| Subject |
Author |
Page |
| |
| Algorithms |
| | An approximation to the greedy algorithm for differential compression |
Agarwal |
149 |
| | Braids and fibers: Language constructs with architectural support for adaptive responses to memory latencies |
Bacon |
209 |
| | Machine learning methods for transcription data integration |
Holloway |
631 |
| | Self-adapting numerical software (SANS) effort |
Dongarra |
223 |
| |
| Arrays |
| | Design considerations for MRAM |
Maffitt |
25 |
| |
| Biology and biomedical studies |
| | A spatially detailed myofilament model as a basis for large-scale biological simulations |
Hussan |
583 |
| | An assessment of the role of computing in systems biology |
Burbeck |
529 |
| | Computational multiscale modeling in the IUPS Physiome Project: Modeling cardiac electromechanics |
Nickerson |
617 |
| | Graph data management for molecular and cell biology |
Eckman |
545 |
| | Machine learning methods for transcription data integration |
Holloway |
631 |
| | Model-based design approaches in drug discovery: A parallel to traditional engineering approaches |
Schoeberl |
645 |
| | Multiscale biosystems integration: Coupling intracellular network analysis with tissue-patterning simulations |
Peirce |
601 |
| | The Pathway Editor: A tool for managing complex biological networks |
Sorokin |
561 |
| | Visualization of complementary systems biology data with parallel heatmaps |
Podowski |
575 |
| |
| Biotechnology |
| | A spatially detailed myofilament model as a basis for large-scale biological simulations |
Hussan |
583 |
| | An assessment of the role of computing in systems biology |
Burbeck |
529 |
| | Computational multiscale modeling in the IUPS Physiome Project: Modeling cardiac electromechanics |
Nickerson |
617 |
| | Machine learning methods for transcription data integration |
Holloway |
631 |
| | Multiscale biosystems integration: Coupling intracellular network analysis with tissue-patterning simulations |
Peirce |
601 |
| | The Pathway Editor: A tool for managing complex biological networks |
Sorokin |
561 |
| |
| Carrier transport |
| | Germanium channel MOSFETs: Opportunities and challenges |
Shang |
377 |
| |
| Carrier transport in small structures |
| | Continuous MOSFET performance increase with device scaling: The role of strain and channel material innovations |
Antoniadis |
363 |
| |
| Circuit and device technology |
| | High-performance CMOS variability in the 65-nm regime and beyond |
Bernstein |
433 |
| | Limited switch dynamic logic circuits for high-speed low-power circuit design |
Belluomini |
277 |
| | Optimizing CMOS technology for maximum performance |
Frank |
419 |
| | Silicon CMOS devices beyond scaling |
Haensch |
339 |
| | Three-dimensional integrated circuits |
Topol |
491 |
| | Ultralow-voltage, minimum-energy CMOS |
Hanson |
469 |
| |
| CMOS |
| | Advanced high-κ dielectric stacks with polySi and metal gates: Recent progress and current challenges |
Gusev |
387 |
| | Emerging nanoscale silicon devices taking advantage of nanostructure physics |
Hiramoto |
411 |
| | High-performance CMOS variability in the 65-nm regime and beyond |
Bernstein |
433 |
| | Limited switch dynamic logic circuits for high-speed low-power circuit design |
Belluomini |
277 |
| | Optimizing CMOS technology for maximum performance |
Frank |
419 |
| | Product-representative “at speed” test structures for CMOS characterization |
Ketchen |
451 |
| | Silicon CMOS devices beyond scaling |
Haensch |
339 |
| | Ultralow-voltage, minimum-energy CMOS |
Hanson |
469 |
| |
| Compilers and interpreters |
| | Systems research challenges: A scale-out perspective |
Agerwala |
173 |
| |
| Computation |
| | An approximation to the greedy algorithm for differential compression |
Agarwal |
149 |
| |
| Computational methods |
| | Machine learning methods for transcription data integration |
Holloway |
631 |
| | Self-adapting numerical software (SANS) effort |
Dongarra |
223 |
| |
| Computer applications |
| | Building web services for scientific grid applications |
Kandaswamy |
249 |
| |
| Computer architecture |
| | Application of full-system simulation in exploratory system design and development |
Peterson |
321 |
| | Decomposing the load–store queue by function for power reduction and scalability |
Baugh |
287 |
| | IBM Intelligent Bricks project—Petabytes and beyond |
Wilcke |
181 |
| | Reliability of modular mesh-connected intelligent storage brick systems |
Fleiner |
199 |
| | Systems research challenges: A scale-out perspective |
Agerwala |
173 |
| |
| Computer organization and design |
