mhurhangee/ep-ind-claims huggingface dataset:
Turbomachine comprising - a stator with at least one stator component (111, 1111, 1112)); - a rotor with at least one rotor component; - at least one cavity between the rotor and the stator; - at least one working fluid channel for channeling a working fluid for driving the rotor, wherein - the working fluid channel is bordered by the stator component and the rotor component; - the stator component (111, 1111, 1112) comprises at least one coolant fluid channel for cooling the stator component (111, 1111, 1112) with the aid of a coolant fluid; and - at least one separation barrier is arranged between the cavity and the coolant fluid channel for separating the working fluid channel and the coolant fluid channel from each other; characterized in that - the separation barrier comprises at least two piston rings (151, 152); - the two piston rings (151, 152) are axially arranged to each other defining a piston ring space between the piston rings (151, 152); - the piston ring space is a part of the coolant fluid channel; and - the piston rings (151, 152) are in sliding contact with a first one of the stator component (111, 1111, 1112). - a stator with at least one stator component (111, 1111, 1112)); - a rotor with at least one rotor component; - at least one cavity between the rotor and the stator; - at least one working fluid channel for channeling a working fluid for driving the rotor, wherein - the working fluid channel is bordered by the stator component and the rotor component; - the stator component (111, 1111, 1112) comprises at least one coolant fluid channel for cooling the stator component (111, 1111, 1112) with the aid of a coolant fluid; and - at least one separation barrier is arranged between the cavity and the coolant fluid channel for separating the working fluid channel and the coolant fluid channel from each other; - the separation barrier comprises at least two piston rings (151, 152); - the two piston rings (151, 152) are axially arranged to each other defining a piston ring space between the piston rings (151, 152); - the piston ring space is a part of the coolant fluid channel; and - the piston rings (151, 152) are in sliding contact with a first one of the stator component (111, 1111, 1112).
A method for mapping control channel resources, comprising: determining by a base station, according to a system configuration and an actual transmission condition, a number of enhanced control channel elements E-CCEs multiplexed in one resource block pair, wherein the E-CCEs are borne over resource elements REs for transmission in the resource block pair, and the E-CCEs constitute an enhanced physical downlink control channel E-PDCCH; wherein the system configuration includes: at least one of the subframe type, a number of OFDM symbols occupied by a PDCCH, a Cell-specific Reference Signal, CRS, configuration, and a Channel State Information - Reference Signal, CSI-RS configuration; wherein the actual transmission condition includes: at least one of a Demodulation Reference Signal, DMRS, configuration and a number of data transmission layers; wherein the determining, according to a system configuration and an actual transmission condition, the number of E-CCEs multiplexed in one resource block pair, is based on a mapping between values of influencing factors and the value of the number of E-CCEs, the mapping being preset and known to both the base station and a user equipment and sending the E-PDCCH to the user equipment; wherein the determining, according to the system configuration and the actual transmission condition, the number of E-CCEs multiplexed in one resource block pair comprises: determining, according to a subframe type of a subframe for locating the E-PDCCH, the number of the E-CCEs multiplexed in one resource block pair. determining by a base station, according to a system configuration and an actual transmission condition, a number of enhanced control channel elements E-CCEs multiplexed in one resource block pair, wherein the E-CCEs are borne over resource elements REs for transmission in the resource block pair, and the E-CCEs constitute an enhanced physical downlink control channel E-PDCCH; wherein the system configuration includes: at least one of the subframe type, a number of OFDM symbols occupied by a PDCCH, a Cell-specific Reference Signal, CRS, configuration, and a Channel State Information - Reference Signal, CSI-RS configuration; wherein the actual transmission condition includes: at least one of a Demodulation Reference Signal, DMRS, configuration and a number of data transmission layers; wherein the determining, according to a system configuration and an actual transmission condition, the number of E-CCEs multiplexed in one resource block pair, is based on a mapping between values of influencing factors and the value of the number of E-CCEs, the mapping being preset and known to both the base station and a user equipment and sending the E-PDCCH to the user equipment; wherein the determining, according to the system configuration and the actual transmission condition, the number of E-CCEs multiplexed in one resource block pair comprises: determining, according to a subframe type of a subframe for locating the E-PDCCH, the number of the E-CCEs multiplexed in one resource block pair.
A method of producing synthetic FeS 2 comprising: reacting Fe 2 O 3 with elemental S 8 sulfur and hydrogen sulfide in an inert atmosphere at a temperature of from 125°C to below 400°C for a period of time sufficient to form synthetic FeS 2 particles. reacting Fe 2 O 3 with elemental S 8 sulfur and hydrogen sulfide in an inert atmosphere at a temperature of from 125°C to below 400°C for a period of time sufficient to form synthetic FeS 2 particles.
