Question
Solve the equation
Solve for x
Solve for y
x=0
Evaluate
2x4y6=0
Rewrite the expression
2y6x4=0
Rewrite the expression
x4=0
Solution
x=0
Show Solution

Testing for symmetry
Testing for symmetry about the origin
Testing for symmetry about the x-axis
Testing for symmetry about the y-axis
Symmetry with respect to the origin
Evaluate
2x4y6=0
To test if the graph of 2x4y6=0 is symmetry with respect to the origin,substitute -x for x and -y for y
2(−x)4(−y)6=0
Evaluate
More Steps

Evaluate
2(−x)4(−y)6
Multiply the terms
2x4(−y)6
Multiply the terms
2x4y6
2x4y6=0
Solution
Symmetry with respect to the origin
Show Solution

Rewrite the equation
r=0θ=2kπ,k∈Z
Evaluate
2x4y6=0
To convert the equation to polar coordinates,substitute x for rcos(θ) and y for rsin(θ)
2(cos(θ)×r)4(sin(θ)×r)6=0
Factor the expression
2cos4(θ)sin6(θ)×r10=0
Separate into possible cases
r10=02cos4(θ)sin6(θ)=0
Evaluate
r=02cos4(θ)sin6(θ)=0
Solution
More Steps

Evaluate
2cos4(θ)sin6(θ)=0
Elimination the left coefficient
cos4(θ)sin6(θ)=0
Separate the equation into 2 possible cases
cos4(θ)=0sin6(θ)=0
Solve the equation
More Steps

Evaluate
cos4(θ)=0
The only way a power can be 0 is when the base equals 0
cos(θ)=0
Use the inverse trigonometric function
θ=arccos(0)
Calculate
θ=2π
Add the period of kπ,k∈Z to find all solutions
θ=2π+kπ,k∈Z
θ=2π+kπ,k∈Zsin6(θ)=0
Solve the equation
More Steps

Evaluate
sin6(θ)=0
The only way a power can be 0 is when the base equals 0
sin(θ)=0
Use the inverse trigonometric function
θ=arcsin(0)
Calculate
θ=0
Add the period of kπ,k∈Z to find all solutions
θ=kπ,k∈Z
θ=2π+kπ,k∈Zθ=kπ,k∈Z
Find the union
θ=2kπ,k∈Z
r=0θ=2kπ,k∈Z
Show Solution

Find the first derivative
Find the derivative with respect to x
Find the derivative with respect to y
dxdy=−3x2y
Calculate
2x4y6=0
Take the derivative of both sides
dxd(2x4y6)=dxd(0)
Calculate the derivative
More Steps

Evaluate
dxd(2x4y6)
Use differentiation rules
dxd(2x4)×y6+2x4×dxd(y6)
Evaluate the derivative
More Steps

Evaluate
dxd(2x4)
Use differentiation rule dxd(cf(x))=c×dxd(f(x))
2×dxd(x4)
Use dxdxn=nxn−1 to find derivative
2×4x3
Multiply the terms
8x3
8x3y6+2x4×dxd(y6)
Evaluate the derivative
More Steps

Evaluate
dxd(y6)
Use differentiation rules
dyd(y6)×dxdy
Use dxdxn=nxn−1 to find derivative
6y5dxdy
8x3y6+12x4y5dxdy
8x3y6+12x4y5dxdy=dxd(0)
Calculate the derivative
8x3y6+12x4y5dxdy=0
Move the expression to the right-hand side and change its sign
12x4y5dxdy=0−8x3y6
Removing 0 doesn't change the value,so remove it from the expression
12x4y5dxdy=−8x3y6
Divide both sides
12x4y512x4y5dxdy=12x4y5−8x3y6
Divide the numbers
dxdy=12x4y5−8x3y6
Solution
More Steps

Evaluate
12x4y5−8x3y6
Cancel out the common factor 4
3x4y5−2x3y6
Reduce the fraction
More Steps

Evaluate
x4x3
Use the product rule aman=an−m to simplify the expression
x4−31
Subtract the terms
x11
Simplify
x1
3xy5−2y6
Reduce the fraction
More Steps

Evaluate
y5y6
Use the product rule aman=an−m to simplify the expression
y6−5
Subtract the terms
y1
Simplify
y
3x−2y
Use b−a=−ba=−ba to rewrite the fraction
−3x2y
dxdy=−3x2y
Show Solution

