SENSORS and MODULES | Quizalize

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SENSORS and MODULES | Quizalize

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SENSORS and MODULES

Quiz by Marvin Joseph Fernandez

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Q 1/10
Score 0
Identify the Sensor below
15
Flame Sensor
Electric Bulb
Light Emitting Diode
Infrared Sensor
Q 2/10
Score 0
Identify this sensor
15
Ultrasonic Sensor
Infrared Sensor
Flame Sensor
PIR Sensor

10 questions

Q.

Identify the Sensor below

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1

15 sec

Q.

Identify this sensor

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2

15 sec

Q.

Identify this sensor.

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3

15 sec

Q.

Identify what sensor is being shown.

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4

15 sec

Q.

Identify the electronic device as shown in this picture.

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5

15 sec

Q.

Identify what module is being shown in the picture.

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6

15 sec

Q.

Identify the sensor as being shown in the picture.

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7

15 sec

Q.

Identify the module as being shown in the picture

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8

15 sec

Q.

Identify the module as being shown in the picture.

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9

15 sec

Q.

Identify the module as being shown in the picture.

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10

15 sec

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Common On-Chip Peripherals: Serial Communication Interfaces: UART (Universal Asynchronous Receiver/Transmitter): Enables serial communication for data transmission and reception. SPI (Serial Peripheral Interface): Facilitates fast, synchronous serial communication with external devices. I2C (Inter-Integrated Circuit): Another common protocol for serial communication, often used for connecting sensors and other peripherals. Timers and Counters: General Purpose Timers: Used for generating precise time delays and measuring intervals. Real-Time Clock (RTC): Keeps track of time even when the DSP is in a low-power state. Watchdog Timer: Monitors the DSP's operation and resets it if it detects a fault. Interrupt Controllers: Interrupts: Allow peripherals to signal the DSP when an event occurs, enabling efficient and responsive system operation. Memory Management: DMA (Direct Memory Access): Enables data transfer between memory and peripherals without CPU intervention, improving efficiency. On-Chip Memory: Includes RAM, ROM, and flash memory for storing data and code. Audio/Video Interfaces: DAC (Digital-to-Analog Converter): Converts digital signals to analog signals for audio output. ADC (Analog-to-Digital Converter): Converts analog signals to digital signals for processing. I/O Ports: GPIO (General Purpose Input/Output): Provides flexible control over external devices. Ethernet MAC (Media Access Controller): Enables network connectivity. Other Peripherals: LCD Controller: For displaying information on LCD screens. USB Interface: For connecting to USB devices. CAN (Controller Area Network): For communication in automotive and industrial applications.
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Introduction – Evolution of IoT ––IoT Definition – Elements of an IoT ecosystem Roles of Sensors & Actuators – Types of sensors –Working of Sensors – Development boards – Arduino – Raspberry pi – Beagle bone – ESP8266 – Interfacing of sensors with development boards – IoT Networking Components – Addressing Strategies in IoT – Trends and implications – Operating System for IoT – Industrial IoT – IoT applications
A real-world example of a control system – growing crops A farm that grows fruit and vegetables makes use of many different control systems. It relies on these systems to make sure that the produce it grows are kept in the correct conditions to make sure that they do grow. It would be a huge task for a farmer to constantly check his produce, so he relies on these systems to do this for him. One control system that he could use is to control the conditions within his greenhouses. The correct level of light and temperature will need to be maintained. The control systems will incorporate light sensors, temperature sensors, microprocessors and actuators to maintain the correct conditions. The farmer wants to make sure the temperature is between 22 °C and 25 °C. 1The control system uses a temperature sensor to read the temperature within the greenhouse on a regular basis. 2The readings are sent to a microprocessor. They will need to be converted from analogue data to digital data to be processed by the microprocessor. 3The microprocessor compares the reading to the set range. 4If the reading is within the range, no further action is taken. 5If the reading is greater than 25 °C, the microprocessor sends a signal to an actuator that could drive an action, such as open a window to the greenhouse. 6If the reading is less than 22 °C, the microprocessor sends a signal to an actuator that could drive an action, such as turn on a heater in the greenhouse. 7The whole process is repeated.