LEADER 05491nam 2200673 450 001 9910453040103321 005 20200520144314.0 010 $a1-4557-7864-8 035 $a(CKB)2550000001118416 035 $a(EBL)1402499 035 $a(OCoLC)862826359 035 $a(SSID)ssj0001141552 035 $a(PQKBManifestationID)11620326 035 $a(PQKBTitleCode)TC0001141552 035 $a(PQKBWorkID)11091377 035 $a(PQKB)11777988 035 $a(MiAaPQ)EBC1402499 035 $a(PPN)178539724 035 $a(Au-PeEL)EBL1402499 035 $a(CaPaEBR)ebr10764913 035 $a(CaONFJC)MIL518756 035 $a(EXLCZ)992550000001118416 100 $a20131009d2014 uy| 0 101 0 $aeng 135 $aur|n||||||||| 181 $ctxt 182 $cc 183 $acr 200 00$aNanotube superfiber materials $echanging engineering design /$fedited by Mark J. Schulz, Vesselin N. Shanov, Zhangzhang Yin 205 $aFirst edition. 210 1$aOxford, UK :$cWilliam Andrew,$d2014. 215 $a1 online resource (861 p.) 225 1 $aMicro & nano technologies series 300 $aDescription based upon print version of record. 311 $a1-4557-7863-X 311 $a1-299-87505-X 320 $aIncludes bibliographical references and index. 327 $aFront Cover; Nanotube Superfiber Materials: Changing Engineering Design; Copyright; Contents; Preface; INTRODUCTION TO NANOTUBE MATERIALS; GOALS OF SUPERFIBER RESEARCH; FUTURE PROSPECTS; MAJOR AREAS OF NANOTUBE RESEARCH; BACKGROUND NEEDED FOR STUDYING NANOTUBE MATERIALS; Acknowledgment; Editor Biographies; Chapter 1 - Introduction to Fiber Materials; 1.1 FIBERS AND NANOFIBERS; 1.2 THE CHALLENGE OF CNT YARN FIBER FABRICATION; 1.3 CONCLUSION; References; Chapter 2 - New Applications and Techniques for Nanotube Superfiber Development; 2.1 NEW APPLICATIONS FOR NANOTUBE SUPERFIBER DEVELOPMENT 327 $a2.2 NEW TECHNIQUES FOR NANOTUBE SUPERFIBER DEVELOPMENT2.3 CONCLUSIONS; Acknowledgments; References; Chapter 3 - Tailoring the Mechanical Properties of Carbon Nanotube Fibers; 3.1 INTRODUCTION; 3.2 IRRADIATION CROSS-LINKING: STRONG AND STIFF CNTS AND CNT BUNDLES; 3.3 REFORMABLE BONDING: STRONG AND TOUGH CNT BUNDLES AND FIBERS; 3.4 MATERIALS DESIGN: OPTIMIZED GEOMETRY AND STRUCTURE; 3.5 SUMMARY; Acknowledgments; References; Chapter 4 - Synthesis and Properties of Ultralong Carbon Nanotubes; 4.1 INTRODUCTION; 4.2 SYNTHESIS OF ULTRALONG CNTS BY CVD; 4.3 TUNING THE STRUCTURE OF ULTRALONG CNTS 327 $a4.4 CONCLUSIONSReferences; Chapter 5 - Alloy Hybrid Carbon Nanotube Yarn for Multifunctionality; 5.1 INTRODUCTION; 5.2 ELECTRICAL CONDUCTIVITY OF CNT YARNS; 5.3 METAL DEPOSITION ON CNT MACROSTRUCTURES; 5.4 GAS SENSING APPLICATIONS; 5.5 SUMMARY; References; Chapter 6 - Wet Spinning of CNT-based Fibers; 6.1 INTRODUCTION TO WET SPINNING; 6.2 FIBERS OBTAINED FROM THE COAGULATION OF CARBON NANOTUBES; 6.3 FIBERS OBTAINED FROM THE COAGULATION OF CNT-POLYMER MIXTURES; 6.4 CONCLUSIONS; References; Chapter 7 - Dry Spinning Carbon Nanotubes into Continuous Yarn: Progress, Processing and Applications 327 $a7.1 INTRODUCTION7.2 BASIS OF CNT ASSEMBLY IN MACROSCOPIC STRUCTURES; 7.3 FROM TEXTILE SPINNING TECHNOLOGY TO DRY CNT SPINNING; 7.4 MULTISTEP SPINNING PROCESS USING A DRAFTING SYSTEM; 7.5 SEVERAL TREATMENTS FOR CNT YARN IMPROVEMENT; 7.6 CNT-BASED COMPOSITE YARNS; 7.7 APPLICATIONS OF CNT YARNS; 7.8 CONCLUSION; Acknowledgments; References; Chapter 8 - Synthesis and Properties of Boron Nitride Nanotubes; 8.1 INTRODUCTION; 8.2 NANOTUBES: BASIC STRUCTURE; 8.3 SYNTHESIS OF BNNTS; 8.4 PROPERTIES OF BORON NITRIDE NANOTUBES; 8.5 COMPARISON OF BNNTS AND CNTS; 8.6 SUMMARY; Acknowledgments; References 327 $aChapter 9 - Boron Nitride Nanotubes, Silicon Carbide Nanotubes, and Carbon Nanotubes-A Comparison of Properties and Applica ...9.1 INTRODUCTION; 9.2 BNNT AND SICNT STRUCTURE AND SYNTHESIS; 9.3 COMPOSITES REINFORCED WITH HIGH-TEMPERATURE NANOTUBES; 9.4 APPLICATIONS OF HIGH-TEMPERATURE NANOTUBES; 9.5 CONCLUDING REMARKS; References; Chapter 10 - Carbon Nanotube Fiber Doping; 10.1 INTRODUCTION; 10.2 DOPING; 10.3 SINGLE-WALLED CARBON NANOTUBE DOPING; 10.4 MULTIWALLED CARBON NANOTUBE DOPING; 10.5 CHARACTERIZATION OF DOPED CNTS; 10.6 EXPERIMENTAL CHALLENGES IN CHARACTERIZATION; 10.7 SUMMARY 327 $aAcknowledgments 330 $aNanotube Superfiber Materials refers to different forms of macroscale materials with unique properties constructed from carbon nanotubes. These materials include nanotube arrays, ribbons, scrolls, yarn, braid, and sheets. Nanotube materials are in the early stage of development and this is the first dedicated book on the subject. Transitioning from molecules to materials is a breakthrough that will positively impact almost all industries and areas of society. Key properties of superfiber materials are high flexibility and fatigue resistance, high energy absorption, high strength, go 410 0$aMicro & nano technologies. 