Trellisign Electronic Design Automation (EDA)
Chip Design & Verification Technologies (VLSI)
Today's semiconductor architectures integrate tens of billions of transistors using state-of-the-art fabrication processes and complex heterogeneous designs. Achieving optimal power consumption, performance targets, and die area utilization while ensuring manufacturability creates significant engineering complexity. Conventional design approaches frequently struggle to meet the demands of such extensive integration requirements.
Our Methodology
Our chip design framework delivers end-to-end workflows that ensure design efficiency, accuracy, and fabrication success.
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Complete RTL-to-GDSII Workflows
- Covering digital, analog, and mixed-signal circuits — from register-transfer-level design to mask-ready layouts
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AI-Enhanced Optimization
- Advanced artificial intelligence engines accelerate convergence and optimize power, performance, and area (PPA)
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Fab-Certified Validation
- Verification flows aligned with leading foundries to ensure compliance and manufacturability at advanced nodes
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Accelerated Design Closure
- Integrated signoff methodologies reduce cycle time while improving design quality and reliability
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Hybrid Design Capability
- Seamless support for digital, analog, and hybrid circuit implementations within a unified environment
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First-Pass Silicon Success
- Combining automation, proven algorithms, and certified methodologies to minimize re-spins and enhance fabrication success rates
Key Features
Rapid Development
Machine learning-driven workflows minimize design iterations
Optimal Performance
Advanced power, speed, and area optimization for leading-edge nodes
Reduced Risk
Thorough verification minimizes expensive silicon revisions
Technology Highlights
- Complete design environment accommodating all circuit architectures
- Advanced timing, power analysis, and reliability assessment with integrated signal/power integrity validation
- Native support for chiplet-based and three-dimensional semiconductor assemblies
- Market-leading capabilities for emerging fabrication technologies
Printed Circuit Board Engineering & Analysis Platform (PCB)
Contemporary PCB implementations face escalating design constraints: increased component integration density, high-speed signal routing requirements, and stringent compliance mandates. Engineering errors during schematic creation, physical routing, or manufacturing validation phases can result in substantial project delays and product quality issues.
- Identifying critical components affecting performance
- Finding optimal component values for efficiency
- Analysing circuit behavior under real-world variations
- Ensuring reliability and avoiding component failures
Our Methodology
Our PCB engineering solution provides a rule-based, scalable workflow that supports everything from simple prototypes to enterprise-grade high-speed systems.
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Circuit Capture & Schematic Entry
- Robust schematic design tools with constraint-driven capture for error-free logic definition.
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Physical Implementation
- Automated and manual layout capabilities with design rule enforcement to meet electrical and manufacturing constraints.
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Comprehensive Verification
- Built-in DRC, ERC, and SI/PI analysis to validate functionality, manufacturability, and reliability before fabrication.
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Rule-Based Expandable Architecture
- Scalable platform that adapts to projects of varying complexity — from entry-level designs to advanced multi-layer boards.
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Prototype-to-Production Ready
- Seamless transition from early-stage prototypes to full-scale enterprise designs without workflow disruption.
Key Features
Accelerated Time-to-Market
Optimized design flow and rapid production qualification
Superior Precision
Continuous manufacturing validation with automated design rule verification
Universal Adaptability
Single platform architecture supporting entry-level through enterprise applications
Technology Highlights
- Advanced schematic entry with intelligent physical layout automation
- Dynamic three-dimensional modeling with real-time manufacturability assessment
- Comprehensive high-speed design capabilities featuring integrated signal integrity and power integrity optimization with impedance management
- Complete solution ecosystem from economical starter tools to premium enterprise systems
Sophisticated IC Packaging Technologies (IC PACKAGING)
With conventional transistor scaling reaching fundamental physical barriers, performance enhancements increasingly rely on advanced packaging innovations including 2.5D/3D stacking and multi-technology integration approaches. Design complications discovered during late packaging phases can generate significant cost overruns and schedule impacts.
Our Methodology
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Comprehensive Substrate Engineering
- Advanced substrate design capabilities for complex multi-layer packaging architectures
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Unified Co-Optimization
- Integrated chip-package-system design methodology ensuring optimal performance across all domains
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Multi-Physics Analysis
- Simultaneous thermal, electrical, and mechanical validation for comprehensive design verification.
Key Features of Integrated Design Environment
Faster Product Launch
Unified co-engineering methodology accelerates development timelines
Comprehensive Performance Optimization
Superior characteristics across thermal, electrical, and mechanical parameters with embedded SI/PI verification
Design Optimization
Advanced packaging design validation ensures optimal performance characteristics.
Technology Highlights
- Full-featured packaging design environment
- Integrated signal integrity and power integrity optimization for package-level performance enhancement
- Multi-physics thermal, electrical, and mechanical validation capabilities
- Seamless chip-package-board co-design workflow integration
