Victory RCx
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Victory RCx: 3D field-solver parasitic extraction
Victory RCx extracts resistance and capacitance from the 3D structure your process actually builds, etched sidewalls included, so the parasitic extraction you hand to circuit simulation is an answer, not an estimate.
What Victory RCx does
Victory RCx is a physics-based field solver that extracts parasitics in three dimensions. It works on structures of any shape, including the etched and deposited profiles from process simulation. It’s built for detailed work at cell level. You choose the accuracy, and the mesh adapts to reach it. The output is a SPICE netlist. Full-chip runs stay with Hipex’s rule-based extractor, while Victory RCx takes the cells whose shape a rule deck can’t describe.
Capabilities
Field solver
Resistance and capacitance are solved from the physics on the full 3D geometry, with nothing looked up from a pre-characterized pattern. You pick from several solvers and set the solution tolerance, material properties and boundary conditions yourself.
Structure handling
The solve includes floating and dummy conductors. Capacitance from a single conductor is split across every region it couples to, so you can see where it goes. Simple Manhattan geometry can be built inside the tool. For curved, non-planar shapes, the structure comes straight from Victory Process with its simulated etch and deposition intact.
Advanced node
Victory RCx analyzes gate-contact capacitance in the FinFET middle end of line. That geometry is dense and fully three-dimensional. Rule-based extraction can fall short there, and the LPE deck you’d need may not exist yet.
Display and optical
Display work gets more than RC. The solver takes optical devices, LCD and touch-panel structures. An LCD physics model with voltage-dependent permittivity tracks how capacitance and liquid-crystal director orientation shift with bias. Sweep wavelength and pixel voltage to see a cell’s transmittance, reflectance and contrast. Then check its transient response as the light source switches.
Output
Parasitics come out as a standard SPICE netlist, so they drop straight into the circuit simulator you already run. Tighten the tolerance and the adaptive mesh refines only where it has to. Relax it and the run finishes sooner.
Where it sits in the TCAD flow
In: a simulated 3D structure from Victory Process, refined in Victory Mesh when it needs it.
Out: a SPICE netlist for circuit simulation. On the design side, Hipex-FS runs the same solvers from
inside the Expert layout editor.
This tool
Victory RCx
Solves R and C
Out
SPICE netlist
Circuit simulation
Alongside
Hipex-FS
Same solvers, in the Expert layout editor
Where 3D parasitic extraction pays off
Advanced CMOS
FinFET, SOI and bulk CMOS, including middle-end-of-line and back-end-of-line parasitics.
Display
TFT backplanes, LCD cells and touch panels. Silvaco TCAD is in use at eight of the ten biggest display manufacturers.
Proof and resources
Journal article · Simulation Standard, 2016
Using Victory Process to Create Realistic Structures for Capacitance Extraction in Clever
Importing a simulated Victory Process structure for field-solver extraction. Clever is Victory RCx's earlier name.
Worked example
Field Solver (Victory RCx) mode of Hipex Parasitic Capacitance Extraction
Runs the solver from inside Expert on a sample layout, step by step.
Evaluate Victory RCx or get support
Evaluating Victory RCx
Bring a cell you've already extracted with a rule deck or checked against measured silicon. Our technical experts can tell you whether a field solve changes the answer on that geometry, before you commit time to a formal evaluation.
Already running it
Installers and documentation live in Support and Downloads, next to the installation guide and supported operating systems.
Stuck on something
Open a case in the support portal and track it there. Access comes with a current maintenance contract.
Parasitic extraction questions
What is 3D field-solver parasitic extraction?
It means computing a structure's parasitic resistance and capacitance by solving the electric field inside its real 3D geometry, where a rule deck would look the values up. The structure is meshed in three dimensions, so curved sidewalls and floating conductors count toward the answer.
When do I need a field solver instead of rule-based extraction?
When the geometry is too detailed for a rule deck to capture accurately, or when no LPE rule deck exists for your process yet. Middle-end-of-line FinFET structures and realistic etch profiles are the usual examples. For full-chip extraction, rule-based tools remain the practical choice.
What is the difference between Victory RCx and Hipex?
Both use the same field solvers, but they start from different places. Victory RCx works on 3D structures from process simulation, on the TCAD side. Hipex-FS starts from a layout inside the Expert editor, and Hipex-RC is Silvaco's rule-based extractor for full-chip jobs.
Can Victory RCx use structures from process simulation?
Yes, it extracts directly from the 3D structure Victory Process builds, with the etched and deposited shapes as simulated. Victory Mesh can refine that structure's mesh before extraction. For square-sided Manhattan shapes, you can skip the process run and build the structure in Victory RCx itself.
Does it handle FinFET middle-end-of-line capacitance?
Yes. Capacitance between a FinFET's gate and its contacts, in the middle end of line, is one of the analyses Victory RCx runs. Those values then go into SPICE, so you can simulate their effect on the circuit before anything reaches silicon.
What output format does it produce?
A SPICE netlist. Any circuit simulator that reads SPICE can take the extracted parasitics, so they fit the flow your team already runs. Precision and runtime trade against each other, and the tolerance you set decides where each run lands.