mhurhangee/patent-ind-claim-en huggingface dataset:
A method for synthesizing a pre-hydrolyzed alkyl polysilicate, the method comprising: 1) adding a first silica precursor to perform a first condensation reaction; and 2) adding a second silica precursor to perform a second condensation reaction, wherein the first silica precursor is a tetra alkyl silicate hydrated to 90 to 100% of the total number of hydrolysable groups of the first silica precursor, and the second silica precursor is a tetra alkyl silicate hydrated to 25 to 75% of the total number of hydrolysable groups of the second silica precursor. 1) adding a first silica precursor to perform a first condensation reaction; and 2) adding a second silica precursor to perform a second condensation reaction,
A motor control apparatus that controls driving of an electric motor for steering angle control, the motor control apparatus comprising: a manual steering command value generation unit that generates a manual steering command value (θ mdac ), using a steering torque (T d ); a summed angle command value calculation unit that calculates a summed angle command value (θ acmd ), by adding the manual steering command value to an automatic steering command value (θ adac ); and a control unit that performs angle control of the electric motor, based on the summed angle command value; characterized in that the control unit includes a basic torque command value calculation unit that calculates a basic torque command value, based on the summed angle command value, a disturbance torque estimation unit that estimates a disturbance torque other than a motor torque of the electric motor applied to an object driven by the electric motor, and a disturbance torque compensation unit that corrects the basic torque command value, based on the disturbance torque; and the manual steering command value generation unit uses an estimated torque (Tic) calculated based on the disturbance torque, when generating the manual steering command value (θ mdac ). a manual steering command value generation unit that generates a manual steering command value (θ mdac ), using a steering torque (T d ); a summed angle command value calculation unit that calculates a summed angle command value (θ acmd ), by adding the manual steering command value to an automatic steering command value (θ adac ); and a control unit that performs angle control of the electric motor, based on the summed angle command value; characterized in that the control unit includes a basic torque command value calculation unit that calculates a basic torque command value, based on the summed angle command value, a disturbance torque estimation unit that estimates a disturbance torque other than a motor torque of the electric motor applied to an object driven by the electric motor, and a disturbance torque compensation unit that corrects the basic torque command value, based on the disturbance torque; and a basic torque command value calculation unit that calculates a basic torque command value, based on the summed angle command value, a disturbance torque estimation unit that estimates a disturbance torque other than a motor torque of the electric motor applied to an object driven by the electric motor, and a disturbance torque compensation unit that corrects the basic torque command value, based on the disturbance torque; and the manual steering command value generation unit uses an estimated torque (Tic) calculated based on the disturbance torque, when generating the manual steering command value (θ mdac ).
Wall feed-through system for two conduits , having a body which is mounted in a wall for rotation about an axis of rotation and through which extend two portions of the two conduits , said two portions being arranged one beside the other, being rotatable together with the body and each communicating with a stationary portion of one of the two conduits , characterized in that each of the two rotatable portions is connected to one of the two stationary portions by a rotary joint , and in that the axis of rotation of the body and the axes of rotation of the two rotary joints are in alignment with one another.
A method in a user equipment, UE, , comprising: determining that a paging message has been received or that a radio resource control, RRC, state of the UE has changed; using a normal measurement mode for a period of time after the paging message has been received or the RRC state of the UE has changed; and determining to enter a relaxed measurement mode after the period of time, characterized in that , the duration of the period of time is equal to a number of discontinuous reception cycles of the UE. determining that a paging message has been received or that a radio resource control, RRC, state of the UE has changed; using a normal measurement mode for a period of time after the paging message has been received or the RRC state of the UE has changed; and determining to enter a relaxed measurement mode after the period of time, characterized in that , the duration of the period of time is equal to a number of discontinuous reception cycles of the UE.
A delivery device for delivering a stented prosthesis to a target site; the delivery device comprising: at least one elongate tension member that can compressively retain the stented prosthesis to the delivery device; a shaft assembly having a lumen and a cutting assembly positioned within the lumen ; wherein the cutting assembly includes a blade that is configured to selectively sever the at least one elongate tension member; wherein the cutting assembly includes the cutting blade and a cord looped around the elongate tension members that is configured to draw the elongate tension members toward the cutting blade, wherein the cutting blade can be actuated to extend out of the lumen to sever the elongate tension members. at least one elongate tension member that can compressively retain the stented prosthesis to the delivery device; a shaft assembly having a lumen and a cutting assembly positioned within the lumen ; wherein the cutting assembly includes a blade that is configured to selectively sever the at least one elongate tension member; wherein the cutting assembly includes the cutting blade and a cord looped around the elongate tension members that is configured to draw the elongate tension members toward the cutting blade, wherein the cutting blade can be actuated to extend out of the lumen to sever the elongate tension members.
