mhurhangee/ep-ind-claims huggingface dataset:
Frameless thin-film solar module, with a carrier substrate and a cover layer connected thereto, between which a layer structure is situated, by which a series connection of a plurality of first and second solar cells (6, 6') for photovoltaic energy generation is formed, wherein the carrier substrate and/or the cover layer is provided with mounting holes for mounting the solar module to a module holder or for connecting to at least one additional solar module, wherein the mounting holes are in each case implemented in a coating-free zone within a photovoltaically active region, wherein the first and second solar cells (6, 6') have a similar solar cell area, characterized in that: the first solar cells are rectangular, have the same shape and respectively are produced from a section of the layer structure in which no coating-free zone is situated; the second solar cells are rectangular, have the same shape and respectively are produced from a section of the layer structure in which at least one coating-free zone is situated; wherein a length of the second solar cells is smaller than a length of the first solar cells and a width of the second solar cells is greater than a width of the first solar cells. the first solar cells are rectangular, have the same shape and respectively are produced from a section of the layer structure in which no coating-free zone is situated; the second solar cells are rectangular, have the same shape and respectively are produced from a section of the layer structure in which at least one coating-free zone is situated; wherein a length of the second solar cells is smaller than a length of the first solar cells and a width of the second solar cells is greater than a width of the first solar cells.
A method for heating a blast furnace stove, comprising - combusting fuel in a combustion chamber in the stove, - providing combustion gases from the combustion chamber to heat refractory material in the stove, - recirculating exhausted combustion gases into the combustion chamber, - enriching the combustion chamber with oxygen in amount sufficient for maintaining combustion, in particular at a temperature below 1400°C, in the combustion chamber without damaging the refractory material in the stove - wherein the enriching the combustion chamber with oxygen comprises delivering a balance of total oxygen required for combustion with at least one oxy-fuel burner in communication with the combustion chamber. - combusting fuel in a combustion chamber in the stove, - providing combustion gases from the combustion chamber to heat refractory material in the stove, - recirculating exhausted combustion gases into the combustion chamber, - enriching the combustion chamber with oxygen in amount sufficient for maintaining combustion, in particular at a temperature below 1400°C, in the combustion chamber without damaging the refractory material in the stove - wherein the enriching the combustion chamber with oxygen comprises delivering a balance of total oxygen required for combustion with at least one oxy-fuel burner in communication with the combustion chamber.
A chimeric antigen receptor comprising a signal peptide, a TGF-β antigen-binding domain with a variable heavy and variable light region of an antibody, a peptide spacer, a transmembrane domain, and an endodomain that transmits an activation signal to the T cell after antigen is bound; wherein the TGF-β antigen-binding domain specifically binds to soluble TGF-β and wherein: (a) the VH region comprises SEQ ID NO:5 as HCDR1, SEQ ID NO:6 as HCDR2; and SEQ ID NO:7 as HCDR3 and the VL region comprises SEQ ID NO:8 as LCDR1, SEQ ID NO:9 as LCDR2; and SEQ ID NO:10 as LCDR3; or (b) the VH region comprises SEQ ID NO:11 as HCDR1, SEQ ID NO:12 as HCDR2; and SEQ ID NO: 13 as HCDR3 and the VL region comprises SEQ ID NO:14 as LCDR1, SEQ ID NO:15 as LCDR2; and SEQ ID NO:16 as LCDR3; or (c) the VH region comprises SEQ ID NO:21 as HCDR1, SEQ ID NO:22 as HCDR2; and SEQ ID NO:23 as HCDR3 and the VL region comprises SEQ ID NO:24 as LCDR1, SEQ ID NO:25 as LCDR2; and SEQ ID NO:26 as LCDR3; and wherein the CAR has the structure: S-X-PL-Y-PS-T-E or S-Y-PL-X-PS-T-E wherein S is the signal peptide, X is VH, PL is a peptide linker, Y is VL, PS is the peptide spacer, T is the transmembrane domain, and E is the endodomain. (a) the VH region comprises SEQ ID NO:5 as HCDR1, SEQ ID NO:6 as HCDR2; and SEQ ID NO:7 as HCDR3 and the VL region comprises SEQ ID NO:8 as LCDR1, SEQ ID NO:9 as LCDR2; and SEQ ID NO:10 as LCDR3; or (b) the VH region comprises SEQ ID NO:11 as HCDR1, SEQ ID NO:12 as HCDR2; and SEQ ID NO: 13 as HCDR3 and the VL region comprises SEQ ID NO:14 as LCDR1, SEQ ID NO:15 as LCDR2; and SEQ ID NO:16 as LCDR3; or (c) the VH region comprises SEQ ID NO:21 as HCDR1, SEQ ID NO:22 as HCDR2; and SEQ ID NO:23 as HCDR3 and the VL region comprises SEQ ID NO:24 as LCDR1, SEQ ID NO:25 as LCDR2; and SEQ ID NO:26 as LCDR3; and
