mhurhangee/ep-ind-claims huggingface dataset:
Sialic acid (α-(2→6))-D-aminopyranose derivatives or salts of the following general formula wherein Cmpd R 1 R 2 R 3 R 4 R 5 R 6 3 EtCONH AcNH axial CO 2 H axial O-allyl axial OH H 4 n -PrCONH AcNH axial CO 2 H axial O-allyl axial OH H 5 i -PrCONH AcNH axial CO 2 H axial O-allyl axial OH H 6 n -PenCONH AcNH axial CO 2 H axial O-allyl axial OH H 7 CH 2 FCONH AcNH axial CO 2 H axial O-allyl axial OH H 8 CHF 2 CONH AcNH axial CO 2 H axial O-allyl axial OH H 9 CF 3 CONH AcNH axial CO 2 H axial O-allyl axial OH H 10 CH 2 ClCONH AcNH axial CO 2 H axial O-allyl axial OH H 11 CHCl 2 CONH AcNH axial CO 2 H axial O-allyl axial OH H 12 CCl 3 CONH AcNH axial CO 2 H axial O-allyl axial OH H 13 N 3 AcNH axial CO 2 H axial O-allyl axial OH H 14 NH 2 AcNH axial CO 2 H axial O-allyl axial OH H 15 CH 2 BrCONH AcNH axial CO 2 H axial O-allyl axial OH H 16 AcNH EtCONH axial CO 2 H axial O-allyl axial OH H 17 AcNH n -PrCONH axial CO 2 H axial O-allyl axial OH H 18 AcNH i -PrCONH axial CO 2 H axial O-allyl axial OH H 19 AcNH n -PenCONH axial CO 2 H axial O-allyl axial OH H 20 AcNH CH 2 FCONH axial CO 2 H axial O-allyl axial OH H 21 AcNH CHF 2 CONH axial CO 2 H axial O-allyl axial OH H 22 AcNH CF 3 CONH axial CO 2 H axial O-allyl axial OH H 23 AcNH CH 2 ClCONH axial CO 2 H axial O-allyl axial OH H 24 AcNH CHCl 2 CONH axial CO 2 H axial O-allyl axial OH H 25 AcNH N 3 axial CO 2 H axial O-allyl axial OH H 26 AcNH NH 2 axial CO 2 H axial O-allyl axial OH H 27 EtCONH EtCONH axial CO 2 H axial O-allyl axial OH H 28 n -PrCONH n -PrCONH axial CO 2 H axial O-allyl axial OH H 29 i -PrCONH i -PrCONH axial CO 2 H axial O-allyl axial OH H 30 n -PenCONH n -PenCONH axial CO 2 H axial O-allyl axial OH H 31 CH 2 FCONH CH 2 FCONH axial CO 2 H axial O-allyl axial OH H 32 CHF 2 CONH CHF 2 CONH axial CO 2 H axial O-allyl axial OH H 33 CF 3 CONH CF 3 CONH axial CO 2 H axial O-allyl axial OH H 34 CH 2 ClCONH CH 2 ClCONH axial CO 2 H axial O-allyl axial OH H 35 CHCl 2 CONH CHCl 2 CONH axial CO 2 H axial O-allyl axial OH H 36 CCl 3 CONH CCl 3 CONH axial CO 2 H axial O-allyl axial OH H 37 AcNH AcNH axial C NHOH axial O-allyl axial OH H 38 AcNH AcNH axial CH 2 OH axial O-allyl axial OH H 39 AcNH AcNH axial COOMe axial O-allyl axial OH H 40 AcNH OH axial CO 2 H axial O-allyl axile OH H 50 NH 2 NH 2 axial CO 2 H axial O-allyl axial OH H
Dental implant, comprising: - an external thread arranged on an outside of the dental implant for fastening the dental implant to a jawbone; - an opening extending along a longitudinal axis of the dental implant, in which opening an internal thread for fastening a superstructure to the dental implant is arranged; and - an interface for fastening the superstructure to the dental implant, which interface is arranged at a front end of the dental implant; wherein the interface comprises a convex, rounded curvature extending around the longitudinal axis over an angular range of at least 90°, and a support surface disposed radially outwardly relative to the convex curvature, wherein the support surface has at least one annular portion oriented transversely to the longitudinal axis, and wherein, in a longitudinal section along the longitudinal axis of the dental implant, a tangent to a radially outer edge of the convex curvature which faces the annular portion of the support surface is oriented parallel to or at an angle greater than 60° to the annular portion of the support surface, characterized in that the interface is not rotationally symmetrical with respect to the longitudinal axis in order to form an anti-rotation device. - an external thread arranged on an outside of the dental implant for fastening the dental implant to a jawbone; - an opening extending along a longitudinal axis of the dental implant, in which opening an internal thread for fastening a superstructure to the dental implant is arranged; and - an interface for fastening the superstructure to the dental implant, which interface is arranged at a front end of the dental implant;
