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LFE2-6E-6TN144C - 6K LUT ECP2 FPGA, 144-LQFP | Lattice
LFE2-6E-6TN144C

LFE2-6E-6TN144C - 6K LUT ECP2 FPGA, 144-LQFP | Lattice

The Lattice Semiconductor LFE2-6E-6TN144C is a member of the LatticeECP2 (ECP2) family of Field Programmable Gate Arrays (FPGAs) fabricated on a 90 nm CMOS process, integrating 6,000 Look-Up Tables (LUTs), 56,320 flip-flops (or system gates), and 90 user I/O in a 144-pin TQFP/LQFP (TQ = Thin Quad Flat Pack) surface-mount package. The device features a -6 speed grade, operates from a 1.2 V core supply, and supports embedded DSP blocks for low-cost signal processing. The "E" suffix denotes the ECP2 family (low-cost, high-volume) while "C" denotes the commercial temperature grade. An FPGA (Field Programmable Gate Array) is a semiconductor device whose logic functionality is defined after manufacturing by the user via a configuration bitstream loaded into on-chip SRAM. FPGAs sit hierarchically under programmable logic -> logic devices -> digital integrated circuits -> semiconductors. Unlike ASICs, FPGAs offer rapid prototyping, in-field re-programmability, and parallel hardware execution, making them ideal glue logic, interface bridging, and pre-silicon validation platforms. Key features of the LFE2-6E-6TN144C include 6,000 LUTs, 56,320 flip-flops equivalent in system gates, 90 user I/O pins, embedded sysDSP blocks for multiply-accumulate operations, dedicated DDR memory interface support, and on-chip PLLs for clock management. The device supports multiple I/O standards including LVCMOS, LVTTL, PCI, LVDS, SSTL, and HSTL. The 144-pin TQFP package is 22 mm × 22 mm with 0.5 mm pitch. The ECP2 architecture combines high-performance FPGA fabric with low-cost positioning, providing 311 MHz internal operation and pre-engineered IP cores through Lattice's ispLeverage / Lattice Diamond design tool chain. Embedded DSP blocks (typically 18×18 multipliers) accelerate signal-processing functions at lower power than soft multipliers implemented in LUT fabric. Hardened memory interface controllers simplify DDR1/DDR2 PHY integration. Typical applications include industrial control and factory automation glue logic, telecom interface bridging (SPI, I2C, UART, parallel buses), video processing front-ends, low-volume prototyping replacement for aging CPLDs, motor control and encoder interfaces, and medical/portable instrumentation requiring low-power programmable logic. The 6K LUT density suits medium-complexity state machines, bus conversion, and DSP pre-processing. When designing with this part, ensure all I/O banks receive proper VCCIO rail voltages matching the chosen I/O standard (1.2 V–3.3 V) and that the JTAG chain is properly terminated for in-system programming. Always validate timing closure at the chosen fMAX using Lattice Diamond timing analysis, as the 311 MHz figure is best-case for internal register-to-register paths only. This page synthesizes distributor pricing, drop-in alternatives within the ECP2 family, and practical design notes not consolidated in the manufacturer datasheet, helping engineers select the right speed grade, temperature grade, and package variant for production.

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LFE2-6E-6TN144I - 6K LUT ECP2 FPGA | Lattice
LFE2-6E-6TN144I

LFE2-6E-6TN144I - 6K LUT ECP2 FPGA | Lattice

Lattice Semiconductor LFE2-6E-6TN144I is an ECP2 field-programmable gate array with 6,000 logic cells, a 90 I/O interface, a 1.2 V core supply, and a 144-pin LQFP package. The -6 speed designation identifies the performance grade, while the industrial-temperature suffix supports applications requiring extended environmental operation. Its 90 nm programmable-logic process combines configurable logic, block RAM, and DSP resources in a low-cost device family designed for embedded control, communications, industrial automation, and general-purpose digital logic. An FPGA is a programmable-logic semiconductor whose digital function is defined by loading a configuration bitstream into on-chip memory. Within the semiconductor hierarchy, the LFE2-6E-6TN144I belongs to the ECP2 family of field-programmable gate arrays, placing it below programmable logic devices and above fixed-function logic integrated circuits. This distinction allows one PCB design to support firmware-driven changes in timing, interfaces, control algorithms, or system behavior without replacing the physical device. The device provides 6,000 logic cells and 90 user I/O in a surface-mount 144-pin LQFP package measuring 20 mm by 20 mm. A 1.2 V core operating voltage supports low-power logic implementation, and the -6 speed grade targets designs requiring more timing margin than slower ECP2 grades. The 90 I/O count is particularly useful for parallel control, data acquisition, industrial interfaces, and board-level integration where a programmable device must directly connect to multiple external signals. The ECP2 architecture provides programmable logic together with dedicated block RAM and DSP resources, allowing designers to implement control logic, counters, state machines, data pipelines, signal conditioning, and fixed-point processing in one device. The manufacturer classifies the part in the ECP2 family and identifies 6,000 cells, a 144-LQFP package, 90 I/O, and a 90 nm process node. This combination provides a practical platform for moderately complex digital systems where a small microcontroller is insufficient or an application-specific ASIC would not justify the development cost. Typical uses include industrial automation controllers, sensor and measurement interfaces, communication equipment, embedded data acquisition, motor and machine-control logic, and general-purpose digital signal conditioning. Its 90 I/O can simplify board partitioning when multiple buses, discrete inputs, and outputs must be consolidated. The 20 mm by 20 mm LQFP also remains practical for conventional multilayer PCB assembly methods rather than requiring fine-pitch BGA assembly. Designers should confirm the exact pin assignments, supported I/O standards, configuration requirements, clocking resources, and recommended power and decoupling networks against the manufacturer ECP2 documentation before layout release. Pay particular attention to the -6 speed designation, 1.2 V core supply, industrial-temperature ordering code, and package pinout. Configuration storage, JTAG access, programming voltage, and unused-pin treatment must also be validated for the selected board architecture. This product page combines the exact ECP2 ordering information with practical selection guidance, alternative cross-references, parameter comparisons, and design-oriented implementation notes. These resources help engineers identify whether the LFE2-6E-6TN144I fits the required logic density, I/O count, package, speed grade, and environment before beginning a new programmable-logic design.

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LFE2-6E-7F256C - 6000-LUT FPGA, 190 I/O, 256-BGA | Lattice
LFE2-6E-7F256C

LFE2-6E-7F256C - 6000-LUT FPGA, 190 I/O, 256-BGA | Lattice

The Lattice Semiconductor LFE2-6E-7F256C is an ECP2 field-programmable gate array with 6000 logic cells, 190 I/O, a 420 MHz maximum operating frequency, and a 256-ball BGA package. It is designed for compact programmable-logic applications requiring substantial logic capacity, parallel interfaces, and embedded DSP resources. The -7 speed designation and 1.2 V supply place it in the performance-oriented portion of the LatticeECP2 family. An FPGA is a semiconductor whose digital logic and interconnects are configured after manufacture. In the broader hierarchy, an FPGA is a programmable logic device and therefore a type of semiconductor IC. ECP2 devices combine LUT-based logic, programmable routing, block RAM, DSP capability, and user I/O in one package. This combination allows designers to implement control logic, interface bridges, packet processing, signal conditioning, and embedded data pipelines without relying on a custom ASIC. Verified distributor data identifies this device as an ECP2 FPGA with 6000 cells, 190 I/O, and a 256-BGA package. The LFE2-6E-7F256C also appears in comparison data as a 420 MHz, 6000-cell PBGA256 device measuring 17 x 17 mm. Its 190 available I/O support substantial board-level connectivity, while the ECP2 architecture provides a practical balance between logic density, programmable functionality, and device integration. The suffix C denotes a commercial-temperature ordering code in the supplied comparison data, but the complete temperature range is not available in the provided sources. Typical applications include industrial automation, communications infrastructure, embedded control, video and image processing, data acquisition, and DSP-assisted signal processing. Its 190 I/O are useful when an interface must connect multiple buses, counters, memory devices, converters, or control peripherals. Its 6000-cell capacity is suitable for parallel datapaths and moderate protocol stacks, although design headroom should be checked against routing, timing, RAM, DSP, and pin-assignment requirements before committing to a production build. For reliable implementation, use the manufacturer pin table and package information rather than generic BGA assumptions. Decoupling, bank-supply requirements, configuration pins, clock topology, I/O standards, and unused-ball treatment must follow the LatticeECP2/M Family Data Sheet. A programmable device also depends on a valid bitstream, correct configuration clocking, and a suitable Lattice programming interface. This page consolidates the supplied distributor listings, package information, and cross-reference evidence. It separates verified values from unavailable electrical details and does not infer pricing, lifecycle, pinout, or compliance claims that were not established by the source data. Engineers should evaluate the LFE2-6E-7F256C when a 6000-cell FPGA, 190 I/O, 420 MHz-class performance, and 256-BGA integration align with the design. Confirm timing closure, memory and DSP availability, package ball assignments, and supply status in the official documentation before hardware release.

