J. B. Dudek, A. N. Migues, Organizers, Presiding
Computational chemistry is a long recognized, critical tool for chemical investigation and understanding. However, implementing this new essential in existing high school and undergraduate curricula can prove difficult. This symposium focuses on curricular implementation in the classroom and in the laboratory. Talks highlighting computational chemistry integration across the chemistry and/or general science curriculum are particularly encouraged.
8:00 Introductory Remarks.
8:05 521. Overcoming the barriers to using computational chemistry in your classroom. K. R. Gallagher
8:25 522. Exploring electron configurations of atoms and ions with WebMO and Gaussian. K. Range
8:45 523. Computational chemistry as part of the first-year undergraduate curriculum. J. B. Foresman, K. Howard
9:05 524. Introducing computational chemistry to General Chemistry freshmen vs. Physical Chemistry seniors. D. V. Chulhai
9:25 Closing Remarks.
9:30 Break.
11:00 Introductory Remarks.
11:05 525. Computational Exercises in Physical Chemistry: From Gaussian to the WebMO Mobile App. S. M. Basu
11:25 526. Blended lab for use in undergraduate chemistry courses: The influence of solvent polarity on the cis-trans isomerization of 4-anilo-4’-nitrobenzene. A. N. Migues, J.B. Dudek
11:45 527. Computational Chemistry Calculations of the Molecular Charge Distribution and Dipole Moments of Solvatofluorchromic Dyes for the Physical Chemistry Curriculum. B. Findley, R. Pawlaczyk
12:05 528. Withdrawn
12:25 Closing Remarks.
12:30 Lunch.
2:00 Introductory Remarks.
2:05 529. Introducing the dihedral angle of H2O2 through computational chemistry. C. Salter
2:25 530. Using computational chemistry to peer through the window at molecules responsible for the greenhouse effect. L. Tribe, K. R. Gallagher
2:45 531. Creating your own chemistry simulations is easier than you think. W.J. Vining
3:05 532. Using the Compute-to-Learn Pedagogy in Physical and General Chemistry Courses. H. P. Hendrickson
3:25 Closing Remarks.
3:30 Break.
3:45 Introductory Remarks.
3:50 533. Visualizing potential energy surfaces to deepen chemical understanding. J. L. Sonnenberg
4:10 534. Computational Chemistry in the Inorganic Classroom: Using WebMO and Gaussian to Teach Group Theory. A. C. Davis, J.M. Smith
4:30 535. Using Computational Software to Model Concepts in Organic Chemistry Lecture. D. C. Bromfield-Lee
4:50 Panel Discussion.
5:10 Closing Remarks.
A. N. Migues, Organizer, Presiding
Implementing computational chemistry in undergraduate and high school classrooms remains challenging and nontrivial for chemical educators at all levels. The goal of this workshop is to remove barriers and empower participants with the tools they need to integrate computational chemistry activities into their classrooms. Through demonstrations and hands-on activities using WebMO, participants will learn how to include computational activities in their curriculum. WebMO is a free/low cost, web-based interface for performing computational chemistry calculations without the need for additional computer hardware or software. Workshop facilitators will provide participants with example activities for use in high school and undergraduate chemistry courses, including exercises for each subfield (organic, physical, inorganic, etc.). Emphasis will be placed on system setup, submitting computations, and interpreting and visualizing results. In addition, practical issues related to working with computation in the classroom will be addressed. A question/answer period with experts will be included. Participants are encouraged to bring a laptop or a smartphone.
2:00 - 2:30
2:30 - 2:50
2:50 - 3:10
3:10 - 3:20
Break
3:20 - 4:10
Breakout session 1.
Group 1: Thermochemistry (PChem)
Group 2: VSEPR (Intro Chem)
Group 3: pKa Group (Intro Chem)
Group 4: Conformational Analysis (Intro Chem)
4:10 - 4:20
Break
4:20 - 5:00
Breakout session 2.
Group 1: Solubility (Intro Chem)
Group 2: Bond Stretching (PChem)
Group 3: Group Theory (Inorg)
Group 4: Choose/Create your own activity
5:00 - 5:15
Closing Remarks.
Thermochemistry
pKa
Conformational Analysis
VSEPR - 2, 3, 4
VSEPR - 5
VSEPR - 6
Solubility
Bond Stretching
Group Theory
Electron Configurations
Charge & Energy
Dihedral Scanning
Greenhouse Gases
NMR
If you use these activities in your classroom reach out and let us know! We love hearing how things went and what could be improved.
Author1; Author2; etc. Title of Activity, Year, MoleCVUE BCCE 2022 Website. https://sites.google.com/view/molecvue/bcce2022 (accessed Month Day, Year).
The author(s) and year are provided in the footer of each activity.