mhurhangee/patent-ind-claim-en huggingface dataset:
A method for the detection of one or several OXA carbapenemases from a Carbapenemase-producing Enterobacteriaceae (CPE) possibly present in a biological sample, said method comprising the steps of: - providing a support , - immobilizing on said support one or several capture reagents interacting with one or several first epitope regions of one or several of the said carbapenemases , - providing one or several detection reagents interacting with one or several second epitope regions of said carbapenemase(s) , said detection reagent(s) being linked, directly or indirectly, to a label to form one or several detection conjugates , - providing a sample to be tested comprising, or not, said carbapenemase(s) to detect, - bringing said sample into contact with the capture reagent or reagents , - revealing a specific binding between the carbapenemase(s) present in said sample by said detection reagent (s) and wherein the capture reagent(s) and possibly the detection reagent(s) , is (are) specific and bind(s) - to the following amino acid sequence or a fragment of at least 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16 or 17 amino acids of the sequence: SEQ.ID.N03: IRAKTGYSTRIEPKIGWW. - providing a support , - immobilizing on said support one or several capture reagents interacting with one or several first epitope regions of one or several of the said carbapenemases , - providing one or several detection reagents interacting with one or several second epitope regions of said carbapenemase(s) , said detection reagent(s) being linked, directly or indirectly, to a label to form one or several detection conjugates , - providing a sample to be tested comprising, or not, said carbapenemase(s) to detect, - bringing said sample into contact with the capture reagent or reagents , - revealing a specific binding between the carbapenemase(s) present in said sample by said detection reagent (s) and wherein the capture reagent(s) and possibly the detection reagent(s) , is (are) specific and bind(s) - to the following amino acid sequence or a fragment of at least 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16 or 17 amino acids of the sequence: SEQ.ID.N03: IRAKTGYSTRIEPKIGWW.
Method for diagnosing a tumor disease in an isolated sample, comprising the steps of a) bisulphite conversion of the DNA in the sample, b) amplifying methylated and unmethylated DNA sequences by means of PCR, wherein each the annealing temperature, MgCl 2 concentration and number of cycles as well as 5'-CG-3' content are set such that the methylated DNA sequences being amplified to a greater extent than the unmethylated DNA sequences, if the methylated DNA sequences are tumourspecific, or the unmethylated DNA sequences being amplified to a greater extent than the methylated DNA sequences, if the unmethylated DNA sequences are tumourspecific, c) quantifying the methylated and unmethylated DNA by means of digital PCR, wherein the average number of DNA copies obtained in step b) and used in the digital PCR being at least 8 copies per compartment. a) bisulphite conversion of the DNA in the sample, b) amplifying methylated and unmethylated DNA sequences by means of PCR, wherein each the annealing temperature, MgCl 2 concentration and number of cycles as well as 5'-CG-3' content are set such that the methylated DNA sequences being amplified to a greater extent than the unmethylated DNA sequences, if the methylated DNA sequences are tumourspecific, or the unmethylated DNA sequences being amplified to a greater extent than the methylated DNA sequences, if the unmethylated DNA sequences are tumourspecific, c) quantifying the methylated and unmethylated DNA by means of digital PCR, wherein the average number of DNA copies obtained in step b) and used in the digital PCR being at least 8 copies per compartment.
Disc brake for a commercial vehicle, having a brake calliper which engages around a brake disc and which has a receiving chamber , in which receiving chamber there is arranged an application device with a pivotable brake lever , which brake lever is supported at one side on a bridge, which bears at least one brake plunger, and at the other side on a wall, which forms a calliper head , of the brake calliper , wherein, for mounting the brake lever on the calliper head , there is provided a pivot bearing with a receptacle of circular-arc-shape in cross section and with a pivoting body which lies in and is pivotable relative to said receptacle, wherein the brake lever is held by means of at least one securing element so as to be secured against displacement transversely with respect to the pivoting direction of the brake lever , characterised by the arrangement of the securing element in the region of the pivoting body which extends axially to both sides of said securing element, wherein the securing element at least regionally protrudes radially relative to the pivoting body and positively engages with slots of the brake lever and the calliper head , which slots are of circular-arc shape in a pivoting direction of the brake lever .
