mhurhangee/patent-ind-claim-en huggingface dataset:
An enzyme composition for solubilization of Municipal Solid Waste, the enzyme composition comprising a) an Aspergillus fumigatus cellobiohydrolase I; (b) an Aspergillus fumigatus cellobiohydrolase II; (c) an Aspergillus fumigatus beta-glucosidase; and (d) a Penicillium sp. GH61 polypeptide having cellulolytic enhancing activity and enzymes selected from (i) a protease; (ii) a lipase and (iii) a beta-glucanase, wherein: the protease (i) is selected from SEQ ID NO: 1 or a protease having at least 90% sequence identity to SEQ ID NO: 1; the lipase (ii) is selected from SEQ ID NO: 2 or a lipase having at least 90% sequence identity to SEQ ID NO: 2; the beta-glucanase is selected from SEQ ID NO: 4 or a beta-glucanase having at least 90% sequence identity to SEQ ID NO: 4.
A transport device for objects, in particular for charging a lehr with hollow glasses, such as bottles , the transport device having drivers disposed in a row on a support beam and spaced apart from each other in such a manner that adjacent drivers form a transport receptacle for receiving an object in a positioning manner during a transport movement of the support beam, the drivers being made of a plastic material at least in their area of contact with the objects, characterized in that the support beam consists of carbon-fiber-reinforced carbon, the support beam being provided with a positioning device for positioning the drivers, the positioning device being detachably connected to the support beam.
A method performed by a wireless device during a Random Access, RA, procedure, the method comprising: obtaining , in a downlink control information, DCI, field, an indication of whether to perform a fallback to a radio resource control, RRC, connection setup or resume procedure; based on the indication, determining to perform the fallback to the RRC connection setup or resume procedure; flushing a Msg3 buffer containing data associated with an early data transmission, EDT; and transmitting at least one of an RRCConnectionRequest or an RRCConnectionResume without the data associated with the EDT. obtaining , in a downlink control information, DCI, field, an indication of whether to perform a fallback to a radio resource control, RRC, connection setup or resume procedure; based on the indication, determining to perform the fallback to the RRC connection setup or resume procedure; flushing a Msg3 buffer containing data associated with an early data transmission, EDT; and transmitting at least one of an RRCConnectionRequest or an RRCConnectionResume without the data associated with the EDT.
A health-monitor patch configured to be adhered to the skin of a subject, the health-monitor patch comprising: a cardiac sensor comprising a first monitor electrode , which is configured to receive a first signal from a first location on the skin of the subject, and a second monitor electrode , which is configured to receive a second signal from a second location on the skin of the subject; a third, noise electrode configured to receive a third signal from the skin of the subject at a third location, separate from the first and second locations; an electronic circuit comprising a processor configured to process signals from the first and second monitor electrodes ; a battery configured to provide power to the processor ; a first conductive path between the first monitor electrode and the electronic circuit; a second conductive path between the second monitor electrode and the electronic circuit; and a conductive shield that extends over at least a portion of the first and second conductive paths, wherein the conductive shield is electrically connected to each of the third, noise electrode and a terminal of the battery . a cardiac sensor comprising a first monitor electrode , which is configured to receive a first signal from a first location on the skin of the subject, and a second monitor electrode , which is configured to receive a second signal from a second location on the skin of the subject; a third, noise electrode configured to receive a third signal from the skin of the subject at a third location, separate from the first and second locations; an electronic circuit comprising a processor configured to process signals from the first and second monitor electrodes ; a battery configured to provide power to the processor ; a first conductive path between the first monitor electrode and the electronic circuit; a second conductive path between the second monitor electrode and the electronic circuit; and a conductive shield that extends over at least a portion of the first and second conductive paths, wherein the conductive shield is electrically connected to each of the third, noise electrode and a terminal of the battery .
