advanced materials and manufacturing - cyberlearning and … · 2016-12-09 · 4. groover, m.p....

1
2016 Summer Academy in Sustainable Manufacturing engineering.wayne.edu/sustamfg/ 4815 Fourth Street | Detroit, MI 48202 | (313) 577-1752 Cyberlearning and Constructionism in Sustainable Life-Cycle Engineering Figure 1: CooL:SLiCE Tools References 1. Harel, Idit and Seymour Papert. "Situation Constructionism." Harel, Idit and Papert Seymour. Constructionism: Research Reports and Essays, 1985-1990. Norwood: Ablex Pub., 1991. 2. Kolb, David A. "The Process of Experiential Learning." Kolb, David A. Experiential Learning: Experience as the Source of Learning and Development. Englewood Cliffs: Prentice-Hall, 1984. Print. June 2016. 3. Kolb, Alice Y. and David A. Kolb. "Learning Styles and Learning Spaces: Enhancing Experiential Learning in Higher Education." Academy of Management Learning & Education 4.2 (2005): 193-212. Web. June 2016. 4. Groover, M.P. Fundamentals of Modern Manufacturing: Materials, Processes, and Systems. John Wiley & Sons, 2010. Name: Bertha Wang Mentor: Dr. Kyoung-Yun Kim About Me Bertha Wang is a third-year undergraduate at Princeton University. She is majoring in mechanical and aerospace engineering, with certificates in robotics and computer science. (a) 3D online CAD Module (b) Sustainable Product Architecture and Supplier Selection (S-PASS) (c) Manufacturing Analysis Part Process Plan Whole Upper/ Lower Shell Plastic Feedstock Production Injection Molding Upper/Lower Shell (Dome) Plastic Feedstock Production Injection Molding Leg (Type 1) Leg (Type 2) Plastic Feedstock Production Plastic Feedstock Production Injection Molding Extrusion Knob Plastic Feedstock Production Injection Molding Propeller Plastic Feedstock Production Injection Molding Propeller Shield Plastic Feedstock Production Injection Molding Battery Cover Plastic Feedstock Production Injection Molding Current Needs and Future Direction It is important to note that the evaluation is an ongoing process. The project has produced feedback for future direction: - Need for tutorials or initial instruction to motivate student - Need to generalize S-PASS Tool to address any product - Suggestion to integrate 3D online CAD with other tools Acknowledgements Recognition goes towards the CooL:SLiCE team of Wayne State University (Dr. Carolyn Psenka, Dr. Kyoung-Yun Kim, Md. Tarique Hasan Khan, Tasnia Reza), Oregon State University (Dr. Karl Haapala, Kamyar Rauofi), and Penn State University (Dr. Kathy Jackson, Dr. Gul E.O. Kremer, Kijung Park). This work is supported by the NSF REU program (Award No. 1461031). CooL:SLiCE has also been funded by the NSF S-STEM:SCHLR SCI TECH ENG&MATH, IUSE program through grants DUE- 1432774 at Oregon State University, DUE-1431481 at Wayne State University, and DUE-1431739 at Pennsylvania State University. Project Introduction Wayne State University, Penn State University, and Oregon State University are collaborating to develop a web-based sustainable lifecycle engineering design education portal called CooL:SLiCE (Constructionism in Learning: Sustainable Life- Cycle Engineering). CooL:SLiCE is a cyber-learning platform that takes a constructionist approach to provide an interactive learning environment and enable engagement in sustainable design and analysis. The participating universities each contributed a different tool to reflect the multi-disciplinary facets of sustainable engineering. The platform consists of three modules to fulfill learning objectives (Figure 1). It is in developing stages, and the team is currently working towards evaluating its usability. Approach The formation of the inter- university multi-disciplinary team project has resulted in a cyclic approach towards evaluation. Inter-University Multi-Disciplinary Team Project Goals: - Evaluate how CooL:SLiCE addresses sustainable engineering - Evaluate how CooL:SLiCE facilitates group work. Student Team: For the pilot test, the graduate student developers are acting as CooL:SLiCE users. The team varies in areas of engineering disciplines. Task: Design and perform sustainable manufacturing analysis of drones for a custom purpose Data Collection: To record group interactions, the team is using Slack.com to coordinate and record meetings, share ideas, and note decisions. Figure 3: CooL:SLiCE Learning Theory 1,2,3 Figure 4: CooL:SLiCE’s Relationship to Sustainable Manufacturing 4 State of Knowledge The current lack of integrated sustainability analysis has motivated the CooL:SLiCE team to develop the cyberlearning platform. The team has taken a constructionist approach to provide appropriate scaffolding in a multidisciplinary cyberlearning environment. Learning Objectives: 1: Analyze the impacts of product architecture, manufacturing processes, and supply chain decisions on the economic and environmental sustainability of a product; 2: Articulate the impacts of product architecture, manufacturing processes, and supply chain decisions on the economic and environmental sustainability of a product; 3: Construct product design solutions that address technical requirements, in addition to economic and environmental sustainability goals. Team, design case, schedule Case study, exercise, manual Learning objectives, activity monitoring, reporting Relation to Sustainable Manufacturing Support Project Assess Project Conduct Project

Upload: others

Post on 03-Jun-2020

12 views

Category:

Documents


1 download

TRANSCRIPT

Page 1: Advanced Materials and Manufacturing - Cyberlearning and … · 2016-12-09 · 4. Groover, M.P. Fundamentals of Modern Manufacturing: Materials, Processes, and Systems. John Wiley

2016 Summer Academy in Sustainable Manufacturingengineering.wayne.edu/sustamfg/

4815 Fourth Street | Detroit, MI 48202 | (313) 577-1752

Cyberlearning and Constructionism in Sustainable Life-Cycle Engineering

Figure 1: CooL:SLiCE Tools

References

1. Harel, Idit and Seymour Papert. "Situation Constructionism." Harel, Idit and Papert Seymour.

Constructionism: Research Reports and Essays, 1985-1990. Norwood: Ablex Pub., 1991.