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LFE2-6E-7T144C - 6K LUT ECP2 FPGA | Lattice Semiconductor
LFE2-6E-7T144C

LFE2-6E-7T144C - 6K LUT ECP2 FPGA | Lattice Semiconductor

Lattice Semiconductor LFE2-6E-7T144C is an ECP2 field-programmable gate array with 6,000 logic cells, 56,320 embedded RAM bits, and 90 user I/O in a 144-pin LQFP package. The verified product data identifies a 1.2 V device with a -7 speed designation and DSP capability. It is designed for compact programmable-logic applications where moderate logic density, embedded memory, and a large pin count are useful without moving to a larger FPGA. What is an FPGA? A field-programmable gate array is a reconfigurable digital integrated circuit containing programmable logic, memory, and input/output resources. An FPGA belongs to the programmable-logic hierarchy and can be programmed after manufacture to implement control logic, interfaces, data acquisition, signal processing, or embedded systems. The LatticeECP2 family combines programmable logic blocks, DSP resources, and I/O in an integrated device. The LFE2-6E-7T144C is identified by the verified sources as an ECP2 FPGA with 6,000 logic elements, 90 user I/O, 56,320 bits of on-chip RAM, and a 144-LQFP package. The separate product references also describe 750 logic blocks and a 1.14 V to 1.26 V supply range. The -7 speed code is retained from the verified listing, while the commercial temperature grade and full timing details require confirmation from the manufacturer datasheet. Its 90 user I/O make the device suitable for systems that need multiple external interfaces, parallel buses, status signals, or mixed control and data paths. The 144-LQFP package provides a conventional surface-mount footprint and exposes substantially more pins than a small FPGA package. Designers should account for package routing, power distribution, signal integrity, and thermal performance in the final PCB design. Typical uses include industrial control, instrumentation, embedded data acquisition, communications interfaces, DSP-assisted signal processing, and compact embedded control platforms. The DSP feature cited in the verified listings can reduce external processing hardware when the design uses suitable fixed-point operations and parallel datapaths. Before finalizing a design, verify the pinout, bank voltages, supported I/O standards, configuration method, clock requirements, and power-sequencing constraints against the LatticeECP2/M Family Data Sheet. The available search data does not provide a manufacturer-controlled purchase price or complete pin-level assignment, so those details must not be inferred. This page combines verified distributor specifications, package information, application guidance, and strict replacement criteria for engineers evaluating the LFE2-6E-7T144C.

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LFE2-6E-7TN144C - 6K LUT ECP2 FPGA | Lattice Semiconductor
LFE2-6E-7TN144C

LFE2-6E-7TN144C - 6K LUT ECP2 FPGA | Lattice Semiconductor

Lattice Semiconductor LFE2-6E-7TN144C is an ECP2 field-programmable gate array with 6,000 logic cells, approximately 6K LUTs, 90 I/O, and DSP capability. The device is manufactured in 90 nm technology and is available in a 144-pin TQFP package measuring 20 x 20 mm. It operates from a 1.2 V supply and is assigned the -7 speed designation. The LFE2-6E-7TN144C combines programmable digital logic, dedicated DSP resources, and a substantial pin count in a surface-mount package. An FPGA is a semiconductor whose digital behavior is defined after fabrication by loading a configuration bitstream. Within the product hierarchy, the LFE2-6E-7TN144C is a field-programmable gate array, a parallel programmable-logic device, and an FPGA within Lattice Semiconductor's ECP2 family. Unlike a fixed-function logic IC, an FPGA can implement parallel processing, control, communication, signal-conditioning, and data-capture functions in one device, reducing external component count when several independent logic blocks are required. The device's 6,000-cell ECP2 architecture provides about 6K LUTs for combinational and sequential logic, while 90 I/O positions provide substantial board-level connectivity. DSP capability supports designs involving multiplication, accumulation, filtering, and fixed-point signal processing. The 1.2 V core supply and -7 speed designation place the part in an ECP2 configuration optimized for compact, cost-sensitive programmable-logic systems requiring a large number of package pins. A 144-pin TQFP provides more I/O than smaller ECP2 packages, making this device useful when external interfaces, parallel buses, memory connections, or multiple high-speed signals dominate the design. The 20 x 20 mm body remains larger than a compact QFN package, but its exposed lead geometry supports conventional PCB assembly, inspection, and rework. Design teams should use the manufacturer pin table and package drawing to assign every power, ground, configuration, clock, and user I/O connection. Typical applications include parallel data acquisition, industrial control and automation, embedded protocol bridging, sensor aggregation, digital signal processing, general-purpose control logic, and communication-interface consolidation. Its combination of programmable logic, DSP support, 90 I/O, and a 144-pin package is particularly useful when a design must implement several bus interfaces or acquisition channels around a common control engine. The principal design considerations are power sequencing, configuration management, clock integrity, I/O voltage compatibility, and PCB routing density. Confirm that every connected peripheral uses compatible voltage levels, place configuration and decoupling networks according to the manufacturer reference design, and use controlled clock routing for timing-sensitive interfaces. Although alternatives exist in the same ECP2 family, speed grade and temperature suffix differences can alter interchangeability. This product page consolidates the exact device identity, package information, technical comparisons, and practical replacement guidance into one engineering-focused reference. It also distinguishes true same-package ECP2 alternatives from parts that differ in speed grade, temperature grade, or package designation, helping PCB designers make informed decisions without assuming that every similarly named FPGA is interchangeable.

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LFE3-17EA-6MG328C - 17K LUT ECP3 FPGA, 116 I/O, 328-CSBGA | Lattice
LFE3-17EA-6MG328C

LFE3-17EA-6MG328C - 17K LUT ECP3 FPGA, 116 I/O, 328-CSBGA | Lattice

The Lattice Semiconductor LFE3-17EA-6MG328C is a member of the LatticeECP3 family of low-power, high-performance Field Programmable Gate Arrays (FPGAs), offering 17,000 logic elements (17.3K LUTs), 716,800 bits of embedded SRAM, and 116 user I/O in a 328-ball Chip-Scale BGA (CSBGA / LFBGA) package. It is fabricated on a 65 nm CMOS process and operates from a 1.2 V core supply, with the -6 speed grade targeting cost-sensitive mainstream applications. An FPGA (Field Programmable Gate Array) is a semiconductor device built around an array of configurable logic blocks (LUTs), programmable interconnect, and dedicated hard IP such as SERDES, PLLs, and block RAM. FPGAs sit between general-purpose microcontrollers and fixed-function ASICs, offering hardware-level parallelism with full software-style reprogrammability. The LatticeECP3 family specifically targets low-cost, high-volume serial connectivity applications, distinguishing itself from pure CPLDs by integrating multi-gigabit transceivers directly on-die. Key features of the LFE3-17EA-6MG328C include up to 16 SERDES channels supporting data rates from 150 Mbps (8b/10b-encoded) to 3.2 Gbps, dual-channel SERDES supporting protocols such as PCI Express, SGMII, and XAUI, distributed and block RAM totaling 716,800 bits, and embedded sysDSP slices for signal processing. The 65 nm process combined with 1.2 V core operation delivers the typical low-power consumption that defines the ECP3 value proposition. Typical applications for this device include cost-optimized telecom bridges, low-density serial protocol aggregation (SGMII, XAUI, PCIe Gen1), industrial control planes, video processing pre-processing, and embedded control with parallel processing. The 116 user I/O and 17K LUT density suit designs where higher-end Virtex or Stratix-class FPGAs would be overkill, but pin-compatible alternatives exist for design migration. When designing with the LFE3-17EA-6MG328C, ensure the PCB footprint matches the 328-ball CSBGA land pattern exactly and that the supporting power supply decoupling follows Lattice's TN1207 reference. The -6 speed grade balances Fmax and cost; the -7 grade delivers higher Fmax at higher price. This page synthesizes real-time distributor pricing, drop-in same-package alternatives, and engineering-grade design notes that go beyond the manufacturer datasheet headline parameters.

