mhurhangee/ep-ind-claims huggingface dataset:
A coronary guidewire, comprising: a flexible elongated core; a coil comprising a plurality of helical coil turns wound around a distal end portion of the core, the coil having a proximal portion constructed of stainless steel and including a proximal end of the coil, and a distal portion constructed of a platinum alloy and including distal end of the coil; a weld joint that connects the distal end of the coil to the core and defines a distal tip of the guidewire; a first solder joint that connects the proximal end of the coil to the core; and a second solder joint that connects the coil to the core at a location where the proximal and distal portions of the coil meet; wherein the distal end portion of the core comprises a flexible bend adjacent the distal tip, the bend beginning at a location that is 0.20-1.00 mm from the distal tip. a flexible elongated core; a coil comprising a plurality of helical coil turns wound around a distal end portion of the core, the coil having a proximal portion constructed of stainless steel and including a proximal end of the coil, and a distal portion constructed of a platinum alloy and including distal end of the coil; a weld joint that connects the distal end of the coil to the core and defines a distal tip of the guidewire; a first solder joint that connects the proximal end of the coil to the core; and a second solder joint that connects the coil to the core at a location where the proximal and distal portions of the coil meet; wherein the distal end portion of the core comprises a flexible bend adjacent the distal tip, the bend beginning at a location that is 0.20-1.00 mm from the distal tip.
A system for continuously preparing furfural using an acid-containing pentose solution wherein the acid is selected from at least one of sulphuric acid, hydrochloric acid, phosphoric acid or nitric acid, and the acid has a concentration of 0.1% to 10% by weight, wherein the system comprises: a stripping reaction column comprising, at the top, a vapor outlet and a first raw material inlet, and at the bottom, a stripping vapor inlet and an acid solution outlet; wherein the first raw material inlet is for receiving the acid-containing pentose solution of a first temperature as a raw material for performing a dehydration/cyclization reaction, the stripping vapor inlet is for receiving a stripping vapor of a second temperature, the vapor outlet is for supplying a furfural-containing vapor obtained from the reaction, and the acid solution outlet is for extracting an acid solution from the bottom of the column; a separation unit connected to the vapor outlet, for neutralizing acids in the furfural-containing vapor and separating the resulting salt from the furfural-containing vapor to provide a furfural-containing vapor with a reduced acid content; and a purification unit for purifying the resulting furfural. a stripping reaction column comprising, at the top, a vapor outlet and a first raw material inlet, and at the bottom, a stripping vapor inlet and an acid solution outlet; wherein the first raw material inlet is for receiving the acid-containing pentose solution of a first temperature as a raw material for performing a dehydration/cyclization reaction, the stripping vapor inlet is for receiving a stripping vapor of a second temperature, the vapor outlet is for supplying a furfural-containing vapor obtained from the reaction, and the acid solution outlet is for extracting an acid solution from the bottom of the column; a separation unit connected to the vapor outlet, for neutralizing acids in the furfural-containing vapor and separating the resulting salt from the furfural-containing vapor to provide a furfural-containing vapor with a reduced acid content; and a purification unit for purifying the resulting furfural.
A method of sequential protein isolation and purification comprising (i) providing a plasma sample, (ii) providing ligands each of which binds specifically to a target protein in the biological sample, wherein each of the ligands is optionally attached to a support to form ligand-support complexes, (iii) contacting the ligands or ligand-support complexes sequentially and in a predetermined order with the plasma sample to allow each ligand or ligand-support complex to sequentially bind the target protein from the plasma sample, wherein the predetermined order of contacting the ligands or ligand-support complexes with the plasma sample results in the binding of plasminogen before IgG and IgG before albumin, and wherein prior to said contacting the biological sample is not processed through a pre-conditioning step selected from the group consisting of alcohol precipitation, cryoprecipitation, removal of lipids and/or lipid proteins, euglobulin precipitation, or a combination thereof, (iv) eluting the target protein bound to each of the ligands or ligand-support complexes, and (v) isolating the target protein sequentially from the biological sample.
