mhurhangee/ep-ind-claims huggingface dataset:
A self-locking door for a product-dispensing enclosure comprising: a door; a lock located on the door; a strike plate configured to engage the lock, wherein the strike plate is configured to control the lock; and characterised in that it comprises: a sensor configured to detect the presence of a user in an area outside of the enclosure during a predefined time interval between receiving an unlock command and opening of the door and wherein the sensor is configured to control the lock, to keep the door unlocked while the user is present and the door is closed and to lock the door if the user is not present while the door is closed, wherein the sensor is selected from at least one of an ultrasonic sensor, a pressure sensitive mat, a light curtain, a radar sensor and an IR proximity sensor. a door; a lock located on the door; a strike plate configured to engage the lock, wherein the strike plate is configured to control the lock; and characterised in that it comprises: a sensor configured to detect the presence of a user in an area outside of the enclosure during a predefined time interval between receiving an unlock command and opening of the door and wherein the sensor is configured to control the lock, to keep the door unlocked while the user is present and the door is closed and to lock the door if the user is not present while the door is closed, wherein the sensor is selected from at least one of an ultrasonic sensor, a pressure sensitive mat, a light curtain, a radar sensor and an IR proximity sensor. a sensor configured to detect the presence of a user in an area outside of the enclosure during a predefined time interval between receiving an unlock command and opening of the door and wherein the sensor is configured to control the lock, to keep the door unlocked while the user is present and the door is closed and to lock the door if the user is not present while the door is closed, wherein the sensor is selected from at least one of an ultrasonic sensor, a pressure sensitive mat, a light curtain, a radar sensor and an IR proximity sensor.
Haptic feedback interface for controlling at least one function of a motor vehicle member, having: - a touchscreen comprising: - a capacitive touch tile having at least one capacitive sensor and a front panel arranged on the capacitive sensor, and - a display screen disposed beneath the capacitive touch tile, - at least one vibratory actuator configured to make the front panel vibrate at least in response to the capacitive touch tile being contacted or pressed, in order to generate haptic feedback, characterized in that the front panel is formed from laminated glass having at least two sheets of glass (18a, 18b) sandwiching at least one interposed damper film for damping the parasitic acoustic vibrations caused by the haptic vibrations. - a touchscreen comprising: - a capacitive touch tile having at least one capacitive sensor and a front panel arranged on the capacitive sensor, and - a display screen disposed beneath the capacitive touch tile, - a capacitive touch tile having at least one capacitive sensor and a front panel arranged on the capacitive sensor, and - a display screen disposed beneath the capacitive touch tile, - at least one vibratory actuator configured to make the front panel vibrate at least in response to the capacitive touch tile being contacted or pressed, in order to generate haptic feedback,
A method for real-time monitoring of a pressure differential across a friction pig and a position of the friction pig to predict movement of the friction pig when the friction pig is in stationary use in and sealing against a pipeline, the friction pig having resilient sealing elements, the method further comprising the steps of: using pressure sensors connected to the friction pig for acquiring data related to the differential pressure across the friction pig; operating in different operation modes where one is a communication mode and another is a tracking mode, the communication mode enables said pressure sensors for acquiring data related to the differential pressure and the tracking mode enables means for sending signals related to identification and position of the friction pig; receiving instructions from a transponder of a remote control unit through a transceiver (10, said instructions comprises operation modes of the friction pig; carrying out said instructions, and transmitting said acquired data and signals to said remote control unit through said transceiver, thus enabling real-time monitoring of the pressure differential across the friction pig and the position of the friction pig to predict movement of the friction pig; and predicting the movement of the friction pig before a movement occurs based upon a change in the differential pressure when the friction pig is in stationary use and sealing against the pipeline; wherein the friction pig is a friction plug having no moving parts for use in pipeline isolation, a sealing function of the friction pig relying entirely on a friction between a pipeline wall and the resilient sealing elements. using pressure sensors connected to the friction pig for acquiring data related to the differential pressure across the friction pig; operating in different operation modes where one is a communication mode and another is a tracking mode, the communication mode enables said pressure sensors for acquiring data related to the differential pressure and the tracking mode enables means for sending signals related to identification and position of the friction pig; receiving instructions from a transponder of a remote control unit through a transceiver (10, said instructions comprises operation modes of the friction pig; carrying out said instructions, and transmitting said acquired data and signals to said remote control unit through said transceiver, thus enabling real-time monitoring of the pressure differential across the friction pig and the position of the friction pig to predict movement of the friction pig; and predicting the movement of the friction pig before a movement occurs based upon a change in the differential pressure when the friction pig is in stationary use and sealing against the pipeline;
An external patch containing rupatadine, wherein an acrylic adhesive is used as an adhesive base and the external patch further comprises a solubilizer, a softener, and a surfactant.
