mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing and calibrating a Coriolis meter under test devoid of process connections, the method comprising the steps of: connecting a first process connection adapter to an input of said meter and a second process connection adapter to an output of said meter to form a series connection with said meter; flowing a fluid serially through said first process connection adapter, said meter, and said second process connection adapter; generating measurement signals from the meter in response to said flow; and processing the generated measurement signals to derive calibration information for the meter, and subsequently attaching process connections, based on customer requirements, to the meter. connecting a first process connection adapter to an input of said meter and a second process connection adapter to an output of said meter to form a series connection with said meter; flowing a fluid serially through said first process connection adapter, said meter, and said second process connection adapter; generating measurement signals from the meter in response to said flow; and processing the generated measurement signals to derive calibration information for the meter, and subsequently attaching process connections, based on customer requirements, to the meter.
A composition comprising a micelle construct loaded with an inhibitor of NF-kB, for use in the treatment of cancer in a subject, wherein the inhibitor of NF-kB is curcumin or salt thereof, and wherein the micelle construct is targeted to bind to glut-lvia a glut-1 antibody.
A method of correcting distortion of an image, comprising: analyzing, by a processor ; an image segment of the image to identify a speckle artifact, the image segment being obtained from a scanning imaging device ; determining, by the processor, an aspect ratio of a shape of the speckle artifact; determining, by the processor, a correction factor for the shape of the speckle artifact based on the aspect ratio; and adjusting, by the processor, a dimension of the image segment based on the correction factor. analyzing, by a processor ; an image segment of the image to identify a speckle artifact, the image segment being obtained from a scanning imaging device ; determining, by the processor, an aspect ratio of a shape of the speckle artifact; determining, by the processor, a correction factor for the shape of the speckle artifact based on the aspect ratio; and adjusting, by the processor, a dimension of the image segment based on the correction factor.
An occlusive implant (10; 110), comprising: an expandable framework (12; 112) configured to shift between a collapsed configuration and an expanded configuration; and an occlusive member (14; 114) disposed along at least a portion of the expandable framework (12; 112); said occlusive implant being characterized in that at least one part of the occlusive implant (10; 110) is negatively charged so as to repel fibrinogen and at least one other part of the occlusive implant (10; 110) is positively charged so as to attract fibrinogen. an expandable framework (12; 112) configured to shift between a collapsed configuration and an expanded configuration; and an occlusive member (14; 114) disposed along at least a portion of the expandable framework (12; 112); said occlusive implant being characterized in that at least one part of the occlusive implant (10; 110) is negatively charged so as to repel fibrinogen and at least one other part of the occlusive implant (10; 110) is positively charged so as to attract fibrinogen.
A light bulb comprising: a cap for mechanically and electrically connecting the light bulb to a lamp socket; a light-transmissive envelope ; and at least one carrier and one or more solid-state lighting devices mounted on the at least one carrier inside the envelope , wherein a base portion includes a distal cylindrical section and a proximal flared section , and the at least one carrier at least partly surrounds or clasps said distal cylindrical section and the at least one carrier is directly supported by the base portion , and wherein a proximal edge of the at least one carrier rests on said proximal flared section , wherein said light bulb further comprises a stem arranged inside the envelope , the stem including the base portion proximal to said cap and a tube portion distal to the cap, having a smaller diameter than the base portion, said light bulb being filled with a gas through said tube portion; and wherein the carrier has a portion proximal to the cap , which portion comprises a plurality of holes . a cap for mechanically and electrically connecting the light bulb to a lamp socket; a light-transmissive envelope ; and at least one carrier and one or more solid-state lighting devices mounted on the at least one carrier inside the envelope , wherein a base portion includes a distal cylindrical section and a proximal flared section , and the at least one carrier at least partly surrounds or clasps said distal cylindrical section and the at least one carrier is directly supported by the base portion , and wherein a proximal edge of the at least one carrier rests on said proximal flared section , wherein said light bulb further comprises a stem arranged inside the envelope , the stem including the base portion proximal to said cap and a tube portion distal to the cap, having a smaller diameter than the base portion, said light bulb being filled with a gas through said tube portion; and wherein the carrier has a portion proximal to the cap , which portion comprises a plurality of holes .
