mhurhangee/ep-ind-claims huggingface dataset:
A peristaltic pump comprising a rotor incorporating rollers, a mobile jaw having an open position, in which it is moved away from the rotor so that a tube on which said pump must act may be placed between the jaw and the rotor, and a closed position, in which the mobile jaw is moved toward the rotor so that said tube is engaged between a curved bearing surface of the mobile jaw and at least one roller of the rotor, this pump being characterized in that it further comprises, on each side of the rotor, a locating member for said tube adapted to receive it when it is pressed in and to allow it to slide with respect to the locating member in the longitudinal direction in which the tube extends, said locating members being fastened to the mobile jaw and being disposed in a line between the rotor and the mobile jaw in the open position.
A method for reinforcing pipe structures comprising the steps of: providing a continuous length of tensile reinforcement material, wherein said continuous length of tensile reinforcement material is provided coiled around a spool of a spool assembly; providing a pusher configured to receive said tensile reinforcement material from said spool, wherein said pusher advances said tensile reinforcement material through an installation arm configured to direct said tensile reinforcement material against an interior surface of a pipe structure from said pusher and into a continuous helical winding adjacent said interior surface of said pipe; rotating said spool assembly, said pusher, and said installation arm in unison as reinforcement material is unwound from said spool assembly and is pushed into said helical winding, such that said tensile reinforcement material is rotated about a central axis extending through said tensile reinforcement material, and in a direction that relieves the torsional stress that is created by the act of helically winding said reinforcement material; and embedding said tensile reinforcement material into a hardening matrix material. providing a continuous length of tensile reinforcement material, wherein said continuous length of tensile reinforcement material is provided coiled around a spool of a spool assembly; providing a pusher configured to receive said tensile reinforcement material from said spool, wherein said pusher advances said tensile reinforcement material through an installation arm configured to direct said tensile reinforcement material against an interior surface of a pipe structure from said pusher and into a continuous helical winding adjacent said interior surface of said pipe; rotating said spool assembly, said pusher, and said installation arm in unison as reinforcement material is unwound from said spool assembly and is pushed into said helical winding, such that said tensile reinforcement material is rotated about a central axis extending through said tensile reinforcement material, and in a direction that relieves the torsional stress that is created by the act of helically winding said reinforcement material; and embedding said tensile reinforcement material into a hardening matrix material.
A power consumption control device, characterized by comprising: a voltage detection circuit, configured to detect whether an input power supply of a magnetic levitation system to be controlled is turned off; and a comparison unit, configured to detect an operating parameter of a motor of the magnetic levitation system during an operation of the motor as a generator, and compare the operating parameter with a set parameter to obtain a comparison result; wherein, a motor controller of the magnetic levitation system controls the motor of the magnetic levitation system to operate as the generator in a case that the input power supply is turned off; characterized in that a bearing controller of the magnetic levitation system adjusts a magnitude of a bearing bias current of the magnetic levitation system according to the comparison result, to control a power consumption of a magnetic levitation bearing of the magnetic levitation system within a set range through a differential control mode. a voltage detection circuit, configured to detect whether an input power supply of a magnetic levitation system to be controlled is turned off; and a comparison unit, configured to detect an operating parameter of a motor of the magnetic levitation system during an operation of the motor as a generator, and compare the operating parameter with a set parameter to obtain a comparison result; wherein, a motor controller of the magnetic levitation system controls the motor of the magnetic levitation system to operate as the generator in a case that the input power supply is turned off; characterized in that a bearing controller of the magnetic levitation system adjusts a magnitude of a bearing bias current of the magnetic levitation system according to the comparison result, to control a power consumption of a magnetic levitation bearing of the magnetic levitation system within a set range through a differential control mode.
Synergistic oxygen binder consisting of the components a and b in a ratio of from 6:1 to 1:1.5, wherein component a is a dialkylhydroxylamine having the general formula HONR 2 and the substituents R can be identical or different, where R = C n H 2n+1, where n = 1 to 5, component b is an arylphenol derivative of the formula where R 1, R 2, R 3 and R 4 are each, independently of one another, a) C m H 2m+1 -N(-R 5)(-R 6) or b) OR 7 or c) R 8, where at least one R 1, R 2, R 3 and R 4 is a C m H 2m+1 -N(-R 5)(-R 6) group and R 5, R 6, R 7, R 8 each have, independently of one another, the formula C n H 2n+1 and m and n are integers from 0 to 4.
Energy-generating unit, especially an energy-generating unit standing on a bed of a stretch of water and/or floating in the water, consisting of components (20, 30, 40, 50), the components comprising an inlet housing, a turbine housing, a drive unit which is arranged in the turbine housing, and a downstream draught tube, characterized in that provision is made for releasable connecting means, by means of which the components (20, 30, 40, 50) can be connected, the connecting means being designed at least partially as remotely operable and/or releasable locking means, provision being made for guiding means, by means of which adjoining components (20, 30, 40, 50) can be brought together and/or moved apart.
