mhurhangee/ep-ind-claims huggingface dataset:
A graphene-based electrode, comprising: a ferroelectric polymer; and a graphene substrate, wherein the graphene substrate is coated with the ferroelectric polymer, wherein the graphene substrate is a graphene foam, or a graphene foam combined with a graphene sheet, activated reduced graphene oxide, or a graphene composite, and in which the graphene foam is a three-dimensional crystalline foam containing a group IV-B element and graphene formed from a carbon source, wherein the carbon source is carbon black, amorphous carbon, single-wall carbon nanotube, multi-wall nanotube, graphene oxide, graphite powder, or a combination thereof; the group IV-B element is silicon, germanium, tin, lead, or a combination thereof; and the three-dimensional crystalline foam is formed from a three-dimensional metal foam framework having a surface area of 500-2000 m 2 /g, wherein the ferroelectric polymer is a blend of a ferroelectric polymer and one or more polar polymers selected from the group consisting of poly(methyl methacrylate), polyvinyl alcohol, poly(ethylene oxide), polyvinyl chloride, polyacrylonitrile, and poly(ethyl methacrylate). a ferroelectric polymer; and a graphene substrate, wherein the graphene substrate is coated with the ferroelectric polymer, wherein the graphene substrate is a graphene foam, or a graphene foam combined with a graphene sheet, activated reduced graphene oxide, or a graphene composite, and in which the graphene foam is a three-dimensional crystalline foam containing a group IV-B element and graphene formed from a carbon source, wherein the carbon source is carbon black, amorphous carbon, single-wall carbon nanotube, multi-wall nanotube, graphene oxide, graphite powder, or a combination thereof; the group IV-B element is silicon, germanium, tin, lead, or a combination thereof; and the three-dimensional crystalline foam is formed from a three-dimensional metal foam framework having a surface area of 500-2000 m 2 /g, wherein the ferroelectric polymer is a blend of a ferroelectric polymer and one or more polar polymers selected from the group consisting of poly(methyl methacrylate), polyvinyl alcohol, poly(ethylene oxide), polyvinyl chloride, polyacrylonitrile, and poly(ethyl methacrylate).
A monoclonal antibody specifically binding to at least a part of an amino acid sequence expressed by SEQ ID NOs:1 or 2 and recognizing a sugar chain-binding site present in a 4th immunoglobulin-like loop from an N-terminal of a cell adhesion molecule CD166/ALCAM of a Phasianidae animal.
A biological analysis device including: - means (60, 62, 64) for circulating a fluid to be analyzed, comprising a fluidic chamber, Characterised it comprises: - a substrate comprising a flow surface of a fluid and an opening, - means based on a semiconductor, to perform an optical detection, including a detection front face, intended to be in contact with the fluid to be analyzed in the fluidic chamber, a rear face and pads (54, 70, 71, 72, 73) of electrical contacts located on this rear face and that appear on this rear face, - the means to perform an optical detection being inserted in said opening, and being flush with the fluidic chamber at said flow surface of a fluid. - means (60, 62, 64) for circulating a fluid to be analyzed, comprising a fluidic chamber, - a substrate comprising a flow surface of a fluid and an opening, - means based on a semiconductor, to perform an optical detection, including a detection front face, intended to be in contact with the fluid to be analyzed in the fluidic chamber, a rear face and pads (54, 70, 71, 72, 73) of electrical contacts located on this rear face and that appear on this rear face, - the means to perform an optical detection being inserted in said opening, and being flush with the fluidic chamber at said flow surface of a fluid.
