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Zetta Power

Power is a primary care about in modern semiconductor applications.
Zettabolt is addressing power concerns by providing innovative tools which help analyze and reduce power at all stages of the chip design flow.

WHY LOW POWER?

The Low Power Imperative

🔸 Unyielding demand for increased performance, connectivity, and intelligence across all major technology sectors.

🔸 Energy efficiency is no longer just desirable; it’s a critical requirement for product success and user experience.

AI/ML

  • Massive compute
  • Power-constrained Inference

5G/6G Communication

  • Higher data rates
  • Complex processing

Automotive

  • ADAS, Infotainment
  • Electrification (EVs)

IOT & Wearables

  • Billions of devices
  • Multi-year battery life
  • Ultra-low power states

HPC & Data Center

  • Exponential compute demand
  • Energy cost
  • Cooling limits

Mobile & Consumer

  • Rich features
  • Always-on demands
  • Thermal constraint in thin form factors

WHY US

Zettabolt’s Intelligent Low Power Platform

Comprehensive Solution
  • Will my chip fail due to physical power structure errors?
  • Will my chip meet its power specification for signoff?
  • What’s the estimated power impact of my RTL code?
  • How can I maximize power savings at RTL?
  • Can AI agents apply verified power savings to my RTL automatically?

LOW Power Checker (LPC)

Low Power Design Static Verification
1. Library Checks
  • Completeness of low power cells
  • Correctness of low power cell definitions
  • Conflicts with UPF definitions
2. Power Intent Checks
  • Missing or redundant low power strategies
  • Conflicts in UPF specifications
  • Consistency of power states and strategies
3. Logic Netlist Checks
  • Missing or redundant low power logic
  • Correctness of control signal connection
  • Conflicts between UPF and netlist
4. Physical Netlist Checks
  • All checks in logic netlist checking
  • Correctness of power and ground connections (including substrate)
  • Correctness of power switch network

Gate Level Power Analyzer (GPA)

GPA provides the definitive gate-level power analysis and signoff capabilities required for today's most demanding System-on-Chip designs. It is engineered from the ground up to deliver uncompromising accuracy, industry-leading performance, and the capacity needed to ensure confident power closure and accelerate your time-to-market.

Accuracy Icon
Within 2% of sign-off accuracy
Speed Icon
Up to 4x faster than other tools
Gate Capacity Icon
1B+ gate capacity
Support Icon
Support for

- 7nm libraries (with CCS)
- UPF
- SPEF, SDC, SDF
- SAIF / FSDB / VCD

Reports Icon
Comprehensive Reports

- Average, Peak, Glitch
- Activity Plots
- Clock-gating efficiency
- Clock-tree

GUI Support Icon
Rich GUI Support

- Design, Schematic viewer
- Power reports
- Activity & Peak-power plots


RTL Power Analyzer (RPA)

RPA delivers actionable, early-stage power insights directly at the RTL level, enabling proactive optimizations well before synthesis. Built to integrate seamlessly into your design flow, RPA empowers engineers to make informed, low-risk decisions that reduce overall power consumption.

Accuracy Icon

Within 15% of sign-off accuracy with GPA

Speed Icon

10X faster than other RTL synthesis based PA

Gate Capacity Icon

1B+ gate capacity


RTL Power Explorer (RPE)

Our advanced RTL Power Exploration (RPE) tool engineered to maximize power savings by identifying and enabling sophisticated clock gating opportunities missed by conventional approaches. RPE dives deep into your design’s sequential behavior to unlock substantial, previously unapproachable power reductions.

Proprietary Deep Reachability Analysis Algorithm

Unique engine performs exhaustive reachability analysis across the flip flop and cone paths to enable clock gating on many logic levels and clock cycles, overcoming the limitations of standard heuristics.

Targeted Exploration & Guidance

Empowers designers by clearly highlighting specific, high-impact gating opportunities and providing actionable insights to guide the implementation of individual changes.

Other Features

• Advanced tools and suggestions for power saving
• Advanced clock trees and reset memory optimizations
• Visualize optimization opportunities

RPE Diagram

Agentic Power Exploration

Autonomous, RPE-assisted RTL power optimization: from months to hours. Zettabolt's Agentic Power Exploration pairs the RPE engine with AI agents that act as virtual designers. RPE finds and verifies the savings, and the agents apply them to your RTL.

5X
More power savings
100%
RPE-assisted changes
Minutes–Hours
vs. weeks or months of manual effort
Zero
Functional regressions
The problem: power cleanup doesn't scale by hand

To optimize RTL power, designers load simulation data into a visualization tool, trace unnecessary toggling along data paths and manually pinpoint the registers and logic involved. Every change is manual, so the risk of functional errors is high, and the cycle repeats across the whole design. Power optimization can take months.

Optimizations using RPE

RPE scans the design, identifies key power-saving opportunities and generates detailed, actionable reports. It pre-verifies the suggested enable conditions, so designers can apply them with confidence. It is dramatically faster and safer than manual exploration, though applying a large set of recommendations by hand can still take days.

Why LLMs alone fall short

LLMs have broad knowledge but no built-in EDA engines to simulate, synthesize or measure. On their own they can't parse massive simulation data, project power savings accurately or guarantee functional correctness, and an unguided change can add bugs or even increase power.

Zettabolt Agentic Power Exploration: RPE + AI agents

RPE explores the design, identifies gating opportunities (clock, data, memory and sequential gating) and validates them to guarantee power savings. Using these pre-verified insights, AI agents make the RTL changes automatically. The fully automated workflow cuts optimization time, speeds up tape-out schedules and eliminates functional errors introduced by humans or LLMs.

Traditional flow
Traditional flow: the designer explores opportunities, interprets reports, modifies and validates RTL, measures power and repeats manually, taking days to months to reach low-power RTL
Agentic RPE flow
Agentic RPE flow: RPE explores power-saving opportunities, agents interpret the reports and apply recommendations, RTL is validated and power measured, repeating automatically in minutes to hours to reach low-power RTL
Four approaches, one clear winner
CriteriaTraditional manualRPE-assisted manualLLM-onlyZettabolt Agentic
Time to close powerWeeks – monthsDaysHours (claimed)Minutes – hours
Power savings verified?No: trial & errorYes, by RPENo: unverifiedYes, by RPE, at every step
Functional riskHighNoneHighNone
Designer effortVery highMediumLow, but riskyReview only
Opportunity coverageLimited by bandwidthFull: RPE exploresBounded by LLM knowledgeFull: explored & applied
Why agentic wins
  • RPE-verified at every step: no trial and error, no regressions
  • Explores clock, memory, data and sequential gating across the full RTL
  • Closed autonomous loop: explore → apply → validate → repeat
  • Collapses months of manual effort into minutes or hours
  • Removes the guesswork LLM-only flows can't resolve
  • Engineers review outcomes; they don't hand-edit RTL

Ready to unlock the full potential of your enterprise knowledge?

OUR CUSTOMER CASE STUDIES

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