| | Application of full-system simulation in exploratory system design and development |
Peterson |
321 |
| | Decomposing the load–store queue by function for power reduction and scalability |
Baugh |
287 |
| | IBM Intelligent Bricks project—Petabytes and beyond |
Wilcke |
181 |
| | Reliability of modular mesh-connected intelligent storage brick systems |
Fleiner |
199 |
| | Systems research challenges: A scale-out perspective |
Agerwala |
173 |
| | Victim management in a cache hierarchy |
Franaszek |
507 |
| |
| Computer system availability |
| | IBM Intelligent Bricks project—Petabytes and beyond |
Wilcke |
181 |
| | Reliability of modular mesh-connected intelligent storage brick systems |
Fleiner |
199 |
| |
| Computing, grid |
| | Building web services for scientific grid applications |
Kandaswamy |
249 |
| |
| Cooling |
| | IBM Intelligent Bricks project—Petabytes and beyond |
Wilcke |
181 |
| |
| Data, structures and accessing |
| | Graph data management for molecular and cell biology |
Eckman |
545 |
| | Visualization of complementary systems biology data with parallel heatmaps |
Podowski |
575 |
| |
| Databases, relational |
| | Graph data management for molecular and cell biology |
Eckman |
545 |
| |
| Device design |
| | Application of full-system simulation in exploratory system design and development |
Peterson |
321 |
| | Decomposing the load–store queue by function for power reduction and scalability |
Baugh |
287 |
| | Design considerations for MRAM |
Maffitt |
25 |
| | Development of the magnetic tunnel junction MRAM at IBM: From first junctions to a 16-Mb MRAM demonstrator chip |
Gallagher |
5 |
| | Modeling wire delay, area, power, and performance in a simulation infrastructure |
Carter |
311 |
| | Spintronics—A retrospective and perspective |
Wolf |
101 |
| |
| Dielectrics |
| | Advanced high-κ dielectric stacks with polySi and metal gates: Recent progress and current challenges |
Gusev |
387 |
| |
| Drug design |
| | Model-based design approaches in drug discovery: A parallel to traditional engineering approaches |
Schoeberl |
645 |
| |
| Electroluminescence |
| | Highly efficient room-temperature tunnel spin injector using CoFe/MgO(001) |
Jiang |
111 |
| |
| Error detection and correction |
| | HeapMon: A helper-thread approach to programmable, automatic, and low-overhead memory bug detection |
Shetty |
261 |
| |
| Fault tolerance |
| | IBM Intelligent Bricks project—Petabytes and beyond |
Wilcke |
181 |
| |
| Films, magnetic |
| | Two-level BEOL processing for rapid iteration in MRAM development |
Gaidis |
41 |
| |
| Films, semiconductor |
| | Continuous MOSFET performance increase with device scaling: The role of strain and channel material innovations |
Antoniadis |
363 |
| |
| Geonomic and proteomic analysis |
| | Model-based design approaches in drug discovery: A parallel to traditional engineering approaches |
Schoeberl |
645 |
| | Visualization of complementary systems biology data with parallel heatmaps |
Podowski |
575 |
| |
| Graph theory |
| | Graph data management for molecular and cell biology |
Eckman |
545 |
| |
| Graphics |
| | The Pathway Editor: A tool for managing complex biological networks |
Sorokin |
561 |
| |
| Hall effect |
| | Toward dissipationless spin transport in semiconductors |
Bernevig |
141 |
| |
| Insulators |
| | Advanced high-κ dielectric stacks with polySi and metal gates: Recent progress and current challenges |
Gusev |
387 |
| |
| Integrated circuit design |
| | Optimizing CMOS technology for maximum performance |
Frank |
419 |
| | Ultralow-voltage, minimum-energy CMOS |
Hanson |
469 |
| |
| Integrated circuits |
| | Three-dimensional integrated circuits |
Topol |
491 |
| |
| Interconnection technology |
| | Two-level BEOL processing for rapid iteration in MRAM development |
Gaidis |
41 |
| |
| Interfaces |
| | Continuous MOSFET performance increase with device scaling: The role of strain and channel material innovations |
Antoniadis |
363 |
| | The Pathway Editor: A tool for managing complex biological networks |
Sorokin |
561 |
| |
| Junctions |
| | Rapid-turnaround characterization methods for MRAM development |
Abraham |
55 |
| | Single-domain model for toggle MRAM |
Worledge |
69 |
| |
| Large-scale computing |
| | Decomposing the load–store queue by function for power reduction and scalability |
Baugh |
287 |
| | Limited switch dynamic logic circuits for high-speed low-power circuit design |
Belluomini |
277 |
| |
| Logic design and technology |
| | Decomposing the load–store queue by function for power reduction and scalability |
Baugh |
287 |
