AMD

XA7A12T-1CSG325I - 150 I/O Artix-7 FPGA | AMD

MPN: XA7A12T-1CSG325I ✓ Aktif
CSBGA-325, 324-ball Package
MOQ: 1 |

XA7A12T-1CSG325I Ringkasan

The AMD XA7A12T-1CSG325I is an Artix-7 field-programmable gate array with 12,800 logic cells, 150 I/O, and 737,280 reported device parameters in a 324-ball CSBGA package. It is designed for compact, high-density programmable logic where parallel processing, flexible I/O, and reconfigurable system architecture are more important than the power envelope of a larger FPGA. The CSBGA-325 package also provides a substantial ball count for power, ground, configuration, and high-speed connectivity.

An FPGA is a semiconductor whose digital circuitry is defined after manufacture through a configuration bitstream. The Artix-7 family combines programmable logic blocks, block RAM, programmable I/O, and high-speed serial transceivers. Within that product hierarchy, the XA7A12T sits at the lower end of the Artix-7 capacity range, making it appropriate for protocol bridging, embedded control, sensor aggregation, industrial automation, test equipment, and communication interfaces when the design does not require the logic resources of a larger device.

The XA7A12T-1CSG325I provides 150 I/O and 12,800 logic cells according to its product listing. Its 737,280-value device parameter should be compared with the manufacturer ordering information before assigning a specific internal resource role. The device uses the CSG325 package designation for a 324-ball ceramic substrate BGA, and listing data identifies an industrial-temperature option for this part number. Configuration, programming, and design-tool support must be checked against the selected AMD device family and bitstream requirements.

The CSBGA package demands careful PCB planning because its fine ball pitch, dense escape routing, and numerous supply connections make electrical, thermal, and assembly constraints more demanding than those of a large-lead-count plastic package. Power rails should be distributed with low-impedance planes or properly terminated networks, while decoupling must be placed close to the relevant supply balls. A stable reference and configuration interface are equally important because incorrect sequencing can prevent reliable startup even when the board-level schematic is otherwise correct.

Typical uses include industrial motor and motion control, factory data acquisition, programmable instrumentation, embedded communications, camera and image-processing front ends, and compact test systems. The large I/O count can simplify board partitioning when multiple buses, control signals, and serial links must coexist, while the 12,800-cell capacity supports parallel datapaths without moving to a larger FPGA.

For a new layout, use the manufacturer package drawing and pinout files as the controlling mechanical and electrical references. Verify ball assignments, power requirements, decoupling, configuration pins, and exposed thermal-management structures before releasing artwork. Use the manufacturer device documentation to confirm speed grade, temperature coverage, supported configuration methods, and the exact tool versions compatible with the bitstream.

This product page combines the confirmed device identifiers with practical guidance for FPGA selection, CSBGA layout, thermal planning, configuration, and replacement assessment. It also separates confirmed package and resource details from values that must be confirmed in the manufacturer datasheet, helping engineers move directly into footprint-level design review.

Pilihan pengganti yang segera untuk XA7A12T-1CSG325I — sama paket, pin-pin kompatibel. Bahagian paket yang berbeza memerlukan kerja ulang PCB diasingkan.

Varietas dalam siri ini

Model serupa yang kompatibel dengan pengganti yang segera XA7A12T-1CSG325I (sama faktor bentuk dan kaki) — berbeza dalam Package, Logic Cells, Device Type, Terminal Finish.

AMD
Package: 324-LFBGA, CSPBGA (CSG325)
Logic Cells: 12800
Terminal Finish: Tin/Silver/Copper (JESD-609 e1)
Bandingkan Dengan XA7A12T-1CSG325I →
AMD
Package: 325-pin CSBGA; distributor listings also identify 324-LFBGA/CSPBGA
Device Type: Artix-7 field-programmable gate array (FPGA)
Bandingkan Dengan XA7A12T-1CSG325I →

XC7A12T-1CSG325I

✅ Masuk Drop-In
AMD
📦 CSBGA-325 (324-ball)
Artix-7 field-programmable gate array (FPGA) · 12,800 cells · 150 I/O · 737,280 · 28 nm · 1 V · 325-pin CSBGA; distributor listings also identify 324-LFBGA/CSPBGA · Artix-7

Hubungi untuk harga

Lihat Datasheet →

XA7A12T-1CSG325Q

✅ Masuk Drop-In
📦 CSBGA-325 (324-ball)
Same MPN base and CSG325 package; the Q-grade ordering suffix changes the qualification or temperature option, with no verified resource change.

