This is an activity on apparent sizes and apparent angles, related to understanding how distance affects what we observe in outer space (the sun, moon, stars, or planets).

The moon is more explored than the ocean, and that includes the Salish Sea. Where it is inconvenient or even impossible for people to go, we can engineer technology to go there for us, like the Mars Rovers, space probes, automatic unmanned vehicles, drones, and in this unit, remotely operated vehicles (ROV’s). Ocean Tech revisits the engineering process, but this time it requires physical, mechanical, and electrical engineers working together as a team to achieve a student-driven mission.

Chapter 5, Life in the Deep: The Subtidal World, is our first look into the amazing life forms that live their whole lives underwater. Is there access to the subtidal world near your school? If you can get to one (even if it is a pond or a pool), your students’ engineering efforts will find their reward. What mystery or problem will your students explore with their own ROV? Dive in!

Did you know that a elephant seal can hold its breath for 77 minutes and dive 5,000 feet (1524 meters) into the sea? We are still working on the science to discover just what enables these remarkable feats under intense pressure, cold, and dark. Diving birds and mammals utilize physical, behavioral, and physiological adaptations to withstand the extreme conditions of diving and still return to the surface with oxygen reserves (and a meal!). Your students can join us in investigating just how they do this.

This unit will review the concepts of pressure-changing with depth, marine food webs, structure and function, photosynthesis and respiration, and of course, the process of science. It will introduce metabolism, the diving reflex, sensory structures for detecting prey, wave properties of acoustics, trophic pyramids, and bioaccumulation of toxins in long-lived predators. Oh yeah, and there will be orca forensics!

Migration explores the routes, distances, and purposes for wildlife migration with a special focus on Pacific salmon. This iconic species of the Pacific Northwest has shaped life in Salish Sea watersheds since they first entered rivers and creeks to spawn, bringing their ocean-derived nutrients in reach of land animals, plants, and people. Nearly 1/4 of the nitrogen in the leaves of our giant temperate rainforest trees once swam in the sea as salmon. They are the reason for the great natural wealth of the Salish Sea and beyond.

Learning to identify habitat needs based on their specific migrations will empower students to identify ways they can improve salmon habitat near their own schools and possibly design and carry out a salmon habitat improvement project. Reach out to salmon experts in your community for support with this unit and project, from protecting storm drains to raising salmon in the classroom. Share your salmon project story along the way. Your school may just be featured as our next Salish Sea Heroes!

This is a lesson about using analogues to look for life on other planets. Learners will use the results of previous lessons to write a scientific proposal to explore another planet or moon in our solar system for signs of life. This proposal should predict the types of energy and nutrients available to sustain life and describe equipment and instruments necessary for exploration and characterization of the target environment. This is activity 4, the capstone activity, in Exploring Deep-Subsurface Life. Earth Analogues for Possible Life on Mars: Lessons and Activities.

This is an activity about ellipses, their focal points, and how the mathematics involved pertains to planetary orbits. Learners will draw their own ellipse using a string and pencil and calculate the minimum and maximum distance from the Sun for each of the planets. This activity requires access to the Space Weather software and is Solar System Activity 5 in a larger resource, titled Space Update.

This is a collection of mathematics problems relating to the moons of the solar system. Learners will use simple proportional relationships and work with fractions to study the relative sizes of the larger moons in our solar system, and explore how temperatures change from place to place using the Celsius and Kelvin scales.

This book introduces students to some of the most unusual places in our galaxy outside of our solar system. Answering the question, "How many stars are in the sky?" introduces students to basic counting, tallying, and grouping techniques, as well as allowing for the use of simple proportions.

As science extension activities, this book of problems introduces students to mapping the shape of the Milky Way galaxy, and how to identify the various kinds of galaxies in our universe. Students also learn about the shapes and sizes of other galaxies in our universe as they learn how to classify them. The math problems cover basic scientific notation skills and how they apply to working with astronomically large numbers. It also provides exercises in plotting points on a Cartesian plane to map the various features of our Milky Way.

The culmination of the Explore the Salish Sea Curriculum is improving the environment for wildlife and people in your own community. Students will review the science and traditional ecological knowledge-based recommendations they have made after each scientific investigation throughout the previous units, then choose one to put into action. Their choices will depend on available resources, time, and expertise available.

