CN101375015B - Wellbore operation method - Google Patents
Wellbore operation method Download PDFInfo
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- CN101375015B CN101375015B CN200680051736.5A CN200680051736A CN101375015B CN 101375015 B CN101375015 B CN 101375015B CN 200680051736 A CN200680051736 A CN 200680051736A CN 101375015 B CN101375015 B CN 101375015B
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Classifications
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- E—FIXED CONSTRUCTIONS
- E21—EARTH OR ROCK DRILLING; MINING
- E21B—EARTH OR ROCK DRILLING; OBTAINING OIL, GAS, WATER, SOLUBLE OR MELTABLE MATERIALS OR A SLURRY OF MINERALS FROM WELLS
- E21B33/00—Sealing or packing boreholes or wells
- E21B33/10—Sealing or packing boreholes or wells in the borehole
- E21B33/12—Packers; Plugs
-
- E—FIXED CONSTRUCTIONS
- E21—EARTH OR ROCK DRILLING; MINING
- E21B—EARTH OR ROCK DRILLING; OBTAINING OIL, GAS, WATER, SOLUBLE OR MELTABLE MATERIALS OR A SLURRY OF MINERALS FROM WELLS
- E21B43/00—Methods or apparatus for obtaining oil, gas, water, soluble or meltable materials or a slurry of minerals from wells
- E21B43/02—Subsoil filtering
- E21B43/04—Gravelling of wells
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- Life Sciences & Earth Sciences (AREA)
- Engineering & Computer Science (AREA)
- Geology (AREA)
- Mining & Mineral Resources (AREA)
- Physics & Mathematics (AREA)
- Environmental & Geological Engineering (AREA)
- Fluid Mechanics (AREA)
- General Life Sciences & Earth Sciences (AREA)
- Geochemistry & Mineralogy (AREA)
- Consolidation Of Soil By Introduction Of Solidifying Substances Into Soil (AREA)
- Production Of Liquid Hydrocarbon Mixture For Refining Petroleum (AREA)
- Investigation Of Foundation Soil And Reinforcement Of Foundation Soil By Compacting Or Drainage (AREA)
Abstract
A method, system and apparatus associated with the production of hydrocarbons are disclosed. One method includes disposing a plurality of sand control devices having primary flow tubes and secondary flow tubes shunt tubes, gravels packer and treatment liquid injected into the well in different intervals, while fluid connections exist among the flow tubes; then, hydrocarbons are produced from the wellbore by passing hydrocarbons through the sand control devices with the different intervals providing zonal isolation.
Description
The rights and interests that are numbered 60/775,434 U.S. Provisional Application that the application requires the rights and interests that are numbered 60/765,023 U.S. Provisional Application submitted on February 3rd, 2006 and submits on February 22nd, 2006.
The present invention relates generally to for well bore (pit shaft) and equipment and the method relevant to the nytron the production of material.The present invention particularly but do not relate to uniquely for the interlayer in well and separate well bore equipment and the method that (zonal isolation) provides gravel to fill.
This part intention is introduced the various aspects of the art, and these aspects may be relevant with the exemplary embodiment of present technique.Believe that this discussion helps to provide a framework to promote the better understanding to the concrete aspect of present technique.Therefore, it should be understood that this part should read from this angle, and needn't be as the explanation to prior art.
The production of hydrocarbon (as gentle in oil) has been carried out a lot of years.In order to produce these hydrocarbons, production system can be for special duty utilizes various devices in well, as sand screen and other instrument.Usually, these devices are placed into as in the well bore of completing by cased hole completion or barefoot completion method.In the cased hole completion method, casing string is placed in well bore and bores a hole from the casing string to the subsurface formations provides the flow channel that enters well bore for formation fluid (as hydrocarbon).Alternatively, in the barefoot completion method, what put into well bore is flow string and there is no casing string.Formation fluids is by the annulus between subsurface formations and flow string (or annular space), thus the inflow flow string.
Yet when producing hydrocarbon from subsurface formations, because the position of some subsurface formations, operation becomes and has more challenge.For example, some subsurface formations are arranged in the interval with high sand content of super deep water, exceed drill-well operation can and depth, be in the high pressure/high temperature oil reservoirs in the long intervals of high yield and remote location.Such a situation, the position of subsurface formations may throw into question, and as sand control failure, this can significantly increase the cost of single oil well.That is to say, for economic oil field development, the cost that enters subsurface formations can cause still less well by completion.For example, the sand control unsuccessfully can cause the top layer to produce sand, and underground equipment damages, and reduces the loss of well production and/or oil well.Therefore, the reliability of well and life-span become design consideration to avoid undesirable production loss and to costliness intervention or the well-repairing work of these wells.
Sand control installation or sand control device (sand control device) are to increase well reliability and the exemplary device in life-span for well.Sand control device is arranged on the down-hole of passing the stratum usually to keep solid matter and to allow to produce without the formation fluid greater than the solid matter of certain size.Usually, sand control device is used in well to control the generation of solid matter such as sand.This sand control device can also can be surrounded by filter screen in the slotted perforate of tool.For example, when when being arranged in the subsurface formations grown place layer fluid of deep water, because excavated and formation fluid withdraws from the down-hole pressure that causes and causes the bad or stratum reduction of stratum consolidation by well bore, so may produce solid matter together with formation fluid.
Yet under rugged environment day by day, because high pressure, burn into stop up, compacting/reasons such as precipitation, sand control device is more prone to damaged.Therefore, generally utilize sand control device by other method, fill or fluid treatment as gravel, to control from stratum output sand.
A kind of the most frequently used method for control sand is that gravel is filled.Gravel is filled well and is included in the sand control device placed around gravel that is connected to flow string or other particulate matter to strengthen sand filtration and stratum integrality.For example, in the barefoot completion method, gravel is filled and is usually placed between wellbore wall and the sand screen around the perforation central tube.And in the cased hole completion method, gravel is filled and is usually placed between the casing string and the sand screen around the perforation central tube with perforation.No matter what the type of completion is, formation fluid flows into flow string by at least two filters from subsurface formations: gravel is filled and sand control device.
Fill by gravel, the loss meeting that is not intended to of carrying liquid forms sand bridge in the interval of being filled by gravel.For example, in or the pay interval that tilts thick at, the bad distribution of gravel (be the incomplete filling of interval cause gravel the space in filling) can occur, the liquid premature loss being accompanied by from gravel mud to the stratum.This fluid loss can cause forming sand bridge in annulus before the gravel filling is completed.For tackling this problem, can be used to walk around sand bridge and even distribution gravel in interval as the instead of flow passage of isocon.For the more details of this instead of flow passage, see to be numbered 5,515 915,5,868,200,5,890,533,6,059,032,6,588,506,4,945,991,5,082,052,5,113,935,5,333,688 United States Patent (USP) and publication number are the international application of WO2004/094784; These materials are incorporated herein by reference.
Utilize the instead of flow passage to be highly profitable, but cause the design challenge of making flow string, as packer being connected to sand control device or other well tool.Packer prevents by around the flowing of the well bore of instead of flow passage, but allows flowing and allowing under many circumstances flowing by primary flow channel in addition in the instead of flow passage.
