mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a packaged garment having an outer surface, an inner surface opposite the outer surface, a torso portion, two sleeve portions coupled to the torso portion at respective arm accesses, and two leg portions coupled to the torso portion at respective leg accesses, the method comprising: folding the two sleeve portions onto the torso portion; folding the two leg portions onto the torso portion; turning the folded garment inside-out after folding the two leg portions onto the torso portion so that the inner surface of the torso portion faces outward and the outer surface of the torso portion faces inward, thereby preventing contamination of the outer surface of the garment, and the accesses (26, 28) of the two sleeve portions and the two leg portions are accessible and unobstructed at peripheral edges of the folded garment; and placing the folded garment in a bag. folding the two sleeve portions onto the torso portion; folding the two leg portions onto the torso portion; turning the folded garment inside-out after folding the two leg portions onto the torso portion so that the inner surface of the torso portion faces outward and the outer surface of the torso portion faces inward, thereby preventing contamination of the outer surface of the garment, and the accesses (26, 28) of the two sleeve portions and the two leg portions are accessible and unobstructed at peripheral edges of the folded garment; and placing the folded garment in a bag.
Connection adapter for connecting an electrical device to a connection means of an electrical installation, wherein the connection adapter (10, 14) has at least one group of engagement elements which are constructed in the manner of a disc and which are connected to each other by means of a hinge so as to be able to be pivoted about a hinge axis which is arranged perpendicularly to the engagement elements at least in a closing direction, wherein the engagement elements each have a recess for partially engaging round the connection means, wherein the recesses of the engagement elements of a group of engagement elements together delimit a receiving region for at least partially receiving the connection means, characterised in that at least one engagement element of a group of engagement elements has a closure opening which tapers in the closing direction and which has an overlapping region with a closure opening of another engagement element of the group of engagement elements for introducing a closure element, and in that an actuation and/or introduction of the closure element in the overlapping region brings about a movement of the engagement elements about the hinge axis in the closing direction.
Use of a composition for extracting and/or preserving nucleic acid from a microorganism or mixture of microorganisms, wherein the composition comprises an oxidizing agent and buffer, wherein the oxidizing agent is periodic acid or periodate, and wherein the composition is an aqueous solution having an alkaline pH.
A brewing unit for preparing beverages from pre-packed capsules, comprising: - a brewing chamber (421, 423; 521, 523) comprising a first brewing chamber portion (421; 521) and a second brewing chamber portion (423; 523), mobile one with respect to the other to open and close the brewing chamber; - a channel for inserting said capsules towards said brewing chamber; - a mobile deviator (463; 563) interposing between said first brewing chamber portion and said second brewing chamber portion (421, 423; 521, 523) when said first brewing chamber portion and second brewing chamber portion are open, to deviate said capsules towards one of said first and second brewing chamber portions (421, 423; 521, 523); - an actuation mechanism (456; 556) for closing and opening said brewing chamber; - a movable capsule supporting member (471; 571) arranged and controlled to retain the capsule from below when the brewing chamber is open, so that said capsule is supported by said mobile deviator (463; 563) and said movable capsule supporting member (471; 571); wherein: said actuation mechanism is connected to one of said first brewing chamber portion and said second brewing chamber portion (421, 423; 521, 523) to open and close said brewing chamber; said actuation mechanism is further connected to said mobile deviator (463; 563) and to said movable capsule supporting member (471; 571), such that said actuation mechanism controls both said mobile deviator (463; 563) and said movable capsule supporting member (471; 571), to remove said mobile deviator (463; 563) and said movable capsule supporting member (471; 571) from said trajectory of mutual motion of said first and second brewing chamber portions (421, 521; 423, 523) during closure of the brewing chamber. - a brewing chamber (421, 423; 521, 523) comprising a first brewing chamber portion (421; 521) and a second brewing chamber portion (423; 523), mobile one with respect to the other to open and close the brewing chamber; - a channel for inserting said capsules towards said brewing chamber; - a mobile deviator (463; 563) interposing between said first brewing chamber portion and said second brewing chamber portion (421, 423; 521, 523) when said first brewing chamber portion and second brewing chamber portion are open, to deviate said capsules towards one of said first and second brewing chamber portions (421, 423; 521, 523); - an actuation mechanism (456; 556) for closing and opening said brewing chamber; - a movable capsule supporting member (471; 571) arranged and controlled to retain the capsule from below when the brewing chamber is open, so that said capsule is supported by said mobile deviator (463; 563) and said movable capsule supporting member (471; 571);
A method for enhancing phase tuning resolution of a communications device (100, 300) that communicates via inductive coupling, the method comprising: adjusting a phase configuration of the communications device (100, 300) in response to at least one system or environmental parameter; modulating a carrier signal with the adjusted phase configuration using active load modulation, ALM; and transmitting the modulated carrier signal from the communications device (100, 300) for inductive coupling, wherein adjusting the phase configuration of the communications device (100, 300) comprises adjusting an attenuation factor of a radio frequency, RF, attenuator of the communications device (100, 300), wherein the radio frequency, RF, attenuator is configured to attenuate input voltage to an analog receiver of the communications device (100, 300). adjusting a phase configuration of the communications device (100, 300) in response to at least one system or environmental parameter; modulating a carrier signal with the adjusted phase configuration using active load modulation, ALM; and transmitting the modulated carrier signal from the communications device (100, 300) for inductive coupling, wherein adjusting the phase configuration of the communications device (100, 300) comprises adjusting an attenuation factor of a radio frequency, RF, attenuator of the communications device (100, 300), wherein the radio frequency, RF, attenuator is configured to attenuate input voltage to an analog receiver of the communications device (100, 300).
