mhurhangee/ep-ind-claims huggingface dataset:
An access door assembly configured to seal an interior of an aircraft fuel tank from areas external to the fuel tank, the access door assembly comprising: (a) a ring, configured to be bonded to the interior of the fuel tank, and a door; (b) a radial seal that extends substantially around a circumference of the access door assembly and through a groove of the ring or the door; (c) a shoulder located between the door and the ring such that at least a portion of a top surface of the door abuts a lower surface of the ring so as to absorb stresses acting on the access door assembly from the interior of the aircraft fuel tank; and (d) at least one retaining strip configured to absorb stresses acting on the access door assembly from the area external to the aircraft fuel tank; characterised in that: the door and the ring are assembled to form a channel (34, 36) that is configured to permit the at least one retaining strip to be pushed along the channel (34, 36) to seal the access door assembly and whereby removing the at least one retaining strip from the channel (34, 36) disengages the door from the ring. (a) a ring, configured to be bonded to the interior of the fuel tank, and a door; (b) a radial seal that extends substantially around a circumference of the access door assembly and through a groove of the ring or the door; (c) a shoulder located between the door and the ring such that at least a portion of a top surface of the door abuts a lower surface of the ring so as to absorb stresses acting on the access door assembly from the interior of the aircraft fuel tank; and (d) at least one retaining strip configured to absorb stresses acting on the access door assembly from the area external to the aircraft fuel tank;
A method for generating a three-dimensional structure in a polymeric matrix, wherein the three-dimensional structure comprises hollow channel structures, the method comprising the following steps performed in the sequence as indicated: a) providing a first polymerizable fluid in a receptacle; b) introducing a second non-polymerizable fluid by using a controllable application system at at least one selected site within the first fluid, wherein the first fluid and the second fluid are not miscible with one another, whereby the three-dimensional structure is set up; c) polymerizing the first fluid, whereby the polymeric matrix is obtained in which the three-dimensional structure has been introduced, and d) at least partially removing the second fluid from the three-dimensional structure generated, wherein the first fluid has a first specific density and the second fluid has a second specific density, wherein the first specific density and the second specific density differ from one another at most by 20%. a) providing a first polymerizable fluid in a receptacle; b) introducing a second non-polymerizable fluid by using a controllable application system at at least one selected site within the first fluid, wherein the first fluid and the second fluid are not miscible with one another, whereby the three-dimensional structure is set up; c) polymerizing the first fluid, whereby the polymeric matrix is obtained in which the three-dimensional structure has been introduced, and d) at least partially removing the second fluid from the three-dimensional structure generated,
A variable inter symbol interference generator for adding a user-specified amount of inter symbol interference to a data signal comprising: a data signal generator that produces a data signal; fixed filter means including a plurality of fixed filters and a selection circuit configured to select one of the plurality of fixed filters, or a combination of the plurality of fixed filters, in order to provide a fixed insertion loss; a programmable filter, coupled with the data signal generator and the fixed filter means in a series configuration, configured to provide insertion loss or gain; and a processor configured to: receive an indication of a desired amount of inter symbol interference; program the selection circuit so that the fixed filter provides the fixed insertion loss as a portion of the desired amount of inter symbol interference; and program the programmable filter to provide a residual amount of the desired amount of inter symbol interference so that the combination of the fixed filter means and the programmable filter produce an output signal, from the data signal, that includes the desired amount of inter symbol interference. a data signal generator that produces a data signal; fixed filter means including a plurality of fixed filters and a selection circuit configured to select one of the plurality of fixed filters, or a combination of the plurality of fixed filters, in order to provide a fixed insertion loss; a programmable filter, coupled with the data signal generator and the fixed filter means in a series configuration, configured to provide insertion loss or gain; and a processor configured to: receive an indication of a desired amount of inter symbol interference; program the selection circuit so that the fixed filter provides the fixed insertion loss as a portion of the desired amount of inter symbol interference; and program the programmable filter to provide a residual amount of the desired amount of inter symbol interference so that the combination of the fixed filter means and the programmable filter produce an output signal, from the data signal, that includes the desired amount of inter symbol interference. receive an indication of a desired amount of inter symbol interference; program the selection circuit so that the fixed filter provides the fixed insertion loss as a portion of the desired amount of inter symbol interference; and program the programmable filter to provide a residual amount of the desired amount of inter symbol interference so that the combination of the fixed filter means and the programmable filter produce an output signal, from the data signal, that includes the desired amount of inter symbol interference.
