MLchartDataset catalogue

Patent · US9784050B2 · B2 · US

Transfer sleeve for completions landing systems

(11) Publication number
US9784050B2
(21) Application number
15/461,746
(22) Filing date
2017-03-17
(30) Priority date
2014-02-20
(43) Publication date
2017-10-10
(45) Date of grant
2017-10-10
(51) IPC
B66B 1/42; B66C 1/44; E21B 19/00; E21B 19/06
(52) CPC
  • E21B Earth or rock drilling; obtaining oil, gas, water, soluble or meltable materials or a slurry of minerals from wells: 19/00, 19/02, 19/06, 19/08
  • B66C Cranes; load-engaging elements or devices for cranes, capstans, winches, or tackles: 1/44
(73) Assignee
FRANK S INT LLC
(72) Inventors
SMITH LOGAN E; ANGELLE JEREMY R
(54) Title
Transfer sleeve for completions landing systems
(57) Abstract

A tubular handling system and method for handling tubulars are provided. The tubular handling system includes a load transfer sleeve. The load transfer sleeve includes a body defining an inner diameter and a tapered bowl extending outward from the inner diameter, with the bowl defining a landing surface. The load transfer sleeve also includes a load bushing comprising a plurality of load bushing segments that are slidable along the bowl. The load bushing radially expands and contracts by axial translation of the plurality of load bushing segments relative to the body. Further, the plurality of load bushing segments each define an axial engagement surface configured to engage an upset of a tubular and a landing surface that engages the landing surface of the bowl when the axial engagement surface engages the upset.

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Claims (20)

  1. A method for handling a tubular, comprising: positioning a load transfer sleeve around the tubular; contracting a radially-expandable load bushing of the load transfer sleeve, such that a plurality of load bushing segments of the radially-expandable load bushing abut a landing surface of a bowl defined in a body of the load transfer sleeve; moving the radially-expandable load bushing relative to the tubular, after contracting the radially-expandable load bushing, until an upset of the tubular abuts an axial engagement surface of the radially-expandable load bushing; and lifting the tubular by lifting the load transfer sleeve.
  2. The method of claim 1, further comprising: lowering the tubular through a spear; and setting the load transfer sleeve onto the spear, such that the spear supports a weight of the tubular via the load transfer sleeve.
  3. The method of claim 2, wherein setting the load transfer sleeve onto the spear comprises receiving a portion of the spear into a groove extending from an inner diameter of the body of the load transfer sleeve.
  4. The method of claim 1, further comprising: lowering the tubular through a landing structure or a shock table; and setting the load transfer sleeve onto the landing structure or shock table, such that the landing structure or the shock table supports a weight of the tubular via the load transfer sleeve.
  5. The method of claim 4, wherein setting the load transfer sleeve onto the landing structure or shock table comprises receiving a feature of the load transfer sleeve using a feature of the landing structure or shock table so as to coaxially align the load transfer sleeve with the landing structure or shock table.
  6. The method of claim 1, further comprising: pivoting two arcuate portions of the body of the load transfer sleeve apart; and removing the load transfer sleeve from the tubular in a lateral direction.
  7. The method of claim 1, wherein the radially-expandable load bushing radially expands and contracts by axial translation of the plurality of load bushing segments relative to the body.
