mhurhangee/patent-ind-claim-en huggingface dataset:
Preform intended for the production of a dental prosthesis, said preform comprising a group of agglomerated ceramic, glass-ceramic or glass particles, such that, as volume percents: - more than 40% and less than 90% of the particles of said group have a size greater than 0.5 μm and less than 3.5 μm, said particles hereinafter being denoted "enamel particles", and - more than 10% and less than 60% of the particles of said group have a size greater than 3.5 μm and less than 5.5 μm, said particles hereinafter being denoted "dentine particles", the microstructure of the preform being such that there is an axis X, termed "axis of variation", along which the Ve/(Ve+Vd) ratio changes continuously, Ve and Vd denoting the volume percents of enamel particles and of dentine particles, respectively, the enamel and dentine particles representing, together, more than 90% of the volume of the agglomerated particles, the particle size distribution of the group of particles being bimodal and comprising first and second principal modes, the first principal mode being greater than 1.5 μm and less than 3.5 μm, the second principal mode being greater than 3.5 μm and less than 5.5 μm. - more than 40% and less than 90% of the particles of said group have a size greater than 0.5 μm and less than 3.5 μm, said particles hereinafter being denoted "enamel particles", and - more than 10% and less than 60% of the particles of said group have a size greater than 3.5 μm and less than 5.5 μm, said particles hereinafter being denoted "dentine particles", the microstructure of the preform being such that there is an axis X, termed "axis of variation", along which the Ve/(Ve+Vd) ratio changes continuously, Ve and Vd denoting the volume percents of enamel particles and of dentine particles, respectively, the enamel and dentine particles representing, together, more than 90% of the volume of the agglomerated particles, the particle size distribution of the group of particles being bimodal and comprising first and second principal modes, the first principal mode being greater than 1.5 μm and less than 3.5 μm, the second principal mode being greater than 3.5 μm and less than 5.5 μm.
A closing device for a gas-conducting conduit, wherein the closing device comprises a base body extending between a first connecting side with a first round opening and a second connecting side with a second round opening , wherein the connecting sides each extend in a width direction and a height direction and are spaced apart from one another by a circumferential frame which forms a jacket of the base body , the closing device further comprising four closing elements (32a-32d) with a substantially flat extension, which are arranged in a working plane extending in the width direction and the height direction and are arranged between the first connecting side and the second connecting side , each of the closing elements (32a-32d) being arranged about a pivot axis (36a-36d) which is perpendicular to the substantially flat extension, and being pivotable in the working plane so that the closing elements (32a-32d) block a flow of gas from the first opening to the second opening in a blocking position and allow a free flow of gas from the first opening to the second opening in a flow position, wherein each closing element (32a-32d) has a first bounding side (38a-38d) of its substantially flat extension and a second rounded bounding side (40a-40d) of its substantially flat extension which are configured complementary to each other, so that each closing element (32a-32d) in the blocking position has its first bounding side (38a-38d) in the working plane positively locking to a second bounding side (40a-40d) of an adjacent closing element (32a-32d) and its second bounding side (40a-40d) in the working plane positively locking to a first bounding side (38a-38d) of a further adjacent closing element (32a-32d), so that the substantially flat extensions block the flow, wherein the closing elements (32a-32d) are in operative connection with a common actuating element , so that the closing elements (32a-32d) are in the flow position in an open position of the actuating element and are in the blocking position in a closed position of the actuating element , and wherein the actuating element can be actuated from outside the base body , characterized in that the base body is cuboidal, that the first connecting side and the second connecting side are square, that a radius of the second bounding side (40a-40d) is rounded and a radius of the second bounding side (40a-40d) corresponds to the radius (R) of the first opening , and that each closing element (32a-32d) has a third bounding side (58a-58d) of its substantially flat extension, which, in the flow position, abuts the frame .
