The minimum is the vertex which in this case is 0,0 or the origin. There isn't a maximum.....
It is a hyperbola, it is in quadrants I and II
y = 1/x
y = x3 After translating 4 units left and 7 units down, this function would become: y = (x+4)3-7 In single-variable mathematical functions, vertical translations are always achieved by simply adding or subtracting a number constant from the original function. Addition causes upward shift, subtraction causes downward shift. Horizontal translations for simple functions are achieved by adding or subtracting number constants within the argument of the function in question. Addition causes leftward shift, subtraction causes rightward shift. Vertical translations are easy to comprehend, horizontal translations are not always so easy. Some more examples: y = sin(x) shifted pi units to the left is y = sin(x+(pi)). [this is also equal to y = cos(x)] y = ln(x) shifted 5 units right is y = ln(x-5) Take note: for more complex functions or polynomials not in vertex form, it is not always so simple. For example, a function like: y = ln(sin(x)-cos(x))3 cannot have horizontal shifts so easily applied to it. Vertical shifting is still the same for any function regardless of complexity, so this function could still be vertically shifted by adding or subtracting number constants. I don't know off the top of my head how exactly to precisely shift this function horizontally, but I would recommend messing around on a graphing calculator to really gain a good knowledge of how changing certain parts of functions affects their appearance.
The quadratic parent function is given by the equation ( f(x) = x^2 ). This function has a minimum vertex at the point (0, 0), which is the lowest point on the graph. Since the parabola opens upward, there is no maximum vertex. The minimum value occurs when ( x = 0 ), yielding ( f(0) = 0 ).
A parent function refers to the simplest function as regards sets of quadratic functions
x2
y = x2 is the parent function, but it can be in the form y = ax2 + bx + c
vertex
Parabal
The quadratic parent function is represented by the equation ( f(x) = x^2 ). It is a basic polynomial function that forms a parabolic graph opening upwards, with its vertex at the origin (0, 0). The function is symmetrical about the y-axis and has a minimum value of 0 at the vertex. The shape of the parabola is defined by its standard form, which can be transformed through vertical and horizontal shifts, stretches, or reflections.
The quadratic parent function is represented by the equation ( f(x) = x^2 ). Its graph is a parabola that opens upwards, with its vertex located at the origin (0, 0). The function is symmetric about the y-axis, and its domain is all real numbers while the range is non-negative real numbers (y ≥ 0). Additionally, it has a minimum point at the vertex and exhibits a characteristic U-shape.
The quadratic parent function is defined by the equation ( f(x) = x^2 ). Its graph is a parabola that opens upward, with its vertex located at the origin (0,0). The function is symmetric about the y-axis, and its domain is all real numbers while the range is all non-negative real numbers (y ≥ 0). The parabola has a minimum point at the vertex, and as x moves away from the vertex in either direction, the value of f(x) increases.
A parent function is a basic function that serves as a foundation for a family of functions. The quadratic function, represented by ( f(x) = x^2 ), is indeed a parent function that produces a parabola when graphed. However, there are other parent functions as well, such as linear functions and cubic functions, which produce different shapes. Therefore, while the parabola is one type of parent function, it is not the only one.
The global minimum value is always negative infinity.
Yes, a quadratic parent function is represented by the equation ( f(x) = x^2 ), which forms a parabola when graphed. This parabola opens upwards, has its vertex at the origin (0,0), and is symmetric about the y-axis. The shape of the parabola characterizes all quadratic functions, as they all exhibit similar parabolic behavior, though they may be transformed through shifts, stretches, or reflections.