mhurhangee/patent-ind-claim-en huggingface dataset:
Compactor arrangement (100, 400a, 500a to 700b, 900) having: • a carrying framework ; • a compactor , which is carried by means of the carrying framework , wherein the compactor has a compacting unit for compacting containers and a drive for driving the compacting unit , wherein the compacting unit has a shaft , which is coupled to the drive , and a compacting roller , which is mounted by means of the shaft , and • a supporting arrangement , which has a resilient torque support by means of which the compacting unit is supported on the carrying framework in a vibration-isolated manner, characterized in that the compacting unit also has a feed apparatus , which is coupled to the shaft and is intended for feeding containers to the compacting roller . • a carrying framework ; • a compactor , which is carried by means of the carrying framework , wherein the compactor has a compacting unit for compacting containers and a drive for driving the compacting unit , wherein the compacting unit has a shaft , which is coupled to the drive , and a compacting roller , which is mounted by means of the shaft , and • a supporting arrangement , which has a resilient torque support by means of which the compacting unit is supported on the carrying framework in a vibration-isolated manner,
A vacuum cleaner utensil comprising: a plurality of elements (Lx) arranged and flexibly mounted to a central area (C) in such a way to thereby provide a suction opening at a side of the central area (C) corresponding to a current movement direction (MD) of the vacuum cleaner utensil out of a plurality of possible movement directions, while reducing a possibility for air to enter the central area (C) from a plurality of other directions.
A rotor for a wound rotor driving motor for disposing inside a stator of the wound rotor driving motor, comprising: a first core body having an outer surface and an inner surface, wherein the first core body forms a space inside the first core body and is formed of rotor shoes integrally connected with each other at a predetermined space along a circumferential direction; a second core body forming rotor teeth , wherein the rotor teeth contact with an inside of the rotor shoes in a radial direction and the second core body is inserted into an inside of the first core body ; and a coil assembly combined to the rotor teeth of the second core body , wherein the second core body comprises a shaft, and the first core body comprises: walls integrally connecting circumferentially adjacent ends of neighboring rotor shoes , characterised in that the walls are formed to protrude towards the shaft of the second core body in the inside of the first core body and support the coil assembly . a first core body having an outer surface and an inner surface, wherein the first core body forms a space inside the first core body and is formed of rotor shoes integrally connected with each other at a predetermined space along a circumferential direction; a second core body forming rotor teeth , wherein the rotor teeth contact with an inside of the rotor shoes in a radial direction and the second core body is inserted into an inside of the first core body ; and a coil assembly combined to the rotor teeth of the second core body , wherein the second core body comprises a shaft, and the first core body comprises: walls integrally connecting circumferentially adjacent ends of neighboring rotor shoes , characterised in that the walls are formed to protrude towards the shaft of the second core body in the inside of the first core body and support the coil assembly .
A method of manufacturing an outsole, comprising: receiving light intensity data obtained by at least one sensor module on which an individual performs an activity, wherein a portion of the received sensor data is obtained by a frustrated total internal reflection, FTIR, system having a surface on which an individual may perform a movement; correlating the received light intensity data with a traction characteristic; building a computational traction profile in response to the correlation; creating , in response to the computational traction profile, a visual outsole pattern; and producing the outsole based on the visual outsole pattern. receiving light intensity data obtained by at least one sensor module on which an individual performs an activity, wherein a portion of the received sensor data is obtained by a frustrated total internal reflection, FTIR, system having a surface on which an individual may perform a movement; correlating the received light intensity data with a traction characteristic; building a computational traction profile in response to the correlation; creating , in response to the computational traction profile, a visual outsole pattern; and producing the outsole based on the visual outsole pattern.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a first network node supporting a first radio access technology, RAT, configuration information for a handover from the first RAT to a second RAT different from the first RAT, wherein the configuration information comprises parameters including measurement parameters and a filtering coefficient parameter for the handover from the first RAT to the second RAT; measuring a first quality for a first signal of the first RAT and a second quality for a second signal of the second RAT, based on the measurement parameters, said measurement parameters including a time unit parameter for acquiring measurement values, a time period parameter for measuring the first quality and the second quality, and a time interval parameter for measuring the first quality and the second quality; and determining whether to perform the handover from the first RAT to the second RAT, based on a result of a comparison between the first quality and the second quality, wherein the first quality and the second quality are compared based on the filtering coefficient parameter for correcting a measurement value difference between the first RAT and the second RAT. receiving, from a first network node supporting a first radio access technology, RAT, configuration information for a handover from the first RAT to a second RAT different from the first RAT, wherein the configuration information comprises parameters including measurement parameters and a filtering coefficient parameter for the handover from the first RAT to the second RAT; measuring a first quality for a first signal of the first RAT and a second quality for a second signal of the second RAT, based on the measurement parameters, said measurement parameters including a time unit parameter for acquiring measurement values, a time period parameter for measuring the first quality and the second quality, and a time interval parameter for measuring the first quality and the second quality; and determining whether to perform the handover from the first RAT to the second RAT, based on a result of a comparison between the first quality and the second quality, wherein the first quality and the second quality are compared based on the filtering coefficient parameter for correcting a measurement value difference between the first RAT and the second RAT.