This is an activity about the solar activity cycle. Learners will construct a graph to identify a pattern of the number of observed sunspots and the number of coronal mass ejections emitted by the Sun over a fifteen year time span. A graphing calculator is recommended, but not required, for this activity. This is the second activity in the Solar Storms and You: Exploring the Wind from the Sun educator guide.

SYNOPSIS: In this lesson, students learn about how climate change is affecting flood risk in New Jersey.

SCIENTIST NOTES: In this lesson, students will learn about the common causes of flooding, how towns and cities can mitigate the effects of flooding, and how climate change is partially impacting flooding. As a note, another way climate change will impact flooding is by increasing the rates of prolonged drought and heavy rainfall. The videos and articles included in this lesson are accurate. The final article touches a lot more on emotions and a teenager’s perspective but includes key facts with references on the side. This resource is recommended for teaching.

POSITIVES:
-This lesson creates a collaborative learning environment for students as they build model houses and test their flood mitigation tactics.
-Students will develop a strong connection to self and community through viewing the impact of increased flooding in New Jersey.
-This lesson allows for creativity, design, engineering, and free thinking.

ADDITIONAL PREREQUISITES:
-Prior to the lesson, the teacher must have:
-Cardboard
-Scissors
-Tape/glue
-Modeling clay
-Sand
-Cement
-Sponges
-Plastic wrap
-Plastic tubs
-Pitchers of water
-These materials can be recycled or donated. Possible substitutions include Play-Doh instead of modeling clay, buckets/cups instead of pitchers, tinfoil instead of plastic wrap, etc. Materials are not set in stone and can be substituted with similar materials as needed.
-You can explain more about the causes of sea level rise prior to the lesson. This video may be helpful to show before teaching this lesson.

DIFFERENTIATION:
-Groups of students with mixed abilities can collaborate on their section of the flood management article.
-Groups of students with mixed abilities can collaborate on their section of the flood management experiment.
-The flood management experiment could be done as a demonstration in front of the whole class if time, ability, or materials are limited. You can use different materials and flood the tub multiple times.

In this video from Common Ground and Cleaner Water, Tribby Vice, a Kentucky farmer, talks about the changes he has made on his farm to protect the water quality of the stream running through his property and the watershed in which he lives.

In this video segment adapted from NOVA scienceNOW, scientists in western Greenland explain how a glacier there is shrinking and moving faster due to increased melting.

This module provides an introdcution to the concepts of fats and proteins. The basic chemical structure of fats as triglycerides is reviewed, and an introduction to protein structure, including the peptide bond is given.

This is a lesson about living on the Moon. Learners will use cooperative learning skills to design a self-sufficient lunar station.

This is a series of five activities about geology on the moon. Learners will explore lunar stratigraphy (caused by lava flows), impact craters, the moon's history, spacecraft design in which students build models of the LRO out of edible or non-edible materials, and the future of lunar exploration. This guide includes the activities from the original Field Trip to the Moon guide plus activities relating to these two moon missions - Lunar Reconnaissance Orbiter and the Lunar Crater Observation and Sensing Satellite.

Students learn how CCD cameras use color filters to create astronomical images in this Moveable Museum unit. The four-page PDF guide includes suggested general background readings for educators, activity notes, and step-by-step directions. Students look at black-and-white photos to understand gray scale and construct simple red and green cellophane filters and observe magazine images through them.

Dr. Katie Mack teaches John Green about the beginning of the Universe - including that we are not just made of stardust; we are also made of Big Bang stuff, with pieces of us directly born in the vast, first cacophony.

Chapters
- Introduction
- There Shouldn’t Be Stuff
- The Big Bang Theory
- We’re Not Sure About The Singularity
- Cosmic Inflation
- The First Second
- The First Two Minutes
- Outro

In this activity, students critically analyze prior conceptions and textbook visuals of the relative sizes and orbiting distance of the Earth-moon system (and other bodies in our solar system), search out sources for this data, and construct scale models by using balls of various sizes. There are tips for helping learners understand the large scales (i.e., millions rather than thousands) that characterize our solar system, and examples are provided of scaling using different sizes of athletic balls.