mhurhangee/patent-ind-claim-en huggingface dataset:
A geared motor, having - a housing part manufactured by means of a die casting process and - an input shaft , - wherein a first pusher is moved in a first pulling direction and a second pusher is moved in a second pulling direction for demoulding during the die casting process or wherein a first pusher is moved in a first pulling direction and a second pusher is moved in a second pulling direction for demoulding after the die casting process, wherein the housing part has a channel demoulded in the first pulling direction using a first pusher, which channel passes through the wall of the housing and issues into the interior region of the gear, characterised in that a non-zero angle is provided between the first pulling direction and the rotational axis of the input shaft, the amount of the angle being between 5° and 45°, wherein the housing part is connected to a gear cover , wherein the connecting surface is plane, wherein the gear cover is connected to the housing part by means of screws , wherein the plane connecting surface is oriented parallel to the rotational axis of the input shaft and parallel to the rotational axis of the intermediate shaft , wherein the screw axial directions of the screws are oriented parallel to the second pulling direction. having - a housing part manufactured by means of a die casting process and - an input shaft , - wherein a first pusher is moved in a first pulling direction and a second pusher is moved in a second pulling direction for demoulding during the die casting process or wherein a first pusher is moved in a first pulling direction and a second pusher is moved in a second pulling direction for demoulding after the die casting process, wherein the housing part has a channel demoulded in the first pulling direction using a first pusher, which channel passes through the wall of the housing and issues into the interior region of the gear, - a housing part manufactured by means of a die casting process and - an input shaft , - wherein a first pusher is moved in a first pulling direction and a second pusher is moved in a second pulling direction for demoulding during the die casting process or wherein a first pusher is moved in a first pulling direction and a second pusher is moved in a second pulling direction for demoulding after the die casting process, characterised in that a non-zero angle is provided between the first pulling direction and the rotational axis of the input shaft, the amount of the angle being between 5° and 45°, wherein the housing part is connected to a gear cover , wherein the connecting surface is plane, wherein the gear cover is connected to the housing part by means of screws , wherein the plane connecting surface is oriented parallel to the rotational axis of the input shaft and parallel to the rotational axis of the intermediate shaft , wherein the screw axial directions of the screws are oriented parallel to the second pulling direction.
A method of controlling decomposition of artificial or hybrid turf , the method comprising: - providing a completely or partially compostable turf, the turf being a completely or partially compostable artificial turf or a hybrid turf comprising a completely or partially compostable hybrid turf support, the turf comprising a decomposition inhibitor, the decomposition inhibitor in the turf being adapted to lose its decomposition-inhibiting functionality or leave the turf until a defined period of time has elapsed; - adding a decomposition booster other than water to the turf, the decomposition booster being adapted to compost the turf, the decomposition booster being added selectively to one or more sub-areas of the turf but not to other areas of the turf, thereby creating a desired hybrid turf or artificial turf pattern. - providing a completely or partially compostable turf, the turf being a completely or partially compostable artificial turf or a hybrid turf comprising a completely or partially compostable hybrid turf support, the turf comprising a decomposition inhibitor, the decomposition inhibitor in the turf being adapted to lose its decomposition-inhibiting functionality or leave the turf until a defined period of time has elapsed; - adding a decomposition booster other than water to the turf, the decomposition booster being adapted to compost the turf, the decomposition booster being added selectively to one or more sub-areas of the turf but not to other areas of the turf, thereby creating a desired hybrid turf or artificial turf pattern.
