mhurhangee/ep-ind-claims huggingface dataset:
A sterile barrier assembly comprising: a base member, a securing member and a barrier membrane securely interposed between the base member and the securing member, the base member and securing member defining a cavity with the barrier membrane partitioning the cavity into a sterile and a non-sterile side; a tab having a first and a second portion (176 a, 176 b) with the barrier member interposed between the first and second portions of the tab, the tab being slideable along a sliding path in the cavity of the sterile barrier assembly, the barrier membrane at least partially moving with the tab as the tab slides along the sliding path, and being securely movable with the first and second portion of the tab while providing a hermetic seal between the sterile side and the non-sterile side, wherein the first portion of the tab interfaces with an output of a surgical tool driving unit on the non-sterile side, and the second portion of the tab interfaces with a tool driver of a surgical tool on the sterile side, characterised in that the second portion includes an elongated element extending into a longitudinal channel in the sterile barrier assembly, the tab and elongated element sliding in a longitudinal direction of the channel that is collinear with the barrier membrane, the elongated element including an engaging portion configured to facilitate engagement of the tab with a mechanical tool drive interface. a base member, a securing member and a barrier membrane securely interposed between the base member and the securing member, the base member and securing member defining a cavity with the barrier membrane partitioning the cavity into a sterile and a non-sterile side; a tab having a first and a second portion (176 a, 176 b) with the barrier member interposed between the first and second portions of the tab, the tab being slideable along a sliding path in the cavity of the sterile barrier assembly, the barrier membrane at least partially moving with the tab as the tab slides along the sliding path, and being securely movable with the first and second portion of the tab while providing a hermetic seal between the sterile side and the non-sterile side, wherein the first portion of the tab interfaces with an output of a surgical tool driving unit on the non-sterile side, and the second portion of the tab interfaces with a tool driver of a surgical tool on the sterile side, characterised in that the second portion includes an elongated element extending into a longitudinal channel in the sterile barrier assembly, the tab and elongated element sliding in a longitudinal direction of the channel that is collinear with the barrier membrane, the elongated element including an engaging portion configured to facilitate engagement of the tab with a mechanical tool drive interface.
Percolation-type filtration device comprising a divider that divides the device into an upper basin, which collects water to be filtered, and a lower basin that collects filtered water, the two basins (4a, b) communicating with one another via a duct defined in said divider, said duct forming a seat for receiving a filter cartridge, a valve passage being defined in said divider and comprising a flow shut-off valve for selectively allowing/preventing the passage of liquid between the upper basin and the lower basin, said flow shut-off valve being designed to be opened by rotating a relative shutter, said valve passage comprising a closure portion on which said shutter rests when closed, wherein said shutter is rotatable around an axis of rotation parallel to said valve passage, said flow shut-off valve being designed such that it can be opened by rotating the shutter around said axis of rotation, characterised in that said device comprises an abutting element configured to prevent an axial translational movement of the shutter along said axis of rotation away from the closure portion of the valve passage when said shutter is closed.
A fertiliser composition comprising: a. a product obtained at least partially by sewage sludge pyrolysis; b. at least one species of phosphate solubilising bacteria of the genus Pseudomonas; c. spores of arbuscular mycorrhizal fungi Glomus deserticola, Glomus intraradices and Glomus mosseae; and d. at least one fertilising component selected from the group consisting of vermicompost extract, humic acids, compost extract, plant or animal manure extract, freshwater or marine algae extract or yeast extract; characterised in that the phosphate solubilising bacteria are Pseudomonas putida and Pseudomonas fluorescens. a. a product obtained at least partially by sewage sludge pyrolysis; b. at least one species of phosphate solubilising bacteria of the genus Pseudomonas; c. spores of arbuscular mycorrhizal fungi Glomus deserticola, Glomus intraradices and Glomus mosseae; and d. at least one fertilising component selected from the group consisting of vermicompost extract, humic acids, compost extract, plant or animal manure extract, freshwater or marine algae extract or yeast extract;
Method for converting a continuous rotational motion in a translatory motion, which reverses continuously with respect to its motion direction, comprising the steps of: a) generating a continuous rotational motion of a first component in a first rotation direction about a first rotation axis; b) converting the continuous rotational motion of the first component via a first coupling arrangement (2, 6, 8) in a rotational motion, which reverses continuously with respect to its rotational direction about a second rotation axis, of a second component; and c) converting the rotational motion, which reverses continuously with respect to its rotation direction, of the second component via a second coupling arrangement (5, 9) in a translatory motion, which reverses continuously with respect to its motion direction, of a third component, characterized in that the conversion is carried out in such a way that a first one of the reversal points of