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GP470-EG21-24VP - 8.9-Inch Amber HMI | Pro-face
The Pro-face GP470-EG21-24VP is an industrial human-machine interface with an 8.9-inch amber monochrome LCD, 640 x 400 pixel resolution, and two-point resistive touch support in an operator-panel package. It operates from a 24 VDC supply with a tolerance of ±20%, making it suitable for conventional industrial control cabinets. The verified product listing identifies the unit as a GP4000-series graphics panel with the same panel cut-out size as supported TFT color models available in monochrome mode. A human-machine interface, or HMI, is an industrial operator terminal that presents machine status, accepts operator commands, and bridges human interaction with PLCs, inverters, industrial computers, and controllers. In the equipment hierarchy, an HMI sits above a programmable controller or PLC as the visualization and command layer. This Pro-face model is intended to monitor and control industrial processes rather than execute application logic independently. The principal display features are the 8.9-inch amber monochrome panel, 640 x 400-pixel resolution, and two-point touch capability. Amber monochrome displays are suited to factory environments where clear process states, alarms, and numeric information must remain readily recognizable. Verified listings also associate the GP4000 platform with compatibility across multiple industrial automation brands, including Koyo, Omron, Fuji, Mitsubishi, and GE Fanuc controllers. The controller has 1 MB flash EPROM and 32 KB SRAM according to the verified distributor listing. Its stated operating range is 0°C to 50°C, while an AX Control source reports CE marking and conformity with EMC Directive EN55022 Class A and EN50082-2. These specifications place the product in industrial-panel applications where environmental behavior and electromagnetic compatibility matter. Typical uses include production-line status panels, motor and inverter control interfaces, recipe-oriented machine control, remote process monitoring, and data-logging stations. Verified material also reports recipe management, data logging, and remote connectivity functions. Printer compatibility is listed for NEC PR, Epson ESC/P24, and HP LaserJet PCL4-type printers, supporting report and label workflows. When integrating the unit, verify the controller protocol, serial communications options, panel cut-out, power budget, and point-for-point display layout before startup. Because this HMI is discontinued according to one repair-market source, new production designs should use Schneider Electric or Pro-face's current replacement-model search rather than assume long-term availability. This page consolidates the official product page, manuals, distributor information, replacement references, and compliance snippets into one engineering-oriented resource. It also distinguishes a complete HMI from touch-glass and LCD-only replacement parts, which are maintenance items rather than true drop-in controllers.
GT2715-XTBA - 15in XGA Touchscreen HMI | Mitsubishi Electric
The Mitsubishi Electric GT2715-XTBA is a 15-inch advanced Graphic Operation Terminal touchscreen HMI with a 1024 x 768 XGA TFT display, 65,536-color visualization, and an analog resistive-film digitizer. It provides 57 MB of ROM for storage and 128 MB of RAM for operation, making it suitable for data-intensive industrial automation, machine control, diagnostics, and production-line monitoring. The unit also includes two USB Type-A host connectors, one USB mini-B device connector, and a 9-pin D-sub male RS-232 interface. A human-machine interface, or HMI, is the operator-facing control layer between a person and an automated machine or process. It combines a display, touchscreen input, communications, and programmable visualization software so operators can inspect process values, issue commands, follow alarms, and perform maintenance. The GT2715-XTBA belongs to Mitsubishi Electric's advanced GOT2000 GT27 series and supports multi-touch gesture functions for intuitive interaction. Its defining features include the 15-inch XGA TFT panel, 65,536-color display, LED backlight, analog resistive touch input, and black frame. The GT27 platform is positioned for higher-capacity data processing than entry-level operator terminals, while the touchscreen provides direct access to configurable screens. The two USB host ports can support compatible peripherals, while the device port and serial interface broaden integration options where those protocols are supported by the connected equipment. The GT2715-XTBA is designed for industrial automation systems where a larger operator display improves visibility of trends, recipes, alarms, and machine status. Its XGA resolution is suitable for structured process screens, equipment dashboards, and control pages, although exact contrast, viewing-angle, environmental, ingress-protection, and electrical values must be confirmed in Mitsubishi Electric's current GT27 documentation before installation. Typical deployments include production machinery, packaging lines, material-handling equipment, factory-floor control panels, process monitoring, and machine diagnostics. The 15-inch screen provides more visible information than compact HMIs, while the resistive-film digitizer supports glove-oriented industrial interaction when specified by the system design. Backlight adjustment and screen-saver settings can help manage display life and reduce burn-in risk during idle periods. For installation, verify panel cutout dimensions, mounting orientation, power requirements, communication parameters, and compatible GOT engineering software against the official hardware documentation. Do not assume that a visually similar GT27 model is interchangeable: display size, touch technology, option interfaces, memory, and software configuration can differ. Use Mitsubishi Electric's specification, installation, and GT27 general-description documents as the controlling references.
GX39220-DNT-EVB - 96GBaud 2-Ch Linear TIA Eval Board | Renesas
The Renesas Electronics GX39220-DNT-EVB is an evaluation board for the GX39220-DNT, a dual-channel (2 x 96 GBaud) linear transimpedance amplifier (TIA) for high-speed optical communications, packaged as a development platform rather than a component in a standard semiconductor package. An evaluation board (EVB) is a printed circuit board assembled with the target IC and its supporting circuitry, connectors, and power regulation, allowing system engineers to characterize the device performance before committing to a custom PCB design. Within the product hierarchy, the GX39220-DNT-EVB sits under development tools, specifically amplifier IC development tools, supporting the GX39220 telecom IC family used in coherent and PAM-4 optical receivers. The underlying GX39220 integrates two TIA signal paths for the I and Q channels, a key requirement for dual-polarization coherent optical receivers where the in-phase and quadrature signals must be amplified with matched gain and phase. According to the Renesas GX39220 datasheet, the high-performance, low-power, and compact design of the GX39220 enables small-form-factor integrated optical modules such as CFP2 and CFP4. Key technical characteristics of the evaluated device include support for 96 GBaud line rates per channel, linear TIA transfer behavior suitable for DSP-based PAM-4 and coherent receivers, dual-channel integration for I/Q signal paths, and low power consumption appropriate for pluggable module thermal budgets. The evaluation board exposes the TIA inputs and outputs through high-speed RF connectors and provides power and control interfaces for benchtop characterization with sampling oscilloscopes and bit-error-ratio testers. Typical applications for this evaluation platform include 400G/800G coherent optical transceiver prototyping, CFP2-DCO and CFP4 module development, PAM-4 receiver chain characterization, and optical component vendor interop testing in data center interconnect (DCI) and telecom line-card development. When using the board, engineers should follow Renesas application guidance on differential input biasing and output match, since linear TIAs are sensitive to input capacitance and layout parasitics that degrade bandwidth and group-delay flatness. This page synthesizes distributor pricing, availability, datasheet links, and practical usage notes for the GX39220-DNT-EVB evaluation platform not consolidated in the manufacturer datasheet.