A soybean plant or a soybean seed comprising a recombinant DNA construct comprising at least one heterologous polynucleotide encoding a polypeptide selected from the group consisting of: an Ovule Development Protein 1 polypeptide which comprises an amino acid sequence with at least 80% identity to SEQ ID NO: 30 or SEQ ID NO: 70, a Leafy Cotyledon 1 polypeptide and a FUSCA3 polypeptide, wherein the at least one polynucleotide is operably linked to a soybean sucrose synthase promoter or a Medicago truncatula sucrose synthase promoter, wherein expression of said polypeptide in the transgenic soybean seed comprising the recombinant DNA construct results in an increased oil content in the transgenic soybean seed, when compared to a control soybean seed not comprising the recombinant DNA construct.
A multi-plate clutch, in particular a dry multi-plate clutch for a hybrid drivetrain, having at least one outer plate suspended on the outside in the radial direction and displaceable in the axial direction and at least one inner plate suspended on the inside in the radial direction and displaceable in the axial direction, wherein the outer plate is suspended on the rotor pot in a torque-transmitting manner via a plurality of leaf springs distributed around the outer circumference and/or the inner plate is suspended on a driver ring via a plurality of leaf springs distributed around the inner circumference in a torque-transmitting manner, characterised in that at least two of the leaf springs are integrally formed with a lining carrier of an internally or externally suspended lining plate, in that both ends of each leaf spring, which are spaced apart from one another in the circumferential direction, merge into the lining carrier.
An in-vitro process for predicting and/or detecting fibrinolytic insufficiency associated to pathologies with NETs (Neutrophil Extracellular Traps) with/without disseminated intravascular coagulation from a first biological sample comprising measuring the concentration of Plasminogen and at least one fragment thereof.
A radio communication system comprising: a first radio station configured to operate a first cell; a second radio station configured to operate a second cell; a radio terminal configured to support simultaneous usage of the first cell operated by the first radio station and the second cell operated by the second radio station; and a mobility management node configured to communicate with the first radio station, characterized in that the first radio station is configured to send, to the mobility management node, a request to setup a bearer for the radio terminal, wherein the bearer is a bearer that passes through the second radio station and a data transferring apparatus located in a core network; and the mobility management node is configured to send to the first radio station, in response to the request to setup the bearer, a setup instruction to setup the bearer, wherein the setup instruction to setup the bearer includes an E-UTRAN Radio Access Bearer Identity, E-RAB ID, of the bearer and a GPRS Tunneling Protocol, GTP, Tunnel Endpoint ID on the second radio station, and wherein the first radio station is configured to: instruct the second radio station to set up the bearer, receive, from the second radio station, a bearer setup completion notification; and send a completion notification of setup of the bearer to the mobility management node. a first radio station configured to operate a first cell; a second radio station configured to operate a second cell; a radio terminal configured to support simultaneous usage of the first cell operated by the first radio station and the second cell operated by the second radio station; and a mobility management node configured to communicate with the first radio station, characterized in that the first radio station is configured to send, to the mobility management node, a request to setup a bearer for the radio terminal, wherein the bearer is a bearer that passes through the second radio station and a data transferring apparatus located in a core network; and the mobility management node is configured to send to the first radio station, in response to the request to setup the bearer, a setup instruction to setup the bearer, wherein the setup instruction to setup the bearer includes an E-UTRAN Radio Access Bearer Identity, E-RAB ID, of the bearer and a GPRS Tunneling Protocol, GTP, Tunnel Endpoint ID on the second radio station, and wherein the first radio station is configured to: instruct the second radio station to set up the bearer, receive, from the second radio station, a bearer setup completion notification; and send a completion notification of setup of the bearer to the mobility management node. instruct the second radio station to set up the bearer, receive, from the second radio station, a bearer setup completion notification; and send a completion notification of setup of the bearer to the mobility management node.
