Takes in
Any extracted parasitic netlist, whatever tool produced it.
Products & Workflows
Process and device physics, from simulation to the fab floor
EDA tools, licensed IP, verification and enablement
Why Silvaco
Solutions
Resources
TCAD
Analog and Custom Design
Parasitic Extraction
SPICE Simulation
Variation and Yield
The Simulation Standard
Technical journalFoundry support
Process Design KitsSupport and Downloads
Partners
TCAD
Lithography
Plasma
Circuit Simulation
Analog and Custom IC
Design IP
Jivaro Pro applies patented mathematical parasitic reduction to the network extraction leaves behind. Circuit complexity drops until your post-layout SPICE simulation finishes, up to 15X faster. How much accuracy you trade for that speed is your call, not a setting fixed inside the tool. Design teams at IDMs and fabless chip companies around the world run it. Because it stands alone, it sits between your extractor and your simulator, whichever ones they are.
You decide how hard the netlist gets cut, and where.
Model order reduction, a patented mathematical approach, shrinks the parasitic network within the tolerance you choose. Start in automatic mode, which adapts to your design, or take over any of more than 30 parameters when you want the speed-accuracy balance in your own hands.
Aim reduction at single nets, whole subcircuits or paths anywhere in the hierarchy, and give each its own threshold. You can also merge multi-finger devices and strip out dummy structures, then configure and review it all in a GUI.
R, RC, RCC, RLC and RLCK networks, with controlled sources. Netlists extracted across multiple corners reduce too, and so do parasitic networks that change with temperature.
Power nets and metal fills can stay in your simulation, adding accuracy without the runtime they'd normally cost.
Bring DSPF, SPEF, SPICE3, HSPICE or Spectre netlists, Calibre View parasitic netlists, or OpenAccess databases.
Technology nodes down to 2nm.
Jivaro Pro isn't tied to any extraction or simulation tool. It plugs into your current flow and runs next to the major EDA suites.
Reduction built into an extractor or simulator follows fixed rules. Here, the strategy stays with you. It runs on Red Hat Enterprise Linux 7.9 and 8 and SUSE Linux Enterprise Server 12.
Your extracted netlist goes in. A smaller one comes out, ready for your simulator.
Any extracted parasitic netlist, whatever tool produced it.
A reduced netlist for your post-layout run.
The post-layout runs that usually hold a schedule up.
See what design teams measured on their own blocks.
Alps Alpine, which makes sensors and electronic components, adopted Jivaro Pro to speed up development of the ICs inside its high-precision sensor products.
“The introduction of Jivaro Pro is consistently reducing post-layout SPICE simulation run times while maintaining accuracy, with at least a 5X improvement observed at the 40nm and 55nm nodes.”
Yasuyuki Hattori, Senior Manager of IC Engineering Dept. Engineering Headquarters at Alps Alpine Co., Ltd.
eTopus builds ultra-high-speed mixed-signal IP for high-performance computing and data centers. On its FinFET flow, full post-layout runs on large blocks were taking weeks.
“…a full simulation on one of our blocks would run 20+ days. After using Jivaro Pro this runtime was reduced to 6 days while maintaining the designer’s accuracy requirements.”
Harry Chan, Founder and CEO, eTopus
Chung-Chun Chen, Director of Analog Design, shows how Jivaro Pro speeds up verification of high-frequency analog mixed-signal components.
Measured speedups of 2.2X to 15.2X on designs from 130nm to 7nm, with what it reduces, how targeting works, inputs and supported platforms.
Speedups from 2.2X to 15.2X across design types and nodes from 130nm to 7nm, targeted reduction by net, and device merging.
How parallel SmartSpice handles post-layout runs, and how to set up Jivaro reduction from inside it.
Tell us which block takes longest to simulate after extraction. Our engineers will show you how much runtime Jivaro Pro takes off it, and what that costs in accuracy.