mhurhangee/ep-ind-claims huggingface dataset:
An impact absorption structure for a vehicle in which right and left crush cans (4, 5) are respectively attached to vehicle front end portions of front side frames (2, 3) disposed on both right and left sides of the vehicle and extending in a vehicle front and rear direction, and a bumper beam is attached to vehicle front end portions of the right and left crush cans (4, 5) to extend in a vehicle width direction, wherein each of the crush cans (4, 5) includes an extrusion molding member having an upper wall part and a lower wall part extending in a vehicle right and left direction while being separated from each other in a vertical direction, a left wall part extending in the vertical direction to connect vehicle left end portions of the upper wall part and the lower wall part to each other, and a right wall part extending in the vertical direction to connect vehicle right end portions of the upper wall part and the lower wall part to each other, the crush can (4, 5) is provided therein with an upper horizontal wall part and a lower horizontal wall part extending from the right wall part to the left wall part and spaced apart from each other in the vertical direction, an upper vertical wall part extending from the upper wall part to the upper horizontal wall part in the vertical direction, and a lower vertical wall part extending from the lower wall part to the lower horizontal wall part in the vertical direction, the front side frame (2, 3) is provided at the front end portion thereof with an upper plate part and a lower plate part extending in the vehicle right and left direction while being separated from each other in the vertical direction, a left plate part extending in the vertical direction to connect vehicle left end portions of the upper plate part and the lower plate part to each other, and a right plate part extending in the vertical direction to connect vehicle right end portions of the upper plate part and the lower plate part to each other, when viewed from the vehicle front and rear direction, the vehicle front end portions of the upper plate part, the lower plate part, the left plate part, and the right plate part of the front side frame (2, 3) and vehicle rear end portions of the upper wall part, the lower wall part, the left wall part, and the right wall part of the crush can (4, 5) are disposed to overlap each other, and vertical intermediate portions of the left plate part and the right plate part of the front side frame (2, 3) are provided with recessed linear portions (23a, 24a) recessed toward an inner side of the front side frame (2, 3) and extending in the vehicle front and rear direction, and the recessed linear portions (23a, 24a) are disposed at an approximately the same height as the upper horizontal wall part and the lower horizontal wall part of the crush can (4, 5).
A neutron porosity tool having an electronic neutron generator arrangement, said neutron generator arrangement comprising: at least one vacuum tube (203, 304, 403, 404, 604, 605); at least one ion target; two high-voltage generators (204, 305, 306, 405, 607); at least two neutron detectors (201, 202, 301, 302. 303, 602. 603); at least one pulser circuit (205, 406, 407, 609, 610); and at least one control circuit; wherein a control mechanism of the neutron porosity tool provides voltage and pulses to the electronic neutron tube (203, 304, 403, 404, 604, 605) so that the output of two neutron reaction planes from collocated target planes in a wellbore environment is provided; wherein the arrangement comprises two high voltage generators (204, 305, 306, 405, 607) that provide two differing ion accelerating voltages; characterized in that said neutron generator further comprises: at least one radio-frequency cavity; wherein the vacuum tube (203, 304, 403, 404, 604, 605) is shielded in all but one direction and is manipulated such that it rotates around a tool major axis, such that azimuthal porosity information are determined through directional bias of the vacuum tube (203, 304, 403, 404, 604, 605) and detectors (201, 202, 301, 302. 303, 602. 603) using neutron moderating or shielding materials, wherein the arrangement is configured to generate deuterium-deuterium and deuterium-tritium reactions within the same reactants plane. at least one vacuum tube (203, 304, 403, 404, 604, 605); at least one ion target; two high-voltage generators (204, 305, 306, 405, 607); at least two neutron detectors (201, 202, 301, 302. 303, 602. 603); at least one pulser circuit (205, 406, 407, 609, 610); and at least one control circuit; wherein a control mechanism of the neutron porosity tool provides voltage and pulses to the electronic neutron tube (203, 304, 403, 404, 604, 605) so that the output of two neutron reaction planes from collocated target planes in a wellbore environment is provided; wherein the arrangement comprises two high voltage generators (204, 305, 306, 405, 607) that provide two differing ion accelerating voltages; characterized in that said neutron generator further comprises: at least one radio-frequency cavity; wherein the vacuum tube (203, 304, 403, 404, 604, 605) is shielded in all but one direction and is manipulated such that it rotates around a tool major axis, such that azimuthal porosity information are determined through directional bias of the vacuum tube (203, 304, 403, 404, 604, 605) and detectors (201, 202, 301, 302. 303, 602. 603) using neutron moderating or shielding materials, wherein the arrangement is configured to generate deuterium-deuterium and deuterium-tritium reactions within the same reactants plane.
