mhurhangee/ep-ind-claims huggingface dataset:
A dispersion in a solvent of zirconia nanocrystals which are at least partially capped with at least one capping agent, wherein said dispersion has a minimum transmittance of larger than 70% when measured in a fused silica cuvette with a 10 mm path length in the wavelength region from 400 nm to 750 nm when the dispersion contains 10% by weight nanocrystals and wherein the dispersion has a free capping agent concentration below 100,000 μg/ml as measured by Gas Chromatography, wherein said at least one capping agent is 2-[methoxy(polyethyleneoxy)propyl]-trimethoxysilane, or methoxytri(ethyleneoxy)propyltrimethoxysilane, wherein said solvent is selected from butanol, ethanol, propylene glycol methyl ether acetate (PGMEA), ketones and cyclic ketones, and wherein said zirconia nanocrystals demonstrate, in the XRD pattern, peaks located within ranges between 28° and 32°, between 32° and 36°, between 48° and 52°, between 58° and 62°.
Wind turbine, having a nacelle, a rotor, which has at least two rotor blades, the rotor blades each having a rotor blade root, at least one metallic conductor, for conducting a lightning strike, and a conducting ring connected thereto, the ring being disposed in the region of the rotor blade root, at least one lightning protection unit being fastened to the non-rotating part of the nacelle in such a manner that the at least one lightning protection unit lies on the ring on the rotor blade in order to divert lightning striking the rotor blade, the lightning protection unit having two rollers and a lightning rod, wherein only the rollers are in contact with the ring, a free end of the lightning rod being separated from an outer end of the rollers by a distance that defines a spark gap between the free end of the lightning rod and the ring on the rotor blade, wherein the rollers are electrically non-conducting.
A wireless transmit/receive unit, WTRU, the WTRU comprising: a receiver configured to receive a value in a transmit power control, TPC, signaling from a network entity; a processor configured to: determine a cross link power control mode in which to operate the WTRU, wherein the cross link power control mode is determined from a plurality of cross link power control modes, and determine, based on said value, a cross link transmit power level in accordance with one of a first cross link TPC formula or a second cross link TPC formula for a transmission from the WTRU to another WTRU, the first cross link TPC formula and the second cross link TPC formula being associated with the determined cross link power control mode; and a transmitter configured to send the transmission to the other WTRU using the determined cross link transmit power level, wherein said first cross link TPC formula is semi-statically configured and said second cross link TPC formula is calculated based on a bandwidth of the transmission and a path loss. a receiver configured to receive a value in a transmit power control, TPC, signaling from a network entity; a processor configured to: determine a cross link power control mode in which to operate the WTRU, wherein the cross link power control mode is determined from a plurality of cross link power control modes, and determine, based on said value, a cross link transmit power level in accordance with one of a first cross link TPC formula or a second cross link TPC formula for a transmission from the WTRU to another WTRU, the first cross link TPC formula and the second cross link TPC formula being associated with the determined cross link power control mode; and determine a cross link power control mode in which to operate the WTRU, wherein the cross link power control mode is determined from a plurality of cross link power control modes, and determine, based on said value, a cross link transmit power level in accordance with one of a first cross link TPC formula or a second cross link TPC formula for a transmission from the WTRU to another WTRU, the first cross link TPC formula and the second cross link TPC formula being associated with the determined cross link power control mode; and a transmitter configured to send the transmission to the other WTRU using the determined cross link transmit power level, wherein said first cross link TPC formula is semi-statically configured and said second cross link TPC formula is calculated based on a bandwidth of the transmission and a path loss.
A method for obtaining macrophages polarized to an M2 phenotype that comprises: a. subjecting isolated macrophages to 4 series of hypoxia-reoxygenation, wherein each serie of hypoxia-reoxygenation comprises between 2 and 5 minutes of hypoxia at an oxygen concentration between 0 and 0.6% followed by at least 45 seconds of reoxygenation, and b. recovering the macrophages obtained after step (a). a. subjecting isolated macrophages to 4 series of hypoxia-reoxygenation, wherein each serie of hypoxia-reoxygenation comprises between 2 and 5 minutes of hypoxia at an oxygen concentration between 0 and 0.6% followed by at least 45 seconds of reoxygenation, and b. recovering the macrophages obtained after step (a).
