How to build a sustainability course: a complete guide for lecturers

Central question: What does sustainability mean for a business when environmental and social systems create real constraints on strategy?

Begin by separating sustainability from philanthropy, compliance and ESG scoring. Students need a systems view in which the firm depends on ecological resources, social legitimacy and economic viability, and in which value creation can shift costs across time, geographies and stakeholder groups.

What this concept covers

• Sustainable development and intergenerational trade-offs.
• Strong and weak sustainability, systems thinking and rebound effects.
• Corporate impacts, dependencies, risks and opportunities.
• Planetary boundaries and the idea of a safe operating space.
• The distinction between sustainability outcomes and the metrics used to observe them.

Learning outcomes

• Differentiate sustainability, CSR and ESG as related but non-identical ideas.
• Map a business activity to environmental, social and economic dependencies.
• Identify system boundaries that materially change a sustainability conclusion.
• Explain why short-term financial optimisation can conflict with long-term resilience.

How to teach it

• Open with one product and draw its full value chain from resource extraction to end-of-life.
• Ask groups to redraw the same system using a company boundary, a value-chain boundary and a societal boundary.
• Use a short planetary-boundaries reading to connect firm decisions to biophysical limits.

Case-style example

Aster Homeware sells 500,000 kettles a year at £42 each. Its redesign cuts factory energy use by 20% but increases aluminium content by 90 g per unit and shortens expected product life from eight to six years. Students calculate annual material growth and discuss whether the redesign is more sustainable under a factory-only boundary or a lifecycle boundary. One team can defend the energy saving; another can reject it because of material use and replacement frequency. Students discover that the boundary determines the answer.

Where students struggle

Students often treat sustainability as a list of good outcomes. Push them to state the unit of analysis, time horizon and system boundary before making a claim.

Reading and a quick check

Assign Richardson et al. (2023) alongside the textbook opening chapter. Quick check: ask students to name one corporate decision that looks positive inside the firm but negative across the wider system.

Applied teaching activity

Use a case discussion, critique, modelling exercise or decision memo here rather than forcing a simulation before students have the necessary concepts.

Where it leads

This foundation allows students to decide which stakeholder claims and sustainability issues are material enough to enter the course decision model.

Central question: Which sustainability issues matter, to whom, and through which pathway do they become decision-relevant?

Materiality provides discipline. Rather than asking students to cover every social and environmental issue, teach them to distinguish effects on enterprise value from the firm's impacts on people and the environment, then explain how these perspectives can interact.

What this concept covers

• Stakeholder identification, salience and power.
• Financial materiality and impact materiality.
• Double materiality as a decision lens.
• Issue prioritisation, evidence thresholds and time horizons.
• Tensions between investor, employee, community, regulator, supplier and customer perspectives.

Learning outcomes

• Construct a stakeholder map for a sustainability decision.
• Prioritise issues using transparent materiality criteria.
• Distinguish impact materiality from financial materiality.
• Defend why an apparently important issue is or is not material to the decision.

How to teach it

• Give every group the same company but a different stakeholder briefing.
• Require a materiality matrix only after students define scoring criteria.
• Debrief how power can distort a materiality exercise if evidence and affected stakeholders are not separated.

Case-style example

Marlin Foods is choosing between two packaging systems. Option A costs £0.04 more per pack and reduces virgin plastic by 35%; Option B costs £0.01 more and is easier to recycle but relies on a supplier facing labour allegations. Students score five issues for financial and impact materiality on a 1-5 scale, then write a 120-word recommendation. Procurement can defend Option B on cost and infrastructure; a sustainability committee can prefer Option A while demanding supplier remediation. Students discover that materiality is a reasoning process, not a heat-map decoration.

Where students struggle

Students commonly confuse stakeholder visibility with materiality. A loud stakeholder can raise attention without proving the scale, likelihood or significance of an impact.