Vehicle pneumatic tyre, in particular for use under winter driving conditions, having a directional tread which is divided into shoulder-side profile blocks and central profile blocks by diagonal grooves, which extend substantially in a V shape over the tread width and are the main grooves of the tread, and by circumferential grooves connecting mutually adjacent diagonal grooves to one another, the circumferential grooves extending at an angle of 3° to 15° to the circumferential direction and in the opposite direction, with respect to the circumferential direction, to the diagonal grooves extending in the V shape, characterized in that the circumferential grooves have groove sections (2a, 2b) extending parallel to one another and offset in the axial direction relative to one another, and a connecting section connecting the latter and short as compared with the groove sections (2a, 2b) that are offset axially relative to one another, wherein in each case the groove section opening into a diagonal groove at the outgoing profile block edges during forward travel is wider than the groove section opening into a diagonal groove at the ingoing profile block edges, wherein the narrow groove section is of such a width that when transverse forces of specific magnitude occur, mutual support of the profile blocks bordering the same is made possible by closing the groove section.
Boring device for producing a bore for a foundation pile for the foundation of a construction in a body of water, having a basic body which consists of at least one first and one second body (12, 13), which bodies are arranged one above the other and are movable toward one another, wherein the movement is provided via a feeding device, having a boring tool which is arranged on an arm which is movably connected to the lower body on the underside thereof, having a tensioning device which is designed for tensioning the boring device in the foundation pile, which is arranged with a first end on the upper body and which comprises at its second end a clamping element which functions as an abutment, wherein the tensioning device comprises an arm on which the clamping element is arranged, wherein the arm of the tensioning device is pivotable by means of a drive from a first position to a second position where the clamping element is situated in engagement with the wall of the foundation pile, characterized in that a guide device is provided which is designed to guide the boring device in the foundation pile, which is arranged with a first end on the lower body and which comprises a sliding element on its second end, in that the guide device comprises an arm on which the sliding element is arranged, wherein the arm of the guide device is pivotable by means of a drive from a first position to a second position where the sliding element is situated in engagement with the wall of the foundation pile.
A dryer comprising a body; a drum which is provided in the body and wherein the laundry to be dried is loaded; at least one baffle which is provided on the drum and which enables the laundry to be tumbled; at least one receptacle which is provided on the baffle and which is suitable for storing a fluid therein; and at least one opening which is arranged on the baffle and which enables the fluid in the receptacle to be delivered into the drum, characterized by at least one hollow channel which is provided on the baffle and at least one impact member which is placed into the channel and which slidably moves in the channel with the rotational movement of the drum.
A pivoting fastening mechanism for helmet face shield, applicable for the incorporation thereof on both sides of a helmet to fix the face shield thereto, comprising two portions able to be coupled with each other, a first portion, or fixed portion, which is incorporated into the surface of the helmet and a second portion, or pivoting portion, which is incorporated into the face shield enabling the movement of rotation thereof with respect to the helmet to open it and close it, characterised in that: - the fixed portion comprises a gap with retractable locking elements to receive and lock the pivoting portion; and - the pivoting portion comprises a protrusion that press fits into the gap of the fixed portion, being interlocked between the locking elements and a button associated with a spring which, when pressed, releases the locking elements to extract the face shield from the fixed portion. - the fixed portion comprises a gap with retractable locking elements to receive and lock the pivoting portion; and - the pivoting portion comprises a protrusion that press fits into the gap of the fixed portion, being interlocked between the locking elements and a button associated with a spring which, when pressed, releases the locking elements to extract the face shield from the fixed portion.
A cast film comprising a propylene ethylene random copolymer (R-PP), having (a) a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 from 5 to 15 g/10min, (b) an ethylene content from 1 to 10 wt.-%, based on the weight of the propylene ethylene random copolymer (R-PP), and (c) exhibiting two melting temperatures (T m) determined by differential scanning calorimetry according to ISO 11357-3 which differ from each other. (a) a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 from 5 to 15 g/10min, (b) an ethylene content from 1 to 10 wt.-%, based on the weight of the propylene ethylene random copolymer (R-PP), and (c) exhibiting two melting temperatures (T m) determined by differential scanning calorimetry according to ISO 11357-3 which differ from each other.
Pressure equalizing valve for a fuel tank or secondary fluid tank on a motor vehicle, comprising at least one valve housing, at least one valve body movably arranged in the valve housing, at least one venting opening on the tank side and on the connection side or on the atmosphere side, which form a venting path which may be opened or closed by the valve body depending on the position of the tank, when a predetermined transverse force is exceeded relative to a normal force which holds the valve body in a valve seat, the valve body being able to be lifted or deflected from the valve seat and thus opening the venting path and when falling below said transverse force automatically adopting again the position closing the venting path, characterised in that the valve body being arranged so that excess pressure on the tank side acts hydraulically on the valve body, such that said valve body is pressed into the valve seat wherein in the valve housing only one venting path is provided, which in the resting position and horizontal position of the vehicle and/or of the tank in the installed position is closed by the valve body.
