mhurhangee/ep-ind-claims huggingface dataset:
An aqueous dispersion comprising an emulsion polymer, wherein the emulsion polymer comprises, by weight based on the weight of the emulsion polymer, (a) structural units of a phosphorous acid monomer and/or a salt thereof, (b) from 5% to less than 40% of structural units of a cycloalkyl (meth)acrylate, (c) from 0.8% to 5% of structural units of an acetoacetoxy or acetoacetamide functional monomer, and (d) structural units of a hydrophobic monomer; wherein the emulsion polymer has a weight average molecular weight of 160,000 g/mol or more and wherein the weight average molecular weight is determined according to the method mentioned in the specification. (a) structural units of a phosphorous acid monomer and/or a salt thereof, (b) from 5% to less than 40% of structural units of a cycloalkyl (meth)acrylate, (c) from 0.8% to 5% of structural units of an acetoacetoxy or acetoacetamide functional monomer, and (d) structural units of a hydrophobic monomer;
Ferris wheel, comprising two pairs of masts (11,12, 21, 22), wherein the masts in each pair are hingedly connected to each other and wherein each pair of masts is moveable between a folded position and a stretched position, wherein the Ferris wheel is further provided with multiple spokes, two spoke rings (14, 24) for mounting the spokes and multiple ring segments (3, 4, 5) for interconnection of the spokes, wherein the Ferris wheel comprises a first shaft, which is mounted on the top of the first pair of masts (11, 12), wherein a first of the two spoke rings is arranged rotatably around the first shaft, wherein that the Ferris wheel further comprises a second shaft, which is mounted on the top of the second pair of masts (21, 22), wherein a second of the two spoke rings is arranged rotatably around the second shaft, characterized in that the first shaft is mounted fixedly on the top of the first pair of masts (11, 12), the second shaft is mounted fixedly on the top of the second pair of masts (21, 22), wherein, in use of the Ferris wheel, the second shaft is substantially in line with the first shaft at a distance from the first shaft.
A modified polypeptide of the amino acid sequence of SEQ ID NO: 1 having the activity of exporting O -acetylhomoserine, wherein at least one amino acid selected from the group consisting of phenylalanine at position 30, leucine at position 95, and phenylalanine at position 165 in the amino acid sequence of SEQ ID NO: 1 is substituted with another amino acid, wherein the modified polypeptide has a sequence identity of at least 70% to the amino acid sequence of SEQ ID NO: 1.
The use of an acylhydrazone of the general formula I, in which the functional group R 1 represents a functional group R 2 = R 4 = R 6 = R 7 = R 8 represents H, R 5 represents OH, and A - represents a charge-balancing anion, in combination with a peroxide bleaching agent, for improving the dirt-removal performance of washing or cleaning agents when said agents are used. R 2 = R 4 = R 6 = R 7 = R 8 represents H, R 5 represents OH, and A - represents a charge-balancing anion, in combination with a peroxide bleaching agent, for improving the dirt-removal performance of washing or cleaning agents when said agents are used.
Turbine which comprises a water wheel that is arranged in a turbine chamber and can be driven by a medium flowing therethrough, and a control device by means of which, for the liquid medium that drives the turbine, the flow cross-section can be narrowed and widened at the inlet into the water wheel depending on the flow of the medium, wherein, by means of the control device, the flow cross-section is narrowed at the inlet into the water wheel only for small flows, compared with the flow cross-section for larger flows, within the permissible size range of the flow through the turbine, wherein the water wheel is rotatably mounted in a closed turbine chamber which is completely filled with the driving liquid medium, and wherein the turbine chamber comprises an inlet into the water wheel and an outlet into a continuing line.
A composite article comprising: a thermoplastic fiber-reinforced porous prepreg layer comprising a web formed from a plurality of sheath-core reinforcing fibers and a thermoplastic material; and a non-woven scrim coupled to the prepreg layer at a first surface of the prepreg layer, the non-woven scrim comprising a plurality of bi-component fibers. a thermoplastic fiber-reinforced porous prepreg layer comprising a web formed from a plurality of sheath-core reinforcing fibers and a thermoplastic material; and a non-woven scrim coupled to the prepreg layer at a first surface of the prepreg layer, the non-woven scrim comprising a plurality of bi-component fibers.
