mhurhangee/ep-ind-claims huggingface dataset:
A pane module adapted to be installed on a sash and comprising a pane element and a border element, where the pane element includes at least two sheet elements, such as sheets of glass, separated by one or more spacer members, where an interior side of the pane element is intended to face the interior of a building in the mounted state and defines a pane plane, where the border element surrounds the pane element, at least partially encasing an edge of at least one sheet element, where the border element is made by moulding and attached to the pane element during the moulding process, and where the border element includes a contact surface adapted for being connected to a contact surface of the sash, wherein the contact surface of the border element is adapted for being connected to the contact surface of the sash by means of an adhesive or glue, that the border element includes one or more elongate support member(s), and that the border element comprises guiding elements (43a, 43b) projecting from the contact surface of the border element substantially perpendicularly to the pane plane, said guiding elements being adapted for being inserted in openings in the contact surface of the sash, where the guiding elements (43a, 43b) project through holes in the one or more elongate support members, where the one or more elongate support members extend substantially along the entire length and/or width of the pane element, characterized in that the one or more elongate support members is/are embedded in the material of the border element. where the pane element includes at least two sheet elements, such as sheets of glass, separated by one or more spacer members, where an interior side of the pane element is intended to face the interior of a building in the mounted state and defines a pane plane, where the border element surrounds the pane element, at least partially encasing an edge of at least one sheet element, where the border element is made by moulding and attached to the pane element during the moulding process, and where the border element includes a contact surface adapted for being connected to a contact surface of the sash, wherein the contact surface of the border element is adapted for being connected to the contact surface of the sash by means of an adhesive or glue, that the border element includes one or more elongate support member(s), and that the border element comprises guiding elements (43a, 43b) projecting from the contact surface of the border element substantially perpendicularly to the pane plane, said guiding elements being adapted for being inserted in openings in the contact surface of the sash, where the guiding elements (43a, 43b) project through holes in the one or more elongate support members, where the one or more elongate support members extend substantially along the entire length and/or width of the pane element, characterized in that the one or more elongate support members is/are embedded in the material of the border element.
A turbine assembly method, the method comprising: placing a middle layer between a first and second outer member, wherein the middle layer comprises a non-continuous layer of material and the first and second outer members each comprise a member of continuous material; welding a primary joint between the middle layer, first outer member and second outer member, the primary joint extending through the first outer member, the middle layer and at least a portion of the second outer member; the method characterised in that the turbine assembly method further comprising: welding a secondary joint between the middle layer and first outer member, the secondary joint extending through the first outer member and at least a portion of the middle layer: wherein welding the secondary joint comprises forming the secondary joint to overlap at least a portion of the primary joint; comprising welding a tertiary joint between the middle layer and first outer member, the tertiary joint extending through the first outer member and at least a portion of the middle layer; and wherein the tertiary joint overlaps at least a portion of the primary joint. placing a middle layer between a first and second outer member, wherein the middle layer comprises a non-continuous layer of material and the first and second outer members each comprise a member of continuous material; welding a primary joint between the middle layer, first outer member and second outer member, the primary joint extending through the first outer member, the middle layer and at least a portion of the second outer member; the method characterised in that the turbine assembly method further comprising: welding a secondary joint between the middle layer and first outer member, the secondary joint extending through the first outer member and at least a portion of the middle layer: wherein welding the secondary joint comprises forming the secondary joint to overlap at least a portion of the primary joint; comprising welding a tertiary joint between the middle layer and first outer member, the tertiary joint extending through the first outer member and at least a portion of the middle layer; and wherein the tertiary joint overlaps at least a portion of the primary joint. wherein welding the secondary joint comprises forming the secondary joint to overlap at least a portion of the primary joint; comprising welding a tertiary joint between the middle layer and first outer member, the tertiary joint extending through the first outer member and at least a portion of the middle layer; and wherein the tertiary joint overlaps at least a portion of the primary joint.
