Environment · Climate Change Report

Risk Management

We manage climate-related risks through a robust and well structured ERM framework, designed to address sustainability challenges in an integrated and consistent manner across the organisation.

  • The framework ensures systematic identification, evaluation and monitoring of climate risks, guided by a combination of top down strategic oversight and bottom up functional risk inputs. This approach helps minimise blind spots, and enables comprehensive coverage of both operational and strategic vulnerabilities
  • Climate-related early warning indicators, mitigation measures, and emerging risk signals are periodically reviewed by the Board’s Risk Management Committee (RMC), which oversees risk governance in alignment with our ESG priorities

Our risk management approach is aligned with international climate risk disclosure frameworks. We have progressively strengthened our climate risk assessment capabilities by integrating TCFD aligned principles – covering governance, strategy, risk management, and metrics & targets – into our business processes. This includes assessment of physical climate risks, such as extreme weather events, coastal vulnerabilities, flooding, and temperature impacts on port infrastructure, as well as transition risks arising from evolving climate policy, carbon markets, stakeholder expectations, and emerging low carbon technologies.

Our climate risk assessment framework demonstrates a high degree of methodological rigour and strategic integration. It employs a comprehensive, multi-dimensional approach to identifying and evaluating both:

Physical climate risks, including acute events such as cyclones, floods, and storm surges, as well as chronic risks such as sea level rise, long-term temperature increase, and water stress
Transition risks, spanning current and emerging regulatory, technological, market, legal, and reputational dimensions

These risks are assessed across short, medium, and long-term time horizons, ensuring that both immediate operational vulnerabilities and longer-term strategic challenges associated with climate change are systematically captured and addressed.

Integrated Approach to Risk Management

Climate-related risks and opportunities are fully integrated into the company’s centralised ERM framework, ensuring alignment with broader organisational risk governance processes. Importantly, this assessment extends across our full business value chain, covering our own operations, upstream activities (including key suppliers and raw material dependencies), and downstream activities (including product use, distribution, and end-of-life considerations). This approach enables a holistic understanding of climate impacts and resilience requirements.

The various well-defined risk management systems at APSEZ have cumulatively enabled us to adopt a structured, forward-looking, and globally-benchmarked approach to climate risk management across our ports, logistics assets, and industrial clusters. This ensures operational resilience while supporting our long-term Net Zero 2040 ambition.

We have strategically embedded key indicators such as climatic hazards, water and energy use, emissions, and potential regulatory costs within our ERM system, enabling targeted mitigation measures and informed decision-making. To support implementation, we have introduced a Board-approved dedicated climate budget and refined financial cost estimates, translating risk insights into a focussed investment roadmap for low carbon technologies, renewable energy, and green port development. Climate risk mitigation actions are monitored annually and updated based on changes in hazard data, regulatory outlook, and operational experience.

Physical Climate Risks to Assets and Infrastructure

We have conducted a comprehensive physical climate risk assessment across our entire portfolio of operational ports and terminals. Within India, this includes four ports in Gujarat; three ports/terminals in Tamil Nadu; two each in Andhra Pradesh and Odisha; and one each in Goa, Kerala, and Maharashtra. Internationally, the assessment covers three ports located in Haifa (Israel), Dar es Salaam (Tanzania), and Colombo in Sri Lanka’s Western Province. To evaluate both acute and chronic physical climate risks across this geographically diverse portfolio, we applied a scenario-based approach aligned with the Coupled Model Intercomparison Project Phase 6 (CMIP6).

Climate Scenario Analysis

The company conducted a climate scenario analysis across all operational ports and terminals, including international assets, in line with IPCC guidance and global best practices. Using a CMIP6-based climate hazard database, physical risks were assessed under SSP1/RCP2.6, SSP2/RCP4.5, and SSP5/RCP8.5 scenarios. The transition risks were evaluated using IEA-aligned STEPS and NZE 2050 scenarios across multiple timeframes. The assessment leveraged datasets from NASA, the World Bank Open Database License (ODbl), and WRI Aqueduct 4.0 to identify asset-level vulnerabilities, adaptation needs, and resilience priorities.

