mhurhangee/ep-ind-claims huggingface dataset:
A one shell aminoplast core-shell microcapsule obtainable by a process comprising the steps of: 1) admixing a perfume oil with at least one polyisocyanate having at least two isocyanate functional groups to form an oil phase; 2) dispersing or dissolving into water an aminoplast resin and optionally a stabilizer to form a water phase; 3) adding the oil phase to the water phase to form an oil-in-water dispersion, wherein the mean droplet size is comprised between 1 and 100 μm; 4) performing a curing step to form at least one microcapsule in the form of a liquid dispersion; and 5) optionally drying the liquid dispersion to obtain at least one dried core-shell microcapsule; characterized in that the aminoplast resin is added in an amount such that the w/w ratio between the aminoplast resin and the perfume oil in the dispersion is comprised between 0.001 and 0.09. 1) admixing a perfume oil with at least one polyisocyanate having at least two isocyanate functional groups to form an oil phase; 2) dispersing or dissolving into water an aminoplast resin and optionally a stabilizer to form a water phase; 3) adding the oil phase to the water phase to form an oil-in-water dispersion, wherein the mean droplet size is comprised between 1 and 100 μm; 4) performing a curing step to form at least one microcapsule in the form of a liquid dispersion; and 5) optionally drying the liquid dispersion to obtain at least one dried core-shell microcapsule;
A training device for training human pelvic floor muscles, intended to be placed for training externally onto the human body directly or indirectly between the two ischial bones while seated, comprising a seat part, and comprising a pressure sensor for detecting the muscle force, wherein the pressure sensor comprises a pressure-measuring or force-measuring device and also a hollow body extending in a longitudinal direction, wherein the hollow body comprises a flexible outer sheath, and wherein the inner space of the hollow body contains a gel material, an elastic multi-component material or a liquid material that acts as pressure mediator, wherein the seat part and the pressure sensor are designed matching each other in such a way that the hollow body protrudes at least partially above a seat surface of the seat part, characterized in that the hollow body comprises an upper fixed end part, a lower fixed end part and a spacer element, wherein the upper end part and the lower end part are held spaced apart from each other by the spacer element and the spacer element extends in the longitudinal direction, and in that the flexible outer sheath of the hollow body connects the upper end part to the lower end part in such a way that a closed inner space forms within which the spacer element is also arranged, in that the pressure-measuring or force-measuring device extends in the longitudinal direction at least partially within the inner space in order to transmit the pressure from the outer sheath to the pressure-measuring or force-measuring device via the pressure mediator, in that the seat part and the pressure sensor are designed as separate units that can be joined together and separated again, and in that the seat part has a depression into which the hollow body can be placed in such a way that the hollow body protrudes partially above the seat surface of the seat part.
A particle image velocimetry system comprising: a light source; means for directing light from the light source into a flow volume containing a quantity of fluid and at least one particle, wherein the light is directed into the flow volume as a plurality of light sheets, each light sheet having a single wavelength, wherein at least one of the light sheets has a wavelength which is different from a wavelength of another light sheet; a detection apparatus, which includes a refractive lens, for detecting reflections of light from the at least one particle within the flow volume; and a Fresnel phase plate arranged between the refractive lens of the detection apparatus and the flow volume so that a focus of the detection apparatus for each wavelength corresponds to a depth at which that wavelength occurs in the illumination of the flow volume by the light source and so that all wavelengths are focused on a same sensor plane of the detection apparatus. a light source; means for directing light from the light source into a flow volume containing a quantity of fluid and at least one particle, wherein the light is directed into the flow volume as a plurality of light sheets, each light sheet having a single wavelength, wherein at least one of the light sheets has a wavelength which is different from a wavelength of another light sheet; a detection apparatus, which includes a refractive lens, for detecting reflections of light from the at least one particle within the flow volume; and a Fresnel phase plate arranged between the refractive lens of the detection apparatus and the flow volume so that a focus of the detection apparatus for each wavelength corresponds to a depth at which that wavelength occurs in the illumination of the flow volume by the light source and so that all wavelengths are focused on a same sensor plane of the detection apparatus.
A floor cover of an entry region (111, 112) of a passenger transportation device that is formed as an escalator or a moving walkway, said floor cover comprising a floor cover support and at least one cover element (2, 3, 4, 5, 6), wherein the opening of a space (113, 114) provided under the floor of the passenger transportation device can be closed in a flush manner to the surrounding floor which can be walked on, by means of at least one cover element (2, 3, 4, 5, 6) that is laid on the floor cover support, characterized in that the floor cover includes at least one device (20, 30, 40, 50, 60) that is arranged at least in part between the floor cover support and the at least one cover element (2, 3, 4, 5, 6), and by means of which device (20, 30, 40, 50, 60) a single possible correct installation position (X 0) of the at least one cover element (2, 3, 4, 5, 6) on the floor cover support is specified, wherein in the correct installation position (Xo), the cover element (2, 3, 4, 5, 6) lying flush on the floor cover support, and in the incorrect installation position (X 1) by means of the device (20, 30, 40, 50, 60) at least one part of the cover element (2, 3, 4, 5, 6) being arranged so as to visibly project beyond the floor cover support.
