mhurhangee/ep-ind-claims huggingface dataset:
A method for regulating and/or monitoring a heating apparatus for heating a fluid having flowed and/or flowing via an inlet into an in-flow section of a dialysis fluid circuit, the dialysis fluid circuit being part of a blood treatment apparatus, the dialysis fluid circuit comprising a container for receiving the fluid and a heating container for heating the fluid, wherein the method comprises the step of: - starting a heating process for heating the fluid in the heating container being in fluid communication with the container, only when the filling level of the container has reached a pre-determined filling level value at least once, in particular by a direct or indirect inflow through the inlet. the dialysis fluid circuit being part of a blood treatment apparatus, the dialysis fluid circuit comprising a container for receiving the fluid and a heating container for heating the fluid, wherein the method comprises the step of: - starting a heating process for heating the fluid in the heating container being in fluid communication with the container, only when the filling level of the container has reached a pre-determined filling level value at least once, in particular by a direct or indirect inflow through the inlet. - starting a heating process for heating the fluid in the heating container being in fluid communication with the container, only when the filling level of the container has reached a pre-determined filling level value at least once, in particular by a direct or indirect inflow through the inlet.
A heat-curable structural adhesive comprising A) at least one non-rubber-modified epoxy resin; B) a reaction product of a carboxyl- or amine-terminated butadiene polymer or copolymer and a bisphenol F-based epoxy resin; C) at least one elastomeric toughener containing capped isocyanate groups; D) one or more epoxy curing agents; E) from 0.5 to 10 weight percent of a moisture scavenger, based on the total weight of the heat-curable structural adhesive; and F) a heat activatable catalyst comprising a mixture of a solid or liquid tertiary amine compound that has a boiling temperature of at least 130°C and a novolac resin, and further wherein the elastomeric toughener and the rubber portion of the rubber-modified epoxy resin together constitute from 15 to 25% of the total weight of the heat-curable adhesive. A) at least one non-rubber-modified epoxy resin; B) a reaction product of a carboxyl- or amine-terminated butadiene polymer or copolymer and a bisphenol F-based epoxy resin; C) at least one elastomeric toughener containing capped isocyanate groups; D) one or more epoxy curing agents; E) from 0.5 to 10 weight percent of a moisture scavenger, based on the total weight of the heat-curable structural adhesive; and F) a heat activatable catalyst comprising a mixture of a solid or liquid tertiary amine compound that has a boiling temperature of at least 130°C and a novolac resin,
A wireless packet communication method transmitting a data packet between a transmitting station STA and a receiving station, wherein the transmitting station STA and the receiving station are capable of using Multiple Input Multiple Output MIMO, by using a radio channel that is judged idle by carrier sensing at the transmitting station, wherein: when the transmitting station STA detects (S001, S002) by said carrier sensing that a number N of idle radio channels is N ≥ 1: calculating, by the transmitting station STA, a sum T of MIMO numbers L of the N idle radio channels, as a total number of simultaneous transmissions, the MIMO number L of each idle radio channel being the number of simultaneous MIMO transmissions which can be performed in the idle radio channel; generating (S407, S409), by the transmitting station STA, T data packets having the same time required for transmission from one or a plurality of transmission standby-frames in a transmission buffer; and transmitting (S408, S410), by the transmitting station STA, the T generated data packets simultaneously to the receiving station using the N idle radio channels and said Multiple Input Multiple Output MIMO. calculating, by the transmitting station STA, a sum T of MIMO numbers L of the N idle radio channels, as a total number of simultaneous transmissions, the MIMO number L of each idle radio channel being the number of simultaneous MIMO transmissions which can be performed in the idle radio channel; generating (S407, S409), by the transmitting station STA, T data packets having the same time required for transmission from one or a plurality of transmission standby-frames in a transmission buffer; and transmitting (S408, S410), by the transmitting station STA, the T generated data packets simultaneously to the receiving station using the N idle radio channels and said Multiple Input Multiple Output MIMO.