Fill although isocon helps to form gravel, this use of isocon may limit to interlayer, and the method that provides gravel to fill is provided.For example, in the barefoot completion method, be impossible because form up and down complete gravel filling at packer, so packer is not mounted when utilizing gravel to fill.When not having gravel to fill, variety of issue can occur.For example, if interval in the stratum produces water, the decomposition of the material that this stratum just may keep together due to the drag force that increases and/or sand grains is caved in or was lost efficacy.Equally, because water is heavier and it is moved and transport the larger pressure of consumption from well than hydrocarbon, usually reduce output so produce water.That is to say, the water of output is more, and the pressure that can be used for transporting hydrocarbon (as oil) is less.In addition, if water be corrosive and process inappropriately, can cause serious device damage.At last, because water must suitably be disposed, so the output of water has increased processing, operation and cost of disposal.
This product water may also appear in such well, and described well has a plurality of different well completion intervals, and wherein formation strength changes to another interval from an interval.Because the estimation of formation strength is complicated, so beginning the ability of time of occurrence, prediction water is limited.Oil reservoirs are mixed to reduce investment risk and maximum economic benefit under many circumstances.The oil well that particularly has different intervals and marginal reserves may be mixed to reduce economic risk.One of risk in these configurations is: the gas in any one interval and/or water breakthrough threaten the remaining reserves in other interval of completion.Therefore, for the well that gravel is filled, the total system reliability of well completion has great uncertainty.
Therefore, for example need to be provided at the method and apparatus that the interlayer in the gravel filling is separated in the barefoot completion method.Equally, need to provide for sand control device well completion equipment and the method for instead of flow passage, the packer of described sand control device such as sand screen and the different intervals of the filling of gravel in well.
other associated materials can find in following file at least: United States Patent (USP) 5,588, No. 487, United States Patent (USP) 5,934, No. 376, United States Patent (USP) 6,227, No. 303, United States Patent (USP) 6,298, No. 916, United States Patent (USP) 6,464, No. 261, United States Patent (USP) 6,516, No. 882, United States Patent (USP) 6,588, No. 506, United States Patent (USP) 6,749, No. 023, United States Patent (USP) 6,752, No. 207, United States Patent (USP) 6,789, No. 624, United States Patent (USP) 6,814, No. 239, United States Patent (USP) 6,817, No. 410, open No. WO2004/094769 of international application, No. 2004/0003922, U.S. Patent Application Publication, No. 2005/0284643, U.S. Patent Application Publication, the people's such as No. 2005/0205269, U.S. Patent Application Publication and G.Hurst (Hirst) Alternate Path Completions:A Critical Review and Lessons Learned From Case Histories With Recommended Practices for Deepwater Applications finds in SPE (Petroleum Engineer association) reference number of a document 86532-MS.
In one embodiment, the method relevant with the well operation described.This method comprises provides two sand control devices that are arranged in the well bore that closes on underground reservoir, and each sand control device has the primary flow channel by this sand control device inside, and each sand control device has secondary flow channels; Connect packer between described two sand control devices, wherein packer comprises the secondary flow channels that is configured to the primary flow channel that is communicated with the primary flow channel fluid of two sand control devices and is configured to be communicated with the secondary flow channels fluid of two sand control devices by described packer inside; And set described packer in well bore.Then, in interior two the sand control devices of the first interval of gravel filling packer top underground reservoir; And gravel is filled in the second interval of packer below underground reservoir another in two sand control equipment, and by through the secondary flow channels of sand control device and the secondary flow channels transmitting fluid of packer, fluid is injected at least one interval of the first interval and the second interval.
Summary of the invention
In another embodiment, the method relevant with the well operation described.This method comprises provides two sand control devices that are arranged in the well bore that closes on underground reservoir, and each sand control device has the primary flow channel by this sand control device inside, and each sand control device has secondary flow channels; Connect packer between described two sand control devices, wherein packer comprises the primary flow channel that is communicated with the primary flow channel fluid of two sand control devices of being configured to by described packer inside, and is configured to the secondary flow channels that is communicated with the secondary flow channels fluid of two sand control devices; Set packer in well bore; And by through the secondary flow channels of sand control device and the secondary flow channels transmitting fluid of packer, fluid is injected at least one interval of the first interval and the second interval.
The accompanying drawing of the unrestricted example by reading following detailed description and embodiment, other advantage of the described content of preamble and present technique can become obvious.
Description of drawings
Fig. 1 is the exemplary production system according to some aspect of the present invention.
Fig. 2 A-2B is the exemplary embodiment for the traditional sand control device in well bore.
Fig. 3 A-3D is the exemplary embodiment according to the packer of the independent isocon of use that is used for Fig. 1 production system of present technique some aspect.
Fig. 4 A-4D is according to the packer that is used for Fig. 1 production system of present technique some aspect and the exemplary embodiment of configuration.
Fig. 5 A-5C is the exemplary embodiment according to two or more packers that are used for Fig. 1 production system of present technique some aspect.
Fig. 6 is according to the exemplary process diagram of packer in Fig. 1 of some aspect of present technique together with the use of sand control device.
Fig. 7 is the exemplary process diagram according to the installation of packer, sand control device and chad filling in Fig. 6 of some aspect of present technique.
Fig. 8 A-8N is the exemplary embodiment according to the installation process of packer, sand control device and gravel filling in Fig. 7 of some aspect of present technique.
Fig. 9 A-9D is the exemplary embodiment of separating according to the interlayer that passes through above to describe packer and provide of present technique some aspect.
Figure 10 A-10B is the exemplary embodiment of filling according to the dissimilar gravel of some aspect use of present technique, and wherein interlayer is separated provides by above-described packer.
Figure 11 A-11C is the dissimilar exemplary embodiment that flows of separating according to the interlayer that flowing through of present technique some aspect provides by above-described packer.
In detailed description part hereinafter, the specific embodiment of present technique is described in conjunction with the preferred embodiments.Yet, to say on the meaning of description hereinafter specific to the specific use of specific embodiment or present technique, this paper intention is only for illustrative purpose and description to exemplary embodiment only is provided.Therefore, the invention is not restricted to specific embodiment described below, but comprise whole replacements, modification and the equivalent that is in claims true spirit and scope.
The specific embodiment
Present technique comprises one or more than a packer, described packer can be used for completion, production or injected system with strengthen well operations (for example gravel is filled, and/or improve the output of the hydrocarbon that comes artesian well and/or the liquid that enhancing enters well/or the injection of gas).According to present technique, can be used to provide interlayer packing between in well, gravel is filled with the packer of replaceable channel mechanism.In addition, well equipment is described as be in the fluid flowing passage that is provided for the replaceable channel technology in packer, and it can be used for barefoot completion or cased hole completion.These packers can comprise providing by packer and arrive the independent jumper pipe of fluid circulation of isocon of sand control device or shared manifold or manifold district.Equally, present technique can be used for the well completion, and the control of flowing, production of hydrocarbons and/or fluid inject.
Turn to now accompanying drawing, and at first with reference to figure 1, Fig. 1 illustrates the exemplary production system 100 according to some aspect of the present invention.In exemplary production system 100, a unsteady production facility 102 is connected to the subsea tree 104 that is positioned on sea bed 106.By this subsea tree 104, the production facility 102 that floats enters into one or more than a subsurface formations, as subsurface formations 107, it can comprise a plurality of pay intervals or the regional 108a-108n with hydrocarbon as gentle in oil, and wherein n is any integer.Useful is, can be used to improve nytron the production of material from pay interval 108a-108n as the device of sand control device 138a-138n.Yet, it should be noted, production system 100 be that the purpose for example is illustrated and present technique under any sea, platform or place, land produce or inject fluid is useful.
