mhurhangee/ep-ind-claims huggingface dataset:
An electrochemical oxygen sensor, comprising a housing enclosing a chamber filled with electrolyte, at least one measuring electrode for detecting oxygen, at least one counter electrode, and at least one reference electrode, wherein the housing comprises at least one first aperture for allowing oxygen to contact the measuring electrode and at least one second aperture for allowing oxygen to escape from the chamber, wherein the counter electrode is disposed adjacent to the second aperture, wherein the first and second apertures are disposed on the same side of the sensor housing and the measuring electrode and the counter electrode are disposed on the same side of the housing, wherein at least one isolating device is interposed between the measuring electrode and the counter electrode.
An antenna arrangement for use in a wireless communication system, where the arrangement comprises at least two single-polarized antenna functions (4, 5), each antenna function (4, 5) being adapted for radiating an antenna radiation lobe pattern having a horizontal extension in an azimuth plane, and a vertical extension in an elevation plane, perpendicular to the azimuth plane, where the antenna functions (4, 5) both have essentially a first polarization in a first direction, characterized in that, in a second direction separated from the first direction, the second antenna function has a second polarization and the first antenna function has a third polarization, the second polarization and the third polarization being essentially orthogonal to each other.
A method of controlling a fluid level around a transmission gear of a vehicle including the steps of (a) providing a set of predetermined operating conditions, each predetermined operating condition having a corresponding predetermined fluid level requirement, (b) operating the vehicle at an actual operating condition, (c) determining a predetermined operating condition equivalent to the actual operating condition, (d) arranging the fluid level around the transmission gear to be equivalent to the predetermined fluid level requirement corresponding to said predetermined operating condition, characterised in that a first predetermined operating condition of said set of predetermined operating conditions being at least defined by a first fluid quality, a second predetermined operating condition of said set of predetermined operating conditions being at least defined by a second fluid quality which is different from the first fluid quality, said first predetermined operating condition having a first predetermined fluid level requirement, said second predetermined operating condition having a second predetermined fluid level requirement which is different from said first predetermined fluid level requirement. (a) providing a set of predetermined operating conditions, each predetermined operating condition having a corresponding predetermined fluid level requirement, (b) operating the vehicle at an actual operating condition, (c) determining a predetermined operating condition equivalent to the actual operating condition, (d) arranging the fluid level around the transmission gear to be equivalent to the predetermined fluid level requirement corresponding to said predetermined operating condition,
A kit for determining the concentration of glycated CD59 in a subject sample, said subject sample obtained from a pregnant subject, wherein said kit optionally comprises one or more internal controls and wherein said kit further comprises; a capture antibody capable of associating with a capture epitope on CD59, wherein said capture epitope does not comprise lysine residue number 41 as counted in SEQ ID NO: 1, a detection antibody capable of associating with a detection epitope on CD59, said detection epitope comprising glycated K41, a protein standard, and sodium borohydride in an organic solvent as reducing agent solution. a capture antibody capable of associating with a capture epitope on CD59, wherein said capture epitope does not comprise lysine residue number 41 as counted in SEQ ID NO: 1, a detection antibody capable of associating with a detection epitope on CD59, said detection epitope comprising glycated K41, a protein standard, and sodium borohydride in an organic solvent as reducing agent solution.
A combustor assembly lift system comprising: a track that extends in at least a longitudinal direction; a support arm moveably engaged with the track such that it can traverse along the track in at least the longitudinal direction; a lift arm connected to the support arm and moveably engaged with the track via the support arm such that it can traverse along the track in at least the longitudinal direction; and, a combustor assembly engagement frame connected to the lift arm, wherein the combustor assembly engagement frame is configured to temporarily secure to at least a portion of a combustor assembly wherein the lift arm is rotatably connected to the support arm, characterized in that the combustor assembly engagement frame comprises a cradle configuration adapted and configured to receive and support the combustor assembly, wherein the support arm rides along a rail on the track, extends in a direction away from the track, and is moveably engaged with the track via a rotatable connection such that the support arm can also rotate with respect to the track. a track that extends in at least a longitudinal direction; a support arm moveably engaged with the track such that it can traverse along the track in at least the longitudinal direction; a lift arm connected to the support arm and moveably engaged with the track via the support arm such that it can traverse along the track in at least the longitudinal direction; and, a combustor assembly engagement frame connected to the lift arm, wherein the combustor assembly engagement frame is configured to temporarily secure to at least a portion of a combustor assembly wherein the lift arm is rotatably connected to the support arm, the combustor assembly engagement frame comprises a cradle configuration adapted and configured to receive and support the combustor assembly, wherein the support arm rides along a rail on the track, extends in a direction away from the track, and is moveably engaged with the track via a rotatable connection such that the support arm can also rotate with respect to the track.
