mhurhangee/patent-ind-claim-en huggingface dataset:
A coverage level update processing method applied to a base station, comprising: receiving (S101) a feedback message from a terminal, wherein, the feedback message relates to a current cell of the terminal, and is used to determine whether a coverage level of the terminal changes; determining whether a coverage level of the terminal changes according to the feedback message; and initiating (S102) an intra-cell handover process on the terminal when the coverage level of the terminal changes, and updating the coverage level of the terminal; wherein, initiating an intra-cell handover process on the terminal when the coverage level of the terminal changes and updating the coverage level of the terminal, comprises reconfiguring physical resources to the terminal according to the changed coverage level, sending an instruction for intra-cell handover to the terminal to trigger the terminal to execute the intra-cell handover process according to the reconfigured physical resources in the instruction to randomly re-access the current cell. receiving (S101) a feedback message from a terminal, wherein, the feedback message relates to a current cell of the terminal, and is used to determine whether a coverage level of the terminal changes; determining whether a coverage level of the terminal changes according to the feedback message; and initiating (S102) an intra-cell handover process on the terminal when the coverage level of the terminal changes, and updating the coverage level of the terminal; wherein, initiating an intra-cell handover process on the terminal when the coverage level of the terminal changes and updating the coverage level of the terminal, comprises reconfiguring physical resources to the terminal according to the changed coverage level, sending an instruction for intra-cell handover to the terminal to trigger the terminal to execute the intra-cell handover process according to the reconfigured physical resources in the instruction to randomly re-access the current cell.
Method for regulating the pressure provided by an air extraction or insufflation fan comprising a turbine with adjustable rotational speed in a ventilation installation, said ventilation installation further comprising: - a plurality of air extraction or insufflation ducts (4 1 , 4 2 , 4 3 ), a first end of each air extraction or insufflation duct (4 1 , 4 2 , 4 3 ) being connected to an air inlet or outlet tapping (3 1 , 3 2 , 3 3 ) of a central box having said air extraction or insufflation fan ; - at least one air discharge or inlet duct , and - a plurality of flow rate regulators (5 1 , 5 2 , 5 3 ; 5 1 " , 5 2 " , 5 3 " ) with adjustable passage opening, each associated with one air extraction or insufflation duct among said plurality of air extraction or insufflation ducts (4 1 , 4 2 , 4 3 ), said regulation method comprising a modulation of a passage opening of each flow rate regulator (5 1 , 5 2 , 5 3 ; 5 1 " , 5 2 " , 5 3 " ) so that a flow rate passing through each flow rate regulator tends towards a flow rate setpoint per duct corresponding to a need for air extraction or insufflation per duct, for a current pressure provided by the air extraction or insufflation fan , and being characterized in that it has, in parallel with the modulation of the passage opening of each flow rate regulator: - a step of determining, among said plurality of flow rate regulators, a flow rate regulator known as reference flow rate regulator, which has the largest passage opening; - a step of adjusting the pressure provided by the air extraction or insufflation fan with the aim of obtaining, for the reference flow rate regulator, a passage opening corresponding to a predefined maximum passage opening, while at the same time respecting the flow rate setpoint for the duct associated with the reference flow rate regulator. - a plurality of air extraction or insufflation ducts (4 1 , 4 2 , 4 3 ), a first end of each air extraction or insufflation duct (4 1 , 4 2 , 4 3 ) being connected to an air inlet or outlet tapping (3 1 , 3 2 , 3 3 ) of a central box having said air extraction or insufflation fan ; - at least one air discharge or inlet duct , and - a plurality of flow rate regulators (5 1 , 5 2 , 5 3 ; 5 1 " , 5 2 " , 5 3 " ) with adjustable passage opening, each associated with one air extraction or insufflation duct among said plurality of air extraction or insufflation ducts (4 1 , 4 2 , 4 3 ), - a step of determining, among said plurality of flow rate regulators, a flow rate regulator known as reference flow rate regulator, which has the largest passage opening; - a step of adjusting the pressure provided by the air extraction or insufflation fan with the aim of obtaining, for the reference flow rate regulator, a passage opening corresponding to a predefined maximum passage opening, while at the same time respecting the flow rate setpoint for the duct associated with the reference flow rate regulator.
