mhurhangee/patent-ind-claim-en huggingface dataset:
A supporting method for supporting a reinforcement structure in the production of precast concrete parts, wherein - in a first method step data of a reinforcement structure designed for the precast concrete part to be produced are provided, - in a second method step positions for supporting the reinforcement structure are calculated in a program-controlled electronic computing system in dependence on the provided data of the reinforcement structure , and - in a third method step spacers are placed at the calculated positions for supporting the reinforcement structure , characterised by the step that: - in a fourth method step a reinforcement structure produced in accordance with the data is placed on the spacers . - in a first method step data of a reinforcement structure designed for the precast concrete part to be produced are provided, - in a second method step positions for supporting the reinforcement structure are calculated in a program-controlled electronic computing system in dependence on the provided data of the reinforcement structure , and - in a third method step spacers are placed at the calculated positions for supporting the reinforcement structure , characterised by the step that: - in a fourth method step a reinforcement structure produced in accordance with the data is placed on the spacers .
Method for controlling of a biofilm, for removing of a formed biofilm and/or for controlling a growth of microorganisms, preferably bacteria, in an aqueous environment of an industrial manufacturing process comprising cellulosic fibre material, which is selected from manufacture of paper, board, pulp, tissue, moulded pulp, non-woven or viscose, preferably manufacture of pulp, paper or board, by administering to the aqueous environment of the process a composition comprising a compound selected from a group consisting of 3-[(4-methylphenyl)sulphonyl]-2-propenenitrile and 4-amino-N-2-thiazolyl-benzenesulphonamide.
An imaging apparatus comprising: a drive unit configured to perform a pan driving and a tilt driving of an optical imaging system including lenses and an image sensor ; a first image stabilization unit configured to stabilize images by driving the drive unit ; and at least one of a second image stabilization unit configured to optically stabilize images by driving a shift lens included in the optical imaging system or a third image stabilization unit configured to electronically stabilize images; a control unit configured to control a correction ratio of Pan-Tilt image stabilization performed by the first image stabilization unit using at least one of the pan driving and the tilt driving to correct an image motion compared to the image stabilization performed by at least one of the second image stabilization unit and third image stabilization unit; and wherein the control unit is configured to change the correction ratio according to at least an amplitude of a motion, and wherein the control unit is configured to make the correction ratio at a time when the amplitude of the motion is smaller than a predetermined amplitude less than the correction ratio at a time when the amplitude of the motion is equal to or larger than the predetermined amplitude. a drive unit configured to perform a pan driving and a tilt driving of an optical imaging system including lenses and an image sensor ; a first image stabilization unit configured to stabilize images by driving the drive unit ; and at least one of a second image stabilization unit configured to optically stabilize images by driving a shift lens included in the optical imaging system or a third image stabilization unit configured to electronically stabilize images; a control unit configured to control a correction ratio of Pan-Tilt image stabilization performed by the first image stabilization unit using at least one of the pan driving and the tilt driving to correct an image motion compared to the image stabilization performed by at least one of the second image stabilization unit and third image stabilization unit; and wherein the control unit is configured to change the correction ratio according to at least an amplitude of a motion, and wherein the control unit is configured to make the correction ratio at a time when the amplitude of the motion is smaller than a predetermined amplitude less than the correction ratio at a time when the amplitude of the motion is equal to or larger than the predetermined amplitude.
A thermal fixer comprising: a first thermal fixing roller including a first heater ; and a second thermal fixing roller pressed to the first thermal fixing roller , the second thermal fixing roller including a second heater and has a diameter, a rigidity, and a surface releasability substantially identical to the first thermal fixing roller , characterised in that each of the first thermal fixing roller and the second thermal fixing roller includes: a core metal portion at a center portion of each of the first thermal fixing roller and the second thermal fixing roller ; an elastic layer around the core metal portion ; and a fluororesin layer on a surface of the elastic layer , wherein a total thickness of the elastic layer and the fluororesin layer of each of the first thermal fixing roller and the second thermal fixing roller is equal to or smaller than 3 mm. a first thermal fixing roller including a first heater ; and a second thermal fixing roller pressed to the first thermal fixing roller , the second thermal fixing roller including a second heater and has a diameter, a rigidity, and a surface releasability substantially identical to the first thermal fixing roller , characterised in that each of the first thermal fixing roller and the second thermal fixing roller includes: a core metal portion at a center portion of each of the first thermal fixing roller and the second thermal fixing roller ; an elastic layer around the core metal portion ; and a fluororesin layer on a surface of the elastic layer , wherein a total thickness of the elastic layer and the fluororesin layer of each of the first thermal fixing roller and the second thermal fixing roller is equal to or smaller than 3 mm. a core metal portion at a center portion of each of the first thermal fixing roller and the second thermal fixing roller ; an elastic layer around the core metal portion ; and a fluororesin layer on a surface of the elastic layer , wherein a total thickness of the elastic layer and the fluororesin layer of each of the first thermal fixing roller and the second thermal fixing roller is equal to or smaller than 3 mm.
