mhurhangee/ep-ind-claims huggingface dataset:
A core network, CN, device for reporting radio access network, RAN, user plane congestion, UPCON, having computer circuitry configured to: receive an UPCON event report (302, 306, 310, 314, 318) that includes an UPCON container that includes a congestion severity level indicator, an identifier of a user equipment, UE, affected by congestion, and an access point name, APN, for which the congestion is reported; and change an UPCON process based on the congestion severity level indicator, the identifier of the UE, and the APN. receive an UPCON event report (302, 306, 310, 314, 318) that includes an UPCON container that includes a congestion severity level indicator, an identifier of a user equipment, UE, affected by congestion, and an access point name, APN, for which the congestion is reported; and change an UPCON process based on the congestion severity level indicator, the identifier of the UE, and the APN.
Axial sealing ring which is supported on a rotatable shaft in a driven tool and comprises - a sealing body having a sealing end face, an outer side, a circumferential groove which extends from the outer side into the interior of the sealing body, and a sealing lip which extends between the sealing end face and the groove, the sealing lip being elastically deformable so that, when centrifugal force acts on the axial sealing ring, the inclination of the sealing lip in the axial direction is reduced, - a housing which is arranged on the outer side of the sealing body and covers the groove, the sealing body and the housing being form-fittingly and frictionally connected, an elastic preloading ring being arranged in the groove so that the sealing lip is inclined in an axial direction, and the preloading ring being elastically deformable when centrifugal force acts on the axial sealing ring so that it widens, characterized in that the groove has a rounded groove bottom and two groove flanks (31, 33) which are spaced apart and one of which faces the sealing end face of the sealing body, the region of the sealing body between the sealing end face and the opposite groove flank which faces this end face forming the sealing lip. - a sealing body having a sealing end face, an outer side, a circumferential groove which extends from the outer side into the interior of the sealing body, and a sealing lip which extends between the sealing end face and the groove, the sealing lip being elastically deformable so that, when centrifugal force acts on the axial sealing ring, the inclination of the sealing lip in the axial direction is reduced, - a housing which is arranged on the outer side of the sealing body and covers the groove, the sealing body and the housing being form-fittingly and frictionally connected, an elastic preloading ring being arranged in the groove so that the sealing lip is inclined in an axial direction, and the preloading ring being elastically deformable when centrifugal force acts on the axial sealing ring so that it widens, characterized in that the groove has a rounded groove bottom and two groove flanks (31, 33) which are spaced apart and one of which faces the sealing end face of the sealing body, the region of the sealing body between the sealing end face and the opposite groove flank which faces this end face forming the sealing lip. the sealing body and the housing being form-fittingly and frictionally connected, an elastic preloading ring being arranged in the groove so that the sealing lip is inclined in an axial direction, and the preloading ring being elastically deformable when centrifugal force acts on the axial sealing ring so that it widens, characterized in that the groove has a rounded groove bottom and two groove flanks (31, 33) which are spaced apart and one of which faces the sealing end face of the sealing body, the region of the sealing body between the sealing end face and the opposite groove flank which faces this end face forming the sealing lip.
A composition comprising a therapeutically effective amount of topical corticosteroid for use in treating or alleviating the symptoms of or inflammation associated with gastroesophageal reflux disease (GERD) in an individual, wherein the topical corticosteroid is budesonide, fluticasone, mometasone furoate, ciclesonide, beclomethasone, desonide, or a pharmaceutically acceptable ester thereof, or a combination thereof, by topical administration to the esophagus of the individual.
An alarm device (110, 210) for a fire alarm system, comprising: at least one of an audio notification mechanism and a visual notification mechanism; a supercapacitor; and a controller configured to: allow the supercapacitor to only charge to less than a fully charged level while the alarm device (110, 210) is in a quiescent state; and allow the supercapacitor to charge to the fully charged level only while the alarm device (110, 210) is in an alarm state, to power the at least one of the audio notification mechanism and the visual notification mechanism upon a short circuit fault occurring on a loop of the fire alarm system while the alarm device (110, 210) is in an alarm state. at least one of an audio notification mechanism and a visual notification mechanism; a supercapacitor; and a controller configured to: allow the supercapacitor to only charge to less than a fully charged level while the alarm device (110, 210) is in a quiescent state; and allow the supercapacitor to charge to the fully charged level only while the alarm device (110, 210) is in an alarm state, to power the at least one of the audio notification mechanism and the visual notification mechanism upon a short circuit fault occurring on a loop of the fire alarm system while the alarm device (110, 210) is in an alarm state. allow the supercapacitor to only charge to less than a fully charged level while the alarm device (110, 210) is in a quiescent state; and allow the supercapacitor to charge to the fully charged level only while the alarm device (110, 210) is in an alarm state, to power the at least one of the audio notification mechanism and the visual notification mechanism upon a short circuit fault occurring on a loop of the fire alarm system while the alarm device (110, 210) is in an alarm state.
