Abstract: Methods, systems, and computer-readable media provide for determining a plurality of turfs from where to reallocate a workforce to a given turf. According to embodiments, a method for determining a plurality of turfs from where to reallocate a workforce to a given turf is provided. According to the method, an indication of the given turf is received. Optimal turfs from where to reallocate technicians to the given turf are determined from a plurality of turfs. Visual cues for identifying at least a portion of the optimal turfs are generated.

Abstract: Methods, systems, and computer-readable media provide for providing contact information at turf level. According to embodiments, a method for providing contact information at turf level is provided. According to the method, a selected turf from a plurality of turfs displayed in a spreadsheet-based graphical user interface (GUI) is received. In response to receiving the selected turf, contact information for field supervisors associated with disciplines of the selected turf is displayed.

Abstract: Methods, systems, and computer-readable media provide for providing future job information. According to embodiments, a method for providing future job information is provided. According to the method, a number of non-dispatched jobs within a future time frame for a plurality of buckets and a plurality of turfs is determined. A numeric indicator indicating the number of non-dispatched jobs associated with at least one turf and at least one bucket is displayed.

Abstract: Methods, systems, and computer-readable media provide for providing commitments information relative to a turf. According to embodiments, a method for providing commitments information relative to a turf is provided. According to the method, a time frame for each of a plurality of turfs is determined. The time frame indicates when a work order of a given category is to be completed. A numeric indicator indicating the time frame in which the work order of the given category is to be completed is displayed.

Abstract: A method, computer readable medium, and a system for reconstituting a virtual snapshot of files in a file virtualization system includes forming at a file virtualization device a virtual snapshot that includes a plurality of physical snapshots associated with one or more file storage devices participating in the virtual snapshot, receiving a request for performing an operation on one or more physical snapshots in the plurality of physical snapshots, providing the one or more physical snapshots in response to the request for performing the operation when the one or more physical snapshots exists in the virtual snapshot, and reconstituting the virtual snapshot by including the one or more physical snapshots to form a reconstituted virtual snapshot in response to the request for performing the operation when the one or more physical snapshots do not exist in the virtual snapshot.

Abstract: An Active Motion Compensation system for use during intervention or other work on subsea wells, pipelines or other structures. The present invention can be employed on existing floating production platforms such as Tension Leg Platforms (TLP) and Spar structures where intervention work including Coiled Tubing, Slickline, Electric Line, Wireline, as well as snubbing or Hydraulic Workover activities are being utilized. It can also be deployed over the side of or through the moon pool of a vessel without the need of any other compensation device.

Abstract: Methods, systems, and computer-readable media provide for providing future job information. According to embodiments, a method for providing future job information is provided. According to the method, a number of non-dispatched jobs within a future time frame for a plurality of buckets and a plurality of turfs is determined. A numeric indicator indicating the number of non-dispatched jobs associated with at least one turf and at least one bucket is displayed.

Abstract: An armor system for protecting a vehicle from a projectile, the projectile having an expected trajectory, is disclosed. The armor system has a material capable of being detonated and configured to substantially retain a shape, wherein the material leads a vehicle exterior surface relative to the expected projectile trajectory. The material has a dimensional thickness that is greater than a minimum detonation thickness of the material.

Abstract: Methods, systems, and computer-readable media provide for providing commitments information relative to a turf. According to embodiments, a method for providing commitments information relative to a turf is provided. According to the method, a time frame for each of a plurality of turfs is determined. The time frame indicates when a work order of a given category is to be completed. A numeric indicator indicating the time frame in which the work order of the given category is to be completed is displayed.

Abstract: An armor system for protecting a vehicle from a projectile is disclosed. The armor system includes a telescoping frame having an attaching member attaching the telescoping frame to a hull of the vehicle, a support member, and at least one movable cross member attached between the attaching member and the support member. A distance between the hull and the support member varies based on the position of the at least one cross member. The armor system also includes a projectile-defeating assembly attached to the support member.

Abstract: A method, computer readable medium, and a system for reconstituting a virtual snapshot of files in a file virtualization system includes forming at a file virtualization device a virtual snapshot that includes a plurality of physical snapshots associated with one or more file storage devices participating in the virtual snapshot, receiving a request for performing an operation on one or more physical snapshots in the plurality of physical snapshots, providing the one or more physical snapshots in response to the request for performing the operation when the one or more physical snapshots exists in the virtual snapshot, and reconstituting the virtual snapshot by including the one or more physical snapshots to form a reconstituted virtual snapshot in response to the request for performing the operation when the one or more physical snapshots do not exist in the virtual snapshot.

