mhurhangee/ep-ind-claims huggingface dataset:
A glove intermediate membrane, which is adapted to be inserted between an inner liner and an outer shell of a glove, the glove intermediate membrane comprising: a first intermediate membrane having a glove shape and made of a first material having moisture permeability and a waterproof function; and a second intermediate membrane disposed on one of an inner surface and an outer surface of the first intermediate membrane and having a melting point lower than that of the first material so that the first intermediate membrane is adapted to be joined to one of the inner liner and the outer shell by heat supply, characterized in that the second glove intermediate membrane is made of a fiber assembly made of the second material in a sheet shape, wherein the sheet comprises a plurality of voids disposed over an entire area thereof a first intermediate membrane having a glove shape and made of a first material having moisture permeability and a waterproof function; and a second intermediate membrane disposed on one of an inner surface and an outer surface of the first intermediate membrane and having a melting point lower than that of the first material so that the first intermediate membrane is adapted to be joined to one of the inner liner and the outer shell by heat supply, characterized in that the second glove intermediate membrane is made of a fiber assembly made of the second material in a sheet shape, wherein the sheet comprises a plurality of voids disposed over an entire area thereof
A method of cleaning a dishwashing machine, using a low-foaming machine-cleaner composition in a wash cycle of the dishwashing machine while the machine is empty of wares, wherein the low-foaming machine-cleaner composition comprises: at least 7 % by weight of an alkoxylated alcohol, wherein the alkoxylated alcohol is an alcohol ethoxylate, having an average 7-15 carbon atoms in the "body" and an average 2-6 moles ethylene oxide in the "tail", per mole of the alcohol; at least 10 % by weight of citric acid; and water; wherein the composition consists of two separate layers, under ambient conditions. at least 7 % by weight of an alkoxylated alcohol, wherein the alkoxylated alcohol is an alcohol ethoxylate, having an average 7-15 carbon atoms in the "body" and an average 2-6 moles ethylene oxide in the "tail", per mole of the alcohol; at least 10 % by weight of citric acid; and water;
A method for live streaming, comprising: initializing, by a playback terminal, a delay window being used to constrain a range of resource slices obtained from a server terminal by the playback terminal, wherein the resource slices are obtained by slicing a target streaming media resource by the server terminal; according to a starting number and a latest number of the resource slices within the delay window, requesting, by the playback terminal, an unrequested resource slice of the target streaming media resource from the server terminal within a range of the delay window; determining, by the playback terminal, whether a result of a first request for the resource slice within the range of the delay window is successful; and accumulating, by the playback terminal, a number of consecutive failures of the first request for the resource slice within the delay window and, when the number of consecutive failures reaches a preset threshold, sliding the delay window backward, by decreasing the starting number and the latest number, to limit a requesting speed of the playback terminal. initializing, by a playback terminal, a delay window being used to constrain a range of resource slices obtained from a server terminal by the playback terminal, wherein the resource slices are obtained by slicing a target streaming media resource by the server terminal; according to a starting number and a latest number of the resource slices within the delay window, requesting, by the playback terminal, an unrequested resource slice of the target streaming media resource from the server terminal within a range of the delay window; determining, by the playback terminal, whether a result of a first request for the resource slice within the range of the delay window is successful; and accumulating, by the playback terminal, a number of consecutive failures of the first request for the resource slice within the delay window and, when the number of consecutive failures reaches a preset threshold, sliding the delay window backward, by decreasing the starting number and the latest number, to limit a requesting speed of the playback terminal.
A mechanically operating superconducting switch comprising two superconducting wires (10, 12), a respective end of each superconducting wire being cast in a respective block (13, 14; 42, 52) of superconducting material and a mechanical arrangement (24, 16, 18, 20; 60) for driving respective contact surfaces of the two blocks into physical contact with one another, and for separating them.
