mhurhangee/ep-ind-claims huggingface dataset:
A display device comprising: a display part comprising at least one of a liquid crystal panel and a backlight assembly; a frame (100, 400, 450) receiving the display part; and a fixing member (80, 500, 520, 530, 550, 570) disposed between the display part and the frame (100, 400, 450); wherein the fixing member (80, 500, 520, 530, 550, 570) is entirely or selectively formed between the frame (100, 400, 450) and the display part by injection of a liquid adhesive agent, wherein the frame (100, 400, 450) has a central opening and an inner sidewall (110, 130) which receives a light guide plate of the backlight assembly the backlight assembly comprises a reflective sheet (40, 41), characterized in that the reflective sheet (40, 41) is formed at the outer surface of the frame (100, 400, 450) and is positioned at a lower-most portion of the backlight assembly wherein the fixing member (80, 500, 520, 530, 550, 570) is formed between the inner side wall (110, 130) of the frame (100, 400, 450), an edge of the light guide plate and the reflective sheet (40, 41). a display part comprising at least one of a liquid crystal panel and a backlight assembly; a frame (100, 400, 450) receiving the display part; and a fixing member (80, 500, 520, 530, 550, 570) disposed between the display part and the frame (100, 400, 450); wherein the fixing member (80, 500, 520, 530, 550, 570) is entirely or selectively formed between the frame (100, 400, 450) and the display part by injection of a liquid adhesive agent, wherein the frame (100, 400, 450) has a central opening and an inner sidewall (110, 130) which receives a light guide plate of the backlight assembly the backlight assembly comprises a reflective sheet (40, 41), characterized in that the reflective sheet (40, 41) is formed at the outer surface of the frame (100, 400, 450) and is positioned at a lower-most portion of the backlight assembly wherein the fixing member (80, 500, 520, 530, 550, 570) is formed between the inner side wall (110, 130) of the frame (100, 400, 450), an edge of the light guide plate and the reflective sheet (40, 41).
A method for manufacturing a profile body which is provided with a profiling by way of cold forming a workpiece which comprises a longitudinal axis and, in a machining region, an outer surface, into which the profiling is to be incorporated, wherein the workpiece carries out a rotation movement about the longitudinal axis and is machined by a first tool in a multitude of successively executed reshaping engagements in which the first tool comes into contact with the machining region, wherein the first tool is held by a first tool holder (5; 5a1), and wherein the first tool holder (5; 5a1,...) - is mounted in an orbiting body to be rotatable about a rotation axis of the first tool holder (5; 5a1,...) and is driven into a rotation movement about the rotation axis, wherein the term azimuthal which is used hereinafter is defined by the rotation axis; and - is driven into an orbiting movement by the orbiting body; and wherein - the rotation movement of the workpiece is synchronised with the orbiting movement of the first tool holder (5; 5a1,...); and - the rotation movement of the first tool holder (5; 5a1,...) is synchronised with the orbiting movement of the first tool holder (5; 5a1,...); characterized in that the first tool is mounted, in particular freely rotatably mounted, in the first tool holder (5; 5a1,...) to be rotatable about a first tool axis which is different from the rotation axis, in particular wherein the first tool axis is distanced to the rotation axis. - is mounted in an orbiting body to be rotatable about a rotation axis of the first tool holder (5; 5a1,...) and is driven into a rotation movement about the rotation axis, wherein the term azimuthal which is used hereinafter is defined by the rotation axis; and - is driven into an orbiting movement by the orbiting body; and - the rotation movement of the workpiece is synchronised with the orbiting movement of the first tool holder (5; 5a1,...); and - the rotation movement of the first tool holder (5; 5a1,...) is synchronised with the orbiting movement of the first tool holder (5; 5a1,...);
An endoscope comprising: a first flat surface formed at a distal end portion of an insertion part to be inserted into a subject, and is orthogonal to an axial direction of the insertion part; an observation window allowing image-light of the subject to be taken therethrough, provided at the distal end portion with the surface of the observation window as a light incidence plane protruding from the first flat surface in a predetermined height; a pair of illumination windows (29a, 29b) provided at the distal end portion to irradiate a subject with illumination light; a fluid jetting nozzle arranged at the first flat surface to jet a fluid toward the observation window; an inclined surface formed around the observation window and arranged at a position that faces the fluid jetting nozzle; and a fluid guide surface (39a, 39b) formed continuously with the inclined surface to guide a fluid to at least one of the illumination windows, characterized in that said at least one of the illumination windows is arranged flush with said first flat surface. a first flat surface formed at a distal end portion of an insertion part to be inserted into a subject, and is orthogonal to an axial direction of the insertion part; an observation window allowing image-light of the subject to be taken therethrough, provided at the distal end portion with the surface of the observation window as a light incidence plane protruding from the first flat surface in a predetermined height; a pair of illumination windows (29a, 29b) provided at the distal end portion to irradiate a subject with illumination light; a fluid jetting nozzle arranged at the first flat surface to jet a fluid toward the observation window; an inclined surface formed around the observation window and arranged at a position that faces the fluid jetting nozzle; and a fluid guide surface (39a, 39b) formed continuously with the inclined surface to guide a fluid to at least one of the illumination windows, characterized in that said at least one of the illumination windows is arranged flush with said first flat surface.
