mhurhangee/patent-ind-claim-en huggingface dataset:
A method of transferring resource control unit operational control functionality within a single frequency network , in which multiple transmission points transmit identical downlink data packets in a synchronized manner, from a first node, eNB m , to a second node, eNB m+2 , the method characterized by comprising: receiving at a resource control unit a set of resource control information from at least one candidate node; determining using the resource control information a suitability of the at least one candidate node to be the second node; initiating transfer of the resource control unit operational control functionality from the first node to the second node. receiving at a resource control unit a set of resource control information from at least one candidate node; determining using the resource control information a suitability of the at least one candidate node to be the second node; initiating transfer of the resource control unit operational control functionality from the first node to the second node.
Electrical box provided with a body comprising, on the one hand, a support plate comprising a bottom wall provided with means for fastening to a receiving support and a side wall bordering said bottom wall , and, on the other hand, a frame comprising a side wall fixed in means for mounting the side wall of said support plate such that the side wall of the frame extends into the extension of the side wall of the support plate to delimit with the latter, a housing open frontward, adapted to receive an electrical equipment mechanism , characterised in that the side wall of the support plate comprises, to the rear of said means for mounting the frame , at least over some of its perimeter, a double wall comprising an internal wall and an external wall connected to one another at specific places by ridges .
Method for transferring articles of a container into a process chamber of a containment , wherein the containment has at least one passage , preferably two passages , for transfer, wherein the container is pivoted towards the at least one passage by means of a conveying device , characterized in that the conveying device comprises a fork and a pivotable carrier , wherein the carrier is suspended from the fork , and the carrier grips the container underneath and the conveying device pivots the container to the at least one passage .
A fluid application system , comprising: a source of a fluid ; a first pump supplying the fluid under pressure to a supply valve which directs the fluid through a dispensing pipe to an in-line reservoir and to an applicator that includes a nozzle ; a fluid collection system which collects reclaimed fluid dispensed from the applicator ; a second pump providing the reclaimed fluid under pressure to a return fluid pipe having a valve system that selectively directs the reclaimed fluid to one of a reclaimed fluid container and the in-line reservoir from the return fluid pipe ; and a third pump providing the reclaimed fluid under pressure from the in-line reservoir to the applicator . a source of a fluid ; a first pump supplying the fluid under pressure to a supply valve which directs the fluid through a dispensing pipe to an in-line reservoir and to an applicator that includes a nozzle ; a fluid collection system which collects reclaimed fluid dispensed from the applicator ; a second pump providing the reclaimed fluid under pressure to a return fluid pipe having a valve system that selectively directs the reclaimed fluid to one of a reclaimed fluid container and the in-line reservoir from the return fluid pipe ; and a third pump providing the reclaimed fluid under pressure from the in-line reservoir to the applicator .
A computerized system comprising: one or more processors; and one or more computer storage media storing computer-useable instructions that, when used by the one or more processors, cause the one or more processors to: receive , at an SNMP proxy in a first cloud computing environment, a request for telemetry data for a network device in the first cloud computing environment, the request being received from a monitoring service in a second cloud computing environment remote from the first cloud computing environment; obtain , by the SNMP proxy, an SNMP community string for the network device from an access data store maintained in the first cloud computing environment and not accessible to the monitoring service; issue , by the SNMP proxy, a request for the telemetry data to the network device using the SNMP community string; receive , at the SNMP proxy, a response from the network device; and sending the telemetry data from the SNMP proxy to the monitoring service based on the response from the network device. one or more processors; and one or more computer storage media storing computer-useable instructions that, when used by the one or more processors, cause the one or more processors to: receive , at an SNMP proxy in a first cloud computing environment, a request for telemetry data for a network device in the first cloud computing environment, the request being received from a monitoring service in a second cloud computing environment remote from the first cloud computing environment; obtain , by the SNMP proxy, an SNMP community string for the network device from an access data store maintained in the first cloud computing environment and not accessible to the monitoring service; issue , by the SNMP proxy, a request for the telemetry data to the network device using the SNMP community string; receive , at the SNMP proxy, a response from the network device; and sending the telemetry data from the SNMP proxy to the monitoring service based on the response from the network device. receive , at an SNMP proxy in a first cloud computing environment, a request for telemetry data for a network device in the first cloud computing environment, the request being received from a monitoring service in a second cloud computing environment remote from the first cloud computing environment; obtain , by the SNMP proxy, an SNMP community string for the network device from an access data store maintained in the first cloud computing environment and not accessible to the monitoring service; issue , by the SNMP proxy, a request for the telemetry data to the network device using the SNMP community string; receive , at the SNMP proxy, a response from the network device; and sending the telemetry data from the SNMP proxy to the monitoring service based on the response from the network device.
