XC7S25-1FTGB196I FPGA Review: Performance vs Modern Alternatives
1.55mm mm FPGAs Spartan®-7 Series 196-LBGA, CSPBGA 1mm mm 196
Compare the XC7S25-1FTGB196I to modern FPGA models in performance, cost, and efficiency. Discover its strengths for IoT, automation, and signal processing.
Product Introduction
When choosing an FPGA for your project, understanding how different models stack up is crucial. The XC7S25-1FTGB196I offers unique features tailored for specific applications. You might wonder if it can compete with newer options in terms of performance, efficiency, or cost. This blog dives into a detailed comparison, helping you determine whether the XC7S25-1FTGB196I meets your needs or if modern FPGA solutions provide a better fit.
Overview of XC7S25-1FTGB196I
Key Specifications
The XC7S25-1FTGB196I belongs to the Xilinx Spartan 7 FPGA family. It is built on a 28nm architecture, offering a balance between performance and power efficiency. This FPGA provides 23,360 logic cells, making it suitable for mid-range designs. It includes 1,800 Kbits of block RAM and 80 DSP slices, which enhance its ability to handle signal processing tasks. The device supports a maximum clock speed of 450 MHz, ensuring reliable performance for various applications. Its compact FTGB196 package makes it ideal for space-constrained designs.
Features and Capabilities
This FPGA offers several features that make it stand out. It supports advanced I/O standards, including LVDS and PCIe, enabling seamless integration with other components. The XC7S25-1FTGB196I is compatible with Xilinx development boards, which simplifies prototyping and testing. Its low power consumption makes it a great choice for energy-efficient designs. Additionally, the device supports Xilinx's Vivado Design Suite, a powerful software tool for FPGA development. This ensures you can implement complex designs with ease.
The Spartan 7 series is known for its cost-effectiveness, and this model is no exception. It provides high performance at a reasonable price, making it a popular choice among engineers. Its robust architecture ensures reliable operation in demanding environments. Whether you're working on a standalone FPGA design or integrating it into a larger system, this device offers the flexibility you need.
Target Applications
The XC7S25-1FTGB196I is well-suited for a variety of applications. It excels in industrial automation, where reliability and performance are critical. Its low power consumption makes it ideal for portable devices and IoT applications. The FPGA's DSP capabilities make it a strong candidate for signal processing tasks, such as image and audio processing. It is also used in communication systems, where high-speed data transfer is essential.
If you're exploring Xilinx development board selection criteria, this FPGA is a solid choice for mid-range projects. It is also a great option for those comparing application areas for Xilinx and Intel development boards. Its versatility ensures it can meet the needs of diverse industries, from automotive to consumer electronics.
Comparison Criteria
Logic Resources
When comparing FPGA models, logic resources play a crucial role in determining their suitability for your project. The XC7S25-1FTGB196I offers 25,000 logic cells, which is sufficient for mid-range designs. However, modern alternatives like the XC7S50-1FTGB196C provide elevated system performance with 28,000 logic cells, making them better suited for complex applications.
Registers and DSP slices further enhance the functionality of an FPGA. While the XC7S25-1FTGB196I lacks specific data on registers and DSP slices, other Spartan-7 models, such as the XC7S25-1CSGA225I, include 36,840 registers and 90 DSP slices. These features improve performance benchmarks for tasks like signal processing and data manipulation.
| FPGA Model | Logic Cells | Registers | DSP Slices | User I/Os | Max Speed (MHz) |
|---|---|---|---|---|---|
| XC7S25-1FTGB196I | 25,000 | N/A | N/A | N/A | N/A |
| XC7S25-1CSGA225I | 25,600 | 36,840 | 90 | 105 | 450 |
| XC7S50-1FTGB196C | 28,000 | N/A | 120 | 440 | 450 |
This comparison highlights the importance of evaluating logic resources when conducting an FPGA architecture comparison.
Performance and Speed
Performance benchmarks often determine the practicality of an FPGA for your application. The XC7S25-1FTGB196I supports a maximum clock speed of 450 MHz, which ensures reliable operation for most mid-range designs. However, modern FPGAs like the XC7S50-1FTGB196C match this speed while offering additional resources, such as higher DSP slice counts, for elevated system performance.
I/O bandwidth also impacts performance efficiency. Advanced systems require high memory bandwidth to handle data-intensive tasks. While the XC7S25-1FTGB196I provides adequate I/O capabilities for general applications, newer models offer enhanced transceiver performance metrics, making them ideal for communication systems and high-speed data transfer.
