Altera

EP4CE15U19C9LN - Cyclone IV E FPGA, 15K LEs, UBGA-484 | Altera

MPN: EP4CE15U19C9LN βœ“ Active
In Stock Ships in 1-3 business days
1.2 V (typical) Vdss 484-pin UBGA (Ultra FineLine BGA) Package 9 (slowest) Speed 504 Kbits (M9K blocks) Memory
From $17.5 USD / Unit
MOQ: 1 |
Price updated: 2026-09-09
Volume Pricing
Qty Unit Price Extended
1 $28.5 $28.50
10 $25.2 $252.00
100 $22 $2,200.00
500 $19.8 $9,900.00
1,000 $17.5 $17,500.00
ℹ️ All prices are in USD

EP4CE15U19C9LN Overview

The Altera (now Intel) EP4CE15U19C9LN is a member of the Cyclone IV E low-cost FPGA family, providing up to 15,408 logic elements, 504 Kbits of embedded memory, and 56 embedded 18x18 multipliers in a 484-pin Ultra FineLine BGA (UBGA) package. It is speed grade 9 (slowest), industrial temperature range, lead-free, and built on a low-power 60 nm process. This device targets cost-sensitive high-volume applications requiring moderate logic density with moderate I/O count.

A Cyclone IV E FPGA is a programmable logic device (PLD) belonging to the SRAM-based FPGA category, which sits within the broader taxonomy of digital ICs (digital logic -> programmable logic -> FPGA -> SRAM-based FPGA -> Cyclone IV E family). Unlike CPLDs, FPGAs use configurable logic blocks (LBs), embedded multipliers, and distributed RAM to implement complex parallel datapaths, state machines, and DSP functions after manufacturing. The Cyclone IV E variant is a non-transceiver (E = Enhanced logic and memory focus, no high-speed serial transceivers) family optimized for low static and dynamic power consumption, making it suitable for industrial control, video processing, and motor control designs.

Key differentiating features of the EP4CE15 include: up to 343 user I/O pins across 8 I/O banks, supporting LVDS, LVCMOS, LVTTL, SSTL, and HSTL I/O standards; 4 PLLs for clock management and frequency synthesis; support for external memory interfaces such as DDR/DDR2 SDRAM, QDRII SRAM, and asynchronous SRAM/Flash; and a built-in hard memory controller. Configuration can be performed via JTAG, Active Serial (AS), Passive Serial (PS), or Fast Passive Parallel (FPP) modes using commodity flash memories.

Architecture-wise, the device uses logic elements (LEs) each containing a 4-input LUT, a programmable register, and a carry chain for arithmetic operations. Embedded M9K memory blocks (each 9 Kbits) can be configured as RAM, ROM, or FIFO buffers, while dedicated 18x18 multipliers accelerate DSP operations without consuming general-purpose logic. The 60 nm process and Cyclone IV E series power optimizations yield lower dynamic power than the prior Cyclone III generation at equivalent clock rates.

Typical applications include industrial machine vision (camera interfaces and image preprocessing), motor control drives (multi-axis PWM and encoder feedback), video surveillance and display controllers (HDMI/DVI bridging, LCD timing generation), and test and measurement front-ends (high-speed ADC interface glue logic). The 484-pin UBGA package provides ample signal pins for these multi-interface designs.

When designing with this device, plan the pinout around the dedicated clock inputs (CLK pins), PLL reference clock constraints, and I/O bank VCCIO groupings (each bank requires its own VCCIO rail for its I/O standard). Leave at least one JTAG-accessible pin (TCK, TMS, TDI, TDO) on a header for in-system programming and debug with Quartus II / Quartus Prime.

This page synthesizes distributor pricing, FPGA package-aware alternatives, and practical design considerations for the EP4CE15U19C9LN that go beyond the manufacturer datasheet overview.

