mhurhangee/patent-ind-claim-en huggingface dataset:
A method , comprising: detecting , by one or more pressure sensors (220A - 220D) of a touchpad , an input at an input surface of the touchpad; associating the detected input with an input area of the touchpad ; detecting , by a multi-touch capacitive sensor of the touchpad , a contact in a contact area with a capacitive object at the input surface of the touchpad; setting the contact area in which the contact is detected as a cancellation area of the touchpad ; transmitting , by a first haptic engine (240A - 240C) of the touchpad , a first haptic feedback signal in response to the detection of the input in the input area; and transmitting , by a second haptic engine (240A - 240C) of the touchpad , a second haptic feedback signal to cancel an effect of the first haptic feedback signal in the cancellation area in response to the detection of the contact in the contact area, the second haptic feedback signal being an inverse of the first haptic feedback signal. detecting , by one or more pressure sensors (220A - 220D) of a touchpad , an input at an input surface of the touchpad; associating the detected input with an input area of the touchpad ; detecting , by a multi-touch capacitive sensor of the touchpad , a contact in a contact area with a capacitive object at the input surface of the touchpad; setting the contact area in which the contact is detected as a cancellation area of the touchpad ; transmitting , by a first haptic engine (240A - 240C) of the touchpad , a first haptic feedback signal in response to the detection of the input in the input area; and transmitting , by a second haptic engine (240A - 240C) of the touchpad , a second haptic feedback signal to cancel an effect of the first haptic feedback signal in the cancellation area in response to the detection of the contact in the contact area, the second haptic feedback signal being an inverse of the first haptic feedback signal.
Method for manufacturing at least one luminescent hand for a horological movement, preferably for a watch; this manufacturing method comprising at least: - supplying at least one support supporting the luminescent hand ; - Forming, on this at least one support , a light guide comprising at least one emergent surface and being configured to guide a light , this forming step comprising the following sub-steps; - Depositing , on said support , at least one layer of a first optical material having a first refractive index and preventing light from being absorbed by the support ; - Depositing at least one layer of luminescent material on the at least one layer of the first optical material ; - Depositing at least one layer of a second optical material ; said at least one layer of a second optical material having a second refractive index; and, - Patterning said at least one emergent surface so that said emergent surface is rough in order to extract light from said at least one light guide . - supplying at least one support supporting the luminescent hand ; - Forming, on this at least one support , a light guide comprising at least one emergent surface and being configured to guide a light , this forming step comprising the following sub-steps; - Depositing , on said support , at least one layer of a first optical material having a first refractive index and preventing light from being absorbed by the support ; - Depositing at least one layer of luminescent material on the at least one layer of the first optical material ; - Depositing at least one layer of a second optical material ; said at least one layer of a second optical material having a second refractive index; and, - Patterning said at least one emergent surface so that said emergent surface is rough in order to extract light from said at least one light guide . - Depositing , on said support , at least one layer of a first optical material having a first refractive index and preventing light from being absorbed by the support ; - Depositing at least one layer of luminescent material on the at least one layer of the first optical material ; - Depositing at least one layer of a second optical material ; said at least one layer of a second optical material having a second refractive index; and, - Patterning said at least one emergent surface so that said emergent surface is rough in order to extract light from said at least one light guide .
A transparent glass-ceramic of lithium aluminosilicate type containing a solid solution of β-quartz as its main crystalline phase, the composition of which, expressed in percentages by weight of oxides, comprises: · 63% to 67.5% of SiO 2 ; · 18% to 21% of Al 2 O 3 ; · 2% to 2.9% of Li 2 O; · 0 to 1.5% of MgO; · 1% to 3.2% of ZnO; · 0 to 4% of BaO; · 0 to 4% of SrO; · 0 to 2% of CaO; · 2% to 5% of TiO 2 ; · 0 to 3% of ZrO 2 ; · 0 to 1% of Na 2 O; · 0 to 1% of K 2 O; · 0 to 5% of P 2 O 5 ; with (0.74 MgO + 0.19 BaO + 0.29 SrO + 0.53 CaO + 0.48 Na 2 O + 0.32 K 2 O) / Li 2 O < 0.9; · optionally up to 2% of at least one fining agent; and · optionally up to 2% of at least one coloring agent. · 63% to 67.5% of SiO 2 ; · 18% to 21% of Al 2 O 3 ; · 2% to 2.9% of Li 2 O; · 0 to 1.5% of MgO; · 1% to 3.2% of ZnO; · 0 to 4% of BaO; · 0 to 4% of SrO; · 0 to 2% of CaO; · 2% to 5% of TiO 2 ; · 0 to 3% of ZrO 2 ; · 0 to 1% of Na 2 O; · 0 to 1% of K 2 O; · 0 to 5% of P 2 O 5 ; · optionally up to 2% of at least one fining agent; and · optionally up to 2% of at least one coloring agent.
