mhurhangee/ep-ind-claims huggingface dataset:
Mat welding system for producing concrete steel mats from a plurality of rods (2, 3) by welding the rods (2, 3) to form a grid structure consisting of longitudinal rods and transverse rods, comprising - at least one provision device for providing the plurality of rods (2, 3), - at least one welding device for welding, preferably in stages, the rods (2, 3) to form the grid structure consisting of longitudinal rods and transverse rods, and - at least one transport device for transporting the rods (2, 3) provided by the at least one provision device to the at least one welding device, wherein the at least one transport device has at least one first positioning device, with which rods can be positioned in a longitudinal direction relative to the at least one welding device, and at least one second positioning device, which can be pivoted relative to the first positioning device and with which rods can be positioned in a transverse direction transverse to the longitudinal direction relative to the at least one welding device, characterized in that the at least one transport device has at least one carrier, on which the positioning devices (8, 10) are arranged, preferably wherein the second positioning device is arranged displaceably and pivotably on the at least one carrier and/or the first positioning device is arranged stationary on the at least one carrier. - at least one provision device for providing the plurality of rods (2, 3), - at least one welding device for welding, preferably in stages, the rods (2, 3) to form the grid structure consisting of longitudinal rods and transverse rods, and - at least one transport device for transporting the rods (2, 3) provided by the at least one provision device to the at least one welding device,
A process wherein a liquid feed comprising monochloroacetic acid, dichloroacetic acid, and optionally acetic acid and/or trichloroacetic acid is subjected to a catalytic hydrodechlorination step by contacting it with a hydrogen gas or a gas comprising hydrogen gas and up to 50 mole% of nitrogen, hydrogen choride, or a mixture thereof, to convert the dichloroacetic acid into monochloroacetic acid in the presence of a solid heterogeneous hydrogenation catalyst comprising one or more metals of Group VIII of the Periodic Table of the Elements deposited on a carrier, characterized in that said catalytic hydrodechlorination step is carried out in a vertical tubular reactor with a diameter exceeding 0.4 m, with the solid heterogeneous hydrogenation catalyst being situated in a fixed catalyst bed, wherein the liquid feed is fed to the top of said vertical tubular reactor at a superficial mass velocity of between 1 and 10 kg/s per square meter of the horizontal cross-section of the vertical tubular reactor and a rate of between 250 and 3,000 kg/hr per m 3 of said catalyst bed, wherein the hydrogen gas or gas comprising hydrogen gas and up to 50 mole% of nitrogen, hydrogen choride, or a mixture thereof is fed to the top or bottom of the vertical tubular reactor at a superficial gas velocity of between 0.025 to 0.25 Nm 3 /s per square meter of the horizontal cross-section of the vertical tubular reactor, so as to obtain an average axial pressure gradient of at least 2 kPa per meter of said catalyst bed, and wherein the temperature in the top of the vertical tubular reactor is between 100 and 200°C, and wherein the pressure in the top of the vertical tubular reactor is between 0.2 and 1.0 MPa.
A handheld vacuum cleaner comprising: a main body including a front, a first lateral side, a second lateral side, a handle, and a receptacle having an inlet; a motor assembly positioned within the main body; a dirty air inlet positioned at a front of the handheld vacuum cleaner; a cyclonic chamber in fluid communication with the dirty air inlet and the motor assembly; and a battery including a first side surface and a second side surface opposite the first side surface, the battery configured to be selectively received within the receptacle through the inlet, wherein when the battery is positioned within the receptacle, the battery is positioned between the cyclonic chamber and the handle; wherein when the battery is positioned within the receptacle, each of the first side surface and the second side surface are at least 25 percent exposed through apertures (178, 182) at the respective first and second lateral sides of the main body such that the first and second side surfaces are graspable by a user, characterised in that, the first aperture and the second aperture extend to the receptacle inlet such that the battery is graspable by a user between the installed position and the removed position and the first aperture and second aperture are continuous with the receptacle inlet. a main body including a front, a first lateral side, a second lateral side, a handle, and a receptacle having an inlet; a motor assembly positioned within the main body; a dirty air inlet positioned at a front of the handheld vacuum cleaner; a cyclonic chamber in fluid communication with the dirty air inlet and the motor assembly; and a battery including a first side surface and a second side surface opposite the first side surface, the battery configured to be selectively received within the receptacle through the inlet, wherein when the battery is positioned within the receptacle, the battery is positioned between the cyclonic chamber and the handle; wherein when the battery is positioned within the receptacle, each of the first side surface and the second side surface are at least 25 percent exposed through apertures (178, 182) at the respective first and second lateral sides of the main body such that the first and second side surfaces are graspable by a user, characterised in that, the first aperture and the second aperture extend to the receptacle inlet such that the battery is graspable by a user between the installed position and the removed position and the first aperture and second aperture are continuous with the receptacle inlet.
