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System Dynamics in Systems Thinking

System Dynamics in Systems Thinking

$251.00
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What does the System Dynamics in Systems Thinking course cover?

System Dynamics in Systems Thinking is covered here in 8 modules: Foundations of System Structure and Behavior, Model Specification and Variable Design, Simulation Execution and Behavior Analysis and 5 more. The outline lists 48 specific topics, opening with define system boundaries when modeling interdepartmental workflows to isolate feedback loops influencing delivery timelines.

How do you approach System Dynamics in Systems Thinking step by step?

The work is sequenced in 8 stages. It starts with Foundations of System Structure and Behavior, moves through Model Specification and Variable Design and Simulation Execution and Behavior Analysis, and ends at Ethical and Governance Considerations in Modeling. Each stage carries its own topic list, so the sequence is followed rather than summarised.

What is in Module 1 of the System Dynamics in Systems Thinking course?

Module 1 is Foundations of System Structure and Behavior. It works through define system boundaries when modeling interdepartmental workflows to isolate feedback loops influencing delivery timelines., select stock-and-flow variables based on measurable operational data such as inventory levels, backlog volume, or staffing capacity., distinguish between reinforcing and balancing feedback loops in customer acquisition models to project long-term market saturation. and 3 more.

How is the System Dynamics in Systems Thinking course delivered?

The System Dynamics in Systems Thinking course is fully self-paced with immediate online access after enrolment. Access does not expire and future updates are included at no cost. It can be taken on any device, and a certificate of completion is issued by The Art of Service when you finish.

How much does the System Dynamics in Systems Thinking course cost?

The System Dynamics in Systems Thinking course is $251 as a one time payment. There is no subscription, no per seat licence and no hidden fee. Enrolment carries a 30 day satisfied or refunded guarantee, so it can be assessed in full before you commit.

Closely related courses: Systems Dynamics in Systems Thinking, System Thinking in System Dynamics Dataset, Relationship Dynamics in Systems Thinking, Dynamic Equilibrium in Systems Thinking.

More answers: what you get with every course, refund policy, all help answers.

This curriculum spans the equivalent of a multi-workshop organizational modeling initiative, covering the technical, collaborative, and governance aspects of building and deploying system dynamics models across functions such as supply chain, workforce planning, and strategic decision-making.

Module 1: Foundations of System Structure and Behavior

  • Define system boundaries when modeling interdepartmental workflows to isolate feedback loops influencing delivery timelines.
  • Select stock-and-flow variables based on measurable operational data such as inventory levels, backlog volume, or staffing capacity.
  • Distinguish between reinforcing and balancing feedback loops in customer acquisition models to project long-term market saturation.
  • Map causal loop diagrams using real stakeholder interview data to validate assumptions about organizational growth constraints.
  • Identify time delays in supply chain replenishment cycles that contribute to bullwhip effects and inventory oscillations.
  • Decide when to simplify nonlinear relationships into piecewise approximations for model tractability without losing predictive accuracy.

Module 2: Model Specification and Variable Design

  • Assign units of measure to all variables to ensure dimensional consistency across equations in multi-department models.
  • Parameterize nonlinear functions using historical performance data, such as diminishing returns in marketing spend effectiveness.
  • Implement lookup tables for empirically observed relationships, such as employee productivity decline under sustained overtime.
  • Define initial conditions for stocks based on audited operational baselines rather than estimates to improve model calibration.
  • Structure auxiliary variables to modularize complex logic, enabling reuse across models for different business units.
  • Document variable definitions and data sources in a shared repository to support auditability and model handover.

Module 3: Simulation Execution and Behavior Analysis

  • Run sensitivity analyses on key parameters such as hiring rate or defect resolution time to identify leverage points in service delivery models.
  • Compare baseline simulation runs against historical KPI trends to assess model validity before scenario testing.
  • Interpret oscillatory behavior in workforce planning models as indicators of policy-induced instability, not random variation.
  • Use extreme condition tests—such as zero input or infinite demand—to expose structural flaws in policy logic.
  • Track phase plots of stock pairs (e.g., morale vs. workload) to diagnose tipping points in organizational resilience.
  • Adjust simulation time steps to balance computational efficiency with accurate representation of fast-acting processes.

Module 4: Policy Design and Leverage Point Intervention

  • Modify information delays in performance review cycles to test their impact on employee retention trajectories.
  • Introduce adaptive policies, such as dynamic staffing triggers based on backlog thresholds, to stabilize service levels.
  • Compare fixed-budget allocation rules against feedback-driven funding models in R&D portfolio simulations.
  • Design policy switches that activate contingency protocols when key indicators cross predefined risk thresholds.
  • Test the robustness of escalation procedures under multiple disruption scenarios to avoid unintended escalation loops.
  • Replace reactive correction rules with anticipatory controls in inventory management to reduce stockouts and overstocking.

Module 5: Model Validation and Stakeholder Engagement

  • Conduct group model-building sessions with cross-functional leads to surface conflicting mental models of process flow.
  • Present simulation outcomes using animated dashboards that align with stakeholders’ operational timelines and reporting rhythms.
  • Use discrepancy analysis to reconcile model outputs with observed data, focusing on structural rather than parameter fixes.
  • Facilitate calibration workshops where subject matter experts adjust parameter ranges based on institutional knowledge.
  • Document structural assumptions explicitly to enable peer review and challenge of causal mechanisms.
  • Manage cognitive dissonance when model results contradict established narratives by anchoring discussions in data traces.

Module 6: Organizational Learning and Feedback Integration

  • Institutionalize model updates by linking simulation parameters to live data feeds from ERP or HRIS systems.
  • Embed model insights into quarterly strategic reviews to maintain alignment between planning and system behavior.
  • Design feedback reports that translate simulation findings into actionable operational adjustments for frontline managers.
  • Establish model ownership roles to ensure maintenance, version control, and access governance over time.
  • Track decision outcomes against projected scenarios to refine model assumptions and improve future forecasts.
  • Integrate model-based insights into training programs to shift mental models across management tiers.

Module 7: Scaling and Cross-System Application

  • Adapt a supply chain resilience model for use in IT incident response by mapping analogous stocks and flows.
  • Harmonize variable naming and structure across models to enable comparative analysis of different business units.
  • Decide when to link models (e.g., finance and operations) versus maintain separation to preserve clarity and performance.
  • Apply archetype patterns—such as " Fixes That Fail" —to diagnose recurring issues in change management initiatives.
  • Standardize model documentation templates to support governance and compliance in regulated environments.
  • Assess computational load when running ensemble simulations for enterprise-wide risk scenarios to optimize resource allocation.

Module 8: Ethical and Governance Considerations in Modeling

  • Disclose model limitations when presenting results to executives to prevent overconfidence in long-range projections.
  • Control access to sensitive models containing workforce or financial data through role-based permissions and audit logs.
  • Document assumptions about human behavior that may reflect bias, such as productivity decay under remote work.
  • Ensure model reuse does not transfer context-specific logic to inappropriate domains without structural review.
  • Balance transparency with operational security when sharing model insights across departments with competing incentives.
  • Establish review cycles for model retirement when underlying systems undergo structural transformation or obsolescence.
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