Originally posted by: NutBucket
Blow me computers!!
The only "computer" course I liked was a CPU design course I took. Programming can suck it!![]()
lol
Reconfigurable computing is my thing.
Originally posted by: NutBucket
Blow me computers!!
The only "computer" course I liked was a CPU design course I took. Programming can suck it!![]()
Originally posted by: helpme
Originally posted by: NutBucket
Blow me computers!!
The only "computer" course I liked was a CPU design course I took. Programming can suck it!![]()
lol
Reconfigurable computing is my thing.
Originally posted by: Nocturnal
That is not our problem, that's your problem, entirely. If you can't even manage to get the studying done, what makes you think you'll be able to hold a job and do projects properly and finish them on time without running into problems like this? You're not going to be able to come here and ask how to do your work.
Originally posted by: spacelord
Wow. This post is a blast from the past for me. Got my BSEE over 12 years ago, but always did computers and programming since then.. so forgot most of this stuff.
Seems a bit late to be trying to figure this out at the last minute for a final exam. Did you skip most of the classes over the semester?
The most important thing to remember : the operational principle of the pn junction. Every danged device basically is a / contains multiple pn junctions. Well, Schottky barriers are metal-semicon, but the concept of drawing a band diagram is essentially the same (the work function of metal on one side, the Fermi level of the semi-material on the other).Originally posted by: NutBucket
Do you have a good calculator? Makes solving those RLC circuits quite easy.
Now, how about someone explain to me the modeling and operation of semiconductor devices?Damn me for picking the class that fit my schedule! Oh well, at least the prof told me yesterday I'd pass
![]()
ONE MORE FINAL!!!!
Originally posted by: WhoBeDaPlaya
The most important thing to remember : the operational principle of the pn junction. Every danged device basically is a / contains multiple pn junctions. Well, Schottky barriers are metal-semicon, but the concept of drawing a band diagram is essentially the same (the work function of metal on one side, the Fermi level of the semi-material on the other).Originally posted by: NutBucket
Do you have a good calculator? Makes solving those RLC circuits quite easy.
Now, how about someone explain to me the modeling and operation of semiconductor devices?Damn me for picking the class that fit my schedule! Oh well, at least the prof told me yesterday I'd pass
![]()
ONE MORE FINAL!!!!
Basically, you put two materials together. Their original Fermi-levels will change and equalize at some value. So eg. for pn-s, instead of two discrete values you get a transition at the junction (band bending).
Oh nuts, gotta go. Will add more later![]()
Bah, like I said, all the PN and BJT calculations are straightforward enough if you have a formula sheet. MOS calculations for anything more complex than the square law become an incredible mess though.Originally posted by: NutBucket
Originally posted by: WhoBeDaPlaya
The most important thing to remember : the operational principle of the pn junction. Every danged device basically is a / contains multiple pn junctions. Well, Schottky barriers are metal-semicon, but the concept of drawing a band diagram is essentially the same (the work function of metal on one side, the Fermi level of the semi-material on the other).Originally posted by: NutBucket
Do you have a good calculator? Makes solving those RLC circuits quite easy.
Now, how about someone explain to me the modeling and operation of semiconductor devices?Damn me for picking the class that fit my schedule! Oh well, at least the prof told me yesterday I'd pass
![]()
ONE MORE FINAL!!!!
Basically, you put two materials together. Their original Fermi-levels will change and equalize at some value. So eg. for pn-s, instead of two discrete values you get a transition at the junction (band bending).
Oh nuts, gotta go. Will add more later![]()
The problem with me is I'm pretty good with ideas...just bad with calculations![]()
Originally posted by: LordMorpheus
if you don't know now you won't learn in time for your final. You are as fvcked as anyone has ever been - at least at Rice our fundamentals of EE class assumes you know imaginary number manipulation like the back of your hand coming in, and God help you if you don't.
Originally posted by: chuckywang
Originally posted by: LordMorpheus
if you don't know now you won't learn in time for your final. You are as fvcked as anyone has ever been - at least at Rice our fundamentals of EE class assumes you know imaginary number manipulation like the back of your hand coming in, and God help you if you don't.
So you're assumed to know Precalculus in college. Imagine that.
Originally posted by: NutBucket
Originally posted by: chuckywang
Originally posted by: LordMorpheus
if you don't know now you won't learn in time for your final. You are as fvcked as anyone has ever been - at least at Rice our fundamentals of EE class assumes you know imaginary number manipulation like the back of your hand coming in, and God help you if you don't.
So you're assumed to know Precalculus in college. Imagine that.
Yeah, shocking isn't it? Considering how much our math dept. sucks I'm glad I never really needed any of the advanced math I "learned". Honestly, never had to use the DEs to do transient analysis. God bless the Laplace transform![]()
Originally posted by: LordMorpheus
if you don't know now you won't learn in time for your final. You are as fvcked as anyone has ever been - at least at Rice our fundamentals of EE class assumes you know imaginary number manipulation like the back of your hand coming in, and God help you if you don't.
Originally posted by: Papagayo
Don't worry about it..
It's open book test..
Originally posted by: NutBucket
Originally posted by: chuckywang
Originally posted by: LordMorpheus
if you don't know now you won't learn in time for your final. You are as fvcked as anyone has ever been - at least at Rice our fundamentals of EE class assumes you know imaginary number manipulation like the back of your hand coming in, and God help you if you don't.
So you're assumed to know Precalculus in college. Imagine that.
Yeah, shocking isn't it? Considering how much our math dept. sucks I'm glad I never really needed any of the advanced math I "learned". Honestly, never had to use the DEs to do transient analysis. God bless the Laplace transform![]()
Originally posted by: chuckywang
Originally posted by: NutBucket
Originally posted by: chuckywang
Originally posted by: LordMorpheus
if you don't know now you won't learn in time for your final. You are as fvcked as anyone has ever been - at least at Rice our fundamentals of EE class assumes you know imaginary number manipulation like the back of your hand coming in, and God help you if you don't.
So you're assumed to know Precalculus in college. Imagine that.
Yeah, shocking isn't it? Considering how much our math dept. sucks I'm glad I never really needed any of the advanced math I "learned". Honestly, never had to use the DEs to do transient analysis. God bless the Laplace transform![]()
IMO, DE's are easier than LT's cause you can look at the equation and "guess" the form of the solution. No need to expand to partial fractions and take the inverse LT.
