We know that parking space detection in indoor parking lots helps users find where to leave their cars and facilitates space management, so finding the right system ensures the best results. Hard-wired systems have always been highly reliable but inflexible, while stand-alone wireless sensors are positioned as a fast-to-install and scalable alternative.
Why does the detection of indoor parking spaces matter?
Covered or subway parking lots present challenges not usually found in outdoor parking lots: there are pillars that make visibility difficult, spaces are often close together and, in general, guiding the driver to a free space can be more complicated. In addition, many have ramps and multiple entrances, making orientation more complex to avoid congestion or wasting time searching.
In this context, selecting the right technology to detect the available slots, whether a traditional wired system or one of the new wireless solutions, will influence other determining factors: the initial investment, the maintenance required, the ease of reconfiguring or expanding the system in the future, and the environmental impact resulting from this.
U-Spot: parking space IoT detection
How wired systems work in indoor parking lots
Typical wiring systems use sensors located in each parking space and connected to a central controller via a network of electrical cables. This is in addition to signage, additional wiring for power and data transmission, and a central cabinet or rack with the software that manages the entire parking garage.
Despite the reliability that cabling provides, the installation of this type of system is more invasive, with perforations, conduits and modifications to walls, ceilings or floors. It involves a greater economic and time investment that will also require service interruptions. On the other hand, if in the future it is desired to change the arrangement of places or add new ones, it would be necessary to carry out new works to adjust the infrastructure.
It is true that hardwired sensors do not rely on batteries, however, a failure in the electrical circuit can be more difficult to locate and troubleshoot due to the complexity of the wiring, as well as affect other areas.
Autonomous wireless sensors: how they are changing indoor parking
The autonomous wireless sensors detect whether a parking space is occupied or free and send this information to the central platform without the need for cables. They are powered by long-life batteries that make them independent of electrical power, thus avoiding the need for construction work.
In indoor parking lots, surface detection sensors are used, such as Urbiotica’s U-Spot Surface from Urbiotica which communicate wirelessly using technologies such as LoRaWAN or NB-IoT. Their installation is faster and less invasive: a sensor can be placed in less than 10 minutes, with no piping or drilling in the parking lot. In addition, they require less materials and labor than a wired system.
This type of sensor offers flexibility and scalability. If the layout of parking spaces changes or new ones are added, the sensors are easily moved, added and connected. In addition, they can be integrated into existing hardwired projects, centralizing data from different sectors on a single platform.
Another important benefit is its contribution to the goals of smart building and sustainable mobility. By eliminating the need for cables, pipes and brackets, as well as the energy associated with the installation process, these sensors mean less environmental impact on each project.
When is a wired and when is a wireless system appropriate?
Choosing one system or another will depend on the investment and the characteristics of the project, so expert advice such as that provided by Urbiotica on its products is essential to assess the pros and cons of each alternative.
If we are talking about a project to be built, without construction constraints and with a large budget, both options may be of interest, although if it is a question of adapting an active parking lot, wireless systems offer a more agile, sustainable and cost-effective solution. Installation can be completed in hours or days, not weeks or months as with wired. It is essential to consider maintenance costs and the intent of the project: whether the operational system needs to be up and running in a short time, whether it will remain stable or is intended for long-term expansion.
Since each project has its particularities, technical and strategic advice from experts will help to take into account all related aspects: number and type of spaces, parking structure and layout, possible extensions or reconfigurations, possible combinations of smart devices for better service, integration with third-party systems, coverage analysis, etc.
Flexible and agile installation of wireless sensors in indoor parking garages
In Urbiotica’s case, the planning of the installation of wireless sensors is agile. The placement and calibration of the devices is practically immediate, without the need to execute several phases. It is possible to start with a specific area as a pilot test and expand: new devices are installed and integrated with the existing intelligent system without intervening in the already installed infrastructure.
From there, parking users can easily find free spaces, while parking managers and managers can analyze usage patterns to identify high-occupancy areas, improve vehicle turnover and leverage available resources. Each project is a “tailor-made suit”, not everyone has the same operational needs, and requires a professional approach to ensure its success.
COO of Urbiotica
Specializing in strategy, business development, and product management in B2B technology companies. He leads the strategic direction and operational management of sales, business development, marketing, and product, driving international expansion and innovation in IoT and AI solutions for smart parking management. Under his leadership, Urbiotica has established itself as a global leader in smart parking and connected mobility, helping cities and private spaces optimize mobility, sustainability, and regulatory compliance.