A study arrangement of the electromagnetic behaviour of an antenna or any other wave-emitting or -receiving tool, that comprises: - an anechoic chamber designed to receive such an electromagnetic tool to be studied, as well as a person handling this tool, said anechoic chamber having: ∘ walls forming a closed space, and ∘ an arrangement for eliminating an electromagnetic echo in said anechoic chamber; - at least one analysis antenna designed to pick-up the waves emitted or received by the electromagnetic tool to be studied; - means for processing output signals from this analysis antenna; - means for displaying a radiation diagram produced for the electromagnetic tool to be studied, placed so that the person operating the electromagnetic tool to be studied directly observes the effect of his handling on the electromagnetic behaviour of this tool; characterized in that: the means for displaying the radiation diagram are entirely placed inside the anechoic chamber, and the anechoic chamber comprises a seat to accommodate the person handling the electromagnetic tool to be studied, and an adjustable support for one arm of this person, with the seat and the adjustable support allowing overall repositioning of the person, with exact repositioning of the arm, thus enabling several successive uses of the electromagnetic tool to be studied in the same position of the latter in relation to the remainder of the body of the person. - an anechoic chamber designed to receive such an electromagnetic tool to be studied, as well as a person handling this tool, said anechoic chamber having: ∘ walls forming a closed space, and ∘ an arrangement for eliminating an electromagnetic echo in said anechoic chamber; ∘ walls forming a closed space, and ∘ an arrangement for eliminating an electromagnetic echo in said anechoic chamber; - at least one analysis antenna designed to pick-up the waves emitted or received by the electromagnetic tool to be studied; - means for processing output signals from this analysis antenna; - means for displaying a radiation diagram produced for the electromagnetic tool to be studied, placed so that the person operating the electromagnetic tool to be studied directly observes the effect of his handling on the electromagnetic behaviour of this tool; the means for displaying the radiation diagram are entirely placed inside the anechoic chamber, and the anechoic chamber comprises a seat to accommodate the person handling the electromagnetic tool to be studied, and an adjustable support for one arm of this person, with the seat and the adjustable support allowing overall repositioning of the person, with exact repositioning of the arm, thus enabling several successive uses of the electromagnetic tool to be studied in the same position of the latter in relation to the remainder of the body of the person.
A method for controlling data retransmission, performed by a UE, comprising: transmitting data to a network device and starting a timer; and retransmitting the data if a HARQ-NACK feedback corresponding to the data is received from the network device before the timer expires; retransmitting the data after the timer expires, if a HARQ-ACK feedback corresponding to the data is not received before the timer expires; wherein retransmitting the data comprises: obtaining a time resource for retransmission according to the timer; obtaining a frequency resource for retransmission according to previous transmission; and retransmitting the data with the time resource and the frequency resource; wherein a location of the time resource is determined by: T+N, wherein T is the time when the timer expires, and N is a predetermined parameter; wherein a location of the frequency resource is determined by: RB + offset, wherein RB is a location of a frequency resource for transmitting the data before the retransmission, and offset is a predetermined parameter. transmitting data to a network device and starting a timer; and retransmitting the data if a HARQ-NACK feedback corresponding to the data is received from the network device before the timer expires; retransmitting the data after the timer expires, if a HARQ-ACK feedback corresponding to the data is not received before the timer expires; wherein retransmitting the data comprises: obtaining a time resource for retransmission according to the timer; obtaining a frequency resource for retransmission according to previous transmission; and retransmitting the data with the time resource and the frequency resource; wherein a location of the time resource is determined by: T+N, wherein T is the time when the timer expires, and N is a predetermined parameter; wherein a location of the frequency resource is determined by: RB + offset, wherein RB is a location of a frequency resource for transmitting the data before the retransmission, and offset is a predetermined parameter. obtaining a time resource for retransmission according to the timer; obtaining a frequency resource for retransmission according to previous transmission; and retransmitting the data with the time resource and the frequency resource; wherein a location of the time resource is determined by: T+N, wherein T is the time when the timer expires, and N is a predetermined parameter; wherein a location of the frequency resource is determined by: RB + offset, wherein RB is a location of a frequency resource for transmitting the data before the retransmission, and offset is a predetermined parameter.
