mhurhangee/ep-ind-claims huggingface dataset:
Electrical plug-in connector part, having a locking sleeve which is rotatably mounted on a plug part housing, wherein the plug-in connector part can be plug-connected to a mating plug part and can be fixed releasably thereon, wherein the locking sleeve has at least one locking means for locking with a mating locking portion of the mating plug part, and, with the plug-in connector part plugged together with the mating plug part, the locking sleeve can be arranged so as to engage around the mating locking portion and the locking sleeve and the mating locking portion can be operatively connected to one another by rotating the locking sleeve with respect to the mating locking portion, wherein the plug connector part has a rotation lock which is formed by at least one spring element fastened to the plug part housing on the outside and by at least one latching catch assigned to said spring element and formed on the locking sleeve on the inside, wherein the spring element has a latching lug which faces the inner side of the locking sleeve and which, in the unlocked state of the locking sleeve and in the locked state of the locking sleeve, latches into a first latching pocket or second latching pocket provided therefor in each case, characterized in that the locking sleeve is held in the axial direction on the plug part housing, in particular is held in a play-free manner, by means of a loading spring in the form of a corrugated spring which engages in an inner circumferential groove of the locking sleeve and in an outer circumferential groove of the plug part housing and which is supported against the plug part housing and/or the locking sleeve, and wherein the contour between the first latching pocket and the second latching pocket is designed to be flat in a first region and is designed to rise steeply in a second region close to the second latching pocket, wherein the first region is longer than the second region. characterized in that the locking sleeve is held in the axial direction on the plug part housing, in particular is held in a play-free manner, by means of a loading spring in the form of a corrugated spring which engages in an inner circumferential groove of the locking sleeve and in an outer circumferential groove of the plug part housing and which is supported against the plug part housing and/or the locking sleeve, and wherein the contour between the first latching pocket and the second latching pocket is designed to be flat in a first region and is designed to rise steeply in a second region close to the second latching pocket, wherein the first region is longer than the second region.
An asymmetric monoanthracene derivative represented by the following Formula: wherein Ar 1 and Ar 2 each are independently phenyl, 1-naphthyl, 2-naphthyl, 1-phenanthryl, 2-phenanthryl, 3-phenanthryl, 4-phenanthryl, 9-phenanthryl, 2-biphenylyl, 3-biphenylyl, 4-biphenylyl, p-terphenyl-4-yl, p-terphenyl-3-yl, p-terphenyl-2-yl, m-terphenyl-4-yl, m-terphenyl-3-yl or m-terphenyl-2-yl, provided that when the bonding positions of Ar 1 and Ar 2 in the benzene rings are symmetric in right and left, Ar 1 is not the same as Ar 2; R 1 to R 8 each are independently a hydrogen atom or a non-substituted aromatic hydrocarbon ring group having 6 to 50 nuclear carbon atoms; which formula is selected from the group consisting of the following formulae to: wherein in the formula the compounds described below are excluded: excluding the compounds described below: and excluding compounds described below: Ar 1 and Ar 2 each are independently phenyl, 1-naphthyl, 2-naphthyl, 1-phenanthryl, 2-phenanthryl, 3-phenanthryl, 4-phenanthryl, 9-phenanthryl, 2-biphenylyl, 3-biphenylyl, 4-biphenylyl, p-terphenyl-4-yl, p-terphenyl-3-yl, p-terphenyl-2-yl, m-terphenyl-4-yl, m-terphenyl-3-yl or m-terphenyl-2-yl, provided that when the bonding positions of Ar 1 and Ar 2 in the benzene rings are symmetric in right and left, Ar 1 is not the same as Ar 2; R 1 to R 8 each are independently a hydrogen atom or a non-substituted aromatic hydrocarbon ring group having 6 to 50 nuclear carbon atoms; which formula is selected from the group consisting of the following formulae to: wherein in the formula the compounds described below are excluded: excluding the compounds described below: and excluding compounds described below:
A pant-type absorbent article comprising a front portion, a back portion (3 and a crotch portion, wherein lateral side portions (17,18;19,20) of the front portion and back portion are superposed so that their inner surfaces face each other and being joined to each other along side seams (12,13) to define a waist opening and a pair of leg openings (15,16) of said pant-type article, and wherein at least part of, including said lateral side portions (17,18;19,20), of said front portion and said back portion comprises an elastic laminate, said elastic laminate comprising first and second fibrous layers (22,23) and an elastic film layer located there between, said elastic laminate extending transversely across the width of the front portion as well as transversely across the width of the back portion, cha racterized in that said first fibrous layer of said elastic laminate forming the inner wearer-facing side of the elastic laminate has a basis weight of between 13 and 30 g/m2 and that the basis weight of the first fibrous layer is between 10 and 300% higher than the basis weight of the second fibrous layer of the elastic laminate, wherein the first fibrous layers face each other along said side seams (12,13).