A method of manufacturing a substrate having a plurality of micro-channels formed therein, the method comprising: providing a suspension containing a substrate material in particulate form and a polymer in a first solvent, wherein the suspension optionally comprises a catalytically active material; introducing the suspension into a mould or extruding the suspension; contacting the suspension with a second solvent to remove at least some of the first solvent from the suspension and thereby form a green body having micro-channels from said substrate material and said polymer; removing at least a portion of a surface layer of said green body; and sintering the green body, wherein the step of removing a layer of material comprises removing material to uncover openings in the outer surface of the green body, and wherein the openings have widths falling in the range 5 μm to 200 μm, further preferably wherein the step of removing a layer of material is carried out using a blade, or using an abrasive or by sanding, optionally further comprising coating at least a portion of the substrate with a catalytically active coating. providing a suspension containing a substrate material in particulate form and a polymer in a first solvent, wherein the suspension optionally comprises a catalytically active material; introducing the suspension into a mould or extruding the suspension; contacting the suspension with a second solvent to remove at least some of the first solvent from the suspension and thereby form a green body having micro-channels from said substrate material and said polymer; removing at least a portion of a surface layer of said green body; and sintering the green body, wherein the step of removing a layer of material comprises removing material to uncover openings in the outer surface of the green body, and wherein the openings have widths falling in the range 5 μm to 200 μm, further preferably wherein the step of removing a layer of material is carried out using a blade, or using an abrasive or by sanding, optionally further comprising coating at least a portion of the substrate with a catalytically active coating.
A medical peristaltic pump comprising a pump housing in which a tube mounting case is formed/inserted in which a pump head is rotatably supported, and comprising a tube unit consisting of a flexible tube and a beam-type tube fixture for holding the tube at two positions longitudinally spaced apart from the tube, the tube unit being insertable or inserted into the tube mounting case so that by displacing the tube fixture or the pump head, the tube enters into tensioning engagement with the pump head while at least partially enclosing the same, as well as comprising a tensioning device arranged at the pump housing or at the tube mounting case in the form of a lever mechanism for tensioning displacement of the tube fixture or of the pump head by at least one lever element, characterized in that a clamping or locking means is provided on the lever element which upon reaching a tube tensioning position engages in a counter-clamping or locking means arranged on the tube fixture for locking the tube fixture and the tensioning device.
A sintering furnace for components made of a sintered material, in particular for dental components, and in particular for components made of ceramic, comprising a heatable furnace chamber for the component to be sintered, the furnace chamber having an openable wall section for introducing the component to be sintered into the furnace chamber, wherein a controller is provided, by means of which the heating of the furnace chamber by means of a heating device for the furnace chamber is controlled, characterised in that the controller has means (31, 32) with which to detect the duration of a loading sequence with the steps of opening, holding and closing the wall section, each with the furnace chamber heated, individually or as a whole, and/or to detect the temperature drop in the furnace chamber during the steps, again individually or as a whole, and in that, in the controller, a plurality of predetermined temperature profiles, subsequent to the loading sequence, are stored for a subsequent sintering process for the furnace chamber, of which a suitable temperature profile is selectable automatically from a memory area by means of selection or comparison means provided in the controller, depending on the duration of the steps, individually or as a whole, and/or the temperature drop in the furnace chamber during the steps, again individually or as a whole.
