Cities around the world are deploying sensor networks to monitor the environment, transportation, and infrastructure. Smart sensors collect vast amounts of data, but without quality analytics, this is just a stream of numbers. The traditional integration model requires developers to configure servers and control panels. The ASI Biont AI agent changes this rule: it writes the integration code with the Smart City sensors service itself, using an API key that you simply paste into the chat. No "add integration" button in the interface — just a dialogue with AI. Let's see how this works in practice and what tasks are solved automatically.
What is Smart City sensors and why it matters
Smart City sensors is an IoT platform for connecting city sensors: air quality (PM2.5, CO2), noise, temperature, light, traffic density, and even water levels. Data is transmitted via modern protocols (MQTT, LoRaWAN, NB-IoT) to the cloud, where it is available for analysis via REST API. Such systems are already widely used in large cities: for example, in Barcelona, smart parks and lighting save resources, and in Singapore, sensors help manage peak transport loads. However, the standard functionality of the platform is limited: pre-set alerts and charts do not answer questions like "what will happen tomorrow?" or "which areas require immediate intervention?" For full infrastructure optimization, an intelligent layer is needed that analyzes history, predicts trends, and can act in non-standard situations. The ASI Biont AI agent becomes exactly such a layer.
How ASI Biont connects to the service: API and dialogue
The key feature of ASI Biont is its ability to create integrations with any server that has an open API. You don't need to wait for platform developers to add a ready-made connector. The connection process looks like this:
- You get an API key from the Smart City sensors service (usually done in your personal account in a minute).
- In the chat with ASI Biont, you write: "Connect Smart City sensors via API" and paste the key.
- The AI examines the API documentation (provided by the service or found in public sources), determines endpoints and data structure.
- The agent automatically generates the integration code and configures data flows — you just need to set up the working scenarios.
No control panels or "Add integration" buttons — everything happens in a natural dialogue. The AI uses standard authentication methods (OAuth 2.0, API keys) and can work with different data formats: JSON, XML, CSV. This makes integration possible not only for Smart City sensors, but also for hundreds of other services — from video surveillance systems to weather stations.
What tasks the integration automates
Once the sensors are connected to the AI agent, you get a tool that handles three groups of tasks:
| Task | What the AI does | Example |
|---|---|---|
| Real-time monitoring | Collects readings from all sensors, aggregates and analyzes | Tracking PM2.5 concentration across the city with map binding |
| Alert scenarios | Sets up triggers and notifications to messengers, email, Telegram | Exceeding noise levels in a residential area at night → alert to the duty officer |
| Predictive analytics | Builds forecasts based on historical data | Predicting road congestion in 2 hours based on current traffic and time of day |
In addition, the AI can automatically launch response actions: send commands to manage infrastructure (turning on ventilation, changing lighting modes) via the reverse API. This takes the smart city to a new level of autonomy. For example, when CO2 rises sharply in an underground passage, the AI activates forced ventilation without waiting for an operator call.
Example use cases
1. Air quality control and health protection
In large industrial cities, stationary monitoring posts are expensive, so low-power IoT sensors are used. ASI Biont collects data from them and builds a pollution heat map. When the maximum permissible concentration (MPC) of PM2.5 is exceeded, the agent:
- sends a notification to the city environmental department;
- automatically activates an "emergency" protocol for nearby schools (e.g., banning ventilation);
- predicts the dispersion of pollution based on meteorological APIs and recommends detour routes for utility services.
Thanks to predictive sensor analytics, filter malfunctions at a factory can be detected in advance: an abnormal spike in readings indicates a problem, and the maintenance service receives a request for inspection a week before a serious incident. This approach is already used in the UAE — smart sensors control air quality near industrial zones and automatically communicate with dispatch centers.
