Leakage takes priority at 65 nm
Richard Goering, EE Times
(01/16/2006 10:00 AM EST)
As the first reports on 65-nanometer design come in from the field, the good news is that there don't appear to be any problems at 65 nm that weren't there are 90. The bad news is that some of the problems that plagued 90 nm get much worse at the new node.
Designers who have completed 65-nm projects generally identify leakage current as the biggest problem, and they're turning to a variety of strategies to manage power, including multiple voltage thresholds and voltage "islands."
"Clearly the threshold leakage and gate leakage are getting significantly worse. New design techniques have to be adopted," said Dermot Barry, general manager for the system IC business unit at design services firm Silicon & Software Systems (S3).
Design-for-manufacturability (DFM) also becomes a bigger issue at 65 nm because process variations worsen, sources said. And signal integrity problems grow as wiring gets denser.
On the manufacturing side, resolution enhancement technology (RET) becomes more complex at 65 nm, said Peter Rickert, technology development manager at Texas Instruments Inc. And process variations have much more impact. "A plus/minus 1-nm variation is a much higher percentage at 65 nm, where we might be talking about a 40-nm gate length, vs. 50 or 60 at 90 nm," Rickert noted.
(01/16/2006 10:00 AM EST)
As the first reports on 65-nanometer design come in from the field, the good news is that there don't appear to be any problems at 65 nm that weren't there are 90. The bad news is that some of the problems that plagued 90 nm get much worse at the new node.
Designers who have completed 65-nm projects generally identify leakage current as the biggest problem, and they're turning to a variety of strategies to manage power, including multiple voltage thresholds and voltage "islands."
"Clearly the threshold leakage and gate leakage are getting significantly worse. New design techniques have to be adopted," said Dermot Barry, general manager for the system IC business unit at design services firm Silicon & Software Systems (S3).
Design-for-manufacturability (DFM) also becomes a bigger issue at 65 nm because process variations worsen, sources said. And signal integrity problems grow as wiring gets denser.
On the manufacturing side, resolution enhancement technology (RET) becomes more complex at 65 nm, said Peter Rickert, technology development manager at Texas Instruments Inc. And process variations have much more impact. "A plus/minus 1-nm variation is a much higher percentage at 65 nm, where we might be talking about a 40-nm gate length, vs. 50 or 60 at 90 nm," Rickert noted.
To read the full article, click here
Related Semiconductor IP
- UCIe D2D Adapter & PHY Integrated IP
- Low Dropout (LDO) Regulator
- 16-Bit xSPI PSRAM PHY
- ASIL B Compliant MIPI CSI-2 CSE2 Security Module
- SHA-256 Secure Hash Algorithm IP Core
Related News
- Dolphin Integration offers first standard cell library to enable a leakage reduction of 1/350 at 65 and 55 nm
- DOLPHIN Integration releases a ROM in 65 nm with Ultra high density and ultra low leakage
- Dolphin Integration announces its ultra low power, low leakage and High density 65 nm ROMs and RAMs
- Standard Cells reducing leakage 40 to 60 times at 90 and 65 nm from Dolphin Integration
Latest News
- TSMC Chases Soaring AI Demand
- EU DARE Project Is Scrambling to Replace Codasip
- Sofics and Alcyon Photonics Partner to Support Next-Generation Photonic Systems
- QuickLogic Appoints Quantum Leap Solutions as Authorized Sales Representative
- Cadence and NVIDIA Expand Partnership to Reinvent Engineering for the Age of AI and Accelerated Computing