mhurhangee/ep-ind-claims huggingface dataset:
A head protective member for placement in a child safety seat for restraining an infant, comprising, a block body configured to be placed between a sidewall of the child safety seat and a neck of the infant, wherein the block body includes a first side that is contactable with the neck of the infant, a second side that is contactable with the sidewall and whose height is higher than the first side, and an inclined face placed between an upper end of the first side and an upper end of the second side; wherein: the inclined face is contactable with a lower jaw or a cheek of the infant; and the block body further includes a bottom that is placed between a lower end of the first side and a lower end of the second side and is contactable with a shoulder of the infant; characterized in that: the block body is configured in such a manner that when a head of the infant starts to rotate after the neck moves sideways and a sideways movement of the neck is restricted by the first side, the block body becomes sandwiched between the shoulder and the lower jaw or the cheek of the infant and creates a reactive force from the inclined face and a reactive force from the bottom, allowing kinetic energy of the head to be absorbed. the inclined face is contactable with a lower jaw or a cheek of the infant; and the block body further includes a bottom that is placed between a lower end of the first side and a lower end of the second side and is contactable with a shoulder of the infant;
A resin bond abrasive article comprising a plurality of alumina abrasive particles retained in a binder material, wherein the alumina abrasive particles have an outer surface with an adhesion-modifying layer covalently bound thereto, wherein the adhesion-modifying layer comprises a reaction product of an epoxy-functional coupling agent and hydroxyl groups covalently bound to the outer surface of the abrasive particle, wherein the epoxy-functional coupling agent comprises a reaction product of: a polyepoxide; and an aminosilane represented by the formula HNR 1 R 2 wherein: R 1 represents -Z-SiL 3; R 2 represents -Z-SiL 3; each Z independently represents a divalent linking group having from 1 to 6 carbon atoms; and each L independently represents a hydrolyzable group. a polyepoxide; and an aminosilane represented by the formula HNR 1 R 2 wherein: R 1 represents -Z-SiL 3; R 2 represents -Z-SiL 3; each Z independently represents a divalent linking group having from 1 to 6 carbon atoms; and each L independently represents a hydrolyzable group. R 1 represents -Z-SiL 3; R 2 represents -Z-SiL 3; each Z independently represents a divalent linking group having from 1 to 6 carbon atoms; and each L independently represents a hydrolyzable group.
An adjustable snap-acting hinge (1a, 1b), comprising a first articulated quadrilateral and a second articulated quadrilateral, which can move on a working plane and share a first lever and a second lever and are provided respectively with a plate for coupling to a first element and with a plate for fixing to a second element, elastic means being provided with two opposite ends that can move toward or away from each other and act between a point of said first lever and a contrast element associated with said coupling plate, said hinge (1a, 1b) being movable alternately between an open configuration and a closed configuration in which said plates (6, 7) have mutually different arrangements, said contrast element being arranged in at least one position for use, which lies between a first position in which said contrast element is arranged at a maximum distance from said point of said first lever and a second position in which said contrast element is arranged at a minimum distance from said point of said first lever in order to vary the preloading of said elastic means, locking means being provided for keeping said contrast element in said position for use, the hinge further comprising an element for supporting said contrast element which is associated with said coupling plate and with said locking means and can move with respect to said coupling plate following the adjustment of said locking means, characterized in that said supporting element has a first flap that is pivoted to said coupling plate about a respective rotation axis that is transverse to said working plane and a second flap, which is spaced from said first flap and is associated with said locking means.
Inhaler component for the intermittent formation, synchronous with the inhaling or drawing, of a vapour-air mixture and/or condensation aerosol, comprising: a housing; a chamber disposed in the housing; an air admission opening for the supply of air from the environment into the chamber; an electric heating element for evaporating a portion of a liquid material, wherein the vapour formed is mixed in the chamber with the air supplied through the air admission opening, and the vapour-air mixture and/or condensation aerosol is formed; and a wick having a capillary structure, said wick conjointly with the heating element forming a composite and, upon evaporation, automatically resupplying the heating element with the liquid material, characterized in that the heating element is at least partially integrated in the wick; and wherein the heating element is composed of an electrically conducting thin layer, wherein the wick is composed of an electrically nonconducting material, and wherein the thin layer has been applied to the wick surface by PVD or CVD methods. a housing; a chamber disposed in the housing; an air admission opening for the supply of air from the environment into the chamber; an electric heating element for evaporating a portion of a liquid material, wherein the vapour formed is mixed in the chamber with the air supplied through the air admission opening, and the vapour-air mixture and/or condensation aerosol is formed; and a wick having a capillary structure, said wick conjointly with the heating element forming a composite and, upon evaporation, automatically resupplying the heating element with the liquid material, characterized in that the heating element is at least partially integrated in the wick; and wherein the heating element is composed of an electrically conducting thin layer, wherein the wick is composed of an electrically nonconducting material, and wherein the thin layer has been applied to the wick surface by PVD or CVD methods.
