@incollection{ ISI:000424970100004,
Author = {Cozzoli, P. Davide and Nobile, Concetta and Scarfiello, Riccardo and
   Carbone, Luigi and Fiore, Angela},
Editor = {{Lin, Z and Li, B}},
Title = {{Magnetically Active Asymmetric Nanoheterostructures Based on Colloidal
   All-Inorganic Multicomponent Nanocrystals}},
Booktitle = {{SOFT, HARD, AND HYBRID JANUS STRUCTURES: SYNTHESIS, SELF-ASSEMBLY, AND
   APPLICATIONS}},
Year = {{2018}},
Pages = {{69-121}},
Abstract = {{Colloidal inorganic nanocrystals (NCs) constitute an important class of
   advanced nanomaterials owing to the flexibility with which their
   dimensionality-dependent physical-chemical properties can be controlled
   by engineering their compositional, structural, and geometric features
   in the synthesis stage and the versatility with which they can be
   exploited in disparate technological fields, spanning from
   optoelectronics, energy conversion/production to catalysis, and
   biomedicine.
   In recent years, building upon knowledge acquired on the thermodynamic
   and kinetic processes that underlie NC evolution in liquid media,
   synthetic nanochemistry research has made tremendous advances, opening
   new possibilities for designing, creating, and mastering increasingly
   complex NC-based assemblies, in which sections of different materials
   are grouped together into free-standing, easily processable
   multifunctional nanocomposite systems. This chapter will provide an
   overview of this fast-growing research field by illustrating progress
   achieved in the wet-chemical development of last-generation breeds of
   so-called hybrid or heterostructured nanocrystals (HNCs) in asymmetric
   non-core/shell geometries, in which distinct material modules are
   interconnected in heterodimer, heterooligomer, and anisotropic
   multidomain architectures via heteroepitaxial bonding interfaces of
   limited extension. The focus will be on HNCs that incorporate at least
   one magnetic material component combined with semiconductors and/or
   plasmonic metals, which hold potential for generating enhanced,
   unconventional magnetic behavior, on one side, and diversified or even
   new properties and capabilities, on the other side. Various synthetic
   strategies, all based on the manipulation of seeded-growth techniques,
   will be described and rationally interpreted within the framework of the
   currently understood mechanisms of colloidal heteroepitaxy.}},
ISBN = {{978-1-78634-313-0; 978-1-78634-312-3}},
Unique-ID = {{ISI:000424970100004}},
}

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D.","Nobile, C.","Scarfiello, R.","Carbone, L.","Fiore, A."],"bibdata":{"bibtype":"incollection","type":"incollection","author":[{"propositions":[],"lastnames":["Cozzoli"],"firstnames":["P.","Davide"],"suffixes":[]},{"propositions":[],"lastnames":["Nobile"],"firstnames":["Concetta"],"suffixes":[]},{"propositions":[],"lastnames":["Scarfiello"],"firstnames":["Riccardo"],"suffixes":[]},{"propositions":[],"lastnames":["Carbone"],"firstnames":["Luigi"],"suffixes":[]},{"propositions":[],"lastnames":["Fiore"],"firstnames":["Angela"],"suffixes":[]}],"editor":[{"firstnames":[],"propositions":[],"lastnames":["Lin, Z"],"suffixes":[]},{"propositions":[],"lastnames":["Li"],"firstnames":["B"],"suffixes":[]}],"title":"Magnetically Active Asymmetric Nanoheterostructures Based on Colloidal All-Inorganic Multicomponent Nanocrystals","booktitle":"SOFT, HARD, AND HYBRID JANUS STRUCTURES: SYNTHESIS, SELF-ASSEMBLY, AND APPLICATIONS","year":"2018","pages":"69-121","abstract":"Colloidal inorganic nanocrystals (NCs) constitute an important class of advanced nanomaterials owing to the flexibility with which their dimensionality-dependent physical-chemical properties can be controlled by engineering their compositional, structural, and geometric features in the synthesis stage and the versatility with which they can be exploited in disparate technological fields, spanning from optoelectronics, energy conversion/production to catalysis, and biomedicine. In recent years, building upon knowledge