A computing device in communication with an input/output, I/O, device providing virtualized hardware resources for use by a plurality of virtual function, VF, drivers of a plurality of virtual machines, VM, the computing device is configured to: execute a virtual machine manager, VMM, that implements a physical function, PF, driver and a plurality of base address register, BAR, roles supported by a plurality of virtual functions exposed by the I/O device, the PF driver and the plurality of virtual functions corresponding to the plurality of virtual function, VF, drivers implemented by the plurality of VMs, in response to a bootup or a reset of the I/O device and a load of the PF driver: set, by at least one of the PF driver and the I/O device, a global configuration status register, CSR, to a mapping-value defining a certain mapping of a plurality of mappings between the plurality of BAR roles and I/O device BARs of the plurality of virtual functions, wherein in response to the setting, the plurality of VF drivers for the plurality of virtual functions corresponding to the PF driver are loaded, wherein each respective VF driver obtains the mapping-value of the global CSR and maps, according to the certain mapping, a plurality of BARs of the VF driver designated for the plurality of BAR roles, to the corresponding I/O device BARs of the plurality of virtual functions mapped to the plurality of BAR roles; wherein the BAR roles are selected from the group consisting of: Mailbox space, Doorbell space, MSI-X space, and CSR space. execute a virtual machine manager, VMM, that implements a physical function, PF, driver and a plurality of base address register, BAR, roles supported by a plurality of virtual functions exposed by the I/O device, the PF driver and the plurality of virtual functions corresponding to the plurality of virtual function, VF, drivers implemented by the plurality of VMs, in response to a bootup or a reset of the I/O device and a load of the PF driver: set, by at least one of the PF driver and the I/O device, a global configuration status register, CSR, to a mapping-value defining a certain mapping of a plurality of mappings between the plurality of BAR roles and I/O device BARs of the plurality of virtual functions, wherein in response to the setting, the plurality of VF drivers for the plurality of virtual functions corresponding to the PF driver are loaded, wherein each respective VF driver obtains the mapping-value of the global CSR and maps, according to the certain mapping, a plurality of BARs of the VF driver designated for the plurality of BAR roles, to the corresponding I/O device BARs of the plurality of virtual functions mapped to the plurality of BAR roles; wherein the BAR roles are selected from the group consisting of: Mailbox space, Doorbell space, MSI-X space, and CSR space.
A detection method of a ground fault in an electric power distribution network comprising the following steps: a) acquiring first data indicative of phase currents (I A, I B, I C) circulating along one or more phase conductors (A, B, C) of said electric power distribution network; b) acquiring second data indicative of one or more phase voltages (V A, V B, V C) of said phase conductors; c) acquiring third data indicative of a zero sequence voltage (V 0) of said phase conductors; d) calculating fourth data indicative of resistive components (I RA, I RB, I RC) of said phase currents (I A, I B, I C); characterised in that it comprises the following steps: e) calculating fifth data indicative of a resistive component (I FR) of a zero sequence current (I F), which circulates along said electric power distribution network, said fifth data being calculated on the base of said fourth data indicative of the resistive components (I RA, I RB, I RC) of said phase currents (I A, I B, I C); f) calculating sixth data indicative of the direction of the resistive component (I FR) of said zero sequence current (I F), said sixth data being calculated by calculating the phase shift (θ F) between the resistive component (I FR) of said zero sequence current (I F) and said zero sequence voltage (Vo). a) acquiring first data indicative of phase currents (I A, I B, I C) circulating along one or more phase conductors (A, B, C) of said electric power distribution network; b) acquiring second data indicative of one or more phase voltages (V A, V B, V C) of said phase conductors; c) acquiring third data indicative of a zero sequence voltage (V 0) of said phase conductors; d) calculating fourth data indicative of resistive components (I RA, I RB, I RC) of said phase currents (I A, I B, I C); e) calculating fifth data indicative of a resistive component (I FR) of a zero sequence current (I F), which circulates along said electric power distribution network, said fifth data being calculated on the base of said fourth data indicative of the resistive components (I RA, I RB, I RC) of said phase currents (I A, I B, I C); f) calculating sixth data indicative of the direction of the resistive component (I FR) of said zero sequence current (I F), said sixth data being calculated by calculating the phase shift (θ F) between the resistive component (I FR) of said zero sequence current (I F) and said zero sequence voltage (Vo).
