mhurhangee/ep-ind-claims huggingface dataset:
A process comprising the steps of making individual fibrous layers by: - providing a first moving endless surface comprising a plurality of molds, wherein neighboring molds are connected by a connecting section; wherein at least one mold, and preferably all the molds, comprises at least one raised element; - continuously depositing fibrous material in the molds and the connecting sections to form a continuous fibrous layer, wherein the deposition of the fibers is hindered on the raised element; - transferring the continuous layer of the fibrous material from the first moving endless surface to a second moving endless surface; then - cutting the continuous fibrous layer through the areas corresponding the connecting sections to form individual fibrous layers; wherein the individual fibrous layers comprise at least one channel corresponding to the raised element in the mold and the channel is free of the fibrous material and extends through the whole thickness of the fibrous layer; the process further comprising the step of attaching directly or indirectly the individual fibrous layer to an absorbent core, wherein the absorbent core comprises an absorbent material layer comprised in a core wrap (16, 16'), and the absorbent material comprises superabsorbent particles. - providing a first moving endless surface comprising a plurality of molds, wherein neighboring molds are connected by a connecting section; wherein at least one mold, and preferably all the molds, comprises at least one raised element; - continuously depositing fibrous material in the molds and the connecting sections to form a continuous fibrous layer, wherein the deposition of the fibers is hindered on the raised element; - transferring the continuous layer of the fibrous material from the first moving endless surface to a second moving endless surface; then - cutting the continuous fibrous layer through the areas corresponding the connecting sections to form individual fibrous layers; wherein the individual fibrous layers comprise at least one channel corresponding to the raised element in the mold and the channel is free of the fibrous material and extends through the whole thickness of the fibrous layer; the process further comprising the step of attaching directly or indirectly the individual fibrous layer to an absorbent core, wherein the absorbent core comprises an absorbent material layer comprised in a core wrap (16, 16'), and the absorbent material comprises superabsorbent particles.
A linear variable differential transducer (LVDT) comprising a primary coil, a first secondary coil, and a second secondary coil; wherein each of the first and second secondary coils (18, 20) comprises a wound portion that is wound around a longitudinal axis of the LVDT, and first and second non-wound portions (40a,b, 42a,b) at either end of the wound portion; and wherein the wound portion in each of the first and second secondary coils (18, 20) comprises a plurality of wound layers (26a,b 28a, b, 30a,b, 32a,b, 34a,b, 36a,b); characterised in that the wound portion of each of the first and second secondary coils (18, 20) meets the first and second non-wound portions (40a,b, 42a,b) of the respective secondary coil at locations (38a,b, 44a,b) that are separated from each other in a direction along the longitudinal axis. wherein each of the first and second secondary coils (18, 20) comprises a wound portion that is wound around a longitudinal axis of the LVDT, and first and second non-wound portions (40a,b, 42a,b) at either end of the wound portion; and wherein the wound portion in each of the first and second secondary coils (18, 20) comprises a plurality of wound layers (26a,b 28a, b, 30a,b, 32a,b, 34a,b, 36a,b); characterised in that the wound portion of each of the first and second secondary coils (18, 20) meets the first and second non-wound portions (40a,b, 42a,b) of the respective secondary coil at locations (38a,b, 44a,b) that are separated from each other in a direction along the longitudinal axis.
A wheel unit comprising at least: an environmental sensing component (280, 290) for measuring at least one parameter indicative of at least one environmental condition within or of a tire, a non-volatile memory for storing at least one first program, at least one second program and at least one configuration code, a processing unit for controlling the wheel unit and for executing at least one of the first program and the second program, a wheel unit communication module further comprising a wireless transmitter for transmitting at least tire condition related information and a wireless or wired receiver for receiving at least one of the first program, the second program and the configuration code, wherein the at least one first program comprises a first upload manager using the wheel unit communication module to receive and load into the non-volatile memory the second program, characterized in, that the at least one second program is adapted to use the first upload manager or comprises a second upload manager to receive the configuration code, and that the configuration code is adapted to provide information about at least one TPM system to the second program; the information is adapted to be used by the second program to configure the behavior of the wheel unit such that it is adapted to operate according to the at least one TPM system requirements. an environmental sensing component (280, 290) for measuring at least one parameter indicative of at least one environmental condition within or of a tire, a non-volatile memory for storing at least one first program, at least one second program and at least one configuration code, a processing unit for controlling the wheel unit and for executing at least one of the first program and the second program, a wheel unit communication module further comprising a wireless transmitter for transmitting at least tire condition related information and a wireless or wired receiver for receiving at least one of the first program, the second program and the configuration code, wherein the at least one first program comprises a first upload manager using the wheel unit communication module to receive and load into the non-volatile memory the second program, characterized in, that the at least one second program is adapted to use the first upload manager or comprises a second upload manager to receive the configuration code, and that the configuration code is adapted to provide information about at least one TPM system to the second program; the information is adapted to be used by the second program to configure the behavior of the wheel unit such that it is adapted to operate according to the at least one TPM system requirements.