A method of heat treating a cold rolled steel strip, which method comprises the steps of: a) soaking a cold rolled steel strip above (Ac3 - 20) for a soaking time t2 of 1 - 200 seconds, thereby obtaining a cold rolled steel strip having an austenitic microstructure; b) cooling of the soaked steel strip resulting from step a) to a temperature T4 in the range of Ms - (Ms - 200); c) heating the cooled steel strip resulting from step b) to a temperature range of Bs - Ms; d) heat treating the heated steel strip in the temperature range of Bs - Ms for a period of time t5 of 30 - 120 seconds; e) cooling the heat treated steel strip to ambient temperature; such that the steel strip has a microstructure (in vol. %) comprising polygonal ferrite: 0 - 10; polygonal ferrite + acicular ferrite + higher bainitic ferrite: 5 - 30; lower bainitic ferrite + partitioned martensite: 50 - 85, retained austenite: 5 - 20; martensite: 0 - 15; wherein the steel strip has a composition (in mass percent) comprising C: 0.15 - 0.28; Mn: 1.70 - 3.00; Si: 0.50 - 2.00; Al: 0.01 - 0.60; P: less than 0.050; S: less than 0.020; N: less than 0.0080; wherein the sum (Si + Al) is ≥ 0.60; and wherein 10C + Mn + Cr ≥ 3.85 and 8.5 ≤ (Mn + Cr)/C ≤ 16; optionally one or more elements selected from 0 < Cr ≤ 1.00; 0 < Cu ≤ 0.20; 0 < Ni ≤ 0.50; 0 < Mo ≤ 0.50; 0 < Nb ≤ 0.10; 0 < V ≤ 0.10; 0 < Ti ≤ 0.10; 0 < B ≤ 0.0030; 0 < Ca ≤ 0.0050; 0 < REM ≤ 0.0100, wherein REM is one or more rare earth metals; and the remainder being iron and inevitable impurities. a) soaking a cold rolled steel strip above (Ac3 - 20) for a soaking time t2 of 1 - 200 seconds, thereby obtaining a cold rolled steel strip having an austenitic microstructure; b) cooling of the soaked steel strip resulting from step a) to a temperature T4 in the range of Ms - (Ms - 200); c) heating the cooled steel strip resulting from step b) to a temperature range of Bs - Ms; d) heat treating the heated steel strip in the temperature range of Bs - Ms for a period of time t5 of 30 - 120 seconds; e) cooling the heat treated steel strip to ambient temperature; 0 < Cr ≤ 1.00; 0 < Cu ≤ 0.20; 0 < Ni ≤ 0.50; 0 < Mo ≤ 0.50; 0 < Nb ≤ 0.10; 0 < V ≤ 0.10; 0 < Ti ≤ 0.10; 0 < B ≤ 0.0030; 0 < Ca ≤ 0.0050; 0 < REM ≤ 0.0100, wherein REM is one or more rare earth metals;
A method for preparing aroma-infused roasted coffee beans, the method comprising; a. reducing the ethanol content of an aromatic alcoholic beverage to below 1 wt.% to form a reduced-alcohol aromatic alcoholic beverage, b. contacting the reduced-alcohol aromatic alcoholic beverage with coffee beans, c. infusing reduced-alcohol aromatic alcoholic beverage into the coffee beans to yield infused coffee beans, d. roasting the infused coffee beans to yield aroma-infused roasted coffee beans. a. reducing the ethanol content of an aromatic alcoholic beverage to below 1 wt.% to form a reduced-alcohol aromatic alcoholic beverage, b. contacting the reduced-alcohol aromatic alcoholic beverage with coffee beans, c. infusing reduced-alcohol aromatic alcoholic beverage into the coffee beans to yield infused coffee beans, d. roasting the infused coffee beans to yield aroma-infused roasted coffee beans.
