mhurhangee/patent-ind-claim-en huggingface dataset:
A near-field electromagnetic induction, NFEMI, antenna , comprising: an electric antenna including a first electrically conductive surface and a second electrically conductive surface ; a magnetic antenna including a first coil , a second coil and a third coil ; a first feeding connection coupled to one end of the first coil and the first electrically conductive surface ; a second feeding connection coupled to another end of the first coil and coupled to one end of the second coil ; wherein another end of the second coil is coupled to one end of the third coil ; wherein another end of the third coil is coupled to the second electrically conductive surface ; wherein the first, second and third coils are configured to carry a time varying current from the first and second feeding connections in a same direction; wherein the first coil is configured to have a first coupling coefficient (K1) with the second coil ; and wherein the first coil is configured to have a second coupling coefficient (K2) with the third coil characterized in that the first and second coils are configured as a bifilar wound set of wires ; and the third coil is not configured as part of the bifilar wound set of wires . an electric antenna including a first electrically conductive surface and a second electrically conductive surface ; a magnetic antenna including a first coil , a second coil and a third coil ; a first feeding connection coupled to one end of the first coil and the first electrically conductive surface ; a second feeding connection coupled to another end of the first coil and coupled to one end of the second coil ; wherein another end of the second coil is coupled to one end of the third coil ; wherein another end of the third coil is coupled to the second electrically conductive surface ; wherein the first, second and third coils are configured to carry a time varying current from the first and second feeding connections in a same direction; wherein the first coil is configured to have a first coupling coefficient (K1) with the second coil ; and wherein the first coil is configured to have a second coupling coefficient (K2) with the third coil characterized in that the first and second coils are configured as a bifilar wound set of wires ; and the third coil is not configured as part of the bifilar wound set of wires .
A method for directing the motion of a vehicle, comprising: receiving commands in natural language using a processor, the commands specifying a relative path to be taken by the vehicle with respect to other objects in the environment, wherein the command contains prepositions to specify the vehicle motion; receiving a data set containing a plurality of images of an environment taken from different locations in the environment; determining a plurality of objects and associated object locations in the environment using the data set; determining an absolute path for the vehicle to follow based on the relative path using the processor, the absolute path comprising a series of coordinates in the environment; and directing the vehicle along said absolute path, wherein a degree to which a potential absolute path taken by the vehicle satisfies the command is specified by a scoring function, wherein a score representing a meaning of the entire command is formed from scores representing meanings of the individual words in the command, wherein hidden Markov models are used to represent a sequence of portions of vehicle paths corresponding to phrases in the command, and wherein objects in the environment of the same class are disambiguated by specifying their position relative to other objects using prepositions. receiving commands in natural language using a processor, the commands specifying a relative path to be taken by the vehicle with respect to other objects in the environment, wherein the command contains prepositions to specify the vehicle motion; receiving a data set containing a plurality of images of an environment taken from different locations in the environment; determining a plurality of objects and associated object locations in the environment using the data set; determining an absolute path for the vehicle to follow based on the relative path using the processor, the absolute path comprising a series of coordinates in the environment; and directing the vehicle along said absolute path, wherein a degree to which a potential absolute path taken by the vehicle satisfies the command is specified by a scoring function, wherein a score representing a meaning of the entire command is formed from scores representing meanings of the individual words in the command, wherein hidden Markov models are used to represent a sequence of portions of vehicle paths corresponding to phrases in the command, and wherein objects in the environment of the same class are disambiguated by specifying their position relative to other objects using prepositions.
