mhurhangee/ep-ind-claims huggingface dataset:
Method for the production of full or partial dental prostheses according to a digitalised virtual model reflecting the jaw status, comprising the steps A generating a data set of the virtual model from data of the digital capture of the jaw status and jaw relation or from the impression taken by the dentist; B digital tooth set-up based on the data set from step A; C generating a functional model from the data set of the digital tooth set-up B using a rapid manufacturing or rapid prototyping method; D investing the functional model from step C in a curable impression material and curing the curable impression material; E cutting open of the investment and removing the functional model from the cured impression material while the investment stays behind; F inserting stock teeth into the investment, G filling the remaining hollow space with denture plastic material; H curing and finishing the dental prosthesis. A generating a data set of the virtual model from data of the digital capture of the jaw status and jaw relation or from the impression taken by the dentist; B digital tooth set-up based on the data set from step A; C generating a functional model from the data set of the digital tooth set-up B using a rapid manufacturing or rapid prototyping method; D investing the functional model from step C in a curable impression material and curing the curable impression material; E cutting open of the investment and removing the functional model from the cured impression material while the investment stays behind; F inserting stock teeth into the investment, G filling the remaining hollow space with denture plastic material; H curing and finishing the dental prosthesis.
A monitoring apparatus (1; 101) for monitoring an ablation procedure applied to an object being tissue, the monitoring apparatus (1; 101) comprising: - an ultrasound signal providing unit (2; 111) adapted to provide an ultrasound signal produced by sending ultrasound pulses out to the object, to receive dynamic echo series after the ultrasound pulses have been reflected by the object, and to generate the ultrasound signal depending on the received dynamic echo series, wherein the ultrasound signal represents ultrasound reflection properties of the object at different depths and at different times; and - an ablation depth determination unit (3; 103) adapted to determine an ablation depth being defined by a boundary of a lesion of non-conducting scar tissue within the object from the provided ultrasound signal, wherein the ablation depth determination unit (3; 103) is adapted to determine a discontinuity of the ultrasound signal and to determine the ablation depth as the depth of the ultrasound signal at which the discontinuity occurs. - an ultrasound signal providing unit (2; 111) adapted to provide an ultrasound signal produced by sending ultrasound pulses out to the object, to receive dynamic echo series after the ultrasound pulses have been reflected by the object, and to generate the ultrasound signal depending on the received dynamic echo series, wherein the ultrasound signal represents ultrasound reflection properties of the object at different depths and at different times; and - an ablation depth determination unit (3; 103) adapted to determine an ablation depth being defined by a boundary of a lesion of non-conducting scar tissue within the object from the provided ultrasound signal, wherein the ablation depth determination unit (3; 103) is adapted to determine a discontinuity of the ultrasound signal and to determine the ablation depth as the depth of the ultrasound signal at which the discontinuity occurs.
A method of discovering services carried out by a network function, NF, in a Service Based Architecture, SBA, based telecommunication network, wherein said network function is registered, in a Network Repository Function, NRF, comprised by said telecommunication network, using a service name, a service address and a plurality of selection rules, wherein each selection rule defines a further, distinct, service address and a corresponding precondition for applying said corresponding selection rule, wherein said plurality of selection rules is associated with a prioritization order for determining which of said plurality of selection rules apply when multiple preconditions are met said method comprising the steps of: - receiving, by said NRF, a discovery request, from a Network Function, NF, consumer, wherein said discovery request comprises said service name; - determining, by said NRF, that said selection rule applies by determining that said precondition is met based on said received discovery request; - transmitting, by said NRF, to said NF consumer, a discovery response, wherein said discovery response comprises said further, distinct, service address instead of said service address. - receiving, by said NRF, a discovery request, from a Network Function, NF, consumer, wherein said discovery request comprises said service name; - determining, by said NRF, that said selection rule applies by determining that said precondition is met based on said received discovery request; - transmitting, by said NRF, to said NF consumer, a discovery response, wherein said discovery response comprises said further, distinct, service address instead of said service address.
