mhurhangee/ep-ind-claims huggingface dataset:
A medical device comprising a substrate, having on its surface, on at least a part thereof, a hydrophilic surface layer providing low-friction surface character of the medical device when wetted by a wetting fluid, wherein at least one base layer of the substrate, said base layer including said hydrophilic surface layer, is made of a polymer blend comprising at least one base polymer and at least one hydrophilic polymer, and wherein the concentration of said at least one hydrophilic polymer is higher in the hydrophilic surface layer than in the rest of the base layer, the material composition of the hydrophilic surface layer when in a dry state comprising at least 80 wt% of the at least one hydrophilic polymer, and the polymer blend in the interior of the base layer comprising 25-75 wt% of the at least one hydrophilic polymer, and wherein the polymers in said hydrophilic surface layer are crosslinked.
A method for wireless communication by a transmitting entity, comprising: signaling, to a receiving entity, information regarding a relationship between beams used for data and control transmissions to the receiving entity, wherein the information indicates a measure of correlation between beam shapes applied in control and data regions and wherein the information indicates an assumed degree of quasi-colocation, QCL, between the beams used for data and control transmission; and sending the data and control transmissions using the beams. signaling, to a receiving entity, information regarding a relationship between beams used for data and control transmissions to the receiving entity, wherein the information indicates a measure of correlation between beam shapes applied in control and data regions and wherein the information indicates an assumed degree of quasi-colocation, QCL, between the beams used for data and control transmission; and sending the data and control transmissions using the beams.
An electronic device comprising: an insulating substrate; a conductor layer provided on the insulating substrate; an electronic element provided on the conductor layer; a connection body connected to a front surface of the electronic element via a conductive adhesive; and a sealing part sealing the conductor layer and the electronic element inside; wherein the connection body has a head part connected to the front surface of the electronic element, a first terminal extending from the head part and projecting outward from the sealing part, and a second terminal extending from the head part in an opposite direction of the first terminal and projecting outward from the sealing part. an insulating substrate; a conductor layer provided on the insulating substrate; an electronic element provided on the conductor layer; a connection body connected to a front surface of the electronic element via a conductive adhesive; and a sealing part sealing the conductor layer and the electronic element inside; wherein the connection body has a head part connected to the front surface of the electronic element, a first terminal extending from the head part and projecting outward from the sealing part, and a second terminal extending from the head part in an opposite direction of the first terminal and projecting outward from the sealing part.
An implant for implantation in a body cavity and for tissue in-growth before significant bio-absorption of the implant, the implant comprising a porous body formed of a bioabsorbable material having surface pores of between 20 and 80 μm in size and interior pores of between 50 and 200 μm in size, a radiopaque imaging agent which facilitates imaging of exterior margins of the implant and an interior orientation marker spaced inwardly from the exterior margins of the implant to facilitate relative orientation between the implant and a radiation source, characterized in that the bioabsorbable material comprises at least in part a bioabsorbable chitosan or alginate.
An inspection system for inspecting an object, the inspection system comprising: an omnidirectional camera for capturing an image 360° around; a movement device configured to cause the object to circle 360° around the omnidirectional camera in a state where a posture of the object is maintained relative to the movement device; an acquisition unit configured to output a capturing instruction to the omnidirectional camera at a plurality of timings while the movement device causes the object to circle around the omnidirectional camera, the acquisition unit being configured to acquire, from the omnidirectional camera, a plurality of input images indicating the object from different directions; and an inspector configured to inspect the object by using the plurality of input images, wherein the omnidirectional camera includes an omnidirectional mirror and a capturing unit, and the omnidirectional mirror is configured to reflect light received from 360° around and to guide the reflected light to the capturing unit. an omnidirectional camera for capturing an image 360° around; a movement device configured to cause the object to circle 360° around the omnidirectional camera in a state where a posture of the object is maintained relative to the movement device; an acquisition unit configured to output a capturing instruction to the omnidirectional camera at a plurality of timings while the movement device causes the object to circle around the omnidirectional camera, the acquisition unit being configured to acquire, from the omnidirectional camera, a plurality of input images indicating the object from different directions; and an inspector configured to inspect the object by using the plurality of input images, wherein the omnidirectional camera includes an omnidirectional mirror and a capturing unit, and the omnidirectional mirror is configured to reflect light received from 360° around and to guide the reflected light to the capturing unit.
