mhurhangee/ep-ind-claims huggingface dataset:
A projection optical unit for microlithography, comprising • a plurality of mirrors for guiding imaging light (301, 401, 501, 601, 701, 801) along an imaging beam path from an object field located in an object plane to an image field located in an image plane with a numerical aperture NA having a value larger than 0.5; • wherein the plurality of mirrors comprise at least three mirrors for grazing incidence (GI mirrors), which deflect a chief ray of a central object field point with an angle of incidence of more than 45°; • wherein different polarized light beams passing the projection optical unit (7, 300, 400, 500, 600, 700, 800) in operation from the object field to the image field are rotated in their polarization direction by different angles of rotation due to a geometrical polarization rotation; • characterized in that for all light beams imaging a centre of the object field to a centre of the image field, said angle of rotation is less than 35°∗NA 4.5. • a plurality of mirrors for guiding imaging light (301, 401, 501, 601, 701, 801) along an imaging beam path from an object field located in an object plane to an image field located in an image plane with a numerical aperture NA having a value larger than 0.5; • wherein the plurality of mirrors comprise at least three mirrors for grazing incidence (GI mirrors), which deflect a chief ray of a central object field point with an angle of incidence of more than 45°; • wherein different polarized light beams passing the projection optical unit (7, 300, 400, 500, 600, 700, 800) in operation from the object field to the image field are rotated in their polarization direction by different angles of rotation due to a geometrical polarization rotation; • characterized in that for all light beams imaging a centre of the object field to a centre of the image field, said angle of rotation is less than 35°∗NA 4.5.
An apparatus for removing volatile organic compounds (VOCs) from gaseous streams, the apparatus comprising: at least one moveable filter arranged to capture VOCs from a VOC/air mixture passed across said at least one moveable filter; at least one heating chamber in which a catalytic heating means is arranged, said at least one moveable filter moveable into said at least one heating chamber to enable heating of a portion of said at least one moveable filter to release VOCs to produce an exhaust VOC/air mixture; and suction means arranged to direct said exhaust VOC/air mixture across said catalytic heating means to cause heating thereof; characterised in that said suction means comprises: a recirculation duct having a first inlet disposed inside said at least one moveable filter and at least one outlet; at least one recirculation fan arranged to draw said exhaust VOC/air mixture into said first inlet; and wherein at least one said outlet is arranged to channel said exhaust VOC/air mixture across said catalytic heating means. at least one moveable filter arranged to capture VOCs from a VOC/air mixture passed across said at least one moveable filter; at least one heating chamber in which a catalytic heating means is arranged, said at least one moveable filter moveable into said at least one heating chamber to enable heating of a portion of said at least one moveable filter to release VOCs to produce an exhaust VOC/air mixture; and suction means arranged to direct said exhaust VOC/air mixture across said catalytic heating means to cause heating thereof; characterised in that said suction means comprises: a recirculation duct having a first inlet disposed inside said at least one moveable filter and at least one outlet; at least one recirculation fan arranged to draw said exhaust VOC/air mixture into said first inlet; and wherein at least one said outlet is arranged to channel said exhaust VOC/air mixture across said catalytic heating means. a recirculation duct having a first inlet disposed inside said at least one moveable filter and at least one outlet; at least one recirculation fan arranged to draw said exhaust VOC/air mixture into said first inlet; and wherein at least one said outlet is arranged to channel said exhaust VOC/air mixture across said catalytic heating means.
