mhurhangee/ep-ind-claims huggingface dataset:
A cellulose acetate composition for thermoforming, comprising a cellulose acetate and a glycerin ester-based plasticizer, wherein the cellulose acetate has a degree of acetyl substitution of 1.4 or greater and 2.0 or less, a compositional distribution index of 4.0 or less, and a total sulfur content of 15 mg/kg or greater and less than 150 mg/kg, wherein CDI is defined as: CDI = (Measured value of a half-height width of compositional distribution)/(Theoretical value of a half-height width of compositional distribution) where the measured value of a half-height width of compositional distribution is a half-height width of compositional distribution determined by HPLC analysis of cellulose acetate propionate obtained by propionylating all residual hydroxyl groups of cellulose acetate (sample); and the theoretical value of a half-height width of compositional distribution is obtained by: Theoretical value of half-height width of compositional distribution = 2.35482 3 ∗ D P w ∗ D S / 3 ∗ 1 − D S / 3 / D P w where DS represents a degree of acetyl substitution; and DPw represents a weight average degree of polymerization (a value determined by GPC-light scattering method using cellulose acetate propionate obtained by propionylating all residual hydroxyl groups of cellulose acetate (sample)). wherein the cellulose acetate has a degree of acetyl substitution of 1.4 or greater and 2.0 or less, a compositional distribution index of 4.0 or less, and a total sulfur content of 15 mg/kg or greater and less than 150 mg/kg, wherein CDI is defined as: CDI = (Measured value of a half-height width of compositional distribution)/(Theoretical value of a half-height width of compositional distribution) where the measured value of a half-height width of compositional distribution is a half-height width of compositional distribution determined by HPLC analysis of cellulose acetate propionate obtained by propionylating all residual hydroxyl groups of cellulose acetate (sample); and the theoretical value of a half-height width of compositional distribution is obtained by: Theoretical value of half-height width of compositional distribution = 2.35482 3 ∗ D P w ∗ D S / 3 ∗ 1 − D S / 3 / D P w where DS represents a degree of acetyl substitution; and DPw represents a weight average degree of polymerization (a value determined by GPC-light scattering method using cellulose acetate propionate obtained by propionylating all residual hydroxyl groups of cellulose acetate (sample)). DS represents a degree of acetyl substitution; and DPw represents a weight average degree of polymerization (a value determined by GPC-light scattering method using cellulose acetate propionate obtained by propionylating all residual hydroxyl groups of cellulose acetate (sample)).
Expansion anchor comprising - an anchor bolt, and - at least one expansion shell located at the anchor bolt, - wherein the anchor bolt comprises - a wedge zone for expanding the at least one expansion shell, - a neck zone accommodating at least parts of the expansion shell, the neck zone being located rearwardly of the wedge zone, - an abutment zone forming a rearward stop for the expansion shell, the abutment zone being located rearwardly of the neck zone, and - a rear zone for intruding tensile force into the anchor bolt, the rear zone being located rearwardly of the abutment zone, - wherein the anchor bolt is provided with at least one forwards groove, located in front of the abutment zone, characterized in that - the anchor bolt is provided with at least one aligned rearwards groove, which is aligned with the at least one forwards groove, and which is located rearwardly of the abutment zone. - an anchor bolt, and - at least one expansion shell located at the anchor bolt, - wherein the anchor bolt comprises - a wedge zone for expanding the at least one expansion shell, - a neck zone accommodating at least parts of the expansion shell, the neck zone being located rearwardly of the wedge zone, - an abutment zone forming a rearward stop for the expansion shell, the abutment zone being located rearwardly of the neck zone, and - a rear zone for intruding tensile force into the anchor bolt, the rear zone being located rearwardly of the abutment zone, - a wedge zone for expanding the at least one expansion shell, - a neck zone accommodating at least parts of the expansion shell, the neck zone being located rearwardly of the wedge zone, - an abutment zone forming a rearward stop for the expansion shell, the abutment zone being located rearwardly of the neck zone, and - a rear zone for intruding tensile force into the anchor bolt, the rear zone being located rearwardly of the abutment zone, - wherein the anchor bolt is provided with at least one forwards groove, located in front of the abutment zone, - the anchor bolt is provided with at least one aligned rearwards groove, which is aligned with the at least one forwards groove, and which is located rearwardly of the abutment zone.
A stent with a medicament carrier for implantation in the human body, including a substrate made of nitinol for biocompatible and/or high-strength micro-connections, wherein a plurality of undercut projections project from the substrate for enabling engagement of the undercut projections with the medicament carrier as a corresponding counter piece such that the stent is detachably connected to the medicament carrier.
