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US 2008/0303602 A1Published application
Infinite Radio Frequency Spectrum Transceiver
OwnerJohn Meccainventor
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OwnerJohn Meccainventor
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The present invention “Infinite Radio Frequency Spectrum Transceiver” (IRFS for short) relates to a circuit that emits and receives the complete radio frequency spectrum transmission as it exists from 0 hertz to the region where radio frequency ends to j the infrared. Such a circuit causes infinite bandwidth output gain evenly over the entire radio frequency spectrum, can be readily used as a noise source, where such output even gain across the spectrum. Such circuit in its simplest form can be used as a noise source, subsequent use of single circuits organized in series or parallel increase power where they can readily be used as a radio frequency jamming array. Additional insertion into specific points of the circuit can be used to transmit a signal across the bandwidth where such signal takes on the attributes of all frequencies and appears as higher and lower frequency as amplitude gain at such points across the bandwidth. Additional use of various filters can restrict the frequency of transmission. As a receiver signals of all and any kind will show up across the bandwidth viewed on a spectrum analyzer or other analytical instrument to decipher such received signals. As a single component to use in emitting broadband signals for radio frequency beacons.
1). A transceiver, comprising:
2). The transceiver recited in claim 1 including (h) a set of two stabilizing inductor or capacitor leads, comprised of two conductive elements where the first conductor lead having one end connected to ground and the other lead being the output of the gain block device, (i) mobility of one of the inductors of (h) stabilizing inductor's by implied physical adjustment means, (j) a single conductor loop ringing the transceiver having a plurality of conductors radiating inward towards the transceiver circuit and and said inwards radiating elements terminating on the output conductor of the gain device of claim 1(a and b).
3). The transceiver recited in claim one including (k) two or more separate inductors in proximity to each other obliquely, (1.) where inductors of claim 1(f) where such inductors in proximity to each other obliquely present means for electromagnetic fields to criss cross each other, (1) inductor's of claim 1(f) electromagnetic fields means by intersection of said inductors affect each others electromagnetic fields for causing electromagnetic reaction backwards and forward away from the proximity region of elements 1(f), (m) elements of said inductors 1(f) affecting induction of electromagnetic energy backwards and forwards where such energy back feeds into the input, output and ground of the gain block device, (n) means of claim 3(m) inductors electromagnetic energy backwards and forwards reaction from claim 3(k) causing by such means to harmonically re-inject electromagnetic energy into the gain block device.
4). The circuit portion of claim 1(c,d,e,f,g) having three said capacitors two of which form a common lead and intersect proximally and obliquely with the input leg of the first capacitor effect harmonic re amplification of signal into the gain block device.
5). The circuit of claim 4 comprised of 1 (c,d,e,f,g) where such perpendicular arranged inductor means interact to form means for harmonic amplification of signal, (o) means by one or a plurality of oblique conductors radiating means 1(e) from the first capacitors first leg.
6). A transceiver of claim 1 having a capacitor bank and perpendicular inductor arrangement according to claim 1 where such means causes even db gain and increase all frequencies and signals internal and external to the gain block device to infinity independent of the gain block device.
7). A transceiver circuit of claim 6 and claim 5 where by a plurality of capacitor means coupled to crossing oblique inductor means functions by a feedback from a neutral magnetic and electric region (according to the right hand rule of electrodynamics) between the perpendicular members 1(a-g), (p) means by neutralized magnetic and electric interaction between two separate inductors claim 1(b-g) as means to cause suspension of magnetic moment that normally prevents reflection of signal to cause said means to reflect signal and further allow signal passage through perpendicular region into the input, output and ground of the gain block device.
8). An harmonic frequency multiplier circuit means of claim 1 and 7 having perpendicular elements 3(l-m) in proximity promoting exponential harmonic increase in frequency across the known radio frequency bandwidth by utilizing forward and backward reflection away from axis field region between them, (q) means of causing reflection from such perpendicular inductors from intersection of magnetic and electric fields present on and around such perpendicular inductor leads of claim 1 (c-g) where such leads from capacitors terminate in juxtaposition to each other perpendicularly, (r) the perpendicular crossing leads of capacitors in juxtaposition to each other as a means of promoting the intersection of the fields from the two crossing lead inductors cause as a means the reflection of electromagnetic energy at that intersection of the two inductors fields to cross the intersection while simultaneously being reflected backward on both inductors, (s) means of claim 8 (r) where such reflection and continuance of electromagnetic energy means re-enters the gain block device of claim 1 (a-g) as additional means of increasing frequency bandwidth and thereupon that means of contribution to the frequency bandwidth is outputted by the amplifier of claim 1(a-g) to further add to the frequencies the harmonic frequency multiplier circuit over again infinitely, (t) claim 8 (q-r) as a means continually raising the frequency to higher and higher frequencies as well as to contributing to stable db increase over the entire electromagnetic frequency range.
9). An harmonic frequency multiplier circuit means of claim 1-9 having perpendicular elements 3(l-m) in proximity promoting exponential harmonic increase in frequency across the known radio frequency bandwidth by utilizing forward and backward reflection away from axis field region between them independent of the gain block device, (q) means of causing reflection from such perpendicular inductors from intersection of magnetic and electric fields present on and around such perpendicular inductor leads of claim 1 (c-g) where such leads from capacitors terminate in juxtaposition to each other perpendicularly independent of the gain block device, (r) the perpendicular crossing leads of capacitors in juxtaposition to each other as a means of promoting the intersection of the fields from the two crossing lead inductors cause as a means the reflection of electromagnetic energy at that intersection of the two inductors fields to cross the intersection while simultaneously being reflected backward on both inductors independent of the gain block device, (s) means of claim 8 (r) where such reflection and continuance of electromagnetic energy means re-enters the gain block device of claim 1 (a-g) as additional means of increasing frequency bandwidth and thereupon that means of contribution to the frequency bandwidth is outputted by the amplifier of claim 1 (a-g) to further add to the frequencies the harmonic frequency multiplier circuit over again infinitely independent of the gain block device, (t) claim 8(q-r) as a means continually raising the frequency to higher and higher frequencies as well as to contributing to stable db increase over the entire electromagnetic frequency range independent of the gain block device.