mhurhangee/ep-ind-claims huggingface dataset:
Process for retanning leather comprising the steps of: a) providing tanned or pre-tanned leather b) treating the tanned leather of step a) with a composition comprising expanded hollow microspheres, preferably as an aqueous composition, the expanded hollow microspheres have a true density of from 0.01 to 0.10 g/cm 3 (25°C), determined with a helium pycnometer or as the quotient of the median mass of the expanded hollow microspheres with the median volume of the expanded hollow microspheres, and/or a bulk density of the dry powder of 0.005 to 0.06 g/cm 3 (25°C), determined by measuring the mass of a defined volume of dry powder according to ISO 8460, section 1, c) drying, whereby the temperature of the leather during drying does not exceed 75 °C. a) providing tanned or pre-tanned leather b) treating the tanned leather of step a) with a composition comprising expanded hollow microspheres, preferably as an aqueous composition, the expanded hollow microspheres have a true density of from 0.01 to 0.10 g/cm 3 (25°C), determined with a helium pycnometer or as the quotient of the median mass of the expanded hollow microspheres with the median volume of the expanded hollow microspheres, and/or a bulk density of the dry powder of 0.005 to 0.06 g/cm 3 (25°C), determined by measuring the mass of a defined volume of dry powder according to ISO 8460, section 1, c) drying, whereby the temperature of the leather during drying does not exceed 75 °C.
Offshore wind power turbine comprising a floating, anchored base and a floating tower with a wind generator unit, where the tower is detachably connected to the floating base, and the whole power turbine is connected to an electricity reception system, and the tower body comprises an outer conical surface cooperating with an inner conical work surface of a U-shaped receiving opening of the floating base, where the receiving opening and the tower body are equipped with fastener members, where the base contains at least one receiving opening of a shape connection cooperating with a complementary shape member of the tower body of the wind turbine, where the tower body at the bottom, under at least one internal buoyancy compartment equipped with a water filling and emptying system, contains a ballast compartment, and the floating base contains at least one internal buoyancy compartment equipped with a filling and emptying system, characterised in that, the inner conical surface of the U-shaped receiving opening of the base is convergent towards the top of the tower of the wind turbine, where the area of the cooperating outer conical surface of the tower is convergent towards to the top of the tower body of the wind turbine, where the base contains situated near the bottom edge the at least one receiving opening of the shape connection, cooperating with a complementary shape member of the tower body of the wind turbine, where the shape connection of the receiving opening comprises at least one recess situated in the bottom peripheral edge of the base, and a shape member of the tower body is a complementary member of the recess of the base.
A method comprising: performing a first damage prediction with a computational model using at least data from a multitude of damage sensors mounted to a structure, the multitude of damage sensors including a multitude of local damage sensors applied to the structure and a multitude of global damage sensors applied to the structure, the damage sensors being configured to sense a deviation in a structure from its original configuration and/or produce a signal that can be used to sense the deviation; performing a second damage prediction with the computational model using at least data from a multitude of load sensors associated with the structure, the multitude of load sensors including at least one of physical load sensors mounted to the structure and configured to sense loads in a structure or virtual load sensors corresponding to a computational model associated with the structure and configured to estimate an applied load based on state parameters; selectively performing a damage monitoring action in response to the first damage prediction and the second damage prediction to determine a structural health; identifying areas on the structure where damage is likely to occur under operational conditions; mounting a first quantity of the multitude of local damage sensors to the areas where damage is likely to occur; and mounting a second quantity of the multitude of global damage sensors to a plurality of locations on a large area of the structure, the second quantity being greater than the first quantity. performing a first damage prediction with a computational model using at least data from a multitude of damage sensors mounted to a structure, the multitude of damage sensors including a multitude of local damage sensors applied to the structure and a multitude of global damage sensors applied to the structure, the damage sensors being configured to sense a deviation in a structure from its original configuration and/or produce a signal that can be used to sense the deviation; performing a second damage prediction with the computational model using at least data from a multitude of load sensors associated with the structure, the multitude of load sensors including at least one of physical load sensors mounted to the structure and configured to sense loads in a structure or virtual load sensors corresponding to a computational model associated with the structure and configured to estimate an applied load based on state parameters; selectively performing a damage monitoring action in response to the first damage prediction and the second damage prediction to determine a structural health; identifying areas on the structure where damage is likely to occur under operational conditions; mounting a first quantity of the multitude of local damage sensors to the areas where damage is likely to occur; and mounting a second quantity of the multitude of global damage sensors to a plurality of locations on a large area of the structure, the second quantity being greater than the first quantity.
