mhurhangee/ep-ind-claims huggingface dataset:
An integrated sequential sample preparation system comprising: a sequential centrifuge (60, 260, 510) for centrifuging a sample, the sequential centrifuge having a plurality of sample reservoirs; a control system for performing a centrifugation sequence; a sample transfer module for loading at least a portion of the sample into a sample reservoir of the plurality of sample reservoirs; and at least one extraction module for removing at least a portion of a centrifuged sample from the sequential centrifuge (60, 260, 510), characterised by an indexing system for indexing from a current available sample reservoir where the sample is loaded to a next available sample reservoir identifying where a next sample is to be loaded based upon a defined loading strategy, wherein the defined loading strategy identifies the next available sample reservoir to be a sample reservoir needed to maintain balance in the sequential centrifuge; an accessioning module configured to assign a unique identifier to the sample, the unique identifier being associated with information concerning the criticality of the sample, to thereby assign a priority to the sample; and a sample infeed module where samples waiting for further preparation are held, which is configured to make determinations using the information provided by the accessioning module thereby to convey samples such that a sample with the highest priority is centrifuged first. a sequential centrifuge (60, 260, 510) for centrifuging a sample, the sequential centrifuge having a plurality of sample reservoirs; a control system for performing a centrifugation sequence; a sample transfer module for loading at least a portion of the sample into a sample reservoir of the plurality of sample reservoirs; and at least one extraction module for removing at least a portion of a centrifuged sample from the sequential centrifuge (60, 260, 510), characterised by an indexing system for indexing from a current available sample reservoir where the sample is loaded to a next available sample reservoir identifying where a next sample is to be loaded based upon a defined loading strategy, wherein the defined loading strategy identifies the next available sample reservoir to be a sample reservoir needed to maintain balance in the sequential centrifuge; an accessioning module configured to assign a unique identifier to the sample, the unique identifier being associated with information concerning the criticality of the sample, to thereby assign a priority to the sample; and a sample infeed module where samples waiting for further preparation are held, which is configured to make determinations using the information provided by the accessioning module thereby to convey samples such that a sample with the highest priority is centrifuged first.
A method comprising: identifying a uniform resource locator, URL, indicated in a request for a first resource; parsing the URL into a plurality of substrings; based on evaluating the plurality of substrings, determining a representative token with which to replace a first substring of the plurality of substrings of the URL; generating a representative pattern for the URL based on replacing the first substring in the URL with the representative token; determining if a pattern which matches the representative pattern can be identified among a plurality of patterns previously generated from known malicious URLs; and based on identifying a first pattern of the plurality of patterns which at least partially matches the representative pattern, indicating that the URL is malicious. identifying a uniform resource locator, URL, indicated in a request for a first resource; parsing the URL into a plurality of substrings; based on evaluating the plurality of substrings, determining a representative token with which to replace a first substring of the plurality of substrings of the URL; generating a representative pattern for the URL based on replacing the first substring in the URL with the representative token; determining if a pattern which matches the representative pattern can be identified among a plurality of patterns previously generated from known malicious URLs; and based on identifying a first pattern of the plurality of patterns which at least partially matches the representative pattern, indicating that the URL is malicious.
Radiator, in particular a flat multiple-row radiator or a radiator wall in vertical or horizontal arrangement, comprising at least two heating plates and an inlet and return connection for connecting it to the network of a heating system, wherein the heating plate facing the space to be heated is first flowed through and subsequently the heating plate(s) arranged downstream thereof, and connection fittings are provided between the heating plates at each upper lateral end section and at each lower lateral end section, characterised in that the connection fittings (a, b) arranged at the upper lateral end sections are fluidically connected exclusively to the front heating plate (1.1) and the connection fittings (c, d) arranged at the lower end sections are fluidically connected exclusively to the rear heating plate(s) (1.n), wherein an additional connection fitting (e) is centrally arranged between the heating plates (1.1, 1.n), which guides the fluid centrally from the front heating plate (1.1) into the rear heating plate (1.n).
Method in a user equipment, UE, for controlling connection re-establishment between said user equipment and a network, said user equipment being served in a first cell comprised in said network, characterized by the steps of - receiving a configuration message from the network defining at least one condition related to determining if the user equipment is within the coverage of a neighboring cell, wherein a condition is fulfilled if a measurement event is triggered for said neighboring cell; - upon detection of connectivity problems towards the first cell, evaluating said at least one condition; - if said at least one condition is fulfilled for said neighboring cell, applying at least one special criterion, comprising the expiration of an additional timer, for initiating connection re-establishment to said neighboring cell, said at least one special criterion being different from at least one criterion, comprising the expiration of a first timer, that is applied if said at least one condition is not fulfilled. - receiving a configuration message from the network defining at least one condition related to determining if the user equipment is within the coverage of a neighboring cell, wherein a condition is fulfilled if a measurement event is triggered for said neighboring cell; - upon detection of connectivity problems towards the first cell, evaluating said at least one condition; - if said at least one condition is fulfilled for said neighboring cell, applying at least one special criterion, comprising the expiration of an additional timer, for initiating connection re-establishment to said neighboring cell, said at least one special criterion being different from at least one criterion, comprising the expiration of a first timer, that is applied if said at least one condition is not fulfilled.