A semiconductor device comprising: a drift layer doped according to a first conductivity type; a drain contact on a first surface of the drift layer; a plurality of additional layers of semiconductor material (7, 7') on a second surface of the drift layer opposite the drain contact doped according to a second conductivity type; and a source contact; the plurality of additional layers of semiconductor material (7, 7') being arranged to form a plurality of concentric rings of semiconductor material on the second surface of the drift layer such that regions of the second surface of the drift layer that laterally separate the plurality of concentric rings of semiconductor material form Schottky-contact regions, wherein the source contact completely borders the additional layers on all sides except a side on the drift layer; and the source contact being in direct contact with the drift layer in the Schottky-contact regions; wherein in a lateral direction along the second surface of the drift layer, at least every seventh, advantageously at least every sixth, preferably at least every fifth, and most preferred every fourth or every third of the plurality of additional layers of semiconductor material (7, 7') has a substantially larger lateral extension than adjacent such plurality of additional layers of semiconductor material (7, 7'). a drift layer doped according to a first conductivity type; a drain contact on a first surface of the drift layer; a plurality of additional layers of semiconductor material (7, 7') on a second surface of the drift layer opposite the drain contact doped according to a second conductivity type; and a source contact; the plurality of additional layers of semiconductor material (7, 7') being arranged to form a plurality of concentric rings of semiconductor material on the second surface of the drift layer such that regions of the second surface of the drift layer that laterally separate the plurality of concentric rings of semiconductor material form Schottky-contact regions, wherein the source contact completely borders the additional layers on all sides except a side on the drift layer; and the source contact being in direct contact with the drift layer in the Schottky-contact regions; wherein in a lateral direction along the second surface of the drift layer, at least every seventh, advantageously at least every sixth, preferably at least every fifth, and most preferred every fourth or every third of the plurality of additional layers of semiconductor material (7, 7') has a substantially larger lateral extension than adjacent such plurality of additional layers of semiconductor material (7, 7').
A compressor (300, 400), comprising: an inlet (102, 202) for receiving a process gas, and an outlet for discharging a high-pressure process gas; a shaft extending from a first end of the compressor to a second end of the compressor, the shaft having one or more compression stages (106a, 106b) disposed about the shaft and rotatable therewith, wherein the one or more compression stages are configured to receive and compress the process gas; a seal assembly disposed about a portion of the shaft and defining a blow-down seal chamber, the seal assembly including at least one gas seal in fluid communication with the blow-down seal chamber; a blow-down line communicably coupled to the blow-down seal chamber to reference the blow-down seal chamber to a low pressure reference and thereby reduce a pressure which the at least one gas seal must seal against; and a valve disposed in the blow-down line and configured to regulate a flow of process gas leakage through the blow-down line, characterised in that the low pressure reference is an intermediate compression stage of the compressor (300, 400), an intermediate compression stage of a separate compression unit, or a discharge side of the separate compression unit, and in that the compressor further comprises control logic communicably coupled to the valve and configured to selectively adjust the valve in response to pressures detected in the blow-down line. an inlet (102, 202) for receiving a process gas, and an outlet for discharging a high-pressure process gas; a shaft extending from a first end of the compressor to a second end of the compressor, the shaft having one or more compression stages (106a, 106b) disposed about the shaft and rotatable therewith, wherein the one or more compression stages are configured to receive and compress the process gas; a seal assembly disposed about a portion of the shaft and defining a blow-down seal chamber, the seal assembly including at least one gas seal in fluid communication with the blow-down seal chamber; a blow-down line communicably coupled to the blow-down seal chamber to reference the blow-down seal chamber to a low pressure reference and thereby reduce a pressure which the at least one gas seal must seal against; and a valve disposed in the blow-down line and configured to regulate a flow of process gas leakage through the blow-down line,
A peristaltic pump, comprising: - a tube to transport a material in a transport direction and one or more piezoelements, which are configured to expand when they are actuated so as to cause a squeezing of the tube; characterized in that the pump further comprises - at least one lever, which is arranged between at least one of the piezoelements and the tube. - a tube to transport a material in a transport direction and one or more piezoelements, which are configured to expand when they are actuated so as to cause a squeezing of the tube; - at least one lever, which is arranged between at least one of the piezoelements and the tube.
