mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a simulation device for generating a plurality of output signals at a plurality of output channels in order to simulate a sensor of a predefinable type, or multiple sensors, each of a predefinable type, wherein the simulation device generates at least one output signal for simulating in each case one sensor of a predefinable type at one output channel in each case, wherein the simulation device includes on the one hand signal generating means for generating signals, and on the other hand signal processing means for processing a base signal that is generated by the or each signal generating means, and for generating at least one output signal, wherein for each output channel, the output signal that is output thereby is individually determined by one base signal in each case that is generated by the signal generating means, and wherein a phase position of the base signals that are generated by the signal generating means is predefined, wherein a signal processing means is associated with each output channel, and wherein at least one of the signal processing means is parameterized for selecting the type of conversion of the base signal received from the signal generating means into an output signal,, and wherein the or each signal processing means converts the base signal, received from the signal generating means, into an output signal in the form of a physical variable, as would be generated by a physical sensor, characterized in that the simulation device, via a communicative connection with a remote monitoring device, reads out limit and/or threshold values that are provided there, and the simulation device automatically generates a base signal in a predefined or predefinable relationship with the limit and/or threshold value.
An Fc-containing protein, wherein the Fc region is a homodimer of IgG1 CH2 and CH3 domains, wherein said CH3 domain comprises an amino acid substitution to alanine or valine at Ser364 according to the EU numbering scheme of Kabat.
An ultrasonic measurement system comprising: a base apparatus, the base apparatus including: a power supply; a pulse transmitter/receiver; and a base apparatus controller operatively connected to the power supply and the pulse transmitter/receiver; an ultrasonic transducer unit remote from the base apparatus, the ultrasonic transducer unit including a piezoelectric element; a temperature sensing system remote from the base apparatus, the temperature sensing system including a temperature measurement instrument operatively connected to a temperature sensor; and an electrical cable, the electrical cable including first and second electrical conductors (131, 132), the first and second conductors (131, 132) electrically connecting the base apparatus, the ultrasonic transducer unit, and the temperature sensing system, wherein the cable includes only two electrically distinct conductors. a base apparatus, the base apparatus including: a power supply; a pulse transmitter/receiver; and a base apparatus controller operatively connected to the power supply and the pulse transmitter/receiver; a power supply; a pulse transmitter/receiver; and a base apparatus controller operatively connected to the power supply and the pulse transmitter/receiver; an ultrasonic transducer unit remote from the base apparatus, the ultrasonic transducer unit including a piezoelectric element; a temperature sensing system remote from the base apparatus, the temperature sensing system including a temperature measurement instrument operatively connected to a temperature sensor; and an electrical cable, the electrical cable including first and second electrical conductors (131, 132), the first and second conductors (131, 132) electrically connecting the base apparatus, the ultrasonic transducer unit, and the temperature sensing system, wherein the cable includes only two electrically distinct conductors.
Apparatus for forming groups of products on edge, comprising: - a supply unit configured to feed at least one continuous array of products on edge, and - at least one slug-forming device arranged for receiving successive groups of products on edge from said supply unit, wherein said supply unit is configurable for feeding products to said slug-forming device in a volumetric mode or in a numeric mode, characterized in that said supply unit comprises an extractor device operable for extracting individual products from said continuous array of products on edge when the supply unit is configured to feed the products in the numeric mode, and wherein the apparatus comprises a volumetric guide and a numeric guide interchangeable with each other and selectively installable on the supply unit, one in place of the other. - a supply unit configured to feed at least one continuous array of products on edge, and - at least one slug-forming device arranged for receiving successive groups of products on edge from said supply unit, wherein said supply unit is configurable for feeding products to said slug-forming device in a volumetric mode or in a numeric mode, characterized in that said supply unit comprises an extractor device operable for extracting individual products from said continuous array of products on edge when the supply unit is configured to feed the products in the numeric mode, and wherein the apparatus comprises a volumetric guide and a numeric guide interchangeable with each other and selectively installable on the supply unit, one in place of the other.
: A winemaking method characterized in that it comprises in the following order: - E1- A step of harvesting the grapes; - E2- A step of stripping; - E3- A step of pressing; - E4- A step of separating the must and the pomace; - E5- A step of setting aside the pomace under inert atmosphere in a first container; - E6- A step of clarifying the must into a second container; - E7- A step of recombining the pomace and the clarified must in a single container; - E8- A step of fermenting. - E1- A step of harvesting the grapes; - E2- A step of stripping; - E3- A step of pressing; - E4- A step of separating the must and the pomace; - E5- A step of setting aside the pomace under inert atmosphere in a first container; - E6- A step of clarifying the must into a second container; - E7- A step of recombining the pomace and the clarified must in a single container; - E8- A step of fermenting.
