Matches in DBpedia 2015-10 for { <http://dbpedia.org/resource/65_nanometer> ?p ?o }
- 65_nanometer abstract "The 65 nanometer (65 nm) process is advanced lithographic node used in volume CMOS semiconductor fabrication. Printed linewidths (i.e., transistor gate lengths) can reach as low as 25 nm on a nominally 65 nm process, while the pitch between two lines may be greater than 130 nm. For comparison, cellular ribosomes are about 20 nm end-to-end. A crystal of bulk silicon has a lattice constant of 0.543 nm, so such transistors are on the order of 100 atoms across. By September 2007, Intel, AMD, IBM, UMC, Chartered and TSMC were producing 65 nm chips. While feature sizes may be drawn as 65 nm or less, the wavelengths of light used for lithography are 193 nm and 248 nm. Fabrication of sub-wavelength features requires special imaging technologies, such as optical proximity correction and phase-shifting masks. The cost of these techniques adds substantially to the cost of manufacturing sub-wavelength semiconductor products, with the cost increasing exponentially with each advancing technology node. Furthermore, these costs are multiplied by an increasing number of mask layers that must be printed at the minimum pitch, and the reduction in yield from printing so many layers at the cutting edge of the technology. For new integrated circuit designs, this factors into the costs of prototyping and production. Gate thickness, another important dimension, is reduced to as little as 1.2 nm (Intel). Only a few atoms insulate the "switch" part of the transistor, causing charge to flow through it. This undesired effect, leakage, is caused by quantum tunneling. The new chemistry of high-k gate dielectrics must be combined with existing techniques including substrate bias and multiple threshold voltages to prevent leakage from prohibitively consuming power.IEDM papers from Intel in 2002, 2004, and 2005 illustrate the industry trend that the transistor sizes can no longer scale along with the rest of the feature dimensions (gate width only changed from 220 nm to 210 nm going from 90 nm to 65 nm technologies). However, the interconnects (metal and poly pitch) continue to shrink, thus reducing chip area and chip cost, as well as shortening the distance between transistors, leading to higher performance devices of greater complexity when compared with earlier nodes.".
- 65_nanometer wikiPageExternalLink ?article=25910.
- 65_nanometer wikiPageExternalLink intel_65nm.
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- 65_nanometer wikiPageWikiLink 10_nanometres.
- 65_nanometer wikiPageWikiLink 45_nanometer.
- 65_nanometer wikiPageWikiLink 90_nanometer.
- 65_nanometer wikiPageWikiLink AMD.
- 65_nanometer wikiPageWikiLink AMD_Phenom.
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- 65_nanometer wikiPageWikiLink CMOS.
- 65_nanometer wikiPageWikiLink Category:International_Technology_Roadmap_for_Semiconductors_lithography_nodes.
- 65_nanometer wikiPageWikiLink Celeron.
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- 65_nanometer wikiPageWikiLink Cell_(microprocessor).
- 65_nanometer wikiPageWikiLink Cell_Processor.
- 65_nanometer wikiPageWikiLink Chartered_Semiconductor.
- 65_nanometer wikiPageWikiLink Chartered_Semiconductor_Manufacturing.
- 65_nanometer wikiPageWikiLink Core_(microarchitecture).
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- 65_nanometer wikiPageWikiLink High-k.
- 65_nanometer wikiPageWikiLink High-κ_dielectric.
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- 65_nanometer wikiPageWikiLink IBM_z10.
- 65_nanometer wikiPageWikiLink IBM_z10_(microprocessor).
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- 65_nanometer wikiPageWikiLink Intel_Core_(microarchitecture).
- 65_nanometer wikiPageWikiLink International_Electron_Devices_Meeting.
- 65_nanometer wikiPageWikiLink Lattice_constant.
- 65_nanometer wikiPageWikiLink Leakage_(electronics).
- 65_nanometer wikiPageWikiLink Leakage_(semiconductors).
