Types of Polynomials Types of Polynomials A polynomial is an expression of finite length constructed from variables (also called indeterminates) and constants, using only the operations of addition, subtraction, multiplication, and non-negative integer exponents. However, the division by a constant is allowed, because the multiplicative inverse of a non zero constant is also a constant. For example, x2 âˆ’ x/4 + 7 is a polynomial, but x2 âˆ’ 4/x + 7x3/2 is not, because its second term involves division by the variable x (4/x), and also because its third term contains an exponent that is not an integer (3/2). The term "polynomial" can also be used as an adjective, for quantities that can be expressed as a polynomial of some parameter, as in polynomial time, which is used in computational complexity theory. Polynomial comes from the Greek poly, "many" and medieval Latin binomium, "binomial".[1][2][3] The word was introduced in Latin by Franciscus Vieta. Polynomials appear in a wide variety of areas of mathematics and science. For example, they are used to form polynomial equations, which encode a wide range of problems, from elementary word problems to complicated problems in the sciences; they are used to define polynomial functions, which appear in settings ranging from basic chemistry and physics to economics and social science; they are used in calculus and numerical analysis to approximate other functions. In advanced mathematics, polynomials are used to construct polynomial rings, a central concept in abstract algebra and algebraic geometry. Know More About :- Properties of Subtraction

Math.Edurite.com

Page : 1/3

If all the sides of the quadrilaterals are equal, then we call it the regular quadrilateral. A square and a rhombus are both regular quadrilaterals. Now we look at the difference of the square and the Rhombus. Both the above mentioned figures are regular quadrilaterals, but the basic difference which we can state in one sentence between a square and the rhombus is that the rhombus is a tilted square. Thus we conclude that the square has all the four sides equal. On other hand we see that the opposite angles of the rhombus are equal, but all the angles are not of 90 degrees. In both the figures we have their diagonals bisecting at 90 degrees, but the diagonals of the rhombus are not equal, on another hand the diagonals of the square are equal and they are perpendicular bisector of each other. Now we talk about other quadrilateral, which is a parallelogram. In a parallelogram, we have opposite sides equal and parallel too. So we say that a square or a rectangle or a rhombus all the three quadrilaterals are parallelograms as they have opposite sides equal and parallel. But it is not necessary that all the parallelograms are not squares or rectangles. Another important quality of the parallelograms is that their pair of adjacent angles forms a supplementary pair, and the opposite angles of the parallelogram are equal. Now we come to another quadrilateral say trapezium. We say that the trapezium is a figure which has one pair of opposite sideâ€™s parallel but not necessary equal. So another pair of the trapezium is neither equal (necessary) nor parallel. If another pair of the lines of the trapezium is equal, then we call it an isosceles trapezium.Let us take another figure say kite; a kite has adjacent pair of the lines as equal, so it has a vertical line of symmetry. Now comes another quadrilateral, irregular quadrilateral. It means that all the sided of the given quadrilateral are of different measurement. If we Look at the line of symmetry of different types of quadrilaterals, we say that a Square has four lines of symmetry which are the lines formed by joining mid points of its opposite sides and the lines formed by joining the diagonals. On other hand a rectangle only has two lines of symmetry, which are the lines formed by joining the mid points of the opposite sides. We must remember that a parallelogram and irregular quadrilaterals have no line of symmetry. If we look at the line of symmetry of the kite, it has no horizontal line of symmetry, but has only one line of symmetry, which is vertical. An ordinary trapezium has no line of symmetry and an isosceles trapezium has a vertical line of symmetry. Read More About :- Subtraction Borrowing

Math.Edurite.com

Page : 2/3

ThankÂ You

Math.Edurite.Com

Advertisement