An air conditioner having an indoor unit which is configured to supply air to an indoor space, the air conditioner comprising: an indoor casing provided with an outlet opening (24a to 24d); an airflow direction adjusting flap which is provided at the outlet opening (24a to 24d) and is configured to change a direction of air supplied from the outlet opening (24a to 24d) in a vertical direction; an indoor heat exchanger which is provided in the indoor casing and is configured to heat the air by a refrigerant before the air is supplied from the outlet opening (24a to 24d) in a heating operation; a first temperature detector which is configured to detect a temperature of the indoor heat exchanger or a temperature of the air supplied from the outlet opening (24a to 24d); a controller which is configured to control the airflow direction adjusting flap to operate in an airflow mode, in which the air is supplied from the outlet opening (24a to 24d) at least horizontally, when a value detected by the first temperature detector is greater than a first predetermined value in the heating operation; characterized in that the controller is configured to increase an amount of air supplied from the outlet opening (24a to24d) in the airflow mode from an amount of air supplied from the outlet opening (24a to24d) when the value detected by the first temperature detector in the heating operation is smaller than the first predetermined value. an indoor casing provided with an outlet opening (24a to 24d); an airflow direction adjusting flap which is provided at the outlet opening (24a to 24d) and is configured to change a direction of air supplied from the outlet opening (24a to 24d) in a vertical direction; an indoor heat exchanger which is provided in the indoor casing and is configured to heat the air by a refrigerant before the air is supplied from the outlet opening (24a to 24d) in a heating operation; a first temperature detector which is configured to detect a temperature of the indoor heat exchanger or a temperature of the air supplied from the outlet opening (24a to 24d); a controller which is configured to control the airflow direction adjusting flap to operate in an airflow mode, in which the air is supplied from the outlet opening (24a to 24d) at least horizontally, when a value detected by the first temperature detector is greater than a first predetermined value in the heating operation; characterized in that the controller is configured to increase an amount of air supplied from the outlet opening (24a to24d) in the airflow mode from an amount of air supplied from the outlet opening (24a to24d) when the value detected by the first temperature detector in the heating operation is smaller than the first predetermined value.
A recording apparatus comprising: a recording head for recording on a recording medium; an endless belt for transporting the recording medium, the endless belt having an adhesive surface adapted to peelably stick the recording medium to the endless belt; and a cooling section (6, 13) for cooling the adhesive surface on a downstream side of the recording head, in a transportation direction of the recording medium, characterized in that the cooling section comprises a blower arranged to apply wind to the recording medium on an upstream side in the transportation direction of a portion of the adhesive surface at which the recording apparatus is adapted to peel the recording medium off the adhesive surface. a recording head for recording on a recording medium; an endless belt for transporting the recording medium, the endless belt having an adhesive surface adapted to peelably stick the recording medium to the endless belt; and a cooling section (6, 13) for cooling the adhesive surface on a downstream side of the recording head, in a transportation direction of the recording medium, characterized in that the cooling section comprises a blower arranged to apply wind to the recording medium on an upstream side in the transportation direction of a portion of the adhesive surface at which the recording apparatus is adapted to peel the recording medium off the adhesive surface.
Combination packaging container (2, 2') comprising a beaker-shaped inner container with a container jacket, a base and a flange projecting out from the container jacket in the region of the open end of the inner container, a sleeve-shaped outer part surrounding the inner container at its container jacket with end regions (11, 12) spaced apart from one another in the direction of a longitudinal axis, the container jacket and the sleeve-shaped outer part forming a container wall, as well as with co-operating supporting means (22, 23) to enable several combination packaging containers (2, 2') of the same type to be stacked one inside the other, and an end face of the sleeve-shaped outer part facing the flange is disposed immediately adjacent to a bottom face of the flange facing the base of the inner container or lies against the bottom face of the flange, and the sleeve-shaped outer part is of a single-layered design between its end regions (11, 12) spaced apart from one another in the direction of the longitudinal axis with the exception of a joining zone in an overlap region, the combination packaging container (2, 2') having at least one pinched region projecting in the direction towards the longitudinal axis in a portion of the container wall of the base region, and the inner container, in particular its container jacket, is molded lying partially against an internal face of the sleeve-shaped outer part, characterized in that the pinched region is formed in both the sleeve-shaped outer part and in the container jacket, and the pinched region forms a kink in the container wall, by means of which kink the container wall is offset in the direction towards the longitudinal axis, and that the pinched region constitutes one of the supporting means (22, 23) and a first and another wall portion (24, 34) is respectively formed between the pinched region and the two end regions (11, 12).
