mhurhangee/patent-ind-claim-en huggingface dataset:
A method for a radio network node (BS1, BS2) in a radio communications network, the radio network node providing service to a macro cell in which a pico cell is located, the method comprising: processing, with electronic circuitry , data for or from a frame structure that includes: one or more subframes preconfigured as downlink subframes, one or more subframes preconfigured as uplink subframes, and one or more flexible subframes dynamically allocated to be an uplink subframe in one instance and a downlink subframe in another instance; determining whether transmitting using a flexible subframe in the macro cell will interfere with transmission in the pico cell, and using the flexible subframe for either uplink reception or downlink transmission when there is no need to protect transmissions in the pico cell during the flexible subframe; generating, with electronic circuitry , information for a user equipment indicating how the user equipment (MS1, MS2) should interpret or use one or more flexible subframes; and transmitting the information to the user equipment. one or more subframes preconfigured as downlink subframes, one or more subframes preconfigured as uplink subframes, and one or more flexible subframes dynamically allocated to be an uplink subframe in one instance and a downlink subframe in another instance; determining whether transmitting using a flexible subframe in the macro cell will interfere with transmission in the pico cell, and using the flexible subframe for either uplink reception or downlink transmission when there is no need to protect transmissions in the pico cell during the flexible subframe; generating, with electronic circuitry , information for a user equipment indicating how the user equipment (MS1, MS2) should interpret or use one or more flexible subframes; and transmitting the information to the user equipment.
A server apparatus to which a plurality of image forming apparatuses are connected through a network , the server apparatus comprising: a storage unit configured to store a user ID of a user who registers print data, correlate the print data, which is printed by an image forming apparatus of the plurality of image forming apparatuses, to the user ID, and store the correlated print data; and a control unit configured to perform controlling such that the control unit performs a user authentication using the stored user ID and transmits the print data correlated to the authenticated user ID and stored in the storage unit to the image forming apparatus after the user authentication, when the control unit receives information for designating the print data displayed by the image forming apparatus, a sharing access code correlated to the designated print data and a preparation instruction of the sharing access code from the image forming apparatus, the control unit correlates the received sharing access code to the designated print data, and causes the correlated result to be stored in the storage unit, and when the control unit receives designation of the sharing access code and a retrieval instruction for the inputted share access code from the image forming apparatus after the user authentication, the control unit reads out information relating to the print data correlated to the sharing access code from the storage unit, and transmits the read-out information to the image forming apparatus. a storage unit configured to store a user ID of a user who registers print data, correlate the print data, which is printed by an image forming apparatus of the plurality of image forming apparatuses, to the user ID, and store the correlated print data; and a control unit configured to perform controlling such that the control unit performs a user authentication using the stored user ID and transmits the print data correlated to the authenticated user ID and stored in the storage unit to the image forming apparatus after the user authentication, when the control unit receives information for designating the print data displayed by the image forming apparatus, a sharing access code correlated to the designated print data and a preparation instruction of the sharing access code from the image forming apparatus, the control unit correlates the received sharing access code to the designated print data, and causes the correlated result to be stored in the storage unit, and when the control unit receives designation of the sharing access code and a retrieval instruction for the inputted share access code from the image forming apparatus after the user authentication, the control unit reads out information relating to the print data correlated to the sharing access code from the storage unit, and transmits the read-out information to the image forming apparatus.
An elongated lighting system extending over a length comprising: a modular unit extending along the length of the lighting system and comprising an arcuate portion, the arcuate portion being arcuate in a direction perpendicular to the length and having a diffusive reflective surface a light emitting diode cradle securing at least one light emitting LED , a diffusive transmissive element extending along the length of the lighting system and diffusing again light emanating from the diffusive reflective surface towards an area to be illuminated, characterized in that the modular unit further comprises: a mouth region connected to the arcuate portion and comprising a first surface and a second surface ; wherein the second surface includes a lip ; wherein the first and second surfaces are oppositely disposed; a track formed between the second surface and the lip ; a mounting cavity receiving an elongate surface of the diffusive transmissive element on an outside surface of the modular unit ; and a neck region comprising a groove interfacing with a portion of the light-emitting diode cradle , wherein the light emitting diode cradle being positioned along the track of the modular unit with the primary direction of the at least one LED being aimed at the reflective surface . a modular unit extending along the length of the lighting system and comprising an arcuate portion, the arcuate portion being arcuate in a direction perpendicular to the length and having a diffusive reflective surface a light emitting diode cradle securing at least one light emitting LED , a diffusive transmissive element extending along the length of the lighting system and diffusing again light emanating from the diffusive reflective surface towards an area to be illuminated, characterized in that the modular unit further comprises: a mouth region connected to the arcuate portion and comprising a first surface and a second surface ; wherein the second surface includes a lip ; wherein the first and second surfaces are oppositely disposed; a track formed between the second surface and the lip ; a mounting cavity receiving an elongate surface of the diffusive transmissive element on an outside surface of the modular unit ; and a neck region comprising a groove interfacing with a portion of the light-emitting diode cradle , wherein the light emitting diode cradle being positioned along the track of the modular unit with the primary direction of the at least one LED being aimed at the reflective surface .
