mhurhangee/ep-ind-claims huggingface dataset:
A method for creating a digital restoration design (544, 644) by using a computer for the manufacture of a dental restoration for one or more of a patient's teeth, where the dental restoration is a table-top restoration for raising the occlusal table of the patient's teeth, wherein the method comprises: - obtaining a digital 3D representation (40, 540) of the patient's unprepared teeth (220, 327, 427); - obtaining a set of one or more digital teeth anatomies (539, 639) expressing a desired target shape of the patient's teeth; - arranging the digital teeth anatomies (539, 639) expressing the desired target shape of the patient's teeth and the digital 3D representation of the patient's unprepared teeth (220, 327, 427) according to a relative arrangement in which the digital teeth anatomies (539, 639) expressing the desired target shape of the patient's teeth raises the patient's bite; and - creating a digital restoration design (544, 644) comprising a restoration margin line (546, 746) where the restoration margin line is derived at least partly from an intersection of the digital 3D representation (40, 540) of the patient's unprepared teeth (220, 327, 427) and the digital teeth anatomies (539, 639) expressing the desired target shape of the patient's teeth. - obtaining a digital 3D representation (40, 540) of the patient's unprepared teeth (220, 327, 427); - obtaining a set of one or more digital teeth anatomies (539, 639) expressing a desired target shape of the patient's teeth; - arranging the digital teeth anatomies (539, 639) expressing the desired target shape of the patient's teeth and the digital 3D representation of the patient's unprepared teeth (220, 327, 427) according to a relative arrangement in which the digital teeth anatomies (539, 639) expressing the desired target shape of the patient's teeth raises the patient's bite; and - creating a digital restoration design (544, 644) comprising a restoration margin line (546, 746) where the restoration margin line is derived at least partly from an intersection of the digital 3D representation (40, 540) of the patient's unprepared teeth (220, 327, 427) and the digital teeth anatomies (539, 639) expressing the desired target shape of the patient's teeth.
A terminal comprising: a receiving section adapted to receive a Physical Downlink Shared Channel, PDSCH, in a serving cell; and a control section adapted to, when a time offset between reception of downlink control information corresponding to the PDSCH and reception of the PDSCH is less than a threshold, assume that a demodulation reference signal, DMRS, port of the PDSCH is quasi co-located, QCLed, with a certain reference signal, wherein the certain reference signal is associated with a quasi-co-location, QCL, parameter used for QCL indication for a Physical Downlink Control Channel, PDCCH, corresponding to a lowest control resource set, CORESET,-ID of an index of Transmission/Reception Point, TRP, in a latest slot, wherein the latest slot is a latest slot in which one or more CORESETs associated with the index of TRP are monitored, by the terminal, within an active bandwidth part, BWP, of the serving cell, and wherein the index of TRP is used for reception of the downlink control information. a receiving section adapted to receive a Physical Downlink Shared Channel, PDSCH, in a serving cell; and a control section adapted to, when a time offset between reception of downlink control information corresponding to the PDSCH and reception of the PDSCH is less than a threshold, assume that a demodulation reference signal, DMRS, port of the PDSCH is quasi co-located, QCLed, with a certain reference signal, wherein the certain reference signal is associated with a quasi-co-location, QCL, parameter used for QCL indication for a Physical Downlink Control Channel, PDCCH, corresponding to a lowest control resource set, CORESET,-ID of an index of Transmission/Reception Point, TRP, in a latest slot, wherein the latest slot is a latest slot in which one or more CORESETs associated with the index of TRP are monitored, by the terminal, within an active bandwidth part, BWP, of the serving cell, and wherein the index of TRP is used for reception of the downlink control information.
A composition for a lithium secondary battery electrode comprising: an active material; a binder; and an organic solvent, the binder containing a polyvinyl acetal resin, characterized in that the binder has a Na ion content of 100 ppm or less determined by atomic absorption measurement and an -ONa existence ratio analyzed by FT-IR to determine the transmittance at the peak of -OH groups detected at around 3400 to 3500 cm -1 and the transmittance at the peak of -ONa groups detected at around 1600 to 1700 cm -1 from 0.01 to 35%. an active material; a binder; and an organic solvent, the binder containing a polyvinyl acetal resin, characterized in that the binder has a Na ion content of 100 ppm or less determined by atomic absorption measurement and an -ONa existence ratio analyzed by FT-IR to determine the transmittance at the peak of -OH groups detected at around 3400 to 3500 cm -1 and the transmittance at the peak of -ONa groups detected at around 1600 to 1700 cm -1 from 0.01 to 35%.
