mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method of implementing a neural network comprising a plurality of neurons represented by an array of respective nodes, the neurons comprising elemental neurons and structural neurons, the elemental neurons being in a root level of the neural network, and each elemental neuron responding to an elemental stimulus or pattern, each elemental stimulus representing one of: a basic input stimulus and a output stimulus of information being processed, where each elemental stimulus is represented by an elemental value, the plurality of neurons including initiating neurons, associated neurons and associating neurons, an initiating neuron being associated with an associated neuron via active connections to an associating neuron, characterized by every node in the array having a plurality of pointers which each contain at least one of an address of another neuron, and an elemental value for an elemental neuron, the pointers of each structural neuron including an initiating pointer and an associated pointer for providing expression of the sequence of events that led to the construction of the corresponding neuron, all structural neurons being associating neurons, and expressing the corresponding initiating neuron and associated neuron.
A method for manufacturing a large-capacity flexible container including a body with, downwards, a bottom comprising an emptying spout, and upwards, a cover, the cover including a filling spout, characterized in that it consists in: - cutting out from a sheet of flexible material, on the one hand, four main panels, and on the other hand, four cover panels, the main panels being intended to form the body and the bottom and the emptying spout of the container, the cover panels being intended to close the top of the container while forming the filling spout, each of the main panels having in part a square or rectangular shape with four sides, i.e. two lateral sides, one upper side and one lower side, a shape whose lower side is continued by a substantially trapezoidal extension whose downward apex is continued by a tab, the extension and the tab being intended to form the bottom and the emptying spout of the container, each of the cover panels having in part a substantially trapezoidal shape with a downward base and whose upward apex is continued by a tongue, the tongue being intended to form the filling spout extended upwards, - forming a fold in each of the main panels along the upper side, opposite to the side of the extension, - fixing said fold to form at least one loop per main panel, - assembling and fastening to each other the four main panels and the four cover panels, the folds being arranged on the outside of the container, the base of each cover panel being assembled to the upper side of the corresponding main panel, the main panels being assembled two-by-two at least along their lateral sides and their corresponding extensions, the lateral sides in correspondence of the cover panels being assembled two-by-two to each other, the upper ends of the tongues being left free so as to form an upper opening of filling spout, substantially square in shape. - cutting out from a sheet of flexible material, on the one hand, four main panels, and on the other hand, four cover panels, the main panels being intended to form the body and the bottom and the emptying spout of the container, the cover panels being intended to close the top of the container while forming the filling spout, - forming a fold in each of the main panels along the upper side, opposite to the side of the extension, - fixing said fold to form at least one loop per main panel, - assembling and fastening to each other the four main panels and the four cover panels, the folds being arranged on the outside of the container, the base of each cover panel being assembled to the upper side of the corresponding main panel, the main panels being assembled two-by-two at least along their lateral sides and their corresponding extensions, the lateral sides in correspondence of the cover panels being assembled two-by-two to each other, the upper ends of the tongues being left free so as to form an upper opening of filling spout, substantially square in shape.
A method comprising: in response to an indication that an ultra-reliable low latency communications, URLLC, traffic needs to be scheduled in the midst of ongoing mobile broadband, MBB, transmissions in a wireless communications network, determining, from a plurality of MBB UEs with the ongoing MBB transmissions, a set of the plurality scheduled for transmission in a slot required by the URLLC traffic; choosing, from the set of MBB UEs, a subset of MBB UEs for puncturing, wherein the choosing of the subset comprises: accommodating a reliability constraint of the URLLC traffic, maximizing a sum proportional fairness metric of the plurality of MBB UEs, and characterised by minimizing a block error rate in a computation of a proportional fairness metric for each UE of the subset.
