mhurhangee/ep-ind-claims huggingface dataset:
A low-pressure turbine for a turbomachine, the turbine comprising bladed disks connected by a drive cone to a turbine shaft, the bladed disks and the drive cone including at their inner and outer peripheries, respectively, festooned annular flanges (18, 20), each formed by alternating solid portions and hollow portions, with the solid portions including holes for passing fastener members, the turbine being characterized in that each solid portion is connected to the periphery of the disk or to the drive cone, respectively, by two concave fillets (32, 34) that are asymmetrical, having different radii of curvature, the radius of curvature of the concave filet that is in front relative to the direction F being less than the radius of curvature of the other concave filet for the drive cone (and vice versa for the turbine disks).
An antisense oligonucleotide for use in treatment of cancer in a subject, said antisense oligonucleotide comprising a sequence complementary to a mRNA encoding BRCA2, wherein the antisense oligonucleotide (i) has a length of less than 100 nucleotides, preferably of less than 50 nucleotides, more preferably of less than 35 nucleotides or even more preferably of less than 30 nucleotides, and comprises a sequence as set forth in SEQ ID NO: 1, 13, or 17 or (ii) selectively hybridizes to the sequence as set forth in SEQ ID NO:18 and has a length between 7 and 100 nucleotides, preferably between about 12 and about 50 nucleotides, more preferably between about 12 and 35 nucleotides or even more preferably between about 12 and 30 nucleotides.
Method for operating an adsorption apparatus (16; 2016) for removing an adsorbable and/or condensable component from a gas flow at least in part, the adsorption apparatus (16; 2016) containing an adsorption material (123; 2123) and being set up in such a way that the adsorption material (123; 2123) can be brought into contact with the gas flow in a working region of the adsorption apparatus (16; 2016) to remove the component; and that the adsorption material (123; 2123) can be regenerated in a regeneration region of the adsorption apparatus (16; 2016) by desorption of the component; and that for this purpose, in a load operating phase of the adsorption apparatus, successive sub-regions (410; 510) of the adsorption material (123; 2123) can be moved through the working region and the regeneration region continuously in a periodic manner relative to the working region and the regeneration region, wherein the method has the following method steps: - conveying the gas flow through the adsorption apparatus (16; 2016) in such a way that the component is removed at least in part from the gas flow and an output gas flow from which the component has been removed at least in part is provided; and - in the event of an at least temporary interruption to or termination of the conveyance of the gas flow for providing the output gas flow, initiating a post-operating phase of the adsorption apparatus (16; 2016) is initiated, during which a sub-region (550, 551) of the adsorption material (123; 2123) is moved out of the regeneration region by a movement relative to the regeneration region. - conveying the gas flow through the adsorption apparatus (16; 2016) in such a way that the component is removed at least in part from the gas flow and an output gas flow from which the component has been removed at least in part is provided; and - in the event of an at least temporary interruption to or termination of the conveyance of the gas flow for providing the output gas flow, initiating a post-operating phase of the adsorption apparatus (16; 2016) is initiated, during which a sub-region (550, 551) of the adsorption material (123; 2123) is moved out of the regeneration region by a movement relative to the regeneration region.
An assembly bracket suitable for securing an aeration element with a membrane sleeve to a floor or bottom of a water tank, container or pool, comprising: an upper profiled portion having lateral flange connection members; a lower profiled portion having a base portion and upper flange connection portions extending from said base portion; an attachment device for securing said assembly bracket to the floor or base of the tank or container, wherein said upper flange connection portions are configured to correspondingly engage the lateral flange connection members of said upper profiled portion via a snap-fit connection, wherein said lower profiled portion further includes through-going portions extending through a cross sectional width of said lower profiled portion, wherein the base portion of the assembly bracket includes a substantially U-shaped receiving portion and lateral shoulder portions and the upper profiled portion includes lateral shoulder portions, wherein said upper profiled portion and said lower profiled portion are configured so that the inflated membrane sleeve about the aeration element, when said aeration element is in place within said assembly bracket, only makes contact at the shoulder portions (81, 91), characterized in that said upper flange connection portions are positioned at upper ends or legs of the U-shaped receiving portion. an upper profiled portion having lateral flange connection members; a lower profiled portion having a base portion and upper flange connection portions extending from said base portion; an attachment device for securing said assembly bracket to the floor or base of the tank or container, wherein said upper flange connection portions are configured to correspondingly engage the lateral flange connection members of said upper profiled portion via a snap-fit connection, wherein said lower profiled portion further includes through-going portions extending through a cross sectional width of said lower profiled portion, wherein the base portion of the assembly bracket includes a substantially U-shaped receiving portion and lateral shoulder portions and the upper profiled portion includes lateral shoulder portions, wherein said upper profiled portion and said lower profiled portion are configured so that the inflated membrane sleeve about the aeration element, when said aeration element is in place within said assembly bracket, only makes contact at the shoulder portions (81, 91), characterized in that said upper flange connection portions are positioned at upper ends or legs of the U-shaped receiving portion.