| | Limited switch dynamic logic circuits for high-speed low-power circuit design |
Belluomini |
277 |
| |
| Magnetic random access memory (MRAM) |
| | Design considerations for MRAM |
Maffitt |
25 |
| | Development of the magnetic tunnel junction MRAM at IBM: From first junctions to a 16-Mb MRAM demonstrator chip |
Gallagher |
5 |
| | Rapid-turnaround characterization methods for MRAM development |
Abraham |
55 |
| | Single-domain model for toggle MRAM |
Worledge |
69 |
| | Spin angular momentum transfer in current-perpendicular nanomagnetic junctions |
Sun |
81 |
| | Spintronics—A retrospective and perspective |
Wolf |
101 |
| | Two-level BEOL processing for rapid iteration in MRAM development |
Gaidis |
41 |
| |
| Magnetics—studies and structures |
| | Bipolar spintronics: Fundamentals and applications |
Žutić |
121 |
| | Development of the magnetic tunnel junction MRAM at IBM: From first junctions to a 16-Mb MRAM demonstrator chip |
Gallagher |
5 |
| | Highly efficient room-temperature tunnel spin injector using CoFe/MgO(001) |
Jiang |
111 |
| | Rapid-turnaround characterization methods for MRAM development |
Abraham |
55 |
| | Single-domain model for toggle MRAM |
Worledge |
69 |
| | Spin angular momentum transfer in current-perpendicular nanomagnetic junctions |
Sun |
81 |
| |
| Magnetoresistance |
| | Spintronics—A retrospective and perspective |
Wolf |
101 |
| |
| Manufacturing |
| | Product-representative “at speed” test structures for CMOS characterization |
Ketchen |
451 |
| |
| Mathematical functions and techniques |
| | Machine learning methods for transcription data integration |
Holloway |
631 |
| |
| Memory (computer) design and technology |
| | Braids and fibers: Language constructs with architectural support for adaptive responses to memory latencies |
Bacon |
209 |
| | HeapMon: A helper-thread approach to programmable, automatic, and low-overhead memory bug detection |
Shetty |
261 |
| | Victim management in a cache hierarchy |
Franaszek |
507 |
| |
| Memory (computer) management |
| | Braids and fibers: Language constructs with architectural support for adaptive responses to memory latencies |
Bacon |
209 |
| | Victim management in a cache hierarchy |
Franaszek |
507 |
| |
| Memory, cache |
| | High-quality ISA synthesis for low-power cache designs in embedded microprocessors |
Cheng |
299 |
| | Victim management in a cache hierarchy |
Franaszek |
507 |
| |
| Memory, random-access |
| | Development of the magnetic tunnel junction MRAM at IBM: From first junctions to a 16-Mb MRAM demonstrator chip |
Gallagher |
5 |
| |
| Microprocessor systems and applications |
| | Application of full-system simulation in exploratory system design and development |
Peterson |
321 |
| | Decomposing the load–store queue by function for power reduction and scalability |
Baugh |
287 |
| | Modeling wire delay, area, power, and performance in a simulation infrastructure |
Carter |
311 |
| |
| Models and modeling |
| | A spatially detailed myofilament model as a basis for large-scale biological simulations |
Hussan |
583 |
| | Application of full-system simulation in exploratory system design and development |
Peterson |
321 |
| | Computational multiscale modeling in the IUPS Physiome Project: Modeling cardiac electromechanics |
Nickerson |
617 |
| | Model-based design approaches in drug discovery: A parallel to traditional engineering approaches |
Schoeberl |
645 |
| | Modeling wire delay, area, power, and performance in a simulation infrastructure |
Carter |
311 |
| | Multiscale biosystems integration: Coupling intracellular network analysis with tissue-patterning simulations |
Peirce |
601 |
| | Single-domain model for toggle MRAM |
Worledge |
69 |
| |
| Molecular structure modeling |
| | A spatially detailed myofilament model as a basis for large-scale biological simulations |
Hussan |
583 |
| |
| Multimedia |
| | Three-dimensional integrated circuits |
Topol |
491 |
| |
| Nanoscale structures and devices |
| | Emerging nanoscale silicon devices taking advantage of nanostructure physics |
Hiramoto |
411 |
| | Spin angular momentum transfer in current-perpendicular nanomagnetic junctions |
Sun |
81 |
| |
| Numerical integration |
| | Self-adapting numerical software (SANS) effort |
Dongarra |
223 |
| |
| Operating systems |
| | Systems research challenges: A scale-out perspective |
Agerwala |
173 |
| |
| Parallel processing |
| | Systems research challenges: A scale-out perspective |
Agerwala |
173 |
| |
| Performance analysis |
| | Optimizing CMOS technology for maximum performance |
Frank |
419 |