A laminate for a laminated glass, which comprises an interlayer film for a laminated glass laminated with a retardation element interposed between an adhesive layer A and an adhesive layer B, wherein the retardation element comprises a liquid-crystal compound and at least one compound selected from the group consisting of a compound represented by the following formula, a compound represented by the following formula, and a compound represented by the following formula, in formula, n represents an integer from 3 to 10 and R 2 represents a -CH 2 -CH 2 - group, a -CH 2 -CH(CH 3)- group, or a -CH 2 -CH 2 -CH 2 - group; in formula, R 3 represents a -(CH 2) p - group or a phenylene group and p represents an integer from 4 to 8; in formula, R 4 presents a substituted phenylene group; and R 1-1, R 1-2, and R 1-3 in formulas to are the same or different, each representing an alkyl group that has a branched structure and that contains at least 5 carbon atoms.
Device for controlling the integrity of one or more insulating layers of a multiple insulation resistance, wherein said one or more insulating layers are consecutive layers confined between their outermost and the innermost sheaths, characterised in that it is provided with an electrical circuit (20.a; 20.b; 20.c; 20.d) having fixed connection points (A, B) with said outermost and innermost sheaths (11, 12) and, in series with said connection points (A, B), - a current generator, - disconnecting means (23; R; 26; 30) of the supply of said multiple insulation resistance, wherein said current generator: - constantly applies a voltage differential among said outermost and the innermost sheaths, - is suitable for generating an electrical power and a short-circuit current (Icc) indicative of the occurrence of a degradation of the resistance of said outermost sheath, as soon as said degradation occurs, - has voltage much weaker than hazardous value. - a current generator, - disconnecting means (23; R; 26; 30) of the supply of said multiple insulation resistance, - constantly applies a voltage differential among said outermost and the innermost sheaths, - is suitable for generating an electrical power and a short-circuit current (Icc) indicative of the occurrence of a degradation of the resistance of said outermost sheath, as soon as said degradation occurs, - has voltage much weaker than hazardous value.
A centerless grinding machine comprising a bed, a table mounted on the bed through a horizontal slide mechanism, a swing base mounted on the table through a γ-swing slide mechanism, an upper slider mounted on the swing base through a lateral slide mechanism, a regulating wheel mounted on the upper slider, a grinder mounted on the bed so as to be in juxtaposition with the regulating wheel, wherein a workpiece can be placed between the grinder and the regulating wheel, wherein the grinder has a center axis (g) which is located higher than a center axis (r) of the regulating wheel by a predetermined amount (Hg), and a blade provided between the grinder and the regulating wheel and supporting the workpiece from under the workpiece, the blade being capable of keeping constant a center axis (w) of the workpiece, wherein the horizontal slide mechanism is capable of moving the regulating wheel relative to the bed according to the workpiece by moving the table in a direction of a line (Gr) connecting the center axis (g) of the grinder to the center axis (w) of the workpiece, wherein the γ-swing slide mechanism is capable of adjusting a center height angle (γ) by swinging the regulating wheel about a swing axis (s) which is parallel to the center axis (r) of the regulating wheel, wherein the center height angle (γ) is an acute angle between the line (Gr) connecting the center axis (g) of the grinder to the center axis (w) of the workpiece and a line connecting the center axis (w) of the workpiece to the center axis (r) of the regulating wheel, wherein the lateral slide mechanism is capable of moving the regulating wheel relative to the table in a direction of the line connecting the center axis (w) of the workpiece to the center axis (r) of the regulating wheel when the center height angle (γ) is determined at any value by the γ-swing slide mechanism.
