mhurhangee/patent-ind-claim-en huggingface dataset:
A string for a stringed, bowed musical instrument, such as a violin, viola or cello, the string comprising: - at least one first, load bearing core having an outer surface , - a first winding strand wound around the first core in helical windings, said first winding strand having an inner surface and an outer surface , wherein said inner surface of the first winding strand is opposing the outer surface of the core, - a second winding strand comprising an inner surface, the second winding strand wound around the outer surface of the first winding strand in adjacent windings, characterized in that the inner and outer surface of the first winding strand comprises at least one profiled recess respectively, - the string further characterized by at least one damping agent suitable for vibration damping arranged in said profiled recesses, wherein said recesses are functioning as a reservoir between the first core and the first winding strand and the first winding strand and the second winding strand respectively, so as to at least reduce dissipation of the at least one damping agent through gaps between the adjacent helical windings of the first winding strand and reduce dissipation of damping agent from the outer surface of the first winding strand through gaps between adjacent windings of the second winding strand. - at least one first, load bearing core having an outer surface , - a first winding strand wound around the first core in helical windings, said first winding strand having an inner surface and an outer surface , wherein said inner surface of the first winding strand is opposing the outer surface of the core, - a second winding strand comprising an inner surface, the second winding strand wound around the outer surface of the first winding strand in adjacent windings, - the string further characterized by at least one damping agent suitable for vibration damping arranged in said profiled recesses, wherein said recesses are functioning as a reservoir between the first core and the first winding strand and the first winding strand and the second winding strand respectively, so as to at least reduce dissipation of the at least one damping agent through gaps between the adjacent helical windings of the first winding strand and reduce dissipation of damping agent from the outer surface of the first winding strand through gaps between adjacent windings of the second winding strand.
A structural component for protecting and/or supporting a body part, comprising a flexible deformable inner layer facing the body part and a dimensionally stable outer layer , wherein the inner and outer layer enclose an air-filled cavity , which communicates with the environment via at least one ventilation opening and a plurality of elastic deformable support elements are arranged within the hollow space , characterized in that the support elements are produced integrally in one piece with the outer and inner layer and have a plurality of air passage openings , so that they form a plurality of adjacent cells communicating with one another, which jointly form the air-filled cavity and the cavity communicates with the atmosphere via at least one joint ventilation opening or in each case a separate ventilation opening, which are provided with a valve .
A system for beverage management, the system comprising at least one receptacle for receiving a beverage, said receptacle comprising at least one identification means that is configured to identify the type of beverage provided in the at least one receptacle ; a trolley comprising at least one identification reader that is configured to read the identification means to determine the beverage present in the at least one receptacle , characterized in that said trolley further comprising a weight sensor configured to determine the weight of the at least one receptacle ; the system further comprising a central programming unit configured to determine if the beverage within the at least one receptacle is below a pre-determined volume threshold based on the identity of the beverage and the weight value. at least one receptacle for receiving a beverage, said receptacle comprising at least one identification means that is configured to identify the type of beverage provided in the at least one receptacle ; a trolley comprising at least one identification reader that is configured to read the identification means to determine the beverage present in the at least one receptacle , characterized in that said trolley further comprising a weight sensor configured to determine the weight of the at least one receptacle ; the system further comprising a central programming unit configured to determine if the beverage within the at least one receptacle is below a pre-determined volume threshold based on the identity of the beverage and the weight value.
A vacuum cleaner comprising an elongated member having a nozzle end portion and a handle end portion , a floor nozzle arranged at the nozzle end portion , a handle arranged at the handle end portion , and a hand unit releasably connectable at the nozzle end portion and at the handle end portion , wherein the hand unit comprises a motor fan unit for producing an airflow through at least a first portion of the vacuum cleaner , and a main separation unit for separating dust and debris from the airflow, wherein the first portion of the vacuum cleaner comprises the floor nozzle , characterised in that the vacuum cleaner comprises a valve arranged at the nozzle end portion , the valve comprising a valve member being movable between a first position and a second position, wherein in the first position the valve member is configured to direct the airflow from the floor nozzle to the hand unit while preventing the airflow to flow through the handle end portion , and wherein in the second position the valve member is configured to direct the airflow from the floor nozzle to the handle end portion and to the hand unit . an elongated member having a nozzle end portion and a handle end portion , a floor nozzle arranged at the nozzle end portion , a handle arranged at the handle end portion , and a hand unit releasably connectable at the nozzle end portion and at the handle end portion , wherein the hand unit comprises a motor fan unit for producing an airflow through at least a first portion of the vacuum cleaner , and a main separation unit for separating dust and debris from the airflow, wherein the first portion of the vacuum cleaner comprises the floor nozzle , characterised in that the vacuum cleaner comprises a valve arranged at the nozzle end portion , the valve comprising a valve member being movable between a first position and a second position, wherein in the first position the valve member is configured to direct the airflow from the floor nozzle to the hand unit while preventing the airflow to flow through the handle end portion , and wherein in the second position the valve member is configured to direct the airflow from the floor nozzle to the handle end portion and to the hand unit .
