Cartes et modules
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Produits (235)
1734-IK - POINT I/O 24V DC Incremental Encoder Module | Rockwell
The Allen-Bradley 1734-IK from Rockwell Automation is a POINT I/O 24V DC incremental encoder interface module with one counter channel, a 15-24V DC input voltage range, and a 24-bit count register (0 to 16,777,215) in a compact DIN-rail mounted POINT I/O form factor. An incremental encoder interface module is a specialized industrial automation I/O device that converts high-speed quadrature pulse trains from rotary or linear encoders into position, count, or frequency data readable by a programmable logic controller (PLC). Within the automation hierarchy, it sits between the field sensor (encoder) and the controller, belonging to the distributed I/O family: encoder module -> specialty I/O module -> POINT I/O system -> fieldbus adapter -> PLC backplane. Key features of the 1734-IK include a single high-speed counter channel, 24-bit binary count reporting expressed in a 32-bit long word, operation from a 15-24V DC encoder supply, and a maximum POINTBus current draw of 160 mA. According to the Rockwell Automation user manual 1734-UM006, the module returns count or frequency values as a 24-bit binary number, enabling fine-resolution position feedback in motion and material-handling applications. The module mounts on standard POINT I/O terminal bases (1734-TB, 1734-TBS, 1734-TB3, 1734-TB3S) and communicates over the POINTBus backplane to a network adapter such as a 1734-AENT or 1734-ADN. Terminal base screw torque is specified at 0.6 Nm (7 lb-in). Maximum power dissipation is 1.5 W at rated load, corresponding to a maximum thermal dissipation of 5.1 BTU/hr. A conformal-coated variant, the 1734-IKK (Series C), offers identical specifications for harsh or condensing environments. Typical applications include cut-to-length positioning on packaging lines, speed feedback from shaft-mounted incremental encoders on conveyors, and position tracking on rotary tables and Indexing stations. Design consideration: verify encoder signal voltage compatibility before ordering, because the otherwise similar 1734-IJ is a 5V DC version while the 1734-IK accepts 15-24V DC encoders; mixing them causes input-stage damage or no counting. This page synthesizes distributor pricing context, drop-in family alternatives, terminal-base compatibility, and practical integration notes not found in a single manufacturer document.
1756-OF4 - 4-Channel ±10 V/0–20 mA AO Module | Allen-Bradley
The Allen-Bradley 1756-OF4 is a four-channel, non-isolated analog output module for the ControlLogix platform, providing ±10 VDC voltage outputs or 0–20 mA current outputs through a 20-pin removable terminal block in an open-style module. An analog output module is an industrial programmable-controller I/O device that converts controller data into continuously variable voltage or current signals. It sits between the ControlLogix controller and field equipment in the hierarchy of industrial automation: PLC system, programmable automation controller, I/O module, and analog output interface. The module provides four selectable outputs, 15-bit resolution, scaling, calibration, ramping, clamping, configurable program and fault states, and open-circuit detection for current outputs. Verified distributor data identifies 0–20 mA current operation, ±10 VDC voltage operation, and a 20-pin open-style format. A service-manual source additionally specifies 650 nA per bit across 21 mA for current output and 320 µV per bit across 10.5 V for voltage output. The ControlLogix backplane connection and removable terminal block support modular cabinet installation. Published operating temperature data spans 0°C to 60°C, while the module draws 150 mA at 5.1 VDC or 120 mA at 24 VDC from the backplane. Series B and C hardware has higher power requirements than Series A, an important replacement-planning consideration. Typical uses include proportional control valves, variable-speed drives, positioning equipment, current-loop transmitters, and test systems. Voltage outputs suit drives and positioners accepting bipolar analog commands; current outputs support two-wire process transmitters and provide open-circuit fault detection. Before installation, verify the ControlLogix chassis, controller compatibility, module series, terminal-block wiring, output mode, grounding, and field-device loop resistance. Keep voltage and current wiring distinct and configure output behavior for safe process states during controller faults or disconnects. This page consolidates verified manufacturer and distributor specifications, sourcing links, technical comparisons, and engineering guidance. Because no verified drop-in replacement was found, it does not present unverified substitutes or cross-brand modules as pin-compatible alternatives.
1769-IF8 - 8-Channel 16-Bit Analog Input | Allen-Bradley
The Allen-Bradley 1769-IF8 is an eight-channel analog input module for CompactLogix and compatible 1769 Compact I/O systems, providing 16-bit resolution in a modular industrial PLC format. It accepts common voltage and current signals, including ±10 VDC, 0–10 VDC, 0–5 VDC, 1–5 VDC, 0–20 mA, and 4–20 mA. Each of the eight channels can be configured for the selected signal range and supports differential or single-ended wiring according to the module configuration and installation requirements. An analog input module is a PLC fieldbus interface that converts real-world sensor and process measurements into digital values used by a controller. In the hierarchy of industrial automation, the 1769-IF8 belongs to programmable-control I/O, analog input hardware, and Compact I/O modules. It is used when a control system must measure pressure, temperature, flow, level, position, or other continuously varying process quantities rather than simple on/off states. The verified specifications identify eight analog input points and 16-bit resolution. The module supports voltage ranges of ±10 VDC, 0–10 VDC, 0–5 VDC, and 1–5 VDC, as well as current ranges of 0–20 mA and 4–20 mA. Rockwell Automation describes the product as an Allen-Bradley CompactLogix eight-point analog input module. The documentation also references the Compact I/O user manual and analog-module documentation for configuration and operating details. The 1769-IF8 is suited to factory automation, process control, water and wastewater monitoring, energy systems, packaging equipment, and test benches. Install the module in a compatible 1769 system, connect field wiring to the designated terminals, and configure the input ranges in the controller programming software. Verify signal type, wiring polarity, shield grounding, channel configuration, and controller response before commissioning. Because the product is a system-specific PLC module rather than a generic electrical component, replacement decisions must account for the host controller, rack or chassis, communication adapter, module configuration, terminal arrangement, signal range, and controller programming software. A candidate that is electrically similar but lacks verified mechanical, terminal, and configuration compatibility is not a drop-in replacement. The available cross-reference results do not provide five verified same-footprint drop-in replacements, so this page does not invent them. This page consolidates verified manufacturer and distributor information, official document links, commercial availability references, and system-specific design guidance. It also distinguishes verified product data from unknown commercial values and avoids presenting unreferenced specifications as engineering facts.
