mhurhangee/ep-ind-claims huggingface dataset:
A water heater (100; 300), comprising: a storage tank configured to store water; at least one sensor configured to sense a temperature of the water and/or to sense a temperature outside of the water heater (100; 300); a first heater assembly (103, 105) comprising a heating element configured to heat the water; a second heater assembly comprising a heat pump system configured to heat the water; an inverter connected to the heat pump system; and a first controller configured to control the first heater assembly (103, 105); a second controller configured to control the heat pump system by adjusting an output frequency of the inverter, wherein the second controller is configured to: determine a target pressure (Pb) of the heat pump system based on the sensed temperature outside of the water heater (100; 300), the sensed temperature of the water in the storage tank, and a set temperature; determine a frequency change (ΔHz) based on a difference between the target pressure (Pb) and a pressure measured (Pa) in the heat pump system; determine a target frequency of the inverter by reflecting the frequency change (ΔHz); and control the inverter by adjusting the output frequency based on the target frequency. a storage tank configured to store water; at least one sensor configured to sense a temperature of the water and/or to sense a temperature outside of the water heater (100; 300); a first heater assembly (103, 105) comprising a heating element configured to heat the water; a second heater assembly comprising a heat pump system configured to heat the water; an inverter connected to the heat pump system; and a first controller configured to control the first heater assembly (103, 105); a second controller configured to control the heat pump system by adjusting an output frequency of the inverter, wherein the second controller is configured to: determine a target pressure (Pb) of the heat pump system based on the sensed temperature outside of the water heater (100; 300), the sensed temperature of the water in the storage tank, and a set temperature; determine a frequency change (ΔHz) based on a difference between the target pressure (Pb) and a pressure measured (Pa) in the heat pump system; determine a target frequency of the inverter by reflecting the frequency change (ΔHz); and control the inverter by adjusting the output frequency based on the target frequency. determine a target pressure (Pb) of the heat pump system based on the sensed temperature outside of the water heater (100; 300), the sensed temperature of the water in the storage tank, and a set temperature; determine a frequency change (ΔHz) based on a difference between the target pressure (Pb) and a pressure measured (Pa) in the heat pump system; determine a target frequency of the inverter by reflecting the frequency change (ΔHz); and control the inverter by adjusting the output frequency based on the target frequency.
Method for shaping a glass sheet having a thickness Ev, comprising: a step of applying and adhering onto a first surface of the sheet a layer of a first material withstanding higher tensile stresses than those of said sheet, said layer having a thickness E1 such that, when this complex is subjected to bending, the neutral fiber is moved by more than 20% of the sheet's thickness Ev; characterized in that it also comprises: a step of elastically deforming the complex comprising the sheet coated with the first layer of material into the final shape, such that the sheet is principally subjected to compression relative to the initial shape because of the neutral fiber having moved; a step of applying a layer of a second material, resistant to compression stresses, on a free surface of the layer of the first material opposite to the sheet, the layer of the second material adopting a final shape of said surface of the layer of first material, the layer of second material shaping the complex into the final shape; a step of adhering the layer of the second material onto the layer of the first material and of dimensionally stabilizing the final shape; and a release step, during which: - the layer of second material keeps the layer of first material subjected to traction, - a constitutive material of the sheet is principally subjected to compression; and - the material of the layer of second material is subjected to compression. a step of elastically deforming the complex comprising the sheet coated with the first layer of material into the final shape, such that the sheet is principally subjected to compression relative to the initial shape because of the neutral fiber having moved; a step of applying a layer of a second material, resistant to compression stresses, on a free surface of the layer of the first material opposite to the sheet, the layer of the second material adopting a final shape of said surface of the layer of first material, the layer of second material shaping the complex into the final shape; a step of adhering the layer of the second material onto the layer of the first material and of dimensionally stabilizing the final shape; and a release step, during which: - the layer of second material keeps the layer of first material subjected to traction, - a constitutive material of the sheet is principally subjected to compression; and - the material of the layer of second material is subjected to compression. - the layer of second material keeps the layer of first material subjected to traction, - a constitutive material of the sheet is principally subjected to compression; and - the material of the layer of second material is subjected to compression.
In vitro method for the diagnosis or prognosis of major depression which comprises measuring, in a biological sample obtained from the patient, the level of expression or concentration level of LRP1 or a fragment thereof selected from the list comprising: LRP1 of SEQ ID NO: 9 and/or pro-LRP1 of SEQ ID NO:7, wherein if a deviation or variation of the ratio of the expression or concentration level of LRP1 of SEQ ID NO: 9 / proLRP1 of SEQ ID NO: 7, or of the level of expression or concentration level of pro-LRP1 of SEQ ID NO:7 is identified, as compared with the reference level of expression or concentration level measured in healthy control subjects, this is indicative that the subject is suffering from major depression or has a bad prognosis.
