Consider the set {1,2,3,4,5,6,7,8,9,10}. For each subset, calculate the sum of the elements in the subset. How many distinct sums can we get?

all of the values from 1 to 10*11/2 = 55

There are 2^10 possible subsets, including Φ, the null set.

Not sure what you mean by sum of the elements, do you mean the sum of the cardinalities of the 1024 subsets, or do you mean the sum of the numbers of each subset?
In the case of the latter, the distinct sums would be from 1 to 55, as pointed out by Steve above. There is a certain difficulty with the null set, since there are no elements, we cannot obtain a sum.

To calculate the distinct sums for each subset of the given set {1, 2, 3, 4, 5, 6, 7, 8, 9, 10}, we can use a mathematical approach.

First, let's consider the number of subsets we can form from the given set. Since each element in the set can be included or excluded from a subset, there are 2^10 = 1024 possible subsets.

To find the distinct sums, we can use a method called the "subset sum approach." We start with an empty subset and gradually include each element from the given set. For each new element, the subset sum is formed by adding the current element to the existing sums of the previous subsets.

Let's illustrate this process step by step:

1. Start with an empty subset: Sum = 0 (No elements included).

2. Include the first element, 1: Sum = 1.

3. Include the second element, 2: Now we have two subsets - one with only 1 (Sum = 1), and another with 2 (Sum = 2).

4. Include the third element, 3: Now we have four subsets - one with 1 (Sum = 1), one with 2 (Sum = 2), one with 3 (Sum = 3), and one with 1 and 2 (Sum = 1 + 2 = 3).

5. Repeat this process for all the remaining elements.

By following this approach, we can generate all possible sums of the subsets. We store these sums in a set to eliminate duplicates and count the number of distinct sums.

Here's an example of how the distinct sums might be obtained using this method:

Subset: {} -> Sum = 0
Subset: {1} -> Sum = 1
Subset: {2} -> Sum = 2
Subset: {3} -> Sum = 3
Subset: {1, 2} -> Sum = 3
Subset: {4} -> Sum = 4
Subset: {1, 4} -> Sum = 5
Subset: {2, 4} -> Sum = 6
Subset: {3, 4} -> Sum = 7
Subset: {1, 2, 4} -> Sum = 7
Subset: {5} -> Sum = 5
Subset: {1, 5} -> Sum = 6
Subset: {2, 5} -> Sum = 7
Subset: {3, 5} -> Sum = 8
... (continue this process until all subsets are considered)

After calculating all the distinct sums, we count the total number of unique values. In this case, the total number of distinct sums is 56.

By following the subset sum approach, we can obtain all distinct sums for any given set.