A system, comprising: a plurality of ride vehicle modules (12, 14, 16, 18), wherein each of the ride vehicle modules comprises: an interlock system (70; 80; 94; 100; 110), configured to perform linking operations to join to at least one other ride vehicle module of the plurality of ride vehicle modules (12, 14, 16, 18) and delinking operations to separate from the at least one other ride vehicle module of the plurality of ride vehicle modules (12, 14, 16, 18) throughout a ride; communication circuitry configured to wirelessly communicate with control circuitry located externally from the ride vehicle module (12, 14, 16, 18) or a control system located externally from the ride vehicle module (12, 14, 16, 18); and control circuitry configured to control movement of each ride vehicle module of the plurality of ride vehicle modules (12, 14, 16, 18) during a ride and to control the interlock system (70; 80; 94; 100; 110) to perform a linking operation to link a first ride vehicle module of the plurality of ride vehicle modules (12, 14, 16, 18) to a second ride vehicle module of the plurality of ride vehicle modules (12, 14, 16, 18) during the ride and to perform a delinking operation to delink the first ride vehicle module of the plurality of ride vehicle modules (12, 14, 16, 18) from the second ride vehicle module of the plurality of ride vehicle modules (12, 14, 16, 18) during the ride. an interlock system (70; 80; 94; 100; 110), configured to perform linking operations to join to at least one other ride vehicle module of the plurality of ride vehicle modules (12, 14, 16, 18) and delinking operations to separate from the at least one other ride vehicle module of the plurality of ride vehicle modules (12, 14, 16, 18) throughout a ride; communication circuitry configured to wirelessly communicate with control circuitry located externally from the ride vehicle module (12, 14, 16, 18) or a control system located externally from the ride vehicle module (12, 14, 16, 18); and control circuitry configured to control movement of each ride vehicle module of the plurality of ride vehicle modules (12, 14, 16, 18) during a ride and to control the interlock system (70; 80; 94; 100; 110) to perform a linking operation to link a first ride vehicle module of the plurality of ride vehicle modules (12, 14, 16, 18) to a second ride vehicle module of the plurality of ride vehicle modules (12, 14, 16, 18) during the ride and to perform a delinking operation to delink the first ride vehicle module of the plurality of ride vehicle modules (12, 14, 16, 18) from the second ride vehicle module of the plurality of ride vehicle modules (12, 14, 16, 18) during the ride.
A device comprising a first fixing element, a further fixing element and a folded sheet-like composite; wherein the first fixing element includes a first fixing surface and the further fixing element includes a further fixing surface; wherein the folded sheet-like composite is at least partially fixed between the first fixing surface and the further fixing surface; wherein the folded sheet-like composite includes a first composite portion and a further composite portion; wherein the first composite area includes a first layer sequence including, as overlapping layers in the direction from the further fixing surface to the first fixing surface, a first composite layer, a second composite layer, a third composite layer and a fourth composite layer; wherein in the first composite region the third composite layer is bonded to the fourth composite layer; wherein the further composite area includes a further layer sequence including as overlapping layers in the direction from the further fixing surface to the first fixing surface the first composite layer, the second composite layer and the fourth composite layer; wherein in the further composite region the second composite layer is bonded to the fourth composite layer; the further composite region being adjacent to the first composite region; wherein the first composite layer includes a first carrier layer; wherein the second composite layer includes a second carrier layer; wherein the third composite layer includes a third carrier layer; wherein the fourth composite layer includes a fourth carrier layer; wherein in the first composite region the first carrier layer or the fourth carrier layer or both in each case is characterised by a greater layer thickness than the second carrier layer or the third carrier layer or both in each case; wherein in the further composite region the second carrier layer is characterised by a greater layer thickness than in the first composite region; wherein the further fixing surface includes a recess; wherein the first bonding area and the further bonding area are each at least partially located between the recess and the first fixing surface.
