mhurhangee/ep-ind-claims huggingface dataset:
A method of separating a sample comprising: providing a chromatographic system having a metallic flow path with an alkylsilyl coating on fluid exposed surfaces, the metallic flow path with the alkylsilyl coating preventing the sample from binding to underlying metal surfaces; injecting the sample into the chromatographic system, wherein the sample comprises diazoxide or bicalutamide; flowing the sample through the chromatographic system; separating the sample; and performing mass spectrometry on the separated sample. providing a chromatographic system having a metallic flow path with an alkylsilyl coating on fluid exposed surfaces, the metallic flow path with the alkylsilyl coating preventing the sample from binding to underlying metal surfaces; injecting the sample into the chromatographic system, wherein the sample comprises diazoxide or bicalutamide; flowing the sample through the chromatographic system; separating the sample; and performing mass spectrometry on the separated sample.
An adapter for monitoring tire pressure level of an off-highway vehicle wheel and / or earthmoving vehicle wheel through wireless communication, wherein said adapter comprising, a sensor for measuring pressure of said vehicle wheel tire; characterized in that said adapter further includes a sensor housing, a valve core housing and/or a tire inflation valve, wherein said sensor housing includes a sensor module, an internal gallery and a battery; wherein said sensor housing further includes a male portion with external threads for mounting said adapter in a standard hole of a rim to face tire cavity region of said rim, and a female threaded hole arrangement to receive said valve core housing and/or said tire inflation valve; wherein said sensor module of the adapter is kept external to the rim and away from the tire cavity; wherein said internal gallery is provided to establish connectivity between said sensor module, said tire inflation valve and said tire cavity; wherein said sensor housing further includes at least two compartments for embedding said sensor module and said battery separately, a sensor module compartment embedding the sensor module and a battery compartment embedding the battery; and wherein said battery compartment includes said battery, characterised in that said battery compartment further includes an internal thread for receiving a threaded lid and a groove provided beneath said internal thread to receive a static seal. a sensor for measuring pressure of said vehicle wheel tire; characterized in that said adapter further includes a sensor housing, a valve core housing and/or a tire inflation valve, wherein said sensor housing includes a sensor module, an internal gallery and a battery; wherein said sensor housing further includes a male portion with external threads for mounting said adapter in a standard hole of a rim to face tire cavity region of said rim, and a female threaded hole arrangement to receive said valve core housing and/or said tire inflation valve; wherein said sensor module of the adapter is kept external to the rim and away from the tire cavity; wherein said internal gallery is provided to establish connectivity between said sensor module, said tire inflation valve and said tire cavity; wherein said sensor housing further includes at least two compartments for embedding said sensor module and said battery separately, a sensor module compartment embedding the sensor module and a battery compartment embedding the battery; and wherein said battery compartment includes said battery, characterised in that said battery compartment further includes an internal thread for receiving a threaded lid and a groove provided beneath said internal thread to receive a static seal.
A method of devulcanizing a vulcanized rubber which comprises the following steps: a) providing at least one vulcanized rubber; b) grinding the vulcanized rubber into chips or aggregates; c) kneading the ground rubber obtained from step b) at a low rate of shear ranging between 100 s -1 and 500 s -1 in such a manner as to homogenize it in size of aggregates and temperature; d) achieving a non degrading mechanical treatment on the kneaded rubber obtained from step c) consisting in a shearing at a high rate of shear ranging between 10 3 s -1 and 10 6 s -1 for obtaining a flexible, hardly elastic polymeric composite having an as aspect comparable to a rubber or a mixture of unvulcanized rubbers and coming in the form of a homogenous non granular paste. a) providing at least one vulcanized rubber; b) grinding the vulcanized rubber into chips or aggregates; c) kneading the ground rubber obtained from step b) at a low rate of shear ranging between 100 s -1 and 500 s -1 in such a manner as to homogenize it in size of aggregates and temperature; d) achieving a non degrading mechanical treatment on the kneaded rubber obtained from step c) consisting in a shearing at a high rate of shear ranging between 10 3 s -1 and 10 6 s -1 for obtaining a flexible, hardly elastic polymeric composite having an as aspect comparable to a rubber or a mixture of unvulcanized rubbers and coming in the form of a homogenous non granular paste.
