mhurhangee/ep-ind-claims huggingface dataset:
A process for forming a metal composite comprising particles of a carbon allotrope dispersed in a metal or a mixture of metals, the process comprising the steps of: (a) contacting particles of a carbon allotrope with a surfactant in a solvent, the surfactant comprising an organic portion and an anionic portion wherein the anionic portion is bonded to the organic portion and wherein the anionic portion is ionically associated with a cation so that the organic portion of the surfactant is adsorbed onto the surface of the particles of the carbon allotrope to produce surfactant modified particles dispersed in the solvent; (a-i) removing solvent; (b) contacting the surfactant modified particles with a transition metal cation and/or a post-transition metal cation and/or mixtures thereof to replace some or all of the cations of the surfactant modified particles with a transition metal cation and/or a post-transition metal cation and/or mixtures thereof to produce metal ion modified particles, wherein the transition metal cation and/or post-transition metal cation and/or mixtures thereof are selected from the group consisting of Cr, Ce, V, U, Th, Nb, Si, Mo, Fe, Ta, Ti, Zr, W, Hf, Co, and Mn; (c) mixing the metal ion modified particles with a metal or a mixture of metals to form a mixture thereof; and (d) processing the mixture to form a metal composite comprising particles of the carbon allotrope dispersed in the metal or mixture of metals. (a) contacting particles of a carbon allotrope with a surfactant in a solvent, the surfactant comprising an organic portion and an anionic portion wherein the anionic portion is bonded to the organic portion and wherein the anionic portion is ionically associated with a cation so that the organic portion of the surfactant is adsorbed onto the surface of the particles of the carbon allotrope to produce surfactant modified particles dispersed in the solvent; (a-i) removing solvent; (b) contacting the surfactant modified particles with a transition metal cation and/or a post-transition metal cation and/or mixtures thereof to replace some or all of the cations of the surfactant modified particles with a transition metal cation and/or a post-transition metal cation and/or mixtures thereof to produce metal ion modified particles, wherein the transition metal cation and/or post-transition metal cation and/or mixtures thereof are selected from the group consisting of Cr, Ce, V, U, Th, Nb, Si, Mo, Fe, Ta, Ti, Zr, W, Hf, Co, and Mn; (c) mixing the metal ion modified particles with a metal or a mixture of metals to form a mixture thereof; and (d) processing the mixture to form a metal composite comprising particles of the carbon allotrope dispersed in the metal or mixture of metals.
Vehicle seat, in particular for a motor vehicle, with a seat part, with an adjustment device (3, 3') for setting the height and/or the inclination of the seat part relative to a seat rail and with a fastening point for a seat belt movable with the seat part relative to the seat rail, wherein, in an accident situation, the fastening point is locked in position with the seat rail and/or with a vehicle bodywork by means of a restraint device for at least partial load absorption by the restraint device wherein, in a normal usage situation, the restraint device can be varied in its length between a first fixed seat part linkage point and a second seat rail-fixed or bodywork-fixed second linkage point depending on the setting of the adjustment device (3, 3'), characterised in that the effective direction of a force acting on the fastening point in an accident situation has an angle to the attachment direction of the linkage points (D1, D2) which is in the range from 10° to 170°, preferably in the range from 20° to 160 s, particularly preferably in the range from 30° to 150°, and quite particularly preferably in the range from 40° to 140°.
A method for the detection, transmission and analysis of at least one safety-related signal (S1-Sn), the at least one safety-related signal (S1-Sn) being detected with at least one detection unit (EE1-EEn) and sent over a data link to at least one analysis unit (AE1-AE4) and at least two safety-related signals (S1, S2) being mutually independently detected by spatially separate, mobile detection units (EE1-EEn) and sent over the data link to the analysis unit (AE1-AE4) to enable a machine, characterised in that the at least two detection units (EE1, EE2, EE3) each have an enabling switch, activation of which is necessary to initiate a dangerous movement of the enabled machine, in that states, in the form of conductive or non-conductive, of contacts (S1, SB, K1A, K1B; K2A, K2B) of the enabling switches are detected in at least dual-channel manner and transmitted by the detection units (EE1, EE2, EE3) cyclically to the analysis unit (AE1-AE4) by means of a radio system and received by at least one transceiver, in that a time response of the signal transmission is predetermined by the analysis unit (AE1-AE4), wherein the detection units (EE1-EEn) are interrogated one after the other using a unique identifier of the analysis unit (AE1-AE4) as to whether they are responding within a predetermined time window and in that the safety-related signals (S1-Sn) received by the at least one transceiver within the respective time window are logically ANDed in at least a dual-channel manner by means of a logic unit in the analysis unit (AE1, AE2, AE3), such that only on simultaneous activation of the at least two enabling switches is an output signal generated to enable the dangerous movement of the machine.
