Warning: foreach() argument must be of type array|object, bool given in /var/www/html/web/app/themes/studypress-core-theme/template-parts/header/mobile-offcanvas.php on line 20

Noting that contemporary economic theorists often draw on principles from mechanics such as conservation of energy to explain the workings of economies, \(\mathrm{N}\). Georgescu-Roegen and like-minded economists have called for the use of principles from thermodynamics in economics. According to this view, entropy and the second law of thermodynamics are relevant for assessing not only the exploitation of natural resources for industrial and agricultural production but also the impact on the natural environment of wastes from such production. Write a paper in which you argue for, or against, the proposition that thermodynamics is relevant to the field of economics.

Short Answer

Expert verified
Write a paper arguing thermodynamics' relevance to economics with a clear thesis, supporting points, and counterarguments.

Step by step solution

01

Understand the Assignment

You need to write a paper arguing for or against the proposition that thermodynamics is relevant to economics. This involves discussing principles like entropy and the second law of thermodynamics in the context of natural resource exploitation and environmental impact.
02

Research Thermodynamics and Economics

Gather information on the principles of thermodynamics, especially entropy and the second law. Also, research how these principles have been applied to economic theories, particularly by economists like N. Georgescu-Roegen.
03

Choose Your Position

Decide whether you will argue in favor of the relevance of thermodynamics to economics or against it.
04

Formulate Your Thesis Statement

Create a clear thesis statement that reflects your position. For example, 'Thermodynamics, particularly the concepts of entropy and the second law, provides essential insights into the sustainability of economic practices.'
05

Outline Your Paper

Draft an outline with an introduction, several body paragraphs, and a conclusion. Plan what points you will cover to support your thesis.
06

Write the Introduction

Introduce the topic and state your thesis. Provide some background on thermodynamics and its connection to economics.
07

Develop Body Paragraphs

For each paragraph, present a point that supports your thesis. Use evidence from your research, such as quotes from economists, data, and examples. Discuss both the application of thermodynamics to resource exploitation and to environmental impact.
08

Address Counterarguments

Consider at least one counterargument and refute it. This shows that you have thought critically about the topic and can defend your position.
09

Write the Conclusion

Summarize your main points and restate your thesis in a new way. Discuss the broader implications of your argument.
10

Review and Revise

Proofread your paper for clarity, coherence, and grammatical accuracy. Make sure each point logically follows from the last and that you have supported your thesis effectively.

Unlock Step-by-Step Solutions & Ace Your Exams!

  • Full Textbook Solutions

    Get detailed explanations and key concepts

  • Unlimited Al creation

    Al flashcards, explanations, exams and more...

  • Ads-free access

    To over 500 millions flashcards

  • Money-back guarantee

    We refund you if you fail your exam.

Over 30 million students worldwide already upgrade their learning with Vaia!

Key Concepts

These are the key concepts you need to understand to accurately answer the question.

entropy in economics
In thermodynamics, entropy measures the level of disorder or randomness within a system. It's often seen as a process of energy dispersion. In economic terms, entropy can be thought of as the natural tendency of resources to move from a state of order (usefulness) to disorder (uselessness). For example, when natural resources like oil are extracted and used for energy, the high-quality, dense energy becomes dispersed through processes like combustion.
This dispersion of energy aligns with the concept of economic entropy. It underscores the limits of resource utility over time. The more we extract and use, the less we have available in an organized, useful form.
Recognizing entropy in economics helps highlight the issues of resource depletion and inefficiencies within production systems. It argues for a mindful approach to managing resources and emphasizes conservation and sustainable practices.
second law of thermodynamics
The second law of thermodynamics states that in any energy transfer or transformation, the total entropy (disorder) of an isolated system will always increase over time. This law is crucial in understanding energy efficiency and sustainability in economic practices. When applied to economics, it suggests that every economic process, such as production or consumption, will lead to increased entropy.
For instance, when a factory produces goods, it not only uses resources but also generates waste and pollution, contributing to higher entropy in the environment.
Understanding this law helps economists and policymakers recognize that perpetual economic growth is impossible without considering the limits imposed by increased entropy. It also drives home the importance of optimizing energy use and minimizing waste to maintain long-term sustainability.
sustainability in economic practices
Sustainability in economic practices means using resources in ways that do not deplete them for future generations. It involves integrating ecological health, long-term economic vitality, and social equity. By incorporating thermodynamics principles, such as entropy and the second law, we can better understand how resource use impacts sustainability.
For example, sustainable practices might include reducing energy consumption, recycling materials, and promoting renewable energy sources. These practices help manage resources efficiently and minimize environmental impact.
Sustainability also emphasizes the need for a balance between economic growth and environmental preservation. By understanding the thermodynamic constraints, we can develop more holistic and forward-thinking economic models that prioritize sustainability.
natural resource exploitation
Natural resource exploitation refers to the extraction and use of natural resources for economic gain. While essential for economic development, over-exploitation leads to significant adverse effects like resource depletion, environmental degradation, and increased entropy.
For example, excessive mining of minerals or deforestation for agriculture can lead to soil erosion, loss of biodiversity, and ecosystem imbalance.
By applying the principles of thermodynamics, we understand that each extractive action increases entropy and moves resources from a state of high utility to lower utility. This knowledge encourages more efficient and sustainable extraction methods, which can reduce waste and protect natural ecosystems.
environmental impact of production
The environmental impact of production is a critical concern in modern economics. Each production process, whether manufacturing goods or growing food, affects the environment by consuming resources and generating waste. This waste contributes to increased entropy according to the second law of thermodynamics.
For instance, industrial processes emit pollutants that degrade air and water quality, impacting ecosystems and human health.
Understanding thermodynamic principles helps us gauge the full environmental costs of production. It stresses the importance of developing cleaner technologies, improving waste management, and adopting circular economic models where waste is minimized, and materials are reused.
Ultimately, recognizing the environmental impact of production pushes for more sustainable industrial practices that align economic activities with ecological balance.

