mhurhangee/ep-ind-claims huggingface dataset:
Process for producing a mesoporous carbide having a pore size between 10 nm and 70 nm, wherein an amorphous steel alloy consisting of in atomic percent Fe a Cr b Mo c C d B e wherein a is a number between 35 and 65, b is a number between 10 and 20, c is a number between 10 and 20, d is a number between 12 and 20, e is a number between 0 and 10 and O, Si, Ti and/or Cu as unavoidable impurities, is subjected to a heat treatment at a temperature between 600°C and 1.000°C obtaining a product having a crystalline fraction above 50 % of the alloy and comprising a first phase of (Fe a1 Cr b1 Mo c1) 23 C,B) 6, wherein a1 is a number from 27.4 to 80, b1 is a number from 20 to 60, and c1 is a number from 0 to 12.6 and a1+b1+c1 = 100, and a second phase of (Fe a2 Cr b2 Mo c2) 6 (C,B), wherein a2 is a number from 25.3 to 63, b2 is a number from 0 to 8.2, and c2 is a number from 37 to 66.5 and a2+b2+c2 = 100, and the product from the heat treatment is subjected to a chemical and/or electrochemical treatment. a is a number between 35 and 65, b is a number between 10 and 20, c is a number between 10 and 20, d is a number between 12 and 20, e is a number between 0 and 10 and O, Si, Ti and/or Cu as unavoidable impurities, is subjected to a heat treatment at a temperature between 600°C and 1.000°C obtaining a product having a crystalline fraction above 50 % of the alloy and comprising a first phase of (Fe a1 Cr b1 Mo c1) 23 C,B) 6, wherein a1 is a number from 27.4 to 80, b1 is a number from 20 to 60, and c1 is a number from 0 to 12.6 and a1+b1+c1 = 100, and a second phase of (Fe a2 Cr b2 Mo c2) 6 (C,B), wherein a2 is a number from 25.3 to 63, b2 is a number from 0 to 8.2, and c2 is a number from 37 to 66.5 and a2+b2+c2 = 100, and the product from the heat treatment is subjected to a chemical and/or electrochemical treatment.
A surgical instrument comprising: a hub having a proximal portion and a distal portion, the hub defining a lumen between the proximal and distal portions, wherein the distal portion of the hub includes a sleeve portion configured to rotatably support a rotating member; said rotating member extending through the hub, the rotating member having a proximal end and a distal end, the proximal end of the rotating member being configured to couple to an external driving mechanism; an impeller coupled to the distal end of the rotating member and configured to accelerate fluid flowing into or out of the lumen; and an impeller enclosure coupled to the distal portion of the hub and defining an impeller volume around the impeller, wherein one or more openings are defined around the sleeve portion of the hub such that the lumen is in fluid communication with the impeller volume. a hub having a proximal portion and a distal portion, the hub defining a lumen between the proximal and distal portions, wherein the distal portion of the hub includes a sleeve portion configured to rotatably support a rotating member; said rotating member extending through the hub, the rotating member having a proximal end and a distal end, the proximal end of the rotating member being configured to couple to an external driving mechanism; an impeller coupled to the distal end of the rotating member and configured to accelerate fluid flowing into or out of the lumen; and an impeller enclosure coupled to the distal portion of the hub and defining an impeller volume around the impeller, wherein one or more openings are defined around the sleeve portion of the hub such that the lumen is in fluid communication with the impeller volume.
A system comprising: a first manifold module comprising: a first manifold layer, and a first silicone adhesive layer; and a second manifold module configured to be releasably secured to the first manifold module by the first silicone adhesive layer and comprising: a second manifold layer, and a second silicone adhesive layer, wherein the first and second manifold modules each comprise a plurality of fluid pathways to distribute reduced pressure from a reduced-pressure source to a tissue site. a first manifold module comprising: a first manifold layer, and a first silicone adhesive layer; and a first manifold layer, and a first silicone adhesive layer; and a second manifold module configured to be releasably secured to the first manifold module by the first silicone adhesive layer and comprising: a second manifold layer, and a second silicone adhesive layer, a second manifold layer, and a second silicone adhesive layer, wherein the first and second manifold modules each comprise a plurality of fluid pathways to distribute reduced pressure from a reduced-pressure source to a tissue site.
