mhurhangee/ep-ind-claims huggingface dataset:
A drive unit, comprising: an actuator from which an output rod protrudes at one end of a cylinder, the output rod for being coupled to a movable part of an aircraft: an attachment disposed on the other end side of the cylinder; a reaction link for being coupled to the movable part at one end of the reaction link and coupled to the attachment at the other end of the reaction link; and a connection-disconnection section allowing the cylinder and the attachment to be coupled to and separated from each other, wherein the attachment includes a first electric connector to which an electric wire extended from the outside of the attachment is connected, and the actuator includes an actuator-side electric connector, the actuator-side electric connector being connected to the first electric connector by coupling the attachment to the cylinder. an actuator from which an output rod protrudes at one end of a cylinder, the output rod for being coupled to a movable part of an aircraft: an attachment disposed on the other end side of the cylinder; a reaction link for being coupled to the movable part at one end of the reaction link and coupled to the attachment at the other end of the reaction link; and a connection-disconnection section allowing the cylinder and the attachment to be coupled to and separated from each other, wherein the attachment includes a first electric connector to which an electric wire extended from the outside of the attachment is connected, and the actuator includes an actuator-side electric connector, the actuator-side electric connector being connected to the first electric connector by coupling the attachment to the cylinder. an attachment disposed on the other end side of the cylinder; a reaction link for being coupled to the movable part at one end of the reaction link and coupled to the attachment at the other end of the reaction link; and a connection-disconnection section allowing the cylinder and the attachment to be coupled to and separated from each other, wherein the attachment includes a first electric connector to which an electric wire extended from the outside of the attachment is connected, and the actuator includes an actuator-side electric connector, the actuator-side electric connector being connected to the first electric connector by coupling the attachment to the cylinder.
A radiation detector capable of neutron detection comprising: a radiation sensing element comprising a shaped neutron sensitive article comprising: (a) an inorganic scintillating component; (b) a neutron capture component comprising a nuclide having a thermal neutron absorption capture cross-section of at least about 100 barns; (c) a gamma-ray insensitive, optically transmissive moldable resin composition; wherein said inorganic scintillating component and said neutron capture component are in intimate mixture with at least each other; and wherein said moldable, neutron sensitive composition is a solid or semi-solid with sufficient flowability for molding into a shaped article; a gamma detector; and a photosensor optically coupled to both the neutron sensitive article and the gamma detector for detecting emission of photons from both the inorganic scintillating component of said neutron sensitive article, and the gamma detector. a radiation sensing element comprising a shaped neutron sensitive article comprising: (a) an inorganic scintillating component; (b) a neutron capture component comprising a nuclide having a thermal neutron absorption capture cross-section of at least about 100 barns; (c) a gamma-ray insensitive, optically transmissive moldable resin composition; wherein said inorganic scintillating component and said neutron capture component are in intimate mixture with at least each other; and wherein said moldable, neutron sensitive composition is a solid or semi-solid with sufficient flowability for molding into a shaped article; (a) an inorganic scintillating component; (b) a neutron capture component comprising a nuclide having a thermal neutron absorption capture cross-section of at least about 100 barns; (c) a gamma-ray insensitive, optically transmissive moldable resin composition; wherein said inorganic scintillating component and said neutron capture component are in intimate mixture with at least each other; and wherein said moldable, neutron sensitive composition is a solid or semi-solid with sufficient flowability for molding into a shaped article; a gamma detector; and a photosensor optically coupled to both the neutron sensitive article and the gamma detector for detecting emission of photons from both the inorganic scintillating component of said neutron sensitive article, and the gamma detector.
