mhurhangee/patent-ind-claim-en huggingface dataset:
A stage light with a defogging device, comprising a light head , in which a mounting plate configured for fixing a light source and a supporting plate configured for mounting an optical lens are arranged, wherein at a light outlet of the light head a light emitting lens is provided, a light source cavity is formed by the supporting plate , the mounting plate and an inner side wall of the light head , and a blower is arranged in the light source cavity, which is configured to guide airflow into space between the supporting plate and the light emitting lens through an air guiding element , characterized by further comprising an annular air duct disposed around the light emitting lens , wherein the annular air duct is communicated with the air guiding element , and a side wall of the annular air duct close to a center of the light emitting lens is provided with a plurality of air exhaust holes .
A pharmaceutical immuno-oncology combination for use in a method of treatment of cancer in an individual, said combination comprising: (i) a checkpoint inhibitor that is an anti-PD-1 or PD-L1 inhibitory antibody, and (ii) an expression vector encoding an antigen specific TAA/ecdCD40L vaccine component, wherein TAA/ecdCD40L is a fusion protein of a mucin-1 antigen ("TAA", MUC1) and the extracellular domain of a CD40 ligand ("ecdCD40L"), with CD40 ligand also being known as CD154 or TNF5, excluding at least the transmembrane domain that inhibits secretion, wherein said checkpoint inhibitor and said vaccine component are both to be administered to an individual including additional boosts of the same; the administration generates an immune response against a cancerous tumor antigen in said individual by effecting a reduction of total population of CD11b positive cells in the cancerous tumor and increasing the magnitude of the antitumor immune response in said individual; and the checkpoint inhibitor and the vaccine component are administered as a combination at effective amounts over a common time period to produce through their biological interaction an enhanced synergistic immune response relative to an immune response by the checkpoint inhibitor antibody component administered as monotherapy. (i) a checkpoint inhibitor that is an anti-PD-1 or PD-L1 inhibitory antibody, and (ii) an expression vector encoding an antigen specific TAA/ecdCD40L vaccine component, wherein TAA/ecdCD40L is a fusion protein of a mucin-1 antigen ("TAA", MUC1) and the extracellular domain of a CD40 ligand ("ecdCD40L"), with CD40 ligand also being known as CD154 or TNF5, excluding at least the transmembrane domain that inhibits secretion, wherein said checkpoint inhibitor and said vaccine component are both to be administered to an individual including additional boosts of the same; the administration generates an immune response against a cancerous tumor antigen in said individual by effecting a reduction of total population of CD11b positive cells in the cancerous tumor and increasing the magnitude of the antitumor immune response in said individual; and the checkpoint inhibitor and the vaccine component are administered as a combination at effective amounts over a common time period to produce through their biological interaction an enhanced synergistic immune response relative to an immune response by the checkpoint inhibitor antibody component administered as monotherapy.