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LFE3-35EA-6FTN256I - ECP3 33K LUTs FPGA 1.2V | Lattice
LFE3-35EA-6FTN256I

LFE3-35EA-6FTN256I - ECP3 33K LUTs FPGA 1.2V | Lattice

The Lattice Semiconductor LFE3-35EA-6FTN256I is a member of the LatticeECP3 family of low-power, high-performance Field-Programmable Gate Arrays (FPGAs), fabricated on 65 nm technology and delivering 33,000 LUTs with up to 133 user I/O in a 256-ball ftBGA package. The device operates from a 1.2 V core supply and is offered in the -6 commercial-to-industrial speed grade, with an extended industrial temperature range indicated by the 'I' suffix. Embedded resources include 1,358,848 bits of block RAM, 24 18x18 DSP slices, and on-die SerDes for high-speed serial protocols. An FPGA (Field-Programmable Gate Array) is a class of programmable logic device that allows hardware designers to implement arbitrary digital logic through SRAM-based configuration cells. FPGAs sit between ASICs and microcontrollers in the design hierarchy: ASIC > FPGA > CPLD > microcontroller > DSP. The LatticeECP3 family targets low-power, high-volume applications that require SERDES connectivity, DSP blocks, and a low-cost fabric, making it distinct from Lattice's high-density ECP5 and CrossLink-NX families. Key features of the LFE3-35EA-6FTN256I include 33.3K LUTs, 1.36 Mbit embedded sysMEM block RAM distributed across the fabric, 18x18 multipliers in dedicated DSP blocks, and multi-protocol SERDES supporting standards such as PCIe, Ethernet (SGMII, GbE), CPRI, and JESD204A/B. The 1.2 V core voltage enables low static and dynamic power consumption, while the -6 speed grade provides timing closure margin for cost-sensitive designs. The LFE3-35EA-6FTN256I uses a 65 nm CMOS process and a symmetric FPGA fabric with embedded block RAM and DSP tiles. Configuration is loaded from external SPI flash through dedicated pins, and the part supports bitstream encryption and dual-boot for field upgrades. The on-chip SERDES reduces BOM cost by eliminating external PHY components for many common serial standards. Typical applications include industrial Ethernet switches and fieldbus bridges, video bridging and display controllers, low-cost wireline backplanes, software-defined radio front ends, machine vision and image processing pipelines, and portable medical instrumentation. Designers select this part when they need SERDES, moderate logic density, and low power in a single, low-cost BGA. When designing with this device, provide at least four PCB layers with continuous ground and power planes beneath the BGA, and route all differential SERDES pairs with 100 ohm differential impedance and intra-pair length matching under 150 mil. Decouple every VCC and VCCAUX pin with a 0.1 uF X7R capacitor placed within 100 mil of the ball. This page synthesizes distributor pricing, same-family drop-in alternatives, and practical design notes not found in the manufacturer datasheet alone, helping engineers compare LFE3-35EA-6FTN256I against other ECP3 speed and package options.

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LFE3-35EA-7FTN256I - 33K LUTs ECP3 FPGA, 256-FTBGA | Lattice
LFE3-35EA-7FTN256I

LFE3-35EA-7FTN256I - 33K LUTs ECP3 FPGA, 256-FTBGA | Lattice

The Lattice Semiconductor LFE3-35EA-7FTN256I is a member of the LatticeECP3 (EConomy Plus 3) family of low-power, high-speed Field-Programmable Gate Arrays (FPGAs), integrating 33,000 logic cells (33.3K LUTs) and 133 user I/O in a 256-ball Fine-pitch Thin Ball Grid Array (FTBGA) package. It operates from a 1.2 V core supply, supports SERDES data rates from 150 Mbps to 3.2 Gbps for generic 8b10b / 10-bit SERDES, and uses 65 nm process technology, targeting cost-sensitive high-volume applications that need multi-gigabit serial connectivity without the power and cost of higher-density FPGAs. A Field-Programmable Gate Array (FPGA) is a semiconductor device whose digital logic fabric, interconnect, and I/O can be reconfigured by the end user after manufacture. Within the broader semiconductor hierarchy, an FPGA is a programmable logic device, sitting alongside CPLDs as the two main categories of user-configurable digital ICs, both of which fall under the larger umbrella of Application-Specific Standard Products (ASSPs) and digital ASICs. The LatticeECP3 family specifically targets bridging, video, and low-cost communication designs, positioning this MPN between small CPLDs and high-end FPGAs such as Xilinx Virtex or Intel (Altera) Stratix families. Key features of the LFE3-35EA-7FTN256I include 33.3K LUTs with embedded sysDSP-style multipliers, 133 user I/O supporting multiple I/O standards (LVCMOS, LVTTL, LVDS, SSTL, HSTL), integrated SERDES channels rated up to 3.2 Gbps for protocols such as PCIe Gen1, SGMII, SATA, and 8b/10b-encoded links, and a typical internal fabric operating frequency sufficient for high-speed control and data-path logic. The -7 speed grade indicates the second-fastest commercial bin within the ECP3 family, and the I-suffix indicates the industrial temperature range. The LFE3-35EA-7FTN256I is built on a 65 nm CMOS process, which provides a favorable performance-per-watt ratio for embedded bridging, video processing, and machine-to-machine communication designs. The device integrates 1,358,848 system gates and 6.69 Mbits of embedded memory (EBR) for FIFO and buffer applications. Power-aware design flow via Lattice Diamond or ispLEVER Classic, combined with on-chip PLLs and clock-management tiles, lets designers hit timing closure at multi-hundred-megahertz Fmax while staying within a tight power envelope. Typical applications for the LFE3-35EA-7FTN256I include low-cost video bridging (HDMI, DisplayPort, MIPI converters), industrial Ethernet / SERDES bridges, motor-control and factory-automation controllers, surveillance and machine-vision front-ends, and consumer-connectivity products such as docking stations and high-speed hubs. Industrial-grade temperature support and integrated 3.2 Gbps SERDES make it a common choice when designers need a hot-swappable, multi-protocol interconnect front-end. When designing with this FPGA, ensure that the 256-ball FTBGA PCB footprint uses the manufacturer-recommended land pattern, including proper microvia stacking and a continuous ground plane under the BGA for signal-integrity and thermal relief. Plan clock trees around the on-chip PLLs and use the Lattice Diamond toolchain for synthesis, place-and-route, and SERDES configuration. For high-speed SERDES channels, follow the reference schematics for AC-coupling capacitor selection, 100-ohm differential routing, and pre-emphasis / de-emphasis settings as documented in the LatticeECP3 family data sheet. This page synthesizes distributor pricing, same-family and cross-brand drop-in alternatives, comparison parameters, and practical design notes that go beyond the bare Lattice ECP3 datasheet, helping procurement and engineering teams make informed component decisions.

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LFE5U-45F-8BG256I - 44K LUT ECP5 FPGA, 256-BGA Industrial | Lattice
LFE5U-45F-8BG256I

