Abstract: Sliding sleeve mechanisms including protective sheaths for debris protection are disclosed. Protective sheaths can be formed from materials such as composites, metal, foil, rubber, plastic, glass, ceramic, wire mesh, tape, etc. The protective sheaths can be substantially cylindrical shells (having one or more pieces), plugs in the flow ports, and/or tape or wire wrappings. The protective sheaths can be retained by recesses in the sliding sleeve or mechanical fasteners such as screws, pins, rivets, snap rings, bands, and buckles. The protective sheath can be outside or inside the sliding sleeve. The protective sheath can protect the sliding sleeve from debris by retaining grease that has been packed into the sliding sleeve for that purpose or positively preventing entry of debris into the sliding sleeve. The protective sheath can be cleared by permitting fluid flow through the sliding sleeve, which can act to destroy and/or wash away the protective sheath.

Abstract: A packer provides multiple seals when deployed downhole. Exposed to an activating agent, a swellable element on the packer's mandrel expands radially outward to form a seal with the borehole wall. Deformable elements, are disposed on the mandrel adjacent the swellable element. These deformable elements deform outward to the surrounding borehole wall to at least partially isolate the downhole annulus and the swellable element. Bias units releasable affixed on the tool adjacent the deformable elements can deform the elements. These bias units can be released either by swelling of the swellable element or by fluid pressure. Once released, the bias units are axially biased toward the deformable elements to deform them. In this way, the packer can form multiple seals with the borehole wall, and the deformable elements can isolate the swellable element from the downhole annulus, which can keep the swellable element from degrading or being overly extruded.

Abstract: A flow tool has a sensor that detects plugs (darts, balls, etc.) passing through the tool. An actuator moves an insert in the tool once a preset number of plugs have passed through the tool. Movement of this insert reveals a catch on a sleeve in the tool. Once the next plug is deployed, the catch engages the plug on the sleeve so that fluid pressure applied against the seated plug through the tubing string can move the sleeve. Once moved, the sleeve reveals ports in the tool communicating the tool's bore with the surrounding annulus so an adjacent wellbore interval can be stimulated. The actuator can use a sensor detecting passage of the plugs through the tool. A spring disposed in the tool can flex near the sensor when a plug passes through the tool, and a counter can count the number of plugs that have passed.

Abstract: A sliding sleeve has a sensor that detects plugs (darts, balls, etc.) passing through the sleeves. A first insert on the sleeve can be hydraulically activated by the fluid pressure in the surrounding annulus once a preset number of plugs have passed through the sleeve. Movement of this first insert activates a catch on a second insert. Once the next plug is deployed, the catch engages it so that fluid pressure applied against the seated plug through the tubing string can moves the second insert. Once moved, the insert reveals port in the housing communicating the sleeve's bore with the surrounding annulus so an adjacent wellbore interval can be stimulated. The first insert may also be hydraulically activated after a preset time after a plug has passed through the sleeve. Several sleeves can be used together in various arrangements to treat multiple intervals of a wellbore.

Abstract: Sliding sleeve mechanisms including protective sheaths for debris protection are disclosed. Protective sheaths can be formed from materials such as composites, metal, foil, rubber, plastic, glass, ceramic, wire mesh, tape, etc. The protective sheaths can be substantially cylindrical shells (having one or more pieces), plugs in the flow ports, and/or tape or wire wrappings. The protective sheaths can be retained by recesses in the sliding sleeve or mechanical fasteners such as screws, pins, rivets, snap rings, bands, and buckles. The protective sheath can be outside or inside the sliding sleeve. The protective sheath can protect the sliding sleeve from debris by retaining grease that has been packed into the sliding sleeve for that purpose or positively preventing entry of debris into the sliding sleeve. The protective sheath can be cleared by permitting fluid flow through the sliding sleeve, which can act to destroy and/or wash away the protective sheath.

Abstract: Sliding sleeve mechanisms including protective sheaths for debris protection are disclosed. Protective sheaths can be formed from materials such as composites, metal, foil, rubber, plastic, glass, ceramic, wire mesh, tape, etc. The protective sheaths can be substantially cylindrical shells (having one or more pieces), plugs in the flow ports, and/or tape or wire wrappings. The protective sheaths can be retained by recesses in the sliding sleeve or mechanical fasteners such as screws, pins, rivets, snap rings, bands, and buckles. The protective sheath can be outside or inside the sliding sleeve. The protective sheath can protect the sliding sleeve from debris by retaining grease that has been packed into the sliding sleeve for that purpose or positively preventing entry of debris into the sliding sleeve. The protective sheath can be cleared by permitting fluid flow through the sliding sleeve, which can act to destroy and/or wash away the protective sheath.

