mhurhangee/ep-ind-claims huggingface dataset:
A high altitude airship including an inflatable skin and comprising a space-fed conformal array comprising: a primary array lens assembly,said lens assembly comprising a first set of radiator elements and a second set of radiator elements, the first set and the second set being spaced apart by a spacing distance; and a feed array (60, 100) spaced from the second set of radiators and arranged to illuminate the second set of radiators, the first set of radiating elements facing away from the feed array to form a radiating aperture and the second set of radiating elements facing toward the feed array, characterized by the primary array lens assembly being adapted for conformal and supportive mounting to a non-planar airship surface of said inflatable skin; and wherein the airship has opposed first and second flanks on opposite sides of the inner space of the airship, and said primary array lens assembly is mounted on the first flank of the airship surface;and wherein said feed array is mounted on said second flank (60-2, 60-4, 60-5) of the airship surface. a primary array lens assembly,said lens assembly comprising a first set of radiator elements and a second set of radiator elements, the first set and the second set being spaced apart by a spacing distance; and a feed array (60, 100) spaced from the second set of radiators and arranged to illuminate the second set of radiators, the first set of radiating elements facing away from the feed array to form a radiating aperture and the second set of radiating elements facing toward the feed array, characterized by the primary array lens assembly being adapted for conformal and supportive mounting to a non-planar airship surface of said inflatable skin; and wherein the airship has opposed first and second flanks on opposite sides of the inner space of the airship, and said primary array lens assembly is mounted on the first flank of the airship surface;and wherein said feed array is mounted on said second flank (60-2, 60-4, 60-5) of the airship surface.
Radio equipment arranged for receiving signals from wireless communication equipments (3 k) implementing different communication standards and from a core network implementing a chosen communication standard, wherein it comprises at least a radio module and a control module, said control module comprising at least one device (1 j) for processing signals received by said radio equipment and to be exchanged between said core network and said wireless communication equipments (3 k), said device (1 j) being arranged, when it receives a signal having a carrier bandwidth and a sampling rate differing respectively from a chosen carrier bandwidth and a chosen sampling rate of said chosen communication standard, for modifying at least said carrier bandwidth and said sampling rate of said received signal respectively into said chosen carrier bandwidth and said chosen sampling rate, to produce a modified signal to be transmitted either to said core network or to at least one wireless communication equipment (3 k).
Electronic module having a heat sink, which is preferably a cooling plate, and electronic elements (3a, 3b) which are arranged distributed over an upper surface of the heat sink), are connected to each other in a first layout by means of strip conductors and are thermally coupled to the upper surface and/or to one or more side surfaces of one or more optional recesses (28, 29) of the heat sink for cooling purposes, the heat sink comprising: (a) an inlet for a cooling fluid, (b) an outlet for the cooling fluid, (c) and a channel system running through the heat sink and having channels (15-19, 21-24) branched-off within the heat sink and connecting the inlet to the outlet so that the cooling fluid can flow from the inlet to the outlet, (d) wherein the heat sink is produced generatively as a monolith, characterised in that (e) an inner surface in one, more or all channel (s) is enlarged considerably by a structuring of the inner surface created during the generative production in order to increase a thermal transition per unit area of the upper surface and/or to concentrate same in particular surface regions, (f) wherein one or more cooling pins and/or cooling fins is/are formed in one or more of the channels (15-19, 21-24). (a) an inlet for a cooling fluid, (b) an outlet for the cooling fluid, (c) and a channel system running through the heat sink and having channels (15-19, 21-24) branched-off within the heat sink and connecting the inlet to the outlet so that the cooling fluid can flow from the inlet to the outlet, (d) wherein the heat sink is produced generatively as a monolith, (e) an inner surface in one, more or all channel (s) is enlarged considerably by a structuring of the inner surface created during the generative production in order to increase a thermal transition per unit area of the upper surface and/or to concentrate same in particular surface regions, (f) wherein one or more cooling pins and/or cooling fins is/are formed in one or more of the channels (15-19, 21-24).
