mhurhangee/patent-ind-claim-en huggingface dataset:
Press cover in the form of a continuous belt or tube for a shoe press roll , comprising at least one polymer layer, wherein the polymer layer comprises or has been produced from a polyurethane, wherein the polyurethane has been formed from a prepolymer and a crosslinker, and the prepolymer is a reaction product of phenylene 1,4-diisocyanate (PPDI) and at least one polyol, characterized in that the polyol comprises caprolactone and carbonate, such as a polycaprolactone polycarbonate polyol.
Sensor arrangement , in particular an ultrasonic sensor arrangement for environment detection by a vehicle, comprising - a first sound transducer arrangement , comprising a pot-shaped element having a peripheral surface and a base area in the form of a diaphragm , wherein the diaphragm is designed to emit sound-waves, wherein a piezoelectric element is arranged in contact with the diaphragm in order to stimulate an oscillation of the diaphragm , - a second sound transducer arrangement , comprising a plurality of sensor elements 22a-22i), which is in the form of an array, in particular in the form of an ultrasonic array, wherein the sensor elements (22a-22i) of the second sound transducer arrangement are arranged on the outwardly pointing side of the base area that is in the form of a diaphragm , characterized in that the first sound transducer arrangement is designed to transmit an acoustic signal that can be reflected from one or more objects, and the second sound transducer arrangement is designed to receive the reflected signal. - a first sound transducer arrangement , comprising a pot-shaped element having a peripheral surface and a base area in the form of a diaphragm , wherein the diaphragm is designed to emit sound-waves, wherein a piezoelectric element is arranged in contact with the diaphragm in order to stimulate an oscillation of the diaphragm , - a second sound transducer arrangement , comprising a plurality of sensor elements 22a-22i), which is in the form of an array, in particular in the form of an ultrasonic array,
A pressure-sensitive adhesive tape comprising a polyvinyl chloride film that comprises a plasticizer, wherein the polyvinyl chloride film comprises, as the plasticizer, a polyester-based plasticizer having a weight average molecular weight of 1000 or greater and a carboxylic acid ester having a weight average molecular weight of less than 1000, wherein the molecular weight is measured as described in the specification; wherein the polyvinyl chloride film further comprises an aliphatic acid metal salt in an amount of 0.1 to 1 parts by weight, based on 100 parts by weight of polyvinyl chloride; and a pressure-sensitive adhesive layer placed at least on one face of the film, with the tape having a weight loss on heating of less than 4 % and a holding power of 50 minutes or greater, wherein the weight loss on heating and the holding power are measured as described in the specification, and wherein the polyvinyl chloride film is such that the polyester-based plasticizer having the weight average molecular weight of 1000 or greater has a weight W PLH and the carboxylic acid ester having the weight average molecular weight of less than 1000 has a weight W PLL , satisfying the next formula: 1 ≤ W PLH / W PLL ≤ 7 , wherein the weight W PLH , the weight W PLL and the ratio (W PLH /W PLL ) are determined as described in the specification.
A method for performing location services, comprising: acquiring one or more network-based signal measurements at a location server from a radio access network serving a user equipment, UE, wherein the one or more network-based signal measurements are measurements made by a network element of a signal sent by the UE and comprise at least a round trip time, RTT; and transmitting a first message to the UE from the location server comprising the one or more network-based signal measurements, wherein a location of the UE is estimated by the UE based at least on a combination of the one or more network-based signal measurements and one or more UE-based signal measurements, wherein the one or more UE-based signal measurements comprise at least an internal processing delay for the UE between reception of a downlink signal and transmission of an uplink signal. acquiring one or more network-based signal measurements at a location server from a radio access network serving a user equipment, UE, wherein the one or more network-based signal measurements are measurements made by a network element of a signal sent by the UE and comprise at least a round trip time, RTT; and transmitting a first message to the UE from the location server comprising the one or more network-based signal measurements, wherein a location of the UE is estimated by the UE based at least on a combination of the one or more network-based signal measurements and one or more UE-based signal measurements, wherein the one or more UE-based signal measurements comprise at least an internal processing delay for the UE between reception of a downlink signal and transmission of an uplink signal.
