mhurhangee/patent-ind-claim-en huggingface dataset:
A non-therapeutic method for reducing total gas production and/or methane production in a ruminant animal comprising an effective amount of at least one species of red marine macroalgae to be administered to said ruminant animal, wherein said species of red marine macroalgae is an Asparagopsis species.
A microfluidic diagnostic chip, comprising: a number of microfluidic channels defined in a substrate, each microfluidic channel fluidly coupled to at least one fluidic slot ; the at least one fluidic slot to receive a number of fluids; a number of gold sensors , each gold sensor having a thickness of between 150 and 500 nanometers (1500 and 5000 angstroms); a layer of tantalum deposited over a portion of the substrate, the gold sensors being formed by a layer of gold deposited on a portion of the tantalum; and a layer of silicon carbide selectively deposited on top of the tantalum layer and layer of gold forming the gold sensors , the layer of silicon carbide covering all exposed portions of the layer of tantalum and not covering completely the entirety of the layer of gold forming the gold sensors . a number of microfluidic channels defined in a substrate, each microfluidic channel fluidly coupled to at least one fluidic slot ; the at least one fluidic slot to receive a number of fluids; a number of gold sensors , each gold sensor having a thickness of between 150 and 500 nanometers (1500 and 5000 angstroms); a layer of tantalum deposited over a portion of the substrate, the gold sensors being formed by a layer of gold deposited on a portion of the tantalum; and a layer of silicon carbide selectively deposited on top of the tantalum layer and layer of gold forming the gold sensors , the layer of silicon carbide covering all exposed portions of the layer of tantalum and not covering completely the entirety of the layer of gold forming the gold sensors .
An apparatus for the production and separation of gases, by electrolysis of an electrolytic solution, the apparatus comprising: - an inlet chamber comprising an inner and outer region - first and second permeable electrodes each having first and second sides in the form of a continuous band and defining an inner aperture surrounding the inner region, the first sides of the first and second electrodes arranged to face each other to define an electrode gap within the inlet chamber - a first electrolytic solution inlet into the outer region and a second electrolytic solution inlet into the inner region; - a first outlet in fluid flow communication with the second side of the first electrode, and a second outlet in fluid flow communication with the second side of the second electrode, so that, in use, a first peripheral flow of electrolytic solution ensues from the outer region into the electrode gap, and a second peripheral flow of electrolytic solution ensues from the inner region into the electrode gap, thereby immersing the electrodes in electrolytic solution, so that operatively, first and second constituent gases form on the first and second electrodes respectively, and wherein, in use, electrolytic solution within the electrode gap diverges into first and second outlet streams that pass through the first and second electrodes respectively, thereby removing at least a portion of the first and second constituent gases from the first and second electrodes into the first and second outlets respectively. - an inlet chamber comprising an inner and outer region - first and second permeable electrodes each having first and second sides in the form of a continuous band and defining an inner aperture surrounding the inner region, the first sides of the first and second electrodes arranged to face each other to define an electrode gap within the inlet chamber - a first electrolytic solution inlet into the outer region and a second electrolytic solution inlet into the inner region; - a first outlet in fluid flow communication with the second side of the first electrode, and a second outlet in fluid flow communication with the second side of the second electrode, so that, in use, a first peripheral flow of electrolytic solution ensues from the outer region into the electrode gap, and a second peripheral flow of electrolytic solution ensues from the inner region into the electrode gap, thereby immersing the electrodes in electrolytic solution, so that operatively, first and second constituent gases form on the first and second electrodes respectively, and wherein, in use, electrolytic solution within the electrode gap diverges into first and second outlet streams that pass through the first and second electrodes respectively, thereby removing at least a portion of the first and second constituent gases from the first and second electrodes into the first and second outlets respectively.