A microfluidic fluid control apparatus comprising: a spacer and valve layer comprising a multi-level molded elastomeric valve, the valve including: a flexible membrane having a flexible membrane thickness, a base surrounding the flexible membrane, the base having a base thickness, the base thickness being greater than the flexible membrane thickness, and a valve lip extending upward from the membrane above the base; the apparatus further comprising: a control layer the control layer being more rigid than the flexible membrane; a fluid layer disposed adjacent to the flexible membrane, the fluid layer being more rigid than the flexible membrane and the spacer and valve layer being located in between the control layer and the fluid layer, the fluid layer having a first fluid access hole and a second fluid access hole and the control layer comprising a control channel for applying a pressure to actuate the valve such that by supplying the pressure the flexible membrane forms a seal with the fluid access holes and by reducing the pressure the seal between the flexible membrane and the fluid access holes is released so that the flexible membrane allows fluid to pass between the first fluid access hole and the second fluid access hole. a spacer and valve layer comprising a multi-level molded elastomeric valve, the valve including: a flexible membrane having a flexible membrane thickness, a base surrounding the flexible membrane, the base having a base thickness, the base thickness being greater than the flexible membrane thickness, and a valve lip extending upward from the membrane above the base; the apparatus further comprising: a flexible membrane having a flexible membrane thickness, a base surrounding the flexible membrane, the base having a base thickness, the base thickness being greater than the flexible membrane thickness, and a valve lip extending upward from the membrane above the base; the apparatus further comprising: a control layer the control layer being more rigid than the flexible membrane; a fluid layer disposed adjacent to the flexible membrane, the fluid layer being more rigid than the flexible membrane and the spacer and valve layer being located in between the control layer and the fluid layer,
A method of enabling multiple different operating systems to run concurrently on the same computer, comprising: selecting a first operating system to have a high priority; selecting at least one second operating system to have a lower priority than the first operating system; and providing a common program arranged to be invoked by and to pre-empt said operating systems, to schedule the operation of, switch between and control said first and second operating systems; wherein the first and second operating systems are executed in first and second memory contexts, respectively; wherein the common program is executed in one of said first or a third memory context; and wherein the method comprises: when invoking the common program by the first operating system, starting execution of the common program without switching the memory context from the first memory context; when pre-empting the first operating system by the common program, the common program is executed in the first memory context; when invoking the common program by the second operating system, starting execution of the common program while switching to the third memory context; and when pre-empting the second operating system by the common program, the common program is executed in the third memory context. selecting a first operating system to have a high priority; selecting at least one second operating system to have a lower priority than the first operating system; and providing a common program arranged to be invoked by and to pre-empt said operating systems, to schedule the operation of, switch between and control said first and second operating systems; wherein the first and second operating systems are executed in first and second memory contexts, respectively; wherein the common program is executed in one of said first or a third memory context; and wherein the method comprises: when invoking the common program by the first operating system, starting execution of the common program without switching the memory context from the first memory context; when pre-empting the first operating system by the common program, the common program is executed in the first memory context; when invoking the common program by the second operating system, starting execution of the common program while switching to the third memory context; and when pre-empting the second operating system by the common program, the common program is executed in the third memory context. when invoking the common program by the first operating system, starting execution of the common program without switching the memory context from the first memory context; when pre-empting the first operating system by the common program, the common program is executed in the first memory context; when invoking the common program by the second operating system, starting execution of the common program while switching to the third memory context; and when pre-empting the second operating system by the common program, the common program is executed in the third memory context.