A security management method for group communication performed in a server that manages group communication in a mobile communication system, the method comprising: receiving group information for the group communication from a user equipment, UE, using the group communication; assigning a group identity corresponding to the group information, wherein the group information includes information about at least one of an area and a cell to which the UE belongs; generating (229, 301) a session security key for session protection in the group communication, and mapping the session security key to a group identity for identifying a specific group to which the UE belongs; transmitting (233, 303) the group identity and the session security key to the UE; and generating a traffic key for protection of traffic, and transmitting (239, 305) the group identity and the traffic key to the UE. receiving group information for the group communication from a user equipment, UE, using the group communication; assigning a group identity corresponding to the group information, wherein the group information includes information about at least one of an area and a cell to which the UE belongs; generating (229, 301) a session security key for session protection in the group communication, and mapping the session security key to a group identity for identifying a specific group to which the UE belongs; transmitting (233, 303) the group identity and the session security key to the UE; and generating a traffic key for protection of traffic, and transmitting (239, 305) the group identity and the traffic key to the UE.
Device for atomising a product suitable for air way disinfection, comprising: - an ultrasound probe comprising a transducer and a sonotrode configured to transmit the vibrations from the transducer to a particle ejection surface, the sonotrode comprising an intake channel of the product to be sprayed towards the ejection surface, the sonotrode having a body of revolution terminated by a plate forming said ejection surface, with the axis of the sonotrode defining the axis of the ultrasound probe, - an aeraulic system configured to create a flow of air for driving particles sprayed by the ultrasonic probe, comprising a nozzle that channels the flow of air to an air outlet, wherein the ultrasonic probe is arranged on the air outlet in such a way as to position in the flow of air for driving the ejection surface and a portion of the length of the sonotrode starting from said ejection surface while a portion of the body of the ultrasonic probe protrudes radially exteriorly beyond the diameter of the air outlet orifice of the nozzle and in such a way as to not be subjected to said flow of air for driving, and wherein the axis of the ultrasound probe is arranged substantially perpendicular to the axis of the nozzle, the ejection surface being substantially parallel to the axis of the nozzle. - an ultrasound probe comprising a transducer and a sonotrode configured to transmit the vibrations from the transducer to a particle ejection surface, the sonotrode comprising an intake channel of the product to be sprayed towards the ejection surface, the sonotrode having a body of revolution terminated by a plate forming said ejection surface, with the axis of the sonotrode defining the axis of the ultrasound probe, - an aeraulic system configured to create a flow of air for driving particles sprayed by the ultrasonic probe, comprising a nozzle that channels the flow of air to an air outlet, wherein the ultrasonic probe is arranged on the air outlet in such a way as to position in the flow of air for driving the ejection surface and a portion of the length of the sonotrode starting from said ejection surface while a portion of the body of the ultrasonic probe protrudes radially exteriorly beyond the diameter of the air outlet orifice of the nozzle and in such a way as to not be subjected to said flow of air for driving, and wherein the axis of the ultrasound probe is arranged substantially perpendicular to the axis of the nozzle, the ejection surface being substantially parallel to the axis of the nozzle.
A wireless device capable of communicating with a base station in a wireless network, having an apparatus comprising: means for monitoring processing demands by applications running on the wireless device for a processing unit having a maximum processing capacity; and means for controlling at least one of the applications based on the processing demands and the maximum processing capacity, said means for controlling the at least one application further comprising means for adjusting a window size for the at least one application based on the processing demands and the maximum processing capacity, the window size regulating a number of unacknowledged packets transmitted between the at least one application and a base station to thereby increase or reduce an amount of data exchanged with said base station responsive to said processing demands and maximum processing capacity. means for monitoring processing demands by applications running on the wireless device for a processing unit having a maximum processing capacity; and means for controlling at least one of the applications based on the processing demands and the maximum processing capacity, said means for controlling the at least one application further comprising means for adjusting a window size for the at least one application based on the processing demands and the maximum processing capacity, the window size regulating a number of unacknowledged packets transmitted between the at least one application and a base station to thereby increase or reduce an amount of data exchanged with said base station responsive to said processing demands and maximum processing capacity.
