mhurhangee/ep-ind-claims huggingface dataset:
Use of a herbicide enhancer agent for enhancing the efficiency of herbicides, wherein the herbicide enhancer agent comprises a polymer of a hydroxycinnamic acid with an average molecular mass higher than 400 g/mol.
A mobile node for measuring quality of service, QoS, in a tunneling layer using multiple radio access technologies, RAT, having computer circuitry configured to: receive packets of a data flow from separate tunnel connections, wherein a RAT communicates via the tunnel connections; generate a QoS metric for the data flow from a QoS parameter within an enhanced tunneling header of a received packet, characterized in the computer circuitry is further configured to: transmit a message request to an multi-RAT control gateway to change a dynamic load balancing, DLB, between the tunnel connections based on the QoS metric; receive, during a downlink DLB process, a message response from the multi-RAT control gateway with a start sequence number, SN, of a tunnel packet of the flow indicating when the DLB changes; receive, during an uplink DLB process, a message response from the multi-RAT control gateway acknowledging the DLB change; and transmit, during the uplink DLB process, a message request to the multi-RAT control gateway with the start SN of the tunnel packet of the flow indicating when the DLB changes. receive packets of a data flow from separate tunnel connections, wherein a RAT communicates via the tunnel connections; generate a QoS metric for the data flow from a QoS parameter within an enhanced tunneling header of a received packet, characterized in the computer circuitry is further configured to: transmit a message request to an multi-RAT control gateway to change a dynamic load balancing, DLB, between the tunnel connections based on the QoS metric; receive, during a downlink DLB process, a message response from the multi-RAT control gateway with a start sequence number, SN, of a tunnel packet of the flow indicating when the DLB changes; receive, during an uplink DLB process, a message response from the multi-RAT control gateway acknowledging the DLB change; and transmit, during the uplink DLB process, a message request to the multi-RAT control gateway with the start SN of the tunnel packet of the flow indicating when the DLB changes. transmit a message request to an multi-RAT control gateway to change a dynamic load balancing, DLB, between the tunnel connections based on the QoS metric; receive, during a downlink DLB process, a message response from the multi-RAT control gateway with a start sequence number, SN, of a tunnel packet of the flow indicating when the DLB changes; receive, during an uplink DLB process, a message response from the multi-RAT control gateway acknowledging the DLB change; and transmit, during the uplink DLB process, a message request to the multi-RAT control gateway with the start SN of the tunnel packet of the flow indicating when the DLB changes.
A carrier in oil-in-water (O/W) emulsion form comprising at least one aqueous phase and at least one oily phase and being free of quaternary ammonium halide comprising C 12, C 14, or C 16 alkyl groups, said at least one aqueous phase comprising at least one water-soluble surfactant and at least one thickener, wherein the water-soluble surfactant represents 0.01 % to 0.1 % by weight of a total weight of the carrier.
A magnetic resonance system, comprising: an array of radio-frequency amplifiers, wherein each of the radio-frequency amplifiers is configured to generate a B 1 excitation signal, the output of each RF amplifier being connected to one of a plurality of transmission channels (Tx); at least one RF coil assembly having multiple coil elements configured to transmit the generated excitation signal into an examination region and to receive magnetic resonance signals therefrom, each coil element comprising at least one conductor (22, 24); a plurality of connection panels each comprising a plurality of transceiver ports, each connection panel configured to be connected with the at least one RF coil assembly via its transceiver ports, each transceiver port configured for connecting at least one of said conductors (22,24) of said multiple coil elements to an individual transmission channel; a router interconnected between the array of RF amplifiers and the plurality of connection panels, the router being configured to route, in selectable form, a generated excitation signal via a corresponding transmission channel (Tx) to at least one transceiver port of any of the plurality of connection panels. an array of radio-frequency amplifiers, wherein each of the radio-frequency amplifiers is configured to generate a B 1 excitation signal, the output of each RF amplifier being connected to one of a plurality of transmission channels (Tx); at least one RF coil assembly having multiple coil elements configured to transmit the generated excitation signal into an examination region and to receive magnetic resonance signals therefrom, each coil element comprising at least one conductor (22, 24); a plurality of connection panels each comprising a plurality of transceiver ports, each connection panel configured to be connected with the at least one RF coil assembly via its transceiver ports, each transceiver port configured for connecting at least one of said conductors (22,24) of said multiple coil elements to an individual transmission channel; a router interconnected between the array of RF amplifiers and the plurality of connection panels, the router being configured to route, in selectable form, a generated excitation signal via a corresponding transmission channel (Tx) to at least one transceiver port of any of the plurality of connection panels.
