mhurhangee/ep-ind-claims huggingface dataset:
An electric motor, especially for a fluid-handling system, having an external stator and an internal rotor mounted to rotate around an axis, comprising the following features: - the external stator comprises - a multiplicity of ferromagnetic pole pieces disposed around the axis and having winding cores extending substantially radially - an injection-molded plastic structure having winding supports enveloping the winding cores and a bushing, which is provided with a closed inside face extending radially inside the pole pieces, and - stator windings received on the winding supports; - the rotor is disposed inside the sleeve, - the plastic structure comprises a bushing, which in turn comprises the sleeve as well as an end piece closing this in the end region, wherein the rotor is mounted in a bearing disposed in the end piece - the stator is provided with an external body injection-molded from plastic, which is injection-molded in situ onto the plastic structure, and in which the plastic structure plus stator windings is embedded. - the external stator comprises - a multiplicity of ferromagnetic pole pieces disposed around the axis and having winding cores extending substantially radially - an injection-molded plastic structure having winding supports enveloping the winding cores and a bushing, which is provided with a closed inside face extending radially inside the pole pieces, and - stator windings received on the winding supports; - a multiplicity of ferromagnetic pole pieces disposed around the axis and having winding cores extending substantially radially - an injection-molded plastic structure having winding supports enveloping the winding cores and a bushing, which is provided with a closed inside face extending radially inside the pole pieces, and - stator windings received on the winding supports; - the rotor is disposed inside the sleeve, - the plastic structure comprises a bushing, which in turn comprises the sleeve as well as an end piece closing this in the end region, wherein the rotor is mounted in a bearing disposed in the end piece - the stator is provided with an external body injection-molded from plastic, which is injection-molded in situ onto the plastic structure, and in which the plastic structure plus stator windings is embedded.
A composition for enhancing transdermal absorption of a basic drug, comprising a polyvalent alcohol having 3 to 8 carbon atoms, an organic acid having 12 to 20 carbon atoms, and a higher alcohol having 12 to 20 carbon atoms, wherein the amount of the polyvalent alcohol is 80-98 parts by weight per 100 parts by weight of the total weight of the polyvalent alcohol, higher alcohol and organic acid, and the weight ratio of the higher alcohol and organic acid (higher alcohol:organic acid) in the remaining part is 0.01:99.99-99.99:0.01.
A differential pressure poppet valve comprising: a valve body, said valve body having at least one flow inlet and at least one flow outlet; at least one shutter guide disposed inside the valve body; at least one poppet shutter guided by the shutter guide; at least one flow passage from the flow inlet to the flow outlet, said flow passage being formed between an inside surface of the valve body and an outside surface of said shutter guide and of said poppet shutter; at least one biasing member configured to bias the poppet shutter towards a closed position against a valve closure seat so as to block the flow passage through the flow inlet; a first damper comprising a ring of shock-absorbing material configured and arranged to at least partly dissipate or absorb impact energy of the poppet shutter when said poppet shutter impacts against the closure seat to close the flow inlet; and a second damper comprising a ring of shock-absorbing material, said second damper being separate from the first damper and configured and arranged to at least partly dissipate or absorb impact energy of said poppet shutter when said poppet shutter impacts against the shutter guide to open said flow inlet. a valve body, said valve body having at least one flow inlet and at least one flow outlet; at least one shutter guide disposed inside the valve body; at least one poppet shutter guided by the shutter guide; at least one flow passage from the flow inlet to the flow outlet, said flow passage being formed between an inside surface of the valve body and an outside surface of said shutter guide and of said poppet shutter; at least one biasing member configured to bias the poppet shutter towards a closed position against a valve closure seat so as to block the flow passage through the flow inlet; a first damper comprising a ring of shock-absorbing material configured and arranged to at least partly dissipate or absorb impact energy of the poppet shutter when said poppet shutter impacts against the closure seat to close the flow inlet; and a second damper comprising a ring of shock-absorbing material, said second damper being separate from the first damper and configured and arranged to at least partly dissipate or absorb impact energy of said poppet shutter when said poppet shutter impacts against the shutter guide to open said flow inlet.
