True/False Indicate whether the
statement is true or false.
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1.
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In the Solow growth model, the growth rate of capital per worker is positively
related to the optimum capital per worker.
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2.
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In the Solow growth model the growth rate of capital per worker is positively
related to the initial level of capital per worker.
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3.
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The Solow growth model with technological progress has continuous output per
worker growth in the steady state.
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4.
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Ideas are rival goods.
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5.
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Governments grant patents and copyrights to encourage firms to engage in
research and development.
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Multiple Choice Identify the
choice that best completes the statement or answers the question.
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6.
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Conditional convergence is the tendency of economies to converge:
a. | all the time. | b. | when they are similar. | c. | only when economic
conditions are good. | d. | only when currencies are
stable. |
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7.
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Absolute convergence is the tendency of economies to converge:
a. | all the time. | b. | when they are similar. | c. | only when economic
conditions are good. | d. | only when currencies are
stable. |
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8.
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In the Solow growth model transition, the growth rate of capital per worker is
negatively related to:
a. | the initial capital stock per worker, k(0). | b. | k/k. | c. | the optimum output per worker, k* | d. | all of the
above. |
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9.
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In the Solow growth model transition, the growth rate of capital per worker is
positively related to:
a. | the initial capital stock per worker, k(0). | b. | k/k. | c. | the optimum output per worker, k* | d. | all of the
above. |
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10.
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In the Solow growth model transition, the growth rate of output per worker is
negatively related to:
a. | the initial capital stock per worker, k(0). | b. | y/y. | c. | the optimum output per worker, y* | d. | all of the
above. |
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11.
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In the Solow growth model transition, the growth rate of output per worker is
positively related to:
a. | the initial capital stock per worker, k(0). | b. | y/y. | c. | the optimum output per worker, y* | d. | all of the
above. |
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12.
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The key equation for conditional convergence for capital per worker is:
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13.
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The key equation for conditional convergence for output per worker is:
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14.
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In the key equation for convergence , y(0) is:
a. | the initial level of output. | b. | the initial level of output per
worker. | c. | the optimum level of output. | d. | the optimum level of output per
worker. |
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15.
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In the key equation for convergence , y* is:
a. | the initial level of output. | b. | the initial level of output per
worker. | c. | the optimum level of output. | d. | the optimum level of output per
worker. |
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16.
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In the key equation for convergence , k* is:
a. | the initial level of capital. | b. | the initial level of capital per
worker. | c. | the optimum level of capital. | d. | the optimum level of capital per
worker. |
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17.
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In the key equation for convergence , k(0) is:
a. | the initial level of capital. | b. | the initial level of capital per
worker. | c. | the optimum level of capital. | d. | the optimum level of capital per
worker. |
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18.
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Convergence can be seen in the data of all countries together if one holds
constant:
a. | the saving rate. | b. | the fertility rate. | c. | the degree the rule
of law is maintained. | d. | all of the
above. |
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19.
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Convergence can be seen in the data of all countries together if one holds
constant:
a. | the degree that democracy is maintained. | b. | changes in the terms
of trade. | c. | the average rate of inflation. | d. | all of the
above. |
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20.
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Convergence can be seen in the data of all countries together if one holds
constant:
a. | the size of government. | b. | the extent of international
openness. | c. | investment in education and health. | d. | all of the
above. |
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21.
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In the Solow growth model, the long run rate of growth of output per worker
is:
a. | zero | b. | negative. | c. | cyclical. | d. | positive. |
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22.
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A growth model with continuing output per worker growth in the long run
is:
a. | the production function. | b. | the Ak model of constant average product of
capital. | c. | the Solow growth model. | d. | all of the
above. |
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23.
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If in the model with constant average product of capital, the
long run growth rate is:
a. | constant. | b. | positive | c. | negative. | d. | cyclical. |
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24.
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A problem with the constant average product of capital growth model is
that:
a. | output per worker grows in the long run. | b. | there is no
convergence. | c. | the Y/K ratio grows. | d. | all of the
above. |
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25.
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A problem with the constant average product of capital growth model is
that:
a. | a common view among economist is that the average product of capital eventually
starts to fall as capital rises. | b. | output per worker grows in the long
run. | c. | the Y/K ratio grows. | d. | all of the
above. |
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26.
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If in the model with constant average product of capita, the
long run growth rate is:
a. | | b. | Ak | c. | | d. | none of the above. |
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27.
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In the Solow growth model with technological progress,
a. | k* is constant. | b. | k* is growing. | c. | k* is
cyclical. | d. | k* is declining. |
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28.
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In the Solow growth model with technological progress in the steady
state:
a. | capital per worker is constant. | b. | capital per worker is
cyclical. | c. | capital per worker is increasing. | d. | capital per worker is
declining. |
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29.
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In the Solow growth model with technological progress in the optimal amount of
capital per worker is
a. | growing. | b. | shrinking. | c. | cyclical. | d. | fluctuating. |
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30.
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In endogenous growth models, technological progress comes from:
a. | outside the system. | b. | research and development. | c. | increases in the
capital stock. | d. | all of the above. |
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31.
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An example of a rival capital good is:
a. | infrastructure like roads. | b. | a machine like a printing
press. | c. | an idea like a new chemical formula for a drug. | d. | all of the
above. |
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32.
