NOAA Sea to Sky: Education resource database

Data in the Classroom has structured, student-directed lesson plans that use historical and real-time NOAA data. The five modules address research questions and include stepped levels of engagement with complex inquiry investigations with real-time and past data.

The Deep Ocean Education Project is a collaboration among NOAA Ocean Exploration, Ocean Exploration Trust, and Schmidt Ocean Institute featuring high-quality ocean exploration and science education materials from the three organizations. The Deep Ocean Education Project website – launched in 2021 – is built around themes that are easily searchable, address key ocean-related phenomena, and encourage and support three-dimensional approaches to teaching and learning for K-12 education. The objective is to provide a one-stop resource hub for public, educators, and students looking for deep-sea educational materials. The website also includes information on how to connect with research vessels, including a list of upcoming events and opportunities, and live feeds of expeditions.

A rapidly changing climate brings challenges to our underwater parks in ways we have never seen before. Climate-related impacts, like changing weather patterns and storm events, warming seas, ocean acidification, and sea level rise, are becoming more prevalent around the globe. Changes in climate will affect national marine sanctuaries and the overall health of the ocean, which is vital to our quality of life and, ultimately, our survival.

The ocean absorbs the extra carbon dioxide we emit into the atmosphere when we burn fossil fuels, like coal, oil, and natural gas, and that changes the chemistry of the ocean. We call this “ocean acidification.” The change in chemistry is reducing the amount of calcium carbonate in the ocean. Just as humans need calcium to build their bones, sea creatures need calcium carbonate to build strong skeletons and shells. Ocean acidification changes the chemistry of the ocean and causes “osteoporosis of the sea,” which prevents animals at the bottom of the food chain from building and maintaining the protective shells they need to survive.

Students will design a functional model of a coral reef ecosystem while answering the following focus question: What physiological, ecological, and behavioral strategies contribute to the success of reef-building corals?

Students learn how climate change impacts the ocean through activities that help them understand ocean acidification, melting ice caps, and thermal expansion of water.

Most people are familiar with the growth rings seen in tree cross-sections, but few are aware that similar growth patterns are visible in skeletons of reef-building corals. This activity will introduce students to these growth patterns and what they can tell us about the environment in which the corals live.

Students will research the ecology of coral reefs, natural and anthropogenic threats to corals, and the science of coral restoration. In pairs, students will design and make an argument for a proposed new coral nursery to be placed within Florida Keys National Marine Sanctuary (FKNMS).

Coral reefs are one of the most diverse ecosystems on the planet. In this module, students will use real data to investigate the consequences of rising sea surface temperature on coral reefs. They will also consider the importance of coral reefs in their own lives.

Deep-sea coral communities, like the ones found in the national marine sanctuaries of the West Coast, are home to many diverse species. This curriculum takes students into the deep sea to identify the soft corals, hard corals, invertebrates and fish found in these communities and to investigate the unique biology of deep-sea corals. Learn the threats these animals face and what we can do help protect them.