|
Each index entry below is accompanied by an author's name and a page number; the author index contains the title of the paper and the names of coauthors, if any. |
| |
Aluminum
Interconnect opportunities for gigascale integration
| Meindl
| 245 |
| |
Arithmetic and logical unit design
POWER4 system microarchitecture
| Tendler
| 5 |
| |
ASICs
Embedded DRAM design and architecture for the IBM 0.11-µm ASIC offering
| Barth
| 675 |
| Issues and strategies for the physical design of system-on-a-chip ASICs
| Bednar
| 661 |
| The IBM ASIC/SoC methodology—A recipe for first-time success
| Doerre
| 649 |
| |
Autonomic computing
Flexible configuration and concurrent upgrade for the IBM eServer z900
| Probst
| 551 |
| Hardware configuration framework for the IBM eServer z900
| Bieswanger
| 537 |
| Intelligent Resource Director
| Rooney
| 567 |
| RAS design for the IBM eServer z900
| Alves
| 503 |
| System control structure of the IBM eServer z900
| Baitinger
| 523 |
| The alternate support element, a high-availability service console for the IBM eServer z900
| Valentine
| 559 |
| |
Built-in self-test (BIST)
Embedded DRAM design and architecture for the IBM 0.11-µm ASIC offering
| Barth
| 675 |
| The circuit and physical design of the POWER4 microprocessor
| Warnock
| 27 |
| |
Circuit and device technology
IBM eServer z900 high-frequency microprocessor technology, circuits, and design methodology
| Curran
| 631 |
| The circuit and physical design of the POWER4 microprocessor
| Warnock
| 27 |
| |
Clocking
The circuit and physical design of the POWER4 microprocessor
| Warnock
| 27 |
| |
CMOS
Beyond the conventional transistor
| Wong
| 133 |
| Challenges and future directions for the scaling of dynamic random-access memory (DRAM)
| Mandelman
| 187 |
| CMOS design near the limit of scaling
| Taur
| 213 |
| CMOS scaling beyond the 100-nm node with silicon-dioxide-based gate dielectrics
| Wu
| 287 |
| Effect of increasing chip density on the evolution of computer architectures
| Nair
| 223 |
| Maintaining the benefits of CMOS scaling when scaling bogs down
| Nowak
| 169 |
| New insights into carrier transport in n-MOSFETs
| Lochtefeld
| 347 |
| Power-constrained CMOS scaling limits
| Frank
| 235 |
| POWER4 system microarchitecture
| Tendler
| 5 |
| Process modeling for future technologies
| Law
| 339 |
| Process requirements for continued scaling of CMOS—the need and prospects for atomic-level manipulation
| Agnello
| 317 |
| Reliability limits for the gate insulator in CMOS technology
| Stathis
| 265 |
| SOI technology for the GHz era
| Shahidi
| 121 |
| The circuit and physical design of the POWER4 microprocessor
| Warnock
| 27 |
| Vertically scaled MOSFET gate stacks and junctions: How far are we likely to go?
| Osburn
| 299 |
| Why BiCMOS and SOI BiCMOS?
