Formal Verification (FPV) for RTL, IP & SoC
End-to-end formal property verification (FPV) from specification to signoff—delivering mathematically proven correctness, protocol compliance, and closure confidence for complex digital designs.
Complete FPV execution from spec to signoff:
Requirement and micro-architecture analysis
Property specification and verification planning
Assertion development (SVA / PSL)
Proof execution and convergence
Coverage, completeness, and closure metrics
Signoff reporting with full traceability
Formal verification explores all possible states of your design — mathematically.
No test vectors required
No random stimulus dependency
No coverage blind spots
No missed corner cases
Reduce risks of silicon escapes
Properties are mathematically proven to be always true — across all possible input combinations. This dramatically reduces the risk of silicon escapes.
Verification Services
Property & Protocol Formal Verification (FPV)
Assertion-based verification using SystemVerilog Assertions (SVA)
Control logic and state machine
correctness
Safety and liveness property validation
Deadlock and livelock detection
Corner-case bug detection beyond simulation reach
AMBA Protocol Formal (AXI / AHB / APB)
Protocol compliance and transaction ordering
Backpressure and flow control validation
Outstanding transaction handling
Deadlock and livelock scenario analysis
Equivalence Checking
RTL vs RTL comparison
RTL vs gate-level/netlist equivalence
ECO validation and change impact analysis
Synthesis correctness verification
Connectivity & Structural Verification
Bus and interconnect connectivity validation
Clock-domain crossing (CDC) structural checks
Reset domain verification
Low-power structural correctness
Security & Safety-Oriented Formal Analysis
Isolation and protection logic verification
Access control and privilege validation
Fail-safe state behaviour
Support for ISO 26262-aligned verification flows
Complex Design Proof & Scalability
Formal applied to complex blocks and subsystems:
DMA engines and bus fabrics
Cache coherency and interconnect logic
ECC, memory controllers, and FIFOs
Security and safety-critical IP
Scalability techniques for convergence: Memory abstraction, Symbolic data modelling, Initial-value abstraction, Design size reduction and partitioning
Coverage, Closure & Signoff
Formal coverage analysis and completeness checks
Unreachability (UNR) and dead code identification
Traceability from spec to properties
Closure metrics and proof status tracking
Debug artifacts: traces and counter examples
Tool Expertise
Formal Engines
Synopsys VC Formal
Cadence JasperGold
Applications
FPV (Property Verification)
Connectivity and structural apps
UNR (Unreachability analysis)
CSR and register verification
Formal doesn’t replace simulation — it strengthens it with mathematical proof...
Maximum ROI
Complex control and arbitration logic
AMBA-based interconnects and fabrics
CDC and reset-sensitive logic
FIFOs and memory interfaces
Safety-critical state machine
Methodology
Requirement Analysis
Property Definition & Review
Assumption Modelling
Proof Convergence & Debug
Coverage & Completeness Analysis
Sign-off Reporting
Engagement Model
Dedicated Formal Verification Engineers
Formal Acceleration Teams
Property Development and reusable libraries
Complete Formal Sign-off Projects