Method for contactless determination of at least one property of an at least partially melted quasi-endless strand during a casting process of the quasi-endless strand , which cools down in a cooling zone (K), whereby a successive hardening of the quasi-endless strand is enabled, comprising at least the following steps: - Emitting (S01) a first signal , in particular first radar signal , in the form of radiation by an emission device , in particular a radar emission device , - generating (S02a) a second signal , in particular second radar signal , at least partly by interaction (S02b) of the first signal with a region of the quasi-endless string , - receiving (S03) the second signal by a reception device , in particular by a reception device for radar signals, - determining (S04) at least one property of the quasi-endless string on the basis of the second signal , characterized in that at least the step of interacting (S02b) is performed within the cooling zone (K) or upstream of the cooling zone (K). - Emitting (S01) a first signal , in particular first radar signal , in the form of radiation by an emission device , in particular a radar emission device , - generating (S02a) a second signal , in particular second radar signal , at least partly by interaction (S02b) of the first signal with a region of the quasi-endless string , - receiving (S03) the second signal by a reception device , in particular by a reception device for radar signals, - determining (S04) at least one property of the quasi-endless string on the basis of the second signal ,
A secondary battery comprising: a case ; a cap plate coupled to the case ; at least one electrode assembly accommodated in the case , the electrode assembly comprising a positive electrode plate, a negative electrode plate, and a separator located between the positive and negative electrode plates; an electrode collector electrically connected to the electrode assembly ; an electrode terminal connected to the electrode collector and protruding outward from the cap plate ; a gasket surrounding the electrode terminal ; and wherein the electrode collector comprises at least a bent portion , wherein the battery further comprises a reinforcement part coupled to the gasket such that at least a portion of the electrode collector is located between the reinforcement part and the gasket , the reinforcement part is formed to be molded to include the bent portion , characterised in that at least one first opening is formed in the gasket , at least one hook is formed on the reinforcement part , and the hook is configured to penetrate the first opening and to be coupled to the gasket . a case ; a cap plate coupled to the case ; at least one electrode assembly accommodated in the case , the electrode assembly comprising a positive electrode plate, a negative electrode plate, and a separator located between the positive and negative electrode plates; an electrode collector electrically connected to the electrode assembly ; an electrode terminal connected to the electrode collector and protruding outward from the cap plate ; a gasket surrounding the electrode terminal ; and wherein the electrode collector comprises at least a bent portion , wherein the battery further comprises a reinforcement part coupled to the gasket such that at least a portion of the electrode collector is located between the reinforcement part and the gasket , the reinforcement part is formed to be molded to include the bent portion , characterised in that at least one first opening is formed in the gasket , at least one hook is formed on the reinforcement part , and the hook is configured to penetrate the first opening and to be coupled to the gasket .
A portable terminal comprising conductive components (C1, C2, C3), a circuit board , a conductive layer disposed on the circuit board of the portable terminal and an antenna device , the antenna device comprising: a slit formed by partially removing the conductive layer ; a power feeding line formed across the slit ; a first radiator (A1) formed around the slit by a part of the conductive layer at an edge side of the circuit board and connected to a power feeding unit (F) of the portable terminal and a second radiator (A2) formed around the slit by another part of the conductive layer at the edge side of the circuit board and connected to each of the power feeding unit (F) and to a ground part (G) of the portable terminal , wherein at least one of the conductive components (C1, C2, C3) comprises a connector member mounted on the conductive layer at the edge side of the circuit board between the power feeding unit (F) and the ground part (G), wherein the connector member is connected to at least one of the first radiator (A1) and the second radiator (A2), and wherein the connector member is connected with the power feeding unit (F) through the power feeding line . a slit formed by partially removing the conductive layer ; a power feeding line formed across the slit ; a first radiator (A1) formed around the slit by a part of the conductive layer at an edge side of the circuit board and connected to a power feeding unit (F) of the portable terminal and a second radiator (A2) formed around the slit by another part of the conductive layer at the edge side of the circuit board and connected to each of the power feeding unit (F) and to a ground part (G) of the portable terminal , wherein at least one of the conductive components (C1, C2, C3) comprises a connector member mounted on the conductive layer at the edge side of the circuit board between the power feeding unit (F) and the ground part (G), wherein the connector member is connected to at least one of the first radiator (A1) and the second radiator (A2), and wherein the connector member is connected with the power feeding unit (F) through the power feeding line .
