mhurhangee/patent-ind-claim-en huggingface dataset:
Method for managing a right of access to a service for a communicating device , said method comprising: - authentication (E3, F2) of a security element of an electric power supply module by a security element of the device, at the end of which authentication said security elements are associated, said authentication being triggered by a detection (E1) of a start of delivery of electric power to said device in order to supply electric power to said device; - configuration (E5, F5) of the security element of the device by the security element of the power supply module, the security element of the device, once configured, having a valid right of access to a service, allowing the device to access the service, and said access right remaining valid for as long as said device is supplied with power by said electric power supply module; characterized in that the method comprises invalidation, by the security element of the power supply module, of the access right possessed by the security element of the device upon detection of remaining electric power that is below a threshold. - authentication (E3, F2) of a security element of an electric power supply module by a security element of the device, at the end of which authentication said security elements are associated, said authentication being triggered by a detection (E1) of a start of delivery of electric power to said device in order to supply electric power to said device; - configuration (E5, F5) of the security element of the device by the security element of the power supply module, the security element of the device, once configured, having a valid right of access to a service, allowing the device to access the service, and said access right remaining valid for as long as said device is supplied with power by said electric power supply module; characterized in that the method comprises invalidation, by the security element of the power supply module, of the access right possessed by the security element of the device upon detection of remaining electric power that is below a threshold.
A touch display device comprising: a light-emitting element disposed on a substrate ; a test pattern formed on a peripheral portion of the substrate ; a plurality of touch electrodes disposed on the light-emitting element ; a test cover layer formed of a same material as at least one of a plurality of insulating films disposed between the light-emitting element and the plurality of touch electrodes , the test cover layer being disposed on the test pattern , and characterized in that the test cover layer is laterally spaced apart from the at least one of the insulating films disposed between the light-emitting element and the plurality of touch electrodes . a light-emitting element disposed on a substrate ; a test pattern formed on a peripheral portion of the substrate ; a plurality of touch electrodes disposed on the light-emitting element ; a test cover layer formed of a same material as at least one of a plurality of insulating films disposed between the light-emitting element and the plurality of touch electrodes , the test cover layer being disposed on the test pattern , and characterized in that the test cover layer is laterally spaced apart from the at least one of the insulating films disposed between the light-emitting element and the plurality of touch electrodes .
An adjustment mechanism assembly for adjusting a work surface position vertically, comprising - a non-telescopic vertical guiding element consisting of one vertical guiding member, - a work surface support element engaged with the vertical guiding element and configured to be movable vertically with electric actuation, which work surface support element is arranged to protrude horizontally from within the vertical guiding element between the ends of the vertical guiding element, - means for said electric actuation comprising a cable , and - a non-telescopic vertical support member which resides at least partially within the vertical guiding element, - which cable comprises a spiraled portion between its termini, which spiraled portion is supported with respect to its central axis by the vertical support member. - a non-telescopic vertical guiding element consisting of one vertical guiding member, - a work surface support element engaged with the vertical guiding element and configured to be movable vertically with electric actuation, which work surface support element is arranged to protrude horizontally from within the vertical guiding element between the ends of the vertical guiding element, - means for said electric actuation comprising a cable , and - a non-telescopic vertical support member which resides at least partially within the vertical guiding element, - which cable comprises a spiraled portion between its termini, which spiraled portion is supported with respect to its central axis by the vertical support member.
Device (1; 1') for cutting corrugated tubes to length, having a basic body (8; 8') which has a handle part , having a clamping device acting radially with respect to an axis and intended for fixing a corrugated tube in a machining position, having a cutting tool which, in the machining position, is or can be brought into an operative position against the corrugated tube such that, when moving the cutting tool and corrugated tube relative to one another, a separating operation is brought about, and having stop means which can be made to engage in a corrugation trough of the corrugated tube and which have at least one stop surface as stop against a flank of a corrugation of the corrugated tube , wherein the clamping device has at least three clamping elements which are arranged on the basic body (8; 8') and act on the circumference of the corrugated tube in the machining position, wherein one of the clamping elements is mounted so as to be translationally movable on the basic body (8; 8') in order to be moved from a starting position in a direction towards the at least two other clamping elements , and the at least two other clamping elements take the form of rollers and are situated at a distance from one another such that serve as a receptacle for the corrugated tube in order to place the corrugated tube circumferentially thereon, wherein, in the machining position of the corrugated tube , the distance between the stop means and the cutting tool can be varied in the axial direction with respect to the axis in order, in the machining position of the corrugated tube , to bring the at least one stop surface into contact with a flank of a corrugation of the corrugated tube , characterized in that the stop means interact with setting means by means of which, in the machining position of the corrugated tube , the stop means can be set in their distance from the cutting tool in the axial direction with respect to the axis in such a way that the at least one stop surface is present against a flank of a corrugation of the corrugated tube and serves as a positive guide for the corrugated tube in order to prevent the cutting tool from sliding away laterally during a evolving cutting movement of the cutting tool about the corrugated tube .
