LFE3-150EA-8FN1156C

Lattice Semiconductor LFE3-150EA-8FN1156C: LatticeECP3 Low-Power, Mid-Range FPGA (149K LUTs, -8, FN1156)

The Lattice Semiconductor LFE3-150EA-8FN1156C is a member of the LatticeECP3 family—engineered to deliver efficient, mid-range FPGA capability with an emphasis on low power. This device offers approximately 149K LUTs in a fine-pitch 1156-ball FBGA (FN1156) package, operates with a 1.2 V core supply, and targets commercial temperature applications. For teams building communications, industrial control, or video and imaging systems, the LFE3-150EA-8FN1156C strikes a balance of logic density, footprint, and power-conscious design typical of the LatticeECP3 line.

Key Specifications

• Brand / Manufacturer: Lattice Semiconductor
• Series / Family: LatticeECP3
• MPN / Device: LFE3-150EA-8FN1156C (LFE3-150EA)
• Category: FPGA
• Architecture: FPGA (32-bit CPU not applicable; user-programmable fabric)
• Approximate LUTs: ~149K
• Speed Grade: -8
• Core Voltage: 1.2 V (core supply)
• Package Type: FBGA (FN1156)
• Pin Count: 1156 balls
• Mounting Type: Surface mount
• Temperature Grade: Commercial (C)
• Operating Temperature Range: 0°C to +85°C (Commercial)
• Lifecycle Status: Active (Production)
• RoHS Status: RoHS Compliant
• REACH: REACH Compliant

Notes

• Device-level electrical and timing characteristics depend on speed grade and configuration; refer to the LatticeECP3 family documentation for details.
• I/O standards, transceiver availability, PLL/DLL resources, memory blocks, and other fabric features are Not specified in datasheet (refer to the manufacturer’s family datasheet for exact capabilities of the LFE3-150EA speed grade and package).

Packaging and Mechanical Considerations

• Package: FBGA-1156 (FN1156)
• Ball Count: 1156
• Ball pitch and outline drawings: Not specified in datasheet (consult the Lattice package drawing for FN1156)
• Board Mount: Surface mount, compatible with modern BGA assembly and reflow processes

Assembly reminders

• Moisture Sensitivity Level (MSL): Not specified in datasheet (verify the MSL rating in the official package documentation and follow handling/baking guidance accordingly).
• Solder profile: Follow your EMS house and Lattice recommendations for reflow temperature/time; ensure correct stencil design and via-in-pad strategy as appropriate for 1156-ball devices.

Power and Thermal Notes

• Core Supply: 1.2 V
• Low-Power Positioning: The LatticeECP3 family is known for low-power architectures at the family level. Specific static/dynamic power data, rail currents, and power modes for LFE3-150EA-8FN1156C are Not specified in datasheet here; use Lattice’s power estimator tools and the family datasheet for design-time calculations.
• Thermal: Junction-to-ambient and junction-to-case thermal metrics are package- and board-dependent and are Not specified in datasheet in the provided data. Validate thermal design using vendor thermal models and your system airflow/heat-spreading assumptions.

Design guidance

• Decoupling: Budget generous high-frequency decoupling near core and I/O rails. Distribute bulk capacitance per vendor guidance to smooth current transients from configuration and high-activity workloads.
• Power Integrity: For a 1.2 V core, maintain tight regulation and target low impedance across the FPGA operating band. Incorporate well-planned power distribution networks (PDNs) and verify with impedance and transient simulations.

Architecture and Design Considerations

While the LFE3-150EA-8FN1156C centers on approximately 149K LUTs, the practical system capacity depends on the mix of arithmetic, control, memory, and I/O resources you deploy. Device-level details such as embedded block RAM, DSP resources, clocking structures, and any high-speed transceiver capabilities are Not specified in datasheet within the provided data. For project scoping:

• Logic Budgeting: Start from the ~149K LUT figure to estimate the feasibility of your logic partitioning. Complex protocol stacks, image processing pipelines, and multi-channel industrial controllers can often be realized in this class of device, but confirm with synthesis and place-and-route trials.
• Timing Closure: The -8 speed grade defines the relative performance tier within the family. However, precise timing numbers (e.g., Fmax of specific primitives or interfaces) are Not specified in datasheet here. Use the vendor timing models and your post-route results for sign-off.
• Clocking Strategy: The quantity and performance of PLLs/DLLs and global/regional clock resources are Not specified in datasheet in this summary. Plan clock domains conservatively and consult the family datasheet to align your CDC methodology and jitter budgets.
• Memory Architecture: Block RAM sizes and configurations are Not specified in datasheet. Create an early memory map (frame buffers, FIFOs, coefficient storage) and validate against the device resources in the Lattice documentation.
• I/O Planning: I/O bank voltage options, supported standards, and pin multiplexing are Not specified in datasheet. Before committing the PCB, lock the pinout with the official pin planning tools and ensure that bank-level voltage rails match your intended I/O standards.

Applications and Use Cases

The Lattice Semiconductor LFE3-150EA-8FN1156C targets a broad set of mid-range FPGA deployments where logic density and power efficiency are important:

• Communications and Networking: Packet processing assist, traffic shaping, MAC framing, timing and synchronization logic, flexible bridging between legacy and modern interfaces, and custom diagnostics/probing blocks.
• Industrial Control and Automation: Deterministic control logic, motion control coordination, sensor fusion gateways, and glue logic around industrial protocols—especially where power and thermal headroom are constrained.
• Video and Imaging: Real-time pixel processing, format conversion, scaling and color-space transforms, and pipeline control for camera/sensor front ends or display back ends.
• General-Purpose Programmable Logic: Rapid prototyping, hardware acceleration for embedded CPUs, and situationally specific state machines that are impractical with fixed-function components.

