Using the discriminant for a quadratic equation the value of k works out as plus or minus 12.
k added to 2.5
It is a linear equation in the variable r.
Using the discriminant formula for a quadratic equation k has a value of 8/25 or maybe 0.
Equation: x^2 +2kx +10x +k^2 +5 = 0 Using the discriminant: (2k +10)^2 -4*1*(k^2 +5) = 0 Solving the discriminant: k = -2
2K(s) + Cl2(g) → 2KCl(s)
To balance the chemical equation BrCl → Cl2 + Br2, you need to make sure that there are the same number of atoms of each element on both sides of the equation. Start by balancing the bromine atoms first, then balance the chlorine atoms. In this case, you would need to put a coefficient of 2 in front of BrCl and Cl2 to balance the equation, giving you the balanced equation: 2BrCl → Cl2 + Br2.
The chemical equation for the reaction between potassium metal and chlorine gas to form potassium chloride is 2K(s) + Cl2(g) -> 2KCl(s).
k equals 5.6
No, the chemical equation K + Br2 → 2KBr is balanced in terms of atoms but not charges. To balance it completely, you need to ensure that the charges are equal on both sides of the reaction.
A line in the X-Y plane follows an equation y = (slope X x) plus a constant k. In this instances, 5 = [(-12)(3)] + k, or k = 5 + 36 = 41. Therefore, the equation is: y = -12x + 41.
2 K + Br2 -> 2 Kbr
The balanced equation is 2K + 2H2O -> 2KOH + H2, balancing the atoms on both sides of the equation.
Using the discriminant for a quadratic equation the value of k works out as plus or minus 12.
The equilibrium constant (K eq) for the reaction 2HCl(g) ⇌ H2(g) + Cl2(g) would be [H2][Cl2]/[HCl]^2, where the square brackets indicate the molar concentrations of the respective species at equilibrium.
A number, k, increased by two and a half.
k added to 2.5