-k = -1*k, so the coefficient is minus 1
The implied coefficient in front of ' K ' = 1 so, 1K + 9K = 10K ----------
A parabola with vertex (h, k) has equation of the form: y = a(x - h)² + k → vertex (k, h) = (-2, -3), and a point on it is (-1, -5) → -5 = a(-1 - -2)² + -3 → -5 = a(1)² - 3 → -5 = a - 3 → a = -2 → The coefficient of the x² term is -2.
A parabola with vertex (h, k) has equation of the form: y = a(x - h)² + k → vertex (k, h) = (2, -1), and a point on it is (5, 0) → 0 = a(5 - 2)² + -1 → 0 = a(3)² -1 → 1 = 9a → a = 1/9 → The coefficient of the x² term is 1/9
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x the literal coefficient is the letter tagging along with the number coefficient (the number coefficient is 5, here). number coefficient is also sometimes called leading coefficient. literal coefficient is the variable (which is always a letter: English or latin).
The coefficient
k
k is a variable, 6 is a coefficient.
The thermal expansion coefficient of ammonia is approximately 0.0045 K^-1 at 20 degrees Celsius. This coefficient represents how much the volume of ammonia will expand per degree of temperature increase.
The coefficient of ((x + y)^{20}) can be found using the binomial theorem, which states that ((a + b)^n = \sum_{k=0}^{n} \binom{n}{k} a^{n-k} b^k). In this case, the coefficient of each term in the expansion is given by (\binom{20}{k}), where (k) is the exponent of (y) and (n-k) is the exponent of (x). The specific coefficient for any term ((x^a y^b)) can be determined by choosing (a) and (b) such that (a + b = 20). For the overall expansion, the sum of the coefficients for all terms is (2^{20}).
The implied coefficient in front of ' K ' = 1 so, 1K + 9K = 10K ----------
The formula to calculate the natural convection heat transfer coefficient in a system is h k Gr(1/4) / L, where h is the heat transfer coefficient, k is the thermal conductivity of the fluid, Gr is the Grashof number, and L is the characteristic length of the system.
10.8 x 10^-6/K
mass transfer coefficient in f&k type
The coefficient of cubical expansivity would normally be the cube of the coefficient of linear expansivity unless that coefficient is different in different directions for a material. In that case it would be the product of the linear coefficients in the different directions.
To find the acceleration of an object when given the coefficient of kinetic friction, you can use the formula: acceleration g (k), where g is the acceleration due to gravity (9.8 m/s2) and k is the coefficient of kinetic friction. This formula helps calculate how fast an object is speeding up or slowing down due to friction.
6.3 in/in.°F or 11.3 µm/m.°K