| Ning
| 181 |
| |
Codes and coding
IBM eServer z900 system microcode verification by simulation: The virtual power-on process
| Koerner
| 587 |
| z/CECSIM: An efficient and comprehensive microcode simulator for the IBM eServer z900
| von Buttlar
| 607 |
| |
Computer architecture
Development and attributes of z/Architecture
| Plambeck
| 367 |
| Flexible configuration and concurrent upgrade for the IBM eServer z900
| Probst
| 551 |
| Hardware configuration framework for the IBM eServer z900
| Bieswanger
| 537 |
| IBM eServer z900 I/O subsystem
| Stigliani
| 421 |
| System control structure of the IBM eServer z900
| Baitinger
| 523 |
| The microarchitecture of the IBM eServer z900 processor
| Schwarz
| 381 |
| |
Computer organization and design
A power, packaging, and cooling overview of the IBM eServer z900
| Singh
| 711 |
| POWER4 system microarchitecture
| Tendler
| 5 |
| |
Computer system availability
The alternate support element, a high-availability service console for the IBM eServer z900
| Valentine
| 559 |
| |
Cooling
An advanced multichip module (MCM) for high-performance UNIX servers
| Knickerbocker
| 779 |
| Design and analysis of a scheme to mitigate condensation on an assembly used to cool a processor module
| Ellsworth
| 753 |
| High-end server low-temperature cooling
| Schmidt
| 739 |
| |
Copper
Interconnect opportunities for gigascale integration
| Meindl
| 245 |
| Reliability limits for the gate insulator in CMOS technology
| Stathis
| 265 |
| |
Damascene process
Beyond the conventional transistor
| Wong
| 133 |
| |
Device design
IBM eServer z900 high-frequency microprocessor technology, circuits, and design methodology
| Curran
| 631 |
| |
Dielectrics
Beyond the conventional transistor
| Wong
| 133 |
| CMOS scaling beyond the 100-nm node with silicon-dioxide-based gate dielectrics
| Wu
| 287 |
| Interconnect opportunities for gigascale integration
| Meindl
| 245 |
| Maintaining the benefits of CMOS scaling when scaling bogs down
| Nowak
| 169 |
| Power-constrained CMOS scaling limits
| Frank
| 235 |
| SOI technology for the GHz era
| Shahidi
| 121 |
| Vertically scaled MOSFET gate stacks and junctions: How far are we likely to go?
| Osburn
| 299 |
| |
ESCON architecture
IBM eServer z900 I/O subsystem
| Stigliani
| 421 |
| |
Etching
Beyond the conventional transistor
| Wong
| 133 |
| Challenges and future directions for the scaling of dynamic random-access memory (DRAM)
| Mandelman
| 187 |
| Process requirements for continued scaling of CMOS—the need and prospects for atomic-level manipulation
| Agnello
| 317 |
| |
Fault tolerance
Fault-tolerant design of the IBM pSeries 690 system using POWER4 processor technology
| Bossen
| 77 |
| |
Films, metal
Beyond the conventional transistor
| Wong
| 133 |
| Process requirements for continued scaling of CMOS—the need and prospects for atomic-level manipulation
| Agnello
| 317 |
| |
Films, oxide
Beyond the conventional transistor
| Wong
| 133 |
| Process requirements for continued scaling of CMOS—the need and prospects for atomic-level manipulation
| Agnello
| 317 |
| |
Finite element analysis
Design and analysis of a scheme to mitigate condensation on an assembly used to cool a processor module
| Ellsworth
| 753 |
| |
I/O devices, systems, and technology
Coupling I/O channels for the IBM eServer z900: Reengineering required
| Gregg
| 461 |
| FCP for the IBM eServer zSeries systems: Access to distributed storage
| Adlung
| 487 |
| Hierarchical indexing data structure method for verifying the functionality of the STI-to-PCI bridge chips of the IBM eServer z900
| Silverio
| 617 |
| Hyper-acceleration and HW/SW co-verification as an essential part of IBM eServer z900 verification
| Kayser
| 597 |
| IBM eServer z900 I/O subsystem
| Stigliani
| 421 |
| Self-timed interface of the input/output subsystem of the IBM eServer z900
| Hoke
| 447 |
| zSeries features for optimized sockets-based messaging: HiperSockets and OSA-Express
| Baskey
| 475 |
| |
IBM eServer z900
Coupling I/O channels for the IBM eServer z900: Reengineering required
| Gregg
