mhurhangee/patent-ind-claim-en huggingface dataset:
Catamaran comprising - two floating bodies which are arranged side by side in a transverse direction at a floating body distance delimited by parallel wall areas of the floating bodies , - a drive fin which extends in the transverse direction along the floating body distance , and - a guiding and driving mechanism configured to move the drive fin up and down between the floating bodies , wherein the drive fin is actively and/or passively pivotable and/or deformable about a transverse axis , wherein the drive fin moved up and down extends between the wall areas (6 7) of the floating bodies which are parallel to one another, and wherein the drive fin moved up and down does not move downwards beyond the floating bodies , characterized in that the drive fin is moved up and down below a water surface , and that the drive fin in at least one area of each of its two side edges , which is moved up and down with respect to the wall areas by the guiding and driving mechanism , ends within a maximum distance of 20 mm to the wall areas . - two floating bodies which are arranged side by side in a transverse direction at a floating body distance delimited by parallel wall areas of the floating bodies , - a drive fin which extends in the transverse direction along the floating body distance , and - a guiding and driving mechanism configured to move the drive fin up and down between the floating bodies , wherein the drive fin is actively and/or passively pivotable and/or deformable about a transverse axis , wherein the drive fin moved up and down extends between the wall areas (6 7) of the floating bodies which are parallel to one another, and wherein the drive fin moved up and down does not move downwards beyond the floating bodies , characterized in that the drive fin is moved up and down below a water surface , and that the drive fin in at least one area of each of its two side edges , which is moved up and down with respect to the wall areas by the guiding and driving mechanism , ends within a maximum distance of 20 mm to the wall areas .
A method of tracking multiple objects with a probabilistic hypothesis density filter, the method comprising: obtaining a plurality of measurements corresponding to a first object with a plurality of sensors (202-206); generating, by each of the sensors, a respective first track identifier, ID, for the plurality of measurements from each of the sensors, wherein the first track identifiers, IDs, are correlated across time to the plurality of measurements; generating a T k first track intensity for the first object based on the plurality of measurements, the T k first track intensity including a weight, a state mean vector, and a state covariance matrix of statistics of a track of the first object at time T k ; generating a T k+1 first predicted intensity for the first object based on the T k first track intensity, the T k+1 first predicted intensity corresponding to time T k+1 ; obtaining a T k+1 measurement from a first sensor of the plurality of sensors, the first sensor providing a second track ID for the T k+1 measurement, wherein the T k+1 measurement corresponds to time T k+1 ; comparing the second track ID to the first track IDs; and selectively updating the T k+1 first predicted intensity with the T k+1 measurement based on whether the second track ID matches any of the first track IDs to generate a T k+1 first measurement-to-track intensity for the first object at time T k+1 . obtaining a plurality of measurements corresponding to a first object with a plurality of sensors (202-206); generating, by each of the sensors, a respective first track identifier, ID, for the plurality of measurements from each of the sensors, wherein the first track identifiers, IDs, are correlated across time to the plurality of measurements; generating a T k first track intensity for the first object based on the plurality of measurements, the T k first track intensity including a weight, a state mean vector, and a state covariance matrix of statistics of a track of the first object at time T k ; generating a T k+1 first predicted intensity for the first object based on the T k first track intensity, the T k+1 first predicted intensity corresponding to time T k+1 ; obtaining a T k+1 measurement from a first sensor of the plurality of sensors, the first sensor providing a second track ID for the T k+1 measurement, wherein the T k+1 measurement corresponds to time T k+1 ; comparing the second track ID to the first track IDs; and selectively updating the T k+1 first predicted intensity with the T k+1 measurement based on whether the second track ID matches any of the first track IDs to generate a T k+1 first measurement-to-track intensity for the first object at time T k+1 .