1769-OF4 - 4-Channel 16-Bit Analog Output Module | Allen-Bradley
The Allen-Bradley 1769-OF4 is a CompactLogix four-channel analog output module that supports current or voltage output from a 24 VDC supply, with 16-bit resolution and screw-terminal field wiring. It is designed for CompactLogix and Compact I/O systems where four independently programmed analog channels are required. The verified listing identifies the module as a CompactLogix 4AO current/voltage module. An analog output module converts controller data into proportional voltage or current signals for actuators, instruments, valves, drives, and process-control equipment. In a current-output configuration, the module drives a standard process-control loop; in voltage-output mode, it supports field devices requiring voltage references. The listed operating ranges are -10 to 10 V, 0 to 10 V, 0 to 5 V, 1 to 5 V, and 0 to 20 mA. The 1769-OF4 combines four output channels with 16-bit resolution in a CompactLogix module format. Screw connections simplify field wiring and maintenance, while the module is intended for use in modular programmable-controller systems. The verified distributor listing describes the module as a four-channel, single-ended voltage/current analog output module with 24 VDC power and 16-bit resolution. The module belongs to the broader hierarchy of industrial automation equipment: PLC I/O module, analog output module, CompactLogix I/O, Compact I/O, and programmable-controller peripheral. Its role is to bridge digital controller logic and real-world analog control signals. Because the output signal is generated at the field side, correct grounding, shielding, wiring, and configuration are important in systems where signal integrity affects actuator behavior. Typical applications include variable-speed drives, proportional valves, pressure and temperature controllers, industrial transmitters, laboratory test equipment, and process-control panels. For a new design, verify controller compatibility, module configuration, output range, grounding, and the required field-device wiring before energizing the system. For an existing installation, preserve the original catalog number and compare configuration data before substituting another module. This page consolidates verified manufacturer identification, distributor descriptions, technical-document references, application guidance, and replacement cautions for engineers evaluating the 1769-OF4. Because no current unit price was supplied in the verified data, purchasing decisions require a quotation from an authorized distributor or supplier.
6AV2123-2GB03-0AX0 KTP700 Basic 7in HMI PROFINET | Siemens
The Siemens 6AV2123-2GB03-0AX0 is a SIMATIC HMI KTP700 Basic operator panel with combined key and touch operation, a 7-inch TFT display with 65536 colors, and a PROFINET interface, configurable from WinCC Basic V13 / STEP 7 Basic V13 and containing open-source software provided free of charge. An HMI (Human Machine Interface) panel is an industrial terminal that lets operators visualize and control machines, plants, and PLC processes. HMI panels sit in the automation hierarchy above the controller (PLC), connected via industrial fieldbus protocols such as PROFINET, providing graphical screens, alarms, recipes, and data logging at the machine front end. Key features include the 7-inch widescreen TFT display with 65536-color rendering, dual key/touch operation (8 membrane keys with touch overlay), the ARM-based processor architecture, and 10 Mbyte of user-data memory for project storage. Flash and RAM storage are both integrated, and a hardware real-time clock maintains time-of-day data during power loss. Technical detail: the panel's ARM processor drives the TFT graphics engine and handles communication over the PROFINET interface. Active power input is typically 5.5 W with a starting inrush I2t of 0.2 A2-s, allowing operation from compact 24V DC power supplies. Acoustic feedback is provided by a buzzer (a speaker is not fitted). One USB interface supporting up to 16 GB storage is available for archiving; RS-485, RS-422, and RS-232 serial interfaces are not present on this PROFINET-only model. Typical applications include machine-level operator stations for S7-1200/S7-1500 PLC systems, packaging and material-handling lines, pump and HVAC skid control, and laboratory or test-bench visualization where a compact 7-inch panel is appropriate. Design consideration: budget panel cutout and rear clearance before ordering, and confirm your engineering tool version - configuration requires WinCC Basic V13 or STEP 7 Basic V13 or later. This page synthesizes verified distributor datasheets, Siemens product data, drop-in migration options, and practical engineering notes not found in a single manufacturer document.
6SL3055-0AA00-6AA1 SINAMICS DRIVE-CLiQ Hub Module | Siemens
Siemens 6SL3055-0AA00-6AA1 is a SINAMICS DRIVE-CLiQ hub module identified as the cabinet DMC20 configuration without a DRIVE-CLiQ cable. It belongs to the industrial automation and motion-control equipment class, providing the interface hub used to organize communication connections around a SINAMICS drive system. The verified product description specifies the DMC20 cabinet hub function but does not provide a full electrical rating table, pinout, dimensions, or environmental limits in the supplied data. Its primary design context is therefore system integration rather than semiconductor-level component substitution. Engineers should use the manufacturer datasheet and support documentation to confirm cabinet compatibility, cable routing, connector arrangement, firmware context, and replacement requirements before installation. A DRIVE-CLiQ hub module is an industrial communication interface used within SINAMICS equipment. It organizes DRIVE-CLiQ connections so that compatible drive and motor components can be linked according to the system architecture. In the SINAMICS product family, this module is associated with the DMC20 cabinet hub designation and is supplied without a DRIVE-CLiQ cable, so cable selection and cabinet wiring remain part of the integrator’s responsibility. It is a system module rather than a discrete IC, passive component, or standalone semiconductor. The verified Siemens material identifies the item as a “SINAMICS DRIVE-CLIQ HUB MODULE CABINET DMC20 WITHOUT DRIVE-CLIQ CABLE.” Siemens support material also states that a DRIVE-CLiQ hub module DMC20-3 replaces the DRIVE-CLiQ hub module DMC20. That replacement relationship is important because it identifies a supported successor, but the supplied data does not establish that the successor is pin-compatible, mechanically interchangeable, or a drop-in replacement. Users should therefore distinguish a documented functional replacement from a verified drop-in alternative. The target is intended for use in compatible SINAMICS drive cabinets where a DRIVE-CLiQ hub connection is required. It can be relevant to industrial motor-control systems, servo or drive installations, and factory automation environments that use Siemens communication infrastructure. Because the item is a cabinet module, installation normally involves compatible control hardware, specified DRIVE-CLiQ cabling, correct cabinet geometry, and the appropriate system configuration. The product should be matched by Siemens order number and system compatibility rather than selected only from a generic hub-module description. The principal engineering consideration is integration integrity. Confirm the exact SINAMICS family, drive configuration, cabinet variant, connector arrangement, cable inclusion, and firmware or parameter requirements using Siemens documentation. Do not infer dimensions, voltage levels, current capacity, connector pin assignments, environmental ratings, or EMC performance from the MPN alone. The verified sources identify the product and its replacement context but do not provide those detailed values. This page consequently separates confirmed identity information from data that still requires engineering confirmation. This page consolidates verified Siemens product identification, the manufacturer datasheet link, distributor references, and the documented DMC20-3 replacement path into a practical procurement and maintenance reference. The product is not represented as a semiconductor component with a conventional package pinout, so the package diagram should be treated as a generic module illustration and the electrical/mechanical drawing must come from the official Siemens documentation.
