mhurhangee/ep-ind-claims huggingface dataset:
A modular endograft system, comprising: a first endograft device having a first superior portion (108, 208), a first inferior portion, and a first lumen through the first superior and inferior portions, wherein the first superior portion has a first superior terminus, a first outer wall (112, 212), and a first septal wall (114, 214); a second endograft device having a second superior portion (108, 208), a second inferior portion, and a second lumen through the second superior and inferior portions, wherein the second superior portion has a second superior terminus, a second outer wall (112, 214), and a second septal wall (114, 214); wherein the first and second septal walls of the first and second endograft devices (102a, 102b) press against one another and form a septum (120, 220); and wherein the first superior terminus of the first endograft device is superior to the second superior terminus of the second endograft device such that the first and second endograft devices are longitudinally staggered and a free end portion of the first superior portion is positioned distally beyond the second superior terminus. a first endograft device having a first superior portion (108, 208), a first inferior portion, and a first lumen through the first superior and inferior portions, wherein the first superior portion has a first superior terminus, a first outer wall (112, 212), and a first septal wall (114, 214); a second endograft device having a second superior portion (108, 208), a second inferior portion, and a second lumen through the second superior and inferior portions, wherein the second superior portion has a second superior terminus, a second outer wall (112, 214), and a second septal wall (114, 214); wherein the first and second septal walls of the first and second endograft devices (102a, 102b) press against one another and form a septum (120, 220); and wherein the first superior terminus of the first endograft device is superior to the second superior terminus of the second endograft device such that the first and second endograft devices are longitudinally staggered and a free end portion of the first superior portion is positioned distally beyond the second superior terminus.
A compound of the formula (I-1), (I-2) or (II-1) wherein the two different recurring units have a random distribution and are present in equimolar amounts and m+n is 5 to 7; wherein the two different recurring units have a random distribution and are present in equimolar amounts and m+n is 5 to 7; wherein z is 5 to 7.
A process for reacting reagents: (i) CS 2, (ii) a haloform or reactive equivalent thereof, and (iii) a ketone or aldehyde of the structure R 1 C(=O)R 2, and optionally (iv) a mercaptan of the structure R 3 SH, wherein R 1 R 2 and R 3 are independently hydrogen or hydrocarbyl groups, provided that at least one of R 1 R 2 and R 3 is a hydrocarbyl group, to provide a trithiocarbonate acid product or of the general structure HO 2 C-CR 1 R 2 -S-C(=S)-S-Y where Y is -CR 1 R 2 -CO 2 H or R 3 said process comprising: (a) mixing, in a single vessel, reagents (i), (ii), (iii), and optionally (iv) and then after mixing reagents (i), (ii), and (iii), adding to the vessel (v) a metal hydroxide base, in an organic solvent in which said ketone or aldehyde, said haloform, and said trithiocarbonate product are soluble; whereby the base-neutralized form of said trithiocarbonate product is formed from the reaction of the base (v) and the reagent (i) and the haloform (ii) and the ketone or aldehyde (iii) and the optional mercaptan (iv), and whereby an aqueous phase subsists along with an organic phase; (c) thereafter mixing with the mixture remaining in the vessel, an acid; whereby a trithiocarbonate acid is formed from the reaction of said trithiocarbonate and said acid, and whereby an aqueous phase subsists along with an organic phase. (a) mixing, in a single vessel, reagents (i), (ii), (iii), and optionally (iv) and then after mixing reagents (i), (ii), and (iii), adding to the vessel (v) a metal hydroxide base, in an organic solvent in which said ketone or aldehyde, said haloform, and said trithiocarbonate product are soluble; whereby the base-neutralized form of said trithiocarbonate product is formed from the reaction of the base (v) and the reagent (i) and the haloform (ii) and the ketone or aldehyde (iii) and the optional mercaptan (iv), and whereby an aqueous phase subsists along with an organic phase; (c) thereafter mixing with the mixture remaining in the vessel, an acid; whereby a trithiocarbonate acid is formed from the reaction of said trithiocarbonate and said acid, and whereby an aqueous phase subsists along with an organic phase.
Terpolymer, wherein 20 to 35 % by weight of the structural units are derived from acrylic acid, 45 to 60 % by weight of the structural units from a hydrophobic methacrylate selected from a group consisting of isopropyl methacrylate, tert-butyl methacrylate and cyclohexyl methacrylate and 20 to 35 % by weight of the structural units from a third olefinic monomer selected from the group consisting of N-vinyl lactam, hydroxy ethyl methacrylate and phenoxyethyl acrylate with the proviso that the total amount of structural units derived from the three monomer groups adds up to 100 % by weight.