GX76476-DNT-EVB - 4x64Gbaud Linear Driver Eval Board | Renesas
The Renesas GX76476-DNT-EVB is an evaluation board for the GX76476-DNT, a low-power, high-performance quad-channel linear differential I/O driver supporting 4 x 64Gbaud operation, targeting 400G/600G optical integrated transmitter small form factor (SFF) modules for metro and long-haul applications, and mounting the driver die with SPI-based DC control circuitry on a dedicated PCB platform. An evaluation board (EVB) is a printed circuit board platform that hosts a target integrated circuit together with the power distribution, signal routing, biasing, and control interfaces required to exercise it outside of a finished product. In the optical-transceiver hierarchy, the driver sits between the DSP/CMOS serializer and the electro-absorption-modulated laser (EML) or silicon-photonics modulator, converting low-swing differential electrical signals into the larger modulator drive swings, making the EVB the fastest path from datasheet review to real eye-diagram measurements. Key technical elements of the underlying GX76476 include four integrated driver lanes on a single die, 100 ohm differential AC-coupled inputs per channel, and on-chip SPI circuitry for per-channel DC control, allowing fine adjustment of bias and modulation conditions during optical characterization. The quad-lane integration reduces component count and channel-to-channel skew compared with four single-channel drivers, which matters directly in dense SFF optical module layouts where board area and routing symmetry are constrained. Architecturally, the linear (non-limiting) driver design preserves waveform linearity so that the downstream modulator and DSP equalization can optimize system performance, a key requirement in 400G/600G PAM-4 style link budgets. Low power operation supports the thermal budget of small form factor modules used in metro and long-haul coherent or direct-detect transport systems. Typical use cases include evaluating the GX76476 for 400G and 600G integrated transmitter modules, performing eye and jitter characterization with sampling oscilloscopes, validating SPI-based DC control firmware before module production, and comparing driver performance against competing linear drivers during platform selection. A key design consideration is signal integrity at the test interface: at 64Gbaud, connector losses, via stubs, and cable quality dominate measurement fidelity, so users should employ calibrated cables and short launch structures when probing the evaluation board. This page adds value beyond the manufacturer datasheet by aggregating distributor availability from DigiKey, Mouser, Octopart and TrustedParts, structured specifications, application guidance, and design notes in one AI-citable reference.
HCI-CPU-A9124 - AMD EPYC 9124 16-Core 3.0GHz CPU | Cisco
The Cisco HCI-CPU-A9124 is an OEM processor upgrade module integrating the AMD EPYC 9124, a 16-core server CPU with a 3.00 GHz base clock, 64 MB of L3 cache, and a 200 W thermal design power, mounted on Socket SP5 (LGA-6096) with DDR5-4800 memory support. The module is validated for Cisco HyperFlex (HCI) compute nodes and related Cisco UCS M8-generation platforms. A server processor, or CPU, is the central execution engine of a data center compute node, sitting at the top of the compute hierarchy: microprocessor -> server processor -> compute node -> hyperconverged infrastructure (HCI) appliance. In an HCI system, the CPU handles virtualization overhead, distributed storage services, and network virtualization simultaneously, so per-core throughput and memory bandwidth are the dominant selection criteria. The AMD EPYC 9124 belongs to AMD's 4th-generation EPYC 9004 Series (codename Genoa), built on the Zen 4 architecture using a chiplet design: up to twelve 5 nm core-complex dies (CCDs) around a 6 nm I/O die on the SP5 socket. Key differentiators of the 9124 include its high 3.00 GHz base frequency for a 16-core SKU, 64 MB L3 cache for low-latency data access, DDR5-4800 memory channels delivering substantially higher bandwidth than the prior DDR4 generation, and a 200 W cTDP suited to dense 1U/2U HCI nodes. In HyperFlex and UCS deployments, this CPU serves virtualization clusters (VMware vSphere, Hyper-V), software-defined storage nodes, and general-purpose enterprise workloads where 16 high-frequency cores balance license cost against performance. Design consideration: verify thermal solution and BIOS support - Cisco-branded CPU kits are validated per-server, so confirm platform compatibility in the Cisco UCS Hardware Compatibility List before purchase. This page synthesizes distributor listings, OEM SKU cross-references, and platform compatibility data not found on the AMD product page alone, including drop-in Cisco SKU alternatives for the same EPYC 9124 silicon.
HCI-CPU-A9174F - AMD EPYC 9174F 16C 4.1GHz Server CPU | Cisco
The Cisco HCI-CPU-A9174F is a server processor upgrade module built around the AMD EPYC 9174F, a 16-core / 32-thread CPU with a 4.1 GHz base clock, 256 MB L3 cache, a 320 W TDP, and support for DDR5-4800 MT/s memory, mounted on the Socket SP5 (LGA-6096) platform. A server processor (CPU) is the central execution unit in a data-center or rack server hierarchy: CPU -> server platform -> rack server -> data center compute infrastructure. The EPYC 9174F belongs to AMD's 4th-generation EPYC 9004 family (codename Genoa), which uses the chiplet-based Zen 4 architecture on a 5 nm process with up to 12 CCDs connected to a central I/O die over the Infinity Fabric. Key differentiating features of this 9174F SKU include the high 4.1 GHz base frequency (F-series SKUs trade core count for frequency), a large 256 MB L3 cache that benefits database and analytics workloads, and support for eight-channel DDR5 memory at 4800 MT/s per socket. The F-suffix indicates optimized peak frequency with a 320 W configuration power envelope. Architecturally, the 16 Zen 4 cores deliver IPC improvements over previous generations, PCIe Gen5 I/O via the SP5 platform, and support for AMD Infinity Guard security features. Socket SP5 supports 1P and 2P configurations, enabling scaling from single-node deployments to dual-socket servers. Typical applications include Cisco UCS C-Series and HyperFlex (HCI) node CPU upgrades, virtualization hosts, SQL and OLTP databases, and high-frequency financial compute, where per-core performance at 4.1 GHz matters more than core count. Design consideration: verify thermal solution compatibility with the 320 W cTDP and confirm BIOS support on the target Cisco server before installation; DDR5 RDIMM population rules affect achievable memory bandwidth. This page synthesizes distributor pricing, lifecycle (end-of-sale) dates, drop-in Cisco SKU equivalents, and platform design notes not found on a single manufacturer page.