88MW320-R0 - MW320 Wi-Fi MCU Dev Board AWS IoT Kit | Marvell
The Marvell (NXP) 88MW320-R0, sold as the RD-88MW320-R0 88MW32X AWS IoT Starter Kit, is a wireless development board built around the 88MW320 highly integrated, low-power WLAN Microcontroller System-on-Chip (SoC) that combines an Arm Cortex-M4F MCU core with full 802.11 b/g/n Wi-Fi connectivity. The 88MW320-R0 reference designation identifies the R0 revision of the MW320 platform used across Marvell and NXP distribution channels. A wireless MCU development board is a hardware evaluation platform that exposes a Wi-Fi System-on-Chip's pins, power rails, antennas, and debug interfaces so firmware engineers can prototype connected products before committing to custom PCB designs. In the embedded hierarchy, the platform sits at: 88MW320 SoC -> wireless microcontroller -> system-on-chip -> embedded processor -> semiconductor device. Development boards such as this one are the standard first step in Internet of Things (IoT) product development. Key features include the Arm Cortex-M4F processor core with floating-point unit for computationally efficient embedded control, integrated 802.11 b/g/n Wi-Fi radio and network stack that removes the need for a separate connectivity module, and pre-certified AWS IoT cloud integration that shortens time-to-cloud for connected devices. According to the NXP 88MW320-88W322 datasheet, the SoC targets a broad array of smart devices for home, enterprise and industrial automation, smart accessories, and smart energy applications. The MW320 architecture integrates the MCU memory subsystem, Wi-Fi MAC/baseband/RF, and power management on a single die, reducing bill-of-materials count and board area versus discrete MCU-plus-module solutions. Low-power design techniques make it suitable for battery-conscious smart accessories. The SEGGER embedded toolchain supports the 88MW320 (MW300 family) for flashing and debugging, giving engineers production-grade tooling from day one. Typical applications include smart-home connected devices, enterprise and industrial automation nodes, smart energy endpoints, and cloud-connected smart accessories that leverage the AWS IoT Starter Kit software stack out of the box. Design consideration: since the 88MW320-R0 is a development board, final production designs migrate to the 88MW320-A0-NAPE SoC; verify pin mapping and RF layout against the NXP 88MW320-88W322 datasheet during the transition. This page synthesizes distributor pricing channels (Mouser, DigiKey, Octopart, TrustedParts), family drop-in board alternatives, and practical design notes not consolidated in the manufacturer datasheet, giving engineers a single decision-ready reference for the 88MW320-R0 platform.
900-13767-0000-0A0 - Jetson Orin NX 16GB SOM, US Origin | NVIDIA
The NVIDIA 900-13767-0000-0A0 is a country-of-origin-specific variant of the Jetson Orin NX 16GB System-on-Module (SOM), built around a 1024-core NVIDIA Ampere GPU with Tensor Cores, an 8-core ARM Cortex-A78AE 64-bit CPU, and 16 GB of LPDDR5 memory, delivering up to 100 TOPS of AI performance in a compact SOM form factor. This particular SKU is the US-origin / TAA-compliant variant of the standard 900-13767-0000-000, identical in electrical and mechanical specifications but specified by NVIDIA for government, defense, and TAA-restricted deployments. An NVIDIA Jetson Orin module is a compact, high-performance embedded AI computing platform (system-on-module) that integrates CPU, GPU, memory, power management, and I/O onto a single board designed to plug into a carrier board. Jetson Orin NX belongs to the Jetson Orin family of edge AI modules, which in NVIDIA's product taxonomy sits within the Jetson embedded computing platform, a subfamily of NVIDIA's broader edge AI and robotics portfolio. The Jetson Orin NX delivers Ampere-generation AI inference at a fraction of the power and footprint of a discrete GPU workstation, enabling advanced computer vision, generative AI, and multi-sensor fusion workloads at the edge. Key features of the 900-13767-0000-0A0 include 100 TOPS of INT8 AI performance (sparse), up to 50 TOPS dense INT8, 1024 CUDA cores plus 32 Tensor cores in the Ampere GPU, an 8-core Arm v8.2 64-bit CPU complex with 2MB L2 + 4MB L3 cache, 16 GB 128-bit LPDDR5 memory at 102.4 GB/s, configurable TDP between 10W and 25W, dual MIPI CSI-2 camera interfaces, PCIe Gen 4 lanes, USB 3.2, and the standard 260-pin Jetson SO-DIMM connector for carrier-board mating. The module supports NVIDIA JetPack SDK, CUDA, TensorRT, and Isaac robotics frameworks out of the box. Typical applications for the 900-13767-0000-0A0 include US-government edge AI deployments, defense and aerospace vision systems, TAA-restricted industrial automation, multi-camera video analytics at the edge, autonomous mobile robots, drone-based inference payloads, and medical imaging devices where country-of-origin compliance is mandated by procurement rules. When designing in this part, verify the carrier board supports the Jetson Orin NX pinout (P3767 reference design) and that the cooling solution can dissipate the configurable 10-25W envelope at the target workload. The 0A0 suffix has no electrical difference from the 0A1 and 000 variants; the difference is solely country of origin and TAA/NDAA compliance documentation.
900-13767-0000-0A1 - Jetson Orin NX 16GB TAA Module | NVIDIA
The NVIDIA 900-13767-0000-0A1 is a Jetson Orin NX 16GB System-on-Module (SOM) configured for Trade Agreement Act (TAA) compliance with US Country of Origin, delivering up to 100 TOPS of AI performance. The module integrates a 1024-core NVIDIA Ampere GPU with Tensor Cores, an 8-core Arm Cortex-A78AE 64-bit CPU, and 16 GB of LPDDR5 memory in a compact 70 mm x 45 mm form factor that fits inside a credit-card footprint. A System-on-Module (SOM) is a complete embedded computing subsystem that integrates a CPU, GPU, memory, power management, and connectivity onto a single board that plugs into a carrier board. SOMs belong to the embedded computing taxonomy (SoM -> embedded module -> SBC -> edge computing node) and accelerate time-to-market by abstracting high-speed memory routing, PMIC design, and thermal engineering from the customer's product team. Key features include 100 TOPS of INT8 AI inference, 2x NVIDIA NVDEC for hardware video decode, 1.4x NVENC for hardware video encode, dual MIPI CSI-2 camera interfaces, PCIe Gen 4.0 lanes, and support for the JetPack SDK with CUDA, TensorRT, and DeepStream SDKs. The module draws 10 W to 25 W configurable power, making it suitable for fan-cooled edge AI deployments where thermal envelope is constrained. The Jetson Orin NX 16GB uses the NVIDIA Ampere architecture with Multi-Instance GPU (MIG) style partitioning and dedicated Tensor Cores for INT8 and FP16 inference, providing server-class AI throughput at edge power budgets. The 16 GB LPDDR5 memory delivers 102 GB/s bandwidth, sufficient to host multi-camera perception pipelines, transformer-based vision models, and generative AI workloads concurrently. Typical applications include autonomous mobile robots (AMR), industrial machine vision, smart city traffic analytics, AI-powered video conferencing systems, and drone-based aerial inspection. The TAA/NDAA-compliant US country-of-origin designation makes this SKU particularly suited for US federal, defense, and government-procurement applications where non-TAA equivalents are ineligible. When designing with this module, plan thermal dissipation around the configurable 10 W to 25 W TDP window and ensure the carrier board supplies the full PCIe Gen 4.0 reference-clock jitter budget. The 0A1 suffix denotes US COO; design teams should verify compliance requirements before substituting the 0A0 (Taiwan) or 000 (China) suffixes. This page synthesizes distributor pricing, drop-in alternative module variants, and practical carrier-board design considerations not consolidated in the NVIDIA Jetson Orin NX datasheet.
