mhurhangee/patent-ind-claim-en huggingface dataset:
A mirror assembly comprising: a mirror substrate configured to provide a reflection of objects including a user; a sensor configured to collect sensor data from the user including an identity of the user; and a controller configured to analyze the sensor data and select an auxiliary command for controlling an auxiliary device, the auxiliary command being selected for a particular user, the auxiliary device spaced apart from and coordinated with the mirror assembly , the auxiliary command selected for the user based on the sensor data, wherein the auxiliary device comprises a toilet, a sink, a shower, a bathtub, a floor tile, a light guide, a kitchen faucet, a dishwasher, a garbage disposal, a refrigerator, a water heater, or a water filter. a mirror substrate configured to provide a reflection of objects including a user; a sensor configured to collect sensor data from the user including an identity of the user; and a controller configured to analyze the sensor data and select an auxiliary command for controlling an auxiliary device, the auxiliary command being selected for a particular user, the auxiliary device spaced apart from and coordinated with the mirror assembly , the auxiliary command selected for the user based on the sensor data, wherein the auxiliary device comprises a toilet, a sink, a shower, a bathtub, a floor tile, a light guide, a kitchen faucet, a dishwasher, a garbage disposal, a refrigerator, a water heater, or a water filter.
Attachment for a wind turbine rotor blade , the attachment comprising at least one aerodynamically active element and a strip-shaped fastening element for adhering onto an aerodynamic surface of the wind turbine rotor blade , the strip-shaped fastening element being subdivided into a plurality of fastening sections , each of which has an adhesive surface, two adjacent fastening sections being connected to one another by means of an elastic expansion element , the fastening sections and the expansion element consisting of a flat strip of material and being manufactured in one piece, characterized in that the expansion element is arranged between the two adjacent fastening sections and is separated from each of the two adjacent fastening sections by a slit in the strip of material, and the slits each originating from a longitudinal edge of the strip of material and terminating at an end point inside the strip of material.
Sorting device for transporting preforms made of a thermoplastic material in the region of a blowing machine for the blow moulding of containers, comprising a transport wheel with a plurality of holding recesses arranged in a distributed manner on its circumference in the circumferential direction for holding and conveying the preforms and comprising a guide collar that runs around the transport wheel spaced away in sections in a radial manner, wherein the preforms in the region of the sorting device are transported between the transport wheel and the guide collar while hanging, as well as comprising a selecting unit for selectively separating, in each case, a preform transported in one of the holding recesses of the transport wheel , characterized in that the selecting unit comprises a rotatably mounted ejection star with a plurality of ejection arms , which, in the rest position, using a first ejection arm directly adjoining the guide collar in the transport direction of the preforms , grips into the circumferential area of the transport wheel in such a way that the preforms transported in the holding recesses along the first ejection arm are secured against falling out of the respective holding recesses , wherein the ejection star ejects an individual preform to be separated out of one of the holding recesses of the transport wheel with a rotational movement using a second ejection arm running after the first ejection arm , and wherein the second ejection arm moves into the position securing the preforms against falling out after ejection of the preform to be separated takes place.
A method comprising: Projecting amplitude modulated, continuous waveform light onto an occupant from a plurality of light sources corresponding to a respective plurality of a sensing arrangement outside of a vehicle ; receiving reflections of the light source at a plurality of detectors corresponding to a respective plurality of a sensing arrangement having different views and located outside of the vehicle; determining three-dimensional data based on a time-of-flight of the reflections; and detecting the occupant based on the three-dimensional data comprising combining the outputs of the plurality of detectors to correlate occupant detection data. Projecting amplitude modulated, continuous waveform light onto an occupant from a plurality of light sources corresponding to a respective plurality of a sensing arrangement outside of a vehicle ; receiving reflections of the light source at a plurality of detectors corresponding to a respective plurality of a sensing arrangement having different views and located outside of the vehicle; determining three-dimensional data based on a time-of-flight of the reflections; and detecting the occupant based on the three-dimensional data comprising combining the outputs of the plurality of detectors to correlate occupant detection data.
A method of preparing a compound of formula (A): or a salt thereof, comprising reacting a compound of formula (V): or a salt thereof, with a compound of formula (X): wherein: each double line between N and C independently represents a single bond or a double bond, provided that when it is a double bond X is absent and Y is -H, and when it is a single bond, X and Y are both -H; and E is -OH, halide or -C(=O)E is an activated ester. each double line between N and C independently represents a single bond or a double bond, provided that when it is a double bond X is absent and Y is -H, and when it is a single bond, X and Y are both -H; and E is -OH, halide or -C(=O)E is an activated ester.