Reading and a quick check

Use the core textbook materiality and stakeholder chapters. Quick check: students must give one issue that is financially material but low-impact, and one impact that may become financially material later.

Applied teaching activity

Use a case discussion, critique, modelling exercise or decision memo here rather than forcing a simulation before students have the necessary concepts.

Where it leads

Once issues are prioritised, students can examine the scientific basis of environmental risk and the external forces that shape corporate options.

Central question: How should a company translate climate and nature science into decision-relevant risks, dependencies and transition choices?

This concept should keep science connected to management. Students do not need to become climate scientists, but they should distinguish physical risk from transition risk, understand scopes and value-chain exposure, and recognise that nature loss creates dependencies that are not captured by carbon alone.

What this concept covers

• Physical and transition climate risks.
• Scopes 1, 2 and 3 as accounting boundaries rather than measures of total sustainability.
• Mitigation, adaptation and resilience.
• Nature-related dependencies, impacts, risks and opportunities.
• Carbon budgets, planetary boundaries and limits of single-metric thinking.

Learning outcomes

• Classify climate risks by pathway and time horizon.
• Interpret basic emissions data without equating carbon with sustainability.
• Identify operational dependencies on water, land, ecosystems and climate stability.
• Recommend which risks require mitigation, adaptation or further evidence.

How to teach it

• Use a physical-risk map and a simplified emissions inventory.
• Ask students to distinguish a risk register from a transition plan.
• Make groups identify one risk that is measurable now and one dependency that remains uncertain.

Case-style example

Northshore Brewing emits 14,000 tCO2e from operations, buys electricity associated with 7,000 tCO2e and estimates 58,000 tCO2e across barley, packaging and logistics. A £6 million heat-recovery project would cut operational emissions by 30%, while a £4 million supplier programme could cut estimated value-chain emissions by 12% but with lower measurement confidence. Students compute the approximate reductions and recommend where to invest first. Both positions are defensible. Students discover that scale, controllability, confidence and strategic dependency must be considered together.

Where students struggle

Students often treat a carbon footprint as a complete impact assessment. Require them to identify the environmental issues that a carbon number omits.

Reading and a quick check

Assign the IPCC 2023 Synthesis Report summary and Richardson et al. (2023). Quick check: give three risks and ask students to label physical, transition, nature-related or mixed.

Applied teaching activity

Use a case discussion, critique, modelling exercise or decision memo here rather than forcing a simulation before students have the necessary concepts.

Where it leads

The next concept turns environmental constraints into business-model choices rather than leaving sustainability in the risk register.

Central question: How can a firm redesign the way it creates and captures value so that sustainability is built into the model rather than added as a programme?

Sustainability strategy becomes more credible when students can trace a change through customers, operations, revenues, costs and resource flows. Circular models are useful because they force explicit choices about durability, repair, reuse, remanufacturing and end-of-life economics.

What this concept covers

• Value proposition, value creation and value capture.
• Circular strategies: reduce, reuse, repair, refurbish, remanufacture and recycle.
• Product-service systems and ownership models.
• Lifecycle trade-offs and reverse logistics.
• Cannibalisation, pricing, customer adoption and unit economics.

Learning outcomes

• Diagnose where a business model creates avoidable waste or impact.
• Compare linear and circular value logic.
• Build a simple unit-economic case for a sustainability innovation.
• Identify conditions under which a circular model destroys rather than creates value.

How to teach it

• Use a business-model canvas with environmental and social flows added.
• Have students redesign one product for a second-life market.
• Require a unit-economics table before accepting claims that circularity is automatically profitable.

Case-style example

LoopTech leases industrial sensors for £1,200 a year. New units cost £520 to manufacture; recovered units can be refurbished for £180 and resold into the lease pool, but reverse logistics costs £65 and only 60% are currently returned. Students calculate the effective cost of a refurbished unit and model return rates of 60%, 75% and 90%. Sales can prefer new units to protect growth; operations can defend refurbishment for margin and material resilience. Students discover that circularity depends on recovery rates and operating design, not labels.

