Titre : |
Discovering superconductivity : an investigative approach |
Type de document : |
texte imprimé |
Auteurs : |
Gren Ireson, Auteur |
Editeur : |
New York : John Wiley & Sons |
Année de publication : |
2012 |
Importance : |
XXII, 160 p. |
Présentation : |
ill. |
Format : |
24 cm |
ISBN/ISSN/EAN : |
978-1-119-99141-0 |
Note générale : |
Bibliogr. - Index |
Langues : |
Anglais (eng) |
Mots-clés : |
Superconductivity -- Study and teaching (Higher) -- Activity programs |
Index. décimale : |
537.3 Courant électrique. Electrocinétique |
Résumé : |
Superconductivity is a quantum phenomenon that manifests itself in materials showing zero electrical resistance below a characteristic temperature resulting in the potential for an electric current to run continually through such a material without the need for a power source. Such materials are used extensively in medical and power applications, e.g. MRI and NMR machines. Discovering Superconductivity uses a series of practical and investigative activities, which can be used as tutor demonstrations or as student lab exercises. This highly illustrated text features the following sections: Introduction - including a brief history of superconductivity ; Superconductivity - an explanation of the phenomenon and its effects ; Superconducting materials – including High & Low temperature superconductors; Applications – how superconductivity is used in medical imaging, at CERN and in the Maglev trains. This text will serve as an excellent introduction for students, with or without a physics background, to superconductivity. With a strong practical, experimental emphasis, it provides readers with an overview of the topic preparing them for more advanced texts used in advanced undergraduate and post-graduate courses. |
Note de contenu : |
Summary :
I. Introduction
1. Resistivity and conduction in metals
2. A brief history of superconductivity
II. Superconductivity
3. An explanation of superconductivity?
4. The meissner–ochsenfeld effect
5. Diamagnetic effects
6. Persistence of current
7. Type i and type ii superconductors
8. Flux pinning
III. Superconducting materials
9. Low-temperature superconductors
10. Organic superconductors
11. High-temperature superconductors
IV. Applications
12. Superconducting wire
13. Medical imaging
14. CERNand the lHC
15. Maglev trains |
Discovering superconductivity : an investigative approach [texte imprimé] / Gren Ireson, Auteur . - New York : John Wiley & Sons, 2012 . - XXII, 160 p. : ill. ; 24 cm. ISBN : 978-1-119-99141-0 Bibliogr. - Index Langues : Anglais ( eng)
Mots-clés : |
Superconductivity -- Study and teaching (Higher) -- Activity programs |
Index. décimale : |
537.3 Courant électrique. Electrocinétique |
Résumé : |
Superconductivity is a quantum phenomenon that manifests itself in materials showing zero electrical resistance below a characteristic temperature resulting in the potential for an electric current to run continually through such a material without the need for a power source. Such materials are used extensively in medical and power applications, e.g. MRI and NMR machines. Discovering Superconductivity uses a series of practical and investigative activities, which can be used as tutor demonstrations or as student lab exercises. This highly illustrated text features the following sections: Introduction - including a brief history of superconductivity ; Superconductivity - an explanation of the phenomenon and its effects ; Superconducting materials – including High & Low temperature superconductors; Applications – how superconductivity is used in medical imaging, at CERN and in the Maglev trains. This text will serve as an excellent introduction for students, with or without a physics background, to superconductivity. With a strong practical, experimental emphasis, it provides readers with an overview of the topic preparing them for more advanced texts used in advanced undergraduate and post-graduate courses. |
Note de contenu : |
Summary :
I. Introduction
1. Resistivity and conduction in metals
2. A brief history of superconductivity
II. Superconductivity
3. An explanation of superconductivity?
4. The meissner–ochsenfeld effect
5. Diamagnetic effects
6. Persistence of current
7. Type i and type ii superconductors
8. Flux pinning
III. Superconducting materials
9. Low-temperature superconductors
10. Organic superconductors
11. High-temperature superconductors
IV. Applications
12. Superconducting wire
13. Medical imaging
14. CERNand the lHC
15. Maglev trains |
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