Industrial system comprising machines , systems for controlling machines connected by a first communication network and a gateway intended to connect the first communication network to a second communication network , the gateway comprising a memory and comprising a processor configured to copy to the memory first data transmitted over the second communication network and relating to the operation of the machines, further comprising an analyzer , configured to: - collect values of variables relating to the operation of the machines , - determine, for at least some of the variables, ranges of values from at least one first operational model of the machines, - detect at least one anomaly, if the value of at least one variable is outside of the range of values of said variable, said anomaly having a likelihood, - detect, from the at least one anomaly, at least one undesirable event, to which is allocated an impact on the industrial system, said impact having a severity, - determine, for each impact allocated to each of the at least one undesirable event, a likelihood, from a combination of likelihoods of the at least one anomaly detected, - provide, for each impact and the severity-likelihood combination thereof, a numerical value, - determine an overall risk level of the industrial system from the numerical values obtained of the impacts of the at least one undesirable event detected. - collect values of variables relating to the operation of the machines , - determine, for at least some of the variables, ranges of values from at least one first operational model of the machines, - detect at least one anomaly, if the value of at least one variable is outside of the range of values of said variable, said anomaly having a likelihood, - detect, from the at least one anomaly, at least one undesirable event, to which is allocated an impact on the industrial system, said impact having a severity, - determine, for each impact allocated to each of the at least one undesirable event, a likelihood, from a combination of likelihoods of the at least one anomaly detected, - provide, for each impact and the severity-likelihood combination thereof, a numerical value, - determine an overall risk level of the industrial system from the numerical values obtained of the impacts of the at least one undesirable event detected.
A cascading microwave directional amplifier (cascade) comprising: a set of multi-path interferometric Josephson directional amplifiers (302 1 ,..., 302 N ) based on non degenerate three-wave-mixing Josephson parametric devices (MPIJDA), each Josephson amplifier device (302 1 ,...,302 N ) in the set having a corresponding operating bandwidth (BW 1 ,..., BW N ) of microwave frequencies, wherein different operating bandwidths (BW 1 ,..., BW N ) have different corresponding center frequencies (f 1 ,..., f N ); and a series coupling between first Josephson amplifier device (302 1 ) from the set and an n th Josephson amplifier device (302 N ) from the set, wherein the series coupling causes the first Josephson amplifier device (302 1 ) to amplify a signal of a first frequency (f 1 ) from a frequency multiplexed microwave signal (multiplexed signal) and propagate without amplification a signal of an n th frequency (f N ) from the multiplexed signal in a first signal flow direction through the series coupling, and the n th Josephson amplifier device (302 N ) to amplify the signal of the n th frequency (f N ) and propagate without amplification the signal of the first frequency (f 1 ) from the multiplexed signal in the first signal flow direction through the series. a set of multi-path interferometric Josephson directional amplifiers (302 1 ,..., 302 N ) based on non degenerate three-wave-mixing Josephson parametric devices (MPIJDA), each Josephson amplifier device (302 1 ,...,302 N ) in the set having a corresponding operating bandwidth (BW 1 ,..., BW N ) of microwave frequencies, wherein different operating bandwidths (BW 1 ,..., BW N ) have different corresponding center frequencies (f 1 ,..., f N ); and a series coupling between first Josephson amplifier device (302 1 ) from the set and an n th Josephson amplifier device (302 N ) from the set, wherein the series coupling causes the first Josephson amplifier device (302 1 ) to amplify a signal of a first frequency (f 1 ) from a frequency multiplexed microwave signal (multiplexed signal) and propagate without amplification a signal of an n th frequency (f N ) from the multiplexed signal in a first signal flow direction through the series coupling, and the n th Josephson amplifier device (302 N ) to amplify the signal of the n th frequency (f N ) and propagate without amplification the signal of the first frequency (f 1 ) from the multiplexed signal in the first signal flow direction through the series. the first Josephson amplifier device (302 1 ) to amplify a signal of a first frequency (f 1 ) from a frequency multiplexed microwave signal (multiplexed signal) and propagate without amplification a signal of an n th frequency (f N ) from the multiplexed signal in a first signal flow direction through the series coupling, and the n th Josephson amplifier device (302 N ) to amplify the signal of the n th frequency (f N ) and propagate without amplification the signal of the first frequency (f 1 ) from the multiplexed signal in the first signal flow direction through the series.
