mhurhangee/ep-ind-claims huggingface dataset:
A method of making a high molecular weight, branched, alkylene polyamine-containing product containing not more than 25 weight percent cyclic components, comprising the steps of: (a) providing a reaction composition comprising a first linear alkylenepolyamine that has at least two non-tertiary amine groups separated by at least a ternary carbon atom spacing and at least one second alkylenepolyamine having the formula wherein x, y, and z are the same or different and are integers of from 1 to 10; a, b, c, d, e, and f are the same or different and are H or hydrocarbyl of from 1 to 10 carbon atoms, A, B, C, D, E, are the same or different and are H or hydrocarbyl of from 1 to 10 carbon atoms; provided that at least two of the amine groups are primary or secondary; and (b) subjecting the reaction composition to a transamination reaction in the presence of a hydrogenation/ dehydrogenation catalyst to obtain a product composition comprising the high molecular weight, branched, alkylenepolyamine-containing product which has a molecular weight of at least 203, wherein the product composition does not have more than 25 weight percent cyclic components. (a) providing a reaction composition comprising a first linear alkylenepolyamine that has at least two non-tertiary amine groups separated by at least a ternary carbon atom spacing and at least one second alkylenepolyamine having the formula wherein x, y, and z are the same or different and are integers of from 1 to 10; a, b, c, d, e, and f are the same or different and are H or hydrocarbyl of from 1 to 10 carbon atoms, A, B, C, D, E, are the same or different and are H or hydrocarbyl of from 1 to 10 carbon atoms; provided that at least two of the amine groups are primary or secondary; and (b) subjecting the reaction composition to a transamination reaction in the presence of a hydrogenation/ dehydrogenation catalyst to obtain a product composition comprising the high molecular weight, branched, alkylenepolyamine-containing product which has a molecular weight of at least 203, wherein the product composition does not have more than 25 weight percent cyclic components.
Compound having an ablative effect, comprising - a constituent A, which contains a multi-functional Michael acceptor, which has at least two electron-poor carbon multiple bonds per molecule as functional Michael acceptor groups, - a constituent B, which contains a multi-functional Michael donor, which has at least two C,H-acidic groups per molecule as functional Michael donor-groups, - a constituent C, which contains a compound which has an X-H-group, wherein this compound can react with component A and wherein X stands for N, P, O, S or C, with the proviso that if X stands for C, C is part of an acidic methyl group, - a constituent D, which contains a catalyst for the Michael addition reaction, and - a constituent E, which contains at least one fire-protection additive having an ablative effect. - a constituent A, which contains a multi-functional Michael acceptor, which has at least two electron-poor carbon multiple bonds per molecule as functional Michael acceptor groups, - a constituent B, which contains a multi-functional Michael donor, which has at least two C,H-acidic groups per molecule as functional Michael donor-groups, - a constituent C, which contains a compound which has an X-H-group, wherein this compound can react with component A and wherein X stands for N, P, O, S or C, with the proviso that if X stands for C, C is part of an acidic methyl group, - a constituent D, which contains a catalyst for the Michael addition reaction, and - a constituent E, which contains at least one fire-protection additive having an ablative effect.
A method for contactless protection of a machine, wherein a plurality of protective fields (38A-B) configured in the vicinity of the machine are monitored for protective field violations by at least one optoelectronic sensor (10, 10a-b) and, in the event of a protective field violation, a safe output signal is generated at a safe output (32, 34) that is assigned to the protective field (38A-B), wherein the protective fields (38A-B) are configured such that a vehicle approaching the machine leads to a different sequence of protective field violations than a person approaching the machine, and the sequence of protective field violations is evaluated in order to distinguish vehicle and person from one another, characterized in that the optoelectronic sensor (10, 10a-b monitors three-dimensional protective fields (38A-B), in that the protective fields (38A-B) have at least two layers, with a lower layer and an upper layer arranged above it, and in that the configuration of the protective fields (38A-B) in the lower layer differs from the configuration of the protective fields (38A-B) in the upper layer, so that a horizontal 2D section through the upper layer provides a different image of the protective fields than a horizontal 2D section through the lower layer.