A sharding engine, SE, configured to monitor and optimise the performance of a communicatively coupled distributed ledger technology, DLT, platform, the DLT platform comprising a DLT storage module configured for storing and processing DLT transactions, the DLT storage module being partitioned into one or more DLT shards according to a DLT configuration, each DLT shard being associated with a local network of transaction processing nodes configured to process and verify submitted DLT transactions according to a local consensus protocol defined by a Global Conflict Resolver, GCR, module in accordance with the DLT configuration, the sharding engine comprising: a sensor module configured to monitor a set of configuration parameters associated with the DLT platform; and a decision and optimisation, DO, module configured to receive and process the values obtained from the set of configuration parameters to determine a set of corresponding performance metrics indicative of the operational performance of the target DLT platform; wherein the DO module is configured to compare the values of the performance metrics with corresponding target values, and wherein, when at least one of the performance metrics is within a value range from at least one corresponding target value, the DO module is configured to adjust an aspect of the DLT configuration of the DLT platform to optimise its operational performance. a sensor module configured to monitor a set of configuration parameters associated with the DLT platform; and a decision and optimisation, DO, module configured to receive and process the values obtained from the set of configuration parameters to determine a set of corresponding performance metrics indicative of the operational performance of the target DLT platform; wherein the DO module is configured to compare the values of the performance metrics with corresponding target values, and wherein, when at least one of the performance metrics is within a value range from at least one corresponding target value, the DO module is configured to adjust an aspect of the DLT configuration of the DLT platform to optimise its operational performance.
A clutch control device that determines a clutch control amount according to at least a throttle operation state and a clutch connection state detected by a clutch sensor (SE8, SE9) that detects a connection state of a clutch (51a, 51b), and controls driving of a clutch actuator (91a, 91b) that controls connection/disconnection of the clutch (51a, 51b), wherein a stroke start position at which the clutch (51a, 51b) starts to make a stroke and a stroke end position that is a full stroke position of the clutch (51a, 51b) are detected based on a change in sensor output value of the clutch sensor (SE8, SE9), characterised in that a target sensor output value (Ph) in a predetermined half-clutch state between the stroke start position and the stroke end position is calculated by linear interpolation of a proportional function formed by a sensor output value (Ps) detected at the stroke start position and a sensor output value (Pe) detected at the stroke end position, and a clutch control amount in the predetermined half-clutch state is determined by using the target sensor output value (Ph), and in that each of the stroke start position and the stroke end position is detected by a change amount of the sensor output value that has deviated from a predetermined range.
An injector for administering a first and a second liquid or pasty substance, in particular a drug, comprising an outer injector body in which an inner injector body is longitudinally displaceably guided in which a plunger is longitudinally displaceably guided, wherein the outer injector body comprises a jacket part, a base wall and an administration spout, wherein the base wall comprises an administration opening at its center, which is connected to an administration channel in the administration spout, wherein the inner injector body comprises a base wall in which one or multiple channels are provided, and a cuff which sealingly contacts the inner wall of the outer injector body and which can be flowed around by the second liquid or pasty substance when it is in the end position in the outer injector body, so that after administration of the first liquid or pasty substance, the second liquid or pasty substance can be administered, characterized in that this substance is pressed passed the cuff into the administration opening and the administration channel.
A carboxyesterase polypeptide comprising an amino acid sequence that is at least 93% or more identical to the amino acid sequence set forth in SEQ ID NO: 4, or a functional fragment thereof, wherein the residue corresponding to X198 in SEQ ID NO: 4 is L, and the carboxyesterase polypeptide has improved enzymatic activity relative to the carboxyesterase polypeptide of SEQ ID NO: 2.
A method of producing a mouse model, which comprises the steps of: (a) administering to a mouse an N-acetyl-β-D-glucosaminidase inhibitor to induce insulin resistance; and (b) rearing the mouse with a high-fat diet to subsequently induce fatty liver, steatohepatitis, hepatic fibrosis, and liver cirrhosis. (a) administering to a mouse an N-acetyl-β-D-glucosaminidase inhibitor to induce insulin resistance; and (b) rearing the mouse with a high-fat diet to subsequently induce fatty liver, steatohepatitis, hepatic fibrosis, and liver cirrhosis.
