mhurhangee/patent-ind-claim-en huggingface dataset:
A method by a base station for a wireless communication system , the method comprising: transmitting, to a terminal , downlink data; receiving, from the terminal, acknowledgement, ACK, or negative acknowledgement, NACK, information corresponding to the downlink data on a physical uplink control channel, PUCCH; determining whether an uplink resource corresponding to the PUCCH is included in a first resource; characterized in that the method further comprises: determining that the uplink resource corresponding to the PUCCH includes the NACK information, if the uplink resource corresponding to the PUCCH is included in the first resource, wherein the first resource is multiplexed with a device-to-device, D2D, communication resource used by at least one terminal with a reference signal received power, RSRP, value greater than a predetermined threshold value. transmitting, to a terminal , downlink data; receiving, from the terminal, acknowledgement, ACK, or negative acknowledgement, NACK, information corresponding to the downlink data on a physical uplink control channel, PUCCH; determining whether an uplink resource corresponding to the PUCCH is included in a first resource; characterized in that the method further comprises: determining that the uplink resource corresponding to the PUCCH includes the NACK information, if the uplink resource corresponding to the PUCCH is included in the first resource, wherein the first resource is multiplexed with a device-to-device, D2D, communication resource used by at least one terminal with a reference signal received power, RSRP, value greater than a predetermined threshold value. determining that the uplink resource corresponding to the PUCCH includes the NACK information, if the uplink resource corresponding to the PUCCH is included in the first resource, wherein the first resource is multiplexed with a device-to-device, D2D, communication resource used by at least one terminal with a reference signal received power, RSRP, value greater than a predetermined threshold value.
A fluid treating system comprising a housing configured with at least one fluid inlet port extending into a raw fluid chamber and at least one fluid outlet port , with at least one fluid treating chamber disposed between and being in flow communication with said at least one fluid inlet port and at least one fluid outlet port , wherein the at least one fluid treating chamber is separated from the raw fluid chamber by at least three partition walls , defining therebetween at least two intermediate chambers ; wherein the at least two intermediate chambers are sealingly isolated from each other and from both the raw fluid chamber and the at least one fluid treating chamber ; wherein the at least two intermediate chambers are disposed between said at least one fluid inlet port and at least one of said at least one fluid treating chamber and said at least one fluid outlet port ; wherein the at least two intermediate chambers are vented to the atmosphere or coupleable to a vacuum source; wherein the system further comprises at least one filtration module extending between the raw fluid chamber and the at least one fluid treating chamber , the at least one filtration module has an inlet extending within the raw fluid chamber , and wherein said inlet of the at least one filtration module extends into a filtration space of the at least one filtration module ; wherein the at least two intermediate chambers are configured for coupling to a drain pipe. wherein the at least one fluid treating chamber is separated from the raw fluid chamber by at least three partition walls , defining therebetween at least two intermediate chambers ; wherein the at least two intermediate chambers are sealingly isolated from each other and from both the raw fluid chamber and the at least one fluid treating chamber ; wherein the at least two intermediate chambers are disposed between said at least one fluid inlet port and at least one of said at least one fluid treating chamber and said at least one fluid outlet port ; wherein the at least two intermediate chambers are vented to the atmosphere or coupleable to a vacuum source; wherein the system further comprises at least one filtration module extending between the raw fluid chamber and the at least one fluid treating chamber , the at least one filtration module has an inlet extending within the raw fluid chamber , and wherein said inlet of the at least one filtration module extends into a filtration space of the at least one filtration module ; wherein the at least two intermediate chambers are configured for coupling to a drain pipe.
Subassembly of a linkage of a wiper mechanism comprising: • a bearing , • a crank articulated on the bearing having a first end connected to the bearing and a second end including a ball joint , and • a link one end of which is connected by the ball joint to the crank , characterized in that at least the crank includes a first through-opening and in that the subassembly comprises a locking element intended to be positioned in the first through-opening and configured to block the relative movement between the link and the crank . • a bearing , • a crank articulated on the bearing having a first end connected to the bearing and a second end including a ball joint , and • a link one end of which is connected by the ball joint to the crank ,
A composition for use in a method of delivering a biologically active cargo material to the gastrointestinal tract, wherein the composition comprises amorphous magnesium-substituted calcium phosphate (AMCP), which entraps a biologically active cargo material, thereby enabling the cargo material to be delivered to a site of interest in the gastrointestinal tract.
