Mr. Clayton, the way you structure your lectures by illustrating every piece of theory with an example is a jewell in the land of education. I love it! The only negative point I can come up with is that you don't speak Dutch. Many greetings from the Netherlands.

I participated in a solid mechanics course when I was an undergraduate student in 2014. Actually, the first and second lectures remind me of ten years ago at school. I have been working as a CFD engineer since 2019 in the industry, but I am also trying to learn FEM because there are not as many job opportunities for CFD professionals. These lectures are actually ingenious and very helpful in expanding my career path. Thanks a lot.

best lecture for finite elements. thank you!

The lectures are so great! Thanks for sharing🙏🏻

Dear Dr. Clayton, thank you very much for the lecture. Greetings from South Korea

Nice and easy :) Thank you very much Clayton

Brilliant teaching….thank you

You have made a new channel Mr Clayton. I literally panicked, when I couldn't find your videos in your other channel.

those lectures are briliant. nice and keep simple. it helps a lot for unterstanding . thanks a lot for sharring those videos.

Thanks Dr. Clayton!

This Clayton guy is pretty good, i gotta say. His trademark "hehehe'" 11:28 got me addicted to his videos. On a separate note, also great didactis. Subscribed

Great one! thanks.

Shouldn't it be (h/4) instead of (h/2) for the argument in the second set of parentheses at the 2:34:16 mark? Also, nice work...I'm loving these videos!

Show de bola!

Woow it's good, thanks

Dear Pettit : Congratulations for your post, and Channel, I ve learn a lot. Woulld it be possible to post the presentation pdf file and the Mathematica file so we can follow through in our adventure inti FEM. Thanks

holy jesus greatful to Dr.Clayton，you save me！

sir could u please tell us where we can download the slides of these lectures.

Good day sir, would is it possible to post the example and the solutions? This would be great help in order to check my solution.

There is a minor error in the equation for von Mises stress: I2(s) is equal to 0.5{[I1(s)]^2 - I1(SS)} it doesn't affect the final result since I1(S) is zero

1:57:04 Hello, dear professor In slide displacement function, why is y not a function of x2? I see that when we move in the direction of x2, the value of y changes

Hello, at 1:34:00 how should we calculate G12/G13/G23?

Dear Dr.Clayton , are there eclass resource available for me non-local student ?

Hello, thank you for your series. I've started learning with this course and it looks good if you post pdf of each lecture. How can we get it (pdf) ? Thank you so much.

Where can I get the pdf notes please

can i have the ppt file for my study ?

At 1:07:10, is the I_1(S) missing the squared? I mean, I_2(S) = 0.5 * [I_1(S)^2 * I_1(S * S)], right?

At 43:20, how do we know which direction does each sigma_{i, j} point? For sigma_11, it points negative-e1. sigma_12 points positive-e2, sigma_13 points negative-e3. For sigma_31, it goes negative-e1. sigma_32 goes negative-e2, sigma_33 goes negative-e3. What is the rule here? Please help.

I think who said "velocity" were in the wrong class.🤣🤣🤣

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