mhurhangee/ep-ind-claims huggingface dataset:
A functionalized ceramic body comprising: a calcium aluminate containing phase that is functionalized with a linker group comprising an organic acid molecule for providing a reactive location for the attachment of another chemical moiety or a biologically active moiety to the ceramic body, wherein said organic acid molecule has a formula of (CO 2 H) a C n H 2n/2n-2 X d, wherein X is selected from the group of CH 3, COOH, N, N-dicyclohexylcarbodiimide -coupled COOH, OH, NH 2, a phosphate moiety and Br, wherein a is a number from 1 to 3, wherein n is a number from 12 to 18, and wherein d is a number from 1 to 3, said reactive location being subsequently reacted with said other chemical moiety or said biologically active moiety to attach said other chemical moiety or said biologically active moiety to said functionalized calcium aluminate containing phase. a calcium aluminate containing phase that is functionalized with a linker group comprising an organic acid molecule for providing a reactive location for the attachment of another chemical moiety or a biologically active moiety to the ceramic body, wherein said organic acid molecule has a formula of (CO 2 H) a C n H 2n/2n-2 X d, wherein X is selected from the group of CH 3, COOH, N, N-dicyclohexylcarbodiimide -coupled COOH, OH, NH 2, a phosphate moiety and Br, wherein a is a number from 1 to 3, wherein n is a number from 12 to 18, and wherein d is a number from 1 to 3, said reactive location being subsequently reacted with said other chemical moiety or said biologically active moiety to attach said other chemical moiety or said biologically active moiety to said functionalized calcium aluminate containing phase.
Mobile network subscriber for use in a cabled network, wherein the cabled network has at least one first segment and at least one second segment in each case, wherein the mobile network subscriber has a first slave modem, a second slave modem, a first contact arrangement and a second contact arrangement in each case, wherein the slave modems (SM1, SM2) are provided for communicating with at least one first master modem and/or at least one second master modem via the contact arrangements (K1, K2) and the segments (S1, S2), wherein the first master modem supplies the first segment and the second master modem supplies the second segment, wherein the mobile network subscriber is provided for movement along the segments (S1, S2), characterised in that the contact arrangements (K1, K2) of the mobile network subscriber are arranged such that the change from the first segment to the second segment involves at least one of the contact arrangements (K1, K2) being connected to the first segment and at least one further contact arrangement (K1, K2) being connected to the second segment.
Device for changing the direction of travel of a rail-bound vehicle comprising a feed rail section, a removal rail section (103, 104) and a connecting rail section, which is movable by a movement comprising at least one rotational movement about an axis of rotational movement from a first position (p1, p2), in which the connecting rail section is so arranged in relation to the feed rail section that the rail-bound vehicle can drive onto the connecting rail section, into a second position (p3, p4), in which the connecting rail section is so arranged in relation to the removal rail section (103, 104) that the vehicle can drive onto the removal rail section (103,104), the connecting rail section being movable in such a way that the movement of the connecting rail section from the first position (p1, p2) into the second position (p3, p4) further comprises at least one translational movement of the connecting rail section superimposed on the rotational movement in a direction parallel to the axis of rotational movement, characterised in that the connecting rail section is guided on a guide rail, so that the course of the guide rail represents an enforced curve of the movement.
Process for purification of a hydrocarbon feedstock comprising olefins and at least one impurity comprising at least one heteoratom, in which a stage for bringing the feedstock into contact with an adsorbent comprising between 93% by weight and 99.8% by weight of zeolite and between 0.2 and 7% by weight of binder is carried out after the step c) of zeolithization, said binder being chosen among clay, palygorskite-type minerals, and smectite-type clay minerals, with the zeolite being of the 12 MR type, in which said zeolite contains silicon and an element T selected from the group that consists of aluminum, boron, gallium and iron, and in which the Si/T atomic ratio of the zeolite is less than 20, said ratio Si/T being determined before zeolithisation, said adsorbent being obtained by carrying out the following stages: a) A zeolite is synthesized, b) The zeolite is mixed with a binder, and the mixture is shaped in the form of grains, with the mixture comprising between 10% and 50% by weight of binder, c) A zeolithization of grains obtained in stage b) is carried out. a) A zeolite is synthesized, b) The zeolite is mixed with a binder, and the mixture is shaped in the form of grains, with the mixture comprising between 10% and 50% by weight of binder, c) A zeolithization of grains obtained in stage b) is carried out.
