mhurhangee/patent-ind-claim-en huggingface dataset:
A method for generating adaptive audio content from channel-based source audio content , the method comprising: decomposing (S301) the source audio content into at least a directional audio signal and at least a diffusive audio signal, wherein decomposing (S301) the source audio content comprises: performing signal component decomposition on the source audio content to determine decomposed signal components; and determining a diffusivity based on an analysis of the decomposed signal components; calculating the directional audio signal and the diffusive audio signal from the diffusivity; wherein the method further comprises: extracting (S201) at least one audio object from the directional audio signal; generating (S303) a channel-based audio bed from the diffusive audio signal; generating (S202) the adaptive audio content at least partially based on the at least one audio object and the audio bed ; and determining (S304) metadata based on the adaptive audio content . performing signal component decomposition on the source audio content to determine decomposed signal components; and determining a diffusivity based on an analysis of the decomposed signal components; calculating the directional audio signal and the diffusive audio signal from the diffusivity; wherein the method further comprises: extracting (S201) at least one audio object from the directional audio signal; generating (S303) a channel-based audio bed from the diffusive audio signal; generating (S202) the adaptive audio content at least partially based on the at least one audio object and the audio bed ; and determining (S304) metadata based on the adaptive audio content . extracting (S201) at least one audio object from the directional audio signal; generating (S303) a channel-based audio bed from the diffusive audio signal; generating (S202) the adaptive audio content at least partially based on the at least one audio object and the audio bed ; and determining (S304) metadata based on the adaptive audio content .
Method for operating a self-propelled service device , wherein a detection device detects obstacles within an environment, wherein an environment map of the environment is created on the basis of detection results of the detection device and wherein the service device moves on the basis of the environment map within the environment, wherein a control device of the service device receives information about a spatial position of a base station in the environment, and a manoeuvring area for approaching, turning and/or docking the service device to the base station is also determined, the spatial position and the manoeuvring area being stored in the environment map , the manoeuvring area being monitored before a start point of a manoeuvring process for approaching, turning and/or docking the service device to the base station , characterised in that within the manoeuvring area , a turning point for a change of direction is defined, at which turning point the service device during its movement to the base station , regardless of the remaining course of the movement, can carry out the last change of direction at the latest before it travels in a straight line to the base station , the monitoring being carried out continuously during a movement and/or service activity of the service device within the environment, or the check being triggered by an end of a service operation of the service device , namely at the end of a cleaning activity of the service device and/or termination of movement of the service device and/or when a critical level of a charge level of a battery of the service device is undershot, which requires an interruption of the service operation and charging of the battery and/or when an instruction to abort a cleaning process of the service device is received from a user of the service device .
Media channel arrangement for an internal combustion engine , having at least one distributor channel , which serves for distributing a medium to various components of the internal combustion engine , and having at least one inflow channel , which is coupled to the distributor channel via at least one media passage opening , wherein at least one wall region , situated opposite the media passage opening , of the distributor channel is, at least regionally, curved towards the media passage opening , characterized in that at least one second wall region , which adjoins the wall region and is situated opposite the media passage opening , is curved oppositely in relation to the media passage opening .
Package containing components of a hardenable multi-component mass , comprising - a string of capsules that comprises at least three capsules , which are arranged next to each other in threadlike manner, and - an envelope , in which the string of capsules is encased, - wherein at least one of the capsules is an A-type capsule (11 A ), which encapsulates a portion of an A-component of the hardenable multi-component mass , and wherein at least one of the capsules is a B-type capsule (11 B ), which encapsulates a portion of a B-component of the hardenable multi-component mass . - a string of capsules that comprises at least three capsules , which are arranged next to each other in threadlike manner, and - an envelope , in which the string of capsules is encased, - wherein at least one of the capsules is an A-type capsule (11 A ), which encapsulates a portion of an A-component of the hardenable multi-component mass , and wherein at least one of the capsules is a B-type capsule (11 B ), which encapsulates a portion of a B-component of the hardenable multi-component mass .
