The Continuous-Time Unit Impulse Function 4/4

adampanagos.org
The previous video developed the sifting property of the continuous-time impulse function delta(t). In this video we use the sifting property of the impulse function to evaluate and simplify a variety of integrals involving products of continuous-time with impulse functions.
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[@twaambomuzyamba2605]

Finally someone has simplified engineering.

[@AdamPanagos]

Thanks for the kind words, I’m glad you enjoyed the video! Make sure to check out my website adampanagos.org for additional content (600+ videos) you might find helpful. Thanks much, Adam

[@bayrakmusti1]

I was desperately googling for the answer to integral of x * delta(x + a) and thank God you made this video and also wrote an accurate video description. Thanks a lot!

[@AdamPanagos]

Thanks for the kind words, I’m glad you enjoyed the video! Make sure to check out my website adampanagos.org for additional content (600+ videos) you might find helpful. Thanks much, Adam

[@jasminekellaway1498]

Studying for the FE exam now - your videos help with so many concepts I forgot! Thanks for keeping your videos short and sweet, you've been super helpful!

[@AdamPanagos]

Thanks much, good luck on the exam!

[@anirbanmajumdar1256]

this video helped to clarify some concepts. thanks a lot !

[@gopalakrishnamazundar8078]

you are awesome...man .....you will get many blessings from engineering students out there!!!🤓

[@AdamPanagos]

Thanks!

[@angelapepito7133]

god speed bro i have a midterm tomorrow and you came in clutch

[@AdamPanagos]

Glad I could help, thanks for watching. Make sure to check out my website adampanagos.org for additional content (600+ videos) you might find helpful. Hope the exam went well!
Adam

[@Dcat293]

This series of videos was awesome.

[@AdamPanagos]

Thanks!

[@yasaraytas4116]

Thanks a lot. This video really helped me and i couldnt find another video for that .

[@AdamPanagos]

Glad I could help, thanks for watching. Make sure to check out my website adampanagos.org for additional content (600+ videos) you might find helpful. Thanks, Adam

[@hossaenatesfaye5655]

Thank you Doctor! Very helpful!

[@AdamPanagos]

You're very welcome, thanks for watching. Make sure to check out my website adampanagos.org for additional content (600+ videos) you might find helpful. Thanks, Adam.

[@jacobprice3079]

Amazing video. Thanks for the help!

[@AdamPanagos]

Glad I could help, thanks for watching. Make sure to check out my website adampanagos.org for additional content (600+ videos) you might find helpful. Thanks, Adam

[@motofan16]

Thank you for the video. What does the impulse signal's frequency spectrum look like?

[@AdamPanagos]

A perfectly flat constant. An impulse in time is a constant in frequency.

[@cher1229]

this video is really helpful :D thank you very much!

[@AdamPanagos]

You're welcome, thanks for watching.

[@kotasriveni7914]

I came across the same problem..but they did -d[exp(-at^2)/dt at t=-5 n the answer is different...what is happening..

[@hussiengamer4485]

What is the name of the book that yoy are taking these examples from?

[@AdamPanagos]

These are all my own examples.

[@sahidis2952]

could u plz tell me how to do, integral lim from -1 to 2 and the signal x(t) delta(t-0.5)

[@AdamPanagos]

That's just an application of the "sifting property" of the delta function. Since the delta function is located at t = 0.5, this integral "sifts out" the value of the signal x(t) at time t = 0.5. So, the integral is equal to x(0.5).

[@serhatb.5703]

You're the man

[@eng.eletrica.concursos]

not every hero wears a cloak

[@zizodjouid9299]

Thank yoy