SSP1/RCP2.6

(low emissions Below 2° scenario)

SSP2/RCP4.5

(intermediate emissions Above 2°C Scenario – ~2.0–2.7°C)

SSP5/RCP8.5

(high emissions Far Above 2°C Scenario – >4°C)

Climate impacts were analysed across three temporal horizons – 2030 (near term), 2050 (mid term), and 2100 (long term), consistent with IPCC guidance. This has aided the company in the identification of location-specific vulnerabilities and resilience requirements.

Role

Employees
Business Units Manager
CEO

Incentive Plan

MADHYAM innovation programme, Spot recognition, technical project awards
ESG scorecards at divisional & site level
Variable pay tied to ESG and financial KPIs

Climate-Related KPIs

Emissions reduction, energy savings, water use efficiency, renewable initiatives
Site-specific emissions, energy intensity, performance against ESG benchmarks
GHG and water intensity, energy efficiency, zero waste, afforestation progress
10% of pay linked to ESG and organisational performance
Use of global CMIP6 climate hazard layers at a 50-km spatial resolution
Average cargo value per tonne derived from aggregate cargo volumes and revenues across all cargo categories
Estimation of cyclone-related physical damage using wind-, speed- and region-specific damage functions
Assessment of flood-related damage based on flood depth and frequency using comparable damage functions
Cyclonic risk classification based on wind speed; operational differentiation by wind thresholds was not applied, with post-cyclone downtime and TAT estimated using historical averages

Port-specific Climatic Risk Adaptation Strategy

Notwithstanding the critical role played by them in global trade and economic development, ports are increasingly vulnerable to the impacts of climate change. Rising sea levels, extreme weather events, prolonged heatwaves, and water scarcity pose significant risks to port infrastructure, operations, and surrounding communities. This makes it imperative to adopt a defined climate risk adaptation strategy for ports to ensure long-term resilience and continuity.

At an introductory level, such a strategy involves identifying key climate-related threats, assessing their potential impact, and implementing measures to reduce vulnerability. This may include strengthening physical infrastructure, improving water and energy efficiency, enhancing emergency preparedness, and integrating climate considerations into future planning and investment decisions. By adopting a proactive and flexible approach, ports can better manage climate risks, protect asset value, and maintain their vital role in the global supply chain.

The port-specific detailed economic impact and corresponding adaptation strategy based on the most severe climatic hazards has been shown below:

