mhurhangee/ep-ind-claims huggingface dataset:
A voice coil speaker comprising: a diaphragm; and a bobbin that is connected to the diaphragm and has a voice coil formed thereon, wherein the bobbin has a bobbin main portion around which the voice coil is wound, and an extension portion that extends from the bobbin main portion and in which a signal line conducted to the voice coil is formed, the bobbin main portion and the extension portion are integrally formed of a flexible print board, and a site of a back side of a yoke at which the extension portion extends is covered by a shield case, characterized in that the shield case is equipped at the back side of the yoke, a cut-out portion is formed in the yoke, and the extension portion is configured to pass through the cut-out portion and extend into the shield case at the back side of the yoke, and the yoke has a yoke bottomportion and a yoke protrusion portion protruding from the yoke bottom portion into the bobbin, a side surface cut-out portion is formed at a site corresponding to the extension portion on a side surface (16b1) of the yoke protrusion portion, a bottom surface cut-out portion intercommunicating with the side surface cut-out portion is formed in the yoke bottom portion, and the extension portion extending from the bobbin main portion is configured to pass through the side surface cut-out portion and the bottom surface cut-out portion and extend into the shield case at the back side of the yoke. a diaphragm; and a bobbin that is connected to the diaphragm and has a voice coil formed thereon, wherein the bobbin has a bobbin main portion around which the voice coil is wound, and an extension portion that extends from the bobbin main portion and in which a signal line conducted to the voice coil is formed, the bobbin main portion and the extension portion are integrally formed of a flexible print board, and a site of a back side of a yoke at which the extension portion extends is covered by a shield case,
A laundry treatment apparatus comprising: a cabinet having an input opening for introduction of laundry; a laundry receptacle configured to store laundry introduced through the input opening; and a door including a door frame for opening and closing the input opening, a hinge unit configured to rotatably couple the door frame to the cabinet, and a control panel installed to the door frame to enable input of a control command or output of control information, the apparatus further comprising: a cabinet connector (8, 9) installed to the cabinet, the cabinet connector being configured to have at least one of power and control signal transceived therethrough; and a door connector for being separably coupled to the cabinet connector, the door connector being configured, when coupled to the cabinet connector, to connect the control panel to the cabinet connector, characterized in that: the door connector is secured to the hinge unit, and wherein the cabinet connector (8, 9) is exposed from a surface of the cabinet so as to be coupled to the door connector when the door is closed. a cabinet having an input opening for introduction of laundry; a laundry receptacle configured to store laundry introduced through the input opening; and a door including a door frame for opening and closing the input opening, a hinge unit configured to rotatably couple the door frame to the cabinet, and a control panel installed to the door frame to enable input of a control command or output of control information, the apparatus further comprising: a cabinet connector (8, 9) installed to the cabinet, the cabinet connector being configured to have at least one of power and control signal transceived therethrough; and a door connector for being separably coupled to the cabinet connector, the door connector being configured, when coupled to the cabinet connector, to connect the control panel to the cabinet connector, a cabinet connector (8, 9) installed to the cabinet, the cabinet connector being configured to have at least one of power and control signal transceived therethrough; and a door connector for being separably coupled to the cabinet connector, the door connector being configured, when coupled to the cabinet connector, to connect the control panel to the cabinet connector, characterized in that: the door connector is secured to the hinge unit, and wherein the cabinet connector (8, 9) is exposed from a surface of the cabinet so as to be coupled to the door connector when the door is closed. the door connector is secured to the hinge unit, and wherein the cabinet connector (8, 9) is exposed from a surface of the cabinet so as to be coupled to the door connector when the door is closed.
A method of manufacturing a load structure, the method comprising: forming a panel having a first side and a second side; trimming the panel, including clearing a fill passage through the panel from the first side to the second side; applying an over rim coating on the second side of the panel via an over rim tool by which a resin is injected through the fill passage from the first side to the second side; trimming the panel to a final footprint of the load structure; and performing final assembly to form the load structure, characterized in that forming the panel includes: applying a coating of polyurethane to a top surface and a bottom surface of a core; and heating the core in a mold until the polyurethane is cured, the mold defining the geometry of the panel. forming a panel having a first side and a second side; trimming the panel, including clearing a fill passage through the panel from the first side to the second side; applying an over rim coating on the second side of the panel via an over rim tool by which a resin is injected through the fill passage from the first side to the second side; trimming the panel to a final footprint of the load structure; and performing final assembly to form the load structure, characterized in that forming the panel includes: applying a coating of polyurethane to a top surface and a bottom surface of a core; and heating the core in a mold until the polyurethane is cured, the mold defining the geometry of the panel. applying a coating of polyurethane to a top surface and a bottom surface of a core; and heating the core in a mold until the polyurethane is cured, the mold defining the geometry of the panel.
