Is there a character limit to comments??
I'm trying to post a tutorial, but it's pretty long, and when I paste it it leaves out stuff..at first I thought it was the LaTeX, but when I removed it, it still did the same thing.
Here it is:
Someone else try to post it..I wanna see if it'll mess up on other people's computers too.
\(\huge\bf Types~of~Slope:\) \(\bf\small Positive~Slope:\) Positive slope rises from LEFT to RIGHT. Example: |dw:1415020076044:dw| \(\bf\small Negative~Slope:\) Negative slope declines from LEFT to RIGHT. Example: |dw:1415020134134:dw| \(\bf\small No~ Slope:\) Lines with no slope are horizontal, and parallel to the x-axis. Example: |dw:1415020208688:dw| \(\bf\small Undefined~Slope:\) Lines with undefined slope are vertical, and parallel to the y-axis. Example: |dw:1415020282978:dw| \(\huge\bf Finding~Slope:\) There are 3 different ways to find slope. \(\bf Equations:\) Some equations just give you the slope, for example: \(\bf\small Slope-intercept~form:\) \(y = \color{lime}mx + \color{blue}b\) Where \(\color{lime}m\) = slope, and \(\color{blue}b\) = y-intercept. So if we have: \(y = \color{lime}2x + \color{blue}5\) Our slope will be \(\color{lime}2\). \(\bf\small Point-Slope~form:\) \(y - \color{blue}{y_1} = \color{lime}{m}(x -\color{yellow}{ x_1})\) Where \(\color{lime}m\) = slope, \(\color{blue}{y_1}\) = y-value on the line, and \(\color{yellow}{x_1}\) = x-value on the line. So if we have: \(y - \color{blue}5 = \color{lime}5(x - \color{red}2)\) Our slope will be \(\color{blue}5\). But some equations like: \(\bf\small Standard~form:\) \(Ax + By = C\) To find the slope of the equation, we have to rearrange it into slope-intercept form(\(y = \color{lime}mx + \color{blue}b\)). So if we have: \(2x + 3y = 6\) First, we subtract 2x to both sides: \(3y = -2x + 6\) Now we divide 3 to all terms: \(y = \color{lime}{-\dfrac{2}{3}}x + \color{blue}2\) Now we can see that the slope of the equation is \(\color{lime}{-\dfrac{2}{3}}\), and the y-intercept is \(\color{blue}2\). \(\bf Graph:\) Slope is also defined as: \(\dfrac{Rise}{Run}\). We can see this on graphs of lines. Rise: Rise represents the numerator of the slope(ex: In \(m = \dfrac{1}{2}\) 1 is the rise). Rise can be either going up or down, where up brings a positive number and down brings a negative. Run: Run represents the denominator of the slope(ex: In \(m = -\dfrac{4}{5}\) -5 is the run). Graph example: |dw:1415019479723:dw| We can see that the rise here is \(2\), and the run is \(1\), that means the slope will be \(\dfrac{2}{1}\) which simplifies to \(2\). \(\bf Formula:\) The formula for slope is \(m = \dfrac{y_2-y_1}{x_2-x_1}\). This formula is mostly used to find the slope between two points(ex: (2, 3) and (5, 8)). But it can also be used to find the slope on a graph, where we can just take two points from that graph and plug them in. If we are given: \((\color{red}5,\color{lime} 6)\) and \((\color{yellow}8, \color{blue}{12})\) ^ ^ = \(\color{lime}{y_1}\) ^ ^ = \(\color{blue}{y_2}\) | = \(\color{red}{x_1}\) | = \(\color{yellow}{x_2}\) Plug them into the slope equation: \(m = \dfrac{\color{blue}{y_2}-\color{lime}{y_1}}{\color{yellow}{x_2}-\color{red}{x_1}}\) \(m = \dfrac{\color{blue}{12}-\color{lime}6}{\color{yellow}8-\color{red}5}\) Subtract the terms in the numerator and the denominator: \(m = \dfrac{6}{3}\) Simplify by dividing: \(m = 2\) Therefore the slope between \((5, 6)\) and \((8, 12)\) is \(\color{red}2\).
