mhurhangee/ep-ind-claims huggingface dataset:
Timepiece comprising a frame and a device for displaying the equation of time, in which the device for displaying the equation of time comprises a first support and a second support that are superposed, respectively mounted so that they are able to rotate relative to the frame, the first support bearing a curve representing the equation of time, and the second support bearing an index arranged so that the intersection of the index with the curve is visible, and means for driving the first and second supports arranged so that the first and second supports rotate at respective speeds that make it possible to display the value of the equation of time at the intersection of the index with the curve.
A flight simulator vibration system, particularly for an aircraft and more particularly for a helicopter, comprises at least one crew seat, at least one flight control stick and at least one panel vibration system each with predefined momentum weights (13, 16) and electric motors (7, 8, 9, 21, 33, 34) driving said respective momentum weights and at least one electronic control circuit for control of said electro-motors (7, 8, 9, 21, 33, 34), wherein the momentum weights (13, 16) are adjustable and/or can be replaced and the electro-motors (7, 8, 9, 21, 33, 34) can be rotated, individually in the plane of a plate (4,4a), to which are mounted the electro-motors, and relative to each other.
A sensing device comprising a micromechanical gyroscope, the gyroscope comprising: a first mechanical resonator (82; 92; 102) for drive mode vibration; a second mechanical resonator (83; 93; 103) coupled to the first mechanical resonator (82; 92; 102) for sense mode vibration corresponding to Coriolis force resulting from rotation of the sensing device; and the sensing device further comprises a feed-back loop for creating a feed-back signal, comprising a controller (87; 97; 107), and an electromechanical transducer within the second mechanical resonator, the transducer being configured to oppose sense mode vibration of the second mechanical resonator (83; 93; 103) according to an input control signal; characterized by a frequency generator (84; 94; 104) for generating a drive signal for drive mode vibration, and in relation to the drive mode vibration, a quadrature reference signal (892; 992; 1092) that is in quadrature-phase to the Coriolis force; a weighted summing element (894: 994; 1094) configured to sum the quadrature reference signal (892; 992; 1092) with the feedback signal of the controller (87; 97; 107) for generation of the input control signal to the transducer of the second mechanical resonator (83; 93; 103); wherein weights of the summed signals are adjustable during manufacture of the sensing device. a first mechanical resonator (82; 92; 102) for drive mode vibration; a second mechanical resonator (83; 93; 103) coupled to the first mechanical resonator (82; 92; 102) for sense mode vibration corresponding to Coriolis force resulting from rotation of the sensing device; and the sensing device further comprises a feed-back loop for creating a feed-back signal, comprising a controller (87; 97; 107), and an electromechanical transducer within the second mechanical resonator, the transducer being configured to oppose sense mode vibration of the second mechanical resonator (83; 93; 103) according to an input control signal; characterized by a frequency generator (84; 94; 104) for generating a drive signal for drive mode vibration, and in relation to the drive mode vibration, a quadrature reference signal (892; 992; 1092) that is in quadrature-phase to the Coriolis force; a weighted summing element (894: 994; 1094) configured to sum the quadrature reference signal (892; 992; 1092) with the feedback signal of the controller (87; 97; 107) for generation of the input control signal to the transducer of the second mechanical resonator (83; 93; 103); wherein weights of the summed signals are adjustable during manufacture of the sensing device.
A method of diagnosing and/or monitoring mild traumatic brain injury (mTBI) in a subject, the method comprising determining a level of at least one miRNA in a saliva sample obtained from the subject, wherein the at least one miRNA comprises miR-142-3p.