Method for crane configuration and crane assembly on the basis of an online portal, which holds at least one database with a plurality of standard crane configurations or which is connected to the database, and with an interface for the user access to the online portal, wherein a user of the crane virtually composes their individual crane configuration from the plurality of standard configurations, and the individual crane configuration is stored on the online portal, wherein at least one further database of the online portal, or an externally linked database, holds assembly information about the stored individual crane configuration, the online portal filters the assembly information relevant in regard to the stored crane configuration, and provides it for retrieval by an assembly team and in that at least one crane control of a crane composed in accordance with the stored crane configuration has access to the online portal via a communication interface, and the online portal holds control parameters relevant to the stored crane configuration, which are retrieved by the crane control of the crane, wherein the crane control monitors the current set-up state of the crane during the assembly process based upon electronic identification features of the crane components, which can be electronically detected by the crane control and forwards the current set-up state to the online portal and a plausibility check of the installed crane components occurs on part of the online portal by comparing the received current set-up state with the stored individual crane configuration.
An assembly for a turbine engine, comprising: a plurality of vane segments fastened together to form an adjustable stator vane that pivots about a variable vane axis and includes a stator vane body extending axially between a first end and a second end, and including an airfoil, a body surface and a cavity, wherein the body surface is located at the first end, and the cavity extends axially from an inlet in the body surface and into the airfoil; a shaft extending along the variable vane axis from the first end; and a flange (104; 214) extending circumferentially at least partially around the inlet, and radially from the stator vane body; wherein a first of the vane segments includes the flange (104, 214), and a second of the vane segments includes at least a portion of the airfoil; characterised in that: the stator vane body further includes a neck that extends axially between the body surface and the airfoil; the flange extends circumferentially around and radially from the neck; and the flange is axially separated from a surface of the airfoil by a gap. a plurality of vane segments fastened together to form an adjustable stator vane that pivots about a variable vane axis and includes a stator vane body extending axially between a first end and a second end, and including an airfoil, a body surface and a cavity, wherein the body surface is located at the first end, and the cavity extends axially from an inlet in the body surface and into the airfoil; a shaft extending along the variable vane axis from the first end; and a flange (104; 214) extending circumferentially at least partially around the inlet, and radially from the stator vane body; a stator vane body extending axially between a first end and a second end, and including an airfoil, a body surface and a cavity, wherein the body surface is located at the first end, and the cavity extends axially from an inlet in the body surface and into the airfoil; a shaft extending along the variable vane axis from the first end; and a flange (104; 214) extending circumferentially at least partially around the inlet, and radially from the stator vane body; wherein a first of the vane segments includes the flange (104, 214), and a second of the vane segments includes at least a portion of the airfoil; characterised in that: the stator vane body further includes a neck that extends axially between the body surface and the airfoil; the flange extends circumferentially around and radially from the neck; and the flange is axially separated from a surface of the airfoil by a gap. the stator vane body further includes a neck that extends axially between the body surface and the airfoil; the flange extends circumferentially around and radially from the neck; and the flange is axially separated from a surface of the airfoil by a gap.
A bi-directional rupture disc holder member comprising: a support body having an internal wall surface; and a cutting element having two elongated leg components (18, 20), each of said leg components (18, 20) being connected to and supported by the wall surface, said leg components (18, 20) extending inwardly from the wall surface, converging toward one another, and joined by a unitary crease at their innermost extremities, the innermost extremities of the leg components defining an apex peak at the unitary crease and a cutting edge; characterized in that said cutting element is a single cutting element which is of one-piece unitary construction and is substantially V-shaped in plan view. a support body having an internal wall surface; and a cutting element having two elongated leg components (18, 20), each of said leg components (18, 20) being connected to and supported by the wall surface, said leg components (18, 20) extending inwardly from the wall surface, converging toward one another, and joined by a unitary crease at their innermost extremities, the innermost extremities of the leg components defining an apex peak at the unitary crease and a cutting edge; characterized in that said cutting element is a single cutting element which is of one-piece unitary construction and is substantially V-shaped in plan view.