Cleaning device with a collector container, wherein the cleaning device has a longitudinal main body, wherein a wiper blade is secured to the main body, and wherein the collector container is fastened or fastenable to the main body of the cleaning device, characterised in that the collector container engages around the main body at least partially.
A method of supporting arbitrary replacement of multiple data units in a vector processor, which comprises configuring patterns for arbitrary position replacement of 32 data units, characterized in that the method comprises: during a process of data unit replacement, performing a replacement operation on the 32 data units according to the configured patterns; configuring patterns for arbitrary position replacement of 32 data units; and during a process of data unit replacement, performing (S202, S203, S204, S205) the following replacement operations successively on the 32 data units according to the configured patterns: a replacement operation of four data units, a replacement operation of eight data units, a replacement operation of 16 data units, and a replacement operation of 32 data units; wherein, performing exchanging operations of three orders when performing the replacement operation of four data units; performing exchanging operations of three orders when performing the replacement operation of eight data units; performing exchanging operations of four orders when performing the replacement operation of 16 data units; performing exchanging operations of five orders when performing the replacement operation of 32 data units; therefore performing exchanging operations of 3+3+4+5=15 orders during the process of data unit replacement. during a process of data unit replacement, performing a replacement operation on the 32 data units according to the configured patterns; configuring patterns for arbitrary position replacement of 32 data units; and during a process of data unit replacement, performing (S202, S203, S204, S205) the following replacement operations successively on the 32 data units according to the configured patterns: a replacement operation of four data units, a replacement operation of eight data units, a replacement operation of 16 data units, and a replacement operation of 32 data units; wherein, performing exchanging operations of three orders when performing the replacement operation of four data units; performing exchanging operations of three orders when performing the replacement operation of eight data units; performing exchanging operations of four orders when performing the replacement operation of 16 data units; performing exchanging operations of five orders when performing the replacement operation of 32 data units; therefore performing exchanging operations of 3+3+4+5=15 orders during the process of data unit replacement.
A thermal control system using a refrigerant and including a refrigeration loop of operative elements incorporating a compressor, a condenser, and an expansion device in sequence, in thermal communication with an evaporator comprising the load to be cooled, the evaporator having a nonlinear heat transfer coefficient in response to localized refrigerant quality variations, wherein quality is expressed in terms of the proportion of liquid to vapor, wherein a subsidiary heat exchange loop is disposed between the expansion device and the evaporator and including a counter-current heat exchanger coupling the expansion device to the evaporator on one side and the output from the evaporator to the compressor on the other side, the loop further including a differential pressure device between the counter-current heat exchanger and the evaporator, characterized by: the differential pressure device is maintaining the superheat of the subsidiary loop in a selected range, the differential pressure device in the line between the output from the counter-current heat exchanger and the input to the evaporator sets the temperature difference between one flow and the opposite flow in the counter-current heat exchanger, wherein the temperature difference is set at about the same difference between the boiling temperature of the two phase fluid in evaporator and the temperature of the pure gas as it goes to the input of compressor. the differential pressure device is maintaining the superheat of the subsidiary loop in a selected range, the differential pressure device in the line between the output from the counter-current heat exchanger and the input to the evaporator sets the temperature difference between one flow and the opposite flow in the counter-current heat exchanger, wherein the temperature difference is set at about the same difference between the boiling temperature of the two phase fluid in evaporator and the temperature of the pure gas as it goes to the input of compressor.