A rounding machine for manufacturing pieces of tubing comprising a pair of clamping rollers and a feed roll with which adjusting means are associated for selecting the relative position of the feed roll in relation to clamping rollers of the pair of clamping rollers, the pair of clamping rollers and the feed roll being supported at their free ends at bearing blocks , wherein the distance between them in the direction of the longitudinal axis of the pair of clamping rollers can be varied, wherein the pair of clamping rollers and the feed roll are operatively connected to a drive , characterized in that one of the clamping rollers is supported at one of its ends at a transversely movable bearing block which can be moved transverse to the longitudinal axis of the pair of clamping rollers such that the one of the clamping rollers can be moved from an operating position (I) for bending the piece of tubing to a removal position (II) in which a piece of tubing positioned on the one of the clamping rollers can be pulled off the one of the clamping rollers in the axial direction.
A flat ground cross-country type roller skate comprising a skate body which is arranged with a wheel assembly at the lower part, wherein the wheel assembly comprises a mounting seat used to mount the skate body , a hoisting mechanism is disposed on the mounting seat , at least three wheel assemblies are disposed on the hoisting mechanism, and each wheel assembly can hoisted independently under the action of the hoisting mechanism; wherein, the hoisting mechanism comprises a first connecting rod and a second connecting rod , wherein one end of the first connecting rod is provided with a first wheel assembly ; both ends of the second connecting rod are provided with a second wheel assembly and a third wheel assembly respectively; and a second end of the first connecting road is movably connected with the second connecting rod at a position between the both ends of the second connecting rod ; characterized in that the first connecting rod and the second connecting rod are connected through a transition block (F), wherein a first end of the transition block (F) is pivotally connected to the first connecting rod forming a first pivoting position (C) and a second end of the transition block (F) is pivotally connected to the second connecting rod forming a second pivoting position (E).
A non-therapeutic method for lightening skin comprising the steps of identifying skin where lightening or whitening is desired and topically applying to the skin a topical formulation comprising: (a) a skin lightening agent comprising a canola extract and (b) a cosmetically acceptable carrier, wherein the canola extract comprises protocatechuic acid, vanilic acid, caffeic acid, syringic acid, P-coumaric acid, and sinapic acid, and wherein the canola extract provides from 0.1% to 5% sinapic acid by weight of the formulation.
A method for making a dairy composition, the method comprising: (i) ultrafiltering a milk product to produce a UF permeate fraction and a UF retentate fraction; (ii) nanofiltering the UF permeate fraction to produce a NF permeate fraction and a NF retentate fraction; (iii) subjecting the NF permeate fraction to a forward osmosis step to produce a mineral concentrate, wherein the forward osmosis step is conducted at: - a pressure of less than or equal to 0.308 MPa (30 psig); - a temperature in a range from 5 to 15 °C; and - a concentration factor of at least 3 and less than or equal to 100, based on wt. % solids; and (iv) combining at least the UF retentate fraction and the mineral concentrate to form the dairy composition. (i) ultrafiltering a milk product to produce a UF permeate fraction and a UF retentate fraction; (ii) nanofiltering the UF permeate fraction to produce a NF permeate fraction and a NF retentate fraction; (iii) subjecting the NF permeate fraction to a forward osmosis step to produce a mineral concentrate, wherein the forward osmosis step is conducted at: - a pressure of less than or equal to 0.308 MPa (30 psig); - a temperature in a range from 5 to 15 °C; and - a concentration factor of at least 3 and less than or equal to 100, based on wt. % solids; and - a pressure of less than or equal to 0.308 MPa (30 psig); - a temperature in a range from 5 to 15 °C; and - a concentration factor of at least 3 and less than or equal to 100, based on wt. % solids; and (iv) combining at least the UF retentate fraction and the mineral concentrate to form the dairy composition.