A manufacturing method for manufacturing an absorbent article (17, 18) comprising a backsheet layer on the garment facing side of said absorbent article (17, 18) and a pocket being accessible from the garment facing side of the absorbent article (17, 18) through an opening of the backsheet layer, the manufacturing method comprising the steps of: providing a backsheet layer, a cover strip layer, and an absorbent core layer, cutting an opening into the backsheet layer, and placing the cover strip layer between the backsheet layer and the absorbent core layer, in such a manner that the opening of the backsheet layer is at least partly covered by the cover strip layer, wherein the cutting is speed-synchronized with respect to the provision of the backsheet layer in such a manner that the opening is placed at the same position for every absorbent article (17, 18), or wherein in the case that the absorbent article (17, 18) further comprises a pattern on the body facing side of the backsheet layer, the backsheet layer is speed-controlled with respect to the positioning of the pattern in such a manner that the opening is placed at the same position relatively to the pattern for every absorbent article (17, 18). providing a backsheet layer, a cover strip layer, and an absorbent core layer, cutting an opening into the backsheet layer, and placing the cover strip layer between the backsheet layer and the absorbent core layer, in such a manner that the opening of the backsheet layer is at least partly covered by the cover strip layer, wherein the cutting is speed-synchronized with respect to the provision of the backsheet layer in such a manner that the opening is placed at the same position for every absorbent article (17, 18), or
A compound for an organic photoelectric device represented by the following Chemical Formula 1 or 2: wherein, in Chemical Formulae 1 and 2, X1 to X9 are the same or different and independently N or CR, wherein R is selected from the group consisting of hydrogen, a C1 to C30 alkyl group, and a C6 to C30 aryl group, at least two of X1 to X3 are N, at least one of X4 to X6 is N, and at least one of X7 to X9 is N, whrerein, in Chemical Formula 1, Ar1 to Ar6 are the same or different and are independently selected from the group consisting of a substituted or unsubstituted C6 to C30 arylene group, a substituted or unsubstituted C3 to C30 heteroarylene group, a substituted or unsubstituted C6 to C30 arylaminylene group, a substituted or unsubstituted carbazolylene group, and a substituted or unsubstituted fluorenylene group, Ar7 to Ar12 are the same or different and are independently selected from the group consisting of a substituted or unsubstituted C6 to C30 aryl group or a substituted or unsubstituted C3 to C30 heteroaryl group, and a, b, c, d, e, and f are the same or different and are independently an integer ranging from 1 to 2, wherein in Chemical Formula 2, Ar13 to Ar18 are the same or different and are independently selected from the group consisting of a substituted or unsubstituted C6 to C30 aryl group, a substituted or unsubstituted C3 to C30 heteroaryl group, a substituted or unsubstituted C6 to C30 arylamine group, a substituted or unsubstituted carbazolyl group, and a substituted or unsubstituted fluorenyl group. X1 to X9 are the same or different and independently N or CR, wherein R is selected from the group consisting of hydrogen, a C1 to C30 alkyl group, and a C6 to C30 aryl group, at least two of X1 to X3 are N, at least one of X4 to X6 is N, and at least one of X7 to X9 is N, Ar1 to Ar6 are the same or different and are independently selected from the group consisting of a substituted or unsubstituted C6 to C30 arylene group, a substituted or unsubstituted C3 to C30 heteroarylene group, a substituted or unsubstituted C6 to C30 arylaminylene group, a substituted or unsubstituted carbazolylene group, and a substituted or unsubstituted fluorenylene group, Ar7 to Ar12 are the same or different and are independently selected from the group consisting of a substituted or unsubstituted C6 to C30 aryl group or a substituted or unsubstituted C3 to C30 heteroaryl group, and a, b, c, d, e, and f are the same or different and are independently an integer ranging from 1 to 2, Ar13 to Ar18 are the same or different and are independently selected from the group consisting of a substituted or unsubstituted C6 to C30 aryl group, a substituted or unsubstituted C3 to C30 heteroaryl group, a substituted or unsubstituted C6 to C30 arylamine group, a substituted or unsubstituted carbazolyl group, and a substituted or unsubstituted fluorenyl group.
Method for activating a trapping prevention function in an electrical closing system, with the trapping prevention function being designed to interrupt a movement of a closing part in a movement direction when it is identified that the movement of the closing part is impeded by a trapped object; comprising the following steps: - supplying successively detected values of a motor variable (I mot) of a motor which causes the movement of the closing part, with the motor variable (I mot) providing information about a drive torque which is supplied by the motor; - determining a gradient profile from the successively detected values of the motor variable (I mot), with the gradient profile being ascertained with the aid of a derivation method which weights the individual successively detected values of the motor variable (I mot) as a function of the order in which they were detected; - ascertaining a time for activating the trapping prevention function as a function of the determined gradient profile, wherein the time for activating the trapping prevention function is carried out as a function of a ratio between the mechanical power (P mech) and the electrical power (P el) of the motor. - supplying successively detected values of a motor variable (I mot) of a motor which causes the movement of the closing part, with the motor variable (I mot) providing information about a drive torque which is supplied by the motor; - determining a gradient profile from the successively detected values of the motor variable (I mot), with the gradient profile being ascertained with the aid of a derivation method which weights the individual successively detected values of the motor variable (I mot) as a function of the order in which they were detected; - ascertaining a time for activating the trapping prevention function as a function of the determined gradient profile, wherein the time for activating the trapping prevention function is carried out as a function of a ratio between the mechanical power (P mech) and the electrical power (P el) of the motor.
