mhurhangee/ep-ind-claims huggingface dataset:
An inlet for a gas turbine engine, the inlet having in flow series an inlet lip and an inlet barrel, the inlet lip having a highlight defining a boundary between inner and outer surfaces of the inlet lip, and on all longitudinal sections through the inlet that contain a longitudinal axis of the inlet (i) said inner and outer surfaces having their tangents coincident on the highlight, and (ii) said inner and outer surfaces have their maximum curvature at the highlight, the highlight having an axis that extends normal to the highlight; wherein the inlet barrel has a forwardly extending flange that is joined to the inlet lip, the flange having an interface surface and the inlet lip having an interface surface, the inlet lip and the flange being joined at their respective interface surfaces; characterised in that the inlet lip interface surface has a conus angle convergent towards the highlight axis as it extends axially rearward, the conus angle of the inlet lip interface surface varying around the circumference of the inlet
A flexure element which is used in a load cell measuring a weight, is deformed by a load transferred thereto, and has an axisymmetric shape with respect to a symmetric axis and an even thickness, the flexure element comprising: a rectangular strain region which is disposed at a center of the flexure element, extends in the same direction as that of the symmetric axis, and has a first end (361 a) and a second end; two first arm portions which extend in parallel to the symmetric axis; a first connection portion which extends in a direction crossing the symmetric axis and is connected to the first end of the strain region and the first arm portions; two second arm portions which are disposed closer to the strain region than the first arm portions and extend in parallel to the symmetric axis; and a second connection portion which extends in a direction crossing the symmetric axis and is connected to the second end of the strain region and the second arm portions, wherein one of the pair of first arm portions and the pair of second arm portions receives a load in a direction perpendicular to the flexure element, and the other of the pair of first arm portions and the pair of second arm portions is fixed to a support body, characterized in that the flexure element is formed by powdered metallurgy, a gap between the first arm portion and the second arm portion and a gap between the second arm portion and the strain region are equal to or smaller than a half of the thickness of the flexure element. a rectangular strain region which is disposed at a center of the flexure element, extends in the same direction as that of the symmetric axis, and has a first end (361 a) and a second end; two first arm portions which extend in parallel to the symmetric axis; a first connection portion which extends in a direction crossing the symmetric axis and is connected to the first end of the strain region and the first arm portions; two second arm portions which are disposed closer to the strain region than the first arm portions and extend in parallel to the symmetric axis; and a second connection portion which extends in a direction crossing the symmetric axis and is connected to the second end of the strain region and the second arm portions, wherein one of the pair of first arm portions and the pair of second arm portions receives a load in a direction perpendicular to the flexure element, and the other of the pair of first arm portions and the pair of second arm portions is fixed to a support body, characterized in that the flexure element is formed by powdered metallurgy, a gap between the first arm portion and the second arm portion and a gap between the second arm portion and the strain region are equal to or smaller than a half of the thickness of the flexure element.
Amanagement server (16A, 16B) in a network including a first transmitting device configured to communicate with a first receiving device in a first cell formed by the first transmitting device and a second transmitting device configured to communicate with a second receiving device in a second cell formed by the second transmitting device, the management server being configured to control communications between the first transmitting device and the first receiving device, wherein the maximum transmission power of the first transmitting device is less than or greater than the maximum transmission power of the second transmitting device, and comprising: a network interface configured to receive a parameter (Mreq) corresponding to a desired level of improvement of communication quality at the second receiving device; a processor configured to calculate an allowable interference amount at the first receiving device based on the parameter, wherein the network communication unit is configured to output the calculated allowable interference amount to a second management server (16B, 16A) configured to control communications between the second transmitting device and the second receiving device, the second management server being configured to control communications between the second transmitting device and the second receiving device based on the allowable interference amount. a network interface configured to receive a parameter (Mreq) corresponding to a desired level of improvement of communication quality at the second receiving device; a processor configured to calculate an allowable interference amount at the first receiving device based on the parameter, wherein the network communication unit is configured to output the calculated allowable interference amount to a second management server (16B, 16A) configured to control communications between the second transmitting device and the second receiving device, the second management server being configured to control communications between the second transmitting device and the second receiving device based on the allowable interference amount.
Luminous device comprising at least one reflector and comprising at least one luminous module which has at least one radiation-emitting semiconductor component and a component carrier having at least one mounting area (4a, 4b) on which the radiation-emitting semiconductor component is mounted, wherein the luminous module is connected to the reflector in a connection plane defined by points of contact between the component carrier and the reflector, wherein the mounting area (4a, 4b) extends obliquely with respect to the connection plane characterized in that the luminous device has a cavity provided for arranging a cooling element or for guiding an air flow, wherein the component carrier encloses the cavity or the component carrier is formed in an angular fashion, such that the cavity is formed between the component carrier and a module carrier.