The production facility 102 that floats can be configured to monitor and produce hydrocarbon from the pay interval 108a-108n of subsurface formations 107.The production facility 102 that floats can be drillship, and the fluid (as hydrocarbon) that this drillship can be managed from submarine well is produced.These fluids can be stored on the production facility 102 that floats and/or offer the oil tanker (not shown).For entering pay interval 108a-108n, the production facility 102 that floats is connected to subsea tree 104 and control valve 110 by control umbilical 112.Control umbilical 112 can comprise for hydrocarbon is provided to the production pipeline of the production facility 102 that floats from subsea tree 104, be used for the control pipeline of waterpower or electric installation and the control cables of communicating by letter with other device in well bore 114.
For entering pay interval 108a-108n, well bore 114 penetrates sea bed 106 and arrives certain depth, and the described degree of depth touches the pay interval 108a-108n at well bore 114 interior different depths.As can be appreciated, pay interval 108a-108n (can be called as pay interval 108) can comprise various lithospheres or section, and these lithospheres or section may comprise or not comprise hydrocarbon and can be called as the zone.The subsea tree 104 that is placed on well bore 114 tops on sea bed 106 provides the interface between the interior device of well bore 114 and unsteady production facility 102.Therefore, subsea tree 104 can be connected to flow string 128 so that fluid flowing passage and the control cables (not shown) that is used to provide communication path to be provided, and it is in subsea tree 104 places touch controls umbilical 112.
In well bore 114, production system 100 can comprise that also different equipment provides entering pay interval 108a-108n.For example, can be from sea bed 106 to sea bed the position of 106 times certain depth surface pipe post 124 is installed.In surface pipe post 124, centre or production casing post 126 can be used for providing support for the wall of well bore 114, and production casing post 126 can extend downwardly near the degree of depth pay interval 108.Top layer and production casing post 124 and 126 can be glued to permanent position in well bore 114 further to stablize well bore 114.In top layer and production casing post 124 and 126, flow string 128 can be used to hydrocarbon and other fluid that flow channel by well bore 114 is provided.Along this flow channel, if safety valve 132 top fracture or breaking-ups in top layer can stop Fluid Flow in A from flow string 128 with top layer safety valve 132.In addition, can control particle together with gravel is filled 140a-140n with sand control device 138a-138n and flow into flow string 128.Sand control device 138a-138n can comprise fluting bushing pipe, independent screen cloth (SAS), pre-filled screen cloth, wrapping wire screen cloth, diaphragm screen net, expansible screen cloth and/or silk screen screen cloth; And gravel filling 140a-140n can comprise gravel or other suitable solid material.
Except above equipment, packer 134a-134n can be used for the mutual packing in the specific region in annulus in well bore.Packer 134a-134n, be called as packer 134 at this paper, can be configured to provide the fluid communication channels between sand control device 138a-138n in different interval 108a-108n, prevent that simultaneously fluid from flowing into one or more other zones, as the well bore annulus.Fluid communication channels can comprise public manifold district or by the separate connection between the isocon of packer.The device that in any case, can utilize packer 134 that the interlayer packing is provided and be used for providing gravel substantially completely to fill in each interval 108a-108n.Be the purpose of example, be further described in the various embodiment that packer 134 is herein also described in Fig. 3 A-3D, 4A-4D and 5A-5C below.
Fig. 2 A-2B is the partial view of traditional sand control device embodiment of being bonded together in well bore.Each sand control device 200a and 200b can comprise be filtered medium or sand screen 204 around tubular part or central tube 202.Can utilize rib 206 to keep to comprise the sand screen 204 of many line joints and the specific range of central tube 202.Isocon 208a and 208b can be generically and collectively referred to as isocon 208, and it can comprise packing pipe 208a or transfer tube 208b and fill for the gravel in well bore and also can use together with sand screen 204.Packing pipe 208a can have one or more valves or spout 212, and it is to comprise that the gravel filling mud that carries liquid and gravel is provided to the flow channel of the annulus that forms between sand screen 204 and wellbore wall.Valve can prevent that crossing at least one jumper pipe from the flow of separating interval enters another interval.For another phantom drawing of sand control device 200a partial view, Fig. 2 B has shown along the cross-sectional view of a plurality of assemblies of line segment AA.It should be noted: except being numbered 4,945,991 and 5,113, outside Fig. 2 A and the external shunt pipe shown in 2B that describes in 935 United States Patent (USP), also can use 5,515,915 and 6,227, the interior isocon of describing in No. 303 United States Patent (USP)s.
Although this sand control device is useful for some well, it can not separate the different intervals in well bore.As indicated above, the problem of water/gas output can comprise production loss, device damage and/or increase processing, reply and cost of disposal.Can be the well that changes for having a plurality of different well completion intervals and interval to the formation strength between interval, these problems be further mixed in together.In this case, the water in any one interval or gas are broken through the remaining reserves that may threaten in well.Therefore, separate for interlayer is provided in well bore 114, provide the instead of flow passage packer various embodiment below Fig. 3 A-3D, 4A-4D and 5A-5C in be discussed.
Fig. 3 A-3D is the exemplary embodiment with packer of independent jumper pipe, and it can be used for according to some aspect of present technique the production system 100 of Fig. 1.Therefore, Fig. 3 A-3D can obtain best understanding by seeing simultaneously Fig. 1 and 2A-2B.In these embodiments, can be that packer 300 and independent jumper pipe or isocon 318 one of in packer 134a-134n is used to offer different separation interval 108a-108n in well bore 114 carrying liquid together with gravel together.
In Fig. 3 A, packer 300 comprises the various assemblies for the separation interval, and described interval can be the interval 108a-108n in well 114.For example, packer 300 comprises main part 302, expansion member 304, neck portion 306, notch part 310 and transmission or jumper pipe 318.Main part 302 can be by steel or steel alloy manufacturing, and main part 302 is configured to specific length 316, as about 14,38 or 40 feet (ft) (common joint is approximately between 10ft and 50ft) and have specific internal diameter and external diameter.Expansion member 304 can be described length 316 or shorter.Jumper pipe 318 can be the blank parts with pipeline of length 316 (some embodiment may have the length that substantially equals expansion member 304 length), and is configured to be connected to the isocon 208 on sand control device 200a and 200b and seals with its formation.Jumper pipe 318 also can be included in the valve 320 in jumper pipe 318, to prevent that crossing jumper pipe 318 from the flow of separating interval enters another interval.Packer component or expansion member 304 can be around main part 302 with jumper pipe 318 and can be hydraulically powered inflatable element (elasticity or thermoplastic) or the expanded rubber element that contacts jumper pipe 318.The expanded rubber element can be in the situation that exist hydrocarbon, water or other excimers to expand.
For example, the expanded rubber element can be placed in well and allow to expand into before production of hydrocarbons or in manufacturing process the wall that contacts well bore.Also may use swellable packer, it is expanded after water begins to enter well bore and contacts packer.The example of operable expandable material can be at the CONSTRICTOR of Easy Well Solutions
TMOr SWELLPACKER
TME-ZIP with SwellFix
TMIn find.Swellable packer can comprise expandable polymer or expandable polymer material, and this is well known in the art and can arranges by in the drilling fluid through regulating, completion fluid, production liquid, injection liquid, stimulation fluids or its any combination.
In addition, packer 300 can comprise neck portion 306 and notch part 310.Neck portion 306 and notch part 310 can be configured to specific length 314 by steel or steel alloy manufacturing and each part, as 4 inches (in) to 4 feet (ft) (or other suitable length), and have specific internal diameter and external diameter.Neck portion 306 can have external screw thread 308 and notch part 310 can have internal thread 312.These screw threads 308 and 312 can be used to form the sealing between packer 300 and sand control device or another pipeline section, as shown in following Fig. 3 B-3D.
