mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting scheduling information, comprising: acquiring information about a scheduling result of resources to be occupied by one or more User Equipment, UEs (S302); and transmitting, according to the information about the scheduling result, scheduling information comprising a first type of scheduling information and a second type of scheduling information to the one or more UEs, wherein the first type of scheduling information comprises information for parsing the second type of scheduling information, and the scheduling information determines a resource scheduling condition of the one or more UEs (S304); wherein the first type of scheduling information comprises first frequency domain resource indicator information of a user specific scheduling information area, wherein the user specific scheduling information area refers to an entire bandwidth area occupied by user specific scheduling information of all of one or more UEs that are currently scheduled, and the first frequency domain resource indicator information is used to indicate whether a specified bandwidth position on a total bandwidth is scheduled. acquiring information about a scheduling result of resources to be occupied by one or more User Equipment, UEs (S302); and transmitting, according to the information about the scheduling result, scheduling information comprising a first type of scheduling information and a second type of scheduling information to the one or more UEs, wherein the first type of scheduling information comprises information for parsing the second type of scheduling information, and the scheduling information determines a resource scheduling condition of the one or more UEs (S304); wherein the first type of scheduling information comprises first frequency domain resource indicator information of a user specific scheduling information area, wherein the user specific scheduling information area refers to an entire bandwidth area occupied by user specific scheduling information of all of one or more UEs that are currently scheduled, and the first frequency domain resource indicator information is used to indicate whether a specified bandwidth position on a total bandwidth is scheduled.
Method for chamfering tooth edges of a bevel gear in a numerically-controllable bevel gear cutting machine comprising the following steps: - employing a deburring tool (60, 60.1, 60.2) in a first pass to create first chamfers in the region of the tooth edges , - employing a deburring tool (60, 60.1, 60.2) in a second pass to create second chamfers in the region of the first chamfers , wherein the first chamfers together with the second chamfers form double facets, which extend substantially in parallel to one another. - employing a deburring tool (60, 60.1, 60.2) in a first pass to create first chamfers in the region of the tooth edges , - employing a deburring tool (60, 60.1, 60.2) in a second pass to create second chamfers in the region of the first chamfers ,
A container carrier for securing together and carrying multiple containers, the container carrier comprising an integrally molded body with a top surface , a bottom surface , and a plurality of annular structures ,each annular structure being connected to at least one adjacent annular structure of the plurality of annular structures by a bridge , each annular structure having a circumferential rib with a plurality of flanges coupled to the circumferential rib , each flange including a portion which projects inwardly of the annular structure , an inner perimeter of each flange being formed to have an arcuate shape, and the inner perimeters of the flanges being collectively configured to define a void ; and an integrally formed handle with a graspable region and a bifurcated region that bifurcates into a pair of arms , each arm of the pair of arms connecting to the body of the container carrier at a connection point, and the pair of arms flexing to allow an intersection of the bifurcated region and graspable region to move, thereby accommodating a downward flexion of the graspable region of the handle when a downward biasing force is applied to the handle in a biased state, characterized in that : the handle extends in an upward orientation from the body of the container carrier , and each arm supports the graspable region in an upright configuration in an unbiased state.
An indoor unit for an air-conditioning apparatus, comprising: a casing having an air inlet formed in an upper surface of the casing and an air outlet formed below the air inlet ; an axial-flow fan provided downstream of the air inlet and including a plurality of blades ; a heat exchanger provided at a position downstream of the axial-flow fan and upstream of the air outlet ; a plurality of filters provided to the air inlet to remove dust from air sucked into the casing by the axial-flow fan ; and a bar provided on at least one of upstream of the plurality of filters and downstream of the plurality of filters in the air inlet provided upstream of the axial-flow fan ; wherein leading edge portions of the plurality of blades are inclined in a direction of rotation of the axial-flow fan from the rotary shaft side of the axial-flow fan to an outer peripheral side in plan view, characterized in that the bar includes a plurality of first bars radially extending from a rotary shaft of the axial-flow fan in plan view; the plurality of first bars are inclined in a direction opposite to the direction of rotation of the axial-flow fan from the rotary shaft side of the axial-flow fan to the outer peripheral side in plan view; and the bar includes no other bars inclined in another direction than said direction wherein the plurality of first bars are inclined. a casing having an air inlet formed in an upper surface of the casing and an air outlet formed below the air inlet ; an axial-flow fan provided downstream of the air inlet and including a plurality of blades ; a heat exchanger provided at a position downstream of the axial-flow fan and upstream of the air outlet ; a plurality of filters provided to the air inlet to remove dust from air sucked into the casing by the axial-flow fan ; and a bar provided on at least one of upstream of the plurality of filters and downstream of the plurality of filters in the air inlet provided upstream of the axial-flow fan ; wherein leading edge portions of the plurality of blades are inclined in a direction of rotation of the axial-flow fan from the rotary shaft side of the axial-flow fan to an outer peripheral side in plan view, characterized in that the bar includes a plurality of first bars radially extending from a rotary shaft of the axial-flow fan in plan view; the plurality of first bars are inclined in a direction opposite to the direction of rotation of the axial-flow fan from the rotary shaft side of the axial-flow fan to the outer peripheral side in plan view; and the bar includes no other bars inclined in another direction than said direction wherein the plurality of first bars are inclined.