A shaped catalyst body for producing ethylene oxide by gas-phase oxidation of ethylene, comprising silver deposited on a porous refractory support, the shaped catalyst body having a first face side surface, a second face side surface and a circumferential surface, characterized by - a content of at least 20 wt.-% of silver, relative to the total weight of the shaped catalyst body; - a multilobe structure; - a plurality of passageways extending from the first face side surface to the second face side surface, outer passageways being arranged around a central passageway with one outer passageway being assigned to each lobe, wherein neighboring outer passageways are arranged essentially equidistantly to each other and the outer passageways are arranged essentially equidistantly to the central passageway; - a minimum wall thickness A between two neighboring passageways in the range of 0.6 to 1.3 mm; - a minimum wall thickness B between each outer passageway and the circumferential surface in the range of 1.1 to 1.8 mm; and - a BET surface area in the range of 1.6 to 3.0 m 2 /g. - a content of at least 20 wt.-% of silver, relative to the total weight of the shaped catalyst body; - a multilobe structure; - a plurality of passageways extending from the first face side surface to the second face side surface, outer passageways being arranged around a central passageway with one outer passageway being assigned to each lobe, wherein neighboring outer passageways are arranged essentially equidistantly to each other and the outer passageways are arranged essentially equidistantly to the central passageway; - a minimum wall thickness A between two neighboring passageways in the range of 0.6 to 1.3 mm; - a minimum wall thickness B between each outer passageway and the circumferential surface in the range of 1.1 to 1.8 mm; and - a BET surface area in the range of 1.6 to 3.0 m 2 /g.
An injection-molding apparatus, comprising: a cavity mold having a cavity; a core mold having a core surface to form a molding space for injection moldings when being joined to the cavity mold; a heating unit for heating the cavity mold; a cooling unit for cooling the cavity mold; and a patterning stamp having a micrometer or nanometer sized pattern and provided on an inner surface of the molding space, wherein the cavity mold comprises: a base member; and a body member having the cavity at one side thereof, having a receiving space for the cooling unit at an opposite side to the cavity, and being fixedly-coupled to the base member; characterized in that the cooling unit comprises: a cooling plate movably disposed in the receiving space of the cavity mold so as to be positioned at an opposite side to the cavity; and a driving unit arranged to reciprocate the cooling plate within the receiving space thereby contacting/ separating the cooling plate onto/from an inner surface of the cavity, wherein the cooling plate is driven by the driving unit independently from the core mold. a cavity mold having a cavity; a core mold having a core surface to form a molding space for injection moldings when being joined to the cavity mold; a heating unit for heating the cavity mold; a cooling unit for cooling the cavity mold; and a patterning stamp having a micrometer or nanometer sized pattern and provided on an inner surface of the molding space, wherein the cavity mold comprises: a base member; and a body member having the cavity at one side thereof, having a receiving space for the cooling unit at an opposite side to the cavity, and being fixedly-coupled to the base member; characterized in that a base member; and a body member having the cavity at one side thereof, having a receiving space for the cooling unit at an opposite side to the cavity, and being fixedly-coupled to the base member; characterized in that the cooling unit comprises: a cooling plate movably disposed in the receiving space of the cavity mold so as to be positioned at an opposite side to the cavity; and a driving unit arranged to reciprocate the cooling plate within the receiving space thereby contacting/ separating the cooling plate onto/from an inner surface of the cavity, wherein the cooling plate is driven by the driving unit independently from the core mold. a cooling plate movably disposed in the receiving space of the cavity mold so as to be positioned at an opposite side to the cavity; and a driving unit arranged to reciprocate the cooling plate within the receiving space thereby contacting/ separating the cooling plate onto/from an inner surface of the cavity, wherein the cooling plate is driven by the driving unit independently from the core mold.
A method of making a tobacco extract comprising; (a) contacting tobacco with an extraction solvent in a first chamber such that tobacco components are extracted from the tobacco into the extraction solvent, wherein the extraction solvent is a supercritical fluid in the first chamber; (b) passing the extraction solvent containing tobacco components along a line towards a second chamber, wherein a valve is present in the line and the conditions downstream of the valve are such that the extraction solvent is subcritical; and (c) pumping entrapment solvent into a flow downstream of the valve, wherein the tobacco components are released from the extraction solvent by transfer to subcritical conditions and are dissolved in the entrapment solvent, whereby the tobacco components dissolved in entrapment solvent are collected in the second chamber. (a) contacting tobacco with an extraction solvent in a first chamber such that tobacco components are extracted from the tobacco into the extraction solvent, wherein the extraction solvent is a supercritical fluid in the first chamber; (b) passing the extraction solvent containing tobacco components along a line towards a second chamber, wherein a valve is present in the line and the conditions downstream of the valve are such that the extraction solvent is subcritical; and (c) pumping entrapment solvent into a flow downstream of the valve, wherein the tobacco components are released from the extraction solvent by transfer to subcritical conditions and are dissolved in the entrapment solvent, whereby the tobacco components dissolved in entrapment solvent are collected in the second chamber.
