mhurhangee/ep-ind-claims huggingface dataset:
A beverage machine, comprising: a beverage receiving area for receiving a beverage product; a hot water supply system for supplying hot water to the beverage product in the beverage receiving area; a beverage delivery unit (14,16) for delivering a beverage formed by passing the hot water though the beverage product; a waste bin for collecting beverage product waste; a waste bin receiving area for receiving the waste bin by a translational movement; characterized in that, it further comprises a pivot arrangement for pivoting the waste bin or a portion thereof thereby to reveal visually the content of the waste bin without translational movement of the waste bin. a beverage receiving area for receiving a beverage product; a hot water supply system for supplying hot water to the beverage product in the beverage receiving area; a beverage delivery unit (14,16) for delivering a beverage formed by passing the hot water though the beverage product; a waste bin for collecting beverage product waste; a waste bin receiving area for receiving the waste bin by a translational movement; characterized in that, it further comprises a pivot arrangement for pivoting the waste bin or a portion thereof thereby to reveal visually the content of the waste bin without translational movement of the waste bin.
An apparatus for preclinical ultrasound imaging of a subject, the apparatus comprising: at least one ultrasound transducer; a platform on which a subject is positionable; and at least two motion stages for controlling a spatial position of said at least one ultrasound transducer relative to the platform in order to acquire ultrasound image data of the subject; a reservoir and a coupling medium contained in said reservoir; and characterised by a coupling medium impermeable membrane located between the subject and the coupling medium to prevent the subject from being submerged in the coupling medium, said coupling medium being located between the ultrasound transducer and said membrane, wherein the at least one ultrasound transducer is configured to movably scan the subject from underneath the subject. a platform on which a subject is positionable; and at least two motion stages for controlling a spatial position of said at least one ultrasound transducer relative to the platform in order to acquire ultrasound image data of the subject; a reservoir and a coupling medium contained in said reservoir; and characterised by a coupling medium impermeable membrane located between the subject and the coupling medium to prevent the subject from being submerged in the coupling medium, said coupling medium being located between the ultrasound transducer and said membrane, wherein the at least one ultrasound transducer is configured to movably scan the subject from underneath the subject.
A heated smoking article comprising an aerosol-generating substrate, wherein the aerosol-generating substrate is a rod comprising a gathered sheet of homogenised tobacco material circumscribed by a wrapper, wherein the sheet of homogenised tobacco material comprises one or more aerosol-formers and has an aerosol-former content of greater than 5% on a dry weight basis, wherein the sheet of homogenised tobacco material has a grammage of between 100 g/m 2 and 300 g/m 2, and in which the aerosol-generating substrate is a rod having a length of between 5 mm and 20 mm.
A carton for holding a plurality of containers, the carton comprising: a plurality of panels that extends at least partially around an interior of the carton, the plurality of panels comprising a top panel, a first side panel, a bottom panel, and a second side panel; at least two end flaps (12, 22, 32, 42, 14, 24, 34, 44) respectively foldably attached to respective panels of the plurality of panels, the at least two end flaps being overlapped with respect to one another to thereby at least partially form a closed end (51, 53) of the carton; and a reinforcing insert comprising a central panel and at least one reinforcing end flap (212, 214), the central panel being at least partially disposed in the interior of the carton, and the at least one reinforcing end flap (212, 214) comprising a base portion (218, 220) and a distal portion (221, 223) foldably connected to the base portion; characterized by the base portion (218, 220) extending in an oblique direction from the central panel toward the closed end (51, 53) of the carton, at least a portion of the distal portion (221, 223) being positioned outwardly of at least one end flap of the at least two end flaps (12, 22, 32, 42, 14, 24, 34, 44), and the distal portion (221, 223) comprising at least one tab (227, 229, 228, 230) extending toward at least one of the first side panel and the second side panel. a plurality of panels that extends at least partially around an interior of the carton, the plurality of panels comprising a top panel, a first side panel, a bottom panel, and a second side panel; at least two end flaps (12, 22, 32, 42, 14, 24, 34, 44) respectively foldably attached to respective panels of the plurality of panels, the at least two end flaps being overlapped with respect to one another to thereby at least partially form a closed end (51, 53) of the carton; and a reinforcing insert comprising a central panel and at least one reinforcing end flap (212, 214), the central panel being at least partially disposed in the interior of the carton, and the at least one reinforcing end flap (212, 214) comprising a base portion (218, 220) and a distal portion (221, 223) foldably connected to the base portion; characterized by the base portion (218, 220) extending in an oblique direction from the central panel toward the closed end (51, 53) of the carton, at least a portion of the distal portion (221, 223) being positioned outwardly of at least one end flap of the at least two end flaps (12, 22, 32, 42, 14, 24, 34, 44), and the distal portion (221, 223) comprising at least one tab (227, 229, 228, 230) extending toward at least one of the first side panel and the second side panel.