Efficiency in Power Consumption
Energy efficiency is a critical factor, especially for portable devices and IoT applications. The XC7S25-1FTGB196I excels in this area due to its 28nm architecture, which balances power consumption and performance. This makes it a strong candidate for energy-sensitive designs.
Modern FPGAs, however, incorporate programmable power technology metrics to further optimize efficiency. These advancements reduce power usage without compromising performance benchmarks, ensuring that your design remains both powerful and sustainable.
When comparing FPGA models, you should prioritize efficiency based on your application’s requirements. For portable devices, the XC7S25-1FTGB196I offers a cost-effective solution. For more demanding applications, modern alternatives may provide better energy efficiency.
Cost and Affordability
When evaluating FPGA options, cost plays a significant role in decision-making. The XC7S25-1FTGB196I stands out as a cost-effective solution, especially for mid-range applications. Its pricing aligns with entry-level FPGA boards, which typically cost around $200. In contrast, high-end FPGA boards can exceed $10,000, making them less accessible for budget-conscious projects.
| Board Type | Price Range |
|---|---|
| Entry-level | Around $200 |
| High-end | Can exceed $10,000 |
This affordability makes the XC7S25-1FTGB196I an attractive choice for engineers and developers working on projects with limited budgets. Despite its lower cost, the FPGA delivers reliable performance and energy efficiency, ensuring you get excellent value for your investment. If your project requires a balance between cost and functionality, this model offers a practical solution.
Software and Toolchain Compatibility
The XC7S25-1FTGB196I is compatible with Xilinx's Vivado Design Suite, a powerful toolchain for FPGA development. This software provides a user-friendly interface and advanced features, enabling you to design, simulate, and implement your projects efficiently. Whether you're a beginner or an experienced developer, Vivado simplifies the development process and enhances productivity.
Additionally, the FPGA supports integration with various development boards, further expanding its versatility. You can prototype and test your designs seamlessly, ensuring they meet your performance requirements. The compatibility with industry-standard tools ensures that you can leverage existing workflows without significant adjustments.
If you're looking for an FPGA that combines affordability with robust software support, the XC7S25-1FTGB196I is a strong contender. Its compatibility with modern toolchains ensures you can achieve high efficiency and performance in your designs.
Comparison with Modern FPGA Models
XC7S25-1FTGB196I vs Intel Cyclone Series
When comparing the XC7S25-1FTGB196I to Intel's Cyclone series, you’ll notice distinct differences in design philosophy and target applications. The XC7S25-1FTGB196I, part of the Xilinx Spartan 7 FPGA family, focuses on cost-effective solutions for mid-range designs. It offers features like low power consumption and compatibility with Xilinx development boards, making it ideal for industrial automation and IoT applications. On the other hand, Intel's Cyclone series emphasizes high performance and integration for entry-level and mid-range FPGA designs.
The Cyclone series provides robust support for SoC integration, combining FPGA fabric with ARM-based processors. This makes it a strong choice for applications requiring both hardware flexibility and software programmability. However, the XC7S25-1FTGB196I excels in energy efficiency, which is critical for portable devices and energy-sensitive designs. If your project prioritizes power efficiency over advanced SoC capabilities, the XC7S25-1FTGB196I might be the better option.
| Feature | XC7S25-1FTGB196I | Intel Cyclone Series |
|---|---|---|
| Architecture | 28nm Spartan architecture | 28nm or 20nm Cyclone architecture |
| Power Efficiency | High | Moderate |
| SoC Integration | Limited | Advanced |
| Target Applications | IoT, industrial automation | Embedded systems, SoC designs |
Tip: If you’re already using Intel development boards, the Cyclone series might offer better compatibility and integration with your existing tools.
XC7S25-1FTGB196I vs Xilinx Zynq Series
The Xilinx Zynq series takes FPGA design to the next level by integrating a full ARM-based processing system with FPGA fabric. This combination makes it a powerful choice for applications requiring both hardware acceleration and software programmability. In contrast, the XC7S25-1FTGB196I focuses on simplicity and cost-effectiveness, making it a better fit for projects with limited budgets or less complex requirements.