A method for controlling the coupling of a drive machine of a motor vehicle to a set of wheels (2, 3) of the vehicle, comprising steps consisting in: - determining a time (t_C1) when a torque setpoint (Croue_cons) to be applied to at least one set of wheels (2, 3) of the vehicle is greater than a predetermined coupling threshold; the method being characterized in that it comprises steps consisting in: - calculating a first parameter and/or a second parameter which depend on said time (t_C1); - authorizing the coupling when said first parameter is greater than a first predetermined value and/or when said second parameter is greater than a second predetermined value. - determining a time (t_C1) when a torque setpoint (Croue_cons) to be applied to at least one set of wheels (2, 3) of the vehicle is greater than a predetermined coupling threshold; - calculating a first parameter and/or a second parameter which depend on said time (t_C1); - authorizing the coupling when said first parameter is greater than a first predetermined value and/or when said second parameter is greater than a second predetermined value.
A device for use with a biopsy cannula having an elongate transverse cross section, the device comprising: a guiding portion defining a shaft aperture sized to receive and at least partially circumferentially encompass the biopsy cannula, wherein the shaft aperture is configured to allow relative longitudinal movement of the biopsy cannula when the biopsy cannula is at a first angular orientation; and a locking member (350, 400) defining an elongate through hole (359, 402) configured to receive the biopsy cannula, wherein the locking member comprises a rib (362, 404) extending inwardly and tangentially within the through hole, wherein the rib is configured to bind against the biopsy cannula upon relative rotation between the biopsy cannula and the locking member to a locking position in which the biopsy cannula is at a second angular orientation, different to the first angular orientation, wherein the locking member serves as a depth stop configured to restrict the depth of insertion of the biopsy cannula through the guiding portion when the rib of the locking member is bound against the biopsy cannula in the locking position. a guiding portion defining a shaft aperture sized to receive and at least partially circumferentially encompass the biopsy cannula, wherein the shaft aperture is configured to allow relative longitudinal movement of the biopsy cannula when the biopsy cannula is at a first angular orientation; and a locking member (350, 400) defining an elongate through hole (359, 402) configured to receive the biopsy cannula, wherein the locking member comprises a rib (362, 404) extending inwardly and tangentially within the through hole, wherein the rib is configured to bind against the biopsy cannula upon relative rotation between the biopsy cannula and the locking member to a locking position in which the biopsy cannula is at a second angular orientation, different to the first angular orientation, wherein the locking member serves as a depth stop configured to restrict the depth of insertion of the biopsy cannula through the guiding portion when the rib of the locking member is bound against the biopsy cannula in the locking position.
A method for wireless communication performed by a first access point, AP, multi-link device, MLD, comprising: generating a frame by a first AP of the first AP MLD associated with a first communication link of the first AP MLD, the first AP MLD further including one or more secondary APs associated with one or more respective secondary communication links of the first AP MLD, the first AP including one or more virtual APs, the first AP and the one or more virtual APs of the first AP belonging to a first multiple basic service set identifier, BSSID, set associated with the first communication link, the frame comprising: a first element carrying discovery information for the first AP and the one or more virtual APs belonging to the first multiple BSSID set; and a second element carrying discovery information for the one or more secondary APs of the first AP MLD associated with the one or more respective secondary communication links of the first AP MLD; and transmitting the frame on the first communication link. a first element carrying discovery information for the first AP and the one or more virtual APs belonging to the first multiple BSSID set; and a second element carrying discovery information for the one or more secondary APs of the first AP MLD associated with the one or more respective secondary communication links of the first AP MLD; and transmitting the frame on the first communication link.
