mhurhangee/patent-ind-claim-en huggingface dataset:
A dispersible composition comprising E-4-[[4-[[4-(2-cyanoethenyl)-2,6-dimethylphenyl]amino]-2-pyrimidinyl]amino]-benzonitrile (rilpivirine) or a pharmaceutically acceptable acid addition salt thereof, as the active ingredient, wherein said active ingredient is present in the dispersible composition in the form of granules, said granules further comprising a pharmaceutically acceptable excipient; wherein the composition comprises 2.5 mg base equivalent of E-4-[[4-[[4-(2-cyanoethenyl)-2,6-dimethylphenyl]amino]-2-pyrimidinyl]amino]-benzonitrile; and wherein the composition further comprises next to the granules, in the extragranular fraction, microcrystalline cellulose and mannitol.
A method of processing a signal, the method comprising using a processor to: identify a past recurring pattern in a recurrence matrix , the recurrence matrix comprising an extension of an autocorrelation method in which each sample of an input signal time history can be referenced by its index such that the signal time history is retained, the identification comprising: constructing the recurrence matrix from an input signal ; identifying the past recurring pattern in the recurrence matrix and determining indices of the recurring pattern, where the indices point to samples that constitute the recurring pattern in the input signal; and combine the signal and the recurring pattern whereby the recurring pattern produces a representation of a future signal; filter the combined signal and the recurring pattern. identify a past recurring pattern in a recurrence matrix , the recurrence matrix comprising an extension of an autocorrelation method in which each sample of an input signal time history can be referenced by its index such that the signal time history is retained, the identification comprising: constructing the recurrence matrix from an input signal ; identifying the past recurring pattern in the recurrence matrix and determining indices of the recurring pattern, where the indices point to samples that constitute the recurring pattern in the input signal; and constructing the recurrence matrix from an input signal ; identifying the past recurring pattern in the recurrence matrix and determining indices of the recurring pattern, where the indices point to samples that constitute the recurring pattern in the input signal; and combine the signal and the recurring pattern whereby the recurring pattern produces a representation of a future signal; filter the combined signal and the recurring pattern.
A polishing composition comprising one or more kinds of abrasives and a basic compound, wherein a product of a non-spherical parameter and a particle diameter distribution width of the abrasives is 4 nm or more and 40 nm or less determined as described in the description, the non-spherical parameter of the abrasives is an average value of absolute values |Sr/Si - 1| each obtained by deducting 1 from a ratio Sr/Si of a projected area Sr of each particle constituting the abrasives to a virtual projected area Si of the each particle, the virtual projected area Si is an area of a virtual circle having a vertical Feret's diameter of the each particle as a diameter, and the particle diameter distribution width of the abrasives is a difference between particle diameters at 90% and 10% in a cumulative particle diameter distribution based on a volume of the abrasives, wherein the abrasives comprise particles composed of silica, alumina, ceria, titania, silicon nitride, silicon carbide, boron nitride or polymethyl methacrylate (PMMA), or particles obtained by binding polymethyl methacrylate (PMMA) to silica. the non-spherical parameter of the abrasives is an average value of absolute values |Sr/Si - 1| each obtained by deducting 1 from a ratio Sr/Si of a projected area Sr of each particle constituting the abrasives to a virtual projected area Si of the each particle, the virtual projected area Si is an area of a virtual circle having a vertical Feret's diameter of the each particle as a diameter, and the particle diameter distribution width of the abrasives is a difference between particle diameters at 90% and 10% in a cumulative particle diameter distribution based on a volume of the abrasives, wherein the abrasives comprise particles composed of silica, alumina, ceria, titania, silicon nitride, silicon carbide, boron nitride or polymethyl methacrylate (PMMA), or particles obtained by binding polymethyl methacrylate (PMMA) to silica.
