mhurhangee/ep-ind-claims huggingface dataset:
An information processing apparatus (100; 200; 300; 400; 500) comprising: a core unit (111; 211; 411; 511) configured to control an external device that is communicatively connected to the information processing apparatus (100; 200; 300; 400; 500); a plug-in unit (130; 230; 330; 430; 530) that includes a plurality of different plug-ins (131, 132, 133; 231, 232, 233, 234; 331, 332, 333, 334; 431, 432, 433, 434; 531, 532, 533, 534) that enable the external device to implement their respective functions; and a calling unit (112; 212; 412) that is included in the core unit (111; 211; 411; 511) and is configured to call a plug-in (131, 132, 133; 231, 232, 233, 234; 331, 332, 333, 334; 431, 432, 433, 434; 531, 532, 533, 534) that enables the external device to implement a predetermined function when controlling the external device, characterized in that the plug-in (131, 132, 133; 231, 232, 233, 234; 331, 332, 333, 334; 431, 432, 433, 434; 531, 532, 533, 534), when called by the calling unit (112; 212; 412) at a specific timing of a process related to the control of the external device performed by the core unit (111; 211; 411; 511), referred to as core process, interrupts the core process with a process related to the predetermined function provided by the plug-in (131, 132, 133; 231, 232, 233, 234; 331, 332, 333, 334; 431, 432, 433, 434; 531, 532, 533, 534), and when the timing of the core process does not correspond to the timing for the plug-in to perform any process, the plug-in does not interrupt the core process with any process. a core unit (111; 211; 411; 511) configured to control an external device that is communicatively connected to the information processing apparatus (100; 200; 300; 400; 500); a plug-in unit (130; 230; 330; 430; 530) that includes a plurality of different plug-ins (131, 132, 133; 231, 232, 233, 234; 331, 332, 333, 334; 431, 432, 433, 434; 531, 532, 533, 534) that enable the external device to implement their respective functions; and a calling unit (112; 212; 412) that is included in the core unit (111; 211; 411; 511) and is configured to call a plug-in (131, 132, 133; 231, 232, 233, 234; 331, 332, 333, 334; 431, 432, 433, 434; 531, 532, 533, 534) that enables the external device to implement a predetermined function when controlling the external device, characterized in that the plug-in (131, 132, 133; 231, 232, 233, 234; 331, 332, 333, 334; 431, 432, 433, 434; 531, 532, 533, 534), when called by the calling unit (112; 212; 412) at a specific timing of a process related to the control of the external device performed by the core unit (111; 211; 411; 511), referred to as core process, interrupts the core process with a process related to the predetermined function provided by the plug-in (131, 132, 133; 231, 232, 233, 234; 331, 332, 333, 334; 431, 432, 433, 434; 531, 532, 533, 534), and when the timing of the core process does not correspond to the timing for the plug-in to perform any process, the plug-in does not interrupt the core process with any process.
A method of determining a distance estimate between a mobile device and a wireless transceiver of a wireless communication system, the wireless transceiver communicating with the mobile device on a multi-carrier signal, the method comprising: receiving the multi-carrier signal including a plurality of carrier signals generated using synchronized clocks; and determining the distance estimate between the mobile device and the wireless transceiver using the plurality of carrier signals, wherein the method further comprises: selecting one of the carrier signals as a reference carrier signal; shifting a waveform of each of at least one of the non-reference carrier signals according to a frequency difference relative to the reference carrier signal; and combining a waveform of the reference carrier signal and the waveform of the at least one shifted non-reference carrier signal to generate a composite signal; wherein the distance estimate between the mobile device and the wireless transceiver is determined using the composite signal. receiving the multi-carrier signal including a plurality of carrier signals generated using synchronized clocks; and determining the distance estimate between the mobile device and the wireless transceiver using the plurality of carrier signals, wherein the method further comprises: selecting one of the carrier signals as a reference carrier signal; shifting a waveform of each of at least one of the non-reference carrier signals according to a frequency difference relative to the reference carrier signal; and combining a waveform of the reference carrier signal and the waveform of the at least one shifted non-reference carrier signal to generate a composite signal; wherein the distance estimate between the mobile device and the wireless transceiver is determined using the composite signal. selecting one of the carrier signals as a reference carrier signal; shifting a waveform of each of at least one of the non-reference carrier signals according to a frequency difference relative to the reference carrier signal; and combining a waveform of the reference carrier signal and the waveform of the at least one shifted non-reference carrier signal to generate a composite signal; wherein the distance estimate between the mobile device and the wireless transceiver is determined using the composite signal.