A card reader that communicates wirelessly, comprising: a frame, where the frame includes a top surface , a bottom surface , a first side surface, and a second side surface, a second side surface of the side surfaces on an opposite side of the frame from the first side surface, the first side surface including a slot configured to receive insertion of a chip card ; a first card interface comprising one of: a magnetic stripe reader interface and a contactless card reader interface; a chip card reader interface including electrical contacts positioned in the frame to contact contacts of the chip card when it is inserted into the slot ; where each of the first card interface and the chip card reader interface are configured to communicate with the microcontroller ; and circuitry configured to communicate wirelessly between the card reader and a mobile computing device , wherein the microcontroller is configured to: detect a card insertion at the chip card reader interface ; upon detection of the card insertion, selectively power the chip card reader interface but not the first card interface; and send card data received from the chip card reader interface to the circuitry configured to communicate wirelessly. a frame, where the frame includes a top surface , a bottom surface , a first side surface, and a second side surface, a second side surface of the side surfaces on an opposite side of the frame from the first side surface, the first side surface including a slot configured to receive insertion of a chip card ; a first card interface comprising one of: a magnetic stripe reader interface and a contactless card reader interface; a chip card reader interface including electrical contacts positioned in the frame to contact contacts of the chip card when it is inserted into the slot ; where each of the first card interface and the chip card reader interface are configured to communicate with the microcontroller ; and circuitry configured to communicate wirelessly between the card reader and a mobile computing device , wherein the microcontroller is configured to: detect a card insertion at the chip card reader interface ; upon detection of the card insertion, selectively power the chip card reader interface but not the first card interface; and send card data received from the chip card reader interface to the circuitry configured to communicate wirelessly. detect a card insertion at the chip card reader interface ; upon detection of the card insertion, selectively power the chip card reader interface but not the first card interface; and send card data received from the chip card reader interface to the circuitry configured to communicate wirelessly.
A tactile sensation providing apparatus , comprising: a structure configured to provide a tactile sensation; and an actuator configured to cause the structure to vibrate according to expansion and contraction displacement of a piezoelectric element , wherein the structure includes an abutment configured to abut the actuator and the abutment is non-adherent to the actuator , characterised in that the structure further comprises a guide configured to guide the actuator to the abutment . a structure configured to provide a tactile sensation; and an actuator configured to cause the structure to vibrate according to expansion and contraction displacement of a piezoelectric element , wherein the structure includes an abutment configured to abut the actuator and the abutment is non-adherent to the actuator , characterised in that the structure further comprises a guide configured to guide the actuator to the abutment .
A gel electrolytic capacitor comprising: an anode foil; a cathode foil; and a gel electrolyte disposed between the anode foil and the cathode foil, wherein: the gel electrolyte consists of a polymer having three-dimensional network structure and an electrolyte solution held in the polymer, characterized in that the polymer having three-dimensional network structure is formed by polymerizing 2-hydroxyethyl methacrylate or methacrylic acid, and the electrolyte solution includes amines or quaternary cyclic amidinium. an anode foil; a cathode foil; and a gel electrolyte disposed between the anode foil and the cathode foil, wherein: the gel electrolyte consists of a polymer having three-dimensional network structure and an electrolyte solution held in the polymer, characterized in that the polymer having three-dimensional network structure is formed by polymerizing 2-hydroxyethyl methacrylate or methacrylic acid, and the electrolyte solution includes amines or quaternary cyclic amidinium. the gel electrolyte consists of a polymer having three-dimensional network structure and an electrolyte solution held in the polymer, characterized in that the polymer having three-dimensional network structure is formed by polymerizing 2-hydroxyethyl methacrylate or methacrylic acid, and the electrolyte solution includes amines or quaternary cyclic amidinium.
