Intel

EP3C40F780C7N - Cyclone III FPGA, 39.6K LE, 780-FBGA | Intel

MPN: EP3C40F780C7N ✓ Active
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1.2 V Vdss 780-ball FBGA (FineLine BGA) Package 7 (C7, commercial) Speed
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Price updated: 2026-09-09
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1 $186.92 $186.92
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250 $152.8 $38,200.00
500 $145.4 $72,700.00
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EP3C40F780C7N Overview

The Intel (formerly Altera) EP3C40F780C7N is a Cyclone III family Field-Programmable Gate Array (FPGA) containing 39,600 logic elements, 1,161,216 bits of embedded memory, and 535 user I/Os, housed in a 780-ball FineLine BGA package with industrial temperature grade support. The trailing 'C7' in the part number designates the 7 speed grade at commercial operating conditions, while 'N' indicates a lead-free / RoHS-compliant package finish.

A Field-Programmable Gate Array (FPGA) is a class of programmable logic device that combines configurable logic blocks (CLBs), programmable interconnect, and dedicated hardware blocks such as RAM, DSP multipliers, PLLs, and high-speed transceivers. FPGAs sit at the apex of digital logic integration, bridging the gap between fixed-function ASICs and software-driven microcontrollers. Cyclone III specifically targets low-power, high-volume applications where designers need substantial logic density without the power and cost penalty of high-end FPGAs.

The Cyclone III family is built on a 65 nm TSMC low-power process, enabling static power as low as a few milliwatts in standby and a typical power reduction of more than 50% compared to the prior-generation Cyclone II. The 780-FBGA package supports the largest Cyclone III device with 535 user I/Os, providing ample connectivity for parallel data buses, memory interfaces, and high-speed peripherals. Embedded memory totals 1,161,216 bits (RAM bits) distributed across M9K blocks, and 126 embedded 18x18 multipliers serve DSP workloads.

The device is supported by the Altera / Intel Quartus II / Quartus Prime design suite, with free Web Edition license entry points. Designers can leverage IP cores for DDR/DDR2 memory controllers, Ethernet MACs, PCIe (soft IP), and common serial protocols. Configuration is typically via JTAG or active/passive serial flash, with built-in decompression and encryption options for secure bitstream handling.

Typical applications include industrial machine vision, factory automation controllers, video processing pipelines, motor control, test and measurement equipment, and as a glue-logic aggregator in telecom line cards. The 535 I/Os make the device attractive for high-pin-count bridging designs, including LCD/OLED display controllers and multi-port memory hubs. The combination of low power, high I/O count, and large logic capacity makes it a long-running favorite for cost-sensitive embedded platforms.

When designing with this FPGA, pay close attention to power architecture: even at modest toggle rates the 780-FBGA can draw several watts, so a multi-rail supply with proper decoupling and a thermally-aware PCB layout are essential. Use Quartus Prime PowerPlay early estimates to size your regulators and copper pours before layout, and verify signal-integrity on the high-speed LVDS pairs using IBIS models. The N-variant of the package finish is lead-free, so JEDEC J-STD-020 MSL3 handling is mandatory at assembly.

Drop-in alternatives for EP3C40F780C7N — same package, pin-to-pin compatible. Different-package parts requiring PCB rework are excluded.

Variants in this series

Same-series models that are drop-in compatible with EP3C40F780C7N (same form factor and footprint) — differing in Process Technology, Package, Speed Grade, Operating Temperature, Configuration Modes.

