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f(x)=(2x)/((x^2+x+1))
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f(x)=\frac{2x}{(x^{2}+x+1)}
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recta m=-7,\at (1,1)
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recta\:m=-7,\at\:(1,1)
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f(x)=+9=5*x-2
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f(x)=+9=5\cdot\:x-2
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g(x)=-1+log_{4}(x+2)
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g(x)=-1+\log_{4}(x+2)
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y=2+3|x+1|
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y=2+3\left|x+1\right|
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f(x)=sin(x/((sqrt(x^2-[x^2]))))
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f(x)=\sin(\frac{x}{(\sqrt{x^{2}-[x^{2}]})})
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f(c)=c^4-45c^2+100
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f(c)=c^{4}-45c^{2}+100
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f(b)=(b^3+1)/(b^3)
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f(b)=\frac{b^{3}+1}{b^{3}}
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f(x)=(x)^{4/3}
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f(x)=(x)^{\frac{4}{3}}
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g(x)=-4x-1
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g(x)=-4x-1
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f(x,y)=3x
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f(x,y)=3x
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f(x)=((x+3))/((x^2))
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f(x)=\frac{(x+3)}{(x^{2})}
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inflection points f(x)=(x^4)/3-x^3-15x^2
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inflection\:points\:f(x)=\frac{x^{4}}{3}-x^{3}-15x^{2}
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y=b^0+b^1x^1+b^2x^2+e
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y=b^{0}+b^{1}x^{1}+b^{2}x^{2}+e
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f(x)=4x-40
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f(x)=4x-40
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f(x)=x^3*(x^2+1)^7
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f(x)=x^{3}\cdot\:(x^{2}+1)^{7}
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f(x)=3-2
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f(x)=3-2
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y=x^3-x^2+x
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y=x^{3}-x^{2}+x
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m(x)=3x[x]
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m(x)=3x[x]
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f(x)=(x*arcsin(2x),x)
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f(x)=(x\cdot\:\arcsin(2x),x)
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y= 2/7*x^3*sqrt(x)-4/11*x^5*sqrt(x)+2/15*x^7*sqrt(x)
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y=\frac{2}{7}\cdot\:x^{3}\cdot\:\sqrt{x}-\frac{4}{11}\cdot\:x^{5}\cdot\:\sqrt{x}+\frac{2}{15}\cdot\:x^{7}\cdot\:\sqrt{x}
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f(t)=2t^3+27t^2-27
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f(t)=2t^{3}+27t^{2}-27
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f(m)=3+m^3
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f(m)=3+m^{3}
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rango f(x)=(-1)/((x+3)^2)-4
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rango\:f(x)=\frac{-1}{(x+3)^{2}}-4
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f(x)=-3(x-2)^2+5
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f(x)=-3(x-2)^{2}+5
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f(x)=1-x-3x^2
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f(x)=1-x-3x^{2}
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f(x)=-3(x-2)^2+1
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f(x)=-3(x-2)^{2}+1
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f(x)=15x^3+log_{5}(x)
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f(x)=15x^{3}+\log_{5}(x)
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f(x)=((4+5x))/((2x-4))
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f(x)=\frac{(4+5x)}{(2x-4)}
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f(x)=((x^3+2))/3
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f(x)=\frac{(x^{3}+2)}{3}
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f(x)=1-cos(x/2)
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f(x)=1-\cos(\frac{x}{2})
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y=21(x^2)^1
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y=21(x^{2})^{1}
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y=log_{2}((-1)*x)
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y=\log_{2}((-1)\cdot\:x)
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f(p)=p^4-8
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f(p)=p^{4}-8
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inversa 1/6 x^3-4
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inversa\:\frac{1}{6}x^{3}-4
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f(x)=arccos(cos^2(x))
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f(x)=\arccos(\cos^{2}(x))
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f(x)=5x^2-76x+327
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f(x)=5x^{2}-76x+327
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f(p)=p^2-3p+16
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f(p)=p^{2}-3p+16
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f(x)=25x^2+9x+1
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f(x)=25x^{2}+9x+1
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y= 1/3 x^2-5/2 x
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y=\frac{1}{3}x^{2}-\frac{5}{2}x
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f(x)=(x^2-1)(2x)
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f(x)=(x^{2}-1)(2x)
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f(x)=3x^3+9x+13
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f(x)=3x^{3}+9x+13
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f(x)=(5x^{32}+6e^x+2)/x
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f(x)=\frac{5x^{32}+6e^{x}+2}{x}
