STEAM Professional Learning

The Pennsylvania Department of Education (PDE) defines STEM (science, technology, engineering, and math) as an integrated, interdisciplinary, and student-centered approach to learning that encourages curiosity, creativity, artistic expression, collaboration, communication, problem solving, critical thinking, and design thinking.


Be sure to click on Learn more about STEM in Pennsylvania .


STEM learning in Pennsylvania is built on the following foundational beliefs:

  • All students are capable of STEM literacy;

  • Iteration and reflection are an important part of the STEM learning process;

  • STEM education transcends the classroom walls, integrating into the community;

  • STEM education success depends upon the partnership between educators, students, families, postsecondary providers, local officials, business and industry.

STEM education is equitable for all learners

What is Equity for Pennsylvania Students?

All learners have opportunities to engage in successful STEM experiences

PA STEM Coalition Vision, Beliefs, and Definitions, August 2017

PDE: Safe Schools, Equity and Inclusion Page

Pennsylvania Equity and Inclusion Toolkit, March 2017

  • Planning Guide for schools or districts

  • Can be integrated with Bully Prevention Programs and Schoolwide Behavior Improvement Plans


Supporting Students’ Science Learning During COVID-19 School Closures

  • Overview: Supporting science learning in the era of Covid-19

  • Advice for Families

  • Advice for Students

  • Sample Learning Menu

  • Supporting Equitable Home-Based Science Teaching and Learning During Extended School Closures

  • FAQ about Supporting Equitable Learning during Extended Closures

All learners get the resources and suppport they need to be successsful.

STEM is Inquiry-Based Methods of Learning and Teaching

What is Inquiry Learning?

How do I support STEM learning as the "Guide on the Side?"

  • Let students discover nathural phenomena and sovle engineering challenges on their own.

  • Encourge science learners to ask lots of questions then seek the answers by direct observation, illustrating & diagraming, "real" data collection and reading for research. Encourage engineering learners to be creative, brainstorm, draft & diagram, try things out, make lots of changes, get close to a working prototype and share their jouney.

  • For scinece ask an Essential Question to guide the learning. For engineering give an Engineering Design Challenge to solve.

  • Ask questions and state prompts to help learners along.

  • Promote lots of talking and collaborating.

  • Provide materials for students to desgin and make their own experiments or engineering prototypes.

  • Encourage learners to answer their own questions from discovery and direct observations during hand-on, authentic experiences.

  • Discourage quick answers found on the Internet.

  • Facilitate partners, groups and, when possible, whole group discussion and sharing of ideas and discovery.

  • Guide students to show what they've learned in sicence with a group discussion to create a science "rule or law ."

  • Guide students to show what they've learned when Making with a brief presentation about what went well and not so well.

  • Use formative assessment checklists to assess how learners master the process of learning like real scientists and engineers.


Inquiry Resources

Supporting Students’ Science Learning During COVID-19 School Closures

  • Phenomena: Not Just for the Classroom (for Families)

  • Pass the Science Please: Science Talk Moves (for Families)

  • Continuing Science at Home with Science Notebooks (for Families)

Essential Questions by Jay McTighe and Grant Wiggins

http://www.ascd.org/publications/books/109004/chapters/What-Makes-a-Question-Essential%A2.aspx

STEM is Project- or Problem-Based Learning

Project-Based Learning is integrated learning

PBL Basics

A classroom teacher or school team determines a BIG Question to ask or local problem to solve.

Students research and plan solutions, with teacher structure and guidance.

Students learn within various subjects for the BIG Project.

  • Guiding rubrics may be shared to help guide the process

Students create methods of sharing what was learned.

  • These can be from a structured "menu of choices" or open-ended depending on age and experience of learners.

  • Teachers can offer choices for presenting: high tech, low tech, no tech, familiar methods or new methods

Students share what they learned with an authentic audience.

  • Invite families and impacted community members to a final presentatoin.

Students self-assess and are assessed by all educators who were part of the Project Team


Gold Standard PBL: Essential Project Design Elements

Gold Standard PBL: Project Based Teaching Practices

Sign up for a free account!

See their videos, Project ideas, Student Resources, Teacher Resources and much more.

Problem-Based Learning Basics

Problem-Based Learning

Good "fit" for Environment and Ecology concepts, as well as Social Studies concepts

The Process:

  1. Make it Real

  • Identifying a real problem within the local community, then conducti investigation to define the problem.

