mhurhangee/patent-ind-claim-en huggingface dataset:
A temperature controller for a battery , the temperature controller comprising: a temperature control part configured to control a temperature of the battery by a phase change of a heat medium between a liquid phase and a gas phase; a gas phase flow passage arranged so that a gas phase heat medium flowing out of the temperature control part flows through the gas phase flow passage ; a heat medium cooling part configured to condense the gas phase heat medium flowing in from the gas phase flow passage ; and a liquid phase flow passage arranged so that a liquid phase heat medium flows from the heat medium cooling part to the temperature control part through the liquid phase flow passage , characterized in that a lower end of the heat medium cooling part is positioned above an upper end of the temperature control part , such that a liquid surface of the liquid phase heat medium in the heat medium cooling part is positioned above a liquid surface of the liquid phase heat medium in the temperature control part ; and in that the temperature control part extends from a first end part , to which an end part of the gas phase flow passage is connected, to a second end part , to which an end part of the liquid phase flow passage is connected, and is inclined so that the first end part is higher than the second end part . a temperature control part configured to control a temperature of the battery by a phase change of a heat medium between a liquid phase and a gas phase; a gas phase flow passage arranged so that a gas phase heat medium flowing out of the temperature control part flows through the gas phase flow passage ; a heat medium cooling part configured to condense the gas phase heat medium flowing in from the gas phase flow passage ; and a liquid phase flow passage arranged so that a liquid phase heat medium flows from the heat medium cooling part to the temperature control part through the liquid phase flow passage , characterized in that a lower end of the heat medium cooling part is positioned above an upper end of the temperature control part , such that a liquid surface of the liquid phase heat medium in the heat medium cooling part is positioned above a liquid surface of the liquid phase heat medium in the temperature control part ; and in that the temperature control part extends from a first end part , to which an end part of the gas phase flow passage is connected, to a second end part , to which an end part of the liquid phase flow passage is connected, and is inclined so that the first end part is higher than the second end part .
A method for producing an exhaust gas purifying catalyst for purifying exhaust gas discharged from an internal combustion engine, the method comprising: a step of preparing a wall flow type substrate in which an inflow-side cell having an open at an exhaust gas inflow-side end, and an outflow-side cell adjacent to the inflow-side cell and having an open exhaust gas outflow-side end are separated by a porous partition wall; a coating step of coating a catalyst slurry containing a catalytic metal on the partition wall; a drying step of introducing gas into the wall flow type substrate to dry the coated catalyst slurry; and a firing step of firing the dried catalyst slurry to form a catalyst layer, wherein, by introducing the gas from the exhaust gas inflow-side end or the exhaust gas outflow-side end, or alternately from both the exhaust gas inflow-side end and the exhaust gas outflow-side end in the drying step, the dried catalyst slurry is biasedly located toward a side of the inflow-side cell or the outflow-side cell into which the gas has been introduced, in a thickness direction of the partition wall. a step of preparing a wall flow type substrate in which an inflow-side cell having an open at an exhaust gas inflow-side end, and an outflow-side cell adjacent to the inflow-side cell and having an open exhaust gas outflow-side end are separated by a porous partition wall; a coating step of coating a catalyst slurry containing a catalytic metal on the partition wall; a drying step of introducing gas into the wall flow type substrate to dry the coated catalyst slurry; and a firing step of firing the dried catalyst slurry to form a catalyst layer, wherein, by introducing the gas from the exhaust gas inflow-side end or the exhaust gas outflow-side end, or alternately from both the exhaust gas inflow-side end and the exhaust gas outflow-side end in the drying step, the dried catalyst slurry is biasedly located toward a side of the inflow-side cell or the outflow-side cell into which the gas has been introduced, in a thickness direction of the partition wall.
