Systems Thinking and Complexity Management Training Course

Duration 5 days 10 modules · 33 contact hours
Level Intermediate Certificate on completion
Who attends Senior Managers, Programme and Project Managers and others
Fee from USD 1,100 KSh 95,000 for Kenyan organisations
Where 52 cities + online See dates by city
Next start 16 Nov 2026 Course code SD-LD-224

Before you join: Participants should have experience managing projects, services, teams, programmes, policy work or organisational change.

Dates & prices

Two start dates a month in every city, and live online on weekdays or weekends. Fees are per participant; classroom fees include tuition, materials, lunch and refreshments, and the certificate.

Suggest a date or city

Showing the next six months. Later dates, other cities and private deliveries for your team are available on request.

Course overview

Leaders often face problems that resist a single owner or technical fix: persistent customer complaints, procurement delays, credit-risk concentrations, programme delivery failures, workforce attrition, or policy changes that create new pressures elsewhere. These situations arise from feedback, incentives, information delays, competing objectives and informal workarounds. Systems thinking provides disciplined ways to see those relationships, test explanations and select interventions that improve the whole system rather than shifting a burden from one team to another.

This five-day Systems Thinking and Complexity Management Training Course develops the analytical and leadership practices expected of a certificate-level programme in systems thinking and complexity. Participants define system boundaries, surface assumptions, map causal feedback and stock-and-flow structures, diagnose recurring systems archetypes, and work with complexity using Cynefin and safe-to-fail experiments. They also examine organisational design through the Viable System Model, assess intervention points, and use scenarios and signposts to make decisions under uncertainty. The emphasis is on converting diagrams and concepts into defensible choices, governance routines and learning measures.

Delivery combines instructor briefings with facilitated analysis of realistic cases from banking, public services, infrastructure, humanitarian programmes and corporate operations. Participants work individually and in groups to interpret evidence, build models, challenge assumptions and compare intervention options. Each participant develops a Systemic Intervention Portfolio for a live or realistic issue: a problem framing, stakeholder and boundary analysis, causal model, priority interventions, indicators, experiment plan and 30-day application plan. The course runs classroom-based in more than 50 cities or live online, from 08:30 to 16:30 over five days, and awards a certificate of completion.

What you will be able to do

  • Frame complex organisational problems using system boundaries, purposes and stakeholder perspectives
  • Map causal feedback using causal loop diagrams and polarity notation
  • Construct stock-and-flow models that explain accumulation, delay and dynamic behaviour
  • Diagnose recurring systemic problems using recognised systems archetypes
  • Classify decision contexts using the Cynefin framework and appropriate response modes
  • Design safe-to-fail experiments with hypotheses, signals and stop conditions
  • Evaluate organisational viability using the Viable System Model
  • Produce a Systemic Intervention Portfolio with measures, owners and review points

Benefits of attending

For you

  • A disciplined method for analysing persistent problems beyond immediate symptoms
  • Greater confidence challenging assumptions behind proposed solutions
  • Practical diagrams for explaining complex issues to senior stakeholders
  • A repeatable approach for choosing experiments under uncertainty
  • A completed application plan for a current organisational issue

For your organisation

  • Earlier identification of unintended consequences from policy and operational changes
  • Better coordination across functions with conflicting targets and incentives
  • More effective interventions for recurring backlogs, service failures and delivery delays
  • Stronger governance of complex programmes through feedback measures and review cycles
  • Improved decision quality where evidence is incomplete and conditions change

Course modules

10 modules over 5 days

Participants can frame a complex issue as a system with defined boundaries, purpose and relationships.

  • System boundaries, purpose and stakeholders defined before analysing a problem
  • Interdependencies mapped between policy, process, technology, incentives and behaviour
  • Feedback, delays and nonlinearity distinguished from simple linear causation
  • Emergence explained through interactions rather than individual component performance
  • Scale, time horizon and perspective selected for system inquiry
  • Rich pictures capture structures, relationships, tensions and competing viewpoints

Participants can expose assumptions, competing perspectives and boundary choices affecting a systems diagnosis.