Heating device for a cooking hob , wherein said heating device has: - a flat carrier with an outer edge , - said carrier has a substantially rectangular shape, - two heating elements which each have at least one heating conductor and which together form a heating area (Ha, Hb), wherein - said heating conductors are fastened on said carrier , - each said heating element defines a partial heating area , - said heating elements and/or said partial heating areas can be operated independently of one another and/or have respectively dedicated electrical connections, - the partial heating areas are situated inside the rectangular shape of the carrier , wherein - said partial heating areas of said heating elements do not intersect, - a first partial heating area is rectangular and extends, by way of at least one of its outer sides, to an outer edge or to an inner side of said outer edge of said carrier and runs parallel in relation to said outer edge , characterized in that - a second partial heating area covers a rest of said carrier which is left free by said first partial heating area . - a flat carrier with an outer edge , - said carrier has a substantially rectangular shape, - two heating elements which each have at least one heating conductor and which together form a heating area (Ha, Hb), wherein - said heating conductors are fastened on said carrier , - each said heating element defines a partial heating area , - said heating elements and/or said partial heating areas can be operated independently of one another and/or have respectively dedicated electrical connections, - the partial heating areas are situated inside the rectangular shape of the carrier , wherein - said partial heating areas of said heating elements do not intersect, - a first partial heating area is rectangular and extends, by way of at least one of its outer sides, to an outer edge or to an inner side of said outer edge of said carrier and runs parallel in relation to said outer edge , characterized in that - a second partial heating area covers a rest of said carrier which is left free by said first partial heating area .
A compound for use in treating schizophrenia, wherein the compound is selected from: or a pharmaceutically acceptable salt thereof.
An optical imaging apparatus , comprising: a fiber bundle , comprising a set of optical fibers (1-4) configured to guide an imaging light and spacings between the adjacent optical fibres (1-4); a scanning unit , configured to scan the imaging light over a proximal surface of the fiber bundle using a scanning pattern; a beam forming unit , configured to receive the imaging light from the fiber bundle and to redirect the imaging light to a target region based on the scanning pattern; and a bundle actuator having a rotation component characterised in that the rotation component is configured to rotate a distal end of the set of optical fibers around a longitudinal axis of the fiber bundle relative to a proximal end of the set of optical fibers of the fiber bundle, to adjust a position of the distal end of the set of optical fibers of the fiber bundle by an angle from a first position to a second rotated position different from the first position with the scanning unit scanning the imaging light over the proximal end of the set of optical fibers of the fiber bundle to cause the redirected imaging light to cover areas associated with the spacings between the adjacent optical fibers of the fiber bundle when the fiber bundle is in the first position. a fiber bundle , comprising a set of optical fibers (1-4) configured to guide an imaging light and spacings between the adjacent optical fibres (1-4); a scanning unit , configured to scan the imaging light over a proximal surface of the fiber bundle using a scanning pattern; a beam forming unit , configured to receive the imaging light from the fiber bundle and to redirect the imaging light to a target region based on the scanning pattern; and a bundle actuator having a rotation component characterised in that the rotation component is configured to rotate a distal end of the set of optical fibers around a longitudinal axis of the fiber bundle relative to a proximal end of the set of optical fibers of the fiber bundle, to adjust a position of the distal end of the set of optical fibers of the fiber bundle by an angle from a first position to a second rotated position different from the first position with the scanning unit scanning the imaging light over the proximal end of the set of optical fibers of the fiber bundle to cause the redirected imaging light to cover areas associated with the spacings between the adjacent optical fibers of the fiber bundle when the fiber bundle is in the first position.
A method of additively manufacturing an article comprising: forming a first portion of the article by additively manufacturing a plurality of first layers from a first powder material cut having a first average particle size corresponding to a first feature resolution, the plurality of first layers having a first average layer thickness; and forming a second portion of the article by additively manufacturing a plurality of second layers from a second powder material cut having a second average particle size corresponding to a second feature resolution less than the first feature resolution, the second portion comprising at least one feature , the plurality of second layers having a second average layer thickness less than the first average layer thickness; wherein the first powder material cut is stored in a first hopper ; the second powder material cut is stored in a second hopper ; and forming the first and second portions comprises selectively delivering, by a powder delivery assembly , the first powder material cut from the first hopper to a printing platform and the second powder material cut from the second hopper to the printing platform , wherein the powder delivery assembly comprises at least one powder material feeder that deposits and spreads the material of the first powder material cut or the second powder material cut across a surface of a powder bed above a printing platform as a new layer to be sintered or melted. forming a first portion of the article by additively manufacturing a plurality of first layers from a first powder material cut having a first average particle size corresponding to a first feature resolution, the plurality of first layers having a first average layer thickness; and forming a second portion of the article by additively manufacturing a plurality of second layers from a second powder material cut having a second average particle size corresponding to a second feature resolution less than the first feature resolution, the second portion comprising at least one feature , the plurality of second layers having a second average layer thickness less than the first average layer thickness; wherein the first powder material cut is stored in a first hopper ; the second powder material cut is stored in a second hopper ; and forming the first and second portions comprises selectively delivering, by a powder delivery assembly , the first powder material cut from the first hopper to a printing platform and the second powder material cut from the second hopper to the printing platform , wherein the powder delivery assembly comprises at least one powder material feeder that deposits and spreads the material of the first powder material cut or the second powder material cut across a surface of a powder bed above a printing platform as a new layer to be sintered or melted.