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y=((9-x^2))/((9+x^2))
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y=\frac{(9-x^{2})}{(9+x^{2})}
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f(x)=-x^4+4x^2-3
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f(x)=-x^{4}+4x^{2}-3
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perpendicular y=3x+3,\at (3,2)
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perpendicular\:y=3x+3,\at\:(3,2)
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y=0.5-e^{-0.5x}
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y=0.5-e^{-0.5x}
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y(5)=5^3+(10(x^5)^2)+(13x^5)+40
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y(5)=5^{3}+(10(x^{5})^{2})+(13x^{5})+40
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f(x)=7-2
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f(x)=7-2
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y=(x-6)m
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y=(x-6)m
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y=(-6)/(5x+2)
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y=\frac{-6}{5x+2}
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f(x)=x^3-11x^2+x-6
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f(x)=x^{3}-11x^{2}+x-6
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f(x)=x^2-44x+360
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f(x)=x^{2}-44x+360
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f(x)=2x^3+x^2-12x+6
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f(x)=2x^{3}+x^{2}-12x+6
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s(t)=2t^5-2t^3-3
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s(t)=2t^{5}-2t^{3}-3
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f(x)=(x^2)/(4+2x-5)
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f(x)=\frac{x^{2}}{4+2x-5}
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inversa f(x)=-5x-3
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inversa\:f(x)=-5x-3
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h(x)=ln(x^2+x)
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h(x)=\ln(x^{2}+x)
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f(x)=(arccos(cos(x)))^2-arccos(cos(x))
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f(x)=(\arccos(\cos(x)))^{2}-\arccos(\cos(x))
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f(x)=(t+3)
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f(x)=(t+3)
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f(u)= u/((1+u^2))
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f(u)=\frac{u}{(1+u^{2})}
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f(x)=2x^2+3x+9
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f(x)=2x^{2}+3x+9
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f(a)=a^2+18a+13
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f(a)=a^{2}+18a+13
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f(x)=(e^{-x})^2
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f(x)=(e^{-x})^{2}
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f(x)=40x^2+25x+6
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f(x)=40x^{2}+25x+6
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y=(x^3+2x-3)4(x+cos(x))3
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y=(x^{3}+2x-3)4(x+\cos(x))3
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|
y= x/((1+c_{1)*x)}
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y=\frac{x}{(1+c_{1}\cdot\:x)}
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|
critical points f(x)=cos(x)-(sqrt(3))/2 x
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critical\:points\:f(x)=\cos(x)-\frac{\sqrt{3}}{2}x
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|
f(w)=cos(w/2)
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f(w)=\cos(\frac{w}{2})
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f(x)=(1+e^{2x})^{1/2}
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f(x)=(1+e^{2x})^{\frac{1}{2}}
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|
y=-2x^2-5x+3
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y=-2x^{2}-5x+3
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|
v(x)=4x^2+12x-72
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v(x)=4x^{2}+12x-72
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|
f(x)=sin(x^9)
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f(x)=\sin(x^{9})
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f(x)=5x^4+2x+3
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f(x)=5x^{4}+2x+3
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s(t)=((t^3))/5-2/((t^2))+6/t-3/5
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s(t)=\frac{(t^{3})}{5}-\frac{2}{(t^{2})}+\frac{6}{t}-\frac{3}{5}
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|
y= 2/(3(3)^x)
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y=\frac{2}{3(3)^{x}}
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|
f(x)=cos^{60}(+x)
|
f(x)=\cos^{60}(+x)
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f(x)=((x^2-4)4)/3
|
f(x)=\frac{(x^{2}-4)4}{3}
|
|
intersección 2x^2+5x-3
|
intersección\:2x^{2}+5x-3
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|
f(5)=x+3x
|
f(5)=x+3x
|
|
y=log_{5}(x)+log_{x}(5)+log_{5}(5)
|
y=\log_{5}(x)+\log_{x}(5)+\log_{5}(5)
|
|
f(x)=log_{10}(x/((x-2)))
|
f(x)=\log_{10}(\frac{x}{(x-2)})
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|
f(x)=-3x+5,-2<x<3
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f(x)=-3x+5,-2<x<3
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|
y= 3/((x^{3/2))}
|
y=\frac{3}{(x^{\frac{3}{2}})}
|
|
p(x)= 2/(3x-3)
|
p(x)=\frac{2}{3x-3}
|
|
y=5x*log_{10}(x)
|
y=5x\cdot\:\log_{10}(x)
|
|
y=18x^4-2x^5+14x^2+1107
|
y=18x^{4}-2x^{5}+14x^{2}+1107
|
|
y= 1/(3*x+2)
|
y=\frac{1}{3\cdot\:x+2}
|
|
f(y)=y^2+3y-8
|
f(y)=y^{2}+3y-8
|
|
pendiente intercept 15x-3y=1
|
pendiente\:intercept\:15x-3y=1
|
|
f(x)=((x^4-13x^2+36))/((x^2-1))
|
f(x)=\frac{(x^{4}-13x^{2}+36)}{(x^{2}-1)}
|
|
f(x)=3-7x+5x^2
|
f(x)=3-7x+5x^{2}
|
|
f(x)=(2x+x^2)4
|
f(x)=(2x+x^{2})4
|
|
g(s)= 1/((s^3+7s^2+12s))
|
g(s)=\frac{1}{(s^{3}+7s^{2}+12s)}
|
|
h(x)=10-5x
|
h(x)=10-5x
|
|
f(2)=x^2-3(2)-3
|
f(2)=x^{2}-3(2)-3
|
|
f(x)=(sin^{22}(x))/((1+cos^2(x)))
|
f(x)=\frac{\sin^{22}(x)}{(1+\cos^{2}(x))}
|
|
y=3x^2-5x-3
|
y=3x^{2}-5x-3
|
|
y=2.2sin(3.6x)
|
y=2.2\sin(3.6x)
|
|
f(x)=(4x+5)^2
|
f(x)=(4x+5)^{2}
|