As shown in Fig. 3 B, can revise the structure of packer 300 for the external shunt pipe, as shown in Figure 3 C, can revise this structure for interior isocon equally.In Fig. 3 C, sand control device 350a and 350b can comprise the interior isocon 352 that is arranged between central tube 354a and 354b and filter medium or sand screen 356a and 356b, and described filter medium or sand screen 356a are similar with 200b to sand control device 200a with 356b.In Fig. 3 B and 3C, the neck portion 306 of packer 300 and notch part 310 connect with the part separately of sand control device 200a, 200b, 350a and 350b.These parts can be threaded with formation by engage threads 308 and 312 and be coupled to together.In addition, jumper pipe 318 can independently be attached to isocon 208.Because jumper pipe 318 is configured to pass expansion member 304, jumper pipe 318 is the continuous-flow passage that isocon 208 forms by packer 300.Fig. 3 D has shown another partial perspective view of packer 300---the sectional drawing of the packer 300 of section BB along the line.
Fig. 4 A-4D is that manifold also can be used for the production system 100 of Fig. 1 according to the exemplary embodiment of the packer that uses together with manifold or house steward of some aspect of present technique.Therefore, simultaneously can best understanding Fig. 4 A-4D referring to Fig. 1 and 2.In these embodiments, can be that packer 400 one of in packer 134a-134n makes together with manifold or opening 420 and is used to provide fluid flowing passage or the communication channel between a plurality of isocons on sand control device.The manifold 420 that also can be called as the connection of manifold district or manifold can be used for engaging the outer or interior isocon of different geometrical configurations, and does not worry to appear at the aligning in other structure.
In Fig. 4 A, can be that the packer 400 of one of packer 134a-134n comprises for the various assemblies of separating interval in well.For example, packer 400 comprises main part 402, packer component or expansion member 404, neck portion 406, notch part 410, support component or supporting section 422 and the sleeve part 418 that produces opening or manifold 420.Main part 402 and sleeve part 418 can and be configured to specific length 416 by steel or steel alloy manufacturing, as between 6 inches to 50 feet, describe as mentioned, and more preferably 14,38 or 40 feet, and have specific internal diameter and external diameter.Sleeve part 418 also can be configured to be connected to isocon and seal with its formation, and described isocon is as being the isocon 208 on sand control device 200a and 200b.Supporting section 422 be used for forming opening 420 and be placed on main part 402 and sleeve part 418 between to support expansion member 404 and sleeve part 418.Expansion member 404 can be similar to expansion member 304.For example, expansion member can be inflation, expand maybe may push wellbore wall or casing string.That is to say, expansion member 404 can comprise for example inflatable element, cup-shaped packer, hydraulic pressure, hydrostatic or mechanical drive element, element and the expandable material set by radio frequency identification.Expandable material or expanded polymeric material are in the situation that exist oil, water and at least a of their any combination to expand.Equally, expansion member 404 can be set by drilling fluid, production liquid, completion fluid, injection liquid, stimulation fluids and its any combination.
In addition, packer 400 can comprise neck portion 406 and notch part 410.Neck portion 406 and notch part 410 can be configured to specific length 414 by steel and steel alloy manufacturing and each part, and described length is similar to length 314 discussed above, and has specific internal diameter and external diameter.Neck portion 406 can have external screw thread 408 and notch part 410 can have internal thread 412.These screw threads 408 and 412 can be used for forming sealing between packer 400 and sand control device or other pipeline section, as shown in following Fig. 4 B-4D.It should be noted equally: the coupling mechanism that is used for these packers and sand control device can comprise sealing mechanism, as being numbered 6,464,261 United States Patent (USP), the international patent application that is numbered WO2004/094769, the international patent application that is numbered WO2005/031105, publication number are that 2004/0140089 U.S. Patent application, publication number are that 2005/0028977 U.S. Patent application, publication number are that 2005/0061501 U.S. Patent application and publication number are the sealing mechanism described in 2008/0082060 U.S. Patent application.
Fig. 4 B and Fig. 4 C show respectively the structure for the packer 400 of interior isocon and external shunt pipe.In Fig. 4 B and 4C, the part separately of the neck portion 406 of packer 400 and notch part 410 and sand control device 200a, 200b, 350a and 350b connects.These parts can be threaded or be coupled to together by the above-described sealing mechanism of reference with formation by engage threads 408 and 412.In any case, opening 420 provides the free fluid flow channel between isocon 208 and 352 in sand control device 200a, 200b, 350a and the 350b that is attached to packer 400.It is substantially not limited spaces that opening 420 is configured to by expansion member 404 and opening 420.Because fluid mixes, it may comprise various forms, so aim at not necessarily in this structure.Sand control device is connected to packer by the manifold joint.From flowing to into the sealing area above joint of isocon in sand control device, be switched to packer flow channel or opening 420 at joint stream.Fig. 4 D has shown another fragmentary, perspective view of packer 400---the sectional drawing of the various assemblies of section CC along the line.
Fig. 5 A-5C is the exemplary embodiment according to two or more packers of the production system 100 that is used for Fig. 1 of present technique many aspects.Therefore, simultaneously can best understanding Fig. 5 A-5C referring to Fig. 1,2,3A-3D and 4A-4D.In these embodiments, two packers 502 and 504 can mean and be cased hole packer and open hole well packer one of in packer 134a-134n, and these two packers are used for separating different interval 108a-108n together from bushing pipe 508 in well bore.
In Fig. 5 A, the first packer 502 and the second packer 504 can with the interval that uses to separate in well together with the tubular barrier of bushing pipe 508.The first packer 502 can be arranged in around bushing pipe 508 and can comprise as packer 300, packer 400, E-ZIP
TM, CONSTRICTOR
TMOne of or in any suitable open hole well packer well known to those skilled in the art.Depend on specific embodiment, the second packer 504 can centre pipe 506 and bushing pipe 508 between and can comprise as packer 300, packer 400, MZPACKER
TMOne of or any suitable cased hole packer well known to those skilled in the art.The type of the packer that uses can be depending on the position (for example between pay interval 108a and 108b or the upstream of interval 108a) of packer and the supply of instead of flow passage.That is to say, one in packer 300 or 400 can be used together with being used for the conventional packer of other specific embodiment.Bushing pipe 508 can be the prebored hole bushing pipe, and it can comprise opening, perforation and design groove, and it is used for providing stability for wellbore wall 510.The first packer 502 is separated the annulus that forms between wellbore wall 510 and bushing pipe 508, and the second packer 504 is separated the annulus that forms between bushing pipe 508 and sand screen 200a and 200b.Therefore, packer 502 and 504 and the use of bushing pipe 508 can provide the interlayer in well to separate.
Fig. 5 B and 5C show another phantom drawing of packer 502 and 504---the packer 502 of section DD along the line and 504 sectional drawing.In Fig. 5 B, the first packer 502 can be traditional open hole well packer, as CONSTRICTOR
TM, it forms the sealing between wellbore wall and bushing pipe, and the second packer 504 can be packer 300.Therefore, in this embodiment, jumper pipe 512 can be used for engaging the isocon 208 of sand control device 200a-200b.Alternatively, in Fig. 5 C, the first packer 502 may be again outside packer, and the second packer 504 can be packer 400.Therefore, in this embodiment, sleeve part 516 and supporting section 514 can be used to form opening 518, and its isocon 208 for sand control device 200a-200b provides fluid flowing passage.The installation of these packers and use are further discussed hereinafter.
