mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication at a transmitter, the method comprising: identifying that a set of resources configured for a Control Resource Set, CORESET, for a receiver are also configured for a Phase Tracking Reference Signal, PT-RS, for the receiver, characterized by , puncturing the PT-RS for a number of resources in the set of resources for the CORESET that are configured for a control transmission; and transmitting the PT-RS, without puncturing, on remaining resources in the set of resources configured for the CORESET that are not used for the control transmission. identifying that a set of resources configured for a Control Resource Set, CORESET, for a receiver are also configured for a Phase Tracking Reference Signal, PT-RS, for the receiver, characterized by , puncturing the PT-RS for a number of resources in the set of resources for the CORESET that are configured for a control transmission; and transmitting the PT-RS, without puncturing, on remaining resources in the set of resources configured for the CORESET that are not used for the control transmission.
A slat end seal comprising: a shell having a first surface , a second surface opposite the first surface , and a sidewall extending from the first surface , characterized in that the shell includes a plurality of through holes in the first surface of the shell ; and in that the slat end seal comprises a lattice structure coupled to the first surface of the shell and configured to compress in response to a force applied to the second surface of the shell , wherein the lattice structure includes a plurality of supports defining a plurality of interstitial voids between the plurality of supports , and wherein the lattice structure includes at least one through hole aligned with at least one through hole of the plurality of through holes in the first surface of the shell . a shell having a first surface , a second surface opposite the first surface , and a sidewall extending from the first surface , characterized in that the shell includes a plurality of through holes in the first surface of the shell ; and in that the slat end seal comprises a lattice structure coupled to the first surface of the shell and configured to compress in response to a force applied to the second surface of the shell , wherein the lattice structure includes a plurality of supports defining a plurality of interstitial voids between the plurality of supports , and wherein the lattice structure includes at least one through hole aligned with at least one through hole of the plurality of through holes in the first surface of the shell .
A catalyzed soot filter comprising a porous wall flow substrate, a catalyst for selective catalytic reduction (SCR), a palladium component, and a platinum component, the wall flow substrate comprising an inlet end, an outlet end, a substrate axial length extending between the inlet end and the outlet end, and a plurality of channels defined by internal walls of the wall flow substrate, wherein the plurality of channels comprise inlet channels having an open inlet end and a closed outlet end, and outlet channels having a closed inlet end and an open outlet end, wherein the SCR catalyst is provided on the entire surface of the inlet channel walls and on at least a portion of the surface of the pores within the channel walls underneath the surface of the channel walls coated with the SCR catalyst, wherein the palladium component is provided on a portion of the surface of the inlet channel walls and on at least a portion of the surface of the pores within the channel walls underneath the surface of the portions of the channel walls coated with the palladium component, wherein the portion of the inlet channel walls coated with the palladium component extends from the inlet end to x % of the substrate axial length with 0 < x < 100, wherein the platinum component is provided on a portion of the surface of the outlet channel walls and on at least a portion of the surface of the pores within the channel walls within the surface of the portions of the channel walls coated with the platinum component, wherein the portion of the outlet channel walls coated with the platinum component extends from the outlet end to 100-x % of the substrate axial length. the wall flow substrate comprising an inlet end, an outlet end, a substrate axial length extending between the inlet end and the outlet end, and a plurality of channels defined by internal walls of the wall flow substrate, wherein the plurality of channels comprise inlet channels having an open inlet end and a closed outlet end, and outlet channels having a closed inlet end and an open outlet end, wherein the SCR catalyst is provided on the entire surface of the inlet channel walls and on at least a portion of the surface of the pores within the channel walls underneath the surface of the channel walls coated with the SCR catalyst, wherein the palladium component is provided on a portion of the surface of the inlet channel walls and on at least a portion of the surface of the pores within the channel walls underneath the surface of the portions of the channel walls coated with the palladium component, wherein the portion of the inlet channel walls coated with the palladium component extends from the inlet end to x % of the substrate axial length with 0 < x < 100, wherein the platinum component is provided on a portion of the surface of the outlet channel walls and on at least a portion of the surface of the pores within the channel walls within the surface of the portions of the channel walls coated with the platinum component, wherein the portion of the outlet channel walls coated with the platinum component extends from the outlet end to 100-x % of the substrate axial length.
An interconnected corrugated carbon-based network comprising at least 100 expanded and interconnected carbon layers having an oxygen content that is up to 5% as determined by X-ray photoelectron spectroscopy (XPS).
