What does the asset mean for climate, nature and people?
From carbon accounting and physical climate risk to social impacts and structured reporting: ten analytical chapters show the questions an asset report can answer.
Anonymised example analyses with different scopes. Assets, periods and reference bases are identified alongside each result. Modelled impacts are not measured operating results. The report scope is agreed for each assignment.
Explore the analyses ＋
01ESG · Priorities
Which topics change the decision?
An asset affects the environment and people. The same topics can affect operations, costs and valuation. Double materiality keeps both perspectives in view.
Two perspectives on ten ESG topics
Illustrative topic prioritisation from an anonymised example
Topic
Impact on environment / people
Financial materiality
E1 · Climate
Material
Material
E2 · Pollution
Material
Supporting
E3 · Water
Supporting
Supporting
E4 · Biodiversity
Supporting
Supporting
E5 · Resources & circularity
Material
Supporting
S1 · Own workforce
Supporting
Not material
S2 · Value-chain workers
Material
Supporting
S3 · Affected communities
Material
Material
S4 · Consumers & end-users
Material
Supporting
G1 · Business conduct
Material
Material
“Supporting” is a presentation category in this example, not a formal ESRS materiality category. Actual classification is determined for the mandate and its entity and asset boundaries.
Illustrative materiality classification, not independently verified. It is not a universal assessment of battery storage.
02Climate · Accounting boundaries
How much carbon arises - and what is avoided elsewhere?
Charging energy, lifecycle emissions and displaced generation answer different questions. The report separates the three views and makes their bases explicit.
Scope 2 · Charging
60,561 tCO₂e/year
Modelled gross figure for the sample portfolio
Scope 3 · Annualised
2,957 tCO₂e/year
Lifecycle emissions allocated to an annual basis
Avoided emissions
45,058 tCO₂e/year
Separate model calculation for displaced generation
The energy balance behind the emissions
Normalisation: annual charging energy = 100
Charging energy
100
Discharged energy
87
0100
View data table
Category
Energy index
Charging energy
100
Discharged energy
87
The annual energy figures imply a discharge-to-charge ratio of 87.0% in this example. This is a portfolio model metric, not a verified equipment-efficiency measurement.
Anonymised 14-asset portfolio; modelled annual figures. This portfolio is separate from the single-asset climate-financial case in Chapter 5.
03Resources · Circularity
Which decisions shape the lifecycle footprint?
The footprint does not end at commissioning. Replacement and augmentation need to be assessed alongside initial procurement.
Component footprint, origin and documented material information.
02
Operation & augmentation
Remaining capacity, replacement events and additional material demand.
03
Reuse
Technical suitability, potential second use and responsibility.
04
Take-back & recovery
Recovery route, take-back partners and documented material recovery.
The share chart and material pathway represent different analyses. They do not establish a recycling rate.
Modelled component comparison. Supplier information and actual take-back or recycling evidence are considered for the specific project.
04Climate · Adaptation
How does a climate hazard become an operating problem?
A climate scenario becomes decision-relevant when it is linked to exposed infrastructure, operating constraints and possible interventions.
Risk → operating impact → response
Extract from an operating climate assessment
Driver
Connection assessed
Potential report output
Decision use
Heat
Power limits, cooling demand, seasonal peak loads
Available capacity, operating hours, incremental costs
Compare cooling design and operating reserves
Flooding
Access and exposure of asset, substation and feeder
Interruption duration, recovery, affected users
Assess protection and alternative supply in the scenario
Water stress
Site conditions and cooling-water use where relevant
Water demand, restrictions, availability
Match technology to local water dependency
Network constraints
Seasonal demand, generation and restricted network capacity
Constraint hours, curtailment, flexibility demand
Assess dispatch and site impact together
Qualitative assessment structure, not a measured reduction in risk. Time comparisons can cover the current operating baseline, mid-life and end of asset life.
05Scenarios · Financial effects
What happens to the asset case under different climate pathways?
Physical and transition risks act together. Scenario comparison shows whether higher costs are offset by other modelled revenue drivers.
Four climate pathways, one asset model
NPV index · Current Policies = 100
Current Policies
100
Delayed Transition
141.8
Divergent Net Zero
154.5
Net Zero 2050
200
0200
View data table
Category
Modelled NPV index
Current Policies
100
Delayed Transition
141.8
Divergent Net Zero
154.5
Net Zero 2050
200
These values compare one anonymised model case. They are neither probabilities nor forecasts for other assets.
Climate pathway
Physical risk
Transition risk
Current Policies
Severe
Low
Delayed Transition
High
Medium
Divergent Net Zero
Medium
High
Net Zero 2050
Low
High
Single-asset scenario comparison over a 30-year model horizon; not an extrapolation to the 14-asset portfolio.
06Sites · Environmental exposure
Which sites deserve the next detailed review?
Water stress and protected-area proximity reveal different aspects of the same site. Comparing them helps prioritise further investigation.
