mhurhangee/ep-ind-claims huggingface dataset:
A method for data transmission, performed by a terminal device, the method comprising: determining a basic parameter set adopted for a first sidelink, SL, channel based on a first carrier and a second correspondence relationship; and performing data transmission on the first SL channel based on the basic parameter set, wherein the first SL channel is transmitted on the first carrier, wherein the first carrier is configured to transmit uplink data; wherein determining the basic parameter set adopted for the first SL channel based on the first carrier and the second correspondence relationship comprises: when the first carrier is a carrier configured to transmit uplink data, adopting a same basic parameter set for the first SL channel as that for the uplink data; wherein the basic parameter set comprises a cyclic prefix, CP, length or a CP type. determining a basic parameter set adopted for a first sidelink, SL, channel based on a first carrier and a second correspondence relationship; and performing data transmission on the first SL channel based on the basic parameter set, wherein the first SL channel is transmitted on the first carrier, wherein the first carrier is configured to transmit uplink data; wherein determining the basic parameter set adopted for the first SL channel based on the first carrier and the second correspondence relationship comprises: when the first carrier is a carrier configured to transmit uplink data, adopting a same basic parameter set for the first SL channel as that for the uplink data; wherein the basic parameter set comprises a cyclic prefix, CP, length or a CP type. when the first carrier is a carrier configured to transmit uplink data, adopting a same basic parameter set for the first SL channel as that for the uplink data; wherein the basic parameter set comprises a cyclic prefix, CP, length or a CP type.
A computer-implemented method of generating a treatment plan for treating a patient with radiotherapy, the method comprising: identifying one or more organs at risk for a planning target volume; obtaining a plurality of sample plans, wherein the plurality of sample plans are generated by use of a knowledge base comprising historical treatment plans and patient data; performing a multi-criteria optimization, based on the plurality of sample plans, to construct a Pareto frontier, wherein the plurality of sample plans are evaluated with at least two objectives measuring qualities of the plurality of sample plans, wherein treatment plans on the constructed Pareto frontier are Pareto optimal with respect to the objectives, wherein performing the multi-criteria optimization further comprises generating a Pareto frontier with one organ at risk at a time if there are multiple organs at risk identified for the planning target volume; and generating a treatment plan by use of a constructed Pareto frontier, wherein generating a treatment plan by use of the constructed Pareto frontier comprises generating (i) a combinational treatment plan comprising a combination of sample plans and (ii) a machine deliverable control point sequence corresponding to the combinational treatment plan, wherein said control point sequence is a sequence that can be delivered by a treatment machine. identifying one or more organs at risk for a planning target volume; obtaining a plurality of sample plans, wherein the plurality of sample plans are generated by use of a knowledge base comprising historical treatment plans and patient data; performing a multi-criteria optimization, based on the plurality of sample plans, to construct a Pareto frontier, wherein the plurality of sample plans are evaluated with at least two objectives measuring qualities of the plurality of sample plans, wherein treatment plans on the constructed Pareto frontier are Pareto optimal with respect to the objectives, wherein performing the multi-criteria optimization further comprises generating a Pareto frontier with one organ at risk at a time if there are multiple organs at risk identified for the planning target volume; and generating a treatment plan by use of a constructed Pareto frontier, wherein generating a treatment plan by use of the constructed Pareto frontier comprises generating (i) a combinational treatment plan comprising a combination of sample plans and (ii) a machine deliverable control point sequence corresponding to the combinational treatment plan, wherein said control point sequence is a sequence that can be delivered by a treatment machine.