A device comprising: a housing configured to be implanted in a patient; a first magnetic field direction sensor located at a first location within the housing and configured to generate a signal representative of a first direction of a magnetic field at the first location; a second magnetic field direction sensor located at a second location within the housing and configured to generate a signal representative of a second direction of the magnetic field at the second location; a magnetic field strength sensor configured to generate a signal representative of a strength of the magnetic field; and characterized by a control module configured to determine an absolute difference between the first direction and the second direction and identify a source of the magnetic field based on at least the absolute difference between the first direction and the second direction. a housing configured to be implanted in a patient; a first magnetic field direction sensor located at a first location within the housing and configured to generate a signal representative of a first direction of a magnetic field at the first location; a second magnetic field direction sensor located at a second location within the housing and configured to generate a signal representative of a second direction of the magnetic field at the second location; a magnetic field strength sensor configured to generate a signal representative of a strength of the magnetic field; and characterized by a control module configured to determine an absolute difference between the first direction and the second direction and identify a source of the magnetic field based on at least the absolute difference between the first direction and the second direction.
A user equipment, UE, for dual connectivity operation during wireless communication handover, comprising: a memory; a transceiver; and a processor coupled to the memory and the transceiver, characterized in that, the processor is configured to: if the processor is configured with a synchronization signal/physical broadcast channel block measurement time configuration, SMTC, in a NR measurement configuration from a source LTE primary cell, use the SMTC for one of a new radio, NR, primary secondary cell, PScell, addition procedure and a secondary node, SN, change procedure, regardless if an SMTC is included in a handover message received by the UE from a target LTE PCell; and use one of the source long term evolution, LTE, primary cell, PCell, and the target LTE PCell as a timing reference if the processor is not configured with the SMTC in the NR measurement configuration. a memory; a transceiver; and a processor coupled to the memory and the transceiver, characterized in that, the processor is configured to: if the processor is configured with a synchronization signal/physical broadcast channel block measurement time configuration, SMTC, in a NR measurement configuration from a source LTE primary cell, use the SMTC for one of a new radio, NR, primary secondary cell, PScell, addition procedure and a secondary node, SN, change procedure, regardless if an SMTC is included in a handover message received by the UE from a target LTE PCell; and use one of the source long term evolution, LTE, primary cell, PCell, and the target LTE PCell as a timing reference if the processor is not configured with the SMTC in the NR measurement configuration. if the processor is configured with a synchronization signal/physical broadcast channel block measurement time configuration, SMTC, in a NR measurement configuration from a source LTE primary cell, use the SMTC for one of a new radio, NR, primary secondary cell, PScell, addition procedure and a secondary node, SN, change procedure, regardless if an SMTC is included in a handover message received by the UE from a target LTE PCell; and use one of the source long term evolution, LTE, primary cell, PCell, and the target LTE PCell as a timing reference if the processor is not configured with the SMTC in the NR measurement configuration.
A device for allocating available resources of a base station and configured to allocate the available resources to a plurality of cells under the same base station, characterized by, the device comprising: a first determining module configured to determine the minimum amount of resources required by each cell of the plurality of cells in the case that the sum of the minimum amount of resources required by the plurality of cells is less than the amount of available resources of the base station; a second determining module configured to determine the amount of adjustable resources pre-allocated to each cell to be allocated in the remaining resources based on the ratio of throughput of the cell to be allocated to the sum of throughputs of all the cells to be allocated, wherein the cell to be allocated refers to a cell in which the amount of adjustable resources is undetermined; and a third determining module configured to, for each cell, determine the smaller one of the sum of the minimum amount of resources required and the amount of the adjustable resources of the cell, and the maximum amount of the resources required by the cell to be the amount of actual resources to be allocated to the cell. a first determining module configured to determine the minimum amount of resources required by each cell of the plurality of cells in the case that the sum of the minimum amount of resources required by the plurality of cells is less than the amount of available resources of the base station; a second determining module configured to determine the amount of adjustable resources pre-allocated to each cell to be allocated in the remaining resources based on the ratio of throughput of the cell to be allocated to the sum of throughputs of all the cells to be allocated, wherein the cell to be allocated refers to a cell in which the amount of adjustable resources is undetermined; and a third determining module configured to, for each cell, determine the smaller one of the sum of the minimum amount of resources required and the amount of the adjustable resources of the cell, and the maximum amount of the resources required by the cell to be the amount of actual resources to be allocated to the cell.