A method of predicting an estimated time to failure of a DC circuit path that can pass an electric current through it, comprising: a) generating an alternating DC pulse signal for a DC circuit path by first generating a DC pulse train using a pulse generator, then generating an negative DC pulse train using a pulse invertor and the DC pulse train, marrying the DC pulse train and the negative DC pulse train to generate the alternating DC pulse signal, the DC circuit path identified to have an estimated time to failure; b) establishing a baseline for the specific DC circuit path in terms of amplitude ratio distortions, period ratio fluctuations, and duration ratio variations characteristics at a zero crossing point of the transmitted alternating DC pulse signal output from the DC circuit path; c) monitoring and determining the ratios of the DC circuit path used in step (b), in a zero point crossing region for the DC circuit path that has been in service; and d) comparing the ratios of step (b) and step (c) and using the comparison of the ratios of step (b) and step (c) to establish a decay rate analytic curve, the decay rate analytic curve used to predict estimated time to failure for the DC circuit path being monitored. a) generating an alternating DC pulse signal for a DC circuit path by first generating a DC pulse train using a pulse generator, then generating an negative DC pulse train using a pulse invertor and the DC pulse train, marrying the DC pulse train and the negative DC pulse train to generate the alternating DC pulse signal, the DC circuit path identified to have an estimated time to failure; b) establishing a baseline for the specific DC circuit path in terms of amplitude ratio distortions, period ratio fluctuations, and duration ratio variations characteristics at a zero crossing point of the transmitted alternating DC pulse signal output from the DC circuit path; c) monitoring and determining the ratios of the DC circuit path used in step (b), in a zero point crossing region for the DC circuit path that has been in service; and d) comparing the ratios of step (b) and step (c) and using the comparison of the ratios of step (b) and step (c) to establish a decay rate analytic curve, the decay rate analytic curve used to predict estimated time to failure for the DC circuit path being monitored.
A recombinant microorganism, comprising: at least one heterologous gene encoding an alcohol-forming fatty acyl-CoA reductase and at least one heterologous gene encoding an aldehyde-generating fatty acyl-CoA reductase; wherein the at least one heterologous aldehyde-generating fatty acyl-CoA reductase gene comprises a luxC gene of photoluminescent bacterium; and wherein the recombinant microorganism produces at least one fatty alcohol. at least one heterologous gene encoding an alcohol-forming fatty acyl-CoA reductase and at least one heterologous gene encoding an aldehyde-generating fatty acyl-CoA reductase; wherein the at least one heterologous aldehyde-generating fatty acyl-CoA reductase gene comprises a luxC gene of photoluminescent bacterium; and wherein the recombinant microorganism produces at least one fatty alcohol.
A method for the production of a fancy yarn, comprising the steps of: feeding and processing a first yarn by means of a drafting and false-twist texturing process; feeding and processing a second yarn by means of a drafting and false-twist texturing process; feeding the drafted and texturized first yarn to a first slubbing unit and forming accumulation areas or slub areas on the first yarn; feeding the drafted and texturized second yarn to a second slubbing unit and forming accumulation areas or slub areas on the second yarn; joining the first yarn, the second yarn and a core yarn together. feeding and processing a first yarn by means of a drafting and false-twist texturing process; feeding and processing a second yarn by means of a drafting and false-twist texturing process; feeding the drafted and texturized first yarn to a first slubbing unit and forming accumulation areas or slub areas on the first yarn; feeding the drafted and texturized second yarn to a second slubbing unit and forming accumulation areas or slub areas on the second yarn; joining the first yarn, the second yarn and a core yarn together.
Beverage outlet for a drink dispenser for guiding a liquid, with a supply pipe for connection to a liquid supply inside the device, with an outlet pipe for removing the liquid and with an intermediate chamber arranged between the supply pipe and the outlet pipe for slowing down a liquid flow, wherein the outlet pipe has a smaller flow cross-section than the supply pipe and wherein at least one connecting duct is provided between the intermediate chamber and an outside environment for discharging vapour components of the liquid out of the intermediate chamber, characterised in that the connecting duct for merging components of a condensate with liquid components of the liquid passing through the outlet pipe is guided in the direction of an outlet port of the outlet pipe.
Spiral spring with a two-phase structure, characterized in that the material of said spiral spring is a binary alloy containing niobium and titanium, and which contains: - niobium: the remainder to 100%; - a proportion by mass of titanium greater than or equal to 45.0% of the total and less than or equal to 48.0% of the total; - traces of other components among O, H, C, Fe, Ta, N, Ni, Si, Cu, Al, each of said trace components being comprised between 0 and 1600 ppm by mass of the total, and the sum of said traces being less than or equal to 0.3% by mass, and characterized in that said spiral spring has a two-phase microstructure containing beta niobium and alpha titanium. - niobium: the remainder to 100%; - a proportion by mass of titanium greater than or equal to 45.0% of the total and less than or equal to 48.0% of the total; - traces of other components among O, H, C, Fe, Ta, N, Ni, Si, Cu, Al, each of said trace components being comprised between 0 and 1600 ppm by mass of the total, and the sum of said traces being less than or equal to 0.3% by mass, and characterized in that said spiral spring has a two-phase microstructure containing beta niobium and alpha titanium.
