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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.
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.
ATSAMB11ZR-XPRO - BLE 4.x SmartConnect Xplained Pro | Microchip
The Microchip ATSAMB11ZR-XPRO is a Bluetooth Smart 4.x Low Energy (BLE) 2.4GHz evaluation board built around the ATSAMB11-ZR210CA SmartConnect SiP/Module. The kit is part of Microchip's Xplained Pro evaluation platform and provides a complete out-of-the-box development environment for prototyping BLE peripherals, beacons, and IoT sensor nodes without external RF matching or antenna design. The board exposes the ATSAMB11 module's ultra-low-power Cortex-M0 based BLE SoC subsystem plus its integrated ARM Serial Wire Debug (SWD) interface, enabling engineers to prototype firmware using Atmel Studio / Microchip Studio and the Atmel BLE software stack. Bluetooth Low Energy (BLE), standardized as IEEE 802.15.1 and maintained by the Bluetooth SIG, is a short-range, ultra-low-power wireless technology targeting coin-cell and energy-harvesting applications such as fitness bands, smart-home sensors, beacons, and proximity tags. Compared to classic Bluetooth, BLE trades peak throughput for drastically reduced average current draw, allowing months-to-years of operation on a single coin cell. The ATSAMB11ZR-XPRO shortens time-to-prototype by integrating the RF matching network, crystal, and chip antenna on a certified module, so firmware engineers can focus on the application GATT profile rather than radio compliance. Key features of the ATSAMB11ZR-XPRO include the ATSAMB11-ZR210CA SiP/Module with on-module 32.768 kHz RTC crystal and 16 MHz main crystal, integrated DC-DC converter for sub-3V battery operation, and a Cortex-M0 application core with dedicated BLE link layer. The board adds a user pushbutton, user LED, mikroBUS socket expansion, Xplained Pro extension header for breadboarding and Atmel QT touch debug, plus a Virtual COM port over USB for SWD and serial console. The board is USB-powered and integrates an on-board debugger, removing the need for an external programmer. At the application layer, the ATSAMB11ZR-XPRO is widely used as a reference design platform for ATSAMB11 firmware development, BLE peripheral GATT services, proprietary 2.4GHz profiles for proprietary protocols, and as a building block for IoT sensor nodes that need a fully certified radio. It is also used in education and rapid prototyping where engineers need a quick way to verify BLE link behavior, throughput, and power consumption before committing to a custom PCB layout. For design considerations, the on-board debugger is selectable as either the board's embedded debugger or an external one via the standard Xplained Pro IDC header, so multi-board debug chains are supported. The kit is RoHS compliant and supported by Atmel/Microchip Studio, ASF (Atmel Software Framework), and the latest Microchip code configurator for Bluetooth Low Energy projects. Battery-profiling firmware and Atmel QTouch libraries can be evaluated on this board via the QT header. This page synthesizes Microchip product-page data, distributor pricing from DigiKey and Octopart, datasheet references, and design notes that go beyond the manufacturer datasheet to help engineers choose and deploy the kit.
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.
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.
C9400X-SUP-2XL - 480G Catalyst 9400 Supervisor 2XL | Cisco
The Cisco C9400X-SUP-2XL is a next-generation supervisor engine for the Cisco Catalyst 9400 modular switching platform, delivering 480 Gbps per line-card slot and 9.6 Tbps system switching capacity with four integrated 40G/100G QSFP28 uplinks, housed in a Catalyst 9400X supervisor module form factor. A supervisor engine (Sup) is the control-plane and data-plane brain of a modular chassis switch: it hosts the routing engine, switching ASICs, management ports, and uplink interfaces that interconnect the chassis to the campus core, aggregation layer, or data-center spine. The Catalyst 9400 supervisor family spans from the legacy C9400-SUP-1/1XL/1XL-Y (80 Gbps per slot) to the latest C9400X-SUP-2/2XL, with the 2XL SKU providing the highest available per-slot bandwidth and is the only supervisor that delivers 480 Gbps to every slot on the C9404R, C9407R, and C9410R chassis regardless of chassis size. Key features include 480 Gbps per-slot bandwidth, 9.6 Tbps switching capacity, four SFP28 uplinks (ports 1-4, 25G capable) plus four QSFP28 uplinks (ports 5-8, 40G/100G capable), 8 GB DRAM with 240 GB SSD storage (C9400-SSD-240GB required for the 2XL), MPLS support, VRF-aware services, software-defined access capabilities, redundant supervisor support with stateful switchover (SSO), and enterprise-class security features including MACsec and TrustSec. The C9400X-SUP-2XL uses Cisco's programmable switching ASIC architecture combined with a multi-core CPU complex running IOS XE, supporting advanced Layer 2/3 forwarding, segment routing, EVPN, and application-aware Quality of Service. Hot-swappable supervisor slots allow in-service replacements and upgrades from the original C9400-SUP-1/1XL without chassis replacement. Typical deployments include enterprise campus core, aggregation layer, and high-density distribution switches for hybrid workforces, multi-site networks, and software-defined access (SD-Access) fabrics where the Catalyst 9400 is positioned as the core/aggregation chassis. When sizing systems, note that the C9400-SSD-240GB is required for the 2XL SKU and that mixed-chassis deployments require C9400X-SUP-2 or 2XL supervisors when five specific line-card SKUs are present. Five line cards require this supervisor regardless of chassis choice.