A method of determining distances for chassis measurement of a vehicle having a body and at least one wheel, in particular for determining a height level (h), said method comprising: a) projecting a structured light pattern at least onto the wheel and a region of the body surrounding the wheel; b) recording a light pattern reflected from the wheel by means of an imaging sensor system (12, 13) for different rotational positions of the wheel; c) determining a 3D point cloud from the reflected light pattern; characterised in that the following additional steps are carried out: 1) determining a wheel rotational centre of the wheel by 1a) matching a parametric surface model of the wheel to the 3D point cloud for different rotational positions of the wheel; 1b) calculating the wheel normal vector for the respective rotational position of the wheel; 1c) calculating the axis of rotation and thus the wheel rotational centre from the spatial movement of the wheel normal vector; 2) determining a point on the body by evaluating the previously determined 3D point cloud; 3) determining the height dimension (h) as a vertical distance between the wheel rotational centre and the point on the body. a) projecting a structured light pattern at least onto the wheel and a region of the body surrounding the wheel; b) recording a light pattern reflected from the wheel by means of an imaging sensor system (12, 13) for different rotational positions of the wheel; c) determining a 3D point cloud from the reflected light pattern; characterised in that the following additional steps are carried out: 1) determining a wheel rotational centre of the wheel by 1a) matching a parametric surface model of the wheel to the 3D point cloud for different rotational positions of the wheel; 1b) calculating the wheel normal vector for the respective rotational position of the wheel; 1c) calculating the axis of rotation and thus the wheel rotational centre from the spatial movement of the wheel normal vector; 2) determining a point on the body by evaluating the previously determined 3D point cloud; 3) determining the height dimension (h) as a vertical distance between the wheel rotational centre and the point on the body. 1) determining a wheel rotational centre of the wheel by 1a) matching a parametric surface model of the wheel to the 3D point cloud for different rotational positions of the wheel; 1b) calculating the wheel normal vector for the respective rotational position of the wheel; 1c) calculating the axis of rotation and thus the wheel rotational centre from the spatial movement of the wheel normal vector; 1a) matching a parametric surface model of the wheel to the 3D point cloud for different rotational positions of the wheel; 1b) calculating the wheel normal vector for the respective rotational position of the wheel; 1c) calculating the axis of rotation and thus the wheel rotational centre from the spatial movement of the wheel normal vector; 2) determining a point on the body by evaluating the previously determined 3D point cloud; 3) determining the height dimension (h) as a vertical distance between the wheel rotational centre and the point on the body.
Implant in the form of a support body for tissue regeneration, in particular bone or soft tissue regeneration, wherein the implant can be used in the context of tissue regeneration and in order to fill a gap or cavity, at least partially covering said gap or cavity with a membrane and maintaining the shape of adjacent tissue, wherein the implant comprises the membrane and a reinforcing element for supporting the membrane such that the membrane is supported by means of the reinforcing element, wherein the reinforcing element comprises magnesium and/or a magnesium alloy such that the reinforcing element is plastically deformable, wherein the membrane provides a flat structure, for (i) protection against the intermixing of tissue or for the targeted passage of particular matter or substances and/or (ii) promoting the growth of particular types of tissue in bioactive design or in bioinert design, and wherein the membrane is resorbable and a nonwoven fabric such that the implant in the form of a support body is resorbed and plastically deformable.
A chromatography system arranged to perform automated chromatography column efficiency testing for a specific column to determine efficiency parameters such as column compression plate height (h) and a peak asymmetry factor (A s) and optionally to further provide guidance to a user with respect to column efficiency, the system having a controller (91, 300) arranged to automatically access data to enable the calculation of the column compression plate height (h), said data being derived from at least stored parameters of the specific column and a resin to be used in that column, thereby to calculate the efficiency of the column, said chromatography system being further operable to determine if the specific column is suitable for use or is not suitable for use therein based upon the column compression plate height (h).