  8. A method for handling a tubular, comprising: positioning a load transfer sleeve around the tubular; expanding a radially-expandable load bushing of the load transfer sleeve prior to positioning the load transfer sleeve around the tubular, wherein positioning the load transfer sleeve around the tubular comprises receiving the load transfer sleeve over a box end of the tubular; contracting the radially-expandable load bushing of the load transfer sleeve, such that a plurality of load bushing segments of the radially-expandable load bushing abut a landing surface of a bowl defined in a body of the load transfer sleeve; moving the radially-expandable load bushing relative to the tubular, after contracting the radially-expandable load bushing, until an upset of the tubular abuts an axial engagement surface of the radially-expandable load bushing; and lifting the tubular by lifting the load transfer sleeve.
  9. The method of claim 8, further comprising: lowering the tubular through a spear; and setting the load transfer sleeve onto the spear, such that the spear supports a weight of the tubular via the load transfer sleeve.
  10. The method of claim 9, wherein setting the load transfer sleeve onto the spear comprises receiving a portion of the spear into a groove extending from an inner diameter of the body of the load transfer sleeve.
  11. The method of claim 8, further comprising: lowering the tubular through a landing structure or a shock table; and setting the load transfer sleeve onto the landing structure or shock table, such that the landing structure or the shock table supports a weight of the tubular via the load transfer sleeve.
  12. The method of claim 11, wherein setting the load transfer sleeve onto the landing structure or shock table comprises receiving a feature of the load transfer sleeve using a feature of the landing structure or shock table so as to coaxially align the load transfer sleeve with the landing structure or shock table.
  13. The method of claim 8, wherein the radially-expandable load bushing radially expands and contracts by axial translation of the plurality of load bushing segments relative to the body.
  14. A method for handling a tubular, comprising: positioning a load transfer sleeve around the tubular, wherein positioning the load transfer sleeve around the tubular comprises: pivoting two arcuate portions of the body of the load transfer sleeve apart; and receiving the tubular between the two arcuate portions; contracting a radially-expandable load bushing of the load transfer sleeve, such that a plurality of load bushing segments of the radially-expandable load bushing abut a landing surface of a bowl defined in a body of the load transfer sleeve; moving the radially-expandable load bushing relative to the tubular, after contracting the radially-expandable load bushing, until an upset of the tubular abuts an axial engagement surface of the radially-expandable load bushing; and lifting the tubular by lifting the load transfer sleeve.
  15. The method of claim 14, further comprising: lowering the tubular through a spear; and setting the load transfer sleeve onto the spear, such that the spear supports a weight of the tubular via the load transfer sleeve.
  16. The method of claim 15, wherein setting the load transfer sleeve onto the spear comprises receiving a portion of the spear into a groove extending from an inner diameter of the body of the load transfer sleeve.
  17. The method of claim 14, further comprising: lowering the tubular through a landing structure or a shock table; and setting the load transfer sleeve onto the landing structure or shock table, such that the landing structure or the shock table supports a weight of the tubular via the load transfer sleeve.
  18. The method of claim 17, wherein setting the load transfer sleeve onto the landing structure or shock table comprises receiving a feature of the load transfer sleeve using a feature of the landing structure or shock table so as to coaxially align the load transfer sleeve with the landing structure or shock table.
  19. The method of claim 14, further comprising: pivoting the two arcuate portions of the body of the load transfer sleeve apart after the tubular is lifted; and removing the load transfer sleeve from the tubular in a lateral direction after the tubular is lifted.
  20. The method of claim 14, wherein the radially-expandable load bushing radially expands and contracts by axial translation of the plurality of load bushing segments relative to the body.

