Abstract: A system for performing sensor data analytics for equipment diagnostics featuring an alarm signature and diagnostic detector having a signal processor configured to receive signaling containing information about an alarm signature for sensed data that is time-stamped for captured alarm signature parameters in order to monitor rotary equipment, and also about diagnostic detector signatures for diagnostic detectors related to alarm conditions for the rotary equipment; and determine corresponding signaling containing information about an alarm diagnosis based upon a match between the alarm signature and one of the diagnostic detector signatures contained in the signaling received.

Abstract: Apparatus is provided having a smart communication device having a processor configured to: receive signaling containing information about sensed data from a multiplicity of data collectors each associated with a respective piece of equipment and configured to collect the sensed data related to the respective piece of equipment when the smart communication device is moved within a predefined proximity to automatically connect with each data collector to receive the signaling during movement of the smart communication device on a programmed route having multiple pieces of equipment; and determine corresponding signaling containing information about prioritized sensed data related to each of the multiplicity of data collectors for operating an app in the processor, based upon the signaling received. The smart communication device includes an iPad, a smart phone, a laptop or a subsystem of a vehicle/robot. The apparatus may include the vehicle/robot having the subsystem.

Abstract: Apparatus is provided having a smart communication device having a processor configured to: receive signaling containing information about sensed data from a multiplicity of data collectors each associated with a respective piece of equipment and configured to collect the sensed data related to the respective piece of equipment when the smart communication device is moved within a predefined proximity to automatically connect with each data collector to receive the signaling during movement of the smart communication device on a programmed route having multiple pieces of equipment; and determine corresponding signaling containing information about prioritized sensed data related to each of the multiplicity of data collectors for operating an app in the processor, based upon the signaling received. The smart communication device includes an iPad, a smart phone, a laptop or a subsystem of a vehicle/robot. The apparatus may include the vehicle/robot having the subsystem.

Abstract: A system for performing sensor data analytics for equipment diagnostics featuring an alarm signature and diagnostic detector having a signal processor configured to receive signaling containing information about an alarm signature for sensed data that is time-stamped for captured alarm signature parameters in order to monitor rotary equipment, and also about diagnostic detector signatures for diagnostic detectors related to alarm conditions for the rotary equipment; and determine corresponding signaling containing information about an alarm diagnosis based upon a match between the alarm signature and one of the diagnostic detector signatures contained in the signaling received.

Abstract: Apparatus is provided having a smart communication device having a processor configured to: receive signaling containing information about sensed data from a multiplicity of data collectors each associated with a respective piece of equipment and configured to collect the sensed data related to the respective piece of equipment when the smart communication device is moved within a predefined proximity to automatically connect with each data collector to receive the signaling during movement of the smart communication device on a programmed route having multiple pieces of equipment; and determine corresponding signaling containing information about prioritized sensed data related to each of the multiplicity of data collectors for operating an app in the processor, based upon the signaling received. The smart communication device includes an iPad, a smart phone, a laptop or a subsystem of a vehicle/robot. The apparatus may include the vehicle/robot having the subsystem.

Abstract: A sensing module for configuring on a vibrating machine or structure, such as a pump or pump assembly is provided. The sensing module includes an outer shell configured with a recessed portion, and encapsulated electronics having a multicolored light array arranged inside the outer shell. The multicolored light array responds to signaling containing information about a condition being sensed or monitored by the sensing module and provides along a projection axis at least one beam of light containing information about the condition. The signaling is received from one or more of the other encapsulated electronics, including an accelerometer or temperature sensing device. The sensing module includes a domed lens configured in the recessed portion of the outer shell, and configured to project the at least one beam of light along the projection axis with a visibility of 360° for viewing from afar, by an observer visually monitoring the sensing module.

Abstract: Apparatus is provided having a smart communication device having a processor configured to: receive signaling containing information about sensed data from a multiplicity of data collectors each associated with a respective piece of equipment and configured to collect the sensed data related to the respective piece of equipment when the smart communication device is moved within a predefined proximity to automatically connect with each data collector to receive the signaling during movement of the smart communication device on a programmed route having multiple pieces of equipment; and determine corresponding signaling containing information about prioritized sensed data related to each of the multiplicity of data collectors for operating an app in the processor, based upon the signaling received. The smart communication device includes an iPad, a smart phone, a laptop or a subsystem of a vehicle/robot. The apparatus may include the vehicle/robot having the subsystem.

