1.
yes it can if the exponent is 1.
A linear function is one in which the power of the function is only one. So, the graph of it would be a straight line. For example, x2 + x = y is not linear, because the highest power is 2. A main difference is, non linear functions have curves, where as a linear function is a straight line, with the exception of when the function has a power of 0, and it is technically a straight line.
The zeros, or roots, of a linear function is the point at which the line touches the x-axis. Since a linear function is a straight line, it has a maximum of one root (zero). The zero of a function can be determined by the highest degree (power) of the function. Since linear functions are only raised to the power of one, one is the total number of times the line can touch the x-axis. If you function is a horizontal line, it has no root, or zero.
Assuming the domain is unbounded, the linear function continues to be a linear function to its end.
"The base of the exponent" doesn't make sense; base and exponent are two different parts of an exponential function. To be an exponential function, the variable must be in the exponent. Assuming the base is positive:* If the base is greater than 1, the function increases. * If the base is 1, you have a constant function. * If the base is less than 1, the function decreases.
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Each variable has an exponent equal to one.
In a linear equation, the highest exponent of the variable is 1. This means that the equation can be expressed in the form ( ax + b = 0 ), where ( a ) and ( b ) are constants, and ( x ) is the variable. The linearity indicates a constant rate of change, resulting in a straight line when graphed.
yes it can if the exponent is 1.
Yes, since y = x - 2 has the degree of 1 [or the highest exponent of the equation], x - 2 is the linear equation.
The expression ( f(x) = x^5 ) is not a linear function. Linear functions have the general form ( f(x) = mx + b ), where ( m ) and ( b ) are constants, and the highest power of ( x ) is 1. Since ( x^5 ) has a highest power of 5, it is classified as a polynomial function of degree 5, not a linear function.
If the highest exponent of independent variable(say x) is 2 and the highest exponent of dependent variable(say y) is 1 and x and y are not multiplied, then the function is quadratic. For example: 3x-y+x2= 2y-5x+7 represents a quadratic function but y= xy+x2+5 doesn't represent a quadratic function.
A linear function is one in which the power of the function is only one. So, the graph of it would be a straight line. For example, x2 + x = y is not linear, because the highest power is 2. A main difference is, non linear functions have curves, where as a linear function is a straight line, with the exception of when the function has a power of 0, and it is technically a straight line.
Yes, the equation ( y = e^{-x} ) represents an exponential function. In this function, ( e ) is the base of the natural logarithm, and the exponent is a linear function of ( x ) (specifically, (-x)). Exponential functions are characterized by their constant base raised to a variable exponent, and ( e^{-x} ) fits this definition.
Linear equations are polynomial equations of the first degree, meaning they have the highest exponent of one, and they graph as straight lines. In contrast, quadratic equations are polynomial equations of the second degree, characterized by the highest exponent of two, and they graph as parabolas. This fundamental difference in degree affects their solutions and the nature of their graphs. Additionally, linear equations have a single solution, while quadratic equations can have zero, one, or two solutions.
The degree of a linear function is 1. This is because the highest power of the variable in the function is one, as represented in the general form (y = mx + b), where (m) is the slope and (b) is the y-intercept. A linear function graphically represents a straight line in the coordinate plane.
The rule ( y = 2^{2x} ) represents an exponential function. In this equation, the variable ( x ) is in the exponent, which is a key characteristic of exponential functions. In contrast, a linear function would have ( x ) raised to the first power, resulting in a straight line when graphed. Thus, ( y = 2^{2x} ) is not linear but exponential.