[Virtual Presenter] The Temperature-Based Fan Speed Controller project welcomes you to explore its innovative solution, which seeks to transform the way we regulate fan speeds according to ambient temperatures. The project delves into the specifics.. 

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TEAM MEMEBERS:
                  JUFELSON NAPUCHO
                  REIGNER OJMOG
                  AVELYN CHAWANA

[Audio] Traditional fans have operated at a constant speed, regardless of the temperature. This has led to inefficient energy consumption in systems that lack adaptive cooling. Furthermore, manual speed adjustments can be inconvenient and not user-friendly. The existing solutions have gaps in terms of providing efficient and effective approaches to temperature control. Therefore, it was necessary to choose this project to address these gaps and provide a more efficient solution.. 

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Traditional fans operate at a constant speed, regardless of the temperature.
  Inefficient energy consumption in systems lacking adaptive cooling.
  Manual speed adjustments are inconvenient and not user-friendly.

Growing need for energy-efficient solutions in cooling systems.
 Offers an automated and cost-effective approach        to temperature control. Educational value: integrating hardware and software concepts.

[Audio] The Temperature-Based Fan Speed Controller adjusts its fan speed automatically based on the ambient temperature. This means that it can optimize energy efficiency by only consuming power when necessary. Additionally, the controller displays real-time temperature readings on an LCD screen, providing users with valuable information about their environment. The compact design uses affordable components such as the Arduino UNO, L298n motor driver, temperature sensor, and DC fan, making it a cost-effective solution. However, this system has some limitations. It is designed for small-scale applications like room cooling and may not be suitable for larger spaces. Furthermore, the accuracy of the temperature sensor plays a crucial role in the system's performance, and it may not work well if the sensor is faulty. Finally, the system is not compatible with high-power fans, so users should choose fans within its capacity range.. 

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Automatic adjustment of fan speed based on ambient temperature.
  Real-time temperature display on an LCD.
  Compact design using affordable components: Arduino UNO, L298n motor driver, temperature sensor, DC fan.

Limited to small-scale applications (e.g., room cooling).
 Dependent on the accuracy of the temperature sensor.
 Not compatible with high-power fans.

[Audio] Our study's significance lies in reducing unnecessary power consumption through energy efficiency, which minimizes waste by only consuming the necessary amount of power required to maintain a comfortable temperature. Our system also eliminates the need for manual adjustments, making it more convenient for users. Its practical applications include smart home systems, server cooling, and electronics protection. Moreover, this project offers a valuable learning opportunity for those interested in developing their skills in embedded systems and practical problem-solving.. 

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Energy Efficiency: Reduces unnecessary power consumption.
  User Convenience: Eliminates the need for manual adjustments.
 Practical Applications: Useful for smart home systems, server cooling, and electronics protection.
 Learning Opportunity: Encourages development of embedded systems skills and practical problem-solving.

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Traditional fans have operated at a constant speed, regardless of the temperature. This has led to inefficient energy consumption in systems that lack adaptive cooling. Furthermore, manual speed adjustments can be inconvenient and not user friendly. The existing solutions have gaps in terms of providing efficient and effective approaches to temperature control. Therefore, it was necessary to choose this project to address these gaps and provide a more efficient solution.

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The Temperature Based Fan Speed Controller adjusts its fan speed automatically based on the ambient temperature. This means that it can optimize energy efficiency by only consuming power when necessary. Additionally, the controller displays real time temperature readings on an L-C-D screen, providing users with valuable information about their environment. The compact design uses affordable components such as the Arduino UNO, L298n motor driver, temperature sensor, and 600 fan, making it a cost effective solution. However, this system has some limitations. It is designed for small scale applications like room cooling and may not be suitable for larger spaces. Furthermore, the accuracy of the temperature sensor plays a crucial role in the system's performance, and it may not work well if the sensor is faulty. Finally, the system is not compatible with high power fans, so users should choose fans within its capacity range.

Our study's significance lies in reducing unnecessary power consumption through energy efficiency, which minimizes waste by only consuming the necessary amount of power required to maintain a comfortable temperature. Our system also eliminates the need for manual adjustments, making it more convenient for users. Its practical applications include smart home systems, server cooling, and electronics protection. Moreover, this project offers a valuable learning opportunity for those interested in developing their skills in embedded systems and practical problem solving.

TEAM MEMEBERS: JUFELSON NAPUCHO REIGNER OJMOG AVELYN CHAWANA