PortsMitigation & Adaptation Plan
Short-termMedium-termLong-term
Mundra
  • Conduct annual vulnerability and flood risk assessments aligned with asset and infrastructure changes
  • Instal temporary flood barriers and mobile pumps
  • Implement early warning systems and evacuation protocols
  • Update operations manuals for extreme weather events
  • Train staff and conduct cyclone/flood emergency drills
  • Audit critical infrastructure for climate vulnerabilities
  • Regularly test cyclone response protocols
  • Review insurance coverage for climate-related disruptions
  • Retrofit key assets for flood resilience
  • Embed climate risk in asset management and investment planning
  • Diversify supply chains to reduce terminal dependency
  • Expand insurance and risk transfer tied to climate scenarios
  • Integrate cyclone risk in port planning and emergency systems
  • Institutionalise heatwave protocols, training, and health checks
  • Upgrade HVAC and use heat-resilient building materials
  • Deploy IoT-based temperature monitoring and climate dashboards
  • Create heat buffer zones with greenery and reflective surfaces
  • Update labour codes for heat exposure; collaborate on localised heat research
  • Use predictive digital water systems and redesign port layouts for sea level rise
  • Invest in nature-based solutions (mangroves, wetlands) for surge buffering
  • Partner with governments on coastal resilience and managed retreat plans
  • Institutionalise climate scenario modelling and continuous monitoring
  • Build multi-hub logistics to reduce site dependency
  • Align maritime policies with climate-resilient development
  • Integrate health and heat adaptation in resilience planning
  • Scale remote operations and retrofit terminals for heat resilience
  • Promote passive cooling in buildings and support innovation in adaptive port design
Tuna
  • Develop site-specific emergency plans (e.g., crane shutdowns in high wind)
  • Instal early warning systems linked to IMD/NOAA for surge and rainfall
  • Rainproof fertiliser storage to prevent leaching
  • Elevate and seal substations and critical equipment
  • Use modular flood barriers around bulk cargo zones
  • Upgrade drainage near coal yards to prevent runoff and flooding
  • Implement heat protocols: rescheduling, hydration, shade, PPE
  • Explore parametric insurance for cyclone and rainfall events
  • Elevate and reinforce jetties, conveyors, and roads for 100-year surge + SLR
  • Build climate-resilient cargo sheds
  • Use permeable pavements and rain gardens for runoff control
  • Explore low-emission equipment with climate subsidies
  • Deploy digital twins to simulate climate impacts
  • Assess relocating key assets from high-risk erosion/inundation zones
  • Build climate-resilient, flexible-use berths for shifting cargo trends
  • Repurpose coal yards for green cargo amid energy transition
  • Restore mangroves and wetlands for natural flood defences
  • Establish eco-buffers around fertiliser zones to curb runoff
Dahej
  • Deploy portable flood barriers at tank bunds and fertiliser warehouses
  • Integrate real-time cyclone alerts with automated response triggers
  • Set up cooling zones and shaded shelters for field teams in extreme heat
  • Run safety drills for combined chemical leak and flood scenarios
  • Elevate berths, pipe racks, and access roads by 1.0-1.5m above Highest Astronomical Tide (HAT) + Sea Level Rise (SLR)
  • Use marine-grade SS/FRP to replace corrosion-prone components
  • Retrofit firewater systems for flood-resilient operation
  • Redesign drainage with high-capacity pumps and anti-backflow valves; instal oil-water separators and neutralisation pits in spill-prone zones
  • Deploy IoT sensors for micro-weather and soil salinity monitoring
  • Redesign jetties and breakwaters using sediment and SLR models
  • Restore mangroves and saline grasslands with GMB/local govt. for surge buffering
  • Add bio-swales and green berms for runoff filtration and soil stability
  • Instal climate-triggered remote shut-off valves at liquid manifolds
  • Design tank farms to handle low-carbon fuels like bioethanol and green methanol
Hazira
  • Elevate critical facilities above 100-year surge + buffer
  • Conduct CRZ audit and restore mangroves per NGT mandates
  • Design automation with flood/heat-resistant systems and manual fallback
  • Align CSR with climate adaptation – support nurseries, eco-tourism, and resilient livelihoods
  • Build reinforced coastal defences, mangrove belts, and wetland buffers
  • Use digital twins for flood simulation and response planning
  • Develop on-site blue-green infrastructure for stormwater management
  • Set up community cyclone alerts, training, and climate awareness programmes
  • Establish amphibious evacuation and resilient inland links (e.g., Ghogha–Dahej)
  • Design terminals for flood-tolerant, modular recovery
Dighi
  • Instal real-time surge sensors and automated weather alerts
  • Build modular floodwalls around chemical zones, generators, and control rooms
  • Develop cyclone SOPs for vessel berthing, tank shutdowns, and evacuation