Hot air or convection oven having a cooking compartment, a temperature sensor of a temperature controller, arranged in the cooking compartment, for regulating or controlling the treatment temperature obtaining in the cooking compartment, having a hot air or convection fan and having an air guide plate arranged between the fan and the cooking compartment provided to store the cooked food, in which a central air inlet opening for the fan and a number of air outlet openings (15, 18, 19) for the air flow into the cooking compartment are provided, wherein at least one of the air outlet openings directly faces the temperature sensor, wherein at least one adjacent air outlet opening is assigned to the air outlet opening assigned to the temperature sensor, said air outlet opening effecting a flow mix which is turned away from the air flow directed directly towards the temperature sensor in the flow direction towards the cooking compartment and subsequently detecting the direct air flow to the temperature sensor, characterised in that at the lower and upper end the air guide plate has a surface section (12, 13) which is turned towards this temperature sensor at least on the side facing the temperature sensor and is bent in an inclined manner in relation to the air guide plate, with which surface section the air guide plate is fastened on a rear wall of the cooking compartment and in which the air outlet openings for the temperature sensor and the air outlet openings adjacent hereto are arranged, and wherein the at least one adjacent air outlet opening is arranged opposite to the air outlet opening assigned to the temperature sensor in a flow plane (I.) which is turned towards the cooking compartment.
A composition for use in the prevention and/or the treatment of menopausal syndrome comprising equol and resveratrol in effective quantities, at least one edible carrier, and/or excipient.
A rotor for a radial fan, which is suitable to rotate about a rotational axis and comprising: - a plurality of main blades arranged in sequence about said rotational axis and having radially inner leading ends and radially outer trailing ends, - a plurality of auxiliary blades having a radially inner leading end and a radially outer trailing end, and having a radial extent that is less than a radial extent of the main blades, wherein the main blades and the auxiliary blades are mutually alternated, - a hub member forming a guide surface from which the main blades and the auxiliary blades project, characterised in that the guide surface is a rotational surface with respect to the rotational axis with a generatrix forming a convex radially inner portion and a concave intermediate portion, and a radially outer portion. - a plurality of main blades arranged in sequence about said rotational axis and having radially inner leading ends and radially outer trailing ends, - a plurality of auxiliary blades having a radially inner leading end and a radially outer trailing end, and having a radial extent that is less than a radial extent of the main blades, wherein the main blades and the auxiliary blades are mutually alternated, - a hub member forming a guide surface from which the main blades and the auxiliary blades project, characterised in that the guide surface is a rotational surface with respect to the rotational axis with a generatrix forming a convex radially inner portion and a concave intermediate portion, and a radially outer portion.
A coated glazing comprising at least the following layers in sequence: a transparent glass substrate, a layer based on an oxide of a metal and/or a layer based on an oxide of a metalloid, and a further layer, wherein either said layer based on an oxide of a metal or said layer based on an oxide of a metalloid is adjacent said transparent glass substrate, wherein said layer that is adjacent said transparent glass substrate comprises a surface that, prior to a coating of said surface, has an arithmetical mean height of the surface value, Sa, of at least 4.0 nm when tested in accordance with ISO 25178-2:2012, and wherein the coated glazing exhibits an average haze value of at least 0.47% when tested in accordance with ASTM D1003 - 13. a transparent glass substrate, a layer based on an oxide of a metal and/or a layer based on an oxide of a metalloid, and a further layer, wherein either said layer based on an oxide of a metal or said layer based on an oxide of a metalloid is adjacent said transparent glass substrate, wherein said layer that is adjacent said transparent glass substrate comprises a surface that, prior to a coating of said surface, has an arithmetical mean height of the surface value, Sa, of at least 4.0 nm when tested in accordance with ISO 25178-2:2012, and wherein the coated glazing exhibits an average haze value of at least 0.47% when tested in accordance with ASTM D1003 - 13.
