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What is the difference between an algebraic equation and a differential equation?

Short Answer

Expert verified
Answer: The main differences between algebraic equations and differential equations are: 1. Algebraic equations involve arithmetic operations and are expressed in a closed form, while differential equations involve derivatives and can be expressed in open form. 2. Algebraic equations deal with relationships between variables, whereas differential equations deal with relationships between functions and their rates of change (derivatives). 3. The solutions to algebraic equations are numeric values or expressions that satisfy the equation, while the solutions to differential equations are functions that satisfy the equation. 4. Methods for solving algebraic equations include factoring, substitution, elimination, and completing the square, whereas methods for solving differential equations include separation of variables, integrating factors, Laplace transforms, and Euler's method.

Step by step solution

01

Define algebraic equations and differential equations.

An algebraic equation is an expression that contains one or more unknown variables and a relation between these variables, usually written using arithmetic operations (addition, subtraction, multiplication, division) and equal sign. A differential equation, on the other hand, is an equation involving a function and its derivatives (rates of change) with respect to one or more variables.
02

Provide examples of algebraic equations and differential equations.

Example of an algebraic equation: x^2 - 4x + 4 = 0. This equation is a quadratic equation. Notice that it has no derivatives; it only involves arithmetic operations. Example of a differential equation: y'(x) + 2y(x) = e^{-2x}. This equation relates a function y(x) to its first derivative y'(x) and involves an exponential term e^{-2x}.
03

Describe the main differences between algebraic equations and differential equations.

The main differences between algebraic equations and differential equations are: 1. Algebraic equations involve arithmetic operations and are expressed in a closed form, whereas differential equations involve derivatives (in one or more variables) and can be expressed in open form. 2. Algebraic equations deal with the relationships between variables, while differential equations deal with the relationships between functions and their rates of change (derivatives). 3. The solutions to algebraic equations are numeric values or expressions that satisfy the equation, whereas the solutions to differential equations are functions that satisfy the equation. 4. Methods for solving algebraic equations include factoring, substitution, elimination, and completing the square, whereas methods for solving differential equations include separation of variables, integrating factors, Laplace transforms, and Euler's method.

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Most popular questions from this chapter

A pipe is used for transporting boiling water in which the inner surface is at \(100^{\circ} \mathrm{C}\). The pipe is situated where the ambient temperature is \(20^{\circ} \mathrm{C}\) and the convection heat transfer coefficient is $50 \mathrm{~W} / \mathrm{m}^{2} \cdot \mathrm{K}$. The pipe has a wall thickness of \(3 \mathrm{~mm}\) and an inner diameter of \(25 \mathrm{~mm}\), and it has a variable thermal conductivity given as \(k(T)=k_{0}(1+\beta T)\), where $k_{0}=1.5 \mathrm{~W} / \mathrm{m} \cdot \mathrm{K}, \beta=0.003 \mathrm{~K}^{-1}\(, and \)T\( is in \)\mathrm{K}$. Determine the outer surface temperature of the pipe.

Consider a steam pipe of length \(L\), inner radius \(r_{1}\), outer radius \(r_{2}\), and constant thermal conductivity \(k\). Steam flows inside the pipe at an average temperature of \(T_{i}\) with a convection heat transfer coefficient of \(h_{i}\). The outer surface of the pipe is exposed to convection to the surrounding air at a temperature of \(T_{0}\) with a heat transfer coefficient of \(h_{\sigma}\). Assuming steady one-dimensional heat conduction through the pipe, \((a)\) express the differential equation and the boundary conditions for heat conduction through the pipe material, (b) obtain a relation for the variation of temperature in the pipe material by solving the differential equation, and (c) obtain a relation for the temperature of the outer surface of the pipe.

Consider a plane wall of thickness \(L\) whose thermal conductivity varies in a specified temperature range as \(k(T)=k_{0}\left(1+\beta T^{2}\right)\) where \(k_{0}\) and \(\beta\) are two specified constants.

The thermal conductivity of stainless steel has been characterized experimentally to vary with temperature as \(k(T)=9.14+0.021 T\) for $273

Consider a solid stainless steel wire with a thermal conductivity of $14 \mathrm{~W} / \mathrm{m} \cdot \mathrm{K}\(. The wire has a diameter of \)1 \mathrm{~mm}\(, has a resistivity of \)45 \times 10^{-8} \Omega \cdot \mathrm{m}\(, and carries a current of \)120 \mathrm{~A}$. (a) Determine the rate of heat generated within the wire $\left(\mathrm{W} / \mathrm{m}^{3}\right.\( ), and \)(b)$ calculate the maximum temperature rise in the wire.

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