mhurhangee/ep-ind-claims huggingface dataset:
Running rail in the form of a sheet metal profile, in particular a rolled sheet metal profile, preferably in the form of a Z-shaped sheet metal profile, having at least one double-layered profile leg which has at least one track for a sliding door, wherein the one, upper sheet metal layer of the double-layered profile leg has at least one hollow profile projection which is formed by loop-shaped bending of the upper sheet metal layer and which forms the at least one track, characterized (a) in that a free sheet-metal end of the sheet-metal profile rests parallel against a further profile leg, and in that the free sheet-metal end and the further profile leg are connected to one another, in particular are connected to one another in a material-locking or form-locking manner, and/or (b) in that an edge of a free sheet-metal end of the sheet-metal profile rests against a profile projection of a further profile leg. having at least one double-layered profile leg which has at least one track for a sliding door, wherein the one, upper sheet metal layer of the double-layered profile leg has at least one hollow profile projection which is formed by loop-shaped bending of the upper sheet metal layer and which forms the at least one track, characterized (a) in that a free sheet-metal end of the sheet-metal profile rests parallel against a further profile leg, and in that the free sheet-metal end and the further profile leg are connected to one another, in particular are connected to one another in a material-locking or form-locking manner, and/or (b) in that an edge of a free sheet-metal end of the sheet-metal profile rests against a profile projection of a further profile leg. (a) in that a free sheet-metal end of the sheet-metal profile rests parallel against a further profile leg, and in that the free sheet-metal end and the further profile leg are connected to one another, in particular are connected to one another in a material-locking or form-locking manner, and/or (b) in that an edge of a free sheet-metal end of the sheet-metal profile rests against a profile projection of a further profile leg.
Use of a solution as a fountain solution for a wet offset printing process, the solution comprising one or more manganese salts of a C1-C3 carboxylic acid, characterized in that the solution has a pH of 4 to 6, and wherein this pH is adjusted by a buffer, preferably a citric acid/citrate buffer.
A method of producing a cryptographic white-box implementation of a cryptographic operation mapping an input message to an output message, wherein the cryptographic operation includes at least one round including a non-linear mapping function configured to map input data to output data, comprising: - producing a cryptographic white-box implementation of the cryptographic operation characterized in that the cryptographic white-box implementation is configured to: - determine that the input data has a diversification number less than a diversification level threshold number; - remap the input data to a remapped input data, wherein the remapped input data corresponds to an input data having a diversification number greater than or equal to the diversification threshold value, and - input the remapped input data into the non-linear mapping function to obtain output data, wherein determining that the input data has a diversification number less than a diversification level threshold value includes determining that the input data corresponds to a constant point associated with the non-linear mapping function and wherein remapping the input data to a remapped input data includes setting the input data to a value C corresponding to a non-constant point. - producing a cryptographic white-box implementation of the cryptographic operation characterized in that the cryptographic white-box implementation is configured to: - determine that the input data has a diversification number less than a diversification level threshold number; - remap the input data to a remapped input data, wherein the remapped input data corresponds to an input data having a diversification number greater than or equal to the diversification threshold value, and - input the remapped input data into the non-linear mapping function to obtain output data,
A hearing assistance device, comprising: a housing; a user manipulatable control element (112-112b, 118, 118c) associated with the housing and movable relative to the housing; and a printed circuit board within the housing including a flexible substrate (190, 290), sound processor circuitry on the flexible substrate, and a variable resistor (146-146b, 246-246b) that is an integral part of the printed circuit board and includes a portion of the flexible substrate, a variable resistance material (192-192b, 292) located on the portion of the flexible substrate, and first and second conductors (196-196b, 198-198b, 296, 298) connected to the variable resistance material; wherein the variable resistor is positioned adjacent to the control element and is configured such that movement of the control element results in a change in variable resistor resistance; and wherein at least a portion of the variable resistor is deflectable relative to adjacent portions of the printed circuit board and the resistance of the variable resistor increases with increases in deflection; or wherein the control element is configured to apply a compression force to the variable resistor and the resistance of the variable resistor decreases with increases in the compression force. a housing; a user manipulatable control element (112-112b, 118, 118c) associated with the housing and movable relative to the housing; and a printed circuit board within the housing including a flexible substrate (190, 290), sound processor circuitry on the flexible substrate, and a variable resistor (146-146b, 246-246b) that is an integral part of the printed circuit board and includes a portion of the flexible substrate, a variable resistance material (192-192b, 292) located on the portion of the flexible substrate, and first and second conductors (196-196b, 198-198b, 296, 298) connected to the variable resistance material; wherein the variable resistor is positioned adjacent to the control element and is configured such that movement of the control element results in a change in variable resistor resistance; and wherein at least a portion of the variable resistor is deflectable relative to adjacent portions of the printed circuit board and the resistance of the variable resistor increases with increases in deflection; or wherein the control element is configured to apply a compression force to the variable resistor and the resistance of the variable resistor decreases with increases in the compression force.
