mhurhangee/patent-ind-claim-en huggingface dataset:
A method for selecting a network slice, comprising: determining (S201), by a management device in a network for managing at least one network slice, a service requirement list of user equipment, UE, wherein the service requirement list comprises at least one service type required by the UE; determining (S202), by the management device, a service capability list set comprising a service capability list of at least one network slice, wherein each service capability list comprises an identifier of a network slice corresponding to said service capability list and comprises at least one service type supported by the network slice; and determining (S203), by the management device, according to the service requirement list and the service capability list set, a first identifier of a first network slice that provides a service for the UE, wherein a service capability list corresponding to the first network slice comprises all or part of the at least one service type in the service requirement list. determining (S201), by a management device in a network for managing at least one network slice, a service requirement list of user equipment, UE, wherein the service requirement list comprises at least one service type required by the UE; determining (S202), by the management device, a service capability list set comprising a service capability list of at least one network slice, wherein each service capability list comprises an identifier of a network slice corresponding to said service capability list and comprises at least one service type supported by the network slice; and determining (S203), by the management device, according to the service requirement list and the service capability list set, a first identifier of a first network slice that provides a service for the UE, wherein a service capability list corresponding to the first network slice comprises all or part of the at least one service type in the service requirement list.
A control device comprising: a first processor adapted to acquire a synchronization signal that is generated every first period; and a second processor adapted to generate a control signal, using a timer, every second period that is obtained by dividing the first period by n, wherein n ≥ 2, and to perform a predetermined process at a timing based on the control signal, wherein at least one of a plurality of control signals generated in the first period is a control signal that should be synchronous with the synchronization signal, and in a case where occurrence of an error between timings of the synchronization signal and the control signal that should be synchronous with the synchronization signal is detected, the second processor is adapted to correct the error by temporarily changing an expiry time of a timer that measures the second period, in the second period that arrives after a predetermined number of times from the control signal that should be synchronized with the synchronization signal. a first processor adapted to acquire a synchronization signal that is generated every first period; and a second processor adapted to generate a control signal, using a timer, every second period that is obtained by dividing the first period by n, wherein n ≥ 2, and to perform a predetermined process at a timing based on the control signal, wherein at least one of a plurality of control signals generated in the first period is a control signal that should be synchronous with the synchronization signal, and in a case where occurrence of an error between timings of the synchronization signal and the control signal that should be synchronous with the synchronization signal is detected, the second processor is adapted to correct the error by temporarily changing an expiry time of a timer that measures the second period, in the second period that arrives after a predetermined number of times from the control signal that should be synchronized with the synchronization signal.
Apparatus for handling a tear-open-strip web , in particular for conveying the same, within the context of a packaging process in which products, in particular cigarette packs, are packaged in a respective film wrapper provided with a tear-open strip , having a loop store , which is arranged in particular in a vertical plane and is designed preferably in the form of a loop box, characterized in that the loop store has arranged in it a carriage , preferably L-shaped in section, which is intended for guiding a tear-open-strip web , guided preferably in a vertical plane, and which can be moved back and forth in particular linearly in two opposite directions, preferably up and down in a vertical plane, within the loop store , respectively carrying along an in particular U-shaped portion of the tear-open-strip web in the process, and in that the apparatus has a negative-pressure device, which is designed such that it can build up a negative pressure in the loop store , on one side of the carriage , said negative pressure subjecting the carriage to a force which is directed in one of the movement directions, in particular to a downwardly directed force.