A multiple stage water filtration system for purifying tap water, the water filtration system comprising: a first adsorbent stage cartridge including approximately 40-65 wt.% of silver-impregnated activated carbon, approximately 1-10 wt.% of activated alumina, approximately 15-35 wt.% of ceramic balls, approximately 0.5-1 wt.% of chitosan and approximately 0.5-1 wt.% of kinetic degradation fluxion media that includes zinc and brass; a second filtration stage cartridge including an antifouling electrospun nanofiber membrane, the nanofibers having a diameter from approximately 100 nanometers to 1 micron; a flow path provided between the first adsorbent stage cartridge and the second filtration stage cartridge; the multiple stage water filtration system being capable of filtering water at a volume rate of at least approximately 2 liters per minute. a first adsorbent stage cartridge including approximately 40-65 wt.% of silver-impregnated activated carbon, approximately 1-10 wt.% of activated alumina, approximately 15-35 wt.% of ceramic balls, approximately 0.5-1 wt.% of chitosan and approximately 0.5-1 wt.% of kinetic degradation fluxion media that includes zinc and brass; a second filtration stage cartridge including an antifouling electrospun nanofiber membrane, the nanofibers having a diameter from approximately 100 nanometers to 1 micron; a flow path provided between the first adsorbent stage cartridge and the second filtration stage cartridge; the multiple stage water filtration system being capable of filtering water at a volume rate of at least approximately 2 liters per minute.
A compound of Formula V-A, or a pharmaceutically acceptable salt or solvate thereof: wherein aa x is an amino acid residue selected from valine, proline, lysine, leucine, methionine, D-methionine, serine, alanine, D-alanine, glycine, isoleucine, histidine, aminoisobutyric acid, phenylglycine, tryptophan, tyrosine, O-benzylserine, O-benzylglutamine, and γ-aminobutyric acid; and wherein one or more hydrogen atoms are replaced by deuterium. wherein aa x is an amino acid residue selected from valine, proline, lysine, leucine, methionine, D-methionine, serine, alanine, D-alanine, glycine, isoleucine, histidine, aminoisobutyric acid, phenylglycine, tryptophan, tyrosine, O-benzylserine, O-benzylglutamine, and γ-aminobutyric acid; and wherein one or more hydrogen atoms are replaced by deuterium.
A adenoviral vector comprising a nucleic acid sequence encoding a fiber and a hexon polypeptide, wherein the fiber polypeptide comprises the amino acid sequence of the BB24 fiber polypeptide set forth in SEQ ID NO:4, and wherein the hexon polypeptide comprises the amino acid sequence of the BB24 hexon polypeptide set forth in SEQ ID NO:8.
A method for producing an apocarotenoid comprising the step of expressing in an Escherichia coli (E.coli) cell an expression module comprising an expression vector having a coding region encoding optimised apocarotenoid generating enzymes, the coding region being operably linked to a promoter, wherein the apocarotenoid is α-ionone, wherein said optimised apocarotenoid generating enzymes are LcyE and CCD1 that form an operon having the structure: LcyE-CCD1 , wherein said LcyE is Lactuca sativa LcyE (LsLcyE) and is N-terminal truncated; and wherein the LcyE comprises an N-terminal truncation of 50 amino acids (ΔN50-LsLcyE). wherein the apocarotenoid is α-ionone, wherein said optimised apocarotenoid generating enzymes are LcyE and CCD1 that form an operon having the structure: LcyE-CCD1 , wherein said LcyE is Lactuca sativa LcyE (LsLcyE) and is N-terminal truncated; and wherein the LcyE comprises an N-terminal truncation of 50 amino acids (ΔN50-LsLcyE).
Coating device , comprising: a first energy supply section and a second energy supply section which are arranged in such a way that the first energy supply section and the second energy supply section can act on a coating material (B), characterised by a shielding device which is moveable into a first position in which the shielding device at least partially shields the second energy supply section . a first energy supply section and a second energy supply section which are arranged in such a way that the first energy supply section and the second energy supply section can act on a coating material (B), characterised by a shielding device which is moveable into a first position in which the shielding device at least partially shields the second energy supply section .
