mhurhangee/ep-ind-claims huggingface dataset:
A method in a user equipment connected to a network node of mobile telecommunication network for determining an interference estimate, the method comprising the steps of: - receiving (301;401) at least a first set of mixing parameters from the network node, the mixing parameters defining a set of interference estimates for at least a first type of resource elements of an OFDM time-frequency grid, - determining (302;402) interference estimates on the at least a first type of resource elements and - determining (303;403) a mixed interference estimate based on interference estimates on the at least a first type of resource elements by applying said received at least first set of mixing parameters to the determined interference estimates. - receiving (301;401) at least a first set of mixing parameters from the network node, the mixing parameters defining a set of interference estimates for at least a first type of resource elements of an OFDM time-frequency grid, - determining (302;402) interference estimates on the at least a first type of resource elements and - determining (303;403) a mixed interference estimate based on interference estimates on the at least a first type of resource elements by applying said received at least first set of mixing parameters to the determined interference estimates.
An isoxazoline of Formula for use in the control of parasite infestations of an animal, wherein an amount of 0.01 to 200 mg/ kg bodyweight of the isoxazoline or a salt of the isoxazoline, or a solvate of the isoxazoline or salt, that is effective to control an ectoparasitic infestation is administered in combination with one or more macrocyclic lactone endectocidal parasiticides selected from ivermectin, abamectin, doramectin, moxidectin, selamectin, milbemycin, emamectin and eprinomectin, at a bi-monthly, quarterly, half-yearly, or longer frequency and wherein the weight ratio of the isoxazoline compound and the macrocyclic lactone endectocidal parasiticides is from 1:3000 to 3000:1.
A method for detecting a latent slow-to-erase bit in a non-volatile memory characterised by; determining a maximum number of soft program pulses used to erase an NVM memory cell during a current erase cycle, the maximum number determined from a plurality of soft program pulse counts of a corresponding plurality of memory cells; determining a rate of change between the maximum number of the soft program pulses of the current erase cycle as compared to a previous maximum number of the soft program pulses of at least one previous erase cycle; and asserting a failure indicator in response to the rate of change exceeding a predetermined first threshold.
A method of generating a holographic reconstruction of an object using a display device, the display device including a light source, an optical system and a spatial light modulator, the optical system illuminates the spatial light modulator with light of the light source, wherein the optical system images the light source into an observer plane; the method comprising the steps of: generating a hologram by a computer by determining the wavefronts, restricted to a virtual observer window, at the observer eye position being located in the observer plane that would be generated by a real version of the object to be reconstructed; back-transforming the determined wavefronts to the spatial light modulator; encoding the hologram on the spatial light modulator; tracking the location of an observer's eye eyes by a position detection and tracking device; and achieving the tracking of the observer by a configurable diffractive optical element or a scanning mirror, which project light for the holographic reconstruction from the spatial light modulator to the observer's eye. generating a hologram by a computer by determining the wavefronts, restricted to a virtual observer window, at the observer eye position being located in the observer plane that would be generated by a real version of the object to be reconstructed; back-transforming the determined wavefronts to the spatial light modulator; encoding the hologram on the spatial light modulator; tracking the location of an observer's eye eyes by a position detection and tracking device; and achieving the tracking of the observer by a configurable diffractive optical element or a scanning mirror, which project light for the holographic reconstruction from the spatial light modulator to the observer's eye.
A rotating instrument with a shaft and a working part attached or detachably attachable to the shaft, wherein at least one part of the working part is manufactured from a ceramic material, and wherein the ceramic part of the working part has a surface roughness of 0.5 to 6 μm, characterised in that all geometry-related shape transitions of the ceramic part of the working part at least have radii of 0.5 mm, and that the working part is provided with a core reinforcement induced by reducing the depth of grooves or grindings from the free end to the shaft of the working part.
A manufacturing method for a lithographic printing plate precursor, comprising: an image recording layer forming step of forming an image recording layer as an a step; a coating step of coating a partial region of the image recording layer, which is formed in the a step, with a coating liquid containing a hydrophilic agent, as a b step; and a cutting step of cutting the lithographic printing plate precursor such that the region coated with the coating liquid is in a range within 1 cm from the end portion of the lithographic printing plate precursor after being cut, as a c step, wherein the c step is performed after performing either the a step and b step in this order or the b step and the a step in this order, on a hydrophilic aluminum support, and the coating liquid comprises one or more of a phosphoric acid compound, a phosphonic acid compound, a surfactant, and a water-soluble resin as the hydrophilic agent. an image recording layer forming step of forming an image recording layer as an a step; a coating step of coating a partial region of the image recording layer, which is formed in the a step, with a coating liquid containing a hydrophilic agent, as a b step; and a cutting step of cutting the lithographic printing plate precursor such that the region coated with the coating liquid is in a range within 1 cm from the end portion of the lithographic printing plate precursor after being cut, as a c step, wherein the c step is performed after performing either the a step and b step in this order or the b step and the a step in this order, on a hydrophilic aluminum support, and the coating liquid comprises one or more of a phosphoric acid compound, a phosphonic acid compound, a surfactant, and a water-soluble resin as the hydrophilic agent.
