mhurhangee/ep-ind-claims huggingface dataset:
An internal gear pump comprising, a trochoid in which an inner rotor having a plurality of outer teeth is eccentrically and rotatably accommodated in an outer rotor having a plurality of inner teeth, the outer teeth meshing with the inner teeth, and a suction-side chamber for suctioning liquid and a discharge-side chamber for discharging liquid suctioned into the suction-side chamber are formed between the inner teeth and outer teeth; a casing in which is formed a recess for accommodating the trochoid, and a cover for closing off the recess of the casing, wherein at least some of the casing being a body injection-molded from a resin composition, characterized in that the casing and the cover are securely bolted, and a sintered metal bushing is provided integrally during injection molding in a bolt fixing hole portion of the casing.
A method for detecting a biological comprising: mixing a sample with a plurality of labelling particles each of which comprises a receptor adapted for binding to a biological such that said labelling particles form one or more aggregates if said biological is present in the sample; and identifying the presence of the biological is present in the sample by detecting one or more aggregates of said labelling particles; and wherein the labelling particles are absorbing, reflecting or scattering particles, metallic particles, agarose, polysaccharide, natural sand, processed sand, textile, cellulose, cotton, wool, nylon, polyester, nanoparticles, glass, fiberglass, silica, wood, fiber, plastic, rubber, ceramic, porcelain, stone, marble, cement, biological polymer, natural polymer, or synthetic polymer, or any combination thereof; wherein the labelling particles further comprise a covalently bonded linker molecule, and wherein the receptor is covalently bonded to the labeling particles via said linker molecule, wherein the linker molecule is any of a branched polymer, dendron, dendrimer, and chitosan, or any combination thereof, and wherein the branched polymer is selected from the group consisting of branched poly(ethylene glycol), branched poly(ethylenimine), or a combination thereof. mixing a sample with a plurality of labelling particles each of which comprises a receptor adapted for binding to a biological such that said labelling particles form one or more aggregates if said biological is present in the sample; and identifying the presence of the biological is present in the sample by detecting one or more aggregates of said labelling particles; and wherein the labelling particles are absorbing, reflecting or scattering particles, metallic particles, agarose, polysaccharide, natural sand, processed sand, textile, cellulose, cotton, wool, nylon, polyester, nanoparticles, glass, fiberglass, silica, wood, fiber, plastic, rubber, ceramic, porcelain, stone, marble, cement, biological polymer, natural polymer, or synthetic polymer, or any combination thereof; wherein the labelling particles further comprise a covalently bonded linker molecule, and wherein the receptor is covalently bonded to the labeling particles via said linker molecule, wherein the linker molecule is any of a branched polymer, dendron, dendrimer, and chitosan, or any combination thereof, and wherein the branched polymer is selected from the group consisting of branched poly(ethylene glycol), branched poly(ethylenimine), or a combination thereof.
Device for driving or drilling, particularly foundation machine comprising at least one hydraulic drilling or vibration drive, which in an open hydraulic circuit is connected to a control block, by way of which at least one further load is operable and which is connected to a pump via a first feed line and to a tank via a first return line, characterised in that the hydraulic drive is additionally directly connected to the pump via a second feed line and directly to the tank via a second return line.
A powder composition comprising: a. one or more curing agent comprising one or more hydroxyalkylamide, bisphenol epoxy resin or polyamine adduct thereof, triglycidyl isocyanurate (TGIC) or blends of tris(oxiranylmethyl)benzene-1,2,4-tricarboxylate with bis(2,3-epoxypropyl)terephthalate, and b. one or more acid functional, phosphorous-containing polyester, wherein the acid functional, phosphorous-containing polyester, • has a weight average molecular weight measured by gel permeation chromatography calibrated with polystyrene standards, from 500 to 15000; and • has a glass transition temperature (T g) measured by differential scanning calorimetry at a heating rate of 20 °C/min and the T g being taken at the midpoint of the inflection, from 30 up to 130 °C; and • is chosen from an acid functional, phosphorous-containing aromatic polyester with an acid number of 15 or higher mg KOH/g polyester, an acid functional, phosphorous-containing aliphatic polyester with an acid number of 20 or higher mg KOH/g polyester, and mixtures and combinations thereof, and c. optionally one or more resin or (co)polymer chosen from polyester, epoxy, acrylic, poly(glycidyl (meth)acrylate), urethane, silicone, hybrids thereof, and mixtures thereof. a. one or more curing agent comprising one or more hydroxyalkylamide, bisphenol epoxy resin or polyamine adduct thereof, triglycidyl isocyanurate (TGIC) or blends of tris(oxiranylmethyl)benzene-1,2,4-tricarboxylate