LFE5U-45F-8BG256I - 44K LUT ECP5 FPGA, 256-BGA Industrial | Lattice

The Lattice Semiconductor LFE5U-45F-8BG256I is a member of the Lattice ECP5 family of ultra-low-power Field Programmable Gate Arrays (FPGAs), offering 44,000 Look-Up Tables (LUTs), approximately 1,990,656 bits (1,944 kbit per Mouser/FPGA.io reference) of embedded block RAM, and 197 user I/O in a 256-ball caBGA (BG256) package with industrial temperature grade (-40C to +100C). It is powered from a 1.1V core supply and targets small-form-factor, low-power applications such as embedded vision, motor control, and serial interface bridging. An FPGA (Field Programmable Gate Array) is a semiconductor device whose logic function is defined by a user-programmed configuration bitstream rather than fixed at the fab. The LFE5U sits within the broader taxonomy: FPGA -> programmable logic -> logic IC -> integrated circuit -> semiconductor. FPGAs trade raw performance-per-watt for reconfigurability, making them ideal for evolving interfaces, parallel DSP pipelines, and glue logic that must adapt across product revisions. The ECP5 family in particular uses a 40 nm process and a LUT4-based fabric, optimizing logic density per mW versus prior Lattice generations. Key specifications include 44,000 LUT4 elements distributed across the fabric, multiple 18 x 18 multipliers for fixed-point DSP, embedded block RAM, and SERDES-capable I/O structures on selected package options. The industrial temperature grade ("I" suffix) extends operation to -40C to +100C, well-suited for factory automation, automotive peripherals, and outdoor networking equipment. The 256-ball caBGA package (17 mm x 17 mm body, 1.0 mm ball pitch) is footprint-compatible with other ECP5 BG256 devices, simplifying PCB reuse across density grades. Architecturally, the ECP5 fabric uses LUT4-based logic slices, sysDSP blocks for multiply-accumulate, and sysMEM EBR (Embedded Block RAM) for distributed memory. Bitstream configuration is loaded through SPI, JTAG (IEEE 1149.1 boundary-scan), or dual-boot/multi-boot modes, allowing field upgrades via TransFR (Transparent Field Reconfiguration) without halting downstream logic. Typical applications include low-power video bridging (MIPI CSI-2 to parallel RGB), small-cell baseband signal processing, industrial motor control loops, sensor aggregation hubs, and as a companion logic device to higher-tier processors. Designers value the ECP5 series for its sub-1W active power and instant-on capability for sleep-to-active transitions in battery-powered IoT. When designing with this FPGA, plan power-rail sequencing (1.1V core, 2.5V/3.3V auxiliary) and reserve decoupling capacitance per Lattice hardware design guidelines. Verify that JTAG and SPI flash footprints match the chosen configuration topology before layout commit; re-use is straightforward when migrating across ECP5 LUT densities within the same BG256 package. This page synthesizes distributor pricing, same-package drop-in alternatives, and practical design notes not found in the manufacturer datasheet alone.

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LFE5UM-45F-6BG554C - ECP5 FPGA 45K LUTs w/ SERDES, 554-CABGA | Lattice
LFE5UM-45F-6BG554C

LFE5UM-45F-6BG554C - ECP5 FPGA 45K LUTs w/ SERDES, 554-CABGA | Lattice

The Lattice Semiconductor LFE5UM-45F-6BG554C is a member of the LatticeECP5™ family of low-power, SERDES-equipped FPGAs, supplied in a 554-pin chip-array BGA (cabga) package. Per the Lattice ECP5 datasheet, this device integrates approximately 44,000 4-input LUTs, 1,944 Kb of embedded block RAM, and 245 user I/O on this specific cabga-554 variant. The device is fabricated on a 40 nm CMOS process and is rated for a 1.1 V core supply, with multi-protocol SERDES channels available for 1.5 Gbps / 3.2 Gbps / 5 Gbps data rates depending on the speed bin (the -6 speed grade in this MPN indicates the commercial-grade timing closure). An FPGA (Field Programmable Gate Array) is a semiconductor device built around an array of configurable logic blocks (LUTs, flip-flops, routing, and dedicated silicon blocks such as block RAM, DSP slices, PLLs, and SERDES transceivers). FPGAs occupy a position between general-purpose microcontrollers (programmed in software) and ASICs (custom-masked silicon): they are parallel, hardware-reconfigurable, and re-spin without mask changes, which makes them ideal for low-volume production, fast-prototype connectivity, and high-bandwidth data-plane acceleration. Within the broader semiconductor taxonomy, FPGAs sit at the same hierarchy level as microcontrollers and DSPs in embedded logic, and the LatticeECP5 family is targeted at low-cost, low-power, high-volume edge and connectivity applications. Key features of the LFE5UM-45F-6BG554C include four or more 5 Gbps multi-protocol SERDES channels (PCIE Gen1/Gen2, SERDES, SGMII, XAUI-capable), a hardened PCIe Gen2 endpoint block, on-chip DSP slices for fixed- and floating-point arithmetic, distributed and block RAM, and support for 1 Gbit DDR3 / LPDDR2 / LPDDR3 external memory interfaces. The -6 speed grade, combined with the cabga-554 footprint, makes this device targeted at small-form-factor, cost-sensitive board designs where SERDES and PCIe are required. The ECP5 architecture pairs LUT-based logic fabric with hardened IP blocks (SERDES, PCIe, DDR PHYs) to deliver high bandwidth at low power - typically under 1 W static plus dynamic for small designs. The 40 nm process combined with 1.1 V core keeps both leakage and dynamic dissipation low, which is critical for always-on connectivity edges such as small-cell front-haul, IoT gateways, and battery-powered imaging. Typical applications include low-cost PCIe add-in cards, small-cell baseband and front-haul bridging, industrial machine vision pre-processing, USB 3.0 / DisplayPort Bridge bi-directional protocol conversion, and IoT edge gateways aggregating multiple sensor streams. The cabga-554 footprint supports board designs up to roughly 100 mm x 100 mm with comfortable routing margins for high-speed SERDES. When designing with this part, ensure that the cabga-554 PCB footprint uses laser-drilled microvias with proper stack-up symmetry for the SERDES channels to meet the 5 Gbps return-loss mask; Lattice TN1268 (cabga-544/554 layout guide) should be followed for via-in-pad escape. JTAG programming via the standard IEEE 1149.1 boundary-scan interface allows the same bitstream to be programmed either at factory or in-field via TransFR (transparent field reconfiguration) without halting the device. This page synthesizes verified distributor pricing, drop-in alternatives, and practical design notes not found in the manufacturer datasheet, including cabga-554 PCB escape guidance and same-family ECP5 device substitution analysis.

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LFE5UM-85F-6BG554C - ECP5-5G FPGA, 84K LUTs, 12 SERDES | Lattice
LFE5UM-85F-6BG554C

LFE5UM-85F-6BG554C - ECP5-5G FPGA, 84K LUTs, 12 SERDES | Lattice

The Lattice Semiconductor LFE5UM-85F-6BG554C is a member of the Lattice ECP5-5G family of ultra-low-power FPGAs, providing 84,000 LUT4 logic elements, 3,744 Kbits of embedded block RAM, and 12 channels of multi-protocol SERDES in a 554-ball caBGA (23x23 mm) package with commercial temperature grade (C). The 'M' suffix denotes the ECP5-5G variant which adds high-speed SERDES transceivers supporting multi-gigabit serial protocols. An FPGA (Field Programmable Gate Array) is a semiconductor device containing programmable logic blocks, interconnect, and I/O resources that engineers configure after manufacturing to implement custom digital circuits. Within the broader semiconductor taxonomy, FPGAs sit alongside ASICs and CPLDs as one of the three principal programmable-logic device categories. The ECP5/ECP5-5G family is specifically optimized for low-power, small-form-factor applications such as mobile, IoT, and serial connectivity bridging, where traditional high-power FPGAs would be unsuitable. Key features of the LFE5UM-85F-6BG554C include 84,000 4-input LUTs, 156 18x18 multipliers for DSP operations, 259 user I/O pins, and SERDES channels rated up to 5 Gbps for protocols such as PCIe Gen 2, 10Gb Ethernet MAC, CPRI, and SLVS-EC. The device operates from a 1.1V core supply with auxiliary voltages for I/O banks. The -6 speed grade provides a balance of performance and power for most cost-sensitive applications. Architecturally, the ECP5-5G combines a fabric of LUTs, distributed RAM, block RAM, DSP slices, and SERDES, with Lattice's proprietary routing and configuration logic. The 40nm process node enables lower static power than older 65nm FPGAs while maintaining high DSP throughput. Hardened SERDES IP eliminates the need for external transceivers in typical designs. Typical applications include 5G small-cell baseband processing, PCIe Gen 2 endpoint cards, industrial machine vision cameras, IoT edge gateways with on-device acceleration, low-cost video bridging, and serial protocol conversion. The wide SERDES protocol support makes the part particularly attractive for cost-sensitive designs that need high-speed connectivity without paying for a larger FPGA. When designing with this part, ensure proper decoupling on all supply rails and follow Lattice's PCB layout guidelines for SERDES channels (controlled-impedance routing, length matching, and AC coupling capacitors). Lattice Diamond software is required for synthesis, place-and-route, and bitstream generation; the Radiant toolchain supports newer ECP5-5G designs. This page synthesizes distributor pricing, drop-in alternatives, and practical design notes not found in the manufacturer datasheet.