Where students struggle

Students may assume circular equals sustainable. Ask what energy, logistics, labour or material burdens might shift when loops are closed.

Reading and a quick check

Use the Decathlon circular business model case and the core textbook strategy chapters. Quick check: ask whether recycling is always preferable to reuse and require a one-sentence reason.

Applied teaching activity

Use a case discussion, critique, modelling exercise or decision memo here rather than forcing a simulation before students have the necessary concepts.

Where it leads

Business-model choices are constrained by political, economic, social, technological, legal and environmental conditions, which students analyse next.

Central question: Which external sustainability pressures are material enough to change a strategic decision?

Sustainability courses need a disciplined approach to the external environment because regulation, technology, social expectations and environmental constraints evolve together. Teach PESTLE as a prioritisation framework rather than a six-column list.

What this concept covers

• Political commitments, industrial policy and public incentives.
• Energy, commodity and carbon-price economics.
• Consumer and workforce expectations.
• Technology pathways and infrastructure readiness.
• Environmental limits and legal or reporting requirements.
• Scenario uncertainty and policy credibility.

Learning outcomes

• Apply all six PESTLE dimensions to a sustainability decision.
• Weight factors by materiality rather than treating them equally.
• Distinguish evidence from assumption and mandate-driven interpretation.
• Revise a recommendation when the external environment changes.

How to teach it

• Give paired teams the same evidence but opposing mandates.
• Require weights to total 100 so importance must be traded off.
• Introduce a mid-discussion policy or technology update and require a revised recommendation.

Case-style example

HelioFreight is considering a £45 million electric-truck depot. A grant could cover 18% of capex, electricity prices are volatile, customer tenders increasingly include emissions requirements and charging capacity may be delayed by 18 months. Students assign 100 weighting points across PESTLE factors, score each 1-10 and recommend invest, delay or reject. Growth teams can defend early entry; risk teams can defend delay. Students discover that environmental attractiveness does not remove political, infrastructure or economic execution risk.

Where students struggle

The most common failure is generic scanning. Students list trends without explaining which factor changes the decision or how much weight it deserves.

Reading and a quick check

Use a current jurisdiction-specific policy pack plus a short PESTLE briefing. Quick check: ask students which one factor they would remove from a weak PESTLE and why that omission would or would not change the answer.

Where a simulation fits

The PESTLE Analysis Simulation fits directly here. It requires Growth Strategy and Risk Management teams to score and weight all six factors, justify the evidence and negotiate a single market-entry recommendation.

Where it leads

Once students can prioritise external pressures, they need measures that connect sustainability objectives to operational performance.

Central question: Which indicators show meaningful sustainability performance, and which only create the appearance of precision?

Measurement is where sustainability courses can become either rigorous or misleading. Students should learn to distinguish outcomes, outputs, activities and ratings, and to ask what a metric covers, how it is calculated, who selected it and what behaviour it may incentivise.

What this concept covers

• Environmental, social and governance indicators.
• Absolute metrics, intensity metrics and denominators.
• Baselines, targets, boundaries and data quality.
• ESG ratings and why methodologies diverge.
• Leading versus lagging indicators and operational controllability.

Learning outcomes

• Select KPIs that match a material issue and decision.
• Explain how denominator choice changes an intensity metric.
• Critique ESG ratings without dismissing measurement altogether.
• Design a small dashboard that separates outcomes from activities.

How to teach it

• Give students three sustainability dashboards and ask which could hide deterioration.
• Have them recalculate an intensity metric under different production volumes.
• Use ESG rating divergence to teach scope, measurement and weighting choices.

Case-style example

Cedar Chemicals cuts emissions intensity from 0.82 to 0.67 tCO2e per tonne while production rises from 100,000 to 135,000 tonnes. Students calculate absolute emissions before and after, then compare the board claim that 'carbon performance improved by 18%'. Operations can defend the efficiency gain; an impact-focused investor can challenge the rise in absolute emissions. Students must rewrite the claim and propose one absolute and one intensity target. They discover that a favourable ratio can coexist with a worsening total outcome.