606 $aNanostructured materials 608 $aElectronic books. 615 0$aNanostructured materials. 676 $a620.193 701 $aSchulz$b Mark J$0939169 701 $aShanov$b Vesselin N$0939170 701 $aYin$b Zhangzhang$0939171 801 0$bMiAaPQ 801 1$bMiAaPQ 801 2$bMiAaPQ 906 $aBOOK 912 $a9910453040103321 996 $aNanotube superfiber materials$92116954 997 $aUNINA LEADER 00510nam##22001337##450# 001 9910551757303321 010 $a9788869060281 100 $a########d########u##y0engy50####ba 105 0 $a########00### 200 1 $aLa destinazione etica della storia della filosofia in Ernst Cassirer : le testimonianze di Descartes e Goethe / Riccardo De Biase. 700 $aDe Biase, Riccardo, 1964-.$0326688 912 $a9910551757303321 996 $aDestinazione etica della storia della filosofia in Ernst Cassirer$91011741 997 $aUNINA LEADER 03705nam 2200469z- 450 001 9910917180003321 005 20210211 035 $a(CKB)3710000001092123 035 $a(oapen)https://directory.doabooks.org/handle/20.500.12854/49587 035 $a(oapen)doab49587 035 $a(EXLCZ)993710000001092123 100 $a20202102d2016 |y 0 101 0 $aeng 135 $aurmn|---annan 181 $ctxt$2rdacontent 182 $cc$2rdamedia 183 $acr$2rdacarrier 200 00$aHow and Why Does Spatial-Hearing Ability Differ among Listeners? What Is the Role of Learning and Multisensory Interactions? 210 $cFrontiers Media SA$d2016 215 $a1 online resource (253 p.) 225 1 $aFrontiers Research Topics 311 08$a2-88919-856-1 330 $aSpatial-hearing ability has been found to vary widely across listeners. A survey of the existing auditory-space perception literature suggests that three main types of factors may account for this variability: - physical factors, e.g., acoustical characteristics related to sound-localization cues, - perceptual factors, e.g., sensory/cognitive processing, perceptual learning, multisensory interactions, - and methodological factors, e.g., differences in stimulus presentation methods across studies. However, the extent to which these-and perhaps other, still unidentified-factors actually contribute to the observed variability in spatial hearing across individuals with normal hearing or within special populations (e.g., hearing-impaired listeners) remains largely unknown. Likewise, the role of perceptual learning and multisensory interactions in the emergence of a multimodal but unified representation of "auditory space," is still an active topic of research. A better characterization and understanding of the determinants of inter-individual variability in spatial hearing, and of its relationship with perceptual learning and multisensory interactions, would have numerous benefits. In particular, it would enhance the design of rehabilitative devices and of human-machine interfaces involving auditory, or multimodal space perception, such as virtual auditory/multimodal displays in aeronautics, or navigational aids for the visually impaired. For this Research Topic, we have considered manuscripts that: - present new methods, or review existing methods, for the study of inter-individual differences; - present new data (or review existing) data, concerning acoustical features relevant for explaining inter-individual differences in sound-localization performance; - present new (or review existing) psychophysical or neurophysiological findings concerning spatial hearing and/or auditory perceptual learning, and/or multisensory interactions in humans (normal or impaired, young or older listeners) or other species; - discuss the influence of inter-individual differences on the design and use of assistive listening devices (rehabilitation) or human-machine interfaces involving spatial hearing or multimodal perception of space (ergonomy). 606 $aNeurosciences$2bicssc 610 $aadaptation 610 $abinaural cues 610 $aHRTF (head related transfer function) 610 $aLearning 610 $amulltisensory interaction 610 $aSound Localization 610 $aspatial hearing 610 $aspectral cues 610 $atraining 615 7$aNeurosciences 676 $a612.8/5 702 $aAndeol$b Guillaume$f1977- 702 $aMacpherson$b Ewan A. 702 $aSimpson$b Brian D. 906 $aBOOK 912 $a9910917180003321 996 $aHow and why does spatial-hearing ability differ among listeners$94304163 997 $aUNINA