Yup, it failed ^^
I dunno.. Sometimes it lets me do 600 characters when posting a question
\(\huge\bf Types~of~Slope:\) \(\bf\small Positive~Slope:\) Positive slope rises from LEFT to RIGHT. Example: |dw:1415020076044:dw| \(\bf\small Negative~Slope:\) Negative slope declines from LEFT to RIGHT. Example: |dw:1415020134134:dw| \(\bf\small No~ Slope:\) Lines with no slope are horizontal, and parallel to the x-axis. Example: |dw:1415020208688:dw| \(\bf\small Undefined~Slope:\) Lines with undefined slope are vertical, and parallel to the y-axis. Example: |dw:1415020282978:dw| \(\huge\bf Finding~Slope:\) There are 3 different ways to find slope. \(\bf Equations:\) Some equations just give you the slope, for example: \(\bf\small Slope-intercept~form:\) \(y = \color{lime}mx + \color{blue}b\) Where \(\color{lime}m\) = slope, and \(\color{blue}b\) = y-intercept. So if we have: \(y = \color{lime}2x + \color{blue}5\) Our slope will be \(\color{lime}2\). \(\bf\small Point-Slope~form:\) \(y - \color{blue}{y_1} = \color{lime}{m}(x -\color{yellow}{ x_1})\) Where \(\color{lime}m\) = slope, \(\color{blue}{y_1}\) = y-value on the line, and \(\color{yellow}{x_1}\) = x-value on the line. So if we have: \(y - \color{blue}5 = \color{lime}5(x - \color{red}2)\) Our slope will be \(\color{blue}5\). But some equations like: \(\bf\small Standard~form:\) \(Ax + By = C\) To find the slope of the equation, we have to rearrange it into slope-intercept form(\(y = \color{lime}mx + \color{blue}b\)). So if we have: \(2x + 3y = 6\) First, we subtract 2x to both sides: \(3y = -2x + 6\) Now we divide 3 to all terms: \(y = \color{lime}{-\dfrac{2}{3}}x + \color{blue}2\) Now we can see that the slope of the equation is \(\color{lime}{-\dfrac{2}{3}}\), and the y-intercept is \(\color{blue}2\). \(\bf Graph:\) Slope is also defined as: \(\dfrac{Rise}{Run}\). We can see this on graphs of lines. Rise: Rise represents the numerator of the slope(ex: In \(m = \dfrac{1}{2}\) 1 is the rise). Rise can be either going up or down, where up brings a positive number and down brings a negative. Run: Run represents the denominator of the slope(ex: In \(m = -\dfrac{4}{5}\) -5 is the run). Graph example: |dw:1415019479723:dw| We can see that the rise here is \(2\), and the run is \(1\), that means the slope will be \(\dfrac{2}{1}\) which simplifies to \(2\). \(\bf Formula:\) The formula for slope is \(m = \dfrac{y_2-y_1}{x_2-x_1}\). This formula is mostly used to find the slope between two points(ex: (2, 3) and (5, 8)). But it can also be used to find the slope on a graph, where we can just take two points from that graph and plug them in. If we are given: \((\color{red}5,\color{lime} 6)\) and \((\color{yellow}8, \color{blue}{12})\) ^ ^ = \(\color{lime}{y_1}\) ^ ^ = \(\color{blue}{y_2}\) | = \(\color{red}{x_1}\) | = \(\color{yellow}{x_2}\) Plug them into the slope equation: \(m = \dfrac{\color{blue}{y_2}-\color{lime}{y_1}}{\color{yellow}{x_2}-\color{red}{x_1}}\) \(m = \dfrac{\color{blue}{12}-\color{lime}6}{\color{yellow}8-\color{red}5}\) Subtract the terms in the numerator and the denominator: \(m = \dfrac{6}{3}\) Simplify by dividing: \(m = 2\) Therefore the slope between \((5, 6)\) and \((8, 12)\) is \(\color{red}2\).
Ah the "Types of Slopes' is gone
Yep.
you guys suck!!!!!!
.........
