Heating the water after achieving 100°C will never increase its temperature due to phase change till the last drop of water evaporates. After all water converts into vapour, the temperature starts increasing. This is called Superheating.
Yes you are correct. By mistakenly I have explained in that way for the easy understanding. The water can't reach the temperature above the 100°C. Only the water vapor can reach more than 100°C. But, it will not affect the understanding of this topic.
@@georgejetson4378 No, I made this video to understand superheating most easily. And it won't mislead. Explaining it most technically will confuse the viewers. My motto is to make everyone understand HVAC. If there is anything wrong in the video, you can mention it.
Nicely Explained in shortest but in meaningful way..After finding your vdo.....it removed all doubts and confusion understanding chiller Operation and parameters...thanks
Thank you so much for your generous support and the super thanks! I'm thrilled to hear that you enjoyed the video. Your support motivates me to create more content. Thanks again! 😊
Good evening You're videos very useful. Can you explain Dew Latent Sensible Dry bulb Wet bub Can you make one video explain by video its over useful. We are expect Thank you for support. Keep post video.
Very informative, thank you. I have a question, What is the superheat or subcooling level to maintain to ensure the efficient operation of the refrigeration system? I hope in the future you will produce Video for this. Thank you and more power.
Thank you for this video, it really open my eyes to this term. But i wish to share it with my friends but i found no lead or option. Any help to keep the video
The water temperature remains constant and the water vapor is overheated. The flame should flow around the entire tank. The heated water will boil at a temperature of 100 °C and the flames flowing around the tank will additionally heat the water vapor to a higher temperature, e.g. 107 °C.
I would show it on a potato fry. When we boil water in a kettle, we see "water vapor" rising. However, what we see is not water vapor, it is microscopic water droplets formed from water vapor that condensed on contact with cold air. This is because the steam was not superheated and was 100 °C. The situation is different when we prepare fries in a fryer. The oil is heated to a temperature of 120 °C (initially 190 °C). When we add French fries to the oil, the water contained in the fries begins to boil. The temperature of the fries in hot oil remains constant at 100°C, but the water vapor passing through the oil heats up to 120 degrees, which is why we do not see "water vapor" above the fryer, i.e. micro-droplets of water, because the water vapor was properly superheated. She had a reserve of energy that prevented it from immediately condensing.
Yeah, that's you're correct. We can't heat the water more than 100°C. Once the water reached the 100°C temperature, it will start to change the phase from liquid to vapor and the vapor can reach more than 100°C temperature. And the flames should be around the tank. Because, in HVAC system the heating process happening around the coil. But for easy understand I made this animation like this.
@@zebralearningsenglish-pn6fl I thought so. A beginner in the profession only sees copper pipes, measures temperature and pressure, but does not see what phase the refrigerant is in a given section of the evaporator. Is it a gas? or liquid? It's like the structure of an atom. At school they taught me that electrons revolve around orbits like planets, although it has long been known that they have a wave-particle nature. They are a particle and a wave at the same time. However, this is difficult to understand.
@@zebralearningsenglish-pn6fl When it comes to particles and waves at the atomic level, I have already exhausted my understanding. We have three spatial dimensions and one temporal dimension. I understand spatial dimensions, but without understanding what time is, I will not be able to understand space-time. Therefore, I will not be able to understand what entropy is. But now I focus on simpler tasks. I am interested in systems in which you have one compressor and several evaporators operating at different temperatures. For example, imagine the evaporator of an air heat pump operating at a temperature of -7°C, the COP of the system is 2.5. What will happen when half of the evaporator is exposed to a temperature of +7°C? Will COP increase, remain unchanged or decrease.
4:17 what should be the superheat value for safely moving refrigerant to compressor? Is there any specific range of superheat and subcooling value for AC?
You cannot explain superheat and subcooling without mentioning the relationship of pressure, temperature and volume, ie. PV/T, Charles' Law. Example, Water and steam cannot have temperature above 100 degrees C at atmospheric pressure. To have higher than 100 degrees C, water and steam must be within a restricted volume that raises it's pressure, like a pressure cooker.
It's already explained in the comments. But here I have explained about the pressure and temperature. When the pressure increases, the boiling point also increases. Anyway I will make a separate video explaining what pressure and temperature is.
Let us be clear that pressure and temperature are important factors to be considered, for instance water boils at around 68 Degrees C on Mount Everest. Discussions are relevant. Lower the pressure on water surface and the boiling temperature of fluid will decrease. Change of state will commence at that temperature .To comprehend Superheat and Sub cooling within HVAC , It is important to know the manufacturer's design, and use the recommended method to calculate this phenomenon.