Casing device of a jet engine, including a radially inner casing arrangement and a radially outer casing arrangement, wherein the inner casing arrangement is designed with a radially inner ring-shaped casing part and a radially outer ring-shaped casing part, which in the installation position of the casing device delimit a core-flow duct of the jet engine at least in certain areas, and wherein the inner casing arrangement has multiple blades extending substantially in the radial direction of the casing device between the inner casing part and the outer casing part, wherein the radially outer casing arrangement is designed with a radially inner ring-shaped casing part and a radially outer ring-shaped casing part, which in the installation position of the casing device delimit a bypass flow-duct of the jet engine at least in certain areas, and wherein the outer casing arrangement has multiple blades (39, 41) extending substantially in the radial direction of the casing device between the inner casing part and the outer casing part, wherein the inner casing arrangement is designed as a first one-piece cast component, characterized in that the outer casing arrangement is designed as a second one-piece cast component.
Method for manufacturing dough products by depositing a batter on a heatable carrier (11, 13, 16), using a conveyor (10, 12, 15) including the heatable carrier (11, 13, 16) on which the dough products to be made are conveyed, whereby use is made of a first food jet printer comprising a number of adjacently placed individually controllable apertures, wherein the method comprises the steps of: - applying a layer of cooking oil or a comparable shortening on the carrier (11, 13, 16), and - the first food jet printer applying a quantity of batter on the layer of cooking oil applied on the carrier (11, 13, 16), wherein the carrier (11, 13, 16) is moved with respect to the food jet printer by the conveyor (10, 12, 15), and wherein the food jet printer for making at least one of the dough products controls the controllable apertures to discharge a series of drops of the batter from a number of the apertures, wherein the series of drops form a pre-set pattern on the carrier (11, 13, 16), characterized in that, - the first food jet printer comprises individually controllable apertures, and - the food jet printer for making at least one of the dough products individually controls the individually controllable apertures to discharge a series of drops of the batter from a number of the individually controllable apertures, wherein the series of drops form a pre-set pattern on the carrier (11, 13, 16), wherein at least a part of the dough product to be made is built up from drops coming from several apertures of the number of the individually controllable apertures. - applying a layer of cooking oil or a comparable shortening on the carrier (11, 13, 16), and - the first food jet printer applying a quantity of batter on the layer of cooking oil applied on the carrier (11, 13, 16), wherein the carrier (11, 13, 16) is moved with respect to the food jet printer by the conveyor (10, 12, 15), and wherein the food jet printer for making at least one of the dough products controls the controllable apertures to discharge a series of drops of the batter from a number of the apertures, wherein the series of drops form a pre-set pattern on the carrier (11, 13, 16), - the first food jet printer comprises individually controllable apertures, and - the food jet printer for making at least one of the dough products individually controls the individually controllable apertures to discharge a series of drops of the batter from a number of the individually controllable apertures, wherein the series of drops form a pre-set pattern on the carrier (11, 13, 16), wherein at least a part of the dough product to be made is built up from drops coming from several apertures of the number of the individually controllable apertures.
A method of encoding video content, the method comprising: manipulating bits of a first view and a second view of a three-dimensional, 3D, video frame to occupy a first slice of the video frame and a second slice of the video frame respectively, wherein a boundary is formed between the first and second slices; encoding the bits of each of the first slice and the second slice separately from each other to form a first independently compressed video slice and a second independently compressed video slice; and multiplexing the first and second independently compressed video slices to form a transport stream, wherein the transport stream is operable to be processed to render at least one of two-dimensional, 2D, and 3D video. manipulating bits of a first view and a second view of a three-dimensional, 3D, video frame to occupy a first slice of the video frame and a second slice of the video frame respectively, wherein a boundary is formed between the first and second slices; encoding the bits of each of the first slice and the second slice separately from each other to form a first independently compressed video slice and a second independently compressed video slice; and multiplexing the first and second independently compressed video slices to form a transport stream, wherein the transport stream is operable to be processed to render at least one of two-dimensional, 2D, and 3D video.
