mhurhangee/ep-ind-claims huggingface dataset:
An environmental control system of an aircraft comprising a supplemental pack, the supplemental pack, comprising: a shaft; a compressor; a turbine coupled to the compressor via the shaft; at least one heat exchanger; a first valve; a second valve; a third valve; and a mixing unit; wherein the compressor receives and compresses a first medium in accordance with power provided by the turbine via the shaft, the first medium being fresh air, wherein the turbine receives and expands a second medium via the first valve to provide the power to the compressor via the shaft, the second medium being cabin discharge air, wherein the at least one heat exchanger is configured to cool the first medium that is compressed and heated and flowing from the compressor, wherein the at least one heat exchanger comprises a first heat exchanger downstream of the turbine on a flow path of the second medium and a second heat exchanger upstream of the turbine on the flow path of the second medium; wherein to cool the first medium: the heat exchanger utilizes: the exhaust of the turbine, being a cool version of the cabin discharge air; and part of the first medium via the second valve; and the heat exchanger, in turn, provides a medium, which is a cool and compressed version of the first medium to the mixing unit via the third valve; and wherein the second heat exchanger, upstream of the turbine, utilizes a third medium to heat the second medium, which is exhausted from the second heat exchanger as a further medium. a shaft; a compressor; a turbine coupled to the compressor via the shaft; at least one heat exchanger; a first valve; a second valve; a third valve; and a mixing unit; wherein the compressor receives and compresses a first medium in accordance with power provided by the turbine via the shaft, the first medium being fresh air, wherein the turbine receives and expands a second medium via the first valve to provide the power to the compressor via the shaft, the second medium being cabin discharge air, wherein the at least one heat exchanger is configured to cool the first medium that is compressed and heated and flowing from the compressor, wherein the at least one heat exchanger comprises a first heat exchanger downstream of the turbine on a flow path of the second medium and a second heat exchanger upstream of the turbine on the flow path of the second medium; wherein to cool the first medium: the heat exchanger utilizes: the exhaust of the turbine, being a cool version of the cabin discharge air; and part of the first medium via the second valve; and the heat exchanger, in turn, provides a medium, which is a cool and compressed version of the first medium to the mixing unit via the third valve; and the exhaust of the turbine, being a cool version of the cabin discharge air; and part of the first medium via the second valve; and the heat exchanger, in turn, provides a medium, which is a cool and compressed version of the first medium to the mixing unit via the third valve; and wherein the second heat exchanger, upstream of the turbine, utilizes a third medium to heat the second medium, which is exhausted from the second heat exchanger as a further medium.
An unmanned underwater vehicle for the maintenance and inspection of permanent underwater facilities, the underwater vehicle comprising: a frame; at least one buoy; a plurality of thrusters; at least one power accumulator; and a control unit; the buoy defining the upper part of the underwater vehicle, while the frame in the lower part of the underwater vehicle supporting a first external interface and a second external interface; wherein the first interface is configured to be mechanically and electrically coupled to an interface of an interchangeable operational module (41; 42; 43) selected on the basis of specific needs from a plurality of interchangeable operational modules (41, 42, 43) featuring different characteristics; and the second interface is configured to be mechanically and electrically coupled to an interface of an interchangeable power and communication module (44; 45; 46) selected on the basis of specific needs from a plurality of interchangeable power and communication modules (44, 45, 46) featuring different characteristics; and wherein, in use, the interchangeable operational module (41; 42; 43) is electrically powered by the power and communication module (44, 45, 46) when both modules are respectively coupled by their respective interfaces (39, 40, 49, 59) to the underwater vehicle. a frame; at least one buoy; a plurality of thrusters; at least one power accumulator; and a control unit; the buoy defining the upper part of the underwater vehicle, while the frame in the lower part of the underwater vehicle supporting a first external interface and a second external interface; wherein the first interface is configured to be mechanically and electrically coupled to an interface of an interchangeable operational module (41; 42; 43) selected on the basis of specific needs from a plurality of interchangeable operational modules (41, 42, 43) featuring different characteristics; and the second interface is configured to be mechanically and electrically coupled to an interface of an interchangeable power and communication module (44; 45; 46) selected on the basis of specific needs from a plurality of interchangeable power and communication modules (44, 45, 46) featuring different characteristics; and wherein, in use, the interchangeable operational module (41; 42; 43) is electrically powered by the power and communication module (44, 45, 46) when both modules are respectively coupled by their respective interfaces (39, 40, 49, 59) to the underwater vehicle.
