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there are 3 types of radiation

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Beta is both pos/neg

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Gamma is like x rays and is hard to stop

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beta decay can have a positive or negative charge

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Alpha decay is very weak

Beta decay has no mass

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Beta decay would be stopped by aluminum

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Beta decay has negative charge

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Alpha decay can’t even move through paper it’s very weak

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Gamma decay has no charge

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Alpha decay is positive

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Alpha decay is the weakest, beta is second

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Alpha decay is weak and can’t move through paper

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Alpha decay can’t move through a piece of paper

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Gamma decay has no charge

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Alpha decay is basically helium

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Gamma has no charge

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Beta decay in negative

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Gamma decay has no charge

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Gamma doesn’t have a charge

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Gamma decay has no charge

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Beta decay has a negative charge, will be drawn towards positive

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Beta decay has a negative charge

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Beta decay has a negative charge

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Gamma radiation doesn’t have a charge

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Alpha decay is positive

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Alaina has a positive charge so it’s drawn towards a negative

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Beta decay has a negative charge

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Beta decay has negative charge

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alpha decay has a positive charge and beta decay has a negative charge and gamma has no charge

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gamma radiation has no charge

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Beta decay has a negative charge

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The three types of decay have different charges

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Alpha decay has a positive charge, will be drawn towards negative

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Beta decay has a negative charge

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Alpha decay has positive charge

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Alpha decay is pos charge

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Alpha decay has a positive charge

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Alpha decay has a positive charge

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Alpha decay has a positive charge

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alpha decay has a positive charge

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Alpha decay has positive charge

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Alpha decay has a positive charge

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Alpha decay has a positive charge

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atoms will decay unless have good number of protons or neutrons

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There is beta plus and minus decay

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Radiation has one spot where the particles come out

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Not all particles have a charge

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farther i go up the more neutrons there arw

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Alpha decay is a type/way of decay

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radiation will show up when projected through a tunnel

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There’s both beta plus and beta minus decay

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There is beta plus and minus decay

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Radiation is attempt to correct the number of protons and neutrons

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All types of radiation are there to help reach the perfect ratio of protons to neutrons

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you can have both beta plus and beta minus decay

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Atoms use radiation to get back to an equal state

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An atom will always try to get back to its perfect ratio

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The different types of radiation is to get the perfect number of protons

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Strong force holds nuclei together

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Beta decay is a way of decay

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Radiation can track how old the earth is, neon has 10 protons and 10 neutrons, uranium has more neutrons than protons, strong nuclear force holds nucleus together, protons are positive, uranium needs a lot of neutrons to hold together, the further you go up the more neutrons on a graph, if an atom exists on either side of the graph it varies in order to get the perfect amount of protons and neutrons.

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A atom exists on the perfect line it wants to get back to the perfect ratio of neutrons and protons

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there are different types of decay based on the number of protons and neutrons in the nucleus

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Left of graph is beta minus decay and right is beta plus decay 

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Left of graph is beta minus decay and right is beta plus decay 

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Kylie

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neon has 10 protons and 10 neutrons

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Alpha decay is a way of decay

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you can have a beta plus and beta minus decay

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Beta plus decay is left side of line

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the farther we go up the chart the more Neutrons ans protons

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Bottom is beta plus decay

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Atoms will decay until they get a good number of protons and neutrons

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Perfect is 126 neutrons

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Atoms get rid of protons or neutrons to reach a stable state

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Protons and neutrons will change to become stable again

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There is a perfect ratio of neutrons to protons

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Uranium has 92 protons in the center

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If an atom exist on either side of the line then there is an imperfect ratio of protons to neutrons

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strong force holds nuclei togetehr

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The graph of neutron compared to protons starts to drift to the left after a while

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The more protons there is the more neutrons are needed for stability

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Perfect number of nutrons is 126

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Strong force cannot hold larger nuclei together without extra neutrons

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need a lot of neutrons to hold protons

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The strong force holds the nucleus together

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Perfect is 126 neutrons

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Uranioum has 92 protons

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Perfect number of neutrons is 126

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We get more neutrons the farther we go up

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The farther you go up the more nutrons you get

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The strong force holds the nucleus together

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The nucleus is held together from the neutrons surplus that prevent the protons from shooting away

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uranium has 92 protons

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Uranium has 92 neutrons being held together by strong nuclear force

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neutrons are needed more and more as the number of protons increases because the strong force can’t hold the nucleus together

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Seaborg found the most elements

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if there’s a lot of protons you need lots of neutrons to hold it together

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Top is number of protons

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Uranium has 92 protons in the center so there has to be a ton of neutrons to keep it stable

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radiation is everywhere