Where students struggle

Students often mistake the availability of a number for the quality of a measure. Make data provenance, boundary and denominator part of every metric discussion.

Reading and a quick check

Assign Berg, Kölbel and Rigobon (2022). Quick check: ask for two reasons why two ESG rating agencies can score the same firm differently without either making a simple arithmetic error.

Where a simulation fits

The ESG Simulation can reinforce this concept once students can interpret financial, environmental and workforce indicators. The platform lets stakeholder teams test how connected operating choices change outcomes before negotiation.

Where it leads

Metrics become useful only when they support strategy, targets and a transition path, which is the next concept.

Central question: How should an organisation convert sustainability ambition into a credible sequence of choices, investments, targets and accountability?

A strong course should move from diagnosis to strategy. Students need to connect material issues to strategic objectives, choose measurable targets, specify initiatives, identify owners and funding, and build transition assumptions that can be challenged.

What this concept covers

• Strategic ambition, material priorities and theory of change.
• Targets, baselines, milestones and time horizons.
• Transition plans and capital allocation.
• Scenario analysis and dependencies.
• Strategic trade-offs between pace, cost, feasibility and stakeholder expectations.

Learning outcomes

• Translate material issues into strategic priorities.
• Draft targets with a clear baseline, scope and deadline.
• Build a transition roadmap with owners, resources and milestones.
• Stress-test a sustainability strategy against operational and financial constraints.

How to teach it

• Require every strategy slide to contain a decision, metric, owner and deadline.
• Run a challenge panel where each group attacks another group's weakest dependency.
• Ask what would have to be true for the plan to remain credible under a downside scenario.

Case-style example

Valeo Textiles wants to cut operational emissions 50% by 2030 from a 2025 baseline of 40,000 tCO2e while maintaining EBITDA above £24 million. A boiler conversion costs £8 million and cuts 9,000 tCO2e; renewable power adds £1.2 million annual cost and cuts 7,500 tCO2e; process redesign costs £3 million and saves £900,000 annually while cutting 4,500 tCO2e. Students sequence investments and identify the remaining gap. Finance can prioritise payback; sustainability can prioritise target credibility. Students discover that a target is not a transition plan.

Where students struggle

Students write ambition statements when the task is to design strategy. Ask repeatedly: what changes, who owns it, what does it cost and how will we know?

Reading and a quick check

Use the core textbook strategy chapters and Cool, Atasu and Furr (2024). Quick check: convert a vague 'be net zero' statement into a target with scope, baseline, deadline and interim milestone.

Where a simulation fits

The ESG Simulation fits after this concept because teams must turn role-specific objectives into a negotiated operating package that remains financially viable, rather than agree on a generic sustainability aspiration.

Where it leads

Once a strategy exists, students must decide what evidence should be disclosed and how to distinguish credible reporting from greenwashing.

Central question: What should a company disclose so that users can judge sustainability performance without being misled by selective or weakly supported claims?

Reporting should be taught as an information-design problem, not a formatting exercise. Students need to understand investor-oriented sustainability disclosure, broader impact reporting, governance over data, assurance and the incentives behind selective narrative.

What this concept covers

• Purpose and audiences of sustainability reporting.
• ISSB IFRS S1 and S2 as global investor-focused baseline standards.
• Nature-related disclosure and the TNFD recommendations.
• Controls, data governance and assurance readiness.
• Greenwashing, omission, cherry-picking and claim substantiation.

Learning outcomes

• Identify the decision-useful elements of a sustainability disclosure.
• Separate claims, metrics, assumptions and forward-looking plans.
• Evaluate whether a public claim is supported by its underlying data.
• Recommend controls or assurance steps for a material disclosure.