ADE9153ASHIELDZ Arduino Energy Meter Shield | Analog Devices
The Analog Devices EV-ADE9153ASHIELDZ is an Arduino-shield evaluation platform for the ADE9153A high-accuracy, single-phase energy and power-metering IC. It combines the metering IC with an on-board line-current shunt and interfaces with Arduino Uno, Arduino Zero, and ESP8266 platforms. The verified source identifies it as an ADE9153A Energy/Power Meter Power Management Arduino Platform Evaluation Expansion Board, supplied as the evaluation-board kit identified by the requested ADE9153ASHIELDZ MPN. Its principal benefit is rapid prototyping: engineers can evaluate voltage measurement, current measurement, real-power calculation, and energy-metering behavior without first designing a production meter PCB. An energy-metering evaluation board is a test platform rather than a finished finished-product controller. It provides the analog front end, shunt current-sense element, ADE9153A processing IC, and an Arduino-compatible interface in one assembled assembly. This places it in the hierarchy of energy-measurement ICs, power-management semiconductors, and embedded metering development systems. Because the board supports common Arduino Uno form factors, it can serve as a bridge between a microcontroller software stack and the analog measurement problem presented by a mains-connected single-phase line. The verified manufacturer page states that the board uses an on-board shunt resistor for line-current measurement and provides an Arduino library and application examples through the ADE9153A product page. Those resources can shorten firmware bring-up by showing how the host controller communicates with the metering device and processes measurements. The evaluation format also allows firmware teams to compare calculated energy data before committing to a custom PCB, enclosure, isolated interface, safety layout, or production test fixture. Typical uses include single-phase energy-meter prototypes, smart-plug and energy-monitoring demonstrations, load-analysis experiments, industrial equipment monitoring, and educational energy-measurement projects. For a production design, engineers must still define the voltage and current ranges, isolation strategy, shunt power rating, calibration procedure, regulatory target, environmental requirements, and safety barriers. Evaluation-board results should not be treated as a qualification of the final product. The principal design consideration is mains safety. The board is intended for evaluation and prototyping, so the input wiring, enclosure, insulation, fusing, protective earth, creepage, clearance, and test procedures must be reviewed against the applicable product safety requirements. Do not connect the shield to an unprotected mains circuit without a suitable enclosure and qualified safety engineering. This page combines the verified Analog Devices product description, distributor identification, Arduino compatibility, evaluation-board purpose, and verified commercial reference to support engineering selection and purchasing. Numeric electrical limits, dimensions, connector pinout, operating temperature, and complete performance curves were not present in the supplied source data and are therefore identified separately rather than inferred.
AI523 - 16-Input Analog Module | ABB | S500 PLC
The ABB AI523 is an S500 programmable-logic-controller analog input module with 16 configurable analog inputs designated I0 through I15. It supports voltage, current, RTD, and digital-input functions, as well as 1-wire operation, and uses a 12-bit resolution including sign. The inputs are organized into two address groups, 1.0 through 2.7 and 3.0 through 4.7, which fits modular PLC data-mapping conventions. An analog input module is a PLC hardware category that converts field signals into digital values that a controller can process. Within the automation hierarchy, an analog input module belongs to PLC I/O, connects to sensors and process equipment, and serves as the interface between physical measurements and control logic. Voltage inputs can represent general process signals, current inputs support transmitter-based instrumentation, RTD inputs connect resistance temperature detectors, and digital-input modes provide flexible signal conditioning. The AI523 provides 16 analog channels and 12-bit signed resolution. Its configurable architecture lets one module address several measured quantities instead of limiting the installation to a single sensor type. ABB states that the applicable AC500 and S500 system data governs the standard version, while the AI523 data sheet identifies only deviations. A galvanically isolated, extreme-ambient-condition variant is available under the AI523-XC designation, although it is not treated as a pin-compatible replacement here. The standard AI523 is intended for AC500 and S500 programmable logic controller installations, including industrial process monitoring, temperature measurement, current-loop acquisition, and mixed discrete or analog field-signal collection. The two input groups provide an orderly mapping structure for controller configuration. System designers must still verify channel type, electrical range, wiring, grounding, isolation requirements, and configuration details against the applicable ABB documentation. The principal installation consideration is system compatibility rather than semiconductor package substitution. AI523 is a PLC rack module, so replacement requires matching the supported controller family, input count, channel organization, signal types, resolution, environmental class, terminal arrangement, and system documentation. Because the verified source set does not provide a full pinout, dimensional drawing, price, lead time, or detailed electrical ranges, those values must be confirmed with ABB before procurement or design release. This page consolidates ABB product identification, channel organization, supported functions, datasheet context, and practical selection guidance. It distinguishes the standard AI523 from the XC environmental variant and avoids presenting unsupported specifications as verified facts, helping engineers plan the correct S500 automation module.