| 461 |
| Development and attributes of z/Architecture
| Plambeck
| 367 |
| FCP for the IBM eServer zSeries systems: Access to distributed storage
| Adlung
| 487 |
| First- and second-level packaging for the IBM eServer z900
| Harrer
| 397 |
| Flexible configuration and concurrent upgrade for the IBM eServer z900
| Probst
| 551 |
| Hardware configuration framework for the IBM eServer z900
| Bieswanger
| 537 |
| Hierarchical indexing data structure method for verifying the functionality of the STI-to-PCI bridge chips of the IBM eServer z900
| Silverio
| 617 |
| Hyper-acceleration and HW/SW co-verification as an essential part of IBM eServer z900 verification
| Kayser
| 597 |
| IBM eServer z900 high-frequency microprocessor technology, circuits, and design methodology
| Curran
| 631 |
| IBM eServer z900 I/O subsystem
| Stigliani
| 421 |
| IBM eServer z900 system microcode verification by simulation: The virtual power-on process
| Koerner
| 587 |
| Intelligent Resource Director
| Rooney
| 567 |
| RAS design for the IBM eServer z900
| Alves
| 503 |
| Self-timed interface of the input/output subsystem of the IBM eServer z900
| Hoke
| 447 |
| System control structure of the IBM eServer z900
| Baitinger
| 523 |
| The alternate support element, a high-availability service console for the IBM eServer z900
| Valentine
| 559 |
| The microarchitecture of the IBM eServer z900 processor
| Schwarz
| 381 |
| z/CECSIM: An efficient and comprehensive microcode simulator for the IBM eServer z900
| von Buttlar
| 607 |
| zSeries features for optimized sockets-based messaging: HiperSockets and OSA-Express
| Baskey
| 475 |
| |
Insulators
CMOS scaling beyond the 100-nm node with silicon-dioxide-based gate dielectrics
| Wu
| 287 |
| Interconnect opportunities for gigascale integration
| Meindl
| 245 |
| Power-constrained CMOS scaling limits
| Frank
| 235 |
| Process modeling for future technologies
| Law
| 339 |
| Reliability limits for the gate insulator in CMOS technology
| Stathis
| 265 |
| |
Integrated circuit design
Challenges and future directions for the scaling of dynamic random-access memory (DRAM)
| Mandelman
| 187 |
| CMOS design near the limit of scaling
| Taur
| 213 |
| CMOS scaling beyond the 100-nm node with silicon-dioxide-based gate dielectrics
| Wu
| 287 |
| Fault-tolerant design of the IBM pSeries 690 system using POWER4 processor technology
| Bossen
| 77 |
| Infrastructure requirements for a large-scale, multi-site VLSI development project
| Rodgers
| 87 |
| Maintaining the benefits of CMOS scaling when scaling bogs down
| Nowak
| 169 |
| New insights into carrier transport in n-MOSFETs
| Lochtefeld
| 347 |
| Power-constrained CMOS scaling limits
| Frank
| 235 |
| POWER4 system microarchitecture
| Tendler
| 5 |
| Reliability limits for the gate insulator in CMOS technology
| Stathis
| 265 |
| SOI technology for the GHz era
| Shahidi
| 121 |
| The circuit and physical design of the POWER4 microprocessor
| Warnock
| 27 |
| Vertically scaled MOSFET gate stacks and junctions: How far are we likely to go?
| Osburn
| 299 |
| |
Integrated circuits
New insights into carrier transport in n-MOSFETs
| Lochtefeld
| 347 |
| Vertically scaled MOSFET gate stacks and junctions: How far are we likely to go?
| Osburn
| 299 |
| |
Interconnection technology
An advanced multichip module (MCM) for high-performance UNIX servers
| Knickerbocker
| 779 |
| First- and second-level packaging for the IBM eServer z900
| Harrer
| 397 |
| IBM eServer z900 I/O subsystem
| Stigliani
| 421 |
| Interconnect opportunities for gigascale integration
| Meindl
| 245 |
| Land grid array sockets for server applications
| Corbin
| 763 |
| Reliability limits for the gate insulator in CMOS technology
| Stathis
| 265 |
| |
Interfaces
CMOS scaling beyond the 100-nm node with silicon-dioxide-based gate dielectrics
| Wu
| 287 |
| Process modeling for future technologies
| Law
| 339 |
| Reliability limits for the gate insulator in CMOS technology
| Stathis
| 265 |
| Vertically scaled MOSFET gate stacks and junctions: How far are we likely to go?