📋 Alternatif rujukan (tidak dalam katalog)

XC7A15T-1CSG325I

✅ Masuk Drop-In
📦 CSBGA-325 (324-ball)
Logic capacity increases from 12,800 to 16,640 cells, a 3,840-cell or 30% increase, while retaining the CSG325 package.

📋 Alternatif rujukan (tidak dalam katalog)

XC7A25T-1CSG325I

✅ Masuk Drop-In ⚠️ Spesifikasi Tidak Disahkan
📦 CSBGA-325 (324-ball)
Logic capacity increases from 12,800 to approximately 24,240 cells, an increase of approximately 9,440 cells or 74%; same CSG325 family footprint.

📋 Alternatif rujukan (tidak dalam katalog)

XC7A35T-1CSG325I

✅ Masuk Drop-In ⚠️ Spesifikasi Tidak Disahkan
📦 CSBGA-325 (324-ball)
Logic capacity increases from 12,800 to approximately 33,280 cells, an increase of approximately 20,480 cells or 160%; same CSG325 family footprint.

📋 Alternatif rujukan (tidak dalam katalog)

XA7A12T-1CSG325I Penilaian maksimum & Ciri-ciri Elektrik

Device Type Artix-7 field-programmable gate array
Logic Cells 12,800 cells
I/O Count 150 I/O
Reported Device Parameter 737,280
Kemasan CSBGA-325, 324-ball
Package Technology Ceramic substrate ball grid array
Device Family Artix-7
Programmable Logic Configurable FPGA logic
Temperature Grade Industrial
Moisture Sensitivity Level MSL 3
Peak Reflow Temperature 260 C
Maximum Time at Peak Reflow 30 s
Terminal Finish Tin-silver-copper
JESD-609 Code e1
Status RoHS Compliant
Programmable I/O 150 I/O
Jenis Pemasangan Surface mount

Panduan Konfigurasi Pin XA7A12T-1CSG325I ceramic substrate ball grid array

Konfigurasi pin untuk XA7A12T-1CSG325I (ceramic substrate ball grid array pakai). IC digital ini termasuk GPIO, antaramuka komunikasi (UART, SPI, I2C), dan pin kuasa. Rujuk dokumen pengeluar untuk fungsi pin alternatif dan opsi konfigurasi. Biasa digunakan dalam rancangan sistem ter嵌入式 dan PCB.

Garis bentuk pengecah pakai ceramic substrate ball grid array untuk XA7A12T-1CSG325I

Tiada data garisan pin yang diperoleh untuk XA7A12T-1CSG325I.

Rujuk kepada lembaran data untuk konfigurasi pin penuh.

Aplikasi Biasa

XA7A12T-1CSG325I patut untuk 6 aplikasis: Industrial Motion and Machine Control, Programmable Test and Measurement Equipment, Factory Data Acquisition and Sensor Aggregation, Embedded Communications and Protocol Bridging, Camera and Image Processing Front Ends, Programmable Security and Access Control.

🏭

Industrial Motion and Machine Control

The XA7A12T-1CSG325I fits compact industrial motion-control logic because its 12,800 logic cells can host parallel control pipelines while 150 I/O support encoders, machine inputs, actuator outputs, and supervisory signals. The CSBGA-325 package provides dense connections for high-speed internal routing, but its fine ball pitch requires careful escape routing and multilayer power distribution. Designers should use the exact manufacturer pin and reference assignments, verify industrial temperature limits, and reserve sufficient routing resources for timing-critical control paths.

🔧

Programmable Test and Measurement Equipment

The XA7A12T-1CSG325I is useful in programmable measurement systems that combine acquisition control, sequencing, pattern generation, and data processing in one device. Its 12,800 logic cells support parallel datapaths, while 150 I/O provide substantial connectivity for converters, triggers, status indicators, and communication interfaces. A dense CSBGA layout also permits compact routing between logic and high-pin-count converters. Confirm converter interface voltage standards, supported I/O standards, configuration method, and timing margins in the manufacturer device documentation.

📡

Factory Data Acquisition and Sensor Aggregation

The XA7A12T-1CSG325I can consolidate multiple digital sensors, counters, interlocks, and communication streams in a factory data-acquisition module. The 150 I/O allow parallel sensor inputs and control outputs without requiring the logic resources of a larger FPGA. Its Artix-7 architecture permits datapath and protocol logic to be updated through configuration, enabling reusable platform designs. Engineers should reserve configuration storage, validate supported I/O standards, and separate sensitive analog or high-speed interfaces from the digital ball-grid-array escape routing.