A molecular sieve having a mole ratio of 10 or greater of silicon oxide to an oxide selected from boron oxide and aluminum oxide, and having, in its calcined form, an X-ray diffraction pattern as shown in the following table: 2-Theta d-Spacing, nm Relative Intensity 7.09 ± 0.20 1.245 VS 8.78 ± 0.20 1.006 S 9.95 ± 0.20 0.889 W 13.36 ± 0.20 0.662 W 16.04 ± 0.20 0.553 W 16.88 ± 0.20 0.525 W 17.51 ± 0.20 0.506 W 19.48 ± 0.20 0.455 VS 21.65 ± 0.20 0.410 VS 22.24 ± 0.20 0.399 M 24.52 ± 0.20 0.363 M 25.17 ± 0.20 0.354 W 26.17 ± 0.20 0.340 M 26.87 ± 0.20 0.331 M 28.28 ± 0.20 0.315 W 28.58 ± 0.20 0.312 W 29.94 ± 0.20 0.298 M.
A method, comprising: receiving a media signal (42, 44) associated with a session within a media over internet protocol (MoIP) network, the media signal (42, 44) being defined based on a media-layer protocol; receiving a session-layer parameter value associated with the session, wherein the session-layer parameter value is an identifier associated with a destination end-point (780, 785) configured to receive the media signal (42, 44); sending at least a first portion of the media signal (42, 44) to a dual-tone multi-frequency (DTMF) analysis module (112, 240, 792) when a condition within a DTMF policy is satisfied based on the session-layer parameter value, characterized in that wherein the DTMF analysis module (112, 240, 792) is configured to analyze the media signal (42, 44) to determine whether or not the media signal (42, 44) has information associated with one or more DTMF signals, wherein the first portion of the media signal (42, 44) is defined based on a sampling time period associated with the DTMF analysis module (112, 240, 792); and sending a second portion of the media signal (42, 44) to a processing pipeline that bypasses the DTMF analysis module (112, 240, 792) when the condition is unsatisfied based on the session-layer parameter value. receiving a media signal (42, 44) associated with a session within a media over internet protocol (MoIP) network, the media signal (42, 44) being defined based on a media-layer protocol; receiving a session-layer parameter value associated with the session, wherein the session-layer parameter value is an identifier associated with a destination end-point (780, 785) configured to receive the media signal (42, 44); sending at least a first portion of the media signal (42, 44) to a dual-tone multi-frequency (DTMF) analysis module (112, 240, 792) when a condition within a DTMF policy is satisfied based on the session-layer parameter value, characterized in that wherein the DTMF analysis module (112, 240, 792) is configured to analyze the media signal (42, 44) to determine whether or not the media signal (42, 44) has information associated with one or more DTMF signals, wherein the first portion of the media signal (42, 44) is defined based on a sampling time period associated with the DTMF analysis module (112, 240, 792); and sending a second portion of the media signal (42, 44) to a processing pipeline that bypasses the DTMF analysis module (112, 240, 792) when the condition is unsatisfied based on the session-layer parameter value.
A micro-light-emitting diode (micro-LED, 100) with a size thereof smaller than 100 μm X 100 μm or 0.01 mm 2, comprising: a first type semiconductor layer; a second type semiconductor layer disposed on or above the first type semiconductor layer; a first dielectric layer disposed on the second type semiconductor layer, the first dielectric layer having at least one opening therein to expose at least one part of the second type semiconductor layer, wherein a first shortest distance between an edge of the opening of the first dielectric layer and a side surface of the second type semiconductor layer is greater than or equal to 1 μ m; a first electrode partially disposed on the first dielectric layer and electrically coupled with the exposed part of the second type semiconductor layer through the opening of the first dielectric layer, characterized in that the first electrode is made of a transparent conductive material; a second dielectric layer disposed on the first type semiconductor layer, the second dielectric layer having at least one opening therein to expose at least one part of the first type semiconductor layer, wherein a second shortest distance between an edge of the opening of the second dielectric layer and a side surface of the first type semiconductor layer is greater than or equal to 1 μm; and a second electrode partially disposed on the second dielectric layer and electrically coupled with the exposed part of the first type semiconductor layer through the opening of the second dielectric layer. a first type semiconductor layer; a second type semiconductor layer disposed on or above the first type semiconductor layer; a first dielectric layer disposed on the second type semiconductor layer, the first dielectric layer having at least one opening therein to expose at least one part of the second type semiconductor layer, wherein a first shortest distance between an edge of the opening of the first dielectric layer and a side surface of the second type semiconductor layer is greater than or equal to 1 μ m; a first electrode partially disposed on the first dielectric layer and electrically coupled with the exposed part of the second type semiconductor layer through the opening of the first dielectric layer, characterized in that the first electrode is made of a transparent conductive material; a second dielectric layer disposed on the first type semiconductor layer, the second dielectric layer having at least one opening therein to expose at least one part of the first type semiconductor layer, wherein a second shortest distance between an edge of the opening of the second dielectric layer and a side surface of the first type semiconductor layer is greater than or equal to 1 μm; and a second electrode partially disposed on the second dielectric layer and electrically coupled with the exposed part of the first type semiconductor layer through the opening of the second dielectric layer.