A motor assembly comprising: an impeller; a first diffuser provided at a downstream side of the impeller; a second diffuser provided at a downstream side of the first diffuser; an impeller cover coupled to the second diffuser and accommodating the impeller and the first diffuser; and a motor provided at a downstream side of the second diffuser and configured to rotate the impeller, wherein the second diffuser includes: a hub, an outer wall positioned outside the hub and being concentric with the hub, and a plurality of blades, each of the plurality of blades having a first side connected to the hub and a second side connected to the outer wall, wherein the impeller cover is coupled to the outer wall of the second diffuser, and wherein a communicating portion is provided at the hub of the second diffuser and allows an inside of the hub of the second diffuser to be in communication with an outside of the hub of the second diffuser, wherein the hub of the second diffuser includes a bearing accommodating portion. an impeller; a first diffuser provided at a downstream side of the impeller; a second diffuser provided at a downstream side of the first diffuser; an impeller cover coupled to the second diffuser and accommodating the impeller and the first diffuser; and a motor provided at a downstream side of the second diffuser and configured to rotate the impeller, wherein the second diffuser includes: a hub, an outer wall positioned outside the hub and being concentric with the hub, and a plurality of blades, each of the plurality of blades having a first side connected to the hub and a second side connected to the outer wall, a hub, an outer wall positioned outside the hub and being concentric with the hub, and a plurality of blades, each of the plurality of blades having a first side connected to the hub and a second side connected to the outer wall, wherein the impeller cover is coupled to the outer wall of the second diffuser, and wherein a communicating portion is provided at the hub of the second diffuser and allows an inside of the hub of the second diffuser to be in communication with an outside of the hub of the second diffuser, wherein the hub of the second diffuser includes a bearing accommodating portion.
A method of a network entity, the method comprising: receiving, from another network entity, a notification of an uplink direct current, DC, tone of a user equipment, UE; receiving, from the UE, one or more positioning signals; measuring one or more resources elements, REs, of the one or more positioning signals; applying weights to the one or more measured REs based on the uplink DC tone of the UE, wherein applying weights to the measured REs based on the DC tone of the UE comprises, if an RE is coincident with the uplink DC tone of the UE, applying a weight to the RE to deemphasize its contribution towards determining the positioning related measurement of the positioning signal; deriving positioning related measurements based on the one or more weighted measurements of REs; and transmitting the derived positioning related measurements to the network entity from which the notification of the DC tone was received. receiving, from another network entity, a notification of an uplink direct current, DC, tone of a user equipment, UE; receiving, from the UE, one or more positioning signals; measuring one or more resources elements, REs, of the one or more positioning signals; applying weights to the one or more measured REs based on the uplink DC tone of the UE, wherein applying weights to the measured REs based on the DC tone of the UE comprises, if an RE is coincident with the uplink DC tone of the UE, applying a weight to the RE to deemphasize its contribution towards determining the positioning related measurement of the positioning signal; deriving positioning related measurements based on the one or more weighted measurements of REs; and transmitting the derived positioning related measurements to the network entity from which the notification of the DC tone was received.