🌐

Embedded Communications and Protocol Bridging

The XA7A12T-1CSG325I is suitable for embedded protocol bridges that translate between parallel buses, serial links, and host interfaces. Its 12,800 logic cells can support multiple concurrent state machines and packet-processing paths, while 150 I/O reduce the need for external interface logic. The 324-ball package supports dense power, ground, and signal distribution, although every high-speed interface requires careful impedance control and return-path planning. Select I/O standards and transceiver features from the manufacturer documentation for the exact device.

📺

Camera and Image Processing Front Ends

The XA7A12T-1CSG325I can implement compact image-acquisition front ends that perform sensor timing, exposure control, data capture, and initial pixel processing. The 150 I/O provide useful parallelism for multi-bit sensor interfaces and control signals, while 12,800 logic cells support configurable pipelines and test logic. Because a CSBGA-325 package requires precise escape routing, sensor traces should be length-matched where required and isolated from noisy power or switching paths. Signal-integrity and bandwidth calculations should use the selected I/O and transceiver specifications.

🛡️

Programmable Security and Access Control

The XA7A12T-1CSG325I can support programmable security controllers that combine credential parsing, policy evaluation, event logging, alarm signaling, and communications. Its 12,800 logic cells are appropriate for parallel cryptographic or protocol-control logic when implementation timing and resource estimates remain within the device limits. The 150 I/O allow integration of readers, indicators, and host links. Designers should use trusted configuration procedures, secure boot methods where supported, and a defined update strategy rather than treating general FPGA configuration as automatically secure.

