mhurhangee/patent-ind-claim-en huggingface dataset:
A switch cabinet arrangement for monitoring the heat emission of components accommodated in a switch cabinet , the switch cabinet arrangement having a switch cabinet , in the interior of which a plurality of heat-emitting components arranged horizontally next to one another and vertically one below the other are accommodated, and wherein for monitoring a heat emission of the heat-emitting components at least one sensor unit is arranged in the switch cabinet, which sensor unit detects the heat emission of several or all of the heat-emitting components, wherein the at least one sensor unit is arranged stationarily in the switch cabinet , wherein the sensor unit has a measuring field which is subdivided into several measuring sectors of the same or different size, wherein the measuring sectors at least partially continuously or periodically detect a temperature, a heat emission value, or a corresponding measured value in each case for a heat-emitting component , wherein the switch cabinet has a switch cabinet door and a mounting plate arranged in its interior , on which the heat-emitting components are arranged with at least one heat-emitting side facing the switch cabinet door , at least one sensor of the sensor unit being mounted in a stationary manner on an inner side of the switch cabinet door facing the heat-emitting components , characterized in that the sensor unit is a thermopile array sensor.
A system for a bioprocess operation, comprising: an aseptic connector (112;300) having a first portion (310;482) and a second portion (320;484); a removable clamp (114;200) configured to secure the first portion (310;482) of the aseptic connector (112;300) to the second portion (320;484) of the aseptic connector, the system being characterised by : the aseptic connector (112;300) comprising a sensor , wherein the sensor is for measuring parameters of fluid flowing through the aseptic connector (112;300), the sensor being coupled to a sensor plug ; wherein the removable clamp (114;200) comprises: a housing (222;410); a controller disposed within the housing; a rechargeable battery (240;420) disposed within the housing; a wireless radio (260;430) disposed within the housing; and a sensor plug receptacle (250;470) configured to receive the sensor plug ; wherein the controller is configured to determine a sensor output of the sensor and to transmit the output using the wireless radio (260;430). an aseptic connector (112;300) having a first portion (310;482) and a second portion (320;484); a removable clamp (114;200) configured to secure the first portion (310;482) of the aseptic connector (112;300) to the second portion (320;484) of the aseptic connector, the system being characterised by : the aseptic connector (112;300) comprising a sensor , wherein the sensor is for measuring parameters of fluid flowing through the aseptic connector (112;300), the sensor being coupled to a sensor plug ; wherein the removable clamp (114;200) comprises: a housing (222;410); a controller disposed within the housing; a rechargeable battery (240;420) disposed within the housing; a wireless radio (260;430) disposed within the housing; and a sensor plug receptacle (250;470) configured to receive the sensor plug ; wherein the controller is configured to determine a sensor output of the sensor and to transmit the output using the wireless radio (260;430). a housing (222;410); a controller disposed within the housing; a rechargeable battery (240;420) disposed within the housing; a wireless radio (260;430) disposed within the housing; and a sensor plug receptacle (250;470) configured to receive the sensor plug ; a controller disposed within the housing; a rechargeable battery (240;420) disposed within the housing; a wireless radio (260;430) disposed within the housing; and a sensor plug receptacle (250;470) configured to receive the sensor plug ; wherein the controller is configured to determine a sensor output of the sensor and to transmit the output using the wireless radio (260;430).
Sash fastener for locking a door , comprising a sash fastener housing , an actuating element rotatably mounted on the sash fastener housing , and a locking element which is coupled to the actuating element and which is movable in translation in a first angular range (α) of the actuating element and in rotation in a second angular range (β) of the actuating element , characterized in that the actuating element is axially secured relative to the sash fastener housing in the first angular range (α) via a securing means and is axially unlocked in the second angular range (β) via the securing means .
A mechanical torque transmission element , comprising a body extending along an axis of extension (X-X), said body having: - a through or blind hole extending about said axis of extension (X-X), - an inner surface of the hole facing said axis of extension (X-X); - a trapezoidal thread complying with ISO 2901:2016, formed on said surface , said thread comprising a plurality of turns which extend in a helical pattern between two end turns , spaced apart from each other in the direction of the axis of extension (X-X), - each turn defines a crest portion projecting toward the axis of extension (X-X), and - said thread defines respective groove portions between the crest portions of each pair of successive turns , wherein - at the crest portion of at least one turn , two elevated portions of the crest portion , separated by a centerline of the crest portion which extends all along the turn , are deformed so as to be elevated with respect to the centerline and to close up by plastic deformation in mutual contact above the centerline . - a through or blind hole extending about said axis of extension (X-X), - an inner surface of the hole facing said axis of extension (X-X); - a trapezoidal thread complying with ISO 2901:2016, formed on said surface , said thread comprising a plurality of turns which extend in a helical pattern between two end turns , spaced apart from each other in the direction of the axis of extension (X-X), - each turn defines a crest portion projecting toward the axis of extension (X-X), and - said thread defines respective groove portions between the crest portions of each pair of successive turns , wherein - at the crest portion of at least one turn , two elevated portions of the crest portion , separated by a centerline of the crest portion which extends all along the turn , are deformed so as to be elevated with respect to the centerline and to close up by plastic deformation in mutual contact above the centerline .
