mhurhangee/patent-ind-claim-en huggingface dataset:
A milling cutter for removing material from a surface in webs, - comprising an electrical drive and a milling drum , which can be driven by means of said electrical drive, for removing the material from the surface along a milling web (50.2), - comprising a drum housing , in which the milling drum is arranged and which has an extraction opening , in order to be able to extract the air-material particle flow generated by the milling drum during the removal, - comprising a cover in order to direct the air-material particle flow generated by the milling drum to the extraction opening , - comprising a lowering mechanism in order to be able to move the cover in the direction of the milling depth (T) all the way to the bottom (50.1) of the milled-out milling web (50.2), characterized in that the milling cutter has a further cover , wherein the cover is arranged between the milling drum and the further cover . - comprising an electrical drive and a milling drum , which can be driven by means of said electrical drive, for removing the material from the surface along a milling web (50.2), - comprising a drum housing , in which the milling drum is arranged and which has an extraction opening , in order to be able to extract the air-material particle flow generated by the milling drum during the removal, - comprising a cover in order to direct the air-material particle flow generated by the milling drum to the extraction opening , - comprising a lowering mechanism in order to be able to move the cover in the direction of the milling depth (T) all the way to the bottom (50.1) of the milled-out milling web (50.2), characterized in that the milling cutter has a further cover , wherein the cover is arranged between the milling drum and the further cover .
A method of operating a first terminal for vehicle-to-everything, V2X, communication in a wireless communication system, the method comprising: receiving, from a second terminal, a first message comprising location information of the second terminal; receiving, from the second terminal, a second message comprising data; and transmitting acknowledgement/negative-acknowledgement, ACK/NACK, for the second message based on a distance between the first terminal and the second terminal determined by the first terminal , and based on a radio distance, wherein the distance is calculated based on the location information of the second terminal and location information of the first terminal , wherein based on the distance being equal to or smaller than a specific value , the ACK/NACK is transmitted to the second terminal, wherein based on the distance being larger than the specific value, the ACK/NACK is not transmitted to the second terminal, wherein the radio distance is determined based on a reference signal received power, RSRP, or a reference signal received quality, RSRQ, measured using a reference signal received periodically from the second terminal, wherein the radio distance to the second terminal is determined based on an average rate of temporal change in a RSRP or a RSRQ of the reference signal, and wherein, if the RSRP or the RSRQ of the reference signal is expected to decrease over time to become equal or less than a threshold after a specific point in time, no ACK/NACK for the received data is transmitted after the specific point in time. receiving, from a second terminal, a first message comprising location information of the second terminal; receiving, from the second terminal, a second message comprising data; and transmitting acknowledgement/negative-acknowledgement, ACK/NACK, for the second message based on a distance between the first terminal and the second terminal determined by the first terminal , and based on a radio distance, wherein the distance is calculated based on the location information of the second terminal and location information of the first terminal , wherein based on the distance being equal to or smaller than a specific value , the ACK/NACK is transmitted to the second terminal, wherein based on the distance being larger than the specific value, the ACK/NACK is not transmitted to the second terminal, wherein the radio distance is determined based on a reference signal received power, RSRP, or a reference signal received quality, RSRQ, measured using a reference signal received periodically from the second terminal, wherein the radio distance to the second terminal is determined based on an average rate of temporal change in a RSRP or a RSRQ of the reference signal, and wherein, if the RSRP or the RSRQ of the reference signal is expected to decrease over time to become equal or less than a threshold after a specific point in time, no ACK/NACK for the received data is transmitted after the specific point in time.
