Exam 11: Differential Equations

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​Use separation of variables to find the general solution of the differential equation. ​ ​Use separation of variables to find the general solution of the differential equation. ​   ​ ​

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​Use separation of variables to find the general solution of the differential equation. ​ ​Use separation of variables to find the general solution of the differential equation. ​   ​ ​

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​Use the initial condition to find the particular solution of the differential equation. ​ ​Use the initial condition to find the particular solution of the differential equation. ​   ,   when   ​ , ​Use the initial condition to find the particular solution of the differential equation. ​   ,   when   ​ when ​Use the initial condition to find the particular solution of the differential equation. ​   ,   when   ​ ​

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​Use separation of variables to find the general solution of the differential equation. ​ ​Use separation of variables to find the general solution of the differential equation. ​   ​ ​

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​Determine whether the function ​Determine whether the function   is a solution of the differential equation   ​ is a solution of the differential equation ​Determine whether the function   is a solution of the differential equation   ​ ​

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Which of the following is a solution of the differential equation Which of the following is a solution of the differential equation   ? ​ ? ​

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​Write the first-order linear differential equation in standard form. ​ ​ ​Write the first-order linear differential equation in standard form. ​ ​   ​ ​

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Use the initial condition to find the particular solution of the differential equation. ​ Use the initial condition to find the particular solution of the differential equation. ​   ,   when  , Use the initial condition to find the particular solution of the differential equation. ​   ,   when  when Use the initial condition to find the particular solution of the differential equation. ​   ,   when

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​Use integration to find a general solution of the differential equation ​ ​Use integration to find a general solution of the differential equation ​   ​ ​

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Find the particular solution that satisfies the initial condition. Find the particular solution that satisfies the initial condition.   ; Initial Condition:   when   ​ ; Initial Condition: Find the particular solution that satisfies the initial condition.   ; Initial Condition:   when   ​ when Find the particular solution that satisfies the initial condition.   ; Initial Condition:   when   ​ ​

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​Determine whether the function ​Determine whether the function   is a solution of the differential equation   ​ is a solution of the differential equation ​Determine whether the function   is a solution of the differential equation   ​ ​

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A wet towel hung from a clothesline to dry loses moisture through evaporation at a rate proportional to its moisture content.After 1 hour,the towel has lost 40% of its original moisture content.How long will it take the towel to lose 80% of its original moisture content? ​

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​Determine whether ​Determine whether   is a solution of the differential equation   ​ is a solution of the differential equation ​Determine whether   is a solution of the differential equation   ​ ​

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Find the particular solution of the differential equation Find the particular solution of the differential equation   that satisfies the initial condition   when   ,where   is the general solution. ​ that satisfies the initial condition Find the particular solution of the differential equation   that satisfies the initial condition   when   ,where   is the general solution. ​ when Find the particular solution of the differential equation   that satisfies the initial condition   when   ,where   is the general solution. ​ ,where Find the particular solution of the differential equation   that satisfies the initial condition   when   ,where   is the general solution. ​ is the general solution. ​

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​A medical researcher wants to determine the concentration C (in moles per liter)of a tracer drug injected into a moving fluid with flow R (in liters per minute).Solve this problem by considering a single-compartment dilution model (see figure).Assume that the fluid is continuously mixed and that the volume V (in liters)of fluid in the compartment is constant. ​ ​A medical researcher wants to determine the concentration C (in moles per liter)of a tracer drug injected into a moving fluid with flow R (in liters per minute).Solve this problem by considering a single-compartment dilution model (see figure).Assume that the fluid is continuously mixed and that the volume V (in liters)of fluid in the compartment is constant. ​   ​ If the tracer is injected instantaneously at time   ,then the concentration of the fluid in the compartment begins diluting according to the differential equation   ,   when   (a)Solve this differential equation to find the concentration as a function of time. (b)Find the limit of ​C as   ​​ ​ If the tracer is injected instantaneously at time ​A medical researcher wants to determine the concentration C (in moles per liter)of a tracer drug injected into a moving fluid with flow R (in liters per minute).Solve this problem by considering a single-compartment dilution model (see figure).Assume that the fluid is continuously mixed and that the volume V (in liters)of fluid in the compartment is constant. ​   ​ If the tracer is injected instantaneously at time   ,then the concentration of the fluid in the compartment begins diluting according to the differential equation   ,   when   (a)Solve this differential equation to find the concentration as a function of time. (b)Find the limit of ​C as   ​​ ,then the concentration of the fluid in the compartment begins diluting according to the differential equation ​A medical researcher wants to determine the concentration C (in moles per liter)of a tracer drug injected into a moving fluid with flow R (in liters per minute).Solve this problem by considering a single-compartment dilution model (see figure).Assume that the fluid is continuously mixed and that the volume V (in liters)of fluid in the compartment is constant. ​   ​ If the tracer is injected instantaneously at time   ,then the concentration of the fluid in the compartment begins diluting according to the differential equation   ,   when   (a)Solve this differential equation to find the concentration as a function of time. (b)Find the limit of ​C as   ​​ , ​A medical researcher wants to determine the concentration C (in moles per liter)of a tracer drug injected into a moving fluid with flow R (in liters per minute).Solve this problem by considering a single-compartment dilution model (see figure).Assume that the fluid is continuously mixed and that the volume V (in liters)of fluid in the compartment is constant. ​   ​ If the tracer is injected instantaneously at time   ,then the concentration of the fluid in the compartment begins diluting according to the differential equation   ,   when   (a)Solve this differential equation to find the concentration as a function of time. (b)Find the limit of ​C as   ​​ when ​A medical researcher wants to determine the concentration C (in moles per liter)of a tracer drug injected into a moving fluid with flow R (in liters per minute).Solve this problem by considering a single-compartment dilution model (see figure).Assume that the fluid is continuously mixed and that the volume V (in liters)of fluid in the compartment is constant. ​   ​ If the tracer is injected instantaneously at time   ,then the concentration of the fluid in the compartment begins diluting according to the differential equation   ,   when   (a)Solve this differential equation to find the concentration as a function of time. (b)Find the limit of ​C as   ​​ (a)Solve this differential equation to find the concentration as a function of time. (b)Find the limit of ​C as ​A medical researcher wants to determine the concentration C (in moles per liter)of a tracer drug injected into a moving fluid with flow R (in liters per minute).Solve this problem by considering a single-compartment dilution model (see figure).Assume that the fluid is continuously mixed and that the volume V (in liters)of fluid in the compartment is constant. ​   ​ If the tracer is injected instantaneously at time   ,then the concentration of the fluid in the compartment begins diluting according to the differential equation   ,   when   (a)Solve this differential equation to find the concentration as a function of time. (b)Find the limit of ​C as   ​​ ​​

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​Write the the differential equation by separating the variables. ​ ​Write the the differential equation by separating the variables. ​   ​ ​

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Use this equation Use this equation   and find ​P if the corporation needs $120,000,000 in 8 years and the fund earns 8% interest compounded continuously. ​​ and find ​P if the corporation needs $120,000,000 in 8 years and the fund earns 8% interest compounded continuously. ​​

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