Chemistry of Hypervalent Compounds

Broad, comparative coverage of hypervalent compounds –a much–needed foundation in a rapidly growing field of chemistry.
Although hypervalency is already a mature field in chemistry, it has seen a new surge of interest in recent years due to the discovery of compounds useful in organic synthesis, as well as others with significant applications for materials science.
Now, this comprehensive book–written by a group of twenty leading experts in the field–provides an authoritative blueprint on the subject. Instead of focusing on compounds specific to one element, it presents a review of structure and reactivity among an extensive array of main group, organic, and organometallic hypervalent compounds. In so doing, the book offers essential information on underlying principles that unify seemingly unrelated families of main group element compounds.
An invaluable resource for both organic and inorganic chemists, Chemistry of Hypervalent Compounds includes:
∗ An overview of general aspects of structure and reactivity common among hypervalent compounds
∗ Information on such recently characterized organic compounds as silicon, phosphorus, sulfur, iodine, and xenon
∗ A review of new organometallic compounds with synthetic applications
∗ Solid background material on compounds important in advanced materials science, such as semiconductors
∗ A systematic approach using the N–X–L designation, where N represents the valence electrons of the central atom X, and L the ligands that bond the compound.

Spis treści:
Hypervalent Compounds (K. Akiba).
Structure and Reactivity of Hypervalent Organic Compounds: General Aspects (K. Akiba).
Characteristic Properties of Hypervalent Compounds: Static and Dynamic Structures of Sb(III), Sn(II) and Ge(II) Halides (K. Yamada & T. Okuda).
Structure and Reactivity of Hypercoordinate Silicon Species (C. Chuit, et al.).
Hyperc oordinate Silicon Species in Organic Synthesis (M. Kira & L. Zhang).
Synthesis of Hypervalent Organophosphorus Compounds and Their Reactions (T. Kawashima).
Hypervalent Sulfuranes as Transient and Isolable Structures: Occurrence, Synthesis, and Reactivity (J. Drabowicz).
Structure and Reactivity of Hypervalent Chalcogen Compounds: Selenurane (Selane) and Tellurane (Tellane) (N. Furukawa & S. Sato).
Ligand–Coupling Reactions of Compounds of Group 15 and Group 16 Elements (Y. Yamamoto & K. Akiba).
The –SF—5, –SeF—5, and –TeF—5 Groups in Organic Chemistry (D. Lentz & K. Seppelt).
Polycoordinate Iodine Compounds (V. Zhdankin & P. Stang).
Organic Synthesis Using Hypervalent Organoiodanes (M. Ochiai).
Hypervalent Compounds of Xenon (V. Brel & N. Zefirov).
Index.

Nota biograficzna:
KIN–YA AKIBA, PhD, is a professor in the Department of Chemistry at Hiroshima University in Japan.

Okładka tylna:
Broad, comparative coverage of hypervalent compounds –a much–needed foundation in a rapidly growing field of chemistry.
Although hypervalency is already a mature field in chemistry, it has seen a new surge of interest in recent years due to the discovery of compounds useful in organic synthesis, as well as others with significant applications for materials science.
Now, this comprehensive book–written by a group of twenty leading experts in the field–provides an authoritative blueprint on the subject. Instead of focusing on compounds specific to one element, it presents a review of structure and reactivity among an extensive array of main group, organic, and organometallic hypervalent compounds. In so doing, the book offers essential information on underlying principles that unify seemingly unrelated families of main group element compounds.
An invaluable resource for both organic and inorganic chemists, Chemistry of Hypervalent Compounds includes:
∗ An overview of general aspects of structure and reactivity common among hypervalent compounds
∗ Information on such recently characterized organic compounds as silicon, phosphorus, sulfur, iodine, and xenon
∗ A review of new organometallic compounds with synthetic applications
∗ Solid background material on compounds important in advanced materials science, such as semiconductors
∗ A systematic approach using the N–X–L designation, where N represents the valence electrons of the central atom X, and L the ligands that bond the compound.