A modular flooring substrate, comprising: a rectangular frame having an upper side and a lower side in use, the frame comprising four edge sections (7, 8, 9, 10), wherein each edge section extends along an outer edge of the rectangular frame, and comprises either a male or a female connector, characterized in that two adjacent edge sections (9, 10) of the four edge sections (7, 8, 9, 10) comprise the male connector, whereas the other two (7, 8) of the four edge sections (7, 8. 9, 10) comprise the female connector, wherein the male connector comprises at least two parallel elongate ridges (13, 14) arranged at a distance from each other and protruding in a normal direction of the upper side or lower side, wherein the ridges (13, 14) extend along each respective edge section (9, 10). a rectangular frame having an upper side and a lower side in use, the frame comprising four edge sections (7, 8, 9, 10), wherein each edge section extends along an outer edge of the rectangular frame, and comprises either a male or a female connector, characterized in that two adjacent edge sections (9, 10) of the four edge sections (7, 8, 9, 10) comprise the male connector, whereas the other two (7, 8) of the four edge sections (7, 8. 9, 10) comprise the female connector, wherein the male connector comprises at least two parallel elongate ridges (13, 14) arranged at a distance from each other and protruding in a normal direction of the upper side or lower side, wherein the ridges (13, 14) extend along each respective edge section (9, 10).
A pharmaceutical preparation for use in a method of treating pulmonary hypertension containing a beraprost sodium-containing nanoparticle obtained by (a) converting beraprost sodium represented by the following formula: to a hydrophobicized beraprost sodium by using a metal ion; and (b) allowing the obtained hydrophobicized beraprost sodium to react with poly-L-lactic acid or a poly(L-lactic acid/glycolic acid) copolymer, and a poly-DL- or L-lactic acid-polyethylene glycol block copolymer or a poly(DL- or L-lactic acid/glycolic acid)-polyethylene glycol block copolymer. (a) converting beraprost sodium represented by the following formula: to a hydrophobicized beraprost sodium by using a metal ion; and (b) allowing the obtained hydrophobicized beraprost sodium to react with poly-L-lactic acid or a poly(L-lactic acid/glycolic acid) copolymer, and a poly-DL- or L-lactic acid-polyethylene glycol block copolymer or a poly(DL- or L-lactic acid/glycolic acid)-polyethylene glycol block copolymer.
A cardiac condition data processing system for processing data representative of heart electrical signals to identify a cardiac condition, comprising: an acquisition processor for acquiring data representing a sequence of successive pulses of a type of electrical heart waveform of a patient; a computation processor coupled to said acquisition processor for, calculating a pulse interval irregularity measure based on a sum of time interval differences occurring between pairs of successive pulses of said sequence of successive pulses and comparing a calculated pulse interval irregularity measure with a predetermined irregularity measure threshold; and an output processor electrically coupled to said computation processor for generating data representing an alert message in response to said calculated pulse interval irregularity measure exceeding said predetermined threshold, characterised in that the computation processor is configured to exclude time interval differences exceeding a predetermined maximum threshold from said sum and in that at least one of said predetermined maximum threshold and said predetermined irregularity measure threshold is adaptively varied in response to at least one of, (a) a number of said pairs of consecutive normal heart beats between said sequence of successive pulses, the normal heart beats being determined by a heartbeat classification algorithm, and (b) a previously calculated irregularity measure value. an acquisition processor for acquiring data representing a sequence of successive pulses of a type of electrical heart waveform of a patient; a computation processor coupled to said acquisition processor for, calculating a pulse interval irregularity measure based on a sum of time interval differences occurring between pairs of successive pulses of said sequence of successive pulses and comparing a calculated pulse interval irregularity measure with a predetermined irregularity measure threshold; and calculating a pulse interval irregularity measure based on a sum of time interval differences occurring between pairs of successive pulses of said sequence of successive pulses and comparing a calculated pulse interval irregularity measure with a predetermined irregularity measure threshold; and an output processor electrically coupled to said computation processor for generating data representing an alert message in response to said calculated pulse interval irregularity measure exceeding said predetermined threshold, characterised in that the computation processor is configured to exclude time interval differences exceeding a predetermined maximum threshold from said sum and in that at least one of said predetermined maximum threshold and said predetermined irregularity measure threshold is adaptively varied in response to at least one of, (a) a number of said pairs of consecutive normal heart beats between said sequence of successive pulses, the normal heart beats being determined by a heartbeat classification algorithm, and (b) a previously calculated irregularity measure value.
