mhurhangee/ep-ind-claims huggingface dataset:
An information processing device comprising: an acquisition unit configured to acquire detection results of a sensor unit composed of a plurality of sensors including a first sensor having a predetermined detection range, and a second sensor having a range in a detection range thereof in which detection by the first sensor is not possible, and an estimation unit configured to estimate a detected value of the first sensor outside the predetermined detection range on the basis of detection results of the second sensor, wherein the first sensor is a pressure distribution sensor (35, 35-1, 35-2) and the second sensor is a force sensor, wherein the sensor unit is formed by stacking a plurality of sensors, and characterized in that the estimation unit is configured to estimate a detected value of the first sensor outside the predetermined detection range by interpolation according to the detection result of the second sensor; or the estimation unit is configured to estimate a detected value of the first sensor outside the predetermined detection range using a prediction model that receives a detected value of the first sensor and a detected value of the second sensor as inputs and outputs a detected value of the first sensor outside the predetermined detection range. an acquisition unit configured to acquire detection results of a sensor unit composed of a plurality of sensors including a first sensor having a predetermined detection range, and a second sensor having a range in a detection range thereof in which detection by the first sensor is not possible, and an estimation unit configured to estimate a detected value of the first sensor outside the predetermined detection range on the basis of detection results of the second sensor, wherein the first sensor is a pressure distribution sensor (35, 35-1, 35-2) and the second sensor is a force sensor, wherein the sensor unit is formed by stacking a plurality of sensors, and characterized in that the estimation unit is configured to estimate a detected value of the first sensor outside the predetermined detection range by interpolation according to the detection result of the second sensor; or the estimation unit is configured to estimate a detected value of the first sensor outside the predetermined detection range using a prediction model that receives a detected value of the first sensor and a detected value of the second sensor as inputs and outputs a detected value of the first sensor outside the predetermined detection range.
A method for the purification of epidaunorubicin, comprising the following steps: a) providing a mixture containing epidaunorubicin, epi-feudomycin and at least one halogen-containing solvent; b) adjusting the pH value of the mixture to a range of from 5.0 to 7.5; c) heating the mixture of step b) to above 50°C; and d) purifying the epidaunorubicin, characterized in that the proportion of alcohols having 1 to 5 carbon atoms in the mixture in steps a) and b) is at most 5 vol.-%, based on the total volume of the mixture. a) providing a mixture containing epidaunorubicin, epi-feudomycin and at least one halogen-containing solvent; b) adjusting the pH value of the mixture to a range of from 5.0 to 7.5; c) heating the mixture of step b) to above 50°C; and d) purifying the epidaunorubicin,
Solid form of an Antiretroviral compound consisting of an antiretroviral drug and an anti-oxidative acid, wherein the antiretroviral drug is selected from tenofovir disoproxil, lamivudine, emtricitabine and abacavir, and wherein the anti-oxidative acid is selected from hydroxycinnamic acids.
A method of wireless communication by a user equipment, UE, the method comprising: receiving a beam modification command that indicates a set of transmit beam indexes corresponding to a set of transmit beams of a base station, each transmit beam index of the set of transmit beam indexes indicating at least a transmit direction for transmitting a transmit beam by the base station; determining a set of receive beam indexes corresponding to receive beams of the UE based on the set of transmit beam indexes, each receive beam index of the set of receive beam indexes indicating at least a receive direction for receiving a receive beam by the UE; and receiving, from the base station, a beam refinement reference signal, BRRS, through at least one receive beam corresponding to at least one receive beam index included in the set of receive beam indexes. receiving a beam modification command that indicates a set of transmit beam indexes corresponding to a set of transmit beams of a base station, each transmit beam index of the set of transmit beam indexes indicating at least a transmit direction for transmitting a transmit beam by the base station; determining a set of receive beam indexes corresponding to receive beams of the UE based on the set of transmit beam indexes, each receive beam index of the set of receive beam indexes indicating at least a receive direction for receiving a receive beam by the UE; and receiving, from the base station, a beam refinement reference signal, BRRS, through at least one receive beam corresponding to at least one receive beam index included in the set of receive beam indexes.
A blade comprising a blade body made of organic matrix composite material reinforced by fibers and a leading edge shield made of a material that withstands point impacts better than the composite material of the blade body, the blade including a blade tip, the leading edge shield being assembled on the blade body and including a pressure-side fin and a suction-side fin, the blade being characterized in that the pressure-side fin includes a pressure-side tab and in that the suction-side fin includes a suction-side tab, the pressure-side tab and the suction-side tab being folded one on the other and being secured to each other so as to form a partial covering of the blade tip, the blade being characterized in that the pressure-side fin and the suction-side fin each includes a free edge (40, 42), one of the pressure-side and suction-side fins (34, 36) being longer than the other, and the tab of the longer fin including a cutout starting from the free edge of the longer fin and going towards the free edge of the shorter fin.