An electro-conductive member for electrophotography, comprising: an electro-conductive mandrel; and an electro-conductive layer, wherein: the electro-conductive layer contains a binder resin having, in a molecule thereof, a sulfo group or a quaternary ammonium group as an ion exchange group, and an ion opposite in polarity to the ion exchange group; wherein: the binder resin has any structure selected from the group consisting of structures represented by a chemical formula -1 and a chemical formula -2, and any structure selected from the group consisting of structures represented by a chemical formulae -1 to a chemical formula -3; and wherein: the binder resin has a molecular structure preventing occurrence of a matrix-domain structure based on the binder resin in the electro-conductive layer: in the formula -1, m represents an integer of 2 or more and 20 or less, in the formula -2, n represents an integer of 5 or more and 50 or less, in the formula -1, p represents an integer of 1 or more and 25 or less, in the formula -2, q represents an integer of 1 or more and 15 or less, and in the formula -3, r represents an integer of 1 or more and 12 or less. an electro-conductive mandrel; and an electro-conductive layer, wherein: the electro-conductive layer contains a binder resin having, in a molecule thereof, a sulfo group or a quaternary ammonium group as an ion exchange group, and an ion opposite in polarity to the ion exchange group; the electro-conductive layer contains a binder resin having, in a molecule thereof, a sulfo group or a quaternary ammonium group as an ion exchange group, and an ion opposite in polarity to the ion exchange group; wherein: the binder resin has any structure selected from the group consisting of structures represented by a chemical formula -1 and a chemical formula -2, and any structure selected from the group consisting of structures represented by a chemical formulae -1 to a chemical formula -3; and wherein: the binder resin has a molecular structure preventing occurrence of a matrix-domain structure based on the binder resin in the electro-conductive layer: the binder resin has any structure selected from the group consisting of structures represented by a chemical formula -1 and a chemical formula -2, and any structure selected from the group consisting of structures represented by a chemical formulae -1 to a chemical formula -3; and wherein: the binder resin has a molecular structure preventing occurrence of a matrix-domain structure based on the binder resin in the electro-conductive layer:
Extractor hood comprising a body, at least one glass pane and a fastening device which is provided for fastening the at least one glass pane to the extractor hood, and the at least one glass pane being fastenable or fastened to the extractor hood by means of the fastening device, the fastening device being arrangeable or arranged on the body and having at least one clamping unit and a rail unit, the clamping unit having a guiding portion for guiding the glass pane along a guide axis and a latching portion for securing the glass pane relative to the clamping unit, at least one mounting portion for mounting the clamping unit on the rail unit being formed in the at least one rail unit, characterised in that the latching portion can be moved, transversely to the guide axis, between a locking position for preventing the glass pane from moving along the guide axis and an open position for allowing the glass pane to move along the guide axis, the latching portion being resiliently biased towards the open position, it being possible to lock the latching portion in the locking position, the glass pane having at least one indented portion in an edge region, the latching portion of the clamping unit of the fastening device being designed to engage in the indented portion of the glass pane.
An individual self-contained breathing apparatus of closed cycle for underwater submergence comprising: - an air system, including a compensatory cylinder with compressed gas, a reducer and a manometer; - a gas analyzing system, including sensors (9, 10) for determine the partial pressure of oxygen and carbon dioxide, the sensors are embedded between the reactors with cartridges with an oxygen regenerating agent and a breathing bag; - a regenerative device including reactors with cartridges with an oxygen regenerating agent; - a breathing circuit including a face mask, a space under the face mask, a breathing bag, a valve for releasing pressure in the breathing circuit; - connecting air ducts for connecting the breathing circuit to the regenerative system and the air system; characterized in that, the apparatus comprises CO 2 cylinders for additional regeneration of carbon dioxide to oxygen, the cylinders connected to air ducts leading to the breathing bag. - an air system, including a compensatory cylinder with compressed gas, a reducer and a manometer; - a gas analyzing system, including sensors (9, 10) for determine the partial pressure of oxygen and carbon dioxide, the sensors are embedded between the reactors with cartridges with an oxygen regenerating agent and a breathing bag; - a regenerative device including reactors with cartridges with an oxygen regenerating agent; - a breathing circuit including a face mask, a space under the face mask, a breathing bag, a valve for releasing pressure in the breathing circuit; - connecting air ducts for connecting the breathing circuit to the regenerative system and the air system;
A method of making soda-lime-silica based glass, the method comprising: providing glass raw materials in a furnace to form a glass melt; forwarding a glass strip formed from the melt to an annealing lehr where the glass strip is annealed; and treating at least one major surface of the glass strip with aluminum chloride, at or just prior to the annealing lehr, when the glass strip is at a temperature of from 540 degrees C to 850 degrees C, wherein said treating comprises applying a mixture of AlCl 3 and at least one solvent to the surface of the glass strip, wherein the mixture is from 5-10% aluminum chloride, and wherein the solvent comprises methanol. providing glass raw materials in a furnace to form a glass melt; forwarding a glass strip formed from the melt to an annealing lehr where the glass strip is annealed; and treating at least one major surface of the glass strip with aluminum chloride, at or just prior to the annealing lehr, when the glass strip is at a temperature of from 540 degrees C to 850 degrees C, wherein said treating comprises applying a mixture of AlCl 3 and at least one solvent to the surface of the glass strip, wherein the mixture is from 5-10% aluminum chloride, and wherein the solvent comprises methanol.