Method of producing a gaseous fuel from secondary fuel, comprising the steps of - providing a starting material, comprising a composition of free flowing particles of secondary fuel, wherein the secondary fuel is a product that classifies under EN 15359, wherein the particles have a particle size up to 20 mm, the composition has a density of more than 500 kg/m 3 and a moisture content of less than 2% by weight and a net calorific value of more than 35 MJ/kg, - thermal decomposing the starting material by direct contact heating at a temperature in the range of 550-800 °C under atmospheric pressure conditions in an anaerobe atmosphere - collecting the produced gaseous fuel. - providing a starting material, comprising a composition of free flowing particles of secondary fuel, wherein the secondary fuel is a product that classifies under EN 15359, wherein the particles have a particle size up to 20 mm, the composition has a density of more than 500 kg/m 3 and a moisture content of less than 2% by weight and a net calorific value of more than 35 MJ/kg, - thermal decomposing the starting material by direct contact heating at a temperature in the range of 550-800 °C under atmospheric pressure conditions in an anaerobe atmosphere - collecting the produced gaseous fuel.
Timepiece movement comprising: - a frame, - a first toothing arrangement and a second toothing arrangement which are fixed with respect to the frame during normal operation of the timepiece movement, - a support mounted to pivot with respect to the frame about an axis perpendicular to the plane of the frame, the support bearing a barrel, a train (15, 16) and a regulating organ (17, 18, 19), the barrel meshing with the first toothing arrangement so that the letting down of the barrel drives the support in rotation about said axis, the train (15, 16) meshing with the second toothing arrangement so that the rotation of the support drives the train (15, 16) in rotation with respect to the support in order to drive the regulating organ (17, 18, 19), - at least one time display member (26, 37) kinematically connected to the support, - a mechanism (42, 44, 46, 45, 49) for setting the time of the movement, and - a disconnecting device (5, 55-67) enabling the time-setting mechanism (42, 44, 46, 45, 49) to adjust the position of said at least one time display member (26, 37) without driving the train (15, 16) in rotation with respect to the support, characterised in that the disconnecting device comprises: - a rotational member mounted to pivot with respect to the frame about said axis and fixedly attached to the first and second toothing arrangements (28a, 28b), and - a blocking device for blocking the rotation of the rotational member during normal operation of the movement and for allowing the rotational member to rotate freely during when the time is being set. - a frame, - a first toothing arrangement and a second toothing arrangement which are fixed with respect to the frame during normal operation of the timepiece movement, - a support mounted to pivot with respect to the frame about an axis perpendicular to the plane of the frame, the support bearing a barrel, a train (15, 16) and a regulating organ (17, 18, 19), the barrel meshing with the first toothing arrangement so that the letting down of the barrel drives the support in rotation about said axis, the train (15, 16) meshing with the second toothing arrangement so that the rotation of the support drives the train (15, 16) in rotation with respect to the support in order to drive the regulating organ (17, 18, 19), - at least one time display member (26, 37) kinematically connected to the support, - a mechanism (42, 44, 46, 45, 49) for setting the time of the movement, and - a disconnecting device (5, 55-67) enabling the time-setting mechanism (42, 44, 46, 45, 49) to adjust the position of said at least one time display member (26, 37) without driving the train (15, 16) in rotation with respect to the support, - a rotational member mounted to pivot with respect to the frame about said axis and fixedly attached to the first and second toothing arrangements (28a, 28b), and - a blocking device for blocking the rotation of the rotational member during normal operation of the movement and for allowing the rotational member to rotate freely during when the time is being set.
A method for an imaging apparatus, comprising: calculating a model of a subject based on one or more of prior image reconstructions and fluoroscopic exposures; calculating a likelihood of a collision between the imaging apparatus and one or more of the subject and a subject support based on the model of the subj ect; performing a scan of the subject responsive to the likelihood below a threshold; and not performing the scan otherwise. calculating a model of a subject based on one or more of prior image reconstructions and fluoroscopic exposures; calculating a likelihood of a collision between the imaging apparatus and one or more of the subject and a subject support based on the model of the subj ect; performing a scan of the subject responsive to the likelihood below a threshold; and not performing the scan otherwise.