| Osburn
| 299 |
| |
Logic
Early analysis tools for system-on-a-chip design
| Darringer
| 691 |
| |
Logic design and technology
Beyond the conventional transistor
| Wong
| 133 |
| CMOS design near the limit of scaling
| Taur
| 213 |
| Early analysis tools for system-on-a-chip design
| Darringer
| 691 |
| Maintaining the benefits of CMOS scaling when scaling bogs down
| Nowak
| 169 |
| SOI technology for the GHz era
| Shahidi
| 121 |
| |
Management science
Infrastructure requirements for a large-scale, multi-site VLSI development project
| Rodgers
| 87 |
| |
Materials
Process requirements for continued scaling of CMOS—the need and prospects for atomic-level manipulation
| Agnello
| 317 |
| Vertically scaled MOSFET gate stacks and junctions: How far are we likely to go?
| Osburn
| 299 |
| |
Materials technology
Process requirements for continued scaling of CMOS—the need and prospects for atomic-level manipulation
| Agnello
| 317 |
| |
Mathematics
Fast pseudorandom-number generators with modulus 2k or 2k - 1 using fused multiply-add
| Agarwal
| 97 |
| |
Mathematics (applied)
Fast pseudorandom-number generators with modulus 2k or 2k - 1 using fused multiply-add
| Agarwal
| 97 |
| |
Mechanical analysis
Interconnect opportunities for gigascale integration
| Meindl
| 245 |
| |
Mechanical design
A power, packaging, and cooling overview of the IBM eServer z900
| Singh
| 711 |
| High-end server low-temperature cooling
| Schmidt
| 739 |
| Land grid array sockets for server applications
| Corbin
| 763 |
| |
Memory (computer) design and technology
Challenges and future directions for the scaling of dynamic random-access memory (DRAM)
| Mandelman
| 187 |
| Early analysis tools for system-on-a-chip design
| Darringer
| 691 |
| POWER4 system microarchitecture
| Tendler
| 5 |
| |
Memory, cache
Embedded DRAM design and architecture for the IBM 0.11-µm ASIC offering
| Barth
| 675 |
| POWER4 system microarchitecture
| Tendler
| 5 |
| |
Memory, random-access
Challenges and future directions for the scaling of dynamic random-access memory (DRAM)
| Mandelman
| 187 |
| Embedded DRAM design and architecture for the IBM 0.11-µm ASIC offering
| Barth
| 675 |
| SOI technology for the GHz era
| Shahidi
| 121 |
| |
Metallurgy
Challenges and future directions for the scaling of dynamic random-access memory (DRAM)
| Mandelman
| 187 |
| Process requirements for continued scaling of CMOS—the need and prospects for atomic-level manipulation
| Agnello
| 317 |
| |
Microelectronics
Hierarchical indexing data structure method for verifying the functionality of the STI-to-PCI bridge chips of the IBM eServer z900
| Silverio
| 617 |
| The microarchitecture of the IBM eServer z900 processor
| Schwarz
| 381 |
| |
Microprocessor systems and applications
Effect of increasing chip density on the evolution of computer architectures
| Nair
| 223 |
| Fault-tolerant design of the IBM pSeries 690 system using POWER4 processor technology
| Bossen
| 77 |
| Functional verification of the POWER4 microprocessor and POWER4 multiprocessor systems
| Ludden
| 53 |
| IBM eServer z900 high-frequency microprocessor technology, circuits, and design methodology