A method for a user equipment, UE, operating in a wireless communication system, the method comprising: configuring one or more licensed cells and one or more unlicensed cells; configuring a plurality of logical channels; receiving an uplink grant; and performing a logical channel prioritization, LCP, procedure based on the uplink grant, the method being characterized in that: each of the plurality of logical channels is allowed or not allowed to be transmitted on unlicensed cells, the UE performs the LCP procedure for all of the plurality of logical channels, when the uplink grant is for one of the one or more licensed cells, and the UE performs the LCP procedure only for logical channels allowed to be transmitted on unlicensed cells, when the uplink grant is for one of the one or more unlicensed cells. configuring one or more licensed cells and one or more unlicensed cells; configuring a plurality of logical channels; receiving an uplink grant; and performing a logical channel prioritization, LCP, procedure based on the uplink grant, the method being characterized in that: each of the plurality of logical channels is allowed or not allowed to be transmitted on unlicensed cells, the UE performs the LCP procedure for all of the plurality of logical channels, when the uplink grant is for one of the one or more licensed cells, and the UE performs the LCP procedure only for logical channels allowed to be transmitted on unlicensed cells, when the uplink grant is for one of the one or more unlicensed cells. each of the plurality of logical channels is allowed or not allowed to be transmitted on unlicensed cells, the UE performs the LCP procedure for all of the plurality of logical channels, when the uplink grant is for one of the one or more licensed cells, and the UE performs the LCP procedure only for logical channels allowed to be transmitted on unlicensed cells, when the uplink grant is for one of the one or more unlicensed cells.
A nanoparticle conjugated to a protein capable of binding to a polypeptide encoded by exon 9 of human CD44 (CD44ex9), said protein comprises or consists of (i) an amino acid sequence according SEQ ID No. 1 to 5; or (ii) an amino acid sequence with at least 95% identity to the amino acid sequence given in SEQ ID No. 1 to 5 as a whole, wherein said protein has a length of 100 amino acids or less. (i) an amino acid sequence according SEQ ID No. 1 to 5; or (ii) an amino acid sequence with at least 95% identity to the amino acid sequence given in SEQ ID No. 1 to 5 as a whole,
An arrayed waveguide grating, comprising: a first star coupler; a second star coupler; an array of waveguides 2. (701,702,703) connecting the first star coupler and the second star coupler; one or more first port waveguides connected to the first star coupler; and one or more second port waveguides connected to the second star coupler, wherein: a first optical path, from a first waveguide of the first port waveguides, through a first waveguide of the array of waveguides (701,702,703), to a first waveguide of the second port waveguides, includes a portion, having a first length, within hydrogenated amorphous silicon, the remainder of the first optical path is within crystalline silicon, a second optical path, from the first waveguide of the first port waveguides, through a second waveguide of the array of waveguides (701,702,703), to the first waveguide of the second port waveguides, includes a portion, having a second length, within hydrogenated amorphous silicon, the remainder of the second optical path is within crystalline silicon, and the second length is different from the first length. a first star coupler; a second star coupler; an array of waveguides 2. (701,702,703) connecting the first star coupler and the second star coupler; one or more first port waveguides connected to the first star coupler; and one or more second port waveguides connected to the second star coupler, wherein: a first optical path, from a first waveguide of the first port waveguides, through a first waveguide of the array of waveguides (701,702,703), to a first waveguide of the second port waveguides, includes a portion, having a first length, within hydrogenated amorphous silicon, the remainder of the first optical path is within crystalline silicon, a second optical path, from the first waveguide of the first port waveguides, through a second waveguide of the array of waveguides (701,702,703), to the first waveguide of the second port waveguides, includes a portion, having a second length, within hydrogenated amorphous silicon, the remainder of the second optical path is within crystalline silicon, and the second length is different from the first length. a first optical path, from a first waveguide of the first port waveguides, through a first waveguide of the array of waveguides (701,702,703), to a first waveguide of the second port waveguides, includes a portion, having a first length, within hydrogenated amorphous silicon, the remainder of the first optical path is within crystalline silicon, a second optical path, from the first waveguide of the first port waveguides, through a second waveguide of the array of waveguides (701,702,703), to the first waveguide of the second port waveguides, includes a portion, having a second length, within hydrogenated amorphous silicon, the remainder of the second optical path is within crystalline silicon, and the second length is different from the first length.