An electronic device for a terminal device side in a wireless communication system, comprising a processing circuitry (325, 330) configured to: receive, from a Base Station, BS, in the wireless communication system, a plurality of Synchronization Signal, SS, blocks including, respectively, a primary SS, PSS, a secondary SS, SSS, and a PBCH for downlink synchronization, wherein the plurality of SS blocks are transmitted by different transmit, TX, beams at the BS side, and each SS block indicates information of a TX beam used to transmit the SS block by the BS; determine a SS block that matches with the terminal device based on the SS block in which signal reception quality satisfies a predetermined condition; and transmit a random access preamble to the base station to perform a random access process, wherein the random access preamble indicates the information of the TX beam used to transmit the matching SS block by the BS, for being used by the BS in beam management; wherein the processing circuitry is configured to simultaneously obtain services of the BS and another base station that does not perform beamforming transceiving by way of dual connectivity, and wherein the processing circuitry is configured to obtain, from the another base station, information about correspondence between each of receive, RX, beams at the BS side and time domain resources to be used for transmitting random access preambles and determine the random access preamble indicating the TX beam used to transmit the matching SS block. receive, from a Base Station, BS, in the wireless communication system, a plurality of Synchronization Signal, SS, blocks including, respectively, a primary SS, PSS, a secondary SS, SSS, and a PBCH for downlink synchronization, wherein the plurality of SS blocks are transmitted by different transmit, TX, beams at the BS side, and each SS block indicates information of a TX beam used to transmit the SS block by the BS; determine a SS block that matches with the terminal device based on the SS block in which signal reception quality satisfies a predetermined condition; and transmit a random access preamble to the base station to perform a random access process, wherein the random access preamble indicates the information of the TX beam used to transmit the matching SS block by the BS, for being used by the BS in beam management; wherein the processing circuitry is configured to simultaneously obtain services of the BS and another base station that does not perform beamforming transceiving by way of dual connectivity, and wherein the processing circuitry is configured to obtain, from the another base station, information about correspondence between each of receive, RX, beams at the BS side and time domain resources to be used for transmitting random access preambles and determine the random access preamble indicating the TX beam used to transmit the matching SS block.
A hand dryer comprising: a jetting nozzle comprising a duct in fluid communication with a nozzle outlet, whereby the jetting nozzle comprises a substantially straight slot which forms the nozzle outlet, and a blower which blows air through the jetting nozzle to produce an air jet, the jetting nozzle being configured such that the angle of inclination (θ) of the air jet with respect to a direction which is perpendicular to the longitudinal direction of the slot varies in the longitudinal direction of the slot, the slot being provided with a lip which extends forward of the slot, the lip being configured to guide the air as it exits the slot so as to provide said variation in the angle of inclination (θ) of the air jet. a jetting nozzle comprising a duct in fluid communication with a nozzle outlet, whereby the jetting nozzle comprises a substantially straight slot which forms the nozzle outlet, and a blower which blows air through the jetting nozzle to produce an air jet, the jetting nozzle being configured such that the angle of inclination (θ) of the air jet with respect to a direction which is perpendicular to the longitudinal direction of the slot varies in the longitudinal direction of the slot, the slot being provided with a lip which extends forward of the slot, the lip being configured to guide the air as it exits the slot so as to provide said variation in the angle of inclination (θ) of the air jet.
