mhurhangee/patent-ind-claim-en huggingface dataset:
A liquid composition comprising a polymer having ion exchange groups, water and an organic solvent, wherein the average secondary particle size of the polymer having ion exchange groups is from 100 to 3,000 nm, wherein the average secondary particle size is determined as disclosed in the description; the primary particle size parameter represented by the product of the average primary particle size (nm) and the ion exchange capacity (meq/g dry resin) of the polymer having ion exchange groups, is from 12 to 20, wherein the average primary particle size is determined as disclosed in the description; the polymer having ion exchange groups has structural units having an ion exchange group and structural units based on a perfluoromonoene monomer having a 5-membered ring or a perfluorodiene monomer capable of forming a 5-membered ring by cyclopolymerization; and the ion exchange capacity of the polymer having ion exchange groups is from 1.1 to 2.0 meq/g dry resin. the average secondary particle size of the polymer having ion exchange groups is from 100 to 3,000 nm, wherein the average secondary particle size is determined as disclosed in the description; the primary particle size parameter represented by the product of the average primary particle size (nm) and the ion exchange capacity (meq/g dry resin) of the polymer having ion exchange groups, is from 12 to 20, wherein the average primary particle size is determined as disclosed in the description; the polymer having ion exchange groups has structural units having an ion exchange group and structural units based on a perfluoromonoene monomer having a 5-membered ring or a perfluorodiene monomer capable of forming a 5-membered ring by cyclopolymerization; and the ion exchange capacity of the polymer having ion exchange groups is from 1.1 to 2.0 meq/g dry resin.
A method of forming a bioactive filamentary structure, comprising the steps of: applying synthetic bone graft particles around a filamentary structure, the filamentary structure being a suture or suture anchor; applying a polymer solution around the filamentary structure; and precipitating a polymer from the polymer solution such that the synthetic bone graft particles and the polymer coat the filamentary structure. applying synthetic bone graft particles around a filamentary structure, the filamentary structure being a suture or suture anchor; applying a polymer solution around the filamentary structure; and precipitating a polymer from the polymer solution such that the synthetic bone graft particles and the polymer coat the filamentary structure.
Apparatus for mounting a building pipe on a holding element , characterised in that the apparatus has a bending gauge and a plug-on frame having at least two fastening rails and at least one guide rail which, in a mounted state, is releasably connected to the fastening rails and the bending gauge , wherein the bending gauge forms, on the side facing away from the guide rail , a bearing and a bending element for the building pipe .
Method for coupling a rotational device, in particular a steam turbine, and a shaft device, in particular a gas turbine, comprising the following steps: - accelerating the rotational device up to an initial rotational speed which lies below the rotational speed of the shaft device; - detecting a differential angle between the shaft device and rotational device; characterized by the acceleration of the rotational device with an acceleration value, which is derived from an intended rotational speed difference between the shaft device and rotational device, provided for the start of the input coupling process, said intended rotational speed difference being formed as a function of the detected differential angle, the acceleration up to the initial rotational speed and a desired target coupling angle. - accelerating the rotational device up to an initial rotational speed which lies below the rotational speed of the shaft device; - detecting a differential angle between the shaft device and rotational device;
A polyether polyamide elastomer comprising a diamine constituent unit derived from a polyether diamine compound (A-1) represented by the following formula and a xylylenediamine (A-2) and a dicarboxylic acid constituent unit derived from an α,ω-linear aliphatic dicarboxylic acid having a carbon number of from 4 to 20: wherein (x + z) represents a numerical value of from 1 to 30; y represents a numerical value of from 1 to 50; and R 1 represents a propylene group, wherein a proportion of the constituent unit derived from the xylylenediamine (A-2) in the diamine constituent unit is in the range of from 50 to 99.8% by mole, and wherein a melting point of the polyether polyamide elastomer is from 170 to 270°C.
A receiver with a receiver housing with a fluid-receiving chamber having a fluid inlet and a fluid outlet , wherein in said fluid-receiving chamber a drier is provided, wherein an inlet channel extends into the fluid-receiving chamber , characterised in that the inlet channel has a channel outlet in the fluid-receiving chamber which feeds fluid from the fluid inlet as a channel inlet into the fluid-receiving chamber , wherein the inlet channel is shaped such that the fluid flowing out of the channel outlet flows in a lateral direction at a distance from the central axis of the receiver, wherein the channel outlet is designed as a pipe socket with an attached or inserted adapter piece, particularly of plastic.
