mhurhangee/ep-ind-claims huggingface dataset:
A gear pump system for an ice cream freezer, comprising a gear pump comprising a pump casing, an inlet for receiving a liquid food product of ice cream mix, an outlet for transferring the ice cream mix into a freezing cylinder of the ice cream freezer, wherein the inlet being connected to an impeller driving a star wheel which in turn is connected to the outlet, wherein the pump is closed by supplying a closing air pressure onto a moveable pump cover of the pump via at least one hole (191, 192) provided straight through the pump casing, thereby moving said moveable pump cover against the star wheel, and a control unit for supplying a calculated closing air pressure (P CLOSE) to the pump by means of the air pressure regulator via the at least one hole (191, 192) in the pump casing, wherein the control unit is configured to: receive a first measure of liquid food product supply pressure (P IN, P1) at the inlet of the pump, receive a second measure of liquid food product outlet pressure (P OUT, P2) at the outlet of the pump, calculate a closing air pressure (P CLOSE) being determined by the differential pressure between the liquid food product outlet pressure (P OUT, P2) and the liquid food product supply pressure (P IN, P1) across the pump, supply the calculated closing air pressure (P CLOSE) to the moveable pump cover by means of an air pressure regulator via the at least one hole (191, 192) in the pump casing, thereby forcing the moveable pump cover against the star wheel thereby closing the pump to adjust the closing distance between the star wheel and impeller. receive a first measure of liquid food product supply pressure (P IN, P1) at the inlet of the pump, receive a second measure of liquid food product outlet pressure (P OUT, P2) at the outlet of the pump, calculate a closing air pressure (P CLOSE) being determined by the differential pressure between the liquid food product outlet pressure (P OUT, P2) and the liquid food product supply pressure (P IN, P1) across the pump, supply the calculated closing air pressure (P CLOSE) to the moveable pump cover by means of an air pressure regulator via the at least one hole (191, 192) in the pump casing, thereby forcing the moveable pump cover against the star wheel thereby closing the pump to adjust the closing distance between the star wheel and impeller.
A monitoring system for determining infant orientation information during bottle feeding, comprising: a sensor arrangement for obtaining bottle orientation information and movement information in respect of the feeding bottle during feeding; and a processor adapted to identify, from signals of the sensor arrangement, infant orientation information in respect of the infant; and an output interface for providing output information dependent on the infant orientation information, characterised in that the output information comprising an angle of tilt of a body axis of the infant relative to the vertical and/or horizontal. a sensor arrangement for obtaining bottle orientation information and movement information in respect of the feeding bottle during feeding; and a processor adapted to identify, from signals of the sensor arrangement, infant orientation information in respect of the infant; and an output interface for providing output information dependent on the infant orientation information, characterised in that the output information comprising an angle of tilt of a body axis of the infant relative to the vertical and/or horizontal.
A method for determining a gain spectrum, GS, of a Raman amplifier located downstream of an optical fibre amplifier in a WDM transmission system, wherein channel signals are attenuated in order to determine the gain spectrum, GS, so that a high amplified spontaneous emission, ASE, occurs at the output of the optical amplifier, a first spectrum, SP1, is measured with the Raman pumping source for the Raman amplifier switched off and the pumping source for the optical amplifier switched on, a second spectrum, SP2, is measured with the Raman pumping source for the Raman amplifier switched on and the pumping source for the optical amplifier switched off, a third spectrum, SP3, is measured with the Raman pumping source for the Raman amplifier switched on and the pumping source for the optical amplifier switched on and the gain spectrum, GS, of the Raman amplifier is calculated according to the following principle: GS = SP ⁢ 3 - SP ⁢ 2 SP ⁢ 1.
Aboard edge connector to which a board is inserted along an oblique direction relative to its fixed posture, the connector comprising: a main body; a plurality of contacts arranged in juxtaposition on the main body along a direction perpendicular to an insertion direction of the board; and a cover member covering the main body; the main body including: a base portion on which the multiple contacts are juxtaposed; and a pair of arm portions extending from the base portion along opposed lateral edges of the board which assumes a fixed posture; the cover member including: an attaching portion covering the base portion and a pair of arm members covering lateral faces of the pair of arm portions, the pair of arm members being formed integral with the attaching portion, characterized in that each of the arm members includes a bottom portion extending inward and continuously from the attaching portion to a vicinity of an end portion opposite to the attaching portion. a main body; a plurality of contacts arranged in juxtaposition on the main body along a direction perpendicular to an insertion direction of the board; and a cover member covering the main body; the main body including: a base portion on which the multiple contacts are juxtaposed; and a pair of arm portions extending from the base portion along opposed lateral edges of the board which assumes a fixed posture; a base portion on which the multiple contacts are juxtaposed; and a pair of arm portions extending from the base portion along opposed lateral edges of the board which assumes a fixed posture; the cover member including: an attaching portion covering the base portion and a pair of arm members covering lateral faces of the pair of arm portions, the pair of arm members being formed integral with the attaching portion, an attaching portion covering the base portion and a pair of arm members covering lateral faces of the pair of arm portions, the pair of arm members being formed integral with the attaching portion, characterized in that each of the arm members includes a bottom portion extending inward and continuously from the attaching portion to a vicinity of an end portion opposite to the attaching portion.