A polypeptide conjugate comprising: wherein the circle represents a polypeptide or polypeptide complex, which may comprise modifications other than the one shown; each S is a sulfur atom of a cysteine residue of the polypeptide or polypeptide complex; T 1 represents a group of the formula -CH 2 -C(=N-O-[L 1 ])-CH 2 -, wherein [L 1 ] indicates the point of attachment of T 1 to L 1, and T 2 represents a group of the formula -CH 2 -C(=N-O-[L 2 ])-CH 2 -, wherein [L 2 ] indicates the point of attachment of T 2 to L 2 ; L 1 and L 2 each represent a linking group connecting T 1 or T 2 , respectively, to A; L 3 is a linking group that connects A to R; A represents a group connecting L 1 , L 2 and L 3 ; and R represents a payload or a reactive functional group for attaching a payload. wherein the circle represents a polypeptide or polypeptide complex, which may comprise modifications other than the one shown; each S is a sulfur atom of a cysteine residue of the polypeptide or polypeptide complex; T 1 represents a group of the formula -CH 2 -C(=N-O-[L 1 ])-CH 2 -, wherein [L 1 ] indicates the point of attachment of T 1 to L 1, and T 2 represents a group of the formula -CH 2 -C(=N-O-[L 2 ])-CH 2 -, wherein [L 2 ] indicates the point of attachment of T 2 to L 2 ; L 1 and L 2 each represent a linking group connecting T 1 or T 2 , respectively, to A; L 3 is a linking group that connects A to R; A represents a group connecting L 1 , L 2 and L 3 ; and R represents a payload or a reactive functional group for attaching a payload.
A photocurable cyanoacrylate composition, characterized in that it comprises: a) at least 40 wt.% of a cyanoacrylate monomer, b) between 0.0055 wt.% and 0.0295 wt.% of ferrocene, c) between 0.1 wt.% and 0.8 wt.% of a benzoyl phosphine oxide as photoinitiator, preferably selected from phenyl bis(2,4,6-trimethylbenzoyl)phosphine oxide (BAPO), diphenyl (2,4,6-trimethylbenzoyl)phosphine oxide (TPO), benzoyl-diphenylphosphine oxide (BDPO), 2,4,6-trimethylbenzoyl-methoxy-phenylphosphine oxide (TMMPO), phthaloyl-bis(diphenylphosphine oxide) (PBDPO), 2,6-difluoro benzoyl-diphenylphosphine oxide (DFDPO), and mixtures thereof, more preferably selected from phenyl bis(2,4,6-trimethylbenzoyl)phosphine oxide (BAPO), diphenyl (2,4,6-trimethylbenzoyl)phosphine oxide (TPO), and mixtures thereof, and d) between 0.05 wt.% and 1.5 wt.% of a radical polymerisation inhibitor, wherein the wt.% is based on the total weight of the composition. a) at least 40 wt.% of a cyanoacrylate monomer, b) between 0.0055 wt.% and 0.0295 wt.% of ferrocene, c) between 0.1 wt.% and 0.8 wt.% of a benzoyl phosphine oxide as photoinitiator, preferably selected from phenyl bis(2,4,6-trimethylbenzoyl)phosphine oxide (BAPO), diphenyl (2,4,6-trimethylbenzoyl)phosphine oxide (TPO), benzoyl-diphenylphosphine oxide (BDPO), 2,4,6-trimethylbenzoyl-methoxy-phenylphosphine oxide (TMMPO), phthaloyl-bis(diphenylphosphine oxide) (PBDPO), 2,6-difluoro benzoyl-diphenylphosphine oxide (DFDPO), and mixtures thereof, more preferably selected from phenyl bis(2,4,6-trimethylbenzoyl)phosphine oxide (BAPO), diphenyl (2,4,6-trimethylbenzoyl)phosphine oxide (TPO), and mixtures thereof, and d) between 0.05 wt.% and 1.5 wt.% of a radical polymerisation inhibitor,
A method for producing a filter including a gasket , whereby the gasket is applied to the filter through master forming without a moulding tool, in particular by applying the gasket to the filter with a nozzle , characterized in that the nozzle is a temperature-controlled nozzle.