A method of calculating round trip time, RTT, between a first wireless device and a second wireless device, the method comprising: sending a downlink, DL, trigger frame from the first wireless device to a plurality of second wireless devices, wherein the DL trigger frame causes one or more of the plurality of second wireless devices to respond by sending a respective uplink, UL, Multiple-Input Multiple-Output, MIMO, frame and wherein the DL trigger frame comprises an indicated location for a synchronization sequence within the respective UL MIMO frame; determining , at the first wireless device, a first time, wherein the first time corresponds to a time at which the DL trigger frame was sent; receiving , at the first wireless device, a UL MIMO frame from a second wireless device of the plurality of second wireless devices, wherein the UL MIMO frame from the second wireless device has the synchronization sequence at the indicated location; determining , at the first wireless device, a second time corresponding to a time at which the synchronisation sequence in the UL MIMO frame was received; and determining , at the first wireless device, the RTT between the first wireless device and the second wireless device based on the determined first time, the determined second time and a determined short inter-frame spacing, SIFS, value of the second wireless device. sending a downlink, DL, trigger frame from the first wireless device to a plurality of second wireless devices, wherein the DL trigger frame causes one or more of the plurality of second wireless devices to respond by sending a respective uplink, UL, Multiple-Input Multiple-Output, MIMO, frame and wherein the DL trigger frame comprises an indicated location for a synchronization sequence within the respective UL MIMO frame; determining , at the first wireless device, a first time, wherein the first time corresponds to a time at which the DL trigger frame was sent; receiving , at the first wireless device, a UL MIMO frame from a second wireless device of the plurality of second wireless devices, wherein the UL MIMO frame from the second wireless device has the synchronization sequence at the indicated location; determining , at the first wireless device, a second time corresponding to a time at which the synchronisation sequence in the UL MIMO frame was received; and determining , at the first wireless device, the RTT between the first wireless device and the second wireless device based on the determined first time, the determined second time and a determined short inter-frame spacing, SIFS, value of the second wireless device.
A measurement device for measuring concrete curing, the measurement device comprises: - a closed air-filled chamber ; - chamber walls being air and water vapour impermeable; - the chamber walls comprise a flow channel ; - the flow channel comprises a first barrier element arranged to define a closed air-filled chamber space together with the chamber walls , the first barrier element being air and water vapour permeable, the flow channel being between the closed air-filled chamber space inside the closed air-filled chamber and the outside of the closed air filled chamber ; and - a pressure sensor provided inside the air-filed chamber space of the closed air-filled chamber , characterized in that : - the flow channel comprises a second barrier element arranged to the flow channel outside closed air-filled chamber space and at distance from the first barrier element such that a closed first air gap is provided between the first and second barrier elements , the second barrier element being air and water vapour permeable for providing flow path for air and water vapour flow into the closed air-filled chamber space and out of closed air-filled chamber space through flow channel and the first and second barrier elements and via the closed first air gap ; and - the first and second barrier elements (20, 30 40, 41) are made of porous material for providing air and water vapour permeability. - a closed air-filled chamber ; - chamber walls being air and water vapour impermeable; - the chamber walls comprise a flow channel ; - the flow channel comprises a first barrier element arranged to define a closed air-filled chamber space together with the chamber walls , the first barrier element being air and water vapour permeable, the flow channel being between the closed air-filled chamber space inside the closed air-filled chamber and the outside of the closed air filled chamber ; and - a pressure sensor provided inside the air-filed chamber space of the closed air-filled chamber , - the flow channel comprises a second barrier element arranged to the flow channel outside closed air-filled chamber space and at distance from the first barrier element such that a closed first air gap is provided between the first and second barrier elements , the second barrier element being air and water vapour permeable for providing flow path for air and water vapour flow into the closed air-filled chamber space and out of closed air-filled chamber space through flow channel and the first and second barrier elements and via the closed first air gap ; and - the first and second barrier elements (20, 30 40, 41) are made of porous material for providing air and water vapour permeability.
A method of forming a ceramic matrix composite (CMC), the method comprising: applying a boron nitride (BN) aerogel to a fibrous material to form a pretreated fibrous material; depositing, using chemical vapor infiltration (CVI), a BN interface coating (IFC) on the pretreated fibrous material; and depositing a matrix on the BN IFC and the pretreated fibrous material. applying a boron nitride (BN) aerogel to a fibrous material to form a pretreated fibrous material; depositing, using chemical vapor infiltration (CVI), a BN interface coating (IFC) on the pretreated fibrous material; and depositing a matrix on the BN IFC and the pretreated fibrous material.