Use of an organic compound (b) which is 4,4-bis(1,1'-dimethylbenzyl)diphenylamine to decrease the volume resistivity of a polymer composition for a semiconductive layer of a cable, wherein the polymer composition comprises: - a polyolefin (a) which is an LDPE homopolymer or copolymer; and - a carbon black which is selected from any of a furnace carbon black and acetylene carbon black having a nitrogen surface area (BET) of 5 to 400 m 2 /g, determined according to ASTM D3037-93; wherein the polymer composition comprises 9.5 to 49.5 wt% carbon black and 0.35 to 0.9 wt% of the organic compound (b) based on the total amount of the polymer composition. - a polyolefin (a) which is an LDPE homopolymer or copolymer; and - a carbon black which is selected from any of a furnace carbon black and acetylene carbon black having a nitrogen surface area (BET) of 5 to 400 m 2 /g, determined according to ASTM D3037-93;
A network node comprising processing circuitry and computer executable program code that, when executed by the processing circuitry, causes the network node to: obtain grouping information that associates a plurality of users with a group; determine, based on the grouping information, content to be cached near the users that are associated with the group; facilitate caching the content in one or more caches, the one or more caches selected from a plurality of caches based at least in part on proximity to the users associated with the group; and the network node being characterised in that the executable program code, when executed by the processing circuitry, further causes the network node to communicate an instruction to delete the content from the one or more caches after the content has been consumed by a pre-determined number or percentage of users associated with the group. obtain grouping information that associates a plurality of users with a group; determine, based on the grouping information, content to be cached near the users that are associated with the group; facilitate caching the content in one or more caches, the one or more caches selected from a plurality of caches based at least in part on proximity to the users associated with the group; and the network node being characterised in that the executable program code, when executed by the processing circuitry, further causes the network node to communicate an instruction to delete the content from the one or more caches after the content has been consumed by a pre-determined number or percentage of users associated with the group.
A PEEK molded body including a mixture of two types of PEEK, one PEEK having a larger average molecular weight and one PEEK have a lower average molecular weight, comprising: a body portion having a first exothermic peak, and a second exothermic peak positioned at a higher temperature than the first exothermic peak, as two exothermic peaks indicating crystallization of PEEK in a DSC curve of a process of cooling; and a surface layer portion that covers the body portion, and has due to an application of an electron beam to the surface layer portion a reduced amount of PEEK having a low average molecular weight a third exothermic peak, positioned at a higher temperature than the first exothermic peak, appearing as an only individual exothermic peak indicating crystallization of PEEK in a DSC curve of the process of cooling. a body portion having a first exothermic peak, and a second exothermic peak positioned at a higher temperature than the first exothermic peak, as two exothermic peaks indicating crystallization of PEEK in a DSC curve of a process of cooling; and a surface layer portion that covers the body portion, and has due to an application of an electron beam to the surface layer portion a reduced amount of PEEK having a low average molecular weight a third exothermic peak, positioned at a higher temperature than the first exothermic peak, appearing as an only individual exothermic peak indicating crystallization of PEEK in a DSC curve of the process of cooling.
Apparatus for calibrating a microwave applicator for treating tissue , comprising the following features: a controller for controlling calibration signals which are to be applied to the microwave applicator for calibration; a device for identifying an environment of at least part of the microwave applicator ; characterized by: an evaluation unit which is designed, upon application of the calibration signals, to determine associated reflection signals (Γ n ) from the environment of the microwave applicator , and to calibrate the microwave applicator based on measurements at at least two predetermined environments with known permittivities ( ε n ) and based on a measurement in a healthy tissue environment , the measurement at the healthy tissue being automatically performed upon identification by the device . a controller for controlling calibration signals which are to be applied to the microwave applicator for calibration; a device for identifying an environment of at least part of the microwave applicator ; characterized by: an evaluation unit which is designed, upon application of the calibration signals, to determine associated reflection signals (Γ n ) from the environment of the microwave applicator , and to calibrate the microwave applicator based on measurements at at least two predetermined environments with known permittivities ( ε n ) and based on a measurement in a healthy tissue environment , the measurement at the healthy tissue being automatically performed upon identification by the device .
A load bearing vertical duct element for constructing a building, comprising - a load bearing frame - at least one wall that can be at least partially opened in order to provide access to the inside of the element, the load bearing frame and the wall limiting a space within, - at least one duct placed in the space limited by the load bearing frame and the wall , and - elements for connecting the vertical duct element to at least one floor level element so that the vertical duct element carries at least a vertical load of the floor element, wherein - the sections of the wall of the vertical duct elements that can be opened, are non-load bearing structures, characterized in that - the vertical duct element has a quadrangular cross section and includes three load bearing walls comprised in the load bearing frame and one openable wall , - the vertical duct element comprises elements for forming a passage from one superposed vertical duct element to another and through a floor level, whereby said elements for forming a passage comprise a casting cassette , and - the elements for connecting the vertical duct element to at least one floor level element comprise reinforcement bars fixed with cast concrete. - a load bearing frame - at least one wall that can be at least partially opened in order to provide access to the inside of the element, the load bearing frame and the wall limiting a space within, - at least one duct placed in the space limited by the load bearing frame and the wall , and - elements for connecting the vertical duct element to at least one floor level element so that the vertical duct element carries at least a vertical load of the floor element, wherein - the sections of the wall of the vertical duct elements that can be opened, are non-load bearing structures, characterized in that - the vertical duct element has a quadrangular cross section and includes three load bearing walls comprised in the load bearing frame and one openable wall , - the vertical duct element comprises elements for forming a passage from one superposed vertical duct element to another and through a floor level, whereby said elements for forming a passage comprise a casting cassette , and - the elements for connecting the vertical duct element to at least one floor level element comprise reinforcement bars fixed with cast concrete.