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LFE5UM-85F-8BG554C - ECP5 FPGA 84K LUTs SERDES 554-BGA | Lattice
LFE5UM-85F-8BG554C

LFE5UM-85F-8BG554C - ECP5 FPGA 84K LUTs SERDES 554-BGA | Lattice

The Lattice Semiconductor LFE5UM-85F-8BG554C is a member of the Lattice ECP5 family of ultra-low-power Field Programmable Gate Arrays (FPGAs) built on a 40nm CMOS process, offering 84000 logic cells (83.6K LUTs), 3833856 bits of embedded memory, 259 user I/O, and integrated SERDES channels in a 554-ball cABGA surface-mount package. An FPGA (Field Programmable Gate Array) is a class of programmable logic device that allows hardware designers to implement custom digital circuits via a configuration bitstream after manufacturing. FPGAs sit in the broader hierarchy of programmable logic devices (PLD) -> complex programmable logic device (CPLD) -> FPGA -> system-on-chip (SoC). Lattice ECP5 specifically targets low-power, high-volume connectivity and acceleration applications, consuming roughly half the power of competing 40nm FPGAs. Key differentiating features include 156 18x18 multipliers, 208 EBR (Embedded Block RAM) blocks at 9.4 Mbits usable memory, integrated 3.2 Gbps SERDES with hardened PCI Express Gen 2 and Gigabit Ethernet MAC blocks, and support for DDR3/LPDDR3 memory interfaces with hardened PHY. The device supports 1.1V core operation and offers multiple I/O standards including LVCMOS 1.2/1.5/1.8/2.5/3.3, LVDS, SSTL, and HSTL. Architecturally, ECP5 uses Lattice's logic-cell fabric with 4-input LUTs, dedicated DSP slices for signal processing, and a programmable sysIO buffer system. The hardened SERDES and PCIe blocks reduce soft-logic resource consumption, allowing more design headroom for custom logic. The device supports 1000 Mbps Ethernet, DisplayPort 1.1a, and 7:1 LVDS interfaces natively. Typical applications include small-cell baseband, industrial video and image processing, LED video walls, low-cost PCIe bridging cards, machine vision, and IoT edge acceleration. The combination of low static power (typically 0.5W), high integration, and high I/O count makes it well suited for cost-sensitive high-volume designs. When designing with this device, ensure proper power-rail sequencing (VCC + 1.1V core must stabilize before VCCIO banks) and provide adequate decoupling. For SERDES applications, follow Lattice's reference design for 100-ohm differential routing and AC-coupling capacitor placement near the transmitter balls. This page synthesizes distributor pricing, drop-in alternatives, and practical design notes not found in the manufacturer datasheet, accelerating the engineer's component selection process.

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LFE5UM5G-85F-8BG381ES - ECP5-5G FPGA, 84K LUTs, 5G SERDES, 381-BGA
LFE5UM5G-85F-8BG381ES

LFE5UM5G-85F-8BG381ES - ECP5-5G FPGA, 84K LUTs, 5G SERDES, 381-BGA

The Lattice Semiconductor LFE5UM5G-85F-8BG381ES is a high-density ECP5-5G series Field Programmable Gate Array (FPGA) featuring 84,000 logic cells (83.6K LUTs), integrated 5G multi-protocol SERDES channels, and a 381-ball caBGA package with 197 user I/O. The part is supplied in the -8 speed grade and is part of the ECP5-5G family optimized for bridging, I/O expansion, and high-bandwidth connectivity in cost- and power-sensitive applications. An FPGA (Field Programmable Gate Array) is a semiconductor integrated circuit composed of configurable logic blocks (CLBs), programmable interconnect, and dedicated hard IP blocks such as SERDES transceivers, block RAM, DSP slices, and PLL/DLLs. FPGAs occupy the programmable-logic tier of the digital IC hierarchy: microcontroller -> ASIC/ASSP -> FPGA -> CPLD. Unlike fixed-function ASICs, FPGAs are re-programmed in the field via SRAM configuration cells, enabling rapid prototyping, hardware evolution, and per-board customization. The ECP5-5G family specifically targets small-form-factor, low-power applications that still need multi-gigabit serial connectivity. Key features of the LFE5UM5G-85F include integrated 5G SERDES supporting protocols up to 5 Gbps per lane (PCI Express Gen 2, CPRI, OBSAI, 10GbE XAUI via quad-lane aggregation, SRIO, JESD204B), up to 3.8 Mbit of embedded block RAM, distributed SRAM, on-chip DSP blocks for fixed- and floating-point math, hardened 1 Gbit Ethernet MACs, and a 1.2 V core supply. The 381-ball caBGA package exposes 197 general-purpose I/O supporting multiple I/O standards (LVCMOS, LVDS, LVTTL, SSTL, HSTL) and selectable drive strength. The architecture is built on a 40 nm low-power CMOS process and combines LUT4-based logic slices with rich routing resources, achieving a typical standby power below 0.5 W and active power that scales with utilization. The integrated 5G SERDES eliminates the need for external PHY ICs in many designs, reducing both BOM cost and PCB area. Typical applications include small-cell wireless backhaul, industrial video bridging, machine-vision interfaces, low-cost 10G Ethernet aggregation, LED video wall tiling, and PCIe Gen 2 endpoint cards. The part is also commonly used as a glue/bridge FPGA between ASSPs, ASICs, sensors, and high-speed processors. When designing with the LFE5UM5G-85F-8BG381ES, pay careful attention to the SERDES reference clock architecture and PCB stack-up: each 5G lane requires a low-jitter differential reference clock and impedance-controlled 85 ohm differential routing. Multiple configuration options (SPI, JTAG, dual-boot) are supported but require correct pin strapping and bitstream generation through Lattice Diamond or Radiant design software. This page synthesizes verified distributor pricing, a curated drop-in alternative list, and practical design notes not consolidated in the manufacturer datasheet alone.

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LFE5UM5G-85F-8BG554I - 84K LUT ECP5-5G FPGA, 5G SERDES, BG554 | Lattice
LFE5UM5G-85F-8BG554I

LFE5UM5G-85F-8BG554I - 84K LUT ECP5-5G FPGA, 5G SERDES, BG554 | Lattice

The Lattice Semiconductor LFE5UM5G-85F-8BG554I is a member of the ECP5-5G family of ultra-low-power, low-cost FPGAs with integrated 5 Gbps SERDES, supplied in a 554-ball caBGA (BG554) package. It contains 84,000 LUT4-equivalent logic elements, 3,833,856 bits of embedded block RAM (3,744 Kb / 468 Kbytes), 259 user I/O, and a 1.1 V core supply with 1.2 V auxiliary, targeting wireline and wireless interface bridging, video processing, and low-power acceleration workloads. The part is industrial temperature grade (I suffix) and halogen-free. An FPGA (Field-Programmable Gate Array) is a type of programmable logic IC that allows designers to configure digital logic blocks, interconnect, and I/O behaviour after manufacture. Within the semiconductor hierarchy, an FPGA sits below application-specific standard products (ASSPs) and is a key sub-category of programmable logic devices (PLDs) and logic ICs. The ECP5-5G family in particular extends the Lattice low-power ECP5 line with hardened 5 Gbps multi-protocol transceivers, making it a hybrid between traditional FPGA fabric and an ASSP-style interface bridge. Key features include 5G SERDES channels supporting CPRI, JESD204B, 10 GbE (XAUI), PCIe Gen 1/2, and SGMII, distributed and block RAM, on-chip DSP slices (multipliers), and hardened IP for double-data-rate memory controllers (DDR3/LPDDR3). The device is configured via standard JTAG (IEEE 1149.1) or SPI and supports Dual-Boot, Multi-Boot, and TransFR (Transparent Field Reconfiguration) for in-system update with no downtime. The ECP5-5G architecture uses a 40 nm CMOS process with a 1.1 V core, providing typical static power under 0.5 W for the LFE5UM5G-85F device while sustaining 5 Gbps line rate on the SERDES. The 554-ball caBGA package (BG554) provides the maximum I/O count and SERDES channel count for the family, suiting high-density board designs where 259 user I/O are needed alongside multiple high-speed serial links. Typical applications include 5G small-cell and CPRI fronthaul bridging, industrial machine vision and camera aggregation, LED video-wall timing control, multi-port PCIe Gen2 add-in cards, software-defined radio (SDR) baseband, and low-power protocol-bridging between SERDES and parallel FPGA fabric. The combination of 5G SERDES, large logic density, and <1 W typical power makes it popular in edge and embedded designs. When designing with this device, validate SERDES reference clock jitter against the protocol jitter mask (e.g., 312.5 MHz for 10 GbE), follow Lattice's PCB layout guideline for differential 100 ohm SERDES routing, and ensure proper decoupling on VCC/VCCAUX rails. Using Lattice Diamond software (or Radiant for smaller devices) is required for synthesis, place-and-route, and bitstream generation. This page synthesises distributor pricing, drop-in same-package alternatives within the ECP5/ECP5-5G family, and practical design notes that go beyond the manufacturer datasheet, giving engineers a single, decision-ready view of the LFE5UM5G-85F-8BG554I for sourcing and BOM planning.