A method comprising: determining, by a base station, a radio resource control, RRC, reconfiguration message indicating beam failure recovery parameters for a cell, wherein the RRC reconfiguration message comprises: a first active downlink bandwidth part, BWP, index of a first active downlink BWP of the cell; and a first active uplink BWP index of a first active uplink BWP of the cell; configuring the first active downlink BWP index and the first active uplink BWP index to a same value; transmitting the RRC reconfiguration message; receiving, via the first active uplink BWP, a random access preamble for beam failure recovery of the first active downlink BWP; and transmitting, via the first active downlink BWP, a random access response. determining, by a base station, a radio resource control, RRC, reconfiguration message indicating beam failure recovery parameters for a cell, wherein the RRC reconfiguration message comprises: a first active downlink bandwidth part, BWP, index of a first active downlink BWP of the cell; and a first active uplink BWP index of a first active uplink BWP of the cell; a first active downlink bandwidth part, BWP, index of a first active downlink BWP of the cell; and a first active uplink BWP index of a first active uplink BWP of the cell; configuring the first active downlink BWP index and the first active uplink BWP index to a same value; transmitting the RRC reconfiguration message; receiving, via the first active uplink BWP, a random access preamble for beam failure recovery of the first active downlink BWP; and transmitting, via the first active downlink BWP, a random access response.
Cilengitide for use in the treatment or prevention of sepsis in a patient, in which cilengitide is delivered to the patient intravenously.
A system for remote monitoring and command and control of one or more offshore aquafarms , the system comprising: at least one offshore aquafarm comprising husbandry equipment and at least one aquaculture cage; computing and networking equipment comprising network enabled devices that facilitate reliable monitoring and command and control (C2) of the husbandry equipment installed on the at least one offshore aquafarm ; cloud services ; and at least one uplink configured to provide connectivity between the computing and networking equipment and the cloud services ; wherein the cloud services are configured to be accessed by a remote operator to monitor and control the at least one offshore aquafarm , and wherein the monitoring and controlling of the at least one offshore aquafarm comprises monitoring and controlling the husbandry equipment to schedule and execute husbandry functions, said system being characterized in that the husbandry functions comprise at least one of harvesting fish, cleaning the at least one aquaculture cage, and removing mortalities from the at least one aquaculture cage. at least one offshore aquafarm comprising husbandry equipment and at least one aquaculture cage; computing and networking equipment comprising network enabled devices that facilitate reliable monitoring and command and control (C2) of the husbandry equipment installed on the at least one offshore aquafarm ; cloud services ; and at least one uplink configured to provide connectivity between the computing and networking equipment and the cloud services ; wherein the cloud services are configured to be accessed by a remote operator to monitor and control the at least one offshore aquafarm , and wherein the monitoring and controlling of the at least one offshore aquafarm comprises monitoring and controlling the husbandry equipment to schedule and execute husbandry functions,
Hose coupling with a coupling element , which is configured to be able to retain a hose end of a flexible hose line , and with a coupling mating element , which is releasably connectable to the coupling element , wherein at least one fluid duct is guided in each case in the coupling element and in the coupling mating element , and wherein the fluid ducts of the coupling element and of the coupling mating element connected thereto are connected to one another liquid-tightly in a retaining position of coupling element and coupling mating element , wherein the coupling element or the coupling mating element has a coupling head which, in a pivoted position, is insertable into a coupling head receptacle of the respective other element (4; 3) of the hose coupling , and the coupling element and the coupling mating element are pivotable relative to each other between the pivoted position and the retaining position, in which retaining position the coupling head is retained in the coupling head receptacle , characterized in that the coupling head is designed as a spherical head and the coupling head receptacle is configured as a socket.
