Abstract: Various example embodiments described herein relates, to an item manipulation system that can include a control system and an end effector. The end effector can include a tube defining a channel between a first end and a second end. The tube can include, a flexible suction cup that can be disposed within the channel of the tube. In some examples, the flexible suction cup can engage a surface of the item based on suction force generated through the flexible suction cup. The end effector also includes a linear actuator that can be mechanically coupled to the flexible suction cup. The end effector can be configured to: extend, the flexible suction cup towards the second end of the channel to position at least a portion of the flexible suction cup outside the tube and retract, the flexible suction cup within the channel to position the flexible suction cup within the tube.

Abstract: An optical source is described. This optical source may include a semiconductor laser chip and a silicon-photonics chip that provide an optical cavity. The semiconductor laser chip may provide gain at multiple lasing wavelengths in a band of wavelengths. Moreover, the silicon-photonics chip may adjust a size of an optical signal proximate to an interface between the semiconductor laser chip and the silicon-photonics chip. Furthermore, by adjusting a phase of a phase shifter and resonance frequencies of a micro-ring resonator in the silicon-photonics chip, a center frequency of a passband of the micro-ring resonator may be matched to a non-zero integer multiple of a cavity-mode spacing. This may allow the optical source to mode-lock the lasing wavelengths of the optical source by suppressing unwanted lasing wavelengths and re-enforcing the lasing wavelengths. In some embodiments, a free-spectral range of the optical source may be between 100 GHz and 800 GHz.

Abstract: Various example embodiments described herein relates, to an item manipulation system that can include a control system and an end effector. The end effector can include a tube defining a channel between a first end and a second end. The tube can include, a flexible suction cup that can be disposed within the channel of the tube. In some examples, the flexible suction cup can engage a surface of the item based on suction force generated through the flexible suction cup. The end effector also includes a linear actuator that can be mechanically coupled to the flexible suction cup. The end effector can be configured to: extend, the flexible suction cup towards the second end of the channel to position at least a portion of the flexible suction cup outside the tube and retract, the flexible suction cup within the channel to position the flexible suction cup within the tube.

Abstract: Various example embodiments described herein relates, to an item manipulation system that can include a control system and an end effector. The end effector can include a tube defining a channel between a first end and a second end. The tube can include, a flexible suction cup that can be disposed within the channel of the tube. In some examples, the flexible suction cup can engage a surface of the item based on suction force generated through the flexible suction cup. The end effector also includes a linear actuator that can be mechanically coupled to the flexible suction cup. The end effector can be configured to: extend, the flexible suction cup towards the second end of the channel to position at least a portion of the flexible suction cup outside the tube and retract, the flexible suction cup within the channel to position the flexible suction cup within the tube.

Abstract: The present disclosure relates to a material handling system for manipulating items. The material handling system includes a repositioning system comprising a robotic tool which includes a robotic arm portion and an end effector. The robotic tool is configured to manipulate an item in a first orientation and reorient the item to a second orientation. The material handling system further includes a vision system having one or more sensors positioned within the material handling system. The vision system is configured to generate inputs corresponding to the characteristics of the items. The material handling system may further include a controller executing instructions to cause the material handling system to identify the item in the first orientation, based on the one or more characteristics of the item, initiate, by the repositioning system, picking of the item in the first orientation, and re-orient the item in the second orientation.

Abstract: Various example embodiments described herein relates, to an item manipulation system that can include a control system and an end effector. The end effector can include a tube defining a channel between a first end and a second end. The tube can include, a flexible suction cup that can be disposed within the channel of the tube. In some examples, the flexible suction cup can engage a surface of the item based on suction force generated through the flexible suction cup. The end effector also includes a linear actuator that can be mechanically coupled to the flexible suction cup. The end effector can be configured to: extend, the flexible suction cup towards the second end of the channel to position at least a portion of the flexible suction cup outside the tube and retract, the flexible suction cup within the channel to position the flexible suction cup within the tube.