A switchgear comprising: - an air intake mechanism attachment body arranged on an air intake portion provided on a housing of the switchgear; - an air intake opening provided in the air intake mechanism attachment body ; - a shutter arranged on an inner side of the air intake opening on the housing , and adapted to allow an air intake from the outside of the housing , and to block the air intake opening in the occurrence of an internal short circuit fault; and - a ground fault partition body having electrical conductivity and configured to make a strayed arc cause a ground fault, the ground fault partition body being arranged between the shutter and a cable connected to a down stream side conductor in the housing wherein the ground fault partition body is made of a metal plate, wherein the ground fault partition body is formed with an opening portion , wherein the opening portion is of a size to cause a strayed arc to cause a ground fault via the ground partition body and not via the shutter . - an air intake mechanism attachment body arranged on an air intake portion provided on a housing of the switchgear; - an air intake opening provided in the air intake mechanism attachment body ; - a shutter arranged on an inner side of the air intake opening on the housing , and adapted to allow an air intake from the outside of the housing , and to block the air intake opening in the occurrence of an internal short circuit fault; and - a ground fault partition body having electrical conductivity and configured to make a strayed arc cause a ground fault, the ground fault partition body being arranged between the shutter and a cable connected to a down stream side conductor in the housing wherein the ground fault partition body is made of a metal plate, wherein the ground fault partition body is formed with an opening portion , wherein the opening portion is of a size to cause a strayed arc to cause a ground fault via the ground partition body and not via the shutter .
A method for enhancing growth of leafy vegetables while increasing the content of useful substances in the leafy vegetables using environmental stress, wherein the environmental stress comprises at least one of low temperature stress or light stress, and wherein the useful substances comprise at least one of caffeic acid, ferulic acid, and kaempferol, characterized in that the environmental stress comprises combined stress of a low temperature and UVA light. wherein the environmental stress comprises at least one of low temperature stress or light stress, and wherein the useful substances comprise at least one of caffeic acid, ferulic acid, and kaempferol, characterized in that the environmental stress comprises combined stress of a low temperature and UVA light.
A method for load balancing between cells in a communications network , the network comprising a first Radio Base Station, RBS-A, serving a first cell , Cell-A, and a second Radio Base Station, RBS-B , serving a second cell , Cell-B, both cells at least partly overlapping, the RBS-A serving at least one User Equipment, UE, , RBS-A and RBS-B communicatively connected via a link , wherein the method comprises the steps of: - selecting by RBS-A at least one of the served UEs for measuring and reporting a performance value in Cell-A and a performance value in Cell-B; - measuring by selected UEs present in the overlap, the measured performance value in Cell-A and the measured performance value in Cell-B, and reporting to RBS-A; - determining and selecting the UEs for a relocation by RBS-A, based on the received measured performance value and an estimated performance value for Cell-B; - initializing a relocation by RBS-A of the one or more selected UEs for relocation from Cell-A to Cell-B, characterised in that the method comprises the further steps of - submitting an indication to RBS-B to respond with a perceived performance value measured by the one or more relocated UEs ; - measuring by the one or more relocated UEs a perceived performance value in Cell-B, and reporting to RBS-B, and - providing by RBS-B, with the value based on the perceived performance by the relocated UE, to RBS-A for updating the estimated performance value for Cell-B, wherein the estimated performance value for Cell-B is derived from a value mapped to a function of the load of Cell-B and the measured performance value of Cell-B by the UE being served by RBS-A. - selecting by RBS-A at least one of the served UEs for measuring and reporting a performance value in Cell-A and a performance value in Cell-B; - measuring by selected UEs present in the overlap, the measured performance value in Cell-A and the measured performance value in Cell-B, and reporting to RBS-A; - determining and selecting the UEs for a relocation by RBS-A, based on the received measured performance value and an estimated performance value for Cell-B; - initializing a relocation by RBS-A of the one or more selected UEs for relocation from Cell-A to Cell-B, characterised in that the method comprises the further steps of - submitting an indication to RBS-B to respond with a perceived performance value measured by the one or more relocated UEs ; - measuring by the one or more relocated UEs a perceived performance value in Cell-B, and reporting to RBS-B, and - providing by RBS-B, with the value based on the perceived performance by the relocated UE, to RBS-A for updating the estimated performance value for Cell-B, wherein the estimated performance value for Cell-B is derived from a value mapped to a function of the load of Cell-B and the measured performance value of Cell-B by the UE being served by RBS-A.