Assembly module for a waste disposal facility, the assembly module comprising an elevated platform structure, regardless of its constituent material, and assembly means configured to enable the assembly of multiple assembly modules (M1-M3) to form a waste disposal facility, characterized in that the assembly module includes a canopy structure (O1, O2) mounted on one or more pillars integral with the platform structure, in that the canopy structure (O1, O2) includes: - one or more photovoltaic panels associated with an electrical installation to recover electrical energy by photovoltaic means, and/or - one or more water collection means to collect rainwater or cleaning water running off the canopy structure (O1, O2), and in that the assembly means are configured to form an assembly of the modules (M1-M3) secured together, resistant to the effects of wind forces on said canopy structure (O1, O2). - one or more photovoltaic panels associated with an electrical installation to recover electrical energy by photovoltaic means, and/or - one or more water collection means to collect rainwater or cleaning water running off the canopy structure (O1, O2),
A software program for execution on a machine, the software program including one or more components of the same component-type, the component type being defined from a base class comprising one or more slot definitions at least one of which is a property slot definition, the components being generated during run-time by the steps comprising: identifying all property slot definitions in the base class; locating getter and setter methods for each identified property slot definition in the base class; generating a component-type object, the component-type object being configured to store slot definitions; storing in the component-type object the property slot definitions identified in the identifying step; generating one or more components, each component having a slotmap and a reference to the component-type object, wherein each slotmap includes a storage location for the value of each property-slot definition stored in the component-type object; and setting a property slot value, by inserting the property slot value into a storage location in the slotmap of a particular one of the one or more components, the property slot value being associated with one of the property slot definitions in the component-type object (215, 216); wherein the components are generated using a component model, the component model built using object-oriented primitives, such that the components are changeable at runtime. identifying all property slot definitions in the base class; locating getter and setter methods for each identified property slot definition in the base class; generating a component-type object, the component-type object being configured to store slot definitions; storing in the component-type object the property slot definitions identified in the identifying step; generating one or more components, each component having a slotmap and a reference to the component-type object, wherein each slotmap includes a storage location for the value of each property-slot definition stored in the component-type object; and setting a property slot value, by inserting the property slot value into a storage location in the slotmap of a particular one of the one or more components, the property slot value being associated with one of the property slot definitions in the component-type object (215, 216); wherein the components are generated using a component model, the component model built using object-oriented primitives, such that the components are changeable at runtime.
Chair, in particular office chair or conference chair, comprising a frame, comprising a seat including a seat support and a seat structure, - the seat support including a seat shell and a backrest which are connected integrally, - the seat support and the frame being interconnected via a first connection device, - the seat structure and the seat support being interconnected via a second connection device, - the first and second connection device (8, 9) including respective first and second connection means (10, 11), which are configured and arranged with respect to one another so as to form a first and a second connection (12, 13) which can be connected and released without tools, and comprising an armrest support including at least one armrest (15, 16) which is formed integral with the armrest support, the armrest support and the seat support being interconnected via a third connection device, the third connection device including third connection means, which are configured and arranged with respect to one another so as to form a third connection which can be connected and released without tools, the seat support being configured for connection to the armrest support at a transition region between the seat shell and the backrest. comprising a seat including a seat support and a seat structure, - the seat support including a seat shell and a backrest which are connected integrally, - the seat support and the frame being interconnected via a first connection device, - the seat structure and the seat support being interconnected via a second connection device, - the first and second connection device (8, 9) including respective first and second connection means (10, 11), which are configured and arranged with respect to one another so as to form a first and a second connection (12, 13) which can be connected and released without tools, and - the seat support including a seat shell and a backrest which are connected integrally, - the seat support and the frame being interconnected via a first connection device, - the seat structure and the seat support being interconnected via a second connection device, - the first and second connection device (8, 9) including respective first and second connection means (10, 11), which are configured and arranged with respect to one another so as to form a first and a second connection (12, 13) which can be connected and released without tools, and comprising an armrest support including at least one armrest (15, 16) which is formed integral with the armrest support, the armrest support and the seat support being interconnected via a third connection device, the third connection device including third connection means, which are configured and arranged with respect to one another so as to form a third connection which can be connected and released without tools, the seat support being configured for connection to the armrest support at a transition region between the seat shell and the backrest.