In each of these domains, the FN1156 package offers ample I/O terminations (1156 balls) for wide parallel buses or multiple interface endpoints, while the ~149K LUT fabric provides room for control-plane logic, datapaths, and integration glue.

Lifecycle and Replacements

• Lifecycle Status: Active (Production)
• Official Replacements: None listed in the provided data
• OCM Source: Lattice Semiconductor product family documentation

Risk management guidance

• If your program horizon extends several years, monitor the LatticeECP3 family roadmap and PCN/PDN notices. While the LFE3-150EA-8FN1156C is active, long-life programs should maintain second-source strategies at the board or RTL level where practical.
• Consider pin-compatible or fabric-closely-related devices within the LatticeECP3 family if you anticipate growth in resource needs or if a different speed grade becomes preferable. Verify package and pinout compatibility through the official pinout files—do not assume interchangeability across ECP3 variants.

Compliance and Environmental

• RoHS: RoHS Compliant (per manufacturer)
• REACH: REACH Compliant (per manufacturer)
• Halogen content, Pb-free finish composition, and MSL: Not specified in datasheet in the provided data—consult the Lattice quality and environmental pages or the device-specific material declaration.

For procurement and manufacturing documentation, reference:

• Lattice Environmental Compliance: https://www.latticesemi.com/en/About/Quality/RoHSandREACH

Integration Tips for a Smooth Bring-Up

• Power Rail Sequencing: The core is 1.2 V. Any auxiliary and I/O rails you require depend on your selected I/O standards and bank assignments and are Not specified in datasheet here—review the power-up sequencing requirements in the family documentation to avoid latch-up or undefined behavior.
• Configuration: The configuration mechanism(s) and memory options are Not specified in datasheet. Establish your configuration strategy early (e.g., external SPI/QSPI, JTAG) and ensure layout accommodates the chosen method with appropriate pull-ups/pull-downs.
• Signal Integrity: With 1156 balls, careful breakout and layer planning are critical. Use short, direct escapes for high-activity signals and maintain return paths. Match impedances for high-speed interfaces. If differential pairs are required, reserve routing pairs early and observe pair-skew budgets.
• Test and Debug: Dedicate pins for JTAG and any vendor-specific debug infrastructure. Provide access to key clocks, resets, and status LEDs or test pads to streamline validation.
• Thermal Margining: Even in low-power families, worst-case toggling can raise power significantly. Validate power dissipation with vendor estimators and verify temperature rise in system-level thermal tests.

Sourcing and Procurement Guidance

• Availability: The provided inventory field indicates 0 units at the time of this data snapshot. Check authorized Lattice Semiconductor distributors and the Lattice website for current stock and lead times.
• Ordering Code: LFE3-150EA-8FN1156C. Include the full MPN and ensure that the suffixes match your intended speed grade (-8), package (FN1156), and temperature grade (Commercial, C).
• Date Code and Traceability: Request full trace, lot code, and C of C for critical builds. For BGAs, ensure moisture barrier bags are sealed, within shelf life, and accompanied by correct desiccant and HIC cards.
• Counterfeit Mitigation: Source from franchised or vetted suppliers. Validate incoming product via visual inspection (ball condition, marking), X-ray sampling for ball integrity if needed, and electrical acceptance tests.
• Lifecycle Monitoring: Subscribe to PCNs/PDNs from Lattice Semiconductor for the LatticeECP3 family to receive advance notice of any changes that might impact your design.

Frequently Asked Questions (FAQs)

Q: What is the device family for the LFE3-150EA-8FN1156C?
A: It belongs to the LatticeECP3 family of low-power, mid-range FPGAs from Lattice Semiconductor.

Q: How much logic does it provide?
A: Approximately 149K LUTs, suitable for a wide range of mid-range FPGA applications.

Q: What is the speed grade and what does it imply?
A: The device is speed grade -8. Exact timing figures are device- and implementation-dependent and are Not specified in datasheet in this summary; consult the family datasheet and your post-route timing for sign-off.

Q: What package is used and how many I/Os are available?
A: The package is FN1156, a 1156-ball FBGA suitable for surface-mount assembly. Detailed I/O counts per bank and supported standards are Not specified in datasheet here; refer to the pinout file for the FN1156 package.

Q: What is the operating temperature range?
A: Commercial temperature range, 0°C to +85°C.

Q: What is the core voltage?
A: 1.2 V for the core supply.

Q: Is the LFE3-150EA-8FN1156C RoHS and REACH compliant?
A: Yes, it is listed as RoHS and REACH compliant per the manufacturer.

Q: Is the device currently in production?
A: Yes, the lifecycle status is Active (Production) per the provided data.

Q: Are there direct replacements?
A: No direct replacements are listed in the provided data. Evaluate other LatticeECP3 variants if you need different resources or speed grades, verifying package/pin compatibility.

Resources

• LatticeECP3 Family Product Page: https://www.latticesemi.com/Products/FPGAandCPLD/LatticeECP3
• Datasheet/Documentation Hub (family-level): https://www.latticesemi.com/Products/FPGAandCPLD/LatticeECP3
• Environmental Compliance (RoHS/REACH): https://www.latticesemi.com/en/About/Quality/RoHSandREACH

By aligning your design to the strengths of the Lattice Semiconductor LFE3-150EA-8FN1156C—namely low-power operation in a high-I/O-count FN1156 package with approximately 149K LUTs—you can implement robust communications, industrial, and imaging solutions with a practical balance of density and efficiency. For specification details beyond what is captured here (I/O standards, transceivers, memory blocks, exact timing), rely on the latest LatticeECP3 documentation and design tools to complete power, timing, and pin-planning closure with confidence.