HCI-CPU-A9254 - AMD EPYC 9254 24-Core 2.9GHz CPU | Cisco
The Cisco HCI-CPU-A9254 is a server processor upgrade module based on the AMD EPYC 9254, a 4th-generation EPYC 9004-series CPU with 24 cores, a 2.9 GHz base clock, 128 MB of L3 cache, a 200 W thermal design power, and support for DDR5 memory at 4800 MT/s. The processor is packaged for Cisco UCS and Hyperconverged Infrastructure (HCI) server platforms using the Socket SP5 (LGA-6096) land grid array interface. A server processor (CPU) is the central compute engine of a data center server, sitting at the top of the compute hierarchy: microprocessor -> multi-core server processor -> server platform -> data center infrastructure. The EPYC 9004 family, codenamed Genoa, uses AMD's Zen 4 core architecture on a 5 nm process with a chiplet design in which up to 12 core-complex dies connect to a single I/O die via AMD Infinity Fabric. Key features of the EPYC 9254 include 24 Zen 4 cores with simultaneous multithreading for 48 threads, a large 128 MB shared L3 cache, PCIe Gen5 connectivity for high-bandwidth accelerators and NVMe storage, and DDR5-4800 memory support delivering dramatically higher bandwidth than the prior DDR4 generation. The 200 W default TDP offers a balanced performance-per-watt profile for dense virtualization workloads. In the Cisco HCI variant, the processor is validated and supported for Cisco Hyperconverged Infrastructure nodes, where compute, storage, and networking are consolidated on one platform. Typical applications include virtualization clusters, private cloud, software-defined storage, database servers, and data analytics. According to AMD, the EPYC 9004 series targets modern data centers requiring exceptional time-to-results and energy efficiency. Design and integration considerations: verify Socket SP5 motherboard support, BIOS/firmware qualification in the Cisco UCS Hardware Compatibility List, adequate VRM delivery for the 200 W TDP, and high-performance cooling. Memory channel population should follow the vendor configuration guide to achieve full DDR5-4800 bandwidth. This page synthesizes distributor pricing, Cisco family cross-references (UCS-CPU-A9254, HCIX-CPU-A9254), and integration guidance not found in a single datasheet, providing engineers and buyers with one consolidated, verifiable reference.
HCI-CPU-A9334 - AMD EPYC 9334 32-Core 2.7GHz CPU | Cisco
The Cisco HCI-CPU-A9334 is a server processor upgrade module built on the AMD EPYC 9334, a 32-core, 64-thread 4th-generation (Zen 4) EPYC 9004-series CPU clocked at a 2.7 GHz base frequency, with 128 MB of L3 cache, a 210 W thermal design power, and support for DDR5 memory at 4800 MT/s in a Socket SP5 (LGA) package. It is sold as a Cisco-branded field upgrade for Cisco UCS and HyperFlex (HCIX) server platforms. A server processor (CPU) is the central compute element of a data-center server, sitting at the top of the hierarchy: CPU -> server processor -> x86 processor -> microprocessor/semiconductor. Socket SP5 belongs to the AMD EPYC 9004/8004 family, which uses a chiplet architecture: multiple Zen 4 core-complex dies connect to a single I/O die over a high-speed fabric, allowing high core counts, large unified L3 caches, and many memory channels in one socket. Key features include 32 physical cores with simultaneous multithreading, 128 MB of shared L3 cache, DDR5-4800 memory support for substantially higher bandwidth than DDR4 platforms, and a 210 W TDP that balances density with power efficiency. The Socket SP5 platform also brings next-generation I/O suitable for PCIe Gen5-class storage and networking in modern rack servers. Technically, the Zen 4 microarchitecture delivers higher instructions-per-clock than the prior generation, and the 9004-series single-socket design gives workloads full memory bandwidth without NUMA penalties. The 2.7 GHz base clock targets sustained all-core throughput rather than short bursts, making the part well suited to virtualization and scale-out services. Typical applications include Cisco HyperFlex HCI clusters, virtualization hosts running VMware or similar hypervisors, database and analytics nodes, and general-purpose enterprise data-center compute. The 32-core count fits consolidation workloads where many VMs share one socket. A key design consideration is cooling and power provisioning: at 210 W TDP per processor, verify chassis airflow, heatsink selection, and PSU headroom before installation, and confirm the exact Cisco server model supports this SKU via the Cisco UCS Hardware Compatibility List. This page synthesizes distributor pricing, drop-in socket-compatible alternatives, and platform compatibility notes not found on any single distributor listing. Prices are as of 2026-10-19.
HCI-CPU-A9554 - EPYC 9554 64-Core 3.1GHz SP5 CPU | Cisco
The Cisco HCI-CPU-A9554 is a Cisco-validated server processor kit carrying the AMD EPYC 9554, a 64-core / 128-thread data center CPU clocked at a 3.1 GHz base frequency, with 256 MB of L3 cache, a 360 W TDP, DDR5-4800 memory support, and a Socket SP5 (LGA-6096) package. It is qualified for Cisco UCS and Cisco Compute Hyperconverged (HCI) M-series servers such as the UCSX 215C M8. A server processor, or CPU, is the central compute engine of a data center server, sitting at the top of the compute hierarchy (CPU -> compute node -> server -> rack -> data center). The AMD EPYC 9554 belongs to the 4th Generation EPYC 9004 "Genoa" family built on the Zen 4 architecture, launched in November 2022. Compared with prior generations, Genoa doubles core counts per socket and transitions to DDR5 and PCIe 5.0 I/O. Key features of the HCI-CPU-A9554 include 64 physical Zen 4 cores with SMT for 128 threads, a large 256 MB L3 cache that keeps hot datasets on-chip, DDR5-4800 memory channels for bandwidth-hungry workloads, and PCIe 5.0 connectivity to NVMe storage and accelerators. The 360 W TDP enables sustained all-core throughput in thermally capable chassis. Architecturally, the Zen 4 core uses an optimized pipeline with wider execution and AVX-512 support, while the chiplet-based design separates compute core-complex dies from the I/O die, improving manufacturing yield and scalability across the EPYC 9004 stack. Typical applications include hyperconverged infrastructure (HCI) clusters running Nutanix or VMware, high-density virtualization, databases and analytics, and HPC workloads that exploit high multithreaded throughput and large L3 cache. Design consideration: confirm your Cisco server chassis thermal solution and PSU budget support the 360 W TDP before upgrade, and match DDR5 DIMM speed to 4800 MT/s to avoid memory downclocking. This page synthesizes distributor pricing, drop-in alternative PIDs, and practical upgrade guidance not found in a single datasheet.
