Claims Analysis
Total Claims: 42
Claim 1
Independent Claim
223 words
A two-way optical communications switch system useful for a single elevated platform, said optical communication switch system capable of switching a large number of wide bandwidth channels, comprising: an elevated platform for hosting said optical communications switch system; a receive antenna system for receiving a first set of N beams, each of said first set of N beams servicing M customers; an electrical-to-optical modulator for forming a first set of N optical channels from respective ones of said N beams; a frequency resolver for spreading each of said first set of N optical channels in one dimension for creating a first set of N×M optical channel elements; a beam splitter image concatenator for duplicating said first set of N×M optical channel elements to create a substantially identical second set of N×M optical channel elements, said first set of N×M optical channel elements adjacent to said second set of N×M optical channel elements to form a dual virtual array having N×2M optical channel elements and M diagonals, each of said M diagonals comprising M optical channel elements; a diagonal optical combiner for combining said M optical channel elements for each of said M diagonals into N optical outputs for forming a second set of N beams; and a transmit antenna system for transmitting said second set of N beams, each servicing M customers simultaneously.
Claim 2
Dependent Claim
223 words
A two-way optical communications switch system useful for a single elevated platform, said optical communication switch system capable of switching a large number of wide bandwidth channels, comprising: an elevated platform for hosting said optical communications switch system; a receive antenna system for receiving a first set of N beams, each of said first set of N beams servicing M customers; an electrical-to-optical modulator for forming a first set of N optical channels from respective ones of said N beams; a frequency resolver for spreading each of said first set of N optical channels in one dimension for creating a first set of N×M optical channel elements; a beam splitter image concatenator for duplicating said first set of N×M optical channel elements to create a substantially identical second set of N×M optical channel elements, said first set of N×M optical channel elements adjacent to said second set of N×M optical channel elements to form a dual virtual array having N×2M optical channel elements and M diagonals, each of said M diagonals comprising M optical channel elements; a diagonal optical combiner for combining said M optical channel elements for each of said M diagonals into N optical outputs for forming a second set of N beams; and a transmit antenna system for transmitting said second set of N beams, each servicing M customers simultaneously.
Claim 3
Dependent Claim
13 words
The system of claim 1 wherein said frequency resolver includes a Bragg Cell.
Claim 4
Dependent Claim
51 words
The system of claim 2 further comprising a source terminal and a destination terminal, said source terminal routing signals through said optical communication switch system for establishing communication with said destination terminal, said source terminal and said destination terminal including control electronics to route signals through said optical communication switch system.
Claim 5
Dependent Claim
12 words
The system of claim 3 wherein the signals are wide bandwidth signals.
Claim 6
Dependent Claim
21 words
The system of claim 3 wherein said signals includes a plurality of signals within each subband useful for servicing additional customers.
Claim 7
Dependent Claim
35 words
The system of claim 2 wherein said frequency resolver further comprises: a collimating lens disposed between said Bragg Cell and said beam splitter image concatenator, said collimating lens for collimating said N×M optical channel elements.
Claim 8
Dependent Claim
94 words
The system of claim 2 wherein said beam splitter image concatenator includes, a beam splitter for splitting each of said first set of N×M optical channel elements to form said second set of N×M optical channel elements, and a regular mirror disposed between said beam splitter and said dual virtual array, said regular mirror for reflecting said second set of N×M optical channel elements to create a first N×M virtual array adjacent to a second N×M virtual array, said first N×M virtual array and said second N×M virtual array comprising said dual virtual array.
Claim 9
Dependent Claim
71 words
The system of claim 2 wherein said diagonal optical combiner includes a cylindrical focusing lens disposed between said dual virtual array and said transmit antenna system, said cylindrical focusing lens for combining said M optical channel elements of said M diagonals to form N optical output channels, said diagonal optical combiner further including a multiple beam former for converting said N optical output channels into said second set of N beams.
Claim 10
Dependent Claim
12 words
The system of claim 2 wherein said elevated platform is a satellite.
Claim 11
Dependent Claim
13 words
The system of claim 2 wherein said elevated platform is a ground-based tower.
Claim 12
Dependent Claim
51 words
The system of claim 2 further including a source terminal, a destination terminal, and an intermediate terminal, said source terminal re-coding a signal for routing via said intermediate terminal to said destination terminal in the event a particular channel that is selected in accordance with a predetermined encoding scheme is occupied.
Claim 13
Dependent Claim
52 words
The system of claim 11 wherein said source terminal includes detection circuitry for detecting an occupied channel and re-coding said signals with a predetermined code when said occupied channel is detected, and said intermediate terminal including detection means for detecting said predetermined code and re-routing said signals encoded with said predetermined code.
Claim 14
Dependent Claim
13 words
The system of claim 11 wherein said intermediate terminal is an elevated platform.