  • Add auto shut-off valves and leak detection in saltwater-exposed pipe racks
  • Cover manifolds with spill shelters to prevent chemical runoff
  • Use covered conveyors, silos, and dust cannons in dry bulk zones
  • Elevate reefer plugs, waterproof ECR panels, and anchor containers for wind resilience
  • Elevate jetties, roads (+1.5m) and tank bunds for 1-in-100-year flood + SLR
  • Retrofit berths with corrosion-resistant materials and wave-resilient mooring
  • Build stormwater network with detention basins and hydrocarbon interceptors
  • Use GIS hazard zoning to separate high-risk and water-sensitive assets
  • Set back chemical/oil storage 100–150m from high tide line
  • Convert shoreline bulk yards to container storage
  • Create green buffers with salt-tolerant plants and mangroves
  • Add artificial wetlands for runoff treatment and flood control
Mormugao
  • Upgrade drainage and detention systems for monsoon runoff
  • Use permeable pavements and bioswales to reduce flooding
  • Elevate critical assets; hold annual cyclone drills
  • Assess heat stress; instal shade and misting in high-workload zones
  • Upgrade control rooms with climate-proof cooling and power backup
  • Create failover protocols for automation and logistics
  • Use topographic mapping and hazard models for elevation planning
  • Instal reflective/green roofs and vegetation to lower temperatures
  • Use smart scheduling for heat-sensitive tasks (e.g., night shifts)
  • Reinforce quay edges and revetments against erosion
  • Expand mangrove afforestation and coastal stabilisation
  • Strengthen breakwaters and restore nearby mangroves for surge protection
  • Implement rainwater harvesting and underground storage
  • Use smart water-level sensors for real-time flood monitoring
  • Apply digital twins for cyclone planning and evacuation optimisation
  • Instal modular, reconfigurable infrastructure for rapid recovery
  • Ensure alternate inland logistics routes for backup
  • Build submerged-proof docks and overflow-resistant terminals
  • Repurpose dredge material for erosion buffers and carbon sinks
  • Expand blue-green infrastructure for flood resilience and ecosystems
Vizhinjam
  • Instal smart metering and reuse systems in terminal plumbing
  • Elevate critical assets above 100-year surge + safety margin
  • Design new infrastructure for +1m SLR and surge
  • Upgrade automation hubs with heat insulation, cooling, and UPS
  • Use digital twins and upgraded ICT for resilient operations
  • Instal greywater plants for reuse; partner with Kerala Water Authority for municipal integration
  • Retrofit quay edges with seepage-resistant revetments
  • Expand mangrove afforestation for erosion control
  • Add reflective roofs, solar canopies, and green-blue façades
  • Automate daytime tasks and shift manual work to cooler hours
  • Achieve >90% water reuse for self-sufficiency
  • Apply internal water pricing in CAPEX planning
  • Shift to AI-driven, climate-controlled automation zones
Karaikal
  • Integrate real-time cyclone alerts via IMD Bay of Bengal feeds
  • Stock modular flood barriers for low-lying zones
  • Apply anti-corrosion coatings in drainage areas
  • Use rain shelters and tarpaulin tunnels for bulk cargo during monsoons
  • Cover fertiliser piles or use hygroscopic barriers
  • Add chemical-resistant bunds and saltwater-tolerant seals in liquid cargo zones
  • Secure wind-sensitive break bulk cargo with cyclone-ready anchoring systems
  • Elevate berths and access ramps by 1.2-1.5m above Mean Sea Level (MSL) + SLR
  • Replace open yards with silos for cement and fertiliser
  • Automate dust suppression in coal and limestone areas
  • Floodproof reefer plug-ins and substations with raised MCC panels
  • Designate climate buffer zones with zoning overlays (e.g., restrict liquid cargo near residential areas)
  • Build wetlands to treat stormwater, especially fertiliser runoff
  • Coordinate with CRZ and TN Disaster Management for shared alerts and flood-resilient access routes
Kattupalli and Ennore Terminal
  • Implement rainwater harvesting and greywater reuse with smart metering
  • Elevate control rooms and substations above surge levels
  • Run annual cyclone drills with automation fallback protocols
  • Use coastal Light Detection and Ranging (LiDAR) to update elevation standards through 2100
  • Set up central greywater treatment for reuse in ops and landscaping
  • Partner with Chennai Metrowater to supply reclaimed water and ease Minjur desal load
  • Reinforce shorelines and restore mangroves along Ennore and Pulicat as natural buffers
  • Use digital twin surge simulations for cyclone response planning
  • Retrofit quay edges with soft-engineering solutions and expand mangrove cover
  • Run closed-loop water systems with >90% reuse for autonomous ops
  • Apply internal water scarcity pricing to drive efficiency
  • Use modular infrastructure for rapid post-event reconfiguration
  • Ensure inland rail/road connectivity for supply chain continuity
  • Instal floating/hydraulic docks adaptable to sea-level changes
Krishnapatnam
  • Pilot renewable-powered desalination
  • Expand rainwater harvesting and smart metering