The Zynq series outshines the XC7S25-1FTGB196I in performance benchmarks, especially for applications like machine learning and real-time data processing. However, this comes at a higher cost and increased power consumption. If your project doesn’t require advanced SoC features, the XC7S25-1FTGB196I offers a more affordable and energy-efficient alternative.
| Feature | XC7S25-1FTGB196I | Xilinx Zynq Series |
|---|---|---|
| SoC Integration | None | Advanced |
| Performance | Moderate | High |
| Power Consumption | Low | Moderate to High |
| Cost | Affordable | Expensive |
Note: Choose the Zynq series if your application demands high computational power and advanced SoC integration. Otherwise, the XC7S25-1FTGB196I provides a simpler and more cost-effective solution.
XC7S25-1FTGB196I vs Lattice Semiconductor FPGAs
Lattice Semiconductor FPGAs are known for their ultra-low power consumption and compact designs. These FPGAs target applications like mobile devices, edge computing, and small form-factor designs. The XC7S25-1FTGB196I, while energy-efficient, cannot match the power-saving capabilities of Lattice FPGAs. However, it offers more logic resources and higher performance, making it suitable for mid-range applications.
Lattice FPGAs often lack the advanced features and DSP capabilities found in the XC7S25-1FTGB196I. If your project involves signal processing or requires compatibility with Xilinx development boards, the XC7S25-1FTGB196I is the better choice. On the other hand, Lattice FPGAs excel in ultra-compact designs where power consumption is the top priority.
| Feature | XC7S25-1FTGB196I | Lattice Semiconductor FPGAs |
|---|---|---|
| Power Consumption | Low | Ultra-low |
| Logic Resources | High | Moderate |
| Target Applications | Industrial, IoT | Mobile, edge computing |
| Features | Advanced DSP, PCIe | Basic |
Tip: If you’re designing for mobile or edge computing, Lattice FPGAs might be the better fit. For industrial or signal processing applications, the XC7S25-1FTGB196I offers more robust features.
XC7S25-1FTGB196I vs Other Spartan-7 Models
When comparing the XC7S25-1FTGB196I to other models in the Spartan-7 family, you’ll notice differences in logic resources, power efficiency, and target applications. Each model in the Xilinx Spartan 7 FPGA lineup is designed to address specific needs, so understanding these distinctions can help you choose the right FPGA for your project.
Logic Resources and Performance
The XC7S25-1FTGB196I offers 23,360 logic cells, making it suitable for mid-range designs. However, if your project requires more complex logic, other Spartan-7 models like the XC7S50 provide up to 52,160 logic cells. This increase in logic resources allows for more intricate designs and higher performance. Additionally, the XC7S50 includes 120 DSP slices compared to the 80 DSP slices in the XC7S25-1FTGB196I. These extra slices enhance its ability to handle signal processing tasks, such as audio and video processing.
| Model | Logic Cells | DSP Slices | Block RAM (Kbits) | Max Clock Speed (MHz) |
|---|---|---|---|---|
| XC7S25-1FTGB196I | 23,360 | 80 | 1,800 | 450 |
| XC7S50 | 52,160 | 120 | 2,700 | 450 |
| XC7S15 | 12,800 | 40 | 900 | 450 |
If your design involves moderate logic complexity, the XC7S25-1FTGB196I strikes a balance between cost and performance. For simpler designs, the XC7S15 might be a better fit, while the XC7S50 is ideal for more demanding applications.
Power Efficiency
Power consumption is another critical factor when selecting an FPGA. The XC7S25-1FTGB196I, like other Spartan-7 models, is built on a 28nm architecture. This ensures low power usage, making it a strong candidate for energy-sensitive applications like IoT devices and portable electronics. However, smaller models like the XC7S15 consume even less power due to their reduced logic resources. If your project prioritizes ultra-low power consumption over performance, the XC7S15 might be the better choice.
Tip: Use the XC7S25-1FTGB196I if you need a balance of power efficiency and performance. For designs where power savings are critical, consider smaller Spartan-7 models.
Cost and Affordability
The XC7S25-1FTGB196I offers excellent value for its features, but smaller models like the XC7S15 are even more affordable. These cost savings come with trade-offs in logic resources and performance. On the other hand, larger models like the XC7S50 are more expensive but provide significantly higher capabilities. Your choice should depend on your budget and the complexity of your design.
Target Applications
Each Spartan-7 model caters to specific application areas. The XC7S25-1FTGB196I excels in industrial automation, IoT, and signal processing tasks. Smaller models like the XC7S15 are better suited for simpler applications, such as basic control systems or low-power IoT devices. Larger models like the XC7S50 are ideal for high-performance applications, including advanced communication systems and image processing.
