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Novel Device Lab at University of Cincinnati
Добавлен 9 апр 2015
Lecture 7&8C Fiber Dispersion and Modes
Course Documents | noveldevicelab.com/course/optics-for-engineers
This lecture is from the Optics for Engineers course taught at the University of Cincinnati by Dr. Jason Heikenfeld and is accompanied by assignments and tests which are provided at the link above.
Novel Device Lab | www.noveldevicelab.com
University of Cincinnati | www.uc.edu
This lecture is from the Optics for Engineers course taught at the University of Cincinnati by Dr. Jason Heikenfeld and is accompanied by assignments and tests which are provided at the link above.
Novel Device Lab | www.noveldevicelab.com
University of Cincinnati | www.uc.edu
Просмотров: 1 298
Видео
Lecture 7&8B Fiber Loss
Просмотров 3355 лет назад
Course Documents | noveldevicelab.com/course/optics-for-engineers This lecture is from the Optics for Engineers course taught at the University of Cincinnati by Dr. Jason Heikenfeld and is accompanied by assignments and tests which are provided at the link above. Novel Device Lab | www.noveldevicelab.com University of Cincinnati | www.uc.edu
Lecture 7&8D Amplifiers and Modulators
Просмотров 5085 лет назад
Course Documents | noveldevicelab.com/course/optics-for-engineers This lecture is from the Optics for Engineers course taught at the University of Cincinnati by Dr. Jason Heikenfeld and is accompanied by assignments and tests which are provided at the link above. Novel Device Lab | www.noveldevicelab.com University of Cincinnati | www.uc.edu
Lecture 7&8A Fiber Basics
Просмотров 4895 лет назад
Course Documents | noveldevicelab.com/course/optics-for-engineers This lecture is from the Optics for Engineers course taught at the University of Cincinnati by Dr. Jason Heikenfeld and is accompanied by assignments and tests which are provided at the link above. Novel Device Lab | www.noveldevicelab.com University of Cincinnati | www.uc.edu
Lecture 3D Interference Beyond Visible Light
Просмотров 5495 лет назад
Course Documents | noveldevicelab.com/course/optics-for-engineers This lecture is from the Optics for Engineers course taught at the University of Cincinnati by Dr. Jason Heikenfeld and is accompanied by assignments and tests which are provided at the link above. Novel Device Lab | www.noveldevicelab.com University of Cincinnati | www.uc.edu
BJT Coupled Diodes Part B
Просмотров 5035 лет назад
Course Documents | www.noveldevicelab.com/course/semiconductor-devices This lecture is from the Semiconductor Devices course taught at the University of Cincinnati by Dr. Jason Heikenfeld and is accompanied by assignments and tests which are provided at the link above. Novel Device Lab | www.noveldevicelab.com University of Cincinnati | www.uc.edu
Imaging Part B
Просмотров 4765 лет назад
Course Documents | www.noveldevicelab.com/course/semiconductor-devices This lecture is from the Semiconductor Devices course taught at the University of Cincinnati by Dr. Jason Heikenfeld and is accompanied by assignments and tests which are provided at the link above. Novel Device Lab | www.noveldevicelab.com University of Cincinnati | www.uc.edu
Imaging Part A
Просмотров 2105 лет назад
Course Documents | www.noveldevicelab.com/course/semiconductor-devices This lecture is from the Semiconductor Devices course taught at the University of Cincinnati by Dr. Jason Heikenfeld and is accompanied by assignments and tests which are provided at the link above. Novel Device Lab | www.noveldevicelab.com University of Cincinnati | www.uc.edu
Lasers Part C
Просмотров 1135 лет назад
Course Documents | www.noveldevicelab.com/course/semiconductor-devices This lecture is from the Semiconductor Devices course taught at the University of Cincinnati by Dr. Jason Heikenfeld and is accompanied by assignments and tests which are provided at the link above. Novel Device Lab | www.noveldevicelab.com University of Cincinnati | www.uc.edu
Lasers Part B
Просмотров 1385 лет назад
Course Documents | www.noveldevicelab.com/course/semiconductor-devices This lecture is from the Semiconductor Devices course taught at the University of Cincinnati by Dr. Jason Heikenfeld and is accompanied by assignments and tests which are provided at the link above. Novel Device Lab | www.noveldevicelab.com University of Cincinnati | www.uc.edu
Lasers Part A
Просмотров 2025 лет назад
Course Documents | www.noveldevicelab.com/course/semiconductor-devices This lecture is from the Semiconductor Devices course taught at the University of Cincinnati by Dr. Jason Heikenfeld and is accompanied by assignments and tests which are provided at the link above. Novel Device Lab | www.noveldevicelab.com University of Cincinnati | www.uc.edu
OLEDs and OPVs Part B
Просмотров 1625 лет назад
Course Documents | www.noveldevicelab.com/course/semiconductor-devices This lecture is from the Semiconductor Devices course taught at the University of Cincinnati by Dr. Jason Heikenfeld and is accompanied by assignments and tests which are provided at the link above. Novel Device Lab | www.noveldevicelab.com University of Cincinnati | www.uc.edu
OLEDs and OPVs Part A
Просмотров 1375 лет назад
Course Documents | www.noveldevicelab.com/course/semiconductor-devices This lecture is from the Semiconductor Devices course taught at the University of Cincinnati by Dr. Jason Heikenfeld and is accompanied by assignments and tests which are provided at the link above. Novel Device Lab | www.noveldevicelab.com University of Cincinnati | www.uc.edu
Light Emitting Diodes Part B
Просмотров 2365 лет назад
Course Documents | www.noveldevicelab.com/course/semiconductor-devices This lecture is from the Semiconductor Devices course taught at the University of Cincinnati by Dr. Jason Heikenfeld and is accompanied by assignments and tests which are provided at the link above. Novel Device Lab | www.noveldevicelab.com University of Cincinnati | www.uc.edu
Light Emitting Diodes Part A
Просмотров 6025 лет назад
Course Documents | www.noveldevicelab.com/course/semiconductor-devices This lecture is from the Semiconductor Devices course taught at the University of Cincinnati by Dr. Jason Heikenfeld and is accompanied by assignments and tests which are provided at the link above. Novel Device Lab | www.noveldevicelab.com University of Cincinnati | www.uc.edu
Thank you for publishing this course. Very grateful.