An air charge system for an internal combustion engine, the air charge system comprising: a charge path having a charge inlet configured to receive air, and a charge outlet configured to convey air to an intake of the internal combustion engine; a first compressor in the charge path, the first compressor being driven by a motor and configured to receive the air from the charge inlet and increase temperature, pressure, and mass flow rate of the air in the charge path; a first valve in the charge path downstream of the first compressor configured to divert at least a portion of the air leaving the first compressor from exiting the charge path through the charge outlet; and a controller configured to modulate at least one of the first valve and a speed of the motor to adjust a volumetric flow rate of air leaving the charge outlet and entering the intake of the internal combustion engine. a charge path having a charge inlet configured to receive air, and a charge outlet configured to convey air to an intake of the internal combustion engine; a first compressor in the charge path, the first compressor being driven by a motor and configured to receive the air from the charge inlet and increase temperature, pressure, and mass flow rate of the air in the charge path; a first valve in the charge path downstream of the first compressor configured to divert at least a portion of the air leaving the first compressor from exiting the charge path through the charge outlet; and a controller configured to modulate at least one of the first valve and a speed of the motor to adjust a volumetric flow rate of air leaving the charge outlet and entering the intake of the internal combustion engine.
A surgical instrument (400, 600), comprising: a cutting member (185, 285) comprising an implement (182, 282) for cutting tissue and a lumen; an outer tubular member that receives the cutting member (185, 285), a drive including a drive member (450, 650) attached to the cutting member (185, 285) and configured to simultaneously rotate and translate the cutting member with respect to the drive in response to a force applied to the drive; the drive including an aspiration opening (132, 432), wherein the outer member comprises a cutting window characterised in that: the instrument further comprises a restriction mechanism formed via cooperation of the drive member (450, 650) and the aspiration opening (132, 432), wherein the drive member (450, 650) is configured to translate to block the aspiration opening (132, 432) to restrict fluid flow from the lumen to the aspiration opening (132, 432) when the cutting window is not in communication with the lumen and therefore closed and to allow fluid flow to the aspiration opening from the lumen when the cutting window is in communication with the lumen and therefore open.
Refrigeration circuit for circulating a supercritical refrigerant in a predetermined flow direction, comprising in flow direction a heat rejecting heat exchanger, an intermediate expansion device, a receiver, an evaporator expansion device, an evaporator, at least two compressors (20, 22), and a flash gas tapping line connecting the receiver to a first compressor, wherein the first compressor allows for switching between a flash gas compression mode and a suction gas compression mode for alternatively compressing the flash gas at an intermediate pressure level and for compressing the refrigerant leaving the evaporator at a low pressure level, respectively, wherein the flash gas tapping line is in heat exchange relationship with the pressure line connecting the compressor (20, 22) to the heat-rejecting heat exchanger for superheating the flash gas before delivery to the compressor (20, 22).
A field programmable gate array, FPGA, comprising: a functional module A, a functional module B and an application specific integrated circuit, ASIC-based hard core used for communication and interconnection that is embedded in the FPGA; wherein the ASIC-based hard core comprises a high-speed exchange and interconnection unit, station A and station B, the station A and the station B are both connected to the high-speed exchange and interconnection unit; the station A is connected to the functional module A, and is configured to send data received from the functional module A to the high-speed exchange and interconnection unit, wherein the data comprises information about the functional module B; the high-speed exchange and interconnection unit is configured to receive the data from the station A and transmit the data to the station B according to the information about the functional module B in the data; and the station B is connected to the functional module B, and is configured to receive the data from the high-speed exchange and interconnection unit and send the data to the functional module B.
A method of manufacturing a sheet (1, 100) with needle-like protrusions comprising: a preparing step of preparing a mold with needle-like recessed portions, a filling device provided with a liquid feeder having a nozzle that discharges a liquid from a slit-like opening formed at a nozzle tip; and a liquid filling step of filling the needle-like recessed portions with the liquid by repeating a filling operation of supplying the liquid to the mold from the liquid feeder to fill one or more needle-like recessed portions with the liquid while the nozzle tip adjusted to a position above the needle-like recessed portions is brought into pressed contact with a surface of the mold, and a moving operation of moving the nozzle relatively to the mold in a state where the nozzle tip and the surface of the mold are in contact with each other, characterized in that the liquid filling step includes bringing the nozzle tip into pressed contact with the surface of the mold, while absorbing variation in a pressing force applied to the surface of the mold with an elastic body (42, 42A, 42B), wherein the elastic body (42, 42A, 42B) is provided between the nozzle and a Z-axis drive unit configured to vertically move the nozzle relatively to the mold. a preparing step of preparing a mold with needle-like recessed portions, a filling device provided with a liquid feeder having a nozzle that discharges a liquid from a slit-like opening formed at a nozzle tip; and a liquid filling step of filling the needle-like recessed portions with the liquid by repeating a filling operation of supplying the liquid to the mold from the liquid feeder to fill one or more needle-like recessed portions with the liquid while the nozzle tip adjusted to a position above the needle-like recessed portions is brought into pressed contact with a surface of the mold, and a moving operation of moving the nozzle relatively to the mold in a state where the nozzle tip and the surface of the mold are in contact with each other, characterized in that the liquid filling step includes bringing the nozzle tip into pressed contact with the surface of the mold, while absorbing variation in a pressing force applied to the surface of the mold with an elastic body (42, 42A, 42B), wherein the elastic body (42, 42A, 42B) is provided between the nozzle and a Z-axis drive unit configured to vertically move the nozzle relatively to the mold.