A display device for a vehicle comprising: a windshield, a display which emits an emission display light having a polarization plane in a specific direction; an illumination light source which illuminates the display; a phase difference plate which is disposed facing the display in a state where a fast axis (f) is shifted by a predetermined angle with respect to the polarization plane of the emission display light emitted by the display; and a rotating mechanism which rotates the phase difference plate to rotate a rotation angle of the fast axis (f) such that the component ratio of P- and S-waves of a reflection light from the windshield can be finely adjusted in accordance with the constitution and preferred posture of the viewer, or the state of the inclination angle of the windshield W disposed in the vehicle. wherein the emission display light includes a P-polarized light being a vertically polarized wave and a S-polarized light being a horizontally polarized light, wherein, by the emission display light being transmitted through the phase difference plate, a P'-wave is produced by a polarization plane of the P-polarized light being rotated by a predetermined angle and a S'-wave is produced by a polarization plane of the S-polarized light being rotated by the predetermined angle, and wherein the P'-wave and the S'-wave have a S-polarized component (P'S, S'S) respectively, the S-polarized component (P'S, S'S) being reflected by the windshield when the emission display light is incident on the windshield at a Brewster angle. a windshield, a display which emits an emission display light having a polarization plane in a specific direction; an illumination light source which illuminates the display; a phase difference plate which is disposed facing the display in a state where a fast axis (f) is shifted by a predetermined angle with respect to the polarization plane of the emission display light emitted by the display; and a rotating mechanism which rotates the phase difference plate to rotate a rotation angle of the fast axis (f) such that the component ratio of P- and S-waves of a reflection light from the windshield can be finely adjusted in accordance with the constitution and preferred posture of the viewer, or the state of the inclination angle of the windshield W disposed in the vehicle. wherein the emission display light includes a P-polarized light being a vertically polarized wave and a S-polarized light being a horizontally polarized light, wherein, by the emission display light being transmitted through the phase difference plate, a P'-wave is produced by a polarization plane of the P-polarized light being rotated by a predetermined angle and a S'-wave is produced by a polarization plane of the S-polarized light being rotated by the predetermined angle, and wherein the P'-wave and the S'-wave have a S-polarized component (P'S, S'S) respectively, the S-polarized component (P'S, S'S) being reflected by the windshield when the emission display light is incident on the windshield at a Brewster angle.
A cardiac assist system comprising a pneumatic effector configured to be implanted beneath a patient's pericardial sac and over a myocardial surface overlying the patient's left ventricle; an implantable port configured to receive a percutaneously introduced cannula, wherein said port is connected to supply a driving gas received from the cannula to the pneumatic effector; an external drive unit including: (a) a pump assembly; and (b) control circuitry configured to operate the pump to actuate the pneumatic effector in response to the patient's sensed heart rhythm; and a connecting tube having a pump end attachable to the pump assembly and a cannula end attached to the cannula. a pneumatic effector configured to be implanted beneath a patient's pericardial sac and over a myocardial surface overlying the patient's left ventricle; an implantable port configured to receive a percutaneously introduced cannula, wherein said port is connected to supply a driving gas received from the cannula to the pneumatic effector; an external drive unit including: (a) a pump assembly; and (b) control circuitry configured to operate the pump to actuate the pneumatic effector in response to the patient's sensed heart rhythm; and (a) a pump assembly; and (b) control circuitry configured to operate the pump to actuate the pneumatic effector in response to the patient's sensed heart rhythm; and a connecting tube having a pump end attachable to the pump assembly and a cannula end attached to the cannula.
A method for manufacturing a dental prosthesis or partial dental prosthesis, in which a model of the dentition or of a part of the dentition of the patient to be treated is prepared; the dental prosthesis or partial dental prosthesis is manufactured with reference to the model and is inserted into the model; and the quality of the prosthesis is checked by a moving of the upper and lower jaws of the dentition model relative to one another, characterized in that the dentition model is prepared as a virtual model while including the temporomandibular joint, the prosthesis is produced virtually and inserted into the model and the quality of the prosthesis is checked by a virtual moving of the dentition over the virtual temporomandibular joint; and in that the biting forces of the patient on chewing are at least determined in the region of the dental prosthesis or partial dental prosthesis; and in that a penetration depth of the teeth into the jaw is calculated from this and is taken into account in the preparation and/or check of the dentition model.