A method for producing a jaw model of a patient, characterized by the following steps: a) input of a first representation of scan data of a jawbone of a patient into computer equipment located at a first party, b) input of a second representation of scanning or reading data of a loose prosthesis, or model or impression of the jawbone in said computer equipment located at the first party, c) simulating virtual images (108, 109) on a computer screen of the first representation and the second representation; d) coordinating, in the computer equipment, of the simulated virtual images and planning of optimal applications of virtual fixtures (111, 112) in the virtual image of the first representation by the first party, e) generating computer information relating to the coordinated configuration of the virtual images (108, 109) of the first and second representations, and the virtual fixtures (111, 112), f) transferring the computer information relating to the coordinated configuration digitally to a second party, g) production, as a function of the computer information, of a jaw model having jaw model elements in positions and directions which correspond to the positions and directions of the virtual fixtures (111, 112) by the second party. a) input of a first representation of scan data of a jawbone of a patient into computer equipment located at a first party, b) input of a second representation of scanning or reading data of a loose prosthesis, or model or impression of the jawbone in said computer equipment located at the first party, c) simulating virtual images (108, 109) on a computer screen of the first representation and the second representation; d) coordinating, in the computer equipment, of the simulated virtual images and planning of optimal applications of virtual fixtures (111, 112) in the virtual image of the first representation by the first party, e) generating computer information relating to the coordinated configuration of the virtual images (108, 109) of the first and second representations, and the virtual fixtures (111, 112), f) transferring the computer information relating to the coordinated configuration digitally to a second party, g) production, as a function of the computer information, of a jaw model having jaw model elements in positions and directions which correspond to the positions and directions of the virtual fixtures (111, 112) by the second party.
An optical network element for generating a plurality of carrier signals and for demodulating an incoming data signal, - comprising a light source, at least two modulators (903 - 906) and two receiving units (907 - 910); - wherein the light source provides an optical signal that is fed to the modulators (903 - 906); - wherein each modulator (903 - 906) generates a frequency shift of said optical signal and provides a frequency-shifted optical carrier signal that is conveyed to an associated receiving unit (907 - 910); - wherein each receiving unit (907 - 910) receives a carrier conveyed via an incoming data signal and processes the incoming data signal using the optical carrier signal of the associated modulator to provide a demodulated electrical signal and is arranged - to determine a deviation signal (915 - 918) corresponding to the frequency difference between the optical carrier signal and the carrier conveyed via the incoming data signal; and - to feed the deviation (915 - 918) signal to the modulator (903 - 906) for adjusting the frequency and/or the phase of the optical carrier signal. - comprising a light source, at least two modulators (903 - 906) and two receiving units (907 - 910); - wherein the light source provides an optical signal that is fed to the modulators (903 - 906); - wherein each modulator (903 - 906) generates a frequency shift of said optical signal and provides a frequency-shifted optical carrier signal that is conveyed to an associated receiving unit (907 - 910); - wherein each receiving unit (907 - 910) receives a carrier conveyed via an incoming data signal and processes the incoming data signal using the optical carrier signal of the associated modulator to provide a demodulated electrical signal and is arranged - to determine a deviation signal (915 - 918) corresponding to the frequency difference between the optical carrier signal and the carrier conveyed via the incoming data signal; and - to feed the deviation (915 - 918) signal to the modulator (903 - 906) for adjusting the frequency and/or the phase of the optical carrier signal. - to determine a deviation signal (915 - 918) corresponding to the frequency difference between the optical carrier signal and the carrier conveyed via the incoming data signal; and - to feed the deviation (915 - 918) signal to the modulator (903 - 906) for adjusting the frequency and/or the phase of the optical carrier signal.
A tube cleaning system, comprising: a housing; a barbed insert coupled to the housing; a yoke comprising an outer flange, the yoke being selectively coupled to the barbed insert; a latch arm assembly coupled to the housing, the latch arm assembly, comprising: two opposing and cooperating latch arms coupled at a pivot point on the housing by an assembly sleeve, each latch arm comprising (i) at a first end disposed on a first side of the pivot point, an integral actuating tab; and (ii) at a second end disposed on a second side of the pivot point, an integral latch bar wherein the integral latch bars, in the case that the latch arms are disposed in a first orientation, are configured to each engage with the outer flange and thereby retain the yoke on the barbed insert, wherein the integral latch bars, in the case that the latch arms are actuated to a second orientation by the respective integral actuating tabs to coerce the integral actuating tabs toward each other, are configured to pivot away from each other and thereby disengage with the outer flange of the yoke thereby releasing or uncoupling the yoke; and a locking mechanism disposed between the actuating tabs, wherein the locking mechanism, when disposed in a first position, is configured to prevent the latch arms from acquiring the second orientation. a housing; a barbed insert coupled to the housing; a yoke comprising an outer flange, the yoke being selectively coupled to the barbed insert; a latch arm assembly coupled to the housing, the latch arm assembly, comprising: two opposing and cooperating latch arms coupled at a pivot point on the housing by an assembly sleeve, each latch arm comprising (i) at a first end disposed on a first side of the pivot point, an integral actuating tab; and (ii) at a second end disposed on a second side of the pivot point, an integral latch bar (i) at a first end disposed on a first side of the pivot point, an integral actuating tab; and (ii) at a second end disposed on a second side of the pivot point, an integral latch bar wherein the integral latch bars, in the case that the latch arms are disposed in a first orientation, are configured to each engage with the outer flange and thereby retain the yoke on the barbed insert, wherein the integral latch bars, in the case that the latch arms are actuated to a second orientation by the respective integral actuating tabs to coerce the integral actuating tabs toward each other, are configured to pivot away from each other and thereby disengage with the outer flange of the yoke thereby releasing or uncoupling the yoke; and a locking mechanism disposed between the actuating tabs, wherein the locking mechanism, when disposed in a first position, is configured to prevent the latch arms from acquiring the second orientation.
