000			02439nam a22002417a 4500
003			USANT
005			20250910112109.0
008			250910b |||||||| |||| 00| 0 eng d
020			_a9781642246926
040			_aUSANT _beng _cUSANT _erda
082			_a541.3 _bAV953p
100			_aAuvert, Geoffroy _eauthor.
245			_aPhysical Chemistry/ _cGeoffroy Auvert
260			_aUnited States of America _bExcelic Press LLC. _c2020
300			_aix, 243 pages. ; _btables, figures, ill.: _c22 cm
500			_aIncludes index.
504			_aIncludes bibliographical references
520			_aPhysical chemistry deals with the study of the behavior of matter on a molecular and atomic stage and how chemical reactions take place. Based on their analyses, physical chemists may develop new theories, like how complex structures are formed. This book provides an extensive coverage of the topics discussed in physical chemistry. This book opens with an attempt at addressing this limitation with a specific periodic table for chemistry. Following the introduction of the new even-odd and isoelectronic rules and definitions affecting the understanding of electronic structure and bonds, the author has thought necessary to summarize understandings in the form of a table. The classical periodic table, a simple tool used by generations of physicists, is here extended to become a useful tool aimed specifically at chemists. Further, the book focuses on enhancement of electrochemical performance of bilirubin oxidase modified gas diffusion biocathode by porphyrin precursor. Further, it explores the chemical synthesis of nitrogen-doped titanium dioxide (N-TiO2) in an attempt to understand the mechanisms of doping. The effect of doping on band gap, morphology, and microstructure was also determined. This book succeeding focuses on controlled release kinetics in hydroxy double salts and hydrogen bonding interaction between atmospheric gaseous amides and methanol. Additionally, it also focuses on photochemical reactions of Microcystin-LR following irradiation with UV Light. Following with synthesis and study of electrical properties of SbTeI, the book finally highlights on magnetic isotope effect, which can be used to predict the mechanisms of chemical reactions.
546			_aEnglish
650			_aChemistry-Physical.
700			_aPaul Laffort _eauthor.
942			_2ddc _cBK _h541.3 _iAV953p _kCIR _m2020 _n0
999			_c18682 _d18681