mhurhangee/ep-ind-claims huggingface dataset:
A backscatter device comprising: an antenna configured to backscatter a carrier signal having a first frequency; baseband circuitry configured to provide a frequency plan for chirp spread spectrum symbols for transmission; a frequency synthesizer coupled to the baseband circuitry and configured to provide a square wave in accordance with the frequency plan; and a switch coupled to the antenna, the switch configured to control an impedance of the backscatter device to backscatter the carrier signal in accordance with the square wave such that the first frequency is mixed with the square wave to transmit a chirp spread spectrum signal comprising the chirp spread spectrum symbols. an antenna configured to backscatter a carrier signal having a first frequency; baseband circuitry configured to provide a frequency plan for chirp spread spectrum symbols for transmission; a frequency synthesizer coupled to the baseband circuitry and configured to provide a square wave in accordance with the frequency plan; and a switch coupled to the antenna, the switch configured to control an impedance of the backscatter device to backscatter the carrier signal in accordance with the square wave such that the first frequency is mixed with the square wave to transmit a chirp spread spectrum signal comprising the chirp spread spectrum symbols.
A method for processing culinary nuts, comprising the steps of: a) adding water to culinary nuts selected from tree nuts, peanuts or drupe seeds to form a suspension; b) wet grinding said suspension in one or more steps to an average particle size of less than 100 μm measured as volume moment mean (D[4,3]) by laser photometry; and c) separating the suspension into at least a solid phase comprising culinary nut solids and a liquid phase comprising culinary nut milk; and wherein the culinary nuts include a shell and the culinary nuts subjected to wet grinding are non-shelled, or wherein the method further comprises adding culinary nut shell material ground to an average particle size of less than 100 μm measured as volume moment mean (D[4,3]) by laser photometry to the suspension in steps a) or b), or to at least one of the solid phase or liquid phase after step c), and the culinary nut shell material is selected from shell material from almonds, pecans, walnuts, cashews, pistachios, peanuts, kola nuts, palm nuts, hazelnuts, filberts, Brazil nuts, macadamia nuts, chestnuts, and mixtures thereof. a) adding water to culinary nuts selected from tree nuts, peanuts or drupe seeds to form a suspension; b) wet grinding said suspension in one or more steps to an average particle size of less than 100 μm measured as volume moment mean (D[4,3]) by laser photometry; and c) separating the suspension into at least a solid phase comprising culinary nut solids and a liquid phase comprising culinary nut milk; and wherein the culinary nuts include a shell and the culinary nuts subjected to wet grinding are non-shelled, or wherein the method further comprises adding culinary nut shell material ground to an average particle size of less than 100 μm measured as volume moment mean (D[4,3]) by laser photometry to the suspension in steps a) or b), or to at least one of the solid phase or liquid phase after step c), and the culinary nut shell material is selected from shell material from almonds, pecans, walnuts, cashews, pistachios, peanuts, kola nuts, palm nuts, hazelnuts, filberts, Brazil nuts, macadamia nuts, chestnuts, and mixtures thereof. wherein the culinary nuts include a shell and the culinary nuts subjected to wet grinding are non-shelled, or wherein the method further comprises adding culinary nut shell material ground to an average particle size of less than 100 μm measured as volume moment mean (D[4,3]) by laser photometry to the suspension in steps a) or b), or to at least one of the solid phase or liquid phase after step c), and the culinary nut shell material is selected from shell material from almonds, pecans, walnuts, cashews, pistachios, peanuts, kola nuts, palm nuts, hazelnuts, filberts, Brazil nuts, macadamia nuts, chestnuts, and mixtures thereof.