A system, comprising: a signal generator configured to generate a test signal for a frequency band, the test signal including at least two simultaneous frequency-modulated tones, the at least two simultaneous frequency-modulated tones having different frequencies within the frequency band, the test signal including an amplitude-modulated envelope including at least one of the at least two simultaneous frequency-modulated tones, the amplitude-modulated envelope causing the test signal to periodically sweep between a carrier amplitude of the amplitude-modulated envelope and a modulation amplitude of the amplitude-modulated envelope greater than the carrier amplitude; a controller configured to receive user input indicating a gain value; a multi-band compressor coupled to the signal generator and configured to adjust an amplitude of the test signal in the frequency band based on the gain value to generate an adjusted test signal; and an audio transducer coupled to the multi-band compressor and configured to generate an audio signal based on the adjusted test signal, wherein the controller is further configured to determine a distortion threshold for the frequency band based on the gain value. a signal generator configured to generate a test signal for a frequency band, the test signal including at least two simultaneous frequency-modulated tones, the at least two simultaneous frequency-modulated tones having different frequencies within the frequency band, the test signal including an amplitude-modulated envelope including at least one of the at least two simultaneous frequency-modulated tones, the amplitude-modulated envelope causing the test signal to periodically sweep between a carrier amplitude of the amplitude-modulated envelope and a modulation amplitude of the amplitude-modulated envelope greater than the carrier amplitude; a controller configured to receive user input indicating a gain value; a multi-band compressor coupled to the signal generator and configured to adjust an amplitude of the test signal in the frequency band based on the gain value to generate an adjusted test signal; and an audio transducer coupled to the multi-band compressor and configured to generate an audio signal based on the adjusted test signal, wherein the controller is further configured to determine a distortion threshold for the frequency band based on the gain value.
A method of making a composite sandwich panel comprising the steps of (i) making a core structure, (ii) making at least one facesheet, (iii) bonding at least one of the at least one facesheets to the core structure, wherein growth of a carbon nanotube structure is achieved during the making the core structure and occurs on or inside of the core structure and wherein the core structure is a honeycomb core, a folded core, a foam core, a metallic micro-lattice core, a truss core, a micro-scale truss core or some combination thereof. (i) making a core structure, (ii) making at least one facesheet, (iii) bonding at least one of the at least one facesheets to the core structure,
A method of enhancing the sweetness of sweetener in a food or beverage product comprising adding Naringenin to the product in an amount of 30 ppm to 200 ppm by weight of the total weight of the product wherein the Naringenin does not block the bitter taste of the product when compared to the food or beverage without Naringenin.
Device for forming a composite panel from a thermoplastic matrix reinforced with continuous carbon, glass or aramid fibers, said panel comprising machined holes (121, 122), intended to receive elements for positioning said panel during the heating and forming thereof, said device comprising: b. a frame; c. a plurality of cleats, adjustable in position, fixed onto said frame and extending into the interior thereof, delimiting an internal opening surface of the frame, free from any obstacle; d. a centering device rigidly connected to one cleat and suitable for engaging with a hole machined in the panel; e. characterized in that the cleat comprising the centering device is formed from a material wherein the thermal diffusivity is at least 10 times greater than the thermal diffusivity of the polymer forming the matrix of the panel, such that said cleat forms a heat sink. b. a frame; c. a plurality of cleats, adjustable in position, fixed onto said frame and extending into the interior thereof, delimiting an internal opening surface of the frame, free from any obstacle; d. a centering device rigidly connected to one cleat and suitable for engaging with a hole machined in the panel; e. characterized in that the cleat comprising the centering device is formed from a material wherein the thermal diffusivity is at least 10 times greater than the thermal diffusivity of the polymer forming the matrix of the panel, such that said cleat forms a heat sink.
A liquid enteral nutritional composition comprising protein, said protein providing 15 % to 30 % of the total energy content of the composition, said protein including micellar casein and caseinate, the composition having an energy density of at least 10 kJ/ml [2.4 kcal/ml], wherein the weight ratio of micellar casein to caseinate ranges from 80:20 to 40:60, wherein said composition comprises less than or equal to 15 weight% whey of the total protein, and wherein the combined amount of micellar casein and caseinate is at least 85 weight% of total protein.
