mhurhangee/patent-ind-claim-en huggingface dataset:
A dental technology kit, for coupling a dental prosthesis to a bone tissue, which comprises at least one shell that defines a compartment that can be associated with a protruding head of a pin that can be anchored, directly or indirectly, to the bone tissue, and at least one containment unit , which can be stably inserted into a complementarily-shaped recess that can be provided in the prosthesis, characterized in that it comprises an intermediate container , which defines internally a receptacle of shape at least partially complementary to said shell , said container being accommodatable in an at least partially complementarily-shaped chamber provided in said containment unit until a mating configuration is defined, in said mating configuration at least one curved surface hump of said container , accommodated in said chamber , being arranged in contact with at least one complementarily-shaped curved surface region of said unit , in order to define, at least in said mating configuration, a spherical mating between said container and said unit .
A firing stand for use in a disruptor system, the firing stand comprising plurality of mounting panels comprising apertures configured to hold shaped charges , said mounting panels being rotatably attached to each other, said mounting panels being made from lightweight foam, the firing stand being foldable between a transport configuration for holding the shaped charges during transport, and at least a first firing configuration in which the shaped charges can be oriented towards a target device.
A method comprising: transmitting, in a first sub-band having a first frame structure , first data and first signaling information associated with the first data, the first signaling information including initial access information for communications in the first sub-band and transmitting, in a second sub-band having a second frame structure different from the first frame structure, second signaling information associated with second data, wherein the first frame structure is a machine type communication, MTC, frame structure; the second frame structure is a default frame structure; and characterized in that : at least one channel within the MTC frame structure has a different periodicity than a corresponding channel within the second frame structure. transmitting, in a first sub-band having a first frame structure , first data and first signaling information associated with the first data, the first signaling information including initial access information for communications in the first sub-band and transmitting, in a second sub-band having a second frame structure different from the first frame structure, second signaling information associated with second data, wherein the first frame structure is a machine type communication, MTC, frame structure; the second frame structure is a default frame structure; and characterized in that : at least one channel within the MTC frame structure has a different periodicity than a corresponding channel within the second frame structure.
A device for calculating and outputting a bolus amount (Rec) comprising a) an input unit for inputting an amount of consumed carbohydrates (X carbohydrates ) by a person, b) a computing unit which is coupled to the input unit , wherein the input amount of consumed carbohydrates (X carbohydrates ) is transmittable to the computing unit , the computing unit having - at least one interface, via which the current blood glucose value (X BG actual ) of the person is transmittable to the computing unit , and - an output unit for outputting a bolus amount (Rec) calculated by the computing unit , characterised in that the value of a current basal rate (BR actual ) of the person is transmittable to the computing unit via at least one interface of the computing unit , and in that the computing unit is designed to calculate the bolus amount (Rec) depending on the amount of consumed carbohydrates (X carbohydrates ) and depending on the current basal rate (BR actual ) and to output the calculated bolus amount (Rec) on the output unit. a) an input unit for inputting an amount of consumed carbohydrates (X carbohydrates ) by a person, b) a computing unit which is coupled to the input unit , wherein the input amount of consumed carbohydrates (X carbohydrates ) is transmittable to the computing unit , the computing unit having - at least one interface, via which the current blood glucose value (X BG actual ) of the person is transmittable to the computing unit , and - an output unit for outputting a bolus amount (Rec) calculated by the computing unit , - at least one interface, via which the current blood glucose value (X BG actual ) of the person is transmittable to the computing unit , and - an output unit for outputting a bolus amount (Rec) calculated by the computing unit ,
A system for monitoring a track for traction of a vehicle on a ground, the track being mounted around a plurality of wheels (40, 50 1 -50 8 ), the track comprising a ground-engaging outer surface configured to engage the ground and an inner surface opposite to the ground-engaging outer surface , the track including elastomeric material to flex around the wheels, the system comprising: an interface configured to receive data regarding at least one image of the track; and a processor configured to: perform a two-dimensional image analysis based on the data regarding the at least one image of the track to obtain a result of the 2D image analysis, wherein the result of the 2D image analysis is an indication of a defect of the track that comprises a crack in the track; create a three-dimensional model of the track based on the data regarding the at least one image of the track; and generate information on a state of the track based on at least one of the result of the 2D image analysis and the 3D model of the track. an interface configured to receive data regarding at least one image of the track; and a processor configured to: perform a two-dimensional image analysis based on the data regarding the at least one image of the track to obtain a result of the 2D image analysis, wherein the result of the 2D image analysis is an indication of a defect of the track that comprises a crack in the track; create a three-dimensional model of the track based on the data regarding the at least one image of the track; and generate information on a state of the track based on at least one of the result of the 2D image analysis and the 3D model of the track. perform a two-dimensional image analysis based on the data regarding the at least one image of the track to obtain a result of the 2D image analysis, wherein the result of the 2D image analysis is an indication of a defect of the track that comprises a crack in the track; create a three-dimensional model of the track based on the data regarding the at least one image of the track; and generate information on a state of the track based on at least one of the result of the 2D image analysis and the 3D model of the track.
