mhurhangee/patent-ind-claim-en huggingface dataset:
A method for estimating the state of health (SOH) of an electrochemical element, comprising: - an initiation of a charge or discharge operation of the electrochemical element; - a measurement of values representing deformations of the electrochemical element while the charge or discharge operation is being performed, the measured deformation values forming a deformations image signal as a function of the quantity of electricity passing through the electrochemical element over time; - a comparison between the deformations image signal and a reference image signal, one or more differences obtained by the comparison characterizing an estimate of the aging of the electrochemical element by an estimate of growth of a passivation layer (SEI) SEIGrowth[N] and an estimation of a negative capacity loss C neg_loss [N]. - an initiation of a charge or discharge operation of the electrochemical element; - a measurement of values representing deformations of the electrochemical element while the charge or discharge operation is being performed, the measured deformation values forming a deformations image signal as a function of the quantity of electricity passing through the electrochemical element over time; - a comparison between the deformations image signal and a reference image signal, one or more differences obtained by the comparison characterizing an estimate of the aging of the electrochemical element by an estimate of growth of a passivation layer (SEI) SEIGrowth[N] and an estimation of a negative capacity loss C neg_loss [N].
A radio network node , for channel estimation of a channel used for wireless signal communication between a user equipment and the radio network node in a wireless communication system , which radio network node comprises a multiple antenna array configured for beamforming, spatial multiplexing and Multiple Input Multiple Output, MIMO, transmission, wherein the radio network node further comprises: a receiver , configured for receiving a first pilot signal from the user equipment , and a wireless signal from an interferer ; and also configured for receiving a second pilot signal from the user equipment at a determined angle of arrival, filtered by a receiver pre-filter; and a processor configured for spatial analysing the received first pilot signal; and configured for selecting the first pilot signal from the user equipment , based on the spatial analysis; and additionally configured for determining an angle of arrival for the selected first pilot signal; and furthermore configured for designing the receiver pre-filter, for isolating the first pilot signal received from the determined angle of arrival; and also further configured for estimating the channel, based on the received second pilot signal; wherein the first pilot signal of the user equipment is comprised in a set of orthogonal pilot signals coordinated between the radio network node and a neighbour network node , and the second pilot signal is not comprised in the set of orthogonal pilot signals coordinated between the radio network node and the neighbour network node . a receiver , configured for receiving a first pilot signal from the user equipment , and a wireless signal from an interferer ; and also configured for receiving a second pilot signal from the user equipment at a determined angle of arrival, filtered by a receiver pre-filter; and a processor configured for spatial analysing the received first pilot signal; and configured for selecting the first pilot signal from the user equipment , based on the spatial analysis; and additionally configured for determining an angle of arrival for the selected first pilot signal; and furthermore configured for designing the receiver pre-filter, for isolating the first pilot signal received from the determined angle of arrival; and also further configured for estimating the channel, based on the received second pilot signal; wherein the first pilot signal of the user equipment is comprised in a set of orthogonal pilot signals coordinated between the radio network node and a neighbour network node , and the second pilot signal is not comprised in the set of orthogonal pilot signals coordinated between the radio network node and the neighbour network node .
A double-layer keg, comprising a rigid outer barrel fixed with a base and a plastic inner barrel disposed in the outer barrel , the outer barrel having a brace supporting a bottom periphery portion of the inner barrel , a spear structure being installed at an inner barrel opening of the inner barrel and the inner barrel having a shoulder and a neck arranged around the inner barrel opening; an inner surface of an upper portion of the outer barrel is pressed against an outer surface of the shoulder and/or the neck of the inner barrel and an expansion space allowing an inner barrel bottom to expand downward is disposed between the base and the bottom portion of the inner barrel at an inner side of the brace , the base has an annular slot in a circumferential direction, an opening of the slot faces upward, a lower end edge of the outer barrel is inserted downwardly in the slot , and an outer surface of the lower end of the outer barrel is tightly fitted with a slot wall of the slot of the base , characterized in that the expansion space is capable of being adjusted by changing the insertion of the outer barrel in the annular slot through the downward expansion of the inner barrel deforming and abutting against the base .