Abstract: A material handling system comprising one or more sub-systems and one or more sensing panels is provided. Each sensing panel may determine whether a mode control token is within a vicinity of the respective sensing panel. When the mode control token is within the vicinity of the respective sensing panel, the sensing panel may generate a signal, and when the mode is outside of the vicinity of the respective sensing panel, the generation of the signal is halted. The material handling system may further include a processor that enables at least one of the one or more sub-systems of the material handling system in response to the generated signal and disables each of the one or more sub-systems of the material handling system in response to a halting of the generation of the signal.

Abstract: A material handling system comprising one or more sub-systems and one or more sensing panels is provided. Each sensing panel may determine whether a mode control token is within a vicinity of the respective sensing panel. When the mode control token is within the vicinity of the respective sensing panel, the sensing panel may generate a signal, and when the mode is outside of the vicinity of the respective sensing panel, the generation of the signal is halted. The material handling system may further include a processor that enables at least one of the one or more sub-systems of the material handling system in response to the generated signal and disables each of the one or more sub-systems of the material handling system in response to a halting of the generation of the signal.

Abstract: The present disclosure relates to a material handling system for manipulating items. The material handling system includes a repositioning system comprising a robotic tool which includes a robotic arm portion and an end effector. The robotic tool is configured to manipulate an item in a first orientation and reorient the item to a second orientation. The material handling system further includes a vision system having one or more sensors positioned within the material handling system. The vision system is configured to generate inputs corresponding to the characteristics of the items. The material handling system may further include a controller executing instructions to cause the material handling system to identify the item in the first orientation, based on the one or more characteristics of the item, initiate, by the repositioning system, picking of the item in the first orientation, and re-orient the item in the second orientation.

Abstract: A self-aligning interface (6300) is attached to a robotic carton unloader (6100) and provides an interface between an extendable conveyor (6200) and the robotic carton unloader (6100). The self-aligning interface (6300) can include a positional measurement device (6320, 6320b, 6320c) mounted on the robotic carton unloader (6100) and operatively engaged with the extendable conveyor (6200) to provide positional information about the location of the extendable nose conveyor (6220) relative to the positional measurement device (6320, 6320b, 6320c). A control unit (6180) is attached to the robotic carton unloader (6100) for full robotic control of robotic carton unloader (6100) and the unloading process. The control unit (6180) is connected to the positional measurement device (6320, 6320b, 6320c) and the extendable conveyor (6200).

Abstract: A material handling system comprising one or more sub-systems and one or more sensing panels is provided. Each sensing panel may determine whether a mode control token is within a vicinity of the respective sensing panel. When the mode control token is within the vicinity of the respective sensing panel, the sensing panel may generate a signal, and when the mode is outside of the vicinity of the respective sensing panel, the generation of the signal is halted. The material handling system may further include a processor that enables at least one of the one or more sub-systems of the material handling system in response to the generated signal and disables each of the one or more sub-systems of the material handling system in response to a halting of the generation of the signal.

Abstract: A self-aligning interface (6300) is attached to a robotic carton unloader (6100) and provides an interface between an extendable conveyor (6200) and the robotic carton unloader (6100). The self-aligning interface (6300) can include a positional measurement device (6320, 6320b, 6320c) mounted on the robotic carton unloader (6100) and operatively engaged with the extendable conveyor (6200) to provide positional information about the location of the extendable nose conveyor (6220) relative to the positional measurement device (6320, 6320b, 6320c). A control unit (6180) is attached to the robotic carton unloader (6100) for full robotic control of robotic carton unloader (6100) and the unloading process. The control unit (6180) is connected to the positional measurement device (6320, 6320b, 6320c) and the extendable conveyor (6200).

Abstract: A self-aligning interface (6300) is attached to a robotic carton unloader (6100) and provides an interface between an extendable conveyor (6200) and the robotic carton unloader (6100). The self-aligning interface (6300) can include a positional measurement device (6320, 6320b, 6320c) mounted on the robotic carton unloader (6100) and operatively engaged with the extendable conveyor (6200) to provide positional information about the location of the extendable nose conveyor (6220) relative to the positional measurement device (6320, 6320b, 6320c). A control unit (6180) is attached to the robotic carton unloader (6100) for full robotic control of robotic carton unloader (6100) and the unloading process. The control unit (6180) is connected to the positional measurement device (6320, 6320b, 6320c) and the extendable conveyor (6200).