A method for handling a network slice specific authentication and authorization, NSSAA, procedure by a source access and mobility function, AMF, entity in a wireless communication system, the method comprising: identifying (S902) that the NSSAA procedure is ongoing for at least one single network slice selection assistance information, S-NSSAI; identifying that an inter-AMF handover procedure is triggered from the source AMF entity to a target AMF entity; and transferring (S908), to the target AMF entity, a NSSAA status list for the at least one S-NSSAI to inform that a NSSAA status of the at least one S-NSSAI is pending, during the inter-AMF handover procedure. identifying (S902) that the NSSAA procedure is ongoing for at least one single network slice selection assistance information, S-NSSAI; identifying that an inter-AMF handover procedure is triggered from the source AMF entity to a target AMF entity; and transferring (S908), to the target AMF entity, a NSSAA status list for the at least one S-NSSAI to inform that a NSSAA status of the at least one S-NSSAI is pending, during the inter-AMF handover procedure.
A rat, animal and/or insect trapping device comprising: a receptacle capable of holding and trapping a rat, animal and/or insect; a first sealable opening through which a rat, animal and/or insect is capable of entering the receptacle; characterized with: a device for removing air once a rat, animal and/or insect is trapped inside the receptacle allowing decompression to occur and graduated hypoxia of the trapped rat, animal and/ or insect; and wherein the rat, animal and/or insect is killed by removing air from the enclosure and wherein there is a decompression level of -0.7 Bar to -0.88 Bar in the receptacle. a receptacle capable of holding and trapping a rat, animal and/or insect; a first sealable opening through which a rat, animal and/or insect is capable of entering the receptacle; characterized with: a device for removing air once a rat, animal and/or insect is trapped inside the receptacle allowing decompression to occur and graduated hypoxia of the trapped rat, animal and/ or insect; and wherein the rat, animal and/or insect is killed by removing air from the enclosure and wherein there is a decompression level of -0.7 Bar to -0.88 Bar in the receptacle.
A radial diffuser exhaust system for use with a gas turbine engine, comprising: a radial diffuser comprising an inner diffuser guide , an outer diffuser guide , and a plurality of support struts therebetween; wherein the outer diffuser guide comprises an upstream expansion angle and a downstream expansion angle ; the inner diffuser guide and the outer diffuser guide each comprise a conical section and a radial guide section , wherein the inner diffuser guide and the outer diffuser guide comprise a flow path therebetween and wherein the flow path increases in area in a downstream direction; and the outer diffuser guide comprises an upper deflector lip with a slanted configuration, wherein the upstream expansion angle is upstream of a leading edge of the plurality of support struts and the downstream expansion angle is downstream of the leading edge of the plurality of support struts ; and characterized in that : the upstream expansion angle is larger than the downstream expansion angle ; and the radial diffuser exhaust system further comprises an exhaust collector with the radial diffuser positioned asymmetrically therein. a radial diffuser comprising an inner diffuser guide , an outer diffuser guide , and a plurality of support struts therebetween; wherein the outer diffuser guide comprises an upstream expansion angle and a downstream expansion angle ; the inner diffuser guide and the outer diffuser guide each comprise a conical section and a radial guide section , wherein the inner diffuser guide and the outer diffuser guide comprise a flow path therebetween and wherein the flow path increases in area in a downstream direction; and the outer diffuser guide comprises an upper deflector lip with a slanted configuration, wherein the upstream expansion angle is upstream of a leading edge of the plurality of support struts and the downstream expansion angle is downstream of the leading edge of the plurality of support struts ; and characterized in that : the upstream expansion angle is larger than the downstream expansion angle ; and the radial diffuser exhaust system further comprises an exhaust collector with the radial diffuser positioned asymmetrically therein. the upstream expansion angle is larger than the downstream expansion angle ; and the radial diffuser exhaust system further comprises an exhaust collector with the radial diffuser positioned asymmetrically therein.