A wireless base station of a wireless communication system including the wireless base station, a wireless terminal (3-1, 3-2), and a relay station configured to relay a wireless signal transceived between the wireless base station and the wireless terminal (3-1,3-2), the wireless base station comprising: a processor (23, 24, 25) configured to perform a second transmission power control different from a first transmission power control, the first transmission power control being performed on a first wireless terminal positioned in a first wireless area provided by the wireless base station, on a second wireless terminal positioned in a second wireless area provided by the relay station; and a transmitter configured to transmit a control message according to the second transmission power control to the second wireless terminal, wherein the first transmission power control changes or maintains a transmission power of the first wireless terminal such that a quality of a wireless signal transmitted from the first wireless terminal is brought close to a target quality, and the second transmission power control maintains a transmission power of the second wireless terminal regardless of a quality of a wireless signal transmitted from the second wireless terminal. a processor (23, 24, 25) configured to perform a second transmission power control different from a first transmission power control, the first transmission power control being performed on a first wireless terminal positioned in a first wireless area provided by the wireless base station, on a second wireless terminal positioned in a second wireless area provided by the relay station; and a transmitter configured to transmit a control message according to the second transmission power control to the second wireless terminal, wherein the first transmission power control changes or maintains a transmission power of the first wireless terminal such that a quality of a wireless signal transmitted from the first wireless terminal is brought close to a target quality, and the second transmission power control maintains a transmission power of the second wireless terminal regardless of a quality of a wireless signal transmitted from the second wireless terminal.
A hot-forming press, comprising: a lower press assembly, movable along a vertical axis and comprising: a lower die; and a lower hot-box portion, configured to receive the lower die; an upper press assembly, movable along the vertical axis above the lower press assembly and comprising: an upper die; and an upper hot-box portion, configured to receive the upper die so that the upper die is positioned opposite the lower die; a lower translation mechanism, operatively coupled to the lower press assembly and configured to move the lower press assembly along the vertical axis; and an upper translation mechanism, configured to vertically move the upper press assembly along the vertical axis; wherein: the lower die and the upper die are configured to apply a forming pressure to a workpiece, received between the lower die and the upper die; the lower hot-box portion and the upper hot-box portion are configured to heat the workpiece, received between the lower die and the upper die; the lower translation mechanism is configured to apply a forming force to generate the forming pressure; and the upper translation mechanism is not configured to apply a forming force to generate the forming pressure. a lower press assembly, movable along a vertical axis and comprising: a lower die; and a lower hot-box portion, configured to receive the lower die; a lower die; and a lower hot-box portion, configured to receive the lower die; an upper press assembly, movable along the vertical axis above the lower press assembly and comprising: an upper die; and an upper hot-box portion, configured to receive the upper die so that the upper die is positioned opposite the lower die; an upper die; and an upper hot-box portion, configured to receive the upper die so that the upper die is positioned opposite the lower die; a lower translation mechanism, operatively coupled to the lower press assembly and configured to move the lower press assembly along the vertical axis; and an upper translation mechanism, configured to vertically move the upper press assembly along the vertical axis; wherein: the lower die and the upper die are configured to apply a forming pressure to a workpiece, received between the lower die and the upper die; the lower hot-box portion and the upper hot-box portion are configured to heat the workpiece, received between the lower die and the upper die; the lower translation mechanism is configured to apply a forming force to generate the forming pressure; and the upper translation mechanism is not configured to apply a forming force to generate the forming pressure. the lower die and the upper die are configured to apply a forming pressure to a workpiece, received between the lower die and the upper die; the lower hot-box portion and the upper hot-box portion are configured to heat the workpiece, received between the lower die and the upper die; the lower translation mechanism is configured to apply a forming force to generate the forming pressure; and the upper translation mechanism is not configured to apply a forming force to generate the forming pressure.