An optical unit for a motor vehicle, said optical unit including casing, adapted to receive at least one light source, and at least one attachment tab connected to said casing and including an attachment zone to the structure of a motor vehicle, an absorption zone adapted to receive a portion of the energy transferred during the closing of the bonnet of said vehicle, and a plurality of connecting branches of the attachment tab to the casing able to deform during an impact undergone by said optical unit, the optical unit being characterized in that the casing includes a body made of a plastic material, the attachment tab and said body are made from the same material, and in that at least one of the connecting branches of the plurality of connecting branches includes a notch.
A control method of printing temperature, adapted to control a printing temperature of a discharge nozzle of a 3D printer, the 3D printer being a fused deposition modeling 3D printing device, and comprising: providing a temperature rule table, wherein the temperature rule table is formed by a printing speed parameter, a plurality of printing speed ranges (U 1, U 2, U 3) corresponding to the printing speed parameter, a discharge speed parameter and a plurality of discharge speed ranges (V 1, V 2, V 3) corresponding to the discharge speed parameter of the 3D printer; receiving at least one printing speed information and at least one discharge speed information; obtaining at least one temperature information from the temperature rule table according to the printing speed ranges (U 1, U 2, U 3) corresponding to the at least one printing speed information and the discharge speed ranges (V 1, V 2, V 3) corresponding to the at least one discharge speed information; and adjusting the printing temperature of the discharge nozzle according to the at least one printing speed information, the at least one discharge speed information and the at least one temperature information. providing a temperature rule table, wherein the temperature rule table is formed by a printing speed parameter, a plurality of printing speed ranges (U 1, U 2, U 3) corresponding to the printing speed parameter, a discharge speed parameter and a plurality of discharge speed ranges (V 1, V 2, V 3) corresponding to the discharge speed parameter of the 3D printer; receiving at least one printing speed information and at least one discharge speed information; obtaining at least one temperature information from the temperature rule table according to the printing speed ranges (U 1, U 2, U 3) corresponding to the at least one printing speed information and the discharge speed ranges (V 1, V 2, V 3) corresponding to the at least one discharge speed information; and adjusting the printing temperature of the discharge nozzle according to the at least one printing speed information, the at least one discharge speed information and the at least one temperature information.
A sound detection device comprising: two or more sound collection units disposed apart from one another, at least two of said two or more sound collection units respectively collecting a first sound signal and a second sound signal; a phase information calculation unit (21, 31, 41) configured to calculate a phase distribution representing the relationship of the phase difference between said first sound signal and second sound signal, and the phase correlation between said first sound signal and second sound signal in the same phase difference by delaying the second sound signal with a plurality of delay quantities with respect to the first sound signal and obtaining the phase correlation between the first sound signal and the second sound signal in each delay quantity; a fluctuation degree calculation unit (22, 32, 42) configured to calculate a degree of temporal fluctuation of the phase distribution expressed as a stability index that is obtained as direction cosine of a vector of a phase correlation at a time t and a vector of a phase correlation at a time t-Δt; and a surrounding object detection unit configured to detect a surrounding object as a local sound source using the stability index. two or more sound collection units disposed apart from one another, at least two of said two or more sound collection units respectively collecting a first sound signal and a second sound signal; a phase information calculation unit (21, 31, 41) configured to calculate a phase distribution representing the relationship of the phase difference between said first sound signal and second sound signal, and the phase correlation between said first sound signal and second sound signal in the same phase difference by delaying the second sound signal with a plurality of delay quantities with respect to the first sound signal and obtaining the phase correlation between the first sound signal and the second sound signal in each delay quantity; a fluctuation degree calculation unit (22, 32, 42) configured to calculate a degree of temporal fluctuation of the phase distribution expressed as a stability index that is obtained as direction cosine of a vector of a phase correlation at a time t and a vector of a phase correlation at a time t-Δt; and a surrounding object detection unit configured to detect a surrounding object as a local sound source using the stability index.
