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Teaching Climate Change: hands-on sea ice albedo experiment

Albedo lab materials - tubs with water and foil

Are you looking for a hands-on activity to teach climate change? In this lab activity, students will create a model of sea ice and ocean water albedo using aluminum foil and two tubs of water. Students will track the temperature in a covered and uncovered tub on a sunny day. Students will learn about albedo and the impacts of positive feedback loops in climate change.

Important: Iโ€™ve made the directions for this albedo lab activity available for free here in this post. If you would like printable directions and worksheets for this activity, you can purchase them in my Albedo Lab mini-study. These materials are also included within my complete Antarctica Unit and Polar Bundle.

Printable directions for the albedo lab activity are available in my mini-study.

Materials

Each lab group will need the following materials:

  • Two clear-bottomed shallow plastic tubs of equal size
  • Cold liquid water
  • A large piece of dark blue or black paper or cloth
  • Aluminum foil
  • 2 thermometers
  • Printed student handouts and worksheets
Student worksheets for the albedo lab activity.

Tips for Success

  • Complete this lab on a sunny, warm day close to mid-day when the sun is overhead. This lab may not work on cold or overcast days, or in the early morning or afternoon when the sun is at a lower angle in the sky.
  • Students should record the water temperature in the two tubs at a 5-minute interval. If the water is warming slowly, you can instruct students to switch to a 10-minute interval.
  • Once students see a clear trend or pattern, you may instruct them to stop taking measurements.
two tubs of water, one covered in foil

Activity Structure and Emphasizing Key Concepts

  • Before starting the lab, ask your students if they would feel cooler wearing a black or white shirt on a sunny day. Or, ask them if they would be more comfortable standing barefoot on blacktop or grass on a hot day.
  • During the lab, introduce the term โ€œalbedoโ€ to your students โ€“ the amount of solar radiation reflected by a surface. Relate this to the black vs white shirt example and the blacktop vs grass example.
  • After completing the lab procedure, ask your students what they think happens to ocean water at the poles when it is no longer covered in sea ice. Discuss how positive feedback loops work.
positive feedback loop diagram
I created this positive feedback loop diagram for you. It’s available in my shop, and you can support my blog with your purchase!

Step-by-Step Procedure

Head out to a sunny area, pass out the materials, then help your students work through the following steps:

  1. Fill the two clear plastic tubs with equal amounts of cold liquid water.
  2. Check the starting temperature of the water in both tubs. Record the temperatures on the worksheet. The starting temperature should be the same in both tubs.
  3. Fully cover one tub in aluminum foil. This tub represents ocean water covered in a layer of reflective sea ice. The other tub represents uncovered ocean water.
  4. Lay your dark fabric on the ground or table outside in direct sunlight. The dark fabric represents the dark color of ocean water.
  5. Position your tubs on top of the dark fabric in direct sunlight.
  6. Wait 5 minutes.
  7. Check the temperature in both tubs, by inserting the thermometer into the water at the center of the container. Poke a small hole through the foil to insert the thermometer when you check the temperature in the foil-covered tub. Record the temperatures on your worksheet.
  8. Continue to check and record the temperatures every 5 minutes.
  9. Which tub is warming faster? Discuss why.

Discussion Questions

After working through the lab procedure, have your students discuss the following questions in small groups or as a whole class.

  1. Which tub became warmer faster? Explain why.
  2. Which would get warm faster, ocean water covered in reflective sea ice or exposed ocean water? Explain why.
  3. What is albedo? *in your own words
  4. What is a positive feedback loop? *in your own words
  5. In your own words, describe a positive feedback loop involving melting sea ice and climate change.

Worksheets and Printable Directions

There’s no need to put together worksheets and handouts for this lab – I’ve already created them for you! You can purchase them in my Albedo Lab Mini Study. These materials are also found within my complete Antarctica Unit and Polar Bundle.

The albedo lab materials are also found within these products:

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Flower Dissection: try this simple hands-on science activity in your classroom!

pink flower, tweezers, and scissors with worksheets.

Are you teaching your students about the parts of a flower or plant anatomy? Sometimes the best way to understand how something works is by taking it apart. A flower dissection is a simple and engaging hands-on activity that brings plant anatomy to life in your classroom. In this activity, students will carefully examine and identify key flower structures like petals, sepals, carpels, and stamens. Plus, theyโ€™ll explore the fascinating connection between flowers and Fibonacci numbers in nature!

If you’re looking for more background information about flower anatomy, be sure to check out my blog post where I cover the four main whorls of a flower. You can also learn more about the functions of flowers and their various parts in the plant life cycle in this post about pollination and the plant life cycle!

Please Note: I’ve made the directions for this flower dissection activity available for free here in this post. If you would like printable directions and worksheets for this activity, you can find them in my complete Flowers Unit in my shop.

Materials

Each student will need the following materials:

  • Flowers
  • Tweezers
  • Glue
  • Pencils or pens
  • Printed student directions and lab worksheet (available in my Flower Unit)

Tips for Success

  • Have flower and plant anatomy diagrams on hand so your students can reference them as they dissect their flowers. Need diagrams? Try one of these options:
    • You can find my hand-drawn flower & plant anatomy diagrams in my flowers unit (linked above)
    • You can also find a free flower diagram on my free resources page (pictured below)!
  • Use a large flower so that students can easily see all the parts.
  • Use a complete flower with all four main flower parts: sepals, petals, carpels, and stamens. For example, lilies, hibiscuses, or tulips are all good choices.
diagram showing the parts of a flower

Directions

Part 1: Flower Dissection

Pass out the materials to your students. Give a brief overview of the main parts of a flower. Then, assist your students as they work through the following steps to dissect their flowers:

  1. Use the tweezers or your fingers to carefully remove the sepals and then the petals from your flower.
  2. Break apart the carpel(s) and stamens.
  3. Count the number of sepals, petals, carpels, and stamens and record the number of each.
  4. Glue one of each part to the lab worksheet.
  5. Use a pencil or pen to draw arrows and label the stigma, style, and ovary on the carpel glued to the lab worksheet.
  6. Use a pencil or pen to draw arrows and label the anther and filament on the stamen glued to the lab worksheet.