An automated computerized method for identifying linear tokens in an image, a linear token being a connected region in the image wherein adjacent pixels of the region have differing color measurement values that fall within a cylinder in an RGB color space with a positive slope from a dark end to a bright end for each color channel of the image, such a cylinder being predicted by a bi-illuminant dichromatic reflection (BIDR) model, this model taking into account an ambient illuminant in addition to a direct illuminant, the method comprising the steps: • providing an image file representing the image in a computer memory; • testing, for each pixel, a local area around the pixel to determine whether the color values of the pixel and of its neighboring pixels fall within a cylinder in the RGB color space with a positive slope from a dark end to a bright end for each color channel of the image, such a cylinder being predicted by a bi-illuminant dichromatic reflection (BIDR) model; and if this is the case • designating the pixel and its neighboring pixels as a linear token, characterised in that a linear token determined according to the above steps is filtered out, if the change between two spatially adjacent pixels within the linear token is greater than a selected percentage of the difference between the brightest pixel and the darkest pixel within the linear token. • providing an image file representing the image in a computer memory; • testing, for each pixel, a local area around the pixel to determine whether the color values of the pixel and of its neighboring pixels fall within a cylinder in the RGB color space with a positive slope from a dark end to a bright end for each color channel of the image, such a cylinder being predicted by a bi-illuminant dichromatic reflection (BIDR) model; and if this is the case • designating the pixel and its neighboring pixels as a linear token, characterised in that a linear token determined according to the above steps is filtered out, if the change between two spatially adjacent pixels within the linear token is greater than a selected percentage of the difference between the brightest pixel and the darkest pixel within the linear token.
A method of constructing an image of a sample from MRI data, the method comprising: i) selectively acquiring one or more sets of MRI data generated from driving signals created under a specific set of operation parameters, wherein each of the driving signals comprises a RF pulse , to which the specific set of operation parameters controls any one or more flip angle and phase of the RF pulse; and a gradient pulse along a phase encoding axis, to which the specific set of operation parameters controls its gradient amplitude, and wherein the specific set of operation parameters are tuned based on a variation of one or more of the flip angle of the RF pulse, the phase of the RF pulse and the gradient amplitude of the gradient pulse by keeping one or more of the flip angle of the RF pulse, the phase of the RF pulse and the gradient amplitude of the gradient pulse constant from one measurement cycle to a subsequent measurement cycle when acquiring each set of the one or more sets of MRI data, and varying the remainder of the flip angle of the RF pulse, the phase of the RF pulse and the gradient amplitude of the gradient pulse in the subsequent measurement cycle; ii) deriving a matrix representative of the driving signals used to acquire the one or more sets of MRI data, wherein the matrix changes in response to the tuning of the specific set of operation parameters; iii) processing the selectively acquired MRI data with the matrix to obtain output data; and iv) synthesising the output data to construct the image of the sample, wherein the selectively acquiring the one or more sets of the MRI data step comprises employing an overlapping technique or both an overlapping and an under-sampling technique. i) selectively acquiring one or more sets of MRI data generated from driving signals created under a specific set of operation parameters, wherein each of the driving signals comprises a RF pulse , to which the specific set of operation parameters controls any one or more flip angle and phase of the RF pulse; and a gradient pulse along a phase encoding axis, to which the specific set of operation parameters controls its gradient amplitude, and wherein the specific set of operation parameters are tuned based on a variation of one or more of the flip angle of the RF pulse, the phase of the RF pulse and the gradient amplitude of the gradient pulse by keeping one or more of the flip angle of the RF pulse, the phase of the RF pulse and the gradient amplitude of the gradient pulse constant from one measurement cycle to a subsequent measurement cycle when acquiring each set of the one or more sets of MRI data, and varying the remainder of the flip angle of the RF pulse, the phase of the RF pulse and the gradient amplitude of the gradient pulse in the subsequent measurement cycle; ii) deriving a matrix representative of the driving signals used to acquire the one or more sets of MRI data, wherein the matrix changes in response to the tuning of the specific set of operation parameters; iii) processing the selectively acquired MRI data with the matrix to obtain output data; and iv) synthesising the output data to construct the image of the sample,
A flow angle sensor (10; 110) comprising: a sensing element (24; 124); a background component (28; 128) connected to and movable with the sensing element, the background component having a marker ; a lens adjacent the background component; an image sensor axially aligned with the lens to capture an image of the marker; a light source positioned to illuminate the background component; and an image processing system connected to the image sensor, wherein the image processing system provides an angle of attack output based on a location of the marker sensed by the image sensor. a sensing element (24; 124); a background component (28; 128) connected to and movable with the sensing element, the background component having a marker ; a lens adjacent the background component; an image sensor axially aligned with the lens to capture an image of the marker; a light source positioned to illuminate the background component; and an image processing system connected to the image sensor, wherein the image processing system provides an angle of attack output based on a location of the marker sensed by the image sensor.