Note: If you’re working on a mid-range project, the XC7S25-1FTGB196I provides a versatile and cost-effective solution. For simpler or more complex designs, explore other Spartan-7 models to find the best fit.
Advantages and Limitations
Strengths of the XC7S25-1FTGB196I
The XC7S25-1FTGB196I offers several advantages that make it a reliable choice for your FPGA-based projects. Its compact design ensures easy integration into space-constrained systems. You can rely on its 28nm architecture to deliver a balance between performance and efficiency. This architecture reduces power consumption, making it ideal for energy-sensitive applications like IoT devices and portable electronics.
The device excels in signal processing tasks due to its 80 DSP slices. These slices enhance its ability to handle complex computations, such as audio and image processing. Its compatibility with Xilinx's Vivado Design Suite simplifies the development process. You can use this software to design, simulate, and implement your projects efficiently.
The XC7S25-1FTGB196I supports advanced I/O standards, including PCIe and LVDS. These features enable seamless communication between components, ensuring smooth system integration. Its affordability is another key strength. You can achieve reliable performance without exceeding your budget, making it a cost-effective solution for mid-range designs.
Tip: If your project requires a balance of efficiency, affordability, and robust features, the XC7S25-1FTGB196I is a strong contender.
Weaknesses of the XC7S25-1FTGB196I
Despite its strengths, the XC7S25-1FTGB196I has limitations that you should consider. Its logic resources, while sufficient for mid-range designs, may not meet the demands of complex applications. If your project requires extensive logic cells or higher DSP slice counts, you might need to explore other Spartan models or modern FPGA solutions.
The device lacks SoC integration, which limits its ability to combine hardware flexibility with software programmability. For applications requiring advanced SoC features, such as machine learning or real-time data processing, you may find the XC7S25-1FTGB196I less suitable.
Its maximum clock speed of 450 MHz, while adequate for many tasks, may fall short in high-performance applications. Additionally, newer FPGAs offer enhanced transceiver capabilities and programmable power technologies, which improve efficiency and performance benchmarks.
Note: If your project demands advanced SoC integration or higher computational power, consider exploring alternatives like the Xilinx Zynq series or Intel Cyclone series.
Application Suitability
Ideal Use Cases for the XC7S25-1FTGB196I
The XC7S25-1FTGB196I is a versatile fpga that fits well in many mid-range applications. Its compact size and low power consumption make it ideal for portable devices and energy-sensitive designs. You can use it in industrial automation systems where reliability and efficiency are critical. For example, it works well in motor control systems or factory monitoring equipment.
This spartan model also excels in signal processing tasks. Its 80 DSP slices allow it to handle audio and image processing efficiently. If you are working on communication systems, this fpga supports high-speed data transfer, making it suitable for applications like wireless communication or network infrastructure. Additionally, its compatibility with xilinx development boards simplifies prototyping and testing, saving you time during the design process.
IoT applications are another area where this fpga shines. Its energy efficiency and advanced I/O standards make it a strong choice for smart devices and sensors. Whether you are designing a wearable device or a smart home system, the XC7S25-1FTGB196I provides the flexibility and performance you need.
Comparison of Use Cases with Other FPGA Models
When comparing the XC7S25-1FTGB196I to other fpga models, its strengths become clear. For instance, xilinx Zynq models are better suited for applications requiring advanced SoC integration, such as machine learning. However, these models consume more power and cost significantly more. If your project does not require such features, the XC7S25-1FTGB196I offers a more affordable and efficient alternative.
Lattice Semiconductor FPGAs, on the other hand, excel in ultra-low power applications like mobile devices. Yet, they lack the logic resources and DSP capabilities of the XC7S25-1FTGB196I. For industrial automation or signal processing, the spartan model provides better performance and flexibility.
Even within the spartan family, the XC7S25-1FTGB196I strikes a balance between cost and capability. Smaller models like the XC7S15 are more affordable but offer fewer resources. Larger models like the XC7S50 provide higher performance but may exceed your budget. Choosing the right fpga depends on your specific design requirements and application goals.