A fabric mounting system adapted to extend a fabric covering at least a part of a wall or ceiling, including at least a first mounting profile having a longitudinal direction and being adapted to be mounted to the wall or ceiling and at least one first fabric retaining element engaging the first mounting profile and being adapted to retain a first edge of the fabric, the first fabric retaining element having a first leg and a second leg being resiliently biased in relation to each other so that the first leg is urged against a first supporting face of the first mounting profile and the second leg is urged against a second supporting face of the first mounting profile, characterised in that the first and the second supporting faces (9, 10) of the first mounting profile are mutually tapered in such a tapering direction that the resilient bias of the first and second legs (7, 8) of the first fabric retaining element urges the first and second legs (7, 8) to slide along the first and the second supporting faces (9, 10), respectively, to thereby displace the first fabric retaining element in a direction generally against the tapering direction and in a fabric tensioning direction being transverse to the longitudinal direction of the first mounting profile in order to stretch the fabric in its retained position, in that the first fabric retaining element is substantially V-formed and forms a bent edge connecting its first and second legs (7, 8), in that both the bent edge and a free end of the first leg abut the first supporting face of the first mounting profile and thereby are adapted to pinch the first edge of the fabric against the first supporting face, in that a free end of the second leg abuts the second supporting face of the first mounting profile, and in that the fabric tensioning direction is directed at least substantially from the bent edge in the direction of the free end of the first leg.
A method for manufacturing a compound represented by the formula: wherein a compound represented by the formula: is reacted with azidotrimethylsilane in the presence of titanium isopropoxide to crystallize the compound represented by the formula in the resulting reaction solution, followed by adding hydroxycarboxylic acid and then an aqueous sodium nitrite solution to the reaction solution and isolating the compound represented by the formula from the reaction solution.
A button for keyboard, incudes: - a body of the button, - a contact element with a contact layer, said contact element being positioned on underside of the body of the button, - a spring element made of elastic material providing necessary working stroke of the button and its returning to a starting position, - a detachable cap which is detachably attached to a upper surface of the body of the button, wherein on a upper surface of the detachable cap, wich forms a contact-working surface of the button, is located an inscription indicating a function of the button, wherein the detachable cap has a head and at least one coupling element projecting from lower side of the detachable cap, and for attachment of said detachable cap to said body of the button said at least one coupling element is inserted in a corresponding in shape and position at least one coupling opening provided in the body of the button, and in that the body of the button and the spring element are formed as one piece of same elastic material. - a body of the button, - a contact element with a contact layer, said contact element being positioned on underside of the body of the button, - a spring element made of elastic material providing necessary working stroke of the button and its returning to a starting position, - a detachable cap which is detachably attached to a upper surface of the body of the button, wherein on a upper surface of the detachable cap, wich forms a contact-working surface of the button, is located an inscription indicating a function of the button,
A decoding system for reconstructing an n-channel audio signal, wherein the decoding system is adapted to receive an input signal segmented into time frames and representing the audio signal, in a given time frame, according to a coding regime selected from the group comprising: - parametric coding (P; P, P), in which the input signal comprises m channels and at least one mixing parameter (α), where n > m ≥ 1; and - discrete coding (D; Discr.), in which the input signal comprises the n channels discretely encoded, the decoding system being operable to derive the audio signal at least - in a parametric mode (PM; 1301) of the decoding system, by spatial synthesis guided by said at least one mixing parameter from a current frame, and, - in a discrete mode (DM; 1303) of the decoding system, on the basis of said n discretely encoded channels, the decoding system comprising a controller for controlling the mode of the decoding system on the basis of at least a current mode of the decoding system and a current received frame of the input signal, such as by performing a mode transition into a mode corresponding to a coding regime of the current received frame, wherein the controller is configured to respond to receipt of a defective frame (Def.), when in the parametric mode, by entering a keep mode (KM; 1302), in which the decoding system derives the audio signal by spatial synthesis taking as input m channels from the defective frame and being guided by at least one mixing parameter from a previous frame, wherein the decoding system is adapted to receive the input signal representing the audio signal according to parametric coding by either an independent frame (P) or a predicted frame (P), wherein said at least one mixing parameter in a current predicted frame is decodable only after decoding a preceding independent frame, wherein the controller is further configured to respond to receipt of a predicted frame, when in the keep mode, by remaining in the keep mode, or wherein the controller is further configured to respond to receipt of a predicted frame, when in the discrete coding mode, by deriving the audio signal on the basis of said m channels without guidance by a mixing parameter. - parametric coding (P; P, P), in which the input signal comprises m channels and at least one mixing parameter (α), where n > m ≥ 1; and - discrete coding (D; Discr.), in which the input signal comprises the n channels discretely encoded, the decoding system being operable to derive the audio signal at least - in a parametric mode (PM; 1301) of the decoding system, by spatial synthesis guided by said at least one mixing parameter from a current frame, and, - in a discrete mode (DM; 1303) of the decoding system, on the basis of said n discretely encoded channels,
A gas replacement method comprising: a step of supplying an inert gas higher in specific gravity than a first gas to a tank filled with the first gas to form a separation layer made of the inert gas below the first gas; and a step of supplying a second gas higher in specific gravity than the inert gas to a lower portion of the tank to sequentially discharge the first gas and the separation layer from an upper portion of the tank. a step of supplying an inert gas higher in specific gravity than a first gas to a tank filled with the first gas to form a separation layer made of the inert gas below the first gas; and a step of supplying a second gas higher in specific gravity than the inert gas to a lower portion of the tank to sequentially discharge the first gas and the separation layer from an upper portion of the tank.