A method for updating location information on a gas detector device, the method comprising: receiving, by a gas detector device, a Bluetooth wireless beacon, when the gas detector device passes within the range of the Bluetooth wireless beacon, wherein the Bluetooth wireless beacon is a broadcast that contains location information; presenting, by the gas detector device, a confirmation message for updating the location information, to a user via a user interface of the gas detector device; updating (304, 318), by the gas detector device, the location information stored on the gas detector device using the location information from the Bluetooth wireless beacon when the user provides a confirmation input in response to the confirmation message; and associating, by the gas detector device, subsequent readings taken by one or more sensors of the gas detector device with the updated location information, wherein the readings are stored within the gas detector device. receiving, by a gas detector device, a Bluetooth wireless beacon, when the gas detector device passes within the range of the Bluetooth wireless beacon, wherein the Bluetooth wireless beacon is a broadcast that contains location information; presenting, by the gas detector device, a confirmation message for updating the location information, to a user via a user interface of the gas detector device; updating (304, 318), by the gas detector device, the location information stored on the gas detector device using the location information from the Bluetooth wireless beacon when the user provides a confirmation input in response to the confirmation message; and associating, by the gas detector device, subsequent readings taken by one or more sensors of the gas detector device with the updated location information, wherein the readings are stored within the gas detector device.
A combination, consisting of: (i) a pharmaceutical composition consisting of an admixture of: 1) an effective amount of PD-L/PD-1 Axis antagonist selected from the group consisting of a PD-1 binding antagonist, wherein the PD-1 binding antagonist is an anti-PD-1 antibody, and a PD-L1 binding antagonist, wherein the PD-L1 binding antagonist is an anti-PD-L1 antibody, and 2) one or more pharmaceutically acceptable carriers, excipients or diluents; (ii) a pharmaceutical composition consisting of an admixture of: 1) an effective amount of an immunotherapeutic that is capable of activating a human plasmacytoid dendritic cell, myeloid dendritic cell, or NK cell, or a combination thereof, and 2) one or more pharmaceutically acceptable carriers, excipients or diluents; and, optionally, (iii) an effective amount of an additional therapeutic agent, wherein the additional therapeutic agent is a chemotherapeutic agent, wherein said immunotherapeutic is 4-amino-2-(ethoxymethyl)-a,a-di-methyl-1H-imidazo[4,5-c]quinoline-1-ethanol (Resiquimod), wherein the PD-L/PD-1 Axis antagonist of (i) and the immunotherapeutic of (ii) are not linked to each other. (i) a pharmaceutical composition consisting of an admixture of: 1) an effective amount of PD-L/PD-1 Axis antagonist selected from the group consisting of a PD-1 binding antagonist, wherein the PD-1 binding antagonist is an anti-PD-1 antibody, and a PD-L1 binding antagonist, wherein the PD-L1 binding antagonist is an anti-PD-L1 antibody, and 2) one or more pharmaceutically acceptable carriers, excipients or diluents; (ii) a pharmaceutical composition consisting of an admixture of: 1) an effective amount of an immunotherapeutic that is capable of activating a human plasmacytoid dendritic cell, myeloid dendritic cell, or NK cell, or a combination thereof, and 2) one or more pharmaceutically acceptable carriers, excipients or diluents; and, optionally, (iii) an effective amount of an additional therapeutic agent, wherein the additional therapeutic agent is a chemotherapeutic agent,
A method of facilitating interaction between a ticket holder and a self-service function related to the ticket, comprising the steps of: detecting by a mobile device proximity to a self-service function, the mobile device having stored thereon information relating to the ticket and the self-service function being related to the ticket; on detection by the mobile device of proximity to a location proximate to the self-service function, activating an application on the mobile device, the application being related to the self-service function; establishing a connection session between the mobile device and a cloud broker service; establishing a connection session between the self-service function and the cloud broker service; generating, via the cloud broker service, an end-to-end session via the connection sessions by mapping an identifier of the mobile device with the identifier of the self-service function; and communicating from the self-service function to the application of the mobile device through a cloud broker service, information about the self-service function including directional information, the cloud broker service exposing a single connection endpoint for communicating between the mobile device and the self-service function via the end-to-end session. detecting by a mobile device proximity to a self-service function, the mobile device having stored thereon information relating to the ticket and the self-service function being related to the ticket; on detection by the mobile device of proximity to a location proximate to the self-service function, activating an application on the mobile device, the application being related to the self-service function; establishing a connection session between the mobile device and a cloud broker service; establishing a connection session between the self-service function and the cloud broker service; generating, via the cloud broker service, an end-to-end session via the connection sessions by mapping an identifier of the mobile device with the identifier of the self-service function; and communicating from the self-service function to the application of the mobile device through a cloud broker service, information about the self-service function including directional information, the cloud broker service exposing a single connection endpoint for communicating between the mobile device and the self-service function via the end-to-end session.