An icemaker assembly for a refrigerator , comprising: a housing ; an ice tray positioned within the housing ; a fill tube having a first portion positioned within the housing and a second portion positioned outside of the housing ; characterized in that it further comprises a first solenoid valve coupled to the second portion of the fill tube ; an outlet tube coupled to the second portion of the fill tube ; and a second solenoid valve coupled to the outlet tube , wherein the first and second solenoid valves are operable between opened and closed positions. a housing ; an ice tray positioned within the housing ; a fill tube having a first portion positioned within the housing and a second portion positioned outside of the housing ; characterized in that it further comprises a first solenoid valve coupled to the second portion of the fill tube ; an outlet tube coupled to the second portion of the fill tube ; and a second solenoid valve coupled to the outlet tube , wherein the first and second solenoid valves are operable between opened and closed positions.
Portable power tool having a shiftable transmission for driving a drive shaft , said transmission being arranged in a transmission housing and being shiftable at least between a first gear and a second gear via a shift member , wherein the shift member is assigned a pivotably mounted actuating element which is configured as a bistable spring element with an annular main body and is arranged at least partially in the region between the shift member and the transmission housing , wherein the bistable spring element is actuable to shift gears and has a stable shift setting in at least one shifting position of the shift member , said shifting position being assigned to the first or second gear, and has an unstable setting in an intermediate position of the shift member , said intermediate position being arranged between shifting positions, assigned to the first and second gears, of the shift member , characterized in that the bistable spring element is mounted in the transmission housing in a pivotable manner at at least four body edges , and the at least four body edges are configured as radial extensions on the annular main body of the bistable spring element , wherein first body edges form a first pivot bearing axis and second body edges form a second pivot bearing axis.
A satellite multibeam (F1, F2, F3, F4) telecommunication system comprising at least one satellite provided with at least one high-power amplifier , a digital processor , and means for implementing forward link beam hopping, without return link beam hopping, characterised in that the digital processor is configured to digitise the return link beams and to aggregate them, the bandwidth of the return link beams (F1, F2, F3, F4) being proportional to the temporal distribution on the forward link beams (F1, F2, F3, F4).
A gas tank arrangement for a breathing apparatus , comprising: - a gas tank , - an inlet valve for controlling a flow of gas into said gas tank, - an outlet valve for controlling a flow of gas out of said gas tank and towards a patient , and - a control unit for controlling said inlet and outlet valves to maintain the gas within said gas tank at an overpressure for subsequent delivery to the patient , and the control unit is configured to control the outlet valve based on a parameter that is indicative of the pressure within the gas tank , characterised in that the control unit is further configured to control the inlet and outlet valves to always maintain the pressure in the gas tank between a minimum pressure threshold value and a maximum pressure threshold value, wherein the control unit is further configured to determine the minimum and/or maximum pressure threshold value based on preset parameters relating to: - the dynamics of said outlet valve , and/or - a desired minimum and/or maximum flow of gas out of the gas tank . - a gas tank , - an inlet valve for controlling a flow of gas into said gas tank, - an outlet valve for controlling a flow of gas out of said gas tank and towards a patient , and - a control unit for controlling said inlet and outlet valves to maintain the gas within said gas tank at an overpressure for subsequent delivery to the patient , and - the dynamics of said outlet valve , and/or - a desired minimum and/or maximum flow of gas out of the gas tank .
A robot comprising: an arm comprising a plurality of shafts; an end effector ; a controller ; and a manipulating force detection portion configured to detect a manipulating force by a user when teaching an operation; a reaction force detection portion configured to detect a reaction force received by the end effector from a target object , wherein, when the user teaches an operation of the arm and the end effector for generating an operation program, in a case where the reaction force has not been detected by the reaction force detection portion , the controller executes an impedance control such that resistance force to movement of the end effector when moving the end effector in a direction of the manipulating force detected by the manipulating force detection portion is reduced, and in a case where the reaction force has been detected by the reaction force detection portion , the controller executes the impedance control such that the resistance force to movement of the end effector when moving the end effector in the direction of the manipulating force detected by the manipulating force detection portion is increased, wherein, in a case where the reaction force has not been detected by the reaction force detection portion , the controller is configured to control the resistance force such that, when the user moves the end effector in a direction of the manipulating force, the resistance force becomes smaller than the resistance force when the manipulating force is not detected. an arm comprising a plurality of shafts; an end effector ; a controller ; and a manipulating force detection portion configured to detect a manipulating force by a user when teaching an operation; a reaction force detection portion configured to detect a reaction force received by the end effector from a target object , wherein, when the user teaches an operation of the arm and the end effector for generating an operation program, in a case where the reaction force has not been detected by the reaction force detection portion , the controller executes an impedance control such that resistance force to movement of the end effector when moving the end effector in a direction of the manipulating force detected by the manipulating force detection portion is reduced, and in a case where the reaction force has been detected by the reaction force detection portion , the controller executes the impedance control such that the resistance force to movement of the end effector when moving the end effector in the direction of the manipulating force detected by the manipulating force detection portion is increased, wherein, in a case where the reaction force has not been detected by the reaction force detection portion , the controller is configured to control the resistance force such that, when the user moves the end effector in a direction of the manipulating force, the resistance force becomes smaller than the resistance force when the manipulating force is not detected.
