The accuracy of positioning is a problem for location-based applications when using a cheap GPS receiver (GPS). This research, however, provides an alternative literature review on the topic of how to enhance the positioning precision of inexpensive GPS receivers used in real-time navigation. Scientists have developed a method for precisely estimating a vehicle's location based on GPS coordinates (latitude, longitude, time, and velocity) by combining information about the vehicle's heading, its current speed, and the distance between two waypoints. Coordinate translation, as well as checks for invalid data, and utilization of the previously estimated valuable reference point, all contribute to an increase in precision. As such, a GPS simulation can be used to assess the reliability of GPS velocity readings. Thanks to GPS, the researcher can track the driver's location, speed, and acceleration in real time. A driver's propensity for taking chances can be uncovered in a GIS setting. Second, researchers can get high-resolution data on vehicle activity just before an accident, which makes it easier to estimate speeds with less error and bias. In this paper, we present a double-antenna method for improving GPS precision by utilizing both an active antenna and a ground plane antenna. The author has proposed improvement in GPS Receiver Accuracy Using Antenna Optimization Techniques like Ground Plane Enhancement for SNR Improvement along with Sensor Fusion combined with Artificial Intelligence. Sensor Fusion Primarily comprises of 3-Axis Accelerometer With 3-Axis Gyroscope forming an IMU, which along with AI, is used to predict navigation parameters in absence of GPS Signal, and when GPS drop communication with satellite due to any cause, Once GPS signal is lost with any cause then this change in delta latitude and delta longitude will compute by our trained artificial neural network, then according to this interpolation, artificial neural network calculates latitude and longitude.
Read full abstract