A method for checking the pressure (p) in a tire of a rolling vehicle, characterized in that said method comprises: computing, from a plurality of tire characteristic curves describing the rela - tionship between a length of the tire contact patch of a tire and the tire inflation pressure (p), state boundaries (L1, L2, L3, L4) of the length of the tire contact patch with the aid of the optimization criterion of an as low as possible erroneous classification rate for a plurality of state categories (Z1, Z2, Z3, Z4) of the tire inflation pressure (p), determining the length of the tire contact patch of the tire in a driving direction, and assigning the thus determined length of the tire contact patch directly to one of the state categories (Z1, Z2, Z3, Z4) of the tire inflation pressure (p) in the tire with the aid of the state boundaries (L1, L2, L3, L4) deter - mined before. computing, from a plurality of tire characteristic curves describing the rela - tionship between a length of the tire contact patch of a tire and the tire inflation pressure (p), state boundaries (L1, L2, L3, L4) of the length of the tire contact patch with the aid of the optimization criterion of an as low as possible erroneous classification rate for a plurality of state categories (Z1, Z2, Z3, Z4) of the tire inflation pressure (p), determining the length of the tire contact patch of the tire in a driving direction, and assigning the thus determined length of the tire contact patch directly to one of the state categories (Z1, Z2, Z3, Z4) of the tire inflation pressure (p) in the tire with the aid of the state boundaries (L1, L2, L3, L4) deter - mined before.
Method for braking a vehicle having a hybrid brake system, wherein the vehicle is braked in a first phase of a braking manoeuvre by means of a non-hydraulic brake system and, in a subsequently second phase, a hydraulic brake system is switched on in order further to build up braking torque or to compensate for a loss of braking force of the non-hydraulic brake system, characterized by the following steps: • bringing the hydraulic brake system in the first phase into a state of readiness for braking, for which purpose small hydraulic brake pressure is produced by means of a hydraulic pump, leading to the brake shoes moving in the direction of the brake element until they are located close to the brake element or lie against the latter with a small force, • holding the brake shoes in the state of readiness for braking, and • switching on the hydraulic brake system, at a later time, such that the overall braking torque builds up steadily without delay and, in the process, the profile of the vehicle deceleration continuously increases. • bringing the hydraulic brake system in the first phase into a state of readiness for braking, for which purpose small hydraulic brake pressure is produced by means of a hydraulic pump, leading to the brake shoes moving in the direction of the brake element until they are located close to the brake element or lie against the latter with a small force, • holding the brake shoes in the state of readiness for braking, and • switching on the hydraulic brake system, at a later time, such that the overall braking torque builds up steadily without delay and, in the process, the profile of the vehicle deceleration continuously increases.
A window comprising a frame including a head and a sill, the window further comprising at least first and second casements (30A, 30B), wherein the first casement includes hinges (50, 54) for rotating it relative to the frame, the hinges being movable relative to the frame along channels provided in the sill and head such that the first casement is slidable within the frame, the first casement also including at least one guide (52, 56) located on the upper and/or lower surface of the first casement distal from the hinges and movable within the respective head or sill channel as the first casement slides relative to the frame, the said at least one guide disengagable from the respective head or sill channel allowing the at least one guide to pass out of the respective channel thus allowing the first casement to be opened relative to the frame, the sill including a runner on which the casement is slidable, characterised in that the frame includes a landing strip located on the sill at the point where the hinge of the first casement is positioned for rotatable opening, the landing strip including a surface to spread the weight of the first casement across the frame.
