mhurhangee/patent-ind-claim-en huggingface dataset:
A method of nucleic acid amplification comprising contacting a double stranded nucleic acid with transposases bound to transposon DNA, wherein the transposon DNA includes a transposase binding site and an RNA polymerase promoter sequence, wherein the transposases/transposon DNA complex bind to target locations along the double stranded nucleic acid and cleave the double stranded nucleic acid into a plurality of double stranded fragments, with each double stranded fragment having the transposon DNA bound to each 5' end of the double stranded fragment, extending the double stranded fragments along the transposon DNA to make double stranded extension products having double stranded RNA polymerase promoter sequences at each end, contacting the double stranded extension products with an RNA polymerase to make a plurality of RNA transcripts of each double stranded extension product, reverse transcribing the RNA transcripts into single stranded copy DNA, forming complementary strands to the single stranded copy DNA to form a plurality of double stranded DNA amplicons corresponding to each double stranded fragment, wherein the double stranded DNA amplicons are linearly amplified from the original double stranded fragments.
A method of controlling data exchange between a mobile communication network and a data provider comprising the steps of: - receiving first identification information based on identified characteristics of data in a network entity , - receiving the data in the network entity , - determining in the network entity whether the data is encrypted, - assigning the first identification information to the data , wherein the first identification information comprises unencrypted information about the characteristics of the encrypted data , - analyzing the first identification information depending on the client or the data provider in the network entity , - adapting the first identification information depending on the analysis of the first identification information , - providing by means of the network entity second identification information , which is the adapted first identification information to the data provider , - adapting, by the data provider, the data exchange of the encrypted data between the mobile communication network and data provider by means of the network entity depending on a result of an analysis of the second identification information . - receiving first identification information based on identified characteristics of data in a network entity , - receiving the data in the network entity , - determining in the network entity whether the data is encrypted, - assigning the first identification information to the data , wherein the first identification information comprises unencrypted information about the characteristics of the encrypted data , - analyzing the first identification information depending on the client or the data provider in the network entity , - adapting the first identification information depending on the analysis of the first identification information , - providing by means of the network entity second identification information , which is the adapted first identification information to the data provider , - adapting, by the data provider, the data exchange of the encrypted data between the mobile communication network and data provider by means of the network entity depending on a result of an analysis of the second identification information .
Method for manufacturing a decorative panel, wherein said panel comprises a substrate and a decorative top layer , wherein said substrate is a mineral containing substrate and/or a thermoplastic material containing substrate, wherein said substrate is obtained from a larger material by means of a dividing operation (S1), wherein said dividing operation (S1) comprises performing a cutting operation releasing at least said substrate from said larger material at at least two opposite edges, wherein said panel comprises at at least one and preferably at both upper edges of a pair of opposite side edges a lower edge area , wherein said lower edge area is obtained during said dividing operation (S1), said dividing operation (S1) comprising: - providing said larger material in a dividing apparatus; - indenting said larger material at the location of said upper edges in order to at least partially form said lower edge area ; - releasing said substrate from said larger material by means of a knife that is forced in and through said larger material, wherein said cutting operation forms opposite cut edges for said releasing at said at least two opposite edges, wherein said opposite cut edges are positioned at a mutually different distance (D1-D2) from said upper edges of said panel, allowing for the formation of profiled edges horizontally extending differently beyond the respective upper edge; and wherein the method comprises forming profiled edges horizontally extending differently beyond the respective upper edge. - providing said larger material in a dividing apparatus; - indenting said larger material at the location of said upper edges in order to at least partially form said lower edge area ; - releasing said substrate from said larger material by means of a knife that is forced in and through said larger material, wherein said cutting operation forms opposite cut edges for said releasing at said at least two opposite edges, wherein said opposite cut edges are positioned at a mutually different distance (D1-D2) from said upper edges of said panel, allowing for the formation of profiled edges horizontally extending differently beyond the respective upper edge;
A composition comprising a mercury re-emission control additive; and a free radical scavenger, wherein the mercury re-emission control additive is a polymeric polydithiocarbamate compound; wherein the free radical scavenger is selected from the group consisting of: substituted phenols, derivatives of phenylenediamine, butylated hydroxyanisole (BHA), butylated hydroxytoluene (BHT), citric acid, tertiary butylhydroquinone (TBHQ), tocopherols, ascorbic acid, glutathione, lipoic acid, uric acid, and free radical scavenging enzymes, or any combination thereof.