A computer-implemented method performed by a network element for authentication, authorization, and accounting based on a username, the method comprising the steps of: receiving a first request at the network element from a client device for a source Internet Protocol IP address, the request including an identifier that is a Media Access Control MAC address; transmitting a second request to a RADIUS server to retrieve a context, wherein the request includes as the username a subscriber identifier automatically generated by the network element based on the identifier that is the Media Access Control MAC address; if the first request is an initial communication by the client device with the network element, redirecting the client device to a website to allow for a selection of a service from multiple services, wherein different contexts within the network element are associated with the different services, wherein the context for the selected service is entered into a subscriber record that is accessible according to the username and that is stored in the RADIUS server such that the network element can retrieve the context according to the username; receiving a response from the RADIUS server; dynamically assigning to the client device, from the context retrieved, an IP address that is not currently assigned from that context; establishing an active subscriber session for the client device based on the IP address; and causing an accounting update to reflect the active subscriber session. receiving a first request at the network element from a client device for a source Internet Protocol IP address, the request including an identifier that is a Media Access Control MAC address; transmitting a second request to a RADIUS server to retrieve a context, wherein the request includes as the username a subscriber identifier automatically generated by the network element based on the identifier that is the Media Access Control MAC address; if the first request is an initial communication by the client device with the network element, redirecting the client device to a website to allow for a selection of a service from multiple services, wherein different contexts within the network element are associated with the different services, wherein the context for the selected service is entered into a subscriber record that is accessible according to the username and that is stored in the RADIUS server such that the network element can retrieve the context according to the username; receiving a response from the RADIUS server; dynamically assigning to the client device, from the context retrieved, an IP address that is not currently assigned from that context; establishing an active subscriber session for the client device based on the IP address; and causing an accounting update to reflect the active subscriber session.
A device for producing three-dimensional models, comprising a coater with an ejection opening and at least one print head mounted on a print axis, wherein the coater moves upward over the construction field during a coating pass in the coating direction and in the lifting direction at an inclined angle with respect to the horizontal, with the ejection opening being disposed at the top in the coating direction and in the lifting direction and the print head being oriented in opposite alignment in the coating direction on the print axis disposed behind the coater opposite to the coating direction and in the lowering direction, characterised in that the print head and the coater are disposed on a common axis pair.
A method for manufacturing an illumination device, the method comprising: providing a substrate having a first side provided with a light source; providing an at least partially light transmitting cover sealingly coupled to the substrate such that an enclosed space is defined by at least the first side of the substrate and the cover; providing a through-hole into the enclosed space; introducing a luminescent material into the enclosed space via the through-hole such that a layer of luminescent material is provided on at least a portion of an inner surface of the cover; and sealing the through-hole after the introduction of the luminescent material, thereby sealing the enclosed space, characterized in that at least one region is not filled, and that prior to sealing the through-hole, any non-filled regions of the enclosed space are filled up with an inert gas or are provided with a negative pressure. providing a substrate having a first side provided with a light source; providing an at least partially light transmitting cover sealingly coupled to the substrate such that an enclosed space is defined by at least the first side of the substrate and the cover; providing a through-hole into the enclosed space; introducing a luminescent material into the enclosed space via the through-hole such that a layer of luminescent material is provided on at least a portion of an inner surface of the cover; and sealing the through-hole after the introduction of the luminescent material, thereby sealing the enclosed space, characterized in that at least one region is not filled, and that prior to sealing the through-hole, any non-filled regions of the enclosed space are filled up with an inert gas or are provided with a negative pressure.