Fig. 6 is the exemplary process diagram according to the sand control device of the one or more packers of the use of present technique many aspects and Fig. 1.Simultaneously with reference to Fig. 1,3A-3D, 4A-4D and 5A-5C can best understanding with this flow charts of reference number 600 representatives.In this flow chart 600, having described by filling with gravel provides interlayer to separate to improve the process of producing the output of hydrocarbon from well bore 114.That is to say, present technique provides the interior interlayer separation of well that comprises that gravel is filled.Therefore, the packer that uses together with gravel is filled provides interlayer to separate, and this can improve the nytron the production of material from the pay interval 108 of subsurface formations 107.
Flow chart is in piece 602 beginnings.At piece 604, well can be drilled.Well can be drilled into the certain depth position of the various pay intervals 108 that pass subsurface formations 107.The probing of well can comprise the typical technology for different oil fields.Then, one or can be arranged in well more than a packer and sand control device, as shown in piece 606.Packer and the sand control device that can comprise packer embodiment in Fig. 3 A-3D, 4A-4D and 5A-5C can be installed with various technology.For the embodiment in Fig. 5 A-5C, this is installed also can comprise installation prebored hole bushing pipe.At piece 608, gravel is filled and can be installed in well bore.Packer, sand control device and gravel are filled is arranged on following Fig. 7 and 8A-8N is further discussed.
As discussing in piece 610-640, by being installed, packer, sand control device and gravel fill, and well can be operated.In piece 610, hydrocarbon as gentle in oil can be produced from well.As shown in piece 612, at production period, the operation of well can be monitored.The supervision of well can comprise general supervision, as monitoring moisture content or other similar technique of well.And supervision can comprise the sensor of determining the gas level of existence in well bore.At piece 614, determine the increase that aquatic products goes out.This determines to comprise comparison moisture content and predetermined threshold, or from the indication of monitor in well bore, and namely the water yield of output is increasing or surpassing specific threshold.Do not increase if produce water, in piece 612, the supervision of well can continue.
Yet, as shown in piece 616, increasing if produce water, the water yield formation section can be verified.For example, the check of water yield formation section can comprise from the one or more sensor acquired informations related with interval or by cotton rope production logging instrument (PLT) is put in well ad-hoc location to confirm the water yield formation section.Then as shown in piece 618, determine whether well production is completed.As shown in piece 620, if well production is not completed, the water yield formation section is separated so.The separation of water yield formation section can comprise the different technologies based on the water yield formation fragment position.For example, if the water yield formation section is positioned at well bore toe (be well bore inclined shaft part end), as interval 108n, can put into well bore 114 to a stopper and a position before sand control device 138n is set by cable.This stopper and packer 134n-1 separate pay interval 138n and produce pipe 128 in order to avoid output water enters.In addition, if the water yield formation section is positioned at well bore heel (being the beginning of well bore inclined shaft part), as interval 108a, just can puts into well bore 114 to a straddle type external member and cross over the water yield formation section and install.This straddle type external member and packer 134a and 134b separate pay interval 138a and produce pipe 128 in order to avoid output water enters.In any case if well production is completed, process can finish at piece 622 so.
Useful is, uses packer that the flexibility that various intervals and undesired gas or aquatic products are gone out to isolate is provided in gravel is filled together with sand control device, and still can prevent the output of sand.Isolation also allows inflow control device (as the RESFLOW of Reslink
TMEQUALIZER with Baker
TM) make control for each interval provides pressure.It also provides the flexibility that flow control device (as choke valve) is installed, and this can regulate flowing between the interval that output or permeability change.In addition, individual interval can be filled by gravel or can not needed gravel to fill.That is to say, gravel padding can be used to gravel and fill optionally interval, and other interval is not filled by gravel as the part of same process.Finally, each interval can fill to improve well production with carrying out gravel from the big or small gravels of the difference in other zones.Like this, can select for specific interval the size of gravel.
Fig. 7 fills the exemplary process diagram of installing according to packer, sand control device and gravel in Fig. 6 of present technique many aspects.Simultaneously referring to Fig. 1,3A-3D, 4A-4D, 5A-5C and 6 can best understanding with this flow charts of reference number 700 representatives.In this flow chart 700, described sand control device, packer and gravel are filled being installed to as the process in the well bore of well bore 114.
Flow chart is in piece 702 beginnings.Obtain the well data at piece 704.Can obtain the well data by catching open-hole logging and these open-hole loggings being offered the engineer.At piece 706, can confirm the position of packer.In order to confirm the position, the engineer can review and validate a plurality of parts of well bore to select the packer location.Then, as shown in piece 708, in the position of confirming, well bore can be cleaned.Cleaning can be carried out by cleaning external member, and cleaning external member can comprise, for example reamer, brush and soil scrapper.
As shown in piece 710, packer and sand control device can be placed to described position.In addition, packer can comprise various embodiment discussed above.Equally, for the embodiment in Fig. 5 A-5C, prebored hole bushing pipe and open hole well packer can be installed before packer and the installation of sand control device.As shown in piece 712, in case be in the target location, packer is set up.The excimer that can comprise as hydrocarbon that arranges of packer is introduced packer, expands and separate the specific part of well bore to impel packer.
Then, as shown in piece 714-720, can begin gravel padding.At piece 714, can instrument be set for gravel padding.These instruments can comprise crossover tool and be used for other device that liquid offers interval in well bore that carries with gravel.Carrying liquid can be the fluid of HEC (hydroxyethylcellulose) polymer multiviscosisty, the fluid of xanthan polymer multiviscosisty or the fluid of Surfactant Used in Viscoelastic Fracturing Fluids multiviscosisty.Equally, carry liquid and can be selected to have good rheological characteristic and be used for the sand carrying capacity that gravel is filled the well bore interval, described gravel is filled the sand control device that uses with the replaceable channel technology.Then, at piece 716, interval is filled by gravel.Lower level section (for example toe interval or identification are used for the interval that selective gravel is filled) can be filled by gravel by using isocon.And the order that gravel is filled can be from the heel of well bore to toe or is carried out with any particular order based on other device of isocon or use.As shown in piece 718, fill 140a-140n in case form gravel, wellbore fluid can be cleaned and replace with completion fluid.At piece 720, produce that pipe 128 can be mounted and well begins to carry out operation.Process finishes at piece 722.
As specific examples, the exemplary embodiment of the installation process that Fig. 8 A-8N illustration packer, sand control device and gravel are filled.Simultaneously can understand best these embodiment referring to Fig. 1,2A-2B, 3A-3D, 4A-4D and 7, these embodiment comprise installation process, installation process is put into the drilling mud through regulating as non-aqueous fluid (NAF) to sand control device and packer, wherein packer can be packer 300 or 400, and the drilling mud through regulating can be the water-based fluid that contains the oil based fluids of solid or contain solid.This two-fluid process can comprise and be numbered the technology of the similar process of discussing in the international patent application of WO2004/079145, and described application is incorporated herein by reference.Yet, it should be noted, this example is only the example purpose, because also can use other suitable processing and equipment.
In Fig. 8 A, sand control device 350a and 350b and packer 134b are placed into well bore, and wherein packer 134b can be a kind of in packer discussed above. Sand control device 350a and 350b can comprise the interior isocon 352 that is arranged between central tube 354a and 354b and sand screen 356a and 356b.These sand controls device 350a and 350b and packer 134b can be installed in the interior NAF 804 through regulating of wellbore wall 810.Particularly, packer 134b can be installed between pay interval 108a and 108b.In addition, crossover tool 802 and the packer 134a with cleaning hose 803 put down and is arranged on the interior drill pipe 806 of well bore 114.Crossover tool 802 and packer 134a can be arranged in production casing post 126.Before being placed into well bore, NAF 804 through regulating in well bore can regulate to reduce with the grid vibrating sieve (not shown) any potential obstruction of sand control device 350a and 350b.