A lighting system adapted to generate a configurable spotlight effect, comprising: a configurable light source arrangement for generating the configurable spotlight effect ; a presence detector for detecting motion of an individual at a detection location within a detection area, and for detecting in which direction the individual is moving; and a controller adapted to configure the configurable light source arrangement in response to said presence detector, wherein the controller is adapted to determine a first location in front of the individual based on the detected direction, and to generate the configurable spotlight effect with the configurable light source arrangement from the first location towards a defined location such as to attract the attention of said individual to the defined location. a configurable light source arrangement for generating the configurable spotlight effect ; a presence detector for detecting motion of an individual at a detection location within a detection area, and for detecting in which direction the individual is moving; and a controller adapted to configure the configurable light source arrangement in response to said presence detector, wherein the controller is adapted to determine a first location in front of the individual based on the detected direction, and to generate the configurable spotlight effect with the configurable light source arrangement from the first location towards a defined location such as to attract the attention of said individual to the defined location.
A method of wireless communications performed by a user equipment, UE comprising: configuring antenna elements of the UE to communicate in a serving cell using a first beam; monitoring a channel quality metric in the serving cell; and re-configuring the antenna elements of the UE to perform mobility measurements of one or more neighboring cells using a second beam broader than the first beam if the metric falls below a threshold value and further comprising determining if the UE is in line of sight, LOS, coverage of a threshold number of cells and re-configuring the antenna elements only if the UE is in LOS coverage of the threshold number of cells. configuring antenna elements of the UE to communicate in a serving cell using a first beam; monitoring a channel quality metric in the serving cell; and re-configuring the antenna elements of the UE to perform mobility measurements of one or more neighboring cells using a second beam broader than the first beam if the metric falls below a threshold value and further comprising determining if the UE is in line of sight, LOS, coverage of a threshold number of cells and re-configuring the antenna elements only if the UE is in LOS coverage of the threshold number of cells.
A method for indicating downlink service data, comprising: sending, by a first station, STA, associated with an access point, AP, listen interval information to the AP, wherein the listen interval information comprises a start point of a first listen interval and duration of the first listen interval, and the start point of the first listen interval is a transmission time at which a wake-up receiver of the first STA receives a wake-up beacon frame for the last time during a last wake-up period; controlling (SI03), by the first STA, the wake-up receiver of the first STA to wake up within the first listen interval, and receive a wake-up beacon frame periodically sent by the AP, wherein the wake-up beacon frame comprises an indication field used to indicate whether the AP has downlink service data to be sent to the first STA; controlling (S104), by the first STA, a main radio, MR, of the first STA not to wake up within a second listen interval to receive a beacon frame sent by the AP; and determining (S105), by the first STA based on the indication field, whether the AP has downlink service data to be sent to the first STA. sending, by a first station, STA, associated with an access point, AP, listen interval information to the AP, wherein the listen interval information comprises a start point of a first listen interval and duration of the first listen interval, and the start point of the first listen interval is a transmission time at which a wake-up receiver of the first STA receives a wake-up beacon frame for the last time during a last wake-up period; controlling (SI03), by the first STA, the wake-up receiver of the first STA to wake up within the first listen interval, and receive a wake-up beacon frame periodically sent by the AP, wherein the wake-up beacon frame comprises an indication field used to indicate whether the AP has downlink service data to be sent to the first STA; controlling (S104), by the first STA, a main radio, MR, of the first STA not to wake up within a second listen interval to receive a beacon frame sent by the AP; and determining (S105), by the first STA based on the indication field, whether the AP has downlink service data to be sent to the first STA.