How to teach it

• Give students a glossy sustainability claim beside the underlying data table.
• Ask them to mark unsupported, incomplete and decision-useful statements.
• Require a rewritten disclosure that includes boundary, baseline and uncertainty.

Case-style example

Orion Apparel advertises '40% less carbon per garment' after shifting production to a higher-volume plant. Unit emissions fall from 5.0 to 3.0 kgCO2e, but annual volume rises from 2 million to 4 million garments and reported boundary excludes outsourced dyeing estimated at 2.5 kg per garment. Students calculate reported absolute emissions, identify the missing boundary and rewrite the claim. Marketing can defend the verified intensity claim; assurance teams can reject it as incomplete. Students discover how technically correct wording can still mislead.

Where students struggle

Students often treat disclosure standards as checklists and greenwashing as outright lying. The harder cases involve true data framed in ways that omit material context.

Reading and a quick check

Assign IFRS S1 and S2 (2023) extracts plus the TNFD Recommendations (2023). Quick check: ask which element of a claim would need independent evidence before publication.

Where a simulation fits

Corporate Governance can support a later extension of this concept by making disclosure, oversight and executive accountability part of a conflict-of-interest decision.

Where it leads

Credible reporting requires governance that can handle disagreement over priorities, incentives and accountability.

Central question: Who has authority to make sustainability decisions, who bears the consequences, and how should conflicts be governed?

This concept makes governance operational. Boards and executives must decide which sustainability issues enter strategy, how incentives are set, what is escalated and how competing stakeholder interests are reconciled without pretending all interests can be maximised simultaneously.

What this concept covers

• Board oversight and executive accountability.
• Fiduciary duties, conflicts of interest and disclosure.
• Stakeholder governance and decision rights.
• Executive incentives and sustainability metrics.
• Escalation, challenge, controls and policy ownership.

Learning outcomes

• Map decision rights for a material sustainability issue.
• Evaluate whether incentives support or distort sustainability outcomes.
• Diagnose a governance failure behind an environmental or social controversy.
• Defend a stakeholder trade-off with explicit decision criteria.

How to teach it

• Run a board agenda exercise with too many sustainability issues and force prioritisation.
• Give different roles confidential incentives to surface agency problems.
• Ask students to distinguish consultation from decision authority.

Case-style example

Meridian Data Centres can sign a renewable-power contract that adds £2.4 million annual cost but reduces market-based electricity emissions by 70%. The CEO's bonus is linked 60% to EBITDA, while the board has announced a 2030 climate target. A major client threatens to shift contracts without credible progress. Students redesign the incentive scorecard and recommend approve, renegotiate or delay. Finance and client-retention cases can support different weightings. Students discover that governance design determines which trade-offs executives actually make.

Where students struggle

Students can turn stakeholder analysis into a wish list. Require them to name the decision-maker, the constraint, the conflict and the mechanism for accountability.

Reading and a quick check

Use the Ørsted people-positive case or a governance chapter. Quick check: ask what information the board needs that management might prefer not to surface.

Where a simulation fits

The ESG Simulation is the strongest applied fit because Management, Investor, Regulator and Union teams must negotiate one package and unanimously approve it. Corporate Governance is a complementary fit where board oversight, executive accountability and conflict management are the teaching focus.

Where it leads

Governance then has to reach into operations and supply chains, where many sustainability impacts actually occur.

Central question: How should a company improve sustainability across operations and suppliers when impacts sit outside direct managerial control?

This concept brings sustainability into procurement, production, logistics and people decisions. Students should work with traceability limits, supplier incentives, labour conditions, resilience and operational trade-offs rather than assume a supplier code of conduct is sufficient.

What this concept covers

• Scope 3 and value-chain responsibility.
• Supplier segmentation, traceability and due diligence.
• Energy, water, waste, logistics and production efficiency.
• Human rights, labour conditions, wages, safety and just transition.
• Resilience, localisation and cost trade-offs.