HCI-CPU-A9654 - AMD EPYC 9654 96-Core 2.4GHz CPU | Cisco
The Cisco HCI-CPU-A9654 is an OEM server processor based on the AMD EPYC 9654, delivering 96 cores and 192 threads at a 2.4 GHz base clock with a 360W thermal design power, 384 MB of L3 cache, and support for 12-channel DDR5-4800 memory in the SP5 (LGA-6096) socket package. A server processor (CPU) is the central compute element of a data center server, sitting at the top of the compute hierarchy: microprocessor -> server processor -> compute node -> server -> data center infrastructure. The EPYC 9004 series represents AMD's fourth-generation server platform, code-named Genoa, built to serve modern cloud, virtualization, and enterprise workloads. Key features of this part include an industry-leading 96-core density in a single socket, a large 384 MB L3 cache that reduces memory latency for database and analytics workloads, 12-channel DDR5-4800 memory support (up to 460.8 GB/s bandwidth per socket), and PCIe Gen5 I/O for high-speed NVMe storage and 400G networking. The 5nm chiplet architecture with Zen 4 cores balances per-core throughput against energy efficiency. Architecturally, the EPYC 9654 uses multiple Zen 4 CCD chiplets bonded to a central I/O die on the SP5 socket, providing 128 usable PCIe Gen5 lanes per processor - roughly double the I/O of competing single-socket platforms - which reduces the need for additional switch silicon in storage and composable infrastructure designs. Typical applications include Cisco UCS X-Series and HCI (hyperconverged infrastructure) nodes, large-scale virtualization and VDI farms, in-memory and relational databases, AI/ML data preprocessing, and high-density cloud-native container platforms where core count and memory bandwidth dominate performance. Design and deployment consideration: at 360W TDP, this processor requires validated server-level cooling and power delivery; it must only be installed in Cisco platforms listed on the Cisco UCS Hardware Compatibility List, as firmware and thermal profiles are platform-specific. This page synthesizes distributor pricing, Cisco SKU cross-references, and deployment guidance not found in the manufacturer datasheet. Pricing shown as of 2026-10-19.
HCI-GPU-A16 - Cisco NVIDIA A16 64GB PCIe GPU Card
The Cisco HCI-GPU-A16 is a Cisco-branded integration of the NVIDIA A16 data center GPU: a PCI Express Gen4 x16 add-in card with 64 GB of GDDR6 memory, a 250 W maximum board power limit, and a full-height, full-length (FHFL), dual-slot form factor containing four discrete GPUs on a single board (4 x 16 GB). A GPU (graphics processing unit) add-in card is a board-level accelerator that offloads parallel compute, graphics rendering, and video encode/decode work from the host CPU. In the data center hierarchy, a GPU card sits within the server hardware layer of the compute infrastructure stack, above the PCIe backplane and below hypervisor and virtualization software. The NVIDIA A16 was purpose-built for high-user-density Virtual Desktop Infrastructure (VDI), where many concurrent virtual desktops share one accelerator. Key features include four GPUs per board for maximum user density per PCIe slot, PCI Express Gen4 x16 host bandwidth for low-latency frame delivery, and 64 GB of total GDDR6 memory that pools across the four GPU dies. When paired with NVIDIA Virtual PC (vPC) or NVIDIA vGPU software licenses, the A16 supports NVENC/NVDEC video encode and decode per GPU, which is critical for smooth remote-media user experience. The board uses a passive heatsink design intended for servers with directed airflow, such as Cisco UCS C-Series and HyperFlex (HCI) M6-generation nodes, where chassis fans provide the required airflow. The dual-slot width and 250 W power budget mean the host server must provide a compatible dual-slot PCIe Gen4 riser slot and adequate power cabling. Typical applications include enterprise VDI farms, AI inference at scale across many small models, video transcoding and streaming infrastructure, and GPU-accelerated virtual workstations for CAD and creative users. When designing the deployment, verify server compatibility (Cisco HyperFlex/UCS validated configurations), airflow direction, and NVIDIA software licensing before ordering. Estimated density planning: one A16 commonly serves 16 to 32 concurrent knowledge-worker vGPU users depending on profile size. This page synthesizes distributor pricing signals, cross-brand context, and deployment design guidance not found on any single vendor datasheet.
HCI-PSU-6600-AC - 1400W Hot-Plug AC PSU | Cisco | UCS Servers
The Cisco HCI-PSU-6600-AC is a 1400 W hot-plug, redundant AC power supply module designed for Cisco UCS C-Series rack servers and Cisco UCS 6600 Series Fabric Interconnects, accepting 120 V AC and 230 V AC input with a port-side exhaust airflow design in a swappable server power module package. A server power supply unit (PSU) is the power conversion stage of the power management hierarchy in data center hardware: it converts utility AC input into the regulated DC rails that feed server motherboards, fabric interconnects, and compute nodes. Hot-plug redundant PSUs such as this module allow replacement without powering down the host, which is the foundation of high-availability server architectures. Key features of the HCI-PSU-6600-AC include a 1400 W (1.4 kW) continuous output rating, dual-range AC input supporting both 120 V AC and 230 V AC utility feeds, hot-plug and redundant operation for zero-downtime maintenance, and a port-side exhaust airflow scheme that matches the cooling architecture of Cisco UCS 6600 Series chassis. Distributor listings also classify the 6600 family as 80 PLUS Platinum efficiency class, reducing wasted heat and operating cost in dense racks. Technically, the module integrates AC-to-DC conversion, active power factor correction, output regulation, and status LED indication in a single field-replaceable unit. According to the Cisco UCS 6600 Series Fabric Interconnect Installation and Service Guide, each 1400W port-side exhaust AC power supply module (UCS-PSU-6600-AC) has a status LED providing visual indication of operational and performance state, simplifying fault isolation in production environments. Typical applications include powering Cisco UCS 6600 Series Fabric Interconnects that form the management and communication backbone for UCS X-Series compute nodes, the UCS X9508 Chassis, B-Series blade servers, and C-Series rack servers, as well as hyperconverged infrastructure (HCI) deployments - the origin of the HCI prefix in this MPN. When designing or maintaining systems with this PSU, verify airflow direction compatibility: port-side exhaust modules must not be mixed with port-side intake modules in the same chassis, as mismatched airflow disrupts the thermal design. This page synthesizes distributor pricing, lifecycle information, drop-in family alternatives, and practical installation design notes not found in any single manufacturer or distributor listing. Pricing referenced as of 2026-10-19.