An aluminium alloy wrought product for structural members having a chemical composition consisting of, in wt.%: Cu 3.2 to 4.4 Li 0.8 to 1.4 Mg 0.20 to 0.90 Mn 0.10 to 0.8 Zn 0.20 to 0.80, one or more elements selected from the group consisting of: Zr 0.05 to 0.25, Cr 0.05 to 0.30, Ti 0.01 to 0.25, Sc 0.05 to 0.4, Hf 0.05 to 0.4, Ag < 0.05 Fe < 0.15 Si < 0.15, unavoidable impurities and balance aluminium.
Device for shading an opening of a building etc., in particular an external venetian blind, having a curtain consisting of slats arranged parallel one above the other and a lower end rail, wherein the slats can be raised to form a stack of slats and lowered downwards by a number of lifting belts engaging on the end rail or/and can be pivoted about an axis parallel to the longitudinal sides by a number of turning belts engaging on longitudinal sides of the slats, and having a drive unit containing a winding shaft, which can be driven by means of an electric motor, for actuating the lifting belts or/and the turning belts, wherein the electric motor of the drive unit is assigned an off switch which can be actuated by means of a transmission member which is designed as a two-armed rocker, on one arm of which, which engages over the curtain, the curtain starts to run when it reaches its end position, which is raised to form a stack of slats, characterized in that the drive unit is arranged transversely with respect to the plane of the curtain next to the stack of slats, and in that the electric motor of the drive unit is placed in such a way that its off switch projecting from one side faces upwards, and the two-armed rocker forming the transmission member engages with its second arm over the upwardly facing off switch of the electric motor.
A heating pump, comprising: a drive motor; a pump casing defining a pump cavity and a heating cavity in communication with the pump cavity, the pump cavity and the heating cavity being substantially arranged side by side in an axial direction, the pump cavity and the heating cavity being in communication with each other through a communication channel, and the pump casing being formed with a water inlet in communication with the pump cavity and a water outlet in communication with the heating cavity; an impeller arranged in the pump cavity and coupled to a motor shaft of the drive motor; and a heating member arranged within the heating cavity; characterised in that the communication channel is an expansion channel in a water flow direction, and an expansion angle of the expansion channel is not greater than 20 degrees.
A method for constructing a robotic arm, wherein the robotic arm is controlled by increasing and/or decreasing tension on a plurality of control wires, said method comprising: positioning the plurality of wires in a formation zone for the robotic arm; and forming a body of the robotic arm in the formation zone around the wire using an additive manufacturing process, such that the body of the robotic arm encloses at least a portion of each of the plurality of control wires, wherein forming the body of the robotic arm around the wire comprises forming the body of the robotic arm around the control wire such that the control wire is moveably positioned within at least a portion of the body of the robotic arm enclosing the control wire. positioning the plurality of wires in a formation zone for the robotic arm; and forming a body of the robotic arm in the formation zone around the wire using an additive manufacturing process, such that the body of the robotic arm encloses at least a portion of each of the plurality of control wires, wherein forming the body of the robotic arm around the wire comprises forming the body of the robotic arm around the control wire such that the control wire is moveably positioned within at least a portion of the body of the robotic arm enclosing the control wire.
A machine for stabilization of a track, including a machine frame mobile on the track by means of on-track undercarriages and a stabilizing unit which has flanged rollers able to roll on the track, vertical adjustment drives and a vibration exciter, the stabilizing unit being designed to be displaceable relative to the machine frame in a longitudinal direction of the machine by means of a longitudinal displacement drive, characterized in that the flanged rollers of the stabilizing unit are connected in each case to a separate, independently actuatable hydraulic drive.