A liquid discharging apparatus comprising: a transport section for a medium (P); a line head in which nozzles (N) discharging liquid are arrayed in an intersecting direction (B) that intersects a direction (A) of transporting the medium (P); a sensor that is capable of detecting an end portion of the medium (P) in the intersecting direction (B); and a controller that controls discharging of the liquid, wherein the line head is movable in the intersecting direction (B), and wherein the controller sets a position of the line head in the intersecting direction (B) based on a detection result of the sensor , characterized in that the sensor is a scan sensor that is capable of detecting an end portion of the medium (P) in the intersecting direction (B) by being moved in the intersecting direction (B), and the controller controls movement in the intersecting direction (B) of the scan sensor . a transport section for a medium (P); a line head in which nozzles (N) discharging liquid are arrayed in an intersecting direction (B) that intersects a direction (A) of transporting the medium (P); a sensor that is capable of detecting an end portion of the medium (P) in the intersecting direction (B); and a controller that controls discharging of the liquid, wherein the line head is movable in the intersecting direction (B), and wherein the controller sets a position of the line head in the intersecting direction (B) based on a detection result of the sensor , characterized in that the sensor is a scan sensor that is capable of detecting an end portion of the medium (P) in the intersecting direction (B) by being moved in the intersecting direction (B), and the controller controls movement in the intersecting direction (B) of the scan sensor .
A knitted component comprising: a first yarn comprising a thermoplastic material having a first melting temperature that is greater than about 55 degrees Celsius; a second yarn having a second melting temperature that is greater than about 170 degrees Celsius; a window region comprising the first yarn ; an edge region defining a first edge of the window region , wherein the edge region includes both the first yarn and the second yarn knit together in a single jersey knit structure; and a transition region defining a second edge of the window region , wherein the transition region comprises the second yarn , characterised in that the second yarn in the transition region is knit in a double jersey knit structure. a first yarn comprising a thermoplastic material having a first melting temperature that is greater than about 55 degrees Celsius; a second yarn having a second melting temperature that is greater than about 170 degrees Celsius; a window region comprising the first yarn ; an edge region defining a first edge of the window region , wherein the edge region includes both the first yarn and the second yarn knit together in a single jersey knit structure; and a transition region defining a second edge of the window region , wherein the transition region comprises the second yarn , characterised in that the second yarn in the transition region is knit in a double jersey knit structure.
Turbomachine of the two-flow type comprising a nacelle centred on an axis (X) and surrounding an inter-duct element , the inter-duct element and the nacelle defining between them a fan duct that extends along the axis (X), the turbomachine comprising at least one compartment created in the thickness of the inter-duct element or of the nacelle , said compartment being separated from the fan duct by a cold wall and comprising at least one heat-sensitive element , the compartment being further equipped with a ventilation assembly comprising at least one ventilation opening created in the cold wall in order to cause, during use, air (F1) to enter from the fan duct into the compartment , each ventilation opening comprising a passive opening system arranged in the compartment , said system comprising a flap that is able to move between an opening position in which the flap leaves said opening free and a blocking position in which the flap blocks said opening , and a device for passive actuation of the flap in order to move the flap between the two positions, characterized in that the device comprises a tube and a spring made of a heat-sensitive shape-memory alloy such that the spring expands or contracts as a function of the temperature to which it is subjected, said spring surrounds the tube and has a first end that is fixed and a second end that is mechanically connected to the flap in order to move the flap between the two positions as a function of the temperature of said spring .