A method for MAP decoding of a signal received through a noisy channel, said signal being made up of symbols belonging to a predetermined alphabet that are affected by an additive white Gaussian noise, the probability distribution of the symbols within said alphabet being non-uniform, the symbols being represented by points in a lattice of points Λ = x | x = Ma, a ∈ Z N generated by a matrix M of size N × N, wherein: - a vector y of size N is determined representing the received signal; characterised in that: - an augmented vector y aug = y 0 N is created, where 0 N is a zero vector of size N; - an augmented lattice Λ aug = x | x = M aug a, a ∈ Z N with a generating matrix M aug = M β ⁢ M is formed, where β = σ 2 σ V 2 is the ratio between the variance of the noise and the variance of a Gaussian probability distribution modelling the non-uniform probability distribution of the symbols of the alphabet; - the closest neighbour of the augmented vector y aug representing the received signal, â, is sought from among the points of the augmented lattice; - the received symbol is estimated based on the generating matrix M and on the closest neighbour, v̂ MAP * = Mâ. - a vector y of size N is determined representing the received signal; - an augmented vector y aug = y 0 N is created, where 0 N is a zero vector of size N; - an augmented lattice Λ aug = x | x = M aug a, a ∈ Z N with a generating matrix M aug = M β ⁢ M is formed, where β = σ 2 σ V 2 is the ratio between the variance of the noise and the variance of a Gaussian probability distribution modelling the non-uniform probability distribution of the symbols of the alphabet; - the closest neighbour of the augmented vector y aug representing the received signal, â, is sought from among the points of the augmented lattice; - the received symbol is estimated based on the generating matrix M and on the closest neighbour, v̂ MAP * = Mâ.
An arrangement of a radio-frequency identification RFID reader system and an RFID tag comprising: an RFID reader system; an RFID transceiver _configured to transmit and receive radio frequency signals to and from the RFID reader system, the RFID transceiver comprising an integrated circuit _ and an antenna having a plurality of antenna segments that are spaced apart from each other, and at least one of the plurality of segments is permanently electrically coupled to the integrated circuit, the antenna having an impedance, a gain and directionality that, in conjunction with the characteristics of the IC defines a first read range of the RFID tag_ in respect to the RFID reader system; and a releasable coupler configured to be releasably engagable with the RFID transceiver comprising a coupling material, the releasable coupler _being configured such that when the releasable coupler _is releasably engaged with the RFID transceiver, the coupling material altering at least one of the impedance, the gain and the directionality of the antenna _to define a second read range of the RFID tag in respect to the RFID reader system, wherein the second read range is greater than the first read range, characterized in that indicia are printed in the RFID tag in a section of the RFID tag covered by the releasable coupler when the releasable coupler _is releasably engaged with the RFID transceiver, and when the releasable coupler is removed, thereby transitioning the RFID tag to a disengaged state, the indicia is revealed that the RFID tag is in the disengaged state with the RFID reader system. an RFID reader system; an RFID transceiver _configured to transmit and receive radio frequency signals to and from the RFID reader system, the RFID transceiver comprising an integrated circuit _ and an antenna having a plurality of antenna segments that are spaced apart from each other, and at least one of the plurality of segments is permanently electrically coupled to the integrated circuit, the antenna having an impedance, a gain and directionality that, in conjunction with the characteristics of the IC defines a first read range of the RFID tag_ in respect to the RFID reader system; and a releasable coupler configured to be releasably engagable with the RFID transceiver comprising a coupling material, the releasable coupler _being configured such that when the releasable coupler _is releasably engaged with the RFID transceiver, the coupling material altering at least one of the impedance, the gain and the directionality of the antenna _to define a second read range of the RFID tag in respect to the RFID reader system, wherein the second read range is greater than the first read range, characterized in that indicia are printed in the RFID tag in a section of the RFID tag covered by the releasable coupler when the releasable coupler _is releasably engaged with the RFID transceiver, and when the releasable coupler is removed, thereby transitioning the RFID tag to a disengaged state, the indicia is revealed that the RFID tag is in the disengaged state with the RFID reader system.