An apparatus for generating a plurality of parametric audio streams (θ i, Ψ i, W i) from an input spatial audio signal obtained from a recording in a recording space, wherein the apparatus comprises: a segmentor for generating at least two input segmental audio signals (W i, X i, Y i, Z i) from the input spatial audio signal; wherein the segmentor is configured to generate the at least two input segmental audio signals (W i, X i, Y i, Z i) depending on corresponding segments (Seg i) of the recording space, wherein the segments (Seg i) of the recording space each represent a subset of directions within a two-dimensional plane or within a three-dimensional space, and wherein the segments (Seg i) are different from each other; and a generator for generating a parametric audio stream for each of the at least two input segmental audio signals (W i, X i, Y i, Z i) to obtain the plurality of parametric audio streams (θ i, Ψ i, W i), so that the plurality of parametric audio streams (θ i, Ψ i, W i) each comprise a component (W i) of the at least two input segmental audio signals (W i, X i, Y i, Z i) and a corresponding parametric spatial information (θ i, Ψ i), wherein the parametric spatial information (θ i, Ψ i) of each of the parametric audio steams (θ i, Ψ i, W i) comprises direction-of-arrival parameter (θ i) and/or a diffuseness parameter (Ψ i). a segmentor for generating at least two input segmental audio signals (W i, X i, Y i, Z i) from the input spatial audio signal; wherein the segmentor is configured to generate the at least two input segmental audio signals (W i, X i, Y i, Z i) depending on corresponding segments (Seg i) of the recording space, wherein the segments (Seg i) of the recording space each represent a subset of directions within a two-dimensional plane or within a three-dimensional space, and wherein the segments (Seg i) are different from each other; and a generator for generating a parametric audio stream for each of the at least two input segmental audio signals (W i, X i, Y i, Z i) to obtain the plurality of parametric audio streams (θ i, Ψ i, W i), so that the plurality of parametric audio streams (θ i, Ψ i, W i) each comprise a component (W i) of the at least two input segmental audio signals (W i, X i, Y i, Z i) and a corresponding parametric spatial information (θ i, Ψ i), wherein the parametric spatial information (θ i, Ψ i) of each of the parametric audio steams (θ i, Ψ i, W i) comprises direction-of-arrival parameter (θ i) and/or a diffuseness parameter (Ψ i).
Internal combustion engine comprising, on the one hand, a cylinder head having at least one camshaft and a plurality of bearing caps (16, 18, 20, 22) capable of straddling said camshaft, and, on the other hand, a cylinder head cover extending longitudinally so as to cover said cylinder head and an air intake manifold extending along said cylinder head cover; characterized in that said plurality of bearing caps (16, 18, 20, 22), said air intake manifold and said cylinder head cover are formed as a one-piece casting.
A process for treating a hydrocarbon stream, the process comprising: flowing the hydrocarbon stream through a hydrocarbon treating vessel; heating at least a portion of an interior surface of the vessel to a predetermined vessel temperature of 400°C or greater for 300 hours or more; and controlling sensitization and chloride stress corrosion cracking of the portion of the hydrocarbon treating vessel by employing a hydrocarbon treating vessel with at least the portion thereof formed of a novel austenitic stainless steel alloy comprising: C Si P S Mn Ni Mo Cu Cr Nb N 0.005-0.020 wt-% 1.00 Max wt-% 0.045 Max wt-% 0.030 Max wt-% 2.00 Max wt-% 10-13 wt-% 1.0-7 wt-% 0.5-2 wt-% 15-24 wt-% 0.20-0.50 wt-% 0.06-0.10 wt-% and the remainder of the composition being iron and any unavoidable impurities to restrict sensitization and chloride stress corrosion cracking of the portion of the interior surface. flowing the hydrocarbon stream through a hydrocarbon treating vessel; heating at least a portion of an interior surface of the vessel to a predetermined vessel temperature of 400°C or greater for 300 hours or more; and controlling sensitization and chloride stress corrosion cracking of the portion of the hydrocarbon treating vessel by employing a hydrocarbon treating vessel with at least the portion thereof formed of a novel austenitic stainless steel alloy comprising: C Si P S Mn Ni Mo Cu Cr Nb N 0.005-0.020 wt-% 1.00 Max wt-% 0.045 Max wt-% 0.030 Max wt-% 2.00 Max wt-% 10-13 wt-% 1.0-7 wt-% 0.5-2 wt-% 15-24 wt-% 0.20-0.50 wt-% 0.06-0.10 wt-%