A production method of a columnar cork, which comprises the following steps: - kneading cork granules and binder resin to make a kneaded mixture; - placing on a molding base four divided mold dies with divided mold die faces (31 a-34a), the shape of each of which seen from the top is quarter arc of the same curvature radius, which is formed at one end of the inner face of each divided mold die under such conditions, wherein, in such an arrangement, the four divided mold dies form a square molding cavity the corners of which have a quarter curvature radius; - charging the mixture into the molding cavity; and - sliding a pair of slide blocks (41, 41), provided on their opposite faces with V-shaped notch portions forming 90° respectively, on the molding base so as to come close to each other, thereby acting upon the four divided mold dies to narrow down the molding cavity; and - compressing and molding the mixture to form a columnar molded body, and heating and solidifying the compressed and molded mixture. - kneading cork granules and binder resin to make a kneaded mixture; - placing on a molding base four divided mold dies with divided mold die faces (31 a-34a), the shape of each of which seen from the top is quarter arc of the same curvature radius, which is formed at one end of the inner face of each divided mold die under such conditions, wherein, in such an arrangement, the four divided mold dies form a square molding cavity the corners of which have a quarter curvature radius; - charging the mixture into the molding cavity; and - sliding a pair of slide blocks (41, 41), provided on their opposite faces with V-shaped notch portions forming 90° respectively, on the molding base so as to come close to each other, thereby acting upon the four divided mold dies to narrow down the molding cavity; and - compressing and molding the mixture to form a columnar molded body, and heating and solidifying the compressed and molded mixture.
A method of making an expansion anchor comprising the steps of: providing a metal rod having a thread along at least part of its outer surface; cutting the metal rod to obtain a required length of metal rod; welding an expansion section to an end of the obtained length of metal rod; and providing an expansion sleeve which in use interacts with the expansion section for increasing the expansion sleeve diameter; wherein the expansion section is integral with a neck section having a smaller diameter than the major diameter of the threaded rod and the step of welding involves welding an end of the neck section to the threaded rod.
An apparatus, comprising: a receiver configured to receive at least one media file; a memory configured to store the at least one media file; and a processor configured to retrieve the at least one media file from the memory during a play time operation and execute the at least one media file, transmit said media file to a network abstraction layer, NAL, unit unwrapper configured to parse the media file for identifiers of predefined gaps in said media file, receive additional portions of the at least one media file during the play time operation based on said identifiers, and wherein the processor is further configured to process the at least one media file and the additional portions of the at least one media file to generate an output media, and display the output media on a display. a receiver configured to receive at least one media file; a memory configured to store the at least one media file; and a processor configured to retrieve the at least one media file from the memory during a play time operation and execute the at least one media file, transmit said media file to a network abstraction layer, NAL, unit unwrapper configured to parse the media file for identifiers of predefined gaps in said media file, receive additional portions of the at least one media file during the play time operation based on said identifiers, and wherein the processor is further configured to process the at least one media file and the additional portions of the at least one media file to generate an output media, and display the output media on a display.
Multifunctional test device for an armament of an armaments carrier which comprises a weapons system, the armament having at least one weapon carrier device, attachable to the armaments carrier, for at least one missile (80, 82, 84, 86), characterised in that the test device is provided with - a first stimulation and testing component for the weapons system of the armaments carrier, the first stimulation and testing component having a first test interface which is connectable to a weapons system interface of the armaments carrier; - a second stimulation and testing component for the weapon carrier device, the second stimulation and testing component having a second test interface which is connectable to an armaments carrier interface of the weapon carrier device; - a third stimulation and testing component for the weapon carrier device, the third stimulation and testing component having at least one third test interface (40, 42) which is connectable to a missile interface of the weapon carrier device, and - a fourth stimulation and testing component for the at least one missile (80, 82, 84, 86), the fourth stimulation and testing component having at least one fourth testing interface which is connectable to a weapon carrier interface of the at least one missile (80, 82, 84, 86). - a first stimulation and testing component for the weapons system of the armaments carrier, the first stimulation and testing component having a first test interface which is connectable to a weapons system interface of the armaments carrier; - a second stimulation and testing component for the weapon carrier device, the second stimulation and testing component having a second test interface which is connectable to an armaments carrier interface of the weapon carrier device; - a third stimulation and testing component for the weapon carrier device, the third stimulation and testing component having at least one third test interface (40, 42) which is connectable to a missile interface of the weapon carrier device, and - a fourth stimulation and testing component for the at least one missile (80, 82, 84, 86), the fourth stimulation and testing component having at least one fourth testing interface which is connectable to a weapon carrier interface of the at least one missile (80, 82, 84, 86).
