mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: obtaining, by one or more computer processors , sensor readings that are taken by a sampling mobile device in a transit system that includes a route, stations on the route, and one or more platforms at each station, each sensor reading being associated with a timestamp and a tag indicating on which portion of the transit system the reading was taken; determining, by the one or more computer processors and using the timestamps and tags of the sensor readings , an estimated motion state of the sampling mobile device at each of a plurality of time points when the sampling mobile device traveled in the transit system; determining, by the one or more computer processors and using the motion states, that the sampling mobile device traveled from a first station having a first platform and a second platform to a second station having a third platform and a fourth platform through a directed route connecting the first platform of the first station and the third platform of the second station; determining, using the motion states, a time-based probability distribution of location of a user device traveling from the first platform of the first station to the third platform of the second station along the route and a probability distribution of time the user device stays on the first platform or the third platform; and providing the probability distributions to a user device for estimating a location of the user device . obtaining, by one or more computer processors , sensor readings that are taken by a sampling mobile device in a transit system that includes a route, stations on the route, and one or more platforms at each station, each sensor reading being associated with a timestamp and a tag indicating on which portion of the transit system the reading was taken; determining, by the one or more computer processors and using the timestamps and tags of the sensor readings , an estimated motion state of the sampling mobile device at each of a plurality of time points when the sampling mobile device traveled in the transit system; determining, by the one or more computer processors and using the motion states, that the sampling mobile device traveled from a first station having a first platform and a second platform to a second station having a third platform and a fourth platform through a directed route connecting the first platform of the first station and the third platform of the second station; determining, using the motion states, a time-based probability distribution of location of a user device traveling from the first platform of the first station to the third platform of the second station along the route and a probability distribution of time the user device stays on the first platform or the third platform; and providing the probability distributions to a user device for estimating a location of the user device .
Piston pump for pumping a liquid gas fuel, in particular LPG, having a cylinder and a piston , wherein the piston is arranged in the cylinder to delimit a cylindrical cavity together with the cylinder , the volume of which reduces by an axial movement of the piston within the cylinder in an ejection direction and increases in an opposite suction direction , wherein the cylindrical cavity is connected to an inlet via an inlet valve and to an outlet via an outlet valve , wherein a drive is provided which can drive the piston for the axial movement via a crankshaft , a connecting rod and an elongated cylinder rod , wherein the cylinder rod has a radial guide element and a guide is configured to axially, linearly guide the guide element , so that the cylinder rod can only move axially in the ejection direction or the suction direction , characterized in that the guide is closed in the ejection direction and open in the suction direction .
A method for calculating a rotor blade or bolt-and-washer distribution for balancing a rotor assembly for a turbine engine, comprising the computer implemented steps of: defining a centerline of rotation of a rotor assembly based on a mathematical model of the rotor assembly, the rotor assembly being formed of discs and components, each disc for carrying a respective set of rotor blades or bolts-and-washers; for each disc and component of the rotor assembly, calculating a centerline deviation and an angular location of the disc or component; and determining a rotor blade or bolt-and-washer distribution throughout the rotor assembly that provides rotor blade or bolt-and-washer locations which offset the centerline deviations by weight and result in a balanced rotor assembly based on (a) the calculated centerline deviations and the angular locations of the discs and components of the rotor assembly and (b) respective weight of each rotor blade or bolt-and-washer. defining a centerline of rotation of a rotor assembly based on a mathematical model of the rotor assembly, the rotor assembly being formed of discs and components, each disc for carrying a respective set of rotor blades or bolts-and-washers; for each disc and component of the rotor assembly, calculating a centerline deviation and an angular location of the disc or component; and determining a rotor blade or bolt-and-washer distribution throughout the rotor assembly that provides rotor blade or bolt-and-washer locations which offset the centerline deviations by weight and result in a balanced rotor assembly based on (a) the calculated centerline deviations and the angular locations of the discs and components of the rotor assembly and (b) respective weight of each rotor blade or bolt-and-washer.
