FC3081 - PCIe 3.0 x4 NVMe 1.3 SSD Controller | FADU
MPN: FC3081 ✓ Active| Qty | Unit Price | Extended |
|---|---|---|
| 1 | $0 | $0.00 |
| 10 | $0 | $0.00 |
| 100 | $0 | $0.00 |
| 500 | $0 | $0.00 |
| 1,000 | $0 | $0.00 |
FC3081 Overview
An SSD controller is an integrated circuit that coordinates a flash-storage subsystem, including the host interface, NAND media, data integrity, command processing, and power-loss behavior. FC3081 belongs to the hierarchy storage controller → PCIe storage controller → NVMe SSD controller → enterprise data-center semiconductor. Its PCIe connection provides a standardized link between a host and nonvolatile storage, while NVMe defines the command set and transport behavior used by the SSD.
The verified FC3081 material identifies three headline platform characteristics: PCIe 3.0 x4 connectivity, NVMe 1.3 support, and OCP NVMe Cloud SSD 1.0 compliance. Additional cited platform features include hardware-based security, advanced telemetry, virtualization functions, and power-loss protection, but no associated implementation details or quantitative limits were provided. A separate ComputerBase report identifies PCIe 3.1 for FC3081, so interface-version clarification requires review of the original manufacturer documentation or SSD vendor design records.
FC3081 is intended for enterprise and hyperscale solid-state drives rather than consumer desktop storage. The reported 100K IOPS/W positioning targets efficient data-center deployments, while OCP alignment supports standardized cloud-storage integration. A complete controller implementation also depends on NAND type, firmware, ECC strategy, DRAM configuration, PCIe routing, power delivery, enclosure thermals, and the selected enterprise SSD form factor; those implementation values are not established by the supplied evidence.
Typical applications include E1.S and E3.S data-center SSDs, OCP-compliant enterprise storage platforms, hyperscale computing systems, NVMe storage appliances, cloud hosts, and high-throughput database workloads. Public material says FC3081-based products can serve multiple enterprise SSD form factors, but verified dimensions, lane-routing guidance, and reference designs were not included.
Design validation should begin with the exact SSD vendor specification, including PCIe compatibility, firmware support, NAND compatibility, power-loss behavior, thermal limits, and validation qualifications. Do not treat an SSD built around FC3081 as electrically interchangeable with another controller without comparing the complete PCIe, NAND, DRAM, firmware, and power domains.
This page separates verified FC3081 platform facts from unavailable electrical, mechanical, lifecycle, pricing, and sourcing data. It also distinguishes the semiconductor controller from unrelated pool-filter products carrying a similar number and summarizes why firmware-level and board-level qualification matters more than a simple headline MPN substitution.
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| Product Type | Enterprise NVMe SSD controller |
| Host Interface | PCIe 3.0 x4 |
| Storage Protocol | NVMe 1.3 |
| Cloud SSD Specification | OCP NVMe Cloud SSD 1.0 |
| PCIe Generation | 3.0; a secondary source reports 3.1 |
| Reported Performance Efficiency | 100K IOPS/W class |
| Reported Production Status | Mass production announced in February 2022 |
| Target Market | Enterprise and data-center SSD applications |
FC3081 standard Pin Configuration Guide
Pin configuration for FC3081 (standard package). Pin numbering, functions, and connection diagrams are defined in the manufacturer datasheet. Refer to it for the exact footprint and soldering guidelines.
No detailed pinout data available for FC3081.
Refer to the datasheet for full pin configuration.
Typical Applications
FC3081 is suitable for 8 applications: Enterprise NVMe Data-Center SSD, Hyperscale Cloud Storage, E1.S Enterprise SSD Platform, High-Throughput Database Storage, Cloud Storage Appliance, Virtualized Compute Platform, Telemetry-Managed SSD Fleet, Power-Resilient Storage Node.
Enterprise NVMe Data-Center SSD
The FADU FC3081 fits an enterprise NVMe SSD platform built around PCIe 3.0 x4 and NVMe 1.3. Its OCP NVMe Cloud SSD 1.0 alignment makes it relevant to standardized hyperscale storage designs, while reported platform capabilities include telemetry, virtualization support, and power-loss protection. The SSD designer must still qualify NAND endurance, latency under workload, firmware compatibility, and complete power-loss behavior. Because no package, pin map, or electrical limits were supplied, the controller should not be placed on a new PCB without the authoritative reference design.
Hyperscale Cloud Storage
FC3081 is relevant to hyperscale cloud SSDs where predictable efficiency and standard platform behavior matter. The verified FC3081 PDF identifies OCP NVMe Cloud SSD 1.0 support, and FADU-linked coverage reports a 100K IOPS/W class positioning for FC3081-based products. That efficiency claim is a platform statement, not a universal application-specific result. Deployment selection should therefore include workload benchmarking, mixed-read/write testing, telemetry validation, power-cut recovery tests, and confirmation that the finished drive satisfies the applicable cloud procurement specification.