A luggage or bag for convenient replacement of charging cable, comprising a luggage or bag body , a cable laying channel and a power cable provided in the cable laying channel ; the power cable has a male connector (2.1) and a female connector (2.2), the cable laying channel has a port I (3.1) and a port II (3.2); characterized in that : port I (3.1) of the cable laying channel is provided on a shoulder strap of the luggage or bag body ; port II (3.2) of the cable laying channel is provided under an external surface of a joint between the shoulder strap and the luggage or bag body ; the cable laying channel extends from port I (3.1) to the joint between the shoulder strap and the luggage or bag body along the shoulder strap , and then extends to port II (3.2) of the cable laying channel ; the male connector (2.1) of the power cable is exposed outside port II (3.2) of the cable laying channel , and the female connector (2.2) of the power cable is exposed outside port I (3.1) of the cable laying channel ; a fastening for opening or closing the cable laying channel is provided at a side of port I (3.1) of the cable laying channel ; the luggage or bag body is provided with a power storage space .
A wheel with a sound absorber, the sound absorber being mounted in a wheel air chamber to reduce acoustic resonance, wherein the sound absorber is configured as a flat hexahedral box resonator and fastened to a wheel hub through a band , a first positioning mechanism is provided between the hub and the box resonator to fix the relative positions of the hub and the box resonator, and a second positioning mechanism is provided between the box resonator and the band to fix the relative positions of the box resonator and the band; characterized in that the first positioning mechanism comprises a first mating structure, the first mating structure being used for fixing the hub and the box resonator in the axial direction of the wheel, and a second mating structure, the second mating structure being for fixing the hub and the box resonator in the circumferential direction of the wheel; wherein the first mating structure comprises a guide rail disposed circumferentially on the circumferential surface of the hub, and grooves formed on the bottom surface of the box resonator and corresponding to the guide rail, and the second mating structure comprises notches formed on the guide rail, and bosses corresponding to the notches in the extending paths of the grooves on the box resonator ; and wherein the guide rail comprises two ribs circumferentially on the circumferential surface of the hub, two grooves are correspondingly formed on the bottom surface of the box resonator, one notch is respectively formed on each rib on one side of the hub, and one boss is respectively formed in the extending paths of each groove on one side of the box resonator; in the mounted state of the box resonator , the guide rail on one side of the hub is engaged with the groove on one side of the box resonator to fix the relative positions of the hub and the box resonator in the axial direction of the wheel, at the same time, the notch on one side of the hub is engaged with the boss on one side of the box resonator to fix the relative positions of the hub and the box resonator in the circumferential direction of the wheel, and there are gaps between bottom surfaces of the box resonator and outer surfaces of the rim of the hub.
A ventilation unit for ventilating an indoor space by natural ventilation, comprising: a first air port for positioning outside the indoor space ; a second air port for positioning inside the indoor space ; a mechanical restrictor for controlling a restriction to a flow between the first and second air ports, wherein the flow results from a pressure differential between the first and second air ports; a pressure sensing arrangement for determining the air pressures or the air pressure difference in the vicinity of the first and second air ports; a first air quality determination system for determining air quality parameters relating to the space outside the indoor space; a second air quality determination system for determining air quality parameters relating to the indoor space; and characterized in that the unit comprises an air cleaning device between the first and second air ports, and a controller , wherein the controller is adapted to control the air cleaning device and the mechanical restrictor in dependence on the determined air pressures and air quality parameters. a first air port for positioning outside the indoor space ; a second air port for positioning inside the indoor space ; a mechanical restrictor for controlling a restriction to a flow between the first and second air ports, wherein the flow results from a pressure differential between the first and second air ports; a pressure sensing arrangement for determining the air pressures or the air pressure difference in the vicinity of the first and second air ports; a first air quality determination system for determining air quality parameters relating to the space outside the indoor space; a second air quality determination system for determining air quality parameters relating to the indoor space; and characterized in that the unit comprises an air cleaning device between the first and second air ports, and a controller , wherein the controller is adapted to control the air cleaning device and the mechanical restrictor in dependence on the determined air pressures and air quality parameters.
