mhurhangee/ep-ind-claims huggingface dataset:
A method of conveying data in a cellular network, the method comprising: based on an identifier of a user equipment (210, 211; 510; 610; 1500; 1610), an access node (531, 532; 620; 1100; 1620) of the cellular network interrogating an information centric networking node (100; 201, 202, 203, 204, 205, 206, 207; 501, 502, 503, 504, 505; 670; 1300; 1630) to determine whether an information centric networking request from the user equipment (210, 211; 510; 610; 1500; 1610) is pending at the information centric networking node (100; 201, 202, 203, 204, 205, 206, 207; 501, 502, 503, 504, 505; 670; 1300; 1630) and determine a correlation of the identifier of the user equipment (210, 211; 510; 610; 1500; 1610) with an entry of a pending interest table maintained by the information centric networking node (100; 201, 202, 203, 204, 205, 206, 207; 501, 502, 503, 504, 505; 670; 1300; 1630), the pending interest table comprising an entry for each data object having a pending information centric networking request at the information centric networking node (100; 201, 202, 203, 204, 205, 206, 207; 501, 502, 503, 504, 505; 670; 1300; 1630) and the correlation indicating whether there is an information centric networking request from the user equipment (210, 211; 510; 610; 1500; 1610) pending at the information centric networking node (100; 201, 202, 203, 204, 205, 206, 207; 501, 502, 503, 504, 505; 670; 1300; 1630); and based on the correlation, the access node (531, 532; 720; 1100; 1620) controlling release or setup of a connection of the user equipment (210, 211; 510; 610; 1500; 1610) with the cellular network. based on an identifier of a user equipment (210, 211; 510; 610; 1500; 1610), an access node (531, 532; 620; 1100; 1620) of the cellular network interrogating an information centric networking node (100; 201, 202, 203, 204, 205, 206, 207; 501, 502, 503, 504, 505; 670; 1300; 1630) to determine whether an information centric networking request from the user equipment (210, 211; 510; 610; 1500; 1610) is pending at the information centric networking node (100; 201, 202, 203, 204, 205, 206, 207; 501, 502, 503, 504, 505; 670; 1300; 1630) and determine a correlation of the identifier of the user equipment (210, 211; 510; 610; 1500; 1610) with an entry of a pending interest table maintained by the information centric networking node (100; 201, 202, 203, 204, 205, 206, 207; 501, 502, 503, 504, 505; 670; 1300; 1630), the pending interest table comprising an entry for each data object having a pending information centric networking request at the information centric networking node (100; 201, 202, 203, 204, 205, 206, 207; 501, 502, 503, 504, 505; 670; 1300; 1630) and the correlation indicating whether there is an information centric networking request from the user equipment (210, 211; 510; 610; 1500; 1610) pending at the information centric networking node (100; 201, 202, 203, 204, 205, 206, 207; 501, 502, 503, 504, 505; 670; 1300; 1630); and based on the correlation, the access node (531, 532; 720; 1100; 1620) controlling release or setup of a connection of the user equipment (210, 211; 510; 610; 1500; 1610) with the cellular network.
Method for producing a stator assembly having a main element which is completely closed in a circumferential direction and has multiple stator teeth, wherein at least one coil is wound onto each stator tooth, wherein all the coils are wound using the same uninterrupted winding wire, and wherein, in each case after the winding of a coil composed of winding wire onto one of the stator teeth, without severing the winding wire, the next coil composed of the uninterrupted winding wire is wound onto the next stator tooth, wherein the winding wire is in each case not led directly from one stator tooth to the next, but is in each case led around at least one deflection support of the main element, said deflection support being arranged outside the structural space situated between two adjacent stator teeth, characterized in that the winding of the stator teeth is realized in such a way that the winding-wire portions of the winding wire in the structural spaces between the stator teeth run exclusively parallel to one another and crossings of winding-wire portions are arranged exclusively outside the structural spaces between the stator teeth.
A system for open-loop spatial multiplexing for radio access virtualization, comprising: a plurality of antenna ports; and a processor coupled to the plurality of antenna ports and configured to spread a spreading sequence over at least a portion of the plurality of antenna ports in a spatial domain, wherein the processor is configured to cause the antenna ports to transmit multiple spreading sequences simultaneously by sequence superposition, wherein the spreading sequences are selected from a pre-defined pool, such as a matrix, a total number of a plurality of physical antennas is equal to or greater than a spreading factor, and a signature length for a device receiving communication from the antenna ports is determined according to a multiple-input multiple-output (MIMO) rank of the device and the MIMO rank is determined from device feedback and device measurement, wherein the signature length is the number of antenna ports over which the spreading sequence is spread. a plurality of antenna ports; and a processor coupled to the plurality of antenna ports and configured to spread a spreading sequence over at least a portion of the plurality of antenna ports in a spatial domain, wherein the processor is configured to cause the antenna ports to transmit multiple spreading sequences simultaneously by sequence superposition, wherein the spreading sequences are selected from a pre-defined pool, such as a matrix, a total number of a plurality of physical antennas is equal to or greater than a spreading factor, and a signature length for a device receiving communication from the antenna ports is determined according to a multiple-input multiple-output (MIMO) rank of the device and the MIMO rank is determined from device feedback and device measurement, wherein the signature length is the number of antenna ports over which the spreading sequence is spread.
