mhurhangee/ep-ind-claims huggingface dataset:
Method for controlling an ozone generating machine comprising: - a control unit, - at least one sensor arranged for emitting at least one sensor signal to the control unit, - at least one actuator arranged to be controlled by at least one actuator control signal generated by the control unit and - an ozone generating machine identification code, the method comprising the steps of: - connecting to the ozone generating machine a data storing device storing a set of base setting files, wherein each base setting file is dedicated to a type of ozone generating machine, and - reading the ozone generating machine identification code indicating the type of the ozone generating machine, and - retrieving and reading on the data storing device a dedicated base setting file corresponding to the type of the ozone generating machine indicated by the identification code, and - encoding and writing on an end user data storing device a system configuration file (Sysconf) based on the dedicated base setting file, the system configuration file (Sysconf) comprising at least a set of sensor coefficients and a set of actuator coefficients, - producing ozone with the ozone generating machine, said ozone production step comprising at least a step of correcting the at least one sensor signal emitted by the at least one sensor with at least one sensor coefficient belonging to the set of sensor coefficients and/or actuating the at least one actuator with the at least one actuator control signal corrected by at least one actuator coefficient belonging to the set of actuator coefficients. - a control unit, - at least one sensor arranged for emitting at least one sensor signal to the control unit, - at least one actuator arranged to be controlled by at least one actuator control signal generated by the control unit and - an ozone generating machine identification code, - connecting to the ozone generating machine a data storing device storing a set of base setting files, wherein each base setting file is dedicated to a type of ozone generating machine, and - reading the ozone generating machine identification code indicating the type of the ozone generating machine, and - retrieving and reading on the data storing device a dedicated base setting file corresponding to the type of the ozone generating machine indicated by the identification code, and - encoding and writing on an end user data storing device a system configuration file (Sysconf) based on the dedicated base setting file, the system configuration file (Sysconf) comprising at least a set of sensor coefficients and a set of actuator coefficients, - producing ozone with the ozone generating machine, said ozone production step comprising at least a step of correcting the at least one sensor signal emitted by the at least one sensor with at least one sensor coefficient belonging to the set of sensor coefficients and/or actuating the at least one actuator with the at least one actuator control signal corrected by at least one actuator coefficient belonging to the set of actuator coefficients.
A connector for use underwater or in a wet or severe environment, comprising first and second connector parts adapted to be interengaged to establish an electrical connection, the first connector part having at least one pin, and the second connector part having a seal and at least one electrical contact for engagement by the pin when the connector parts are interengaged, the pin comprising an axially extending electrically conductive portion and an axially extending electrically insulating sleeve around said conductive portion, and the pin being supported by and projecting axially forwardly from a support whereby its insulating sleeve is exposed along a longitudinally extending portion thereof to ambient conditions when the connector parts are disengaged, characterized in that the insulating sleeve has a metal or metallised coating deposited on its surface at least along a length of the pin extending forwardly from the support, the metal or metallised coating suppressing the ingress of water to the pin and reducing localised condensing of equipotential electric field lines in the region radially outwardly, and behind the front, of the metal or metallised coating, and the coating being arranged such that, when the connector parts are fully interengaged, the seal in the second connector part and in said region is screened by the coating from said condensing of equipotential electric field lines and from electrical stresses.
A compound having the structural formula: wherein R 1 is NO 2, CN, F or C1-C4 perfluoroalkyl; A is O or S; R 2 is a H, O-methyl, fluorine or OR 2', wherein R 2' is 1,1-dioxo-thiomorpholine-4-carbothioate, tert-butyldimethylsilyl (TBDMS), tri-iso-propylsilyloxymethyl, bis(2-acetoxyethoxy)methyl, pivaloyloxymethyl (PivOM), 1-(2-cyanoethoxy)ethyl, 2-cyanoethoxymethyl, -CO-R", CH 2 -CH=CH 2, CH 2 -O-CH 2 -phenyl-NO 2, CH 2 -S-S-R 1, or Si(R") 3; wherein R" is independently selected from straight-, branched-, saturated or unsaturated-alkyl, aryl, alkaryl, or aralkyl; R 3 is (β-cyanoethyl)- N,N -diisopropyl phosphoramidite, methyl-N,N-diisopropyl-phosphoramidite or (β-cyanoethyl)-N-pyrrolidino phosphoramidite; R 5 is 4,4'-dimethoxytrityl, monomethoxytrityl, trimethoxytrityl or 9-phenylxanthyl (Px); R is a protected amino group of the formula N=C(R')NR' 2 or N(R')COR' or N(COR') 2, wherein each R' is independently selected from H, linear-, branched-, saturated- or unsaturated -alkyl, aryl, alkaryl or aralkyl; or wherein R is a protected amino group of the formula N=C(R')NR' 2, wherein NR' 2 is joined to form a 5-8 membered ring wherein said ring can contain a heteroatom selected from O or S; and each of X, Y and Z is independently H, halogen, or a C 1 -C 3 alkyl, wherein two or more of X, Y and Z may together form a 5-8 membered saturated, un-saturated