mhurhangee/ep-ind-claims huggingface dataset:
A core structure for casting a gas turbine engine airfoil, the core structure comprising a trailing edge section for defining a trailing edge of the gas turbine engine airfoil, wherein an axial direction is defined between a leading edge and a trailing edge of the airfoil, at least a portion of the trailing edge section comprising: a plurality of rib-forming apertures defined by a plurality of radially-extending channel elements and axially-extending passage elements, wherein the rib-forming apertures are arranged in radially-aligned columns, the rib-forming apertures of alternating radially-aligned columns forming axially-aligned rows; and a radially outer low flow framing channel element located adjacent to a radially outer edge of the trailing edge section, wherein the radially outer low flow framing channel element comprises a plurality of notches extending radially inwardly from the radially outer edge; wherein the rib-forming apertures comprising a first axially-aligned outer row are elongated in a radial direction such that a distal portion of the notches overlaps in an axial direction with the rib-forming apertures comprising the first axially-aligned outer row; wherein the notches are radially aligned with the rib-forming apertures of a second axially-aligned outer row; and wherein a radial height (H 1, H 2) of at least one of a first axially-extending passage element (148a, 148b) and a second axially-extending passage element is greater than a prevalent radial height of axially-extending passage elements within the core structure within each radially-aligned column. a plurality of rib-forming apertures defined by a plurality of radially-extending channel elements and axially-extending passage elements, wherein the rib-forming apertures are arranged in radially-aligned columns, the rib-forming apertures of alternating radially-aligned columns forming axially-aligned rows; and a radially outer low flow framing channel element located adjacent to a radially outer edge of the trailing edge section, wherein the radially outer low flow framing channel element comprises a plurality of notches extending radially inwardly from the radially outer edge; wherein the rib-forming apertures comprising a first axially-aligned outer row are elongated in a radial direction such that a distal portion of the notches overlaps in an axial direction with the rib-forming apertures comprising the first axially-aligned outer row; wherein the notches are radially aligned with the rib-forming apertures of a second axially-aligned outer row; and wherein a radial height (H 1, H 2) of at least one of a first axially-extending passage element (148a, 148b) and a second axially-extending passage element is greater than a prevalent radial height of axially-extending passage elements within the core structure within each radially-aligned column.
A polymer obtained by hydrolysis and polymerization of a monomer having a formula: p-PhOPhOPh-Si 3 (IIb) wherein each X is a hydrolysable group independently selected from hydrogen and an alkoxy group having 1 to 6 carbon atoms optionally containing an alkoxy substituent, halo, hydroxy or -OSiMe 3. with monomers selected from monomers having a formula: (p-Ph-O-Ph) 2 Si 2 wherein each X is a hydrolysable group independently selected from hydrogen and an alkoxy group having 1 to 6 carbon atoms optionally containing an alkoxy substituent, halo, hydroxy or -OSiMe 3, or p-PhOPh-Si 3 (IIa) wherein each X is a hydrolysable group independently selected from hydrogen and an alkoxy group having 1 to 6 carbon atoms optionally containing an alkoxy substituent, halo, hydroxy or - OSiMe 3.
A drying apparatus (100; 200) for heating and cooling media before the media is printed on and usable with a printing system, the drying apparatus (100; 200) comprising: a housing having a front region and a rear region adjacent to the front region, the front region including an inlet to receive media and the rear region including an outlet to pass media therethrough; a first set of radiative heating elements disposed within the front region to heat the media; a second set of radiative heating elements disposed within the rear region to heat media; an air handling device disposed across from the second set of radiative heating elements to jet air within the rear region which cools media prior to the media being passed through the outlet, wherein the air handling device comprises: a plurality of air bars, wherein each air bar includes a plurality of nozzles to jet the air at the media. a housing having a front region and a rear region adjacent to the front region, the front region including an inlet to receive media and the rear region including an outlet to pass media therethrough; a first set of radiative heating elements disposed within the front region to heat the media; a second set of radiative heating elements disposed within the rear region to heat media; an air handling device disposed across from the second set of radiative heating elements to jet air within the rear region which cools media prior to the media being passed through the outlet,
An alternating current electric motor of a combined supply and charging electric device, said electric motor being formed by a stator (300, 400, 500) configured to be connected to a power grid, said charging current of said grid being injected via a connexion point dividing each phase of said stator configured to be connected to a phase of said grid into two half-windings, each half-winding of a phase including a plurality of coils having a leak inductance, characterised in that the coils of a phase are distributed on either side of the connection point of the phase so as to reduce magnetic coupling of the half-windings at the connection point, such that a non-zero apparent inductance resides at said connection point in a charging mode of said device, said apparent inductance being higher than said leak inductance of said coils.