An access method by a base station, comprising: sending a first message to an access point through a first communication interface, for requesting the access point to establish a second bearer with a user equipment, UE, the second bearer being based on a second communication interface, wherein the first message carries an identifier of the UE and an identifier of an E-UTRAN Radio Access Bearer, E-RAB; receiving a response message from the access point, for responding to the first message, wherein the response message carries an ID of the second bearer; and establishing a first bearer with the access point, the first bearer being based on the first communication interface, wherein the first bearer and the second bearer correspond to the E-RAB and data is transmitted through the first bearer and the second bearer. sending a first message to an access point through a first communication interface, for requesting the access point to establish a second bearer with a user equipment, UE, the second bearer being based on a second communication interface, wherein the first message carries an identifier of the UE and an identifier of an E-UTRAN Radio Access Bearer, E-RAB; receiving a response message from the access point, for responding to the first message, wherein the response message carries an ID of the second bearer; and establishing a first bearer with the access point, the first bearer being based on the first communication interface, wherein the first bearer and the second bearer correspond to the E-RAB and data is transmitted through the first bearer and the second bearer.
An imaging phantom for diffusion-weighted magnetic resonance imaging, comprising: a first reference member disposed within a housing, the first reference member having a rod-like shape extending parallel to a long axis of the housing, the first reference member formed from a material comprising a plurality of microchannels arranged longitudinally along at least a portion of the first reference member, and wherein a diameter of the housing varies along the long axis of the housing to emulate a shape of a human torso, wherein a fill material is disposed within the housing and around the first reference member, the fill material providing various densities throughout the housing., the fill material including multiple types of fill materials, with each fill material type in a respective section and separated by a partition, wherein the first reference member runs through all of the partitions.
An unmanned aerial vehicle, comprising: a flight control unit (400, 500, 600) configured to control operation of the UAV (260a-c), wherein the flight control unit (400, 500, 600) comprises an identification module (410, 510, 610) and a chip (620, 630), wherein the identification module (410, 510, 610) is configured to uniquely identify the UAV (260a-c) from other UAVs, characterized in that the identification module (410, 510, 610) is further configured to comprise an initial record of the chip (620, 630), and gather information about the chip (620, 630) subsequent to comprising the initial record of the chip (620, 630), wherein the identification module (410, 510, 610) is configured to undergo a self-examination procedure that compares the gathered information about the chip (620, 630) with the initial record of the chip (620, 630), wherein the identification module (410, 510, 610) is configured to provide an alert when the gathered information about the chip (620, 630) is inconsistent with the initial record of the chip (620, 630), wherein the record is not removable from the identification module (410, 510, 610) without damaging the identification module (410, 510, 610), and wherein the identification module (410, 510, 610) is inseparable from the flight control unit (400, 500, 600). a flight control unit (400, 500, 600) configured to control operation of the UAV (260a-c), wherein the flight control unit (400, 500, 600) comprises an identification module (410, 510, 610) and a chip (620, 630), wherein the identification module (410, 510, 610) is configured to uniquely identify the UAV (260a-c) from other UAVs, characterized in that the identification module (410, 510, 610) is further configured to comprise an initial record of the chip (620, 630), and gather information about the chip (620, 630) subsequent to comprising the initial record of the chip (620, 630), wherein the identification module (410, 510, 610) is configured to undergo a self-examination procedure that compares the gathered information about the chip (620, 630) with the initial record of the chip (620, 630), wherein the identification module (410, 510, 610) is configured to provide an alert when the gathered information about the chip (620, 630) is inconsistent with the initial record of the chip (620, 630), wherein the record is not removable from the identification module (410, 510, 610) without damaging the identification module (410, 510, 610), and wherein the identification module (410, 510, 610) is inseparable from the flight control unit (400, 500, 600).
Holding device for a central mould part that is rotatable about a vertical axis in an injection moulding machine, having a disc plate that is rotatable about a rotation axis and is driven by a motor, said disc plate serving for mounting the rotatable central mould part, having a lower traversing unit which by way of first mounting blocks and guide rails is supported on a machine bed of the injection moulding machine and is mounted so as to be displaceable in the longitudinal direction (x), characterized in that second mounting blocks are present by means of which the lower traversing unit in the circumferential direction is supported in relation to a lower pair of beams of the injection moulding machine, wherein the second mounting blocks are disposed in pairs so as to be apart by a mutual spacing (a) on a beam.
