1. Product Specifications

Technical Specifications – XC5210-4PC84C

Parameter	Specification
Part Number	XC5210-4PC84C
Manufacturer	Xilinx (AMD)
Product Family	Spartan FPGA Series
Package Type	84-pin PLCC (Plastic Leaded Chip Carrier)
Temperature Grade	Commercial (0°C to +70°C)
Speed Grade	-4 (Maximum Cost Optimization)
Logic Elements	Configurable Logic Blocks (CLBs)
I/O Standards	LVTTL, LVCMOS, TTL compatible
Supply Voltage	3.3V core, 3.3V/5.0V I/O compatible
Power Consumption	Minimized for cost-sensitive applications
Programming	SRAM-based configuration

Electrical Characteristics

Core Voltage (VCCINT): 3.3V ±5%
I/O Voltage (VCCO): 3.3V or 5.0V selectable
Maximum Operating Frequency: Up to 100 MHz (speed grade -4)
Input/Output Pins: Up to 61 user I/O pins
Package Dimensions: 29.21mm x 29.21mm x 4.57mm (nominal)
Pin Pitch: 1.27mm (50 mil centers)
Thermal Resistance (θJA): 28°C/W (typical in still air)
Operating Junction Temperature: 0°C to +85°C

Memory and Logic Resources

Configurable Logic Blocks (CLBs): 576 CLBs
System Gates: 10,000 equivalent gates
Block RAM: 32 Kbits total embedded memory
Distributed RAM: Flexible CLB-based memory implementation
Maximum Flip-Flops: 1,152 registers
Clock Management: 4 Delay-Locked Loops (DLLs)
Global Clock Networks: 4 dedicated low-skew global clocks
I/O Banks: 4 independent I/O voltage banks

Speed Grade -4 Performance Profile

CLB Propagation Delay: 8.5ns typical (cost-optimized timing)
Setup Time: 2.8ns typical
Clock-to-Out Delay: 6.8ns typical
Maximum Toggle Rate: 200 MHz on dedicated clock pins
Global Clock Skew: 1.5ns maximum
I/O Switching Performance: Optimized for standard commercial interfaces

Package and Socket Compatibility

Body Size: 29.21mm x 29.21mm (±0.33mm)
Body Thickness: 4.57mm (±0.25mm)
Lead Count: 84 J-leads
Lead Pitch: 1.27mm (50 mils)
Socket Compatibility: Standard 84-pin PLCC sockets
Package Weight: Approximately 5.2 grams
Coplanarity: 0.10mm maximum
Through-Hole Socket Option: Development and prototyping flexibility

2. Pricing Information

XC5210-4PC84C Price Structure

Current Market Pricing (Subject to change):

Quantity Range	Unit Price (USD)	Lead Time
1-9 units	$18.75 – $22.25	1-2 weeks
10-49 units	$16.50 – $19.75	1 week
50-99 units	$14.85 – $17.60	Stock
100-499 units	$13.25 – $15.85	Stock
500-999 units	$12.20 – $14.50	Stock
1000-2499 units	$11.35 – $13.45	Stock
2500+ units	Contact for quote	Negotiable

Ultra-Cost-Effective Value Proposition

Maximum Cost Optimization Benefits:

Lowest Price in XC5210 Family: Most affordable full-featured FPGA option
Triple Cost Reduction Strategy: Speed grade -4 + compact package + commercial temperature
45-50% cost savings compared to XC5210-5PQ240I industrial variants
Educational Budget Friendly: Ideal pricing for academic and learning applications
Volume Educational Discounts: Special pricing for educational institutions

Economic Advantages Analysis:

Speed Grade -4 Savings: 25% reduction compared to -5 speed grade
84-Pin Package Savings: 35% reduction compared to 240-pin variants
Commercial Temperature Savings: 20% reduction compared to industrial grade
Socket Development Benefits: Reusable development platform reduces iteration costs
Simplified PCB Requirements: Lower layer count reduces board manufacturing costs

Target Budget-Conscious Applications:

