Multiple use wet mate having a fluid reservoir configured to receive a volume of coupling fluid therein
Provided is a wet mate, a well system, and a method. The wet mate, in one aspect, includes a wet mate housing, the wet mate housing having a male wet mate connector portion or a female wet mate connector portion. The wet mate, according to this aspect, further includes a fluid reservoir located within the wet mate housing, and a volume of optical coupling fluid located within the fluid reservoir, the volume of optical coupling fluid sufficient to allow the wet mate housing to undergo at least three decoupling/coupling sequences before running out while the wet mate housing is in a substantially horizontal location.
1 . An energy transfer mechanism, comprising:
an energy transfer mechanism housing, the energy transfer mechanism housing having a male energy transfer mechanism connector portion or a female energy transfer mechanism connector portion;
a fluid reservoir located within the energy transfer mechanism housing;
a volume of coupling fluid located within the fluid reservoir, the volume of coupling fluid sufficient to allow the energy transfer mechanism housing to undergo at least three decoupling/coupling sequences before running out while the energy transfer mechanism housing is in a substantially horizontal location; and
a biasing device coupled with the volume of coupling fluid, the biasing device configured to discharge an amount of the coupling fluid outside of the energy transfer mechanism housing between each decoupling/coupling sequence.
2 . The energy transfer mechanism as recited in claim 1 , wherein the volume of coupling fluid is sufficient to allow the energy transfer mechanism housing to undergo at least six decoupling/coupling sequences before running out.
3 . The energy transfer mechanism as recited in claim 1 , wherein the volume of coupling fluid is sufficient to allow the energy transfer mechanism housing to undergo at least ten decoupling/coupling sequences before running out.
4 . The energy transfer mechanism as recited in claim 1 , wherein the volume of coupling fluid is sufficient to allow the energy transfer mechanism housing to undergo at least twenty decoupling/coupling sequences before running out.
5 . The energy transfer mechanism as recited in claim 1 wherein the biasing device is configured to discharge the amount of the coupling fluid outside of the energy transfer mechanism housing as the energy transfer mechanism housing and the second opposing energy transfer mechanism housing are approaching one another to clear any wellbore debris from the energy transfer mechanism housing prior to the energy transfer mechanism housing and the second opposing energy transfer mechanism housing fully mating together.
6 . The energy transfer mechanism as recited in claim 1 , wherein the biasing device is configured to discharge a substantially consistent amount of the coupling fluid outside of the energy transfer mechanism housing between each decoupling/coupling sequence.
7 . The energy transfer mechanism as recited in claim 1 , wherein the energy transfer mechanism housing includes the male energy transfer mechanism connector portion, and further wherein the fluid reservoir is located in the male energy transfer mechanism connector portion.
8 . The energy transfer mechanism as recited in claim 1 , wherein the energy transfer mechanism housing includes the female energy transfer mechanism connector portion, and further wherein the fluid reservoir is located in the female energy transfer mechanism connector portion.
9 . The energy transfer mechanism as recited in claim 1 , wherein the energy transfer mechanism housing is a lower completion string energy transfer mechanism housing.
10 . The energy transfer mechanism as recited in claim 1 , wherein the volume of coupling fluid is a volume of optical coupling fluid.
11 . The energy transfer mechanism as recited in claim 1 , wherein the volume of coupling fluid is a volume of dielectric coupling fluid.
12 . A well system, comprising:
a wellbore extending through one or more subterranean formations; and
an energy transfer mechanism located in the wellbore, the energy transfer mechanism including:
an energy transfer mechanism housing, the energy transfer mechanism housing having a male energy transfer mechanism connector portion or a female energy transfer mechanism connector portion;
a fluid reservoir located within the energy transfer mechanism housing; and
a volume of coupling fluid located within the fluid reservoir, the volume of coupling fluid sufficient to allow the energy transfer mechanism housing to undergo at least three decoupling/coupling sequences before running out while the energy transfer mechanism housing is in a substantially horizontal location; and
a biasing device coupled with the volume of coupling fluid, the biasing device configured to discharge an amount of the coupling fluid outside of the energy transfer mechanism housing between each decoupling/coupling sequence.