Upright vacuum cleaner comprising a handle , a suction head which is configured to be in contact with a floor to be cleaned, a main body disposed between the handle and the suction head , and a device for separating and for storing waste mounted removably on the main body , characterised in that the main body comprises a first half-shell (3.1) and a second half-shell (3.2) which are assembled to one another and which define an inner connecting conduit , the inner connecting conduit being configured to fluidically connect the suction head to an air inlet of the device for separating and for storing waste , and in that the main body further comprises a seal disposed between the first and second half-shells (3.1, 3.2) so as to seal the inner connecting conduit .
A method, implemented at a computer system that includes one or more processors , for performing a speculative replay of code execution, the method comprising: replaying trace data comprising one or more trace data streams that represent execution of one or more executable entities (501a-501c), including storing first runtime state of replaying the trace data in one or more first replay data structures ; during replay of the trace data, encountering a first point of interest in the one or more executable entities; based at least on encountering the first point of interest, ceasing replay of the trace data, and presenting at a user interface at least a portion of the first runtime state stored in the one or more first replay data structures; and while presenting the portion of the first runtime state at the user interface, speculatively replaying the trace data, including: automatically selecting a second point of interest (503b-503e) in the one or more executable entities; creating one or more second replay data structures (502b-502e) based on the one or more first replay data structures; and replaying the trace data until encountering the second point of interest, including storing second runtime state of replaying the trace data in the one or more second replay data structures. replaying trace data comprising one or more trace data streams that represent execution of one or more executable entities (501a-501c), including storing first runtime state of replaying the trace data in one or more first replay data structures ; during replay of the trace data, encountering a first point of interest in the one or more executable entities; based at least on encountering the first point of interest, ceasing replay of the trace data, and presenting at a user interface at least a portion of the first runtime state stored in the one or more first replay data structures; and while presenting the portion of the first runtime state at the user interface, speculatively replaying the trace data, including: automatically selecting a second point of interest (503b-503e) in the one or more executable entities; creating one or more second replay data structures (502b-502e) based on the one or more first replay data structures; and replaying the trace data until encountering the second point of interest, including storing second runtime state of replaying the trace data in the one or more second replay data structures. automatically selecting a second point of interest (503b-503e) in the one or more executable entities; creating one or more second replay data structures (502b-502e) based on the one or more first replay data structures; and replaying the trace data until encountering the second point of interest, including storing second runtime state of replaying the trace data in the one or more second replay data structures.
A heat exchanger for gases, in particular engine exhaust gases, comprising a heat-exchanger casing that delimits a circuit for the circulation of a coolant fluid, a plurality of gas conduits installed within said heat-exchanger casing , a gas inlet for gas circulation and a coolant fluid inlet inside the casing , wherein the gas conduits each comprise an arrangement of baffles for distributing coolant on at least one of the outer faces thereof, said arrangement of baffles for distributing coolant comprising at least one inlet baffle located near the coolant inlet , said inlet baffle including a first portion and a second portion arranged in a substantially orthogonal position so as to guide the coolant inlet toward the gas inlet , characterized in that the baffles have a height (Rh) that is at most substantially equal to half the separation distance between gas conduits , among which said baffles are located and in that the baffles do not come into contact with baffles located in the adjoining gas conduit in an opposing manner.