A method for controlling traffic congestion over a communication link, wherein the method comprises gathering upstream and downstream queue occupancies (Q US; Q DS) of respective upstream and downstream queues (210; 110) at opposite sides of the communication link wherein upstream and downstream traffics are respectively queued, determining an aggregate queue occupancy (Q TOT) for a virtual queue aggregating the upstream and downstream queued traffics based on the upstream and downstream queue occupancies, determining an aggregate dropping or marking probability (P TOT) based on the aggregate queue occupancy, and jointly dropping or marking upstream and downstream data packets at one side of the communication link based on the aggregate dropping or marking probability.
A method for manufacturing a III-V compound semiconductor material comprising the steps of: a. providing a substrate made of a first semiconductor material having an exact orientation, an insulating layer overlying and in contact with the substrate and a recessed region in the insulating layer which exposes at least partially the substrate, the recessed region having a predetermined width at the exposed substrate; b. forming a buffer layer overlying and in contact with the exposed substrate in the recessed region, wherein the buffer layer has a predetermined thickness and comprises a group IV semiconductor material; c. applying a thermal treatment at a predetermined temperature higher or equal to the temperature at which the free energy of step formation becomes zero and double step formation is promoted for the group IV semiconductor material from which the buffer layer is made, wherein the method comprises, prior to step b of forming the buffer layer, performing an isotropic wet etch of the exposed substrate in the recessed region, such that the exposed substrate takes a concave shape and the buffer layer formed thereon also takes a concave shape; wherein the predetermined width of the recessed region, the predetermined thickness of the buffer layer and the predetermined temperature are chosen such that the buffer layer, after application of the thermal treatment, takes a concave shape with a curved surface of which the terrace width is smaller or equal to 5 nm and that double steps are formed over the whole curved surface, the method further comprising the step of d. filling at least partially the recessed region with an III-V compound semiconductor material which is overlying and in contact with the double stepped curved surface of the buffer layer. a. providing a substrate made of a first semiconductor material having an exact orientation, an insulating layer overlying and in contact with the substrate and a recessed region in the insulating layer which exposes at least partially the substrate, the recessed region having a predetermined width at the exposed substrate; b. forming a buffer layer overlying and in contact with the exposed substrate in the recessed region, wherein the buffer layer has a predetermined thickness and comprises a group IV semiconductor material; c. applying a thermal treatment at a predetermined temperature higher or equal to the temperature at which the free energy of step formation becomes zero and double step formation is promoted for the group IV semiconductor material from which the buffer layer is made, d. filling at least partially the recessed region with an III-V compound semiconductor material which is overlying and in contact with the double stepped curved surface of the buffer layer.
Escape wheel set for a magnetic timepiece escapement mechanism, comprising a first surface which is the largest surface of said wheel set or one of the largest surfaces of said wheel set when said wheel set comprises a plurality thereof, said wheel set including at least one magnetized track, with a succession of ranges about a period of rotational travel in which the magnetic features thereof are repeated, each said range including a magnetic ramp followed by a magnetic field barrier jointly arranged to generate, with a pole piece of a stop member, an interaction energy with an increasing field for the magnetic ramp and also with an increasing field for said barrier, the field gradient of said latter increasing field being higher than that of the increasing field of the magnetic ramp, said at least one magnetized track being continuous and closed about an axis of said wheel set, extending over said first surface of said escape wheel set, and whose geometry, when projected onto said first surface, defines said magnetic ramps and magnetic field barriers; characterized in that said magnetized track includes a magnetic layer of constant thickness and magnetization, and of variable width to define at least, on the one hand, the magnetic ramps and, on the other hand, said magnetic field barriers; in that said magnetized track comprises, connected on either side of a boundary, an internal track and an external track including said magnetic field barriers staggered with respect to said boundary, in alternate half-periods; in that said magnetic layer comprises, at each half-period, a barrier stud forming a said magnetic field barrier, extending substantially on only one side of said boundary, the barrier studs being arranged alternately on said internal track and on said external track; and in that said magnetic layer extends alternately, essentially over said internal track and said external track between the successive barrier studs.