A compressor stage, with a stator-side intake connector, via which during the operation of the compressor stage medium to be compressed in the region of the compressor stage can be fed into the compressor stage, with a stator-side inflow passage, via which the medium to be compressed emanating from the intake connector can be conveyed in the direction of a rotor-side impeller, wherein the impeller comprises a radially inner hub and impeller blades, wherein for the effective pressure measurement on the compressor stage a plus measuring point and a minus measuring point are provided on the same, wherein the minus measuring point is positioned upstream of the impeller outside the stator-side inflow passage in an annular gap branching off the inflow passage, characterized in that the impeller comprises a radially outer shroud, wherein the impeller blades extend between the hub and the shroud, and in that the annular gap is delimited adjacent to the impeller by a stator-side seal carrier, which carries a seal that interacts with the shroud of the rotor-side impeller.
A Semiconductor device comprising: - a semiconductor substrate having a top and a bottom surface, - first and second insulating layer (2, 7) deposited on the top surface of said substrate, - a source runner arranged on top of the second insulator layer, - a backside metal layer deposited on the bottom surface of the substrate, - a first via structure extending from the bottom surface of the substrate to the top of the first insulating layer between the backside layer and the runner, and - a second via structure extending from the top of the first insulating layer to the top of the second insulating layer between the first via and the source runner, wherein the first and second via structures (3, 8) are arranged within a field effect transistor structure having a source region, a drain region (98, 99) and a gate, in such a way that the first via couples the source region with the backside layer, and further comprising at least one drain runner (96, 94) arranged on top of the first and/or second insulating layer (2, 7) above said drain region (98, 99) and on one side of the first and second via structures (3, 8), and at least one gate runner (90, 91) arranged on top of the first and/or second insulating layer (2, 7) on the other side of the first and second via structures (3, 8). - a semiconductor substrate having a top and a bottom surface, - first and second insulating layer (2, 7) deposited on the top surface of said substrate, - a source runner arranged on top of the second insulator layer, - a backside metal layer deposited on the bottom surface of the substrate, - a first via structure extending from the bottom surface of the substrate to the top of the first insulating layer between the backside layer and the runner, and - a second via structure extending from the top of the first insulating layer to the top of the second insulating layer between the first via and the source runner,
A method for detecting a dry run of a feed pump, in particular a flow pump for coolant circuits, driven by an electric drive motor, wherein a rotational speed detection sensor is used to detect the dry run, characterized in that based on a known initial state, a voltage applied is removed from the electric drive motor or a defined energy input is introduced into the electric drive motor, whereupon the electric drive motor is allowed to run down to a defined final state, wherein, as the electric drive motor runs down to the defined final state, the rotational speed detection sensor detects the number of rotations of a motor rotor and compares the same with a predefined threshold value, wherein a dry run of the feed pump is concluded when the defined threshold value is exceeded.
A method for controlling operation of an oscillator in a basestation of a cellular communications system, the method comprising: detecting signals transmitted by a plurality of other basestations of the cellular communications system; forming estimates of a quality of each of said signals; estimating a combined frequency error based on estimated frequency errors between a signal generated within said basestation and the detected signals transmitted by said other basestations, wherein the estimation of the combined frequency error takes into account said quality estimates; controlling operation of said oscillator to minimize said combined frequency error; and generating signals at system uplink frequencies and system downlink frequencies of the cellular communications system based on signals generated by said oscillator. detecting signals transmitted by a plurality of other basestations of the cellular communications system; forming estimates of a quality of each of said signals; estimating a combined frequency error based on estimated frequency errors between a signal generated within said basestation and the detected signals transmitted by said other basestations, wherein the estimation of the combined frequency error takes into account said quality estimates; controlling operation of said oscillator to minimize said combined frequency error; and generating signals at system uplink frequencies and system downlink frequencies of the cellular communications system based on signals generated by said oscillator.
