mhurhangee/patent-ind-claim-en huggingface dataset:
A display device (DD, DD-1, DD-2) comprising: a base layer (SUB) comprising a display area (DA) and a non-display area (NDA); a circuit layer (DP-CL) disposed on the base layer (SUB); a light emitting device layer (DP-OLED) comprising an organic light emitting diode (OLED) disposed on the circuit layer (DP-CL), a pixel definition layer (PDL) comprising an opening (OP) for exposing a first electrode (AE) of the light emitting diode (OLED), and a plurality of insulation patterns (IP) located on an area of the circuit layer (DP-CL) overlapping the non-display area (NDA); a thin film encapsulation layer (TFE) comprising an organic layer (OL) disposed on the light emitting device layer (DP-OLED) and overlapping the plurality of insulation patterns (IP) and the organic light emitting diode (OLED); and a touch sensing unit (TS) comprising a plurality of touch electrodes (TE1-1, TE1-2, TE1-3, TE1-4, TE2-1, TE-2-2, TE2-3, TE2-4, TE2-5) and a plurality of touch signal lines (SL1-1, SL1-2, SL1-3, SL1-4, SL2-1, SL2-2, SL2-3, SL2-4, SL2-5) connected to the plurality of touch electrodes (TE1-1, TE1-2, TE1-3, TE1-4, TE2-1, TE-2-2, TE2-3, TE2-4, TE2-5), the touch sensing unit (TS) being disposed on the organic layer (OL) of the thin film encapsulation layer (TFE), wherein at least a portion of the plurality of touch signal lines (SL1-1, SL1-2, SL1-3, SL1-4, SL2-1, SL2-2, SL2-3, SL2-4, SL2-5) overlaps the plurality of insulation patterns (IP). a base layer (SUB) comprising a display area (DA) and a non-display area (NDA); a circuit layer (DP-CL) disposed on the base layer (SUB); a light emitting device layer (DP-OLED) comprising an organic light emitting diode (OLED) disposed on the circuit layer (DP-CL), a pixel definition layer (PDL) comprising an opening (OP) for exposing a first electrode (AE) of the light emitting diode (OLED), and a plurality of insulation patterns (IP) located on an area of the circuit layer (DP-CL) overlapping the non-display area (NDA); a thin film encapsulation layer (TFE) comprising an organic layer (OL) disposed on the light emitting device layer (DP-OLED) and overlapping the plurality of insulation patterns (IP) and the organic light emitting diode (OLED); and a touch sensing unit (TS) comprising a plurality of touch electrodes (TE1-1, TE1-2, TE1-3, TE1-4, TE2-1, TE-2-2, TE2-3, TE2-4, TE2-5) and a plurality of touch signal lines (SL1-1, SL1-2, SL1-3, SL1-4, SL2-1, SL2-2, SL2-3, SL2-4, SL2-5) connected to the plurality of touch electrodes (TE1-1, TE1-2, TE1-3, TE1-4, TE2-1, TE-2-2, TE2-3, TE2-4, TE2-5), the touch sensing unit (TS) being disposed on the organic layer (OL) of the thin film encapsulation layer (TFE), wherein at least a portion of the plurality of touch signal lines (SL1-1, SL1-2, SL1-3, SL1-4, SL2-1, SL2-2, SL2-3, SL2-4, SL2-5) overlaps the plurality of insulation patterns (IP).
Fuel pump with an electric motor and with a pump stage , with a motor housing of the electric motor , with a pump housing of the pump stage , and with a sheet metal shell which engages behind edges of the motor housing and the pump housing , the motor housing being configured to secure a stator , enclosing a rotor , of the electric motor , the motor housing having a portion made from plastic which secures the stator , the edge of the motor housing for the sheet metal shell being arranged on the side which faces the pump housing as viewed from the stator , characterized in that the sheet metal shell engages behind the edges with in each case one rolled portion in such a way that the pump housing is prestressed against the motor housing .
