mhurhangee/ep-ind-claims huggingface dataset:
A specimen retrieval device, comprising: a housing including an outer shaft extending distally therefrom; an inner shaft disposed within the outer shaft and deployable therefrom, the inner shaft including at least one channel and at least one spring, the at least one channel having at least one tissue engaging device (38, 40; 56; 58; 60) positioned therein for longitudinal movement therealong; and a pouch coupled to a distal end of the inner shaft and the at least one spring so as to abut at least a portion of the at least one channel of the inner shaft, the pouch including an open proximal end and a closed distal end and movable via the at least one spring from a first configuration for deployment from the outer shaft to a second configuration for receiving tissue therein, wherein the at least one tissue engaging device is movable within the pouch along the at least one channel of the inner shaft for engaging tissue and for pulling tissue within the pouch. a housing including an outer shaft extending distally therefrom; an inner shaft disposed within the outer shaft and deployable therefrom, the inner shaft including at least one channel and at least one spring, the at least one channel having at least one tissue engaging device (38, 40; 56; 58; 60) positioned therein for longitudinal movement therealong; and a pouch coupled to a distal end of the inner shaft and the at least one spring so as to abut at least a portion of the at least one channel of the inner shaft, the pouch including an open proximal end and a closed distal end and movable via the at least one spring from a first configuration for deployment from the outer shaft to a second configuration for receiving tissue therein,
A method for making a soft cake, the method comprising: preparing a mixture by blending sugars, a first portion of flour and water, increasing or maintaining the temperature of the mixture such that, by the end of the blending, the temperature of the mixture reaches at least 45oC, preferably from 50 oC to 70 oC, still preferably around 60 oC, allowing the heated mixture to mature at a temperature of from 45oC to 70 oC, more preferably around 60 oC, combining the matured mixture with a second portion of flour and, optionally, further ingredients to form a batter, shaping and baking the batter to form a soft cake, wherein the soft cake comprises at least 40 wt% cereal material, at most 30wt% sugars, and wherein the ratio of the first portion of flour to the second portion of flour is at least 3:2, wherein the heated mixture is allowed to mature for from 10 min to 48 hours, wherein the mixture further comprises one or more enzymes selected from the group consisting of amylases, amyloglucosidase, proteases, hemicellulases, xylanases, cellulase, pullulanase, pentosanases, lipases, phospholipases, transglutaminases, glucose oxydase or mixtures thereof, wherein the one or more enzymes are in addition to any enzymes which may be present in any of the other starting materials, and wherein the one or more enzymes are present in the mixture in an amount of from 0.01 to 1.0 wt% based on the total weight of the mixture before maturation. preparing a mixture by blending sugars, a first portion of flour and water, increasing or maintaining the temperature of the mixture such that, by the end of the blending, the temperature of the mixture reaches at least 45oC, preferably from 50 oC to 70 oC, still preferably around 60 oC, allowing the heated mixture to mature at a temperature of from 45oC to 70 oC, more preferably around 60 oC, combining the matured mixture with a second portion of flour and, optionally, further ingredients to form a batter, shaping and baking the batter to form a soft cake, wherein the soft cake comprises at least 40 wt% cereal material, at most 30wt% sugars, and wherein the ratio of the first portion of flour to the second portion of flour is at least 3:2, wherein the heated mixture is allowed to mature for from 10 min to 48 hours, wherein the mixture further comprises one or more enzymes selected from the group consisting of amylases, amyloglucosidase, proteases, hemicellulases, xylanases, cellulase, pullulanase, pentosanases, lipases, phospholipases, transglutaminases, glucose oxydase or mixtures thereof, wherein the one or more enzymes are in addition to any enzymes which may be present in any of the other starting materials, and wherein the one or more enzymes are present in the mixture in an amount of from 0.01 to 1.0 wt% based on the total weight of the mixture before maturation.
A bipodal peptide binder which specifically binds to a target which is a biochemical material, a peptide, a polypeptide, a nucleic acid, a carbohydrate, a lipid, a cell or a tissue, comprising: (a) a structure stabilizing region which is a β-hairpin motif; and (b) a target binding region I that is bound to the N-terminus of the structure stabilizing region and a target binding region II that is bound to the C-terminus of the structure stabilizing region, wherein the number of amino acid residues of each of the target binding region I and the target binding region II is an integer of 3-50, respectively, and wherein the target binding region I and the target binding region II each are a peptide having a binding affinity to the target and bind in a cooperative manner to the target.
