mhurhangee/patent-ind-claim-en huggingface dataset:
A banknote management method performed by a computer , the method comprising: receiving a serial number of each banknote and first disinfection information that is information relating to a state of disinfection of the banknote; and recording the serial number and the first disinfection information in association with each other in a recording apparatus , characterized in that for a first banknote, and a second banknote that is stored in a stacked state on the first banknote, the banknote management method further comprises: receiving a serial number of the first banknote, and first disinfection information of the first banknote that is information relating to a state of disinfection of the first banknote; receiving a serial number of the second banknote, and first disinfection information of the second banknote that is information relating to a state of disinfection of the second banknote; and updating the first disinfection information of the first banknote in accordance with the first disinfection information of the second banknote when the first disinfection information of the second banknote indicates that the first disinfection information of the second banknote is inferior to the first disinfection information of the first banknote in terms of a state of disinfection. recording the serial number and the first disinfection information in association with each other in a recording apparatus , characterized in that for a first banknote, and a second banknote that is stored in a stacked state on the first banknote, the banknote management method further comprises: receiving a serial number of the first banknote, and first disinfection information of the first banknote that is information relating to a state of disinfection of the first banknote; receiving a serial number of the second banknote, and first disinfection information of the second banknote that is information relating to a state of disinfection of the second banknote; and updating the first disinfection information of the first banknote in accordance with the first disinfection information of the second banknote when the first disinfection information of the second banknote indicates that the first disinfection information of the second banknote is inferior to the first disinfection information of the first banknote in terms of a state of disinfection. receiving a serial number of the first banknote, and first disinfection information of the first banknote that is information relating to a state of disinfection of the first banknote; receiving a serial number of the second banknote, and first disinfection information of the second banknote that is information relating to a state of disinfection of the second banknote; and updating the first disinfection information of the first banknote in accordance with the first disinfection information of the second banknote when the first disinfection information of the second banknote indicates that the first disinfection information of the second banknote is inferior to the first disinfection information of the first banknote in terms of a state of disinfection.
A sound absorbing body comprising a non-woven fabric or a non-woven fabric laminate, wherein the non-woven fabric or the non-woven fabric laminate comprises a fiber that has an average fiber diameter of less than 3,000 nm, the non-woven fabric or the non-woven fabric laminate has a thickness of less than 10 mm, and the non-woven fabric or the non-woven fabric laminate has a bulk density of greater than 70 kg/m 3 and less than 750 kg/m 3 , the sound absorbing body being characterized in that : the non-woven fabric or the non-woven fabric laminate has a unit thickness flow resistance of greater than 4.0 E+06 Ns/m 4 and less than 5.0 E+08 Ns/m 4 , the non-woven fabric or the non-woven fabric laminate has a porosity of lower than 0.92 and the sound absorbing body exhibits a peak of sound absorption of lower than 3,000 Hz wherein the non-woven fabric or the non-woven fabric laminate comprises a fiber that has an average fiber diameter of less than 3,000 nm, the non-woven fabric or the non-woven fabric laminate has a thickness of less than 10 mm, and the non-woven fabric or the non-woven fabric laminate has a bulk density of greater than 70 kg/m 3 and less than 750 kg/m 3 , the sound absorbing body being characterized in that : the non-woven fabric or the non-woven fabric laminate has a unit thickness flow resistance of greater than 4.0 E+06 Ns/m 4 and less than 5.0 E+08 Ns/m 4 , the non-woven fabric or the non-woven fabric laminate has a porosity of lower than 0.92 and the sound absorbing body exhibits a peak of sound absorption of lower than 3,000 Hz the non-woven fabric or the non-woven fabric laminate has a unit thickness flow resistance of greater than 4.0 E+06 Ns/m 4 and less than 5.0 E+08 Ns/m 4 , the non-woven fabric or the non-woven fabric laminate has a porosity of lower than 0.92 and the sound absorbing body exhibits a peak of sound absorption of lower than 3,000 Hz