Educational and Training: Digital logic courses, FPGA learning laboratories
Student Projects: Senior design projects, competition entries, research prototypes
Hobbyist Development: Personal learning projects, maker community applications
Startup Prototyping: Early-stage concept validation and proof-of-concept designs
Legacy System Upgrades: Cost-effective modernization of older electronic systems

Total Cost of Ownership Benefits:

Socket Mounting: Removable for design iteration and field upgrades
Development Kit Integration: Compatible with low-cost educational development boards
Tool Compatibility: Full support with free ISE WebPACK development software
Learning Curve Optimization: Same architecture as higher-end variants enables skill progression
Future Upgrade Path: Pin-compatible upgrade options for performance scaling

Educational Institution Advantages:

Classroom Quantity Pricing: Volume discounts for educational bulk purchases
Laboratory Setup Costs: Lowest per-seat cost for FPGA learning labs
Socket Reusability: Students can take projects with them, sockets remain in lab
Minimal Infrastructure: Standard breadboard and socket compatibility
Curriculum Integration: Full FPGA feature set for comprehensive learning

Pricing reflects maximum cost optimization while maintaining complete professional FPGA capabilities.

3. Documents & Media

Educational and Budget-Focused Documentation

Essential Learning Resources

XC5210-4PC84C Complete Datasheet (PDF, 2.6MB)
- Speed grade -4 timing specifications
- 84-pin PLCC package details
- Commercial temperature characteristics
Budget FPGA Design Guide (PDF, 2.9MB)
Educational FPGA Tutorial Series (PDF, 4.2MB)
Socket-Based Development Guide (PDF, 2.1MB)

Cost-Optimized Design Resources

Low-Cost PCB Design Strategies (PDF, 3.1MB)
- Single and double-layer PCB design techniques
- Cost-effective component selection
- Manufacturing optimization for budget designs
Socket vs. Surface Mount Design Guide (PDF, 1.8MB)
Educational Laboratory Setup Guide (PDF, 2.4MB)
Breadboard Interface Design (PDF, 1.6MB)

Free Development Tools and Software

Xilinx ISE WebPACK – Complete free development environment
- Synthesis, implementation, and simulation tools
- Device programming and configuration support
- Comprehensive constraint and timing analysis
Educational Tool Extensions – Academic-focused enhancements
Student Design Contest Templates – Pre-configured project frameworks
Online Learning Integration – Web-based tutorial compatibility

Basic Simulation and Modeling

84-Pin PLCC Package Models (ZIP, 580KB)
- IBIS models for basic signal integrity analysis
- Simple SPICE models for circuit simulation
Socket Mechanical Models (STEP format)
Breadboard Compatibility Models – Physical interface verification
Educational Simulation Examples – Learning-focused design examples

Learning and Educational Documentation

Comprehensive Learning Resources

FPGA Fundamentals Course Materials (PDF series, 12MB total)
- Digital logic design with FPGAs
- HDL programming techniques (Verilog and VHDL)
- Design methodology and best practices
Hands-On Laboratory Exercises (ZIP, 8.5MB)
- Progressive skill-building projects
- Complete design examples with solutions
Student Project Gallery – Showcase of successful student implementations

Application Notes for Budget Applications

AN-084: XC5210-4PC84C Educational Applications Guide
AN-165: Budget-Conscious FPGA Design Techniques
AN-247: Socket-Based Prototyping Strategies
AN-318: Low-Cost System Integration Methods
AN-429: Hobby Electronics FPGA Projects
AN-536: Student Design Contest Winning Strategies

Reference Designs and Examples

Basic Digital Logic Trainer (Complete educational system)
Simple CPU Implementation (8-bit processor learning example)
LED Pattern Controllers (Visual learning demonstrations)
Basic Communication Interfaces (UART, SPI starter projects)
Timer and Counter Applications (Practical timing system examples)
Motor Control Basics (Simple stepper and servo control)