An airfoil assembly comprising: a central spar extending along a first direction (R); a blade skin positioned around the central spar to define an airfoil that has a pressure side and a suction side extending in a second direction (A), the second direction (A) being perpendicular to the first direction (R), the pressure side and the suction side extending between a leading edge and a trailing edge , wherein at least one cavity is defined between the blade skin and the central spar ; and a support structure positioned at least partially within the at least one cavity , the support structure comprising: a foam ; and a foam reinforcement structure embedded within the foam characterised in that the foam reinforcement structure comprises a plurality of structural support members , and wherein at least one of the plurality of structural support members extends between the leading edge of the airfoil and an upstream edge of the central spar or between a downstream edge of the central spar and the trailing edge of the airfoil . a central spar extending along a first direction (R); a blade skin positioned around the central spar to define an airfoil that has a pressure side and a suction side extending in a second direction (A), the second direction (A) being perpendicular to the first direction (R), the pressure side and the suction side extending between a leading edge and a trailing edge , wherein at least one cavity is defined between the blade skin and the central spar ; and a support structure positioned at least partially within the at least one cavity , the support structure comprising: a foam ; and a foam reinforcement structure embedded within the foam a foam ; and a foam reinforcement structure embedded within the foam characterised in that the foam reinforcement structure comprises a plurality of structural support members , and wherein at least one of the plurality of structural support members extends between the leading edge of the airfoil and an upstream edge of the central spar or between a downstream edge of the central spar and the trailing edge of the airfoil .
A knee orthosis with a lower leg part that extends in a lower leg direction, and an upper leg part that extends in a upper leg direction, and at least one locking device, wherein the lower leg part and the upper leg part are connected to each other by at least one swivel joint such that they can be swivelled, the lower leg part and/or the upper leg part comprise a lateral splint and a medial splint , and the lower leg direction encloses a knee frontal angle with the upper leg direction, wherein the knee orthosis has a first accommodation element and a second accommodation element which can be fixed in different positions relative to each other via the at least one locking device , wherein the lateral splint and/or the medial splint comprise at least two components , which are connected to each other by a frontal joint , characterized in that the different positions of the first accommodation element and the second accommodation element lead to different knee frontal angles between the lower leg direction and the upper leg direction. a lower leg part that extends in a lower leg direction, and an upper leg part that extends in a upper leg direction, and at least one locking device, wherein the lower leg part and the upper leg part are connected to each other by at least one swivel joint such that they can be swivelled, the lower leg part and/or the upper leg part comprise a lateral splint and a medial splint , and the lower leg direction encloses a knee frontal angle with the upper leg direction, wherein the knee orthosis has a first accommodation element and a second accommodation element which can be fixed in different positions relative to each other via the at least one locking device , wherein the lateral splint and/or the medial splint comprise at least two components , which are connected to each other by a frontal joint , characterized in that the different positions of the first accommodation element and the second accommodation element lead to different knee frontal angles between the lower leg direction and the upper leg direction.
A filter comprising: a capsule (CA) having a tubular shape and including a peripheral wall constituting a peripheral surface of the tubular shape and a pair of end walls closing front and rear openings of the tubular shape, respectively, the capsule (CA) having a liquid encapsulated therein, at least the peripheral wall being elastically deformable, and the peripheral wall being provided with at least one ring-shaped main thin-walled region extending in a peripheral direction of the peripheral wall or with at least one straight main thin-walled region extending in an axial direction perpendicular to the peripheral direction; and a generally cylindrical filter body having an accommodation space in which the capsule (CA) is accommodated, wherein the capsule (CA) is disposed within the accommodation space such that the ring-shaped main thin-walled region or the straight main thin-walled region is directed parallel to a radial direction of the filter body . a capsule (CA) having a tubular shape and including a peripheral wall constituting a peripheral surface of the tubular shape and a pair of end walls closing front and rear openings of the tubular shape, respectively, the capsule (CA) having a liquid encapsulated therein, at least the peripheral wall being elastically deformable, and the peripheral wall being provided with at least one ring-shaped main thin-walled region extending in a peripheral direction of the peripheral wall or with at least one straight main thin-walled region extending in an axial direction perpendicular to the peripheral direction; and a generally cylindrical filter body having an accommodation space in which the capsule (CA) is accommodated, wherein the capsule (CA) is disposed within the accommodation space such that the ring-shaped main thin-walled region or the straight main thin-walled region is directed parallel to a radial direction of the filter body .
