To find the greatest common factor (GCF) of the numbers involved, we'll break down each term into its prime factors.
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Identify the terms:
- \(8\)
- \(b8b\) (which we'll interpret as \(8b\) for our purposes)
- \(14\)
- \(a\)
- \(b\)
- \(c14abc\) (which we'll interpret as \(14abc\))
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Factor each term:
- \(8 = 2^3\)
- \(8b = 2^3 \cdot b^1\)
- \(14 = 2^1 \cdot 7^1\)
- \(a = a^1\)
- \(b = b^1\)
- \(14abc = 2^1 \cdot 7^1 \cdot a^1 \cdot b^1 \cdot c^1\)
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Identify the GCF:
- To find the GCF, we look for the minimum power of each factor present in all terms.
- For the factor \(2\):
- The powers are \(3\) (in \(8\)), \(3\) (in \(8b\)), \(1\) (in \(14\)), and \(1\) (in \(14abc\)). The minimum power is \(1\).
- For the factor \(7\):
- The powers are \(0\) (in \(8\)), \(0\) (in \(8b\)), \(1\) (in \(14\)), and \(1\) (in \(14abc\)). The minimum power is \(0\).
- For the factor \(b\):
- The powers are \(0\) (in \(8\)), \(1\) (in \(8b\)), \(0\) (in \(14\)), and \(1\) (in \(14abc\)). The minimum power is \(0\).
- For the factor \(a\):
- The powers are \(0\) (in \(8\)), \(0\) (in \(8b\)), \(0\) (in \(14\)), and \(1\) (in \(14abc\)). The minimum power is \(0\).
- For the factor \(c\):
- The powers are \(0\) (in \(8\)), \(0\) (in \(8b\)), \(0\) (in \(14\)), and \(1\) (in \(14abc\)). The minimum power is \(0\).
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Conclusion:
- The GCF is \(2^1 = 2\).
- Since there are no higher common factors from \(a\), \(b\), \(c\), or \(7\), these contribute \(1^0 = 1\).
Thus, the greatest common factor of \(8\), \(8b\), \(14\), \(a\), \(b\), and \(14abc\) is:
\[ \boxed{2} \]