2 Pints in a Quart
If the solutions are p and q, then the quadratic is (x-p)(x-q) = 0 or x2 - (p+q)x + pq = 0 Hope this is what the question meant!
Two ratios, p/q and r/s (q and s non-zero) are equal if p/q - r/s = 0.
If the two axes intersect at the point (p, q), then the equation is: (x -p)2/25 + (y - q)2/9 = 1
p and q
If (p, q) is any point on the line, then the point slope equation is: (y - q)/(x - p) = 2 or (y - q) = 2*(x - p)
The p and q variables in the Hardy-Weinberg equation represent the frequencies of the two alleles in a population. The equation is often written as p^2 + 2pq + q^2 = 1, where p and q represent the frequencies of the dominant and recessive alleles, respectively.
Assume the two numbers are P & Q, the equation is P + Q = 53, rearranging this gives Q = 53 - P
2 Pints in a Quart
If P varies directly with the square of Q then the equation would be in the form of P = kQ2, where k is the constant of variation so the new equation would be: P = 6Q2, so when Q = 12 we have P=6*122, or P = 864
If the solutions are p and q, then the quadratic is (x-p)(x-q) = 0 or x2 - (p+q)x + pq = 0 Hope this is what the question meant!
Two ratios, p/q and r/s (q and s non-zero) are equal if p/q - r/s = 0.
If the two axes intersect at the point (p, q), then the equation is: (x -p)2/25 + (y - q)2/9 = 1
A simultaneous equation
p and q
The values of p and q work out as -2 and 4 respectively thus complying with the given conditions.
Unless it's something weird, then: p*(-8)+q... There's really nothing else to do with it since it's an expression and not an equation.