A method of adjusting, by use of a controller , a plurality of initial real time load currents of a corresponding plurality of cutting head motors of a corresponding plurality of cutting head assemblies to form a plurality of adjusted real time load currents of the corresponding plurality of cutting head motors of the corresponding plurality of cutting head assemblies comprising: detecting by use of the controller the plurality of initial real time load currents; and adjusting the plurality of initial real time load currents to form the plurality of adjusted real time load currents through use of the controller so that each of the plurality of adjusted real time load currents is within a range defined by a lower limit and an upper limit in response to the plurality of initial real time load currents ; and wherein the upper and lower limit are stored in a computer memory; and further comprising determining, by use of the controller , an average value for the plurality of adjusted real time load currents while the plurality of cutting head assemblies corresponding to the plurality of adjusted real time load currents are actively participating in grinding a material; and further adjusting, by use of the controller , one or more of the adjusted real time load currents to form a plurality of further adjusted real time load currents based on the average value. detecting by use of the controller the plurality of initial real time load currents; and adjusting the plurality of initial real time load currents to form the plurality of adjusted real time load currents through use of the controller so that each of the plurality of adjusted real time load currents is within a range defined by a lower limit and an upper limit in response to the plurality of initial real time load currents ; and wherein the upper and lower limit are stored in a computer memory; and further comprising determining, by use of the controller , an average value for the plurality of adjusted real time load currents while the plurality of cutting head assemblies corresponding to the plurality of adjusted real time load currents are actively participating in grinding a material; and further adjusting, by use of the controller , one or more of the adjusted real time load currents to form a plurality of further adjusted real time load currents based on the average value.
A process for treating waste water from an industrial process for producing propylene oxide, which waste water contains hydrocarbons and salts, which process comprises subjecting the waste water to a catalytic wet oxidation treatment comprising: feeding a stream comprising the waste water to a reactor, subjecting the stream comprising the waste water to an oxidation treatment in the presence of oxygen and a catalyst resulting in a treated stream, wherein the catalyst comprises metal nanoparticles-doped porous carbon beads; sending at least part of the treated stream to a separator wherein the treated stream is separated into a gas stream and a liquid stream; and recycling part of the liquid stream to the reactor. feeding a stream comprising the waste water to a reactor, subjecting the stream comprising the waste water to an oxidation treatment in the presence of oxygen and a catalyst resulting in a treated stream, wherein the catalyst comprises metal nanoparticles-doped porous carbon beads; sending at least part of the treated stream to a separator wherein the treated stream is separated into a gas stream and a liquid stream; and recycling part of the liquid stream to the reactor.
A cleaning composition comprising a DNase, an RNase and a cleaning component, wherein the DNase comprises one or both of the motifs [D/M/L][S/T]GYSR[D/N] (SEQ ID NO: 73) or ASXNRSKG (SEQ ID NO: 74) and comprises an amino acid sequence having at least 80% sequence identity to SEQ ID NO: 13, and wherein the RNase comprises an amino acid sequence having at least 80% sequence identity to SEQ ID NO: 87, SEQ ID NO: 90, SEQ ID NO: 95, SEQ ID NO: 96, SEQ ID NO: 97, SEQ ID NO: 98, SEQ ID NO: 99, SEQ ID NO: 100, SEQ ID NO: 101, SEQ ID NO: 102, SEQ ID NO: 103 or SEQ ID NO: 104.