Description

In oilfield operations, tubulars such as drill pipe and casing are run into a wellbore. The tubulars are generally run into the wellbore as “stands.” Each stand includes several, for example, three lengths or “joints” of the tubulars made up together, end-on-end. The stand is made up to the tubular string already deployed, and lowered into the wellbore for attachment to the next stand. Running in of multiple joints at once as part of the stand reduces the amount of time taken to connect the joints together, since there are fewer joints that must be made up during run-in or disassembled during removal of the tubulars from the wellbore. Prior to deploying the stands, or after they are removed from the wellbore, the stands may be stored in a vertical orientation in a pipe rack. The process of storing the stands in the pipe rack may be known as “racking back” the stand. Each stand can be run into the wellbore, removed from the wellbore (“tripped out”), and racked back multiple times, so long as the stands are not excessively damaged during use.

Load transfer sleeves are sometimes employed to provide a connection with the stands. Such load transfer sleeves can be a designed to be received around a tubular and bear against an upset along the stand. Upsets are generally provided by a collar, a lift nubbin, or an increased diameter area where the box-end connection is formed. In other cases, the load transfer sleeve may include slips that bite into the tubulars. In either case, the stand may be hoisted, e.g., via a spreader bar or an elevator coupled with the load transfer sleeve.

Citations (16)

  • US1674144A
  • US2002096337A1
  • US2004182611A1
  • US2007261857A1
  • US2010059231A1
  • US6644413B2
  • US6920931B1
  • US7143849B2
  • US7337853B2
  • US7681649B2
  • US7992634B2
  • US7997333B2
  • US8082997B2
  • US8096540B2
  • WO2005003504A2
  • WO2012121934A2
Record as JSON
{
  "publication_number": "US9784050B2",
  "country": "US",
  "kind": "B2",
  "title": "Transfer sleeve for completions landing systems",
  "abstract": "A tubular handling system and method for handling tubulars are provided. The tubular handling system includes a load transfer sleeve. The load transfer sleeve includes a body defining an inner diameter and a tapered bowl extending outward from the inner diameter, with the bowl defining a landing surface. The load transfer sleeve also includes a load bushing comprising a plurality of load bushing segments that are slidable along the bowl. The load bushing radially expands and contracts by axial translation of the plurality of load bushing segments relative to the body. Further, the plurality of load bushing segments each define an axial engagement surface configured to engage an upset of a tubular and a landing surface that engages the landing surface of the bowl when the axial engagement surface engages the upset.",
  "claims": [
    "1. A method for handling a tubular, comprising: positioning a load transfer sleeve around the tubular; contracting a radially-expandable load bushing of the load transfer sleeve, such that a plurality of load bushing segments of the radially-expandable load bushing abut a landing surface of a bowl defined in a body of the load transfer sleeve; moving the radially-expandable load bushing relative to the tubular, after contracting the radially-expandable load bushing, until an upset of the tubular abuts an axial engagement surface of the radially-expandable load bushing; and lifting the tubular by lifting the load transfer sleeve.",
    "2. The method of claim 1, further comprising: lowering the tubular through a spear; and setting the load transfer sleeve onto the spear, such that the spear supports a weight of the tubular via the load transfer sleeve.",
    "3. The method of claim 2, wherein setting the load transfer sleeve onto the spear comprises receiving a portion of the spear into a groove extending from an inner diameter of the body of the load transfer sleeve.",
    "4. The method of claim 1, further comprising: lowering the tubular through a landing structure or a shock table; and setting the load transfer sleeve onto the landing structure or shock table, such that the landing structure or the shock table supports a weight of the tubular via the load transfer sleeve.",
    "5. The method of claim 4, wherein setting the load transfer sleeve onto the landing structure or shock table comprises receiving a feature of the load transfer sleeve using a feature of the landing structure or shock table so as to coaxially align the load transfer sleeve with the landing structure or shock table.",
    "6. The method of claim 1, further comprising: pivoting two arcuate portions of the body of the load transfer sleeve apart; and removing the load transfer sleeve from the tubular in a lateral direction.",
    "7. The method of claim 1, wherein the radially-expandable load bushing radially expands and contracts by axial translation of the plurality of load bushing segments relative to the body.",
    "8. A method for handling a tubular, comprising: positioning a load transfer sleeve around the tubular; expanding a radially-expandable load bushing of the load transfer sleeve prior to positioning the load transfer sleeve around the tubular, wherein positioning the load transfer sleeve around the tubular comprises receiving the load transfer sleeve over a box end of the tubular; contracting the radially-expandable load bushing of the load transfer sleeve, such that a plurality of load bushing segments of the radially-expandable load bushing abut a landing surface of a bowl defined in a body of the load transfer sleeve; moving the radially-expandable load bushing relative to the tubular, after contracting the radially-expandable load bushing, until an upset of the tubular abuts an axial engagement surface of the radially-expandable load bushing; and lifting the tubular by lifting the load transfer sleeve.",
    "9. The method of claim 8, further comprising: lowering the tubular through a spear; and setting the load transfer sleeve onto the spear, such that the spear supports a weight of the tubular via the load transfer sleeve.",