Abstract: A packer provides multiple seals when deployed downhole. Exposed to an activating agent, a swellable element on the packer's mandrel expands radially outward to form a seal with the borehole wall. One or more deformable elements, such as compressible packers or cup packers, are disposed on the mandrel adjacent the swellable element. These deformable element deform outward to the surrounding borehole wall to at least partially isolate the downhole annulus and the swellable element. Bias units releasably affixed on the tool adjacent the deformable elements can deform the elements. These bias unit can be released either by swelling of the swellable element or by fluid pressure. Once released, the bias units are axially biased toward the deformable elements to deform them. In this way, the packer can form multiple seals with the borehole wall, and the deformable elements can isolate the swellable element from the downhole annulus, which can keep the swellable element from degrading or being overly extruded.

Abstract: A valve system is provided having a housing including a first end, a second end and a first passageway. The housing has a first port and a second port. A valve member is disposed within the housing and movable relative thereto. The valve member defines a portion of the first passageway that includes a first opening configured for alignment and sealed fluid communication with the first port and the second port. The portion of the first passageway further includes a second opening having a greater relative dimension than the first opening. The valve member is manipulable to establish sealed fluid communication between the first opening and the first port or the second port while maintaining continuous sealed fluid communication between the second opening and the first passageway adjacent to the second end of the housing. The valve member can be disposed within the housing for rotation relative thereto.

Abstract: A K-base for a pole mounting system includes a central hub formed as a pentagon with legs extending from four of the five sides of the pentagon. The ends of the legs may splay to form clefts configured to receive a flat outer perimeter of the central hub so that the legs may be bolted to the central hub. The ends of the legs and the fifth unoccupied side of the pentagon may be formed to approximate a disk. In the central region of the central hub, on the top surface, an indentation may be formed to approximate an outer perimeter of a pole configured to be attached to the K-base. On the bottom surface, the central region may contain a depression sized to receive a washer and optionally a weight. Bolts extending through the washer and optionally through the weight may be used to connect the K-base to a pole. The washer may be formed to distribute stress from the bolts on the central hub.

Abstract: A pole mounting system includes a pole having at least one channel, and a spike having a finger configured to be received in the channel of the pole. The finger is attached to a neck that is configured to extend out of the channel and connect to a connector. The connector may be configured in a number of different ways depending on the particular type of device to be suspended on the pole. For example, the connector may be configured to connect to different types of arms that may be used to hold a flat panel display, or may be configured to hold other things such as a table. The finger is elongate and configured to engage the interior of the channel when the weight of the flat panel display is placed on the spike. Optionally, a spring-loaded pin may be provided to temporarily hold the spike in place while the spike is screwed into place in the channel through the use of set screws. Wire management may be provided within the channel.

Abstract: A golf putter has a putter head with an actively compliant beam which is parallel to the face of the putter. The beam connects to a shaft along its length and is separated from the head except for its ends. The force of impact between the face of the putter and the ball on the putter face sweet spot causes a stress to develop in the beam, resulting in a deflection in the beam proportional to the force of the impact, while maintaining the putter face orientation with respect to the putting line. Impacts which miss the sweet spot will cause the putter face to skew to an angle with respect to the putting line, also introducing a proportional flexure of the beam, depending on the distance between the sweet spot and the point of impact.

Abstract: A sliding sleeve for frac operations or the like has a housing, a sleeve, and a shock absorber. The sleeve is movable within the housing's internal passage relative to flow ports. The shock absorber, which can have a cylindrical body, positions partially in the sleeve's internal passage and has a distal end that extends beyond the sleeve. A lip on the sleeve's end is engageable with the internal shoulder. When a ball is dropped on the sleeve's ball seat and pumped fluid forces the sleeve to an open position, the shock absorber absorbs the movement of the sleeve. To absorber the movement, the shock absorber breaks one or more shear pin connections with the sleeve, interposes its lip between the sleeve's distal end and the internal shoulder, and fractures at least a portion of its distal end from the impact with the sleeve.

