Intel details upcoming processor generations

• Microarchitecture Optimizations — Increases the overall performance and energy efficiency of the already leading Intel Core microarchitecture to deliver more instruction executions per clock cycle, which results in more performance and quicker PC responsiveness.
• Enhanced Intel® Virtualization Technology — Penryn speeds up virtual machine transition (entry/exit) times by an average of 25 to 75 percent. This is all done through microarchitecture improvements and requires no virtual machine software changes. Virtualization partitions or compartmentalizes a single computer so that it can run separate operating systems and software, which can better leverage multicore processing power, increase efficiency and cut costs by letting a single machine act as many virtual "mini" computers.
• Higher Frequencies — Penryn family of products will deliver higher overall clock frequencies within existing power and thermal envelopes to further increase performance. Desktop and server products will introduce speeds at greater than 3GHz.
• Fast Division of Numbers ? Penryn-based processors provide fast divider performance, roughly doubling the divider speed over previous generations for computations used in nearly all applications through the inclusion of a new, faster divide technique called Radix 16. The ability to divide instructions and commands faster increases a computer's performance.
• Larger Caches — Penryn processors include up to a 50 percent larger L2 cache with a higher degree of associativity to further improve the hit rate and maximize its utilization. Dual-core Penryn processors will feature up to a 6MB L2 cache and quad-core processors up to a 12MB L2 cache. Cache is a memory reservoir where frequently accessed data can be stored for more rapid access. Larger and faster cache sizes speed a computer's performance and response time.
• Unique Super Shuffle Engine — By implementing a full-width, single-pass shuffle unit that is 128-bits wide, Penryn processors can perform full-width shuffles in a single cycle. This significantly improves performance for SSE2, SSE3 and SSE4 instructions that have shuffle-like operations such as pack, unpack and wider packed shifts. This feature will increase performance for content creation, imaging, video and high-performance computing.

Nehalem Microarchitecture

After Penryn and the 45nm Hi-k silicon technology introduction comes Intel's next-generation microarchitecture (Nehalem) slated for initial production in 2008. By continuing to innovate at this rapid cadence, Intel will deliver enormous performance and energy efficiency gains in years to come, adding more performance features and capabilities for new and improved applications. Here are some new initial disclosures around our Nehalem microarchitecture:

• Dynamically scalable for leadership performance on demand with energy efficiency
• Dynamically managed cores, threads, cache, interfaces and power
• Leverages leading 4 instruction issue Intel® Core microarchitecture technology
• Simultaneous multi-threading (similar to Intel® Hyper-threading technology) returns to enhance performance and energy efficiency
• Innovative new Intel® SSE4 and ATA instruction set architecture additions
• Superior multi-level shared cache leverages Intel® Smart Cache technology
• Leadership system and memory bandwidth
• Performance enhanced dynamic power management
• Design scalable for optimal price/performance/energy efficiency in each market segment
• New system architecture for next-generation Intel processors and platforms
• Scalable performance: 1 to 16+ threads, 1 to 8+ cores, scalable cache sizes
• Scalable and configurable system interconnects and integrated memory controllers
• High performance integrated graphics engine for client