| control of success |
Compare statistics before and after actions have been taken (e.g., new road layout or bike lane), to validate the success of the action (e.g., lower speed, less traffic, more bicycles, etc.) |
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| traffic simulation |
Traffic model to simulate the influence of different scenarios on traffic situations. E.g., the opening of a new shopping mall or adding a new bus line. |
- Four-step traffic demand model that uses origin-destination matrices (e.g., Visum PTV)
- MatSim: agent-based model that uses day plans
- BikeSim: bike simulation that uses cyclist trajectories
- SUMO: "Simulation of Urban MObility" (SUMO) is an open source, highly portable, microscopic and continuous traffic simulation package designed to handle large networks.
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| bike infrastructure |
Optimize bike infrastructure: detect shortcomings through analysis of street attributes based on GPS trajectories and sensor data (e.g., bumpiness, high chance of accidents, low bike speed). |
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| bike infrastructure |
Determine high-demand origin-destination connections to optimize the bike infrastructure for those routes. |
Propensity to Cycle Tool uses origin-destination matrices to visualize cycling demand and thereby provide a bike infrastructure planning tool. |
| bike infrastructure |
Determine the count of bikes for reports, monitoring, funding, and as a decision basis. |
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| bike infrastructure |
Identify locations to place bike counters for a representative sample of bicycle ridership within a city. |
Article how to aggregate GPS trajectories to average hourly activity count for street-segments to determine traffic volumes and thereby suitable bike counter locations. |
| public transport |
Demand-driven short- and long-term public transport offer. Based on historic and real-time data, public transport can be optimized to fit daily routines, to account for special events (e.g., soccer games), or to satisfy real-time demands. Also, routes of public transport lines can be optimized to reduce transfers. |
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| shared mobility |
Integrate new on-demand and shared-mobility offers, such as bike, e-scooter, car-sharing and offers into the cityscape and public transport network: Provision of demand-based positioning of docking stations and parking spots. |
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| shared mobility |
Redistribution of shared vehicles (e-scooter & bike-sharing) and positioning of ride-hailing (e.g., Uber) and ride-sharing (e.g., Moia) vehicles based on historic demands. |
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| shared mobility |
City administrations use reports on usage behavior and analysis tools to evaluate the use of micro-mobility in their cities. The mobility data specification has been established as a standard that more and more mobility service providers start to use and offer their data accordingly. The specification goes beyond human mobility data (e.g., charging status of vehicles or definition of prohibited parking zones, see this article and this MDS use case gallery) but also includes start and end locations of rentals. |
Service providers that combine data from multiple providers and offer analysis platforms to cities. E.g., Vianova Remix, Populus. |
| electric vehicle infrastructure |
City administrations can use mobility data of combustion engine cars to assess where charging infrastructure for electric vehicles may be needed. Operators of buildings and districts need it to plan local charging infrastructure. Operators of electric power systems (mostly distribution system operators) can use mobility data to assess the demand for e-mobility and plan their grids to handle the future demands. |
Electric Vehicle Infrastructure Simulator (ELVIS), Localiser: commercial software |