E1.S Enterprise SSD Platform
FC3081 can be evaluated for an E1.S enterprise solid-state drive when the controller's host interface and validated SSD reference architecture match the platform. FADU-linked coverage states that its controllers support OCP Cloud SSD Specifications with E1.S solutions, but the supplied evidence does not identify a particular E1.S mechanical drawing or FC3081 board design. Engineering teams should verify enclosure dimensions, connector mapping, power limits, heat-spreader requirements, PCIe lane routing, and thermal performance with the SSD vendor before release to manufacturing.
High-Throughput Database Storage
The PCIe 3.0 x4 interface and NVMe 1.3 command support make FC3081 applicable to database-oriented SSDs where low-latency access and efficient IOPS/W are priorities. The reported 100K IOPS/W class position is especially relevant to consolidated infrastructure, but the value of FC3081 in a specific database depends on NAND selection, queue depth, block-size distribution, read/write ratio, and firmware scheduling. Validate steady-state latency, tail latency, endurance, and power behavior using production-like workloads rather than selecting only by the efficiency headline.
Cloud Storage Appliance
FC3081 is suitable for consideration in an NVMe storage appliance built to OCP cloud-SSD expectations. Its host interface and protocol support align with modern PCIe infrastructure, while telemetry and virtualization functions can assist fleet management when properly implemented. The controller is not a complete appliance component by itself; the storage subsystem also needs validated NAND, optional DRAM, firmware, power-loss protection, thermal management, and management-plane integration. Exact E1.S and E3.S use must be confirmed against the SSD vendor because the supplied source does not enumerate supported packages.
Virtualized Compute Platform
FC3081-based SSDs may fit virtualized compute hosts requiring enterprise NVMe storage with OCP-aligned behavior. The verified platform material identifies virtualization functions among supported SSD features, but it does not state implementation scope, device-discovery behavior, or supported hypervisor versions. Before deployment, verify namespace handling, I/O isolation, administrative telemetry, reset recovery, firmware update procedures, and fail-state behavior. The storage design must also account for controller and NAND thermal limits, which are not available in the supplied FC3081 specifications.
Telemetry-Managed SSD Fleet
FC3081's reported advanced telemetry capability can support centralized SSD health and performance management in large fleets. Telemetry can help operations teams monitor workload behavior and device condition, but the supplied evidence does not define the exported fields, transport protocol, sampling interval, or security controls. A production implementation should validate log compatibility with the fleet manager, confirm firmware-version behavior, test data integrity, and establish alert thresholds. These system-level requirements are as important as the controller's PCIe 3.0 x4 and NVMe 1.3 interfaces.
Power-Resilient Storage Node
FC3081-based products may suit storage nodes requiring power-loss resilience because power-loss protection is identified as a platform feature. That statement does not define protection duration, capacitor requirements, data-consistency guarantees, or recovery behavior. Before using FC3081 in a critical role, inspect the SSD vendor's power-loss test matrix, test abrupt input removal across operating states, confirm firmware recovery procedures, and verify that retention energy is correctly sized. Controller marking alone is not evidence of a particular endurance or failure-rate guarantee.
Engineering reference data for FC3081 — comparison, design guidance, and compliance information.
Selection Guide
Design Notes
Do not begin a new FC3081 power design from headline interface data alone. Obtain the authoritative electrical tables for supply rails, current, inrush, power states, and decoupling. The supplied sources provide no voltage, current, capacitance, ripple, or sequencing values. Compare those requirements against the selected NAND, DRAM, PCIe PHY, retimer, and protection circuitry, then validate steady-state and abrupt-power-removal behavior at the finished-SSD level.
Treat the reported 100K IOPS/W class figure as a platform positioning claim, not a cooling specification. Confirm active power, idle power, temperature sensor locations, thermal throttling thresholds, airflow, and enclosure limits using the SSD vendor's validation report. Test the complete drive in its intended E1.S, E3.S, or other enclosure because controller, NAND, DRAM, power delivery, and heat-spreader performance determine junction temperature. Exact FC3081 thermal limits are [DATA_NEEDED].
Use the approved FC3081 SSD reference schematic and layout rather than deriving pin assignments from protocol compatibility. The verified material does not expose the package, ball map, exposed pads, PCIe lane mapping, NAND channels, DRAM signals, supplies, grounds, or test points. Preserve the reference stack-up, return paths, decoupling placement, and length-matching topology, and verify high-speed SI/PI results with the controller vendor before releasing layout for fabrication.
Do not confuse FC3081 with Filbur FC-3081 or generic FC-3081 pool-filter cartridges. The verified search results contain both semiconductor-controller coverage and unrelated 40-square-foot filter products. Likewise, do not treat FC4121 as a drop-in replacement merely because both support OCP cloud SSDs: FC4121 is identified as a second-generation PCIe 4.0 controller. Require manufacturer, ordering code, package evidence, and SSD compatibility documentation before approving any substitution.
Compliance Information
The verified material identifies OCP NVMe Cloud SSD 1.0 support but provides no controller-level RoHS, REACH, AEC-Q100, lead-free, halogen-free, or conflict-minerals declarations.
