Differential Equations Tutorial Will Return....Soon

In summary, I plan to start a completely new Differential Equations Tutorial on MHF after the summer workshop is finished. Updates will be posted periodically until the tutorial is complete.
  • #1
Chris L T521
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Hi all,

Back on MHF, my Differential Equations Tutorial was beneficial to many members and I was proud of my contribution to the site. However, with the fall of MHF, I have not been able to retrieve my old posts. So my plan is to start a completely new one on this site -- from scratch. I will be incorporating the following sources into my tutorial: DiPrima, Edwards and Penney, THE ORIGINAL Hirsch and Smale, and Arnold (for the theory parts). My goal is to have the tutorial started by the middle of next week, and a pdf version will be attached to each post. I hope to address things I never focused on in the first tutorial, including but not limited to power series methods, numerical methods (Euler's method, Runge Kutta, etc.) and a bit on bifurcations and dynamical systems.

Please stay tuned for updates!
 
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  • #2
Update #1: I have started writing the LaTeX document (book) that will have the contents of my future posts. I'm about 20% of the way through of what I want to write about for my first tutorial post(s). My plan is to make a thread for each chapter in my book, and subsequent posts will be on the sections of each chapter. This way, it will be easier to edit mistakes instead of reading through pages of the same thread to find said mistakes.

At the end of each chapter in the pdf version, there will be a bunch of exercises for you to try; they will usually incorporate what was covered in that chapter and I'll try to make some of the application questions interesting! (Tongueout)
 
  • #3
Update #2: I've been busy with coursework lately, but have finally found the time to continue working on material I'll be using in my first post. I should have the first chapter of my tutorial finished sometime this weekend. I'm excited by how things are turning out, and I can't wait to share it with you all! (Bigsmile)
 
  • #4
Update #3: I realize we're about half way through July and I haven't started the tutorial yet. Well, that's in large part due to me being busy with coursework and prelims since February. I'm currently at the UC-Berkeley campus (for my MSRI workshop on mathematical general relativity) until July 20th, so I won't be able to make any new posts until after the workshop is finished. I'll post what I currently have so far in the meantime, but expect posts on new topics to appear after August 1st (I'm also helping my sister move from Hawaii to San José, so that's why I can't promise anything before August 1st).
 
  • #5


As a fellow scientist, I am excited to see that you are planning to continue your Differential Equations Tutorial. It is clear that your previous contributions were highly valued and I have no doubt that this new tutorial will be just as beneficial to the community.

I am especially impressed by the sources you have chosen to incorporate into your tutorial, as they are all reputable and well-respected in the field of mathematics. Your plan to cover topics that were not included in your previous tutorial, such as power series methods and numerical methods, shows a dedication to providing comprehensive and informative content.

I look forward to following your updates and learning from your tutorial. Thank you for your commitment to sharing your knowledge and expertise with others.
 

FAQ: Differential Equations Tutorial Will Return....Soon

What are differential equations?

Differential equations are mathematical equations that describe the relationship between a function and its derivatives. They are commonly used in science and engineering to model dynamic systems and predict their behavior over time.

Why are differential equations important?

Differential equations are important because they allow us to mathematically model and understand complex systems in the natural world. They are used in many fields, including physics, biology, economics, and engineering, to make predictions and solve real-world problems.

What are some common types of differential equations?

Some common types of differential equations include ordinary differential equations, partial differential equations, and stochastic differential equations. Ordinary differential equations involve a single independent variable, while partial differential equations involve multiple independent variables. Stochastic differential equations incorporate randomness into the system.

How are differential equations solved?

Differential equations can be solved using a variety of methods, including separation of variables, substitution, and integration. Numerical methods, such as Euler's method and Runge-Kutta methods, can also be used to approximate solutions to differential equations.

What resources are available for learning about differential equations?

There are many resources available for learning about differential equations, including textbooks, online tutorials, and courses. Some popular textbooks include "Differential Equations with Applications and Historical Notes" by George F. Simmons and "Elementary Differential Equations and Boundary Value Problems" by William E. Boyce and Richard C. DiPrima. Online resources such as Khan Academy and MIT OpenCourseWare also offer free tutorials and lectures on differential equations.

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