Subcooling - For measuring that the the refrigerant is a liquid, and will absorb more heat in the evaporator? Superheat - For measuring that the refrigerant is gas and not liquid, in order not to hurt the compressor?
How do we INCREASE the temperature of water above boiling point? Increase the HEAT source, the water will only BOIL FASTER, but not hotter? comment please
Just 1 tinsy mistake. You accidentally said subcooling is the cooling of vapor ABOVE its condensate point at 5:28 where you previously said subcooling is calculated by the condensate temp - current temp
Good morning Your videos very useful understand. I need to your support need video How to work piciv and fcu actuvator animation video . And one more I want to change fcu machine,what kind requirements I need to follow up Pipe select Fcu tonnage Right or left Then any other else
Yes you are correct. At 100°C water will start to boil and change from liquid to vapor phase. But if we give temperature more than 100°C we can make sure the water is changing to vapor. Likewise, if we give temperature more than the boiling point of refrigerant, we can make sure the refrigerant is changing to vapor. Thank you for letting me know this.
wrong. this is all wrong. if you memorize this bs, you will never understand. the author does not know what he is talking about, just wants to make money
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Heating the water after achieving 100°C will never increase its temperature due to phase change till the last drop of water evaporates. After all water converts into vapour, the temperature starts increasing. This is called Superheating.
Yes you are correct. By mistakenly I have explained in that way for the easy understanding. The water can't reach the temperature above the 100°C. Only the water vapor can reach more than 100°C. But, it will not affect the understanding of this topic.
th-cam.com/users/shortsk4IoMx8FI9Q?si=ViqLe2W5_n9ooSEe
@@zebralearningsenglish-pn6flQuite the contrary! The way you’ve explained superheating is confusing, misleading, and fundamentally incorrect!
@@georgejetson4378 No, I made this video to understand superheating most easily.
And it won't mislead. Explaining it most technically will confuse the viewers. My motto is to make everyone understand HVAC. If there is anything wrong in the video, you can mention it.
We also noted the incorrect statement. thank you for correction.
I think this was the best explanation I could find so far!
Thank you so much 😊. I am glad it was helpful.
Yes excellent
Very good explain sir
😊
Thank You!
Excellent video. Thank you!
Thank you 😊
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@@zebralearningsenglish-pn6fl
My teacher used this video to help explain superheat/subcooling. It helped me out a lot, thank you!
That's great! I am really happy that my video helped you. Thank you sooo much ❤️😍❤️
th-cam.com/users/shortsk4IoMx8FI9Q?si=ViqLe2W5_n9ooSEe
Nicely Explained in shortest but in meaningful way..After finding your vdo.....it removed all doubts and confusion understanding chiller Operation and parameters...thanks
I am glad, it was helpful.
th-cam.com/users/shortsk4IoMx8FI9Q?si=ViqLe2W5_n9ooSEe
Straight to the point! I love it! Thanks for helping me to understand the refrigeration cycle!
Thank you so much for your generous support and the super thanks! I'm thrilled to hear that you enjoyed the video. Your support motivates me to create more content. Thanks again! 😊
th-cam.com/users/shortsk4IoMx8FI9Q?si=ViqLe2W5_n9ooSEe
For a long time in this field finally i have understood the difference between the two.
I am glad you understood it.
BEST SUPERHEAT AND SUBCOOLING EXPLANATION AND ILLUSTRATION I'VE SEEN! THANK YOU!🙏🏿💯
You are very welcome 😊
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you explain very well ❤
Thanks a lot 😊
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Great and straight to the point video. Thanks!
Thank You 😊
@@zebralearningsenglish-pn6fl Yes, you explained it well. TY
Thanks again 😊
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SUPERB explanations, 72 years old - trainee!!!!
Glad you liked it!😊
Great explanation sir .
Thanks so much
Most welcome
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Great video information ❤👍 , thank you for sharing your knowledge ♥️🇵🇭🫡
My pleasure
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Superb content, especially the explanation of WHY sub-cooling is essential.
Nice knowledge
clear and concise, keep up the good work
Much appreciated!
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Very good
Thank you so much 😊
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Will need to watch this several times. thank you
Good explanation i need more video
Yeah sure....🙂
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Nice and useful vedio thankyou sir 👌👌
Most welcome
Great tutorial. Thanks.
You're welcome!
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I like the way you explain very informative, thanks a lot
Thank You
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Finally begin to understand this. More relations and such to learn but this is the basics. Very good
Thank you
You made it sound and explained so well, and for that I thank you.
FROM CHICAGO EXELENT VIDEO THANK YOU SO MUCH
Thank you 😊
Awesome.
your explanation is excellent
Thanks a lot!