Electromagnetic coil arrangement for an electromagnetic stirrer roller of a continuous casting plant comprising an iron core with an iron core cross section and a first longitudinal extent (L1), and at least two coil winding assemblies , two fastening stubs , at least two electrical connection contacts , which are connected in each case to at least one coil winding assembly , wherein - the at least two coil winding assemblies enclose the iron core , in partial regions along the first longitudinal extent (L1), - wherein the coil winding assemblies consist of a maximum of two layers lying one on top of the other, preferably only of one layer , and also a multiplicity of turns lying next to one another, - wherein the coil winding assemblies are designed in such a way that, for assembly, they can be pushed on from an end face of the iron core up to an intended assembly position, - wherein the individual turns are coated with an insulating material, - wherein a protective layer encloses the coil winding assemblies , - wherein the fastening stubs are arranged on the iron core in each case at the end faces. - the at least two coil winding assemblies enclose the iron core , in partial regions along the first longitudinal extent (L1), - wherein the coil winding assemblies consist of a maximum of two layers lying one on top of the other, preferably only of one layer , and also a multiplicity of turns lying next to one another, - wherein the coil winding assemblies are designed in such a way that, for assembly, they can be pushed on from an end face of the iron core up to an intended assembly position, - wherein the individual turns are coated with an insulating material, - wherein a protective layer encloses the coil winding assemblies , - wherein the fastening stubs are arranged on the iron core in each case at the end faces.
A composition suitable for wound closure applications, comprising: a cross-linkable silicone polymer having reactive functionalities; a silica-containing composition; a silicone cross-linking agent; and, a catalyst, wherein said catalyst comprises a platinum tetramethyldivinyl disiloxane diethyl maleate complex having the formula: Pt[(CH 2 = CH)(CH 3 ) 2 Si] 2 O·(COCH = CHCO)(C 2 H 5 O) 2 . a cross-linkable silicone polymer having reactive functionalities; a silica-containing composition; a silicone cross-linking agent; and, a catalyst, wherein said catalyst comprises a platinum tetramethyldivinyl disiloxane diethyl maleate complex having the formula: Pt[(CH 2 = CH)(CH 3 ) 2 Si] 2 O·(COCH = CHCO)(C 2 H 5 O) 2 . Pt[(CH 2 = CH)(CH 3 ) 2 Si] 2 O·(COCH = CHCO)(C 2 H 5 O) 2 .
Meter for detecting and initiating indication of doses of radiation , including radiation dose receiving means and function handling means for storing and displaying received radiations/radiation doses, said means being operable by means of one or several power sources , said function handling means include one or several preferably continuously connected first components requiring power and being activated when receiving radiation having an intensity, the function handling means further comprises one or several temporarily connectable second components , requiring increased or increasing electrical power in relation to the power required by the first components , including a current/voltage amplifier , and being activated when receiving increased or higher radiation intensities in relation to the radiation intensity which activates the first components , one or several third components , controlling the temporary connection and disconnection of the second component or components when the increasing or higher radiation intensities are starting and ending, respectively, the function handling means includes/include sensor arrangements (13a, 17; 13b, 18; 13c, 19), sampling means and memory means, characterized in that the radiation indication means is a piezoelectric means , wherein said means includes a buzzer, which inversely functions as a push button by means of generating a an electric signal, being perceivable as a key stroke, when it is subjected to a mechanical impact.