An implant for bone fixation, comprising: an elongate body having a longitudinal axis and a triangular cross section transverse to the longitudinal axis, three faces , a plurality of apexes joining the three faces, and a plurality of pockets with openings on the three faces, wherein: the elongate body further comprises a central lumen extending along the longitudinal axis of the elongate body, characterised in that the plurality of pockets do not extend to the central lumen, and the implant has a bending strength or a shear strength of 0.5 to 0.9 relative to a reference implant that is cannulated but otherwise solid and which has a bending strength of 1.00 and a shear strength of 1.00. the elongate body further comprises a central lumen extending along the longitudinal axis of the elongate body, characterised in that the plurality of pockets do not extend to the central lumen, and the implant has a bending strength or a shear strength of 0.5 to 0.9 relative to a reference implant that is cannulated but otherwise solid and which has a bending strength of 1.00 and a shear strength of 1.00.
Method for manufacturing a passivation stack on a crystalline silicon solar cell device , the method comprising the steps of: - providing a substrate comprising a crystalline silicon layer , such as a crystalline silicon wafer or chip; - cleaning a surface of the crystalline silicon layer by removing an oxide layer at least from a portion of one side of the crystalline silicon layer ; - depositing, on at least a part of the cleaned surface , a layer of silicon oxynitride by means of plasma-enhanced chemical vapour deposition; and - depositing a capping layer comprising a hydrogenated dielectric material on top of the layer of silicon oxynitride wherein the layer of silicon oxynitride is deposited at a temperature from 100 °C to 200 °C, preferably from 100 °C to 150 °C , and even more preferably from 100 °C to 130 °C, characterized in that the step of depositing the layer of silicon oxynitride includes the sub-steps of: - using N 2 0 and SiH 4 as precursor gasses in an N 2 ambient atmosphere; and - depositing silicon oxynitride with a gas flow ratio of N 2 O to SiH 4 below 2, preferably below 1, and even more preferably around 0.5. - providing a substrate comprising a crystalline silicon layer , such as a crystalline silicon wafer or chip; - cleaning a surface of the crystalline silicon layer by removing an oxide layer at least from a portion of one side of the crystalline silicon layer ; - depositing, on at least a part of the cleaned surface , a layer of silicon oxynitride by means of plasma-enhanced chemical vapour deposition; and - depositing a capping layer comprising a hydrogenated dielectric material on top of the layer of silicon oxynitride wherein the layer of silicon oxynitride is deposited at a temperature from 100 °C to 200 °C, preferably from 100 °C to 150 °C , and even more preferably from 100 °C to 130 °C, characterized in that the step of depositing the layer of silicon oxynitride includes the sub-steps of: - using N 2 0 and SiH 4 as precursor gasses in an N 2 ambient atmosphere; and - depositing silicon oxynitride with a gas flow ratio of N 2 O to SiH 4 below 2, preferably below 1, and even more preferably around 0.5. - using N 2 0 and SiH 4 as precursor gasses in an N 2 ambient atmosphere; and - depositing silicon oxynitride with a gas flow ratio of N 2 O to SiH 4 below 2, preferably below 1, and even more preferably around 0.5.
Gas meter structure , comprising - a box-shaped body , - an inlet mouth and an outlet mouth suited to allow the passage of a gas flow and defined on said box-shaped body , wherein inside said box-shaped body there are: - a metering device suited to measure one or more parameters for the determination of the gas flow rate, - filtering means suited to filter the gas flow, said filtering means comprising a dust deposit chamber for the dust present in the gas flowing in, said dust deposit chamber comprising an inlet opening , which communicates with said inlet mouth of said box-shaped body , and a dust collection bottom , said dust deposit chamber comprising a filtering outlet wall provided with through openings , said dust deposit chamber being configured in such a way that the gas flows into it through said inlet opening and flows out of it through said through openings of said filtering outlet wall , said filtering wall being defined on a mechanical filtering partition , the gas meter structure comprising also an inlet duct extending from said inlet mouth at least to said inlet opening of said dust deposit chamber , said inlet duct having a first end , to be considered as the lower end with respect to a normal configuration of use, and a second end , to be considered as the upper end, a passage space being defined between said first end and said bottom for the gas flowing out of said first end of said inlet duct itself, characterized in that said mechanical filtering partition develops according to a reference plane (P) that lies crosswise with respect to the direction (X4) of extension of said inlet duct at the level of a section of said inlet duct that serves for connection to said inlet opening . - a box-shaped body , - an inlet mouth and an outlet mouth suited to allow the passage of a gas flow and defined on said box-shaped body , - a metering device suited to measure one or more parameters for the determination of the gas flow rate, - filtering means suited to filter the gas flow,
A pharmaceutical composition comprising A14E, B16H, B25H, B29K((N ε -Eicosanedioyl-γGlu-[2-(2-{2-[2-(2-aminoethoxy)ethoxy]acetylamino}ethoxy)ethoxy]-acetyl)), desB30 human insulin (Compound 1); and semaglutide; and further comprising of from 1 to 2% (weight/weight) of glycerol; of from 45 to 75 mM of phenol; of from 0 to 19 mM of m-cresol; of from 1.5 to 2.5 moles of zinc ions per six moles of Compound 1; of 5 to 50 mM of sodium chloride; and having a pH value in the range of from 7.2 to 8.0 . and further comprising of from 1 to 2% (weight/weight) of glycerol; of from 45 to 75 mM of phenol; of from 0 to 19 mM of m-cresol; of from 1.5 to 2.5 moles of zinc ions per six moles of Compound 1; of 5 to 50 mM of sodium chloride; and having a pH value in the range of from 7.2 to 8.0 .