Printing machine for ink jet printing on containers provided in a container stream , comprising a container carousel , storage tanks arranged thereunder for ink to be processed, at least one printing unit for printing the containers and a filling station assigned to the at least one printing unit and designed for the temporary insertion of a transportable ink container and comprising a fill-in mechanism , wherein the filling station is connected via a supply line to a storage tank and said tank is connected via a further supply line to the printing unit , wherein a monitored machine guard is present for shielding the storage tank during operation outwards against access by the operating personnel, and the fill-in mechanism is accessible to the operating personnel in the periphery of the container carousel in a region outside co-rotating machine components and outside the machine guard , so that ink can be filled in during the running printing operation of the printing machine, without standstill of the printing machine.
A control unit for controlling a heavy duty vehicle , wherein the control unit is arranged to obtain an acceleration profile (a req ) and a curvature profile (c req ) indicative of a desired maneuver by the vehicle , the control unit comprising a force generation module configured to determine a set of global vehicle forces and moments required to execute the desired maneuver, the control unit further comprising a motion support device, MSD, coordination module arranged to coordinate one or more MSDs to collectively provide the set of global vehicle forces and moments by generating one or more respective wheel forces, and an inverse tyre model block configured to map the one or more wheel forces into equivalent wheel slips (λ), wherein the control unit is arranged to request the wheel slips (λ) from the MSDs to control the heavy duty vehicle during the desired maneuver. wherein the control unit is arranged to obtain an acceleration profile (a req ) and a curvature profile (c req ) indicative of a desired maneuver by the vehicle , the control unit comprising a force generation module configured to determine a set of global vehicle forces and moments required to execute the desired maneuver, the control unit further comprising a motion support device, MSD, coordination module arranged to coordinate one or more MSDs to collectively provide the set of global vehicle forces and moments by generating one or more respective wheel forces, and an inverse tyre model block configured to map the one or more wheel forces into equivalent wheel slips (λ), wherein the control unit is arranged to request the wheel slips (λ) from the MSDs to control the heavy duty vehicle during the desired maneuver.
A blow-molded plastic structure having a hollow interior portion formed during a blow-molding process, the blow-molded plastic structure comprising: a first outer portion ; a second outer portion that is spaced apart from the first outer portion , wherein the hollow interior portion is disposed between the first and second outer portions; and a pattern of structural stiffening features integrally formed in the second outer portion , characterized in that the pattern of structural stiffening features comprises: a plurality of tripodal depressions extending into the hollow interior portion and disposed in rows and columns , each tripodal depression including: three indentations disposed adjacent the first outer portion ; and an island spaced away from the first outer portion , the island having three sides, each of which is disposed adjacent one of the three indentations ; and a plurality of interspersed regions disposed between the plurality of tripodal depressions , each interspersed region having a maximum height (HI) between the first and second outer portions . a first outer portion ; a second outer portion that is spaced apart from the first outer portion , wherein the hollow interior portion is disposed between the first and second outer portions; and a pattern of structural stiffening features integrally formed in the second outer portion , characterized in that the pattern of structural stiffening features comprises: a plurality of tripodal depressions extending into the hollow interior portion and disposed in rows and columns , each tripodal depression including: three indentations disposed adjacent the first outer portion ; and an island spaced away from the first outer portion , the island having three sides, each of which is disposed adjacent one of the three indentations ; and a plurality of interspersed regions disposed between the plurality of tripodal depressions , each interspersed region having a maximum height (HI) between the first and second outer portions . a plurality of tripodal depressions extending into the hollow interior portion and disposed in rows and columns , each tripodal depression including: three indentations disposed adjacent the first outer portion ; and an island spaced away from the first outer portion , the island having three sides, each of which is disposed adjacent one of the three indentations ; and three indentations disposed adjacent the first outer portion ; and an island spaced away from the first outer portion , the island having three sides, each of which is disposed adjacent one of the three indentations ; and a plurality of interspersed regions disposed between the plurality of tripodal depressions , each interspersed region having a maximum height (HI) between the first and second outer portions .
A method to control an electrically-operated turbocharger in a supercharged internal combustion engine ; the turbocharger comprises: a turbine , which is inserted into an exhaust pipe to rotate because of the thrust of the exhaust gases and operates an electric generator , and a compressor , which is mechanically independent of the turbine , is inserted into an intake pipe to increase the pressure of the air and is operated by an electric motor ; the control method is characterized in that it comprises the further steps of: establishing when the intensity of the acoustic emission in the exhaust of the internal combustion engine needs to be increased; and reducing the mechanical power actually absorbed by the electric generator relative to the available mechanical power to increase the intensity of the acoustic emission in the exhaust of the internal combustion engine . establishing when the intensity of the acoustic emission in the exhaust of the internal combustion engine needs to be increased; and reducing the mechanical power actually absorbed by the electric generator relative to the available mechanical power to increase the intensity of the acoustic emission in the exhaust of the internal combustion engine .
