mhurhangee/ep-ind-claims huggingface dataset:
A second electronic device (130, 230, 330, dev2) comprising - a display for presenting a user interface to a user to control a first electronic device, - an input reception means for receiving user input from the user, characterized in that the second electronic device comprises - a second body coupled communication interface being configured to receive identification data (ID Data) via a body transmission channel following a body of a user who is simultaneously in the direct vicinity of a first body coupled communication interface of the first electronic device (110, 210, 310, dev1) and the second body coupled communication interface, the direct vicinity of the body being defined as a maximum distance between the body of the user and, respectively, the first body coupled communication interface and the second body coupled communication interface at which the respective body coupled communication interfaces (116, 134) are capable of transmitting and/or receiving data via the body transmission channel. - a controller being configured to obtain, in response to the reception of the identification data (ID Data) of the first electronic device (110, 210, 310, dev1), a control user interface to control the first electronic device (110, 210, 310, dev1) and being configured to present the obtained control user interface via the display and being configured to exchange data relating to a payment transaction, said data including at least one of account information, public keys and transaction amount. - a display for presenting a user interface to a user to control a first electronic device, - an input reception means for receiving user input from the user, characterized in that the second electronic device comprises - a second body coupled communication interface being configured to receive identification data (ID Data) via a body transmission channel following a body of a user who is simultaneously in the direct vicinity of a first body coupled communication interface of the first electronic device (110, 210, 310, dev1) and the second body coupled communication interface, the direct vicinity of the body being defined as a maximum distance between the body of the user and, respectively, the first body coupled communication interface and the second body coupled communication interface at which the respective body coupled communication interfaces (116, 134) are capable of transmitting and/or receiving data via the body transmission channel. - a controller being configured to obtain, in response to the reception of the identification data (ID Data) of the first electronic device (110, 210, 310, dev1), a control user interface to control the first electronic device (110, 210, 310, dev1) and being configured to present the obtained control user interface via the display and being configured to exchange data relating to a payment transaction, said data including at least one of account information, public keys and transaction amount.
A semiconductor die assembly (205; 405), comprising: a first semiconductor die (204a; 404a) having a first conductive trace (240a; 440a); a second semiconductor die (204b; 404b) having a second conductive trace (240b; 440b); and a plurality of redundant electrical connectors extending between the first and second conductive traces, wherein each of the redundant electrical connectors includes- a conductive member (232; 432) coupled to the first conductive trace, wherein the conductive member includes an end portion (237; 437), a bond pad (233, 433) coupled to the second conductive trace, and a conductive bond material (235; 435) between the conductive member and the bond pad, wherein the conductive bond material is bonded to the end portion of the conductive member. a first semiconductor die (204a; 404a) having a first conductive trace (240a; 440a); a second semiconductor die (204b; 404b) having a second conductive trace (240b; 440b); and a plurality of redundant electrical connectors extending between the first and second conductive traces, wherein each of the redundant electrical connectors includes- a conductive member (232; 432) coupled to the first conductive trace, wherein the conductive member includes an end portion (237; 437), a bond pad (233, 433) coupled to the second conductive trace, and a conductive bond material (235; 435) between the conductive member and the bond pad, wherein the conductive bond material is bonded to the end portion of the conductive member. a conductive member (232; 432) coupled to the first conductive trace, wherein the conductive member includes an end portion (237; 437), a bond pad (233, 433) coupled to the second conductive trace, and a conductive bond material (235; 435) between the conductive member and the bond pad, wherein the conductive bond material is bonded to the end portion of the conductive member.
