EP1 Digital construction permitting High Approved
Online submission, automated pre-screening, real-time status tracking — faster, more transparent
EP2 Housing construction data platform High Approved
Public data: where and how many homes are being built, prices, capacities, municipal plans
EP3 Energy-efficiency renovation program Medium Approved
Data-driven targeting: where the building stock is least energy-efficient, the support goes there. Related: K2 (Energy transition)
EP4 Construction-industry transparency Medium Approved
Public procurement and implementation data — flagging cost overruns and schedule delays. Related: A2 (Procurement transparency)

In-depth analysis

EP1 — Digital construction permitting

  • Mechanism: A unified online platform (extension of OÉNY — the Hungarian National Building Register) where the architect submits plans in BIM (Building Information Modeling) format. Automated pre-screening mechanically checks the regulatory parameters (built-in %, floor-area ratio, fire distance, height) — the applicant receives immediate feedback on formal errors. Parallel authority review: environmental, fire safety and utility opinions are processed simultaneously, not sequentially. Breach of the decision deadline carries an automatic sanction (the applicant automatically receives the permit if the authority fails to decide on time — the “silence means consent” principle, with risk-based conditions).
  • Quantified target: The average permitting time drops from 120 days to 45 days; the rate of returns due to formal errors falls from 30% to below 5% (thanks to automated pre-screening); by 2028, 90% of permit applications arrive digitally.
  • International precedent: Singapore CORENET X: BIM-based automated code compliance cut permitting time to 26 days. Norway’s ByggSøk: the introduction of an online permitting system reduced administrative cost and turnaround time by 60%.
  • Trade-off / risk: The “silence means consent” principle carries a risk: if the authority fails to examine an application due to capacity shortages and it is automatically approved, buildings with safety risks could be erected. A risk-based filter is therefore needed: usable for simple extensions (e.g. a garage) but not for complex (e.g. multi-storey, public-use) buildings. BIM-based submission is a costly transition for small design firms.

EP2 — Housing construction data platform

  • Mechanism: A public, interactive map-based platform that integrates: (1) construction permitting data (where, what and when was permitted), (2) occupancy-permit data (what was actually built), (3) the Central Bank’s (MNB) housing price data (transaction prices per m², by district/municipality), (4) municipal land-use plans (where buildable land will be available within 5–10 years), (5) infrastructure capacities (schools, clinics, transport). A “housing-market heat map” feature forecasts demand and supply trends.
  • Quantified target: By 2027, all housing-market data for the 25 largest cities is available in real time; the platform reaches 50,000+ unique monthly visitors; at least 5 municipalities incorporate platform data into their land-use decision-making.
  • International precedent: Australia’s CoreLogic and New Zealand’s PropertyGuru: real-time housing-market data platforms increased market transparency and reduced information asymmetry. Finland’s Asuntojen hintatiedot (Housing Price Service): a public service that makes the price of every housing transaction public.
  • Trade-off / risk: Full price transparency can trigger a “self-fulfilling prophecy” effect: if everyone sees that prices are rising in a district, speculative demand can push them up further. Data-quality issues: discrepancies between Hungarian property records and tax declarations (under-priced contracts) distort the statistics. The platform must flag data-quality limits.

EP3 — Energy-efficiency renovation program

  • Mechanism: A targeted “deep renovation” programme: buildings are prioritised by their energy certificate (the F-G rated stock — with the largest savings potential — comes first). Financing uses a “blended finance” model: 30% non-refundable grant + 70% subsidised loan (state interest guarantee, 20-year maturity). The saved energy cost covers most of the loan instalment (the “pay-as-you-save” model). For condominiums, a simplified decision procedure: a two-thirds rather than unanimous owner vote suffices for the renovation decision.
  • Quantified target: Over 4 years, 100,000 apartments upgraded from F-G to at least C rating; energy consumption in renovated homes falls by 50–70%; the programme creates 15,000 construction jobs; CO₂ emissions drop by ~1 Mt/year.
  • International precedent: Germany’s KfW Energieeffizienzprogramm: since 2006, ~6 million apartments have been renovated with state support; the programme produces 4–5 euros of GDP impact per euro invested (multiplier). France’s MaPrimeRénov’: income-scaled subsidies that cover up to 90% of the renovation cost for low-income households.
  • Trade-off / risk: The condominium “free-rider” problem: a few individual owners refusing to pay can block the whole building’s renovation — hence the two-thirds voting rule. The “rebound effect”: after better insulation, people keep higher indoor temperatures, reducing realised savings (international experience: 10–30% rebound). Construction capacity limits: if the programme launches too fast, labour and material shortages push renovation costs up — scheduling and workforce training must run in parallel.

EP4 — Construction-industry transparency

  • Mechanism: Every state/municipal construction project must run a mandatory “Project Report” dashboard: (1) planned vs. actual cost in real time, (2) planned vs. actual schedule, (3) the main contractor and subcontractors (including ownership structures), (4) the permitting and modification log. The platform automatically flags: if cost overrun > 10%, if schedule slippage > 30 days, if any subcontractor has an offshore background. The system is linked to the A2 (Procurement transparency) platform.
  • Quantified target: By 2027, every state construction project above 500M HUF is trackable on the dashboard in real time; average cost overrun drops from 30% to 15%; average schedule slippage drops from 6 months to 2 months.
  • International precedent: UK’s Infrastructure and Projects Authority (IPA) Annual Report: the status of every large state investment is public, with red-amber-green ratings. Chile’s ChileCompra Transparente: full budget, contract and amendment data on state construction projects is available in real time — cost overruns dropped by 20% over 5 years.
  • Trade-off / risk: Real-time cost transparency also informs contractors: competitors see each other’s pricing, which can enable cartel behaviour (a reverse effect). “Dashboard fatigue”: if there is too much data, nobody watches — an alert-based approach is needed (flagging only anomalies). Political resistance is strong, because publicising cost overruns and delays is embarrassing — the “at least we started” narrative is replaced by “what it actually cost”.