A gas turbine engine, comprising: a compressor; a turbine comprising radial inflow impellor blades; and an array of transition combustor assemblies (17, 18) arranged circumferentially adjacent about the radial inflow impellor blades and comprising inner surfaces that are adjacent to combustion gases, wherein the inner surfaces of the array are configured to accelerate and orient, for delivery directly onto the radial inflow impellor blades, a plurality of discrete flows of the combustion gases; wherein the array inner surfaces define respective combustion gas flow axes, wherein each combustion gas flow axis is straight from a point of ignition until no longer bound by the array inner surfaces, and wherein each combustion gas flow axis intersects a unique location on a circumference defined by a sweep of the radial inflow impellor blades. a compressor; a turbine comprising radial inflow impellor blades; and an array of transition combustor assemblies (17, 18) arranged circumferentially adjacent about the radial inflow impellor blades and comprising inner surfaces that are adjacent to combustion gases, wherein the inner surfaces of the array are configured to accelerate and orient, for delivery directly onto the radial inflow impellor blades, a plurality of discrete flows of the combustion gases; wherein the array inner surfaces define respective combustion gas flow axes, wherein each combustion gas flow axis is straight from a point of ignition until no longer bound by the array inner surfaces, and wherein each combustion gas flow axis intersects a unique location on a circumference defined by a sweep of the radial inflow impellor blades.
A wound dressing, in particular for therapeutic wound care, wherein the wound dressing has a multilayered structure, wherein the multilayered structure at least comprises at least one layer including a hydrocolloid, preferably collagen ("hydrocolloid layer" or "collagen layer") and at least one layer containing active charcoal ("active charcoal layer"), wherein the active charcoal layer comprises spherical active charcoal, and wherein the active charcoal of the active charcoal layer has a micropore volume proportion of at least 60 % based on the total pore volume of the active charcoal, formed by micropores having pore diameters ≤ 200 nm (20 Ǻ).
A method comprising: receiving, by a resource provider computer operated by a resource provider, a request from a communication device operated by a user to obtain a restricted access credential to access a resource, the request including data representing a biometric sample of the user obtained via the communication device, the data representing the biometric sample generated in response to instructions provided for the user via the communication device for obtaining the biometric sample; generating, by the resource provider computer, interaction history data relating to past interactions between the resource provider computer and the communication device; transmitting, by the resource provider computer, the interaction history data relating to the past interactions and data representing the biometric sample, to an authorizing entity computer, the authorizing entity computer determining a restricted access credential in response to receipt of the interaction history data and the data representing the biometric sample; and receiving, by the resource provider computer, the restricted access credential from the authorizing entity computer, wherein the restricted access credential allows the user of the communication device to obtain the resource. receiving, by a resource provider computer operated by a resource provider, a request from a communication device operated by a user to obtain a restricted access credential to access a resource, the request including data representing a biometric sample of the user obtained via the communication device, the data representing the biometric sample generated in response to instructions provided for the user via the communication device for obtaining the biometric sample; generating, by the resource provider computer, interaction history data relating to past interactions between the resource provider computer and the communication device; transmitting, by the resource provider computer, the interaction history data relating to the past interactions and data representing the biometric sample, to an authorizing entity computer, the authorizing entity computer determining a restricted access credential in response to receipt of the interaction history data and the data representing the biometric sample; and receiving, by the resource provider computer, the restricted access credential from the authorizing entity computer, wherein the restricted access credential allows the user of the communication device to obtain the resource.