A method comprising: histochemically staining a first sample of a tumor for a first predictive biomarker for a first therapeutic agent; excising one or more region(s) from the first sample with an automated dissection tool, wherein the excised region has a staining pattern for the first predictive biomarker indicating that the region is unlikely to respond to the first therapeutic agent; detecting with a next generation sequencer one or more mutations predictive of a response to one or more additional therapeutic agents in a nucleic acid sample derived from the excised region(s) of the first sample; staining one or more additional samples of the tumor for one or more additional predictive biomarker(s) correlating to the one or more mutations identified in the samples, the one or more additional predictive biomarkers being predictive of a response to one or more of the additional therapeutic agent(s). histochemically staining a first sample of a tumor for a first predictive biomarker for a first therapeutic agent; excising one or more region(s) from the first sample with an automated dissection tool, wherein the excised region has a staining pattern for the first predictive biomarker indicating that the region is unlikely to respond to the first therapeutic agent; detecting with a next generation sequencer one or more mutations predictive of a response to one or more additional therapeutic agents in a nucleic acid sample derived from the excised region(s) of the first sample; staining one or more additional samples of the tumor for one or more additional predictive biomarker(s) correlating to the one or more mutations identified in the samples, the one or more additional predictive biomarkers being predictive of a response to one or more of the additional therapeutic agent(s).
An illumination source, comprising: a housing; at least one first light emitting diode coupled to the housing and configured to emit green-shifted white light, the green-shifted white light having CIE 1931 chromaticity coordinates (x, y) within a first region defined by coordinates (0.31, 0.36), (0.34, 0.35), (0.40, 0.54) and (0.42, 0.52); at least one second blue-pump LED coupled to the housing and including a phosphor configured to emit blue-shifted white light, the blue-shifted white light having CIE 1931 chromaticity coordinates (x, y) within a second region defined by coordinates (0.278, 0.250), (0.292, 0.270), (0.245, 0.285) and (0.267, 0.320); and at least two third LEDs coupled to the housing, wherein one third LED is configured to emit a red-orange light having a wavelength of approximately 610 nanometers and another third LED is configured to emit an amber light having a wavelength of approximately 590 nanometers, wherein the illumination source further comprises a controller coupled to a combination of the at least one first LED, the at least one second blue-pump LED and the at least two third LEDs, and wherein the controller is configured to variably adjust a light output of the combination so as to generate white light adjustable within each of a plurality of ANSI quadrangles in a range of correlated color temperatures between approximately 2,400 K to 6,500 K along the black body locus, maintaining a color rendering index of greater than 85. a housing; at least one first light emitting diode coupled to the housing and configured to emit green-shifted white light, the green-shifted white light having CIE 1931 chromaticity coordinates (x, y) within a first region defined by coordinates (0.31, 0.36), (0.34, 0.35), (0.40, 0.54) and (0.42, 0.52); at least one second blue-pump LED coupled to the housing and including a phosphor configured to emit blue-shifted white light, the blue-shifted white light having CIE 1931 chromaticity coordinates (x, y) within a second region defined by coordinates (0.278, 0.250), (0.292, 0.270), (0.245, 0.285) and (0.267, 0.320); and at least two third LEDs coupled to the housing, wherein one third LED is configured to emit a red-orange light having a wavelength of approximately 610 nanometers and another third LED is configured to emit an amber light having a wavelength of approximately 590 nanometers, wherein the illumination source further comprises a controller coupled to a combination of the at least one first LED, the at least one second blue-pump LED and the at least two third LEDs, and wherein the controller is configured to variably adjust a light output of the combination so as to generate white light adjustable within each of a plurality of ANSI quadrangles in a range of correlated color temperatures between approximately 2,400 K to 6,500 K along the black body locus, maintaining a color rendering index of greater than 85.
A method of controlling a robot, the method comprising: a) feeding a service schedule to a self-propelled robot, the service schedule identifying a plurality of tasks for the robot to perform, b) the robot performing one or more of the plurality of tasks, c) the robot not completing a first task of the plurality of tasks, and d) the robot, after step c), performing another of the tasks, characterized in that step c) further comprises the robot generating information corresponding to the non-completion of the first task, e) the method further comprising the step of identifying and outputting, based on the corresponding information, information relating to the first task, wherein: - the service schedule comprises, for the first task, one or more parameters according to which the robot should perform the first task, - step c) comprises the robot not having performed the first task in accordance with the one or more parameters and - the corresponding information comprises information as to which parameter(s), the first task was not performed in accordance with. a) feeding a service schedule to a self-propelled robot, the service schedule identifying a plurality of tasks for the robot to perform, b) the robot performing one or more of the plurality of tasks, c) the robot not completing a first task of the plurality of tasks, and d) the robot, after step c), performing another of the tasks, characterized in that step c) further comprises the robot generating information corresponding to the non-completion of the first task, e) the method further comprising the step of identifying and outputting, based on the corresponding information, information relating to the first task, - the service schedule comprises, for the first task, one or more parameters according to which the robot should perform the first task, - step c) comprises the robot not having performed the first task in accordance with the one or more parameters and - the corresponding information comprises information as to which parameter(s), the first task was not performed in accordance with.