A seal for a vane seal system, comprising: a seal member configured to be received in a pocket at one end of an airfoil of a non-rotatable vane segment , the seal member including a seal element configured to seal against a mating rotatable seal element and at least one spring portion affixed to the seal element and configured to positively locate the seal element in a sealing direction; wherein the at least one spring portion includes a first spring portion configured to bias the seal member in a first direction and a second spring portion configured to bias the seal member in a second, different direction, wherein the first direction and the second direction are orthogonal; characterised in that the seal member includes a base wall with a spring leg at one end thereof and a second spring leg at an opposed end thereof; wherein the spring leg is configured to positively locate the seal member radially in a radial direction and the second spring leg is configured to bias the seal member in an axial direction . wherein the at least one spring portion includes a first spring portion configured to bias the seal member in a first direction and a second spring portion configured to bias the seal member in a second, different direction, wherein the first direction and the second direction are orthogonal; characterised in that the seal member includes a base wall with a spring leg at one end thereof and a second spring leg at an opposed end thereof; wherein the spring leg is configured to positively locate the seal member radially in a radial direction and the second spring leg is configured to bias the seal member in an axial direction .
A Bluetooth Low Energy (BLE) passive vehicle access control system comprising: a vehicle ; an external device communicatively coupled to the vehicle ; and a processor communicatively coupled the vehicle to the external device ; wherein the external device is configured to: modulate a transmitted (TX) power level of successive transmissions; and generate a corresponding RX power level (RSS) profile identical to the modulated TX power level of successive transmissions; wherein the processor is configured to: compare the RSS profile with a pre-determined secure patterns stored in a non-transitory computer-readable storage media; and disable a communication between the external device and the vehicle if the RSS profile is constant; wherein a same packet is transmitted multiple times during a connection and authentication phase by varying transmit power level. a vehicle ; an external device communicatively coupled to the vehicle ; and a processor communicatively coupled the vehicle to the external device ; wherein the external device is configured to: modulate a transmitted (TX) power level of successive transmissions; and generate a corresponding RX power level (RSS) profile identical to the modulated TX power level of successive transmissions; wherein the processor is configured to: compare the RSS profile with a pre-determined secure patterns stored in a non-transitory computer-readable storage media; and disable a communication between the external device and the vehicle if the RSS profile is constant; wherein a same packet is transmitted multiple times during a connection and authentication phase by varying transmit power level. modulate a transmitted (TX) power level of successive transmissions; and generate a corresponding RX power level (RSS) profile identical to the modulated TX power level of successive transmissions; wherein the processor is configured to: compare the RSS profile with a pre-determined secure patterns stored in a non-transitory computer-readable storage media; and disable a communication between the external device and the vehicle if the RSS profile is constant; wherein a same packet is transmitted multiple times during a connection and authentication phase by varying transmit power level. compare the RSS profile with a pre-determined secure patterns stored in a non-transitory computer-readable storage media; and disable a communication between the external device and the vehicle if the RSS profile is constant; wherein a same packet is transmitted multiple times during a connection and authentication phase by varying transmit power level.
A cystathionine-γ-lyase (CSE) antagonist for use in a method of treating, preventing, or reducing a sleep-related breathing disorder in an individual in need thereof, wherein the method comprises administering a therapeutically effective amount of the CSE antagonist, which CSE antagonist is at least one of: or a pharmaceutically acceptable salt, enantiomer or diastereomer thereof.
Method for managing a memory area of a second controller of a vehicle , the method being carried out by a first controller of the vehicle by continuously monitoring the available storage capacity of the memory area, wherein the memory area can be used to store one or more user-specific datasets containing user settings relating to the vehicle that are able to be activated by the second controller at the instruction of the first controller, the method comprising the following steps after a new user-specific dataset has been obtained : transferring data from the memory area of the second controller to an external memory in the vehicle if the available storage capacity is not sufficient for storing the new user-specific dataset in the memory area, the transfer being carried out after the new user-specific dataset has been obtained; and subsequently storing the new user-specific dataset in the memory area. transferring data from the memory area of the second controller to an external memory in the vehicle if the available storage capacity is not sufficient for storing the new user-specific dataset in the memory area, the transfer being carried out after the new user-specific dataset has been obtained; and subsequently storing the new user-specific dataset in the memory area.