An air-conditioning apparatus, comprising: a refrigerant circuit comprising a compressor, an indoor heat exchanger, an expansion valve, and an outdoor heat exchanger that are connected by a refrigerant pipe to allow refrigerant to circulate through the refrigerant circuit; a fan configured to blow indoor air to the indoor heat exchanger; and a controller configured to control an operation state of the compressor, wherein the controller is configured to estimate an oil concentration inside the compressor based on a temperature of gas refrigerant discharged from the compressor and a pressure of the gas refrigerant discharged from the compressor, and characterized in that the controller is configured to, when the oil concentration is less than an oil concentration reference value, continue an operation of the compressor even under a state in which a thermo-off condition is satisfied, wherein the thermo-off condition is satisfied under a state in which the compressor repeats stopping and restarting before the oil concentration reaches a sufficient level, wherein the thermo-off condition is a condition, under which a thermo-off operation is performed, in which the operation of the compressor is stopped and only air blowing by the fan is performed. a refrigerant circuit comprising a compressor, an indoor heat exchanger, an expansion valve, and an outdoor heat exchanger that are connected by a refrigerant pipe to allow refrigerant to circulate through the refrigerant circuit; a fan configured to blow indoor air to the indoor heat exchanger; and a controller configured to control an operation state of the compressor, wherein the controller is configured to estimate an oil concentration inside the compressor based on a temperature of gas refrigerant discharged from the compressor and a pressure of the gas refrigerant discharged from the compressor, and characterized in that the controller is configured to, when the oil concentration is less than an oil concentration reference value, continue an operation of the compressor even under a state in which a thermo-off condition is satisfied, wherein the thermo-off condition is satisfied under a state in which the compressor repeats stopping and restarting before the oil concentration reaches a sufficient level, wherein the thermo-off condition is a condition, under which a thermo-off operation is performed, in which the operation of the compressor is stopped and only air blowing by the fan is performed.
A scanning beam system comprising: a. a scanning beam device comprising a resonant vibrating scanning element operatively coupled to a drive assembly; and b. a base station operatively coupled to the drive assembly of the scanning beam device, the base station being adapted to deliver a drive signal to the drive assembly to drive the scanning element; wherein the drive signal comprises a first component that is configured to scan a beam of light emitted from the scanning element in a scan pattern, the first component being a signal having a periodic waveform, and a second component that is configured to remove stored energy from the scanning element, the second component being a signal having a periodic waveform, and wherein at least a portion of the second component of the drive signal has a different phase from a corresponding portion of the first component of the drive signal and wherein the first component and the second component are at frequencies that are within a Q-factor of a resonant frequency of the scanning element. a. a scanning beam device comprising a resonant vibrating scanning element operatively coupled to a drive assembly; and b. a base station operatively coupled to the drive assembly of the scanning beam device, the base station being adapted to deliver a drive signal to the drive assembly to drive the scanning element;
A polyamide resin composition prepared by blending a polyamide resin and a polyalcohol, wherein the proportion of the number of the amide groups to the number of the carbon atoms in the polyamide resin is from 0.080 to 0.140 and the blending amount of the polyalcohol is from 1 to 10 parts by mass relative to 100 parts by mass of the polyamide resin, wherein the polyamide resin has a structural unit derived from a diamine component (i) containing a mixture of 1,9-nonamethylenediamine and 2-methyl-1,8-octamethylenediamine, wherein the molar ratio of 1,9-nonamethylenediamine to 2-methyl-1,8-octamethylenediamine is 99/1 to 1/99, and a structural unit derived from a dicarboxylic acid component (ii) selected from terephthalic acid and 1,4-cyclohexanedicarboxylic acid.
Liner for surfaces, in particular ceilings or walls, in particular in passenger aircraft, - with at least two profiled frame elements which are arranged opposite each other and spaced apart from each other, - with at least one membrane element which is arranged between the profiled frame elements and is connected to the profiled frame elements at least in part using rearwardly engaging connection means, and - with at least one tautening means to tauten the membrane element between the profiled frame elements, characterised in that - the membrane element has, as a tautening means, at least one tautening zip fastener, wherein the membrane element can be conveyed, by closing the tautening zip fastener, into a tautened state between the profiled frame elements, - the tautening zip fastener (30, 31) has two fastening straps (32, 34) and - at least one connecting part is provided between the two fastening straps (32; 34), through which, when the tautening zip fastener (30, 31) is open, a gaping divergence between the fastening straps (32, 34) is limited. - with at least two profiled frame elements which are arranged opposite each other and spaced apart from each other, - with at least one membrane element which is arranged between the profiled frame elements and is connected to the profiled frame elements at least in part using rearwardly engaging connection means, and - with at least one tautening means to tauten the membrane element between the profiled frame elements, characterised in that - the membrane element has, as a tautening means, at least one tautening zip fastener, wherein the membrane element can be conveyed, by closing the tautening zip fastener, into a tautened state between the profiled frame elements, - the tautening zip fastener (30, 31) has two fastening straps (32, 34) and - at least one connecting part is provided between the two fastening straps (32; 34), through which, when the tautening zip fastener (30, 31) is open, a gaping divergence between the fastening straps (32, 34) is limited.