A polyol for use as a teeth-desensitizing agent in a method of prophylactically or therapeutically desensitising hypersensitive teeth in an animal or human being in need thereof, wherein the polyol is isomalt or maltitol and is the only teeth-desensitizing agent employed in the method.
A device (100a, 400a, 600a), comprising: a coupler device (102, 402, 602) that operates in a first oscillating mode and a second oscillating mode; a first superconducting qubit coupled to the coupler device (102, 402, 602) based on a first oscillating mode structure of the coupler device corresponding to the first oscillating mode and based on a second oscillating mode structure of the coupler device corresponding to the second oscillating mode; and a second superconducting qubit coupled to the coupler device (102, 402, 602) based on the first oscillating mode structure and the second oscillating mode structure, wherein the first superconducting qubit and the second superconducting qubit have an equal exchange coupling with the first oscillating mode structure and the second oscillating mode structure based on a critical current of the coupler device (102, 402, 602), and wherein the equal exchange coupling suppresses ZZ interactions between the first superconducting qubit and the second superconducting qubit over a defined range of qubit frequencies (202a, 202b), thereby facilitating at least one of: reduced quantum gate errors associated with at least one of the first superconducting qubit or the second superconducting qubit; increased speed of a quantum gate comprising the first superconducting qubit and the second superconducting qubit; or at least one of improved fidelity, improved accuracy, or improved performance of a quantum processor comprising the device (100a, 400a, 600a). a coupler device (102, 402, 602) that operates in a first oscillating mode and a second oscillating mode; a first superconducting qubit coupled to the coupler device (102, 402, 602) based on a first oscillating mode structure of the coupler device corresponding to the first oscillating mode and based on a second oscillating mode structure of the coupler device corresponding to the second oscillating mode; and a second superconducting qubit coupled to the coupler device (102, 402, 602) based on the first oscillating mode structure and the second oscillating mode structure, wherein the first superconducting qubit and the second superconducting qubit have an equal exchange coupling with the first oscillating mode structure and the second oscillating mode structure based on a critical current of the coupler device (102, 402, 602), and wherein the equal exchange coupling suppresses ZZ interactions between the first superconducting qubit and the second superconducting qubit over a defined range of qubit frequencies (202a, 202b), thereby facilitating at least one of: reduced quantum gate errors associated with at least one of the first superconducting qubit or the second superconducting qubit; increased speed of a quantum gate comprising the first superconducting qubit and the second superconducting qubit; or at least one of improved fidelity, improved accuracy, or improved performance of a quantum processor comprising the device (100a, 400a, 600a).