2. Kolb, David A. "The Process of Experiential Learning." Kolb, David A. Experiential Learning: Experience as

the Source of Learning and Development. Englewood Cliffs: Prentice-Hall, 1984. Print. June 2016.

3. Kolb, Alice Y. and David A. Kolb. "Learning Styles and Learning Spaces: Enhancing Experiential Learning in

Higher Education." Academy of Management Learning & Education 4.2 (2005): 193-212. Web. June 2016.

4. Groover, M.P. Fundamentals of Modern Manufacturing: Materials, Processes, and Systems. John Wiley &

Sons, 2010.

Name: Bertha Wang Mentor: Dr. Kyoung-Yun Kim

About MeBertha Wang is a third-year undergraduate at Princeton University. She is majoring in

mechanical and aerospace engineering, with certificates in robotics and computer science.

(a) 3D online CAD Module

(b) Sustainable Product Architecture and Supplier

Selection (S-PASS)

(c) Manufacturing Analysis

Part Process Plan

Whole Upper/

Lower Shell

Plastic Feedstock

Production

—►Injection

Molding

Upper/Lower

Shell (Dome)

Plastic Feedstock

Production

—►Injection

Molding

Leg (Type 1)

Leg (Type 2)

Plastic Feedstock

Production

Plastic Feedstock

Production

—►Injection

Molding

—►Extrusion

KnobPlastic Feedstock

Production

—►Injection

Molding

PropellerPlastic Feedstock

Production

—►Injection

Molding

Propeller

Shield

Plastic Feedstock

Production

—►Injection

Molding

Battery CoverPlastic Feedstock

Production

—►Injection

Molding

Current Needs and Future DirectionIt is important to note that the evaluation is an ongoing process.

The project has produced feedback for future direction:

- Need for tutorials or initial instruction to motivate student

- Need to generalize S-PASS Tool to address any product

- Suggestion to integrate 3D online CAD with other tools

AcknowledgementsRecognition goes towards the CooL:SLiCE team of Wayne State University (Dr. Carolyn Psenka, Dr.

Kyoung-Yun Kim, Md. Tarique Hasan Khan, Tasnia Reza), Oregon State University (Dr. Karl Haapala,

Kamyar Rauofi), and Penn State University (Dr. Kathy Jackson, Dr. Gul E.O. Kremer, Kijung Park).

This work is supported by the NSF REU program (Award No. 1461031). CooL:SLiCE has also been

funded by the NSF S-STEM:SCHLR SCI TECH ENG&MATH, IUSE program through grants DUE-

1432774 at Oregon State University, DUE-1431481 at Wayne State University, and DUE-1431739 at

Pennsylvania State University.

Project IntroductionWayne State University, Penn State University, and Oregon State University are

collaborating to develop a web-based sustainable lifecycle engineering design

education portal called CooL:SLiCE (Constructionism in Learning: Sustainable Life-

Cycle Engineering).

CooL:SLiCE is a cyber-learning platform that takes a constructionist approach to

provide an interactive learning environment and enable engagement in sustainable

design and analysis. The participating universities each contributed a different tool to

reflect the multi-disciplinary facets of sustainable engineering. The platform consists

of three modules to fulfill learning objectives (Figure 1). It is in developing stages,

and the team is currently working towards evaluating its usability.

ApproachThe formation of the inter-

university multi-disciplinary team

project has resulted in a cyclic

approach towards evaluation.

Inter-University Multi-Disciplinary Team ProjectGoals:

- Evaluate how CooL:SLiCE addresses sustainable engineering

- Evaluate how CooL:SLiCE facilitates group work.

Student Team: For the pilot test, the graduate student developers are acting as

CooL:SLiCE users. The team varies in areas of engineering disciplines.

Task: Design and perform sustainable manufacturing analysis of drones for a

custom purpose

Data Collection: To record group interactions, the team is using Slack.com to

coordinate and record meetings, share ideas, and note decisions.

Figure 3: CooL:SLiCE Learning Theory1,2,3

Figure 4: CooL:SLiCE’s Relationship to Sustainable Manufacturing4

State of KnowledgeThe current lack of integrated sustainability analysis has motivated the

CooL:SLiCE team to develop the cyberlearning platform. The team has

taken a constructionist approach to provide appropriate scaffolding in a

multidisciplinary cyberlearning environment.

Learning Objectives:

1: Analyze the impacts of product architecture, manufacturing processes, and supply

chain decisions on the economic and environmental sustainability of a product;

2: Articulate the impacts of product architecture, manufacturing processes, and

supply chain decisions on the economic and environmental sustainability of a product;

3: Construct product design solutions that address technical requirements, in addition

to economic and environmental sustainability goals.

Team, design case, schedule

Case study, exercise, manual

Learning objectives, activity monitoring, reporting

Relation to Sustainable Manufacturing

Support Project

Assess Project

Conduct Project