mhurhangee/patent-ind-claim-en huggingface dataset:
A milking system, comprising: a first milking box having a first robotic attacher that is operable to extend between the rear legs of a first dairy livestock within a stall of the first milking box in order to attach milking equipment to the first dairy livestock; and a second milking box positioned front-to-back with the first milking box and having a second robotic attacher , the second robotic attacher operable to extend between the rear legs of a second dairy livestock within a stall of the second milking box in order to attach milking equipment to the second dairy livestock, wherein the first robotic attacher comprises: a main arm ; a supplemental arm coupled to the main arm ; a gripping portion coupled to the supplemental arm ; a vision system positioned on a first surface of the first robotic attacher ; and at least one nozzle positioned on a second surface opposite the first surface, wherein the gripping portion is operable to rotate such that during a milking operation, the nozzle is positioned generally on the bottom of the first robotic attacher , and during a spraying operation, the nozzle is positioned generally on the top of the first robotic attacher . a first milking box having a first robotic attacher that is operable to extend between the rear legs of a first dairy livestock within a stall of the first milking box in order to attach milking equipment to the first dairy livestock; and a second milking box positioned front-to-back with the first milking box and having a second robotic attacher , the second robotic attacher operable to extend between the rear legs of a second dairy livestock within a stall of the second milking box in order to attach milking equipment to the second dairy livestock, wherein the first robotic attacher comprises: a main arm ; a supplemental arm coupled to the main arm ; a gripping portion coupled to the supplemental arm ; a vision system positioned on a first surface of the first robotic attacher ; and at least one nozzle positioned on a second surface opposite the first surface, a main arm ; a supplemental arm coupled to the main arm ; a gripping portion coupled to the supplemental arm ; a vision system positioned on a first surface of the first robotic attacher ; and at least one nozzle positioned on a second surface opposite the first surface, wherein the gripping portion is operable to rotate such that during a milking operation, the nozzle is positioned generally on the bottom of the first robotic attacher , and during a spraying operation, the nozzle is positioned generally on the top of the first robotic attacher .
A high pressure water jet cleaner comprising: - - a casing , - a first pump associated with the casing , which is provided with a suction conduit adapted to be connected to a water network and a delivery conduit , - a dispensing pistol provided with a dispensing nozzle and fluidly connected to the delivery conduit of the first pump , - a second pump associated with the casing , which is provided with a suction conduit in direct fluid communication with a tank , adapted to contain a liquid, and independent from the suction conduit of the first pump , and a delivery conduit independent from the delivery conduit of the first pump , and - a spray pistol provided with a spray nozzle and fluidly connected to the delivery conduit of the second pump, the high pressure water jet cleaner further comprising: - a first electric motor mechanically connected to the first pump for activating it, - a second electric motor mechanically connected to the second pump for activating it and - an electric supply device configured to selectively connect to a source of electric energy the first motor or the second motor . - - a casing , - a first pump associated with the casing , which is provided with a suction conduit adapted to be connected to a water network and a delivery conduit , - a dispensing pistol provided with a dispensing nozzle and fluidly connected to the delivery conduit of the first pump , - a second pump associated with the casing , which is provided with a suction conduit in direct fluid communication with a tank , adapted to contain a liquid, and independent from the suction conduit of the first pump , and a delivery conduit independent from the delivery conduit of the first pump , and - a spray pistol provided with a spray nozzle and fluidly connected to the delivery conduit of the second pump, the high pressure water jet cleaner further comprising: - a first electric motor mechanically connected to the first pump for activating it, - a second electric motor mechanically connected to the second pump for activating it and - an electric supply device configured to selectively connect to a source of electric energy the first motor or the second motor . - a first electric motor mechanically connected to the first pump for activating it, - a second electric motor mechanically connected to the second pump for activating it and - an electric supply device configured to selectively connect to a source of electric energy the first motor or the second motor .
