mhurhangee/ep-ind-claims huggingface dataset:
Electric generator suited to be installed in a water course, comprising a supporting structure that is constrainable outside of the water course, a vibrating element and means for converting the kinetic energy of said vibrating element to electric energy, characterized by comprising position adjusting means (4, 5, 6, 7, 8a, 8b, 8c) to adjust the position of the vibrating element, said position adjusting means (4, 5, 6, 7, 8a, 8b, 8c) being designed to move with at least one degree of freedom, in an active and controlled way, said vibrating element with respect to said supporting structure, wherein said at least one degree of freedom comprises the adjustment of the ratio of the volume of the portion, submerged in said water course, of the vibrating element to the volume of the portion, non-submerged in the water course, of the vibrating element, characterized in that said vibrating element has a substantially axysimmetric shape.
A User Equipment, UE, comprising a processor, communication circuitry, and a memory (130, 132), the memory comprising a resource pool configuration; the memory further comprising computer-executable instructions which, when executed by the processor, cause the UE to: blindly decode, in accordance with the resource pool configuration, a Physical Sidelink Control Channel, PSCCH, wherein the resource pool configuration comprises indications of resource pool partitioning and associations between the resource pool partitioning and sidelink component carrier groups, SL CCGs; obtain, based on the blind decoding, a destination identifier, ID, and sidelink cross-scheduling information, wherein the sidelink cross-scheduling information comprises a SL carrier indication field, SL-CIF; determine whether the destination ID matches the UE; and if the destination ID matches the UE, then: select, based on the SL-CIF and based on the resource pool partition where the PSCCH has been successfully decoded by the UE, the cross scheduled SL CC from among a plurality of SL CCs; and decode a Physical Sidelink Shared Channel, PSSCH, in an allocated resource of the cross scheduled SL CC. blindly decode, in accordance with the resource pool configuration, a Physical Sidelink Control Channel, PSCCH, wherein the resource pool configuration comprises indications of resource pool partitioning and associations between the resource pool partitioning and sidelink component carrier groups, SL CCGs; obtain, based on the blind decoding, a destination identifier, ID, and sidelink cross-scheduling information, wherein the sidelink cross-scheduling information comprises a SL carrier indication field, SL-CIF; determine whether the destination ID matches the UE; and if the destination ID matches the UE, then: select, based on the SL-CIF and based on the resource pool partition where the PSCCH has been successfully decoded by the UE, the cross scheduled SL CC from among a plurality of SL CCs; and decode a Physical Sidelink Shared Channel, PSSCH, in an allocated resource of the cross scheduled SL CC. select, based on the SL-CIF and based on the resource pool partition where the PSCCH has been successfully decoded by the UE, the cross scheduled SL CC from among a plurality of SL CCs; and decode a Physical Sidelink Shared Channel, PSSCH, in an allocated resource of the cross scheduled SL CC.
A collecting and testing apparatus, for detecting an analyte in a fluid sample, wherein the collecting and testing apparatus comprises: a plunger including a push rod, a piston attached to one extremity of said rod, said piston having a distal face, and a spongy swab axially mounted on said distal face; a tubular body open at a first end, closed at an opposite second end, and being dimensioned to be intimately engaged by said piston; and said body having at least one exit port(19, 23) proximate said second end; characterised by: a trippable barrier (22, 24) positioned to stop said piston at a first distance from said second end; and wherein said swab is dimensioned to be partially squeezed between said distal face and said second end when said distal face reaches a stopping location determined by said trippable barrier. a plunger including a push rod, a piston attached to one extremity of said rod, said piston having a distal face, and a spongy swab axially mounted on said distal face; a tubular body open at a first end, closed at an opposite second end, and being dimensioned to be intimately engaged by said piston; and said body having at least one exit port(19, 23) proximate said second end; characterised by: a trippable barrier (22, 24) positioned to stop said piston at a first distance from said second end; and wherein said swab is dimensioned to be partially squeezed between said distal face and said second end when said distal face reaches a stopping location determined by said trippable barrier. a trippable barrier (22, 24) positioned to stop said piston at a first distance from said second end; and wherein said swab is dimensioned to be partially squeezed between said distal face and said second end when said distal face reaches a stopping location determined by said trippable barrier.
