mhurhangee/ep-ind-claims huggingface dataset:
A method of channel estimation and data detection in a wireless communication system, comprising: receiving a signal, wherein said signal is composed of a data signal, a desired reference signal and an interference reference signal from an interfering cell (141, 241); selecting a channel estimator using said desired reference signal, said interference reference signal or both; applying said selected channel estimator to said desired reference signal, said interference reference signal or both to generate one or more reference signal channel estimate weights; generating one or more data channel estimate weights using said reference signal channel estimate weights; determining whether the one or more data channel estimate weights indicate significant interference from the interfering cell; selecting a data detector based on whether the one or more data channel estimate weights indicate significant interference from the interfering cell; and detecting said data signal using said selected data detector. receiving a signal, wherein said signal is composed of a data signal, a desired reference signal and an interference reference signal from an interfering cell (141, 241); selecting a channel estimator using said desired reference signal, said interference reference signal or both; applying said selected channel estimator to said desired reference signal, said interference reference signal or both to generate one or more reference signal channel estimate weights; generating one or more data channel estimate weights using said reference signal channel estimate weights; determining whether the one or more data channel estimate weights indicate significant interference from the interfering cell; selecting a data detector based on whether the one or more data channel estimate weights indicate significant interference from the interfering cell; and detecting said data signal using said selected data detector.
A nozzle of a cleaner, comprising: a nozzle body provided with a suction passage configured to suction air; a rotation cleaning part (40, 41) rotatably disposed below the nozzle body and provided with a rotation plate to which a rag is attached; a driving device (170, 171) provided in the nozzle body and including a driving motor configured to drive the rotation cleaning part (40, 41); a water tank mounted on an upper portion of the nozzle body, the water tank being configured to store water to be supplied to the rotation cleaning part; a water supply passage provided in the nozzle body and configured to communicate with the water tank, the water supply passage being configured to supply water of the water tank to the rotation cleaning part; a water pump disposed on the water supply passage, the water pump being connected to a pump motor and configured to generate a flow while rotating; and a water adjusting unit mounted on the nozzle body and of which at least a portion of the water adjusting unit is exposed through a rear surface or a top surface of the nozzle body at a rear of the nozzle body thereby enabling a user standing on the same floor as the nozzle body to manipulate the water adjusting unit by using a foot of the user, characterized by the water adjusting unit being configured to adjust an on/off operation and a rotation speed, rpm, of the pump motor. a nozzle body provided with a suction passage configured to suction air; a rotation cleaning part (40, 41) rotatably disposed below the nozzle body and provided with a rotation plate to which a rag is attached; a driving device (170, 171) provided in the nozzle body and including a driving motor configured to drive the rotation cleaning part (40, 41); a water tank mounted on an upper portion of the nozzle body, the water tank being configured to store water to be supplied to the rotation cleaning part; a water supply passage provided in the nozzle body and configured to communicate with the water tank, the water supply passage being configured to supply water of the water tank to the rotation cleaning part; a water pump disposed on the water supply passage, the water pump being connected to a pump motor and configured to generate a flow while rotating; and a water adjusting unit mounted on the nozzle body and of which at least a portion of the water adjusting unit is exposed through a rear surface or a top surface of the nozzle body at a rear of the nozzle body thereby enabling a user standing on the same floor as the nozzle body to manipulate the water adjusting unit by using a foot of the user, characterized by the water adjusting unit being configured to adjust an on/off operation and a rotation speed, rpm, of the pump motor.
A method of sorting sperm comprising the steps of: adjusting the concentration of a sperm sample to a predetermined concentration range between 1400 million sperm per ml and 2100 sperm per ml by extending the sperm sample in an initial extender having a pH between 7.1 and 7.6 at a sperm sample to initial extender ratio between 1:1 and 1:10, centrifuging the extended sperm sample and removing supernatant until the predetermined concentration is reached; following the step of adjusting the concentration of a sperm sample, staining the sperm sample with a single staining buffer having a DNA selective dye and a quenching dye in a volume of the single staining buffer that provides a concentration suitable for sorting; and sorting the stained sperm sample. adjusting the concentration of a sperm sample to a predetermined concentration range between 1400 million sperm per ml and 2100 sperm per ml by extending the sperm sample in an initial extender having a pH between 7.1 and 7.6 at a sperm sample to initial extender ratio between 1:1 and 1:10, centrifuging the extended sperm sample and removing supernatant until the predetermined concentration is reached; following the step of adjusting the concentration of a sperm sample, staining the sperm sample with a single staining buffer having a DNA selective dye and a quenching dye in a volume of the single staining buffer that provides a concentration suitable for sorting; and sorting the stained sperm sample.