  • Elevate critical infrastructure above 100-year surge levels
  • Conduct annual drills with disaster agencies, including automation failover
  • Use LiDAR and hazard models to guide elevation standards
  • Add shaded zones and evaporative cooling in manual areas
  • Upgrade control hubs with insulated cooling and power backup plans
  • Instal greywater reuse systems for yard wetting, dust control, and landscaping
  • Partner with local authorities for water reuse in municipal systems
  • Reinforce quay walls, breakwaters, and vegetative buffers
  • Use digital twins for storm simulation and response planning
  • Retrofit quay edges with erosion-resistant revetments
  • Restore wetlands and mangroves to stabilise shorelines
  • Expand solar canopies and reflective/green roofs to cut heat
  • Shift intense manual tasks to cooler night hours
  • Target >90% water self-sufficiency via reuse and desalination
  • Factor water-scarcity risk into CAPEX for efficiency
  • Use modular, mobile infrastructure for quick cyclone recovery
  • Instal floating/hydraulic docks adaptable to sea-level changes
  • Shift to AI-driven, climate-controlled autonomous cargo zones
Gangavaram
  • Integrate IMD/INCOIS data with real-time alerts in control centres
  • Elevate and waterproof key electrical and conveyor rooms near berths
  • Instal wind barriers and runoff channels for coal/bulk minerals
  • Use rainproof loaders and dehumidified sheds for fertilisers and limestone
  • Elevate jetties, mooring platforms, rail platforms, and conveyors by ≥1.0m
  • Retrofit berths with FRP or marine-grade SS to resist corrosion
  • Instal retention ponds and interceptors for fertiliser and coal runoff
  • Zone hazardous cargo away from critical assets like IT centres and workshops
  • Upgrade breakwaters using wave run-up models and cyclone projections
  • Create bioswales and wetlands for surge absorption and filtration
  • Reinforce dunes or build berms along vulnerable coastlines
Dhamra
  • Elevate critical infrastructure above +7m surge levels
  • Align storm and traffic protocols with NDMA and state systems
  • Hold annual multi-agency drills using peer port models
  • Restore mangroves near Kanika and Gahirmatha for natural buffering
  • Engage coastal communities and fishers through seasonal forums
  • Build climate-resilient quay walls, breakwaters, and buffer wetlands
  • Use digital twins for weather simulations and cargo rerouting
  • Set up early warning systems with community alerts and climate literacy
  • Embed adaptation in port master plan with regular third-party resilience reviews
  • Maintain amphibious infrastructure for seasonal submersion
  • Set up inland transshipment hubs for backup during port downtime
  • Use modular systems for rapid recovery and operational flexibility
  • Form a community advisory board for joint coastal and biodiversity efforts
Haifa
  • Link real-time wave/tide/surge monitoring to IMS
  • Trigger automatic gate closures, crane shutdowns, and ship controls on surge alerts
  • Auto-lock STS/yard crane booms above 75 km/h and activate cyclone tie-down procedures
  • Elevate berths, substations, and crossings by +0.8–1.2m for SLR
  • Raise fuel pumps and control panels at tank farms
  • Use permeable pavements, oil-water separators, and bioswales to manage runoff
  • Avoid new berths/tank farms in 1m SLR zones; use elevated modular foundations
  • Partner with Haifa Municipality to restore coastal buffers (dunes, reefs)
  • Establish salt-tolerant vegetative belts around port edges
Dar-es-Salaam
  • Instal bunds and mobile flood barriers around substations, gatehouses, and pipeline entries
  • Set up heat shelters, shaded rest areas, and hydration units for yard workers
  • Ensure watertight conveyors and sheltered berths for grains and break bulk
  • Add moisture sensors in grain silos
  • Elevate jetties, substations, and control centers by ≥1.0m above HAT
  • Reinforce roads and railheads prone to rain-induced collapse
  • Add oil-water separators and spill catchment trenches in bulk zones
  • Restrict new builds in SLR floodplains using DEM data
  • Use modular-elevated foundations and storm-resistant cranes
  • Design flood-resilient offices and warehouses
  • Retrofit terminals for biofuels, SAF, and green ammonia/methanol
  • Upgrade cargo systems with corrosion-proof piping and separate fossil/non-fossil manifolds
Colombo West International Terminal
  • Instal flapvalves/backflow preventers to block seawater intrusion
  • Elevate reefer points above 1-in-100-year flood line
  • Instal anemometers with auto-lock cutoffs at 70–80 km/h wind speeds
  • Elevate quay edges and aprons by +1.0m for 2100 sea-level rise
  • Regrade container zones and improve drainage to prevent pooling
  • Use permeable pavers on secondary roads for stormwater control
  • Instal shore power for container vessels to cut emissions and heat stress
  • Design new terminals with >2m elevation, smart drainage, and green buffers
  • Zone low-lying areas as retreat/reserve zones
  • Build wave-attenuating reefs and submerged breakwaters
  • Restore mangroves and dunes with Coast Conservation Department