An endoscope for producing images of a surgery in vivo, the endoscope comprising: a hub; and an imaging rod extending from the hub, the imaging rod being configured to receive light and direct the light to an area adjacent to a distal end portion of the imaging rod, wherein an imaging sensor is located at the distal end portion of the imaging rod, and the hub and the imaging rod are attached to form a hub assembly, characterised in that the hub assembly has a center of mass within the imaging rod. a hub; and an imaging rod extending from the hub, the imaging rod being configured to receive light and direct the light to an area adjacent to a distal end portion of the imaging rod, wherein an imaging sensor is located at the distal end portion of the imaging rod, and the hub and the imaging rod are attached to form a hub assembly, characterised in that the hub assembly has a center of mass within the imaging rod.
An apparatus to deliver nitric oxide to a patient, the apparatus comprising: a therapeutic gas injector module (103, 203) comprising: a first inlet (101, 201) to be placed in fluid communication with a nitric oxide delivery apparatus that provides a flow of nitric oxide at a therapeutic concentration; a second inlet (102, 202) to be placed in fluid communication with a breathing gas delivery system that provides a flow of a breathing gas to the patient; and an outlet (104, 204) to supply a combined flow of breathing gas and nitric oxide to the patient; a control circuit including a first flow sensor (106, 206) to measure the flow of breathing gas from the breathing gas delivery system, wherein the control circuit is configured to operate in a backup mode in which a known constant flow of nitric oxide is independent of the breathing gas flow rate, and wherein when the control circuit is in the backup mode, it is configured to deliver the known constant flow of nitric oxide and estimate a backup dose based on the known constant flow of nitric oxide and the measured flow of breathing gas; and a display in communication with the control circuit that provides the estimate of the backup dose of nitric oxide. a therapeutic gas injector module (103, 203) comprising: a first inlet (101, 201) to be placed in fluid communication with a nitric oxide delivery apparatus that provides a flow of nitric oxide at a therapeutic concentration; a second inlet (102, 202) to be placed in fluid communication with a breathing gas delivery system that provides a flow of a breathing gas to the patient; and an outlet (104, 204) to supply a combined flow of breathing gas and nitric oxide to the patient; a first inlet (101, 201) to be placed in fluid communication with a nitric oxide delivery apparatus that provides a flow of nitric oxide at a therapeutic concentration; a second inlet (102, 202) to be placed in fluid communication with a breathing gas delivery system that provides a flow of a breathing gas to the patient; and an outlet (104, 204) to supply a combined flow of breathing gas and nitric oxide to the patient; a control circuit including a first flow sensor (106, 206) to measure the flow of breathing gas from the breathing gas delivery system, wherein the control circuit is configured to operate in a backup mode in which a known constant flow of nitric oxide is independent of the breathing gas flow rate, and wherein when the control circuit is in the backup mode, it is configured to deliver the known constant flow of nitric oxide and estimate a backup dose based on the known constant flow of nitric oxide and the measured flow of breathing gas; and a display in communication with the control circuit that provides the estimate of the backup dose of nitric oxide.
A universal interface arranged to be positioned between a detector and a monitoring-control unit of equipment, said interface comprising: - a connector with at least four input connection points configured for being connected to the detector and comprising a first connection point designed to receive a first electrical potential (V+) and for being connected to a first input of the detector, a second connection point designed to be connected to a first output of the detector for receiving a first detector output signal (S1_D), a third connection point designed to receive a second electrical potential (V-) and for being connected to a second input of the detector, a fourth connection point designed to be connected to a second output of the detector for receiving a second detector output signal (S2_D), - characterized in that it comprises: - a processing unit arranged for converting each detector output signal (S1_D, S2_D) into binary information to be sent to the monitoring-control unit of equipment and which is representative of a switched status or of a non-switched status of each output of the detector, - the processing unit being configured to implement, for each output of the detector, comparison functions allowing to detect the transition to a high potential or the transition to a low potential of each output of the detector, and a logic function allowing the logic of operation of the detector to which the interface is connected to be taken into account. - a connector with at least four input connection points configured for being connected to the detector and comprising a first connection point designed to receive a first electrical potential (V+) and for being connected to a first input of the detector, a second connection point designed to be connected to a first output of the detector for receiving a first detector output signal (S1_D), a third connection point designed to receive a second electrical potential (V-) and for being connected to a second input of the detector, a fourth connection point designed to be connected to a second output of the detector for receiving a second detector output signal (S2_D), - characterized in that it comprises: - a processing unit arranged for converting each detector output signal (S1_D, S2_D) into binary information to be sent to the monitoring-control unit of equipment and which is representative of a switched status or of a non-switched status of each output of the detector, - the processing unit being configured to implement, for each output of the detector, comparison functions allowing to detect the transition to a high potential or the transition to a low potential of each output of the detector, and a logic function allowing the logic of operation of the detector to which the interface is connected to be taken into account.