Cost and Budget Considerations
Cost-Effectiveness of the XC7S25-1FTGB196I
The XC7S25-1FTGB196I offers an excellent balance between performance and affordability. Its pricing makes it a standout choice for mid-range designs, especially when compared to other FPGA models. For instance, smaller Spartan models like the XC7S15-1FTGB196I are available for as low as $3.39, while high-performance options such as the XC6VLX240T-2FFG1156I can cost over $700. This wide price range highlights the XC7S25-1FTGB196I as a middle-ground solution, providing robust features without breaking the bank.
| FPGA Model | Minimum Price |
|---|---|
| XC7S15-1FTGB196I | $3.392 |
| XC6VLX240T-2FFG1156I | $701.051 |
| XC7A35T-2FTG256C | $13.056 |
| XC3S400-4FTG256I | $67.355 |
| XC7A75T-2FGG484C | $24.627 |
The XC7S25-1FTGB196I’s affordability does not compromise its capabilities. It supports advanced applications like industrial automation and IoT while maintaining compatibility with Xilinx development boards. This makes it a practical choice for engineers seeking cost-effective solutions without sacrificing performance.
Budget-Friendly Alternatives and Trade-Offs
If your project has a tighter budget, exploring alternatives can help you find the right fit. Smaller Spartan models, such as the XC7S15, offer lower prices but come with reduced logic resources and DSP slices. These trade-offs make them suitable for simpler applications like basic control systems. On the other hand, Intel FPGAs, such as those found in Intel development boards, provide advanced features but often come at a higher cost. For example, Intel’s Cyclone series offers SoC integration, which is ideal for complex designs but may exceed your budget.
For projects requiring higher performance, the XC7A75T-2FGG484C is a viable option. Priced at $24.63, it provides more logic cells and DSP slices than the XC7S25-1FTGB196I. However, this comes with increased power consumption, which may not suit energy-sensitive designs.
When choosing an FPGA, consider your application’s requirements and budget constraints. The XC7S25-1FTGB196I strikes a balance between cost and functionality, making it a versatile option for mid-range designs.
Future Trends and Relevance
Alignment with Emerging FPGA Trends
The FPGA industry continues to evolve, driven by advancements in technology and the growing demand for high-efficiency solutions. You’ll notice that modern trends focus on improving performance while reducing power consumption. The XC7S25-1FTGB196I aligns well with these trends due to its 28nm architecture. This design ensures a balance between energy efficiency and computational power, making it suitable for applications like IoT and industrial automation.
Another trend involves the integration of artificial intelligence (AI) and machine learning capabilities into FPGA designs. While the XC7S25-1FTGB196I lacks advanced AI features, its DSP slices allow it to handle basic signal processing tasks effectively. This makes it a practical choice for mid-range projects where cutting-edge AI is not a priority.
The shift toward smaller, more compact devices also impacts FPGA development. The XC7S25-1FTGB196I’s compact form factor ensures it remains relevant for space-constrained designs. As industries demand more efficient and versatile solutions, this spartan model continues to meet the needs of engineers seeking cost-effective options.
Longevity and Scalability of the XC7S25-1FTGB196I
The XC7S25-1FTGB196I offers long-term value due to its robust architecture and compatibility with xilinx’s Vivado Design Suite. This software ensures you can continue developing and optimizing your designs as your project evolves. Its scalability allows you to expand your system’s capabilities without needing a complete redesign.
Although newer FPGA models offer higher performance, the XC7S25-1FTGB196I remains a reliable choice for mid-range applications. Its low power consumption and efficient design make it suitable for projects requiring long operational lifespans. You can trust this spartan model to deliver consistent results, even as technology advances.
The XC7S25-1FTGB196I’s affordability further enhances its longevity. By choosing this model, you can allocate resources to other aspects of your project while still achieving reliable performance. This balance of cost and efficiency ensures its relevance in a competitive market.
The XC7S25-1FTGB196I stands out as a cost-effective and energy-efficient FPGA for mid-range applications. It offers reliable performance, advanced I/O standards, and compatibility with Xilinx tools, making it ideal for industrial automation, IoT, and signal processing tasks. You should consider this model if your project requires a balance of affordability and functionality without the need for advanced SoC features. For engineers seeking a versatile and budget-friendly solution, this FPGA provides excellent value while meeting diverse design requirements.
Recommendation: Choose the XC7S25-1FTGB196I for mid-range designs where cost and energy efficiency are priorities.
FAQ
What is an FPGA, and why is it important?
An FPGA is a programmable chip that allows you to customize hardware functions. It’s important because it offers flexibility for tasks like signal processing, automation, and IoT applications.