13 . The well system as recited in claim 12 , wherein the volume of coupling fluid is sufficient to allow the energy transfer mechanism housing to undergo at least six decoupling/coupling sequences before running out.
14 . The well system as recited in claim 12 , wherein the volume of coupling fluid is sufficient to allow the energy transfer mechanism housing to undergo at least ten decoupling/coupling sequences before running out.
15 . The well system as recited in claim 12 , wherein the volume of coupling fluid is sufficient to allow the energy transfer mechanism housing to undergo at least twenty decoupling/coupling sequences before running out.
16 . The well system as recited in claim 12 , wherein the biasing device is configured to discharge the amount of the coupling fluid outside of the energy transfer mechanism housing as the energy transfer mechanism housing and the second opposing energy transfer mechanism housing are approaching one another to clear any wellbore debris from the energy transfer mechanism housing prior to the energy transfer mechanism housing and the second opposing energy transfer mechanism housing fully mating together.
17 . The well system as recited in claim 12 , wherein the biasing device is configured to discharge a substantially consistent amount of the coupling fluid outside of the energy transfer mechanism housing between each decoupling/coupling sequence.
18 . The well system as recited in claim 12 , wherein the biasing device is configured to discharge a substantially consistent amount of the coupling fluid at an interface of the energy transfer mechanism during each decoupling/coupling sequence.
19 . The well system as recited in claim 12 , wherein the energy transfer mechanism housing includes the male energy transfer mechanism connector portion, and further wherein the fluid reservoir is located in the male energy transfer mechanism connector portion.
20 . The well system as recited in claim 12 , wherein the energy transfer mechanism housing includes the female energy transfer mechanism connector portion, and further wherein the fluid reservoir is located in the female energy transfer mechanism connector portion.
21 . The well system as recited in claim 12 , wherein the energy transfer mechanism housing is a downhole lower completion string half energy transfer mechanism housing.
22 . The well system as recited in claim 21 , further including a tubing string coupled with the lower completion string, the tubing string having a second energy transfer mechanism including an uphole tubing string half energy transfer mechanism connector housing coupled with the downhole lower completion string half energy transfer mechanism housing.
23 . The well system as recited in claim 22 , wherein the tubing string is a service string.
24 . The well system as recited in claim 22 , wherein the tubing string is an upper completion string.
25 . The well system as recited in claim 22 , wherein the second energy transfer mechanism includes:
a second energy transfer mechanism housing, the second energy transfer mechanism housing having a second male energy transfer mechanism connector portion or a second female energy transfer mechanism connector portion;
a second fluid reservoir located within the second energy transfer mechanism housing; and
a second volume of coupling fluid located within the second fluid reservoir, the second volume of coupling fluid sufficient to allow the second energy transfer mechanism housing to undergo at least three decoupling/coupling sequences before running out while the energy transfer mechanism housing is in a substantially horizontal location.
26 . The well system as recited in claim 12 , wherein the volume of coupling fluid is a volume of optical coupling fluid.
27 . The well system as recited in claim 12 , wherein the volume of coupling fluid is a volume of dielectric coupling fluid.
28 . A method, comprising:
forming a wellbore through one or more subterranean formations; and
placing an energy transfer mechanism within the wellbore, the energy transfer mechanism including:
energy transfer mechanism housing, the energy transfer mechanism housing having a male energy transfer mechanism connector portion or a female energy transfer mechanism connector portion;
a fluid reservoir located within the energy transfer mechanism housing; and
a volume of coupling fluid located within the fluid reservoir, the volume of coupling fluid sufficient to allow the energy transfer mechanism housing to undergo at least three decoupling/coupling sequences before running out; and
a biasing device coupled with the volume of coupling fluid, the biasing device configured to discharge an amount of the coupling fluid outside of the energy transfer mechanism housing between each decoupling/coupling sequence.