Wow I am short of words I can’t believe this is so simple to understand thank you so much please continue other topics like compressible flow and heat transfer
Prof you are truly a live saver. love your examples & analogies which helps me understand & remember the concepts. Pressure Cooker ❤ 👌👌Thank you so much for this great video.
excellent video. Thanks. I have few doubts. I am just a beginner so my question could be silly. At 15:5 you said the latent heat is a function of ( P,T). I didn't get this point. Following your video, I understand it is dependent on the pressure alone. At 39:58 you said 2 intensive and independent properties. I know about intensive, but not sure what is intensive and independent mean.
Thank you. Interesting questions. Look at a T-h diagram, for example. The amount of latent heat changes when the saturation pressure (or saturation temperature) changes. That makes it a function of both. For your next question, think of pressure and temperature. Let's assume we are talking about liquid water. You can have liquid water at 1 atm and 20 C, or 1 atm and 40 C, or 3 atm and 40 C. All of those states are valid, meaning that temperature and pressure are two independent properties. Changing one does not change the other. I hope this comment helps.
Professor I have a question why subscript *g* is is used when looking for properties of vapor ,I mean this *g* comes from the first letter of _gas_ right?But gas and vapor are different things?
Great question. If you really think about it, vapor and gas are the same. When we use vapor, we try to emphasize that this gas form is coming from a liquid phase. We want to keep in mind that phase change between liquid and gas form either happened or is a possibility. I hope this helps.
Good question. The ideal gas equation is PV=mRT where V is the actual volume. If you divide both sides by m (the mass), you get Pv=RT where v is the specific volume. That's the equation you see on the screen. Hope this helps.
Make sure you check the review problems too: ua-cam.com/video/DwfUX_qe3tM/v-deo.html
Man you just explained the entire chapter in 60 minutes which took my prof at least 3 hours to teach x)))) Thank you so much!!
Thanks. I hope the video is helpful.
Wow I am short of words I can’t believe this is so simple to understand thank you so much please continue other topics like compressible flow and heat transfer
Thank you :)
this is probably the best lecture ive seen online
Thanks. Glad you like it.
this is helpful for us students suffering from
online class, thanks a lot
this teaching is dope......i understand everything, thanks a lot.
I am glad you enjoyed the video :)
THANKS, A LOT, FROM YOUR VIDEO I EASY to LEARN ABOUT THIS CHAPTER
I am glad that you find this video helpful.
Thank you so much Sir!! only in one day I understood Pure Substances.. You are the best :)
very good help, thank you
Thank you :)
Very helpful, Thank you!
Thank you very much professor for making thermal dynamics so easy with basic but yet powerful examples.🥺
I am glad you found the video helpful.
thank you very much, this will help me pass my exams
Good luck :)
its Great Coincidence 😊 that Prof is using the same Reference Book as me Thermodynamics An Engineering Approach. Cengal CA, M A Boles
Thank you sir for this very helpful tutorial..
clear explanation. Thanks
Glad it was helpful!
Superb!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!
I loved the video. you are an amazing teacher. I am hopefully expecting other mechanical engineering courses also.🙂
Thank you :)
Thanks you are the best. I loved everything about the videos
Thank you so much for the class buddy 😭💥
Thank you. I am really glad you found it helpful.
Superrrr helpful, Thanks a lot
This is beauty 💖. Thank u ☺️
Great video😍
absolutely wonderful lecture
Thank you.
Prof you are truly a live saver. love your examples & analogies which helps me understand & remember the concepts. Pressure Cooker ❤ 👌👌Thank you so much for this great video.
I am really glad that you found this video helpful.
These are amazing
Glad you like them.
Thank-you very much, sir ❤❤ This is very helpful for me.
I am glad you found it useful. Thanks for the comment.
I guess thermodynamics is easier now ! :)
Legit
Life saver
Thank you :)
Good luck with your finals.
Tq very much sir......
Are you going to do a refrigerant cycle video please :)
Way u taught ezy pzy ❣️
it is really helpful. thank you and do more about on execises and solving problems.
I have a separate video on exercises from this topic. You can use the link: ua-cam.com/video/DwfUX_qe3tM/v-deo.html
excellent video. Thanks. I have few doubts. I am just a beginner so my question could be silly. At 15:5 you said the latent heat is a function of ( P,T). I didn't get this point. Following your video, I understand it is dependent on the pressure alone. At 39:58 you said 2 intensive and independent properties. I know about intensive, but not sure what is intensive and independent mean.
Thank you. Interesting questions. Look at a T-h diagram, for example. The amount of latent heat changes when the saturation pressure (or saturation temperature) changes. That makes it a function of both.
For your next question, think of pressure and temperature. Let's assume we are talking about liquid water. You can have liquid water at 1 atm and 20 C, or 1 atm and 40 C, or 3 atm and 40 C. All of those states are valid, meaning that temperature and pressure are two independent properties. Changing one does not change the other.
I hope this comment helps.
Thank you, im ur fan hehe
Thank you
Professor I have a question why subscript *g* is is used when looking for properties of vapor ,I mean this *g* comes from the first letter of _gas_ right?But gas and vapor are different things?
Great question. If you really think about it, vapor and gas are the same. When we use vapor, we try to emphasize that this gas form is coming from a liquid phase. We want to keep in mind that phase change between liquid and gas form either happened or is a possibility. I hope this helps.
Thank you sir
I am just glad my video helped you :)
If you are enjoying the video, maybe check out the rest of the playlist as well. Thanks.
I love ur video
thanks a lot
thanks boss
53:39
PV=nRT
PV=mRT
sir How is that
PV=RT
wh
Good question. The ideal gas equation is PV=mRT where V is the actual volume. If you divide both sides by m (the mass), you get Pv=RT where v is the specific volume. That's the equation you see on the screen. Hope this helps.
perfect
Thanks. I am glad you found it helpful.
Great video, thank you!