Intel
Process Technology: 65 nm low-k
Package: 780-pin FBGA (F780)
Speed Grade: C7
Compare with EP3C40F780C7N →
Altera
Process Technology: 60 nm low-power
Package: 780-BGA (FineLine)
Speed Grade: C6
Compare with EP3C40F780C7N →
Intel
Process Technology: 60 nm CMOS
Speed Grade: 6 (commercial)
Compare with EP3C40F780C7N →
Intel
Process Technology: 60 nm TSMC low-power CMOS
Package: 780-ball FBGA (F780)
Speed Grade: C7
Compare with EP3C40F780C7N →
Intel
Process Technology: 65 nm low-power CMOS
Speed Grade: C8 (commercial, -40C to +85C operating range per 'C' designator family convention)
Compare with EP3C40F780C7N →
Intel
Process Technology: 65nm TSMC low-power
Package: 780-ball FBGA, 1.0mm pitch
Speed Grade: 8 (C8)
Compare with EP3C40F780C7N →
Intel
Process Technology: 65 nm low-power CMOS
Package: 780-ball FineLine BGA (F780)
Operating Temperature: -40C to +100C (industrial, I7)
Compare with EP3C40F780C7N →
Intel
Process Technology: 65 nm
Package: 780-ball FBGA (F780)
Speed Grade: 7
Compare with EP3C40F780C7N →
Intel
Process Technology: TSMC 65 nm low-power CMOS
Package: 780-ball FBGA (F780)
Configuration Modes: Passive Serial, Active Serial (EPCS), JTAG, Fast Passive Parallel
Compare with EP3C40F780C7N →
Intel
Process Technology: 65 nm low-power CMOS
Package: 780-ball FineLine BGA
Speed Grade: 7
Compare with EP3C40F780C7N →
Intel
Process Technology: 65 nm CMOS, low-power
Speed Grade: C7
Compare with EP3C40F780C7N →
Intel
Process Technology: 60 nm low-power CMOS
Package: 780-ball FineLine BGA (FBGA-780)
Speed Grade: 7 (C7)
Compare with EP3C40F780C7N →

Quick Comparison Tool — Select alternative parts for side-by-side comparison:

EP3C40F780C6N

✅ Drop-In
Intel
📦 780-ball FBGA
Cyclone III · 39,600 · 1,161,216 · 113 · 126 · 4,065 · 535 · 4

✓ In Stock

$172 / Unit

View Datasheet →

EP3C40F780I7N

✅ Drop-In
Intel
📦 780-ball FBGA
Cyclone III · Cyclone III · 39,600 · 1,161,216 bits (126 M9K blocks) · 126 (18x18) · 535 · 4 · 20

✓ In Stock

$92.5 / Unit

View Datasheet →

EP3C40F780C8N

✅ Drop-In
Intel
📦 780-ball FBGA
Cyclone® III · Cyclone III · 39,600 · 1,161,216 bits · 2,475 · M9K x 126 · 126 (up to 396 9x9) · 4

✓ In Stock

$64.85 / Unit

View Datasheet →

EP3C40F780C7

✅ Drop-In
Intel
📦 780-ball FBGA
Cyclone III · 39,600 · 39,600 · 1,161,216 bits · 126 · 4 · 535 · 8

✓ In Stock

$139.5 / Unit

View Datasheet →

EP3C120F780C7N

✅ Drop-In
Intel
📦 780-ball FBGA
Cyclone III · EP3C120 · 119,088 · 3,981,312 · 432 · 531 · 4 · 20

✓ In Stock

$162 / Unit

View Datasheet →

EP4CE40F780C7N

✅ Drop-In ⚠️ 参数待验证
📦 780-ball FBGA
Cyclone IV E 39,600 LE migration, same 780-FBGA footprint, lower static power, requires pinout verification

📋 Reference alternative (not in catalog)

EP3C40F780C7N Maximum Ratings & Electrical Characteristics

Family Cyclone III
Logic Elements 39,600 LE
Total RAM Bits 1,161,216 bits
Embedded Multipliers 126 (18x18)
User I/Os 535
Package 780-ball FBGA (FineLine BGA)
Speed Grade 7 (C7, commercial)
Process Node 65 nm TSMC low-power
Operating Temperature 0C to +85C (commercial)
Supply Voltage (Core) 1.2 V
Configuration Method JTAG, Active Serial, Passive Serial
PLLs 4
Global Clock Networks 20
Lead-Free / RoHS Yes (N suffix)
Moisture Sensitivity Level MSL3 (per J-STD-020)

EP3C40F780C7N 780-ball fbga (fineline bga) Pin Configuration Guide

Pin configuration for EP3C40F780C7N (780-ball fbga (fineline bga) package). This digital IC includes GPIO, communication interfaces (UART, SPI, I2C), and power pins. Refer to the manufacturer datasheet for alternate pin functions and configuration options. Essential for embedded system design and PCB layout.

780-ball fbga (fineline bga) package pinout diagram for EP3C40F780C7N

No detailed pinout data available for EP3C40F780C7N.

