mhurhangee/ep-ind-claims huggingface dataset:
Refrigerated display cabinet intended for storing food articles in cool conditions, the cabinet comprising a plurality of shelves (21, 22), the cabinet having a main direction of extension, referred to as the height of the cabinet, the shelves (21, 22) being distributed over the height of the cabinet, each shelf (21, 22) being separated from the preceding and/or the following along the height of the cabinet by an empty space intended to receive at least one of the articles, said height being coincident with the direction Z of an orthonormal reference frame (X, Y, Z) attached to the cabinet, the plurality of shelves (21, 22) separating into two groups of shelves (G1, G2), each of the two groups of shelves (G1, G2) comprising at least two shelves (21, 22) having a given depth, the depth of a shelf (21, 22) being measured along the direction Y of said orthonormal reference frame the first group of shelves having a first depth which is greater than the depth of the shelves of the second group of shelves, referred to as the second depth, said cabinet comprising label holders (33, 33') provided at the ends of the shelves (21, 22), said cabinet being characterised in that it comprises furthermore, a support strip fixed to a shelf of the second group of shelves and able to carry a first information display, said support strip marking a separation between the two groups of shelves (G1, G2) along the direction Z, said support strip not being a substitute for a label holder (33, 33'), the support strip protruding with respect to the shelf on which it is held in position, the depth of the shelf of the second group taken together with the depth of the support strip does not exceed the depth of the shelf of the first group directly adjacent, most of said shelves (21, 22) being substantially coplanar with the plane (X, Y) of said orthonormal reference frame, said support strip being inclined with respect to said plane (X, Y) so as to facilitate an external user to read the first information display carried by said support strip and in that when the cabinet rests on the floor, the first group of shelves being closer to the floor than the second group of shelves, said support strip being positioned between the two groups of shelves (G1, G2).
A magnetic gastric reduction system (300, 350, 400), comprising: at least one magnetic element (10, 20, 100, 120, 305, 330, 430) adapted to couple to a stomach, wherein the at least one magnetic element is a matrix of magnets (130, 335, 360, 370, 460) configured to at least partially encompass the stomach; at least one sensor (380, 390) adapted to detect at least one property of the stomach; and a control device operably coupled to the at least one magnetic element and adapted to operably communicate with the at least one sensor (380, 390), the control device configured to control the at least one magnetic element in response to at least one property of the stomach detected by the sensor (380, 390) to cause the at least one magnetic element to compress the stomach, characterized by each magnet of the matrix of magnets being configured to be selectively magnetized by the control device independently of one another to selectively compress a specific volume of the stomach. at least one magnetic element (10, 20, 100, 120, 305, 330, 430) adapted to couple to a stomach, wherein the at least one magnetic element is a matrix of magnets (130, 335, 360, 370, 460) configured to at least partially encompass the stomach; at least one sensor (380, 390) adapted to detect at least one property of the stomach; and a control device operably coupled to the at least one magnetic element and adapted to operably communicate with the at least one sensor (380, 390), the control device configured to control the at least one magnetic element in response to at least one property of the stomach detected by the sensor (380, 390) to cause the at least one magnetic element to compress the stomach,
A method for producing a coil (19, 41, 68) for an electromechanical machine, in particular for an electric motor or the like, said coil (19, 41, 68) being formed by arranging an electric conductor (38, 43, 70), said electric conductor (38, 43, 70) being arranged with a plurality of windings (39, 44) running around a coil longitudinal axis (25, 45, 81), said windings (39, 44) of the coil (19, 41, 68) being arranged uninterruptedly in a direction of the coil longitudinal axis (25, 45, 81), a cross-section surface (40, 46) of the electric conductor (38, 43, 70) being formed so as to be uniform in the course of the windings (39, 44) along the coil longitudinal axis (25, 45, 81), the electric conductor (38, 43, 70) being worked for forming the coil (19, 41, 68), a geometry of the cross-section surface of the electric conductor (38, 43, 70) being formed so as to be continuously modified at least in some sections in the course of the windings (39, 44) along the coil longitudinal axis (25, 45, 81), characterised in that the electric conductor (38, 43, 70), in a first method step, is formed into a coil preform (47, 69) having the geometry of the cross-section surface (40, 46) of the coil (19, 41, 68), said electric conductor (38, 43, 70), in the first method step, being formed by casting, said electric conductor (38, 43, 70), in a further method step, being worked into a final coil form of the coil (19, 41, 68).