A method for reporting positioning data from a node B in a cellular communication system, comprising the steps of: performing, in a node B, a measurement of a time of radio signal propagation concerning signalling with a first user equipment within a coverage of said node B, giving a time value; coding, in said node B, said time value as a multi-symbol time report sequence; and obtaining, in said node B, auxiliary positioning information data concerning said first user equipment, characterised by the further steps of: modifying, in said node B, at least one symbol of said multi-symbol time report sequence for representing said auxiliary positioning information data; and reporting, from said node B, said modified multi-symbol time report sequence. performing, in a node B, a measurement of a time of radio signal propagation concerning signalling with a first user equipment within a coverage of said node B, giving a time value; coding, in said node B, said time value as a multi-symbol time report sequence; and obtaining, in said node B, auxiliary positioning information data concerning said first user equipment, modifying, in said node B, at least one symbol of said multi-symbol time report sequence for representing said auxiliary positioning information data; and reporting, from said node B, said modified multi-symbol time report sequence.
A liquefier assembly for use in an extrusion-based additive manufacturing apparatus, comprising: - a liquefier tube extending between an inlet opening and an outlet opening, wherein the inlet opening is configured to receive a consumable material, and wherein the liquefier tube is configured to facilitate the transport of the consumable material through the liquefier assembly between the inlet opening and the outlet opening, - a nozzle assembly coupled to the outlet opening of the liquefier tube and configured to extrude the consumable material in a first direction; and - a heater block assembly disposed around at least a portion of the liquefier tube and configured to heat the consumable material in the liquefier tube, comprising a first major outer surface facing said first direction and a first recess in the first major outer surface, wherein the first recess exhibits, in section, at least one boundary edge configured to converge thermal radiation in substantially the first direction or a direction having an angle to said first direction. - a liquefier tube extending between an inlet opening and an outlet opening, wherein the inlet opening is configured to receive a consumable material, and wherein the liquefier tube is configured to facilitate the transport of the consumable material through the liquefier assembly between the inlet opening and the outlet opening, - a nozzle assembly coupled to the outlet opening of the liquefier tube and configured to extrude the consumable material in a first direction; and - a heater block assembly disposed around at least a portion of the liquefier tube and configured to heat the consumable material in the liquefier tube, comprising a first major outer surface facing said first direction and a first recess in the first major outer surface, wherein the first recess exhibits, in section, at least one boundary edge configured to converge thermal radiation in substantially the first direction or a direction having an angle to said first direction.
A hat system (100, 200), relating to permitting a wearer to contemporaneously wear headwear brims and eyewear rims occupying at least one co-location, the system comprising: a) at least one headwear brim structured and arranged to assist shade-cover to at least one portion of the face of the at least one wearer; b) wherein said at least one headwear brim comprises at least one accommodator structured and arranged to accommodate at least one portion of the eyewear rims in the at least one co-location; c) wherein, when the wearer is contemporaneously wearing said at least one headwear brim and the at least one portion of the eyewear rims, such contemporaneous wearing is accommodated; and d) wherein without said at least one accommodator said at least one headwear brim would interfere with the contemporaneous wearing of the eyewear rims, characterized in that, said at least one accommodator comprises at least one restrainer structured and arranged to restrain at least one portion of the eyewear rims, the at least one restrainer comprises at least two friction-resister elements structured and arranged to assist restraint of the eyewear rims by friction resistance along at least two points along the eyewear rims, and said at least one accommodator comprises at least two notches, situated opposed along at least one periphery of said at least one headwear brim, structured and arranged to accommodate at least opposed eyewear rim portions. a) at least one headwear brim structured and arranged to assist shade-cover to at least one portion of the face of the at least one wearer; b) wherein said at least one headwear brim comprises at least one accommodator structured and arranged to accommodate at least one portion of the eyewear rims in the at least one co-location; c) wherein, when the wearer is contemporaneously wearing said at least one headwear brim and the at least one portion of the eyewear rims, such contemporaneous wearing is accommodated; and d) wherein without said at least one accommodator said at least one headwear brim would interfere with the contemporaneous wearing of the eyewear rims,
