mhurhangee/ep-ind-claims huggingface dataset:
A diagnostic method for determining if a subject has or is predisposed to acute inflammation of the lung in response to a microbial infection comprising: i) providing an isolated biological sample to be tested and preparing cDNA; ii) forming a preparation comprising said cDNA and an oligonucleotide primer pair adapted to anneal to a nucleic acid molecule consisting of a nucleotide sequence as set forth in SEQ ID NO: 5 or 6; a thermostable DNA polymerase, deoxynucleotide triphosphates and co-factors; iii) providing polymerase chain reaction conditions sufficient to amplify all or part of said nucleic acid molecule; iv) analysing the amplified products of said polymerase chain reaction for the presence of a nucleic acid molecule consisting of a nucleotide sequence derived from SEQ ID NO: 5 or 6; and optionally v) comparing the amplified product with a normal matched control. i) providing an isolated biological sample to be tested and preparing cDNA; ii) forming a preparation comprising said cDNA and an oligonucleotide primer pair adapted to anneal to a nucleic acid molecule consisting of a nucleotide sequence as set forth in SEQ ID NO: 5 or 6; a thermostable DNA polymerase, deoxynucleotide triphosphates and co-factors; iii) providing polymerase chain reaction conditions sufficient to amplify all or part of said nucleic acid molecule; iv) analysing the amplified products of said polymerase chain reaction for the presence of a nucleic acid molecule consisting of a nucleotide sequence derived from SEQ ID NO: 5 or 6; and optionally v) comparing the amplified product with a normal matched control.
A vehicle, more especially a motor vehicle, comprising a control device assembly, wherein the control device assembly comprises at least one safety control device and an emergency call control device for the vehicle, wherein the at least one safety control device is coupled to the emergency call control device via the at least one point-to-point interface, wherein the emergency call control device comprises a communication module which, during operation of the emergency call control device, establishes in the vehicle a communication connection to an external location outside the vehicle in response to receiving one or more trigger signals from at least one safety control device of the vehicle, wherein the emergency call control device has at least one point-to-point interface for communication with the at least one safety control device, wherein the trigger signal or trigger signals from the at least one safety control device can be received via the at least one point-to-point interface, characterised in that the at least one safety control device is installed in a different place in the vehicle compared to the emergency call control device, and in that furthermore administrative functions can be performed on the emergency call control device by the at least one safety control device via the at least one point-to-point interface.
Security and/or valuable document, formed from at least two interconnected document layers, characterised in that all the document layers consist of glass.
Heat exchanger, comprising a series of interconnected modules, each module comprising at least part of a water duct and part of a flue duct, wherein at least the parts of the water ducts of successive modules are interconnected, forming at least one continuous water duct through and/or along a number of said modules, wherein water duct parts of two adjacent modules are interconnected by a connector inserted into an opening in at least one of the modules forming a sealing connection, wherein the series of modules is provided, at two opposite ends, with an end module (2B, 2C), wherein a first series of connectors connecting pairs of modules form part of a first connecting duct and a second series of connectors connecting pairs of modules form part of a second connecting duct, the first and second connecting ducts (25, 26) connect opposite ends of the series of water duct parts of the modules, and wherein the first and second connecting ducts (25, 26) extend substantially parallel to each other, characterized by a third series of connectors connecting pairs of modules forming part of a third connecting duct, extending substantially parallel to the first and second connecting duct (25, 26), wherein a duct part is provided, preferably in an end module (2B, 2C), connecting ends of the second and third connecting duct (26, 56), wherein the first and second connecting duct (25, 26) each have one closed end (53, 54), such that an open end of the first connecting duct is positioned at the same side of the series of modules as an open end of the third connecting duct.
Cooling element (38; 40) for an injection valve (1; 41) which is provided, in particular, for injecting a liquid reducing agent into an exhaust gas section of an internal combustion engine, having a hollow region which is provided for receiving at least one section (1a, 1b; 41a, 41b) of the injection valve (1; 41), a cooling plate which runs around the hollow region, and an end plate which is arranged on an end side of the injection valve (1; 41); characterized in that the end plate has at least one region which is shaped in a bowl-like manner with an end wall and at least one side wall and is configured for receiving an injection-side section (1a; 41a) of the injection valve (1; 41) such that the tip of the injection valve can be inserted in an essentially form-fitting manner into the region shaped in a bowl-like manner; the end wall has at least one injection opening which makes it possible to spray fluid out of the injection valve (1; 41) through the end plate, and the cooling plate and the end plate are connected to one another in a fluid-tight manner, with the result that, in a state in which a section (1a, 1b; 41a, 41b) of an injection valve (1; 41) is arranged as intended in the hollow region, a cooling volume which runs around the section (1a, 1b; 41a, 41b) of the injection valve (1; 41) is delimited by the end plate, the cooling plate and the injection valve (1; 41).
