Learn how to create engaging lessons, connecting to student interests and to the science and natural phenomena that surround us. Pick up strategies to engage K–6 students in explorations, helping them recognize and understand real-world science while creating a lifelong love of science. Handouts!

TAKEAWAYS:
Attendees will learn: 1. innovative strategies to help children identify, explore, and understand a variety of interesting, real-life science that surrounds them in their everyday world; 2. how to design lessons that emphasize exploration, and give students the opportunity to test variables and analyze their effects; and 3. effective questioning strategies to engage students and increase the depth of student thinking, also helping to make student thinking visible; and to help teachers use effective questioning strategies to help students clarify and articulate their understanding of essential science phenomena and concepts.

SPEAKERS:
Donna Knoell (Educational and Technology Consultant: Prairie Village, KS)

Explore caloric and nutritional values of NASA's space food. Discover a menu of inquiry activities/resources to integrate into the classroom to satisfy your STEM appetite.

TAKEAWAYS:
1. Explore NASA STEM activities that investigate space food and nutrition for astronauts living on the Space Station; 2. Construct sample space food menus to develop a better understanding of nutrition for human space exploration; and 3. Make connections between math, science, nutrition, and exercise while exploring the impact of living in space and in our gravity-filled environment here on Earth.

SPEAKERS:
Barbie Buckner (NASA Goddard Space Flight Center: Greenbelt, MD)

Learn what representations and data your students can use to bridge phenomena and mathematics, and how to assess kinematics understanding, as opposed to rote algebra skills.

TAKEAWAYS:
1. Using authentic data from real, open-access journal articles to model motion; 2. Students using multiple representations to shift back and forth from pictures, graphs, and math; and 3. Assessing students' understanding through their performance using real data.

SPEAKERS:
Christopher Moore (University of Nebraska Omaha: Omaha, NE)

Attendees will actively engage with innovative, technology-rich tools while learning strategies to teach data collection and analysis, engineering design processes, coding, and robotics. Discover engaging ways to apply coding to make devices “work,” adding rigor and complexity as learners gain skills and understanding.

TAKEAWAYS:
Attendees will learn how to: 1. design accessible, equitable hands-on learning experiences, in which ALL students actively participate and engage with innovative technology tools, helping students learn essential science concepts, engineering processes, and learn how to collaborate with peers to increase understanding; 2. teach authentic data collection and analysis, so that students can learn how to explore and test variables and measure and analyze their effects; and 3. use programmable technology tools and devices as effective teaching tools, helping students learn how to input code to achieve a desirable outcome, and how to analyze, diagnose, and correct the code when the device doesn’t perform as intended.

SPEAKERS:
Donna Knoell (Educational and Technology Consultant: Prairie Village, KS)

Come discover a multidisciplinary, open-ended investigation that incorporates absolute and relative dating, anomalies, historical context, volcanoes, solar proton events, energy cycles, Earth systems, terrestrial events, and supernovas.

TAKEAWAYS:
1. Students will have a better understanding of the process of constructing knowledge; 2. Students will have to analyze and defend their results; and 3. Sometimes there is no answer key, only possible solutions from constructing and analyzing data from several sources that cross traditional disciplines.

SPEAKERS:
Donna Young (NASA/NSO/UoL Program Manager: Laughlin, NV)

Use each stage of the Engineering Design Process to complete a team challenge of building and launching a satellite while making connections to NASA missions.

TAKEAWAYS:
Participants will: 1. learn about and use the engineering design process to build and perform a drop test of a satellite using NASA’s BEST activities; 2. learn how to integrate the process skills of measuring, calculating, designing, and evaluating while teaching the engineering design process; and 3. make real-life connections to how NASA engineers use the engineering design process and work as teams to accomplish their mission goals.

SPEAKERS:
Barbie Buckner (NASA Goddard Space Flight Center: Greenbelt, MD)

Model stellar evolution processes using NASA images, plotting H-R diagram transitions, and determining the chemistry and physics of supernovas using NASA STEM image analysis tools.

TAKEAWAYS:
1. Knowledge of the process of how stars form and change over time ending in catastrophic events, providing conditions for the formation of planets; 2. Students will understand that all knowledge of celestial events is determined by analyzing the light from these events and providing possibilities—not definitive answers, as the data can be interpreted differently; and 3. Image analysis software tools allow scientists to gain detailed information of stellar physical and chemical processes and constantly refine our evolving models of stellar evolution.

SPEAKERS:
Donna Young (NASA/NSO/UoL Program Manager: Laughlin, NV)

Join the UCLA Science Project as we explore structures and formats for science leaders looking to engage teachers around social justice in STEM classrooms.

TAKEAWAYS:
1. Co-construct a learning experience centered around inclusion and belonging within school site meetings; 2. Recognize how our identities and lived experiences impact our approaches to science education and leadership; and 3. Establish space and culture that sustains conversations around equity issues.

SPEAKERS:
Leticia Perez (WestEd: Alameda, CA), Zachary Cue (UCLA STEM+C3 and Science Project)

Discover how students may use their mobile devices to document “science in action,” anytime, anywhere, in this unique intersection between socratic questioning and place-based learning.

TAKEAWAYS:
How students may use their mobile devices: 1. to demonstrate their knowledge of scientific concepts in a real-world context; 2. connect this real-world context to crosscutting concepts; and 3. explore how this learning model may be used to support service learning in the science curriculum.

SPEAKERS:
Eric Walters (Marymount School of New York: New York, NY)

Let’s make a pocket solar system scroll. Come learn how to apply ratios to create a scale model of the planets based on your height.

TAKEAWAYS:
1. With a properly scaled solar system scroll, participants will identify inner and outer planets and readily SEE why they are named as such (ESS1, ESS2); 2. Understanding the concept of rations and fractions, part-to-whole, participants will leave being able to create a proportional solar system in their classroom, on a football field, or across their state; and 3. This activity takes unique NASA content, places it in context within the curriculum, and makes applications beyond the solar system that include scientific inquiry and scientific discovery while using mathematics to show proportions and relate to the overall structure of our solar system (ETS2).

SPEAKERS:
Barbie Buckner (NASA Goddard Space Flight Center: Greenbelt, MD)

STEM classrooms should establish a welcoming environment in which all individuals can use their cultural knowledge and practices to make sense of the world.

TAKEAWAYS:
1. A shared understanding of equity and social justice in science classrooms and STEM communities; 2. Approaches to identify and honor student-lived experiences and cultures; and 3. Challenge conventional notions of what counts as science.

SPEAKERS:
Jon Kovach (UCLA Science Project: Los Angeles, CA)

Take home an NGSS unit where students test the wave and particle model against phenomena and engage in scientific argumentation, uncovering the nature of light!

TAKEAWAYS:
1. Teachers will walk away with a multi-lesson unit that has students testing the particle and wave model of light against phenomena and engaging in argumentation (including lesson plans, student handouts, and a summative assessment with rubric); 2. The material allows students to investigate multiple wave-like phenomena (e.g. diffraction, interference, polarization) and particle-like phenomena (e.g. Plank’s Blackbody Radiation solution, the photoelectric effect, the Compton Effect, and the Bohr Model) of light; and 3. Teachers will be provided with research-based student argumentation strategies and support materials that encourage students to go beyond “Claim, Evidence, and Reasoning.”

SPEAKERS:
Justin Fournier (Cypress High School: Cypress, CA)