Learning outcomes

• Identify sustainability hotspots across a value chain.
• Prioritise suppliers for engagement or due diligence.
• Design an intervention with operational KPIs and escalation rules.
• Evaluate social and environmental trade-offs in a transition decision.

How to teach it

• Map one product from tier-one supplier to raw material and customer use.
• Ask students to design a supplier scorecard with no more than five indicators.
• Introduce a supply disruption to test whether the sustainability plan is resilient.

Case-style example

Arden Foods buys cocoa from 220 farms through three intermediaries. Full traceability costs £1.1 million a year; a targeted programme covering the highest-risk 35% of volume costs £420,000. A living-income premium on that volume adds £0.06 per retail bar and could improve supplier stability, but procurement forecasts a 3% volume loss if the price is passed through. Students choose coverage, funding and KPIs. Procurement can defend targeting; human-rights teams can demand wider coverage. Students discover that social sustainability requires explicit risk-based choices.

Where students struggle

Students often equate supplier policy with supplier performance. Ask what evidence would show the intervention changed conditions on the ground.

Reading and a quick check

Use the core textbook chapters on labour, supply chains and partnerships. Quick check: identify one metric that could improve while worker outcomes deteriorate.

Where a simulation fits

The ESG Simulation can reinforce workforce and production trade-offs through wages, workforce numbers, environmental controls and financial viability.

Where it leads

Operational initiatives require funding and a credible business case, leading to sustainable finance and capital allocation.

Central question: How should managers and investors evaluate sustainability investments when cash flows, externalities, risk and strategic option value do not fit a simple payback calculation?

Sustainability investment appraisal should neither assume every project pays nor reduce all value to immediate cash flow. Students can combine capital-budgeting logic with carbon exposure, risk reduction, customer demand, financing conditions and non-financial outcomes.

What this concept covers

• Business case for sustainability: cost, revenue, risk and option-value channels.
• Carbon exposure and climate-related financial risk.
• Cost of capital, investor demand and disclosure.
• Internal carbon prices and shadow values.
• Limits of monetising social and environmental outcomes.

Learning outcomes

• Build a multi-driver business case for a sustainability investment.
• Separate cash-flow effects from risk and impact evidence.
• Interpret carbon risk without assuming causality from a single correlation.
• Defend an investment recommendation under alternative price and policy scenarios.

How to teach it

• Give students one project with weak payback but material strategic risk reduction.
• Require a base case and a policy-stress case.
• Ask what evidence would justify including an option value that cannot be precisely monetised.

Case-style example

Kilburn Logistics is considering a £12 million fleet retrofit that saves £1.6 million fuel annually for six years, requires £1.5 million maintenance in year four and reduces direct emissions by 9,500 tCO2e a year. A major client may award a £4 million annual contract only if the project proceeds. Students compare the cash-flow case with and without the contract and add a carbon-price scenario at £80/tCO2e. Finance can reject the project on conservative assumptions; strategy can approve for commercial option value. Students discover why assumptions must be separated from impacts.

Where students struggle

Students either ignore non-financial value or double count it. Make them label every benefit as cash flow, risk reduction, strategic option or impact.

Reading and a quick check

Assign Bolton and Kacperczyk (2021) and Ilhan et al. (2023). Quick check: ask whether a higher carbon price changes enterprise value, environmental impact, or both, and through what mechanism.

Where a simulation fits

The ESG Simulation fits because additional investment, ESG expenditure, production and financial outcomes must be negotiated together rather than treated as separate sustainability and finance decisions.

Where it leads

The final concept integrates strategy, governance, operations, finance and reporting into implementation under uncertainty.

Central question: How can a sustainability plan survive implementation when incentives, data, budgets, operations and stakeholder expectations conflict?

The final concept is deliberately integrative. Students should move beyond writing recommendations to sequencing action, assigning ownership, defining evidence, anticipating resistance and adapting the plan when assumptions change.