Wound dressing system 1) for treating a wound, comprising at least a first and a second sheet-like, capillary membrane system, - wherein the first and the second sheet-like capillary membrane systems are in each case connected to at least one supply line (5, 6) so that fluids, media, gases, and/or other substances can be guided through the supply line and the respective capillary membrane system, wherein the wound dressing system further comprises - a first removal container with an outlet, which is detachably connected via a first discharge line, which comprises at least one of the supply lines of the first capillary membrane system, to the first capillary membrane system and via which a rinsing liquid can be supplied to said first capillary membrane system, - a second removal container with an outlet, which is detachably connected via a second discharge line, which comprises at least one of the supply lines of the second capillary membrane system, to the second capillary membrane system and via which a treatment solution can be supplied to said second capillary membrane system, and - a drainage system, which can be coupled to a vacuum unit and via which liquids can be discharged from the wound to be treated. - wherein the first and the second sheet-like capillary membrane systems are in each case connected to at least one supply line (5, 6) so that fluids, media, gases, and/or other substances can be guided through the supply line and the respective capillary membrane system, wherein the wound dressing system further comprises - a first removal container with an outlet, which is detachably connected via a first discharge line, which comprises at least one of the supply lines of the first capillary membrane system, to the first capillary membrane system and via which a rinsing liquid can be supplied to said first capillary membrane system, - a second removal container with an outlet, which is detachably connected via a second discharge line, which comprises at least one of the supply lines of the second capillary membrane system, to the second capillary membrane system and via which a treatment solution can be supplied to said second capillary membrane system, and - a drainage system, which can be coupled to a vacuum unit and via which liquids can be discharged from the wound to be treated.
Heater for the heating and warming of service water with a heat transfer medium which circulates during operation in a circuit, said heating device comprising a burner, comprising a primary heat exchanger for the transferral of the heat generated by the burner to the heat transfer medium, comprising ports for flow pipe and return pipe of a heating circuit of a heat sink, comprising a multi-layered storage tank, wherein by means of the varying density of hot and cold water within the multi-layered storage tank a temperature layering can form, comprising a secondary heat exchanger for the transferral of the heat from the heat transfer medium to the service water which is to be heated and which is stored in the multi-layered storage tank, comprising a pump for the promotion of the heat transfer medium and comprising a valve for guiding the heat transfer medium such that the heat requirement for service water and/or for the heat sink is achieved, characterised in that the secondary heat exchanger is disposed in the circuit in such a way that said secondary heat exchanger in a first position of the valve for achieving the heat requirement of the heat sink in operation can be connected in series with the heat sink, so that the heat transfer medium downstream from the primary heat exchanger flows first through the heat sink and afterwards through the secondary heat exchanger and that in a second position of the valve for achieving the heat requirement for warming service water the heat transfer medium can flow downstream from the primary heat exchanger directly through the secondary heat exchanger, and that the multi-layered storage tank is connected via the ports, with the secondary heat exchanger and a pump such that the pump can circulate the service water stored in a multi-layered storage tank via the ports, so that cold service water from the lower region of the multi-layered storage tank can be promoted to the secondary heat exchanger via the port, so that the heat transfer medium circulating in the circuit, after said heat transfer medium has exited from the heat sink, can be additionally cooled.