An image pickup apparatus comprising: an image pickup unit configured to have a plurality of image pickup modes including an interval mode for performing image pickup each time when a first time period elapses upon start of the interval mode; a position acquisition unit (110, 111) configured to acquire position information indicative of a position of the image pickup apparatus each time when a second time period elapses upon the second time period being set; and a setting unit configured to set the second time period according to a user's operation, wherein in a case where said image pickup unit is set to the interval mode, said setting unit is configured to change the second time period from a time period set according to a user's operation to a time period determined based on the first time period and a time period required for executing acquisition of the position information, by subtracting the time period required for executing acquisition of the position information from the first time period, so that the acquisition of the position information is completed immediately before each image pickup which is performed each time when the first time period elapses during the interval mode, and wherein the position information acquired immediately before the each image pickup is individually associated with image data acquired by the each image pickup which is performed each time the first time period elapses during the interval mode. an image pickup unit configured to have a plurality of image pickup modes including an interval mode for performing image pickup each time when a first time period elapses upon start of the interval mode; a position acquisition unit (110, 111) configured to acquire position information indicative of a position of the image pickup apparatus each time when a second time period elapses upon the second time period being set; and a setting unit configured to set the second time period according to a user's operation, wherein in a case where said image pickup unit is set to the interval mode, said setting unit is configured to change the second time period from a time period set according to a user's operation to a time period determined based on the first time period and a time period required for executing acquisition of the position information, by subtracting the time period required for executing acquisition of the position information from the first time period, so that the acquisition of the position information is completed immediately before each image pickup which is performed each time when the first time period elapses during the interval mode, and wherein the position information acquired immediately before the each image pickup is individually associated with image data acquired by the each image pickup which is performed each time the first time period elapses during the interval mode.
Method for calculating the surfaces (12, 13) of optical lenses, characterized by a) specifying a desired light distribution which can be generated by light passing through the calculated lens, b) deforming a first surface of the lens with the aim to create light source images of different sizes in the light distribution, c) deforming a second surface of the lens which is disposed opposite of the first surface with the aim of shifting all light source images so that they are disposed with their highest point immediately at or on a light-dark boundary of a resulting light distribution which is achieved by the lens having the deformed surfaces (12, 13), d) determining a quality of the resulting light distribution by comparison with the specified light distribution, e) if the quality exceeds a predeterminable limit value, storing the calculated surfaces (12, 13) for the lens and terminating the procedure, f) otherwise deforming the first surface again with the aim of achieving a greater or lesser bundling of the light source images in the light distribution, g) deforming again the second surface with the aim to shift all light source images in such a way that they are disposed with their respective highest point at or on the light-dark boundary of the resulting light distribution, h) repeating steps (f) and (g) until the quality of the resulting light distribution exceeds the limit value, and i) storing the calculated surfaces (12, 13) for the lens and terminating the procedure. a) specifying a desired light distribution which can be generated by light passing through the calculated lens, b) deforming a first surface of the lens with the aim to create light source images of different sizes in the light distribution, c) deforming a second surface of the lens which is disposed opposite of the first surface with the aim of shifting all light source images so that they are disposed with their highest point immediately at or on a light-dark boundary of a resulting light distribution which is achieved by the lens having the deformed surfaces (12, 13), d) determining a quality of the resulting light distribution by comparison with the specified light distribution, e) if the quality exceeds a predeterminable limit value, storing the calculated surfaces (12, 13) for the lens and terminating the procedure, f) otherwise deforming the first surface again with the aim of achieving a greater or lesser bundling of the light source images in the light distribution, g) deforming again the second surface with the aim to shift all light source images in such a way that they are disposed with their respective highest point at or on the light-dark boundary of the resulting light distribution, h) repeating steps (f) and (g) until the quality of the resulting light distribution exceeds the limit value, and i) storing the calculated surfaces (12, 13) for the lens and terminating the procedure.