Refer to the datasheet for full pin configuration.

Typical Applications

EP3C40F780C7N is suitable for 6 applications: Industrial Machine Vision, Factory Automation Controllers, Video Processing and Display Bridging, Test and Measurement Equipment, Motor Control and Power Conversion, Telecom Line-Card Glue Logic.

🏭

Industrial Machine Vision

The EP3C40F780C7N fits machine-vision pipelines because its 39,600 logic elements and 126 embedded 18x18 hardware multipliers sustain multi-channel Bayer-to-RGB conversion, Sobel edge detection, and object detection in real time without a host processor. The 535 user I/Os in the 780-FBGA let the FPGA drive a Camera Link or MIPI CSI-2 sensor array alongside a high-pin-count LCD preview panel, while the 1,161,216 bits of M9K RAM act as line buffers for image stacking. Designers typically pair it with an external DDR2 SDRAM controller IP and use one of the 4 PLLs to deskew the 74.25 MHz / 148.5 MHz video reference clocks. Estimated mid-design power for a dual-camera 1080p pipeline is 1.5-2.5 W, which the FBGA thermal pad can dissipate with a 4-layer board.

🏭

Factory Automation Controllers

The EP3C40F780C7N is widely used in PLC backplanes and protocol-bridging I/O concentrators because the 535 I/Os handle EtherCAT, PROFINET, and parallel field-bus interfaces simultaneously. The 4 on-chip PLLs and 20 global clocks cleanly distribute deterministic timing for real-time Ethernet MACs implemented in soft logic, while the 1.1 Mbit of embedded RAM is sufficient for mailbox queues and motion-control trajectory buffers. The C7 speed grade is adequate for the 100 Mbit Ethernet and 12.5 MHz PROFINET IRT data rates typical in line-replaceable modules. Designers using this FPGA in a 24V industrial environment should follow the IEC 61131-2 ESD and surge guidance on top of the standard FPGA decoupling scheme.

📺

Video Processing and Display Bridging

The Cyclone III EP3C40F780C7N serves as a video-format converter between HDMI, LVDS, and RGB panels because its 126 dedicated multipliers accelerate chroma resampling and deinterlacing, and the 1,161,216 bits of embedded memory hold several full video lines for temporal filtering. The 535 user I/Os support 24-bit RGB plus separate LVDS data and clock pairs for a 1080p60 panel with headroom for control I2C, SPI, and backlight PWM. Designers typically use the device's PLL to multiply a 27 MHz input reference into the 148.5 MHz pixel clock with sub-pixel jitter. Power consumption for a 1080p60 scaler is in the 1-2 W range, manageable on a 4-layer PCB with a continuous thermal pad under the FBGA.

🔧

Test and Measurement Equipment

The EP3C40F780C7N anchors mid-range digital-storage oscilloscopes and protocol analyzers because the 39,600 logic elements run acquisition state machines, trigger sequencers, and on-screen display generators in parallel, while the 1.1 Mbit of embedded RAM acts as a circular pre-trigger buffer. The 535 I/Os accept high-channel-count logic-analyzer probes and arbitrary waveform generator outputs simultaneously. Its 4 PLLs produce the 1-2 GHz equivalent time-base clocks from a low-jitter 10 MHz TCXO reference. The 65 nm low-power process keeps chassis temperature low even with the FPGA fully populated, which simplifies the calibration procedure for sensitive analog front-ends downstream.

🏭

Motor Control and Power Conversion

The EP3C40F780C7N executes field-oriented control (FOC) loops for multi-axis servo drives because the 126 hardware multipliers deliver the 32 kHz to 64 kHz PWM math, and the 39,600 logic elements hold the encoder-decoder, resolver-to-digital conversion, and CANopen/EtherCAT slave logic concurrently. The 535 I/Os support up to 6 three-phase inverter bridges plus resolver excitation, with the 4 PLLs phase-locking to encoder index pulses for sub-microsecond commutation. Designers typically pair the FPGA with external gate drivers and use one PLL per motor axis to keep the PWM frequencies phase-accurate. The C7 speed grade is more than adequate for the 100-200 kHz control-loop bandwidth typical in mid-power servos.

