mhurhangee/patent-ind-claim-en huggingface dataset:
Method of operating an apparatus for additive manufacture of three-dimensional workpieces, during a printing operation for production of a workpiece by emitting individual droplets and filling, where the apparatus is a 3D metal printer, comprising a printhead and an apparatus for generating an inert atmosphere within the printhead by means of a gas , especially inert gas, where the printhead comprises a housing , an apparatus for supply of a metal , a piston , a reservoir having an exit orifice and an actuator apparatus for moving the piston , where the reservoir has a melt region and a displacement chamber for a liquid phase of the metal , where the melt region adjoins the inert atmosphere and is connected to the displacement chamber in such a way that the movement of the piston can induce the liquid phase of the metal to pass through the exit orifice , where the apparatus for generating the inert atmosphere is disposed outside the printhead , where it comprises a storage means , at least one means of pressure control, and a gas conduit , characterized in that for production of the workpiece by emission of individual droplets , the pressure (P i ) of the inert atmosphere is controlled by the means of pressure control in such a way that the pressure (P i ) is above the ambient pressure (P a ) and below a limiting pressure that causes emission of droplets through the exit orifice , and for filling of the workpiece, especially a cavity of a workpiece, the pressure (P i ) of the inert atmosphere is controlled by the means of pressure control in such a way that the pressure (P i ) is above the ambient pressure (P a ) and above the limiting pressure that causes emission of droplets through the exit orifice , such that the liquid phase of the metal is emitted through the exit orifice by virtue of the pressure exerted by the inert atmosphere .
A room air purifier comprising a housing , in which an ozone generator with a UV lamp is arranged along a longitudinal axis of the housing , which corresponds to the direction of its largest extension, or runs axis-parallel thereto, wherein a ventilator unit when viewed axially is arranged at an end face of the housing, which causes a flow from or to an opposite end face of the housing as viewed axially, wherein an opening is provided at both end faces of the housing , wherein, depending on the flow direction of the flow caused by the ventilator unit one opening is constituted as an air inlet opening and the other opening as an air outlet opening, via which through-flowing air sucked into the device interior and enriched with ozone is expelled, wherein the ventilator unit can be activated by means of the microcontroller via a switch and is constituted such that the speed can be adjusted, wherein a sensor connected to the microcontroller is integrated into the ventilator unit , which detects the speed of the ventilator unit and transmits it to the microcontroller for evaluation for the purpose of a ventilator unit failure - early detection, wherein the room air purifier comprises an adjustable driver circuit , which ignites the UV lamp after a signal of a microcontroller and operates in such a way that the electrical power and thus the UV light radiation power can be adjusted, characterised in that a transmitter is provided, via which the status of the UV lamp is decoupled, wherein the status of the UV lamp, i.e. ignited or not ignited, is detected via an optocoupler and transmitted to the microcontroller for evaluation for the purpose of a lamp failure - early recognition, wherein the time required to ignites the UV lamp can be determined in the microcontroller by the change of this signal, and wherein an evaluation can be carried out in the microcontroller by the continuous detection of the time which is required to ignite the UV lamp and on the basis of the number of ignitions and the burning time of the UV lamp in order to detect an imminent lamp failure.
An annular cutter for a pour spout fitment, comprising an annular body , a cutting tooth protruding from an axial end of said body, characterised in that said tooth , at its tip , being of a knife-edge shape circumferentially of said annular body and, as viewed radially of said body , said knife-edge shape being curved.
A threaded spindle machine comprising: a metal middle housing part arranged between housing end caps and forming a fluid chamber for receiving a plurality of threaded spindles rotatably supported in the housing end caps ; an insert made of wear-resistant ceramics and adhered into the middle housing part, which insert forms a wear-resistant running surface for the threaded spindles on the inner wall of the fluid chamber and defines an adhesive gap with the inner surface of the middle housing part ; and at least one filling channel leading from an outer surface of the middle housing part to the adhesive gap , characterized in that the filling channel extends from an end of the middle housing part which is adjacent to a housing end cap .