A hybrid ion source comprising: a chamber; a first ion source for generating first ions in said chamber and for spraying droplets or a gas component of a sample solution for ionization; a second ion source for generating second ions by ionizing the droplets or the gas component sprayed from the first ion source; and an aperture electrode; characterized in that the aperture electrode is adapted to introduce the first and second ions generated by the respective first and second ion sources into a detection unit; and the second ion source includes an opening between a first ionization area, in which the first ions are generated, and a second ionization area, in which the second ions are generated, for introducing the droplets or the gas component into the second ionization area and for emitting the second ions from the second ion source into said chamber; and exhaust means for generating air flow in a direction from the first ionization area towards the second ionization area. a chamber; a first ion source for generating first ions in said chamber and for spraying droplets or a gas component of a sample solution for ionization; a second ion source for generating second ions by ionizing the droplets or the gas component sprayed from the first ion source; and an aperture electrode; characterized in that the aperture electrode is adapted to introduce the first and second ions generated by the respective first and second ion sources into a detection unit; and the second ion source includes an opening between a first ionization area, in which the first ions are generated, and a second ionization area, in which the second ions are generated, for introducing the droplets or the gas component into the second ionization area and for emitting the second ions from the second ion source into said chamber; and exhaust means for generating air flow in a direction from the first ionization area towards the second ionization area. an opening between a first ionization area, in which the first ions are generated, and a second ionization area, in which the second ions are generated, for introducing the droplets or the gas component into the second ionization area and for emitting the second ions from the second ion source into said chamber; and exhaust means for generating air flow in a direction from the first ionization area towards the second ionization area.
Composition comprising an amylase or protease for use in the treatment or prevention of vitamin E deficiency in an animal, wherein the composition improves animal fat soluble vitamin uptake from feed, wherein the fat soluble vitamin is vitamin E and further wherein the composition is administered to the animal.
An electric hammer comprising: an electric hammer body, a hammer bit that is coupled to the body and configured to perform a hammering operation in contact with a workpiece, a driving motor that is housed within the body, a striker that is housed within the body and configured to be driven by the driving motor to apply a striking force to the hammer bit, and a vibration reducing mechanism including a weight configured to be linearly driven in an axial direction of the hammer bit to generate vibration corresponding to vibration caused in the body to reduce the vibration caused in the body, wherein the vibration reducing mechanism is driven by the driving motor, characterized in that the vibration reducing mechanism is adapted to optimize vibration reduction by changing at least one of the amplitude, frequency, and phase of the generated vibration by means of a change of the driving motor revolution numbers, in a first mode for loaded driving conditions in which a load acts on the hammer bit from the workpiece side by the hammering operation, in a second mode for unloaded driving conditions in which the driving motor is energized while the hammering operation is not performed so that no load acts on the hammer bit from the workpiece side, and between the first mode and the second mode. an electric hammer body, a hammer bit that is coupled to the body and configured to perform a hammering operation in contact with a workpiece, a driving motor that is housed within the body, a striker that is housed within the body and configured to be driven by the driving motor to apply a striking force to the hammer bit, and a vibration reducing mechanism including a weight configured to be linearly driven in an axial direction of the hammer bit to generate vibration corresponding to vibration caused in the body to reduce the vibration caused in the body, wherein the vibration reducing mechanism is driven by the driving motor, characterized in that
Device for image representation, comprising a carrier body on which are arranged individually driveable luminous bodies connected respectively to a drive unit, characterized in that the carrier body comprises a first electrically conductive layer facing the luminous bodies, a second electrically conductive layer facing away from the luminous bodies and a light-guiding layer arranged between the first and the second electrically conductive layer for guiding light signals, wherein the drive units are connected to the light-guiding layer via light-capturing connections, wherein first electrical connections for connecting the drive units to the first electrically conductive layer and second electrical connections for connecting the drive units to the second electrically conductive layer are provided, wherein the drive units are designed for driving the luminous bodies depending on light signals fed into the light-guiding layer.
An electrostatic spray system, comprising: a hand held device having an inlet and an outlet; a charging device disposed within the hand held device for producing a high voltage charging field; a spray nozzle having a fluid outlet, the outlet being disposed within the charging field; a pump for supplying fluid to said nozzle; characterized by: an air movement system comprising an axial fan disposed within the hand held device, the air movement system configured to produce an airflow around the spray nozzle and through the high voltage charging field to create a directionally controllable electrostatic charged mist exiting the hand held device at low velocities. a hand held device having an inlet and an outlet; a charging device disposed within the hand held device for producing a high voltage charging field; a spray nozzle having a fluid outlet, the outlet being disposed within the charging field; a pump for supplying fluid to said nozzle; an air movement system comprising an axial fan disposed within the hand held device, the air movement system configured to produce an airflow around the spray nozzle and through the high voltage charging field to create a directionally controllable electrostatic charged mist exiting the hand held device at low velocities.