A one-piece garment for covering upper and lower body parts of a wearer, comprising a) a front part and a back part with a seat region, b) a right-hand garment side and a left-hand garment side, c) a waist region, and d) at least one closing device with an end part and a beginning part, e) the at least one closing device being arranged laterally along the right-hand garment side and the left-hand garment side in such a way that at least the end part is arranged in the front part in order to allow opening of the seat region, the at least one closing device comprising a1) a first closing device, which is arranged laterally around the left-hand garment side between the front part and the back part, and b1) a second closing device, which is arranged laterally around the right-hand garment side between the front part and the back part, the closing device being characterised in that c1) the end parts (23A, 23B) of the first closing device and the second closing device are arranged in the front part and the beginning parts (25A, 25B) of the first closing device and the second closing device are arranged facing each other in the back part in order to allow opening of the seat region, with the first closing device and the second closing device being arranged in the waist region, wherein the garment has at least one elastic component and at least one stretching zone (22, 24) in the front part and/or in the back part, wherein the at least one stretching zone (22, 24) is arranged between the end parts (23A, 23B) of the first and second closing devices (26, 28) or between the beginning parts (25A, 25B) of the first and second closing devices (26, 28) to form a stretchable region between the end parts (23A, 23B) or the beginning parts (25A, 25B), and the at least one stretching zone (22, 24) has an opening in the at least one elastic component. a) a front part and a back part with a seat region, b) a right-hand garment side and a left-hand garment side, c) a waist region, and d) at least one closing device with an end part and a beginning part, e) the at least one closing device being arranged laterally along the right-hand garment side and the left-hand garment side in such a way that at least the end part is arranged in the front part in order to allow opening of the seat region, a1) a first closing device, which is arranged laterally around the left-hand garment side between the front part and the back part, and b1) a second closing device, which is arranged laterally around the right-hand garment side between the front part and the back part, the closing device being characterised in that c1) the end parts (23A, 23B) of the first closing device and the second closing device are arranged in the front part and the beginning parts (25A, 25B) of the first closing device and the second closing device are arranged facing each other in the back part in order to allow opening of the seat region, with the first closing device and the second closing device being arranged in the waist region,
A sulfide comprising an amorphous (lithium) niobium sulfide having an average composition represented by formula: Li k1 NbS n1 wherein 0≤k1≤1.5; 3.5≤n1≤10, or an amorphous (lithium) titanium niobium sulfide having an average composition represented by formula: Li k2 Ti 1-m2 Nb m2 S n2 wherein 0<k2≤1.5; 0<m2<1; 3.5<n2≤10.
An anatomical talotarsal orthosis for immobilising the ankle joint, comprising several rigid areas (1, 21, 22, 3) lined with a sheath that comes into contact with at least the ankle, at least one connecting band (4, 5, 6) for attaching the orthosis in a removable and adjustable manner on the ankle, said rigid areas (1, 21, 22, 3) being for immobilising the calcaneus and the cuboid bone and comprising two retromalleolar support areas (21, 22) which allow the two malleoli to be bare, as well as a first rigid area for supporting the soleus for surrounding the lower rear of the leg while arranging an aperture at the Achilles tendon, this orthosis being characterised in that said aperture has a V-shape opening from the rear of the leg towards the heel, so that the heel is bare, not covered by the orthosis.
A method of making a metal stethoscope comprising: injection molding, extruding, or pressing a metallic thermoplastic composition into a mould forming a green molded body, continuously debinding a portion of binder material from green molded body at a temperature in a range of 100 to 200°C over a period from 4 to 12 hours in a nitrogen-comprising atmosphere forming a brown molded body, wherein the temperature is maintained within ± 10 °C during the period; sintering the brown molded body at a temperature in a range from 1100 to 1500°C over a period of from 6 to 10 hours in a hydrogen or argon atmosphere to form the stethoscope chestpiece. injection molding, extruding, or pressing a metallic thermoplastic composition into a mould forming a green molded body, continuously debinding a portion of binder material from green molded body at a temperature in a range of 100 to 200°C over a period from 4 to 12 hours in a nitrogen-comprising atmosphere forming a brown molded body, wherein the temperature is maintained within ± 10 °C during the period; sintering the brown molded body at a temperature in a range from 1100 to 1500°C over a period of from 6 to 10 hours in a hydrogen or argon atmosphere to form the stethoscope chestpiece.