A method of producing an automobile sound absorbing member through molding, the method comprising: (a) preparing a first fibrous layer and a second fibrous layer; (b) providing an adhesive member between the first fibrous layer and the second fibrous layer and placing an aggregate of the first fibrous layer, the adhesive member, and the second fibrous layer in a molding machine; and (c) pressing the aggregate with an upper mold and a lower mold of the molding machine so that the first fibrous layer and the second fibrous layer are bonded and molded at the same time, wherein in step (a), each of the first fibrous layer and the second fibrous layer comprises 50% to 95% by weight of at least one base fiber selected from polyethylene terephthalate, polypropylene, polyacrylate, nylon and cotton and 5% to 50% by weight of a binder fiber having a melting point of 200°C or below, the first fibrous layer has an areal density in a range of 600 to 1400 g/m 2, the second fibrous layer has an areal density in a range of 600 to 2000 g/m 2, and the second fibrous layer consists of a vertical fiber having a verticality of about 40° to 90°, wherein in step (c), the upper mold and the lower mold perform different processes, respectively, such that the lower mold performs a steaming process and a vacuuming process at least two times, and, in the steaming process, steam or hot air of 100°C to 200°C is supplied for 5 to 15 seconds at a pressure of 1 to 5 bar. (a) preparing a first fibrous layer and a second fibrous layer; (b) providing an adhesive member between the first fibrous layer and the second fibrous layer and placing an aggregate of the first fibrous layer, the adhesive member, and the second fibrous layer in a molding machine; and (c) pressing the aggregate with an upper mold and a lower mold of the molding machine so that the first fibrous layer and the second fibrous layer are bonded and molded at the same time, wherein in step (a), each of the first fibrous layer and the second fibrous layer comprises 50% to 95% by weight of at least one base fiber selected from polyethylene terephthalate, polypropylene, polyacrylate, nylon and cotton and 5% to 50% by weight of a binder fiber having a melting point of 200°C or below, the first fibrous layer has an areal density in a range of 600 to 1400 g/m 2, the second fibrous layer has an areal density in a range of 600 to 2000 g/m 2, and the second fibrous layer consists of a vertical fiber having a verticality of about 40° to 90°, wherein in step (c), the upper mold and the lower mold perform different processes, respectively, such that the lower mold performs a steaming process and a vacuuming process at least two times, and, in the steaming process, steam or hot air of 100°C to 200°C is supplied for 5 to 15 seconds at a pressure of 1 to 5 bar.
Device for shielding a power semiconductor that can be subjected to high voltage in a tank filled with an insulating fluid, wherein the device has the following features: - an electrode housing with electrically conductive electrode walls which encapsulate an electrode interior space configured to receive the power semiconductor from all sides in a limiting manner, wherein the electrode housing comprises multiple housing modules (7, 8), wherein each housing module is configured to receive a power semiconductor, and - a barrier arrangement that comprises at least one barrier made of a non-conductive material, wherein the barrier arrangement encloses the electrode housing from all sides, characterized in that the electrode walls are configured to be plate-shaped in sections, wherein their edges are rounded. - an electrode housing with electrically conductive electrode walls which encapsulate an electrode interior space configured to receive the power semiconductor from all sides in a limiting manner, wherein the electrode housing comprises multiple housing modules (7, 8), wherein each housing module is configured to receive a power semiconductor, and - a barrier arrangement that comprises at least one barrier made of a non-conductive material, wherein the barrier arrangement encloses the electrode housing from all sides,
A process for making polyamide comprising: a. at least partially polymerizing a first aqueous charge of polyamide precursor to form polyamide in a reactor; b. adding a polyetheramine to the reactor and further polymerizing the polyamide precursor and polyetheramine to form polyetheramine-containing polyamide in the reactor; c. recovering a first portion of the polyetheramine-containing polyamide from the reactor and retaining a second portion of the polyetheramine-containing polyamide within the reactor; d. loading the reactor with a second aqueous charge of polyamide precursor and at least partially polymerizing the second aqueous charge with the second portion of polyetheramine-containing polyamide within the reactor; e. heating the reactor at heat input rate Q1 to temperature range T1 and pressure range PI; f. reducing the heat input rate to Q2 and holding the reactor at temperature range T2 and pressure range P2 for a reaction time of 1 to 40 minutes; g. adding polyetheramine to the reactor; h. increasing the heat input rate to the reactor to Q3, where Q3 > Q2, and at least partially venting the reactor to control pressure at or below range P1 to form polyetheramine-containing polyamide within the reactor. a. at least partially polymerizing a first aqueous charge of polyamide precursor to form polyamide in a reactor; b. adding a polyetheramine to the reactor and further polymerizing the polyamide precursor and polyetheramine to form polyetheramine-containing polyamide in the reactor; c. recovering a first portion of the polyetheramine-containing polyamide from the reactor and retaining a second portion of the polyetheramine-containing polyamide within the reactor; d. loading the reactor with a second aqueous charge of polyamide precursor and at least partially polymerizing the second aqueous charge with the second portion of polyetheramine-containing polyamide within the reactor; e. heating the reactor at heat input rate Q1 to temperature range T1 and pressure range PI; f. reducing the heat input rate to Q2 and holding the reactor at temperature range T2 and pressure range P2 for a reaction time of 1 to 40 minutes; g. adding polyetheramine to the reactor; h. increasing the heat input rate to the reactor to Q3, where Q3 > Q2, and at least partially venting the reactor to control pressure at or below range P1 to form polyetheramine-containing polyamide within the reactor.