A method for reducing runnability problems caused by gas flows in an impingement dryer (10, 20, 30) for a fibre web, which dryer has gas blowing means and gas exhaust means, in which method: - the fibre web to be dried is supported with a support fabric, - the support fabric and the fibre web to be dried are moved in the machine direction, by means of several rolls or cylinders (13, 23, 33), which rotate around axes, which are transverse to the machine, and which are arranged to define a path, along which the support fabric and the paper web are arranged to travel into the impingement dryer (10, 20, 30) through a first end (11, 21, 31) of the impingement dryer, inside the impingement dryer past the blowing means and the exhaust means, and out through a second end (12, 22, 32) of the impingement dryer, - hot gas is blown from the blowing means towards the fibre web to be dried, - gas is removed from the vicinity of the fibre web to the exhaust means, and - at least one edge control strip is moved in front of the exhaust means or the blowing means or both in the area of the machine direction edges of the impingement dryer (10, 20, 30), with the aid of which edge control strip a desired number of the exhaust means or the blowing means or both is covered and thus their effect is controlled. - the fibre web to be dried is supported with a support fabric, - the support fabric and the fibre web to be dried are moved in the machine direction, by means of several rolls or cylinders (13, 23, 33), which rotate around axes, which are transverse to the machine, and which are arranged to define a path, along which the support fabric and the paper web are arranged to travel into the impingement dryer (10, 20, 30) through a first end (11, 21, 31) of the impingement dryer, inside the impingement dryer past the blowing means and the exhaust means, and out through a second end (12, 22, 32) of the impingement dryer, - hot gas is blown from the blowing means towards the fibre web to be dried, - gas is removed from the vicinity of the fibre web to the exhaust means, and - at least one edge control strip is moved in front of the exhaust means or the blowing means or both in the area of the machine direction edges of the impingement dryer (10, 20, 30), with the aid of which edge control strip a desired number of the exhaust means or the blowing means or both is covered and thus their effect is controlled.
A removable storage device, comprising: a memory configured to store data; a processor in communication with the memory and executable to: identify an environment around the device as a thermally enhanced environment or a thermally non-enhanced environment in response to an initialization of operation of the device; adjust a thermal control loop algorithm of the device based on the identified environment; and control processing operations of the processor in response to the adjusted thermal control loop algorithm; and a housing within which the memory and processor are mounted, the housing having an external surface; a thermally conductive element defining a part of or connected to the external surface of the housing, wherein the thermally conductive element is configured to dissipate at least some heat from within the housing; and at least one input/output, I/O, pin in communication with the processor and having an electrical path connecting with the thermally conductive element, wherein the I/O pin is configured to receive via the electrical path, during the initialization, an environment identification signal that identifies either the thermally enhanced environment or the thermally non-enhanced environment. a memory configured to store data; a processor in communication with the memory and executable to: identify an environment around the device as a thermally enhanced environment or a thermally non-enhanced environment in response to an initialization of operation of the device; adjust a thermal control loop algorithm of the device based on the identified environment; and control processing operations of the processor in response to the adjusted thermal control loop algorithm; and identify an environment around the device as a thermally enhanced environment or a thermally non-enhanced environment in response to an initialization of operation of the device; adjust a thermal control loop algorithm of the device based on the identified environment; and control processing operations of the processor in response to the adjusted thermal control loop algorithm; and a housing within which the memory and processor are mounted, the housing having an external surface; a thermally conductive element defining a part of or connected to the external surface of the housing, wherein the thermally conductive element is configured to dissipate at least some heat from within the housing; and at least one input/output, I/O, pin in communication with the processor and having an electrical path connecting with the thermally conductive element, wherein the I/O pin is configured to receive via the electrical path, during the initialization, an environment identification signal that identifies either the thermally enhanced environment or the thermally non-enhanced environment.
A hot runner nozzle for the lateral gating of plastic components having a nozzle body and a pressure lid, wherein tip elements are arranged between the nozzle body and the pressure lid, which are each inserted into a recess of the nozzle body and are each penetrated by a movable closure needle having a tip, which in at least one operating position protrudes in each case over an outer circumferential edge of the nozzle body, wherein the closure needles each include, on their ends facing away from the tip, a coupling means, which is coupled to a drive means (28, 29) for moving the closure needles, characterized in that the tip elements are furthermore supported on their side facing away from the respective tip of the closure needles on a buttress element inserted between the nozzle body and the pressure lid, and in that the buttress element is designed to be removable..
A probe capable of detecting an EGFR exon 19 polymorphism, the probe consisting of: An oligonucleotide consisting of the sequence as set forth in SEQ ID NO: 5, in which the cytosine at the 5' terminus is fluorescence-labeled; An oligonucleotide consisting of the sequence as set forth in SEQ ID NO: 4, in which the cytosine at the 5' terminus is fluorescence-labeled; or An oligonucleotide consisting of the sequence as set forth in SEQ ID NO: 6, in which the cytosine at the 3' terminus is fluorescence-labeled. An oligonucleotide consisting of the sequence as set forth in SEQ ID NO: 5, in which the cytosine at the 5' terminus is fluorescence-labeled; An oligonucleotide consisting of the sequence as set forth in SEQ ID NO: 4, in which the cytosine at the 5' terminus is fluorescence-labeled; or An oligonucleotide consisting of the sequence as set forth in SEQ ID NO: 6, in which the cytosine at the 3' terminus is fluorescence-labeled.