A method for communicating data between an aircraft and an off-board network, said method comprising: loading data for the aircraft onto a secure power unit before arrival of the aircraft; communicatively coupling the aircraft to the secure power unit wherein communicatively coupling the aircraft to the secure power unit comprises coupling the secure power unit to a stinger of the aircraft via a power cable; validating the aircraft at the secure power unit based on air traffic management information, absolute time, and aircraft location data; and transferring data between the aircraft and the secure power unit based on the validation. loading data for the aircraft onto a secure power unit before arrival of the aircraft; communicatively coupling the aircraft to the secure power unit wherein communicatively coupling the aircraft to the secure power unit comprises coupling the secure power unit to a stinger of the aircraft via a power cable; validating the aircraft at the secure power unit based on air traffic management information, absolute time, and aircraft location data; and transferring data between the aircraft and the secure power unit based on the validation.
A piece of furniture, especially kitchen or office furniture, preferably a cabinet, which comprises retractable and insertable insert elements and/or doors to be opened or closed optionally by means of electromotive drives or by means of support of such drives, wherein at least one surface or at least a partial area of the surface of the piece of furniture is provided with at least one multilayer planar functional coating, which comprises at least one information display layer and a touch-sensitive layer as a functional layer, wherein the functional coating can be used for making inputs, characterized in that the functional coating additionally comprises a decoration layer or a decoration display layer, which is arranged between the information display layer and the touch-sensitive layer and the furniture surface.
An anti-backflow charging circuit, comprising a charging circuit, an input current detection circuit, an output current detection circuit, and a control module, wherein an input of the charging circuit is connected to a power adapter, and an output of the charging circuit is connected to a battery; the input current detection circuit is connected between the power adapter and the charging circuit, to detect an input current; the output current detection circuit is connected between the charging circuit and the battery, to detect a battery output current; and the control module is separately connected to the charging circuit, the input current detection circuit, and the output current detection circuit, and characterized in that the control module is configured to control, if it is detected that the input current is less than a first current threshold and the battery output current is greater than a second current threshold, a path between the input and the output of the charging circuit to be disconnected. an input of the charging circuit is connected to a power adapter, and an output of the charging circuit is connected to a battery; the input current detection circuit is connected between the power adapter and the charging circuit, to detect an input current; the output current detection circuit is connected between the charging circuit and the battery, to detect a battery output current; and the control module is separately connected to the charging circuit, the input current detection circuit, and the output current detection circuit, and characterized in that the control module is configured to control, if it is detected that the input current is less than a first current threshold and the battery output current is greater than a second current threshold, a path between the input and the output of the charging circuit to be disconnected.
A method for transmitting Device-to-Device, D2D, data by a User Equipment, UE, in a wireless communication system, the method comprising: determining a bitmap to be applied to a subframe pool for data transmission from a subframe indicator bitmap according to an Uplink/Downlink, UL/DL, configuration, wherein a size of the bitmap and a set of values available as k being the number of 1s in the subframe indicator bitmap are changed according to in which group among 3 groups the UL/DL configuration is included, group 1 consisting of UL-DL configuration 1, 2, 4, 5, group 2 consisting of UL-DL configuration 0, group 3 consisting of UL-DL configuration 3, 6; determining a set of suframes to transmit the D2D data by using the bitmap to the subframe pool for data transmission; and transmitting the D2D data in a subframe included in the determined subframe set. determining a bitmap to be applied to a subframe pool for data transmission from a subframe indicator bitmap according to an Uplink/Downlink, UL/DL, configuration, wherein a size of the bitmap and a set of values available as k being the number of 1s in the subframe indicator bitmap are changed according to in which group among 3 groups the UL/DL configuration is included, group 1 consisting of UL-DL configuration 1, 2, 4, 5, group 2 consisting of UL-DL configuration 0, group 3 consisting of UL-DL configuration 3, 6; determining a set of suframes to transmit the D2D data by using the bitmap to the subframe pool for data transmission; and transmitting the D2D data in a subframe included in the determined subframe set.
Fixing plate for jawbones, of elongate shape extending mainly in a longitudinal direction L, with an inner face intended to come into contact with the jawbones and an opposed outer face (41, 81), said plate comprising a front side (42, 82) and a rear side (43, 83), connected by a lower side (44, 84) and an upper side (45, 85), and in which are made at least three orifices (46 to 49; 86 to 89) for means (90 to 93) for fixing in the jawbones (1, 2), at least one orifice (46, 47; 86, 87) at the rear of the plate, one orifice (48, 88) at the front of the plate and one orifice (49, 89) of oblong shape situated between said at least one rear orifice and the front orifice and extending substantially in the longitudinal direction L, characterised in that it comprises a notch which extends substantially in the longitudinal direction L and includes two substantially longitudinal walls connected by a bottom extending substantially transversely, in the front side (42, 82) of the plate or in its upper side (45, 85) between the front side to just above the rear end (490, 890) of the oblong orifice (49, 89), this notch being arranged to cooperate with the distal end of an ancillary device.