A method comprising: starting, by a computing device, a synchronous communication session in response to user initiation, where the synchronous communication session includes real-time multimedia data transfer among a plurality of users associated with the synchronous communication session; associating, by the computing device, an asynchronous communication session with the synchronous communication session by associating identifiers of the asynchronous communication session and the synchronous communication session with each other; providing, by the computing device, the plurality of users with automatic access to the associated asynchronous communication session, the asynchronous communication session overlapping in time with the synchronous communication session and the automatic access including access to add information to the asynchronous communication session or retrieve information from the asynchronous communication session while the synchronous communication session is ongoing; ending, by the computing device, the synchronous communication session; sending, by the computing device, a digital link over a network to the plurality of users associated with the synchronous communication session, the digital link providing access to the asynchronous communication session; and granting, by the computing device, access to ones of the users for the asynchronous communication session in response to selection of the digital link. starting, by a computing device, a synchronous communication session in response to user initiation, where the synchronous communication session includes real-time multimedia data transfer among a plurality of users associated with the synchronous communication session; associating, by the computing device, an asynchronous communication session with the synchronous communication session by associating identifiers of the asynchronous communication session and the synchronous communication session with each other; providing, by the computing device, the plurality of users with automatic access to the associated asynchronous communication session, the asynchronous communication session overlapping in time with the synchronous communication session and the automatic access including access to add information to the asynchronous communication session or retrieve information from the asynchronous communication session while the synchronous communication session is ongoing; ending, by the computing device, the synchronous communication session; sending, by the computing device, a digital link over a network to the plurality of users associated with the synchronous communication session, the digital link providing access to the asynchronous communication session; and granting, by the computing device, access to ones of the users for the asynchronous communication session in response to selection of the digital link.
An analysis apparatus column oven that includes an analysis column and a heat source that transfers heat to the analysis column, the analysis apparatus column oven comprising: a heat block configured to transfer heat from the heat source to the analysis column; characterized in that the analysis apparatus column oven further comprises: a column cartridge including the analysis column and a column heat block that contacts the analysis column, wherein the column heat block is arranged in an opening portion formed in the column cartridge and wherein the column heat block is configured to transfer heat from the heat block to the analysis column by thermally contacting the heat block; and a column change mechanism capable of attaching and removing the column cartridge, wherein the heat source controls temperature of the analysis column of the column cartridge in a state where the column cartridge is attached to the column change mechanism. a column cartridge including the analysis column and a column heat block that contacts the analysis column, wherein the column heat block is arranged in an opening portion formed in the column cartridge and wherein the column heat block is configured to transfer heat from the heat block to the analysis column by thermally contacting the heat block; and a column change mechanism capable of attaching and removing the column cartridge, wherein the heat source controls temperature of the analysis column of the column cartridge in a state where the column cartridge is attached to the column change mechanism.
A nozzle for a plasma cutting torch, comprising: a body comprising a first end, a second end having a plasma gas exit orifice disposed therein, a first end portion extending from the first end along the longitudinal length of the body, an orifice portion extending from the second end along the longitudinal length of the body, and a middle portion disposed between the first end portion and the orifice portion; and a perpendicular annular step is included in the first end portion characterized in that an orifice ratio defined by an average wall thickness of the orifice portion divided by an inner diameter of the orifice portion is greater than or equal to approximately 3.6, and a middle portion ratio defined by an average wall thickness of the middle portion divided by an inner diameter of the middle portion is greater than or equal to approximately 0.27, and that a recessed inner angled step is provided in the middle portion. a body comprising a first end, a second end having a plasma gas exit orifice disposed therein, a first end portion extending from the first end along the longitudinal length of the body, an orifice portion extending from the second end along the longitudinal length of the body, and a middle portion disposed between the first end portion and the orifice portion; and a perpendicular annular step is included in the first end portion characterized in that an orifice ratio defined by an average wall thickness of the orifice portion divided by an inner diameter of the orifice portion is greater than or equal to approximately 3.6, and a middle portion ratio defined by an average wall thickness of the middle portion divided by an inner diameter of the middle portion is greater than or equal to approximately 0.27, and that a recessed inner angled step is provided in the middle portion.