A silver nanoparticle dispersion comprising silver nanoparticles, a liquid carrier and an optional binder, characterized in that the dispersion further comprises a silane compound according to Formula I: wherein R1, R2 and R3 are independently selected from the group consisting of a hydrogen, a substituted or unsubstituted alkyl group, a substituted or unsubstituted aryl group, an alkoxy group and an aryloxy group with the proviso that at least one of R1 to R3 represents an alkoxy group or an aryloxy group, L 1 represents a divalent linking group comprising 1 to 20 carbon atoms, A represents a thiol, a disulfide or a functional moiety comprising at least one thiol or disulfide, having no more than 10 carbon atoms, and n represents 0 or 1, and wherein the amount of the silane compound is between 0.005 and 10 wt % relative to the total weight of the silver nanoparticle dispersion. R1, R2 and R3 are independently selected from the group consisting of a hydrogen, a substituted or unsubstituted alkyl group, a substituted or unsubstituted aryl group, an alkoxy group and an aryloxy group with the proviso that at least one of R1 to R3 represents an alkoxy group or an aryloxy group, L 1 represents a divalent linking group comprising 1 to 20 carbon atoms, A represents a thiol, a disulfide or a functional moiety comprising at least one thiol or disulfide, having no more than 10 carbon atoms, and n represents 0 or 1,
An apparatus comprising a disinfecting device, the disinfecting device comprising: a shell configured to rotate about an axis; ultraviolet, UV, emitters that are configured to emit UV light; and rotational couplings configured to couple the UV emitters to the shell, and provide for multi-axial rotation of the UV emitters relative to the shell; and supports configured to retain the disinfecting device in an upright position; characterised by, a core member configured to be surrounded by the shell and that defines the axis, wherein the core member remains unmoving while the shell rotates about the axis; and UV emitters that are affixed to the shell around a circumference of the shell, and that are disposed at varying radial positions and vertical positions along the circumference. a shell configured to rotate about an axis; ultraviolet, UV, emitters that are configured to emit UV light; and rotational couplings configured to couple the UV emitters to the shell, and provide for multi-axial rotation of the UV emitters relative to the shell; and supports configured to retain the disinfecting device in an upright position; characterised by, a core member configured to be surrounded by the shell and that defines the axis, wherein the core member remains unmoving while the shell rotates about the axis; and UV emitters that are affixed to the shell around a circumference of the shell, and that are disposed at varying radial positions and vertical positions along the circumference.
A bisbenzimidazole compound for use in a method of treating a cytomegalovirus infection in an individual, the method comprising administering to the individual an effective amount of the bisbenzimidazole compound, and wherein the bisbenzimidazole compound is 2'-(4-hydroxyphenyl)-5-(4-methyl-1-piperazinyl)-2,5'-bi-1 H- benzimidazole trihydrochloride hydrate (Hoechst 33258) or Hoechst 33342.
A dryer comprising at least: a cabinet; a drum housed inside of the cabinet; a motor for providing a driving force to the drum; a base disposed at a lower side of the drum; a motor supporter including a supporter body; and a motor shaft through-hole disposed at an upper side of the supporter body to allow the passing of a cooling fan side motor shaft; a cushion disposed in a motor shaft through-hole to absorb a vibration from the cooling fan side motor shaft an anti-friction bushing inserted to an inner circumference surface of the cushion to be in direct contact with the cooling fan side motor shaft, thereby reducing a friction force against the cooling fan side motor shaft; a first guide portion provided at the base; and a second guide portion provided at the motor supporter to have a corresponding shape of the first guide portion, such that the motor supporter is slid and mounted on the base, characterized in that a cushion inserting part is provided at a side surface of the base to allow a drying fan side motor shaft to pass through, the cushion and the anti-friction bushing are respectively inserted into the motor shaft through-hole and the cushion inserting part, wherein a groove or protrusion is provided at an outer circumference of the cushion and a protrusion or a groove having a corresponding shape of the groove or protrusion of the cushion is provided in the motor supporter to prevent the cushion from rotating together with the cooling fan side motor shaft. a cabinet; a drum housed inside of the cabinet; a motor for providing a driving force to the drum; a base disposed at a lower side of the drum; a motor supporter including a supporter body; and a motor shaft through-hole disposed at an upper side of the supporter body to allow the passing of a cooling fan side motor shaft; a cushion disposed in a motor shaft through-hole to absorb a vibration from the cooling fan side motor shaft an anti-friction bushing inserted to an inner circumference surface of the cushion to be in direct contact with the cooling fan side motor shaft, thereby reducing a friction force against the cooling fan side motor shaft; a first guide portion provided at the base; and a second guide portion provided at the motor supporter to have a corresponding shape of the first guide portion, such that the motor supporter is slid and mounted on the base, characterized in that a cushion inserting part is provided at a side surface of the base to allow a drying fan side motor shaft to pass through, the cushion and the anti-friction bushing are respectively inserted into the motor shaft through-hole and the cushion inserting part, wherein a groove or protrusion is provided at an outer circumference of the cushion and a protrusion or a groove having a corresponding shape of the groove or protrusion of the cushion is provided in the motor supporter to prevent the cushion from rotating together with the cooling fan side motor shaft.
