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- PowerArtistRTL Design-for-Power: Power Reduction, Analysis, and Debug
- RedHawkSoC Power Integrity: Dynamic Power, Advanced Low Power, Reliability, and Chip-Package Co-design
- TotemAnalog Power, Noise and Reliability: Dynamic Power, Substrate Noise, EM, and ESD
- SentinelChip-Package-System Convergence: Power/Signal Integrity, IO-SSO, Thermal, and EMI
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- RTL to SiliconRTL power reduction, analysis, and signoff
- Analog to DigitalFull-chip mixed-signal power, noise, and reliability
- Chip-Package-SystemChip, package, system co-design / co-analysis
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RedHawk
HIGHLIGHTS
Apache Chosen as Global Supplier by Major CPU/GPU/APU Semiconductor Design Company
ESD Robustness Verification for System-on-a-Chip Designs
Apache’s Power and Noise Products Adopted by MoSys for IP Validation and Sign-off
Apache Introduces PathFinder, the Industry’s First ESD Integrity Solution
Aptina Adopts Apache’s Power and Noise Platforms
Realtek Semiconductor Adopts Apache’s Products for Power and Reliability Signoff
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RedHawk is a next generation dynamic power integrity solution with the capacity to handle designs of more than five hundred million gates, while maintaining sign-off accuracy. It accurately analyzes the effects of simultaneous switching noise (core, memory, I/O), decoupling capacitance (intentional and intrinsic), and on-chip and off-chip (package) inductance.
RedHawk enables designers to explore and identify physical design weaknesses (RHE), automatically repair source of supply noise (FAO), analyze the impact of dynamic voltage drop on timing and jitter (PSI), verify power and signal EM (SEM), validate ESD protection robustness (PathFinder), and provide a model of the chip power delivery network profile for system-level analysis (CPM).
RedHawk for low power (ALP) provides analysis and optimization of ultra low power design techniques including those used in 65/45/32nm designs such as multiple voltage islands, MTCMOS (power-gating), VTCMOS (substrate back-biasing), switched memories, and on-chip LDO (low drop-out) voltage regulators. It enables designers to perform rush current and ramp-up analysis and full-chip multi-mode verification, as well as intelligent switch optimization for further leakage improvements.








