General Chemistry
General chemistry is the control room for chemical systems. It connects what is present, how particles are arranged, which transformations are possible, how fast they occur, and where reversible processes settle.
The equation is only one frame of a moving system.
Change temperature, concentration, pathway, and reversibility. The chamber separates four questions that are often collapsed together: what exists, whether change is energetically accessible, how quickly it proceeds, and where the system accumulates.
Choose a scene to hold the observatory focus in place. Select it again to return control to scrolling.
Change conditions and watch the system reorganize.
Temperature changes the energy distribution. Concentration changes encounter frequency. A catalyst lowers the activation barrier without changing the equilibrium position.
Each branch holds one part of the same chemical system steady.
Atomic structure defines the inventory. Bonding creates the species. Stoichiometry counts them. Thermochemistry and kinetics describe possible pathways. Equilibrium, acid-base chemistry, and electrochemistry reveal coupled flows.
Stoichiometry & Reactions
Moles, equations, limiting reactants, solutions, yield, and quantitative conservation.
planned stationThermochemistry
Energy transfer, enthalpy, calorimetry, entropy, and process direction.
planned stationKinetics & Equilibrium
Rates, mechanisms, activation energy, catalysts, reversibility, and equilibrium shifts.
planned stationAcids & Bases
Proton transfer, pH, buffers, titration, and linked acid-base equilibria.
planned stationElectrochemistry
Oxidation, reduction, cell potentials, batteries, electrolysis, and electron flow.
planned stationA valid chemical story balances matter, charge, and energy at the same time.
Conservation does not mean the system looks unchanged. It means every nucleus and unit of charge remains accounted for while energy moves between chemical structure, motion, radiation, and the surroundings.
Matter
Where did every nucleus go?Balance elements and count particles through moles, formulas, and stoichiometric ratios.
Charge
Where did every electron or proton go?Track ions, oxidation states, proton transfer, and electron transfer through the system.
Energy
What became more or less available?Follow enthalpy, entropy, activation barriers, heat, work, and stored chemical potential.
Identity, amount, state, concentration, and charge.
Allowed products, energetic direction, and accessible pathways.
Collision frequency, mechanism, activation energy, and catalysts.
Forward and reverse rates, equilibrium position, and external constraints.