A method Performed by a network node of a wireless communication network for aligning discovery reference signal, DRS, occurrences, the method comprising: determining a first DRS occurrence configuration, the first DRS occurrence configuration comprising a schedule for transmission of a first series of DRS occurrences; determining a first discovery measurement timing configuration, DMTC, the first DMTC comprising a schedule for receiving DRS occurrences that is aligned with a first subset of DRS occurrences of the first series of DRS occurrences; determining a second DMTC, the second DMTC comprising a schedule for receiving DRS occurrences that is aligned with a second subset of DRS occurrences of the first series of DRS occurrences, wherein the second subset of DRS occurrences is different than the first subset of DRS occurrences; communicating the first DMTC to a first wireless device; communicating the second DMTC to a second wireless device; and determining a second DRS occurrence configuration, the second DRS occurrence configuration comprising a schedule for transmission of a second series of DRS occurrences, wherein the determined first DMTC comprises a schedule for receiving DRS occurrences that is aligned with a first subset of DRS occurrences of the second series of DRS occurrences. determining a first DRS occurrence configuration, the first DRS occurrence configuration comprising a schedule for transmission of a first series of DRS occurrences; determining a first discovery measurement timing configuration, DMTC, the first DMTC comprising a schedule for receiving DRS occurrences that is aligned with a first subset of DRS occurrences of the first series of DRS occurrences; determining a second DMTC, the second DMTC comprising a schedule for receiving DRS occurrences that is aligned with a second subset of DRS occurrences of the first series of DRS occurrences, wherein the second subset of DRS occurrences is different than the first subset of DRS occurrences; communicating the first DMTC to a first wireless device; communicating the second DMTC to a second wireless device; and determining a second DRS occurrence configuration, the second DRS occurrence configuration comprising a schedule for transmission of a second series of DRS occurrences, wherein the determined first DMTC comprises a schedule for receiving DRS occurrences that is aligned with a first subset of DRS occurrences of the second series of DRS occurrences.
A component for a gas turbine engine, comprising: a substrate ; a thermal barrier coating deposited on at least a portion of said substrate ; and an outer layer deposited on at least a portion of said thermal barrier coating , wherein said outer layer includes a material that is capable of reacting with an environmental contaminant that comes into contact with said outer layer to alter a microstructure of said outer layer, wherein: said material includes gadolinia zirconia, hafnia, a lanthanide mixture or a zirconia based ceramic material; said outer layer includes a higher porosity, a reduced density and a reduced modulus of elasticity as compared to said thermal barrier coating ; and wherein said outer layer is comprised of a plurality of individual suspension plasma sprayed coating passes and each of said coating passes has its own unique porosity, density and modulus of elasticity; wherein a solid portion is formed in at least one porous region of the outer layer in response to the reaction between the material and said environmental contaminant. a substrate ; a thermal barrier coating deposited on at least a portion of said substrate ; and an outer layer deposited on at least a portion of said thermal barrier coating , wherein said outer layer includes a material that is capable of reacting with an environmental contaminant that comes into contact with said outer layer to alter a microstructure of said outer layer, wherein: said material includes gadolinia zirconia, hafnia, a lanthanide mixture or a zirconia based ceramic material; said outer layer includes a higher porosity, a reduced density and a reduced modulus of elasticity as compared to said thermal barrier coating ; and wherein said outer layer is comprised of a plurality of individual suspension plasma sprayed coating passes and each of said coating passes has its own unique porosity, density and modulus of elasticity; wherein a solid portion is formed in at least one porous region of the outer layer in response to the reaction between the material and said environmental contaminant. said material includes gadolinia zirconia, hafnia, a lanthanide mixture or a zirconia based ceramic material; said outer layer includes a higher porosity, a reduced density and a reduced modulus of elasticity as compared to said thermal barrier coating ; and wherein said outer layer is comprised of a plurality of individual suspension plasma sprayed coating passes and each of said coating passes has its own unique porosity, density and modulus of elasticity; wherein a solid portion is formed in at least one porous region of the outer layer in response to the reaction between the material and said environmental contaminant.
Computer-implemented method for determining an irradiation plan for a particle irradiation unit , wherein the particle irradiation unit can be used to irradiate a target volume within an examination object (14; 18) with a particle beam depending on the irradiation plan, wherein the target volume and a predetermined dose distribution are prescribed, wherein the irradiation plan is determined in order to be able to apply the particle beam in accordance with the predetermined dose distribution in the target volume which comprises a plurality of isoenergy layers (7-9), wherein a boundary condition is prescribed for at least one of the isoenergy layers (7-9), characterized in that the irradiation plan is additionally determined in such a way that the boundary condition for the at least one isoenergy layer is observed and only isoenergy layers which satisfy the respectively prescribed boundary layer are irradiated, and in that the boundary condition comprises at least one of the following conditions: • a minimum peak energy, • a minimum number of raster points, • a minimum overall number of particles, • a minimum overall dose, and • a minimum dose compensation error, wherein the dose compensation error specifies an error which occurs as a result of the non-irradiation of the respective isoenergy layer despite corresponding compensation by the irradiated isoenergy layers. • a minimum peak energy, • a minimum number of raster points, • a minimum overall number of particles, • a minimum overall dose, and • a minimum dose compensation error, wherein the dose compensation error specifies an error which occurs as a result of the non-irradiation of the respective isoenergy layer despite corresponding compensation by the irradiated isoenergy layers.