A hydrotalcite particles characterized by the following to : General chemical structure formula [(Mg) Y (Zn) Z ] 1-X (Al) X (OH) 2 (CO 3 2 -) (x)/2 ·nH 2 O wherein, x, y, z, and n are values which satisfy the following expressions: 0.2≤x<0.4, y+z=1, 0.7≤y≤1, 0≤z≤0.3, and 0≤n<1 . the hydrotalcite particles have the average primary particle diameter of 150 to 250 nm; the hydrotalcite particles have the average secondary particle diameter (d50) have 1 to 2.5 μ m; and the hydrotalcite particles having the following characteristics: the hydrotalcite particles have a specific surface area measured by BET method of 5 to 40 μ m/g; the hydrotalcite particles have an X-ray diffraction pattern in which the first peak (2θ) at a distance of the lower plate layer to the upper plate layer is 11.4 to 11.7 °, the second peak (2θ) at a distance of the interlayer material to the plate layer is 23 to 24 °, and the ratio of the distance of height of the first peak to that of the second peak is 2.10 to 2.65. General chemical structure formula [(Mg) Y (Zn) Z ] 1-X (Al) X (OH) 2 (CO 3 2 -) (x)/2 ·nH 2 O wherein, x, y, z, and n are values which satisfy the following expressions: 0.2≤x<0.4, y+z=1, 0.7≤y≤1, 0≤z≤0.3, and 0≤n<1 . wherein, x, y, z, and n are values which satisfy the following expressions: 0.2≤x<0.4, y+z=1, 0.7≤y≤1, 0≤z≤0.3, and 0≤n<1 . the hydrotalcite particles have the average primary particle diameter of 150 to 250 nm; the hydrotalcite particles have the average secondary particle diameter (d50) have 1 to 2.5 μ m; the hydrotalcite particles have a specific surface area measured by BET method of 5 to 40 μ m/g; the hydrotalcite particles have an X-ray diffraction pattern in which the first peak (2θ) at a distance of the lower plate layer to the upper plate layer is 11.4 to 11.7 °, the second peak (2θ) at a distance of the interlayer material to the plate layer is 23 to 24 °, and the ratio of the distance of height of the first peak to that of the second peak is 2.10 to 2.65.
Method for determining the position data of a target object (Z) in a reference system from an observation position spaced apart therefrom, comprising the steps of: a) providing a three-dimensional reference model of the environment of the target object (Z) using known geographical location data; b) aligning an image of the target object (Z), which appears for an observer from the observation position, and the environment thereof, the image being supplied by an image capture means of an illumination device , using the three-dimensional reference model; c) determining the position data of the targeted target object (Z) in the three-dimensional reference model as relative position data for known location data of the three-dimensional reference model by way of a computing means of the illumination device ; and d) conveying the relative position data to a missile so as to brief it, the alignment of the image of the target object (Z) and the environment thereof using the reference model in step b) taking place in the following sub-steps: b1) forming a three-dimensional line model from a three-dimensional reference model; b2) projecting the line model, on the basis of a rough position and attitude hypothesis, into the image, taken by the capture means, of the target object (Z) and the environment thereof; b3) aligning the lines of the three-dimensional line model with line segments extracted from the picture; and b4) calculating a correction to the position and attitude hypothesis from the alignment; wherein the correction ascertained in step b4) is taken into account in determining the position data of the target object (Z) in step c). a) providing a three-dimensional reference model of the environment of the target object (Z) using known geographical location data; b) aligning an image of the target object (Z), which appears for an observer from the observation position, and the environment thereof, the image being supplied by an image capture means of an illumination device , using the three-dimensional reference model; c) determining the position data of the targeted target object (Z) in the three-dimensional reference model as relative position data for known location data of the three-dimensional reference model by way of a computing means of the illumination device ; and d) conveying the relative position data to a missile so as to brief it, b1) forming a three-dimensional line model from a three-dimensional reference model; b2) projecting the line model, on the basis of a rough position and attitude hypothesis, into the image, taken by the capture means, of the target object (Z) and the environment thereof; b3) aligning the lines of the three-dimensional line model with line segments extracted from the picture; and b4) calculating a correction to the position and attitude hypothesis from the alignment;
A centrifugal pump assembly , with electric motor arranged in a casing , the assembly comprising, at one end, a wet section , formed by a volute and containing an impeller , and, at the other end, a box , which contains an electrical board , in contact with one end of said casing , said electric motor being of the permanent-magnet brushless type and said casing being made of stainless steel, characterized in that said casing is cup-shaped with a base which comprises one or more elastically deformable elements , which are adapted to generate a thrust on one or more corresponding pins arranged on a surface of said box that faces said base .