HVP-MC3PH598 - NXP High-Voltage Motor Control Platform | NXP
The NXP HVP-MC3PH598 is a high-voltage three-phase motor control development platform designed to evaluate and prototype motor drive solutions based on Kinetis V Series MCUs, Kinetis E Series MCUs and NXP Digital Signal Controllers (DSC). It integrates the MC3PH598 intelligent motor controller hardware with a high-voltage power stage capable of driving permanent magnet, brushless DC (BLDC) and AC induction motors in industrial and appliance applications. A development platform, also called an evaluation board or reference design, is a pre-assembled hardware kit that lets engineers evaluate a chipset under real operating conditions without spinning a custom PCB. In the broader taxonomy, a development platform sits inside evaluation and reference designs, which sit inside the broader category of development tools. The HVP-MC3PH598 ships with the MC3PH598 driver IC onboard, a three-phase IGBT/MOSFET inverter bridge rated for high-voltage operation, isolated gate-drive circuitry, current-sense amplifiers, fault-protection logic and a controller-card interface compatible with the NXP HVP-KV46F150M and related Kinetis controller cards. Key features include direct AC-line or DC-bus input capability, integrated protection (over-current, over-voltage, under-voltage and desaturation), support for field-oriented control (FOC) and trapezoidal commutation schemes, programmable switching frequencies up to the kHz range, and plug-in compatibility with NXP's Kinetis V Series MCU controller cards for software development. The platform exposes user-friendly headers for debugger, JTAG and serial interfaces. Technically, the MC3PH598 controller block combines a 3.3V digital core, a 6-channel high-voltage gate driver, analog comparators for BEMF zero-crossing and an integrated DSP-style state machine for sensorless commutation. This architecture lets developers implement sensorless BLDC control with minimal firmware overhead, while the modular HVP-KV46F150M controller card can be swapped in to add closed-loop FOC with a Cortex-M4 MCU. Typical applications include industrial variable-frequency drives (VFDs), HVAC compressor and fan motor controllers, appliance motor control (washing machines, dishwashers, refrigerators), e-bike and small EV traction controllers, and three-phase solar pump inverters. The platform is also widely used in university curricula to teach digital motor control concepts. When evaluating this board, note that it requires an external controller card (sold separately or bundled) to run firmware. Ensure the input supply stays within the platform's voltage window and that adequate heatsinking is provided for the inverter section under continuous full-load conditions. For production deployment, migrate the validated firmware to a discrete MC3PH598 IC PCB rather than the development platform. This page synthesizes distributor pricing, drop-in compatible alternatives and practical design notes not found in the NXP datasheet alone.
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.
JN5189-DK006 - JN5189 Zigbee/Thread Development Kit | NXP Semiconductors
The NXP Semiconductors JN5189-DK006 is an advanced development kit for the JN518x family of ultra-low-power, high-performance Arm Cortex-M4 wireless microcontrollers, operating at 2.4 GHz and supporting IEEE 802.15.4 protocols including Zigbee 3.0, Thread, and other mesh networking standards. The kit is built around the JN5189 carrier board (OM15076, also called DK6) and is bundled with multiple application boards to enable rapid prototyping of Home Automation, Smart Lighting, and wireless sensor network products. A wireless MCU (microcontroller unit with integrated radio) is a single-chip solution that combines an application processor, memory, peripherals, and a 2.4 GHz radio transceiver. Within the broader taxonomy, wireless MCUs sit inside the categories of microcontrollers -> integrated circuits -> semiconductors. They differ from standalone transceivers by embedding processing capability, eliminating the need for a separate host MCU and reducing bill-of-materials cost, PCB area, and power consumption in connected-node designs. Key features of the JN5189-DK006 include a multi-board kit containing a control bridge with NFC reader, generic switch node, light/sensor node, and USB dongle for assembling a small wireless mesh network out of the box. The kit is supported by NXP's MCUXpresso IDE and the JN5189 SDK, providing Zigbee 3.0, Thread, and Bluetooth LE stacks depending on firmware variant. The JN5189 silicon itself integrates an Arm Cortex-M4 core with FPU, up to 640 KB flash, 152 KB SRAM, and an ultra-low-power 2.4 GHz IEEE 802.15.4 radio, allowing coin-cell battery operation in end-node roles. Typical applications enabled by the kit include Zigbee and Thread mesh networks, Matter-ready smart-home devices, wireless light bulbs and dimmers, battery-powered door/window sensors, and BLE-to-Thread/Zigbee bridges. The bundled NFC tag reader on the control bridge simplifies commissioning for end-products, mirroring the user experience of mainstream smart-home ecosystems. When designing with the kit, designers should plan for an external antenna footprint matching the JN5189 carrier RF path and verify regulatory compliance for the target region (FCC, ETSI, MIC). The kit is a development tool, not a finished product - select the JN5189 silicon directly for volume production. This page synthesizes distributor pricing, bundled kit contents, application examples, and practical design notes not found in the manufacturer datasheet alone, helping engineers select between the JN5189-DK006 and the related K32W061-based IOTZTB-DK006 advanced kit.