Method for resetting elevator control from inspection mode to normal operation mode, which method comprises following sequence of steps: - during inspection mode the inspection switch in the pit inspection station is turned from an inspection position to normal operation position, - exiting the pit and closing a pit access door having a door lock connected with a reset switch for the inspection mode of the elevator, which door lock having a lock part (18; 50) movable between a lock position and an open position and whereby the reset switch is integrated in said door lock to be operated by the movement of the movable lock part, - after closing the access door, operating manually the door lock in a given moving sequence to cause the reset switch to change its status according to the moving sequence of the door lock, - reading the switching state of the reset switch, - turning the elevator from inspection mode to normal operation mode when the status of the reset switch changes according to the moving sequence, and wherein a door contact of the access door is observed on its open or closed status and the reset of the elevator into normal operation mode is allowed only when at the end of the moving sequence the door contact is in closed status, which is realized by preventing the movement of the lock part (18; 50) into its lock position by a blocking mechanism as long as the access door is not closed. - during inspection mode the inspection switch in the pit inspection station is turned from an inspection position to normal operation position, - exiting the pit and closing a pit access door having a door lock connected with a reset switch for the inspection mode of the elevator, which door lock having a lock part (18; 50) movable between a lock position and an open position and whereby the reset switch is integrated in said door lock to be operated by the movement of the movable lock part, - after closing the access door, operating manually the door lock in a given moving sequence to cause the reset switch to change its status according to the moving sequence of the door lock, - reading the switching state of the reset switch, - turning the elevator from inspection mode to normal operation mode when the status of the reset switch changes according to the moving sequence, and
A process for producing a stable three-dimensional fabric comprising : 1) providing a first fabric formed from braided reinforcing fibers, 2) providing at least one nonwoven web formed from thermoplastic fibers, having a softening point lower than said reinforcing fibers, on at least one side of said first fabric to form a structure, 3) placing said structure of step 2 in a mold, 4) heating said structure in said mold to a temperature between the softening temperature and melting temperature of said nonwoven web, and 5) cooling said structure in said mold, 6) removing said structure from said mold to thereby provide a stable three-dimensional fabric.
A system for monitoring blood flow in a patient , the system comprising: a first unit comprising a single-element ultrasound transducer having a planar face with a width that is large compared with that of traditional focused ultrasound transducers, and fastening means suitable for fastening the first unit to the patient ; a controller subsystem ; and a monitoring subsystem, wherein the controller subsystem is configured to: control the single-element ultrasound transducer to transmit plane-wave pulses into the patient in a propagation direction; sample reflections of the plane-wave pulses, received at the single-element ultrasound transducer , from a region within the patient, to generate pulse-Doppler response signals; and process the pulse-Doppler response signals to estimate a series of values, over time, of a measure proportional, but not equal, to the total blood volume flow passing through the region, and wherein the monitoring subsystem is configured to monitor the series of values over time and to generate a signal if a set of one or more of the values satisfies a predetermined criterion. a first unit comprising a single-element ultrasound transducer having a planar face with a width that is large compared with that of traditional focused ultrasound transducers, and fastening means suitable for fastening the first unit to the patient ; a controller subsystem ; and a monitoring subsystem, control the single-element ultrasound transducer to transmit plane-wave pulses into the patient in a propagation direction; sample reflections of the plane-wave pulses, received at the single-element ultrasound transducer , from a region within the patient, to generate pulse-Doppler response signals; and process the pulse-Doppler response signals to estimate a series of values, over time, of a measure proportional, but not equal, to the total blood volume flow passing through the region, and wherein the monitoring subsystem is configured to monitor the series of values over time and to generate a signal if a set of one or more of the values satisfies a predetermined criterion.
