(b) You measure the data given on the right for the concentration of the drug in a patient's blood. Write down the solution to the differential equation from part (a) in terms of co and k,. t (hrs) c(t) (mg/liter) 20 1 10.2 c(t) = Calculate the parameters co and k, that fit the model to this data. Co =D and k,

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Chapter2: Second-order Linear Odes
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11-2:

**Question A: Understanding Constants in Pharmacokinetics**

- **Option A:** The constant \( k_1 \) represents the initial concentration of the drug in the blood, and constant \( c_0 \) represents the rate of elimination.
- **Option B:** The constant \( k_1 \) represents the rate of elimination and constant \( c_0 \) represents the final concentration of the drug in the blood.
- **Option C:** The constant \( k_1 \) represents the rate of elimination and constant \( c_0 \) represents the initial concentration of the drug in the blood.
- **Option D:** The constant \( k_1 \) represents the rate at which the drug is entering the blood, and constant \( c_0 \) represents the initial concentration of the drug in the blood.

**Question B: Data Analysis and Model Fitting**

You measure the data given on the right for the concentration of the drug in a patient's blood. Write down the solution to the differential equation from part (a) in terms of \( c_0 \) and \( k_1 \).

| \( t \) (hrs) | \( c(t) \) (mg/liter) |
|---------------|-----------------------|
| 0             | 20                    |
| 1             | 10.2                  |

\[ c(t) = \]

**Task: Calculate the parameters \( c_0 \) and \( k_1 \) that fit the model to this data.**

\[ c_0 = \, \text{[Blank]} \]

\[ k_1 = \, \text{[Blank]} \]
Transcribed Image Text:**Question A: Understanding Constants in Pharmacokinetics** - **Option A:** The constant \( k_1 \) represents the initial concentration of the drug in the blood, and constant \( c_0 \) represents the rate of elimination. - **Option B:** The constant \( k_1 \) represents the rate of elimination and constant \( c_0 \) represents the final concentration of the drug in the blood. - **Option C:** The constant \( k_1 \) represents the rate of elimination and constant \( c_0 \) represents the initial concentration of the drug in the blood. - **Option D:** The constant \( k_1 \) represents the rate at which the drug is entering the blood, and constant \( c_0 \) represents the initial concentration of the drug in the blood. **Question B: Data Analysis and Model Fitting** You measure the data given on the right for the concentration of the drug in a patient's blood. Write down the solution to the differential equation from part (a) in terms of \( c_0 \) and \( k_1 \). | \( t \) (hrs) | \( c(t) \) (mg/liter) | |---------------|-----------------------| | 0 | 20 | | 1 | 10.2 | \[ c(t) = \] **Task: Calculate the parameters \( c_0 \) and \( k_1 \) that fit the model to this data.** \[ c_0 = \, \text{[Blank]} \] \[ k_1 = \, \text{[Blank]} \]
**Modeling Drug Concentration in Blood**

When you are modeling the concentration of a drug in a person's blood after they take one pill, we assume that once ingested, the drug enters their bloodstream instantaneously. The drug is modeled to exhibit first-order elimination kinetics, which is described by the following differential equation:

\[
\frac{dc}{dt} = -k_1 c
\]

where \( c(0) = c_0 \).

**Explanation of the Equation:**

- \( \frac{dc}{dt} \) represents the rate of change of the drug concentration in the blood over time.
- \( k_1 \) is a constant that represents the rate of elimination of the drug.
- \( c \) is the concentration of the drug in the blood.
- \( c_0 \) is the initial concentration of the drug right after the pill is taken.

This model helps in understanding how the drug concentration decreases over time, an important consideration for effective dosing regimens.
Transcribed Image Text:**Modeling Drug Concentration in Blood** When you are modeling the concentration of a drug in a person's blood after they take one pill, we assume that once ingested, the drug enters their bloodstream instantaneously. The drug is modeled to exhibit first-order elimination kinetics, which is described by the following differential equation: \[ \frac{dc}{dt} = -k_1 c \] where \( c(0) = c_0 \). **Explanation of the Equation:** - \( \frac{dc}{dt} \) represents the rate of change of the drug concentration in the blood over time. - \( k_1 \) is a constant that represents the rate of elimination of the drug. - \( c \) is the concentration of the drug in the blood. - \( c_0 \) is the initial concentration of the drug right after the pill is taken. This model helps in understanding how the drug concentration decreases over time, an important consideration for effective dosing regimens.
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