A dry ice grinder for a dry ice blasting apparatus comprising a first and a second grinding body (12, 22), wherein the first grinding body has a rotationally symmetrical outer effective area and the second grinding body has a rotationally symmetrical inner effective area, which act as grinding areas, the grinding bodies (12, 22) are each arranged, with their outer effective area and their inner effective area facing one another, coaxially and in a manner rotatable relative to one another about an axis of rotation, so that an annular gap is formed between the outer effective area and the inner effective area, wherein, when the grinding bodies (12, 22) are rotated relative to one another, dry ice grinding material gets into the annular gap where it is ground, characterized in that in each case a contour course of the outer effective area along the axis of rotation is defined by a first contour line and a contour course of the inner effective area along the axis of rotation is defined by a second contour line, the first and the second contour line being designed in such a way that, with a minimized annular gap, the inner effective area and the outer effective area touch one another along an annular line.
An optical system for a stereo video endoscope, comprising a first lens system channel and a second lens system channel for a stereoscopic representation of a region lying outside of the stereo video endoscope, wherein the lens system channels (7, 8) are arranged in parallel to one another and each comprise one or more optical elements (11, 12) in a respective identical optical configuration, which are each arranged next to one another in the same position along a first optical axis of the first lens system channel or a second optical axis of the second lens system channel, wherein the first lens system channel comprises at least one first optical element and the second lens system channel comprises at least one second optical element neighbouring the first optical element, wherein a first optical axis of the first optical element coincides with the first optical axis of the first lens system channel and a second optical axis of the second optical element coincides with the second optical axis of the second lens system channel, wherein the cross-sectional area of the first optical element is inscribed in a first circumferential circle and the cross-sectional area of the second optical element is inscribed in a second circumferential circle, the centres of which each coincide with the first optical axis of the first optical element and, respectively, the second optical axis of the second optical element, and which determine a maximum radius of the first optical element and, respectively, the second optical element, wherein the first circumferential circle and the second circumferential circle overlap one another, wherein circumferential shapes of the first optical element and the second optical element deviate from the first and second circumferential circles (11b, 12b) circumscribing them in such a way that the first optical element and the second optical element do not touch, characterised in that the first lens system channel comprises a first image sensor and a first deflection element, and the second lens system channel comprises a second image sensor and a second deflection element, wherein the first image sensor is arranged above and the second image sensor is arranged below a sectional plane spanned by the first optical axis of the first optical element and the second optical axis of the second optical element and both image sensors (21, 22) are aligned plane parallel to the sectional plane, wherein the first deflection element diverts light beams incident in the first lens system channel in the direction of the first image sensor and the second deflection element diverts light beams incident in the second lens system channel in the direction of the second image sensor.
A method of manufacturing a carbon-based silicon nanowire composite, the method comprising: providing a carbon-based substrate having catalyst nanoparticles deposited on the surface of the carbon-based substrate; loading the carbon-based substrate with the catalyst nanoparticles deposited thereon into a plurality of tumbler reactors; inserting the plurality of tumbler reactors containing the carbon-based substrate with the catalyst nanoparticles deposited thereon into a low-pressure CVD system comprising a sequence of N active zones separated from each other through N-1 buffer zones, said active zones comprising at least one heating zone, at least one reaction zone, and at least one cooling zone; heating the carbon-based substrate with the catalyst nanoparticles deposited thereon in one or more of the plurality of tumbler reactors positioned in the at least one heating zone until the carbon-based substrate reaches a specified temperature; growing silicon-comprising nanowires on carbon-based substrate from the catalyst nanoparticles in one or more of the plurality of tumbler reactors positioned in the at least one reaction zone to form a carbon-based silicon nanowire composite via a Vapor-Solid-Solid synthesis technique, and changing periodically the position of the plurality of tumbler reactors in the low-pressure CVD system via the buffer zones under controlled conditions of pressure and temperature so that the at least one reaction zone is continuously growing silicon-comprising nanowires except for the periodic transition of the plurality of tumbler reactors from one active zone to the next. providing a carbon-based substrate having catalyst nanoparticles deposited on the surface of the carbon-based substrate; loading the carbon-based substrate with the catalyst nanoparticles deposited thereon into a plurality of tumbler reactors; inserting the plurality of tumbler reactors containing the carbon-based substrate with the catalyst nanoparticles deposited thereon into a low-pressure CVD system comprising a sequence of N active zones separated from each other through N-1 buffer zones, said active zones comprising at least one heating zone, at least one reaction zone, and at least one cooling zone; heating the carbon-based substrate with the catalyst nanoparticles deposited thereon in one or more of the plurality of tumbler reactors positioned in the at least one heating zone until the carbon-based substrate reaches a specified temperature; growing silicon-comprising nanowires on carbon-based substrate from the catalyst nanoparticles in one or more of the plurality of tumbler reactors positioned in the at least one reaction zone to form a carbon-based silicon nanowire composite via a Vapor-Solid-Solid synthesis technique, and changing periodically the position of the plurality of tumbler reactors in the low-pressure CVD system via the buffer zones under controlled conditions of pressure and temperature so that the at least one reaction zone is continuously growing silicon-comprising nanowires except for the periodic transition of the plurality of tumbler reactors from one active zone to the next.
