The area of the base of the cube, b, is square units. the volume of the cube is cubic units. the height of each pyramid, h, is therefore, b = 2h. there are square pyramids with the same base and height that exactly fill the given cube. therefore, the volume of one pyramid is or 1/3 bh.

1-(b)(b)

2- (b)(b)(b)

3- b/2

4- 6

5- (1/6)(b)(b)(2h)

Step-by-step explanation:

The first is length * width which is b*b.

The second is b*b*b because that is how you find area.

The third is b/2 because each pyramid height is b/2 of h.

The fourth is 6 because that is how many pyramids can be made.

The fifth is 1/6*b*b*2h because there are six pyramids, two b's, and the hight is 2h.

answer:

the position of equilibrium will shift to the left.

step-by-step explanation:

the general equation for the dissociation of a weak base is

b + h₂o   ⇌   bh⁺ + oh⁻

according to le châtelier's principle, when a stress is applied to a system at equilibrium, the system will respond in a way that tends to relieve the stress.

if you apply a stress by adding more bh⁺ or oh⁻,   the system will respond by moving in a direction that gets rid of the added ions.

the position of equilibrium will shift to the left, forming more of the undissociated base.

in simplified version   it would be x ≤-4

step-by-step explanation:

multiply each term in x ≤-4 by -1