A system for the delivery of a combustible for supplying an engine, comprising • a conduit system, in which a fluid (22, 60) and a combustible (23, 61) which is different to this fluid can be led; • a media transformer (32, 80) which is configured to deliver the combustible (23, 61) through the conduit system; • a connection (48, 56, 210) via which the system for the delivery of the combustible can be connected to a drive unit, wherein the drive unit is configured to move the fluid (22, 60) through the conduit system and wherein the connection (48, 56, 210) is configured to feed the fluid (22, 60) to the media transformer (32, 80); wherein the media transformer (32, 80) comprises a deflectable element (37, 38, 204), a first volume (35, 201.1, 201.2) for the fluid (22, 60), a second volume (36, 202.1, 202.2) for the combustible and a first feed conduit (33.1, 33.1.1, 33.1.2), via which the fluid can flow into the first volume (35, 201.1, 201.2), wherein the media transformer is configured to convert fluid (22, 60) which flows into the first volume (35, 201.1, 201.2) via the first feed conduit (33.1, 33.1.1, 33.1.2) and which has a pressure that varies into a deflection of the deflectable element (37, 38, 204) and to generate a pumping effect upon the combustible (23, 61) via the deflection of the deflectable element (37, 38, 204), wherein the system comprises a switch-over valve (43, 207) and wherein the system and the switch-over valve are configured in a manner that it can be switched between a supply of the engine with fluid and a supply of the engine with combustible, wherein the media transformer is configured to generate a temporal course of the pumping effect that is suitable for a supply of the engine with combustible. • a conduit system, in which a fluid (22, 60) and a combustible (23, 61) which is different to this fluid can be led; • a media transformer (32, 80) which is configured to deliver the combustible (23, 61) through the conduit system; • a connection (48, 56, 210) via which the system for the delivery of the combustible can be connected to a drive unit, wherein the drive unit is configured to move the fluid (22, 60) through the conduit system and wherein the connection (48, 56, 210) is configured to feed the fluid (22, 60) to the media transformer (32, 80);
A process for preparing cyclic carbonates of formula la or Ib or mixtures thereof wherein R 1 is hydrogen or an organic radical having from 1 to 40 carbon atoms, comprising the process step: a) reacting a propargylic alcohol of formula II wherein R 1 has the same meaning as in formula Ia or Ib, with carbon dioxide in the presence of at least one transition metal catalyst TMC1, which comprises a transition metal selected from metals of groups 10, 11 and 12 of the periodic table of the elements according to IUPAC and at least one bulky ligand selected from the group of ligands consisting of compounds of formula III and compounds of formula IV wherein D is P, As or Sb, R 2 is an organic radical having from 1 to 40 carbon atoms, R 3, R 4 are identical or different, and are each an organic radical having from 1 to 40 carbon atoms, and, R 5 is an organic radical having from 1 to 40 carbon atoms or is identical to R 2, and Z is a divalent bridging group selected from -CR 7 =CR 8 -, -CR 7 =N-, -CR 7 R 9 -CR 8 R 10 - and -CR 7 R 9 -CR 8 R 10 -CR 11 R 12 -, wherein R 7, R 8, R 9, R 10, R 11 and R 12 are independently from each other hydrogen or as defined as R 5 or two adjacent radicals R 7 and R 8 and/or R 10 and R 11 together with the atoms connecting them form a monocyclic or polycyclic, substituted or unsubstituted, aliphatic or aromatic ring system which has from 4 to 40 carbon atoms and can also comprise at least one heteroatom selected from the group consisting of the elements Si, Ge, N, P, O and S. R 1 is hydrogen or an organic radical having from 1 to 40 carbon atoms, a) reacting a propargylic alcohol of formula II D is P, As or Sb, R 2 is an organic radical having from 1 to 40 carbon atoms, R 3, R 4 are identical or different, and are each an organic radical having from 1 to 40 carbon atoms, and, R 5 is an organic radical having from 1 to 40 carbon atoms or is identical to R 2, and Z is a divalent bridging group selected from -CR 7 =CR 8 -, -CR 7 =N-, -CR 7 R 9 -CR 8 R 10 - and -CR 7 R 9 -CR 8 R 10 -CR 11 R 12 -, wherein R 7, R 8, R 9, R 10, R 11 and R 12 are independently from each other hydrogen or as defined as R 5 or two adjacent radicals R 7 and R 8 and/or R 10 and R 11 together with the atoms connecting them form a monocyclic or polycyclic, substituted or unsubstituted, aliphatic or aromatic ring system which has from 4 to 40 carbon atoms and can also comprise at least one heteroatom selected from the group consisting of the elements Si, Ge, N, P, O and S.