A method for dual layer beamforming, the method comprises: receiving sounding reference signal, SRS, sent by a terminal wherein the broadband occupied when sending the SRS is divided into a plurality of sub-bands by the terminal; determining a broadband beamforming vector corresponding to the broadband and sub-band beamforming vectors corresponding to each sub-band, respectively, according to the SRS and according to a calculation method for the beamforming vector using an Eigenvalue Based Beamforming, EBB; determining two polarized-direction beamforming vectors corresponding to each sub-band, respectively, according to the broadband beamforming vector corresponding to the broadband or the sub-band beamforming vectors corresponding to each sub-band, and according to a calculation method for two polarized-direction beamforming vectors using a Grid of Beam, GOB, method; and directed to each sub-band, adopting the two polarized-direction beamforming vectors corresponding to the sub-band for dual layer beamforming. receiving sounding reference signal, SRS, sent by a terminal wherein the broadband occupied when sending the SRS is divided into a plurality of sub-bands by the terminal; determining a broadband beamforming vector corresponding to the broadband and sub-band beamforming vectors corresponding to each sub-band, respectively, according to the SRS and according to a calculation method for the beamforming vector using an Eigenvalue Based Beamforming, EBB; determining two polarized-direction beamforming vectors corresponding to each sub-band, respectively, according to the broadband beamforming vector corresponding to the broadband or the sub-band beamforming vectors corresponding to each sub-band, and according to a calculation method for two polarized-direction beamforming vectors using a Grid of Beam, GOB, method; and directed to each sub-band, adopting the two polarized-direction beamforming vectors corresponding to the sub-band for dual layer beamforming.
An electromechanical brake actuator for a vehicle, comprising: a motor, a casing delimiting an inner space enclosing the motor, an electric connector opening outwardly of the actuator, characterised in that it comprises a duct provided in a wall of the casing, wherein an electric conductor is located in the duct, wherein the electric conductor electrically connects the motor to the electric connector, wherein the duct is configured to allow fluid to circulate in a space delimited by the electric conductor and by the wall of the casing, through the electric connector and between the electric connector and the inner space. a motor, a casing delimiting an inner space enclosing the motor, an electric connector opening outwardly of the actuator, characterised in that it comprises a duct provided in a wall of the casing, wherein an electric conductor is located in the duct, wherein the electric conductor electrically connects the motor to the electric connector, wherein the duct is configured to allow fluid to circulate in a space delimited by the electric conductor and by the wall of the casing, through the electric connector and between the electric connector and the inner space.
A in vitro method of converting a T cell into a cell that exhibits a regulatory T cell phenotype, the method comprising contacting a T cell with a K562 cell modified to comprise an agent capable of activating PD1 signaling in said T cell thereby converting said T cell into a cell that exhibits a regulatory T cell phenotype, wherein said agent is selected from the group consisting of PDL1, PDL2, PD1 ligand, and an anti-PD1 antibody and wherein said T cell is a non-regulatory T cell selected from the group consisting of a CD4 + cell, a CD4 + CD25 - cell, a CD4 + CD25 - 45RA + cell, and any combination thereof, or is selected from the group consisting of a Th1 cell, a Th2 cell, a Th17 cell, and any combination thereof.