A method for controlling the saturation level of gas in a liquid discharge, characterised in the method comprising: obtaining temperature and pressure measurements of a solvent in a mixing vessel, and obtaining a pressure measurement of a source feedstock in a feedstock tank (135, 135', 135"); correlating the temperature and pressure measurements of the solvent and the pressure measurement of the source feedstock to baseline data to generate a theoretical uptake rate for the source feedstock into the solvent and a theoretical flow rate of the source feedstock into the mixing vessel; determining a required opening setting for a feedstock valve (114, 114') in the feedstock input line as a function of a flow rate of the feedstock in order to achieve a desired liquid displacement in the mixing vessel due to the feedstock being fed into the mixing vessel; determining an uptake duration, based on the theoretical uptake rate, for the source feedstock to uptake into the solvent to form an effluent discharge solution and achieving an uptake displacement equivalent to the reverse of the desired liquid displacement; and generating a valve operating control law for how long the feedstock valve (114, 114') should be opened in a cycle based on the required opening setting of the feedstock valve (114, 114') and the uptake duration for the desired liquid displacement. obtaining temperature and pressure measurements of a solvent in a mixing vessel, and obtaining a pressure measurement of a source feedstock in a feedstock tank (135, 135', 135"); correlating the temperature and pressure measurements of the solvent and the pressure measurement of the source feedstock to baseline data to generate a theoretical uptake rate for the source feedstock into the solvent and a theoretical flow rate of the source feedstock into the mixing vessel; determining a required opening setting for a feedstock valve (114, 114') in the feedstock input line as a function of a flow rate of the feedstock in order to achieve a desired liquid displacement in the mixing vessel due to the feedstock being fed into the mixing vessel; determining an uptake duration, based on the theoretical uptake rate, for the source feedstock to uptake into the solvent to form an effluent discharge solution and achieving an uptake displacement equivalent to the reverse of the desired liquid displacement; and generating a valve operating control law for how long the feedstock valve (114, 114') should be opened in a cycle based on the required opening setting of the feedstock valve (114, 114') and the uptake duration for the desired liquid displacement.
Cleaning unit for a suction head, comprising: - a rotary brush configured to be detachably mounted in a receiving recess provided on a main body of the suction head and to be rotated about an axis of rotation, and - a brush holder configured to be attached to the main body of the suction head, the rotary brush being rotatably mounted relative to the brush holder, characterised in that the cleaning unit further comprises: - a rotary support which rotates as one with the rotary brush and which supports the rotary brush, the rotary support being connected to the brush holder via a pivot having a pivot axis so as to allow the rotary support to rotate relative to the brush holder about the pivot axis, characterised in that the cleaning unit comprises - a support element which is elastically deformable and on which the pivot is mounted, the support element being arranged between the brush holder and the rotary support. - a rotary brush configured to be detachably mounted in a receiving recess provided on a main body of the suction head and to be rotated about an axis of rotation, and - a brush holder configured to be attached to the main body of the suction head, the rotary brush being rotatably mounted relative to the brush holder, - a rotary support which rotates as one with the rotary brush and which supports the rotary brush, the rotary support being connected to the brush holder via a pivot having a pivot axis so as to allow the rotary support to rotate relative to the brush holder about the pivot axis, characterised in that the cleaning unit comprises - a support element which is elastically deformable and on which the pivot is mounted, the support element being arranged between the brush holder and the rotary support.
A turbine engine (20; 20A; 20B) comprising: a fan section (22; 22A; 22B) containing a fan rotatable about an engine longitudinal axis; a fan drive system configured to drive the fan, the fan drive system including a turbine section (28; 28A; 28B), a turbine generator (96; 96A; 96B) electrically coupled to a turbine motor (94; 94A; 94B) and a geared architecture (48; 48A; 48B), wherein the turbine section (28; 28A; 28B) and the turbine motor (94; 94A; 94B) are coupled to drive portions of the geared architecture (48; 48A; 48B); a high pressure turbine coupled to drive a compressor generator (76; 76A; 76B); a high pressure compressor section (24; 24A; 24B) including a first compressor section and a second compressor section, the first compressor section driven by the high pressure turbine and the second compressor section driven by a compressor motor (74; 74A; 74B) electrically coupled to the compressor generator (76; 76A; 76B); and a combustor in flow communication with the high pressure compressor section (24; 24A; 24B), wherein the turbine engine includes a diffuser configured to communicate airflow from the first compressor section and the second compressor section separately to the combustor. a fan section (22; 22A; 22B) containing a fan rotatable about an engine longitudinal axis; a fan drive system configured to drive the fan, the fan drive system including a turbine section (28; 28A; 28B), a turbine generator (96; 96A; 96B) electrically coupled to a turbine motor (94; 94A; 94B) and a geared architecture (48; 48A; 48B), wherein the turbine section (28; 28A; 28B) and the turbine motor (94; 94A; 94B) are coupled to drive portions of the geared architecture (48; 48A; 48B); a high pressure turbine coupled to drive a compressor generator (76; 76A; 76B); a high pressure compressor section (24; 24A; 24B) including a first compressor section and a second compressor section, the first compressor section driven by the high pressure turbine and the second compressor section driven by a compressor motor (74; 74A; 74B) electrically coupled to the compressor generator (76; 76A; 76B); and a combustor in flow communication with the high pressure compressor section (24; 24A; 24B), wherein the turbine engine includes a diffuser configured to communicate airflow from the first compressor section and the second compressor section separately to the combustor.