An RFID tag comprising: - a tag housing, the tag housing including an attachment portion configured to allow for a secure attachment of the RFID tag to a target; - an inlay embedded in the tag housing, the inlay including a substrate and a main antenna provided on the substrate; and - a chip module embedded in the tag housing, the chip module including an integrated circuit and a loop antenna electrically connected to the integrated circuit, wherein the loop antenna is inductively coupled to the main antenna and forms an RFID circuit with the integrated circuit and the main antenna, and wherein the main antenna is configured as a pair of metallic surface portions connected to each other by a linear connecting portion extending around at least part of the chip module, characterized in that the metallic surface portions cover at least 60 % of an area of the substrate and are symmetrically arranged on opposite sides with respect to a center line of the inlay. - a tag housing, the tag housing including an attachment portion configured to allow for a secure attachment of the RFID tag to a target; - an inlay embedded in the tag housing, the inlay including a substrate and a main antenna provided on the substrate; and - a chip module embedded in the tag housing, the chip module including an integrated circuit and a loop antenna electrically connected to the integrated circuit,
A method of operating a dehydrogenation system with a plurality of dehydrogenation reactors alternating between dehydrogenation modes and regeneration modes in a timed sequence in a repeating system cycle comprising: (a) operating the plurality of dehydrogenation reactors in an initial system sequence having an initial characteristic peak productivity over the course of a system cycle; (b) determining the productivity characteristics of each of the dehydrogenation reactors; (c) re-sequencing the reactors to operate in a second system sequence having a re-sequenced characteristic peak productivity lower than that of said initial characteristic peak productivity; and (d) increasing the re-sequenced characteristic peak productivity to a re-sequenced operating level to thereby increase system productivity over a system cycle as compared with operation in the initial system sequence. (a) operating the plurality of dehydrogenation reactors in an initial system sequence having an initial characteristic peak productivity over the course of a system cycle; (b) determining the productivity characteristics of each of the dehydrogenation reactors; (c) re-sequencing the reactors to operate in a second system sequence having a re-sequenced characteristic peak productivity lower than that of said initial characteristic peak productivity; and (d) increasing the re-sequenced characteristic peak productivity to a re-sequenced operating level to thereby increase system productivity over a system cycle as compared with operation in the initial system sequence.
A water-based ink composition for a ballpoint pen, comprising a polyoxyethylene alkyl ether, a water-soluble organic solvent, a colorant and water, characterized in that an HLB value of the polyoxyethylene alkyl ether is from 14 to 15, and wherein the polyoxyethylene alkyl ether has an alkyl group containing 8 to 10 carbon atoms.
A system for determining a distance to an object comprising: - a semiconductor light source arranged for projecting a pattern of discrete spots of laser light towards said object in a periodically repeated sequence of pulses; - a detector comprising a plurality of CMOS picture elements, said detector being configured for detecting light representing said pattern of discrete spots as reflected by said object in synchronization with said sequence of pulses, said detector being provided with a narrowband filter; and - processing means configured to calculate said distance to said object as a function of exposure values generated by said picture elements in response to said detected light; wherein said picture elements are configured to generate said exposure values by accumulating, for all of the pulses of said sequence, a first amount of electrical charge representative of a first amount of light reflected by said object during a first predetermined time window and a second electrical charge representative of a second amount of light reflected by said object during a second predetermined time window, said second predetermined time window occurring after said first predetermined time window; wherein each of said plurality of picture elements comprises at least two charge storage wells (221, 222), and wherein said detecting of said first amount of light and said detecting of said second amount of light occurs at respective ones of said at least two charge storage wells (221, 222); characterized in that said first charge storage well used for said detecting of said first amount of light has a charge storage capacity that is greater than said second charge storage well used for said detecting of said second amount of light; and wherein each of said plurality of picture elements comprises at least one further charge storage well configured to perform the function of acquiring background light values, said at least one further charge storage well having a charge storage capacity that is smaller than a charge storage capacity of said at least two charge storage wells (221, 222). - a semiconductor light source arranged for projecting a pattern of discrete spots of laser light towards said object in a periodically repeated sequence of pulses; - a detector comprising a plurality of CMOS picture elements, said detector being configured for detecting light representing said pattern of discrete spots as reflected by said object in synchronization with said sequence of pulses, said detector being provided with a narrowband filter; and - processing means configured to calculate said distance to said object as a function of exposure values generated by said picture elements in response to said detected light;
