Tesla Coils
Pathway: Education
Explore the physics behind Tesla coils through hands-on learning and real-world applications. Understand key concepts like resonance, induction, and wireless energy transfer. Discover Tesla's legacy and how his ideas influence modern tech. Brainstorm and develop creative projects that adapt Tesla coil technology.
#electromagnetism#transformers#Electromagnetic_field#High-Frequency_Alternating Current (AC)#Tesla_coil#power_supply#Resonant_Tank Circuit#communication#wireless_power transmission#Modern_applications of tesla coils#Tesla_vs. Edison (AC vs. DC)#EM_Shielding / Faraday Cages#Radio_Frequency (RF) Transmission#Modern_Innovations in Wireless Tech#Arduino_Integration#Energy_Efficiency#Wireless_Energy Transfer#LED_Wireless Lighting#Arduino_EM Field Detector#Plasma_generation

1. Analyze the fundamental principles of Tesla coil operation, including electromagnetism, resonance, and induction.
Learning Targets:
1. Identify and describe key electromagnetic concepts such as alternating current (AC), induction, and the significance of resonance in Tesla coil systems.
2. Critically compare and contrast Tesla's methodologies with contemporary electromagnetism theories including AC vs. DC debates.
3. Examine historical case studies to assess the evolution of Tesla coils and their influence on modern technological applications.
4. Utilize technical literature and scholarly sources to substantiate theoretical knowledge.
Modules
1. Fundamentals of Electromagnetism and Tesla Coil Basics
1. 1. Introduction to Electromagnetism
Learning Outcomes:
1. Define the fundamental principles of electromagnetism.
2. Identify the characteristics of alternating current (AC) and its significance in Tesla coils.
3. Describe the role of electromagnetic fields in energy transmission.
4. Compare theoretical frameworks with experimental observations using basic circuit models.
1. 2. Principles of Induction and Resonance
Learning Outcomes:
1. Explain the process of electromagnetic induction in practical circuits.
2. Demonstrate how resonance is established in Tesla coil systems.
3. Analyze the relationship between coil design and resonant frequencies.
4. Evaluate the impact of resonance on energy transfer efficiency in laboratory settings.
1. 3. Properties of Dielectric and Magnetic Materials
Learning Outcomes:
1. Identify various dielectric and magnetic materials used in coil designs.
2. Analyze material properties that affect electromagnetic behavior.
3. Demonstrate testing methods for assessing material performance.