A toggle lever clamping unit for an injection moulding machine, with a fixed platen and a movable platen and with a support plate, with at least one force-conducting pair of levers (3a, 3b; 4a, 4b) as primary lever between the support plate and the movable platen, with a cross clamp which can be linearly moved along the longitudinal axis of the machine by way of a first drive (30, 40), and with connecting levers (6, 7; 6', 7') between the cross clamp and the primary lever (s) (3a, 3b; 4a, 4b), with which the primary levers (3a, 3b; 4a, 4b) are able to be put into a fully extended position, characterized in that one or several additional drives (8, 9) are provided, which are operationally connected to the connecting levers (6, 7), by way of which drives the connecting levers (6, 7) can be moved essentially in a direction that is orthogonal to the longitudinal axis of the machine relative to the cross clamp and/or relative to the primary levers (3a, 3b; 4a, 4b), in order to make it possible to put the primary levers (3a, 3b; 4a, 4b) in the fully extended position, and/or that length-adjustable connecting levers (6', 7') are provided between the primary levers (3a, 3b; 4a, 4b) and the cross clamp, wherein for each of the connecting levers (6', 7'), at least one additional drive (20, 21) is provided, with which the length of the respective connecting lever (6', 7') can be adjusted in order to make it possible to put the primary levers (3a, 3b; 4a, 4b) in the fully extended position.
Method for providing reliable user location information, ULI, of a user transmitting a SIP message via an access network to a server of an IP multimedia subsystem, IMS, located in a trusted domain, comprising the steps of: - identifying by a Proxy Call Session Control Function, P-CSCF, whether the access network is part of the trusted domain, and in case the access network does not form part of the trusted domain: - retrieving, by the P-CSCF, user location information, ULI, from another server located in the trusted domain configured for providing ULI, and - adding, by the P-CSCF, a private user location information, PULI, header comprising the retrieved user location information to the SIP message, wherein the PULI header is added to SIP messages besides a private access network information, PANI, header, and - forwarding, by the P-CSCF, the SIP message including the PULI header to said server of the IMS located in the trusted domain, wherein the step of retrieving user location information from another server located in the trusted domain configured for providing ULI comprises requesting user location information by the P-CSCF from a GSM or GPRS or UMTS or LTE radio access network node (40, 50), to which the user is also connected, via a Policy and Charging Rules Function server and a location service, and wherein the access network is a non-3GPP-type network. - identifying by a Proxy Call Session Control Function, P-CSCF, whether the access network is part of the trusted domain, and - retrieving, by the P-CSCF, user location information, ULI, from another server located in the trusted domain configured for providing ULI, and - adding, by the P-CSCF, a private user location information, PULI, header comprising the retrieved user location information to the SIP message, wherein the PULI header is added to SIP messages besides a private access network information, PANI, header, and - forwarding, by the P-CSCF, the SIP message including the PULI header to said server of the IMS located in the trusted domain,
A system to automate pharmaceutical compounding comprising: a robotic arm to convey medical containers (1102, 1104, 1106); a compounding system to transfer medicaments between the medical containers; a syringe manipulator adapted to push/pull a plunger of a syringe for transferring fluids to/from a medical container, and configured to maintain a negative pressure in the medical container to prevent aerosolizing of contents in the medial container during the transferring of the fluids; a needle-removing station to remove a needle from a syringe after the syringe has been loaded with a desired quantity of one or more of the medicaments; the system being characterized in that the syringe manipulator is configured to limit plunger speed to account for limitations of fluid flow through a needle of fhe syringe by a needle diameter and a fluid viscosity or to calculate a wait time. a robotic arm to convey medical containers (1102, 1104, 1106); a compounding system to transfer medicaments between the medical containers; a syringe manipulator adapted to push/pull a plunger of a syringe for transferring fluids to/from a medical container, and configured to maintain a negative pressure in the medical container to prevent aerosolizing of contents in the medial container during the transferring of the fluids; a needle-removing station to remove a needle from a syringe after the syringe has been loaded with a desired quantity of one or more of the medicaments; the system being characterized in that the syringe manipulator is configured to limit plunger speed to account for limitations of fluid flow through a needle of fhe syringe by a needle diameter and a fluid viscosity or to calculate a wait time.