A recombinant chimeric nucleic acid molecule comprising a nucleic acid sequence encoding a dual transit peptide operably linked to a heterologous nucleic acid sequence encoding a polypeptide of interest, wherein said dual transit peptide is from the genus Amaranthus which comprises a sequence having at least 80% identity to the amino acid sequence of SEQ ID NO: 1, 2, 3, or 4, and wherein said heterologous polypeptide of interest is from a prokaryote, which, when overexpressed in a plant, confers herbicide tolerance to said plant, and wherein said polypeptide has PPO activity and confers tolerance to PPO-inhibiting herbicides. wherein said dual transit peptide is from the genus Amaranthus which comprises a sequence having at least 80% identity to the amino acid sequence of SEQ ID NO: 1, 2, 3, or 4, and wherein said heterologous polypeptide of interest is from a prokaryote, which, when overexpressed in a plant, confers herbicide tolerance to said plant, and wherein said polypeptide has PPO activity and confers tolerance to PPO-inhibiting herbicides.
A solar photovoltaic system inspection apparatus comprising: an inspection signal generation unit (27, 28) configured to generate AC inspection signals; a connection switching unit configured to switch connection of the inspection signal generation unit (27, 28) so that the inspection signals are sequentially applied to a positive electrode of a solar cell string in which a plurality of solar cell modules are connected in series to each other, and to a negative electrode of the solar cell string; an indicator value measurement unit (26, 30) configured to measure an indicator value when the inspection signal is applied to the positive electrode, and an indicator value when the inspection signal is applied to the negative electrode, the indicator values varying depending on the number of solar cell modules from the electrode to which the inspection signal was applied to a failure position; and a failure position determination unit configured to obtain the failure position based on a ratio of the indicator value measured when the inspection signal was applied to the positive electrode, to the indicator value measured when the inspection signal was applied to the negative electrode. an inspection signal generation unit (27, 28) configured to generate AC inspection signals; a connection switching unit configured to switch connection of the inspection signal generation unit (27, 28) so that the inspection signals are sequentially applied to a positive electrode of a solar cell string in which a plurality of solar cell modules are connected in series to each other, and to a negative electrode of the solar cell string; an indicator value measurement unit (26, 30) configured to measure an indicator value when the inspection signal is applied to the positive electrode, and an indicator value when the inspection signal is applied to the negative electrode, the indicator values varying depending on the number of solar cell modules from the electrode to which the inspection signal was applied to a failure position; and a failure position determination unit configured to obtain the failure position based on a ratio of the indicator value measured when the inspection signal was applied to the positive electrode, to the indicator value measured when the inspection signal was applied to the negative electrode.
A primary lithium battery comprising: a cylindrical housing having a first end and a second end and having a continuous external wall defining an opening at the first end and enclosing the second end; an anode including a lithium-containing anode active material within the housing; a cathode within the housing; a cathode current collector including aluminum in the form of an expanded metal screen or grid; a separator within the housing between the anode and the cathode wherein the anode and cathode are spirally wound together with a portion of the cathode current collector extending axially from one end of the roll to provide an exposed end bent towards the center of the roll to create a dome or crown; a positive lead including aluminum within the housing in contact with the exposed end of the cathode current collector; and a positive external contact in contact with the positive lead, closing the opening defined by the external wall at the end of the housing; wherein the battery has an impedance that increases by less then 0.2 Ohms after the battery is dropped six times from a height of one meter on to a hard surface. a cylindrical housing having a first end and a second end and having a continuous external wall defining an opening at the first end and enclosing the second end; an anode including a lithium-containing anode active material within the housing; a cathode within the housing; a cathode current collector including aluminum in the form of an expanded metal screen or grid; a separator within the housing between the anode and the cathode wherein the anode and cathode are spirally wound together with a portion of the cathode current collector extending axially from one end of the roll to provide an exposed end bent towards the center of the roll to create a dome or crown; a positive lead including aluminum within the housing in contact with the exposed end of the cathode current collector; and a positive external contact in contact with the positive lead, closing the opening defined by the external wall at the end of the housing; wherein the battery has an impedance that increases by less then 0.2 Ohms after the battery is dropped six times from a height of one meter on to a hard surface.