A receive, RX, user equipment (UE) associated with a wireless communication network , the UE comprising: one or more processors configured to: form a sidelink group with one or more other UEs associated with the wireless communication network; receive a sidelink (SL) groupcast message from a select UE of the one or more other UEs of the sidelink group, the SL groupcast message comprising a SL channel state information (CSI) request and a transmission of a SL channel state information reference signal (CSI-RS); process the SL groupcast message; and selectively provide an SL CSI report , based on a predefined association between the RX UE and the select UE, to the select UE, wherein the SL CSI report is derived based on a measured SL CSI, wherein the SL CSI report is selectively provided in response to processing the SL groupcast message. form a sidelink group with one or more other UEs associated with the wireless communication network; receive a sidelink (SL) groupcast message from a select UE of the one or more other UEs of the sidelink group, the SL groupcast message comprising a SL channel state information (CSI) request and a transmission of a SL channel state information reference signal (CSI-RS); process the SL groupcast message; and selectively provide an SL CSI report , based on a predefined association between the RX UE and the select UE, to the select UE, wherein the SL CSI report is derived based on a measured SL CSI, wherein the SL CSI report is selectively provided in response to processing the SL groupcast message.
Internal combustion engine, in particular as a drive engine for a vehicle, comprising an engine braking device , wherein the engine braking device has a throttle element which is associated with an exhaust gas section , in particular a throttle valve, for damming an exhaust gas which is emitted by a combustion device , and comprising a measuring device (51; 71; 83) by means of which the exhaust gas pressure can be measured at a defined measuring region of the exhaust gas section upstream of the throttle element as seen in the exhaust gas flow direction, characterized in that at least one further measuring device (51; 75; 83) is provided, by means of which the exhaust gas pressure can likewise be measured at the defined measuring region in order to realize a redundant exhaust gas pressure measurement, and in that the measurement signals which are determined by means of the measuring devices (51; 71, 75; 83) can be transmitted to a controller , in particular to a controller for controlling the throttle element , wherein a connecting line branches off from an exhaust gas line of the exhaust gas section at the defined measuring region , an interior chamber of the exhaust gas line being connected in a pressuretransmitting manner by means of the said connecting line to a pressure chamber of a pressure-determining device which comprises the measuring devices (51; 71, 75; 83), in such a way that substantially only the hydrostatic exhaust gas pressure acts in the pressure chamber .
A system for controlling flow of a gas to a plasma torch of an additive manufacturing device, comprising: a source of an inert gas; a supply manifold in fluid communication with the source of the inert gas; a plasma torch comprising a gas inlet for receiving the inert gas from an inert gas line connected to the supply manifold, and a gas ionizer electromagnetic field for ionizing the inert gas into plasma; sensory kit comprising a temperature measurement unit , a pressure measurement unit , and a mass flow measurement unit , wherein each unit is in communication with one or more sensory connecters connected to a position of the inert gas line between the supply manifold and the gas ionizer electromagnetic field; a control valve that is in fluid communication with the gas supply manifold and regulates flow of the inert gas from the gas supply manifold to the plasma torch; a process master controller in communication with the sensory kit; a part program that provides a mass flow set value or a volumetric flow set value or both a mass flow set value and a volumetric flow set value to the process master controller; a calculation function running on the process master controller calculating actual volumetric flow; and a) a mass flow control function running on the process master controller; or b) a volumetric flow control function running on the process master controller; and wherein the system further comprises a density control element that controls the temperature and/or pressure of the inert gas delivered to the inlet of the plasma torch. a source of an inert gas; a supply manifold in fluid communication with the source of the inert gas; a plasma torch comprising a gas inlet for receiving the inert gas from an inert gas line connected to the supply manifold, and a gas ionizer electromagnetic field for ionizing the inert gas into plasma; sensory kit comprising a temperature measurement unit , a pressure measurement unit , and a mass flow measurement unit , wherein each unit is in communication with one or more sensory connecters connected to a position of the inert gas line between the supply manifold and the gas ionizer electromagnetic field; a control valve that is in fluid communication with the gas supply manifold and regulates flow of the inert gas from the gas supply manifold to the plasma torch; a process master controller in communication with the sensory kit; a part program that provides a mass flow set value or a volumetric flow set value or both a mass flow set value and a volumetric flow set value to the process master controller; a calculation function running on the process master controller calculating actual volumetric flow; and a) a mass flow control function running on the process master controller; or b) a volumetric flow control function running on the process master controller; and wherein a) a mass flow control function running on the process master controller; or b) a volumetric flow control function running on the process master controller; and wherein the system further comprises a density control element that controls the temperature and/or pressure of the inert gas delivered to the inlet of the plasma torch.