A human anti-human EGFR antibody, wherein the light chain variable region thereof comprises the amino acid sequence of SEQ ID NO 20 and the heavy chain variable region thereof comprises the amino acid sequence of SEQ ID NO 21, or an antibody having amino acid replacement(s) in the light chain variable region thereof containing the amino acid sequence of SEQ ID NO 20, and/or in the heavy chain variable region thereof containing the amino acid sequence of SEQ ID NO 21, as follows: the amino acid of position 26 of SEQ ID NO. 20 is replaced with Gly and the amino acid of position 89 of SEQ ID NO. 20 is replaced with Ser, the amino acid of position 26 of SEQ ID NO. 20 is replaced with Lys and the amino acid of position 89 of SEQ ID NO. 20 is replaced with Ser, the amino acid of position 26 of SEQ ID NO. 20 is replaced with Gly, and the amino acid of position 89 of SEQ ID NO. 20 is replaced with Ala, the amino acid of position 26 of SEQ ID NO. 20 is replaced with Lys and the amino acid of position 89 of SEQ ID NO. 20 is replaced with Ala, the amino acid of position 26 of SEQ ID NO. 20 is replaced with Lys, the amino acid of position 89 of SEQ ID NO. 20 is replaced with Ser, and the amino acid of position 107 of SEQ ID NO. 21 is replaced with Ser, the amino acid of position 89 of SEQ ID NO. 20 is replaced with Ala, or the amino acid of position 26 of SEQ ID NO. 20 is replaced with Lys, the amino acid of position 89 of SEQ ID NO. 20 is replaced with Ala, and the amino acid of position 107 of SEQ ID NO. 21 is replaced with Ser. the amino acid of position 26 of SEQ ID NO. 20 is replaced with Gly and the amino acid of position 89 of SEQ ID NO. 20 is replaced with Ser, the amino acid of position 26 of SEQ ID NO. 20 is replaced with Lys and the amino acid of position 89 of SEQ ID NO. 20 is replaced with Ser, the amino acid of position 26 of SEQ ID NO. 20 is replaced with Gly, and the amino acid of position 89 of SEQ ID NO. 20 is replaced with Ala, the amino acid of position 26 of SEQ ID NO. 20 is replaced with Lys and the amino acid of position 89 of SEQ ID NO. 20 is replaced with Ala, the amino acid of position 26 of SEQ ID NO. 20 is replaced with Lys, the amino acid of position 89 of SEQ ID NO. 20 is replaced with Ser, and the amino acid of position 107 of SEQ ID NO. 21 is replaced with Ser, the amino acid of position 89 of SEQ ID NO. 20 is replaced with Ala, or the amino acid of position 26 of SEQ ID NO. 20 is replaced with Lys, the amino acid of position 89 of SEQ ID NO. 20 is replaced with Ala, and the amino acid of position 107 of SEQ ID NO. 21 is replaced with Ser.
Railway apparatus for managing, on a track rail mounted so as to pass between two juxtaposed elements (3a, 3b) of an engineering structure which is potentially separated by a gap, the relative movement of said two elements (3a, 3b), the railway apparatus comprising: - the track rail, - at least one stiffener arranged to be substantially parallel to the track rail along a portion of the track rail, which crosses the gap of the engineering structure, the stiffener having a length which is greater than the length of maximum displacement relative to the two elements (3a, 3b) of the engineering structure, characterised in that - at a first element of the engineering structure, the track rail is mounted to slide axially, directly or indirectly, relative to at least one sleeper by means of a fixing mechanism which holds the track rail at its foot at least on the sleeper to be secured against transverse movement and uplift, - at least one reinforcement forming the connection between the stiffener and the track rail, - the stiffener associated with the reinforcement is mounted indirectly on at least the sleeper by connecting onto one side of the web of the track rail. - the track rail, - at least one stiffener arranged to be substantially parallel to the track rail along a portion of the track rail, which crosses the gap of the engineering structure, the stiffener having a length which is greater than the length of maximum displacement relative to the two elements (3a, 3b) of the engineering structure, characterised in that - at a first element of the engineering structure, the track rail is mounted to slide axially, directly or indirectly, relative to at least one sleeper by means of a fixing mechanism which holds the track rail at its foot at least on the sleeper to be secured against transverse movement and uplift, - at least one reinforcement forming the connection between the stiffener and the track rail, - the stiffener associated with the reinforcement is mounted indirectly on at least the sleeper by connecting onto one side of the web of the track rail.
Coating composition to inhibit adhesion of organisms to underwater structures, the coating composition comprising: a composite gel fine powder prepared by gelling a raw material composition that consists of polyvinyl alcohol and silica gel. a composite gel fine powder prepared by gelling a raw material composition that consists of polyvinyl alcohol and silica gel.