A system for stimulating cardiac muscle, said system comprising: an implantable acoustic controller-transmitter encased in a first sealed case; and an implantable acoustic receiver-stimulator having an electrode assembly adapted to be in direct contact with cardiac muscle tissue, wherein the receiver-stimulator is enclosed in a second sealed case; wherein the controller-transmitter comprises sensing electrodes located on the exterior surface of the controller-transmitter and in contact with the tissue, and an electrogram signal processor configured to process electrogram signals from the sensing electrodes; wherein the controller-transmitter is configured to: detect a pacing output of a cardiac pacemaker having leads implanted in a right ventricle or right atrium, the cardiac pacemaker being separate from the controller-transmitter and from the receiver-stimulator; and upon detecting the pacing output, generate acoustic energy; and wherein the receiver-stimulator is configured to receive the acoustic energy and convert the acoustic energy into electrical cardiac stimulation energy based on both energy and signal information included in the acoustic energy. an implantable acoustic controller-transmitter encased in a first sealed case; and an implantable acoustic receiver-stimulator having an electrode assembly adapted to be in direct contact with cardiac muscle tissue, wherein the receiver-stimulator is enclosed in a second sealed case; wherein the controller-transmitter comprises sensing electrodes located on the exterior surface of the controller-transmitter and in contact with the tissue, and an electrogram signal processor configured to process electrogram signals from the sensing electrodes; wherein the controller-transmitter is configured to: detect a pacing output of a cardiac pacemaker having leads implanted in a right ventricle or right atrium, the cardiac pacemaker being separate from the controller-transmitter and from the receiver-stimulator; and upon detecting the pacing output, generate acoustic energy; and detect a pacing output of a cardiac pacemaker having leads implanted in a right ventricle or right atrium, the cardiac pacemaker being separate from the controller-transmitter and from the receiver-stimulator; and upon detecting the pacing output, generate acoustic energy; and wherein the receiver-stimulator is configured to receive the acoustic energy and convert the acoustic energy into electrical cardiac stimulation energy based on both energy and signal information included in the acoustic energy.
Safety device with a safety switch and an actuator arranged movably relative to the latter, wherein a transponder is arranged in the actuator and a reading unit is arranged in the safety switch, wherein a closing position of the actuator is thereby controlled, in that transponder signals of the transponder are detected in the reading unit, characterised in that the safety switch has a locking element with an influencing element and the actuator has a sensor coupled to the transponder, in that, in the closed position of the actuator, the guard locking element can be inserted into a receptacle of the actuator, as a result of which guard locking of the actuator is effected, and in that this guard locking is thereby controlled, in that the influencing element is within the sphere of influence of the sensor only when the locking element is inserted into the receptacle, so that the latter generates a sensor signal by means of which the transponder signals transmitted by the transponder are changed, the changed transponder signals being detected in the reading unit.
