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The measure of current

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How did your experiment contribute to your understanding of resistance?

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Can you see what the equation R = V / I tells you about Resistance?

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How did you use your knowledge of electricity to create your project?

What did you learn through the process?

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What is a parallel circuit?

How does current behave in a parallel circuit?

How does voltage remain constant in a parallel circuit?

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How does the flow of water in a pipe relate to the flow of charge in a circuit?

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What is a series circuit?

How does current behave in a series circuit (constant)?

How is voltage divided in a series circuit?

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How does voltage affect the amount of work electricity can do? *Remember work is a way of saying how much energy can be used to do somerthing.

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How can we use the Hill & Well analogy to understand the behavior of charged objects?

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How does understanding charge help explain static electricity?

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What is resistance?

How does it affect current flow?

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How does the behaviour of current and voltage differ between series and parallel circuits?

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What is current?

How does it relate to moving charge?

What does the equation Q = I  t tell you?

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How can we predict the behavior of current and voltage in series circuits using equations and the analogy?

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What is voltage?

How does it relate to the potential difference between two points in a field?

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What is an electric field?

How does it relate to charge?

What is the "hill and water reservoir" analogy?

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Connection: Lightning is a super charged form of static electricity.

Def: "the occurrence of a natural electrical discharge of very short duration and high voltage between a cloud and the ground or within a cloud, accompanied by a bright flash and typically also thunder."

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Metallic bonding (the chemical bonding in metals) is also known as a conductor because in metallic bonding there is a constant movement of electrons from one place to another, and when put in an insulator, like rubber, you can make electrons move through the metals to make electricity in certain places (lightbulbs, TVs, etc)

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The movement of electrons/the flow of a charge

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The way that certain elements are held together with one another (chemical)

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Negative: The negative charge always has a charge in negative numbers (-3049, -0.0001) and the voltage when right on the negative charge is (not including the inconceivable numbers) in around the -3000s, and the drastically increases to about the -600 even if just moved 0.00001 millimetres.

Positive: The positive charge always has a charge in positive numbers (3049, 0.0001) and the voltage when right on the positive charge is (not including the inconceivable numbers) in around the 3000s, and the drastically decreases to about the 600 even if just moved 0.00001 millimetres.

Neutral: The state in which there is an EXACTLY even amount of positive and negative charges.

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the amount of energy per charge/the strength of an electric field

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The movement of electrons (charges) between two static (unmoving) objects. Can occurs when you rub a ballon on your hair or rub your (socked) feet on a carpet and then touch something metal.

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The inverse square law equation. As distance increases by xr, the surface area increases by r^2, but the strength of the field stays the same, so the amount of charge volts per one section of increased surface area either increases or decreases, depending on in the charge is negative (increases) or positive (decreases).

https://www.youtube.com/watch?v=1UqdNb586CEhttps://www.youtube.com/watch?v=1UqdNb586CE

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"the amount of energy or electrons that pass from one body to another by different modes like conduction, induction or other specific methods"

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flow (or rate) of electrons

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Voltage is the amount of strength in an electric field, and it tells us the potential difference because it gives us the strength of two points in a field, which we can then subtract from one another to find the potential difference.

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Invisible area around a negative or positive charge that can feel the force of the charge (the further from the charge we get, the weaker the voltage is)

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Voltage: Current (multiplied by) Resistance

V = IxR

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1. Current is basically the movement of electricity through wires

2. Since charge is the energy passed between electrons, and current is the movement of electrons, the both relate to the movement involving electrons

3. The equation Q = IxT is the equation for charge, which is current times time.

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I = Current (amperes (A))

Q = Charge (coulombs (C))

t = Time (seconds (s))

I = Q/t

V = Voltage

R = Resistance

I = V/R