A recombinant polypeptide having pesticidal activity, comprising: (a) an amino acid sequence having at least 90% sequence identity to the amino acid sequence set forth in SEQ ID NO: 186, wherein the polypeptide retains the pesticidal activity of SEQ ID NO: 186; or, (b) the amino acid sequence set forth in SEQ ID NO: 186. (a) an amino acid sequence having at least 90% sequence identity to the amino acid sequence set forth in SEQ ID NO: 186, wherein the polypeptide retains the pesticidal activity of SEQ ID NO: 186; or, (b) the amino acid sequence set forth in SEQ ID NO: 186.
A process for producing a thermoformable porous web using cellulosic fibres and one or more thermoplastic materials by foam forming or foam laid-forming a mixture of the cellulosic fibres and the thermoplastic material(s) into a composite foam, and applying the foam on a wire to obtain a porous pre-form web or a porous prepreg web, characterized by selecting the cellulosic fibres from fibres of pure cellulose, such as rayon or viscose fibres, or from fibres of cellulose derivatives, such as cellulose acetate (CA), cellulose acetate butyrate (CAB), cellulose acetate phthalate (CAP) or cellulose carbamate (CCA) fibres, preferably from pure cellulose fibres, or optionally from chemically modified fibres, modified e.g. by alkali treatment, esterification or silane treatment; and one thermoplastic material is lignin.
A thermal energy system adapted to be coupled to a building energy system which selectively provides heating and/or cooling to a building , the thermal energy system comprising: (i) a heat pump system having an output for a working fluid connected to a heating output of the thermal energy system , (ii) a first geothermal system in which a working fluid is, in use, circulated, (iii) a first switch assembly selectively connecting the first geothermal system to at least one of the heating output of the thermal energy system and an input for a working fluid of the heat pump system , wherein the first switch assembly comprises at least one switchable plural-way valve mechanism between an output of the first geothermal system and the input of the heat pump system and adapted selectively to direct a working fluid from the first geothermal system to the heating output or to the input of the heat pump system ; (iv) a second geothermal system in which a working fluid is, in use, circulated, and (v) a second switch assembly selectively connecting the second geothermal system to at least one of a cooling output of the thermal energy system and the input of the heat pump system , wherein the second switch assembly comprises at least one switchable plural-way valve mechanism between an output of the second geothermal system and the input of the heat pump system and adapted selectively to direct a working fluid from the second geothermal system to the cooling output or to the input of the heat pump system ; wherein the first and/or second geothermal system comprises at least one borehole heat exchanger. (i) a heat pump system having an output for a working fluid connected to a heating output of the thermal energy system , (ii) a first geothermal system in which a working fluid is, in use, circulated, (iii) a first switch assembly selectively connecting the first geothermal system to at least one of the heating output of the thermal energy system and an input for a working fluid of the heat pump system , wherein the first switch assembly comprises at least one switchable plural-way valve mechanism between an output of the first geothermal system and the input of the heat pump system and adapted selectively to direct a working fluid from the first geothermal system to the heating output or to the input of the heat pump system ; (iv) a second geothermal system in which a working fluid is, in use, circulated, and (v) a second switch assembly selectively connecting the second geothermal system to at least one of a cooling output of the thermal energy system and the input of the heat pump system , wherein the second switch assembly comprises at least one switchable plural-way valve mechanism between an output of the second geothermal system and the input of the heat pump system and adapted selectively to direct a working fluid from the second geothermal system to the cooling output or to the input of the heat pump system ;