HUD module for a vehicle, in particular motor vehicle, having a housing which is designed for being arranged at least regionally in an instrument panel of the vehicle, which instrument panel has an air-guiding duct, wherein at least one wall (7, 8) of the housing is formed as a part of the air-guiding duct, characterized in that the housing has at least one rear wall and at least one side wall which adjoin one another and which together form the part of the air-guiding duct, wherein, for this purpose, the at least one rear wall and the at least one side wall form an outwardly pointing edge section as a duct wall segment.
An industrial control system, comprising: a search component configured to learn of a controller or learn of at least one change in a configuration of the controller; a gather component configured to collect information from the controller after the search component learns of the controller or learns of at least one change in the configuration of the controller; an evaluation component configured to appraise a distributed directory to determine relevant parameters; a decision component configured to select at least some portion of the collected information for population into the distributed directory, wherein an outcome of the appraisal is used in the selection of the at least some portion of the collected information for population upon the distributed directory; a placement component configured to populate the selected at least some portion of collected information into the distributed directory; and a security component configured to regulate distributed directory information that is configured to be ascertained by a device or selectively mask distributed directory information with regard to at least one device. a search component configured to learn of a controller or learn of at least one change in a configuration of the controller; a gather component configured to collect information from the controller after the search component learns of the controller or learns of at least one change in the configuration of the controller; an evaluation component configured to appraise a distributed directory to determine relevant parameters; a decision component configured to select at least some portion of the collected information for population into the distributed directory, wherein an outcome of the appraisal is used in the selection of the at least some portion of the collected information for population upon the distributed directory; a placement component configured to populate the selected at least some portion of collected information into the distributed directory; and a security component configured to regulate distributed directory information that is configured to be ascertained by a device or selectively mask distributed directory information with regard to at least one device.
A computer-implemented method comprising: requesting input information relating to a chromatography experiment from a data lake, the input information comprising metadata relating to how the chromatography experiment was performed; applying machine learning to identify a relationship between the metadata and whether a compliance issue exists with regards to the chromatography experiment; applying the identified relationship to new chromatography input information, the new chromatography input information including a new configuration of metadata; and flagging one or more parameters in the new configuration of metadata contributing to a compliance issue in a dashboard user interface. requesting input information relating to a chromatography experiment from a data lake, the input information comprising metadata relating to how the chromatography experiment was performed; applying machine learning to identify a relationship between the metadata and whether a compliance issue exists with regards to the chromatography experiment; applying the identified relationship to new chromatography input information, the new chromatography input information including a new configuration of metadata; and flagging one or more parameters in the new configuration of metadata contributing to a compliance issue in a dashboard user interface.
A telephone call processing system for processing telephone calls comprising voice signals and data signals, the call processing system comprising a first telephone interface, a second telephone interface, and a data interface, the call processing system being operable in a first mode and in a second mode, wherein: in the first mode, the call processing system is adapted to receive voice signals and data signals at the first telephone interface and to transmit voice signals and data signals to the second telephone interface; in the second mode, the call processing system is adapted to receive voice signals and data signals representing sensitive information at the first telephone interface, to process the data signals and to block the data signals from being transmitted to the second telephone interface and optionally to transmit the voice signals to the second telephone interface; and wherein the call processing system is further adapted when in the second mode: to associate an identifier with the blocked data signals; to generate a request signal based on the blocked data signals; to transmit said request to an external entity via the data interface; to receive a message via the data interface identifying success or failure of the request to match the received message to the telephone call in dependence on the identifier; and to provide a confirmation signal to the first and/or second telephone interface. in the first mode, the call processing system is adapted to receive voice signals and data signals at the first telephone interface and to transmit voice signals and data signals to the second telephone interface; in the second mode, the call processing system is adapted to receive voice signals and data signals representing sensitive information at the first telephone interface, to process the data signals and to block the data signals from being transmitted to the second telephone interface and optionally to transmit the voice signals to the second telephone interface; and wherein the call processing system is further adapted when in the second mode: to associate an identifier with the blocked data signals; to generate a request signal based on the blocked data signals; to transmit said request to an external entity via the data interface; to receive a message via the data interface identifying success or failure of the request to match the received message to the telephone call in dependence on the identifier; and to provide a confirmation signal to the first and/or second telephone interface. to associate an identifier with the blocked data signals; to generate a request signal based on the blocked data signals; to transmit said request to an external entity via the data interface; to receive a message via the data interface identifying success or failure of the request to match the received message to the telephone call in dependence on the identifier; and to provide a confirmation signal to the first and/or second telephone interface.