A method of operating a user equipment, UE, (300A; 300B; 400), comprising: obtaining transition region information that characterizes a set of indoor-to-outdoor transition regions (600B, 605B, 610B) between an indoor space and an outdoor space relative to a given enclosed environment; tracking a location of the UE using an indoor positioning scheme while the UE is operating within the indoor space; detecting, based on the location tracking using the indoor positioning scheme, that the UE has entered into a given indoor-to-outdoor transition region (600B, 605B, 610B) from the set of indoor-to-outdoor transition regions (600B, 605B, 610B); and initiating location tracking of the UE using an outdoor positioning scheme that is different from the indoor positioning scheme in response to the detection while continuing the location tracking using the indoor positioning scheme, the method further comprising: determining, based on the location tracking using the indoor positioning scheme and/or the location tracking using the outdoor positioning scheme, that the UE has transitioned from the given indoor-to-outdoor transition region (600B, 605B, 610B) back to the indoor space; and stopping the location tracking using the outdoor positioning scheme while continuing the location tracking using the indoor positioning scheme in response to the determination. obtaining transition region information that characterizes a set of indoor-to-outdoor transition regions (600B, 605B, 610B) between an indoor space and an outdoor space relative to a given enclosed environment; tracking a location of the UE using an indoor positioning scheme while the UE is operating within the indoor space; detecting, based on the location tracking using the indoor positioning scheme, that the UE has entered into a given indoor-to-outdoor transition region (600B, 605B, 610B) from the set of indoor-to-outdoor transition regions (600B, 605B, 610B); and initiating location tracking of the UE using an outdoor positioning scheme that is different from the indoor positioning scheme in response to the detection while continuing the location tracking using the indoor positioning scheme, the method further comprising: determining, based on the location tracking using the indoor positioning scheme and/or the location tracking using the outdoor positioning scheme, that the UE has transitioned from the given indoor-to-outdoor transition region (600B, 605B, 610B) back to the indoor space; and stopping the location tracking using the outdoor positioning scheme while continuing the location tracking using the indoor positioning scheme in response to the determination. determining, based on the location tracking using the indoor positioning scheme and/or the location tracking using the outdoor positioning scheme, that the UE has transitioned from the given indoor-to-outdoor transition region (600B, 605B, 610B) back to the indoor space; and stopping the location tracking using the outdoor positioning scheme while continuing the location tracking using the indoor positioning scheme in response to the determination.
A base station, the base station in communication with one or more wireless transmit/receive units, WTRUs, the base station comprising: a processor, the processor configured to at least: allocate a first full duplex timeslot of a frame of a communication channel to full duplex single channel, FDSC, communication; allocate a second full duplex timeslot of the frame of the communication channel to FDSC communication; communicate with a first WTRU via FDSC using the first full duplex timeslot; and characterised by the processor being configured to: send a downlink half duplex, HD, communication to a second WTRU using the second full duplex timeslot that is allocated to FDSC communication and receive an uplink HD communication from a third WTRU using the second full duplex timeslot that is allocated to FDSC communication. allocate a first full duplex timeslot of a frame of a communication channel to full duplex single channel, FDSC, communication; allocate a second full duplex timeslot of the frame of the communication channel to FDSC communication; communicate with a first WTRU via FDSC using the first full duplex timeslot; and characterised by the processor being configured to: send a downlink half duplex, HD, communication to a second WTRU using the second full duplex timeslot that is allocated to FDSC communication and receive an uplink HD communication from a third WTRU using the second full duplex timeslot that is allocated to FDSC communication.
A method comprising: obtaining a plurality of images comprising any two or more of two-dimensional mammogram images (Mp), synthesized two-dimensional mammogram images (Ms), two-dimensional tomosynthesis projection images (Tp) or three-dimensional tomosynthesis reconstructed image data set (Tr), and wherein each of the images in the plurality of images has at least one corresponding region; generating a merged image (I MERGE, 50) from the plurality of images, the merged image also having the corresponding region, wherein the merged image is a synthesized 2D image, the step of generating comprising: selecting an image source from the plurality of images to source image data for the corresponding region in the merged image by comparing attributes of the corresponding regions of the plurality of images to identify the image source having preferred attributes. obtaining a plurality of images comprising any two or more of two-dimensional mammogram images (Mp), synthesized two-dimensional mammogram images (Ms), two-dimensional tomosynthesis projection images (Tp) or three-dimensional tomosynthesis reconstructed image data set (Tr), and wherein each of the images in the plurality of images has at least one corresponding region; generating a merged image (I MERGE, 50) from the plurality of images, the merged image also having the corresponding region, wherein the merged image is a synthesized 2D image, the step of generating comprising: selecting an image source from the plurality of images to source image data for the corresponding region in the merged image by comparing attributes of the corresponding regions of the plurality of images to identify the image source having preferred attributes.
