mhurhangee/ep-ind-claims huggingface dataset:
A prebiotic composition comprising a galacto oligosaccharide produced from one or more Propionibacterium bacterial strains, wherein the GOS acts as a selective growth medium for Propionibacterium bacterial strains, and wherein the GOS is substantially the same as the form produced by reverse β-galactosidase reaction for Propionibacterium bacterial strains.
A liquid herbicidal composition comprising: a non-aqueous solvent system; at least one sulfonylurea herbicide selected from metsulfuron, or salts or esters thereof; and at least one inorganic salt selected from the metal carbonates and metal phosphates, wherein the inorganic salt comprises a metal selected from Li, Na, K, Ca, Mg or Al. a non-aqueous solvent system; at least one sulfonylurea herbicide selected from metsulfuron, or salts or esters thereof; and at least one inorganic salt selected from the metal carbonates and metal phosphates, wherein the inorganic salt comprises a metal selected from Li, Na, K, Ca, Mg or Al.
Alight source assembly, the light source assembly comprising: a laser light emitter in at least one color including an array of monochromatic laser devices; a first optical lens and a second optical lens arranged on a light path over which laser light emitted by the array of monochromatic laser devices is transmitted; and a first light guiding element and a second light guiding element arranged on said light path, wherein the first light guiding element is arranged between the array of monochromatic laser devices and the first optical lens, and the second light guiding element is arranged between the first optical lens and the second optical lens; wherein each of said first light guiding element and said second light guiding element is configured to be driven to be moved to guide the laser light to be incident on the first optical lens and the second optical lens, respectively, at a different position or in a changed direction, so as to slow down the aging of the respective optical lens. a laser light emitter in at least one color including an array of monochromatic laser devices; a first optical lens and a second optical lens arranged on a light path over which laser light emitted by the array of monochromatic laser devices is transmitted; and a first light guiding element and a second light guiding element arranged on said light path, wherein the first light guiding element is arranged between the array of monochromatic laser devices and the first optical lens, and the second light guiding element is arranged between the first optical lens and the second optical lens; wherein each of said first light guiding element and said second light guiding element is configured to be driven to be moved to guide the laser light to be incident on the first optical lens and the second optical lens, respectively, at a different position or in a changed direction, so as to slow down the aging of the respective optical lens.
A pharmaceutical composition comprising from 5% to 80% by weight of a c-Met kinase inhibitor, 5% to 80% by weight of an acidulant, 0% to 90% by weight of a diluent, 0 to 15% by weight of a disintegrant and from 0 to 5.0% by weight of a lubricant, wherein the c-Met kinase inhibitor is 1-[3-(1-Methyl-1 H -pyrazol-4-yl)-5-oxo-5 H -benzo[4,5]cyclohepta[1,2-b]pyridin-7-yl]- N -(pyridin-2-ylmethyl)methanesulfonamide or a pharmaceutically acceptable salt thereof, wherein the acidulant is selected from the group consisting of acetic, adipic, benzenesulphonic, benzoic, caprylic, cinnamic, citric, ethanedisulphonic, tartaric, ascorbic, maleic, glutamic, lactic, oxalic, L-Aspartic, 2 ―hydroxyethanesulfonic, pamoic, malonic, gentisic, salicylic, fumaric, glucoheptoic, gluconic, glucuronic, hippuric, lactobionic, laurylsulfuric, malic, malonic, mandelic, methanesulphonic, propionic, stearic, toluenesulphonic, undecylenic, camphorsulfonic and oleic acid.