Method of injection molding, wherein a product is produced by an injection molding apparatus through an injection molding process from a precursor charge of precursor material based on process settings applied to the injection molding apparatus, wherein the injection molding process comprises injecting the precursor charge into a mold of the injection molding apparatus, wherein the precursor charge is produced through a precursor production process described by precursor production parameters, wherein the applied process settings are determined prior to the injection molding process by a computer simulation of the injection molding process executed by a computing apparatus, which computer simulation is based on a simulation model and on given process conditions of the injection molding process, which given process conditions comprise a shape of the mold, characterized in that, the computer simulation is also based on the precursor production parameters and in that the product is measured for determining product data by a product measurement apparatus and a quality metric is applied to the product data to determine a metric result for describing conformity of the product with a product target specification prescribing product properties and that the simulation model is updated by the computing apparatus based on the product data, the product target specification and the metric result.
A rat embryonic stem cell characterized by having the following properties (a)-(j): (a) expressing Oct3/4 gene and Nanog gene, (b) positive for alkaline phosphatase activity, (c) having an embryoid body forming ability, (d) expressing SSEA (Stage-Specific Embryonic Antigen)-1 and SSEA-4, (e) having the same number of chromosomes as does a normal rat cell, (f) capable of being subcultured and holding the undifferentiated state, (g) having in vitro pluripotency, (h) having the potential to differentiate into cells of the three embryonic germ lineages, (i) having teratoma formation ability, and (j) having an ability to produce a chimeric rat. (a) expressing Oct3/4 gene and Nanog gene, (b) positive for alkaline phosphatase activity, (c) having an embryoid body forming ability, (d) expressing SSEA (Stage-Specific Embryonic Antigen)-1 and SSEA-4, (e) having the same number of chromosomes as does a normal rat cell, (f) capable of being subcultured and holding the undifferentiated state, (g) having in vitro pluripotency, (h) having the potential to differentiate into cells of the three embryonic germ lineages, (i) having teratoma formation ability, and (j) having an ability to produce a chimeric rat.
An abseiling device, comprising a bidirectionally rotatable guiding arrangement (25; 225) for guiding a pulling means; and a braking device that is coupled with the guiding arrangement (25, 225), wherein the braking device is embodied as a centrifugal brake; wherein a drive means (35; 235; 335) can be connected to the guiding arrangement (25; 225) for actuating the guiding arrangement (25; 225), characterized in that the abseiling device comprises a mechanical torque limiter (33; 133; 263), wherein the mechanical torque limiter (33; 133; 263) decouples the drive means (34; 35; 235; 335) and the guiding arrangement (25; 225) and/or the pulling means when a torque threshold value is exceeded. a bidirectionally rotatable guiding arrangement (25; 225) for guiding a pulling means; and a braking device that is coupled with the guiding arrangement (25, 225), wherein the braking device is embodied as a centrifugal brake; wherein a drive means (35; 235; 335) can be connected to the guiding arrangement (25; 225) for actuating the guiding arrangement (25; 225), characterized in
A driver assembly, comprising: an elongated body having a proximal end and a distal end; a first channel extending from the distal end into the elongated body; a second channel extending from a first side of the elongated body between the proximal and distal ends (104, 106) into the elongated body; a locking mechanism connected within the elongated body; a cannulated hub rotatable between a first configuration and a second configuration via the locking mechanism; and a driver shaft removably attached to the cannulated hub, characterized in that the driver shaft is cannulated and rotatable via the locking mechanism between the first configuration where the cannulated driver shaft extends through the first channel and the second configuration where the cannulated driver shaft extends through the second channel. an elongated body having a proximal end and a distal end; a first channel extending from the distal end into the elongated body; a second channel extending from a first side of the elongated body between the proximal and distal ends (104, 106) into the elongated body; a locking mechanism connected within the elongated body; a cannulated hub rotatable between a first configuration and a second configuration via the locking mechanism; and a driver shaft removably attached to the cannulated hub, characterized in that the driver shaft is cannulated and rotatable via the locking mechanism between the first configuration where the cannulated driver shaft extends through the first channel and the second configuration where the cannulated driver shaft extends through the second channel.
Method for controlling a supply voltage, which fluctuates between an upper limit and a lower limit, in a motor vehicle on-board power system, characterized in that the upper and/or lower limit of the supply voltage of the on-board power system is set as a function of at least one operating condition of the motor vehicle in that the current consumption by at least one consumer is limited.
