mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a film-coated article using a transfer film , wherein the transfer film comprises a carrier ply and a transfer ply (13, 13', 13") arranged on the carrier ply , said transfer ply containing at least one decorative element , wherein the method comprises the following steps: a) connecting a substrate (S) to at least one surface of the transfer ply (13, 13', 13") facing away from the carrier ply , and b) removing the carrier ply from the transfer ply (13, 13', 13") bound to the substrate (S), c) applying at least one protective layer onto a surface of the transfer ply (13, 13', 13") opposite the substrate (S), wherein the transfer ply (13, 13', 13"), adjacent to the carrier ply has at least one upper layer , which is at least regionally not yet completely cured, and which at least partially forms the surface of the transfer ply (13, 13', 13") opposite the substrate (S), wherein the at least one decorative element is arranged on the side of the at least one upper layer of the transfer ply (13, 13', 13") facing away from the carrier ply , and characterised in that the application of the at least one protective layer onto the surface of the transfer ply (13, 13', 13") in step c) is carried out by at least partially flooding and/or dousing the at least one upper layer with at least one composition made of polyurethane precursors (2K-PUR systems) and subsequently curing, preferably at a temperature from a range of from 25°C to 180°C, wherein the at least one protective layer adheres to the at least one upper layer of the transfer ply (13, 13', 13") after curing with an adhesive force, determined according to the method described in DIN EN ISO 4624: 2016-08, at a range of from 2.5MPa to 10MPa. a) connecting a substrate (S) to at least one surface of the transfer ply (13, 13', 13") facing away from the carrier ply , and b) removing the carrier ply from the transfer ply (13, 13', 13") bound to the substrate (S), c) applying at least one protective layer onto a surface of the transfer ply (13, 13', 13") opposite the substrate (S), wherein the transfer ply (13, 13', 13"), adjacent to the carrier ply has at least one upper layer , which is at least regionally not yet completely cured, and which at least partially forms the surface of the transfer ply (13, 13', 13") opposite the substrate (S), wherein the at least one decorative element is arranged on the side of the at least one upper layer of the transfer ply (13, 13', 13") facing away from the carrier ply , and characterised in that the application of the at least one protective layer onto the surface of the transfer ply (13, 13', 13") in step c) is carried out by at least partially flooding and/or dousing the at least one upper layer with at least one composition made of polyurethane precursors (2K-PUR systems) and subsequently curing, preferably at a temperature from a range of from 25°C to 180°C, wherein the at least one protective layer adheres to the at least one upper layer of the transfer ply (13, 13', 13") after curing with an adhesive force, determined according to the method described in DIN EN ISO 4624: 2016-08, at a range of from 2.5MPa to 10MPa.
Hydrocarbon conversion process comprising contacting a hydrocarbon feed stream with a hydrocarbon conversion catalyst, wherein the hydrocarbon conversion catalyst comprises: a first composition comprising a dehydrogenation active metal on a solid support; and a second composition comprising a transition metal and a doping agent on an inorganic support, wherein the doping agent is selected from zinc, gallium, indium, lanthanum, and mixtures thereof; wherein the transition metal is selected from molybdenum, tungsten, rhenium, and mixtures thereof and is contained in the second composition in an amount of 5 to 10 wt%, based on the total weight of the second composition; wherein the hydrocarbon feed stream comprises a paraffin selected from ethane, propane, butane, pentane, and mixtures thereof; and wherein the dehydrogenation active metal is selected from platinum, palladium, iridium, chromium, and mixtures thereof. a first composition comprising a dehydrogenation active metal on a solid support; and a second composition comprising a transition metal and a doping agent on an inorganic support, wherein the doping agent is selected from zinc, gallium, indium, lanthanum, and mixtures thereof; wherein the transition metal is selected from molybdenum, tungsten, rhenium, and mixtures thereof and is contained in the second composition in an amount of 5 to 10 wt%, based on the total weight of the second composition; wherein the hydrocarbon feed stream comprises a paraffin selected from ethane, propane, butane, pentane, and mixtures thereof; and wherein the dehydrogenation active metal is selected from platinum, palladium, iridium, chromium, and mixtures thereof.