A gas generator, in particular for a safety device in vehicles, comprising a pressure chamber which is filled with compressed gas and which is closed off an environment of the gas generator via a membrane , the compressed gas containing a gaseous oxidant which is predominantly composed of oxygen; a solid fuel received in the pressure chamber , wherein the compressed gas is in direct contact with the fuel before the gas generator is activated; and an igniter separated pressure-tightly from the pressure chamber by which, when the gas generator is activated, a conversion of the gaseous oxidant with the solid fuel can be triggered with heat being generated; wherein the fuel is provided in the form of a gas-permeable fuel body and the molar fraction of the gaseous oxidant in the compressed gas is at least 1.1 times the amount of oxidant required for a stoichiometric conversion of the gas-permeable fuel body , characterized in that the fuel is in the form of of a gas-permeable fuel body which is composed of one or more threads, wherein the gas-permeable fuel body is made from a textile material in which the one or more fibers are contained, and wherein the textile material is selected from the group consisting of a fabric, a knitted fabric, a knit, a non-woven, a felt, a laid fabric or a wadding, or a combination thereof, and wherein the one or more fibers are natural fibers and/or synthetic fibers, wherein the natural fibers are plant or animal originating fibers, and wherein the synthetic fibers are from spinnable resin. a pressure chamber which is filled with compressed gas and which is closed off an environment of the gas generator via a membrane , the compressed gas containing a gaseous oxidant which is predominantly composed of oxygen; a solid fuel received in the pressure chamber , wherein the compressed gas is in direct contact with the fuel before the gas generator is activated; and an igniter separated pressure-tightly from the pressure chamber by which, when the gas generator is activated, a conversion of the gaseous oxidant with the solid fuel can be triggered with heat being generated; wherein the fuel is provided in the form of a gas-permeable fuel body and the molar fraction of the gaseous oxidant in the compressed gas is at least 1.1 times the amount of oxidant required for a stoichiometric conversion of the gas-permeable fuel body , characterized in that the fuel is in the form of of a gas-permeable fuel body which is composed of one or more threads, wherein the gas-permeable fuel body is made from a textile material in which the one or more fibers are contained, and wherein the textile material is selected from the group consisting of a fabric, a knitted fabric, a knit, a non-woven, a felt, a laid fabric or a wadding, or a combination thereof, and wherein the one or more fibers are natural fibers and/or synthetic fibers, wherein the natural fibers are plant or animal originating fibers, and wherein the synthetic fibers are from spinnable resin.
A surveying system, comprising: - a support ; - a rotating mirror unit including - a mounting structure , - a motor having a shaft rotatable about a first axis , wherein the motor is mounted on the mounting structure , and - a mirror having a mirror surface , wherein the mirror is mounted on the shaft of the motor ; - a measuring unit including - a mounting structure and - a light source and optics mounted on the mounting structure and configured to direct a beam of measuring light onto the mirror surface ; and - a window made of a material transmitting light of the beam of measuring light, - wherein the window is arranged in a beam path of the beam of measuring light downstream of the mirror , and - wherein the window mechanically connects the mounting structure of the measuring unit and the mounting structure of the rotating mirror unit , wherein one of the mounting structure of the measuring unit and the mounting structure of the rotating mirror unit is mounted on and carried by the support characterized in that the other one of the mounting structure of the measuring unit and the mounting structure of the rotating mirror unit is carried by the window . - a support ; - a rotating mirror unit including - a mounting structure , - a motor having a shaft rotatable about a first axis , wherein the motor is mounted on the mounting structure , and - a mirror having a mirror surface , wherein the mirror is mounted on the shaft of the motor ; - a mounting structure , - a motor having a shaft rotatable about a first axis , wherein the motor is mounted on the mounting structure , and - a mirror having a mirror surface , wherein the mirror is mounted on the shaft of the motor ; - a measuring unit including - a mounting structure and - a light source and optics mounted on the mounting structure and configured to direct a beam of measuring light onto the mirror surface ; and - a mounting structure and - a light source and optics mounted on the mounting structure and configured to direct a beam of measuring light onto the mirror surface ; and - a window made of a material transmitting light of the beam of measuring light, - wherein the window is arranged in a beam path of the beam of measuring light downstream of the mirror , and - wherein the window mechanically connects the mounting structure of the measuring unit and the mounting structure of the rotating mirror unit , - wherein the window is arranged in a beam path of the beam of measuring light downstream of the mirror , and - wherein the window mechanically connects the mounting structure of the measuring unit and the mounting structure of the rotating mirror unit , wherein one of the mounting structure of the measuring unit and the mounting structure of the rotating mirror unit is mounted on and carried by the support characterized in that the other one of the mounting structure of the measuring unit and the mounting structure of the rotating mirror unit is carried by the window .
