mhurhangee/ep-ind-claims huggingface dataset:
An operation device of an electrostatic capacitance type comprising: an operation panel in which a plurality of translucent pattern portions to be operated by an operator are formed on a front surface side thereof; a conductive member including a plurality of electrodes arranged on a back surface side of the operation panel; and an electrostatic capacitance detection portion configured to detect electrostatic capacitance between the corresponding electrode and a specific body part such as a finger of the operator, wherein the conductive member includes a plurality of wiring portions connected to the electrodes, the electrodes and the wiring portions are arranged at positions not overlapping with the pattern portions when viewed in plan, an input determination electrode close to a predetermined one of the pattern portions and an incorrect input determination electrode arranged so as to be adjacent thereto and arranged at a position whose distance from the predetermined pattern portion is larger than that of the input determination electrode are included in the electrodes, and the electrostatic capacitance detection portion determines the presence or absence of an operation performed on the predetermined pattern portion, in accordance with a capacitance value of a change in electrostatic capacitance of each of the input determination electrode and the incorrect input determination electrode. an operation panel in which a plurality of translucent pattern portions to be operated by an operator are formed on a front surface side thereof; a conductive member including a plurality of electrodes arranged on a back surface side of the operation panel; and an electrostatic capacitance detection portion configured to detect electrostatic capacitance between the corresponding electrode and a specific body part such as a finger of the operator, wherein the conductive member includes a plurality of wiring portions connected to the electrodes, the electrodes and the wiring portions are arranged at positions not overlapping with the pattern portions when viewed in plan, an input determination electrode close to a predetermined one of the pattern portions and an incorrect input determination electrode arranged so as to be adjacent thereto and arranged at a position whose distance from the predetermined pattern portion is larger than that of the input determination electrode are included in the electrodes, and the electrostatic capacitance detection portion determines the presence or absence of an operation performed on the predetermined pattern portion, in accordance with a capacitance value of a change in electrostatic capacitance of each of the input determination electrode and the incorrect input determination electrode.
A headlight for motor vehicles, having: - a housing (22, 8), having a light exit opening, with a transparent cover disk which covers the light exit opening, - at least one air supply opening and at least one air vent opening in the housing, which serve to supply air to and ventilate the headlight housing itself, wherein the headlight has guide means, which an air stream, flowing from the air supply opening to the air vent opening inside the housing, and which have a dimensionally stable hollow body with an air inlet, at least one air outlet, and a dimensionally stable duct segment located between the air inlet and the air outlet, characterized in that decorative frames and covering frames are located in the interior of the housing (22, 8), and the headlight, in its interior, has an air gap between decorative frames and covering frames, and an air outlet cross section of the hollow body has a longitudinally elongated shape, and the air outlet cross section is widened in a direction parallel to the longitudinal extent of the gap, so that by means of a very purposeful oncoming flow to the gap, despite the narrowness of such a gap, a preferential direction, aimed at the cover disk, of the air for the air supply is generated in the interior of the headlight housing. - a housing (22, 8), having a light exit opening, with a transparent cover disk which covers the light exit opening, - at least one air supply opening and at least one air vent opening in the housing, which serve to supply air to and ventilate the headlight housing itself,
Method for the detection of an analyte in a sample comprising the steps of: a) adding magnetic particles conjugated to detection moieties specific for at least one epitope of an analyte to a sample suspected to contain said analyte, wherein said magnetic particle has a particle size of ≥ 50 nm and ≤ 5000 nm; b) exposing the sample with said particles to a sensor surface containing capture moieties bound to a solid substrate which are a collection of at least two moieties. which bind to different epitopes of the analyte, or to different subregions of the same epitope of the analyte; c) permitting complex formation of said detection moieties, analyte and capture moieties; d) removing unbound particles; and e) detecting the number of bound detection moieties; with the proviso that the method is not a method for measuring Troponin I in a sample as defined in claim 1 of WO 2010/073182 A1. a) adding magnetic particles conjugated to detection moieties specific for at least one epitope of an analyte to a sample suspected to contain said analyte, wherein said magnetic particle has a particle size of ≥ 50 nm and ≤ 5000 nm; b) exposing the sample with said particles to a sensor surface containing capture moieties bound to a solid substrate which are a collection of at least two moieties. which bind to different epitopes of the analyte, or to different subregions of the same epitope of the analyte; c) permitting complex formation of said detection moieties, analyte and capture moieties; d) removing unbound particles; and e) detecting the number of bound detection moieties; with the proviso that the method is not a method for measuring Troponin I in a sample as defined in claim 1 of WO 2010/073182 A1.
