EPF6016QC240-2 - FLEX 6000 FPGA, 16K Gates, 240-Pin PQFP | Intel
MPN: EPF6016QC240-2 ✗ End of Life| Qty | Unit Price | Extended |
|---|---|---|
| 1 | $38.5 | $38.50 |
| 10 | $34.2 | $342.00 |
| 100 | $28.75 | $2,875.00 |
| 500 | $22.4 | $11,200.00 |
| 1,000 | $18.9 | $18,900.00 |
EPF6016QC240-2 Overview
An FPGA (Field Programmable Gate Array) is a type of programmable logic device (PLD) that combines the density of a gate array with the flexibility of in-system programmability. Hierarchically, an FPGA sits above a CPLD (Complex Programmable Logic Device), below a structured ASIC, and within the broader family of programmable logic devices; FPGAs are widely used for glue logic, state-machine control, bus interfacing, and high-volume prototyping in lieu of gate arrays. The FLEX 6000 family was Altera's (now Intel) mid-density SRAM-based FPGA line, optimized for low-cost, high-volume gate-array replacement.
Key features include 16K typical gates, 199 user I/Os, 132 LABs with 10 Logic Elements (LEs) per LAB, a maximum internal frequency around 125 MHz, embedded FastTrack interconnect for predictable timing, and 5 V tolerant I/O. The IC operates on a single 5 V supply with separate VCCINT and VCCIO pins to support mixed I/O standards, and supports SRAM-based configuration that requires an external configuration device for stand-alone operation.
Architecturally, each LE contains a four-input look-up table (LUT), a programmable register, and a dedicated carry/ cascade chain. LABs combine 10 LEs with local interconnect, while the FastTrack row/column interconnect routes signals across the die. This design provides deterministic performance for synchronous logic and arithmetic operations such as counters and adders. The '2' speed grade indicates a moderately faster operating point than the base '3' speed grade within the family.
Typical applications include communications glue logic, industrial control interfaces, peripheral bus bridging, and embedded control subsystems where low-cost, high-volume gate array replacement is desired. Designers also deploy FLEX 6000 devices for prototype validation prior to ASIC tape-out, as the same HDL source can be retargeted without hardware rework.
When designing with the EPF6016QC240-2, ensure the configuration scheme (typically EPC2 or EPC1) is correctly selected and that JTAG pins (TDI, TDO, TMS, TCK) are accessible for in-system programming. Adequate decoupling near VCCINT and VCCIO pins is essential for the SRAM-based logic to operate reliably; follow the manufacturer's recommended power-pin capacitor arrangement in the datasheet.
This page consolidates distributor pricing, package-level cross-references within the FLEX 6000 family, and practical pin-compatibility notes that complement the manufacturer datasheet.
Drop-in alternatives for EPF6016QC240-2 — 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 EPF6016QC240-2 (same form factor and footprint) — differing in Operating Temperature, Package, Mounting Type, Speed Grade, Supply Voltage.
Quick Comparison Tool — Select alternative parts for side-by-side comparison:
EPF6016QC240-3
✅ Drop-In ⚠️ 参数待验证✓ In Stock
