In this project, you are required to design a digital parking garage control system. The system has 2 optoelectronic sensors (e.g ultrasonic sensors), where one sensor detects the entering cars, while the other sensor detects the exiting ones. There are 30 available spaces in the garage and the gate (bar) should close when the capacity is full. The number of cars inside the garage is displayed on the 7-segment display. Your system indicates whether cars can enter or leave the garage, based on the following: 1. When there are less than 30 cars inside the garage, the gate is open and cars can enter and leave. 2. When there are exactly 30 cars inside the garage, the gate is closed and cars can only leave. There are 3 LEDs that indicate the outputs of the system. The first LED turns on for 5s if a car is detected entering the garage. Similarly, the second LED turns on for 5s if a car is detected leaving the garage. Lastly, the third LED is on if the capacity is full (FULL indication). Entrance Sensor Exit Sensor Parking Garage Control Figure 1: System overview. Entrance Gate (Entering Car Detected) Exit Gate (Leaving Car Detected) FULL indication You are required to design the system and write the VHDL code representing your solution. The design must be implemented using combinational/sequential circuits building blocks not using only AOI logic (logic gates). The system should be tested on the Quartus II Waveform Simulator. For the project report, kindly utilize the template provided online. Kindly follow the sections mentioned in the project report guidelines. Make sure you include a discussion on the motivation for the project. The system should be tested on the Altera board available in the lab. For the project report. kindly utilize the template provided online. Kindly follow the sections mentioned in the project report guidelines. Make sure you include a discussion on the motivation for the project. 1. The maximum number of cars accepted is 30. 2. The entrance and exit of cars are detected by the installed ultrasonic sensors (entrance and exit sensors) at the gate. 3. The design has to have the lowest implementation cost while achieving the required functionality of the system and must be implemented using combinational/sequential circuits building blocks. 4. The system should be implemented using QuartusII software and tested on the ALTERA board for the real-time demonstration of working system. For any technical assistance, you may contact your assigned TA. The deadline of the project report and the details of the demo will be posted on blackboard soon. Stay tuned!