A method comprising: detecting , in a host computing system , a transition in the host computing system from a low-power state to a full-power state; receiving, at a non-volatile dual in-line memory module, NVDIMM , of the host computing system, a first nonce value from a processor of the host computing system after the transition; verifying , by a controller of the NVDIMM, referred to herein as the NVDIMM controller, the first nonce value received from the processor; allowing access by the host computing system to data stored on the NVDIMM based on successful verification of the received first nonce value, and wherein the verifying by the NVDIMM controller of the first nonce value comprises comparing the first nonce value against a previous nonce value received by the NVDIMM from the processor. detecting , in a host computing system , a transition in the host computing system from a low-power state to a full-power state; receiving, at a non-volatile dual in-line memory module, NVDIMM , of the host computing system, a first nonce value from a processor of the host computing system after the transition; verifying , by a controller of the NVDIMM, referred to herein as the NVDIMM controller, the first nonce value received from the processor; allowing access by the host computing system to data stored on the NVDIMM based on successful verification of the received first nonce value, and
A user equipment including: - a transmitter configured to transmit a beacon signal, when the user equipment is in a radio resource control, RRC, discontinuous reception, DRX, connected mode; - a receiver configured to receive a downlink control signal, CTRLS, over a downlink control channel, PDCCH, from an access node ; - a processor configured to - switch on the receiver at a time point, t start_symbol , when a symbol comprising the downlink control signal, CTRLS, starts in time domain; and - switch off the receiver at a time point, t end_symbol, when the symbol comprising the downlink control channel signal, CTRLS, ends in time domain; wherein the downlink control signal, CTRLS, includes a wake-up signal, WUB, the processor is further configured to - judge if the wake-up signal, WUB, is for waking up the user equipment ; and - if yes, switch on the receiver at a time point, t WUB , based on the wake-up signal, WUB. - a transmitter configured to transmit a beacon signal, when the user equipment is in a radio resource control, RRC, discontinuous reception, DRX, connected mode; - a receiver configured to receive a downlink control signal, CTRLS, over a downlink control channel, PDCCH, from an access node ; - a processor configured to - switch on the receiver at a time point, t start_symbol , when a symbol comprising the downlink control signal, CTRLS, starts in time domain; and - switch off the receiver at a time point, t end_symbol, when the symbol comprising the downlink control channel signal, CTRLS, ends in time domain; wherein the downlink control signal, CTRLS, includes a wake-up signal, WUB, the processor is further configured to - switch on the receiver at a time point, t start_symbol , when a symbol comprising the downlink control signal, CTRLS, starts in time domain; and - switch off the receiver at a time point, t end_symbol, when the symbol comprising the downlink control channel signal, CTRLS, ends in time domain; wherein the downlink control signal, CTRLS, includes a wake-up signal, WUB, the processor is further configured to - judge if the wake-up signal, WUB, is for waking up the user equipment ; and - if yes, switch on the receiver at a time point, t WUB , based on the wake-up signal, WUB.
A data center system , comprising: a plurality of frame assemblies separated from each other such that they are arranged in separated rows , wherein each one of the separated frame assemblies comprises: a plurality of bays defined along a lengthwise dimension of the frame assembly , the plurality of bays arranged in a plurality of stacked layers of bays , the plurality of stacked layers comprising at least a first layer of bays and a second layer of bays positioned vertically above the first layer of bays ; a plurality of server racks positioned in the bays of the first layer of bays of the frame assemblies, each of the server racks configured to support a plurality of data center server devices that define an amount of computing power; and a plurality of network switches positioned in the bays of the second layer of bays , each of the network switches communicably coupled to at least one of the data center server devices in the first layer of bays of the frame assemblies. a plurality of bays defined along a lengthwise dimension of the frame assembly , the plurality of bays arranged in a plurality of stacked layers of bays , the plurality of stacked layers comprising at least a first layer of bays and a second layer of bays positioned vertically above the first layer of bays ; a plurality of server racks positioned in the bays of the first layer of bays of the frame assemblies, each of the server racks configured to support a plurality of data center server devices that define an amount of computing power; and a plurality of network switches positioned in the bays of the second layer of bays , each of the network switches communicably coupled to at least one of the data center server devices in the first layer of bays of the frame assemblies.
A method of optimizing a radiotherapy treatment plan comprising the steps of a. Obtaining a deliverable input treatment plan (S31, S41), b. Optimizing the deliverable input treatment plan (S34, S44) to obtain an optimized treatment plan, using an objective function (S32, S42) and at least one constraint (S33, S43), characterised in that the objective function is designed to reduce the plan complexity by including at least one of the following: i. minimizing the machine output, ii. minimizing the time required to deliver the plan, iii.maximizing the segment area, iv. minimizing jaggedness of the MLC shapes, c. Whereby the at least one constraint is based on the dose distribution of the input plan and related to maintaining an acceptable dose distribution. a. Obtaining a deliverable input treatment plan (S31, S41), b. Optimizing the deliverable input treatment plan (S34, S44) to obtain an optimized treatment plan, using an objective function (S32, S42) and at least one constraint (S33, S43), characterised in that the objective function is designed to reduce the plan complexity by including at least one of the following: i. minimizing the machine output, ii. minimizing the time required to deliver the plan, iii.maximizing the segment area, iv. minimizing jaggedness of the MLC shapes, i. minimizing the machine output, ii. minimizing the time required to deliver the plan, iii.maximizing the segment area, iv. minimizing jaggedness of the MLC shapes, c. Whereby the at least one constraint is based on the dose distribution of the input plan and related to maintaining an acceptable dose distribution.