A remote control device for a lens setting motor (15, 17, 19) of a motion picture camera, said remote control device comprising an operating unit, wherein the operating unit has - a base part, - an operating element rotatable relative to the base part about an axis of rotation for setting control commands for the lens setting motor (15, 17, 19), and - a position encoder which is configured to detect a respective rotational position of the operating element relative to the base part and to generate corresponding position signals; wherein the remote control device has an evaluation and control device (23, 23') which is configured to determine setting signals for the lens setting motor (15, 17, 19) in dependence on the position signals according to a mapping rule; wherein the mapping rule corresponds to at least one mathematical functional relationship; and wherein the remote control device has an input device via which the mathematical functional relationship of the mapping rule can be configured by user input, characterized in that a non-linear relationship between values of the position signal and associated values of the setting signal can be set via the input device for at least one value range of the position signals or for at least one value range of the setting signals. - a base part, - an operating element rotatable relative to the base part about an axis of rotation for setting control commands for the lens setting motor (15, 17, 19), and - a position encoder which is configured to detect a respective rotational position of the operating element relative to the base part and to generate corresponding position signals; wherein the remote control device has an evaluation and control device (23, 23') which is configured to determine setting signals for the lens setting motor (15, 17, 19) in dependence on the position signals according to a mapping rule; wherein the mapping rule corresponds to at least one mathematical functional relationship; and wherein the remote control device has an input device via which the mathematical functional relationship of the mapping rule can be configured by user input, characterized in that a non-linear relationship between values of the position signal and associated values of the setting signal can be set via the input device for at least one value range of the position signals or for at least one value range of the setting signals.
A method of manufacturing an eyeglass lens, which comprises: determining a manufacturing condition by a method of determining a manufacturing condition of an eyeglass lens comprising a vapor-deposited film formed by vapor deposition using a vapor deposition source the main component of which is ZrO 2; and forming a vapor-deposited film by vapor deposition using a vapor deposition source the main component of which is ZrO 2 under the manufacturing condition that has been determined, wherein the method of determining a manufacturing condition comprises: determining a candidate vapor deposition condition to be employed in vapor deposition of the vapor-deposited film in actual manufacturing; forming a test vapor-deposited film by conducting vapor deposition under the candidate vapor deposition condition that has been determined; and taking a planar electron microscope image of the test vapor-deposited film that has been formed and determining a vapor deposition condition of the vapor-deposited film in actual manufacturing with a determination standard that the larger the grain size observed in the planar electron microscope image, the better the candidate vapor deposition condition permitting formation of a vapor-deposited film exhibiting heat resistance. determining a manufacturing condition by a method of determining a manufacturing condition of an eyeglass lens comprising a vapor-deposited film formed by vapor deposition using a vapor deposition source the main component of which is ZrO 2; and forming a vapor-deposited film by vapor deposition using a vapor deposition source the main component of which is ZrO 2 under the manufacturing condition that has been determined, wherein the method of determining a manufacturing condition comprises: determining a candidate vapor deposition condition to be employed in vapor deposition of the vapor-deposited film in actual manufacturing; forming a test vapor-deposited film by conducting vapor deposition under the candidate vapor deposition condition that has been determined; and taking a planar electron microscope image of the test vapor-deposited film that has been formed and determining a vapor deposition condition of the vapor-deposited film in actual manufacturing with a determination standard that the larger the grain size observed in the planar electron microscope image, the better the candidate vapor deposition condition permitting formation of a vapor-deposited film exhibiting heat resistance. determining a candidate vapor deposition condition to be employed in vapor deposition of the vapor-deposited film in actual manufacturing; forming a test vapor-deposited film by conducting vapor deposition under the candidate vapor deposition condition that has been determined; and taking a planar electron microscope image of the test vapor-deposited film that has been formed and determining a vapor deposition condition of the vapor-deposited film in actual manufacturing with a determination standard that the larger the grain size observed in the planar electron microscope image, the better the candidate vapor deposition condition permitting formation of a vapor-deposited film exhibiting heat resistance.
A method for receiving a downlink frame in a wireless communication system, the method comprising: receiving, by a first station, STA, a downlink orthogonal frequency division multiple access, OFDMA, frame, and the downlink OFDMA frame comprises resource units, RUs, different RUs in the downlink OFDMA frame are communicated by an access point, AP, to different stations including the first STA, wherein each of the RUs in the downlink OFDMA frame carries at least two pilot tones; and performing residual carrier frequency offset compensation on the downlink OFDMA frame by tracking a phase of OFDMA symbols in RUs based on the pilot tones carried in each of the RUs communicated by the first STA, wherein the residual carrier frequency offset compensation includes estimating a residual carrier frequency offset based on the pilot tones carried in the downlink OFDMA frame. receiving, by a first station, STA, a downlink orthogonal frequency division multiple access, OFDMA, frame, and the downlink OFDMA frame comprises resource units, RUs, different RUs in the downlink OFDMA frame are communicated by an access point, AP, to different stations including the first STA, wherein each of the RUs in the downlink OFDMA frame carries at least two pilot tones; and performing residual carrier frequency offset compensation on the downlink OFDMA frame by tracking a phase of OFDMA symbols in RUs based on the pilot tones carried in each of the RUs communicated by the first STA, wherein the residual carrier frequency offset compensation includes estimating a residual carrier frequency offset based on the pilot tones carried in the downlink OFDMA frame.