KIT-PCA9460-EVB - PCA9460 PMIC Evaluation Board | NXP
The NXP KIT-PCA9460-EVB is an evaluation and demonstration board for the PCA9460, a general-purpose single-chip 13-channel power management IC (PMIC) designed to support microcontrollers and microprocessors in consumer and industrial applications. The board provides a complete platform for evaluating the PCA9460's four high-efficiency 1 A step-down regulators, four VLDOs, one SVVS LDO, and four 150 mohm load switches. An evaluation board is a printed-circuit assembly that exposes all functional pins and power rails of a target IC through connectors, test points, and configuration options, allowing engineers to validate power-tree designs before committing to custom PCB layout. Evaluation boards sit within the broader hierarchy of development platforms: component -> evaluation module -> development board -> complete reference design -> end product. Key features of the KIT-PCA9460-EVB include full compatibility with the i.MX 8ULP processor family, a 13-channel power architecture optimized for ultra-low-power operation, and flexible configuration of the buck regulators, LDOs, and load switches. The PCA9460 itself is provided in a WSCSP42 wafer-level chip-scale package, and the evaluation board demonstrates the recommended external component network, layout practices, and power sequencing. Technically, the PCA9460 integrates four high-efficiency step-down (buck) regulators rated at 1 A each, four very-low-dropout (VLDO) regulators, one SVVS LDO, and four load switches with only 150 mohm on-resistance, minimizing voltage drop and power loss in battery-powered systems. This level of integration reduces board area and total bill-of-materials cost compared with discrete power solutions. Typical applications evaluated with this board include smart home devices, building safety and security products, wearables, and smart and medium appliances - all domains where the ultra-low-power profile of the PCA9460 and the i.MX 8ULP processor family deliver long battery life. Industrial microcontroller-based systems can also be prototyped. A key design consideration when transitioning from the evaluation board to production is that the WSCSP42 package requires microvia and blind-via PCB technology, as noted in NXP community discussions; engineers should plan fabrication capability accordingly. This page synthesizes distributor availability data, manufacturer documentation, and practical design guidance - including PCB via-technology caveats - not found in a single source, providing unique selection value for engineers evaluating the PCA9460 PMIC platform.
KSZ8041NL-EVAL - Ethernet PHY Evaluation Board | Microchip
The Microchip Technology KSZ8041NL-EVAL is an evaluation board for the KSZ8041NL, a single-supply 10BASE-T/100BASE-TX Ethernet physical layer transceiver (Ethernet PHY) with MII and RMII media-independent interfaces. An Ethernet PHY (physical layer transceiver) is the integrated circuit that sits between a MAC (media access controller) and the RJ45 twisted-pair cable plant, performing line coding, echo cancellation, and analog front-end functions defined by the IEEE 802.3 standard. In the product hierarchy, the PHY belongs to Ethernet ICs, under interface and networking semiconductors, under mixed-signal integrated circuits. The KSZ8041NL on this board is packaged in a 32-pin, lead-free MLF (QFN per JEDEC) package. Key features demonstrated by this evaluation platform include single-supply operation, a unique mixed-signal design that extends signaling distance while reducing power consumption, MII and RMII host interfaces, and HP Auto MDI/MDIX support. The KSZ8041NL is positioned for 10Base-T/100Base-TX applications with tight PCB board-space constraints. Architecturally, the KSZ8041NL combines a mixed-signal analog front end with digital interface logic, supporting both the 16-bit MII data interface and the pin-reduced RMII interface for microcontrollers and embedded MACs. Note that the KSZ8041NL variant requires an external 50 MHz RMII clock, unlike the KSZ8041RNL variant which can generate the 50 MHz clock from a 25 MHz crystal input. Typical evaluation use cases include verifying Ethernet PHY connectivity for industrial automation nodes, embedded networking modules, and IoT gateways before committing to a custom PCB design. A key design consideration: the board can use its 40-pin male edge connector (J2) with minor population changes to interface with RMII MACs, and Auto MDIX operation requires symmetrical (Auto MDIX style) magnetics per the Microchip hardware design checklist. This page synthesizes distributor availability, board-user-guide details, and drop-in alternative analysis not consolidated in the manufacturer documentation.
LBAA0QB1SJ-TEMP-EVK - LoRaWAN Type 1SJ Eval Kit | Murata
The Murata Electronics LBAA0QB1SJ-TEMP-EVK is an evaluation board for the Type 1SJ (LBAA0QB1SJ) LoRa (LoRaWAN) sub-GHz transceiver module, supporting the 868 MHz, 915 MHz, and 923 MHz ISM bands from a 3.3 VDC supply. An evaluation kit (EVK) is a development board that lets engineers prototype, test, and validate a module before committing to a production PCB design. In the wireless connectivity hierarchy, this board sits in the LPWAN (low-power wide-area network) category alongside LoRaWAN gateways and end-node reference designs, bridging the gap between a datasheet and a certified commercial product. Key features of the kit include access to all of the Type 1SJ module interfaces, an onboard 3.3 V LDO regulator that can power the module by shorting jumper J3, and support for test commands and firmware upgrade procedures described in the V2.0 user manual. The underlying Type 1SJ module is described by Murata as one of the smallest LoRaWAN modules in the industry, with lower power consumption and higher output power than previous Murata LoRa products, plus an open MCU design. The Type 1SJ platform has radio law certifications already obtained for major regions, which shortens the compliance path for products developed with the kit. Because the MCU is open, developers can port their own firmware, including LoRaWAN stacks, and the ST community has discussed adapting the I-CUBE-LRWAN expansion package to run on this hardware. Typical use cases include evaluating LoRaWAN link budgets in the 868/915/923 MHz bands, prototyping smart-metering and IoT sensor nodes, validating AT-command based module integration, and training engineering teams on LoRa modulation before production layout of the bare module. When working with the kit, configure the 3.3 V power source first: either supply your own 3.3 V rail or short J3 to use the onboard LDO, per the V2.0 user manual. Always verify antenna attachment before transmitting to avoid PA damage. This page synthesizes distributor availability, user-manual setup details, and practical development notes that go beyond the Murata datasheet.