A wearable environmental sensor device (100, 100a, 100b) comprising: a housing (1,12) including a wall surface (1b, 12b) exposed to an environment; an environmental sensor disposed on or over the wall surface exposed to an environment and configured to measure ambient environmental information around a living body; and a protective structure (1c, 12c) formed around the environmental sensor, characterized in that the wearable environmental sensor device is configured to be attached to the living body such that the wall surface on or over which the environmental sensor is disposed faces substantially downward from the living body when the living body is in a standing posture, and the protective structure includes first ventilation holes (10-1, 10-2, 10-3, 10-4) provided in each of two or more pairs of opposed surfaces thereof, wherein each of the two or more pairs of opposed surfaces faces in a direction other than a vertical direction of the living body when the wearable environmental sensor device is attached to the living body and the living body is in the standing posture, wherein the two or more pairs of opposed surfaces include a rear surface facing the living body, and a front surface facing the rear surface, and the rear surface is inclined so as to downwardly go further away from the living body. a housing (1,12) including a wall surface (1b, 12b) exposed to an environment; an environmental sensor disposed on or over the wall surface exposed to an environment and configured to measure ambient environmental information around a living body; and a protective structure (1c, 12c) formed around the environmental sensor, characterized in that the wearable environmental sensor device is configured to be attached to the living body such that the wall surface on or over which the environmental sensor is disposed faces substantially downward from the living body when the living body is in a standing posture, and the protective structure includes first ventilation holes (10-1, 10-2, 10-3, 10-4) provided in each of two or more pairs of opposed surfaces thereof, wherein each of the two or more pairs of opposed surfaces faces in a direction other than a vertical direction of the living body when the wearable environmental sensor device is attached to the living body and the living body is in the standing posture, wherein the two or more pairs of opposed surfaces include a rear surface facing the living body, and a front surface facing the rear surface, and the rear surface is inclined so as to downwardly go further away from the living body.
A wind power generator comprising a blade, wherein the blade includes a conductive region having electrical conductivity and comprises: a measurement unit configured to measure a change in electrical characteristic of a measurement section (M2, M3) set in the conductive region; and a determination unit configured to compare the value measured through the measurement unit to a reference value, and determine whether the blade is in a normal state or emergency state, wherein the blade comprises a skin, a spar cap, and a shear web, wherein: the conductive region is formed in the skin and in the spar cap, across the skin and the spar cap, while including a connection part between the skin and the spar cap, and the measurement section is set across the skin and the spar cap; or the conductive region is formed in the spar cap and in the shear web, across the spar cap and the shear web, while including a connection part between the spar cap and the shear web, and the measurement section is set across the spar cap and the shear web. a measurement unit configured to measure a change in electrical characteristic of a measurement section (M2, M3) set in the conductive region; and a determination unit configured to compare the value measured through the measurement unit to a reference value, and determine whether the blade is in a normal state or emergency state, wherein the blade comprises a skin, a spar cap, and a shear web, wherein: the conductive region is formed in the skin and in the spar cap, across the skin and the spar cap, while including a connection part between the skin and the spar cap, and the measurement section is set across the skin and the spar cap; or the conductive region is formed in the spar cap and in the shear web, across the spar cap and the shear web, while including a connection part between the spar cap and the shear web, and the measurement section is set across the spar cap and the shear web. the conductive region is formed in the skin and in the spar cap, across the skin and the spar cap, while including a connection part between the skin and the spar cap, and the measurement section is set across the skin and the spar cap; or the conductive region is formed in the spar cap and in the shear web, across the spar cap and the shear web, while including a connection part between the spar cap and the shear web, and the measurement section is set across the spar cap and the shear web.