Method for operating a washing machine that comprises a suds container for holding washing liquid, a drum rotatably mounted in the suds container for holding laundry, a motor for driving the drum, and a control device having control of the motor, the method comprising determining a load amount of the drum by means of the following steps: - periodically varying a drum speed at a predetermined variation frequency; - ascertaining torques of the motor that drives the drum during the periodic varying of the drum speed over a predetermined period of time; - ascertaining a signal amplitude of the torques ascertained over the predetermined period of time at at least one predetermined frequency component; and - determining the load amount of the drum using the ascertained signal amplitude. - periodically varying a drum speed at a predetermined variation frequency; - ascertaining torques of the motor that drives the drum during the periodic varying of the drum speed over a predetermined period of time; - ascertaining a signal amplitude of the torques ascertained over the predetermined period of time at at least one predetermined frequency component; and - determining the load amount of the drum using the ascertained signal amplitude.
Battery pack for a motor vehicle comprising at least one electrical energy storage element, a housing of the battery pack and a device for thermal management of a battery pack for a motor vehicle comprising the electrical energy storage element contained in the housing , said thermal management device comprising at least one battery evaporator , in thermal contact with said at least one electrical energy storage element and in which a refrigerant is intended to circulate, and an expansion device fluidically connected to said at least one battery evaporator , said thermal management device being characterized in that it comprises an internal heat exchanger rigidly connected to the housing of the battery pack and intended to superheat the refrigerant exiting said at least one battery evaporator , the management device comprising, within the housing, several cooling plates or tubes , in which the refrigerant circulates and forming an evaporator, and in that the expansion device is located inside the housing .
A protein drug conjugate formed by the reaction of a globular protein, a linker and a drug, wherein the globular protein is an antibody or fragment thereof comprising at least one reactive thiol group and wherein the linker comprises a nitrogen containing heterocyclic aromatic ring comprising a vinyl substituent represented by the following formulae, wherein: R 1 is selected from; ▪ (CH 2 ) n - C(O)- R, or ▪ (CH 2 ) m - S - (CH 2 ) n - C(O) - R, or ▪ (CH 2 ) n - CH(CO 2 R) 2 , or, ▪ (CH 2 ) m - S - (CH 2 ) 2 CH(CO 2 R) 2 , or, wherein, - R 2 is selected from the same group of molecules as R 1 , hydrogen, or an alkyl group, - n is any integer from 0 to 10, - m is any integer between 0 and 10, - R is a hydroxide (OH), amine or a poly-(alkylene glycol) group, or wherein R 1 is -CH 2 -CH(C(O)-NH-PEG) 2 and R 2 is a methyl group; wherein the globular protein is conjugated to the linker through the conjugation of the thiol group to the vinyl substituent; and wherein the drug is conjugated to the linker through the R 1 group, or when R 2 is selected from the same group of molecules as R 1 , the drug is conjugated to the linker through the R 2 group, or through the R 1 group and the R 2 group. ▪ (CH 2 ) n - C(O)- R, or ▪ (CH 2 ) m - S - (CH 2 ) n - C(O) - R, or ▪ (CH 2 ) n - CH(CO 2 R) 2 , or, ▪ (CH 2 ) m - S - (CH 2 ) 2 CH(CO 2 R) 2 , or, - R 2 is selected from the same group of molecules as R 1 , hydrogen, or an alkyl group, - n is any integer from 0 to 10, - m is any integer between 0 and 10, - R is a hydroxide (OH), amine or a poly-(alkylene glycol) group, wherein the globular protein is conjugated to the linker through the conjugation of the thiol group to the vinyl substituent; and wherein the drug is conjugated to the linker through the R 1 group, or when R 2 is selected from the same group of molecules as R 1 , the drug is conjugated to the linker through the R 2 group, or through the R 1 group and the R 2 group.
A process plant for production of sulfuric acid from a process gas comprising SO 2 , comprising a process gas inlet, a first SO 2 converter having an inlet and an outlet, a first condenser having a gas inlet, a gas outlet and a liquid outlet, a gas mixing device having a first inlet, a second inlet and an outlet, a process gas heater having an inlet and an outlet, a second SO 2 converter having an inlet and an outlet, a second condenser having a gas inlet, a gas outlet and a liquid outlet, one or more means for cooling and storage of sulfuric acid and a purified process gas outlet, in which said process gas inlet is in fluid communication with the inlet of the first SO 2 converter, the outlet of the first SO 2 converter is in fluid communication with the gas inlet of the first condenser, the liquid outlet of the first condenser is in fluid communication with one of said means for cooling and storage of sulfuric acid, the gas outlet of said first condenser is in fluid communication with the first inlet of a mixing device, the outlet of said mixing device is in fluid communication with the inlet of the process gas heater, the outlet of said process gas heater is in fluid communication with the inlet to said second SO 2 converter and the second inlet of said gas mixing device, the outlet of the second SO 2 converter is in fluid communication with the gas inlet of the second condenser, the liquid outlet of the second condenser is in fluid communication with one of said means for cooling and storage of sulfuric acid, the gas outlet of said second condenser is in fluid communication with the purified process gas outlet, characterized in the first inlet of said gas mixing device being in fluid communication with the outlet of said first condenser, without intermediate heat exchange.
