The present invention relates generally to the field of drilling apparatuses, such as oil drilling rig arrangements, and in particular to a lighting system for use on a drilling rig.
Drilling rigs are used to form wellbores for the purpose of extracting oil, natural gas or other fluids from subsurface deposits. Drilling rigs can also be used for sampling subsurface mineral deposits, testing rock or ground fluid properties and for installing subsurface utilities, instrumentations, tunnels or wells. In implementation, drilling rigs may be mobile equipment transportable by truck, rail, trailers, or similar, rigs may also be semi-permanent and permanent fixtures as in the case for oil drilling of large wells. Marine-based structures are also widely known. Generally, the term drilling rig refers to an arrangement of equipment that is used to penetrate the subsurface of the earth's crust.
Drilling operations typically occur during daylight hours and visibility in and around the drilling rig has historically only been required when manual work is being done, inspection and calibration, for example. There is a desire to increase productivity by providing visibility during hours of low daylight, and this has thus far been accomplished by providing mobile lighting arrangements on vehicles proximate the drilling rig, or otherwise manually adding or providing impromptu lighting arrangements.
These arrangements are inadequate and not readily adaptable to systematic visibility improvements in appropriate locations around a drilling rig.
A method of providing lighting to a drilling rig site is described herein including attaching at least one light fixture directly to the crown of a drilling rig on each of at least two sides of the crown, where the light fixture contains a fixed or removable light fixture attachment connecting the at least one light fixture to the crown, resulting in one or more of enhanced evenness of site lighting, reduced site shadows, reduced site light pollution, reduced site power consumption and/or reduced site diesel usage.
Additional embodiments described herein include: the method described above where the light fixture and light fixture attachment are a single piece; the method described above where the light fixture is fixed or adjustable; the method described above where the light fixtures are attached around the perimeter of the crown; the method described above where the light fixtures are attached to all sides of the crown; the method described above where more than one light fixture is attached to each side of the crown; the method described above where said each light fixture attachment holds one or more light fixture spaced vertically or horizontally from each other; the method described above where each lighting fixture can swivel and/or tilt; the method described above additionally including secondary containment; the method described above where the crown forms a generally rectangular shape; and the method described above where the lighting is provided to 180 degrees to 360 degrees around the drilling site.
A drilling rig is also described including a derrick or mast and crown, having a drilling site lighting system attached thereto, comprising at least one light fixture attached directly to the crown on each of at least two sides, wherein the light fixture contains a fixed or removable light fixture attachment connecting the light fixture to the crown, resulting in one or more of enhanced evenness of site lighting, reduced site shadows, reduced site light pollution, reduced site power consumption and/or reduced site diesel usage.
Additional embodiments described herein include: the drilling rig described above where the light fixture and light fixture attachment are a single piece; the drilling rig described above where the light fixture is fixed or adjustable; the drilling rig described above where the light fixtures are attached around the perimeter of the crown; the drilling rig described above where the light fixtures are attached to all sides of the crown; the drilling rig described above where more than one light fixture is attached to each side of the crown; the drilling rig described above where said each light fixture attachment holds more than one light fixture spaced vertically or horizontally from each other; the drilling rig described above where each lighting fixture can swivel and/or tilt; the drilling rig described above additionally including secondary containment; the drilling rig described above where the crown forms a generally rectangular shape; and the chilling rig described above where the lighting is provided to 180 degrees to 360 degrees around the drilling site.
These and additional embodiments are further described below.
Embodiments will now be described, by way of example only, with reference to the attached Figures, wherein:
An embodiment of a conventional drilling rig 40 with the light fixtures described herein is illustrated in
The drilling rig 40 further includes a rotary table 20 mounted in a rig floor 21, which is used to rotate the drillstring 25 along with a kelly drive 19. Kelly drive 19, attached at an upper end to the swivel 18 and at a lower end to the drillstring 25, is inserted through the rotary table 20 to rotate the drillstring 25 (drillstring rotation shown by arrow “R”). Kelly drive 19 may be square, hexagonal, or any other polygonal-shaped tubing and is able to move freely vertically while the rotary table 20 rotates it. Alternatively, drilling rig 30 may include a top drive (not shown) in place of kelly drive 19 and rotary table 20. Additionally, blowout preventers (“BOPs”) may be located below the rig floor 21 and installed atop a wellhead 27 to prevent fluids and gases from escaping from the wellbore. An annular BOP 23 and one or more ram BOPs 24 are shown and are commonly understood in the art.
During drilling operations, drilling fluid may be circulated through the system to carry cuttings away from the bottom of the wellbore as drilling progresses. Drilling fluid may be stored in mud tanks 1 before being drawn through suction line 3 by mud pumps 4. Drilling fluid (drilling fluid route is indicated by arrows “F”) is then pumped from mud pumps 4 through a hose 6, up a stand pipe 8, through a flexible hose 9, and down into the wellbore. Drilling fluid returning from the wellbore is routed through a flow line 28 to shakers 2, which are used to separate drill cuttings from the drilling fluid before it is pumped back down the wellbore.
The light fixtures described herein (29) are shown attached directly to the crown, in this instance visible on three sides. The light fixture (101 and 203) as shown in this embodiment also in
It should also be noted that the entire unit can also be built with secondary containment on all the equipment as demonstrated in
The scope of the claims should not be limited by the preferred embodiments set forth in description of the preferred embodiments or in the examples, but should be given the broadest interpretation consistent with the description as a whole.
The present application is a continuation of U.S. patent application Ser. No. 16/325,055, filed Feb. 12, 2019, which is the National Stage of PCT/IB2017/055218, filed Aug. 30, 2017, which claims the benefit of U.S. Provisional Application Ser. No. 62/381,941, filed Aug. 31, 2016, the disclosures of which are expressly incorporated by reference herein in their entireties. This application may also relate to subject matter disclosed in one or more of U.S. Applications Ser. No. 62/366,377, filed Jul. 25, 2016; Ser. No. 62/196,556, filed Jul. 24, 2015; Ser. No. 14/093,097, filed Nov. 29, 2013; Ser. No. 14/632,592, filed Feb. 26, 2015; Ser. No. 62/109,966, filed Jan. 30, 2015; and Ser. No. 62/127,020, filed Mar. 2, 2015. The entirety of each of the aforementioned applications is specifically incorporated herein by reference for all purposes.
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20210381344 A1 | Dec 2021 | US |
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Number | Date | Country | |
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Parent | 16325055 | US | |
Child | 17409055 | US |