A cartridge for an aerosol-generating system, the cartridge comprising: a sensor comprising a capacitor with a first capacitor plate and a second capacitor plate; a liquid storage portion for holding a liquid aerosol-forming substrate, wherein the liquid storage portion is arranged between the first capacitor plate and the second capacitor plate, wherein the permittivity of the liquid storage portion changes upon a change of the volume of the liquid aerosol-forming substrate held in the liquid storage portion; and a vaporiser, wherein: the sensor is configured to measure the capacitance of the capacitor; the measured capacitance relates to a corresponding permittivity of the liquid aerosol-forming substrate held in the liquid storage portion so that the amount of the volume of the liquid aerosol-forming substrate held in the liquid storage portion is determinable from the measured capacitance; and at least a section of the internal volume of the liquid storage portion has a width dimension below a predefined value, such that capillary forces act on the liquid aerosol-forming substrate held in the liquid storage portion to hold the level of the liquid aerosol-forming substrate essentially perpendicular to the first capacitor plate and to the second capacitor plate. a sensor comprising a capacitor with a first capacitor plate and a second capacitor plate; a liquid storage portion for holding a liquid aerosol-forming substrate, wherein the liquid storage portion is arranged between the first capacitor plate and the second capacitor plate, wherein the permittivity of the liquid storage portion changes upon a change of the volume of the liquid aerosol-forming substrate held in the liquid storage portion; and a vaporiser, the sensor is configured to measure the capacitance of the capacitor; the measured capacitance relates to a corresponding permittivity of the liquid aerosol-forming substrate held in the liquid storage portion so that the amount of the volume of the liquid aerosol-forming substrate held in the liquid storage portion is determinable from the measured capacitance; and at least a section of the internal volume of the liquid storage portion has a width dimension below a predefined value, such that capillary forces act on the liquid aerosol-forming substrate held in the liquid storage portion to hold the level of the liquid aerosol-forming substrate essentially perpendicular to the first capacitor plate and to the second capacitor plate.
A handling device intended to be installed on a surface vessel to enable storage and deployment of an underwater device intended to be towed by the surface vessel and comprising a traction cable, a flexible elongate body and an assembly of at least one towed body, situated between the flexible elongate body and the traction cable, the handling device comprising a winch comprising a frame intended to be attached to a structure of the surface vessel and a first drum capable of turning, relative to the frame, about a first rotation axis and an assembly of at least one second drum which surrounds the first drum and is capable of turning relative to the frame about a second rotation axis substantially parallel to the first rotation axis, the winch being capable of being in a decoupled state in which the first drum and the second drum are rotationally decoupled about the first rotation axis and the second rotation axis so as to allow the traction cable to be wound around the first drum during a first winding step during which the first drum is rotated about the first axis, the second drum being capable of being in an open state, wherein the second drum has a receiving opening that the towed body is capable of passing through to enter the interior of the volume that surrounds the first drum and that is surrounded by the second drum, the winch being capable of being in a coupled state in which the first drum and the second drum are rotationally coupled about the second rotation axis, so as to allow the flexible elongate body to be wound around the second rotation axis during a second winding step during which the second drum is rotated about the second axis, wherein the towed body incorporates an antenna for emission of acoustic waves, the flexible elongate body comprising a receiving antenna comprising a plurality of electro-acoustic transducers distributed along the flexible elongate body and wherein the towed body is a body elongated along a longitudinal axis (l) intended to extend along an axis that is vertical during towing, the transmit antenna comprising a plurality of electro-acoustic transducers distributed along the longitudinal axis (l).
A fuel cell system for generating power by supplying a reaction gas to a fuel cell, comprising: a wet state detection unit configured to detect a wet state of an electrolyte membrane of the fuel cell; a steady time target wet state setting unit configured to set a target wet state of the electrolyte membrane as a steady time target wet state, the steady time target wet state being the target wet state required for the steady operation of the fuel cell system at a target output of the fuel cell; and a transient time target wet state setting unit configured to set a transient time target wet state so that the wet state of the electrolyte membrane gradually changes from a wet state detected before a transient operation starts to the steady time target wet state during the transient operation which changes the target output of the fuel cell, characterized in that: the transient time target wet state setting unit is configured to apply a delay process to the steady time target wet state when a transient property of the wet state of the electrolyte membrane lags a transient property of the fuel cell stack output, to thereby change the rate of change of the wet state of the electrolyte membrane to match the transient property of the wet state of the electrolyte membrane. a wet state detection unit configured to detect a wet state of an electrolyte membrane of the fuel cell; a steady time target wet state setting unit configured to set a target wet state of the electrolyte membrane as a steady time target wet state, the steady time target wet state being the target wet state required for the steady operation of the fuel cell system at a target output of the fuel cell; and a transient time target wet state setting unit configured to set a transient time target wet state so that the wet state of the electrolyte membrane gradually changes from a wet state detected before a transient operation starts to the steady time target wet state during the transient operation which changes the target output of the fuel cell,
A humanized anti-EGFR antibody that specifically binds human EGFR, wherein said antibody comprises: (a) a heavy chain variable region comprising the sequence of SEQ ID NO:15; and (b) a light chain variable region comprising the sequence of SEQ ID NO:45; and wherein said antibody comprises a glycoengineered, human Fc region having a reduced number of fucose residues as compared to the non-glycoengineered form of the antibody. (a) a heavy chain variable region comprising the sequence of SEQ ID NO:15; and (b) a light chain variable region comprising the sequence of SEQ ID NO:45;
A method of recovering anhydrous hydrogen fluoride from an azeotropic or azeotrope-like mixture comprising hydrogen fluoride and a halogenated hydrocarbon comprising: providing an azeotropic or azeotrope-like mixture comprising hydrogen fluoride and at least one halogenated hydrocarbon; and extracting hydrogen fluoride from said mixture by contacting said mixture with a solution comprising from 65 to less than 93 wt.% sulfuric acid in water. providing an azeotropic or azeotrope-like mixture comprising hydrogen fluoride and at least one halogenated hydrocarbon; and extracting hydrogen fluoride from said mixture by contacting said mixture with a solution comprising from 65 to less than 93 wt.% sulfuric acid in water.