A method for collecting microbial DNA from a sample that comprises host DNA and microbial DNA, comprising: a) obtaining a tagged DNA sample, wherein the tagged DNA sample contains host DNA and microbial DNA, both comprising an appended universal adaptor; b) hybridizing the tagged DNA, in solution and in the presence of RNA oligonucleotides that are complementary to or have the same sequence as one or more strands of the universal adaptor, with affinity-tagged RNA probes generated by in vitro transcribing, in the presence of an affinity-tagged ribonucleotide, a library of fragmented host DNA that has been ligated to an RNA promoter adaptor; c) binding the product of step b) with a capture agent that is tethered to a substrate, thereby capturing the host DNA on the substrate; and d) collecting the unbound DNA, wherein the unbound DNA comprises the microbial DNA. a) obtaining a tagged DNA sample, wherein the tagged DNA sample contains host DNA and microbial DNA, both comprising an appended universal adaptor; b) hybridizing the tagged DNA, in solution and in the presence of RNA oligonucleotides that are complementary to or have the same sequence as one or more strands of the universal adaptor, with affinity-tagged RNA probes generated by in vitro transcribing, in the presence of an affinity-tagged ribonucleotide, a library of fragmented host DNA that has been ligated to an RNA promoter adaptor; c) binding the product of step b) with a capture agent that is tethered to a substrate, thereby capturing the host DNA on the substrate; and d) collecting the unbound DNA, wherein the unbound DNA comprises the microbial DNA.
A tool bit for an ultrasonic osteotome comprising a head portion of the tool bit, a bit bar and a bit body , with one end of the bit bar being connected with the head portion of the tool bit, and the other end of the bit bar being connected with the bit body , wherein the head portion of the tool bit has a flat-sheet shape, and the head portion of the tool bit is bent about a longitudinal axis in an axial direction of the tool bit, with an inner surface and an outer surface of the flat-sheet head portion of the tool bit having a same radius of curvature, and the head portion of the tool bit is provided with a curved part , characterized in that the curved part is provided at the distal end of the head portion of the tool bit, and the head portion of the tool bit is provided with cutter teeth on a single side thereof, wherein the cutter teeth start from a terminal of the curved part .
Data processing apparatus comprising: data communication circuitry to communicate data, by wireless radio frequency communication, with a set of one or more external devices, the data communication circuitry being configured to detect a corresponding wireless signal strength of a data communication from each of the set of external devices; a data processor to detect a respective estimated separation of each of the set of external devices from the apparatus in dependence upon the respective detected wireless signal strengths; and an image processor to detect, in images captured by a camera, an image of an external device having image properties consistent with the estimated separation of a given one of the set of external devices from the apparatus and to associate the external device detected in the images captured by the camera with data communications between the apparatus and the given one of the set of external devices, said data processing apparatus being characterized in that the data communication circuitry is configured to request the set of one or more external devices to vary their wireless transmission power and to repeat the detection of wireless signal strength with the set of one of more external devices using different respective wireless transmission powers. data communication circuitry to communicate data, by wireless radio frequency communication, with a set of one or more external devices, the data communication circuitry being configured to detect a corresponding wireless signal strength of a data communication from each of the set of external devices; a data processor to detect a respective estimated separation of each of the set of external devices from the apparatus in dependence upon the respective detected wireless signal strengths; and an image processor to detect, in images captured by a camera, an image of an external device having image properties consistent with the estimated separation of a given one of the set of external devices from the apparatus and to associate the external device detected in the images captured by the camera with data communications between the apparatus and the given one of the set of external devices,
A long range LiDAR system (1,1',1") for taking scans of a target surface, the system having a scanner and being adapted for compensating an angle difference between outgoing and incoming beam of the scanner caused by the flight travel time of the beam and of a movement of a deflection unit of the scanner, the scanner comprising • a transmitter unit emitting laser pulses, • a movable deflection unit , in particular comprising a sweeping mirror or a refractive scan element, for executing a scan pattern and directing the laser pulses towards the target surface, • a receiver unit, comprising receiving optics and a photo-sensitive time-of-flight sensor , and • a control and processing unit configured to determine a distance between the scanner and the target surface according to the pulse time-of-flight principle, characterized in that • the receiver unit comprises an active device adapted for deflecting incoming laser pulses to compensate for the angle difference occurring between outgoing and incoming laser pulses, and • the control and processing unit is adapted for calculating a predicted angle difference between outgoing and incoming laser pulses based on a prediction of the time difference between outgoing and incoming laser pulses, and is further adapted for actuating the active device of the receiver unit based on the predicted angle difference. • a transmitter unit emitting laser pulses, • a movable deflection unit , in particular comprising a sweeping mirror or a refractive scan element, for executing a scan pattern and directing the laser pulses towards the target surface, • a receiver unit, comprising receiving optics and a photo-sensitive time-of-flight sensor , and • a control and processing unit configured to determine a distance between the scanner and the target surface according to the pulse time-of-flight principle, • the receiver unit comprises an active device adapted for deflecting incoming laser pulses to compensate for the angle difference occurring between outgoing and incoming laser pulses, and • the control and processing unit is adapted for calculating a predicted angle difference between outgoing and incoming laser pulses based on a prediction of the time difference between outgoing and incoming laser pulses, and is further adapted for actuating the active device of the receiver unit based on the predicted angle difference.
