Abstract: An animal support harness and method of supporting and restraining movement of an animal is provided. The apparatus includes a sling that can be routed around the abdomen of the animal, and a plurality of primary support straps extend and are joined at a handle. A leash strap is integrated with the handle, and extends to connect to the collar of the animal. The integral leash strap along with the primary support straps enables an owner to control not only an upward supporting force for the animal, but also provides an inherent restraint to prevent an animal from walking too quickly or lunging, which might otherwise harm the animal.

Abstract: An animal support harness and method of supporting and restraining movement of an animal is provided. The apparatus includes a sling that can be routed around the abdomen of the animal, and a plurality of primary support straps extend and are joined at a handle. A leash strap is integrated with the handle, and extends to connect to the collar of the animal. The integral leash strap along with the primary support straps enables an owner to control not only an upward supporting force for the animal, but also provides an inherent restraint to prevent an animal from walking too quickly or lunging, which might otherwise harm the animal.

Abstract: An animal support harness and method of supporting and restraining movement of an animal is provided. The apparatus includes a sling that can be routed around the abdomen of the animal, and a plurality of primary support straps extend and are joined at a handle. A leash strap is integrated with the handle, and extends to connect to the collar of the animal. The integral leash strap along with the primary support straps enables an owner to control not only an upward supporting force for the animal, but also provides an inherent restraint to prevent an animal from walking too quickly or lunging, which might otherwise harm the animal.

Abstract: A method for providing a protected splice in a hybrid cable that has a fiber optic line and an electrical line includes the steps of providing a mechanical optic splice in the fiber optic line; providing a electrical splice in the electrical line proximate to the optic splice; providing a jacket over the optic splice; installing a boot over the electrical splice; disposing the jacket and the boot in a slotted sleeve; positioning the slotted sleeve within a housing; and anchoring the housing to the hybrid cable on opposing sides of the splices.

Abstract: A technique is provided for utilizing an optical fiber in a variety of sensing applications and environments by beneficially routing the optical fiber. A continuous optical fiber is created to provide optical continuity between two ends of the optical fiber. The optical continuity is created with the assistance of an optical turnaround constructed in a simple, dependable form able to control the bend of the optical fiber as it extends through the optical turnaround.

Abstract: A method for providing a protected splice in a hybrid cable that has a fiber optic line and an electrical line includes the steps of providing an optic splice in the fiber optic line; providing a electrical splice in the electrical line proximate to the optic splice; connecting a tube over the optic splice; installing a boot over the electrical splice; disposing the tube and the boot in a slotted sleeve; positioning the slotted sleeve within a housing; and anchoring the housing to the hybrid cable on opposing sides of the splices.

Abstract: A technique enables the reduction or prevention of galvanic action by electrically insulating components of a system. Fiber optic systems can be protected with the technique by preventing the formation of hydrogen ions through galvanic action that otherwise contribute to hydrogen darkening of optical fibers.

Abstract: A technique is provided for utilizing an optical fiber in a variety of sensing applications and environments by beneficially routing the optical fiber. A continuous optical fiber is created to provide optical continuity between two ends of the optical fiber. The optical continuity is created with the assistance of an optical turnaround constructed in a simple, dependable form able to control the bend of the optical fiber as it extends through the optical turnaround.

Abstract: A technique is provided for utilizing an optical fiber in a variety of sensing applications and environments by beneficially routing the optical fiber. A continuous optical fiber is created to provide optical continuity between two ends of the optical fiber. The optical continuity is created with the assistance of an optical turnaround constructed in a simple, dependable form able to control the bend of the optical fiber as it extends through the optical turnaround.

Abstract: A technique is provided for utilizing an optical fiber in a variety of sensing applications and environments by beneficially routing the optical fiber. A continuous optical fiber is created to provide optical continuity between two ends of the optical fiber. The optical continuity is created with the assistance of an optical turnaround constructed in a simple, dependable form able to control the bend of the optical fiber as it extends through the optical turnaround.

Abstract: A technique is provided for utilizing an optical fiber in a variety of sensing applications and environments by beneficially routing the optical fiber. A continuous optical fiber is created to provide optical continuity between two ends of the optical fiber. The optical continuity is created with the assistance of an optical turnaround constructed in a simple, dependable form able to control the bend of the optical fiber as it extends through the optical turnaround.

Abstract: A technique enables the reduction or prevention of galvanic action by electrically insulating components of a system. Fiber optic systems can be protected with the technique by preventing the formation of hydrogen ions through galvanic action that otherwise contribute to hydrogen darkening of optical fibers.

Abstract: A method for providing a protected splice in a hybrid cable that has a fiber optic line and an electrical line includes the steps of providing an optic splice in the fiber optic line; providing a electrical splice in the electrical line proximate to the optic splice; connecting a tube over the optic splice; installing a boot over the electrical splice; disposing the tube and the boot in a slotted sleeve; positioning the slotted sleeve within a housing; and anchoring the housing to the hybrid cable on opposing sides of the splices.

Abstract: The present invention provides a protector assembly and process for protecting a downhole connection of a line (e.g., fiber optic or electrical) from the wellbore environment. Inside the housing that provides protection from the wellbore environment is a subassembly that provides anchoring to prevent movement of the cables' internal components that may damage the spliced connection.

Abstract: A valve assembly to control the intake of fluid. The valve assembly has a valve body and a valve choke disposed therein. The valve choke has a choke bore through the interior of the valve choke. The valve choke has a plurality of orifices to the choke bore spaced at intervals along the valve choke. A seal is disposed between the valve body and valve choke. The valve system is operable to position the valve choke so that the seal is positioned between the valve body and the valve choke at the intervals between the plurality of orifices.

Abstract: A valve assembly to control the intake of fluid. The valve assembly has a valve body and a valve choke disposed therein. The valve choke has a choke bore through the interior of the valve choke. The valve choke has a plurality of orifices to the choke bore spaced at intervals along the valve choke. A seal is disposed between the valve body and valve choke. The valve system is operable to position the valve choke so that the seal is positioned between the valve body and the valve choke at the intervals between the plurality of orifices.

Abstract: The present invention provides a protector assembly and process for protecting a downhole connection of a line (e.g., fiber optic or electrical) from the wellbore environment. Inside the housing that provides protection from the wellbore environment is a subassembly that provides anchoring to prevent movement of the cables' internal components that may damage the spliced connection.

Abstract: A valve assembly to control the intake of fluid. The valve assembly has a valve body and a valve choke disposed therein. The valve choke has a choke bore through the interior of the valve choke. The valve choke has a plurality of orifices to the choke bore spaced at intervals along the valve choke. A seal is disposed between the valve body and valve choke. The valve system is operable to position the valve choke so that the seal is positioned between the valve body and the valve choke at the intervals between the plurality of orifices.

Abstract: A valve assembly to control the intake of fluid. The valve assembly has a valve body and a valve choke disposed therein. The valve choke has a choke bore through the interior of the valve choke. The valve choke has a plurality of orifices to the choke bore spaced at intervals along the valve choke. A seal is disposed between the valve body and valve choke. The valve system is operable to position the valve choke so that the seal is positioned between the valve body and the valve choke at the intervals between the plurality of orifices.

Abstract: A valve assembly to control the intake of fluid. The valve assembly has a valve body and a valve choke disposed therein. The valve choke has a choke bore through the interior of the valve choke. The valve choke has a plurality of orifices to the choke bore spaced at intervals along the valve choke. A seal is disposed between the valve body and valve choke. The valve system is operable to position the valve choke so that the seal is positioned between the valve body and the valve choke at the intervals between the plurality of orifices.