with bis(2,3-epoxypropyl)terephthalate, and b. one or more acid functional, phosphorous-containing polyester, wherein the acid functional, phosphorous-containing polyester, • has a weight average molecular weight measured by gel permeation chromatography calibrated with polystyrene standards, from 500 to 15000; and • has a glass transition temperature (T g) measured by differential scanning calorimetry at a heating rate of 20 °C/min and the T g being taken at the midpoint of the inflection, from 30 up to 130 °C; and • is chosen from an acid functional, phosphorous-containing aromatic polyester with an acid number of 15 or higher mg KOH/g polyester, an acid functional, phosphorous-containing aliphatic polyester with an acid number of 20 or higher mg KOH/g polyester, and mixtures and combinations thereof, and • has a weight average molecular weight measured by gel permeation chromatography calibrated with polystyrene standards, from 500 to 15000; and • has a glass transition temperature (T g) measured by differential scanning calorimetry at a heating rate of 20 °C/min and the T g being taken at the midpoint of the inflection, from 30 up to 130 °C; and • is chosen from an acid functional, phosphorous-containing aromatic polyester with an acid number of 15 or higher mg KOH/g polyester, an acid functional, phosphorous-containing aliphatic polyester with an acid number of 20 or higher mg KOH/g polyester, and mixtures and combinations thereof, and c. optionally one or more resin or (co)polymer chosen from polyester, epoxy, acrylic, poly(glycidyl (meth)acrylate), urethane, silicone, hybrids thereof, and mixtures thereof.
A driver plate for torque transmission between a driving part, in particular an output shaft of a driving engine, and a driven part, in particular a torsional vibration damper, a clutch and/or a torque converter in a motor vehicle, wherein the driver plate is mounted on a drive flange in a radially inner area by means of several fastening bores that are offset from the circumference and is mounted on the driven part by means of at least three radially outer fastening bores, and wherein the driver plate is provided with circumferentially distributed recesses (24, 26) between the fastening bores (16, 18), the recesses being in the shape of elongated holes and substantially oriented in the circumferential direction, wherein the recesses (24, 26) are arranged inside and outside of virtual connecting lines of the radially outer fastening bores, the connecting lines running tangentially near the pitch circle of the fastening bores, and wherein a ring-shaped offset section is incorporated in the driver plate, characterized in that the recesses (24, 26) adjoin relatively closely the offset section both radially inside and outside.
An electron beam vapor deposition process for depositing coatings comprising: providing a vapor deposition apparatus having a coating chamber for containing a work piece, the coating chamber having a crucible; placing a source coating material in the crucible; pressurizing said coating chamber from about 0.5 microbar to about 40 microbar (0.05 - 4.0 Pa); heating a work piece surface to a temperature of from 1800 degrees Fahrenheit to 2000 degrees Fahrenheit (982 - 1093°C); energizing said source coating material with an electron beam that delivers a power density to the material in the crucible forming a vapor cloud from said source coating material; and depositing said source coating material onto a surface of a work piece. providing a vapor deposition apparatus having a coating chamber for containing a work piece, the coating chamber having a crucible; placing a source coating material in the crucible; pressurizing said coating chamber from about 0.5 microbar to about 40 microbar (0.05 - 4.0 Pa); heating a work piece surface to a temperature of from 1800 degrees Fahrenheit to 2000 degrees Fahrenheit (982 - 1093°C); energizing said source coating material with an electron beam that delivers a power density to the material in the crucible forming a vapor cloud from said source coating material; and depositing said source coating material onto a surface of a work piece.
A method of manufacturing a polymerizable composition for an optical material, comprising: a step of mixing an iso (thio) cyanate compound and an organic coloring matter to obtain a mixed solution a; a step of mixing the mixed solution a, an ultraviolet absorbing agent, and an iso(thio)cyanate compound which is identical to or different from the iso(thio)cyanate compound to obtain a mixed solution b; and a step of mixing the mixed solution b and an active hydrogen compound, wherein the organic coloring matter is a tetraazaporphyrin compound represented by Formula (la): where Cu represents divalent copper, t-C 4 H 9 represents a tertiary-butyl group. a step of mixing an iso (thio) cyanate compound and an organic coloring matter to obtain a mixed solution a; a step of mixing the mixed solution a, an ultraviolet absorbing agent, and an iso(thio)cyanate compound which is identical to or different from the iso(thio)cyanate compound to obtain a mixed solution b; and a step of mixing the mixed solution b and an active hydrogen compound, wherein the organic coloring matter is a tetraazaporphyrin compound represented by Formula (la): where Cu represents divalent copper, t-C 4 H 9 represents a tertiary-butyl group.