Transition Risk Assessment

In alignment with the TCFD and IFRS S2 recommendations, we have undertaken a forward-looking transition risk analysis. This assessment identifies and evaluates the financial and strategic implications of potential regulatory, market and technological shifts associated with the global transition to a low-carbon economy.

The assessment is based on two globally recognised climate scenarios developed by the International Energy Agency (IEA):

  • Base Case / Business-as-Usual (BAU): Stated Policies Scenario (STEPS) – reflects the current policy trajectory without additional decarbonisation commitments beyond those already implemented
  • Low Carbon Scenario: Net Zero Emissions by 2050 (NZE) – assumes aggressive global climate action to limit warming to 1.5°C, with widespread adoption of low-carbon technologies, shifting market preferences, and stricter climate regulations

Further, in accordance with TCFD recommendations, risks and opportunities have been evaluated over three timeframes: short-term (2030), medium-term (2040), and long-term (2050). This enables us to integrate climate considerations into strategic decision-making and long-term investment planning, particularly in the context of India’s net-zero commitment by 2070.

Carbon Pricing Mechanism – Transitional Risk

With the gradual expansion of carbon pricing mechanisms in India, supported by evolving regulatory frameworks and global climate commitments, APSEZ may face increasing cost pressures through direct and indirect channels, including fuel costs, logistics expenses, and pass-through charges from shipping customers. Even under a scenario where Scope 2 emissions are neutralised operationally by 2030, exposure to downstream carbon costs and market-linked pricing mechanisms may continue to have financial implications.

Based on current Scope 1 emissions of 1,58,998 tCO2e and an assumed carbon price of 455 per tCO2e, the estimated annual carbon cost is approximately 7.3 crore (1,58,998 × 455), which could lead to a corresponding impact on EBITDA.

To mitigate this risk, APSEZ is proactively transitioning towards a low-carbon operational model through electrification, renewable energy adoption, and efficiency improvements. The estimated one-time investment of ~34 crore required for these mitigation carbon capture initiatives enables reduction in long-term exposure to carbon pricing volatility, enhances regulatory preparedness, and supports alignment with evolving climate policies.