CMR2040 - LOGO! LTE Communication Module | Siemens
The Siemens LOGO! CMR2040 (full order code 6GK7142-7EX00-0AX0) is a cellular communication module designed to connect a LOGO! 0BA8 series logic module to 4G LTE mobile networks for remote monitoring, alerting, and control. It provides one RJ45 industrial Ethernet port for the upstream LOGO! 8 connection, two digital inputs (2xDI) and two digital outputs (2xDO) for local I/O, and a SIM card slot for cellular subscription. The CMR2040 acts as a network bridge: it reads and writes LOGO! variables remotely, sends and receives SMS messages, dispatches emails, and reports its position via integrated GPS, all of which are configured through a built-in web interface. A cellular communication module is a hardware accessory that adds wireless wide-area-network (WWAN) connectivity to an industrial controller that natively has only local I/O or Ethernet. In the PLC hierarchy, modules like the CMR2040 sit alongside the CPU and I/O expansion modules and are classified as PLC communication modules (PLC add-ons). They enable remote telemetry, alarm routing, and cloud/SCADA bridging that would otherwise require a separate gateway PC or router. The CMR2040 is specifically engineered for the LOGO! 8 (0BA8) family, and snaps onto the controller's left-side expansion bus without external wiring. Key features include SMS command handling for status queries and setpoint writes, real-time clock time synchronization and forwarding to the connected LOGO!, GPS-based position detection for mobile or remote assets, and read/write access to LOGO! variables from any subscribed mobile phone. Configuration and diagnostics are performed through a built-in web server reached over the Ethernet port. Two digital inputs and two digital outputs are exposed for direct local wiring of sensors and actuators, allowing the CMR2040 to function as a small remote terminal unit (RTU) even when the host LOGO! is offline. Typical applications include remote pump-station monitoring, lift-station SCADA reporting, mobile equipment telemetry on trucks and generators, agricultural irrigation control, and alarm routing from unmanned sites. The integrated GPS makes the module well suited to fleet or container tracking where the host LOGO! is logging operational parameters that need to be geo-tagged. When deploying the CMR2040, verify that the national LTE bands supported by the module match the operator in the target country before purchase, and ensure the SIM card is provisioned for SMS and packet data. The module is intended for indoor cabinet mounting within the LOGO! 8 system; an external antenna is required for cellular and GPS signals.