Ringkasan Produk Disebarkan

XC7A12T-1CSG325I AMD Dipergunakan di: Industrial Motion and Machine Control, Programmable Test and Measurement Equipment, Factory Data Acquisition and Sensor Aggregation, Embedded Communications and Protocol Bridging, Camera and Image Processing Front Ends, Programmable Security and Access Control XC7A15T-1CSG325I Pin-compatible higher-capacity Artix-7 option Dipergunakan di: Industrial Motion and Machine Control, Programmable Test and Measurement Equipment, Factory Data Acquisition and Sensor Aggregation, Embedded Communications and Protocol Bridging, Camera and Image Processing Front Ends, Programmable Security and Access Control
What is the AMD XA7A12T-1CSG325I?
The AMD XA7A12T-1CSG325I is an Artix-7 FPGA with 12,800 logic cells, 150 I/O, and a 324-ball CSBGA package. According to the manufacturer product documentation, it provides programmable logic and dense board connectivity in a surface-mount ceramic ball grid array. The same package family is also offered with different logic capacities, including the 16,640-cell XC7A15T, so designers should distinguish capacity changes from true footprint replacements.
What are the key specifications of XA7A12T-1CSG325I that engineers should know?
The XA7A12T-1CSG325I combines 12,800 logic cells, 150 I/O, and a 324-ball CSBGA package in an Artix-7 FPGA. The manufacturer ordering information also identifies an industrial-temperature grade for this MPN. Additional characteristics such as exact power-rail voltages, block RAM, DSP resources, and supported configuration methods must be taken from the manufacturer datasheet for the selected device rather than inferred from the package number.
Where can I download the XA7A12T-1CSG325I datasheet PDF?
The XA7A12T-1CSG325I datasheet PDF is available through the manufacturer-linked document hosted on the component page and through the AMD/Xilinx datasheet result listed on this page. Use the PDF together with the manufacturer package drawing, pinout files, and configuration documentation. The 324-ball CSBGA footprint and power architecture must be checked against the exact ordering code before the PCB is released.
Where can I find the XA7A12T-1CSG325I pinout?
The authoritative XA7A12T-1CSG325I pinout is in the manufacturer package drawing and pin-definition documentation for the CSG325 device. Do not assign PCB connections from a generic BGA library or from another Artix-7 variant. Check power balls, configuration pins, reference connections, transceiver pins, and user I/O directly against the exact device ordering code because package ball assignments can vary with the selected FPGA.
Is XA7A12T-1CSG325I a drop-in replacement for XC7A12T-1CSG325I?
The XA7A12T-1CSG325I and XC7A12T-1CSG325I occupy the same CSG325 device family and package designation, but their temperature-grade ordering codes must be compared before a direct substitution is approved. The XA ordering code is listed as industrial, while the XC device is a closely related Artix-7 member. Verify the complete ordering table, power limits, configuration behavior, and qualification requirements for the equipment being serviced.
What can replace XA7A12T-1CSG325I?
The closest documented replacement is the XC7A12T-1CSG325I because it retains the same Artix-7 capacity class and CSG325 package, subject to temperature-grade and lifecycle review. The XC7A15T-1CSG325I is pin-compatible but increases logic capacity from 12,800 to 16,640 cells, a difference of 3,840 cells, or 30%. Neither substitution removes the need to verify the bitstream, power requirements, and production status.
Is XA7A12T-1CSG325I the same as XA7A12T-1CSG325Q?
The XA7A12T-1CSG325I and XA7A12T-1CSG325Q use the same CSG325 family designation, but the final ordering letter identifies different device grades or qualification options. The I suffix is associated with the industrial-temperature listing, while the Q suffix is the separate ordering code identified for the Q grade. Confirm the manufacturer ordering table before treating the devices as electrically or qualification-identical.
Where can I buy XA7A12T-1CSG325I online?
The XA7A12T-1CSG325I can be requested through the Request a Quote form on this page. Submit the exact MPN, required quantity, package suffix, target grade, and production schedule so procurement can confirm current lifecycle status and supply. Lead time and stock should be confirmed for the exact suffix rather than inferred from a related XC7A12T or Q-grade device.
What is the price of XA7A12T-1CSG325I?
Use the Request a Quote form on this page for the current XA7A12T-1CSG325I quotation and available quantity breaks. The commercial terms can depend on volume, production schedule, package handling, and lifecycle status, so a historical or family-level price should not be used as the current commitment. Include the exact 325-ball ordering code and the required delivery dates in the request.
What is the lead time for XA7A12T-1CSG325I?
The current lead time for XA7A12T-1CSG325I should be confirmed through the Request a Quote form on this page. Request the manufacturing schedule, minimum order quantity, allocation status, and date code requirements for the exact MPN. Because the device is a dense CSBGA FPGA, assembly capacity and production demand can materially affect schedule even when the underlying die is available.
Is XA7A12T-1CSG325I in stock?
Current XA7A12T-1CSG325I availability must be confirmed through the Request a Quote form on this page. Provide the required quantity, target date, and packaging preference to obtain a current allocation response. Do not substitute an XC7A12T listing as proof of stock for the exact XA ordering code, because the device grade and sourcing conditions may differ.
XA7A12T-1CSG325I vs XC7A15T-1CSG325I: which is better for a complex design?
Choose XC7A15T-1CSG325I when the design needs more logic than the XA7A12T-1CSG325I provides, and choose the XA device when its 12,800 logic cells are sufficient. The XC7A15T has 16,640 logic cells, 3,840 more than the XA part, a 30% increase, while retaining the CSG325 package according to the documented cross-reference. Internal utilization and timing must still be checked with the design tools.
When should I choose XA7A12T-1CSG325I over a larger Artix-7 FPGA?
Choose XA7A12T-1CSG325I when 12,800 logic cells and 150 I/O satisfy the design without leaving insufficient timing or routing margin. Its lower-capacity position in the Artix-7 family can reduce system cost, board area, and power demand relative to a larger device. The decision should be based on post-route utilization, timing closure, memory needs, transceiver requirements, and thermal analysis rather than logic-cell count alone.
Is XA7A12T-1CSG325I suitable for an industrial control system?
The XA7A12T-1CSG325I is identified as an industrial-grade Artix-7 FPGA and is suitable for industrial control designs that fit within 12,800 logic cells and 150 I/O. Its programmable architecture supports deterministic control logic, data acquisition, and communication bridging. Confirm the exact operating-temperature limits, isolation requirements, power behavior, and functional-safety obligations for the completed machine before deployment.
What is the best AMD equivalent for XA7A12T-1CSG325I?
The closest AMD family equivalent is XC7A12T-1CSG325I because it retains the 12,800-cell Artix-7 class and CSG325 package, subject to grade and lifecycle verification. XC7A15T-1CSG325I is another same-package option, but it increases logic capacity to 16,640 cells and may alter power, timing, and configuration details. No cross-brand FPGA was confirmed as a drop-in equivalent in the available cross-reference results.

Data referensi kejuruteraan untuk XA7A12T-1CSG325I — perbandingan, panduan rancangan, dan maklumat kesediaan

Panduan Pilihan

Choose XA7A12T-1CSG325I when an industrial Artix-7 design fits within 12,800 logic cells and 150 I/O and the CSBGA-325 package is acceptable. Choose XC7A12T-1CSG325I when the board can use that closely related family member after verifying its temperature grade, qualification, power limits, and lifecycle status. Consider XC7A15T-1CSG325I when routing or utilization estimates indicate that the 16,640-cell device provides useful margin, while noting the 30% logic-capacity increase. The larger XC7A25T and XC7A35T variants can provide additional design headroom in the same package family, but they may change power, thermal, timing, and certification requirements. No cross-brand drop-in equivalent is confirmed. Final selection should follow post-route timing analysis, I/O-bank planning, thermal simulation, configuration review, and lifecycle approval.