A loudspeaker apparatus comprising: a surface arranged to be mechanically displaced; a first permanent magnet coupled with the surface ; at least one supporting member for supporting the surface ; a base comprising a second permanent magnet arranged to at least partially face the first permanent magnet at a distance; a coil arranged between the first magnet and the second magnet ; and a signal port electrically coupled with the coil , wherein an electrical signal is configured to travel between the signal port and the coil , wherein a magnetic field between the first permanent magnet and the second permanent magnet causes a force to the surface , wherein an entity, comprising the surface and the at least one supporting member , comprises at least one elastic element providing a supporting counterforce acting as a counterforce to the force caused by the magnetic field, causing the surface to be in a force equilibrium state, and wherein the electrical signal in the coil is proportional to mechanic displacement of the surface when the force equilibrium state is broken by the electrical signal in the coil . a surface arranged to be mechanically displaced; a first permanent magnet coupled with the surface ; at least one supporting member for supporting the surface ; a base comprising a second permanent magnet arranged to at least partially face the first permanent magnet at a distance; a coil arranged between the first magnet and the second magnet ; and a signal port electrically coupled with the coil , wherein an electrical signal is configured to travel between the signal port and the coil , wherein a magnetic field between the first permanent magnet and the second permanent magnet causes a force to the surface , wherein an entity, comprising the surface and the at least one supporting member , comprises at least one elastic element providing a supporting counterforce acting as a counterforce to the force caused by the magnetic field, causing the surface to be in a force equilibrium state, and wherein the electrical signal in the coil is proportional to mechanic displacement of the surface when the force equilibrium state is broken by the electrical signal in the coil .
Use of 2-phenoxyethanol as a disinfectant addition to dithionite-containing disinfectant cleaners for cleaning and disinfecting appliances for the storage and stockage and also for the transport of water, especially of water of drinking-water grade.
Riding type vehicle mounted with an apparatus for controlling a drive force generated by an engine of the riding type vehicle, the apparatus comprising an abnormality detecting portion for detecting an abnormality of the drive force control apparatus configured to detect the abnormality of the drive force control apparatus at a predetermined abnormality detecting period, wherein the drive force control apparatus is configured to execute a primary abnormality processing of the drive force control apparatus when the abnormality of the drive force control apparatus is detected, wherein the drive force control apparatus is further configured to release the primary abnormality processing and to execute a normal electronic control of the drive force control apparatus when the abnormality is not detected, wherein the drive force control apparatus is configured to shift the primary abnormality processing to a secondary abnormality processing, when the abnormality detected by the abnormality detecting portion continues even after an elapse of a predetermined abnormality determining time period, wherein the secondary abnormality processing is always preceded by the primary abnormality processing, wherein the primary abnormality processing and secondary abnormality processing include the same execution, and wherein the primary abnormality processing and secondary abnormality processing are executed at least by cutting to drive a throttle valve.
A method of forming a component by an additive manufacturing process, the method comprising: forming , using the additive manufacturing process, a body of the component from an additive manufacturing material; forming a first cavity within the body; and forming a first vibration damper within the first cavity by: forming, during the same additive manufacturing process used to form the body , a first solidified element by selectively solidifying the additive manufacturing material; and enclosing the first solidified element and a flowable medium within the first cavity. forming , using the additive manufacturing process, a body of the component from an additive manufacturing material; forming a first cavity within the body; and forming a first vibration damper within the first cavity by: forming, during the same additive manufacturing process used to form the body , a first solidified element by selectively solidifying the additive manufacturing material; and enclosing the first solidified element and a flowable medium within the first cavity. forming, during the same additive manufacturing process used to form the body , a first solidified element by selectively solidifying the additive manufacturing material; and enclosing the first solidified element and a flowable medium within the first cavity.
Method for expanding a product containing starch comprising the steps of: subjecting the product to hot process gas flowing in a downstream direction, such that the product is expanded by means of a thermal shock while the product is conveyed in the process gas in the downstream direction, wherein the expansion medium is only water; and lowering the temperature of the process gas by injecting cooling medium while further conveying the product in the process gas, wherein the temperature of the process gas is lowered by injecting cooling medium at at least two downstream locations, such that a temperature gradient can be obtained in the process gas along the downstream direction. subjecting the product to hot process gas flowing in a downstream direction, such that the product is expanded by means of a thermal shock while the product is conveyed in the process gas in the downstream direction, wherein the expansion medium is only water; and lowering the temperature of the process gas by injecting cooling medium while further conveying the product in the process gas, wherein the temperature of the process gas is lowered by injecting cooling medium at at least two downstream locations, such that a temperature gradient can be obtained in the process gas along the downstream direction.