A method of screening for the onset or predisposition to the onset of or monitoring a large intestine neoplasm in an individual, said method comprising assessing the methylation status of: the gene region, including 2kb upstream of: BCAT1; in combination with one or more of the following gene regions, including 2kb upstream of: IKZF1; IRF4; GRASP; and CAHM; in a biological sample from said individual wherein a higher level of methylation of at least one of the DNA regions relative to control levels is indicative of a large intestine neoplasm or a predisposition to the onset of a large intestine neoplastic state. the gene region, including 2kb upstream of: BCAT1; in combination with one or more of the following gene regions, including 2kb upstream of: IKZF1; IRF4; GRASP; and CAHM; BCAT1; IKZF1; IRF4; GRASP; and CAHM; in a biological sample from said individual wherein a higher level of methylation of at least one of the DNA regions relative to control levels is indicative of a large intestine neoplasm or a predisposition to the onset of a large intestine neoplastic state.
Method of determining the angular position of the rotor of a brushless direct current motor having a stator with multi-phase windings (31, 32, 33), a control circuitry that provides excitations switched after one another to the motor phases such that excitations produce stator flux vectors lying in different directions in the full 360 electrical degree range, and a measurement circuitry that delivers responses for the phase excitations characterised in that the position is estimated by selecting the main excitation stator flux vector which results in the minimal inductivity shown by the measured response and selecting the two other vectors in the previous and subsequent directions with respect to the direction of the main vector, and by computing the ratio between differences of measured responses for the selected stator flux vectors.
A security authentication method, comprising: receiving, by a control plane of a local bidirectional forwarding detection BFD device, a first BFD packet that is sent by a control plane of a peer BFD device, wherein the first BFD packet carries a random nonce generated by the peer BFD device; generating, by the control plane of the local BFD device, a first token value according to the random nonce; sending, by the control plane of the local BFD device, the first token value to a data plane of the local BFD device; receiving, by the data plane of the local BFD device, a second BFD packet that is sent by a data plane of the peer BFD device, wherein the second BFD packet carries authentication information, and the authentication information comprises a random nonce; and generating, by the data plane of the local BFD device, a second token value according to the random nonce comprised in the authentication information and by using a calculation method the same as that of the control plane of the local BFD device, performing comparison to determine whether the second token value is the same as the first token value, and successfully authenticating, by the data plane of the local BFD device, the second BFD packet if the second token value is the same as the first token value. receiving, by a control plane of a local bidirectional forwarding detection BFD device, a first BFD packet that is sent by a control plane of a peer BFD device, wherein the first BFD packet carries a random nonce generated by the peer BFD device; generating, by the control plane of the local BFD device, a first token value according to the random nonce; sending, by the control plane of the local BFD device, the first token value to a data plane of the local BFD device; receiving, by the data plane of the local BFD device, a second BFD packet that is sent by a data plane of the peer BFD device, wherein the second BFD packet carries authentication information, and the authentication information comprises a random nonce; and generating, by the data plane of the local BFD device, a second token value according to the random nonce comprised in the authentication information and by using a calculation method the same as that of the control plane of the local BFD device, performing comparison to determine whether the second token value is the same as the first token value, and successfully authenticating, by the data plane of the local BFD device, the second BFD packet if the second token value is the same as the first token value.
A method of forming coated particles, the method comprising: providing a first quantity of metal oxide particles; providing a second quantity of a coating material comprising an organic compound; and mechanically mixing the metal oxide particles with the coating material in a dry mixing process to provide a mixture comprising the metal oxide particles coated with the organic compound; wherein the ratio of the particles to the coating material is between 1:0.5 and 1:2 by mass. providing a first quantity of metal oxide particles; providing a second quantity of a coating material comprising an organic compound; and mechanically mixing the metal oxide particles with the coating material in a dry mixing process to provide a mixture comprising the metal oxide particles coated with the organic compound; wherein the ratio of the particles to the coating material is between 1:0.5 and 1:2 by mass.