A method of constructing an integrated radio frequency, RF, circuit structure, comprising: fabricating an active device having a gate, a body and source and drain regions, supported by a first surface of an isolation layer and disposed on a sacrificial substrate; fabricating front-side metallization in a front-side dielectric layer on the active device; bonding a handle substrate to the front-side dielectric layer on the active device; removing the sacrificial substrate; fabricating backside metallization on a second surface opposite the first surface of the isolation layer, the backside metallization coupled to the front-side metallization with a via, and arranged distal from the front-side metallization; tying the via, the front-side metallization, and the backside metallization to a gate of the active device, and the via, the front-side metallization, and the backside metallization form a multi-sided shield which at least partially encloses the active device and which biases the body of the active device. fabricating an active device having a gate, a body and source and drain regions, supported by a first surface of an isolation layer and disposed on a sacrificial substrate; fabricating front-side metallization in a front-side dielectric layer on the active device; bonding a handle substrate to the front-side dielectric layer on the active device; removing the sacrificial substrate; fabricating backside metallization on a second surface opposite the first surface of the isolation layer, the backside metallization coupled to the front-side metallization with a via, and arranged distal from the front-side metallization; tying the via, the front-side metallization, and the backside metallization to a gate of the active device, and the via, the front-side metallization, and the backside metallization form a multi-sided shield which at least partially encloses the active device and which biases the body of the active device.
A method of determining if an individual's cancer cell is sensitive to death receptor ligand -induced cell death, the method comprising detecting, in a biological sample taken from the individual, for: (i) the presence of a mutant BAP1 gene or mutant BAP1 protein; (ii) a reduced level of expression of a wild-type BAP1 gene or a lower wild-type BAP1 protein concentration compared to the level of expression or protein concentration in a reference cell that is a BAP1 wild-type cell, which is resistant to DRL-induced cell death; or (iii) reduced or non-binding of an ASXL protein to a wild-type BAP1 protein compared to the level of binding in a reference cell that is a BAP1 wild-type cell, which is resistant to DRL-induced cell death; wherein the presence, in the sample, of the mutant BAP1 gene or the mutant BAP1 protein, or of a reduced level expression of the wild-type BAP1 gene or a lower protein concentration, or reduced or non-binding of an ASXL protein to a wild-type BAP1 protein, is indicative of the individual's cancer cell being sensitive to DRL-induced cell death. (i) the presence of a mutant BAP1 gene or mutant BAP1 protein; (ii) a reduced level of expression of a wild-type BAP1 gene or a lower wild-type BAP1 protein concentration compared to the level of expression or protein concentration in a reference cell that is a BAP1 wild-type cell, which is resistant to DRL-induced cell death; or (iii) reduced or non-binding of an ASXL protein to a wild-type BAP1 protein compared to the level of binding in a reference cell that is a BAP1 wild-type cell, which is resistant to DRL-induced cell death;
Multilayer body having a first region which is transparent to the human eye, having a plurality of touchfields arranged in the first region, having a transparent carrier substrate at least in the first region and having a first layer at least in the first region, said first layer being transparent to the human eye, partial, electrically conductive and having electrically conductive transmission regions, receiving regions and connection regions (43, 431 - 435) in the first region which are each formed from a pattern of electrically conductive, non-transparent paths, wherein the conductive paths consist of a material and are applied at a material thickness at which the first electrically conductive layer appears to be non-transparent to the human viewer in full-surface formation by means of these materials and wherein the width of the paths in the first region is selected in such a way that the electrically conductive transmission regions, receiving regions and connection regions (43, 431 - 435) in the first region are transparent to the human eye, wherein one of the electrically conductive transmission regions and one of the electrically conductive receiving regions are formed in the region of each touch field in the first layer, which are arranged to be galvanically isolated from one another on both sides of one of these isolating columns, wherein n transmission regions of different touch fields in the first layer are electrically connected to one another and to a contact region formed outside the first region in the first layer via one of the electrically conductive connection regions formed in the first layer and m receiving regions of different touch fields in the first layer are connected electrically to one another and to a contact region formed outside the first region in the first layer via one of the electrically conductive connection regions (43, 431 - 435) formed in the first layer, wherein n ≥ 2 and m ≥ 2, wherein the touch fields, according to a 2-dimensional matrix, are arranged with two or more columns and with two or more rows, wherein for the touch fields of a first group of touch fields, the transmission region is always arranged left of the receiving region, and for touch fields of a second group of touch fields, the transmission region is always arranged right of the receiving region, wherein alternating touch fields of the first group and of the second group are arranged next to one another in each row of the matrix, such that two transmission regions or two receiving regions lie opposite one another on the border between two touch fields in the same row, and wherein alternating touch fields of the first group and of the second group are arranged next to one another in a first section of the matrix in the direction of the rows as well as in the direction of the columns, such that two transmission regions and two receiving regions alternately lie opposite one another on the border between two touch fields in the same row, wherein the matrix has two or more rows and two or more columns in the first section.