Claim 15
Dependent Claim
20 words
The system of claim 1 wherein said wide bandwidth channels are one-way distributed video services selectable by said M customers.
Claim 16
Dependent Claim
29 words
The system of claim 1 wherein said receive antenna system and said transmit antenna system include a set of directional antennas, said antennas employing alternating polarization to enhance isolation.
Claim 17
Dependent Claim
22 words
The system of claim 1 wherein said N beams are further isolated by employing frequency separation between adjacent of said N beams.
Claim 18
Dependent Claim
58 words
The system of claim 1 wherein said beams are further isolated by employing at least a second elevated platform, said elevated platform and said second elevated platform covering over lapping sectors, a source terminal and a destination terminal, the terminals each employing a directional antenna that spatially isolates one of said elevated platform or said second elevated platform.
Claim 19
Dependent Claim
45 words
The system of claim 1 further comprising: by-pass circuitry for extracting a set of selected ones of intra-beam signals from said first set of N beams, said intra-beam signals routed directly to said second set of N beams for transmission by said transmit antenna system.
Claim 20
Dependent Claim
24 words
The system of claim 1 wherein alternating ones of said N beams alternate a transmit frequency and a receive frequency for enhancing beam isolation.
Claim 21
Dependent Claim
183 words
A two-way communications switch system useful for a single elevated platform, said communication switch system capable of switching a large number of wide bandwidth channels, comprising: a receive antenna system for receiving a first set of N beams, each of said first set of N beams servicing M customers; an elevated platform for hosting said communication switch system; a bank of frequency selective filters for forming a first set of N channels from respective ones of said N beams, each of said first set of N channels having M signals, each of said M signals separated by frequency; a set of summation devices for forming a second set of N channels, each of the channels comprising M signals, each of said M signals from a separate one of said first set of N channels; routing means for routing said M signals from each of said first set of N channels to said summation means; and a transmit antenna system for converting said N channels into said second set of N beams and transmitting said second set of N beams servicing M customers simultaneously.
Claim 22
Dependent Claim
183 words
A two-way communications switch system useful for a single elevated platform, said communication switch system capable of switching a large number of wide bandwidth channels, comprising: a receive antenna system for receiving a first set of N beams, each of said first set of N beams servicing M customers; an elevated platform for hosting said communication switch system; a bank of frequency selective filters for forming a first set of N channels from respective ones of said N beams, each of said first set of N channels having M signals, each of said M signals separated by frequency; a set of summation devices for forming a second set of N channels, each of the channels comprising M signals, each of said M signals from a separate one of said first set of N channels; routing means for routing said M signals from each of said first set of N channels to said summation means; and a transmit antenna system for converting said N channels into said second set of N beams and transmitting said second set of N beams servicing M customers simultaneously.
Claim 23
Dependent Claim
49 words
The system of claim 20 further comprising a source terminal and a destination terminal, said source terminal routing signals through said communication switch system for establishing communication with said destination terminal, said source terminal and said destination terminal including control electronics to route signals through said communication switch system.
Claim 24
Dependent Claim
12 words
The system of claim 21 wherein the signals are wide bandwidth signals.
Claim 25
Dependent Claim
33 words
The system of claim 21 wherein said receive antenna system and transmit antenna system comprise a set of directional antennas, each of the antennas having beams oriented to service a distinct geographical sector.
Claim 26
Dependent Claim
21 words
The system of claim 21 wherein said signals includes a plurality of signals within each subband useful for servicing additional customers.
Claim 27
Dependent Claim
52 words
The system of claim 21 wherein said source terminal includes detection circuitry for detecting an occupied channel and re-coding said signals with a predetermined code when said occupied channel is detected, and said intermediate terminal including detection means for detecting said predetermined code and re-routing said signals encoded with said predetermined code.
Claim 28
Dependent Claim
12 words
The system of claim 21 wherein said elevated platform is a satellite.
Claim 29
Dependent Claim
13 words
The system of claim 21 wherein said elevated platform is a ground-based tower.
Claim 30
Dependent Claim
57 words
The system of claim 21 wherein said beams are further isolated by employing at least a second elevated platform, said elevated platform and said second elevated platform having over lapping sectors, a source terminal and a destination terminal, the terminals each employing a directional antenna that spatially isolated one of said elevated platform or said elevated platform.
Claim 31
Dependent Claim
22 words
The system of claim 20 wherein said beams are further isolated by alternating polarized energy employed in alternating ones of said beams.
Claim 32
Dependent Claim
21 words
The system of claim 20 wherein said beams are further isolated by employing frequency separation between adjacent ones of said beams.
Claim 33
Dependent Claim
20 words
The system of claim 20 wherein said wide bandwidth channels are one-way distributed video services selectable by said M customers.
