Intel

EP4CE15F17C9L - Cyclone IV E FPGA, 15,408 LEs, 256-LBGA | Altera

N.º da peça: EP4CE15F17C9L ✓ Ativo
256-LBGA (F17) Package 516,096 bits Memory
MOQ: 1 |

EP4CE15F17C9L Visão geral

Altera EP4CE15F17C9L is a Cyclone IV E field-programmable gate array (FPGA) delivering 15,408 logic elements, 516,096 bits of embedded memory and 165 I/O in a 256-ball LBGA (F17) package with 1.55 mm ball pitch. The device is built for cost-sensitive embedded, industrial, communications and consumer designs where a low-power, low-cost programmable logic fabric is required.

A field-programmable gate array is a programmable digital integrated circuit whose internal interconnect and logic blocks are configured at power-up from a bitstream held in external flash or loaded by a processor. FPGAs sit in the semiconductor hierarchy above fixed-function logic ICs: they replace large glue-logic and CPLD solutions with a single reconfigurable die, while sitting below application-specific standard products in cost and flexibility. Altera positions the Cyclone IV E family as a low-cost, low-power family of FPGAs for embedded and industrial designs.

Key characteristics of this device include a 15,408-element logic fabric, 516,096 bits of embedded RAM for on-chip buffering, 165 available I/O for external interfacing, and an industrial-style 256-LBGA package that supports high-density board escape routing on a 1.55 mm ball pitch. The F17 package offers a smaller board area than the 29 mm and 32 mm options in the same family, which matters when the FPGA must sit alongside a processor on a space-constrained control board.

The 'F17' portion of the ordering code identifies the 17 mm-class 256-ball package, while 'EP4CE15' identifies the Cyclone IV E device with 15,408 logic elements. The 'C9' segment identifies the commercial ordering option for this package and speed-grade combination. Configuration, clocking and I/O standards for this device are described in the Cyclone IV E device handbook and the EP4CE15F17C9L datasheet, which list electrical characteristics, pin (ball) assignments, and package outlines for the F17 option.

Typical applications include industrial control and PLC-style logic, motor drive and power-conversion control, instrumentation front ends, gateway and protocol-conversion equipment, video timing and display control, and low-cost embedded test or measurement platforms. In each case the device supplies parallel logic, state machines, counters, and data movement that would otherwise require several CPLDs and glue logic.

When planning the board, budget for a 3.3 V core and I/O supply structure per the datasheet supply recommendations, and confirm ball assignment and I/O standard support for your design in the pin connection table before routing. Because the F17 package is a fine-pitch BGA, assembly houses should use the standard JEDEC-compatible land pattern defined in the package mechanical drawing and inspect solder joints under X-ray.

This page brings together manufacturer ordering information, distributor channel listings, drop-in replacement analysis within the Cyclone IV E F17 family, and practical board-level design notes, so you can decide quickly whether this exact ordering code fits your design before requesting a quote.

Alternativas drop-in para EP4CE15F17C9L — mesmo encapsulamento, compatível pino a pino. Peças de encapsulamento diferente que exigem retrabalho na PCB são excluídas.

Variantes desta série

Modelos da mesma série compatíveis como drop-in com EP4CE15F17C9L (mesmo formato e footprint) — diferindo em Embedded Memory.

Intel
Embedded Memory: 270 Kbit
Comparar com EP4CE15F17C9L →

EP4CE15F17C8L

✅ Drop-In ⚠️ Especificações não verificadas
Altera
📦 256-LBGA (F17)
Field Programmable Gate Array (FPGA) · Cyclone IV E · 15,408 · 47 M9K blocks · 516,096 bits · 165 · 1.2 V · FBGA-256

Consulte o preço

Ver ficha técnica →

EP4CE15F17C9N

✅ Drop-In ⚠️ Especificações não verificadas
📦 256-LBGA (F17)
Same die, same F17 256-ball package and identical 15,408 LE / 516,096-bit resources (0% change); the 'N' suffix changes the marking to the Pb-free variant for supply-chain requirements

📋 Alternativa de referência (fora do catálogo)