System module of a storage system which is provided to store or to transport hand tools, machine tools and/or accessories, having at least one frame unit, having at least one coupling unit, which is provided for user-releasable coupling to at least part of at least one further system module, and having at least one functional unit, which, in a first position, is arranged at least essentially within a space defined by the frame unit, and having at least one positioning unit, which is provided to position the functional unit relative to the frame unit in at least two at least essentially different positions, characterized in that the functional unit comprises an electric appliance.
A semiconductor device comprising: a first insulating film; an oxide semiconductor film formed over and in contact with the first insulating film; a source electrode and a drain electrode that are provided in contact with the oxide semiconductor film; a second insulating film provided over the oxide semiconductor film; and a gate electrode provided over the second insulating film, wherein the first insulating film comprises a surface whose average surface roughness is less than 0.5 nm, and wherein the oxide semiconductor film comprises a crystal whose c-axis is substantially perpendicular to the surface of the first insulating film, wherein the surface of the first insulating film is formed through a CMP treatment. a first insulating film; an oxide semiconductor film formed over and in contact with the first insulating film; a source electrode and a drain electrode that are provided in contact with the oxide semiconductor film; a second insulating film provided over the oxide semiconductor film; and a gate electrode provided over the second insulating film,
A translational-rotary machine, comprising: - a housing, forming two housing openings facing each other; - a shaft forming two shaft ends; said shaft being placed through the two housing openings; - drive means; said shaft being connected to the housing so as to translate and/or rotate with respect to the housing, through the drive means; - two rods, each of the two rods forming a gripping end and a coupling end opposite to the gripping end, each of the two rods being removably connected, at the coupling end, to a respective shaft end; - wireless communication means comprising: - a first electronic transceiver board placed at each shaft end, integral with the shaft; - a second electronic transceiver board placed at each coupling end, integral with the rod, configured to communicate data and/or electric power between the transceiver boards, wherein the wireless communication means further comprise a sensor, said sensor being placed at the gripping end of each rod, wherein the sensor is configured to detect parameters indicative of the movement of each rod, including the force or torque acting on the rod and the linear and/or angular displacement of the rod, wherein the translational-rotary machine comprises two grips hinged to a respective gripping end of the rods by means of a pin which is integral with the rod, and wherein the sensor comprises a plurality of strain gauges adapted to detect deformations of each respective pin. - a housing, forming two housing openings facing each other; - a shaft forming two shaft ends; said shaft being placed through the two housing openings; - drive means; said shaft being connected to the housing so as to translate and/or rotate with respect to the housing, through the drive means; - two rods, each of the two rods forming a gripping end and a coupling end opposite to the gripping end, each of the two rods being removably connected, at the coupling end, to a respective shaft end; - wireless communication means comprising: - a first electronic transceiver board placed at each shaft end, integral with the shaft; - a second electronic transceiver board placed at each coupling end, integral with the rod, configured to communicate data and/or electric power between the transceiver boards, - a first electronic transceiver board placed at each shaft end, integral with the shaft; - a second electronic transceiver board placed at each coupling end, integral with the rod, configured to communicate data and/or electric power between the transceiver boards, wherein the wireless communication means further comprise a sensor, said sensor being placed at the gripping end of each rod, wherein the sensor is configured to detect parameters indicative of the movement of each rod, including the force or torque acting on the rod and the linear and/or angular displacement of the rod, wherein the translational-rotary machine comprises two grips hinged to a respective gripping end of the rods by means of a pin which is integral with the rod, and wherein the sensor comprises a plurality of strain gauges adapted to detect deformations of each respective pin.
Injection element for a tube bundle heat exchanger which comprises a plurality of passageways that each narrow in a cone-like manner towards one side of the injection element for dividing a fluid flow into a plurality of fluid flows, characterized in that a central axis of each of the passageways respectively runs obliquely through the injection element.