Evaluate the Summation sum from k=0 to 3 of k^2+4
The question is asking for a mathematical computation where you are required to find the sum of a series. Specifically, it is asking you to calculate the sum of terms where each term is defined by the formula k^2 + 4, with 'k' taking on values from 0 through 3. To solve this problem, you would need to evaluate the expression k^2 + 4 for each integer value of k in the given range, summing each result to obtain the final answer.
$\sum_{k = 0}^{3} k^{2} + 4$
Write out the terms of the summation for $k = 0$ to $k = 3$: $0^2 + 4, 1^2 + 4, 2^2 + 4, 3^2 + 4$.
Perform the calculations.
Calculate $0^2$: $0 + 4, 1^2 + 4, 2^2 + 4, 3^2 + 4$.
Combine $0$ and $4$: $4, 1^2 + 4, 2^2 + 4, 3^2 + 4$.
Calculate $1^2$: $4, 1 + 4, 2^2 + 4, 3^2 + 4$.
Combine $1$ and $4$: $4, 5, 2^2 + 4, 3^2 + 4$.
Combine $4$ and $5$: $9, 2^2 + 4, 3^2 + 4$.
Calculate $2^2$: $9, 4 + 4, 3^2 + 4$.
Combine $4$ and $4$: $9, 8, 3^2 + 4$.
Combine $9$ and $8$: $17, 3^2 + 4$.
Calculate $3^2$: $17, 9 + 4$.
Combine $9$ and $4$: $17, 13$.
Combine $17$ and $13$: $30$.
The sum of the series is $\boxed{30}$.
The problem involves evaluating a finite summation, which is a process of adding up the values of a function at discrete points. The function in this case is $k^2 + 4$, and we are summing over the integer values of $k$ from $0$ to $3$.
Key knowledge points include:
Summation Notation: The sigma notation $\sum$ represents the sum of a sequence of numbers. The expression under the sigma symbol tells us what to add, and the limits above and below tell us where to start and stop.
Exponents: Raising a number to the power of $2$ (squared) means multiplying the number by itself.
Arithmetic Operations: Basic operations such as addition are used to combine terms in the series.
Sequence and Series: A sequence is a list of numbers in a specific order, and a series is the sum of the terms of a sequence.
The problem-solving process involves expanding the series, performing exponentiation, and then successive additions to find the total sum.