A method for the immunological differential diagnosis of a sample from a patient with a potential infection with an arbovirus, wherein a) a sample is brought into contact with a plurality of antigens that, separated from each other, are applied to a solid phase, wherein at least the following antigens are used: aa) the "non-structural protein 1" of a first arbovirus or an immunologically reactive part thereof having at least 8 amino acids, bb) an "envelope protein" of a first arbovirus or an immunologically reactive part thereof having at least 8 amino acids, cc) an "envelope protein" of a second arbovirus or an immunologically reactive part thereof having at least 8 amino acids, dd) the "non-structural protein 1" of a third arbovirus or an immunologically reactive part thereof having at least 8 amino acids and ee) an "envelope protein" of a third arbovirus or an immunologically reactive part thereof having at least 8 amino acids, b) the solid phase is washed to separate non-specific bindings, c) the immune complex formed on the solid phase is converted into a signal and d) the test method is evaluated by comparing the relative signal strengths, characterized in that the first arbovirus is a dengue virus serotype 2, the second arbovirus is a Chikungunya virus, the third arbovirus is a Zika virus. a) a sample is brought into contact with a plurality of antigens that, separated from each other, are applied to a solid phase, wherein at least the following antigens are used: aa) the "non-structural protein 1" of a first arbovirus or an immunologically reactive part thereof having at least 8 amino acids, bb) an "envelope protein" of a first arbovirus or an immunologically reactive part thereof having at least 8 amino acids, cc) an "envelope protein" of a second arbovirus or an immunologically reactive part thereof having at least 8 amino acids, dd) the "non-structural protein 1" of a third arbovirus or an immunologically reactive part thereof having at least 8 amino acids and ee) an "envelope protein" of a third arbovirus or an immunologically reactive part thereof having at least 8 amino acids, aa) the "non-structural protein 1" of a first arbovirus or an immunologically reactive part thereof having at least 8 amino acids, bb) an "envelope protein" of a first arbovirus or an immunologically reactive part thereof having at least 8 amino acids, cc) an "envelope protein" of a second arbovirus or an immunologically reactive part thereof having at least 8 amino acids, dd) the "non-structural protein 1" of a third arbovirus or an immunologically reactive part thereof having at least 8 amino acids and ee) an "envelope protein" of a third arbovirus or an immunologically reactive part thereof having at least 8 amino acids, b) the solid phase is washed to separate non-specific bindings, c) the immune complex formed on the solid phase is converted into a signal and d) the test method is evaluated by comparing the relative signal strengths,
Lyotropic composition of carbohydrates, characterized in that it is stable between 4°C and 25°C and comprises a fat or a mixture of several fats for food use the melting point of which is less than 50°C, carbohydrates selected from mono-, di-, trisaccharides and/or polyalcohols in a proportion greater than 40% by weight, surfactants at a concentration of 0.01 to 4% by weight and a moisture of 2 to 10%, the percentages by weight referring to the final product.
