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Home Products Integrated Circuits (ICs)Embedded - FPGAs (Field Programmable Gate Array)~~XC6SLX16-2CSG324C~~

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XC6SLX16-2CSG324C - AMD

Name: AMD XC6SLX16-2CSG324C
Brand: AMD
SKU: XC6SLX16-2CSG324C
Price: 3.314 USD
Availability: InStock
Rating: 5 (1 reviews)

Manufacturer Part Number: XC6SLX16-2CSG324C

Manufacturer: AMD Xilinx

Allelco Part Number: 32D-XC6SLX16-2CSG324C

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Stock Status:: 8,676 pcs available, New & Original

Parts Description: IC FPGA 232 I/O 324CSBGA

Package: 324-CSPBGA (15x15)

Data sheet: XC6SLX16-2CSG32.pdf

Environmental Information
Xilinx REACH211 Cert.pdf

RoHs Status: ROHS3 Compliant

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Specifications

XC6SLX16-2CSG324C Tech Specifications
AMD - XC6SLX16-2CSG324C technical specifications, attributes, parameters and parts with similar specifications to AMD - XC6SLX16-2CSG324C

Product Attribute	Attribute Value
Manufacturer	AMD Xilinx
Voltage - Supply	1.14V ~ 1.26V
Total RAM Bits	589824
Supplier Device Package	324-CSPBGA (15x15)
Series	Spartan®-6 LX
Package / Case	324-LFBGA, CSPBGA
Package	Tray

Product Attribute	Attribute Value
Operating Temperature	0°C ~ 85°C (TJ)
Number of Logic Elements/Cells	14579
Number of LABs/CLBs	1139
Number of I/O	232
Mounting Type	Surface Mount
Base Product Number	XC6SLX16

Environmental & Export Classifications

ATTRIBUTE	DESCRIPTION
RoHs Status	ROHS3 Compliant
Moisture Sensitivity Level (MSL)	3 (168 Hours)
REACH Status	REACH Unaffected
ECCN	3A991D
HTSUS	8542.39.0001

Parts Introduction

XC6SLX16-2CSG324C (1)

Manufacturer Part Number

XC6SLX16-2CSG324C

Manufacturer

Xilinx

Introduction

The XC6SLX16-2CSG324C is part of the Spartan-6 LX series from Xilinx, specialized for high-performance, cost-effective FPGA solutions.

Product Features and Performance

-FPGA embedded solution

-1139 Logic Array Blocks/CLBs

-14579 Logic Elements/Cells

-589824 Total RAM Bits

-Supports 232 Input/Output ports

-Operates on 1.14V to 1.26V

-Surface Mount technology

-Suitable for operating temperatures from 0°C to 85°C

Product Advantages

-High-density logic elements for complex designs

-Large RAM capacity for enhanced data processing

-Low voltage operation for energy efficiency

-Robust I/O capabilities for versatile connectivity

-Packed in a compact 324-LFBGA, CSPBGA package

Key Technical Parameters

-Number of LABs/CLBs: 1139

-Number of Logic Elements/Cells: 14579

-Total RAM Bits: 589824

-Number of I/O: 232

-Voltage - Supply: 1.14V ~ 1.26V

-Operating Temperature: 0°C ~ 85°C

Quality and Safety Features

-Manufactured by Xilinx, ensuring high quality and reliability

-Comprehensive testing for optimal performance within specified temperature ranges

Compatibility

-Compatible with various design tools and software provided by Xilinx for FPGA development

Application Areas

-Telecommunications

-Consumer Electronics

-Automotive systems

-Industrial control

-Medical equipment

Product Lifecycle

-Status: Active

-Longevity assured with ongoing support, not nearing discontinuation

-Replacement and upgrade options available

Several Key Reasons to Choose This Product

-High logic and memory capacity enables complex digital processing

-Low power consumption enhances energy efficiency

-Supports a wide range of voltages for flexible power design

-Easy to integrate with multiple applications due to extensive I/O connectivity

-Benefits from Xilinx's continuous support and development ecosystem

-Reliable and safe for critical applications in various industries

Frequently Asked Questions(FAQ)

What are the key electrical and thermal constraints when integrating the XC6SLX16-2CSG324C into a high-reliability embedded system operating in industrial environments?: The XC6SLX16-2CSG324C operates within a core voltage range of 1.14V to 1.26V, requiring tightly regulated power delivery to ensure stable logic operation and prevent functional failures. With a maximum junction temperature (TJ) rating of 85°C and a Moisture Sensitivity Level (MSL) of 3 (168 hours), this FPGA demands careful thermal management during reflow soldering and sustained operation above ambient temperatures. In industrial applications where ambient conditions may approach 70–80°C, passive or active cooling must be considered to maintain TJ well below the limit. Power sequencing must adhere to AMD’s Spartan-6 guidelines to avoid latch-up, especially since this device lacks integrated power-on-reset circuits. These constraints necessitate PCB layout attention to minimize IR drop and ensure decoupling across all VCCO banks.