A coin conveying mechanism comprising a belt with a protrusion, the belt with a protrusion comprising: a belt main body comprising tooth portions at a predetermined tooth pitch on an inner surface of the belt in a longitudinal direction, and a cord extending in the longitudinal direction and arranged at a predetermined cord pitch in a width direction which is embedded in a back portion thereof; and a protruding portion formed on a back surface of the belt main body by an integral formation, wherein: the protruding portion is arranged outside the tooth portions, has a hardness of 81 to 91 degrees in accordance with JIS K6253:2012, measured with an A-type hardness meter, and has a base width smaller than the tooth pitch; characterized in that the cord has a fineness of 999.9 × 10 -7 to 1222.1 × 10 -7 kg/m (900 to 1100 deniers), and a ratio of a total of intervals (d) between the adjacent cords to a belt width of 12 to 45%. a belt main body comprising tooth portions at a predetermined tooth pitch on an inner surface of the belt in a longitudinal direction, and a cord extending in the longitudinal direction and arranged at a predetermined cord pitch in a width direction which is embedded in a back portion thereof; and a protruding portion formed on a back surface of the belt main body by an integral formation, wherein: the protruding portion is arranged outside the tooth portions, has a hardness of 81 to 91 degrees in accordance with JIS K6253:2012, measured with an A-type hardness meter, and has a base width smaller than the tooth pitch; characterized in that the cord has a fineness of 999.9 × 10 -7 to 1222.1 × 10 -7 kg/m (900 to 1100 deniers), and a ratio of a total of intervals (d) between the adjacent cords to a belt width of 12 to 45%. the protruding portion is arranged outside the tooth portions, has a hardness of 81 to 91 degrees in accordance with JIS K6253:2012, measured with an A-type hardness meter, and has a base width smaller than the tooth pitch; characterized in that the cord has a fineness of 999.9 × 10 -7 to 1222.1 × 10 -7 kg/m (900 to 1100 deniers), and a ratio of a total of intervals (d) between the adjacent cords to a belt width of 12 to 45%.
A gear shift lever knob comprising - a knob body forming a portion of said gear shift lever knob, said knob body being made of a first material, which allows light to pass through, and - a frame at least partly enclosing said knob body, such that said knob body is externally visible, said frame being made of a second material being different from the first material, characterized in that said knob body forms at least 50% of the volume of said gear shift lever knob. - a knob body forming a portion of said gear shift lever knob, said knob body being made of a first material, which allows light to pass through, and - a frame at least partly enclosing said knob body, such that said knob body is externally visible, said frame being made of a second material being different from the first material,
An airfoil comprising: a wall that defines a leading edge and a trailing edge; one or more cavities (108, 110) located within the wall; and a rib; where at least two cavities (108, 110) are separated by the rib; characterised in that: the rib or the wall comprises a first split ply that comprises a consolidated section and two or more split sections (114B, 114C); wherein the split sections emanate from the consolidated section; and where the split sections define the wall and the cavities of the airfoil. a wall that defines a leading edge and a trailing edge; one or more cavities (108, 110) located within the wall; and a rib; where at least two cavities (108, 110) are separated by the rib; characterised in that: the rib or the wall comprises a first split ply that comprises a consolidated section and two or more split sections (114B, 114C); wherein the split sections emanate from the consolidated section; and where the split sections define the wall and the cavities of the airfoil.
A method for encrypting multicast service in a passive optical network system, comprising: an optical line terminal generating a common key for all multicast service data in a same one bearer channel, and using the common key to encrypt multicast service data in the same one bearer channel and then sending encrypted data; and characterized by said OLT sending the common key applied in encrypting the multicast service data via a management control channel to an optical network unit that is activated successfully and applies to receive said multicast service data. an optical line terminal generating a common key for all multicast service data in a same one bearer channel, and using the common key to encrypt multicast service data in the same one bearer channel and then sending encrypted data; and characterized by said OLT sending the common key applied in encrypting the multicast service data via a management control channel to an optical network unit that is activated successfully and applies to receive said multicast service data.
A control device for controlling a fuel injection valve to inject fuel into an internal combustion engine, wherein a fluid injection valve that is configured separately from the fuel injection valve and has a function of injecting a fluid is provided in the internal combustion engine and the control device includes a control unit which is configured to control, in the case if it is determined that the combustion mode of the engine is a homogeneous combustion mode and that the rotational speed of the engine is a predetermined rotational speed or less, the fuel injection valve such that fuel is injected from the fuel injection valve and to then control the fluid injection valve such that the fluid is injected from the fluid injection valve and the fuel injected from the fuel injection valve is stirred, wherein the control unit performs control such that injection is performed from the fuel injection valve in a state in which a piston of the internal combustion engine descends and then controls the fluid injection valve such that the fluid is injected from the fluid injection valve and the fuel injected form the fuel injection valve is stirred.