1. An appliance for reducing overheating of areas in a dielectric load placed in an electric/electromagnetic field at one or several frequencies below 900 MHz characterized in that the dielectric load is surrounded completely or partly by one or several dielectric materials located in one or several containers or bags, wherein the dielectric load and the surrounding dielectric material are placed between two capacitors located in either a cavity or a shielding cage, with at least one hole located in walls of the cavity or in walls of the shielding cage surrounding the two capacitors, wherein one or several pegs are positioned to go through the at least one hole in the cavity or shielding cage to thereby deform the surrounding dielectric material during a warming process one or several times, wherein an equalization of heat in the load is obtained by moving the load or a part/parts of the load and the electric/electromagnetic field/s relative to each other, wherein the electric/electromagnetic field is moved relative the load by mechanically affecting/deforming the surrounding dielectric material via movement of said one or several pegs.
Retaining piece for a binding for binding a boot to a gliding board, comprising: - a chassis having a lower face configured to be secured to the gliding board, - a body movably mounted on the chassis, - a sole clamp movably mounted on the body and adapted to come into contact with an upper surface and at least one lateral part of a front or rear part of the boot when the boot is engaged with the binding, - a lateral release mechanism comprising at least a first elastic means acting on the sole clamp to return it to a configuration of engagement with the boot, - a vertical-retention mechanism comprising a second elastic means, distinct from the first elastic means, and arranged so as to continuously exert a return force (Fr1a, Fr1b) on the body to return the sole clamp towards the lower face of the chassis, this return force producing a pressing force (Fp)that presses the sole clamp intimately against the boot when the boot is engaged with the binding, wherein the retaining piece comprises at least one cam (153, 154), kinematically interposed between the second elastic means and one of either the chassis or the body, the cam (153, 154) being shaped to modify, depending on the position of the body relative to the chassis, the direction of the return force (Fr1a, Fr1b) exerted by the second elastic means on the body so as to lessen any variation in the pressing force (Fp) when the sole clamp is moved away from the lower face of the chassis, and characterized in that a first profile of the cam is translationally mounted on the body, and the second elastic means acts directly on a piston capable of translational movement in a housing of the body, a part of the piston forming the first cam profile. - a chassis having a lower face configured to be secured to the gliding board, - a body movably mounted on the chassis, - a sole clamp movably mounted on the body and adapted to come into contact with an upper surface and at least one lateral part of a front or rear part of the boot when the boot is engaged with the binding, - a lateral release mechanism comprising at least a first elastic means acting on the sole clamp to return it to a configuration of engagement with the boot, - a vertical-retention mechanism comprising a second elastic means, distinct from the first elastic means, and arranged so as to continuously exert a return force (Fr1a, Fr1b) on the body to return the sole clamp towards the lower face of the chassis, this return force producing a pressing force (Fp)that presses the sole clamp intimately against the boot when the boot is engaged with the binding,
Electric pod drive for a ship having - an electric motor with a stator and a shaft arranged coaxially with respect to the stator, - a housing with at least one housing part, which, in the axial direction, extends at least partially along the stator and which, in the peripheral direction, at least partially comprises the stator, and - at least one winding head, which projects out of the stator on an axial front end in each case, - at least one turbo-machine, which is arranged between the shaft and the housing and which is connected to the shaft in a torque-proof manner, wherein the at least one winding head can be cooled by a first cooling medium which can be circulated by means of the at least one turbo-machine characterised by at least one first inlet opening and at least one first outlet opening, wherein provision is made between the respective first inlet opening and the respective first outlet opening for at least one first cooling duct which runs substantially perpendicular to the axial direction, wherein with a relative movement of the pod drive with respect to water surrounding the pod drive at least partially, the water can flow through the respective first inlet opening, the at least one first cooling duct and the respective first outlet opening, wherein the water flowing through the at least one first cooling duct is separated from the first cooling medium by at least one first separator element. - an electric motor with a stator and a shaft arranged coaxially with respect to the stator, - a housing with at least one housing part, which, in the axial direction, extends at least partially along the stator and which, in the peripheral direction, at least partially comprises the stator, and - at least one winding head, which projects out of the stator on an axial front end in each case, - at least one turbo-machine, which is arranged between the shaft and the housing and which is connected to the shaft in a torque-proof manner,
A pharmaceutical composition, comprising micronized Compound A, and/or micronized at least one pharmaceutically acceptable salt of Compound A, and at least one pharmaceutically acceptable excipient, wherein the micronized Compound A and/or the micronized at least one pharmaceutically acceptable salt of Compound A has a particle size distribution D90 value of less than or equal to 20 μm, wherein Compound A is N -(2-(dimethylamino)ethyl)-1-(3-((4-((2-methyl-1 H -indo1-5-yl)oxy)pyrimidin-2-yl)amino)phenyl)methanesulfonamide represented by the formula:
