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Found 31 resources
HHbondHHydrogen Molecule (2 atoms)

The Chemistry of Water

Lesson Grade 6, 7, 8

Students learn how molecular hydrogen ($\ce{H2}$) and molecular oxygen ($\ce{O2}$) combine in a chemical reaction to form water ($\ce{H2O}$), exploring molecular structure, chemical equations, and conservation of matter.

6.PS.1.1 6.PS.1.2 MS-PS1-5
SunEarthMoonMoon orbits EarthEarth rotates

Earth's Place in the Universe - Intro

Lesson Grade 6

A 10-minute intro lesson using a quick model to connect the Sun-Earth-Moon system to observable patterns (day/night now; seasons, tides, phases, eclipses preview).

6.E.1 6.E.1.1
Heredity from parents to offspring Boxes for two parents with arrows pointing to an offspring, showing traits passed down across generations. Parent 1 Parent 2 Offspring genes in DNA genes in DNA traits inheritance

Heredity - Vocabulary

Lesson Grade 7

A robust Grade 7 genetics vocabulary reference aligned to heredity, dominant and recessive traits, genetic variation, and mutation.

LS.7.2.1 LS.7.2.2 LS.7.2.3 +2 more
Energy enters and moves through an ecosystem Flow diagram: Sunlight to producers (plants and algae) by photosynthesis, then to consumers by eating, then to decomposers from dead matter. At every step, some energy leaves the system as heat from respiration. Energy flow in an ecosystem Energy enters mainly as sunlight, is transformed, and is lost as heat at each step. Sunlight Producers plants, algae Consumers herbivores Consumers carnivores Decomposers fungi, bacteria detritivores light energy eating eating waste + death heat (respiration) heat heat heat Energy flows one-way: in as sunlight, out as heat. Matter (atoms) can be recycled.

Food Webs & Energy Flow

Lesson Grade 8

A 30 minute Grade 8 lesson on how energy enters ecosystems (mainly sunlight), how producers convert it to chemical energy, and how energy is transferred and lost as heat through a food web.

MS-LS2-3
Quadratic Formula ComponentsVisual breakdown of the quadratic formula showing each component and its meaningThe Quadratic Formulax = -b ± b² - 4ac2aOpposite of bThe Discriminantb² - 4acDivide by twice the leading coefficientMemory Tip"Negative b, plus orminus the square root..."± gives two answersOne with +, one with -

The Quadratic Formula

Lesson Grade 9, 10, 11

Students learn the quadratic formula, understand its derivation from completing the square, and apply it to solve quadratic equations. Includes guidance on when to use the formula versus other methods, interpretation of the discriminant, and real-world applications.

HSA-REI.B.4 HSA-REI.B.4a HSA-REI.B.4b
Cross: Aa x Aa (fictional trait)Parent 1 allelesParent 2 allelesAaAaAAAaAaaa

Heredity & Traits - Intro

Lesson Grade 7

A 10-minute in-class introduction to heredity. Students learn key vocabulary (gene, allele, trait), connect inheritance to variation, and practice a simple Punnett square using a fictional organism.

7.L.2 7.L.2.1 7.L.2.2

Understanding Severe Weather

Lesson Grade 6, 7, 8

Interactive lesson on severe weather covering winter storms and thunderstorms, including current events and guided notes assessment.

6.ESS.2 6.PS.2
Trophic levels and energy loss Stacked pyramid showing producers at the base and tertiary consumers at the top. Text explains energy decreases at higher levels because organisms use energy for life processes and release heat. Trophic levels (energy decreases upward) Producers (plants, algae) Primary consumers (herbivores) Secondary consumers (predators, omnivores) Tertiary consumers (apex predators) Why fewer at the top? - Energy is used for movement, growth, and body heat. - Only part transfers to the next level (often about 10%). Result: fewer large predators than plants. less usable energy

Food Web of Various Biomes

Lesson Grade 8

Grade 8 science learning object that defines biomes and explains how food webs (producers, consumers, decomposers, and trophic levels) differ across major terrestrial and aquatic biomes. Includes biome locations, typical organisms, and food web pathways, plus activities and assessments.

MS-LS2-1 MS-LS2-3 MS-LS2-4
Genetic variation: asexual vs sexual reproduction Asexual (clones) Sexual (mix alleles) Parent Offspring are genetically the same Two parents Offspring has a new combination Sexual reproduction usually creates more variation because alleles combine in many ways.

