Raise questions about the natural world, use appropriate reference materials that support understanding to obtain information (identifying the source), conduct both individual and team investigations through free exploration and systematic investigations, and generate appropriate explanations based on those explorations.
| Name |
Description |
| Ultimate Building Miami | Students will explore how climate change impacts Miami by examining issues such as sea level rise, intensified hurricanes, and extreme heat. Students will be given a scenario directing them to design a building in Miami that can withstand an issue exacerbated by climate change. They will then work together as a class to create the ultimate building in Miami, one that can withstand multiple impacts of climate change. |
| Drifting Science | Students will explore global ocean surface currents by completing an investigation using real-world ocean drifter data. Students will analyze maps of ocean drifters to make observations about why they appear in some places more than others. Using the resources provided, they will then select a specific ocean drifter from an interactive map and predict where it may drift to, what currents it might be carried by, and where it might end up in a specific amount of time. |
| Motion for Speed | Students will investigate the relationships between the initial speed of a car and the distance required for it to stop. Students will record their results onto a student guide to determine how a car moving faster or slower affects its ability to stop. Finally, students will investigate why we have different speed limits on different roads in this integrated lesson plan. |
| Just Right Goldilocks’ Café: Temperature & Turbidity | This is lesson 3 of 3 in the Goldilocks’ Café Just Right unit. This lesson focuses on systematic investigation on getting a cup of coffee to be the “just right” temperature and turbidity level. Students will use both the temperature probe and turbidity sensor and code using ScratchX during their investigation. |
| Just Right Goldilocks’ Café: Turbidity | This is lesson 2 of 3 in the Just Right Goldilocks’ Café unit. This lesson focuses on systematic investigation on getting a cup of coffee to be the “just right” level of turbidity. Students will use turbidity sensors and code using ScratchX during their investigation. |
| Just Right Goldilocks’ Café: Temperature | This is lesson 1 of 3 in the Just Right Goldilocks’ Café unit. This lesson focuses on systematic investigation on getting a cup of coffee to be the “just right” temperature. Students will use temperature probes and code using ScratchX during their investigation.
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| Building up Beaches | In this STEM build, students will use problem solving skills and teamwork to model an effective way of slowing down beach erosion caused by the ocean. Students also will practice sharing their results through PowerPoint presentations. |
| Protecting the Dream | In this Model-Eliciting Activity (MEA), students will work together in teams to determine a procedure for selecting a company from which to purchase a set of protective gear for skating. Students will make using their problem solving skills to make decisions based on a table that includes companies, price per set, durability, comfort.
Model Eliciting Activities, MEAs, are open-ended, interdisciplinary problem-solving activities that are meant to reveal students’ thinking about the concepts embedded in realistic situations. MEAs resemble engineering problems and encourage students to create solutions in the form of mathematical and scientific models. Students work in teams to apply their knowledge of science and mathematics to solve an open-ended problem while considering constraints and tradeoffs. Students integrate their ELA skills into MEAs as they are asked to clearly document their thought processes. MEAs follow a problem-based, student-centered approach to learning, where students are encouraged to grapple with the problem while the teacher acts as a facilitator. To learn more about MEAs visit: https://www.cpalms.org/cpalms/mea.aspx |
| Glow Kitty, Glow! | This lesson studies the emerging science of using glow technology (phosphorescence and fluorescence) to improve the well-being of living things. Students will be introduced to the Glow Kitten and other animals that are naturally bioluminescent or have been modified by human impact. Then students will take part in their own investigation and create a glowing carnation while considering ways this technology can be used in their own lives. Along the way, students will research books, articles, and websites and use journal entries to record their learning. Finally, students will create their own advertisement highlighting their glowing carnation and its amazing uses! |
| Dissect It! | After dissecting a flower(s), the students will be able to identify the parts necessary for pollination, or reproduction of flowering plants. They will also make comparisons and find patterns in nature, leading them to the understanding of the processes of sexual reproduction in flowering plants, including pollination and fertilization (seed production). |
| Rollercoaster Investigations | This activity will allow students to explore the motion and speed of an object. While constructing a rollercoaster and using the Scientific Method, students will create their own question and then investigate it, finding out whether the speed of an object is affected by the track it follows. |
| Cemented Together | In this activity the students will create their own sedimentary rock using glue and various pieces of sediments found throughout the school yard. The students will create a model of a sedimentary rock and describe how they would identify a sedimentary rock in the real world. |
| Exploring Water | In this lesson, students record their observations of water in all of its phases. |
| Designing Windmills | In this lesson, students engage in an engineering design contest to design and create a windmill that will lift a load. |
| Exploring Magnets | In this lesson, students observe and record their observations of magnets attracting and repelling each other and other objects.. |
| Predator and Prey | In this lesson the students will learn about a predator/prey relationship. They will learn about the role that plants and animals play in their ecosystem and what each role is called. The students will also learn about the limiting factors each ecosystem possesses that prevent any species population from becoming too large. |
| The Lunar Cycle | In this lesson, students learn about the Moon's changing appearance and
its pattern of movement. Through class discussion, activities, and
multimedia resources, students explore the phases of the Moon and are
introduced to the concept of orbital motion. The Moon, Earth's only natural satellite, is easily observed with the
naked eye. Over the course of one month, students observe and investigate its full range
of appearances and its pattern of movement in the sky. Students then model the sun, earth and moon system in the classroom. |
| Follow the Water Lesson 1: Filtration Station | Water is essential for human health, but it can sometimes be contaminated. Water filtration can filter out contaminants and impurities making water much safer to consume. But what is the best way to filter water? Students will participate in a water filtration engineering challenge to try out different combinations of materials to find which works best. This lesson was developed by the Phillip and Patricia Frost Museum of Science with support from the Weo Foundation. |