A pressure sensor unit characterized by comprising: - a pressure sensor for detecting air pressure; - an electronic substrate for electrically processing signals from the pressure sensor; and - a holder (3, 4) for holding the pressure sensor and the electronic substrate; wherein the holder (3, 4) comprises: - a first holder member comprising a first housing hole for housing a portion of the pressure sensor; and - a second holder member comprising a second housing hole for housing the part of the pressure sensor not housed in the first housing hole, and provided facing the first housing hole; wherein - the pressure sensor is housed in the first housing hole and the second housing hole such that a direction parallel to an air pressure application direction of the pressure sensor matches with the direction of depth of the first housing hole and the second housing hole; - one of the first holder member and the second holder member comprises a first fitting groove; - the other one of the first holder member and the second holder member comprises a first fitting claw provided at a position corresponding to the first fitting groove; - the first holder member and the second holder member are affixed together by fitting the first fitting claw into the first fitting groove and the pressure sensor is affixed to the holder; and in a state in which the first fitting claw is fitted into the first fitting groove, the length from the bottom surface of the first housing hole to the bottom surface of the second housing hole is equal to the total length of the pressure sensor in a direction parallel to the air pressure application direction. - a pressure sensor for detecting air pressure; - an electronic substrate for electrically processing signals from the pressure sensor; and - a holder (3, 4) for holding the pressure sensor and the electronic substrate; - a first holder member comprising a first housing hole for housing a portion of the pressure sensor; and - a second holder member comprising a second housing hole for housing the part of the pressure sensor not housed in the first housing hole, and provided facing the first housing hole; - the pressure sensor is housed in the first housing hole and the second housing hole such that a direction parallel to an air pressure application direction of the pressure sensor matches with the direction of depth of the first housing hole and the second housing hole; - one of the first holder member and the second holder member comprises a first fitting groove; - the other one of the first holder member and the second holder member comprises a first fitting claw provided at a position corresponding to the first fitting groove; - the first holder member and the second holder member are affixed together by fitting the first fitting claw into the first fitting groove and the pressure sensor is affixed to the holder; and
A process for the preparation of aromatized soluble coffee particles, the process comprising providing soluble coffee particles, mixing the soluble coffee particles with roast whole coffee beans, holding the mixture for at least two days, and separating the beans from the soluble coffee particles.
A flow rate regulator unit comprising: a piston member (17; 18) including a contents passage (17b, 18b, 18c) which moves in response to pressure of contents spraying gas in an aerosol container; a holding part (15,16) including: an internal space for accommodating the piston member (17; 18) where the piston member is movable; a hole (15a, 16a) allowing contents in the aerosol container to flow into a flow rate adjusting space region located between the hole and the piston member; a receiving section for the piston member (17; 18); and a mounting section for connecting a stem of the aerosol container; wherein the holding part (15,16) is formed in the form of a separate member from a casing section constituting an operation button for a pressing operation by a user; and characterized by an elastic member settled between rear of the piston member (17; 18), and an inner rear end surface of the holding part (15, 16) for energizing the piston member in a predetermined direction; wherein the entire structure of the flow rate regulator unit is a unit structure independent from the casing section and wherein the flow rate regulator unit is used by being mounted on the casing section and the stem. a piston member (17; 18) including a contents passage (17b, 18b, 18c) which moves in response to pressure of contents spraying gas in an aerosol container; a holding part (15,16) including: an internal space for accommodating the piston member (17; 18) where the piston member is movable; a hole (15a, 16a) allowing contents in the aerosol container to flow into a flow rate adjusting space region located between the hole and the piston member; a receiving section for the piston member (17; 18); and a mounting section for connecting a stem of the aerosol container; wherein the holding part (15,16) is formed in the form of a separate member from a casing section constituting an operation button for a pressing operation by a user; and an internal space for accommodating the piston member (17; 18) where the piston member is movable; a hole (15a, 16a) allowing contents in the aerosol container to flow into a flow rate adjusting space region located between the hole and the piston member; a receiving section for the piston member (17; 18); and a mounting section for connecting a stem of the aerosol container; wherein the holding part (15,16) is formed in the form of a separate member from a casing section constituting an operation button for a pressing operation by a user; characterized by an elastic member settled between rear of the piston member (17; 18), and an inner rear end surface of the holding part (15, 16) for energizing the piston member in a predetermined direction; wherein the entire structure of the flow rate regulator unit is a unit structure independent from the casing section and wherein the flow rate regulator unit is used by being mounted on the casing section and the stem.