Multimedia and Interactive Learning

Video Tutorial Library – Step-by-step FPGA development processes
Interactive Web-Based Tools – Online design calculators and planners
Virtual Laboratory Exercises – Simulation-based learning experiences
Community Project Sharing – Student and hobbyist project repository

4. Related Resources

Educational and Budget Development Platforms

Low-Cost Development and Evaluation Boards

XC5210-PC84 Educational Development Board – Budget-optimized learning platform
- Socketed FPGA for easy device swapping and experimentation
- Essential I/O connectivity (LEDs, switches, displays)
- Basic clock generation and power supply circuits
- Breadboard expansion connectivity
- Educational documentation and example projects
Student Laboratory Trainer Kit – Comprehensive academic learning system
Hobby Development Module – Maker community focused prototyping board
Breadboard Adapter Module – Direct breadboard insertion capability

Socket and Programming Solutions

84-Pin PLCC Programming Sockets – Device programming and testing
Low-Cost JTAG Programming Cables – Budget-friendly device programming
Educational Programming Interfaces – Simplified programming tool options
Breadboard Programming Adapters – In-circuit programming solutions

Educational IP Cores and Learning Examples

Basic Interface Controllers

Simple UART Implementation – Serial communication learning example
Basic SPI Controllers – Serial peripheral interface education
I2C Bus Implementation – Inter-integrated circuit learning
GPIO Management Cores – General purpose I/O control examples
LED Display Controllers – Seven-segment and dot matrix examples

Educational Processing Cores

Simple 8-bit CPU Core – Processor architecture learning
Basic State Machine Examples – Control system design education
Counter and Timer Cores – Digital timing system implementation
Arithmetic Logic Unit (ALU) – Computational unit design examples
Memory Controller Examples – Basic memory interface implementations

Learning-Focused Communication Interfaces

RS-232 Interface Examples – Standard serial communication
Parallel Port Implementation – Legacy interface education
Simple Bus Protocol Examples – Custom communication learning
Pulse Width Modulation (PWM) – Analog control interface education
Encoder/Decoder Examples – Digital communication coding techniques

Educational Services and Community Support

Academic and Learning Support Services

Educational Institution Programs – Academic partnership and support
Student Design Contest Support – Competition guidance and resources
Curriculum Development Assistance – Course material and lab development
Faculty Training Programs – Instructor education and certification
Research Collaboration Support – Academic research project assistance

Community and Hobbyist Resources

Maker Community Support – Hobbyist project assistance and resources
Online Learning Platforms – Web-based educational content
Community Forums – Peer-to-peer learning and collaboration
Project Sharing Platforms – Design sharing and collaboration tools
Mentorship Programs – Expert guidance for learning projects

Budget-Conscious Technical Support

Educational Technical Support – Academic-focused assistance
Student Project Help Desk – Learning project troubleshooting
Community-Driven Support – Peer assistance and collaboration
Online Resource Library – Self-service educational materials
Video Troubleshooting Guides – Visual problem-solving resources

Product Alternatives and Learning Progression

Socket-Compatible Upgrades

XC5210-5PC84C – Same package, higher performance (+25% speed)
XC5210-6PC84C – Same package, maximum performance (+50% speed)
Higher Capacity PC84 Options – XC5215-4PC84C, XC5220-4PC84C

Package Migration Learning Path

XC5210-4TQ144C – Next step: higher I/O count (117 vs. 61 pins)
XC5210-4PQ160C – Advanced option: maximum I/O in commercial grade
Industrial Grade Migration – XC5210-4PC84I for harsh environment learning

Modern Architecture Learning Progression

Spartan-3 Educational Variants – Next-generation learning platform
Artix-7 Student Editions – Current generation educational FPGAs
Learning Path Planning – Skill progression and architecture evolution
Professional Development Roadmap – Career advancement through FPGA mastery

Socket and Development Infrastructure

Standard 84-Pin PLCC Sockets – Various profile and mounting options
Socket-to-Surface-Mount Adapters – Production transition solutions
Development Socket Boards – Multi-socket experimentation platforms
Socket Programming Fixtures – Educational programming solutions