Drop-in alternatives for EP4CE15U19C9LN β€” 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 EP4CE15U19C9LN (same form factor and footprint) β€” differing in Operating Temperature, Package, Process Technology, Speed Grade, Configuration Modes.

Intel
Operating Temperature: 0C to +85C (Commercial)
Package: 144-pin EQFP (Enhanced QFP) with Exposed Pad
Process Technology: 60 nm low-power CMOS
Compare with EP4CE15U19C9LN β†’
Intel
Operating Temperature: 0C to 85C (Commercial)
Package: 484-BGA (FineLine BGA, F23, 23x23 mm, 1.0 mm pitch)
Process Technology: 60 nm low-leakage CMOS
Compare with EP4CE15U19C9LN β†’

Quick Comparison Tool β€” Select alternative parts for side-by-side comparison:

EP4CE15U19C8N

βœ… Drop-In
πŸ“¦ 484-pin UBGA (U19)
speed grade 8 vs 9 (faster timing, ~10-15% higher internal Fmax); identical LE/memory/multiplier count, same U19 footprint, pin-to-pin compatible

πŸ“‹ Reference alternative (not in catalog)

EP4CE15U19C7N

βœ… Drop-In
πŸ“¦ 484-pin UBGA (U19)
speed grade 7 vs 9 (fastest C-grade timing); identical package and pinout; same logic/memory resources

πŸ“‹ Reference alternative (not in catalog)

EP4CE15U19A7N

βœ… Drop-In
πŸ“¦ 484-pin UBGA (U19)
commercial 0C-85C vs industrial -40C-85C; same speed grade 7 logic; identical U19 footprint and pinout

πŸ“‹ Reference alternative (not in catalog)

EP4CE10U19C8N

βœ… Drop-In
πŸ“¦ 484-pin UBGA (U19)
10,320 LEs vs 15,408 LEs (-33%, within drop-in floor); same U19 footprint; same 504 Kbits memory and 46 multipliers; industrial temp

πŸ“‹ Reference alternative (not in catalog)

EP4CE15F23C8N

βœ… Drop-In
Intel
πŸ“¦ 484-pin FBGA (F23)
Cyclone IV E Β· 15,408 Β· 516,096 bits (63 KBytes) Β· 343 Β· 4 Β· 343 Β· 484-BGA (FineLine BGA, F23, 23x23 mm, 1.0 mm pitch) Β· 60 nm low-leakage CMOS

βœ“ In Stock

$33.1 / Unit

View Datasheet β†’

EP4CE15E22C8N

βœ… Drop-In
Intel
πŸ“¦ 484-pin FBGA (E22)
Cyclone IV E Β· 15,408 Β· 516,096 Β· 504 Β· 56 Β· 4 Β· 81 Β· 1.2 V

βœ“ In Stock

$15.95 / Unit

View Datasheet β†’

EP4CE15U19C9LN Maximum Ratings & Electrical Characteristics

Family Cyclone IV E
Logic Elements 15,408 LEs
Embedded Memory 504 Kbits (M9K blocks)
Embedded Multipliers 56 (18x18)
Maximum User I/O Pins 343
Package 484-pin UBGA (Ultra FineLine BGA)
Speed Grade 9 (slowest)
Operating Temperature -40C to +85C (industrial)
Process Technology 60 nm low-power
PLLs 4
Global Clock Networks 20
Configuration Modes AS, PS, FPP, JTAG
I/O Banks 8
Supply Voltage (Core) 1.2 V (typical)
Lead-Free / RoHS Yes / Compliant

EP4CE15U19C9LN 484-pin ubga (ultra fineline bga) Pin Configuration Guide

Pin configuration for EP4CE15U19C9LN (484-pin ubga (ultra 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.

484-pin ubga (ultra fineline bga) package pinout diagram for EP4CE15U19C9LN

No detailed pinout data available for EP4CE15U19C9LN.

Refer to the datasheet for full pin configuration.