A cap plate assembly of a secondary battery, comprising a cap plate , an explosion-proof sheet and a fixing piece ; wherein, the cap plate is disposed with a through hole , the explosion-proof sheet is disposed at the cap plate and seals the through hole , and the explosion-proof sheet has a weak region ; the fixing piece connects the cap plate and the explosion-proof sheet , the fixing piece has a lower melting point than the cap plate and the explosion-proof sheet ; the fixing piece is configured as that: the explosion-proof sheet at least partially separates from the cap plate when a temperature in the secondary battery is higher that a melting point of the fixing piece and when an internal gas pressure of the secondary battery is lower than the gas pressure required for breakage of the weak region ; characterized in that , the cap plate has a first surface and a second surface disposed oppositely in a thickness direction (Z), and the through hole penetrates through the first surface and the second surface ; the cap plate further has a first groove , wherein the first groove concaves toward the second surface from the first surface and the first groove surrounds periphery of the through hole ; the fixing piece is at least partially received in the first groove , and the fixing piece is located between the explosion-proof sheet and a bottom wall of the first groove ; the cap plate further comprises a stopping part , wherein the stopping part extends toward the explosion-proof sheet from the bottom wall of the first groove ; the stopping part surrounds the periphery of the through hole and the fixing piece is at least partially located between the stopping part and a side wall of the first groove .
A method, comprising: arranging at least one semiconductor die on a die pad at a first surface of a support substrate , the support substrate having a first thickness (T1) between the first surface and a second surface opposite the first surface and comprising an array of electrically conductive leads around the die pad , wherein electrically conductive leads in the array of electrically conductive leads have terminal recesses at the first surface of the support substrate , wherein at said terminal recesses said electrically conductive leads in the array of electrically conductive leads have a second thickness (T2) less than said first thickness (T1), electrically coupling the at least one semiconductor die with said electrically conductive leads in the array of electrically conductive leads via electrically conductive elongated formations having coupling ends to the electrically conductive leads in the array of electrically conductive leads arranged in said terminal recesses , and partially cutting (SB') the support substrate starting from the second surface, partially cutting (SB') being at said terminal recesses and with a cutting thickness between the first thickness (T1) and the second thickness (T2), wherein the partial cutting (SB') produces exposed surfaces of the support substrate and the coupling ends of the electrically conductive elongated formations . arranging at least one semiconductor die on a die pad at a first surface of a support substrate , the support substrate having a first thickness (T1) between the first surface and a second surface opposite the first surface and comprising an array of electrically conductive leads around the die pad , wherein electrically conductive leads in the array of electrically conductive leads have terminal recesses at the first surface of the support substrate , wherein at said terminal recesses said electrically conductive leads in the array of electrically conductive leads have a second thickness (T2) less than said first thickness (T1), electrically coupling the at least one semiconductor die with said electrically conductive leads in the array of electrically conductive leads via electrically conductive elongated formations having coupling ends to the electrically conductive leads in the array of electrically conductive leads arranged in said terminal recesses , and partially cutting (SB') the support substrate starting from the second surface, partially cutting (SB') being at said terminal recesses and with a cutting thickness between the first thickness (T1) and the second thickness (T2), wherein the partial cutting (SB') produces exposed surfaces of the support substrate and the coupling ends of the electrically conductive elongated formations .
A boom coaster , comprising: a passenger vehicle ; a track (12; 14); a bogie (18; 22) coupled to the passenger vehicle and the track (12; 14) and configured to move along the track (12; 14); and a simulated ride surface positioned above the track (12; 14) and beneath the passenger vehicle ; wherein the simulated ride surface is configured to imitate a path of the passenger vehicle , the bogie (18; 22) is coupled to a surface of the passenger vehicle via a leg member extending around the simulated ride surface , the leg member is coupled to the surface of the passenger vehicle via a rotational joint positioned at a center of gravity of the passenger vehicle , the rotational joint is configured to maintain a substantially level orientation of the passenger vehicle with respect to Earth as the bogie (18; 22) moves along various changes in the track (12; 14), and the leg member suspends the passenger vehicle above the simulated ride surface such that the bogie (18; 22) and the track (12; 14) are blocked from a passenger view perspective of the passenger vehicle . a passenger vehicle ; a track (12; 14); a bogie (18; 22) coupled to the passenger vehicle and the track (12; 14) and configured to move along the track (12; 14); and a simulated ride surface positioned above the track (12; 14) and beneath the passenger vehicle ; wherein the simulated ride surface is configured to imitate a path of the passenger vehicle , the bogie (18; 22) is coupled to a surface of the passenger vehicle via a leg member extending around the simulated ride surface , the leg member is coupled to the surface of the passenger vehicle via a rotational joint positioned at a center of gravity of the passenger vehicle , the rotational joint is configured to maintain a substantially level orientation of the passenger vehicle with respect to Earth as the bogie (18; 22) moves along various changes in the track (12; 14), and the leg member suspends the passenger vehicle above the simulated ride surface such that the bogie (18; 22) and the track (12; 14) are blocked from a passenger view perspective of the passenger vehicle .