\(\bf\small Positive~Slope:\) Positive slope rises from LEFT to RIGHT. Example: |dw:1415020076044:dw| \(\bf\small Negative~Slope:\) Negative slope declines from LEFT to RIGHT. Example: |dw:1415020134134:dw| \(\bf\small No~ Slope:\) Lines with no slope are horizontal, and parallel to the x-axis. Example: |dw:1415020208688:dw| \(\bf\small Undefined~Slope:\) Lines with undefined slope are vertical, and parallel to the y-axis. Example: |dw:1415020282978:dw| There are 3 different ways to find slope. \(\bf Equations:\) Some equations just give you the slope, for example: \(\bf\small Slope-intercept~form:\) \(y = \color{lime}mx + \color{blue}b\) Where \(\color{lime}m\) = slope, and \(\color{blue}b\) = y-intercept. So if we have: \(y = \color{lime}2x + \color{blue}5\) Our slope will be \(\color{lime}2\). \(\bf\small Point-Slope~form:\) \(y - \color{blue}{y_1} = \color{lime}{m}(x -\color{yellow}{ x_1})\) Where \(\color{lime}m\) = slope, \(\color{blue}{y_1}\) = y-value on the line, and \(\color{yellow}{x_1}\) = x-value on the line. So if we have: \(y - \color{blue}5 = \color{lime}5(x - \color{red}2)\) Our slope will be \(\color{blue}5\). But some equations like: \(\bf\small Standard~form:\) \(Ax + By = C\) To find the slope of the equation, we have to rearrange it into slope-intercept form(\(y = \color{lime}mx + \color{blue}b\)). So if we have: \(2x + 3y = 6\) First, we subtract 2x to both sides: \(3y = -2x + 6\) Now we divide 3 to all terms: \(y = \color{lime}{-\dfrac{2}{3}}x + \color{blue}2\) Now we can see that the slope of the equation is \(\color{lime}{-\dfrac{2}{3}}\), and the y-intercept is \(\color{blue}2\). \(\bf Graph:\) Slope is also defined as: \(\dfrac{Rise}{Run}\). We can see this on graphs of lines. Rise: Rise represents the numerator of the slope(ex: In \(m = \dfrac{1}{2}\) 1 is the rise). Rise can be either going up or down, where up brings a positive number and down brings a negative. Run: Run represents the denominator of the slope(ex: In \(m = -\dfrac{4}{5}\) -5 is the run). Graph example: |dw:1415019479723:dw| We can see that the rise here is \(2\), and the run is \(1\), that means the slope will be \(\dfrac{2}{1}\) which simplifies to \(2\). \(\bf Formula:\) The formula for slope is \(m = \dfrac{y_2-y_1}{x_2-x_1}\). This formula is mostly used to find the slope between two points(ex: (2, 3) and (5, 8)). But it can also be used to find the slope on a graph, where we can just take two points from that graph and plug them in. If we are given: \((\color{red}5,\color{lime} 6)\) and \((\color{yellow}8, \color{blue}{12})\) ^ ^ = \(\color{lime}{y_1}\) ^ ^ = \(\color{blue}{y_2}\) | = \(\color{red}{x_1}\) | = \(\color{yellow}{x_2}\) Plug them into the slope equation: \(m = \dfrac{\color{blue}{y_2}-\color{lime}{y_1}}{\color{yellow}{x_2}-\color{red}{x_1}}\) \(m = \dfrac{\color{blue}{12}-\color{lime}6}{\color{yellow}8-\color{red}5}\) Subtract the terms in the numerator and the denominator: \(m = \dfrac{6}{3}\) Simplify by dividing: \(m = 2\) Therefore the slope between \((5, 6)\) and \((8, 12)\) is \(\color{red}2\).
And when you try to post the 'Types of Slope' section, it just posts a blank space..
no one ever helps me with my ?'s but u help everyone elses I've tried 4 a week now and no one has answered my ? I thought u guys said u helped everyone but u r helping everyone except me!!!!!!!!!
o already closed my ? so now it's 2 late 2 answer it thanks guys 4 your help your really thoughtful not.