Part 2:ย  Fibonacci Numbers in Nature

Fibonacci numbers form a sequence so that each number is the sum of the previous two numbers (e.g., 1+1 = 2; 2+1 = 3, 3+2 = 5; 5+3=8; and so on). Fibonacci numbers are often found in nature. Students should answer the following questions:

  1. Calculate and write down the next 5 numbers in the Fibonacci sequence: 1,1,2,3,5,8,… ___, ___, ___, ___, ___
  2. Look back at your lab worksheet. How many petals did your flower have? Is this a Fibonacci number? What about the sepals? Carpels? Stamens?

Study Flowers with Wild Earth Lab!

If you enjoyed this activity, I know you’ll love my Flowers Unit! It includes everything you need for this activity and other flower projects too!

OR – take your botany learning to the next level with my Botany Collection. It’s a bundle of three plant units: Flowers, Pollination, and Fruit!

Ready for another dissection?

Read my blog post on how to do a Mushroom Dissection Lab!

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If you enjoyed this post, I know you will love trying my other science and nature units in your classroom too!


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5 Winter-Themed STEM Activities: snowflakes, glaciers, and more!

Winter classroom STEM activities

Looking for fun and educational ways to bring STEM learning into your homeschool or classroom this winter? These winter-themed activities are perfect for exploring science, technology, engineering, and math through hands-on projects that celebrate the season. From measuring snow and studying glaciers to investigating the science behind snowflakes and symmetry, these activities will keep students engaged all winter long. Grab your winter coat and get ready to dive into these exciting winter STEM activities!

Wild Earth Lab is supported by readers like you. This post includes links to my own products and affiliate products. If you purchase through links on my site, I may earn a small commission at no additional cost to you.

1. Measure snow like a scientist

If you live somewhere that gets snow in winter, youโ€™ve likely measured the depth of snow before! But with a few extra steps, you can turn this simple task into an awesome, hands-on snow science activity.

Start by learning about snow water equivilent and how to calculate it. This can be a great way to start a conversation about snow in the water cycle, and the ways snow supplies our rivers and aquifers with an important input of water.

You can find the full activity directions for a snow measurements activity in my blog! Or better yet, you can save time and support my blog when you purchase the printable worksheets and directions for this activity in my complete Science in the Snow Unit.

โ˜ž Upgrade your outdoor learning:

Measuring snow with your students? You can track the snow all winter long by placing a metal snow gauge in your yard or outdoor learning area. Whether you’re teaching in the classroom or at home, you can create an inspiring outdoor learning area for studying snow, weather, and more.

Cardinal Snow Gauge: product and image from Soldarmetals on Etsy.
Snow Gauge: product and image from Swenproducts on Etsy.

2. Explore glaciers and climate science

Why study glaciers this winter? Glaciers tie in to many important science topics – not just geology and landforms, but also climate science, sea level rise, and water resources! Glaciers are an important reservoir of frozen freshwater on Earth. However, glaciers all over the world are receding and disappearing due to climate change, putting communities at risk of flooding and altering ecosystems.

Furthermore, glaciers teach scientists about our Earth’s past! Glacial ice is like a time capsule, holding important clues about the history of our Earth and its climate. By studying glaciers, students can learn about and discuss the past, present, AND future of our climate!

Ready to study glaciers? You can read more about the types of glaciers and how they form in my blog post! Or better yet, you can save time and support my blog when you purchase my Glaciers Unit – complete with classroom activities, worksheets, handouts and more.

valley glacier diagram

3. Read about how snowflakes form

If you’ve ever looked at a snowflake under a microscope or magnifying glass, you know that each snowflake is a unique, beautiful formation. But how do these amazing water crystal structures form? It all starts high in earth’s atmosphere, with a dust particle and water vapor. Since every snowflake takes a slightly different path to the ground, each snowflake runs into unique conditions along the way. These different experiences impact the way each snowflake forms.

Learning about the formation of snow ties in to studies of meterology and the three phases of water. Because of this, snowflake formation is an engaging winter science topic at many different levels.

Need materials for studying snowflakes? Read a step-by-step description of how snowflakes form in my blog post! Or, find printable snowflake formation materials in my Snowflake Mini Study or in my complete Geometry in the Snow Unit.

formation of a snowflake diagram

4. Learn about symmetry with paper snowflakes

When it comes to geometry, snowflakes provide a great tool for learning about symmetry with a winter-y twist! Cutting paper snowflakes from coffee filters or paper is a great hands-on way to study rotational symmetry, planes of symmetry, and more!

Paper snowflakes are an easy activity to DIY! But if you’re looking for a little guidance, I’ve got you covered. Activity directions and worksheets for a paper snowflakes & lines of symmetry lesson are also found in my Geometry in the Snow Unit.

lines of symmetry classroom handouts

5. Study the animals of the poles!

Winter is the perfect time to study the survival strategies of animals that live in the coldest places on earth! Topics could include survival strategies like migration, hibernation, and insulation or the food webs and ecosystems of the Arctic or Antarctic.

Studying and modeling arctic food webs is a fun, hands-on ecology activity that students love. You can learn how to build your own food webs in my blog post. Furthermore, you can learn all about arctic ecology and find materials for an arctic food webs lesson in my Arctic Unit.

handouts and classroom printables

Winter studies with Wild Earth Lab!

Thereโ€™s no need to scramble to put together the perfect winter science lesson  โ€“ Iโ€™ve already created some for you! The winter stem activities from this post come from my winter STEM units:

Explore more lessons from Wild Earth Lab:

If you enjoyed these winter stem activities, I know you will love trying my other science and nature units in your classroom too!


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Rock ID Lab: directions and materials list for a classroom geology activity

a box of rock samples

In this activity, students will become familiar with rocksโ€™ physical properties and the basics of rock identification. Students will sort rocks into groups based on their observations and learn about the physical properties of rocks. At the end of the rock ID lab, students can try identifying rocks by type, subtype, and name.