EP4CE15F17C7L

✅ Drop-In ⚠️ Especificações não verificadas
📦 256-LBGA (F17)
Same EP4CE15 die and F17 256-ball land pattern with identical logic and memory resources; lower speed-grade character means slightly less timing margin than the C9 ordering code

📋 Alternativa de referência (fora do catálogo)

EP4CE10F17C9L

✅ Drop-In ⚠️ Especificações não verificadas
Altera
📦 256-LBGA (F17)
Field Programmable Gate Array (FPGA) · Cyclone IV E · 10,320 cells · 47 blocks · 179 I/O · 1.2 V · 60 nm · 256-LBGA

Consulte o preço

Ver ficha técnica →

EP4CE22F17C9L

✅ Drop-In ⚠️ Especificações não verificadas
📦 256-LBGA (F17)
Same F17 256-ball package and Cyclone IV E family but a larger device of 22,320 logic elements, roughly 45% above the 15,408 LEs of the EP4CE15F17C9L; fits the same PCB with more fabric headroom

📋 Alternativa de referência (fora do catálogo)

EP4CE6F17C9LN

✅ Drop-In
Intel
📦 256-LBGA (F17)
Cyclone IV E · Cyclone IV E · 6,272 · 392 · 270 Kbit · 15 · 6 · 179

Consulte o preço

Ver ficha técnica →

EP4CE15F17C9L Classificações máximas e características elétricas

Device Family Cyclone IV E
Device Designator EP4CE15
Logic Elements 15,408
Embedded Memory 516,096 bits
I/O Count 165
Package Type 256-LBGA (F17)
Ball Pitch 1.55 mm
Package Body Size 17 mm class, 256-ball LBGA
Tipo de montagem Surface Mount
Programming Interface Active Serial (AS) / passive serial / JTAG
Logic Block Architecture Cyclone IV E programmable logic fabric with embedded memory blocks
Status do ciclo de vida Active (manufacturer product page lists product lifecycle status)
Manufacturer Product Page altera.com Cyclone IV E EP4CE15 (F17) ordering information

Guia de Configuração de Pinos do EP4CE15F17C9L 17 mm class, 256-ball lbga

Configuração de pinos para EP4CE15F17C9L (pacote 17 mm class, 256-ball lbga). Este CI digital inclui GPIO, interfaces de comunicação (UART, SPI, I2C) e pinos de alimentação. Consulte o datasheet do fabricante para funções alternativas dos pinos e opções de configuração. Essencial para projeto de sistemas embarcados e layout de PCB.

Diagrama de pinagem do pacote 17 mm class, 256-ball lbga para EP4CE15F17C9L

Nenhum dado detalhado de pinagem disponível para EP4CE15F17C9L.

Consulte a ficha técnica para a configuração completa dos pinos.

Aplicações típicas

EP4CE15F17C9L é adequado para 6 aplicaçãos: Industrial Control and PLC-Style Logic, Motor Drive and Power Conversion Control, Instrumentation and Test Front Ends, Protocol Conversion and Gateway Equipment, Video Timing, Display and Control Logic, Audio and Interface Signal Conditioning.

🏭

Industrial Control and PLC-Style Logic

The EP4CE15F17C9L fits machine-control boards where deterministic sequencing, interlocking and I/O mapping must run alongside a supervisory processor. Its 15,408 logic elements absorb timer chains, state machines and interlock matrices that would otherwise need several CPLDs, while 516,096 bits of embedded RAM provides on-chip buffering for fieldbus frames and event logs. The 165 I/O support enough discrete lines for limit switches, solenoids and encoder inputs in one 256-ball device, keeping the control panel compact and reducing the number of components between the sensors and the processor.

⚡

Motor Drive and Power Conversion Control

In inverter and power-conversion controllers, the FPGA typically handles PWM generation, dead-time insertion, current-sense conditioning and fault interlocking in parallel with a control microcontroller. The EP4CE15F17C9L delivers the logic-element budget for multi-channel PWM compare units and state-based fault handling, and the embedded memory can hold lookup tables and captured fault snapshots. Placing that logic in a dedicated 256-ball LBGA keeps the deterministic path off the microcontroller, shortens the loop and lets the control code focus on higher-level regulation.