Abstract: This patent application applies to an Active Motion Compensation system for use during intervention or other work on subsea wells, pipelines or other structures. It could be used on existing floating production platforms such as Tension Leg Platforms (TLP) and Spar structures where intervention work including Coiled Tubing, Slickline, Electric Line, Wireline, as well as snubbing or Hydraulic Workover activities are being utilized. It could also be deployed over the side of or through the moon pool of a vessel without the need of any other compensation device.

Abstract: Methods, systems, and computer-readable media provide for providing an indication of hightime. According to embodiments, a method for providing an indication of hightime is provided. According to the method, whether at least one of a plurality of technicians exceeds an allotted time with which to complete a job is determined. In response to determining that at least one of the plurality of technicians exceeds the allotted time, an indication that at least one of the plurality of technicians exceeds the allotted time is provided.

Abstract: Methods, systems, and computer-readable media provide for providing an indication of a schedule conflict. According to embodiments, a method for providing an indication of a schedule conflict is provided. According to the method, whether one of a plurality of technicians is scheduled but not dispatched or dispatched but not scheduled is determined. In response to determining that the one of the plurality of technicians is scheduled but not dispatched or dispatched but not scheduled, an indication that the one of the plurality of technicians is scheduled but not dispatched or dispatched but not scheduled is provided.

Abstract: A armor system for protecting a vehicle from a projectile, the projectile having an expected trajectory and the vehicle having a hull, is disclosed. The armor system has a modular armor subsystem configured to be mounted exterior to the vehicle hull. The modular armor subsystem has a leading layer having metal, leading relative to the expected projectile trajectory, and an intermediate sheet-like layer having low density material, of a density less than metal, abutting a rear surface of the leading layer. The armor system also has an intermediate sheet-like layer having glass fiber material and abutting a rear surface of the intermediate low density material layer, and an intermediate sheet-like layer having metal and abutting a rear surface of the intermediate glass fiber layer.

Abstract: This patent application applies to an Active Motion Compensation system for use during intervention or other work on subsea wells, pipelines or other structures. It could be used on existing floating production platforms such as Tension Leg Platforms (TLP) and Spar structures where intervention work including Coiled Tubing, Slickline, Electric Line, Wireline, as well as snubbing or Hydraulic Workover activities are being utilized. It could also be deployed over the side of or through the moon pool of a vessel without the need of any other compensation device.

Abstract: A spool for deploying and retrieving multiple separate strings of continuous tubing, such as over the side of or through the moon pool of a boat, rig or other vessel, without the need of an injector head. The spool has at least one rotating swivel to permit pumping of fluid(s) down, or back up, tubing strings while the spool is rotating or stationary. A level-wind assembly having at least one sheave directs the continuous tubing overboard, but also level-winds the tubing onto the spool in an orderly fashion through lateral movement of the sheave. The system is powered by a hydraulic power unit with a remote control console.

Abstract: A armor system for protecting a vehicle from a projectile, the projectile having an expected trajectory and the vehicle having a hull, is disclosed. The armor system has a modular armor subsystem configured to be mounted exterior to the vehicle hull. The modular armor subsystem has a leading layer having metal, leading relative to the expected projectile trajectory, and an intermediate sheet-like layer having low density material, of a density less than metal, abutting a rear surface of the leading layer. The armor system also has an intermediate sheet-like layer having glass fiber material and abutting a rear surface of the intermediate low density material layer, and an intermediate sheet-like layer having metal and abutting a rear surface of the intermediate glass fiber layer.

Abstract: By providing a single house (21) which incorporates an elongated probe (22) receiving zone interconnected to a pump member (55), a plurality of automated valves (51-54), a disinfectant dispensing chamber (20), a water supply (41), and a control system for automatically cycling each of the components to achieve the desired result, a fully automated disinfection system (20) for transesophageal ultrasonic probes is achieved. In accordance with the present invention, a simple, easily employed, convenient, fully integrated system (20) is attained for quickly and easily receiving the transesophageal ultrasonic probe in its entirety, supporting the electronic bearing head portion independently from the disinfection portion, and automatically performing various disinfection and rinse cycles for providing a completely disinfected ultrasonic probe member ready for use.

Abstract: The disclosed armor system for protecting a vehicle from high energy projectiles includes a leading layer, relative to the projectile trajectory, positioned exterior to the hull; a first plurality of sheet-like layers of a low density material positioned between the leading layer and the hull; and a second plurality of sheet-like high strength metal layers positioned between the leading layer and the hull. The individual ones of the first plurality of high strength metal layers are positioned alternating with, and to the rear of, individual ones of the second plurality of low density material layers. The leading layer can be one of a sheet-like metal layer, a metalicized grid layer, and the outer-most layer of the first plurality of low density materials layers. The materials of the high strength metal layers may be selected from high strength steel and high strength aluminum, and the materials of the low density material may be selected from low density polypropylene composites and R-Glass composites.