A device for applying a neural stimulus comprising: a battery to supply electrical energy at a battery voltage; an electrode to apply the electrical energy to neural tissue; a circuit to measure a nervous response of the neural tissue; and a voltage converter to receive the electrical energy from the battery and to control a voltage applied to the electrode based on the measured nervous response of the tissue. a battery to supply electrical energy at a battery voltage; an electrode to apply the electrical energy to neural tissue; a circuit to measure a nervous response of the neural tissue; and a voltage converter to receive the electrical energy from the battery and to control a voltage applied to the electrode based on the measured nervous response of the tissue.
A kit for preparing a dental prosthesis, said kit having: - a master model manufactured by means an of additive technology using an arrangement of material in successive layers, such as 3D printing, the master model having at least one reference surface intended to receive the dental prosthesis element (5, 7, 10) bearing thereon, said reference surface being produced during the manufacture of the master model by additive technology, - a fixing screw with an outer thread intended to removably fix a dental prosthesis element (5, 7, 10) on the master model, wherein: - the master model has at least one threaded cavity, of which the inner thread, intended to receive said fixing screw by screwing, is produced during the manufacture of the master model by additive technology, - the outer thread of the fixing screw has: • a pitch greater than or equal to 10 times the thickness of the layers, • a thread height greater than or equal to 5 times the thickness of the layers. - a master model manufactured by means an of additive technology using an arrangement of material in successive layers, such as 3D printing, the master model having at least one reference surface intended to receive the dental prosthesis element (5, 7, 10) bearing thereon, said reference surface being produced during the manufacture of the master model by additive technology, - a fixing screw with an outer thread intended to removably fix a dental prosthesis element (5, 7, 10) on the master model, - the master model has at least one threaded cavity, of which the inner thread, intended to receive said fixing screw by screwing, is produced during the manufacture of the master model by additive technology, - the outer thread of the fixing screw has: • a pitch greater than or equal to 10 times the thickness of the layers, • a thread height greater than or equal to 5 times the thickness of the layers. • a pitch greater than or equal to 10 times the thickness of the layers, • a thread height greater than or equal to 5 times the thickness of the layers.
A system for mounting a head frame to a spreader comprising: a sheave assembly (35,40) connecting the head frame to a crane so as to permit the lowering of said head frame; mutually cooperating engagement devices for coupling the head frame and the spreader; an actuator arranged to connect mutually engageable transmission connectors (25,30) on the head frame and spreader; and characterised by a registration device for registering the coupling of the head frame and the spreader; wherein the registration device is arranged to prevent engagement of the transmission connector until said head frame and spreader are coupled through selectively disabling the actuator. a sheave assembly (35,40) connecting the head frame to a crane so as to permit the lowering of said head frame; mutually cooperating engagement devices for coupling the head frame and the spreader; an actuator arranged to connect mutually engageable transmission connectors (25,30) on the head frame and spreader; and characterised by a registration device for registering the coupling of the head frame and the spreader; wherein the registration device is arranged to prevent engagement of the transmission connector until said head frame and spreader are coupled through selectively disabling the actuator.
A Cu-based catalyst, which contains Cu, at least one auxiliary metal selected from metal of Group IIA, non-noble metal of Group VIII, metal of Group VIB, metal of Group VIIB, metal of Group IIB and lanthanide metal of periodic table of elements, an alkali metal and optionally a binder, and further contains at least one ketone additive selected from a ketone represented by formula and a ketone represented by formula (II'), and optionally a solvent, R1-C(=O)-CH -R2 R1-C(=O)-CH(=O)-R2 (II') wherein in formulae and (II'), the groups R1 and R2 are identical to or different from each other and each independently represents C1-6 linear or branched alkyl, wherein calculated by weight and based on the total weight of said Cu-based catalyst, said catalyst contains 30-60% of Cu as CuO, 10-45% of said at least one auxiliary metal as oxide, 1-10% of said alkali metal as oxide and 0-30% of said binder on a dry basis and as oxide, and relative to 100 parts by weight of said Cu-based catalyst, said ketone additive comprises 0.1 part by weight or more, and said solvent comprises 30 parts by weight or less. optionally a binder, and further contains at least one ketone additive selected from a ketone represented by formula and a ketone represented by formula (II'), and optionally a solvent, R1-C(=O)-CH -R2 R1-C(=O)-CH(=O)-R2 (II') wherein in formulae and (II'), the groups R1 and R2 are identical to or different from each other and each independently represents C1-6 linear or branched alkyl, wherein calculated by weight and based on the total weight of said Cu-based catalyst, said catalyst contains 30-60% of Cu as CuO, 10-45% of said at least one auxiliary metal as oxide, 1-10% of said alkali metal as oxide and 0-30% of said binder on a dry basis and as oxide, and relative to 100 parts by weight of said Cu-based catalyst, said ketone additive comprises 0.1 part by weight or more, and said solvent comprises 30 parts by weight or less.