A steel plate for a thick-walled steel pipe with excellent Crack Tip Opening Displacement (CTOD) performance in a heat affected zone which is formed as a result of performing girth welding, the steel plate having a chemical composition consisting of, by mass%, C: 0.030% or more and 0.10% or less, Si: 0.05% or more and 0.50% or less, Mn: 1.00% or more and 2.00% or less, P: 0.015% or less, S: 0.005% or less, Mo: 0.20% or less including 0%, Nb: 0.01% or more and 0.05% or less, Al: 0.005% or more and 0.1% or less, Ni: 0.01% or more and 1.00% or less, and optionally one or more of Cu: 1.00% or less, Cr: 0.50% or less and V: 0.05% or less; with the balance being Fe and inevitable impurities, wherein Pcm* in % is 0.20 or less, wherein Pcm* is given by the following formula: [C + Si/30 + (Mn + Cu + Cr)/20 + Ni/60 + Mo/2 + V/10], where atomic symbols respectively represent the contents in mass% of the corresponding alloying chemical elements in the equation, and where the symbol of an alloying chemical element which is not contained is assigned a value of 0, wherein a fraction of bainite in a base material of the steel plate in terms of area ratio is 50% or more, and wherein a fraction of island martensite (MA) in terms of area ratio, which is generated in a coarse-grain region reheated in a dual-phase temperature range when the steel plate is subjected to girth welding which involves multilayer welding, when steel pipes are joined, is 5.0% or less, wherein the fraction of island martensite (MA) in terms of area ratio is calculated as average value of the ratios of the area of island martensite (MA) which were observed in an arbitrary cross section of the steel plate with respect to the total observation fields of view.
A computer-implemented method of simulating or optimizing an occlusive procedure, the method comprising: obtaining a patient-specific anatomic model of a patient's vasculature; obtaining an initial computational model of blood flow through the patient's vasculature based on the patient-specific anatomic model; receiving input indicating an occlusion at a location of the patient's vasculature; determining a patient-specific blood flow characteristic by modeling blood flow in a portion of the patient-specific anatomic model including said indicated occlusion; and outputting a representation of the patient-specific blood flow characteristic; characterized in that : the received input defines a selected occlusive procedure that may be applied, as treatment, to the patient's vasculature; and the method comprises obtaining a post-treatment computational model of blood flow by modifying portions of the initial computational model, based on the selected occlusive procedure, to model removal of a portion of the patient's vasculature and redistribution of blood flow, wherein the removal is modeled by the creation of one or more new outlet surfaces, new outlet vessels, or new boundaries in the patient-specific anatomic model. obtaining a patient-specific anatomic model of a patient's vasculature; obtaining an initial computational model of blood flow through the patient's vasculature based on the patient-specific anatomic model; receiving input indicating an occlusion at a location of the patient's vasculature; determining a patient-specific blood flow characteristic by modeling blood flow in a portion of the patient-specific anatomic model including said indicated occlusion; and outputting a representation of the patient-specific blood flow characteristic; characterized in that : the received input defines a selected occlusive procedure that may be applied, as treatment, to the patient's vasculature; and the method comprises obtaining a post-treatment computational model of blood flow by modifying portions of the initial computational model, based on the selected occlusive procedure, to model removal of a portion of the patient's vasculature and redistribution of blood flow, wherein the removal is modeled by the creation of one or more new outlet surfaces, new outlet vessels, or new boundaries in the patient-specific anatomic model. the received input defines a selected occlusive procedure that may be applied, as treatment, to the patient's vasculature; and the method comprises obtaining a post-treatment computational model of blood flow by modifying portions of the initial computational model, based on the selected occlusive procedure, to model removal of a portion of the patient's vasculature and redistribution of blood flow, wherein the removal is modeled by the creation of one or more new outlet surfaces, new outlet vessels, or new boundaries in the patient-specific anatomic model.