A control device for a converter in which a plurality of power factor enhancement circuits having an inductor , a switching element , and a diode are connected in parallel, the control device comprising: phase calculation means configured to calculate a phase based on a zero-cross point of an input voltage; first phase correction means configured to set a phase correction value (φ) using an input current detection signal; drive signal generation means configured to correct the phase (θ) calculated by the phase calculation means using the phase correction value (φ) set by the first phase correction means and to generate a drive signal (Sg1, Sg2) for driving the switching element using the phase after correction, characterized in that the first phase correction means includes form factor calculation means configured to acquire an input current maximum value and an input current average value from the input current detection signal and to calculate a form factor by dividing the input current maximum value by the input current average value, target form factor acquisition means configured to set a form factor leading to a power factor of a prescribed value or greater as a target form factor, to retain first information associating target form factors and input currents beforehand, and to acquire a target form factor corresponding to an input current value from the first information, and first phase correction value setting means configured to set a phase correction value for causing the form factor to approach the target form factor. phase calculation means configured to calculate a phase based on a zero-cross point of an input voltage; first phase correction means configured to set a phase correction value (φ) using an input current detection signal; drive signal generation means configured to correct the phase (θ) calculated by the phase calculation means using the phase correction value (φ) set by the first phase correction means and to generate a drive signal (Sg1, Sg2) for driving the switching element using the phase after correction, characterized in that the first phase correction means includes form factor calculation means configured to acquire an input current maximum value and an input current average value from the input current detection signal and to calculate a form factor by dividing the input current maximum value by the input current average value, target form factor acquisition means configured to set a form factor leading to a power factor of a prescribed value or greater as a target form factor, to retain first information associating target form factors and input currents beforehand, and to acquire a target form factor corresponding to an input current value from the first information, and first phase correction value setting means configured to set a phase correction value for causing the form factor to approach the target form factor.
A mitral valve prosthesis comprising: a frame having an inflow portion , and a valve-retaining tubular portion , wherein in a deployed configuration the inflow portion of the frame radially extends from a first end of the valve-retaining tubular portion , and wherein the inflow portion of the frame is comprised of a plurality of struts with each strut forming a substantially s-shaped profile when radially extending from the first end of the valve-retaining tubular portion in the deployed configuration, wherein each strut is Y-shaped having a base segment and first and second branch segments that diverge from the base segment , and wherein the base segment of each strut is joined to the valve-retaining tubular portion and wherein the base segment has a twisted area (TA 1 ). a frame having an inflow portion , and a valve-retaining tubular portion , an inflow portion , and a valve-retaining tubular portion , wherein in a deployed configuration the inflow portion of the frame radially extends from a first end of the valve-retaining tubular portion , and wherein the inflow portion of the frame is comprised of a plurality of struts with each strut forming a substantially s-shaped profile when radially extending from the first end of the valve-retaining tubular portion in the deployed configuration, wherein each strut is Y-shaped having a base segment and first and second branch segments that diverge from the base segment , and wherein the base segment of each strut is joined to the valve-retaining tubular portion and wherein the base segment has a twisted area (TA 1 ).