A clam assembly of a connection assembly for connecting adjacent tubulars to form a riser, the tubulars having a reference component and flanged ends connected end to end by a plurality of connectors to form an elongate fluid path for passage of fluids, the clam assembly comprising: a plurality of segments selectively movable between an open position to receive the adjacent tubulars and a closed position positionable around the adjacent tubulars, the plurality of segments disposable about a periphery of the adjacent tubulars; and at least one drive mechanism carried by the plurality of segments, the at least one drive mechanism comprising a driver to drive a connector of the plurality of connectors through the flanged ends of the adjacent tubulars, the driver movable between a retracted and an extended position to drive the connector whereby a connection is formed between the adjacent tubulars an orienter (254, 1058) carried by the plurality of segments, the orienter engageable with a reference component of the tubulars whereby the plurality of segments is orientable about the tubulars the orienter comprising an upper receptacle and a lower receptacle, wherein the upper receptacle comprises a pair of arms defining an inlet to grippingly receive the reference component. a plurality of segments selectively movable between an open position to receive the adjacent tubulars and a closed position positionable around the adjacent tubulars, the plurality of segments disposable about a periphery of the adjacent tubulars; and at least one drive mechanism carried by the plurality of segments, the at least one drive mechanism comprising a driver to drive a connector of the plurality of connectors through the flanged ends of the adjacent tubulars, the driver movable between a retracted and an extended position to drive the connector whereby a connection is formed between the adjacent tubulars an orienter (254, 1058) carried by the plurality of segments, the orienter engageable with a reference component of the tubulars whereby the plurality of segments is orientable about the tubulars the orienter comprising an upper receptacle and a lower receptacle, wherein the upper receptacle comprises a pair of arms defining an inlet to grippingly receive the reference component.
Facility for the continuous treatment of the surface of a strand profile consisting of a plastic material in a treatment chamber which can be flooded with a gas and which has an inlet for introducing the strand profile into the treatment chamber and an outlet for removing the treated strand profile from the treatment chamber, characterised in that both the inlet and the outlet each consist of at least one replaceable separating disc (6, 15) with an opening for the strand profile to be treated, the cross-section of the opening corresponding congruently to the cross-section of the strand profile, wherein the separating discs (6, 7; 15, 16) are contained in receptacles in a gas-tight manner, and the cutting discs (6, 7, 15, 16) are held in the receptacles by means of a bayonet catch. the separating discs (6, 7; 15, 16) are contained in receptacles in a gas-tight manner, and the cutting discs (6, 7, 15, 16) are held in the receptacles by means of a bayonet catch.
A composite material comprising: a first layer comprising a fiber mesh core and non-compressible and non-elastic material comprising at least one of: polyurethane, rubber, and polyvinylchloride, wherein the first layer has a thickness greater than about 0.762 millimeter (0.03") and less than about 6.35 millimeter (0.25"); a second layer bonded to the first layer, the second layer comprising a closed cell foam of at least one of: polyolefin foam, polyurethane foam and rubber based foam; and a third layer bonded to the second layer, the third layer comprising a thin film or fabric material comprising at least one of: polyester, polyurethane, polyolefin and nylon, wherein the composite material is coilable and maintains a consistent linear dimension within about 1% of total length in a coiled configuration compared with a linear configuration, and wherein each layer is seamless and continuous. a first layer comprising a fiber mesh core and non-compressible and non-elastic material comprising at least one of: polyurethane, rubber, and polyvinylchloride, wherein the first layer has a thickness greater than about 0.762 millimeter (0.03") and less than about 6.35 millimeter (0.25"); a second layer bonded to the first layer, the second layer comprising a closed cell foam of at least one of: polyolefin foam, polyurethane foam and rubber based foam; and a third layer bonded to the second layer, the third layer comprising a thin film or fabric material comprising at least one of: polyester, polyurethane, polyolefin and nylon, wherein the composite material is coilable and maintains a consistent linear dimension within about 1% of total length in a coiled configuration compared with a linear configuration, and wherein each layer is seamless and continuous.