An eye shield for releasable mounting to a face of a patient , used to inhibit direct pressure being applied to eyes of the patient during a medical procedure, including; a resiliently deformable base , including first and second apertures extending therethrough that correspond to a position of the eyes of the patient , the eye shield being adapted to be attached to the face around orbital rims of the respective eyes , the base including an adhesive layer on an underside thereof, for attachment to the face , whereby the eye shield overlays both orbital rims of the patient; characterised by a curved, flexible, transparent cover plate attached to an upper surface of said base and extending over said first and second apertures , the cover plate including first and second eye cover portions joined by an integral hinge member located therebetween; wherein the hinge member has a greater degree of flex than the first and second eye cover portions ; wherein the first and second eye cover portions are configured to pivot relative to each other around the hinge member and flex along at least a part of their respective spans to generally conform to the shape of the face ; and wherein the first and second eye cover portions and integral hinge member of the cover plate are of unitary construction, the hinge member extending down the cover plate , from a top to a bottom at a mid region thereof, the mid region corresponding to the position of a bridge of the patient's nose when the eye shield is attached to the face of the patient . a resiliently deformable base , including first and second apertures extending therethrough that correspond to a position of the eyes of the patient , the eye shield being adapted to be attached to the face around orbital rims of the respective eyes , the base including an adhesive layer on an underside thereof, for attachment to the face , whereby the eye shield overlays both orbital rims of the patient; characterised by a curved, flexible, transparent cover plate attached to an upper surface of said base and extending over said first and second apertures , the cover plate including first and second eye cover portions joined by an integral hinge member located therebetween; wherein the hinge member has a greater degree of flex than the first and second eye cover portions ; wherein the first and second eye cover portions are configured to pivot relative to each other around the hinge member and flex along at least a part of their respective spans to generally conform to the shape of the face ; and wherein the first and second eye cover portions and integral hinge member of the cover plate are of unitary construction, the hinge member extending down the cover plate , from a top to a bottom at a mid region thereof, the mid region corresponding to the position of a bridge of the patient's nose when the eye shield is attached to the face of the patient .
A controller in a power converter, comprising: a drive circuit coupled to generate a drive signal to control switching of a power switch of the power converter in response to a current sense signal representative of a current through the power switch, and in response to a feedback signal representative of an output of the power converter, to control a transfer of energy from an input of the power converter to the output of the power converter; a current limit generator coupled to generate a current limit signal responsive to a load coupled to the output of the power converter, wherein the drive circuit is coupled to generate the drive signal further in response to the current limit signal; an audible noise detection circuit arranged to receive the drive signal and configured to generate a frequency skip signal in response to the drive signal when an intended frequency of the drive signal is within an audible noise frequency window, wherein a state of the current limit signal generated by the current limit generator is configured to be fixed when the frequency skip signal indicates that the intended frequency of the drive signal is within the audible noise frequency window; and a first latch coupled to generate a hold signal configured to hold the power switch of the power converter in an OFF state, wherein the first latch is coupled to generate the hold signal in response to the frequency skip signal generated by the audible noise detection circuit, and in response to the feedback signal representative of the output of the power converter. a drive circuit coupled to generate a drive signal to control switching of a power switch of the power converter in response to a current sense signal representative of a current through the power switch, and in response to a feedback signal representative of an output of the power converter, to control a transfer of energy from an input of the power converter to the output of the power converter; a current limit generator coupled to generate a current limit signal responsive to a load coupled to the output of the power converter, wherein the drive circuit is coupled to generate the drive signal further in response to the current limit signal; an audible noise detection circuit arranged to receive the drive signal and configured to generate a frequency skip signal in response to the drive signal when an intended frequency of the drive signal is within an audible noise frequency window, wherein a state of the current limit signal generated by the current limit generator is configured to be fixed when the frequency skip signal indicates that the intended frequency of the drive signal is within the audible noise frequency window; and a first latch coupled to generate a hold signal configured to hold the power switch of the power converter in an OFF state, wherein the first latch is coupled to generate the hold signal in response to the frequency skip signal generated by the audible noise detection circuit, and in response to the feedback signal representative of the output of the power converter.