An isolated antibody that specifically binds to a human IGFBP7 protein, wherein the antibody comprises: (i) a light chain variable region having an amino acid sequence of SEQ ID NO: 11 and a heavy chain variable region having an amino acid sequence of SEQ ID NO: 12, or (ii) a light chain variable region having an amino acid sequence of SEQ ID NO: 9 and a heavy chain variable region having an amino acid sequence of SEQ ID NO: 10. (i) a light chain variable region having an amino acid sequence of SEQ ID NO: 11 and a heavy chain variable region having an amino acid sequence of SEQ ID NO: 12, or (ii) a light chain variable region having an amino acid sequence of SEQ ID NO: 9 and a heavy chain variable region having an amino acid sequence of SEQ ID NO: 10.
A module for use with a system , the module comprising: a housing defining an interior cavity and including a boss that extends from a first end of the housing into the interior cavity towards a second opposing end of the housing , the boss defining an inner bore ; and an agitator including a base , a shaft , and a mixing element , the shaft of the agitator extending from the base and being slidable relative to the inner bore of the boss such that the agitator is movable between a first position and a second position, a portion of the shaft of the agitator to be engaged by a drive shaft of the system during operation of the system , the mixing element including a first type of mixing element including a blade having a first height, characterized in that the mixing element includes a second type of mixing element including a blade having a second height that is greater than the first height, the second height being greater than half of a height of the shaft of the agitator such that at least a portion of the second type of mixing element remains within the interior cavity when the agitator is moved into the second position. a housing defining an interior cavity and including a boss that extends from a first end of the housing into the interior cavity towards a second opposing end of the housing , the boss defining an inner bore ; and an agitator including a base , a shaft , and a mixing element , the shaft of the agitator extending from the base and being slidable relative to the inner bore of the boss such that the agitator is movable between a first position and a second position, a portion of the shaft of the agitator to be engaged by a drive shaft of the system during operation of the system , the mixing element including a first type of mixing element including a blade having a first height, characterized in that the mixing element includes a second type of mixing element including a blade having a second height that is greater than the first height, the second height being greater than half of a height of the shaft of the agitator such that at least a portion of the second type of mixing element remains within the interior cavity when the agitator is moved into the second position.
A provisional system for a knee arthroplasty comprising: a first provisional component having a proximal surface and a distal surface opposing the proximal surface, one of the distal surface and the proximal surface configured to be disposed on a resected surface of a bone; a second provisional component configured to be disposed in a first recess beneath the resected surface of the bone, wherein the second provisional component is configured to simulate a shape of at least one of a sleeve component, a cone component or a keel component of an implant; a stem provisional assembly configured to be disposed in a second recess, the stem provisional assembly configured to be engageable in vivo to position the first provisional component on the resected surface of the bone; and a fastener , wherein the fastener includes a passage to allow access to the stem provisional assembly from adjacent the first provisional component, characterised in that each of the fastener , the first provisional component , the second provisional component and the stem provisional assembly is configured to enable the fastener to couple the first provisional component, the second provisional component and the stem provisional assembly together as an assembly. a first provisional component having a proximal surface and a distal surface opposing the proximal surface, one of the distal surface and the proximal surface configured to be disposed on a resected surface of a bone; a second provisional component configured to be disposed in a first recess beneath the resected surface of the bone, wherein the second provisional component is configured to simulate a shape of at least one of a sleeve component, a cone component or a keel component of an implant; a stem provisional assembly configured to be disposed in a second recess, the stem provisional assembly configured to be engageable in vivo to position the first provisional component on the resected surface of the bone; and a fastener , wherein the fastener includes a passage to allow access to the stem provisional assembly from adjacent the first provisional component, characterised in that each of the fastener , the first provisional component , the second provisional component and the stem provisional assembly is configured to enable the fastener to couple the first provisional component, the second provisional component and the stem provisional assembly together as an assembly.