Security, or decorative element, comprising a transparent, or translucent substrate, which may contain indicia or other visible features in or on its surface, and on at least part of the substrate surface, a first layer, comprising transition metal particles having an average diameter of from 5 nm to 500 nm and a binder, on at least part of the first layer a second layer, comprising an organic material and having a refractive index of from 1.2 to 2.3, especially 1.2 to 2.0, very especially 1.3 to 1.7, and having a thickness of from 20 to 1000 nm, especially 30 to 700 nm, very especially 30 to 600 nm, wherein the transition metal is silver, copper, gold and palladium, especially silver and copper, very especially silver, wherein the weight ratio of transition metal particles to binder in the first layer is in the range from 20:1 to 1:2 in case the binder is a polymeric binder, or wherein the weight ratio of transition metal particles to binder in the first layer is in the range from 5:1 to 1:15 in case the binder is an UV curable binder. on at least part of the substrate surface, a first layer, comprising transition metal particles having an average diameter of from 5 nm to 500 nm and a binder, on at least part of the first layer a second layer, comprising an organic material and having a refractive index of from 1.2 to 2.3, especially 1.2 to 2.0, very especially 1.3 to 1.7, and having a thickness of from 20 to 1000 nm, especially 30 to 700 nm, very especially 30 to 600 nm, wherein the transition metal is silver, copper, gold and palladium, especially silver and copper, very especially silver, wherein the weight ratio of transition metal particles to binder in the first layer is in the range from 20:1 to 1:2 in case the binder is a polymeric binder, or wherein the weight ratio of transition metal particles to binder in the first layer is in the range from 5:1 to 1:15 in case the binder is an UV curable binder.
A multi-band antenna system, comprising at least one first radiating element and at least one second radiating element, wherein an operating frequency band of the first radiating element is higher than an operating frequency band of the second radiating element; each first radiating element comprises a grounding structure, a balun, and at least two radiation arms, one end of the balun is electrically connected to the at least two radiation arms, the balun comprises at least one conductive structure, and the conductive structure is electrically connected to the grounding structure; and the balun is configured to: after obtaining a differential mode signal, input the differential mode signal to the grounding structure by using the at least one conductive structure, wherein the differential mode signal is a signal obtained by the balun by sensing a signal from the second radiating element in a differential mode manner. each first radiating element comprises a grounding structure, a balun, and at least two radiation arms, one end of the balun is electrically connected to the at least two radiation arms, the balun comprises at least one conductive structure, and the conductive structure is electrically connected to the grounding structure; and the balun is configured to: after obtaining a differential mode signal, input the differential mode signal to the grounding structure by using the at least one conductive structure, wherein the differential mode signal is a signal obtained by the balun by sensing a signal from the second radiating element in a differential mode manner.
Method for cleaning and treating external surfaces of a part with a blasting medium comprising first particles of ice and second particles having a hardness between 2000 and 2500HV, said second particles being embedded in the surface and in the volume of said first particles, said method comprising a step in which a flow of blasting medium is generated and projected towards an area of the surface of the part to be treated, characterized in that the projection speed of the particles is adjusted to avoid separation between the second particles and the first particles on impact of the first particles against the surface of the part.
Device for dissipating heat from wastewater of a sewage pipe into which is inserted, between an upstream downpipe and a downstream downpipe flowing into a continuing sewage pipe , a countercurrent heat exchanger consisting of several heat exchanger tubes arranged next to one another, which are aligned horizontally, and every sewage pipe consisting of a material of high thermal conductivity and comprising a return water pipe , the final heat exchanger tube being joined by a pipe elbow piece , the height of which significantly exceeds several times, about two to three times, the outer diameter of the heat exchanger tube and which maintains the pipes in a filled state when stopped, and the sewage pipes of successive heat exchanger tubes being connected to one pipe elbow piece each, which consists of a material with low thermal conductivity such as plastic, and thermally separates them from one another, and the upstream downpipe along with the feeder pipe presenting the required surge height, and the downstream downpipe along with the sewage pipe presenting the suction height for the water flow, both of which exceed three to ten times the outer diameter of the heat exchanger tubes , characterized in that a pipe elbow piece , the height of which exceeds several times, about two or three times the outer diameter of the sewage pipe and, when stopped, hydraulically separates the successive sewage pipes and consists of a material with low thermal conductivity, such as plastic, is inserted between the sewage pipes of the successive heat exchanger tubes of the countercurrent heat exchanger , the sewage pipe and the return water pipe of a heat exchanger tube having approximately the same volumetric content per length unit, and the return water pipes containing in total 5 to 50%, about 20%, of the daily requirement of return water consumption, a bypass line being in front of the countercurrent heat exchanger connected to the downpipe by means of an elbow positioned against the direction of the current and running in parallel to the countercurrent heat exchanger and flowing into the continuing downstream sewage pipe .