A method for use at one or more links of a communication network along which communications are exchanged, said method comprises: transmitting a plurality of extended communication frames, each extended communication frame comprises a plurality of basic frames, wherein each of the plurality of basic frames included in the extended frame comprises the same payload as all other basic frames included in the plurality of basic frames, and a preamble comprising pre-defined symbols; and characterized in that the method includes: transmitting an anchor frame in between at least two of the plurality of extended communication frames, whereby the anchor frame comprises a known sequence of symbols; thereby enabling to exchange said plurality of extended communication frames under SNR conditions below -10dB. transmitting a plurality of extended communication frames, each extended communication frame comprises a plurality of basic frames, wherein each of the plurality of basic frames included in the extended frame comprises the same payload as all other basic frames included in the plurality of basic frames, and a preamble comprising pre-defined symbols; and characterized in that the method includes: transmitting an anchor frame in between at least two of the plurality of extended communication frames, whereby the anchor frame comprises a known sequence of symbols; thereby enabling to exchange said plurality of extended communication frames under SNR conditions below -10dB. transmitting an anchor frame in between at least two of the plurality of extended communication frames, whereby the anchor frame comprises a known sequence of symbols; thereby enabling to exchange said plurality of extended communication frames under SNR conditions below -10dB.
A method of producing bacteriophages, characterized in that: a) a bacterial host strain is cultured on an appropriate medium, the culture is inoculated with a wild-type bacteriophage strain and a bacteriophage lysate is produced, b) the lysate is purified using affinity chromatography, c) the eluate from the affinity column is used to prepare a purified bacteriophage, wherein in stage a) the bacterial host strain used consists of bacterial cells containing a sequence encoding a fusion protein containing a foreign polypeptide exhibiting an affinity for a chromatography resin used in stage b) and a polypeptide from among the structural phage proteins of the bacteriophage present in the resulting lysate, wherein the polypeptide exhibiting an affinity for a chromatography resin is selected from a group encompassing HisTag and GST. a) a bacterial host strain is cultured on an appropriate medium, the culture is inoculated with a wild-type bacteriophage strain and a bacteriophage lysate is produced, b) the lysate is purified using affinity chromatography, c) the eluate from the affinity column is used to prepare a purified bacteriophage, wherein in stage a) the bacterial host strain used consists of bacterial cells containing a sequence encoding a fusion protein containing a foreign polypeptide exhibiting an affinity for a chromatography resin used in stage b) and a polypeptide from among the structural phage proteins of the bacteriophage present in the resulting lysate, wherein the polypeptide exhibiting an affinity for a chromatography resin is selected from a group encompassing HisTag and GST.
A compound of formula or a stereoisomer or salt thereof, wherein R 1 and R 2 are selected from the group consisting of N, N + -CH 3, N + -C 2 H 5, N + -C 3 H 8, N + -C 4 H 5, N + -CH 2 C 6 H 5 wherein at least one of R 1, R 2 is not N. n and m are independently chosen from the group consisting of 0, 1 and 2; X is selected from the group consisting of O, NH, S, CH 2 k is 1 or 2 Y is either void or selected from the group of -CH 2 -, -CH 2 CH 2 -, -CH 2 O-, -CH 2 S-, -CH 2 NH-,-CH 2 CH 2 O-, -CH 2 CH 2 NH-, -CH 2 CH 2 S- R 3, R 4, R 5, R 6 are selected from the group consisting of H, OH, OCH 3, or OCH 2 CH 3; wherein R 3 and R 4 may be the same or different; R 5 and R 6 may be the same or different; if either of R 3, R 4 is different than OH than R 5 and R 6 are both OH; if either of R 5, R 6 is different than OH than R 3 and R 4 are both OH. wherein R 1 and R 2 are selected from the group consisting of N, N + -CH 3, N + -C 2 H 5, N + -C 3 H 8, N + -C 4 H 5, N + -CH 2 C 6 H 5 wherein at least one of R 1, R 2 is not N. n and m are independently chosen from the group consisting of 0, 1 and 2; X is selected from the group consisting of O, NH, S, CH 2 k is 1 or 2 Y is either void or selected from the group of -CH 2 -, -CH 2 CH 2 -, -CH 2 O-, -CH 2 S-, -CH 2 NH-,-CH 2 CH 2 O-, -CH 2 CH 2 NH-, -CH 2 CH 2 S- R 3, R 4, R 5, R 6 are selected from the group consisting of H, OH, OCH 3, or OCH 2 CH 3; wherein R 3 and R 4 may be the same or different; R 5 and R 6 may be the same or different; if either of R 3, R 4 is different than OH than R 5 and R 6 are both OH; if either of R 5, R 6 is different than OH than R 3 and R 4 are both OH.