A thermal power machine, comprising: a. at least one wet binary motive fluid, wherein said fluid is binary in that it comprises no water and at least one pure substance other than water and said fluid is wet in that it expands approximately isentropically from substantially saturated vapor to two-phase vapor and liquid mixture, b. at least one pump having means for receiving said fluid as substantially saturated liquid and then compressing said fluid to subcooled liquid, c. at least one evaporator having means for receiving a first portion of said fluid as subcooled liquid from said pump and then heating said fluid to substantially saturated vapor at a temperature at or lower than 200°C, d. at least one expander having means for receiving said fluid as substantially saturated vapor from said evaporator and then extracting mechanical power from said fluid while expanding said fluid to two-phase vapor and liquid mixture, e. at least one condenser having means for receiving said fluid as two-phase vapor and liquid mixture from said expander and receiving a second portion of said fluid as subcooled liquid from said pump, cooling said fluid to substantially saturated liquid, and then returning said fluid as substantially saturated liquid to said pump, whereby said machine produces useful power; and wherein said pump is connected to a heat exchange inlet for delivering said second portion of the fluid as subcooled liquid directly to said condenser. a. at least one wet binary motive fluid, wherein said fluid is binary in that it comprises no water and at least one pure substance other than water and said fluid is wet in that it expands approximately isentropically from substantially saturated vapor to two-phase vapor and liquid mixture, b. at least one pump having means for receiving said fluid as substantially saturated liquid and then compressing said fluid to subcooled liquid, c. at least one evaporator having means for receiving a first portion of said fluid as subcooled liquid from said pump and then heating said fluid to substantially saturated vapor at a temperature at or lower than 200°C, d. at least one expander having means for receiving said fluid as substantially saturated vapor from said evaporator and then extracting mechanical power from said fluid while expanding said fluid to two-phase vapor and liquid mixture, e. at least one condenser having means for receiving said fluid as two-phase vapor and liquid mixture from said expander and receiving a second portion of said fluid as subcooled liquid from said pump, cooling said fluid to substantially saturated liquid, and then returning said fluid as substantially saturated liquid to said pump, whereby said machine produces useful power; and wherein said pump is connected to a heat exchange inlet for delivering said second portion of the fluid as subcooled liquid directly to said condenser.
A method for transmitting a data set from an operating device to a drinks preparation machine, wherein the method comprises at least the following steps: • by the operating device: registering an input or a selection, which specifies the data set; • by the operating device: registering a selection of an operating mode for indirectly sending the data set to a drinks preparation machine, in particular as a selection amongst several operating modes by a user of the operating device; • by the drinks preparation machine: registering a control command which is triggered by the user; • by the drinks preparation machine, triggered by the control command: transmitting a machine address of the drinks preparation machine to the operating device; • by the operating device: receiving the machine address; • by the operating device: transmitting the data set and the machine address to a coordination server: • by the coordination server: receiving the machine address and the data set: • by the coordination server: storing the machine address and, assigned thereto, the data set; • by the coordination server: transmitting this data set to the drinks preparation machine, in particular including using the machine address; • by the drinks preparation machine: receiving the data set from the coordination server; • by the drinks preparation machine: storing the data set and/or executing an action according to the data set. • by the operating device: registering an input or a selection, which specifies the data set; • by the operating device: registering a selection of an operating mode for indirectly sending the data set to a drinks preparation machine, in particular as a selection amongst several operating modes by a user of the operating device; • by the drinks preparation machine: registering a control command which is triggered by the user; • by the drinks preparation machine, triggered by the control command: transmitting a machine address of the drinks preparation machine to the operating device; • by the operating device: receiving the machine address; • by the operating device: transmitting the data set and the machine address to a coordination server: • by the coordination server: receiving the machine address and the data set: • by the coordination server: storing the machine address and, assigned thereto, the data set; • by the coordination server: transmitting this data set to the drinks preparation machine, in particular including using the machine address; • by the drinks preparation machine: receiving the data set from the coordination server; • by the drinks preparation machine: storing the data set and/or executing an action according to the data set.