A walking aid suitable for supporting patients for securing to the back side of a patient, comprising: - a frame supported by only one pair of primary wheels positioned laterally next to one another and - a rigid support element connected to the front end of the frame, for securing the walking aid to the back side of a patient; wherein, during normal use, only the primary wheels make contact with the ground and the rigid support is positioned at a distance from the vertical plane formed by the axis of the primary wheels; and wherein the connection between the support element and the frame comprises a hinged connection which allows a rotational movement of the support element with respect to the frame, more than two rotational degrees of freedom, wherein the walking aid further comprises a control unit for limiting the angle of rotation α-Y of the support element about the Y axis, so as to control the position of the secured pelvis and wherein one or more dampers are provided which ensure that said rotational movement of the support element is damped or corrected. - a frame supported by only one pair of primary wheels positioned laterally next to one another and - a rigid support element connected to the front end of the frame, for securing the walking aid to the back side of a patient; wherein, during normal use, only the primary wheels make contact with the ground and the rigid support is positioned at a distance from the vertical plane formed by the axis of the primary wheels; and
A method of manufacturing a display module (DM), the method comprising the steps of: providing a carrier substrate (STG1); providing a base layer (BL), where a display area (DAB) and a pad area (PDA) are defined, on the carrier substrate (STG1); providing a circuit layer (CCL) on the display area (DAB) of the base layer (BL) and the pad area (PDA) of the base layer (BL); forming a through hole in the circuit layer (CCL) and the base layer (BL) on the pad area (PDA); forming a conductive part (CP) by providing a conductive material from an upper surface of the circuit layer (CCL) to the through hole formed in the pad area (PDA); and providing a circuit member (CM) electrically connected to the circuit layer (CCL) below the base layer (BL) characterized in that the pad area of the base layer (BL) defines a first pad area (PD1), a bending area (BA), and a second pad area (PD2), the bending area (BA) is positioned between the first pad area (PD1) and the second pad area (PD2), the forming the through hole comprises: forming a first contact hole (CTH1) in the circuit layer (CCL) on the first pad area (PD1) and in the first pad area (PD1) of the base layer (BL); and forming a second contact hole (CTH2) in the circuit layer on the second pad area (PD2) and in the second pad area (PD2) of the base layer (BL). providing a carrier substrate (STG1); providing a base layer (BL), where a display area (DAB) and a pad area (PDA) are defined, on the carrier substrate (STG1); providing a circuit layer (CCL) on the display area (DAB) of the base layer (BL) and the pad area (PDA) of the base layer (BL); forming a through hole in the circuit layer (CCL) and the base layer (BL) on the pad area (PDA); forming a conductive part (CP) by providing a conductive material from an upper surface of the circuit layer (CCL) to the through hole formed in the pad area (PDA); and providing a circuit member (CM) electrically connected to the circuit layer (CCL) below the base layer (BL) characterized in that the pad area of the base layer (BL) defines a first pad area (PD1), a bending area (BA), and a second pad area (PD2), the bending area (BA) is positioned between the first pad area (PD1) and the second pad area (PD2), the forming the through hole comprises: forming a first contact hole (CTH1) in the circuit layer (CCL) on the first pad area (PD1) and in the first pad area (PD1) of the base layer (BL); and forming a second contact hole (CTH2) in the circuit layer on the second pad area (PD2) and in the second pad area (PD2) of the base layer (BL). forming a first contact hole (CTH1) in the circuit layer (CCL) on the first pad area (PD1) and in the first pad area (PD1) of the base layer (BL); and forming a second contact hole (CTH2) in the circuit layer on the second pad area (PD2) and in the second pad area (PD2) of the base layer (BL).
An electric heating device, in particular for a motor vehicle, with a heating block defining opposing surfaces for an inlet and an outlet for air to be heated, having at least one heat-generating layer with at least one PTC element and heat-emitting layers adjacent the heat-generating layer on both sides, wherein one of the heat-emitting layers forms the surface for the inlet and the other of the heat-emitting layers forms the surface for the outlet and the heat-generating layer is arranged between the heat-emitting layers, characterized in that the heat-emitting layers are each formed by a punched sheet bent in meandering configuration which forms an abutting surface defined by a plurality of webs of the sheet for contacting the PTC element , heat-transfer fins extending respectively from the webs in the flow direction of the air to be heated.