A bendable delivery system for an implantable valve, comprising: a bendable sheath, comprising a tube and a pull wire, wherein the tube has a distal end and a proximal end, and the distal end of the tube is configured to be bent by the pull wire, wherein one end of the pull wire extends towards the proximal end of the tube, a connection portion of the other end of the pull wire and the tube is located at or adjacent to the distal end of the tube, and at least one section of the pull wire is configured as a movable section which is movable outside of the tube; the tube comprises a first section at the distal end for accommodating an implantable instrument, and a connection section connected to the first section and extending towards the proximal end; a sheath core (5, 21) arranged in the bendable sheath, and an operating handle connected to proximal ends of the bendable sheath and the sheath core (5, 21); wherein a proximal end of the pull wire is connected with the operating handle; wherein the sheath core (5, 21) comprises a core tube, and the core tube has a loading section at a distal end for placing the implantable instrument; before releasing, the first section of the bendable sheath is configured to surround the loading section. a bendable sheath, comprising a tube and a pull wire, wherein the tube has a distal end and a proximal end, and the distal end of the tube is configured to be bent by the pull wire, wherein one end of the pull wire extends towards the proximal end of the tube, a connection portion of the other end of the pull wire and the tube is located at or adjacent to the distal end of the tube, and at least one section of the pull wire is configured as a movable section which is movable outside of the tube; the tube comprises a first section at the distal end for accommodating an implantable instrument, and a connection section connected to the first section and extending towards the proximal end; a sheath core (5, 21) arranged in the bendable sheath, and an operating handle connected to proximal ends of the bendable sheath and the sheath core (5, 21); wherein a proximal end of the pull wire is connected with the operating handle; wherein the sheath core (5, 21) comprises a core tube, and the core tube has a loading section at a distal end for placing the implantable instrument; before releasing, the first section of the bendable sheath is configured to surround the loading section.
A method for assembling at least a first element and a second element to form, once they have been assembled, an external horology component with an annular shape for a wearable device and in which the first and second elements are made of an electrically conductive material or in which the walls of the grooves are coated in an electrically conductive coating, the method comprising at least the steps of: a) making the first element in a first material forming a first annular arc; b) making the second element in a second material different to the first material, forming a second annular arc; c) arranging at least a first groove in the first element and at least a second groove in the second element; d) placing and holding the first element and the second element end-to-end by means of at least a third connecting element which is inserted and locked in the first and second grooves, the third element is inserted and locked in the first and second grooves, said method being characterised in that said operation in which said third element is inserted consists of filling the first and second grooves with a metal using an electroforming method, the first groove communicating with the second groove when both elements are end-to-end. a) making the first element in a first material forming a first annular arc; b) making the second element in a second material different to the first material, forming a second annular arc; c) arranging at least a first groove in the first element and at least a second groove in the second element; d) placing and holding the first element and the second element end-to-end by means of at least a third connecting element which is inserted and locked in the first and second grooves, the third element is inserted and locked in the first and second grooves, said method being characterised in that said operation in which said third element is inserted consists of filling the first and second grooves with a metal using an electroforming method, the first groove communicating with the second groove when both elements are end-to-end.