Actuating drive for a high-lift system of an aircraft, comprising at least one integrated cone brake as a return stop, which comprises at least one brake block mounted on at least one shaft of the actuating drive for conjoint rotation and at least one brake shoe, the friction contact surface of the brake block and/or brake shoe being conical, characterised in that the actuating drive comprises exactly one brake block, in that at least one movable brake shoe can be brought into engagement with a friction contact surface of the brake block by means of at least one pneumatic, hydraulic or electrical adjustment mechanism, in that at least one stationary brake shoe is additionally provided and the brake block is movably mounted in the axial direction, such that another friction contact surface of the brake block can be brought into engagement with the stationary brake shoe, and in that the preferably one-piece brake block is disc-shaped and has a convex lateral face for forming the two conical friction contact surfaces assigned to the brake shoes.
A method for manufacturing a porous glass base material by using a porous glass base material manufacturing burner having an oxidizing gas discharge port, the method comprising: supplying a gas mixture obtained by blending together an oxidizing gas and an inert gas to the oxidizing gas discharge port at a start of deposition of a glass fine particle; and after the start of the deposition of the glass fine particle, increasing a flow rate of the oxidizing gas supplied to the oxidizing gas discharge port while decreasing a flow rate of the inert gas supplied to the oxidizing gas discharge port further comprising adjusting the flow rate of the inert gas blended with the oxidizing gas in such a manner that an exit linear velocity of the gas mixture discharged from the oxidizing gas discharge port is 2.0 m/s or higher. supplying a gas mixture obtained by blending together an oxidizing gas and an inert gas to the oxidizing gas discharge port at a start of deposition of a glass fine particle; and after the start of the deposition of the glass fine particle, increasing a flow rate of the oxidizing gas supplied to the oxidizing gas discharge port while decreasing a flow rate of the inert gas supplied to the oxidizing gas discharge port further comprising adjusting the flow rate of the inert gas blended with the oxidizing gas in such a manner that an exit linear velocity of the gas mixture discharged from the oxidizing gas discharge port is 2.0 m/s or higher.
Device for cooling a light source, in particular a light-emitting LED or laser diode, comprising a first heatsink equipped with a core provided with a bore extending along a lighting axis and forming a housing for receiving such a light source, and comprising first fins extending from the core outward, and comprising a second heatsink that has second fins extending toward the lighting axis from a peripheral portion arranged around the lighting axis, at least one second fin of the second heatsink being at least partially interleaved between first fins of the first heatsink, characterized in that the second heatsink comprises a lateral plate substantially perpendicular to the lighting axis, in particular a circular lateral plate provided with a central hole that is substantially coaxial with the lighting axis, arms extending outward from the lateral plate to the peripheral portion, these arms holding the peripheral portion substantially coaxially with the lighting axis the lateral plate of the second heatsink has an interior face in contact with an annular face of the core of the first heatsink in order to allow heat to be dissipated from the first heatsink to the second heatsink.
A quinolino[3,2,1-kl]phenoxazine compound represented by the following general formula: where R 1 to R 4 each independently represent a hydrogen atom or an alkyl group having 1 to 3 carbon atoms, and Ar represents a single bond or an oligophenylene group having 6 to 18 carbon atoms.
A method for training at least one algorithm for a control unit of a motor vehicle, the control unit for implementing an autonomous driving function by intervening in units (22, 24, 26) of the motor vehicle is provided on the basis of input data using the at least one algorithm, the algorithm being trained by a self-learning neural network, comprising the following steps: a) providing a computer program product module for the autonomous driving function, the computer program product module containing the algorithm to be trained and the self-learning neural network; b) embedding the trained computer program product module in the control unit of the motor vehicle, characterized in that c) a simulation of critical traffic situations relevant to the autonomous driving function is carried out on a test site on which real objects (42, 44) are moved by remote control, and d) the algorithm is trained by self-learning in the motor vehicle, with the real objects (42, 44) being connected to the simulation environment, with the algorithm in the simulation environment being Behavior of the real objects (42, 44) is trained. a) providing a computer program product module for the autonomous driving function, the computer program product module containing the algorithm to be trained and the self-learning neural network; b) embedding the trained computer program product module in the control unit of the motor vehicle, characterized in that c) a simulation of critical traffic situations relevant to the autonomous driving function is carried out on a test site on which real objects (42, 44) are moved by remote control, and d) the algorithm is trained by self-learning in the motor vehicle, with the real objects (42, 44) being connected to the simulation environment, with the algorithm in the simulation environment being Behavior of the real objects (42, 44) is trained.