Transition Risks and Mitigation Strategy

Opportunity / Risk Score Key
High OpportunityModerate OpportunityLow OpportunityLimitedLow RiskModerate RiskHigh Risk
Legal
Transition Risk

Current and Emerging Regulations — CO2 Price

Financial Driver

Increased direct cost

Impact Level
Short-termImpact
  • Continue to apply the internal carbon price to Scope 1 & 2 emissions
  • Integrate into investment decisions to prioritise low-carbon fleet and port capex
  • Increase internal shadow price aligned with EU ETS
Medium-termImpact
  • Adopt green shore power, hybrid tugs, and electric logistics
  • Target net-zero Scope 1 & 2 with carbon credit trading
  • Extend carbon pricing to Scope 3 transport
  • Co-fund shore power with green vessel partners
Long-termImpact
  • Participate in global carbon-negative trade
  • Develop internal carbon banking and cross-border carbon credits
Financial
Transition Risk

Finance Access Tied to Climate Alignment

Financial Driver

Access to Capital

Impact Level
Short-termImpact
  • Set defined KPIs for climate-aligned finance
  • Raise at least 40-50% of long-term debt as green/sustainability-linked
  • Continue to apply internal carbon pricing into capital budgeting
Medium-termImpact
  • Operationalise Net Zero Scope 1 and 2 targets
  • Extend ICP to vendor selection and debt planning
  • Create green infrastructure portfolios
Long-termImpact
  • Achieve Net Zero across key Scope 3 categories
  • Climate screening for new investments, M&A, and Joint Ventures projects
  • Monetise verified carbon reductions
Legal
Transition Risk

Litigation-related costs due to climate non-compliance

Financial Driver

Increased OPEX

Impact Level
Short-termImpact
  • Conduct third-party ESG audits
  • Enhance disclosures aligned with EU Taxonomy
  • Verify supplier data accuracy
Medium-termImpact
  • Maintain climate liability insurance using verified emissions data and digital twins
  • Secure data provenance via blockchain smart contracts
Long-termImpact
  • Participate in global carbon-negative trade
  • Develop internal carbon banking and cross-border carbon credits
Market
Transition Risk

Clients transitioning to more sustainable and resilient supply chain models

Financial Driver

Decreased revenues

Impact Level
Short-termImpact
  • Increase green port services
  • Work with suppliers to increase green procurement
Medium-termImpact
  • Embed climate risk in end-to-end port & logistics services
  • Get the ports certified as ‘Green Ports’; develop carbon-neutral offerings
Long-termImpact
  • Partner with shipping companies to offer an end-to-end low carbon service
Technology
Transition Risk

Asset underutilisation from low-carbon transition

Financial Driver

Reduced revenue and ROCE

Impact Level
Short-termImpact
  • Increase availability of hydrogen/ammonia bunkering terminals and battery recharging hubs
Medium-termImpact
  • Develop modular berths adaptable to cargo types and trade flows
Long-termImpact
  • Repurpose idle port areas into CCS sites, monetising under future environmental credits
Technology
Transition Risk

Capital and Supply Chain Barriers to Low-Carbon Technology

Financial Driver

Increased OPEX

Impact Level
Short-termImpact
  • Set up innovation hubs for India-made hybrid cranes
  • Pursue JVs and green financing via sustainability-linked loans
Medium-termImpact
  • Use green leasing for capex-heavy assets
  • Develop local vendors for EVs, green hydrogen, and port electrification; provide technical training support
Long-termImpact
  • Invest in R&D for DAC and industrial CCS with global green-tech co-funding
Reputation
Transition Risk

Failure to achieve decarbonisation plan

Financial Driver

Increased OPEX

Impact Level
Short-termImpact
  • Expand off-site renewable PPAs or RECs to push renewables >30%
  • Set port-wise GHG reduction KPIs and link with all employees’ incentives
Medium-termImpact
  • Establish joint Scope 3 reduction plans with major suppliers and shipping lines
Long-termImpact
  • Build on-site negative-emission technologies to ensure net-negative balance
Opportunity
Transition Opportunity

