mhurhangee/ep-ind-claims huggingface dataset:
A medical drug delivery apparatus for delivering a liquid drug, comprising A cartridge containing the liquid drug to be delivered, the cartridge comprising a distal end and a proximal end connected by an inner wall forming a space containing the liquid drug, the distal end being closed by a flexible membrane, and the proximal end being closed by a movable piston having a front-wall and a back-wall, and which piston can be moved inside the cartridge by a piston rod thereby decreasing the variable space between the flexible membrane and a front wall of the piston, and A piston rod foot provided between the piston rod and the piston, the piston rod foot having a distal surface for abutting the back-wall of the piston and a proximal surface abutting the piston rod, Characterized in that, the piston rod foot has a number of arms extending in a direction perpendicular to a longitudinal axis of the cartridge and which arms engages the inner wall of the cartridge.
A method for providing an optimal quantity of aircraft fuel, comprising: collecting recorded flight data from past flights of an aircraft; determining, using an Aircraft Performance Monitoring tool, aircraft specific performance correction parameters comprising drag and fuel factors ( ε D CLB,ε D CRZ,ε D DES,ε FF CLB,ε FF CRZ,ε FF DES) for each of the climb, cruise, and descent flight phases, using the recorded flight data; collecting a flight plan of the aircraft; determining, using a flight planning tool, the total fuel required for the given flight plan, using the aircraft specific performance correction parameters; determining a single synthetic drag factor ( ε D FMS) and a single synthetic fuel factor ( ε FF FMS) that, when used by the aircraft FMS, yield the said total fuel required for the given flight plan; communicating the given flight plan, the single synthetic drag factor ( ε D FMS) and the single synthetic fuel factor ( ε FF FMS) to the aircraft FMS; receiving an estimated total fuel required determined by the aircraft FMS based on the flight plan, the single synthetic drag factor ( ε D FMS) and the single synthetic fuel factor ( ε FF FMS); request loading of an amount of fuel onto the aircraft based on the estimated total fuel required for the given flight plan. collecting recorded flight data from past flights of an aircraft; determining, using an Aircraft Performance Monitoring tool, aircraft specific performance correction parameters comprising drag and fuel factors ( ε D CLB,ε D CRZ,ε D DES,ε FF CLB,ε FF CRZ,ε FF DES) for each of the climb, cruise, and descent flight phases, using the recorded flight data; collecting a flight plan of the aircraft; determining, using a flight planning tool, the total fuel required for the given flight plan, using the aircraft specific performance correction parameters; determining a single synthetic drag factor ( ε D FMS) and a single synthetic fuel factor ( ε FF FMS) that, when used by the aircraft FMS, yield the said total fuel required for the given flight plan; communicating the given flight plan, the single synthetic drag factor ( ε D FMS) and the single synthetic fuel factor ( ε FF FMS) to the aircraft FMS; receiving an estimated total fuel required determined by the aircraft FMS based on the flight plan, the single synthetic drag factor ( ε D FMS) and the single synthetic fuel factor ( ε FF FMS); request loading of an amount of fuel onto the aircraft based on the estimated total fuel required for the given flight plan.
A method for allocating a slice instance of a communications network, the method comprising: obtaining, by a management function, requirements for the slice instance; checking, by the management function, a feasibility of the slice instance requirements in view of one or more of network resources and network capabilities; preparing, by the management function, a network environment for the slice instance in view of the slice instance requirements; and commissioning, by the management function, the slice instance; wherein when checking the feasibility results in a determination that the requirements for the slice instance are not feasible, the method further comprising negotiating, by the management function, requirements for the slice instance with a 3GPP entity. obtaining, by a management function, requirements for the slice instance; checking, by the management function, a feasibility of the slice instance requirements in view of one or more of network resources and network capabilities; preparing, by the management function, a network environment for the slice instance in view of the slice instance requirements; and commissioning, by the management function, the slice instance; wherein when checking the feasibility results in a determination that the requirements for the slice instance are not feasible, the method further comprising negotiating, by the management function, requirements for the slice instance with a 3GPP entity.
An apparatus comprising an assembly for use with a mattress for managing environmental conditions comprising a liquid transport layer. a liquid impermeable base layer beneath the transport layer, an air mover in fluid communication with the transport layer, wherein operation of the air mover moves air and liquid through the liquid transport layer in a preferred direction, and a reservoir positioned downstream of the liquid transport layer such that the reservoir captures liquid discharged from the liquid transport layer, characterized in that the liquid transport layer comprises a liquid permeable filler material having liquid flow channels sized to permit liquid transport therethrough and oriented to direct the liquid in the preferred direction.
