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Merkuria · Transition modelFACILITY

Skanska · operating_office · Prague, CZ · 50.109, 14.445
basis: MEASURED · confidence: 0.65 · status: active

Climate & nature exec summaryPrague, CZ · claude-sonnet-5 · 2026-07-07

Merkuria (Prague, CZ) is a low water-stress redevelopment site whose overriding transition lever is the Czech grid's carbon intensity, currently 401 gCO2/kWh and set to nearly halve by 2030.

Today

As an office/retail redevelopment asset of 20,000 sqm in the Elbe watershed, Merkuria's dominant dependency is grid electricity rather than water: baseline water stress is Low (<10%, score 0) with an overall water risk score of 1.08 (Low-Medium, 25-50% band), and riverine flood (0.26) and coastal flood (0) scores are negligible. The one local pressure point is untreated wastewater exposure at 0.90, notably elevated relative to the site's otherwise benign water profile. The dominant impact channel today is Scope 2 emissions, exposed to the Czech grid's observed 2025 carbon intensity of 401.46 gCO2/kWh (Ember), which is well above the EU average and reflects the country's continued reliance on coal and lignite generation.

Near-term · 2030

By the 2030 horizon, IEA WEO 2024 STEPS projects Czech grid intensity falling to 215 gCO2/kWh, roughly a 46% reduction from the 2025 observed baseline — a material decarbonisation tailwind for any Scope 2-driven emissions target tied to this site. Water-related metrics show no forward horizon data (2030/2050/2080 water depletion and stress scores are unpopulated), so physical water risk should be treated as a data gap rather than assumed stable, particularly given the elevated untreated wastewater score already present today.

Long-term · 2050+

Out to 2050, grid intensity is projected to fall further to 85 gCO2/kWh, an 80%+ reduction from today's baseline, effectively decoupling the site's electricity-linked emissions from national generation mix and shifting residual transition risk toward embodied carbon and operational efficiency rather than power sourcing. Physical risk residuals are low on flood and baseline water stress, but the absence of any 2050/2080 water horizon data and the unresolved wastewater pressure mean long-term water risk cannot be confirmed as immaterial — this should be flagged for follow-up rather than assumed benign.

Call-outs
OPPORTUNITY
Grid decarbonisation cuts Scope 2
Czech grid intensity is projected to drop from 401 to 215 gCO2/kWh by 2030 and to 85 by 2050, sharply reducing Scope 2 exposure without site-level intervention.
WATCH
Elevated untreated wastewater score
A wastewater score of 0.90 stands out against an otherwise Low water-stress profile and warrants local due diligence given redevelopment activity.
WATCH
Missing water horizon data
No 2030/2050/2080 water depletion or stress projections are populated for the Elbe watershed, leaving long-term physical water risk unquantified.
RISK
Current grid intensity above EU peer average
The 2025 observed carbon intensity of 401.46 gCO2/kWh reflects continued coal/lignite reliance in the Czech mix, elevating near-term Scope 2 carbon cost exposure.

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%) · ELBE
Water stress: 0.00 · 2030 · 2050 · 2080
Water depletion: 2030 · 2050 · 2080
ENERGY · site context · grid carbon
REALM · ATMOSPHERE
CZ · Ember observed + IEA WEO STEPS
2025: 401 gCO₂/kWh2030: 2152050: 852080:
Outputs (impacts + product)
None.

Compositions

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