or aryl ring. R 1 is NO 2, CN, F or C1-C4 perfluoroalkyl; A is O or S; R 2 is a H, O-methyl, fluorine or OR 2', wherein R 2' is 1,1-dioxo-thiomorpholine-4-carbothioate, tert-butyldimethylsilyl (TBDMS), tri-iso-propylsilyloxymethyl, bis(2-acetoxyethoxy)methyl, pivaloyloxymethyl (PivOM), 1-(2-cyanoethoxy)ethyl, 2-cyanoethoxymethyl, -CO-R", CH 2 -CH=CH 2, CH 2 -O-CH 2 -phenyl-NO 2, CH 2 -S-S-R 1, or Si(R") 3; wherein R" is independently selected from straight-, branched-, saturated or unsaturated-alkyl, aryl, alkaryl, or aralkyl; R 3 is (β-cyanoethyl)- N,N -diisopropyl phosphoramidite, methyl-N,N-diisopropyl-phosphoramidite or (β-cyanoethyl)-N-pyrrolidino phosphoramidite; R 5 is 4,4'-dimethoxytrityl, monomethoxytrityl, trimethoxytrityl or 9-phenylxanthyl (Px); R is a protected amino group of the formula N=C(R')NR' 2 or N(R')COR' or N(COR') 2, wherein each R' is independently selected from H, linear-, branched-, saturated- or unsaturated -alkyl, aryl, alkaryl or aralkyl; or wherein R is a protected amino group of the formula N=C(R')NR' 2, wherein NR' 2 is joined to form a 5-8 membered ring wherein said ring can contain a heteroatom selected from O or S; and each of X, Y and Z is independently H, halogen, or a C 1 -C 3 alkyl, wherein two or more of X, Y and Z may together form a 5-8 membered saturated, un-saturated or aryl ring.
A microstructure device for measuring molecular membranes comprising a carrier substrate having an upper surface for supporting the membrane, at least one microcavity of the carrier substrate for receiving an electrolyte, wherein the microcavity is upwardly open and opens out into a microaperture in the upper surface of the carrier substrate, wherein the microaperture comprises a first characteristic diameter D1, at least one electrode which is at least partially arranged within the microcavity and which comprises a contact side, that is adjoining the interior volume of the microcavity, for contacting an electrolyte, wherein this contact side of the electrode comprises a characteristic diameter D2 which is greater than D1, wherein the microcavity comprises an upper space portion which is upwardly bounded by the microaperture surface and which has in the cross-section a characteristic diameter D3 and in that the microcavity comprises a lower space portion which is located below the upper space portion and which has in this cross-section a characteristic diameter D4, wherein D4>D3 and wherein the contemplated cross-section runs through the geometrical center of a planar microaperture surface and is perpendicular thereto, characterized in that the upper space portion comprises a characteristic height H3 and the lower space portion comprises a characteristic height H4, wherein H4 is less than H3.
A light source device comprising: a housing configured to have a great length along a predetermined direction; a plurality of light emitting elements configured to be placed in the housing and arranged along at least the predetermined direction; and one or a plurality of heat dissipation members configured to be placed in the housing and thermally connected with the light emitting elements, wherein a first intake port through which air is sucked into the housing from an outside is provided in one end on one side of the housing in the predetermined direction, an exhaust port through which air is discharged to the outside from the housing is provided in another end on an other side of the housing in the predetermined direction, a space in which the other side in the predetermined direction faces the heat dissipation member is formed in the housing, and a second intake port through which air is sucked into the space from the outside is provided in a side surface (22a, 23a) between the first intake port and the exhaust port in the housing, wherein the housing includes an outer sidewall (22o, 23o) between the first intake port and the exhaust port, and an inner sidewall (22i, 23i) located inwardly with respect to the outer sidewall, an inter-wall space in which air sucked through the first intake port is allowed to flow along the predetermined direction is formed between the outer sidewall (22o, 23o) and the inner sidewall (22i, 23i) in the housing, and the second intake port is provided so as not to communicate with the inter-wall space while communicating with the space. a housing configured to have a great length along a predetermined direction; a plurality of light emitting elements configured to be placed in the housing and arranged along at least the predetermined direction; and one or a plurality of heat dissipation members configured to be placed in the housing and thermally connected with the light emitting elements, wherein a first intake port through which air is sucked into the housing from an outside is provided in one end on one side of the housing in the predetermined direction, an exhaust port through which air is discharged to the outside from the housing is provided in another end on an other side of the housing in the predetermined direction, a space in which the other side in the predetermined direction faces the heat dissipation member is formed in the housing, and a second intake port through which air is sucked into the space from the outside is provided in a side surface (22a, 23a) between the first intake port and the exhaust port in the housing, wherein the housing includes an outer sidewall (22o, 23o) between the first intake port and the exhaust port, and an inner sidewall (22i, 23i) located inwardly with respect to the outer sidewall, an inter-wall space in which air sucked through the first intake port is allowed to flow along the predetermined direction is formed between the outer sidewall (22o, 23o) and the inner sidewall (22i, 23i) in the housing, and the second intake port is provided so as not to communicate with the inter-wall space while communicating with the space.