A capacitance detection apparatus comprising: a parallel circuit in which a first series circuit and a second series circuit are connected in parallel, wherein a tested body (Cx) and a first resistance element are connected at a first node in the first series circuit, and a reference capacitance element (Cref) and a second resistance element are connected at a second node in the second series circuit; a power supply circuit configured to apply an alternating current voltage (Vi) with a specific frequency to said parallel circuit; an output device configured to output an electric signal corresponding to a capacitance of the tested body (Cx) on the basis of a phase difference in the voltage with the specific frequency between the first and second nodes; characterised in that the capacitance detection apparatus further comprises an inductor element (Lb) connected between the first node and the second node and configured to increase the phase difference. a parallel circuit in which a first series circuit and a second series circuit are connected in parallel, wherein a tested body (Cx) and a first resistance element are connected at a first node in the first series circuit, and a reference capacitance element (Cref) and a second resistance element are connected at a second node in the second series circuit; a power supply circuit configured to apply an alternating current voltage (Vi) with a specific frequency to said parallel circuit; an output device configured to output an electric signal corresponding to a capacitance of the tested body (Cx) on the basis of a phase difference in the voltage with the specific frequency between the first and second nodes; characterised in that the capacitance detection apparatus further comprises an inductor element (Lb) connected between the first node and the second node and configured to increase the phase difference.
A mode multiplexer/demultiplexer, comprising: a multi-mode optical waveguide, a first transmission optical waveguide, and a second transmission optical waveguide, wherein the multi-mode optical waveguide comprises a first mode channel and a second mode channel, the first mode channel transmits a first-mode optical signal, the second mode channel transmits a second-mode optical signal, and a first mode is different from a second mode; the first transmission optical waveguide comprises a first coupling region and a first input/output region, the first coupling region and the first input/output region comprise a first fundamental-mode channel, the first fundamental-mode channel transmits a fundamental-mode optical signal, and the first fundamental-mode channel in the first coupling region performs optical mode coupling with the first mode channel in the multi-mode optical waveguide; and the second transmission optical waveguide comprises a second coupling region and a second input/output region, the second coupling region and the second input/output region comprise a second fundamental-mode channel, the second fundamental-mode channel transmits a fundamental-mode optical signal, and the second fundamental-mode channel in the second coupling region performs optical mode coupling with the second mode channel in the multi-mode optical waveguide; wherein an effective refractive index of a fundamental-mode optical signal in the first coupling region is different from an effective refractive index of the same fundamental-mode optical signal in the second coupling region; and characterized by that: a width of the first coupling region is different from a width of the first input/output region; and the first transmission optical waveguide further comprises a first transition region, wherein two ends of the first transition region are of different widths, and the two ends of the first transition region are respectively connected to the first input/output region and the first coupling region. a width of the first coupling region is different from a width of the first input/output region; and the first transmission optical waveguide further comprises a first transition region, wherein two ends of the first transition region are of different widths, and the two ends of the first transition region are respectively connected to the first input/output region and the first coupling region.
