Why Don't We Feel a Shock from Sunlight's Electric Field of 860V/m?

In summary, electric field and sunlight are two interconnected phenomena that play a crucial role in our daily lives. Electric fields are created by charged particles and can be either positive or negative, depending on their direction. These fields are responsible for producing the attractive or repulsive forces between charged objects, and can also induce electric currents. Sunlight, on the other hand, is a form of electromagnetic radiation that is emitted by the Sun and contains a wide range of wavelengths. It provides the Earth with energy, sustains life on our planet, and is the main source of vitamin D. Moreover, sunlight also generates electric fields through the photoelectric effect, where photons of light strike a material and cause electrons to be emitted. This phenomenon is utilized in solar
  • #1
phy
Lol I hope this doesn't sound like a stupid question.

If the electric field of sunlight is 860V/m, why don't we pick up a shock?
 
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  • #2
After 55 posts, you should know better than to double post. Please respect the rules of the forum.
 
  • #3
I'm sorry. I just needed to know that for my midterm and I couldn't find it anywhere in my textbook or online
 

FAQ: Why Don't We Feel a Shock from Sunlight's Electric Field of 860V/m?

What is an electric field?

An electric field is a physical quantity that describes the intensity and direction of the force exerted on an electrically charged object. It is created by the presence of an electric charge and can be visualized as lines of force extending from positive to negative charges.

How does sunlight interact with electric fields?

Sunlight is a form of electromagnetic radiation that can interact with electric fields. When sunlight enters an electric field, it can either be absorbed, transmitted, or reflected depending on the properties of the material and the wavelength of the light.

Can electric fields affect the properties of sunlight?

Yes, electric fields can affect the properties of sunlight. For example, an electric field can cause the polarization of sunlight, which is the alignment of its electric field in a particular direction. This can have implications for the way sunlight is absorbed and scattered by different materials.

What are the applications of studying electric fields and sunlight?

Studying electric fields and sunlight has many practical applications. It can help us understand the behavior of solar panels and other photovoltaic devices, as well as the transmission and reflection of sunlight in materials like glass and water. It can also aid in the development of new technologies for harnessing solar energy and improving the efficiency of electronic devices.

How do electric fields and sunlight play a role in weather and climate?

The Earth's atmosphere contains electric fields that can influence the movement and behavior of particles and gases. Sunlight also plays a critical role in weather and climate as it provides the energy that drives atmospheric processes. Understanding the interaction between electric fields and sunlight is important for predicting and studying weather patterns and climate change.

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