mhurhangee/ep-ind-claims huggingface dataset:
Separating device for separating particles from a gas flow, in which the gas flow is put into rotation by means of a guide device and the liquid or solid particles to be separated can be discharged via a particle outlet, the separating device consisting of a housing tube with a guide device and an immersion tube following the flow direction of the gas flow disposed in the housing tube, and which is provided at the outside with a helix for a targeted discharge of the particles separated by the rotation to a lateral housing opening designed as particle outlet and with a central outlet of the cleaned gas flow, characterized in that the immersion tube features a cylindrical area, which centers the housing tube and has furthermore at the outside a mostly conical structure and tapers by extending conically with the helix towards the inside of the housing tube, a guide channel being formed on the immersion tube at the outlet of the helix, which correspondingly forms in conjunction with the oppositely positioned wall of the housing tube the lateral housing opening for the separated particles.
Device for guiding a dental-surgical hollow mill during a bone removal operation, having a template which can be secured in the region of a removal location and at least one guide means which is arranged on the template, wherein the guide means guides the hollow mill in such a manner that only a portion of the distal edge of the hollow mill can be brought into contact with the bone and wherein the hollow mill can be guided by the guide means laterally along the bone so that a circular-segment-like bone piece can be released.
Heat exchanger comprising a shell having an elongated shape and a cylindrical geometry, wherein a first fluid, fed through one or more first inlet pipes obtained in a head portion of the heat exchanger, flows inside the shell and a second fluid, fed through at least one second inlet pipe, flows inside the shell in order to perform heat exchange with the first fluid, and wherein the heat exchanger also comprises a fluid distributor assembly placed at said one or more first inlet pipes, the heat exchanger being characterized in that the fluid distributor assembly is provided with a first perforated plate, in turn provided with first through holes, and with at least one second perforated plate (12B, 12C, 12D), in turn provided with second through holes (20B, 20C, 20D), wherein the at least one second perforated plate (12B, 12C, 12D) is disposed parallel and downstream of the first perforated plate with respect to the flow direction of the first fluid flowing into the first through holes and the second through holes (20B, 20C, 20D), the heat exchanger being characterized in that between the first perforated plate and the at least one second perforated plate (12B, 12C, 12D) a hermetic seal device is disposed, and wherein the first perforated plate and the at least one second perforated plate (12B, 12C, 12D) are spaced from each other, in such a way that the first perforated plate and the at least one second perforated plate (12B, 12C, 12D), together with the hermetic seal device, surround an equalization chamber of predefined depth, measured along the flow direction of the first fluid flowing into the first through holes and the second through holes (20B, 20C, 20D), each equalization chamber being closed at the peripheral edges of the first perforated plate and of the at least one second perforated plate (12B, 12C, 12D).
A sensing device adapted to detect environmental changes and/or an analyte, comprising: radio frequency sensor circuitry (12; 30; 44; 62; 78; 102; 122; 142), the device being characterized in that the device comprises: a protection material (14; 32; 46; 64; 80; 104; 124; 144) disposed on the radio frequency sensor circuitry, and a metallic layer (16; 34; 48; 68; 82, 90; 106; 126; 146) disposed on the protection material. a protection material (14; 32; 46; 64; 80; 104; 124; 144) disposed on the radio frequency sensor circuitry, and a metallic layer (16; 34; 48; 68; 82, 90; 106; 126; 146) disposed on the protection material.
A bag-making and packaging apparatus that creates one product per cycle by packaging articles in a bag made from a film, the bag-making and packaging apparatus comprising: a longitudinal sealing mechanism that forms a film tube from the film; a guide that guides the articles which fall from above into the film tube; an article sensor that senses the articles which fall from above; a transverse sealing mechanism that forms a transversely sealed part in the film tube with each cycle; a cutting mechanism that cuts the film tube in the transversely sealed part with each cycle; a jamming setting storage unit for storing settings pertaining to normal and abnormal article fall timings; a prediction unit that predicts whether or not jamming of the articles could occur in the transverse sealing mechanism with each cycle by comparing the output of the article sensor with the timings stored in the jamming setting storage unit; wherein when the prediction unit has predicted that the jamming could occur in a certain cycle, the cutting mechanism does not cut the film tube in that certain cycle. a longitudinal sealing mechanism that forms a film tube from the film; a guide that guides the articles which fall from above into the film tube; an article sensor that senses the articles which fall from above; a transverse sealing mechanism that forms a transversely sealed part in the film tube with each cycle; a cutting mechanism that cuts the film tube in the transversely sealed part with each cycle; a jamming setting storage unit for storing settings pertaining to normal and abnormal article fall timings; a prediction unit that predicts whether or not jamming of the articles could occur in the transverse sealing mechanism with each cycle by comparing the output of the article sensor with the timings stored in the jamming setting storage unit; wherein when the prediction unit has predicted that the jamming could occur in a certain cycle, the cutting mechanism does not cut the film tube in that certain cycle.