A system for aligning a guiding pin relative to an anatomic structure, the system comprising: a guiding pin insertion guide for orienting the guiding pin relative to the anatomic structure, the guiding pin insertion guide including a base plate and a pin orientation device coupled to and extending from the base plate, the pin orientation device being movable relative to the base plate; and an axis alignment device, the axis alignment device including a first surface and a second surface having a plurality of through holes extending between the first surface and the second surface, each of the through holes defining a different alignment axis, wherein one of the through holes is configured to align the guiding pin at an orientation that is substantially aligned with a patient-specific alignment axis, and wherein the guiding pin insertion guide is configured to receive the guiding pin when the guiding pin is mated with one of the through holes to align the guiding pin insertion guide along the patient-specific alignment axis relative to the base plate. a guiding pin insertion guide for orienting the guiding pin relative to the anatomic structure, the guiding pin insertion guide including a base plate and a pin orientation device coupled to and extending from the base plate, the pin orientation device being movable relative to the base plate; and an axis alignment device, the axis alignment device including a first surface and a second surface having a plurality of through holes extending between the first surface and the second surface, each of the through holes defining a different alignment axis, wherein one of the through holes is configured to align the guiding pin at an orientation that is substantially aligned with a patient-specific alignment axis, and wherein the guiding pin insertion guide is configured to receive the guiding pin when the guiding pin is mated with one of the through holes to align the guiding pin insertion guide along the patient-specific alignment axis relative to the base plate.
Level detection system for estimating the level of an audio input signal for a dynamic range compressor, comprising - a first auxiliary level detector arranged for receiving an audio input signal and for outputting a first estimate of the level of said audio input signal, - a second auxiliary level detector arranged for receiving either said audio input signal or said first estimate and arranged for outputting a second estimate of the level of said audio input signal, said second auxiliary level detector having a larger time constant than said first auxiliary level detector, characterised in that the level detection system comprises - computation means for performing a weighting of said first estimate with a weight factor w and said second estimate with a weight factor 1-w, said weight factor w being dependent on said first and said second estimate, said computation means further arranged for summing the weighted estimations to obtain a resulting estimation of the level of said audio input signal. - a first auxiliary level detector arranged for receiving an audio input signal and for outputting a first estimate of the level of said audio input signal, - a second auxiliary level detector arranged for receiving either said audio input signal or said first estimate and arranged for outputting a second estimate of the level of said audio input signal, said second auxiliary level detector having a larger time constant than said first auxiliary level detector, characterised in that the level detection system comprises - computation means for performing a weighting of said first estimate with a weight factor w and said second estimate with a weight factor 1-w, said weight factor w being dependent on said first and said second estimate, said computation means further arranged for summing the weighted estimations to obtain a resulting estimation of the level of said audio input signal.
A refrigerator, comprising: a refrigerating cycle having an evaporator; a storage chamber (F, R) and a door (4a, 4b, 120, 130) defining a space for exchanging heat with the evaporator; and a region for exchanging heat between the evaporator and the space; characterized in that at least one of the region, the storage chamber (F, R) and the door (4a, 4b) has undergone at least one of a Kimchi lactic acid bacteria culture treatment and a Kimchi lactic acid bacteria culture exposure treatment, wherein the Kimchi lactic acid bacteria culture treatment is performed by at least one of coating of a Kimchi lactic acid bacteria culture and molding of a material containing a Kimchi lactic acid bacteria culture and wherein the Kimchi lactic acid bacteria culture exposure treatment is performed by installation of a filter. a refrigerating cycle having an evaporator; a storage chamber (F, R) and a door (4a, 4b, 120, 130) defining a space for exchanging heat with the evaporator; and a region for exchanging heat between the evaporator and the space; characterized in that at least one of the region, the storage chamber (F, R) and the door (4a, 4b) has undergone at least one of a Kimchi lactic acid bacteria culture treatment and a Kimchi lactic acid bacteria culture exposure treatment, wherein the Kimchi lactic acid bacteria culture treatment is performed by at least one of coating of a Kimchi lactic acid bacteria culture and molding of a material containing a Kimchi lactic acid bacteria culture and wherein the Kimchi lactic acid bacteria culture exposure treatment is performed by installation of a filter.