A method of treating kerogen in a subterranean formation comprising: placing in the subterranean formation a composition comprising a first oxidizer comprising a persulfate and a second oxidizer comprising a bromate, wherein the persulfate comprises an ammonium persulfate, and wherein the bromate comprises a sodium bromate.
A process for preparing a hydrogenated nitrile butadiene rubber latex comprising subjecting unsaturated or partially saturated nitrile butadiene rubber latex which is present in aqueous suspension to a hydrogenation in the presence of at least one hydrogenation catalyst (a) and at least one emulsifier (b), characterized in that the hydrogenation catalyst (a) and the emulsifier (b) are added to the aqueous suspension of the nitrile butadiene rubber.
A method for bonding parts, comprising the following steps (a) Providing a two-component adhesive composition precursor, comprising Part (A) comprising at least one first dye and at least one epoxy curing agent; Part (B) at least one second dye different from first dye and at least one epoxy resin; (b) Mixing part (A) and part (B) of the two-component adhesive composition precursor to obtain an adhesive composition; (c) Applying the adhesive composition onto a first part; (d) Applying a second part onto the adhesive composition applied to the first part; (e) Perform a first curing step at a first temperature in a range of from 60 to 140 °C, wherein the adhesive composition undergoes a first colour change; (f) Perform a second curing step at a second temperature higher than the first temperature, thereby fully curing the adhesive composition so as to obtain a structural adhesive bond between the first and second parts, wherein the adhesive composition undergoes a second colour change, wherein the second temperature is in a range of from 160 to 240 °C. (a) Providing a two-component adhesive composition precursor, comprising Part (A) comprising at least one first dye and at least one epoxy curing agent; Part (B) at least one second dye different from first dye and at least one epoxy resin; Part (A) comprising at least one first dye and at least one epoxy curing agent; Part (B) at least one second dye different from first dye and at least one epoxy resin; (b) Mixing part (A) and part (B) of the two-component adhesive composition precursor to obtain an adhesive composition; (c) Applying the adhesive composition onto a first part; (d) Applying a second part onto the adhesive composition applied to the first part; (e) Perform a first curing step at a first temperature in a range of from 60 to 140 °C, wherein the adhesive composition undergoes a first colour change; (f) Perform a second curing step at a second temperature higher than the first temperature, thereby fully curing the adhesive composition so as to obtain a structural adhesive bond between the first and second parts, wherein the adhesive composition undergoes a second colour change, wherein the second temperature is in a range of from 160 to 240 °C.
A mechanical timepiece movement comprising a chronograph mechanism arranged to be capable of carrying out at least one countdown of a predetermined time interval, comprising display means arranged to display at least the time remaining until the end of the countdown of said predetermined time interval, at least one member for controlling the start of the countdown, and a striking-mechanism, said striking-mechanism being arranged to start striking at a specified time before the end of the countdown and to stop striking at the end of said countdown of said predetermined time interval, characterized in that the chronograph mechanism is configured to be capable of being kinematically connected to a base movement by a lateral or vertical clutch device .