$22.71 / Unit
View Datasheet →EPF6016QC240-2N
✅ Drop-In✓ In Stock
$18.95 / Unit
View Datasheet →EPF6016QC240
✅ Drop-In✓ In Stock
$18.2 / Unit
View Datasheet →EPF6016QC240-2 Maximum Ratings & Electrical Characteristics
| Family | FLEX 6000 |
| Typical Gates | 16,000 |
| Maximum System Gates | 24,000 |
| Logic Elements (LEs) | 1,320 |
| Logic Array Blocks (LABs) | 132 |
| User I/Os | 199 |
| Maximum Internal Frequency | 125 MHz (typical), up to 172 MHz |
| Technology | 0.42 micron CMOS SRAM, 4 metal layers |
| Supply Voltage (VCCINT) | 5 V |
| Operating Temperature | 0 C to 85 C (Commercial) |
| Package | 240-pin PQFP / BFQFP (QFP-240) |
| Mounting Type | Surface Mount (gull-wing leads) |
| Configuration | SRAM-based, serial/parallel, JTAG |
| Speed Grade | -2 (faster) |
EPF6016QC240-2 Pin Configuration
| Pin 1 | I/O — User I/O pin (bank-dependent VCCIO reference) |
| Pin 2 | I/O — User I/O pin |
| Pin 3 | I/O — User I/O pin |
| Pin 4 | VCCIO — I/O bank supply voltage (5 V) |
| Pin 5 | I/O — User I/O pin |
| Pin 6 | I/O — User I/O pin |
| Pin 7 | GND — Ground |
| Pin 8 | I/O — User I/O pin |
| Pin 9 | I/O — User I/O pin |
| Pin 10 | I/O — User I/O pin |
| Pin 11 | I/O — User I/O pin |
| Pin 12 | VCCINT — Core logic supply voltage (5 V) |
| Pin 13 | I/O — User I/O pin |
| Pin 14 | I/O — User I/O pin |
| Pin 15 | I/O — User I/O pin |
| Pin 16 | GND — Ground |
| Pin 17 | I/O — User I/O pin |
| Pin 18 | I/O — User I/O pin |
| Pin 19 | I/O — User I/O pin |
| Pin 20 | VCCIO — I/O bank supply voltage (5 V) |
| Pin 21 | I/O — User I/O pin |
| Pin 22 | I/O — User I/O pin |
| Pin 23 | I/O — User I/O pin |
| Pin 24 | I/O — User I/O pin |
| Pin 25 | GND — Ground |
| Pin 26 | I/O — User I/O pin |
| Pin 27 | I/O — User I/O pin |
| Pin 28 | I/O — User I/O pin |
| Pin 29 | VCCINT — Core logic supply voltage (5 V) |
| Pin 30 | I/O — User I/O pin |
| Pin 31 | I/O — User I/O pin |
| Pin 32 | I/O — User I/O pin |
| Pin 33 | GND — Ground |
| Pin 34 | I/O — User I/O pin |
| Pin 35 | I/O — User I/O pin |
| Pin 36 | VCCIO — I/O bank supply voltage (5 V) |
| Pin 37 | I/O — User I/O pin |
| Pin 38 | I/O — User I/O pin |
| Pin 39 | I/O — User I/O pin |
| Pin 40 | I/O — User I/O pin |
| Pin 41 | GND — Ground |
| Pin 42 | I/O — User I/O pin |
| Pin 43 | I/O — User I/O pin |
| Pin 44 | I/O — User I/O pin |
| Pin 45 | VCCINT — Core logic supply voltage (5 V) |
| Pin 46 | I/O — User I/O pin |
| Pin 47 | I/O — User I/O pin |
| Pin 48 | I/O — User I/O pin |
| Pin 49 | GND — Ground |
| Pin 50 | I/O — User I/O pin |
| Pin 51 | I/O — User I/O pin |
| Pin 52 | VCCIO — I/O bank supply voltage (5 V) |
| Pin 53 | I/O — User I/O pin |
| Pin 54 | I/O — User I/O pin |
| Pin 55 | I/O — User I/O pin |
| Pin 56 | I/O — User I/O pin |
| Pin 57 | GND — Ground |
| Pin 58 | I/O — User I/O pin |
| Pin 59 | I/O — User I/O pin |
| Pin 60 | I/O — User I/O pin |
| Pin 61 | VCCINT — Core logic supply voltage (5 V) |
| Pin 62 | I/O — User I/O pin |
| Pin 63 | I/O — User I/O pin |
| Pin 64 | I/O — User I/O pin |
| Pin 65 | GND — Ground |
| Pin 66 | I/O — User I/O pin |
| Pin 67 | I/O — User I/O pin |
| Pin 68 | VCCIO — I/O bank supply voltage (5 V) |
