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343 Threads found on edaboard.com: Forth
Simulation showing typical waveforms you can expect. Duty cycle is controlled by an ordinary logic gate. It biases an NPN which biases a PNP. 159277 Notice to obtain your spec 10A, inductor saturation rating needs to be greater than 10A. Upwards of 20A. Smoothing capacitor must carry 5A back and forth at several kHz. B
C∞ admits AC to the load while blocking DC. It's common in audio amplifiers. Farad value can be a wide range. The idea is for it to offer little impedance to your frequency of 1kHz, as compared to the load. Your other values are reasonable. - - - Updated - - - To make your output stage function proper
RVE couldn?t start after PEX Calibre I run Calibre PEX. There exist some lvs errors. After that, I tried to start RVE. However, the RVE view emerges for several seconds then disappear. The error message is: *WARNING* (TECH-2000010): techGetTechFile: Argument must be dbCellViewId or ddId for cell, library, and so forth - nil. *WARNING* (T
If I understand right, you are trying to build a saturable reactor. The type shown in the first link can't be build on a single core. Sending current back forth through the bifilar winding has just just zero effect. I thought so. But I read these "Ferristor" scans and they show the control windings onto the same core. Th
depends on the failure mode capacitor failures: if you mount it vertically, the leads may stretch under vibration and the actual capacitor inside the case may be stretched also and it will jump up and down if you mount it horizontally, you can put a strain relief in the leads but you'll need to glue the case to the board somehow then the actual
The electrons move back and forth between the capacitor and the inductor. Compare this movement with a mechanical pendulum. It can move much more than the movement you used to push it. It is the same with the electrons.
Can you find (or write) software that simply sends and receives data via USB at each computer? If you can gain control over such communication then you might get a cluster concept to work, regardless of what OS they use. Then you can add routines that make them cooperate at doing whatever operation you wish. Example, to make them play chess, you
I'm just about to get my Spartan-3E to read an optical sensor mounted next to the harmonic balancor so I can display the engine RPM. Thinking ahead, I would like to someday implement electronic ignition using COP (a coil over each plug) after the computer learns how to read the MAP, O2, TPS, baro and so forth. I would
You have a serious confusion with RB1_bit and EncoderA_bit respectively RB2_bit and EncoderB_bit. Encoderxx is defined as alias of the RBx, but should be a variable holding the previous input state. Apart form this problem, the code should work. There's a possible complication with bouncing encoder outputs, RB1 and RB2 should be better copied to
Redraw your schematic such that every "wire" segment is an inductor, each device has a capacitor from every pin to every other node in the circuit (you may choose to stay local, for convenience) and your resonant behaviors will suggest themselves. Subject to appropriate scaling, and damping and so forth. And of course those cute little ideal-gro
transformer start to produce a noisy sound like"tik-tik-tik" and voltage change beetwen 40-45 The irregular operation could be unwanted 'hiccup' mode, or maybe a case of squegging. It works okay for a few cycles, then a momentary lockup. As this repeats back-and-forth, the transformer can make audible noises.
DC Blocks which you place in labaratory is actually real capacitors which you use in circuits to prevent unwanted signals from entering to either port(terminal) of your device. Those components will be replaced by real inductors and capacitors serving the same purpose in your circuit. When you talk about realistic, things get much more complicate
Hi all, I designed a 12bit DAC based on R-2R topology in a 0.18um CMOS tech. It is 8+4bit segmented. The sizes of the switches are increased in a binary weighted manner as the current drawn from each consecutive higher significant bit is going to be double. So, the switch of the LSB is 1 unit, LSB+1 is 2 unit so for and so forth. The segmented p
Hi there! I'm working on a home-made project with a servomotor using Basys 3 . I need to control my servomotor in that way that it can rotate 90° back and forth several times. My servomotor is a SG90 9g Micro Servo and I'm tryng to write a code in VHDL to control it. The problem is that i don't know how to make the div
Hi there! I'm working on a home-made project with a servomotor using Basys 3 . I need to control my servomotor in that way that it can rotate 90° back and forth several times. My servomotor is a SG90 9g Micro Servo and I'm tryng to write a code in VHDL to control it. The problem is that i don't know how to make the division for the 2 timers
The pdf has equations which appear to show ratios between components, but they do not give specific working values. Fortunately I like to play with simulations, and I spent some time experimenting with your Chua oscillator. The goal is to start L & C2 oscillating back and forth at their resonant frequency, while C1 introduces a different frequency.
I just wanted to know if in a BLDC motor i am driving and in the initial phase of testing may be i want to try with different switching. In case my switching is wrong and the machine halts or moves back and forth. In these circumstances it is always that mosfet fails, if in case i don't stop switching within some time. I know there is no schematic.
The thread below is about driving an ultrasonic transducer. I posted a driver circuit there, designed to send full supply voltage back and forth through a series LC, by detecting its resonant frequency automatically. The concept may be adapted for your purposes.
It's a good idea to portray Rsource upstream of the filter, as a reminder of its presence. If it were absent entirely then enormous AC current passes back and forth through C1 (possibly other sections of the filter). In addition, by varying Rsource it is a way to influence the sharpness of the filter curve.
dc-dc converter circuit that will be able to convert 30v/2a into 12v/5a Theoretically a buck converter can do this. This simple simulation is based on using ideal components. 144672 The LC input filter draws smooth current from the supply. Internally the converter has waveforms peaking ove