mhurhangee/patent-ind-claim-en huggingface dataset:
A member designing method, the member comprising one or more formed products assembled, the method comprising: a first step where a computer performs press forming analysis based on a shape of the member, a blank holder force, a friction coefficient, a tensile strength of a material, a yield strength, a stress-strain relation, and a sheet thickness, as press forming conditions, to calculate sheet thickness distribution and post-formation strain distribution of the one or more formed products; and a second step performed after the first step, where the computer performs strength analysis , crash analysis or fatigue analysis as performance analysis based on the sheet thickness distribution, the post-formation strain distribution of the one or more formed products and the shape of the member, to calculate performance of the member, wherein the computer changes at least one of the press forming conditions by using an optimization tool, the at least one of the press forming conditions being the blank holder force; the computer repeats the calculations performed in the process from said first step through said second step a predetermined number of times or repeats the calculation until the performance has attained a target value ; and the computer outputs a press forming condition that gives a maximum value of the performance during performing the calculations a predetermined number of times, a press forming condition that gives the target value of the performance or a press forming condition that gives a stable region of the performance, as an optimum press forming condition. a first step where a computer performs press forming analysis based on a shape of the member, a blank holder force, a friction coefficient, a tensile strength of a material, a yield strength, a stress-strain relation, and a sheet thickness, as press forming conditions, to calculate sheet thickness distribution and post-formation strain distribution of the one or more formed products; and a second step performed after the first step, where the computer performs strength analysis , crash analysis or fatigue analysis as performance analysis based on the sheet thickness distribution, the post-formation strain distribution of the one or more formed products and the shape of the member, to calculate performance of the member, wherein the computer changes at least one of the press forming conditions by using an optimization tool, the at least one of the press forming conditions being the blank holder force; the computer repeats the calculations performed in the process from said first step through said second step a predetermined number of times or repeats the calculation until the performance has attained a target value ; and the computer outputs a press forming condition that gives a maximum value of the performance during performing the calculations a predetermined number of times, a press forming condition that gives the target value of the performance or a press forming condition that gives a stable region of the performance, as an optimum press forming condition.
An eIMTA-enabled user equipment configured to: identify, based on a System Information Block 1, SIBi, message, a first uplink/downlink, UL/DL, configuration that indicates downlink subframes and subframes that include a downlink pilot time slot, DwPTS, in a radio frame; identify, based on a Physical Downlink Control Channel, PDCCH, or an enhanced PDCCH, ePDCCH, message, a second UL/DL configuration that indicates downlink subframes and subframes that include the DwPTS in the radio frame, wherein at least one subframe of the downlink subframes and the subframes that include the DwPTS indicated by the second UL/DL configuration is identified as an uplink subframe in the radio frame based on the first UL/DL configuration; increment a running discontinuous reception, DRX, timer on the indicated downlink subframes and subframes that include the DwPTS based on the first UL/DL configuration, and monitor the indicated downlink subframes and subframes that include the DwPTS based on the second UL/DL configuration. identify, based on a System Information Block 1, SIBi, message, a first uplink/downlink, UL/DL, configuration that indicates downlink subframes and subframes that include a downlink pilot time slot, DwPTS, in a radio frame; identify, based on a Physical Downlink Control Channel, PDCCH, or an enhanced PDCCH, ePDCCH, message, a second UL/DL configuration that indicates downlink subframes and subframes that include the DwPTS in the radio frame, wherein at least one subframe of the downlink subframes and the subframes that include the DwPTS indicated by the second UL/DL configuration is identified as an uplink subframe in the radio frame based on the first UL/DL configuration; increment a running discontinuous reception, DRX, timer on the indicated downlink subframes and subframes that include the DwPTS based on the first UL/DL configuration, and monitor the indicated downlink subframes and subframes that include the DwPTS based on the second UL/DL configuration.
