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Great to know that you liked the video! Thanks for your nice comment!

I will organize the links in the video description.

Thanks for the comment! I am still working on feedback control of other power converters. Needs more time to write it down in a nice way. Stay tuned!

This is given in the video.

This is given in the video.

I am working on several subjects, also on power systems. Stay tuned and share this channel to help more people.

You are welcome!

You are welcome!

You are welcome!

Thanks for your message! I have a playlist about Digital Controller Design: ruclips.net/p/PLuUNUe8EVqln8g-yPt_2ZEtjH8Faegm3S

@@CANEDUX Thanks for the links to the digital controllers, but I meant the type 3 digital compensator.

Yes, I knew you were mentioning digital controller design specifically for power converters. This topic is also on my list and will discuss later on this channel. Still working on it. Thanks for mentioning.

@@CANEDUX Thank you very much!

​@@kokotmkokot4926You're welcome!

Rica ederim 👍

I used a rule of thumb to determine the gap area due to fringe fields. This is also what I explain in the video.

The load is 3.19 V, not 3.91 V. You can also see this in the discussion of the simulation results.

You can find more and advanced examples in these playlists. 👉 More Analog Filter Design: ruclips.net/p/PLuUNUe8EVqll-7GNROQDvzXL9dEBa1oRp 👉 LC Ladder Filter Design: ruclips.net/p/PLuUNUe8EVqlk3vJPaVtZwA93qVDDtktY9

Glad you liked the video and helped you out! Do not forget to share and like 👍 See for more videos about power electronics here. Power Electronics: ruclips.net/p/PLuUNUe8EVqlkTs7tJwfkSq7Pj036zUyug

It is a p channel MOSFET current source. Current is still sourced from the positive supply to ground. Another version using the n channel MOSFET current source is discussed in this video: ruclips.net/video/D6ZfYhZXL-I/видео.html

@@CANEDUX I agree on the P channel things. I wanted just o ask if we could consider the NMOS based current mirror as a current single, since it draws the current from the VDD to ground. I mean, any load should between the VDD and MOSFET ,its current is driven by the NMOS. I think it is a matter of definition between sink and source. I am your new subscriber and I like your channel as it is very straight forward

@@tarihad1145 The important note is, that the MOSFET is working as a current source such that it can supply the current for the load. Where the load is, depends on the design. Thanks for subscribing! Share the knowledge :)

'Inverting' ve 'noniverting' pini ters çevirmek, pozitif feedback meydana getirir. Bu da ters bir çıkış grafik eğrileri ile sonuçlanmayacaktır. Pozitif feedback için 'bistable' sonuç çıkar, yani çıkışta ya V_CC ya da V_EE (ideal op-amp) olur.

You are welcome! Glad to know that 👍

You are welcome!

I do not understand the question. Can you clarify it?

How to draw 1/beta curve for transimpedance amplifier

@@devas2979 Perhaps you mean the noise gain. See the discussion of noise from 00:22:49 in this video.

Thank you for your message! Great to know the knowledge can pass through, which is the main purpose of the videos on this channel. I hope we can reach more people can needs them. Good luck with your electronics designs!

Yes, you can use a step input for a second-order system. Also for other systems; first-order and higher order systems.

@@CANEDUX I am having a question that the general second-order transfer function formula with zeta, omega coefficient you given there. How can you just based on the response system graph to derive the transfer function of the input of unit step function, what if the graph is ramp input or other types? G(s)=C(s)/R(s), what if input R(s) is different, is it effect the transfer function?

​@@ltd5480 The transfer function of the system will not change, but you cannot use every signal as an input to determine the transfer function.

Then, you can design your system in the z-domain. I have a playlist with videos. See the link for the playlist. Digital Controller Design: ruclips.net/p/PLuUNUe8EVqln8g-yPt_2ZEtjH8Faegm3S

Thanks for your message! Great to know you learn a lot from the video 👍 Good luck with your studies!

I use TINA-TI SPICE: www.ti.com/tool/TINA-TI

Probably a wrong connection or incorrect voltage sensor in Simulink. There are two types of sensor in Simulink. Check this.