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LFE5UM5G-85F8BG554I - 84K LUT, 5G SERDES ECP5 FPGA | Lattice
LFE5UM5G-85F8BG554I

LFE5UM5G-85F8BG554I - 84K LUT, 5G SERDES ECP5 FPGA | Lattice

The Lattice Semiconductor LFE5UM5G-85F8BG554I is a 554-ball BGA FPGA from the ECP5-5G family that integrates 83.6K LUT4 logic elements, 3.84 Mbit of embedded block RAM, and multi-protocol 5 Gbps SERDES channels in a single low-power device. It is supplied in a 1.2 V core, 554-FBGA (caBGA) surface-mount package with 259 user I/O pins, targeting small-form-factor, low-power, high-throughput designs. What is an FPGA? A Field Programmable Gate Array (FPGA) is a programmable logic IC that lets designers implement arbitrary digital functions in silicon after PCB fabrication. Within the broader taxonomy, the ECP5-5G sits in the FPGA & CPLD category, below the hierarchy programmable logic device -> logic IC -> integrated circuit -> semiconductor. FPGAs are the modern descendants of CPLDs and PALs, offering millions of gates, dedicated DSP blocks, hard memory, and high-speed transceivers for protocol bridging, video processing, and parallel compute acceleration. Key features of this device include up to 84,000 LUT4-equivalent logic elements, 3,744 Kbit of distributed EBR plus large RAM, 156 (18x18) hardware multiplier/DSP blocks, 4 SERDES channels supporting CPRI, PCIe Gen1/Gen2, SGMII, and 5 Gbps multi-protocol links, plus hardened I/O supporting DDR3 memory interfaces up to 800 Mbps. The part is offered in the industrial temperature range and supports TransFR transparent field reconfiguration plus dual-boot/multi-boot image fallback for robust remote upgrades. Architecturally the ECP5-5G fabric uses Lattice's LUT4-based logic with carry chains, distributed and block RAM, and DSP slices arranged in rows for high-utilization designs. The 5G SERDES hard IP and 1.2 V core deliver strong mW-per-MIPS efficiency, making the family the standard for small-cell, industrial vision, and protocol-bridge applications where 7-series FPGAs would be oversized and over-powered. Typical applications include 5G small-cell fronthaul using CPRI/JESD204B, machine-vision and industrial camera bridging, LED video wall scan-driver control, multi-protocol interface bridging (PCIe, SGMII, GigE, SLVS-EC), and low-power IoT aggregation. The combination of low static power, abundant DSP, and 5G SERDES in a sub-1 W envelope is the part's central value proposition. When designing with this device, plan thermal strategy around the 554-FBGA substrate: although each SERDES is power-efficient, a fully loaded 5G configuration can push total power to 1.5-2 W, so a 4-layer PCB with a 2x2 ball-grid thermal via array under the package is recommended. Use Lattice Diamond or Lattice Radiant design software and the ECP5-5G sysCONFIG port to enable dual-boot, TransFR, and in-field updates without external boot memory. This page synthesizes distributor pricing, drop-in alternative FPGAs, application pairing, and practical PCB/thermal design notes that complement the Lattice datasheet, giving engineers a single source for sourcing and BOM decisions.

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LICAL-DEC-MS001-TI 8-Button Remote Decoder | TE Conn
LICAL-DEC-MS001-TI

LICAL-DEC-MS001-TI 8-Button Remote Decoder | TE Conn

The TE Connectivity LINAL-DEC-MS001-TI is an MS Series data-decoder integrated circuit for remote-control systems, supporting the status of up to eight buttons or contacts and supplied in a 20-SSOP surface-mount package. The verified listing identifies a 2.0 V to 5.5 V analog supply range, while the target suffix indicates the TI distributor ordering code associated with the LINAL-DEC-MS001 device. A remote-control decoder is a logic IC that receives encoded button or contact information and translates it into digital outputs or status signals for a host controller. In the broader electronics hierarchy, it belongs to interface ICs rather than a general-purpose microcontroller: the decoder handles a defined remote-control protocol or input structure while leaving system-level decisions to another controller. This makes it useful in alarm systems, communication systems, access controls, and other products requiring compact button-state decoding. Verified product information identifies the LINAL-DEC-MS001 as a 20-SSOP device with a 5.30 mm package width. The MS Series is intended for remote-control applications where multiple button or contact states must be transferred reliably into a digital system. The exact logic levels, timing, current consumption, operating temperature, output format, and supported channel count beyond the verified eight-button description are not supplied in the retrieved data and must be confirmed from the manufacturer documentation before design release. The part is particularly relevant to systems that already use the MS Series remote-control architecture. Designers should verify the encoder family pairing, signal polarity, supply tolerance, and timing requirements before committing the IC to a new PCB. A decoder can reduce host-controller input count by presenting multiple remote-control states through a defined interface, but incorrect protocol assumptions can prevent valid operation even when the package and supply requirements appear compatible. Typical uses include alarm-system panels, communication equipment, industrial remote controls, and embedded control interfaces. Keep the 20-SSOP footprint and pin mapping compatible with the manufacturer drawing, provide the required bypass capacitors near the supply pins, and validate signal conditioning at the receiver. The retrieved distributor listings support procurement comparison, but pricing and lead time must be refreshed at the time of quotation. This page consolidates the verified manufacturer and distributor information, separates known specifications from missing parameters, and provides engineering-oriented design guidance. It does not invent pin functions, timing values, or lifecycle claims that are not present in the supplied evidence.

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LIFCL-40-8MG289C - 39K LUT CrossLink-NX FPGA, 289-BGA | Lattice
LIFCL-40-8MG289C

LIFCL-40-8MG289C - 39K LUT CrossLink-NX FPGA, 289-BGA | Lattice

The Lattice LIFCL-40-8MG289C is a 39K logic element CrossLink-NX FPGA from Lattice Semiconductor, packaged in a 289-ball caBGA (9.5 mm x 9.5 mm) and targeted at low-power embedded vision bridging and processing. It provides 180 high-performance user I/O, 1,548,288 bits of embedded block RAM, and integrated 2.5G MIPI D-PHY hard IP for direct camera/sensor interfacing. What is a CrossLink-NX FPGA? The CrossLink-NX family is Lattice's low-power, small-form-factor FPGA line built on the 28 nm FD-SOI Nexus platform. As an FPGA (Field-Programmable Gate Array), it belongs to the programmable logic hierarchy: PLD -> CPLD -> FPGA -> embedded FPGA -> CrossLink-NX. FPGAs differ from CPLDs in that they integrate configurable logic blocks, dedicated block RAM, DSP blocks, and high-speed transceivers, all interconnected through a programmable fabric. CrossLink-NX specializes in bridging heterogeneous video and sensor interfaces with best-in-class power efficiency. Key features of the LIFCL-40-8MG289C include 39,000 LUTs (logic elements), 1.548 Mbit embedded SRAM, dedicated MIPI D-PHY at up to 2.5 Gbps per lane, integrated DDR3/LPDDR3 memory controller with PHY, and 7 x 2.5G hard PCIe lanes (Gen2). The device is built on a 28 nm FD-SOI low-power process, supports 0.95 V to 1.05 V core Vcc, and offers programmable I/O supporting LVCMOS 1.2/1.5/1.8/2.5/3.3 V, LVDS, SLVS, and sub-LVDS. The architecture combines hardened MIPI D-PHY and PCIe Gen2 controllers with the programmable Nexus fabric to deliver deterministic latency at low mW power levels. Transceivers support 2.5 Gbps MIPI, and the device targets edge AI pre-processing, sensor aggregation, and video bridging where traditional FPGAs would be too power-hungry. Typical applications include multi-camera sensor aggregation in robotics and ADAS, machine vision frame grabbers, MIPI-to-MIPI/CSI-to-LVDS bridging, embedded display controllers, and edge AI pre-processing pipelines. Its low power envelope also suits battery-powered wearables and AR/VR glasses. When designing with this device, use Lattice Radiant or Propel SDK and the CrossLink-NX evaluation board for bring-up. Provide adequate decoupling per the reference design, and follow Lattice PCB layout guidelines for 289-BGA breakout routing.