A computer-implemented method for load balancing backup data, at least a portion of the method being performed by a computing device comprising at least one physical processor, the method comprising: receiving a request to backup files in a multi-node computing cluster; identifying, based on the request, a backup distribution of the files among a plurality of backup clients, wherein the plurality of backup clients comprises a plurality of server proxy clients; reading an initial backup data block of a current file from a data node in the multi-node computing cluster; reading a copy of an initial backup data block of an additional file from another data node in the multi-node computing cluster; reading a subsequent backup data block of the current file from the data node in the multi-node computing cluster; and balancing backup of the current and additional files among the data node and the another data node by reading a copy of a subsequent backup data block of the additional file from the another data node in the multi-node computing cluster, wherein the copy of the subsequent backup data block represents any copy of a backup data block following the copy of the initial backup data block, wherein the copy of the subsequent backup data block belongs to the additional file from the another data node in the multi-node computing cluster, and wherein the copy of the subsequent backup data block does not directly follow the copy of the initial backup data block. receiving a request to backup files in a multi-node computing cluster; identifying, based on the request, a backup distribution of the files among a plurality of backup clients, wherein the plurality of backup clients comprises a plurality of server proxy clients; reading an initial backup data block of a current file from a data node in the multi-node computing cluster; reading a copy of an initial backup data block of an additional file from another data node in the multi-node computing cluster; reading a subsequent backup data block of the current file from the data node in the multi-node computing cluster; and balancing backup of the current and additional files among the data node and the another data node by reading a copy of a subsequent backup data block of the additional file from the another data node in the multi-node computing cluster, wherein the copy of the subsequent backup data block represents any copy of a backup data block following the copy of the initial backup data block, wherein the copy of the subsequent backup data block belongs to the additional file from the another data node in the multi-node computing cluster, and wherein the copy of the subsequent backup data block does not directly follow the copy of the initial backup data block.
A reversible recording medium comprising: a support base material; a first layer configured to reversibly change between an achromatic state and a transparent state; and a second layer configured to reversibly change between a chromatic state and a transparent state, wherein the second layer includes a leuco pigment, wherein the second layer includes a plurality of layers having different color hues in the chromatic state, and the plurality of layers are disposed on same plane, wherein the first layer and the second layer are stacked to configure a recording layer, and wherein the first layer and the second layer are stacked in this order on the support base material. a support base material; a first layer configured to reversibly change between an achromatic state and a transparent state; and a second layer configured to reversibly change between a chromatic state and a transparent state, wherein the second layer includes a leuco pigment, wherein the second layer includes a plurality of layers having different color hues in the chromatic state, and the plurality of layers are disposed on same plane, wherein the first layer and the second layer are stacked to configure a recording layer, and wherein the first layer and the second layer are stacked in this order on the support base material.