No prior rock ID experience is needed for students to complete this lab activity. Part A especially is a great way for beginners to explore the physical properties of rocks! However, before beginning parts B and C of this activity, students should already be familiar with the rock cycle and the three main types of rocks (igneous, sedimentary, and metamorphic!) and their sub-types.

Before starting the lab, students should also know the difference between rocks and minerals. Often, it makes sense to do a mineral lab before diving into a rocks ID lab. You can find my mineral lab online write up (free) or the printable directions (for purchase).

Please Note: I’ve made the directions for this rock ID lab activity available for free here in this post. However, if you want printable directions, worksheets, flashcards, readings, and teaching posters for a rock ID lab, you can purchase them in my shop. The printable rock ID flashcards are included but also sold individually. Or, you can find all these materials plus more in my complete Rocks and Minerals Unit.

Materials

This activity requires one of each item per lab group unless stated otherwise.

  • 10+ rock  samples labeled with numbers 1-10+
    • Recommended: granite, gabbro, rhyolite, basalt, limestone, conglomerate, mudstone, gneiss, slate, and marble
    • You can complete this lab with a different rock sample set, but it is ideal to have a mixture of common igneous, sedimentary, and metamorphic rocks.
  • Hand lens or microscope
  • Juice of a lemon
  • Eye dropper
  • Student worksheets (1 set per student)
  • Teaching posters
  • Rock cards
Save preparation time AND support my blog: purchase all the printable materials you need to complete a rock ID lab in my shop!

Modifications (optional)

  • To make this rock ID lab simpler, do parts B and C all together as a class.
  • As an alternative to parts B and C, you could tell students which rocks are igneous, sedimentary, and metamorphic and then ask students to find some similarities between the rocks within each group.
  • To simplify part C, tell your students which 10 rock samples they have, but do not tell them which is which. This allows students to use the process of elimination to identify the most difficult samples.

Safety Notes

  • Read and comply with any warnings on the packaging and safety information sheets of rock samples and test kit tools used to complete this lab.
  • Adult supervision is required at all times while completing this lab.

Directions

Part A: Examine the Rocks

  1. Allow the students to familiarize themselves with the rock samples by picking them up, looking at them, etc…
  2. Ask the students to take note of which rock samples…
    • Are light colored?
    • Are dark colored?
    • Have several different colors?
    • Are one solid color?
    • Are made of crystals? (use hand-lens or microscope)
    • Are made of sediment particles stuck together? (use hand-lens or microscope)
    • Are fine-grained?
    • Sparkle?
    • Are dull?
    • Are soft or break or crumble easily?
    • Are very solid and don’t break or crumble?
    • Have stripes or layers? (foliation)
    • React to an acid (lemon juice)?
      • Note for acid reactions: rocks with a very high calcium carbonate content (e.g., marble, limestone, and coquina) should react with a drop or two of acidic lemon juice. They will bubble and fizz. Rocks with a lower calcium carbonate content (e.g., some mudstones) may bubble and fizz slightly.
Need worksheets and handouts? Purchase my set of printable materials that complement this activity!

Part B: Rock Types & Sub-Types

  1. As a class, review or research the properties of igneous, sedimentary, and metamorphic rocks and their sub-types. Create a list of the properties (texture, composition, foliation, etc…) you might see in each of these rock types and subtypes:
    • Igneous:
      • Extrusive
      • Intrusive
    • Sedimentary:
      • Chemical
      • Clastic
      • Biochemical and organic
    • Metamorphic:
      • Foliated
      • Nonfoliated
  2. As you create your lists, introduce/review the following concepts: mafic vs felsic, igneous textures, grain sizes, and foliation. For this step, the teaching posters found in my product will be a helpful visual aid.
  3. Students should write detailed descriptions of each rock sample, noting the following physical properties:
    • Texture (use a microscope or hand lens)
    • Composition
    • Luster
    • Color
    • Foliation (use hand lens if needed)
    • Acid reaction (strong reaction, weak reaction, no reaction)
    • Other properties
  4. See if your students can correctly identify the type or subtype of any of the rock samples.
    • Start with rocks that can be most easily identified. For example, a rock with clear foliation can quickly be identified as a metamorphic foliated rock. A rock that is made of sediment particles cemented together can be quickly identified as a sedimentary clastic rock.
    • It is OK if there are some rocks that your students are unsure about. Discuss why they are unsure and if there are any types/sub-types they can rule out. It may not be possible to identify certain rocks in a classroom setting.
  5. After this part of the lab is complete, reveal which rocks were sedimentary, igneous, and metamorphic. You may also lead a discussion on how the physical properties of rocks relate to how they formed. E.g., large crystals form deep underground, foliation forms under directional pressure, etc…
Teaching posters for this Rock ID activity(available for purchase)

Part C: Rock ID

  1. Pass out the rock information flashcards or a different rock ID guide of your choosing.
    • For an added challenge: encourage students to only look at the front (info/text-only) side of the flashcards while making their IDs. The backs of the flashcards include pictures and names of the rocks.
  2. The students should read the properties listed on each flashcard.
  3. Students can compare the rock properties on the flashcards to their written descriptions of each sample.
  4. Students should do their best to match each rock sample to its correct identity.
  5. Rock ID is challenging: assist students if they become stuck.
  6. End the lab by revealing the correct identity of each sample.
My Rock ID cards make identifying common rocks a breeze!

Study Rocks and Minerals with Wild Earth Lab!

Save time by purchasing all the printable materials you need for a rock ID lab! This set includes all the worksheets, teaching posters, flashcards, and handouts you need for completing this rock ID activity:

OR: you can also find all the above materials plus more in my full Rocks and Minerals Unit:

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If you enjoyed this post, I know you will love trying my other science and nature units in your classroom too!


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Mushroom Dissection + Spore Prints: Try this fun mycology activity in your classroom!

mushrooms, metal instruments, and worksheets

Studying the parts of a mushroom is a fun biology activity for students at many levels. One of the best, hands-on ways to learn mushroom anatomy is by dissecting one. In this mushroom dissection activity, students will observe the internal and external parts of a mushroom. Students will operate a microscope to observe spores and mushroom gill anatomy. Finally, students will create their own spore prints by allowing mushrooms to release their spores onto paper.