Adapter comprising - an adapter housing , - a first plug which is arranged at the adapter housing in a spatially fixed way and which is configured for being plugged into a first trailer socket, - a second trailer socket which is arranged at the adapter housing in a spatially fixed way and which is configured for plugging-in a second plug, and - a voltage converter which is arranged within the adapter housing and which is connected between the first plug and the second trailer socket , - wherein the first plug is a 12 V plug and the second trailer socket is a 24 V trailer socket , or the first plug is a 24 V plug and the second trailer socket is a 12 V trailer socket, and - wherein the voltage converter comprises a plurality of channels each comprising a switch , characterized in - that the voltage converter comprises a plurality of channels each comprising a DC/DC converter including the respective switch, wherein the DC/DC converter is a boost converter , if the first plug is a 12 V plug and the second trailer socket is a 24 V trailer socket , and is a buck converter , if the first plug is a 24 V plug and the second trailer socket is a 12 V trailer socket, and - that the components of each of the DC/DC converters are arranged on a separate circuit board . - an adapter housing , - a first plug which is arranged at the adapter housing in a spatially fixed way and which is configured for being plugged into a first trailer socket, - a second trailer socket which is arranged at the adapter housing in a spatially fixed way and which is configured for plugging-in a second plug, and - a voltage converter which is arranged within the adapter housing and which is connected between the first plug and the second trailer socket , - wherein the first plug is a 12 V plug and the second trailer socket is a 24 V trailer socket , or the first plug is a 24 V plug and the second trailer socket is a 12 V trailer socket, and - wherein the voltage converter comprises a plurality of channels each comprising a switch , characterized in - that the voltage converter comprises a plurality of channels each comprising a DC/DC converter including the respective switch, wherein the DC/DC converter is a boost converter , if the first plug is a 12 V plug and the second trailer socket is a 24 V trailer socket , and is a buck converter , if the first plug is a 24 V plug and the second trailer socket is a 12 V trailer socket, and - that the components of each of the DC/DC converters are arranged on a separate circuit board .
An unbalance detection device for detecting unbalance of a rotor of a turbo-cartridge which includes the rotor including a turbine wheel (Wt) and a compressor wheel (Wc) coupled via a rotational shaft (M) and a bearing housing accommodating a bearing which supports the rotor rotatably, the unbalance detection device comprising: a turbine-side housing member accommodating the turbine wheel (Wt); a compressor-side housing member accommodating the compressor wheel (Wc); a support mechanism configured to nip and support the turbo-cartridge from both sides by pressing at least one of the turbine-side housing member or the compressor-side housing member toward the turbo-cartridge ; a vibration insulator interposed in each of a gap between the turbine-side housing member and the turbo-cartridge and a gap between the compressor-side housing member and the turbo-cartridge ; characterized in a vibration sensor installed so as to be contactable with the bearing housing , the vibration sensor being capable of detecting vibration upon rotation of the rotor ; and a biasing member configured to bias the vibration sensor toward the bearing housing ; and an oil supply pipe for supplying lubricant oil into the bearing housing , the oil supply pipe being configured to be capable of connecting to and separating from an oil supply port formed on the bearing housing , wherein the biasing member is installed on the oil supply pipe so that the vibration sensor is biased toward the bearing housing in a state where the oil supply pipe is connected to the oil supply port formed on the bearing housing . a turbine-side housing member accommodating the turbine wheel (Wt); a compressor-side housing member accommodating the compressor wheel (Wc); a support mechanism configured to nip and support the turbo-cartridge from both sides by pressing at least one of the turbine-side housing member or the compressor-side housing member toward the turbo-cartridge ; a vibration insulator interposed in each of a gap between the turbine-side housing member and the turbo-cartridge and a gap between the compressor-side housing member and the turbo-cartridge ; characterized in a vibration sensor installed so as to be contactable with the bearing housing , the vibration sensor being capable of detecting vibration upon rotation of the rotor ; and a biasing member configured to bias the vibration sensor toward the bearing housing ; and an oil supply pipe for supplying lubricant oil into the bearing housing , the oil supply pipe being configured to be capable of connecting to and separating from an oil supply port formed on the bearing housing , wherein the biasing member is installed on the oil supply pipe so that the vibration sensor is biased toward the bearing housing in a state where the oil supply pipe is connected to the oil supply port formed on the bearing housing .