A room temperature curable resin composition comprising an organopolymer having both ends of the molecular chain blocked with a silanol group and/or a hydrolyzable silyl group as a main component, and an organosilicon compound having the average structural formula described below: wherein Z represents a 2 to 20 valent group containing an organosiloxane structure, R 1 independently represents an unsubstituted or substituted alkyl group having 1 to 10 carbon atoms or represents an unsubstituted or substituted aryl group having 6 to 10 carbon atoms, R 2 independently represents an unsubstituted or substituted alkyl group having 1 to 10 carbon atoms or represents an unsubstituted or substituted aryl group having 6 to 10 carbon atoms, R 3 independently represents a hydrogen atom, an unsubstituted or substituted alkyl group having 1 to 20 carbon atoms, an unsubstituted or substituted alkoxy group having 1 to 20 carbon atoms, or an oxy radical (O·), R 4 independently represents a hydrogen atom or an unsubstituted or substituted alkyl group having 1 to 10 carbon atoms, A 1 independently represents a single bond or an unsubstituted or substituted alkylene group having 1 to 20 carbon atoms and free of a heteroatom, A 2 independently represents a single bond or a divalent linking group containing a heteroatom, A 3 independently represents an unsubstituted or substituted alkylene group having 2 to 20 carbon atoms and free of a heteroatom, m is a number of 1 to 3, p is a number of 1 to 10, q is a number of 1 to 10, and p + q corresponds to a valence of Z and satisfies 2 to 20. an organopolymer having both ends of the molecular chain blocked with a silanol group and/or a hydrolyzable silyl group as a main component, and an organosilicon compound having the average structural formula described below: wherein Z represents a 2 to 20 valent group containing an organosiloxane structure, R 1 independently represents an unsubstituted or substituted alkyl group having 1 to 10 carbon atoms or represents an unsubstituted or substituted aryl group having 6 to 10 carbon atoms, R 2 independently represents an unsubstituted or substituted alkyl group having 1 to 10 carbon atoms or represents an unsubstituted or substituted aryl group having 6 to 10 carbon atoms, R 3 independently represents a hydrogen atom, an unsubstituted or substituted alkyl group having 1 to 20 carbon atoms, an unsubstituted or substituted alkoxy group having 1 to 20 carbon atoms, or an oxy radical (O·), R 4 independently represents a hydrogen atom or an unsubstituted or substituted alkyl group having 1 to 10 carbon atoms, A 1 independently represents a single bond or an unsubstituted or substituted alkylene group having 1 to 20 carbon atoms and free of a heteroatom, A 2 independently represents a single bond or a divalent linking group containing a heteroatom, A 3 independently represents an unsubstituted or substituted alkylene group having 2 to 20 carbon atoms and free of a heteroatom, m is a number of 1 to 3, p is a number of 1 to 10, q is a number of 1 to 10, and p + q corresponds to a valence of Z and satisfies 2 to 20.