A laser ablation catheter (10; 30; 40) comprising: a light source adapted to emit laser light for cauterizing an affected area; an insertion portion configured to be inserted into the body and being a long bendable pipe conduit; a fiber that is provided in the insertion portion and adapted to guide the laser light emitted from the light source to radiate the laser light from the insertion-portion distal end; a first drive unit that is provided on the fiber and is adapted to vibrate the fiber with a first period; characterized by a second drive unit that is adapted to vibrate the fiber with a second period, wherein the amplitude produced by the second drive unit is larger than the amplitude produced by the first drive unit. a light source adapted to emit laser light for cauterizing an affected area; an insertion portion configured to be inserted into the body and being a long bendable pipe conduit; a fiber that is provided in the insertion portion and adapted to guide the laser light emitted from the light source to radiate the laser light from the insertion-portion distal end; a first drive unit that is provided on the fiber and is adapted to vibrate the fiber with a first period; characterized by a second drive unit that is adapted to vibrate the fiber with a second period, wherein the amplitude produced by the second drive unit is larger than the amplitude produced by the first drive unit.
A fastener driving tool (10; 100) comprising: a housing (12; 102); a drive track within the housing; a magazine (20; 110) connected to the housing and configured to hold a supply of fasteners and to provide a leading fastener to the drive track; a driver configured to move downward in the drive track and drive the leading fastener into a workpiece during a drive stroke, and upward in the drive track during a return stroke; a mount operatively connected to the driver; a power source (26; 122) at least partially contained within the housing and configured to provide power to the driver to move the driver during the drive stroke and the return stroke; and a clincher connected to the housing and the mount, the clincher being configured to engage the leading fastener during the drive stroke and move into a clinching position at the end of the drive stroke to clinch the fastener to the workpiece; characterised in that the fastener driving tool is a cordless electric fastener driving tool and wherein the power source comprises a motor having a rotatable output shaft and a transmission, which includes a plurality of planetary gear sets in series and a crank, operatively connected to the driver via the crank of the transmission, and wherein rotary movement of the rotatable output shaft translates to linear movement of the driver. a housing (12; 102); a drive track within the housing; a magazine (20; 110) connected to the housing and configured to hold a supply of fasteners and to provide a leading fastener to the drive track; a driver configured to move downward in the drive track and drive the leading fastener into a workpiece during a drive stroke, and upward in the drive track during a return stroke; a mount operatively connected to the driver; a power source (26; 122) at least partially contained within the housing and configured to provide power to the driver to move the driver during the drive stroke and the return stroke; and a clincher connected to the housing and the mount, the clincher being configured to engage the leading fastener during the drive stroke and move into a clinching position at the end of the drive stroke to clinch the fastener to the workpiece; characterised in that the fastener driving tool is a cordless electric fastener driving tool and wherein the power source comprises a motor having a rotatable output shaft and a transmission, which includes a plurality of planetary gear sets in series and a crank, operatively connected to the driver via the crank of the transmission, and wherein rotary movement of the rotatable output shaft translates to linear movement of the driver.
A method of assaying a sample solution for the presence of a first analyte comprising: (a) providing a sensor surface having a ligand immobilized thereto; (b) flowing the sample solution over the sensor surface; and (c) detecting the presence or absence of binding of the analyte to the ligand on the sensor surface; wherein the contact time between the sample solution and the immobilized ligand is less than 15 seconds and wherein following step (c), steps (b) and (c) are repeated by flowing a second sample solution over the surface to detect the presence or absence of the binding between ligand and a further analyte, and wherein further the time between initiating flowing of at least one of the sample solutions over the sensor surface and initiating flowing of a next sequential sample solution over the sensor surface (cycle time) is less than 40 seconds, wherein the ligand is provided in a sufficiently high density that the need to regenerate the sensor surface is eliminated, or wherein dissociation of analyte is already complete or is expected to become completed before repeating step (b). (a) providing a sensor surface having a ligand immobilized thereto; (b) flowing the sample solution over the sensor surface; and (c) detecting the presence or absence of binding of the analyte to the ligand on the sensor surface; wherein the contact time between the sample solution and the immobilized ligand is less than 15 seconds and wherein following step (c), steps (b) and (c) are repeated by flowing a second sample solution over the surface to detect the presence or absence of the binding between ligand and a further analyte, and wherein further the time between initiating flowing of at least one of the sample solutions over the sensor surface and initiating flowing of a next sequential sample solution over the sensor surface (cycle time) is less than 40 seconds,