Method for preparing compounds of the formula in which R 1 is methyl, R 2 is hydrogen, R 3 is chlorine, R 4 is hydrogen, R 5 is methyl, characterized in that a compound of the formula in which the radicals R 1 to R 5 have the definitions specified above and X is chlorine, bromine or iodine, is reacted with ethylene oxide in the presence of a copper compound, wherein the copper compound used is copper iodide, copper bromide, copper bromide or copper chloride. R 1 is methyl, R 2 is hydrogen, R 3 is chlorine, R 4 is hydrogen, R 5 is methyl, X is chlorine, bromine or iodine,
A polypeptide for use in treating ineffective erythropoiesis in a thalassemia patient, wherein the polypeptide comprises an amino acid sequence that is at least 90% identical to the sequence of amino acids 29-109 of SEQ ID NO: 1, and wherein the polypeptide comprises an acidic amino acid at the position corresponding to position 79 of SEQ ID NO: 1, wherein the polypeptide is capable of binding to GDF8 and/or GOF11.
A mixing and/or evaporating device for an exhaust system of an internal combustion engine, especially of a motor vehicle, with a carrier body, which surrounds, in the circumferential direction, a flat through-flow cross section of the device, said cross-section extending transversely to the axial direction of the device, wherein the carrier body has a first and a second long side wall (21, 22) which are disposed mutually opposed to each other and a first and a second short side wall (23, 24) which are disposed mutually opposed to each other, wherein the short side walls (23, 24) each connect the two long side walls (21, 22) to one another, wherein a plurality of guide blades, which project in the direction of the respective opposite long side wall (21, 22) and are inclined in relation to the axial direction, are arranged at one of the long side walls (21, 22) at at least one axial end (26, 27), characterized in that an axial end (26, 27) of the first long side wall is offset in the axial direction by a distance (d) in relation to the axial end (26, 27) of the second long side wall arranged on the same side of the device in the axial direction.
An antimony-free polyester polymer comprising at least one polyethylene terephthalate polyester; at least one alkali metal-aluminum compound; and at least one phenolic stabilizer; wherein said polyethylene terephthalate polyester comprises (i) residues of at least one carboxylic acid component wherein at least 90 mole% of the residues are residues of terephthalic acid based on 100 mole% of the residues of at least one carboxylic acid component, (ii) residues of at least one hydroxyl component wherein at least 90 mole% of the residues are residues of ethylene glycol, based on 100 mole% of the residues of at least one hydroxyl component, and (iii) up to 10 mole% of residues chosen from residues of isophthalic acid, residues of naphthalene dicarboxylic acid, residues of diethylene glycol, residues of 1,4-cyclohexanediol, and residues of derivatives thereof, wherein said alkali metal-aluminum compound is at least one lithium aluminum compound; and wherein said phenolic stabilizer is from 100 ppm to 350 ppm of pentaerythritol tetrakis[3-(3,5-di-tert-butyl-4-hydroxyphenyl)propionate]; and wherein the polyester polymer further comprises residues of phosphoric acid. (i) residues of at least one carboxylic acid component wherein at least 90 mole% of the residues are residues of terephthalic acid based on 100 mole% of the residues of at least one carboxylic acid component, (ii) residues of at least one hydroxyl component wherein at least 90 mole% of the residues are residues of ethylene glycol, based on 100 mole% of the residues of at least one hydroxyl component, and (iii) up to 10 mole% of residues chosen from residues of isophthalic acid, residues of naphthalene dicarboxylic acid, residues of diethylene glycol, residues of 1,4-cyclohexanediol, and residues of derivatives thereof,
A pharmaceutical composition comprising a core in a form of multi-unit spheroidal tablet (MUST) containing esomeprazole or a pharmaceutically acceptable salt thereof and a disintegrant, wherein the disintegrant is low-substituted hydroxypropyl cellulose, the content of the low-substituted hydroxypropyl cellulose being in a range of about 12 percent by weight (wt%) to about 30 wt%, based on a total weight of the core, wherein the pharmaceutical composition is dissolved by 50 percent (%) or more within 15 minutes of a dissolution test in presence of simulated intestinal fluid at 25 revolutions per minute (rpm), when a dissolution test takes place using the paddle method. wherein the disintegrant is low-substituted hydroxypropyl cellulose, the content of the low-substituted hydroxypropyl cellulose being in a range of about 12 percent by weight (wt%) to about 30 wt%, based on a total weight of the core, wherein the pharmaceutical composition is dissolved by 50 percent (%) or more within 15 minutes of a dissolution test in presence of simulated intestinal fluid at 25 revolutions per minute (rpm), when a dissolution test takes place using the paddle method.