How does the XC6SLX16-2CSG324C compare to other Spartan-6 LX variants in terms of resource utilization for moderate logic density designs, and what trade-offs emerge in pin count versus performance?: The XC6SLX16-2CSG324C offers 14,579 logic elements and 589,824 total RAM bits, placing it between entry-level (e.g., XC6SLX9) and higher-density models like the XC6SLX45. For designs requiring less than 20k LEs, this device provides headroom without the cost and package size of larger FPGAs. However, its 324-ball CSPBGA package limits routing flexibility compared to smaller BGA options available on XC6SLX9 devices. While the XC6SLX16 supports up to 232 I/Os, designers must balance I/O bank allocation against global clock resources—each bank has dedicated routing that can become congested when multiple high-speed interfaces are used simultaneously. Thus, selecting this part over lower-density alternatives involves a trade-off between future scalability and current routing complexity.

What design considerations arise from using the XC6SLX16-2CSG324C in a system requiring partial reconfiguration, given its architecture and configuration memory structure?: Partial reconfiguration (PR) with the XC6SLX16-2CSG324C is supported but requires adherence to strict timing and isolation protocols due to shared configuration and user logic buses. Because PR regions share global interconnect with static logic, dynamic reconfiguration must be synchronized with internal frame boundaries to avoid corruption. The 589,824-bit block RAM includes configuration memory that maps into user-accessible addresses, complicating region isolation. Designers must partition logic into non-overlapping PR frames using PlanAhead tools and verify that no critical paths cross reconfigurable boundaries. Additionally, PR introduces latency overhead; switching between contexts can take hundreds of milliseconds depending on frame count. For real-time systems, this limits PR applicability unless carefully managed with state machines and handshake protocols.

Can the XC6SLX16-2CSG324C reliably support LVDS signaling at 1 Gbps per channel, and what layout and termination strategies are required to meet signal integrity targets?: Yes, the XC6SLX16-2CSG324C supports LVDS up to 1 Gbps using its SelectIO™ resources, provided proper differential pair routing and impedance control are implemented. Each pair should maintain 100Ω differential impedance with matched trace lengths (±5 mils for <10 cm boards). Termination resistors (typically 100Ω) must be placed close to the driver side to dampen reflections. Due to the CSPBGA package’s fine pitch (0.8 mm ball pitch), via stubs and layer transitions can degrade high-speed performance, so escape routing should use microvias and minimize transitions. Eye diagrams measured at 1.2V supply show acceptable jitter (<0.15 UI) only with careful board stackup (e.g., 4-layer with solid ground plane adjacent to signal layers). Without these measures, crosstalk from adjacent high-fanout nets can cause bit errors at 1 Gbps.

How does the power consumption profile of the XC6SLX16-2CSG324C behave under typical load conditions, and what impact does dynamic reconfiguration have on active current draw?: Under nominal conditions with 50% toggle rate on I/Os and moderate logic utilization (30% CLBs), the XC6SLX16-2CSG324C draws approximately 80–100 mA from the 1.2V core supply, increasing linearly with clock frequency up to 400 MHz. Static leakage is negligible due to process scaling, but dynamic power dominates. Dynamic reconfiguration adds transient spikes during frame writes; each frame transfer can consume an additional 20–30 mA pulse lasting tens of microseconds. This transient current stresses decoupling capacitors and can cause voltage droop if not buffered by bulk capacitance near the FPGA. Total average power increases by ~15% when PR is used frequently versus static operation, making thermal modeling essential for systems with variable workloads.