A random code generator installed in a semiconductor chip, the random code generator comprising: a PUF cell array comprising m×n PUF cells (pc1,1∼pcm,n), wherein m and n are integers, m is greater than one, and n is greater than one; a control circuit connected with the PUF cell array , wherein while an enroll action is performed, the control circuit enrolls the PUF cell array ; and a verification circuit connected with the PUF cell array , wherein while a verification action is performed, the verification circuit sets a first flag corresponding to a first row of the PUF cell array to a first state if at least one of n PUF cells in the first row of the PUF cell array is a low reliability PUF cell, wherein while the verification action is performed, the verification circuit maintains a second flag corresponding to a second row of the PUF cell array in a second state if n PUF cells in the second row of the PUF cell array are normal PUF cells, wherein while the semiconductor chip is enabled, the control circuit reads states of the n normal PUF cells in the second row of the PUF cell array according to the second state stored in the second flag and generates a random code according to the states of the n normal PUF cells in the second row of the PUF cell array . a PUF cell array comprising m×n PUF cells (pc1,1∼pcm,n), wherein m and n are integers, m is greater than one, and n is greater than one; a control circuit connected with the PUF cell array , wherein while an enroll action is performed, the control circuit enrolls the PUF cell array ; and a verification circuit connected with the PUF cell array , wherein while a verification action is performed, the verification circuit sets a first flag corresponding to a first row of the PUF cell array to a first state if at least one of n PUF cells in the first row of the PUF cell array is a low reliability PUF cell, wherein while the verification action is performed, the verification circuit maintains a second flag corresponding to a second row of the PUF cell array in a second state if n PUF cells in the second row of the PUF cell array are normal PUF cells, wherein while the semiconductor chip is enabled, the control circuit reads states of the n normal PUF cells in the second row of the PUF cell array according to the second state stored in the second flag and generates a random code according to the states of the n normal PUF cells in the second row of the PUF cell array .
A rotor arrangement for a vacuum pump, in particular for a turbomolecular pump, comprising a rotor body which rotates about an axis of rotation in the operation of the vacuum pump, wherein the rotor body is bell-shaped and has an inner space whose cross-section increases at a right angle to the axis of rotation in the axial direction, starting from a high vacuum side of the rotor arrangement , wherein the rotor arrangement comprises at least two pump stages which are arranged spaced apart along the axis of rotation and which each comprise pump-active elements which are located at an outer periphery of the rotor body , and wherein the rotor body is wrapped around at the outer periphery , at a plurality of positions which differ from one another in the axial direction, by respective reinforcement bands revolving at least once completely about the axis of rotation , characterized in that the rotor body is wrapped around by a respective reinforcement band in one or more intermediate spaces between the pump stages which are the furthest away from the high vacuum side of the rotor arrangement , and the number of windings of the respective reinforcement bands is different. wherein the rotor body is bell-shaped and has an inner space whose cross-section increases at a right angle to the axis of rotation in the axial direction, starting from a high vacuum side of the rotor arrangement , wherein the rotor arrangement comprises at least two pump stages which are arranged spaced apart along the axis of rotation and which each comprise pump-active elements which are located at an outer periphery of the rotor body , and wherein the rotor body is wrapped around at the outer periphery , at a plurality of positions which differ from one another in the axial direction, by respective reinforcement bands revolving at least once completely about the axis of rotation , the rotor body is wrapped around by a respective reinforcement band in one or more intermediate spaces between the pump stages which are the furthest away from the high vacuum side of the rotor arrangement , and the number of windings of the respective reinforcement bands is different.
An aerosol-generating device comprising: an electrical power supply ; a cavity for receiving an aerosol-generating article (50; 60); a plurality of semiconductor heaters positioned within the cavity , each semiconductor heater comprising a substrate layer and a heating layer provided on the substrate layer , wherein the heating layer is a continuous layer; at least one semiconductor gas sensor, wherein the heating layer of at least one of the semiconductor heaters is operable as a semiconductor gas sensor so that the heating layer is a combined heating and gas sensing layer; and a controller configured to control a supply of electrical power from the electrical power supply to each of the semiconductor heaters . an electrical power supply ; a cavity for receiving an aerosol-generating article (50; 60); a plurality of semiconductor heaters positioned within the cavity , each semiconductor heater comprising a substrate layer and a heating layer provided on the substrate layer , wherein the heating layer is a continuous layer; at least one semiconductor gas sensor, wherein the heating layer of at least one of the semiconductor heaters is operable as a semiconductor gas sensor so that the heating layer is a combined heating and gas sensing layer; and a controller configured to control a supply of electrical power from the electrical power supply to each of the semiconductor heaters .