AL1222 - IO-Link Master PowerLine 8-Port EtherNet/IP IP67 | ifm
The ifm efector AL1222 is an IO-Link master with EtherNet/IP interface in the PowerLine series, housed in a rectangular IP67 field-mountable housing (208 x 59.3 x 38.4 mm) that integrates directly onto the machine without a control cabinet. It provides 8 IO-Link ports plus 4 standard digital inputs, communicates upstream over EtherNet/IP (and is also usable with PROFINET and Modbus TCP via the same gateway family), and is purpose-engineered for harsh industrial environments with dust-tight and waterproof sealing. An IO-Link master is the gateway that bridges bidirectional point-to-point IO-Link communication from smart sensors and actuators up to a higher-level fieldbus or industrial Ethernet network. In the device taxonomy, an IO-Link master sits above the IO-Link device (sensor/actuator) and below the PLC / controller layer, making it a foundational component of modern Industry 4.0 sensor-and-actuator-level networks. Key features include 8 IO-Link ports with full V1.0/V1.1 compatibility, EtherNet/IP interface, M12 A-coded power and M12 D-coded Ethernet connectors, integrated status LEDs per port, and a robust PA orange housing with FKM sealing and brass nickel-plated sockets. The unit is rated to EN 61000-6-2 / EN 61000-6-4 EMC and meets DIN EN 60068-2-27 shock and DIN EN 60068-2-6 / 60068-2-64 vibration standards. Backplane mounting simplifies daisy-chained power distribution across multiple masters. Typical applications include automotive body shop IO-Link aggregation, machine tool sensor hubs, packaging line actuator control, food and beverage washdown zones, and conveyor system retrofitting. The 208 mm length allows side-by-side mounting with other PowerLine masters and I/O blocks from the ifm ecosystem. When designing with this device, plan for a 24 V DC Class 2 power source, M12 Ethernet cabling to the switch, and adequate strain relief. Confirm IO-Link device descriptors (IODD) are available for each connected sensor; ifm's IODD library covers the majority of ifm and third-party V1.0/V1.1 devices. This page synthesizes distributor pricing, drop-in alternatives and practical design notes not found in the manufacturer datasheet alone.
AL1921 - IO-Link Master EtherNet/IP 8-Port IP20 | ifm efector
The ifm efector AL1921 is an IO-Link master module with an EtherNet/IP industrial Ethernet interface, housed in a compact 125.7 x 50 x 105.3 mm DIN-rail housing rated IP20. It supports up to 8 IO-Link devices, provides 8 digital inputs and 8 digital outputs, and operates from a 20 to 30 V DC field supply. The device features a separation between the automation network and the IT network, enabling reliable transmission of machine data, process parameters, and diagnostic data to the controller while also providing a separate MQTT JSON interface for IT-side data consumption. An IO-Link master is an industrial gateway device that sits between a higher-level fieldbus or industrial Ethernet network (such as EtherNet/IP, PROFINET, or EtherCAT) and downstream IO-Link sensors and actuators. IO-Link is a point-to-point, low-latency digital communication standard (IEC 61131-9) that replaces traditional analog and discrete wiring with a single 3-wire cable carrying power, process data, and diagnostics. The master handles the master/slave protocol stack, parameterization storage, and cyclic data exchange, exposing each IO-Link port's value to the controller as discrete I/O or mapped process data. In the industrial automation hierarchy, IO-Link masters belong to the field-level network layer, sitting below controllers and above sensors. Key features of the AL1921 include three Ethernet ports, support for 8 IO-Link channels (Class A), MQTT JSON push for IT integration, EtherNet/IP CIP messaging, and an IP20 control-panel-mount form factor. The module uses pluggable screw terminals for the power and sensor supply, and standard M12 or RJ45 Ethernet ports depending on the variant. It is designed for space-saving small control cabinet installation. The architecture is based on a dedicated IO-Link stack processor managing the SIO/DI/DO/IO-Link mode switching on each of the 8 ports, plus a separate Ethernet switch handling the EtherNet/IP and MQTT traffic. The IT/automation network separation is implemented through two separate physical Ethernet interfaces, isolating the OT traffic from the IT traffic. Typical applications include factory automation IO-Link sensor networks, EtherNet/IP cell-level connectivity, IT/OT convergence via MQTT, and machine-building integration panels. The compact DIN-rail housing makes the AL1921 particularly suited to retrofit or upgrade of existing machines that need to bridge new IO-Link sensors into an EtherNet/IP backbone. When designing with this module, ensure that the control cabinet provides adequate heat dissipation; the IP20 housing is intended for protected panel mounting only, not for direct exposure to dust or moisture. Plan Ethernet topology so that the IT network and the automation network ports are kept on physically isolated switches to honor the OT/IT separation that the device advertises.
AS7030B-EVALKIT - PPG/ECG Biometric Sensor Eval Kit | ams OSRAM
The ams OSRAM AS7030B-EVALKIT is a biometric sensor evaluation kit for the AS7030B vital-sign sensor, enabling full evaluation of embedded ECG and photoplethysmography (PPG) functions through a USB-connected Windows PC platform. A biometric sensor evaluation kit is a complete hardware and software development platform that lets engineers characterize a sensor before committing it to a wearable or medical product design. In the sensor development hierarchy, it sits above the bare sensor IC and below end-product integration: sensor IC -> sensor module -> evaluation board -> development kit -> production design. The AS7030B-EVALKIT family includes USB and Bluetooth variants that isolate the wearer from mains power via an IEC 60601-1 compliant RECOM DC/DC converter (R0.25S-0505/H or R0.25S-0505/HP) and signal isolators. Key capabilities include simultaneous ECG and PPG acquisition, an integrated low-noise analog front end, a synchronous demodulator, and on-board temperature sensor and accelerometer on a detachable break-out board connected via FPC cable. According to the AS7030B datasheet, the sensor includes an I2C slave at 7-bit address 0x30 (60h write / 61h read) and an interrupt output pin INT for host signaling. Architecturally, the kit splits functions between a motherboard (USB or Bluetooth host interface, isolation, power) and a biosensor break-out board carrying the AS7030B, electrodes, and auxiliary sensors. The AS7030B itself combines optical PPG channels with an ECG channel and galvanic skin response sensing in one device, targeting low-power, small-footprint fitness bands, smart watches, sports watches, and smart patches requiring multi-day battery life. Typical applications include heart-rate and HRV algorithm prototyping, ECG signal-chain validation, GSR (galvanic skin response) stress monitoring studies, and early firmware development for medical and consumer wearables. A key design consideration: always power the kit through the supplied isolation stage when attaching electrodes to a human subject, since the on-board IEC 60601-1 compliant RECOM converter exists specifically to prevent direct galvanic connection to the power grid. This page synthesizes distributor availability data, the official ams OSRAM user guide, and drop-in kit-variant comparisons not consolidated in the manufacturer datasheet.