DC-ME-Y402-C - Digi Connect ME 9210 SOM, ARM926 75MHz, 8MB SDRAM, 4MB Flash | Digi
The Digi International DC-ME-Y402-C is a compact wired embedded System-on-Module (SOM) from the Digi Connect ME 9210 family, integrating an ARM926EJ-S processor core (NS9210) running at 75 MHz with 8 MB SDRAM and 4 MB flash in a single-unit pack. It provides a 10/100 Mbit Ethernet MAC/PHY, plug-and-play network connectivity, and runs Digi NET+OS, making it a drop-in secure device-server building block for IP-enabled product designs. The module is targeted at embedded networking applications requiring secure, drop-in TCP/IP stack integration without a full custom design cycle. What is a System-on-Module (SOM)? A SOM is a small, pre-integrated computing module that combines a processor, memory, and key peripherals on a single board, designed to plug into a carrier board via a standardized high-density connector. SOMs belong to the broader category of embedded computing modules (subclass of embedded modules, within computer-on-module / CoM taxonomy), enabling OEMs to add complex functionality - here, secure networking - without designing the SoC hardware themselves. For engineers designing connected products, the DC-ME-Y402-C collapses the hardware stack of a 32-bit ARM9 networking node into a footprint suited for retrofit and new product designs. Key specifications include an ARM926EJ-S core (NS9210) at 75 MHz, 8 MB SDRAM, 4 MB on-module flash, 10/100 Mbps Ethernet, and an industrial operating temperature range of -40C to +80C. The module exposes the NS9210 peripheral set through the standard Digi Connect ME 9210 60-pin SMT connector, enabling reuse of existing carrier boards across the family. According to Digi product documentation, the DC-ME-Y402-C ships as a single-unit pack with NET+OS firmware support. The DC-ME-Y402-C uses the Digi NET+OS development environment, including the Platform object library, ThreadX RTOS-based runtime, and the Digi ESP IDE. Power input is 3.3 V typical via the carrier connector, and the module integrates the PHY magnetics center-tap requirements on-module, simplifying host board design. Typical applications include industrial automation gateways, building automation controllers, medical device networking, retail/POS terminals, and security/access control panels. Anywhere a 32-bit wired Ethernet node with a secure RTOS stack is needed, the DC-ME-Y402-C accelerates time-to-market. Design consideration: a critical design factor is the carrier board layout - the high-density 60-pin SMT connector footprint and routing constraints must be observed. The DC-ME-Y402-C shares its family footprint with other Connect ME 9210 variants, enabling migration paths without PCB rework. This page synthesizes Digi distributor pricing, drop-in family variants (DC-ME-Y402-S, DC-ME-Y402-MF), and practical design notes not found in the manufacturer datasheet alone.
DC-ME-Y413-LX - 9210 16MB/8MB Embedded Module | Digi
The Digi DC-ME-Y413-LX is a Digi Connect ME embedded module built around the NS9210 processor, integrating an ARM926EJ-S core running at 75 MHz with 16 MB of SDRAM and 8 MB of flash memory into a compact, RJ-45 form-factor-ready System-on-Module. The module integrates 10/100 Ethernet MAC, on-chip security acceleration, and flexible serial interfaces in a single SMT-friendly mezzanine, allowing engineers to add network connectivity to existing products without designing a full processor subsystem. The device exposes the full NS9210 signal set on a 1.27 mm pitch board-to-board mezzanine connector, simplifying host integration. A System-on-Module (SoM) is a pre-certified, production-ready processor and memory subsystem that drops onto a customer's carrier board. SoMs sit hierarchically above discrete MCUs but below full single-board computers, accelerating time-to-market by offloading the hardest parts of high-speed processor design: BGA fan-out, DDR routing, and EMC compliance. The Digi Connect ME family sits at the small-footprint end of the SoM spectrum, optimized for industrial Ethernet and device-server applications. Key features include the ARM926EJ-S 32-bit RISC core with memory management unit, 10/100 Mbps Ethernet MAC with integrated PHY on selected variants, hardware AES/SHA acceleration, dual high-speed UARTs, SPI, I2C, and GPIO. The module supports Digi's NET+OS or ThreadX development environments, providing POSIX-style APIs and proven TCP/IP stacks. Operating temperature spans -40C to +85C for industrial deployment, and the device carries RoHS compliance with lead-free soldering for global manufacturing. Typical applications include industrial Ethernet device servers, building automation controllers, point-of-sale terminals, secure remote management appliances, and edge-of-network sensor aggregators. The integrated Ethernet MAC and security engine make the DC-ME-Y413-LX especially attractive for legacy serial-to-Ethernet bridges, replacing dedicated serial-port servers with a programmable, firmware-upgradable platform. When designing a carrier board, observe the 1.27 mm pitch mezzanine keep-out, provide bulk decoupling on the host 3.3 V rail, and route the differential Ethernet pair as a 100-ohm controlled-impedance pair away from switching nodes. Module firmware image selection (development vs production) is controlled via NET+OS bootstrap pins; leave these accessible for field recovery. The DC-ME-Y413-LX is a mature, broadly deployed part with long-term availability through Digi's embedded product line. This page synthesizes distributor pricing, parametric alternatives, and design notes that go beyond the manufacturer datasheet by mapping the module's position within the System-on-Module ecosystem and clarifying what differentiates it from sibling parts in the Digi Connect ME/ME 9210 family.