A flat tube for a heat exchanger, formed by a sheet material and defined by a bottom wall a top wall and two side walls, wherein said flat tubes further comprises a corrugated fin in the space defined between its walls (11, 12, 13), wherein at least one of the side walls comprises a first layer and a second layer of the sheet material, wherein the first layer has a curved portion forming a conduit together with the second layer, the curved portion protruding into the inner space of the tube in the width direction and thereby preventing creation of an air bypass when the corrugated fin is placed in the tube, wherein the first layer comprises brazed portions which form a connection with the second layer at the opposing sides of the conduit.
A light source device comprising: at least two coherent light sources (21a, 21b, 21c); and a diffraction part for diffracting light which is emitted from at least one of the coherent light sources (21a, 21b, 21c) so that the respective lights emitted from the at least two coherent light sources (21a, 21b, 21c) propagate through a same optical path, wherein said diffraction part comprises a first diffraction element and a second diffraction element, wherein the second diffraction element is adapted to receive the respective lights from the light sources (21a, 21b, 21c), to diffract at least one of the received lights; and the first diffraction element is adapted to diffract the lights emitted from the light sources (21a, 21b, 21c) and diffracted by the second diffraction element so that the lights diffracted by the second diffraction element propagate through the same optical path, characterized in that the second diffraction element is adapted to diffract the at least one of the received lights so that the light axes of the lights from the respective coherent light sources (21a, 21b, 21c) intersect at one point on the first diffraction element. at least two coherent light sources (21a, 21b, 21c); and a diffraction part for diffracting light which is emitted from at least one of the coherent light sources (21a, 21b, 21c) so that the respective lights emitted from the at least two coherent light sources (21a, 21b, 21c) propagate through a same optical path, wherein said diffraction part comprises a first diffraction element and a second diffraction element, wherein the second diffraction element is adapted to receive the respective lights from the light sources (21a, 21b, 21c), to diffract at least one of the received lights; and the first diffraction element is adapted to diffract the lights emitted from the light sources (21a, 21b, 21c) and diffracted by the second diffraction element so that the lights diffracted by the second diffraction element propagate through the same optical path, characterized in that the second diffraction element is adapted to diffract the at least one of the received lights so that the light axes of the lights from the respective coherent light sources (21a, 21b, 21c) intersect at one point on the first diffraction element.
A diagnostic method for performing diagnostics in a system adapted to receive modular components comprising: a) graphically displaying a hierarchical representation of system components and modular add-on components; b) detecting the modular components coupled to the system; c) dynamically requesting and receiving the electrical control topology and fault status of each coupled modular component; and d) dynamically integrating the electrical control topology and fault status of each coupled modular component into the display of a). a) graphically displaying a hierarchical representation of system components and modular add-on components; b) detecting the modular components coupled to the system; c) dynamically requesting and receiving the electrical control topology and fault status of each coupled modular component; and d) dynamically integrating the electrical control topology and fault status of each coupled modular component into the display of a).
Electrical switching device for medium or high voltage circuits, having at least a nominal contact arrangement, wherein the nominal contact arrangement comprises a) at least a first nominal contact comprising a plurality of contact fingers forming a finger cage concentric with respect to a longitudinal axis (z), and b) at least a mating second nominal contact, wherein at least one of the nominal contacts (3c, 3b) is movable parallel to the longitudinal axis (z) and cooperates with the other nominal contact (3b, 3c) for closing and opening said electric switching device, wherein at least a first contact finger is formed in such a way that it has electrical and mechanical contact with the second nominal contact in at least a first contacting area and a second contacting area of the first contact finger when the electric switching device is closed, wherein the first and the second contacting area (6, 7) are separated from one another by a third area, wherein the third area is not in mechanical contact with the second nominal contact, either characterized in that the first contact finger has at least a first and a second subfinger (11a, 11b), wherein the first contacting area is formed on the first subfinger and the second contacting area is formed on the second subfinger, or characterized in that the first contact finger has an arcuate section between the first and the second contacting area (6, 7), wherein the arcuate section has a current path which is longer than a direct distance between the first and the second contacting area (6, 7). a) at least a first nominal contact comprising a plurality of contact fingers forming a finger cage concentric with respect to a longitudinal axis (z), and b) at least a mating second nominal contact,
A correlation optical time-domain reflectometer, C-OTDR, configured to utilize at least two interleaved correlation codes ( c i) transmitted in the same sequence to produce noise cancellation of spurious reflected signals that may occur during optical channel measurements; wherein the C-OTDR comprises a first transmitter with a first wavelength (λ 1) having a first signal comprising a first code and a second transmitter with a second wavelength (λ 2), different from the first wavelength, having a second signal comprising a second code, wherein the second code is a negative version of the first code; and wherein the C-OTDR further comprises an optical coupler configured to combine the first signal and second signal, and a functional element configured to transmit the combined first signal and second signal to a test optical channel. wherein the C-OTDR comprises a first transmitter with a first wavelength (λ 1) having a first signal comprising a first code and a second transmitter with a second wavelength (λ 2), different from the first wavelength, having a second signal comprising a second code, wherein the second code is a negative version of the first code; and wherein the C-OTDR further comprises an optical coupler configured to combine the first signal and second signal, and a functional element configured to transmit the combined first signal and second signal to a test optical channel.
