANs, 802.1D/802.1w/802.1s STP, 802.3ad LACP, and 802.1X port authentication. Typical applications include branch-office LAN aggregation on Catalyst 8300 routers, WAN termination with line-rate MACsec encryption on ports 6 and 7, secure SD-WAN edge connectivity, replacement of legacy ISR 4000 NIM-ES2 modules during hardware refresh, and small-site Layer 2/3 access consolidation. It is widely deployed in retail, healthcare, and finance branch networks that need encrypted WAN plus LAN switching from a single appliance. When deploying the C-NIM-8T, confirm that the host chassis runs a compatible IOS XE release, leave at least one free NIM slot for serviceability, and provision separate VLANs for LAN and WAN traffic. For new installations, plan MACsec key infrastructure (MKA / IKEv2) before enabling encryption on ports 6 and 7. This page synthesizes Cisco datasheet facts, verified distributor pricing, drop-in module alternatives, and practical deployment notes not collected in a single place elsewhere.