Span of a bridge, the span comprising a spacer beam , two parallel metal girders and a device for fixing the spacer beam between the two girders constituting the span, characterised in that said device comprises: - at least one raised portion formed by a shaft which is situated at each end of the spacer beam and which extends perpendicularly to a longitudinal axis (A) of the spacer beam ; and - two receiving housings for the raised portions , formed in two parts that are fixed to the two girders . - at least one raised portion formed by a shaft which is situated at each end of the spacer beam and which extends perpendicularly to a longitudinal axis (A) of the spacer beam ; and - two receiving housings for the raised portions , formed in two parts that are fixed to the two girders .
Haptic operating device having a base plate , a stationary central part connected thereto, a rotary knob which can be rotated about the stationary central part and which has a hollow design, and having a magnetorheological transmission device for manipulating the rotational movement of the rotary knob in a targeted manner, wherein the transmission device comprises two components which can be rotated relative to each other, one component of which is designed as a brake component that can be rotated relative to the base , characterized in that the stationary central part is attached to the base plate with a support arm and that the transmission device and the support arm are arranged adjacent to each other and are mounted radially within the rotary knob and that the support arm is positioned eccentrically with respect to the rotary knob , and that the rotary knob is coupled with the rotatable brake component in a rotationally fixed manner by means of a coupling device . characterized in that the stationary central part is attached to the base plate with a support arm and that the transmission device and the support arm are arranged adjacent to each other and are mounted radially within the rotary knob and that the support arm is positioned eccentrically with respect to the rotary knob , and that the rotary knob is coupled with the rotatable brake component in a rotationally fixed manner by means of a coupling device .
Training system, comprising: - at least one bottle , preferably a drinking bottle, comprising: at least one weight coupling section at which at least one weight can be arranged; - at least one weight adapted to be arranged at the weight coupling section of the bottle , wherein the bottle and/or the weight comprise locking means by which the bottle and the weight can be releasably locked, characterized in that the locking means are provided by means of a click-on connection, a press-fit connection or a magnetic lock connection, so that different weights can be easily arranged at the bottle such that the overall weight of the training system can be adjusted to (i) the training level of the person performing a training session and (ii) muscle exercises requiring different weights. - at least one bottle , preferably a drinking bottle, comprising: at least one weight coupling section at which at least one weight can be arranged; - at least one weight adapted to be arranged at the weight coupling section of the bottle , wherein the bottle and/or the weight comprise locking means by which the bottle and the weight can be releasably locked, characterized in that the locking means are provided by means of a click-on connection, a press-fit connection or a magnetic lock connection, so that different weights can be easily arranged at the bottle such that the overall weight of the training system can be adjusted to (i) the training level of the person performing a training session and (ii) muscle exercises requiring different weights.
Lifting tool for lifting and upending an offshore foundation pile with flanges, further "flanged object" , the lifting tool extending along a central longitudinal tool axis and comprising; - a hoisting member for coupling the lifting tool to a hoisting line and applying a hoisting force to the lifting tool, - a main frame for guiding a moveable flange engagement member, - said flange engagement member moveably coupled with the main frame for supporting the flanged object, and moveably with respect to the main frame, - a driving device coupled with the flange engagement member and the main frame for driving the flange engagement member radially with respect to the central longitudinal tool axis between a flange releasing position for introducing the lifting tool at least partly in said flanged object and past the flange thereof and a flange supporting position wherein the flange engagement member supports the object, wherein the driving device comprises a linkage system coupled with the hoisting member and the flange engagement member such that the flange engagement member is forced towards its flange supporting position upon application of the hoisting force to the lifting tool, characterised in that the driving device comprises a linear actuator coupled with the flange engagement member for driving the flange engagement member independently from the linkage system. - a hoisting member for coupling the lifting tool to a hoisting line and applying a hoisting force to the lifting tool, - a main frame for guiding a moveable flange engagement member, - said flange engagement member moveably coupled with the main frame for supporting the flanged object, and moveably with respect to the main frame, - a driving device coupled with the flange engagement member and the main frame for driving the flange engagement member radially with respect to the central longitudinal tool axis between a flange releasing position for introducing the lifting tool at least partly in said flanged object and past the flange thereof and a flange supporting position wherein the flange engagement member supports the object,