One App. One Place for Learning.

All the tools & learning materials you need for study success - in one app.

Get started for free

Most popular questions from this chapter

Answer the following true or false. If false, explain why. A process that violates the second law of thermodynamics violates the first law of thermodynamics. (b) When a net amount of work is done on a closed system undergoing an internally reversible process, a net heat transfer of energy from the system also occurs. (c) One corollary of the second law of thermodynamics states that the change in entropy of a closed system must be greater than zero or equal to zero. (d) A closed system can experience an increase in entropy only when irreversibilities are present within the system during the process. (e) Entropy is produced in every internally reversible process of a closed system. (f) In an adiabatic and internally reversible process of a closed system, the entropy remains constant. (g) The energy of an isolated system must remain constant, but the entropy can only decrease.

Methane gas \(\left(\mathrm{CH}_{4}\right)\) enters a compressor at \(298 \mathrm{~K}, 1\) bar and exits at 2 bar and temperature \(T\). Employing the ideal gas model, determine \(T\), in \(\mathrm{K}\), if there is no change in specific entropy from inlet to exit.

A system executes a power cycle while receiving \(1000 \mathrm{~kJ}\) by heat transfer at a temperature of \(500 \mathrm{~K}\) and discharging energy by heat transfer at a temperature of \(300 \mathrm{~K}\). There are no other heat transfers. Applying Eq. 6.2, determine \(\sigma_{\text {cycle }}\) if the thermal efficiency is (a) \(60 \%\), (b) \(40 \%\), (c) \(20 \%\). Identify the cases (if any) that are internally reversible or impossible.

A piston-cylinder assembly initially contains \(0.1 \mathrm{~m}^{3}\) of carbon dioxide gas at \(0.3\) bar and \(400 \mathrm{~K}\). The gas is compressed isentropically to a state where the temperature is \(560 \mathrm{~K}\). Employing the ideal gas model and neglecting kinetic and potential energy effects, determine the final pressure, in bar, and the work in \(\mathrm{kJ}\), using (a) data from Table A-23. (b) \(I T\) (c) a constant specific heat ratio from Table A-20 at the mean temperature, \(480 \mathrm{~K}\). (d) a constant specific heat ratio from Table A-20 at \(300 \mathrm{~K}\).

Water is to be pumped from a lake to a reservoir located on a bluff \(290 \mathrm{ft}\) above. According to the specifications, the piping is Schedule 40 steel pipe having a nominal diameter of 1 inch and the volumetric flow rate is \(10 \mathrm{gal} / \mathrm{min}\). The total length of pipe is \(580 \mathrm{ft}\). A centrifugal pump is specified. Estimate the electrical power required by the pump, in \(\mathrm{kW}\). Is a centrifugal pump a good choice for this application? What precautions should be taken to avoid cavitation?

See all solutions

Recommended explanations on Physics Textbooks

View all explanations

What do you think about this solution?

We value your feedback to improve our textbook solutions.

Study anywhere. Anytime. Across all devices.

Sign-up for free