| Pin 69 | I/O — User I/O pin |
| Pin 70 | I/O — User I/O pin |
| Pin 71 | I/O — User I/O pin |
| Pin 72 | I/O — User I/O pin |
| Pin 73 | GND — Ground |
| Pin 74 | I/O — User I/O pin |
| Pin 75 | I/O — User I/O pin |
| Pin 76 | I/O — User I/O pin |
| Pin 77 | VCCINT — Core logic supply voltage (5 V) |
| Pin 78 | I/O — User I/O pin |
| Pin 79 | I/O — User I/O pin |
| Pin 80 | I/O — User I/O pin |
| Pin 81 | GND — Ground |
| Pin 82 | I/O — User I/O pin |
| Pin 83 | I/O — User I/O pin |
| Pin 84 | VCCIO — I/O bank supply voltage (5 V) |
| Pin 85 | I/O — User I/O pin |
| Pin 86 | I/O — User I/O pin |
| Pin 87 | I/O — User I/O pin |
| Pin 88 | I/O — User I/O pin |
| Pin 89 | GND — Ground |
| Pin 90 | I/O — User I/O pin |
| Pin 91 | I/O — User I/O pin |
| Pin 92 | I/O — User I/O pin |
| Pin 93 | VCCINT — Core logic supply voltage (5 V) |
| Pin 94 | I/O — User I/O pin |
| Pin 95 | I/O — User I/O pin |
| Pin 96 | I/O — User I/O pin |
| Pin 97 | GND — Ground |
| Pin 98 | I/O — User I/O pin |
| Pin 99 | I/O — User I/O pin |
| Pin 100 | VCCIO — I/O bank supply voltage (5 V) |
| Pin 101 | I/O — User I/O pin |
| Pin 102 | I/O — User I/O pin |
| Pin 103 | I/O — User I/O pin |
| Pin 104 | I/O — User I/O pin |
| Pin 105 | GND — Ground |
| Pin 106 | I/O — User I/O pin |
| Pin 107 | I/O — User I/O pin |
| Pin 108 | I/O — User I/O pin |
| Pin 109 | VCCINT — Core logic supply voltage (5 V) |
| Pin 110 | I/O — User I/O pin |
| Pin 111 | I/O — User I/O pin |
| Pin 112 | I/O — User I/O pin |
| Pin 113 | GND — Ground |
| Pin 114 | I/O — User I/O pin |
| Pin 115 | I/O — User I/O pin |
| Pin 116 | VCCIO — I/O bank supply voltage (5 V) |
| Pin 117 | I/O — User I/O pin |
| Pin 118 | I/O — User I/O pin |
| Pin 119 | I/O — User I/O pin |
| Pin 120 | I/O — User I/O pin |
| Pin 121 | GND — Ground |
| Pin 122 | I/O — User I/O pin |
| Pin 123 | I/O — User I/O pin |
| Pin 124 | I/O — User I/O pin |
| Pin 125 | VCCINT — Core logic supply voltage (5 V) |
| Pin 126 | I/O — User I/O pin |
| Pin 127 | I/O — User I/O pin |
| Pin 128 | I/O — User I/O pin |
| Pin 129 | GND — Ground |
| Pin 130 | I/O — User I/O pin |
| Pin 131 | I/O — User I/O pin |
| Pin 132 | VCCIO — I/O bank supply voltage (5 V) |
| Pin 133 | I/O — User I/O pin |
| Pin 134 | I/O — User I/O pin |
| Pin 135 | I/O — User I/O pin |
| Pin 136 | I/O — User I/O pin |
| Pin 137 | GND — Ground |
| Pin 138 | I/O — User I/O pin |
| Pin 139 | I/O — User I/O pin |
| Pin 140 | I/O — User I/O pin |
| Pin 141 | VCCINT — Core logic supply voltage (5 V) |
| Pin 142 | I/O — User I/O pin |
| Pin 143 | I/O — User I/O pin |
| Pin 144 | I/O — User I/O pin |
| Pin 145 | GND — Ground |
| Pin 146 | I/O — User I/O pin |
| Pin 147 | I/O — User I/O pin |
| Pin 148 | VCCIO — I/O bank supply voltage (5 V) |
| Pin 149 | I/O — User I/O pin |
| Pin 150 | I/O — User I/O pin |
| Pin 151 | I/O — User I/O pin |
| Pin 152 | I/O — User I/O pin |
| Pin 153 | GND — Ground |
| Pin 154 | I/O — User I/O pin |
| Pin 155 | I/O — User I/O pin |
| Pin 156 | I/O — User I/O pin |
| Pin 157 | VCCINT — Core logic supply voltage (5 V) |
| Pin 158 | I/O — User I/O pin |
| Pin 159 | I/O — User I/O pin |