Clamping tool comprising • a body, containing control circuits and an electronic processing unit having at one end a handle for gripping by an operator making the clamping, and on the other end an arm • said arm comprising at its free end a seat wherein can be alternatively pluggable a plurality of inserts suitable for engaging the tool with a corresponding type and/or dimension of a mechanical member on which the tool is destined to operate to carry out a clamping operation, • sensor means being provided on said arm suitable for detecting tightening conditions exerted on said mechanical member, • the arm being removably connected to the body through a connector allowing both the mechanical connection and the transmission/reception of electrical and power supply signals between the two parts, characterized in that the tool further comprises a microprocessor electronic card provided on said arm suitable for receiving analogic signals from said sensor means converting the same into digital format and handling its transfer in digital format to the central processing unit, and that the sensor means and the electronic card are inserted in a single support inside the arm. • a body, containing control circuits and an electronic processing unit having at one end a handle for gripping by an operator making the clamping, and on the other end an arm • said arm comprising at its free end a seat wherein can be alternatively pluggable a plurality of inserts suitable for engaging the tool with a corresponding type and/or dimension of a mechanical member on which the tool is destined to operate to carry out a clamping operation, • sensor means being provided on said arm suitable for detecting tightening conditions exerted on said mechanical member, • the arm being removably connected to the body through a connector allowing both the mechanical connection and the transmission/reception of electrical and power supply signals between the two parts,
A method comprising: receiving, by a first node, a matrix from a second node, wherein the matrix identifies nodes in a cluster; the matrix comprises information indicating accessibility of each coordination point of a plurality of coordination points in the cluster by the second node, wherein each of the coordination points can be configured to allow access to shared storage by multiple nodes in the cluster while simultaneously blocking access to the shared storage by other nodes in the cluster; updating, by the first node, the matrix to include information indicating accessibility of each coordination point of the plurality of coordination points by the first node, whe rein the plurality of coordination points includes at least three coordination points, and where the plurality of coordination points comprise an odd number of coordination points; and transmitting, by the first node, the updated matrix to one or more other nodes in the cluster. receiving, by a first node, a matrix from a second node, wherein the matrix identifies nodes in a cluster; the matrix comprises information indicating accessibility of each coordination point of a plurality of coordination points in the cluster by the second node, wherein each of the coordination points can be configured to allow access to shared storage by multiple nodes in the cluster while simultaneously blocking access to the shared storage by other nodes in the cluster; the matrix identifies nodes in a cluster; the matrix comprises information indicating accessibility of each coordination point of a plurality of coordination points in the cluster by the second node, wherein each of the coordination points can be configured to allow access to shared storage by multiple nodes in the cluster while simultaneously blocking access to the shared storage by other nodes in the cluster; updating, by the first node, the matrix to include information indicating accessibility of each coordination point of the plurality of coordination points by the first node, whe rein the plurality of coordination points includes at least three coordination points, and where the plurality of coordination points comprise an odd number of coordination points; and each coordination point of the plurality of coordination points by the first node, whe rein the plurality of coordination points includes at least three coordination points, and where the plurality of coordination points comprise an odd number of coordination points; and transmitting, by the first node, the updated matrix to one or more other nodes in the cluster.
A fullerene derivative represented by any one of the following Chemical Formulae 1-1-1 to 1-1-8 and 1-1-10 to 1-1-54, wherein p is an integer of 1 to 3:
A method performed by a first application, comprising: sending a request from the first application to a second application; receiving a response to the request, the response comprising a list of authentication issuers trusted by the second application, wherein the response is a 401-unauthorized response indicating an unauthenticated request and wherein the list of authentication issuers trusted by the second application is transported in a WWW-Authenticate header of the 401-unauthorized response; comparing the list of authentication issuers trusted by the second application to a list of authentication issuers approved for the first application; identifying an authentication issuer match between the lists; constructing a token for the authentication issuer using a tenant identifier from an approved authentication issuer configuration; obtaining authentication credentials from the authentication issuer that matches both lists; and generating a revised request to the second application using the authentication credentials. sending a request from the first application to a second application; receiving a response to the request, the response comprising a list of authentication issuers trusted by the second application, wherein the response is a 401-unauthorized response indicating an unauthenticated request and wherein the list of authentication issuers trusted by the second application is transported in a WWW-Authenticate header of the 401-unauthorized response; comparing the list of authentication issuers trusted by the second application to a list of authentication issuers approved for the first application; identifying an authentication issuer match between the lists; constructing a token for the authentication issuer using a tenant identifier from an approved authentication issuer configuration; obtaining authentication credentials from the authentication issuer that matches both lists; and generating a revised request to the second application using the authentication credentials.
