Setup
Mapped
Terrain, roads, parcels and green spaces sit on a 3D base in the same coordinate system as your city information system, covering the whole region from the mountains to the sea.
Zenit Uzamsal Teknolojiler
We bring together the 3D city model, the sensor network and AI. Spot problems before citizens notice them, and test scenarios before anything happens on the ground.
Spatial technologies and city digital twins
One platform to see, understand and manage the city ahead of time.
Setup
Terrain, roads, parcels and green spaces sit on a 3D base in the same coordinate system as your city information system, covering the whole region from the mountains to the sea.
Setup
Every building rises with its floor heights, façade and roof. Critical structures are built in detail, the rest of the city at a performance-friendly level of detail.
Live layer
When vehicle tracking and counting data are connected, traffic, buses and rail vehicles move through the model at their real positions, and every road segment shows its current density in colour.
IoT
Every device in the field connects to the digital twin, whatever its brand. Air quality, noise, meter and structural sensors live at their exact positions in the model; when a threshold is exceeded, the responsible department is notified instantly.
Signal twin
Phase, queue and waiting-time data for every intersection is reflected in the twin. Signal timings are tested in the model before they are applied on the street; city cameras are placed at their real positions on the map, and incidents open with a single click.
Public transport
Lines and stops take their place on the city’s 3D map. Once your vehicle tracking system is connected, every bus appears at its position on the line; estimated arrival at the stop and vehicle occupancy are monitored on the same screen.
Rail systems
The tram line sits in the model with its stops and intersection crossings; services are animated from line and stop data. Headways and waiting times at stops are monitored live once your organisation’s systems are connected.
Rail systems
Metro tunnels and stations appear below ground together with underground infrastructure such as water and energy lines. Station entrances meet the streets and stops above ground in the same model.
Facility twin
Hospitals are added to the model together with their energy, water and generator infrastructure. Emergency department load and ambulance access times are tracked on the map; in a disaster, healthcare capacity is planned alongside the distribution of casualties.
Disaster management
The building stock is shaken with earthquake scenarios of different magnitudes; buildings that may be damaged and roads that may be blocked are visible in advance. Assembly and shelter areas stand out on the map, and evacuation routes to them are drawn along the roads that remain open.
Disaster management
Seabed and coastal topography are combined with a wave scenario. The streets the water will reach, the direction of evacuation from the coast to higher ground and the safe assembly areas beyond the wave’s reach are visible in advance.
Disaster management
A rainfall scenario is combined with the terrain model; areas where the river may overflow, flooded underpasses and affected buildings are marked. Evacuation routes are drawn around the closed roads, and temporary shelter areas appear on the same map.
Disaster management
The direction of fire spread is animated from wind and building density. The crew dispatched from the nearest fire station, its route to the scene and the nearby hydrants appear on the same map; agencies coordinate in a single view.
Construction twin
Regeneration projects are tested in the twin before construction begins. The planned buildings are placed into the existing neighbourhood; their shadow, wind and density effects are visible in advance, and the project is presented to citizens in 3D.
The surroundings of the new buildings are examined in the twin too: air pollution and traffic noise spreading from the avenue are mapped. Layout, façade and green-space decisions are made with these effects in mind.
After regeneration, the neighbourhood's infrastructure needs are calculated in the twin too: the water, sewer and electricity load of the new buildings is compared with the existing lines. Undersized lines, the length to be renewed and the cost are known before construction.
Underground twin
Drinking water, sewer, electricity, natural gas and fibre lines become visible below ground together with the structures above. Clashes are caught before excavation begins, and leaks are detected early from pressure and flow data.
Artificial intelligence
Learning models continuously scan the data in the twin, flag anomalies instantly and forecast traffic, energy and maintenance needs in advance. Questions are asked in natural language, and camera footage is analysed automatically.
A city digital twin is a measurable 3D copy of a city, including its terrain, buildings, roads and infrastructure. It is continuously updated with data from sensors and institutional systems, so you can test a decision in the twin before implementing it on the ground.
Building models and geographic data are merged into a single, spatially accurate model. The city can be explored and examined layer by layer.
Sensors, meters, cameras and automation systems stream real-time data into the model; every reading appears at its real location.