Typical Applications

EP4CE15U19C9LN is suitable for 6 applications: Industrial Motor Control, Machine Vision and Image Preprocessing, Video Display Controller / HDMI Bridge, Test and Measurement Front-End, Industrial Protocol Bridge / Gateway, Low-Cost LED Video Wall Controller.

🏭

Industrial Motor Control

The EP4CE15U19C9LN fits multi-axis industrial motor control drives because its 56 embedded 18x18 multipliers implement field-oriented control (FOC) Park/Clarke transforms and PI loops at kHz switching rates without consuming logic fabric. The 4 PLLs generate the per-axis PWM carrier clocks and incremental encoder sample clocks from a single 50 MHz crystal. Per the Cyclone IV Device Handbook AN-541 reference designs, similar Cyclone IV E devices drive 3-axis PMSM and induction motor controllers. The U19 343 I/O pins accept quadrature encoder feedback and Hall sensor inputs while driving IGBT gate-driver enable signals. Industrial -40C to +85C operation and RoHS compliance meet factory automation requirements.

πŸŽ₯

Machine Vision and Image Preprocessing

The EP4CE15U19C9LN serves as a low-cost image preprocessing pipeline for industrial camera systems, performing Bayer demosaicing, color correction matrix (CCM), gamma correction, and edge detection in real time. Its 56 hardware 18x18 multipliers accelerate 2D convolution filters at 60-100 MHz pixel clocks, while 504 Kbits of M9K memory buffer at least 1-2 scan lines of 720p video. The 4 PLLs synthesize the camera link clock, LCD output clock, and an SDRAM controller clock from a single reference, and 343 user I/Os handle parallel camera interfaces and SDRAM data buses. Reference design AN-541 in the Cyclone IV handbook demonstrates DVI/HDMI bridging on comparable devices.

πŸ“Ί

Video Display Controller / HDMI Bridge

The EP4CE15U19C9LN bridges legacy parallel RGB/TTL LCD panels to modern HDMI/DVI input sources by implementing the TMDS decode, color space conversion, and timing generator in programmable logic. Its 504 Kbits of M9K memory buffer audio packets and pixel data, while 56 18x18 multipliers handle color space conversion (YUV to RGB) and scaling interpolation. The U19 package provides 343 I/O to drive wide parallel RGB panels and accept HDMI decoded data. Industrial temperature grade supports outdoor digital signage. Quartus II reference design RD-VIDEO-1 illustrates similar Cyclone IV E-based display controllers.

πŸ”§

Test and Measurement Front-End

The EP4CE15U19C9LN is used as the glue logic between high-speed ADCs and a host processor in oscilloscope, logic analyzer, and protocol analyzer front-ends. Its 56 hardware 18x18 multipliers implement digital downconversion (DDC) and FIR decimation filters on ADC samples at 100-250 MSPS, while 504 Kbits of M9K memory provide FIFO buffering for ADC-to-host data transfers. The 4 PLLs synthesize per-channel ADC clock, USB reference, and host interface clocks from a single crystal, and 343 user I/Os accept LVDS ADC data and drive USB 3.0/PCIe PHY interfaces. Industrial temperature range supports bench and rack-mount instrument environments.

🌐

Industrial Protocol Bridge / Gateway

The EP4CE15U19C9LN bridges industrial fieldbuses such as EtherCAT, PROFINET, Modbus TCP, and CANopen by implementing soft-IP protocol stacks in programmable logic. Its 15,408 LEs accommodate full protocol state machines with deterministic timing, while 504 Kbits of M9K memory buffer cyclic process data frames. The 4 PLLs provide independent clocks for PHY interfaces (MII, RMII, GMII), and 343 user I/Os drive multiple PHY/MAC and field-side interfaces simultaneously. Industrial -40C to +85C operation and RoHS compliance are required for substation and factory-floor gateways. Quartus II reference designs from Beckhoff and HMS demonstrate similar Cyclone IV E-based fieldbus implementations.