Optoelectronic detection device having at least one optical transmitting unit with an electromagnetic pulse generator for emitting electromagnetic transmitted pulses , and at least one optical receiver for receiving reflected transmitted pulses that provides a reception signal, formed depending on the reflected transmitted pulses, to an evaluation device of the optoelectronic detection device , characterized in that the optical receiver is configured to provide a trigger signal to the optical transmitting unit for control of the optical transmitting unit , the optical receiver is configured to provide the trigger signal to the evaluation device , the optical transmitting unit is configured to provide a feedback signal to the evaluation device , wherein the feedback signal specifies the time of the emission of the electromagnetic transmitted pulse by the electromagnetic pulse generator , and the evaluation device is configured to determine the time difference between the trigger signal and the feedback signal . at least one optical transmitting unit with an electromagnetic pulse generator for emitting electromagnetic transmitted pulses , and at least one optical receiver for receiving reflected transmitted pulses that provides a reception signal, formed depending on the reflected transmitted pulses, to an evaluation device of the optoelectronic detection device , characterized in that the optical receiver is configured to provide a trigger signal to the optical transmitting unit for control of the optical transmitting unit , the optical receiver is configured to provide the trigger signal to the evaluation device , the optical transmitting unit is configured to provide a feedback signal to the evaluation device , wherein the feedback signal specifies the time of the emission of the electromagnetic transmitted pulse by the electromagnetic pulse generator , and the evaluation device is configured to determine the time difference between the trigger signal and the feedback signal .
A cartridge for an aerosol-generating system, the cartridge comprising: a sensor comprising a capacitor with a first capacitor plate and a second capacitor plate ; a liquid storage portion for holding a liquid aerosol-forming substrate, wherein the liquid storage portion is arranged between the first capacitor plate and the second capacitor plate , wherein the permittivity of the liquid storage portion changes upon a change of the volume of the liquid aerosol-forming substrate held in the liquid storage portion ; and a vaporiser , wherein: the sensor is configured to measure the capacitance of the capacitor; the measured capacitance relates to a corresponding permittivity of the liquid aerosol-forming substrate held in the liquid storage portion so that the amount of the volume of the liquid aerosol-forming substrate held in the liquid storage portion is determinable from the measured capacitance; and at least a section of the internal volume of the liquid storage portion has a width dimension below a predefined value, such that capillary forces act on the liquid aerosol-forming substrate held in the liquid storage portion to hold the level of the liquid aerosol-forming substrate essentially perpendicular to the first capacitor plate and to the second capacitor plate . a sensor comprising a capacitor with a first capacitor plate and a second capacitor plate ; a liquid storage portion for holding a liquid aerosol-forming substrate, wherein the liquid storage portion is arranged between the first capacitor plate and the second capacitor plate , wherein the permittivity of the liquid storage portion changes upon a change of the volume of the liquid aerosol-forming substrate held in the liquid storage portion ; and a vaporiser , the sensor is configured to measure the capacitance of the capacitor; the measured capacitance relates to a corresponding permittivity of the liquid aerosol-forming substrate held in the liquid storage portion so that the amount of the volume of the liquid aerosol-forming substrate held in the liquid storage portion is determinable from the measured capacitance; and at least a section of the internal volume of the liquid storage portion has a width dimension below a predefined value, such that capillary forces act on the liquid aerosol-forming substrate held in the liquid storage portion to hold the level of the liquid aerosol-forming substrate essentially perpendicular to the first capacitor plate and to the second capacitor plate .
An antibody-drug conjugate of the formula: Ab-(L-D), wherein: Ab is an antibody comprising a heavy chain having an amino acid sequence set forth as SEQ ID NO: 37 and a light chain having an amino acid sequence set forth as SEQ ID NO: 47; and L is a linker and D is an auristatin, wherein the linker and auristatin have the formula: Ab is an antibody comprising a heavy chain having an amino acid sequence set forth as SEQ ID NO: 37 and a light chain having an amino acid sequence set forth as SEQ ID NO: 47; and L is a linker and D is an auristatin, wherein the linker and auristatin have the formula:
A range imaging apparatus, characterized in that the apparatus comprises a semiconductor laser source , which comprises groups (504 to 508), each of the groups (504 to 508) comprising one or more sub-source units , and different groups (504 to 508) being configured to generate an optical pulse at repeated moments, and output a plurality of spatially separate optical beams (300 to 304) towards a target zone , such that different groups (504 to 508) of the semiconductor laser source are configured to output each of the spatially separate optical beams (300 to 304) at different moments from each other; an electric power source , which is configured to supply a constant electric power to the one or more sub-source units at each of the repeated moments; a detector comprising single-photon sub-detector units for receiving the optical pulse reflected from the target zone , at least two groups of the single-photon sub-detector units are configured to have separate field of views (900 to 904) towards the target zone , and the at least two groups of sub-detector units being associated with different optical beams of the spatially separated optical beams (300 to 304) on the basis of the separate field-of-views (900 to 904); and a timing unit configured to determine a value corresponding to a time-of-flight of the optical pulse output at each of the repeated moments on the basis of signals from the sub-detector units of a group associated with an optical beam (300 to 304) output at said moment. a semiconductor laser source , which comprises groups (504 to 508), each of the groups (504 to 508) comprising one or more sub-source units , and different groups (504 to 508) being configured to generate an optical pulse at repeated moments, and output a plurality of spatially separate optical beams (300 to 304) towards a target zone , such that different groups (504 to 508) of the semiconductor laser source are configured to output each of the spatially separate optical beams (300 to 304) at different moments from each other; an electric power source , which is configured to supply a constant electric power to the one or more sub-source units at each of the repeated moments; a detector comprising single-photon sub-detector units for receiving the optical pulse reflected from the target zone , at least two groups of the single-photon sub-detector units are configured to have separate field of views (900 to 904) towards the target zone , and the at least two groups of sub-detector units being associated with different optical beams of the spatially separated optical beams (300 to 304) on the basis of the separate field-of-views (900 to 904); and a timing unit configured to determine a value corresponding to a time-of-flight of the optical pulse output at each of the repeated moments on the basis of signals from the sub-detector units of a group associated with an optical beam (300 to 304) output at said moment.
A system comprising a processing circuit and a circuit configured to provide to said processing circuit ( given number N A2 of bits of configuration information (PRE_CFG, AS, A_CFG) to be used by said processing circuit , wherein said circuit comprises a non-volatile programmable memory providing at output a first group (A_CFG1) of N A2 bits, said circuit further comprising N A2 terminals for receiving a second group (A_CFG2) of N A2 bits; wherein said circuit comprises N A2 logic gates (2304; 2312), wherein a first input terminal of each logic gate (2304; 2312) is connected to a respective bit of the output of said non-volatile programmable memory and a second input terminal of each logic gate (2304; 2312) is connected to a respective terminal of said N A2 terminals, and wherein said N A2 logic gates provide at output said N A2 bits of configuration information (PRE_CFG, AS, A_CFG); characterized in that : a) unprogrammed/erased bits in said non-volatile programmable memory are set to a low logic value and said N A2 logic gates (2304; 2312) are OR, NOR, XOR or XNOR gates; or b) unprogrammed/erased bits in said non-volatile programmable memory are set to a high logic value and said N A2 logic gates (2304; 2312) are AND, NAND, XOR or XNOR gates. a) unprogrammed/erased bits in said non-volatile programmable memory are set to a low logic value and said N A2 logic gates (2304; 2312) are OR, NOR, XOR or XNOR gates; or b) unprogrammed/erased bits in said non-volatile programmable memory are set to a high logic value and said N A2 logic gates (2304; 2312) are AND, NAND, XOR or XNOR gates.
A USB interface to provide power delivery negotiated through a dedicated transmission channel, the USB interface comprising: a transmitter circuit including a digital-to-analog converter having an output coupled with an input of a transmission filter ; a receiver circuit including an analog-to-digital converter having an input coupled with an output of a receiving filter ; and a switching circuit configured in a first operating mode of the USB interface to connect an output of the transmission filter and an input of the receiving filter to a first connection node of the dedicated transmission channel. a transmitter circuit including a digital-to-analog converter having an output coupled with an input of a transmission filter ; a receiver circuit including an analog-to-digital converter having an input coupled with an output of a receiving filter ; and a switching circuit configured in a first operating mode of the USB interface to connect an output of the transmission filter and an input of the receiving filter to a first connection node of the dedicated transmission channel.
A method for diagnosing metachromatic leukodystrophy in a subject comprising a step a), wherein the step a) comprises detecting a biomarker in a sample from the subject, wherein the sample is selected from the group consisting of blood, dried blood, serum and plasma and wherein the biomarker is free lyso-Gb1-sulfatide, wherein lyso-Gb1-sulfatide is of formula (I)
An isolated polypeptide, which comprises an amino acid sequence with at least 95% identity to SEQ ID No.: 3, or a polynucleotide encoding said polypeptide for use in a therapeutical method of enhancing the repair of damaged DNA bases in a cell, the method comprising the step of introducing an effective amount of said isolated polypeptide or by introducing said polynucleotide encoding said polypeptide into the cell, wherein the effective amount of polypeptide or polynucleotide is sufficient to enhance the repair of damaged DNA in the cell.