A method of detecting at least one of an analyte or a condition of a downhole fluid within a subterranean formation, the method comprising: operably coupling a radiation source to at least one optical fiber coupled to a sensor comprising optically sensitive materials including at least one of chromophores, fluorophores, metal nanoparticles, or metal oxide nanoparticles dispersed within an optically transparent matrix material which is permeable to a downhole fluid; contacting the sensor within a wellbore with the downhole fluid and passing the downhole fluid through at least a portion of the sensor comprising the optically sensitive materials; transmitting electromagnetic radiation from the radiation source through the at least one optical fiber to the sensor; and measuring at least one of an absorbance spectrum, an emission spectrum, a maximum absorption intensity, or a maximum emission intensity of electromagnetic radiation passing through the sensor after contacting at least some of the optically sensitive materials with the downhole fluid. operably coupling a radiation source to at least one optical fiber coupled to a sensor comprising optically sensitive materials including at least one of chromophores, fluorophores, metal nanoparticles, or metal oxide nanoparticles dispersed within an optically transparent matrix material which is permeable to a downhole fluid; contacting the sensor within a wellbore with the downhole fluid and passing the downhole fluid through at least a portion of the sensor comprising the optically sensitive materials; transmitting electromagnetic radiation from the radiation source through the at least one optical fiber to the sensor; and measuring at least one of an absorbance spectrum, an emission spectrum, a maximum absorption intensity, or a maximum emission intensity of electromagnetic radiation passing through the sensor after contacting at least some of the optically sensitive materials with the downhole fluid.
A method for generating electrical energy within a tyre, the method comprising: - providing an oscillating structure comprising a housing and a piezoelectric element coupled to said housing and being able to oscillate in an oscillation direction; - coupling said oscillating structure to a crown portion of said tyre; - rotating said tyre on a rolling surface so as to cause oscillation of said piezoelectric element, thereby leading to a deformation of said piezoelectric element during the tyre rotation; - storing electrical energy generated from said deformation of said piezoelectric element; characterized in that said coupling of said oscillating structure to a crown portion of said tyre is performed so as to substantially match said oscillation direction with a longitudinal direction of the tyre. - providing an oscillating structure comprising a housing and a piezoelectric element coupled to said housing and being able to oscillate in an oscillation direction; - coupling said oscillating structure to a crown portion of said tyre; - rotating said tyre on a rolling surface so as to cause oscillation of said piezoelectric element, thereby leading to a deformation of said piezoelectric element during the tyre rotation; - storing electrical energy generated from said deformation of said piezoelectric element;
An image processing apparatus comprising: generation means configured to generate a subtraction image between a plurality of fundus images of an eye corresponding to a plurality of three-dimensional tomographic images obtained by capturing images of the eye at different times; display control means configured to control a display unit to display the subtraction image; and specifying means configured to specify a plurality of two-dimensional tomographic images, in the plurality of three-dimensional tomographic images, to be displayed on the display unit, by a position specified on the displayed subtraction image. generation means configured to generate a subtraction image between a plurality of fundus images of an eye corresponding to a plurality of three-dimensional tomographic images obtained by capturing images of the eye at different times; display control means configured to control a display unit to display the subtraction image; and specifying means configured to specify a plurality of two-dimensional tomographic images, in the plurality of three-dimensional tomographic images, to be displayed on the display unit, by a position specified on the displayed subtraction image.
Method for controlling a machine for processing a floor surface by means of a control apparatus, comprising the following steps: - Detecting a request for local cleaning on an area of the floor surface; - Projecting an indication of boundaries of a planned area onto the floor surface by means of a projector of the control apparatus; - Detecting a confirmation of the area, wherein the confirmation is determined if no predetermined operating input has been detected during a predetermined time; and - Starting the processing of the area within the boundaries by means of the machine; - characterised in that the area is determined with reference to the machine and the predetermined operating input comprises changing the position of the machine. - Detecting a request for local cleaning on an area of the floor surface; - Projecting an indication of boundaries of a planned area onto the floor surface by means of a projector of the control apparatus; - Detecting a confirmation of the area, wherein the confirmation is determined if no predetermined operating input has been detected during a predetermined time; and - Starting the processing of the area within the boundaries by means of the machine; - characterised in that the area is determined with reference to the machine and the predetermined operating input comprises changing the position of the machine.