A method of making a formed fibrous article comprising the steps of: forming a formed fibrous article having a three dimensional profile by forming a formed fibrous article and passing the formed fibrous article through a calendering station to thereby provide the formed fibrous article with the three dimensional profile; wherein the calendering station includes a vacuum roll and an opposed calender roll and a surface of the calender roll includes at least one recess, the recess being structured and arranged to provide the formed fibrous article with the three dimensional profile; pin-calendering the fibrous article in a pin calendering station between a first roll and a second roll, wherein the fibrous article is conveyed through a nip defined between the first roll and the second roll without the use of a carrier layer; wherein the first roll of the pin calendering station comprises a vacuum roll and the second roll comprises a pin calender roll. forming a formed fibrous article having a three dimensional profile by forming a formed fibrous article and passing the formed fibrous article through a calendering station to thereby provide the formed fibrous article with the three dimensional profile; wherein the calendering station includes a vacuum roll and an opposed calender roll and a surface of the calender roll includes at least one recess, the recess being structured and arranged to provide the formed fibrous article with the three dimensional profile; pin-calendering the fibrous article in a pin calendering station between a first roll and a second roll, wherein the fibrous article is conveyed through a nip defined between the first roll and the second roll without the use of a carrier layer;
A copper alloy comprising: 17 mass% to 34 mass% of Zn; 0.02 mass% to 2.0 mass% of Sn; 1.5 mass% to 5 mass% of Ni; optionally at least one or more selected from 0.003 mass% to 0.09 mass% of P, 0.005 mass% to 0.5 mass% of Al, 0.01 mass% to 0.09 mass% of Sb, 0.01 mass% to 0.09 mass% of As, and 0.0005 mass% to 0.03 mass% of Pb; optionally 0.0005 mass% or more and 0.2 mass% or less in total of at least one or more selected from Fe, Co, Mg, Mn, Ti, Zr, Cr, Si and rare earth metal elements, each contained in an amount of 0.0005 mass% or more and 0.05 mass% or less; and a balance consisting of Cu and unavoidable impurities, wherein a Zn content [Zn] (mass%), a Sn content [Sn] (mass%), and a Ni content [Ni] (mass%) satisfy relationships of 12 ≤ f 1 = Zn + 5 × Sn − 2 × Ni ≤ 30, 10 ≤ f 2 = Zn − 0.3 × Sn − 2 × Ni ≤ 28, and 10 ≤ f 3 = f 1 × 32 − f 1 × Ni 1 / 2 ≤ 33, the Sn content [Sn] (mass%) and the Ni content [Ni] (mass%) satisfy relationships of 1.2 ≤ 0.7 × Ni + Sn ≤ 4, and 1.4 ≤ Ni / Sn ≤ 90, conductivity is 13% IACS or more and 25% IACS or less, and in the metallographic structure, the ratio of an α phase is 99.5% or more by area ratio or the area ratio of a γ phase (γ)% and the area ratio of a β phase (β)% in an α phase matrix satisfy a relationship of 0≤2x(γ)+(β)≤0.7, and the γ phase having an area ratio of 0% to 0.3% and the β phase having an area ratio of 0% to 0.5% are dispersed in the α phase matrix. 17 mass% to 34 mass% of Zn; 0.02 mass% to 2.0 mass% of Sn; 1.5 mass% to 5 mass% of Ni; optionally at least one or more selected from 0.003 mass% to 0.09 mass% of P, 0.005 mass% to 0.5 mass% of Al, 0.01 mass% to 0.09 mass% of Sb, 0.01 mass% to 0.09 mass% of As, and 0.0005 mass% to 0.03 mass% of Pb; optionally 0.0005 mass% or more and 0.2 mass% or less in total of at least one or more selected from Fe, Co, Mg, Mn, Ti, Zr, Cr, Si and rare earth metal elements, each contained in an amount of 0.0005 mass% or more and 0.05 mass% or less; and a balance consisting of Cu and unavoidable impurities, wherein a Zn content [Zn] (mass%), a Sn content [Sn] (mass%), and a Ni content [Ni] (mass%) satisfy relationships of 12 ≤ f 1 = Zn + 5 × Sn − 2 × Ni ≤ 30, 10 ≤ f 2 = Zn − 0.3 × Sn − 2 × Ni ≤ 28, and 10 ≤ f 3 = f 1 × 32 − f 1 × Ni 1 / 2 ≤ 33, the Sn content [Sn] (mass%) and the Ni content [Ni] (mass%) satisfy relationships of 1.2 ≤ 0.7 × Ni + Sn ≤ 4, and 1.4 ≤ Ni / Sn ≤ 90, conductivity is 13% IACS or more and 25% IACS or less, and in the metallographic structure, the ratio of an α phase is 99.5% or more by area ratio or the area ratio of a γ phase (γ)% and the area ratio of a β phase (β)% in an α phase matrix satisfy a relationship of 0≤2x(γ)+(β)≤0.7, and the γ phase having an area ratio of 0% to 0.3% and the β phase having an area ratio of 0% to 0.5% are dispersed in the α phase matrix.