A plastic film for the coating of plastic moldings with a coating material, the plastic film comprising an adhesion-modified layer and a layer of the coating material; wherein the plastic film can be deep-drawn at room temperature; wherein the coating material partly or wholly covers the adhesion-modified layer; wherein the adhesion-modified layer has a layer thickness of at least 1.0 um, is in direct contact with the coating material, and (i) has a surface energy of at least 27 mN/m on its surface side facing the coating material; and (ii) is based on a mixture which comprises at least one polyolefin and at least (a) an adhesion promoter, (b) a thermoplastic elastomer or (c) a polyamide alloy. wherein the plastic film can be deep-drawn at room temperature; wherein the coating material partly or wholly covers the adhesion-modified layer; wherein the adhesion-modified layer has a layer thickness of at least 1.0 um, is in direct contact with the coating material, and (i) has a surface energy of at least 27 mN/m on its surface side facing the coating material; and (ii) is based on a mixture which comprises at least one polyolefin and at least (a) an adhesion promoter, (b) a thermoplastic elastomer or (c) a polyamide alloy. (i) has a surface energy of at least 27 mN/m on its surface side facing the coating material; and (ii) is based on a mixture which comprises at least one polyolefin and at least (a) an adhesion promoter, (b) a thermoplastic elastomer or (c) a polyamide alloy.
A furnace for performing an endothermic process, comprising a plurality of process tubes containing a catalyst for converting a gaseous feed, wherein said process tubes are arranged in rows within the furnace, each row of process tubes thereby defining a process tube row (211a, 211b), a plurality of inner burners arranged in rows (213a, 213b), each row of inner burners being arranged between and parallel to process tube rows, thereby defining an inner burner row, and a plurality of outer burners arranged in rows, each row of outer burners being arranged between and parallel to a process tube row and a furnace wall, thereby defining an outer burner row, wherein a number of burners of an outer burner row is smaller than a number of burners of an inner burner row.
Arrangement for electrical intermodulation-free contacting of electrically conductive elements (2, 1), comprising: - a first element, at least a portion of which is electrically conductive; - at least one second element, at least one portion of which is electrically conductive, for electrically contacting the first element, comprising a contact area at at least one end region thereof, wherein the contact area has a radius at least at predefined contact points, and wherein - the first electrically conductive element has at least one area that is designed to receive at least a portion of the contact area of the second electrically conductive element in such a way that an electrical contact is created between the first electrically conductive element and the contact points of the second electrically conductive element, wherein the first electrically conductive element is implemented as a high-frequency component and the second electrically conductive element as a contact element that comprises an electrical conductor, at the distal end region of which the contact area is arranged, wherein the area for receiving the second electrically conductive element comprises three contact legs (21, 23) that are arranged on the first electrically conductive element, characterized in that the three contact legs (21, 23) form a three-point support. - a first element, at least a portion of which is electrically conductive; - at least one second element, at least one portion of which is electrically conductive, for electrically contacting the first element, comprising a contact area at at least one end region thereof, wherein the contact area has a radius at least at predefined contact points, and wherein - the first electrically conductive element has at least one area that is designed to receive at least a portion of the contact area of the second electrically conductive element in such a way that an electrical contact is created between the first electrically conductive element and the contact points of the second electrically conductive element, wherein the first electrically conductive element is implemented as a high-frequency component and the second electrically conductive element as a contact element that comprises an electrical conductor, at the distal end region of which the contact area is arranged, wherein the area for receiving the second electrically conductive element comprises three contact legs (21, 23) that are arranged on the first electrically conductive element, characterized in that the three contact legs (21, 23) form a three-point support.
A flight control system for an aircraft having a drag device for producing drag and increasing an angle of decent path, the flight control system including: Processing means for receiving a pitch command from a pilot or an autopilot longitudinal command ( p) and monitoring a plurality of flight parameters to ensure that the flight parameters are within a safe operating envelope of the aircraft; Control means for controlling the drag device, characterised in that the processing means generates an output to the control means to move the drag device based on the pitch command and the flight parameters, wherein; One of the parameters is an angle of attack of the aircraft and when the angle of attack of the aircraft is above a reference value, the processing means produces an output to the control means to move the drag device to reduce the drag produced by the drag device, said flight control system is arranged in use to deploy one or more drag devices to a bias position and to vary an orientation thereof about the bias position in accordance with a spoiler augmentation signal which is a function of a longitudinal pilot or autopilot command signal and of said output of the processing means. Processing means for receiving a pitch command from a pilot or an autopilot longitudinal command ( p) and monitoring a plurality of flight parameters to ensure that the flight parameters are within a safe operating envelope of the aircraft; Control means for controlling the drag device, characterised in that the processing means generates an output to the control means to move the drag device based on the pitch command and the flight parameters, wherein; One of the parameters is an angle of attack of the aircraft and when the angle of attack of the aircraft is above a reference value, the processing means produces an output to the control means to move the drag device to reduce the drag produced by the drag device, said flight control system is arranged in use to deploy one or more drag devices to a bias position and to vary an orientation thereof about the bias position in accordance with a spoiler augmentation signal which is a function of a longitudinal pilot or autopilot command signal and of said output of the processing means.