What this concept covers

• Implementation roadmaps, workstreams and decision gates.
• Change leadership, incentives and organisational capability.
• Cross-functional ownership and governance cadence.
• Performance review, learning loops and corrective action.
• Integrated decision-making under uncertainty and stakeholder conflict.

Learning outcomes

• Translate a sustainability recommendation into an implementation plan.
• Assign owners, resources, KPIs and escalation triggers.
• Design a review cadence that distinguishes progress from activity.
• Defend a final sustainability decision under challenge from multiple stakeholders.

How to teach it

• Use a capstone briefing with incomplete data and competing stakeholder objectives.
• Require a 90-day action plan plus a three-year transition path.
• End with oral defence rather than only a polished written report.

Case-style example

Stonebridge Hotels has approved a three-year £18 million sustainability programme covering heat pumps, food waste, supplier standards and staff retention. After six months, energy capex is 12% over budget, food waste is down 22%, employee turnover is unchanged and two priority suppliers refuse new audit terms. Students choose which actions to accelerate, pause or redesign, allocate the remaining £13.4 million and write three escalation triggers for the board. Different portfolios are defensible. Students discover that implementation is repeated allocation and governance, not delivery against a static plan.

Where students struggle

Students often produce roadmaps with no decision gates. Ask what evidence would cause them to stop, accelerate or change an initiative.

Reading and a quick check

Revisit the eight assigned readings as an evidence pack. Quick check: students identify one assumption from their capstone recommendation that is most likely to fail and specify the trigger for revision.

Where a simulation fits

The ESG Simulation is an effective capstone because it forces financial, environmental, workforce and governance choices into one negotiated agreement. PESTLE Analysis or Corporate Governance can be used as earlier supporting applications where external environment or oversight is the learning priority.

Where it leads

Students should now be able to move from systems diagnosis to materiality, strategy, implementation, disclosure and defensible trade-off decisions.

10-week course structure

Compress by combining foundations with materiality, climate with external environment, and operations with implementation. Keep strategy, reporting, governance and a defended capstone so the course remains decision-led.

14-week course structure

Use the extra time to separate climate from nature, add a dedicated simulation debrief, deepen reporting and governance, and give students more time to test their transition economics before the capstone.

The ESG Simulation is a 2-4-hour team-based activity in which students represent Management, Investor, Regulator and Union stakeholders responding to one company sustainability challenge. They analyse role-specific evidence, model connected financial and operational choices, negotiate environmental and workforce terms, contribute to an ESG Policy Statement and must secure a shared agreement while keeping the company financially viable.

Why it fits here

Place it after students have studied ESG measures and transition strategy. At this point they can recognise that sustainability decisions alter production, funding, workforce outcomes and financial performance, so the negotiation tests judgement rather than vocabulary.

What students do

• Review a role-specific mission, case evidence, reports, letters, financial data and Data Room materials.
• Work first within Management, Investor, Regulator or Union teams to identify priorities and an opening position.
• Use the modelling area to test terms involving production, ESG expenditure, additional investment, compensation, wages, workforce numbers and environmental controls.
• Negotiate a complete package across all four stakeholder teams and develop the shared ESG Policy Statement.
• Check that the agreed package keeps EBITDA above the case requirement of $20 million and then approve or reject the complete agreement.
• Review final terms, financial, environmental and workforce outcomes, and same-role comparisons during Reflection; failed groups can also discuss the Blaming Poll.

Recommended course placement

• End of Session 7 after transition-strategy teaching.
• Across Sessions 7 and 9 if preparation and debrief are separated.
• Before a board paper or individual defence so students convert the negotiation into assessable reasoning.

Knowledge students should have before the simulation

• Basic ESG and sustainability concepts.
• Ability to interpret simple financial and operating information.
• Stakeholder and materiality logic.
• Understanding that environmental, social and governance outcomes can conflict with short-term financial objectives.