You are welcome! Great to know you liked the video!

Thanks! 👍

Thanks! I also explain this in the video.

👍

Thanks for your message! Happy to know you liked the video! 👉 More Power Electronics: ruclips.net/p/PLuUNUe8EVqlkTs7tJwfkSq7Pj036zUyug

The whole video discusses the noise analysis of transimpedance amplifier. Check the video in detail.

You should only use the parts you have in your circuit.

​@@CANEDUXcan you repeat it please

I do not have time to check your circuit in detail. Try to use the videos or the book.

This is a too general question. You can use the two-stage amplifier noise calculations in my video.

WHAT SHOULD I DO FOR THAT

I have no idea. I also need to check that in detail.

@@CANEDUX Please help me with this

​@@CANEDUXHiii did you find anything

Thanks for your comment, great to know you liked the video! Noise analysis is always frequency response analysis, because the RMS noise will depend on your bandwidth (noise bandwidth).

You cannot have the second stage as an instrumentation amplifier if the first stage provides single-ended output. See this playlist for more info and videos about instrumentation amplifier noise analysis: 🔗 Instrumentation Amplifier Noise Analysis: ruclips.net/p/PLuUNUe8EVqlknqQWFevG_00gFK6iTUxD4

@@CANEDUX actually,i grounded the 2nd input of INA,

AND its working...then how can i calculate

Why use an INA if you ground one of the inputs of INA?

Yes, it might work, but I do not understand the reason for going for an instrumentation amplifier.

No, it is correct. You take the voltage across the resistor R2, which is Vg.

Happy to help! See playlist for more videos about Linear Algebra topics: ruclips.net/p/PLuUNUe8EVqll_uMCzGIs8x5S5nJxwI3ax

It is not only about DC signals and even DC signals in a component can generate noise, like shot noise. There are also capacitive and resistive parts which can generate noise. In addition, the signal levels are never constant.

f_L can be taken any value in the 1/f noise range, because it is a normalization value. Try another value to check this yourself.

In my opamp op07cp,the the frequency starts from 1hz..if I put 1Hz as FL then my Ff will be greater than FZ..then region 2 will show error which have negative value inside the root...please give me the suggestions..I am struck with this

Please help me with this 😊

@@devas2979 Did you tried to use the 1 Hz in your 1/f noise region? For a good practical book about noise analysis in circuits, see the book of Arthur Kay: www.sciencedirect.com/book/9780750685252/operational-amplifier-noise

@@CANEDUX yeah i tried with 1Hz,then the Ff will be greater than Fz,so i take 0.1Hz ....is that ok to take 0.1Hz even in the data sheet it start from 1Hz

Thanks for your nice comment! Great to know you liked the video. Good luck with your studies!

@@CANEDUX it is a great video i even shared it with friends, thanks again for this good works.

@@adelsalam9735 You are welcome. Thanks for sharing, really appericiate it!

You might want to look at another photodiode or similar type.

You should have some parasitics in your photodiode, so it is not a complete datasheet I think.

I also faced the same,what should we do..can you help it out

@devas2979 I do not know, maybe contact the seller of the product...

Ok thank you

In data sheet,they mentioned about diode capacitance..can I use that

What is confusing specifically?

@@CANEDUX i cant make the difference between that two graphs.can you explain more simpler because i am new to this field

@@CANEDUX and also how did you take comparision between simulated RMSnoise and calculated since in calculated we dont mentioned about the frequency at which the noise is generated

@@devasaran-b9d RMS value of the noise is the integrated noise over de frequency you are interested in. The spectral density is the noise density per root Hz, so this depends on the frequency when you convert this into RMS values. You can watch my other videos about noise where I discuss other (somewhat simpler) circuits: ruclips.net/p/PLuUNUe8EVqlnQ_ZEBx9S6a6juISpYcdJW

​@@CANEDUXok thanks

Thanks for your message! Great to know you liked the video. See the complete list: ruclips.net/video/Axby-ENSQVY/видео.html&pp=gAQB