A laser projector configured to display an image by projecting a laser beam from a laser light source to a projection screen, the laser projector comprising: the light source configured to emit the laser beam; an electromagnetic driven scan mirror configured to scan the laser beam emitted from the light source; a drive signal generation unit configured to generate a drive signal, of a predetermined frequency, to drive the electromagnetic driven scan mirror; a detection unit configured to detect a value of the back electromotive force which is generated by a drive of the electromagnetic driven scan mirror; a control unit configured to control the light source to emit the laser beam based on the back electromotive force detected by the detection unit and on a determined sufficient deflection angle of the electromagnetic driven scan mirror; and a changing unit configured to change a drive condition of the electromagnetic driven scan mirror, by changing the predetermined frequency of the drive signal, when the back electromotive force detected by the detection unit does not exceed a predetermined value for a predetermined time, characterized in that the control unit is configured to determine that the electromagnetic driven scan mirror is driven at a resonance frequency and a sufficient deflection angle when a number of times the value of the back electromotive force exceeds the predetermined value is equal to or more than a predetermined number of times, wherein the number of times the value of the back electromotive force exceeds the predetermined value is detected by the detection unit at a same predetermined driving frequency. the light source configured to emit the laser beam; an electromagnetic driven scan mirror configured to scan the laser beam emitted from the light source; a drive signal generation unit configured to generate a drive signal, of a predetermined frequency, to drive the electromagnetic driven scan mirror; a detection unit configured to detect a value of the back electromotive force which is generated by a drive of the electromagnetic driven scan mirror; a control unit configured to control the light source to emit the laser beam based on the back electromotive force detected by the detection unit and on a determined sufficient deflection angle of the electromagnetic driven scan mirror; and a changing unit configured to change a drive condition of the electromagnetic driven scan mirror, by changing the predetermined frequency of the drive signal, when the back electromotive force detected by the detection unit does not exceed a predetermined value for a predetermined time, characterized in that the control unit is configured to determine that the electromagnetic driven scan mirror is driven at a resonance frequency and a sufficient deflection angle when a number of times the value of the back electromotive force exceeds the predetermined value is equal to or more than a predetermined number of times, wherein the number of times the value of the back electromotive force exceeds the predetermined value is detected by the detection unit at a same predetermined driving frequency.
A method for preparing a semiconductor component for a thermal bonding process, the component having a planar bonding surface and an array of microbumps on the bonding surface, the method comprising the step of producing a polymer underfill layer on the bonding surface, wherein: - the polymer is a photo-patternable polymer, - an initial polymer layer is produced on the bonding surface and on the microbumps, the polymer layer having an average thickness in between the microbumps that is similar to the average microbump height, - the initial polymer layer is subjected to a lithography step, wherein the polymer is patterned and removed completely from the upper surface of the microbumps, characterized in that; in the lithography step the polymer layer is additionally patterned and removed at least partially from areas (10,11) adjacent the microbumps, and - after the lithography step, the polymer layer is heated to a temperature at which the polymer flows, to thereby form a reflowed polymer layer that directly adjoins the sidewalls of the microbumps without exceeding the height of the microbumps. - the polymer is a photo-patternable polymer, - an initial polymer layer is produced on the bonding surface and on the microbumps, the polymer layer having an average thickness in between the microbumps that is similar to the average microbump height, - the initial polymer layer is subjected to a lithography step, wherein the polymer is patterned and removed completely from the upper surface of the microbumps, - after the lithography step, the polymer layer is heated to a temperature at which the polymer flows, to thereby form a reflowed polymer layer that directly adjoins the sidewalls of the microbumps without exceeding the height of the microbumps.
A tumble dryer comprising: - a dryer cabinet, comprising a plastic basement having formed therein passages for a drying air flow; - a drum rotatably accommodated within said cabinet; - a plurality of rollers provided within said cabinet for rotatably supporting the drum; characterized in that said rollers are rotatably supported by respective pins provided on said plastic basement. - a dryer cabinet, comprising a plastic basement having formed therein passages for a drying air flow; - a drum rotatably accommodated within said cabinet; - a plurality of rollers provided within said cabinet for rotatably supporting the drum;