A fastening device for luminaires consisting of - a support body, which can be attached to or in a ceiling, a wall or a floor, - a plurality of luminaires fixedly mounted to the support body in the form of individual LEDs and/or in the form of a planar board having a plurality of luminaires, - electrical wires connected to the respective luminaire and an electrical energy source, - and consisting of a cap-like diffusor covering the luminaires and/or the board, - an insert element provided in the respective light path of the luminaires, wherein the respective insert element is held in a centred manner by the diffusor, - and of a reflector provided to or inserted into the support body, to which the board and/or the luminaires are fixedly mounted, wherein the reflector is mechanically coupled with the diffusor, characterised in that the reflector is fixedly mounted to the diffusor by means of one or more retaining clips, which are provided to the support body and connected therewith in a sectionwise manner. - a support body, which can be attached to or in a ceiling, a wall or a floor, - a plurality of luminaires fixedly mounted to the support body in the form of individual LEDs and/or in the form of a planar board having a plurality of luminaires, - electrical wires connected to the respective luminaire and an electrical energy source, - and consisting of a cap-like diffusor covering the luminaires and/or the board, - an insert element provided in the respective light path of the luminaires, wherein the respective insert element is held in a centred manner by the diffusor, - and of a reflector provided to or inserted into the support body, to which the board and/or the luminaires are fixedly mounted, wherein the reflector is mechanically coupled with the diffusor,
A method of forming an electrode structure, comprising: mixing a first conductive material with a first binder and coating the mixture on a substrate to form a first conductive layer; drying the mixture of the first conductive material and the binder; mixing a second conductive material with a second binder and coating the mixture on the first conductive layer to form a second conductive layer; drying the mixture of the second conductive material and the second binder; wherein one of the first conductive material and the second conductive material comprises a plurality of silver nanowires, and the other of the first conductive material and the second conductive material comprises RuO 2; and the conductive layer comprising silver nanowires has a thickness of 40 nm, and the other conductive layer, which comprises RuO 2, has a thickness of equal to or less than 10 nm. mixing a first conductive material with a first binder and coating the mixture on a substrate to form a first conductive layer; drying the mixture of the first conductive material and the binder; mixing a second conductive material with a second binder and coating the mixture on the first conductive layer to form a second conductive layer; drying the mixture of the second conductive material and the second binder; wherein one of the first conductive material and the second conductive material comprises a plurality of silver nanowires, and the other of the first conductive material and the second conductive material comprises RuO 2; and the conductive layer comprising silver nanowires has a thickness of 40 nm, and the other conductive layer, which comprises RuO 2, has a thickness of equal to or less than 10 nm.
A device for field weakening control of a compressor, comprising the compressor and a main circuit unit providing power for the compressor, wherein the device further characterized by: a compressor rotational speed obtaining unit used to obtain a current of the compressor, and calculate a rotational speed ω of the compressor; and a control unit used to compare the rotational speed ω of the compressor with a rotational speed threshold ω1 of the compressor, and control the main circuit unit as follows according to comparison results: when the rotational speed ω of the compressor is less than ω1, an output voltage of the main circuit unit is controlled at a fixed value V0; and when the rotational speed ω of the compressor is greater than or equal to ω1, the compressor is controlled not to enter the field weakening control temporarily and the output voltage of the main circuit unit is controlled to rise, and the compressor is controlled to enter the field weakening control when the output voltage of the main circuit unit is unable to continue to rise. a compressor rotational speed obtaining unit used to obtain a current of the compressor, and calculate a rotational speed ω of the compressor; and a control unit used to compare the rotational speed ω of the compressor with a rotational speed threshold ω1 of the compressor, and control the main circuit unit as follows according to comparison results: when the rotational speed ω of the compressor is less than ω1, an output voltage of the main circuit unit is controlled at a fixed value V0; and when the rotational speed ω of the compressor is greater than or equal to ω1, the compressor is controlled not to enter the field weakening control temporarily and the output voltage of the main circuit unit is controlled to rise, and the compressor is controlled to enter the field weakening control when the output voltage of the main circuit unit is unable to continue to rise.