acquired on the thermodynamic and kinetic processes that underlie NC evolution in liquid media, synthetic nanochemistry research has made tremendous advances, opening new possibilities for designing, creating, and mastering increasingly complex NC-based assemblies, in which sections of different materials are grouped together into free-standing, easily processable multifunctional nanocomposite systems. This chapter will provide an overview of this fast-growing research field by illustrating progress achieved in the wet-chemical development of last-generation breeds of so-called hybrid or heterostructured nanocrystals (HNCs) in asymmetric non-core/shell geometries, in which distinct material modules are interconnected in heterodimer, heterooligomer, and anisotropic multidomain architectures via heteroepitaxial bonding interfaces of limited extension. The focus will be on HNCs that incorporate at least one magnetic material component combined with semiconductors and/or plasmonic metals, which hold potential for generating enhanced, unconventional magnetic behavior, on one side, and diversified or even new properties and capabilities, on the other side. Various synthetic strategies, all based on the manipulation of seeded-growth techniques, will be described and rationally interpreted within the framework of the currently understood mechanisms of colloidal heteroepitaxy.","isbn":"978-1-78634-313-0; 978-1-78634-312-3","unique-id":"ISI:000424970100004","bibtex":"@incollection{ ISI:000424970100004,\nAuthor = {Cozzoli, P. Davide and Nobile, Concetta and Scarfiello, Riccardo and\n Carbone, Luigi and Fiore, Angela},\nEditor = {{Lin, Z and Li, B}},\nTitle = {{Magnetically Active Asymmetric Nanoheterostructures Based on Colloidal\n All-Inorganic Multicomponent Nanocrystals}},\nBooktitle = {{SOFT, HARD, AND HYBRID JANUS STRUCTURES: SYNTHESIS, SELF-ASSEMBLY, AND\n APPLICATIONS}},\nYear = {{2018}},\nPages = {{69-121}},\nAbstract = {{Colloidal inorganic nanocrystals (NCs) constitute an important class of\n advanced nanomaterials owing to the flexibility with which their\n dimensionality-dependent physical-chemical properties can be controlled\n by engineering their compositional, structural, and geometric features\n in the synthesis stage and the versatility with which they can be\n exploited in disparate technological fields, spanning from\n optoelectronics, energy conversion/production to catalysis, and\n biomedicine.\n In recent years, building upon knowledge acquired on the thermodynamic\n and kinetic processes that underlie NC evolution in liquid media,\n synthetic nanochemistry research has made tremendous advances, opening\n new possibilities for designing, creating, and mastering increasingly\n complex NC-based assemblies, in which sections of different materials\n are grouped together into free-standing, easily processable\n multifunctional nanocomposite systems. This chapter will provide an\n overview of this fast-growing research field by illustrating progress\n achieved in the wet-chemical development of last-generation breeds of\n so-called hybrid or heterostructured nanocrystals (HNCs) in asymmetric\n non-core/shell geometries, in which distinct material modules are\n interconnected in heterodimer, heterooligomer, and anisotropic\n multidomain architectures via heteroepitaxial bonding interfaces of\n limited extension. The focus will be on HNCs that incorporate at least\n one magnetic material component combined with semiconductors and/or\n plasmonic metals, which hold potential for generating enhanced,\n unconventional magnetic behavior, on one side, and diversified or even\n new properties and capabilities, on the other side. Various synthetic\n strategies, all based on the manipulation of seeded-growth techniques,\n will be described and rationally interpreted within the framework of the\n currently understood mechanisms of colloidal heteroepitaxy.}},\nISBN = {{978-1-78634-313-0; 978-1-78634-312-3}},\nUnique-ID = {{ISI:000424970100004}},\n}\n\n","author_short":["Cozzoli, P. 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