What are the recommended practices for managing configuration flash interface compatibility when sourcing the XC6SLX16-2CSG324C for production designs?: The XC6SLX16-2CSG324C supports SPI flash configuration via Slave Serial mode using four data lines (D0–D3) and a chip select. To ensure reliable startup, the flash must support dual-voltage operation (1.8V or 2.5V) compatible with the FPGA’s 1.2V core during configuration phase. Many third-party flash chips lack sufficient drive strength for long daisy-chains or noisy environments, leading to CRC errors. It is advisable to use Xilinx-certified flash devices or verify timing margins with scope traces. Also, pull-up resistors on INIT_B, DONE, and PROGRAM pins are necessary unless using boundary scan. For secure applications, bitstream encryption requires AES-capable flash and proper key provisioning via iMPACT before programming.

In what scenarios would the XC6SLX16-2CSG324C be preferable to a Cyclone-series CPLD despite its higher cost, and how do their respective architectures affect development workflows?: The XC6SLX16-2CSG324C is better suited than CPLDs for designs requiring more than 10k logic elements, multi-gigabit transceivers (though not present here), or complex state machines with distributed RAM. Unlike CPLDs’ coarse-grained macrocell structure, this FPGA uses fine-grained LUTs enabling efficient implementation of large FSMs and arithmetic functions. Development workflow differs significantly: while CPLDs compile quickly and simulate deterministically, FPGAs require longer place-and-route times and necessitate post-implementation timing analysis. However, the XC6SLX16’s built-in DSP slices allow optimized FIR filters unavailable in most CPLDs. Thus, despite higher unit cost and power, the FPGA delivers superior scalability for medium-complexity digital signal processing or protocol bridging tasks where area efficiency outweighs boot time requirements.

How does temperature derating affect timing closure when using the XC6SLX16-2CSG324C in extended industrial temperature ranges approaching its TJ max?: As junction temperature approaches 85°C, propagation delays increase by up to 15% compared to 25°C due to reduced carrier mobility in silicon. This degrades hold times and reduces setup margins unless compensated during synthesis. Designers must constrain clocks using worst-case temperature conditions in Vivado or ISE, specifying “slow” corner models for timing analysis. Additionally, I/O delay variation increases with temperature, affecting high-speed serial links unless calibrated via DLLs or deskew algorithms. Since the XC6SLX16-2CSG324C lacks on-chip temperature sensors, monitoring must occur externally. If operating near 80°C continuously, margining should assume 1.2 ns added skew per nanosecond of delay beyond baseline—this impacts maximum achievable clock frequency in synchronous pipelines and may require reducing target frequencies by 10–20% in extreme cases.

What precautions are necessary when interfacing the XC6SLX16-2CSG324C with asynchronous external peripherals to prevent metastability in clock domain crossings?: Metastability risk escalates when crossing clock domains between the FPGA’s internal logic and slow external interfaces like UARTs or SPI slaves. The XC6SLX16-2CSG324C contains no native metastability-hardened flip-flops, so standard mitigation techniques apply: double-synchronizing registers, FIFO buffers with gray-code pointers, or handshake protocols. For single-bit signals, two-stage synchronizers reduce failure probability below 1 FIT even at 200 MHz crossing rates. However, timing closure becomes harder due to added latency. In practice, most industrial designs using this FPGA employ asynchronous FIFOs for data streams exceeding 1 Mbps in one direction. Care must also be taken with reset deassertion timing—external resets must align with internal oscillator stabilization to avoid initialization glitches corrupting block RAM contents.

Why might a designer choose the 324-CSPBGA package of the XC6SLX16-2CSG324C over TQFP alternatives despite challenges in assembly and inspection?: The 324-CSPBGA (15x15 mm) package offers superior thermal conductivity and electrical performance compared to plastic leaded packages due to solder ball contact directly to PCB pads. This enables higher pin counts (232 I/Os) and better signal integrity for high-speed designs without sacrificing board real estate. While CSPBGAs are harder to inspect visually and require x-ray verification after assembly, they eliminate lead inductance issues common in TQFPs. For dense embedded systems where space is constrained—such as motor controllers or communication gateways—the XC6SLX16-2CSG324C in CSPBGA allows integration of multiple interfaces (Ethernet, USB, parallel ADC/DAC) on a compact form factor. Cost increases slightly due to advanced packaging, but yields remain high because of mature manufacturing processes for 28nm class FPGAs.