A method for determining a level of wear of welding electrode caps in resistance spot welding, characterized in that the thermal emission intensity from a surface of welding electrode replaceable caps is measured and the wear level is determined on the basis of the increased emissivity on the surface of welding caps .
Device for the individualized monitoring of milk for a milking installation, said monitoring device comprising: - a buffer tank , - a weighing system configured to weigh the buffer tank , - a connecting pipe which has a first end (42.1) configured to be connected to a milk pipeline and a second end (42.2) that opens into the upper part of the buffer tank , - a milking pipe having a first end connected to a milking cluster and a second end connected to the buffer tank , - a discharge pipe which has a first end (54.1) configured to be connected to the milk pipeline and a second end (54.2) connected to the lower part of the buffer tank , and - a first valve , at the discharge pipe , configured to occupy a closed state in which it prevents fluid from flowing through the discharge line and an open state in which it allows fluid to flow through the discharge line , characterized in that the monitoring device comprises a second valve configured to occupy an open state in which it allows milking and a closed state in which it stops the milking, and in that the second end of the milking pipe is connected to a branch positioned in the upper part of the buffer tank . - a buffer tank , - a weighing system configured to weigh the buffer tank , - a connecting pipe which has a first end (42.1) configured to be connected to a milk pipeline and a second end (42.2) that opens into the upper part of the buffer tank , - a milking pipe having a first end connected to a milking cluster and a second end connected to the buffer tank , - a discharge pipe which has a first end (54.1) configured to be connected to the milk pipeline and a second end (54.2) connected to the lower part of the buffer tank , and - a first valve , at the discharge pipe , configured to occupy a closed state in which it prevents fluid from flowing through the discharge line and an open state in which it allows fluid to flow through the discharge line ,
A power transmitter for wirelessly providing power to a power receiver via an inductive power transfer signal; the power transmitter comprising: a transmitter coil for generating the power transfer signal; a driver for generating a drive signal for the transmitter coil , the driver being arranged to, during a power transfer phase, generate the drive signal to employ a repeating time frame comprising at least a power transfer time interval and a foreign object detection time interval; a receiver for receiving messages from the power receiver ; characterized in the power transmitter further comprising: a test coil for generating an electromagnetic test signal; a test generator arranged to generate a test drive signal for the test coil to provide the electromagnetic test signal during the foreign object detection time interval; a foreign object detector arranged to perform a foreign object detection test in response to a measured parameter for the test drive signal; an adapter for, prior to entering the power transfer phase, control the power transmitter to operate in a foreign object detection initialization mode in which a preferred value of a signal parameter for the test drive signal is determined in response to at least a first message received from the power receiver ; and wherein the test generator is arranged to set the signal parameter of the test drive signal to the preferred value during the foreign object detection time interval. a transmitter coil for generating the power transfer signal; a driver for generating a drive signal for the transmitter coil , the driver being arranged to, during a power transfer phase, generate the drive signal to employ a repeating time frame comprising at least a power transfer time interval and a foreign object detection time interval; a receiver for receiving messages from the power receiver ; a test coil for generating an electromagnetic test signal; a test generator arranged to generate a test drive signal for the test coil to provide the electromagnetic test signal during the foreign object detection time interval; a foreign object detector arranged to perform a foreign object detection test in response to a measured parameter for the test drive signal; an adapter for, prior to entering the power transfer phase, control the power transmitter to operate in a foreign object detection initialization mode in which a preferred value of a signal parameter for the test drive signal is determined in response to at least a first message received from the power receiver ; and wherein the test generator is arranged to set the signal parameter of the test drive signal to the preferred value during the foreign object detection time interval.