A system configured for obtaining electricity in an offshore wind turbine farm and including a first arrangement (10-1) that comprises: a gearbox configured to mechanically change a variable first rotational speed of a wind turbine into a higher variable second rotational speed; a generator having a rated electrical frequency for full-power output in a range from about 50 Hz to about 150 Hz, and configured to be driven at the variable second rotational speed by an output of the gearbox and to thereby generate electricity at a correspondingly variable first frequency; and an AC-to-AC converter configured to convert the electricity from the generator into electricity output from the AC-to-AC converter at a fixed low frequency for offshore collection at the fixed low frequency, wherein the fixed low frequency is lower than a utility grid frequency that is either 50 or 60 Hz; said AC-to-AC converter comprising a modular multilevel converter, MMC, having converter inputs, corresponding converter outputs, and associated modular conversion circuitry, which collectively are configured to receive input electricity over a variable frequency range expected for the variable first frequency of the electricity output from the generator and to convert the input electricity into the electricity output from the MMC at the fixed low frequency. a gearbox configured to mechanically change a variable first rotational speed of a wind turbine into a higher variable second rotational speed; a generator having a rated electrical frequency for full-power output in a range from about 50 Hz to about 150 Hz, and configured to be driven at the variable second rotational speed by an output of the gearbox and to thereby generate electricity at a correspondingly variable first frequency; and an AC-to-AC converter configured to convert the electricity from the generator into electricity output from the AC-to-AC converter at a fixed low frequency for offshore collection at the fixed low frequency, wherein the fixed low frequency is lower than a utility grid frequency that is either 50 or 60 Hz; said AC-to-AC converter comprising a modular multilevel converter, MMC, having converter inputs, corresponding converter outputs, and associated modular conversion circuitry, which collectively are configured to receive input electricity over a variable frequency range expected for the variable first frequency of the electricity output from the generator and to convert the input electricity into the electricity output from the MMC at the fixed low frequency.
A method for random access, comprising: a communication node obtaining random access information correlation factors; the communication node determining the random access radio network temporary identity, RA-RNTI, according to the random access information correlation factors, wherein the communication node determining the RA-RNTI according to the random access information correlation factors comprises: the communication node determining the RA-RNTI as: RA-RNTI = n 0 + ∑ i = 1 N K i × c i ; wherein, n0 is a coefficient, N is the number of random access information correlation factors, c i is the random access information correlation factor, K i = n0+ and MAX (c i-1 ) indicates the largest value of c i-1 . a communication node obtaining random access information correlation factors; the communication node determining the random access radio network temporary identity, RA-RNTI, according to the random access information correlation factors, wherein the communication node determining the RA-RNTI according to the random access information correlation factors comprises: the communication node determining the RA-RNTI as: RA-RNTI = n 0 + ∑ i = 1 N K i × c i ; wherein, n0 is a coefficient, N is the number of random access information correlation factors, c i is the random access information correlation factor, K i = n0+ and MAX (c i-1 ) indicates the largest value of c i-1 .
A compressible adjunct for use with a surgical staple cartridge, the compressible adjunct comprising: a biocompatible adjunct material configured to be releasably retained on at least one of a staple cartridge and an anvil and configured to be delivered to tissue by deployment of staples in the cartridge, the adjunct material comprising a hollow lattice macrostructure having at least one drug contained therein, the hollow lattice macrostructure being formed of a plurality of unit cells having at least one absorbable sub-structure that is formed in the plurality of unit cells, wherein the at least one absorbable sub-structure is configured to control a rate of fluid movement through the respective unit cell so as to control the release of the at least one drug from the adjunct material when the adjunct material is in a tissue deployed state, and characterised in that the at least one absorbable sub-structure comprises a one-way valve .
Locking device for locking a steering column of a vehicle , comprising a base body , a detent body movable into a locking rim groove of a locking rim of the steering column for locking the steering column , wherein the detent body is mounted in the base body so as to be movable by means of an actuating movement into a locking position (P1) for locking the steering column and into a release position (P2) for releasing the steering column , a preload spring which applies a spring force to the detent body in the direction of the locking position (P1), a gear unit and a guide unit which are mounted coaxially so as to be rotatable about a rotary axis , wherein the gear unit is connected to the guide unit in a rotationally fixed manner and the guide unit is operatively connected to the detent body for generating the actuating movement, wherein the detent body is arranged in direct contact with the guide unit , and wherein the guide unit is arranged to be displaceable relative to the gear unit in the longitudinal direction of the rotary axis .
An engine device comprising: an intake manifold configured to supply air into a cylinder ; an exhaust manifold configured to output exhaust gas from the cylinder ; a gas injector which mixes a gaseous fuel with the air supplied from the intake manifold ; and a main fuel injection valve configured to inject a liquid fuel into the cylinder for combustion, the gas injector and the main fuel injection valve being provided to each of a plurality of the cylinders , wherein the gas injector is arranged to an intake port of the cylinder ; wherein the main fuel injection valve has its leading end inserted into the cylinder ; the engine device being configured to drive in either a gas mode in which the gaseous fuel is supplied into the cylinder or a diesel mode in which the liquid fuel is supplied into the cylinder , wherein at a time of switching an operation mode from one another between the gas mode and the diesel mode, a supply amount of a first fuel to be supplied in a post-switching operation mode is increased to a switching threshold value through an increase control which monotonously increases the supply amount, and then controlled by a speed-governing control based on an engine rotation number; and the switching threshold value is set based on the engine rotation number or an engine load; characterized in that , at a time of switching the operation mode from one another between the gas mode and the diesel mode, a supply amount of a second fuel to be supplied in a pre-switching operation mode is controlled by the speed-governing control based on the engine rotation number, and after the supply amount of the first fuel reaches the switching threshold value through the increase control, the supply amount of the second fuel is decreased by a decrease control which monotonously decreases the supply amount.