A fuse assembly comprising: a core including a set of fusible elements extending between a first end fitting and a second end fitting ; and a housing surrounding the core, the housing comprising: a first section having a first wall defining a first internal cavity , the first wall including a first L-shaped slot and a first L-shaped ridge ; and a second section coupled to the first section , the second section having a second wall defining a second internal cavity , the second wall including a second L-shaped slot and a second L-shaped ridge , wherein the first L-shaped slot engages the second L-shaped ridge and the second L-shaped slot engages the first L-shaped ridge . a core including a set of fusible elements extending between a first end fitting and a second end fitting ; and a housing surrounding the core, the housing comprising: a first section having a first wall defining a first internal cavity , the first wall including a first L-shaped slot and a first L-shaped ridge ; and a second section coupled to the first section , the second section having a second wall defining a second internal cavity , the second wall including a second L-shaped slot and a second L-shaped ridge , wherein the first L-shaped slot engages the second L-shaped ridge and the second L-shaped slot engages the first L-shaped ridge . a first section having a first wall defining a first internal cavity , the first wall including a first L-shaped slot and a first L-shaped ridge ; and a second section coupled to the first section , the second section having a second wall defining a second internal cavity , the second wall including a second L-shaped slot and a second L-shaped ridge , wherein the first L-shaped slot engages the second L-shaped ridge and the second L-shaped slot engages the first L-shaped ridge .
Composite pane for vehicles, consisting of - a polymeric pane having a thickness of 1.5 mm to 10 mm - a glass pane having a thickness less than or equal to 1 mm bonded in a planar manner to the polymeric pane , - a thermoplastic intermediate layer, wherein the polymeric pane and the glass pane are bonded via the thermoplastic intermediate layer , wherein the surfaces of the glass pane and of the polymeric pane facing away from each other form the outer surfaces of the composite pane, wherein the components of the composite pane can be provided with coatings, wherein the polymeric pane contains at least polycarbonate (PC) and/or polymethyl methacrylate (PMMA) and wherein the glass pane is a chemically tempered glass pane. - a polymeric pane having a thickness of 1.5 mm to 10 mm - a glass pane having a thickness less than or equal to 1 mm bonded in a planar manner to the polymeric pane , - a thermoplastic intermediate layer, wherein the polymeric pane and the glass pane are bonded via the thermoplastic intermediate layer , wherein the surfaces of the glass pane and of the polymeric pane facing away from each other form the outer surfaces of the composite pane, wherein the components of the composite pane can be provided with coatings, wherein the polymeric pane contains at least polycarbonate (PC) and/or polymethyl methacrylate (PMMA) and wherein the glass pane is a chemically tempered glass pane.
A medical needle , comprising: a needle body ; and a protector configured to expose the needle body from a leading end before puncture of the needle body , including a housing space which houses the needle body after puncture by relative movement of the needle body toward a base end, wherein the housing space of the protector includes a wall portion configured to form a blood receiving portion that accumulates blood separated from the needle body by a structure of an inner face of the wall portion or by closing a leading end of the housing space with the needle body being housed in the housing space by sealing, characterized in that the housing space of the protector further includes a leading end portion , a diameter of a space of the leading end portion is smaller than the diameter of the housing space at the position where a needle tip is housed, and a leading end opening is formed to have a diameter so that the needle body can pass therethrough without touching the leading end opening when the needle body retracts. a needle body ; and a protector configured to expose the needle body from a leading end before puncture of the needle body , including a housing space which houses the needle body after puncture by relative movement of the needle body toward a base end, wherein the housing space of the protector includes a wall portion configured to form a blood receiving portion that accumulates blood separated from the needle body by a structure of an inner face of the wall portion or by closing a leading end of the housing space with the needle body being housed in the housing space by sealing, characterized in that the housing space of the protector further includes a leading end portion , a diameter of a space of the leading end portion is smaller than the diameter of the housing space at the position where a needle tip is housed, and a leading end opening is formed to have a diameter so that the needle body can pass therethrough without touching the leading end opening when the needle body retracts.