A method of making a mechanically stabilized RF coupled interdigitated resonate device, the device being a resonate interdigitated 28 GHz bandpass filter, the method comprising: masking a design layout comprising one or more structures to form one or more interdigitated structures with electrical conduction channels on a photosensitive glass substrate, wherein the one or more interdigitated structures are electrically conductive interdigitated transmission lines; exposing at least one portion of the photosensitive glass substrate to an activating energy source; heating the photosensitive glass substrate for at least ten minutes above its glass transition temperature; cooling the photosensitive glass substrate to transform at least part of the exposed glass to a crystalline material to form a glass-crystalline substrate; etching the glass-crystalline substrate with an etchant solution to form a mechanical support device and to form an air gap between the substrate and the RF interdigitated resonate structure; and coating the one or more electrical conductive interdigitated transmission line, a ground plane and an input and an output channel with one or more metals, wherein the one or more metals are connected to a circuitry. masking a design layout comprising one or more structures to form one or more interdigitated structures with electrical conduction channels on a photosensitive glass substrate, wherein the one or more interdigitated structures are electrically conductive interdigitated transmission lines; exposing at least one portion of the photosensitive glass substrate to an activating energy source; heating the photosensitive glass substrate for at least ten minutes above its glass transition temperature; cooling the photosensitive glass substrate to transform at least part of the exposed glass to a crystalline material to form a glass-crystalline substrate; etching the glass-crystalline substrate with an etchant solution to form a mechanical support device and to form an air gap between the substrate and the RF interdigitated resonate structure; and coating the one or more electrical conductive interdigitated transmission line, a ground plane and an input and an output channel with one or more metals, wherein the one or more metals are connected to a circuitry.
Crystalline Form IX of Compound 1 as represented by the following formula: characterized in that the crystalline Form IX has diffraction peaks at 2θ = 7.947°, 10.073°, 14.531°, 19.187°, 21.237°, 24.055°, 25.497°, in a X-ray diffraction pattern.
A medical image processing apparatus comprising: a recognition unit that is configured to detect a region of interest from an acquired medical image and classifies the detected region of interest; a display control unit that is configured to cause emphasis display for emphasizing the region of interest and to display a classification for the region of interest to be displayed in a screen identical to a screen for displaying an observation target included in the medical image; and an observation image switching unit that configured to switch whether to display consecutive images of an observation image or to display a still image of the observation image on a display device, wherein in a case where the observation image switching unit switches consecutive image display of the observation image to still image display, the display control unit makes a change for reducing visual recognizability of at least any of the emphasis display or the classification compared with a case of the consecutive image display of the observation image. a recognition unit that is configured to detect a region of interest from an acquired medical image and classifies the detected region of interest; a display control unit that is configured to cause emphasis display for emphasizing the region of interest and to display a classification for the region of interest to be displayed in a screen identical to a screen for displaying an observation target included in the medical image; and an observation image switching unit that configured to switch whether to display consecutive images of an observation image or to display a still image of the observation image on a display device, wherein in a case where the observation image switching unit switches consecutive image display of the observation image to still image display, the display control unit makes a change for reducing visual recognizability of at least any of the emphasis display or the classification compared with a case of the consecutive image display of the observation image.
An LED light assembly comprising: a housing; an LED (14, 54) disposed in said housing; a heat dissipating structure in thermal communication with said LED; and a synthetic jet activator comprising a fluid current generator disposed in the housing for creating a current of fluid over said heat dissipating structure, said synthetic jet activator comprised of a first flexible side plate and a second flexible side plate connected by a flexible hinge to form an internal fluid cavity which is in fluid communication with a discharge conduit and an orifice, the flexible side plates being attached to or including piezoelectric material such that fluid, in operation, is expelled from the conduit and orifice to cool said LED. a housing; an LED (14, 54) disposed in said housing; a heat dissipating structure in thermal communication with said LED; and a synthetic jet activator comprising a fluid current generator disposed in the housing for creating a current of fluid over said heat dissipating structure, said synthetic jet activator comprised of a first flexible side plate and a second flexible side plate connected by a flexible hinge to form an internal fluid cavity which is in fluid communication with a discharge conduit and an orifice, the flexible side plates being attached to or including piezoelectric material such that fluid, in operation, is expelled from the conduit and orifice to cool said LED.
Cage of a rolling element bearing consisting of axially spaced cage rings (2, 3; 2', 3') with side surfaces, wherein the cage rings (2, 3; 2') for the formation of rolling element pockets (4, 5, 6; 4', 5', 6') are connected with cross-members (7, 8, 9; 8', 9') and the radially external cage ring edges and/or the radially external cross-member surfaces form jacket surfaces at the cage periphery, with at least one lubricating pocket (15; 15') formed in a side surface (14; 14'), wherein in the jacket surface is formed a channel-shaped lubricating groove (16; 16') positionally associated with the lubricating pocket (15; 15'), wherein the lubricating pocket (15; 15') viewed against the bearing rotational direction has a lubricating pocket inlet bevel (19; 19') and on the other opposite side a lubricating pocket limiting ridge (21; 21'; 23) and the lubricating pocket (15; 15') and the lubricating groove (16; 16') for the transport of lubricating means are connected at a connecting point with one another, characterised in that the connecting point of the lubricating pocket (15; 15') and the lubricating groove (16; 16') viewed against the bearing rotational direction lies after the lubricating pocket inlet bevel (19; 19') prior to the lubricating pocket limiting ridge (21; 21'; 23) at a straight floor area of the lubricating pocket (15; 15'), and that in the connecting point the lubricating group (16; 16') abuts on the straight floor area of the lubricating pocket (15, 15') with a 90 ° deviation from the radial direction into the axial direction.