Winding machine comprising • a receiving element for receiving a base body comprising teeth onto which the winding is to be wound, • a nail winding head through which a wire can be guided in parallel to a surface of each tooth through the base body in order to place the wire inside a groove between two teeth of the base body, so that a wire can be wound around a tooth to be wound, • wherein the nail winding head has a nail support at which a needle-shaped nozzle is attached, via which a wire to be wound can be output, • wherein the nozzle can be arranged transversally inside the groove, so that a distance of the nozzle to the tooth to be wound is smaller than to an adjacent tooth that delimits the groove, • characterized by at least two pin-shaped retaining fingers, • wherein the retaining fingers can be moved relative to the receiving element in three independent spatial directions (200, 300, 400), • respectively one retaining finger can be arranged on respectively one front side (12, 13) of the base body, • wherein the wire can be positioned inside the groove independently of the nail winding head by the retaining finger to determine a target location of the wire inside the groove, and • wherein the retaining fingers are mechanically coupled such that the retaining fingers are fixedly attached to each other and not movable with respect to each other. • a receiving element for receiving a base body comprising teeth onto which the winding is to be wound, • a nail winding head through which a wire can be guided in parallel to a surface of each tooth through the base body in order to place the wire inside a groove between two teeth of the base body, so that a wire can be wound around a tooth to be wound, • wherein the nail winding head has a nail support at which a needle-shaped nozzle is attached, via which a wire to be wound can be output, • wherein the nozzle can be arranged transversally inside the groove, so that a distance of the nozzle to the tooth to be wound is smaller than to an adjacent tooth that delimits the groove, • characterized by at least two pin-shaped retaining fingers, • wherein the retaining fingers can be moved relative to the receiving element in three independent spatial directions (200, 300, 400), • respectively one retaining finger can be arranged on respectively one front side (12, 13) of the base body, • wherein the wire can be positioned inside the groove independently of the nail winding head by the retaining finger to determine a target location of the wire inside the groove, and • wherein the retaining fingers are mechanically coupled such that the retaining fingers are fixedly attached to each other and not movable with respect to each other.
A fluid flow system comprising: an orifice providing a throat having a throat radius, the orifice including entrance and exit ramps (52, 54; 154) adjoining either side of the throat, the entrance ramp providing a smooth approach to the orifice throat, and the exit ramp (54; 154) including an exit ramp surface (58; 158) having a divergent angle of 20-60° and an exit ramp radius (60; 160) adjoining the exit ramp (54; 154) at a location near the throat, the exit ramp radius (60; 160) less than twice the throat radius; characterised by further comprising: a shut-off valve having open and closed positions; and a pump fluidly connected to the shut-off valve by a fluid passage and to the orifice, wherein the pump is configured to convey a fluid through the orifice in a first direction with the shut-off valve in the open position, the fluid flowing from the entrance ramp to the exit ramp (54; 154) in the first direction, and the pump is further configured to reverse the flow of fluid through the orifice to a second direction opposite the first direction with the shut-off valve in the closed position. an orifice providing a throat having a throat radius, the orifice including entrance and exit ramps (52, 54; 154) adjoining either side of the throat, the entrance ramp providing a smooth approach to the orifice throat, and the exit ramp (54; 154) including an exit ramp surface (58; 158) having a divergent angle of 20-60° and an exit ramp radius (60; 160) adjoining the exit ramp (54; 154) at a location near the throat, the exit ramp radius (60; 160) less than twice the throat radius; characterised by further comprising: a shut-off valve having open and closed positions; and a pump fluidly connected to the shut-off valve by a fluid passage and to the orifice, wherein the pump is configured to convey a fluid through the orifice in a first direction with the shut-off valve in the open position, the fluid flowing from the entrance ramp to the exit ramp (54; 154) in the first direction, and the pump is further configured to reverse the flow of fluid through the orifice to a second direction opposite the first direction with the shut-off valve in the closed position. a shut-off valve having open and closed positions; and a pump fluidly connected to the shut-off valve by a fluid passage and to the orifice, wherein the pump is configured to convey a fluid through the orifice in a first direction with the shut-off valve in the open position, the fluid flowing from the entrance ramp to the exit ramp (54; 154) in the first direction, and the pump is further configured to reverse the flow of fluid through the orifice to a second direction opposite the first direction with the shut-off valve in the closed position.
Use of a mixture capable of biocementation as a means for preventing or reducing plant growth, preferably weed growth, wherein the mixture comprises or consists of the following components: (i) one or more organisms and/or enzymes capable of forming carbonate and/or of inducing and/or catalyzing carbonate formation, (ii) one or more substances for the formation of carbonate, (iii) optionally: one or more cation sources, and (iv) optionally: one or more additives. (i) one or more organisms and/or enzymes capable of forming carbonate and/or of inducing and/or catalyzing carbonate formation, (ii) one or more substances for the formation of carbonate, (iii) optionally: one or more cation sources, and (iv) optionally: one or more additives.