A measuring apparatus comprising: a flow cell through which a sample containing particles flows; a light source to irradiate light on the sample flowing through the flow cell; a fluorescence detector to detect fluorescence generated from the sample irradiated with light from the light source; and a controller programmed to carry out a sensitivity adjustment comprising: causing a positive control sample containing a fluorescent dye to flow through the flow cell, obtaining a measurement value of the fluorescence generated from the positive control sample irradiated by the light from the light source via the fluorescence detector, comparing the measurement value and a reference value, and adjusting a sensitivity of the fluorescence detector according to a comparison result; and wherein the controller is programmed to obtain, in the sensitivity adjustment, a measurement value of the fluorescence generated from the positive control sample by the fluorescence detector with a first detection sensitivity, characterized in that the controller is programmed to, in response to the comparison result not satisfying a condition, obtain the measurement value of the fluorescence generated from the positive control sample by the fluorescence detector with a second detection sensitivity that brings the measurement value closer to the reference value than when using the first detection sensitivity according to the detection result, and to compare the measurement value and the reference value. a flow cell through which a sample containing particles flows; a light source to irradiate light on the sample flowing through the flow cell; a fluorescence detector to detect fluorescence generated from the sample irradiated with light from the light source; and a controller programmed to carry out a sensitivity adjustment comprising: causing a positive control sample containing a fluorescent dye to flow through the flow cell, obtaining a measurement value of the fluorescence generated from the positive control sample irradiated by the light from the light source via the fluorescence detector, comparing the measurement value and a reference value, and adjusting a sensitivity of the fluorescence detector according to a comparison result; and wherein the controller is programmed to obtain, in the sensitivity adjustment, a measurement value of the fluorescence generated from the positive control sample by the fluorescence detector with a first detection sensitivity, characterized in that the controller is programmed to, in response to the comparison result not satisfying a condition, obtain the measurement value of the fluorescence generated from the positive control sample by the fluorescence detector with a second detection sensitivity that brings the measurement value closer to the reference value than when using the first detection sensitivity according to the detection result, and to compare the measurement value and the reference value.
Peptide, containing at least one amino acid sequence made of D-amino acids, which binds to full-length tau protein, selected from SEQ ID NO: 4 and polymers of SEQ ID NO: 4.
A process for preparing a conjugate of human albumin and 2-(4-isothiocyanatobenzyl)-1,4,7,10-tetraazacyclododecane-1,4,7,10-tetraacetic acid (p-SCN-Bn-DOTA), comprising the steps of: a) reacting HA with p-SCN-Bn-DOTA in an aqueous medium at a temperature between 35°C and 45°C, thus forming a suspension, containing a solid phase suspended in a liquid phase; b) separating said solid phase, containing said conjugate, from said liquid phase, possibly containing unreacted p-SCN-Bn-DOTA. a) reacting HA with p-SCN-Bn-DOTA in an aqueous medium at a temperature between 35°C and 45°C, thus forming a suspension, containing a solid phase suspended in a liquid phase; b) separating said solid phase, containing said conjugate, from said liquid phase, possibly containing unreacted p-SCN-Bn-DOTA.
A production method for an Mg-based structural material comprising a magnesium or magnesium alloy base and formed in a desired structural shape, wherein the surface of the base is coated with a film comprising apatite crystals as the main component thereof, and wherein the coating film and said base are integrated via a magnesium hydroxide layer, wherein the base formed in a desired shape is dipped in an aqueous solution containing a phosphate ion and a non-chloride calcium ion derived from Ca-EDTA dissolved in a supersaturation state, thereby precipitating a coating film comprising apatite crystals as the main component thereof, on the surface of the base.