A method for improving the formation and/or thermal stability of ternesite during producing a ternesite or calcium sulfoaluminate ternesite clinker by - providing a raw meal comprising at least sources of CaO, SiO 2, Al 2 O 3, and SO 3, - sintering the raw meal in a kiln in a single sintering step above 1200 °C at a temperature ranging from >1200 to 1400 °C to provide a clinker - cooling the clinker comprising 10 - 95 % by weight C 4 A 3-x F x $, with x ranging from 0 to 2, 5 - 90 % by weight C 5 S 2 $, 0 - 85 % by weight C 2 S, 0 - 30 % by weight aluminates, 0 - 30 % by weight ferrites, 0 - 30 % by weight calcium sulfate and up to 20 % by weight minor phases, all with respect to the total weight of the clinker, wherein at least one compound containing chrome is added as mineralizer to the raw meal prior to or during sintering providing a total amount of chrome calculated as Cr 2 O 3 of at least 500 mg/kg in the raw meal. - providing a raw meal comprising at least sources of CaO, SiO 2, Al 2 O 3, and SO 3, - sintering the raw meal in a kiln in a single sintering step above 1200 °C at a temperature ranging from >1200 to 1400 °C to provide a clinker - cooling the clinker comprising 10 - 95 % by weight C 4 A 3-x F x $, with x ranging from 0 to 2, 5 - 90 % by weight C 5 S 2 $, 0 - 85 % by weight C 2 S, 0 - 30 % by weight aluminates, 0 - 30 % by weight ferrites, 0 - 30 % by weight calcium sulfate and up to 20 % by weight minor phases, all with respect to the total weight of the clinker,
A bipolar separator plate with channels for a fuel cell, the bipolar separator plate being formed of two elementary plates superimposed on one another, each elementary plate comprising a fixing face facing the other elementary plate and a flow face facing away from the other elementary plate and defining at least one channel for the flow of a reactive gas; characterized in that the bipolar separator plate further comprises: - an adhesive placed between the two elementary plates to join the two elementary plates; and - a metal insert interposed between the two elementary plates and protruding from an edge of the bipolar separator plate, a portion of the adhesive being in contact with the metal insert. - an adhesive placed between the two elementary plates to join the two elementary plates; and - a metal insert interposed between the two elementary plates and protruding from an edge of the bipolar separator plate, a portion of the adhesive being in contact with the metal insert.
Process for the preparation of a purified acid composition comprising 2,5-furandicarboxylic acid, comprising (i) oxidizing a feedstock containing 5-alkoxymethylfurfural to an oxidation product comprising 2,5-furandicarboxylic acid (FDCA) and 2-formyl-furan-5-carboxylic acid (FFCA), and esters of FDCA and, optionally, esters of FFCA; (ii) optionally, dissolving at least part of the oxidation product in a polar solvent to obtain a solution of the oxidation product, comprising FDCA, FFCA and esters of FDCA and, optionally, esters of FFCA; (iii) hydrolyzing the at least part of the oxidation product in the presence of water, thereby hydrolyzing at least esters of FDCA and, optionally, esters of FFCA to obtain an aqueous solution of an acid composition comprising FDCA, FFCA and ester of FDCA in an amount below the amount of ester of FDCA in the solution of the oxidation product; (iv) contacting at least part of the solution of the acid composition obtained in step (iii) with hydrogen in the presence of a hydrogenation catalyst to hydrogenate FFCA to hydrogenation products, yielding a hydrogenated solution; and (v) separating at least a portion of the FDCA from at least part of the hydrogenated solution by crystallization, wherein the acid composition solution is contacted with hydrogen at a temperature in the range of 150 to 200 °C and a contact time with the hydrogenation catalyst in the range of 5 seconds to 10 min. (i) oxidizing a feedstock containing 5-alkoxymethylfurfural to an oxidation product comprising 2,5-furandicarboxylic acid (FDCA) and 2-formyl-furan-5-carboxylic acid (FFCA), and esters of FDCA and, optionally, esters of FFCA; (ii) optionally, dissolving at least part of the oxidation product in a polar solvent to obtain a solution of the oxidation product, comprising FDCA, FFCA and esters of FDCA and, optionally, esters of FFCA; (iii) hydrolyzing the at least part of the oxidation product in the presence of water, thereby hydrolyzing at least esters of FDCA and, optionally, esters of FFCA to obtain an aqueous solution of an acid composition comprising FDCA, FFCA and ester of FDCA in an amount below the amount of ester of FDCA in the solution of the oxidation product; (iv) contacting at least part of the solution of the acid composition obtained in step (iii) with hydrogen in the presence of a hydrogenation catalyst to hydrogenate FFCA to hydrogenation products, yielding a hydrogenated solution; and (v) separating at least a portion of the FDCA from at least part of the hydrogenated solution by crystallization,
An insecticide formulation, comprising: a polymer shell formed from a mixture comprising a cross-linking amine and an isocyanate where the molar ratio of amine:isocyanate groups is between 0.3 to 1 and 0.8 to 1; an insecticide at least partially encapsulated by the polymer shell; and a continuous aqueous phase, wherein the amine is selected from the group consisting of ethylenediamine, tetramethylenediamine and 1,2-cyclohexyldiamine. a polymer shell formed from a mixture comprising a cross-linking amine and an isocyanate where the molar ratio of amine:isocyanate groups is between 0.3 to 1 and 0.8 to 1; an insecticide at least partially encapsulated by the polymer shell; and a continuous aqueous phase, wherein the amine is selected from the group consisting of ethylenediamine, tetramethylenediamine and 1,2-cyclohexyldiamine.