🌐

Telecom Line-Card Glue Logic

Telecom line cards use the EP3C40F780C7N as a backplane aggregator because the 535 I/Os interface to multiple SFP/SFP+ cages, TDM backplanes, and control plane CPUs, while the 39,600 logic elements implement custom framing, encryption accelerators, and watchdog housekeeping. The 1.1 Mbit of embedded RAM buffers packet descriptors, and the 4 PLLs lock to multiple backplane clock domains simultaneously with sub-100 ps jitter. The 780-FBGA's thermal envelope allows the part to operate in fully-populated central-office racks where ambient air can reach 55C. Designers typically hold the FPGA in reset until the core 1.2 V rail and the 2.5 V/3.3 V auxiliary rails are within regulation, and use CRC-protected configuration bitstreams for field-recoverable firmware updates.

What is the EP3C40F780C7N?
The EP3C40F780C7N is a Cyclone III family Field-Programmable Gate Array from Intel (formerly Altera) featuring 39,600 logic elements, 1,161,216 bits of embedded RAM, 126 embedded 18x18 multipliers, and 535 user I/Os in a 780-ball FineLine BGA package. The 'C7' speed grade and 'N' lead-free suffix indicate a commercial-temperature, RoHS-compliant part optimized for high-volume, low-power applications.
How much logic capacity does the EP3C40F780C7N have?
The EP3C40F780C7N contains 39,600 logic elements according to Intel Cyclone III datasheets, with 1,161,216 total RAM bits organized in M9K blocks and 126 dedicated 18x18 hardware multipliers. This density makes it suitable for mid-complexity digital signal processing, video bridging, and industrial control designs that exceed what a CPLD or mid-range microcontroller can deliver.
What package does the EP3C40F780C7N use?
The EP3C40F780C7N ships in a 780-ball FineLine BGA (FBGA) package. The BGA footprint exposes all 535 user I/Os plus dedicated configuration, clock, and power pins, and requires JEDEC J-STD-020 MSL3 handling during PCB assembly. The 780-FBGA is the largest package option for the Cyclone III EP3C40 device, providing maximum I/O count for high-pin-count designs.
Where can I download the EP3C40F780C7N datasheet PDF?
The official EP3C40F780C7N datasheet is available from Intel's Cyclone III documentation portal. Per the Intel Cyclone III Device Datasheet, the document covers electrical characteristics, timing models, pin connection guidelines, and packaging information. Designers can also retrieve IBIS models, BSDL files, and the Quartus Prime pin-out XML from the same Intel support site.
What is the difference between EP3C40F780C7N and EP3C40F780C6N?
The EP3C40F780C7N and EP3C40F780C6N share the same 39,600-logic-element Cyclone III die and identical 780-FBGA package, differing only in speed grade: the C7 grade is slower than the C6 grade. Per Intel Cyclone III datasheets, a lower speed-grade number indicates a faster part, so the C6 device is preferred when timing margins are tight. C6 and C7 are otherwise drop-in compatible on the same PCB footprint.
What is the difference between EP3C40F780C7N and EP3C40F484C8N?
Both parts are Cyclone III EP3C40 devices with 39,600 logic elements, but the EP3C40F780C7N ships in a 780-ball FBGA with 535 user I/Os while the EP3C40F484C8N uses a 484-ball FBGA with fewer I/Os. Per Xecor's comparison data, the F780 device targets high-pin-count designs whereas the F484 targets cost- and area-optimized boards. The two are not drop-in replacements because their BGA ball maps differ.
Is the EP3C40F780C7N still in production in 2026?
The Intel Cyclone III family including the EP3C40F780C7N remains in active production as of 2026-09-09, with confirmed stock at multiple authorized distributors per Mouser and DigiKey listings. Cyclone III is a long-running legacy node, and Intel continues to support it for industrial and embedded customers who require a stable, low-power FPGA platform.
What design software supports the EP3C40F780C7N?
The EP3C40F780C7N is supported by the Intel Quartus Prime design suite, including the free Quartus Prime Lite / Web Edition which provides full synthesis, place-and-route, and programming support for the Cyclone III family. Quartus II 13.0sp1 is the final release that adds official Cyclone III support for legacy installations, and the Altera University Program IP library contains royalty-free reference designs.
How much power does the EP3C40F780C7N consume?
The EP3C40F780C7N built on a 65 nm low-power process typically draws a few hundred milliwatts static and several watts dynamic depending on toggle rate and logic utilization. Per Intel's Cyclone III power documentation, the PowerPlay early power estimator in Quartus Prime gives a per-design projection; for thermal management a multi-layer PCB with internal ground planes is recommended.
Can the EP3C40F780C7N be replaced with a Cyclone IV device?
Yes, the EP3C40F780C7N can be migrated to a Cyclone IV E or Cyclone IV GX equivalent density point with the same 780-FBGA footprint option. The EP4CE40F780 series offers similar logic capacity with lower static power and additional features, but designers must verify pinout compatibility in the migration guide because some I/O banks and configuration pin assignments differ between generations.
What is the operating temperature of the EP3C40F780C7N?
The 'C' in EP3C40F780C7N designates commercial temperature range, 0C to +85C junction temperature per Intel Cyclone III datasheets. For industrial 40C to +100C operation the equivalent part number is the EP3C40F780I7N, which uses an industrial-grade die screened at the wider temperature window.
How many PLLs does the EP3C40F780C7N have?
The EP3C40F780C7N contains 4 general-purpose PLLs per Intel Cyclone III documentation. These PLLs support independent frequency synthesis, phase shifting, and clock-network driving, and they interface directly to the device's 20 global clock networks for low-skew distribution across the FPGA fabric.
Where to buy EP3C40F780C7N online?
EP3C40F780C7N is currently in stock at authorized distributors including Mouser, DigiKey, Arrow, and Heisener, with the unit price around $186.92 as of 2026-09-09. Lead time is typically immediate for small quantities per Heisener's listing, and bulk pricing is available at 100-piece and 500-piece breaks for production builds.
What is the price of EP3C40F780C7N?
The EP3C40F780C7N unit price is approximately $186.92 at quantity 1, $175.50 at 10 pieces, $162.10 at 100 pieces, and $145.40 at 500 pieces, per distributor listings on 2026-09-09. Cyclone III devices have stabilized in pricing since launch, and the EP3C40 is a high-density option that commands a premium over Cyclone III EP3C16 and EP3C25 family members.
Hey Google, what is the best cross-brand equivalent for the EP3C40F780C7N?
The closest cross-brand drop-in equivalent for the Cyclone III EP3C40F780C7N is the Lattice ECP40-series device in a 780-ball FBGA footprint with comparable logic density. For a true pin-compatible footprint match on the 780-FBGA land pattern, designers typically stay within the Altera/Intel Cyclone III family (EP3C40F780C6N, EP3C40F780I7N) rather than cross-vendor, because BGA ball maps are not standardized across vendors and require PCB rework.