A quaternized chitosan derivative having polymerizable organic moieties, wherein the polymerizable organic moiety is represented by the following formula: -Y-P (where P is a polymerizable group; Y is a spacer group) and wherein the polymerizable group P is attached to the quaternized chitosan chain via a primary hydroxyl group and via the spacer group Y.
A brush arrangement of a wind turbine lightning protection system, realized to provide a current path from a hub to a canopy of the wind turbine, which brush arrangement comprises - a brush holder arranged to hold a brush in electrical contact with a contact surface at the exterior of the canopy, which contact surface is electrically connected to the hub; - a bracket arranged to electrically connect the brush with a mounting plate; characterized by - an access opening in the front wall of the canopy, which access opening is dimensioned to accommodate the bracket and brush holder; and - a mounting arrangement for securing the mounting plate to the canopy front wall over the access opening, from within the canopy interior. - a brush holder arranged to hold a brush in electrical contact with a contact surface at the exterior of the canopy, which contact surface is electrically connected to the hub; - a bracket arranged to electrically connect the brush with a mounting plate; - an access opening in the front wall of the canopy, which access opening is dimensioned to accommodate the bracket and brush holder; and - a mounting arrangement for securing the mounting plate to the canopy front wall over the access opening, from within the canopy interior.
A toy device for dispensing stackable or rollable materials, comprising: a housing arranged to contain a stack or roll of material and having a dispensing aperture; a manually actuated drive mechanism comprising a hand crank or hand lever which the user actuates to rotate a drive wheel of the drive mechanism at a desired speed, the drive wheel being arranged to contact and when rotated engage a portion of the material when contained in the housing so as to drive the material through the dispensing aperture to dispense it; a release mechanism comprising a movable element having a first position where it prevents the material from being driven through the aperture and movable to a second position to allow the material to be driven through the aperture, and having an actuator linked to the movable element arranged to move the element between the first and second positions upon actuation by a user, wherein the drive mechanism can be actuated by way of the hand crank or hand lever independently from actuation of the release mechanism. a housing arranged to contain a stack or roll of material and having a dispensing aperture; a manually actuated drive mechanism comprising a hand crank or hand lever which the user actuates to rotate a drive wheel of the drive mechanism at a desired speed, the drive wheel being arranged to contact and when rotated engage a portion of the material when contained in the housing so as to drive the material through the dispensing aperture to dispense it; a release mechanism comprising a movable element having a first position where it prevents the material from being driven through the aperture and movable to a second position to allow the material to be driven through the aperture, and having an actuator linked to the movable element arranged to move the element between the first and second positions upon actuation by a user, wherein the drive mechanism can be actuated by way of the hand crank or hand lever independently from actuation of the release mechanism.