A method performed at a first electronic device associated with a media-providing service, the method comprising: determining a first audio event of a first media content item, wherein the first audio event is identified as an audio event in accordance with a determination that the first audio event occurs at an amplitude of an audio signal of the first media content item above a threshold amplitude; modifying the first media content item by superimposing a first set of data over the first audio event, wherein : the first audio event has a first audio profile configured to be presented over a first channel (402; 404) for playback, and the first set of data is encoded to a second audio profile configured to be presented over the first channel for playback, wherein the audio profile of the first audio event has a first amplitude that is higher than a second amplitude of the audio profile of the first set of the data such that playback of the second audio profile is masked by auditory masking by the first audio profile during playback of the first media content item; and transmitting , to a second electronic device , the modified first media content item; wherein the audio profile of the first set of data has a frequency profile that corresponds to a frequency profile of the audio profile of the first audio event . determining a first audio event of a first media content item, wherein the first audio event is identified as an audio event in accordance with a determination that the first audio event occurs at an amplitude of an audio signal of the first media content item above a threshold amplitude; modifying the first media content item by superimposing a first set of data over the first audio event, wherein : the first audio event has a first audio profile configured to be presented over a first channel (402; 404) for playback, and the first set of data is encoded to a second audio profile configured to be presented over the first channel for playback, wherein the audio profile of the first audio event has a first amplitude that is higher than a second amplitude of the audio profile of the first set of the data such that playback of the second audio profile is masked by auditory masking by the first audio profile during playback of the first media content item; and the first audio event has a first audio profile configured to be presented over a first channel (402; 404) for playback, and the first set of data is encoded to a second audio profile configured to be presented over the first channel for playback, wherein the audio profile of the first audio event has a first amplitude that is higher than a second amplitude of the audio profile of the first set of the data such that playback of the second audio profile is masked by auditory masking by the first audio profile during playback of the first media content item; and transmitting , to a second electronic device , the modified first media content item; wherein the audio profile of the first set of data has a frequency profile that corresponds to a frequency profile of the audio profile of the first audio event .
A crystalline dry powder composition comprising a plurality of microcrystalline particles of 3,6-bis(N-fumaryl-4-aminobutyl)-2,5-diketopiperazine, uniform in size, having a hollow spherical structure and comprising a shell comprising crystallites of the 3,6-bis(N-fumaryl-4-aminobutyl)-2,5-diketopiperazine that do not self-assemble in a suspension, wherein the particles are formed without the presence of a surfactant by a method comprising: forming the 3,6-bis(N-4-aminobutyl)-2,5-diketopiperazine particles in a suspension having a bimodal distribution in the particle sizes which range from about 0.05 μm to about 10 μm; atomizing the suspension using a spray dryer under an air or gas stream, and reforming particles by spray-drying to form the dry powder, wherein up to 92% of the microcrystalline particles have a volumetric median geometric diameter of ≤ 5.8 μm.
An air data probe comprising: a body ; a mount adjacent to the body ; a primary low ice adhesion surface coating on a primary impact region of the air data probe, the primary impact region being positioned for direct impact with water drops; and a secondary low ice adhesion surface coating on a secondary impact region of the air data probe, the secondary impact region being positioned for indirect contact by water drops, wherein the secondary low ice adhesion surface coating is configured to decrease the amount of ice that forms in the secondary impact region ; characterized in that the primary low ice adhesion surface coating has a different composition than the secondary low ice adhesion surface coating ; wherein the primary low ice adhesion surface coating is configured to prevent ice from forming in the primary impact region . a body ; a mount adjacent to the body ; a primary low ice adhesion surface coating on a primary impact region of the air data probe, the primary impact region being positioned for direct impact with water drops; and a secondary low ice adhesion surface coating on a secondary impact region of the air data probe, the secondary impact region being positioned for indirect contact by water drops, wherein the secondary low ice adhesion surface coating is configured to decrease the amount of ice that forms in the secondary impact region ; characterized in that the primary low ice adhesion surface coating has a different composition than the secondary low ice adhesion surface coating ; wherein the primary low ice adhesion surface coating is configured to prevent ice from forming in the primary impact region .