An oil bypass structure of an oil cooler (1, 61) comprising: a bypass passage within which an oil bypassing a heat exchange section of the oil cooler (1, 61) flows; an outlet side passage within which the oil passing through the heat exchange section flows; and a bypass valve (2, 62, 72) disposed at a connection portion between the bypass passage and the outlet side passage, the bypass valve (2, 62, 72) which includes a valve element including an inside passage which is formed within the valve element, and within which the oil flows, the bypass valve (2, 62, 72) to which the bypass passage is connected from a direction perpendicular to an axial direction of the valve element, the bypass valve (2, 62, 72) being arranged to be closed to shut off a flow of the oil from the bypass passage to the outlet side passage by the valve element so that the oil passing through the heat exchange section flows within the inside passage, and to be opened to connect the bypass passage and the inside passage so that the oil passing through the bypass passage flows within the inside passage. a bypass passage within which an oil bypassing a heat exchange section of the oil cooler (1, 61) flows; an outlet side passage within which the oil passing through the heat exchange section flows; and a bypass valve (2, 62, 72) disposed at a connection portion between the bypass passage and the outlet side passage, the bypass valve (2, 62, 72) which includes a valve element including an inside passage which is formed within the valve element, and within which the oil flows, the bypass valve (2, 62, 72) to which the bypass passage is connected from a direction perpendicular to an axial direction of the valve element, the bypass valve (2, 62, 72) being arranged to be closed to shut off a flow of the oil from the bypass passage to the outlet side passage by the valve element so that the oil passing through the heat exchange section flows within the inside passage, and to be opened to connect the bypass passage and the inside passage so that the oil passing through the bypass passage flows within the inside passage.
A method for assigning a spatial channel from a base station in an Orthogonal Frequency Division Multiplexing, OFDM, communication system including the base station including a plurality of transmit antennas (11, 12, 19) and mobile stations (20, 30, 40) including a plurality of receive antennas, (21, 22, 29; 31, 32, 39; 41, 42, 49), wherein a frequency sub-channel for transmitting data is divided into a plurality of spatial channels based on a Spatial Division Multiplexing system, the method being characterized in that: for a first spatial channel and for each mobile station of the mobile stations, temporarily assigning the first spatial channel among the divided spatial channels to the mobile station; and calculating a communication capacity of the mobile station in the first spatial channel; selecting the mobile station having the maximum communication capacity in the first spatial channel based on the calculation; and finally assigning the first spatial channel to the selected mobile station before repeating the same assigning method for each of the subsequent spatial channels to the remaining mobile stations. for a first spatial channel and for each mobile station of the mobile stations, temporarily assigning the first spatial channel among the divided spatial channels to the mobile station; and calculating a communication capacity of the mobile station in the first spatial channel; temporarily assigning the first spatial channel among the divided spatial channels to the mobile station; and calculating a communication capacity of the mobile station in the first spatial channel; selecting the mobile station having the maximum communication capacity in the first spatial channel based on the calculation; and finally assigning the first spatial channel to the selected mobile station before repeating the same assigning method for each of the subsequent spatial channels to the remaining mobile stations.
A lamp assembly for a vehicle, comprising a lamp positioned in a housing; a light transmissive lens coupled to the housing in front of the lamp, the light transmissive lens defining a curved cross-section with a curvature extending across the lens; one or more electrically conductive traces positioned on a surface of the lens, the electrically conductive traces extending across and curving with the curvature of the light transmissive lens; and a first coating covering the one or more electrically conductive traces, wherein the first coating covers a portion of the lens surface leaving a separate second portion uncovered; wherein the electrically conductive traces extend outwardly away from the surface of the lens and have a thickness of at least 0.03 mm, characterized in that the electrically conductive traces have a cross-section that is taller than it is wide. a lamp positioned in a housing; a light transmissive lens coupled to the housing in front of the lamp, the light transmissive lens defining a curved cross-section with a curvature extending across the lens; one or more electrically conductive traces positioned on a surface of the lens, the electrically conductive traces extending across and curving with the curvature of the light transmissive lens; and a first coating covering the one or more electrically conductive traces, wherein the first coating covers a portion of the lens surface leaving a separate second portion uncovered; wherein the electrically conductive traces extend outwardly away from the surface of the lens and have a thickness of at least 0.03 mm, characterized in that the electrically conductive traces have a cross-section that is taller than it is wide.