Fan wheel for use in an internal combustion engine, wherein the fan wheel comprises a profile by means of which during rotation of the fan wheel an at least oil mist reduced radial passage is formed around the fan wheel, and wherein the fan wheel comprises a v-shaped profile pointing with a tip in a rotational direction, wherein a flange oriented in a rotational direction is arranged at a free end of ribs forming the v-shaped profile, the flange forming together with the respective rib a channel in which separated oil can be transported axially outwardly.
A pharmaceutical composition comprising: (i) a drug component comprising salbutamol base; and (ii) a propellant component at least 90 weight % of which is 1,1-difluoroethane (HFA-152a). (i) a drug component comprising salbutamol base; and (ii) a propellant component at least 90 weight % of which is 1,1-difluoroethane (HFA-152a).
A vacuum liquid-crystal-cell-assembling device comprising: a liquid crystal dropping apparatus, a signal processing apparatus, an upper substrate and a lower substrate provided opposite to the upper substrate, wherein, the upper substrate is provided with a light-emitting apparatus (11, 12, 13) thereon, the lower substrate is provided with a photosensitive element array thereon for receiving light from the upper substrate, the upper substrate is arranged to adsorb an upper glass substrate of a liquid-crystal cell to be assembled, the lower substrate is arranged to adsorb a lower glass substrate of a liquid-crystal cell to be assembled, the liquid crystal dropping apparatus is arranged to drop-fill drops of liquid crystal evenly on the lower glass substrate of a liquid-crystal cell to be assembled, the photosensitive element array is connected with the signal processing apparatus, and the signal processing apparatus is adapted for converting the electrical signals from the photosensitive element array to a liquid crystal diffusion image monitoring the diffusion of the liquid crystal drops in the liquid crystal cell to be assembled. a liquid crystal dropping apparatus, a signal processing apparatus, an upper substrate and a lower substrate provided opposite to the upper substrate, wherein, the upper substrate is provided with a light-emitting apparatus (11, 12, 13) thereon, the lower substrate is provided with a photosensitive element array thereon for receiving light from the upper substrate, the upper substrate is arranged to adsorb an upper glass substrate of a liquid-crystal cell to be assembled, the lower substrate is arranged to adsorb a lower glass substrate of a liquid-crystal cell to be assembled, the liquid crystal dropping apparatus is arranged to drop-fill drops of liquid crystal evenly on the lower glass substrate of a liquid-crystal cell to be assembled, the photosensitive element array is connected with the signal processing apparatus, and the signal processing apparatus is adapted for converting the electrical signals from the photosensitive element array to a liquid crystal diffusion image monitoring the diffusion of the liquid crystal drops in the liquid crystal cell to be assembled.
A pneumatic tire comprising: a tread portion having a generally circumferentially extending groove (36; 36A-D) defined therein, the groove (36; 36A-D) having a groove cross-section defined by a groove bottom and opposed groove sidewalls (40; 42), the groove (36; 36A-D) having a groove width between the opposed groove sidewalls (40; 42); and a sequence of circumferentially spaced stone ejector ribs (52; 52') spanning between the opposed groove sidewalls (40; 42). wherein each stone ejector rib (52; 52') includes at least one circumferentially facing sloped ejector wall (54A; 54B; 54A') sloped at a slope angle in a range of from about 10° to about 30° to a radius of the tire, such that each stone ejector rib (52; 52') has a wider rib base and a narrower rib top narrower than the rib base, and wherein adjacent stone ejector ribs (52; 52') are spaced apart at the rib bases by a base spacing no greater than the groove width, characterized in that adjacent stone ejector ribs (52; 52') are spaced apart at their rib tops by a top spacing equal to or greater than the groove width, so that opposed ejector walls (54A; 54B; 54A'; 54B') of adjacent stone ejector ribs (52; 52') resist retention between the adjacent stone ejector ribs (52; 52') of stones having dimensions equal to or greater than the groove width. a tread portion having a generally circumferentially extending groove (36; 36A-D) defined therein, the groove (36; 36A-D) having a groove cross-section defined by a groove bottom and opposed groove sidewalls (40; 42), the groove (36; 36A-D) having a groove width between the opposed groove sidewalls (40; 42); and a sequence of circumferentially spaced stone ejector ribs (52; 52') spanning between the opposed groove sidewalls (40; 42). wherein each stone ejector rib (52; 52') includes at least one circumferentially facing sloped ejector wall (54A; 54B; 54A') sloped at a slope angle in a range of from about 10° to about 30° to a radius of the tire, such that each stone ejector rib (52; 52') has a wider rib base and a narrower rib top narrower than the rib base, and wherein adjacent stone ejector ribs (52; 52') are spaced apart at the rib bases by a base spacing no greater than the groove width, characterized in that adjacent stone ejector ribs (52; 52') are spaced apart at their rib tops by a top spacing equal to or greater than the groove width, so that opposed ejector walls (54A; 54B; 54A'; 54B') of adjacent stone ejector ribs (52; 52') resist retention between the adjacent stone ejector ribs (52; 52') of stones having dimensions equal to or greater than the groove width.