A firefighter training unit for simulating use of a fire extinguishing system with a hose and liquid spray outlet for expelling a fire extinguishing liquid, the firefighter training unit including: a reel; a user-manipulable nozzle; a flexible and elongate member having opposite ends attached respectively to the reel and the nozzle and being partially wound around the reel, wherein rotation of the reel in a first rotational direction allows the elongate member to be unwound from the reel; a motor (18, 20) configured to drive the reel in a second rotational direction opposite to the first rotational direction which causes the elongate member to be wound onto the reel; one or more devices for providing one or more output signals corresponding to one or more simulated operating conditions of the fire extinguishing system; and a controller configured to drive the motor (18, 20) in response to the one or more output signals so as to apply torque to the reel in the second rotational direction to simulate forces applied to the hose during operation of the fire extinguishing system. a reel; a user-manipulable nozzle; a flexible and elongate member having opposite ends attached respectively to the reel and the nozzle and being partially wound around the reel, wherein rotation of the reel in a first rotational direction allows the elongate member to be unwound from the reel; a motor (18, 20) configured to drive the reel in a second rotational direction opposite to the first rotational direction which causes the elongate member to be wound onto the reel; one or more devices for providing one or more output signals corresponding to one or more simulated operating conditions of the fire extinguishing system; and a controller configured to drive the motor (18, 20) in response to the one or more output signals so as to apply torque to the reel in the second rotational direction to simulate forces applied to the hose during operation of the fire extinguishing system.
Household microwave appliance, having - a cooking chamber to which microwaves can be applied, - at least one mode variation apparatus, which is designed to modify a field distribution of the microwaves in the cooking chamber, and - at least one microwave leakage sensor (10, 11) for detecting microwave leakage radiation exiting from the cooking chamber, wherein the household microwave appliance is designed - to vary setting values (φ) of the at least one mode variation apparatus, characterised in that the household microwave appliance is also designed - to set at least one operating point of the at least one mode variation apparatus based on the quantity of measurement data of the detected microwave leakage radiation resulting from the variation. - a cooking chamber to which microwaves can be applied, - at least one mode variation apparatus, which is designed to modify a field distribution of the microwaves in the cooking chamber, and - at least one microwave leakage sensor (10, 11) for detecting microwave leakage radiation exiting from the cooking chamber, wherein the household microwave appliance is designed - to vary setting values (φ) of the at least one mode variation apparatus, characterised in that the household microwave appliance is also designed - to set at least one operating point of the at least one mode variation apparatus based on the quantity of measurement data of the detected microwave leakage radiation resulting from the variation.
An apparatus for measuring properties of a moving object, wherein the apparatus comprises at least two patch antennas (3,4) each being configured for sending to the object electromagnetic waves that are reflectable by the object and receiving electromagnetic waves reflected from the object for measuring movement of the object using the Doppler effect, wherein each one patch antenna (3, 4) comprises an electrically conductive element configured for functioning as an electrode and further configured for measuring a further electrophysiological property of the object; and a movement determination unit configured for determining movement information indicative of a movement of the object in dependence on the received electromagnetic waves reflected from the moving object using the Doppler effect; wherein the electrically conductive element and/or the at least one patch antenna are adapted such that the further electrophysiological property of the object is measurable by detecting an electrical signal by the electrically conductive element having a frequency, which differs from the frequency of the electromagnetic waves sent and/or received by the at least one patch antenna.
A method for multicasting a plurality of original data packets to a plurality of receivers (UE1, UE2, UE3) in a cell of a cellular communications system, the method comprising the steps in the cellular communications system of: multicasting a set (S1, S2, S3) of original data packets and a single network coded data packet (C1, C2, C3) associated with the set of original data packets to the plurality of receivers in the cell, wherein the set of original data packets consists of a number of original data packets of the plurality of original data packets; wherein the number of original data packets in the set of original data packets is dependent on a multicast data packet loss probability for transmitting data packets to one or more of the plurality of receivers in the cell, wherein the single network coded data packet is a linear combination of two or more original data packets in the set of original data packets, and wherein the network coded data packet is multicast using a modulation and coding rate lower than the modulation and coding rate used for multicasting the set of original data packets. multicasting a set (S1, S2, S3) of original data packets and a single network coded data packet (C1, C2, C3) associated with the set of original data packets to the plurality of receivers in the cell, wherein the set of original data packets consists of a number of original data packets of the plurality of original data packets; wherein the number of original data packets in the set of original data packets is dependent on a multicast data packet loss probability for transmitting data packets to one or more of the plurality of receivers in the cell, wherein the single network coded data packet is a linear combination of two or more original data packets in the set of original data packets, and wherein the network coded data packet is multicast using a modulation and coding rate lower than the modulation and coding rate used for multicasting the set of original data packets.