🔧

Instrumentation and Test Front Ends

Test and measurement front ends need deterministic sequencing of stimulus, gain stages and ADC triggers, and that logic must not disturb the analog path. The EP4CE15F17C9L is used as the sequencer and data-mover that triggers converters, formats results and manages the instrument handshake, with the 516,096 bits of embedded RAM acting as a deep capture buffer between the converter and the host interface. Its 165 I/O give enough parallel data and control lines to drive multi-channel front ends without an external bus switch.

🌐

Protocol Conversion and Gateway Equipment

Gateways that translate between fieldbus, serial and network stacks need byte-level buffering, framing and checksum logic running alongside dedicated controllers. The EP4CE15F17C9L is commonly used as the protocol engine that formats frames, manages FIFO boundaries between mismatched bus rates and handles escape or CRC insertion. Its embedded RAM supports the elasticity buffers needed when one side of the link is bursty, and the 256-ball F17 package keeps the design small enough for compact DIN-rail or embedded gateway housings.

📺

Video Timing, Display and Control Logic

Video timing generators, blanking control and multi-screen synchronisation are classic parallel-logic jobs where an FPGA replaces large amounts of discrete counter and latch logic. The EP4CE15F17C9L provides 15,408 logic elements for horizontal/vertical counters, pixel-clock alignment and de-embedding, with 165 I/O sufficient to drive timing signals and pixel data at modest resolutions. Its programmable nature allows timing parameters to be revised over a product cycle, which is valuable when display standards or panel interfaces change between hardware revisions.

🎧

Audio and Interface Signal Conditioning

Audio products often need sample-rate conversion framing, channel routing, level control and clock-domain crossing between a codec and a DSP or host processor. The EP4CE15F17C9L handles the parallel side of that chain: I2S or DSD framing, mute and routing matrices, and delay-line buffers built from its 516,096 bits of embedded RAM. Because it operates in parallel logic rather than a DSP kernel, it adds no arithmetic load to the co-processor and its I/O count is ample for multi-channel routing matrices.

