
Public learning track
Solutions, Solubility Curves, and Qualitative Chemical Tests
10th Grade · Science · Open Global Science
6 lessons
Goal
Analyze aqueous concentration, perform serial dilutions, interpret solubility curves, and conduct qualitative chemical tests for gases, cations, and anions.
Featured Diagrams
Calculating Molarity and Solution Concentrations
6 lessons
0 of 6 done
- 1Calculating Molarity and Solution ConcentrationsUp nextStart
- 2Preparing Standard Solutions and Dilution CalculationsPremiumNot started yet
- 3Interpreting Solubility Curves and Temperature-Dependent SaturationNot started yet
- 4Qualitative Identification Tests for Common GasesNot started yet
- 5Flame Tests and Precipitation Tests for Metal CationsNot started yet
- 6Qualitative Chemical Tests for Halide, Sulfate, and Carbonate AnionsNot started yet
Curriculum Framework
10th Grade · Science · Open Global Science
1
8 lessons
Chemical Reactions, Equation Balancing, and Net Ionic Equations
Classify diverse reaction types, apply conservation of mass to balance complex molecular equations, and construct complete and net ionic equations for aqueous transformations.
2
9 lessons
Stoichiometry, Mole Calculations, and Chemical Yields
Perform quantitative stoichiometric conversions across masses, moles, and gas volumes to determine limiting reactants, percent yields, atom economy, and chemical formulas.
3
6 lessons
Solutions, Solubility Curves, and Qualitative Chemical Tests
Analyze aqueous concentration, perform serial dilutions, interpret solubility curves, and conduct qualitative chemical tests for gases, cations, and anions.
4
7 lessons
Mixture Separations, Chromatography, and Instrumental Spectroscopy
Evaluate physical separation techniques, calculate chromatographic retention factors, and deduce chemical structures using infrared, NMR, and mass spectrometry.
5
9 lessons
Redox Reactions, Activity Series, and Electrochemistry
Analyze redox processes via oxidation states, construct half-equations, evaluate galvanic and electrolytic cells, and predict reaction feasibility using standard electrode potentials.