- 65_nanometer wikiPageWikiLink Loongson.
- 65_nanometer wikiPageWikiLink Low-k.
- 65_nanometer wikiPageWikiLink Low-k_dielectric.
- 65_nanometer wikiPageWikiLink MOSFET.
- 65_nanometer wikiPageWikiLink NVIDIA.
- 65_nanometer wikiPageWikiLink Nvidia.
- 65_nanometer wikiPageWikiLink OMAP.
- 65_nanometer wikiPageWikiLink Optical_proximity_correction.
- 65_nanometer wikiPageWikiLink Pentium_4.
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- 65_nanometer wikiPageWikiLink Phase-shift_mask.
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- 65_nanometer wikiPageWikiLink Phenom_(processor).
- 65_nanometer wikiPageWikiLink Photolithography.
- 65_nanometer wikiPageWikiLink PlayStation_3.
- 65_nanometer wikiPageWikiLink Quantum_tunneling.
- 65_nanometer wikiPageWikiLink Quantum_tunnelling.
- 65_nanometer wikiPageWikiLink Ribosome.
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- 65_nanometer wikiPageWikiLink Silicon.
- 65_nanometer wikiPageWikiLink Sossaman_(microprocessor).
- 65_nanometer wikiPageWikiLink TSMC.
- 65_nanometer wikiPageWikiLink Texas_Instruments_OMAP.
- 65_nanometer wikiPageWikiLink Turion_64_X2.
- 65_nanometer wikiPageWikiLink Turion_Ultra.
- 65_nanometer wikiPageWikiLink UltraSPARC_T2.
- 65_nanometer wikiPageWikiLink United_Microelectronics_Corporation.
- 65_nanometer wikiPageWikiLink VIA_Nano.
- 65_nanometer wikiPageWikiLink Xeon.
- 65_nanometer wikiPageWikiLinkText "65 nanometer".
- 65_nanometer wikiPageWikiLinkText "65 nm process".
- 65_nanometer wikiPageWikiLinkText "65 nm".
- 65_nanometer wikiPageWikiLinkText "65".
- 65_nanometer wikiPageWikiLinkText "65 nm process".
- 65_nanometer wikiPageWikiLinkText "65 nm".
- 65_nanometer wikiPageWikiLinkText "65nm".
- 65_nanometer wikiPageWikiLinkText "Fujitsu 65 nm process".
- 65_nanometer hasPhotoCollection 65_nanometer.
- 65_nanometer list "CMOS manufacturing processes".
- 65_nanometer next "45.0".
- 65_nanometer prev "90.0".
- 65_nanometer wikiPageUsesTemplate Template:CMOS_manufacturing_processes.
- 65_nanometer wikiPageUsesTemplate Template:Cite_news.
- 65_nanometer wikiPageUsesTemplate Template:Reflist.
- 65_nanometer wikiPageUsesTemplate Template:Sequence.
- 65_nanometer subject Category:International_Technology_Roadmap_for_Semiconductors_lithography_nodes.
- 65_nanometer hypernym Node.
- 65_nanometer type Settlement.
- 65_nanometer comment "The 65 nanometer (65 nm) process is advanced lithographic node used in volume CMOS semiconductor fabrication. Printed linewidths (i.e., transistor gate lengths) can reach as low as 25 nm on a nominally 65 nm process, while the pitch between two lines may be greater than 130 nm. For comparison, cellular ribosomes are about 20 nm end-to-end. A crystal of bulk silicon has a lattice constant of 0.543 nm, so such transistors are on the order of 100 atoms across.".
- 65_nanometer label "65 nanometer".
- 65_nanometer sameAs 65_nm.
- 65_nanometer sameAs 65_nanómetros.
- 65_nanometer sameAs 65_nm.
- 65_nanometer sameAs 65_nm_공정.
- 65_nanometer sameAs 65_nanômetros.
- 65_nanometer sameAs m.05zf__.
- 65_nanometer sameAs Q869122.