A method of operation of a Wireless Local Access Network, WLAN, access node, comprising: determining that a handover of a wireless device from a WLAN to another radio access network of a different radio access technology is to be performed, wherein the different radio access technology is a 3rd Generation Partnership Project, 3GPP, or 3rd Generation Partnership Project 2, 3GPP2, radio access technology; and transmitting a handover instruction to the wireless device that instructs the wireless device to perform a handover from the WLAN to a radio access network of a different radio access technology; wherein transmitting the handover instruction to the wireless device comprises transmitting, to the wireless device, a Basic Service Set, BSS, Transition Management frame with zero neighbor report elements.
A method of identifying a plurality of neoantigenic peptides for preparing a subject-specific immunogenic composition, each neoantigenic peptide comprising a tumor-specific neoepitope comprising a tumor-specific mutation, the method comprising: a. identifying a plurality of subject-specific tumor mutations in expressed genes of a subject having cancer by whole genome or whole exome nucleic acid sequencing of tumor and normal tissue samples from the subject, wherein the mutations are present in the genome of cancer cells of the subject but not in normal tissue from the subject; b. wherein when a mutation identified in step (a) is a point mutation: i. identifying a mutant peptide having the mutation identified in step (a), wherein said mutant peptide comprises a tumor-specific neoepitope which binds to a class I HLA protein with a greater affinity than a wild -type peptide; and has an IC50 less than 500 nm; c. wherein when a mutation identified in step (a) is a splice-site, frameshift, read- through or gene-fusion mutation: i. identifying a mutant polypeptide encoded by the mutation identified in step (a), wherein said mutant polypeptide comprises a tumor-specific neoepitope which binds to a class I HLA protein. a. identifying a plurality of subject-specific tumor mutations in expressed genes of a subject having cancer by whole genome or whole exome nucleic acid sequencing of tumor and normal tissue samples from the subject, wherein the mutations are present in the genome of cancer cells of the subject but not in normal tissue from the subject; b. wherein when a mutation identified in step (a) is a point mutation: i. identifying a mutant peptide having the mutation identified in step (a), wherein said mutant peptide comprises a tumor-specific neoepitope which binds to a class I HLA protein with a greater affinity than a wild -type peptide; and has an IC50 less than 500 nm; i. identifying a mutant peptide having the mutation identified in step (a), wherein said mutant peptide comprises a tumor-specific neoepitope which binds to a class I HLA protein with a greater affinity than a wild -type peptide; and has an IC50 less than 500 nm; c. wherein when a mutation identified in step (a) is a splice-site, frameshift, read- through or gene-fusion mutation: i. identifying a mutant polypeptide encoded by the mutation identified in step (a), wherein said mutant polypeptide comprises a tumor-specific neoepitope which binds to a class I HLA protein. i. identifying a mutant polypeptide encoded by the mutation identified in step (a), wherein said mutant polypeptide comprises a tumor-specific neoepitope which binds to a class I HLA protein.
A nanoparticle (10a, 10b) comprising: an iron-based core (12a, 12b), wherein the iron-based core (12a, 12b) comprises elemental iron and α"-Fe 16 N2 and an anti-ferromagnetic shell (14a, 14b), characterised in that the core (12a, 12b) is an ellipsoid with a ratio of a maximum diameter to a minimum diameter of at least about 2. an iron-based core (12a, 12b), wherein the iron-based core (12a, 12b) comprises elemental iron and α"-Fe 16 N2 and an anti-ferromagnetic shell (14a, 14b), characterised in that the core (12a, 12b) is an ellipsoid with a ratio of a maximum diameter to a minimum diameter of at least about 2.
An information processing apparatus comprising: connection means configured to connect the information processing apparatus to a network; a web browser configured to receive screen data from a web server on the network and to display a screen based on the screen data; storing means configured to store a script to be used for rewriting the screen data received by the web browser into screen data used for receiving a document read instruction; and control means configured to execute document reading in accordance with the document read instruction received from a user via a screen displayed based on the rewritten screen data after the screen data is rewritten with use of the script, wherein the web browser is configured to display the screen based on the rewritten screen data and, upon receiving a read start instruction via the displayed screen, transmit a document read instruction request to a read web service of the information processing apparatus, and wherein the control means is configured to receive a read execution instruction from the read web service and execute document reading based on the received read execution instruction. connection means configured to connect the information processing apparatus to a network; a web browser configured to receive screen data from a web server on the network and to display a screen based on the screen data; storing means configured to store a script to be used for rewriting the screen data received by the web browser into screen data used for receiving a document read instruction; and control means configured to execute document reading in accordance with the document read instruction received from a user via a screen displayed based on the rewritten screen data after the screen data is rewritten with use of the script, wherein the web browser is configured to display the screen based on the rewritten screen data and, upon receiving a read start instruction via the displayed screen, transmit a document read instruction request to a read web service of the information processing apparatus, and wherein the control means is configured to receive a read execution instruction from the read web service and execute document reading based on the received read execution instruction.