A helmet including a shield having inner coupling holes at both ends thereof and fitted and coupled to an assembly coupling hole of a shield coupling assembly provided at a helmet main body and a front opening configured to be opened and closed by the shield, the helmet comprising: a lock supporting member fixed to the helmet main body; and a locker including a shield mounting portion fixed to the shield and a touch unit, characterized in that the touch unit includes a locker hooking part coupled to be rotated with the shield mounting portion around a coupling shaft and a handle protruded outwards from the shield, wherein the locker hooking part is able to be coupled to or decoupled from the lock supporting member, wherein if the handle is pushed upwards, the locker hooking part moves downwards. a lock supporting member fixed to the helmet main body; and a locker including a shield mounting portion fixed to the shield and a touch unit,
A coating composition for metal surfaces comprising a polymer matrix and at least first and second functionalized nano-containers dispersed in the matrix, said first and second functionalized nano-containers containing respective active substances different from each other, wherein each of said first and second functionalized nano-containers defines a volume of nanometric size containing said active substance confined within a porous core and/or a porous shell that, in normal conditions, prevent the direct contact of the active substance with the external environment, while, in predetermined triggering conditions, allow the release of the active substance into the external environment.
An apparatus for flow measurements in a vessel, comprising a processor configured to: obtain a first ultrasound signal and a second ultrasound signal from an ultrasound transducer of an interventional device, wherein the first ultrasound signal is associated to ultrasound reflection at a first location (z 1) separate from a location of the ultrasound transducer and the second ultrasound signal is associated to ultrasound reflection at a second location (z 2) separate from the location of the ultrasound transducer; ascertain a first flow parameter at the first location and a second flow parameter at the second location based on the first and second ultrasound signals, respectively; ascertain a composite flow parameter based on the first flow parameter and the second flow parameter; output to a user interface the composite flow parameter. obtain a first ultrasound signal and a second ultrasound signal from an ultrasound transducer of an interventional device, wherein the first ultrasound signal is associated to ultrasound reflection at a first location (z 1) separate from a location of the ultrasound transducer and the second ultrasound signal is associated to ultrasound reflection at a second location (z 2) separate from the location of the ultrasound transducer; ascertain a first flow parameter at the first location and a second flow parameter at the second location based on the first and second ultrasound signals, respectively; ascertain a composite flow parameter based on the first flow parameter and the second flow parameter; output to a user interface the composite flow parameter.
A control system for a power production facility, the system comprising: a plant controller for receiving an indication of a measured power output of the power production facility that includes power generators and produces output signals; a processing unit included in the plant controller and responsive to executable computer instructions when executed on the processing unit to cause the plant controller to: create an output signal that causes an energy storage device to discharge in the event power reserves of the power generators cannot meet a requested ramp up rate; and create an output signal that causes the energy storage device to charge up in the event that the power capability of the power generators can meet a requested ramp down rate; characterised in that: the plant controller provides a signal to a utility that indicates a ramp rate availability (RR UpAvail, RR DownAvail), the ramp rate availability (RR UpAvail RR DownAvail) being calculated based on a relationship between a power production capability of power production devices located at the power production facility, a power set point and a charge status of the energy storage device. a plant controller for receiving an indication of a measured power output of the power production facility that includes power generators and produces output signals; a processing unit included in the plant controller and responsive to executable computer instructions when executed on the processing unit to cause the plant controller to: create an output signal that causes an energy storage device to discharge in the event power reserves of the power generators cannot meet a requested ramp up rate; and create an output signal that causes the energy storage device to charge up in the event that the power capability of the power generators can meet a requested ramp down rate; create an output signal that causes an energy storage device to discharge in the event power reserves of the power generators cannot meet a requested ramp up rate; and create an output signal that causes the energy storage device to charge up in the event that the power capability of the power generators can meet a requested ramp down rate; characterised in that: the plant controller provides a signal to a utility that indicates a ramp rate availability (RR UpAvail, RR DownAvail), the ramp rate availability (RR UpAvail RR DownAvail) being calculated based on a relationship between a power production capability of power production devices located at the power production facility, a power set point and a charge status of the energy storage device. the plant controller provides a signal to a utility that indicates a ramp rate availability (RR UpAvail, RR DownAvail), the ramp rate availability (RR UpAvail RR DownAvail) being calculated based on a relationship between a power production capability of power production devices located at the power production facility, a power set point and a charge status of the energy storage device.
