bhoosde ke ans to de
A quadratic equation in standard form, ( ax^2 + bx + c ), can be rewritten in vertex form, ( a(x-h)^2 + k ), through the process of completing the square. First, factor out ( a ) from the ( x^2 ) and ( x ) terms, then manipulate the equation to create a perfect square trinomial inside the parentheses. The vertex ( (h, k) ) can be found from the values derived during this process, specifically ( h = -\frac{b}{2a} ) and ( k ) can be calculated by substituting ( h ) back into the original equation.
Problem-solving in business relates to establishing processes that mitigate or remove obstacles currently preventing you from reaching strategic goals. You can analyze the company's ups and downs. Visit SlideEgg! The problem-solving PowerPoint template is attractive and appealing to your audience and will help you create a winning presentation that will gain your audience's attention.
Either a point or the y-intercept.If the y-intercept is known (call it b), and, calling the slope m, the equation is y = mx + b.If a sample point (x0, y0) is known, then the equation is y - y0 = m(x - x0).
To change parentheses to an equation, you need to first identify the expressions within the parentheses and the relationships between them. For example, if you have an expression like ( (x + 2) ), you can create an equation by setting it equal to another expression or a number, such as ( (x + 2) = 5 ). This transforms the expression into an equation that can be solved. Additionally, if the parentheses represent a grouping in a larger expression, you may need to apply the distributive property to expand it.
Exercise : Write a program to solve quadratic equations (ax^2 + bx + c), using a subroutinesub quadratic(a as double, b as double, c as double, indicator as long, root1 as double, root2 as double) Input parameters are a, b, c. Output parameters are :indicator (= 0 , two identical roots, = 1, two distinct real roots, = 2 , complex roots ) For real roots : they are stored in "root1" and "root2". For complex roots : root1 = real part, root2 = imaginary part. Ans : DEFLNG I-N DEFDBL A-H, O-Z L20: INPUT " Coefficients a,b,c (a*x^2+b*x+c) "; a, b, c CALL quadratic(a, b, c, iflag, r1, r2) IF iflag = 0 THEN PRINT "2 Identical roots "; r1 ELSEIF iflag = 1 THEN PRINT "2 distinct real roots "; r1; r2 ELSE PRINT "Complex root" PRINT "real part "; r1; "imaginary part "; r2 END IF GOTO L20 END SUB quadratic (a AS DOUBLE, b AS DOUBLE, c AS DOUBLE, indicator AS LONG, root1 AS DOUBLE, root2 AS DOUBLE) rem rem Input parameters: rem a*x*x + b*x + c rem rem Output parameters: rem indicator = 0 two identical roots, = 1 two distinct real roots, = 2 , complex roots. rem root1, root2 stores the real and imaginary part when complex roots occur. rem discrim = b * b - 4. * a * c IF discrim > 0 THEN dummy = SQR(discrim) indicator = 1 root1 = (-b + dummy) / (2. * a) root2 = (-b - dummy) / (2. * a) ELSEIF discrim = 0 THEN indicator = 0 root1 = -b / (2. * a) root2 = root1 ELSE indicator = 2 dummy = SQR(-discrim) root1 = -b / (2. * a) root2 = dummy / (2. * a) END IF END SUB
The Factor-Factor Product Relationship is a concept in algebra that relates the factors of a quadratic equation to the roots or solutions of the equation. It states that if a quadratic equation can be factored into the form (x - a)(x - b), then the roots of the equation are the values of 'a' and 'b'. This relationship is crucial in solving quadratic equations and understanding the behavior of their roots.
To fit a quadratic function to the points (-1, -11), (0, -3), and (3, -27), you can use the general form of a quadratic equation ( y = ax^2 + bx + c ). By substituting each point into the equation, you will create a system of three equations with three unknowns (a, b, and c). Solving this system will yield the coefficients that define the quadratic function that passes through the given points. In this case, the resulting quadratic function is ( y = -4x^2 - 4x - 3 ).
First rewrite the quadratic equation in the form: ax2 + bx + c = 0 where a , b and c are constant coefficients. Clearly, a is not = 0 for if it were then you would have a linear equation and not a quadratic. Then the roots of the quadratic are: x = [-b +/- sqrt(b2 - 4ac)]/2a where using the + and - values of the square root result in two solutions.
A quadratic equation could be used to find the optimal ingredients for a mixture. Example: if you are trying to create a super cleanser, you could make a parabola of your ingredients, finding the roots of the equation to find the optimal amount for each ingredient.
You want to create an equation for this. The equation should look like this: x^2 - 2x + 4 = 0 Use the quadratic equation to solve it.
x to the power of a whole number, like y=x to the power of 3 or y= x to the power of 6, that will create a parabola
The St. Louis Arch is in the shape of a hyperbolic cosine function It is often thought that it is in the shape of a parabola, which would have a quadratic function of y = a(x-h)^2 + k, where the vertex is h, k.
The second step when solving a system of nonlinear equations by substitution is to solve one of the equations for one variable in terms of the other variable(s). Once you have expressed one variable as a function of the other, you can substitute that expression into the other equation to create a single equation in one variable. This allows for easier solving of the system.
When two expressions are set equal to each other, they create an equation. This equation represents a mathematical statement asserting that the values of the two expressions are the same for certain values of the variable(s) involved. Solving this equation allows one to find the variable(s) that satisfy this condition.
A quadratic equation in standard form, ( ax^2 + bx + c ), can be rewritten in vertex form, ( a(x-h)^2 + k ), through the process of completing the square. First, factor out ( a ) from the ( x^2 ) and ( x ) terms, then manipulate the equation to create a perfect square trinomial inside the parentheses. The vertex ( (h, k) ) can be found from the values derived during this process, specifically ( h = -\frac{b}{2a} ) and ( k ) can be calculated by substituting ( h ) back into the original equation.
To insert a quadratic formula (or any other scientific formula) into a Word document, go toInsert (tab) > Equations (under the Symbols block)From there you can either select the format of the formula you would like to insert if a template is available (there is a template already for quadratic equations) but if there isn't one, can either download on from Office.com OR create your own by clicking Insert New Equation.
199