A method of manufacturing a pouch-shaped battery cell, the method comprising: (a) forming an electrode assembly receiving portion (110, 210, 710) in a laminate sheet to manufacture a preliminary battery case (100, 200, 400); (b) receiving an electrode assembly in the electrode assembly receiving portion (110, 210, 710) and sealing other outer peripheries of the preliminary battery case (100, 200, 400) excluding a first side outer periphery of the preliminary battery case, through which gas is discharged; (c) disposing a fixing jig (120, 220, 320, 420, 520, 620, 720) at each corner portion of opposite ends of a first side outer periphery of the electrode assembly receiving portion (110, 210, 710); (d) performing an activation process and a degassing process; (e) resealing the first side outer periphery of the electrode assembly receiving portion (110, 210, 710); and (f) removing an end of the preliminary battery case (100, 200, 400), wherein step (d) to step (f) are performed in a state in which the corner portion is in tight contact with an inner surface of the fixing jig (120, 220, 320, 420, 520, 620, 720). (a) forming an electrode assembly receiving portion (110, 210, 710) in a laminate sheet to manufacture a preliminary battery case (100, 200, 400); (b) receiving an electrode assembly in the electrode assembly receiving portion (110, 210, 710) and sealing other outer peripheries of the preliminary battery case (100, 200, 400) excluding a first side outer periphery of the preliminary battery case, through which gas is discharged; (c) disposing a fixing jig (120, 220, 320, 420, 520, 620, 720) at each corner portion of opposite ends of a first side outer periphery of the electrode assembly receiving portion (110, 210, 710); (d) performing an activation process and a degassing process; (e) resealing the first side outer periphery of the electrode assembly receiving portion (110, 210, 710); and (f) removing an end of the preliminary battery case (100, 200, 400), wherein
Copper alloy having the following composition (in % by weight): Zn: 17 to 20.5%, Ni: 17 to 23%, Mn: 8 to 11.5%, optionally also up to 4% Cr, optionally also up to 5.5% Fe, optionally also up to 0.5% Ti, optionally also up to 0.15% B, optionally also up to 0.1% Ca, optionally also up to 1.0% Pb, the balance being copper and inevitable impurities, wherein the proportion of copper is at least 45% by weight, the ratio of the proportion of Ni to the proportion of Mn is at least 1.7 and wherein the alloy has a structure in which precipitations of the type MnNi and MnNi 2 are embedded. Zn: 17 to 20.5%, Ni: 17 to 23%, Mn: 8 to 11.5%, optionally also up to 4% Cr, optionally also up to 5.5% Fe, optionally also up to 0.5% Ti, optionally also up to 0.15% B, optionally also up to 0.1% Ca, optionally also up to 1.0% Pb, the balance being copper and inevitable impurities, wherein the proportion of copper is at least 45% by weight, the ratio of the proportion of Ni to the proportion of Mn is at least 1.7 and wherein the alloy has a structure in which precipitations of the type MnNi and MnNi 2 are embedded.
An indoor unit for an air-conditioning apparatus, comprising: a rear casing for mounting a heat exchanger and an air-sending fan on a front side of the rear casing; and a front casing for surrounding the heat exchanger and the air-sending fan on the front side of the rear casing, wherein the rear casing has an upper wall, which is formed at an upper portion of the rear casing and protrudes frontward, wherein the front casing has an overlap portion, which is formed at an upper portion of the front casing and protrudes rearward to be overlapped by the upper wall, wherein the upper wall of the rear casing has a fixing claw, which protrudes downward from a lower surface of the upper wall, wherein the front casing has a claw receiver for locking the fixing claw from a lower side of the fixing claw, wherein the upper wall has a front portion (21 b) on a front side with respect to the fixing claw, wherein the claw receiver protrudes rearward from the overlap portion, wherein the overlap portion has a recessed portion, which is opened upward on a front side of the claw receiver, and wherein, when the fixing claw is locked to the claw receiver, the recessed portion has such front-and-rear width that the recessed portion passes a front end edge of the upper wall in a front-and-rear direction of the indoor unit for an air-conditioning apparatus. a rear casing for mounting a heat exchanger and an air-sending fan on a front side of the rear casing; and a front casing for surrounding the heat exchanger and the air-sending fan on the front side of the rear casing, wherein the rear casing has an upper wall, which is formed at an upper portion of the rear casing and protrudes frontward, wherein the front casing has an overlap portion, which is formed at an upper portion of the front casing and protrudes rearward to be overlapped by the upper wall, wherein the upper wall of the rear casing has a fixing claw, which protrudes downward from a lower surface of the upper wall, wherein the front casing has a claw receiver for locking the fixing claw from a lower side of the fixing claw, wherein the upper wall has a front portion (21 b) on a front side with respect to the fixing claw, wherein the claw receiver protrudes rearward from the overlap portion, wherein the overlap portion has a recessed portion, which is opened upward on a front side of the claw receiver, and wherein, when the fixing claw is locked to the claw receiver, the recessed portion has such front-and-rear width that the recessed portion passes a front end edge of the upper wall in a front-and-rear direction of the indoor unit for an air-conditioning apparatus.