A washing machine comprising: a cabinet comprising side frames that form exterior sides of the washing machine; a tub for storing washing water disposed in the cabinet; and a rotating tub that is rotatably disposed in the tub for accommodating laundry, wherein each side frame comprises beads for reinforcing rigidity, characterized in that the beads protrude further towards an outside of the side frame as they get closer to a centre of the side frame, wherein the centre of the side frame is defined by an intersection point Q between a first imaginary centre line M that crosses upper and lower portions of the side frame, and a second imaginary centre line N that crosses the front and rear of the side frame and is perpendicular to the first centre line M. a cabinet comprising side frames that form exterior sides of the washing machine; a tub for storing washing water disposed in the cabinet; and a rotating tub that is rotatably disposed in the tub for accommodating laundry, wherein each side frame comprises beads for reinforcing rigidity, characterized in that the beads protrude further towards an outside of the side frame as they get closer to a centre of the side frame, wherein the centre of the side frame is defined by an intersection point Q between a first imaginary centre line M that crosses upper and lower portions of the side frame, and a second imaginary centre line N that crosses the front and rear of the side frame and is perpendicular to the first centre line M.
A drive unit for operating in a preset mode in a present operation in which a zooming operation of an imaging optical system (22, 23) to a predetermined zoom position is performed and, at the same time, driving a rotation of the imaging optical system (22, 23) to a predetermined rotational position wherein said rotation includes rotation in at least one of a panning or tilting direction, the drive unit comprising: control means (215, 216) for performing the driving of the imaging optical system (22, 23) in the preset mode in accordance with designated predetermined rotational and zoom positions of the imaging optical system and rotational and zoom positions of the imaging optical system at the start of the preset mode, characterized in that the control means (215, 216) is arranged so that in a case of operating in the preset mode, if the amount of driving required to rotate the imaging optical system (22, 23) for the preset operation in the preset mode is smaller than a threshold value based on the imaging field angle of the imaging optical system, the control means controls the driving to rotate the imaging optical system during the preset operation at a speed based on the change rate per unit time of imaging field angle of the zoom operation of the imaging optical system (22, 23) and, if the amount of driving required to rotate the imaging optical system (22, 23) for the preset operation in the preset mode is greater than the threshold value, the control means controls the driving to rotate the imaging optical system (22, 23) during the preset operation at a constant speed not based on the change rate per unit time of imaging field angle of the zoom operation of the imaging optical system (22, 23). control means (215, 216) for performing the driving of the imaging optical system (22, 23) in the preset mode in accordance with designated predetermined rotational and zoom positions of the imaging optical system and rotational and zoom positions of the imaging optical system at the start of the preset mode, characterized in that the control means (215, 216) is arranged so that in a case of operating in the preset mode, if the amount of driving required to rotate the imaging optical system (22, 23) for the preset operation in the preset mode is smaller than a threshold value based on the imaging field angle of the imaging optical system, the control means controls the driving to rotate the imaging optical system during the preset operation at a speed based on the change rate per unit time of imaging field angle of the zoom operation of the imaging optical system (22, 23) and, if the amount of driving required to rotate the imaging optical system (22, 23) for the preset operation in the preset mode is greater than the threshold value, the control means controls the driving to rotate the imaging optical system (22, 23) during the preset operation at a constant speed not based on the change rate per unit time of imaging field angle of the zoom operation of the imaging optical system (22, 23).
Drainage tray for collecting condensate from a heat pump, the heat pump being of a type adapted to be mounted on a support, the support being of a type mountable to at least one supporting structure configured to carry the weight of the heat pump and the support, wherein the tray comprises a peripheral edge portion defining a central recessed tray portion configured to collect condensate, wherein the tray further comprises a condensate outlet configured for removing the condensate from the tray, characterised in that the tray is configured to be arranged between an underside of the heat pump and the support, and wherein the tray further comprises at least two lateral recessed portions (10, 11) on the opposite side of the tray in relation to the central recessed portion, said lateral recessed portions (10, 11) adapted to be essentially corresponding to supporting members on the support, such that the tray is supportable by the contact between the at least two lateral recessed portions (10, 11) and the support. wherein the tray comprises a peripheral edge portion defining a central recessed tray portion configured to collect condensate, wherein the tray further comprises a condensate outlet configured for removing the condensate from the tray, characterised in that the tray is configured to be arranged between an underside of the heat pump and the support, and wherein the tray further comprises at least two lateral recessed portions (10, 11) on the opposite side of the tray in relation to the central recessed portion, said lateral recessed portions (10, 11) adapted to be essentially corresponding to supporting members on the support, such that the tray is supportable by the contact between the at least two lateral recessed portions (10, 11) and the support.