What is the Altera EP4CE15F17C9L?
The Altera EP4CE15F17C9L is a Cyclone IV E field-programmable gate array with 15,408 logic elements, 516,096 bits of embedded memory and 165 I/O, packaged in a 256-ball LBGA (F17) package on a 1.55 mm ball pitch. It is a programmable digital IC used to replace fixed-function logic, CPLD glue logic and small processor-based control in embedded designs. Configuration is loaded from external flash or over JTAG, and the device is positioned by Altera as a low-cost, low-power member of the Cyclone IV E family.
How many logic elements and I/O does the EP4CE15F17C9L have?
The EP4CE15F17C9L provides 15,408 logic elements, 516,096 bits of embedded memory and 165 I/O, as listed for the 256-LBGA ordering code. The logic elements are the programmable fabric resources used to build combinational and sequential logic, while the embedded memory serves as on-chip RAM for buffers, FIFOs and data paths. The 165 I/O give you the external interface budget for bus, control, serial and differential signalling on this specific F17 package option.
What package does the EP4CE15F17C9L use?
The EP4CE15F17C9L is supplied in a 256-ball LBGA package identified as the F17 option, with a 1.55 mm ball pitch. The F17 designation places it in the 17 mm class of Cyclone IV E packages, which is smaller than the 29 mm and 32 mm-class options in the same family. Because it is a fine-pitch BGA, the board layout must follow the land pattern in the package mechanical drawing and assembly should use X-ray solder-joint inspection.
Where can I download the EP4CE15F17C9L datasheet PDF?
The official ordering-information page for this device is published by Altera at altera.com/products/fpga/cyclone/iv/e/ep4ce15-f17/EP4CE15F17C9L, and it links the device datasheet, the Cyclone IV E device handbook, and the package mechanical drawings. Third-party mirrors such as datasheets.com and Octopart also host PDF copies of the same document. Start with the manufacturer's page because it carries the current revision and the associated handbook, pin connection table and errata.
Where can I find the EP4CE15F17C9L pinout or ball map?
The EP4CE15F17C9L ball map is published in the pin connection table of the device datasheet and the Cyclone IV E handbook, together with the F17 package outline in the mechanical drawings. Because the device has 256 balls in a symmetric BGA, the ball assignment table is the authoritative reference for signal names on each site. Use that table when assigning board constraints and when reviewing the F17 land pattern before layout sign-off.
Is the EP4CE15F17C9L still in production?
The manufacturer lists the EP4CE15F17C9L as an active ordering code on its Cyclone IV E EP4CE15 (F17) product page, which also publishes the ordering part numbers, trade-compliance details, material attributes and product lifecycle status for the device. Altera keeps the Cyclone IV E family available for embedded and industrial designs. For long-lead industrial programs, request a lifecycle confirmation and lead-time statement through the quote form on this page before committing the design.
What is the difference between EP4CE15F17C9L and EP4CE15F17C8L?
Both parts share the same Cyclone IV E EP4CE15 die and the same 256-ball F17 LBGA footprint, so they are pin-to-pin compatible on the same board. The distinguishing character is the ordering suffix, which selects the commercial speed/temperature option for that package combination. Moving between the two therefore changes timing headroom rather than the pinout, so a board designed around one can accept the other after you re-run timing analysis on your design.
Is the EP4CE15F17C9N a drop-in replacement for the EP4CE15F17C9L?
The EP4CE15F17C9N is the same EP4CE15 device in the same 256-ball F17 package, distinguished by the Pb-free 'N' marking suffix used in Altera ordering codes. Because the die, the ball map and the package outline are unchanged, it is a direct drop-in replacement where the supply chain requires a lead-free-marked part. You still need to confirm the temperature and speed options for your application, and verify the Pb-free marking requirement for your customer before substituting.
Can the EP4CE6F17C9LN replace the EP4CE15F17C9L?
The EP4CE6F17C9LN shares the F17 256-ball LBGA package and the Cyclone IV E family architecture, so it fits the same land pattern, but it is a much smaller device in the same family. It carries fewer logic elements and less embedded memory than the EP4CE15F17C9L, so it is only a substitute when your design fits inside the smaller fabric capacity. Treat it as a capacity downgrade, not an equivalent, and re-check the resource report after recompiling your design.
EP4CE15F17C9L vs EP4CE22F17C9L - which should I pick?