A surgical instrument , comprising: an end effector assembly , including: a first jaw member ; and a second jaw member including an ultrasonic blade body the ultrasonic blade body is adapted to receive ultrasonic energy from an ultrasonic waveguide wherein the first jaw member is movable relative to the second jaw member between a spaced-apart position and an approximated position for grasping tissue therebetween, characterised by said second jaw member including first and second electrodes disposed on either side of the ultrasonic blade body , and extending longitudinally along a majority of a length of the ultrasonic blade body , said first and second electrodes tapering in width proximally to distally and adapted to connect to a source of electrosurgical energy. an end effector assembly , including: a first jaw member ; and a second jaw member including an ultrasonic blade body the ultrasonic blade body is adapted to receive ultrasonic energy from an ultrasonic waveguide a first jaw member ; and a second jaw member including an ultrasonic blade body the ultrasonic blade body is adapted to receive ultrasonic energy from an ultrasonic waveguide wherein the first jaw member is movable relative to the second jaw member between a spaced-apart position and an approximated position for grasping tissue therebetween, characterised by said second jaw member including first and second electrodes disposed on either side of the ultrasonic blade body , and extending longitudinally along a majority of a length of the ultrasonic blade body , said first and second electrodes tapering in width proximally to distally and adapted to connect to a source of electrosurgical energy.
Rechargeable battery pack unit comprising at least one rechargeable battery cell , which has at least one cell pole , comprising a current collector , wherein the cell pole is integrally bonded to the current collector in a bonding region , wherein a ratio of a wall thickness of the cell pole to a thickness of the current collector is at most 2.0, and the current collector is made of copper, wherein the cell pole is made of stainless steel or deep-drawn steel and/or the bonding region comprises at least one weld seam , in particular a single weld seam , having a single starting point and a single end point , wherein the weld seam has a uniform width over at least 90% of its length, in particular its entire length.
A torque link assembly for a shock strut assembly of a landing gear assembly , the torque link assembly comprising: an upper torque link defining a first upper hydraulic fluid channel; a lower torque link defining a first lower hydraulic fluid channel; and a torque link pin fluidly coupling the first upper hydraulic fluid channel to the first lower hydraulic fluid channel, wherein the torque link pin defines a first internal pin channel , and wherein the first internal pin channel provides a fluid connection between an inlet of the torque link pin and an outlet of the torque link pin; and wherein an outer circumferential surface of the torque link pin defines an upper link groove , the upper link groove being located at an outlet of the first upper hydraulic fluid channel, and wherein the upper link groove is configured to allow hydraulic fluid to flow from the upper hydraulic fluid channel into the first internal pin channel when the outlet of the upper hydraulic fluid channel is circumferentially offset from the inlet of the torque link pin . an upper torque link defining a first upper hydraulic fluid channel; a lower torque link defining a first lower hydraulic fluid channel; and a torque link pin fluidly coupling the first upper hydraulic fluid channel to the first lower hydraulic fluid channel, wherein the torque link pin defines a first internal pin channel , and wherein the first internal pin channel provides a fluid connection between an inlet of the torque link pin and an outlet of the torque link pin; and wherein an outer circumferential surface of the torque link pin defines an upper link groove , the upper link groove being located at an outlet of the first upper hydraulic fluid channel, and wherein the upper link groove is configured to allow hydraulic fluid to flow from the upper hydraulic fluid channel into the first internal pin channel when the outlet of the upper hydraulic fluid channel is circumferentially offset from the inlet of the torque link pin .