A solid formulation comprising: (a) 4-methylpyrazole, or a physiologically acceptable salt form thereof; and (b) an excipient, wherein the excipient is a polyethylene glycol having a total weight average molecular weight of from 5000 to 10,000: wherein the formulation is in a solid form at temperatures of from at least 25° C to up to about 40° C. (a) 4-methylpyrazole, or a physiologically acceptable salt form thereof; and (b) an excipient, wherein the excipient is a polyethylene glycol having a total weight average molecular weight of from 5000 to 10,000: wherein the formulation is in a solid form at temperatures of from at least 25° C to up to about 40° C. wherein the formulation is in a solid form at temperatures of from at least 25° C to up to about 40° C.
A sulfur-containing heterocycle fused naphthalenetetracarboxylic acid diimide compound having the following structures: wherein, R 1 and R 2 are C 1 ∼ C 30 and C 1 ∼ C 12 n-alkyl or branched alkyl, respectively; and R 3 is H or halogen.
Method for re-melting at least one crack (7, 7', 7",...) in a component by means of a welding beam, wherein the crack (7, 7', 7",...) has a longitudinal direction of propagation, in which, at least locally, the welding beam is moved transversely to, in particular perpendicular to, the direction of propagation of the at least one crack (7, 7', 7",...), characterized in that the welding beam, at the end of the complete re-welding of the crack (7, 7', 7'',...), is moved back to the starting point, wherein the welding beam then proceeds at a distance from the crack (7, 7', 7",...) and in particular parallel to the direction of propagation of the crack (7, 7', 7'',...).
A cutting insert (23, 123, 223), comprising: a first chip surface (35, 135, 235); a second surface (37, 137, 237) on an opposite side of the insert from the first chip surface; and a side surface (43, 143, 243) extending between the first chip surface (35, 135, 235) and the second surface (37, 137, 237), at least part of one first cutting edge being defined by an intersection of the side surface (43, 143, 243) with the first chip surface, wherein the side surface (43, 143, 243) comprises at least one recess (41, 141, 241), the recess including an insert supporting surface (39, 139, 239) for supporting the insert relative to a protruding abutment surface on a toolholder and a flat auxiliary insert supporting surface for supporting the insert relative to a non-protruding, flat abutment surface, characterized in that the side surface (43, 143, 243) comprises a plurality of surface portions (75, 175, 275), at least part of one first cutting edge being defined by intersections of each surface portion (75, 175, 275) with the first chip surface (35, 135, 235), in that the side surface (43, 143, 243) comprises eight surface portions (75, 175, 275) and forms eight cutting edges with the first chip surface (35, 135, 235), and in that adjacent recesses (41, 141, 241) intersect at a corner (77, 177, 277). a first chip surface (35, 135, 235); a second surface (37, 137, 237) on an opposite side of the insert from the first chip surface; and a side surface (43, 143, 243) extending between the first chip surface (35, 135, 235) and the second surface (37, 137, 237), at least part of one first cutting edge being defined by an intersection of the side surface (43, 143, 243) with the first chip surface, wherein the side surface (43, 143, 243) comprises at least one recess (41, 141, 241), the recess including an insert supporting surface (39, 139, 239) for supporting the insert relative to a protruding abutment surface on a toolholder and a flat auxiliary insert supporting surface for supporting the insert relative to a non-protruding, flat abutment surface, characterized in that the side surface (43, 143, 243) comprises a plurality of surface portions (75, 175, 275), at least part of one first cutting edge being defined by intersections of each surface portion (75, 175, 275) with the first chip surface (35, 135, 235), in that the side surface (43, 143, 243) comprises eight surface portions (75, 175, 275) and forms eight cutting edges with the first chip surface (35, 135, 235), and in that adjacent recesses (41, 141, 241) intersect at a corner (77, 177, 277).