An atomic object trap apparatus comprising: two or more radio frequency, RF, electrodes (230,240) formed concentrically in a substantially elliptical shape, and three or more trapping and/or transport, TT, sequences formed concentrically each in a substantially elliptical shape, wherein the two or more RF electrodes (230,240) and the three or more TT electrode sequences each comprise fermtwo substantially parallel longitudinal regions and two arc-spanning beltway regions that connect the two substantially parallel longitudinal regions to one another, the two or more RF electrodes and the three or more TT electrode sequences defining a substantially elliptically shaped atomic object trap, wherein each substantially parallel longitudinal region is arranged into a plurality of gating zones and a plurality of auxiliary zones, wherein each gating zone of the plurality of gating zones is configured for gating operations to be performed on one or more atomic objects disposed therein, and at least one TT electrode sequence of the three or more TT electrode sequences being disposed concentrically between the two or more RF electrodes (230, 240). two or more radio frequency, RF, electrodes (230,240) formed concentrically in a substantially elliptical shape, and three or more trapping and/or transport, TT, sequences formed concentrically each in a substantially elliptical shape, wherein the two or more RF electrodes (230,240) and the three or more TT electrode sequences each comprise fermtwo substantially parallel longitudinal regions and two arc-spanning beltway regions that connect the two substantially parallel longitudinal regions to one another, the two or more RF electrodes and the three or more TT electrode sequences defining a substantially elliptically shaped atomic object trap, wherein each substantially parallel longitudinal region is arranged into a plurality of gating zones and a plurality of auxiliary zones, wherein each gating zone of the plurality of gating zones is configured for gating operations to be performed on one or more atomic objects disposed therein, and at least one TT electrode sequence of the three or more TT electrode sequences being disposed concentrically between the two or more RF electrodes (230, 240).
Method for operating a system comprising at least three stationary domestic appliances and a mobile domestic appliance, the mobile domestic appliance being connected to the at least three stationary domestic appliances of the system for wireless communication, characterised in that the mobile domestic appliance and at least three stationary domestic appliances exchange data wirelessly, and the mobile domestic appliance carries out position determination by means of the data received wirelessly from at least three stationary domestic appliances.
Method for controlling the switching on of light emitted by a plurality of lighting elements (10a-10q), which lighting elements (10a-10q) are arranged such to provide a plurality of lighting devices (10, 11, 12), each lighting device (10, 11, 12) having one or more lighting elements (10a-10q) and a control unit (101, 111, 121) for said one or more lighting elements (10a-10q), said method comprising the following steps: a) arranging the plurality of lighting elements (10a-10q) in an environment, b) selecting a switching-on sequence for the lighting elements (10a-10q) by providing the following sub-steps: b1) dividing said switching-on sequence in one or more sub-sequences (40, 41, 42), b2) associating each sub-sequence (40, 41, 42) to a lighting device (10, 11, 12), b3) transmitting said sub-sequences (40, 41, 42) to a respective control unit (101, 111, 121) by a user device for communicating with said control units (101, 111, 121), said method further comprising step c) simultaneously executing each sub-sequence (40, 41, 42) by the lighting elements (10a-10q), characterized in that there is provided a step a1), following step a), for identifying the position of each lighting element (10a-10q) within said environment according to the following steps: - acquiring a sequence of images of the environment where the plurality of lighting elements is arranged, - during the acquisition of the sequence of images switching the lighting elements on according to a specific color sequence, which sequence allows each lighting element to be uniquely identified, - analysing the sequence of images to determine a space position of each lighting element in the environment. a) arranging the plurality of lighting elements (10a-10q) in an environment, b) selecting a switching-on sequence for the lighting elements (10a-10q) by providing the following sub-steps: b1) dividing said switching-on sequence in one or more sub-sequences (40, 41, 42), b2) associating each sub-sequence (40, 41, 42) to a lighting device (10, 11, 12), b3) transmitting said sub-sequences (40, 41, 42) to a respective control unit (101, 111, 121) by a user device for communicating with said control units (101, 111, 121), said method further comprising step c) simultaneously executing each sub-sequence (40, 41, 42) by the lighting elements (10a-10q), b1) dividing said switching-on sequence in one or more sub-sequences (40, 41, 42), b2) associating each sub-sequence (40, 41, 42) to a lighting device (10, 11, 12), b3) transmitting said sub-sequences (40, 41, 42) to a respective control unit (101, 111, 121) by a user device for communicating with said control units (101, 111, 121), said method further comprising - acquiring a sequence of images of the environment where the plurality of lighting elements is arranged, - during the acquisition of the sequence of images switching the lighting elements on according to a specific color sequence, which sequence allows each lighting element to be uniquely identified, - analysing the sequence of images to determine a space position of each lighting element in the environment.