Indoor GPS Solution

Indoor GPS is a system that measures the location of objects moving indoors. It allows real-time tracking of the positions of people and objects. GPS is primarily used outdoors and relies on satellite signals for accurate location determination. However, indoors, GPS signals often weaken or get blocked, making precise indoor tracking challenging.

To overcome these limitations, indoor GPS utilizes various technologies. One of the key technologies is Ultra-Wideband (UWB) technology. UWB uses a very wide bandwidth for precise location measurement in indoor environments. It can provide accurate location data within buildings using UWB tags and receivers. Additionally, AI (Artificial Intelligence) cameras can be used to recognize objects indoors and perform location tracking based on that information. AI cameras analyze images or videos to identify objects and their positions.

Ultra-Wideband (UWB) technology is a key technology used for implementing indoor GPS. UWB uses an extremely wide bandwidth to generate a large number of signals in a very short time. This wide bandwidth enables precise time and distance measurements, which are essential for accurate indoor location tracking. Here are the main features of UWB technology and its implementation for indoor GPS:

AI cameras are camera systems that use artificial intelligence technology to analyze image data and perform various tasks based on that analysis. The operation of AI cameras involves the following steps:

There are several important differences between indoor GPS and conventional GPS (outdoor GPS). These differences stem from the fact that GPS systems are primarily optimized for outdoor use, making accurate indoor tracking challenging. Here are the key differences between indoor GPS and conventional GPS:

Indoor GPS technology is utilized in various application areas, enhancing convenience and efficiency. Users can obtain accurate location information even within buildings, improving the convenience and efficiency of related services and applications.

When consumers visit shopping malls, they can use smartphone apps with indoor GPS to find the real-time locations of desired products. This allows consumers to quickly locate the products they want, enhancing their shopping experience, and improving store efficiency.

Hospitals can use indoor GPS to track the real-time locations of patients, ensuring the safety of medical staff and patients. For example, medical staff can quickly locate patients and respond to emergencies.

Large-scale airports utilize indoor GPS to help passengers easily find gates, restaurants, shops, and more. Passengers can use smartphone apps to locate themselves within the airport and access the information they need.

Indoor GPS enables precise tracking of the locations of robots and automation equipment. This optimization of production processes enhances operational efficiency.

Indoor navigation within buildings is useful in places like museums, universities, and complex facilities. Visitors can easily find their destinations within the building, making it easier to explore tourist attractions or educational facilities.

Indoor GPS is used to identify vacant parking spaces within parking lots and guide drivers to available spots. This reduces parking times and improves parking lot efficiency.

Indoor GPS is a technology for accurately tracking locations within buildings, utilizing technologies such as UWB and AI cameras. It enhances convenience and efficiency in various use cases, including tracking product locations in shopping malls, tracking patient locations in hospitals, passenger guidance in airports, automation and robot control in factories, indoor navigation, and car parking management. However, there are differences between indoor GPS and conventional GPS in terms of signal strength and obstruction, satellite signal reception, accuracy, and correction technologies. Indoor GPS is primarily specialized for indoor location tracking.