Computer-implemented method for automated route management of a marine vessel , the method comprising: determining route plan information of the marine vessel ; determining seawater characteristic information associated with the route plan information ; receiving operational characteristics of a heat exchanger sub-system of a gas solution system installed on the marine vessel , wherein the heat exchanger sub-system is configured to use seawater as a cooling medium; generating a dynamic control model using the route plan information , the seawater characteristic information and the operational characteristics; and adjusting the route plan information based on the dynamic control model . determining route plan information of the marine vessel ; determining seawater characteristic information associated with the route plan information ; receiving operational characteristics of a heat exchanger sub-system of a gas solution system installed on the marine vessel , wherein the heat exchanger sub-system is configured to use seawater as a cooling medium; generating a dynamic control model using the route plan information , the seawater characteristic information and the operational characteristics; and adjusting the route plan information based on the dynamic control model .
Endless belt with a) a carrying side , a running side and a first and a second belt edge running along a running direction , b) a tension support being arranged between the carrying side and the running side , wherein the tension support has a fabric extending from the first to the second belt edge , wherein the fabric has, in a direction perpendicular to the running direction , at least two different materials, wherein the fabric has a first material in a region of the belt edges and a second material in a region facing away from the belt edges , wherein the first material and the second material are different, characterized in that c) the first material in the region of the belt edges is food grade. a) a carrying side , a running side and a first and a second belt edge running along a running direction , b) a tension support being arranged between the carrying side and the running side , wherein the tension support has a fabric extending from the first to the second belt edge , wherein the fabric has, in a direction perpendicular to the running direction , at least two different materials, wherein the fabric has a first material in a region of the belt edges and a second material in a region facing away from the belt edges , wherein the first material and the second material are different, characterized in that c) the first material in the region of the belt edges is food grade.
A wind turbine apparatus for use in movement of components of a wind turbine, the wind turbine apparatus comprising an upright support means , the upright support means being adaptable to be set on a surface below a load in use, such that the weight of the load is transferred to the surface, the wind turbine apparatus comprising a load bearing means for engaging a load, the load bearing means being operably coupled with the upright support means and being configured to be moveable laterally when bearing a load, and wherein the wind turbine apparatus further comprises a means for raising and lowering the load bearing means , wherein the means for raising or lowering the load bearing means comprises an upright guide apparatus (12, 113a-c) for guiding movement of the load bearing means , the upright guide apparatus (12, 113a-c) comprising an elongate rail , the elongate rail being a threaded spindle, and wherein the means for raising and lowering the load bearing means comprises a drive means for raising or lowering the load bearing means , the drive means being operable to move the load bearing means along the upright guide apparatus (12, 113a-c), and wherein the means for raising or lowering the load bearing means comprises one or more carriages (14, 114a-c) for carrying the load bearing means along the upright guide apparatus (12, 113a-c), the carriage (14, 114a-c) being operably engaged with the upright guide apparatus (12, 113a-c) characterised in that the drive means is operable to rotate the elongate rail thereby moving the carriage (14, 114a-c) and the load bearing means along the elongate rail .
A method comprising: determining, by an edge device, a quality of service QoS of a direct link between the edge device and a communications controller; determining, by the edge device, a hub search parameter in accordance with the QoS of the direct link between the edge device and the communications controller; determining, by the edge device, a likelihood of proximity to a hub device , wherein determining, by the edge device, the hub search parameter further comprises determining the hub search parameter in accordance with the likelihood of proximity to the hub device; and searching, by the edge device, for hub devices in accordance with the hub search parameter. determining, by an edge device, a quality of service QoS of a direct link between the edge device and a communications controller; determining, by the edge device, a hub search parameter in accordance with the QoS of the direct link between the edge device and the communications controller; determining, by the edge device, a likelihood of proximity to a hub device , wherein determining, by the edge device, the hub search parameter further comprises determining the hub search parameter in accordance with the likelihood of proximity to the hub device; and searching, by the edge device, for hub devices in accordance with the hub search parameter.