Method for detecting bubbles and/or creases on labeled containers, comprising the following steps: a) illuminating a label to be examined with a first flash of light under incident light and recording a first camera image of the label thus illuminated; b) illuminating the label with at least a second flash of light under incident light with a directional characteristic that differs from step a) and recording at least a second camera image of the label thus illuminated; and c) calculating at least one brightness difference between the first and second camera image (B1, B2), wherein diffuse illumination is sequentially combined with directional illumination (7, 8) taking place at an angle from above and/or at an angle from below onto the label such that casting shadows and/or brightening occur at the bubbles / creases with the directional illumination (7, 8), in particular with regard to a label print, but not with diffuse illumination. a) illuminating a label to be examined with a first flash of light under incident light and recording a first camera image of the label thus illuminated; b) illuminating the label with at least a second flash of light under incident light with a directional characteristic that differs from step a) and recording at least a second camera image of the label thus illuminated; and c) calculating at least one brightness difference between the first and second camera image (B1, B2), wherein diffuse illumination is sequentially combined with directional illumination (7, 8) taking place at an angle from above and/or at an angle from below onto the label such that casting shadows and/or brightening occur at the bubbles / creases with the directional illumination (7, 8), in particular with regard to a label print, but not with diffuse illumination.
A supercritical drying method for silica wet gel blanket rolls using first and second supercritical extractors in a single system, the method comprising: placing a first silica wet gel blanket roll inside the first supercritical extractor and placing a second silica wet gel blanket roll inside the second supercritical extractor; (a) supplying carbon dioxide to the first supercritical extractor and not supplying carbon dioxide to the second supercritical extractor; and (b) not supplying carbon dioxide to the first supercritical extractor and supplying carbon dioxide to the second supercritical extractor, wherein the steps (a) and (b) are performed alternately at least two times each. placing a first silica wet gel blanket roll inside the first supercritical extractor and placing a second silica wet gel blanket roll inside the second supercritical extractor; (a) supplying carbon dioxide to the first supercritical extractor and not supplying carbon dioxide to the second supercritical extractor; and (b) not supplying carbon dioxide to the first supercritical extractor and supplying carbon dioxide to the second supercritical extractor, (a) supplying carbon dioxide to the first supercritical extractor and not supplying carbon dioxide to the second supercritical extractor; and (b) not supplying carbon dioxide to the first supercritical extractor and supplying carbon dioxide to the second supercritical extractor, wherein the steps (a) and (b) are performed alternately at least two times each.
A device for delivering and deploying an implant at a desired location in a lumen of a body, comprising: an elongated sheath configured for introduction through a working channel of a cystoscope, the elongated sheath having an atraumatic tip at a distal end; a handle secured to a proximal end of the elongated sheath; a pusher coaxially disposed within the elongated sheath; an advancement knob on the handle for adjusting a working length of the elongated sheath and implant deployment location; and a deployment actuator associated with the handle and coupled to the pusher, wherein manipulation of the deployment actuator results in relative motion between the pusher and the elongated sheath to cause an implant maintained in a constrained configuration within the elongated sheath adjacent the atraumatic tip to be driven out the atraumatic tip of the elongated sheath. an elongated sheath configured for introduction through a working channel of a cystoscope, the elongated sheath having an atraumatic tip at a distal end; a handle secured to a proximal end of the elongated sheath; a pusher coaxially disposed within the elongated sheath; an advancement knob on the handle for adjusting a working length of the elongated sheath and implant deployment location; and a deployment actuator associated with the handle and coupled to the pusher, wherein manipulation of the deployment actuator results in relative motion between the pusher and the elongated sheath to cause an implant maintained in a constrained configuration within the elongated sheath adjacent the atraumatic tip to be driven out the atraumatic tip of the elongated sheath.