An optical transmission module comprising: a light-emitting diode emitting a first light; a filter configured to decrease a wavelength width of the first light; and an optical modulator configured to modulate the first light passing through the filter , wherein the light-emitting diode and the optical modulator comprise gallium nitride (GaN), wherein the light-emitting diode comprises a first lower semiconductor layer , an active layer disposed on the first lower semiconductor layer , and a first upper semiconductor layer disposed on the active layer , wherein the optical modulator comprises a second lower semiconductor layer , a light absorption layer disposed on the second lower semiconductor layer and configured to absorb the light output by the light-emitting diode , and a second upper semiconductor layer disposed on the light absorption layer , wherein when a reverse bias voltage is applied, an energy bandgap of the light absorption layer increases so that the optical modulator transmits the first light, and wherein the first light is light of a visible wavelength band. a light-emitting diode emitting a first light; a filter configured to decrease a wavelength width of the first light; and an optical modulator configured to modulate the first light passing through the filter , wherein the light-emitting diode and the optical modulator comprise gallium nitride (GaN), wherein the light-emitting diode comprises a first lower semiconductor layer , an active layer disposed on the first lower semiconductor layer , and a first upper semiconductor layer disposed on the active layer , wherein the optical modulator comprises a second lower semiconductor layer , a light absorption layer disposed on the second lower semiconductor layer and configured to absorb the light output by the light-emitting diode , and a second upper semiconductor layer disposed on the light absorption layer , wherein when a reverse bias voltage is applied, an energy bandgap of the light absorption layer increases so that the optical modulator transmits the first light, and wherein the first light is light of a visible wavelength band.
A semi-aromatic polyamide film having a tensile breaking elongation of 70% or more in the longitudinal direction and the width direction, and a haze of 14% or less, the film being characterised by a thermal shrinkage factor in a longitudinal direction of the film, S MD , of -1.0 to 1.5% and by a thermal shrinkage factor in a width direction of the film, S TD , of -1.0 to 1.5% as measured under conditions of 250 °C and 5 min. a tensile breaking elongation of 70% or more in the longitudinal direction and the width direction, and a haze of 14% or less, the film being characterised by a thermal shrinkage factor in a longitudinal direction of the film, S MD , of -1.0 to 1.5% and by a thermal shrinkage factor in a width direction of the film, S TD , of -1.0 to 1.5% as measured under conditions of 250 °C and 5 min.
A method of determination of a position of a center of a machining tool gripped in a cooperative gripping head connected removably to at least two power industrial robots with respective end effectors and connecting devices wherein the position of the center of the machining tool is determined from the measurements of positions of the kinematic pairs formed by rotational joints or sliding guides on at least one power industrial robot connected to the cooperating gripping head and from the measurement of deformations in the drives of these particular kinematic pairs and from the measurements or without the measurements of the deformation of the arms of the power industrial robots and if a deviation of the position of the center of the machining tool from the position required is found out, drives of the power industrial robots are controlled with feedback to achieve zero deviations of the position of the center of the machining tool of the cooperative gripping head.
A method of crossmatching blood samples, said method comprising: providing plasma and/or serum from a first blood sample; contacting the plasma and/or serum with red blood cells from a second blood sample to provide a plasma and/or serum/red blood cell mix; incubating the plasma and/or serum/red blood cell mix under conditions which permit sensitisation of the red blood cells; separating the incubated red blood cells from a liquid phase; and contacting the separated red blood cells with an agent capable of binding antibodies; wherein the agents capable of binding antibodies are bound or immobilised to a substrate in a microarray format; and wherein the separation of the red blood cells from a liquid phase takes place without centrifugation and under gravity and the detection of sensitised red blood cells bound to the agent capable of binding antibodies indicates that the second blood sample is incompatible with the first blood sample. providing plasma and/or serum from a first blood sample; contacting the plasma and/or serum with red blood cells from a second blood sample to provide a plasma and/or serum/red blood cell mix; incubating the plasma and/or serum/red blood cell mix under conditions which permit sensitisation of the red blood cells; separating the incubated red blood cells from a liquid phase; and contacting the separated red blood cells with an agent capable of binding antibodies;
A method of controlling a lighting system, comprising at least two luminaires arranged to illuminate a physical space , to render a version of a selected scene image in the physical space, the method comprising the following steps: capturing with an imaging device at least one image of the physical space; using the captured at least one image to determine, for each of the luminaires, at least one location in the physical space associated with that luminaire; receiving from a user a selection of a scene image to be rendered; processing the selected scene image to select at least two colors in the scene image for rendering, and determine a location of each of the selected colors within the scene image; and comparing the determined scene image locations with the determined luminaire locations so as to identify, for each of the determined scene image locations, a matching one of the determined locations in the physical space, and controlling the luminaire associated with that location in the physical space to emit illumination rendering the color at that scene image location, thereby causing the luminaires to render a version of the selected scene image in the physical space. capturing with an imaging device at least one image of the physical space; using the captured at least one image to determine, for each of the luminaires, at least one location in the physical space associated with that luminaire; receiving from a user a selection of a scene image to be rendered; processing the selected scene image to select at least two colors in the scene image for rendering, and determine a location of each of the selected colors within the scene image; and comparing the determined scene image locations with the determined luminaire locations so as to identify, for each of the determined scene image locations, a matching one of the determined locations in the physical space, and controlling the luminaire associated with that location in the physical space to emit illumination rendering the color at that scene image location, thereby causing the luminaires to render a version of the selected scene image in the physical space.