A computer-implemented method for determining whether a given microphone (36,68) occupies a target position, comprising: receiving a first reference time delay between receptions of a first reference signal and a second reference signal by a reference microphone positioned at the target position, the first reference signal emitted by a first speaker and the second reference signal emitted by a second speaker, the first and second speakers each having a fixed position and the emission of the first and second reference signals being spaced apart by a time delay (δt1); using the given microphone (36,68) positioned at a given position, recording a first sound signal emitted by the first speaker and a second sound signal emitted by the second speaker, the emission of the first and second sound signals being spaced apart by the time delay (δt1); determining an actual time delay (Δt1) between the received first sound signal and the received second sound signal; comparing the actual time delay (Δt1) to the first reference time delay; determining a match between the given position and the target position for the given microphone if the actual time delay (Δt1) corresponds to the first reference time delay and a mismatch between the given position and the target position for the given microphone if the actual time delay (Δt1) is different from the first reference time delay; and outputting an indication of one of the match and the mismatch. receiving a first reference time delay between receptions of a first reference signal and a second reference signal by a reference microphone positioned at the target position, the first reference signal emitted by a first speaker and the second reference signal emitted by a second speaker, the first and second speakers each having a fixed position and the emission of the first and second reference signals being spaced apart by a time delay (δt1); using the given microphone (36,68) positioned at a given position, recording a first sound signal emitted by the first speaker and a second sound signal emitted by the second speaker, the emission of the first and second sound signals being spaced apart by the time delay (δt1); determining an actual time delay (Δt1) between the received first sound signal and the received second sound signal; comparing the actual time delay (Δt1) to the first reference time delay; determining a match between the given position and the target position for the given microphone if the actual time delay (Δt1) corresponds to the first reference time delay and a mismatch between the given position and the target position for the given microphone if the actual time delay (Δt1) is different from the first reference time delay; and outputting an indication of one of the match and the mismatch.
A glass-melting device for producing glass fibers, comprising: a first glass-melting tank; a conduit extending downwardly from the first glass-melting tank; a first sucking device for exposing the first glass-melting tank to a reduced-pressure atmosphere; a second glass-melting tank provided on a lower portion of the conduit and exposed to an atmospheric-pressure atmosphere; a bushing provided on a bottom portion of the second glass-melting tank and having a number of nozzles; a decompression housing covering the first glass-melting tank and the conduit in which a pressure is reduced by the first sucking device; heating means for heating the first glass-melting tank, the conduit, the second glass-melting tank, and the bushing separately; and a heat insulating material accommodated in the decompression housing, wherein an extendable housing part which is extendable and retractable is provided in the decompression housing, the extendable housing part includes a bellows portion which is extendable and retractable, at least part of the heat insulating material is an elastic heat insulating material having elasticity, the elastic heat insulating material is a wool heat insulating material such as a glass wool, a heat insulating material insertion opening for inserting the heat insulating material into the decompression housing is formed in the decompression housing, a partition member for partitioning the heat insulating material is provided in the decompression housing, and the partition member is arranged immediately above the heat insulating material insertion opening. a first glass-melting tank; a conduit extending downwardly from the first glass-melting tank; a first sucking device for exposing the first glass-melting tank to a reduced-pressure atmosphere; a second glass-melting tank provided on a lower portion of the conduit and exposed to an atmospheric-pressure atmosphere; a bushing provided on a bottom portion of the second glass-melting tank and having a number of nozzles; a decompression housing covering the first glass-melting tank and the conduit in which a pressure is reduced by the first sucking device; heating means for heating the first glass-melting tank, the conduit, the second glass-melting tank, and the bushing separately; and a heat insulating material accommodated in the decompression housing, wherein an extendable housing part which is extendable and retractable is provided in the decompression housing, the extendable housing part includes a bellows portion which is extendable and retractable, at least part of the heat insulating material is an elastic heat insulating material having elasticity, the elastic heat insulating material is a wool heat insulating material such as a glass wool, a heat insulating material insertion opening for inserting the heat insulating material into the decompression housing is formed in the decompression housing, a partition member for partitioning the heat insulating material is provided in the decompression housing, and the partition member is arranged immediately above the heat insulating material insertion opening.
A pair of oligonucleotides, according to which the first oligonucleotide selectively hybridizes to the sequence SEQ ID NO. 3 and the second oligonucleotide selectively hybridizes to the sequence SEQ ID NO. 4 under conditions of sufficient stringencies for the amplification of a variable region of the mitochondrial gene 12S of the vertebrates by polymerase chain reaction.