IO-LINK-MASTER02-USB - 1-Channel USB IO-Link Master | Pepperl+Fuchs
The Pepperl+Fuchs IO-LINK-MASTER02-USB is a single-channel IO-Link master gateway that bridges a PC USB port to one IO-Link sensor or actuator, supplied as a compact aluminum-housed module measuring 54 x 41 x 24 mm with an M12 A-coded 5-pin IO-Link port and a Mini-B USB 2.0 connector. It enables parameterization, cyclic process-data exchange and diagnostic readout of IO-Link V1.0 / V1.1 devices from a Windows host using the free Pepperl+Fuchs FDT/DTM tools. The unit operates from a standard USB supply (5 V) for low-current sensors, and an external DC power inlet is provided for devices that exceed the USB 200 mA budget, making it a true bench-and-engineering tool. An IO-Link master is the boundary device in an IO-Link communication system, sitting between the higher-level host (PLC, SCADA, or engineering PC) and the point-to-point IO-Link sensor. Within the hierarchy it belongs to: IO-Link master -> industrial communication gateway -> field-level network component -> industrial automation infrastructure. By exposing the IO-Link stack over USB, this master lets engineers configure and diagnose sensors without standing up a full PLC and PROFINET/EtherNet/IP infrastructure. Key features include a 5-pin M12 A-coded sensor port per the IEC 61131-9 IO-Link standard, four front-panel status LEDs for power, USB link, IO-Link activity and fault, and an IP20 enclosure rated for cabinet and desktop use. The Mini-B USB 2.0 connector is forward-compatible with any standard USB-A to Mini-B cable shipped in the box, simplifying connection to a laptop. An optional 24 V DC auxiliary supply jack is provided for high-current 4-wire IO-Link devices that cannot be powered from the USB rail alone. Typical applications include bench-level IO-Link sensor commissioning, firmware updates via FDT/DTM, factory-floor diagnostics on a maintenance laptop, training and demos for IO-Link technology, and pre-installation validation of sensor parameters before deployment on a production IO-Link master. It is widely used in industrial automation labs, sensor R&D, and field service toolkits. When designing with this master, remember that the USB port provides limited current (typically 200 mA budget); sensors drawing more than that require the external 24 V supply. Always install the matching P+F FDT frame application before connecting sensors to ensure IODD interpreter files load correctly.
Intel BE200 - Wi-Fi 7 2x2 M.2 2230 Module + BT 5.4 | Intel
The Intel BE200 (Gale Peak 2) is a Wi-Fi 7 (IEEE 802.11be) plus Bluetooth 5.4 combo M.2 module delivering dual-stream (2x2) Wi-Fi across 2.4 GHz, 5 GHz and 6 GHz bands in a compact 2230 Key E form factor. A wireless network module is an embedded radio subsystem that connects a host device to wireless networks. In the connectivity hierarchy it sits as a Wi-Fi/Bluetooth combo adapter above discrete antennas and below full wireless routers, typically interfacing to a host PC or embedded board through a PCIe bus for Wi-Fi and a USB 2.0 bus for Bluetooth. The M.2 2230 Key E standard defines the mechanical footprint and pin assignment used by laptops, mini PCs, industrial PCs and desktop adapters. Key features of the BE200 include tri-band 2x2 Wi-Fi 7 operation aligned with the Wi-Fi Alliance Wi-Fi 7 certification program, support for 320 MHz channels and Multi-Link Operation (MLO) under the 802.11be standard, Bluetooth 5.4 for low-energy peripherals, and integration with Intel vPro-capable platforms in the D2WG variant family (the BE200.D2WG.NV SKU is offered both with and without vPro per Mouser listings). Technically, the module uses an NGFF M.2 interface with PCIe transport for the Wi-Fi MAC/baseband and USB 2.0 for the Bluetooth controller. Wi-Fi 7 MLO allows the radio to aggregate 2.4 GHz, 5 GHz and 6 GHz links simultaneously, reducing latency and improving throughput in congested RF environments compared with single-link Wi-Fi 6E operation. The 6 GHz band provides clean spectrum and wide 320 MHz channels for multi-gigabit rates. Typical applications include Wi-Fi 7 upgrades for laptops and mini PCs with a spare M.2 Key E slot, desktop Wi-Fi via PCIe adapter cards (the module is the radio core of popular BE6500-class adapters), and embedded or industrial gateways requiring tri-band connectivity. Design consideration: the BE200 requires two external dual-band antennas connected via U.FL/IPEX MHF4 connectors, and the host must support PCIe M.2 Key E with 3.3V power; verify driver support (Windows 11 or Linux) for the 802.11be feature set before release. This page synthesizes distributor pricing, drop-in alternatives, and practical design notes not found in the Intel product brief.