A method for treating a geologic formation, comprising: providing a hydraulic fracture model ; providing a first value representative of a volume of kerogen breaker in a fracturing fluid; determining a discrete fracture network based on the hydraulic fracture model and the first value; determining a geomechanical model based on the discrete fracture network and a reservoir model based on the discrete fracture network; determining a hydrocarbon production volume based on the geomechanical model and the reservoir model; adjusting the first value based on the hydrocarbon production volume; and adjusting a volume of kerogen breaker in the fracturing fluid to a hydrocarbon reservoir based on the adjusted first value. providing a hydraulic fracture model ; providing a first value representative of a volume of kerogen breaker in a fracturing fluid; determining a discrete fracture network based on the hydraulic fracture model and the first value; determining a geomechanical model based on the discrete fracture network and a reservoir model based on the discrete fracture network; determining a hydrocarbon production volume based on the geomechanical model and the reservoir model; adjusting the first value based on the hydrocarbon production volume; and adjusting a volume of kerogen breaker in the fracturing fluid to a hydrocarbon reservoir based on the adjusted first value.
A nucleic acid construct comprising a heterologous promoter operably linked to: a) a polynucleotide encoding a signal peptide; and b) at least two polynucleotides encoding one or more polypeptide of interest; wherein the at least two polynucleotides encoding one or more polypeptide of interest are each separated by a linker polynucleotide encoding a linker polypeptide comprising a proteolytic cleavage site; wherein the signal peptide, the one or more polypeptide of interest and the linker polypeptide(s) comprising a proteolytic cleavage site are encoded in frame as a single polypeptide, and wherein the at least two polynucleotides encode at least two polypeptides of interest consisting of the same amino acid sequence, and wherein the at least two polypeptides of interest are secreted as separate polypeptides consisting of the same amino acid sequence. a) a polynucleotide encoding a signal peptide; and b) at least two polynucleotides encoding one or more polypeptide of interest; wherein the signal peptide, the one or more polypeptide of interest and the linker polypeptide(s) comprising a proteolytic cleavage site are encoded in frame as a single polypeptide, and wherein the at least two polynucleotides encode at least two polypeptides of interest consisting of the same amino acid sequence, and wherein the at least two polypeptides of interest are secreted as separate polypeptides consisting of the same amino acid sequence.
A system comprising: an encoder configured to monitor a machine and generate an encoder output signal indicative of at least one of motion or position of the machine ; and a combiner configured to receive the encoder output signal from the encoder and receive machine diagnostic data based on sensor data from at least one sensor , characterized in that the combiner is configured to modulate the machine diagnostic data with the encoder output signal to provide a combined signal that includes the machine diagnostic data synchronized with the at least one of the motion or position of the machine . an encoder configured to monitor a machine and generate an encoder output signal indicative of at least one of motion or position of the machine ; and a combiner configured to receive the encoder output signal from the encoder and receive machine diagnostic data based on sensor data from at least one sensor , characterized in that the combiner is configured to modulate the machine diagnostic data with the encoder output signal to provide a combined signal that includes the machine diagnostic data synchronized with the at least one of the motion or position of the machine .
Sailing boat comprising at least one hull shaped to define an advancement direction in water (X), at least one rig comprising at least one mast fixed to the hull and at least one mainsail supported by the mast, wherein - the mast comprises at least one first and one second section projecting upwards with respect to the hull and arranged facing each other in the orthogonal direction to the advancement direction for supporting said mainsail in two mutually specular and alternative operating positions, where said sections are connected and spaced out from each other by at least one overturning section of the mainsail placed at the top of them to allow the passage from one specular position to the other, the three sections of mast defining for that purpose a first sliding guide for the mainsail that extends substantially along the whole extension length of the mast, - the mainsail is a sail that is deformable so as to adapt to the path of the sliding guide and for the lowering, and in the operating positions it has a prevalent extension in the vertical direction, - the mainsail has a main edge proximal to the mast and slidably fixed for the whole length thereof to the sliding path, - the mainsail in the operating position is entirely placed aft with respect to the mast , characterised in that - the mast comprises a second sliding guide positioned substantially at the top thereof and placed aft with respect to the overturning section to define a support from below, in the vertical direction, and slidable, to the mainsail during the passage in the overturning section . - the mast comprises at least one first and one second section projecting upwards with respect to the hull and arranged facing each other in the orthogonal direction to the advancement direction for supporting said mainsail in two mutually specular and alternative operating positions, where said sections are connected and spaced out from each other by at least one overturning section of the mainsail placed at the top of them to allow the passage from one specular position to the other, the three sections of mast defining for that purpose a first sliding guide for the mainsail that extends substantially along the whole extension length of the mast, - the mainsail is a sail that is deformable so as to adapt to the path of the sliding guide and for the lowering, and in the operating positions it has a prevalent extension in the vertical direction, - the mainsail has a main edge proximal to the mast and slidably fixed for the whole length thereof to the sliding path, - the mainsail in the operating position is entirely placed aft with respect to the mast , - the mast comprises a second sliding guide positioned substantially at the top thereof and placed aft with respect to the overturning section to define a support from below, in the vertical direction, and slidable, to the mainsail during the passage in the overturning section .