Suggested debrief questions

• Which term created the hardest sustainability-finance trade-off?
• Which evidence changed another stakeholder's position?
• Did a team optimise its role at the expense of the collective outcome?
• Which negotiated term would be hardest to implement in the real organisation?
• What should be disclosed to the board or investors after the agreement?
• What individual argument would you defend differently after seeing the final results?

The PESTLE Analysis Simulation is a two-hour role-based activity built around a live market-entry decision. Growth Strategy and Risk Management teams work from the same core evidence, score every political, economic, social, technological, legal and environmental factor, allocate weights that total 100, write a rationale for each judgement, then negotiate factor by factor before committing to enter, delay or not enter.

Why it fits here

Use it after students have learned PESTLE and before strategy is locked. The simulation turns external scanning into a materiality and evidence exercise because increasing one factor's weight forces students to reduce another and the opposing team is briefed to challenge the conclusion.

What students do

• Receive the same Tesla/Gigafactory India market-entry decision and common market briefing, plus mandate-specific material.
• Work within Growth Strategy or Risk Management teams and analyse all six PESTLE dimensions.
• Set a score from 1 to 10 for each factor, allocate factor weights that sum to 100 and record a written rationale.
• Meet in a paired Approval Committee, compare opening scores side by side and negotiate each factor until a shared assessment is reached.
• Respond to live developments that test whether the agreed analysis still holds.
• Commit to enter, delay or do not enter, then compare weighting patterns and recommendations across the cohort.

Recommended course placement

• At the end of Session 5 after PESTLE and sustainability policy teaching.
• Inside a two-hour class with a short pre-read and debrief.
• Split across two classes if the lecturer wants independent analysis before the committee negotiation.

Knowledge students should have before the simulation

• Purpose of PESTLE and the six factors.
• Difference between evidence, interpretation and assumption.
• Basic idea of materiality and weighted prioritisation.

Suggested debrief questions

• Which factor received the largest weight and why?
• Where did Growth Strategy and Risk Management interpret the same evidence differently?
• Which live development should have changed the recommendation most?
• Did the final weighted score and final recommendation tell the same story?
• Which evidence would you update before using the analysis in a real investment decision?

Grading with the ESG Simulation

Students analyse and negotiate connected environmental, workforce, funding and financial terms across Management, Investor, Regulator and Union roles. The platform evidence is most useful when combined with a short individual defence.

• Role-specific use of evidence and quality of the opening position.
• Consistency between proposed ESG terms and financial or operational consequences.
• Quality of concessions and whether the final package is internally coherent.
• Ability to explain why the agreement, or failure to agree, reflects stakeholder incentives.
• Individual post-simulation reflection or oral defence.

Grading with the PESTLE Analysis Simulation

Growth Strategy and Risk Management teams score and weight all six PESTLE factors, justify each judgement and negotiate a shared market-entry view. There is no prescribed answer, so grade the reasoning rather than distance from a target score.

• Evidence behind each factor score and weight.
• Materiality and prioritisation, including whether weights total 100 coherently.
• Consistency between the negotiated factor assessment and final enter, delay or do-not-enter recommendation.
• Ability to revise a position when live developments change the evidence.
• Individual reflection on mandate bias and the strongest opposing argument.

Grading with the Corporate Governance Simulation

Students work through a conflict-of-interest boardroom case involving CEO, CTO, Chief Compliance Officer and Shareholder perspectives. Use it only where governance is part of the Sustainability learning outcomes.

• Identification of the governance conflict and relevant accountability duties.
• Quality of proposed disclosure, restrictions, divestment or safeguards.
• Ability to connect sustainability or stakeholder commitments to board oversight rather than public statements alone.
• Reasoning behind the final consensus and future governance controls.
• Individual defence of one governance trade-off.

Platform evidence limit: The platform records what each team decided, the terms they agreed and comparative outcomes across groups. That evidence supports your academic judgement; it does not replace it, and it does not establish which individual student made which argument.