A method implemented by a network device in a communication network to protect a vehicle from insertion of malicious operations, the method comprising: establishing, by a virtual vehicle entity executed by the network device, a communication session with a requestor, the virtual vehicle entity operating as a proxy for the vehicle, wherein a location of the network device is in proximity to the vehicle; receiving, by the virtual vehicle entity, status information from the vehicle via a radio access network; querying, by the virtual vehicle entity, a deep learning platform with the status information and a message from the requestor; and dropping, by the virtual vehicle entity, the message from the requestor in response to the deep learning platform indicating the message is malicious. establishing, by a virtual vehicle entity executed by the network device, a communication session with a requestor, the virtual vehicle entity operating as a proxy for the vehicle, wherein a location of the network device is in proximity to the vehicle; receiving, by the virtual vehicle entity, status information from the vehicle via a radio access network; querying, by the virtual vehicle entity, a deep learning platform with the status information and a message from the requestor; and dropping, by the virtual vehicle entity, the message from the requestor in response to the deep learning platform indicating the message is malicious.
A prosthetic heart valve device for implantation at a native mitral valve, the native mitral valve having an annulus and leaflets, comprising: an anchoring member being a first outer frame positionable in a location between the leaflets, the anchoring member having a first portion and a second portion , wherein the first portion of the anchoring member defines an upstream portion of the anchoring member and the second portion of the anchoring member defines a downstream portion of the anchoring member, wherein the first portion of the anchoring member is configured such that it is expandable to a dimension larger than a corresponding dimension of the annulus such that upstream movement of the anchoring member is blocked by engagement of the first portion of the anchoring member with tissue on or near the annulus; a valve support being a second inner frame coupled to the second portion of the anchoring member , wherein the valve support is spaced radially inward from at least the first portion of the anchoring member, and wherein the valve support is configured to support a prosthetic valve . an anchoring member being a first outer frame positionable in a location between the leaflets, the anchoring member having a first portion and a second portion , wherein the first portion of the anchoring member defines an upstream portion of the anchoring member and the second portion of the anchoring member defines a downstream portion of the anchoring member, wherein the first portion of the anchoring member is configured such that it is expandable to a dimension larger than a corresponding dimension of the annulus such that upstream movement of the anchoring member is blocked by engagement of the first portion of the anchoring member with tissue on or near the annulus; a valve support being a second inner frame coupled to the second portion of the anchoring member , wherein the valve support is spaced radially inward from at least the first portion of the anchoring member, and wherein the valve support is configured to support a prosthetic valve .
A method for shifting gears of a transmission in a vehicle , comprising the following steps: determining that the rpm level of the vehicle engine lies within an rpm range for engaging a new gear, predicting , by simulating the shift of gears, what the lowest rpm would be after shifting to the new gear, were the shift of gears to be performed, calculating a threshold rpm at which the vehicle engine will generate a propulsive force corresponding to the running resistance of the vehicle, and preventing a shift to the new gear when the predicted lowest rpm is below the calculated threshold rpm . determining that the rpm level of the vehicle engine lies within an rpm range for engaging a new gear, predicting , by simulating the shift of gears, what the lowest rpm would be after shifting to the new gear, were the shift of gears to be performed, calculating a threshold rpm at which the vehicle engine will generate a propulsive force corresponding to the running resistance of the vehicle, and preventing a shift to the new gear when the predicted lowest rpm is below the calculated threshold rpm .
A polymer polyol comprising the free-radical polymerization product of: (a) one or more base polyols comprising one or more amine initiated polyols wherein the amine initiator is free of tertiary amine groups and said amine initiated polyols have an equivalent weight of less than 500 Da; (b) at least one preformed stabilizer; (c) one or more ethylenically unsaturated monomers; in the presence of (d) at least one free radical polymerization catalyst; and, optionally, (e) one or more polymer control agents. (a) one or more base polyols comprising one or more amine initiated polyols wherein the amine initiator is free of tertiary amine groups and said amine initiated polyols have an equivalent weight of less than 500 Da; (b) at least one preformed stabilizer; (c) one or more ethylenically unsaturated monomers; in the presence of (d) at least one free radical polymerization catalyst; and, optionally, (e) one or more polymer control agents.