A microwave oven comprising: a housing ; a magnetron located inside the housing ; and a door hinged along a hinged surface of the housing ; characterized in that the housing includes two surfaces upon which the microwave oven can be set for operation; and in that the microwave oven further comprises: a wall forming a portion of and separating a microwavable space from the magnetron , the wall intended to provide a surface on which food items can be placed while the microwave oven is set on one of the two surfaces for operation; and a user interface located on a surface of the housing that is opposing the hinged surface. a housing ; a magnetron located inside the housing ; and a door hinged along a hinged surface of the housing ; characterized in that the housing includes two surfaces upon which the microwave oven can be set for operation; and in that the microwave oven further comprises: a wall forming a portion of and separating a microwavable space from the magnetron , the wall intended to provide a surface on which food items can be placed while the microwave oven is set on one of the two surfaces for operation; and a user interface located on a surface of the housing that is opposing the hinged surface. a wall forming a portion of and separating a microwavable space from the magnetron , the wall intended to provide a surface on which food items can be placed while the microwave oven is set on one of the two surfaces for operation; and a user interface located on a surface of the housing that is opposing the hinged surface.
Method for simulating a fibre orientation in an injection moulding component made of a fibre-reinforced plastic, wherein a macroscopic simulation of injection moulding is used to determine a fibre orientation present after injection moulding in the injection moulding component to be produced, and wherein the macroscopic simulation of injection moulding is performed using macroscopic physical parameters of the fibre-reinforced plastic, wherein a development of the fibre orientation tensor Ȧ over time is determined in the macroscopic simulation by a combination of two macroscopic models, wherein a first development of the fibre orientation tensor Ȧ s over time is determined using a first macroscopic model based on shear flows and a second development of the fibre orientation tensor Ȧ s over time is determined using a second macroscopic model based on elongation flows, characterized in that a weighting of the influence of the first macroscopic model and of the second macroscopic model on the development of the fibre orientation tensor Ȧ over time, as determined in the simulation, is implemented on the basis of the Manas-Zloczower number M z , wherein a lower value of the Manas-Zloczower number is preferably limited to a value of 0.5, which corresponds to the case of a pure shear flow, and an upper value of 1 corresponds to a pure elongation flow.
A light emitting device comprising: a base substrate ; a light emitting element provided on the base substrate ; and a single layer sealing member to seal the light emitting element , wherein the sealing member contains a first filler particles unevenly distributed in a surface of the sealing member and a second filler particles unevenly distributed in a bottom surface side of the sealing member , wherein the surface of the sealing member constitutes the light emitting surface of the light emitting device , wherein the first filler particles are hollow, wherein the particle size of the first filler particles is 1 μm or more and 35 μm or less, wherein the specific gravity of the first filler particles is 0.4 or more and 0.8 or less, and wherein the surface of the sealing member has an irregular geometry formed associated with the first filler particles . a base substrate ; a light emitting element provided on the base substrate ; and a single layer sealing member to seal the light emitting element , wherein the sealing member contains a first filler particles unevenly distributed in a surface of the sealing member and a second filler particles unevenly distributed in a bottom surface side of the sealing member , wherein the surface of the sealing member constitutes the light emitting surface of the light emitting device , wherein the first filler particles are hollow, wherein the particle size of the first filler particles is 1 μm or more and 35 μm or less, wherein the specific gravity of the first filler particles is 0.4 or more and 0.8 or less, and wherein the surface of the sealing member has an irregular geometry formed associated with the first filler particles .
Medical instrument with a hollow shaft , at the proximal end of which a handle is arranged, and at the distal end of which a tool is arranged with two jaw parts , wherein at least one jaw part is pivotable relative to the other jaw part , wherein a distal end region of the shaft that carries the tool is designed as a tool tip that can be deflected with respect to the longitudinal axis of the shaft , and wherein the deflection of the tool tip is effected via a first actuation element mounted axially displaceably in the hollow shaft and operatively connected at the proximal end to the handle , and wherein the at least one pivotable jaw part of the tool is adjustable between a closed and an opened position via a second actuation element mounted axially displaceably in the hollow shaft and operatively connected at the proximal end to the handle , wherein the axially displaceable first actuation element for deflecting the tool tip and the axially displaceable second actuation element for actuating the at least one pivotable jaw part of the tool are arranged parallel to each other in the direction of the longitudinal axis of the shaft , characterized in that the axially displaceable first actuation element for deflecting the tool tip and the axially displaceable second actuation element for actuating the at least one pivotable jaw part of the tool are mounted to be guided on each other in the axial direction of the longitudinal axis of the shaft , and at least one of the two actuation elements (11 or 13) is additionally mounted to be guided on the inner side of the distal end of the shaft , wherein the mutual axial mounting of the actuation elements (11 and 13) on each other and also on the inner side of the distal end of the shaft is effected via a pin-and-slot control .