An evacuation system for evacuating crew members of a ship , having an enclosed escape capsule for accommodating the crew members, wherein the escape capsule is arranged in an enclosed protective space of the ship in a boarding position in which the escape capsule is able to be boarded by the crew members, wherein the evacuation system has an acceleration device with which the escape capsule is able to be accelerated out of the protective space , characterized in that the acceleration device has a traction means for accelerating the escape capsule out of the protective space , wherein the acceleration of the escape capsule is settable.
An electronic cigarette, comprising an atomization assembly (A), a battery assembly (B), and a base assembly (C); wherein: the atomization assembly (A) comprises a heating module ; the heating module comprises a sleeve , a filter screen , a container , a support , and a ceramic core ; the ceramic core comprises three or more heating elements connected in parallel; the ceramic core is fixed on the support ; the container is disposed on a top end of the ceramic core ; and the filter screen is disposed on a top opening of the container ; when in use, the ceramic core produces heat to heat a smoke material stored in the container ; characterized in that: the base assembly (C) comprises a top surface provided with a first threaded hole and a second threaded hole disposed abreast with each other; the atomization assembly (A) and the battery assembly (B) are disposed side by side in the first threaded hole and the second threaded hole of the base assembly (C). the base assembly (C) comprises a top surface provided with a first threaded hole and a second threaded hole disposed abreast with each other; the atomization assembly (A) and the battery assembly (B) are disposed side by side in the first threaded hole and the second threaded hole of the base assembly (C).
Heating device, comprising a housing , a cover , and heating components , in which the heating components comprise a burner , a heat exchanger , an air supply line , and a flue-gas discharge line , the burner is removably connected to a top side of the heat exchanger in order to heat a medium which flows through the heat exchanger , in a position of use, the cover is removably connected to a front side of the housing , the housing comprises a rear housing wall , a left-hand lateral housing wall , a right-hand lateral housing wall , a housing bottom and a top housing wall , the left-hand lateral housing wall , the right-hand lateral housing wall , the housing bottom and the top housing wall are each fixedly connected to the rear housing wall in a gas-tight manner, each extend from the rear housing wall to the cover and each comprise a front side on the respective sides facing away from the rear housing wall , and in the position of use, the cover joins onto the respective front sides of the left-hand lateral housing wall , the right-hand lateral housing wall , the housing bottom and the top housing wall in a gas-tight manner in order to create a space inside the housing which is gas-tight with respect to an environment in which the heating device is installed, in which gas-tight space at least the heating components are provided, an imaginary front face is defined by the respective front sides of the left-hand lateral housing wall , the right-hand lateral housing wall , the housing bottom and the top housing wall , and at least a part of at least one of the heating components is situated between the imaginary front face and the cover in the position of use, characterized in that at the location of one of the lateral housing walls , the top housing wall extends less far from the rear housing wall towards the cover than the housing bottom extends from the rear housing wall towards the cover at the location of the same one of the lateral housing wall , such that a maintenance engineer can easily reach the components inside the housing .
A friction lining for a brake pad , comprising: a solid body of friction material having plurality of slots joined at a vortex zone , wherein the vortex zone comprises a recess that extends from a friction surface of the solid body down into the solid body, wherein at least one of the slots is an arced horizontal slot that extends along a length (L) of the friction lining, and wherein the plurality of slots comprises at least first and second slots, the slots opening into the vortex zone along non-intersecting paths at locations that are offset from each other .