In Fig. 8 B, packer 134a is arranged in the production casing post 126 of the interval 108a that will be filled by gravel and 108b top.Packer 134a is the well bore 114 parts sealings above interval 108a and 108b and packer 134a.As shown in Fig. 8 C, after packer 134a was set, crossover tool 802 was transformed into reverse position and carries liquid 812 and pumped into drill pipe 806 downwards and put into the production casing post 126 of packer 134a top and the annulus between drill pipe 806.Carry liquid 812 at the drilling fluid of arrow 814 indicated directions replacements through regulating, the drilling fluid through regulating can be oil based fluids, as the NAF 804 through regulating.
Then, in Fig. 8 D, crossover tool 802 is transformed in circulation position, and circulation position also can be called as circulation gravel filling position or gravel filling position.Then carry liquid 812 and pumped into annulus between production casing post 126 and drill pipe 806 downwards, NAF 804 through regulating is released sand screen 356a and 356b through cleaning hose 803, bore hole annulus between inswept sand screen 356a and 356b and wellbore wall 810, and enter drill pipe 806 by crossover tool 802.Carry the flow channel of liquid 812 by arrow 816 indications.
In Fig. 8 E-8G, fill for gravel and prepare interval.In Fig. 8 E, in case between sand screen 356a and 356b and wellbore wall 810 the bore hole annulus to be carried liquid 812 inswept, crossover tool 802 just is transformed into reverse position.As shown in arrow 818, the annulus that the NAF 804 through regulating is pumped into downwards between production casing post 126 and drill pipe 806 flows out drill pipe 806 to force the NAF 804 through regulating and to carry liquid 812.These fluids can be removed from drill pipe 806.Then as shown in Fig. 8 F, packer 134b is set up.For example, can be that packer 134b a kind of in packer 300 or 400 can be used to separate the annulus that forms between wellbore wall 810 and sand screen 356a and 356b.As shown in Fig. 8 G, when still at backward position, with the annulus that liquid 812 can be placed into drill pipe 806 and be used for forcing formation between the NAF of adjusting 804 outflow packer 134a top drill pipes 806 and production casing post 126 that carries of gravel 820, as shown in arrow 822.
In Fig. 8 H-8J, crossover tool 802 can be switched in circulation position and fill the first interval 108a with gravel.In Fig. 8 H, produce gravel with carrying of gravel 820 in pay interval 108a above packer 134b in the annulus of liquid 812 beginning between wellbore wall 810 and sand screen 356a and fill.As shown in arrow 824, fluid flows out sand screen 356a and returns by cleaning hose 803.In Fig. 8 I, gravel is filled 140a and is begun to form around sand screen 356a and towards packer 134a above packer 134b.In Fig. 8 J, the gravel filling process continues, and fills 140a to form towards the gravel of packer 134a, covers until sand screen 356a is filled 140a by gravel.
In case gravel is filled 140a and formed in the first interval 108a, and the sand screen of packer 134b top covered by gravel, and the liquid 812 that carries with gravel 820 just is forced to by isocon and packer 134b so.In Fig. 8 K-8N, begin to produce the second gravel and fill 140b with the liquid 812 that carries of gravel 820.In Fig. 8 K, form second gravel in the pay interval 108b below packer 134b with carrying of gravel 820 in the annulus of liquid 812 beginnings between wellbore wall 810 and sand screen 356b and fill 140b.As arrow 826 indications, flow flows out sand screen 356b and returns by cleaning hose 803 through isocon and packer 134b.In Fig. 8 L, gravel is filled 140b and is begun under packer 134b, and forms around sand screen 356b.In Fig. 8 M, gravel is filled and is continued to pile up gravel filling 140b to packer 134b, covers until sand screen 356b is filled 140b by gravel.In Fig. 8 N, the annular space space that gravel is filled 140a and 140b is formed and surfacing pressure increases to indicate between sand screen 356a and 356b and wellbore wall 810 is filled by gravel.
The object lesson of packer 502 and 504 installation is described hereinafter.Before beginning, pay interval got into target depth and with the well back water with the cleaning well bore.Open-hole logging can be sent to the engineer and with the position that checks and identify in shale, the first packer 502 is set.The position of the first packer 502 can be crossed over the shale barrier layer and place, described shale barrier layer with the water of prediction/gas output layer of sand and for a long time the production of hydrocarbons interval separate.Then, the prebored hole bushing pipe 508 with the first packer 502 can be placed to target depth.Therefore, the first packer 502 can be separated the annulus between shale section and prebored hole bushing pipe 508.Then, sand control device and the second packer 504 can be placed to target depth.Annulus between the sand screen of the second packer 504 separation prebored hole bushing pipes 508 and sand control device.Then, can similarly carry out the gravel filling process with the discussion of Fig. 8 B-8N.
Fig. 9 A-9D is the exemplary embodiment of separating according to the interlayer that can provide by above-described packer of many aspects of the present invention.Therefore, can understand best these embodiment referring to Fig. 1,3A-3D, 4A-4D and 5A-5C simultaneously.In these embodiments, Fig. 9 A and 9B relate to process or the system that uses packer 300 or 400, and Fig. 9 C and 9D relate to process or the system that uses packer 502 and 504.
In Fig. 9 A-9B, sand control device 138a-138c and gravel are filled 140a-140c and are disposed in well bore 114 with packer 134a-134c, and described packer can be a kind of in packer discussed above. Sand control device 138a and 138b can comprise the interior isocon (not shown) that is arranged between central tube and sand screen, these sand control devices can be used to produce hydrocarbon from separately interval 108a and 108b, and the hydrocarbon of production can flow along flow channel 902 and 904.In Fig. 9 A, interval 108c is producing water along flow channel 904.Therefore, for separating this interval 108c, stopper 906 can be arranged on the position of packer 134c in central tube.This stopper 906 is separated the water yield formation section together with packer 134c and can be continued to produce other interval 108a and the 108b of hydrocarbon.Similarly, in Fig. 9 B, interval 108b is producing water.In order to separate interval 108b, straddle type external member 916 can be installed to separate water yield formation section 108b and to produce other interval 108a and the 108c of hydrocarbon along passage 912 between packer 134b and 134c.
In Fig. 9 C-9D, sand control device 138a-138c and gravel are filled 140a-140c and are disposed in in the bushing pipe 508 in the well bore 114 of packer 502a, b and 504a, b.Sand control device 138a and the 138b that can comprise interior isocon can be used for producing hydrocarbon from separately interval 108a and 108b, and the hydrocarbon of production can flow along flow channel 922.In Fig. 9 C, interval 108c is producing water along flow channel 924.Therefore, for separating this interval 108c, stopper 926 can be arranged on the position of the interior packer 502b of central tube and 504b.This stopper 926 is separated water yield formation section and other interval 108a and the 108b that can continue to produce hydrocarbon together with packer 502b and 504b.Similarly, in Fig. 9 D, interval 108b is producing water.Straddle type external member 928 can be installed to separate water yield formation section 108b and to produce other interval 108a and the 108c of hydrocarbon along passage 930 between packer 502a, b and 504a, b.