Path-controlled press, comprising: at least one drive shaft with an entrainer eccentric relative to a shaft axis (W), and a slide block , wherein the slide block is driven by the entrainer to execute a constrained motion, wherein the slide block during execution of a press stroke is guided at at least one thrust-side slide surface relative to a thrust-side surface of a guide , wherein the slide block has a draw-side slide surface which is opposite the thrust-side slide surface and which is guided at a draw-side surface of the guide, wherein a drive of the drive shaft comprises a first motor and a flywheel , which is drivable by the first motor, wherein the flywheel can be detachably coupled to the drive shaft by means of a clutch , characterised in that the drive comprises a second motor , wherein the drive shaft is drivable by way of the second motor , wherein the first motor and the flywheel are arranged coaxially with respect to one another, wherein they are integrated in particular as a constructional unit to form a flywheel motor . at least one drive shaft with an entrainer eccentric relative to a shaft axis (W), and a slide block , wherein the slide block is driven by the entrainer to execute a constrained motion, wherein the slide block during execution of a press stroke is guided at at least one thrust-side slide surface relative to a thrust-side surface of a guide , wherein the slide block has a draw-side slide surface which is opposite the thrust-side slide surface and which is guided at a draw-side surface of the guide, wherein a drive of the drive shaft comprises a first motor and a flywheel , which is drivable by the first motor, wherein the flywheel can be detachably coupled to the drive shaft by means of a clutch , characterised in that the drive comprises a second motor , wherein the drive shaft is drivable by way of the second motor , wherein the first motor and the flywheel are arranged coaxially with respect to one another, wherein they are integrated in particular as a constructional unit to form a flywheel motor .
Process of drainage of torrential surface water from a gravel road having a pavement structure with an unbound surface layer and a longitudinal slope, said process comprising the steps of: - dividing the gravel road into longitudinally sloped segments; - installing trapezoidal channels transverse to the slope into the pavement structure in each gravel road segment; characterized in that the channels are filled with crushed stone being more permeable compared to the unbound surface layer to make the torrential water flow sink down and be discharged from the pavement structure. - dividing the gravel road into longitudinally sloped segments; - installing trapezoidal channels transverse to the slope into the pavement structure in each gravel road segment;
Container comprising a first element and at least one second element movable relative to the first element between a closed position and an open position, and a drive device for moving the second element , characterized in that the container comprises at least one deformation measuring unit with a deformation sensor on at least one of the elements for detecting a force exerted on one of the elements and a control unit for receiving and evaluating a deformation signal transmitted by the deformation measuring unit and for actuating the drive device , wherein the deformation measuring unit comprises an accommodation element accommodating the deformation sensor , wherein the accommodation element is mounted in or on the first element , wherein the second element is supported against the deformation sensor , and wherein an additional switch for actuating the drive device is integrated into the accommodation element .
An aqueous composition for styling hair characterized in that it comprises a) one or more fatty substances, b) one or more waxes at a concentration of equal to or more than 20%, by weight, calculated to the total of the composition, c) one or more anionic surfactants and/or their salts according to the general structure wherein R 1 is a linear alkyl chain with C 6 to C 22 , and R 2 is selected from H or linear alkyl chain with C 6 to C 12 with the provision that if R 2 is H then R 1 is selected from C 12 to C 22 , d) one or more styling polymers. a) one or more fatty substances, b) one or more waxes at a concentration of equal to or more than 20%, by weight, calculated to the total of the composition, c) one or more anionic surfactants and/or their salts according to the general structure wherein R 1 is a linear alkyl chain with C 6 to C 22 , and R 2 is selected from H or linear alkyl chain with C 6 to C 12 with the provision that if R 2 is H then R 1 is selected from C 12 to C 22 , d) one or more styling polymers.
An isolated monoclonal antibody, comprising: a heavy chain variable region (V H ) comprising an amino acid sequence set forth as SEQ ID NO: 1 and a heavy chain complementarity determining region (HCDR)1, a HCDR2, and a HCDR3 comprising amino acids 26-33, 51-57, and 96-108 of SEQ ID NO: 1, respectively, and a light chain variable region (V L ) comprising an amino acid sequence set forth as SEQ ID NO: 2 and a light chain complementarity determining region (LCDR)1, a LCDR2, and a LCDR3 comprising amino acids 27-32, 50-52, and 89-97 of SEQ ID NO: 2, respectively; wherein the monoclonal antibody or antigen binding fragment specifically binds to Ebola virus glycoprotein (GP) and neutralizes Ebola virus.