Please Note: I’ve made the directions for this mushroom dissection activity available for free here in this post. If you would like printable directions and worksheets for this activity, you can purchase them in my shop. You can find these materials and more mushroom learning materials in my complete Mushrooms Unit!

Materials

  • Printed copies of the Mushroom Dissection Student Guide (1 per student)
  • Printed copies of the Mushroom Dissection Lab Worksheet (1 per student)
  • Printed copies of the Mushroom Anatomy Diagram (1 per lab bench)
  • Fresh, mature mushrooms like portabella, shitake, etc… (a few of each variety per lab bench)
  • Plastic butter knives (1 per lab bench)
  • Forceps (1 per lab bench)
  • Microscopes (1 per lab bench)
  • Microscope slides w/ coverslips (1 per lab bench)
  • Eyedroppers & water (1 per lab bench)
  • Sheets of white and black paper (1 of each per lab bench)
  • Small containers or bowls (1 per lab bench)

Safety Notes and Suggestions

  • Do not eat the mushrooms handled during this lab.
  • Use caution and always supervise your students when handling sharp instruments including forceps, butter knives, and glass microscope slides.
  • You will have a better chance of observing spores using fresh, mature mushrooms (i.e., the gills are visible) rather than immature button mushrooms.
  • If you do not have a microscope skip steps 6-8 in Part 1.
brown mushrooms on beige surface
Photo by Laker on Pexels.com

Directions

Part 1: Mushroom Dissection

A mushroom is the fruiting body of certain fungi. By dissecting a mushroom, you can see the parts of a mushroom up close. These parts help the fungi produce and release spores to create more fungi.

  1. Examine your mushroom. Locate the cap, stipe, and gills (or veil covering the gills). Sketch your mushroom on the student worksheet, labeling the cap, stipe, gills, and other parts you see such as an annulus, volva, or mycelium still attached.
  2. Using fingers or forceps, gently peel away and remove any veil covering the gills (if needed).
  3. Remove the stipe from the cap by gently pulling or twisting on the stipe.
  4. Break or cut the stipe in half length-wise.
  5. Do you see any long, thin filaments or strings on the inside of the stipe? These are hyphae. Sketch the inside of the stipe on the student worksheet, labeling any hyphae.
  6. Remove one gill from the mushroom. Use the forceps to grasp and gently pull away one gill.
  7. Place the gill on a microscope slide. Add a drop of water and a coverslip.
  8. Examine your gill under the microscope and sketch what you see. Basidia are tiny knobs on the gill that make spores. Label the basidia and any spores you see attached to them in your sketch.
  9. If you have a second type of mushroom, repeat steps 1-8 with the second mushroom.
  10. Once finished, discard all mushroom parts EXCEPT for the cap(s) and clean your microscope slide.

Part 2:  Spore Prints

Spores are released from mushrooms as part of the life cycle of a fungus. You can make unique artwork by allowing mushroom caps to drop their spores onto paper.

  1. You can use the mushroom cap(s) from part 1 to make a spore print. Ask your instructor for additional mushrooms to make additional prints.
  2. With any new mushrooms: remove the stipes and peel away any veils covering the gills.
  3. Spores may be light or dark-colored. Try using both black and white paper for your spore prints to ensure the spores are visible.
  4. Place the mushroom caps with the gills facing down on top of the papers.
  5. Place an upside-down container or bowl over the mushroom caps to protect them.
  6. Leave the caps alone overnight. During this time, the gills will release spores which will fall onto the paper.
  7. The next day: remove the containers and mushroom caps to reveal the spore prints.

Study Mushrooms with Wild Earth Lab!

Thereโ€™s no need to create your own mushroom dissection worksheets and print directions – I’ve already made them for you! You can save time and support my blog with your purchase from my shop.

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Journey of a Snowflake: learn how snow forms

Watercolor snowflakes overlaid with text: "let's learn about the journey of a snowflake read about how snow forms in 6 steps!"
text that says share this post

Are you ready to learn how snowflakes form? Whether you’re teaching at home or in the classroom, studying the formation of snowflakes with your students is a fun winter learning activity. In this post, we’ll follow the journey of a snowflake as it forms high in the atmosphere and then falls to Earth!

Snow is frozen precipitation; snowflakes are made of ice crystals – water in the solid phase.

Since every snowflake takes a slightly different path to the ground, each snowflake runs into unique conditions along the way (temperatures, wind currents). These different experiences impact the way each snowflake forms. Because of this, every snowflake looks different! However, each snowflake has six sides because of the properties of water molecules.

I made this printable diagram of a snowflake forming! You can download and print this poster from my shop, or find the poster within my Snowflake Mini Study or my Geometry in the Snow Unit.

If you live in a place that receives snow in the winter, studying snow and snowflakes can be a fun activity to do with your class or homeschool. If you’re an educator planning a lesson, be sure to check out my snowflake lesson materials that go along with this blog post. You can also read my post about how to measure snow as a hands-on classroom activity for learning about snow and the water cycle!

Now, let’s see how a snowflake forms, in six steps…

One

The formation of a snowflake begins with a dust particle high in the earthโ€™s atmosphere with temperatures below freezing.

Two

Water vapor from the air is attracted to the dust particle.

Three

As water from the air freezes around the dust particle, it begins forming a six-sided prism.

Four

As more water from the air freezes on the snowflakeโ€™s surfaces, branches may form on each of the six sides.

Five

As the snowflake becomes larger, additional branching may develop off each main branch.

Six

If temperatures at ground level are below freezing, the frozen snowflake will reach the ground.

Learn about snow with Wild Earth Lab:

Are you putting together a snow lesson plan for your science classroom or homeschool? Be sure to check out my snow learning materials! I have options for various grade levels, and best of all you’ll save time planning your lesson while supporting my blog with your purchase!

Check out my Snowflake Mini Study!