A crystalline form G of Cabazitaxel hydrate, wherein an X-ray powder diffraction pattern thereof obtained by irradiation with copper Kα ray has peaks at 2θ of 4.5, 8.5, 8.9, 11.1, 12.4, 13.9, 15.4, 17.7 and 19.3 degrees, and wherein the corresponding peak intensities thereof are 19.0, 42.1, 100, 36.5, 9.2, 26.5, 19.8, 41.8 and 25.3, producible according to a method comprising: dissolving Cabazitaxel in alcohol compounds with 1 to 4 carbon atoms, and adding water, or dissolving Cabazitaxel in a mixture of alcohol compounds with 1 to 4 carbon atoms and water; and crystallizing from the solution to thereby obtain the crystalline form G of Cabazitaxel hydrate, wherein the amount of the alcohol compounds with 1 to 4 carbon atoms used, expressed in g/mL, is 5 to 40 times greater than Cabazitaxel, and wherein the amount of water used, expressed in g/mL, is 10 to 40 times greater than Cabazitaxel, wherein the melting point of the crystalline form G of Cabazitaxel hydrate is from 138.43°C to 149.38°C as measured with a differential scanning calorimetry. dissolving Cabazitaxel in alcohol compounds with 1 to 4 carbon atoms, and adding water, or dissolving Cabazitaxel in a mixture of alcohol compounds with 1 to 4 carbon atoms and water; and crystallizing from the solution to thereby obtain the crystalline form G of Cabazitaxel hydrate, wherein the amount of the alcohol compounds with 1 to 4 carbon atoms used, expressed in g/mL, is 5 to 40 times greater than Cabazitaxel, and wherein the amount of water used, expressed in g/mL, is 10 to 40 times greater than Cabazitaxel, wherein the melting point of the crystalline form G of Cabazitaxel hydrate is from 138.43°C to 149.38°C as measured with a differential scanning calorimetry.
A scanning electron microscope for producing an electron beam from an electron source, focusing the beam by an objective lens, scanning the beam over a specimen by means of scanning deflectors, and detecting electrons emanating from the specimen, said scanning electron microscope comprising: a first condenser lens having a lens gap facing toward the electron source; a second condenser lens having a lens gap facing toward the objective lens, the first condenser lens and the second condenser lens being disposed between the electron source and the objective lens; first deflecting means disposed in a beam passage opening formed in the first condenser lens; second deflecting means disposed in a beam passage opening formed in the second condenser lens; an aperture plate having a plurality of apertures of different diameters and mounted between the first deflecting means and the second deflecting means; and an electron detector having a beam passage opening and mounted between the second deflecting means and the objective lens; wherein the electron beam undergoes a lens action of the first condenser lens and is deflected according to operation of the first deflecting means to cause the electron beam to pass through a selected one of the apertures in the aperture plate; and wherein the electron beam passed through the selected aperture is deflected according to operation of the second deflecting means and undergoes a lens action of the second condenser lens such that the electron beam passes through the beam passage opening in the electron detector and reaches the specimen. a first condenser lens having a lens gap facing toward the electron source; a second condenser lens having a lens gap facing toward the objective lens, the first condenser lens and the second condenser lens being disposed between the electron source and the objective lens; first deflecting means disposed in a beam passage opening formed in the first condenser lens; second deflecting means disposed in a beam passage opening formed in the second condenser lens; an aperture plate having a plurality of apertures of different diameters and mounted between the first deflecting means and the second deflecting means; and an electron detector having a beam passage opening and mounted between the second deflecting means and the objective lens; wherein the electron beam undergoes a lens action of the first condenser lens and is deflected according to operation of the first deflecting means to cause the electron beam to pass through a selected one of the apertures in the aperture plate; and wherein the electron beam passed through the selected aperture is deflected according to operation of the second deflecting means and undergoes a lens action of the second condenser lens such that the electron beam passes through the beam passage opening in the electron detector and reaches the specimen.
A method for carrying out a multimedia service in a wireless local area network, comprising: receiving, by an access apparatus, a multicast data stream sent by a data server; characterized by further comprising: monitoring, by the access apparatus, in real time a receiving rate of a terminal connected to the access apparatus; if the receiving rate of the terminal is higher than or equal to a multicast sending rate at which the access apparatus sends multicast data, sending, by the access apparatus, in a multicast mode, the multicast data stream sent by the data server to the terminal, and if the receiving rate of the terminal is lower than the multicast sending rate, converting, by the access apparatus, the multicast data stream sent by the data server into a unicast data stream and sending, by the access apparatus, the unicast data stream to the terminal. receiving, by an access apparatus, a multicast data stream sent by a data server; monitoring, by the access apparatus, in real time a receiving rate of a terminal connected to the access apparatus; if the receiving rate of the terminal is higher than or equal to a multicast sending rate at which the access apparatus sends multicast data, sending, by the access apparatus, in a multicast mode, the multicast data stream sent by the data server to the terminal, and if the receiving rate of the terminal is lower than the multicast sending rate, converting, by the access apparatus, the multicast data stream sent by the data server into a unicast data stream and sending, by the access apparatus, the unicast data stream to the terminal.