Method for protecting a cruise missile during its flight in the direction of a target (4, 70) to be combated, in which the cruise missile monitors (44, 46) its surroundings to see whether a signature (48, 68) of a missile that has been launched to combat the cruise missile is detected and, depending on a detection result, begins a defensive measure.
A shovel that performs works upon being operated by a driver, the shovel comprising: a lower traveling body; an upper turning body that is installed on the lower traveling body; an internal-combustion engine that is disposed in the upper turning body; an oil hydraulic pump that discharges hydraulic oil by power of the internal-combustion engine; a hydraulic actuator (7, 8, 9) that is driven by the hydraulic oil that is discharged by the oil hydraulic pump; a fuel container that stores fuel of the internal-combustion engine; a first detector that detects a residual quantity state of the fuel in the fuel container; a reducing agent container that stores a reducing agent that is to be used in a selective catalytic reduction system; a second detector that detects a residual quantity state of the reducing agent in the reducing agent container; and an image display unit (40, 41) that is installed in a cabin, wherein the image display unit (40, 41) is configured to simultaneously image-display (41h, 41j, 41m) the residual quantity state of the fuel, the residual quantity state of the reducing agent, and an image that is captured by a rear monitoring camera, while the shovel is operated. a lower traveling body; an upper turning body that is installed on the lower traveling body; an internal-combustion engine that is disposed in the upper turning body; an oil hydraulic pump that discharges hydraulic oil by power of the internal-combustion engine; a hydraulic actuator (7, 8, 9) that is driven by the hydraulic oil that is discharged by the oil hydraulic pump; a fuel container that stores fuel of the internal-combustion engine; a first detector that detects a residual quantity state of the fuel in the fuel container; a reducing agent container that stores a reducing agent that is to be used in a selective catalytic reduction system; a second detector that detects a residual quantity state of the reducing agent in the reducing agent container; and an image display unit (40, 41) that is installed in a cabin, wherein the image display unit (40, 41) is configured to simultaneously image-display (41h, 41j, 41m) the residual quantity state of the fuel, the residual quantity state of the reducing agent, and an image that is captured by a rear monitoring camera, while the shovel is operated.
A compound having the structure: where each Y is independently O or H 2; where each R is independently -alkyl-NR 2 3 +, -alkyl-CO 2 -, or -amino acid-NH 3 +; where each R 2 is independently H, alkyl, or aryl; for use in the treatment of ischemia-reperfusion injury.
Method for operating at least one electric machine designed to drive a vehicle, wherein a current for a magnetisation of the at least one electric machine is set to a value prior to a target time point, wherein the value of the current for the magnetisation is adapted and changed at the target time point, characterised in that a value for a load acting on at least one axle (4, 6) of the vehicle and a value for at least one current for a torque are determined, based on a difference between loads on the axles (4, 6) or a distribution of the load among the axles (4, 6), as at least one operating variable of the vehicle, wherein a change in the torque of the at least one electric machine at the target time point is predicted from the value of the load and the value of the at least one current for the torque.
An analyte sensor comprising: a plurality of sensor wires (301, 302, 303, 304) having a first end and second end and each arranged in a common orientation, the plurality of sensor wires being electrically conductive and including: a first sensor wire covered by a first electrically insulating cover, wherein an aperture in the first electrically insulating cover defines a working electrode area; a second sensor wire covered by a second electrically insulating cover, wherein an aperture in the second electrically insulating cover defines a reference electrode area; and a third sensor wire covered by a third electrically insulating cover, wherein an aperture in the third electrically insulating cover defines a counter electrode area; characterised in that the plurality of sensor wires has a first side and a second side opposite to the first side, and wherein the working electrode area (313, 314) is on the first side and the counter electrode area and reference electrode areas (311, 312) are on the second side. a first sensor wire covered by a first electrically insulating cover, wherein an aperture in the first electrically insulating cover defines a working electrode area; a second sensor wire covered by a second electrically insulating cover, wherein an aperture in the second electrically insulating cover defines a reference electrode area; and a third sensor wire covered by a third electrically insulating cover, wherein an aperture in the third electrically insulating cover defines a counter electrode area; characterised in that the plurality of sensor wires has a first side and a second side opposite to the first side, and wherein the working electrode area (313, 314) is on the first side and the counter electrode area and reference electrode areas (311, 312) are on the second side.