A system for indicating a tire pressure condition (200; 300; 730) comprising: a processor (220; 312) and a tangible, non-transitory memory, wherein the processor (220; 312) is in at least one of electrical communication and radio frequency ("RF") communication with an output device, wherein the output device is externally located on an aircraft, wherein the processor (220; 312) is configured to receive a tire pressure data, wherein the processor (220; 312) is configured to determine a relationship of the tire pressure data to a predetermined tire pressure, and wherein the processor (220; 312) is configured to cause the output device to display a value in accordance with the relationship, and characterized by wherein the output device is located on at least one of a hubcap of a wheel, a landing gear (110, 120, 130) of the aircraft and a gear bay of the aircraft. a processor (220; 312) and a tangible, non-transitory memory, wherein the processor (220; 312) is in at least one of electrical communication and radio frequency ("RF") communication with an output device, wherein the output device is externally located on an aircraft, wherein the processor (220; 312) is configured to receive a tire pressure data, wherein the processor (220; 312) is configured to determine a relationship of the tire pressure data to a predetermined tire pressure, and wherein the processor (220; 312) is configured to cause the output device to display a value in accordance with the relationship, and characterized by wherein the output device is located on at least one of a hubcap of a wheel, a landing gear (110, 120, 130) of the aircraft and a gear bay of the aircraft.
System for transferring items comprising: ∘ a first conveyor arranged to transport a tray carrying an item to a transfer area, in a first direction, ∘ the transfer area in which the item is separated from the tray, said transfer area being adjacent to the first conveyor, ∘ a second conveyor (6; 6'; 6") having a portion (61; 61'; 61") adjacent to said transfer area, said second conveyor being arranged to receive the item in said portion (61; 61'; 61"), the transfer area comprising: - a third conveyor arranged to receive the tray carrying the item, said third conveyor being movable between a high position for receiving the tray located substantially at the same height as said portion (61; 61'; 61") of the second conveyor and a lower position for discharging the tray, - a retractable carrier means, which is configured to be inserted between the tray and the item when the tray is on the third conveyor, and to carry the item when the third conveyor and the tray pass from the high position to the low position, - a pusher which is movable in a second direction orthogonal to the first direction and configured to push the item carried by the carrier means toward the portion of the second conveyor. ∘ a first conveyor arranged to transport a tray carrying an item to a transfer area, in a first direction, ∘ the transfer area in which the item is separated from the tray, said transfer area being adjacent to the first conveyor, ∘ a second conveyor (6; 6'; 6") having a portion (61; 61'; 61") adjacent to said transfer area, said second conveyor being arranged to receive the item in said portion (61; 61'; 61"), - a third conveyor arranged to receive the tray carrying the item, said third conveyor being movable between a high position for receiving the tray located substantially at the same height as said portion (61; 61'; 61") of the second conveyor and a lower position for discharging the tray, - a retractable carrier means, which is configured to be inserted between the tray and the item when the tray is on the third conveyor, and to carry the item when the third conveyor and the tray pass from the high position to the low position, - a pusher which is movable in a second direction orthogonal to the first direction and configured to push the item carried by the carrier means toward the portion of the second conveyor.
A respiratory mask assembly, comprising: an interfacing structure (80, 2120) adapted to provide an interface with the patient's face; an air delivery and stabilizing system adapted to deliver breathable gas to the interfacing structure (80, 2120) and support the mask assembly in position on the patient's head, the air delivery and stabilizing system including two tubes (42, 2142) and at least two headgear straps forming a headgear; and an adjustment mechanism structured to allow lengthwise adjustment of a section of the headgear, characterized in that each tube (42, 2142) is adapted to pass along a respective side of a patient's face between the patient's eye and the patient's ear and the adjustment mechanism is configured to be positioned on the crown of the patient's head. an interfacing structure (80, 2120) adapted to provide an interface with the patient's face; an air delivery and stabilizing system adapted to deliver breathable gas to the interfacing structure (80, 2120) and support the mask assembly in position on the patient's head, the air delivery and stabilizing system including two tubes (42, 2142) and at least two headgear straps forming a headgear; and an adjustment mechanism structured to allow lengthwise adjustment of a section of the headgear, characterized in that each tube (42, 2142) is adapted to pass along a respective side of a patient's face between the patient's eye and the patient's ear and the adjustment mechanism is configured to be positioned on the crown of the patient's head.
A method for communication management between an electronic device and a wearable electronic device wherein the method is characterized by the following steps performed by a processing unit of the electronic device: determining whether a display unit of the electronic device is currently active when the electronic device receives an event; when the display unit is not currently active, transmitting the event to the wearable electronic device via a wireless network, thereby indicating the occurrence corresponding to the event via the wearable electronic device; and when the display unit is currently active, directly generating a notification corresponding to the event via the electronic device. determining whether a display unit of the electronic device is currently active when the electronic device receives an event; when the display unit is not currently active, transmitting the event to the wearable electronic device via a wireless network, thereby indicating the occurrence corresponding to the event via the wearable electronic device; and when the display unit is currently active, directly generating a notification corresponding to the event via the electronic device.