A display system, comprising: a display ; and a controller that controls the display so that the display displays an icon representing a status of a secondary battery , wherein the icon represents one of a first indication and a second indication by an increase or decrease of a scale in a display region of the icon, and represents the other one of the first indication and the second indication by an amount indicated by a size of a display area of the icon, the first indication representing an amount of battery remained in the secondary battery , the second indication representing a full charge capacity of the secondary battery , wherein the scale increases and decreases in a predetermined direction, characterized in that the display area varies by the icon changing in shape in a direction perpendicular to the predetermined direction, while keeping an aspect ratio of the icon. a display ; and a controller that controls the display so that the display displays an icon representing a status of a secondary battery , wherein the icon represents one of a first indication and a second indication by an increase or decrease of a scale in a display region of the icon, and represents the other one of the first indication and the second indication by an amount indicated by a size of a display area of the icon, the first indication representing an amount of battery remained in the secondary battery , the second indication representing a full charge capacity of the secondary battery , wherein the scale increases and decreases in a predetermined direction, characterized in that the display area varies by the icon changing in shape in a direction perpendicular to the predetermined direction, while keeping an aspect ratio of the icon.
Method for controlling a steer-by-wire steering system for a motor vehicle , wherein the motor vehicle comprises two axles with two wheels (RL,RR,FL,FR) each, wherein the two front wheels (FL,FR) can be steered by means of front-wheel steering and are connected to one another via a second steering rod of a steering system of the front-wheel steering; the two rear wheels (RL,RR) can be steered by means of rear-wheel steering and are connected to one another via a first steering rod of a steering system of the rear-wheel steering, and the motor vehicle comprises a single wheel drive which is assigned to one of the two axles and drives the two wheels of the corresponding axle via a differential, wherein the motor vehicle comprises an inboard braking system, and the method comprises the following steps: • checking the motor vehicle speed, • in the event that a motor vehicle speed should be slower than a defined motor vehicle speed, activation of rear-axle steering, • wherein with active rear-axle steering, the following steps are carried out: • deactivation of rear-wheel steering, • determination of a reference position of the first steering rod (S R,ref ) by means of a reference wheel steering angle (α RW,ref ) of the rear wheels (RL,RR), • determination of a differential drive torque (ΔT) between the two rear wheels (RL,RR), in order to reach the reference position (S R,ref ) by means of a control unit. • checking the motor vehicle speed, • in the event that a motor vehicle speed should be slower than a defined motor vehicle speed, activation of rear-axle steering, • wherein with active rear-axle steering, the following steps are carried out: • deactivation of rear-wheel steering, • determination of a reference position of the first steering rod (S R,ref ) by means of a reference wheel steering angle (α RW,ref ) of the rear wheels (RL,RR), • determination of a differential drive torque (ΔT) between the two rear wheels (RL,RR), in order to reach the reference position (S R,ref ) by means of a control unit. • deactivation of rear-wheel steering, • determination of a reference position of the first steering rod (S R,ref ) by means of a reference wheel steering angle (α RW,ref ) of the rear wheels (RL,RR), • determination of a differential drive torque (ΔT) between the two rear wheels (RL,RR), in order to reach the reference position (S R,ref ) by means of a control unit.
A method for generating a preparation of lipase with increased lipolytic activity comprising a step of altering one or more nucleotides in a polynucleotide comprising a first polynucleotide encoding a propeptide operationally linked to a second polynucleotide encoding a lipase having at least 75% identity to SEQ ID NO: 3 in the Sequence Listing, wherein the alteration of one or more nucleotides are made in the first polynucleotide and the alteration independently results in an insertion in the encoded propeptide amino acid sequence corresponding to: A-15AASV; P-25PSTED; S-45SSTED; or P-55PSTED of SEQ ID NO: 2 in the Sequence Listing.
An animal lift comprising: a lift mechanism ; a vertical mast housing at least a portion of the lift mechanism ; and a cradle comprising i) a horizontal shaft rotatably coupled to the lift mechanism about a longitudinal axis of rotation of the horizontal shaft , and ii) a vertical side wall , characterised in that the horizontal shaft has a surface for engaging the sternum or underbelly of an animal along the animal's longitudinal axis from head to tail. a lift mechanism ; a vertical mast housing at least a portion of the lift mechanism ; and a cradle comprising i) a horizontal shaft rotatably coupled to the lift mechanism about a longitudinal axis of rotation of the horizontal shaft , and ii) a vertical side wall , characterised in that the horizontal shaft has a surface for engaging the sternum or underbelly of an animal along the animal's longitudinal axis from head to tail.