A fluid sensor comprising: a core defining a fluid flow path; and a cavity member located externally of the core and comprising an electrically-conductive composite material including a matrix and one or more reinforcing elements embedded within the matrix, wherein the matrix comprises a polyether ether ketone (PEEK), wherein the cavity member is configured so as to provide confinement for an electromagnetic field and defines a resonant cavity for the electromagnetic field which extends through the core and at least partially into the fluid flow path defined by the core, and wherein the core is configured so as to permit transmission therethrough of electromagnetic radiation at a frequency of the electromagnetic field, wherein the cavity member comprises a first layer which comprises an electrically-conductive composite material, wherein the cavity member comprises a second layer which is configured to withstand at least one of a predetermined pressure, a predetermined force, a predetermined axial tension, a predetermined axial compression, and/or a predetermined bending stress, wherein the second layer is located externally of the first layer, wherein the second layer comprises a material which has the same composition as the electrically-conductive composite material of the first layer and wherein the reinforcing elements of the first layer are formed along a first helical trajectory and the reinforcing elements of the second layer are formed along a second helical trajectory different from the first helical trajectory. a core defining a fluid flow path; and a cavity member located externally of the core and comprising an electrically-conductive composite material including a matrix and one or more reinforcing elements embedded within the matrix, wherein the matrix comprises a polyether ether ketone (PEEK), wherein the cavity member is configured so as to provide confinement for an electromagnetic field and defines a resonant cavity for the electromagnetic field which extends through the core and at least partially into the fluid flow path defined by the core, and wherein the core is configured so as to permit transmission therethrough of electromagnetic radiation at a frequency of the electromagnetic field, wherein the cavity member comprises a first layer which comprises an electrically-conductive composite material, wherein the cavity member comprises a second layer which is configured to withstand at least one of a predetermined pressure, a predetermined force, a predetermined axial tension, a predetermined axial compression, and/or a predetermined bending stress, wherein the second layer is located externally of the first layer, wherein the second layer comprises a material which has the same composition as the electrically-conductive composite material of the first layer and wherein the reinforcing elements of the first layer are formed along a first helical trajectory and the reinforcing elements of the second layer are formed along a second helical trajectory different from the first helical trajectory.
Use of an aqueous solution composition for forming a water-insoluble chitosan coating, said aqueous solution composition comprising: at least one chitosan, which is at least one of deacetylated chitin or deacetylated chitin derivatives, and glyoxylic acid, wherein the concentration of said chitosan in the composition is from 0.1 to 30 wt %, wherein a content of said glyoxylic acid is from 0.1 to 3 times by weight that of said chitosan, and wherein the chitosan and glyoxylic acid are dissolved in an aqueous medium of the solution composition. wherein the concentration of said chitosan in the composition is from 0.1 to 30 wt %, wherein a content of said glyoxylic acid is from 0.1 to 3 times by weight that of said chitosan, and wherein the chitosan and glyoxylic acid are dissolved in an aqueous medium of the solution composition.
A method of producing synthetic keyhole limpet hemocyanin comprising the steps of a) dissociating native KLH to obtain sub-units, by applying a pH between 8 and 10, b) nanofiltrating the sub-units obtained in step a) using filters with a pore size between 15 and 35 nm; and c) re-associating the sub-units obtained after nanofiltering by applying a pH between 6 and 9 to obtain the synthetic KLH. a) dissociating native KLH to obtain sub-units, by applying a pH between 8 and 10, b) nanofiltrating the sub-units obtained in step a) using filters with a pore size between 15 and 35 nm; and c) re-associating the sub-units obtained after nanofiltering by applying a pH between 6 and 9 to obtain the synthetic KLH.
A resonator assembly, comprising: a resonator (10; 10B; 10B'; 10C') having a first conductive resonance post surrounded by a conductive enclosure defining a cavity, said first conductive resonance post being operable to filter a signal within a first frequency band, and a second conductive resonance post (60; 60A) located within said cavity and orientated transversely with respect to said first conductive resonance post, characterised by said second conductive resonance post being operable to filter a signal within a second frequency band concurrently with said first conductive resonance post filtering said signal within said first frequency band, wherein harmonics of said frequencies within said first frequency band fail to coincide with said frequencies within said second frequency band.
A method of manufacturing β-SiAlON represented by a general formula Si 6-z Al z O z N 8-z: Eu, comprising a baking step for baking a powdered material, wherein, the powdered material contains Al content from 0.3 to 1.2 mass%, O content from 0.15 to 1 mass%, O/Al molar ratio from 0.9 to 1.3, Si content from 58 to 60 mass%, N content from 37 to 40 mass%, N/Si molar ratio from 1.25 to 1.45, and Eu content from 0.3 to 0.7 mass%; the powdered material is baked in the baking step in a nitrogen atmosphere at temperatures from 1850°C to 2050°C; and 0.280 ≤ x ≤ 0.340 and 0.630 ≤ y ≤ 0.675 are satisfied on a CIExy chromaticity coordinate by the manufactured β-SiAlON.