Electrical Engineering

plz give me answer the above question

There are two measures of electricity to know about: kWh, and kW. kWh, or kilowatt-hours, is a measure of total energy use over time. It's like how far you've driven your car. kW, or kilowatts, is a measure of instantaneous consumption, like how fast you are driving at any given second.

The average home in Phoenix might max out at around 3 kW or a little more when everything - your computers, refrigerator, lights, air conditioning, etc. - are running. (An individual hair dryer might use 1.5 kW, so don't run those too long.) kW, however, is not how you get billed. Almost all residential properties get billed on kWh, the total amount of electricity they use each month. kWh can be calculated by multiplying kW by the number of hours you used that kW. This is the same as figuring out how far you've driven by multiplying your speed by how much time you spent driving at that speed.

In Phoenix, an average house your size might use around 30-40 kWh every day. It could be twice this in the summer when you're air conditioning, and much less in the fall or spring when you're not.

A ferrite suppression sleeve is a cylinder of ferrite with a hole in the middle through which a wire or cable is passed.

This device adds a "chunk" of inductance around the wire, and this results in the suppression of higher frequency signals. Power supply cables and other conductors that carry low frequency alternating current may have one of these sleeves installed. They are used to suppress high frequency interference and keep it from getting into or out of the equipment where they are installed. Use the link below to see some images and get a feel for what these are so you'll be able to spot them in the future.

He was eating my pussie

discomfort in the operated ear and the throat (from the breathing tube inserted during surgery), which can be controlled by such analgesic medications as meperidine

advantages for automatic load sharing of transformer with protective analysis

A touch pad screen and hardware sensor return the screen coordinates of where it has been touched.

Using the touch screen simply means that the software has been written in such a way as to make some kind of logical sense out of the coordinates.

BECAUSE IF YOU DIDN'T TEMPERATURE AND PRESSURE DROPS WOULD ALREADY BE TOO BIG TO ALLOW 2 EXTRA STAGES OF TURBINES (IP AND LP'S). EVIDENTLY TO RE-CIRCULATE STEAM BACK TO BOILER AND ON TO IP TURBINE IS MORE COST-EFFECTIVE (I.E.: MAKES YOU GAIN MORE MONEY) THEN PERHAPS NOT BEING ABLE TO ADD ANOTHER 2 STAGES BUT ONLY ONE (I.E.: IP). THIS WAY YOU CAN MAKE SURE TO EXPLOIT ALL ENERGY OF THE STEAM FLOW. IF YOU DIDN'T REHEAT LOSSES WOULD BE GREATER THAN GAINS pleas be more clear in your answer and tll mw th benifet of the hp & lp glands

as you wish.....

10 degrees

It should be something about 70 micro Ohm for VCB with two breaks per pole and about 30-40 micro Ohm for one break VCB

ac power cant be stored

It is much easier to store DC power. Although you might be able to make a case of "stored AC power" - such as the turning mass of a generator - the kinetic energy of this turning mass is converted into AC current - When load suddenly increases, some of this stored kinetic energy is converted into extra electric energy, and the speed the mass is turning at will begin to decay. Before it decays too much (hopefully), the governor on the generator will increase mechanical energy to the spinning mass to keep the speed at the desired value. So in effect a (small?) amount of energy is being stored in the spinning mass, which is then converted to AC power.

It is a lot easier and quicker.

Especially if scientists cannot draw (like me)

Alternating hemiplegia is a very rare condition characterized by recurrent episodes of temporary paralysis.

In this situation, to calibrate a transmitter you need a power circuit and communicator circuit. The Hart communicator used in the calibration process is connected to the power source circuit in parallel. The power source circuit is the one that has ammeter, 250 Ohm resistor, and power source all connected in series. As the transmitter sends output mA, it creates volt drop across the 250 Ohm resister. Let's say the volt drop across the resistor was 1 Volt.

Now, back to the Hart communicator. It is a load, meaning there will be a volt drop across the Hart communicator. Since it is in parallel with the power circuit, it is also parallel with the resistor. So, the 1 volt drop across the 250 Ohm resistor will also make 1 volt drop across the Hart communicator. Technically speaking, the 1 volt drop across the Hart communicator is only true if its resistor is also 250 Ohm. However, it does NOT matter what voltage drop is in the Hart communcator. It only sees the "relative" voltage drop changes to measure the changes in transmitter outputs.

A rectifier is a device that contains diodes to convert an AC supply into DC. The resultant DC voltage has ripple on it at twice the source frequency, or six times the source frequency for a 3-phase rectifier. The subsequent filter is there to filter out the ripple to provide a constant dc voltage.

On power supplies the filter is often a series inductor, while on low-power supplies used in electronics the filter is a parallel capacitor. Additional components may be added to give extra pure DC is required.

Not sure what you mean. The equivalent (total) resistance in a parallel circuit is less than any individual resistance.

The output from solar panels is a d.c. voltage which, using an inverter, is converted into an a.c. single-phase voltage. So under normal conditions, the answer would be no.