A Learning Science Protocol for Evaluation of a

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Cumulative cost of over $60 billion. Hurricane Katrina (2005) slammed NO. At risk of damage from coastal storms. ➢ 6.5 million U.S. homes and. ➢ $1.5 trillion of ...
A Learning Science Protocol for Evaluation of a Sustainability-based Learning Environment Mahdi M.N. Abadi1, Babak Bahaddin1, Reza Feyzi Behnagh1, Michael A. Deegan2, David F. Andersen1, Luis F. Luna-Reyes1, Rod MacDonald3, Eliot Rich1 1. University at Albany, 2. US Army Corps of Engineers, and 3. Initiative for System Dynamics in Public Sector

Major Project Components

Problem Domain Hurricane Sandy (2012) hit the NY/NJ Coast  Cumulative cost of over $60 billion Hurricane Katrina (2005) slammed NO

Steps Refinement of the current SBLE Refinement of facilitation plans to:  Promote evidence-based approach to decision and policy making  Assessing actual insights participants develop during the experience

Major Evaluation Streams

Simulation Core Logic +

development density R

+

+

desired protection

level of protection gap

tourism pressure on land development

+

+

Protection from Mitigation Projects

B

-

development to carrying capacity ratio -

Natural Barriers +

perceived protection from natural resources and mitigation projects

+



Evaluation of Learning in USACE Workshop



Sustainability Curriculum as System-Based Lessons for

Evaluate Classroom-Based SBLE

Existing Products First Draft of Coastal Protection Sustainability Lessons

Final Draft of Coastal Protection Sustainability Lessons

Evaluate NJ Workshop First USACE SBLEBased Coastal Protection Planning Workshop

Aim 2: Can a SBLE Effectively Teach System Sustainability Lessons for Coastal Protection?

Second USACE SBLEBased Coastal Protection Planning Workshop

Final Draft of Coastal Protection Sustainability Lessons

Evaluate Second Workshop Third USACE SBLEBased Coastal Protection Planning Workshop

Aim 1: What are General Systems-Based Sustainability Lessons? What are System Sustainabililty Lessons for Coastal Protection?

Evaluate Final Workshop Aim 3: Is the System Sustainability Curriculum for Coastal Protection Relevant in Actual Practice?

Stocks as System Building Blocks

Figure 2. Major Products, Research Questions, and Evaluation Activities

System Dynamics Lessons

Use and Evaluate Coastal Protection SBLE in Controlled Classroom Setting

Several key system stocks are fundamental  Accumulations of human activity  Stocks of natural resources  Mitigating adverse impacts of human activity (investment) Coastal risk is driven by:  Long-term construction near the coast  Degraded natural protective barriers  Protective barriers

Feedback Drives Behavior

Endogenous Point of View

Feedback between stocks & flows is the basis of behavior

Aspects of behavior are the result of policies and endogenous actions

Feedback among the three classes of stocks over time determine long term system behavior and often lead to unintended and undesirable outcomes

Well-intended environmental policies may not be sustainable because they may trigger “better before worse” patterns of system behavior

See Figure 1

Attempts to protect the coast solely by investing in the built environment may be a self-defeating policy

Evaluations of SBLE with Controls for Classroom-Based Activities Classroom Based

-

protecting the community

Evaluation of Classroom Learning

System-Based Lessons for Sustainable Coastal Protection

risk perception B



+

-

If you build it, they will come

Updated CoastalProtectSim Model and SBLE Materials

Existing CoastalProtectSim Model and Materials

Coastal ProtectSim Cockpit

Land Development

R

+

development pressure for tourism

USACE Experience with Coastal Protection Policy & Management and Shared Vision Planning

 Decision makers have difficulty reaching consensus about how to apply climate information in a complex policy context  Regulations and incentives needed to preserve community viability Emerge as a negotiated result that may take many years to complete  Coastal managers may inadvertently increase long term risks by encouraging construction and revitalization

Simulation-Based Learning Environment in USACE

Coastal Protection

Challenges Models require data integration  Topological  Physical  Population



Workshops

(1) System Sustainability Curriculum, (2) SBLE, and (3) USACE Coastal Protection Workshop

Provide stakeholders the mechanism to understand the effects of their actions and inactions on their sustainable future:  Fundamental lessons in management  The effects of complexity  Reasons for unanticipated outcomes

Hurricane Katrina (2005) slammed New Orleans  Total cost to the US Economy: $110 billion  Health risks: Hepatitis A, cholera, TB, typhoid/yellow fever, malaria, WNV  Death toll: 1,836 lives  Loss of jobs: 400,000

Refined Coastal Protection Simulation Model [1] Simulation-Based Learning Environment in Classroom [2]

Sustainability Principles and Lessons

Goals

 

Lessons for the Coastal Protection

At risk of damage from coastal storms  6.5 million U.S. homes and  $1.5 trillion of assets

US Army Corps of Engineers

Major Component Contextualization Pre Test

Natural Resources

Treatment

Figure 1. Major Stocks and Feedback Loops in the CoastalProtectSim Post Test [1] Deegan, M.; Stave, K.; MacDonald, R.; Andersen, D.; Ku, M.; Rich, E. Simulation-Based Learning Environments to Teach Complexity: The Missing Link in Teaching Sustainable Public Management. Systems 2014, 2, 217-236 [2] Ku, M. (n.d.). Teaching and Learning about Complexity in Public Policy Decision Making: Using a Simulation-Based Learning Environment in the MPA Classroom. Journal of Public Affairs Education (forthcoming).

Evaluation

SBLE

Field Based Control

Pointe Claire Case Materials Background on Coastal Protection Structured survey Written essay on selected topics Pre-simulation interaction with policy issues Strategic Structured interactions with task/group analysis simulator exercises Debriefing and written or “think aloud” products Structured survey materials Model-based experimentation with same/different context Reasoning-based written final assignment Multiple measures possible, e.g. --measure improvement from runs Measure the difference between the results of the final written assignments and results from the control group

SBLE Problem Defining and other exercises drawn from GMB experiences appropriate to selected group Pre workshop interviews Other instruments (e.g. social network analysis) Pre-simulation interaction with policy issues with written products Structured interactions with simulator Debriefing and written or “think aloud” products Qualitative debriefing based on best practice from group model building scripts Follow up with relevant instruments Use qualitative approach to assess realism and relevance of overall exercise

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