A hook mechanism , comprising: a shaft cover , wherein a plurality of first mounting parts are disposed inside the shaft cover ; a base , fixedly disposed in the shaft cover ; and swing arms , wherein the swing arms are disposed at two ends of the shaft cover along a first direction, and a second mounting part is disposed on each of the swing arms ; wherein each of the swing arms is rotatably connected to the base , so that the swing arms rotade between an unfolded location and a folded location; and when the swing arms are in the unfolded location, the swing arms are located on two sides of the shaft cover along the first direction, and the first mounting part is separated from a corresponding second mounting part ; and when the swing arms are in the folded location, the swing arms located on the two sides of the shaft cover along the first direction rotate to one side of the base away from the shaft cover , the swing arms located on the two sides of the shaft cover along the first direction are disposed opposite to each other, and the first mounting part is mounted to the corresponding second mounting part , such that the swing arms apply a tensile force to the shaft cover towards the base . a shaft cover , wherein a plurality of first mounting parts are disposed inside the shaft cover ; a base , fixedly disposed in the shaft cover ; and swing arms , wherein the swing arms are disposed at two ends of the shaft cover along a first direction, and a second mounting part is disposed on each of the swing arms ; wherein each of the swing arms is rotatably connected to the base , so that the swing arms rotade between an unfolded location and a folded location; and when the swing arms are in the unfolded location, the swing arms are located on two sides of the shaft cover along the first direction, and the first mounting part is separated from a corresponding second mounting part ; and when the swing arms are in the folded location, the swing arms located on the two sides of the shaft cover along the first direction rotate to one side of the base away from the shaft cover , the swing arms located on the two sides of the shaft cover along the first direction are disposed opposite to each other, and the first mounting part is mounted to the corresponding second mounting part , such that the swing arms apply a tensile force to the shaft cover towards the base .
A sensor for determining a time of flight, in particular of a distance in accordance with a pulse-based time of flight process, that has a transmitter for transmitting a signal pulse triggered by a transmitted pulse , a receiver for generating a received pulse from the signal pulse received again, an analog to digital converter for digitizing the received pulse, at least one delay path having a delay element to supply the received pulse to the analog to digital converter at least twice with a respectively different delay time and to generate a first scan and at least one second scan of the received pulse and thus a multiple scan of the received pulse at different amplitudes and/or temporal positions, and having a control and evaluation unit that is configured to determine a time of flight by means of the first scan and the second scan, characterized in that a switchover element is arranged between the receiver and the analog to digital converter that selectively does not conduct the received pulse over a delay path and differently frequently over the at least one delay path , and optionally over different delay paths (34 1..n) and thus supplies the received pulse to the analog to digital converter for a serial multiple scan sequentially with different delays, wherein at least one delay path forms a loop that feeds the delayed received pulse into the at least one delay path again via the switchover element .
A battery comprising: a first electrode layer ; a second electrode layer ; a charging layer , disposed between the first electrode layer and the second electrode layer , and the charging layer including an n-type metal oxide semiconductor and an insulating material, a charging circuit, and a connection circuit, wherein the insulating material is formed as a coating on n-type metal oxide fine particles, wherein the first electrode layer includes a plurality of electrode layer patterns formed separately from each other, wherein the second electrode layer includes a plurality of electrode layer patterns formed separately from each other, characterised in that in a planar view through the charging layer, a longitudinal direction of the plurality of electrode patterns of the first electrode layer is a first direction, and a longitudinal direction of the plurality of electrode patterns of the second electrode layer is a second direction intersecting the first direction, the charging circuit being configured to generate a charging voltage between the first electrode layer and the second electrode layer and configured to apply the charging voltage to the charging layer, the charging circuit being configured to supply, during charging, the charging voltage to each of the plurality of electrode patterns , and the connection circuit is configured to connect, during discharging, some of the plurality of electrode patterns to a load. a first electrode layer ; a second electrode layer ; a charging layer , disposed between the first electrode layer and the second electrode layer , and the charging layer including an n-type metal oxide semiconductor and an insulating material, a charging circuit, and a connection circuit, wherein the insulating material is formed as a coating on n-type metal oxide fine particles, wherein the first electrode layer includes a plurality of electrode layer patterns formed separately from each other, wherein the second electrode layer includes a plurality of electrode layer patterns formed separately from each other, characterised in that in a planar view through the charging layer, a longitudinal direction of the plurality of electrode patterns of the first electrode layer is a first direction, and a longitudinal direction of the plurality of electrode patterns of the second electrode layer is a second direction intersecting the first direction, the charging circuit being configured to generate a charging voltage between the first electrode layer and the second electrode layer and configured to apply the charging voltage to the charging layer, the charging circuit being configured to supply, during charging, the charging voltage to each of the plurality of electrode patterns , and the connection circuit is configured to connect, during discharging, some of the plurality of electrode patterns to a load.
