# x2+(y-3√2x)2=1 Meaning and Solution

The equation x2+(y-3√2x)2=1 meaning represents a specific type of geometric figure known as an ellipse, albeit in a form that might not be immediately recognizable as the standard ellipse equation. To understand this equation, we need to delve into the world of conic sections, coordinate transformations, and algebra.

## Understanding the Equation x2+(y-3√2x)2=1 Meaning

1. Standard Form of an Ellipse: The standard equation of an ellipse centered at the origin (0,0) is given by x^2/a^2 + y^2/b^2 = 1, where a and b are the lengths of the semi-major and semi-minor axes, respectively.
2. Transformation: The equation x2+(y-3√2x)2=1 suggests a transformation from the standard form. The term 3√2x indicates a shift that involves both the x-coordinate and a scaling factor.
3. Geometric Interpretation: This equation represents an ellipse that has been rotated and translated from its standard position. The rotation is due to the term in the part of the equation, and the translation is implied by the modified center of the ellipse.

## Breaking Down the Equation

To understand the nature of the ellipse, we can try to simplify or rearrange the equation:

1. Expand and Rearrange: Expanding (y-3√2x)^2 and then rearranging the equation might bring it closer to a more recognizable form.
2. Identifying Axes: By completing the square or using other algebraic techniques, we can determine the lengths and orientations of the major and minor axes of the ellipse.
3. Finding the Center: The transformed coordinates of the center can be found, which will give us the exact location of the ellipse in the coordinate plane.

## Detailed Analysis of the Equation

1. Algebraic Expansion: To further analyze this equation, let’s expand the squared term:

(y−3√2​^x)2=y^2−6√2​xy+18x^2

Substituting this back into the original equation gives:

x^2+y^2−6√2​xy+18x^2=1

Rearranging terms, we get an equation that looks more like a general conic section:

19x^26√2xy+y^21=0

2. Identifying the Rotation: The presence of the term suggests that the ellipse is rotated. To find the angle of rotation, we would typically use the formula derived from the general second-degree equation of conics. This involves trigonometric calculations.
3. Finding the Axes: By applying a rotation transformation, we can eliminate the term and bring the equation to its standard form. This will reveal the lengths of the semi-major and semi-minor axes.

## Geometric Interpretation and Visualization

1. Graphical Representation: Visualizing this ellipse is crucial for understanding its shape and position. By plotting key points and understanding the rotation, one can see how it differs from a standard ellipse.
2. Center of the Ellipse: The original equation’s form implies a shift from the origin. Calculating the exact center involves understanding the transformation applied.
3. Axis Orientation: After determining the rotation angle, the orientation of the major and minor axes can be established, which is essential for applications requiring precise directional information.

## Application and Visualization

1. Graphing: Plotting this equation on a coordinate plane will reveal the shape and position of the ellipse. This can be done using graphing software or by manually calculating key points.
2. Real-World Applications: Ellipses appear in various fields, from astronomy (orbits of planets) to engineering and physics. Understanding their equations is crucial in these domains.
3. Analyzing Properties: Further analysis might involve finding the eccentricity of the ellipse, which measures how much it deviates from being a circle, and other properties like the length of the latus rectum or the directrices.