A loop type heat pipe comprising: an evaporator that is configured to evaporate a working fluid; a condenser that is configured to condense the evaporated working fluid; a vapor pipe that is provided between the evaporator and the condenser, and through which the evaporated working fluid flows; and a liquid pipe that is provided between the evaporator and the condenser, and through which the liquid-phase working fluid flows; wherein the vapor pipe comprises: a lower-side metal layer; an intermediate metal layer that is disposed on the lower-side metal layer; an upper-side metal layer that is disposed on the intermediate metal layer; a pipe conduit that is formed by the lower-side metal layer, the intermediate metal layer and the upper-side metal layer; and a support column that is provided inside the pipe conduit and is connected to the lower-side metal layer and the upper-side metal layer; wherein the support column divides the pipe conduit into a first flow path and a second flow path, characterised in that the support column in the pipe conduit has a first opening portion that communicates with the first flow path and the second flow path. an evaporator that is configured to evaporate a working fluid; a condenser that is configured to condense the evaporated working fluid; a vapor pipe that is provided between the evaporator and the condenser, and through which the evaporated working fluid flows; and a liquid pipe that is provided between the evaporator and the condenser, and through which the liquid-phase working fluid flows; wherein the vapor pipe comprises: a lower-side metal layer; an intermediate metal layer that is disposed on the lower-side metal layer; an upper-side metal layer that is disposed on the intermediate metal layer; a pipe conduit that is formed by the lower-side metal layer, the intermediate metal layer and the upper-side metal layer; and a support column that is provided inside the pipe conduit and is connected to the lower-side metal layer and the upper-side metal layer; wherein the support column divides the pipe conduit into a first flow path and a second flow path, characterised in that the support column in the pipe conduit has a first opening portion that communicates with the first flow path and the second flow path. a lower-side metal layer; an intermediate metal layer that is disposed on the lower-side metal layer; an upper-side metal layer that is disposed on the intermediate metal layer; a pipe conduit that is formed by the lower-side metal layer, the intermediate metal layer and the upper-side metal layer; and a support column that is provided inside the pipe conduit and is connected to the lower-side metal layer and the upper-side metal layer; wherein the support column divides the pipe conduit into a first flow path and a second flow path, characterised in that the support column in the pipe conduit has a first opening portion that communicates with the first flow path and the second flow path.
A packet processing method, wherein the method comprises: receiving, by a first network device, a first packet comprising a format of a segment identifier of a second network device, and the format of the segment identifier of the second network device describes at least a length of a locator field and a length of a function field in a segment routing over version 6 of the Internet Protocol, SRv6, segment identifier of the second network device; obtaining, by the first network device, based on the first packet, the format of the segment identifier of the second network device; wherein the format of the segment identifier of the second network device comprises a first sub field describing the length of the locator field in the SRv6 segment identifier of the second network device, and a second sub field describing the length of the function field in the SRv6 segment identifier of the second network device. receiving, by a first network device, a first packet comprising a format of a segment identifier of a second network device, and the format of the segment identifier of the second network device describes at least a length of a locator field and a length of a function field in a segment routing over version 6 of the Internet Protocol, SRv6, segment identifier of the second network device; obtaining, by the first network device, based on the first packet, the format of the segment identifier of the second network device; wherein the format of the segment identifier of the second network device comprises a first sub field describing the length of the locator field in the SRv6 segment identifier of the second network device, and a second sub field describing the length of the function field in the SRv6 segment identifier of the second network device.
Cooking appliance comprising at least one cooking chamber, one control device and at least one heating device, at least one heating device comprising a power oscillator as a microwave generator, so that the heating device is suitable for heating food which can be placed in the cooking chamber, at least one detection device and one evaluation device being provided, by means of which the presence of metal in a sample placed in the cooking chamber can be detected during operation of the cooking appliance, characterised in that the power oscillator is used as the detection device.