A detachable coupling arrangement for connecting a handle to a utensil, the detachable coupling arrangement comprising: - - a male portion; - - a female portion adapted to receive the male portion, wherein the male portion is adapted to be slidably receivable in the female portion, the female portion comprising at least one slot extending vertically along the length of the female portion and the male portion comprising a projection being configured to be disposed in said at least one slot; - - a stop element for preventing movement of the male portion relative to the female portion in an upward direction when the female portion is coupled to the male portion; and - - a first retention element and a resiliently deformable second retention element configured to cooperate to prevent movement of the male portion relative to the female portion in a downward direction when the female portion is coupled to the male portion, the first retention element having a retention surface, characterised in that - the first retention element has a lower surface; and - the second retention element is configured so that it engages the lower surface, as the male portion is received in the female portion, to resiliently deform the second retention element so that it locates over the first retention element and abuts against the retention surface. - - a male portion; - - a female portion adapted to receive the male portion, wherein the male portion is adapted to be slidably receivable in the female portion, the female portion comprising at least one slot extending vertically along the length of the female portion and the male portion comprising a projection being configured to be disposed in said at least one slot; - - a stop element for preventing movement of the male portion relative to the female portion in an upward direction when the female portion is coupled to the male portion; and - - a first retention element and a resiliently deformable second retention element configured to cooperate to prevent movement of the male portion relative to the female portion in a downward direction when the female portion is coupled to the male portion, - the first retention element has a lower surface; and - the second retention element is configured so that it engages the lower surface, as the male portion is received in the female portion, to resiliently deform the second retention element so that it locates over the first retention element and abuts against the retention surface.
Method of manufacturing a laminated packaging material, from which a packaging container for packaging of liquid food products can be formed, the method comprising the following steps: - Providing a bulk layer of paper or paperboard or other cellulose-based material with at least one through hole; - Providing a substrate layer and an adhesive formed by or applied to a lamination side thereof; - Positioning the bulk layer and the substrate layer so that the adhesive is facing a lamination side of the bulk layer and with said substrate layer being arranged in front of the at least one through hole; - Joining the bulk layer and the substrate layer in a lamination unit, wherein a first lamination means, the substrate layer, the bulk layer and a second lamination means are kinematically arranged in the enumerate sequence and a lamination pressure is created between the first and second lamination means (42; 44), and wherein at least one non-adhesive lamination means is kinematically arranged between the second lamination means and the bulk layer, wherein the method is a continuous or discontinuous flow process being run in a machine direction, characterized in that a position of the bulk layer and/or a position of said at least one non-adhesive lamination means is at least controlled in a direction transverse the machine direction to re-adjust the position of the non-adhesive lamination means relative to the bulk layer so that the at least one through hole is covered by the at least one non-adhesive lamination means, at least as long as the lamination pressure is imposed on the at least one trough hole. - Providing a bulk layer of paper or paperboard or other cellulose-based material with at least one through hole; - Providing a substrate layer and an adhesive formed by or applied to a lamination side thereof; - Positioning the bulk layer and the substrate layer so that the adhesive is facing a lamination side of the bulk layer and with said substrate layer being arranged in front of the at least one through hole; - Joining the bulk layer and the substrate layer in a lamination unit, wherein a first lamination means, the substrate layer, the bulk layer and a second lamination means are kinematically arranged in the enumerate sequence and a lamination pressure is created between the first and second lamination means (42; 44), and wherein at least one non-adhesive lamination means is kinematically arranged between the second lamination means and the bulk layer, wherein the method is a continuous or discontinuous flow process being run in a machine direction, characterized in that a position of the bulk layer and/or a position of said at least one non-adhesive lamination means is at least controlled in a direction transverse the machine direction to re-adjust the position of the non-adhesive lamination means relative to the bulk layer so that the at least one through hole is covered by the at least one non-adhesive lamination means, at least as long as the lamination pressure is imposed on the at least one trough hole.
A turbine blade cascade endwall that is positioned on a tip side of a plurality of turbine stator blades arranged in a ring form, wherein a pressure gradient alleviating part (11;31,32) for alleviating a pressure gradient generated in the blade height direction at a suction surface of the turbine stator blades due to a clearance leakage flow, leaking out of a gap between a tip of a turbine rotor blade located on the upstream side of the turbine stator blade and a tip endwall (10;30) disposed facing the tip of this turbine rotor blade, is provided, wherein, assuming that 0% Cax is a leading edge position of the turbine stator blades in an axial direction, that 100% Cax is a trailing edge position of the turbine stator blades in the axial direction, that 0% pitch is a position on a suction surface of one of the turbine stator blades, and that 100% pitch is a position on a pressure surface of another turbine stator blade arranged adjacent to the one turbine stator blade in the circumferential direction of the ring form, which pressure surface faces the suction surface of the one turbine stator blade, and the pressure gradient alleviating part comprises a convex portion (11;16;31) that is gently swollen as a whole within a range from -50% Cax to +50% Cax and within a range from 0% pitch to 50% pitch at the leading edge position of the turbine stator blades, characterized in that the convex portion (11;31) comprises a first and a second ridge respectively extending from a leading edge side apex of the convex portion (11;31) and from a trailing edge side apex of the convex portion (11;31) substantially parallel to the axial direction.