A method for compensating for in-phase and quadrature, I/Q, imbalances in a multiple antenna system, MAS, with multi-user, MU, transmissions, MU-MAS, comprising: obtaining channel characterization data at a base station, based on channel estimate data or training signals received from wireless client devices, and building a stacked matrix from the channel characterization data, wherein the stacked matrix comprises an equivalent channel matrix and a conjugate channel matrix, and wherein the equivalent channel matrix characterizes the channel in absence of I/Q imbalances and the conjugate channel matrix characterizes the I/Q imbalances; computing a plurality of MU-MAS precoder weights based on the stacked matrix, the MU-MAS precoder weights calculated to pre-cancel interference due to I/Q gain and phase imbalances and to pre-cancel inter-user interference; precoding data using the MU-MAS precoder weights to generate precoded data signals for each antenna of the base station; and transmitting the precoded data signals through each antenna of the base station to the wireless client devices. obtaining channel characterization data at a base station, based on channel estimate data or training signals received from wireless client devices, and building a stacked matrix from the channel characterization data, wherein the stacked matrix comprises an equivalent channel matrix and a conjugate channel matrix, and wherein the equivalent channel matrix characterizes the channel in absence of I/Q imbalances and the conjugate channel matrix characterizes the I/Q imbalances; computing a plurality of MU-MAS precoder weights based on the stacked matrix, the MU-MAS precoder weights calculated to pre-cancel interference due to I/Q gain and phase imbalances and to pre-cancel inter-user interference; precoding data using the MU-MAS precoder weights to generate precoded data signals for each antenna of the base station; and transmitting the precoded data signals through each antenna of the base station to the wireless client devices.
A method for producing a foam-molded product by using: a plasticizing cylinder which has a plasticization zone for plasticizing and melting a thermoplastic resin into a molten resin and a starvation zone for allowing the molten resin to be in a starved state and which is formed with an introducing port for introducing a physical foaming agent into the starvation zone , the method comprising: plasticizing and melting the thermoplastic resin to provide the molten resin in the plasticization zone ; allowing the molten resin to be in the starved state in the starvation zone ; introducing a pressurized fluid containing the physical foaming agent having a fixed pressure into the starvation zone to retain the starvation zone at the fixed pressure, bringing the molten resin in the starved state in contact with the pressurized fluid containing the physical foaming agent having the fixed pressure in the starvation zone in a state in which the starvation zone is retained at the fixed pressure; and molding the molten resin having been brought in contact with the pressurized fluid containing the physical foaming agent into the foam-molded product, characterized in that the plasticizing cylinder has an introducing speed adjusting container which is connected to the introducing port (202, 402A. 402B) and a volume of which is in a range of 5 mL to 10L; wherein the method further comprises supplying the pressurized fluid containing the physical foaming agent to the introducing speed adjusting container ; and the pressurized fluid containing the physical foaming agent having the fixed pressure is introduced into the starvation zone from the introducing speed adjusting container . plasticizing and melting the thermoplastic resin to provide the molten resin in the plasticization zone ; allowing the molten resin to be in the starved state in the starvation zone ; introducing a pressurized fluid containing the physical foaming agent having a fixed pressure into the starvation zone to retain the starvation zone at the fixed pressure, bringing the molten resin in the starved state in contact with the pressurized fluid containing the physical foaming agent having the fixed pressure in the starvation zone in a state in which the starvation zone is retained at the fixed pressure; and molding the molten resin having been brought in contact with the pressurized fluid containing the physical foaming agent into the foam-molded product, the plasticizing cylinder has an introducing speed adjusting container which is connected to the introducing port (202, 402A. 402B) and a volume of which is in a range of 5 mL to 10L; wherein the method further comprises supplying the pressurized fluid containing the physical foaming agent to the introducing speed adjusting container ; and the pressurized fluid containing the physical foaming agent having the fixed pressure is introduced into the starvation zone from the introducing speed adjusting container .