  • Brainstorm

  • Identify what you do and don’t know about the problem

  • Define

  • Discover the problem’s root causes and impacts on the community

  1. Make it Relevant

  • Elevate the problem so that people in the community and beyond will take interest and become invested in its resolution

  • Field Studies

  • Collect as much information as possible on the problem.

  • Plan

  • Develop an action-plan

  1. Make an Impact

  • Create

  • Put your plan into action

  • Advocate

  • Share your findings and make an impact

Learning is Open: Toolkit PBL Problem-Based Learning


Additional Resources

Illinois CITL TEACHING & LEARNING: PROBLEM-BASED LEARNING (PBL)

Edutopia: PBL PLANNING An Example of PBL in Early Elementary: How I Started by mreddick May 10, 2015

Education World: Problem-Based Learning: Tips and Project Ideas by Aimee Hosler

ASCD: Problems as Possibilities, Chapter 1. What Does Problem-Based Learning Look Like in Classrooms? by Linda Torp and Sara Sage

STEM learning focuses on authentic practices of scientists and engineers

Pennsylvnia adopted the NGSS Science and Enginering Practices and Crosscutting Concepts


Transcending all subject areas, these are higher level modes of thinking to be applied in student learning.

PDE did not adopt the NGSS Core Learning Ideas but retained their system of academic standards. As of summer 2020, the Science, Technology and Engineering, as well as, Environment and Ecology standards are being revised.

Authentic Practices of Scientists and Engineers

Next Generation Science Standards

Science and Engineering Practices

NGSS @ NSTA Science and Engineering Practices

NGSS Science and Engineering Practices Appendix F

Crosscutting Concepts

NGSS @ NSTA Matrix of Crosscutting Concepts in NGSS

NGSS Criosscutting Concepts Appendix G


Announcing:

Science Education (SE), Technology Education (TE), Enginering Education (EE) and Environment & Ecology (EE) Revised Standards to be drafted, approved and release in Spring 2021!

New Pennsyvania Science Education, Engineering & Tecchnology Education and Environment & Ecology Education Standard to emphasize student performance and a more integrated approach to learning concepts.

STEM integrates all subject areas

How do I integrate STEM learning?


STEM Remote Learning Resources

STEM Pedagogy





Equitable Access to Learing




Culturally Responsive Teaching and Learning




STEM Education includes Computational Thinking and Computer Science

Computational Thinking

Concepts include Creativity, Logic, Spatial Resoning and Math

Pattern Recognition

Creating and Using Algorithms (lists of steps)

Decomposing (breaking steps into smaller steps)

Understanding Abstractions (ideas about coding )

  • "make generalizations, draw conclusions, and use other problem-solving thought processes to imagine something that we can’t see or touch"


Unplugged - No computer or device needed


Computer Science

Computer Programming or Coding

Code.org CS Fundamentals - K-1st Visual Icon Based Coding 1st -5th Drag & Drop Block Based Coding

Code.org Hour of Code Activities






Older Elementary & Middle School

iOS Swift Playgrounds App



K-12 CSTA Standards (Adopted in 2018)


PA Academic Standards

Early Childhood Edcuation Standards for Infants-Grade 2 (Adopted by 2016)

Includes: Science Standards, as well as, "scientific thinking and technology."

Infants

Kindergarten

1st Grade

2nd Grade


Current Science, Technolgy and Engineering Standards

Note: Engineering standards are to be integrated with science concepts

Pre-K to 3rd Grade (Formally adopted in 2002)

3rd Grade to 8th Grade (Formally adopted in 2002)

Secondary (Formally adopted in 2002)


Pre-K to 3rd Grade (Updated but not formally adopted in 2009)

3rd Grade to 8th Grade (Updated but not formally adopted in 2009)

Secondary (Updated but not formally adopted in 2009)


Current Environment and Ecology Standards

Pre-K to 3rd Grade (Formally adopted in 2002)

3rd Grade to 8th Grade (Formally adopted in 2002)

Secondary (Formally adopted in 2002)


Pre-K to 3rd Grade (Updated but not formally adopted in 2009)

3rd Grade to 8th Grade (Updated but not formally adopted in 2009)

Secondary (Updated but not formally adopted in 2009)


Science Framworks (Avaialbe at the SAS Portal, (Updated but not formally adopted in 2009)


Academic Standards for Career Education and Work (CEW)

Organized by Grade Band proficiency Benchmarks: K-3, 4-5, 6-8, 9-11

PA Career Standards Webpage


Business, Comp Technology Frameworks (Avaialbe at the SAS Portal, U(pdated but not formally adopted in 2009)