An apparatus for a first wireless node comprising means for performing: - receiving, from a second wireless node, a first signal on a first frequency channel; - deriving at least one long-term quantity associated with at least one of the following: the first signal or the first frequency channel or the first signal and the first frequency channel, wherein the long-term quantity is one of a parameter that is substantially invariant over a duration longer than the transmission duration of a first message and a statistic that is measured over a duration longer than the transmission duration of the first message; - encrypting the first message by applying a function depending on the at least one long-term quantity to said first message; and - transmitting, to the second wireless node, the first encrypted message on a second frequency channel. - receiving, from a second wireless node, a first signal on a first frequency channel; - deriving at least one long-term quantity associated with at least one of the following: the first signal or the first frequency channel or the first signal and the first frequency channel, wherein the long-term quantity is one of a parameter that is substantially invariant over a duration longer than the transmission duration of a first message and a statistic that is measured over a duration longer than the transmission duration of the first message; - encrypting the first message by applying a function depending on the at least one long-term quantity to said first message; and - transmitting, to the second wireless node, the first encrypted message on a second frequency channel.
Staircase module with two steps, for a modular spiral staircase of hexagonal horizontal cross-section, delimited by six vertical corner uprights around a vertical central upright, said module comprising a central post of substantially vertical axis (Z) and two steps of substantially triangular shape, a lower step and an upper step , extending in horizontal planes perpendicular to the axis (Z) of the central post and radially from said central post to which the steps are each secured by a narrow edge of the internal radial end, said two steps each being secured by a wide edge of the external radial end to a single stringer in the form of a plate that is substantially flat and parallel to the axis (Z) of the central post , the stringer having a lower portion and an upper portion which are respectively secured to the side of the wide edge of the lower step and of the upper step , and the module comprising two corner posts having axes parallel to the axis (Z) of the central post , such that the upper ends of the three posts of the module are in the same transverse plane perpendicular to the axes of the three posts of the module, one of the two corner posts, referred to as the front corner post , being integral with the lower portion of the stringer at the front end of said stringer, with the nose of the lower step at its external radial end, and with the wide edge of the lower step at its front end, and the other corner post, referred to as the rear corner post , being integral with the upper portion of the stringer at the rear end of said stringer, with the rear edge of the upper step at its external radial end, and with the wide edge of the upper step at its rear end, the central post and the two corner posts of the module each comprising a female end and a male end which are respectively adapted to receive a male end and to be received in a female end of similar posts of identical modules with two steps, so as to contribute with said similar posts to the formation of said central upright and said corner uprights of the staircase, at least one of the three posts of the module having at least one member of a locking device , capable of engaging with at least one other member of said locking device with which a post of another staircase module or a corner upright post of the staircase is equipped, in order to lock the connection of said module to said other module or corner upright post .
A computer-implemented method for controlling a haptic feedback output to a user, the computer-implemented method comprising: receiving a user input; determining a current context of a device that is based on functionality being performed by the device and associated with the current context at a time of receiving the user input; determining whether the current context is appropriate or not appropriate to allow control of haptic feedback while the device is performing the functionality; displaying , based on the current context in which the device is currently operating, a haptic control user interface in response to the user input when the current context is determined to be appropriate to allow control of the haptic feedback; receiving an additional user input at the haptic control user interface; adjusting a haptic feedback parameter according to the additional user input received at the haptic control user interface, wherein the haptic feedback output to the user is adjusted based on the adjusted haptic feedback parameter; and preventing the haptic control user interface from being displayed in response to the user input when the current context is determined to not be appropriate to allow control of the haptic feedback while the device is performing the functionality. receiving a user input; determining a current context of a device that is based on functionality being performed by the device and associated with the current context at a time of receiving the user input; determining whether the current context is appropriate or not appropriate to allow control of haptic feedback while the device is performing the functionality; displaying , based on the current context in which the device is currently operating, a haptic control user interface in response to the user input when the current context is determined to be appropriate to allow control of the haptic feedback; receiving an additional user input at the haptic control user interface; adjusting a haptic feedback parameter according to the additional user input received at the haptic control user interface, wherein the haptic feedback output to the user is adjusted based on the adjusted haptic feedback parameter; and preventing the haptic control user interface from being displayed in response to the user input when the current context is determined to not be appropriate to allow control of the haptic feedback while the device is performing the functionality.