A system comprising; a plurality of modular subassemblies and a precision mounting plate ; wherein each modular subassembly comprises an enclosure and a plurality of optical components aligned to the enclosure, and the enclosure comprises a plurality of precision mounting structures; and wherein each modular subassembly is mechanically coupled to the precision mounting plate by attachment of a mounting structure of a modular subassembly directly to a corresponding precision mounting structure located on the precision mounting plate, characterized in that by mechanically coupling each modular subassembly to the precision mounting plate using the mounting structure of a respective modular subassembly and the corresponding mounting structure on the precision mounting plate, adjacent modular subassemblies are aligned to each other upon such attachment, and wherein two of the modular subassemblies mechanically coupled to the precision mounting plate are also attached to each other by mechanically coupling a precision alignment structure on one of the two modular subassemblies to a respective alignment structure on the other of the two modular subassemblies; wherein a first one of the modular subassemblies comprises a first light source operating at a first wavelength, a second light source operating at a second wavelength, and a single beam shaping lens aligned to the first light source and second light source such that light beams output from the first light source and the second light source are directed through the single beam shaping lens ; and wherein a second one of the modular subassemblies comprises an objective lens optically coupled to the single beam shaping lens in the first one of the modular subassemblies, and a tube lens optically coupled to the objective lens, the objective lens to focus light onto a flow cell positioned at a predetermined distance from the objective lens . a plurality of modular subassemblies and a precision mounting plate ; wherein each modular subassembly comprises an enclosure and a plurality of optical components aligned to the enclosure, and the enclosure comprises a plurality of precision mounting structures; and wherein each modular subassembly is mechanically coupled to the precision mounting plate by attachment of a mounting structure of a modular subassembly directly to a corresponding precision mounting structure located on the precision mounting plate, characterized in that by mechanically coupling each modular subassembly to the precision mounting plate using the mounting structure of a respective modular subassembly and the corresponding mounting structure on the precision mounting plate, adjacent modular subassemblies are aligned to each other upon such attachment, and wherein two of the modular subassemblies mechanically coupled to the precision mounting plate are also attached to each other by mechanically coupling a precision alignment structure on one of the two modular subassemblies to a respective alignment structure on the other of the two modular subassemblies;
An organic light-emitting device, comprising: a substrate ; a first sub-pixel (SP1), a second sub-pixel (SP2), and a third sub-pixel (SP3); a first electrode disposed in each of the first, second and third sub-pixels; a second electrode disposed opposite to each of the first electrodes ; a first organic emission layer , a second organic emission layer and a third organic emission layer , each disposed between the first electrode and the second electrode , the third organic emission layer being disposed as a common layer for the first sub-pixel (SP1), the second sub-pixel (SP2) and the third sub-pixel (SP3), the first organic emission layer being disposed in the first sub-pixel (SP1) on the third organic emission layer , the second organic emission layer being disposed in the second sub-pixel (SP2) on the third organic emission layer ; a first resonance auxiliary layer disposed between the third organic emission layer and the first organic emission layer ; a second resonance auxiliary layer disposed between the third organic emission layer and the second organic emission layer ; a first doping auxiliary layer disposed between the third organic emission layer and the first resonance auxiliary layer ; a second doping auxiliary layer disposed between the third organic emission layer and the second resonance auxiliary layer ; characterized in that the first doping auxiliary layer and the second doping auxiliary layer each independently comprise a hole transporting material and a p-type dopant; and wherein the first resonance auxiliary layer and the second resonance auxiliary layer have thicknesses corresponding to resonance distances of the first sub-pixel (SP1) and the second sub-pixel (SP2), respectively.
A manufacturing method for a dental object (100-2), comprising the steps of: - generating (S101) a digital dental object (100-1) in a coordinate system that describes a shape of the dental object (100-2) to be manufactured; - rotating (S102) the spatial orientation of the digital dental object (100-1) in the coordinate system based on a digital reference object (100-R) in the coordinate system, wherein the orientation of the digital dental object (100-R) in the coordinate system is rotated until a spatial deviation between the digital dental object (100-1) and the digital reference object (100- R) is below a predetermined value; and - manufacturing (S103) the dental object (100-2) based on the digital dental object (100-1) with the rotated spatial orientation. - generating (S101) a digital dental object (100-1) in a coordinate system that describes a shape of the dental object (100-2) to be manufactured; - rotating (S102) the spatial orientation of the digital dental object (100-1) in the coordinate system based on a digital reference object (100-R) in the coordinate system, wherein the orientation of the digital dental object (100-R) in the coordinate system is rotated until a spatial deviation between the digital dental object (100-1) and the digital reference object (100- R) is below a predetermined value; and - manufacturing (S103) the dental object (100-2) based on the digital dental object (100-1) with the rotated spatial orientation.
Method for controlling a load of a low-voltage electrical system of a motor vehicle, in which, when a connection of a high-current load is detected (S1), the current consumption of a radiator fan is reduced by an amount (S3) corresponding to the current consumption of the high-current load.
