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3 years ago

The following is an extension economy of scale

Business

1 answer:

ValentinkaMS [17]3 years ago

8 0

The example of an extension economy of scale is Bulk buying.

Explanation:

economies of scale are the main cost whose advantages are for the enterprises that obtain due to their scale of operation, which is measured by the amount of output produced by the company with cost per unit of output resulting in decreasing with increasing scale.

Economies of scale apply to a vast variety of organizational and business situations and at multiple areas, such as a production, the plant or an entire enterprise.

Another source of scale economies is the possibility of purchasing inputs at a lower cost per unit, when they are purchased in large quantities.

Managerial economies of scale occur when large firms are able to afford specialists. They manage i an effective manner, particular areas of the company.

Economies of Scale refer to the cost advantage that us experienced by a firm when it increases its level of output.
The advantage of the huge buying arises due to the inverse relationship between per-unit fixed cost and the quantity produced. The greater the quantity of output produced, the lower the per-unit fixed cost.

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A company reports the amounts below in its financial statements. Net cash flow from operating activities $37,570 Total net cash

balandron [24]

Answer:

Ratio will be 0.92

So option (A) will be the correct option

Explanation:

We have given net cash flow from operating activities = $37570

So net operating cash flow = $37570

Current liabilities at the bugging of the year = $38400

Current liabilities at the end of the year = $43200

So average current liabilities $=\frac{38400+43200}{2}=$40800$

We have to find the ratio of operating cash flow to current liabilities

So ratio will be $=\frac{37570}{40800}=0.92$

So option (A) will be the correct option

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3 years ago

Ethan uses the cash method of accounting and a calendar year. ethan received a check from a client on december 26, 2016. he didn

Volgvan

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3 years ago

When a tax is levied on a good, the buyers and sellers of the good share the burden, A. provided the tax is levied on the seller

Morgarella [4.7K]

Answer:

Here all of these options are wrong , the correct answer is regardless of how the tax is levied the burden of tax would be shared by both the seller and buyer.

Explanation:

Tax can be said as primary source of income for the government. When a tax is levied on the goods , the burden of that would have to be bear by both buyer and seller , irrelevant of how that levied . If the taxes are high then the demand by buyer would be less and seller would receive low price because less people would buy and n the case where taxes are low demand would be high and seller would receive high prices ,in both cases tax would be levied on both seller and buyer and how much it would be depends upon the elasticity of demand and supply. So all the statements given here are false or invalid.

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3 years ago

A body in the solar system has a period of 10,759.22 days and a perihelion speed of 10.18 km/s. a. Calculate the aphelion radius

anastassius [24]

Answer:

Explanation:

From the information given, by applying Kepler's 3rd law,

$T^2 \alpha a^3$

where;

T = period

a = semi major axis

T = 356 days (for earth)

a = 1 AU = 1.496 $\times 10^8 \ km$

Therefore, $T^2 = ca^3$

$c= \dfrac{365^2}{(1.496 \times 10^8)^3}$

c = 3.9791 $\times 10^{20} \ day^2/km^3$

However, if the body in the solar system has a period of 10.759.22 days, then, a =?

∴

$T^2 = ca^3$

$a3 = \dfrac{10759.22^2}{3.9791 \times 10^{-20}}$

$a^3 = 2.9092 \times 10^{27}$

$a= \sqrt[3]{2.9092 \times 10^{27}}$

a = 1.4275 $\times 10^9 \ km$

However, the velocity for a perihelion = 10.18 km/s

Using the formula

$v = \sqrt{GM ( \dfrac{2}{r}-\dfrac{1}{a})}$ to calculate the radius, we have:

G = $6.674 \times 10^{-11}$

M = $1.989\times 10^{30} \ kg$

r = perihelion

$v ^2= GM ( \dfrac{2}{r}-\dfrac{1}{a})$

$(10.18 \times 10^3) ^2= 6.674 \times 10^{-11} \times 1.989 \times 10^{30} ( \dfrac{2}{r}-\dfrac{1}{1.425 \times 10^{12}})$

$7.8068 \times 10^{-13}= \dfrac{2}{r}-\dfrac{1}{1.425 \times 10^{12}}$

$\dfrac{2}{r} = 1.4824 \times 10^{-12}$

$r = \dfrac{2}{1.4824 \times 10^{-12}}$

$r = 1.349 \times 10^{12}$

Similarly, the perihelion is expressed by the equation,

r = a(1 - e)

where ;

e= eccentricity

∴

$1.349 \times 10^{12} = 1.425 \times 10^{12} ( 1 - e)$

$1.349 \times 10^{12} - 1.425 \times 10^{12}= - 1.425 \times 10^{12} (e)$

$-7.6\times 10^{10}= - 1.425 \times 10^{12} (e)$

$\dfrac{-7.6\times 10^{10}}{- 1.425 \times 10^{12}}= (e)$

e ( eccentricity) = 0.0533

Aphelion radius in natural miles, r = a( 1+ e)

$r = 1.425 \times 10^{12} ( 1 + 0.0533)$

$r = 1.50 \times 10^{12} \ m$

to nautical miles, we have:

$r = 1.50 \times 10^{12} \times 0.00054 \ nautical \ mile$

radius of aphelion $\mathbf{r = 8.10 \times 10^8}$ nautical miles

In respect to the value of a( i.e $1.4275 \times 10^9 \ km)$

the body of the solar system is Saturn

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3 years ago

If a firm has an incentive to increase supply now and decrease supply in the future, then the firm expects that the

blondinia [14]

<span>If a firm has an incentive to increase supply now and decrease supply in the future, then the firm expects that the prices for the firm's product will be lower than the prices that have been set in the present. In the present case as the supply is increased, the prices are higher as the demand is higher. Then at later point of time when the supply is decreased, then demand also decreased, then the prices are likely to come down.</span>

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3 years ago