Travel joint for tubular well components

1. An apparatus for downhole connection of well components, comprising:

a first tubular component defining a through bore for receiving a second tubular component;

a travel joint including an axially moveable inner sleeve and a coupling feature configured for coupling the second tubular component with the inner sleeve when received in the through bore of the first tubular component;

a first energy transfer coupler disposed on the inner sleeve; and

a second energy transfer coupler connectable with the first energy transfer coupler in response to receiving the second tubular component in the through bore of the first tubular component to establish energy transfer capabilities between the first and second tubular components, wherein the coupling feature of the travel joint maintains relative position between the first and second energy transfer couplers while allowing relative movement between the first and second tubular components.

2. The apparatus of claim 1 , further comprising:

a first completion system comprising the first tubular component; and

a second completion system comprising the second tubular component, wherein the connection travel joint allows for axial alignment between the first and second completion systems.

3. The apparatus of claim 2 , wherein the second completion system is deployable after installation of the first completion system downhole into connection with the first completion system.

4. The apparatus of claim 1 , wherein the first tubular component comprises a deflector assembly defining the through bore and the second tubular component comprises a multilateral junction comprising a main bore leg for being received into the through bore.

5. The apparatus of claim 4 , wherein the first tubular component comprises an additional component, and wherein the main bore leg extends through the deflector assembly, via the through bore, to connect with the additional component.

6. The apparatus of claim 1 , wherein one or both of the first and second energy transfer couplers comprise contactless couplers.

7. The apparatus of claim 6 , wherein the energy transfer control line provides energy communication signal and/or power transfer to/from a first completion section comprising the first tubular component, a second completion section comprising the second tubular component, a flow control assembly, a sensor, a valve, another energy transfer coupling, control line, energy storage device, data storage device, computer, energy convertor, or combinations thereof.

8. The apparatus of claim 1 , further comprising:

an energy transfer control line connected to the first energy transfer coupler, the control line including a coiled section to allow axial travel of the inner sleeve without damaging the control line.

9. The apparatus of claim 8 , wherein the through bore of the first tubular component and the through bore of the second tubular component remain in sealed fluid communication throughout a full range of travel of the inner sleeve within the first tubular component.

10. The apparatus of claim 9 , wherein the dampener is secured to an outer surface of the axially moveable inner sleeve of the travel joint and extends radially outward to seal against an inner surface of the first tubular component, and wherein the dampener comprises at least one orifice configured to restrict flow and control a rate of movement between the first and second tubular components using a restricted flow of oil through an orifice.

11. The apparatus of claim 1 , further comprising:

a sealing member for establishing sealed fluid communication between the through bore of the first tubular component and a through bore of the second tubular component when the second tubular component is coupled with the inner sleeve.

12. The apparatus of claim 1 , further comprising a dampener for damping relative movement between the first tubular component and the axially moveable inner sleeve of the travel joint to dampen relative movement and vibrations between the first tubular component and the second tubular component.

13. The apparatus of claim 1 , wherein the first or second tubular component comprises a completion system positioned at least partially in a lateral wellbore of a multilateral well.

14. An apparatus for downhole connection of well components, comprising:

a first tubular component defining a through bore for receiving a second tubular component, wherein the first tubular component comprises a deflector assembly and an additional component, the deflector assembly defining a first part of the through bore and the additional component defining a second portion of the through bore, and wherein the second tubular component comprises a multilateral junction having a main bore leg that extends through the deflector assembly, via the through bore, to connect with the additional component;

a travel joint having an axially moveable inner sleeve configured to slide along the additional component and a coupling feature configured to couple the main bore leg of the second tubular component with the inner sleeve, wherein coupling the main bore leg with the inner sleeve slidably connects the main bore leg with the additional component;

a first energy transfer coupler disposed on the inner sleeve; and

a second energy transfer coupler connectable with the first energy transfer coupler in response to receiving the second tubular component in the through bore of the first tubular component to establish energy transfer capabilities between the first and second tubular components, wherein the coupling feature of the travel joint maintains relative position between the first and second energy transfer couplers while allowing relative movement between the first and second tubular components.

15. A method of connecting tubular components downhole, the method comprising:

lowering a first tubular component into a well;

receiving a second tubular component into a through bore of the first tubular component;

coupling the first and second tubular components with a travel joint in the through bore of the first tubular component, including coupling the second tubular component with an axially moveable inner sleeve of the travel joint, thereby allowing relative movement between the first and second tubular components while coupled; and

connecting a first energy transfer coupler on the inner sleeve with a second energy transfer coupler disposed on the second tubular component to establish energy transfer between the first and second tubular components, wherein the coupling maintains relative position between the first and second energy transfer couplers while allowing relative movement between the first and second tubular components.

16. The method of claim 15 , further comprising:

installing a first completion system comprising the first tubular component; and

installing a second completion system comprising the second tubular component, wherein the travel joint allows for axial alignment between the first and second completion systems.

17. The method of claim 15 , wherein the through bore of the first tubular component and a through bore of the second tubular component remain in sealed fluid communication throughout a full range of travel of the inner sleeve within the first tubular component.

18. The method of claim 15 , further comprising:

damping relative movement of the inner sleeve of the travel joint to dampen movement and vibrations between the first tubular component and the second tubular component.

19. An apparatus for downhole connection of well components, comprising:

a first tubular component defining an outer surface for receiving a second tubular component;

a travel joint including an axially moveable outer sleeve and a coupling feature configured for coupling the second tubular component with the outer sleeve when received by the first tubular component;

a first energy transfer coupler disposed on the outer surface of the first tubular component; and

a second energy transfer coupler connectable with the first energy transfer coupler in response to receiving the second tubular component by the first tubular component to establish energy transfer capabilities between the first and second tubular components, wherein the coupling feature of the travel joint maintains relative position between the first and second energy transfer couplers while allowing relative movement between the first and second tubular components.

20. A method of connecting tubular components downhole, the method comprising:

lowering a first tubular component into a well;

receiving a second tubular component into an outer surface of the first tubular component;

coupling the first and second tubular components with a travel joint on the outer surface of the first tubular component, including coupling the second tubular component with an axially moveable outer sleeve of the travel joint, thereby allowing relative movement between the first and second tubular components while coupled; and

connecting a first energy transfer coupler on the outer surface of the first tubular component with a second energy transfer coupler disposed on the second tubular component to establish energy transfer between the first and second tubular components, wherein the coupling maintains relative position between the first and second energy transfer couplers while allowing relative movement between the first and second tubular components.