mhurhangee/patent-ind-claim-en huggingface dataset:
An imaging device comprising: pixels arranged one-dimensionally or two-dimensionally, each of the pixels including an electrode that is electrically connected to other pixels, a charge capturing unit that is separated from other pixels, and a photoelectric conversion layer that is located between the electrode and the charge capturing unit , the photoelectric conversion layer being continuous among the pixels, characterized in that the photoelectric conversion layer contains semiconductor carbon nanotubes , and one of a first substance and a second substance , the first substance having an electron affinity larger than that of the semiconductor carbon nanotubes , the second substance having a ionization energy smaller than that of the semiconductor carbon nanotubes , and that the photoelectric conversion layer contains the first substance , and the charge capturing unit captures positive charges. pixels arranged one-dimensionally or two-dimensionally, each of the pixels including an electrode that is electrically connected to other pixels, a charge capturing unit that is separated from other pixels, and a photoelectric conversion layer that is located between the electrode and the charge capturing unit , the photoelectric conversion layer being continuous among the pixels, an electrode that is electrically connected to other pixels, a charge capturing unit that is separated from other pixels, and a photoelectric conversion layer that is located between the electrode and the charge capturing unit , the photoelectric conversion layer being continuous among the pixels, characterized in that the photoelectric conversion layer contains semiconductor carbon nanotubes , and one of a first substance and a second substance , the first substance having an electron affinity larger than that of the semiconductor carbon nanotubes , the second substance having a ionization energy smaller than that of the semiconductor carbon nanotubes , and semiconductor carbon nanotubes , and one of a first substance and a second substance , the first substance having an electron affinity larger than that of the semiconductor carbon nanotubes , the second substance having a ionization energy smaller than that of the semiconductor carbon nanotubes , and that the photoelectric conversion layer contains the first substance , and the charge capturing unit captures positive charges.
A method of manufacturing a rubber composite, the method comprising: a reel installation step of installing a reel group as multiple reels each having two or three steel cords wound, in a steel cord supplying device; a pulling-out step of pulling out the two or three steel cords wound on each reel by the steel cord supplying device, from the reel group; an arranging step of, for a steel cord group as multiple steel cords pulled out from the reel group, arranging the steel cords constituting the steel cord group in a row in a cross section perpendicular to a longitudinal direction of the steel cords; and a rubber composite manufacturing step of embedding the steel cord group into rubber to manufacture the rubber composite, wherein a steel cord is a single-wire steel cord, and characterised in that ; when supplying to the arranging step, tension is applied to each of the steel cords that constitute the steel cord group, where the tension is greater than or equal to 6.0% and less than or equal to 9.0% of a breaking load per steel cord. a reel installation step of installing a reel group as multiple reels each having two or three steel cords wound, in a steel cord supplying device; a pulling-out step of pulling out the two or three steel cords wound on each reel by the steel cord supplying device, from the reel group; an arranging step of, for a steel cord group as multiple steel cords pulled out from the reel group, arranging the steel cords constituting the steel cord group in a row in a cross section perpendicular to a longitudinal direction of the steel cords; and a rubber composite manufacturing step of embedding the steel cord group into rubber to manufacture the rubber composite, wherein a steel cord is a single-wire steel cord, and characterised in that ; when supplying to the arranging step, tension is applied to each of the steel cords that constitute the steel cord group, where the tension is greater than or equal to 6.0% and less than or equal to 9.0% of a breaking load per steel cord.
A display device comprising: a first display area (AA) and a second display area (EAA) adjacent to the first display area in a first direction (D1); driving elements; light-emitting elements including a pixel electrode electrically connected to a corresponding one of the driving elements; signal wirings that transfer a driving signal to the driving elements; and connection wirings that transfer driving signals to signal wirings disposed in the second display area, at least one of the connection wirings including a signal-transferring portion and a dummy portion (DBV), the signal-transferring portion and the dummy portion extending in different directions to form a matrix having a disconnection portion (CT), characterized in that the pixel electrode overlaps the disconnection portion in an area where the connection wirings are disposed. a first display area (AA) and a second display area (EAA) adjacent to the first display area in a first direction (D1); driving elements; light-emitting elements including a pixel electrode electrically connected to a corresponding one of the driving elements; signal wirings that transfer a driving signal to the driving elements; and connection wirings that transfer driving signals to signal wirings disposed in the second display area, at least one of the connection wirings including a signal-transferring portion and a dummy portion (DBV), the signal-transferring portion and the dummy portion extending in different directions to form a matrix having a disconnection portion (CT), characterized in that the pixel electrode overlaps the disconnection portion in an area where the connection wirings are disposed.