Mounting aid for a sash of a window, a French window, or the like, which sash is to be rotatably supported on a frame, the window, the French window, or the like having a lower corner bearing and an upper stay bearing, via which the sash, in the mounted state, is mounted on the frame so as to be rotatable about a vertical axis and tiltable about a horizontal axis, a frame-fixed hinge part and a sash-fixed hinge part of the corner bearing being inserted into one another during the assembly of the window, the French window, or the like, the mounting aid having a guide body which can be detachably mounted on the hinge part, characterized in that the guide body has a main body with a shape adapted to the frame and has a holding element for supporting a bearing pin of a corner bearing, for holding the bearing pin in its position during the mounting of the sash and in that the main body is designed for use in a lower corner region between the sash and the frame in order to guide the sash and temporarily fix the bearing pin and has a guide track for guiding the sash.
A mount assembly comprising: a main body having an internal cavity; a bayonet movable relative to the main body to insert a portion of the bayonet into the internal cavity; a block disposed within the internal cavity and movable relative to the main body between a first position and a second position, wherein in the first position the bayonet is captured and held between the block and an inner wall of the internal cavity and in the second position the block is retracted from contact with the bayonet to allow the bayonet to be removed from the internal cavity; and an actuation member that extends into the internal cavity and is connected to the block, wherein the actuation member is remotely actuatable at a distance from the mount assembly. a main body having an internal cavity; a bayonet movable relative to the main body to insert a portion of the bayonet into the internal cavity; a block disposed within the internal cavity and movable relative to the main body between a first position and a second position, wherein in the first position the bayonet is captured and held between the block and an inner wall of the internal cavity and in the second position the block is retracted from contact with the bayonet to allow the bayonet to be removed from the internal cavity; and an actuation member that extends into the internal cavity and is connected to the block, wherein the actuation member is remotely actuatable at a distance from the mount assembly.
A position detector comprising: a projector having a window with a given width and a given length greater than said width, and which is adapted to project parallel light of a given width from said window; an optical receiver having a window with said given width and said given length, and which is adapted to receive said parallel light by means of said window, a shielding plate held in a horizontally mobile manner in the length direction of said window, and which is adapted to shield all or a part of the parallel light that enters the window of said optical receiver depending on the position of the subject of measurement; a light intensity detector adapted to output position signals with magnitude proportional to the intensity of light received by said optical receiver; and a deflection means (14, 22) provided opposite said window of at least one of said projector and said optical receiver, and which is adapted to deflect the direction of said parallel light to an approximately perpendicular direction relative to said window by means of a plurality of deflecting elements (141, 221) positioned in a given placement cycle, characterised in that the edge line of said shielding plate is approximately parallel to a line segment that connects the starting point of a placement cycle of the given deflection element at one end in the width direction of said window and the ending point of the placement cycle of given deflection element at the other end in the width direction of the window, when viewing said deflection means (14, 22) from a direction approximately perpendicular to said window. a projector having a window with a given width and a given length greater than said width, and which is adapted to project parallel light of a given width from said window; an optical receiver having a window with said given width and said given length, and which is adapted to receive said parallel light by means of said window, a shielding plate held in a horizontally mobile manner in the length direction of said window, and which is adapted to shield all or a part of the parallel light that enters the window of said optical receiver depending on the position of the subject of measurement; a light intensity detector adapted to output position signals with magnitude proportional to the intensity of light received by said optical receiver; and a deflection means (14, 22) provided opposite said window of at least one of said projector and said optical receiver, and which is adapted to deflect the direction of said parallel light to an approximately perpendicular direction relative to said window by means of a plurality of deflecting elements (141, 221) positioned in a given placement cycle, characterised in that the edge line of said shielding plate is approximately parallel to a line segment that connects the starting point of a placement cycle of the given deflection element at one end in the width direction of said window and the ending point of the placement cycle of given deflection element at the other end in the width direction of the window, when viewing said deflection means (14, 22) from a direction approximately perpendicular to said window.