A compound comprising a moiety, selected from the group consisting of poly(amino acid) label moieties, non-poly(amino acid) label moieties, poly(amino acid) immunogenic carriers, and non-poly(amino acid) immunogenic carriers linked to 2-ethylidene-1,5-dimethyl-3,3-diphenylpyrrolidine at the 3-position of one of the phenyl rings.
A method for producing a rail comprising: hot rolling a steel raw material to obtain a rail, the steel raw material having a chemical composition containing, in mass%, C: 0.70 % to 0.85 %, Si: 0.1 % to 1.5 %, Mn: 0.4 % to 1.5 %, P: 0.035 % or less, S: 0.010 % or less, and Cr: 0.05 % to 1.50 %, optionally, in mass%, at least one selected from the group consisting of V: 0.30 % or less, Cu: 1.0 % or less, Ni: 1.0 % or less, Nb: 0.05 % or less, Mo: 0.5 % or less, Al: 0.07 % or less, W: 1.0 % or less, B: 0.005 % or less, and Ti: 0.05 % or less, with the balance being Fe and inevitable impurities; straightening the rail with a load of 490 kN (50 tf) or more; and subsequently subjecting the rail to heat treatment in which the rail is held in a temperature range of 150 °C or more and 400 °C or less for 0.5 hours or more and 10 hours or less. hot rolling a steel raw material to obtain a rail, the steel raw material having a chemical composition containing, in mass%, C: 0.70 % to 0.85 %, Si: 0.1 % to 1.5 %, Mn: 0.4 % to 1.5 %, P: 0.035 % or less, S: 0.010 % or less, and Cr: 0.05 % to 1.50 %, optionally, in mass%, at least one selected from the group consisting of V: 0.30 % or less, Cu: 1.0 % or less, Ni: 1.0 % or less, Nb: 0.05 % or less, Mo: 0.5 % or less, Al: 0.07 % or less, W: 1.0 % or less, B: 0.005 % or less, and Ti: 0.05 % or less, with the balance being Fe and inevitable impurities; straightening the rail with a load of 490 kN (50 tf) or more; and subsequently subjecting the rail to heat treatment in which the rail is held in a temperature range of 150 °C or more and 400 °C or less for 0.5 hours or more and 10 hours or less.
A blow molding device, comprising: a metal mold used for blow molding; and a blow nozzle configured to tightly communicate with a mouth tubular portion of a bottomed tubular preform, the device being adapted for using a liquid as a pressure medium being supplied into the preform through the blow nozzle, wherein the blow nozzle is provided, at a lower end portion thereof, with an engaging tubular piece configured to be inserted into the mouth tubular portion, and the engaging tubular piece has a length by which a lower end of the engaging tubular piece extends further downward than a neck ring in a state where the blow nozzle is in communication with the mouth tubular portion, the neck ring being provided around a lower end of the mouth tubular portion, the blow nozzle is provided, on an outer circumferential wall thereof, with a circumferential stepped portion whose diameter is decreased toward a bottom thereof, and the blow nozzle can be brought into the tight communication with the mouth tubular portion as a result of abutment between the circumferential stepped portion and an upper end surface of the mouth tubular portion via a seal member characterized in that the seal member is an O-ring. a metal mold used for blow molding; and a blow nozzle configured to tightly communicate with a mouth tubular portion of a bottomed tubular preform, the device being adapted for using a liquid as a pressure medium being supplied into the preform through the blow nozzle, wherein the blow nozzle is provided, at a lower end portion thereof, with an engaging tubular piece configured to be inserted into the mouth tubular portion, and the engaging tubular piece has a length by which a lower end of the engaging tubular piece extends further downward than a neck ring in a state where the blow nozzle is in communication with the mouth tubular portion, the neck ring being provided around a lower end of the mouth tubular portion, the blow nozzle is provided, on an outer circumferential wall thereof, with a circumferential stepped portion whose diameter is decreased toward a bottom thereof, and the blow nozzle can be brought into the tight communication with the mouth tubular portion as a result of abutment between the circumferential stepped portion and an upper end surface of the mouth tubular portion via a seal member characterized in that the seal member is an O-ring.
