START HERE
See chemistry as a connected system.
Move from atomic structure to organic mechanisms to metabolism without losing the prerequisite relationships between them.
Preparing your learning space…
Reload ChemWaypointCOLLEGE CHEMISTRY • INTERACTIVE
START HERE
Move from atomic structure to organic mechanisms to metabolism without losing the prerequisite relationships between them.
CURRENT COURSE
Next concept
THE BIG PICTURE
EXPLORE
CONCEPT OF THE DAY
Molecular geometry changes dipole cancellation, orbital overlap, steric accessibility and ultimately reactivity. VSEPR is the first bridge from a flat Lewis structure to three-dimensional chemistry.
ACADEMIC BACKBONE
Degree-level ordering follows the University of Arkansas 2026–27 B.S. Chemistry with Biochemistry concentration. ChemWaypoint adds interactive learning modules beneath each course.
ACS guidance expects introductory chemistry followed by breadth across analytical, biochemistry, inorganic, organic and physical chemistry. The platform architecture keeps those domains separate enough to teach deeply, but links concepts across courses.
COURSE LIBRARY
The prototype includes a detailed General Chemistry I sequence and scaffolds for later courses.
ORGANIC CHEMISTRY I • PHASE 2
Practice the spatial skills that make organic chemistry click: assign stereochemistry, rotate conformations, flip cyclohexane chairs, and build reaction mechanisms by following electron flow.
CONCEPT BRIDGE
General chemistry gave us orbitals, geometry, polarity, and acid–base ideas. Organic chemistry uses those same concepts to explain which face reacts, which conformation is favored, and where electrons move.
structure → conformation → mechanismGENERAL CHEMISTRY I • BONDING
Turn a Lewis structure into a 3D mental model. Rotate each molecule, compare electron domains, and predict polarity.
Drag to rotate • scroll to zoom • right-drag / modifier-drag to translate
MENTAL MODEL
Count valence electrons and identify the central atom.
Each bond — single, double or triple — counts as one domain; each lone pair is one domain.
Electron domains arrange to reduce repulsion. Lone pairs generally repel more strongly than bonding pairs.
MASTERY CHECK