Emulsifier-stirrer tool for a food preparation instrument, which comprises: - a baseplate configured to be rotationally driven around an axis of rotation; and - at least one stirring blade attached on the baseplate, characterized in that the stirring blade comprises at least one working element comprising two working surfaces (23a, 23b, 23c, 23d) positioned in a plane (Po) substantially parallel to a plane (Pa) containing the axis of rotation, each working surface of the stirring blade having a double "E" shape, a first "E" having radial teeth and a second "E" having longitudinal teeth. - a baseplate configured to be rotationally driven around an axis of rotation; and - at least one stirring blade attached on the baseplate,
A real-time calibration method for a smart antenna array (205, 301, 311), comprising, A) before installation, pre-calibrating the smart antenna array (205, 301, 311) to obtain a pre-calibration transmission-coefficient matrix between antenna units (201a, 201b, 201n, 301a, 301b, 301n, 301x, 311a, 311b, 311m, 311j) in the smart antenna array (205, 301, 311); B) after installation, at site, loading the pre-calibration transmission-coefficient matrix into a base station to which the smart antenna array (205, 301, 311) connects; C) during the base station is running, transmitting a unit calibration signal, in sequence in a time-slot by every transmitting link of the base station, and at the same time setting all other links of the smart antenna array (205, 301, 311), except the transmitting link, in a reception state to receive the unit calibration signal, then measuring and recording the received unit calibration signal; D) with the received unit calibration signal and pre-calibration transmission-coefficient matrix, respectively calculating a ratio of a receiving transmission-coefficient matrix of each receiving link to a receiving transmission-coefficient matrix of a reference link, and respectively calculating a ratio of transmitting transmission-coefficient matrix of each transmitting link to a transmitting transmission-coefficient matrix of the reference link. A) before installation, pre-calibrating the smart antenna array (205, 301, 311) to obtain a pre-calibration transmission-coefficient matrix between antenna units (201a, 201b, 201n, 301a, 301b, 301n, 301x, 311a, 311b, 311m, 311j) in the smart antenna array (205, 301, 311); B) after installation, at site, loading the pre-calibration transmission-coefficient matrix into a base station to which the smart antenna array (205, 301, 311) connects; C) during the base station is running, transmitting a unit calibration signal, in sequence in a time-slot by every transmitting link of the base station, and at the same time setting all other links of the smart antenna array (205, 301, 311), except the transmitting link, in a reception state to receive the unit calibration signal, then measuring and recording the received unit calibration signal; D) with the received unit calibration signal and pre-calibration transmission-coefficient matrix, respectively calculating a ratio of a receiving transmission-coefficient matrix of each receiving link to a receiving transmission-coefficient matrix of a reference link, and respectively calculating a ratio of transmitting transmission-coefficient matrix of each transmitting link to a transmitting transmission-coefficient matrix of the reference link.
Pre-nozzle (10a, 10b, 10c) for a drive system of a water vehicle, wherein the pre-nozzle (10a, 10b, 10c) has a water inlet opening and a water outlet opening, wherein a fin system is arranged within the pre-nozzle (10a, 10b, 10c), wherein the inlet region of the pre-nozzle (10a, 10b, 10c) has no fin system, wherein no propeller is arranged within the pre-nozzle (10a, 10b, 10c), wherein the pre-nozzle (10a, 10b, 10c) is not axisymmetric, wherein the pre-nozzle (10a, 10b, 10c) has an upper profile angle between the upper profile line and the axis of rotation of the pre-nozzle (10a, 10b, 10c), and the pre-nozzle (10a, 10b, 10c) has a lower profile angle between the axis of rotation and the lower profile line of the pre-nozzle (10a, 10b, 10c), wherein the opening angle of the pre-nozzle (10a, 10b, 10c) between the upper and lower profile lines (23, 24) of the pre-nozzle (10a, 10b, 10c) is greater than twice the upper profile angle or greater than twice the lower profile angle, characterized in that the lower profile angle is greater than the upper profile angle.
A soil-working system for an agricultural soil-working machine having a base element, which is designed to receive a sole element, the sole element having at least one cutting element, and an injection element for introducing substances into the soil material to be worked, wherein the soil-working elements (2, 3, 5) are detachably connected to a carrier element of the soil-working machine, wherein the detachable connections form a form-fit and/or force-fit connection and wherein the elements (2, 3, 5, 6) at least partially provide each other with protection against abrasive wear, characterised in that the sole element has a recess which is penetrated by the base element and the carrier element by a form-fit and/or force-fit manner.
Vibration damper which has a lifting system which has at least one piezo actuator, a support, and a hydraulic stroke multiplier with an input and an output side, which hydraulic stroke multiplier is attached by way of its input side to the piezo actuator and by way of its output side to the support, wherein the vibration damper has a control unit which is designed to control the piezo actuator in a first operating mode such that the total force acting on the lifting system remains constant, and/or to control the piezo actuator in a second operating mode such that the support vibrates with the least possible deflection.