  • Argyris ladder of inference exposes assumptions behind managerial conclusions
  • Double-loop learning tests governing variables, not only corrective actions
  • Polarities mapped using both poles, benefits, fears and early warnings
  • Stakeholder salience assessed through power, legitimacy and urgency criteria
  • Boundary critique identifies included voices, excluded interests and value judgements
  • Competing mental models compared before choosing intervention hypotheses

Participants can create and validate causal loop diagrams that explain feedback-driven behaviour.

  • Variables written as measurable nouns that can increase or decrease
  • Positive and negative causal links labelled with polarity notation
  • Reinforcing and balancing feedback loops identified from operational evidence
  • Link delays marked to expose deferred consequences and oscillation risks
  • Loop narratives test whether diagrams reflect observed system behaviour
  • Causal loop diagrams revised after stakeholder challenge and data review

Participants can distinguish accumulations from rates and explain changing system performance over time.

  • Stocks, flows and clouds distinguish accumulations from rates of change
  • Conservation principles test whether stock-and-flow structures are physically plausible
  • Bathtub dynamics explain backlog, liquidity, inventory and workforce patterns
  • Decision rules represented as equations, thresholds and information delays
  • Behaviour-over-time graphs compare reference modes against simulated trajectories
  • Dimensional consistency checks expose invalid units and implausible relationships

Participants can diagnose recurring problem structures and identify deeper corrective actions.

  • Fixes That Fail traces symptomatic relief and delayed unintended consequences
  • Shifting the Burden separates dependency mechanisms from fundamental solutions
  • Limits to Growth identifies reinforcing expansion and constraining feedback
  • Success to the Successful reveals allocation rules creating structural advantage
  • Tragedy of the Commons tests shared-resource depletion and replenishment rules
  • Archetype diagnosis distinguishes recurring structure from isolated operational incidents

Participants can select suitable management responses for ordered, complex and chaotic conditions.

  • Cynefin distinguishes clear, complicated, complex, chaotic and confused contexts
  • Probe-sense-respond practices guide action where cause and effect emerge retrospectively
  • Safe-to-fail experiments specify hypotheses, boundaries, signals and stop conditions
  • Complex adaptive systems examined through agents, rules, networks and adaptation
  • Attractors, path dependence and tipping points inform intervention timing
  • Ordered-domain methods reserved for repeatable work with knowable relationships

Participants can assess whether organisational structures have the functions required to manage complexity.

  • Viable System Model diagnoses operational, coordination, control, intelligence and policy functions
  • System 1 through System 5 roles tested against accountability gaps
  • Algedonic signals escalate critical exceptions without overloading senior decision-makers
  • Variety engineering matches response capacity to environmental complexity
  • Autonomy boundaries clarify local discretion, escalation triggers and shared constraints
  • Recursive structures connect frontline units, business divisions and enterprise governance

Participants can select interventions that address system structure, decision rules and learning needs.

  • Meadows' twelve points distinguish parameters, feedbacks, rules, goals and paradigms
  • Assumption mapping separates certainties, critical uncertainties and testable beliefs
  • Impact-effort matrix prioritises interventions within authority and resource constraints
  • Pre-mortem analysis identifies failure pathways before committing implementation resources
  • Implementation hypotheses link actions to mechanisms, measures and expected effects
  • Ethical review tests distributional consequences, consent and unintended harm

Participants can prepare strategies for plausible future conditions and define decision triggers.

  • Critical uncertainties frame plausible futures rather than single-point forecasts
  • Two-by-two scenario matrices combine independent, high-impact uncertainty axes
  • Wind-tunnelling tests strategies against each scenario's operating conditions
  • Leading indicators distinguish weak signals from routine performance variation
  • Signposts trigger contingency actions, reassessment dates and governance decisions
  • Adaptive portfolios balance committed action, options and reversible decisions

Participants can assemble a practical systemic intervention plan for a current organisational challenge.