Method for determining the curve direction for a vehicle, the method comprising: - determining a lateral acceleration value of the vehicle; - determining at least one of a yaw rate value of the vehicle and a steering angle value of the vehicle; - determining a coefficient of friction; - determining the curve direction based on the determined values, wherein, for determining the curve direction, the yaw rate value and lateral acceleration value are weighted more strongly in the event of a decreasing coefficient of friction. - determining a lateral acceleration value of the vehicle; - determining at least one of a yaw rate value of the vehicle and a steering angle value of the vehicle; - determining a coefficient of friction; - determining the curve direction based on the determined values,
A pole piece comprising a rear face, a front face, and ends (511, 512), the pole piece extending for a length between the ends (511, 512), said pole piece being elongated along a first axis extending between said ends (511, 512), and being suitable for use within a central cavity of a Halbach magnet array, wherein the rear face is to be positioned proximate to one or more magnets in the Halbach magnet array and the front face is to be positioned distal to said one or more magnets in the Halbach magnet array, characterized in that said pole piece comprises at least one channel formed into the rear face, said channel being provided longitudinally along said first axis, and in that said pole piece comprises at least one shimming rod provided in the channel for modifying a magnetic field of the Halbach magnet array.
A method for using a velocity model in an inertial navigation system, the method comprising the steps of: establishing a first velocity model for a first device; establishing a second velocity model for a second device, the first and second velocity models being independent velocity models; establishing a spatial relationship between the first device and the second device by connecting the first device and the second device, when connected the first device is at a first position and the second device is at a second position, the first and second positions being substantially the same position; determining a single position estimate of the first device and the second device based on a first position estimate from the first velocity model when the first device is in the first position and a second position estimate from the second velocity model when the second device is in the second position; and adjusting, by the first device (190, 490, 590) or by a remote device, at least a portion of the first velocity model to provide an adjusted first velocity model, wherein adjusting includes replacing the first position estimate in the first velocity model with the determined single position estimate. establishing a first velocity model for a first device; establishing a second velocity model for a second device, the first and second velocity models being independent velocity models; establishing a spatial relationship between the first device and the second device by connecting the first device and the second device, when connected the first device is at a first position and the second device is at a second position, the first and second positions being substantially the same position; determining a single position estimate of the first device and the second device based on a first position estimate from the first velocity model when the first device is in the first position and a second position estimate from the second velocity model when the second device is in the second position; and adjusting, by the first device (190, 490, 590) or by a remote device, at least a portion of the first velocity model to provide an adjusted first velocity model, wherein adjusting includes replacing the first position estimate in the first velocity model with the determined single position estimate.
A particle comprising: i) a hydrophobic camptothecin-based compound; ii) a hydrophilic camptothecin-based compound; and iii) an amphiphilic block copolymer composed of a hydrophobic block and a hydrophilic block. i) a hydrophobic camptothecin-based compound; ii) a hydrophilic camptothecin-based compound; and iii) an amphiphilic block copolymer composed of a hydrophobic block and a hydrophilic block.
A method for positioning a mobile station, the method comprising: determining an identifier of at least one mobile station to be positioned, characterized by the method further comprising: forming at least one positioning cell area by means of a mobile positioning system; receiving in the positioning system an identifier of one or more mobile stations on the basis of location updates made by the mobile stations in each location area of the formed positioning cell area; and positioning the mobile station when the positioning system receives the identifier of the mobile station to be positioned, wherein a location area code of the positioning cell is different than a location area code of neighbour cells, and the positioning cell has a higher transmission power level than the cellular coverage areas of the radio network. forming at least one positioning cell area by means of a mobile positioning system; receiving in the positioning system an identifier of one or more mobile stations on the basis of location updates made by the mobile stations in each location area of the formed positioning cell area; and positioning the mobile station when the positioning system receives the identifier of the mobile station to be positioned, wherein a location area code of the positioning cell is different than a location area code of neighbour cells, and the positioning cell has a higher transmission power level than the cellular coverage areas of the radio network.