mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving, at data processing hardware, a first facial framework and a first captured image of a face of a user with a neutral facial expression, wherein the first facial framework corresponds to the face of the user at a first frame and comprises a first facial mesh of facial information of the face of the user at the first frame, and wherein the captured image enables deriving a corresponding facial information of the face in the captured image by detecting facial landmarks and/or facial features or by using depth data included in the captured image, the corresponding facial information permitting generation of corresponding facial mesh; projecting, by the data processing hardware, the first captured image of the face onto the first facial framework; determining, by the data processing hardware, a facial texture corresponding to the neutral facial expression (22, 22a) of the face of the user based on the projected first captured image; receiving, at the data processing hardware, a second facial framework, the second facial framework corresponding to the face of the user at a second frame and comprising a second facial mesh of facial information; updating, by the data processing hardware, the facial texture based on the received second facial framework; and displaying, by the data processing hardware, the updated facial texture as a three-dimensional avatar, the three-dimensional avatar corresponding to a virtual representation of the face of the user. receiving, at data processing hardware, a first facial framework and a first captured image of a face of a user with a neutral facial expression, wherein the first facial framework corresponds to the face of the user at a first frame and comprises a first facial mesh of facial information of the face of the user at the first frame, and wherein the captured image enables deriving a corresponding facial information of the face in the captured image by detecting facial landmarks and/or facial features or by using depth data included in the captured image, the corresponding facial information permitting generation of corresponding facial mesh; projecting, by the data processing hardware, the first captured image of the face onto the first facial framework; determining, by the data processing hardware, a facial texture corresponding to the neutral facial expression (22, 22a) of the face of the user based on the projected first captured image; receiving, at the data processing hardware, a second facial framework, the second facial framework corresponding to the face of the user at a second frame and comprising a second facial mesh of facial information; updating, by the data processing hardware, the facial texture based on the received second facial framework; and displaying, by the data processing hardware, the updated facial texture as a three-dimensional avatar, the three-dimensional avatar corresponding to a virtual representation of the face of the user.
An air conditioner comprising: an outdoor unit having a compressor, an outdoor heat exchanger, and a flowpath switching valve disposed on a refrigerant flowpath between the compressor and the outdoor heat exchanger; a plurality of indoor units configured to operate in a cooling mode or in a heating mode; a mode controller configured to selectively guide refrigerant received from the outdoor unit to the plurality of indoor units through one or more of: a first refrigerant pipe extending from the flowpath switching valve to the mode controller; a second refrigerant pipe extending from the flowpath switching valve and diverging to the outdoor heat exchanger and the mode controller; and a third refrigerant pipe extending from the outdoor heat exchanger to the mode controller, wherein the mode controller comprises a bypass flowpath connecting the second refrigerant pipe to the third refrigerant pipe, and a bypass valve configured to open or close the bypass flowpath. an outdoor unit having a compressor, an outdoor heat exchanger, and a flowpath switching valve disposed on a refrigerant flowpath between the compressor and the outdoor heat exchanger; a plurality of indoor units configured to operate in a cooling mode or in a heating mode; a mode controller configured to selectively guide refrigerant received from the outdoor unit to the plurality of indoor units through one or more of: a first refrigerant pipe extending from the flowpath switching valve to the mode controller; a second refrigerant pipe extending from the flowpath switching valve and diverging to the outdoor heat exchanger and the mode controller; and a third refrigerant pipe extending from the outdoor heat exchanger to the mode controller, a first refrigerant pipe extending from the flowpath switching valve to the mode controller; a second refrigerant pipe extending from the flowpath switching valve and diverging to the outdoor heat exchanger and the mode controller; and a third refrigerant pipe extending from the outdoor heat exchanger to the mode controller, wherein the mode controller comprises a bypass flowpath connecting the second refrigerant pipe to the third refrigerant pipe, and a bypass valve configured to open or close the bypass flowpath.
Method for interchanging data between subscribers (200, 250) connected to one another by means of a bus system, wherein messages containing the data are interchanged according to a first communication protocol, wherein the messages consist of a sequence of bits, wherein at least one control bit having a prescribed position within the message interchanged according to the first communication protocol must have a prescribed value, wherein for each message one subscriber has the role of the transmitter and at least one other subscriber receives the message as a receiver and performs error monitoring for the message, characterized in that the presence of at least one control bit having a value differing from the prescribed value results in at least one receiver adopting a protocol exception state in which it suspends error monitoring until a resumption condition for use of the first communication protocol is satisfied, wherein the resumption condition defined is the occurrence of a prescribed number of successive recessive bits, so that there is the assurance that the at least one receiver in the protocol exception state waits until the message has been transmitted.