A method for the in vitro diagnosis of colorectal cancer by determining the presence of the protein disulfide isomerase marker in a biological sample taken from a patient suspected of having colorectal cancer using at least one anti-PDI monoclonal antibody directed against a PDI epitope chosen from the epitopes of sequence SEQ ID No.1, SEQ ID No.2 with an aromatic amino acid which is close in the three-dimensional structure of PDI and SEQ ID No.3.
Rotor of a turbomachine, which has: - a plurality of rotor blades (21, 22; A, B, C), which each have a blade leading edge and a blade tip, - the rotor blades (21, 22; A, B, C) forming a first group and at least one further group of rotor blades of different construction, - the rotor blades (21; A) of the first group being nominal rotor blades, - the rotor blades (22; B, C) of the at least one further group each having a material cutout (25, 25') in the transition from the blade leading edge to the blade tip, said material cutout not being present in the case of the rotor blades (21; A) of the first group, and - the rotor blades (21, 22; A, B, C) of the first group and of the at least one further group forming a non-periodic sequence in the circumferential direction, wherein, in the case of at least one group of rotor blades (22; B, C) with material cutouts in the profile section, the shape of the leading edge in the region of the material cutout (25, 25') deviates from the shape of the leading edge outside the material cutout, characterized in that the leading edge has an elliptical form in the region of the material cutout (25, 25') and in the region outside the material cutout in the profile section, the ratio of major axis (a) to minor axis (b) being greater in the region of the material cutout (25, 25') than in the region outside the material cutout. - a plurality of rotor blades (21, 22; A, B, C), which each have a blade leading edge and a blade tip, - the rotor blades (21, 22; A, B, C) forming a first group and at least one further group of rotor blades of different construction, - the rotor blades (21; A) of the first group being nominal rotor blades, - the rotor blades (22; B, C) of the at least one further group each having a material cutout (25, 25') in the transition from the blade leading edge to the blade tip, said material cutout not being present in the case of the rotor blades (21; A) of the first group, and - the rotor blades (21, 22; A, B, C) of the first group and of the at least one further group forming a non-periodic sequence in the circumferential direction,
A blood purification device, comprising: a blood circuit for extracorporeally circulating blood of a patient; a liquid supply circuit for supplying a supply liquid to the blood circuit or to a blood purifier provided on the blood circuit; and a waste liquid circuit for discharging the waste liquid from the blood purifier, wherein each of the blood circuit, the liquid supply circuit and the waste liquid circuit comprises a flexible tube, a plurality of types of tubes with different inner diameters are applicable as each circuit, characterized in that the device comprises a tube identification unit that is configured to perform a tube identification process for identifying a tube used for the blood circuit, the liquid supply circuit or the waste liquid circuit by the identification of the inner diameter or a cross-sectional area of a flow path or a priming volume of the tube used for each circuit via a comparison of an amount of liquid sent from a peristaltic pump with a preset threshold range and determining whether or not there is an abnormality in the tube, based on the amount of liquid sent from a peristaltic pump provided on the blood circuit, the liquid supply circuit or the waste liquid circuit, or pressure fluctuation in the circuit, caused when driving the pump for a predetermined time, and when the amount of liquid does not fall within a preset threshold range. a blood circuit for extracorporeally circulating blood of a patient; a liquid supply circuit for supplying a supply liquid to the blood circuit or to a blood purifier provided on the blood circuit; and a waste liquid circuit for discharging the waste liquid from the blood purifier, wherein each of the blood circuit, the liquid supply circuit and the waste liquid circuit comprises a flexible tube, a plurality of types of tubes with different inner diameters are applicable as each circuit, characterized in that the device comprises a tube identification unit that is configured to perform a tube identification process for identifying a tube used for the blood circuit, the liquid supply circuit or the waste liquid circuit by the identification of the inner diameter or a cross-sectional area of a flow path or a priming volume of the tube used for each circuit via a comparison of an amount of liquid sent from a peristaltic pump with a preset threshold range and determining whether or not there is an abnormality in the tube, based on the amount of liquid sent from a peristaltic pump provided on the blood circuit, the liquid supply circuit or the waste liquid circuit, or pressure fluctuation in the circuit, caused when driving the pump for a predetermined time, and when the amount of liquid does not fall within a preset threshold range.