A catalyst deterioration detection apparatus comprising: an exhaust gas purification catalyst configured to be arranged in an exhaust passage (6, 11) of an internal combustion engine capable of using as fuel both liquid fuel and gas fuel which, when an air fuel ratio of an exhaust gas discharged from said internal combustion engine is changed to a rich side, has more difficulty than the liquid fuel to release, from the exhaust gas purification catalyst, oxygen occluded therein; an oxygen sensor configured to be arranged in said exhaust passage (6, 11) at a downstream side of said exhaust gas purification catalyst; and an ECU, configured to execute catalyst deterioration determination control in which the air fuel ratio of the exhaust gas discharged from said internal combustion engine is changed to a rich side and a lean side, a comparison is made between a change of the air fuel ratio and a change of an output of said oxygen sensor, and it is determined whether said exhaust gas purification catalyst has deteriorated; and said ECU is configured to select, when the catalyst deterioration determination control is executed while said internal combustion engine uses as fuel only the gas fuel, between determining whether said exhaust gas purification catalyst has deteriorated, based on a change in the output of said oxygen sensor only at the lean side, and determining whether said exhaust gas purification catalyst has deteriorated, based on changes in the output of said oxygen concentration sensor at the rich side and at the lean side. an exhaust gas purification catalyst configured to be arranged in an exhaust passage (6, 11) of an internal combustion engine capable of using as fuel both liquid fuel and gas fuel which, when an air fuel ratio of an exhaust gas discharged from said internal combustion engine is changed to a rich side, has more difficulty than the liquid fuel to release, from the exhaust gas purification catalyst, oxygen occluded therein; an oxygen sensor configured to be arranged in said exhaust passage (6, 11) at a downstream side of said exhaust gas purification catalyst; and an ECU, configured to execute catalyst deterioration determination control in which the air fuel ratio of the exhaust gas discharged from said internal combustion engine is changed to a rich side and a lean side, a comparison is made between a change of the air fuel ratio and a change of an output of said oxygen sensor, and it is determined whether said exhaust gas purification catalyst has deteriorated; and said ECU is configured to select, when the catalyst deterioration determination control is executed while said internal combustion engine uses as fuel only the gas fuel, between determining whether said exhaust gas purification catalyst has deteriorated, based on a change in the output of said oxygen sensor only at the lean side, and determining whether said exhaust gas purification catalyst has deteriorated, based on changes in the output of said oxygen concentration sensor at the rich side and at the lean side.
A system comprising: a gap filling compound comprising a filler metal comprising a plurality of metal particles, wherein the GFC is configured to be disposed inside a gap (66, 68) of a substrate; and a GFC retention screen configured to be disposed over the GFC, and the GFC retention screen comprising openings to enable gas to escape from the GFC during brazing, characterized in that the openings of the GFC retention screen are smaller than the metal particles to retain the GFC within the gap (66, 68) during brazing and to block a flow of GFC. a gap filling compound comprising a filler metal comprising a plurality of metal particles, wherein the GFC is configured to be disposed inside a gap (66, 68) of a substrate; and a GFC retention screen configured to be disposed over the GFC, and the GFC retention screen comprising openings to enable gas to escape from the GFC during brazing,
A method for programming a wiper system (10;10a) for vehicle windscreens, in which for operating respectively a windscreens wiper (14, 15) a wiper module (12, 13) on the driver's side is programmed as master module and a wiper module (12, 13) on the passenger's side is programmed as slave module, wherein the wiper modules (12, 13) consist of a reversing motor, if applicable a gear, a holder (22, 23) for fastening to the body of a vehicle, and a control, wherein in the control at least data for a program sequence, vehicle-specific characteristic data and data for the operation of the wiper module (12, 13) as master module or respectively as slave module are stored, wherein at least the wiper module (12, 13) on the driver's side is connected via an on-board wiring system interface and a first data communication line with a vehicle control unit, wherein a second data communication line is provided between the wiper module (12, 13) on the driver's side and the wiper module (12, 13) on the passenger's side, and wherein via an activation of the wiper module (12, 13) on the driver's side via the first data communication line a programming takes place of the respective wiper module (12, 13) as master module, characterized in that in its delivery state before the activation of the wiper module (12, 13) on the driver's side via the fist data communication line in its control the wiper module (12, 13) is defined or respectively pre-programmed neither as master module nor as slave module