A folded absorbent pad having, in its flattened unfolded configuration a central longitudinal axis and a central transversal axis said pad comprising: a topsheet, a backsheet and an absorbent core disposed between said topsheet and backsheet, one or more folding lines parallel to said central transversal axis, said absorbent core comprising a storage layer said storage layer comprising SAP and comprising, in correspondence with the one or more folding lines, one or more folding portions, said folding portions being defined as portions of the storage layer overlapping said folding lines and characterised in that the folding portions extend for from 3 to 20 mm on both sides of said folding lines along a direction perpendicular to said folding lines wherein in at least one of said folding portions the average basis weight of the SAP is at least 10 gsm higher than the average basis weight of SAP in the entire storage layer. a topsheet, a backsheet and an absorbent core disposed between said topsheet and backsheet, one or more folding lines parallel to said central transversal axis, said absorbent core comprising a storage layer said storage layer comprising SAP and comprising, in correspondence with the one or more folding lines, one or more folding portions, said folding portions being defined as portions of the storage layer overlapping said folding lines and characterised in that the folding portions extend for from 3 to 20 mm on both sides of said folding lines along a direction perpendicular to said folding lines wherein in at least one of said folding portions the average basis weight of the SAP is at least 10 gsm higher than the average basis weight of SAP in the entire storage layer.
A method for purifying antibodies from a solution containing antibodies, the method comprising (a) contacting a first solution containing antibodies to a mixed mode chromatography matrix comprising at least one hydrophobic moiety and at least one acidic moiety, wherein the matrix does not include sulfur, thereby binding at least a portion of the antibodies to the matrix; (b) separating the matrix with bound antibodies from the first solution; (c) eluting the bound antibodies by raising the pH of solution in contact with the matrix and bound antibodies, thereby producing a solution comprising eluted antibodies; (d) contacting the solution comprising eluted antibodies of step c to a solid support matrix, the solid support matrix comprising hydroxyapatite or fluorapatite, wherein at least a portion of the antibodies bind to the solid support matrix; (e) separating the solid support matrix and bound antibodies from the second solution; and (f) eluting the bound antibodies from the solid support matrix, thereby purifying the antibodies from the solution. (a) contacting a first solution containing antibodies to a mixed mode chromatography matrix comprising at least one hydrophobic moiety and at least one acidic moiety, wherein the matrix does not include sulfur, thereby binding at least a portion of the antibodies to the matrix; (b) separating the matrix with bound antibodies from the first solution; (c) eluting the bound antibodies by raising the pH of solution in contact with the matrix and bound antibodies, thereby producing a solution comprising eluted antibodies; (d) contacting the solution comprising eluted antibodies of step c to a solid support matrix, the solid support matrix comprising hydroxyapatite or fluorapatite, wherein at least a portion of the antibodies bind to the solid support matrix; (e) separating the solid support matrix and bound antibodies from the second solution; and (f) eluting the bound antibodies from the solid support matrix, thereby purifying the antibodies from the solution.
A power controller configured to monitor and control supply of an input AC power to a load, the power controller comprising: a voltage sensing circuit configured to provide a voltage sense signal that is a function of voltage of the input AC power; a power supply circuit configured to derive a first supply voltage from the input AC power and to derive a second supply voltage from the first supply voltage; a switch powered by the first supply voltage for connecting the load to the input AC power; and a digital processor powered by the second supply voltage for controlling the switch based upon the voltage sense signal, characterised in that the power supply circuit comprises: a voltage limiter circuit connected to receive the input AC power; a rectifier circuit connected to the voltage limiter circuit; a first voltage regulator connected to the rectifier circuit to produce the first supply voltage; a second voltage regulator connected to the first voltage regulator to produce the second supply voltage; and a power dissipation circuit powered by the second supply voltage, wherein the power dissipation circuit is configured to dissipate a variable amount of power as a function of the first supply voltage. a voltage sensing circuit configured to provide a voltage sense signal that is a function of voltage of the input AC power; a power supply circuit configured to derive a first supply voltage from the input AC power and to derive a second supply voltage from the first supply voltage; a switch powered by the first supply voltage for connecting the load to the input AC power; and a digital processor powered by the second supply voltage for controlling the switch based upon the voltage sense signal, characterised in that the power supply circuit comprises: a voltage limiter circuit connected to receive the input AC power; a rectifier circuit connected to the voltage limiter circuit; a first voltage regulator connected to the rectifier circuit to produce the first supply voltage; a second voltage regulator connected to the first voltage regulator to produce the second supply voltage; and a power dissipation circuit powered by the second supply voltage, wherein the power dissipation circuit is configured to dissipate a variable amount of power as a function of the first supply voltage. a voltage limiter circuit connected to receive the input AC power; a rectifier circuit connected to the voltage limiter circuit; a first voltage regulator connected to the rectifier circuit to produce the first supply voltage; a second voltage regulator connected to the first voltage regulator to produce the second supply voltage; and a power dissipation circuit powered by the second supply voltage, wherein the power dissipation circuit is configured to dissipate a variable amount of power as a function of the first supply voltage.