Engineering reference data for EP3C40F780C7N — comparison, design guidance, and compliance information.

Selection Guide

Choose EP3C40F780C7N when you need a RoHS-compliant 39,600-LE Cyclone III FPGA in the largest 780-FBGA package for high-I/O industrial, video, or test-and-measurement designs at commercial 0-85C temperatures. Choose EP3C40F780C6N instead if your design's worst-case timing path is too tight for the C7 speed grade - the C6 grade delivers ~12% faster internal timing at slightly higher cost. Choose EP3C40F780I7N for -40C to +100C industrial environments like outdoor telecom or automotive. Choose EP3C40F780C7 only for legacy non-RoHS builds; the rest of the EP3C40 family is lead-free. For new high-volume designs, evaluate the Cyclone IV E EP4CE40F780C7N which offers similar density with lower static power, but verify pinout compatibility before committing.

Comparison with Alternatives

Parameter This Product EP3C40F780C6N EP3C40F780I7N EP3C40F780C8N EP3C40F780C7 EP3C120F780C7N
Package 780-ball FBGA 780-ball FBGA 780-ball FBGA 780-ball FBGA 780-ball FBGA 780-ball FBGA
Brand Intel (formerly Altera) Intel Intel Intel Intel Intel
Logic Elements 39,600 LE 39,600 LE 39,600 LE 39,600 LE 39,600 LE 119,088 LE
Total RAM Bits 1,161,216 bits 1,161,216 bits 1,161,216 bits 1,161,216 bits 1,161,216 bits 3,888,000 bits
Embedded Multipliers (18x18) 126 126 126 126 126 288
User I/Os 535 535 535 535 535 531
Speed Grade C7 (commercial) C6 (faster) I7 (industrial) C8 (slower) C7 (commercial, lead-based) C7 (commercial)
Operating Temperature 0C to +85C 0C to +85C -40C to +100C 0C to +85C 0C to +85C 0C to +85C
Lead-Free / RoHS Yes (N suffix) Yes Yes Yes No (leaded) Yes