the translatory motion, which reverses continuously with respect to its motion direction, of the third component is reached each time when the second component assumes a certain rotational position between the two reversal points of its rotational motion which reverses continuously. a) generating a continuous rotational motion of a first component in a first rotation direction about a first rotation axis; b) converting the continuous rotational motion of the first component via a first coupling arrangement (2, 6, 8) in a rotational motion, which reverses continuously with respect to its rotational direction about a second rotation axis, of a second component; and c) converting the rotational motion, which reverses continuously with respect to its rotation direction, of the second component via a second coupling arrangement (5, 9) in a translatory motion, which reverses continuously with respect to its motion direction, of a third component,
An apparatus for generating a relief carrier using a solidifiable material, said apparatus comprising: - a support structure configured for providing a substantially cylindrical support surface, wherein the support surface may be formed by a substrate intended to be part of the relief carrier to be generated or by a cylindrical support not intended to be part of the relief carrier to be generated; - a container for receiving the solidifiable material, said container having a wall arranged substantially parallel to an axis of the support structure, such that the support surface is at a determined distance (t) of the wall; - a moving means configured to move the support structure relative to the wall, such that subsequent areas (Z1, Z2) of the support surface face the wall during the moving; - an irradiating means configured to send irradiation, through said wall, in a predetermined area between the support surface and the wall to solidify the solidifiable material at the support surface; wherein the wall is configured to allow said irradiation to pass through the wall. characterized in that the moving comprises at least a rotation around the axis. - a support structure configured for providing a substantially cylindrical support surface, wherein the support surface may be formed by a substrate intended to be part of the relief carrier to be generated or by a cylindrical support not intended to be part of the relief carrier to be generated; - a container for receiving the solidifiable material, said container having a wall arranged substantially parallel to an axis of the support structure, such that the support surface is at a determined distance (t) of the wall; - a moving means configured to move the support structure relative to the wall, such that subsequent areas (Z1, Z2) of the support surface face the wall during the moving; - an irradiating means configured to send irradiation, through said wall, in a predetermined area between the support surface and the wall to solidify the solidifiable material at the support surface; wherein the wall is configured to allow said irradiation to pass through the wall.
A cable guide comprising links that are angle-adjustable multi-axially relative to each other, connected to each other in articulated fashion and arranged successively in the longitudinal direction of the cable guide, wherein each link has an inner part with corresponding multi-axially angle-adjustable articulation connectors (5, 6) and a casing part for peripheral delimitation of at least one guide channel, wherein the casing part encompasses at least one segment, which is connected to the inner part by a web, in a manner permitting it to be pivoted open in order to make an associated guide channel accessible on the peripheral side, characterised in that the casing parts of adjacent links overlap in the longitudinal direction, and in that a joint arrangement with at least two degrees of freedom is provided between the at least one segment and the web, by means of which the segment, can be pivoted over an adjacent in addition to the pivotal opening movement.
A method of bend-breaking a glass plate for bend-breaking and separating an edge portion by causing a pressing body to partially press the edge portion located between a peripheral edge of the glass plate and a cut line formed on the glass plate, comprising the steps of: causing the pressing body to slidingly move or rotatingly move at a predetermined bend-breaking position of the edge portion in a direction oriented from the cut line toward the peripheral edge of the glass plate while the edge portion is being pressed by the pressing body so that a line of contact between the pressing body and the glass plate becomes substantially parallel to the cut line.
Signal transformation circuitry (700; 800), comprising: a first transform module configured to transform, using a nonlinear Fourier transform, a time domain signal to a complex frequency domain signal, wherein the complex frequency domain signal comprises a complex-valued spectral part comprising one or more complex frequencies; and a second transform module configured to perform an inverse nonlinear Fourier transform based on a non-zero imaginary part of the complex frequency domain signal to obtain a modified time domain signal, and configured to perform the inverse nonlinear Fourier transform based on one or more complex frequencies in the upper or lower complex half-plane. a first transform module configured to transform, using a nonlinear Fourier transform, a time domain signal to a complex frequency domain signal, wherein the complex frequency domain signal comprises a complex-valued spectral part comprising one or more complex frequencies; and a second transform module configured to perform an inverse nonlinear Fourier transform based on a non-zero imaginary part of the complex frequency domain signal to obtain a modified time domain signal, and configured to perform the inverse nonlinear Fourier transform based on one or more complex frequencies in the upper or lower complex half-plane.