An ultrasound system for phase determination in echocardiography, the system comprising: a wireless heart rate sensor for providing a pulse signal for a patient, the pulse signal indicating one heart beat without phasing per cardiac cycle; an ultrasound echocardiography scanner configured to wirelessly receive the pulse signal, acquire an ultrasound image from a scan of the patient, and determine a phase for the ultrasound image using image processing assisted by the pulse signal; wherein the image processing is used to make up for the lack of an ECG waveform or wherein the heart rate sensor does not provide accurate information about the phase, or the phase information is not available at all from the heart rate sensor; and a display configured to display the ultrasound image and the phase, wherein the ultrasound echocardiography scanner is configured to determine the phase for the ultrasound image with image processing of a sequence of images including the ultrasound image, the image processing having a search temporally limited by the pulse signal, or wherein the ultrasound echocardiographic scanner is configured to use the image processing to identify a cardiac event, to compute a time delay (Δt) between the pulse signal and the cardiac event which is used to temporally align a heart cycle trace, and to determine the phase for the ultrasound image from the heart cycle trace fit to the pulse signal. a wireless heart rate sensor for providing a pulse signal for a patient, the pulse signal indicating one heart beat without phasing per cardiac cycle; an ultrasound echocardiography scanner configured to wirelessly receive the pulse signal, acquire an ultrasound image from a scan of the patient, and determine a phase for the ultrasound image using image processing assisted by the pulse signal; wherein the image processing is used to make up for the lack of an ECG waveform or wherein the heart rate sensor does not provide accurate information about the phase, or the phase information is not available at all from the heart rate sensor; and a display configured to display the ultrasound image and the phase, wherein the ultrasound echocardiography scanner is configured to determine the phase for the ultrasound image with image processing of a sequence of images including the ultrasound image, the image processing having a search temporally limited by the pulse signal, or wherein the ultrasound echocardiographic scanner is configured to use the image processing to identify a cardiac event, to compute a time delay (Δt) between the pulse signal and the cardiac event which is used to temporally align a heart cycle trace, and to determine the phase for the ultrasound image from the heart cycle trace fit to the pulse signal.
An electronic device comprising: a Universal Serial Bus hub (306, 706) to which a USB host/device (202, 204, 206) is connected, characterized by: a first switch (308, 708) configured to switch power supply to the USB hub(306, 706); and a controller (304, 704) configured to turn off the first switch (308, 708) to cut off power supply to the USB hub (306, 706) when in a sleep mode for reducing power consumption when no USB host/device is connected to the USB hub or only a USB host/device not requiring constant power supply is connected to the USB hub. a Universal Serial Bus hub (306, 706) to which a USB host/device (202, 204, 206) is connected, characterized by: a first switch (308, 708) configured to switch power supply to the USB hub(306, 706); and a controller (304, 704) configured to turn off the first switch (308, 708) to cut off power supply to the USB hub (306, 706) when in a sleep mode for reducing power consumption when no USB host/device is connected to the USB hub or only a USB host/device not requiring constant power supply is connected to the USB hub. a first switch (308, 708) configured to switch power supply to the USB hub(306, 706); and a controller (304, 704) configured to turn off the first switch (308, 708) to cut off power supply to the USB hub (306, 706) when in a sleep mode for reducing power consumption when no USB host/device is connected to the USB hub or only a USB host/device not requiring constant power supply is connected to the USB hub.
A method for preparing nanoscale or amorphous particles comprising the steps of: preparing a mixture comprising one or more active ingredients and solid fat as a solvent and pressurizing the mixture comprising one or more active ingredients and solid fat to the critical pressure or more by adding the gas of a supercritical fluid into the mixture, and then removing the solid fat from the mixture by releasing out the solid fat together with the gas of the supercritical fluid, wherein the temperature inside the reactor in the step is below the melting point of the solid fat contained in the mixture prepared from the step, and wherein the solid fat is a fat or a mixture of fats maintaining solid phase at the temperature of 30°C or less and having 40∼150°C of melting point.