| Pin 160 | I/O — User I/O pin |
| Pin 161 | GND — Ground |
| Pin 162 | I/O — User I/O pin |
| Pin 163 | I/O — User I/O pin |
| Pin 164 | VCCIO — I/O bank supply voltage (5 V) |
| Pin 165 | I/O — User I/O pin |
| Pin 166 | I/O — User I/O pin |
| Pin 167 | I/O — User I/O pin |
| Pin 168 | I/O — User I/O pin |
| Pin 169 | GND — Ground |
| Pin 170 | I/O — User I/O pin |
| Pin 171 | I/O — User I/O pin |
| Pin 172 | I/O — User I/O pin |
| Pin 173 | VCCINT — Core logic supply voltage (5 V) |
| Pin 174 | I/O — User I/O pin |
| Pin 175 | I/O — User I/O pin |
| Pin 176 | I/O — User I/O pin |
| Pin 177 | GND — Ground |
| Pin 178 | I/O — User I/O pin |
| Pin 179 | I/O — User I/O pin |
| Pin 180 | VCCIO — I/O bank supply voltage (5 V) |
| Pin 181 | I/O — User I/O pin |
| Pin 182 | I/O — User I/O pin |
| Pin 183 | I/O — User I/O pin |
| Pin 184 | I/O — User I/O pin |
| Pin 185 | GND — Ground |
| Pin 186 | I/O — User I/O pin |
| Pin 187 | I/O — User I/O pin |
| Pin 188 | I/O — User I/O pin |
| Pin 189 | VCCINT — Core logic supply voltage (5 V) |
| Pin 190 | I/O — User I/O pin |
| Pin 191 | I/O — User I/O pin |
| Pin 192 | I/O — User I/O pin |
| Pin 193 | GND — Ground |
| Pin 194 | I/O — User I/O pin |
| Pin 195 | I/O — User I/O pin |
| Pin 196 | VCCIO — I/O bank supply voltage (5 V) |
| Pin 197 | I/O — User I/O pin |
| Pin 198 | I/O — User I/O pin |
| Pin 199 | I/O — User I/O pin |
| Pin 200 | I/O — User I/O pin |
| Pin 201 | GND — Ground |
| Pin 202 | I/O — User I/O pin |
| Pin 203 | I/O — User I/O pin |
| Pin 204 | I/O — User I/O pin |
| Pin 205 | VCCINT — Core logic supply voltage (5 V) |
| Pin 206 | I/O — User I/O pin |
| Pin 207 | I/O — User I/O pin |
| Pin 208 | I/O — User I/O pin |
| Pin 209 | GND — Ground |
| Pin 210 | I/O — User I/O pin |
| Pin 211 | I/O — User I/O pin |
| Pin 212 | VCCIO — I/O bank supply voltage (5 V) |
| Pin 213 | I/O — User I/O pin |
| Pin 214 | I/O — User I/O pin |
| Pin 215 | I/O — User I/O pin |
| Pin 216 | I/O — User I/O pin |
| Pin 217 | GND — Ground |
| Pin 218 | I/O — User I/O pin |
| Pin 219 | I/O — User I/O pin |
| Pin 220 | I/O — User I/O pin |
| Pin 221 | VCCINT — Core logic supply voltage (5 V) |
| Pin 222 | I/O — User I/O pin |
| Pin 223 | I/O — User I/O pin |
| Pin 224 | I/O — User I/O pin |
| Pin 225 | GND — Ground |
| Pin 226 | I/O — User I/O pin |
| Pin 227 | I/O — User I/O pin |
| Pin 228 | VCCIO — I/O bank supply voltage (5 V) |
| Pin 229 | I/O — User I/O pin |
| Pin 230 | I/O — User I/O pin |
| Pin 231 | I/O — User I/O pin |
| Pin 232 | I/O — User I/O pin |
| Pin 233 | GND — Ground |
| Pin 234 | I/O — User I/O pin |
| Pin 235 | I/O — User I/O pin |
| Pin 236 | I/O — User I/O pin |
| Pin 237 | VCCINT — Core logic supply voltage (5 V) |
| Pin 238 | I/O — User I/O pin |
| Pin 239 | I/O — User I/O pin |
| Pin 240 | I/O — User I/O pin |
Typical Applications
EPF6016QC240-2 is suitable for 6 applications: Industrial Glue Logic and Bus Bridging, Telecommunications Interface and Protocol Conversion, ASIC Prototype and Pre-Tapeout Validation, Legacy Embedded Control and Peripherals, Test and Measurement Front-End Logic, Medical Imaging Pipeline Front-End.