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7 Engaging Ecology Topics to Elevate Your Science Lessons

Image of a caterpillar hanging on a leaf, overlaid with text "7 engaging ecology topics to elevate your science lessons! Your guide to planning an awesome ecology lesson for your science class or homeschool"

Are you searching for a fun and unique ecology topic to teach in your science classroom? Look no further! In this post, I’ve compiled seven fascinating ecology topics that will spark curiosity about the natural world in your students. Additionally, this post compiles resources and science lessons related to bioindicators, symbiotic relationships, ecological succession, and more – to help you plan and find materials for teaching your next ecology lesson. Whether you’re a science teacher or a homeschool parent, these engaging subjects will inspire your students and make your lessons unforgettable.

A note for educators: The activities from this blog post come from my complete Ecology Units. These units are packed with all the materials you need for teaching ecology – including hands-on activities and visual aids designed to deepen understanding. These units make teaching ecology fun and easy โ€“ and every purchase helps support this blog!

1. Symbiotic Relationships

A symbiotic relationship is a long-term interaction between two species. Symbiotic relationships typically benefit at least one and sometimes both of the two species involved. Symbiosis is a great topic to cover when teaching students about ecology. There are so many examples: pollination, lichens, seed dispersal, parasites, and more!

Resources for teaching symbiotic relationships:
a classroom handout for studying the symbiotic relationships of trees
Teach your students about the symbiotic relationships of trees with my set of Symbiotic Relationship learning materials

2. Biomimicry

This is a fun, interdisciplinary topic that relates to both ecology and engineering! Biomimicry, also called biomimetics, is when people draw inspiration from nature to design items and solve problems. Plant, fungi, and animal species evolved features and behaviors over vast periods of time to overcome challenges they face in their habitats. Engineers may mimic these features and behaviors from nature to improve their own designs.

Resources for teaching biomimicry:
tree frog with a close up on its toe, next to an image of tire tread

3. Camouflage

Camouflage is an adaptation that helps an animal disguise its appearance. Studying camouflage goes hand-in-hand with learning about animal adaptations. There are many types of camouflage. Camouflage may help an animal blend into its background or look like something inedible or toxic.

Resources for teaching camouflage:
  • Read about the types of animal camouflage in my blog
  • Find a free animal camouflage lesson on the PennState extension website (external link)
  • Read my step-by-step directions for setting up a fun camouflage lab activity
  • Get the worksheets for the lab activity when you purchase my camouflage mini study (external link)
classroom handouts of reptiles and worksheets

4. Adaptations & Natural Selection

Animal diversity and adaptations teach us about the roles of competition and natural selection in shaping life in the animal kingdom.

Resources for teaching adaptations & natural selection:
A plate with seeds next to some chopsticks, a clip, a spoon, and worksheets.
This bird beaks lab activity is a great way to learn about adaptations and natural selection – find the directions for this activity in my blog.

5. Bioindicators & Aquatic Macroinvertebrates

Macroinvertebrates make an awesome ecology lesson because you can find them in almost any stream or pond near you! Just flip over a few rocks in shallow water, and you’re sure to start finding aquatic macroinvertebrates! This can make a great field trip activity!

Furthermore, macroinvertebrates are a type of bioindicator used by scientists. A bioindicator is a type of organism whose wellbeing relates closely to ecological conditions and is studied by scientists. Certain macroinvertebrates are very sensitive to poor water quality and other human impacts. They are a great way to teach your students about healthy aquatic ecosystems.

Resources for teaching bioindicators & aquatic macroinvertebrates:
Scientist sits on the shore of a lake while sorting through a pan containing a lake benthic sample, looking for aquatic insects.
Looking through a lake sample for aquatic insects.

6. Disturbance and Succession

Disturbance and succession are good ecology topics to tie in with studies of wildfires, volcanic eruptions, and other natural disasters. These are natural events in ecosystems. A disturbance is some sort of event that causes a large and rapid change in an ecosystem – like a wildfire or a volcanic eruption. Succession is what follows – the natural and gradual change in an ecosystem over time. 

Resources for teaching disturbance and succession:

I think youโ€™ll love my wildfire & succession mini study! Click to learn more.

7. Food Webs

Studying food webs is a fantastic way to learn about the flow of energy between organisms. A food web is a complex network of feeding relationships between organisms in an ecosystem. Energy flows from the organism being eaten to the organism doing the eating.

When you study food webs, you can also teach related topics such as predator-prey relationships, trophic cascades, and the important role of decomposers in ecosystems. Best of all, kids can be creative and learn about wildlife by mapping their own example food webs.

Resources for teaching food webs:
a picture of animal and plant flashcards on the sidewalk with chalk arrows between them
Try this fun food-webs activity, detailed in my blog post

Study Ecology with Wild Earth Lab

I’ve saved you the trouble of putting together materials for an awesome ecology unit. Choose from my large collection of science lessons, which all include activities, worksheets, handouts, posters, and more:


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The Life Cycle of a Star: learn about nebulae, supernovas, black holes and more!

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Studying the star life cycle offers valuable insights into the beginnings of our solar system and the creation of elements. By learning about the life cycles of both sun-like and massive stars, students can explore the fascinating processes that shape our universe. In this post, we’ll guide you through the stages of star evolution, from the birth of a star in a nebula to the dramatic end of a massive star in a supernova. Letโ€™s dive into the cosmic journey of star formation!

Before we dive in:ย If youโ€™re an educator planning toย teach the Star Life Cycle, great activities and visuals are key to deepening understanding! I think you and your students will love my Star Life Cycle Materials, which you can also find within my complete Sun and Stars Unit (plus youโ€™ll support my blog with your purchase! โค๏ธ)

Are you an educator planning a sun or star lesson plan? I think you’ll love my Star Life Cycle materials, available in my shop!

Sun-like Star Life Cycle

Stellar Nebula

You can think of a stellar nebula as a star nursery. It is a place where new stars form. In reality, it is a gigantic cloud of gases and dust in space. Over time, the gases are pulled towards the center of the cloud by gravity. As more and more gases move closer and closer together, lots of heat and pressure build up. In fact, the atoms of gases get so close that they start fusing together in a process called nuclear fusion. When nuclear fusion starts, a new star is born!

