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Download Inorganic Chemistry: Study Guide – Exam 4 – Fall... Study Guide – Suggested Topics A periodic table will be given.
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Inorganic Chemistry: Study Guide – Exam 4 – Fall 2015 Study Guide – Suggested Topics A periodic table will be given. Bring a calculator. Prerequisite concepts from General Chemistry 1 & 2, Quantitative Analytical, and Organic I/II, Topics from Exams 1-3. Chapter 20 Hybridization schemes for σ-bonding frameworks and various geometries Limitations of valence bond theory High-spin and low-spin configuration Absorption, emission and notation to indicate Crystal Field Theory Δo, Δt o splitting of degeneracy of orbitals relative to barycenter o trends in magnitude Crystal field stabilization energy (CFSE), o how to calculate for different geometries, w/ P (pairing energy) o Four factors affecting the CFSE Weak-field ligand, strong field ligand and influence on spin state spectrochemical series pairing energy Be able to predict of a complex is high/low spin, corresponding electron configuration (e.g t2gxegy or ext2y) Derivation of distorted octahedral, square planar, orbital energy levels Jahn-Teller distortions, reasons behind and which e- configurations tend to exhibit. Given splitting of orbitals for non-octahedral, tetrahedral, square planar type, be and to complete diagram and estimate spin, etc. Be able to sketch ligand to metal σ-bonding, note which types of ligands exhibit MO diagram for ML6 with σ-bonding only, be able to derive symmetries of orbitals on both metal and ligand set given character table for particular geometry/point group. Note interactions of same symmetry type to form bonding/antibonding MOs. 18-electron rule -donor ligand, -acceptor ligand, sketch bonding/antibonding interactions, role of these to explain anomalies in spectrochemical series. o metal to ligand o ligand to metal o pi-acceptor, pi-donor ligands d-d transitions quantum numbers for multielectron species term symbols, L,S,J, spin multiplicity table of microstates, rules for constructing, number of possible microstates, associated term symbols Hund’s Rules, Russel-Saunders o Ordering of terms by energy o Rules for more and less than half-filled Complexes and color, be able to predict color of complex given spectrum/absorption color for simple absorption. Understand relationships between ligands, Δo, energy, color Charge transfer absorption, what type of compound is likely to exhibit. o MLCT o LMCT Reason for why absorption bands are usually broad. λmax and εmax for absorption band and units o Typical ε values for various types of transitions and reason, example molecules o number of absorptions for d-d transitions. Selection rules: ΔS = 0, Δl = +/-1 o Vibronic coupling Understand splitting of terms from free ion to octahedral field and impact on term symbols. Orgel Diagrams Racah Parameter Tanabe-Sugano Diagram