
Purpose:
... series, while R3 and R4 are connected in parallel. Note that one end of each of the resistors R2, R3, R4, and R5 are all tied to the same node (one row of the breadboard). The schematic corresponding to the connection is shown in Figure 3. Use the most sensitive range of a DMM to measure the resista ...
... series, while R3 and R4 are connected in parallel. Note that one end of each of the resistors R2, R3, R4, and R5 are all tied to the same node (one row of the breadboard). The schematic corresponding to the connection is shown in Figure 3. Use the most sensitive range of a DMM to measure the resista ...
Divider Circuits and Kirchoffs Law
... circuit. We know that the total current in a parallel circuit must equal the sum of the branch currents. This fact should be fairly obvious if you think of the water pipe circuit analogy with every branch node acting as a "tee" fitting, the water flow splitting or merging with the main piping as it ...
... circuit. We know that the total current in a parallel circuit must equal the sum of the branch currents. This fact should be fairly obvious if you think of the water pipe circuit analogy with every branch node acting as a "tee" fitting, the water flow splitting or merging with the main piping as it ...
NAME: EEL6935 – Fall 2003 HW #3 Due October 15, 2003
... (a) (5 points) For the following circuit, assume that the pfet current mirror is mismatched such that the current output of the mirror is 10% larger than the current input. This is the only nonideality in the circuit, the differential pair is perfectly matched and all transistors have infinite outpu ...
... (a) (5 points) For the following circuit, assume that the pfet current mirror is mismatched such that the current output of the mirror is 10% larger than the current input. This is the only nonideality in the circuit, the differential pair is perfectly matched and all transistors have infinite outpu ...
EMF and Internal Resistance
... high resistance, so needs a tiny current; it is almost perfect. ) ...
... high resistance, so needs a tiny current; it is almost perfect. ) ...
PHYS-1200 PHYSICS II SPRING 2004
... Set up Channel 1 on the oscilloscope to measure A1 DIF. (Leave Channel 2 on so you can use it to control the sweep trigger.) Set the Volts/div to about 250 mV. With the Horizontal Time/Div set at 2 ms you should see two cycles. The charging stage should rise rapidly and the decay stage should dr ...
... Set up Channel 1 on the oscilloscope to measure A1 DIF. (Leave Channel 2 on so you can use it to control the sweep trigger.) Set the Volts/div to about 250 mV. With the Horizontal Time/Div set at 2 ms you should see two cycles. The charging stage should rise rapidly and the decay stage should dr ...
Ohm`s Law with Lamp
... Georg Ohm discovered that the ratio of the potential difference to the current is a constant value for a given conductor. The relationship R=V I is followed by most conductive materials. Those materials that follow this relationship are said to obey Ohm’s Law. However, in some materials, the relatio ...
... Georg Ohm discovered that the ratio of the potential difference to the current is a constant value for a given conductor. The relationship R=V I is followed by most conductive materials. Those materials that follow this relationship are said to obey Ohm’s Law. However, in some materials, the relatio ...
Network analysis (electrical circuits)

A network, in the context of electronics, is a collection of interconnected components. Network analysis is the process of finding the voltages across, and the currents through, every component in the network. There are many different techniques for calculating these values. However, for the most part, the applied technique assumes that the components of the network are all linear.The methods described in this article are only applicable to linear network analysis, except where explicitly stated.