The capacitive effect is an element's opposition to a change in AC voltage. The resistor will develop a positively charged current at it flows through a capacitor. This will prevent a change in the initial voltage.
The transmitter or radio is the device that gives the "frequency" (for example "Ubiquiti XR7 radio") and the antenna is the device that irradiates that frequency. We have to consider that each type of antenna irradiates in a different way (for example dipole antennas that are omnidirectional or yagi antennas that are directive)
Antenna repair, installation, maintenence.
Radio waves are energy. Electromagnetic energy to be exact. The amount of energy a radio wave has will depend on the amount of power the transmitter has, the amount of amplification, the quality of the cable connecting it to the antenna and finally the antenna. The amount of energy is usually measured in watts.
1. Connect OMT to BTS and go to the RADIO VIEW after reading IDB. 2. Click on FAULT to check which Antenna shows the red indication. 3. If two antenna together shows the red indication , possible cause could be the Feeder cables swapped in between this both. 4. If Only one antenna shows red , check for the OD in ID connectors for possibly short due to moist or Water or durt. 5. Use the Site master for checking the VSWR in feeder cable. 6. After necessary actions been taken as suggested above, right click on antenna which was red indicated on OMT and set antenna supervision mesurement values SAMPLE = 100 and TIME = 5. then monitor for 10 to 15 min after reset given to perticular TRX. Wait and check if the alarm re-appears. Otherwise set the values as they were.
The effect was negligible.
Capacitive hats are used to alter the distribution of the current on a short antenna so that the antenna current is not concentrated near the ground. A whip or short antenna can be modeled as a series of LC circuits in which the capacitance per unit length is highest near the base and the inductance per unit length is highest near the top. A capacitive hat simply adds capacitance to the antenna. It basically makes the antenna seem longer, but maximum current is still at the base.The reason why you'd want to make your short antenna longer, is to obtain the antenna's resonance frequency. The length required to do this is a quarter or a half of the wavelength of the radio wave that it's receiving. At resonance, the electrical resistance of the antenna drastically drops, which effectively increases the Q factor, or quality factor, of the resultant output signal. The term Q factor is simply a measurement of how good the clarity and stability of the output signal is, the higher the better when dealing with radios and televisions.Of course, instead of using a capacitive hat on your antenna, you could always physically lengthen the antenna itself. However, considering that commonly-used radio waves can be up to 10 m (33 ft) long, your antenna would have to be about 8 feet long, which would make using your radio a bit awkward.
A short antenna causes higher than normal current to capacitive reactance and a long antenna causes higher than normal current to inductive reactance; a correct length antenna is free of reactance and appears as a resistance. Change the length of the antenna in small increments until you obtain the lowest (resistive) current.
I don't really get how you have an antenna on your laptop, but if you do, it does not effect it.
No inductor is perfect and has a capacitive and resistive component. As frequency increases, these components have more effect on the circuit operation. A capacitive component would be out of phase and be the imaginary value.
A load of any type,,,inductive or capacitive , would effect the circuit even if THOSE "loads" had no load on them. They would still have a load effect on the circuit they are connected to.Answer'Under no-load conditions' means that no load is connected to the supply. So your question doesn't make sense!
VAr is reactive power, caused by either inductive or capacitive loads. The ideal power factor to have is 1, anything less than that is a loss on the network. The effect of VArs on the circuit though depends. If you have a load that is mainly inductive, then adding more inductive reactance will lower the power factor. However, if you introduce capacitive reactance this will increase the power factor, and the opposite is true if its a mainly capacitive circuit. So VArs will either increase or decrease the power factor depending on the load of the circuit. The ideal situation is to balance inductive reactance with capacitive reactance so they in effect cancel each other out and power factor is 1.
walay answer aning questiona just answer it on own way......
capacitive reaction
The input impedance should increase slightly for the lower frequency, when using a capacitive circuit.
The capacitive reactance of a capacitor increases as the frequency decreases.
An IPS capacitive touchscreen is a type of technology that is used on LCD's.
A circuit that has only a capacitor in it. Or the net reactance is below zero, making it capacitive. The current leads the voltage in a negative (capacitive) reactive circuit.