A power conversion device comprising a plurality of cell converters connected in series to each other, wherein each cell converter comprises: a main circuit including switching elements and a capacitor ; a pair of external terminals (X1, X2) for leading the main circuit to outside; a bypass unit capable of making a short circuit between the pair of external terminals (X1, X2); a gate drive device for performing ON/OFF control of the switching elements , thereby for performing power conversion between the pair of external terminals (X1, X2) and the capacitor ; and characterised by comprising a self-power-feeding device for receiving a voltage of the capacitor and for feeding a power to the gate drive device , the power conversion device comprising: - an energy storage unit for receiving and storing voltage of the self-power-feeding device ; and - a bypass unit drive device for causing the bypass unit to perform a short-circuiting operation by power stored in the energy storage unit when a voltage of the self-power-feeding device becomes smaller than a predetermined lower limit value; wherein the bypass unit has a latch function for, after the short-circuiting operation has been performed, retaining the short-circuiting operation. wherein each cell converter comprises: a main circuit including switching elements and a capacitor ; a pair of external terminals (X1, X2) for leading the main circuit to outside; a bypass unit capable of making a short circuit between the pair of external terminals (X1, X2); a gate drive device for performing ON/OFF control of the switching elements , thereby for performing power conversion between the pair of external terminals (X1, X2) and the capacitor ; and characterised by comprising a self-power-feeding device for receiving a voltage of the capacitor and for feeding a power to the gate drive device , the power conversion device comprising: - an energy storage unit for receiving and storing voltage of the self-power-feeding device ; and - a bypass unit drive device for causing the bypass unit to perform a short-circuiting operation by power stored in the energy storage unit when a voltage of the self-power-feeding device becomes smaller than a predetermined lower limit value; - an energy storage unit for receiving and storing voltage of the self-power-feeding device ; and - a bypass unit drive device for causing the bypass unit to perform a short-circuiting operation by power stored in the energy storage unit when a voltage of the self-power-feeding device becomes smaller than a predetermined lower limit value; wherein the bypass unit has a latch function for, after the short-circuiting operation has been performed, retaining the short-circuiting operation.
An automatic analysis device , comprising: a dispensing unit configured to aspirate and dispense a liquid; and a syringe pump configured to feed and aspirate a liquid into and from the dispensing unit, wherein the syringe pump includes: a syringe tube capable of storing a liquid; a plunger capable of moving up and down in a longitudinal direction of the syringe tube ; a plunger upper pressing component in contact with the plunger ; a power transmission unit configured to transmit power to the plunger via the plunger upper pressing component ; and a plunger lower pressing component in contact with the power transmission unit , wherein the plunger upper pressing component and the plunger lower pressing component are fixed by a connecting component , characterized in that : the plunger upper pressing component and the power transmission unit are in point contact with each other, and the power transmission unit and the plunger lower pressing component are in point contact with each other. a dispensing unit configured to aspirate and dispense a liquid; and a syringe pump configured to feed and aspirate a liquid into and from the dispensing unit, wherein the syringe pump includes: a syringe tube capable of storing a liquid; a plunger capable of moving up and down in a longitudinal direction of the syringe tube ; a plunger upper pressing component in contact with the plunger ; a power transmission unit configured to transmit power to the plunger via the plunger upper pressing component ; and a plunger lower pressing component in contact with the power transmission unit , wherein the plunger upper pressing component and the plunger lower pressing component are fixed by a connecting component , characterized in that : the plunger upper pressing component and the power transmission unit are in point contact with each other, and the power transmission unit and the plunger lower pressing component are in point contact with each other. a syringe tube capable of storing a liquid; a plunger capable of moving up and down in a longitudinal direction of the syringe tube ; a plunger upper pressing component in contact with the plunger ; a power transmission unit configured to transmit power to the plunger via the plunger upper pressing component ; and a plunger lower pressing component in contact with the power transmission unit , wherein the plunger upper pressing component and the plunger lower pressing component are fixed by a connecting component , characterized in that : the plunger upper pressing component and the power transmission unit are in point contact with each other, and the power transmission unit and the plunger lower pressing component are in point contact with each other.
Tractor for agricultural use having a chassis , which connects a front tractor part and a rear tractor part to one another via a connecting element , a driver's seat in the region of the rear tractor part , a drive and at least four wheels , wherein the connecting element of the chassis , which connects the rear tractor part and the front tractor part to one another, is arranged at least 60 cm above the driver's seat and extends essentially horizontally to the front tractor part , characterised in that the front tractor part and the rear tractor part are connected with a single connecting element ,which is arranged in the centre between the rear wheels and in the centre between the front wheels and the driver's seat is arranged to the right or left of the connecting element , so that the driver has a clear view to the front and also to the side of an implement mounted in the centre of the tractor and has an unobstructed view when driving straight ahead and to the side of the road..