An imaging device comprising: - at least one photonic integrated circuit comprising: an integrated waveguide for guiding a light signal, and a light coupler and at least one further light coupler optically coupled to the integrated waveguide, the light coupler being adapted for directing the light signal out of the plane of the integrated waveguide as a light beam, the at least one further light coupler being adapted for directing the light signal out of the plane of the integrated waveguide as at least one further light beam, wherein each of said light coupler and the at least one further light coupler is a light propagating region in the photonic integrated circuit that comprises a light dispersing structure for coupling light out of the integrated circuit; - a microfluidic channel for containing an object immersed in a fluid medium, said microfluidic channel being configured to enable, in operation of the device, illumination of said object by said light beam, wherein the light coupler and the at least one further light coupler are positioned such that the light beam and the at least one further light beam generated by respectively the light coupler and the at least one further light coupler simultaneously illuminate the object from different angles for allowing recording 3D information of said object; and - at least one imaging detector positioned for imaging said object illuminated by the light beam, the imaging device being a lens-free imaging device, wherein the imaging detector is configured to obtain a spatial pattern of the illuminated said object. - at least one photonic integrated circuit comprising: an integrated waveguide for guiding a light signal, and a light coupler and at least one further light coupler optically coupled to the integrated waveguide, the light coupler being adapted for directing the light signal out of the plane of the integrated waveguide as a light beam, the at least one further light coupler being adapted for directing the light signal out of the plane of the integrated waveguide as at least one further light beam, wherein each of said light coupler and the at least one further light coupler is a light propagating region in the photonic integrated circuit that comprises a light dispersing structure for coupling light out of the integrated circuit; - a microfluidic channel for containing an object immersed in a fluid medium, said microfluidic channel being configured to enable, in operation of the device, illumination of said object by said light beam, wherein the light coupler and the at least one further light coupler are positioned such that the light beam and the at least one further light beam generated by respectively the light coupler and the at least one further light coupler simultaneously illuminate the object from different angles for allowing recording 3D information of said object; and - at least one imaging detector positioned for imaging said object illuminated by the light beam, the imaging device being a lens-free imaging device, wherein the imaging detector is configured to obtain a spatial pattern of the illuminated said object.
Composition that contains a first semiconductor SC1 selected from among TiO 2, Bi 2 S 3, Bi 2 O 3, Fe 2 O 3, ZnO, WO 3, CuO, ZnFe 2 O 4, MoS 2, and In 3, particles comprising one or more element(s) M in the metal state that are selected from among a precursor of platinum, palladium, gold, nickel, cobalt, ruthenium, silver, copper, rhenium, or rhodium, and a second semiconductor SC2 that comprises indium oxide and does not contain an element of the group of metals other than indium, with said first semiconductor SC1 being in direct contact with said particles that comprise one or more element(s) M in the metal state, with said particles being in direct contact with said second semiconductor SC2 that comprises indium oxide in such a way that the second semiconductor SC2 covers at least 50% of the surfaces of the particles that comprise one or more element(s) M in the metal state, the covering rate is measured by X-ray photoelectron spectrometry, and in which said first semiconductor SC1 forms a substrate, said substrate contains on its surface core-shell-type particles, with said shell being formed by said semiconductor SC2 that comprises indium oxide, said core being formed by said particles that comprise one or more element(s) M in the metal state.
A portable terminal adapted to reproduce content in which a video picture and a caption relating to said video picture are multiplexed, said portable terminal comprising: a speaker; an earphone output circuit; a display; and reception means adapted to receive a multiplexed TV signal that contains said video picture, a sound signal and caption and to separate said video picture, sound signal and caption from the received multiplexed TV signal; the portable terminal characterized in that it further comprises control means including a character detection means for detecting a character string contained in said video picture to be displayed, said control means being adapted, when said reproduction function is being executed in a state in which an operation mode for halting output of sound from said speaker has been selected while no earphone is connected to the earphone output and said character string is not detected by said detection means, to halt output of sound from said speaker and to display on said display said video picture and said caption; and said control means being also adapted, when said reproduction function is being executed in a state in which said operation mode for halting output of sound from said speaker has been selected while no earphone is connected to the earphone output and said character string is detected by said detection means, to halt output of sound from said speaker and halt display of said caption, and to display said video picture including the character string on said display. a speaker; an earphone output circuit; a display; and reception means adapted to receive a multiplexed TV signal that contains said video picture, a sound signal and caption and to separate said video picture, sound signal and caption from the received multiplexed TV signal; the portable terminal characterized in that it further comprises control means including a character detection means for detecting a character string contained in said video picture to be displayed, said control means being adapted, when said reproduction function is being executed in a state in which an operation mode for halting output of sound from said speaker has been selected while no earphone is connected to the earphone output and said character string is not detected by said detection means, to halt output of sound from said speaker and to display on said display said video picture and said caption; and said control means being also adapted, when said reproduction function is being executed in a state in which said operation mode for halting output of sound from said speaker has been selected while no earphone is connected to the earphone output and said character string is detected by said detection means, to halt output of sound from said speaker and halt display of said caption, and to display said video picture including the character string on said display.