A domestic or industrial waste incineration plant of the type comprising a reactor (RC) with at least one burner fed by a fuel supply line and an expansion turbine (TRV) which directs steam to the system to preheat the waste before the combustion reactor (RC); characterised in that the plant comprises: - a feed hopper (TA) having a shutter at its inlet and outlet and comprising means capable of preheating the waste using steam taken from the expansion turbine (TRV) - an intermediate hopper (TI) that can collect the preheated waste in the feed hopper and introduce it into the upper part of the reactor, - a worm screw (VA) to transport waste from the feed hopper (TA) to the intermediate hopper (TI) by heating it with steam directed from the expansion turbine (TRV), - the reactor being equipped with three burners: a main burner (BC), an auxiliary burner (BA) and a catalytic burner (BC) which are positioned near the flue gas outlet, each of these three burners being supplied with pure oxygen by an oxygen production circuit, - a steam circuit fixed to the reactor walls and comprising at least one compressor and a condenser which condenses the water vapor present in the combustion gases, having passed through the compressor , - a heat exchanger consisting of a bundle of tubes in thermal contact with the reactor (RC) in order to recover part of the heat thus released and used to vaporize the water and stabilize the temperature inside the reactor, where the major part of the steam is directed into the expansion turbine (TRV), another proportion of the steam is injected into the intermediate hopper (TI). - a feed hopper (TA) having a shutter at its inlet and outlet and comprising means capable of preheating the waste using steam taken from the expansion turbine (TRV) - an intermediate hopper (TI) that can collect the preheated waste in the feed hopper and introduce it into the upper part of the reactor, - a worm screw (VA) to transport waste from the feed hopper (TA) to the intermediate hopper (TI) by heating it with steam directed from the expansion turbine (TRV), - the reactor being equipped with three burners: a main burner (BC), an auxiliary burner (BA) and a catalytic burner (BC) which are positioned near the flue gas outlet, each of these three burners being supplied with pure oxygen by an oxygen production circuit, - a steam circuit fixed to the reactor walls and comprising at least one compressor and a condenser which condenses the water vapor present in the combustion gases, having passed through the compressor , - a heat exchanger consisting of a bundle of tubes in thermal contact with the reactor (RC) in order to recover part of the heat thus released and used to vaporize the water and stabilize the temperature inside the reactor, where the major part of the steam is directed into the expansion turbine (TRV), another proportion of the steam is injected into the intermediate hopper (TI).
A cotton bud, characterised in that a shaft is made from rolled dissolvable paper and the buds at the ends comprise entangled dissolvable cotton wool type fibres.
A sensing circuit suitable to be provided in a display area, the sensing circuit comprising: a plurality of sensor electrodes (TE, RE) configured to form a first capacitance between the sensor electrodes; a plurality of proximity sensing electrodes (PE) electrically isolated from the sensor electrodes and configured to form a second capacitance between at least one of the sensor electrodes and the proximity sensing electrodes, wherein a density of at least one of the proximity sensing electrodes is less than a density of at least one of the sensor electrodes at an overlap with a sensor (SENS); wherein the proximity sensing electrodes and the sensor electrodes have a mesh structure in a plan view; and a mesh hole size of the at least one of the proximity sensing electrodes is greater than mesh hole sizes of the sensor electrodes. a plurality of sensor electrodes (TE, RE) configured to form a first capacitance between the sensor electrodes; a plurality of proximity sensing electrodes (PE) electrically isolated from the sensor electrodes and configured to form a second capacitance between at least one of the sensor electrodes and the proximity sensing electrodes, wherein a density of at least one of the proximity sensing electrodes is less than a density of at least one of the sensor electrodes at an overlap with a sensor (SENS); wherein the proximity sensing electrodes and the sensor electrodes have a mesh structure in a plan view; and a mesh hole size of the at least one of the proximity sensing electrodes is greater than mesh hole sizes of the sensor electrodes.
Method for recovering a target protein from a feedstock, said feedstock comprising said target protein and at least one impurity compound selected from host cell proteins (HCP), DNA, RNA or other nucleic acid, or a combination of two or more thereof, and optionally further comprising albumins, endotoxins, detergents and microorganisms, or fragments thereof, or a combination of two or more thereof, the feedstock being in the form of a solution or suspension, and the target protein being characterized by a hydrodynamic radius R h1 and the impurity compound being characterized by a hydrodynamic radius R h2 , wherein R h1 > R h2 , the method comprising the following steps (i) to (iv) and optionally step (v): (i) providing a polymeric mesh comprising at least one crosslinked polymer containing positively charged amino groups, the polymer being characterized by a pore size exclusion limit R hi which can be set variably; (ii) adapting the variable pore size exclusion limit R hi of the polymeric mesh to the hydrodynamic radii R h1 and R h2 such that R h2 < R hi and R h1 > R hi ; (iii) contacting the polymeric mesh with the feedstock for a time sufficient to allow retaining the impurity compound in the polymeric mesh and excluding the target protein from the polymeric mesh; (iv) separating the polymeric mesh containing the retained impurity compound from the feedstock containing the excluded target protein in order to obtain a purified feedstock; (v) optionally, isolating the target protein from the purified feedstock. (i) providing a polymeric mesh comprising at least one crosslinked polymer containing positively charged amino groups, the polymer being characterized by a pore size exclusion limit R hi which can be set variably; (ii) adapting the variable pore size exclusion limit R hi of the polymeric mesh to the hydrodynamic radii R h1 and R h2 such that R h2 < R hi and R h1 > R hi ; (iii) contacting the polymeric mesh with the feedstock for a time sufficient to allow retaining the impurity compound in the polymeric mesh and excluding the target protein from the polymeric mesh; (iv) separating the polymeric mesh containing the retained impurity compound from the feedstock containing the excluded target protein in order to obtain a purified feedstock; (v) optionally, isolating the target protein from the purified feedstock.
