Skip to main content
Digilent Arty A7 FPGA development board with Xilinx Artix-7

Digilent Arty A7: The Go-To FPGA Development Board for Indian Engineers

GSAS Engineering · · 5 min read

The Digilent Arty A7 has become the default FPGA development board for engineers and students who need a capable, affordable platform for learning FPGA design, prototyping digital systems, and experimenting with soft processor architectures including RISC-V. Built around the AMD/Xilinx Artix-7 FPGA, available in 35T and 100T logic cell variants, the Arty A7 provides enough FPGA resources for meaningful projects while keeping the price accessible enough for individual purchase.

For Indian engineers and students in Bengaluru, Pune, Chennai, Hyderabad, and Delhi NCR, the Arty A7 has become synonymous with FPGA learning, partly because of its technical capability, partly because of its ecosystem compatibility, and partly because GSAS provides it with INR invoicing and local availability that eliminates the import uncertainty of direct international purchase.

Hardware Overview

The Arty A7 is not a stripped-down educational board, it is a genuine development platform with peripherals that support real applications:

FPGA. Xilinx Artix-7 XC7A35T (33,280 logic cells, 1,800 Kb block RAM, 90 DSP slices) or XC7A100T (101,440 logic cells, 4,860 Kb block RAM, 240 DSP slices). The 35T variant handles most learning and prototyping tasks; the 100T provides headroom for larger designs including multi-core soft processors and complex signal processing.

Memory. 256 MB DDR3L SDRAM, enough for framebuffers, lookup tables, and data buffering that memory-less FPGA boards cannot support. The DDR3L interface is itself a useful design exercise for engineers learning high-speed memory controller implementation.

Storage. 16 MB Quad-SPI flash for non-volatile configuration storage and user data.

Connectivity. 10/100 Mbps Ethernet for networked applications and remote access. USB-JTAG for programming and debugging. USB-UART for serial communication.

Expansion. Four Pmod connectors (12-pin) for Digilent’s ecosystem of peripheral modules (DACs, ADCs, motor drivers, sensors, displays, communication interfaces). Arduino-compatible shield headers for the broader Arduino shield ecosystem.

Why the Arty A7 Works for FPGA Learning

FPGA development has a steep learning curve. The Arty A7 reduces the friction at several points:

Immediate productivity with Vivado. The board is fully supported by AMD/Xilinx Vivado Design Suite, with board definition files that configure I/O constraints, clock sources, and peripheral connections automatically. A new user can have a working design running on the board within an hour of installing Vivado.

Rich I/O for visual feedback. Four RGB LEDs, four green LEDs, four push buttons, and four slide switches are directly connected to FPGA I/O pins. These provide immediate visual feedback for digital logic experiments, essential for building intuition about FPGA behaviour.

Pmod ecosystem for incremental complexity. The four Pmod connectors enable incremental addition of peripherals as the designer’s skills develop: start with LEDs and buttons, add a seven-segment display, then an ADC for signal acquisition, then an OLED display, then a motor controller. Each addition is a bounded design challenge that builds capability.

RISC-V soft processor support. The Arty A7 is one of the primary platforms for RISC-V soft processor development using the Xilinx MicroBlaze or open-source RISC-V cores (VexRiscv, PicoRV32, NEORV32). For engineers interested in processor architecture and custom instruction development, the Arty A7 provides a physical platform for experimentation.

Applications Beyond Education

The Arty A7 is widely used beyond the classroom:

Prototyping and proof-of-concept. Engineers validating an FPGA-based architecture before committing to a custom PCB design use the Arty A7 to prove the concept. The Arduino and Pmod expansion options enable quick assembly of application-specific I/O.

Algorithm development. Digital signal processing algorithms, image processing pipelines, and communication protocols are developed and tested on the Arty A7 before implementation on production FPGA hardware.

Test and measurement. Combined with Pmod ADCs and DACs, the Arty A7 becomes a custom data acquisition or signal generation platform. The FPGA processes signals in real-time with deterministic timing that microcontroller-based solutions cannot guarantee.

RISC-V development. The growing RISC-V ecosystem in India, spanning academic research, startup development, and government-backed initiatives, uses the Arty A7 as a standard hardware platform for RISC-V soft processor implementation and evaluation.

35T vs 100T: Which to Choose

Choose the 35T for digital logic learning, introductory FPGA courses, simple soft processors, and projects with modest logic requirements. The 35T provides enough resources for most educational and prototyping tasks.

Choose the 100T for multi-core soft processors, complex signal processing (FFT, FIR filters with many taps), image processing, and projects where you need headroom to add features without running out of logic cells. The additional 240 DSP slices (vs 90 on the 35T) are particularly valuable for signal processing applications.

Why Buy from GSAS

GSAS is an authorized partner in India, providing the Arty A7 (both 35T and 100T variants) with INR invoicing, GST-compliant billing, local stock, and technical support. We serve engineers, startups, and educational institutions across Bengaluru, Hyderabad, Chennai, Pune, Mumbai, Delhi NCR, and Visakhapatnam.

Explore Arty A7 → | Visit the GSAS Store →

Interested in Digilent tools?

Talk to our application engineers for personalized tool recommendations.

Stay in the Loop

Get monthly compliance updates, product insights, and engineering best practices delivered to your inbox.

Related Articles

FPGA in the loop verification workflow between Simulink and a Zynq-7000 development board
Technical Guides Digilent

ZedBoard FPGA-in-the-Loop: HDL Verifier vs HDL Coder

Teams asking for FPGA-in-the-Loop on a ZedBoard usually name HDL Coder and SoC Blockset. FIL is actually HDL Verifier. Here is the correct product split, the JTAG versus Ethernet decision, and the 2015-era advice that is still sending Indian teams down the wrong path.

5 Aug 2026 · 9 min read
FADOS MUX test station on an Indian EMS line generating a board test report, GSAS FADOS reporting workflow
FADOS CBT Electronic

FADOS Test Reports and GSAS Agent: Turning Board Test Results into an Auditable Record

A pass or fail on the FADOS screen is not a record. This guide covers what the FADOS test report contains, what GSAS Agent does with it, and how offline, Google Drive and LAN modes put a QR-linked report on the job card for repair shops and EMS lines in India.

4 Aug 2026 · 8 min read
Classification tree and combination table used to design embedded unit test cases in Razorcat's Classification Tree Editor for TESSY, available in India from GSAS Micro Systems
Compliance & Safety Razorcat Automotive & Mobility

Test Case Design with the Classification Tree Method: Deriving Unit Tests You Can Defend in an Audit

Ad-hoc test cases can be perfectly good tests and still fail an audit, because nothing on file records why that particular set was sufficient. The Classification Tree Method derives test cases from the input space instead: identify the test-relevant aspects as classifications, partition each into equivalence classes, then combine leaf classes in a combination table. Razorcat implements CTM in the Classification Tree Editor, available integrated into TESSY or standalone. GSAS Micro Systems is the authorized Razorcat engineering partner for India, the UAE and Sri Lanka.

1 Aug 2026 · 10 min read