Assembly comprising: - a semiconductor power switching element having a semiconductor power switch with a built-in temperature-dependent gate resistor ; and - a device for determining a temperature of the semiconductor power switching element , characterized in that the device has a non-inverting amplifier circuit comprising an operational amplifier and a feedback resistor , wherein the inverting input of the operational amplifier is connected to the semiconductor power switch in such a manner that the gain of the non-inverting amplifier circuit in a predefined frequency range of an input signal (V IN ) depends on the built-in temperature-dependent gate resistor and the feedback resistor and is a measure of the temperature of the semiconductor power switching element . - a semiconductor power switching element having a semiconductor power switch with a built-in temperature-dependent gate resistor ; and - a device for determining a temperature of the semiconductor power switching element ,
An optical smoke detector comprising: a sensor chamber, wherein internal walls of the sensor chamber are black; a housing having walls that define the sensor chamber and a labyrinth; a light source configured to illuminate a gas within the sensor chamber; a light detector configured to detect light from the light source that has been scattered by smoke within the sensor chamber; characterized by : an ultrasonic transducer configured to cause oscillations to dislodge accumulated particulate matter from at least one component of the smoke detector ; wherein the at least one component of the smoke detector includes one or more of the walls that at least partially define the labyrinth; wherein the smoke detector is configured to automatically activate the ultrasonic transducer in response to an estimated degree of fouling exceeding a threshold value; and wherein the degree of fouling is estimated based on a level of light detected by the light detector when the sensor chamber does not contain smoke. a sensor chamber, wherein internal walls of the sensor chamber are black; a housing having walls that define the sensor chamber and a labyrinth; a light source configured to illuminate a gas within the sensor chamber; a light detector configured to detect light from the light source that has been scattered by smoke within the sensor chamber; characterized by : an ultrasonic transducer configured to cause oscillations to dislodge accumulated particulate matter from at least one component of the smoke detector ; wherein the at least one component of the smoke detector includes one or more of the walls that at least partially define the labyrinth; wherein the smoke detector is configured to automatically activate the ultrasonic transducer in response to an estimated degree of fouling exceeding a threshold value; and wherein the degree of fouling is estimated based on a level of light detected by the light detector when the sensor chamber does not contain smoke. an ultrasonic transducer configured to cause oscillations to dislodge accumulated particulate matter from at least one component of the smoke detector ; wherein the at least one component of the smoke detector includes one or more of the walls that at least partially define the labyrinth; wherein the smoke detector is configured to automatically activate the ultrasonic transducer in response to an estimated degree of fouling exceeding a threshold value; and wherein the degree of fouling is estimated based on a level of light detected by the light detector when the sensor chamber does not contain smoke.
A viewport transformation module for use in a three-dimensional rendering system , the viewport transformation module comprising: a processing module configured to perform a viewport transformation on untransformed coordinate data for a vertex in a strip for each of a plurality of viewports to generate transformed coordinate data for each of the plurality of viewports, the plurality of viewports comprising a viewport associated with the vertex and a viewport associated with at least one other vertex in the strip, the at least one other vertex selected based on a provoking vertex of a primitive to be formed by vertices in the strip and a number of vertices in the primitive, wherein the viewport transformations are performed prior to one or more primitives being built from vertices in the strip; and a write module configured to write the transformed coordinate data for each of the plurality of viewports to a vertex buffer such that multiple sets of transformed coordinate data for the vertex are stored in the vertex buffer at the same time. a processing module configured to perform a viewport transformation on untransformed coordinate data for a vertex in a strip for each of a plurality of viewports to generate transformed coordinate data for each of the plurality of viewports, the plurality of viewports comprising a viewport associated with the vertex and a viewport associated with at least one other vertex in the strip, the at least one other vertex selected based on a provoking vertex of a primitive to be formed by vertices in the strip and a number of vertices in the primitive, wherein the viewport transformations are performed prior to one or more primitives being built from vertices in the strip; and a write module configured to write the transformed coordinate data for each of the plurality of viewports to a vertex buffer such that multiple sets of transformed coordinate data for the vertex are stored in the vertex buffer at the same time.