Fiber optic switch and connector

Claim 2

A fiber optic switch for switching light energy from a first input bundle of optic fibers to one of at least two output bundles of optic fibers, including, a first fiber optic connector for receiving and transmitting the light energy transmitted from the first input bundle of optic fibers to a first internal fiber optic bundle, second and third fiber optic connectors for receiving and transmitting the light energy transmitted to one of the at least two output bundles of optic fibers to second and third internal fiber optic bundles, a first block including at least one opening extending through the block for receiving the first internal fiber optic bundle within the opening and with the block including a face portion and with the opening and the first internal bundle terminating at the face portion, a second block including at least two openings extending through the block for individually receiving the second and third internal fiber optic bundles within the openings and with the block including a face portion and with the openings and the second and third internal bundles terminating at the face portions and with the face portions of the first and second blocks contiguous to and in sliding engagement with each other, means for providing relative movement between the first and second blocks to at least two positions and with the first and second internal bundles aligned to transfer light energy between the first and second internal bundles in the first position and the first and third internal bundles aligned to transfer light energy between the first and third internal bundles in the second position.

Claim 3

The fiber optic switch of claim 1 wherein the blocks are initially formed from a single member split to form the separate blocks and with the openings machined in the single member for providing close tolerances betwen the blocks to minimize light loss during transfer of light energy.

Claim 4

The fiber optic switch of claim 2 wherein the single member is machined to provide a series of adjacent slots to form the openings for receiving the fiber optic bundles.

Claim 5

The fiber optic switch of claim 1 wherein the first block has a plurality of regularly spaced openings and with the first internal bundle split into a complementary plurality of branches and with each branch received in an opening and wherein the second block has at least two pluralities of regularly spaced openings and with the second and third internal bundles split into complementary pluralities of branches and with each branch received in an opening and the two pluralities of openings interleaved and with each plurality of openings in the second block complementary to the plurality of openings in the first block.

Claim 6

The fiber optic switch of claim 4 wherein the faces of the blocks are flat and wherein the relative movement between the blocks is along a straight line.

Claim 7

The fiber optic switch of claim 1 wherein the connectors have mating male and female sections and with each fiber optic bundle extending through the secitons and with each section having a tapered portion surrounding the fiber optic bundle and with a complementary tapered sleeve extending into the tapered portion to center and lock the fiber optic bundle within the section.

Claim 8

The fiber optic switch of claim 6 wherein the mating portions of the male and female sections including complementary tapered portions to accurately align the mating male and female sections.

Claim 9

A fiber optic switch for switching light energy between a plurality of fiber optic bundles, including, a plurality of fiber optic connectors for transmitting light energy from individual ones of the plurality of fiber optic bundles to a plurality of individual internal fiber optic bundles, a switching structure for switching light energy between one of the individual internal bundles to individual of the remaining plurality of internal bundles and with the switching structure including slotted blocks located adjacent to each other and with each block including a face portion and with the slots receiving and supporting the individual internal bundles in contiguous relationship and with each individual internal bundle terminating at the face portions and with the face portions of the slotted blocks contiguous to each other, and means for providing relative movement between the slotted blocks to at least two positions for providing switching of transmitted light energy between individual ones of the internal fiber optic bundles.

Claim 10

A fiber optic switch for switching light energy between a plurality of fiber optic bundles, including, a plurality of fiber optic connectors for transmitting light energy from individual ones of the plurality of fiber optic bundles to a plurality of individual internal fiber optic bundles, a switching structure for switching light energy between one of the individual internal bundles to individual of the remaining plurality of internal bundles and with the switching structure including slotted blocks located adjacent to each other and with each block including a face portion and with the slots receiving and supporting the individual internal bundles in contiguous relationship and with each individual internal bundle terminating at the face portions and with the face portions of the slotted blocks contiguous to each other, and means for providing relative movement between the slotted blocks to at least two positions for providing switching of transmitted light energy between individual ones of the internal fiber optic bundles.

Claim 11

The fiber optic switch of claim 8 wherein the slotted blocks are initially formed from a single member split to form the separate blocks and with the slots machined in the single member for providing close tolerances between the blocks to minimize light loss during transfer of light energy.

Claim 12

The fiber optic switch of claim 9 wherein the single member is machined to provide a series of adjacent slots to form the slots for receiving the fiber optic bundles.

Claim 13

The fiber optic switch of claim 8 wherein a first slotted block has a plurality of regularly spaced slots and with a first internal bundle split into a complementary plurality of branches and with each branch received in a slot and wherein a second slotted block has at least two pluralities of regularly spaced slots and with second and third internal bundles split into complementary pluralities of branches and with each branch received in a slot and the two pluralities of slots interleaved and with each plurality of slots in the second block complementary to the plurality of slots in the first block.