Sun-like Star

A Sun-like star is also sometimes called an average star. They are smaller than massive stars. All stars make a lot of heat โ€“ but they are not really โ€œburningโ€ in the way that a log burns in a campfire.  What actually heats a star is a process called nuclear fusion. In a Sun-like star, hydrogen atoms are fusing to create helium atoms. Nuclear fusion happens within the core of the star and releases a lot of energy. This energy helps heat the outer layers of the star.

Red Giant

Over time, a Sun-like star uses up the fuel at its core. The hydrogen gets used up as it is fused into helium through nuclear fusion. Helium is denser and takes up less space than hydrogen. Because of this, the core shrinks as more helium is made. As this happens, the outer layers of the star swell, which allows the outermost parts to  become cooler.  As a result, the Sun-like star becomes larger and redder โ€“ a red giant!

White Dwarf

A white dwarf forms at the end of a Sun-like starโ€™s life cycle. The white dwarf is the remaining hot, dense material from the starโ€™s core. The outer layers of the star expand into a huge, loose cloud of gases. The shrunken core does not have enough gravity to keep a hold on its outer layers. The core, or white dwarf, is still very hot. Once it cools completely, it is called a black dwarf.

Planetary Nebula

As a dying starโ€™s core becomes a white dwarf, the outer layers become a planetary nebula. The planetary nebula is a huge, loose cloud of gases in space. Planetary nebulas do not really have anything to do with planets. They are named for their round-shape. A planetary nebula forms when a dying starโ€™s core no longer has enough gravity to keep a hold on the outer layers. The gases in the planetary nebula gradually drift off into space and may eventually get recycled into new stars!

Massive Star Life Cycle

Stellar Nebula

Just like a sun-like star, the massive star life cycle begins in a stellar nebula – the place where new stars form. In reality, it is a gigantic cloud of gases and dust in space. Over time, the gases are pulled towards the center of the cloud by gravity. As more and more gases move closer and closer together, lots of heat and pressure build up. In fact, the atoms of gases get so close that they start fusing together in a process called nuclear fusion. When nuclear fusion starts, a new star is born!

Massive Star

A massive star is at least 8-10 times the mass of our Sun. Because of this, it burns faster and hotter than a Sun-like star. Like Sun-like stars, massive star fuse hydrogen into helium within their cores. However, massive stars are so powerful that they eventually start fusing helium atoms into even heavier elements! Through fusion, massive stars create heavier elements like carbon, oxygen, silicon, and even iron. These heavier elements form during the later stages of a massive starโ€™s lifetime.

Red Super Giant

Over time, a massive star fuses all the hydrogen at its core into helium. But the massive star does not stop there โ€“ it keeps fusing elements into heavier and heavier ones until a very dense ball of iron forms at its core. As heavier elements replace lighter ones, the core shrinks. At the same time, the outer layers of the star swell, which allows the outermost parts to  become cooler.  As a result, the massive star becomes larger and redder โ€“ a red super giant!

Supernova

A supernova is a big explosion at the end of a massive starโ€™s life. This happens when a red super giantโ€™s core collapses. As the core collapses, the starโ€™s outer layers rapidly blow up in a huge explosion. The explosion scatters the matter from the star out into space โ€“ including all those different elements made through nuclear fusion. The matter may eventually become parts of new stars and planets. You even have atoms within your body that were once in a supernova!

Black Hole

During the death of an exceptionally large massive star (more than ~20 times the mass of our Sun), something special happens. When the starโ€™s core collapses in a supernova, it forms a single point of infinite density. In other words, you have a huge amount of mass in an infinitely tiny point. Because of its great mass, a black hole has a lot of gravity that pulls on all things nearby. There is a boundary around the black hole where nothing can escape the pull, even light! This boundary is called an event horizon.

Neutron Star

Smaller massive stars (~9-20 time the mass of our Sun) do not form black holes. Instead, during the supernova, the starโ€™s core collapses and becomes a neutron star. A neutron star is very small, relative to the original star, but incredibly dense. Scientists believe neutron stars are made mostly of neutrons. Apart from black holes, neutron stars have the highest densities in the known universe.

Study Star Life Cycles with Wild Earth Lab

1. Sun and Star Activity Ideas

Check out my blog post with 13 fun sun and star activity ideas! These activities include everything from crafts to math lessons, and are perfect for science classrooms and homeschooling.

2. Star Life Cycle Worksheets & Handouts

There’s no need to scramble to put together the perfect star life cycle lesson – I’ve already created it for you! This set includes labeled and unlabeled diagrams for practice, informational cards, handouts, and teaching posters.

3. A Complete Sun Unit

Or, if you want even more star and sun materials, you can get the Star Mini Study plus many more lessons in my huge Sun Unit!

classroom handouts and flashcards

Explore more lessons from Wild Earth Lab:

If you enjoyed this post, I know you will love using my environmental science materials in your classroom!


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References and Further Reading

  1. Harvard & Smithsonian Center for Astrophysics (n.d.). Planetary Nebulas. Available: https://www.cfa.harvard.edu/research/topic/planetary-nebulas
  2. Khan Academy (n.d.). Lesson 1: Life and death of stars. Cosmology and Astronomy Course. Accessed December 19, 2023. Available: https://www.khanacademy.org/science/cosmology-and-astronomy/stellar-life-topic/stellar-life-death-tutorial/v/birth-of-stars
  3. Las Cumbres Observatory (n.d.) SpaceBook (online resource). Chapter 4. Available: https://lco.global/spacebook/
  4. Lippincott, K. (1994). Astronomy: Eyewitness Science. DK Publishing.
  5. Moskowitz, C. (2019). Neutron Stars: Natureโ€™s Weirdest Form of Matter. Scientific American. Available: https://www.scientificamerican.com/article/neutron-stars-natures-weirdest-form-of-matter/

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How to Catch Aquatic Macroinvertebrates: a fun and educational field trip activity your students will love!

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Catching aquatic macroinvertebrates is an exciting, hands-on activity that makes for an unforgettable ecology field trip. This is an outdoor activity and is a great way to examine the diverse organisms of freshwater ecosystems with your homeschool or science class. This activity will enhance your classroom studies of biodiversity, bioindicators, entomology, or aquatic food webs. In this post, Iโ€™ll guide you through three different techniques to successfully catch and observe aquatic macroinvertebrates. Let’s begin!