As the instantiation of isolation technique, can determine to produce the toe that water appears at the inclined shaft body.Measure to confirm to produce the water source and can determine this position by carrying out PLT.Then, can comprise that lock or the cotton rope of the slips profile shaft heart and balancing pole or coil pipe arrange plug and can be mounted to separate the water yield formation section.(cup-shaped packer for example is as MZ PACKER because packer
TM(Schlumberger); Inflatable packer is as E-ZIP
TM) in nipple profile (nippleprofile) (if comprising as the part of packer external member) be generally minimum in the completion post, so described stopper can be at non-selective mode operation.And it should be noted: if cotton rope is the work string type of selecting, tractor just can be used for surpassing the gradient of 65 degree.In case be set, cotton rope or coil pipe unit can be disassembled and resume production.
As another example, can determine that water is from the heel output of inclined shaft body.Equally, in this example, can confirm to produce the water source by carrying out the PLT measurement.Then, coil pipe can be assembled and the straddle type external member can be mounted to separate fully the water yield formation section.The straddle type external member can comprise the sealing stinger, stops locator (no-go locator), without coupling pipe and slips or lock shaft type hanger bracket.The straddle type external member can and be placed in wellhole to lay the stinger sealing of separating in packer near the coil pipe work string.Separate the water yield formation section and the hanger bracket whole external member of locking in position without coupling pipe.In case in place, the coil pipe unit is disassembled and resumes production.
In addition, by separate each interval with packer, provide and arranged gravel filling and the even different flexibility of gravel type in some intervals.For example, Figure 10 A-10B is the exemplary embodiment of filling according to the dissimilar gravel of the use of present technique many aspects, and wherein interlayer is separated provides by above-described packer.Therefore, can understand best these embodiment referring to Fig. 1,3A-3D, 4A-4D, 5A-5C and 9A-9D simultaneously.
In Figure 10 A-10B, sand control device 138a-138c is placed in well bore 114 with packer 134b and 134c.The sand control device 138a-138c that can comprise interior isocon can be used for producing hydrocarbon from interval 108a-108c separately.In Figure 10 A, the gravel that interval 108a and 108c are filled to form by interior isocon is filled 140a and 140c.Interior isocon in sand control device 138b can blocked and discord well bore 114 fluids connections.As a result, because the separation that provides due to packer 134b and 134c, gravel does not enter interval 108b, does not fill 140b so form gravel in interval 108b.Even separation is arranged, hydrocarbon is also via sand control device 138a-138c output from interval 108a-108c.In this example, due to the STOL content in this interval, so filling 140b, gravel do not form in interval 108b, and this can reduce well yield.Perhaps, due to the STOL intensity in interval 108b, gravel is filled not necessarily.Similarly, in Figure 10 B, gravel filling 140b and 140c veer away by direct split flow pump with interior isocon and put.The fluid of the interior isocon in the sand control device 138a that does not have and may be blocked is communicated with.Gravel is installed above packer 134b with traditional gravel filling technique is filled 140a.The size that gravel is filled 140a cobblestone can be different from the size of gravel filling 140b and 140c cobblestone to strengthen the well performance.In this situation, this interlayer is separated provides gravel to fill the flexibility of the gravel type of placing in layout and well.
In addition, it should be noted that present technique also can be used for injection and the processing of well.For example, in well injection period, isocon with can be similar to the effect that well is produced by flowing of packer, but provide flowing of different directions.Therefore, packer can be configured to functionally maybe can be designed to be used as to inject and producing well operates for Injection Well provides concrete.Therefore, Figure 11 A-11C is the dissimilar mobile exemplary embodiment of separating according to the interlayer that passes through to be provided by above-described packer of present technique many aspects.Therefore, can understand best these embodiment referring to Fig. 1,3A-3D, 4A-4D, 5A-5C and 9A-9D simultaneously.
In Figure 11 A, interior isocon 1101 is communicated with interval 108b fluid thinks that interval 108b provides the injection fluid.Injecting fluid can be water, gas or hydrocarbon, and its direction that indicates with arrow 1103 is injected into interval 108b.The injection of these fluids can be by directly shunting pumping execution.Because packer 134b and 134c provide the separation in well bore 114, so the fluid that injects does not enter interval 108a and 108c.When injection interval 108b, hydrocarbon is produced by the perforation of the central tube in sand control device 138a and 138c 1102 in the direction of arrow 1104.As noted above, because sand control device 138b can block with the straddle type external member, so the injection fluid that forms can remain on interval 108b.
In Figure 11 B, interior isocon 1110 is communicated with to provide the processing fluid in interval 108b with interval 108b fluid.Process fluid and can be used for making the well volume increase, its direction that indicates with arrow 1112 is injected into interval 108b.Equally, process fluid and can offer interval 108b by direct shunting pumping.Separation in the well bore 114 that provides due to packer 134b and 134c, the injection fluid that arrow 1112 indicates does not enter interval 108a and 108c.In this example, after processing operation, hydrocarbon is produced by the perforation of the central tube in sand control device 138a-138c 1102.Therefore, from the secondary flow channels of sand control device flow and the mobile of primary flow channel from sand control device mixes.
An example of this treatment technology is removing of filter cake.In this example, interval 108b comprises filter cake and sand control device 138a-138c is arranged in well bore 114.It can be machinery and/or chemical and can complete before or after gravel padding that filter cake removes processing.More specifically, filter cake is processed fluid and is directly pumped into secondary flow channels, and this passage is used for filter cake is processed the layer of sand face (sand face) that fluid imports to interval 108b, indicates as arrow 1112.Processing can be by blowback or not blowback.The preferred embodiment of this treatment technology uses combination with the replaceable channel technology of the isocon 1110 of spout (not shown), and described spout is attached to isocon and extends the length of sand control filter screen 138b.Can complete machinery towards surface of stratum with the stirring filter cake from the processing of spout by guide and remove, this can comprise that two-forty pumping or equipment can comprise spout or the mechanical agitator of particular design.Chemistry removes the use that can comprise acid, solvent or other compound.
In Figure 11 C, interior isocon 1120 is communicated with interval 108b fluid thinks that well provides the dual completion method.Production liquid by arrow 1122 indications produces into isocon by the opening as hole or groove.In this example, produce the passage that liquid indicates along arrow 1104, by the perforation 1102 on the central tube of sand control device 138a and 138c, from interval 108a and 108c output.Sand control device 138b can be blocked or make the central tube perforation to block to prevent the fluid mixing from interval 108a-108c by the straddle type external member.As a result, because packer 134b and 134c separate different interval 108a-108c, so can separate output with fluid in 108c by interior isocon 1120 with interval 108a from the produced fluid of interval 108b.Equally, can control separately secondary flow channels on ground.
As the alternate embodiment of packer 400, different geometrical configurations can be used for support component 418 to form division, interval and blocking-up, and they control the Fluid Flow in A in packer 100.As noted above, under present technique, support component 418 is used for forming the opening 420 between sleeve member and central tube.These support components 418 can be configured to provide redundancy flow channel or the blocking-up (interlocking) in packer 400.For example, support component 418 can be configured to form the opening of two openings, three openings, any number, until reach the number of sand control device 138 upper shunt tubes, or more than the opening of sand control device 138 upper shunt tubes.Like this, sand control device 138 and packer 400 can be produced hydrocarbon with isocon, maybe can provide various fluids or passage by well bore 114 with these different isocons.Therefore, support component 418 can be used to form the passage with various geometries.