Vehicle comprising - at least one electric motor configured for driving the vehicle , - a battery pack configured to supply the electric motor with electric power for driving the vehicle , - a vehicle body frame structure configured to form a main supporting structure of the vehicle , and - a collision energy absorbing system configured to absorb collision energy in the event of an accident, the collision energy absorbing system comprising a first absorbing structure that is positioned between the battery pack and a front of the vehicle , characterized in that the battery pack is arranged on a sub-frame which is attached to the vehicle body frame structure in a releasable manner so that when the vehicle body frame structure is subject to a deceleration that exceeds a threshold value, the sub-frame and the battery pack is decoupled from the vehicle body frame structure . - at least one electric motor configured for driving the vehicle , - a battery pack configured to supply the electric motor with electric power for driving the vehicle , - a vehicle body frame structure configured to form a main supporting structure of the vehicle , and - a collision energy absorbing system configured to absorb collision energy in the event of an accident, the collision energy absorbing system comprising a first absorbing structure that is positioned between the battery pack and a front of the vehicle ,
A method of charging an electric vehicle having an enclosure housing a charging socket, the enclosure comprising a cover portion arranged to be moveable by an actuator between an open position allowing access to the charging socket and a closed position in which the charging socket is substantially enclosed, the method comprising: determining, by the electric vehicle, whether a battery means of the electric vehicle is substantially fully charged; receiving, at an electric vehicle, a wireless signal transmitted by transmitter means associated with the charging plug of an electric vehicle charging apparatus; controlling, by the electric vehicle, the actuator to open, in dependence on receiving the wireless signal, the enclosure ; wherein, if the battery means is substantially fully charged, the actuator is not controlled to open the enclosure; and wherein in response to the receipt of an authentication signal from an authentication device indicating the locking of the electric vehicle when the battery means is being charged, the actuator is caused to partially close the enclosure, to thereby secure the plug.. determining, by the electric vehicle, whether a battery means of the electric vehicle is substantially fully charged; receiving, at an electric vehicle, a wireless signal transmitted by transmitter means associated with the charging plug of an electric vehicle charging apparatus; controlling, by the electric vehicle, the actuator to open, in dependence on receiving the wireless signal, the enclosure ; wherein, if the battery means is substantially fully charged, the actuator is not controlled to open the enclosure;
A midsole for an article of footwear, the midsole comprising: a midsole body having a first side , a second side that faces away from the first side , a medial side , and a lateral side ; wherein the first side of the midsole includes a first plurality of sipes , which are linear slits incised into a first surface of the midsole which extend partially through the midsole body towards the second side , wherein the first surface is the outermost surface on the first side of the midsole , wherein the first plurality of sipes intersect with one another to form a sipe pattern on the first surface forming a hexagonal pattern comprising a plurality of hexagonal shapes so each corner of the hexagonal shapes is adjacent a first sipe intersection comprising an intersection of three sipes , wherein the sipes partition the midsole into a plurality of impact-attenuation cells which refer to a portion of the midsole having a prismatic polyhedral body whose base is a hexagonal-shaped base comprising the first surface of the midsole , wherein the second side of the midsole includes a plurality of grooves constructed into a second surface of the midsole , wherein the second surface is the outermost surface on the second side of the midsole , wherein the grooves correspond with areas in which portions of the second surface are omitted, each groove having a groove width , and each sipe having a sipe width, the sipe width being substantially smaller than the groove width . a midsole body having a first side , a second side that faces away from the first side , a medial side , and a lateral side ; wherein the first side of the midsole includes a first plurality of sipes , which are linear slits incised into a first surface of the midsole which extend partially through the midsole body towards the second side , wherein the first surface is the outermost surface on the first side of the midsole , wherein the first plurality of sipes intersect with one another to form a sipe pattern on the first surface forming a hexagonal pattern comprising a plurality of hexagonal shapes so each corner of the hexagonal shapes is adjacent a first sipe intersection comprising an intersection of three sipes , wherein the sipes partition the midsole into a plurality of impact-attenuation cells which refer to a portion of the midsole having a prismatic polyhedral body whose base is a hexagonal-shaped base comprising the first surface of the midsole , wherein the second side of the midsole includes a plurality of grooves constructed into a second surface of the midsole , wherein the second surface is the outermost surface on the second side of the midsole , wherein the grooves correspond with areas in which portions of the second surface are omitted, each groove having a groove width , and each sipe having a sipe width, the sipe width being substantially smaller than the groove width .