An air-conditioning apparatus comprising: a refrigerant circuit in which a compressor, a heat-source-side heat exchanger, an expansion valve, and a user-side heat exchanger are sequentially connected, and refrigerant circulates therethrough, the refrigerant being HFO1123 refrigerant or a refrigerant mixture containing HFO1123; a fan sending air to the heat-source-side heat exchanger; a discharge temperature sensor configured to detect a temperature of refrigerant discharged from the compressor; a discharge pressure sensor configured to detect a pressure of the refrigerant discharged from the compressor; and a controller configured to control at least one of an operation frequency of the compressor, an opening degree of the expansion valve, and an air amount of the fan so that a temperature and a pressure of the refrigerant discharged from the compressor do not exceed threshold values which are lower than a temperature and a pressure in a disproportionation region. a refrigerant circuit in which a compressor, a heat-source-side heat exchanger, an expansion valve, and a user-side heat exchanger are sequentially connected, and refrigerant circulates therethrough, the refrigerant being HFO1123 refrigerant or a refrigerant mixture containing HFO1123; a fan sending air to the heat-source-side heat exchanger; a discharge temperature sensor configured to detect a temperature of refrigerant discharged from the compressor; a discharge pressure sensor configured to detect a pressure of the refrigerant discharged from the compressor; and a controller configured to control at least one of an operation frequency of the compressor, an opening degree of the expansion valve, and an air amount of the fan so that a temperature and a pressure of the refrigerant discharged from the compressor do not exceed threshold values which are lower than a temperature and a pressure in a disproportionation region.
A method of extending the service life of an eccentric weight vibratory device, the method comprising; accessing a vibratory device, the vibratory device comprising a rotor and first and second eccentric weights (20, 32, 34), the rotor having a central shaft about which the rotor is configured to rotate, the shaft having opposite first and second end portions, the first eccentric weight (20, 32, 34) being initially attached to the first end portion of the shaft in a manner such that the center of the mass of the first eccentric weight is offset in a first radial direction from the shaft, the second eccentric weight (20, 32, 34) being initially attached to the second end portion of the shaft in a manner such that the center of the mass of the second eccentric weight is also offset in the first radial direction from the shaft of the rotor; the first end portion of the shaft having a plurality of keyways that are spaced circumferentially about the shaft axis relative to each other, the first eccentric weight having an opening through which the first end portion of the shaft extends, the opening of the first eccentric weight comprising a keyway, and the vibratory device comprising a first key that is positionable between any one of the keyways of the first end portion of the shaft and the keyway of the first eccentric weight in a manner such that the first eccentric weight is not able to rotate relative to the shaft about the shaft axis, reorienting the first eccentric weight relative to the shaft in a manner such that the center of the mass of the first eccentric weight is offset in a second radial direction from the shaft by: axially moving the first eccentric weight relative to the shaft; thereafter removing the first key from one of the keyways of the first end portion of the shaft, placing the first key in another of the keyways of the first end portion of the shaft, and rotationally aligning the keyway of the first eccentric weight with the other of the keyways; and thereafter axially moving the first eccentric weight relative to the shaft such that the first key is positioned between the other of the keyways of the shaft and the keyway of the first eccentric weight in a manner such that the first eccentric weight is not able to rotate relative to the shaft about the shaft axis; and reorienting the second eccentric weight relative to the shaft in a manner such that the center of the mass of the second eccentric weight is offset in the second radial direction from the shaft. axially moving the first eccentric weight relative to the shaft; thereafter removing the first key from one of the keyways of the first end portion of the shaft, placing the first key in another of the keyways of the first end portion of the shaft, and rotationally aligning the keyway of the first eccentric weight with the other of the keyways; and thereafter axially moving the first eccentric weight relative to the shaft such that the first key is positioned between the other of the keyways of the shaft and the keyway of the first eccentric weight in a manner such that the first eccentric weight is not able to rotate relative to the shaft about the shaft axis; and
Ultrasonic flowmeter with a measuring tube, a control device and at least a first ultrasonic measuring device and a second ultrasonic measuring device, wherein the measuring tube has a measuring tube interior and a measuring tube longitudinal axis, wherein each of the ultrasonic measuring devices (7, 8) is arranged on the measuring tube, wherein each ultrasonic measuring device (7, 8) comprises a first ultrasonic transducer (7a, 8a) and a second ultrasonic transducer (7b, 8b), wherein the first (7a, 8a) and the second ultrasonic transducer (7b, 8b) of each ultrasonic measuring device (7, 8) span a sound measuring path (11, 12) with a sound axis (13, 14) and the sound measuring path (11, 12) and the sound axis (13, 14) penetrate the measuring tube interior, wherein the control device is designed to perform ultrasonic measurements with the ultrasonic measuring devices (7, 8), wherein the sound axis of the first ultrasonic measuring device and the sound axis of the second ultrasonic measuring device span a sound measuring plane which runs essentially parallel to the longitudinal axis of the measuring tube, characterized in that the ultrasonic flowmeter is designed to perform a method according to any one of claims 4 to 9. wherein the measuring tube has a measuring tube interior and a measuring tube longitudinal axis, wherein each of the ultrasonic measuring devices (7, 8) is arranged on the measuring tube, wherein each ultrasonic measuring device (7, 8) comprises a first ultrasonic transducer (7a, 8a) and a second ultrasonic transducer (7b, 8b), wherein the first (7a, 8a) and the second ultrasonic transducer (7b, 8b) of each ultrasonic measuring device (7, 8) span a sound measuring path (11, 12) with a sound axis (13, 14) and the sound measuring path (11, 12) and the sound axis (13, 14) penetrate the measuring tube interior, wherein the control device is designed to perform ultrasonic measurements with the ultrasonic measuring devices (7, 8), wherein the sound axis of the first ultrasonic measuring device and the sound axis of the second ultrasonic measuring device span a sound measuring plane which runs essentially parallel to the longitudinal axis of the measuring tube, characterized in that the ultrasonic flowmeter is designed to perform a method according to any one of claims 4 to 9.