Method to increase the efficiency of combustion engines comprising the following steps: a) HHO gas production in an electrolysis system in a cell with non-circulating electrolyte; b) Introduction of the referred gas into the air intake duct of the engine; c) Depressurization of the HHO production device, preceded by the extraction of the gas to introduce into the air intake duct of the combustion engine, which recurs to the existent vacuum in the air intake, assuring that all the gas produced by the electrolysis production system is injected into the air intake duct of the engine; characterized in that d) The weight percentage of HHO relatively to the used fuel is between 0.0005% and 0.05%, having as reference value the weight relation of 0.005% for diesel engines and 0.002% for gasoline engines. a) HHO gas production in an electrolysis system in a cell with non-circulating electrolyte; b) Introduction of the referred gas into the air intake duct of the engine; c) Depressurization of the HHO production device, preceded by the extraction of the gas to introduce into the air intake duct of the combustion engine, which recurs to the existent vacuum in the air intake, assuring that all the gas produced by the electrolysis production system is injected into the air intake duct of the engine; characterized in that d) The weight percentage of HHO relatively to the used fuel is between 0.0005% and 0.05%, having as reference value the weight relation of 0.005% for diesel engines and 0.002% for gasoline engines.
Control method implemented in a power converter, said power converter comprising at least two switching legs that are connected in parallel, via two output phases (1, 2), to an electrical load and a control unit designed to control the first switching leg and the second switching leg in order to apply a voltage pulse to the electrical load, the method being characterized in that it comprises: - a step of determining a correction to be applied to the voltage pulse in order to obtain a corrected voltage pulse (P1, P2), said corrected voltage pulse (P1, P2) having a longer duration than the voltage pulse and being above a threshold value (W TH) for the detectability of a short circuit between the two output phases (1, 2). - a step of determining a correction to be applied to the voltage pulse in order to obtain a corrected voltage pulse (P1, P2), said corrected voltage pulse (P1, P2) having a longer duration than the voltage pulse and being above a threshold value (W TH) for the detectability of a short circuit between the two output phases (1, 2).
A method of wireless communication, comprising: receiving, by a communication device, during a process of a two-step random access to a wireless network, a message including a temporary identifier assigned to the communication device; and transmitting, by the communication device, an acknowledgement message to a network device in the wireless network using a transmission resource that is dependent on the temporary identifier, wherein a resource index of the transmission resource is determinable by a function of the temporary identifier, wherein the resource index, denoted as r PUCCH, is determinable from the temporary identifier, denoted as C-RNTI, using: r PUCCH = ⌊ 2 ⋅ C − RNTI mod N CCE, 0 N CCE, 0 ⌋ + 2 ⋅ Δ PRI, wherein N CCE, 0 represents a number of control channel elements in a control resource set of a control channel transmission received from the network device to the communication device, and Δ PRI represents a value of an indicator field for the transmission resource from the communication device to the network device. receiving, by a communication device, during a process of a two-step random access to a wireless network, a message including a temporary identifier assigned to the communication device; and transmitting, by the communication device, an acknowledgement message to a network device in the wireless network using a transmission resource that is dependent on the temporary identifier, wherein a resource index of the transmission resource is determinable by a function of the temporary identifier, wherein the resource index, denoted as r PUCCH, is determinable from the temporary identifier, denoted as C-RNTI, using: r PUCCH = ⌊ 2 ⋅ C − RNTI mod N CCE, 0 N CCE, 0 ⌋ + 2 ⋅ Δ PRI, wherein N CCE, 0 represents a number of control channel elements in a control resource set of a control channel transmission received from the network device to the communication device, and Δ PRI represents a value of an indicator field for the transmission resource from the communication device to the network device.