A fluid ejection device, comprising: a fluid slot (208, 308, 408); a plurality of fluid ejection chambers (202, 302, 402) communicated with the fluid slot (208, 308, 408); a plurality of drop ejecting elements (204, 304, 404) each within one of the fluid ejection chambers (202, 302, 402); a plurality of fluid circulation channels (220, 320, 420) each communicated with the fluid slot (208, 308, 408) and one or more of the fluid ejection chambers (202, 302, 402); a plurality of fluid circulating elements (222, 322, 422) each communicated with one or more of the fluid circulation channels (220, 320, 420); and an electronic controller including a flow circulation module to control operation of the fluid circulating elements (222, 322, 422) to provide intermittent circulation of fluid from the fluid slot (208, 308, 408) through the one or more of the fluid circulation channels (220, 320, 420) and the one or more of the fluid ejection chambers (202, 302, 402), wherein a frequency of the intermittent circulation is variable based on operation of the drop ejecting elements (222, 322, 422); and the frequency of the intermittent circulation is a function of an amount of time between disassociated periods of operation of the drop ejecting elements (204, 304, 404). a fluid slot (208, 308, 408); a plurality of fluid ejection chambers (202, 302, 402) communicated with the fluid slot (208, 308, 408); a plurality of drop ejecting elements (204, 304, 404) each within one of the fluid ejection chambers (202, 302, 402); a plurality of fluid circulation channels (220, 320, 420) each communicated with the fluid slot (208, 308, 408) and one or more of the fluid ejection chambers (202, 302, 402); a plurality of fluid circulating elements (222, 322, 422) each communicated with one or more of the fluid circulation channels (220, 320, 420); and an electronic controller including a flow circulation module to control operation of the fluid circulating elements (222, 322, 422) to provide intermittent circulation of fluid from the fluid slot (208, 308, 408) through the one or more of the fluid circulation channels (220, 320, 420) and the one or more of the fluid ejection chambers (202, 302, 402), wherein a frequency of the intermittent circulation is variable based on operation of the drop ejecting elements (222, 322, 422); and the frequency of the intermittent circulation is a function of an amount of time between disassociated periods of operation of the drop ejecting elements (204, 304, 404).
An apparatus comprising: a magnetic field detection circuit; a cardiac signal sensing circuit configured to generate a cardiac signal representative of cardiac activity of a subject; a plurality of sensing of electrodes operatively coupled to the cardiac signal sensing circuit, wherein the electrodes are configured to be implanted subcutaneously; a memory circuit; a control circuit operatively coupled to the magnetic field detection circuit, cardiac signal sensing circuit, and memory circuit, wherein the control circuit is configured to: store cardiac signal data determined using the generated cardiac signal in the memory circuit; receive an indication of magnetic field detection by the magnetic field detection circuit; continue to monitor for the magnetic field detection; identify cardiac signal data obtained during a specified duration of time prior to the magnetic field detection; and discard cardiac signal data obtained during a specified duration of time prior to the magnetic field detection and during the magnetic field detection. a magnetic field detection circuit; a cardiac signal sensing circuit configured to generate a cardiac signal representative of cardiac activity of a subject; a plurality of sensing of electrodes operatively coupled to the cardiac signal sensing circuit, wherein the electrodes are configured to be implanted subcutaneously; a memory circuit; a control circuit operatively coupled to the magnetic field detection circuit, cardiac signal sensing circuit, and memory circuit, wherein the control circuit is configured to: store cardiac signal data determined using the generated cardiac signal in the memory circuit; receive an indication of magnetic field detection by the magnetic field detection circuit; continue to monitor for the magnetic field detection; identify cardiac signal data obtained during a specified duration of time prior to the magnetic field detection; and discard cardiac signal data obtained during a specified duration of time prior to the magnetic field detection and during the magnetic field detection. store cardiac signal data determined using the generated cardiac signal in the memory circuit; receive an indication of magnetic field detection by the magnetic field detection circuit; continue to monitor for the magnetic field detection; identify cardiac signal data obtained during a specified duration of time prior to the magnetic field detection; and discard cardiac signal data obtained during a specified duration of time prior to the magnetic field detection and during the magnetic field detection.
A terminal device, comprising: a radio interface operative to receive a broadcast message from a cellular network (30, 40), the broadcast message including at least one bit associated with coverage enhancement, CE, operation of the terminal device (11, 12; 20); and an electronic circuit operative to control, when the terminal device (11, 12; 20) is in CE operation, the radio interface to selectively delay, based on the at least one bit included in the broadcast message and after a first random access preamble transmission, a next CE level dependent repetition (93, 94) of the random access preamble transmission. a radio interface operative to receive a broadcast message from a cellular network (30, 40), the broadcast message including at least one bit associated with coverage enhancement, CE, operation of the terminal device (11, 12; 20); and an electronic circuit operative to control, when the terminal device (11, 12; 20) is in CE operation, the radio interface to selectively delay, based on the at least one bit included in the broadcast message and after a first random access preamble transmission, a next CE level dependent repetition (93, 94) of the random access preamble transmission.
