mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device comprising: a housing including a plurality of acoustic holes ; an enclosure mounted in the housing ; two heating elements disposed in the enclosure , comprising a power supply unit disposed in the enclosure, coaxially with a central axis (C) of the device; and at least one substrate disposed adjacent to the power supply unit in an outer circumferential direction of the power supply unit ; a heat dissipation structure disposed on the heating elements to transfer heat generated from the heating elements; and a heat dissipation duct disposed at least partially on the heat dissipation structure to provide a path for transferring the heat transferred from the heat dissipation structure to the outside through the acoustic holes , wherein the heat dissipation structure comprises: at least one first heat transfer member coupled to the substrate ; and a second heat transfer member disposed at least partially on the first heat transfer member to transfer, to the heat dissipation duct , heat transferred from the first heat transfer member . a housing including a plurality of acoustic holes ; an enclosure mounted in the housing ; two heating elements disposed in the enclosure , comprising a power supply unit disposed in the enclosure, coaxially with a central axis (C) of the device; and at least one substrate disposed adjacent to the power supply unit in an outer circumferential direction of the power supply unit ; a power supply unit disposed in the enclosure, coaxially with a central axis (C) of the device; and at least one substrate disposed adjacent to the power supply unit in an outer circumferential direction of the power supply unit ; a heat dissipation structure disposed on the heating elements to transfer heat generated from the heating elements; and a heat dissipation duct disposed at least partially on the heat dissipation structure to provide a path for transferring the heat transferred from the heat dissipation structure to the outside through the acoustic holes , wherein the heat dissipation structure comprises: at least one first heat transfer member coupled to the substrate ; and a second heat transfer member disposed at least partially on the first heat transfer member to transfer, to the heat dissipation duct , heat transferred from the first heat transfer member . at least one first heat transfer member coupled to the substrate ; and a second heat transfer member disposed at least partially on the first heat transfer member to transfer, to the heat dissipation duct , heat transferred from the first heat transfer member .
A building material manufacturing apparatus (X1) comprising: a sieve portion including a series of sheets that are each capable of performing a wave motion when the apparatus is operating, that have an inclination, and that are arranged in a direction (D) of the inclination, the series of sheets including a first sieve sheet and a second sieve sheet that is positioned below the first sieve sheet, the first sieve sheet being a sheet in which a plurality of meshes having an identical size are arranged at a regular pitch in a sheet width direction (W) of the series of sheets; and a receiver for receiving a building raw material (M) that has passed through the meshes of the sieve portion, the receiver being movable under the series of sheets, characterized in that the second sieve sheet is a sheet in which a plurality of meshes having two or more different sizes are arranged in the sheet width direction or is a sheet that has a mesh region (R1) and a non-mesh region (R2) that are arranged in the sheet width direction (W). a sieve portion including a series of sheets that are each capable of performing a wave motion when the apparatus is operating, that have an inclination, and that are arranged in a direction (D) of the inclination, the series of sheets including a first sieve sheet and a second sieve sheet that is positioned below the first sieve sheet, the first sieve sheet being a sheet in which a plurality of meshes having an identical size are arranged at a regular pitch in a sheet width direction (W) of the series of sheets; and a receiver for receiving a building raw material (M) that has passed through the meshes of the sieve portion, the receiver being movable under the series of sheets, characterized in that the second sieve sheet is a sheet in which a plurality of meshes having two or more different sizes are arranged in the sheet width direction or is a sheet that has a mesh region (R1) and a non-mesh region (R2) that are arranged in the sheet width direction (W).
Method for analyzing image data from a patient after a minimally invasive intervention on a lesion, in particular after a tumor ablation on a tumor, for deciding on minimally invasive correction measures such as ablative measures, wherein a pre-intervention image dataset showing the lesion and an intra- and/or post-intervention, second image dataset showing the intervention region are analyzed, wherein attribute data describing attributes of the image data is derived from the image datasets at least in part automatically, which attribute data is provided as input data to an artificial intelligence analysis algorithm that is trained using training data from other patients, which training data is associated with a ground truth, and that determines from the attribute data, change information that describes the change in the lesion and/or in the intervention region as a result of the intervention, wherein an analysis representation to be presented as an overlay on at least some of the image data is generated from the change information and is output.
