mhurhangee/patent-ind-claim-en huggingface dataset:
A setup method for deciding component feeding means to be attached to each of mounting machines arranged along a transport direction (X) of a substrate in a component mounting system , and attaching the component feeding means to each of the mounting machines , the method comprising: creating (S101) substrate data defining components to be mounted by each of the mounting machines; a first step (S102) of deciding component feeding means to be attached to each of the mounting machines based on substrate data preliminarily defining components to be mounted by each of the mounting machines; a second step (S104, S105) of determining whether or not there is within the components included in the substrate data a sole mounted component to be mounted by only one mounting machine among the multiple mounting machines ; a third step (S108) of deciding, when it is determined in the second step (S104, S105) that there is the sole mounted component, to attach component feeding means for feeding the sole mounted component or an alternative component capable of replacing the sole mounted component onto at least one mounting machine other than the only one mounting machine; and a step (S111) of attaching the component feeding means to each of the mounting machines in accordance with a result of the decision in the first step (S102) when it is determined in the second step (S104, S105) that there is not the sole mounted component, or a result of the decision in the third step (S108) when it is determined in the second step (S104, 105) that there is the sole mounted component. creating (S101) substrate data defining components to be mounted by each of the mounting machines; a first step (S102) of deciding component feeding means to be attached to each of the mounting machines based on substrate data preliminarily defining components to be mounted by each of the mounting machines; a second step (S104, S105) of determining whether or not there is within the components included in the substrate data a sole mounted component to be mounted by only one mounting machine among the multiple mounting machines ; a third step (S108) of deciding, when it is determined in the second step (S104, S105) that there is the sole mounted component, to attach component feeding means for feeding the sole mounted component or an alternative component capable of replacing the sole mounted component onto at least one mounting machine other than the only one mounting machine; and a step (S111) of attaching the component feeding means to each of the mounting machines in accordance with a result of the decision in the first step (S102) when it is determined in the second step (S104, S105) that there is not the sole mounted component, or a result of the decision in the third step (S108) when it is determined in the second step (S104, 105) that there is the sole mounted component.
A composite bicycle wheel having a composite rim comprising: a first circumferential side wall having a radial inner end and a radial outer end ; a second circumferential side wall having a radial inner end and a radial outer end ; and an outer bridge connecting the radial outer ends of the first and second circumferential side walls, characterized in that each of the first and second circumferential side walls includes a first composite body layer and a second composite body layer , and in that a body vibration suppression layer is disposed between the first and second composite body layers , wherein a first annular part of the body vibration suppression layer that is disposed in the first circumferential side wall constitutes a first suppression layer of the composite rim , and a second annular part of the body vibration suppression layer that is disposed in the second circumferential side wall constitutes a second suppression layer, wherein the first and second suppression layers of the body vibration suppression layer are softer and less rigid than the first composite body layer and the second composite body layer , and the first and second suppression layers of the body vibration suppression layer attenuate vibrations more quickly than the first composite body layer and a second composite body layer . a first circumferential side wall having a radial inner end and a radial outer end ; a second circumferential side wall having a radial inner end and a radial outer end ; and an outer bridge connecting the radial outer ends of the first and second circumferential side walls, characterized in that each of the first and second circumferential side walls includes a first composite body layer and a second composite body layer , and in that a body vibration suppression layer is disposed between the first and second composite body layers , wherein a first annular part of the body vibration suppression layer that is disposed in the first circumferential side wall constitutes a first suppression layer of the composite rim , and a second annular part of the body vibration suppression layer that is disposed in the second circumferential side wall constitutes a second suppression layer, wherein the first and second suppression layers of the body vibration suppression layer are softer and less rigid than the first composite body layer and the second composite body layer , and the first and second suppression layers of the body vibration suppression layer attenuate vibrations more quickly than the first composite body layer and a second composite body layer .