An integrated circuit for operating a headset connectable to a consumer audio device output jack , the integrated circuit comprising: terminals for connection to a plug for connection to the consumer audio device output jack , the terminals including at least one output terminal for receiving at least one audio output signal and at least one microphone terminal for coupling to an audio input terminal of the consumer audio device output jack , and wherein the terminals further comprise at least one terminal for connection to at least one corresponding output transducer (SP1, SP2) for providing at least one audio transducer output signal to the corresponding transducer (SP1, SP2); an audio output circuit including at least one analog-to-digital converter (ADC1, ADC2) for converting the at least one audio output signal to at least one digital representation and at least one digital-to-analog converter circuit (DAC1, DAC2) for generating the at least one audio transducer output signal; a microphone terminal voltage detector for detecting a presence of a microphone bias voltage at the at least one microphone terminal ; and a power management control circuit for controlling an operating state of the headset and having an input coupled to an output of the microphone terminal voltage detector , wherein the power management control circuit is adapted to control a power management state of the at least one analog-to-digital converter (ADC1, ADC2) in conformity with the detected presence of the microphone bias voltage of the at least one microphone terminal . terminals for connection to a plug for connection to the consumer audio device output jack , the terminals including at least one output terminal for receiving at least one audio output signal and at least one microphone terminal for coupling to an audio input terminal of the consumer audio device output jack , and wherein the terminals further comprise at least one terminal for connection to at least one corresponding output transducer (SP1, SP2) for providing at least one audio transducer output signal to the corresponding transducer (SP1, SP2); an audio output circuit including at least one analog-to-digital converter (ADC1, ADC2) for converting the at least one audio output signal to at least one digital representation and at least one digital-to-analog converter circuit (DAC1, DAC2) for generating the at least one audio transducer output signal; a microphone terminal voltage detector for detecting a presence of a microphone bias voltage at the at least one microphone terminal ; and a power management control circuit for controlling an operating state of the headset and having an input coupled to an output of the microphone terminal voltage detector , wherein the power management control circuit is adapted to control a power management state of the at least one analog-to-digital converter (ADC1, ADC2) in conformity with the detected presence of the microphone bias voltage of the at least one microphone terminal .
An adhesive sheet comprising a support substrate, an adhesive agent layer (X), a continuous void-containing layer composed of a composition containing an adhesive agent and silica particles, and an adhesive agent layer (Y) that are laminated in this order, wherein the content by mass of the silica particles in the continuous void-containing layer is from 25 to 60%, wherein the silica particles are constituted of secondary particles having voids existing in the particles, wherein the silica particles that are a material forming the continuous void-containing layer have a volume-average secondary particle size of 0.5 to 10 μm, and the volume-average secondary particle size of the silica particles is determined by measuring the particle size distribution using Multisizer 3 (manufactured by Beckman Coulter, Inc.) in accordance with the Coulter counter method.
A surgical system, comprising: a surgical evacuation system , comprising: a pump ; a motor operably coupled to said pump; a flow path fluidically coupled to said pump; and a sensor positioned along said flow path, wherein said sensor is configured to monitor a particulate concentration of a fluid flowing along said flow path; a generator operably configured to supply power, such as an energy waveform, to an electrosurgical instrument ; a control circuit configured to: receive the particulate concentration from said sensor; and adjust the power, such as an energy waveform, supplied by said generator in response to the particulate concentration received from said sensor; characterised in that the surgical system further comprises a surgical hub , the surgical hub comprising a situational awareness module, wherein the situational awareness module is configured to provide situational awareness information to the surgical evacuation system, and wherein the surgical evacuation system is configured to use the situational awareness information to facilitate tuning parameters of said sensor. a surgical evacuation system , comprising: a pump ; a motor operably coupled to said pump; a flow path fluidically coupled to said pump; and a sensor positioned along said flow path, wherein said sensor is configured to monitor a particulate concentration of a fluid flowing along said flow path; a pump ; a motor operably coupled to said pump; a flow path fluidically coupled to said pump; and a sensor positioned along said flow path, wherein said sensor is configured to monitor a particulate concentration of a fluid flowing along said flow path; a generator operably configured to supply power, such as an energy waveform, to an electrosurgical instrument ; a control circuit configured to: receive the particulate concentration from said sensor; and adjust the power, such as an energy waveform, supplied by said generator in response to the particulate concentration received from said sensor; receive the particulate concentration from said sensor; and adjust the power, such as an energy waveform, supplied by said generator in response to the particulate concentration received from said sensor; characterised in that the surgical system further comprises a surgical hub , the surgical hub comprising a situational awareness module, wherein the situational awareness module is configured to provide situational awareness information to the surgical evacuation system, and wherein the surgical evacuation system is configured to use the situational awareness information to facilitate tuning parameters of said sensor.