A method for securing a document for transmission, comprising: checking the document for an indication (104, 106) of confidentiality; passing the document to a secure driver, in response to a finding of the indication (104, 106) of confidentiality; passing the document to a non-secure driver, in response to a failure to find the indication (104, 106) of confidentiality; and transmitting the document after processing by the secure driver or the non-secure driver, wherein the non-secure driver is a default driver, the use of which is overridden by a parsing unit only where the document is found to be confidential, or the secure driver is a default driver, the use of which is overridden by the parsing unit only where the document is found to be non-confidential. checking the document for an indication (104, 106) of confidentiality; passing the document to a secure driver, in response to a finding of the indication (104, 106) of confidentiality; passing the document to a non-secure driver, in response to a failure to find the indication (104, 106) of confidentiality; and transmitting the document after processing by the secure driver or the non-secure driver, wherein the non-secure driver is a default driver, the use of which is overridden by a parsing unit only where the document is found to be confidential, or the secure driver is a default driver, the use of which is overridden by the parsing unit only where the document is found to be non-confidential.
A method for removing a weft incorrectly inserted by hydraulic picking into the shed of a hydraulic weaving machine, in which a control system for detecting incorrect weft insertion performs the steps of stopping the machine, removing the incorrectly inserted weft and restarting the machine to resume production mode, whereby during the same revolution of the machine in which the weft was defectively inserted, a signal is generated by the control system of the machine to stop the machine and thus interruption of the incorrectly inserted weft is prevented at the entrance to the shed and subsequently, after the machine is stopped, the machine operation is reversed to a state of the machine with the shed in an open position in which the weft was improperly inserted, whereupon a new weft is inserted as static weft insertion without the motion of the opened branches of the warp and without the motion of the means for transferring the new weft to the fell of the fabric being formed, by the new weft insertion the previously defectively insterted weft is removed from the opened shed and after that on the side of the shed remote from the picking nozzle it is assessed whether the attempt to remove the weft has been successful and the machine is either restarted to resume production mode, or it is stopped and error signalling is initiated, characterized in that after the static weft insertion, at first the number of threads situated in the control zone is determined and subsequently, according to the observed number of threads in a control zone on the side of the shed remote from the picking nozzle, the control system performs the transfer of the new weft to the fell of the fabric being formed, whereupon the machine is either automatically restarted to production mode or the control system stops the machine and initiates error signalling.
Pantyhose having a double-layered waistband which has an outer layer and an inner layer, characterised in that, at at least one point on the circumferential extent of the waistband, there are formed at least one opening (9, 10) in the inner layer of the waistband and/or at least one opening between the bottom edge of the inner layer of the waistband and the outer layer of the waistband.
A computer implemented method for storing data, comprising: receiving Resource Description Framework data to be stored; obtaining triplet information from said RDF data to be stored; wherein the triplet information comprises three pieces of information: the resource name of a specific resource, the attribute of a specific resource, and the attribute value of a specific resource represented by the RDF data to be stored; obtaining from the RDF data to be stored a first namespace used by the resource name of said specific resource; searching for a resource identification corresponding to the resource name of said specific resource and the first namespace; obtaining from the RDF data to be stored a second namespace used by an attribute of said specific resource; determining whether the length of the attribute value of said specific resource is greater than a predetermined threshold value; if the length of the attribute value of said specific resource is greater than the predetermined threshold value, searching for the attribute value identification corresponding to the attribute value of said specific resource; searching for the attribute identification corresponding to an attribute of said specific resource and the second namespace; storing said triplet information, wherein the resource name of the specific resource is represented by a resource identification, the attribute of the specific resource is represented by an attribute identification, and the attribute value of said specific resource is represented by said attribute value identification. receiving Resource Description Framework data to be stored; obtaining triplet information from said RDF data to be stored; wherein the triplet information comprises three pieces of information: the resource name of a specific resource, the attribute of a specific resource, and the attribute value of a specific resource represented by the RDF data to be stored; obtaining from the RDF data to be stored a first namespace used by the resource name of said specific resource; searching for a resource identification corresponding to the resource name of said specific resource and the first namespace; obtaining from the RDF data to be stored a second namespace used by an attribute of said specific resource; determining whether the length of the attribute value of said specific resource is greater than a predetermined threshold value; if the length of the attribute value of said specific resource is greater than the predetermined threshold value, searching for the attribute value identification corresponding to the attribute value of said specific resource; searching for the attribute identification corresponding to an attribute of said specific resource and the second namespace; storing said triplet information, wherein the resource name of the specific resource is represented by a resource identification, the attribute of the specific resource is represented by an attribute identification, and the attribute value of said specific resource is represented by said attribute value identification.