A transport container, comprising a jacket, which is formed in particular of circular woven fabric and which extends between a lower part and an upper part in such a way that a container volume is formed for receiving granular, liquid, viscous or semi-liquid substances, in particular bitumen, wherein multiple, preferably four, stabilizing elements are provided, which extend along the jacket from the area of the lower part to the area of the upper part and the ends of which, at least in the area of the lower part, are connected in a tension- and pressure-resistant manner by a bracing structure, wherein the stabilizing elements are designed as tubes, which are arranged on the outer surface of the jacket, characterized in that - the bracing structure comprises multiple, preferably four, tension- and pressure-resistant flat longitudinal struts in the form of flat bars, - which, at their ends, are connected to the tubes in a flush and friction-locked manner and which form a square support surface, - wherein for connecting the tubes to the flat bars, ∘ screw nuts are provided in the tubes and the flat bars are connected to the tubes at their corner regions by screws, or ∘ threaded rods and nuts are provided and the threaded rods are arranged in the tubes. - the bracing structure comprises multiple, preferably four, tension- and pressure-resistant flat longitudinal struts in the form of flat bars, - which, at their ends, are connected to the tubes in a flush and friction-locked manner and which form a square support surface, - wherein for connecting the tubes to the flat bars, ∘ screw nuts are provided in the tubes and the flat bars are connected to the tubes at their corner regions by screws, or ∘ threaded rods and nuts are provided and the threaded rods are arranged in the tubes. ∘ screw nuts are provided in the tubes and the flat bars are connected to the tubes at their corner regions by screws, or ∘ threaded rods and nuts are provided and the threaded rods are arranged in the tubes.
Method for self-diagnosis of the mechanical and/or hydraulic state of a centrifugal pump, in particular a circulating pump, wherein the pump controller comprises a mathematical motor model for determining the mechanical pump power and the actual speed of the pump and for self-diagnosis of the pump, the mechanical pump power determined by means of the motor model for a defined pump speed is compared with an estimated mechanical pump power, characterized in that an operating point module is provided for estimating the operating point of the pump on the basis of the pump speed and the mechanical pump power, wherein the estimated mechanical pump power is determined by inversion of the operating point module for the defined pump speed and, within the operating point module, a power correction value is included in the mechanical pump power in order to compensate a mechanical power loss.
An Internet of things, IoT, environment-based user terminal apparatus comprising: a transceiver configured to perform communication with a plurality of devices constituting the IoT environment; a display device configured to display a user interface comprising: a first object list comprising a first object indicating a first device in which a specific condition is set among the plurality of devices, and a second object list comprising a second object indicating a second device, characterized in that the second device is configured to provide an alarm; and that the user terminal apparatus comprises: at least one processor configured to, in response to the first object being selected from the first object list and the second object being selected from the second object list through the user interface, control the second device to provide the alarm in response to satisfaction of the specific condition set to the first device. a transceiver configured to perform communication with a plurality of devices constituting the IoT environment; a display device configured to display a user interface comprising: a first object list comprising a first object indicating a first device in which a specific condition is set among the plurality of devices, and a second object list comprising a second object indicating a second device, characterized in that the second device is configured to provide an alarm; and that the user terminal apparatus comprises: at least one processor configured to, in response to the first object being selected from the first object list and the second object being selected from the second object list through the user interface, control the second device to provide the alarm in response to satisfaction of the specific condition set to the first device. a first object list comprising a first object indicating a first device in which a specific condition is set among the plurality of devices, and a second object list comprising a second object indicating a second device, characterized in that the second device is configured to provide an alarm; and that the user terminal apparatus comprises: at least one processor configured to, in response to the first object being selected from the first object list and the second object being selected from the second object list through the user interface, control the second device to provide the alarm in response to satisfaction of the specific condition set to the first device.
A beverage container, comprising: a vessel having an internal space and an opening to the internal space; a beverage material located in the internal space; and a closure attached to the vessel and closing the opening, characterized in that the closure includes a pierce-able membrane sealing the opening closed and a movable element positioned outside of the internal space that is movable relative to the membrane, the movable element including a piercing element movable to pierce the membrane, a channel to conduct flow of beverage material from the internal space, and a gas inlet port (37, 38) coupled to a gas supply of a beverage machine and configured to deliver gas into the internal space through a hole in the membrane to force the beverage material to flow into the channel. a vessel having an internal space and an opening to the internal space; a beverage material located in the internal space; and a closure attached to the vessel and closing the opening, characterized in that the closure includes a pierce-able membrane sealing the opening closed and a movable element positioned outside of the internal space that is movable relative to the membrane, the movable element including a piercing element movable to pierce the membrane, a channel to conduct flow of beverage material from the internal space, and a gas inlet port (37, 38) coupled to a gas supply of a beverage machine and configured to deliver gas into the internal space through a hole in the membrane to force the beverage material to flow into the channel.