A double phase-locked loop, comprising: a first narrowband phase-locked loop including a first phase detector , and a first loop filter configured to receive a first input clock (Ref !n) at a first input of the first phase detector and to reduce phase noise having frequencies of less than 10 Hz in the first input clock; a second phase-locked loop including a second phase detector , and a second loop filter configured to receive a second input clock from a stable clock source at a first input of the second phase detector , the second input clock having a frequency close to a frequency of the first input clock such that there is a fractional offset in frequencies of not more than 200ppm, wherein a ratio between a bandwidth of the second loop filter and a bandwidth of the first loop filter is at least 10:1; a common controlled oscillator driven by a local oscillator , the common controlled oscillator being shared by the first and second phase-locked loops, the output of the common controlled oscillator providing a common output which is coupled to second inputs of the first and second phase detectors; and an adder configured to add an output of the first loop filter to an output of the second phase detector to couple the first and second phase-locked loops, wherein the second loop filter is coupled between the adder and the common controlled oscillator to provide a control signal to the common controlled oscillator . a first narrowband phase-locked loop including a first phase detector , and a first loop filter configured to receive a first input clock (Ref !n) at a first input of the first phase detector and to reduce phase noise having frequencies of less than 10 Hz in the first input clock; a second phase-locked loop including a second phase detector , and a second loop filter configured to receive a second input clock from a stable clock source at a first input of the second phase detector , the second input clock having a frequency close to a frequency of the first input clock such that there is a fractional offset in frequencies of not more than 200ppm, wherein a ratio between a bandwidth of the second loop filter and a bandwidth of the first loop filter is at least 10:1; a common controlled oscillator driven by a local oscillator , the common controlled oscillator being shared by the first and second phase-locked loops, the output of the common controlled oscillator providing a common output which is coupled to second inputs of the first and second phase detectors; and an adder configured to add an output of the first loop filter to an output of the second phase detector to couple the first and second phase-locked loops, wherein the second loop filter is coupled between the adder and the common controlled oscillator to provide a control signal to the common controlled oscillator .
A fluid dispenser device comprising: • at least one reservoir that is suitable for containing fluid to be dispensed, • a dispenser member (1; 30), • an actuator member (2; 10) that is suitable for actuating said dispenser member (1; 30), • a dispenser orifice (3; 40) via which the fluid is dispensed, • a dose counter or indicator (A), characterized in that at least a portion of said dose counter or indicator (A) is made out of a material comprising an aliphatic polyketone. • at least one reservoir that is suitable for containing fluid to be dispensed, • a dispenser member (1; 30), • an actuator member (2; 10) that is suitable for actuating said dispenser member (1; 30), • a dispenser orifice (3; 40) via which the fluid is dispensed, • a dose counter or indicator (A),
A hydrogen water generator comprising: a body including a first outlet coupled to a first inlet that is configured to receive supply water, and a second inlet coupled to a second outlet , the second outlet configured to discharge hydrogen water; a water tank assembly detachably attached to the body , the water tank assembly including a water tank and an electrode module coupled to the water tank , the water tank including a third inlet and a third outlet , wherein when the water tank assembly is attached to the body , the third inlet of the water tank couples to the first outlet of the body , and the third outlet of the water tank couples with the second inlet of the body , characterized in that the body comprises a central body , a lower body , and an upper body , the lower body extending from a lower portion of the central body and including a guide surface , wherein the water tank assembly is placed on the guide surface to be slidingly moved to be attached to the body , and the central body including the first outlet and the second inlet . a body including a first outlet coupled to a first inlet that is configured to receive supply water, and a second inlet coupled to a second outlet , the second outlet configured to discharge hydrogen water; a water tank assembly detachably attached to the body , the water tank assembly including a water tank and an electrode module coupled to the water tank , the water tank including a third inlet and a third outlet , wherein when the water tank assembly is attached to the body , the third inlet of the water tank couples to the first outlet of the body , and the third outlet of the water tank couples with the second inlet of the body , characterized in that the body comprises a central body , a lower body , and an upper body , the lower body extending from a lower portion of the central body and including a guide surface , wherein the water tank assembly is placed on the guide surface to be slidingly moved to be attached to the body , and the central body including the first outlet and the second inlet .