A method for producing a strand in the tobacco-processing industry, having the following method steps: - conveying a first material web having a first width and a second material web having a second width, - gluing at least the second material web , wherein the gluing happens in particular over the entire surface or approximately over the entire surface, - merging the first and the second material web in an offset manner such that the first and the second material web are located above one another and are bonded, - forming the material webs which are located above one another into a tubular strand , characterized in that in order to form the material webs located above one another into a tubular strand , a format belt which is conveyed in a longitudinally axial conveying direction is only partially wound around the material webs located above one another, namely less than or equal to 70% and more than or equal to 30% of the width of the material webs located above one another. - conveying a first material web having a first width and a second material web having a second width, - gluing at least the second material web , wherein the gluing happens in particular over the entire surface or approximately over the entire surface, - merging the first and the second material web in an offset manner such that the first and the second material web are located above one another and are bonded, - forming the material webs which are located above one another into a tubular strand , characterized in that in order to form the material webs located above one another into a tubular strand , a format belt which is conveyed in a longitudinally axial conveying direction is only partially wound around the material webs located above one another, namely less than or equal to 70% and more than or equal to 30% of the width of the material webs located above one another.
A method for filling a cartridge for an aerosol generating device with a liquid, comprising the steps of: - providing a cartridge comprising a container having a bottom and a lateral wall which rises from the bottom and an absorbent element arranged in the container ; - moving the cartridge and at least one cannula from and towards an operative position (A) in which a dispensing end of the cannula is arranged between the lateral wall of the container and the absorbent element ; and - injecting a dosed quantity of liquid in the container through the cannula ; the method being characterized in that it comprises the further steps of: - capturing, by means of image acquisition means, at least one image of the cannula and of the cartridge , when they are moved towards the operative position (A) and a thermal image of the cartridge after the insertion of the liquid; - measuring, by means of a flow sensor, the quantity of liquid passing through the cannula ; and evaluating if the cartridge contains the correct dosed quantity of liquid, after the injection of the liquid into the cartridge , using a control unit connected to the image acquisition means and to the flow sensor. - providing a cartridge comprising a container having a bottom and a lateral wall which rises from the bottom and an absorbent element arranged in the container ; - moving the cartridge and at least one cannula from and towards an operative position (A) in which a dispensing end of the cannula is arranged between the lateral wall of the container and the absorbent element ; and - injecting a dosed quantity of liquid in the container through the cannula ; - capturing, by means of image acquisition means, at least one image of the cannula and of the cartridge , when they are moved towards the operative position (A) and a thermal image of the cartridge after the insertion of the liquid; - measuring, by means of a flow sensor, the quantity of liquid passing through the cannula ; and
A ship's hull, wherein a portion of the ship's hull is above its waterline, wherein the hull above the waterline is designed essentially as a section of an aerofoil of the NACA foil type which is symmetrical to the centre line (S) of the ship's hull and where the leading edge of the aerofoil section is facing in the direction of the front of the ship , in order, with relative wind, to generate an aerodynamic lift that produces propulsion for the ship within an angular sector of the angle of attack (β) between the relative wind and the ship's course or direction of propulsion, the aerodynamic lift being balanced out by a hydrodynamic lift generated below the waterline, and the aerofoil section is delimited by respective upper and lower faces above the waterline which project at angles out from the surface of the aerofoil section across a part of the periphery of the aerofoil section, and at least along the leading edge and part of the sides of the aerofoil section .
A lighting device comprising a light source , a housing and a module for enabling wireless connectivity of the lighting device , wherein the module comprises: - an enclosure having a first main wall opposite to a second main wall ; - an antenna for wireless communication, wherein the antenna is contained within the enclosure , wherein the antenna is adjacent to the first main wall ; and - a controller in connection with said antenna for enabling the wireless connectivity of the lighting device ; characterized in that the module further comprises: - mounting means arranged for mounting the module to the housing in a first position wherein the first main wall abuts the housing , or in a second position wherein the second main wall abuts the housing ; wherein the first main wall of the enclosure comprises a visual indicator for indicating the antenna being adjacent to the first main wall . - an enclosure having a first main wall opposite to a second main wall ; - an antenna for wireless communication, wherein the antenna is contained within the enclosure , wherein the antenna is adjacent to the first main wall ; and - a controller in connection with said antenna for enabling the wireless connectivity of the lighting device ; characterized in that the module further comprises: - mounting means arranged for mounting the module to the housing in a first position wherein the first main wall abuts the housing , or in a second position wherein the second main wall abuts the housing ; wherein the first main wall of the enclosure comprises a visual indicator for indicating the antenna being adjacent to the first main wall . - mounting means arranged for mounting the module to the housing in a first position wherein the first main wall abuts the housing , or in a second position wherein the second main wall abuts the housing ; wherein the first main wall of the enclosure comprises a visual indicator for indicating the antenna being adjacent to the first main wall .