A high-Mn steel plate having a component composition containing, in mass%, C: 0.20 to 0.70%, Si: 0.05 to 1.0%, Mn: 15 to 30%, P: 0.028% or less, S: 0.02% or less, Al: 0.01 to 0.1%, Cr: 0.5 to 7.0%, Ni: 0.03 to 0.30%, N: 0.0010 to 0.0200%, and one or two or more of Nb: 0.003 to 0.030%, V: 0.03 to 0.10%, Ti: 0.003 to 0.040%, and optionally an element in at least one group selected from the following group A or B: Group A: one or two, in mass%, selected from Mo: 0.05 to 2.0% and W: 0.05 to 2.0% Group B: one or two or more, in mass%, selected from Ca: 0.0005 to 0.0050%, Mg: 0.0005 to 0.0050%, and REM: 0.0010 to 0.0200% with the balance being Fe and incidental impurities, wherein: a microstructure 0.5 mm under a surface of the steel plate includes austenite as a base phase; and 25% or more of the austenite, in area ratio, has an equivalent circle diameter of 10 μm or more and an aspect ratio of a major axis to a minor axis of 3 or more. Group A: one or two, in mass%, selected from Mo: 0.05 to 2.0% and W: 0.05 to 2.0% Group B: one or two or more, in mass%, selected from Ca: 0.0005 to 0.0050%, Mg: 0.0005 to 0.0050%, and REM: 0.0010 to 0.0200% with the balance being Fe and incidental impurities, a microstructure 0.5 mm under a surface of the steel plate includes austenite as a base phase; and 25% or more of the austenite, in area ratio, has an equivalent circle diameter of 10 μm or more and an aspect ratio of a major axis to a minor axis of 3 or more.
Mold device for forming a plastic container from a preform, said preform having at least one exterior feature formed thereon, said mold device comprising: - a mold defining a mold cavity; - a central exterior rod being movable within said mold cavity, - said central exterior rod having a locating feature formed therewith, said locating feature engagable with the at least one exterior feature of the preform for maintaining a central orientation of the preform within said mold cavity during forming, - wherein said locating feature of said central exterior rod comprises a protrusion extending therefrom, - said protrusion being sized and shaped to closely conform to the at least one exterior feature of the preform, and - said locating feature of said central exterior rod comprising a shape that is adapted to closely conform to the at least one exterior feature of the preform to limit lateral movement of the preform or its final container shape during at least a portion of the forming, characterized in that - said protrusion is cylindrically shaped. - a mold defining a mold cavity; - a central exterior rod being movable within said mold cavity, - said central exterior rod having a locating feature formed therewith, said locating feature engagable with the at least one exterior feature of the preform for maintaining a central orientation of the preform within said mold cavity during forming, - wherein said locating feature of said central exterior rod comprises a protrusion extending therefrom, - said protrusion being sized and shaped to closely conform to the at least one exterior feature of the preform, and - said locating feature of said central exterior rod comprising a shape that is adapted to closely conform to the at least one exterior feature of the preform to limit lateral movement of the preform or its final container shape during at least a portion of the forming, - said protrusion is cylindrically shaped.
A method of detecting a ESA hi PROCR hi SSEA-3 + or CD44 + CD24 -/lo SSEA-3 + breast cancer stem cell in a patient, the method comprising detecting whether the breast cancer stem cell is present in an isolated biological sample by contacting the biological sample with an anti-SSEA3 antibody and antibodies that bind to tumor cell antigens ESA/PROCR and tumor cell antigens CD44/CD24 on the breast cancer stem cell, and detecting the specific binding by the anti-SSEA3 antibody to the breast cancer stem cell and the specific binding by the antibodies that bind to PROCR, ESA, CD44, and CD24 on the breast cancer stem cell; thereby detecting the ESA hi PROCR hi SSEA-3 + or CD44 + CD24 -/lo SSEA-3 + breast cancer stem cell.
A method for cleaning a flat object comprising the step of providing a flat object and subjecting the flat object to the following steps: (a) a loading module (102, 302, 402) for loading said flat object onto a conveyor; (b) a vibration module (104, 304, 404) for contacting the flat object with at least one beat roller to dislodge matter from the flat object; (c) a washing module (106, 306, 406) for washing and rinsing the flat object; (d) a drying module (108, 308, 408) for drying the flat object; and (e) a discharge module (110, 310, 410) for unloading the flat object, characterised in that the flat object is conveyed on a conveyor through the washing module (106, 306, 406) and prevented or restricted from flipping over by an anti-flip roller bar at one end of the conveyor. (a) a loading module (102, 302, 402) for loading said flat object onto a conveyor; (b) a vibration module (104, 304, 404) for contacting the flat object with at least one beat roller to dislodge matter from the flat object; (c) a washing module (106, 306, 406) for washing and rinsing the flat object; (d) a drying module (108, 308, 408) for drying the flat object; and (e) a discharge module (110, 310, 410) for unloading the flat object, characterised in that the flat object is conveyed on a conveyor through the washing module (106, 306, 406) and prevented or restricted from flipping over by an anti-flip roller bar at one end of the conveyor.
