Section 10.1 Separable Equations II

Slides:



Advertisements
Similar presentations
Measure out between 0.45 and 0.55 gram of sodium carbonate and react with enough acid to totally consume the carbonate.
Advertisements

The Arithmetic of Equations
CHAPTER Continuity Seperable Equations A separable equation is a first-order differential equation in which the expression for dy / dx can be factored.
7.6 Differential Equations. Differential Equations Definition A differential equation is an equation involving derivatives of an unknown function and.
Math 3C Practice Word Problems Prepared by Vince Zaccone For Campus Learning Assistance Services at UCSB.
Some Applications Involving Separable Differential Equations.
DIFFERENTIAL EQUATIONS 9. We have looked at first-order differential equations from a geometric point of view (direction fields) and from a numerical.
Elements, Compounds and Mixtures
9.3 Separable Equations.
An introduction to Chemistry. Why is Chemistry Important? Used in many professions Used to create new clean sources of energy Understand and control diseases.
Oct. 29, 2012 AGENDA: 1 – Bell Ringer 2 – Announcements 3 – Cornell Notes: Pure Substances & Mixtures 4 – Raise ‘em up 5 – Go with the Flow Today’s Goal:
L’Hospital’s Rule: f and g – differentiable, g(a)  0 near a (except possibly at a). If (indeterminate form of type ) or (indeterminate form of type )
Parts per Million The measurement used to determine the amount of a solute that has been dissolved in a solution.
Chemistry in Everything Find the chemistry!. What does matter look like?
Today’s Agenda…10/6 Bellringer: What group of elements are unreactive? What does this mean? Get your clickers! Compounds and Mixtures 1 day until fall.
Chapter 3 Matter Properties and Changes. Atom: The smallest particle of an element that retains all the properties of that element –Comprised of protons,
1 Chapter 2 Matter and Change Review Pioneer High School Mr. David Norton.
Chapter 1: Rate of Reaction Rate of Reaction. Which reaction is faster?
Solutions, Concentration, Dilution. -combination of two or more different substances -components are easily distinguished -can separate components by.
Matter – Properties and Changes Chapter – Properties of Matter  Matter is anything that has mass and takes up space (mass is the amount of matter.
Sec 1.3 Differential Equations as Mathematical Models Sec 3.1 Linear Model.
Preview Objectives Concentration Molarity Molality Chapter 12 Section 3 Concentration of Solutions.
Copyright © Cengage Learning. All rights reserved. 9 Differential Equations.
OB: Compounds + Elements, the Law of Conservation of Matter We will discuss the conclusion for the penny lab, due Friday, Also take out HW #1.
2.5 Mixing Problems.  In these problems we will start with a substance that is dissolved in a liquid. Liquid will be entering and leaving a holding tank.
Wednesday, Oct 21, 2015MAT 146. Wednesday, Oct 21, 2015MAT 146.
Matter, Energy and Change Chemistry and Measurement Sections 1.3 – 1.4.
MAT 1235 Calculus II Section 9.3 Separable Equations I
Solving Mixture Word Problems Aug. 11 th, What is a solution? A solution is a mixture of one substance dissolved in another so the properties are.
Mixtures and Solutions
MAT 1235 Calculus II Section 9.1 Modeling with Differential Equations
Solutions and Concentrations Notes Page 5. SOLUTIONS A homogenous mixture of two or more substances.
MAT 1235 Calculus II Section 9.5 Linear Equations
MAT 1235 Calculus II Section 9.3 Separable Equations II Version 2
Salt Questions.
Which is NOT a chemical change?
Physical science Review for Friday’s test Fundamental Chemistry.
Solving Application Problems Using System of Equations Section 4.3.
Monday Which ratio of reactants to products supports the law of conservation of mass? A 2:1 because the mass of the reactants is halved during.
Section 3.3 Applications of Nonlinear Equations. THE LOGISTIC EQUATION The equation where a and b are constants, is called the logistic equation. Its.
9/27/2016Calculus - Santowski1 Lesson 56 – Separable Differential Equations Calculus - Santowski.
Seating by Group Monday, Nov 7 MAT 146.
Practice Word Problems
Chemical Reactions 2.4 Iron is abundant, easy to shape when heated, and relatively strong, especially when mixed with carbon in steel. Over time, objects.
Seating by Group Thursday, Oct 27, 2016 MAT 146.
Seating by Group Friday, Oct 28, 2016 MAT 146.
Seating by Group Thursday, Nov 3, 2016 MAT 146.
Section 10.1 Separable Equations I
CONSERVATION OF MATTER
Differential Equations
Calculus II (MAT 146) Dr. Day Monday, Oct 23, 2017
Solutions.
Matter – Properties and Changes
Mixture Problems MAT 275.
WARM UP Law of Conservation of Mass
Lesson 58 - Applications of DE
Chemistry.
9 DIFFERENTIAL EQUATIONS.
MAT 3237 Series and Differential Equations
Copyright © Cengage Learning. All rights reserved.
What happens to the mass when a solution is formed?
Chemistry Chapter 1 and 2 Jeopardy
9.1/9.3 – Differential Equations
Chapter 6 Chemical Reactions
Section 10.4 Linear Equations
Chapter 5 APPLICATIONS OF ODE.
Chemistry.
The Law of Definite Proportions
Properties of Matter Ch. 2.
Presentation transcript:

Section 10.1 Separable Equations II MAT 1235 Calculus II Section 10.1 Separable Equations II http://myhome.spu.edu/lauw

HW WebAssign 10.1 Part II (A) Due Friday WebAssign 10.1 Part II (B) Due Monday Quiz: 10.1

Preview (Version 2, No second order chemical reaction) We are going to look into some applications of Separable Equations.

Example 1: Mixtures A tank contains 20 kg of salt dissolved in 5000 L of water. Brine that contains 0.03 kg of salt per liter of water enters the tank at a rate of 25 L/min.

Example 1: Mixtures A tank contains 20 kg of salt dissolved in 5000 L of water. Brine that contains 0.03 kg of salt per liter of water enters the tank at a rate of 25 L/min.

Example 1: Mixtures The solution is kept thoroughly mixed and drains from the tank at the same rate. How much salt remains in the tank after half an hour?

Example 1: Mixtures Step 1 Define the variable.

Example 1: Mixtures Step 2 Find rate in and rate out.

Example 1: Mixtures Step 3 Set up the DE and solve it with the initial condition. (Do not erase this part!)

Example 1: Mixtures Step 4 Compute the amount of salt after 30 min. Conclusion:

Example 1: Mixtures Changes over time…

Example 2: Mixtures The air in a room with volume 180 m3 contains 0.15% carbon dioxide initially. Fresher air with only 0.05% carbon dioxide flows into the room at a rate of 2 m3/min and the mixed air flows out at the same rate.

Example 2: Mixtures Find the percentage of carbon dioxide in the room as a function of time. What happens in the long run?

Example 2: Mixtures Step 1 Define the variable. (Note that percentage is a ratio, it does not make sense to talk about rate in, rate out.)

Example 2: Mixtures Step 2 Find rate in and rate out.

Example 2: Mixtures Step 3 Set up the DE and solve it with the initial condition.

Example 2: Mixtures Step 3 Set up the DE and solve it with the initial condition.

Example 2: Mixtures Step 4 Compute the percentage of carbon dioxide in the long run? Conclusion:

Just for Fun,…. You can take a look at the PPT for the second order chemical reaction below.

Example 2 Second-Order Reaction X(t) = amount of C The rate of formation of C is given by

Law of Mass Action

Example 2 Second-Order Reaction

Example 2 Second-Order Reaction

Example 2 Second-Order Reaction

Example 2 Second-Order Reaction Proportion of mass from A Proportion of mass from B

Example 2 Second-Order Reaction Proportion of mass from A Proportion of mass from B

Law of Mass Action

Law of Mass Action

Example 2 A compound C is formed when two chemicals A and B are combined The resulting reaction between the two chemicals is such that for each gram of A, 4 grams of B is used It is observed that 30 grams of the compound C is formed in 10 minutes Initially there are 50 grams of A and 32 grams of B

Example 2

Example 2

Example 2 (b) How much of the compound C is present at 15 minutes?

Example 2 (c) Interpret the solution as

Example 2 (c) Interpret the solution as