Abase station apparatus for communicating with a terminal apparatus, the base station apparatus comprising: a receiver configured to receive a physical uplink shared channel, and a reference signal used to demodulate the physical uplink shared channel; and a transmitter configured to transmit a signal indicating a delivery confirmation for the physical uplink shared channel, wherein the physical uplink shared channel includes uplink data bits, identifier bits indicating a terminal apparatus that has transmitted the uplink data bits, first Cyclic Redundancy Check, CRC, bits generated from the identifier bits, and second CRC bits generated from the uplink data bits, the receiver descrambles the first CRC bits by using a sequence of the reference signal, and descrambles the second CRC bits by using an identifier indicating the terminal apparatus, in a case that an error is detected based on the first CRC bits, the transmitter transmits a first Negative Acknowledgement, NACK, by using a control signal associated with a sequence of the reference signal, and in a case that an error is detected based on the second CRC bits, the transmitter transmits a second NACK by using a control signal associated with an identifier indicating the terminal apparatus, in case that the reference signal is failed to be recognized, the transmitter does not transmit a NACK, and wherein the transmitter transmits resource configuration information including number of times the physical uplink shared channel is repeatedly transmitted, by using the control signal associated with the sequence of the reference signal. a receiver configured to receive a physical uplink shared channel, and a reference signal used to demodulate the physical uplink shared channel; and a transmitter configured to transmit a signal indicating a delivery confirmation for the physical uplink shared channel, wherein the physical uplink shared channel includes uplink data bits, identifier bits indicating a terminal apparatus that has transmitted the uplink data bits, first Cyclic Redundancy Check, CRC, bits generated from the identifier bits, and second CRC bits generated from the uplink data bits, the receiver descrambles the first CRC bits by using a sequence of the reference signal, and descrambles the second CRC bits by using an identifier indicating the terminal apparatus, in a case that an error is detected based on the first CRC bits, the transmitter transmits a first Negative Acknowledgement, NACK, by using a control signal associated with a sequence of the reference signal, and in a case that an error is detected based on the second CRC bits, the transmitter transmits a second NACK by using a control signal associated with an identifier indicating the terminal apparatus, in case that the reference signal is failed to be recognized, the transmitter does not transmit a NACK, and wherein the transmitter transmits resource configuration information including number of times the physical uplink shared channel is repeatedly transmitted, by using the control signal associated with the sequence of the reference signal.
A process for forming a shaped film product comprising the steps of: a. placing a mask having a delivery surface and an opposite substrate-facing surface and at least one aperture having a design corresponding to the desired shaped film product over a substrate; b. delivering a film-forming composition through a nozzle in sealing engagement with the delivery surface of the mask to the at least one aperture of the mask to form a raw shape on the substrate; c. removing the mask; d. solidifying the film-forming composition to provide the shaped film product disposed on the substrate; wherein the step of delivering a film-forming composition comprises controlling the delivery of the film-forming composition to a void volume defined by a projection of a delivery opening of the nozzle, substrate and mask sidewalls and delivering the controlled volume of film-forming composition to the mask aperture; wherein the flow from the delivery opening of the nozzle to the substrate is laminar. a. placing a mask having a delivery surface and an opposite substrate-facing surface and at least one aperture having a design corresponding to the desired shaped film product over a substrate; b. delivering a film-forming composition through a nozzle in sealing engagement with the delivery surface of the mask to the at least one aperture of the mask to form a raw shape on the substrate; c. removing the mask; d. solidifying the film-forming composition to provide the shaped film product disposed on the substrate; wherein the step of delivering a film-forming composition comprises controlling the delivery of the film-forming composition to a void volume defined by a projection of a delivery opening of the nozzle, substrate and mask sidewalls and delivering the controlled volume of film-forming composition to the mask aperture; wherein the flow from the delivery opening of the nozzle to the substrate is laminar.
A system for manufacturing a slab, tile or sheet of artificial stone with a vein effect, the system comprising a distributor device assembled on a robotic device and a substrate layer presenting irregular cavities, characterised in that the distributor device comprises: i. a hopper for storing a filling mixture, the hopper having a top opening and a bottom one, ii. a conveyor belt located underneath the bottom opening of the hopper, and iii. a collector, with a top opening and a bottom one, which collects the filling mixture discharged from the conveyor belt; and in that the robotic device is capable of moving the distributor device along the irregular cavities present in the substrate layer, and the distributor device is capable of discharging the filling mixture in a localized manner to fill said cavities. i. a hopper for storing a filling mixture, the hopper having a top opening and a bottom one, ii. a conveyor belt located underneath the bottom opening of the hopper, and iii. a collector, with a top opening and a bottom one, which collects the filling mixture discharged from the conveyor belt;
A sealing material prepared by vulcanizing and foaming a mixture comprising a rubber component comprising a copolymer rubber of ethylene, an α -olefin having 3 or more carbon atoms, and a non-conjugated diene, a vulcanizing agent, and a blowing agent, and then subjecting the mixture to a cell breakage treatment, characterized in that the mixture further comprises a fatty acid calcium salt and a fatty acid zinc salt.