A compound according to Formula (I): for use in the treatment of a Cannabinoids-Related Disorder.
A construction material for a climate envelope of a building, the construction material comprising a first outer layer, directed to the outside of the building, and second inner layer, directed to the inside of the building, and a plurality of intermediate layers arranged between these layers, wherein said intermediate layers, in the direction from the outside towards the inside, comprise an insulating material , an air gap , an outer space filled with air, liquid or solid material or a combination of these, a PCM material , an inner space filled with air, liquid or solid material or a combination of these, and an additional layer of insulating material .
A cart storage system for storing a movable cart , comprising: a storage plate ; a stopper along a back side of the storage plate in a moving direction (a) of a cart ; and a first holding plate extending along the moving direction (a), wherein the storage plate is inclined with respect to a floor in a lateral direction (b) crossing the moving direction (a); and the first holding plate is configured to stop movement of the cart in the lateral direction (b) and disposed a first predetermined distance away from a lower lateral side of the storage plate . a storage plate ; a stopper along a back side of the storage plate in a moving direction (a) of a cart ; and a first holding plate extending along the moving direction (a), wherein the storage plate is inclined with respect to a floor in a lateral direction (b) crossing the moving direction (a); and the first holding plate is configured to stop movement of the cart in the lateral direction (b) and disposed a first predetermined distance away from a lower lateral side of the storage plate .
A fluorescence reading device comprising: an observation object holding unit that holds an observation object (S) that is excited with excitation light to emit fluorescence; a light source that emits the excitation light; a detecting unit in which detecting elements for detecting the fluorescence are two-dimensionally arranged; a lens unit which is disposed between the observation object holding unit and the detecting unit to focus the fluorescence on the detecting unit , and on which a plurality of refractive index distribution type lenses are two-dimensionally arranged: and a light guide unit that guides the excitation light emitted from the light source to radiate the guided excitation light toward a surface of the observation object (S) that faces the lens unit , wherein the lens unit is configured such that a plurality of lens arrays , in each of which the plurality of refractive index distribution type lenses are arranged in a line in a first direction, are arranged in a second direction orthogonal to the first direction, the lens unit further has a lens holding part , the lens holding part include a plurality of pairs of parallel flat plates each sandwiching and holding a line of lens arrays , and each extending in a direction perpendicular to the second direction; characterized in that the light guide unit includes a plurality of the optical fibers that guide the excitation light, the optical fibers are buried in the lens holding part, and emission ends of the optical fibers are exposed to a surface of the lens holding part that faces the observation object holding unit . an observation object holding unit that holds an observation object (S) that is excited with excitation light to emit fluorescence; a light source that emits the excitation light; a detecting unit in which detecting elements for detecting the fluorescence are two-dimensionally arranged; a lens unit which is disposed between the observation object holding unit and the detecting unit to focus the fluorescence on the detecting unit , and on which a plurality of refractive index distribution type lenses are two-dimensionally arranged: and a light guide unit that guides the excitation light emitted from the light source to radiate the guided excitation light toward a surface of the observation object (S) that faces the lens unit , wherein the lens unit is configured such that a plurality of lens arrays , in each of which the plurality of refractive index distribution type lenses are arranged in a line in a first direction, are arranged in a second direction orthogonal to the first direction, the lens unit further has a lens holding part , the lens holding part include a plurality of pairs of parallel flat plates each sandwiching and holding a line of lens arrays , and each extending in a direction perpendicular to the second direction; characterized in that the light guide unit includes a plurality of the optical fibers that guide the excitation light, the optical fibers are buried in the lens holding part, and emission ends of the optical fibers are exposed to a surface of the lens holding part that faces the observation object holding unit .