Final answer:
Vector combinations involve adding or scalar-multiplying the respective components of each vector given. The results for the different combinations are expressed as ordered triplets using standard vector arithmetic.
Step-by-step explanation:
To calculate the vector combinations for vectors A, B, and C, we perform vector addition and scalar multiplication as follows:
- a. A + B: We add the corresponding components of vectors A and B, which gives us (2+3, -1+0, 1+5) = (5, -1, 6).
- b. B + C: Similarly, adding B and C gives us (3+1, 0+4, 5-2) = (4, 4, 3).
- c. A + B + C: Adding all three vectors gives us (2+3+1, -1+0+4, 1+5-2) = (6, 3, 4).
- d. 3A + 2C: This combination is obtained by multiplying vector A by 3 and vector C by 2 before adding them: (3*2+2*1, 3*-1+2*4, 3*1+2*-2) = (8, 5, 1).
- e. 2A + 3B + C: Multiply each vector by its respective scalar and add the results: (2*2+3*3+1, 2*-1+3*0+4, 2*1+3*5-2) = (13, 2, 17).
- f. 2A + 3(B + C): We first add vectors B and C, then multiply the result by 3, and finally add it to 2 times vector A: 2A + 3*(4, 4, 3) = (2*2, 2*-1, 2*1) + (3*4, 3*4, 3*3) = (4, -2, 2) + (12, 12, 9) = (16, 10, 11).
The algebra of vectors allows us to manipulate vector equations using the commutative, associative, and distributive laws, which makes calculating the above combinations straightforward.