Apparatus for depositing a coating via an atmospheric pressure plasma jet, the apparatus comprising: - a plasma jet generator comprising a jet outlet; and - a nozzle comprising an adaptor and a replaceable shield, the shield comprising a jet inlet, a nozzle outlet and a sidewall extending from the jet inlet to the nozzle outlet, wherein the adaptor is configured for detachably attaching the shield onto the plasma jet generator and thereby communicatively coupling the jet outlet and the jet inlet, wherein the sidewall of the shield comprises at least one precursor inlet, and wherein the shield comprises an insulating material. - a plasma jet generator comprising a jet outlet; and - a nozzle comprising an adaptor and a replaceable shield, the shield comprising a jet inlet, a nozzle outlet and a sidewall extending from the jet inlet to the nozzle outlet, wherein the adaptor is configured for detachably attaching the shield onto the plasma jet generator and thereby communicatively coupling the jet outlet and the jet inlet, wherein the sidewall of the shield comprises at least one precursor inlet, and wherein the shield comprises an insulating material.
A computer-implemented method for operating an autonomous driving vehicle, the method comprising: receiving planning data to drive an autonomous driving vehicle from a starting location and a destination location; generating a series of control commands based on the planning data, the control commands to be applied at a plurality of points in time from the starting location to the destination location; calculating a cost by applying a cost function to the control commands, a first road friction to be estimated in a current trip, and a second road friction estimated during a prior trip from the starting location to the destination location; and estimating the first road friction of the current trip using the cost function in view of a prior termination cost of the prior trip, such that the cost reaches minimum. receiving planning data to drive an autonomous driving vehicle from a starting location and a destination location; generating a series of control commands based on the planning data, the control commands to be applied at a plurality of points in time from the starting location to the destination location; calculating a cost by applying a cost function to the control commands, a first road friction to be estimated in a current trip, and a second road friction estimated during a prior trip from the starting location to the destination location; and estimating the first road friction of the current trip using the cost function in view of a prior termination cost of the prior trip, such that the cost reaches minimum.
A crosslinkable polymer coating composition comprising a. 0.1 - 99 wt% of at least one crosslinkable component that is crosslinkable under the action of a base catalyst, (all wt% herein being relative to the crosslinkable composition), b. a first carbonate salt according to formula 1 as latent base crosslinking catalyst, wherein X + represents a non-acidic cation and wherein R is hydrogen, alkyl, or aralkyl group, and c. a second carbonate salt according to Formula 2 as potlife extender: wherein Y is N or P and wherein each R' can be hydrogen, a substituted or unsubstituted alkyl, aryl or aralkyl group, wherein the second carbonate is present in an amount of at least 5 mole % and preferably at most 500 mole % relative to the molar amount of the first carbonate, d. optionally 0.1 - 70 wt% of solvent, preferably an organic solvent wherein at least. 0.5 wt% (relation to total weight of the crosslinkable composition) is a primary alcohol and optionally comprising 0.1 - 10 wt% water e. optionally 0.1 - 70 wt% of an organic carbonate component according to formula RO-C(=O)O-R wherein R preferably is an alkyl, preferably methyl or ethyl, wherein the at least one crosslinkable component comprises reactive components A and B, each comprising at least 2 reactive groups, wherein the at least 2 reactive groups of component A are acidic protons (C-H) in activated methylene or methine groups and the at least 2 reactive groups of component B are activated unsaturated groups (C=C) and said catalyst composition for starting crosslinking reaction by Real Michael Addition upon deblocking of the latent base catalyst b by evaporation of carbon dioxide. a. 0.1 - 99 wt% of at least one crosslinkable component that is crosslinkable under the action of a base catalyst, (all wt% herein being relative to the crosslinkable composition), b. a first carbonate salt according to formula 1 as latent base crosslinking catalyst, wherein X + represents a non-acidic cation and wherein R is hydrogen, alkyl, or aralkyl group, and c. a second carbonate salt according to Formula 2 as potlife extender: wherein Y is N or P and wherein each R' can be hydrogen, a substituted or unsubstituted alkyl, aryl or aralkyl group, wherein the second carbonate is present in an amount of at least 5 mole % and preferably at most 500 mole % relative to the molar amount of the first carbonate, d. optionally 0.1 - 70 wt% of solvent, preferably an organic solvent wherein at least. 0.5 wt% (relation to total weight of the crosslinkable composition) is a primary alcohol and optionally comprising 0.1 - 10 wt% water e. optionally 0.1 - 70 wt% of an organic carbonate component according to formula RO-C(=O)O-R wherein R preferably is an alkyl, preferably methyl or ethyl,
A method for producing an aircraft structure component having an outer skin provided with a smooth outer surface, said method comprising the steps of: a. providing an aircraft structure component having an outer skin including at least one recess, b. detecting the location of said at least one recess by means of a recess detecting device, and c. filling said at least one recess at the detected location with particles of a filling material, said particles of filling material being applied into said at least one recess by means of an ink jet printing device. a. providing an aircraft structure component having an outer skin including at least one recess, b. detecting the location of said at least one recess by means of a recess detecting device, and c. filling said at least one recess at the detected location with particles of a filling material, said particles of filling material being applied into said at least one recess by means of an ink jet printing device.