Polymeric particle having an average diameter from 300 nm to 1000 nm and comprising: an outer layer comprising a cross-linked polymer A and a first inner layer comprising a cross-linked polymer B distinct from the cross-linked polymer A, wherein the cross-linked polymer A is obtainable by emulsion polymerisation of a reaction mixture comprising at least one (meth)acrylic monomer, a cross-linking monomer A, a polymerisation initiator and a chain transfer agent. an outer layer comprising a cross-linked polymer A and a first inner layer comprising a cross-linked polymer B distinct from the cross-linked polymer A, wherein the cross-linked polymer A is obtainable by emulsion polymerisation of a reaction mixture comprising at least one (meth)acrylic monomer, a cross-linking monomer A, a polymerisation initiator and a chain transfer agent.
Device for carrying out an assay to determine the presence or the absence of at least one analyte in a liquid sample, comprising: - a) a support, - b) a matrix, attached to the support, which allows the migration of the liquid sample, said matrix comprising: - (i) a zone of application of the liquid sample, - (ii) a labelling, zone comprising at least one first, labelled binding partner which is capable of binding to said at least one analyte, if it is present in the liquid sample, and which is capable of binding to at least one analogue of the analyte, and - (iii) at least one reaction zone comprising two adjacent and parallel reaction zones (4A and 4B or 4C) which are not in fluidic communication with one another, in which: - the reaction zone comprises a zone for visualizing the results of the assay, comprising at least one second, immobilized binding partner which is capable of binding to said at least one analyte, and - the reaction zone (4B or 4C) comprises a control zone which makes it possible to control the correct operation of the device and which comprises at least one analogue of said at least one analyte which is capable of binding to said at least first, labelled binding partner; - said zone of application of the liquid sample, labelling zone and reaction zone being in fluidic communication. - a) a support, - b) a matrix, attached to the support, which allows the migration of the liquid sample, said matrix comprising: - (i) a zone of application of the liquid sample, - (ii) a labelling, zone comprising at least one first, labelled binding partner which is capable of binding to said at least one analyte, if it is present in the liquid sample, and which is capable of binding to at least one analogue of the analyte, and - (iii) at least one reaction zone comprising two adjacent and parallel reaction zones (4A and 4B or 4C) which are not in fluidic communication with one another, in which: - (i) a zone of application of the liquid sample, - (ii) a labelling, zone comprising at least one first, labelled binding partner which is capable of binding to said at least one analyte, if it is present in the liquid sample, and which is capable of binding to at least one analogue of the analyte, and - (iii) at least one reaction zone comprising two adjacent and parallel reaction zones (4A and 4B or 4C) which are not in fluidic communication with one another, in which: - the reaction zone comprises a zone for visualizing the results of the assay, comprising at least one second, immobilized binding partner which is capable of binding to said at least one analyte, and - the reaction zone (4B or 4C) comprises a control zone which makes it possible to control the correct operation of the device and which comprises at least one analogue of said at least one analyte which is capable of binding to said at least first, labelled binding partner; - said zone of application of the liquid sample, labelling zone and reaction zone being in fluidic communication.
A motorcycle comprising: a vehicle body frame; an engine with a variable valve timing device, the engine supported by the vehicle body frame; and an oil control valve unit configured to control a hydraulic pressure to the variable valve timing device of the engine, and wherein a heat exchanger is mounted in front of the engine, wherein the oil control valve unit is mounted at a right or left side of the engine, characterized in that a part of the vehicle body frame is arranged between the oil control valve unit and the heat exchanger in a front and rear direction of the motorcycle. a vehicle body frame; an engine with a variable valve timing device, the engine supported by the vehicle body frame; and an oil control valve unit configured to control a hydraulic pressure to the variable valve timing device of the engine, and wherein a heat exchanger is mounted in front of the engine, wherein the oil control valve unit is mounted at a right or left side of the engine, characterized in that a part of the vehicle body frame is arranged between the oil control valve unit and the heat exchanger in a front and rear direction of the motorcycle.