A humanized bi-specific antibody against the terminal methoxy or hydroxyl group of polyethylene glycol (PEG) and a target ligand, comprising, a first antigen binding site that binds to the PEG; and a second antigen binding site that binds to the target ligand that is HER2 or CD19, wherein the first antigen binding site comprises a first VL domain comprising the sequence of SEQ ID NO: 12; and a first VH domain comprising the sequence of SEQ ID NO: 13; and the second antigen binding site comprises a second VL-CH1 domain of SEQ ID NO: 23 or 26, a second VH-Ck domain of SEQ ID NO: 24 or 27, and a second HR-CH2-CH3 domain of SEQ ID NO: 25.
Composite of a ceramic substrate composed of a polycrystalline ceramic with a functional coating, the functional coating comprising at least two double layers consisting of a first functional layer substantially consisting of titanium(IV) oxide, hafnium(IV) oxide and/or niobium(V) oxide and a second functional layer substantially consisting of silicon dioxide, and the ratio of the refractive index of the functional coating to the refractive index of the ceramic substrate being from 1.5:1 to 1:1.5 in the range of 380 - 780 nm, characterized in that the ceramic substrate consists of an oxide, nitride or carbide of Mg, Al, Zr, Si or Y or combinations of these oxides, nitrides and carbides, and each functional layer consists substantially of titanium(IV) oxide, zirconium(IV) oxide, hafnium(IV) oxide, niobium(V) oxide and/or aluminium oxide or magnesium fluoride and/or silicon dioxide.
A method of producing solvated nanoclusters, the method comprising the following steps: - providing a container with a plurality of surfaces distributed therein; - introducing a solvent within which the solvated nanoclusters are to be generated into the container such that the solvent comes in contact with the plurality of surfaces; - providing a guest substance in fluid form; and - distributing the guest substance within the solvent, wherein the solvated nanoclusters are nanoscale assemblies of molecules of the guest substance within the solvent, the guest molecules being intermingled amidst molecules of the solvent, characterised in that the plurality of surfaces comprises random packings or structured packings or both, wherein the packings are made of or coated with either (i) permanent-magnetic material or (ii) dielectric or charged/polarised material that has a quasi-permanent electric charge or dipole polarisation. - providing a container with a plurality of surfaces distributed therein; - introducing a solvent within which the solvated nanoclusters are to be generated into the container such that the solvent comes in contact with the plurality of surfaces; - providing a guest substance in fluid form; and - distributing the guest substance within the solvent, wherein the solvated nanoclusters are nanoscale assemblies of molecules of the guest substance within the solvent, the guest molecules being intermingled amidst molecules of the solvent, characterised in that the plurality of surfaces comprises random packings or structured packings or both, wherein the packings are made of or coated with either (i) permanent-magnetic material or (ii) dielectric or charged/polarised material that has a quasi-permanent electric charge or dipole polarisation.
Method implemented by computer for detecting flight regimes of an aircraft equipped with a monitoring system configured to acquire samples of a number of quantities relating to a flight of the aircraft, comprising the steps of: - acquiring at least one matrix (TFDMx) including, for each of the quantities, a corresponding series of samples (sx 1 [n] - sx NQ [n]) acquired by the monitoring system during the flight of the aircraft; - performing smoothing operations of each series of samples (sx 1 [n]-sx NQ [n]) of the matrix (TFDMx), sc as to generate a corresponding smoothed sample series (sx' 1 [n]-sx' NQ [n]) and so as to determine a corresponding time-continuous approximating function (Fxi(t)) defined by a respective set of coefficients (Cx k,i ) and by a plurality of base functions (φ(t)), the smoothed sample series forming a smoothed matrix (TFDMx'); - on the basis of the base functions (φ k (t)), applying to the smoothed matrix (TFDMx') and to the corresponding sets of coefficients (Cx k,i ) a classifier trained to generate, for each flight regime among a plurality of flight regimes, a corresponding estimate of the probability that the smoothed matrix (TFDMx') and the corresponding sets of coefficients (Cx k,i ) belong to a cluster relative to said flight regime; and - identifying a flight regime wherein the aircraft operated during said flight, based on the estimates generated by the classifier. - acquiring at least one matrix (TFDMx) including, for each of the quantities, a corresponding series of samples (sx 1 [n] - sx NQ [n]) acquired by the monitoring system during the flight of the aircraft; - performing smoothing operations of each series of samples (sx 1 [n]-sx NQ [n]) of the matrix (TFDMx), sc as to generate a corresponding smoothed sample series (sx' 1 [n]-sx' NQ [n]) and so as to determine a corresponding time-continuous approximating function (Fxi(t)) defined by a respective set of coefficients (Cx k,i ) and by a plurality of base functions (φ(t)), the smoothed sample series forming a smoothed matrix (TFDMx'); - on the basis of the base functions (φ k (t)), applying to the smoothed matrix (TFDMx') and to the corresponding sets of coefficients (Cx k,i ) a classifier trained to generate, for each flight regime among a plurality of flight regimes, a corresponding estimate of the probability that the smoothed matrix (TFDMx') and the corresponding sets of coefficients (Cx k,i ) belong to a cluster relative to said flight regime; and - identifying a flight regime wherein the aircraft operated during said flight, based on the estimates generated by the classifier.