How does the XC6SLX16-2CSG324C handle power-up sequencing when used alongside other voltage rails such as 3.3V I/Os powered independently?: The XC6SLX16-2CSG324C requires its core voltage (VCCINT = 1.2V) to stabilize before any I/O bank is enabled, as specified in the Spartan-6 data sheet. However, VCCO banks (for 1.8V, 2.5V, or 3.3V outputs) can be powered concurrently or sequentially. Critical rule: no input signals should transition into the FPGA until all relevant VCCO rails exceed 90% of target voltage. Failure to follow this risks latch-up or permanent damage. Recommended practice is to use power-good monitors (e.g., TL431) to delay FPGA configuration until all supplies settle. For mixed-signal designs, analog peripherals sharing substrate noise with digital cores benefit from isolated ground planes and delayed activation of sensitive blocks post-power-up.

What level of ESD protection does the XC6SLX16-2CSG324C provide natively, and what external safeguards are mandatory for robust field deployment?: The XC6SLX16-2CSG324C incorporates HBM 2kV ESD protection on all pins per JEDEC standards, but this is insufficient for harsh industrial environments exposed to direct handling or electrostatic discharge from cables. External TVS diodes rated for ±15kV contact discharge (per IEC 61000-4-2) are strongly recommended at connector points. Additionally, series resistors (22–100Ω) on high-speed lines limit peak current into protected nodes. Grounding strategy must ensure low-impedance return paths; star grounding avoids ground loops that exacerbate EMI susceptibility. Since the CSPBGA package has no exposed die attach pad, thermal vias under the array aid heat dissipation but also provide unintended ESD paths if not properly insulated with solder mask dams.

Can the XC6SLX16-2CSG324C implement soft-core processors efficiently alongside custom accelerators, and what memory bandwidth limitations should be anticipated?: Yes, the XC6SLX16-2CSG324C runs soft processors like MicroBlaze or PicoBlaze efficiently, leveraging its 589,824-bit block RAM for instruction/data storage. At 100 MHz, MicroBlaze achieves ~30 MIPS with minimal resource usage (under 1k LEs). However, accessing external DDR2/DDR3 memory through MIG IP consumes significant logic resources—up to 8k LEs for a 64-bit controller—reducing available space for application logic. Internal BRAM bandwidth caps at ~400 MB/s per port, which suffices for moderate-throughput tasks but bottlenecks video or packet processing. Designers must profile memory access patterns early; burst transfers maximize efficiency, while random reads suffer from row-buffer conflicts. Cache hierarchies help but add area overhead.

What are the implications of using the XC6SLX16-2CSG324C in safety-critical applications regarding diagnostic features and fault detection capabilities?: The XC6SLX16-2CSG324C lacks built-in self-test (BIST) or lockstep processor support required for ASIL-D compliance, limiting its use to lower SIL levels (e.g., SIL 2). However, functional redundancy can be implemented using dual-rail logic or checker modules consuming extra LEs. Built-in oscillators and DLLs provide limited health monitoring but do not cover full system diagnostics. For mission-critical systems, external watchdog timers and periodic memory scrubbing (via EDAC logic) are essential. Configuration memory is susceptible to single-event upsets (SEUs); triple modular redundancy (TMR) or EDAC-protected BRAM mitigates radiation-induced faults. Given ECCN 3A991D classification, export controls may apply if deployed in defense-related systems, adding compliance overhead.

How does the XC6SLX16-2CSG324C perform in terms of clock management when driving multiple asynchronous subsystems with different jitter tolerances?: The XC6SLX16-2CSG324C includes two DCMs (Digital Clock Managers) capable of frequency synthesis, multiplication, and phase shifting with sub-picosecond resolution. However, each DCM serves only one clock region, so distributing clocks across multiple domains requires careful planning to avoid routing congestion. Jitter accumulation is minimal (<50 ps RMS) when using internal feedback, but external references introduce phase noise that propagates through DCMs. For mixed-tolerance systems—such as a 100 MHz logic core feeding a 125 MHz SERDES-like interface—clock skew must be minimized via HROW routing. Note that DCMs do not compensate for temperature drift; thus, oven-controlled crystals may be needed in precision timing applications beyond basic synchronization.