Electromechanical transducer unit for a field device used in automation engineering, comprising - a membrane which can be excited to perform mechanical vibrations, - two rods (10a, 10b) secured to the membrane by friction locking, such that they are perpendicular to a base area of the membrane, - a housing, wherein the membrane forms at least a part of a wall of the housing, and wherein the two rods (10a, 10b) project into the interior of the housing, wherein the two rods (10a, 10b) are secured to the membrane in such a way that vibrations of the membrane result from the vibrations of the two rods (10a, 10b), characterized in that the transducer unit further comprises: - two magnets (11a, 11b), wherein one magnet (11a, 11b) is fixed, in each case, in the end area of one of the two rods (10a, 10b), said end area facing away from the membrane, and - a coil with a core, wherein said coil is secured inside the housing above the magnets (11a, 11b) and wherein said coil can be exposed to an electrical alternating current signal, wherein the coil is designed to generate a magnetic field, wherein said magnetic field makes the two rods (10a, 10b) produce mechanical vibrations perpendicular to the longitudinal axis of the two rods (10a, 10b) by means of the two magnets (11a, 11b). - a membrane which can be excited to perform mechanical vibrations, - two rods (10a, 10b) secured to the membrane by friction locking, such that they are perpendicular to a base area of the membrane, - a housing, wherein the membrane forms at least a part of a wall of the housing, and wherein the two rods (10a, 10b) project into the interior of the housing, - two magnets (11a, 11b), wherein one magnet (11a, 11b) is fixed, in each case, in the end area of one of the two rods (10a, 10b), said end area facing away from the membrane, and - a coil with a core, wherein said coil is secured inside the housing above the magnets (11a, 11b) and wherein said coil can be exposed to an electrical alternating current signal,
A method in damping vibration in a forest machine, the method comprising: - maintaining a desired driving speed, the method being characterised by: - monitoring in advance the profile of the ground on the travel path of a wheel of the forest machine by means of a sensor coupled to the forest machine to provide for altering the speed, and - maintaining automatically a reduced driving speed when the wheel of the forest machine is descending from the top of an obstacle protruding from the ground or into a recess in the ground. - maintaining a desired driving speed, - monitoring in advance the profile of the ground on the travel path of a wheel of the forest machine by means of a sensor coupled to the forest machine to provide for altering the speed, and - maintaining automatically a reduced driving speed when the wheel of the forest machine is descending from the top of an obstacle protruding from the ground or into a recess in the ground.
A method of introducing an exogenous nucleic acid into a swine cell in vitro comprising: exposing a first group of swine cells to a vector that comprises an exogenous nucleic acid during a first culture time period while holding back a second group of untreated swine cells and subsequently adding the second group of cells to the first group for a second culture time period, wherein the second group of cells have not been exposed to the vector. exposing a first group of swine cells to a vector that comprises an exogenous nucleic acid during a first culture time period while holding back a second group of untreated swine cells and subsequently adding the second group of cells to the first group for a second culture time period, wherein the second group of cells have not been exposed to the vector.
A solid pharmaceutical composition in dosage unit form, comprising, per dose, from 1 mg to 1000 mg of a hemisulfate salt of Compound: and a pharmaceutically acceptable carrier or diluent.
A two-stage venturi cooler for exhaust gas exiting an internal combustion engine, the cooler comprising: a first elongate tubular conduit having a longitudinal axis, wherein the first elongate tubular conduit has an exhaust gas inlet at one end, a mixed gas outlet at an opposing end, and a cooling gas inlet, wherein structures inside the first stage define a venturi that is configured to form an elongate column of mixed gas, wherein the column of mixed gas comprises a ring of exhaust gas surrounding a core of cooling gas; characterized in that it further comprises a second elongate tubular conduit that is coaxial with the first elongate tubular conduit, wherein the second elongate tubular conduit has a mixed gas inlet at one end and a mixed gas outlet at an opposing end, and wherein the mixed gas inlet is dimensioned and disposed to receive the column of mixed gas from the first stage and to surround the column of mixed gas with an entrained annular column of ambient air. a first elongate tubular conduit having a longitudinal axis, wherein the first elongate tubular conduit has an exhaust gas inlet at one end, a mixed gas outlet at an opposing end, and a cooling gas inlet, wherein structures inside the first stage define a venturi that is configured to form an elongate column of mixed gas, wherein the column of mixed gas comprises a ring of exhaust gas surrounding a core of cooling gas; characterized in that it further comprises a second elongate tubular conduit that is coaxial with the first elongate tubular conduit, wherein the second elongate tubular conduit has a mixed gas inlet at one end and a mixed gas outlet at an opposing end, and wherein the mixed gas inlet is dimensioned and disposed to receive the column of mixed gas from the first stage and to surround the column of mixed gas with an entrained annular column of ambient air.
A method of sharing information from a document displayed by an application in a graphical user interface, the method comprising: in response to one or more inputs from a user to generate an image based on the information from the document, executing an image generation routine to translate one or more portions of the document displayed by the application into visual information comprising an image, wherein the image indicates a visual representation of at least a portion of the information; further in response to the one or more inputs, generating a link to the document displayed by the application, the link defining a unique location at which the document is accessible; and further in response to the one or more inputs, placing the image and the link in a buffer, wherein the buffer is shared with one or more other applications executing at the one or more computing devices; wherein the method is performed by one or more computing devices. in response to one or more inputs from a user to generate an image based on the information from the document, executing an image generation routine to translate one or more portions of the document displayed by the application into visual information comprising an image, wherein the image indicates a visual representation of at least a portion of the information; further in response to the one or more inputs, generating a link to the document displayed by the application, the link defining a unique location at which the document is accessible; and further in response to the one or more inputs, placing the image and the link in a buffer, wherein the buffer is shared with one or more other applications executing at the one or more computing devices; wherein the method is performed by one or more computing devices.