An electromechanical shear for vertical cutting comprising cutting means, the cutting means comprising at least a first knife and at least a second knife, the first knife being attached to a guillotine and following the vertical movement of the guillotine, the shear further comprising - an electric servomotor for driving a gear reducer, - the gear reducer driving at least one shaft bearing one or more spools, - each spool being connected to the guillotine by a respective motion transmission means, characterized in that the shear further comprises a pulley system cooperating with each motion transmission means. - an electric servomotor for driving a gear reducer, - the gear reducer driving at least one shaft bearing one or more spools, - each spool being connected to the guillotine by a respective motion transmission means,
A composition comprising a thin film having a thickness of 10 μm +/-10% or less, wherein the thin film comprises functional basement membrane material comprising extracellular matrix material or decellularized tissue, that has been liquified or homogenized; the thin film defines an interior volume and a boundary between a first interior volume and a second interior volume; and the thin film is capable of fluid filtration, gas diffusion, secretion or absorption of an electrolyte, diffusion of a hormone, or combinations thereof, and wherein at least one of the first interior volume and second interior volume forms a vascular channel network. the thin film comprises functional basement membrane material comprising extracellular matrix material or decellularized tissue, that has been liquified or homogenized; the thin film defines an interior volume and a boundary between a first interior volume and a second interior volume; and the thin film is capable of fluid filtration, gas diffusion, secretion or absorption of an electrolyte, diffusion of a hormone, or combinations thereof, and wherein at least one of the first interior volume and second interior volume forms a vascular channel network.
Distribution assembly for distributing granular products that are to be distributed on the ground comprising distribution means for distributing said granular products singly, conveying means for conveying said singled granular products to the ground, transfer means for transferring said singled granular products from the distribution means to the conveying means, wherein said transfer means are synchronized in terms of speed and in terms of position with said distribution means and said transfer means capture said granular products singly and immobilize them within said transfer means, so as to keep each granular product spaced a determined and constant distance from one another, in said transfer means and during the transfer of said granular products to the conveying means, and wherein the transfer means comprise one or more singling wheels (200, 300) each able to rotate about an axis (206, 306) and comprising pockets (201, 301) able to receive one granular product at a time, characterized in that the singling wheel or wheels comprise walls able to move between a radial position and a circumferential position, about an axis of articulation situated at the periphery of said wheel or wheels and parallel to the axis of said wheel or wheels or in that the singling wheel or wheels comprise fixed radial walls and mobile partitions comprising a proximal end close to their axis of articulation and a distal end, the opposite end to said proximal end, said axis of articulation being parallel to the axis of said singling wheel or wheels and being positioned at the periphery of said singling wheel or wheels, said mobile partitions moving from a position referred to as "closed", in which said distal end is in the continuation of the proximal end of an adjacent pocket, to a position referred to as "open", in which the distal end extends radially toward said axis of rotation of said singling wheel or wheels. characterized in that the singling wheel or wheels comprise walls able to move between a radial position and a circumferential position, about an axis of articulation situated at the periphery of said wheel or wheels and parallel to the axis of said wheel or wheels or in that the singling wheel or wheels comprise fixed radial walls and mobile partitions comprising a proximal end close to their axis of articulation and a distal end, the opposite end to said proximal end, said axis of articulation being parallel to the axis of said singling wheel or wheels and being positioned at the periphery of said singling wheel or wheels, said mobile partitions moving from a position referred to as "closed", in which said distal end is in the continuation of the proximal end of an adjacent pocket, to a position referred to as "open", in which the distal end extends radially toward said axis of rotation of said singling wheel or wheels.
An enzyme electrode, comprising: an electrode; and a detection layer, wherein: the detection layer includes an enzyme, conductive particles, and a non-conductive polymer; the non-conductive polymer is linked to i) at least a portion of the enzyme by a linking chain containing nitrogen or oxygen and ii) at least a portion of the conductive particles by a linking chain containing nitrogen or oxygen, wherein the linking chain is an amide ester bond, the non-conductive polymer contains an oxazoline group, the amide ester bond is derived from said oxazoline group and the conductive particles are carbon fine particles. an electrode; and a detection layer, wherein: the detection layer includes an enzyme, conductive particles, and a non-conductive polymer; the non-conductive polymer is linked to i) at least a portion of the enzyme by a linking chain containing nitrogen or oxygen and ii) at least a portion of the conductive particles by a linking chain containing nitrogen or oxygen, wherein the linking chain is an amide ester bond, the non-conductive polymer contains an oxazoline group, the amide ester bond is derived from said oxazoline group and the conductive particles are carbon fine particles. the detection layer includes an enzyme, conductive particles, and a non-conductive polymer; the non-conductive polymer is linked to i) at least a portion of the enzyme by a linking chain containing nitrogen or oxygen and ii) at least a portion of the conductive particles by a linking chain containing nitrogen or oxygen, wherein the linking chain is an amide ester bond, the non-conductive polymer contains an oxazoline group, the amide ester bond is derived from said oxazoline group and the conductive particles are carbon fine particles.