A method of making a high-strength composite, comprising: plating a conducting surface, the surface being selected from a fiber, a flat surface, a shaped surface, or a formed surface on a substrate, the substrate being selected from one of a plastic, a wood, a metal, or a grass; electroplating flat graphene flakes onto the conducting surface from a carrier fluid suspension of graphene flakes in a vessel to give a plated layer, wherein the flakes have an average width of 0.5 to 100 microns across; removing the plated substrate from the vessel; drying to remove carrier fluid from the plated graphene; applying a layer of polymer containing a solvent to infiltrate between the graphene flakes, wherein the polymer is chemically bondable to the graphene, and the solvent containing polymer has a viscosity between 1 and 30,000 centipoises; and removing air from between the graphene flakes infiltrated by said bondable polymer layer, the removing of air preferably being vacuum facilitated, with also removing solvent from the polymer. plating a conducting surface, the surface being selected from a fiber, a flat surface, a shaped surface, or a formed surface on a substrate, the substrate being selected from one of a plastic, a wood, a metal, or a grass; electroplating flat graphene flakes onto the conducting surface from a carrier fluid suspension of graphene flakes in a vessel to give a plated layer, wherein the flakes have an average width of 0.5 to 100 microns across; removing the plated substrate from the vessel; drying to remove carrier fluid from the plated graphene; applying a layer of polymer containing a solvent to infiltrate between the graphene flakes, wherein the polymer is chemically bondable to the graphene, and the solvent containing polymer has a viscosity between 1 and 30,000 centipoises; and removing air from between the graphene flakes infiltrated by said bondable polymer layer, the removing of air preferably being vacuum facilitated, with also removing solvent from the polymer. removing the plated substrate from the vessel; drying to remove carrier fluid from the plated graphene; applying a layer of polymer containing a solvent to infiltrate between the graphene flakes, wherein the polymer is chemically bondable to the graphene, and the solvent containing polymer has a viscosity between 1 and 30,000 centipoises; and removing air from between the graphene flakes infiltrated by said bondable polymer layer, the removing of air preferably being vacuum facilitated, with also removing solvent from the polymer.
An organic electroluminescent element comprising one or more light-emitting layers between an anode and a cathode opposing each other, wherein at least one light-emitting layer is formed by vacuum vapor deposition and contains a first host selected from compounds represented by the following general formula, a second host selected from compounds represented by the following general formula, and a light-emitting dopant material; wherein, ring A is an aromatic hydrocarbon ring represented by formula, ring B is a heterocycle represented by formula, and ring A and ring B are each fused at any position with rings adjacent thereto; Ar 1 is a phenyl group, a biphenyl group, or a terphenyl group; each R is independently an aliphatic hydrocarbon group having 1 to 10 carbons, an aromatic hydrocarbon group having 6 to 10 carbons, or an aromatic heterocyclic group having 3 to 12 carbons; a, b, and c each independently represent an integer of 0 to 3; and m and n each independently represent an integer of 0 to 2, wherein, Ar 2 and Ar 3 represent an aromatic hydrocarbon group having 6 to 14 carbons or a group in which two aromatic hydrocarbon groups each having 6 to 14 carbons are linked to each other, wherein the two aromatic hydrocarbon groups linked to each other may be the same or may differ; L 1 represents a direct bond or a phenylene group of formula, formula, or formula; and L 2 represents a phenylene group of formula. wherein, ring A is an aromatic hydrocarbon ring represented by formula, ring B is a heterocycle represented by formula, and ring A and ring B are each fused at any position with rings adjacent thereto; Ar 1 is a phenyl group, a biphenyl group, or a terphenyl group; each R is independently an aliphatic hydrocarbon group having 1 to 10 carbons, an aromatic hydrocarbon group having 6 to 10 carbons, or an aromatic heterocyclic group having 3 to 12 carbons; a, b, and c each independently represent an integer of 0 to 3; and m and n each independently represent an integer of 0 to 2, wherein, Ar 2 and Ar 3 represent an aromatic hydrocarbon group having 6 to 14 carbons or a group in which two aromatic hydrocarbon groups each having 6 to 14 carbons are linked to each other, wherein the two aromatic hydrocarbon groups linked to each other may be the same or may differ; L 1 represents a direct bond or a phenylene group of formula, formula, or formula; and L 2 represents a phenylene group of formula.
A radiation sensor element, comprising: - a support plate, having a front face, extending substantially along a base plane, defining a lateral extension of the radiation sensor element; - a substrate, having a basal face facing the front face, an interconnection face opposite the basal face, and an edge face connecting the basal face and the interconnection face; - a sensor tile, comprising an active material layer and having a back face facing the interconnection face; - a copper-pillar interconnection element between the interconnection face and the back face; and - a non-conductive film extending between the interconnection face and the back face and laterally surrounding the copper-pillar interconnection element; characterised in that the front face comprises, laterally beyond the edge face, a depression extending in a thickness direction perpendicular to the base plane, and the non-conductive film comprises, laterally beyond the edge face, an edge protrusion part extending in the depression. - a support plate, having a front face, extending substantially along a base plane, defining a lateral extension of the radiation sensor element; - a substrate, having a basal face facing the front face, an interconnection face opposite the basal face, and an edge face connecting the basal face and the interconnection face; - a sensor tile, comprising an active material layer and having a back face facing the interconnection face; - a copper-pillar interconnection element between the interconnection face and the back face; and - a non-conductive film extending between the interconnection face and the back face and laterally surrounding the copper-pillar interconnection element;
A working vehicle comprising: a running vehicle body which comprises running devices (4, 5) and to which a working machine can be replaceably connected; an engine mounted on the running vehicle body and serving as a drive source for the running devices (4, 5) and the working machine; a bonnet covering the engine; a headlamp attached to a front portion of the bonnet; and a muffler arranged below the headlamp in an internal space of the bonnet, characterized by a headlamp stay for connecting the headlamp to the bonnet; a mounting plate for mounting the headlamp stay onto the bonnet; and a heat shield member arranged between the headlamp and the muffler. a running vehicle body which comprises running devices (4, 5) and to which a working machine can be replaceably connected; an engine mounted on the running vehicle body and serving as a drive source for the running devices (4, 5) and the working machine; a bonnet covering the engine; a headlamp attached to a front portion of the bonnet; and a muffler arranged below the headlamp in an internal space of the bonnet, characterized by a headlamp stay for connecting the headlamp to the bonnet; a mounting plate for mounting the headlamp stay onto the bonnet; and a heat shield member arranged between the headlamp and the muffler.