A liquid discharging apparatus comprising: a transportation belt that has a medium supporting surface and is capable of transporting a medium while supporting the medium on the medium supporting surface; a discharging head for discharging liquid onto the medium supported by the transportation belt; a cleaning mechanism that has a cleaning member making contact with the transportation belt so as to clean the medium supporting surface; a heater for supplying heat to a cleaning portion of the medium supporting surface, the cleaning portion being the part of the medium supporting surface at which the cleaning member makes contact with the medium supporting surface during cleaning; and a controller for controlling a cleaning temperature on the cleaning portion by driving the heater, characterized in that: the cleaning member is adapted to clean the medium supporting surface with a cleaning solution, and the controller is adapted to control the cleaning temperature based on information relating to an environment temperature. a transportation belt that has a medium supporting surface and is capable of transporting a medium while supporting the medium on the medium supporting surface; a discharging head for discharging liquid onto the medium supported by the transportation belt; a cleaning mechanism that has a cleaning member making contact with the transportation belt so as to clean the medium supporting surface; a heater for supplying heat to a cleaning portion of the medium supporting surface, the cleaning portion being the part of the medium supporting surface at which the cleaning member makes contact with the medium supporting surface during cleaning; and a controller for controlling a cleaning temperature on the cleaning portion by driving the heater, characterized in that: the cleaning member is adapted to clean the medium supporting surface with a cleaning solution, and the controller is adapted to control the cleaning temperature based on information relating to an environment temperature. the cleaning member is adapted to clean the medium supporting surface with a cleaning solution, and the controller is adapted to control the cleaning temperature based on information relating to an environment temperature.
A method for manufacturing an image sensor having a wave guide, comprising the steps of: (a) forming an anti-reflective layer (22, 32) on a semiconductor substrate (20, 30) photodiode (21, 31) which is formed with a photodiode (21, 31) and a peripheral circuit region; (b) forming an insulation layer (22-1, 32-1) on the anti-reflective layer; (c) forming a wiring layer (25, 35) on the insulation layer; (d) forming at least one interlayer dielectric (26, 36) on the wiring layer; (e) selectively plasma etching the interlayer dielectric until the wiring layer is exposed, so as to form a wave guide over the photodiode, wherein the wiring layer serves as an etch stop layer; and (f) selectively etching the wiring layer exposed in the step (e) until the insulation layer formed over the photodiode is exposed; wherein the step (c) comprises the step of: connecting the wiring layer to a well which is formed in the semiconductor substrate for the discharge of plasma-charged ions produced in step (e) to the semiconductor substrate through the well and thereby preventing the plasma-charged ions from being introduced into the photodiode. (a) forming an anti-reflective layer (22, 32) on a semiconductor substrate (20, 30) photodiode (21, 31) which is formed with a photodiode (21, 31) and a peripheral circuit region; (b) forming an insulation layer (22-1, 32-1) on the anti-reflective layer; (c) forming a wiring layer (25, 35) on the insulation layer; (d) forming at least one interlayer dielectric (26, 36) on the wiring layer; (e) selectively plasma etching the interlayer dielectric until the wiring layer is exposed, so as to form a wave guide over the photodiode, wherein the wiring layer serves as an etch stop layer; and (f) selectively etching the wiring layer exposed in the step (e) until the insulation layer formed over the photodiode is exposed; wherein the step (c) comprises the step of: connecting the wiring layer to a well which is formed in the semiconductor substrate for the discharge of plasma-charged ions produced in step (e) to the semiconductor substrate through the well and thereby preventing the plasma-charged ions from being introduced into the photodiode. connecting the wiring layer to a well which is formed in the semiconductor substrate for the discharge of plasma-charged ions produced in step (e) to the semiconductor substrate through the well and thereby preventing the plasma-charged ions from being introduced into the photodiode.