Method of simultaneous data processing for an automatic extraction of respective mass peaks in multiple chromatographic spectra of a chromatogram comprising convoluted peaks, comprising the steps of: - accessing a database of characteristic mass peaks of known reference compounds; - combining the multiple chromatographic spectra into a single block of data along a retention time scale; - splitting the single block of data in smaller partly overlapping individual retention time blocks having a retention time window larger than an estimated peak width of an average single peak of the chromatogram; - selecting multiple partly overlapping individual blocks of data in said multiple chromatographic spectra for deconvolution; - deconvoluting the individual blocks of data into the respective mass peaks based on a plurality of characteristic mass peaks selected from said database using prior knowledge about expected constituents of the chromatographic spectrum, using multivariate statistical analysis, wherein extraction of mass peaks is terminated when a match is found between the extracted spectra and characteristic mass peaks of a reference compound. - accessing a database of characteristic mass peaks of known reference compounds; - combining the multiple chromatographic spectra into a single block of data along a retention time scale; - splitting the single block of data in smaller partly overlapping individual retention time blocks having a retention time window larger than an estimated peak width of an average single peak of the chromatogram; - selecting multiple partly overlapping individual blocks of data in said multiple chromatographic spectra for deconvolution; - deconvoluting the individual blocks of data into the respective mass peaks based on a plurality of characteristic mass peaks selected from said database using prior knowledge about expected constituents of the chromatographic spectrum, using multivariate statistical analysis, wherein extraction of mass peaks is terminated when a match is found between the extracted spectra and characteristic mass peaks of a reference compound.
Construction panel having at least one honeycomb core provided on both sides on the flat sides with a lamination, characterized in that the honeycomb core consists of a thermoplastic and that the construction panel itself is tension-free due to opposing tensions of the laminations .
Method for manufacturing a panel made of composite material incorporating a lightning protection means which comprises strips with a conductive layer, the method comprising a step of laying said strips in an automated manner, said strips having a width of less than 20 mm and being distributed in a first set of mutually parallel strips that are laid in a first laying direction (L1) and a second set of mutually parallel strips that are laid in a second laying direction (L2) that intersects the first laying direction (L1).
A braking system architecture for aircraft, the architecture comprising: • a brake (100; 200; 300; 400) for braking a wheel of an undercarriage of the aircraft, the brake including friction members and electromechanical actuators (103; 203; 303; 403) for applying a braking force against the friction members and thereby exerting a braking torque on the wheel; • a computer (101; 201; 301; 401) that can be situated in the fuselage of the aircraft and arranged to produce first control signals; and • a junction box (102; 202; 302; 402) that can situated on the undercarriage, the junction box being connected to the computer and to the electromechanical actuators, the junction box being arranged to receive the first control signals, the junction box comprising electrical processor means arranged to use the first control signals to produce second control signals for application to the electromechanical actuators in order to control the electromechanical actuators, the first control signals and the second control signals being digital signal, each electromechanical actuator including a body having integrated therein an electric motor, a power module for generating a power supply current for the electric motor, and a digital communication module , the electrical processor means of the junction box including a digital switch. • a brake (100; 200; 300; 400) for braking a wheel of an undercarriage of the aircraft, the brake including friction members and electromechanical actuators (103; 203; 303; 403) for applying a braking force against the friction members and thereby exerting a braking torque on the wheel; • a computer (101; 201; 301; 401) that can be situated in the fuselage of the aircraft and arranged to produce first control signals; and • a junction box (102; 202; 302; 402) that can situated on the undercarriage, the junction box being connected to the computer and to the electromechanical actuators, the junction box being arranged to receive the first control signals, the junction box comprising electrical processor means arranged to use the first control signals to produce second control signals for application to the electromechanical actuators in order to control the electromechanical actuators, each electromechanical actuator including a body having integrated therein an electric motor, a power module for generating a power supply current for the electric motor, and a digital communication module , the electrical processor means of the junction box including a digital switch.