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An example of a non-rival good is:
a. | a output like a pizza. | b. | a machine like a printing
press. | c. | an idea like a new chemical formula for a drug. | d. | all of the
above. |
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33.
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An example of a non-rival good is:
a. | mathematical formulas in calculus. | b. | codes for computer
software. | c. | an idea like a new chemical formula for a drug. | d. | all of the
above. |
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34.
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An example of a rival capital good is:
a. | an employee like an R&D engineer. | b. | a machine like a printing
press. | c. | a structure like a factory. | d. | all of the
above. |
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35.
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An example of a non-rival good is:
a. | an output like a shirt. | b. | code for computer software. | c. | a structure like a
factory. | d. | all of the above. |
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36.
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An example of non-rival good is:
a. | mathematical formulas in calculus. | b. | a machine like a laser
printer. | c. | an output like a dress. | d. | all of the
above. |
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37.
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To encourage firms to engage in research and development (R&D), governments
grant temporary monopolies in the production of the goods that result from R&D called:
a. | patents. | b. | land grants. | c. | anti-trust
exemptions. | d. | all of the above. |
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38.
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To encourage firms to engage in research and development (R&D), governments
grant temporary monopolies in the production of the word or symbol based goods like books and
computer code that result from R&D called:
a. | cartels. | b. | copyrights. | c. | anti-trust
exemptions. | d. | all of the above. |
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39.
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The private return from research and development might be less than the social
return because:
a. | others than just the inventor can use inventions that come out of research and
development. | b. | it is encouraged by patents and copyrights. | c. | it is funded by the
government. | d. | all of the above. |
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40.
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The rewards to private R&D depend on:
a. | the costs of R&D. | b. | the rewards from the results of
R&D. | c. | the security of intellectual property rights. | d. | all of the
above. |
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41.
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The rewards to private R&D are negatively related to:
a. | the costs of R&D. | b. | the rewards from the results of
R&D. | c. | the security of intellectual property rights. | d. | all of the
above. |
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42.
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The rewards to private R&D are positively related to:
a. | the costs of R&D. | b. | growth rate of capital per
worker. | c. | the security of intellectual property rights. | d. | all of the
above. |
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43.
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If intellectual property rights become better secured, then:
a. | the costs of R&D are greater. | b. | the costs of R&D are
smaller. | c. | the private returns to R&D are greater. | d. | the private returns
to R&D are smaller. |
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44.
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The ability to control the inventions from R&D spending is known as
a. | greed. | b. | a rival good. | c. | intellectual
property rights. | d. | all of the above. |
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45.
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A business may not seek a patent on an idea or invention because:
a. | patents are not valuable. | b. | approval is costly. | c. | ideas and inventions
are non-rival. | d. | all of the above. |
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46.
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Diffusion of technology means:
a. | how many industries a technology can be used in. | b. | describes the
imitation and adaptation of technology from country to country. | c. | how expensive a
technology is. | d. | how many scientist had to work on a technology. |
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47.
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Steady state growth is when:
a. | when the average product of capital, y/k, is unchanging as k increases at a constant
rate. | b. | when the rate of growth of capital per worker is constant at
zero. | c. | when the rate growth of output per worker is constant at zero. | d. | all of the
above. |
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48.
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With steady state growth:
a. | | b. | y/k is constant. | c. | | d. | all of the above. |
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49.
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With steady state growth:
a. | | b. | k* = 0. | c. | y* =
0. | d. | all of the above. |
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50.
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With steady state growth:
a. | there is absolute convergence. | b. | y/k is constant. | c. | k* growth
fluctuates. | d. | all of the above. |
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51.
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With steady state growth:
a. | k* growth fluctuates. | b. | there is absolute
convergence. | c. | | d. | all of the
above. |
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52.
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With steady state growth:
a. | the optimal output per worker and capital per worker grow at the same
rate. | b. | the steady state growth rate of real GDP per worker is greater than the rate of
technological progress. | c. | the average product of capital is
constant. | d. | all of the above. |
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53.
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With steady state growth:
a. | the optimal output per worker and capital per worker grow at the same
rate. | b. | the steady state growth rate of real GDP per worker is equal to the rate of
technological progress. | c. | the average product of capital
falls. | d. | all of the above. |
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54.
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With steady state growth:
a. | the optimal output per worker grows faster than optimal capital per
worker. | b. | the steady state growth rate of real GDP per worker is less than the rate of
technological progress. | c. | the average product of capital is
constant. | d. | all of the above. |
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55.
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With steady state growth:
a. | the optimal output per worker grows faster than the optimal capital per
worker. | b. | the steady state growth rate of real GDP per worker is greater than the rate of
technological progress. | c. | the average product of capital is
falling. | d. | all of the above. |
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Short Answer
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56.
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What is conditional convergence?
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57.
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What variables must be held constant to find convergence in the data on all
countries.
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58.
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What is the key equation for conditional convergence and what are the direction
of influences?
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59.
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What are the steady-state growth results of a constant average product of
capital model of growth and what are the problems of such a model?
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60.
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What happens when exogenous technological change is modeled in the Solow growth
model?
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