Before we dive in:ย If youโ€™re an educator planning toย teach macroinvertebrates, great visuals and activities are key to deepening understanding! I think you and your students will love myย complete Macroinvertebrates Unit (plus youโ€™ll support my blog with your purchase! โค๏ธ)

What are aquatic macroinvertebrates?

An aquatic macroinvertebrate is an animal with no backbone that lives in or on water and is big enough that you can see it with your naked eye. This includes animals like aquatic insects, other aquatic arthropods, aquatic mollusks, aquatic worms, and more.

Macroinvertebrates play an important role in aquatic ecosystems. Many macroinvertebrates help recycle nutrients back into the food web by consuming detritus (decaying matter) that settles to the bottom of the water. They may also eat algae or even other macroinvertebrates. These tiny creatures are an important food source for fish, birds, and other animals that live in and around ponds, streams, and wetlands.

Furthermore, aquatic macroinvertebrates are used by scientists as bioindicators – basically, they help tell us if a stream, pond, or wetland is healthy. You can read more about macroinvertebrates and their use as bioindicators in this blog post.

Catching Aquatic Macroinvertebrates Activity

Materials

Each group will need the following materials.

  • Fine-mesh net such as a pool net for collecting aquatic macroinvertebrates
  • Tweezers
  • Large, deep-sided pans (e.g., foil roast pans, pie tins)
  • Small jars or containers with holes in the lids
  • Footwear and clothing for shallow wading
  • Student handouts & worksheets (part of my macroinvertebrates unit, in my shop)
photo of worksheets overlaid with the text "and hands-on outdoor lab activities!"
You can save time and support my blog when you purchase my aquatic macroinvertebrates unit – complete with all the worksheets and handouts for this activity!

Set-Up & Directions

Safety Note: Only attempt activities in extremely shallow, easily wadable streams and water bodies. Do not enter deep or swiftly moving water. Adult supervision is required at all times while in and around water.

  1. Assign groups of 2-4 students.
  2. Introduce and demonstrate the three methods for collecting aquatic macroinvertebrates (details below).
  3. Pass out the materials.
  4. Allow students to try out the three methods for collecting aquatic macroinvertebrates (details below).
  5. Aquatic macroinvertebrates like to be in water and cannot survive for long out of water. While examining your aquatic macroinvertebrate catches, be sure to always keep them in a pan or jar of water.
  6. At the end of the activity, instruct students to gently pour the aquatic macroinvertebrates back into the pond or stream.

Method 1: Flipping over rocks

Works best in: shallow flowing or standing water

In shallow water such as near the edge of a pond or stream, flip over submerged rocks and logs. Benthic (bottom-dwelling) macroinvertebrates such as insect larvae are often clinging to the underside of rocks or logs. Use tweezers or fingers to gently remove the macroinvertebrates from the rock/log and place them in a pan filled with water.

Method 2: Net in flowing water

Works best in: shallow flowing water only

Have one person hold a net touching the bottom of a shallow stream, facing upstream. This should allow water to flow through the net. A second person will use their hands to gently move and scrub the rocks and sediments directly upstream of the net. As you scrub, macroinvertebrates will let go of the rocks and the flowing water will sweep them directly into the net. Empty the netโ€™s contents into a pan filled with water.

Method 3: Net in standing water

Works best in: shallow standing water

You may be familiar with this technique as pond dipping. Use a net to scoop up sediments and plant matter from the bottom of a pond and empty it into a pan of water. Use tweezers to pick through the sample to find the aquatic macroinvertebrates that were hiding in the sediments and plant matter. You can place the macroinvertebrates you pick out into a separate small jar filled with water.

Identifying Aquatic Macroinvertebrates

There are many types of aquatic macroinvertebrates. Once you catch some macroinvertebrates, you will probably want to sort them into a few basic categories to begin with.

Aquatic macroinvertebrates include:

  • Aquatic insects:
    • Larvae/nymphs (e.g., EPT, dragonflies, dipterans)
    • Insects that are aquatic for their whole life cycle (e.g., water scorpions, water beetles)
  • Crayfish
  • Aquatic snails
  • Aquatic worms
  • Bivalves
  • Water mites
Drawings of several macroinvertebrates
What do these ten animals have in common? They are all aquatic macroinvertebrates! 1. stonefly, 2. caddisfly, 3. mayfly, 4. aquatic beetle, 5. water strider, 6. freshwater snail, 7. freshwater mussel, 8. aquatic worm, 9. water mite, 10. crayfish.

Resources for Macroinvertebrate ID:

You have options when it comes to identifying macroinvertebrates. For beginners and younger learners, you may wish to sort macroinvertebrates into just a few basic categories (e.g., insects, worms, bivalves, etc.). Middle and high school classes often identify aquatic insects by order (e.g., mayflies, stoneflies, caddisflies, dipterans, etc.).

University-level classes and researchers sort macroinvertebrates down to the family, genus, or even species level. This level of ID typically requires a dissection microscope and a dichotomous key.

There are many resources for identifying aquatic macroinvertebrates and aquatic insects. Here are a few:

  • Troutnut is a fly fishing website with some wonderful photos of aquatic insects. It’s a great resource if you’re already pretty familiar with aquatic insects and ID at the genus/species level
  • This webpage from the University of New Hampshire has many aquatic insect photos and a stream key for advanced ID (genus/species level)
  • My Macroinvertebrates Unit has beginner-friendly materials for studying aquatic macroinvertebrates and identifying aquatic insects at the order level
  • My macroinvertebrates flashcards (these are found in the unit, but you can also purchase them separately here)
My three-part cards feature my drawings and are perfect for beginner-level aquatic macroinvertebrate ID!