An acoustic resonator with a reinforcing structure, comprising: a substrate ; and a resonant functional layer formed above the substrate , the resonant functional layer comprising: a lower electrode , wherein a cavity is formed between the lower electrode and the substrate ; an upper electrode , arranged above the lower electrode ; and a piezoelectric layer , arranged between the lower electrode and the upper electrode , wherein an opening passing through the piezoelectric layer is formed in a peripheral area of the piezoelectric layer , and part of the opening is in communication with the cavity ; wherein the reinforcing structure comprises a reinforcing layer , and part of the reinforcing layer is formed on an upper surface and a side surface of the piezoelectric layer at an edge of the opening and is in contact with the edge of the opening to reinforce the resonant functional layer near the edge of the opening ; and wherein an edge of the lower electrode is exposed in the opening , and the reinforcing layer is in contact with part of the lower electrode exposed in the opening. a substrate ; and a resonant functional layer formed above the substrate , the resonant functional layer comprising: a lower electrode , wherein a cavity is formed between the lower electrode and the substrate ; an upper electrode , arranged above the lower electrode ; and a piezoelectric layer , arranged between the lower electrode and the upper electrode , wherein an opening passing through the piezoelectric layer is formed in a peripheral area of the piezoelectric layer , and part of the opening is in communication with the cavity ; a lower electrode , wherein a cavity is formed between the lower electrode and the substrate ; an upper electrode , arranged above the lower electrode ; and a piezoelectric layer , arranged between the lower electrode and the upper electrode , wherein an opening passing through the piezoelectric layer is formed in a peripheral area of the piezoelectric layer , and part of the opening is in communication with the cavity ; wherein the reinforcing structure comprises a reinforcing layer , and part of the reinforcing layer is formed on an upper surface and a side surface of the piezoelectric layer at an edge of the opening and is in contact with the edge of the opening to reinforce the resonant functional layer near the edge of the opening ; and wherein an edge of the lower electrode is exposed in the opening , and the reinforcing layer is in contact with part of the lower electrode exposed in the opening.
An inverter for converting DC to AC, comprising: one or more inputs for receiving one or more DC voltages; one or more outputs for outputting one or more AC voltages; a plurality of semiconductor arrangement modules , each module having one or more semiconductor devices thermally and electrically coupled to a heatsink , the heatsink being configured as a bus bar to electrically connect the one or more semiconductor devices together to transmit power between the one or more semiconductor devices and the heatsink comprising one or more heat exchanging elements to transfer the heat from the heatsink into the surrounding environment, the plurality of semiconductor arrangement modules being coupled to the one or more inputs and one or more outputs , and the semiconductor arrangement modules being mounted to a Printed Circuit Board (PCB) , the PCB providing electrical connections between the semiconductor devices , the one or more inputs and the one or more outputs ; and. a housing for housing the plurality of semiconductor arrangement modules in a chamber within the housing, the housing comprising inlet and outlet ports in fluid communication with the chamber respectively for receiving and outputting a dielectric cooling medium, wherein the chamber is flooded with the flowing cooling medium to cool the inverter, wherein the PCB and additional electrical and electronic components mounted on the PCB are located within the chamber and immersed in the flowing cooling medium. one or more inputs for receiving one or more DC voltages; one or more outputs for outputting one or more AC voltages; a plurality of semiconductor arrangement modules , each module having one or more semiconductor devices thermally and electrically coupled to a heatsink , the heatsink being configured as a bus bar to electrically connect the one or more semiconductor devices together to transmit power between the one or more semiconductor devices and the heatsink comprising one or more heat exchanging elements to transfer the heat from the heatsink into the surrounding environment, the plurality of semiconductor arrangement modules being coupled to the one or more inputs and one or more outputs , and the semiconductor arrangement modules being mounted to a Printed Circuit Board (PCB) , the PCB providing electrical connections between the semiconductor devices , the one or more inputs and the one or more outputs ; and. a housing for housing the plurality of semiconductor arrangement modules in a chamber within the housing, the housing comprising inlet and outlet ports in fluid communication with the chamber respectively for receiving and outputting a dielectric cooling medium, wherein the chamber is flooded with the flowing cooling medium to cool the inverter,
