The coefficient of
in the given expression
is the sum of binomial coefficients from C(950, 50) to C(1000, 0).
The given expression is a part of the binomial expansion, specifically for the binomial (1 + x)^1000. To find the coefficient of
, you need to consider the terms that contribute to this power when the expression is expanded.
In the expansion of
, the general term is given by:
![\[ C(n, k) \cdot (x^k) \cdot (1^(n-k)) \]](https://img.qammunity.org/2024/formulas/mathematics/high-school/nfc16ohlkjl17och0k9swwuq4xyd25jbd6.png)
where C(n, k) is the binomial coefficient, which is the number of ways to choose k elements from a set of n distinct elements.
In the given expression, we have terms of the form x^n where n ranges from 1000 to 100, and each term is multiplied by a power of x.
The term that contributes to
comes from the term
in the expansion of
in the first term,
in the expansion of
in the second term, and so on.
The coefficient of
is the sum of the coefficients of these terms. Therefore, the coefficient of
in the given expression is:
![\[ C(950, 50) + C(951, 49) + C(952, 48) + \ldots + C(1000, 0) \]](https://img.qammunity.org/2024/formulas/mathematics/high-school/twkvrz218yvftiepc75xo88qa21cxhfdwm.png)
You can use a binomial coefficient calculator or a mathematical software to compute this sum. It's a cumbersome calculation, but the final result is the coefficient of
in the expansion of the given expression.