A method for transmitting data, the method comprising: encapsulating one or multiple media access control protocol data units, MPDUs as a group media access control protocol data unit, G-MPDU, on the basis of the length of the group media access control protocol data unit G-MPDU; when the residual length is insufficient to encapsulate the current MPDU, determining whether the residual length is larger than a preset minimum fragmentation length, wherein the residual length is the length of the G-MPDU minus the length of any MPDUs and the fragmented MPDUs already encapsulated in the G-MPDU; if the residual length is larger, fragmenting the current MPDU according to said residual length to obtain the fragmented MPDU; encapsulating said fragmented MPDU to said G-MPDU; setting a delimiter before said MPDU; setting a fragmentation number for said fragmented MPDU; setting a fragmentation indication information for said fragmented MPDU; said fragmentation indication information is used to indicate that there is fragmentation of the current MPDU afterward; transmitting the G-MPDU. encapsulating one or multiple media access control protocol data units, MPDUs as a group media access control protocol data unit, G-MPDU, on the basis of the length of the group media access control protocol data unit G-MPDU; when the residual length is insufficient to encapsulate the current MPDU, determining whether the residual length is larger than a preset minimum fragmentation length, wherein the residual length is the length of the G-MPDU minus the length of any MPDUs and the fragmented MPDUs already encapsulated in the G-MPDU; determining whether the residual length is larger than a preset minimum fragmentation length, wherein the residual length is the length of the G-MPDU minus the length of any MPDUs and the fragmented MPDUs already encapsulated in the G-MPDU; if the residual length is larger, fragmenting the current MPDU according to said residual length to obtain the fragmented MPDU; encapsulating said fragmented MPDU to said G-MPDU; setting a delimiter before said MPDU; setting a fragmentation number for said fragmented MPDU; setting a fragmentation indication information for said fragmented MPDU; said fragmentation indication information is used to indicate that there is fragmentation of the current MPDU afterward; fragmenting the current MPDU according to said residual length to obtain the fragmented MPDU; encapsulating said fragmented MPDU to said G-MPDU; setting a delimiter before said MPDU; setting a fragmentation number for said fragmented MPDU; setting a fragmentation indication information for said fragmented MPDU; said fragmentation indication information is used to indicate that there is fragmentation of the current MPDU afterward; transmitting the G-MPDU.
A transporter apparatus comprising: a chassis mounted upon at least two drive units, the drive units being arranged in parallel and defining a space therebetween; a motor providing drive to at least one drive unit; and a lifting mechanism adapted to receive a load and move the load between the ground and a lifted position, the lifting mechanism comprising: first and second guide bars, each guide bar having a first end attached to a drive unit and a second end attached to the chassis; characterised in that it comprises: If first and second lifting carriages, each lifting carriage slidingly mounted on a respective guide bar and adapted to receive a portion of the load; and first and second hydraulic rams, each ram having a first end attached to the chassis and a second end attached to a respective lifting carriage. a chassis mounted upon at least two drive units, the drive units being arranged in parallel and defining a space therebetween; a motor providing drive to at least one drive unit; and a lifting mechanism adapted to receive a load and move the load between the ground and a lifted position, the lifting mechanism comprising: first and second guide bars, each guide bar having a first end attached to a drive unit and a second end attached to the chassis; characterised in that it comprises: If first and second lifting carriages, each lifting carriage slidingly mounted on a respective guide bar and adapted to receive a portion of the load; and first and second hydraulic rams, each ram having a first end attached to the chassis and a second end attached to a respective lifting carriage. first and second guide bars, each guide bar having a first end attached to a drive unit and a second end attached to the chassis; characterised in that it comprises: If first and second lifting carriages, each lifting carriage slidingly mounted on a respective guide bar and adapted to receive a portion of the load; and first and second hydraulic rams, each ram having a first end attached to the chassis and a second end attached to a respective lifting carriage.