Abstract: Robotic carton unloader has right and left lower arms of robotic arm assembly that are pivotally attached at lower end respectively to mobile body on opposing lateral sides of conveyor system passing there between. Upper arm assembly has rear end pivotally attached at upper end respectively of right and left lower arms to pivotally rotate about upper arm axis perpendicular to longitudinal axis of conveyor system and parallel to lower arm axis. Manipulator head attached to front end of upper arm assembly engages carton/s from carton pile resting on floor for movement to conveyor system. Upper arm axis is maintained at a height that enables carton/s to be conveyed by conveyor system without being impeded by robotic arm assembly as soon as manipulator head is clear. Lift attached between mobile body and front portion of conveyor system reduces spacing underneath carton/s during movement from carton pile to conveyor system.

Abstract: A self-aligning interface (6300) is attached to a robotic carton unloader (6100) and provides an interface between an extendable conveyor (6200) and the robotic carton unloader (6100). The self-aligning interface (6300) can include a positional measurement device (6320, 6320b, 6320c) mounted on the robotic carton unloader (6100) and operatively engaged with the extendable conveyor (6200) to provide positional information about the location of the extendable nose conveyor (6220) relative to the positional measurement device (6320, 6320b, 6320c). A control unit (6180) is attached to the robotic carton unloader (6100) for full robotic control of robotic carton unloader (6100) and the unloading process. The control unit (6180) is connected to the positional measurement device (6320, 6320b, 6320c) and the extendable conveyor (6200).

Abstract: Robotic carton unloader has right and left lower arms of robotic arm assembly that are pivotally attached at lower end respectively to mobile body on opposing lateral sides of conveyor system passing there between. Upper arm assembly has rear end pivotally attached at upper end respectively of right and left lower arms to pivotally rotate about upper arm axis perpendicular to longitudinal axis of conveyor system and parallel to lower arm axis. Manipulator head attached to front end of upper arm assembly engages carton/s from carton pile resting on floor for movement to conveyor system. Upper arm axis is maintained at a height that enables carton/s to be conveyed by conveyor system without being impeded by robotic arm assembly as soon as manipulator head is clear. Lift attached between mobile body and front portion of conveyor system reduces spacing underneath carton/s during movement from carton pile to conveyor system.

Abstract: A media center system comprises a first wireless controller operative to communicate with a first set of devices on a first WLAN using a first wireless standard; a first network processor coupled to the first wireless controller and operative to establish wireless communication over a first channel with the first set of devices on the first WLAN; a second wireless controller operative to communicate with a second set of devices on a second WLAN using a second wireless standard, the second wireless controller substantially dedicated for multimedia content delivery; and a second network processor coupled to the second wireless controller and operative to establish wireless communication over a second channel with the second set of devices on the second WLAN, the second channel being different than the first channel.

Abstract: A media center system comprises a first wireless controller operative to communicate with a first set of devices on a first WLAN using a first wireless standard; a first network processor coupled to the first wireless controller and operative to establish wireless communication over a first channel with the first set of devices on the first WLAN; a second wireless controller operative to communicate with a second set of devices on a second WLAN using a second wireless standard, the second wireless controller substantially dedicated for multimedia content delivery; and a second network processor coupled to the second wireless controller and operative to establish wireless communication over a second channel with the second set of devices on the second WLAN, the second channel being different than the first channel.

Abstract: A monitoring system and a method and computer program product for implementing a monitoring system are disclosed. In accordance with an embodiment of the system, information about locations of reference nodes in an area may be received. Utilizing the information about the locations of the reference nodes, graphical representations of the reference nodes may be presented in a graphical representation of the area at locations corresponding to the locations of the reference nodes in the area. At least one node in the area may be monitored so that, based on the monitoring, a graphical representation of the node may be displayed in the graphical representation of the area at a location corresponding to the location of the node.

Abstract: A dielectric material formed by contacting a low dielectric constant polymer with liquid or supercritical carbon dioxide, under thermodynamic conditions which maintain the carbon dioxide in the liquid or supercritical state, wherein a porous product is formed. Thereupon, thermodynamic conditions are changed to ambient wherein carbon dioxide escapes from the pores and is replaced with air.