Composite for an acoustic component having - at least one carrier layer (11, 15) and - an electrospun membrane which is arranged on the at least one carrier layer (11, 15), wherein the electrospun membrane is formed of superimposed fibers with the formation of a pore structure, wherein the pore structure is designed that - the composite has a water column of at least 1 m according to ISO 811:1981 and an air permeability of at least 5 L/m 2 *s according to ISO 9237:1995-12, - the composite is provided with a plasma coating, and - wherein the carrier layer (11, 15) and the electrospun membrane are firmly joined with each other, - wherein as carrier layer (11, 15) a monofilament fabric is provided and the plasma coating is formedboth on the electrospun membrane and on the at least one carrier layer (11, 15). - at least one carrier layer (11, 15) and - an electrospun membrane which is arranged on the at least one carrier layer (11, 15), wherein the electrospun membrane is formed of superimposed fibers with the formation of a pore structure, - the composite has a water column of at least 1 m according to ISO 811:1981 and an air permeability of at least 5 L/m 2 *s according to ISO 9237:1995-12, - the composite is provided with a plasma coating, and - wherein the carrier layer (11, 15) and the electrospun membrane are firmly joined with each other, - wherein as carrier layer (11, 15) a monofilament fabric is provided and
A vacuum pressure swing adsorption (VPSA) process for separating a feed supply gas containing at least one more strongly adsorbable component and at least one less strongly adsorbable product gas component, the process comprising: (a) using a system comprising three or four adsorber beds in a single train, (b) continuously feeding a feed supply gas into a feed input end of one adsorber bed, said bed containing at least one adsorbent which preferentially adsorbs the more strongly adsorbable component and withdrawing the at least one less strongly adsorbable product gas component from an exit end of the adsorber bed, (c) providing continuous feeding of the feed supply gas using a single feed blower, (d) purging the adsorber beds using two purge gases of different purity, (e) producing the product gas component in cycles by steps wherein in a train that utilizes three or four beds, at any instant during the process, two beds are in an evacuation step and only one bed is in a feed mode, (f) using an equalization tank to collect co-current depressurization gas. (a) using a system comprising three or four adsorber beds in a single train, (b) continuously feeding a feed supply gas into a feed input end of one adsorber bed, said bed containing at least one adsorbent which preferentially adsorbs the more strongly adsorbable component and withdrawing the at least one less strongly adsorbable product gas component from an exit end of the adsorber bed, (c) providing continuous feeding of the feed supply gas using a single feed blower, (d) purging the adsorber beds using two purge gases of different purity, (e) producing the product gas component in cycles by steps wherein in a train that utilizes three or four beds, at any instant during the process, two beds are in an evacuation step and only one bed is in a feed mode, (f) using an equalization tank to collect co-current depressurization gas.
An optical module comprising: a double-sided mirror that rotates or undergoes pendulum motion about at least one rotation axis; a plane mirror disposed at an angle of 45 degrees from a horizontal surface on a back surface side of the double-sided mirror; and a uniaxial retroreflective mirror disposed at an angle of 45 degrees from the horizontal surface on a front surface side of the double-sided mirror, wherein the uniaxial retroreflective mirror has a mirror pair forming an angle of 90 degrees with each other, wherein the mirror pair is a roof mirror array and is disposed in a curved concave shape when viewed from the double-sided mirror, wherein the optical module includes an axis of retroreflection that is perpendicular to the horizontal surface and a normal line of the uniaxial retroreflective mirror. a double-sided mirror that rotates or undergoes pendulum motion about at least one rotation axis; a plane mirror disposed at an angle of 45 degrees from a horizontal surface on a back surface side of the double-sided mirror; and a uniaxial retroreflective mirror disposed at an angle of 45 degrees from the horizontal surface on a front surface side of the double-sided mirror, wherein the uniaxial retroreflective mirror has a mirror pair forming an angle of 90 degrees with each other, wherein the mirror pair is a roof mirror array and is disposed in a curved concave shape when viewed from the double-sided mirror, wherein the optical module includes an axis of retroreflection that is perpendicular to the horizontal surface and a normal line of the uniaxial retroreflective mirror.
Method for providing redundancy synchronization of remote terminal unit, RTU, central processing units CPUs, associated with an industrial operation, comprising: implementing a redundancy management, RED, task to coordinate initial synchronization of configuration and data state between a standby RTU CPU and a main RTU CPU; queuing time-stamped events on the main RTU CPU for transfer to the standby RTU CPU as the time-stamped events are generated on the main RTU CPU; receiving the time-stamped events on the standby RTU CPU; storing the time-stamped events in one or more standby RTU CPU event buffers; transmitting the time-stamped events from the main RTU CPU to a Supervisory Control and Data Acquisition, controlling station; communicating receipt of the time-stamped events from the SCADA controlling station to the main RTU CPU; and characterized in that upon confirming receipt of the time-stamped events from the SCADA controlling station, removing the time-stamped events from the main RTU CPU and the standby RTU CPU event buffers in real-time, thereby ensuring no data loss in the case of a subsequent transition from the standby RTU CPU to the main RTU CPU. implementing a redundancy management, RED, task to coordinate initial synchronization of configuration and data state between a standby RTU CPU and a main RTU CPU; queuing time-stamped events on the main RTU CPU for transfer to the standby RTU CPU as the time-stamped events are generated on the main RTU CPU; receiving the time-stamped events on the standby RTU CPU; storing the time-stamped events in one or more standby RTU CPU event buffers; transmitting the time-stamped events from the main RTU CPU to a Supervisory Control and Data Acquisition, controlling station; communicating receipt of the time-stamped events from the SCADA controlling station to the main RTU CPU; and characterized in that upon confirming receipt of the time-stamped events from the SCADA controlling station, removing the time-stamped events from the main RTU CPU and the standby RTU CPU event buffers in real-time, thereby ensuring no data loss in the case of a subsequent transition from the standby RTU CPU to the main RTU CPU.