A liposomal pharmaceutical preparation of mitoxantrone for use in a method for treating lymphoma in a subject in need thereof, wherein: the liposomal pharmaceutical preparation of mitoxantrone comprises mitoxantrone liposomes, the mitoxantrone liposomes have a particle size of about 30-80 nm, and comprise mitoxantrone as an active ingredient, wherein mitoxantrone and the multivalent counter ion within the liposomes form a poorly soluble precipitate, the phospholipid bilayer of the liposomes comprises a phospholipid with a phase transition temperature (Tm) higher than body temperature, so that the phase transition temperature of liposomes is higher than the body temperature; the lymphoma is diffuse large B-cell lymphoma or peripheral T-cell lymphoma. the mitoxantrone liposomes have a particle size of about 30-80 nm, and comprise mitoxantrone as an active ingredient, wherein mitoxantrone and the multivalent counter ion within the liposomes form a poorly soluble precipitate, the phospholipid bilayer of the liposomes comprises a phospholipid with a phase transition temperature (Tm) higher than body temperature, so that the phase transition temperature of liposomes is higher than the body temperature; the lymphoma is diffuse large B-cell lymphoma or peripheral T-cell lymphoma.
A method of controlling a positioning control apparatus configured to perform machining while pressing a tip end of a machining tool against a predetermined position on a machined surface of a workpiece (W), the machining tool being attached to an arm tip of the positioning control apparatus , the method comprising the steps of deriving a predetermined relational expression before the machining, the relational expression defining a relation between a sideslip amount of the tip end of the machining tool in a second direction with respect to pressing force generated when the tip end of the machining tool is pressed against the predetermined position in a first direction in a state where the tip end of the machining tool coincides with the predetermined position and a sideslip amount of the tip end of the machining tool in the second direction with respect to maximum pressing force, the second direction being parallel to the machined surface of the workpiece (W), the first direction being perpendicular to the machined surface of the workpiece (W), the maximum pressing force being set to force that is equal to or more than machining reaction force; detecting the pressing force during the machining by a force sensor ; calculating the sideslip amount corresponding to the pressing force detected by the force sensor , in accordance with the predetermined relational expression at any time; correcting a position command value of the arm tip of the positioning control apparatus based on the calculated sideslip amount; and machining the workpiece (W) while moving the arm tip of the positioning control apparatus in accordance with the corrected position command value. deriving a predetermined relational expression before the machining, the relational expression defining a relation between a sideslip amount of the tip end of the machining tool in a second direction with respect to pressing force generated when the tip end of the machining tool is pressed against the predetermined position in a first direction in a state where the tip end of the machining tool coincides with the predetermined position and a sideslip amount of the tip end of the machining tool in the second direction with respect to maximum pressing force, the second direction being parallel to the machined surface of the workpiece (W), the first direction being perpendicular to the machined surface of the workpiece (W), the maximum pressing force being set to force that is equal to or more than machining reaction force; detecting the pressing force during the machining by a force sensor ; calculating the sideslip amount corresponding to the pressing force detected by the force sensor , in accordance with the predetermined relational expression at any time; correcting a position command value of the arm tip of the positioning control apparatus based on the calculated sideslip amount; and machining the workpiece (W) while moving the arm tip of the positioning control apparatus in accordance with the corrected position command value.
Device for suctioning and/or blowing out a component , in particular a thin-walled component, in particular a column cladding, which is to be processed by a laser scanner, producing vapours, comprising at least one switchable suction valve , which is to be opened and closed by means of a control device so that, in the event of vapours occurring in a predetermined area the suction flap assigned to the area shall be activated and the vapours sucked and/or blown out, characterised by the fact that further parts are to be sucked by a rotary axis in the longitudinal direction of the suction device .