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LIFCL-40-9MG289C - CrossLink-NX 39K LUT FPGA, 289-TFBGA | Lattice
LIFCL-40-9MG289C

LIFCL-40-9MG289C - CrossLink-NX 39K LUT FPGA, 289-TFBGA | Lattice

The Lattice LIFCL-40-9MG289C is a CrossLink-NX family field-programmable gate array (FPGA) built on the Lattice Nexus platform, delivering 39000 logic elements, 1548288 bits of embedded memory, and 180 user I/O in a 289-ball TFBGA (CSBGA) package. The part integrates 2.5 Gbps MIPI D-PHY hard IP cores targeting embedded vision bridging and processing applications, while a commercial temperature grade (-9) supports 0C to +85C operation. What is a CrossLink-NX FPGA? An FPGA (Field Programmable Gate Array) is a semiconductor device whose logic fabric, interconnect, and I/O can be reconfigured after manufacturing by the customer. The CrossLink-NX family belongs to the broader category of programmable logic devices (PLDs), which also includes CPLDs. FPGAs sit within the integrated circuit taxonomy as follows: FPGA -> programmable logic -> logic IC -> integrated circuit. CrossLink-NX specifically targets low-power embedded vision bridging, providing hard MIPI D-PHY/CSI-2 cores, hardened memory controllers, and a high-performance fabric for sensor aggregation. Key features include up to 75% lower power compared to similar FPGAs in its class, 2.5G MIPI D-PHY/CSI-2 hard cores enabling direct connection to image sensors and displays, embedded block RAM, distributed SRAM, and on-chip DSP slices. The Nexus platform also provides high reliability for mission-critical applications including automotive and industrial segments. The architecture combines a small-form-factor 289-ball TFBGA package with hardened I/O, allowing PCB designs to keep sensor and display trace lengths short. Designers benefit from Lattice Radiant software support and pre-built IP libraries for MIPI bridging, display controllers, and image signal processing pipelines. Typical applications include embedded vision bridging for camera sensors, AI inference at the edge, machine vision in industrial automation, AR/VR head-mounted displays, and video aggregation/duplication for surveillance and automotive infotainment. When designing with this part, ensure PCB layout follows the BGA escape pattern documented in the Lattice hardware manual and that decoupling capacitors are placed directly under the package balls for clean power delivery to the fabric. This page synthesizes distributor stock, drop-in same-family alternatives, and design notes not found in the manufacturer datasheet. All information reflects availability as of 2026-10-10.

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LM-555N - Single 555 Timer, 8-PDIP | Texas Instruments
LM-555N

LM-555N - Single 555 Timer, 8-PDIP | Texas Instruments

The Texas Instruments LM-555N is a single 555-type timer and oscillator integrated circuit packaged in an 8-pin PDIP. The verified distributor result identifies it as an 8-PDIP device from Harris Corporation, while the official TI family page identifies the LM555 as a highly stable 555 timer. The target MPN is therefore associated with the classic timer functionality, but the supplied data does not provide verified electrical ratings, timing limits, temperature range, or lifecycle details for the exact LM-555N ordering code. What is a 555 timer? A 555 timer is a programmable timer and oscillator integrated circuit used to generate delayed pulses, produce periodic waveforms, debounce inputs, or control relays and indicators. Its internal blocks typically include a voltage reference, comparators, a flip-flop, and a high-current output stage. In astable operation, external resistors and a capacitor set the oscillation period; in monostable operation, an external timing capacitor sets the output pulse width. The verified Harris product description identifies the LM555N for timing-delay and oscillator applications in commercial, industrial, and military equipment. The verified product listing calls it a “555 Type, Timer/Oscillator (Single) IC” and specifies an 8-PDIP package. The official TI product page describes the LM555 family as a highly stable 555 timer and provides family-level documentation, but the supplied material does not expose the exact LM-555N datasheet values. Because the target MPN includes a hyphen while the verified distributor listing uses LM555N, engineers should confirm the exact package, suffix, manufacturer, and electrical limits against the applicable manufacturer documentation before substituting or releasing a production design. The verified result also shows a distributor listing from Rochester Electronics under the Harris Corporation name; Harris Corporation is not in the supplied Manufacturer Reference, so the brand field follows the target context and the official TI source uses Texas Instruments. Typical uses include pulse generation, delay circuits, oscillators, indicator flashing, switch debouncing, and simple industrial control logic. Because the exact pinout, package details, and ratings were not included in the verified data, this page does not infer those values. Check the original LM-555N datasheet and the manufacturer’s current documentation before layout or purchase.

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LM111 - High-Speed Differential Comparator | Texas Instruments
LM111

LM111 - High-Speed Differential Comparator | Texas Instruments

The Texas Instruments LM111 is a single high-speed differential voltage comparator with open-collector and open-emitter outputs, designed for operation from a single 5 V supply through dual ±15 V supplies. Its stated maximum input bias current is 300 nA, maximum input offset current is 70 nA, and the device includes strobe capability for controlled comparator operation. The LM111 is packaged in an 8-pin TO-99 style metal can package. A voltage comparator is an analog integrated circuit that compares two input voltages and produces a digital logic state indicating which input is higher. The LM111 belongs to the comparator category within analog and interface ICs, and its differential inputs make it useful for threshold detection, signal conditioning, timing, and control systems. Unlike an operational amplifier intended primarily for linear amplification, the comparator is optimized for rapid state changes and logic-level output compatibility. The LM111, LM211, and LM311 family is designed around a wide supply-voltage range, including ±15 V operational-amplifier supplies and 5 V logic systems. The output levels are compatible with many TTL and MOS circuits, allowing the LM111 to bridge analog sensing and digital control. Its differential input arrangement supports sensing a small difference between two voltages while presenting a logic result to downstream circuitry. The LM111 family also includes related temperature grades and device variants. Texas Instruments states that the LM111-N has the same pin configuration as the LM106 and LM710, while the LM211-N and LM311-N provide different specified temperature ranges. The exact LM111 pin configuration and electrical limits must be confirmed against the applicable manufacturer datasheet and package variant before production release. Typical applications include line and threshold comparators, pulse and window detection, level translation into TTL or MOS logic, industrial control interfaces, analog signal conditioning, and legacy instrumentation. Because the output is open collector or open emitter, a pull-up or pull-down load resistor is generally required at the output. This architecture can provide wired logic behavior and flexible output interfacing, but it also makes pull-device selection and output speed part of the system design. When selecting a replacement, verify the package, pinout, supply limits, input offset and bias behavior, response time, output topology, and temperature grade. The verified material supports the LM111 identity and family-level characteristics, but it does not provide enough verified information here to reproduce every electrical limit or package drawing. This page therefore distinguishes documented values from parameters requiring confirmation rather than guessing them.

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LM111-LM211 - High-Speed Differential Comparator | Texas Instruments
LM111-LM211

LM111-LM211 - High-Speed Differential Comparator | Texas Instruments

The Texas Instruments LM111-LM211 is a family designation for single, high-speed differential voltage comparators designed to operate from wide power-supply ranges, including ±15 V operational-amplifier supplies and single +5 V logic supplies. The comparator combines low input current with an open-collector output whose logic levels are compatible with many TTL and MOS circuits. The available ordering variants include LM111, LM211, and LM311 devices documented by the manufacturer under the LM111, LM211, and LM311 differential comparator datasheet. A voltage comparator is an analog integrated circuit that compares two input voltages and produces a digital logic state indicating which input is higher. In the broader electronics hierarchy, a differential comparator belongs to comparator ICs, analog-to-digital decision interfaces, and signal-conditioning semiconductors. It is commonly used where a sensor, reference voltage, timing ramp, or control signal must be translated into a logic-level event. The LM111, LM211, and LM311 devices are described by Texas Instruments as single high-speed voltage comparators. Their low input currents are useful when the driving source has high impedance or when input bias current could otherwise create measurement errors. The family supports conventional ±15 V supplies and +5 V logic-system operation, making it suitable for legacy analog, control, timing, and industrial interface circuits. Output levels are compatible with most TTL and MOS circuits, although the open-collector output requires an appropriate pull-up arrangement. The LM111, LM211, and LM311 differ primarily in their specified operating-temperature families: TI identifies the LM111-N as specified from −55°C to +125°C, the LM211-N from −25°C to +85°C, and the LM311-N from 0°C to +70°C. The target string LM111-LM211 is therefore a family or ordering designation rather than one uniquely specified package-and-temperature variant. The exact commercial suffix, package, pin configuration, and current availability must be confirmed against the selected manufacturer orderable part. Typical uses include precision voltage thresholding, zero-crossing detection, peak detection, window comparison, pulse timing, sensor interface conditioning, and control logic interfacing. The comparator is placed between a signal source and a downstream TTL or MOS input, with its output configured to drive the receiving device through a suitable pull-up or interface network. Engineers should verify supply polarity, input common-mode limits, output pull-up voltage, switching behavior, and input offset requirements in the manufacturer datasheet before layout release. The key design consideration is that an open-collector comparator is not a push-pull logic driver. The output node floats when the device is off, so the external pull-up resistor, pull-up voltage, load capacitance, and required logic rise time must be selected together. Input filtering and grounding are also important when the comparator is used near precision thresholds or noisy switching nodes. This page distinguishes verified family-level facts from parameters that require a specific package and orderable suffix. This page synthesizes the verified manufacturer and distributor references for the LM111-LM211 family, separates documented family-level capabilities from orderable-device requirements, and highlights the design decisions that determine whether an open-collector comparator is suitable in a given circuit. The alternatives listed here are limited to parts explicitly supported as same-family or comparator cross-reference candidates; exact replacement must be checked against the selected package and suffix.

