4322845

Exploring generative AI application in general chemistry: A lab-based study of prompt engineering, AI assisted analysis, and critical evaluation of AI generated outputs

Date
August 20, 2025

This study investigates the integration of generative artificial intelligence (Gen AI) into a General Chemistry II laboratory at St. Bonaventure University to assess its impact on student learning, inquiry, and chemical reasoning. In a redesigned of a common thermodynamics/equilibrium experiment involving cobalt(II) chloride, students used ChatGPT and a retrieval-augmented Gen AI (BonnieChemBot) to assist in calculating equilibrium constants, thermodynamic values, and answering open-ended chemical questions. The lab targeted four key educational goals: (A) mastery of chemical concepts, (B) development of prompt engineering strategies, (C) facilitation of inquiry-driven dialogue with instructors, and (D) critical evaluation of Gen AI outputs by students using chemical intuition. Students attempted all analyses twice: first independently, then with the assistance of Gen AI. Finally, they were asked to reflect on their trust in the Gen AI solutions and generate final answers. Instructor intervention in post-lab analyses was limited to cases where students had clearly attempted the first two steps in this process. While students were encouraged to practice prompt engineering, no grades were assigned to its execution. Instead, grading focused solely on students’ final answers.

Related Products

Thumbnail for Reassessing the electrostatics of polycyclic aromatic hydrocarbons and graphene via distributed multipoles and cluster extrapolation
Reassessing the electrostatics of polycyclic aromatic hydrocarbons and graphene via distributed multipoles and cluster extrapolation
Non-covalent interactions of molecules with graphitic surfaces and with large polycylic aromatic hydrocarbons (PAHs) are important in a range of applications. This talk takes a fresh look at representing the electrostatic potential of these species with distributed atomic multipoles…
Thumbnail for N-heterocyclic carbenes: A versatile molecular family
N-heterocyclic carbenes: A versatile molecular family
N-Heterocyclic carbenes (NHCs) are an interesting family of molecules that have potential applications in hydrogen storage via the “molecular corking effect”. Benefits of using NHC backbones as molecular corks include their modularity via functionalization and synthetic diversity…
Thumbnail for Organometallic Chemistry: Structure & Bonding
Organometallic Chemistry: Structure & Bonding
DIVISION/COMMITTEE: [INOR: Division of Inorganic Chemistry]
Thumbnail for Understanding the bonding at the surface-adsorbate interface: Modulating the N-heterocyclic carbene-single atom alloy interface
Understanding the bonding at the surface-adsorbate interface: Modulating the N-heterocyclic carbene-single atom alloy interface
We apply non-local density functional theory calculations to determine the impact of backbones and functionalization of different N-heterocyclic carbenes (NHCs) adsorbed to different single atom alloys (SAAs)…