A method for determining an intended orientation and/or position of a user's head when the orientation of the user's head is being changed involuntarily by vibratory or buffeting forces transmitted through the user's body from a point of contact of the user's body with said forces, the method comprising: determining, at a sensor (210, 475), a sensed force variable at the point of contact due to said forces; predicting an involuntary component of orientation of the user's head at a predetermined time due to the sensed force variable, the predicting using an adaptive filter comprising a first input, a first output, a filter coefficient input, and at least one filter coefficient, characterised in that the first output is equal to the involuntary component of orientation and the first input comprises the sensed force variable; determining, using at least one tracking system, an orientation variable of the user's head at the predetermined time; subtracting a first value from a second value, the first value equal to the first output and the second value equal to the orientation variable, to provide a third value equal to the filter coefficient input; updating the at least one filter coefficient based on the filter coefficient input; and determining the intended orientation and/or position of a user's head based on the third value; wherein the point of contact is substantially fixed in location relative to the user. determining, at a sensor (210, 475), a sensed force variable at the point of contact due to said forces; predicting an involuntary component of orientation of the user's head at a predetermined time due to the sensed force variable, the predicting using an adaptive filter comprising a first input, a first output, a filter coefficient input, and at least one filter coefficient, characterised in that the first output is equal to the involuntary component of orientation and the first input comprises the sensed force variable; determining, using at least one tracking system, an orientation variable of the user's head at the predetermined time; subtracting a first value from a second value, the first value equal to the first output and the second value equal to the orientation variable, to provide a third value equal to the filter coefficient input; updating the at least one filter coefficient based on the filter coefficient input; and determining the intended orientation and/or position of a user's head based on the third value; wherein the point of contact is substantially fixed in location relative to the user.
A pillow comprising: a first panel having an edge (34, 36, 38, 40) defining a perimeter; a second panel having an edge (34A, 36A, 38A, 40A) defining a perimeter; and a gusset joining the first and second panels (32, 32A), the gusset having a first porosity, the gusset comprising a plurality of ports each extending through the structure of the gusset, the ports each being comprised of a breathable material having a second porosity that is greater than the first porosity, wherein inner surfaces of the first and second panels (32, 32A) and the gusset define a cavity or chamber, wherein the ports each being configured and arranged with the other of the plurality of ports to allow a greater amount of air flow in and out of the cavity at areas of the pillow that includes ports relative to areas of the pillow that do not include ports, and wherein the gusset comprises longitudinal portions (44A,44B), and lateral portions (44C,44D) each said portions (44A-D) comprising the ports, wherein at least one of said portions (44A-D) includes more of the, ports than another of said portions (44A-D) to provide increased air flow in and out of cavity in the portion with more of the ports relative to the remaining portions of gusset. a first panel having an edge (34, 36, 38, 40) defining a perimeter; a second panel having an edge (34A, 36A, 38A, 40A) defining a perimeter; and a gusset joining the first and second panels (32, 32A), the gusset having a first porosity, the gusset comprising a plurality of ports each extending through the structure of the gusset, the ports each being comprised of a breathable material having a second porosity that is greater than the first porosity, wherein inner surfaces of the first and second panels (32, 32A) and the gusset define a cavity or chamber, wherein the ports each being configured and arranged with the other of the plurality of ports to allow a greater amount of air flow in and out of the cavity at areas of the pillow that includes ports relative to areas of the pillow that do not include ports, and wherein the gusset comprises longitudinal portions (44A,44B), and lateral portions (44C,44D) each said portions (44A-D) comprising the ports, wherein at least one of said portions (44A-D) includes more of the, ports than another of said portions (44A-D) to provide increased air flow in and out of cavity in the portion with more of the ports relative to the remaining portions of gusset.
Burner for a combustion chamber of a gas turbine comprising a swirler; the swirler comprising an annular housing with limiting walls having an inlet area, and an outlet area in the main flow direction, at least two vanes, which are arranged in the annular housing, each having a streamlined cross-sectional profile, which extends with a longitudinal direction perpendicularly or at an inclination to a main flow direction prevailing in the swirler, wherein the leading edge area of each vane has a profile, which is oriented parallel to a main flow direction prevailing at the leading edge position, and wherein the profiles of the vanes turn from the main flow direction prevailing at the leading edge position to impose a swirl on the flow, wherein, with reference to a central plane of the vanes the trailing edges are provided with at least two lobes (28, 29), wherein at least two fuel nozzles are provided at the trailing edge of at least one of the vanes and distributed along said trailing edge, characterized in that the lobes (28,29) alternatingly extend out of the central plane in opposite transverse directions (30, 31); wherein optionally at least one injection device with at least one nozzle for introducing at least one fuel into the burner is provided upstream of the vanes and/ or at least one nozzle for introducing at least one fuel into the burner is provided at the inner limiting wall and/or the outer limiting wall (44"); wherein at least at one position, where the lobed trailing edge crosses the central plane, there is located a fuel nozzle for injection of a liquid fuel, and wherein at least one fuel nozzles for injection of a gaseous fuel is located at the turning points between two lobes (28, 29).