Traffic, disaster and regeneration scenarios are tested before anything happens on the ground; AI catches anomalies and forecasts tomorrow.
The same digital twin becomes a shared workspace for transport, infrastructure, disaster, planning and health departments. Each department opens its own layer, and everyone looks at the same truth.
Geometry, live data and analytics under one roof.
Building models are aligned with geographic data, and data from field systems flows into the model in real time. Monitoring, analysis and training all happen on one platform.
We connect your organisation’s systems while protecting your existing investments.
Building models and geographic data merge into a single, spatially accurate model.
Devices from different brands stream real-time data to the twin over common protocols.
Water, energy and facility automation systems are connected while protecting existing investments.
Anomaly, forecasting and recommendation models run across all data layers.
The model and live data are brought to virtual and augmented reality headsets.
A flexible architecture that runs in the cloud, on premises or at the edge.
Meter, transformer and renewable generation data come together in a grid view.
Live information from the twin reaches citizens’ phones through the mobile app.
A city digital twin designed for the real needs of institutions, developed and supported on site by our own team.
With the on-premises option, all data is kept on the organisation’s own servers, under its full control.
Real-time data and AI recommendations let decision makers act on evidence rather than guesswork.
The institution’s departments, police, fire, disaster and health teams work together on the same map.
The team that develops the product provides fast support tailored to institutions’ needs and regulations.
Mobile app
The app on citizens’ phones runs on the same data as the digital twin the institution uses. So a route knows not only the road but the city’s current state: speed limits and speed cameras, roadworks and accidents, congestion, flooding. Public transport information and official announcements are on the same screen.
Citizen-facing features are selected and added per project; live information such as accidents, congestion and flooding appears once your organisation’s systems are connected.
The path we follow from the first meeting to a live platform. Each step ends with a concrete deliverable your organisation can use, and the next step builds on it.
We meet your departments and review, one by one, your city information system, your building, road and terrain data, and the services and documentation of the systems to be connected. Together we select the pilot area and the first modules.
What your organisation receives
Data and service inventory, pilot area and priority list
We clarify users, workflows and the data flow between systems, and shape the screen designs together with your department representatives.
What your organisation receives
Workflows and screens agreed with your departments
From your terrain, building, road, rail and green space data, we build an explorable 3D city in the same coordinate system as your city information system. Selected critical structures are modelled in detail.
What your organisation receives
The first working twin, explorable in the browser, on desktop and on a VR headset
We connect your traffic, public transport, environmental and infrastructure systems in order of priority. Every data point appears at its real location in the twin, and updates in your city information system are reflected in the twin regularly.
What your organisation receives
Each connected system as a separate live layer: location, info card, time chart
We roll out modules tailored to your departments: lane-level traffic simulation and intersection queue, delay and level-of-service indicators; planning and disaster scenarios are added as needed.
What your organisation receives
A live platform where each department sees its own layer and indicators
The questions that IT, planning and transport teams at institutions ask most often in the first meeting. You can find them all, with categories and search, on the FAQ page.
A city digital twin is a measurable 3D copy of a city, including its terrain, buildings, roads and infrastructure. It is updated with data from institutional systems and sensors, so you can test a decision in the twin before implementing it on the ground.
The app for desktop and VR is the city’s most detailed 3D twin, where specialists design new projects and run traffic and disaster scenarios. The web platform opens in the browser, where departments switch on layers, colour the map by data and run analyses. The mobile app is in the pockets of field crews and citizens: 3D map, navigation, field data collection and notifications.
No, it is rule-based. Each vehicle is simulated individually at lane level and obeys traffic lights, priority and yield-to-the-right rules. When you close a road or reverse its direction, vehicles redistribute to other roads live. Because the same road network always gives the same result, two designs can be compared fairly.
Disaster and planning scenarios are added to the twin during the project, according to your needs. The foundation is ready: real terrain, buildings and road network, plus a traffic simulation that reroutes when a road is closed. Assembly areas, hospitals and critical roads are brought together on the same 3D map.
Yes. The system is installed on your organisation’s own servers as a container-based, on-premises deployment; your data never leaves your organisation.
In our first meeting, we listen to you about your data and systems, and show with a concrete example what the twin will reveal in your pilot area.
Instead of filling in the form, you can also write to our email address directly.