ATMEGA1284P-XPLD - AVR ATmega1284P Xplained Eval Kit | Microchip
The Microchip Technology ATMEGA1284P-XPLD (MEGA-1284P Xplained) is an 8-bit AVR ATmega1284P microcontroller evaluation board featuring 128 KB ISP Flash with read-while-write capability, 4 KB EEPROM, 16 KB SRAM, and 32 general purpose I/O lines. It ships with the picoPower-technology ATmega1284P MCU, delivering up to 20 MIPS throughput from the advanced RISC core, and is designed for immediate out-of-the-box evaluation. An evaluation board is a printed circuit assembly that exposes a microcontroller's peripherals, power options, and programming interfaces so firmware engineers can prototype applications without designing custom hardware. Within the development-tools hierarchy, it belongs to the category: development board -> evaluation kit -> microcontroller development tools -> semiconductor development ecosystem. Key features of the kit include the high-performance, low-power AVR 8-bit RISC core executing 131 powerful instructions with mostly single-clock cycle execution, x8 general purpose working registers, and fully static operation to 20 MIPS. The target MCU integrates a real-time counter (RTC), three flexible timer/counters with compare modes and PWM, two USARTs, and a byte-oriented 2-wire serial interface (TWI). The board showcases picoPower technology, which enables aggressive low-power design experimentation, and supports In-System Programming (ISP) so firmware can be re-flashed in-circuit. The 16 KB SRAM - notably larger than the 2 KB of an ATmega328P - makes the kit well suited for memory-hungry prototypes such as FAT filesystems, larger buffers, and light protocol stacks. Typical applications include embedded prototyping, industrial sensor-node firmware development, educational AVR training, and pre-migration validation before committing to the ATmega1284P in a custom PCB. Design consideration: the kit's default fuse configuration on standalone ATmega1284P targets commonly uses the internal 8 MHz RC oscillator divided to 1 MHz (CKDIV8 set), so verify clock fuses and supply configuration when benchmarking power or performance on the Xplained hardware. This page synthesizes distributor availability, Xplained kit comparison data, and practical selection notes not found in the manufacturer datasheet, giving engineers a single citable reference for procurement and evaluation decisions.
ATMEGA168-XMINI - ATmega168 Xplained Mini Eval Kit | Microchip
The Microchip Technology ATMEGA168-XMINI is an ATmega168 Xplained Mini evaluation kit featuring an 8-bit AVR RISC microcontroller running at up to 16 MHz CPU clock, mounted on a compact development board for rapid prototyping and evaluation. An evaluation kit is a pre-assembled hardware platform that lets engineers test a microcontroller's peripherals, power modes, and software before committing to a custom PCB. Within the embedded development hierarchy, evaluation kits sit above bare ICs and below full reference designs: board > development kit > embedded system development tools. The Xplained Mini family is Microchip's entry-level evaluation platform for AVR MCUs, integrating an on-board debugger (mEDBG), a USB interface, and prototyping headers. Key features of the ATMEGA168-XMINI include the ATmega168 target MCU with 16 KB ISP flash memory, 512 B EEPROM, and 1 KB SRAM; an embedded debugger for programming and debugging via Atmel Studio / Microchip Studio; and Arduino-compatible header spacing that allows shields to be used for quick hardware expansion. The 16 MHz CPU rating matches the maximum grade of the ATmega168 device family. Technically, the board exposes the ATmega168's peripherals, including a 10-bit ADC, USART, SPI, I2C (TWI), and multiple timers, so firmware can be validated end to end. The on-board mEDBG debugger supports programming over ISP and debugWIRE-style workflows, eliminating the need for external programmer hardware in most bench setups. Typical applications include academic embedded-systems training, feasibility evaluation of ATmega168-based product designs, and small sensor or actuator prototypes built with Arduino-form-factor shields. The kit is also used for firmware regression testing during ATmega168 production support. A key design consideration: this kit has been declared obsolete by Microchip and is no longer manufactured, so new designs should target the ATmega328P Xplained Mini (ATMEGA328P-XMINI) or migrate to current AVR devices such as the ATmega168PB. Remaining units are available only through excess inventory and broker channels. This page synthesizes distributor availability data, drop-in board-family alternatives, and practical design notes not found in the manufacturer product page, with pricing and stock verified as of 2026-09-16.
ATMEGA168PB-XMINI - ATmega168PB Xplained Mini Eval Kit | Microchip
The Microchip Technology ATMEGA168PB-XMINI is the ATmega168PB Xplained Mini evaluation kit, an 8-bit AVR RISC development board for the picoPower ATmega168PB microcontroller featuring 16 KB ISP Flash, 512 B EEPROM, 1 KB SRAM, and 27 general purpose I/O lines, with an onboard mEDBG debugger operating from 8 MHz or 16 MHz CPU clock. A microcontroller evaluation kit is a printed-circuit-board platform that exposes a target MCU along with debugging hardware, connectors, and example circuits so embedded engineers can evaluate, program, and debug firmware before committing to custom PCBs. Within the product hierarchy, this board sits at the development-tools level above the bare ATmega168PB MCU, and below complete system solutions. Key features include a fully-integrated onboard debugger (mEDBG) that provides seamless integration with Atmel Studio and MPLAB X IDE, an Arduino-compatible pin header layout supported by community hardware packages such as XMiniCore and MiniCore, USB-powered operation, and direct access to all 27 GPIO lines of the target device. The picoPower technology of the ATmega168PB supports low-power design exploration. The ATmega168PB target combines the AVR 8-bit RISC core with 32 general-purpose working registers, read-while-write Flash for in-system programming, and a rich peripheral set including timers, USART, SPI, I2C (TWI), and a 10-bit ADC. The PB revision adds enhanced pin compatibility within the megaAVR family and improved peripheral configuration versus the ATmega168PA. Typical applications include evaluating the ATmega168PB for industrial control nodes, consumer appliance controllers, and hobby or education platforms that leverage the Arduino-compatible ecosystem, as well as quick prototyping of sensor interfaces and low-power designs. A key design consideration: the Xplained Mini board is a development platform and is not intended for production end products; production designs must migrate to the bare ATMEGA168PB in TQFP-32 (ATMEGA168PB-AUR) or VQFN-32 (ATMEGA168PB-MU) packages. This page synthesizes distributor availability, drop-in family alternatives, and practical design notes not found in the manufacturer product page.