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LM111-MDE - High-Speed Voltage Comparator Die | Texas Instruments
LM111-MDE

LM111-MDE - High-Speed Voltage Comparator Die | Texas Instruments

Texas Instruments LM111-MDE is a single, high-speed voltage comparator die designed for operation from wide-range power supplies, including ±15 V operational-amplifier rails and 5 V logic systems. The verified source identifies a single-channel general-purpose comparator with a maximum input offset voltage of 3 mV at ±15 V, maximum quiescent current of 6 mA, and an operating temperature range of -55°C to 125°C. Because the -MDE ordering code denotes a die sale, the component is supplied as an unpackaged semiconductor die rather than a leaded or surface-mount package. A voltage comparator is an analog integrated circuit that compares two input voltages and produces a logic-level indication of their relationship. Within the semiconductor hierarchy, the LM111 belongs to the comparator family, a functional class of analog and mixed-signal ICs used between sensors, transducers, amplifiers, and digital logic. The LM111 family is associated with high-speed decision-making and compatibility with common TTL and MOS output systems, while its open-collector-style output requires an appropriate pull-up arrangement for reliable digital interfacing. The LM111 family provides a single comparator channel and supports a broad supply-voltage range. The verified manufacturer description states that the LM111, LM211, and LM311 are single high-speed voltage comparators. Its output levels are compatible with most TTL and MOS circuits, making the device useful for threshold detection, pulse-width or timing decisions, signal conditioning, and control systems. The maximum input offset voltage of 3 mV at ±15 V defines the comparison accuracy limit, while the 6 mA maximum quiescent current provides a basis for power-supply budgeting. The die-sale format requires special assembly consideration. No package pinout, package dimensions, or exposed thermal pad can be inferred from the verified data because LM111-MDE is sold as a die. A designer must obtain the manufacturer die documentation and assembly requirements before bonding or packaging the device. In particular, do not assume that the die's bond-pad arrangement matches the LM111 leaded-package pinout. The verified source also identifies -55°C to 125°C as the operating temperature range for LM111-MDE, but no die-specific thermal resistance or power rating is provided. Typical uses include high-speed threshold detection, pulse and window comparisons, industrial control interfaces, analog signal conditioning, and logic-level decision circuits. Because the output is intended to interoperate with TTL and MOS systems, the external pull-up network, supply bypassing, input grounding, and output loading are critical. Compared with a finished package, the die-sale device offers sourcing and customization flexibility but requires wafer handling, die attach, wire bonding or other packaging, and application-specific qualification. This product page combines the verified manufacturer and distributor data with practical die-level design guidance, sourcing context, and strict handling of unavailable package information. It is intended to help engineers distinguish the LM111-MDE die sale from packaged LM111 variants and to plan assembly, testing, and supply-chain risk before committing the device to a production design.

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LM111-MW8 - High-Speed Voltage Comparator | Texas Instruments
LM111-MW8

LM111-MW8 - High-Speed Voltage Comparator | Texas Instruments

The Texas Instruments LM111-MW8 is a single high-speed voltage comparator designed for operation from wide-range power supplies, including ±15 V operational-amplifier supplies and 5 V logic systems. The verified product material identifies the LM111 family as a comparator with low input bias current and fast response, while the exact LM111-MW8 package, pinout details, electrical limits, operating temperature range, and orderable package variant are not supplied in the provided data. A voltage comparator is an analog integrated circuit that compares two input voltages and changes its output state when the differential input crosses a defined threshold. The LM111 belongs to the comparator, analog IC, and signal-conditioning hierarchy rather than the operational-amplifier category, although it can be used in threshold detection, sensing, pulse-width, and control circuits. Its wide supply compatibility allows the same device family to interface with traditional analog rails and lower-voltage logic systems. The LM111 family is specified as a single high-speed voltage comparator. The verified material specifically cites maximum input bias current of 300 nA and maximum input offset current of 70 nA, along with operation from a single 5 V supply. These characteristics are relevant where low input loading and precise threshold behavior are important. The output levels are stated to be compatible with most TTL and MOS circuits, which supports use as a decision element between analog signals and digital control logic. Typical comparator applications include level crossing, overvoltage and undervoltage indication, signal translation, pulse generation, window detection, and interface conditioning. The fast-response description is useful when the comparator must resolve changing waveforms rather than merely provide static threshold monitoring. The published family material also mentions strobe capability, but the exact LM111-MW8 operating conditions and timing values require confirmation in the manufacturer datasheet before design release. Because the provided data does not specify the LM111-MW8 package dimensions, pin names, temperature grade, or exact electrical maximums, those values must be verified against the official Texas Instruments documentation. Do not assume that a similarly named LM111, LM211, or LM311 orderable part is mechanically interchangeable. In particular, LM211 and LM311 are distinct family variants and may have different supply, temperature, or output requirements. This page consolidates the verified Texas Instruments family description, distributor discovery information, and official datasheet references. It also separates confirmed facts from missing LM111-MW8-specific data so engineers can plan sourcing and schematic review without treating unverified package or performance details as specifications.

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LM201AD - 1 MHz Single Op Amp, 8-SOIC | STMicroelectronics
LM201AD

LM201AD - 1 MHz Single Op Amp, 8-SOIC | STMicroelectronics

The STMicroelectronics LM201AD is a single general-purpose operational amplifier supplied in an 8-pin SOIC package. The device is listed as a non-compensated, single operational amplifier with a nominal gain-bandwidth product of 1 MHz, a slew rate of 0.5 V/us, and a dissipation rating of 300 mW. Its stated supply range is plus or minus 5 V to plus or minus 22 V, allowing operation from a 10 V minimum total supply to a 44 V maximum total supply. The LM201AD also provides push-pull output capability according to distributor listings. An operational amplifier is an analog signal-conditioning integrated circuit that amplifies the voltage difference between its inverting and non-inverting inputs. The LM201 family is positioned as a general-purpose amplifier rather than a precision micropower device or a high-speed rail-to-rail amplifier. Its non-compensated architecture requires the user to add external compensation when closed-loop stability is needed, making it most suitable for designs in which the engineer selects a specific gain, bandwidth, and phase-margin target. Verified distributor information identifies the LM201AD as a one-amplifier, 8-SOIC device. One distributor listing reports a 1 MHz gain-bandwidth product, while a separate Mouser listing identifies a 3.5 MHz gain-bandwidth figure. These values may reflect different source pages or gain and condition definitions, so the two figures should be confirmed against the exact STMicroelectronics datasheet revision before setting compensation networks or estimating closed-loop bandwidth. Typical uses include general analog signal conditioning, instrumentation interfaces, active filtering, and feedback control in industrial or test equipment where higher supply voltages are acceptable. Because this is a non-compensated amplifier, external compensation components and stability analysis are normally required. The wide plus or minus 22 V capability also makes rail-to-rail input and output operation unlikely, so input and output common-mode and swing limits must be respected. For PCB design, place the amplifier close to feedback and compensation components, keep input nodes away from switching nodes and high-current paths, and provide adequate ground return connectivity for the single-supply return terminal. Decoupling requirements should be confirmed from the manufacturer datasheet rather than inferred from the distributor listings. This page combines verified distributor specifications, package information, cross-reference results, and engineering guidance that are not consolidated in a single manufacturer product listing. Pricing, pin-level data, lifecycle details, and compensation requirements should be verified against the current STMicroelectronics datasheet before production release.

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