Grade 7 Quick Quiz: Heredity and Traits Review

Lesson Grade 7

A 5-question multiple-choice quiz on sexual vs asexual reproduction, inherited vs acquired traits, Punnett squares, inbreeding risks, and DNA packaging in the nucleus.

Genes, environment, and survival DNA from parents leads to gene expression and traits. Environment and lifestyle feed into gene expression and survival. Traits affect survival and reproduction across generations. Genes, environment, and survival A model: genes set possibilities; environment influences expression and survival. DNA from parents (genes inherited) Gene expression (genes used more/less) Traits (phenotype) Environment and lifestyle food, sleep, stress, toxins sunlight, exercise, illness Survival and health who lives long enough to reproduce Over generations: traits that help survival/reproduction may become more common leads to helps form can change also affects

Environment and Lifestyle Choices on Biological Inheritance

Lesson Grade 7

A 30 minute Grade 7 lesson on how environment and lifestyle affect gene expression, health, and survival, and how some environmental factors can affect inheritance through mutations and epigenetic mechanisms.

7.L.2.3

What Makes You, You?

Lesson Grade 7

Students explore inherited and acquired traits, understand how genes carry information from parents to offspring, and discover the relationship between DNA, genes, and observable characteristics.

7.L.2
ProducersPrimary Consumers

Energy Flow in Ecosystems

Lesson Grade 8

A deep dive into how energy is transferred and lost as it moves from producers to apex predators.

MS-LS2-3
Known moons by planet (counts can change) Horizontal bar chart showing the number of known moons for each planet: Mercury 0, Venus 0, Earth 1, Mars 2, Jupiter 97, Saturn 274, Uranus 29, Neptune 16. Known moons by planet (as currently confirmed) Counts can change when small moons are discovered or reclassified. 0 50 100 150 200 250 Mercury 0 Venus 0 Earth 1 Mars 2 Jupiter 97 Saturn 274 Uranus 29 Neptune 16 Note: Some dwarf planets also have moons (for example, Pluto has 5).

Moons of our Solar System: from captured rocks to ocean worlds, with a deep dive on Earth's Moon

Lesson Grade 6

A 30-45 minute Grade 6 lesson introducing what moons are, the moons of our Solar System, and standout moon facts, with about half the lesson focused on Earth's Moon, tides, and tidal locking.

MS-ESS1-1 MS-PS2-4

The Changing Moon

Lesson Grade 6

Students learn why the Moon appears to change shape throughout the month, understand the relationship between Moon phases and tides, and explore solar and lunar eclipses.

6.E.1

Tilted!

Lesson Grade 6

Students learn that Earth's axial tilt—not distance from the Sun—causes seasons, and understand how the angle of sunlight affects temperature and daylight hours throughout the year.

6.E.1

Grade 6 Science Assessment

Assessment Grade 6

Comprehensive assessment covering NC DPI 2023 K-12 Science Standards for Grade 6

PS.6.1 PS.6.2 PS.6.3 +5 more
The Eight Phases of the MoonCircular diagram showing the eight moon phases arranged clockwise around a central Earth label, from New Moon through Waxing Crescent, First Quarter, Waxing Gibbous, Full Moon, Waning Gibbous, Third Quarter, and Waning Crescent.EarthNew MoonWaxingCrescentFirst QuarterWaxingGibbousFull MoonWaningGibbousThird QuarterWaningCrescentLunar CycleSunlight comes from the right side of the diagram

Oreo Moon Phases

Lesson Grade 6

Students use Oreo cookies to create physical models of moon phases. Each student is randomly assigned four of the eight lunar phases, writes the phase names on paper, then carefully removes cream from Oreo cookies to visually represent each assigned phase.

ESS.6.1.1 ESS.6.1
SUNNSJUNESummer (NH)SEPTEMBERFall Equinox (NH)NSDECEMBERWinter (NH)MARCHSpring Equinox (NH)Earth's axis always points the same direction — the tilt never changes, only Earth's position in orbit.NH tilted TOWARD SunNH tilted AWAY from Sun

Why Charlotte Doesn't Freeze in June: Seasons & Earth's Tilt

Lesson Grade 6

Students watch the Generation Genius 'Causes of Seasons' video and build a mental model of how Earth's axial tilt — not its distance from the Sun — drives seasonal changes in temperature, daylight hours, and sunlight intensity across the hemispheres. The lesson connects abstract orbital mechanics to students' lived experience of seasons in Charlotte, North Carolina.

6.E.1.1 6.ESS.1.1 MS-ESS1-1 +1 more