A light-emitting device, comprising: an active layer comprising at least one semiconductor layer (106a-c) for transport of charge carriers and emission of light upon radiative recombination of charge carriers of a first type and a second type, a first gate layer, which is arranged to control density of charge carriers of the first type in the active layer, a second gate layer, which is arranged to control density of charge carriers of the second type in the active layer, wherein a first insulating layer is arranged on the first gate layer and the second gate layer forms a pattern on the first insulating layer, wherein a second insulating layer is arranged on the second gate layer, wherein the active layer is arranged on the first and second insulating layers, and wherein the first gate layer and the second gate layer are configured to independently accumulate the respective type of charge carrier, enabling opening of two balanced unipolar channels that independently drive charge carriers into a zone of the active layer where radiative recombination occurs. an active layer comprising at least one semiconductor layer (106a-c) for transport of charge carriers and emission of light upon radiative recombination of charge carriers of a first type and a second type, a first gate layer, which is arranged to control density of charge carriers of the first type in the active layer, a second gate layer, which is arranged to control density of charge carriers of the second type in the active layer, wherein a first insulating layer is arranged on the first gate layer and the second gate layer forms a pattern on the first insulating layer, wherein a second insulating layer is arranged on the second gate layer, wherein the active layer is arranged on the first and second insulating layers, and wherein the first gate layer and the second gate layer are configured to independently accumulate the respective type of charge carrier, enabling opening of two balanced unipolar channels that independently drive charge carriers into a zone of the active layer where radiative recombination occurs.
A composition comprising: (a) a thermoplastic polymer; (b) a plurality of particles, each said particle having a core-shell structure and comprising (i) a core comprising one or more magnetic materials and (ii) a shell comprising silicon dioxide; wherein the composition comprises the plurality of particles (b) in an amount from 2 to 15 wt%. (a) a thermoplastic polymer; (b) a plurality of particles, each said particle having a core-shell structure and comprising (i) a core comprising one or more magnetic materials and (ii) a shell comprising silicon dioxide; (i) a core comprising one or more magnetic materials and (ii) a shell comprising silicon dioxide;
A film-forming composition for use in the preparation of a soft capsule, said film-forming composition comprising: (a) acid-decomposed waxy corn starch; (b) a gelling agent; and (c) a plasticizer. (a) acid-decomposed waxy corn starch; (b) a gelling agent; and (c) a plasticizer.
An external control device for use with a stimulation device capable of conveying an electrical signal to a stimulation lead implanted within a patient, and measuring an electrical parameter in response to the conveyance of the electrical signal, comprising: telemetry circuitry configured for communicating with the stimulation device; a processor configured for receiving the measured electrical parameter from the stimulation device via the telemetry circuitry, selecting one of a plurality of different anatomical regions in which the stimulation lead is implanted based on the measured electrical parameter, and defining a stimulation parameter based on the selected anatomical region; a controller configured for instructing the stimulation device via the telemetry circuitry to convey electrical stimulation energy from the stimulation lead in accordance with the defined stimulation parameter: and a user interface configured for displaying a plurality of different programming screens (150a, 150b) respectively associated with different anatomical regions of a patient, selecting one of the programming screens (150a, 150b) corresponding to the selected anatomical region, and allowing a user to define the stimulation parameter using the selected programming screen (150a, 150b); wherein the electrical parameter is measured at another stimulation lead implanted within the patient. telemetry circuitry configured for communicating with the stimulation device; a processor configured for receiving the measured electrical parameter from the stimulation device via the telemetry circuitry, selecting one of a plurality of different anatomical regions in which the stimulation lead is implanted based on the measured electrical parameter, and defining a stimulation parameter based on the selected anatomical region; a controller configured for instructing the stimulation device via the telemetry circuitry to convey electrical stimulation energy from the stimulation lead in accordance with the defined stimulation parameter: and a user interface configured for displaying a plurality of different programming screens (150a, 150b) respectively associated with different anatomical regions of a patient, selecting one of the programming screens (150a, 150b) corresponding to the selected anatomical region, and allowing a user to define the stimulation parameter using the selected programming screen (150a, 150b); wherein the electrical parameter is measured at another stimulation lead implanted within the patient.