A method for multi-assay processing carried out using an automated system that is configured to carry out the steps of: a) preparing a sample processing unit (SPU) cartridge for a plurality of different target nucleic acid detection assays; b) loading a sample into each prepared SPU cartridge; c) processing each loaded SPU cartridge to isolate a sample nucleic acid for each of the plurality of assays, wherein the method includes a common lockstep protocol that includes a delay step within a sample processing step or between a sample processing step and a next step of the protocol; and d) amplifying and analyzing each sample nucleic acid for a target nucleic acid specific to each of the plurality of different target nucleic acid detection assays, wherein the method includes a common lockstep protocol that includes a delay step within a nucleic acid amplification/analysis step or between a nucleic acid amplification/analysis step and a next step of the protocol; and steps a) through d) are each performed for a time period that is equal for the plurality of different target nucleic acid detection assays wherein the method comprises determining, before initiation of the steps a) through d), the delay steps to be introduced between the assay steps of the protocols, and wherein the amplification of each sample nucleic acid is initiated at essentially the same time; whereby the delay steps eliminate resource contention. a) preparing a sample processing unit (SPU) cartridge for a plurality of different target nucleic acid detection assays; b) loading a sample into each prepared SPU cartridge; c) processing each loaded SPU cartridge to isolate a sample nucleic acid for each of the plurality of assays, wherein the method includes a common lockstep protocol that includes a delay step within a sample processing step or between a sample processing step and a next step of the protocol; and d) amplifying and analyzing each sample nucleic acid for a target nucleic acid specific to each of the plurality of different target nucleic acid detection assays, wherein the method includes a common lockstep protocol that includes a delay step within a nucleic acid amplification/analysis step or between a nucleic acid amplification/analysis step and a next step of the protocol; and steps a) through d) are each performed for a time period that is equal for the plurality of different target nucleic acid detection assays wherein the method comprises determining, before initiation of the steps a) through d), the delay steps to be introduced between the assay steps of the protocols, and wherein the amplification of each sample nucleic acid is initiated at essentially the same time; whereby the delay steps eliminate resource contention.
A virtual image display device , comprising: a virtual image display which is configured to execute an application to provide a plurality of prompt commands to perform a setting action of an input interface; and a handheld electronic device which is configured to display the input interface and to receive a plurality of input touch actions corresponding to each of the prompt commands through the input interface in the setting action, wherein the virtual image display is configured to calculate a plurality of effective touch areas (Z1', Z2', Z3', Z4') respectively corresponding to the prompt commands according to a position distribution of the input touch actions corresponding to each of the prompt commands, and to update the input interface displayed by the handheld electronic device according to the effective touch areas (Z1', Z2', Z3', Z4'), wherein the effective touch areas (Z1', Z2', Z3', Z4') correspond to virtual keys (BT1, BT2, BT3, BT4) . a virtual image display which is configured to execute an application to provide a plurality of prompt commands to perform a setting action of an input interface; and a handheld electronic device which is configured to display the input interface and to receive a plurality of input touch actions corresponding to each of the prompt commands through the input interface in the setting action, wherein the virtual image display is configured to calculate a plurality of effective touch areas (Z1', Z2', Z3', Z4') respectively corresponding to the prompt commands according to a position distribution of the input touch actions corresponding to each of the prompt commands, and to update the input interface displayed by the handheld electronic device according to the effective touch areas (Z1', Z2', Z3', Z4'), wherein the effective touch areas (Z1', Z2', Z3', Z4') correspond to virtual keys (BT1, BT2, BT3, BT4) .