A method for creating selective snapshots of a database that is stored as one or more segments (32, 131-134), wherein a segment comprises one or more memory pages, the method comprising the steps: - receiving, by a parent process, a OLAP query, - determining, by the parent process based on a physical execution plan corresponding to the query, the one or more segments being required in a snapshot process (230, 232) that executes the query, - setting the one or more required segments as inheritable for the snapshot process by means of a system call, or by setting a status variable in a segment structure of the one or more required segments and - creating, by the parent, a snapshot, wherein creating the snapshot comprises a step of forking the snapshot process by the parent process, and wherein a segment that has been set as inheritable for the snapshot process is mapped in an address space of the snapshot process, and a segment that has not been set as inheritable for the snapshot process is not mapped in the address space of the snapshot process. - receiving, by a parent process, a OLAP query, - determining, by the parent process based on a physical execution plan corresponding to the query, the one or more segments being required in a snapshot process (230, 232) that executes the query, - setting the one or more required segments as inheritable for the snapshot process by means of a system call, or by setting a status variable in a segment structure of the one or more required segments and - creating, by the parent, a snapshot, wherein creating the snapshot comprises a step of forking the snapshot process by the parent process, and wherein a segment that has been set as inheritable for the snapshot process is mapped in an address space of the snapshot process, and a segment that has not been set as inheritable for the snapshot process is not mapped in the address space of the snapshot process.
Conducting substrate for a photovoltaic cell, comprising a carrier substrate and an electrode coating formed on the carrier substrate, wherein the electrode coating comprises: - a main molybdenum-based layer formed on the carrier substrate; - a barrier layer to selenization formed on the main molybdenum-based layer, the barrier layer to selenization having a thickness of less than 50 nm, preferably of less than or equal to 30 nm, more preferably of less than or equal to 20 nm; and - on the barrier layer to selenization, an upper layer based on a metal M capable of forming, after sulfurization and/or selenization, an ohmic contact layer with a photoactive semiconducting material. - a main molybdenum-based layer formed on the carrier substrate; - a barrier layer to selenization formed on the main molybdenum-based layer, the barrier layer to selenization having a thickness of less than 50 nm, preferably of less than or equal to 30 nm, more preferably of less than or equal to 20 nm; and - on the barrier layer to selenization, an upper layer based on a metal M capable of forming, after sulfurization and/or selenization, an ohmic contact layer with a photoactive semiconducting material.
A modified T-cell comprising a T-cell receptor specific for a replication-independent histone 3 variant H3.3 or H3.1 peptide comprising the amino acid sequence (R/A)MSAP(S/A)TGGV (SEQ ID NO: 1), wherein the TCR comprises: (a) a TCR alpha chain, comprising complementarity-determining regions (CDRs) 1, 2, and 3 comprising SEQ ID NOs: 12, 13, and 14, respectively; and (b) a TCR beta chain, comprising CDRs 1, 2, and 3 comprising SEQ ID NOs: 15, 16, and 17, respectively; wherein the TCR binds the histone 3 variant H3.3 or H3.1 peptide when the peptide is in a complex with a major histocompatibility complex. (a) a TCR alpha chain, comprising complementarity-determining regions (CDRs) 1, 2, and 3 comprising SEQ ID NOs: 12, 13, and 14, respectively; and (b) a TCR beta chain, comprising CDRs 1, 2, and 3 comprising SEQ ID NOs: 15, 16, and 17, respectively;