A subcutaneous implantable cardiac defibrillation system comprising: a housing; and a subcutaneous implantable lead comprising two ends (16, 18), a proximal end being connected to the housing and a distal end being a free end; the subcutaneous implantable lead comprising at least one defibrillating electrode and at least three sensing electrodes (20, 22, 24); the first sensing electrode and the second sensing electrode forming a first dipole; the third sensing electrode and the first sensing electrode, or the third sensing electrode and the second sensing electrode, or the housing and one of said sensing electrodes (20, 22, 24), forming a second dipole; the defibrillating electrode being positioned between the second sensing electrode and the third sensing electrode; the first dipole being positioned between the housing and the defibrillating electrode; the third electrode being positioned between the free distal end of the lead and the defibrillating electrode; and the length of the first dipole being shorter than the length of the second dipole. a housing; and a subcutaneous implantable lead comprising two ends (16, 18), a proximal end being connected to the housing and a distal end being a free end; the subcutaneous implantable lead comprising at least one defibrillating electrode and at least three sensing electrodes (20, 22, 24); the first sensing electrode and the second sensing electrode forming a first dipole; the third sensing electrode and the first sensing electrode, or the third sensing electrode and the second sensing electrode, or the housing and one of said sensing electrodes (20, 22, 24), forming a second dipole; the defibrillating electrode being positioned between the second sensing electrode and the third sensing electrode; the first dipole being positioned between the housing and the defibrillating electrode; the third electrode being positioned between the free distal end of the lead and the defibrillating electrode; and the length of the first dipole being shorter than the length of the second dipole.
A method of mapping cardiac restitution, comprising: receiving a plurality of electrophysiology ("EP") data points at a signal processor, each EP data point of the plurality of EP data points comprising location data and restitution data, wherein the location data of one EP data point is different to location data of another EP data point; receiving user input defining an anchor EP data point of the plurality of EP data points; identifying a subset of the plurality of EP data points forming an EP data point cluster about the anchor EP data point, wherein the EP data point cluster defines a region of a cardiac surface; fitting a restitution curve to the restitution data of each of the EP data points having different location data of the subset of the plurality of EP data points forming the EP data point cluster about the anchor EP data point; and identifying at least one restitution metric for the region of the cardiac surface from the restitution curve. receiving a plurality of electrophysiology ("EP") data points at a signal processor, each EP data point of the plurality of EP data points comprising location data and restitution data, wherein the location data of one EP data point is different to location data of another EP data point; receiving user input defining an anchor EP data point of the plurality of EP data points; identifying a subset of the plurality of EP data points forming an EP data point cluster about the anchor EP data point, wherein the EP data point cluster defines a region of a cardiac surface; fitting a restitution curve to the restitution data of each of the EP data points having different location data of the subset of the plurality of EP data points forming the EP data point cluster about the anchor EP data point; and identifying at least one restitution metric for the region of the cardiac surface from the restitution curve.
A method performed by an electronic device, comprising: determining a predicted velocity relative to Earth corresponding to a first epoch using a camera and an inertial measurement unit, IMU; determining, using a Global Positioning System, GPS, receiver, a GPS velocity relative to Earth; determining a difference vector between the predicted velocity and the GPS velocity; refining a bias estimate and a scale factor estimate of IMU measurements proportional to the difference vector; refining a misalignment estimate between the camera and the IMU based on the difference vector; and providing pose information based on the refined bias estimate, the refined scale factor estimate, and the refined misalignment estimate. determining a predicted velocity relative to Earth corresponding to a first epoch using a camera and an inertial measurement unit, IMU; determining, using a Global Positioning System, GPS, receiver, a GPS velocity relative to Earth; determining a difference vector between the predicted velocity and the GPS velocity; refining a bias estimate and a scale factor estimate of IMU measurements proportional to the difference vector; refining a misalignment estimate between the camera and the IMU based on the difference vector; and providing pose information based on the refined bias estimate, the refined scale factor estimate, and the refined misalignment estimate.
A postage meter including a printing module (19, 21) removable from the postage meter by a user of the postage meter, said postage meter including electrical connection means (20, 24) for interfacing with electrical contacts on the printing module (19, 21) when the printing module (19, 21) is mounted in the postage meter and a clock providing a real time date signal, the printing module (19, 21) including a semiconductor device secured to the printing module (19, 21), the semiconductor device including a date information from which a period of authorised use of the printing module (19, 21) is determined and storing a unique identification which uniquely identifies the printing module (19, 21), and reading means for reading the unique identification from the semiconductor device and determining from the unique identification whether the printing module (19, 21) is authorised for use in the postage meter with the postage meter being operable to operate the module (19, 21) to print postage indicia only if the printing module (19, 21) is authorised for use in the postage meter and the real time date signal is within the period of authorized use read from the semiconductor device.