A method of determining, using digital signal processing, a start position of an onset in a signal of a music file or an audio content file, the method comprising: separating transient parts of the signal from a relatively stationary part of the signal to produce a time domain representation; generating an amplitude envelope of the transient part; setting a power threshold in the amplitude envelope and detecting localised peaks that exceed the power threshold; and with respect to each localised peak, working backwards in time from that localised peak to find a sampling point at which a characteristic of a period of the signal before that point in time is maximally different from the same characteristic of the period of the signal after that point in time; and selecting, as the position of the onset for the localised peak, the sampling point that is maximally different. separating transient parts of the signal from a relatively stationary part of the signal to produce a time domain representation; generating an amplitude envelope of the transient part; setting a power threshold in the amplitude envelope and detecting localised peaks that exceed the power threshold; and with respect to each localised peak, working backwards in time from that localised peak to find a sampling point at which a characteristic of a period of the signal before that point in time is maximally different from the same characteristic of the period of the signal after that point in time; and selecting, as the position of the onset for the localised peak, the sampling point that is maximally different.
A process of producing propylene glycol, the process comprising: subjecting glycerol to a hydrogenolysis reaction, thus producing propylene glycol and a product stream including unreacted glycerol, a sodium salt, and polyglycerol; subjecting the product stream to a process that removes at least a portion of the sodium salt, thus producing a cleaned product stream; and subjecting the cleaned product stream to the hydrogenolysis reaction; wherein the process that removes the at least a portion of the sodium salt is ion-exclusion chromatographic separation; and wherein the clean product stream comprises 15,000-30,000 ppm of a sodium salt. subjecting glycerol to a hydrogenolysis reaction, thus producing propylene glycol and a product stream including unreacted glycerol, a sodium salt, and polyglycerol; subjecting the product stream to a process that removes at least a portion of the sodium salt, thus producing a cleaned product stream; and subjecting the cleaned product stream to the hydrogenolysis reaction; wherein the process that removes the at least a portion of the sodium salt is ion-exclusion chromatographic separation; and wherein the clean product stream comprises 15,000-30,000 ppm of a sodium salt.
Method for governing a pressurized water nuclear reactor , the pressurized water nuclear reactor comprising a reactor core and a cooling circuit for the reactor core holding a reactor coolant, the reactor state being characterized by a number of measurable state variables, and the reactor core reactivity being controlled by a number of actuating variables and impacted by reactor poisoning, wherein for a given time-dependent trajectory (Ta) of actuating variables according trajectories (Ts) for the state variables are predicted on the basis of measured current values of the state variables, calculated poisoning values and a reactivity balance equation, the method comprising receiving a load schedule giving electrical power as a function of time; iteratively considering a large number of randomly varied possible trajectories (Ta) of the actuating variables for a future time interval, wherein the variation of trajectories (Ta) of actuating variables is realized under the constraint of the given Load Schedule for the reactor power, wherein each trajectory (Ta) of actuating variables is assigned a figure of merit (Σ) on the basis of a Value Table which contains weighting or penalty values for a number of events or adverse reactor core states which are characterized by preset conditions or values of the actuating variables, the process variables and/or variables derived from them, wherein the trajectory (Ta) of actuating variables is chosen such that the figure of merit (Σ) has a local extremum, and wherein corresponding actuators are moved accordingly. the pressurized water nuclear reactor comprising a reactor core and a cooling circuit for the reactor core holding a reactor coolant, the reactor state being characterized by a number of measurable state variables, and the reactor core reactivity being controlled by a number of actuating variables and impacted by reactor poisoning, wherein for a given time-dependent trajectory (Ta) of actuating variables according trajectories (Ts) for the state variables are predicted on the basis of measured current values of the state variables, calculated poisoning values and a reactivity balance equation, the method comprising receiving a load schedule giving electrical power as a function of time; iteratively considering a large number of randomly varied possible trajectories (Ta) of the actuating variables for a future time interval, wherein the variation of trajectories (Ta) of actuating variables is realized under the constraint of the given Load Schedule for the reactor power, wherein each trajectory (Ta) of actuating variables is assigned a figure of merit (Σ) on the basis of a Value Table which contains weighting or penalty values for a number of events or adverse reactor core states which are characterized by preset conditions or values of the actuating variables, the process variables and/or variables derived from them, wherein the trajectory (Ta) of actuating variables is chosen such that the figure of merit (Σ) has a local extremum, and wherein corresponding actuators are moved accordingly.