A method of transferring information on a station using a mesh access point in a wireless mesh network, the method comprising: (a) using a proactive routing protocol by nodes, except stations, in the wireless mesh network to form a tree structure from nodes in the wireless mesh network; (b) using the proactive routing protocol, designating a mesh portal as a root node of the formed tree structure, a mesh portal being a node connecting said wireless mesh network to an external network; (c) recognising, by a mesh access point, association or disassociation of the station from the mesh access point; (d) generating by said mesh access point a disassociation message indicating that the station is disassociated from said mesh access point, if a disassociation of the station is detected; and generating by said mesh access point an association message indicating that the station belongs to said mesh access point, if an association of another station is detected; (e) requesting, by the mesh access point, the mesh portal to insert the disassociation or association message into a root announcement message regularly broadcasted by the mesh portal to the wireless mesh network, wherein the root announcement message is a packet used to maintain the tree structure for the mesh portal designated as the root node of the tree structure. (a) using a proactive routing protocol by nodes, except stations, in the wireless mesh network to form a tree structure from nodes in the wireless mesh network; (b) using the proactive routing protocol, designating a mesh portal as a root node of the formed tree structure, a mesh portal being a node connecting said wireless mesh network to an external network; (c) recognising, by a mesh access point, association or disassociation of the station from the mesh access point; (d) generating by said mesh access point a disassociation message indicating that the station is disassociated from said mesh access point, if a disassociation of the station is detected; and generating by said mesh access point an association message indicating that the station belongs to said mesh access point, if an association of another station is detected; (e) requesting, by the mesh access point, the mesh portal to insert the disassociation or association message into a root announcement message regularly broadcasted by the mesh portal to the wireless mesh network, wherein the root announcement message is a packet used to maintain the tree structure for the mesh portal designated as the root node of the tree structure.
Hand-held electrically driven hand blender (100, 200), comprising: an electrical motor (104, 204) for driving the hand blender; a control unit (103, 203) for controlling the motor; a first operating element (101, 201) for outputting to the control unit (103, 203) a first control signal; and a measuring device (102, 202) for measuring the rotational speed of the motor (104, 204), characterised in that the control unit (103, 203) is configured to determine a motor actuating signal to be output to the motor (104, 204) based on the first control signal received from the first operating element (101, 201) and the rotational speed of the motor (104, 204) measured by the measuring device (102, 202), and the first operating element (101, 201) is configured such that the first control signal output by same is dependent on an operating travel of the first operating element. an electrical motor (104, 204) for driving the hand blender; a control unit (103, 203) for controlling the motor; a first operating element (101, 201) for outputting to the control unit (103, 203) a first control signal; and a measuring device (102, 202) for measuring the rotational speed of the motor (104, 204), characterised in that the control unit (103, 203) is configured to determine a motor actuating signal to be output to the motor (104, 204) based on the first control signal received from the first operating element (101, 201) and the rotational speed of the motor (104, 204) measured by the measuring device (102, 202), and the first operating element (101, 201) is configured such that the first control signal output by same is dependent on an operating travel of the first operating element.
A system for measuring injection processes in an internal combustion engine, comprising a tank holding fuel, a storage container holding compressed fuel, at least one injection valve arranged at the storage container, a fuel line in which a fuel conveying pump and a high-pressure fuel pump for conveying the fuel into the storage container are arranged, a pressure sensor with which the pressure in the storage container is determinable, and means for detecting the control data of the injection valves, characterized by a processor connected to a device, arranged in the fuel line, for measuring temporally resolved volumetric flow processes and to the pressure sensor via data transmission lines for the calculation of a rate-of-discharge curve by superposing the storage container flows calculated from the pressure developments measured by the pressure sensor at the storage container with the measured values of the device for measuring temporally resolved volumetric flow processes in the fuel line.