A compound with absolute configuration S, or a pharmaceutically acceptable salt, hydrate, or solvate thereof, wherein the compound is selected from the group consisting of: (S)-N-(1,1-difluoro-2,3-dihydro-3-(4-methylpiperazin-1-yl)-1H-indan-6-yl)-3-(2-(imidazo[1,2-b]pyridazin-3-yl)ethynyl)-4-methylbenzamide; (S)-3-(2-(2-(Cyclopropylamino)pyrimidin-5-yl)ethynyl)-N-(1,1-difluoro-2,3-dihydro-3-(4-methylpiperazin-1-yl)-1H-indan-6-yl)-4-methylbenzamide; (S)-N-(1,1-difluoro-2,3-dihydro-3-(4-methylpiperazin-1-yl)-1H-indan-6-yl)-3-(2-(imidazo[1,2-b]pyridazin-3-yl)ethynyl)-4-chlorobenzamide; and (S)-N-(1,1-difluoro-2,3-dihydro-3-(4-methylpiperazin-1-yl)-1H-indan-6-yl)-3-(2-(imidazo[1,2-b]pyridazin-3-yl)ethynyl)-4-fluorobenzamide. (S)-N-(1,1-difluoro-2,3-dihydro-3-(4-methylpiperazin-1-yl)-1H-indan-6-yl)-3-(2-(imidazo[1,2-b]pyridazin-3-yl)ethynyl)-4-methylbenzamide; (S)-3-(2-(2-(Cyclopropylamino)pyrimidin-5-yl)ethynyl)-N-(1,1-difluoro-2,3-dihydro-3-(4-methylpiperazin-1-yl)-1H-indan-6-yl)-4-methylbenzamide; (S)-N-(1,1-difluoro-2,3-dihydro-3-(4-methylpiperazin-1-yl)-1H-indan-6-yl)-3-(2-(imidazo[1,2-b]pyridazin-3-yl)ethynyl)-4-chlorobenzamide; and (S)-N-(1,1-difluoro-2,3-dihydro-3-(4-methylpiperazin-1-yl)-1H-indan-6-yl)-3-(2-(imidazo[1,2-b]pyridazin-3-yl)ethynyl)-4-fluorobenzamide.
A skin external preparation including: a drug; and nanometer-size molecular assemblies, characterized in that the molecular assemblies contain an amphiphilic block copolymer having a hydrophilic block chain including a sarcosine-derived structural unit and a hydrophobic block chain including a hydroxy acid-derived structural unit; and the drug is selected from the group consisting of statins and an Alzheimer-type dementia treatment drug, selected from donepezil hydrochloride, memantine hydrochloride, rivastigmine, rivastigmine tartrate and galantamine hydrobromide.
A system for the remote control of lighting apparatuses, in particular emergency lighting apparatuses, comprising a smartphone used as a remote controller and at least one external lighting device , said smartphone and said at least one external lighting device being adapted to mutually communicate, wherein said smartphone comprises a transmitter apparatus represented by a flash or a display of said smartphone having controlled activation and a receiver device used as a receiver of digital optical signals which integrates a control, programming and management system managed by a software program , and wherein said at least one external lighting device incorporates a receiving circuit comprising a receiver photosensor associated with a decoding and control circuit adapted to interface with the operating circuits of said at least one lighting device so as to remotely carry out tests and/or functions of said at least one lighting device via said transmitter apparatus, characterised in that said smartphone is adapted to actuate optical commands directed at said at least one lighting device , in the form of encoded luminous messages of intensity or duration-controlled sequences of light variations according to an optical code and various levels of luminosity, by means of a modulating process of the switching-on and the switching-off of said flash or display of the smartphone .