A compact bipolarization excitation assembly consisting of an orthomode transducer OMT comprising two transmission pathways, respectively dedicated to two orthogonal polarizations, a first and a second power splitter (20, 30) respectively connected to the two transmission pathways of the OMT, and a first and a second connection waveguide (25, 26), the OMT consisting of a cross junction comprising a central waveguide parallel to an axis Z and four lateral ports (15, 16, 17, 18) respectively coupled to the central waveguide and oriented in two directions X and Y orthogonal to one another and to the axis Z, wherein the first power splitter consists of an input waveguide capable of being connected to a first power source working in a first polarization P1 and of two output ports (22, 23) respectively coupled to a first and a second lateral port (15, 16) of the OMT, oriented in the direction X, via the first and the second respective connection waveguide (25, 26), wherein the first power splitter is located on a first lateral side of the OMT, the input waveguide having a lateral wall orthogonal to the direction X and extending heightwise parallel to the axis Z, characterized in that the two output ports (22, 23), respectively upper and lower, of the first power splitter are formed one above the other in the direction of the axis Z in the said lateral wall of the input waveguide, the upper output port being placed facing the first lateral port of the OMT to which it is connected by the first connection waveguide, and in that the first and second connection waveguides (25, 26) have different electrical lengths, the difference in electrical length between the first and second connection waveguides (25, 26) being equal to a half-wavelength λ/2, where λ is the central wavelength of operation.
A method comprising: receiving an image (410, 510, 700) captured by an image capture device, wherein the image is associated with registration information indicating a position and an orientation of the image capture device when the image was captured; aligning, with a processor, a three dimensional model (415, 515, 600) to the received image using the position and orientation information from the registration information; determining a two-dimensional view of the three dimensional model defined by the outline of the received image; identifying a point of interest in the determined two-dimensional view of the aligned three dimensional model; determining an area of interest of the image, wherein the area of interest comprises an area of the image surrounding the point of interest; transitioning from the received image to information (720, 760, 930A-C) from the three dimensional model associated with the point of interest; and displaying the area of interest enlarged. receiving an image (410, 510, 700) captured by an image capture device, wherein the image is associated with registration information indicating a position and an orientation of the image capture device when the image was captured; aligning, with a processor, a three dimensional model (415, 515, 600) to the received image using the position and orientation information from the registration information; determining a two-dimensional view of the three dimensional model defined by the outline of the received image; identifying a point of interest in the determined two-dimensional view of the aligned three dimensional model; determining an area of interest of the image, wherein the area of interest comprises an area of the image surrounding the point of interest; transitioning from the received image to information (720, 760, 930A-C) from the three dimensional model associated with the point of interest; and displaying the area of interest enlarged.
A liquid discharge head wiping member having a sheet-like form to wipe a nozzle surface of a liquid discharging head, comprising: a first layer configured to be brought into contact with the nozzle surface: and one or more other layers (620, 630), wherein the following relation is satisfied: t1 < t2, where t1 represents a thickness of the first layer and t2 represents a thickness of the one or more other layers (620, 630), wherein a porosity of the first layer is smaller than a porosity of at least one of the one or more other layers (620, 630), and the porosity of the first layer is from 0.60 to 0.85; characterized in that the first layer has a surface roughness of 170 μm or more, obtained by surface roughness measurement using a laser microscope. a first layer configured to be brought into contact with the nozzle surface: and one or more other layers (620, 630), wherein the following relation is satisfied: t1 < t2, where t1 represents a thickness of the first layer and t2 represents a thickness of the one or more other layers (620, 630), wherein a porosity of the first layer is smaller than a porosity of at least one of the one or more other layers (620, 630), and the porosity of the first layer is from 0.60 to 0.85; characterized in that the first layer has a surface roughness of 170 μm or more, obtained by surface roughness measurement using a laser microscope.
A method of transmitting an uplink signal by a user equipment, UE, in a wireless communication system, the method comprising: determining a data transmission mode for a contention-based, CB, data transmission; and transmitting simultaneously, to a base station, a preamble including a preamble index, a control channel carrying control information including the data transmission mode and a data channel carrying one transport block, TB, during the CB data transmission, wherein the preamble index indicates a location of a resource to which the control channel is mapped within a contention resource region or a location of a resource to which the data transmission is mapped within the contention resource region, wherein the data transmission mode determined by the UE corresponds to either a first transmission mode where the one TB is divided into N sub-blocks and then the N sub-blocks are transmitted using N transmission units, with a one-to-one mapping, or a second transmission mode where the one TB is repeatedly transmitted M times using M transmission units, with a one-to-one mapping, and wherein the data transmission mode is determined based on received signal received power, RSRP, reference signal received quality, RSRQ, or received signal strength indicator, RSSI, obtained by measuring a reference signal, RS, received from the base station. determining a data transmission mode for a contention-based, CB, data transmission; and transmitting simultaneously, to a base station, a preamble including a preamble index, a control channel carrying control information including the data transmission mode and a data channel carrying one transport block, TB, during the CB data transmission, wherein the preamble index indicates a location of a resource to which the control channel is mapped within a contention resource region or a location of a resource to which the data transmission is mapped within the contention resource region, wherein the data transmission mode determined by the UE corresponds to either a first transmission mode where the one TB is divided into N sub-blocks and then the N sub-blocks are transmitted using N transmission units, with a one-to-one mapping, or a second transmission mode where the one TB is repeatedly transmitted M times using M transmission units, with a one-to-one mapping, and wherein the data transmission mode is determined based on received signal received power, RSRP, reference signal received quality, RSRQ, or received signal strength indicator, RSSI, obtained by measuring a reference signal, RS, received from the base station.