A gas turbine engine for an aircraft , comprising: a pylon attachment (112; 312) for attaching the engine to a wing of the aircraft ; a shaft defining an engine centreline , wherein the engine centreline lies in an engine central plane intersecting the pylon attachment ; an intake having a non-axisymmetric geometry, the intake having a medial plane defining, when the engine is attached to the wing of the aircraft, left and right halves of the intake ; a fan case , wherein the intake is mounted to the fan case ; and a nacelle enclosing the fan case , wherein the intake and nacelle meet at an interface ; characterised in that the engine comprises means for adjusting an angular offset between the medial plane of the intake and the engine central plane by rotating the intake with respect to the fan case and the nacelle . a pylon attachment (112; 312) for attaching the engine to a wing of the aircraft ; a shaft defining an engine centreline , wherein the engine centreline lies in an engine central plane intersecting the pylon attachment ; an intake having a non-axisymmetric geometry, the intake having a medial plane defining, when the engine is attached to the wing of the aircraft, left and right halves of the intake ; a fan case , wherein the intake is mounted to the fan case ; and a nacelle enclosing the fan case , wherein the intake and nacelle meet at an interface ;
Sound generation assembly unit kit for constructing a sound generation unit for an exhaust system of an internal combustion engine, comprising: - at least one sound generation module with a sound generation module housing to be arranged on an exhaust gas guide element of an exhaust system and at least one loudspeaker unit arranged in the sound generation module housing , wherein a partial rear volume is formed in the sound generation module housing , - a group providing at least two different rear volume modules with a rear volume module housing each and with a rear volume formed in the rear volume module housing , wherein the rear volume module housing of the rear volume module selected as suitable for the individual purpose can be connected to the sound generation module housing of the at least one sound generation module for the acoustic coupling of the rear volume to the at least one loudspeaker unit , wherein when the rear volume module housing is acoustically coupled to the sound generation module housing , the partial rear volume is in connection with the rear volume . - at least one sound generation module with a sound generation module housing to be arranged on an exhaust gas guide element of an exhaust system and at least one loudspeaker unit arranged in the sound generation module housing , wherein a partial rear volume is formed in the sound generation module housing , - a group providing at least two different rear volume modules with a rear volume module housing each and with a rear volume formed in the rear volume module housing , wherein the rear volume module housing of the rear volume module selected as suitable for the individual purpose can be connected to the sound generation module housing of the at least one sound generation module for the acoustic coupling of the rear volume to the at least one loudspeaker unit , wherein when the rear volume module housing is acoustically coupled to the sound generation module housing , the partial rear volume is in connection with the rear volume .
An engineered, non-naturally occurring Clustered Regularly Interspaced Short Palindromic Repeat (CRISPR) - associated (Cas) system comprising: (a) an RNA guide or a nucleic acid encoding the RNA guide, wherein the RNA guide comprises a direct repeat sequence and a spacer sequence; and (b) a CRISPR-Cas effector protein or a nucleic acid encoding the effector protein, wherein the effector protein comprises an amino acid sequence with at least 95% identity to SEQ ID NO: 5, SEQ ID NO: 14, or SEQ ID NO: 16, wherein the CRISPR-Cas effector protein binds to the RNA guide, and wherein the spacer sequence binds to a target nucleic acid, and wherein the target nucleic acid is DNA. (a) an RNA guide or a nucleic acid encoding the RNA guide, wherein the RNA guide comprises a direct repeat sequence and a spacer sequence; and (b) a CRISPR-Cas effector protein or a nucleic acid encoding the effector protein, wherein the effector protein comprises an amino acid sequence with at least 95% identity to SEQ ID NO: 5, SEQ ID NO: 14, or SEQ ID NO: 16,