Ultrasonic system, comprising: a device for applying ultrasound to liquid media through a flexible material, wherein the device includes - an ultrasound generator for generating ultrasound and - a sound-conducting element for conducting the ultrasound generated by the ultrasound generator, and the sound-conducting element having a contact surface for decoupling the ultrasound to the flexible material, wherein the sound-conducting element comprises a channel with a first opening for applying a negative pressure to the channel and a second opening for applying the negative pressure to the flexible material, and - a negative pressure source which is configured for generating a negative pressure and is connected to the channel; - wherein the ultrasonic system has the flexible material lying against the contact surface, wherein the liquid media to be treated by ultrasound are surrounded by the flexible material, wherein the flexible material lying against the contact surface is a membrane. a device for applying ultrasound to liquid media through a flexible material, wherein the device includes - an ultrasound generator for generating ultrasound and - a sound-conducting element for conducting the ultrasound generated by the ultrasound generator, - an ultrasound generator for generating ultrasound and - a sound-conducting element for conducting the ultrasound generated by the ultrasound generator, and the sound-conducting element having a contact surface for decoupling the ultrasound to the flexible material, wherein the sound-conducting element comprises a channel with a first opening for applying a negative pressure to the channel and a second opening for applying the negative pressure to the flexible material, and - a negative pressure source which is configured for generating a negative pressure and is connected to the channel; - wherein the ultrasonic system has the flexible material lying against the contact surface, wherein the liquid media to be treated by ultrasound are surrounded by the flexible material, wherein the flexible material lying against the contact surface is a membrane. - a negative pressure source which is configured for generating a negative pressure and is connected to the channel; - wherein the ultrasonic system has the flexible material lying against the contact surface, wherein the liquid media to be treated by ultrasound are surrounded by the flexible material, wherein the flexible material lying against the contact surface is a membrane.
An apparatus for performing nucleic acid amplifications reactions, the apparatus comprising: a thermally-conductive receptacle holder, the receptacle holder comprising a row of receptacle wells, each of the receptacle wells being configured to receive a receptacle, and each of the receptacle wells having a through-hole extending from an inner surface of the receptacle well to an outer surface of the receptacle holder; a thermally-conductive support, the support being a solid member comprising a base portion and an upright portion, wherein the base portion comprises a plurality of through-holes, and wherein each of the through-holes of the base portion is in alignment with a corresponding one of the through-holes of the receptacle holder; a thermal element positioned between a first side of the upright portion of the support and an opposed side surface of the receptacle holder; a heat sink in thermal communication with the support; and a plurality of optical fibers, each of the optical fibers providing optical communication between one of the receptacle wells and at least one of an excitation signal source and an emission signal detector, wherein a first end of each of the optical fibers is disposed outside, within, or extends through the through-hole of a corresponding one of the receptacle wells, wherein a second end of each optical fiber is in optical communication with the excitation signal source and/or the emission signal detector, and wherein each of the optical fibers passes through a corresponding one of the through-holes of the support. a thermally-conductive receptacle holder, the receptacle holder comprising a row of receptacle wells, each of the receptacle wells being configured to receive a receptacle, and each of the receptacle wells having a through-hole extending from an inner surface of the receptacle well to an outer surface of the receptacle holder; a thermally-conductive support, the support being a solid member comprising a base portion and an upright portion, wherein the base portion comprises a plurality of through-holes, and wherein each of the through-holes of the base portion is in alignment with a corresponding one of the through-holes of the receptacle holder; a thermal element positioned between a first side of the upright portion of the support and an opposed side surface of the receptacle holder; a heat sink in thermal communication with the support; and a plurality of optical fibers, each of the optical fibers providing optical communication between one of the receptacle wells and at least one of an excitation signal source and an emission signal detector, wherein a first end of each of the optical fibers is disposed outside, within, or extends through the through-hole of a corresponding one of the receptacle wells, wherein a second end of each optical fiber is in optical communication with the excitation signal source and/or the emission signal detector, and wherein each of the optical fibers passes through a corresponding one of the through-holes of the support.