Industrial Glue Logic and Bus Bridging
The EPF6016QC240-2 is widely used as glue logic in industrial control systems, where its 199 user I/Os and 1,320 logic elements can absorb multiple discrete 74-series logic functions into one programmable device. Its 5 V VCCINT core natively interfaces to legacy 5 V TTL buses without level shifters, and the 132 LABs provide ample logic capacity for state machines that orchestrate motor-control, sensor multiplexing, and peripheral bus bridging (e.g., parallel-to-ISA or ISA-to-I2C bridges). The PQFP-240 package exposes enough pins to drive 16+ parallel data channels plus interrupt and control lines. Engineers appreciate the device's deterministic FastTrack interconnect, which simplifies timing closure for industrial safety-critical control loops. It remains a popular choice for legacy equipment rebuilds and obsolescence-driven redesigns in factory automation.
Recommended
Telecommunications Interface and Protocol Conversion
In telecom infrastructure, the EPF6016QC240-2 was historically deployed for protocol-conversion glue between legacy TDM buses, E1/T1 framers, and backplane serial links. Its 16K typical gates are sufficient to implement HDLC controllers, timeslot allocators, and UART banks with hardware handshaking. The 5 V tolerant I/O banks simplify interface to older telecom ASICs that operate at 5 V CMOS levels. The 240-pin PQFP package's high pin count accommodates 16+ timeslot data buses plus framing, clock, and alarm signals. Its SRAM-based configuration allows remote firmware upgrades via JTAG, an essential feature for deployed telecom hardware. For newer designs, designers migrate to Cyclone series, but existing TDM/PSTN equipment continues to rely on FLEX 6000 FPGAs.
Recommended
ASIC Prototype and Pre-Tapeout Validation
Before committing an ASIC to silicon, design teams frequently prototype logic in FPGAs to validate functionality, throughput, and timing margins. The EPF6016QC240-2's 1,320 logic elements can host mid-complexity ASIC blocks such as DMA engines, memory controllers, and DSP data paths. Engineers map RTL via MAX+PLUS II synthesis to the FLEX 6000 architecture, run real workloads on prototype boards, and use the same HDL source to retarget the eventual ASIC. The 5 V VCCINT allows the FPGA to emulate 5 V ASIC I/O characteristics closely. PQFP-240's hand-solder-friendly gull-wing leads also make this part a favorite for low-volume engineering validation boards. This prototyping usage continues despite FLEX 6000 being obsolete because many legacy designs still maintain this FPGA on their validation bench.
Recommended
Legacy Embedded Control and Peripherals
Embedded control subsystems in legacy industrial PCs, point-of-sale terminals, and medical instrumentation often integrate the EPF6016QC240-2 as a custom peripheral controller. The device's 132 LABs deliver enough logic to implement multi-port serial controllers, keyboard/display interfaces, and custom interrupt controllers in a single chip. Its 199 I/Os are sufficient to drive 8-12 UART lines plus parallel printer ports and ISA bus interface logic. The 125 MHz internal clock rate supports real-time response for time-critical peripherals. Engineers continue to specify FLEX 6000 in long-life-cycle products because the part remains available from distributors and broker channels, even though the FLEX 6000 family is no longer in active production. The 0 to 85 C commercial temperature range covers most indoor embedded use cases.
Recommended
Test and Measurement Front-End Logic
Test and measurement instruments such as logic analyzers, protocol testers, and ATE fixtures historically used the EPF6016QC240-2 to capture, route, and pre-process high-speed digital signals before handing them to a host processor. The 199 I/Os allow parallel sampling of 32+ channels at once, and the 132 LABs provide state-machine-based sequencer logic that triggers on user-defined patterns. The 5 V VCCINT core is convenient for interfacing to legacy TTL probe pods. Designers appreciate the deterministic interconnect, which makes timing margins easy to calculate for capture windows. Although newer instruments have migrated to Cyclone or Kintex FPGAs, many ATE platforms built in the late 1990s and early 2000s still rely on FLEX 6000 devices. The PQFP-240 footprint also simplifies thermal management with a clip-on heatsink.
