Just ordered this book! Looking forward to going through it soon!

Nice Sir 👍 😊

Thank you 👍

really love professor's video. Concise and easy to understand. Sometimes it's hard to understand from book but the video could help understand easily.

22:11 I would to ask why there is a Vcc at source line in writing operation

where can I get the file?

Hello, Sir. Really thanks for upload such videos. Your class really help me to deal with sentaurus tcad. By the way, I have one question. Where can I get "SPX" file in your video? If it is not an examples in TCAD. Can you share it?

Kindly provide video lecture on mixed mode circuit, RO circuit.

Sweeeeet!

super excellent video. Im Hong Kong U student self-learning those stuff and will have final exam in 4 days lmao. Really helpful!!! Very clear and well explanation. tho I did not get these concepts during lectures, here can totally understand. Thanks!!

this is just a “come back and watch it again” button

Thanks Professor Wong, the video is easy to follow

Cost comparison is very good, the scarcity of 4He_2 is really dire, everything needs to be done to save the bath liquid at regulatory levels. 3He being done through nuclear reaction, it is by design a bit safe and using closed cycle dilution refrigeration makes it wise.

Very good 👍👍👍

if you disregard the off diagonal both are the same

is your lack of knowledge that you don't know which ones are spin up or spin down?

Hello Professor, my question is how can we formulate the Lagrangian ? Here, we have just checked that our guess is verified and another question is that why we include Ic in that equation?

Thanks for sharing. Any idea where I can get a calibration kit (cal substrate and software) for a keysight P5008A VNA?

must be the comma that makes mixed?

Great Content Sir, Thank you

So grateful for videos like these!

A lot of guys commented here from each of you I wanna know and specially from professor also that up to now what I observed/analysed that currently there is all most way less to negligible application of this new theoretical framework which is quantum computing. But yes I have seen some places where quantum inspired algorithms which actually runs on classical hardware is practically useful and also industry is using but it's also very limited because of the design of this theoretical framework or may be some what different but again it's not completely quantum because it's does not runs on Quantum computer just using it's fancy and well designed mathematics. And again there is also one more concern performance which is not even better than classical in some cases which this field claim to be better.I am just skeptical, just try to question so that I feel motivated in this field and also if possible going to motivate some one even if it's just getting backlash because of all these things. Means I just want to know opinions from you people what you found insightful and interesting and as well in which specific area of research you people are to exploit the usage of this technology.

thnx mam ji👵

W video thnx dawg

ily thnx for uploading

Good explanations! Thanks!

Wow

Absolutely amazing. A billion years to de-crypt to 9 years. From this I finally see why quantum computing is so useful.

I liked the explanation, but how does a nonlinear oscillator exhibit atom(artificial) characteristics? While we can observe the energy states of an atom and its model, how does a nonlinear oscillator physically demonstrate the same phenomena, such as electron excitation or the absorption and emission of photons?

Very good presentation. Still, I can't find a hardcore explanation of how, for example, quantum computers can break encryption.People say one day it can solve NP-hard problems that take a traditional computer 100's of years in a few seconds, because it has all possible the solutions at once.

Considering the technology node..ReRAM is now at 28 nm, which would be much bigger than the access transistor itself in the crossbar. Moreover won't using an access transistor for each memristor increase the static power consumption and also increase in area ?...As I see these accelerators are made to function as a supplement to the main CPU in die.

jeez what a bad teacher

jeez what a bad teacher

sir ,How can i install the finfet libraries ?please explain

This lecture should come first if someone looks for Transimpedance Amplifier. Well explained! 👍

Thank you. You help me a lot.

Generally what type of transistors are used for the 1T1R configuration ?....I see NVIDIA transitioning from FinFET to GAA etc.. Is there any data on which transistor (MOS, BJT ,FinFET ,GAA etc..) works best with the memristor, as a selector?

Very cool! It just wasn't said that in this case B was the right part of the graph where dT > 0 (Hebbian), and A where dT < 0 (Anti-Hebbian) if I understood correctly.

Thank you very much for this excellent tutorial! I'm currently doing project on Boron CVD and I wonder if it is possible to model pure-B layer in Sentaurus Structure Editor? I can't find pure Boron in the material menu.

could you share the reference word doc which you are using in the video

hi, can I have solution manual to the problems of ex of this book? A solution book is given in your github repo, but sometimes I am getting confused with few solution. For eg, in ques 8.2, we have to find projection operators of eigen states of sigmaz. Eigen states of sigmaz are (1,0) and (0,1) column vectors. So projections should be row(1,0)*column(1,0) and another similar for (0,1). But solution shows multiplying sigmaz with itself. Again sigmaz is a matrix, not a vector. I dont know why this was used inside bra ket notation. This is just one eg, there are many other as well.

i see from the diode accessed crossbar structure that the input voltage (from the wordline) is applied to the diode, but in the left bottom example at 17:04, I can see that the voltage is being applied at the ReRAM terminal, why is that so ?

at 8:16 why and how is the voltage across the diode 2.1 V ?

where is the playlist of whole lecture series

thank you prof

You mentioned that aligning the spin with the magnetic field would yield a higher energy. But H = - µ·B --> µ = γS --> H = -γS·B, as B is defined downwards --> B = -B_0 k̂ Therefore, H = -γ (S· (-B_0 k̂ )) = γ · B_0 · S_z = γ · B_0 · (ℏ/2) · σ_z This would give that the spin up state would be higher in energy with eigenvalues of + (𝛾B_0) (ℏ/2), while the spin down state has energy of - (𝛾B_0) (ℏ/2). Did I go wrong somewhere? If yes, please let me know. Thank you for the great video by the way!

Best video on quantum computing found so far!!

Thank you so much. That is what i search for alot ❤❤🎉🎉

Hi professor, Great video! Could you kindly share the github repo with these simulation notebooks? They would be very helpful to the community.

luv you professor