An in vitro method for preparing a non-human tissue matrix for transplantation, comprising: contacting a collagen-containing tissue matrix with an isolated Trichoderma reesei or Clostridium cellulyticum alpha-galactosidase in an amount and for a time sufficient to remove an α-gal epitope from the tissue matrix, thereby preparing the tissue matrix for transplantation into a human patient.
A vehicle with a tilting part for a pilot, the tilting part including at least one ground engaging wheel, the vehicle further comprising a second part carrying at least one ground engaging wheel on each side of the vehicle, connection means connecting the two parts so the tilting part can tilt with respect to the second part so that the pilot can lean into a corner, and a leaf spring system to resist tilting of the tilting part with respect to the second part wherein the resistance to tilting provided by the leaf spring system is such that it provides a first rate of increase of resistance to tilting over a first range to a first angle of tilt, and a second rate of increase of resistance to tilting over a second range from the first said angle to a second, greater angle of tilt, the second rate being higher than the first rate, wherein the leaf spring system comprises a spring section and a stop section, the spring section and stop section being arranged to pivot with respect to each other, the spring section carrying a first leaf spring (240, 242) and the stop section carrying two first stops (212, 214, 216, 218), and the spring section carrying a second leaf spring (240, 242) and the stop section carrying two second stops (212, 214, 216, 218), so that when the stop section is pivoted with respect to the spring section in one direction, the first leaf spring (240, 242) engages with one first stop (212, 214, 216, 218) first and resists the pivoting movement, and after a certain further angle of pivoting the second leaf spring (240, 242) engages with a second stop (212, 214, 216, 218) and resists the pivoting movement, and correspondingly when the stop section is pivoted with respect to the spring section in the opposite direction, the second leaf spring (240, 242) engages with the other second stop (212, 214, 216, 218) first and resists the pivoting movement, and after a certain further angle of pivoting the first leaf spring (240, 242) engages with the other first stop (212, 214, 216, 218) and resists the pivoting movement, wherein the leaf springs (240, 242) extend in opposing directions
A method for fabricating a CI S-based thin film for a solar cell using a flux having a low melting point, the method comprising the steps of: (a) preparing CI S-based nanoparticles; (b) preparing a slurry containing the CI S-based nanoparticles and a flux having a melting point of 30 to 400 °C; (c) coating the slurry on a substrate in a non-vacuum to form a CI S-based precursor thin film; (d) drying the CI S-based precursor thin film; and (e) performing selenization heat treatment of the CI S-based precursor thin film using selenium (Se) vapor at a temperature of 250 to 450 °C for 30-120 minutes, characterized in that the flux is any one selected from the group consisting of sulfamide, sodium selenate decahydrate, sodium selenite and sulfamic acid. (a) preparing CI S-based nanoparticles; (b) preparing a slurry containing the CI S-based nanoparticles and a flux having a melting point of 30 to 400 °C; (c) coating the slurry on a substrate in a non-vacuum to form a CI S-based precursor thin film; (d) drying the CI S-based precursor thin film; and (e) performing selenization heat treatment of the CI S-based precursor thin film using selenium (Se) vapor at a temperature of 250 to 450 °C for 30-120 minutes, characterized in that the flux is any one selected from the group consisting of sulfamide, sodium selenate decahydrate, sodium selenite and sulfamic acid.
Method for producing a concrete component having a high-quality concrete edge region by introducing concrete into a shuttering, characterised in that an agent is applied to the surface of the shuttering facing the concrete, which agent comprises a water-insoluble hydrophilic polymer having a powdery consistency.
A method for generating a power line communication signal, comprising: generating a plurality of modulation signals (M1, M2) based on at least two independent data streams from a DC/AC inverter; modulating a plurality of carrier signals (U, V) by the plurality of modulation signals to generate a balanced three-phase PLC signal comprising a first phase signal, a second phase signal, and a third phase signal; and coupling the balanced three-phase PLC signal to a three-phase power line, wherein the at least two independent data streams comprise a first and a second data stream; the plurality of modulation signals comprises a first and a second modulation signal generated based on the first and the second data streams, respectively; a first and a second carrier signal are modulated by the first and the second modulation signals, respectively, to generate first and second modulated signals; and the first, the second, and the third phase signals are generated based on a non-singular transformation matrix with respect to the first and the second modulated signals. generating a plurality of modulation signals (M1, M2) based on at least two independent data streams from a DC/AC inverter; modulating a plurality of carrier signals (U, V) by the plurality of modulation signals to generate a balanced three-phase PLC signal comprising a first phase signal, a second phase signal, and a third phase signal; and coupling the balanced three-phase PLC signal to a three-phase power line, wherein the at least two independent data streams comprise a first and a second data stream; the plurality of modulation signals comprises a first and a second modulation signal generated based on the first and the second data streams, respectively; a first and a second carrier signal are modulated by the first and the second modulation signals, respectively, to generate first and second modulated signals; and the first, the second, and the third phase signals are generated based on a non-singular transformation matrix with respect to the first and the second modulated signals.