Method to produce a bakery product, characterized in that it provides to make available a dough comprising at least flour and a liquid substance, comprising water, in the presence of a compound based on olive leaves, and to obtain from said dough a semi-worked product able to be subjected to baking so as to obtain said bakery product, wherein for the preparation of said dough, said compound based on olive leaves is used in the form of a liquid infusion, possibly concentrated, and the percentage ratio in weight between said liquid infusion and said liquid substance is from 10% to 50%, or for the preparation of said dough, said compound based on olive leaves is used in the form of a dry extract, obtained by freeze drying or atomization from said liquid infusion with a yield of dry residue comprised between 0.75% and 4%, said dry extract being added to the dough from 0.05% to 3% in weight with respect to the total quantity in weight of flour, wherein said liquid infusion is an aqueous extract composition of olive leaves obtained by extraction with hot water at a temperature, with reference to atmospheric pressure conditions, from 50°C to the boiling temperature of 100°C, and containing at least: - oleuropein (OE) from 100 mg/litre to 3,000 mg/litre; and - hydroxytyrosol (HT) from 70 mg/litre to 1,500 mg/litre. or for the preparation of said dough, said compound based on olive leaves is used in the form of a dry extract, obtained by freeze drying or atomization from said liquid infusion with a yield of dry residue comprised between 0.75% and 4%, said dry extract being added to the dough from 0.05% to 3% in weight with respect to the total quantity in weight of flour, wherein said liquid infusion is an aqueous extract composition of olive leaves obtained by extraction with hot water at a temperature, with reference to atmospheric pressure conditions, from 50°C to the boiling temperature of 100°C, and containing at least: - oleuropein (OE) from 100 mg/litre to 3,000 mg/litre; and - hydroxytyrosol (HT) from 70 mg/litre to 1,500 mg/litre. - oleuropein (OE) from 100 mg/litre to 3,000 mg/litre; and - hydroxytyrosol (HT) from 70 mg/litre to 1,500 mg/litre.
A memory (MEM1) comprising: - a control circuit (CCT, HC) for executing read, write or erase operations on memory cells, and - at least one word line (WLm) to which memory cells (MC) are coupled, characterized in that the control circuit is configured to emit an end-of-operation logic signal (OP, OPm, /OP, /OPm) at the end of the execution of an operation on at least one memory cell, and in that it comprises at least one circuit (DC, DC1, DC1', DC1", DC2, DC2', DC2", DC3) for detecting a non-authorized glitch that may be representative of a fault-injection attack, coupled to the memory word line (WLm), receiving the end-of-operation signal and configured to supply a glitch detection signal (DET, DETm, /DETm, GLT, GLTm, /GLTm) when a falling edge of the amplitude of a voltage signal (Csm) appears on the memory word line in the absence of the end-of-operation signal. - a control circuit (CCT, HC) for executing read, write or erase operations on memory cells, and - at least one word line (WLm) to which memory cells (MC) are coupled, characterized in that the control circuit is configured to emit an end-of-operation logic signal (OP, OPm, /OP, /OPm) at the end of the execution of an operation on at least one memory cell, and in that it comprises at least one circuit (DC, DC1, DC1', DC1", DC2, DC2', DC2", DC3) for detecting a non-authorized glitch that may be representative of a fault-injection attack, coupled to the memory word line (WLm), receiving the end-of-operation signal and configured to supply a glitch detection signal (DET, DETm, /DETm, GLT, GLTm, /GLTm) when a falling edge of the amplitude of a voltage signal (Csm) appears on the memory word line in the absence of the end-of-operation signal. characterized in that the control circuit is configured to emit an end-of-operation logic signal (OP, OPm, /OP, /OPm) at the end of the execution of an operation on at least one memory cell, and in that it comprises at least one circuit (DC, DC1, DC1', DC1", DC2, DC2', DC2", DC3) for detecting a non-authorized glitch that may be representative of a fault-injection attack, coupled to the memory word line (WLm), receiving the end-of-operation signal and configured to supply a glitch detection signal (DET, DETm, /DETm, GLT, GLTm, /GLTm) when a falling edge of the amplitude of a voltage signal (Csm) appears on the memory word line in the absence of the end-of-operation signal.