An azeotropic or azeotrope-like composition consisting essentially of from 1 to 30 weight percent hydrogen fluoride, 10 to 70 weight percent trans-1,3,3,3-tetrafluoropropene (HFO-1234ze) and from 10 to 60 weight percent 1,1,1,3,3-pentafluoropropane (HFC-245fa), and having a boiling point of from 0°C to 60°C at a pressure of from 165 kPa (24 psia) to 1207 kPa (175 psia).
A substantially isocyanate free, ambient to low bake temperature (less than 80°C) curable, multicomponent primer composition useful for direct to metal coatings having from 0 to 5 mole per cent (mol %) of -N=C=O groups (i.e. isocyanate groups) based on total moles of carbamate groups plus isocyanate groups in the composition and comprising one or more pigments, extenders and/or fillers, one or more ion-exchanged amorphous silicas containing a metal cation, one or more carboxylic acid compounds that contain one of a benzothiazole, benzoxazole, or benzimidazole group, one or more hydrophobic sulfonic acid catalysts, one or more a) polycarbamates of an alkyd polyol, an acrylic polyol, or their mixtures, and one or more b) polyaldehydes or acetals or hemiacetals thereof in a component separate from the one or more polycarbamates.
Plant for processing incoherent plastics, comprising: - at least one container with at least one inlet of material to be processed, at least one outlet of the processed material, at least one inlet of process gas suitable for processing the material, at least one outlet of gas used for processing the material; - at least one separator (4; 5; 13) with an inlet side and with an outlet side connected to said at least one inlet of process gas; - generating means for generating a gas flow through said separator (4; 5; 13) from said inlet side to said outlet side; - analyzing means for measuring concentration of at least one contaminant in the gas in said container or in the gas coming from said at least one outlet of used gas, said analyzing means comprising at least one analysis instrument; - control means configured to control said plant based on said concentration; characterized in that said at least one analysis instrument is configured to measure concentration of said at least one contaminant by gas chromatographic analysis and in that said at least one contaminant is limonene. - at least one container with at least one inlet of material to be processed, at least one outlet of the processed material, at least one inlet of process gas suitable for processing the material, at least one outlet of gas used for processing the material; - at least one separator (4; 5; 13) with an inlet side and with an outlet side connected to said at least one inlet of process gas; - generating means for generating a gas flow through said separator (4; 5; 13) from said inlet side to said outlet side; - analyzing means for measuring concentration of at least one contaminant in the gas in said container or in the gas coming from said at least one outlet of used gas, said analyzing means comprising at least one analysis instrument; - control means configured to control said plant based on said concentration;
An airflow meter for measuring airflow amount within an air duct, comprising: a flow amount measuring body mounted in said air duct; and a bypass passage, provided in said flow amount measuring body, for causing a part of air flowing through said air duct to flow through said bypass passage, wherein said bypass passage is being formed as an inverted U-shape passage in which two adjoining parallel passages (18a, 18c) are linked by a turning section, one passage thereof being disposed at an upstream side and the other passage thereof being disposed at a downstream side, characterized in that said airflow meter further comprises a flow amount measuring element provided in said upstream side passage within said bypass passage, wherein a passage sectional area of said turning section, which extends parallel to the two adjoining parallel passages (18a, 18c), and a passage sectional area of the whole downstream side passage, which extends perpendicular to the downstream side passage, are set larger than a passage sectional area of said upstream side passage, which extends perpendicular to the upstream side passage, in order to suppress contraction flow generated at the downstream of said turning section; and said downstream side passage is open at an end opposite to the turning section with generally the same passage sectional area as said downstream side passage. a flow amount measuring body mounted in said air duct; and a bypass passage, provided in said flow amount measuring body, for causing a part of air flowing through said air duct to flow through said bypass passage, wherein said bypass passage is being formed as