Optical assembly comprising a circuit board comprising a first side, a second side, and at least one hole that extends through the circuit board, a photonic chip having a front side and a back side, the front side of the photonic chip being mounted on the first side of the circuit board and electrically connected to at least one electrical conductor of the circuit board, at least one component being mounted on the front side of the photonic chip opposite the hole and protruding from the front side of the photonic chip into the hole or through the hole, and a wave-guiding element that is located on the second side of the circuit board and optically coupled to the photonic chip through said hole, wherein said at least one component is a radiation emitter, wherein the optical assembly comprises a first heat sink mounted to the back side of the photonic chip and a second heat sink mounted on said radiation emitter, wherein the optical assembly further comprises a housing having a first wall that faces the first side of the circuit board and therefore the back side of the photonic chip, and a second wall that faces the second side of the circuit board, wherein the first heat sink is coupled to the first wall and the second heat sink is coupled to the second wall, and wherein heat generated by and/or passing the radiation emitter flows through the hole and the second heat sink towards the second wall. a circuit board comprising a first side, a second side, and at least one hole that extends through the circuit board, a photonic chip having a front side and a back side, the front side of the photonic chip being mounted on the first side of the circuit board and electrically connected to at least one electrical conductor of the circuit board, at least one component being mounted on the front side of the photonic chip opposite the hole and protruding from the front side of the photonic chip into the hole or through the hole, and a wave-guiding element that is located on the second side of the circuit board and optically coupled to the photonic chip through said hole, wherein said at least one component is a radiation emitter, wherein the optical assembly comprises a first heat sink mounted to the back side of the photonic chip and a second heat sink mounted on said radiation emitter, wherein the optical assembly further comprises a housing having a first wall that faces the first side of the circuit board and therefore the back side of the photonic chip, and a second wall that faces the second side of the circuit board, wherein the first heat sink is coupled to the first wall and the second heat sink is coupled to the second wall, and wherein heat generated by and/or passing the radiation emitter flows through the hole and the second heat sink towards the second wall.
A method for monitoring a component of a turbomachine, the component having an exterior surface, the method comprising: locating a centroid (222, 322', 322") of a first reference feature (30, 30', 30") and a second reference feature (30, 30', 30") configured on the component; measuring a first distance between the centroid (222, 322', 322") of the first reference feature (30, 30', 30") and the centroid (222, 322', 322") of the second reference feature (30, 30', 30") at a first time; measuring a second distance between the centroid (222, 322', 322") of the first reference feature (30, 30', 30") and the centroid (222, 322', 322") of the second reference feature (30, 30', 30") at a second time; performing an operational use of the component after the first time and before the second time, wherein the component experiences strain during the operational use; and comparing the first distance and the second distance, characterized in that the method further comprises the step (210, 220, 230, 240, 250, 260) of assigning a first weighting factor to the first reference feature (30, 30', 30") and a second weighting factor to the second reference feature (30, 30', 30"), the first weighting factor based on the area of the first reference feature (30, 30', 30"), the second weighting factor based on the area of the second reference feature (30, 30', 30"). locating a centroid (222, 322', 322") of a first reference feature (30, 30', 30") and a second reference feature (30, 30', 30") configured on the component; measuring a first distance between the centroid (222, 322', 322") of the first reference feature (30, 30', 30") and the centroid (222, 322', 322") of the second reference feature (30, 30', 30") at a first time; measuring a second distance between the centroid (222, 322', 322") of the first reference feature (30, 30', 30") and the centroid (222, 322', 322") of the second reference feature (30, 30', 30") at a second time; performing an operational use of the component after the first time and before the second time, wherein the component experiences strain during the operational use; and comparing the first distance and the second distance, characterized in that the method further comprises the step (210, 220, 230, 240, 250, 260) of assigning a first weighting factor to the first reference feature (30, 30', 30") and a second weighting factor to the second reference feature (30, 30', 30"), the first weighting factor based on the area of the first reference feature (30, 30', 30"), the second weighting factor based on the area of the second reference feature (30, 30', 30").