Schlumberger Technology Corporation

United Wire Limited

Ykk Corporation

Benjamin L Holton

Brian S Carr

John H Fedders

Mitchell Landwehr

Eric Cady

Michael A Timmerman

Richard Bingham

James A Marshall

John Fedders

Mark R Jolly

Graham Alexander Robertson

Askari Badre-Alam

Bradley N Jones

Colin Stewart

Jonathan M Owens

Brian Neil Ligertwood

Calvin Carter

A method of installing a vibratory shaker screen in a vibratory shaker, including placing a first end of the vibratory shaker screen in a retainer, wherein the retainer is one of attached and a component of the vibratory shaker; pivoting a second end of the vibratory shaker screen toward a screen installation position on the vibratory shaker, deflecting a tab on one of the vibratory shaker screen and the vibratory shaker through contact of the vibratory shaker screen to another retainer of the vibratory shaker, and connecting the vibratory shaker screen to the vibratory shaker, where the tab fixedly connects the vibratory shaker screen to the vibratory shaker.

Snap in screen and method

A method of installing a vibratory shaker screen in a vibratory shaker, including placing a first end of the vibratory shaker screen in a retainer, wherein the retainer is a component of the vibratory shaker; pivoting a second end of the vibratory shaker screen toward a screen installation position on the vibratory shaker, deflecting a tab on one of the vibratory shaker screen and the vibratory shaker through contact of the vibratory shaker screen to another retainer of the vibratory shaker, and connecting the vibratory shaker screen to the vibratory shaker, where the tab fixedly connects the vibratory shaker screen to the vibratory shaker.

A system including a vibratory separator includes at least one screen and a pressure differential system. The pressure differential system includes a pressure differential generating device, a tray coupled to the pressure differential generating device, and an adjustable mounting mechanism configured to couple the tray within the vibratory separator and adjust a distance between the tray and the at least one screen of the vibratory separator.

Separator and method of separation with a pressure differential device

A system, an apparatus and a method for adjusting a weir control the rate and/or speed at which drilling fluid feeds a separator. Multiple separators are typically used in parallel to process fluid returning from the well. A distribution manifold directs fluid to each separator. The weir is positioned within a feeder on an inlet end of the separator and connects to an attachment plate within the feeder. The distribution manifold or other flow control mechanism operates in combination with the weir. Adjustment apparatuses control the height of the weir to determine the rate the fluid flows onto the separator. The adjustment apparatuses provide mechanical and/or automated operation of the weir. Various profiles of the weir and adjustments of the height of the weir within the feeder increase and/or decrease the speed of the fluid as the fluid spills into the separator.

System, apparatus and method for adjusting a weir

This disclosure is generally drawn to systems, devices, apparatuses, and/or methods, related to monitoring a shaker and monitoring a room in which shaker(s) operate. Specifically, the disclosed systems, devices, apparatuses, and/or methods relate to controlling an actuated arm to inspect, remove, replace, repair, clean the shaker and/or screen assemblies based on monitoring the shaker and its screen assemblies, and to adjust or maintain shaker(s) in a defined area such as the room in which shaker(s) operate. While the examples disclosed herein generally describe shakers for separating solids from fluids, the present disclosure contemplates that other separation equipment (e.g., machines for separating solids from other solids) may also be monitored and controlled by the systems and methods described herein.

Smart shaker room

This disclosure is generally drawn to systems, devices, apparatuses, and/or methods, related to monitoring a shaker used for separating solids from fluid. Specifically, the disclosed systems, devices, apparatuses, and/or methods relate to capturing infrared images of a shaker or components thereof (e.g., shaker baskets, decks, screens) and performing actions on the shaker, its components, and/or the its operation based at least in part on the captured infrared images.

Shaker imaging and analysis

A wedging apparatus for a vibrating separator including an outer polygonal surface to secure a screen to the vibrating separator, wherein the outer polygonal surface extends substantially along the length of a screening surface of the vibrating separator is disclosed. A screen for a vibratory separator including a frame having a top surface and a bottom surface, and at least one filter element connected to the frame, wherein the bottom surface comprises a wedge engagement profile is also disclosed. A vibrating separator apparatus including a first side wall, a second side wall opposite the first side wall, a bottom wall connecting the first side wall and the second side wall, a first screen having a top surface and a bottom surface, at least one wedging apparatus disposed along the length of the bottom surface of the first screen is also disclosed.