A management device comprising: a processor ; and a memory on which is stored machine readable instructions that are to cause the processor to: receive , from a first node, a client request; and a response corresponding to the client request, wherein the first node is configured to generate the response by processing the client request by performing an operation that changes a state of a service, wherein operations that change the state of the service are operations that change data that the service accesses and/or that change the service itself, and wherein the state of the service is configured to change in response to the response being generated; generate an entry including the received client request and response; commit the generated entry into a journal; and send an acknowledgement of the received request and response to the first node after the generated entry is committed into the journal. a processor ; and a memory on which is stored machine readable instructions that are to cause the processor to: receive , from a first node, a client request; and a response corresponding to the client request, wherein the first node is configured to generate the response by processing the client request by performing an operation that changes a state of a service, wherein operations that change the state of the service are operations that change data that the service accesses and/or that change the service itself, and wherein the state of the service is configured to change in response to the response being generated; generate an entry including the received client request and response; commit the generated entry into a journal; and send an acknowledgement of the received request and response to the first node after the generated entry is committed into the journal. receive , from a first node, a client request; and a response corresponding to the client request, wherein the first node is configured to generate the response by processing the client request by performing an operation that changes a state of a service, wherein operations that change the state of the service are operations that change data that the service accesses and/or that change the service itself, and wherein the state of the service is configured to change in response to the response being generated; a client request; and a response corresponding to the client request, wherein the first node is configured to generate the response by processing the client request by performing an operation that changes a state of a service, wherein operations that change the state of the service are operations that change data that the service accesses and/or that change the service itself, and wherein the state of the service is configured to change in response to the response being generated; generate an entry including the received client request and response; commit the generated entry into a journal; and send an acknowledgement of the received request and response to the first node after the generated entry is committed into the journal.
Fermentation residue conditioning device for conditioning heaped materials of fermentation residues, sewage sludge and/or organic residue substances having a high water content, in particular fermentation residues from the fermentation of source materials containing household refuse, biowaste and/or food residues, with a fermentation residue delivery point for introducing the heaped material , and a fermentation residue removal point for discharging the heaped material , wherein the fermentation residue conditioning device is configured so that the heaped material can be conveyed during conditioning through the fermentation residue conditioning device , wherein the fermentation conditioning device has an air ventilation system , a heating system and a shelf surface for supporting the heaped material from underneath, characterized in that the shelf surface is configured so that the heaped material can be conveyed thereby with the shelf surface having shelf elements for supporting the heaped material , wherein these elements can be moved to and fro in the conveying direction, and/or wherein a conveying element is provided which is movable relative to the shelf surface and which for conveying the heaped material can be moved relative to the base surface and is preferably configured so that at least the parts directly causing the conveyance extend no more than 40 mm from the shelf surface into the heaped material , and/or wherein the shelf surface is designed in the manner of a belt conveyor, in particular with revolving flat shelf elements, wherein the shelf elements are preferably oriented for most of their extension direction in the conveying direction (X), and that the heating system is designed so that it enables a direct heat transfer to the heaped material through heat conduction.
A method of manufacturing a lighting panel , comprising: printing a plurality of electrically conductive traces onto a planar surface of a substrate ; mounting a plurality of light sources onto the plurality of electrically conductive traces on the planar surface of the substrate at mounting positions such that the plurality of electrically conductive traces form an electrical interconnection between selected ones of the plurality of electrically conductive traces and associated ones of the plurality of light sources ; providing a polymer sheet over the plurality of light sources ; providing a stack-up of the substrate with the printed plurality of electrically conductive traces , the plurality of light sources mounted on the planar surface , and the polymer sheet onto a composite base ; and applying pressure and heat to the stack-up and the composite base to embed the plurality of light sources into the composite base so as to be flush with a top surface of the substrate , and to embed portions of the substrate into the composite base underneath the plurality of light sources at the mounting positions . printing a plurality of electrically conductive traces onto a planar surface of a substrate ; mounting a plurality of light sources onto the plurality of electrically conductive traces on the planar surface of the substrate at mounting positions such that the plurality of electrically conductive traces form an electrical interconnection between selected ones of the plurality of electrically conductive traces and associated ones of the plurality of light sources ; providing a polymer sheet over the plurality of light sources ; providing a stack-up of the substrate with the printed plurality of electrically conductive traces , the plurality of light sources mounted on the planar surface , and the polymer sheet onto a composite base ; and applying pressure and heat to the stack-up and the composite base to embed the plurality of light sources into the composite base so as to be flush with a top surface of the substrate , and to embed portions of the substrate into the composite base underneath the plurality of light sources at the mounting positions .