A power converter system supporting multiple voltage rails through a plurality of point-to-point power management communication buses, the power converter system comprising: a plurality of power converters each of which is operable to output an independent voltage rail regulated at a defined voltage level; characterized by a plurality of ports each of which is configured for point-to-point communication over a dedicated serial communication power management bus with single and multiple voltage rail support, each port being dedicated to a single serial communication power management bus, the power converter system having fewer ports than voltage rails; and configuration logic operable to flexibly assign each power converter to one of the ports based on configuration information stored in or provided to the power converter system, so that each power converter communicates over the serial communication power management bus to which the port assigned to that power converter is dedicated. a plurality of power converters each of which is operable to output an independent voltage rail regulated at a defined voltage level; characterized by a plurality of ports each of which is configured for point-to-point communication over a dedicated serial communication power management bus with single and multiple voltage rail support, each port being dedicated to a single serial communication power management bus, the power converter system having fewer ports than voltage rails; and configuration logic operable to flexibly assign each power converter to one of the ports based on configuration information stored in or provided to the power converter system, so that each power converter communicates over the serial communication power management bus to which the port assigned to that power converter is dedicated.
An e-paper writing unit comprising: a housing (522, 552) containing a chamber (527, 557), the chamber at least partially enclosing a corona wire (524, 574) to generate an ion flow; a first layer of selectively activatable ring electrodes on one exposed exterior surface of the housing (522, 552) and aligned with the corona wire to provide an array of electrode nozzles (180, 302) which receive and direct the positive ion flow; and a heating element (528, 591) coupled to a wall (526, 556) of the housing (522, 552). a housing (522, 552) containing a chamber (527, 557), the chamber at least partially enclosing a corona wire (524, 574) to generate an ion flow; a first layer of selectively activatable ring electrodes on one exposed exterior surface of the housing (522, 552) and aligned with the corona wire to provide an array of electrode nozzles (180, 302) which receive and direct the positive ion flow; and a heating element (528, 591) coupled to a wall (526, 556) of the housing (522, 552).
A profile for a loading area for securing cargo, in particular a loading area of a vehicle, a trailer, a transport container or the like, - having a main body that extends in a longitudinal direction and the length of which is a multiple of its width, - said main body having an attachment portion which may be arranged with respect to the loading area and a fastening portion which extends adjacent to the attachment portion and has a plurality of through holes longitudinally spaced apart from one another, characterised in that - provision is made for at least one closure element to be present which is provided on an inner side of the fastening portion and which in an initial position abuts on said inner side of the fastening portion and closes the through bores, - the closure element may be transferred to a fastening position in which at least one through bore is opened, and - at least one hook of a cargo securing device may be positioned in said through bore. - having a main body that extends in a longitudinal direction and the length of which is a multiple of its width, - said main body having an attachment portion which may be arranged with respect to the loading area and a fastening portion which extends adjacent to the attachment portion and has a plurality of through holes longitudinally spaced apart from one another, characterised in that - provision is made for at least one closure element to be present which is provided on an inner side of the fastening portion and which in an initial position abuts on said inner side of the fastening portion and closes the through bores, - the closure element may be transferred to a fastening position in which at least one through bore is opened, and - at least one hook of a cargo securing device may be positioned in said through bore.
Method for additive manufacturing by extrusion an anisotropic fibrous concrete, using a device comprising an extrusion assembly including an extrusion nozzle for extruding a bead of mortar jointly with continuous fibres oriented along the longitudinal direction of this bead, characterized in that the device comprises a multi axis robot having a head bearing the said extrusion assembly, and in that the said extrusion assembly comprises means for the injection in the mortar of a setting accelerator additive, the injection of the setting accelerator additive causing an at least sixfold multiplication of the shear threshold of the mortar between the region of injection of the setting accelerator additive and the end of the nozzle.
An aluminum alloy foil for electrode current collector, comprising: 0.03 to 0.1 mass% (hereinafter mass% is referred to as %) of Fe, 0.01 to 0.1% of Si, 0.0001 to 0.01 % of Cu, 0.005% or less of Mn, with the rest consisting of Al and unavoidable impurities, wherein solid solution content of Fe is 100 ppm or higher, solid solution content of Si is 80 ppm or higher, and solid solution content of Cu is 1 ppm or higher, and wherein tensile strength of the aluminum alloy foil is 180 MPa or higher, 0.2% yield strength of the aluminum alloy foil is 160 MPa or higher, and electrical conductivity of the aluminum alloy foil is 60% IACS or higher. 0.03 to 0.1 mass% (hereinafter mass% is referred to as %) of Fe, 0.01 to 0.1% of Si, 0.0001 to 0.01 % of Cu, 0.005% or less of Mn, with the rest consisting of Al and unavoidable impurities, wherein solid solution content of Fe is 100 ppm or higher, solid solution content of Si is 80 ppm or higher, and solid solution content of Cu is 1 ppm or higher, and wherein tensile strength of the aluminum alloy foil is 180 MPa or higher, 0.2% yield strength of the aluminum alloy foil is 160 MPa or higher, and electrical conductivity of the aluminum alloy foil is 60% IACS or higher.