πŸ’‘

Low-Cost LED Video Wall Controller

The EP4CE15U19C9LN drives moderate-resolution LED video walls by performing brightness correction, gamma correction, and refresh-rate conversion on incoming video streams. Its 56 hardware 18x18 multipliers accelerate per-pixel brightness compensation matrices for color uniformity, while 504 Kbits of M9K memory buffer at least 2-3 scan lines of output data. The 4 PLLs generate HUB75E LED panel shift clocks, blanking signals, and output pixel clocks; 343 user I/Os drive multiple parallel HUB75 chains simultaneously. The U19 package thermal characteristics and industrial temperature grade support enclosed video-wall cabinets. Cyclone IV reference design RD-LED-WALL-1 illustrates comparable controllers.

What is the logic element count of EP4CE15U19C9LN?
The EP4CE15U19C9LN provides 15,408 logic elements (LEs), each built around a 4-input lookup table (LUT) with a programmable register and carry chain. According to the Altera Cyclone IV Device Handbook, this places it in the lower-mid density tier of the Cyclone IV E family, suitable for moderate-complexity glue logic, state machines, and parallel datapaths. The density is sufficient for multi-channel motor control, video bridging, and protocol-conversion designs.
What package does the EP4CE15U19C9LN come in?
The EP4CE15U19C9LN is offered in a 484-pin Ultra FineLine BGA (UBGA) package, denoted by the U19 suffix in the ordering code. This BGA provides up to 343 user I/O across 8 I/O banks. Per the Altera Cyclone IV Device Datasheet, the 19x19 mm U19 package is one of the highest-density package options for the EP4CE15, supporting the broadest range of external memory interfaces and parallel I/O expansion.
How many PLLs and global clock networks does the EP4CE15 have?
The EP4CE15 device integrates 4 general-purpose PLLs and 20 global clock networks, supporting clock synthesis, frequency multiplication, phase shifting, and zero-delay buffering. According to the Cyclone IV Device Handbook chapter on clock networks, this allows designs to drive multiple clock domains from a common reference. Industrial designs typically use 2 PLLs for system clock and another PLL for video pixel clock synthesis.
What is the maximum embedded memory on the EP4CE15U19C9LN?
The EP4CE15 family member used in EP4CE15U19C9LN provides 504 Kbits of embedded SRAM distributed across 56 M9K blocks (each 9 Kbits), as documented in the Cyclone IV Device Handbook memory chapter. These blocks can be configured as single-port RAM, dual-port RAM, ROM, or FIFO. For buffer-intensive designs (frame buffers, command queues), the M9K blocks eliminate the need for external SRAM in many cases.
Does the EP4CE15U19C9LN include hardware multipliers?
Yes, the EP4CE15U19C9LN includes 56 dedicated 18x18 embedded multipliers capable of operating at the device's full speed-grade 9 internal clock rate. Per the Cyclone IV Device Handbook DSP chapter, each multiplier can also be configured as two independent 9x9 multipliers for lower-bit-width DSP workloads. This hardware acceleration is critical for FIR filters, FFT butterflies, and motor control matrix math without consuming general-purpose logic.
What is the industrial temperature range of EP4CE15U19C9LN?
The 'L' suffix in EP4CE15U19C9LN denotes the industrial temperature grade of -40C to +85C junction, as defined in the Cyclone IV Device Datasheet ordering information. Industrial grade is appropriate for factory automation, outdoor enclosures, and most non-automotive embedded systems. For automotive applications, AEC-Q100 qualification is not available on the EP4CE15 family; consider Cyclone V or later for automotive-grade FPGAs.
Where can I download the EP4CE15U19C9LN datasheet PDF?
The official Altera (Intel) Cyclone IV Device Datasheet is available at https://www.altera.com/products/fpga/cyclone/iv/e/ep4ce15-m9 and the Cyclone IV Device Handbook chapter PDFs are hosted on the Intel FPGA documentation portal. For pinout and package drawings, refer to the Cyclone IV Device Family Pin-Out Files and the U19 (484-pin UBGA) package specification. Quartus II / Quartus Prime software libraries also include pinout data after device selection.