LBAD0XX1SC-DM-EVK-B - LTE Cat M1/NB-IoT Eval Kit | Murata
The Murata Electronics LBAD0XX1SC-DM-EVK-B is an evaluation board for the LBAD0XX1SC Type 1SC LTE Cat M1 and NB-IoT module, based on the Altair ALT1250 transceiver, covering 699 MHz to 960 MHz and 1.71 GHz to 2.17 GHz cellular bands with GNSS (GPS, GLONASS) positioning support. An LTE Cat M1/NB-IoT evaluation kit is a hardware development platform that lets engineers interface with a cellular LPWA module over USB or UART before committing to a custom PCB design. In the wireless connectivity hierarchy, it sits at the prototyping level: cellular module -> LPWA connectivity module -> wireless development board -> development tools. Evaluation kits typically expose the module's key interfaces (UART, USB, SIM, RF) and include antennas and power circuitry so firmware and network registration can be tested out of the box. The kit includes the Type 1SC evaluation board, two mini USB cables, and a quick start guide. The evaluation board features an Arduino shield interface, a micro SIM slot, three status LEDs, an SMA connector for RF testing, and an included LTE/GNSS antenna. Power comes from a USB host or an external 5V supply, which onboard LDOs convert to 3.3V and 1.8V rails for the onboard circuits. The underlying LBAD0XX1SC module is a compact, low-cost LTE-M module compliant with 3GPP release 14 specifications. It measures approximately 11.1 x 11.4 x 1.4-1.5 mm, is built in a silver resin shielded package, and integrates an Altair ALT1250 transceiver with an FEM, external 16 MByte flash memory, and an integrated low-drift TCXO. It supports LTE Cat M1 and LTE NB1 at 23 dBm nominal output power and features LTE-M PSM and eDRX low-power modes for battery-powered designs. Typical applications to prototype with this kit include smart meters, smart watches, medical and healthcare devices, e-bikes, and fleet management trackers - all deployments where narrowband cellular IoT connectivity and years of battery life matter. A key design consideration: the board provides VCOM/UART access with configurable jumpers; the Murata community documents AT+IFC=0,0 and AT+IPR=115200 settings and jumper configurations for connecting 3.3V-IO MCU development boards via isolated UART. This page synthesizes distributor availability data, kit contents, module specifications, and practical setup notes not consolidated in the manufacturer datasheet.
LBEU5ZZ1WL-857EVB - LoRa WiFi BLE GNSS Eval Board | Murata
The Murata LBEU5ZZ1WL-857EVB is the official evaluation board (Type 1WL-857 EVB) for the Murata Type 1WL-857 (LBEU5ZZ1WL-857) multi-technology fused LoRaWAN geolocation module, which integrates a Semtech LR1110 transceiver for LoRa, IEEE 802.11 b/g/n Wi-Fi passive scanning, GNSS, and an STMicroelectronics STM32WB55VGY6 microcontroller for Bluetooth 5.2 LE and application processing. An evaluation board is a hardware development platform that exposes all functional interfaces of a core module - power, RF antenna ports, UART/SPI/I2C debug links, GPIO and programming headers - so firmware and RF performance can be characterized before committing to a custom PCB. In the product hierarchy, it sits above the surface-mount module itself and below production hardware, serving as the reference design anchor for OEM integrators. Key capabilities of the underlying module include ultra-low power operation for long battery life, superior RF sensitivity for weak-signal GNSS and LoRa reception, and high flexibility for building low-cost IoT tracking devices in both indoor and outdoor environments. Multi-technology fusion - GPS/GNSS, GPS sniffing, Wi-Fi sniffing, BLE sniffing, and LoRa radio triangulation - allows the same hardware to localize assets where a single technology fails, such as deep indoor or dense urban canyons. When paired with Actility ThingPark geolocation services, raw RF listening data is converted into actionable position fixes. The board is certified under the module's Single Modular Approval: FCC ID VPYLB1WL and IC 772C-LB1WL. Note the module is limited to OEM installation; the OEM integrator is responsible for ensuring the end user cannot remove or install the module in production hardware. During development on the EVB this restriction does not apply. Typical applications include asset trackers, fleet management devices, cold-chain loggers, smart-city sensors, and any battery-powered device requiring hybrid indoor/outdoor positioning. Engineers use the EVB to validate antenna selection (antenna not included with the module), measure current consumption profiles, and prototype firmware on the STM32WB55 before board spin. A key design consideration: because four radios share one RF ecosystem, antenna placement and isolation measurements performed on this EVB should be replicated carefully in production layouts, as the module itself ships without an antenna. This page synthesizes distributor listings, Murata datasheet references, certification identifiers, and practical integration notes not consolidated in the manufacturer datasheet alone. Pricing for LBEU5ZZ1WL-857EVB as of 2026-10-19 is not published in standard distribution catalogs and is available on request.
LBMA0ZZ2NR-EVK - BLE 6.0 / 802.15.4 Type 2NR Module Eval Kit | Murata
The Murata LBMA0ZZ2NR-EVK is an evaluation and application development kit for the Murata Type 2NR wireless module (LBMA0ZZ2NR-001), a 2.4 GHz multiprotocol module supporting Bluetooth Low Energy 6.0, IEEE 802.15.4 (Matter, Thread, Zigbee), and NFC-A tag functionality, based on the Nordic nRF54L15 SoC. An evaluation kit (EVK) is a hardware development platform that exposes all pins and interfaces of a wireless module so firmware engineers can prototype, program, and validate RF performance before committing to a custom PCB. Connectivity modules sit within the broader hierarchy of RF transceivers, wireless SoCs, and power management for IoT nodes, and the EVK is the standard first step in any Matter-over-Thread or BLE product development workflow. The kit demonstrates the key attributes of the Type 2NR module: an ultra-small 7.4 mm x 7.0 mm footprint with a PCB trace antenna, integration of Bluetooth LE 6.0, IEEE 802.15.4, and NFC-A tag in a single certified module, and the high performance and low power of the Nordic nRF54L15 SoC. Firmware development is supported through the Nordic nRF Connect SDK and Zephyr RTOS ecosystem, enabling multiprotocol stacks such as Matter over Thread out of the box. Architecturally, the Type 2NR module integrates the nRF54L15 SoC with its RF matching network, 32 MHz crystal, and antenna passives, eliminating the most error-prone RF layout tasks from the end-product design. The EVK board (per the published BOM) provides USB connectivity, battery holder, switching transistors, ferrite bead EMI filtering, and a KDS 32 MHz crystal, giving access to GPIO, UART/SPI/I2C, and analog functions for rapid prototyping. Typical applications include smart home and Matter device development, Bluetooth LE sensor nodes, Thread border-router peripherals, NFC-assisted device commissioning, and battery-powered IoT products. The EVK lets engineers validate range, power consumption, and antenna performance of the Type 2NR module before designing the module into a production PCB. A key design consideration: because the module is only 7.4 x 7.0 mm with an integrated PCB trace antenna, keep-out and ground-plane requirements on the production board must mirror the EVK layout to preserve RF performance. This page synthesizes distributor availability, module specifications, drop-in evaluation alternatives, and practical design notes not found in the manufacturer product brief.