A method for controlling a temperature regulating device, wherein the method comprises: receiving a body temperature of a user sent by a wearable system, wherein the body temperature of the user comprises an in vivo temperature of the user and a skin temperature of the user; obtaining a control parameter of the temperature regulating device according to the body temperature of the user; and controlling the temperature regulating device according to the control parameter. receiving a body temperature of a user sent by a wearable system, wherein the body temperature of the user comprises an in vivo temperature of the user and a skin temperature of the user; obtaining a control parameter of the temperature regulating device according to the body temperature of the user; and controlling the temperature regulating device according to the control parameter.
A multilayer structure, comprising: a first heater layer comprising a CNT heater, wherein the CNT heater comprises a composite of carbon nanotubes and silicone; and a second heater layer comprising a PTC heater, wherein the PTC heater comprises a composite of carbon black and polymer; wherein the first heater layer and the second heater layer are first and second respectively in an electrical series; wherein the first heater layer has a negative temperature coefficient with respect to electrical resistivity; and wherein the second heater layer has a positive temperature coefficient with respect to electrical resistivity. a first heater layer comprising a CNT heater, wherein the CNT heater comprises a composite of carbon nanotubes and silicone; and a second heater layer comprising a PTC heater, wherein the PTC heater comprises a composite of carbon black and polymer; wherein the first heater layer and the second heater layer are first and second respectively in an electrical series; wherein the first heater layer has a negative temperature coefficient with respect to electrical resistivity; and wherein the second heater layer has a positive temperature coefficient with respect to electrical resistivity.
A processor-readable medium storing code representing instructions that when executed by a processor cause the processor to: receive a selected destination to which to send a document generated from a job of a particular type of multiple job types; pass the job, including the selected destination as a job parameter, to a job engine whose function matches the particular job type, the job engine being any one of multiple job engines of a job source device, each of the multiple job engines matching one of the multiple job types; process the job at the job engine to generate the document; cause the job engine to pass to a destination notification manager, the selected destination and a document reference to identify the document generated by the job engine from the job; cause the destination notification manager to match the selected destination with a delivery agent that is registered to receive a notification about the selected destination and that implements a destination-specific protocol for transmitting the document to the selected destination; and use the document reference to direct the delivery agent to retrieve the document and transmit it to the selected destination. receive a selected destination to which to send a document generated from a job of a particular type of multiple job types; pass the job, including the selected destination as a job parameter, to a job engine whose function matches the particular job type, the job engine being any one of multiple job engines of a job source device, each of the multiple job engines matching one of the multiple job types; process the job at the job engine to generate the document; cause the job engine to pass to a destination notification manager, the selected destination and a document reference to identify the document generated by the job engine from the job; cause the destination notification manager to match the selected destination with a delivery agent that is registered to receive a notification about the selected destination and that implements a destination-specific protocol for transmitting the document to the selected destination; and use the document reference to direct the delivery agent to retrieve the document and transmit it to the selected destination.
Distributor for a pneumatic distribution machine for seeds, fertilizer and the like, having the following features: 1.1. a distributor head defining an annular distributor space, 1.2. at least one feed line leads into the distributor head, 1.3. distributor lines are connected to the distributor head, at a distance from the feed line, 1.4. at least one shut-off slider (6, 6'), 1.5. the shut-off slider (6, 6) is pushable into the annular distributor space and is movable out of the latter, specifically in such a manner that the side ends of the shut-off slider (6, 6'), in the shut-off position thereof, are spaced apart from the inlet openings of the distributor lines and/or from the side walls of the distributor space such that air passes from the feed line to the inlet openings of the shut-off distributor lines through the space between the side ends of the shut-off slider (6, 6') and the adjacent side wall of the distributor space, characterized in that plate-like guiding elements extending as far as the side walls of the distributor space are arranged in the region of the side ends of the shut-off slider (6, 6') pushed into the distributor space, in that there is a gap-like distance between the side ends of the shut-off slider (6, 6') pushed into the distributor space and the free ends of the plate-like guiding elements, and in that the shut-off slider (6, 6') is pushable in relation to the guiding elements out of the distributor space and into the latter. 1.1. a distributor head defining an annular distributor space, 1.2. at least one feed line leads into the distributor head, 1.3. distributor lines are connected to the distributor head, at a distance from the feed line, 1.4. at least one shut-off slider (6, 6'), 1.5. the shut-off slider (6, 6) is pushable into the annular distributor space and is movable out of the latter, specifically in such a manner that the side ends of the shut-off slider (6, 6'), in the shut-off position thereof, are spaced apart from the inlet openings of the distributor lines and/or from the side walls of the distributor space such that air passes from the feed line to the inlet openings of the shut-off distributor lines through the space between the side ends of the shut-off slider (6, 6') and the adjacent side wall of the distributor space, characterized in that plate-like guiding elements extending as far as the side walls of the distributor space are arranged in the region of the side ends of the shut-off slider (6, 6') pushed into the distributor space, in that there is a gap-like distance between the side ends of the shut-off slider (6, 6') pushed into the distributor space and the free ends of the plate-like guiding elements, and in that the shut-off slider (6, 6') is pushable in relation to the guiding elements out of the distributor space and into the latter.