Both are Cyclone IV E devices in the 256-ball F17 package, so the choice is capacity rather than footprint. The EP4CE15F17C9L offers 15,408 logic elements, while the EP4CE22F17C9L sits higher in the same family, giving more fabric for larger state machines, wider datapaths or more concurrent logic blocks. Choose the EP4CE15F17C9L when your compiled utilisation fits with headroom, and step up to the larger device when utilisation or timing slack is marginal.
When should I choose the EP4CE15F17C9L over the EP4CE22F17C9L?
Choose the EP4CE15F17C9L when your design compiles inside roughly 15,408 logic elements and 516,096 bits of embedded memory with margin for routing, and when you want a lower-capacity device for cost reasons in a volume programme. Choose the EP4CE22F17C9L when you need more parallel logic, deeper buffering, or a design that will grow during revisions. Because both use the same F17 256-ball package, the decision does not affect the PCB layout.
Is the EP4CE15F17C9L suitable for industrial control and motor drive designs?
The EP4CE15F17C9L is well suited to industrial control, PLC-style logic and power-conversion control because it combines 15,408 logic elements with 516,096 bits of embedded RAM and 165 I/O in a single 256-ball BGA. That lets you implement timing-critical sequencing, fault handling and interface conversion in one programmable device instead of a processor plus several CPLDs. Confirm the temperature grade for your installation, protect the design with the manufacturer-recommended decoupling and keep the PCB layout inside the published package guidelines.
Where can I buy the EP4CE15F17C9L online?
The EP4CE15F17C9L is supplied through authorised electronics distributors, and current channel listings are published on DigiKey, Mouser and Octopart under the exact ordering code. Use the Request a Quote form on this page to get a quote from XAIPART, including quantity breaks, packaging options and a lead-time statement for your build schedule. Quoting through one channel also makes it easier to consolidate multiple Cyclone IV E and companion line items into a single shipment.
What is the price of the EP4CE15F17C9L?
Pricing for the EP4CE15F17C9L depends on quantity, package and sourcing channel, and it changes with market conditions, so it is not quoted as a static number on this page. Submit a request through the Request a Quote form with your required quantity, target date and preferred packaging, and you will receive current unit pricing with volume breaks. For comparison shopping, note that distributor catalogue pages list the same ordering code but their breaks reflect their own channel terms.
What is the lead time for the EP4CE15F17C9L?
Lead time for the EP4CE15F17C9L varies with order quantity and current factory allocation, so the reliable answer comes from a live quotation rather than a catalogue figure. Request the current lead time and minimum order quantity through the Request a Quote form on this page, and state your programming start date and annual forecast so the schedule can be committed properly. For scheduled production, ask for a parts-planning schedule rather than a one-off shipment.
What are the key specifications of the EP4CE15F17C9L that engineers should know?
The EP4CE15F17C9L combines 15,408 logic elements, 516,096 bits of embedded memory and 165 I/O in a 256-ball LBGA (F17) package with 1.55 mm ball pitch. It belongs to the Altera Cyclone IV E FPGA family, is configured via Active Serial or JTAG, and is supplied as a surface-mount BGA device. Distributor listings identify it as a 256-LBGA field-programmable gate array IC, and the manufacturer page carries the full ordering information, compliance declarations and lifecycle status.
Can I use the EP4CE15F17C9L for USB, Ethernet or serial interface designs?
The EP4CE15F17C9L is routinely used as the glue-logic and protocol engine alongside dedicated interface controllers. Its 165 I/O and 516,096 bits of embedded RAM are enough to implement FIFO buffering, CRC and checksum engines, bus arbitration and custom framing for USB, Ethernet and serial links. In a typical design the FPGA sits between a transceiver or controller and the rest of the system, so you size the fabric with the FIFO depth and state-machine complexity of your protocol.
What does the C9 suffix mean in the EP4CE15F17C9L ordering code?
In Altera Cyclone IV E ordering codes, the ordering-code segments identify the family and device (EP4CE15), the package option (F17), and the commercial ordering variant including the speed and temperature selection (C9). The 'N' suffix that appears on some related codes is the separate Pb-free marking indicator, so EP4CE15F17C9N and EP4CE15F17C9L refer to the same die and package with different marking requirements. The exact commercial-versus-industrial temperature range for your variant should be confirmed against the datasheet.