A pipe joint construction comprising a cap nut , a cylindrical compressed deformation sleeve , and an inserted aluminum or copper pipe wherein: the cylindrical compressed deformation sleeve , is stored within the cap nut and has a concave peripheral groove on a peripheral face , wherein the groove has two side faces ; and a bottom thin wall portion of concave peripheral groove is formed on an inner portion of the concave peripheral groove in the compressed deformation sleeve ; and the bottom thin wall portion , receiving compressing force (F) in axial direction by screwing the cap nut , is adapted to be plastically deformed as to protrude to a radial inner direction; characterized in that : a width dimension (W) between the two side faces of the concave peripheral groove is reduceable to 0, so that the side faces are press-fit, and in that the bottom thin wall portion is adapted to bite into a peripheral face of the inserted aluminum or copper pipe for stopping the pipe . the cylindrical compressed deformation sleeve , is stored within the cap nut and has a concave peripheral groove on a peripheral face , wherein the groove has two side faces ; and a bottom thin wall portion of concave peripheral groove is formed on an inner portion of the concave peripheral groove in the compressed deformation sleeve ; and the bottom thin wall portion , receiving compressing force (F) in axial direction by screwing the cap nut , is adapted to be plastically deformed as to protrude to a radial inner direction; characterized in that : a width dimension (W) between the two side faces of the concave peripheral groove is reduceable to 0, so that the side faces are press-fit, and in that the bottom thin wall portion is adapted to bite into a peripheral face of the inserted aluminum or copper pipe for stopping the pipe .
A photoelectric conversion device comprising: a photoelectric converter ; a first node (n1), which is a floating diffusion, configured to be supplied with charges from the photoelectric converter ; an amplification transistor configured to output a signal corresponding to a voltage of the first node (n1); a first transistor configured to open/close a path between the first node (n1) and a second node (n2) not included in a path from the photoelectric converter to the first node (n1); a second transistor configured to open/close a path between the second node (n2) and a third node (n3); and a third transistor arranged in a path between the third node (n3) and a fourth node (n4); and a reset transistor configured to reset a potential of the first node (n1), and to open/close a path between the fourth node (n4) and a predetermined voltage line , characterized in that a fixed potential that sets the third transistor in a conductive state is applied to a gate of the third transistor from the predetermined voltage line . a photoelectric converter ; a first node (n1), which is a floating diffusion, configured to be supplied with charges from the photoelectric converter ; an amplification transistor configured to output a signal corresponding to a voltage of the first node (n1); a first transistor configured to open/close a path between the first node (n1) and a second node (n2) not included in a path from the photoelectric converter to the first node (n1); a second transistor configured to open/close a path between the second node (n2) and a third node (n3); and a third transistor arranged in a path between the third node (n3) and a fourth node (n4); and a reset transistor configured to reset a potential of the first node (n1), and to open/close a path between the fourth node (n4) and a predetermined voltage line , characterized in that a fixed potential that sets the third transistor in a conductive state is applied to a gate of the third transistor from the predetermined voltage line .
A method for identifying a first station as a co-channel interference source at a first access point, when the first station performs communication with a second access point, the method comprising obtaining (S110) a first parameter, wherein the first parameter comprises a co-channel interference rate of the first access point in a preset time period, a receive channel utilization rate of the second access point in the preset time period, a transmit channel utilization rate of the second access point in the preset time period, and a receive frame rate of data that is sent by the first station and that is received by the second access point in the preset time period; and when the first parameter meets a first preset condition, determining (S120) that the data sent by the first station to the second access point causes co-channel interference to the first access point; wherein the preset time period comprises one or more sampling periods; the co-channel interference rate is a ratio of the sampling period and a time period in which the first access point receives data which is sent by a co-channel interference source in the sampling period; the receive channel utilization rate is a ratio of the sampling period and a time period in which the second access point receives data which is sent to the second access point in the sampling period; the transmit channel utilization rate is a ratio of the sampling period and a time period in which the second access point sends data in the sampling period; and the receive frame rate of data is a frame rate at which the data sent by the first station is received by the second access point in the sampling period. obtaining (S110) a first parameter, wherein the first parameter comprises a co-channel interference rate of the first access point in a preset time period, a receive channel utilization rate of the second access point in the preset time period, a transmit channel utilization rate of the second access point in the preset time period, and a receive frame rate of data that is sent by the first station and that is received by the second access point in the preset time period; and when the first parameter meets a first preset condition, determining (S120) that the data sent by the first station to the second access point causes co-channel interference to the first access point; wherein the preset time period comprises one or more sampling periods; the co-channel interference rate is a ratio of the sampling period and a time period in which the first access point receives data which is sent by a co-channel interference source in the sampling period; the receive channel utilization rate is a ratio of the sampling period and a time period in which the second access point receives data which is sent to the second access point in the sampling period; the transmit channel utilization rate is a ratio of the sampling period and a time period in which the second access point sends data in the sampling period; and the receive frame rate of data is a frame rate at which the data sent by the first station is received by the second access point in the sampling period.