An omnidirectional lens arrangement comprising - an omnidirectional lens , - a light source , a two-sided, rotatable mirror , from the opposite sides of which light can be reflected, wherein said omnidirectional lens comprises: - a central portion having an optical axis in a first direction, and - an edge portion , which surrounds the central portion , said edge portion comprising - a first boundary-surface zone , - a second boundary-surface zone , - a reflection zone , wherein said mirror is set at an angle relative to the first direction, wherein light from the light source is guided along said first direction through the central portion and out of the lens to said rotatable mirror , is reflected off said rotatable mirror to said edge portion where it is collected by the second boundary-surface zone and oriented towards the reflection zone , is reflected from the reflection zone through the central portion in a second direction at an angle relative to said first direction of 90° ±° 45° towards the first boundary-surface zone , which is arranged to orientate the light, by rotation of the rotatable mirror , omnidirectionally relative to said first direction. - an omnidirectional lens , - a light source , - a central portion having an optical axis in a first direction, and - an edge portion , which surrounds the central portion , said edge portion comprising - a first boundary-surface zone , - a second boundary-surface zone , - a reflection zone ,
Actuating device for transmitting a user input to a control device, the actuating device comprising an engagement element which forms a first housing part of the actuating device and an execution element which forms a second housing part of the actuating device , the engagement element comprising an engagement push magnet which can be moved in the direction of the execution element by press-actuation of the actuating device , and the magnetic field of which projects into the execution element , the engagement element and the execution element comprising at least one engagement rotary magnet or execution rotary magnet , respectively, which can be moved in parallel with an intermediate plane extending therebetween, the engagement rotary magnet of the engagement element being designed to exert a magnetic force on the corresponding execution rotary magnet of the execution element , the engagement element comprising an axis of rotation oriented orthogonally to the intermediate plane and an engagement element rotation region which can be rotated about the axis of rotation and comprises the engagement rotary magnet , and the execution element comprising an axis of rotation oriented orthogonally to the intermediate plane and an execution element rotation region which can be rotated about the axis of rotation and comprises the execution rotary magnet , the engagement element and the execution element being interconnected via the engagement rotary magnet and the execution rotary magnet , which provide mutually attractive magnetic forces, and the opposite polarisation of the engagement rotary magnet and the execution rotary magnet resulting in a rotation of the execution element rotation region supporting the execution rotary magnet when the engagement element rotation region rotates together with the execution rotary magnet , the engagement element comprising an engagement element housing which has a movable engagement element pressing region , and the engagement element pressing region being designed to move the engagement push magnet in the direction of the execution element , characterised in that the execution element comprises an execution push magnet which can be moved in a contactless manner by the effect of the magnetic field of the engagement push magnet , the engagement element pressing region surrounding the engagement element rotation region with respect to a circumferential surface of the engagement element rotation region and an end face of the engagement element rotation region that faces away from the intermediate plane , and being axially movable relative thereto, and the engagement element housing also comprising a portion which is in contact with the intermediate plane and comprises the axis of rotation , which portion separates the engagement element pressing region and the engagement element rotation region from the intermediate plane .
Hollow particles each having a shell composed of at least one layer, wherein said at least one layer contains a nitrogen atom-containing resin having a refractive index of 1.57 or less, and wherein said hollow particles each have a surface treated with a compound having at least one anionic group, wherein said compound having an anionic group is selected from hydrochloric acid, acid anhydride, and an oxo acid. wherein said at least one layer contains a nitrogen atom-containing resin having a refractive index of 1.57 or less, and wherein said hollow particles each have a surface treated with a compound having at least one anionic group, wherein said compound having an anionic group is selected from hydrochloric acid, acid anhydride, and an oxo acid.
A method for wireless communication, the method performed by a user equipment, UE , the method comprising: identifying a transmission power requirement associated with a vehicle based communication network when there is communications with a cellular communications network; determining to use multi-cluster communications in the vehicle based communication network, wherein the determining to use the multi-cluster communications is based at least in part on the identified transmission power requirement; identifying a configuration parameter associated with the multi-cluster communications; selecting , based at least in part on the configuration parameter, a cluster resource from a set of available cluster resources, the cluster resource comprising one or more clusters used for a multi-cluster transmission in the vehicle based communication network, wherein the one or more clusters include a portion or all of an available bandwidth that has been divided into the one or more clusters; transmitting an indication of the selected cluster resource to at least one wireless node of the vehicle based communication network; and transmitting the multi-cluster transmission on the selected cluster resource. identifying a transmission power requirement associated with a vehicle based communication network when there is communications with a cellular communications network; determining to use multi-cluster communications in the vehicle based communication network, wherein the determining to use the multi-cluster communications is based at least in part on the identified transmission power requirement; identifying a configuration parameter associated with the multi-cluster communications; selecting , based at least in part on the configuration parameter, a cluster resource from a set of available cluster resources, the cluster resource comprising one or more clusters used for a multi-cluster transmission in the vehicle based communication network, wherein the one or more clusters include a portion or all of an available bandwidth that has been divided into the one or more clusters; transmitting an indication of the selected cluster resource to at least one wireless node of the vehicle based communication network; and transmitting the multi-cluster transmission on the selected cluster resource.