Container treatment machine for treating containers , comprising at least one transport element (24; 62; 104) which has container holders , which is rotatably driven about an axis of rotation and with which the containers to be treated, fed via a container inlet , can be conveyed to the treatment stations and, after treatment there, can be conveyed to a container outlet , wherein the transport element is arranged such as to be pivoted together with the container holders about a horizontal axis by means of a pivoting device (16; 106), wherein the container holders can be pivoted by pivoting the transport element between a feeding position, with the container opening upwards, and a treatment position, with the container opening downwards, and wherein the pivoting device (16; 106) comprises a pivot drive (18; 111) for pivoting a pivot arm (20; 66; 114), wherein the transport element (24; 104) is held at the pivot arm (20; 66; 114) such as to be rotatable by means of a rotary drive (22; 102).
Method for cleaning a surface by means of a floor cleaning system , wherein the floor cleaning system has - at least two autonomous floor cleaning units , - at least one charging station , - at least one cleaning station and - at least one computing unit, comprising the following method steps: a) a central computing unit acquires information regarding the floor cleaning units ; b) the central computing unit processes the information, specifically such that a sequence in which the relevant floor cleaning units are to be processed by means of the cleaning station is defined; c) the central computing unit transmits commands to the relevant floor cleaning units , so that they approach the cleaning station in the defined sequence. wherein the floor cleaning system has - at least two autonomous floor cleaning units , - at least one charging station , - at least one cleaning station and - at least one computing unit, - at least two autonomous floor cleaning units , - at least one charging station , - at least one cleaning station and - at least one computing unit, comprising the following method steps: a) a central computing unit acquires information regarding the floor cleaning units ; b) the central computing unit processes the information, specifically such that a sequence in which the relevant floor cleaning units are to be processed by means of the cleaning station is defined; c) the central computing unit transmits commands to the relevant floor cleaning units , so that they approach the cleaning station in the defined sequence. a) a central computing unit acquires information regarding the floor cleaning units ; b) the central computing unit processes the information, specifically such that a sequence in which the relevant floor cleaning units are to be processed by means of the cleaning station is defined; c) the central computing unit transmits commands to the relevant floor cleaning units , so that they approach the cleaning station in the defined sequence.
A central belt system comprising a container conveyor and comprising order packages (4.1, 4.2) transported on the container conveyor , comprising at least one central belt which has a conveying direction toward the container conveyor , with the central belt having at least a first and a second belt area (8.1, 8.2) in the transverse direction to the conveying direction , and comprising first and second article chutes (9.1, 9.2) associated with the respective first and second belt areas (8.1, 8.2) and each having articles according to a range of articles and designed for ejecting the articles into the respective first and second belt areas (8.1, 8.2), respectively, characterized in that the central belt system has a control in order to eject articles from the first article chutes (9.1) during a first time window (12.1) according to a first order (13.1) and to eject articles from the second article chutes (9.2) during a second time window (12.2) according to a second order (13.2), with the first and second article chutes (9.1, 9.2) having an identical range of articles and the first and second time windows (12.1, 12.2) being synchronized with one another, and that at least a first and a second order package (4.1, 4.2) are provided on the container conveyor in order to order-pick the articles , which have been ejected onto the central belt in parallel and independently of one another, from the first and second belt areas (8.1, 8.2) on the central belt in parallel into the respective first and second order packages (4.1, 4.2) on the container conveyor .
A bone reamer comprising: a shaft including a proximal end , a distal end , and a flexible portion disposed between the proximal and distal ends; and a cutting element carried by the shaft, the cutting element including a cutting arm having a cutting surface facing the distal end of the shaft such that the distal end extends axially beyond the cutting surface . a shaft including a proximal end , a distal end , and a flexible portion disposed between the proximal and distal ends; and a cutting element carried by the shaft, the cutting element including a cutting arm having a cutting surface facing the distal end of the shaft such that the distal end extends axially beyond the cutting surface .
A composition comprising a fenamate or a prodrug thereof, said composition for use in therapeutically treating or preventing one or more indicators or symptoms associated with autism or an autism spectrum disorder (ASD) in a human subject, wherein the fenamate is selected from the group consisting of fenamic acid, mefenamic acid (MFA), niflumic acid, tolfenamic acid, and meclofenamic acid, and wherein the prodrug comprises the fenamate: (a) covalently bound to polyethylene glycol (PEG); (b) directly bound or bound by a linker to the same fenamate molecule; (c) directly bound or bound by a linker to a different fenamate molecule; or (d) directly bound or bound by a linker to a calcium channel modulator selected from gabapentin, pregabalin, or atagabalin. (a) covalently bound to polyethylene glycol (PEG); (b) directly bound or bound by a linker to the same fenamate molecule; (c) directly bound or bound by a linker to a different fenamate molecule; or (d) directly bound or bound by a linker to a calcium channel modulator selected from gabapentin, pregabalin, or atagabalin.