Composition in the form of an oil-in-water emulsion comprising: a) an oily phase, dispersed in a continuous aqueous phase, b) one or more UV-screening agents chosen from water-soluble organic UV-screening agents, liposoluble organic UV-screening agents, insoluble organic UV-screening agents, and mixtures thereof, c) one or more anionic crosslinked hydrophilic polymers, d) one or more surfactants having an HLB less than or equal to 5, and e) one or more silicone copolymers resulting from the copolymerization of at least one monomer of the type of an ester of a carboxylic acid and of an alcohol comprising a C 6 to C 30 fatty chain, with at least one monomer containing a polyalkylsiloxane chain; the weight ratio between the amount of silicone copolymer(s) and the amount of anionic crosslinked hydrophilic polymer(s) being less than or equal to 5. a) an oily phase, dispersed in a continuous aqueous phase, b) one or more UV-screening agents chosen from water-soluble organic UV-screening agents, liposoluble organic UV-screening agents, insoluble organic UV-screening agents, and mixtures thereof, c) one or more anionic crosslinked hydrophilic polymers, d) one or more surfactants having an HLB less than or equal to 5, and e) one or more silicone copolymers resulting from the copolymerization of at least one monomer of the type of an ester of a carboxylic acid and of an alcohol comprising a C 6 to C 30 fatty chain, with at least one monomer containing a polyalkylsiloxane chain;
A brace bar configured to couple flow tubes a Coriolis flow meter together, the brace bar comprising: a substantially planar brace bar body with a perimeter, a first planar surface, and a second planar surface; a first aperture and a second aperture formed in the first planar surface and the second planar surface of the brace bar body ; and characterized by : a gap formed in the first planar surface and the second planar surface of the brace bar body , wherein the gap : intersects the first aperture and the second aperture; is defined by two contiguous surfaces, each respective contiguous surface connecting the first aperture and the second aperture ; is wholly contained within the perimeter of the brace bar body ; and is configured to close upon application of a clamping force (CF) applied to the perimeter of the brace bar body , thereby reducing a diameter of the first aperture and a diameter of the second aperture. a substantially planar brace bar body with a perimeter, a first planar surface, and a second planar surface; a first aperture and a second aperture formed in the first planar surface and the second planar surface of the brace bar body ; and characterized by : a gap formed in the first planar surface and the second planar surface of the brace bar body , wherein the gap : intersects the first aperture and the second aperture; is defined by two contiguous surfaces, each respective contiguous surface connecting the first aperture and the second aperture ; is wholly contained within the perimeter of the brace bar body ; and is configured to close upon application of a clamping force (CF) applied to the perimeter of the brace bar body , thereby reducing a diameter of the first aperture and a diameter of the second aperture. intersects the first aperture and the second aperture; is defined by two contiguous surfaces, each respective contiguous surface connecting the first aperture and the second aperture ; is wholly contained within the perimeter of the brace bar body ; and is configured to close upon application of a clamping force (CF) applied to the perimeter of the brace bar body , thereby reducing a diameter of the first aperture and a diameter of the second aperture.
Drawer mechanism having a fixed rail element for attaching to a furniture cabinet and at least one movable rail element mounted on said fixed rail element, comprising an inner rail being an innermost movable rail element to be fastened to an extendable furniture part, the drawer mechanism comprising a retraction device having a spring-loaded slide movable in the retraction/extension direction for temporarily coupling to elements disposed in a region of a free end of the inner rail , wherein the slide is capable of being blocked in a retraction position by a blocking latch bolt that in a guide is movable transversely to the retraction/extension direction, wherein the slide for coupling to the elements of the inner rail has at least one pivot element which is pivotable about an axis that is oriented so as to be perpendicular to the retraction/extension direction and perpendicular to the movement direction of the blocking latch bolt , wherein a geometry of the pivot element matches a geometry of the elements disposed in the region of the free end of the inner rail , wherein the pivot element and the guide are disposed in such a manner that the blocking latch bolt in a blocking position blocks a pivoting movement of the pivot element .