MM8108-EKH01-01-CAM - Wi-Fi HaLow Eval Kit | Morse Micro
The Morse Micro MM8108-EKH01-01-CAM is a Wi-Fi HaLow (IEEE 802.11ah) evaluation kit built on the Raspberry Pi 4 single-board computer, integrating the MM8108 Wi-Fi HaLow transceiver module operating in the 850 MHz to 950 MHz sub-GHz band, with a supplied camera module, enclosure, and RPi HAT for out-of-the-box long-range, low-power wireless evaluation. Wi-Fi HaLow is the IEEE 802.11ah sub-1 GHz extension of the Wi-Fi standard, designed for Internet of Things (IoT) connectivity where range, penetration, and power efficiency matter more than raw throughput. In the wireless hierarchy, it sits alongside Wi-Fi 6 and LoRa as a low-power WAN technology, but with native IP networking, higher data rates (the MM8108 supports up to 43.33 Mbps), and standard Wi-Fi security. This kit turns a Raspberry Pi 4B into a fully enclosed Wi-Fi HaLow access point, station, and router for testing long-range connectivity. Key platform features include the MM8108 802.11ah SoC with throughput up to 43.33 Mbps, operation across the 850 MHz to 950 MHz license-exempt sub-GHz spectrum, Linux-based software with out-of-the-box tooling, and a camera module enabling vision-based applications and edge intelligence experiments over HaLow links. The supplied enclosure makes the unit suitable for field trials, not just bench testing. Technically, the MM8108 is Morse Micro's second-generation Wi-Fi HaLow SoC, improving range and power efficiency over the earlier MM6108 (up to 32.3 Mbps). The Raspberry Pi HAT form factor connects via SDIO, and Morse Micro publishes the MMECH17 Design Package (schematics, PCB layouts, BOM) so engineers can port the HAT circuitry into their own products. Typical applications include long-range IP camera links, smart city and industrial IoT gateways, agricultural and campus-scale sensor networks, and connected building infrastructure. The camera variant specifically targets video-surveillance-over-HaLow proof of concepts. Design consideration: HaLow's sub-GHz band trades bandwidth for range; plan antenna placement and channel selection for your regulatory domain (regional sub-GHz rules vary) before field deployment. This page synthesizes distributor availability, same-family kit alternatives, and design guidance not found in the manufacturer product brief.