A chain saw comprising an endless saw chain and a saw bar with a peripheral track for the saw chain, the saw chain having a plurality of chain links and/or chain link components which comprise at least one tie strap having a cavity or notch arranged at a first lateral surface thereof, the first lateral surface facing a lateral surface of at least one adjacent chain link or chain link component, wherein the cavity or notch - is manufactured during a deforming process; - comprises an extension essentially in the driving direction of the saw chain and, at least in part, a dilatation, an extension and/or a branching essentially extending in the direction perpendicular thereto, wherein the cavity or notch serves as a reservoir for a lubricant, in particular for oil, for lubrication of the saw chain, wherein at least a portion of the cavity or notch comprises a symbol thereby providing information to a user of the chain saw which symbol is triangular, characterized in that a first corner of the triangular symbol terminates at a rivet bore arranged at the tie strap. - is manufactured during a deforming process; - comprises an extension essentially in the driving direction of the saw chain and, at least in part, a dilatation, an extension and/or a branching essentially extending in the direction perpendicular thereto, wherein the cavity or notch serves as a reservoir for a lubricant, in particular for oil, for lubrication of the saw chain, wherein at least a portion of the cavity or notch comprises a symbol thereby providing information to a user of the chain saw which symbol is triangular, characterized in that
Voltage presence determination system intended to be connected to a voltage measurement sensor for at least one phase of a high-voltage electrical network, the system comprising, for said at least one phase: - a visual indicator of the presence of a voltage measured by the voltage measurement sensor, referred to as the measured voltage, - a first output terminal configured to receive a first output signal which is representative of the measured voltage in terms of phase angle and amplitude, - a second output terminal configured to receive a second output signal which is representative of the measured voltage in terms of phase angle and amplitude, and - a plurality of linear components (15, 16), the first and second output terminals (8, 9) being connected downstream of the visual indicator, the system being configured so that the first and second output terminals (8, 9) are functionally isolated from one another and functionally isolated from the visual indicator only by the plurality of linear components. - a visual indicator of the presence of a voltage measured by the voltage measurement sensor, referred to as the measured voltage, - a first output terminal configured to receive a first output signal which is representative of the measured voltage in terms of phase angle and amplitude, - a second output terminal configured to receive a second output signal which is representative of the measured voltage in terms of phase angle and amplitude, and - a plurality of linear components (15, 16), the first and second output terminals (8, 9) being connected downstream of the visual indicator, the system being configured so that the first and second output terminals (8, 9) are functionally isolated from one another and functionally isolated from the visual indicator only by the plurality of linear components.
Solar concentrator comprising: - a concentrator's main body; - a pedestal; - a plurality of transverse arms supported by the concentrator's main body, wherein the transverse arms are connected to a plurality of longitudinal bars; - one or more facets used as reflective element of the solar concentrator, the facet comprising a facet's main body defining a front surface and a back surface, wherein the back surface of the facet's main body is attached to at least three substantially linear ribs, which are arranged substantially parallel along said back surface; wherein at least one of the three ribs is configured with adjustable anchoring means adapted for their connection to the longitudinal bars, such that the distance between at least one of the three ribs and the longitudinal bars can be varied by adjusting the anchoring means; and wherein the longitudinal bars are configured with a plurality of anchoring points adapted to attach the facets to the longitudinal bars through the anchoring means; the solar concentrator being characterised in that each rib comprises a plurality of anchoring orifices adapted for receiving the adjustable anchoring means. - a concentrator's main body; - a pedestal; - a plurality of transverse arms supported by the concentrator's main body, wherein the transverse arms are connected to a plurality of longitudinal bars; - one or more facets used as reflective element of the solar concentrator, the facet comprising a facet's main body defining a front surface and a back surface, wherein the back surface of the facet's main body is attached to at least three substantially linear ribs, which are arranged substantially parallel along said back surface; wherein at least one of the three ribs is configured with adjustable anchoring means adapted for their connection to the longitudinal bars, such that the distance between at least one of the three ribs and the longitudinal bars can be varied by adjusting the anchoring means; and wherein the longitudinal bars are configured with a plurality of anchoring points adapted to attach the facets to the longitudinal bars through the anchoring means; the solar concentrator being characterised in that each rib comprises a plurality of anchoring orifices adapted for receiving the adjustable anchoring means.
A hammer device (100, 500) comprising: - a frame (101, 501) attachable to a working machine, the frame comprising attachment members (102, 502) for attaching to the working machine so that the frame is nondestructively detachable from the working machine, and - an actuator member (103, 503) linearly movably supported with respect to the frame, wherein the hammer device comprises a linear electric machine comprising: - a mover (104, 204, 304, 404, 504) for linearly moving the actuator member, and - a stator (105, 205, 305, 505) connected to the frame, provided with windings (106, U, V, W, 306, 506) for generating a magnetic force directed to the mover in response to electric current supplied to the windings, wherein the mover (304, 404, 504) comprises an active part containing permanent magnets (307, 308) provided one after another in a longitudinal direction of the mover, the stator (305, 505) comprises a ferromagnetic core-structure, and the linear electric machine comprises first and second support structures (323, 324, 423) on both sides of the ferromagnetic core-structure of the stator in the longitudinal direction of the mover, the first and second support structures supporting the mover to be linearly movable with respect to the stator in the longitudinal direction of the mover, the active part of the mover being longer in the longitudinal direction of the mover than the ferromagnetic core-structure of the stator, and wherein the first support structure (323, 423) comprises a frame-portion (325, 425) made of solid metal and a support element (326, 426) arranged to keep the mover a distance away from the solid metal, the support element comprising a sliding surface (327, 427) being against the mover and material whose electrical conductivity is at most half of electrical conductivity of the solid metal, characterized in that the support element is tubular and arranged to surround an end-portion of the mover. - a frame (101, 501) attachable to a working machine, the frame comprising attachment members (102, 502) for attaching to the working machine so that the frame is nondestructively detachable from the working machine, and - an actuator member (103, 503) linearly movably supported with respect to the frame, - a mover (104, 204, 304, 404, 504) for linearly moving the actuator member, and - a stator (105, 205, 305, 505) connected to the frame, provided with windings (106, U, V, W, 306, 506) for generating a magnetic force directed to the mover in response to electric current supplied to the windings,
A motor for a household appliance comprising: a machine body; and a casing, comprising a housing accommodating the machine body inside, and a first connector and a second connector extending outward from the housing, wherein the first and second connectors (18, 20) are configured to bond the motor to another element, such as a pump; the first connector is configured to alleviate at least most of a displacement between the motor and the other element; the second connector is configured to absorb expansion displacement between the motor and the other element; and wherein flexibility of the first connector is greater than that of the second connector. a machine body; and a casing, comprising a housing accommodating the machine body inside, and a first connector and a second connector extending outward from the housing, wherein the first and second connectors (18, 20) are configured to bond the motor to another element, such as a pump; the first connector is configured to alleviate at least most of a displacement between the motor and the other element; the second connector is configured to absorb expansion displacement between the motor and the other element; and wherein flexibility of the first connector is greater than that of the second connector.