\(\huge\bf Types~of~Slope:\) \(\bf\small Positive~Slope:\) Positive slope rises from LEFT to RIGHT. \(\bf\small Negative~Slope:\) Negative slope declines from LEFT to RIGHT. \(\bf\small No~ Slope:\) Lines with no slope are horizontal, and parallel to the x-axis. \(\bf\small Undefined~Slope:\) Lines with undefined slope are vertical, and parallel to the y-axis. \(\huge\bf Finding~Slope:\) There are 3 different ways to find slope. \(\bf Equations:\) Some equations just give you the slope, for example: \(\bf\small Slope-intercept~form:\) \(y = \color{lime}mx + \color{blue}b\) Where \(\color{lime}m\) = slope, and \(\color{blue}b\) = y-intercept. So if we have: \(y = \color{lime}2x + \color{blue}5\) Our slope will be \(\color{lime}2\). \(\bf\small Point-Slope~form:\) \(y - \color{blue}{y_1} = \color{lime}{m}(x -\color{yellow}{ x_1})\) Where \(\color{lime}m\) = slope, \(\color{blue}{y_1}\) = y-value on the line, and \(\color{yellow}{x_1}\) = x-value on the line. So if we have: \(y - \color{blue}5 = \color{lime}5(x - \color{red}2)\) Our slope will be \(\color{blue}5\). But some equations like: \(\bf\small Standard~form:\) \(Ax + By = C\) To find the slope of the equation, we have to rearrange it into slope-intercept form(\(y = \color{lime}mx + \color{blue}b\)). So if we have: \(2x + 3y = 6\) First, we subtract 2x to both sides: \(3y = -2x + 6\) Now we divide 3 to all terms: \(y = \color{lime}{-\dfrac{2}{3}}x + \color{blue}2\) Now we can see that the slope of the equation is \(\color{lime}{-\dfrac{2}{3}}\), and the y-intercept is \(\color{blue}2\). \(\bf Graph:\) Slope is also defined as: \(\dfrac{Rise}{Run}\). We can see this on graphs of lines. \(\bf Rise:\) Rise represents the numerator of the slope(ex: In \(m = \dfrac{1}{2}\) 1 is the rise). Rise can be either going up or down, where up brings a positive number and down brings a negative. \(\bf Run:\) Run represents the denominator of the slope(ex: In \(m = -\dfrac{4}{5}\) -5 is the run). We can see that the rise here is \(2\), and the run is \(1\), that means the slope will be \(\dfrac{2}{1}\) which simplifies to \(2\). \(\bf Formula:\) The formula for slope is \(m = \dfrac{y_2-y_1}{x_2-x_1}\). This formula is mostly used to find the slope between two points(ex: (2, 3) and (5, 8)). But it can also be used to find the slope on a graph, where we can just take two points from that graph and plug them in. If we are given: \((\color{red}5,\color{lime} 6)\) and \((\color{yellow}8, \color{blue}{12})\) ^ ^ = \(\color{lime}{y_1}\) ^ ^ = \(\color{blue}{y_2}\) | = \(\color{red}{x_1}\) | = \(\color{yellow}{x_2}\) Plug them into the slope equation: \(m = \dfrac{\color{blue}{y_2}-\color{lime}{y_1}}{\color{yellow}{x_2}-\color{red}{x_1}}\) \(m = \dfrac{\color{blue}{12}-\color{lime}6}{\color{yellow}8-\color{red}5}\) Subtract the terms in the numerator and the denominator: \(m = \dfrac{6}{3}\) Simplify by dividing: \(m = 2\) Therefore the slope between \((5, 6)\) and \((8, 12)\) is \(\color{red}2\).
There we go.. All I did was take out the drawings, because you can't have multiple drawings. I also edited a few things to make it look neater, and not spaced out, since I deleted the drawings
You might just have to post links of screenshots of the drawings.
It is hot that you cannot have multiple drawings, drawings are per thread specific, copying to cross post does not work.
|dw:1415031966010:dw| |dw:1415031971926:dw|
Hmm. I dunno
Oh..
Thanks! I'll just find links online for the examples
I can't ever post multiple drawings
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