A method of wireless communication at a receiving device, comprising: receiving, from a transmitting device, at least a portion of a message for a service group, wherein the message comprises a device-to-device, D2D, message; measuring a signal strength for the received message; determining whether the receiving device is within a range of the transmitting device based on the measured signal strength for the received message; and determining to send HARQ feedback to the transmitting device when the receiving device is within the range of the transmitting device. receiving, from a transmitting device, at least a portion of a message for a service group, wherein the message comprises a device-to-device, D2D, message; measuring a signal strength for the received message; determining whether the receiving device is within a range of the transmitting device based on the measured signal strength for the received message; and determining to send HARQ feedback to the transmitting device when the receiving device is within the range of the transmitting device.
A method comprising: heating, using a heat source, a reactor vessel including a substrate in a radially central core region of the reactor vessel, wherein the substrate comprises a porous preform; introducing, using at least one reactor inlet in an outer wall of the reactor vessel, a precursor gas to the reactor vessel, wherein the at least one reactor inlet is configured to produce swirling flow of the precursor gas around the radially central core region of the reactor vessel, and wherein a material deposits on the substrate from the precursor gas; and removing, using at least one reactor outlet, an exhaust gas from the reactor vessel; characterised in that the method comprises the further step of: creating a gradient across the porous preform by maintaining at least one of: a dynamic pressure of the reactor vessel greater than a pressure in the porous preform; or an average temperature of the precursor gas less than an average temperature of the porous preform. heating, using a heat source, a reactor vessel including a substrate in a radially central core region of the reactor vessel, wherein the substrate comprises a porous preform; introducing, using at least one reactor inlet in an outer wall of the reactor vessel, a precursor gas to the reactor vessel, wherein the at least one reactor inlet is configured to produce swirling flow of the precursor gas around the radially central core region of the reactor vessel, and wherein a material deposits on the substrate from the precursor gas; and removing, using at least one reactor outlet, an exhaust gas from the reactor vessel; a dynamic pressure of the reactor vessel greater than a pressure in the porous preform; or an average temperature of the precursor gas less than an average temperature of the porous preform.
A dishwasher comprising a body having two side walls; a door providing access into the body; at least one rack whereon the items to be washed are placed, having a washing position wherein the rack is entirely inside the body and a loading/unloading position wherein the rack is partially taken outside the body by pulling forwards, an elevating means that enables the rack to move in the vertical direction in the loading/unloading position and that has at least two lifting arms each extending in the horizontal direction from one of the side walls, enabling the rack to be supported, and a locking means that is disposed on the rack and that enables the rack to be locked to the elevating means, characterized by the locking means that is locked to the lifting arms and that is designed to enable the rack to be engaged with the elevating means when the rack is changed from the washing position to the loading/unloading position by pulling out from inside the body and the locking means further comprising at least one locking hub that has a channel wherein the lifting arm is placed and exerts pressure onwhich with the movement of the rack and the locking hub provides locking by rotating around itself actuated by the said pressure.
A method for screening for a client protein-protecting protein, comprising the step (selection step) of selecting one or more candidate protein(s) from a protein population, preferably of mammalian origin, using the intrinsically disordered structure of the protein as an index, and the step (evaluation step) of evaluating stability of a client protein in the presence of the candidate protein(s)having an intrinsically disordered structure, wherein, in the evaluation step, the stability of the client protein is preferably evaluated using a degree of protection of the client protein from stress as an index, and wherein the stress is preferably one or more selected from the group consisting of physical stresses and chemical stresses.