An assembled slide , defined with a slide front side and a slide back side , two sides of the slide front side respectively disposed with a retaining wall , wherein the assembled slide comprises a head section , a connect section and a tail section which are assembled in sequence, the head section is disposed with a first carrying portion at a head section first end facing the connect section , the connect section is disposed with a first lapping portion connected to the first carrying portion at a connect section first end facing the head section , the connect section is disposed with a second carrying portion at a connect section second end facing the tail section , and the tail section is disposed with a second lapping portion connected to the second carrying portion at a tail section first end facing the connect section , characterised in that the head section , the connect section and the tail section are respectively formed with at least one accommodating groove on the slide back side , the accommodating grooves are located on an axis and are communicated sequentially, and the assembled slide comprises at least one support rib disposed in the accommodating grooves .
An optimization device of a component mounting line which is adapted to carry out an optimization process relating to production based on setting-changeable processing conditions when producing a board on the component mounting line in which multiple component mounting machines are arranged in series, each of the component mounting machines including a board conveyance device which is adapted to carry in the board to a mounting execution position, positions the board, and carries out the board, a component supply device which is adapted to sequentially supply components, and a component transfer device which is adapted to pick the components from the component supply device and is adapted to mount the components onto the positioned board, characterized by : an effectiveness degree calculating section which is adapted to set individual allotments for multiple processing conditions and calculate and score an effectiveness degree of optimization of the processing conditions which are set for carrying out the optimization process; and an effectiveness degree display section which is adapted to display the effectiveness degree of the optimization, wherein the allotment is a full number of points that can be scored for a respective processing condition. an effectiveness degree calculating section which is adapted to set individual allotments for multiple processing conditions and calculate and score an effectiveness degree of optimization of the processing conditions which are set for carrying out the optimization process; and an effectiveness degree display section which is adapted to display the effectiveness degree of the optimization, wherein the allotment is a full number of points that can be scored for a respective processing condition.
A method for generation of functional mature beta cells from human pluripotent stem cell-derived endocrine progenitors comprising the step of culturing the stem cell-derived endocrine progenitor cells in a medium comprising histone methyltransferase EZH2 inhibitor, TGF-beta signaling pathway inhibitor, Heparin and Nicotinamide in basal medium, to obtain INS+ and NKX6.1+ double positive immature beta cells.
A method of manufacturing a contact, intraocular or onlay lens for preventing myopia of a wearer, comprising: measuring the wearer's distance vision acuity; and providing a contact, intraocular or onlay lens comprising an optic zone having a substantially constant distance vision power at the centermost portion of the optic zone and at least a first peripheral region to the distance vision power having positive longitudinal spherical aberration, characterised in that : the distance vision power is overcorrected relative to the measured distance vision acuity wherein the amount of overcorrection depends upon the diameter of the central zone and the magnitude of the positive spherical aberration. measuring the wearer's distance vision acuity; and providing a contact, intraocular or onlay lens comprising an optic zone having a substantially constant distance vision power at the centermost portion of the optic zone and at least a first peripheral region to the distance vision power having positive longitudinal spherical aberration, characterised in that : the distance vision power is overcorrected relative to the measured distance vision acuity wherein the amount of overcorrection depends upon the diameter of the central zone and the magnitude of the positive spherical aberration.
Retractable clamping element for locking in or on a clamping receiver , in particular a clamping receiver of a zero-point clamping system, wherein the retractable clamping element has an engagement section such that, when the retractable clamping element is locked, a locking element on the clamping receiver side acts against the engagement section in such a way that the retractable clamping element is pulled into or against the clamping receiver , wherein the retractable clamping element has a base section running around a central longitudinal axis and a holding element arranged so as to be mobile in a radial direction relative to the base section , characterized in that the base section or the holding element has two surface sections running parallel to one another in the direction of the one radial direction and wherein the holding element or the base section has contact sections corresponding with these surface sections , such that the holding element is arranged to only be mobile about the base section in the one radial direction , wherein the engagement section is provided on the holding element such that, when the locking element is displaced into the locking position, a compensation of the holding element relative to the base section is enabled in the one radial direction .
