Quantum Chemical Perspective of NLO Properties of Ruthenium Complexes: Physical Insights of Ruthenium Based Nonlinear Optical Complexes

-15% su kodu: ENG15
67,17 
Įprasta kaina: 79,02 
-15% su kodu: ENG15
Kupono kodas: ENG15
Akcija baigiasi: 2025-03-03
-15% su kodu: ENG15
67,17 
Įprasta kaina: 79,02 
-15% su kodu: ENG15
Kupono kodas: ENG15
Akcija baigiasi: 2025-03-03
-15% su kodu: ENG15
2025-02-28 79.0200 InStock
Nemokamas pristatymas į paštomatus per 11-15 darbo dienų užsakymams nuo 10,00 

Knygos aprašymas

Ruthenium compounds have shown very good second order and third order behaviour. Very high non-linear optical (NLO) response is due to the extensive coordination and organometallic chemistry of ruthenium. Electron-rich d6 ruthenium (II) centres are especially well-suited for incorporation into NLO chromophores because their highly polarizable d orbitals can cause effective ¿-electron-donating properties when coordinated to ligands with low-lying ¿* orbitals. This work provides an understanding of the NLO properties of ruthenium complexes. All systems display large second-order NLO response. This effort may provide the guidelines to synthesize the high-performance NLO materials. The present investigation gives insight into the NLO response of ruthenium complexes and endeavors to disclose the origin of the NLO response of this family, which is interesting and important in design and synthesis of new promising NLO materials.

Informacija

Autorius: Muhammad Ramzan Saeed Ashraf Janjua, Asif Mahmood, Tauqeer Ahmad,
Leidėjas: LAP LAMBERT Academic Publishing
Išleidimo metai: 2013
Knygos puslapių skaičius: 108
ISBN-10: 3659306398
ISBN-13: 9783659306396
Formatas: 220 x 150 x 7 mm. Knyga minkštu viršeliu
Kalba: Anglų

Pirkėjų atsiliepimai

Parašykite atsiliepimą apie „Quantum Chemical Perspective of NLO Properties of Ruthenium Complexes: Physical Insights of Ruthenium Based Nonlinear Optical Complexes“

Būtina įvertinti prekę

Goodreads reviews for „Quantum Chemical Perspective of NLO Properties of Ruthenium Complexes: Physical Insights of Ruthenium Based Nonlinear Optical Complexes“