[Virtual Presenter] Temperature Based Fan Speed Contoller Team Memebers: Jufelson Napucho Reigner Ojmog Avelyn Chawana December 2024. 

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TEAM MEMEBERS:
                  JUFELSON NAPUCHO
                  REIGNER OJMOG
                  AVELYN CHAWANA

[Audio] Background Gaps in Existing Solutions 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. Rationale for Choosing the Project 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.. 

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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] Scope and Delimitation Features Automatic adjustment of fan speed based on ambient temperature. Real time temperature display on an L-C-D-. Compact design using affordable components: Arduino UNO, L298n motor driver, temperature sensor, 600 fan. Limitations Limited to small scale applications (for example, room cooling). Dependent on the accuracy of the temperature sensor. Not compatible with high power fans.. 

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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] Significance of the Study 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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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.

[Audio] Block Diagram. Block Diagram. Output image. 

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Background
 Gaps in Existing Solutions

 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.

 Rationale for Choosing the Project
 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.

avatar

Scope and Delimitation
 Features
 Automatic adjustment of fan speed based on ambient temperature.
  Real time temperature display on an L-C-D-.
  Compact design using affordable components: Arduino UNO, L298n motor driver, temperature sensor, 600 fan.
 Limitations
 Limited to small scale applications (for example, room cooling).
 Dependent on the accuracy of the temperature sensor.
 Not compatible with high power fans.

Significance of the Study
 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.

TEAM MEMEBERS: JUFELSON NAPUCHO REIGNER OJMOG AVELYN CHAWANA