Newfoundland and Labrador

Newfoundland and Labrador flag
Skills available for Newfoundland and Labrador grade 8 science curriculum

Objectives are in black and IXL science skills are in dark green. Hold your mouse over the name of a skill to view a sample question. Click on the name of a skill to practise that skill.

Showing alignments for:

Unit 1 Water Systems on Earth's Surface

  • Water Cycle's Vital Role

  • Comparing Ocean Water and Fresh Water

  • Sources of Fresh Water

    • describe major interactions among the hydrosphere, lithosphere, and atmosphere

    • describe how periods of climate change affect glaciers and describe the consequent effects on the environment

  • Water Systems and Species Distributions

    • analyze factors that affect productivity and species distribution in freshwater and marine environments

    • identify the effects of abiotic factors on plant and animal distributions in marine and freshwater ecosystems, including: temperature, dissolved oxygen, phosphates, increased acidity, turbidity, pollution and upwelling (marine)

    • select appropriate methods and tools for collecting data and information and for solving problems

    • interpret patterns and trends in data, and infer and explain relationships among the variables

    • prepare a presentation or report on the effect of abiotic factors on the distribution of species in freshwater and marine environments and evaluate processes used in planning and completing the task

    • predict and interpret trends in populations of a marine species from graphical data by interpolating and extrapolating data

  • Exploration of Ocean Basins

    • describe processes that lead to the development of ocean basins and continental drainage systems, including: volcanic action, plate tectonics, erosion and glaciation

    • provide examples of public and private Canadian institutions that support scientific and technological research involving the oceans, including: Environment Canada, Federal Fisheries, Oceans Sciences Centre and Centre for Cold Ocean Research C-CORE at Memorial University

    • investigate technologies that have assisted scientists to research ocean basins, including: sonar, satellites, underwater photography/videography, deep sea submersibles and diving

    • provide examples of how technologies, used to investigate the ocean floor, have improved over time

    • identify some strengths and weaknesses of technologies used to investigate the ocean floor

  • Ocean Currents and Waves

  • Waves and Shorelines

    • describe the processes of erosion and deposition at shorelines that result from wave action and water flow

  • Tides

    • explain how waves and tides are generated

  • Interactions at Shorelines

    • recognize that landforms result from the processes of erosion and deposition caused by wave action and water flow, including: beaches, shoal, sand bars, sea caves, sea arches and sea stacks

    • provide examples of various technologies designed to contain damage due to waves and tides

  • Oceans, Weather and Climate

  • Human Impacts on Marine Systems

    • describe some positive and negative effects of marine technologies on ocean species

    • recognize that problems related to the oceans cannot be completely resolved using scientific and technological knowledge

Unit 2 Fluids

  • Fluids and Viscosity

  • Comparing Viscosity

    • identify and relate personal activities and potential applications to fluid dynamics, including: pancake batter and motor oil

    • rephrase questions in a testable form and clearly define practical problems

    • identify and suggest explanation for discrepancies in data

    • compile and display data using a bar graph

    • carry out procedures controlling the major variables

    • interpret patterns and trends in data and infer and explain relationships among the variables

    • provide examples of products that have been developed because of our understanding of viscosity

    • provide examples of how science and technology affect our lives and community

    • describe the science underlying particular technologies designed to explore natural phenomena, extend human capabilities, or solve practical problems

    • relate personal activities in formal and informal settings to specific science disciplines

  • Factors that Affect Viscosity

    • describe factors that can modify the viscosity of a liquid

  • Defining Density

  • Determining Density

    • analyze quantitatively the density of various substances

    • use instruments effectively and accurately for collecting data

    • select appropriate methods and tools, and use them safely, in order to determine the volume of irregular shaped objects by water displacement

    • identify, and suggest explanations for, discrepancies in data

    • interpret patterns and trends in data and infer and explain relationships among the variables

    • calculate the density of various objects, including: irregular shaped objects, liquids, granular objects and regular shaped objects

  • Changes in Density

  • Balanced and Unbalanced Forces

  • Buoyancy and Buoyant Forces

    • describe the connection between weight, buoyancy, and sinking or floating

  • Applications of Buoyancy

    • provide examples of technologies that have been developed because of our understanding of density and buoyancy, including: personal flotation devices (ex. life jacks), submarines and hot air balloons

  • Pressure, Hydraulics and Pneumatics

    • describe quantitatively the relationship between force, area, and pressure

    • describe the science underlying hydraulic technologies

  • Physical Properties of Gases

Unit 3 Optics

  • The Nature of Science – The History of Light

    • provide examples of ideas and theories of light used in the past to explain observed properties, including: Pythagoras' belief that light consisted of beams of particles, Galileo's experiment trying to determine the speed of light and Michelson's experiment to measure the speed of light

    • provide examples of how scientific knowledge of light resulted in the development of early technologies, including: microscope and telescope

  • Properties of Visible Light

    • identify and describe properties of visible light, including the following properties, definitions and examples: travels in a straight line (rectilinear propagation) e.g. shadow formation; reflects (reflection) e.g. mirrors (specular) and dust (diffuse); refracts (refraction) e.g. bent stick effect; disperses (dispersion) e.g. formation of a rainbow as light separates into its constituent colours; travels through a vacuum (does not require a medium) e.g. light from Sun and stars reaching Earth through space; and travels through transparent, translucent and opaque materials to different amounts e.g. window pane, frosted window and door

  • Electromagnetic Radiation and Dispersion

  • The Electromagnetic Spectrum

  • Reflection

    • formulate operational definitions for incidence, reflection, and the normal

    • describe the laws of reflection of visible light and their applications in everyday life

    • use mirrors effectively and accurately for investigating the characteristics of images formed

    • define and delimit questions and problems to facilitate investigation

    • state a prediction and a hypothesis based on background information or an observed pattern

    • use tools and apparatus safely

    • state a conclusion, based on experimental data, and explain how evidence gathered supports or refutes an initial idea

  • Reflection – Plane Mirrors

    • describe the laws of reflection of visible light and their applications in everyday life

    • use mirrors effectively and accurately for investigating the characteristics of images formed

  • Reflection – Curved Mirrors

    • use mirrors effectively and accurately for investigating the characteristics of images formed

  • Refraction

    • identify questions to investigate involving refraction arising from practical problems and issues, including: bent stick effect and apparent position of a fish under water

    • describe qualitatively how visible light is refracted

    • estimate angles of incidence and refraction, including: as light moves from a less dense medium to a more dense medium and as light moves from a more dense medium to a less dense medium

    • conduct an experiment to describe the path of refracted rays through transparent media

    • design an experiment and identify major variables

    • work cooperatively and collaboratively with others

    • identify that a light ray traveling into a medium of greater density will bend towards the normal and a light ray traveling into a medium of lesser density will bend away from the normal

    • predict the effect of transparent media of varying densities on the angle of refraction of light, including: vegetable oil, water and 30% sugar solution

  • Refraction – Lenses

    • describe qualitatively how visible light is refracted

  • Development of Optical Technologies

    • describe how optical technologies have developed through systematic trial-and-error processes constrained by the optical properties of the materials

    • provide examples of optical technologies that enable scientific research and relate personal activities associated with such technologies

    • provide examples related to optics that illustrate that scientific and technological activities take place individually and in group settings

Unit 4 Cells, Tissues, Organs and Systems