| | Performance and environment monitoring for continuous program optimization |
Caşcaval |
239 |
| | Product-representative “at speed” test structures for CMOS characterization |
Ketchen |
451 |
| |
| Physics, solid state |
| | Bipolar spintronics: Fundamentals and applications |
Žutić |
121 |
| | Emerging nanoscale silicon devices taking advantage of nanostructure physics |
Hiramoto |
411 |
| | Silicon CMOS devices beyond scaling |
Haensch |
339 |
| | Toward dissipationless spin transport in semiconductors |
Bernevig |
141 |
| |
| Power management |
| | High-performance CMOS variability in the 65-nm regime and beyond |
Bernstein |
433 |
| | High-quality ISA synthesis for low-power cache designs in embedded microprocessors |
Cheng |
299 |
| | Optimizing CMOS technology for maximum performance |
Frank |
419 |
| | Ultralow-voltage, minimum-energy CMOS |
Hanson |
469 |
| |
| Process control and development |
| | Three-dimensional integrated circuits |
Topol |
491 |
| |
| Programming systems |
| | High-quality ISA synthesis for low-power cache designs in embedded microprocessors |
Cheng |
299 |
| | Performance and environment monitoring for continuous program optimization |
Caşcaval |
239 |
| |
| Semiconductor devices |
| | Silicon CMOS devices beyond scaling |
Haensch |
339 |
| |
| Semiconductor technology |
| | Continuous MOSFET performance increase with device scaling: The role of strain and channel material innovations |
Antoniadis |
363 |
| | Optimizing CMOS technology for maximum performance |
Frank |
419 |
| | Ultralow-voltage, minimum-energy CMOS |
Hanson |
469 |
| |
| Semiconductors |
| | Highly efficient room-temperature tunnel spin injector using CoFe/MgO(001) |
Jiang |
111 |
| | Toward dissipationless spin transport in semiconductors |
Bernevig |
141 |
| |
| Silicon |
| | Optimizing CMOS technology for maximum performance |
Frank |
419 |
| | Ultralow-voltage, minimum-energy CMOS |
Hanson |
469 |
| |
| Silicon–germanium |
| | Continuous MOSFET performance increase with device scaling: The role of strain and channel material innovations |
Antoniadis |
363 |
| | Germanium channel MOSFETs: Opportunities and challenges |
Shang |
377 |
| |
| Silicon-on-insulator (SOI) |
| | Germanium channel MOSFETs: Opportunities and challenges |
Shang |
377 |
| |
| Simulation |
| | A spatially detailed myofilament model as a basis for large-scale biological simulations |
Hussan |
583 |
| | An assessment of the role of computing in systems biology |
Burbeck |
529 |
| | Application of full-system simulation in exploratory system design and development |
Peterson |
321 |
| | Computational multiscale modeling in the IUPS Physiome Project: Modeling cardiac electromechanics |
Nickerson |
617 |
| | Modeling wire delay, area, power, and performance in a simulation infrastructure |
Carter |
311 |
| | Multiscale biosystems integration: Coupling intracellular network analysis with tissue-patterning simulations |
Peirce |
601 |
| |
| Spintronics |
| | Bipolar spintronics: Fundamentals and applications |
Žutić |
121 |
| | Design considerations for MRAM |
Maffitt |
25 |
| | Development of the magnetic tunnel junction MRAM at IBM: From first junctions to a 16-Mb MRAM demonstrator chip |
Gallagher |
5 |
| | Highly efficient room-temperature tunnel spin injector using CoFe/MgO(001) |
Jiang |
111 |
| | Rapid-turnaround characterization methods for MRAM development |
Abraham |
55 |
| | Single-domain model for toggle MRAM |
Worledge |
69 |
| | Spin angular momentum transfer in current-perpendicular nanomagnetic junctions |
Sun |
81 |
| | Spintronics—A retrospective and perspective |
Wolf |
101 |
| | Toward dissipationless spin transport in semiconductors |
Bernevig |
141 |
| | Two-level BEOL processing for rapid iteration in MRAM development |
Gaidis |
41 |
| |
| Testing |
| | HeapMon: A helper-thread approach to programmable, automatic, and low-overhead memory bug detection |
Shetty |
261 |
| |
| Testing, chip |
| | Rapid-turnaround characterization methods for MRAM development |
Abraham |
55 |
| | Two-level BEOL processing for rapid iteration in MRAM development |
Gaidis |
41 |
| |
| Testing, circuit |
| | Product-representative “at speed” test structures for CMOS characterization |
Ketchen |
451 |
| |
| Transistors |
| | Optimizing CMOS technology for maximum performance |
Frank |
419 |
| | Ultralow-voltage, minimum-energy CMOS |
Hanson |
469 |
| |
| Transistors, bipolar |
| | Bipolar spintronics: Fundamentals and applications |
Žutić |
121 |
| |
| Web services |
| | Building web services for scientific grid applications |
Kandaswamy |
249 |