A system having a secured access comprising: one or more vehicle buses (21, 22); one or more electronic control units, ECUs, (15, 16, 17, 18) on a vehicle connected to the one or more vehicle buses; a security module (14, 32) connected to the one or more vehicle buses; a vehicle access port connected to the security module; and an accessing entity (13, 31) connected to the vehicle access port having a certificate and configured to send the certificate to the security module; and wherein the security module and the accessing entity are adapted to encrypt and decrypt vehicle bus messages injected or extracted by the accessing entity, using a key shared between only the security module and the accessing entity; wherein the security module is configured to derive the shared key from a random code generated and encrypted into a message, using a public key extracted from the certificate and the accessing entity is configured to decrypt the message and obtain the random code using a private key corresponding to the public key. one or more vehicle buses (21, 22); one or more electronic control units, ECUs, (15, 16, 17, 18) on a vehicle connected to the one or more vehicle buses; a security module (14, 32) connected to the one or more vehicle buses; a vehicle access port connected to the security module; and an accessing entity (13, 31) connected to the vehicle access port having a certificate and configured to send the certificate to the security module; and wherein the security module and the accessing entity are adapted to encrypt and decrypt vehicle bus messages injected or extracted by the accessing entity, using a key shared between only the security module and the accessing entity; wherein the security module is configured to derive the shared key from a random code generated and encrypted into a message, using a public key extracted from the certificate and the accessing entity is configured to decrypt the message and obtain the random code using a private key corresponding to the public key.
Shaped ceramic abrasive particle (20, 20a-e), in particular based on alpha-Al 2 O 3, having at least three faces (16, 17, 18) of which at least two faces (16, 17, 18) form a common edge (12, 12a) on which at least one corner common to the three faces (16, 17, 18) is located, where the abrasive particle (20, 20a-e) has at least one structure-weakening element (22, 22a-d), characterized in that the at least one structure-weakening element (22, 22a, 22b) is realized as a closed recess in the material, in particular as a void, a bubble or a pore, in the abrasive particle (20, 20a, 20b, 20e), where the at least one structure-weakening element (22, 22a, 22b) has an essentially convexly curved, in particular spherical, preferably ball-like, shape having a radius of curvature of from 10 μm to 200 μm, preferably from 25 μm to 175 μm, particularly preferably from 25 μm to 50 μm.
Washing machine comprising a suds container, which is secured in or to a support device such that it can move in an oscillating manner and comprises a drum, which is rotatably arranged therein and comprises an at least approximately horizontal rotary shaft, which can be driven by means of a motor, comprising a sensor apparatus for detecting the position and/or the location and the movement of the suds container, comprising a balance apparatus having at least three chambers that are annularly distributed over at least one end wall of the drum, and comprising a control apparatus designed to control an injection apparatus for filling one or more chambers with water on the basis of the detected imbalance (mu) in order to at least approximately compensate for the detected imbalance (mu) when the drum is rotating, characterised in that the injection apparatus comprises a storage container which can be filled by means of a water-supply apparatus and also comprises a pump which is designed to meter, in a controlled and precise manner, the quantity of water to be injected which is predetermined by the control apparatus into the relevant chambers for correcting the imbalance and in that the storage container can be filled while forming a free flow path.
A wireless device for facilitating mobility management, comprising: a processor for configuring a packet header for a handoff request, wherein the packet header includes a source address and a destination address, the source address and the destination address both being set to an address of a first access router; and a transmitter for transmitting the configured packet header to the first access router in response to a neighbor resolution failure received from a second access router, indicating that the first access router was not identified by the second access router. a processor for configuring a packet header for a handoff request, wherein the packet header includes a source address and a destination address, the source address and the destination address both being set to an address of a first access router; and a transmitter for transmitting the configured packet header to the first access router in response to a neighbor resolution failure received from a second access router, indicating that the first access router was not identified by the second access router.
A double glazing insulation system comprising: a double glazing including a chamber formed between a pair of glass windows, a bead entrance through which a plurality of beads and air enter and exit from the chamber, and an air entrance through which air enters and exits from the chamber; a reservoir for storing the plurality of beads; a bead flow pipe connecting the reservoir and the bead entrance to guide a flow of the plurality of beads such that the plurality of beads are filled into the chamber from the reservoir or the beads are discharged from the chamber into the reservoir; an air discharge pipe connected to the reservoir to guide a flow of air discharged from the reservoir; an air flow pipe connected to the air entrance to guide a flow of air entering and exiting from the air entrance; and a communication pipe for allowing the air flow pipe to communicate with the air discharge pipe, characterized by further comprising: a main blower provided in the communication pipe to suck air in the chamber through the air flow pipe to fill the chamber with the plurality of beads or to suck air in the chamber through the bead flow pipe, the reservoir, and the air discharge pipe to discharge the plurality of beads from the chamber into the reservoir. a double glazing including a chamber formed between a pair of glass windows, a bead entrance through which a plurality of beads and air enter and exit from the chamber, and an air entrance through which air enters and exits from the chamber; a reservoir for storing the plurality of beads; a bead flow pipe connecting the reservoir and the bead entrance to guide a flow of the plurality of beads such that the plurality of beads are filled into the chamber from the reservoir or the beads are discharged from the chamber into the reservoir; an air discharge pipe connected to the reservoir to guide a flow of air discharged from the reservoir; an air flow pipe connected to the air entrance to guide a flow of air entering and exiting from the air entrance; and a communication pipe for allowing the air flow pipe to communicate with the air discharge pipe, characterized by further comprising: a main blower provided in the communication pipe to suck air in the chamber through the air flow pipe to fill the chamber with the plurality of beads or to suck air in the chamber through the bead flow pipe, the reservoir, and the air discharge pipe to discharge the plurality of beads from the chamber into the reservoir.