Perbandingan dengan Gantian

Parametr Produk Ini XC7A12T-1CSG325I XA7A12T-1CSG325Q XC7A15T-1CSG325I XC7A25T-1CSG325I XC7A35T-1CSG325I
Brand AMD AMD AMD AMD AMD AMD
Package CSBGA-325 (324-ball) CSBGA-325 (324-ball) CSBGA-325 (324-ball) CSBGA-325 (324-ball) CSBGA-325 (324-ball) CSBGA-325 (324-ball)
Device Family Artix-7 Artix-7 Artix-7 Artix-7 Artix-7 Artix-7
Programmable Logic Density 12,800 logic cells 12,800 logic cells 12,800 logic cells 16,640 logic cells, 30% higher Higher density, exact value requires manufacturer confirmation Higher density, exact value requires manufacturer confirmation

Penyeberangsung Jelas

  • Compact Artix-7 density with a high I/O count (vsXC7A15T-1CSG325I)
  • Direct family match for closeout analysis (vsXC7A12T-1CSG325I)
  • Same package option for Q-grade requirements (vsXA7A12T-1CSG325Q)

Catatan Desain

Treat the CSBGA-325 layout as a high-density escape-routing problem rather than adapting a generic 324-ball footprint. Assign every power, ground, configuration, reference, transceiver, and user I/O ball from the exact manufacturer package data. Maintain uninterrupted reference planes, provide adequate via access beneath BGA balls, and route sensitive inputs away from switching-current paths. A PCB stackup should be selected before final escape dimensions are frozen.

Plan separate distribution paths for each required supply rail and place local decoupling close to the corresponding device balls. Before schematic release, confirm the exact voltage, tolerance, sequencing, current, and power-up behavior from the manufacturer datasheet. Estimated: if the device consumes 2.0 W at a 1.0 V core rail, the ideal input current is 2.0 A before regulator and distribution losses; actual supply sizing requires the confirmed datasheet current and target rail efficiency.

A CSBGA package can expose its heat flow through the board rather than through a conventional top-side heatsink. Use the manufacturer thermal model for the actual device, board stackup, copper area, airflow, and adjacent heat sources. Estimated: if the device dissipates 1.5 W and the assembled system has an effective 25 C/W path, the temperature rise is 37.5 C; this estimate must be replaced by thermal simulation and measurement before production.

Do not substitute a related Artix-7 MPN solely because the CSG325 designation matches. Confirm logic capacity, temperature grade, speed grade, supported configuration method, power limits, and tool compatibility. The I and Q ordering suffixes can represent materially different operating or qualification conditions. For an upgrade, preserve the original bitstream only after verifying that every architecture and resource mapping remains valid.

Assign high-speed interfaces to verified I/O or transceiver balls and use the manufacturer pinout and device support files before assigning bank voltage domains. Keep supply and ground return paths continuous, use matched reference-plane transitions, and apply manufacturer-recommended terminations. Do not infer bank capabilities from the XA or XC prefix because speed grade, package option, and individual device ordering code can affect the supported feature set.

Maklumat Kesediaan

RoHS
Compliant
REACH
Unknown
AEC-Q100
Unknown
Bosong logam timbal
Unknown
Bosong halogen
Unknown
Mineral konflik
Unknown

The component listing identifies RoHS compliance, JESD-609 code e1, and a tin-silver-copper terminal finish. Other compliance attributes require manufacturer confirmation.

Data disahkan pada: 2026-11-07 — data yang disahkan dan disusun semula oleh pasukan kejuruteraan komponen XAIPART

Pencarian Berhubungan

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Komponen dan Tanda berkaitan

AMD XA7A12T-1CSG325I Artix-7 XC7A12T-1CSG325I XA7A12T-1CSG325Q XC7A15T-1CSG325I XC7A25T-1CSG325I XC7A35T-1CSG325I FPGA field-programmable gate array programmable logic logic cell CSBGA-325 ceramic substrate ball grid array BGA package surface-mount package 150 I/O 12,800 logic cells MSL 3 RoHS JESD-609 industrial control sensor aggregation protocol bridging image processing
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