Level radar apparatus configured for adaptive transmission power adjustment, comprising: antenna means configured to radiate a transmit signal toward a fill medium; radiation angle determining means configured to determine the direction of radiation of the transmitted signal; control means, characterized in that the control means is configured to adjust a transmission power of the transmission signal based on the radiation direction and a radiation characteristic of the antenna means. antenna means configured to radiate a transmit signal toward a fill medium; radiation angle determining means configured to determine the direction of radiation of the transmitted signal; control means, characterized in that the control means is configured to adjust a transmission power of the transmission signal based on the radiation direction and a radiation characteristic of the antenna means.
System comprising a nebulizer for nebulizing a fluid and a container containing multiple doses of the fluid, wherein the nebulizer is an inhaler for converting the fluid into an aerosol, the droplets of which have an aerodynamic diameter of 3 to 10 microns with a high fraction of particles being smaller 5 microns, and wherein the nebulizer comprises a fluid pump for withdrawing a dose of the fluid from the container and pressurizing the respective dose for nebulization with operational pressure of 5 to 250 MPa, in particular 10 to 50 MPa, and a microstructured component forming a nozzle with nozzle channels having a hydraulic diameter in the range of 3 to 20 microns, in particular 4 to 12 microns, most preferably 5 to 8 microns characterized in that at room temperature the fluid has a viscosity at rest of more than 1.7*10 -3 Pascal seconds (1.7 centipoise), preferably more than 0.1 Pascal seconds 100 centipoise), and that the fluid has a shear-thinning behavior, wherein in normal operation, the fluid pump is configured to pressurize the dose of fluid with a pressure of 20 to 50 MPa, wherein the system is configured such that pressure peaks of up to 100 MPa (1000 bar) occurs during priming of the nebulizer, i.e. when the fluid is distributed in the nebulizer for the first time at the first actuations of the fluid pump. wherein the nebulizer comprises a fluid pump for withdrawing a dose of the fluid from the container and pressurizing the respective dose for nebulization with operational pressure of 5 to 250 MPa, in particular 10 to 50 MPa, and a microstructured component forming a nozzle with nozzle channels having a hydraulic diameter in the range of 3 to 20 microns, in particular 4 to 12 microns, most preferably 5 to 8 microns characterized in that at room temperature the fluid has a viscosity at rest of more than 1.7*10 -3 Pascal seconds (1.7 centipoise), preferably more than 0.1 Pascal seconds 100 centipoise), and that the fluid has a shear-thinning behavior, wherein in normal operation, the fluid pump is configured to pressurize the dose of fluid with a pressure of 20 to 50 MPa, wherein the system is configured such that pressure peaks of up to 100 MPa (1000 bar) occurs during priming of the nebulizer, i.e. when the fluid is distributed in the nebulizer for the first time at the first actuations of the fluid pump.