Sites compared
14
One anonymised portfolio
Water stress · Mean
41.4 / 100
Higher score = higher modelled stress
Score above 50
3
Sites B, E and F
Water stress by site
Score 0–100
A
35
B
58
C
48
D
35
E
52
F
58
G
42
H
48
I
28
J
32
K
35
L
28
M
35
N
45
0100
View data table
Category
Water stress
A
35
B
58
C
48
D
35
E
52
F
58
G
42
H
48
I
28
J
32
K
35
L
28
M
35
N
45
Combined site view
Distance adds context to the stress score
Site
Water
Protected-area proximity
Selection flag
Site A
35
4.8 km
-
Site B
58
2.1 km
Water stress > 50
Site C
48
4.5 km
-
Site D
35
4.8 km
-
Site E
52
5.8 km
Water stress > 50
Site F
58
2.1 km
Water stress > 50
Site G
42
3.5 km
-
Site H
48
4.5 km
-
Site I
28
3.2 km
-
Site J
32
2.5 km
-
Site K
35
4.8 km
-
Site L
28
3.2 km
-
Site M
35
4.8 km
-
Site N
45
4.2 km
-
14 anonymised sites. Distances are regional screening proxies, not surveyed boundaries. The threshold of 50 is a selection aid in this example, not a permitting threshold.
07Environment · Societal benefit
How do avoided pollutants relate to societal value?
Pollutant mass alone gives an incomplete account of its effect. The report can show physical quantities alongside monetised damage costs.
Nitrogen oxides · NOₓ
4,386 kg/year
Modelled avoided mass
Fine particles · PM₂.₅
826 kg/year
Modelled avoided mass
Sulphur dioxide · SO₂
129 kg/year
Modelled avoided mass
Comparing mass share and damage-cost share
Share of the total for the three pollutants in each respective measure
Share of avoided mass
Share of monetised effect
NOₓ
82.1 %
65.8 %
PM₂.₅
15.5 %
33 %
SO₂
2.4 %
1.2 %
0 %100 %
View data table
Category
Share of avoided mass
Share of monetised effect
NOₓ
82.1 %
65.8 %
PM₂.₅
15.5 %
33 %
SO₂
2.4 %
1.2 %
Monetisation uses modelled damage costs; it is neither cash received by the asset operator nor evidence of measured improvements in health.
Modelled sample portfolio; shares rounded to one decimal place. The impact calculation is separate from the carbon inventory.
08Communities · Affected people
Who benefits - and who bears the burdens?
A single societal-value figure can obscure different beneficiaries, periods and mechanisms. The analysis separates the contribution into views that support a decision.
A distribution view beyond a single benefit figure
Available views in the community and operating report
Affected group
Impact channel
Report output
Critical distinction
Workers & local businesses
Construction work, ongoing operation, local procurement
Construction job-years; permanent FTE; local retained expenditure
Report construction and permanent jobs separately
Households
Cost relief and continuity of supply
Bill change per household/year; interruptions
Assess benefit pass-through and affected groups
Municipality
Taxes, local programmes and procurement
Annual receipts and specifically allocated funds
Distinguish payment flows from additional social benefit
Landowners & neighbours
Lease income, land use, access and construction impacts
Payments, use rights and affected interests
Identify who receives benefits and who bears burdens
Users of critical services
Continuity when electricity and dependent infrastructure are disrupted
Supply dependency, backup duration and recovery
Assess vulnerable groups and priority services separately
The table shows the available analytical structure. It does not claim realised jobs, household savings or municipal payments.
09Social · Accountability
Which disclosures can be evidenced and followed up?
Social and governance topics need clear accountability alongside metrics. The report view connects the result, documentation and next action.
A practical working view for operators and reviewers
Metric or finding · supporting record · responsible role
Review area
Potential metrics / findings
Supporting documentation
Responsibility
Own workforce
Employment by phase, training hours, safety and pay
Workforce and training records; incident register
Operator / workforce lead
Supply chain
Supplier-review coverage, findings and open actions
Oversight, conflicts of interest, training and accountability
Policies, responsibilities and documented decisions
Management / compliance
Operating resilience
ICT risks, providers, incidents and recovery
Risk register, continuity plans and documented tests
Operations / information security
01
Classification
Calculated output, operator statement and documented finding remain distinguishable.
02
Follow-up
The finding, responsible role and agreed date are brought together.
03
Closure
A completed action receives traceable closure evidence.
Example report fields; not a statement about any company’s assurance status and not a certification.
10Output · Reporting use
How does analysis become a usable reporting package?
Each figure stays connected to its scope. Operators, investors and reviewers can then use the same calculation basis from different perspectives.
Connect output, scope and reporting view
Selected mappings from the available reporting range
Analytical output
Scope
What remains traceable
Potential use
Carbon & energy
Asset → portfolio
Boundary, period, emission factor and charging energy
Climate and emissions views, e.g. ESRS E1 / selected PAI
Water & biodiversity
Site
Stress indicator, spatial accuracy and detailed assessment
Environmental screening and project-specific DNSH assessment
Lifecycle & materials
Component → asset
Useful life, augmentation and documented material pathway
Resource and circularity views
People & supply chain
Entity / supplier / community
Affected group, period and type of disclosure
Social topics and governance, e.g. S1–S4 / G1
Climate-financial scenarios
Single asset
Scenario, horizon, base model and sensitivity
Investor valuation, adaptation planning and climate-risk report
Reporting references are selected according to applicability and mandate. The analyses support review and preparation; they do not replace independent assurance or a legal compliance assessment.
xIntegra · Asset audit, climate & ESG
From the example to your decision.
Let us identify which analyses offer the greatest decision value for your asset or portfolio.
Inputs that enable the first assessment
Site and asset information, operating metrics, the reporting period and relevant stakeholders. Include the questions of management, investors or your audit team.
What you receive for your project
An agreed asset report with climate, environmental and social analyses, plus governance and reporting views. Data coverage, calculations and limitations remain visible.