A display device comprising: a piezoelectric element configured to be vibrated according to input audio signals; a display panel configured to display an image; and an elastic member connected to a portion of the piezoelectric element and the display panel so as to transmit a vibration of the piezoelectric element to the display panel, wherein both ends of the piezoelectric element in a long side direction are not connected to the elastic member and there is a gap between the piezoelectric element and a rear surface of the display panel, and characterized in that both ends of the piezoelectric element in the long side direction are in a floating state. a piezoelectric element configured to be vibrated according to input audio signals; a display panel configured to display an image; and an elastic member connected to a portion of the piezoelectric element and the display panel so as to transmit a vibration of the piezoelectric element to the display panel, wherein both ends of the piezoelectric element in a long side direction are not connected to the elastic member and there is a gap between the piezoelectric element and a rear surface of the display panel, and characterized in that both ends of the piezoelectric element in the long side direction are in a floating state.
A self-locking tile for floor covering, the tile having a multilayer structure comprising: - a backing layer comprising on its four sides male assembly means in protrusions complementary for assembly with female assembly means defined between two male assembly means, for assembly with an adjacent tile, the assembly means (5a, 5b) having a general trapezoidal shape, and more particularly dovetails with rounded edges; - a decorative layer bonded to the backing layer, completely covering the assembly means (5a, 5b) on two adjacent sides of the backing layer, and completely uncovering the assembly means (5a, 5b) on two opposite adjacent sides, characterized in that the backing layer has a first reinforcement frame positioned in the middle of the thickness of the backing layer and obtained from a fiberglass grid comprising at least two parallel strands extending in the axis of each of the male assembly means. - a backing layer comprising on its four sides male assembly means in protrusions complementary for assembly with female assembly means defined between two male assembly means, for assembly with an adjacent tile, the assembly means (5a, 5b) having a general trapezoidal shape, and more particularly dovetails with rounded edges; - a decorative layer bonded to the backing layer, completely covering the assembly means (5a, 5b) on two adjacent sides of the backing layer, and completely uncovering the assembly means (5a, 5b) on two opposite adjacent sides,
A method for manufacturing a composite-material casing for a gas turbine, comprising: - the production by three-dimensional weaving between a plurality of layers of warp threads and a plurality of layers of weft threads of a fiber texture in the form of a strip, - the winding of the fiber texture around several superimposed turns (141, 142, 143, 144) on a mandrel with a profile corresponding to that of the casing to be manufactured in order to obtain a fiber preform of a shape corresponding to that of the casing to be manufactured, - the densification of the fiber preform by a matrix, and wherein, during the winding of the last turn of the fiber texture on the mandrel, at least one stiffening element is interposed between the before-last turn and the last turn of the fiber texture, the stiffening element projecting over the outer surface of the before-last turn of the fiber texture and extending over the entire circumference of said before-last turn, the stiffening element having an axial section of omega-type shape, characterized in that at least some warp threads of the plurality of layers of warp threads in the last turn of the fiber texture present at the level of an area covering said at least one stiffening element have a size or a tex less than the size or tex of the warp threads of the plurality of layers of warp threads present in the other turns (141, 142, 143) of the fiber texture. - the production by three-dimensional weaving between a plurality of layers of warp threads and a plurality of layers of weft threads of a fiber texture in the form of a strip, - the winding of the fiber texture around several superimposed turns (141, 142, 143, 144) on a mandrel with a profile corresponding to that of the casing to be manufactured in order to obtain a fiber preform of a shape corresponding to that of the casing to be manufactured, - the densification of the fiber preform by a matrix,