A hot press-formed member obtained by hot press-forming having: a ridge portion connecting one surface and another surface; a reinforcing member joined to the ridge portion ; and a weld provided on the ridge portion , wherein the reinforcing member has a widthwise dimension which covers the entirety of the ridge portion in a cross section perpendicular to an extending direction of the ridge portion , wherein the weld has no HAZ softened portion, wherein the weld has a linear shape or a curved shape in the extending direction of the ridge portion , wherein the weld is a spot weld, a seam weld, a laser weld or a plasma weld, and wherein the hot press-forming comprises the member having the reinforcing member welded thereto undergoing press forming after being heated to a temperature of at least the Ac 3 point. a ridge portion connecting one surface and another surface; a reinforcing member joined to the ridge portion ; and a weld provided on the ridge portion , wherein the reinforcing member has a widthwise dimension which covers the entirety of the ridge portion in a cross section perpendicular to an extending direction of the ridge portion , wherein the weld has no HAZ softened portion, wherein the weld has a linear shape or a curved shape in the extending direction of the ridge portion , wherein the weld is a spot weld, a seam weld, a laser weld or a plasma weld, and wherein the hot press-forming comprises the member having the reinforcing member welded thereto undergoing press forming after being heated to a temperature of at least the Ac 3 point.
A system for obtaining position sensor space data regarding an endovascular prosthesis within an anatomical region of a patient, the system comprising: a tracking system ; at least one position indicating element whose location is tracked by a tracking system , the tracked location providing position sensor space data regarding a location of the at least one position indicating element in a coordinate system of the tracking system ; an endovascular prosthesis having an expandable body portion wherein the at least one position indicating element is movable within the body portion of the endovascular prosthesis ; a guidance portion that constrains movement of the at least one position indicating element within the body portion of the endovascular prosthesis ; and a motive portion that moves the at least one position indicating element within the body portion of the endovascular prosthesis while the at least one position indicating element is tracked to produce position sensor space data regarding at least two points within the body portion of the endovascular prosthesis , wherein the at least two points are constrained by the guidance portion , wherein the guidance portion includes a straight line portion that axially traverses the body portion of the endovascular prosthesis lengthwise that forms a path for the at least one position indicating element generally along a length of the body portion of the endovascular prosthesis , and wherein the straight line portion generally deforms in accordance with deformations in the body portion of the endovascular prosthesis. a tracking system ; at least one position indicating element whose location is tracked by a tracking system , the tracked location providing position sensor space data regarding a location of the at least one position indicating element in a coordinate system of the tracking system ; an endovascular prosthesis having an expandable body portion wherein the at least one position indicating element is movable within the body portion of the endovascular prosthesis ; a guidance portion that constrains movement of the at least one position indicating element within the body portion of the endovascular prosthesis ; and a motive portion that moves the at least one position indicating element within the body portion of the endovascular prosthesis while the at least one position indicating element is tracked to produce position sensor space data regarding at least two points within the body portion of the endovascular prosthesis , wherein the at least two points are constrained by the guidance portion , wherein the guidance portion includes a straight line portion that axially traverses the body portion of the endovascular prosthesis lengthwise that forms a path for the at least one position indicating element generally along a length of the body portion of the endovascular prosthesis , and wherein the straight line portion generally deforms in accordance with deformations in the body portion of the endovascular prosthesis.
A method comprising: receiving audio at a plurality of microphones coupled to a processing system, each of said microphones comprising a user interface operable to initiate a mute mode of operation at the processing system based on received user input; receiving , from a particular microphone of said plurality of microphones, via the respective user interface, a request to initiate the mute mode of operation at the processing system; identifying at the processing system a sound source associated with the particular microphone; processing at the processing system the audio from the plurality of microphones to remove sound received from the identified sound source at each of said plurality of microphones; and transmitting the processed audio. receiving audio at a plurality of microphones coupled to a processing system, each of said microphones comprising a user interface operable to initiate a mute mode of operation at the processing system based on received user input; receiving , from a particular microphone of said plurality of microphones, via the respective user interface, a request to initiate the mute mode of operation at the processing system; identifying at the processing system a sound source associated with the particular microphone; processing at the processing system the audio from the plurality of microphones to remove sound received from the identified sound source at each of said plurality of microphones; and transmitting the processed audio.