Tail lift having a platform , the tail lift having an outer edge, a groove or a corner extending in one direction in the outer edge, the groove or the corner being open toward the outside of the platform , an in particular rod-shaped light decoupling means being arranged at least in portions in the groove or in the corner in such a way that the light decoupling means extends in the direction, means being provided which are configured to couple light, flashing or permanently illuminated, into the light decoupling means , either the outer edge having a chamfer , extending in the direction, toward an underside of the platform , in or on which chamfer the groove or the corner is arranged, or the groove or the corner being open in such a way that an optical axis (A) of the light decoupling means can be arranged obliquely to an underside of the platform , the optical axis (A) of the light decoupling means being able to be arranged obliquely to a transverse direction of the platform , characterized in that means (302a; 302a', 302d; 302a', 302e) are provided which are designed to couple light into the light decoupling means for propagation of the light substantially in the direction, or in that means are provided, in particular a lighting means integrated into the groove or the corner , which are designed to couple the light to at least one portion of a peripheral surface of the light decoupling means , the means comprising a lighting means and an optical waveguide , which is arranged between the lighting means and the light decoupling means , or a lighting means being provided, the lighting means being designed to couple light from the lighting means into the light decoupling means at an angle in particular between 5° and 90° with respect to the direction, a deflection optical system arranged at least in part in the light decoupling means being designed to at least partially reflect the light for propagation of the light in the direction, or a lighting means being arranged on an end face of the light decoupling means .
A method of producing a stimulation pattern for activating electrodes in a multi-channel electrode array of an auditory prosthesis, in which the electrodes of the multi-channel electrode array are spatially divided, using a processor, the method comprising: determining at least one pulse suitable for stimulating a single electrode of the electrode array; converting each of the pulses into a plurality of pulses suitable for stimulating a plurality of electrodes in the electrode array, characterised in that the temporal and/or spatial center of mass for the plurality of pulses is substantially equivalent to that of the determined pulse. determining at least one pulse suitable for stimulating a single electrode of the electrode array; converting each of the pulses into a plurality of pulses suitable for stimulating a plurality of electrodes in the electrode array, characterised in that the temporal and/or spatial center of mass for the plurality of pulses is substantially equivalent to that of the determined pulse.
A method of manufacturing an opening device for a fibre based packaging laminate, comprising the steps of: arranging a first mold half comprising a first mold cavity on a first side of the fibre based packaging laminate, arranging a second mold half comprising a second mold cavity on an opposing side of the fibre based packaging laminate, wherein the first mold cavity partly overlaps the second mold cavity in one or more overlapping areas, injecting a melt into at least said first mold cavity, wherein the melt, due to pressure being built up in said cavity, penetrates through the fibre based packaging laminate in an overlapping area and fills also at least said second mold cavity for generation of an opening device extending through the packaging laminate, wherein the overlapping area is not perforated, creased or weakened. arranging a first mold half comprising a first mold cavity on a first side of the fibre based packaging laminate, arranging a second mold half comprising a second mold cavity on an opposing side of the fibre based packaging laminate, wherein the first mold cavity partly overlaps the second mold cavity in one or more overlapping areas, injecting a melt into at least said first mold cavity, wherein the melt, due to pressure being built up in said cavity, penetrates through the fibre based packaging laminate in an overlapping area and fills also at least said second mold cavity for generation of an opening device extending through the packaging laminate, wherein the overlapping area is not perforated, creased or weakened.
A method for controlling a protein separation process for separating a protein from a biologic fluid, said method comprising: obtaining an impedance measurement of a fluid from a step of said protein separation process; determining an amount of modification of a parameter that modifies solubility of said protein needed to cause an impedance measurement of said fluid to be within an acceptable tolerance of a target impedance value; and adjusting said parameter by said amount of modification, wherein said biologic fluid is a protein solution, a protein suspension, or a cell culture suspension, and wherein said parameter is selected from the group consisting of solute concentration, solvent concentration, pH, ionic strength, temperature, density, flow rate, and viscosity. obtaining an impedance measurement of a fluid from a step of said protein separation process; determining an amount of modification of a parameter that modifies solubility of said protein needed to cause an impedance measurement of said fluid to be within an acceptable tolerance of a target impedance value; and adjusting said parameter by said amount of modification, wherein said biologic fluid is a protein solution, a protein suspension, or a cell culture suspension, and wherein said parameter is selected from the group consisting of solute concentration, solvent concentration, pH, ionic strength, temperature, density, flow rate, and viscosity.