A non-oriented electrical steel sheet comprising 1.5 to 4.0 wt% of Si, 0.1 to 1.5 wt% of Al, 0.1 to 1.5 wt% of Mn, 0.005 wt% or less (excluding 0 %) of C, 0.005 wt% or less (excluding 0 %) of N, 0.005 wt% or less (excluding 0 %) of Ti, 0.001 to 0.005 wt% of S, 0.1 wt% or less (excluding 0 %) of P, 0.02 to 0.2 wt% of at least one of Sn and Sb, and a balance of Fe and other inevitable impurities, wherein the electrical steel sheet satisfies the following Formulas 1, 2, and 3: 0.9 ≤ Al + Mn ≤ 2.1 0.2 ≤ Si + Al + Mn / 2 * P + Sn + Sb ≤ 0.4 Gs center − Gs surface / Gs center * t ≤ 0.5 (in Formula 1 and Formula 2, [Al], [Mn], [Si],, [Sn], and [Sb] represent the content (weight %) of Al, Mn, Si, P, Sn, and Sb, respectively, and in Formula 3, t represents the thickness (mm) of the non-oriented electrical steel sheet, Gs surface represents the average grain size(μm) from 0 to t/4 or 3t/4 to t based on the thickness direction of the non-oriented steel sheet, and Gs center represents the average grain size(μm) from more than t/4 to less than 3t/4 based on the thickness direction of the non-oriented steel sheet.) wherein the electrical steel sheet satisfies the following Formulas 1, 2, and 3: 0.9 ≤ Al + Mn ≤ 2.1 0.2 ≤ Si + Al + Mn / 2 * P + Sn + Sb ≤ 0.4 Gs center − Gs surface / Gs center * t ≤ 0.5 (in Formula 1 and Formula 2, [Al], [Mn], [Si],, [Sn], and [Sb] represent the content (weight %) of Al, Mn, Si, P, Sn, and Sb, respectively, and in Formula 3, t represents the thickness (mm) of the non-oriented electrical steel sheet, Gs surface represents the average grain size(μm) from 0 to t/4 or 3t/4 to t based on the thickness direction of the non-oriented steel sheet, and Gs center represents the average grain size(μm) from more than t/4 to less than 3t/4 based on the thickness direction of the non-oriented steel sheet.)
A sound absorption panel obtainable by a manufacturing method comprising the following steps: laminating a non-expanded foam resin and a metal sheet thereby forming non-expanded resin-metal lamination panel, forming a plurality of holes through the non-expanded resin-metal lamination panel, and heating the non-expanded resin-metal lamination panel, thereby expanding the non-expanded foam resin such that a hole diameter D2 of the foam resin is smaller than a hole diameter D1 of the metal sheet. laminating a non-expanded foam resin and a metal sheet thereby forming non-expanded resin-metal lamination panel, forming a plurality of holes through the non-expanded resin-metal lamination panel, and heating the non-expanded resin-metal lamination panel, thereby expanding the non-expanded foam resin such that a hole diameter D2 of the foam resin is smaller than a hole diameter D1 of the metal sheet.
A molding machine screw, comprising: a plurality of main flights (371, 372); and a plurality of sub-flights (375, 376) each of which branches from corresponding one main flight of the main flights (371, 372), extends toward a tip end side of the molding machine screw, and is connected to other main flight adjacent to the tip end side, characterized in that the molding machine screw is divided into a feeding zone, a compression zone, and a metering zone from a base end side, wherein the main flight is provided from an intermediate position of the feeding zone to the tip end side of the molding machine screw, wherein one base end flight is provided on the base end side of the feeding zone, and wherein a region without flight is provided between the main flight and the base end flight. a plurality of main flights (371, 372); and a plurality of sub-flights (375, 376) each of which branches from corresponding one main flight of the main flights (371, 372), extends toward a tip end side of the molding machine screw, and is connected to other main flight adjacent to the tip end side, characterized in that the molding machine screw is divided into a feeding zone, a compression zone, and a metering zone from a base end side, wherein the main flight is provided from an intermediate position of the feeding zone to the tip end side of the molding machine screw, wherein one base end flight is provided on the base end side of the feeding zone, and wherein a region without flight is provided between the main flight and the base end flight.
A ball screw mechanism comprising: a screw shaft having an outer circumferential surface provided with a helical screw groove; a cylindrical nut having an inner circumferential surface provided with a helical screw groove corresponding to the screw groove of the screw shaft; a plurality of balls; wherein the nut is threadedly engaged with the screw groove of the screw shaft through the plurality of balls, an axial force is applied to the screw shaft in accordance with rotation of the nut, the nut includes a uniform diameter portion and an enlarged diameter portion, the uniform diameter portion having a uniform inside diameter, the enlarged diameter portion having an inside diameter larger than the inside diameter of the uniform diameter portion, and the enlarged diameter portion is provided at at least one of opposite axial ends of a region on the inner circumferential surface of the nut, characterized in that a cylindrical retainer is provided between the screw shaft and the nut, the retainer has a retainer groove that retains the plurality of balls to allow the plurality of balls to avoid contact with each other and the region faces the retainer groove and retainer ends adjoining to opposite axial ends of the retainer groove. a screw shaft having an outer circumferential surface provided with a helical screw groove; a cylindrical nut having an inner circumferential surface provided with a helical screw groove corresponding to the screw groove of the screw shaft; a plurality of balls; wherein the nut is threadedly engaged with the screw groove of the screw shaft through the plurality of balls, an axial force is applied to the screw shaft in accordance with rotation of the nut, the nut includes a uniform diameter portion and an enlarged diameter portion, the uniform diameter portion having a uniform inside diameter, the enlarged diameter portion having an inside diameter larger than the inside diameter of the uniform diameter portion, and the enlarged diameter portion is provided at at least one of opposite axial ends of a region on the inner circumferential surface of the nut, characterized in that a cylindrical retainer is provided between the screw shaft and the nut, the retainer has a retainer groove that retains the plurality of balls to allow the plurality of balls to avoid contact with each other and the region faces the retainer groove and retainer ends adjoining to opposite axial ends of the retainer groove.