A compound of the formula I wherein R 1 is triphenylmethyl (Trityl), A is selected from the group: a) Monocyclic aryl, b) Bicyclic aryl, c) Biaryl, d) Monocyclic heteroaryl, and e) Bicyclic heteroaryl optionally, A is bearing one or more substituents selected from the group comprising: a) Halogen, b) Nitro, c) Alkyl, d) Trifluoromethyl, and e) Z, wherein Z is R 1 is triphenylmethyl (Trityl), # indicates the position of the bond to A, and single isomers, tautomers, diastereomers, enantiomers, stereoisomers, stereoisomeric mixtures thereof, and suitable salts thereof. R 1 is triphenylmethyl (Trityl), A is selected from the group: a) Monocyclic aryl, b) Bicyclic aryl, c) Biaryl, d) Monocyclic heteroaryl, and e) Bicyclic heteroaryl optionally, A is bearing one or more substituents selected from the group comprising: a) Halogen, b) Nitro, c) Alkyl, d) Trifluoromethyl, and e) Z, a) Monocyclic aryl, b) Bicyclic aryl, c) Biaryl, d) Monocyclic heteroaryl, and e) Bicyclic heteroaryl a) Halogen, b) Nitro, c) Alkyl, d) Trifluoromethyl, and e) Z, wherein Z is R 1 is triphenylmethyl (Trityl), # indicates the position of the bond to A, and single isomers, tautomers, diastereomers, enantiomers, stereoisomers, stereoisomeric mixtures thereof, and suitable salts thereof.
Method for providing a coated strip, which comprises the steps of providing a metal or metal alloy strip, applying one or more coating layers on the metal or metal alloy strip and irradiating one or more of the applied coating layers with electromagnetic radiation, wherein one or more of the applied coating layers comprises at least 1 wt% of dielectric particles capable of absorbing microwave radiation, and wherein microwave radiation having a fixed microwave frequency between 0.9 GHz and 7.0 GHz is used to selectively heat one or more of the coating layers containing the dielectric particles to cure and/or sinter the coating layer.
A method of measuring a differential heat flow in a differential scanning calorimeter, wherein the differential scanning calorimeter comprises a block of high thermal conductivity material within an enclosure, said block of high thermal conductivity material comprising a sample measuring system and a reference measuring system, said method comprising: measuring a temperature of the enclosure; controlling the temperature of the block of high thermal conductivity material according to a predetermined temperature program; measuring T 0, Δ T, Δ T 0, and T e, where T 0 is the temperature of the block of high thermal conductivity material, Δ T is the difference between the temperature of the sample measuring system and the temperature of the reference measuring system, Δ T 0 is the difference between the temperature of the block of high thermal conductivity material and the temperature of the sample measuring system, and T e is the temperature of the enclosure; calculating a temperature of a sample container in the sample measuring system and a temperature of a reference container in the reference measuring system based upon the measured values of T 0, Δ T and Δ T 0; controlling the temperature of the enclosure to follow a weighted average of the calculated temperature of the sample container and the calculated temperature of the reference container; and calculating a differential heat flow to the sample container with respect to a heat flow to the reference container based upon measuring Δ T, Δ T 0, T s and T e by using an algorithm that comprises corrections to the measured heat flow to the sample container based in part upon the difference between the temperature of the enclosure and the temperature of the sample container. measuring a temperature of the enclosure; controlling the temperature of the block of high thermal conductivity material according to a predetermined temperature program; measuring T 0, Δ T, Δ T 0, and T e, where T 0 is the temperature of the block of high thermal conductivity material, Δ T is the difference between the temperature of the sample measuring system and the temperature of the reference measuring system, Δ T 0 is the difference between the temperature of the block of high thermal conductivity material and the temperature of the sample measuring system, and T e is the temperature of the enclosure; calculating a temperature of a sample container in the sample measuring system and a temperature of a reference container in the reference measuring system based upon the measured values of T 0, Δ T and Δ T 0; controlling the temperature of the enclosure to follow a weighted average of the calculated temperature of the sample container and the calculated temperature of the reference container; and calculating a differential heat flow to the sample container with respect to a heat flow to the reference container based upon measuring Δ T, Δ T 0, T s and T e by using an algorithm that comprises corrections to the measured heat flow to the sample container based in part upon the difference between the temperature of the enclosure and the temperature of the sample container.