Method for dynamically controlling at least one reference variable of an internal combustion engine, in which a control range ( FG Prd ) of the reference variable is predicted, wherein a target variable evaluation ( ZG i ) is carried out in the determined control range ( FG Prd ) of the reference variable, and wherein an optimization of the reference variable is carried out on the basis of the target variable evaluation ( ZG i ).
Coupler securing means for a rail vehicle , consisting of a coupling rod to be fastened to the rail vehicle in an articulated manner, a further coupling rod connected to the one coupling rod in an articulated manner and a locking element to be placed on the rail vehicle, wherein the further coupling rod is connectable to the locking element at its free end in a releasable manner, characterised in that the locking element is pivotable and that this pivotable locking element is a spring-loaded lock with a side slot for receiving a bolt connected to the free end of the further coupling rod , wherein the spring-loaded lock is fed with a projection against a side of a stop , and a Bowden cable engages onto the spring-loaded lock , which causes the bolt to be released by the spring-loaded lock when the one side of the stop is released.
A method for rendering graphics on a display of an external medical device , comprising: (a) receiving at a first microcontroller input data telemetered from an implantable medical device, the input data indicative of at least one graphic to be rendered on the display; (b) transmitting at least a first part of the input data from the first microcontroller to a second microcontroller ; (c) processing the at least first part of the input data at the second microcontroller; (d) transmitting the processed data to the first microcontroller; (e) converting at least the processed data to a graphics command at the first microcontroller; (f) transmitting the graphics command to the second microcontroller; (g) retrieving at least one image file from a storage device using the graphics command; and (h) using the second microcontroller to render the at least one image file on the display. (a) receiving at a first microcontroller input data telemetered from an implantable medical device, the input data indicative of at least one graphic to be rendered on the display; (b) transmitting at least a first part of the input data from the first microcontroller to a second microcontroller ; (c) processing the at least first part of the input data at the second microcontroller; (d) transmitting the processed data to the first microcontroller; (e) converting at least the processed data to a graphics command at the first microcontroller; (f) transmitting the graphics command to the second microcontroller; (g) retrieving at least one image file from a storage device using the graphics command; and (h) using the second microcontroller to render the at least one image file on the display.
A process for producing a quinacridone pigment composition containing a quinacridone solid solution and a quinacridone derivative, the process comprising: (step A) heating, at 80°C to 150°C, a pigment slurry composed of 100 parts of a cyclization-derived crude quinacridone solid solution, 0.1 to 10 parts of a quinacridone pigment derivative, and 500 to 1500 parts of organic solvent and/or water; and (step B) obtaining the quinacridone pigment composition by, after step A, removing the organic solvent from a system, adding 0.5 to 15 parts of a quinacridone derivative for 100 parts of the quinacridone solid solution, and isolating and drying a product. (step A) heating, at 80°C to 150°C, a pigment slurry composed of 100 parts of a cyclization-derived crude quinacridone solid solution, 0.1 to 10 parts of a quinacridone pigment derivative, and 500 to 1500 parts of organic solvent and/or water; and (step B) obtaining the quinacridone pigment composition by, after step A, removing the organic solvent from a system, adding 0.5 to 15 parts of a quinacridone derivative for 100 parts of the quinacridone solid solution, and isolating and drying a product.
Panel suitable for assembling a waterproof floor or wall covering by interconnecting a plurality of said panels with each other, wherein the panel has a substantially planar top surface , and a substantially planar bottom surface , at least four substantially linear side edges comprising two pairs of opposite side edges which are provided with interconnecting coupling means for interconnecting the panel with other panels at all four sides, the panel having a sandwich structure which comprises a central layer basically composed of a thermoplastic material, a rigid top layer and a rigid bottom layer , wherein the panel is rigid and preferably has a thickness of 8 mm, or smaller, wherein the central layer is flexible as in contrast to the rigid top layer and rigid bottom layer , and the interconnecting coupling means comprise a tongue and a groove which are integrally part of the central layer , characterized in that the rigid top layer and the rigid bottom layer each comprise at least one ply of cellulose-based layer and a cured resin.