A current detection device, comprising: an annular magnetic material core disposed so that a closed magnetic path is formed around a plurality of conducting wires (la,lb) through which conduction currents flow; an excitation coil wound around the magnetic material core ; an oscillation circuit unit that generates a rectangular wave voltage to be applied to the excitation coil ; a power supply unit that supplies power to a power supply terminal of the oscillation circuit unit ; and a difference current calculation unit formed of a current detection circuit , which detects a power supply current flowing into the power supply terminal of the oscillation circuit unit from the power supply unit , and a difference current calculation circuit , which calculates a difference current between the conduction currents of the plurality of conducting wires based on the power supply current. an annular magnetic material core disposed so that a closed magnetic path is formed around a plurality of conducting wires (la,lb) through which conduction currents flow; an excitation coil wound around the magnetic material core ; an oscillation circuit unit that generates a rectangular wave voltage to be applied to the excitation coil ; a power supply unit that supplies power to a power supply terminal of the oscillation circuit unit ; and a difference current calculation unit formed of a current detection circuit , which detects a power supply current flowing into the power supply terminal of the oscillation circuit unit from the power supply unit , and a difference current calculation circuit , which calculates a difference current between the conduction currents of the plurality of conducting wires based on the power supply current.
Locking device for locking a wheel track of a carton flow bed rack to an end beam (10; 20) of the carton flow bed rack in a mounting position, the locking device comprising: - a locking plate for connecting the wheel track to the end beam (10; 20) and - a cover rail for fixing the locking plate to the wheel track ; wherein - the locking plate is provided as a flat element and comprises a mounting end configured to engage the end beam (10; 20) in the mounting position; - the locking plate further comprises an elongated protrusion configured to protrude out of the end beam (10; 20) in the mounting position; - the cover rail is configured to encase at least partially both the protrusion of the locking plate and an end section of the wheel track in the mounting position; and - the cover rail is configured to encompass the wheel track from two substantially vertically aligned sides, a substantially horizontally aligned bottom side, and at least partially from a substantially horizontally arranged upper side. - a locking plate for connecting the wheel track to the end beam (10; 20) and - a cover rail for fixing the locking plate to the wheel track ; - the locking plate is provided as a flat element and comprises a mounting end configured to engage the end beam (10; 20) in the mounting position; - the locking plate further comprises an elongated protrusion configured to protrude out of the end beam (10; 20) in the mounting position; - the cover rail is configured to encase at least partially both the protrusion of the locking plate and an end section of the wheel track in the mounting position; and - the cover rail is configured to encompass the wheel track from two substantially vertically aligned sides, a substantially horizontally aligned bottom side, and at least partially from a substantially horizontally arranged upper side.
A hybrid module for a powertrain of a motor vehicle, comprising a housing , a separating clutch and an intermediate shaft , a rotary component of the separating clutch , which rotary component is coupled or can be coupled to an electric machine, being non-rotatably connected to the intermediate shaft and the intermediate shaft being rotatably mounted about an axis of rotation relative to the housing by means of two support bearings , the support bearings being arranged to be spaced apart from one another in the axial direction such that a receiving space is formed axially between them, with at least one part of a sensor device being arranged in the receiving space , characterised in that the housing has an intermediate wall extending in the radial direction and the two support bearings are received on a radial inner side of the intermediate wall and the intermediate wall has a sleeve area arranged radially inside a plurality of friction elements of the separating clutch , wherein the support bearings are received on a radial inner side of the sleeve area .
A dental furnace for firing dental ceramic compounds, comprising a firing chamber for receiving ceramic elements to be fired, an electric heating device for heating/firing the ceramic element , a resistance measurement device connected to the heating device , wherein the resistance measurement device is connected to the heating device at least at two different connection points of the heating device and at least one further connection point in a central portion of the heating device, an evaluation device for determining a temperature in the firing chamber and/or an operating state of the dental furnace, said evaluation device being connected to the resistance measurement device . a firing chamber for receiving ceramic elements to be fired, an electric heating device for heating/firing the ceramic element , a resistance measurement device connected to the heating device , wherein the resistance measurement device is connected to the heating device at least at two different connection points of the heating device and at least one further connection point in a central portion of the heating device, an evaluation device for determining a temperature in the firing chamber and/or an operating state of the dental furnace, said evaluation device being connected to the resistance measurement device .