mhurhangee/ep-ind-claims huggingface dataset:
A luggage case having a first frame comprising: - a first integrally formed baseboard which substantially extends over a plane defined by a longitudinal direction (X-X) and an orthogonal direction (Z-Z), - first left and first right upper stiffening shoulders, each being integrally formed, - first connection means for connecting said baseboard to said first left and first right stiffening shoulders, characterized in that a second frame is designed to be jointed to said first frame, said second frame comprises: - a second integrally formed baseboard which substantially extends over said plane, - second left and second right upper stiffening shoulders, each being integrally formed, - second connection means for connecting said baseboard to said second left and second right stiffening shoulders. - a first integrally formed baseboard which substantially extends over a plane defined by a longitudinal direction (X-X) and an orthogonal direction (Z-Z), - first left and first right upper stiffening shoulders, each being integrally formed, - first connection means for connecting said baseboard to said first left and first right stiffening shoulders, characterized in that a second frame is designed to be jointed to said first frame, said second frame comprises: - a second integrally formed baseboard which substantially extends over said plane, - second left and second right upper stiffening shoulders, each being integrally formed, - second connection means for connecting said baseboard to said second left and second right stiffening shoulders. - a second integrally formed baseboard which substantially extends over said plane, - second left and second right upper stiffening shoulders, each being integrally formed, - second connection means for connecting said baseboard to said second left and second right stiffening shoulders.
Block polymer comprising a first block and a second block, which block polymer comprises ethylene units, UD units of cyclic structure of the formula and units of 1-4-butadiene structure or 1-2-butadiene structure, with the proviso that, if the first block polymer is a homopolymer chain of a 1,3-diene, the block polymer has at least one Tg of less than -50°C, preferably between - 100°C and -50°C, wherein the first block comprises more than 0 to 100 mol% of monomer units of a first 1,3-diene and from 0 to less than 100 mol% of monomer units of an aromatic α-monolefin of the formula CH 2 =CH-Ar, Ar representing a substituted or unsubstituted aromatic group, preferably phenyl or aryl, the first block is a homopolymer chain of the first 1,3-diene or a copolymer chain of the first 1,3-diene and the aromatic α-monolefin, the ethylene units, the units of 1-4-butadiene structure or 1-2-butadiene structure and the UD units are contained in the second block. with the proviso that, if the first block polymer is a homopolymer chain of a 1,3-diene, the block polymer has at least one Tg of less than -50°C, preferably between - 100°C and -50°C, wherein the first block comprises more than 0 to 100 mol% of monomer units of a first 1,3-diene and from 0 to less than 100 mol% of monomer units of an aromatic α-monolefin of the formula CH 2 =CH-Ar, Ar representing a substituted or unsubstituted aromatic group, preferably phenyl or aryl, the first block is a homopolymer chain of the first 1,3-diene or a copolymer chain of the first 1,3-diene and the aromatic α-monolefin, the ethylene units, the units of 1-4-butadiene structure or 1-2-butadiene structure and the UD units are contained in the second block.
A method of generating an energy pulse, comprising: providing a supercapacitor, comprising: first and second porous electrodes connectable to a power source and a resistive load; a first liquid electrolyte in contact with the first porous electrode; a second liquid electrolyte in contact with the second porous electrode; a separator disposed between the first and second electrolytes; applying a potential between the first and second porous electrodes; the method being characterized in that it comprises the steps of creating an explosion that compresses the electrodes and reduces the volume of each porous electrode and ejects electrolyte from the porous electrodes thus increasing the potential between the electrodes and increasing the energy stored in the supercapacitor; and subsequently discharging at least a portion of the energy stored in the supercapacitor. providing a supercapacitor, comprising: first and second porous electrodes connectable to a power source and a resistive load; a first liquid electrolyte in contact with the first porous electrode; a second liquid electrolyte in contact with the second porous electrode; a separator disposed between the first and second electrolytes; first and second porous electrodes connectable to a power source and a resistive load; a first liquid electrolyte in contact with the first porous electrode; a second liquid electrolyte in contact with the second porous electrode; a separator disposed between the first and second electrolytes; applying a potential between the first and second porous electrodes; the method being characterized in that it comprises the steps of creating an explosion that compresses the electrodes and reduces the volume of each porous electrode and ejects electrolyte from the porous electrodes thus increasing the potential between the electrodes and increasing the energy stored in the supercapacitor; and subsequently discharging at least a portion of the energy stored in the supercapacitor.