5. Environmental & Export Classifications

Environmental Compliance and Educational Standards

Comprehensive Material Safety Compliance

RoHS Directive 2011/65/EU: Fully compliant with educational safety requirements
- Lead-free construction safe for educational environments
- Hazardous substance elimination for student safety
- Complete material composition documentation
REACH Regulation EC 1907/2006: Chemical safety compliance for educational use
California Proposition 65: Safe for educational institution use
Educational Safety Standards: Compliance with classroom and laboratory safety requirements

Environmental Management for Educational Applications

ISO 14001:2015 – Environmental management system certification
WEEE Directive 2012/19/EU – Educational electronic waste management
Educational Institution Environmental Standards – Green campus compliance
Student Safety Protocols – Safe handling and disposal procedures
Sustainable Education Programs – Environmental responsibility in learning

Educational and Research Environment Compliance

Conflict Minerals Educational Compliance – Ethical sourcing education
Sustainable Electronics Education – Environmental responsibility curriculum
Green Laboratory Practices – Environmentally conscious learning environments
Recycling and Reuse Programs – Educational sustainability initiatives
Environmental Awareness Education – Student environmental responsibility

Export Control for Educational and Research Applications

Educational Institution Export Provisions

Export Control Classification Number (ECCN): 3A001.a.2
- Educational use exemptions and provisions
- Academic research and teaching applications
- Student exchange program considerations
Educational License Exceptions: Comprehensive academic exemptions
University Research Provisions: Academic collaboration support
Student Learning Exemptions: Educational use authorizations

International Educational Trade

Educational Institution Import/Export – Simplified procedures for schools
Student Project International Collaboration – Cross-border educational projects
Academic Research Exemptions – Research and development provisions
International Student Programs – Educational exchange support
Global Learning Initiative Support – Worldwide educational access

Academic and Research Compliance

Educational End-Use Verification – Academic application confirmation
Student Research Project Documentation – Educational use validation
Academic Institution Screening – Simplified compliance for schools
International Collaboration Agreements – Educational partnership support
Research Publication Guidelines – Academic dissemination procedures

Quality Assurance for Educational and Budget Applications

Educational Quality Standards

ISO 9001:2015 Educational Compliance – Quality systems for educational products
Educational Product Safety Standards – Student and instructor safety assurance
Academic Laboratory Standards – Educational environment quality requirements
Student Safety Protocols – Comprehensive safety procedures and training

Budget Application Reliability Standards

Commercial Grade Reliability Testing – Cost-optimized quality assurance
Educational Environment Testing – Classroom and laboratory condition validation
Student Use Durability Testing – Repeated handling and socket insertion testing
Budget Application Validation – Cost-sensitive application reliability

Educational Product Handling and Safety

Student Handling Safety: Enhanced ESD protection for educational environments
Socket Insertion Durability: Extended cycle testing for repeated student use
Educational Storage Requirements: Classroom and laboratory storage conditions
Student Safety Training: Proper handling procedures and safety protocols

Educational and Research Regulatory Approvals

Educational Institution Safety Standards

Educational Laboratory Safety – Comprehensive safety compliance for learning environments
Student Safety Certifications – Age-appropriate safety standards
Instructor Safety Training – Faculty safety education and certification
Educational Facility Compliance – Institutional safety requirements

International Educational Standards

Global Educational Safety Standards – Worldwide educational institution compliance
International Student Safety – Cross-border educational safety requirements
Academic Research Safety Standards – Research environment safety compliance
Educational Equipment Certifications – Teaching and learning equipment standards

Educational Applications and Learning Benefits

Optimal Learning and Teaching Applications

Digital Logic Education

Fundamental Logic Gates – Basic Boolean logic implementation and verification
Combinational Logic Design – Multiplexers, decoders, encoders implementation
Sequential Logic Systems – Flip-flops, counters, state machines
Digital System Design – Complete digital system implementation projects
Hardware Description Language Learning – Verilog and VHDL programming education