A method comprising: obtaining a model associated with a model-based controller (104, 306) in an industrial process (100, 302) having actuator arrays (114, 116, 118, 120); and performing temporal tuning of the model-based controller, wherein the temporal tuning comprises adjusting one or more parameters of a multivariable filter used to smooth reference trajectories of actuator profiles of the actuator arrays, wherein the temporal tuning further comprises: obtaining at least one uncertainty specification for one or more temporal parameters of the model; obtaining one or more overshoot limits for the actuator profiles; identifying one or more minimum bounds for one or more profile trajectory tuning parameters; and identifying the one or more profile trajectory tuning parameters that minimize one or more measurement settling times without exceeding the one or more overshoot limits. obtaining a model associated with a model-based controller (104, 306) in an industrial process (100, 302) having actuator arrays (114, 116, 118, 120); and performing temporal tuning of the model-based controller, wherein the temporal tuning comprises adjusting one or more parameters of a multivariable filter used to smooth reference trajectories of actuator profiles of the actuator arrays, wherein the temporal tuning further comprises: obtaining at least one uncertainty specification for one or more temporal parameters of the model; obtaining one or more overshoot limits for the actuator profiles; identifying one or more minimum bounds for one or more profile trajectory tuning parameters; and identifying the one or more profile trajectory tuning parameters that minimize one or more measurement settling times without exceeding the one or more overshoot limits. obtaining at least one uncertainty specification for one or more temporal parameters of the model; obtaining one or more overshoot limits for the actuator profiles; identifying one or more minimum bounds for one or more profile trajectory tuning parameters; and identifying the one or more profile trajectory tuning parameters that minimize one or more measurement settling times without exceeding the one or more overshoot limits.
A specific oligonucleotide aptamer for the identification of T-2 toxin, characterized in that the sequence of the oligonucleotide aptamer is as shown in SEQ ID NO: 1.
A film forming device comprising: a heating roll having a surface onto which a glass film is to be fed, the heating roll being configured to heat the glass film; and a film forming unit configured to form a film on the glass film, characterized in that the heating roll comprises: a cylindrical body made of glass or ceramic and provided rotatably; and a heater disposed in an interior of the cylindrical body and configured to heat the cylindrical body. a heating roll having a surface onto which a glass film is to be fed, the heating roll being configured to heat the glass film; and a film forming unit configured to form a film on the glass film, a cylindrical body made of glass or ceramic and provided rotatably; and a heater disposed in an interior of the cylindrical body and configured to heat the cylindrical body.
A catalyst comprising from 0.01 to 0.5% by weight of platinum, based on the catalyst, on zeolite A as support, wherein the BET surface area of the catalyst is from 20 to 40 m 2 /g.
A polymorph form of the compound of Formula I, wherein the polymorph form is of Form II and its X-ray powder diffraction pattern has characteristic peaks at diffraction angles 2θ of 5.5°, 11.0°, 19.7°, 20.9° and 22.6°±0.2°.
A heat responsive trigger assembly for a sprinkler comprising: a first plate having a bottom face; a second plate including a top face engaging said bottom face through a thermally conductive member disposed between said top and bottom faces and extending beyond a perimeter of at least one of said first and second plates (60, 62), said thermally conductive member includes a slot or an aperture; and a heat fusible material securing said first and second plates (60, 62) and the conductive member in an engaged position, wherein said first and second plates (60, 62) are allowed to disengage in response to said heat fusible material reaching a predetermined temperature, thereby allowing a fire suppressant to discharge from the sprinkler, characterized in that the thermally conductive member is a thin, thermally conductive sheet or plate and in that said first and second plates (60, 62) each include a protruding solder dimple in alignment with said slot or aperture (84, 90) of said thermally conductive member, said slot or aperture (84, 90) being larger in size than said solder dimple of said first and second plates (60, 62) so that a space is disposed between said solder dimple and said slot or aperture (84, 90). a first plate having a bottom face; a second plate including a top face engaging said bottom face through a thermally conductive member disposed between said top and bottom faces and extending beyond a perimeter of at least one of said first and second plates (60, 62), said thermally conductive member includes a slot or an aperture; and a heat fusible material securing said first and second plates (60, 62) and the conductive member in an engaged position, wherein said first and second plates (60, 62) are allowed to disengage in response to said heat fusible material reaching a predetermined temperature, thereby allowing a fire suppressant to discharge from the sprinkler, characterized in that the thermally conductive member is a thin, thermally conductive sheet or plate and in that said first and second plates (60, 62) each include a protruding solder dimple in alignment with said slot or aperture (84, 90) of said thermally conductive member, said slot or aperture (84, 90) being larger in size than said solder dimple of said first and second plates (60, 62) so that a space is disposed between said solder dimple and said slot or aperture (84, 90).