A structure used for a robot, comprising: a housing; a tilt coupled to the housing and arranged to be rotatable around a rotary axis relative to the housing, a cable arranged to extend along a side of the housing and pass through the tilt; a first clamp member provided on the tilt, arranged to hold a portion of the cable to pass through the tilt such that one end of the cable is rotatable with the tilt around the rotary axis; a second clamp member provided on the side of the housing and arranged to hold another end of the cable, wherein a length of the cable between the first clamp member and the second clamp member enables the tilt to rotate to two limit positions thereof; and a cable box mounted on the side of the housing, the cable box having an inlet and an outlet on one side thereof close to the tilt, wherein the cable enters the cable box from the inlet after being clamped by the second clamp member, then forms the first curved part in the cable box, then exits from the outlet, and is clamped by the first clamp member. a housing; a tilt coupled to the housing and arranged to be rotatable around a rotary axis relative to the housing, a cable arranged to extend along a side of the housing and pass through the tilt; a first clamp member provided on the tilt, arranged to hold a portion of the cable to pass through the tilt such that one end of the cable is rotatable with the tilt around the rotary axis; a second clamp member provided on the side of the housing and arranged to hold another end of the cable, wherein a length of the cable between the first clamp member and the second clamp member enables the tilt to rotate to two limit positions thereof; and a cable box mounted on the side of the housing, the cable box having an inlet and an outlet on one side thereof close to the tilt,
A method for tagging an asset, comprising: a) positioning the asset with respect to a laser system; b) modifying the asset with a laser beam to create a gentle modification "voxel" consisting of multi-photon absorption by a transparent material of the asset which is invisible at 10× optical magnification, wherein the laser is operated with a wavelength such that the photon energy is less than the bandgap energy of the transparent material of the asset to ensure nonlinear absorption; c) detection of the modification using an optical reading device consisting of a more than 10× magnification, asset holder, positioning system, CCD and software interfaced to a blockchain for tokenization. a) positioning the asset with respect to a laser system; b) modifying the asset with a laser beam to create a gentle modification "voxel" consisting of multi-photon absorption by a transparent material of the asset which is invisible at 10× optical magnification, wherein the laser is operated with a wavelength such that the photon energy is less than the bandgap energy of the transparent material of the asset to ensure nonlinear absorption; c) detection of the modification using an optical reading device consisting of a more than 10× magnification, asset holder, positioning system, CCD and software interfaced to a blockchain for tokenization.
A receiver comprising: a reception section operable to receive a broadcasting signal including AV content; a trigger acquisition section operable to acquire trigger information adapted to operate an application program to be executed in response to the received AV content, the application program being transmitted as Non-RealTime, NRT, content for NRT service using a File Delivery over Unidirectional Transport, FLUTE, session; a table acquisition section operable to acquire a correlation table, TPT, correlating the trigger information to commands adapted to control the operation of the application program; an application acquisition section operable to acquire, based on the acquired correlation table, TPT, the application program transmitted by the broadcasting signal when the command correlated to the trigger information indicates the acquisition of the application program; and a control section operable to control the operation of the acquired application program in accordance with the commands correlated to the trigger information, wherein the application acquisition section is further operable to refer to a File Delivery Table, FDT, pinpointed by a Service Map Table, SMT, and NRT Information Table, NRT-IT, based on source information indicating the source of the application program written in the correlation table so as to acquire the application program transmitted using a FLUTE session. a reception section operable to receive a broadcasting signal including AV content; a trigger acquisition section operable to acquire trigger information adapted to operate an application program to be executed in response to the received AV content, the application program being transmitted as Non-RealTime, NRT, content for NRT service using a File Delivery over Unidirectional Transport, FLUTE, session; a table acquisition section operable to acquire a correlation table, TPT, correlating the trigger information to commands adapted to control the operation of the application program; an application acquisition section operable to acquire, based on the acquired correlation table, TPT, the application program transmitted by the broadcasting signal when the command correlated to the trigger information indicates the acquisition of the application program; and a control section operable to control the operation of the acquired application program in accordance with the commands correlated to the trigger information, wherein the application acquisition section is further operable to refer to a File Delivery Table, FDT, pinpointed by a Service Map Table, SMT, and NRT Information Table, NRT-IT, based on source information indicating the source of the application program written in the correlation table so as to acquire the application program transmitted using a FLUTE session.