Abstract: A universal flat panel display mounting system includes a central hub and a plurality of telescoping arms pivotably connected to the hub. The arms are intermeshed to provide synchronized movement relative to each other. By telescoping the arms to adjust their length, and adjusting the angles of the arms, connection points on the arms may be positioned so that the universal flat panel display mounting system may work with flat panels in different VESA size categories or for flat panel displays that don't conform to the VESA standard. The universal mounting system is configured to enable the pitch of the flat panel display to be adjusted and to enable the flat panel display to be rotated relative to the mounting system. The mounting system may connect to arms or brackets to enable it to be supported on a pole, a wall mounting system, or in another manner.

Abstract: An apparatus has a housing with an internal passage. When deployed, a barrier positions in an upward direction in an annular space between a sleeve and the housing and folds towards one of its sides to conform to the annular space. When debris collection is desired, operators lift the sleeve with a tool, the barrier rotates down and positions across the internal passage, and the tool releases the sleeve. In this stage, the barrier can collect debris to protect a downhole valve. In further stages, operators open the downhole valve, and flow moves the barrier, cage body, and sleeve together in upward direction. Eventually, the sleeve is biased downward again, and the barrier positions within the annular space by reversibly folding towards its opposing side. In this position, barrier points in a downward direction and folds towards its opposing side to conform to the annular space.

Abstract: A golf putter has a putter head with an actively compliant beam which is parallel to the face of the putter. The beam connects to a shaft along its length and is separated from the head except for its ends. The force of impact between the face of the putter and the ball on the putter face sweet spot causes a stress to develop in the beam, resulting in a deflection in the beam proportional to the force of the impact, while maintaining the putter face orientation with respect to the putting line. Impacts which miss the sweet spot will cause the putter face to skew to an angle with respect to the putting line, also introducing a proportional flexure of the beam, depending on the distance between the sweet spot and the point of impact.

Abstract: Sliding sleeve mechanisms including protective sheaths for debris protection are disclosed. Protective sheaths can be formed from materials such as composites, metal, foil, rubber, plastic, glass, ceramic, wire mesh, tape, etc. The protective sheaths can be substantially cylindrical shells (having one or more pieces), plugs in the flow ports, and/or tape or wire wrappings. The protective sheaths can be retained by recesses in the sliding sleeve or mechanical fasteners such as screws, pins, rivets, snap rings, bands, and buckles. The protective sheath can be outside or inside the sliding sleeve. The protective sheath can protect the sliding sleeve from debris by retaining grease that has been packed into the sliding sleeve for that purpose or positively preventing entry of debris into the sliding sleeve. The protective sheath can be cleared by permitting fluid flow through the sliding sleeve, which can act to destroy and/or wash away the protective sheath.

Abstract: According to the invention, an identification system for disposable drinking cups is provided, which system comprises an identification system for a plurality of disposable drinking cups, said drinking cups being made from plastic, plastic composites, bio-based materials, fiber-based materials or other configurable materials, each of the drinking cups being provided with a unique identifying indicia by way of selection from a plurality of indicia, said indicia being a plurality of distinct areas associated with said cup, each area being configurable from an original condition to a visibly different condition, wherein said plurality of distinct areas are depressible dimples, blisters, or other raised surfaces, and wherein depressing said distinct area configures said area to said visibly different condition and whereas each area provides a unique identifier.

Abstract: A barrier forming apparatus is deployable through a conduit component in a well. The apparatus has a snap latch that removably couples to a work string. A mandrel element in the apparatus is selectively moveable with the coupling element. A plurality of locator dogs on the apparatus are spring biased and are activated when pressure is applied to a piston in the apparatus, which release the locator dogs. Once activated, the locator dogs engage a first grove the in the conduit component. When the work string is pulled up while the apparatus is held by the locator dogs, a plurality of locking dogs are activated by movement of a mandrel element caused by the work string. The locking dogs engage second grooves in the conduit component. Continued pulling of the work string moves a cone attached to a distal end of the mandrel element, and the moving cone deforms a barrier element positioned between an end of the apparatus' housing and the cone.

Abstract: A method and apparatus for sealing a tool for use in a wellbore is provided. The seal is configured to be disposed in a tool comprising a ported sliding sleeve and a ported housing. The tool may be actuable between a closed and an open position. The seal is configured so that one side of the seal acts as a flow restrictor to protect the other side of the seal from damage during actuation of the tool under pressurized conditions.

Abstract: A method and system for integrating software update services with software applications are disclosed. In one embodiment, the method comprises receiving as inputs a software update service and a software application. Information regarding the software application is collected. An integrated application is generated based on the collected information. The integrated application includes the collected information, the software application, and a runtime module for the software update service.