Absorptive Capacity 280 Acquired Knowledge 49

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Absorptive Capacity 280 Acquired Knowledge 49 317 Index a Atomic Spectroscopy And Collisions Using absorptive capacity 280 Slow Antiprotons (ASACUSA) 165 acquired knowledge 49 a toroidal LHC apparatus (ATLAS) 82, 199 acquisition, of skills 55 ADA language 154 b adaptability 5, 6 backup 79 Adobe 79 battle-field awareness systems 154 advanced resource connector (ARC) 93 Bayh–Dole Act 260 aeroplane design 141 Beath’s analysis 285 aerosol chemistry 184 Big Data African university of science and technology – analysis 307 (AUST) 220 – analytics 180, 251–253 airborne collision avoidance systems – applications in medicine 252 154 – computational modelling in medicine 252 Airborne Collision Avoidance System X – healthcare singularity 251 (ACAS X) 154 –‘long-tail medicine’ drugs 253 airborne software 154 biomimicry 190 Airbus 380 143 Boeing 747 143 – CFD simulation 147 Boeing Company 146, 147 aircraft movement at peak traffic 155 bounded rationality concept 233 Air Data Monitor (ADM) 154 brain drain 1 airguns 98 B-Spline (Basis Spline) 150 air traffic control chart 155 bump bonds 200 Air Traffic Control (ATC) system 155 – interconnect technology 213 A large ion collider experiment (ALICE) bureaucratic regulatory environments 240 199 American Physical Society (APS) 217, 218 c analytical skill 8 CAD applications in aircraft design, and antimatter 159 manufacturing 152 – and CERN 162–164 CAD software 149, 150 – energy 167 cancer therapy ‘toolbox’ 168 – research 169 capacitor 104 Antiproton Cell Experiment (ACE) 169 carbon cycles 184 Antiproton Decelerator (AD) 164 career development 52 – at CERN 165 Cargo Smoke Detector System (CSDS), 154 Apple 97 Ceefax 70 Apple’s version of operating system central processing unit (CPU) 108 (‘Mavericks’)79 central receiver systems, STE technologies 121 astronomy, grid 86 – reflecting elements, helisotats reflect 121 From Physics to Daily Life: Applications in Informatics, Energy, and Environment, First Edition. Edited by Beatrice Bressan. 2014 Wiley-VCH Verlag GmbH & Co. KGaA. Published 2014 by Wiley-VCH Verlag GmbH & Co. KGaA. 318 Index – solar flux incident 122 commercial CFD software 147 CERN 1 communications 55 – antimatter facility 164–166 – modern tools of 55 – centre of knowledge production/ – scattered software segments 182 dissemination 1 communities of innovation (CoI) 28 CERN SPS Accelerator, novelty for control communities of practice (CoP) 28 room community planners 173 – central processing unit (CPU) 108 compact disc read-only memory (CD- – cheaper touch detector circuits 108 ROM) 61 – computer-based message transmission compact linear fresnel concentrators, STE systems 106 technologies 122 – computer-controlled brake 107 – hybrid design 122 – computer-controlled knob 107 – link between parabolic-troughs and central – consoles for super proton synchrotron receiver systems 122 (SPS) 106 compact muon solenoid (CMS) 199 – fixed buttons 106 competencies, for labour market 55 – general-purpose consoles 106 complementary metal oxide semiconductor – general view, CERN accelerator control (CMOS) 201 console 110 comprehension skill 8 – intelligent touch terminal 108 CompuServe 70 – intelligent touch terminal for CERN computed tomography (CT) 205 antiproton accumulator (AA) 109 Computer-Aided Design (CAD) system – joint european torus (JET), 109 149–151 – microchips, development 107 Computer-Aided Manufacturing (CAM) – microcomputer 108 system 149–151 – minicomputers 106 computer application 70 – mutual capacitance multitouch screen 107 Computer-Augmented Design And – network-orientated document abstraction Manufacturing (CADAM) system 150 language (NODAL) 107 computer-based message transmission – novelty for the control room 106–109 systems 106 – personal computer (PC) 108 computer-based simulation 177 – phase-locked loop circuits 108 computer-controlled valve 112 – self-capacitance transparent touch computers screen 107 – automatic check-in 141 – small table-top cabinet 108 – based simulation 177 – touch terminal from NESELCO. 109 – computing in structural and aerodynamic – TV raster scan displays 107 analysis 145–148 Citizen Science networks 173 – electronic reservation 141 Cloud 78 – microprocessor timeline 145 – computing 100, 182, 183 – multi petaflops performance 178 – formation 184 – supercomputers’ timeline 145 – services 92 – transform aspect CMS (compact muon solenoid) 82 –– aviation and aerospace 141 cognitive capitalism 241 – visual presentation of early history 143, 144 collaborations Computer Science 80 – pooling of resources and exploitation of latest computing and networking (CN) 67 CMOS processes 214 computing hierarchy 182 – and social media platforms 29 concentrated solar radiation 134 – university collaborations, France firms conceptualization with 257 – direction 38 – university collaborations, Switzerland firms – hierarchical levels 38 with 257 –– spiral of 39 combination 10 – leads to terminology or language 34 Index 319 – perception process 38 – elementary layers 183, 184 conducted expeditions 231 – hydrological cycle 184 control sequence applications – intrinsic complexity 184 – software developer 110 – Milankovitch cycles 184 convection 184 – oceans 184 cosmic radiation 196 – special phenomena 184 cost-effective, peer production 229 Earth Science applications, grid 86 creative destruction 233, 234 Earth Simulation Centre 173 culture Earth–Sun System 184 – of managing knowledge 22 Earth System 176, 177, 179, 184 – for sharing and collaboration 21 – computational modelling 185 – Coupled Model Inter-comparison Project 5 d (CMIP5) 192 daemons 77 – extreme events, prediction and uncertainty data handling division 66 of 186–189 data-intensive healthcare 251–253 – impact on cities and bioregions 189, 190 data-rich environment 180 – Integrated Assessment Models (IAMs) 192 deforestation 174 – modelling the whole-earth system 191–193 demise of socialism 237 – multiple nonlinear feedback loops 187 democratizing scientific research 223 – simulation 182 detector – towards urban resilience 190, 191 – gas detector readout 208 Earth System Grid Federation (ESGF) 99 – hybrid pixel (See hybrid pixel detector) Earth System Models 187, 189, 192 – LEEM 211 – features sequentially integrated into 186 – LHCb vertex detector 213 economic death 240 – Medipix3 212, 213 economic discourse 232 – PIXcel 208 economic growth 229, 239 – sensitive 206 – real engine of 237 – type of 195 economic planning 236 digital fly-by-wire (FBW) system 153 economic reasoning 247 disasters 174, 189 economic slowdown 237 – Big Data analytics 180 economies of scale 232 – challenges associated with management ecosystem of technologies 250–253 174 ECP. See electronics and computing for physics – cost of hurricane evacuation 180 (ECP) – forecasting tools 174 edge effects 177 – knowledge of planetary change 174 EDS. See electronic data systems (EDS) – natural catastrophes 175 EEC. See Electronic Engine Control (EEC) – prediction and uncertainty of extreme efficiency 5 events 186–189 EFPs. See European Framework Programmes –– challenges 186 (EFPs) –– current global models 187 EGI. See European Grid Infrastructure (EGI) –– Multiple Synchronous Collapse 187, 188 EGI-DS. See European Grid Initiative Design – storm track forecasting, improvements Study (EGI-DS) in 180 electromagnetic force 160 discovery procedure 237 electromagnetic waves 216 DNA molecule 219 electronic data systems (EDS) 88 Doppler radar 191 Electronic Engine Control (EEC) 154 Douglas Commercial-3 (DC-3) 141, 142 electronics and computing for physics (ECP) 67 e e-mail 8 Earth 183 emergency responders 173 – carbon and nitrogen cycles 184 energy budget, of the Universe 161 320 Index energy, STE plants – and on-board systems 151–153 – thermal storage 137, 138 Fourier’s law 135 ––extension of electricity delivery period 139 fourmode of knowledge conversion 9, 12, 13, 40 –– mediums and their characteristics 138 Future and Emerging Technologies (FET) 251 –– photovoltaic plants 137 –– renewable energy systems 137 g –– salt mixture of potassium nitrates 137 gallium arsenide (GaAs) 200 –– salt mixture of sodium 137 gas electron multiplier (GEM) foils 202 –– Spanish Gemasolar plant 137 GBAR. See Gravitational Behaviour of –– working fluid 137 Antihydrogen at Rest (GBAR) enterprise content management (ECM) 28, 29 general theory of relativity 217 enterprise portal 29 geocluster 98, 99 environment geoengineering 178 – for collaborative knowledge sharing/ Geographic Information Systems (GIS) 191 ICTs 28, 29 geoscientists, petroleum reservoirs equity 240 knowledge 97 ESA. See European Space Agency (ESA) Germany ESRF. See European synchrotron radiation – firms with university collaborations 257 facility (ESRF) GIS. See Geographic Information Systems (GIS) ESTELA. See European solar thermal electricity gLite 93 association; European Solar Thermal Global Distribution Systems (GDSs) 156 Electricity Association (ESTELA) global economy 5 e-Therapeutics 94 Global Positioning System (GPS) 103 EUDET Collaboration 208 – system 162, 165 European Framework Programmes (EFPs) 268 Global Positioning System Sensor Unit European Grid Infrastructure (EGI) 91 (GPSSU) 154 European Grid Initiative Design Study global system for mobile (GSM) phone 70 (EGI-DS) 91 global warming 174, 186 European Solar Thermal Electricity Association Google 69 (ESTELA) 122 Google Earth 77, 181 European Space Agency (ESA) 101 Google’s applications 77 European synchrotron radiation facility GPS. See Global Positioning System (GPS) (ESRF) 205 graphene flakes 210 exosphere 184 Gravitational Behaviour of Antihydrogen at exploitation 231 Rest (GBAR) 166, 169 externalization
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