In addition, it should be noted, the isocon that is used for above embodiment can be the outer or interior isocon with various geometries.Restriction, the pressure loss in space and the holding capacity of breaking or collapsing are depended in the selection of isocon shape.For example, isocon can be circle, rectangle, trapezoidal, polygon or other shape that is used for different application.The example of isocon comprises Exxon Mobil (ExxonMobil)
With
In addition, be to be appreciated that present technique also can be used for the situation that has channeling or gas are broken through.For example, can monitor has channeling at the piece 614 of Fig. 6.If the has channeling of detecting can be separated at piece 620 aerogenesis intervals.By separating described gas in the technology of Fig. 9 A-9D description at least above using.
Although technology of the present invention is easy to carry out various modifications and alternative form, above-described exemplary embodiment is that the form with example illustrates.Yet, it should be understood that equally the present invention is not that intention is limited to specific embodiment disclosed herein.In fact, technology covering of the present invention whole modifications, equivalent and the alternative that belongs in spirit and scope of the invention as defined in claims.
Claims (25)
1. the method for an operating well, it comprises:
Provide to be arranged in two sand control devices in well bore, each described sand control device has the primary flow channel by this sand control device inside, and each described sand control device has secondary flow channels;
Be coupled packer between described two sand control devices, wherein said packer comprises the primary flow channel that is communicated with the described primary flow channel fluid of described two sand control devices of being configured to by described packer inside, and is configured to the secondary flow channels that is communicated with the described secondary flow channels fluid of described two sand control devices;
Set the described packer in described well bore, wherein said sand control device closes on underground reservoir; And
By through the described secondary flow channels of described sand control device and the described secondary flow channels transmitting fluid of described packer, described fluid is injected at least one interval of the first interval and the second interval.
2. method according to claim 1, it further comprises:
Gravel is filled in described two sand control devices in the first interval of the described underground reservoir in described packer top;
Gravel is filled in the another one in described two sand control devices in the second interval of the described underground reservoir in described packer below.
3. method according to claim 1, the described secondary flow channels of wherein said packer comprise with lower one or more: at least one jumper pipe, manifold district and its combination.
4. method according to claim 1, wherein said packer are isolated in flowing in the bore hole annular space.
5. in method according to claim 1, wherein said the first interval, the described secondary flow channels of described sand control device is communicated with described wellbore fluid and the described primary flow channel of described sand control device separates with described wellbore fluid.
6. in method according to claim 1, wherein said the first interval the described secondary flow channels of described sand control device separate with described wellbore fluid and in described the first interval the described primary flow channel of described sand control device be communicated with described wellbore fluid by filter medium.
7. method according to claim 1, the described secondary flow channels of wherein said two sand control devices comprises at least one isocon.
8. method according to claim 7, wherein said at least one isocon comprises the perforate that is communicated with for described wellbore fluid.
9. method according to claim 7, wherein said at least one isocon comprises the design groove that is communicated with for described wellbore fluid.
10. method according to claim 1 is wherein controlled separately with the sea drilling platform that is flowing in from the primary flow channel of described two sand control devices from flowing of the secondary flow channels of described two sand control devices.
11. method according to claim 1, wherein from the described secondary flow channels of described two sand control devices flow and the mobile of described primary flow channel from described two sand control devices mix.
12. method according to claim 1 also comprises by described secondary flow channels described fluid is injected described the first interval and produces hydrocarbon by the described primary flow channel of described two sand control devices and described packer from described the second interval.
13. method according to claim 1 also comprises by described secondary flow channels described fluid is injected described the first interval and produces hydrocarbon by the described primary flow channel of described two sand control devices and described packer from described the first interval and described the second interval.
14. method according to claim 1, wherein said fluid comprise the treatment fluid that promotes from the nytron the production of material of described well bore.
15. method according to claim 14, wherein said treatment fluid comprises pickling agent.
16. method according to claim 1, it also comprises the processing filter cake.
17. method according to claim 16 is wherein processed described filter cake and is comprised chemical treatment.
18. method according to claim 16, wherein process described filter cake and comprise and by described secondary flow channels, fluid is injected at least one interval of described the first interval and described the second interval, and wherein said fluid is communicated with described wellbore fluid by the interior a plurality of openings of described secondary flow channels.
19. method according to claim 16 is wherein processed described filter cake and is comprised mechanical treatment.
20. method according to claim 15, wherein said fluid is communicated with described well bore by a plurality of openings in described secondary flow channels.
21. method according to claim 20, wherein said a plurality of openings comprise the mouth of pipe.
22. method according to claim 1 comprises the operation that monitors described well.
23. method according to claim 22, the operation that wherein monitors described well comprise sensor receive from the data in described well with determine gas level, aquatic products goes out or any of its combination.
24. method according to claim 2, wherein inject the described secondary flow channels that fluid comprises by described sand control device and described packer fluid injected described first or an interval of described the second interval, and the described primary flow channel by described sand control device and described packer from described first or described the second interval another interval production hydrocarbon.
25. method according to claim 1, wherein inject the described secondary flow channels that fluid comprises by described sand control device and described packer fluid injected described first or an interval of described the second interval, and the described primary flow channel by described sand control device and described packer from described first or described the second interval another interval production hydrocarbon.
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US60/775,434 | 2006-02-22 | ||
PCT/US2006/047997 WO2007092083A2 (en) | 2006-02-03 | 2006-12-15 | Wellbore method and apparatus for completion, production and injection |
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US8985221B2 (en) * | 2007-12-10 | 2015-03-24 | Ngsip, Llc | System and method for production of reservoir fluids |
US7934555B2 (en) * | 2009-06-01 | 2011-05-03 | Baker Hughes Incorporated | Multiple zone isolation method |
WO2011062669A2 (en) * | 2009-11-20 | 2011-05-26 | Exxonmobil Upstream Research Company | Open-hole packer for alternate path gravel packing, and method for completing an open-hole wellbore |
CA2819368C (en) * | 2010-12-17 | 2018-11-06 | Exxonmobil Upstream Research Company | Crossover joint for connecting eccentric flow paths to concentric flow paths |
US9322248B2 (en) * | 2010-12-17 | 2016-04-26 | Exxonmobil Upstream Research Company | Wellbore apparatus and methods for multi-zone well completion, production and injection |
WO2013187878A1 (en) * | 2012-06-11 | 2013-12-19 | Halliburton Energy Services, Inc. | Shunt tube connection assembly and method |
CN104364463B (en) * | 2012-06-11 | 2018-12-14 | 哈利伯顿能源服务公司 | Isocon connection and allocation component and method |
CN107829704B (en) * | 2017-12-27 | 2024-05-17 | 成都百胜野牛科技有限公司 | Oil-gas well structure and oil-gas well production method |
CN116537751B (en) * | 2023-07-05 | 2023-09-08 | 黑龙江省水利学校(黑龙江水利高级技工学校) | Gravel filling material conveying pipe for hydrogeological hole construction and construction method |
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US5909774A (en) * | 1997-09-22 | 1999-06-08 | Halliburton Energy Services, Inc. | Synthetic oil-water emulsion drill-in fluid cleanup methods |
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US5909774A (en) * | 1997-09-22 | 1999-06-08 | Halliburton Energy Services, Inc. | Synthetic oil-water emulsion drill-in fluid cleanup methods |
US6059032A (en) * | 1997-12-10 | 2000-05-09 | Mobil Oil Corporation | Method and apparatus for treating long formation intervals |
US6817410B2 (en) * | 2000-08-03 | 2004-11-16 | Schlumberger Technology Corporation | Intelligent well system and method |
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CN101365862B (en) | 2013-06-05 |
CN101365862A (en) | 2009-02-11 |
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