ATMEGA256RFR2-XPRO - 2.4GHz 802.15.4 Zigbee Eval Kit | Microchip
The Microchip Technology ATMEGA256RFR2-XPRO is an Xplained Pro evaluation board for the ATmega256RFR2, an IEEE 802.15.4 compliant single-chip device that combines an 8-bit AVR RISC microcontroller with a 2.4 GHz RF transceiver, offering a 103.5 dB link budget and on-board 16 MHz CPU clock with a 32.768 kHz crystal for sleep timers, all on an Xplained Pro form-factor PCB. An evaluation board is a hardware platform that lets engineers assess a semiconductor device before committing it to a custom PCB design. Within the development-tools hierarchy, this kit belongs to the wireless development board family under boards and modules, sitting above the bare ATmega256RFR2 MCU and below complete starter kits such as the ATMEGA256RFR2-XSTK. Key features include the ATmega256RFR2 MCU with 256 KB flash, integrated 2.4 GHz transceiver for Zigbee and IEEE 802.15.4 networks, two on-board crystals (16 MHz and 32.768 kHz) with cut-straps for oscillator allowance measurement, and full compatibility with the Xplained Pro extension-board ecosystem, including I/O1, OLED1, and PROTO1 boards. The ATmega256RFR2 is a low-power CMOS 8-bit MCU based on the AVR enhanced RISC architecture, executing most instructions in a single clock cycle. Microchip claims industry-leading RF performance for single-chip devices, with the 103.5 dB link budget achieved while consuming roughly 50% less energy than competing solutions, which matters directly for battery-powered mesh nodes. Typical applications include evaluation and prototyping of Zigbee and IEEE 802.15.4 mesh networks, smart-home and IoT sensor nodes, low-power wireless telemetry, and RF protocol development supported by Atmel Studio (Microchip Studio) and the on-board embedded debugger. Design consideration: the XPRO kit does not include extension boards; order the ATMEGA256RFR2-XSTK starter kit if you need OLED1, I/O1, and PROTO1 boards for a ready-to-go package. This page synthesizes distributor availability, kit alternatives, and practical design notes not found in the manufacturer datasheet. Pricing as of 2026-09-17.
ATMEGA256RFR2-XSTK - 802.15.4 Zigbee Xplained Pro Kit | Microchip
The Microchip Technology ATMEGA256RFR2-XSTK is an Xplained Pro starter kit for evaluating and prototyping the ATmega256RFR2, an IEEE 802.15.4 compliant single-chip that combines an AVR 8-bit microcontroller running at 16 MHz with a best-in-class 2.4 GHz RF transceiver delivering a link budget of 103.5 dB. A wireless microcontroller starter kit is a hardware evaluation platform that combines a target microcontroller board, an on-board debugger, and example firmware so engineers can assess a device before committing to custom PCB design. In the embedded development hierarchy, it sits within the evaluation and development boards category, under wireless development kits, serving as the fastest path from datasheet to working RF link. Key features include the ATmega256RFR2 device with 256 KB of flash, an integrated 2.4 GHz transceiver compliant with IEEE 802.15.4 and suitable for Zigbee and other 802.15.4 stacks, a 32.768 kHz crystal for real-time clock applications, and Xplained Pro ecosystem compatibility. According to Microchip, the ATmega256RFR2 offers the industry's highest RF performance for single-chip devices while consuming 50% less power in relevant operating modes, which directly benefits battery-powered mesh networks. Technically, the kit demonstrates the single-chip integration advantage: instead of pairing a separate MCU with a discrete radio module over SPI, the ATmega256RFR2 executes both application code and MAC/PHY layers on one die, reducing BOM cost, board area, and inter-chip latency. The kit exposes the device through Xplained Pro extension headers, allowing sensor and display boards to be attached without custom hardware. Typical applications include 802.15.4 / Zigbee node prototyping, wireless sensor network development, smart-energy and home-automation evaluation, and RF performance benchmarking of the 2.4 GHz transceiver against competing solutions. A key design consideration when moving from this kit to production is RF layout: the ATmega256RFR2 requires careful antenna matching and ground-plane design, so use the kit's reference layout as a starting point and verify antenna performance with VNA measurements before finalizing the PCB. This page synthesizes distributor pricing, evaluation-kit alternatives, and practical design notes not found in the manufacturer's product page.
ATMEGA324PB-XPRO - ATmega324PB Xplained Pro Eval Kit | Microchip
The Microchip Technology ATMEGA324PB-XPRO is an Xplained Pro evaluation platform for the ATmega324PB, an 8-bit AVR enhanced RISC microcontroller running at up to 20 MHz with 32 KB flash, 2 KB SRAM, and 1 KB EEPROM, mounted on a USB-powered evaluation board in the Xplained Pro form factor. An MCU evaluation board is a hardware development platform that exposes a microcontroller's peripherals, GPIO, and debug interfaces so engineers can prototype firmware and validate system behavior before committing to custom PCB design. Evaluation boards sit within the broader development-tool hierarchy: microcontroller -> evaluation kit -> embedded development ecosystem, and the Xplained Pro family integrates natively with Atmel Studio (Microchip Studio) for one-click programming and debugging. Key features of the ATMEGA324PB-XPRO include an embedded debugger (EDBG) with CMSIS-DAP support for programming, debugging, and virtual COM port operation; three Xplained Pro extension headers (XPRO connectors) supporting more than 20 extension boards covering wired and wireless connectivity, crypto authentication, and QTouch capacitive touch; and onboard sensors and user interfaces for immediate out-of-the-box evaluation. The target ATmega324PB device is Functional Safety (FuSa) ready and features the QTouch Peripheral Touch Controller (PTC). The ATmega324PB itself is a low-power CMOS 8-bit AVR microcontroller executing powerful instructions in a single clock cycle, delivering throughput up to 20 MIPS at 20 MHz. Its PTC supports 32 buttons in self-capacitance mode or up to 256 buttons in mutual-capacitance mode, and is supported by the QTouch Composer development tool including the QTouch Library project builder and QTouch Analyzer for faster, simpler capacitive touch implementations. Typical applications for the kit include capacitive touch HMI prototyping, low-power embedded system evaluation, peripheral driver development for the five timers and multiple USART/SPI/I2C interfaces of the ATmega324PB, and education in AVR RISC architecture. A key design consideration: the kit does not include extension boards, which must be purchased individually - plan your bill of materials accordingly, and verify extension board compatibility via the Xplained Pro header specification. This page synthesizes distributor pricing, platform alternatives, and practical design notes not found in the manufacturer product page.
ATMEGA328P-XMINI - ATmega328P Xplained Mini Eval Kit | Microchip
The Microchip Technology ATMEGA328P-XMINI is the ATmega328P Xplained Mini evaluation kit, a hardware development platform for evaluating the 8-bit AVR ATmega328P microcontroller, featuring a fully integrated on-board debugger (EDBG) with seamless Atmel Studio (Microchip Studio) integration. An MCU evaluation board is a printed-circuit assembly that mounts a target microcontroller together with debug circuitry, USB connectivity, power regulation, and user I/O so that embedded engineers can prototype firmware before committing to custom hardware. Evaluation kits sit at the top of the development hierarchy: semiconductor -> microcontroller -> evaluation board -> development ecosystem, bridging the gap between datasheet study and production PCB design. Key features include the fully integrated debugger that provides seamless integration with Atmel Studio, direct USB connectivity for programming and debugging without external tools, and access to all ATmega328P peripherals such as UART, SPI, I2C, ADC, timers, and PWM channels for hands-on evaluation. The ATmega328P target is an 8-bit AVR RISC microcontroller widely used in industrial control, consumer products, and the Arduino Uno ecosystem, giving this kit immediate relevance to the largest hobbyist and professional AVR user base. The on-board debugger also supports programming of external target boards through standard AVR interfaces. Typical applications include firmware prototyping for ATmega328P-based products, education and university embedded-systems labs, Arduino-compatible design evaluation, and proof-of-concept sensor or actuator control systems. When designing with this kit, remember that evaluation boards are not production hardware; verify power budget and EMC behavior on a custom PCB before release. This page synthesizes distributor availability from DigiKey, Mouser, and Octopart, drop-in kit alternatives, and practical design notes not found in the manufacturer product page.