Find the second derivative
Find the second derivative with respect to x
Find the second derivative with respect to y
dx2d2y=9x210y
Calculate
2x4y6=0
Take the derivative of both sides
dxd(2x4y6)=dxd(0)
Calculate the derivative
More Steps

Evaluate
dxd(2x4y6)
Use differentiation rules
dxd(2x4)×y6+2x4×dxd(y6)
Evaluate the derivative
More Steps

Evaluate
dxd(2x4)
Use differentiation rule dxd(cf(x))=c×dxd(f(x))
2×dxd(x4)
Use dxdxn=nxn−1 to find derivative
2×4x3
Multiply the terms
8x3
8x3y6+2x4×dxd(y6)
Evaluate the derivative
More Steps

Evaluate
dxd(y6)
Use differentiation rules
dyd(y6)×dxdy
Use dxdxn=nxn−1 to find derivative
6y5dxdy
8x3y6+12x4y5dxdy
8x3y6+12x4y5dxdy=dxd(0)
Calculate the derivative
8x3y6+12x4y5dxdy=0
Move the expression to the right-hand side and change its sign
12x4y5dxdy=0−8x3y6
Removing 0 doesn't change the value,so remove it from the expression
12x4y5dxdy=−8x3y6
Divide both sides
12x4y512x4y5dxdy=12x4y5−8x3y6
Divide the numbers
dxdy=12x4y5−8x3y6
Divide the numbers
More Steps

Evaluate
12x4y5−8x3y6
Cancel out the common factor 4
3x4y5−2x3y6
Reduce the fraction
More Steps

Evaluate
x4x3
Use the product rule aman=an−m to simplify the expression
x4−31
Subtract the terms
x11
Simplify
x1
3xy5−2y6
Reduce the fraction
More Steps

Evaluate
y5y6
Use the product rule aman=an−m to simplify the expression
y6−5
Subtract the terms
y1
Simplify
y
3x−2y
Use b−a=−ba=−ba to rewrite the fraction
−3x2y
dxdy=−3x2y
Take the derivative of both sides
dxd(dxdy)=dxd(−3x2y)
Calculate the derivative
dx2d2y=dxd(−3x2y)
Use differentiation rules
dx2d2y=−(3x)2dxd(2y)×3x−2y×dxd(3x)
Calculate the derivative
More Steps

Evaluate
dxd(2y)
Simplify
2×dxd(y)
Calculate
2dxdy
dx2d2y=−(3x)22dxdy×3x−2y×dxd(3x)
Calculate the derivative
More Steps

Evaluate
dxd(3x)
Simplify
3×dxd(x)
Rewrite the expression
3×1
Any expression multiplied by 1 remains the same
3
dx2d2y=−(3x)22dxdy×3x−2y×3
Calculate
dx2d2y=−(3x)26dxdy×x−2y×3
Calculate
dx2d2y=−(3x)26dxdy×x−6y
Use the commutative property to reorder the terms
dx2d2y=−(3x)26xdxdy−6y
Calculate
More Steps

Evaluate
(3x)2
Evaluate the power
32x2
Evaluate the power
9x2
dx2d2y=−9x26xdxdy−6y
Calculate
dx2d2y=−3x22xdxdy−2y
Use equation dxdy=−3x2y to substitute
dx2d2y=−3x22x(−3x2y)−2y
Solution
More Steps

Calculate
−3x22x(−3x2y)−2y
Multiply
More Steps

Multiply the terms
2x(−3x2y)
Any expression multiplied by 1 remains the same
−2x×3x2y
Multiply the terms
−34y
−3x2−34y−2y
Subtract the terms
More Steps

Simplify
−34y−2y
Reduce fractions to a common denominator
−34y−32y×3
Write all numerators above the common denominator
3−4y−2y×3
Multiply the terms
3−4y−6y
Subtract the terms
3−10y
Use b−a=−ba=−ba to rewrite the fraction
−310y
−3x2−310y
Divide the terms
More Steps

Evaluate
3x2−310y
Multiply by the reciprocal
−310y×3x21
Multiply the terms
−3×3x210y
Multiply the terms
−9x210y
−(−9x210y)
Calculate
9x210y
dx2d2y=9x210y
Show Solution