A combination of a microneedle and a jig for allowing small needles of the microneedle to carry a drug liquid, the jig having a roll-like shape, and the jig having one or more drug liquid holding grooves, wherein the jig is made of metal, a) a pitch distance between the drug liquid holding grooves is 300 to 1000 μm; b) a width of each groove is 100 to 700 μm; and c) a depth of each groove is 100 to 700 μm, the microneedle is made of an aliphatic polyester selected from polylactic acid, polyglycolic acid, and a copolymer of lactic acid and glycolic acid, the microneedle is a pin-frog-shaped plate, having a size of 0.5 to 1.5 cm long and wide, on which 9 to 500 small needles are placed as follows, the height of the small needles being 200 μm to 1 mm; the maximum diameter of the base of the small needles being 50 μm to 500 μm; the interval distance between the small needles being 300 μm to 1 mm, and the small needles being aligned in 3 to 30 horizontal rows and 3 to 30 vertical rows. a) a pitch distance between the drug liquid holding grooves is 300 to 1000 μm; b) a width of each groove is 100 to 700 μm; and c) a depth of each groove is 100 to 700 μm,
A method, comprising: obtaining a dark-field signal generated from a dark-field CT scan of an object using a detector array that detects radiation emitted from a focal spot and traversing the examination region, wherein the dark-field CT scan is at least a 360 degree scan; weighting the dark-field signal; and performing a cone beam reconstruction of the weighted dark-field signal over the 360 degree scan, thereby generating volumetric image data. wherein the weighting is based on the fan angle of the dark-field signal. obtaining a dark-field signal generated from a dark-field CT scan of an object using a detector array that detects radiation emitted from a focal spot and traversing the examination region, wherein the dark-field CT scan is at least a 360 degree scan; weighting the dark-field signal; and performing a cone beam reconstruction of the weighted dark-field signal over the 360 degree scan, thereby generating volumetric image data. wherein the weighting is based on the fan angle of the dark-field signal.
Composition comprising a PEKK powder, the tapped density of which is less than 400 kg/m 3, limit included, measured according to ISO 1068-1975, and the flowability of which exhibits a passage time in a 12 mm funnel of less than 50 s, limit included, or a passage time in a 17 mm funnel of less than 30 s.
System for controlling a rotor drive of an open-end rotor spinning machine, comprising of: An open-end rotor spinning machine with a multitude of workstations, each comprising a rotor drive with a control unit which has at least one communication interface (18, 19) for connecting a workstation control unit which automatically controls the work process at the workstation, while the respective workstation control units are connected to a main control unit via a bus system and to the respective control units of the rotor drives via a wiring system, and external means serving as an alternative for controlling the individual rotor drives and for reading signals representing the operating status data of the rotor drive from the individual control units of the rotor drives independently of the open-end rotor spinning machine via at least one communication interface (18, 19) of the control units for setting and verification purposes, characterised in that the individual communication interfaces (18, 19) of the rotor drives are interfaces with a diagnostic interface as an integral part, while the signals of all components communicating with the control units of the rotor drives can be read via the diagnostic interface for verification purposes. An open-end rotor spinning machine with a multitude of workstations, each comprising a rotor drive with a control unit which has at least one communication interface (18, 19) for connecting a workstation control unit which automatically controls the work process at the workstation, while the respective workstation control units are connected to a main control unit via a bus system and to the respective control units of the rotor drives via a wiring system, and external means serving as an alternative for controlling the individual rotor drives and for reading signals representing the operating status data of the rotor drive from the individual control units of the rotor drives independently of the open-end rotor spinning machine via at least one communication interface (18, 19) of the control units for setting and verification purposes, characterised in that the individual communication interfaces (18, 19) of the rotor drives are interfaces with a diagnostic interface as an integral part, while the signals of all components communicating with the control units of the rotor drives can be read via the diagnostic interface for verification purposes.