| Curran
| 631 |
| POWER4 system microarchitecture
| Tendler
| 5 |
| SOI technology for the GHz era
| Shahidi
| 121 |
| The circuit and physical design of the POWER4 microprocessor
| Warnock
| 27 |
| |
Models and modeling
Hardware configuration framework for the IBM eServer z900
| Bieswanger
| 537 |
| Process modeling for future technologies
| Law
| 339 |
| |
Multichip modules (MCMs)
An advanced multichip module (MCM) for high-performance UNIX servers
| Knickerbocker
| 779 |
| Design and analysis of a scheme to mitigate condensation on an assembly used to cool a processor module
| Ellsworth
| 753 |
| First- and second-level packaging for the IBM eServer z900
| Harrer
| 397 |
| High-end server low-temperature cooling
| Schmidt
| 739 |
| |
Multiprocessors
Effect of increasing chip density on the evolution of computer architectures
| Nair
| 223 |
| Functional verification of the POWER4 microprocessor and POWER4 multiprocessor systems
| Ludden
| 53 |
| POWER4 system microarchitecture
| Tendler
| 5 |
| |
Nanoscale structures and devices
Beyond the conventional transistor
| Wong
| 133 |
| Power-constrained CMOS scaling limits
| Frank
| 235 |
| Process requirements for continued scaling of CMOS—the need and prospects for atomic-level manipulation
| Agnello
| 317 |
| Vertically scaled MOSFET gate stacks and junctions: How far are we likely to go?
| Osburn
| 299 |
| |
Noise
A power, packaging, and cooling overview of the IBM eServer z900
| Singh
| 711 |
| |
Packaging
A power, packaging, and cooling overview of the IBM eServer z900
| Singh
| 711 |
| An advanced multichip module (MCM) for high-performance UNIX servers
| Knickerbocker
| 779 |
| Design and analysis of a scheme to mitigate condensation on an assembly used to cool a processor module
| Ellsworth
| 753 |
| First- and second-level packaging for the IBM eServer z900
| Harrer
| 397 |
| High-end server low-temperature cooling
| Schmidt
| 739 |
| Land grid array sockets for server applications
| Corbin
| 763 |
| POWER4 system microarchitecture
| Tendler
| 5 |
| |
Parallel processing
Coupling I/O channels for the IBM eServer z900: Reengineering required
| Gregg
| 461 |
| Intelligent Resource Director
| Rooney
| 567 |
| |
Performance analysis
Early analysis tools for system-on-a-chip design
| Darringer
| 691 |
| |
Photoresists
Beyond the conventional transistor
| Wong
| 133 |
| |
Power supplies
A power, packaging, and cooling overview of the IBM eServer z900
| Singh
| 711 |
| |
Process control and development
Process modeling for future technologies
| Law
| 339 |
| |
Reduced-instruction-set computers (RISC)
Fault-tolerant design of the IBM pSeries 690 system using POWER4 processor technology
| Bossen
| 77 |
| POWER4 system microarchitecture
| Tendler
| 5 |
| |
Reliability
A power, packaging, and cooling overview of the IBM eServer z900
| Singh
| 711 |
| CMOS scaling beyond the 100-nm node with silicon-dioxide-based gate dielectrics
| Wu
| 287 |
| RAS design for the IBM eServer z900
| Alves
| 503 |
| Reliability limits for the gate insulator in CMOS technology
| Stathis
| 265 |
| Vertically scaled MOSFET gate stacks and junctions: How far are we likely to go?