A cooling system for data centre, which data centre includes a plurality of servers associated to form a rack , each server being provided with heat-generating means , said system comprising: - a primary circuit , for each server , configured to allow circulation of a first thermal carrier fluid suitable for exchanging heat with said heat-generating means , wherein said primary circuit includes a heat exchange region coupled with said heat-generating means , - a plurality of second thermosyphon circuits each one associated to a respective server of said plurality and coupled to a respective primary circuit at said heat exchange region , said plurality of second thermosyphon circuits being configured to allow circulation of a second thermal carrier fluid suitable for exchanging heat with said first thermal carrier fluid, wherein each primary circuit includes a device comprising an evaporation portion placed thermally in contact with said heat-generating means and a condensation portion , said condensation portion being overlapped to said evaporation portion and placed thermally in contact with a respective second thermosyphon circuit of said plurality, the overall configuration of the system being such that said plurality of second thermosyphon circuits are in fluid communication with each other according to a parallel connection. - a primary circuit , for each server , configured to allow circulation of a first thermal carrier fluid suitable for exchanging heat with said heat-generating means , wherein said primary circuit includes a heat exchange region coupled with said heat-generating means , - a plurality of second thermosyphon circuits each one associated to a respective server of said plurality and coupled to a respective primary circuit at said heat exchange region , said plurality of second thermosyphon circuits being configured to allow circulation of a second thermal carrier fluid suitable for exchanging heat with said first thermal carrier fluid, wherein each primary circuit includes a device comprising an evaporation portion placed thermally in contact with said heat-generating means and a condensation portion , said condensation portion being overlapped to said evaporation portion and placed thermally in contact with a respective second thermosyphon circuit of said plurality, the overall configuration of the system being such that said plurality of second thermosyphon circuits are in fluid communication with each other according to a parallel connection. wherein each primary circuit includes a device comprising an evaporation portion placed thermally in contact with said heat-generating means and a condensation portion , said condensation portion being overlapped to said evaporation portion and placed thermally in contact with a respective second thermosyphon circuit of said plurality, the overall configuration of the system being such that said plurality of second thermosyphon circuits are in fluid communication with each other according to a parallel connection.
An alkyl ether derivative represented by a general formula : or a salt thereof, wherein R 1 and R 2 are the same or different, and each represent one or more groups selected from a hydrogen atom, a halogen atom, an optionally substituted C 1-6 alkyl group, an optionally substituted aryl group, an optionally substituted ar-C 1-6 alkyl group, an optionally substituted C 1-6 alkoxy group, an optionally substituted aryloxy group, an optionally substituted C 1-6 alkylthio group, an optionally substituted arylthio group, an optionally substituted C 2-6 alkenyl group, an optionally substituted C 2-6 alkenyloxy group, an optionally substituted C 1-6 alkylamino group, an optionally substituted C 1-6 alkylsulfonyl group, an optionally substituted arylsulfonyl group, an optionally substituted carbamoyl group, an optionally substituted heterocyclic group, an optionally protected amino group, an optionally protected hydroxyl group, an optionally protected carboxyl group, a nitro group and an oxo group; R 3 represents an optionally substituted C 1-6 alkylamino group, an optionally protected amino group or an optionally protected hydroxyl group; and m and n are the same or different, and each represent an integer from 1 to 6 for use in enhancing post-nerve injury rehabilitation.
A method for tuning setting values of a mass spectrometer to a molecular mass for a mass spectrometric determination of a mass peak, comprising the following steps: predefining a first setting value (M1) corresponding to a molecular mass for the mass spectrometer; picking up the associated signal amplitude (A1), predefining a second setting value (M2) corresponding to a molecular mass and differing from the first setting value, measuring the associated second signal amplitude (A2), predefining a third setting value (M3) corresponding to a molecular mass and differing from the first (M1) and the second (M2) setting value, measuring the associated third signal amplitude (A3), characterized by obtaining a square function containing the measured amplitude value as y-values and the predefined setting values as x-values, determining the maximum of the square function, wherein the setting value to be determined for the molecular mass is obtained from the x-value of the maximum, wherein after the measurement of the three amplitude values (A1, A2, A3) and prior to the determination of the parabola it is checked whether the second amplitude value (A2) is larger than the first (A1) and the third amplitude value (A3), wherein, if necessary, the measurements are repeated until the second amplitude value (A2) is larger than the first (A1) and the third amplitude value (A3) of a measurement. predefining a first setting value (M1) corresponding to a molecular mass for the mass spectrometer; picking up the associated signal amplitude (A1), predefining a second setting value (M2) corresponding to a molecular mass and differing from the first setting value, measuring the associated second signal amplitude (A2), predefining a third setting value (M3) corresponding to a molecular mass and differing from the first (M1) and the second (M2) setting value, measuring the associated third signal amplitude (A3), characterized by obtaining a square function containing the measured amplitude value as y-values and the predefined setting values as x-values, determining the maximum of the square function, wherein the setting value to be determined for the molecular mass is obtained from the x-value of the maximum, wherein after the measurement of the three amplitude values (A1, A2, A3) and prior to the determination of the parabola it is checked whether the second amplitude value (A2) is larger than the first (A1) and the third amplitude value (A3), wherein, if necessary, the measurements are repeated until the second amplitude value (A2) is larger than the first (A1) and the third amplitude value (A3) of a measurement.