An oncolytic virus comprising: (i) a heterologous GM-CSF-encoding gene; and (ii) a heterologous immune co-stimulatory pathway activating molecule-encoding gene, wherein the virus is selectively replication competent, each gene is under the control of a promoter sequence, and the immune co-stimulatory pathway activating molecule is a CD40 ligand (CD40L), ICOS ligand, GITR ligand, 4-1-BB ligand, OX40 ligand, TL1A, CD30 ligand, CD27, flt3 ligand or a CTLA-4 inhibitor.
An isolated polypeptide molecule having the amino acid sequence of SEQ ID NO: 3, for use in the treatment of: a) cancer; b) neurological diseases and disorders; or c) muscular diseases and disorders; wherein (i) the effective dose for treatment of cancer is at a concentration of 50 μg/ml; and (ii) the effective dose for treatment of neurological diseases and disorders or muscular diseases and disorders is at a concentration of 500 pg/ml. a) cancer; b) neurological diseases and disorders; or c) muscular diseases and disorders; wherein (i) the effective dose for treatment of cancer is at a concentration of 50 μg/ml; and (ii) the effective dose for treatment of neurological diseases and disorders or muscular diseases and disorders is at a concentration of 500 pg/ml. (i) the effective dose for treatment of cancer is at a concentration of 50 μg/ml; and (ii) the effective dose for treatment of neurological diseases and disorders or muscular diseases and disorders is at a concentration of 500 pg/ml.
A water-soluble unit dose article comprising a water-soluble fibrous non-woven sheet and a granular laundry detergent composition, wherein the granular laundry detergent composition comprises at least a first plurality of particles; wherein the water-soluble fibrous non-woven sheet is shaped to form a sealed internal compartment, wherein the granular detergent composition is comprised within said internal compartment; and wherein the water-soluble fibrous non-woven sheet comprises a plurality of fibres; wherein the fibres comprise polyvinyl alcohol polymer and between 0.1% and 15% by weight of the fibres of a gel-breaker, wherein the gel-breaker is magnesium chloride. wherein the water-soluble fibrous non-woven sheet is shaped to form a sealed internal compartment, wherein the granular detergent composition is comprised within said internal compartment; and wherein the water-soluble fibrous non-woven sheet comprises a plurality of fibres; wherein the fibres comprise polyvinyl alcohol polymer and between 0.1% and 15% by weight of the fibres of a gel-breaker, wherein the gel-breaker is magnesium chloride.
A junction box for holding an electrical cable connector; the junction box defining an inlet for cables and a retaining mechanism (8A, 14') comprising multiple retaining elements and a retaining surface, the multiple retaining elements and retaining surface arranged for retaining there between the cables extending through the inlet; the retaining mechanism (8A, 14') further comprising a retaining element holder to hold the multiple divided retaining elements in a stacked arrangement to hold multiple stacked cables extending through the inlet; wherein the retaining element holder includes a recess for holding said retaining elements stacked within the recess; characterised in that the junction box comprises a detent arrangement arranged to hold at least one of the retaining elements at separate discrete positions in the recess to vary the separation of the at least one retaining elements from the retaining surface so as to hold stacked cables of different gauges. the retaining element holder includes a recess for holding said retaining elements stacked within the recess; characterised in that the junction box comprises a detent arrangement arranged to hold at least one of the retaining elements at separate discrete positions in the recess to vary the separation of the at least one retaining elements from the retaining surface so as to hold stacked cables of different gauges.
Aircraft comprising a rotor, said rotor being provided with an assembly of cyclic plates and blades, the assembly of cyclic plates comprising a rotating plate connected to said blades by step rods, the assembly of cyclic plates comprising a non-rotating plate, said rotating plate being mobile in rotation around an axis of rotation of the rotor, a lower compass being hinged to the non-rotating plate and being hinged to a member, immobile in rotation around the axis of rotation, said rotor comprising a plurality of servos, each servo being provided with an upper hinge hinged to an upper fastening of the non-rotating plate and with a lower hinge hinged to a lower fastening, immobile in a reference point of the aircraft, characterised in that for at least one said servo referred to as "tilted servo ", said lower hinge is azimuthally offset around the axis of rotation with respect to said upper hinge.