What steps are necessary to validate timing closure for the XC6SLX16-2CSG324C in a design using both fast local clocks and slower peripheral interfaces?: Timing validation requires analyzing both fast paths (internal combinational logic at 200+ MHz) and slow paths (asynchronous handshakes with SPI slaves). Use static timing analysis (STA) in Vivado/ISE with worst-case PVT corners (slow-fast-slow). Fast paths demand tight setup slack (>0.3 ns preferred); slow paths require hold checks to prevent metastability. Peripheral interfaces often use clock enable rather than gated clocks, avoiding hold violations but increasing power. Insertion of pipeline stages may be needed to break long combinatorial chains crossing clock domains. Physical implementation reports must flag any negative slack, especially around I/O pads where routing delays vary significantly with placement. Floorplanning I/O banks adjacent to high-fanout nets reduces uncertainty.

Is it feasible to upgrade firmware on the XC6SLX16-2CSG324C post-deployment using SPI flash, and what security considerations apply?: Yes, firmware updates via SPI flash are standard practice. The XC6SLX16-2CSG324C boots from external flash in Slave Serial mode, allowing reprogramming through JTAG or UART-based update protocols. Bootloader code resides in block RAM during first boot but persists across resets. Security requires encrypting bitstreams using AES-128/256 keys burned into OTP fuses or stored securely off-chip. Unencrypted updates expose systems to man-in-the-middle attacks. Additionally, rollback protection mechanisms prevent downgrading to vulnerable versions. Since configuration memory is volatile without flash, successful update mandates verifying CRC32 checksums before loading into FPGA fabric. Production lines must program flash with locked fuses to prevent cloning.

Parts with Similar Specifications

The three parts on the right have similar specifications to AMD XC6SLX16-2CSG324C

Product Attribute
Part Number	XC6SLX16-2CSG324CES	XC6SLX16-2CSG324I	XC6SLX16-2CS324I4204	XC6SLX16-2CSG225I
Manufacturer	AMD	AMD	AMD	AMD
Voltage - Supply	-	-	-	-
Mounting Type	-	Surface Mount	Through Hole	Surface Mount
Number of I/O	-	-	-	-
Number of LABs/CLBs	-	-	-	-
Package / Case	-	196-LFBGA	16-DIP (0.300', 7.62mm)	64-VFQFN Exposed Pad
Operating Temperature	-	-40°C ~ 85°C	0°C ~ 70°C	-40°C ~ 85°C
Series	-	-	-	-
Total RAM Bits	-	-	-	-
Package	-	Tape & Reel (TR)	Tube	Tape & Reel (TR)
Base Product Number	-	DAC34H84	MAX500	ADS62P42
Supplier Device Package	-	196-NFBGA (12x12)	16-PDIP	64-VQFN (9x9)
Number of Logic Elements/Cells	-	-	-	-

XC6SLX16-2CSG324C Datasheet PDF

Download XC6SLX16-2CSG324C pdf datasheets and AMD documentation for XC6SLX16-2CSG324C - AMD.

Environmental Information: Xilinx REACH211 Cert.pdf

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Customer Reviews

Evaluation: 10 Articles

Nath***rooks

Jun 11, 2026

Installed this power component in a converter board. Output remained stable under different load conditions and thermal performance was better than expected.
Dani***alkerTech

Jun 1, 2026

Product works, but setup took more effort than expected. Once configured the MCU ran reliably, although documentation support felt older compared with newer platforms. Fine for maintenance projects.
Yuki***aka88

May 26, 2026

信号通信プロジェクトでこのRS-485トランシーバーを使用しました。設置は簡単で、長距離ケーブルでも通信は安定していました。消費電力も、以前使用していたものより低くなっています。
Stev***aker

May 20, 2026

Solid diode for power rectification. Works well in switching circuits.
Bran***Lewis

May 11, 2026

Compact FPGA with good performance. Suitable for basic signal processing tasks.
Oliv***arris

May 7, 2026

Reliable I/O expander. Works well in embedded control applications.
Jess***Jones

Apr 17, 2026

It offers good value for the price, and the specifications match the description. I’ve been using it for two days with no issues, and I’ll definitely buy it again if I need it in the future.
Mich***Smith

Apr 17, 2026

Shipping was on time, the component pins are neatly aligned, and I tested 10 of them with a multimeter—all readings were within the specified range. Highly recommended.
Aman***arris

Apr 3, 2026

It was great—the entire process, from placing the order to receiving the package, went very smoothly. The components were consistent, the price was fair, and I had a very pleasant shopping experience.
Mike***nch

Apr 3, 2026

Better than expected! The resistance and capacitance readings were spot-on, and it passed the test on the first try. The service was reliable, and the packaging was thoughtful—I highly recommend it.

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