A pharmaceutically acceptable salt of indoximod, wherein the salt is HCl or dihydrogen phosphate (H 2 PO 4 - ) salt.
A short-circuit prediction device for predicting presence or absence of occurrence of an internal short circuit in a secondary battery, the secondary battery having a positive electrode, a solid electrolyte, and a negative electrode that contains a lithium alloy, the short-circuit prediction device comprising: a measurement instrument that measures AC impedance of the secondary battery; and a controller that predicts the internal short circuit in the secondary battery, wherein the measurement instrument calculates electrolyte resistance of the secondary battery and reaction resistance of the secondary battery from the AC impedance, and when a change rate of the electrolyte resistance per a predetermined period is within a predetermined range and the reaction resistance becomes higher than a predetermined upper limit, the controller predicts that there is a possibility of occurrence of the internal short circuit. a measurement instrument that measures AC impedance of the secondary battery; and a controller that predicts the internal short circuit in the secondary battery, wherein the measurement instrument calculates electrolyte resistance of the secondary battery and reaction resistance of the secondary battery from the AC impedance, and when a change rate of the electrolyte resistance per a predetermined period is within a predetermined range and the reaction resistance becomes higher than a predetermined upper limit, the controller predicts that there is a possibility of occurrence of the internal short circuit.
Method of localizing a device within an environment , the method comprising the steps of: Acquiring a first location information that is representative for a first specified position within the environment (40, S10); Acquiring a first sensor information that is representative for the first specified position within the environment (40, S20); Providing a first reliability value that is indicative of a reliability with which the acquired first sensor information corresponds to the acquired first location information (13, S32); Only if the first reliability value exceeds a reliability threshold value allocating the acquired first sensor information to the acquired first location information, in order to generate a first condition information that is representative for the first specified position within the environment, Providing a knowledge base having stored therein a plurality of condition information comprising at least the first condition information (S40); Providing, by the device , a current sensor information indicating a current condition of the environment present at the current position of the device (20, S50); Localizing the device within the environment based on a matching between the current sensor information and the plurality of condition information stored in the knowledge base (13, S60). Acquiring a first location information that is representative for a first specified position within the environment (40, S10); Acquiring a first sensor information that is representative for the first specified position within the environment (40, S20); Providing a first reliability value that is indicative of a reliability with which the acquired first sensor information corresponds to the acquired first location information (13, S32); Only if the first reliability value exceeds a reliability threshold value allocating the acquired first sensor information to the acquired first location information, in order to generate a first condition information that is representative for the first specified position within the environment, Providing a knowledge base having stored therein a plurality of condition information comprising at least the first condition information (S40); Providing, by the device , a current sensor information indicating a current condition of the environment present at the current position of the device (20, S50); Localizing the device within the environment based on a matching between the current sensor information and the plurality of condition information stored in the knowledge base (13, S60).
Fluid pump , in particular for a motor vehicle, having: a housing ; an impeller for conveying a fluid through a fluid space of the housing ; an electric motor with a stator inside a stator space of the housing for driving an electric motor rotor coupled to the impeller; and a containment shell (ST) which separates a wet space of the fluid pump from a dry space of the fluid pump , characterized in that the containment shell (ST) joined to the stator is arranged at least elastically compressed between two fastened together housing parts and rests against the stator and a pump stage housing portion , wherein the containment shell (ST) braces the stator against the housing and thereby fixes it relative to the housing in the longitudinal direction (X - X) of the fluid pump . a housing ; an impeller for conveying a fluid through a fluid space of the housing ; an electric motor with a stator inside a stator space of the housing for driving an electric motor rotor coupled to the impeller; and a containment shell (ST) which separates a wet space of the fluid pump from a dry space of the fluid pump , characterized in that the containment shell (ST) joined to the stator is arranged at least elastically compressed between two fastened together housing parts and rests against the stator and a pump stage housing portion , wherein the containment shell (ST) braces the stator against the housing and thereby fixes it relative to the housing in the longitudinal direction (X - X) of the fluid pump .