A process for preparing Compound 1, the process comprising: contacting Compound 2A with Compound 2B: in the presence of an organometallic reagent and a Lewis base in a solvent at temperature sufficient to provide Compound 2C: contacting Compound 2C with in the presence of a titanium- or zirconium-based reagent in a solvent at a temperature sufficient to provide Compound 2D: contacting Compound 2D with a reducing agent and optionally, a ruthenium, palladium, rhodium, or platinum catalyst in a solvent at a temperature sufficient to provide Compound 2E: contacting Compound 2E with an acid in a solvent at a temperature sufficient to provide Compound 2F: and contacting Compound 2F with Compound 2G: in the presence of (i) a palladium catalyst and a base or (ii) a copper catalyst, a copper catalyst ligand, and a base in a solvent at a temperature sufficient to provide Compound 1: contacting Compound 2A with Compound 2B: in the presence of an organometallic reagent and a Lewis base in a solvent at temperature sufficient to provide Compound 2C: contacting Compound 2C with in the presence of a titanium- or zirconium-based reagent in a solvent at a temperature sufficient to provide Compound 2D: contacting Compound 2D with a reducing agent and optionally, a ruthenium, palladium, rhodium, or platinum catalyst in a solvent at a temperature sufficient to provide Compound 2E: contacting Compound 2E with an acid in a solvent at a temperature sufficient to provide Compound 2F: and contacting Compound 2F with Compound 2G: in the presence of (i) a palladium catalyst and a base or (ii) a copper catalyst, a copper catalyst ligand, and a base in a solvent at a temperature sufficient to provide Compound 1:
A solid-state imaging device comprising: a photoelectric conversion section; a first signal path including a first floating diffusion and a first amplification transistor; a second signal path including a second floating diffusion and a second amplification transistor; a mode-switching switch section that, in a first mode, electrically couples the first signal path to the photoelectric conversion section and electrically decouples the second signal path from the photoelectric conversion section, and that, in a second mode, electrically couples both of the first signal path and the second signal path to the photoelectric conversion section; a first substrate in which at least the photoelectric conversion section is formed, of the group of the photoelectric conversion section, the first floating diffusion, the first amplification transistor, the second floating diffusion, the second amplification transistor, and the mode-switching switch section; and a second substrate which is stacked on the first substrate, and in which at least the second amplification transistor is formed, of the group of the photoelectric conversion section, the first floating diffusion, the first amplification transistor, the second floating diffusion, the second amplification transistor, and the mode-switching switch section. a photoelectric conversion section; a first signal path including a first floating diffusion and a first amplification transistor; a second signal path including a second floating diffusion and a second amplification transistor; a mode-switching switch section that, in a first mode, electrically couples the first signal path to the photoelectric conversion section and electrically decouples the second signal path from the photoelectric conversion section, and that, in a second mode, electrically couples both of the first signal path and the second signal path to the photoelectric conversion section; a first substrate in which at least the photoelectric conversion section is formed, of the group of the photoelectric conversion section, the first floating diffusion, the first amplification transistor, the second floating diffusion, the second amplification transistor, and the mode-switching switch section; and a second substrate which is stacked on the first substrate, and in which at least the second amplification transistor is formed, of the group of the photoelectric conversion section, the first floating diffusion, the first amplification transistor, the second floating diffusion, the second amplification transistor, and the mode-switching switch section.
Windscreen wiper device consisting of a wiper arm and an adapter for holding a wiper blade with an adapter upper part, which has at least one latching lug on at least one side wall, wherein a connection part of the wiper arm lies with an inner wall on the side wall and, in the inner wall, is a recess which corresponds to the latching lug and in which the latching lug is located in the assembled state, and with a securing slide which is guided by the connection part and is displaceable on the connection part between a removal position and a functional position, wherein a wall portion of the securing slide reaches over the connection part and engages with a latching strip below the side wall, and the latching strip has interruptions in such a manner that, in the functional position, the latching strip holds the latching lug in the recess and, in the removal position, an interruption in the latching strip comes to lie under the recess in order to enable the adapter upper part to be pulled out, characterized in that the wall portion and/or the side wall have/has elastic deformability, and at least one integrally formed bevel is formed on the underside of the latching strip and/or on the top side of the latching lug such that the connection part can be pressed with the securing slide in the functional position onto the adapter upper part until latching occurs.