An aqueous ink comprising, - capsules composed of a polymeric shell surrounding a core, the core comprises one or more chemical reactants capable of forming a reaction product upon application of heat and/or radiation, the capsule is obtainable by dispersing under high shear a non-aqueous solution in an aqueous solution, followed by adding a compound having at least three nucleophilic groups, the compound being a polyamine, to the dispersion, the non-aqueous solution comprising i) a compound selected from the group consisting of di- or poly-acid chlorides, di- or oligoisocyanates, di- or oligosulfochlorides, di- or oligo-chloroformates and an isocyanate monomer; ii) one or more chemical reactants capable of forming a reaction product upon application of heat and/or radiation; iii) a water immiscible solvent having a boiling point below 100°C at normal pressure, the aqueous solution comprises a surfactant comprising at least one primary or secondary amine and a quaternary ammonium group; - a colorant stabilized by cationic dispersing groups. - capsules composed of a polymeric shell surrounding a core, the core comprises one or more chemical reactants capable of forming a reaction product upon application of heat and/or radiation, the capsule is obtainable by dispersing under high shear a non-aqueous solution in an aqueous solution, followed by adding a compound having at least three nucleophilic groups, the compound being a polyamine, to the dispersion, the non-aqueous solution comprising i) a compound selected from the group consisting of di- or poly-acid chlorides, di- or oligoisocyanates, di- or oligosulfochlorides, di- or oligo-chloroformates and an isocyanate monomer; ii) one or more chemical reactants capable of forming a reaction product upon application of heat and/or radiation; iii) a water immiscible solvent having a boiling point below 100°C at normal pressure, the aqueous solution comprises a surfactant comprising at least one primary or secondary amine and a quaternary ammonium group; - a colorant stabilized by cationic dispersing groups.
Bead reinforcer for mechanical reinforcement of a bead of a pneumatic tyre, wherein the bead reinforcer comprises at least one cord, wherein the at least one cord is formed from at least one metal alloy, wherein the at least one cord comprises an inner layer and an outer layer, wherein the inner layer comprises at least one inner filament and the outer layer comprises at least one outer filament, wherein a first length of lay of the at least one inner filament is different from a second length of lay of the at least one outer filament, characterized in that a number of inner filaments is 4 and a number of outer filaments is 4 to 11 and in particular 9, wherein the first length of lay is 3.8 mm and the second length of lay is 6.2 mm.
A power supply apparatus which provides power to operate a display apparatus, the power supply apparatus comprising: a power factor correction circuit unit which corrects a power factor of input power and outputs the corrected power factor; and a controller which controls an on/off state of the power factor correction circuit unit according to an input status of a first signal indicating a status of power supplied to the display apparatus and an input status of a second signal indicating an operation status of a display unit of the display apparatus wherein the controller, in response to a video signal inputted to the display unit being abnormal, controls the second signal not to be inputted so that the power factor correction circuit is switched off, wherein an abnormal signal comprises a signal which comprises an error among the signal inputted to the display unit. a power factor correction circuit unit which corrects a power factor of input power and outputs the corrected power factor; and a controller which controls an on/off state of the power factor correction circuit unit according to an input status of a first signal indicating a status of power supplied to the display apparatus and an input status of a second signal indicating an operation status of a display unit of the display apparatus wherein the controller, in response to a video signal inputted to the display unit being abnormal, controls the second signal not to be inputted so that the power factor correction circuit is switched off, wherein an abnormal signal comprises a signal which comprises an error among the signal inputted to the display unit.