A computer-implemented method for providing secure computing environment in a computer processor , comprising: - initializing a hypervisor on the computer processor ; - establishing a first virtual machine under control of the hypervisor ; and - executing code for a secure zone on the first virtual machine, including: - verifying an administrative task, and - executing the administrative task, wherein the executing comprises: - establishing a connection with an administrator device ; - ensuring that the administrator device is one of a set of intended administrator devices; - receiving a command through the connection with the administrator device , wherein the command relates to executing a task on a second virtual machine and the task calls a subtask, wherein execution of the task is suspended while the subtask is executed, and wherein executing the task on the second virtual machine comprises establishing the second virtual machine under control of the hypervisor . - initializing a hypervisor on the computer processor ; - establishing a first virtual machine under control of the hypervisor ; and - executing code for a secure zone on the first virtual machine, including: - verifying an administrative task, and - executing the administrative task, wherein the executing comprises: - establishing a connection with an administrator device ; - ensuring that the administrator device is one of a set of intended administrator devices; - receiving a command through the connection with the administrator device , wherein the command relates to executing a task on a second virtual machine and the task calls a subtask, wherein execution of the task is suspended while the subtask is executed, and wherein executing the task on the second virtual machine comprises establishing the second virtual machine under control of the hypervisor . - verifying an administrative task, and - executing the administrative task, wherein the executing comprises: - establishing a connection with an administrator device ; - ensuring that the administrator device is one of a set of intended administrator devices; - receiving a command through the connection with the administrator device , wherein the command relates to executing a task on a second virtual machine and the task calls a subtask, wherein execution of the task is suspended while the subtask is executed, and wherein executing the task on the second virtual machine comprises establishing the second virtual machine under control of the hypervisor . - establishing a connection with an administrator device ; - ensuring that the administrator device is one of a set of intended administrator devices; - receiving a command through the connection with the administrator device , wherein the command relates to executing a task on a second virtual machine and the task calls a subtask, wherein execution of the task is suspended while the subtask is executed, and wherein executing the task on the second virtual machine comprises establishing the second virtual machine under control of the hypervisor .
A method for automatically detecting elements of interest in electrophysiological signals comprising the steps, implemented by a computer, according to which: electrophysiological signals are provided; a whitened time-frequency representation is performed from said electrophysiological signals; a threshold is established; this threshold is applied to the whitened time-frequency representation; in the whitened time-frequency representation, local maxima that are greater than or equal to the applied threshold are detected, and according to which method, for performing the whitened time-frequency representation, a continuous wavelet transform is applied and the squared modulus of the wavelet coefficients is calculated after having normalised their real and imaginary parts, a normalisation factor being calculated for each frequency by adjusting a Gaussian noise model on the central part of the histogram of the real coefficients. electrophysiological signals are provided; a whitened time-frequency representation is performed from said electrophysiological signals; a threshold is established; this threshold is applied to the whitened time-frequency representation; in the whitened time-frequency representation, local maxima that are greater than or equal to the applied threshold are detected, and according to which method, for performing the whitened time-frequency representation, a continuous wavelet transform is applied and the squared modulus of the wavelet coefficients is calculated after having normalised their real and imaginary parts, a normalisation factor being calculated for each frequency by adjusting a Gaussian noise model on the central part of the histogram of the real coefficients.
Heat exchanger between a fluid and an air flow (FS), comprising a heat exchange wall separating the fluid and the air flow (FS), the heat exchange wall including a heat exchange surface that extends parallel to a longitudinal direction (AX) of the air flow (FS) and with which the air flow (FS) is in contact, the heat exchanger including baffle wall extending in the extension of the heat exchange wall and upstream of it in relation to the direction of circulation of the air flow (FS), the baffle wall including at least one turbulence generator of hollow shape in relation to the outer surface , the heat exchanger being characterized in that the heat exchange surface is devoid of any relief.