A method, performed by a first eNB, for acquiring an identifier of a new cell of a second eNB and connecting the first eNB to the second eNB, comprising: receiving a Physical Cell ID, PCI, from a UE; determining whether the received PCI is not present in a database managed by the first eNB; transmitting a cell information request for acquiring an Evolved universal terrestrial radio access Cell Global Identifier, ECGI, of the new cell to the UE; receiving an ECGI from the UE; acquiring a proper Public Land Mobile Network IDentifier, PLMN ID, based on the received ECGI; transmitting, to an Evolved Packet Core, EPC,, an eNB configuration transfer message which includes a global eNB identifier, GEI, for acquiring an X2 address of the second eNB, said GEI being acquired by using the acquired proper PLMN ID; and receiving, from the EPC, a MME configuration transfer message which includes the X2 address of the second eNB for connecting the first eNB to the second eNB, wherein the proper PLMN ID is one of: if the PLMN ID in the received ECGI is included in a shared PLMN ID list of a mapping table, a corresponding PLMN ID in a primary PLMN ID list of the mapping table; and if the PLMN ID in the received ECGI is not included in the shared PLMN ID list but is included in the primary PLMN ID list, the PLMN ID in the received ECGI. receiving a Physical Cell ID, PCI, from a UE; determining whether the received PCI is not present in a database managed by the first eNB; transmitting a cell information request for acquiring an Evolved universal terrestrial radio access Cell Global Identifier, ECGI, of the new cell to the UE; receiving an ECGI from the UE; acquiring a proper Public Land Mobile Network IDentifier, PLMN ID, based on the received ECGI; transmitting, to an Evolved Packet Core, EPC,, an eNB configuration transfer message which includes a global eNB identifier, GEI, for acquiring an X2 address of the second eNB, said GEI being acquired by using the acquired proper PLMN ID; and receiving, from the EPC, a MME configuration transfer message which includes the X2 address of the second eNB for connecting the first eNB to the second eNB, wherein the proper PLMN ID is one of: if the PLMN ID in the received ECGI is included in a shared PLMN ID list of a mapping table, a corresponding PLMN ID in a primary PLMN ID list of the mapping table; and if the PLMN ID in the received ECGI is not included in the shared PLMN ID list but is included in the primary PLMN ID list, the PLMN ID in the received ECGI. if the PLMN ID in the received ECGI is included in a shared PLMN ID list of a mapping table, a corresponding PLMN ID in a primary PLMN ID list of the mapping table; and if the PLMN ID in the received ECGI is not included in the shared PLMN ID list but is included in the primary PLMN ID list, the PLMN ID in the received ECGI.
A carton comprising: a. a top panel; b. a first and a second sidewall; c. a carton opening located in the top panel; and d. a stack of tissues disposed in the carton; characterised in further comprising e. a flexible dispensing window material covering at least a portion of the carton opening; and f. a dispensing opening disposed on the dispensing window material; in that the area of the carton opening is from about 55 percent to about 85 percent of the area of the top panel; and in that the stack of tissues comprises a compressed stack of tissues, the compressed stack of tissues having a compressed height that is from about 30 percent to about 60 percent less than the height of an identical uncompressed stack of tissues. a. a top panel; b. a first and a second sidewall; c. a carton opening located in the top panel; and d. a stack of tissues disposed in the carton; characterised in further comprising e. a flexible dispensing window material covering at least a portion of the carton opening; and f. a dispensing opening disposed on the dispensing window material;
An electric machine system comprising an electric machine that comprises: - a stator (101, 201) comprising a frame structure (102, 202) and an electromagnetically active part (103, 203) inside the frame structure, - a rotor (104, 204) comprising a shaft (105, 205) and an electromagnetically active part for producing torque in co-operation with the electromagnetically active part of the stator, and - first and second magnetic bearings (107-109, 207-209) for supporting the rotor rotatably with respect to the stator, the first and second magnetic bearings being inside the frame structure and located, in an axial direction, on opposite sides of the electromagnetically active part of the rotor, and the electric machine system further comprising a magnetic bearing module (110, 210a-210c) arranged to support the shaft and attached to an outer surface of the frame structure so that the frame structure and the magnetic bearing module are axially successive, the magnetic bearing module being a replaceable component which is non-destructively detachable from the frame structure. - a stator (101, 201) comprising a frame structure (102, 202) and an electromagnetically active part (103, 203) inside the frame structure, - a rotor (104, 204) comprising a shaft (105, 205) and an electromagnetically active part for producing torque in co-operation with the electromagnetically active part of the stator, and - first and second magnetic bearings (107-109, 207-209) for supporting the rotor rotatably with respect to the stator, the first and second magnetic bearings being inside the frame structure and located, in an axial direction, on opposite sides of the electromagnetically active part of the rotor, and the electric machine system further comprising a magnetic bearing module (110, 210a-210c) arranged to support the shaft and attached to an outer surface of the frame structure so that the frame structure and the magnetic bearing module are axially successive, the magnetic bearing module being a replaceable component which is non-destructively detachable from the frame structure.