A flexible manufacturing system, comprising: a printing assembly with a printing device and a retractable screen assembly; the retractable screen assembly comprising: a housing member fastened to the printing device and a screen member that can extend from and retract into the housing member; and characterized in that it further comprises: a support member (320, 322) disposed adjacent to the printing assembly, wherein the printing assembly is configured to move relative to the support member (320, 322); wherein a portion of the screen member can automatically fasten to the support member (320, 322) when the printing device is moved directly adjacent to the support member (320, 322) and while the screen member is retracted within the housing member; and wherein the screen member extends from the housing member as the printing device is moved away from the support member (320, 322) and while the portion remains fastened to the support member (320, 322). a printing assembly with a printing device and a retractable screen assembly; the retractable screen assembly comprising: a housing member fastened to the printing device and a screen member that can extend from and retract into the housing member; and characterized in that it further comprises: a support member (320, 322) disposed adjacent to the printing assembly, wherein the printing assembly is configured to move relative to the support member (320, 322); wherein a portion of the screen member can automatically fasten to the support member (320, 322) when the printing device is moved directly adjacent to the support member (320, 322) and while the screen member is retracted within the housing member; and wherein the screen member extends from the housing member as the printing device is moved away from the support member (320, 322) and while the portion remains fastened to the support member (320, 322). a support member (320, 322) disposed adjacent to the printing assembly, wherein the printing assembly is configured to move relative to the support member (320, 322); wherein a portion of the screen member can automatically fasten to the support member (320, 322) when the printing device is moved directly adjacent to the support member (320, 322) and while the screen member is retracted within the housing member; and wherein the screen member extends from the housing member as the printing device is moved away from the support member (320, 322) and while the portion remains fastened to the support member (320, 322).
A process of increasing syngas production during an upgradation process of petroleum residual oil containing high concentration of concarbon and heavy metals, the process comprising: a) cracking the fluidized petroleum residual oil in Riser; b) separating cracked products from spent upgrading agent using stripper; c) introducing separated spent upgrading agent from a Riser to a Reformer along with steam, hydrocarbon and air or oxygen containing gases for production of syngas; d) burning of residual coke present on partially rejuvenated upgrading agent obtained from the Reformer in a Combustor; e) introducing rejuvenated upgrading agent from the Combustor, and a hydrocarbon in presence of steam and air or oxygen containing gases to an Auxiliary Reformer having cerium, nickel and rhodium based reforming catalyst of select size and shape for enhancing the hydrocarbon reactions for production of additional syngas; and f) circulating rejuvenated upgrading agent from the Auxiliary Reformer to the Riser; wherein, the rejuvenated upgrading material and the partially rejuvenated upgrading agent is a porous fluidizable micro spherical solid particles belonging to Geldart Group A classification; and wherein, the Riser is operated at an outlet temperature of 550°C to 650°C; the Reformer is operated at a temperature of 700°C to 850°C and pressure of 2-30 atm; the Combustor is operated at a temperature in the range of 750°C to 950°C; the Auxiliary Reformer is operated at a temperature range of 650°C to 750°C; and the temperature of the Auxiliary Reformer is maintained at least 50°C to 300°C below that of the combustor and 50°C to 100°C above the temperature of the Riser. a) cracking the fluidized petroleum residual oil in Riser; b) separating cracked products from spent upgrading agent using stripper; c) introducing separated spent upgrading agent from a Riser to a Reformer along with steam, hydrocarbon and air or oxygen containing gases for production of syngas; d) burning of residual coke present on partially rejuvenated upgrading agent obtained from the Reformer in a Combustor; e) introducing rejuvenated upgrading agent from the Combustor, and a hydrocarbon in presence of steam and air or oxygen containing gases to an Auxiliary Reformer having cerium, nickel and rhodium based reforming catalyst of select size and shape for enhancing the hydrocarbon reactions for production of additional syngas; and f) circulating rejuvenated upgrading agent from the Auxiliary Reformer to the Riser; wherein, the rejuvenated upgrading material and the partially rejuvenated upgrading agent is a porous fluidizable micro spherical solid particles belonging to Geldart Group A classification; and wherein, the Riser is operated at an outlet temperature of 550°C to 650°C; the Reformer is operated at a temperature of 700°C to 850°C and pressure of 2-30 atm; the Combustor is operated at a temperature in the range of 750°C to 950°C; the Auxiliary Reformer is operated at a temperature range of 650°C to 750°C; and the temperature of the Auxiliary Reformer is maintained at least 50°C to 300°C below that of the combustor and 50°C to 100°C above the temperature of the Riser.