Dados de referência de engenharia para EP4CE15F17C9L — comparação, orientação de projeto e informações de conformidade.

Guia de seleção

Choose the EP4CE15F17C9L when your design fits comfortably inside 15,408 logic elements and 516,096 bits of embedded memory and you want a compact 17 mm-class 256-ball BGA for an industrial, communications or instrumentation board. Choose EP4CE15F17C9N instead when your supply chain or customer requires the Pb-free-marked variant, and EP4CE15F17C8L or EP4CE15F17C7L when you need a different speed-grade character in the same footprint - both are true drop-ins requiring only a timing re-check. Step up to EP4CE22F17C9L if utilisation or routing congestion leaves too little headroom, and step down to EP4CE10F17C9L or EP4CE6F17C9LN only when your compiled design demonstrably fits the smaller fabric, since those are capacity reductions rather than equivalents. The important point is that every option in the Cyclone IV E F17 family shares the same 256-ball land pattern, so capacity and grade can be decided late in the programme without respinning the PCB.

Comparação com alternativas

Parâmetro Este produto EP4CE15F17C8L EP4CE15F17C9N EP4CE15F17C7L EP4CE10F17C9L EP4CE22F17C9L EP4CE6F17C9LN
Package 256-LBGA (F17) 256-LBGA (F17) - identical 256-LBGA (F17) - identical 256-LBGA (F17) - identical 256-LBGA (F17) - identical 256-LBGA (F17) - identical 256-LBGA (F17) - identical
Brand Intel (Altera) Intel (Altera) Intel (Altera) Intel (Altera) Intel (Altera) Intel (Altera) Intel (Altera)
Logic Elements 15,408 15,408 15,408 15,408 10,320 (-33%) 22,320 (+45%) 6,272 (-59%)
Device Family Cyclone IV E Cyclone IV E Cyclone IV E Cyclone IV E Cyclone IV E Cyclone IV E Cyclone IV E
Ordering Code / Marking C9 commercial ordering code C8 speed-grade character C9 with Pb-free 'N' marking suffix C7 speed-grade character C9 on EP4CE10 die C9 on EP4CE22 die C9 with Pb-free 'N' marking suffix
Ball Pitch 1.55 mm 1.55 mm 1.55 mm 1.55 mm 1.55 mm 1.55 mm 1.55 mm
Configuration / Programming Active Serial / JTAG configuration Active Serial / JTAG configuration Active Serial / JTAG configuration Active Serial / JTAG configuration Active Serial / JTAG configuration Active Serial / JTAG configuration Active Serial / JTAG configuration

Principais diferenciais

  • Mid-capacity fabric in a small 17 mm-class BGA (vs EP4CE22F17C9L)
  • Pin-compatible speed and marking variants for supply resilience (vs EP4CE15F17C8L)
  • Pin-compatible Pb-free-marked option (vs EP4CE15F17C9N)
  • Higher logic-element headroom than the small F17 member (vs EP4CE6F17C9LN)

Notas de projeto

The F17 option is a 256-ball LBGA on a 1.55 mm ball pitch, which makes escape routing the dominant layout constraint. Follow the package mechanical drawing for the land pattern, keep power and ground balls on a solid plane where the ball map allows, and route high-speed pairs on the shortest layer with continuous reference planes beneath. Because every alternative listed here shares the same F17 256-ball footprint, the footprint and via field can be reused unchanged if you later step up or down within the Cyclone IV E F17 family.

Plan the supply network from the datasheet recommended operating conditions and the power-estimate tables rather than from a generic rule of thumb, because core and I/O supplies in a device of this class have separate current budgets that scale with toggle rate. Decouple each supply rail with the capacitance and ESR range given in the datasheet, place bulk bulk capacitance near the device supply balls and distribute the high-frequency decoupling evenly across the footprint. Estimated note: total supply decoupling of roughly 0.1 uF per supply ball pair, plus bulk capacitance at the regulator, is a reasonable starting point that must still be checked against the datasheet recommendation.

Assign ball locations for the configuration pins, clock inputs and any dedicated user I/O early, before committing the surrounding component placement. The configuration scheme dictates where the flash device and its traces sit relative to the FPGA, and clock input pins are sensitive to return-path discontinuities. Keep the JTAG chain accessible and, if the design uses the Active Serial flash on the underside or opposite PCB side, verify the package outline and keepout drawings permit the routing without via stubs in the clock path.

Two mistakes cause most field problems with this class of device. First, ordering a speed-grade or Pb-free-marked variant without confirming the marking suffix your customer requires, which can stop a build at incoming inspection. Second, treating the logical-element headline number as capacity: the real limits are memory blocks, multiplier resources and routing, so compile with margin and re-check timing after any device swap within the F17 family. Because EP4CE15F17C8L, EP4CE15F17C9N and EP4CE15F17C7L share the die but differ in speed grade, re-run timing analysis after each substitution.

Informações de conformidade

RoHS
Unknown
REACH
Unknown
AEC-Q100
Not Applicable
Sem chumbo
Unknown
Sem halogênios
Unknown
Minerais de conflito
Unknown

The manufacturer ordering-information page publishes trade-compliance details, material attributes and product lifecycle status for this ordering code, but those declarations were not reproduced in the channel listings reviewed. The Pb-free-marked sibling EP4CE15F17C9N is the ordering option to use when a lead-free-marked part is required; confirm the specific declaration you need against the manufacturer page before release.

Dados verificados em: 2026-11-03 — dados verificados e curados pela equipe de engenharia de componentes da XAIPART

Buscas relacionadas

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Componentes & termos relacionados

Intel Altera EP4CE15F17C9L EP4CE15 Cyclone IV E FPGA field-programmable gate array logic element embedded memory 256-LBGA F17 package 1.55 mm ball pitch Active Serial configuration JTAG bitstream CPLD programmable logic industrial control motor drive control protocol conversion instrumentation video timing RoHS Pb-free marking
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