A sheet feeding apparatus comprising: an apparatus body; a feed member feeding a sheet; a sheet storage member configured to be movable to an attachment position where the sheet storage member is attached to the apparatus body and to a draw-out position where the sheet storage member is drawn out of the attachment position, and comprising a first sheet storage portion in which the sheet to be fed by the feed member is stored and a second sheet storage portion being provided adjacent horizontally to the first sheet storage portion and storing a sheet; a sheet shifting portion configured to shift the sheet in the second sheet storage portion to the first sheet storage portion, the sheet shifting portion being capable of positioning at a first position and a second position farther than the first position from the first sheet storage portion; a driving unit moving the sheet shifting portion by linking with the sheet shifting portion in a state in which the sheet storage member is located at the attachment position, characterised by a moving portion configured to move the sheet shifting portion from the first position to the second position in a state in which the link of the sheet shifting portion with the driving unit is disconnected in response to a drawing operation of the sheet storage member from the apparatus body in a state in which the sheet shifting portion has moved to the first position by the driving unit. an apparatus body; a feed member feeding a sheet; a sheet storage member configured to be movable to an attachment position where the sheet storage member is attached to the apparatus body and to a draw-out position where the sheet storage member is drawn out of the attachment position, and comprising a first sheet storage portion in which the sheet to be fed by the feed member is stored and a second sheet storage portion being provided adjacent horizontally to the first sheet storage portion and storing a sheet; a sheet shifting portion configured to shift the sheet in the second sheet storage portion to the first sheet storage portion, the sheet shifting portion being capable of positioning at a first position and a second position farther than the first position from the first sheet storage portion; a driving unit moving the sheet shifting portion by linking with the sheet shifting portion in a state in which the sheet storage member is located at the attachment position, characterised by a moving portion configured to move the sheet shifting portion from the first position to the second position in a state in which the link of the sheet shifting portion with the driving unit is disconnected in response to a drawing operation of the sheet storage member from the apparatus body in a state in which the sheet shifting portion has moved to the first position by the driving unit.
A method for improving reliability of a first subsystem executing on a multi-subsystem mobile device, comprising: calculating a minimum time and a maximum time at which software associated with the first subsystem should be restarted; identifying other subsystems that are dependent on the first subsystem; transmitting request messages to each dependent subsystem after the minimum time has elapsed and before the maximum time has elapsed, wherein the request messages prompt each dependent subsystem to vote on whether a restart of the software associated with the first subsystem may occur; restarting the software associated with the first subsystem when each dependent subsystem votes that the restart may occur; and restarting the software associated with the first subsystem when the maximum time at which the software associated with the first subsystem should be restarted has elapsed. calculating a minimum time and a maximum time at which software associated with the first subsystem should be restarted; identifying other subsystems that are dependent on the first subsystem; transmitting request messages to each dependent subsystem after the minimum time has elapsed and before the maximum time has elapsed, wherein the request messages prompt each dependent subsystem to vote on whether a restart of the software associated with the first subsystem may occur; restarting the software associated with the first subsystem when each dependent subsystem votes that the restart may occur; and restarting the software associated with the first subsystem when the maximum time at which the software associated with the first subsystem should be restarted has elapsed.
A thermal insulating structure comprising: at least two first multilayer vacuum insulators that adjoin each other and that cover a to-be-insulated surface, each first multilayer vacuum insulator being a multilayer vacuum insulator in which radiation shield films and spacers are layered alternately; a retainer that is fixed to the to-be-insulated surface and that protrudes from a boundary between the first multilayer vacuum insulators; a second multilayer vacuum insulator that extends along the boundary and that covers the boundary, each second multilayer vacuum insulator being a multilayer vacuum insulator in which radiation shield films and spacers are layered alternately, the second multilayer vacuum insulator including a through-hole formed therein, in which the retainer is inserted; and a keep plate that is fixed to the retainer and that holds the second multilayer vacuum insulator and the first multilayer vacuum insulators. at least two first multilayer vacuum insulators that adjoin each other and that cover a to-be-insulated surface, each first multilayer vacuum insulator being a multilayer vacuum insulator in which radiation shield films and spacers are layered alternately; a retainer that is fixed to the to-be-insulated surface and that protrudes from a boundary between the first multilayer vacuum insulators; a second multilayer vacuum insulator that extends along the boundary and that covers the boundary, each second multilayer vacuum insulator being a multilayer vacuum insulator in which radiation shield films and spacers are layered alternately, the second multilayer vacuum insulator including a through-hole formed therein, in which the retainer is inserted; and a keep plate that is fixed to the retainer and that holds the second multilayer vacuum insulator and the first multilayer vacuum insulators.