2. Traffic management and logistics
City traffic flow sensors transmit data on road congestion. Integration with ASI Biont allows:
- building traffic forecasts for planning road works — the AI identifies temporal patterns;
- optimizing traffic light cycles: the agent analyzes the flow and sends commands to controllers via API;
- automatically coordinating emergency services: when a vibration sensor signals, the AI chooses the shortest route for an ambulance considering the actual road situation.
For example, in Singapore, the city traffic management system uses data from more than 1,000 sensors, and integration with ML models reduces intersection delays by up to 15%. Although this case is not directly related to ASI Biont, it shows the potential effectiveness of such algorithms.
3. Automation of lighting maintenance
Street lights with light and energy consumption sensors transmit operating data. The AI analyzes deviations: if a lamp consumes more than normal or flickers, the agent creates a replacement request, assesses urgency, and even predicts failure of neighboring lamps. This reduces the number of emergency situations during dark hours. In one European smart lighting project, integration with analytics reduced electricity costs by 30% through automatic brightness adjustment based on actual human presence (data from the project's official report, but we'll omit the exact name). The main point is that such scenarios are easily configurable in ASI Biont through dialogue.
4. Noise pollution monitoring
Noise sensors installed in residential areas help combat violations of quiet hours. The AI agent can not only record exceeding levels, but also classify the source (construction, transport, nightlife) based on spectral analysis. With repeated complaints, it automatically generates a notification to supervisory authorities and suggests an inspection schedule. This is especially relevant for densely built cities.
Predictive sensor analytics: how AI predicts events
ASI Biont uses machine learning methods to analyze time series. For example, data on vibration of bridges or overpasses allows predicting structural fatigue. The AI builds a "normal" behavior model and signals deviations that could indicate a risk of collapse. Similarly with pipelines: pressure and flow sensors detect potential leaks before they lead to an accident. All this is possible without writing specialized algorithms — just describe the task in chat, and the AI will generate the analysis code.
Predictive sensor analytics is especially valuable for municipal services: it allows moving from reactive maintenance (fixing after a breakdown) to proactive maintenance (preventing). According to a McKinsey Global Institute study "Smart Cities: Digital Solutions for a More Livable Future" (2018), such approaches can reduce infrastructure operating costs by 10–20%, but this requires integrating data from different sources. ASI Biont solves exactly this integration problem.
Why it is beneficial
The time savings are impressive: what used to take weeks of development (writing a connector, testing, deployment) is now solved in chat in 15–20 minutes. The AI takes over the engineer's routine tasks:
- parsing API documentation;
- generating code in Python or JavaScript;
- configuring error handling and retry logic;
- creating alert scenarios.
System integrators can quickly deploy such solutions for municipal clients, expanding their service portfolio without hiring additional developers. And municipal services gain the ability to independently manage digital infrastructure without vendor lock-in. Moreover, since the connection happens via API, you are not tied to a specific sensor manufacturer — you can combine data from different systems in a single panel.
Limitations and what to consider
It's important to understand: the quality of AI work depends on the data structure that the service provides. If the Smart City sensors API returns raw readings with measurement errors, the agent may make incorrect decisions. Therefore, it is recommended to pre-configure the sensors and verify the data in the platform's standard interface. Also, keep security in mind: store API keys securely, and use two-factor authentication for infrastructure control commands.
How to start right now
To connect Smart City sensors to ASI Biont, you just need to:
- Go to asibiont.com and open the chat with the AI agent.
- Generate an API key in your Smart City sensors personal account.
- Paste the key into the chat and describe the desired scenario (e.g., "set up an alert for CO2 exceeding in area X").
The AI will independently write the integration code, test the connection, and offer an interactive monitoring dashboard. All this — without a single line of code from your side. If you want to add another service later, for example a weather station or a video surveillance system, just repeat the same procedure — ASI Biont will connect them too.
Try it right now and see that a smart city can work without complex integration projects. Go to asibiont.com, log in, and open the chat — the Smart City sensors integration will be ready in just a few minutes.
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