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, a radio resource control, RRC, message including information on a mapping between sounding reference signal resource indicator, SRI, identifiers, IDs, and pathloss reference signal, RS, IDs; receiving, from the base station, a medium access control, MAC, control element, CE, for updating a mapping between a plurality of SRI IDs of the SRI IDs and one pathloss RS ID of the pathloss RS IDs; receiving, from the base station, downlink control information, DCI, including an SRI indicating a pathloss RS used for physical uplink shared channel, PUSCH, transmission, the pathloss RS being mapped with the SRI; and calculating a PUSCH pathloss by measuring a pathloss RS resource corresponding to the pathloss RS, wherein the MAC CE indicates a plurality of SRI IDs to which the pathloss RS is applied and includes an index indicating the pathloss RS associated with the SRI, an SRI ID which is an index of the SRI associated with the pathloss RS, and an indicator indicating whether there is an additional SRI ID associated with the pathloss RS. receiving, from a base station, a radio resource control, RRC, message including information on a mapping between sounding reference signal resource indicator, SRI, identifiers, IDs, and pathloss reference signal, RS, IDs; receiving, from the base station, a medium access control, MAC, control element, CE, for updating a mapping between a plurality of SRI IDs of the SRI IDs and one pathloss RS ID of the pathloss RS IDs; receiving, from the base station, downlink control information, DCI, including an SRI indicating a pathloss RS used for physical uplink shared channel, PUSCH, transmission, the pathloss RS being mapped with the SRI; and calculating a PUSCH pathloss by measuring a pathloss RS resource corresponding to the pathloss RS, wherein the MAC CE indicates a plurality of SRI IDs to which the pathloss RS is applied and includes an index indicating the pathloss RS associated with the SRI, an SRI ID which is an index of the SRI associated with the pathloss RS, and an indicator indicating whether there is an additional SRI ID associated with the pathloss RS.
A method comprising: receiving beam failure recovery configuration from a base station by a user equipment, in the following also referred to as UE, over an established data connection using a serving beam pair link in a beamforming communication network; monitoring a plurality of reference signals associated with different downlink beams based on the beam failure recovery configuration; transmitting a beam failure recovery request, BFRQ, message to the base station when a triggering condition for beam failure recovery is satisfied; and monitoring a response from the base station, characterized in that the BFRQ message indicates a UE-identified candidate beam pair link and the response from the base station is associated with the UE-identified candidate beam pair link, the triggering condition comprises detecting a beam failure of the serving beam pair link(s) and identifying a new candidate beam pair link, and the beam failure is detected when a block error ratio, BLER, of the serving beam pair link(s) is worse than a first threshold, and the new candidate beam pair link is identified when a reference signal received power, RSRP, of the candidate beam pair link is above a second threshold. receiving beam failure recovery configuration from a base station by a user equipment, in the following also referred to as UE, over an established data connection using a serving beam pair link in a beamforming communication network; monitoring a plurality of reference signals associated with different downlink beams based on the beam failure recovery configuration; transmitting a beam failure recovery request, BFRQ, message to the base station when a triggering condition for beam failure recovery is satisfied; and monitoring a response from the base station, characterized in that the BFRQ message indicates a UE-identified candidate beam pair link and the response from the base station is associated with the UE-identified candidate beam pair link, the triggering condition comprises detecting a beam failure of the serving beam pair link(s) and identifying a new candidate beam pair link, and the beam failure is detected when a block error ratio, BLER, of the serving beam pair link(s) is worse than a first threshold, and the new candidate beam pair link is identified when a reference signal received power, RSRP, of the candidate beam pair link is above a second threshold.
Light module for a motor vehicle headlight , the light module comprising a secondary light unit , a drive unit and a main light unit , the secondary light unit being configured to emit, in a first position (p1), a secondary light distribution (N) from an emission surface of the secondary light unit , and to emit a first main light distribution (H1) from the emission surface of the secondary light unit ; the drive unit being configured to move the secondary light unit relative to a main light unit starting from the first position (p1) in which the secondary light unit covers an emission surface of the main light unit at least in portions, into a second position (p2) in which the coverage of the emission surface of the main light unit by the secondary light unit is reduced; the main light unit being configured to emit a second main light distribution (H2) from the emission surface of the main light unit ; and characterized in that the light module is configured to provide a headlight flasher function in that the first main light distribution (H1) that can be emitted by the secondary light unit is successively replaced by the second main light distribution (H2) that can be emitted by the main light unit during the movement of the secondary light unit from the first position (p1) into the second position (p2). the secondary light unit being configured to emit, in a first position (p1), a secondary light distribution (N) from an emission surface of the secondary light unit , and to emit a first main light distribution (H1) from the emission surface of the secondary light unit ; the drive unit being configured to move the secondary light unit relative to a main light unit starting from the first position (p1) in which the secondary light unit covers an emission surface of the main light unit at least in portions, into a second position (p2) in which the coverage of the emission surface of the main light unit by the secondary light unit is reduced; the main light unit being configured to emit a second main light distribution (H2) from the emission surface of the main light unit ; and characterized in that the light module is configured to provide a headlight flasher function in that the first main light distribution (H1) that can be emitted by the secondary light unit is successively replaced by the second main light distribution (H2) that can be emitted by the main light unit during the movement of the secondary light unit from the first position (p1) into the second position (p2).
