D.E.: Change in temperature Problem

Thread starter Jeff12341234
Start date Feb 25, 2013
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Change Temperature

In summary, D.E. (differential equation) is an important mathematical tool that helps us understand the relationship between temperature and its rate of change. It can accurately predict temperature change by incorporating external factors and constantly refining its models. However, it has limitations such as simplifications and assumptions, and may not account for all external factors. D.E. can be applied to real-world problems related to temperature change, such as predicting future climate patterns and developing strategies to mitigate its effects.

Feb 25, 2013

Jeff12341234

I';m not sure if my answer is correct. Are there any mistakes?
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Feb 26, 2013

ehild

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It is correct, except that you wrote 13 instead of 31 in the last line.

ehild

Feb 26, 2013

rude man

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Jeff12341234 said:

I';m not sure if my answer is correct. Are there any mistakes?
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.

I second the motion - I got 91.35 min.

1. What is D.E. and why is it important in studying temperature change?

D.E. stands for differential equation, which is a mathematical equation used to describe the relationship between a quantity and its rate of change. In the context of temperature change, D.E. helps us understand how temperature changes over time, which is crucial in studying climate patterns and predicting future temperature changes.

2. Can D.E. accurately predict temperature change?

D.E. models are based on various factors and assumptions, so they can provide fairly accurate predictions of temperature change. However, they are not perfect and can be affected by unexpected variables or errors in data collection. Therefore, D.E. should be used in conjunction with other methods and constantly refined to improve accuracy.

3. How does D.E. take into account external factors that may affect temperature change?

D.E. models can incorporate external factors such as greenhouse gas emissions, solar radiation, and ocean currents into their equations. These factors can be represented as constants or as functions that change over time, allowing for a more comprehensive understanding of temperature change.

4. What are the limitations of using D.E. to study temperature change?

One limitation of D.E. models is that they rely on simplifications and assumptions, which may not accurately represent the complex and dynamic nature of temperature change. Additionally, D.E. models may not take into account all external factors or unforeseen events that can impact temperature change.

5. How can D.E. be applied to real-world problems related to temperature change?

D.E. can be used to study various real-world problems related to temperature change, such as predicting future climate patterns, understanding the impact of human activities on temperature change, and developing strategies to mitigate and adapt to temperature change. D.E. models can also be used to analyze data and identify patterns and trends in temperature change, providing valuable insights for decision-making and policy development.