A hot-melt adhesive composition comprising (a) from 40 to 65% by weight of at least one thermoplastic, silane group-containing poly-α-olefin that is solid at 25°C, (b) at least one thermoplastic poly-α-olefin without silane groups that is solid at 25°C and (c) at least one resin that is tackifying at 25°C and has a melting or softening point as determined by the ring & bell method of from 60 to 100°C, wherein the product of the content of component (a), with respect to the total weight of the hot-melt adhesive composition, and the degree of grafting thereof is ≤ 0.025, wherein the degree of grafting is defined as follows: degree of grafting = amount of graft/amount of grafting substrate. (a) from 40 to 65% by weight of at least one thermoplastic, silane group-containing poly-α-olefin that is solid at 25°C, (b) at least one thermoplastic poly-α-olefin without silane groups that is solid at 25°C and (c) at least one resin that is tackifying at 25°C and has a melting or softening point as determined by the ring & bell method of from 60 to 100°C,
An isolated T cell receptor having antigenic specificity for a mutated epitope presented in the context of an HLA-A11 molecule, the mutated epitope consisting of VVVGAVGVGK (SEQ ID NO: 33) or VVGAVGVGK (SEQ ID NO: 35), wherein the TCR comprises an α chain CDR 1 comprising the amino acid sequence of SEQ ID NO: 125, an α chain CDR2 comprising the amino acid sequence of SEQ ID NO: 126, an α chain CDR3 comprising the amino acid sequence of SEQ ID NO: 127, a β chain CDR1 comprising the amino acid sequence of SEQ ID NO: 128, a β chain CDR2 comprising the amino acid sequence of SEQ ID NO: 129, and a β chain CDR3 comprising the amino acid sequence of SEQ ID NO: 130.
A process for the separation of a water-soluble poly(alkylene oxide) polymer of interest from other water-soluble poly(alkylene oxide) polymers, initially present as one component of a mixture, wherein the polymer of interest contains a different number of reactive terminal groups than the other water-soluble polymers in the mixture, said process comprising: reacting the initial mixture of polymers with a derivatizing molecule selected from 1,2,4-benzene tricarboxylic acid anhydride, 1,2,4,5-benzene tetracarboxylic acid dianhydride, 1,2,3,4-cyclobutane tetracarboxylic acid dianhydride, or 2,2',3,3'-dicarboxybenzophenone dianhydride to form a reacted polymer mixture, said derivatizing molecule comprising (i) 2 or 3 ionizable groups and a group available for covalent bonding with the reactive terminal groups; or (ii) 3 or 4 ionizable groups, at least one of the ionizable groups being available for covalent bonding with the reactive terminal groups; and subjecting the reacted polymer mixture to ion exchange to separate the derivatized polymers.
An access aggregation system, comprising: an access aggregation point, AAP, device, configured to terminate a main access channel and a plurality of secondary access channels towards a communication network, wherein the AAP device is configured to terminate the main access channel; and a bonding client, configured to bond a plurality of access links of at least one user device for data packet transport between the bonding client and the AAP device, wherein the bonding client is configured to use the main access channel and to select whether to use any from the secondary access channels for the data packet transport to the AAP device, characterized in that the bonding client is configured to establish the main access channel between the bonding client and the AAP device that is not based on a tunnel between the bonding client and the AAP device before establishing the plurality of secondary access channels between the bonding client and the AAP device that are based on a tunnel or based on no tunnel between the bonding client and the AAP device based on a decision if secondary channels are necessary. an access aggregation point, AAP, device, configured to terminate a main access channel and a plurality of secondary access channels towards a communication network, wherein the AAP device is configured to terminate the main access channel; and a bonding client, configured to bond a plurality of access links of at least one user device for data packet transport between the bonding client and the AAP device, wherein the bonding client is configured to use the main access channel and to select whether to use any from the secondary access channels for the data packet transport to the AAP device, characterized in that the bonding client is configured to establish the main access channel between the bonding client and the AAP device that is not based on a tunnel between the bonding client and the AAP device before establishing the plurality of secondary access channels between the bonding client and the AAP device that are based on a tunnel or based on no tunnel between the bonding client and the AAP device based on a decision if secondary channels are necessary.