A heat pump having a refrigerant circuit in which a compressor , a condenser , an expansion valve , and an evaporator are connected sequentially, comprising: evaporator refrigerant pressure detecting means for detecting an evaporation pressure of said evaporator ; and first frost formation state detecting means for detecting a frost formation state of said evaporator , wherein said first frost formation state detecting means sets said evaporation pressure to a characteristic amount and detects a drop in heat exchange performance caused by the frost formation on said evaporator on the basis of a time change amount of the characteristic amount, wherein said time change amount is a difference in said characteristic amount before and after a given time elapsed. evaporator refrigerant pressure detecting means for detecting an evaporation pressure of said evaporator ; and first frost formation state detecting means for detecting a frost formation state of said evaporator , wherein said first frost formation state detecting means sets said evaporation pressure to a characteristic amount and detects a drop in heat exchange performance caused by the frost formation on said evaporator on the basis of a time change amount of the characteristic amount, wherein said time change amount is a difference in said characteristic amount before and after a given time elapsed.
A copolymer comprising a reaction product of: (a) a di- or polyfunctional nucleophilic initiator selected from the group consisting of alcohols, phenols, thiols, thiophenols, sulfinic acids, and deprotonated species thereof; (b) from 1 to 30 recurring units per active hydrogen equivalent of the initiator of a phenyl glycidyl ether; and (c) from 1 to 100 recurring units per active hydrogen equivalent of the initiator of one or more alkylene oxides (AO) selected from the group consisting of ethylene oxide, propylene oxide, butylene oxides, and combinations thereof; wherein the copolymer comprises 20 to 60 wt.% of the phenyl glycidyl ether recurring units based on the combined amounts of the phenyl glycidyl ether and AO recurring units; and wherein the copolymer has a number-average molecular weight within the range of 1,900 to 56,000 g/mol. (a) a di- or polyfunctional nucleophilic initiator selected from the group consisting of alcohols, phenols, thiols, thiophenols, sulfinic acids, and deprotonated species thereof; (b) from 1 to 30 recurring units per active hydrogen equivalent of the initiator of a phenyl glycidyl ether; and (c) from 1 to 100 recurring units per active hydrogen equivalent of the initiator of one or more alkylene oxides (AO) selected from the group consisting of ethylene oxide, propylene oxide, butylene oxides, and combinations thereof; wherein the copolymer comprises 20 to 60 wt.% of the phenyl glycidyl ether recurring units based on the combined amounts of the phenyl glycidyl ether and AO recurring units; and wherein the copolymer has a number-average molecular weight within the range of 1,900 to 56,000 g/mol.
A method comprising: encrypting a message using an encryption technique for a first radio access technology; sending, to a user equipment, at least a portion of the encrypted message using a different, second radio access technology, where sending using the second radio access technology does not further encrypt the at least a portion of the encrypted message, characterized by the message being encrypted at a first radio access technology protocol that is a universal terrestrial radio access network packet data convergence protocol. encrypting a message using an encryption technique for a first radio access technology; sending, to a user equipment, at least a portion of the encrypted message using a different, second radio access technology, where sending using the second radio access technology does not further encrypt the at least a portion of the encrypted message, characterized by the message being encrypted at a first radio access technology protocol that is a universal terrestrial radio access network packet data convergence protocol.