A memory device, comprising: an alternating stack of insulating layers and electrically conductive layers located over a substrate ; an array of memory stack structures extending through the alternating stack , wherein each of the memory stack structures comprises charge storage regions and a vertical semiconductor channel , and the electrically conductive layers comprise word lines for the memory stack structures ; a word line decoder circuitry including switches for activating a respective word line for the memory stack structures , and located underneath the array of memory stack structures and above the substrate ; a word line vertical interconnection region including multiple sets of at least one conductive interconnection structure , each set of at least one conductive interconnection structure electrically contacting a node of a respective device in the word line decoder circuitry ; bit lines electrically connected to the vertical semiconductor channels through respective drain regions and extending over the array of memory stack structures ; and upper-interconnect-level word line connectors extending parallel to the bit lines, wherein the upper-interconnect-level word line connectors electrically connect a respective set of at least one conductive interconnection structure to the electrically conductive layers , characterised in that the upper-interconnect-level word line connectors extend over a portion of the array of memory stack structures . an alternating stack of insulating layers and electrically conductive layers located over a substrate ; an array of memory stack structures extending through the alternating stack , wherein each of the memory stack structures comprises charge storage regions and a vertical semiconductor channel , and the electrically conductive layers comprise word lines for the memory stack structures ; a word line decoder circuitry including switches for activating a respective word line for the memory stack structures , and located underneath the array of memory stack structures and above the substrate ; a word line vertical interconnection region including multiple sets of at least one conductive interconnection structure , each set of at least one conductive interconnection structure electrically contacting a node of a respective device in the word line decoder circuitry ; bit lines electrically connected to the vertical semiconductor channels through respective drain regions and extending over the array of memory stack structures ; and upper-interconnect-level word line connectors extending parallel to the bit lines, wherein the upper-interconnect-level word line connectors electrically connect a respective set of at least one conductive interconnection structure to the electrically conductive layers , characterised in that the upper-interconnect-level word line connectors extend over a portion of the array of memory stack structures .
Antenna module (ATM) for a vehicle roof (FZD), which antenna module (ATM) has an outer cover (AUS), which outer cover (AUS) is arrangeable over a vehicle roof (FZD) as the outermost cover of the antenna module (ATM) in a region (OBE) above the vehicle roof (FZD), wherein at least one antenna (ANTAUS) of the antenna module (ATM) is in a form integrated in the outer cover (AUS) of the antenna module (ATM), characterized in that there is provision inside the outer cover (AUS) for a protective hood (SHB), there is provision in the protective hood (SHB) for at least one telescopic element (SLI), at least one antenna (ANTAUS) present in a manner integrated in the outer cover (AUS) has antenna connection elements (ANTABK), the antenna module (ATM) has a circuit board (HPT), and the circuit board (HPT) has connecting points (SLIABK); wherein the at least one telescopic element (SLI) is designed to guide and/or make contact with the antenna connection elements (ANTABK) at the connecting points (SLIABK).
Calibration device for a calibration procedure for at least one of the following: two-photon imaging, multi-photon imaging, two-photon microscopy, multi-photon microscopy, second-harmonic generation imaging, third harmonic generation imaging, coherent anti-Stokes Raman scattering (CARS), coherent Stokes Raman scattering (CSRS), stimulated Raman scattering (SRS), two-color two-photon absorption imaging or two-color twophoton fluorescence imaging; wherein the device comprises at least one detector and at least one holder for holding the at least one detector , the at least one detector being a semi-conductor device having an extended light-sensitive detection area comprising a semiconductor material, the extended light-sensitive detection area being larger than 1 mm in a first direction and larger than 1 mm in a second direction, the second direction being perpendicular to the first direction, wherein the extended light-sensitive detection area is adapted such that the two-photon, multi-photon, second-harmonic generation or third harmonic generation is excited and/or induced therein and wherein the excited and/or induced effect is detected therewith, characterized in that the holder is adapted such that it can be mounted onto a microscope and the holder has a shape being identical to an object slide being mountable on a microscope stage of said microscope, and that the device comprises an evaluation device configured to determine a delay matrix, which contains values for settings of a delay stage of the microscope as a function of the position of the laser focus in the field of view of the microscope based on an electrical signal of the at least one detector , the delay stage being configured to delay laser pulses. wherein the device comprises at least one detector and at least one holder for holding the at least one detector , the at least one detector being a semi-conductor device having an extended light-sensitive detection area comprising a semiconductor material, the extended light-sensitive detection area being larger than 1 mm in a first direction and larger than 1 mm in a second direction, the second direction being perpendicular to the first direction, wherein the extended light-sensitive detection area is adapted such that the two-photon, multi-photon, second-harmonic generation or third harmonic generation is excited and/or induced therein and wherein the excited and/or induced effect is detected therewith, characterized in that the holder is adapted such that it can be mounted onto a microscope and the holder has a shape being identical to an object slide being mountable on a microscope stage of said microscope, and that the device comprises an evaluation device configured to determine a delay matrix, which contains values for settings of a delay stage of the microscope as a function of the position of the laser focus in the field of view of the microscope based on an electrical signal of the at least one detector , the delay stage being configured to delay laser pulses.