A method for distinguishing mineral wools, comprising the following steps: - providing near infrared spectra (NIR spectra) of glass wool and rock wool as calibration spectra; - providing a sample that comprises glass wool or rock wool; - creating an NIR spectrum of the sample; - defining a decision-making criterion for classifying the sample as glass wool or as rock wool; and - determining, in a computer-assisted manner, the decision-making criterion by way of a multivariate method using the entries in the NIR spectrum of the sample and the NIR spectra as calibration spectra. - providing near infrared spectra (NIR spectra) of glass wool and rock wool as calibration spectra; - providing a sample that comprises glass wool or rock wool; - creating an NIR spectrum of the sample; - defining a decision-making criterion for classifying the sample as glass wool or as rock wool; and - determining, in a computer-assisted manner, the decision-making criterion by way of a multivariate method using the entries in the NIR spectrum of the sample and the NIR spectra as calibration spectra.
Floor structure comprising a resilient damping underlay on a solid base and on the resilient damping underlay a motif top layer connected in a planar manner to the resilient damping underlay and providing a tread surface , wherein the damping underlay is loosely laid on the solid base , and wherein the motif top layer comprises a plurality of top layer webs connected to the damping underlay , characterised in that the damping underlay comprises a plurality of underlay plates arranged with end faces adjacent to one another, and in that at least a part of the adjacently arranged underlay plates are connected to one another by coupling pins engaging in the underlay plates .
Device for reducing a pollutant load in a gas , comprising a gas inlet and a gas outlet , and a disinfection chamber arranged therebetween, through which a gas flow extending from the gas inlet to the gas outlet can flow, wherein an aerosol generating arrangement comprising a capillary material is arranged inside the disinfection chamber so that the gas flow can flow through it, wherein the capillary material extends into a liquid reservoir , which contains a liquid oxidant , and wherein the capillary material is arranged inside the aerosol generating arrangement such that the gas flow is capable of flowing at least essentially parallel past a surface of the capillary material wetted with the liquid oxidant , wherein at least one radiation source for generating ionizing radiation is arranged inside the disinfection chamber , characterized in that a) at least one inner wall of the disinfection chamber is at least partially lined using the capillary material of the aerosol generating arrangement ; and/or b) the aerosol generating arrangement comprises at least one elongated body , formed from the capillary material , which extends through the disinfection chamber . a) at least one inner wall of the disinfection chamber is at least partially lined using the capillary material of the aerosol generating arrangement ; and/or b) the aerosol generating arrangement comprises at least one elongated body , formed from the capillary material , which extends through the disinfection chamber .
An urban waste container comprising an opening device of the type that carries out the automatic opening of a lid hinged to a base of the urban waste container by means of an actuator connected directly to one of the lid or the base and indirectly to the other, characterised in that the indirect connection of the actuator is carried out via a system configured for: absorbing the movement of the actuator in a first direction of movement against a resistance greater than the predefined; and decoupling the movement of the actuator with regard to the lid or the base in a second, opposite direction of movement, in both the opened and closed position of the lid . absorbing the movement of the actuator in a first direction of movement against a resistance greater than the predefined; and decoupling the movement of the actuator with regard to the lid or the base in a second, opposite direction of movement, in both the opened and closed position of the lid .