A polyester film comprising ethylene glycol component that accounts for 60 mol% or more of the glycol components in the polyester film, the film containing a crystal nucleating agent in an amount of from 0.01 to 5 mass% relative to the entire polyester film that accounts for 100 mass%, characterized in that the film has a crystal melting energy, ΔHm, of 5 to 35 J/g, defined as the heat quantity of the endothermic peak taking place during melting at a heating rate of 20 °C/min determined by differential scanning calorimetry according to JIS K7121-1987 and JIS K7122-1987, a plane orientation coefficient in the range of 0.02 to 0.13, defined based on the refractive index of film measured with an Abbe refractometer and expressed by the following equation: fn = n MD + n TD / 2 − n ZD, where n MD, n TD and n ZD represent the refractive index in the length direction of the film, the refractive index in the width direction, and the refractive index in the thickness direction, respectively, and the crystal nucleating agent is selected from the group consisting of aliphatic carboxylic acid amides, aliphatic carboxylic salts and sorbitol compounds.
A recombinant host cell capable of producing xylitol, wherein said host cell comprises: an heterologous nucleic acid sequence encoding a NAD + -specific D-arabitol 4-oxidoreductase (EC 1.1.1.11) using D-arabitol as substrate and producing D-xylulose as product; and, an heterologous nucleic acid sequence encoding a NADPH-specific xylitol dehydrogenase using D-xylulose as substrate and producing xylitol as product, wherein the host cell produces D-arabitol from D-glucose, in particular under high osmotic pressure medium, and it does not consume D-arabitol as a sole carbon source. an heterologous nucleic acid sequence encoding a NAD + -specific D-arabitol 4-oxidoreductase (EC 1.1.1.11) using D-arabitol as substrate and producing D-xylulose as product; and, an heterologous nucleic acid sequence encoding a NADPH-specific xylitol dehydrogenase using D-xylulose as substrate and producing xylitol as product, wherein the host cell produces D-arabitol from D-glucose, in particular under high osmotic pressure medium, and it does not consume D-arabitol as a sole carbon source.
Carriage having a lift-out protection device for a leaf, which can be moved in a parallel manner, in the form of a sliding and tilting leaf system or sliding leaf system of a window or door, wherein the leaf in the form of a sliding and tilting leaf system allows a tilting in a closed position, in which the leaf rests against the frame, and can be converted from the closed position into a position in which in the leaf is located parallel to a frame by means of at least one carriage having at least two rollers and a bearing point for supporting an extension arm in a pivotal manner, and when the leaf is located in the parallel position such that the carriage is guided in a carriage rail, allows a sliding movement, wherein at least one lift-out protection device can be connected at an end of the carriage and is guided movably in the carriage rail in a form-fitting manner by the carriage, with a securing anchor in the carriage rail, said anchor being arranged on the lift-out protection device, engaging in an undercut which is formed into a U-shape by a support shoulder and securing the leaf when located in the closed position, in the parallel position and in the tilted open position, characterised in that the lift-out protection device in the closed position, in the parallel movable position and in the tilted position of the leaf of the window or of the door mounted on the carriage is positioned without change relative to the carriage rail, with the carriage being connected in a pivotal manner by a recess comprised in its carriage housing with an extension of the lift-out protection device as far as the tilted position, and with the cross-section of the recess being configured in a tapering manner from the upper side to the lower side of the carriage housing.
A method for firing a green honeycomb ceramic body, the method comprising: heating the green honeycomb ceramic body from room temperature to a first temperature of less than or equal to about 350°C, wherein heating the green honeycomb ceramic body from room temperature to the first temperature comprises a heating rate of from about 80°C/hr to about 300°C/hr; heating the green honeycomb ceramic body from the first temperature to a second temperature of greater than or equal to about 800°C, wherein heating the green honeycomb ceramic body from the first temperature to the second temperature comprises a heating rate of from about 90°C/hr to about 300°C/hr; and heating the green honeycomb ceramic body from the second temperature to a third temperature of greater than or equal to about 1000°C, wherein the green honeycomb ceramic body has a diameter of from greater than or equal to about 10.16 cm (4.0 inches) to less than or equal to about 22.86 cm (9.0 inches), wherein the green honeycomb ceramic body comprises a carbon-based pore former in a concentration of from greater than or equal to about 10% to less than or equal to about 48% by weight, and wherein the green honeycomb ceramic body comprises aluminum raw materials for forming an aluminum titanate ceramic body; characterized by heating the green honeycomb ceramic body from the second temperature to the third temperature comprises heating the green honeycomb ceramic body at a heating rate of less than or equal to about 15°C/hr. heating the green honeycomb ceramic body from room temperature to a first temperature of less than or equal to about 350°C, wherein heating the green honeycomb ceramic body from room temperature to the first temperature comprises a heating rate of from about 80°C/hr to about 300°C/hr; heating the green honeycomb ceramic body from the first temperature to a second temperature of greater than or equal to about 800°C, wherein heating the green honeycomb ceramic body from the first temperature to the second temperature comprises a heating rate of from about 90°C/hr to about 300°C/hr; and heating the green honeycomb ceramic body from the second temperature to a third temperature of greater than or equal to about 1000°C, wherein the green honeycomb ceramic body has a diameter of from greater than or equal to about 10.16 cm (4.0 inches) to less than or equal to about 22.86 cm (9.0 inches), wherein the green honeycomb ceramic body comprises a carbon-based pore former in a concentration of from greater than or equal to about 10% to less than or equal to about 48% by weight, and wherein the green honeycomb ceramic body comprises aluminum raw materials for forming an aluminum titanate ceramic body; characterized by heating the green honeycomb ceramic body from the second temperature to the third temperature comprises heating the green honeycomb ceramic body at a heating rate of less than or equal to about 15°C/hr.