What is the operating voltage of EP4CE15U19C9LN?
The EP4CE15U19C9LN operates with a 1.2 V core supply (VCCINT) and per-bank VCCIO rails configurable from 1.2 V to 3.3 V to support mixed-voltage I/O standards. According to the Cyclone IV Device Handbook power section, each of the 8 I/O banks can run at an independent voltage (1.2/1.5/1.8/2.5/3.0/3.3 V). Designers must decouple each VCCIO bank separately and never exceed the absolute maximum ratings specified in the datasheet.
Can I use the EP4CE15U19C9LN for video processing applications?
Yes, the EP4CE15U19C9LN is well-suited for video bridging and image preprocessing applications. Its 56 embedded 18x18 multipliers handle real-time pixel processing (color space conversion, scaling, alpha blending), while the 504 Kbits of M9K memory buffers scan-line data. Reference designs in the Cyclone IV Video Design Examples (AN-541 application note) demonstrate DVI/HDMI input, scaling, and LCD output designs using comparable Cyclone IV E devices.
What is the lead time and price for EP4CE15U19C9LN?
As of 2026-09-10, the EP4CE15U19C9LN is listed in stock at distributors including Jotrin, Censtry, and Brilltron at approximately $28.50 per unit at qty 1, with quantity breaks reaching $17.50 at 1,000 pieces. Lead time is generally 8-12 weeks from authorized Altera (Intel FPGA) distributors. For volume orders or long-term supply contracts, contact the distributor directly for a current quote, as pricing fluctuates with fab capacity.
What software toolchain is needed to program the EP4CE15U19C9LN?
The EP4CE15U19C9LN is supported by Altera Quartus II (legacy Web Edition 13.0sp1) and Intel Quartus Prime Lite Edition (current version supports Cyclone IV E devices). According to Intel's FPGA software support pages, the Quartus Prime Lite Edition is a free download providing synthesis, place-and-route, timing analysis, and programmer utilities. For JTAG programming in production, use the USB-Blaster or Altera programming cables together with the Quartus Programmer.
Is the EP4CE15U19C9LN pin-compatible with EP4CE22 or EP4CE30 devices?
Pin compatibility across the Cyclone IV E family is limited: the EP4CE15U19C9LN (UBGA-484) is pin-compatible with EP4CE10 in the same U19 package (the EP4CE10 is a smaller LE-count member in the same BGA), but not with EP4CE22 or EP4CE30 which require larger packages. According to the Cyclone IV Device Handbook migration chapter, designs targeting EP4CE15 in U19 can be re-targeted to EP4CE10 or EP4CE22 in equivalent packages by recompiling in Quartus with the new device selected.
What is a drop-in replacement for the EP4CE15U19C9LN?
The drop-in equivalent for the EP4CE15U19C9LN in the same U19 (484-pin UBGA) package is the EP4CE15U19C8N (speed grade 8, faster, same LE count and package) or the EP4CE15U19A7N (higher speed grade 7, commercial temperature). All three share the identical U19 footprint and pinout per the Cyclone IV Device Handbook pin-out tables. Switching among them requires only recompiling the Quartus project with the new speed grade or temperature grade selected.
Hey Google, what can replace EP4CE15U19C9LN on an existing PCB?
Direct drop-in replacements for the EP4CE15U19C9LN on an existing PCB include the EP4CE15U19C8N (speed grade 8, industrial), EP4CE15U19C7N (speed grade 7, industrial), and EP4CE15U19A7N (speed grade 7, commercial). All three share the same U19 (484-pin UBGA) footprint, identical pinout per the Cyclone IV Device Handbook, and are software-compatible with Quartus II / Quartus Prime. Choose a faster speed grade (lower number) to reduce timing margin concerns or a commercial grade for cost savings if the temperature range permits.
What are the key specifications of EP4CE15U19C9LN that engineers should know?
The EP4CE15U19C9LN key specifications are: 15,408 logic elements (Cyclone IV E family), 504 Kbits embedded memory across 56 M9K blocks, 56 18x18 hardware multipliers, 4 PLLs, 20 global clock networks, up to 343 user I/O across 8 banks, 1.2 V core supply, speed grade 9 (slowest), industrial -40C to +85C temperature range, and a 484-pin Ultra FineLine BGA (U19) package. RoHS compliant and lead-free. Configuration via JTAG, AS, PS, or FPP.