Compound angle wedge screen clamp for vibratory separator

An apparatus includes a manifold plate-like structure having two end regions and an opening located in the recessed region configured to allow fluid flow therethrough and a clamping device. The clamping device includes a first clamping block and a first mechanical fastener to couple the first clamping block and the manifold. The apparatus also includes a vibratory separator including a basket having support structure therein, the manifold coupled to the support structure with a clamping device. A pan is disposed above the manifold and coupled to the manifold and a screen is disposed on the pan. A pressure differential device is coupled to the manifold and configured to provide a pressure differential across the screen. A method includes coupling the manifold to the support structure, disposing the pan on the support structure, and coupling the pan to the manifold.

Apparatus for a screen pulse system

This disclosure is generally drawn to systems, devices, apparatus, and/or methods related to sealing mechanisms for vibratory separators. Specifically, the disclosed systems, devices, apparatus, and/or methods relate to seals having support(s) for improved installation in and/or removal from a vibratory separator. In some examples, an apparatus may include a seal and a support member. The seal may have two opposing side members and an end member coupled to and extending between the two opposing side members. The support member, which is at least partially rigid, may be coupled to the end member of the seal. In some examples, the support member may be integrated with or removably coupled to the seal.

Seal with support member

A method of controlling the vibration of a vibratory separator, the method including providing a vibratory separator having a frame and a plurality of force generators coupled to the frame and a control unit operatively connected to each of the plurality of force generators, and independently controlling each of the plurality of force generators. Independently controlling each of the plurality of force generators controls a motion profile of the vibratory separator.

Shaker with automatic motion

A shaker for separating solids from a drilling fluid includes a top screening deck (), a flow-back pan () positioned beneath the top screening deck () for receiving an initially separated drilling fluid from the top screening deck. The flow-back pan () is divided into a plurality of channels (A, B, C, D). The shaker further includes a fluid distribution box (), which includes a plurality of conduits (A, B, C, D). Each channel (A, B, C, D) of the flow-back pan () corresponds to one of the plurality of conduits (A, B, C, D) in the fluid distribution box () and each channel communicates a stream of the initially separated drilling fluid to the corresponding conduit. The shaker further includes a middle screening deck () and a bottom screening deck (). Each conduit (A, B, C, D) routes the stream of initially separated drilling fluid to a corresponding one of the middle screening deck () and the bottom screening deck ().

Fluid distribution for a shaker

An apparatus includes a vibratory separator, a screen support coupled to an inner surface of the vibratory separator, a screen having a first side with a sloped edge and a second side, the second side having a sloped edge, a screen retainer coupled to the vibratory separator, a wedge retainer coupled to a sidewall of the vibratory separator opposite the screen retainer, and a wedge having a first surface configured to engage the wedge retainer and a second surface configured to engage the a sloped edge of the second side of the screen. A method includes disposing a screen on a screen support in a vibratory separator, engaging a first side of the screen with a screen retainer coupled to the vibratory separator, and applying at least one of a downward vertical force and a lateral force to a second side of the screen with a clamping apparatus.

Single side screen clamping

A screen clamp () including a track () configured to secure a shaker screen () to a shaker, the track including an angled surface configured to contact a corresponding beveled edge of the shaker screen, the screen clamp further including an upper retainer () configured to extend from an inner wall of the shaker over at least a portion of the shaker screen.

Screen clamp

A magnetic clamping system for a shale shaker including at least one screen having at least two side ends extending between a first side and a second side and at least one attachment surface. The system further includes at least one mating surface of the shale shaker configured to receive the at least one screen, and at least one magnet disposed between the at least one screen and the shale shaker, wherein the at least one magnet is configured to magnetically couple the at least one screen directly to the shale shaker. Additionally, the system includes at least one decoupling apparatus, the decoupling apparatus having a handle disposed proximate a perimeter of a shale shaker, and at least one shaft that extends horizontally between the handle and one of the at least one magnet, wherein the handle is rotatable to reverse the polarity of the magnet.

Magnetic screen clamping

A magnetic claiming system for a shale shaker including at least one screen having at least two side ends extending between a first side and a second side and at least one attachment surface, at least one mating surface of a shale shaker configured to receive at least one screen, wherein the shale shaker has a first end and a second end, and at least on magnet disposed between the at least one screen and the shale shaker, wherein the at least one magnet is configured to magnetically couple the at least one screen to the shale shaker is disclosed. A method for replacing a screen in a shale shaker including activating at least one decoupling apparatus, wherein a magnetic clamping system includes the at least one decoupling apparatus, removing at least one screen from the shale shaker, deactivating the at least one coupling apparatus, and installing at least one screen into the shale shaker is also disclosed.

Growing community of inventors

Dayton, KY, United States of America

Benjamin L Holton