An inkjet ink composition comprising: water; at least one co-solvent; at least one surfactant; at least one colorant; and a polyurethane-based binder dispersion comprising: water and a polyurethane, wherein the polyurethane comprises: (A) a polyisocyanate, which is isophorone diisocyanate (IPDI), 2,2,4-trimethyl-hexamethylene-diisocyanate (TMDI), dicyclohexylmethane-4,4-diisocyanate (H12MDI), hexamethylene-1,6-diisocyanate(HDI), or mixtures thereof; (B) a first polyol having a chain with two hydroxyl functional groups at one end of the chain and no hydroxyl groups at an opposed end of the chain; (C) a second polyol having a chain with two hydroxyl functional groups at both ends of the chain, wherein (C) is poly(propyleneglycol), poly(tetrahydrofuran), poly(carbonate) polyol, or mixtures thereof; (D) a carboxylic acid functional group with two hydroxyl functional groups; (E) a sulfonate or sulfonic acid functional group having two amino functional groups, and (F) an optional homopolymer or copolymer of poly(ethylene glycol) having one or two hydroxyl functional groups or one or two amino functional groups at one end of its chain. water; at least one co-solvent; at least one surfactant; at least one colorant; and a polyurethane-based binder dispersion comprising: water and a polyurethane, wherein the polyurethane comprises: (A) a polyisocyanate, which is isophorone diisocyanate (IPDI), 2,2,4-trimethyl-hexamethylene-diisocyanate (TMDI), dicyclohexylmethane-4,4-diisocyanate (H12MDI), hexamethylene-1,6-diisocyanate(HDI), or mixtures thereof; (B) a first polyol having a chain with two hydroxyl functional groups at one end of the chain and no hydroxyl groups at an opposed end of the chain; (C) a second polyol having a chain with two hydroxyl functional groups at both ends of the chain, wherein (C) is poly(propyleneglycol), poly(tetrahydrofuran), poly(carbonate) polyol, or mixtures thereof; (D) a carboxylic acid functional group with two hydroxyl functional groups; (E) a sulfonate or sulfonic acid functional group having two amino functional groups, and (F) an optional homopolymer or copolymer of poly(ethylene glycol) having one or two hydroxyl functional groups or one or two amino functional groups at one end of its chain. (A) a polyisocyanate, which is isophorone diisocyanate (IPDI), 2,2,4-trimethyl-hexamethylene-diisocyanate (TMDI), dicyclohexylmethane-4,4-diisocyanate (H12MDI), hexamethylene-1,6-diisocyanate(HDI), or mixtures thereof; (B) a first polyol having a chain with two hydroxyl functional groups at one end of the chain and no hydroxyl groups at an opposed end of the chain; (C) a second polyol having a chain with two hydroxyl functional groups at both ends of the chain, wherein (C) is poly(propyleneglycol), poly(tetrahydrofuran), poly(carbonate) polyol, or mixtures thereof; (D) a carboxylic acid functional group with two hydroxyl functional groups; (E) a sulfonate or sulfonic acid functional group having two amino functional groups, and (F) an optional homopolymer or copolymer of poly(ethylene glycol) having one or two hydroxyl functional groups or one or two amino functional groups at one end of its chain.