Use of compounds of general formula I, wherein R 6 is selected from the group comprising -NH-furfuryl, -NH-(4-hydroxy-3-methylbut-2-en-1-yl), -NH-(3-methylbut-2-en-1-yl), -NH-(4-hydroxy-3-methylbutyl), -NH-(4-hydroxy-1,3-dimethylbut-2-en-1-yl), -NH-(4-hydroxy-1,3-dimethylbutyl), -NH-benzyl, wherein benzyl and furfuryl can be unsubstituted or substituted with 1 to 3 substituents selected from the group comprising hydroxy, halogen, methyl and methoxy, R 9 is C 1 -C 3 alkyl substituted with one or more halogen atoms, for regulation of growth and development of plant cells, plant organs and/or whole plants. R 6 is selected from the group comprising -NH-furfuryl, -NH-(4-hydroxy-3-methylbut-2-en-1-yl), -NH-(3-methylbut-2-en-1-yl), -NH-(4-hydroxy-3-methylbutyl), -NH-(4-hydroxy-1,3-dimethylbut-2-en-1-yl), -NH-(4-hydroxy-1,3-dimethylbutyl), -NH-benzyl, wherein benzyl and furfuryl can be unsubstituted or substituted with 1 to 3 substituents selected from the group comprising hydroxy, halogen, methyl and methoxy, R 9 is C 1 -C 3 alkyl substituted with one or more halogen atoms,
A respiration tube connecting device comprising: - a base body, - a respiratory gas passage channel formed in the base body, - a respiration tube connection portion for receiving an end portion of a respiration tube such that it is in connection with the respiratory gas passage channel, - characterized in that the base body comprises a nose-like radially projecting portion that is radially offset with regard to the centre of the respiratory gas passage channel, and that an additional coupling portion is formed in this portion for connecting an additional hose conduit with a complementary connecting structure (316, 317) provided at a respiratory gas source. - a base body, - a respiratory gas passage channel formed in the base body, - a respiration tube connection portion for receiving an end portion of a respiration tube such that it is in connection with the respiratory gas passage channel, - characterized in that the base body comprises a nose-like radially projecting portion that is radially offset with regard to the centre of the respiratory gas passage channel, and that an additional coupling portion is formed in this portion for connecting an additional hose conduit with a complementary connecting structure (316, 317) provided at a respiratory gas source.
A method of determining whether a human has an increased risk for myocardial infarction, comprising testing nucleic acid from said human for the presence or absence of a single nucleotide polymorphism in the nucleotide sequence of SEQ ID NO:2208 (rs 10176176) in said human's nucleic acids, wherein the presence of A at position 101 of SEQ ID NO: 2208 or the presence of T at position 101 of its complement indicates that said human has an increased risk for myocardial infarction.
An apparatus, comprising: a bit, which bit is rotatable about an axis of rotation; a bit identification assembly configured to attach to the bit, the bit being configured to removably attach to a tool that is configured to rotate the bit about the axis of rotation, the bit identification assembly comprising: an electronic identification device capable of emitting an identification signal; characterized in that: the bit identification assembly comprises a core comprising a bit receptacle configured to receive the bit; and wherein the electronic identification device is located in a recess formed on a radially outer surface of the core. a bit, which bit is rotatable about an axis of rotation; a bit identification assembly configured to attach to the bit, the bit being configured to removably attach to a tool that is configured to rotate the bit about the axis of rotation, the bit identification assembly comprising: an electronic identification device capable of emitting an identification signal; characterized in that: the bit identification assembly comprises a core comprising a bit receptacle configured to receive the bit; and wherein the electronic identification device is located in a recess formed on a radially outer surface of the core.
Parking brake device (1; 1'; 1") for motor vehicles, having at least one compressed-air source and having at least one control valve device, wherein the control valve device has at least one first port and at least one second port which are connectable in each case via a first connecting line and a second connecting line to the compressed-air source, wherein the connecting lines (34, 35) are arranged downstream of the compressed-air source, characterised in that a rapid vent valve is arranged in at least one connecting line.
Electric motor having a stator, a rotor which is rotatably supported relative to the stator and a motor electronic unit, wherein the motor electronic unit is arranged in an electronic housing and constructed on a printed circuit board, characterised in that on the printed circuit board there is arranged at least one vibration sensor which is constructed to measure an acceleration and/or a speed of vibrations of the electric motor in at least one direction, and in that the printed circuit board is coupled to other components of the electric motor by means of at least one coupling element in terms of vibrations so that at least portions of the vibrations of the electric motor are transmitted to the vibration sensor.