A printing system comprising: a printer head (102, 302, 602) configured to deposit ink on a substrate (112, 212, 312); a first pair of light sources (104, 304, 604A, 604B) configured to emit electromagnetic radiation of subtype C, the first pair of light sources (104, 304, 604A, 604B) being disposed opposite one another directly adjacent to opposing sides of the printer head (102, 302, 602); a second pair of light sources (106, 306, 606A, 606B) configured to emit electromagnetic radiation of subtype A, subtype B, subtype V, or a combination thereof, the second pair of light sources (106, 306, 606A, 606B) being disposed opposite one another directly adjacent to the first pair of light sources (104, 304, 604A, 604B), wherein the ink deposited by the printer head (102, 302, 602) on the substrate (112, 212, 312) is predominantly exposed to either of the first pair of light sources (104, 304, 604A, 604B) prior to exposure to either of the second pair of light sources (106, 306, 606A, 606B). a printer head (102, 302, 602) configured to deposit ink on a substrate (112, 212, 312); a first pair of light sources (104, 304, 604A, 604B) configured to emit electromagnetic radiation of subtype C, the first pair of light sources (104, 304, 604A, 604B) being disposed opposite one another directly adjacent to opposing sides of the printer head (102, 302, 602); a second pair of light sources (106, 306, 606A, 606B) configured to emit electromagnetic radiation of subtype A, subtype B, subtype V, or a combination thereof, the second pair of light sources (106, 306, 606A, 606B) being disposed opposite one another directly adjacent to the first pair of light sources (104, 304, 604A, 604B), wherein the ink deposited by the printer head (102, 302, 602) on the substrate (112, 212, 312) is predominantly exposed to either of the first pair of light sources (104, 304, 604A, 604B) prior to exposure to either of the second pair of light sources (106, 306, 606A, 606B).
A base station apparatus comprising: a retransmission block dividing section configured to divide a transmission signal into retransmission blocks according to a retransmission block table in which the number of the retransmission blocks is registered, each of the retransmission blocks is a retransmission unit of the transmission signal, the number of the retransmission blocks varies according to the number of transmission antennas and to a system bandwidth, wherein the maximum value of a size of the retransmission block is fixed to a certain value; and a retransmission section configured to retransmit, on downlink, transmission signals associated with the retransmission blocks divided by the retransmission block dividing section. a retransmission block dividing section configured to divide a transmission signal into retransmission blocks according to a retransmission block table in which the number of the retransmission blocks is registered, each of the retransmission blocks is a retransmission unit of the transmission signal, the number of the retransmission blocks varies according to the number of transmission antennas and to a system bandwidth, wherein the maximum value of a size of the retransmission block is fixed to a certain value; and a retransmission section configured to retransmit, on downlink, transmission signals associated with the retransmission blocks divided by the retransmission block dividing section.
A turbine vane assembly, comprising: a stator vane, including: a pressure side extending from a leading edge to a trailing edge; and a suction side extending from the leading edge to the trailing edge, the pressure side and the suction side together defining an internal vane cavity therebetween, the internal vane cavity configured for a cooling airflow to flow therethrough; an internal vane rib extending into the internal vane cavity from one or more of the pressure side or the suction side; a vane insert positioned in the internal vane cavity; and a flow discourager configured to prevent the cooling airflow from flowing past the internal vane rib; characterized in that: the flow discourager is positioned at the vane insert and retained in an insert pocket of the vane insert. a stator vane, including: a pressure side extending from a leading edge to a trailing edge; and a suction side extending from the leading edge to the trailing edge, the pressure side and the suction side together defining an internal vane cavity therebetween, the internal vane cavity configured for a cooling airflow to flow therethrough; a pressure side extending from a leading edge to a trailing edge; and a suction side extending from the leading edge to the trailing edge, the pressure side and the suction side together defining an internal vane cavity therebetween, the internal vane cavity configured for a cooling airflow to flow therethrough; an internal vane rib extending into the internal vane cavity from one or more of the pressure side or the suction side; a vane insert positioned in the internal vane cavity; and a flow discourager configured to prevent the cooling airflow from flowing past the internal vane rib; characterized in that: the flow discourager is positioned at the vane insert and retained in an insert pocket of the vane insert.