A triangulation light sensor comprising a first light transmitter for emitting transmitted light into a detection zone , wherein a transmitting optical system , in particular a lens, is arranged upstream of the light transmitter , a first light receiver having an array of receiving elements for receiving light from the detection zone , which light is remitted by an object to be detected, with the receiving elements generating respective received signals, a receiving optical system arranged in the beam path between the detection zone and first light receiver for generating a light spot from the remitted light on the first light receiver , wherein the position of the light spot on the first light receiver in the triangulation direction is a result of the distance of the object , and a control and evaluation unit for generating a detection signal from the received signals on the basis of the position of the light spot on the first light receiver , wherein a further second light transmitter is provided as a reference light transmitter for safety-related self-testing; wherein a first mirror is arranged in order to direct the light beams of the reference light transmitter onto the first light receiver , characterized in that the first mirror is a concave mirror , with a further second light receiver being provided as a reference light receiver as a second receiving channel and for safety-related self-testing, with the first light receiver and the reference light transmitter being arranged in a first tube and the first light transmitter and the reference light receiver being arranged in a second tube .
A sliding mechanism comprising: a DLC coating sliding member (A) having a DLC film covered on a base material; a sliding member (B); and a lubricating oil interposed at a sliding surface between the DLC coating sliding member (A) and the sliding member (B), characterised in that a surface roughness of the DLC film constituting the DLC coating sliding member (A) is, as an arithmetic mean roughness Ra, less than or equal to 0.03 μm, and metal films are independently interspersed on a surface of the DLC film constituting the DLC coating sliding member (A). characterised in that a surface roughness of the DLC film constituting the DLC coating sliding member (A) is, as an arithmetic mean roughness Ra, less than or equal to 0.03 μm, and metal films are independently interspersed on a surface of the DLC film constituting the DLC coating sliding member (A).
A demonstration device for demonstrating at least one thermally-reversible characteristic of an optical article having at least one photochromic material, the demonstration device comprising: a housing having a sidewall defining an interior ; an inspection platform within the interior of the housing configured for supporting at least a portion of the optical article ; at least one ultraviolet light source configured to radiate ultraviolet light into the interior of the housing ; and at least one inspection light source configured to illuminate at least a portion of the interior of the housing ; characterized in that at least a portion of the sidewall is transparent to allow viewing of the housing interior from the outside of the housing through the sidewall ; and the demonstration device further comprising at least one heating device configured to heat at least a portion of the interior of the housing , wherein the at least one heating device comprises at least one heat source and at least one fan . a housing having a sidewall defining an interior ; an inspection platform within the interior of the housing configured for supporting at least a portion of the optical article ; at least one ultraviolet light source configured to radiate ultraviolet light into the interior of the housing ; and at least one inspection light source configured to illuminate at least a portion of the interior of the housing ; characterized in that at least a portion of the sidewall is transparent to allow viewing of the housing interior from the outside of the housing through the sidewall ; and the demonstration device further comprising at least one heating device configured to heat at least a portion of the interior of the housing , wherein the at least one heating device comprises at least one heat source and at least one fan .
A charging system for a vehicle, the system comprising: an alternator configured to generate electric power from a rotation output of an engine , wherein the alternator is configured to alternately output at least a low charge voltage to charge a low voltage storage device and a high charge voltage to charge a high voltage storage device ; a switch configured to switch between at least a first switch position connecting the alternator to the low voltage storage device and a second switch position connecting the alternator to the high voltage storage device ; a controller configured to control operation of the alternator and the switch between at least a low voltage mode and a high voltage mode , wherein in the low voltage mode the alternator is configured to output the low charge voltage and the switch is in the first switch position and in the high voltage mode the alternator is configured to output the high charge voltage and the switch is in the second switch position ; and characterized in that the controller is configured to switch between the low voltage mode and the high voltage mode based on an alternator temperature. an alternator configured to generate electric power from a rotation output of an engine , wherein the alternator is configured to alternately output at least a low charge voltage to charge a low voltage storage device and a high charge voltage to charge a high voltage storage device ; a switch configured to switch between at least a first switch position connecting the alternator to the low voltage storage device and a second switch position connecting the alternator to the high voltage storage device ; a controller configured to control operation of the alternator and the switch between at least a low voltage mode and a high voltage mode , wherein in the low voltage mode the alternator is configured to output the low charge voltage and the switch is in the first switch position and in the high voltage mode the alternator is configured to output the high charge voltage and the switch is in the second switch position ; and characterized in that the controller is configured to switch between the low voltage mode and the high voltage mode based on an alternator temperature.
