Designed a Germany-focused EV market-intelligence model that translates public registration, consumer, regional, and charging-infrastructure data into management-ready insights and transparent scenarios.
"The market is no longer explained only by registration volume. The stronger questions are who is switching, where infrastructure is concentrated, and what scale may be required next."
EV market information is distributed across registration tables, charging registers, industry summaries, consumer studies, and policy commentary. A decision-maker can easily see individual facts without understanding how they connect. This project creates one evidence chain from national market movement to customer segments, regional infrastructure, and future scaling requirements.
| Source | Coverage / date | Use in the model |
|---|---|---|
| Kraftfahrt-Bundesamt (KBA) | Registration balances for 2024, 2025, June & H1 2026 | Market volume, share, growth and stock |
| KBA vehicle stock | 2m+ BEVs in German stock at 1 Jan 2026 | Vehicle-to-charger ratio and scenarios |
| Bundesnetzagentur | Charging infrastructure & state map, 1 June 2026 | Normal points, fast points, power, state mix |
| HUK-E-Barometer | Q1 2026 private switch data & YouGov survey | Customer-group switching and experience effect |
| VDIK / ACEA summaries | Market summaries based on KBA H1 2026 data | Cross-check and market context |
| Table | Key fields | Purpose |
|---|---|---|
| Fact_Registrations | Date, powertrain, registrations, customer type | Time-series market growth and share |
| Fact_Charging | State, normal points, fast points, power, date | Regional infrastructure scale and mix |
| Fact_Stock | Date, powertrain, vehicle stock | Vehicles per public point and scenarios |
| Fact_Consumer | Segment, old value, new value, survey response | Switching and barrier analysis |
| Dim_Date / Dim_State | Calendar and state / region hierarchy | Time intelligence and regional comparison |
| Scenario_2030 | Scenario, growth assumptions, stock path, target ratio | Transparent scenario calculations |
The completed whitepaper was produced with Python, public-data research, statistics, and scenario modelling. The dashboard layer is designed for Power BI - this report documents both the completed evidence and the intended interactive implementation, without claiming a final PBIX has already been deployed.
| KPI | Formula logic | Decision use |
|---|---|---|
| BEV registrations | SUM(BEV registrations) | Market scale |
| BEV share | BEV registrations / total registrations | Adoption within total market |
| YoY growth | Current period / previous period − 1 | Momentum |
| Public charge points | Normal points + fast points | Infrastructure scale |
| Fast-charging share | Fast points / all public points | Charging-speed mix |
| BEVs per public point | BEV stock / public charge points | Infrastructure pressure indicator |
| Scenario gap | Required points − current public points | Illustrative expansion requirement |
| Page | Core content |
|---|---|
| Executive overview | Registrations, share, YoY growth, monthly trend, stock, data date |
| Consumer adoption | Private switching by age, housing access, EV experience, barriers |
| Infrastructure atlas | State map, total points, fast points, power, concentration |
| Regional structure | Scale versus fast-charging intensity and regional archetypes |
| Scenario lab | Conservative, base and accelerated stock paths |
| Data quality | Sources, refresh date, missing values, limitations |
Executive overview, brand & model performance, regional EV adoption and charging-infrastructure analysis - built on the same KPI catalogue and data model documented above. Blue marks market and volume measures; green marks BEV, powertrain and charging-specific measures, the same convention used throughout this page.
The monthly BEV run rate nearly doubled between 2024 and the first half of 2026. The share increase is equally important: growth was not only caused by a larger total car market - BEVs captured a materially larger part of new registrations.
Official distribution of normal and fast charging by federal state, 1 June 2026. Scale and fast-charging intensity are different strategic dimensions: a state can have many charging points but a relatively low share of high-speed capacity.
Concentration signal: North Rhine-Westphalia, Bavaria, Baden-Württemberg and Lower Saxony account for approximately 65.7% of all public charging points - infrastructure scale is strongly concentrated in the largest vehicle markets.
| Regional archetype | Examples | Strategic question |
|---|---|---|
| High scale / high fast intensity | Bavaria, NRW, Lower Saxony | Protect corridor capacity; manage utilisation |
| High scale / lower fast intensity | Baden-Württemberg | Increase the fast-charging mix |
| Lower scale / high fast intensity | Thuringia, Saxony-Anhalt, MV, RP | Improve coverage and site economics |
| Urban dense / lower fast intensity | Berlin, Hamburg | Focus on curbside, hubs and fleet charging |
Three transparent growth paths starting from 2.034 million BEVs at 1 January 2026. This is not a prediction - each scenario applies a declining annual growth path, and the charging requirement holds the current national ratio near ten BEVs per public point.
| Scenario | 2030 BEV stock | Points needed (10 BEVs/point) | Additional points |
|---|---|---|---|
| Conservative | 3.91 million | 391k | 185k |
| Base (most likely) | 5.05 million | 505k | 299k |
| Accelerated | 6.19 million | 619k | 413k |
Assumptions: conservative annual growth declines from 18% to 10%; base from 24% to 16%; accelerated from 30% to 20%.
Evidence: private switching accelerated most in price-sensitive groups; a used-EV market can extend adoption beyond new-car buyers.
Action: build transparent battery-health, financing and residual-value propositions.
Evidence: renters and drivers without a garage grew fastest in relative terms, but absolute adoption remains below average.
Action: prioritise destination charging, curbside access and reliable urban fast-charging hubs.
Evidence: large charging networks do not always have a high fast-charging share; network design should reflect travel patterns.
Action: use utilisation, dwell time and corridor demand to decide where fast capacity creates value.
Evidence: consumers with prior EV experience respond more strongly to incentives than those with none.
Action: scale test drives, short-term subscriptions and employer / fleet exposure as adoption channels.
Convert public registration, consumer, regional and infrastructure data into one structured decision view.
Every headline number carries a source date; different reporting bases are never mixed without normalisation.
Vehicle-to-charger ratios, fast-charging mix and concentration signals by federal state.
A reusable KPI catalogue, DAX blueprint and dashboard-page design ready for native implementation.
Self-directed automotive and mobility analytics project - not commissioned by an OEM, charging operator, or public authority. Historical market and infrastructure figures are sourced from public datasets with explicit dates; 2030 stock and infrastructure values are analytical scenarios, not official forecasts. The completed whitepaper uses Python, statistics, public-data research and scenario modelling; this page also documents the intended Power BI dashboard architecture and DAX layer without claiming a native PBIX has already been deployed.
Limitations: the project uses public aggregate data and does not include private charging, utilisation, reliability, queueing, site economics or grid-upgrade requirements. Consumer results come from the published HUK study and survey context and should not be generalised beyond the stated evidence.
Go beyond the overview. Explore the complete project documentation, process, and supporting files on GitHub.