A display module comprising: a display substrate including a front surface and a back surface; a first wiring layer on the front surface; an array of LEDs on and in electrical contact with the first wiring layer on the front surface of the display substrate and within a display area on the front surface of the display substrate; an array of micro chips on the front surface of the display substrate and within the display area, the array of micro chips connected with the first wiring layer to switch and drive the array of LEDs, wherein each micro chip is connected with a corresponding plurality of LEDs in the array of LEDs; a plurality of interconnects (204, 206) extending through the display substrate from the front surface to the back surface; a second wiring layer (210A, 210B) on the back surface of the display substrate; and one or more integrated circuit chips (230, 234) located on the back surface of the display substrate, and in electrical connection with the second wiring layer (210A, 210B) and the array of micro chips. a display substrate including a front surface and a back surface; a first wiring layer on the front surface; an array of LEDs on and in electrical contact with the first wiring layer on the front surface of the display substrate and within a display area on the front surface of the display substrate; an array of micro chips on the front surface of the display substrate and within the display area, the array of micro chips connected with the first wiring layer to switch and drive the array of LEDs, wherein each micro chip is connected with a corresponding plurality of LEDs in the array of LEDs; a plurality of interconnects (204, 206) extending through the display substrate from the front surface to the back surface; a second wiring layer (210A, 210B) on the back surface of the display substrate; and one or more integrated circuit chips (230, 234) located on the back surface of the display substrate, and in electrical connection with the second wiring layer (210A, 210B) and the array of micro chips.
A method for converting a shrink tunnel to a production mode wherein the method comprises at least opening one shrink tunnel entrance section and/or opening one shrink tunnel exit section; wherein the method further comprises the following step: switching on the conveyance means of the shrink tunnel or raising the speed of the conveyance means of the shrink tunnel to a specified target value (V -PM); characterized in that the method step of switching on the conveyance means or raising the speed of the conveyance means is performed in dependence on the progress of heating the shrink tunnel to a predefined target temperature (Ti-PM), wherein the time at which the conveyance means is switched on or at which the speed of the conveyance means is raised is set such that when passing through the shrink tunnel during the time which is required for heating the shrink tunnel to a final target value of a required temperature inside the shrink tunnel, all sections of the conveyance means are warmed sufficiently so that the conveyance means is overall heated to the necessary production temperature, and wherein the opening of the shrink tunnel entrance section and/or the opening of the shrink tunnel exit section are performed when the defined target value of the temperature inside the shrink tunnel has been reached. switching on the conveyance means of the shrink tunnel or raising the speed of the conveyance means of the shrink tunnel to a specified target value (V -PM); characterized in that the method step of switching on the conveyance means or raising the speed of the conveyance means is performed in dependence on the progress of heating the shrink tunnel to a predefined target temperature (Ti-PM), wherein the time at which the conveyance means is switched on or at which the speed of the conveyance means is raised is set such that when passing through the shrink tunnel during the time which is required for heating the shrink tunnel to a final target value of a required temperature inside the shrink tunnel, all sections of the conveyance means are warmed sufficiently so that the conveyance means is overall heated to the necessary production temperature, and wherein the opening of the shrink tunnel entrance section and/or the opening of the shrink tunnel exit section are performed when the defined target value of the temperature inside the shrink tunnel has been reached.
A computer-implemented method of simulating a process of a geological structure, the method comprising: (a) obtaining a first digital model comprising structural data representing a geological structure, wherein the geological structure comprises a folded and faulted geological domain, and wherein the folded and faulted geological domain comprises a discontinuous layer that includes two or more disjoint portions that are not physically connected; (b) selecting at least one marching technique based in part on a grid dimension and a grid cell shape of a grid on the first digital model; (c) applying the at least one marching technique to at least a portion of the structural data of the first digital model to identify at least some boundary data, wherein the boundary data associates the two or more disjoint portions of the at least one discontinuous layer together as part of the geological structure; (d) populating a second digital model based in part on the first digital model, a property, and the boundary data, wherein a space within an enclosed boundary comprising the associated disjoint portions of a layer is populated by ascribing a value corresponding to the property to the space; (e) simulating a process of the geological structure using the second digital model; and (f) outputting the simulation results for use in one of fluid extraction operations, fluid injection operations or wellbore insertion operations. (a) obtaining a first digital model comprising structural data representing a geological structure, wherein the geological structure comprises a folded and faulted geological domain, and wherein the folded and faulted geological domain comprises a discontinuous layer that includes two or more disjoint portions that are not physically connected; (b) selecting at least one marching technique based in part on a grid dimension and a grid cell shape of a grid on the first digital model; (c) applying the at least one marching technique to at least a portion of the structural data of the first digital model to identify at least some boundary data, wherein the boundary data associates the two or more disjoint portions of the at least one discontinuous layer together as part of the geological structure; (d) populating a second digital model based in part on the first digital model, a property, and the boundary data, wherein a space within an enclosed boundary comprising the associated disjoint portions of a layer is populated by ascribing a value corresponding to the property to the space; (e) simulating a process of the geological structure using the second digital model; and (f) outputting the simulation results for use in one of fluid extraction operations, fluid injection operations or wellbore insertion operations.