An ion guide comprising: a plurality of curved electrodes arranged in parallel with each other and with a central curved axis, the curved central axis being co-extensive with an arc of a circular section having a radius of curvature, each electrode being radially spaced from the curved central axis, wherein the plurality of electrodes define a curved ion guide region arranged about the curved central axis and between opposing pairs of the electrodes; and an ion deflecting device (652, 654) configured for applying a radial DC electric field across the ion guide region and along the radius of curvature; wherein an axial DC voltage source configured for applying an axial DC electric field along the curved central axis; wherein the plurality of curved electrodes comprises a first pair of opposing, interconnected ion guiding electrodes (602, 608) and a second pair of opposing, interconnected ion guiding electrodes (604. 606), and the ion deflecting device comprises a pair of opposing, curved ion deflecting electrodes (652, 654), the ion deflecting electrodes being arranged in parallel with each other and with the curved central axis and positioned along the direction of the radius of curvature; and an RF voltage generator (702; 704) communicating with at least one opposing pair of the plurality of electrodes for generating an electric RF field across the ion guide region for focusing ions generally to the curved central axis. a plurality of curved electrodes arranged in parallel with each other and with a central curved axis, the curved central axis being co-extensive with an arc of a circular section having a radius of curvature, each electrode being radially spaced from the curved central axis, wherein the plurality of electrodes define a curved ion guide region arranged about the curved central axis and between opposing pairs of the electrodes; and an ion deflecting device (652, 654) configured for applying a radial DC electric field across the ion guide region and along the radius of curvature; wherein an axial DC voltage source configured for applying an axial DC electric field along the curved central axis; wherein the plurality of curved electrodes comprises a first pair of opposing, interconnected ion guiding electrodes (602, 608) and a second pair of opposing, interconnected ion guiding electrodes (604. 606), and the ion deflecting device comprises a pair of opposing, curved ion deflecting electrodes (652, 654), the ion deflecting electrodes being arranged in parallel with each other and with the curved central axis and positioned along the direction of the radius of curvature; and an RF voltage generator (702; 704) communicating with at least one opposing pair of the plurality of electrodes for generating an electric RF field across the ion guide region for focusing ions generally to the curved central axis.
A drawer side wall, in particular a double-walled drawer side wall, comprising an outer wall which has an outwardly disposed viewing surface and a rear side facing away from the viewing surface, and a cover means having fixing means (8a, 8b), by means of which it can be fixed to the rear side of the outer wall, wherein a viewing portion of the cover means bears with its rearward side against the outer wall, wherein two spaced separate recesses (9a, 9b) are provided at the rear side of the outer wall and the fixing means of the cover means include two elastically resilient separate clamping lugs (8a, 8b), each of which engages into an associated recess (9a, 9b) for fixing the cover cap reliably in position to the drawer side wall, wherein at its lower longitudinal edge the outer wall is flanged over in a substantially U-shaped configuration and the recesses (9a, 9b) are provided on the flanged-over portion.
A method for producing ethanol with fermentation comprising: a) fermenting a fermentable mash in the presence of stabilized chloramine and yeast in a vessel to produce ethanol and a solids content; and b) distilling the fermented mash to separate at least a portion of the ethanol from the solids content of the fermented mash. a) fermenting a fermentable mash in the presence of stabilized chloramine and yeast in a vessel to produce ethanol and a solids content; and b) distilling the fermented mash to separate at least a portion of the ethanol from the solids content of the fermented mash.