A method for preparing a high-modulus low-shrinkage polyester industrial yarn, said method comprising: obtaining a polyester by esterification of terephthalic acid and ethylene glycol and by polycondensation catalyzed by a mixture of magnesium ethylene glycol and antimony ethylene glycol, obtaining polyester sections by granulating; preparing said polyester sections by boiling and washing, and by solid state polycondensation, obtaining the high modulus low shrinkage polyester industrial yarn by measuring, extrusion, cooling, oiling, stretching, heat setting and winding; wherein the molecular formula of magnesium ethylene glycol is Mg(OCH 2 CH 2 OH) 2; wherein the boiling and washing process refers to that the granulated sections are boiled and washed with water and a rinsing agent at 120-130°C and 0.2-0.3MPa; wherein in a mixture of magnesium ethylene glycol and antimony ethylene glycol, a mass ratio of magnesium ethylene glycol to antimony ethylene glycol is in the range 2 to 3:1. obtaining a polyester by esterification of terephthalic acid and ethylene glycol and by polycondensation catalyzed by a mixture of magnesium ethylene glycol and antimony ethylene glycol, obtaining polyester sections by granulating; preparing said polyester sections by boiling and washing, and by solid state polycondensation, obtaining the high modulus low shrinkage polyester industrial yarn by measuring, extrusion, cooling, oiling, stretching, heat setting and winding; wherein the molecular formula of magnesium ethylene glycol is Mg(OCH 2 CH 2 OH) 2; wherein the boiling and washing process refers to that the granulated sections are boiled and washed with water and a rinsing agent at 120-130°C and 0.2-0.3MPa; wherein in a mixture of magnesium ethylene glycol and antimony ethylene glycol, a mass ratio of magnesium ethylene glycol to antimony ethylene glycol is in the range 2 to 3:1.
A refrigerator system comprising: a plurality of refrigeration storages (53, 54) respectively set to different cooling temperatures; a plurality of air refrigerant refrigerators (50-52, 80-83); and a pipe section (101, 102) provided between said plurality of air refrigerant refrigerators and said plurality of refrigeration storages, characterised in that said pipe section comprises a valve section configured to thermally connect each of said plurality of air refrigerant refrigerators other than a specific air refrigerant refrigerator to at least one of said plurality of refrigeration storages in a normal operation mode; and to thermally connect said specific air refrigerant refrigerator to a specific one of said plurality refrigeration storages corresponding to a failed one of said plurality of air refrigerant refrigerators other than said specific air refrigerant refrigerator, in place of said failed air refrigerant refrigerator in a failure operation mode. a plurality of refrigeration storages (53, 54) respectively set to different cooling temperatures; a plurality of air refrigerant refrigerators (50-52, 80-83); and a pipe section (101, 102) provided between said plurality of air refrigerant refrigerators and said plurality of refrigeration storages, characterised in that said pipe section comprises a valve section configured to thermally connect each of said plurality of air refrigerant refrigerators other than a specific air refrigerant refrigerator to at least one of said plurality of refrigeration storages in a normal operation mode; and to thermally connect said specific air refrigerant refrigerator to a specific one of said plurality refrigeration storages corresponding to a failed one of said plurality of air refrigerant refrigerators other than said specific air refrigerant refrigerator, in place of said failed air refrigerant refrigerator in a failure operation mode.