A non-aqueous electrolyte, comprising a non-aqueous solvent, a lithium salt and an additive, wherein the non-aqueous solvent comprises a carbonate solvent and a high oxidation potential solvent, the carbonate solvent is a linear carbonate, or a mixture of linear carbonate and cyclic carbonate, and the high oxidation potential solvent is selected from compounds represented by formula I and formula II; in formula I, R 1 and R 2 are independently selected from unsubstituted, partially halogenated or fully halogenated alkyl groups having 1 to 5 carbon atoms, and at least one of R 1 and R 2 is a partially halogenated or fully halogenated alkyl group having 1 to 5 carbon atoms; and in formula II, R 3 is selected from partially halogenated or fully halogenated alkylene groups having 2 to 6 carbon atoms, wherein a halogen atom is selected from one or more of F, Cl, Br, and I; the additive is a fluorinated cyclic carbonate, and the fluorinated cyclic carbonate is selected from one or more of compounds represented by formula III; and in formula III, R 4 is selected from partially fluorinated or fully fluorinated alkylene groups having 1 to 5 carbon atoms; and, wherein the high oxidation potential solvent includes both the compound represented by formula I and the compound represented by formula II. the non-aqueous solvent comprises a carbonate solvent and a high oxidation potential solvent, the carbonate solvent is a linear carbonate, or a mixture of linear carbonate and cyclic carbonate, and the high oxidation potential solvent is selected from compounds represented by formula I and formula II; in formula I, R 1 and R 2 are independently selected from unsubstituted, partially halogenated or fully halogenated alkyl groups having 1 to 5 carbon atoms, and at least one of R 1 and R 2 is a partially halogenated or fully halogenated alkyl group having 1 to 5 carbon atoms; and in formula II, R 3 is selected from partially halogenated or fully halogenated alkylene groups having 2 to 6 carbon atoms, wherein a halogen atom is selected from one or more of F, Cl, Br, and I; the additive is a fluorinated cyclic carbonate, and the fluorinated cyclic carbonate is selected from one or more of compounds represented by formula III; and in formula III, R 4 is selected from partially fluorinated or fully fluorinated alkylene groups having 1 to 5 carbon atoms; and, wherein the high oxidation potential solvent includes both the compound represented by formula I and the compound represented by formula II.
A laser welding method comprising: a first step for forming a weld bead by irradiating an object to be welded with a laser beam along a first helical trajectory around a first center of rotation moving in a welding direction (X); characterized by a second step for irradiating the object to be welded with a laser beam along a second helical trajectory around a second center of rotation moving in the welding direction (X), wherein a diameter of rotation of the laser beam in the first step is larger than a diameter of rotation of the laser beam in the second step. a first step for forming a weld bead by irradiating an object to be welded with a laser beam along a first helical trajectory around a first center of rotation moving in a welding direction (X); characterized by a second step for irradiating the object to be welded with a laser beam along a second helical trajectory around a second center of rotation moving in the welding direction (X), wherein a diameter of rotation of the laser beam in the first step is larger than a diameter of rotation of the laser beam in the second step.
A contactless card configured to be powered by an antenna connected to the input of a rectifier having its output coupled to a processing unit which may consume a first current , the contactless card comprising a current regulation circuit also connected to the output of the rectifier , capable of absorbing a second current (I1) such that the sum of the first and second currents is a constant current, characterized in that the processing unit is configured to provide a signal (VAL) for enabling or disabling the current regulation circuit .
A compound of formula (I) wherein AA 1 represents an aminoacid selected from the group consisting of D-Tryptophan (D-Trp), D-1-naphthylalanine (D-1-Nal) and D-2-naphthylalanine (D-2-Nal); AA 2 represents an aminoacid selected from the group consisting of D-Leucine (D-Leu), D-Norleucine (D-Nle) and D-Phenylalanine (D-Phe); and AA 3 represents an aminoacid selected from the group consisting of D-Methionine (D-Met), D-Tyrosine (D-Tyr) and D-Norleucine (D-Nle) or a pharmaceutically acceptable salt thereof. AA 1 represents an aminoacid selected from the group consisting of D-Tryptophan (D-Trp), D-1-naphthylalanine (D-1-Nal) and D-2-naphthylalanine (D-2-Nal); AA 2 represents an aminoacid selected from the group consisting of D-Leucine (D-Leu), D-Norleucine (D-Nle) and D-Phenylalanine (D-Phe); and AA 3 represents an aminoacid selected from the group consisting of D-Methionine (D-Met), D-Tyrosine (D-Tyr) and D-Norleucine (D-Nle) or a pharmaceutically acceptable salt thereof.