A tire comprising a tread , at least one carcass ply placed radially inward of the tread and at least one ply placed radially inbetween the tread and the at least one carcass ply , the tread having a contact face of a contact width CW intended to come into contact with ground during rolling, the tread being axially divided into 3 regions, 2 shoulder regions located axially outward of the tread being composed of a shoulder rubber composition and a center region axially sandwiched by the 2 shoulder regions being composed of a center rubber composition different than the shoulder rubber composition, a glass transition temperature Tg of the center rubber composition being higher than a glass transition temperature Tg of the shoulder rubber composition, wherein the glass transition temperature Tg of the center rubber composition is at least equal to 10°C higher than the glass transition temperature Tg of the shoulder rubber composition, the tire being characterized in that the at least one ply comprises a plurality of reinforcing cords extending with an angle A in a range from 35 to 55 degrees relative to a circumferential orientation. the tread being axially divided into 3 regions, 2 shoulder regions located axially outward of the tread being composed of a shoulder rubber composition and a center region axially sandwiched by the 2 shoulder regions being composed of a center rubber composition different than the shoulder rubber composition, a glass transition temperature Tg of the center rubber composition being higher than a glass transition temperature Tg of the shoulder rubber composition, wherein the glass transition temperature Tg of the center rubber composition is at least equal to 10°C higher than the glass transition temperature Tg of the shoulder rubber composition, the tire being characterized in that the at least one ply comprises a plurality of reinforcing cords extending with an angle A in a range from 35 to 55 degrees relative to a circumferential orientation.
A latch configured to fix a panel relative to a frame , the latch comprising: a housing configured for engagement to the panel , the housing having a longitudinal axis and defining an aperture along the longitudinal axis, the aperture including a cutout area; a cap mounted within the aperture of the housing for rotation about the longitudinal axis, the cap comprising an outer surface including a drive projection and a cutout area; a bushing mounted within the aperture of the housing for rotation about the longitudinal axis, the bushing comprising an upper surface and a sidewall , the sidewall positioned between the cap and the housing , the sidewall defining a drive surface positioned to contact the drive projection of the cap and an opening ; characterised in that the latch further comprises a ball positioned within the opening of the bushing , the ball configured to be positioned at least partially within either the cutout area of the housing or the cutout area of the cap . a housing configured for engagement to the panel , the housing having a longitudinal axis and defining an aperture along the longitudinal axis, the aperture including a cutout area; a cap mounted within the aperture of the housing for rotation about the longitudinal axis, the cap comprising an outer surface including a drive projection and a cutout area; a bushing mounted within the aperture of the housing for rotation about the longitudinal axis, the bushing comprising an upper surface and a sidewall , the sidewall positioned between the cap and the housing , the sidewall defining a drive surface positioned to contact the drive projection of the cap and an opening ; characterised in that the latch further comprises a ball positioned within the opening of the bushing , the ball configured to be positioned at least partially within either the cutout area of the housing or the cutout area of the cap .
A method for producing an alloy powder having a TiAl-based intermetallic compound as a main component, the method comprising: a hydrogenation treatment step (S10) of performing hydrogenation treatment of an alloy having a TiAl-based intermetallic compound as a main component in an environment of a set temperature ranging from 1100°C to lower than 1600°C at which the alloy is completely phase-transformed to β phase; a dehydrogenation treatment step (S12) of performing dehydrogenation treatment of the alloy which has been subjected to the hydrogenation treatment, and a crushing treatment step (S14) of performing crushing treatment of the alloy which has been subjected to the hydrogenation treatment before or after the dehydrogenation treatment. a hydrogenation treatment step (S10) of performing hydrogenation treatment of an alloy having a TiAl-based intermetallic compound as a main component in an environment of a set temperature ranging from 1100°C to lower than 1600°C at which the alloy is completely phase-transformed to β phase; a dehydrogenation treatment step (S12) of performing dehydrogenation treatment of the alloy which has been subjected to the hydrogenation treatment, and a crushing treatment step (S14) of performing crushing treatment of the alloy which has been subjected to the hydrogenation treatment before or after the dehydrogenation treatment.