Presentation on theme: "Problem/Project Based Learning and Computational Thinking CS4HS at Marquette University July 24, 2012 Joe Kmoch 1."— Presentation transcript:
Problem/Project Based Learning and Computational Thinking CS4HS at Marquette University July 24, 2012 Joe Kmoch firstname.lastname@example.org 1
Problem-Based Learning Student-centered Learning about a subject Context of complex, realistic problems Among the goals are to develop – PS skills – Self-directed learning – Collaboration skills 2...from wikipedia, July, 2012
Project Based Learning Student-centered Presents complex tasks – Based on challenging questions or problems Among goals are to develop – PS skills – Decision making – Investigative skills 3...from wikipedia, July, 2012
Relationship to CT My opinion: CT is very closely related to project-based learning: skills, concepts, dispositions to solve large, complex problems Project-based learning is more inquiry-based Problem-based learning (from the 1960s) is subsumed within project-based learning (from the 1990s) 4
Historical Background Big Ideas which are driving CS problem solving and critical thinking Computational Thinking in K-12 mantras Contextual Multidisciplinary 5
Polya’s Four Steps to Problem Solving Understand the problem Design and plan a solution Implement that solution Evaluate that solution How to Solve It,1945 6
Bloom’s Taxonomy of Educational Objectives: Cognitive Domain Higher order (eg critical thinking) – Creating – Evaluating – Analyzing Lower order – Applying – Understanding – Remembering 1956, 2000 7
21 st Century Skills Four C’s – Collaboration – Communication – Creativity and Innovation – Critical Thinking and Problem Solving + Employability and soft skills (learning and career skills) + Basic computing application skills (founded 2002) Similar to (based on?) SCANS Report (1991) 8
Career Cluster project IT Career Cluster and STEM Career Clusters created along with 14 others around 2002 IT has four pathways – Programming and Software Development – Web and Digital Communications – Information Support and Services – Network Systems (see Deborah Seehorn, “Computer Science: The Big Picture”, blog post 5/22/2012 http://blog.acm.org/csta)http://blog.acm.org/csta 9
Academy of Information Technology Creation of the National Academy Foundation Possibly the first comprehensive curriculum for IT Based on the Career Cluster approach, SCANS (P21.org) and other programs involving context-based project-based curriculum http://bit.ly/nafaoit2000 10
ACM/CSTA Model Curriculum for K-12 Computer Science ACM (Association of Computing Machinery) is known for developing computer science curricula at the post-secondary level This was ACM’s (Association of Computing Machinery) 1st attempt to create a K-12 curriculum (2003) (after 3 attempts at HS curr) CSTA (Computer Science Teachers Association) became responsible in 2006 11
Perkins 2006 Reauthorization This is the federal funding for Career and Technical Education programs This now requires that programs focus on the Career Cluster approaches – This focus is to prepare students for both career AND college readiness – This is way more than just teaching skills but is oriented around project-based real-world contexts for students 12
Computational Thinking Based on 9 computer science practices – Data Collection, Data Analysis, Data Representation, Problem Decomposition, Abstraction, Algorithms, Automation, Simulation, Parallelization Related to Common Core in Mathematics Probably our best shot to getting Computer Science experience in K-12 13
A Digital Age Skill for All Joe Kmoch Milwaukee Washington HS of IT email@example.com
I am working on computational thinking issues. I want to learn more about computational thinking. I’m not sure about computational thinking. Who is in the audience?
Critical Thinking + Computing Power = Making Decisions or Innovating Solutions (Think “Create, Produce, Manipulate”) What is CT?
The core principles of Computer Science are the basis for Computational Thinking. CT is the use of CS principles in problem domains What is CT?
A Digital Age Skill for Everyone Why CT? Why Now?
The number of computer science graduates declined 70% since the peak in 2001 Thru 2020: Projected job openings ~1.4m Projected pipeline ~450k There is a need to fill the skills gap to keep up with technology innovation To maintain global economic competitiveness and national security Why has the NSF Prioritized CT?
To accomplish the following goals: Prepare young learners to become computational thinkers who understand how to use today’s digital tools to help solve tomorrow’s problems. Help teachers envision the potential of CT across all disciplines and be willing to integrate CT in the classroom. Why has CSTA and ISTE Prioritized CT?
The knowledge and skills that students need to know and be able to do by the time they graduate from secondary school. CT for All Students
CT is a problem-solving process that includes (but is not limited to) the following characteristics: Formulating problems in a way that enables us to use a computer and other tools to help solve them Logically organizing and analyzing data Representing data through abstractions such as models and simulations CT Operational Definition
Automating solutions through algorithmic thinking Identifying, analyzing, and implementing possible solutions with the goal of achieving the most efficient and effective combination of steps and resources Generalizing and transferring this problem-solving process to a wide variety of problems CT Operational Definition CT characteristics (cont.):
Dispositions or attitudes that are essential dimensions of CT: Confidence in dealing with complexity Persistence in working with difficult problems Tolerance for ambiguity CT Operational Definition
Dispositions or attitudes that are essential dimensions of CT (cont.): The ability to deal with open-ended problems The ability to communicate and work with others to achieve a common goal or solution CT Operational Definition
Computational Thinking is The marriage of –the big ideas in computer science (such as abstraction, algorithms, modeling, problem decomposition) –with problems and big ideas in most other subject matter domains CT Operational Definition
Technique of generalizing from specific instances (dealing with both process and data) Capturing essential common characteristics while discarding unessential characteristics Operating simultaneously at multiple layers and define relationships between layers What is abstraction?