  • Systemic problem statement defines outcomes, boundaries, evidence and affected parties
  • Causal loop diagram and behaviour-over-time graph support a shared diagnosis
  • Intervention portfolio specifies owners, mechanisms, dependencies, measures and review cadence
  • Learning agenda records assumptions, experiments, indicators and decision thresholds
  • After-action reviews capture results, surprises, adaptations and next-cycle commitments
  • Thirty-day application plan schedules stakeholder conversations and first tests

Exercises and examples are adapted to each cohort's sectors and roles.

What you take back to work

  1. Systemic problem-framing template
  2. Stakeholder and boundary analysis checklist
  3. Causal loop diagram template
  4. Systems archetype diagnostic guide
  5. Safe-to-fail experiment plan
  6. Systemic Intervention Portfolio

Who should attend

  • Senior Managers — address cross-functional problems that persist despite local improvement efforts
  • Programme and Project Managers — manage dependencies, delays and unintended consequences across initiatives
  • Strategy and Transformation Leaders — test strategic assumptions and design interventions under uncertainty
  • Operations Managers — diagnose recurring service, capacity, workflow and quality problems
  • Public Policy and NGO Leaders — assess stakeholder effects and system-wide consequences of policy choices
  • Risk, Governance and Compliance Managers — identify feedback risks, escalation failures and control gaps

Skills and tools covered

Systems problem framingCausal loop mappingComplexity-informed decisionsSystems archetype diagnosisAdaptive intervention designScenario-based planning

Tools and standards

Causal loop diagrams, Stock-and-flow diagrams, Cynefin framework, Viable System Model

How the course runs

Training methodology

The course uses short instructor briefings followed by case analysis, facilitated group work, modelling tasks, decision simulations and structured reflection. Cases draw on operational, financial, public-service and programme delivery situations where local actions create wider effects. Participants build and test causal loop diagrams, stock-and-flow structures, archetype diagnoses and intervention options. Facilitators provide feedback on model logic, assumptions, evidence and communication. Individual application planning connects course methods to a current workplace issue and defines first actions after the course.

Requirements and prerequisites

Participants should have experience managing projects, services, teams, programmes, policy work or organisational change. They should be comfortable discussing operational data, stakeholder interests, process dependencies and business decisions. Familiarity with basic process mapping or root-cause analysis is useful but not essential. No prior study of systems dynamics, complexity science, simulation modelling, mathematics or coding is required. Participants gain most value by bringing a current cross-functional issue, such as a delivery bottleneck, service failure, risk concern or change initiative, although course cases are available for those without one.

A typical training day

08:30 – 10:30First session
10:30 – 10:45Refreshment break
10:45 – 12:30Second session
12:30 – 13:30Lunch and networking
13:30 – 15:00Third session
15:00 – 15:15Refreshment break
15:15 – 16:30Workshop and daily review

Live online deliveries follow the same structure in East Africa Time, with shorter screen blocks and longer breaks.

What the fee includes

  • Instruction by a practitioner facilitator
  • Full course workbook and materials
  • Exercise files, templates and case studies
  • Refreshments and lunch on classroom deliveries
  • Certificate of completion
  • Post-course application plan

Frequently asked questions

You should have experience of organisational projects, operations, programmes, change or leadership responsibilities. No previous training in systems dynamics, complexity science, mathematics or coding is required.

Bring a current issue involving multiple teams, stakeholders, delays, risks or conflicting objectives if possible. This could be a service problem, transformation initiative, policy challenge or programme delivery concern.

The course is suited to managers and specialists who need to influence outcomes beyond their direct team or function. It is particularly relevant where repeated fixes have not resolved the underlying problem.

Project management focuses on planning, controls and delivery of defined work, while root-cause analysis often seeks a discrete cause. This course examines feedback loops, delays, incentives, system structures and uncertainty that create recurring patterns.

Participants leave with a Systemic Intervention Portfolio for a live or realistic issue. The portfolio provides a basis for stakeholder discussions, evidence gathering, intervention selection, experiment design and review meetings.

Training runs from 08:30 to 16:30 each day, providing about 6.5 contact hours daily. Time is divided between instructor input, case analysis, group modelling, decision simulations, feedback and application planning.

Questions about this course?

Ask about dates, fees, group bookings or running it for your team. Our training team replies by email.