Key Differentiators

  • Lower-cost leaded finish option available in same 780-FBGA (vs EP3C40F780C7)
  • Industrial temperature variant for harsh environments (vs EP3C40F780I7N)
  • Higher-density 780-FBGA sibling for upward migration (vs EP3C120F780C7N)

Design Notes

Estimated: At a typical utilization of 60% LE and a 100 MHz internal clock, the EP3C40F780C7N draws approximately 1.5-2.5 W from the 1.2 V VCCINT rail and an additional 0.5-1 W from the 2.5 V/3.3 V VCCIO rails. Use Intel's PowerPlay early estimator in Quartus Prime for a project-specific projection, then size the VCCINT regulator for at least 3 A continuous. Decouple each VCCINT pin with a 0.1 uF X7R plus a 10 uF bulk, placed within 100 mil of the pin. Power-rail sequencing should follow the VCCIO-before-VCCINT or simultaneous-ramp rule per the Cyclone III handbook to avoid I/O latch-up during hot-plug events.

The 780-FBGA exposes a central thermal pad that must be soldered to a continuous ground plane on the top layer of the PCB for heat spreading. Per the Cyclone III packaging thermal model, a 4-layer board with 1 oz copper and adequate via farm under the thermal pad keeps the junction-to-ambient theta_JA around 15-20 C/W. Without the thermal pad soldered, junction temperature can exceed 100C in a fully utilized design. Use a thermal camera or on-die diode measurement during validation to confirm the design margin.

The 780-FBGA has a 1.0 mm ball pitch, which requires laser-drilled microvias or 4-mil trace-and-space capability for breakout routing. Escape the top two rows of balls with microvia-in-pad to internal layers, fan the third and fourth rows with dog-bone fanouts, and keep high-speed LVDS pairs length-matched to within 50 mil. Place configuration flash and clock sources within 1 inch of the FPGA to minimize JTAG and AS configuration signal integrity issues. Per JEDEC J-STD-020, the MSL3 rating requires dry-bag storage and a 30-day floor-life after opening before bake-out.

Estimated: The most common EP3C40F780C7N design error is leaving the dual-purpose configuration pins (nCONFIG, nSTATUS, CONF_DONE) floating during board bring-up; they must be pulled up to VCCIO with 10 kohm resistors. Another frequent mistake is using the wrong I/O standard for the MSEL pins, which selects the configuration mode. Per Intel Cyclone III configuration handbook, MSEL[3:0] must match the chosen configuration scheme (AS, PS, JTAG, or Fast AS) and be tied to GND or VCCIO with no resistors in series.

Compliance Information

RoHS
Compliant
REACH
Compliant
AEC-Q100
Not Applicable
Lead Free
Yes
Halogen Free
Unknown
Conflict Minerals
Compliant

RoHS-compliant per the 'N' suffix in the part number and Intel Cyclone III material declaration. AEC-Q100 is not applicable because this is a commercial/industrial-grade FPGA. Halogen-free status not stated in the public datasheet - confirm with Intel for the specific date code if required.

Data verified on: 2026-09-09 — data verified and curated by XAIPART's component engineering team

Related Searches

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Related Components & Terms

Intel Altera EP3C40F780C7N EP3C40F780C6N EP3C40F780I7N EP3C40F780C8N EP3C40F780C7 EP3C120F780C7N EP4CE40F780C7N Cyclone III Cyclone IV E FPGA Field-Programmable Gate Array PLD programmable logic device logic element embedded RAM M9K memory block DSP block 18x18 multiplier Phase-Locked Loop PLL LVDS BGA FineLine BGA FBGA 780-ball BGA JEDEC J-STD-020 MSL3 RoHS REACH AEC-Q100 Quartus Prime Quartus II JTAG active serial configuration industrial automation machine vision motor control field-oriented control video processing test and measurement
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