A pyrotechnic actuator comprising: a body, a piston slidably mounted inside the body along a longitudinal direction, and a propelling system comprising a pyrotechnic igniter mounted inside said body and adapted to propel said piston, the pyrotechnic igniter being mounted inside the body such that a peripheral gap is formed between the body and the pyrotechnic igniter and the propelling system further comprises a sealing gasket arranged inside the gap in such a manner that the pyrotechnic igniter is maintained in position with respect to the body, characterized in that the pyrotechnic igniter and the sealing gasket are disposed in a first recess formed in a wall of the body, and in that the body has a peripheral recess surrounding the first recess, and in that the piston is provided with a skirt formed on its side facing the pyrotechnic igniter, the skirt being mounted in said peripheral recess when the piston is in its initial position. a body, a piston slidably mounted inside the body along a longitudinal direction, and a propelling system comprising a pyrotechnic igniter mounted inside said body and adapted to propel said piston, the pyrotechnic igniter being mounted inside the body such that a peripheral gap is formed between the body and the pyrotechnic igniter and the propelling system further comprises a sealing gasket arranged inside the gap in such a manner that the pyrotechnic igniter is maintained in position with respect to the body, characterized in that the pyrotechnic igniter and the sealing gasket are disposed in a first recess formed in a wall of the body, and in that the body has a peripheral recess surrounding the first recess, and in that the piston is provided with a skirt formed on its side facing the pyrotechnic igniter, the skirt being mounted in said peripheral recess when the piston is in its initial position.
Communication device for racks for displaying products on sale, comprising a linear body having a plate-like base for stable but removable support and adhesion on a shelf of the rack and a front projecting element, characterized in that the plate-like base consists in a flexible sheet on whose lower face there is applied an adherent material which can be repositioned, i.e. has permanent but easily removable adhesion capacities, and in that the front projecting element, intended to be positioned above the front side of the shelf, has a prismatic longitudinal configuration and is at least partly tubular; mutually superimposed and individually peelable adhesive strips, each of which bears respective promotional, advertisement visual information and the like, being applied along the extension of said front projecting element.
A sample chamber for taking samples from a molten metal bath, particularly a molten steel bath, comprising a flat cover plate and a housing, - wherein the flat cover plate and the housing are configured to be assembled together along an analysis plane AP to form a sample cavity such that the cover plate closes a hollow volume of the housing, - wherein the housing comprises an immersion face and an opposing end face, a top face and a bottom face, the top face and the bottom face extending between the immersion face and the opposing end face, - wherein the housing comprises a first opening in the immersion face, and a second opening in another face, - wherein the top face has at least one indentation which forms at least a part of the hollow volume of the housing, - wherein the indentation comprises a distribution segment, a ventilation segment and an analysis segment and wherein the analysis segment is bounded by the analysis plane AP, - wherein the distribution segment, the analysis segment and the ventilation segment are in flow communication with each other and with the first and the second opening (34, 35) of the housing, wherein - the distribution segment and the ventilation segment are arranged below the analysis segment in a direction from the top face to the bottom face and wherein the ventilation segment and the distribution segment are not connected to the top face, - the maximum and the minimum cross-sectional area of the analysis segment perpendicular to a central longitudinal axis X of the housing do not deviate from each other by more than 20 %. - wherein the flat cover plate and the housing are configured to be assembled together along an analysis plane AP to form a sample cavity such that the cover plate closes a hollow volume of the housing, - wherein the housing comprises an immersion face and an opposing end face, a top face and a bottom face, the top face and the bottom face extending between the immersion face and the opposing end face, - wherein the housing comprises a first opening in the immersion face, and a second opening in another face, - wherein the top face has at least one indentation which forms at least a part of the hollow volume of the housing, - wherein the indentation comprises a distribution segment, a ventilation segment and an analysis segment and wherein the analysis segment is bounded by the analysis plane AP, - wherein the distribution segment, the analysis segment and the ventilation segment are in flow communication with each other and with the first and the second opening (34, 35) of the housing, wherein - the distribution segment and the ventilation segment are arranged below the analysis segment in a direction from the top face to the bottom face and wherein the ventilation segment and the distribution segment are not connected to the top face, - the maximum and the minimum cross-sectional area of the analysis segment perpendicular to a central longitudinal axis X of the housing do not deviate from each other by more than 20 %.