Abstract: A sensing module for configuring on a vibrating machine or structure, such as a pump or pump assembly is provided. The sensing module includes an outer shell configured with a recessed portion, and encapsulated electronics having a multicolored light array arranged inside the outer shell. The multicolored light array responds to signaling containing information about a condition being sensed or monitored by the sensing module and provides along a projection axis at least one beam of light containing information about the condition. The signaling is received from one or more of the other encapsulated electronics, including an accelerometer or temperature sensing device. The sensing module includes a domed lens configured in the recessed portion of the outer shell, and configured to project the at least one beam of light along the projection axis with a visibility of 360° for viewing from afar, by an observer visually monitoring the sensing module.

Abstract: A printing system includes multiple lineheads that each jet ink onto a print media while the print media is transported through the printing system. Imaging devices are positioned to capture one or more images of each side of the print media. A method for correcting for web skew and front-to-back registration includes determining a skew positional error for each color plane in a printing module and determining one or more skew positional correction values based on the skew positional error. A registration positional error can be determined and one or more registration positional correction values can be determined based on the registration positional error. A setting or operation of at least one printing system component is automatically adjusted based on at least one registration positional correction value or at least one skew positional correction value.

Abstract: A turnbar for use in a turnover module in a printing system includes one or more air-cushioned sections and one or more friction sections. Each air-cushioned section includes holes formed in a portion of a perimeter of the turnbar. Each friction section includes a friction-inducing material disposed over or affixed to another portion of the perimeter of the turnbar. Pressurized air or gas is output through the holes to produce a cushion of air or gas between a print media and the air-cushioned section. The turnbar can include one or more pistons within the turnbar, or one or more sleeves within or around the turnbar, or a combination of pistons and sleeves, to adjust airflow through the air-cushioned section.

Abstract: A turnbar for use in a turnover module in a printing system includes one or more air-cushioned sections and one or more friction sections. Each air-cushioned section includes holes formed in a portion of a perimeter of the turnbar. Each friction section includes a friction-inducing material disposed over or affixed to another portion of the perimeter of the turnbar. Pressurized air or gas is output through the holes to produce a cushion of air or gas between a print media and the air-cushioned section. The turnbar can include one or more pistons within the turnbar, or one or more sleeves within or around the turnbar, or a combination of pistons and sleeves, to adjust airflow through the air-cushioned section.

Abstract: A digital printing system, for printing on a continuous web of print media, includes a media operation zone in which an operation is performed on the print media. A support structure guides a continuous web of print media under tension through the media operation zone. The support structure includes a first mechanism and a second mechanism. The first mechanism, located upstream relative to the media operation zone, includes structure that positions the print media in a cross track direction so as to establish center justification of the print media as the print media enters the media operation zone. The second mechanism, located downstream relative to the media operation zone, includes structure that positions the print media in a cross track direction so as to maintain center justification of the print media as the print media travels through the media operation zone.

Abstract: A media turnover mechanism includes a roller. A first turn bar is positioned upstream relative to the roller at an angle relative to a direction of media motion. A second turn bar is positioned downstream relative to the roller at an angle relative to a direction of media motion. A first guide is positioned between the first turn bar and the roller to direct a leading edge of a web of media toward the roller. A second guide is positioned between the roller and the second turn bar to direct the leading edge of the web of media toward the second turn bar. A third guide is positioned to direct the leading edge of the web of media around the second turn bar.

Abstract: A media drive module includes a drive motor. A roller, around a portion of which a web of media wraps, is connected to the drive motor such that the roller is caused to rotate. A guide is positioned to direct a leading edge of the web of media around the roller. The guide is movable between a first position adjacent to the roller to direct the leading edge of the web of media and a second position removed from the roller that provides access to at least a portion of the roller.

Abstract: A flat panel OLED device including a transparent deformable substrate having first and second sides and defining a predetermined illumination region and a non-illumination region; a moisture-sensitive OLED disposed over the first side of the transparent substrate within the illumination region and means for applying electrical signals to the OLED which causes the OLED to produce light and heat; a protective layer disposed over the OLED; a flexible encapsulating foil disposed over the protective layer, but not attached thereto; and a rigid chassis structure operatively associated with the transparent deformable substrate for dissipating the heat and providing rigidity to the transparent deformable substrate.

Abstract: A flat panel OLED device including a transparent deformable substrate having first and second sides and defining a predetermined illumination region and a non-illumination region; a moisture-sensitive OLED disposed over the first side of the transparent substrate within the illumination region and means for applying electrical signals to the OLED which causes the OLED to produce light and heat; a protective layer disposed over the OLED; a flexible encapsulating foil disposed over the protective layer, but not attached thereto, and which dissipates the heat and sealingly connected to the substrate in the non-illumination region; and a rigid chassis structure operatively associated with the transparent deformable substrate for providing rigidity to the transparent deformable substrate.