A process for preparing a supported catalyst for slurry phase hydrocracking, the catalyst comprising exfoliated metal sulphide, said process comprising the following steps: i. charging a vessel with a predetermined amount of metal sulphide and one fluid medium to obtain a first mixture comprising metal sulphide; ii. sonicating said first mixture to obtain a resultant mixture comprising an exfoliated metal sulphide; iii. mixing said exfoliated metal sulphide with a predetermined amount of one support material to obtain a slurry; iv. ageing said slurry for a time period in the range of 12 to 60 hours at a temperature in the range of 10 to 80°C to obtain an aged slurry; and v. drying and calcining said aged slurry under inert atmosphere to obtain the supported catalyst comprising exfoliated metal sulphide; wherein said one support material is selected from the group consisting of activated carbon, multiwall carbon nanotubes, and porous silica; wherein said calcination is carried out at a temperature in the range of 300 to 550 °C; wherein said fluid medium is N-methyl pyrrolidone (NMP). i. charging a vessel with a predetermined amount of metal sulphide and one fluid medium to obtain a first mixture comprising metal sulphide; ii. sonicating said first mixture to obtain a resultant mixture comprising an exfoliated metal sulphide; iii. mixing said exfoliated metal sulphide with a predetermined amount of one support material to obtain a slurry; iv. ageing said slurry for a time period in the range of 12 to 60 hours at a temperature in the range of 10 to 80°C to obtain an aged slurry; and v. drying and calcining said aged slurry under inert atmosphere to obtain the supported catalyst comprising exfoliated metal sulphide; wherein said one support material is selected from the group consisting of activated carbon, multiwall carbon nanotubes, and porous silica; wherein said calcination is carried out at a temperature in the range of 300 to 550 °C; wherein said fluid medium is N-methyl pyrrolidone (NMP). wherein said one support material is selected from the group consisting of activated carbon, multiwall carbon nanotubes, and porous silica; wherein said calcination is carried out at a temperature in the range of 300 to 550 °C; wherein said fluid medium is N-methyl pyrrolidone (NMP).
Battery system with integrated balancing, comprising a plurality of battery cells electrically connected in series between a first terminal and a second terminal ; an intermediate node dividing the plurality of battery cells in a first subset of battery cells and a second subset of battery cells ; a control unit with a first supply node and a second supply node ; and a converter comprising an output , an inductance , a first switching element and a rectifiying element , wherein: the first switching element has a first end directly connected to the second terminal and a second end directly connected to both a first end of the inductance and a first end of the rectifying element , the rectifying element has a second end directly connected to the first terminal , the rectifying element being either a second switching element or a diode whose anode corresponds to the second end of the rectifying element as defined, the inductance has a second end directly connected to the output , the output is connected to the intermediate node ; characterized in that the first supply node and the second supply node are directly connected to the first terminal and the output of the converter, respectively. the first switching element has a first end directly connected to the second terminal and a second end directly connected to both a first end of the inductance and a first end of the rectifying element , the rectifying element has a second end directly connected to the first terminal , the rectifying element being either a second switching element or a diode whose anode corresponds to the second end of the rectifying element as defined, the inductance has a second end directly connected to the output , the output is connected to the intermediate node ; characterized in that the first supply node and the second supply node are directly connected to the first terminal and the output of the converter, respectively.
A battery module, comprising: a module frame having a top and sides that extend down from the top ; a cell-stacking structure disposed between the sides of the module frame and including a plurality of stacked battery cells and surface pressure pads disposed between a predetermined number of the battery cells to be compressed in the stacking direction of the battery cells ; a bottom plate disposed under the cell-stacking structure and bonded to lower ends of the sides of the module frame ; and a cooling water block attached to the bottom of the bottom plate to supply cooling water to the bottom of the bottom plate . a module frame having a top and sides that extend down from the top ; a cell-stacking structure disposed between the sides of the module frame and including a plurality of stacked battery cells and surface pressure pads disposed between a predetermined number of the battery cells to be compressed in the stacking direction of the battery cells ; a bottom plate disposed under the cell-stacking structure and bonded to lower ends of the sides of the module frame ; and a cooling water block attached to the bottom of the bottom plate to supply cooling water to the bottom of the bottom plate .