Supper
Thank You!
Awesome! Best tutorial on this I have ever seen.
Thank you so much
it's very basic of basic, thank you teacher. From Viet Nam with love
Thank you with love ❤️
Verey good explanation!!
Thank you!
th-cam.com/users/shortsk4IoMx8FI9Q?si=ViqLe2W5_n9ooSEe
Good evening
You're videos very useful.
Can you explain
Dew
Latent
Sensible
Dry bulb
Wet bub
Can you make one video explain by video its over useful.
We are expect
Thank you for support.
Keep post video.
Sure, I will upload.
Nicely done. It was concise and to the point 😊
Glad it was helpful
thank you so much for this video, it was really helpful.
I'm so glad! 😊
அருமை, மிக அருமை.
நன்றி.
Good
Thanks 😊
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Thanks for helping me to get some ideas for this, but pls I won't to know how to install Air-conditioning
I need more videos like this.
Sure, on the way.
Thank you so much dear
Then, how do we solve when we face it is the installed heat pump? Kindly
That explains means gold to me! Thanks
Glad to hear it!
Very informative, thank you. I have a question, What is the superheat or subcooling level to maintain to ensure the efficient operation of the refrigeration system? I hope in the future you will produce Video for this. Thank you and more power.
Your videos are very, very good. I subscribed to your channel. I’m just starting school and I’m learning as much as I possibly can. Thanks.
Awesome, thank you!
Thank you very much sir ❤❤❤❤
Most welcome 😊
New subscriber, awesome explanation, l liked the animation.
Thank you
5:24 There is a mistake in the description in the video. SUBCOOLING IS THE COOLING OF VAPOR "ABOVE" ITS CONDENSATE POINT. it must be: "BELOW"
Yes. AI generated script and voice.
SUBCOOLING is the cooling of the refrigerant" fluid" below its condensing point, after change of state from "VAPOUR to LIQUID" . Does that help?
Thank you for this video, it really open my eyes to this term. But i wish to share it with my friends but i found no lead or option. Any help to keep the video
You can share it with share option in the video. You can share the link to your mail address or Whatsapp to keep this video.
really appreciate it!!!!
You explanation is verry clear thank you so much from Lao
You are welcome
The water temperature remains constant and the water vapor is overheated. The flame should flow around the entire tank. The heated water will boil at a temperature of 100 °C and the flames flowing around the tank will additionally heat the water vapor to a higher temperature, e.g. 107 °C.
I would show it on a potato fry. When we boil water in a kettle, we see "water vapor" rising. However, what we see is not water vapor, it is microscopic water droplets formed from water vapor that condensed on contact with cold air. This is because the steam was not superheated and was 100 °C. The situation is different when we prepare fries in a fryer. The oil is heated to a temperature of 120 °C (initially 190 °C). When we add French fries to the oil, the water contained in the fries begins to boil. The temperature of the fries in hot oil remains constant at 100°C, but the water vapor passing through the oil heats up to 120 degrees, which is why we do not see "water vapor" above the fryer, i.e. micro-droplets of water, because the water vapor was properly superheated. She had a reserve of energy that prevented it from immediately condensing.
Yeah, that's you're correct. We can't heat the water more than 100°C. Once the water reached the 100°C temperature, it will start to change the phase from liquid to vapor and the vapor can reach more than 100°C temperature.
And the flames should be around the tank. Because, in HVAC system the heating process happening around the coil. But for easy understand I made this animation like this.
@@zebralearningsenglish-pn6fl I thought so. A beginner in the profession only sees copper pipes, measures temperature and pressure, but does not see what phase the refrigerant is in a given section of the evaporator. Is it a gas? or liquid? It's like the structure of an atom. At school they taught me that electrons revolve around orbits like planets, although it has long been known that they have a wave-particle nature. They are a particle and a wave at the same time. However, this is difficult to understand.
@@leszekporeysky6441 What do you really want to understand? Tell me I will try to explain in an easy way.
@@zebralearningsenglish-pn6fl When it comes to particles and waves at the atomic level, I have already exhausted my understanding. We have three spatial dimensions and one temporal dimension. I understand spatial dimensions, but without understanding what time is, I will not be able to understand space-time. Therefore, I will not be able to understand what entropy is. But now I focus on simpler tasks. I am interested in systems in which you have one compressor and several evaporators operating at different temperatures. For example, imagine the evaporator of an air heat pump operating at a temperature of -7°C, the COP of the system is 2.5. What will happen when half of the evaporator is exposed to a temperature of +7°C? Will COP increase, remain unchanged or decrease.