Electric shaver comprising a main body and a shaving unit coupled to the main body, wherein: - the shaving unit comprises at least three hair-cutting units and a supporting member supporting the at least three hair-cutting units; - each hair-cutting unit comprises an external cutting member with a skin-contact surface provided with hair-entry openings , and an internal cutting member which is rotatable relative to the external cutting member; - the hair-cutting units each have at least one geometric parameter (w) relating to a corresponding geometric property of the hair-cutting units, wherein a hair-cutting process of each individual hair-cutting unit is influenced by a value of said at least one geometric parameter of said individual hair-cutting unit; - the supporting member has a central axis which extends transversely relative to the skin-contact surfaces of the external cutting members; and - the shaving unit is configured to be positionable in at least two different angular positions about the central axis relative to the main body and coupled to the main body; characterized in that the value of said at least one geometric parameter (w) of at least one of the hair-cutting units is different from the values of said at least one geometric parameter of the other hair-cutting units. - the shaving unit comprises at least three hair-cutting units and a supporting member supporting the at least three hair-cutting units; - each hair-cutting unit comprises an external cutting member with a skin-contact surface provided with hair-entry openings , and an internal cutting member which is rotatable relative to the external cutting member; - the hair-cutting units each have at least one geometric parameter (w) relating to a corresponding geometric property of the hair-cutting units, wherein a hair-cutting process of each individual hair-cutting unit is influenced by a value of said at least one geometric parameter of said individual hair-cutting unit; - the supporting member has a central axis which extends transversely relative to the skin-contact surfaces of the external cutting members; and - the shaving unit is configured to be positionable in at least two different angular positions about the central axis relative to the main body and coupled to the main body;
A method for wireless communication by a user equipment, UE, comprising: receiving at least one uplink preemption indication, ULPI, from a base station, BS, indicating, for one or more of a plurality of sets of uplink resources, a power level the UE can use for one or more uplink transmissions; wherein the indication of the power level comprises a power back off value for the one or more of the plurality of sets of uplink resources; and sending or dropping the one or more uplink transmissions according to the ULPI; characterized in that the ULPI comprises at least 2 bits for each resource set; and values of the at least 2 bits at least indicate one of no power back-off, a first non-zero power back-off value, a second non-zero power back-off value, or full power back-off, full power-back off indicating the resource set is preempted and the UE does not transmit on the resource set; further comprising receiving radio resource control, RRC, signaling configuring the first and second non-zero power back-off values. receiving at least one uplink preemption indication, ULPI, from a base station, BS, indicating, for one or more of a plurality of sets of uplink resources, a power level the UE can use for one or more uplink transmissions; wherein the indication of the power level comprises a power back off value for the one or more of the plurality of sets of uplink resources; and sending or dropping the one or more uplink transmissions according to the ULPI; characterized in that the ULPI comprises at least 2 bits for each resource set; and values of the at least 2 bits at least indicate one of no power back-off, a first non-zero power back-off value, a second non-zero power back-off value, or full power back-off, full power-back off indicating the resource set is preempted and the UE does not transmit on the resource set; further comprising receiving radio resource control, RRC, signaling configuring the first and second non-zero power back-off values.
Electrode for an electrolytically acting doctor blade for pickling and cleaning both planar and curved metal surfaces, comprising a linear metal element supported on the structure of the doctor blade and electrically connected to the electric circuit for initiating the pickling electrolytic action; a pad made of a felt-like absorbent plastic material, resistant to high temperatures and to the chemicals contained in the electrolytic solution used; characterised in that the linear metal element consists in a metal wire , and a pad having a constant thickness (S), made of a felt-like absorbent plastic material, resistant to high temperatures and to the chemicals contained in the electrolytic solution used, is wrapped therearound; the metal wire being connected to the structure of the doctor blade only at the ends of the doctor blade in the active face of the deformable electrode .
A quality control station for a sheet element processing machine, having at least one camera arranged for capturing images of sheet elements transported through the quality control station , and further having a camera calibration system , the camera calibration system having a target holder adapted for holding an optical target , and a drive for the target holder , the drive being adapted for displacing the target holder between a rest position in which it is outside of the viewing area of the camera , and a calibration position in which it is arranged in the viewing area of the camera chraracterized in that the drive is arranged above the path of transportation of the sheet elements while the target holder is arranged below the path of transportation of the sheet elements
A cooling circuit including an internal combustion engine, comprising: a pressure-feeding unit for feeding coolant under pressure, the coolant cooling the internal combustion engine ; a valve unit having a plurality of heat exchangers connected in parallel thereto and changing a coolant flowing state in the plurality of heat exchangers; an exhaust heat recovery system for recovering heat from exhaust air of the internal combustion engine by the coolant; a first circulation circuit (C11) including the pressure-feeding unit , the valve unit and the exhaust heat recovery system ; a second circulation circuit (C12) including the pressure-feeding unit and the exhaust heat recovery system ; and a connection passage forming the first circulation circuit (C11) and the second circulation circuit (C12); the cooling circuit being characterized in that the second circulation circuit (C12) does not include the valve unit , and a flow rate of the coolant flowing through the exhaust heat recovery system via the second circulation circuit (C12) being made smaller than that of the coolant flowing through the exhaust heat recovery system via the first circulation circuit (C11) by an orifice arranged in the second circulation circuit (C12) or the connection passage of the second circulation circuit (C12) in a part not common to the first circulation circuit (C11). a pressure-feeding unit for feeding coolant under pressure, the coolant cooling the internal combustion engine ; a valve unit having a plurality of heat exchangers connected in parallel thereto and changing a coolant flowing state in the plurality of heat exchangers; an exhaust heat recovery system for recovering heat from exhaust air of the internal combustion engine by the coolant; a first circulation circuit (C11) including the pressure-feeding unit , the valve unit and the exhaust heat recovery system ; a second circulation circuit (C12) including the pressure-feeding unit and the exhaust heat recovery system ; and a connection passage forming the first circulation circuit (C11) and the second circulation circuit (C12); the cooling circuit being characterized in that the second circulation circuit (C12) does not include the valve unit , and a flow rate of the coolant flowing through the exhaust heat recovery system via the second circulation circuit (C12) being made smaller than that of the coolant flowing through the exhaust heat recovery system via the first circulation circuit (C11) by an orifice arranged in the second circulation circuit (C12) or the connection passage of the second circulation circuit (C12) in a part not common to the first circulation circuit (C11).