A decision feedback loop apparatus for a receiver for channel estimation and de-rotation of complex input symbols derived from a sampled information signal received via a channel, which information signal contains data organized into successive time slots, each slot containing a predetermined series of pilot bits during a first portion of the slot and a series of data bits during a second portion of the slot, said apparatus comprising: - a first multiplier for multiplying the complex input symbols with estimated conjugate channel coefficients, which are derived from a feedback signal, to form complex soft symbols to be used for channel decoding; - a hard decision device for forming complex hard symbols from the complex soft symbols; - a pilot generator for generating a series of complex pilot symbols corresponding to the predetermined series of pilot bits in the information signal; and - a second multiplier for multiplying a first signal at a first input, which is derived from the complex input signal, with a second signal at a second input to form a the feedback signal at an output, wherein the second signal is derived from the complex pilot symbols during the first portion of the slot and from the complex hard symbols during the second portion of the slot, characterized in that - the pilot generator includes a pilot vector generator for generating a complex vector including the predetermined series of pilot bits and a complex vector to scalar converter for receiving the complex vector via a sampling interval delay and for outputting the complex pilot symbols. - a first multiplier for multiplying the complex input symbols with estimated conjugate channel coefficients, which are derived from a feedback signal, to form complex soft symbols to be used for channel decoding; - a hard decision device for forming complex hard symbols from the complex soft symbols; - a pilot generator for generating a series of complex pilot symbols corresponding to the predetermined series of pilot bits in the information signal; and - a second multiplier for multiplying a first signal at a first input, which is derived from the complex input signal, with a second signal at a second input to form a the feedback signal at an output, wherein the second signal is derived from the complex pilot symbols during the first portion of the slot and from the complex hard symbols during the second portion of the slot, characterized in that - the pilot generator includes a pilot vector generator for generating a complex vector including the predetermined series of pilot bits and a complex vector to scalar converter for receiving the complex vector via a sampling interval delay and for outputting the complex pilot symbols.
An accelerometer with a moveable mass and a stationary part using variations in capacitance (3, 4) to detect the movement of the mass in which a first series of electrodes solidly connected to the mass is interdigitated with a series of electrodes (3, 7) solidly connected to the stationary part, each moveable electrode forming, with an adjacent stationary electrode, a variable capacitance as a function of the position of the moveable mass, the accelerometer further comprising an electronic circuit designed to detect the variation of at least one capacitance between the moveable mass and the stationary part in the guise of indicator of the displacement of the moveable mass and also to generate an electrostatic return force of the moveable mass to its original position in a manner controlled by a displacement measurement of the moveable mass, characterized in that one or more electrode(s) (3, 4) of the moveable mass and/or the stationary part each have a finger shape with a wide base and a profile becoming thinner toward their free end, in that the electronic circuit is provided to generate a repetitive electrostatic return force, and in that the repetitive electrostatic return force is specifically chosen so that its mechanical power frequency spectrum (10, 20) has a zone with substantially no power at the mechanical resonance frequency of the electrodes of the moveable mass and/or at the stationary part such that the resonance frequency of the electrodes (3, 4) is in an energy sink of the electrostatic return force.
A feed composition for farmed fish, comprising fermented porcine blood obtained by inoculating porcine blood with a mixed strain of Lactobacillus johnsonii and Saccharomyces cerevisiae and performing culture, wherein the porcine blood is added with a blood anticoagulant and with a proteolytic enzyme, and the mixed strain is inoculated into the porcine blood added with the blood anticoagulant and with the proteolytic enzyme, wherein the porcine blood added with the proteolytic enzyme is added with 5 to 7 wt% of a carbon source, and the culture is performed at 30°C to 50°C. wherein the porcine blood is added with a blood anticoagulant and with a proteolytic enzyme, and the mixed strain is inoculated into the porcine blood added with the blood anticoagulant and with the proteolytic enzyme, wherein the porcine blood added with the proteolytic enzyme is added with 5 to 7 wt% of a carbon source, and the culture is performed at 30°C to 50°C.