A measurement gap determination method, comprising: receiving , by a User Equipment, UE , measurement configuration information transmitted from a network side device , characterized in that the measurement configuration information is measurement configuration information of a Synchronization Signal, SS, block actually transmitted on at least one Bandwidth Part, BWP, and the UE operates at BWP on which no SS block is transmitted when the UE receives the measurement configuration information; determining , by the UE , a measurement gap for measurement of the SS block on the at least one BWP in accordance with the measurement configuration information; and measuring , by the UE , the SS block on the at least one BWP in the measurement gap, wherein the measurement configuration information comprises at least one of: an index of each of the at least one BWP on which the SS block is actually transmitted, a frequency position of each of the at least one BWP on which the SS block is actually transmitted, and a transmission configuration of the SS block actually transmitted on each of the at least one BWP; wherein the transmission configuration comprises at least one of: an index of the actually-transmitted SS block in a SS block set, a time position of the actually-transmitted SS block in the SS block set, a transmission period of the SS block set, a time offset of the SS block set, a carrier spacing of the SS block, and a Cyclic Prefix, CP, of the SS block, wherein the SS block set is a SS block set to which each SS block actually transmitted on the at least one BWP belongs. receiving , by a User Equipment, UE , measurement configuration information transmitted from a network side device , characterized in that the measurement configuration information is measurement configuration information of a Synchronization Signal, SS, block actually transmitted on at least one Bandwidth Part, BWP, and the UE operates at BWP on which no SS block is transmitted when the UE receives the measurement configuration information; determining , by the UE , a measurement gap for measurement of the SS block on the at least one BWP in accordance with the measurement configuration information; and measuring , by the UE , the SS block on the at least one BWP in the measurement gap, wherein the measurement configuration information comprises at least one of: an index of each of the at least one BWP on which the SS block is actually transmitted, a frequency position of each of the at least one BWP on which the SS block is actually transmitted, and a transmission configuration of the SS block actually transmitted on each of the at least one BWP; wherein the transmission configuration comprises at least one of: an index of the actually-transmitted SS block in a SS block set, a time position of the actually-transmitted SS block in the SS block set, a transmission period of the SS block set, a time offset of the SS block set, a carrier spacing of the SS block, and a Cyclic Prefix, CP, of the SS block, wherein the SS block set is a SS block set to which each SS block actually transmitted on the at least one BWP belongs.
Refrigerated sales cabinet , comprising: a cabinet body comprising a roof portion ; and a refrigerated sales space for storing goods to be presented therein; a ceiling panel limiting the top side of the refrigerated sales space ; at least one transparent door arranged in front of the refrigerated sales space ; wherein an upper air duct is formed between the roof portion and the ceiling panel , the upper air duct extending from a rear portion to a front end element of the upper air duct and to an upper cooling air supply grille ; the upper air duct providing a cooling air supply air flow which forms a cooling air curtain extending from the upper cooling air supply grille to a bottom front portion of the refrigerated sales cabinet ; wherein at least one condensate prevention air flow channel extends through the front end element of the upper air duct or between an upper panel of the roof portion and the front end element of the upper air duct , such that a condensate prevention air flow is branched off the cooling air supply air flow , flows through the condensate prevention air flow channel , and impinges onto a baffle of the roof portion of the cabinet body ; and wherein the baffle is positioned in front of the front end element of the upper air duct , forms the front end of the roof portion of the cabinet body and has a curved or inclined underside, such that the condensate prevention air flow is directed to the upper portion of the inner surface of the at least one transparent door . a cabinet body comprising a roof portion ; and a refrigerated sales space for storing goods to be presented therein; a ceiling panel limiting the top side of the refrigerated sales space ; at least one transparent door arranged in front of the refrigerated sales space ; wherein an upper air duct is formed between the roof portion and the ceiling panel , the upper air duct extending from a rear portion to a front end element of the upper air duct and to an upper cooling air supply grille ; the upper air duct providing a cooling air supply air flow which forms a cooling air curtain extending from the upper cooling air supply grille to a bottom front portion of the refrigerated sales cabinet ; wherein at least one condensate prevention air flow channel extends through the front end element of the upper air duct or between an upper panel of the roof portion and the front end element of the upper air duct , such that a condensate prevention air flow is branched off the cooling air supply air flow , flows through the condensate prevention air flow channel , and impinges onto a baffle of the roof portion of the cabinet body ; and wherein the baffle is positioned in front of the front end element of the upper air duct , forms the front end of the roof portion of the cabinet body and has a curved or inclined underside, such that the condensate prevention air flow is directed to the upper portion of the inner surface of the at least one transparent door .