an inverted U-shape passage in which two adjoining parallel passages (18a, 18c) are linked by a turning section, one passage thereof being disposed at an upstream side and the other passage thereof being disposed at a downstream side, characterized in that said airflow meter further comprises a flow amount measuring element provided in said upstream side passage within said bypass passage, wherein a passage sectional area of said turning section, which extends parallel to the two adjoining parallel passages (18a, 18c), and a passage sectional area of the whole downstream side passage, which extends perpendicular to the downstream side passage, are set larger than a passage sectional area of said upstream side passage, which extends perpendicular to the upstream side passage, in order to suppress contraction flow generated at the downstream of said turning section; and said downstream side passage is open at an end opposite to the turning section with generally the same passage sectional area as said downstream side passage.
A system for generating an output signal comprising a high frequency component from an input audio signal comprising a low frequency component using a transposition order T, comprising: an analysis window unit configured to apply an analysis window of a length of L A samples, thereby extracting a frame of the input signal; an analysis transformation unit of order M and having a frequency resolution Δ f configured to transform the L A samples into M complex coefficients; a nonlinear processing unit (643,644, 650), configured to alter the phase of the complex coefficients by using the transposition order T; a synthesis transformation unit of order M and having a frequency resolution Q Δ f, configured to transform the altered coefficients into M time domain samples; wherein Q is a frequency resolution factor smaller than or equal to the transposition order T; and a synthesis window unit configured to apply a synthesis window of a length of L s samples to the M time domain samples, thereby generating a frame of the output signal; wherein L A = L S = L, wherein the transformation order M is M = F • L, and wherein F ≥ Q + 1 2. an analysis window unit configured to apply an analysis window of a length of L A samples, thereby extracting a frame of the input signal; an analysis transformation unit of order M and having a frequency resolution Δ f configured to transform the L A samples into M complex coefficients; a nonlinear processing unit (643,644, 650), configured to alter the phase of the complex coefficients by using the transposition order T; a synthesis transformation unit of order M and having a frequency resolution Q Δ f, configured to transform the altered coefficients into M time domain samples; wherein Q is a frequency resolution factor smaller than or equal to the transposition order T; and a synthesis window unit configured to apply a synthesis window of a length of L s samples to the M time domain samples, thereby generating a frame of the output signal; wherein L A = L S = L, wherein the transformation order M is M = F • L, and wherein F ≥ Q + 1 2.
A method for building a multiparametric model, comprising: measuring seismic, gravity and electromagnetic data relating to a geologic subsurface, characterized in that the method comprises the steps of: performing simultaneous joint inversion of the seismic, gravity and electromagnetic data to produce the multiparametric model; wherein the method further comprises: comparing the multiparametric model with one or more quality requirements, and when the multiparametric model does not meet one or more quality requirements: choosing a modified set of joint inversion parameters; and performing a second iteration of simultaneous joint inversion of the seismic, gravity and electromagnetic data based on the modified set of joint inversion parameters to update the multiparametric model. performing simultaneous joint inversion of the seismic, gravity and electromagnetic data to produce the multiparametric model; wherein the method further comprises: comparing the multiparametric model with one or more quality requirements, and when the multiparametric model does not meet one or more quality requirements: choosing a modified set of joint inversion parameters; and performing a second iteration of simultaneous joint inversion of the seismic, gravity and electromagnetic data based on the modified set of joint inversion parameters to update the multiparametric model. choosing a modified set of joint inversion parameters; and performing a second iteration of simultaneous joint inversion of the seismic, gravity and electromagnetic data based on the modified set of joint inversion parameters to update the multiparametric model.