Use of a substance mixture containing (a) one, two or more monoterpenes selected from the group formed by linalool, geraniol, freesiol and nerolidol, (b) at least two lactones selected from the group formed by gamma-dodecalactone, gamma-decalactone, delta-decalactone and delta -dodeca lactone; (c1) ethanol; and (c2) one, two or more solvents selected from the group formed by dipropylene glycol, diethyl phthalate, propylene glycol, isopropyl myristate, isopropyl palmitate, triethyl citrate, triacetin, 1,2-propanediol, 1,3-propanediol, propanetriol, pentanediol, hexanediol, octanediol, decanediol, dodecanol, 4-hydroxyacetophenone, and benzyl benzoate for the reduction and/or masking of undesired off-notes in oleochemical preparations, wherein the undesired off-notes in the oleochemical preparations are caused by (i) aldehydes of formula (III) where R6 is a saturated or unsaturated, linear hydrocarbon radical having 3 to 10 carbon atoms, and/or (ii) free fatty acids of formula (IV) where R7 is a linear or branched, saturated hydrocarbon radical having 3 to 12 carbon atoms. (a) one, two or more monoterpenes selected from the group formed by linalool, geraniol, freesiol and nerolidol, (b) at least two lactones selected from the group formed by gamma-dodecalactone, gamma-decalactone, delta-decalactone and delta -dodeca lactone; (c1) ethanol; and (c2) one, two or more solvents selected from the group formed by dipropylene glycol, diethyl phthalate, propylene glycol, isopropyl myristate, isopropyl palmitate, triethyl citrate, triacetin, 1,2-propanediol, 1,3-propanediol, propanetriol, pentanediol, hexanediol, octanediol, decanediol, dodecanol, 4-hydroxyacetophenone, and benzyl benzoate (i) aldehydes of formula (III) where R6 is a saturated or unsaturated, linear hydrocarbon radical having 3 to 10 carbon atoms, and/or (ii) free fatty acids of formula (IV) where R7 is a linear or branched, saturated hydrocarbon radical having 3 to 12 carbon atoms.
Transport device , particularly for the transport of cooling blocks in a caterpillar casting machine , wherein the transport device comprises: a guide rail which forms an endless circulation track (U) for a caterpillar casting machine and a support element with a plurality of rollers , by means of which the support element is guided at the guide rail and rolls thereon, wherein a cooling block of a caterpillar casting machine can be mounted on the support element , characterised in that the guide rail has a first guide surface (16.1) and a second guide surface (16.2), wherein the guide surfaces (16.1, 16.2) are provided at mutually opposite sides of the guide rail and the support element comprises at least three rollers (20.1, 20.2, 20.3), of which two rollers (20.1, 20.2) are in rolling contact with the first guide surface (16.1) of the guide rail and at least one further roller (20.3) is in rolling contact with the second guide surface (16.2) of the guide rail , wherein at least one roller (20.1; 20.2; 20.3) is acted on by a bias in the direction of the guide rail . a guide rail which forms an endless circulation track (U) for a caterpillar casting machine and a support element with a plurality of rollers , by means of which the support element is guided at the guide rail and rolls thereon, wherein a cooling block of a caterpillar casting machine can be mounted on the support element , characterised in that the guide rail has a first guide surface (16.1) and a second guide surface (16.2), wherein the guide surfaces (16.1, 16.2) are provided at mutually opposite sides of the guide rail and the support element comprises at least three rollers (20.1, 20.2, 20.3), of which two rollers (20.1, 20.2) are in rolling contact with the first guide surface (16.1) of the guide rail and at least one further roller (20.3) is in rolling contact with the second guide surface (16.2) of the guide rail , wherein at least one roller (20.1; 20.2; 20.3) is acted on by a bias in the direction of the guide rail .