An apparatus, comprising: a cylinder having an outer wall characterized as having four quadrants (1, 2, 3, 4) and further having a central longitudinal axis; a separate winding (41,42,43, 44) located on each quadrant (1, 2, 3, 4), wherein the positive output (52, 54; 62, 66) of the windings (41, 43; 42, 44) located on geometrically opposite quadrants (1, 3; 2, 4) are connected together; a rotor configured to rotate around said cylinder; and a Halbach array attached to the inner wall of said rotor and configured to concentrate its magnetic field near the inner surface of the array; a first inductor connected between the positive output (52, 54) of a first set of windings (41, 43) located on geometrically opposite quadrants (1, 3) and a second inductor connected between the positive output (62, 66) of a second set of windings (42, 44) located on geometrically opposite quadrants (2, 4); wherein the inductance of said first inductor is different from that of said second inductor; the apparatus being further arranged for monitoring change in at least one of the ratio and waveforms of the voltage outputs of the first (41, 43) and second (42,44) sets of windings. a cylinder having an outer wall characterized as having four quadrants (1, 2, 3, 4) and further having a central longitudinal axis; a separate winding (41,42,43, 44) located on each quadrant (1, 2, 3, 4), wherein the positive output (52, 54; 62, 66) of the windings (41, 43; 42, 44) located on geometrically opposite quadrants (1, 3; 2, 4) are connected together; a rotor configured to rotate around said cylinder; and a Halbach array attached to the inner wall of said rotor and configured to concentrate its magnetic field near the inner surface of the array; a first inductor connected between the positive output (52, 54) of a first set of windings (41, 43) located on geometrically opposite quadrants (1, 3) and a second inductor connected between the positive output (62, 66) of a second set of windings (42, 44) located on geometrically opposite quadrants (2, 4); wherein the inductance of said first inductor is different from that of said second inductor; the apparatus being further arranged for monitoring change in at least one of the ratio and waveforms of the voltage outputs of the first (41, 43) and second (42,44) sets of windings.
A process for the polymerization of at least one aliphatic C 2-20 or aromatic C 4-20 hydrocarbyl mono- or multiolefin in the presence of a catalyst and an aluminum comprising co-catalyst, characterized in that the catalyst comprises a composition of a metal-organic reagent wherein the metal-organic reagent comprises a group 4 metal and a cyclopentadienyl comprising ligand, a spectator ligand, a base and optionally at least one equivalent of a hydrocarbylating agent other than the base, wherein the spectator ligand is an imine ligand, or the HA adduct thereof, wherein HA represents an acid, of which H represents its proton and A its conjugate base, and wherein the spectator ligand, the metal-organic reagent, the base, the hydrocarbylating agent and the aluminum comprising co-catalyst are added directly to a polymerization reactor or wherein the spectator ligand, the metal-organic reagent, the base and the hydrocarbylating agent are premixed before the reactor.
A capacitive pressure transducer, comprising: a substrate having thereon a coupling electrode and a sensing electrode; a diaphragm having a diaphragm electrode thereon; a spacer positioned over the coupling electrode, the spacer comprising a stable dielectric material and positioned between the substrate and the diaphragm, the spacer joined to the substrate, the spacer providing a cavity that includes a gap between the coupling electrode and the diaphragm electrode and between the sensing electrode and the diaphragm electrode, the coupling electrode and the diaphragm electrode defining a coupling capacitance and the sensing electrode and the diaphragm electrode defining a sensing capacitance, wherein pressure change on the diaphragm causes a corresponding change in the sensing capacitance; and characterized in that the diaphragm electrode is capacitively coupled to the coupling electrode and the sensing electrode, and the diaphragm electrode is physically and electrically disconnected from electrode leads on the substrate. a substrate having thereon a coupling electrode and a sensing electrode; a diaphragm having a diaphragm electrode thereon; a spacer positioned over the coupling electrode, the spacer comprising a stable dielectric material and positioned between the substrate and the diaphragm, the spacer joined to the substrate, the spacer providing a cavity that includes a gap between the coupling electrode and the diaphragm electrode and between the sensing electrode and the diaphragm electrode, the coupling electrode and the diaphragm electrode defining a coupling capacitance and the sensing electrode and the diaphragm electrode defining a sensing capacitance, wherein pressure change on the diaphragm causes a corresponding change in the sensing capacitance; and characterized in that the diaphragm electrode is capacitively coupled to the coupling electrode and the sensing electrode, and the diaphragm electrode is physically and electrically disconnected from electrode leads on the substrate.