Drain fitting , in particular in the form of a floor drain or for a bathtub or shower tray, having a drain housing having an inlet opening and an outlet , an annular and/or flange-shaped fastening element associated with the inlet opening , and an odor trap formed between the inlet opening and the outlet , wherein the outlet is formed as a pipe socket (4.1) for connecting a pipeline, wherein the pipe socket (4.1) has an outer pipe section (4.11) and an inner pipe section (4.12) arranged inside the outer pipe section (4.11), wherein the pipe sections (4.11, 4.12) are radially spaced from each other, wherein the drain housing has a pot-shaped section (4.2) from the base of which the pipe sections (4.11, 4.12) extend vertically downwards, and wherein in the pot-shaped section (4.2) a pipe section (4. 5) is formed or arranged which extends upwardly therein, characterized in that an inner pipe (4.7) is arranged in the pipe section (4.5) extending upwardly into the pot-shaped section (4.2), which inner pipe extends downwardly into the inner pipe section (4.12) of the pipe socket (4.1). a drain housing having an inlet opening and an outlet , an annular and/or flange-shaped fastening element associated with the inlet opening , and an odor trap formed between the inlet opening and the outlet , wherein the outlet is formed as a pipe socket (4.1) for connecting a pipeline, wherein the pipe socket (4.1) has an outer pipe section (4.11) and an inner pipe section (4.12) arranged inside the outer pipe section (4.11), wherein the pipe sections (4.11, 4.12) are radially spaced from each other, wherein the drain housing has a pot-shaped section (4.2) from the base of which the pipe sections (4.11, 4.12) extend vertically downwards, and wherein in the pot-shaped section (4.2) a pipe section (4. 5) is formed or arranged which extends upwardly therein, characterized in that an inner pipe (4.7) is arranged in the pipe section (4.5) extending upwardly into the pot-shaped section (4.2), which inner pipe extends downwardly into the inner pipe section (4.12) of the pipe socket (4.1).
A zirconia sintered body containing yttria in an amount of 6-15 mol% and titania in an amount of 3-20 mol% and having an in-line transmission of 50% or higher when examined at a sample thickness of 1 mm and a measuring wavelength of 600 nm, having an average grain size of less than 30 μm, and having an average bending strength of 250 MPa or higher, wherein the in-line transmission is a parameter having the following relational expression; Ti = Tt − Td Tt: total forward transmission (%) Td: diffuse transmission (%) Ti: in-line transmission (%). Tt: total forward transmission (%) Td: diffuse transmission (%) Ti: in-line transmission (%).
A transmission unit for a vehicle, comprising: a plurality of input shafts , each of the input shafts having a shift driving gear thereon; a plurality of output shafts , wherein each of the output shafts has a shift driven gear configured to mesh with a corresponding shift driving gear; a generator gear disposed on one of the output shafts ; a motor power shaft ; a first motor power shaft gear disposed on the motor power shaft and configured to rotate together with generator gear ; a second motor power shaft gear disposed on the motor power shaft and configured to rotate together with one of the shift driven gears; a reverse idler gear ; and a reverse output gear configured to rotate together with one of the shift driving gears via the reverse idler gear , characterized in that the second motor power shaft gear is configured to mesh with the one of the shift driven gears directly. a plurality of input shafts , each of the input shafts having a shift driving gear thereon; a plurality of output shafts , wherein each of the output shafts has a shift driven gear configured to mesh with a corresponding shift driving gear; a generator gear disposed on one of the output shafts ; a motor power shaft ; a first motor power shaft gear disposed on the motor power shaft and configured to rotate together with generator gear ; a second motor power shaft gear disposed on the motor power shaft and configured to rotate together with one of the shift driven gears; a reverse idler gear ; and a reverse output gear configured to rotate together with one of the shift driving gears via the reverse idler gear , characterized in that the second motor power shaft gear is configured to mesh with the one of the shift driven gears directly.