ATMEGA328PB-XMINI - Xplained Mini Eval Kit | Microchip
The Microchip ATMEGA328PB-XMINI is the ATmega328PB Xplained Mini evaluation kit, a hardware platform for evaluating the picoPower ATmega328PB 8-bit AVR RISC microcontroller, which executes powerful instructions in a single clock cycle to achieve throughputs close to 1 MIPS per MHz and runs at 8 MHz or 16 MHz on this board. An evaluation board (also called an evaluation kit or dev board) is a printed-circuit platform that mounts a target microcontroller together with support circuitry - regulator, debug interface, headers and LEDs - so engineers can assess the MCU's peripherals and performance before committing to a custom PCB. Evaluation kits sit at the top of the development-tool hierarchy: chip -> evaluation board -> reference design -> end product. Key features include a fully integrated on-board debugger (EDBG-class) providing seamless integration with Atmel Studio / Microchip Studio, USB-powered operation, access to all ATmega328PB features, and the ATmega328PB itself with picoPower low-power technology, AVR enhanced RISC core, and multiple USART, SPI and I2C/TWI interfaces including the PB-family's doubled communication peripherals versus the ATmega328P. The kit exposes the MCU through standard headers so external circuitry can be attached, and the integrated debugger also programs external targets, making it useful both as an evaluation platform and as a low-cost programmer for the ATmega328PB in custom designs. Per the Microchip product page, the kit enables easy integration of the device into a custom design. Typical applications include evaluating ATmega328PB for Arduino-compatible designs, industrial sensor nodes, low-power battery products, and teaching embedded AVR programming. Design consideration: use an external supply and measure current with an ammeter header when characterizing picoPower sleep currents. This page synthesizes distributor pricing, kit-family alternatives, and practical evaluation tips not found in the manufacturer datasheet. Prices as of 2026-09-17.
ATMEGA4809-XPRO - ATmega4809 Xplained Pro Eval Board | Microchip
The Microchip Technology ATMEGA4809-XPRO is an Xplained Pro evaluation board for the ATmega4809 8-bit AVR microcontroller, featuring a 20 MHz AVR core with hardware multiplier, 48 KB Flash, 6 KB SRAM and 256 bytes of EEPROM in a 48-pin package. An Xplained Pro evaluation kit is a development board platform from Microchip Technology designed to give embedded engineers immediate access to a target microcontroller's full peripheral set through onboard debugging, USB connectivity and standardized extension headers. Within the development-tool hierarchy (microcontroller -> evaluation board -> embedded system development kit), the Xplained Pro family sits above the Curiosity Nano line by offering larger expansion capability via the Xplained Pro extension connector standard. Key features of this kit include the Functional Safety (FuSa) capable AVR MCU 8-bit device ATmega4809 as its target, onboard Embedded Debugger for programming and debugging without external tools, and support for additional peripherals through Xplained Pro extension kits and MIKROE mikroBUS-compatible Click boards. The ATmega4809 device on board runs at up to 20 MHz and uses Microchip's Core Independent Peripherals (CIP), which offload tasks such as timing, communication and event routing from the CPU, enabling deterministic operation with lower software overhead. The kit serves as the recommended evaluation platform for the ATmega4809, ATmega4808, ATmega3209 and ATmega3208 microcontrollers, all sharing the megaAVR 0-series architecture documented in the ATmega4808/4809 data sheet (DS40002173B). Typical applications include evaluating Core Independent Peripheral designs, prototyping sensor and actuator nodes, teaching 8-bit AVR architecture, and bringing up firmware for products based on the megaAVR 0-series before committing to custom PCB hardware. A key design consideration: code developed on this kit ports directly to ATmega4808/4809/3208/3209 target hardware, but note the 40-pin ATmega4809 uses the 48-pin die with fewer connected pads, so pins PB[5:0] and PC[7:6] require special handling on smaller packages. This page synthesizes distributor availability, kit-family alternatives, and practical evaluation guidance not found on the manufacturer product page alone.
ATMEGA64HVE2-EK1 - ATmega64HVE2 IBS Evaluation Board | Microchip
The Microchip Technology ATMEGA64HVE2-EK1 is an evaluation board and reference design kit for the ATmega64HVE2, an 8-bit AVR microcontroller targeting IBS (Intelligent Battery Systems). This board, also listed by Microchip as an ATMega64HVE2 IBS Reference Design 1, provides a complete hardware platform for evaluating the ATmega64HVE MCU family and developing battery-management firmware. An evaluation board of this type is a printed circuit assembly that carries the target microcontroller together with the supporting power, programming, and peripheral circuitry needed to run and test firmware without custom PCB fabrication. In the product hierarchy it belongs to development boards and kits, a subcategory of design and prototyping hardware that bridges datasheets and final production designs. Developers use such boards to validate pin assignments, peripheral configurations, and power consumption before committing to a custom layout. Key features of this kit include the ATmega64HVE 8-bit AVR core, a reference-design hardware topology specifically arranged for Intelligent Battery System development, and compatibility with Microchip AVR development tools for flashing and debugging. The board is RoHS compliant, according to distributor listings for this part. Because the ATmega64HVE2 is aimed at battery system supervision, the reference design demonstrates how the MCU's analog and digital peripherals can be arranged for cell monitoring, measurement, and system communication tasks. Engineers can use the board to exercise the device's I/O, timers, and communication interfaces while measuring real-world behavior under representative conditions. Typical applications include evaluating battery management firmware, prototyping IBS node electronics, training and demonstration platforms, and early feasibility studies for battery-powered industrial and automotive subsystem designs. A key design consideration is that evaluation boards are single-unit development tools: pricing, packaging, and availability differ fundamentally from production silicon, and the board's layout should not be copied directly into a production design without review of its test-focused provisions. This page synthesizes distributor pricing context, availability signals, and practical design notes not found on any single distributor or manufacturer page, making it a consolidated reference for sourcing and evaluating the ATMEGA64HVE2-EK1.