On slide at 5.23, For subcooling, I think it should say below it's condensate point, not above.
Yes, you are correct.
bravo
Thank You 😊
4:17 what should be the superheat value for safely moving refrigerant to compressor? Is there any specific range of superheat and subcooling value for AC?
please may you explain clearly what is saturated vapor
Yeah, sure. Already, the video is in process. Will upload soon.
Video is quite helpful,thank you.
You are welcome 😊
th-cam.com/users/shortsk4IoMx8FI9Q?si=ViqLe2W5_n9ooSEe
Thanks 👍
Welcome 👍
5:20 -There is an error on this slide: Subcooling takes place when the refrigerant goes below its saturation (condensing) temperature, not above.
S...I have corrected my self .
Thank you for correcting me the spelling mistake.
if I doesn't see this comment really confused 😐
Hi, please can explain star Delta 🙏
You cannot explain superheat and subcooling without mentioning the relationship of pressure, temperature and volume, ie. PV/T, Charles' Law. Example, Water and steam cannot have temperature above 100 degrees C at atmospheric pressure. To have higher than 100 degrees C, water and steam must be within a restricted volume that raises it's pressure, like a pressure cooker.
It's already explained in the comments. But here I have explained about the pressure and temperature. When the pressure increases, the boiling point also increases. Anyway I will make a separate video explaining what pressure and temperature is.
Let us be clear that pressure and temperature are important factors to be considered, for instance water boils at around 68 Degrees C on Mount Everest. Discussions are relevant. Lower the pressure on water surface and the boiling temperature of fluid will decrease. Change of state will commence at that temperature .To comprehend Superheat and Sub cooling within HVAC , It is important to know the manufacturer's design, and use the recommended method to calculate this phenomenon.
Thanks ❤
💕
Subcooling - For measuring that the the refrigerant is a liquid, and will absorb more heat in the evaporator?
Superheat - For measuring that the refrigerant is gas and not liquid, in order not to hurt the compressor?
Tnq
Thank you
What is the boiling point of 134a
tnxs bro
Welcome, bro.
How do we INCREASE the temperature of water above boiling point?
Increase the HEAT source, the water will only BOIL FASTER, but not hotter?
comment please
What is the good super heat temp. of 134a
Tq..
😊
Is it normal for the superheat to vary between +1 and -1 degrees C when starting the compressor?
In operation it stabilizes at 9 degrees C.
Why do you need to know about superheat and subCooling how can you tell what's wrong with the system by checking subcooling or Super Heat?
Good question I will explain everything about Superheat and Subcooling in a separate video.
Just 1 tinsy mistake. You accidentally said subcooling is the cooling of vapor ABOVE its condensate point at 5:28 where you previously said subcooling is calculated by the condensate temp - current temp
Anyways, thank you for the video! It was straightforward and easy to learn
Good morning
Your videos very useful understand.
I need to your support need video
How to work piciv and fcu actuvator animation video .
And one more I want to change fcu machine,what kind requirements I need to follow up
Pipe select
Fcu tonnage
Right or left
Then any other else
Sure, I will upload.
Wrong: Can't heat water above 100C at 14.7PSI. It turns to vapor. The vapor can be heated above 100C, however.
Enthelphy, sensible, cop, latent ye kya h
On the way
Ok sir i will weat for your answer
How many types of expension valve
Plese reply sir
@@prakashsah9339 1. Thermal Expansion Valve.
2. Capillary Tubes
3. Automatic Expansion Valves
4. Electronic Expansion Valves
5. Float valves.
Thank u
Hello friend
Helllooo...
iam not shure the explanation is right
What do you think wrong about it in the video?
Sorry sir, your definition is not correct.
Can you tell me what is wrong in this video
at sea level, the temperature of the water will never go above 100 °C
Yes you are correct. At 100°C water will start to boil and change from liquid to vapor phase. But if we give temperature more than 100°C we can make sure the water is changing to vapor.
Likewise, if we give temperature more than the boiling point of refrigerant, we can make sure the refrigerant is changing to vapor.
Thank you for letting me know this.
Steam heat is hotter than 100*C (boiling water) and increases in temperature as pressure increases.
@@coolramone sea level, sea level
@@coolramone we are talking about sea level, sea level.
@@coolramone steam heat is hotter than boiling water, but the temperature is the same, same temperature.
wrong. this is all wrong. if you memorize this bs, you will never understand. the author does not know what he is talking about, just wants to make money
Can you tell me what is wrong in this video?
FROM CHICAGO EXELENT VIDEO THANK YOU SO MUCH
You are welcome!
Good
Very good explanation, thank u sir.
You are welcome 😊