Garrison [3], Forman [2], and Abel and Siebert [1] showed that for all positive integers   $k$  and
 $k$  and   $N$ , there exists a positive integer
 $N$ , there exists a positive integer   $\lambda $  such that
 $\lambda $  such that   ${{n}^{k}}\,+\,\lambda $  is prime for at least
 ${{n}^{k}}\,+\,\lambda $  is prime for at least   $N$  positive integers
 $N$  positive integers   $n$ . In other words, there exists
 $n$ . In other words, there exists   $\lambda $  such that
 $\lambda $  such that   ${{n}^{k}}\,+\,\lambda $ , represents at least
 ${{n}^{k}}\,+\,\lambda $ , represents at least   $N$  primes.
 $N$  primes.
We give a quantitative version of this result.We show that there exists   $\lambda \le {{x}^{k}}$  such that
 $\lambda \le {{x}^{k}}$  such that   ${{n}^{k}}\,+\,\lambda $ , 1 ≤ n ≤ x, represents at least
 ${{n}^{k}}\,+\,\lambda $ , 1 ≤ n ≤ x, represents at least   $\left( \frac{1}{k}\,+\,o\left( 1 \right) \right)\,\pi \left( x \right)$  primes, as
 $\left( \frac{1}{k}\,+\,o\left( 1 \right) \right)\,\pi \left( x \right)$  primes, as   $x\to \infty $ . We also give some related results.
 $x\to \infty $ . We also give some related results.