A 3D touch control-based automobile seat adjustment switch, comprising an insulating cover plate , a touch sensor , a base , a feedback module , a circuit board , and a module assembly cover plate , wherein a plurality of protruding or recessed touch control regions are arranged on the insulating cover plate , a plurality of independent touch sensors are attached to the plurality of touch control regions on the insulating cover plate , to form a 3D touch assembly, and the plurality of touch sensors are all connected to the circuit board ; characterized in that , the circuit board is assembled on the module assembly cover plate , the module assembly cover plate and the feedback module are assembled on one surface of the base , the feedback module is connected to the circuit board , and an other surface of the base is assembled on the insulating cover plate , the feedback module is a combination of more than one of a vibration motor , a pressure element , an electromagnet, or a buzzer; and the feedback module comprises the vibration motor and the pressure element , the vibration motor is arranged between the circuit board and the base , and the pressure element is a diaphragm pressure sensor and is attached between the circuit board and the module assembly cover plate . the circuit board is assembled on the module assembly cover plate , the module assembly cover plate and the feedback module are assembled on one surface of the base , the feedback module is connected to the circuit board , and an other surface of the base is assembled on the insulating cover plate , the feedback module is a combination of more than one of a vibration motor , a pressure element , an electromagnet, or a buzzer; and the feedback module comprises the vibration motor and the pressure element , the vibration motor is arranged between the circuit board and the base , and the pressure element is a diaphragm pressure sensor and is attached between the circuit board and the module assembly cover plate .
A method for reducing an amount of total organic carbon (TOC) in water in a steel mill wastewater stream at a steel mill, the water containing 18.93 to 378.54 L (5 to 100 gallons) glycol / 45.36 Kg (100 lb) TOC and more than 25 mg TOC/L water, the method comprising: - adding powder activated carbon (PAC) to the flume leading to the scale pit or other clarification systems, upstream of a scale separating system of the steel mill;. - mixing the powder activated carbon with the wastewater in the flume or other piping prior to the scale separating system and then settling the PAC with the adsorbed glycols; - removing the settled PAC/glycols from the scale pit, settler, dissolved air flotation (DAF) or other separation device together with steel scale; and - disposing of the settled PAC/glycol together with the scale. - adding powder activated carbon (PAC) to the flume leading to the scale pit or other clarification systems, upstream of a scale separating system of the steel mill;. - mixing the powder activated carbon with the wastewater in the flume or other piping prior to the scale separating system and then settling the PAC with the adsorbed glycols; - removing the settled PAC/glycols from the scale pit, settler, dissolved air flotation (DAF) or other separation device together with steel scale; and - disposing of the settled PAC/glycol together with the scale.
A composition for use in the prevention or treatment of a muscular disorder, the composition comprising a Lactobacillus reuteri ATG-F4 strain (Accession No. KCTC13717BP).
Hydraulic control assembly comprising a hydraulic pump for the pressure medium supply of at least one actuator , wherein the actuator is connected to a high-pressure side of the hydraulic pump via a control valve having a measuring diaphragm , wherein a flow cross section between the hydraulic pump and the actuator is adjustable via the measuring diaphragm , and wherein a circulation flow path is connected to the high-pressure side via a pilot diaphragm , wherein the circulation flow path can be connected via the control valve to a tank , and wherein a differential pressure regulator is provided, which taps off a pressure upstream and downstream of the pilot diaphragm and cooperates with the control assembly in such a way that a pressure difference across the pilot diaphragm is constant, characterized in that as the measuring diaphragm is closed, a pressure medium connection of the circulation flow path is opened by the control valve , wherein as the measuring diaphragm is closed, the pressure medium connection of the circulation flow path is closed by the control valve and a pressure medium connection between the circulation flow path and the actuator downstream of the measuring diaphragm is opened.
Dry concentrate suitable to form a liquid acid concentrate or a part of a liquid acid concentrate usable in dialysis comprising a first component comprising a first granulate comprising a plurality of first granules comprising sodium chloride and glucose, and a second component comprising a second granulate comprising a plurality of second granules, wherein said granules comprise at least one further physiologically acceptable electrolyte, which is different from sodium chloride, or a second component in the form of a powder, wherein said powder comprises at least one further physiologically acceptable electrolyte which is different from sodium chloride, and wherein said powder comprises a plurality of fine particles, wherein each particle comprises or consists of one of said at least one further physiologically acceptable electrolyte, or a mixture of said second granulate and said powder, wherein the dry concentrate is substantially free of any base components. a first component comprising a first granulate comprising a plurality of first granules comprising sodium chloride and glucose, and a second component comprising a second granulate comprising a plurality of second granules, wherein said granules comprise at least one further physiologically acceptable electrolyte, which is different from sodium chloride, or a second component in the form of a powder, wherein said powder comprises at least one further physiologically acceptable electrolyte which is different from sodium chloride, and wherein said powder comprises a plurality of fine particles, wherein each particle comprises or consists of one of said at least one further physiologically acceptable electrolyte, or a mixture of said second granulate and said powder, wherein the dry concentrate is substantially free of any base components.