Recent content by Mr. Hiyasaki

for example: Simulate the digital signal in microsoft excel: the signal oscillates at 100 hz and alternates between 0 and 5 volts with a duty cycle of 50% I have no idea why I have to do these sorts of graphs to be quite honest. I was given a lab where I had to construct a Pulse Width...

How would I go about graphing a digtal oscillating signal? I don't quite understand what a pulse width is, or rather how to find it given only the oscillation in Hz and a duty cycle. I understand that the duty cycle is the ratio of the pulse width over the total period, but i don't understand...

How would I go about graphing a digtal oscillating signal? I don't quite understand what a pulse width is, or rather how to find it given only the oscillation in Hz and a duty cycle. I understand that the duty cycle is the ratio of the pulse width over the total period, but i don't understand...

thanks a whole lot, i think i am starting to understand this stuff. I wish the problems were a little simplier then worked their way up, but I don't have that choice. THank again for the help. I have two more questions if someone wouldn't mind helping me out a bit with these as well For...

SEE POST 4 I am having problems solving these resistor problems and was wondering if anyone could help. Really what I think my problem is is that i don't know what to do if there are series and parallel resistors on the same circuit For attachment three The resistance of the...

edit: i was stupid the center of mass doesn't change for number four so it comes out to be r/2

i was checking over this and noticed that v_{f}^2 = v_{o}^2 + 2a delta x 2.55(m/s)^2 = 0 + 2 (5.88m/s^2) (.4m) is not valid so does that mean it is wrong? or am i just confused?

The question is "Two masses comprise an inertial system: the first, a 2 Kg mass which rests on a rough table top; then second, 5 Kg mass which hangs freely 0.4 m above the floor from an ideal pulley at the edge of the table top. The two masses are connected by an inextensible string run over...

In this lab we dropped coffee filters from a given height (3 M) and want to determine their terminal velocity My problem is I don't know how to solve the log thing given. we have terminal velocity, V, in the formula Mg = bV^n which I change to V=(Mg/b)^(1/n) then to...