Connection assembly , comprising: - a composite pane composed of a first pane and a second pane , which are connected to an intermediate layer , - an electro-optical functional element having an active layer arranged between two surface electrodes , which electro-optical functional element is arranged between the first pane and the second pane , wherein a single flexible bus bar in the form of a strip is applied on each of the two surface electrodes , wherein the bus bar is folded over and routed out of the composite pane . - a composite pane composed of a first pane and a second pane , which are connected to an intermediate layer , - an electro-optical functional element having an active layer arranged between two surface electrodes , which electro-optical functional element is arranged between the first pane and the second pane ,
A module for an additive manufacturing apparatus in which material is consolidated as part of a layer-by-layer additive manufacturing process; comprising a lower face having an aperture , a module window within the aperture and more than one optical train, each optical train providing a route for a laser beam to pass through the module and comprising steering optics for steering the laser beam towards the material to be consolidated, characterised in that the laser beams are directed through the single aperture common to the more than one optical train; wherein the module is configured to deliver laser beams from the more than one optical train through a single window in a build chamber of the additive manufacturing apparatus. comprising a lower face having an aperture , a module window within the aperture and more than one optical train, each optical train providing a route for a laser beam to pass through the module and comprising steering optics for steering the laser beam towards the material to be consolidated, characterised in that the laser beams are directed through the single aperture common to the more than one optical train; wherein the module is configured to deliver laser beams from the more than one optical train through a single window in a build chamber of the additive manufacturing apparatus.
A load control device for controlling power delivered from an alternating-current, AC, power source to an electrical load , the load control device comprising: a controllably conductive device adapted to be coupled between the AC power source and the electrical load for conducting a load current through the electrical load to control the power delivered to the electrical load ; a control circuit configured to control the controllably conductive device using a forward phase-control dimming technique, the control circuit configured to control the controllably conductive device to be non-conductive at the beginning of each half-cycle of the AC power source and to render the controllably conductive device conductive at a firing time during each half-cycle; and an overcurrent protection circuit coupled to the controllably conductive device and configured to render the controllably conductive device non-conductive in the event of an overcurrent condition in the controllably conductive device , characterized in that the overcurrent protection circuit is configured to receive an enable control signal for disabling the overcurrent protection circuit when the controllably conductive device is non-conductive and enabling the overcurrent protection circuit after the firing time when the controllably conductive device is rendered conductive during each half-cycle. a controllably conductive device adapted to be coupled between the AC power source and the electrical load for conducting a load current through the electrical load to control the power delivered to the electrical load ; a control circuit configured to control the controllably conductive device using a forward phase-control dimming technique, the control circuit configured to control the controllably conductive device to be non-conductive at the beginning of each half-cycle of the AC power source and to render the controllably conductive device conductive at a firing time during each half-cycle; and an overcurrent protection circuit coupled to the controllably conductive device and configured to render the controllably conductive device non-conductive in the event of an overcurrent condition in the controllably conductive device ,
Apparatus for inductive power transfer, comprising a power transfer coil for contactless power transfer, a magnetic shield for shaping a first electromagnetic field of the power transfer coil and a foreign object detecting device , the foreign object detecting device comprising a means for generating a second electromagnetic field to detect foreign objects in a predetermined space, a plurality of detection coils coupled in respective tank circuits configured to sense the second electromagnetic field, and a switching device configured to selectively close the tank circuits, characterised in that at least one coil of the plurality of detection coils has a cross section and/or a number of windings different from another one of the plurality of detection coils, in that each coil of the plurality of detection coils is configured for having a substantially equal self-inductance and in that the tank circuits have a substantially equal resonance frequency.
Betaine composition, containing: • between 40 and 85 wt.% betaine; • between 1 and 20 wt.% fructan; and • between 1 and 30 wt.% glucose and/or fructose. • between 40 and 85 wt.% betaine; • between 1 and 20 wt.% fructan; and • between 1 and 30 wt.% glucose and/or fructose.