Grade 10 Worksheets

Learning Objectives

• Explain how changes in Earth’s surface can drive changes in climate and weather patterns using physical mechanisms.
• Use evidence from long-term records (ice cores and sediment layers) to make and evaluate climate-related claims.
• Match environmental changes to expected effects on atmospheric composition, energy distribution, temperature, and precipitation.

Learning Objectives

• Explain collision theory using particle-level ideas such as effective collisions, activation energy, and energy barriers
• Relate reaction rate to collision frequency and the fraction of collisions with sufficient energy
• Describe how temperature, concentration, and catalysts affect reaction rates using the model of molecular collisions

Learning Objectives

• Distinguish uniform from non-uniform circular motion using speed, angular speed, and acceleration components
• Relate linear speed and angular speed using v = ωr and connect period to angular speed
• Use centripetal acceleration and centripetal force ideas to explain why curved motion requires radial acceleration+ Show more

Learning Objectives

• Use the mole concept and molar mass to convert between grams and moles in chemical reactions
• Apply balanced chemical equations to perform mass-to-mass stoichiometric calculations using mole ratios
• Identify the limiting reagent and estimate theoretical yield from balanced equations+ Show more

Learning Objectives

• Explain how residual analysis and model comparison reveal where a model fails to match observed behavior.
• Use parameter estimation and sensitivity assessment to justify changes to a model’s parameter values.
• Evaluate trade-offs between model simplicity and predictive accuracy when refining model structure.+ Show more

Learning Objectives

• Explain the roles of protons, neutrons, and electrons in determining atomic structure and identity.
• Use evidence from emission spectra and scattering experiments to support models of electron distribution.
• Connect quantum numbers and shell/subshell ideas to observable atomic properties.

Learning Objectives

• Explain how forces act as interactions that can be described with vectors and represented using free-body diagrams
• Determine the net force on an object and predict motion using Newton’s three laws
• Distinguish between contact forces and field-mediated forces and connect forces to acceleration using algebraic relationships+ Show more

Learning Objectives

• Define the core purposes and forms of scientific models, including conceptual diagrams, mathematical relations, and simplified physical analogues.
• Explain how model components are mapped to observable features and how parameters are calibrated using data.
• Compare strengths and limitations of discrete model representations and justify assumptions that bound where a model applies.+ Show more

Learning Objectives

• Explain how net force and mass determine acceleration using Newton’s second law
• Use force–motion relationships to predict changes in velocity and displacement
• Identify and justify how inertia affects motion when forces change+ Show more

Learning Objectives

• Differentiate independent, dependent, and controlled variables and explain how each is used in an investigation.
• Identify constraints (such as time, equipment limits, and measurement boundaries) that shape how an experiment or comparison can be designed.
• Select operational definitions and justify variable choices to produce interpretable results under given constraints.+ Show more

Learning Objectives

• Explain electromagnetic induction using Faraday’s law and describe how changing magnetic flux produces an induced emf.
• Apply Lenz’s law to predict the direction of induced current or force opposing the change in flux.
• Use quantitative relationships between the rate of change of magnetic flux and induced emf in generator and transformer contexts.+ Show more

Learning Objectives

• Interpret position, velocity, and acceleration graphs to describe motion using slopes and areas under curves.
• Connect graphical features (positive/negative slope, curvature, and signed area) to instantaneous and average kinematic quantities.
• Use kinematic graph reasoning to estimate acceleration and relate it to forces in real transportation scenarios.

Learning Objectives

• Use conservation of mechanical energy to relate gravitational potential energy, kinetic energy, and energy losses due to non-conservative forces like friction.
• Apply quantitative relationships (mass, height, speed, and energy) to solve for missing variables in realistic mechanical systems.
• Model how work done by non-conservative forces affects final heights or speeds in transport and recreation scenarios.

Learning Objectives

• Explain how an electric field describes the force per unit positive charge at a location
• Interpret electric field-line diagrams and relate them to charge sign and field strength
• Connect electric field ideas to potential energy changes and energy transfer+ Show more

Learning Objectives

• Explain how linear momentum and impulse relate during collisions and interactions.
• Use the impulse–momentum relationship to predict changes in velocity from forces acting over time.
• Apply conservation of momentum to closed systems and analyze how mass and velocity redistribute momentum.+ Show more

Learning Objectives

• Explain how motors and generators convert between electrical energy and mechanical energy using electromagnetic forces
• Describe how a magnetic field and current in a coil produce torque or electrical induction
• Use quantitative relationships between current, magnetic field strength, and mechanical output to predict design trade-offs+ Show more

Learning Objectives

• Use Ohm’s law to calculate relationships among voltage, current, and resistance in practical circuits.
• Determine equivalent resistance for series and parallel resistor combinations.
• Explain how temperature changes can affect conductor resistance and current flow.