Cooking a Meal Abstraction Cooking a meal At the highest level we might have the list of courses that make up the meal –Appetizer(s) –Soup/salad –Entree –Dessert And probably an order in which to work on them (project timeline) 39
Cooking a Meal Abstraction At the next level, we might have the details of the individual parts –The recipes, for example At the next level, we might have the details of how to do certain cooking actions –doing a reduction or –pureeing, or –rolling dough (All process abstractions) 40
Example of data abstraction This Chicago transit map is a data abstraction; contains essential info like stations and transfer points, avoids details like exact street locations of stations or distances 41
Process Abstractions of the mind Techniques For example: Divide and Conquer Abstraction of how to solve a problem, not actually a solution to any particular problem. Take a problem and divide it into several piece Solve or complete each piece Re-combine the pieces to solve original problem 42
Another activity Review the Computational Thinking within Disciplines Chart With at least one other person talk about at least one lesson that you could modify in your class which would involve one or more of the CT Concepts or Capabilities on the left column ?? minutes then we’ll share
CCSC: Standards for Mathematical Practice 1.Make sense of problems and persevere in solving them 2.Reason abstractly and quantitatively 3.Construct viable arguments and critique the reasoning of others 4.Model with mathematics 5.Use appropriate tools strategically 6.Attend to precision 7.Look for and make use of structure 8.Look for and express regularity in repeated reasoning
"name": "CCSC: Standards for Mathematical Practice 1.Make sense of problems and persevere in solving them 2.Reason abstractly and quantitatively 3.Construct viable arguments and critique the reasoning of others 4.Model with mathematics 5.Use appropriate tools strategically 6.Attend to precision 7.Look for and make use of structure 8.Look for and express regularity in repeated reasoning
CCSC: Standards for Mathematical Content High School: Modeling Modeling Standards Modeling is best interpreted not as a collection of isolated topics but rather in relation to other standards. Making mathematical models is a Standard for Mathematical Practice, and specific modeling standards appear throughout the high school standards indicated by a star symbol ( ★ ).
"name": "CCSC: Standards for Mathematical Content High School: Modeling Modeling Standards Modeling is best interpreted not as a collection of isolated topics but rather in relation to other standards.",
"description": "Making mathematical models is a Standard for Mathematical Practice, and specific modeling standards appear throughout the high school standards indicated by a star symbol ( ★ ).
CT Statement #1 CT is a key interdisciplinary component in preparing students to be successful in a globally competitive workforce. If students are going to be successful in postsecondary education and compete for and win jobs, they must have the critical thinking and problem-solving skills that CT provides (Wagner). From ISTE CT Website, Computational Leadership Toolkit (8/22/11), p 42 Tony Wagner, Innovation Education Fellow, Technology and Entrepreneurship Center, Harvard U
CT Statement #2 CT is a critical enabling skill that will raise the level of achievement for all students, especially those who are traditionally marginalized. Successful students must be able to connect and apply academic content to real-world situations, and CT provides a framework for that learning connection (Marzano). From ISTE CT Website, Computational Leadership Toolkit (8/22/11), p 42 Robert J Marzano, Marzano Research Laboratory
CT Statement #3 CT is already a learning strategy in many classrooms and lessons today. However, we need to more closely examine the uses of CT and identify and expand student and teacher awareness about its impact and power. This means we probably do not have to expend large sums of money. We just need to recognize and align CT strategies to current practices. From ISTE CT Website, Computational Leadership Toolkit (8/22/11), p 42
NSF CE21 proposals require CT prominently CSTA K-12 CS Standards, 3 rd ed (CT is a major focus of these new standards) New AP Computer Science Principles and Exploring CS Curricula – CT plays a major role CT is gaining traction!
Consuming content and parroting procedures is 19 th and 20 th Century 21 st Century Education is about process, about learning tools and skills to remake content, create new learning and solve problems (think creators, producers) Not about just formal education in school but also about informal education – 24 hour learning – the network CT promotes 21 st Century Learning Re-Imagining Learning in the 21 st Century: MacArthur Foundation http://www.youtube.com/watch?v=D6_U6jOKsG4&feature=relmfu Rethinking Learning: The 21 st Century Learner: MacArthur Foundation http://www.youtube.com/watch?v=c0xa98cy-Rw&feature=relmfu
Contextual Multidisciplinary Project-based and inquiry based Looking deeply at a problem Using abstraction + algorithms + analysis + bringing to bear any number of tools + possibly automation/computing CT Features
CT isn’t necessarily useful for all problems...but for many of our largest problems involving sciences, environment, social studies for example where large datasets abound and modeling and simulation techniques are useful CT for our larger problems
Technology Review (June 2012) 10 Emerging Technologies – among them: Egg Stem Cells Ultra-Efficient Solar Light-field Photography Solar Microgrids 3-D Transistors A Faster Fourier Transformation Nanopore Sequencing CT in Emerging Technologies
Develop an understanding of CT Highlight CT vocabulary, skills, and dispositions in your lessons Extend current activities and lessons with CT Engage and share with others who are new to CT Teachers, here’s what you can do
Use the CT Leadership Toolkit Make a CT presentation to your colleagues or at a conference Connect CT to school improvement efforts Support teachers who want to learn more about CT School Leaders Take Action!
Provide feedback on the session, the effectiveness of resources, and the kinds of the resources you’d like to see developed Take the Understanding Computational Thinking survey: Online: www.iste.org/CT-Surveywww.iste.org/CT-Survey By Paper Take Action Now!
CT Teacher Resources and CT Leadership Toolkit For free download at www.iste.org/computational-thinkingwww.iste.org/computational-thinking Coming Soon! CT database for links to research and other teacher resources. CT Resources
For more information, contact: firstname.lastname@example.org Or http://csta.acm.org/Curriculum/sub/CompThinking.html www.iste.org/computational-thinking Joe’s site: http://computationalthinking.pbworks.comhttp://computationalthinking.pbworks.com Thank you!