    "10. The method of claim 9, wherein setting the load transfer sleeve onto the spear comprises receiving a portion of the spear into a groove extending from an inner diameter of the body of the load transfer sleeve.",
    "11. The method of claim 8, further comprising: lowering the tubular through a landing structure or a shock table; and setting the load transfer sleeve onto the landing structure or shock table, such that the landing structure or the shock table supports a weight of the tubular via the load transfer sleeve.",
    "12. The method of claim 11, wherein setting the load transfer sleeve onto the landing structure or shock table comprises receiving a feature of the load transfer sleeve using a feature of the landing structure or shock table so as to coaxially align the load transfer sleeve with the landing structure or shock table.",
    "13. The method of claim 8, wherein the radially-expandable load bushing radially expands and contracts by axial translation of the plurality of load bushing segments relative to the body.",
    "14. A method for handling a tubular, comprising: positioning a load transfer sleeve around the tubular, wherein positioning the load transfer sleeve around the tubular comprises: pivoting two arcuate portions of the body of the load transfer sleeve apart; and receiving the tubular between the two arcuate portions; contracting a radially-expandable load bushing of the load transfer sleeve, such that a plurality of load bushing segments of the radially-expandable load bushing abut a landing surface of a bowl defined in a body of the load transfer sleeve; moving the radially-expandable load bushing relative to the tubular, after contracting the radially-expandable load bushing, until an upset of the tubular abuts an axial engagement surface of the radially-expandable load bushing; and lifting the tubular by lifting the load transfer sleeve.",
    "15. The method of claim 14, further comprising: lowering the tubular through a spear; and setting the load transfer sleeve onto the spear, such that the spear supports a weight of the tubular via the load transfer sleeve.",
    "16. The method of claim 15, wherein setting the load transfer sleeve onto the spear comprises receiving a portion of the spear into a groove extending from an inner diameter of the body of the load transfer sleeve.",
    "17. The method of claim 14, further comprising: lowering the tubular through a landing structure or a shock table; and setting the load transfer sleeve onto the landing structure or shock table, such that the landing structure or the shock table supports a weight of the tubular via the load transfer sleeve.",
    "18. The method of claim 17, wherein setting the load transfer sleeve onto the landing structure or shock table comprises receiving a feature of the load transfer sleeve using a feature of the landing structure or shock table so as to coaxially align the load transfer sleeve with the landing structure or shock table.",
    "19. The method of claim 14, further comprising: pivoting the two arcuate portions of the body of the load transfer sleeve apart after the tubular is lifted; and removing the load transfer sleeve from the tubular in a lateral direction after the tubular is lifted.",
    "20. The method of claim 14, wherein the radially-expandable load bushing radially expands and contracts by axial translation of the plurality of load bushing segments relative to the body."
  ],
  "description_excerpt": "In oilfield operations, tubulars such as drill pipe and casing are run into a wellbore. The tubulars are generally run into the wellbore as “stands.” Each stand includes several, for example, three lengths or “joints” of the tubulars made up together, end-on-end. The stand is made up to the tubular string already deployed, and lowered into the wellbore for attachment to the next stand. Running in of multiple joints at once as part of the stand reduces the amount of time taken to connect the joints together, since there are fewer joints that must be made up during run-in or disassembled during removal of the tubulars from the wellbore. Prior to deploying the stands, or after they are removed from the wellbore, the stands may be stored in a vertical orientation in a pipe rack. The process of storing the stands in the pipe rack may be known as “racking back” the stand. Each stand can be run into the wellbore, removed from the wellbore (“tripped out”), and racked back multiple times, so long as the stands are not excessively damaged during use.\n\nLoad transfer sleeves are sometimes employed to provide a connection with the stands. Such load transfer sleeves can be a designed to be received around a tubular and bear against an upset along the stand. Upsets are generally provided by a collar, a lift nubbin, or an increased diameter area where the box-end connection is formed. In other cases, the load transfer sleeve may include slips that bite into the tubulars. In either case, the stand may be hoisted, e.g., via a spreader bar or an elevator coupled with the load transfer sleeve.",
  "cpc": [
    "E21B 19/00",
    "B66C 1/44",
    "E21B 19/02",
    "E21B 19/06",
    "E21B 19/08"
  ],
  "ipc": [
    "B66B 1/42",
    "B66C 1/44",
    "E21B 19/00",
    "E21B 19/06"
  ],
  "assignees": [
    "FRANK S INT LLC"
  ],
  "inventors": [
    "SMITH LOGAN E",
    "ANGELLE JEREMY R"
  ],
  "filing_date": "2017-03-17",
  "publication_date": "2017-10-10",
  "grant_date": "2017-10-10",
  "priority_date": "2014-02-20",
  "application_number": "US-201715461746-A",
  "family_id": "53797657",
  "citations": [
    "US1674144A",
    "US2002096337A1",
    "US2004182611A1",
    "US2007261857A1",
    "US2010059231A1",
    "US6644413B2",
    "US6920931B1",
    "US7143849B2",
    "US7337853B2",
    "US7681649B2",
    "US7992634B2",
    "US7997333B2",
    "US8082997B2",
    "US8096540B2",
    "WO2005003504A2",
    "WO2012121934A2"
  ]
}

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