A droplet separator for a vertical flow channel, in particular of a flue gas desulphurization system, comprising a droplet separator layer (1, 2), which is arranged horizontally relative to the vertical flow channel or continuously inclined on one side, with a plurality of plate droplet separator profiles which are arranged parallel to one another and which are provided with end walls (3, 4) running transversely thereto and at least one intermediate wall (5, 6) running transversely thereto, a supporting bar which is arranged above or below the droplet separator layer (1, 2) and which is configured so as to be mounted on the end side on carrier apparatuses on either side of the vertical flow channel, and, approximately in the vertical extension of the end walls and the intermediate walls (3, 4, 5, 6), retaining plates which are arranged thereon, the supporting bar extending through said retaining plates which are supported thereon or suspended thereon, wherein web plates which are mounted with their lower edge or their upper edge on the supporting bar are arranged between the retaining plates, said web plates running transversely thereto and connecting said retaining plates, and wherein the retaining plates and/or web plates have openings for passing through spray pipes. a supporting bar which is arranged above or below the droplet separator layer (1, 2) and which is configured so as to be mounted on the end side on carrier apparatuses on either side of the vertical flow channel, and, approximately in the vertical extension of the end walls and the intermediate walls (3, 4, 5, 6), retaining plates which are arranged thereon, the supporting bar extending through said retaining plates which are supported thereon or suspended thereon, wherein web plates which are mounted with their lower edge or their upper edge on the supporting bar are arranged between the retaining plates, said web plates running transversely thereto and connecting said retaining plates, and wherein the retaining plates and/or web plates have openings for passing through spray pipes.
A window assembly, comprising: an electro-optic element, comprising: a first substantially transparent substrate defining first and second surfaces (26, 30), wherein the second surface comprises a first electrically conductive layer; a second substantially transparent substrate defining third and fourth surfaces (42, 46), wherein the third surface comprises a second electrically conductive layer; a primary seal disposed between the first and second substrates (22, 38), wherein the seal and the first and second substrates (22, 38) define a cavity therebetween; and an electro-optic medium disposed in the cavity, the electro-optic medium being switchable such that the electro-optic element is operable between substantially clear and darkened states; an absorptive layer positioned on the fourth surface of the electro-optic element; and a reflective layer positioned on the absorptive layer, and characterized in that the reflective layer comprises a reflective polarizer and the absorptive layer comprises an absorptive polarizer and the absorptive layer is configured to absorb the same polarization of light as the reflective polarizer reflects. an electro-optic element, comprising: a first substantially transparent substrate defining first and second surfaces (26, 30), wherein the second surface comprises a first electrically conductive layer; a second substantially transparent substrate defining third and fourth surfaces (42, 46), wherein the third surface comprises a second electrically conductive layer; a primary seal disposed between the first and second substrates (22, 38), wherein the seal and the first and second substrates (22, 38) define a cavity therebetween; and an electro-optic medium disposed in the cavity, the electro-optic medium being switchable such that the electro-optic element is operable between substantially clear and darkened states; a first substantially transparent substrate defining first and second surfaces (26, 30), wherein the second surface comprises a first electrically conductive layer; a second substantially transparent substrate defining third and fourth surfaces (42, 46), wherein the third surface comprises a second electrically conductive layer; a primary seal disposed between the first and second substrates (22, 38), wherein the seal and the first and second substrates (22, 38) define a cavity therebetween; and an electro-optic medium disposed in the cavity, the electro-optic medium being switchable such that the electro-optic element is operable between substantially clear and darkened states; an absorptive layer positioned on the fourth surface of the electro-optic element; and a reflective layer positioned on the absorptive layer, and characterized in that the reflective layer comprises a reflective polarizer and the absorptive layer comprises an absorptive polarizer and the absorptive layer is configured to absorb the same polarization of light as the reflective polarizer reflects.