Learning Objectives

• Use balanced chemical equations and mole ratios to convert between mass, moles, and particle quantities.
• Identify the limiting reactant and determine theoretical yields in multi-step reaction problems.
• Convert solution concentration units (molarity and mass percent) to moles and vice versa for stoichiometric calculations.+ Show more

Learning Objectives

• Evaluate how adaptation strategies can reduce Earth-system risks under changing climate and other environmental stressors.
• Compare trade-offs among carbon management, engineered resilience, conservation, and land-use policy using scenario reasoning.
• Use systems thinking (feedbacks and interconnections) to anticipate unintended consequences and monitoring needs.+ Show more

Learning Objectives

• Explain how radiative forcing, greenhouse gases, and albedo variations influence Earth’s energy balance and temperature.
• Analyze how ocean-atmosphere coupling and feedbacks affect the timing and regional impacts of climate change.
• Distinguish internal variability from external forcing and evaluate credibility of climate inferences using paleoclimate proxies.

Learning Objectives

• Interpret thermochemical representations, including energy changes and reaction stoichiometry.
• Calculate enthalpy changes using calorimetric energy accounting and reaction mole ratios.
• Apply Hess's law and bond enthalpy approximations to estimate reaction enthalpies.+ Show more

Learning Objectives

• Explain how human land-use change, greenhouse gas emissions, aerosols, and resource extraction perturb Earth’s carbon, water, and energy cycles
• Use emission inventories and land-cover time series to describe environmental change over time
• Interpret observable consequences (runoff changes, soil degradation, coastal subsidence) as indicators of cumulative anthropogenic forcing+ Show more

Learning Objectives

• Explain how mantle convection drives plate motion and how subduction shapes Earth’s surface.
• Interpret tectonic settings using maps, cross-sections, and seismic evidence.
• Connect plate boundary types to mountain building, volcanism, and earthquake distribution.+ Show more

Learning Objectives

• Identify the main features and processes of divergent, convergent (subduction and collision), and transform plate boundaries.
• Explain how mantle convection and crustal deformation relate to earthquakes and volcanic activity.
• Analyze geologic evidence to determine which plate boundary process best fits a given scenario.

Learning Objectives

• Explain how predator and prey populations influence each other over time
• Interpret how predation can change carrying capacity and ecosystem stability
• Use scientific vocabulary (predation, carrying capacity, feedback loop, oscillation) to describe ecosystem dynamics

Learning Objectives

• Explain how the geosphere, hydrosphere, atmosphere, and biosphere interact through coupled processes such as the water cycle and biogeochemical fluxes.
• Use box-and-arrow and flow-diagram reasoning to predict how a disturbance propagates across Earth system spheres.
• Connect observable indicators (streamflow, soil moisture, primary productivity) to underlying mass-balance ideas.

Learning Objectives

• Define and relate amplitude, period, frequency, and phase for periodic motion.
• Explain simple harmonic motion using restoring-force ideas and linear (small-displacement) approximations.
• Describe how kinetic and potential energy exchange during one oscillation of a mass-spring system.

Learning Objectives

• Use principles of stratigraphy (superposition, correlation, and unconformities) to interpret relative Earth history.
• Explain how radiometric decay helps determine absolute ages and why uncertainty matters.
• Connect fossil assemblages and biostratigraphic ranges to reconstruct past environments and climate changes.

Learning Objectives

• Distinguish transverse and longitudinal waves using amplitude, wavelength, frequency, and wave speed.
• Apply the relationship between wave speed, frequency, and wavelength to analyze wave behavior.
• Explain how reflection, refraction, and interference affect wave patterns and energy transfer.+ Show more

Learning Objectives

• Explain the relationship between force, displacement, and work using W = Fd cos(θ) (and recognize when cos(θ) = 1).
• Calculate power as energy transfer per unit time and interpret what “high power” means in everyday contexts.
• Distinguish between work (energy transferred) and power (rate of energy transfer) using units such as joules and watts.

Learning Objectives

• Characterize weathering, erosion, and deposition as connected surface processes that reshape landscapes over time.
• Use concepts and simple graphical evidence to explain fluvial incision, mass wasting, and sediment transport patterns.
• Interpret sediment budgets and depositional signatures (e.g., grain-size distributions, channel profiles, delta growth) in relation to climate, lithology, and human impacts.