A method performed by a network node for mobility management, the method comprising: obtaining data samples for modeling a wireless network environment that comprises a plurality of cells; building a machine learning model of the wireless network using the obtained data samples, wherein the machine learning model is trained to determine a sequence of handovers for a wireless device among the plurality of cells for the wireless device to traverse from a source cell to a destination cell, wherein the machine learning model comprises a reinforcement learning, RL, model, wherein using the RL model, an agent interacts with the wireless network environment by choosing actions based on current state of the wireless network environment, the actions including performing handover; receiving mobility information for a wireless device, wherein the mobility information is used as a state of the RL model; determining , using the machine learning model, one or more handover operations for the wireless device based on the mobility information; and transmitting the one or more handover operations to the wireless device. obtaining data samples for modeling a wireless network environment that comprises a plurality of cells; building a machine learning model of the wireless network using the obtained data samples, wherein the machine learning model is trained to determine a sequence of handovers for a wireless device among the plurality of cells for the wireless device to traverse from a source cell to a destination cell, wherein the machine learning model comprises a reinforcement learning, RL, model, wherein using the RL model, an agent interacts with the wireless network environment by choosing actions based on current state of the wireless network environment, the actions including performing handover; receiving mobility information for a wireless device, wherein the mobility information is used as a state of the RL model; determining , using the machine learning model, one or more handover operations for the wireless device based on the mobility information; and transmitting the one or more handover operations to the wireless device.
A method for dynamically adjusting a size of a buffer of a user device, the method comprising: buffering a first segment of a media asset in a buffer having a first buffer size; retrieving metadata associated with a second segment of the media asset; determining, based on retrieved metadata of the second segment of the media asset and a user profile, whether a rewind request is likely to be received during the second segment of the media asset by: identifying a complexity score of the second segment; retrieving a complexity tolerance of a user from a user profile; and in response to determining that the complexity score of the second segment exceeds the complexity tolerance of the user, determining that the rewind request is likely to be received; in response to determining that the rewind request is likely to be received: increasing the size of the buffer to a second buffer size; and buffering the second segment of the media asset in the buffer having the second buffer size; and in response to detecting an end of the second segment, reducing the size of the buffer to the first buffer size. buffering a first segment of a media asset in a buffer having a first buffer size; retrieving metadata associated with a second segment of the media asset; determining, based on retrieved metadata of the second segment of the media asset and a user profile, whether a rewind request is likely to be received during the second segment of the media asset by: identifying a complexity score of the second segment; retrieving a complexity tolerance of a user from a user profile; and in response to determining that the complexity score of the second segment exceeds the complexity tolerance of the user, determining that the rewind request is likely to be received; identifying a complexity score of the second segment; retrieving a complexity tolerance of a user from a user profile; and in response to determining that the complexity score of the second segment exceeds the complexity tolerance of the user, determining that the rewind request is likely to be received; in response to determining that the rewind request is likely to be received: increasing the size of the buffer to a second buffer size; and buffering the second segment of the media asset in the buffer having the second buffer size; and increasing the size of the buffer to a second buffer size; and buffering the second segment of the media asset in the buffer having the second buffer size; and in response to detecting an end of the second segment, reducing the size of the buffer to the first buffer size.