A method of producing a specified coefficient of friction (CoF) on both a first side and an opposite side of a flexible substrate web comprising a) unwinding the substrate web; b) applying at least one layer of varnish to the first side of the unwound substrate web; c) drying the layer of varnish; and thereafter d) rewinding the substrate web such that at least a portion of the varnish on the first side is transferred to the opposite side of the substrate web; wherein the varnish is an oxidatively curing, ultraviolet curing, or electron beam curing. a) unwinding the substrate web; b) applying at least one layer of varnish to the first side of the unwound substrate web; c) drying the layer of varnish; and thereafter d) rewinding the substrate web such that at least a portion of the varnish on the first side is transferred to the opposite side of the substrate web;
A vacuum cleaner filter bag having a bag wall comprising: a backing layer comprising recycled polyethylene terephthalate, rPET; a fine filter layer made of a meltblown nonwoven fabric comprising polypropylene, PP, PET and/or recycled polypropylene, rPP; and a capacitance layer made of a nonwoven fabric comprising rPET, recycled textile material, TLO, and/or rPP; wherein said bag wall moreover comprises at least one intermediate layer formed by a nonwoven fabric or a fiber web and comprises rPP as a main component; wherein the at least one intermediate layer is arranged between the backing layer and the fine filter layer and/or between the fine filter layer and the capacitance layer; and wherein the fibers or filaments of the nonwoven fabric or the fiber web of the at least one intermediate layer have an average diameter of more than 5 μm, in particular between 10 μm and 100 μm. a backing layer comprising recycled polyethylene terephthalate, rPET; a fine filter layer made of a meltblown nonwoven fabric comprising polypropylene, PP, PET and/or recycled polypropylene, rPP; and a capacitance layer made of a nonwoven fabric comprising rPET, recycled textile material, TLO, and/or rPP; wherein said bag wall moreover comprises at least one intermediate layer formed by a nonwoven fabric or a fiber web and comprises rPP as a main component; wherein the at least one intermediate layer is arranged between the backing layer and the fine filter layer and/or between the fine filter layer and the capacitance layer; and wherein the fibers or filaments of the nonwoven fabric or the fiber web of the at least one intermediate layer have an average diameter of more than 5 μm, in particular between 10 μm and 100 μm.
A mobile terminal comprising: a main body; a display (251b, 351b, 451b, 551b, 651b, 751b, 851b) located in the main body; a window (251a, 351a, 451a, 551a, 651a, 751a) located at the main body to cover the display; a touch sensor (251c, 351c, 551c, 751c, 851c) located at a surface of the window to detect a touch input; a gel sheet (241, 341a, 441, 541, 641, 741a, 841) adhered to one of the touch sensor (251c, 351c, 551c, 751c, 851c) and the display (251b, 351b, 451b, 551b, 651b, 751b, 851b) due to the viscosity of an outermost surface of the gel sheet, the gel sheet being made of a light-transmittance material to fill a space between the touch sensor (251c, 351c, 551c, 751c, 851c) and the display (251b, 351b, 451b, 551b, 651b, 751b, 851b); and an air exhaust agent (242, 842) disposed between the gel sheet (241, 341a, 441, 541, 641, 741a, 841) and the other one of the touch sensor (251c, 351c, 551c, 751c, 851c) and the display (251b, 351b, 451b, 551b, 651b, 751b, 851b) to displace air, wherein the air exhaust agent (242, 842) changes from a liquid phase to a gel state over time, wherein the gel sheet is compressed on a surface of the one of the touch sensor and the display, and the exhaust agent is filled into fine grooves of a surface of the other one of the touch sensor and the display to planarize the surface of the other one of the touch sensor and the display. a main body; a display (251b, 351b, 451b, 551b, 651b, 751b, 851b) located in the main body; a window (251a, 351a, 451a, 551a, 651a, 751a) located at the main body to cover the display; a touch sensor (251c, 351c, 551c, 751c, 851c) located at a surface of the window to detect a touch input; a gel sheet (241, 341a, 441, 541, 641, 741a, 841) adhered to one of the touch sensor (251c, 351c, 551c, 751c, 851c) and the display (251b, 351b, 451b, 551b, 651b, 751b, 851b) due to the viscosity of an outermost surface of the gel sheet, the gel sheet being made of a light-transmittance material to fill a space between the touch sensor (251c, 351c, 551c, 751c, 851c) and the display (251b, 351b, 451b, 551b, 651b, 751b, 851b); and an air exhaust agent (242, 842) disposed between the gel sheet (241, 341a, 441, 541, 641, 741a, 841) and the other one of the touch sensor (251c, 351c, 551c, 751c, 851c) and the display (251b, 351b, 451b, 551b, 651b, 751b, 851b) to displace air,