Solving Differential Equations to 2 ln |20-2h| = kt + c

In summary, the problem is asking to solve the separable differential equation -2 ln |20-2h| = kt + c, with an initial condition of h(5) = 2. The solution should be rearranged to solve for h(t).
  • #1
kyu
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-2 ln |20-2h| = kt + c

kinda lost. solving (i) would be enough for me
 

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  • #2
kyu said:

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-2 ln |20-2h| = kt + c

kinda lost. solving (i) would be enough for me

The first part of the question is asking you to solve the separable differential equation. It looks like your solution is fine to me. Except you need to re-arrange it a bit. Solve for ##h(t)##.

The second part of the question is 'hinting' at an initial condition. In particular: ##h(5) = 2##. So what does that tell you about the rest of the information?
 
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FAQ: Solving Differential Equations to 2 ln |20-2h| = kt + c

What are differential equations?

Differential equations are mathematical equations that describe the relationship between a function and its derivatives (rate of change). They are used to model and understand real-world phenomena in fields such as physics, engineering, and economics.

What are the types of differential equations?

The two main types of differential equations are ordinary differential equations (ODEs) and partial differential equations (PDEs). ODEs involve a single independent variable, while PDEs involve multiple independent variables. Additionally, there are linear and nonlinear differential equations, depending on whether the equations are linear or nonlinear functions of the dependent variable.

How are differential equations solved?

Differential equations can be solved analytically (using mathematical formulas and techniques) or numerically (using algorithms and computer simulations). The method of solving depends on the type of differential equation and its complexity. Some common analytical methods include separation of variables, variation of parameters, and Laplace transforms.

What are the applications of differential equations?

Differential equations have a wide range of applications in various fields. Some examples include modeling population growth, predicting the behavior of electrical circuits, analyzing chemical reactions, and understanding the motion of objects in physics. They are also used in financial modeling, control theory, and many other areas.

How are differential equations used in science?

Differential equations are essential tools in scientific research and discovery. They are used to create mathematical models that describe the behavior of complex systems and phenomena. By solving these equations, scientists can gain insights and make predictions about real-world systems, leading to advancements in various fields such as physics, biology, and engineering.

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