An antenna device comprising: an array of N radiating elements , N being an integer greater than one, the N radiating elements being arranged on a common axis , each radiating element being configured to radiate a radio wave in response to a radiofrequency, RF, signal being fed to the respective radiating element ; a reflector arranged on the common axis and configured to reflect the N radio waves from the N radiating elements into a main radiating direction; a feed structure configured to feed a RF signal to each radiating element , the RF signal at each radiating element having a respective phase difference ( α ) relative to the RF signal at a first radiating element of the array, wherein the feed structure comprises a feed line for each radiating element of the array and one or more phase shifters configured, for one or more or all radiating elements of the array, to set the phase difference ( α ) of the RF signal at the respective radiating element , wherein each feed line has a different length than the other feed lines , and characterized in that one or more feed lines each comprise a meandering line portion. an array of N radiating elements , N being an integer greater than one, the N radiating elements being arranged on a common axis , each radiating element being configured to radiate a radio wave in response to a radiofrequency, RF, signal being fed to the respective radiating element ; a reflector arranged on the common axis and configured to reflect the N radio waves from the N radiating elements into a main radiating direction; a feed structure configured to feed a RF signal to each radiating element , the RF signal at each radiating element having a respective phase difference ( α ) relative to the RF signal at a first radiating element of the array, wherein the feed structure comprises a feed line for each radiating element of the array and one or more phase shifters configured, for one or more or all radiating elements of the array, to set the phase difference ( α ) of the RF signal at the respective radiating element , wherein each feed line has a different length than the other feed lines , and characterized in that one or more feed lines each comprise a meandering line portion.
Corner transmission for the perpendicular transmission of the sliding movement of sliding slats and coupler locks of fittings of a window leaf, whereby the corner transmission comprises a corner piece with a first leg and a second leg , and whereby the coupler lock is slideable over the first leg , characterised in that the coupler lock is provided with a pre-mounted locking piece that snaps into place on the corner piece or on the leaf when the lock position of the window is reached the first time and whereby the locking piece uncouples from the coupler lock and remains near the corner of the corner piece when the coupler lock leaves the lock position again.
A method (22 - Fig. 2) for determining coating requirements with one or more computer-based systems having one or more processors and one or more data storage devices, the method comprising: receiving image files (24 - Fig. 2) of a structure to the data storage device(s); identifying with the processor(s) one or more surfaces of the structure to be coated based on the received image files; determining with the processor(s) a surface area (26 - Fig. 2) for each of one or more surfaces to be coated; receiving coating application information (28 - Fig. 2) to the data storage device(s), wherein the coating application information comprises one or more features selected from the coating type and color, a coating applicator type, a surface porosity, a final surface texture or finish, number of coats, a user efficiency information, the environmental conditions for the coating application, wherein each feature is represented as an upward or downward usage variation from a baseline surface coverage of a selected coating type; using the coating application information to generate a coverage factor for each identified surface, wherein the coverage factor is a function of a baseline surface coverage for the selected coating type and an upward or downward usage variation from this baseline surface coverage due to one or more features of the coating application information; calculating with the processor(s) a coating amount (30 - Fig. 2) for each of the one or more surfaces to be coated based on the calculated surface area and the calculated coverage factor; and communicating the calculated coating amounts. receiving image files (24 - Fig. 2) of a structure to the data storage device(s); identifying with the processor(s) one or more surfaces of the structure to be coated based on the received image files; determining with the processor(s) a surface area (26 - Fig. 2) for each of one or more surfaces to be coated; using the coating application information to generate a coverage factor for each identified surface, wherein the coverage factor is a function of a baseline surface coverage for the selected coating type and an upward or downward usage variation from this baseline surface coverage due to one or more features of the coating application information; calculating with the processor(s) a coating amount (30 - Fig. 2) for each of the one or more surfaces to be coated based on the calculated surface area and the calculated coverage factor; and communicating the calculated coating amounts.