Optical matrix switch for multiple input/output port configurations

Claim 2

An optical matrix switch having N number of input ports and M number of output ports, comprising: where M is an even number, then a configuration of switch elements of N ((M-2)/2) number of 1×3 switch elements plus N number of 1×2 switch elements; and where M is an odd number, then a configuration of switch elements of N ((M-1)/2) number of 1×3 switch elements; each said input port communicating with each said output port; said switch elements being arranged such that each output port is connected, via a fiber optics transmission line, to N number of said switch elements, and each said switch element is connected longitudinally to one of said input ports or to an intervening switch element.

Claim 3

An optical matrix switch having N number of input ports and M number of output ports, comprising: where N is equal to or less than M and M is an even number then a configuration of switch elements of N ((M-2)/2) number of 1×3 switch elements plus N number of 1×2 switch elements; and where N is equal to or less than M an dM is an odd number, then a configuration of switch elements of N ((M-1)/2) number of 1×3 switch elements; each said input port communicating with each said output port; and said switch elements being arranged such that each output port is connected, via a fiber optics transmission line, to N number of said switch elements, and each said switch element is connected longitudinally to one of said input ports or to an intervening switch element; where M is equal to or less than N and N is an even number then a configuration of switch elements of M ((N-2)/2) number of 3×1 switch elements plus M number of 2×1 switch elements; where M is equal to or less than N and N is odd, then a configuration of switch elements of M ((N-1)/2) number of 3×1 switch elements; each said input port communicating with each said output port; and said switch elements being arranged such that each input port is connected, via a fiber optics transmission line, to M number of said switch elements, and each said switch element is connected longitudinally to one of said output ports or to an intervening switch element.

Claim 4

An optical matrix switch having N number of input ports and M number of output ports, comprising: where N is equal to or less than M and M is an even number then a configuration of switch elements of N ((M-2)/2) number of 1×3 switch elements plus N number of 1×2 switch elements; and where N is equal to or less than M an dM is an odd number, then a configuration of switch elements of N ((M-1)/2) number of 1×3 switch elements; each said input port communicating with each said output port; and said switch elements being arranged such that each output port is connected, via a fiber optics transmission line, to N number of said switch elements, and each said switch element is connected longitudinally to one of said input ports or to an intervening switch element; where M is equal to or less than N and N is an even number then a configuration of switch elements of M ((N-2)/2) number of 3×1 switch elements plus M number of 2×1 switch elements; where M is equal to or less than N and N is odd, then a configuration of switch elements of M ((N-1)/2) number of 3×1 switch elements; each said input port communicating with each said output port; and said switch elements being arranged such that each input port is connected, via a fiber optics transmission line, to M number of said switch elements, and each said switch element is connected longitudinally to one of said output ports or to an intervening switch element.

Claim 5

The optical matrix switch of claim 1 or claim 2 having N input ports and N output ports comprising, where N is an even integer, (N 2 -2N)/2 number of 1×3 switch elements plus N number of 1×2 switch elements and where N is an odd integer (N 2 -N)/2 number of 1×3 switch elements.

Claim 6

The optical matrix switch of claim 1 or claim 2 having 4 input ports and 4 output ports and a configuration of switch elements of 4 number of 1×3 switch elements and 4 number of 1×2 switch elements.

Claim 7

The optical matrix switch of claim 1 or claim 2 wherein each 1×3 fiber optic switch element comprises: an imaging system having a symmetry; a group of optical fiber end faces including a first optical fiber end face via which light is transmitted to said imaging system and second, third, and fourth optical fiber end faces via which light is transmitted away from said imaging system; means for displacing the imaging system and for displacing the group of fiber end faces relative to one another to a first position, a second position, or a third position; in said first position, light from said first fiber end face is imaged into said second fiber end face; in said second position, light from said first fiber end face is imaged into said third fiber end face; and in said third position, light from said first fiber end face is imaged into said fourth fiber end face.

Claim 8

The 1×3 fiber optic switch element of claim 5 wherein said imaging system is pivotally mounted and said group of optical fiber end faces is pivotally mounted and said means for displacing the imaging system comprises a solenoid for tipping the imaging system along said pivot between a first position and a second position; and, wherein said means for displacing a group of fiber end faces relative to one another is a solenoid which, when activated, causes the group of fiber end faces to tip through said pivot from a first position to a second position.

Claim 9

The optical matrix switch of claim 1 or claim 2 wherein each 1×2 fiber optic switch element comprises: an imaging system having a symmetry: a group of optical fiber end faces including a first optical end face via which light is transmitted to said imaging system and a second and third fiber end face via which light is transmitted away from said imaging system; means for displacing a group of fiber end faces relative to one another between a first position and a second position; in said first position, light from said first fiber end face is imaged into said second fiber end face; and in said second position, light from said first fiber and face is imaged into said third fiber end face.

Claim 10

The 1×2 fiber optic switch of claim 7 wherein said imaging system is pivotally mounted, said group of optical fiber end faces is pivotally mounted, said means for displacing he imaging system comprises a solenoid for tipping the imaging system along said pivot between a first position and a second position, and said means for displacing a group of fiber end faces relative to one another comprises a solenoid which, when activated, causes the group of fiber end faces to tip through said pivot from a first position to a second position.

Claim 11

The optical matrix switch of claim 2 wherein each 3×1 fiber optic switch element comprises; an imaging system having its symmetry; a group of optical fiber end faces including first, second, and third optical fiber end faces via which light is transmitted to said imaging system and a fourth optical end face via which light is transmitted away from said imaging system; means for displacing the imaging system and for displacing the group of fiber end faces relative to one another between a first position, a second position, and a third position; in said first position, light from said first fiber end face is imaged into said fourth fiber end face; in said second position, light from said second fiber end face is imaged into said fourth fiber end face; and in said third position, light from said third fiber end face is imaged into said fourth fiber end face; and further, wherein each 2×1 fiber optic switch element comprises: an imaging system having a symmetry; a group of optical fiber end faces including a first and second optical fiber end face via which light is transmitted to said imaging system and a third optical fiber end face via which light is transmitted away from said imaging system; means for displacing the group of fiber optic end faces relative to one another between a first position and a second position; in said first position, light from said first optic fiber end face is imaged into said third fiber end face; and in said second position, light from said second optic fiber end face is imaged into said third fiber end face.

Claim 12

The 3×1 and 2×1 fiber optic switches of claim 9 wherein said imaging system is pivotally mounted, said group of optical fiber end faces is pivotaly mounted, said means for displacing the imaging system comprises a solenoid for tipping the imaging system along said pivot between a first position and a second position, and said means for displacing a group of fiber end faces relative to one another comprises a solenoid which, when activated, causes the group of fiber end faces to tip through said pivot from a first position to an second position.

Claim 13

The optical matrix switch of claim 2 having M number of input ports and M number of output ports comprising, where M is an even integer, (M 2 -2M)/2 number of 3×1 elements plus M number of 2×1 switch elements, and where m is an odd integer, (M 2 -M)/2 number of 3×1 switch elements.