A stage positioning system, comprising: a first body; a second body; an actuator to move the first body; a coupling arranged to couple the first body and the second body to each other; wherein the coupling comprises a visco-elastic element arranged to couple the first body and the second body to each other, wherein the second body is arranged to couple the actuator and the coupling to each other, wherein the stage positioning system comprises a long-stroke module, characterized in that the long-stroke module is arranged to move the actuator, and the actuator is arranged to move the first body relative to the long-stroke module. a first body; a second body; an actuator to move the first body; a coupling arranged to couple the first body and the second body to each other; wherein the coupling comprises a visco-elastic element arranged to couple the first body and the second body to each other, wherein the second body is arranged to couple the actuator and the coupling to each other, wherein the stage positioning system comprises a long-stroke module, characterized in that the long-stroke module is arranged to move the actuator, and the actuator is arranged to move the first body relative to the long-stroke module.
A capacitive strain sensor for sensing strain, the sensor comprising: a first section configured and adapted to be attached to a structure at a first location, the first section including: a core; and a first capacitor plate being electrically isolated from the structure; a second section configured and adapted to be attached to the structure at a second location, the second section including: a ring having an inner diameter that is greater than the outer diameter of the core; and a pair of opposed capacitive plates being electrically isolated from the structure; and a device configured to flexibly connect the first section to the second section, wherein the core and ring have dimensions along a longitudinal axis, wherein the capacitive plate of the first section is separated from the opposed capacitive plates of the second section by a capacitive gap therebetween; and wherein strain experienced by the structure to which the sensor is attached causes a change in the capacitive gaps due to relative motion between the first and second sections (30, 32), characterised in that the first capacitive plate is a metallic coating at least partially covering the core, and the pair of opposed capacitive plates (56-1, 56-2) are two metallic coatings at least partially covering the ring. a first section configured and adapted to be attached to a structure at a first location, the first section including: a core; and a first capacitor plate being electrically isolated from the structure; a core; and a first capacitor plate being electrically isolated from the structure; a second section configured and adapted to be attached to the structure at a second location, the second section including: a ring having an inner diameter that is greater than the outer diameter of the core; and a pair of opposed capacitive plates being electrically isolated from the structure; and a ring having an inner diameter that is greater than the outer diameter of the core; and a pair of opposed capacitive plates being electrically isolated from the structure; and a device configured to flexibly connect the first section to the second section, wherein the core and ring have dimensions along a longitudinal axis, wherein the capacitive plate of the first section is separated from the opposed capacitive plates of the second section by a capacitive gap therebetween; and wherein strain experienced by the structure to which the sensor is attached causes a change in the capacitive gaps due to relative motion between the first and second sections (30, 32), characterised in that the first capacitive plate is a metallic coating at least partially covering the core, and the pair of opposed capacitive plates (56-1, 56-2) are two metallic coatings at least partially covering the ring.
A method of controlling a terminal of an integrated circuit to reduce terminal count of the integrated circuit comprising: determining a frequency ratio between a frequency of a signal (LRCK/DSD_CLK) received by an integrated circuit associated with one of a pulse code modulated audio operating mode and a single-bit audio operating mode and a frequency of another signal (EMCK) received by the integrated circuit and associated with both the pulse code modulated operating mode and the single-bit audio operating mode; and selectively interpreting an input signal appearing at a selected input terminal of the integrated circuit as a single-bit audio signal in accordance with the single-bit audio operating mode when the frequency ratio is below a selected value and as a pulse code modulated audio signal in accordance with the pulse code modulated audio operating mode when the frequency ratio is above a selected value. determining a frequency ratio between a frequency of a signal (LRCK/DSD_CLK) received by an integrated circuit associated with one of a pulse code modulated audio operating mode and a single-bit audio operating mode and a frequency of another signal (EMCK) received by the integrated circuit and associated with both the pulse code modulated operating mode and the single-bit audio operating mode; and selectively interpreting an input signal appearing at a selected input terminal of the integrated circuit as a single-bit audio signal in accordance with the single-bit audio operating mode when the frequency ratio is below a selected value and as a pulse code modulated audio signal in accordance with the pulse code modulated audio operating mode when the frequency ratio is above a selected value.