An ultrafast pulse analysis apparatus, comprising: a sampling system configured to receive at least one pulse under test , the sampling system is configured to define a plurality of sampling bins each spanning a frequency range of the at least one pulse under test , the plurality of sampling bins arranged over different frequency ranges so that the plurality of sampling bins define a continuous frequency range over at least a portion of a total frequency range of the at least one pulse under test , adjacent ones of the sampling bins overlapping in frequency ranges; collection optics configured to receive a plurality of pulse portions, each pulse portion derived from the at least one pulse under test and having a frequency range corresponding to at least one of the sampling bins; one or more detectors configured to receive the plurality of pulse portions from the collection optics and to output an electrical pulse signal corresponding to each of the plurality of pulse portions; and analysis electronics configured to receive and digitize the electrical pulse signal, the analysis electronics configured to store a sonogram corresponding to the at least one pulse under test wherein the sonogram comprises sequences of digitized values of the electrical pulse signal at a plurality of time intervals, the digitized values within a sequence corresponding to the pulse portion defined by the at least one sampling bin, wherein the analysis electronics is configured to perform phase retrieval on the sonogram, wherein the sonogram is defined so that spacing of the time intervals is independent of spacing of the plurality of sampling bins. a sampling system configured to receive at least one pulse under test , the sampling system is configured to define a plurality of sampling bins each spanning a frequency range of the at least one pulse under test , the plurality of sampling bins arranged over different frequency ranges so that the plurality of sampling bins define a continuous frequency range over at least a portion of a total frequency range of the at least one pulse under test , adjacent ones of the sampling bins overlapping in frequency ranges; collection optics configured to receive a plurality of pulse portions, each pulse portion derived from the at least one pulse under test and having a frequency range corresponding to at least one of the sampling bins; one or more detectors configured to receive the plurality of pulse portions from the collection optics and to output an electrical pulse signal corresponding to each of the plurality of pulse portions; and analysis electronics configured to receive and digitize the electrical pulse signal, the analysis electronics configured to store a sonogram corresponding to the at least one pulse under test wherein the sonogram comprises sequences of digitized values of the electrical pulse signal at a plurality of time intervals, the digitized values within a sequence corresponding to the pulse portion defined by the at least one sampling bin, wherein the analysis electronics is configured to perform phase retrieval on the sonogram,
A method for purifying a solution, successively comprising: - contacting a solution to be purified with an ion exchange resin, by putting the ion exchange resin in suspension in the solution to be purified, in an agitated vessel, during a time needed to obtain a desired level of decolourization, the ion exchange resin being in the form of particles having a Dv50 size equal to or less than 200 μm, the Dv50 size being determined by laser diffraction analysis and ; - transferring all the solution and the resin in a filtering device; - separating a purified solution on the one hand and a loaded resin on the other hand once the mixture of solution and resin are in the filtering device; - regenerating the loaded resin, by passing at least one regenerating solution through a compact bed of loaded resin, the method being a decolourization method, and the solution to be purified being a sugar liquor. - contacting a solution to be purified with an ion exchange resin, by putting the ion exchange resin in suspension in the solution to be purified, in an agitated vessel, during a time needed to obtain a desired level of decolourization, the ion exchange resin being in the form of particles having a Dv50 size equal to or less than 200 μm, the Dv50 size being determined by laser diffraction analysis and ; - transferring all the solution and the resin in a filtering device; - separating a purified solution on the one hand and a loaded resin on the other hand once the mixture of solution and resin are in the filtering device; - regenerating the loaded resin, by passing at least one regenerating solution through a compact bed of loaded resin,
A knitted textile with a knitted structure , the knitted structure comprising: a first layer of the knitted structure comprising a first yarn , the first yarn comprising a first thermoplastic composition having a first melting temperature, the first yarn forming an array of knitted patterns in the first layer, the array of knitted patterns defining voids in the first layer; a second layer of the knitted structure located on the opposite side of the knitted textile from the first layer and integrally formed with the first layer, the second layer comprising a second yarn , the first yarn and the second yarn forming interlocking knit stitches; the voids passing through the first layer and to the second layer, wherein a portion of the yarn of the second layer is exposed through the voids in the first layer; the second yarn formed of a second composition having a second melting temperature or a second decomposition temperature or both, characterised by the first melting temperature being lower than the lowest of the second melting temperature and second decomposition temperature. a first layer of the knitted structure comprising a first yarn , the first yarn comprising a first thermoplastic composition having a first melting temperature, the first yarn forming an array of knitted patterns in the first layer, the array of knitted patterns defining voids in the first layer; a second layer of the knitted structure located on the opposite side of the knitted textile from the first layer and integrally formed with the first layer, the second layer comprising a second yarn , the first yarn and the second yarn forming interlocking knit stitches; the voids passing through the first layer and to the second layer, wherein a portion of the yarn of the second layer is exposed through the voids in the first layer; the second yarn formed of a second composition having a second melting temperature or a second decomposition temperature or both, characterised by the first melting temperature being lower than the lowest of the second melting temperature and second decomposition temperature.