How does the XC7S25-1FTGB196I compare to newer FPGA models?
The XC7S25-1FTGB196I balances cost and performance. Newer models may offer advanced features, but this FPGA remains a reliable choice for mid-range designs.
Can you use the XC7S25-1FTGB196I for IoT applications?
Yes, its low power consumption and compact design make it ideal for IoT devices. It supports advanced I/O standards, ensuring smooth integration with sensors and smart systems.
What software tools are compatible with the XC7S25-1FTGB196I?
You can use Xilinx's Vivado Design Suite to design, simulate, and implement projects. This tool simplifies development and enhances productivity.
Is the XC7S25-1FTGB196I suitable for beginners?
Yes, its affordability and compatibility with Xilinx development boards make it beginner-friendly. You can prototype and test designs easily, even with limited experience.
Specifications
- TypeParameter
- Factory Lead Time10 Weeks
- Mounting Type
The "Mounting Type" in electronic components refers to the method used to attach or connect a component to a circuit board or other substrate, such as through-hole, surface-mount, or panel mount.
Surface Mount - Package / Case
refers to the protective housing that encases an electronic component, providing mechanical support, electrical connections, and thermal management.
196-LBGA, CSPBGA - Surface Mount
having leads that are designed to be soldered on the side of a circuit board that the body of the component is mounted on.
YES - Number of I/Os100
- Operating Temperature
The operating temperature is the range of ambient temperature within which a power supply, or any other electrical equipment, operate in. This ranges from a minimum operating temperature, to a peak or maximum operating temperature, outside which, the power supply may fail.
-40°C~100°C TJ - Packaging
Semiconductor package is a carrier / shell used to contain and cover one or more semiconductor components or integrated circuits. The material of the shell can be metal, plastic, glass or ceramic.
Tray - Series
In electronic components, the "Series" refers to a group of products that share similar characteristics, designs, or functionalities, often produced by the same manufacturer. These components within a series typically have common specifications but may vary in terms of voltage, power, or packaging to meet different application needs. The series name helps identify and differentiate between various product lines within a manufacturer's catalog.
Spartan®-7 - Published2012
- JESD-609 Code
The "JESD-609 Code" in electronic components refers to a standardized marking code that indicates the lead-free solder composition and finish of electronic components for compliance with environmental regulations.
e3 - Part Status
Parts can have many statuses as they progress through the configuration, analysis, review, and approval stages.
Active - Moisture Sensitivity Level (MSL)
Moisture Sensitivity Level (MSL) is a standardized rating that indicates the susceptibility of electronic components, particularly semiconductors, to moisture-induced damage during storage and the soldering process, defining the allowable exposure time to ambient conditions before they require special handling or baking to prevent failures
3 (168 Hours) - Number of Terminations196
- Terminal Finish
Terminal Finish refers to the surface treatment applied to the terminals or leads of electronic components to enhance their performance and longevity. It can improve solderability, corrosion resistance, and overall reliability of the connection in electronic assemblies. Common finishes include nickel, gold, and tin, each possessing distinct properties suitable for various applications. The choice of terminal finish can significantly impact the durability and effectiveness of electronic devices.
Matte Tin (Sn) - HTS Code
HTS (Harmonized Tariff Schedule) codes are product classification codes between 8-1 digits. The first six digits are an HS code, and the countries of import assign the subsequent digits to provide additional classification. U.S. HTS codes are 1 digits and are administered by the U.S. International Trade Commission.
8542.39.00.01 - Voltage - Supply
Voltage - Supply refers to the range of voltage levels that an electronic component or circuit is designed to operate with. It indicates the minimum and maximum supply voltage that can be applied for the device to function properly. Providing supply voltages outside this range can lead to malfunction, damage, or reduced performance. This parameter is critical for ensuring compatibility between different components in a circuit.
0.95V~1.05V - Terminal Position
In electronic components, the term "Terminal Position" refers to the physical location of the connection points on the component where external electrical connections can be made. These connection points, known as terminals, are typically used to attach wires, leads, or other components to the main body of the electronic component. The terminal position is important for ensuring proper connectivity and functionality of the component within a circuit. It is often specified in technical datasheets or component specifications to help designers and engineers understand how to properly integrate the component into their circuit designs.
BOTTOM - Terminal Form
Occurring at or forming the end of a series, succession, or the like; closing; concluding.