A driving simulator apparatus for driving rehabilitation training, the driving simulator apparatus comprising: a display unit for displaying a preset simulation driving screen; a mode selecting unit via which a normal mode, an assist mode, or a resist mode is selected by a user; a steering wheel operated by the user; and a control unit designed for controlling the display unit and a driving simulation of the user in connection with operations of the steering wheel, characterized in that the control unit is further designed for controlling - to apply a driving force in a rotational direction of the steering wheel operated by a user when the assist mode is selected, wherein the driving force acts for moving the steering wheel to a position to which the user has to steer according to the driving simulation, and - to apply a reaction force in an opposite direction to the rotational direction of the steering wheel operated by the user when the resist mode is selected, wherein the reaction force acts for moving the steering wheel in an opposite direction to the direction where the user has to steer according to the driving simulation. a display unit for displaying a preset simulation driving screen; a mode selecting unit via which a normal mode, an assist mode, or a resist mode is selected by a user; a steering wheel operated by the user; and a control unit designed for controlling the display unit and a driving simulation of the user in connection with operations of the steering wheel, characterized in that the control unit is further designed for controlling - to apply a driving force in a rotational direction of the steering wheel operated by a user when the assist mode is selected, wherein the driving force acts for moving the steering wheel to a position to which the user has to steer according to the driving simulation, and - to apply a reaction force in an opposite direction to the rotational direction of the steering wheel operated by the user when the resist mode is selected, wherein the reaction force acts for moving the steering wheel in an opposite direction to the direction where the user has to steer according to the driving simulation. - to apply a driving force in a rotational direction of the steering wheel operated by a user when the assist mode is selected, wherein the driving force acts for moving the steering wheel to a position to which the user has to steer according to the driving simulation, and - to apply a reaction force in an opposite direction to the rotational direction of the steering wheel operated by the user when the resist mode is selected, wherein the reaction force acts for moving the steering wheel in an opposite direction to the direction where the user has to steer according to the driving simulation.
Drive, including an electric motor, which is supplied by a converter, the converter including a time-discrete closed-loop control structure which regulates the stator current of the electric motor by setting the voltage applied at the motor, the current of the motor being acquired in time-discrete fashion, the closed-loop control structure including a closed-loop controller having an actual value as a first current component of the current, the setpoint input of the closed-loop controller being coupled with at least one upstream setpoint limiter, characterised in that the difference between the actuating variable U and the actuating limits U_max and U_min of the converter is determined, multiplied by a factor 1/K, and added to the time-delayed, i.e. earlier, setpoint I_setpointZ1, this sum being forwarded as a maximum or a minimum value (max, min) to a limiter as a limit value that acts on the non-delayed I_setpoint.
Cutting device, especially for a meat grinder, comprising - an outer ring with a starting diameter and a rotatable blade arranged inside the outer ring - whereby the blade is detachably held on the outer ring, - whereby the blade has a central hub provided with a bore for non-rotational mounting during a rotational movement in a direction of rotation and a plurality of blade wings with double-sided cutting edges arranged around the hub and extending outwardly therefrom, - whereby the blade has a groove on the outside pointing in the direction of rotation, - whereby the outer ring is designed as an open ring, characterised in that - no screw connections are provided for the detachable mounting of the blade on the open outer ring, - in the assembled state, the blade is held rotatably on the outer ring by means of a form-fitting connection, i.e. the outer ring has a bead on its inner side - at least over a partial circumference - which interacts with the groove on the blade, and - the outer ring can be expanded and bent back into the initial diameter for replacing the blade. - an outer ring with a starting diameter and a rotatable blade arranged inside the outer ring - whereby the blade is detachably held on the outer ring, - whereby the blade has a central hub provided with a bore for non-rotational mounting during a rotational movement in a direction of rotation and a plurality of blade wings with double-sided cutting edges arranged around the hub and extending outwardly therefrom, - whereby the blade has a groove on the outside pointing in the direction of rotation, - whereby the outer ring is designed as an open ring, characterised in that - no screw connections are provided for the detachable mounting of the blade on the open outer ring, - in the assembled state, the blade is held rotatably on the outer ring by means of a form-fitting connection, i.e. the outer ring has a bead on its inner side - at least over a partial circumference - which interacts with the groove on the blade, and - the outer ring can be expanded and bent back into the initial diameter for replacing the blade.
A rotational testing system for a test article, the system comprising: a dynamometer having a drive end and a non-drive end opposite the drive end, the drive end capable of being mechanically connected to the test article; a non-isolating torsional damper comprising a compliant member and being configured for damping vibration of the dynamometer without transmitting torque between the dynamometer and the test article through the compliant member; characterised in that the non-isolating torsional damper is mechanically connected with the non-drive end of the dynamometer. a dynamometer having a drive end and a non-drive end opposite the drive end, the drive end capable of being mechanically connected to the test article; a non-isolating torsional damper comprising a compliant member and being configured for damping vibration of the dynamometer without transmitting torque between the dynamometer and the test article through the compliant member;