Im a CS major but I found this really cool. wondering if i should get a minor in physics lol
Can't believe I got scammed by the guy selling Fourier lenses at the corner of the street last week.
Thanks a lot 👍
love from india
thank you sir
I wish my uni explained concepts like you. Instead they decided to explain the same idea with approximately 135 ppt slides (no joke). My attention span and love for optics had almost dissipated. Thank you
LASER: Light amplification by stimulated emission of radiation
What is plane of polarisation and plane of incident in this explaination? Kindly if anyone can explain with diagram
What are the full forms of DC and AC in optics?
Intriguing video! I wonder, in the bottom figure at 11:32, how the pattern on the panel at (f) will change if you shift (Left or right) the position of the object grid?
How does it work?
Thank you for the series. Helped me a lot. Love from INDIA
If only we had teachers like this.
We have a positive lense in our eyes, so we are always looking at the fouriere transform, just rarely look at coherent light source.
But your retina is at >1f not 1f, so we just get an upside down image on the retina. But maybe if you had a short eyeball
Thank you so much for the great lesson, it would be grateful for me if you can share any related books you referred.
Thank you so much for this series!
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On slide 6, where does the Theta variable come from after calculating the fourier transform?
This is, by far, the best explanation of birefringence I have ever seen.
great!
I am so happy. This was the most clear introduction to fourier optics I have come across.
All thumbs up! Very clear and useful 👍
at 2:34, you talk about the "electrically conductive components of a polarizer". Can you explain what that means? Are you talking about linear polarizers that can be purchased as plastic sheets, or another type of polarizer?
thumbs down for car sounds and all the distractions.
Dear sir as you mentioned in the first part of the video are Fourier optics and electromagnetic/quantum optics same? Thanks
At 7:34, you talk about the "two subcomponents of a polarized photon". Are you talking about the electric field and magnetic field components of the electromagnetic wave that are orthogonal to each other, or are you talking about two light rays that are polarized along different axes, i.e. vertical and horizontal? At 9:04, you talk about a quarter wave plate turning linearly polarized light into circularly polarized light because it delays the phase of one of the photons by 90 degrees; but you don't explain how "circularly polarized light" is the result of that, unless you are simply stating that polarized light that has a component that is 90 degrees out of phase is circularly polarized light. But you still don't explain why it is given that name.
Why is E2 effected by the quarter wave plate and E1 is not?
can you explain please how this works
bro, 10:59, you made so much sense, I totally understand the essence of this pinch-off staff,even I just started to learn Semi-Conductor after you released this vedio 2 years. Thank you soooooooooooomuch
This helped a lot... thank you
Badass
But isn't the diffraction/ Fourier-Transform happening by the object itself. The lens is just focussing?
The diffraction pattern created by the wires sets up the light spatially that is input to the lens while the lens actually carries out the Fourier transform. You’re also right though, it focuses the light so that we can actually form an image of the intensity pattern (not the diffraction pattern) at the focal plane of the lens.
Is there a way or do they have a liquid form of this or can you melt the plastic of poloierized to turn it to liquid form
It seems we have very similar ideas in that regard. I'm looking for the same thing.
@@maskedmarvyl4774 if you do find out please let me know and I will do the same . Thanks for responding. Great Hope to you
@@dreamalittle5467 , I think if you're looking for a liquid form of a birefringent material, it would seem that transparent polymer chains floating in a medium of matching refractive index that can be aligned somehow, would be the way to achieve it. This would require a chemist as a consultant who specializes in transparent polymer chains however, which would be very expensive to employ. I know that liquid crystals are used as polarizers and can alter polarized light, but I don't know if transparent liquid crystals can also be used to achieve and manipulate the birefringent effect. If there are optics courses in your area it might be very beneficial to take some, unless you already have.
look up " how does an LCD display work" and I bet you'll find what you are looking for. Applied Science has a video of making his own LCD display, and Posy has a few videos as well.
A nice explanation on filtering
I have a graduate degree in optics and photonics and gotta tell you, you have some really amazing explanations that help the intuition beyond the math. For example, the Ohmic loss of a metal mirror vs a lossless glass mirror due to the glass being a dielectric. I never thought about it that way until now. But a consequence is that now I don't feel I understand how enhanced aluminum mirrors work---I'm going to have to rethink that.