A printing system comprising a writing module , and a member having an imaging surface configured to carry a polymer and movable relative to the writing module, wherein the writing module is configured to direct onto the imaging surface a plurality of individually controllable light beams that are spaced from one another in a direction (Y) transverse to the direction (X) of movement of the imaging surface, incidence of a light beam on a spot on the imaging surface serving to soften or liquify the polymer carried by the imaging surface at the spot, the writing module comprising a plurality of integrated electronic modules each having an array of individually controllable light sources , each light source producing a respective one of the light beams, characterized in that each light source comprises a cascade of at least two Vertical-Cavity Surface-Emitting Laser (VCSEL) light-emitting semiconductor junctions connected in series with one another and configured to emit light along a common axis so as to direct a single beam onto the same spot on the imaging surface.
A gas turbine engine comprising: a core engine including a compressor section communicating air to a combustor section where the air is mixed with fuel and ignited to generate a high-energy gas flow that is expanded through a turbine section , wherein the turbine section is coupled to drive the compressor section , characterised in that the gas turbine engine further comprises: a propulsor aft of the core engine driven by a drive shaft coupled to a free turbine , the free turbine being aft of the turbine section ; and an exhaust duct routing exhaust gases around the propulsor , the exhaust duct including an inlet forward of the propulsor , an outlet aft of the propulsor , and a passageway between the inlet and the outlet , wherein the inlet is an annulus disposed about an axis (A) of the core engine with an outer diameter corresponding to the diameter of the free turbine , the exhaust duct splits the annulus of the inlet at a split location and wraps outwardly around the drive shaft , and the exhaust duct is routed such that exhaust gases are not in communication with the drive shaft . a propulsor aft of the core engine driven by a drive shaft coupled to a free turbine , the free turbine being aft of the turbine section ; and an exhaust duct routing exhaust gases around the propulsor , the exhaust duct including an inlet forward of the propulsor , an outlet aft of the propulsor , and a passageway between the inlet and the outlet , wherein the inlet is an annulus disposed about an axis (A) of the core engine with an outer diameter corresponding to the diameter of the free turbine , the exhaust duct splits the annulus of the inlet at a split location and wraps outwardly around the drive shaft , and the exhaust duct is routed such that exhaust gases are not in communication with the drive shaft .
A machine tool, in particular a grinding machine, for machining workpieces, comprising a workpiece holder for holding a workpiece , a spindle head for holding a tool, in particular a grinding wheel , a handling device for an automated workpiece change, and a measuring device for detecting at least one workpiece parameter, wherein the handling device comprises at least one handling member , in particular at least one gripping member, wherein the measuring device comprises at least one measuring member , and wherein the handling device and the measuring device are coupled to a common positioning drive , wherein the handling device and the measuring device have interconnected base bodies , which are rigidly coupled relative to one another, and wherein the positioning drive is configured to displace the handling device and the measuring device relative to a longitudinal axis that is defined by the workpiece holder , and wherein the positioning drive is arranged as a swivel drive, characterized in that the handling device and the measuring device are jointly displaceable by the positioning drive between a working position, in which machining the workpiece is possible, and at least one secondary position, in which a loading operation or unloading operation is possible.
A wearable device, comprising a structure that is configured to be worn by a user, said structure having a first exposed surface and a second exposed surface , said second surface being located closer to the user than said first surface when the structure is being worn by the user, said structure comprising wireless communication means and comprising a patch antenna that is coupled to said wireless communication means to receive and/or transmit electromagnetic radiation, wherein said patch antenna comprises a substantially planar patch conductor and a substantially planar ground conductor that are separated by a dielectric ir between said patch conductor and said ground conductor while at least partially overlapping with one another laterally, wherein said structure comprises a core within a shell, said core comprising at least part of said communication means, wherein said shell comprises a first shell part that defines a first circumference of the device and comprises said first surface , wherein said shell comprises a second shell part that defines a second circumference of the device and comprises said second surface , wherein said first shell part and said second shell part are formed at least substantially of metal and are at least partially separated from one another by said dielectric, wherein said first shell part forms said patch conductor at said first exposec surface , wherein said second shell part forms said ground conductor at said second exposed surface , and wherein said first shell part and said second shell part together form said patch antenna, said dielectric is part of a dielectric member , and said dielectric member having a first portion that lies in between the first metal shell part and the second metal shell part and having a second portion that emerges laterally adjacent to a tip end of the patch conductor at an exposed surface of the first shell part.