A compact slot-type antenna comprising: a conductor plate including a first side having a length, and a second side having a length; a slot formed in the conductor plate, the slot including a first side having a length (a) in a longitudinal direction arranged parallel to the first side of the conductor plate, and a second side having a length (b) in a transverse direction arranged parallel to the second side of the conductor plate, wherein the length of the slot in the longitudinal direction is greater than the length in the transverse direction; a stripline having a first line section which is formed in the longitudinal direction of the slot, and a second line section which is arranged in a direction orthogonal to said first line section and one end of which is connected with the first line section; and a dielectric which is arranged between the conductor plate and the stripline, wherein the first line section of the stripline is arranged in a projection area of the slot and is electromagnetically connected with the conductor plate around the slot by power feeding from the second line section, and a slit is formed from the slot to the first side of the conductor plate, the slit having a narrower width than a width of the slot, so as to lower the resonance frequency of the compact slot-type antenna, wherein the conductor plate is provided with: a slot end substrate section between the slot and the first side of the conductor plate, and an inward-extended section which is a portion extending from the slot end substrate section into the slot, wherein the slit extends into the slot between the second side of the conductor plate and the inward-extended section. a conductor plate including a first side having a length, and a second side having a length; a slot formed in the conductor plate, the slot including a first side having a length (a) in a longitudinal direction arranged parallel to the first side of the conductor plate, and a second side having a length (b) in a transverse direction arranged parallel to the second side of the conductor plate, wherein the length of the slot in the longitudinal direction is greater than the length in the transverse direction; a stripline having a first line section which is formed in the longitudinal direction of the slot, and a second line section which is arranged in a direction orthogonal to said first line section and one end of which is connected with the first line section; and a dielectric which is arranged between the conductor plate and the stripline, wherein the first line section of the stripline is arranged in a projection area of the slot and is electromagnetically connected with the conductor plate around the slot by power feeding from the second line section, and a slit is formed from the slot to the first side of the conductor plate, the slit having a narrower width than a width of the slot, so as to lower the resonance frequency of the compact slot-type antenna, a slot end substrate section between the slot and the first side of the conductor plate, and an inward-extended section which is a portion extending from the slot end substrate section into the slot,
A method for manufacturing a conductive sheet, the method comprising the steps of - providing microparticles comprising an electron conducting polymer; - providing a fibrous material; - forming a liquid composition comprising the microparticles and the fibrous material; and - draining liquid from the liquid composition, thereby forming a conductive layer comprising the electron conducting polymer and the fibrous material. - providing microparticles comprising an electron conducting polymer; - providing a fibrous material; - forming a liquid composition comprising the microparticles and the fibrous material; and - draining liquid from the liquid composition, thereby forming a conductive layer comprising the electron conducting polymer and the fibrous material.
A fire detection system for monitoring a monitored environment, the system comprising: a smoke detector configured to determine a concentration of smoke in a sample of air from the monitored environment; a gas sensor configured to determine a concentration of a predetermined gas in the sample of air, wherein the predetermined gas is one of carbon monoxide, carbon dioxide, nitrogen dioxide and sulphur dioxide; and a control module in communication with the smoke detector and the gas sensor; wherein the control module is configured to identify a source of the smoke based on the concentration of smoke and the concentration of the predetermined gas; and wherein the source of the smoke is identified to be a non-fire source when the concentration of the predetermined gas in the sample of air is below a first threshold; characterised in that the control module is configured to: compare the concentration of smoke and the concentration of the predetermined gas to predetermined corresponding concentrations associated with a plurality of known smoke sources; and identify one of the plurality of known smoke sources as the source of the smoke based on the comparison. a smoke detector configured to determine a concentration of smoke in a sample of air from the monitored environment; a gas sensor configured to determine a concentration of a predetermined gas in the sample of air, wherein the predetermined gas is one of carbon monoxide, carbon dioxide, nitrogen dioxide and sulphur dioxide; and a control module in communication with the smoke detector and the gas sensor; wherein the control module is configured to identify a source of the smoke based on the concentration of smoke and the concentration of the predetermined gas; and wherein the source of the smoke is identified to be a non-fire source when the concentration of the predetermined gas in the sample of air is below a first threshold; characterised in that the control module is configured to: compare the concentration of smoke and the concentration of the predetermined gas to predetermined corresponding concentrations associated with a plurality of known smoke sources; and identify one of the plurality of known smoke sources as the source of the smoke based on the comparison. compare the concentration of smoke and the concentration of the predetermined gas to predetermined corresponding concentrations associated with a plurality of known smoke sources; and identify one of the plurality of known smoke sources as the source of the smoke based on the comparison.