A method for forming a polymer product, the method comprising: a. forming a living polymer, wherein said living polymer is anionically initiated and comprises a cation; b. adding a functional initiator precursor of the formula FI-H, wherein H is hydrogen and FI is a functional group, said H terminates said living polymer and said FI and said cation form a functional initiator; c. adding monomer, wherein said functional initiator initiates anionic polymerization of said monomer; and d. terminating the polymerization reaction initiated in step (c), wherein said functional initiator precursor is a functional dithiane, a trialkyltin hydride or mixtures thereof. a. forming a living polymer, wherein said living polymer is anionically initiated and comprises a cation; b. adding a functional initiator precursor of the formula FI-H, wherein H is hydrogen and FI is a functional group, said H terminates said living polymer and said FI and said cation form a functional initiator; c. adding monomer, wherein said functional initiator initiates anionic polymerization of said monomer; and d. terminating the polymerization reaction initiated in step (c), wherein said functional initiator precursor is a functional dithiane, a trialkyltin hydride or mixtures thereof.
Chronograph including • a dial, • a chronograph hand staff that can be driven in rotation, connected with a chronograph hand, • a first rattrapante hand staff, arranged coaxially to the chronograph hand staff, connected with a first rattrapante hand, wherein the chronograph hand and the rattrapante hand can be driven in movement synchronously in superimposed position and wherein the rotation of the rattrapante hand staff can be blocked in order to display, together with the rattrapante hand, a first intermediate time, • a second rattrapante hand staff, arranged coaxially to the chronograph hand staff, connected with a second rattrapante hand, wherein the chronograph hand and the second rattrapante hand can be driven in movement synchronously in superimposed position, and wherein the rotation of the second rattrapante hand staff can be blocked independently from the first rattrapante hand staff in order to display, with the second rattrapante hand, a second intermediate time, • wherein on each of the rattrapante hand staffs (4, 19), rattrapante wheels (8, 18) are placed that can be hugged by the dedicated gripper arms of a rattrapante gripper (9, 20) while under spring preload and whose rotation can be locked through friction-locking or form-fitting, wherein on the dial the hold states of both rattrapante hands (23, 25) can be made visible through a display in order to know, when starting, whether the rattrapante grippers (9, 20) are closed or open. • a dial, • a chronograph hand staff that can be driven in rotation, connected with a chronograph hand, • a first rattrapante hand staff, arranged coaxially to the chronograph hand staff, connected with a first rattrapante hand, wherein the chronograph hand and the rattrapante hand can be driven in movement synchronously in superimposed position and wherein the rotation of the rattrapante hand staff can be blocked in order to display, together with the rattrapante hand, a first intermediate time, • a second rattrapante hand staff, arranged coaxially to the chronograph hand staff, connected with a second rattrapante hand, wherein the chronograph hand and the second rattrapante hand can be driven in movement synchronously in superimposed position, and wherein the rotation of the second rattrapante hand staff can be blocked independently from the first rattrapante hand staff in order to display, with the second rattrapante hand, a second intermediate time, • wherein on each of the rattrapante hand staffs (4, 19), rattrapante wheels (8, 18) are placed that can be hugged by the dedicated gripper arms of a rattrapante gripper (9, 20) while under spring preload and whose rotation can be locked through friction-locking or form-fitting, wherein on the dial the hold states of both rattrapante hands (23, 25) can be made visible through a display in order to know, when starting, whether the rattrapante grippers (9, 20) are closed or open.
A method of preventing component erosion in a high rate fluid flow well, comprising: forming a base pipe with a plurality of flow restriction elements (48, 62) extending radially therethrough; and placing a screen around the base pipe to filter particulates from an inflowing fluid stream; characterized by: arranging the plurality of flow restriction elements along the base pipe in a predetermined pattern, the pattern of flow restriction elements being determined by calculation of a total flow area to provide a desired pressure drop across the base pipe and to create a distributed inflow of fluid which maintains a flow rate of the inflowing fluid below an erosion flow rate across the entire screen.