A nutritional supplement composition for tableting comprising a matrix with embedded lubrication, wherein the matrix with embedded lubrication comprises equal parts by weight of Vitamin E as an oily liquid and a base material of equal parts of modified food starch and maltodextrin as an oil insoluble material, wherein the oily liquid is finely dispersed in the oil insoluble material, and the matrix with embedded lubrication further including 0.2 to 2.5% of silicon dioxide as a processing aid; and wherein the nutritional supplement composition comprises less than 0.01 wt% stearate.
Cough syrup comprising ambroxol hydrochloride, characterized in that this contains less than 0.5 g of glycerol per 100 ml of cough syrup, less than 1 g of sugar alcohols per 100 ml of cough syrup, and hydroxyethyl cellulose as thickening agent.
A sealing plug arrangement for sealing a combined filling and degassing opening of an accumulator, wherein the sealing plug arrangement comprises at least one valve part, valve holder and sealing plug, wherein the valve part is arranged on the valve holder and, together with the valve holder, forms a valve mechanism for sealing at least one internal space (34, 35) of the accumulator from the surrounding area which is able to open upon pressure being applied, wherein the sealing plug comprises at least one fixing means for attaching to the filling and degassing opening and at the same time subjecting the valve part to a pretensioning force toward the valve holder, characterized in that the valve holder comprises at least one projection on a surface facing the valve part formed as a circumferential sealing edge axially projecting toward the valve part on which the valve part rests.
An avalanche photodetector, comprising a substrate and a device structure layer on the substrate; wherein the device structure layer at least comprises a charge layer, a transition layer, an absorption layer and a first electrode contact layer which are arranged in sequence upward in a direction perpendicular to a plane of the substrate; wherein, the charge layer is a layer of a first semiconductor material having a first doping type; the transition layer is epitaxially grown on the charge layer, and is an intrinsic layer; the absorption layer is epitaxially grown on a first region of the transition layer, and is an intrinsic layer of a second semiconductor material; the first electrode contact layer is epitaxially grown on a second region of the transition layer, and has a height higher than a height of the absorption layer so that the first electrode contact layer covers the absorption layer; and the first electrode contact layer is a layer of the first semiconductor material; and a material of the transition layer is a composite material of the first semiconductor material and the second semiconductor material. the charge layer is a layer of a first semiconductor material having a first doping type; the transition layer is epitaxially grown on the charge layer, and is an intrinsic layer; the absorption layer is epitaxially grown on a first region of the transition layer, and is an intrinsic layer of a second semiconductor material; the first electrode contact layer is epitaxially grown on a second region of the transition layer, and has a height higher than a height of the absorption layer so that the first electrode contact layer covers the absorption layer; and the first electrode contact layer is a layer of the first semiconductor material; and a material of the transition layer is a composite material of the first semiconductor material and the second semiconductor material.
A method for manufacturing a power interface, comprising: S10: providing a pin workblank, wherein the pin workblank comprises a first surface and a second surface adjacent to each other; S20: performing a fine blanking process for the first surface in a predetermined blanking direction (a), wherein the second surface has burrs formed thereon; characterized in that, after the step S20, the method further comprises: S30: adjusting a position of the pin workblank, performing another fine blanking process for the second surface adjacent to the first surface in the predetermined blanking direction (a), thereby forming a power pin of the power interface, to omit a process of removing the burrs on the second surface. S10: providing a pin workblank, wherein the pin workblank comprises a first surface and a second surface adjacent to each other; S20: performing a fine blanking process for the first surface in a predetermined blanking direction (a), wherein the second surface has burrs formed thereon; characterized in that, after the step S20, the method further comprises: S30: adjusting a position of the pin workblank, performing another fine blanking process for the second surface adjacent to the first surface in the predetermined blanking direction (a), thereby forming a power pin of the power interface, to omit a process of removing the burrs on the second surface.