A compound, or salt thereof, of formula: wherein R A is -O-R 3 and R B is -CH 2 -O-C -R 1; R 1 is C 1-6 -alkylene-NR'R", C 1-6 -alkoxy-NR'R", heterocyclyl, heterocyclyl-C 1-8 -alkyl or heterocyclyl-C 1-8 -alkoxyl, each of which may be optionally substituted with 1, 2 or 3 groups, independently selected from halo, C 1-8 -alkyl and C 3-7 -cycloalkyl; R' and R", are each, independently, hydrogen or -C 1-8 -alkyl; R 2 and R 3 are each, independently, C 12-22 alkyl, C 12-11 alkenyl, R 4 is selected from hydrogen, halo and C 1-4 alkyl. R A is -O-R 3 and R B is -CH 2 -O-C -R 1; R 1 is C 1-6 -alkylene-NR'R", C 1-6 -alkoxy-NR'R", heterocyclyl, heterocyclyl-C 1-8 -alkyl or heterocyclyl-C 1-8 -alkoxyl, each of which may be optionally substituted with 1, 2 or 3 groups, independently selected from halo, C 1-8 -alkyl and C 3-7 -cycloalkyl; R' and R", are each, independently, hydrogen or -C 1-8 -alkyl; R 2 and R 3 are each, independently, C 12-22 alkyl, C 12-11 alkenyl, R 4 is selected from hydrogen, halo and C 1-4 alkyl.
A flooring assembly comprising; a) at least one first lofted vertically lapped bulk absorber layer for acoustic absorption and compression resistance; b) at least one impedance layer for one or more of acoustic impedance, compression resistance, and stiffness; c) at least one second lofted vertically lapped bulk absorber layer (18, 22) for acoustic absorption and compression resistance; and d) a densified fibrous air-flow resistive layer, wherein said second lofted bulk absorber layer (18, 22) is a stiffer lofted bottom layer for compression resistance while said first lofted bulk absorber layer is a softer top lofted layer. a) at least one first lofted vertically lapped bulk absorber layer for acoustic absorption and compression resistance; b) at least one impedance layer for one or more of acoustic impedance, compression resistance, and stiffness; c) at least one second lofted vertically lapped bulk absorber layer (18, 22) for acoustic absorption and compression resistance; and d) a densified fibrous air-flow resistive layer,
A throttle grip device comprising: a magnetic body fixed to a second member that is relatively displaced with respect to a first member; at least two magnets (34, 35) fixed to the magnetic body and disposed apart from each other in a relative displacement direction of the second member; and a magnetic sensor that is fixed to the first member and is configured to detect a change of a magnetic field formed by the at least two magnets (34, 35), wherein the magnetic body has a convex portion protruding between the two magnets (34, 35), and the convex portion has abutting portions (383, 385) on which the two magnets (34, 35) abut, wherein the magnetic body is provided with concave portions (36, 37) each at a portion to which each magnet (34, 35) is fixed, and by provision of the concave portions (36, 37), the convex portion is relatively formed between the two magnets (34, 35) on the magnetic body, characterized in that each of the concave portions has a depth on a side of the abutting portion (383, 385) deeper than a depth of the other portion thereof. a magnetic body fixed to a second member that is relatively displaced with respect to a first member; at least two magnets (34, 35) fixed to the magnetic body and disposed apart from each other in a relative displacement direction of the second member; and a magnetic sensor that is fixed to the first member and is configured to detect a change of a magnetic field formed by the at least two magnets (34, 35), wherein the magnetic body has a convex portion protruding between the two magnets (34, 35), and the convex portion has abutting portions (383, 385) on which the two magnets (34, 35) abut, the magnetic body is provided with concave portions (36, 37) each at a portion to which each magnet (34, 35) is fixed, and by provision of the concave portions (36, 37), the convex portion is relatively formed between the two magnets (34, 35) on the magnetic body, characterized in that each of the concave portions has a depth on a side of the abutting portion (383, 385) deeper than a depth of the other portion thereof.