An optical shape sensing, OSS, sound generation system arranged to employ an optical shape sensor , the system comprising: an OSS controller structurally configured to control a generation by the optical shape sensor of sensor data indicative of at least one stimuli measurement of the optical shape sensor ; at least one audible device ; and a sound controller structurally configured to interpret the sensor data to control a generation by the at least one audible device of at least one sound derived from the at least one stimuli measurement of the optical shape sensor , wherein the at least one sound is indicative of a changing location and/or direction of the optical shape sensor relative to a coordinate system . an OSS controller structurally configured to control a generation by the optical shape sensor of sensor data indicative of at least one stimuli measurement of the optical shape sensor ; at least one audible device ; and a sound controller structurally configured to interpret the sensor data to control a generation by the at least one audible device of at least one sound derived from the at least one stimuli measurement of the optical shape sensor , wherein the at least one sound is indicative of a changing location and/or direction of the optical shape sensor relative to a coordinate system .
4,6-diamino-2-cyclopropylaminopyrimidine-5-carbonitrile dodecylbenzenesulfonate.
A sensor for the detection of an analyte in a biological sample comprising: - a substrate; - a working electrode formed on a surface of the substrate; - a counter electrode formed on the surface of the substrate; - a dielectric layer covering a portion of the working electrode and counter electrode and defining an aperture exposing other portions of the working electrode and counter electrode; - a measuring device for applying voltage potentials to the working electrode and counter electrode and measuring the current flow between the working electrode and counter electrode; and - a receptor functionalized or chemically functionalized onto a surface of the exposed portion of the working electrode, the receptor selectively binding to the analyte of interest and the analyte once bound being detectable by measuring the current flow between the working electrode and counter electrode, wherein the working electrode and the counter electrode are obtained from sputtering a metalized film on a plastic substrate and irradiating the metalized film using laser ablation to define the dimensions of the working electrode and the counter electrode, and wherein the receptor being functionalized onto the surface of the working electrode by cross-linking or biotinylating the surface and binding the receptor to the cross-linked or biotinylated surface. - a substrate; - a working electrode formed on a surface of the substrate; - a counter electrode formed on the surface of the substrate; - a dielectric layer covering a portion of the working electrode and counter electrode and defining an aperture exposing other portions of the working electrode and counter electrode; - a measuring device for applying voltage potentials to the working electrode and counter electrode and measuring the current flow between the working electrode and counter electrode; and - a receptor functionalized or chemically functionalized onto a surface of the exposed portion of the working electrode, the receptor selectively binding to the analyte of interest and the analyte once bound being detectable by measuring the current flow between the working electrode and counter electrode,
Method for operating an optoelectronic sensor that has at least one transmitter and at least one receiver , characterised in that , in a first operating state of the optoelectronic sensor, the transmitter emits light impulses with constant pause length and, in a second operating state of the optoelectronic sensor, emits light impulses in repeating patterns of at least three light impulses, wherein, in the second operating state, all pause lengths between the light impulses of a pattern or all cycle lengths of a pattern are different, and each pause length or cycle length ranges from 60% to 150% of the arithmetic mean of all pause lengths or cycle lengths of a pattern, and the pause lengths in the first operating state correspond to 95% to 105% of the arithmetic mean of all pause lengths of a pattern in the second operating state, and wherein the sum of all cycle lengths or each sum of directly successive cycle lengths of a pattern of the second operating state in microseconds is not equal to a multiple of the cycle length in the first operating state in microseconds, wherein a change from the first operating state to the second operating state is carried out when the receiver receives a light signal, the intensity of which exceeds a predetermined threshold value.