Learning Objectives

• Explain how effective nuclear charge and electron shielding influence trends across periods and down groups in the periodic table
• Predict relative atomic radius, ionization energy, and electronegativity for elements based on their position
• Connect electron configurations and nuclear effects to macroscopic properties such as metallic character and acid–base behavior

Learning Objectives

• Explain how mutations can create new alleles and introduce variation into a population
• Describe how mutations may or may not affect traits, survival, and gene expression
• Connect mutation-driven variation and natural selection to changes in allele frequency over generations+ Show more

Learning Objectives

• Explain how organ structure supports organ function in different organ systems (e.g., digestion and gas exchange).
• Describe how tissues work together within an organ to carry out physiological processes.
• Analyze how organs interface with external environments and maintain internal balance (homeostasis).

Learning Objectives

• Evaluate an explanatory claim by judging the quality of evidence and the strength of statistical support.
• Compare alternative hypotheses and determine which explanation is more plausible given available data.
• Check internal consistency by looking for reasoning gaps, contradictions, or unsupported conclusions.+ Show more

Learning Objectives

• Explain why multivariable causal relationships are difficult to disentangle in complex systems.
• Use conceptual frameworks (control matrices, causal graphs, and stratified comparisons) to identify confounding and interactions.
• Evaluate how measurement limits, design constraints, and model assumptions affect confidence in causal claims.

Learning Objectives

• Explain how diffusion, osmosis, and facilitated transport move substances across cell membranes
• Describe how membrane proteins and lipid composition affect permeability and transport rates
• Connect membrane transport mechanisms to homeostasis in plant roots and vertebrate kidneys

Learning Objectives

• Explain why ATP is considered the primary energy currency of cells
• Describe how ATP hydrolysis and ATP synthesis are coupled to cellular processes
• Interpret how ATP turnover changes with tissue type and environmental conditions+ Show more

Learning Objectives

• Explain how sustainability assessments use environmental, economic, and social indicators to evaluate long-term viability.
• Describe how metrics such as renewal rates, pollutant loads, and ecosystem service trends support sustainability decisions.
• Interpret and communicate results from comparative assessments that balance extraction, conservation, and restoration.

Learning Objectives

• Explain how Mendelian segregation and independent assortment lead to predictable inheritance patterns.
• Interpret pedigree, Punnett square, and allele-frequency information to predict trait transmission across generations.
• Describe how linkage and chromosomal inheritance can change expected Mendelian ratios.+ Show more

Learning Objectives

• Explain how prophase I processes (homologous pairing and crossing-over) create genetic variation
• Describe how independent assortment and meiotic chromosomal segregation affect genotype outcomes
• Analyze how nondisjunction can lead to altered genotypes and phenotypes (including aneuploidy)+ Show more

Learning Objectives

• Describe the geosphere, hydrosphere, atmosphere, and biosphere and identify what each sphere includes.
• Explain how matter and energy move among Earth’s spheres through pathways such as weathering, water transport, and biological cycling.
• Use examples from Alberta landscapes (mountains, prairies, and boreal forests) to predict observable regional patterns in climate and landforms.

Learning Objectives

• Explain how membrane composition and protein transport mechanisms create electrochemical gradients and compartmentalization
• Compare diffusion, carrier-mediated transport, and vesicular trafficking using flux-rate and energetics ideas
• Interpret how selective permeability influences ion distribution and signal propagation

Learning Objectives

• Describe how Earth systems move and transform materials through resource cycles
• Identify reservoirs and flux pathways for water, carbon, nutrients, and minerals
• Explain how residence time and flux rates affect ecosystem function and long-term availability of resources

Learning Objectives

• Explain how DNA stores genetic information and how replication fidelity preserves that information
• Describe how transcription and translation convert DNA sequence information into functional proteins
• Use the genetic code and messenger intermediates to connect molecular sequence changes to phenotypic outcomes+ Show more

Learning Objectives

• Describe how satellite and aerial remote sensing collect data using different sensor types
• Explain how spectral information and multi-spectral indices can be used to monitor environmental change
• Interpret common derived products (e.g., snowpack mapping and vegetation/water indicators) for system-scale monitoring

Learning Objectives

• Explain what an electric field represents and how its direction is defined using a positive test charge.
• Interpret electric field lines to determine direction and relative field strength.
• Apply the superposition principle to describe how multiple electric fields combine.

Learning Objectives

• Explain how tectonic plate interactions drive mountain building, uplift, and long-term landscape evolution.
• Describe how crustal deformation and faulting influence sedimentary basins, drainage patterns, and seismicity.
• Connect deep Earth processes to surface outcomes such as rock formation and natural resource distribution.