Method for controlling a brake system of a vehicle, wherein the brake system has at least one wheel brake per vehicle wheel, wherein sensor means for determining wheel speeds of the vehicle wheels are provided for the wheel brakes, and wherein the brake system is designed to execute brake control functions on the basis of the wheel speeds determined by the sensor means, wherein the method has the following steps: • detecting a failure of the sensor means for at least one of the vehicle wheels, • checking whether a brake control function is being executed by the brake system at the time of the failure, • if a brake control function is being executed by the brake system at the time of the failure, continuing the brake control function and deactivating the brake control function when the execution of the brake control function has been completed, • if no brake control function is being executed by the brake system at the time of the failure, checking whether a brake control function is initiated within a defined period of time after the time of the failure, • if a brake control function is initiated within the defined period of time after the time of the failure, executing the brake control function, and • deactivating the brake control function when the execution of the brake control function has been completed and the period of time has expired or if no brake control function has been initiated within the defined period of time after the time of the failure. • detecting a failure of the sensor means for at least one of the vehicle wheels, • checking whether a brake control function is being executed by the brake system at the time of the failure, • if a brake control function is being executed by the brake system at the time of the failure, continuing the brake control function and deactivating the brake control function when the execution of the brake control function has been completed, • if no brake control function is being executed by the brake system at the time of the failure, checking whether a brake control function is initiated within a defined period of time after the time of the failure, • if a brake control function is initiated within the defined period of time after the time of the failure, executing the brake control function, and • deactivating the brake control function when the execution of the brake control function has been completed and the period of time has expired or if no brake control function has been initiated within the defined period of time after the time of the failure.
Foamed caps and closure seal comprising as one of the layers polyethylene foam wherein the foam is obtained by foaming of low density polyethylene copolymer obtained by a high pressure polymerisation process in the presence of 1,4-butanediol dimethacrylate.
A vehicle comprising: a frame comprising a first fixing point and a second fixing point; a drive shaft fixed to the frame; an actuating element pivotably fixed to the frame at the first fixing point and moveable by a stroke along a movement path; a driving element fixed to the frame at the second fixing point and coupled to the drive shaft; and a deflection element coupled to the actuating element, wherein the drive shaft is arranged between the first fixing point and the second fixing point; and wherein the deflection element is coupled to the actuating element in such a way that during a stroke the deflection element deflects the driving element, characterized in that the frame comprises a bottom bracket housing and the drive shaft is fitted into the bottom bracket housing. a frame comprising a first fixing point and a second fixing point; a drive shaft fixed to the frame; an actuating element pivotably fixed to the frame at the first fixing point and moveable by a stroke along a movement path; a driving element fixed to the frame at the second fixing point and coupled to the drive shaft; and a deflection element coupled to the actuating element, wherein the drive shaft is arranged between the first fixing point and the second fixing point; and wherein the deflection element is coupled to the actuating element in such a way that during a stroke the deflection element deflects the driving element, characterized in that the frame comprises a bottom bracket housing and the drive shaft is fitted into the bottom bracket housing.
A downlink control information reception method, wherein the method comprises: determining, by a terminal device, a first resource set based on M resource subsets into which target resources are divided, wherein the target resources are consecutive in frequency domain, at least two of the M resource subsets do not overlap in frequency domain, and each resource subset comprises at least one control channel bearing resource unit, M is an integer, and M ≥ 2; the first resource set comprises N control channel bearing resource units, at least two of the N control channel bearing resource units belong to different resource subsets, and at least two of the N control channel bearing resource units are inconsecutive in frequency domain, N ≥ 2; wherein each of the N control channel bearing resource units includes at least two resource element groups, REGs, at least two REGs included in each control channel bearing resource unit are consecutive in frequency domain, each REG comprises a plurality of resource elements, REs; and receiving, by the terminal device, downlink control information sent by a network device on the first resource set. determining, by a terminal device, a first resource set based on M resource subsets into which target resources are divided, wherein the target resources are consecutive in frequency domain, at least two of the M resource subsets do not overlap in frequency domain, and each resource subset comprises at least one control channel bearing resource unit, M is an integer, and M ≥ 2; the first resource set comprises N control channel bearing resource units, at least two of the N control channel bearing resource units belong to different resource subsets, and at least two of the N control channel bearing resource units are inconsecutive in frequency domain, N ≥ 2; wherein each of the N control channel bearing resource units includes at least two resource element groups, REGs, at least two REGs included in each control channel bearing resource unit are consecutive in frequency domain, each REG comprises a plurality of resource elements, REs; and wherein the target resources are consecutive in frequency domain, at least two of the M resource subsets do not overlap in frequency domain, and each resource subset comprises at least one control channel bearing resource unit, M is an integer, and M ≥ 2; the first resource set comprises N control channel bearing resource units, at least two of the N control channel bearing resource units belong to different resource subsets, and at least two of the N control channel bearing resource units are inconsecutive in frequency domain, N ≥ 2; wherein each of the N control channel bearing resource units includes at least two resource element groups, REGs, at least two REGs included in each control channel bearing resource unit are consecutive in frequency domain, each REG comprises a plurality of resource elements, REs; and receiving, by the terminal device, downlink control information sent by a network device on the first resource set.