Claim 34
Dependent Claim
51 words
The system of claim 20 further including a source terminal, a destination terminal, and an intermediate terminal, said source terminal re-coding a signal for routing via said intermediate terminal to said destination terminal in the event a particular channel that is selected in accordance with a predetermined encoding scheme is occupied.
Claim 35
Dependent Claim
13 words
The system of claim 32 wherein said intermediate terminal is an elevated platform.
Claim 36
Dependent Claim
45 words
The system of claim 20 further comprising: by-pass circuitry for extracting a set of selected ones of intra-beam signals from said first set of N beams, said intra-beam signals routed directly to said second set of N beams for transmission by said transmit antenna system.
Claim 37
Dependent Claim
213 words
A two-way optical communications switch system useful for a single elevated platform, said optical communication switch system capable of switching a large number of wide bandwidth channels, comprising: an elevated platform for hosting said optical communications switch system; means for receiving a first set of N beams, each of said first set of N beams servicing M customers; optical channel forming means for forming a first set of N optical channels from respective ones of said N beams; spreading means for spreading each of said first set of N optical channels in one dimension for creating a first set of N×M optical channel elements; N×M optical channel element duplicating means for duplicating said first set of N×M optical channel elements to create a substantially identical second set of N×M optical channel elements, said first set of N×M optical channel elements and said second set of N×M optical channel elements positioned to form a dual virtual array having N×2M optical channel elements and M diagonals, each of said M diagonals comprising M optical channel elements; selective focusing means for combining said M optical channel elements for each of said M diagonals into a second set of N beams; and transmitting means for transmitting said second set of N beams, each servicing M customers simultaneously.
Claim 38
Dependent Claim
213 words
A two-way optical communications switch system useful for a single elevated platform, said optical communication switch system capable of switching a large number of wide bandwidth channels, comprising: an elevated platform for hosting said optical communications switch system; means for receiving a first set of N beams, each of said first set of N beams servicing M customers; optical channel forming means for forming a first set of N optical channels from respective ones of said N beams; spreading means for spreading each of said first set of N optical channels in one dimension for creating a first set of N×M optical channel elements; N×M optical channel element duplicating means for duplicating said first set of N×M optical channel elements to create a substantially identical second set of N×M optical channel elements, said first set of N×M optical channel elements and said second set of N×M optical channel elements positioned to form a dual virtual array having N×2M optical channel elements and M diagonals, each of said M diagonals comprising M optical channel elements; selective focusing means for combining said M optical channel elements for each of said M diagonals into a second set of N beams; and transmitting means for transmitting said second set of N beams, each servicing M customers simultaneously.
Claim 39
Dependent Claim
13 words
The system of claim 35 wherein said spreading means includes a Bragg Cell.
Claim 40
Dependent Claim
52 words
The system of claim 36 further comprising a source terminal and a destination terminal, said source terminal routing signals through said optical communication switch system for establishing communication with said destination terminal, and said source terminal and said destination terminal including control electronics to route signals through said optical communication switch system.
Claim 41
Independent Claim
203 words
A method for simultaneously switching wideband signals of a first set of M users in each of a first set of N beams to any of a second set of M users each in of a second set of N beams, comprising the steps of: receiving a first set of N beams, each of said N beams servicing M customers; converting each of said N beams from electromagnetic energy into N electrical channels; converting said N electrical channels to a first set of N optical channels; focusing said N optical channels; collimating said first set of N optical channels; focusing said N optical channels on a Bragg Cell; converting said N optical channels into N×M optical channels; collimating said N×M optical channels; duplicating said N×M optical channels for forming a dual virtual array having N×2M optical channel elements and M diagonals, each of said M diagonals having M optical channel elements; combining said M optical channel elements of each of said M diagonals; forming a second set of N beams from the combined M optical channel elements of said M diagonals; and transmitting said second set of N beams to service a second set of M customers in each of said N beams.
Claim 42
Independent Claim
203 words
A method for simultaneously switching wideband signals of a first set of M users in each of a first set of N beams to any of a second set of M users each in of a second set of N beams, comprising the steps of: receiving a first set of N beams, each of said N beams servicing M customers; converting each of said N beams from electromagnetic energy into N electrical channels; converting said N electrical channels to a first set of N optical channels; focusing said N optical channels; collimating said first set of N optical channels; focusing said N optical channels on a Bragg Cell; converting said N optical channels into N×M optical channels; collimating said N×M optical channels; duplicating said N×M optical channels for forming a dual virtual array having N×2M optical channel elements and M diagonals, each of said M diagonals having M optical channel elements; combining said M optical channel elements of each of said M diagonals; forming a second set of N beams from the combined M optical channel elements of said M diagonals; and transmitting said second set of N beams to service a second set of M customers in each of said N beams.