A method for embedding a deterministic number of dopant atoms in a surface portion of a group IV semiconductor lattice, the method comprising the steps of: a) forming one or more lithographic sites on the surface portion; b) dosing, at a temperature below 100 K, the surface portion using a gas with molecules comprising the dopant atom and hydrogen atoms in a manner such that, a portion of the molecules bonds to the surface portion; and c) incorporating one or more dopant atoms in a respective lithographic site by transferring an amount of energy to the dopant atoms; wherein the number of dopant atoms incorporated in a lithographic site is deterministic and related to the size of the lithographic site. a) forming one or more lithographic sites on the surface portion; b) dosing, at a temperature below 100 K, the surface portion using a gas with molecules comprising the dopant atom and hydrogen atoms in a manner such that, a portion of the molecules bonds to the surface portion; and c) incorporating one or more dopant atoms in a respective lithographic site by transferring an amount of energy to the dopant atoms;
A Method for determining a flow rate of a fluid flowing in a chamber and a concentration of particles of the fluid, the method comprising steps of: - producing an ultrasound beam, of a given frequency selected in the scattering frequency range of said particles, by means of a first transducer , in such a way that all fluid components traveling through an intersection region (I) between the ultrasound beam and the chamber are insonated by the first transducer ; - receiving Doppler-shifted ultrasound signals generated by the fluid components in said insonated region of the chamber by means of a second transducer ; - acquiring the ultrasound signals received by the second transducer during an acquisition time; - obtaining a Doppler Power Spectrum of the acquired ultrasound signals; - determining the flow rate of the fluid flowing in the chamber and the concentration of said particles of the fluid in the insonated region, characterized in that the flow rate of the fluid flowing in the chamber and the concentration of said particles of the fluid in the insonated region are determined by adjustment between, on the one hand, the obtained Doppler Power Spectrum and, on the other hand, a model expressing the Doppler Power Spectrum as a function of the flow rate of the fluid in the insonated region of the chamber, the concentration of said particles of the fluid in the insonated region, the cross-sectional area of the chamber taken perpendicular to the flow direction, the width of the intersection between the ultrasound beam and the chamber taken parallel to the flow direction. - producing an ultrasound beam, of a given frequency selected in the scattering frequency range of said particles, by means of a first transducer , in such a way that all fluid components traveling through an intersection region (I) between the ultrasound beam and the chamber are insonated by the first transducer ; - receiving Doppler-shifted ultrasound signals generated by the fluid components in said insonated region of the chamber by means of a second transducer ; - acquiring the ultrasound signals received by the second transducer during an acquisition time; - obtaining a Doppler Power Spectrum of the acquired ultrasound signals; - determining the flow rate of the fluid flowing in the chamber and the concentration of said particles of the fluid in the insonated region, - acquiring the ultrasound signals received by the second transducer during an acquisition time; - obtaining a Doppler Power Spectrum of the acquired ultrasound signals; - determining the flow rate of the fluid flowing in the chamber and the concentration of said particles of the fluid in the insonated region,
A method for transmitting data, the method comprising: modulating , by a transmitting device, data bits with a constellation to produce modulated data symbols; precoding , by the transmitting device, the modulated data symbols to obtain ns groups of precoded samples, wherein ns is equal to a number of non-zero terms in a sparse code associated with the transmitting device or a user device, and wherein each group of precoded samples comprises N samples, wherein N is length of a Fourier transform applied during precoding, mapping , by the transmitting device, the ns groups of precoded samples to K groups of sparse code multiple access, SCMA, resources, wherein the total number of SCMA resources is K × N , and each group of SCMA resources is a group of subcarriers in accordance with the sparse code associated with the transmitting device, to obtain a plurality of subcarrier-mapped samples; transforming , by the transmitting device, the plurality of subcarrier-mapped samples into encoded data symbols; and transmitting , by the transmitting device, the encoded data symbols; wherein the transmitting device is a user equipment, the sparse code is associated with the transmitting device, and transmitting the encoded data symbols comprises an uplink transmission from the user equipment to a base station; or wherein the transmitting device is a base station and the user device is a user equipment, the sparse code is associated with the user device, and transmitting the encoded data symbols comprises a downlink transmission from the base station to the user equipment. modulating , by a transmitting device, data bits with a constellation to produce modulated data symbols; precoding , by the transmitting device, the modulated data symbols to obtain ns groups of precoded samples, wherein ns is equal to a number of non-zero terms in a sparse code associated with the transmitting device or a user device, and wherein each group of precoded samples comprises N samples, wherein N is length of a Fourier transform applied during precoding, mapping , by the transmitting device, the ns groups of precoded samples to K groups of sparse code multiple access, SCMA, resources, wherein the total number of SCMA resources is K × N , and each group of SCMA resources is a group of subcarriers in accordance with the sparse code associated with the transmitting device, to obtain a plurality of subcarrier-mapped samples; transforming , by the transmitting device, the plurality of subcarrier-mapped samples into encoded data symbols; and transmitting , by the transmitting device, the encoded data symbols; wherein the transmitting device is a user equipment, the sparse code is associated with the transmitting device, and transmitting the encoded data symbols comprises an uplink transmission from the user equipment to a base station; or wherein the transmitting device is a base station and the user device is a user equipment, the sparse code is associated with the user device, and transmitting the encoded data symbols comprises a downlink transmission from the base station to the user equipment.
