This cluster includes the following access points.
Vetted resources educators can use to teach the concepts and skills in this topic.
| Name |
Description |
| A Whale's Tale: |
This lesson covers:
- The natural history, biology, and ecology of humpback whales
- The internal and external anatomy of humpback whales
- Threats to humpback whales and how scientists work to protect them
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| We All Need Trees: | Students are often surprised to learn how many different products we get from trees. Use this activity to help your students learn just how much we depend on trees in our daily lives. |
| BUGS...Food Of The Future?: | In this Model-Eliciting Activity (MEA), students will work in groups to develop a procedure to rank which insect would be the best bug to farm for human consumption in the USA. Students will consider factors such as nutritional value, length of insect life cycle, stage of life cycle the insect can be served, notes from chefs, customer tasting notes, level of difficulty to farm, and price. This MEA allows students to apply scientific content, metamorphosis, in a real world application, while developing high-level problem solving skills.
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). |
| Pollinators: | In this Model Eliciting Activity (MEA), students will be gien an engineering problem in which they must work as a team to design a procedure to select the best pollinator for certain situations.
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
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| Pollination: | Information, pictures, videos, a song, and lesson plans all about pollination. Lesson plans cover making models of flowers and pollinators, hand pollinating real flowers, and classifying flowers by the pollinators they attract. |
| Honey Bee Human--an Engineering Design Challenge: | This Engineering Design Challenge is intended to help students apply the concepts of pollination as they design an apparatus that will pollinate a field. It is not intended as an initial introduction to this benchmark.
In this Engineering Design Challenge, students will make a 2-dimensional model (a graphic illustration) rather than build a prototype. |
| Exploring Plants: | Students will be introduced to the study of plants in this lesson. First they will sprout bean seeds on moistened paper towels, then make drawings and measurements of their growth. They will watch time-lapse videos that illustrate a plant's major growth stages. Another clip covers fruits and asks students to consider how their seeds are spread. They will gather seeds by walking outside with an old sock over one of their shoes, then plant their sock to observe the resulting plants. |
| Have I Morphed Yet?: | In this sequence of observations, students will observe the life cycles of butterflies, darkling beetles, preying mantises, and grasshoppers to compare and contrast complete metamorphosis (butterflies and darkling beetles) and incomplete metamorphosis (preying mantis, grasshoppers, termites).
This sequence is a long-term investigation. The initial cycle requires a 45-60 minute period to introduce and model journal entries, but after that it only requires 5-10 minutes per day to make observations. Research can be done throughout the cycle at a Reading center. At the conclusion of each cycle, another 45 minute session is needed for wrap-up and assessment.
SPECIAL NOTE: To fully implement this benchmark, the teacher should repeat this basic investigation format with plants. Beans and daisies work well as flowering plants and allow the students to proceed through the entire life cycle (seed, seedling, adult, back to the seed stage). This can be done in conjunction with benchmark SC.4.L.16.1: Identify processes of sexual reproduction in flowering plants, including pollination, fertilization (seed dispersal), and germination. For non-flowering, seed-bearing plants (conifers), you can't go through an entire life cycle within the classroom. However, this website has an image that goes through the life cycle of a conifer:
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| Caution! School's a Zoo!: | This is a fun science lesson that teaches children about inherited animal behaviors through observation and direct instruction. Students then use their new skills to write a news article explaining what school might be like if teachers or students had different inherited and learned behaviors. This lesson can be integrated into reading and includes an opportunity for writing across the curriculum. |
| Everglades Pollination Contest: | In this Model-Eliciting Activity, students act as contest participants to determine the best flower to introduce to the Everglades for pollinators including those that are blind.
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 |
| Name |
Description |
| Plants in Motion - Sunflower germination light/dark: | This is a short time-lapse video of sunflower seeds germinating in either light or dark conditions. Different patterns of growth are observable. Includes descriptions of what is being seen.
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| Sock Seeds: | This video clip presents a fun experiment: wear an old sock over your shoe and then take a walk through a grassy or weedy field or forest, and finally plant the sock to see what grows from it. This experiment sheds some light on the local plant species and also helps teach the evolutionary strategies plants take advantage of to disperse seeds. A background essay provides some very helpful information about seed dispersal as well and discussion questions help sum it all up. |
| Soybean growth rate response to touch: | A time-lapse video showing differential growth rates for touch-treated seedlings and control seedlings. This would be appropriate for lessons about plant growth responses to environmental stress and graphing growth rate. Plants were grown in a vermiculite soilless medium with calcium-enhanced water. No other minerals or nutrients were used. Plants were grown in a dark room with specially-filtered green light. The plants did not grow by cellular reproduction but only by expansion of existing cells in the hypocotyl region below the 'hook'.
Video contains three plants in total. The first two plants to emerge from the vermiculite medium are the control (right) and treatment (left) plants. A third plant emerges in front of these two but is removed at the time of treatment and is not relevant except to help indicate when treatment was applied (watch for when it disappears). When that plant disappears, the slowed growth rate of the treatment plant is apparent.
Treatment included a gentle flexing of the hypocotyl region of the treatment seedling for approximately 5 seconds. A rubber glove was used at this time to avoid an contamination of the plant tissue.
Some video players allow users to 'scrub' the playback back and forth. This would help teachers or students isolate particular times (as indicated by the watch) and particular measurements (as indicated by the cm scale). A graph could be constructed by first creating a data table and then plotting the data points from the table. Multiple measurements from the video could be taken to create an accurate graph of the plants' growth rates (treatment vs control).
Instructions for graphing usage:
The scale in the video is in centimeters (one cm increments). Students could observe the initial time on the watch in the video and use that observation to represent time (t) = 0. For that value, a mark could be made to indicate the height of the seedlings. As they advance and pause the video repeatedly, the students would mark the time (+2.5 hours for example) and mark the related seedling heights. It is not necessary to advance the video at any regular interval but is necessary to mark the time and related heights as accurately as possible. Students may use different time values and would thus have different data sets but should find that their graphs are very similar. (Good opportunity to collect data from real research and create their own data sets) It is advised that the students collect multiple data points around the time where the seedling growth slows in response to touch to more accurately collect information around that growth rate slowing event. The resulting graph should have an initial growth rate slope, a flatter slope after stress treatment, and a return to approximately the same slope as seen pre-treatment. More data points should yield a more thorough view of this. This would be a good point to discuss. Students can use some of their data points to calculate approximate pre-treatment, immediate post-treatment, and late post-treatment slopes for both the control and treatment seedlings.
This video was created by the submitter and is original content.
Full screen playback should be an option for most video players. Video quality may appear degraded with a larger image but this may aid viewing the watch and scale for data collection. |
Vetted resources students can use to learn the concepts and skills in this topic.