A method of controlling a camera system on a vehicle, comprising: determining, by a processor, a duty status of a driver of the vehicle, wherein the duty status is one of on duty, on duty driving, off duty, off duty driving, sleeper berth or unknown, the duty status being automatically obtained from a duty status application that keeps track automatically of the duty status of a driver in an electronic log tracking a number of hours the driver has driven; obtaining, by a processor, from a terrestrial and/or satellite-based positioning system geolocation information of the vehicle; obtaining, by a processor, one or more location that are identified as restricted areas; determining, by a processor, whether the vehicle is in a restricted area using the obtained geolocation information of the vehicle;applying, by the processor, one or more rules based at least upon the duty status of the driver for determining a recording status of at least one interior-recording camera of the camera system, wherein the recording status includes an on status corresponding to recording and an off status corresponding to not recording; and in response to determining that the vehicle is in a restricted area using the obtained geolocation information of the vehicle applying, by the processor, a rule to set the recording status to the off status; controlling, by the processor, the recording status of the at least one interior-recording camera based on the one or more rules, wherein the camera system records activities inside the vehicle. determining, by a processor, a duty status of a driver of the vehicle, wherein the duty status is one of on duty, on duty driving, off duty, off duty driving, sleeper berth or unknown, the duty status being automatically obtained from a duty status application that keeps track automatically of the duty status of a driver in an electronic log tracking a number of hours the driver has driven; obtaining, by a processor, from a terrestrial and/or satellite-based positioning system geolocation information of the vehicle; obtaining, by a processor, one or more location that are identified as restricted areas; determining, by a processor, whether the vehicle is in a restricted area using the obtained geolocation information of the vehicle;applying, by the processor, one or more rules based at least upon the duty status of the driver for determining a recording status of at least one interior-recording camera of the camera system, wherein the recording status includes an on status corresponding to recording and an off status corresponding to not recording; and in response to determining that the vehicle is in a restricted area using the obtained geolocation information of the vehicle applying, by the processor, a rule to set the recording status to the off status; controlling, by the processor, the recording status of the at least one interior-recording camera based on the one or more rules, wherein the camera system records activities inside the vehicle.
Accumulator comprising: - a main cylindrical housing having a closed first axial end and a second axial end; - a piston arranged in the main cylindrical housing and sealed to the inner surface of the main cylindrical housing, which piston is movable in axial direction and provides with the main cylindrical housing and the closed first axial end of the main cylindrical housing a variable accumulating space; - urging means arranged between the piston and the second axial end of the main cylindrical housing for urging the piston towards the first axial end of the main cylindrical housing; - a fluid supply opening arranged in the first axial end of the main cylindrical housing, which fluid supply opening is in fluid connection with the variable accumulating space; and - a protective cylindrical housing having a first and a second axial end, wherein the protective cylindrical housing is arranged concentrically with and spaced apart from the main cylindrical housing, wherein the protective cylindrical housing is arranged with its first axial end to the first axial end of the main cylindrical housing and wherein the second axial end of the protective cylindrical housing is closed and spaced apart from the second axial end of the main cylindrical housing, wherein a hole is arranged in the protective cylindrical housing, preferably in the closed second axial end; characterized by, a one way valve which is arranged in the hole, wherein the space between the protective cylindrical housing and the main cylindrical housing is vacuumized or a fire extinguishing substance, such as an inert gas or an expansive foam, is arranged in the space between the protective cylindrical housing and the main cylindrical housing. - a main cylindrical housing having a closed first axial end and a second axial end; - a piston arranged in the main cylindrical housing and sealed to the inner surface of the main cylindrical housing, which piston is movable in axial direction and provides with the main cylindrical housing and the closed first axial end of the main cylindrical housing a variable accumulating space; - urging means arranged between the piston and the second axial end of the main cylindrical housing for urging the piston towards the first axial end of the main cylindrical housing; - a fluid supply opening arranged in the first axial end of the main cylindrical housing, which fluid supply opening is in fluid connection with the variable accumulating space; and - a protective cylindrical housing having a first and a second axial end, wherein the protective cylindrical housing is arranged concentrically with and spaced apart from the main cylindrical housing, wherein the protective cylindrical housing is arranged with its first axial end to the first axial end of the main cylindrical housing and wherein the second axial end of the protective cylindrical housing is closed and spaced apart from the second axial end of the main cylindrical housing, wherein a hole is arranged in the protective cylindrical housing, preferably in the closed second axial end;
Procedure to regulate the drip quantity of a filling plant where the drip quantity is captured during normal operation by averaging n filling operations, wherein n ≥ 3, characterized in that after a plant signal that signals changes to the filling conditions the drip quantity is captured by averaging m < n filling operations, wherein the number m is dynamically increased from 1 to n after the plant signal.