A solid catalyst component for olefin polymerization, comprising Mg, Ti, halogen and an electron donor compound belonging to cyclic ethers having 3-6 carbon atoms, characterized by a molar ratio Mg/Ti higher than 5, a molar ratio Mg/ID lower than 3, and by a X-ray diffraction spectrum, in which, in the range of 2θ diffraction angles between 5.0° and 20.0°, at least three main diffraction peaks are present at diffraction angles 2θ of 7.2 ± 0.2°, and 11.5 ± 0.2° and 14.5 ± 0.2° said peak at 2θ of 7.2 ± 0.2° being the most intense one and the peak at 11.5 ± 0.2° having an intensity less than 0.9 times the intensity of the most intense peak.
Method for operating a parking aid system of a motor vehicle, wherein coordinates of obstacles in the vicinity of the motor vehicle are established with the aid of sensors, wherein the coordinates are used to determine a coordinate curve, which is curved at least in sections and at least approximately corresponds to the curve of an obstacle, characterized in that, for each coordinate i (26, 32), the value of the gradient (y i ') present at this coordinate (26, 32) is determined, in that, for each coordinate i (26, 32), the value of the curvature (y i ") present at this coordinate (26, 32) is determined, and in that the curvature k i of the coordinate curve at a coordinate i is determined by: k i = y i ʺ 1 + y i ʹ 2 3 2 in that an average curvature k avg of the coordinate curve for a number N of coordinates i (26, 32) is determined by: k avg = ∑ i = 1 N k i N, in that a radius R of the coordinate curve is determined by: R = 1 k avg, in that, with knowledge of the radius R of the coordinate curve, the position of the centre M of a circle is determined with the aid of at least two coordinates (26, 32), and in that the coordinate curve equals a portion of the circle with centre M and radius R.
An apparatus for making a loop member of a hook-and-loop fastener assembly comprises: a working platform; a substrate supplying device disposed to continuously providing a web of substrate to a working platform in a machine direction; a yarn supplying device disposed to provide a plurality of yarns; a loop forming and securing device; and a transporting roller disposed to take the substrate on which the loops are formed out of the working platform, characterized in that the yarn supplying device is disposed to provide a plurality of yarns over the substrate laid on the platform in a wave form, wherein each of the wave-form yarns has a plurality of wave peak portions and wave trough portions; and the loop forming and securing device is disposed opposed to the working platform to allow the substrate on which the yarns are laid to pass therethrough and including an energy generating unit and a plurality of working portions connected to the energy generating unit for fusing the yarns to the substrate by pressing and applying the energy to the yarns along a longitudinal axis parallel to the machine direction of each of the wave-form yarns while the substrate on which the yarns are laid is passing between the loop forming device and the working platform so as to secure the yarns to the substrate as well as to cause the wave peak portions and wave trough portions of each of the yarns upstanding from the substrate as loops. a working platform; a substrate supplying device disposed to continuously providing a web of substrate to a working platform in a machine direction; a yarn supplying device disposed to provide a plurality of yarns; a loop forming and securing device; and a transporting roller disposed to take the substrate on which the loops are formed out of the working platform, characterized in that the yarn supplying device is disposed to provide a plurality of yarns over the substrate laid on the platform in a wave form, wherein each of the wave-form yarns has a plurality of wave peak portions and wave trough portions; and the loop forming and securing device is disposed opposed to the working platform to allow the substrate on which the yarns are laid to pass therethrough and including an energy generating unit and a plurality of working portions connected to the energy generating unit for fusing the yarns to the substrate by pressing and applying the energy to the yarns along a longitudinal axis parallel to the machine direction of each of the wave-form yarns while the substrate on which the yarns are laid is passing between the loop forming device and the working platform so as to secure the yarns to the substrate as well as to cause the wave peak portions and wave trough portions of each of the yarns upstanding from the substrate as loops.