An appliance (10, 26) for cleaning teeth, comprising: an appliance body; a system (20, 32) for producing a slurry of microbubbles (44, 58) and directing them to the region of the teeth (46, 59) to be cleaned; and a system (22, 34) for producing ultrasound signal beams (42, 52) with a frequency in the range of 100 KHz to 1 MHz, directed to and actuating the microbubbles (44, 58) for cleaning, wherein the system (22, 34) for producing the ultrasound signals (42, 52) includes (a) an array (24, 40, 50, 60) of transducer elements to produce the ultrasound signals (42, 52), the on/off status and the direction of the elements being under individual and/or group control for varying position and direction of the ultrasound signals (42, 52). an appliance body; a system (20, 32) for producing a slurry of microbubbles (44, 58) and directing them to the region of the teeth (46, 59) to be cleaned; and a system (22, 34) for producing ultrasound signal beams (42, 52) with a frequency in the range of 100 KHz to 1 MHz, directed to and actuating the microbubbles (44, 58) for cleaning, wherein the system (22, 34) for producing the ultrasound signals (42, 52) includes (a) an array (24, 40, 50, 60) of transducer elements to produce the ultrasound signals (42, 52), the on/off status and the direction of the elements being under individual and/or group control for varying position and direction of the ultrasound signals (42, 52). (a) an array (24, 40, 50, 60) of transducer elements to produce the ultrasound signals (42, 52), the on/off status and the direction of the elements being under individual and/or group control for varying position and direction of the ultrasound signals (42, 52).
An image cytometer, comprising: - a first light source (111,112a,112b;305,313;503;600;700,750) configured for emitting light into a sample region; - a second light source (112a, 112b;305;600;750) configured for emitting excitation light into the sample region; and - image forming means for forming an image of at least part of the sample region on an array of detection elements (131;509;711,721,731,741), wherein the second light source comprises - a first excitation light source (112a,112b;305;600;750) configured for emitting excitation light into the sample region, wherein the first excitation light source is a light emitting diode, LED, assembly; and - a thermally conducting material connected to first excitation light source (112a,112b;305;600;750) characterised in that the sample region is located between focusing means and an array of detection elements; and in that said image cytometer comprises active cooling means configured for cooling the first excitation light source; wherein the active cooling means is a heat pipe heat-transfer element and said thermally conducting material is connected to the active cooling means such that there is direct thermal connection between the first excitation light source and the active cooling means. - a first light source (111,112a,112b;305,313;503;600;700,750) configured for emitting light into a sample region; - a second light source (112a, 112b;305;600;750) configured for emitting excitation light into the sample region; and - image forming means for forming an image of at least part of the sample region on an array of detection elements (131;509;711,721,731,741), wherein the second light source comprises - a first excitation light source (112a,112b;305;600;750) configured for emitting excitation light into the sample region, wherein the first excitation light source is a light emitting diode, LED, assembly; and - a thermally conducting material connected to first excitation light source (112a,112b;305;600;750) characterised in that the sample region is located between focusing means and an array of detection elements; and in that said image cytometer comprises active cooling means configured for cooling the first excitation light source; wherein the active cooling means is a heat pipe heat-transfer element and said thermally conducting material is connected to the active cooling means such that there is direct thermal connection between the first excitation light source and the active cooling means.
Food slicing device for slicing food products, comprising: a pre-cooling device for cooling the food product before the slicing, and a cutting device with a cutting blade, characterised by a temperature registration device (12, 13, 14, 25, 26, 32, 33) for the measurement of the temperature of the food product, and a control unit that is designed to calculate, based on the temperature measured with the temperature registration device (12, 13, 14, 25, 26, 32, 33), an instruction for the operation of the pre-cooling device, wherein the pre-cooling device can be controlled depending on this instruction. a pre-cooling device for cooling the food product before the slicing, and a cutting device with a cutting blade, characterised by a temperature registration device (12, 13, 14, 25, 26, 32, 33) for the measurement of the temperature of the food product, and a control unit that is designed to calculate, based on the temperature measured with the temperature registration device (12, 13, 14, 25, 26, 32, 33), an instruction for the operation of the pre-cooling device, wherein the pre-cooling device can be controlled depending on this instruction.