Method for controlling a hybrid drive which comprises an internal combustion engine, a generator which can be driven by the internal combustion engine, a charge storage device and an electric motor, and can be operated in a load point shift operating mode, a recuperation operating mode and a boost operating mode, wherein in the load point shift operating mode a power or torque distribution regulator predefines the power levels or torques which are output by the internal combustion engine and by the electric motor with the aim of maintaining a predetermined target value of the state of charge of the charge storage device, and the target value of the state of charge of the charge storage device is shifted in the load point shift operating mode as a function of changes in the state of charge of the charge storage device in a previously passed-through recuperation operating mode and/or boost operating mode, characterized in that the target value of the state of charge of the charge storage device is increased by a charge quantity which has been sensed during a previously passed-through recuperation operating mode and is additionally taken up by the charge storage device, and/or the target value of the state of charge of the charge storage device is reduced by a charge quantity which has been sensed during a previously passed-through boost operating mode and is output by the charge storage device.
A leather-manufacturing rotary drum having an alternate hydrophilic and hydrophobic surface structure, characterized by comprising: a drum body capable of rotating in its own circumferential direction; a stirring structure arranged in the drum body; and an alternate hydrophilic and hydrophobic surface structure in which hydrophilic-material surfaces and hydrophobic-material surfaces are alternately distributed, the alternate hydrophilic and hydrophobic surface structure being distributed on a surface of an inner wall of the drum body and/or a surface of the stirring structure, wherein, in a rotating process of the drum body, the alternate hydrophilic and hydrophobic surface structure repeatedly enters and leaves a bath liquid in the drum body. a drum body capable of rotating in its own circumferential direction; a stirring structure arranged in the drum body; and an alternate hydrophilic and hydrophobic surface structure in which hydrophilic-material surfaces and hydrophobic-material surfaces are alternately distributed, the alternate hydrophilic and hydrophobic surface structure being distributed on a surface of an inner wall of the drum body and/or a surface of the stirring structure, wherein, in a rotating process of the drum body, the alternate hydrophilic and hydrophobic surface structure repeatedly enters and leaves a bath liquid in the drum body.
Device for controlling a blood flow occurring in a haemorrhagic zone of a biological tissue, comprising a flexible plate, said plate being arranged to be placed opposite this zone, said flexible plate comprising: - substantially leaktight peripheral supporting means, suitable for being applied on the biological tissue so that the haemorrhagic zone is surrounded, - a back wall, said back wall delimiting with the supporting means, opposite the zone, a hollow space, and - connecting means arranged for connecting the hollow space, externally to the flexible plate, to an external aspiration source for creating a vacuum in the hollow space for aspirating and tightly applying the surface of the tissue against the peripheral supporting means, said device further comprising a part suitable for application on the biological tissue with hardness different from, and preferably lower than, the hardness of the back wall, and further comprising a hollow stud comprising a circumferential wall 12 surrounding a hollow interior 13, said hollow stud being placed between the zone and the back wall and hollowed out in its centre on the side of the zone along an axis substantially perpendicular to the back wall, characterized in that the hollow stud is arranged so that when its hollowed-out side is in contact with the zone, its hollow interior is isolated from the vacuum created in the space, when vacuum is created is said space. - substantially leaktight peripheral supporting means, suitable for being applied on the biological tissue so that the haemorrhagic zone is surrounded, - a back wall, said back wall delimiting with the supporting means, opposite the zone, a hollow space, and - connecting means arranged for connecting the hollow space, externally to the flexible plate, to an external aspiration source for creating a vacuum in the hollow space for aspirating and tightly applying the surface of the tissue against the peripheral supporting means,
An apparatus for a network device for data reception, comprising an information transmitting unit configured to transmit data scheduling control information to a terminal equipment, the data scheduling control information including related information used for indicating available time-frequency resources on one or more scheduled bandwidth resources, the available time-frequency resources being used by the terminal equipment for transmitting an uplink data; an indication transmitting unit configured to transmit first indication information used for indicating one or more frequency-domain bandwidth resources to the terminal equipment, the one or more frequency-domain bandwidth resources being bandwidth resource(s) where a network device transmits downlink data, and/or bandwidth resource(s) where the terminal equipment is allowed to share a channel occupancy time of the network device to transmit uplink data; and a data receiving unit configured to receive the uplink data transmitted by the terminal equipment. an indication transmitting unit configured to transmit first indication information used for indicating one or more frequency-domain bandwidth resources to the terminal equipment, the one or more frequency-domain bandwidth resources being bandwidth resource(s) where a network device transmits downlink data, and/or bandwidth resource(s) where the terminal equipment is allowed to share a channel occupancy time of the network device to transmit uplink data; and a data receiving unit configured to receive the uplink data transmitted by the terminal equipment.