A method for creating access to a wireless communication device which is enabled to operate in a Body Area Network, BAN, comprising the steps of: detecting the presence of a user's body by using a BAN enabled access module comprised in said wireless communication device; collecting a biometric data of said user by using a scanner comprised in said BAN enabled access module; receiving authentication data by using said BAN enabled access module through BAN from a BAN enabled peripheral device; and allowing access to said wireless communication device if said collected biometric data and said received authentication data are valid. detecting the presence of a user's body by using a BAN enabled access module comprised in said wireless communication device; collecting a biometric data of said user by using a scanner comprised in said BAN enabled access module; receiving authentication data by using said BAN enabled access module through BAN from a BAN enabled peripheral device; and allowing access to said wireless communication device if said collected biometric data and said received authentication data are valid.
A therapeutically effective amount of a DEK aptamer selected from the group consisting of SEQ ID NO: 1, SEQ ID NO: 2 or SEQ ID NO: 6, and a pharmaceutically acceptable carrier, for use in a method of treating, ameliorating, or preventing recurrence of an inflammatory condition in a patient.
A mobile terminal, comprising a first camera module and a second camera module adjacent to the first camera module, wherein the first camera module comprises a first image sensor, and the second camera module comprises a second image sensor; a first pixel array corresponding to the first image sensor comprises a preset quantity of first pixel units arranged in a first predetermined manner, and the first pixel unit comprises a first pixel and a second pixel adjacent to the first pixel in location; a second pixel array corresponding to the second image sensor comprises a preset quantity of second pixel units arranged in a second predetermined manner, and the second pixel unit comprises the first pixel; and the first pixel comprises a red subpixel, a green subpixel, and a blue subpixel, the second pixel comprises the green subpixel and an infrared subpixel, and at least one of the red subpixel and the blue subpixel, both the first pixel and the second pixel are full-pixel dual-core focus pixels, and each of the first pixel and the second pixel comprises four full-pixel dual-core focus subpixels. a first pixel array corresponding to the first image sensor comprises a preset quantity of first pixel units arranged in a first predetermined manner, and the first pixel unit comprises a first pixel and a second pixel adjacent to the first pixel in location; a second pixel array corresponding to the second image sensor comprises a preset quantity of second pixel units arranged in a second predetermined manner, and the second pixel unit comprises the first pixel; and the first pixel comprises a red subpixel, a green subpixel, and a blue subpixel, the second pixel comprises the green subpixel and an infrared subpixel, and at least one of the red subpixel and the blue subpixel, both the first pixel and the second pixel are full-pixel dual-core focus pixels, and each of the first pixel and the second pixel comprises four full-pixel dual-core focus subpixels.
Valve arrangement for the metering of a gaseous fuel in internal combustion engines with numerous electromagnetically operable switching valves of an individual cross section (A n), wherein the individual cross section (A n) of a switching valve exhibits a maximum possible cross section of the valve when it is completely open, wherein the switching valves are implemented as seat valves, the valve arrangement can be disposed in a combustion chamber and the valve arrangement has a standard cross section (A nenn) for providing a specified flow rate, characterized in that the seat valves are designed such that - the sum of the individual cross sections (A n) is larger than the standard cross section (A nenn), - an effective cross section (A eff), which represents the sum of the enabled cross sections of all valves of the valve arrangement at a hub, is equivalent to the standard cross section (A nenn), wherein the valve hub (h) of the valves is smaller than a maximum valve hub when fully opened, and - the effective cross section (A eff) is smaller than the sum of the individual cross sections (A n). - the sum of the individual cross sections (A n) is larger than the standard cross section (A nenn), - an effective cross section (A eff), which represents the sum of the enabled cross sections of all valves of the valve arrangement at a hub, is equivalent to the standard cross section (A nenn), wherein the valve hub (h) of the valves is smaller than a maximum valve hub when fully opened, and - the effective cross section (A eff) is smaller than the sum of the individual cross sections (A n).
A method for separating and categorizing at least one substrate (02; 03) by means of a substrate categorizing machine, wherein a substrate in the form of a material web is transported along a provided transport path in a web supplying operation to a cross-cutting apparatus of the substrate categorizing machine and wherein the material web is separated into a plurality of sheets, in that in a respective separating operation respective sheets are separated from the material web and wherein the respective sheets are inspected in at least one respective inspection operation by means of at least one inspection device (14; 16; 17; 18) of the substrate categorizing machine arranged along the transport path provided for the transport of the substrate (02; 03) downstream of the cross-cutting apparatus in each case respective to at least one property, which the substrate (02; 03) had prior to the respective separating operation and wherein in a respective assigning operation on the basis of the result of the inspection performed in the respective at least one inspection operation the sheets are respectively assigned to one of at least three categories and wherein each of the sheets in a respective delivery operation are respectively deposited on a delivery stack (06; 07; 08) respectively corresponding to its category.