What a high level lesson! Congratulations sir, and thank you very much for your effort on helping us to understand complex concepts in a more simple way!
@@everythingeverything7672I had uploaded a ZIP file which has all of the simulation stuff in it. The link is in the description of the video. However, here is the link for your convenience: drive.google.com/file/d/1uBK-FaMQ3L4Ua7Lsp8S3HTYRADDzydqv/view?usp=drive_link
Hello , thanks , i have a question please , can we say that PLL does not need to use the A/D converters which is a high advantage, because we don't have sampling and quantization error in the measurment of phasor , frequency or any other power system parameters ?
A/D converters are not required in a PLL as I have laid this out in my video. In their initial inception, they were not digital entities, but 100% analog. 🙂
Actually, as I explained in the video, this is the *filter* that exists in the feedback *loop* of the PLL. That being the case, I meant exactly what I put in both the video and the thumbnail. It is the "Loop Filter." 🙂
What a high level lesson! Congratulations sir, and thank you very much for your effort on helping us to understand complex concepts in a more simple way!
I am so very glad that this was so helpful. Thank you for letting me know! 🙂
I've got a lot to learn! Thanks for taking me outside my comfort zone. (were growth happens)
Ya know ... I've been an electronics engineer for a LOT of years now and I am still learning! The trick is ... never stop learning! 🙂
Excellent demonstration
Thank you! 🙂
Thank you, sir, for your extensive knowledge. May God continue to Bless your soul.
You are very welcome, my friend! ... and He has blessed us over and over again. 🙂
Thank you for going the extra mile and providing resources to help us learn after the video!
You are very welcome! 🙂
I love your transitions, very well explained and interesting to watch
Thanks, man! 🙂
Excelente video !!! Gracias !! Saludos desde Argentina -
Gracias y de nada. Saludos desde Dubuque, Iowa! 🙂 (translation compliments of Google translate.) I am glad you enjoyed the video! 😀
Thanks...I just need this lessons. Very helpfull.
Glad you liked it! Thanks! 🙂
Nice explanation. thank you
Thank you! 🙂
❤
Please Sir,Can I get a pdf file of your simulation?
@@everythingeverything7672I had uploaded a ZIP file which has all of the simulation stuff in it. The link is in the description of the video. However, here is the link for your convenience:
drive.google.com/file/d/1uBK-FaMQ3L4Ua7Lsp8S3HTYRADDzydqv/view?usp=drive_link
I got It, May GOD Bless You🙏
very well explained.
Thank you! 🙂
EXCELLENT PRESENTATION!I AM HAVING A DIFFICULT TIME UNDERSTANDING HOW THIS ALL WORKS.DOES THE MATH INVOLVE THE FOURIER SERIES?
Yeah ... it is a bit of a mind bender! 🙂
💐💐💐
🙂
VERY GOOD...!!
Thanks! 🙂
Awesome, ty
You are very welcome! 🙂
Hello , thanks , i have a question please , can we say that PLL does not need to use the A/D converters which is a high advantage, because we don't have sampling and quantization error in the measurment of phasor , frequency or any other power system parameters ?
A/D converters are not required in a PLL as I have laid this out in my video. In their initial inception, they were not digital entities, but 100% analog. 🙂
@@eie_for_you thank you
@@ishakkellou2136 You are very welcome! 🙂
BTW I use the digital plls from silabs(skyworks now). Amazing sub ps jitter. And the dev boards are cost effective for lab applications.
That's cool! 🙂
Do you have a link for a DIY 10MHz lab reference, using an OSC5A2B02 OCXO, a Skyworks PLL and an Arduino? Please. I have a MC4044 in stock.
In your thumb nail, I think you meant low pass filter instead of loop filter...
Actually, as I explained in the video, this is the *filter* that exists in the feedback *loop* of the PLL. That being the case, I meant exactly what I put in both the video and the thumbnail. It is the "Loop Filter." 🙂
👍 Dear sir please teach as modulus prescaler (divide by 64/65) used in vhf etc . Thank you sir.
I can add this to my video queue. Thank you for the suggestion. 🙂