A scheduling request processing method, performed by a terminal device , comprising: determining (S101) that a regular buffer status report, BSR, associated with a first logical channel is triggered and has not been canceled; and if the terminal device has an available uplink resource in a first time unit, but a value of at least one parameter in a transmission parameter set of the uplink resource available for the terminal device in the first time unit is different from a value of a corresponding parameter in a transmission parameter set available for the first logical channel, and if a first timer of a terminal device is not running, triggering (S102) a scheduling request, SR; wherein the corresponding parameter of the transmission parameter set available for the first logical channel comprises at least one of a subcarrier spacing and a serving cell of the terminal device corresponding to an uplink resource. determining (S101) that a regular buffer status report, BSR, associated with a first logical channel is triggered and has not been canceled; and if the terminal device has an available uplink resource in a first time unit, but a value of at least one parameter in a transmission parameter set of the uplink resource available for the terminal device in the first time unit is different from a value of a corresponding parameter in a transmission parameter set available for the first logical channel, and if a first timer of a terminal device is not running, triggering (S102) a scheduling request, SR; wherein the corresponding parameter of the transmission parameter set available for the first logical channel comprises at least one of a subcarrier spacing and a serving cell of the terminal device corresponding to an uplink resource.
An inverter comprising: a main housing configured to accommodate a main circuit and including a first vent hole formed in a lower end portion of one side surface thereof; a fan disposed on the other side surface of the main housing facing the first vent hole ; a heat sink interposed between the first vent hole and the fan ; an auxiliary housing disposed under the main housing , configured to accommodate an auxiliary circuit , and including a second vent hole formed in at least one side surface thereof; and a controller disposed in the main circuit or the auxiliary circuit , wherein the inverter is characterized by : at least one opening and closing part interposed between the main housing and the auxiliary housing and configured to be opened so that the main housing communicates with the auxiliary housing . a main housing configured to accommodate a main circuit and including a first vent hole formed in a lower end portion of one side surface thereof; a fan disposed on the other side surface of the main housing facing the first vent hole ; a heat sink interposed between the first vent hole and the fan ; an auxiliary housing disposed under the main housing , configured to accommodate an auxiliary circuit , and including a second vent hole formed in at least one side surface thereof; and a controller disposed in the main circuit or the auxiliary circuit , wherein the inverter is characterized by : at least one opening and closing part interposed between the main housing and the auxiliary housing and configured to be opened so that the main housing communicates with the auxiliary housing .
An electrode device for use in treating incontinence in an individual or animal, comprising: a body having a skin contact side and a non-contact side , extending longitudinally between an anterior end and a posterior end, and defining a medial egress from the contact side to the non-contact side; a plurality of spaced activatable conductive regions positioned on the contact side of the body and being substantially electrically insulated from the non-contact side , two anterior conductive regions being positioned within the longitudinally anterior end and two posterior conductive regions being positioned within the longitudinally posterior end; wherein the body defines an outer peripheral edge that transitions inwardly toward an intermediate portion between the anterior and posterior ends and the body defines a profile configured for interfacing with perineal tissue in a position whereby electrical current generated between the conductive regions is allowed to penetrate the perineal tissue and stimulate at least one muscle therein in the individual or animal, and each of the two anterior conductive regions is spaced from one of the two posterior conductive regions by a longitudinal spacing and the two anterior conductive regions are spaced from each other by a lateral spacing, and wherein the longitudinal spacing is greater than the lateral spacing. a body having a skin contact side and a non-contact side , extending longitudinally between an anterior end and a posterior end, and defining a medial egress from the contact side to the non-contact side; a plurality of spaced activatable conductive regions positioned on the contact side of the body and being substantially electrically insulated from the non-contact side , two anterior conductive regions being positioned within the longitudinally anterior end and two posterior conductive regions being positioned within the longitudinally posterior end; wherein the body defines an outer peripheral edge that transitions inwardly toward an intermediate portion between the anterior and posterior ends and the body defines a profile configured for interfacing with perineal tissue in a position whereby electrical current generated between the conductive regions is allowed to penetrate the perineal tissue and stimulate at least one muscle therein in the individual or animal, and each of the two anterior conductive regions is spaced from one of the two posterior conductive regions by a longitudinal spacing and the two anterior conductive regions are spaced from each other by a lateral spacing, and wherein the longitudinal spacing is greater than the lateral spacing.