A surface acoustic wave resonator device, comprising: a substrate supporting an electrically conducting layer; an interdigital transducer, or IDT; a reflector grating that comprises a plurality of electrically separated fingers (41,42); and, a main ohmic contact; wherein the IDT is configured so as to be connectable to a ground, the conducting layer is configured so as to be connectable to said ground via the main ohmic contact, while each of said fingers is electrically connected to a lateral side of the conducting layer; characterized in that the conducting layer is gateable and the device further comprises a gate element; the fingers and the conducting layer defining a gateable channel extending from said fingers to the ground via the conducting layer and the main ohmic contact, and the gate element is electrically insulated from the conducting layer and further configured to allow an electrical impedance of the gateable channel to be continuously tuned by applying a voltage bias to this gate element with respect to said ground, in operation of the device. the IDT is configured so as to be connectable to a ground, the conducting layer is configured so as to be connectable to said ground via the main ohmic contact, while each of said fingers is electrically connected to a lateral side of the conducting layer; characterized in that the conducting layer is gateable and the device further comprises a gate element; the fingers and the conducting layer defining a gateable channel extending from said fingers to the ground via the conducting layer and the main ohmic contact, and the gate element is electrically insulated from the conducting layer and further configured to allow an electrical impedance of the gateable channel to be continuously tuned by applying a voltage bias to this gate element with respect to said ground, in operation of the device.
An apparatus for determining a subject's respiratory phase while delivering ventilatory support comprising: a means for providing a controlled supply of breathable gas to a subject's airway; a means for generating a signal representative of patient respiratory air flow; and a means for controlling the supply of breathable gas delivered to the patient comprising: identifying a plurality of phase states of a respiration cycle; determining a measure of air flow from said air flow signal; calculating probabilities for said phase states based on the measure of air flow; determining a phase in the subject's respiratory cycle from the calculated probabilities of said phase states; and causing the delivery of a supply of breathable gas synchronized with the determined phase of the subject's respiratory cycle. a means for providing a controlled supply of breathable gas to a subject's airway; a means for generating a signal representative of patient respiratory air flow; and a means for controlling the supply of breathable gas delivered to the patient comprising: identifying a plurality of phase states of a respiration cycle; determining a measure of air flow from said air flow signal; calculating probabilities for said phase states based on the measure of air flow; determining a phase in the subject's respiratory cycle from the calculated probabilities of said phase states; and causing the delivery of a supply of breathable gas synchronized with the determined phase of the subject's respiratory cycle. identifying a plurality of phase states of a respiration cycle; determining a measure of air flow from said air flow signal; calculating probabilities for said phase states based on the measure of air flow; determining a phase in the subject's respiratory cycle from the calculated probabilities of said phase states; and causing the delivery of a supply of breathable gas synchronized with the determined phase of the subject's respiratory cycle.
A heat transfer system for a turbine engine, comprising: a cooling air duct connected between a compressor and at least one turbine stage of the turbine engine; and a first heat transfer unit coupled to the cooling air duct; a plurality of heat pipes (62a-e) having first ends coupled to the first heat transfer unit, wherein the heat pipes (62a-e) conduct heat away from a flow of air passing through the cooling air duct; a second heat transfer unit coupled to second ends of the heat pipes (62a-e), wherein a flow of coolant passes through the second heat transfer unit, and wherein heat from the flow of air passing through the cooling air duct which is transferred into the first ends of the heat pipes (62a-e) is removed from the second ends of the heat pipes (62a-e) by the flow of coolant passing through the heat transfer unit, characterized in that the first heat transfer unit includes a solid heat conducting material placed in the flow of air passing through the cooling air duct, the first ends of the plurality of heat pipes (62a-e) being embedded in the solid heat conducting material of the first heat transfer unit and the second heat transfer unit includes a solid heat conducting material placed in the flow of coolant, the second ends of the plurality of heat pipes (62a-e) being embedded in the solid heat conducting material of the second heat transfer unit. a cooling air duct connected between a compressor and at least one turbine stage of the turbine engine; and a first heat transfer unit coupled to the cooling air duct; a plurality of heat pipes (62a-e) having first ends coupled to the first heat transfer unit, wherein the heat pipes (62a-e) conduct heat away from a flow of air passing through the cooling air duct; a second heat transfer unit coupled to second ends of the heat pipes (62a-e), wherein a flow of coolant passes through the second heat transfer unit, and wherein heat from the flow of air passing through the cooling air duct which is transferred into the first ends of the heat pipes (62a-e) is removed from the second ends of the heat pipes (62a-e) by the flow of coolant passing through the heat transfer unit, characterized in that the first heat transfer unit includes a solid heat conducting material placed in the flow of air passing through the cooling air duct, the first ends of the plurality of heat pipes (62a-e) being embedded in the solid heat conducting material of the first heat transfer unit and the second heat transfer unit includes a solid heat conducting material placed in the flow of coolant, the second ends of the plurality of heat pipes (62a-e) being embedded in the solid heat conducting material of the second heat transfer unit.