An aerosol-generating system comprising: a liquid storage portion comprising a container for holding a liquid aerosol-generating substrate and defining an opening; a heater assembly , wherein the heater assembly comprises at least one electrically operated heating element, and wherein the heating element extends across the opening along a transverse plane; a capillary material in contact with the heating element configured for conveying the aerosol forming substrate to the heating element; a first channel defining a first flow route, wherein a centrally arranged portion of the first channel is arranged with respect to the transverse plane such that at least the centrally arranged portion of the first channel directs air originating from outside the system to impinge against and across a surface portion of the at least one heating element, wherein the centrally arranged portion of the first channel and the liquid storage portion are located on opposite sides of the heating element; wherein the air is brought by the first flow route into orthogonal impingement against the geometric center of a surface of the heater assembly ; wherein the system comprises a main unit and a cartridge that is removably coupled to the main unit, wherein the liquid storage portion and heater assembly are provided in the cartridge and the main unit comprises a power supply; and wherein the cartridge further defines at least one inlet for drawing ambient air from outside the system and at least a first portion of the first channel corresponding to a flow path relative to the heater assembly . a liquid storage portion comprising a container for holding a liquid aerosol-generating substrate and defining an opening; a heater assembly , wherein the heater assembly comprises at least one electrically operated heating element, and wherein the heating element extends across the opening along a transverse plane; a capillary material in contact with the heating element configured for conveying the aerosol forming substrate to the heating element; a first channel defining a first flow route, wherein a centrally arranged portion of the first channel is arranged with respect to the transverse plane such that at least the centrally arranged portion of the first channel directs air originating from outside the system to impinge against and across a surface portion of the at least one heating element, wherein the centrally arranged portion of the first channel and the liquid storage portion are located on opposite sides of the heating element; wherein the air is brought by the first flow route into orthogonal impingement against the geometric center of a surface of the heater assembly ; wherein the system comprises a main unit and a cartridge that is removably coupled to the main unit, wherein the liquid storage portion and heater assembly are provided in the cartridge and the main unit comprises a power supply; and wherein the cartridge further defines at least one inlet for drawing ambient air from outside the system and at least a first portion of the first channel corresponding to a flow path relative to the heater assembly .
A camera module for a mobile terminal , comprising a flexible printed circuit FPC having a first end and a second end opposite to the first end , and a top surface and a bottom surface at two opposite sides of the FPC ; a camera coupled to the first end of the FPC ; an electrical connector coupled to the second end of the FPC ; a flash lamp disposed on the top surface of the FPC ; a reinforcing member coupled to the bottom surface and aligned with the flash lamp ; a cover member capped over the camera and the flash lamp , the cover member defining a first through hole and a second through hole being spaced from the first through hole ; a first transparent member arranged on the cover member and facing the camera , the first transparent member engaged in the first through hole ; and the second transparent member arranged on the cover member and facing the flash lamp , the second transparent member engaged in the second through hole ; wherein the camera module further comprises a support member coupled to the cover member ; wherein the support member defines a first transmission hole and a second transmission hole , and the first transmission hole is aligned with the first through hole , and the second transmission hole is aligned with the second through hole ; wherein the second transmission hole is a stepped hole, the support member comprises a second shoulder in the second transmission hole , an end of the second transparent member is received in the second transmission hole and supported by the second shoulder , another end of the second transparent member is embedded in the second through hole .
A method of making a wound insert , comprising: providing a foam having first portions and second portions , the first portions having a thickness that is larger than a thickness of the second portions ; compressing at least a portion of the foam such that the compressed foam has substantially constant thickness , and such that the first portions have a density greater than a density of the second portions ; and activating a coating applied to the foam such that the foam remains substantially compressed in the absence of an external compressive force to configure the foam as a wound insert for positioning on a wound. providing a foam having first portions and second portions , the first portions having a thickness that is larger than a thickness of the second portions ; compressing at least a portion of the foam such that the compressed foam has substantially constant thickness , and such that the first portions have a density greater than a density of the second portions ; and activating a coating applied to the foam such that the foam remains substantially compressed in the absence of an external compressive force to configure the foam as a wound insert for positioning on a wound.