A centrifugal impeller shroud assembly having a dynamically moveable impeller shroud for encasing a rotatable centrifugal impeller and resolving misalignment between the impeller shroud and the rotatable centrifugal impeller, said assembly comprising: a static casing ; an impeller shroud facing the rotatable centrifugal impeller and extending from an inlet to an outlet ; a shroud arm coupled between the casing and the impeller shroud, the shroud arm comprising a flexible portion , characterized in that the shroud arm and impeller shroud at least partially defining a first cavity in fluid communication with the inlet and a second cavity in fluid communication with the outlet, the flexible portion being configured to flex responsive to a differential pressure between the first cavity and the second cavity; and a thermal member coupled to the impeller shroud proximate the outlet, the thermal member having a coefficient of thermal expansion (CTE) lower than the CTE of the shroud. a static casing ; an impeller shroud facing the rotatable centrifugal impeller and extending from an inlet to an outlet ; a shroud arm coupled between the casing and the impeller shroud, the shroud arm comprising a flexible portion , characterized in that the shroud arm and impeller shroud at least partially defining a first cavity in fluid communication with the inlet and a second cavity in fluid communication with the outlet, the flexible portion being configured to flex responsive to a differential pressure between the first cavity and the second cavity; and a thermal member coupled to the impeller shroud proximate the outlet, the thermal member having a coefficient of thermal expansion (CTE) lower than the CTE of the shroud.
An adhesive composition for attachment to skin, the composition comprising 10-14% (w/w) polyethylene copolymer, 15-20% (w/w) polypropylene glycol (PPG), 13-18% (w/w) polyolefin, 10-15% (w/w) polybutene, 1-5% (w/w) wax, 4-8% (w/w) polyacrylic acid (PAA), and a total of 30-35% (w/w) of one or more further absorbent material(s).
A container door opening and closing system for opening and closing the doors of containers each container being provided with at least one handle securely attached to the container in its upper half and configured for supporting the weight of the fully loaded container and with doors in its lower half actuable by an opening and closing mechanism mechanically attached to the doors and to an opening and closing head which has at least one projection and is integrated in the handle , said system including: a lifting arm actuated by manually or automatically controlled actuating means ; a gripping head arranged at the distal end of the lifting arm and configured for being couplable to said handle and for being securely attached thereto in a gripping position for lifting the container ; and an opening and closing actuator activated by actuating means and integrated in said gripping head , said opening and closing actuator mechanically couplable to the opening and closing head to move the opening and closing head and to actuate the opening or closing of the doors when the gripping head is in the gripping position, characterized in that : the opening and closing actuator has an interference member complementary to the projection and rotatable around a horizontal axis in a circular trajectory on a vertical plane, said interference member , movable by the actuating means in the circular trajectory, interferes with said projection when the gripping head is in the gripping position and drives and moves the opening and closing head and with it the opening and closing mechanism in said circular trajectory, thereby controlling the opening and closing of the doors. a lifting arm actuated by manually or automatically controlled actuating means ; a gripping head arranged at the distal end of the lifting arm and configured for being couplable to said handle and for being securely attached thereto in a gripping position for lifting the container ; and an opening and closing actuator activated by actuating means and integrated in said gripping head , said opening and closing actuator mechanically couplable to the opening and closing head to move the opening and closing head and to actuate the opening or closing of the doors when the gripping head is in the gripping position, characterized in that : the opening and closing actuator has an interference member complementary to the projection and rotatable around a horizontal axis in a circular trajectory on a vertical plane, said interference member , movable by the actuating means in the circular trajectory, interferes with said projection when the gripping head is in the gripping position and drives and moves the opening and closing head and with it the opening and closing mechanism in said circular trajectory, thereby controlling the opening and closing of the doors.