Composition for dyeing keratin fibres, in particular human keratin fibres such as the hair, comprising: a) one or more fatty substances not containing any salified or unsalified carboxylic acid groups being neither polyoxyalkylenated, nor polyglycerolated; b) one or more alkyl(poly)glucoside nonionic surfactant(s), and/or one or more oxyethylenated C 8 to C 30 fatty acid ester(s) of sorbitan, and/or one or more (poly)alkoxylated fatty alcohol(s) and/or one or more (poly)glycerolated fatty alcohol(s); c) one or more oxidation base(s) chosen from 2-β-hydroxyethyl-para-phenylenediamine and also acid salts thereof or solvates thereof such as hydrates; d) optionally one or more coupler(s); e) optionally one or more basifying agent(s); f) one or more chemical oxidizing agent(s); and the fatty substance content representing in total at least 25% by weight relative to the total weight of the composition. a) one or more fatty substances not containing any salified or unsalified carboxylic acid groups being neither polyoxyalkylenated, nor polyglycerolated; b) one or more alkyl(poly)glucoside nonionic surfactant(s), and/or one or more oxyethylenated C 8 to C 30 fatty acid ester(s) of sorbitan, and/or one or more (poly)alkoxylated fatty alcohol(s) and/or one or more (poly)glycerolated fatty alcohol(s); c) one or more oxidation base(s) chosen from 2-β-hydroxyethyl-para-phenylenediamine and also acid salts thereof or solvates thereof such as hydrates; d) optionally one or more coupler(s); e) optionally one or more basifying agent(s); f) one or more chemical oxidizing agent(s); and
A method for controlling flatness of a wafer comprising the steps of: providing a holding member having a holding surface comprising a plurality of segments , wherein each of the plurality of segments comprises a dry adhesive fiber structure ; making the holding surface of the holding member adhere to a wafer to make the holding member hold the wafer; obtaining information on flatness of the wafer by measuring flatness of the wafer; and releasing adhesion of the dry adhesive fiber structures to the wafer in a part of the plurality of segments of the holding surface of the holding member based on the information on flatness. providing a holding member having a holding surface comprising a plurality of segments , wherein each of the plurality of segments comprises a dry adhesive fiber structure ; making the holding surface of the holding member adhere to a wafer to make the holding member hold the wafer; obtaining information on flatness of the wafer by measuring flatness of the wafer; and releasing adhesion of the dry adhesive fiber structures to the wafer in a part of the plurality of segments of the holding surface of the holding member based on the information on flatness.
An array substrate , comprising a plurality of pixel units formed on a base substrate , a thin film transistor (TFT) and a pixel electrode , a passivation layer and a common electrode sequentially formed on the base substrate being provided in the pixel unit , the pixel electrode being connected with a drain electrode of the thin film transistor (TFT), wherein, a via hole located above the pixel electrode is further provided in at least one of the pixel units , the via hole penetrates through the common electrode and the passivation layer , a bottom of the via hole is in contact with a conductive surface electrically connected with a portion of the pixel electrode , a test pattern electrically connected with the pixel electrode is further disposed in the at least one of the pixel units , and the conductive surface is a surface of the test pattern , characterized in that the test pattern is disposed between the passivation layer and the pixel electrode , and is in direct contact with the passivation layer and the pixel electrode .
A session processing method, comprising: obtaining , by a first session management network element, access point information of an application of a first session, wherein the access point information of the application comprises an indication of no application relocation possibility; determining , by the first session management network element based on the indication of no application relocation possibility, to allocate the first session management network element to a second session, wherein the first session and the second session correspond to a same data network; sending , by the first session management network element, a notification message to an access and mobility management function network element, wherein the notification message comprises an identifier of the first session, a session modification command, and a cause value, and the cause value indicating establishing the second session for the same data network corresponding to the first session; receiving , by the first session management network element, a request message from the access and mobility management function network element, wherein the request message requests to establish the second session, wherein the request message comprises the identifier of the first session and an identifier of the second session; and allocating , by the first session management network element, a first user plane network element to the second session, wherein the first user plane network element is configured to transmit, in the second session, a data flow corresponding to the application. obtaining , by a first session management network element, access point information of an application of a first session, wherein the access point information of the application comprises an indication of no application relocation possibility; determining , by the first session management network element based on the indication of no application relocation possibility, to allocate the first session management network element to a second session, wherein the first session and the second session correspond to a same data network; sending , by the first session management network element, a notification message to an access and mobility management function network element, wherein the notification message comprises an identifier of the first session, a session modification command, and a cause value, and the cause value indicating establishing the second session for the same data network corresponding to the first session; receiving , by the first session management network element, a request message from the access and mobility management function network element, wherein the request message requests to establish the second session, wherein the request message comprises the identifier of the first session and an identifier of the second session; and allocating , by the first session management network element, a first user plane network element to the second session, wherein the first user plane network element is configured to transmit, in the second session, a data flow corresponding to the application.