A method of making a powder for inhalation comprising: a) a first step of mixing, blending or sieving a force-controlling agent with particles of one or more pharmacologically active materials in order to obtain a mixture wherein the particles of said force-controlling agent are disposed on the surface of the active particles as either a particulate coating, or as a continuous or discontinuous film; and then b) a second step of mixing or blending said mixture with a carrier material; characterised in that the mixing or blending in steps a) and b) is carried out in a diffusion blender, tumble blender, bin blender or conical blender, the sieving is carried out in a sieve having a size of 25 to 250 micrometres; the force- controlling agent is magnesium stearate; and the carrier material is selected from mono- or di-saccharides such as glucose, lactose, lactose mono-hydrate, sucrose or trehalose; sugar alcohols such as mannitol or xylitol; polylactic acid; or mixtures thereof and has a mean particle diameter of 50 to 500 micrometres a) a first step of mixing, blending or sieving a force-controlling agent with particles of one or more pharmacologically active materials in order to obtain a mixture wherein the particles of said force-controlling agent are disposed on the surface of the active particles as either a particulate coating, or as a continuous or discontinuous film; and then b) a second step of mixing or blending said mixture with a carrier material;
Cooling rotating interface for a propulsion oriented device pivotable relative to a vessel around an axis of rotation , the cooling rotating interface including an air box intended to be attached to the vessel, and an air diffuser intended to be attached to the propulsion oriented device, and including a main portion being a solid of revolution around the axis of rotation characterized in that the air box comprises : - an upper cylinder of revolution and a lower cylinder of revolution , each having a circular axial cross-section around the axis of rotation , the diameter (d16) of the lower cylinder of revolution being strictly greater than the diameter (d14) of the upper cylinder of revolution , and - an upper duct and a lower duct , in that the air diffuser comprises : - a peripheral portion surrounding the main portion and radially located outwards from the lower cylinder and axially located right below said lower cylinder , the main portion being located radially inside the lower cylinder , and comprising an inner cylinder of revolution circular around the axis of rotation and having a diameter (d42) equal to the diameter of the upper cylinder of revolution and a truncated cone having a first circular end and a second circular end , the second circular end having a larger diameter than the first circular end , the first circular end being preferably intended to be closer to the vessel than the second circular end , and in that the main portion delimits a first fluid path inside the inner cylinder of revolution and the truncated cone through the upper cylinder and the upper duct and a second fluid path, between the inner cylinder of revolution and the lower cylinder of revolution through the lower duct . - an upper cylinder of revolution and a lower cylinder of revolution , each having a circular axial cross-section around the axis of rotation , the diameter (d16) of the lower cylinder of revolution being strictly greater than the diameter (d14) of the upper cylinder of revolution , and - an upper duct and a lower duct , in that the air diffuser comprises : - a peripheral portion surrounding the main portion and radially located outwards from the lower cylinder and axially located right below said lower cylinder , the main portion being located radially inside the lower cylinder , and comprising an inner cylinder of revolution circular around the axis of rotation and having a diameter (d42) equal to the diameter of the upper cylinder of revolution and a truncated cone having a first circular end and a second circular end , the second circular end having a larger diameter than the first circular end , the first circular end being preferably intended to be closer to the vessel than the second circular end , and in that the main portion delimits a first fluid path inside the inner cylinder of revolution and the truncated cone through the upper cylinder and the upper duct and a second fluid path, between the inner cylinder of revolution and the lower cylinder of revolution through the lower duct .