An electronic device, wherein the electronic device comprises: a flexible screen; a rotating shaft, positioned on a back surface of the flexible screen and configured to change a state of the flexible screen through rotation of the rotating shaft, wherein the rotating shaft is at a position where the flexible screen is folded and rotates to drive the flexible screen to be folded;; a magnet, at least partially fixed on the rotating shaft, a connecting direction of two magnetic poles of the magnet being perpendicular to an axial direction of the rotating shaft; and a magnetic field sensor, positioned on the back surface of the flexible screen and configured to detect a magnetic field formed by the magnet moving together with the rotating shaft and obtain at least one detection parameter, the at least one detection parameter indicating the state of the flexible screen; wherein the magnetic field sensor is configured to detect magnetic fields in at least two different directions and obtain induced voltages in the at least two different directions, wherein the induced voltages are detection parameters and characterized in that the at least two different directions are mutually perpendicular; and wherein a rotation angle of the magnet is determined based on a mapping relationship between an arc tangent value of a ratio of the induced voltages in the at least two directions and the rotation angle of the magnet; and the state of the flexible screen is determined according to the rotation angle. a flexible screen; a rotating shaft, positioned on a back surface of the flexible screen and configured to change a state of the flexible screen through rotation of the rotating shaft, wherein the rotating shaft is at a position where the flexible screen is folded and rotates to drive the flexible screen to be folded;; a magnet, at least partially fixed on the rotating shaft, a connecting direction of two magnetic poles of the magnet being perpendicular to an axial direction of the rotating shaft; and a magnetic field sensor, positioned on the back surface of the flexible screen and configured to detect a magnetic field formed by the magnet moving together with the rotating shaft and obtain at least one detection parameter, the at least one detection parameter indicating the state of the flexible screen; wherein the magnetic field sensor is configured to detect magnetic fields in at least two different directions and obtain induced voltages in the at least two different directions, wherein the induced voltages are detection parameters and characterized in that the at least two different directions are mutually perpendicular; and wherein a rotation angle of the magnet is determined based on a mapping relationship between an arc tangent value of a ratio of the induced voltages in the at least two directions and the rotation angle of the magnet; and the state of the flexible screen is determined according to the rotation angle.
Ultrasonic machine tool comprising a first sonotrode with a first resonant frequency f 1, a first converter, which is connected to the first sonotrode, and a generator with a generator output for generating a first electrical alternating voltage with the first frequency f 1 or substantially with the first frequency f 1 and for outputting the first electrical alternating voltage at the generator output, wherein the generator output is connected to the first converter, characterized in that a second sonotrode with a second resonant frequency f 2 and a second converter, which is connected to the second sonotrode, are provided, wherein the generator output is connected to the second converter, and the generator is formed so as to generate a mixed signal which has the first electrical alternating voltage and a second electrical alternating voltage with the second frequency f 2 or substantially with the second frequency f 2, and to output the mixed signal at the generator output, and wherein the first frequency f 1 and the second frequency f 2 differ from one another.
A transmission device comprising: a circuitry which, in operation, maps data and/or a reference signal onto a resource unit of a communication system, the resource unit including subcarriers of a first numerology and subcarriers of a second numerology, each of the subcarriers being orthogonal to the other subcarriers of the same numerology, wherein the first numerology differs from the second numerology at least by a larger subcarrier spacing, and the subcarriers of the first and the second numerologies are frequency-multiplexed on a subcarrier basis, and a transmitter which, in operation, transmits the mapped data and/or reference signal in the resource unit, including subcarriers of the first and/or of the second numerology, and wherein the transmitter, in operation, also transmits an indication of the mapping for the resource unit, which comprises references to subcarriers from the subcarriers of the first and/or the second numerology, where for the first numerology, the mapping indication is defined to comprise references to all subcarriers, and for the second numerology, the mapping indication is defined to comprise references to only inter-numerology-orthogonal subcarriers, each of the inter-numerology-orthogonal subcarriers being centrally aligned with a subcarrier of the first numerology. a circuitry which, in operation, maps data and/or a reference signal onto a resource unit of a communication system, the resource unit including subcarriers of a first numerology and subcarriers of a second numerology, each of the subcarriers being orthogonal to the other subcarriers of the same numerology, wherein the first numerology differs from the second numerology at least by a larger subcarrier spacing, and the subcarriers of the first and the second numerologies are frequency-multiplexed on a subcarrier basis, and a transmitter which, in operation, transmits the mapped data and/or reference signal in the resource unit, including subcarriers of the first and/or of the second numerology, and wherein the transmitter, in operation, also transmits an indication of the mapping for the resource unit, which comprises references to subcarriers from the subcarriers of the first and/or the second numerology, where for the first numerology, the mapping indication is defined to comprise references to all subcarriers, and for the second numerology, the mapping indication is defined to comprise references to only inter-numerology-orthogonal subcarriers, each of the inter-numerology-orthogonal subcarriers being centrally aligned with a subcarrier of the first numerology.