OSD3358-512M-ISM - 1GHz Cortex-A8 SiP SOM, 512MB DDR3 | Octavo Systems
The Octavo Systems OSD3358-512M-ISM is a System-in-Package (SiP) module integrating a Texas Instruments AM3358 ARM Cortex-A8 NEON SIMD processor running at 1 GHz, 512 MB of DDR3 memory, a TPS65217C PMIC, a TL5209 LDO, a 4 KB EEPROM, and all necessary passives into a single 21 mm x 21 mm 256-ball BGA package. The OSD3358-512M-ISM reduces the AM3358 design from a multi-chip board to a single component, eliminating discrete DDR3 routing complexity and shrinking the complete computer footprint to roughly the size of a postage stamp. A System-on-Module (SOM) or System-in-Package (SiP) is a pre-integrated computing block that combines a microprocessor, memory, power management, and supporting passives into a single package or small board. The OSD3358-512M-ISM belongs to the OSD335x family - an industrial-grade embedded module hierarchy that sits between a bare MPU (microprocessor unit) and a full single-board computer (SBC) such as the BeagleBone. Within the broader semiconductor hierarchy, an SiP is a category of integrated circuit that places heterogeneous dies and passives inside one BGA package, exposing only the MPU signals (plus power rails) to the host PCB. Key features include 1 GHz ARM Cortex-A8 NEON SIMD core, 512 MB DDR3, integrated TPS65217C PMIC and TL5209 LDO, 4 KB EEPROM, industrial -40C to +85C operating range, and a 256-ball BGA measuring 21 x 21 mm. The package is a super-set pin assignment of the TI AM3358 ZCZ 18x18 BGA, so most signals map to the same ball locations as the underlying MPU. This makes board bring-up straightforward for engineers already familiar with the AM335x platform. Architecturally, the OSD3358-512M-ISM uses Octavo's proven SiP integration technique to embed the AM3358 die alongside DDR3, decoupling caps, and the PMIC. This eliminates the most error-prone portion of an AM335x design - DDR3 length matching and power sequencing - and delivers a complete 32-bit Linux-capable computer with no external DRAM components required. Typical applications include industrial IoT gateways, building automation controllers, point-of-sale terminals, robotics motor controllers, and embedded Linux HMI panels. The wide operating temperature range also supports outdoor or factory-floor deployments. When designing with the OSD3358-512M-ISM, use the OSD3358-SM-RED reference design board as a starting point for schematic and layout. Pay attention to BGA escape routing and decoupling capacitor placement around the package perimeter. This page synthesizes distributor pricing, the OSD3358 family comparison, and practical design notes beyond the manufacturer datasheet, providing engineers with a single reference for component selection.
ZK-WLE7002E25 WiFi 7 2x2 Dual-Band Module | Compex
The Compex Systems ZK-WLE7002E25 is a WiFi 7 wireless module based on the Qualcomm Waikiki QCN6224, QCN6274, or QCN9274 radio solution, supporting 802.11be in the 2.4 GHz and 5 GHz bands. It provides a 2T2R, 2x2 MU-MIMO dual-band dual-concurrent configuration and is available in Mini PCIe form factor. The module supports up to 4324 Mbps aggregate throughput in the supplied product information, with commercial and industrial-grade options depending on the radio configuration. A WiFi module is a complete wireless subsystem that integrates a radio chipset, RF front end, antennas or antenna interfaces, host interface, and supporting firmware or driver dependencies. In the wireless-module hierarchy, ZK-WLE7002E25 belongs to the Boards & Modules > Wireless Modules category and is used as a compact add-in or embedded connectivity component for routers, gateways, industrial systems, and other WiFi-enabled products. The principal verified features include 802.11be operation, simultaneous 2.4 GHz and 5 GHz connectivity, 2x2 MU-MIMO, dual-band dual-concurrent operation, and a Qualcomm Waikiki-based architecture. The supplied distributor and manufacturer listings also associate the module with PCIe 3.0 connectivity, 4096-QAM capability, and commercial QCN6224 or industrial QCN9274 versions. A related listing identifies the QCN6274 configuration as another supported radio option. The Mini PCIe mechanical and electrical interface makes the module suitable for embedded platforms that expose a compatible Mini PCIe connector and can provide the required host-side driver and firmware support. Because this is a wireless module rather than a complete router or access point, system-level performance also depends on the host processor, antenna design, regulatory configuration, thermal environment, and software integration. The module is not a simple standalone USB WiFi adapter. Typical applications include enterprise WiFi 7 routers, industrial gateways, transportation equipment, cybersecurity appliances, SMB access points, and embedded connectivity platforms. The dual-band concurrent architecture can support simultaneous traffic across 2.4 GHz and 5 GHz, while 2x2 MU-MIMO is useful for multi-client environments and coverage-oriented deployments. For the ZK-WLE7002E25 DBDC configuration, a diplexer may enable operation with only two external antennas, depending on the exact board variant. Before design-in, verify the exact radio variant, antenna requirements, regulatory approvals, operating-temperature grade, host interface, driver support, and mechanical clearance against the manufacturer datasheet. The provided search data identifies the WLE7002E25 family, while the requested ordering code is ZK-WLE7002E25; the exact relationship between those identifiers is marked for validation in the note below.