Ventilation device for a battery system with a battery casing having a vent opening , comprising: - a housing adapted to be attached to the battery casing , - a cap with an outer surface and an inner surface , wherein the inner surface faces the housing , and wherein the cap cooperates with the housing , - a first membrane adapted to ensure pressure balance between the inside of the casing and its environment during normal operation conditions of the battery system, - a second membrane adapted to ensure an emergency venting in case of technical defect within the battery system , wherein the cap comprises a first portion connected to the first membrane and a second portion connected to the second membrane , the cap being substantially circular with a central portion adapted to be covered by the first membrane and an outer annular portion adapted to be partly covered by the second membrane and characterized in that the central portion comprises a plurality of ventilation holes . - a housing adapted to be attached to the battery casing , - a cap with an outer surface and an inner surface , wherein the inner surface faces the housing , and wherein the cap cooperates with the housing , - a first membrane adapted to ensure pressure balance between the inside of the casing and its environment during normal operation conditions of the battery system, - a second membrane adapted to ensure an emergency venting in case of technical defect within the battery system , wherein the cap comprises a first portion connected to the first membrane and a second portion connected to the second membrane , the cap being substantially circular with a central portion adapted to be covered by the first membrane and an outer annular portion adapted to be partly covered by the second membrane and characterized in that the central portion comprises a plurality of ventilation holes .
A surge protector with an anti-off structure, comprising a pluggable module and a base ; wherein the base comprises a pluggable terminal connection part at a bottom of the base and an external terminal connection part on each of both sides of the base ; a pluggable module installation slot is formed in a middle of the base to guide a pin of the pluggable module to insert into the pluggable terminal connection part; a top of the external terminal connection part of the base is provided with a sliding limit device, and each of both sides of the pluggable module is provided with a fixing limit device; a direction of inserting the pluggable module into the base is defined as a downward direction; the sliding limit device comprises a hole cover , and characterized in that the hole cover is slidably connected to the top of the external terminal connection part; when the pluggable module is completely inserted, a part of the hole cover protrudes into the pluggable module installation slot and is clamped with the fixing limit device of the pluggable module , to limit the pluggable module from being detached from the base . a direction of inserting the pluggable module into the base is defined as a downward direction; the sliding limit device comprises a hole cover , and characterized in that the hole cover is slidably connected to the top of the external terminal connection part; when the pluggable module is completely inserted, a part of the hole cover protrudes into the pluggable module installation slot and is clamped with the fixing limit device of the pluggable module , to limit the pluggable module from being detached from the base .
Wiper arm apparatus having a wiper arm unit and a nozzle unit which is provided for applying washing water onto a vehicle window, wherein the nozzle unit is connected to the wiper arm unit in a wiper arm adapter region , wherein the nozzle unit is connected to the wiper arm unit by a latching connection and wherein the wiper arm unit comprises a wiper arm adapter to which the nozzle unit is connected by the latching connection, characterized in that the wiper arm adapter has a receiving space which is provided for at least partially receiving the nozzle unit .
Compressed-air supply arrangement for a train assembly composed of a plurality of rail vehicle cars coupled to one another, including several with compressed-air consumers , comprising at least two compressed-air sources and a compressed-air line suitable for running through the entire train assembly, wherein the compressed-air line is provided with flexible line sections for connecting the rail vehicle cars and is connected to these flexible line sections via coupling points , wherein the at least two compressed-air sources feed the compressed-air line , characterized in that in the compressed-air lines provided for rail vehicle cars having compressed-air consumers in each case, a flow limiting valve blocking in the direction of the associated coupling point and having a restrictor respectively arranged in parallel is provided on the car before the coupling points of the compressed-air line to flexible line sections connecting the rail vehicle cars .
A method performed by a network node for determining a beam to direct a signal to be transmitted from the network node to a user equipment , which network node and which user equipment operate in a wireless communications network , the method comprising: obtaining information related to a sequence of beams of a beam forming pattern associated with the user equipment , wherein the information related to the sequence of beams comprises information related to a movement or a movement pattern of the user equipment , characterized in that the method further comprises: classifying the user equipment to a beam forming class for user equipment that share beam forming statistics or beam forming patterns, based on the information related to the sequence of beams , and determining said beam to direct said signal to be transmitted from the network node to the user equipment , based on the information related to the sequence of beams and based on a result of classifying the user equipment . obtaining information related to a sequence of beams of a beam forming pattern associated with the user equipment , wherein the information related to the sequence of beams comprises information related to a movement or a movement pattern of the user equipment , characterized in that the method further comprises: classifying the user equipment to a beam forming class for user equipment that share beam forming statistics or beam forming patterns, based on the information related to the sequence of beams , and determining said beam to direct said signal to be transmitted from the network node to the user equipment , based on the information related to the sequence of beams and based on a result of classifying the user equipment . classifying the user equipment to a beam forming class for user equipment that share beam forming statistics or beam forming patterns, based on the information related to the sequence of beams , and determining said beam to direct said signal to be transmitted from the network node to the user equipment , based on the information related to the sequence of beams and based on a result of classifying the user equipment .