A polyalkoxysilane macro-monomeric composition obtainable by reacting at least one compound of formula wherein NCO is an isocyanate group, R represents a CH 3 or a CH 2 -CH 3 group; Q represents a hydrogen, a CH 3 or a CH 2 -CH 3 group and p is an integer comprised between 1 and 5, preferably between 2 and 5; with at least two different polyamines comprising each at least two amino groups, wherein different polyamines means polyamines that do not have the same number and types of atoms, characterized in that: - the at least one compound of formula (i) is selected from the group consisting of 3(triethoxysilyl)propyl isocyanate and 3(trimethoxysilyl)propyl isocyanate, and - the at least two different polyamines are selected from the group consisting of 1,2-diaminopropane, 1,2-diaminocyclohexane, ethylenediamine, isobutylenediamine, 1,2-diaminocyclohexane and N,N'-dimethyl-1-2-diaminocyclohexane. wherein NCO is an isocyanate group, R represents a CH 3 or a CH 2 -CH 3 group; Q represents a hydrogen, a CH 3 or a CH 2 -CH 3 group and p is an integer comprised between 1 and 5, preferably between 2 and 5; with at least two different polyamines comprising each at least two amino groups, wherein different polyamines means polyamines that do not have the same number and types of atoms, characterized in that: - the at least one compound of formula (i) is selected from the group consisting of 3(triethoxysilyl)propyl isocyanate and 3(trimethoxysilyl)propyl isocyanate, and - the at least two different polyamines are selected from the group consisting of 1,2-diaminopropane, 1,2-diaminocyclohexane, ethylenediamine, isobutylenediamine, 1,2-diaminocyclohexane and N,N'-dimethyl-1-2-diaminocyclohexane. - the at least one compound of formula (i) is selected from the group consisting of 3(triethoxysilyl)propyl isocyanate and 3(trimethoxysilyl)propyl isocyanate, and - the at least two different polyamines are selected from the group consisting of 1,2-diaminopropane, 1,2-diaminocyclohexane, ethylenediamine, isobutylenediamine, 1,2-diaminocyclohexane and N,N'-dimethyl-1-2-diaminocyclohexane.
Method for controlling, in particular regulating, a test bench for a drivetrain with a real transmission, having the following working steps: - calculating a target (n) of a control parameter of the transmission output of the real transmission on the basis of a model which represents the transmission and all further components of the output side of the drivetrain as virtual components (3', 9a, 9b, 10a, 10b, 11, 12), on the basis of at least one measurement parameter measured on the drivetrain, the further components of the output side of the drivetrain being present only as virtual components; and - Controlling the test stand based on the target (n). - calculating a target (n) of a control parameter of the transmission output of the real transmission on the basis of a model which represents the transmission and all further components of the output side of the drivetrain as virtual components (3', 9a, 9b, 10a, 10b, 11, 12), on the basis of at least one measurement parameter measured on the drivetrain, the further components of the output side of the drivetrain being present only as virtual components; and - Controlling the test stand based on the target (n).
A method of managing a neighbor table in a communication apparatus, the method comprising the steps of the communication apparatus maintaining a neighbor table comprising a plurality of neighboring table entries corresponding to respective neighboring nodes being communication nodes (10a-j) in direct communication range of the communication apparatus, the method charaterized in that: said maintaining including, upon determination that the neighbor table capacity has reached a threshold, replacing a neighbor table entry corresponding to a neighboring node from the neighbor table by a new neighbor table entry corresponding to a new neighboring node based on the determination that the new neighboring node is a communication partner, wherein a communication node (10a-j) is defined as a communication partner if at least one the following conditions is met: condition a a message including the communication partner as source address has been received by the communication apparatus, or condition b a message including the communication partner as destination address has been transmitted by the communication apparatus, or condition c the new neighboring node is defined as a communication partner by configuration at the communication apparatus, wherein the neighboring node is either not a communication partner of the communication apparatus or is a communication partner with a link quality between the communication apparatus and the neighboring node being lower than a link quality between the communication apparatus and the new neighboring node. condition a a message including the communication partner as source address has been received by the communication apparatus, or condition b a message including the communication partner as destination address has been transmitted by the communication apparatus, or condition c the new neighboring node is defined as a communication partner by configuration at the communication apparatus, wherein the neighboring node is either not a communication partner of the communication apparatus or is a communication partner with a link quality between the communication apparatus and the neighboring node being lower than a link quality between the communication apparatus and the new neighboring node.
A method performed at a network node of broadcasting position reference signals within a position reference signal time period, said position reference signals being repeatedly transmitted within periodically repeating position reference signal time periods, said method comprising, within each of a plurality of said position reference signal time periods, broadcasting: a first position reference signal within a first frequency band and during a first time period; and at least one further position reference signal within at least one further frequency band and during at least one subsequent time period, said at least one further frequency band being different to said first frequency band. a first position reference signal within a first frequency band and during a first time period; and at least one further position reference signal within at least one further frequency band and during at least one subsequent time period, said at least one further frequency band being different to said first frequency band.