Hob apparatus, in particular induction hob apparatus, with at least one press-on unit (10a; 10b), which has at least one elastic element (12a; 12b) and which is provided to press at least one heating unit (14a; 14b) against a hob plate (16a; 16b), wherein the at least one press-on unit (10a; 10b) has at least one sleeve unit (18a; 18b), which in an assembled state surrounds at least a majority of the at least one elastic element (12a; 12b), and wherein the at least one sleeve unit (18a; 18b) has at least one sleeve housing (20a; 20b) and at least one press-on element (22a; 22b) mounted such that it is able to move, wherein in the assembled state the at least one sleeve housing (20a; 20b) and the at least one press-on element (22a; 22b) are connected with a positive fit in at least one direction in parallel with a contact force, characterised in that the at least one press-on element (22a; 22b) is embodied such that it is at least partially conically tapering.
An outdoor lighting controller comprising a wireless interface , a positioning module and a local control module , characterized in that : the outdoor lighting controller is adapted to, when incorporated into a lighting device , perform an at least partially automated commissioning of the lighting device at installation, wherein: the wireless interface is configured to communicate over a pre-existing public wireless network , pre-existing at said installation; the positioning module is configured to determine a location of the lighting device ; and the local control module is configured, as part of said commissioning, to determine the location of the lighting device using the positioning module , and to transmit commissioning information to a register of a lighting management system by transmitting the commissioning information over said pre-existing public wireless network via said wireless interface , the commissioning information comprising an identifier of the outdoor lighting controller along with the location of the lighting device as determined using said positioning module ; and wherein the local control module is configured to receive initial settings from the lighting management system , in response to the received identifier, via the public wireless network and based thereon to initialize the lighting device with said initial settings. the wireless interface is configured to communicate over a pre-existing public wireless network , pre-existing at said installation; the positioning module is configured to determine a location of the lighting device ; and the local control module is configured, as part of said commissioning, to determine the location of the lighting device using the positioning module , and to transmit commissioning information to a register of a lighting management system by transmitting the commissioning information over said pre-existing public wireless network via said wireless interface , the commissioning information comprising an identifier of the outdoor lighting controller along with the location of the lighting device as determined using said positioning module ; and wherein the local control module is configured to receive initial settings from the lighting management system , in response to the received identifier, via the public wireless network and based thereon to initialize the lighting device with said initial settings.
An aqueous radiation-curable composition comprising - at least one (meth)acrylated polyurethane pre-polymer (A) obtained from the reaction of: - at least one polyisocyanate compound (i), - optionally, at least one polyol (ii), - at least one hydrophilic compound (iii) containing at least one reactive group capable to react with isocyanate groups and which is capable to render the polyurethane pre-polymer dispersible in aqueous medium either directly or after the reaction with a neutralizing agent to provide a salt, - at least one (meth)acrylated compound (iv) containing at least two reactive groups capable to react with isocyanate groups, - at least one (meth)acrylated compound (v) containing essentially one reactive group capable to react with isocyanate groups selected from poly(meth)acryloyl mono-hydroxy compounds, and - optionally, at least one ethylenically unsaturated compound (B), wherein said composition comprises a total amount of (meth)acrylated and, optionally, polymerizable ethylenically unsaturated groups of at least 4 meq per gram of total weight of (i), (ii), (iii), (iv), (v) and (B) as measured by 1 H nuclear magnetic resonance spectroscopy. - at least one (meth)acrylated polyurethane pre-polymer (A) obtained from the reaction of: - at least one polyisocyanate compound (i), - optionally, at least one polyol (ii), - at least one hydrophilic compound (iii) containing at least one reactive group capable to react with isocyanate groups and which is capable to render the polyurethane pre-polymer dispersible in aqueous medium either directly or after the reaction with a neutralizing agent to provide a salt, - at least one (meth)acrylated compound (iv) containing at least two reactive groups capable to react with isocyanate groups, - at least one (meth)acrylated compound (v) containing essentially one reactive group capable to react with isocyanate groups selected from poly(meth)acryloyl mono-hydroxy compounds, and - at least one polyisocyanate compound (i), - optionally, at least one polyol (ii), - at least one hydrophilic compound (iii) containing at least one reactive group capable to react with isocyanate groups and which is capable to render the polyurethane pre-polymer dispersible in aqueous medium either directly or after the reaction with a neutralizing agent to provide a salt, - at least one (meth)acrylated compound (iv) containing at least two reactive groups capable to react with isocyanate groups, - at least one (meth)acrylated compound (v) containing essentially one reactive group capable to react with isocyanate groups selected from poly(meth)acryloyl mono-hydroxy compounds, and - optionally, at least one ethylenically unsaturated compound (B), wherein