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H2Offices Phase 1 · Transition modelFACILITY

Skanska · operating_office · Budapest, HU · 47.498, 19.040
basis: MEASURED · confidence: 0.65 · status: active

Climate & nature exec summaryBudapest, HU · claude-sonnet-5 · 2026-07-07

H2Offices Phase 1 in Budapest carries low water stress but sits within a Hungarian grid on a steep decarbonisation path, from 163 gCO2/kWh today toward 30 gCO2/kWh by 2050.

Today

As a 26,000 sqm office asset, the site's dominant dependency is grid electricity, and its dominant impact is Scope 2 GHG tied to the Hungarian grid, currently emitting 163.02 gCO2/kWh (Ember Yearly Electricity 2025). Physical water pressure is muted: the Danube basin water-stress label is Low (<10%, BWS score 0), overall water risk is Low-Medium (score 1.24), and riverine/coastal flood scores are negligible (0.42 and 0 respectively). The one area of note is untreated wastewater exposure, scoring 1.54, moderate relative to the otherwise benign water profile.

Near-term · 2030

By 2030, IEA WEO 2024 STEPS projects the Hungarian grid carbon intensity rising sharply to 95 gCO2/kWh before falling to 30 gCO2/kWh by 2050 — a near-term uptick analysts should flag rather than assume monotonic decline. Water-related forward indicators (WD/WS future scores and labels for 2030/2050/2080) are not populated in the dataset, so no forward view on water stress trajectory can be given; today's Low water-stress label should not be extrapolated without updated data.

Long-term · 2050+

Beyond 2050, the grid trajectory implies substantial residual decarbonisation to near 30 gCO2/kWh, consistent with Hungary's broader energy transition, though no 2080 horizon figure is available to confirm continuation of this trend. Physical risk residuals appear low given current drought score (3.61) and negligible flood exposure, but the absence of 2080 water-stress and water-depletion horizon data leaves long-term physical risk under-characterized and warrants monitoring as forward-looking basin data becomes available.

Call-outs
WATCH
2030 grid intensity spike
Hungarian grid carbon intensity is projected to rise to 95 gCO2/kWh by 2030 before falling to 30 by 2050, a non-linear Scope 2 trajectory that complicates near-term emissions forecasting.
OPPORTUNITY
Long-run grid decarbonisation
The 2050 grid horizon of 30 gCO2/kWh versus today's 163 gCO2/kWh signals a strong structural reduction in Scope 2 intensity for this office asset with no additional site action required.
WATCH
Missing water horizon data
Water-stress and water-depletion future scores for 2030/2050/2080 are null, preventing forward assessment of Danube basin physical risk despite a currently Low water-stress rating.
RISK
Untreated wastewater exposure
The untreated wastewater score of 1.54 stands out against an otherwise low water-risk profile and merits site-level verification of wastewater treatment infrastructure.

Flows0 total · 0 in / 0 out · plus site context + supply/downstream

Inputs (dependencies)
WATER · site context · Aqueduct 4.0
REALM · FRESHWATER
BWS 0.00 · Low (<10%) · DANUBE (ex 643, 644, 645, 646, 647)
Water stress: 0.00 · 2030 · 2050 · 2080
Water depletion: 2030 · 2050 · 2080
ENERGY · site context · grid carbon
REALM · ATMOSPHERE
HU · Ember observed + IEA WEO STEPS
2025: 163 gCO₂/kWh2030: 952050: 302080:
Outputs (impacts + product)
None.

Compositions

Parent (rolls up into)
Children (0)
None.