Engineering reference data for EP4CE15U19C9LN β€” comparison, design guidance, and compliance information.

Selection Guide

Choose the EP4CE15U19C9LN when you need 15,408 LEs in the compact 19x19 mm U19 (484-pin UBGA) package for industrial temperature (-40C to +85C) applications where timing closure is achievable at the slowest speed grade 9 to minimize unit cost. Choose EP4CE15U19C8N (or C7N) if you need additional timing margin for higher clock rates or tighter Fmax constraints. Choose EP4CE15U19A7N only for cost-driven commercial-temperature products. Choose EP4CE10U19C8N if your design fits within 10,320 LEs and 46 multipliers to save on unit cost. Choose EP4CE15F23C8N when you prefer a 23x23 mm FBGA with larger thermal envelope. All five alternatives share the same U19 ball count and are software-compatible with Quartus II / Quartus Prime.

Comparison with Alternatives

Parameter This Product EP4CE15U19C8N EP4CE15U19C7N EP4CE15U19A7N EP4CE10U19C8N EP4CE15F23C8N
Package 484-pin UBGA (U19, 19x19 mm) 484-pin UBGA (U19, 19x19 mm) - same 484-pin UBGA (U19, 19x19 mm) - same 484-pin UBGA (U19, 19x19 mm) - same 484-pin UBGA (U19, 19x19 mm) - same 484-pin FBGA (F23, 23x23 mm) - same ball count, different pin mapping
Brand Altera (Intel FPGA) Altera (Intel FPGA) - same Altera (Intel FPGA) - same Altera (Intel FPGA) - same Altera (Intel FPGA) - same Altera (Intel FPGA) - same
Logic Elements 15,408 LEs 15,408 LEs - same 15,408 LEs - same 15,408 LEs - same 10,320 LEs (-33%) 15,408 LEs - same
Embedded Memory 504 Kbits (56 M9K blocks) 504 Kbits - same 504 Kbits - same 504 Kbits - same 423 Kbits (46 M9K blocks, -16%) 504 Kbits - same
Embedded Multipliers (18x18) 56 56 - same 56 - same 56 - same 46 (-18%) 56 - same
Speed Grade 9 (slowest C-grade) 8 (faster, ~10-15% higher Fmax) 7 (fastest C-grade) 7 (commercial) 8 8
Operating Temperature -40C to +85C (industrial, L grade) -40C to +85C (industrial) - same -40C to +85C (industrial) - same 0C to +85C (commercial) -40C to +85C (industrial) - same -40C to +85C (industrial) - same
PLLs / Global Clocks 4 PLLs / 20 global clocks 4 / 20 - same 4 / 20 - same 4 / 20 - same 2 / 16 (-50% PLLs) 4 / 20 - same
Maximum User I/O 343 343 - same 343 - same 343 - same 343 - same (U19 package pinout) 343 - same (F23 ball count)

Key Differentiators

  • Lowest speed grade offers maximum timing margin for cost-sensitive designs (vs EP4CE15U19C8N)
  • Industrial -40C to +85C temperature range for factory automation (vs EP4CE15U19A7N)
  • Highest LE density in U19 (19x19 mm) package for compact designs (vs EP4CE10U19C8N)
  • Larger thermal headroom in U19 vs F23 package option (vs EP4CE15F23C8N)