A saturated water generating device, comprising a thermal receptor with a cavity inside, an inflow pipe of high pressure liquid connected into the cavity of the thermal receptor, a heat source locatel outside the thermal receptor and a pillar set in the cavity of the thermal receptor; wherein said heat source is used to heat the cavity of the thermal receptor; said pillar is set with tiny channels, and set between the pillar and the termal receptor said high pressure liquid is heated to generate saturated water in the tiny channels, characterized in that, the tiny channels include a gap between the outer surface of the pillar and the inner surface of the thermal receptor, and/or at least one thin groove on the outer surface of the pillar, and that a thermal conductor embedded inside said pillar is located on the end close to the said high-pressure liquid of the said pillar, wherein the thermal conductor is used to strengthen the saturated water heated and for heat balance of the saturated water.
A system for imaging retinal tissues of an eye which comprises: a laser means comprising a laser unit for directing an input beam of light onto a target tissue to be imaged, wherein the input beam includes a plurality of femto-second pulses having a wavelength " λ i " and wherein the input beam generates a return beam from the target tissue having a first component of fluorescent green light with a wavelength "λ r1 ", for example approximately 530nm, in response to a first target tissue, and a second component of blue light with a wavelength " λ r2 ", for example approximately 390nm, in response to a second target tissue, and further wherein λ i ≠ λ r1 ≠λ r2; a sensor unit for evaluating light returned from the retina to identify optical and phase aberrations introduced into the return beam by components of the eye; a compensator for altering the input beam to compensate the input beam by removing optical and phase aberrations identified by the sensor therefrom; and an imaging unit for selecting a component of the return beam, λ r1 vis-a-vis λ r2, for use in imaging one of the target tissues, wherein the first component of the return beam is used by the imaging unit to image the first target tissue, Retina Pigment Epithelium, and the second component of the return beam is used by the imaging unit to image the second target tissue, Lamina Cribrosa, wherein the wavelength of the input beam λ i is 780 nm, the first component of the return beam is generated by Two Photon Excited Fluorescence and wherein the second component of the return beam is generated by Second Harmonic Generation. a laser means comprising a laser unit for directing an input beam of light onto a target tissue to be imaged, wherein the input beam includes a plurality of femto-second pulses having a wavelength " λ i " and wherein the input beam generates a return beam from the target tissue having a first component of fluorescent green light with a wavelength "λ r1 ", for example approximately 530nm, in response to a first target tissue, and a second component of blue light with a wavelength " λ r2 ", for example approximately 390nm, in response to a second target tissue, and further wherein λ i ≠ λ r1 ≠λ r2; a sensor unit for evaluating light returned from the retina to identify optical and phase aberrations introduced into the return beam by components of the eye; a compensator for altering the input beam to compensate the input beam by removing optical and phase aberrations identified by the sensor therefrom; and an imaging unit for selecting a component of the return beam, λ r1 vis-a-vis λ r2, for use in imaging one of the target tissues, wherein the first component of the return beam is used by the imaging unit to image the first target tissue, Retina Pigment Epithelium, and the second component of the return beam is used by the imaging unit to image the second target tissue, Lamina Cribrosa, wherein the wavelength of the input beam λ i is 780 nm, the first component of the return beam is generated by Two Photon Excited Fluorescence and wherein the second component of the return beam is generated by Second Harmonic Generation.
An implant (100, 1201) for insertion in to bone to treat infection, the implant having a collapsed insertion configuration and an expanded deployed configuration, the implant comprising: a plurality of arms (121, 401, 401', 1205, 2101) configured to extend from the implant in the deployed configuration, wherein each of the arms comprises a reservoir of silver configured to be released from the implant into the bone; an elongate and rigid guide (103, 1203, 2003) comprising a plurality of deflection pathways, wherein the plurality of arms are movably coupled to the elongate guide so that they may be extended from the deflection pathways and deployed to different bone regions to convert the implant from the collapsed insertion configuration into the expanded deployed configuration; and a silver-release driver (300, 2100, 2117) coupled to the reservoirs of silver to drive release of silver ions from each of the plurality of arms. a plurality of arms (121, 401, 401', 1205, 2101) configured to extend from the implant in the deployed configuration, wherein each of the arms comprises a reservoir of silver configured to be released from the implant into the bone; an elongate and rigid guide (103, 1203, 2003) comprising a plurality of deflection pathways, wherein the plurality of arms are movably coupled to the elongate guide so that they may be extended from the deflection pathways and deployed to different bone regions to convert the implant from the collapsed insertion configuration into the expanded deployed configuration; and a silver-release driver (300, 2100, 2117) coupled to the reservoirs of silver to drive release of silver ions from each of the plurality of arms.