Classifier wheel for a classifier device for classifying milled comminuted products, in particular particulate bulk material, comprising: classifier wheel blades, which are arranged in the radially outer region of the classifier wheel, and vane surface elements, which are arranged radially spaced apart from the classifier wheel blades in the radially inner region of the classifier wheel, characterized in that the angle of inclination of the vane surface elements is constant with respect to the axial direction of the classifier wheel in an area spanned by the axial direction and the circumferential direction of the classifier wheel. classifier wheel blades, which are arranged in the radially outer region of the classifier wheel, and vane surface elements, which are arranged radially spaced apart from the classifier wheel blades in the radially inner region of the classifier wheel, characterized in that the angle of inclination of the vane surface elements is constant with respect to the axial direction of the classifier wheel in an area spanned by the axial direction and the circumferential direction of the classifier wheel.
A molded surface fastener comprising a large number of male fastening elements projecting upward from the surface of a plastic plate, wherein each of the male fastening elements has a stem projecting upward from the plastic plate and an engaging projection projecting sideways from the stem, the ratio (D/H) of the length from the uppermost tip of each of the fastening elements to the lower end of the engaging projection of the fastening element to the height of the fastening element from the plate is 0.35-0.75, and the plate coverage of fastening elements is 25-45%.
A depression head for a pump comprising: a head body 24 having a liquid conduit 36 communicating with a stem 6 of a discharge pump and hanging from a lower face of a transverse cylinder portion 30 provided with a nozzle 34 opened at its leading edge portion; a valve rod member 52 for insertion into the cylinder portion 30; and a first bias means 62 for forwardly biasing the valve rod member, the depression head being constructed so that a nozzle valve 56 is formed by a valve seat 35 provided on the nozzle 34 and a tip portion of the valve rod member 52, the depression head further comprising means for the backward displacement of the valve rod when the head body 24 is depressed, and the valve rod member 52 is displaced forwardly by the forward bias force of the first bias member 62, characterized in that, the valve rod member 52 is formed by a base portion 58 forwardly biased by the first bias means 62 and a tip portion 66 forwardly and displaceably projecting from the base portion 58, and a second bias means 70 forwardly biasing the tip portion 66 against the base portion 58 toward the valve seat 35 side is provided so as to, in a condition where the base portion 58 is in a receded position, be able to release the tip portion 66 from the valve seat 35 against the bias force of the second bias means 70 when the internal pressure of the cylinder portion 30 is increased, and to shut the valve seat 35 when the internal pressure of the cylinder portion 30 is decreased, wherein the tip portion 66 is a cylindrical body with its tip being closed and a part of the cylindrical body in the axial direction being a large external diameter portion 54; an outer face of the large external diameter portion 54 serves as a seal face sliding in the cylinder portion 30 in a liquid-tight manner; at least the front face of the large external diameter portion 54 serves as a pressure-receiving face 74 for receiving the pressure in the cylinder portion 30 to allow the tip portion 66 to recede. a head body 24 having a liquid conduit 36 communicating with a stem 6 of a discharge pump and hanging from a lower face of a transverse cylinder portion 30 provided with a nozzle 34 opened at its leading edge portion; a valve rod member 52 for insertion into the cylinder portion 30; and a first bias means 62 for forwardly biasing the valve rod member, the depression head being constructed so that a nozzle valve 56 is formed by a valve seat 35 provided on the nozzle 34 and a tip portion of the valve rod member 52, the depression head further comprising means for the backward displacement of the valve rod when the head body 24 is depressed, and the valve rod member 52 is displaced forwardly by the forward bias force of the first bias member 62,