Method for applying an absorbing polymer on a substrate, comprising the steps of: - providing a substrate; - applying a reaction mixture comprising a monomer and a radical-forming photoinitiator of polymerization on the substrate; and - causing radical formation in the reaction mixture and thereby initiating the polymerization of the monomer under the influence of light, wherein the application of the reaction mixture is performed by spraying; and wherein the reaction mixture is atomized during spraying; wherein, after polymerization, the sprayed reaction mixture will be able to swell and absorb liquids further comprising the step of evacuating excess reaction mixture during application of the reaction mixture to the substrate. - providing a substrate; - applying a reaction mixture comprising a monomer and a radical-forming photoinitiator of polymerization on the substrate; and - causing radical formation in the reaction mixture and thereby initiating the polymerization of the monomer under the influence of light,
A method for a vehicle system comprising an internal combustion engine having a plurality of cylinders , an exhaust gas manifold forming the outlet of the cylinders from which an exhaust gas line extends, the internal combustion engine having a turbocharger unit connected thereto, a turbocompound unit arranged to receive exhaust gas flowing from the turbocharger unit , and an exhaust gas recirculation system comprising a gas recirculation line connecting with the exhaust gas line at a position between the cylinders of the internal combustion engine and the turbocharger unit , the gas recirculation line connecting with an air intake line at a position between a charge air cooler and the cylinders of the internal combustion engine , characterized in that the method comprises controlling the exhaust gas flowing through the exhaust gas recirculation system by determining the pressure difference between the exhaust gas manifold and the air intake line downstream the charge air cooler , and, if the determined pressure difference is above a predetermined threshold value directing the recirculated exhaust gas to the air intake line downstream the charge air cooler , and, if the determined pressure difference is not above the predetermined threshold value directing the recirculated exhaust gas to a compressor of the turbocharger unit .
A box for transporting various products comprising a prismatic body and a closing cover, the body and the cover being formed by a multilayered material including an intermediate thermal insulation board with an inner face and an outer face, respectively provided with an inner coating and an outer coating; characterised in that : - the inner coating comprises: - a paper sheet attached to the inner face of the intermediate thermal insulation board ; and - a single-layered or multilayered stiffening and waterproof sheet made of vinyl or recyclable polymer that forms the inner surface of the box; - the outer coating comprises: - a first layer made of strong printed paper or strong paper suitable for printing, which forms an outer surface of the box; - a second strong paper layer attached to the intermediate thermal insulation board ; - a single-layered or multilayered flexible and waterproof sheet made of recyclable polymer arranged between the first and the second layers of strong paper; and - a protective layer made of varnish, paraffin or similar on the first paper layer forming the outer surface of the box; and - the inner coating and the outer coating cover the entire surface of the inner and outer faces of the intermediate thermal insulation board . - the inner coating comprises: - a paper sheet attached to the inner face of the intermediate thermal insulation board ; and - a single-layered or multilayered stiffening and waterproof sheet made of vinyl or recyclable polymer that forms the inner surface of the box; - a paper sheet attached to the inner face of the intermediate thermal insulation board ; and - a single-layered or multilayered stiffening and waterproof sheet made of vinyl or recyclable polymer that forms the inner surface of the box; - the outer coating comprises: - a first layer made of strong printed paper or strong paper suitable for printing, which forms an outer surface of the box; - a second strong paper layer attached to the intermediate thermal insulation board ; - a single-layered or multilayered flexible and waterproof sheet made of recyclable polymer arranged between the first and the second layers of strong paper; and - a protective layer made of varnish, paraffin or similar on the first paper layer forming the outer surface of the box; and - a first layer made of strong printed paper or strong paper suitable for printing, which forms an outer surface of the box; - a second strong paper layer attached to the intermediate thermal insulation board ; - a single-layered or multilayered flexible and waterproof sheet made of recyclable polymer arranged between the first and the second layers of strong paper; and - a protective layer made of varnish, paraffin or similar on the first paper layer forming the outer surface of the box; and - the inner coating and the outer coating cover the entire surface of the inner and outer faces of the intermediate thermal insulation board .
A mounting adapter configured for mounting an add-on device to an injection device , the mounting adapter comprises: - a carrier , - a first mount connected to the carrier and configured to connect to a housing of the injection device , - a second mount connected to the carrier and configured to connect to the add-on device , characterized by - an electrical conductor arranged in or on the carrier , wherein the electrical conductor is configured to exchange at least one type of electrical signals with the add-on device , and - at least a first electrical contact connected to the electrical conductor , wherein the at least first electrical contact is arranged on at least one of: - the second mount , - an upper side of the carrier , - an upper side of an electric layer arranged on the upper side of the carrier and - an upper side of a cover layer extending over a major portion of the upper side of the carrier . - a carrier , - a first mount connected to the carrier and configured to connect to a housing of the injection device , - a second mount connected to the carrier and configured to connect to the add-on device , characterized by - an electrical conductor arranged in or on the carrier , wherein the electrical conductor is configured to exchange at least one type of electrical signals with the add-on device , and - at least a first electrical contact connected to the electrical conductor , wherein the at least first electrical contact is arranged on at least one of: - the second mount , - an upper side of the carrier , - an upper side of an electric layer arranged on the upper side of the carrier and - an upper side of a cover layer extending over a major portion of the upper side of the carrier . - the second mount , - an upper side of the carrier , - an upper side of an electric layer arranged on the upper side of the carrier and - an upper side of a cover layer extending over a major portion of the upper side of the carrier .