An access authentication method for use in a communication system, comprising: generating, by a context generation function entity, a user context and storing the generated user context in a context database matched with the context generation function entity; receiving, by a service access control function entity (20, 1), an access request message from a terminal, wherein the access request message contains identification information of a terminal user; and acquiring, by the service access control function entity, a user context from the context database according to the identification information, and performing access authentication on the terminal by adopting the user context, wherein after performing, by the service access control function entity (20,1), access authentication on the terminal by adopting the user context, the method further comprises: receiving, by the service access control function entity (20,1), a service request message from the terminal; and identifying, by the service access control function entity (20,1), the service request message, and selecting a service processing function entity (40,3) for the terminal according to the user context and capability information of the terminal, wherein the service processing function entity (40,3) serves for the terminal, characterized in that after selecting, by the service access control function entity (20,1), the service processing function entity (40,3) for the terminal, the method further comprises: receiving, by the service access control function entity (20,1), a service data message from the terminal, and inserting the user context into the service data message; and sending, by the service access control function entity (20,1), the service data message to the service processing function entity (40,3). generating, by a context generation function entity, a user context and storing the generated user context in a context database matched with the context generation function entity; receiving, by a service access control function entity (20, 1), an access request message from a terminal, wherein the access request message contains identification information of a terminal user; and acquiring, by the service access control function entity, a user context from the context database according to the identification information, and performing access authentication on the terminal by adopting the user context, receiving, by the service access control function entity (20,1), a service request message from the terminal; and identifying, by the service access control function entity (20,1), the service request message, and selecting a service processing function entity (40,3) for the terminal according to the user context and capability information of the terminal, wherein the service processing function entity (40,3) serves for the terminal, receiving, by the service access control function entity (20,1), a service data message from the terminal, and inserting the user context into the service data message; and sending, by the service access control function entity (20,1), the service data message to the service processing function entity (40,3).
A composition comprising one or more compounds represented by general formula (i) and one or more compounds represented by general formula (ii), wherein a content of the compounds represented by general formula (i) is 5% to 30% and a content of the compounds represented by general formula (ii) is 5% to 25%, the composition further comprising a compound represented by formula (2.2), a compound represented by formula (1.3), one or more compounds represented by general formula (VIII-1), and a compound represented by general formula but not comprising a compound having a carbonyl group: (In the formulae, R i1, R i2, and R ii1 each independently represent an alkyl group having 1 to 8 carbon atoms where one -CH 2 - or two or more non-adjacent -CH 2 - in the alkyl group may each independently be substituted with -CH=CH-, -C≡C-, or -O-, X i1 to X i6 each independently represent a hydrogen atom or a fluorine atom, and X ii1 represents a hydrogen atom. In the formula, R 8 represents an alkyl group having 1 to 5 carbon atoms, an alkenyl group having 2 to 5 carbon atoms, or an alkoxy group having 1 to 4 carbon atoms. In the formula, X 111 to X 117 each independently represent a fluorine atom or a hydrogen atom, at least one of X 111 to X 117 represents a fluorine atom, R 11 represents an alkyl group having 1 to 5 carbon atoms, an alkenyl group having 2 to 5 carbon atoms, or an alkoxy group having 1 to 4 carbon atoms, and Y 11 represents a fluorine atom or -OCF 3.)