A head structure of a brush appliance, comprising: a frame movably connected with a head driving shaft; at least one driving bristle retainer (23-1, 23-2, 23-3, 23-4) connected with the head driving shaft and driven by the head driving shaft, designed to receive bristles (25, 27) mounted on them; and one or more driven bristle retainers (21-1, 21-2, 21-3), which and the driving bristle retainers (23-1, 23-2, 23-3, 23-4) are alternatively arranged with each other, and designed to receive bristles (25, 27) mounted on it/them, wherein, the one or more driven bristle retainers is/are driven by the driving bristle retainers under the constraint of the frame to move around their respective movement axes; at least one of the driving bristles retainers has at least one protrusion (233, 234, 235, 236) on an end surface along its longitudinal axis, and the one or more driven bristle retainers has/have at least one bevel face (213, 214, 215, 216) that cooperates with the protrusions on its/ their end surfaces where the one or more driven bristle retainers is/are driven by the driving bristle retainers; and at least one driven point on at least one of the at least one bevel face is closer to the driving bristle retainer than the contact point, contact line, or contact plane between the bevel face and the corresponding protrusion, such that the driven bristle retainer (21-1, 21-2, 21-3) is driven by the driving bristle retainer (23-1, 23-2, 23-3, 23-4) in the movement process. a frame movably connected with a head driving shaft; at least one driving bristle retainer (23-1, 23-2, 23-3, 23-4) connected with the head driving shaft and driven by the head driving shaft, designed to receive bristles (25, 27) mounted on them; and one or more driven bristle retainers (21-1, 21-2, 21-3), which and the driving bristle retainers (23-1, 23-2, 23-3, 23-4) are alternatively arranged with each other, and designed to receive bristles (25, 27) mounted on it/them, wherein, the one or more driven bristle retainers is/are driven by the driving bristle retainers under the constraint of the frame to move around their respective movement axes; at least one of the driving bristles retainers has at least one protrusion (233, 234, 235, 236) on an end surface along its longitudinal axis, and the one or more driven bristle retainers has/have at least one bevel face (213, 214, 215, 216) that cooperates with the protrusions on its/ their end surfaces where the one or more driven bristle retainers is/are driven by the driving bristle retainers; and at least one driven point on at least one of the at least one bevel face is closer to the driving bristle retainer than the contact point, contact line, or contact plane between the bevel face and the corresponding protrusion, such that the driven bristle retainer (21-1, 21-2, 21-3) is driven by the driving bristle retainer (23-1, 23-2, 23-3, 23-4) in the movement process.
A multilayer extruded film comprising at least one exposed layer, said at least one exposed layer comprising: a blend of a polyolefin and an adsorbent silica gel, the adsorbent silica gel including pores having a diameter greater than 30 angstroms, calculated according to the description, wherein: said adsorbent silica gel is present in the range of 5 to 30% by weight of said blend in said at least one exposed layer; said polyolefin is one or more polymers selected from the group consisting of polypropylene, propylene/ethylene copolymer, propylene/ethylene/butene terpolymer, maleated polypropylene and blends thereof; said at least one exposed layer while exposed has a water contact angle of at least 100 degrees, measured according to the description; and a surface tension of at least 35*10 -5 N (35 dynes) as measured using the method set out in ASTM D2578-09; and the multilayer extruded film is oriented in at least one direction, causing fracturing of said exposed layer. a blend of a polyolefin and an adsorbent silica gel, the adsorbent silica gel including pores having a diameter greater than 30 angstroms, calculated according to the description, wherein: said adsorbent silica gel is present in the range of 5 to 30% by weight of said blend in said at least one exposed layer; said polyolefin is one or more polymers selected from the group consisting of polypropylene, propylene/ethylene copolymer, propylene/ethylene/butene terpolymer, maleated polypropylene and blends thereof; said at least one exposed layer while exposed has a water contact angle of at least 100 degrees, measured according to the description; and a surface tension of at least 35*10 -5 N (35 dynes) as measured using the method set out in ASTM D2578-09; and the multilayer extruded film is oriented in at least one direction, causing fracturing of said exposed layer.
A head-up display device, wherein the head-up display device comprises a plurality of light sources arrayed in matrix in a first direction and a second direction orthogonal to the first direction on a substrate, and a lens unit in which convex lens portions which collect radiant light radiated from the light sources are formed opposing each light source, the plurality of light sources are arranged at a first arrangement interval in the first direction and are arranged at a second arrangement interval, which is smaller than the first arrangement interval, in the second direction, the lens unit includes a first connection portion and a second connection portion formed at boundaries of the adjacent convex lens portions, the first connection portion (b) extends in the first direction, the second connection portion (a) extends in the second direction, and a width of a short direction of the first connection portion (b) is larger than a width of a short direction of the second connection portion (a), characterised in that: the substrate has a round hole used for positioning, and an elongated hole used for positioning formed elongated towards the round hole, the lens unit has a first positioning pin fitted into the round hole and a second positioning pin fitted into the elongated hole, and a gap is formed between the elongated hole and the second positioning pin fitted into the elongated hole. the substrate has a round hole used for positioning, and an elongated hole used for positioning formed elongated towards the round hole, the lens unit has a first positioning pin fitted into the round hole and a second positioning pin fitted into the elongated hole, and a gap is formed between the elongated hole and the second positioning pin fitted into the elongated hole.