A method for welding at least two rigid parts (2, 3) comprising a thermoplastic material and having respective surfaces to be welded (10, 11), comprising: inserting an insert between the surfaces to be welded (10, 11) of the two parts (2, 3), said insert having a thickness of 5 mm or less; providing heat via said insert; wherein the insert moves in relation to the parts to be welded (2, 3) at the time of welding, in the welding direction; and characterized in that the insert comprises an induction-sensitive material, and the heat of the insert is provided by the generation of a magnetic field by at least one inductor. inserting an insert between the surfaces to be welded (10, 11) of the two parts (2, 3), said insert having a thickness of 5 mm or less; providing heat via said insert; wherein the insert moves in relation to the parts to be welded (2, 3) at the time of welding, in the welding direction; and characterized in that the insert comprises an induction-sensitive material, and the heat of the insert is provided by the generation of a magnetic field by at least one inductor.
Polyester resin having a linear or branched structure and free of unsaturated fatty acids, which is hydroxylated or carboxylated, optionally hydroxylated and carboxylated, characterized in that it is based on: a) an acid component a) comprising: a1) at least one C 4 to C 6 polycarboxylic acid or anhydride, preferably having a functionality f a1 ranging from 2 to 4 and more preferentially equal to 2, a2) at least one C 8 to C 54 polycarboxylic acid or anhydride, preferably having a functionality f a2 ranging from 2 to 4 and more preferentially equal to 2, a3) optionally, at least one C 2 to C 22 saturated monoacid, which can optionally bear a hydroxyl group, b) an alcohol component b) comprising: b1) at least one biobased polyol having a functionality f b1 of at least 2, preferably 2, bearing a 1,4:3,6-dianhydrohexitol unit, and at least one of the following two polyols b2) and b3): b2) at least one polyol different than b1) and having a functionality f b2 of at least 2, preferably 2, which is a C 3 to C 36 polyol, b3) at least one polyol different than b1) and than b2) having a functionality f b3 of at least 3, preferably 3, wherein a2) is a polyacid which is biobased and chosen from: azelaic acid (C 9), sebacic acid (C 10), undecanedioic acid, dodecanedioic acid or respectively C 36 and C 54 fatty acid dimers and trimers. a) an acid component a) comprising: a1) at least one C 4 to C 6 polycarboxylic acid or anhydride, preferably having a functionality f a1 ranging from 2 to 4 and more preferentially equal to 2, a2) at least one C 8 to C 54 polycarboxylic acid or anhydride, preferably having a functionality f a2 ranging from 2 to 4 and more preferentially equal to 2, a3) optionally, at least one C 2 to C 22 saturated monoacid, which can optionally bear a hydroxyl group, a1) at least one C 4 to C 6 polycarboxylic acid or anhydride, preferably having a functionality f a1 ranging from 2 to 4 and more preferentially equal to 2, a2) at least one C 8 to C 54 polycarboxylic acid or anhydride, preferably having a functionality f a2 ranging from 2 to 4 and more preferentially equal to 2, a3) optionally, at least one C 2 to C 22 saturated monoacid, which can optionally bear a hydroxyl group, b) an alcohol component b) comprising: b1) at least one biobased polyol having a functionality f b1 of at least 2, preferably 2, bearing a 1,4:3,6-dianhydrohexitol unit, and at least one of the following two polyols b2) and b3): b2) at least one polyol different than b1) and having a functionality f b2 of at least 2, preferably 2, which is a C 3 to C 36 polyol, b3) at least one polyol different than b1) and than b2) having a functionality f b3 of at least 3, preferably 3, b2) at least one polyol different than b1) and having a functionality f b2 of at least 2, preferably 2, which is a C 3 to C 36 polyol, b3) at least one polyol different than b1) and than b2) having a functionality f b3 of at least 3, preferably 3,
A bonding base for electronic components, the bonding base comprises: a dielectric basic layer formed of a mixture comprising thermoplastic polymer, the polymer part of which mixture comprises thermoplastic PPO and elastomer, wherein said polymer part comprises 75 to 95 % by weight of thermoplastic PPO, characterized in that said polymer part further comprises 5 to 20 % by weight of elastomer which is incompatible with PPO such that the glass transition temperature of the mixture is 173.4°C to 209.8°C. a dielectric basic layer formed of a mixture comprising thermoplastic polymer, the polymer part of which mixture comprises thermoplastic PPO and elastomer, wherein said polymer part comprises 75 to 95 % by weight of thermoplastic PPO, characterized in that said polymer part further comprises 5 to 20 % by weight of elastomer which is incompatible with PPO such that the glass transition temperature of the mixture is 173.4°C to 209.8°C.