Home |
Search |
Today's Posts |
|
#1
|
|||
|
|||
Irregular Gaussian radiation fields
Playing with Gaussian arrays I find I can make irregular
radiation fields, this presumably because the arbitary border repetively seals its borders as the radiation escapes. I suppose one can equate it somewhat to a balloon with escaping air pulses going in different directions as equilibrium is reformed. I understand that broadcasting arrays are strictly controlled so I wondered if an array that could radiate in pre designated areas would be useful as it would not require a reflector to repell radiation. Art |
#2
|
|||
|
|||
Irregular Gaussian radiation fields
I understand that broadcasting arrays are strictly controlled
so I wondered if an array that could radiate in pre designated areas would be useful as it would not require a reflector to repell radiation. ___________ Examples in use for many decades already are the directional arrays used in AM broadcasting, where all elements (towers) in the array are driven. The element spacings & orientations, and the relative power & phase applied to each element determine the net radiation pattern of the array. RF |
#3
|
|||
|
|||
Irregular Gaussian radiation fields
On 16 Mar, 09:34, "Richard Fry" wrote:
I understand that broadcasting arrays are strictly controlled so I wondered if an array that could radiate in pre designated areas would be useful as it would not require a reflector to repell radiation. ___________ Examples in use for many decades already are the directional arrays used in AM broadcasting, where all elements (towers) in the array are driven. The element spacings & orientations, and the relative power & phase applied to each element determine the net radiation pattern of the array. RF Thanks ART |
#4
|
|||
|
|||
Irregular Gaussian radiation fields
On 16 Mar, 09:53, "art" wrote:
On 16 Mar, 09:34, "Richard Fry" wrote: I understand that broadcasting arrays are strictly controlled so I wondered if an array that could radiate in pre designated areas would be useful as it would not require a reflector to repell radiation. ___________ Examples in use for many decades already are the directional arrays used in AM broadcasting, where all elements (towers) in the array are driven. The element spacings & orientations, and the relative power & phase applied to each element determine the net radiation pattern of the array. RF Thanks ART Let me ask another question. Since a gaussian array is in equilibrium it can be placed in a complex circuit to generate a pass filter or something like that. Does this fact provide any advantages? Also with regard to the irregular radiation field the Gaussian array with a single feed point can duplicate the present broadcasting method of arrays where phasing harneses would be required. Just a thought Art Art |
#5
|
|||
|
|||
Irregular Gaussian radiation fields
"art"
Also with regard to the irregular radiation field the Gaussian array with a single feed point can duplicate the present broadcasting method.... Just a thought ________ All you need to do then is to prove it, and get the FCC to accept it. RF |
#6
|
|||
|
|||
Irregular Gaussian radiation fields
On 16 Mar, 14:09, "Richard Fry" wrote:
"art" Also with regard to the irregular radiation field the Gaussian array with a single feed point can duplicate the present broadcasting method.... Just a thought ________ All you need to do then is to prove it, and get the FCC to accept it. RF What about the use of complex circuitry methods od design does that present any advantage? We now can insert lumped constants ? |
Reply |
Thread Tools | Search this Thread |
Display Modes | |
|
|
Similar Threads | ||||
Thread | Forum | |||
Gaussian law and time varying fields | Antenna | |||
electric & magnetic fields ?? | Antenna | |||
Electric and Magnetic fields | Antenna | |||
On address fields in AX.25 packets | Digital | |||
On address fields in AX.25 packets | Digital |