MB3000FBUCN - HPE 3TB SAS 6G 7.2K 3.5" LFF MDL HDD
The HPE MB3000FBUCN is a 3 TB, 7,200 RPM, 3.5-inch Large Form Factor (LFF) Midline (MDL) SAS hard disk drive with a 6 Gb/s SAS interface and dual-port connectivity, designed as a hot-plug spare for HPE ProLiant G4-G9 servers and select HPE EVA / MSA storage arrays. It is built on Western Digital HGST's Ultrastar 7K3000 platform (HUS723030ALS640 / DK7SSD300 base model), which gives it a 6 Gb/s SAS dual-port interface, 64 MB cache buffer, and 7,200 RPM spindle speed targeting capacity-oriented midline workloads rather than performance-tier enterprise transactional loads. Mechanically the drive uses the industry-standard 3.5" LFF form factor with a SmartDrive carrier (SC) hot-plug tray that mounts directly into HPE ProLiant Gen8 and Gen9 LFF bays and into MSA / EVA arrays that accept the same SmartDrive carrier. Dual-port SAS provides redundant data paths for high-availability configurations, which is the reason HPE qualified the part for midline server storage pools and bulk-capacity JBODs rather than for boot drives. A midline SAS HDD is a capacity-tier enterprise-class hard drive positioned between nearline SATA and high-performance enterprise 10K/15K SAS drives. It uses the more robust SAS protocol (dual-port, SCSI command set, end-to-end CRC) for predictable behavior under multi-initiator and RAID-controller workloads, while keeping cost and capacity closer to SATA levels. The MB3000FBUCN sits in the middle of HPE's 6G SAS 7.2K LFF MDL family, and is one of the most common 3 TB parts pulled from retired Gen8 and Gen9 servers because it shares the Ultrastar 7K3000 die with WD/HGST retail equivalents. Key features of the MB3000FBUCN include 3 TB (3,000 GB native) capacity, 7,200 RPM spindle speed, 6 Gb/s SAS-2 interface, dual-port full-duplex connectivity, 64 MB cache buffer, 4.17 ms average latency, 8.0 ms average seek time, 512e sector format support, HPE SmartDrive carrier (SC) hot-plug tray, and Smart Carrier LED indicators for drive-status, activity, and fault reporting. The drive is rated for 24x7 operation in enterprise server environments with a typical workload rating near 180-300 TB/year depending on the controller firmware profile. Technically the Ultrastar 7K3000 platform uses perpendicular magnetic recording (PMR) with a 5-platter design, a SATA-compatible SAS bridge controller, and a rotational vibration (RV) sensor for use in dense chassis. The dual-port SAS interface allows the drive to be presented as two separate LUNs to two initiators simultaneously, enabling active-active HA topologies with HPE Smart Array P-series controllers. Compared to SATA, SAS gives the MB3000FBUCN full-duplex data transfer, faster command queuing (TCQ / NCQ), and better error recovery semantics. Typical applications for the MB3000FBUCN include HPE ProLiant G4-G9 server capacity bays, HPE MSA 1040 / 2040 / P2000 storage arrays, HPE EVA M6612 family storage expansion shelves, bulk capacity RAID-6 arrays (RAID-50, RAID-60) where 7.2K $/TB is favorable, secondary backup targets, archive / nearline storage pools, and read-mostly virtual machine and file-share backends that need SAS reliability at SATA-like cost-per-TB. When designing with this drive, plan for 6 W typical operating power and 8.0 W average read/write power; HPE chassis are designed for this thermal envelope, but adding many drives to a dense chassis requires confirming front-to-back airflow and ambient inlet temperature under 35C to keep MTBF near the 1.2 M hours rating. Use only HPE Smart Array firmware-validated drives when running under SSA / ACU to avoid firmware incompatibility alarms. This page synthesizes verified distributor pricing, drop-in same-platform alternatives, and practical replacement guidance not found in any single HPE datasheet - including which third-party HGST Ultrastar 7K3000 SKUs mount into the same HPE SmartDrive carrier and which RAID controller firmware revisions validate the drive.
MCIMX53EVK - i.MX53 ARM Cortex-A8 Dev Kit | NXP Semiconductors
The NXP Semiconductors MCIMX53EVK is the i.MX53 Platform Development Kit, an evaluation platform built around the i.MX53 applications processor family with an ARM Cortex-A8 core. The kit exposes the full multimedia and connectivity capability of the i.MX53 SoC, including hardware-accelerated video encode/decode, dual-display support, and multiple connectivity peripherals, packaged as a ready-to-run reference platform for embedded product prototyping. A development kit (EVK) is a manufacturer-curated reference board that combines a target application processor, validated power tree, expansion headers, display interfaces, and pre-loaded demo firmware. It allows firmware engineers, hardware engineers, and system architects to evaluate the host processor, characterize peripherals, and benchmark software frameworks (Linux, Android, WinCE) before committing to a custom PCB layout. The kit category sits between evaluation modules (system-on-modules) and full product reference designs and is the typical first purchase for any new i.MX project. Key features of the MCIMX53EVK include the i.MX53 ARM Cortex-A8 SoC at up to 1 GHz, DDR2/DDR3 memory support, an LVDS dual-display interface, hardware video accelerators (VPU, GPU2D/3D), 10/100 Ethernet, USB 2.0, SATA, HDMI, and an audio codec. Expansion is provided through the i.MX53-compatible board-to-board connectors, a debug UART, and JTAG for ARM CoreSight trace. The kit ships with a Linux BSP and documentation for quick out-of-box demo bring-up. The platform targets automotive infotainment, industrial HMI panels, medical patient-interface displays, and rich multimedia appliances. It demonstrates how to terminate the i.MX53's high-speed signal lanes, sequence its multiple power rails, and route the LVDS/HDMI video outputs. Designers using the kit as a starting reference can directly copy sections of its schematic into their own carrier board, shortening electrical validation cycles. When designing with this kit, plan for the higher-than-typical thermal envelope of the i.MX53 SoC and the careful decoupling required by its multi-rail power tree. Engineers typically use the EVK to validate the BSP and software stack before transitioning to a custom board or a System-on-Module.