A manufacturing method for an air bridge structure, characterized by comprising: providing a substrate and forming a first photoresist structure on the substrate, the first photoresist structure comprising a first photoresist layer and a second photoresist layer, the first photoresist structure being provided with at least one first opening running through the first photoresist layer and the second photoresist layer, and the first opening comprising a first sub-opening that runs through the second photoresist layer and that comprises an undercut structure and a second sub-opening that runs through the first photoresist layer; depositing an inorganic bridge supporting material layer on the substrate on which the first photoresist structure is formed, and stripping the first photoresist structure to form a bridge supporting structure located at the first opening; forming a second photoresist structure on a side of the substrate on which the bridge supporting structure is formed, the second photoresist structure comprising a third photoresist layer, the second photoresist structure being provided with at least one second opening running through the third photoresist layer, the bridge supporting structure being located in the second opening, and the second opening being used for forming the air bridge structure; and depositing an air bridge material layer on the substrate on which the second photoresist structure is formed, stripping the second photoresist structure, and releasing the bridge supporting structure to obtain the air bridge structure. providing a substrate and forming a first photoresist structure on the substrate, the first photoresist structure comprising a first photoresist layer and a second photoresist layer, the first photoresist structure being provided with at least one first opening running through the first photoresist layer and the second photoresist layer, and the first opening comprising a first sub-opening that runs through the second photoresist layer and that comprises an undercut structure and a second sub-opening that runs through the first photoresist layer; depositing an inorganic bridge supporting material layer on the substrate on which the first photoresist structure is formed, and stripping the first photoresist structure to form a bridge supporting structure located at the first opening; forming a second photoresist structure on a side of the substrate on which the bridge supporting structure is formed, the second photoresist structure comprising a third photoresist layer, the second photoresist structure being provided with at least one second opening running through the third photoresist layer, the bridge supporting structure being located in the second opening, and the second opening being used for forming the air bridge structure; and depositing an air bridge material layer on the substrate on which the second photoresist structure is formed, stripping the second photoresist structure, and releasing the bridge supporting structure to obtain the air bridge structure.
A method performed by a first network node in a wireless communications network, for handling media channels during an ongoing media session, wherein the ongoing media session is a session comprising a first UE, a second UE and the first network node, the method comprising: - obtaining, from the first UE, a voice instruction comprising a keyword for invoking a third party service within the media session, - detecting the keyword for invoking the third party service within the media session, - modifying, based on the detection of the keyword, a media channel between the first network node and the second UE to be silent, and - modifying, based on the detection of the keyword, a media channel between the first network node and a third party network device to be unsilent. - obtaining, from the first UE, a voice instruction comprising a keyword for invoking a third party service within the media session, - detecting the keyword for invoking the third party service within the media session, - modifying, based on the detection of the keyword, a media channel between the first network node and the second UE to be silent, and - modifying, based on the detection of the keyword, a media channel between the first network node and a third party network device to be unsilent.
A nacelle for a turbofan aircraft propulsion assembly, comprising an internal structure, an external structure and a heat exchanger, the internal structure and the external structure delimiting radially therebetween a conduit for flowing a first fluid intended to form a secondary flow, the heat exchanger comprising an outer cowl and a transfer module, the transfer module including a circuit for circulating a second fluid, the heat exchanger being connected to one of the internal structure and the external structure so as to be able to transmit heat from the second fluid to the first fluid, this nacelle being characterised in that it comprises an actuator configured to displace the outer cowl and the transfer module of the heat exchanger between: - a retracted position in which the transfer module is received in a housing of the internal or external structure to which the heat exchanger is connected and in which the outer cowl seals an opening of this housing so as to reconstitute a delimiting surface (41, 51) of the flow conduit, - a deployed position in which the transfer module extends into the flow conduit so as to be able to be crossed by a fraction of the secondary flow and thus transmit heat from the second fluid to first fluid, the heat exchanger comprising an inner wall, the transfer module extending radially between the inner wall and the outer cowl, the inner wall of the heat exchanger being configured to seal said opening of the housing of the internal or external structure to which the heat exchanger is connected so as to reconstitute said delimiting surface (41, 51) of the flow conduit when the heat exchanger is in the deployed position. - a retracted position in which the transfer module is received in a housing of the internal or external structure to which the heat exchanger is connected and in which the outer cowl seals an opening of this housing so as to reconstitute a delimiting surface (41, 51) of the flow conduit, - a deployed position in which the transfer module extends into the flow conduit so as to be able to be crossed by a fraction of the secondary flow and thus transmit heat from the second fluid to first fluid,