A tire comprising: two or more crossing belt layers comprising rubberized layers of steel cords tilting and extending at an angle of 10° to 30° with respect to a tire equatorial plane, the rubberized layers being arranged such that the directions of the cords of at least some of the layers intersect each other; and a high-angle belt layer comprising a rubberized layer of steel cords tilting and extending at an angle which is 5° or more greater than the angle of the crossing belt layers, characterised in that: the mass of the steel cords per unit area included in the high-angle belt layer is 85% or less of the mass of the steel cords per unit area included in the crossing belt layers; and compressive rigidity per unit area in a cross section orthogonal to the longitudinal direction of the steel cords of the high-angle belt layer is greater than compressive rigidity per unit area in a cross section orthogonal to the longitudinal direction of the steel cords of the crossing belt layers. the mass of the steel cords per unit area included in the high-angle belt layer is 85% or less of the mass of the steel cords per unit area included in the crossing belt layers; and compressive rigidity per unit area in a cross section orthogonal to the longitudinal direction of the steel cords of the high-angle belt layer is greater than compressive rigidity per unit area in a cross section orthogonal to the longitudinal direction of the steel cords of the crossing belt layers.
Method for state determination of at least one contact line running along a route, in which on the part of at least one vehicle travelling on the route multiple times a plurality of measurement values of at least one characteristic variable are measured and recorded and, for each measurement value, a position (lon, lat) of the vehicle along the route, in particular in the form of a geographic longitude (lon) and latitude (lat), a direction of travel of the vehicle and a timestamp (t) are ascertained and assigned to the measurement value, wherein the characteristic variable is an assessment criterion for the wear on the contact line, characterised in that at least one route region is selected from a large number of route regions and the ascertained measurement values of the characteristic variable, the assigned position (lon, lat) of which fall in the selected route region, are evaluated, wherein an arc rate for the selected route region is ascertained, which is calculated from the overall number of times this route region is travelled by the vehicle and the number of times it is travelled when an arc occurs, wherein a route region being travelled multiple times within a predetermined time span is considered a single instance of travelling when ascertaining the arc rate, wherein the selected route region is automatically selected from the large number of route regions as a function of the number of arcs occurring therein, wherein the number of arcs found therein is greater than a threshold value. in which on the part of at least one vehicle travelling on the route multiple times a plurality of measurement values of at least one characteristic variable are measured and recorded and, for each measurement value, a position (lon, lat) of the vehicle along the route, in particular in the form of a geographic longitude (lon) and latitude (lat), a direction of travel of the vehicle and a timestamp (t) are ascertained and assigned to the measurement value, wherein the characteristic variable is an assessment criterion for the wear on the contact line, characterised in that at least one route region is selected from a large number of route regions and the ascertained measurement values of the characteristic variable, the assigned position (lon, lat) of which fall in the selected route region, are evaluated, wherein an arc rate for the selected route region is ascertained, which is calculated from the overall number of times this route region is travelled by the vehicle and the number of times it is travelled when an arc occurs, wherein a route region being travelled multiple times within a predetermined time span is considered a single instance of travelling when ascertaining the arc rate, wherein the selected route region is automatically selected from the large number of route regions as a function of the number of arcs occurring therein, wherein the number of arcs found therein is greater than a threshold value.
A method for managing radio bearer traffic between radio network nodes (1a-c), the method being performed in a first radio network node and comprising the steps of: establishing a peer connection with a peer radio network node (1b, 1c), the peer connection comprising a tunnel (11a, 11b) for communicating with the peer radio network node (1b,1c); ensuring a routing table of the first radio network node contains entries for each one of a local set of user equipments, UEs, attached to the first radio network node; transmitting an output route update message to the peer radio network node, the output route update message indicating that each one of the local set of UEs is attached to the first radio network node; receiving an input route update message from the peer radio network node (1b, 1c), the input route update message indicating that each one in a peer set of UEs is attached to the peer radio network node (1b, 1c); adjusting the routing table based on the peer set of UEs, such that all UEs in the peer set of UEs are associated with the same tunnel (11a, 11b) for communicating with the peer radio network node (1b, 1c); and routing radio bearer traffic in the tunnel to the peer radio network node (1b, 1c) in accordance with the routing table. establishing a peer connection with a peer radio network node (1b, 1c), the peer connection comprising a tunnel (11a, 11b) for communicating with the peer radio network node (1b,1c); ensuring a routing table of the first radio network node contains entries for each one of a local set of user equipments, UEs, attached to the first radio network node; transmitting an output route update message to the peer radio network node, the output route update message indicating that each one of the local set of UEs is attached to the first radio network node; receiving an input route update message from the peer radio network node (1b, 1c), the input route update message indicating that each one in a peer set of UEs is attached to the peer radio network node (1b, 1c); adjusting the routing table based on the peer set of UEs, such that all UEs in the peer set of UEs are associated with the same tunnel (11a, 11b) for communicating with the peer radio network node (1b, 1c); and routing radio bearer traffic in the tunnel to the peer radio network node (1b, 1c) in accordance with the routing table.