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I am a Deviously Deviant
FrostCadaver
18/Female/United States
Why I Am Here
No reason given yet
Last Visit: 57 weeks ago
Kay
Art Zone
Personal Zone
Misc. Zone
This is the place where you can personalize your profile!
But, how?
By moving, adding and personalizing widgets.
You can drag and drop to rearrange.
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Certain widgets can only be added to certain zones.
"Why," you ask? Because we want profile pages to have freedom of customization, but also to have some consistency. This way, when anyone visits a deviant, they know they can always find the art in the top left, and personal info in the top right.
Don't forget, restraints can bring out the creativity in you!
Now go forth and astound us all with your devious profiles!
So I am moving some of my pieces here (www.kaywalt.deviantart.com) to use the site as a portfolio for jobs/colelge apps. Also thinking of putting up a few prints. We'll see.
Theory:
Newton’s second law states that Force equals mass times acceleration, or F=MA. By using this formula, we will be able to determine the mass of our system. By using a motion sensor and LoggerPro software to make a graph of the system’s velocity, we will be able to obtain one of our variables (acceleration) by taking the slope of the graph. By comparing the slope of the velocity graph to the slope of a graph where our force (hanging weight) is on the y-axis and acceleration (slope of velocity graphs) is on the x-axis, we will be able to find mass by finding the slope of the plotted points. Note that the line in this equation will go through the origin because our system starts at zero acceleration.
The setup is as follows:
F=MA
Y=MX
If we compare acceleration to X and F to Y, that leaves the slope pairing up with mass. So we come to the conclusion that the value of the slope of the line on our acceleration/force graph will equal the mass of our system.
Procedure:
First we selected our cart and 5 weights to use with it, which is the “system” I’ve been referring to. We clamped a pulley to the side of the lab table and then attached yarn to the cart and to one of the weights and hung it over the edge of the table and through the track on the pulley. We used a motion sensor and LoggerPro software on a laptop to obtain our velocity graph. I started the motion sensor and SarahBell released the hanging weight, which pulled the cart across the lab table (and sometimes onto the floor…). We repeated this 5 more times, using different combinations of our 5 weights. At the end of each trial, we stopped the motion sensor and highlighted the part of our graph that represented the cart’s acceleration across the lab table and toward the hanging weight. LoggerPro then calculated the slope of that section of the graph. Because it was a velocity graph, the slope of that section represented the acceleration of the cart.
your gallery is wonderful
you pencil work is very nice and you abstract and gallaxy pics were very cool
your use of the color blue a lot is nice, a good color
keep up the great work ^^
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White Dragon
"I wanna live, I wanna experience the Universe and I wanna eat pie!"
Newton’s second law states that Force equals mass times acceleration, or F=MA. By using this formula, we will be able to determine the mass of our system. By using a motion sensor and LoggerPro software to make a graph of the system’s velocity, we will be able to obtain one of our variables (acceleration) by taking the slope of the graph. By comparing the slope of the velocity graph to the slope of a graph where our force (hanging weight) is on the y-axis and acceleration (slope of velocity graphs) is on the x-axis, we will be able to find mass by finding the slope of the plotted points. Note that the line in this equation will go through the origin because our system starts at zero acceleration.
The setup is as follows:
F=MA
Y=MX
If we compare acceleration to X and F to Y, that leaves the slope pairing up with mass. So we come to the conclusion that the value of the slope of the line on our acceleration/force graph will equal the mass of our system.
Procedure:
First we selected our cart and 5 weights to use with it, which is the “system” I’ve been referring to. We clamped a pulley to the side of the lab table and then attached yarn to the cart and to one of the weights and hung it over the edge of the table and through the track on the pulley. We used a motion sensor and LoggerPro software on a laptop to obtain our velocity graph. I started the motion sensor and SarahBell released the hanging weight, which pulled the cart across the lab table (and sometimes onto the floor…). We repeated this 5 more times, using different combinations of our 5 weights. At the end of each trial, we stopped the motion sensor and highlighted the part of our graph that represented the cart’s acceleration across the lab table and toward the hanging weight. LoggerPro then calculated the slope of that section of the graph. Because it was a velocity graph, the slope of that section represented the acceleration of the cart.
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Fear nothing.
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Fantasy digital art ~Elizavet
you pencil work is very nice and you abstract and gallaxy pics were very cool
your use of the color blue a lot is nice, a good color
keep up the great work ^^
--
[link]
The beginning of eternity,
the end of time and space,
the beginning of every end,
and the end of every place.
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