A baffle insert (406; 500; 600; 700; 800; 900; 1000; 1100; 1200; 1300; 1400; 1500; 1600) for an airfoil of a gas turbine engine, the baffle insert comprising: a baffle insert body having a first side portion and a second side portion, wherein each side portion has a respective end (508, 512); a first set of vortex generation elements (510; 1504; 1604) arranged at the end of the first side portion; and a second set of vortex generation elements (514; 1506; 1606) arranged at the end of the second side portion, wherein the first set of vortex generation elements and the second set of vortex generation elements are arranged at an aft end of the baffle insert body; and the end of the first side portion is joined with the end of the second side portion; characterized in that the first set of vortex generation elements (510, 1504, 1604) and the second set of vortex generation elements (514, 1506, 1606) are arranged in an alternating and overlapping pattern where the first side portion joins with the second side portion. a baffle insert body having a first side portion and a second side portion, wherein each side portion has a respective end (508, 512); a first set of vortex generation elements (510; 1504; 1604) arranged at the end of the first side portion; and a second set of vortex generation elements (514; 1506; 1606) arranged at the end of the second side portion, wherein the first set of vortex generation elements and the second set of vortex generation elements are arranged at an aft end of the baffle insert body; and the end of the first side portion is joined with the end of the second side portion; characterized in that the first set of vortex generation elements (510, 1504, 1604) and the second set of vortex generation elements (514, 1506, 1606) are arranged in an alternating and overlapping pattern where the first side portion joins with the second side portion.
A weighing platform comprising a polymeric measuring plate and a measuring system, wherein the measuring plate is monolithic and formed integrally in its entire volume of a polymeric thermoplastic material or polymeric duroplastic material, thermosetting or chemically curing, wherein the measuring plate comprises a substantially flat active surface and a spatially shaped passive surface, and wherein the measuring system is located in areas of highest stress and is in the form of an optoelectronic measuring system or a beam measuring system.
A process for preparing highly pure menthyl nicotinate in the absence of hazardous solvents, said process comprising the following steps Step 1: transesterification reaction of menthol with a C 1 -C 4 alkyl ester of nicotinic acid, in the presence of an alkaline catalyst belonging to the class of C 1 -C 4 alkoxides, linear or branched, at a temperature comprised between 40°C and 150°C, wherein menthol is in a molar ratio comprised between 1:1 and 20:1 with respect to said alkyl ester of nicotinic acid, said reaction being conducted under partial vacuum to facilitate the removal of the sole C 1 -C 4 alkyl alcohol which is formed by the reaction, and then filtering the product obtained by the reaction so as to separate the residue of the catalyst from the reaction products; Step 2 - Distillation of the mixture of reaction products obtained from step 1, in the presence of activated carbons having a concentration between 0.1 and 5%, with respect to the mass of reaction (mixture) to be distilled, under conditions of temperature and vacuum such as to distil firstly said C 1 -C 4 alkyl ester of nicotinic acid that has not reacted in step 1, then the excess of menthol and subsequently the pure menthyl nicotinate.
Stack container for transporting and storing objects, said container consisting of a rectangular base with side walls rising vertically from the bottom edges, with the top edge of the side walls being designed to be cantilevered outwards as a support surface for the rim of a second identically constructed container which is also cantilevered outwards and surrounds the base, whereby the upper side of the top edge of the side walls and the under side of the rim surrounding the base are formed complementary to one another, whereby the corner areas of the top edge between two adjacent side walls are formed horizontally, characterized in that over the extension of the container circumference, partial surfaces of the top edge and the rim are designed differently in their angle of inclination, such that the corner areas and the rim surrounding the base are formed horizontally between two adjacent side walls each, whereas between the corner areas (5, 5') the top edge and the rim are designed at least in parts (6, 6') such that they are obliquely inclined outward and downward at an angle from the level of the horizontal corner area.
A face mask receptacle device comprising: a valve comprising at least one slit; a body portion surrounding the valve; and an anchor portion; wherein at least one of the body portion or anchor portion is elastic; wherein the body portion and the anchor portion are inseparable by being integrally formed as one continuous piece; wherein the one continuous piece is configured to protrude through a hole of the face mask that, in an assembled configuration, the body portion and the at least one slit are in an exterior region of the face mask and the anchor portion is in an interior region of the face mask; wherein the valve is configured to receive a drinking, feeding or inhalation instrument therethrough; and wherein the valve is structurally concave in a non-deformed state prior to receiving the drinking, feeding or inhalation instrument therethrough. a valve comprising at least one slit; a body portion surrounding the valve; and an anchor portion; wherein at least one of the body portion or anchor portion is elastic; wherein the body portion and the anchor portion are inseparable by being integrally formed as one continuous piece; wherein the one continuous piece is configured to protrude through a hole of the face mask that, in an assembled configuration, the body portion and the at least one slit are in an exterior region of the face mask and the anchor portion is in an interior region of the face mask; wherein the valve is configured to receive a drinking, feeding or inhalation instrument therethrough; and wherein the valve is structurally concave in a non-deformed state prior to receiving the drinking, feeding or inhalation instrument therethrough.