A chain guide comprising: a guide base configured to be arranged to extend along a portion of an outer periphery of a timing chain, the guide base being elongated in a direction in which the timing chain is moved; a plurality of roller shafts mounted in the guide base so as to be spaced from each other in a longitudinal direction of the guide base; and a plurality of chain guiding rollers rotatably supported on the respective roller shafts, each of the rollers comprising a roller bearing including an outer race and a plurality of roller elements received in the outer race, characterized in that: the rollers are movable in a roller axial direction relative to both the timing chain and the roller shafts, each of the roller bearings comprises a needle roller bearing, with the roller elements comprising needle roller elements, each of the needle roller bearings further includes a retainer retaining the needle roller elements, the outer race of each of the needle roller bearings is a shell type outer race formed by drawing a metal plate and subjected to heat treatment, the shell type outer races have cylindrical surfaces on outer peripheries thereof, and the timing chain is guided by the cylindrical surfaces while being kept in rolling contact with the cylindrical surfaces. a guide base configured to be arranged to extend along a portion of an outer periphery of a timing chain, the guide base being elongated in a direction in which the timing chain is moved; a plurality of roller shafts mounted in the guide base so as to be spaced from each other in a longitudinal direction of the guide base; and a plurality of chain guiding rollers rotatably supported on the respective roller shafts, each of the rollers comprising a roller bearing including an outer race and a plurality of roller elements received in the outer race, the rollers are movable in a roller axial direction relative to both the timing chain and the roller shafts, each of the roller bearings comprises a needle roller bearing, with the roller elements comprising needle roller elements, each of the needle roller bearings further includes a retainer retaining the needle roller elements, the outer race of each of the needle roller bearings is a shell type outer race formed by drawing a metal plate and subjected to heat treatment, the shell type outer races have cylindrical surfaces on outer peripheries thereof, and the timing chain is guided by the cylindrical surfaces while being kept in rolling contact with the cylindrical surfaces.
A carbonylation process for producing acetic acid comprising: (a) carbonylating methanol or its reactive derivatives in the presence of water, a catalyst selected from rhodium catalysts, iridium catalysts and mixtures thereof, and a methyl iodide promoter to form an acetic acid reaction mixture in a reactor; (b) separating the stream of the acetic acid reaction mixture into at least a first liquid recycle stream and a crude process stream; (c) feeding the crude process stream to a light ends column; (d) distilling the crude process stream to remove low boiling components and generate a purified process stream and, optionally, a second liquid recycle stream, wherein steps (a), (b), (c) and (d) are controlled such that the purified process stream has a catalyst metal content of less than 100 ppb by weight; and (e) treating the purified process stream having a catalyst metal content of less than 100 ppb by weight, with a polymer comprising nitrogen-containing heterocyclic repeat units operative to sequester, on the polymer, catalyst metal present in the purified process stream. (a) carbonylating methanol or its reactive derivatives in the presence of water, a catalyst selected from rhodium catalysts, iridium catalysts and mixtures thereof, and a methyl iodide promoter to form an acetic acid reaction mixture in a reactor; (b) separating the stream of the acetic acid reaction mixture into at least a first liquid recycle stream and a crude process stream; (c) feeding the crude process stream to a light ends column; (d) distilling the crude process stream to remove low boiling components and generate a purified process stream and, optionally, a second liquid recycle stream, (e) treating the purified process stream having a catalyst metal content of less than 100 ppb by weight, with a polymer comprising nitrogen-containing heterocyclic repeat units operative to sequester, on the polymer, catalyst metal present in the purified process stream.
An apparatus for the shaping of plastics material pre-forms into plastics material containers with a transport device which transports the plastics material pre-forms along a pre-set conveying path, wherein the conveying device has a movable station carrier which is arranged at least indirectly on a stationary base carrier and on which are arranged a plurality of shaping stations, wherein these shaping stations have in each case blow moulding devices which form cavities in each case inside which the plastics material pre-forms are capable of being shaped to form the plastics material containers and these blow moulding devices are arranged in each case on blow mould carriers, wherein the apparatus has a changing device which is suitable for and intended for removing at least the blow moulding devices from the blow mould carriers thereof and/or arranging blow moulding devices on the blow mould carriers, wherein this changing device has a gripping device for gripping the blow moulding device, wherein this gripping device is movable in at least two different directions and is pivotable about at least three different pivot axes (A1, A2... A6) and the change device is suitable for optionally changing a complete blow moulding device or only parts (14a, 14b, 14c) of the blow moulding device, characterized in that the gripping device has an engagement means (62, 63) in order to grip, in particular to engage behind, at least one projection arranged on the blow-moulding device, in particular a cam, into which the gripping device can move, wherein the projection being set up and provided for centring the gripping device with respect to the shaping station.