A contact lens, the contact lens comprising: an optic zone, a peripheral zone surrounding the optic zone, a front curve surface and a back curve surface; and multiple discrete thinned regions in the peripheral zone, each discrete thinned region configured to increase oxygen transmissibility in the discrete thinned region and an area surrounding the discrete thinned region, the multiple discrete thinned regions covering from about five percent to about seventy-five percent of the surface area of the peripheral zone; characterized in that the multiple discrete thinned regions comprise an inner ring and an outer ring of dimples formed in the back curve surface in the peripheral zone; wherein the inner ring is about 5 mm from a geometrical center of the contact lens and comprises dimples having a depth of about 100 microns with a thickness of about 100 microns of additional material beyond the dimples; and wherein the outer ring is about 6 mm from the geometrical center of the contact lens and comprises dimples having a depth of about 140 microns with a thickness of about 100 microns of additional material beyond the dimples. an optic zone, a peripheral zone surrounding the optic zone, a front curve surface and a back curve surface; and multiple discrete thinned regions in the peripheral zone, each discrete thinned region configured to increase oxygen transmissibility in the discrete thinned region and an area surrounding the discrete thinned region, the multiple discrete thinned regions covering from about five percent to about seventy-five percent of the surface area of the peripheral zone; characterized in that the multiple discrete thinned regions comprise an inner ring and an outer ring of dimples formed in the back curve surface in the peripheral zone; wherein the inner ring is about 5 mm from a geometrical center of the contact lens and comprises dimples having a depth of about 100 microns with a thickness of about 100 microns of additional material beyond the dimples; and wherein the outer ring is about 6 mm from the geometrical center of the contact lens and comprises dimples having a depth of about 140 microns with a thickness of about 100 microns of additional material beyond the dimples.
A method of screening mutants of a target protein for a desired property comprising: displaying a library comprising a plurality of host cells, wherein each host cell expresses a heterologous fusion protein on the inner membrane of host cells, wherein said heterologous fusion protein comprises segments encoding a Tat signal operably linked to a mutagenized target protein, wherein said Tat signal sequence is on the N-terminal of the fusion protein; forming spheroplasts from said host cells; contacting said spheroplasts with a target protein binding partner; and selecting spheroplasts that bind said target protein binding partner. displaying a library comprising a plurality of host cells, wherein each host cell expresses a heterologous fusion protein on the inner membrane of host cells, wherein said heterologous fusion protein comprises segments encoding a Tat signal operably linked to a mutagenized target protein, wherein said Tat signal sequence is on the N-terminal of the fusion protein; forming spheroplasts from said host cells; contacting said spheroplasts with a target protein binding partner; and selecting spheroplasts that bind said target protein binding partner.
A measuring device (1, 2, 3,4, 5) in the form of a pressure measuring device, comprising at least one electron releasing device for producing an electron beam, at least one electron collecting device (13, 31, 32), and at least one ion collecting device (19, 23, 24); characterized by at least one measurement line device which is provided separately from the at least one electron collecting device (13, 31, 32) and which has a passage means for a particle beam, wherein in the region of the measurement line device pressure measurement is accomplished via interaction between residual gas atoms and electrons, wherein ions generated in the region of the measurement line device are metrologically determined by the ion collecting device (19, 23, 24), and wherein the passage means is adapted and arranged so as to allow passage of a particle beam, and wherein the at least one electron releasing device, the at least one electron collecting device (13, 31, 32), and the at least one ion collecting device (19, 23, 24) are configured and arranged spatially separated from each other, and wherein the electron releasing device is vacuum-tightly connectable to a beam line via a flange connection in order to direct the electron beam onto an opposing boundary wall of the beam line, and wherein the electron collecting device (13, 31, 32) is connectable via a vacuum-tight flange connection in the target area of the electron beam so that the electron beam can be directed through the gas volume to be measured and a particle beam can pass through so that the measurement can be performed directly in the region of the particle beam.