A method of controlling the presence of rodents in the vicinity of, at and within vacuum waste collection system (1; 101) installations (10; 110), characterized by: - forming an entrance for rodents into the vacuum waste collection system; - forming said rodent entrance as a branch pipe (20; 120); - leaving a first free end (20A; 120A) of the branch pipe at least partly open; - communicating a second end (20B; 120B) of the branch pipe with a vacuum waste collection system transport pipe (11; 111) through a controllable branch pipe discharge valve (24; 124); and - providing at least one rodent trap (22, 23; 122, 123) in the branch pipe, between the two ends. - forming an entrance for rodents into the vacuum waste collection system; - forming said rodent entrance as a branch pipe (20; 120); - leaving a first free end (20A; 120A) of the branch pipe at least partly open; - communicating a second end (20B; 120B) of the branch pipe with a vacuum waste collection system transport pipe (11; 111) through a controllable branch pipe discharge valve (24; 124); and - providing at least one rodent trap (22, 23; 122, 123) in the branch pipe, between the two ends.
Laundry care appliance with an appliance loading opening on an appliance front side of the laundry care appliance , an appliance door for closing off the appliance loading opening , a laundry drum for accommodating laundry, wherein the laundry drum can be rotated about an axis of rotation , wherein the axis of rotation extends from the appliance front side to an appliance rear side of the laundry care appliance , and an outer tub for accommodating washing liquid , wherein the outer tub has an outlet opening , wherein the laundry care appliance has an inlet nozzle , wherein the outlet opening is fluidically connected to the inlet nozzle by a line , wherein a pump for pumping the washing liquid out of the outlet opening through the line and through the inlet nozzle is arranged in the line , wherein a redirecting apparatus is arranged on an inner side of the appliance door , wherein the inlet nozzle is embodied to conduct the washing liquid , which has been pumped out through the inlet nozzle , radially to the axis of rotation onto the redirecting apparatus , and wherein the redirecting apparatus is embodied to redirect the washing liquid striking the redirecting apparatus in the direction of the laundry drum and to inject the redirected washing liquid along the axis of rotation and into the laundry drum , in order to advantageously wet the laundry accommodated in the laundry drum , wherein the redirecting apparatus has a redirecting surface , against which the washing liquid striking the redirecting apparatus can be sprayed, in order to redirect the washing liquid in the direction of the laundry drum , characterised in that the redirecting surface is embodied as a bent or curved redirecting surface . a redirecting apparatus is arranged on an inner side of the appliance door , wherein the inlet nozzle is embodied to conduct the washing liquid , which has been pumped out through the inlet nozzle , radially to the axis of rotation onto the redirecting apparatus , and wherein the redirecting apparatus is embodied to redirect the washing liquid striking the redirecting apparatus in the direction of the laundry drum and to inject the redirected washing liquid along the axis of rotation and into the laundry drum , in order to advantageously wet the laundry accommodated in the laundry drum , wherein the redirecting apparatus has a redirecting surface , against which the washing liquid striking the redirecting apparatus can be sprayed, in order to redirect the washing liquid in the direction of the laundry drum , characterised in that the redirecting surface is embodied as a bent or curved redirecting surface .
A landing gear force control system for an aircraft having a longitudinal axis and a plurality of landing gears having one or more braking and/or driving wheels, wherein the force control system comprises an error-based force control module , the error-based force control module comprising one or more landing gear force controllers each configured, in use, to control landing gear force at a respective one of the plurality of landing gears, wherein each landing gear force controller is configured, in use, to: receive an input signal representative of a longitudinal force demand to be achieved by the force control system for the respective landing gear; receive an input signal representative of an actual measured landing gear longitudinal force being achieved by the force control system for the respective landing gear; calculate any error between the force demand signal and the actual force signal; and output a landing gear longitudinal force command for the respective landing gear so as to minimise any error between the demanded force and the actual force. receive an input signal representative of a longitudinal force demand to be achieved by the force control system for the respective landing gear; receive an input signal representative of an actual measured landing gear longitudinal force being achieved by the force control system for the respective landing gear; calculate any error between the force demand signal and the actual force signal; and output a landing gear longitudinal force command for the respective landing gear so as to minimise any error between the demanded force and the actual force.