Deployment of renewable technology

Financial Driver

Reduced operating costs

Impact Level
Short-termImpact
  • Accelerate electrification of port equipment, cranes, and internal logistics vehicles
  • Partner with Adani Green Energy
  • Advance water and waste reuse projects
  • Establish pilot projects for green hydrogen-ready infrastructure
Medium-termImpact
  • Transition to 100% renewable energy consumption
  • Deploy energy storage systems to manage intermittent renewable generation
  • Adopt green hydrogen technologies
  • Introduce smart energy management systems
  • Implement low-carbon fuels and logistics
  • Scale circular economy practices
Long-termImpact
  • Build green hydrogen/ammonia bunkering terminals
  • Transform ports into self-sustaining green energy hubs

Climate-related Metrics and Targets

Net Zeroby 2040

Given the growing global concern surrounding greenhouse gas (GHG) emissions and their contribution to climate change, businesses worldwide are facing heightened scrutiny and stronger expectations to act decisively. At APSEZ, we recognise that transitioning to a low carbon future is both an environmental imperative and a strategic opportunity. We use defined metrics to monitor performance in relation to key climate and nature-related risks and opportunities. For material issues, we also establish specific targets to track our actions, aiming to mitigate risks and capitalise on emerging opportunities.

TargetTarget YearProgress during FY 2025-26Baseline Year
Energy20% energy intensity reduction2030APSEZ achieved the 17% reduction in energy intensity from FY 2024-25FY25
Energy100% renewable share in electricity203028% renewable share in total electricity in FY 2025-26FY25
Emission Intensity50% emission intensity reduction203026% reduction in GHG emission intensity in FY 2025-26 vs FY 2024-25FY25

FY 2025-26 Targets

Scope-1 (tCO2e)Scope-2 (tCO2e)Scope-3 (tCO2e)Total Non-renewable energy (GJ)Total waste disposed (MT)Total net fresh water consumption (CuM)
1,60,0002,91,17020,50,00034,83,6739656

GHG Emissions: Scope 1, 2 and 3

We have successfully achieved emissions levels well below those of the previous year for FY 2025-26. We have reduced Scope 2 emissions by over 12% and achieved an overall reduction of more than 6% in combined Scope 1 and Scope 2 emissions compared to FY 2024-25. APSEZ adheres to the Greenhouse Gas Protocol – A Corporate Accounting and Reporting Standard (Revised Edition) for quantifying GHG emissions across our operations. The GHG emissions disclosed below are reported using the operational control approach, with Scope 2 emissions calculated using the market-based methodology.

Scope-wise Greenhouse Gas Emissions

YearScope 1Scope 2Scope 3
FY 2025-26 (tCO2e)1,58,9982,82,69020,13,014
FY 2024-25 (tCO2e)1,50,3983,23,09820,05,650
FY 2023-24 (tCO2e)1,26,1973,43,42818,87,215
FY 2022-23 (tCO2e)1,21,1022,61,95120,23,072
FY 2021-22 (tCO2e)1,29,4381,93,0634,71,649

Scope 3 Emissions Category-Wise

Scope 3 CategoriesFY 2024-25 (tCO2e)FY 2025-26 (tCO2e)
Category 13,13,8023,63,939
Category 210,65,3348,00,245
Category 370,12890,132
Category 43,51,0594,98,276
Category 5311162
Category 61,2481,262
Category 71,4381,554
Category 91,42,4271,95,399
Category 1312,51712,547
Category 1547,38649,496
Total upstream18,03,32017,55,571
Total downstream2,02,3302,57,443
Total Scope 3 emissions20,05,65020,13,014

Not Applicable Categories for APSEZ – Category 8, 10, 11, 12 & 14

Emission Intensity Trends (tCO2e/Crore)

FY21FY22FY23FY24FY25FY26
21.117.817.116.614.610.8