A coupling device for a fluid transport tube having an end provided with an internal chamfer, the device comprising a body including a cylindrical wall defining a channel having an end segment provided with means for securing the tube end thereto in leaktight manner, these means including an elastically deformable annular sealing element comprising a support ring having a first face (61.1) towards an inlet of the end segment in order to come into contact with a terminal face of the tube and an opposite second annular face (61.2), an external peripheral surface (61.3), and an internal peripheral surface (61.4), the body including an internal abutment against the sealing element being pushed into the body, the sealing element comprising a tubular portion that projects axially from the first face (61.1) towards an inlet of the end segment and that has a free end arranged to bear against the internal chamfer of the tube end in order to be forcibly engaged in the tube end while the tube is being inserted into the end segment producing a deformation of the tubular portion before the terminal face of the tube comes into contact against the first face (61.1) of the support ring, the internal abutment of the body including at least one groove for allowing the fluid to pass towards the second face (61.2) of the sealing element so that the sealing element is mounted to be movable in axial translation in the end segment so as to be pressed against the tube end under the effect of the fluid under pressure applied against the second face (61.2) of the sealing element, the tubular portion having a frustoconical external surface (62.1) tapering towards the free end of the tubular portion and a frustoconical internal surface (62.2) flaring towards the free end of the tubular portion, characterized in that the frustoconical internal surface (62.2) flaring towards the free end of the tubular portion is arranged to sensibly extend in alignment with the internal peripheral surface (61.4) when the tubular portion has been forcibly engaged in the tube end so that the deformation of the tubular portion does not produce any restriction of the section of the passageway of the sealing element, the frustoconical internal surface forming a first angle (α) with a central axis of the channel, which first angle (α) is less than a second angle (ω) formed between the internal chamfer and the central axis; the frustoconical external surface (62.1) of the tubular portion forming a third angle (β) with the central axis, which third angle (β) is no greater than the difference between the second angle and the first angle.
A drug delivery molecule, comprising: (a) a gold nanoparticle; (b) a first nucleic acid molecule covalently linked to said gold nanoparticle, wherein said first nucleic acid molecule comprises three doxorubicin binding sites of the sequence (5'-TCG-3'); and (c) a second, complementary nucleic acid molecule hybridized to said first nucleic acid molecule to form a double-stranded nucleic acid molecule. (a) a gold nanoparticle; (b) a first nucleic acid molecule covalently linked to said gold nanoparticle, wherein said first nucleic acid molecule comprises three doxorubicin binding sites of the sequence (5'-TCG-3'); and (c) a second, complementary nucleic acid molecule hybridized to said first nucleic acid molecule to form a double-stranded nucleic acid molecule.
An intermediate processing method of an extruded resin sheet for manufacturing a plurality of intermediate resin sheets (Wn), each of which is a resin sheet to be subjected to a heat press processing, from a strip-like extruded resin sheet that is heated and extrusion molded by using a process management system including a computer, the method comprising the steps of: virtually segmenting the strip-like resin sheet subjected to the extrusion-molding into a plurality of individual areas, each of which is associated with a corresponding sheet of the plurality of resin sheets (Wn); virtually further segmenting each individual area of the plurality of individual areas, which have been virtually segmented, into a plurality of segmented areas; acquiring shrinkage rate related information related to a shrinkage rate of each segmented area of the plurality of segmented areas of each individual area; and implementing an intermediate processing of each individual area of each segmented area based on the shrinkage rate related information for each individual area of each segmented area, and based on a heat press processing condition information, which is processing condition information of the heat press processing for each individual area of each segmented area, wherein: the intermediate processing is performed after extrusion-molding of the extrusion-molded resin sheet and before the heat press processing. virtually segmenting the strip-like resin sheet subjected to the extrusion-molding into a plurality of individual areas, each of which is associated with a corresponding sheet of the plurality of resin sheets (Wn); virtually further segmenting each individual area of the plurality of individual areas, which have been virtually segmented, into a plurality of segmented areas; acquiring shrinkage rate related information related to a shrinkage rate of each segmented area of the plurality of segmented areas of each individual area; and implementing an intermediate processing of each individual area of each segmented area based on the shrinkage rate related information for each individual area of each segmented area, and based on a heat press processing condition information, which is processing condition information of the heat press processing for each individual area of each segmented area, wherein: the intermediate processing is performed after extrusion-molding of the extrusion-molded resin sheet and before the heat press processing.
A floor polisher comprising: (i) a frame movable by means of at least a pair of wheels attached to an axle, (ii) a body integral with said frame, (iii) a motor housing, integral with said body, (iv) at least an operating member driven by said motor, and (v) at least a third wheel coupled to said body, the coupling of said at least third wheel and said body being achieved by an adjustable mechanism (52; 53; 54), characterized by the fact that the adjustment of said mechanism (52; 53; 54) is automatically set on analogous adjustable mechanisms forming the coupling of said frame and said axle. (i) a frame movable by means of at least a pair of wheels attached to an axle, (ii) a body integral with said frame, (iii) a motor housing, integral with said body, (iv) at least an operating member driven by said motor, and (v) at least a third wheel coupled to said body,