| Osburn
| 299 |
| |
Servers
A power, packaging, and cooling overview of the IBM eServer z900
| Singh
| 711 |
| Fault-tolerant design of the IBM pSeries 690 system using POWER4 processor technology
| Bossen
| 77 |
| Functional verification of the POWER4 microprocessor and POWER4 multiprocessor systems
| Ludden
| 53 |
| High-end server low-temperature cooling
| Schmidt
| 739 |
| IBM eServer z900 I/O subsystem
| Stigliani
| 421 |
| POWER4 system microarchitecture
| Tendler
| 5 |
| zSeries features for optimized sockets-based messaging: HiperSockets and OSA-Express
| Baskey
| 475 |
| |
Silicides
New insights into carrier transport in n-MOSFETs
| Lochtefeld
| 347 |
| |
Silicon
Beyond the conventional transistor
| Wong
| 133 |
| Maintaining the benefits of CMOS scaling when scaling bogs down
| Nowak
| 169 |
| New insights into carrier transport in n-MOSFETs
| Lochtefeld
| 347 |
| Why BiCMOS and SOI BiCMOS?
| Ning
| 181 |
| |
Silicon dioxide
Beyond the conventional transistor
| Wong
| 133 |
| Maintaining the benefits of CMOS scaling when scaling bogs down
| Nowak
| 169 |
| New insights into carrier transport in n-MOSFETs
| Lochtefeld
| 347 |
| Process modeling for future technologies
| Law
| 339 |
| Process requirements for continued scaling of CMOS—the need and prospects for atomic-level manipulation
| Agnello
| 317 |
| Vertically scaled MOSFET gate stacks and junctions: How far are we likely to go?
| Osburn
| 299 |
| |
Silicon oxidation
New insights into carrier transport in n-MOSFETs
| Lochtefeld
| 347 |
| |
Simulation
Hyper-acceleration and HW/SW co-verification as an essential part of IBM eServer z900 verification
| Kayser
| 597 |
| IBM eServer z900 system microcode verification by simulation: The virtual power-on process
| Koerner
| 587 |
| z/CECSIM: An efficient and comprehensive microcode simulator for the IBM eServer z900
| von Buttlar
| 607 |
| |
Storage (computer) devices and systems
Effect of increasing chip density on the evolution of computer architectures
| Nair
| 223 |
| FCP for the IBM eServer zSeries systems: Access to distributed storage
| Adlung
| 487 |
| |
System-on-a-chip (SoC)
Early analysis tools for system-on-a-chip design
| Darringer
| 691 |
| Embedded DRAM design and architecture for the IBM 0.11-µm ASIC offering
| Barth
| 675 |
| Issues and strategies for the physical design of system-on-a-chip ASICs
| Bednar
| 661 |
| The IBM ASIC/SoC methodology—A recipe for first-time success
| Doerre
| 649 |
| |
Thermal conduction module (TCM)
POWER4 system microarchitecture
| Tendler
| 5 |
| |
Transistors
Challenges and future directions for the scaling of dynamic random-access memory (DRAM)
| Mandelman
| 187 |
| CMOS design near the limit of scaling
| Taur
| 213 |
| New insights into carrier transport in n-MOSFETs
| Lochtefeld
| 347 |
| Power-constrained CMOS scaling limits
| Frank
| 235 |
| Vertically scaled MOSFET gate stacks and junctions: How far are we likely to go?
| Osburn
| 299 |
| Why BiCMOS and SOI BiCMOS?
| Ning
| 181 |
| |
Transistors, bipolar
Why BiCMOS and SOI BiCMOS?
| Ning
| 181 |
| |
Tunneling
Power-constrained CMOS scaling limits
| Frank
| 235 |
| |
VLSI
Challenges and future directions for the scaling of dynamic random-access memory (DRAM)
| Mandelman
| 187 |
| CMOS design near the limit of scaling
| Taur
| 213 |
| Effect of increasing chip density on the evolution of computer architectures
| Nair
| 223 |
| Infrastructure requirements for a large-scale, multi-site VLSI development project
| Rodgers
| 87 |
| Maintaining the benefits of CMOS scaling when scaling bogs down
| Nowak
| 169 |
| SOI technology for the GHz era
| Shahidi
| 121 |
| Why BiCMOS and SOI BiCMOS?
| Ning
| 181 |