A composite electrode for use in a lithium-ion battery comprising a silicon-graphene active material with a specific capacity between 500 and 2200 mAh/g and a conductive polymer binder, wherein the conductive polymer binder has a polymeric composition with repeating units of the formula: wherein m+n = 1-10 million; and m/n ratio is 9/1 to 1/9.
A work vehicle configured to perform work while traveling autonomously, comprising: an object detection unit configured to detect an object located in a periphery of a vehicle body ; an identification information acquisition unit configured to acquire identification information that is transmitted from a transmission unit of a terminal in possession of a user to the periphery; a determination unit configured to determine whether or not the identification information acquisition unit acquired preset identification information that is associated with the vehicle body ; an indication unit configured to give an indication that the object is approaching the vehicle body in a case where the identification information acquisition unit determined that the preset identification information has not been acquired and furthermore a distance from the vehicle body to the object is within a preset distance; and a vehicle body periphery image acquisition unit configured to acquire a captured image that shows surroundings of the vehicle body ; characterized by : a specification unit configured to specify an object approaching the vehicle body based on the captured image acquired by the vehicle body periphery image acquisition unit ; and an output unit configured to output a retreat sound for causing the object to retreat, based on the specified object. an object detection unit configured to detect an object located in a periphery of a vehicle body ; an identification information acquisition unit configured to acquire identification information that is transmitted from a transmission unit of a terminal in possession of a user to the periphery; a determination unit configured to determine whether or not the identification information acquisition unit acquired preset identification information that is associated with the vehicle body ; an indication unit configured to give an indication that the object is approaching the vehicle body in a case where the identification information acquisition unit determined that the preset identification information has not been acquired and furthermore a distance from the vehicle body to the object is within a preset distance; and a vehicle body periphery image acquisition unit configured to acquire a captured image that shows surroundings of the vehicle body ; characterized by : a specification unit configured to specify an object approaching the vehicle body based on the captured image acquired by the vehicle body periphery image acquisition unit ; and an output unit configured to output a retreat sound for causing the object to retreat, based on the specified object. a specification unit configured to specify an object approaching the vehicle body based on the captured image acquired by the vehicle body periphery image acquisition unit ; and an output unit configured to output a retreat sound for causing the object to retreat, based on the specified object.
A system for dynamically changing access tokens in a communication system comprising: a client computer system communicatively coupled by a communication channel to at least one target server ; said client computer system including a processor connected to a storage device arranged to store access token files , said storage device having a non-transitory machine readable storage medium , said non-transitory machine-readable storage medium stores instructions for execution by said processor, said instructions include a connection failure recovery program that when executed by said processor dynamically changes access token types and said client computer system is programmed to implement said connection failure recovery program, wherein said client computer system: initiates a session by transmitting a first request for a connection to said target server using a first token type to be validated by the target server, and if said first request fails, automatically transmits a second request for a connection to said target server using a different token type to be validated by the target server, wherein the first token type and the different token type are stored in the access token file . initiates a session by transmitting a first request for a connection to said target server using a first token type to be validated by the target server, and if said first request fails, automatically transmits a second request for a connection to said target server using a different token type to be validated by the target server, wherein the first token type and the different token type are stored in the access token file .