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Dolphin Design SAS, based in Meylan, France, is seeking an IP Verification Engineer to join the verification team. The role focuses on functional verification of power management IPs and involves UVM testbenches, protocol checks, and coverage strategies.
You will contribute to ISO 26262 safety verification campaigns, fault injection, and formal verification while growing your expertise across UVM, SystemVerilog, and EDA tools in a dynamic hardware environment.
To support the growth of our Power Management business and meet our customers' needs around density, power consumption, and operating frequency for their integrated circuits, we are looking for an IP Verification Engineer (W/M), based in Meylan, France.
As part of our verification team, you will work 100% on functional verification of products designed to optimize the energy efficiency of our customers' circuits, across fields such as Edge-IoT, automotive, and high-performance computing (HPC).
Working closely with senior verification engineers, tech leads, and designers, you will help build effective verification strategies that cut down validation time while maximizing coverage, in order to hit the performance and power targets of products such as the Maestro Power Manager Unit (PMU) and the Meerkat distributed margin sensor.
For IPs aimed at the automotive market, you will help verify ISO 26262 requirements and assess how robust blocks are against permanent and transient faults. This role will let you gradually grow your scope - from UVM simulation into fault injection and formal verification.
Functional verification (UVM)
Help define the verification plan (coverage-driven methodology) from product specifications, and track it through to closure on your scope
Build and debug UVM verification environments: agents, sequences, virtual sequencer, scoreboards, reference models, RAL (uvm_reg), factory, callbacks, hierarchical configuration
Build reusable, parameterized testbenches (SystemVerilog) that are portable across different IP configurations
Write directed and constrained-random stimuli, making use of constrained randomization
Build checkers and SVA assertions, along with the bind strategy behind them
Debug gaps between spec and RTL, and support the design team on your scope
Integrate and configure protocol VIPs, or build UVM agents yourself when the IP calls for it
Build protocol compliance checkers, end-to-end scoreboards, and dedicated protocol coverage (transactions, back-to-back cases, edge cases, error handling, arbitration)
Functional safety and fault injection (ISO 26262)
Help verify safety requirements and justify the hardware metrics (SPFM, LFM, PMHF)
Build and run fault injection campaigns (stuck-at for permanent faults, SEU/SET for transient faults): instrument the testbench, select and propagate faults, define detectors and observables
Analyze fault campaign results, help classify faults (detected, undetected, safe, residual), and feed that into the FMEDA analysis
Flag improvement opportunities on safety mechanisms back to the design team
Build up your skills on fault simulation and formal safety verification (FSV) tools, to cut down the effort needed to qualify unclassified faults
Couverture
Implement the functional coverage strategy: covergroups, coverpoints, crosses, bins, and transitions derived from the verification plan, including for parameterized IPs
Analyze code coverage (line, branch, condition, expression, toggle, FSM)
Investigate coverage gaps, justify and document exclusions, and log waivers in the refinement files with supporting justification
Use coverage and regression management tools, and help drive coverage closure to sign-off criteria
Formal verification
Write SVA properties and environment constraints (assumes), and build strategies to reach convergence
Run the relevant formal apps: property checking (FPV), connectivity check, register map check, X-propagation, deadlock detection, feasibility analysis to justify coverage waivers
Analyze and debug counterexamples, and assess formal completeness (proof core, formal coverage)
Work with Questa Formal and JasperGold
Methodology and project execution
Keep up with the latest verification techniques, tools, and technologies
Help continuously improve and maintain the verification methodology and flow
Contribute to workload estimates and progress tracking on your activities
Work closely with tech leads, project managers, designers, and other team members
You have an engineering degree or a Master's degree (Bac+5) and at least 5 years of experience in functional verification of digital circuits.
You're technically curious, rigorous in how you analyze problems, and you enjoy digging into a good debug.
Must-have skills and experience:
Strong command of UVM methodology, with solid prior experience on a complete verification environment
Strong command of SystemVerilog for verification (classes, constraints, interfaces, SVA assertions), and the ability to read and understand RTL (Verilog / SystemVerilog / VHDL)
Hands-on experience with functional coverage and code coverage techniques, and a good understanding of coverage closure (gap analysis, waivers)
Experience verifying at least one standard communication protocol (APB/AHB/AXI, I2C/SPI/I3C, or equivalent)
Good scripting skills (Tcl, Shell, Python, Perl...) for automating verification flows and regressions
Comfortable working in both Linux and Windows environments
Hands-on experience with EDA simulation, coverage, and debug tools (Cadence, Siemens EDA, Synopsys)
Preferred skills and experience:
Some exposure to ISO 26262 functional safety verification and fault injection campaigns
Prior experience in formal verification (Questa Formal, JasperGold, or equivalent)
Familiarity with SVN and