Expanding on this Activity

Once you’ve learned how to catch aquatic macroinvertebrates, there are many ways that you can expand on this activity. Here are just a few ideas:

  • Compare two locations: compare the macroinvertebrates captured in flowing and standing water. Are they the same or different?
  • Life stages: bring a butterfly net and also capture flying insects in the area. Many aquatic insects like mayflies, stoneflies, caddisflies, dragonflies, and more are only aquatic until they reach maturity. Can you capture the flying adult forms of any aquatic macroinvertebrates around your pond or stream?
  • Sorting & counting: in ecology, “richness” refers to the number of different taxa (e.g., species, orders) found in a community. This is an important measure of biodiversity and one of many metrics that ecologists use to assess the health of an ecosystem. Introduce this concept to your students by having them create a list of the different types aquatic macroinvertebrates that they find during the field trip activity.

Teach Macroinvertebrates with Wild Earth Lab

Planning to teach this activity? Save time and support my blog when you purchase my Macroinvertebrates Unit, referenced throughout this post.

The unit includes everything you need to complete this activity: student handouts, worksheets, and readings, plus tons of other materials for learning all about macroinvertebrates!

Explore other units from Wild Earth Lab’s shop:

If you enjoyed this post, I know you will love using my environmental science materials in your classroom!


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9 Interactive Earth Science Activities for Homeschool and Classroom Learning

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Are you in search of engaging ways to teach earth science in your homeschool or classroom? Hands-on activities help make complex concepts more memorable and enjoyable for students. Whether you’re building models of Earth’s layers, measuring stream flow, or exploring plate boundaries, these interactive lessons will bring earth science to life in your classroom!

In this post, you’ll find nine earth science activities that are perfect for homeschool parents and classroom teachers looking to inspire curiosity about the earth. Let’s get started!

1. Make a map of the continents and oceans

Teach students the names and locations of the oceans and continents. I’ve created a FREE printable worksheet for this activity. Simply print it out and color in the different continents and oceans with your students. Download the free worksheet here.

2. Measure stream flow

Earth science isn’t just about soils and rocks – water is an important part of our earth too! Hydrologists collect stream measurements to ensure we are not using our water resources too quickly or in unsustainable ways. With a few household items, you can collect river measurements too!

I’ve already written up the full directions for this activity online in my blog. Find the complete guide for this activity with materials and calculations at the end of this blog post about stream measurements! Or better yet, you can support my blog by purchasing the printable directions and handouts for this activity from my shop!

painting showing three people taking measurements in a stream

3. Examine porosity and permeability

Porosity and permeability are important topics in both soil science and geology. Examining soil porosity and permeability is an easy lab experiment that you can complete with common household items. Compare the porosity and permeability of three sediments: gravel, sand, and clay/silt.

You can find the full written directions with materials and calculations for a porosity and permeability lab activity online in my porosity and permeability blog post! You can save time and support my blog with your purchase of the printable directions and handouts for this activity from my shop!

person digging on soil using garden shovel

4. Build a model of the Earth’s layers

There are many ways to build a model of the Earth’s layers. You can model Earth’s three basic (compositional) layers: core, mantle, and crust. Or to make this activity more advanced, make a model of earth’s mechanical layers instead – lithosphere, asthenosphere, etc…

You can make your model of the Earth’s layers out of many different types of materials. A few options include:

  • Play dough or clay
  • Food, such as packing together different colors of rice cereal-marshmallow treats, and candy
  • Construction paper circles
  • Stacked nesting bowls
  • Printable templates, like these ones I created (for purchase in my shop)!
paper model of the layers of the earth
You can find my templates for creating this paper model of the Earth’s layers in my shop!

5. Build a model of the soil horizons snack-tivity!

Perhaps you have made a โ€œcup of dirtโ€ from pudding. But you can turn this simple snack into a tasty science activity by creating a soil horizons parfait!

The basic idea is this: you will make a parfait with 6 layers to represent the 6 horizons. This is an entertaining and tasty way to teach your students about soil horizons during a gardening, soil science, or agriculture unit in your classroom.

Best of all, you can find the online directions for this activity for free on my blog! Alternatively, you can save time and support my website when you purchase the printable directions and handouts for this activity in my shop!

a strawberry yogurt parfait in a cup
Photo by Farhad Ibrahimzade on Pexels.com

6. Identify common minerals

Minerals are the building blocks of rocks and an important topic in any geology or earth science class. You can teach your students how to identify common minerals by following a few simple steps.

I’ve written a whole blog post on how to set up a minerals lab in your classroom or homeschool. You can follow these online directions, or purchase printable directions and handouts from my shop.

Worksheets and classroom handouts
These directions and handouts are available for purchase in my shop.

7. Build play dough landforms

Creating landforms out of play dough or clay is sure to be a memorable earth science lesson for students! All you need is enough play dough for each student. Students can build common landforms such as islands, hills, mesas, peninsulas, isthmuses, and more. Or try creating landforms specific to your area – do you live near volcanoes? Moraines? Caves? Canyons?

I recommend starting by sculpting the following 7 easy landforms:

  • Hill
  • Mountain
  • Island
  • Isthmus
  • Peninsula
  • Volcano
  • Mesa (flat-topped mountain)

This activity is pretty straightforward. But, if you’d like to elevate your landforms lesson with printable directions, landform flashcards, and more, you should check out my landforms unit, available in my shop.

A photo showing classroom handouts for building your own landforms out of play dough
If you need directions and printable materials for this play dough activity, find them within my complete landforms unit

8. Model tectonic plate boundaries with cookies!

Create a model of the three main tectonic plate boundary types using sandwich cookies. Remove the top layer of the sandwich cookie (lithosphere), break it in half, and place it back on top of the crรจme (asthenosphere), arranged as a boundary type.

Be sure to create the following three boundary types:

  • Convergent
  • Divergent
  • Transform
black round cookies on white surface

9. Study earth science with Wild Earth Lab

There’s no need to scramble to put together the perfect earth science unit – I’ve already created several for you! Choose from plate tectonics, rocks & minerals, landforms, water features, the water cycle, glaciers, and soil science! Each is packed with earth science activities, worksheets, readings, and more!

Explore even more units from Wild Earth Lab:

If you enjoyed these earth science activities, I know you will love using my other environmental science materials in your classroom!


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