BALL - Peak Reflow Temperature (Cel)
Peak Reflow Temperature (Cel) is a parameter that specifies the maximum temperature at which an electronic component can be exposed during the reflow soldering process. Reflow soldering is a common method used to attach electronic components to a circuit board. The Peak Reflow Temperature is crucial because it ensures that the component is not damaged or degraded during the soldering process. Exceeding the specified Peak Reflow Temperature can lead to issues such as component failure, reduced performance, or even permanent damage to the component. It is important for manufacturers and assemblers to adhere to the recommended Peak Reflow Temperature to ensure the reliability and functionality of the electronic components.
NOT SPECIFIED - Supply Voltage
Supply voltage refers to the electrical potential difference provided to an electronic component or circuit. It is crucial for the proper operation of devices, as it powers their functions and determines performance characteristics. The supply voltage must be within specified limits to ensure reliability and prevent damage to components. Different electronic devices have specific supply voltage requirements, which can vary widely depending on their design and intended application.
1V - Terminal Pitch
The center distance from one pole to the next.
1mm - Time@Peak Reflow Temperature-Max (s)
Time@Peak Reflow Temperature-Max (s) refers to the maximum duration that an electronic component can be exposed to the peak reflow temperature during the soldering process, which is crucial for ensuring reliable solder joint formation without damaging the component.
NOT SPECIFIED - JESD-30 Code
JESD-30 Code refers to a standardized descriptive designation system established by JEDEC for semiconductor-device packages. This system provides a systematic method for generating designators that convey essential information about the package's physical characteristics, such as size and shape, which aids in component identification and selection. By using JESD-30 codes, manufacturers and engineers can ensure consistency and clarity in the specification of semiconductor packages across various applications and industries.
S-PBGA-B196 - RAM Size
RAM size refers to the amount of random access memory (RAM) available in an electronic component, such as a computer or smartphone. RAM is a type of volatile memory that stores data and instructions that are actively being used by the device's processor. The RAM size is typically measured in gigabytes (GB) and determines how much data the device can store and access quickly for processing. A larger RAM size allows for smoother multitasking, faster loading times, and better overall performance of the electronic component. It is an important factor to consider when choosing a device, especially for tasks that require a lot of memory, such as gaming, video editing, or running multiple applications simultaneously.
202.5kB - Programmable Logic Type
Generally, programmable logic devices can be described as being one of three different types: Simple programmable logic devices (SPLD) Complex programmable logic devices (CPLD) Field programmable logic devices (FPGA).
FIELD PROGRAMMABLE GATE ARRAY - Number of Logic Elements/Cells23360
- Total RAM Bits
Total RAM Bits refers to the total number of memory bits that can be stored in a Random Access Memory (RAM) component. RAM is a type of computer memory that allows data to be accessed in any random order, making it faster than other types of memory like hard drives. The total RAM bits indicate the capacity of the RAM chip to store data temporarily for quick access by the computer's processor. The more total RAM bits a component has, the more data it can store and process at any given time, leading to improved performance and multitasking capabilities.
1658880 - Number of LABs/CLBs1825
- Combinatorial Delay of a CLB-Max
The Combinatorial Delay of a CLB-Max in electronic components refers to the time it takes for a signal to propagate through a combinational logic block (CLB) within a Field-Programmable Gate Array (FPGA) to reach its output. This delay is influenced by factors such as the complexity of the logic function being implemented, the routing resources available, and the physical distance the signal needs to travel within the CLB. Understanding and optimizing the Combinatorial Delay of a CLB-Max is crucial in designing efficient and high-performance digital circuits, as it directly impacts the overall speed and functionality of the FPGA design. By minimizing this delay, designers can achieve faster operation and improved performance in their electronic systems.
1.27 ns - Length15mm
- Height Seated (Max)
Height Seated (Max) is a parameter in electronic components that refers to the maximum allowable height of the component when it is properly seated or installed on a circuit board or within an enclosure. This specification is crucial for ensuring proper fit and alignment within the overall system design. Exceeding the maximum seated height can lead to mechanical interference, electrical shorts, or other issues that may impact the performance and reliability of the electronic device. Manufacturers provide this information to help designers and engineers select components that will fit within the designated space and function correctly in the intended application.
1.55mm - Width15mm
- RoHS Status
RoHS means “Restriction of Certain Hazardous Substances” in the “Hazardous Substances Directive” in electrical and electronic equipment.
ROHS3 Compliant
Datasheet PDF
- Datasheets :
- Environmental Information :
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