A method for controlling at least one device (33, 36) in at least one building (34, 37), wherein the at least one device (33, 36) is controlled via at least one application (20a, 20c, 41, 50) comprised in a control system, wherein the control system comprises a server (31, 40, 51) and a number of gateways (32, 35, 42, 52), characterized in that, as a function of at least one transfer rule, which is provided in advance, the at least one application (20a, 20c, 41, 50) is optionally transferred from the server (31, 40, 51) to a particular gateway (32, 35, 42, 52) and is used on the particular gateway (32, 35, 42, 52) for directly controlling the at least one device or, vice versa, is transferred from a particular gateway (32, 35, 42, 52) to the server (31, 40, 51) and is used on the server to indirectly control the at least one device (33, 36), and wherein the particular gateway (32, 35, 42, 52) is connected via a cable or a wireless interface to the at least one device (33, 36).
An intravenous immunoglobulin (IVIG) preparation which has been treated with an EndoS enzyme wherein the glycosylation of the EndoS-treated IVIG preparation consists only of the first N-acetylglucosamine residue with an optional fucose group.
A system for modulating the function of a cardiac valve (116, 120, 316, 416, 516), said system comprising: (a) a structural modification device for structurally altering a cardiac valve (116, 120, 316, 416, 516); (b) a blood flow velocity measurement device for monitoring blood flow velocity through the cardiac valve (116, 120, 316, 416, 516); (c) a cardiac pacing device for modulating via electrical stimulation the function of the cardiac valve structurally altered by the structural modification device, said cardiac pacing device being in operational communication with said blood flow velocity measurement device; wherein the system is characterized in that it comprises: (d) an implantable processing element in operational communication with the blood flow velocity measurement device and the cardiac pacing device, the processing element operative for automatically modulating the activity of the cardiac pacing device based on blood flow velocity data received from the blood flow velocity measurement device by selecting an appropriate pacing protocol or routine based on predetermined blood flow velocity parameters; and wherein modulation of the cardiac pacing device occurs automatically without a human operator first evaluating the blood flow velocity data and directly or manually modulating the activity of the pacing device, wherein said processing element matches the blood flow velocity data with a set of different predetermined blood flow velocity parameters, and then selects a pacing routine which is paired with a best matched blood flow velocity parameter of said set of different predetermined blood flow velocity parameters, wherein said pacing protocol or routine is a pacing protocol for modulating valve function. (a) a structural modification device for structurally altering a cardiac valve (116, 120, 316, 416, 516); (b) a blood flow velocity measurement device for monitoring blood flow velocity through the cardiac valve (116, 120, 316, 416, 516); (c) a cardiac pacing device for modulating via electrical stimulation the function of the cardiac valve structurally altered by the structural modification device, said cardiac pacing device being in operational communication with said blood flow velocity measurement device;
A system for decryption of one or more payloads, the system comprising: a hardware security module implemented by at least one processor for decrypting encrypted elements of received payloads, the hardware security module operatively connected to at least one decryption server; wherein the at least one decryption server is configured to receive a particular payload, the particular payload comprising at least one encrypted element; and transmit the particular payload to the hardware security module for decryption of the at least one encrypted element; at least one read-only database, the at least one read-only database configured to store data for authenticating the payloads and requests for decrypting encrypted elements of the received payloads; a frontend server operatively connected to the at least one ready-only database, the frontend server configured to: 1) retrieve authentication data associated with a particular received payload; and 2) compare the authentication data to the particular received payload to authenticate the particular received payload before the particular received payload is transmitted to the hardware security module; and a master read-only database operatively connected to the at least one read-only database, the master read-only database configured for refreshing the authentication data stored at the at least one read-only database. a hardware security module implemented by at least one processor for decrypting encrypted elements of received payloads, the hardware security module operatively connected to at least one decryption server; wherein the at least one decryption server is configured to receive a particular payload, the particular payload comprising at least one encrypted element; and transmit the particular payload to the hardware security module for decryption of the at least one encrypted element; at least one read-only database, the at least one read-only database configured to store data for authenticating the payloads and requests for decrypting encrypted elements of the received payloads; a frontend server operatively connected to the at least one ready-only database, the frontend server configured to: 1) retrieve authentication data associated with a particular received payload; and 2) compare the authentication data to the particular received payload to authenticate the particular received payload before the particular received payload is transmitted to the hardware security module; and a master read-only database operatively connected to the at least one read-only database, the master read-only database configured for refreshing the authentication data stored at the at least one read-only database.