Claim 14

The fiber optic switch of claim 11 wherein the slots are located along flat faces of the blocks and wherein the relative movement between the blocks is along a straight line.

Claim 15

The fiber optic switch of claim 11 wherein the connectors have mating male and female sections and with each fiber optic bundle extending through the sections and with each section having a tapered portion surrounding the fiber optic bundle and with a complementary tapered sleeve extending into the tapered portion to center and lock the fiber optic bundle within the section.

Claim 16

The fiber optic switch of claim 13 wherein the mating portions of the male and female sections including complementary tapered portions to accurately align the mating male and female sections.

Claim 17

A fiber optic connector for providing the transfer of light energy between fiber optic bundles, including, a male section having a central opening for receiving a first fiber optic bundle and with the male section including a face portion and with the central opening and the first fiber optic bundle terminating at the face portion and with the central opening including an internal tapered portion terminating at the face portion and surrounding the first fiber optic bundle, a first external tapered locking sleeve terminating at the face portion and complementary to the tapered portion in the male section and with the first locking sleeve extending into the tapered portion and around the first fiber optic bundle to center and lock at the face portion the first fiber optic bundle within the male section, a female section having a central opening for receiving a second fiber optic bundle and with the female section including a face portion and with the central opening and the second fiber optic bundle terminating at the face portion and with the central opening including an internal tapered portion terminating at the face portion and surrounding the second fiber optic bundle, a second external tapered locking sleeve terminating at the face portion and complementary to the tapered portion in the female section and with the second locking sleeve extending into the tapered portion and around the second fiber optic bundle to center and lock at the face portion the second fiber optic bundle within the female section, and means for mating the male and female sections for providing transfer of light energy between the first and second fiber optic bundles.

Claim 18

A fiber optic connector for providing the transfer of light energy between fiber optic bundles, including, a male section having a central opening for receiving a first fiber optic bundle and with the male section including a face portion and with the central opening and the first fiber optic bundle terminating at the face portion and with the central opening including an internal tapered portion terminating at the face portion and surrounding the first fiber optic bundle, a first external tapered locking sleeve terminating at the face portion and complementary to the tapered portion in the male section and with the first locking sleeve extending into the tapered portion and around the first fiber optic bundle to center and lock at the face portion the first fiber optic bundle within the male section, a female section having a central opening for receiving a second fiber optic bundle and with the female section including a face portion and with the central opening and the second fiber optic bundle terminating at the face portion and with the central opening including an internal tapered portion terminating at the face portion and surrounding the second fiber optic bundle, a second external tapered locking sleeve terminating at the face portion and complementary to the tapered portion in the female section and with the second locking sleeve extending into the tapered portion and around the second fiber optic bundle to center and lock at the face portion the second fiber optic bundle within the female section, and means for mating the male and female sections for providing transfer of light energy between the first and second fiber optic bundles.

Claim 19

The fiber optic connection of claim 15 wherein the male and female sections include mating portions extending from the face portions and wherein the mating portions include complementary tapered portions to accurately align the mating male and female face portions.

Claim 20

The fiber optic connector of claim 16 wherein the tapered locking sleeve having a taper of approximately 5° and the tapered mating portions have a taper of approximately 45°.

Claim 21

A fiber optic connector section for providing the transfer of light energy between fiber optic bundles, including, a connector section having a central opening for receiving a fiber optic bundle and with the connector section having a front face surrounding the opening and with the fiber optic bundle terminating at the face portion and with the central opening including an internal tapered portion extending inward from the front face to an interior portion of the connector section, an external tapered locking sleeve complementary to the tapered portion and with the locking sleeve extending into the internal tapered portion to surround and to center and lock the fiber optic bundle within the male section at the face portion, and the connector section including a mating portion for mating with a complementary connector section to provide for the transfer of light energy between the connector section and the mating complementary connector section.

Claim 22

A fiber optic connector section for providing the transfer of light energy between fiber optic bundles, including, a connector section having a central opening for receiving a fiber optic bundle and with the connector section having a front face surrounding the opening and with the fiber optic bundle terminating at the face portion and with the central opening including an internal tapered portion extending inward from the front face to an interior portion of the connector section, an external tapered locking sleeve complementary to the tapered portion and with the locking sleeve extending into the internal tapered portion to surround and to center and lock the fiber optic bundle within the male section at the face portion, and the connector section including a mating portion for mating with a complementary connector section to provide for the transfer of light energy between the connector section and the mating complementary connector section.

Claim 23

The fiber optic connector section of claim 18 wherein the connector section forms a male section.

Claim 24

The fiber optic connector section of claim 18 wherein the connector section forms a female section.

Claim 25

The fiber optic connection section of claim 18 wherein the front face of the mating portion includes a tapered portion to cooperate with a complementary mating portion included in the complementary connector to align the connector sections during mating.