Answer:
add 200 shillings to the book balance
Answer:
$16,695.11
Explanation:
the price of the bond is equal to the present value of its cash flows:
value of cash flows in year 6 = $1,100 x 12.75523 (PV annuity factor, 16 periods, 2.8%) = $14,030.75
value of cash flows in year 14 = $1,400 x 10.07390 (PV annuity factor, 12 periods, 2.8%) = $14,103.46
present value in year 0 = [$14,030.75 / 1.056⁶] + [$14,103.46 / 1.056¹⁴] = $10,118.06 + $6,577.05 = $16,695.11
I think it’s b it is the most right played out
<span>You can make
the motor run move backward by flipping the magnet on the other side in such a way that the
side of contrary charge is now covering towards the motor.</span>
Most electric
motors work through the communication between an electric motor's magnetic field
and twisting streams to produce compel. In specific applications, for example,
in regenerative braking with footing engines in the transportation business,
electric engines can likewise be utilized as a part of turn around as
generators to change over mechanical vitality into electric power<span>.</span>
Answer:
If the Cobb Douglas production funtion is 
This function is homogeneous of degree 3: To understand that, we first must know that a function f(K,L) is homogeneous of degree "m" if
. Intuitively, this means that, when you increase your productive factors (in this case, we are talking about a production function), by a factor "
", your output increases by
. Depending on the value of m, the function will exhibit increasing returns to scale (m>1), decreasing returns to scale (m<1) or returns to scale equal to 1 (when m=1).
- In this case,
. Applying distributive power's property, we get
. - Because of power property, we can associate terms and get
(remember that
. - Finally,
. In this case the function is homogeneous of degree 3 because when multiplying K and L by
, the function as a whole is multiplied by
.
Euler's Theorem: this theorem states that, if a function is homogeneous of degree "m", the following must hold:
.
- To prove it, we should then calculate the partial derivative of Q with respect to L and K respectively, and apply the previous definition to see if the statement holds.
- Applying Euler's Theorem then means
should be equal to
(remember that in this case, m=3, see previous exercise).
- Solving

- Then the Euler's Theorem is verified!