A container for consumer articles, the container being at least partially formed from a cellulose-fiber-based laminar blank having a thickness (T), the laminar blank defining a portion of the container, which comprises at least a first planar wall and a second planar wall that are connected to one another by a curved edge portion ; wherein the curved edge portion has an inner surface and an outer surface, and the inner surface of the curved edge portion defines an ablation area (A), the ablation area having a length (L) in the longitudinal direction of the curved edge portion and a width (W) that extends across the curved edge portion; wherein the ablation area comprises two or more ablated lines extending substantially in the longitudinal direction of the curved edge portion , each ablated line having a minimum residual thickness (RT) that is less than the thickness (T) of the laminar blank; wherein the minimum residual thickness (RT) of each of the two or more ablated lines is at least about 30 percent and less than about 60 percent of the thickness (T) of the blank; wherein the gap between the low points of two adjacent ablated lines is more than 0.2 millimetres and less than 1.6 millimetres; and wherein the thickness (T) of the laminar blank is from about 300 micrometres to about 360 micrometres.
Water feature with a plurality of pumping devices and water supply lines with the following features: - each pumping device comprises a pump , a jet nozzle and at least one lighting element ; - each pumping device is connected to one of the water supply lines; - each pump is electrically driven; - each pumping device is controlled by an input and control unit, whereby - the pumping devices are arranged in a pump field; - each jet nozzle emits a jet of water of individual throw height or throw width delivered by the associated pumping device; - the distance between the centre axes of the jet nozzles of two adjacent pumping devices does not exceed 100 mm; - at least one lighting element is arranged around the centre axis of a jet nozzle at a maximum distance of 60 mm; - the control signals generated by the input and control unit are stored non-volatile in a memory element; - the digital control of the pumps is effected via a digital multiplex protocol (DMX), whereby the exchange of status information between the input and control unit and the pump devices and the at least one lighting element is carried out bidirectionally via Remote Device Management (RDM) and the emitting operation of the at least one lighting element and the throwing height or throwing distance of the water jets emitted by the pumps are regulated by the input and control unit; - looking at the upper ends of the emitted water jets in their entirety the impression of a virtual, spatially perceptible object is created. - each pumping device comprises a pump , a jet nozzle and at least one lighting element ; - each pumping device is connected to one of the water supply lines; - each pump is electrically driven; - each pumping device is controlled by an input and control unit, whereby - the pumping devices are arranged in a pump field; - each jet nozzle emits a jet of water of individual throw height or throw width delivered by the associated pumping device; - the distance between the centre axes of the jet nozzles of two adjacent pumping devices does not exceed 100 mm; - at least one lighting element is arranged around the centre axis of a jet nozzle at a maximum distance of 60 mm; - the control signals generated by the input and control unit are stored non-volatile in a memory element; - the digital control of the pumps is effected via a digital multiplex protocol (DMX), whereby the exchange of status information between the input and control unit and the pump devices and the at least one lighting element is carried out bidirectionally via Remote Device Management (RDM) and the emitting operation of the at least one lighting element and the throwing height or throwing distance of the water jets emitted by the pumps are regulated by the input and control unit; - looking at the upper ends of the emitted water jets in their entirety the impression of a virtual, spatially perceptible object is created.