A process for producing a stack of a first electrode/active layer/second electrode, which stack is intended for an electronic device, in particular an organic photodetector or an organic solar cell, said process including the following steps: (a) depositing a first conductor layer on the front side of a substrate, in order to form the first electrode; and (b) depositing an active layer taking the form of a thin organic semiconductor layer, this layer including discontinuous zones; (d) depositing a resist layer on that side of the stack which is opposite the substrate, which substrate is at least partially transparent; (e) exposing the resist layer via the back side of said substrate; the first electrode being opaque at the wavelength used for the exposure of the resist layer, the resist being exposed in areas corresponding to areas where the first electrode is not present, (f) developing the resist layer, (g) depositing a second conductor layer in order to form the conductive second electrode, characterized in that: the resist is positive, step (f) leading to the formation of holes in the resist layer level with the discontinuous zones, and step (g) being carried out between steps (b) and (d), a step (h) of etching the conductive second electrode being carried out after step (f). (a) depositing a first conductor layer on the front side of a substrate, in order to form the first electrode; and (b) depositing an active layer taking the form of a thin organic semiconductor layer, this layer including discontinuous zones; (d) depositing a resist layer on that side of the stack which is opposite the substrate, which substrate is at least partially transparent; (e) exposing the resist layer via the back side of said substrate; the first electrode being opaque at the wavelength used for the exposure of the resist layer, the resist being exposed in areas corresponding to areas where the first electrode is not present, (f) developing the resist layer, (g) depositing a second conductor layer in order to form the conductive second electrode,
A method for controlling and/or monitoring a compressor plant comprising a plurality of components, i.e. one compressor or more compressors (11, 12, 13) and one periphery device or more periphery devices (14 to 21), as well as a controlling/monitoring unit, wherein the compressors (11, 12, 13) and the periphery devices (14 to 21) are arranged or interconnected in a certain configuration, - wherein in a measured value detection step, measured values within the compressor plant or the components are detected, - wherein in an allocation step, in each case context information is allocated to the measured value or the measured values prior to, at the same time, or after the measured value detection so as to standardize the measured values, - wherein the standardization of the measured value by allocating context information specifically comprises unequivocally allocating a point of a measured value detection, - wherein the determination of the point of the measured value detection is performed in that the interconnection of the component is known via an initial model of the compressor plant or the interconnection of the elements via an initial model of the component, so that the measured value is then assigned a pre-configured measurement point in this initial model, and - wherein in an exploitation step, the measured value or the measured values standardized by context information is or are taken into consideration in a control, monitoring, diagnostic or evaluation routine. - wherein in a measured value detection step, measured values within the compressor plant or the components are detected, - wherein in an allocation step, in each case context information is allocated to the measured value or the measured values prior to, at the same time, or after the measured value detection so as to standardize the measured values, - wherein the standardization of the measured value by allocating context information specifically comprises unequivocally allocating a point of a measured value detection, - wherein the determination of the point of the measured value detection is performed in that the interconnection of the component is known via an initial model of the compressor plant or the interconnection of the elements via an initial model of the component, so that the measured value is then assigned a pre-configured measurement point in this initial model, and - wherein in an exploitation step, the measured value or the measured values standardized by context information is or are taken into consideration in a control, monitoring, diagnostic or evaluation routine.
A method comprising: sending a random access preamble message, receiving a random access response message (2, 4A) comprising a response to the random access preamble message comprising uplink resource allocation information for scheduling an uplink transmission, characterized by the uplink resource allocation information comprises information identifying at least one individual time subframe allocated for the uplink transmission, wherein the information identifying the at least one individual time subframe is expressed in at least one bit indicating that the at least one individual time subframe is delayed by at least one time frame as compared to a nominal value of subframes; and in response to the at least one bit indicating that the at least one individual time subframe is delayed by at least one time frame as compared to the nominal value, sending the uplink transmission (3, 4B) in the identified at least one individual time subframe, wherein the identified at least one individual time subframe is offset by one or more time subframes as compared to the nominal value of subframes, and wherein the information identifying the at least one individual time subframe is configured to identify at least two individual time subframes. sending a random access preamble message, receiving a random access response message (2, 4A) comprising a response to the random access preamble message comprising uplink resource allocation information for scheduling an uplink transmission, characterized by the uplink resource allocation information comprises information identifying at least one individual time subframe allocated for the uplink transmission, wherein the information identifying the at least one individual time subframe is expressed in at least one bit indicating that the at least one individual time subframe is delayed by at least one time frame as compared to a nominal value of subframes; and in response to the at least one bit indicating that the at least one individual time subframe is delayed by at least one time frame as compared to the nominal value, sending the uplink transmission (3, 4B) in the identified at least one individual time subframe, wherein the identified at least one individual time subframe is offset by one or more time subframes as compared to the nominal value of subframes, and wherein the information identifying the at least one individual time subframe is configured to identify at least two individual time subframes.