A propulsion device for deploying at least one provided projectile in response to an ignition signal from an ignition signal source , the propulsion device comprising: a conductor , configured to receive the ignition signal from the provided ignition signal source and increase in temperature upon receipt of the ignition signal; a primer material disposed adjacent the conductor within the propulsion device, the primer material configured to ignite in response to the increase in temperature of the conductor, wherein the conductor conducts the ignition signal outside the primer material and ignition of the primer material causes the at least one provided projectile to be deployed; and a primer cup comprising a base axially offset from the conductor, wherein the primer material is positioned within the primer cup between the base of the primer cup and the conductor, and wherein the primer material is configured to produce a rapid expansion of gas on ignition, the rapid expansion of gas creating a propulsion force characterized in that said force acts to separate the primer cup from the propulsion device towards the at least one provided projectile. a conductor , configured to receive the ignition signal from the provided ignition signal source and increase in temperature upon receipt of the ignition signal; a primer material disposed adjacent the conductor within the propulsion device, the primer material configured to ignite in response to the increase in temperature of the conductor, wherein the conductor conducts the ignition signal outside the primer material and ignition of the primer material causes the at least one provided projectile to be deployed; and a primer cup comprising a base axially offset from the conductor, wherein the primer material is positioned within the primer cup between the base of the primer cup and the conductor, and wherein the primer material is configured to produce a rapid expansion of gas on ignition, the rapid expansion of gas creating a propulsion force characterized in that said force acts to separate the primer cup from the propulsion device towards the at least one provided projectile.
Document file having an outer shell and having means for securely holding documents in a receiving region which is surrounded at least partially by the outer shell , wherein the outer shell has at least one aperture whose peripheral edge is provided with a reinforcement element , characterized in that the at least one reinforcement element is of two-part form with a first part , which has a first holding portion bearing against a first side of the outer shell and has a through-passage portion passing through the aperture , and with a second part , which is connected releasably to the first part and has a second holding portion bearing against a second side , facing away from the first side , of the outer shell .
A method of wireless communication, comprising: identifying a physical broadcast channel, PBCH, in a first subframe of a frame, wherein said frame is of time-division duplexing, TDD, frame type or frequency-division duplexing, FDD, frame type; identifying the frame type and a cell-specific reference signal, CRS, pattern of the first subframe; mapping a first repetition of a portion of the PBCH to a symbol period of a first slot or a second slot of the first subframe based on the frame type, the symbol period of the first slot or the second slot of the first subframe comprising a CRS; and transmitting the first subframe. identifying a physical broadcast channel, PBCH, in a first subframe of a frame, wherein said frame is of time-division duplexing, TDD, frame type or frequency-division duplexing, FDD, frame type; identifying the frame type and a cell-specific reference signal, CRS, pattern of the first subframe; mapping a first repetition of a portion of the PBCH to a symbol period of a first slot or a second slot of the first subframe based on the frame type, the symbol period of the first slot or the second slot of the first subframe comprising a CRS; and transmitting the first subframe.
A steering control device that controls a reaction force motor based on a command value calculated according to a steering condition, the reaction force motor being a source of a steering reaction force applied to a steering wheel that is separated in power transmission from a turning shaft , the steering control device comprising: a first calculator configured to calculate a first axial force acting on the turning shaft based on a current value of a turning motor that is a source of a turning force applied to the turning shaft ; the steering control device characterized by further comprising a second calculator configured to calculate a second axial force acting on the turning shaft based on another vehicle state variable different from the current value of the turning motor ; and a third calculator configured to calculate a third axial force that is a final axial force to be reflected in the command value based on the first axial force and the second axial force, wherein the third calculator is configured to, when a specific situation occurs in which a current of the turning motor has to be limited, decrease a reflection degree of the first axial force in the third axial force and increase a reflection degree of the second axial force in the third axial force. a first calculator configured to calculate a first axial force acting on the turning shaft based on a current value of a turning motor that is a source of a turning force applied to the turning shaft ; the steering control device characterized by further comprising a second calculator configured to calculate a second axial force acting on the turning shaft based on another vehicle state variable different from the current value of the turning motor ; and a third calculator configured to calculate a third axial force that is a final axial force to be reflected in the command value based on the first axial force and the second axial force, wherein the third calculator is configured to, when a specific situation occurs in which a current of the turning motor has to be limited, decrease a reflection degree of the first axial force in the third axial force and increase a reflection degree of the second axial force in the third axial force.