The foundation of many states’ science standards is built on the three dimensions of science learning including core ideas, crosscutting concepts, and science and engineering practices. Each dimension works together to support students in building a deeper understanding of science concepts and real-world applications of those concepts. The three dimensions allow students to learn how to think and act like scientists and engineers, while also actively engaging them in science. When teaching science, it is important to engage students with hands-on activities for them to best understand the concepts being taught.
Part 1:
Create a 12 slide digital professional development presentation for new teachers to train them on the foundations of science instruction. Include the following in your presentation:
- Explain the three dimensions of science learning, including discussion on the scientific and engineering practices, the crosscutting concepts, and the disciplinary core ideas.
- Describe the purpose of three-dimensional learning in science instruction.
- Explain how using phenomena and inquiry-based learning supports science instruction, science standards, and the three dimensions of science learning.
- Provide 2-3 best practices in science instruction and an example of how each practice could support three-dimensional learning in science instruction and critical questioning skills.
- Explain how educators can incorporate cross-curricular content into science instruction.
- Discuss how technology enhances science instruction. Provide at least two examples of technological tools that can be used as an integral part of science instruction and one example of how teachers can collaborate and co-learn with students to discover and use new digital resources and tools during science instruction.
Presentation must include a title slide at the beginning and a reference slide with documentation of resources at the end. The title slide and reference slide are not included in the total number of slides.
Support your presentation with 2-3 scholarly resources.
How to Write Foundations of Science Instruction Professional Development Presentation
Slide 1: Introduction to Science Instruction Foundations
Slide Content
What is science instruction?
Purpose of modern science education
Student engagement and active learning
Connection between science and real-world applications
Speaker Notes:
Science instruction extends beyond memorizing facts and definitions. Effective science teaching engages students in meaningful experiences where they actively investigate concepts and construct understanding through observation, questioning, and problem solving. Students develop scientific literacy when they connect classroom learning to everyday situations.
Slide 2: Three Dimensions of Science Learning Overview
Slide Content
Scientific and Engineering Practices
Crosscutting Concepts
Disciplinary Core Ideas
Integrated learning approach
Speaker Notes:
Three-dimensional science learning combines three interconnected elements that work together to deepen student understanding. Rather than teaching science concepts separately, these dimensions integrate knowledge, skills, and thinking processes to support meaningful learning experiences.
Slide 3: Scientific and Engineering Practices
Slide Content
Asking questions
Developing models
Planning investigations
Analyzing data
Constructing explanations
Designing solutions
Speaker Notes:
Scientific and engineering practices help students think and behave like scientists and engineers. Students actively engage in inquiry, investigations, evidence collection, and problem solving. These practices emphasize learning by doing rather than passive information acquisition.
Slide 4: Crosscutting Concepts
Slide Content
Patterns
Cause and effect
Systems and system models
Structure and function
Stability and change
Energy and matter
Speaker Notes:
Crosscutting concepts are ideas that connect learning across multiple scientific disciplines. Students use these concepts to recognize patterns and relationships between scientific ideas. These concepts support deeper understanding and transfer of knowledge.
Slide 5: Disciplinary Core Ideas
Slide Content
Physical science
Life science
Earth and space science
Engineering and technology
Speaker Notes:
Disciplinary core ideas represent essential concepts students should understand throughout science education. These ideas are revisited across grade levels to increase depth and complexity of learning.
Slide 6: Purpose of Three Dimensional Learning
Slide Content
Supports critical thinking
Promotes deeper understanding
Connects knowledge with application
Improves problem solving skills
Encourages active participation
Speaker Notes:
The purpose of three-dimensional learning is to help students move beyond memorization toward conceptual understanding and application. Students become active participants in learning and develop skills needed for future scientific thinking.
Slide 7: Phenomena and Inquiry Based Learning
Slide Content
Real-world observations
Student curiosity
Question development
Investigation and evidence collection
Problem solving
Speaker Notes:
Phenomena-based learning begins with observable events that stimulate curiosity. Inquiry-based learning allows students to investigate questions and discover answers through active exploration. These approaches align with science standards and support all three dimensions of learning.
Slide 8: Best Practice One and Example
Slide Content
Hands-on investigations
Student-centered learning
Example: Plant growth experiment
Critical questioning development
Speaker Notes:
Hands-on activities increase engagement and strengthen understanding. For example, students can investigate plant growth under different environmental conditions while asking questions, collecting evidence, and analyzing findings.
Slide 9: Best Practice Two and Three with Examples
Slide Content
Collaborative learning activities
Problem-based learning
Examples:
Designing water filtration systems
Group ecosystem investigations
Speaker Notes:
Collaborative learning promotes communication and teamwork. Problem-based learning encourages students to apply scientific concepts to authentic situations while strengthening critical questioning skills and analytical thinking.
Slide 10: Cross Curricular Integration
Slide Content
Science and mathematics
Science and language arts
Science and social studies
Science and technology
Speaker Notes:
Teachers can integrate science with other subjects to enhance learning experiences. Students may write scientific reports, calculate data trends, study environmental issues, or use technology to communicate findings.
Slide 11: Technology and Science Instruction
Slide Content
Virtual simulations
Interactive science applications
Digital labs
Collaborative technologies
Examples:
PhET simulations
Google Earth
Speaker Notes:
Technology enhances science learning by providing interactive experiences and access to resources that support exploration. PhET simulations allow students to visualize scientific concepts, while Google Earth enables investigation of geographical and environmental patterns.
Slide 12: Teacher Collaboration and Co-learning
Slide Content
Teachers as facilitators
Student technology exploration
Collaborative discovery
Shared learning environments
Speaker Notes:
Teachers and students can collaborate to discover emerging technologies and digital resources together. For example, students and teachers may jointly explore new science applications or digital investigation tools and determine how they can support learning.
References Slide
National Research Council. (2012). A framework for K–12 science education: Practices, crosscutting concepts, and core ideas. National Academies Press.
Bybee, R. W. (2013). The case for STEM education: Challenges and opportunities. NSTA Press.
NGSS Lead States. (2013). Next generation science standards: For states, by states. National Academies Press.
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