A method comprising: generating a receive timing error group, Rx TEG, based on a time delay of a receive, Rx, signal, wherein the time delay is a time measured from an arrival of the Rx signal at a Rx antenna to a time of the Rx signal being digitized and time-stamped at a baseband processor of a user equipment, UE, wherein the Rx TEG is based at least on one or more TEG capabilities reported by the UE, the one or more TEG capabilities including one or more of a TEG Rx capability, a TEG Tx capability, and a combined TEG Rx/Tx capability; determining a timing error group, TEG, index corresponding to the generated Rx TEG; determining a positioning measurement associated with the Rx antenna used to generate the Rx TEG; and reporting the positioning measurement associated with the Rx TEG index; and receiving a request from a Location Measurement Function, LMF, to report the Rx TEG index, wherein the UE is configured to operate as a UE-assisted positioning device, and wherein the reporting the positioning measurement comprises reporting to the LMF at a location server. generating a receive timing error group, Rx TEG, based on a time delay of a receive, Rx, signal, wherein the time delay is a time measured from an arrival of the Rx signal at a Rx antenna to a time of the Rx signal being digitized and time-stamped at a baseband processor of a user equipment, UE, wherein the Rx TEG is based at least on one or more TEG capabilities reported by the UE, the one or more TEG capabilities including one or more of a TEG Rx capability, a TEG Tx capability, and a combined TEG Rx/Tx capability; determining a timing error group, TEG, index corresponding to the generated Rx TEG; determining a positioning measurement associated with the Rx antenna used to generate the Rx TEG; and reporting the positioning measurement associated with the Rx TEG index; and receiving a request from a Location Measurement Function, LMF, to report the Rx TEG index, wherein the UE is configured to operate as a UE-assisted positioning device, and wherein the reporting the positioning measurement comprises reporting to the LMF at a location server.
DC switch for coupling two DC networks, a load-side DC network of which comprises, in particular, load-side capacitors, said DC switch comprising: - one or more power semiconductor switches (24, 25), - a precharge resistor for limiting current during switch-on processes; - a metal heat sink for extracting heat from the power semiconductor (24, 25) and the precharge resistor, wherein the heat sink comprises cooling ducts which are formed by internal cooling fins and extend between a first and a second outer surface of the heat sink, and wherein the power semiconductor switch (24, 25) is arranged on a third outer surface of the heat sink, characterized in that the precharge resistor is arranged inside the heat sink in a recess in the heat sink and is enclosed by the metal material on several sides, wherein the recess extends from an outer surface of the heat sink that faces away from the third outer surface into the heat sink. - one or more power semiconductor switches (24, 25), - a precharge resistor for limiting current during switch-on processes; - a metal heat sink for extracting heat from the power semiconductor (24, 25) and the precharge resistor, wherein the heat sink comprises cooling ducts which are formed by internal cooling fins and extend between a first and a second outer surface of the heat sink, and wherein the power semiconductor switch (24, 25) is arranged on a third outer surface of the heat sink, characterized in that the precharge resistor is arranged inside the heat sink in a recess in the heat sink and is enclosed by the metal material on several sides, wherein the recess extends from an outer surface of the heat sink that faces away from the third outer surface into the heat sink.
A chair having a seat being configured to be moveable in a front-back direction and in a left-right direction, and having a reference position located midway in the front-back direction and the left-right direction in a movable range of the seat, the chair comprising: a front-back movement mechanism (6, 206), a left-right movement mechanism, a return force generation mechanism (4, 204) for front-back direction configured to generate a return force in a direction to return the seat moved from the reference position in the front-back direction to the reference position, and an independent return force generation mechanism for left-right direction configured to generate a return force in a direction to return the seat moved from the reference position in the left-right direction to the reference position, wherein the seat is supported by the front-back movement mechanism (6, 206) and the left-right movement mechanism each independently, the return force generation mechanism (4, 204) for front-back direction including an elastic member (40, 41, 42, 241) is configured to increase the return force in the direction to return the seat to the reference position as an amount of movement of the seat from the reference position increases, the return force generation mechanism for left-right direction is configured to shift a center of gravity of the seat upward in accordance with the movement of the seat from the reference position, and, regardless of whether the seat moves in the front-back direction or left-right direction, a movement end of the seat is configured to be inclined downward in accordance with the amount of movement of the seat. a front-back movement mechanism (6, 206), a left-right movement mechanism, a return force generation mechanism (4, 204) for front-back direction configured to generate a return force in a direction to return the seat moved from the reference position in the front-back direction to the reference position, and an independent return force generation mechanism for left-right direction configured to generate a return force in a direction to return the seat moved from the reference position in the left-right direction to the reference position, wherein the seat is supported by the front-back movement mechanism (6, 206) and the left-right movement mechanism each independently, the return force generation mechanism (4, 204) for front-back direction including an elastic member (40, 41, 42, 241) is configured to increase the return force in the direction to return the seat to the reference position as an amount of movement of the seat from the reference position increases, the return force generation mechanism for left-right direction is configured to shift a center of gravity of the seat upward in accordance with the movement of the seat from the reference position, and, regardless of whether the seat moves in the front-back direction or left-right direction, a movement end of the seat is configured to be inclined downward in accordance with the amount of movement of the seat.