Motor vehicle comprising, beneath its floor, a spare wheel, a fuel tank fastened to longitudinal members secured to the floor, and a deflector, the deflector being situated between the spare wheel and the fuel tank, the deflector being fastened to the longitudinal members of the vehicle, this deflector also being configured to deflect the spare wheel towards the roadway so as to prevent the spare wheel from perforating the fuel tank, and towards the central part of an axle of the vehicle that is situated between the tank and the roadway, during a rear impact experienced by the vehicle, the deflector comprising a bent tube of which two ends (13a, 13b) are fastened to the longitudinal members by removable fastening means.
A method for characterizing the effect of an agent on cells comprising: a) contacting samples of a population of cells with a series of different concentrations of an agent; b) measuring each of two or more phenotypic parameters in individual cells of a respective sample for each concentration; c) obtaining a distribution of measured values for the cells for each phenotypic parameter and each concentration; d) measuring each of the two or more phenotypic parameters in individual cells of a control sample not exposed to the agent; e) obtaining a distribution of measured values for the cells for each phenotypic parameter for the control sample; f) calculating, for each phenotypic parameter, dissimilarities between the distribution obtained in step e) and each of the distributions obtained in step c); g) combining the calculated dissimilarities to form a multiparametric response tensor; wherein the multiparametric response tensor is a fingerprint characteristic of the effect of the agent on the cells which can be directly compared to other fingerprints generated the same way. a) contacting samples of a population of cells with a series of different concentrations of an agent; b) measuring each of two or more phenotypic parameters in individual cells of a respective sample for each concentration; c) obtaining a distribution of measured values for the cells for each phenotypic parameter and each concentration; d) measuring each of the two or more phenotypic parameters in individual cells of a control sample not exposed to the agent; e) obtaining a distribution of measured values for the cells for each phenotypic parameter for the control sample; f) calculating, for each phenotypic parameter, dissimilarities between the distribution obtained in step e) and each of the distributions obtained in step c); g) combining the calculated dissimilarities to form a multiparametric response tensor; wherein the multiparametric response tensor is a fingerprint characteristic of the effect of the agent on the cells which can be directly compared to other fingerprints generated the same way.
A molded male surface fastener comprising resin invasion preventing walls, which prevent an invasion of a molding foamable resin material, on surfaces of right and left edge portions along a longitudinal direction of a flat base member having front and rear surfaces and made of a thermoplastic resin, a plurality of male engaging elements integrally provided on a surface of the flat base member between the left and right resin invasion preventing walls, and a magnetic material magnetically attracting or attracted and molded and integrated with the molding foamable resin material at the same time as a molding of the molding foamable resin material, wherein a linear sealing body that is made of a material different from materials of the flat base member and the male engaging elements and has a sealing property is fixed and supported along a top surface of each of the left and right resin invasion preventing walls, and being characterized in that each of the resin invasion preventing walls comprises a first linear sealing body nipping portion and a second linear sealing body nipping portion that are integrated with the base member along the longitudinal direction of the base member and extend in parallel, and the linear sealing body extends along the longitudinal direction between peripheral portions of top portions of the first and second linear sealing body nipping portions and.
A half-spiral housing of a radial fan with an extension over 180° of a logarithmic spiral and with a pressure chamber extending in the circumferential direction around an axial intake opening to a radial exhaust opening, which pressure chamber, as viewed in the circumferential direction, is subdivided into at least one initial portion, one middle portion, and one exhaust portion, wherein the intake opening defines a central axis of rotation for a fan wheel, and wherein an average half-spiral housing radius, as viewed around the axis of rotation, varies in the initial portion, middle portion, and exhaust portion and reaches its maximum in the exhaust portion, the half-spiral housing radius in the middle portion being reduced in a region that defines a maximum height H(δ,z) of the half-spiral housing in the radial direction relative to a logarithmic spiral radius (r log), characterized in that a radial extension of the pressure chamber in the region of the middle portion that defines the maximum height H(δ,z) of the half-spiral housing is reduced from a first axial side of the half-spiral housing to an oppositely situated second axial side of the half-spiral housing.
A pneumatic tire having, on a tread surface, a land portion defined by a pair of circumferential main grooves extending in a zig-zag manner along a tire equator on either side thereof, the land portion being divided, by at least four circumferential narrow grooves extending in the zig-zag manner along the tire equator and multiple lateral grooves communicating between the circumferential main groove and the circumferential narrow groove or between the circumferential narrow grooves, into at least five block rows each of which including polygonal blocks with at least five corners arranged in a tire circumferential direction, wherein a block arrangement having the polygonal blocks arranged in a line-symmetric manner with respect to the tire equator as an axis of symmetry includes side regions facing each other across the tire equator and displaced from each other in the tire circumferential direction by a phase difference of 0.2 to 0.4 times of a repetition pitch of a pattern of the block row; and a block row is located across the tire equator, wherein the polygonal blocks constituting the block row located across the tire equator, according to a phase difference between the side regions facing each other across the tire equator, have a shape stretched in the circumferential direction.