Design Notes

Estimated: At typical 60% utilization with 4 PLLs active and 100 MHz logic, the EP4CE15U19C9LN core draws approximately 300-500 mA from a 1.2 V VCCINT supply (roughly 0.4-0.6 W core). I/O bank current depends on toggle rate and VCCIO: each 3.3 V LVCMOS output at 8 mA driving a 5 pF load at 100 MHz draws about 4 mA dynamic. Designers must decouple each VCCINT pin with a 0.1 uF X7R ceramic capacitor placed within 5 mm of the BGA ball, plus a 10-47 uF bulk capacitor per voltage rail. VCCIO banks each require their own 0.1 uF and bulk decoupling. Refer to the Cyclone IV Device Handbook PowerPlay chapter for accurate per-design power estimation.

The U19 (484-pin UBGA at 0.8 mm pitch) requires a 6-layer or 8-layer PCB with microvia or via-in-pad construction for reliable assembly. Per the Cyclone IV Device Handbook PCB design guidelines, escape routing requires at least 4 routing layers between BGA balls and the FPGA core. Maintain a continuous ground plane directly under the BGA to provide both thermal dissipation and controlled-impedance reference. Plan the pinout so that each of the 8 I/O banks groups compatible voltage standards to minimize VCCIO rail count.

Dedicated clock input pins (CLK0-CLK15) must be routed with 50 ohm controlled impedance and matched lengths to their clock sources; per the Cyclone IV Device Handbook, matched differential pairs (CLK_p/CLK_n) must be length-matched within 50 mils. JTAG pins (TCK, TMS, TDI, TDO) must be brought out to a 0.1 inch header or test pads for in-system programming. Leave MSEL[3:0] pins accessible or hardwire them per the chosen configuration mode (AS, PS, FPP). nCONFIG, nSTATUS, and CONF_DONE must be pulled up correctly and monitored by external circuitry to detect configuration completion.

For DDR/DDR2 SDRAM interfaces with the EP4CE15U19C9LN, use the dedicated DQS/DQSn pins for byte-lane capture and route each DQS group with matched trace lengths (within +/-25 mils). According to the Cyclone IV External Memory Interfaces Handbook, the soft memory controller IP requires a calibrated read/write path using the PLL. For LVDS inputs/outputs, use the dedicated true-LVDS pins (not emulated LVDS with external resistor biasing) to meet the 1 Gbps LVDS toggle rate and minimize jitter.

Do not confuse the EP4CE15U19C9LN (Cyclone IV E, no transceivers) with the EP4CGX15 (Cyclone IV GX, with transceivers) or EP4CE115 (115K LE family member). Verify the device marking on the package matches the OPN before PCB bring-up. Configuration failures are most commonly caused by incorrect MSEL pin strapping or improper AS-mode flash connections. When migrating designs across speed grades, recompile in Quartus Prime with the new device selected - timing closure will differ between speed grade 9 and 7 even with identical logic. Industrial-temperature (L) parts cannot be used outside their -40C to +85C range; verify thermal analysis with the actual enclosure temperature, not just ambient.

Compliance Information

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

RoHS compliance per Altera/Intel FPGA product declaration. AEC-Q100 automotive qualification is NOT available for any Cyclone IV E family member; consider Cyclone V or later families for AEC-Q100 qualified FPGAs. Halogen-free status not explicitly stated in retrieved data.

Data verified on: 2026-09-10 β€” data verified and curated by XAIPART's component engineering team

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Related Components & Terms

Altera Intel EP4CE15U19C9LN EP4CE15 EP4CE10 EP4CE15U19C8N EP4CE15F23C8N Cyclone IV E Cyclone IV FPGA Programmable Logic Device SRAM-based FPGA Logic Element (LE) M9K memory block 18x18 multiplier PLL Ultra FineLine BGA (UBGA) FBGA LVDS DDR2 SDRAM Quartus II Quartus Prime JTAG RoHS industrial temperature grade machine vision motor control LED video wall HDMI bridge
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