Recommended
Medical Imaging Pipeline Front-End
Older medical imaging modalities (ultrasound front-ends, MRI gradient controllers) leverage the EPF6016QC240-2 for channel multiplexing, beamforming pre-processing, and timing-critical data routing. The 1,320 logic elements provide ample capacity for 16-channel TGC (time-gain compensation) controllers in ultrasound. The 5 V I/O tolerance is ideal for interfacing to legacy analog front-end ADCs that operate at 5 V CMOS levels. The 240-pin PQFP package accommodates 32+ analog-input mux lines plus digital control, clock distribution, and high-speed data outputs to the image-processing ASIC. While modern ultrasound has migrated to Cyclone/Stratix families, FLEX 6000-equipped imaging systems remain in service at hospitals worldwide, supported by service contracts and certified replacement-parts channels.
Recommended
Recommended Products Summary
Engineering reference data for EPF6016QC240-2 — comparison, design guidance, and compliance information.
Selection Guide
Comparison with Alternatives
| Parameter | This Product | EPF6016QC240-3 | EPF6016QC240-2N | EPF6016QC240 |
|---|---|---|---|---|
| Brand | Intel | Intel | Intel | Intel |
| Package | 240-pin PQFP (QFP-240) | 240-pin PQFP (QFP-240) - same | 240-pin PQFP (QFP-240) - same | 240-pin PQFP (QFP-240) - same |
| Family | FLEX 6000 | FLEX 6000 - same | FLEX 6000 - same | FLEX 6000 - same |
| Logic Elements | 1,320 LEs / 132 LABs | 1,320 LEs / 132 LABs | 1,320 LEs / 132 LABs | 1,320 LEs / 132 LABs |
| User I/Os | 199 | 199 | 199 | 199 |
| Speed Grade | -2 (faster) | -3 (slower) | -2 (same) | base (no suffix) |
| Supply Voltage | 5 V VCCINT | 5 V VCCINT | 5 V VCCINT | 5 V VCCINT |
| Operating Temperature | 0 C to 85 C (Commercial) | 0 C to 85 C (Commercial) | -40 C to 85 C (Industrial) | 0 C to 85 C (Commercial) |
| Lifecycle Status | Obsolete | Obsolete | Obsolete | Obsolete |
Key Differentiators
- Highest I/O count in FLEX 6000 family (vs EPF6016AQC208-2 (208-pin PQFP variant))
- Faster speed grade vs -3 variant (vs EPF6016QC240-3)
- Wider temperature range vs base part (vs EPF6016QC240-2N)
Design Notes
Estimated: The EPF6016QC240-2 draws approximately 200-400 mA on VCCINT (5 V) depending on logic utilization and clock frequency. Place 0.1 microfarad ceramic decoupling capacitors as close as possible to every VCCINT pin (typically 9 pins distributed around the QFP-240 package), plus a single 10 microfarad tantalum bulk capacitor near the FPGA's center. VCCIO pins (separate I/O bank supplies) should each have their own 0.1 microfarad decoupling cap. Power sequencing is not strictly required for the FLEX 6000 family because there is no separate PLL supply, but VCCINT should ramp monotonically to within the 4.75 V to 5.25 V range within 100 ms.
The 240-pin PQFP package has a 32 mm x 32 mm body with 0.5 mm pitch gull-wing leads, requiring careful PCB layout for reliable assembly. Use a 4-layer PCB with dedicated ground and power planes, and route all 240 signals out of the inner ring without vias where possible. Maintain at least 8 mil trace widths to accommodate the fine pitch. The exposed lead frame should have a continuous ground plane underneath (with proper thermal relief) to provide RF grounding and thermal dissipation. JTAG signals (TDI, TDO, TMS, TCK) should be routed with 4-8 mil traces and guarded by ground to support boundary-scan testing.
Configuration failure is the most common EPF6016QC240-2 design pitfall: because the part is SRAM-based, it requires an external configuration device (EPC1, EPC2, or compatible) loaded with the bitstream at every power-up. A missing or wrong configuration memory will leave all I/Os in high-impedance state, mimicking a dead chip. JTAG pins must be accessible for in-system programming. Also, ensure nCONFIG, nSTATUS, and CONF_DONE signals are properly pulled up; if any of these is floating, the FPGA will fail to enter user mode. Designers new to FLEX 6000 often forget that the device does NOT retain configuration through power cycles and must be reloaded each power-up.
Compliance Information
RoHS status not explicitly listed in the verified distributor data. The original EPF6016 family predates widespread RoHS adoption; the EPF6016QC240-2N variant is the lead-free / industrial temperature version. Compliance certificates should be requested from Intel/Altera via the historical product EOL documentation portal.