Inner liner for tyre having a rubber composition based on at least: - predominantly a highly unsaturated diene elastomer; - a reinforcing organic filler; - graphite; - chalk; - a plasticizing hydrocarbon resin, the glass transition temperature, Tg, of which is greater than 20°C and the softening point of which is less than 170°C, said highly unsaturated diene elastomer being a diene elastomer having a content of units of diene origin that is greater than 50%. - predominantly a highly unsaturated diene elastomer; - a reinforcing organic filler; - graphite; - chalk; - a plasticizing hydrocarbon resin, the glass transition temperature, Tg, of which is greater than 20°C and the softening point of which is less than 170°C,
A tissue resecting system , comprising: an assembly of tubular first and second members , the second member having a resecting element at a distal end thereof; an electrical motor drive and controller configured for moving the second member across a window of the first member; a tachometer adapted to send motor drive rotational signals to the controller; a first controller algorithm adapted to modulate motor voltage in response to tachometer signals (i) to drive the second member at a predetermined speed and (ii) to calculate resistance to driving the second member at the predetermined speed; wherein the tachometer signals are utilized to measure the rotational speed of the motor drive and indicate a reference position (X) of the motor drive; wherein the calculated resistance is determined after a start-up check period of the device or averaged over the start-up check period and for a period of time during surgery; and a second controller algorithm responsive to the calculated resistance to de-energize the motor at a predetermined point (Y) to permit momentum to move the second member to a selected stop position (Z); wherein the second controller algorithm is configured to compare the calculated resistance to a look-up table of known resistances correlated with a momentum parameter related to stopping movement of the second member. an assembly of tubular first and second members , the second member having a resecting element at a distal end thereof; an electrical motor drive and controller configured for moving the second member across a window of the first member; a tachometer adapted to send motor drive rotational signals to the controller; a first controller algorithm adapted to modulate motor voltage in response to tachometer signals (i) to drive the second member at a predetermined speed and (ii) to calculate resistance to driving the second member at the predetermined speed; wherein the tachometer signals are utilized to measure the rotational speed of the motor drive and indicate a reference position (X) of the motor drive; wherein the calculated resistance is determined after a start-up check period of the device or averaged over the start-up check period and for a period of time during surgery; and a second controller algorithm responsive to the calculated resistance to de-energize the motor at a predetermined point (Y) to permit momentum to move the second member to a selected stop position (Z); wherein the second controller algorithm is configured to compare the calculated resistance to a look-up table of known resistances correlated with a momentum parameter related to stopping movement of the second member.
A binder which connects electrode materials of an electrochemical device, the binder comprising: a re-emulsifiable resin powder coated with inorganic particles; and a metal-crosslinking thickening agent forming a hydrophobic gel by being crosslinked, in an aqueous system, via metal ions derived from an electrode active material, wherein: the re-emulsifiable resin powder has a structure in which a synthetic resin is coated with an emulsifier, and a weight ratio of the metal-crosslinking thickening agent to the re-emulsifiable resin powder is in a range of 65:35 to 90:10. a re-emulsifiable resin powder coated with inorganic particles; and a metal-crosslinking thickening agent forming a hydrophobic gel by being crosslinked, in an aqueous system, via metal ions derived from an electrode active material, the re-emulsifiable resin powder has a structure in which a synthetic resin is coated with an emulsifier, and a weight ratio of the metal-crosslinking thickening agent to the re-emulsifiable resin powder is in a range of 65:35 to 90:10.
Method for producing hoselines and pipelines with RFID chips , wherein the method has at least the following working steps, specifically a) providing a hoseline or pipeline blank of at least one elastomeric and/or thermoplastic base material in a production device, while reinforcing elements may be embedded in the base material, b) attaching an RFID structure on the hoseline or pipeline blank in the axial direction parallel to the longitudinal axis of the hoseline or pipeline blank and synchronously with a feed rate of the production device, the RFID structure having at least one carrier and the RFID structure having RFID chips securely arranged on the carrier at predetermined spaced intervals. a) providing a hoseline or pipeline blank of at least one elastomeric and/or thermoplastic base material in a production device, while reinforcing elements may be embedded in the base material, b) attaching an RFID structure on the hoseline or pipeline blank in the axial direction parallel to the longitudinal axis of the hoseline or pipeline blank and synchronously with a feed rate of the production device, the RFID structure having at least one carrier and the RFID structure having RFID chips securely arranged on the carrier at predetermined spaced intervals. the RFID structure having at least one carrier and the RFID structure having RFID chips securely arranged on the carrier at predetermined spaced intervals.