Physical Chemistry: Quantum, Spectroscopy, and Computation Baixar grátis

Isbn 13: 9798194768820

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Physical chemistry has a fragmentation problem — and most textbooks make it worse.

Quantum mechanics is taught one semester, spectroscopy another, and computation is often an afterthought: a single chapter of recipes for software most students will never fully understand. By the time a student encounters the Franck-Condon principle or interprets a COSY spectrum, the quantum foundation that explains both has long since faded. This volume directly addresses that fragmentation.

Quantum theory, spectroscopy, and computation are treated here as a single coherent subject. The computational thread begins in Chapter 2 with the Python scientific stack and runs uninterrupted through Chapter 18, where spectra are predicted from electronic structure calculations and compared with experimental data. Spectroscopy follows immediately from the quantum results that explain it — not a semester later. Math Toolkit A (complex numbers, operator algebra, Fourier series) and Math Toolkit B (probability, expectation values, Hermitian operators) arrive precisely where they are needed, before the chapters that depend on them.

The four-part structure covers:

  • Part 1 — Mathematical and Computational Groundwork: differential equations, linear algebra, and the Python environment established from Chapter 2
  • Part 2 — Quantum Foundations: the Schrödinger equation, exactly solvable models, postulates, hydrogen atom, and approximation methods with complete derivations
  • Part 3 — Structure, Bonding, and Electronic Structure: multielectron atoms, molecular orbital theory, group theory, Hartree-Fock, CCSD(T), MP2, Kohn-Sham DFT, and TD-DFT in practical depth
  • Part 4 — Molecular Spectroscopy: rotational, vibrational, electronic, NMR (including 2D methods), EPR, mass spectrometry, and computational prediction of spectroscopic observables

What you will understand and be able to apply:

  • The full mathematical structure of quantum mechanics: wavefunctions, operators, eigenvalues, commutation relations, and the Heisenberg uncertainty principle
  • Complete derivations of the harmonic oscillator, rigid rotor, and hydrogen atom — with every intermediate step shown
  • Electronic structure methods from Hartree-Fock through CCSD(T), MP2, and DFT with practical basis set and functional guidance
  • The complete spectroscopy sequence, from microwave rotation to NMR relaxation, with group-theoretic selection rules
  • Computational prediction of IR, UV-visible, and NMR spectra using DFT and TD-DFT — by the end of Chapter 18

Every worked example has been independently verified against the companion Python notebooks, which are freely available, browser-hosted, and version-pinned to this printing. Physical constants use CODATA 2018 values throughout. Chapters 12, 13, and 18 received a second independent review from a computational specialist. An errata page is maintained from publication.

This volume is for upper-level undergraduates in physical chemistry, graduate students building a rigorous quantum-first foundation, instructors seeking a computationally integrated course text, and self-directed learners with calculus and general chemistry preparation. It is the first of two volumes; Volume II covers thermodynamics, statistical mechanics, and chemical dynamics. Each volume is self-contained.

Open the volume, begin with Math Toolkit A, and start building the framework that connects quantum theory to every spectroscopic technique and computational method you will use in modern chemistry.

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Isbn 13 :9798194768820
Encadernação Physical Chemistry: Quantum, Spectroscopy, and Computation:Capa Comum
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