Oxygenator of organic fluids, comprising - a container body ; - a first aperture for the entry of oxygen and a second aperture for the exit of an exhausted gas, both obtained in said container body ; - a third aperture for the entry of an organic fluid to be oxygenated and a fourth aperture for the exit of an oxygenated organic fluid, both obtained in said container body ; - an oxygenation chamber to oxygenate said organic fluid to be oxygenated, defined inside said container body ; - a mass of capillary fibers which are impermeable to liquids and porous to gases, disposed so as to be lapped by said organic fluid inside said oxygenation chamber , parallel to each other in a first direction (X); wherein said mass of capillary fibers comprises at least two sheets of capillary fibers connected to each other by means of at least two connection threads which extend in a second direction (Y) perpendicular to said first direction (X), said sheets 25 being in reciprocal contact along a respective surface thereof, said oxygenator being characterized in that said sheets are arranged in such a way that the threads of a first sheet are offset with respect to the threads of the other sheet in said first direction (X). - a container body ; - a first aperture for the entry of oxygen and a second aperture for the exit of an exhausted gas, both obtained in said container body ; - a third aperture for the entry of an organic fluid to be oxygenated and a fourth aperture for the exit of an oxygenated organic fluid, both obtained in said container body ; - an oxygenation chamber to oxygenate said organic fluid to be oxygenated, defined inside said container body ; - a mass of capillary fibers which are impermeable to liquids and porous to gases, disposed so as to be lapped by said organic fluid inside said oxygenation chamber , parallel to each other in a first direction (X);
A compound of formula (I) wherein R 1 is halogen, C 1-7 alkyl, C 1-7 alkyl substituted by halogen, C 1-7 alkoxy, or C 1-7 alkoxy substituted by halogen, and R 1 may be different if n = 2 or 3; m is 1, 2 or 3; n is 1, 2 or 3; Ar is a six membered heteroaryl group, selected from wherein R 2 is hydrogen, halogen, C 1-7 alkyl, C 1-7 alkyl substituted by halogen, or C 1-7 alkoxy; R 3 is hydrogen or halogen; or a pharmaceutically acceptable salt thereof. R 1 is halogen, C 1-7 alkyl, C 1-7 alkyl substituted by halogen, C 1-7 alkoxy, or C 1-7 alkoxy substituted by halogen, and R 1 may be different if n = 2 or 3; m is 1, 2 or 3; n is 1, 2 or 3; Ar is a six membered heteroaryl group, selected from wherein R 2 is hydrogen, halogen, C 1-7 alkyl, C 1-7 alkyl substituted by halogen, or C 1-7 alkoxy; R 3 is hydrogen or halogen; R 2 is hydrogen, halogen, C 1-7 alkyl, C 1-7 alkyl substituted by halogen, or C 1-7 alkoxy; R 3 is hydrogen or halogen;
A polymer comprising a first monomer repeat unit, the first monomer repeat unit comprising a benzodithiophene moiety substituted with two electron withdrawing groups which are COR, COOR, CO-N(RR'), or SO 3 R, in which each of R or R', independently, is H, C 1 -C 24 alkyl, aryl, heteroaryl, C 3 -C 24 cycloalkyl, orC 3 -C 24 heterocycloalkyl, and a second monomer repeat unit different from the first monomer repeat unit, wherein the second monomer repeat unit comprises a cyclopentadithiazole moiety, a benzothiadiazole moiety, a thiadiazoloquinoxaline moiety, a benzoisothiazole moiety, a benzothiazole moiety, a dithienopyrrole moiety, a dibenzosilole moiety, a thienothiophene moiety, a carbazole moiety, a dithienothiophene moiety, a tetrahydroisoindole moiety, a fluorene moiety, a silole moiety, a cyclopentadithiophene moiety, a thiazole moiety, a selenophene moiety, a thiazolothiazole moiety, a naphthothiadiazole moiety, a thienopyrazine moiety, a silacyclopentadithiophene moiety, a thiophene moiety, an oxazole moiety, an imidazole moiety, a pyrimidine moiety, a benzoxazole moiety, a benzimidazole moiety, a quinoxaline moiety, a pyridopyrazine moiety, a pyrazinopyridazine moiety, a pyrazinoquinoxaline moiety, a thiadiazolopyridine moiety, a thiadiazolopyridazine moiety, a benzooxadiazole moiety, an oxadiazolopyridine moiety, an oxadiazolopyridazine moiety, a benzoselenadiazole moiety, a benzobisoxazole moiety, a thienothiadiazole moiety, a thienopyrroledione moiety, or a tetrazine moiety.