FPGA Development Skill Building

FPGA Architecture Understanding – CLB, routing, and I/O learning
Design Flow Mastery – Synthesis, implementation, and programming processes
Timing Analysis Education – Setup, hold, and propagation delay concepts
Design Optimization Techniques – Area, speed, and power optimization learning
Professional Tool Usage – Industry-standard development tool proficiency

Practical Project-Based Learning

Student Design Contests – Competition-focused project development
Senior Design Projects – Capstone engineering project implementations
Research Prototyping – Academic research project development platforms
Interdisciplinary Projects – Cross-departmental collaboration opportunities
Real-World Problem Solving – Practical engineering challenge solutions

Cost-Effective Educational Benefits

Institutional Advantages

Lowest Per-Student Cost – Maximum educational value per dollar invested
Laboratory Setup Economics – Minimal infrastructure investment requirements
Socket Reusability – Students take projects, sockets remain for next class
Scalable Deployment – Easy expansion of FPGA education programs
Budget Predictability – Stable, low-cost educational platform investment

Student Learning Benefits

Affordable Personal Ownership – Students can afford personal development systems
Socket Experimentation Freedom – Non-destructive learning environment
Professional Tool Access – Industry-standard development software included
Career Preparation – Real-world FPGA development experience
Portfolio Development – Demonstrable project portfolio creation

Technical Education Advantages

Complete FPGA Architecture Access

Full Feature Set – Same core capabilities as expensive industrial variants
Professional Development Tools – Industry-standard ISE development environment
Real-World Design Constraints – Authentic timing, power, and resource limitations
Scalable Complexity – Projects can grow from simple to sophisticated
Industry Relevance – Skills directly applicable to professional employment

Hands-On Learning Optimization

Socket Development Flexibility – Easy device swapping for different experiments
Breadboard Compatibility – Direct integration with standard prototyping methods
Visual Learning Support – LED displays and physical interfaces for concept demonstration
Iterative Design Process – Quick design-test-modify cycles for effective learning
Collaborative Learning – Easy sharing and comparison of student implementations

Budget Design Strategies and Best Practices

Cost-Effective Design Methodologies

Resource Optimization Techniques

Efficient Logic Utilization – Maximizing functionality within CLB constraints
Memory Resource Management – Optimal use of block RAM and distributed RAM
I/O Pin Planning – Strategic pin assignment for PCB cost minimization
Clock Resource Conservation – Efficient use of global clock networks
Power Optimization – Design techniques for minimal power consumption

PCB Design Cost Minimization

Single/Double Layer Designs – Avoiding expensive multi-layer PCB requirements
Standard Component Integration – Using common, low-cost passive components
Simple Assembly Requirements – Avoiding specialized assembly processes
Manufacturing Tolerance Accommodation – Designing for standard manufacturing capabilities
Socket vs. Surface Mount Trade-offs – Balancing flexibility and cost considerations

Educational Project Development

Progressive Skill Building Projects

Beginner Projects – LED patterns, simple counters, basic I/O
Intermediate Projects – Serial communication, simple processors, controllers
Advanced Projects – Complex state machines, DSP implementations, system integration
Capstone Projects – Complete system solutions with real-world applications
Research Extensions – Graduate-level research project foundations

Collaborative Learning Frameworks

Team Project Structures – Multi-student collaborative development
Peer Review Processes – Student-to-student design evaluation
Knowledge Sharing Platforms – Community-based learning resources
Mentorship Integration – Advanced student guidance for beginners
Industry Connection Programs – Professional mentor involvement in education

The XC5210-4PC84C represents the ultimate value in professional FPGA education and budget-conscious development, providing complete Spartan architecture capabilities at the lowest possible cost while maintaining socket compatibility for maximum learning flexibility.

Keywords: XC5210-4PC84C, budget FPGA, educational FPGA, cheapest FPGA, student FPGA, cost-effective FPGA, socket FPGA, learning FPGA, 84-pin PLCC, hobby FPGA, prototype FPGA, Xilinx Spartan

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RF PCB

Quality

PCB Surface Finish