Method and apparatus for a fiber optic housing and aligning device
View Patent ↗The present invention discloses an apparatus and method for a fiber optic housing and aligning device. A fiber optic housing and aligning device in accordance with the present invention comprises a housing, a directionally adjustable tubular casing that is mechanically coupled to a wall of the housing, and a collimator disposed within the directionally adjustable tubular casing, wherein the adjustable tubular casing comprises a convex spherical cap surface that mates with a concave seating surface of an opening within the wall and wherein the spherical cap surface may be attached to the housing by laser welding or by epoxy.
1. A fiber optic housing and aligning device, comprising:
a housing;
a directionally adjustable tubular casing that is mechanically coupled to a wall of the housing; and
a collimator disposed within the directionally adjustable tubular casing,
wherein:
the housing comprises a convex spherical cap surface that mates with a concave seating surface of the directionally adjustable tubular casing,
an end point of the collimator is disposed at the center of a sphere defining the convex spherical cap surface, and
the spherical cap surface is configured to be attached to the directionally adjustable tubular casing by an attachment means.
2. The device of claim 1 , wherein the attachment means comprises a laser weld.
3. The device of claim 1 , wherein the attachment means comprises an epoxy bond.
4. A fiber optic housing and aligning device, comprising:
a housing;
a directionally adjustable tubular casing that is mechanically coupled to a first wall of the housing;
a moveable tubular casing that is mechanically coupled to a second wall of the housing;
a first collimator disposed within the directionally adjustable tubular casing and a second collimator disposed within the moveable tubular casing,
wherein:
the first wall comprises a convex spherical cap surface that mates with a concave seating surface of the directionally adjustable tubular casing,
an end point of the first collimator is disposed at the center of a sphere defining the convex spherical cap surface,
the spherical cap surface is configured to be attached to the directionally adjustable tubular casing by an attachment means, and
the moveable tubular casing comprises a flange section that mates with and is configured to be attached to the second wall by the attachment means.
5. The device of claim 4 , wherein the attachment means comprises a laser weld.
6. The device of claim 4 , wherein the attachment means comprises an epoxy bond.
7. A method for a fiber optic housing and aligning device, comprising:
(a) inserting a collimator into a directionally adjustable tubular casing and mechanically coupling the directionally adjustable tubular casing to a housing, wherein the housing comprises a convex spherical cap surface and the directionally adjustable tubular casing comprises a concave seating surface that mates with the convex spherical cap surface and an end point of the collimator is disposed at the center of a sphere defining the convex spherical cap surface;
(b) monitoring the power contained within an optical signal while adjusting the directional alignment of the directionally adjustable tubular casing with respect to the housing and the position of collimator within the adjustable tubular casing so as to maximize the signal;
(c) affixing the collimator to the directionally adjustable tubular casing and using an attachment means to attach the directionally adjustable tubular casing to the housing; and
(d) adjusting the position of the tubular casing with respect to the housing by laser hammering so as to maximize the power of the optical signal.
8. The method of claim 7 , wherein the attachment means comprises a laser weld.
9. A method for a fiber optic housing and aligning device, comprising:
(a) inserting a collimator into a directionally adjustable tubular casing and mechanically coupling the directionally adjustable tubular casing to a housing, wherein the housing comprises a convex spherical cap surface and the directionally adjustable tubular casing comprises a concave seating surface that mates with the convex spherical cap surface and an end point of the collimator is disposed at the center of a sphere defining the convex spherical cap surface;
(b) monitoring the power contained within an optical signal while adjusting the directional alignment of the directionally adjustable tubular casing with respect to the housing and the position of collimator within the adjustable tubular casing so as to maximize the signal; and
(c) affixing the collimator to the directionally adjustable tubular casing and using an attachment means to attach the directionally adjustable tubular casing to the housing while adjusting the optical alignment by laser hammering.
10. The method of claim 9 , wherein the attachment means comprises a laser weld.