| Follow the Water Lesson 2: Mission: Lunar Water | The search is on to locate water on the Moon! Modeled after NASA’s PRIME-1 mission to drill for water ice on the moon, students will create a simulated lunar crust that they will take cores from to search for water ice below the surface. They will then create a map to show others where their discoveries lie. This lesson was developed by the Phillip and Patricia Frost Museum of Science with support from the Weo Foundation. |
| Introduction To The Nature Journal | In the lessons here, students exercise the observation skills that are essential to writing, visual art, and science. First, they try to use evocative language in describing pictures of birds from the Smithsonian's National Zoo. They go on to record observations and to make hypotheses as they follow the behavior of animals on the National Zoo's live webcams. They can watch the giant pandas, the tigers, the cheetahs, the gorillas, or any of a dozen other species. |
| It's Too Hot In Here | Students explore and investigate the theory that heat flow and movement within Earth causes earthquakes and volcanic eruptions as well as contributes to mountains and ocean basins. Students will examine: surface structures, tectonic plate maps, volcanic and earthquake historical data and video evidence. Students use their acquired knowledge to organize a PowerPoint or video presentation that illustrates their comprehension of of benchmark SC.7.E.6.7. |
| Made To Sail | Students use simple materials to design and make model sailboats that must stay upright and sail straight in a testing tank. |
| Stop Heat From Escaping | In this activity, students act as engineers to determine which type of insulation would conserve the most energy. |
| Name |
Description |
| An Apple a Day | Students are presented with an apple and are asked to draw it. In each subsequent class period they are asked to draw the same apple again. In this way, they watch and record the changes the apple goes through as it decays. |
| Design a Sea Lion-A SeaWorld Classroom Activity | Students investigate sea lion adaptations and create a sketch that illustrates a sea lion's body parts and adaptations. |
| Exploring A Decomposition Community | In this classroom lab setting, students will construct Decomposition Columns from two-liter plastic bottles. Students will gather organic material and observe activity in the column. Students will record observations and construction steps in their science notebook. |
| Invertebrate "Heads Up 7 Up"-SeaWorld Classroom Activity | In this activity, the student will identify biographical information about various tidepool animals. |
| Investigating Changes In Matter | In this chemistry lab, students will observe a variety of physical and chemical changes in matter. |
| Looking at Weathering and Erosion | Students will be divided into small groups to do simple science experiments that illustrate a type of weathering or erosion. |
| Sound All Around | Students will have an opportunity to work with sounds and learn about pitch, volume and how sound travels. |
| Webcams: Animal Inquiry and Observation | Observe animal habits and habitats using one of the many webcams broadcasting from zoos and aquariums around the United States and the world in this inquiry-based activity that focuses on observation logs, class discussion, questioning, and research. |
| Wildlife Reserve-SeaWorld Classroom Activity | In this activity, the students will design a protected environment for an endangered animal that encourages the animal's natural behaviors and meets its physical requirements. Students will explain to their classmates why the protected environment is essential for the endangered animal. |
| Name |
Description |
| Measuring Mass | In this unit, students will first do research and study the Law of Conservation of Mass and learn how to form a hypothesis. After they learn how to form a hypothesis, they will use balance beams to measure clay and crayons. |
| Plants Parts and Life Cycles | In this unit, students learn about various plants, their parts, their life cycles, and the importance of bees in plant reproduction. |
| Weathering and Erosion | In this unit, students learn about weathering and erosion (and different types of weathering and erosion) through different models and activities. An engineering design competition asks students to synthesize knowledge about erosion to create an erosion-blocking process/product for the Atlantic Coast. |
| Rocks and Minerals | In this unit, students learn the physical properties of rocks and how they are formed. |
| Chemical Change Investigations | Inquiry in Action | In this series of 10 investigations, students gain experience with the evidence of chemical change - production of a gas, change in temperature, color change, and formation of a precipitate. Students begin by observing that similar-looking powders can be differentiated by the way they react chemically with certain test liquids. Students then use their chemical tests and observations to identify an unknown powder and, in a follow-up activity, to identify the active ingredients in baking powder. Students continue to explore chemical change by using a thermometer to observe that temperature either increases or decreases during chemical reactions. Then they control these reactions by adjusting the amount of reactants. In another set of activities, students use the color changes of red cabbage indicator to classify substances as acids or bases, neutralize solutions, and compare the relative acidity of two different solutions. Students conclude the investigation by comparing a precipitate to one of the reactants that formed it. Students see that a new substance was created during the chemical reaction. Information and questions about photosynthesis and cellular respiration
are included as examples of chemical changes on pages 316-318 of this
resource. |
| Physical properties and physical change in liquids | Inquiry in Action | In this investigation, students compare the way four known liquids behave, and then apply these observations to identify an unknown liquid. Students then compare how each liquid combines with water and use this property to identify unknown liquids. The activities throughout the investigation emphasize the characteristic properties of liquids, identifying and controlling variables, making observations, and analyzing results to answer a question. |
| Physical Properties & Physical Change in Solids | Curious Crystals | Inquiry in Action | In this investigation, students will carefully look at four known household crystals. After observing and describing the crystals, students will be given an unknown crystal, which is chemically the same as one of the four known crystals but looks different. When students realize that they cannot identify this crystal by its appearance alone, they will suggest other tests and ways to compare the crystals to eventually identify the unknown crystal. The other activities in this investigation are examples of tests students can conduct on the crystals. After a series of these tests, students will gather enough evidence to identify the unknown crystal. |