A handheld tool comprising: a pole member having a first end and a second end distal to the first end, wherein the second end of the pole member includes a cover portion having an opening; an implement member operably disposed at the first end of the pole member; a handle member having a holding portion and an elongated tube portion extending from the holding portion, wherein an outer diameter of the elongated tube portion corresponds to a diameter of the opening and is less than an inner diameter of the pole member, and a cable member extending through the pole member to connect the implement member with the handle member, characterized in that, the elongated tube portion being provided with a sliding member slidably associated with the pole member for allowing telescopic movement of the elongated tube portion with respect to the pole member, wherein during the telescopic movement of the elongated tube portion, the sliding member of the elongated tube portion remains in contact with a first inner cylindrical surface of the pole member. a pole member having a first end and a second end distal to the first end, wherein the second end of the pole member includes a cover portion having an opening; an implement member operably disposed at the first end of the pole member; a handle member having a holding portion and an elongated tube portion extending from the holding portion, wherein an outer diameter of the elongated tube portion corresponds to a diameter of the opening and is less than an inner diameter of the pole member, and a cable member extending through the pole member to connect the implement member with the handle member, characterized in that, the elongated tube portion being provided with a sliding member slidably associated with the pole member for allowing telescopic movement of the elongated tube portion with respect to the pole member, wherein during the telescopic movement of the elongated tube portion, the sliding member of the elongated tube portion remains in contact with a first inner cylindrical surface of the pole member.
A computer-implemented method for automatically fitting a haptic effect, the computer-implemented method comprising: receiving source data (210, 310), wherein the source data (210, 310) comprises a characteristic; characterized by: comparing the source data (210, 310) with a plurality of haptic primitives, wherein each haptic primitive of the plurality of haptic primitives comprises a haptic parameter; selecting a haptic primitive from the plurality of haptic primitives, in which a value of the haptic parameter is most similar to a value of the characteristic of the source data, based on the comparison; and outputting a haptic effect based on the selected haptic primitive. receiving source data (210, 310), wherein the source data (210, 310) comprises a characteristic; characterized by: comparing the source data (210, 310) with a plurality of haptic primitives, wherein each haptic primitive of the plurality of haptic primitives comprises a haptic parameter; selecting a haptic primitive from the plurality of haptic primitives, in which a value of the haptic parameter is most similar to a value of the characteristic of the source data, based on the comparison; and outputting a haptic effect based on the selected haptic primitive. comparing the source data (210, 310) with a plurality of haptic primitives, wherein each haptic primitive of the plurality of haptic primitives comprises a haptic parameter; selecting a haptic primitive from the plurality of haptic primitives, in which a value of the haptic parameter is most similar to a value of the characteristic of the source data, based on the comparison; and outputting a haptic effect based on the selected haptic primitive.
A method of enabling an ad hoc network, comprising: receiving advertised capabilities from a plurality of available radio access technologies, RATs (RAT_1-RAT_N); comparing quality of service, QoS, requirements of a multimedia application (APP_1-APP_K) to the advertised capabilities of the available RATs (RAT_1-RAT_N); selecting a radio access technology, RAT, from the plurality of available RATs (RAT_1-RAT_N); allocating multimedia packets to available unlicensed frequency bands for use by the RAT selected from the plurality of available RATs (RAT_1-RAT_N) based on the comparison of QoS requirements of the multimedia application (APP_1-APP_K) to the advertised capabilities of the available RATs (RAT_1 -RAT_N); and using peer-to-peer communication with at least one other node to coordinate a cluster of nodes as the ad hoc network. receiving advertised capabilities from a plurality of available radio access technologies, RATs (RAT_1-RAT_N); comparing quality of service, QoS, requirements of a multimedia application (APP_1-APP_K) to the advertised capabilities of the available RATs (RAT_1-RAT_N); selecting a radio access technology, RAT, from the plurality of available RATs (RAT_1-RAT_N); allocating multimedia packets to available unlicensed frequency bands for use by the RAT selected from the plurality of available RATs (RAT_1-RAT_N) based on the comparison of QoS requirements of the multimedia application (APP_1-APP_K) to the advertised capabilities of the available RATs (RAT_1 -RAT_N); and using peer-to-peer communication with at least one other node to coordinate a cluster of nodes as the ad hoc network.
A powder transport container and a quantity of metal powder for additive manufacturing contained within the powder transport container, wherein the powder transport container is adapted to preserve the quantity of metal powder contained within it in a desired condition during transportation comprising: a pressure vessel containing the quantity of metal powder and a quantity of an inert pressurised gas, the pressure vessel comprising a part conical main body portion leading to an outlet through which, in use, the metal powder can flow out of the pressure vessel, and an outlet valve for selectively opening and closing the outlet, wherein the powder transport container further comprises a data sensing and/or logging means (60, 62, 64) adapted to monitor and/or log various parameters of the metal powder and/or the pressurised gas and further comprising a control unit adapted to record and log the sensor readings either continuously, or at intervals, the control unit comprising a communications module adapted to relay sensor readings, or log files, to a remote monitoring station, wherein the data sensing and/or logging means comprises an oxygen sensor.