Device for measuring at least one physical quantity of an electric installation, comprising at least one sensor (20, 20') arranged to measure at least the said physical quantity and to deliver at least one signal representative of the said physical quantity, and at least one measuring unit arranged to receive the said signal and process it to deliver at least one usable measured value, the said sensor and the said measuring unit being connected to each other by at least one connecting cable, the said connecting cable comprising at least three conductor pairs, a first conductor pair (51+, 51-), called measuring pair, arranged to transmit said signal representative of the said physical quantity measured by the said sensor (20, 20'), a second pair of conductors (52+, 52-), called power supply pair, arranged to supply power to the said sensor, 20') by the said measuring unit, and a third pair of conductors (53a, 53b), called communication pair, arranged to transmit at least one complementary signal (DET1, DET2) between the said sensor (20, 20') and the said measuring unit, the said sensor (20, 20') comprising encoding means (23, 24; 60) arranged to characterize the said sensor and transmit to the said measuring unit via the said communication pair at least one complementary signal (DET1, DET2) corresponding to at least one identification characteristic of the said sensor, the said measuring unit comprising in addition encoding means (25, 26) complementary to the encoding means (23, 24, 60) provided in the said sensor (20, 20'), characterized in that the said measuring unit is modular and adaptable both to a simple analog sensor and to an advanced digital sensor, in that said measuring unit is designed to be connectable to any type of sensor (20, 20') and constitutes a standard module, and in that the said measuring unit further comprises a processing unit incorporating an analog/digital converter connected to said communication pair for receiving and processing said at least one complementary signal (DET1, DET2) transmitted on at least one of the conductors (53a, 53b) of said communication pair, this signal being indifferently an analog signal or a digital signal and being representative of at least one identification characteristic of said sensor allowing said measuring unit to automatically recognize the sensor (20, 20') between a simple analog sensor and an advanced digital sensor which is connected to said measuring unit, and to deliver a correlated usable value of said measured physical quantity.
A heat transfer fluid concentrate comprising: greater than 90 weight percent of a freezing point depressant; 16 to 80 ppm of magnesium ions; an azole compound; an inorganic phosphate; a carboxylate; and an acrylate based polymer, wherein the weight ratio of acrylate based polymer to magnesium ions is 1 to 25; and wherein the heat transfer fluid concentrate has a pH of 7 to 9.5 and is free from silicate, borate and amines; and wherein nitrate, if present, is in an amount of less than 50 ppm. greater than 90 weight percent of a freezing point depressant; 16 to 80 ppm of magnesium ions; an azole compound; an inorganic phosphate; a carboxylate; and an acrylate based polymer, wherein the weight ratio of acrylate based polymer to magnesium ions is 1 to 25; and wherein the heat transfer fluid concentrate has a pH of 7 to 9.5 and is free from silicate, borate and amines; and wherein nitrate, if present, is in an amount of less than 50 ppm.