An object detection method for detecting an object in a captured image, the method comprising: based on the captured image, switching between a clear mode when a lens used for image capturing is not dirty, and a dirty mode when the lens is dirty; in the clear mode: detecting a detection target object included in a captured image and preparing an original image of the detected object; generating a processed image by performing a predetermined process on the prepared original image, wherein the processed image is an artificial dirt image generated from the prepared original image; conducting restoration machine learning about an image of the detection target object by using the original image and the processed image, and generating identifier parameters required for a restoration process; and in the dirty mode; conducting the restoration process to restore an image of the detection target object by using the generated identifier parameters from a captured image; and based on the restored image, detecting the detection target object. based on the captured image, switching between a clear mode when a lens used for image capturing is not dirty, and a dirty mode when the lens is dirty; in the clear mode: detecting a detection target object included in a captured image and preparing an original image of the detected object; generating a processed image by performing a predetermined process on the prepared original image, wherein the processed image is an artificial dirt image generated from the prepared original image; conducting restoration machine learning about an image of the detection target object by using the original image and the processed image, and generating identifier parameters required for a restoration process; and detecting a detection target object included in a captured image and preparing an original image of the detected object; generating a processed image by performing a predetermined process on the prepared original image, wherein the processed image is an artificial dirt image generated from the prepared original image; conducting restoration machine learning about an image of the detection target object by using the original image and the processed image, and generating identifier parameters required for a restoration process; and in the dirty mode; conducting the restoration process to restore an image of the detection target object by using the generated identifier parameters from a captured image; and based on the restored image, detecting the detection target object. conducting the restoration process to restore an image of the detection target object by using the generated identifier parameters from a captured image; and based on the restored image, detecting the detection target object.
A method for performing communication by a first device among a plurality of devices in a wireless communication system, the method comprising: receiving a radio resource control, RRC, message including first information, second information and third information, wherein the first information is related to a number of first resource blocks, RBs, allocated during short transmission time intervals, sTTIs, wherein the second information is related to a format of a plurality of first downlink channels, wherein the third information is related to a resource mapping method in the sTTIs, and wherein the sTTIs are shorter than a TTI which is related to a subframe; receiving, during the TTI, fourth information on an indicator of the number of resource allocation bits in the plurality of the first downlink channels through a common control channel for the plurality of the devices, wherein the resource allocation bits are dynamically determined based on the first to fourth information, wherein a number of the resource allocation bits is related to a number of second devices that can be allocated in the first RBs, wherein the first device is included in the second devices; acquiring allocation information on second RBs for the first device among the first RBs based on the resource allocation bits; receiving, during the sTTIs, the resource allocation bits through the plurality of the first downlink channels for scheduling uplink data and downlink data; and transmitting the uplink data in the second RBs during the sTTIs, or receiving the downlink data in the second RBs during the sTTIs. receiving a radio resource control, RRC, message including first information, second information and third information, wherein the first information is related to a number of first resource blocks, RBs, allocated during short transmission time intervals, sTTIs, wherein the second information is related to a format of a plurality of first downlink channels, wherein the third information is related to a resource mapping method in the sTTIs, and wherein the sTTIs are shorter than a TTI which is related to a subframe; receiving, during the TTI, fourth information on an indicator of the number of resource allocation bits in the plurality of the first downlink channels through a common control channel for the plurality of the devices, wherein the resource allocation bits are dynamically determined based on the first to fourth information, wherein a number of the resource allocation bits is related to a number of second devices that can be allocated in the first RBs, wherein the first device is included in the second devices; acquiring allocation information on second RBs for the first device among the first RBs based on the resource allocation bits; receiving, during the sTTIs, the resource allocation bits through the plurality of the first downlink channels for scheduling uplink data and downlink data; and transmitting the uplink data in the second RBs during the sTTIs, or receiving the downlink data in the second RBs during the sTTIs.