A method for recovering filtered fluid retained in a filter system including a filter device comprising a housing having an inlet and an outlet defining a filtration flow path between the inlet and the outlet, and a porous filter medium across the filtration flow path, the porous medium having an upstream side and a downstream side; the system also including a filtered fluid receiving container arranged downstream of the outlet; a first fluid flow path between the outlet and the filtered fluid receiving container; a second fluid flow path between the first fluid flow path and a flexible container for containing sterile air and/or sterile gas, the second fluid flow path including an associated flow control device; wherein the second fluid flow path is connected to the first fluid flow path; the method comprising: (a) passing sterile air and/or sterile gas through the outlet of the filter device and from the first fluid flow path through the second fluid flow path into the flexible container; (b) passing fluid to be filtered along the filtration flow path through the filter device and passing filtered fluid along the first fluid flow path into the filtered fluid receiving container, wherein a volume of filtered fluid is retained in the housing between the downstream side of the porous filter medium and the outlet; said method being characterized by (c) allowing the sterile air and/or sterile gas to pass from the flexible container along the second fluid flow path into the first flow path and through the outlet into the housing of the filter device, and displacing retained filtered fluid along the first fluid flow path into the filtered fluid receiving container. (a) passing sterile air and/or sterile gas through the outlet of the filter device and from the first fluid flow path through the second fluid flow path into the flexible container; (b) passing fluid to be filtered along the filtration flow path through the filter device and passing filtered fluid along the first fluid flow path into the filtered fluid receiving container, wherein a volume of filtered fluid is retained in the housing between the downstream side of the porous filter medium and the outlet; said method being characterized by (c) allowing the sterile air and/or sterile gas to pass from the flexible container along the second fluid flow path into the first flow path and through the outlet into the housing of the filter device, and displacing retained filtered fluid along the first fluid flow path into the filtered fluid receiving container.
A clip for a mounting system of a panel, comprising: a body; positioning means (24, 27) disposed on the body for securing the clip relative to a rail of the mounting system; an upper side extending from the body, comprising: at least one first upper flange protruding upwardly, and a second upper flange parallel to the first upper flange and spaced a distance towards the body; at least one first lower flange protruding downwardly, and a second lower flange extending from the first lower flange towards the body, a baffle perpendicular to the first upper flange, the baffle secured to and protruding from the body, characterized in that the baffle includes a positioning plate inserted into the body and at least one hook going through the body and secured at the opposite side of the body. a body; positioning means (24, 27) disposed on the body for securing the clip relative to a rail of the mounting system; an upper side extending from the body, comprising: at least one first upper flange protruding upwardly, and a second upper flange parallel to the first upper flange and spaced a distance towards the body; at least one first lower flange protruding downwardly, and a second lower flange extending from the first lower flange towards the body, a baffle perpendicular to the first upper flange, the baffle secured to and protruding from the body, characterized in that the baffle includes a positioning plate inserted into the body and at least one hook going through the body and secured at the opposite side of the body. at least one first upper flange protruding upwardly, and a second upper flange parallel to the first upper flange and spaced a distance towards the body; at least one first lower flange protruding downwardly, and a second lower flange extending from the first lower flange towards the body, a baffle perpendicular to the first upper flange, the baffle secured to and protruding from the body, characterized in that the baffle includes a positioning plate inserted into the body and at least one hook going through the body and secured at the opposite side of the body.
Aqueous adhesive composition comprising: - a) an amylomaltase-treated starch or an amylomaltase-treated maltodextrin; and - b) ammonium zirconium carbonate. - a) an amylomaltase-treated starch or an amylomaltase-treated maltodextrin; and - b) ammonium zirconium carbonate.
A windshield wiper arm assembly that is adapted to support a wiper blade as it moves across a surface to be wiped, said windshield wiper arm assembly comprising: - an arm body and a head supported by said arm body and adapted to be mounted to a pivot shaft that defines a pivot axis and drives the wiper blade in an oscillating manner across the surface to be wiped, said arm body including an opening providing access to said head mounted to the pivot shaft; and - a cover mounted to said arm body at said opening and movable from a first position closing said opening to a second position allowing access to said head, characterized in that said cover is movable about an axis substantially parallel to the pivot axis. - an arm body and a head supported by said arm body and adapted to be mounted to a pivot shaft that defines a pivot axis and drives the wiper blade in an oscillating manner across the surface to be wiped, said arm body including an opening providing access to said head mounted to the pivot shaft; and - a cover mounted to said arm body at said opening and movable from a first position closing said opening to a second position allowing access to said head, characterized in that said cover is movable about an axis substantially parallel to the pivot axis.