A memory management method comprising: determining a stride value for stride access by referring to a size of two-dimensional data ; and allocating neighboring data in a vertical direction of the 2D data to a plurality of banks that are different from one another according to the determined stride value , characterized in that the stride value is an odd multiple of a data width of the bank, where the odd multiple of the data width of the bank is obtained by multiplying the data width of the bank by the smallest possible positive odd number which enable the stride value to be equal to or larger than a number of columns of the 2D data. determining a stride value for stride access by referring to a size of two-dimensional data ; and allocating neighboring data in a vertical direction of the 2D data to a plurality of banks that are different from one another according to the determined stride value , characterized in that the stride value is an odd multiple of a data width of the bank, where the odd multiple of the data width of the bank is obtained by multiplying the data width of the bank by the smallest possible positive odd number which enable the stride value to be equal to or larger than a number of columns of the 2D data.
Pipette tip for connection to a pipette tube of a pipetting device , wherein the pipette tip is formed as an elongated tube forming a pipette body having at one first end thereof an opening for aspirating and/or dispensing liquids and being adapted at the other end thereof for connection to the pipette tube , characterized in that the pipette tip has a first electrode as volume measuring electrode of a measuring capacitor and a second electrode as immersion detection electrode, wherein the first electrode is disposed on an outer surface of the pipette body or is embedded in the pipette body , and wherein the first electrode does not extend to the opening at the first end and in particular is spaced from this opening , and the second electrode is disposed at least partially on an inner surface of the pipette body , wherein the first electrode and second electrode are electrically conductive, and the second electrode at least partially galvanically contacts the liquid at the inner surface of the pipette body.
Method for non-invasive determination of the concentration of an organic analyte in a biological body , wherein, in an automated manner, the body is irradiated locally by light from a wavelength range of between 6μm and 16μm matched to an absorption signature of the analyte, namely the fingerprint range thereof, wherein at least some of the light penetrates into the body and is absorbed by the analyte, wherein the body heats up at least locally as a result of the absorption by the analyte and a consequently occurring change in a speckle pattern of coherent light scattered at the body is detected, and wherein a value of the concentration of the analyte is deduced from the detected change in the speckle pattern .
An engine assembly for an aircraft, the engine assembly comprising a combustion engine (10; 110) including a coolant circuit in heat exchange relationship with a heat sink , the heat sink including a heat exchanger and at least one further component of the engine assembly , the at least one further component having a main function that differs from thermal exchange, wherein the coolant circuit comprises a conduit in heat exchange relationship with the at least one further component , characterised in that : the conduit is wrapped around the at least one further component ; and the conduit is selectively connectable to a remainder of the coolant circuit via a valve located on the coolant circuit , the valve having a first mode in which the valve allows the liquid coolant to circulate within the conduit and a second mode in which the valve prevents the liquid coolant to flow within the conduit , the valve configured to selectively use the at least one further component to help the heat exchanger in dissipating the heat generated by the combustion engine when needed. the conduit is wrapped around the at least one further component ; and the conduit is selectively connectable to a remainder of the coolant circuit via a valve located on the coolant circuit , the valve having a first mode in which the valve allows the liquid coolant to circulate within the conduit and a second mode in which the valve prevents the liquid coolant to flow within the conduit , the valve configured to selectively use the at least one further component to help the heat exchanger in dissipating the heat generated by the combustion engine when needed.
A method for acquiring images by means of an array sensor comprising a cell array, the cell array comprising a photoelectric cell of the C-MOS type with charge transfer, of the type comprising a pinned photodiode (PPD) adapted to be exposed to photons, formed by a doped zone of a first type in a substrate of opposite type, the method comprising steps of transferring the charges generated by exposure of the photodiode to photons to a floating diffusion (FD), and of reading on the floating diffusion a voltage representative of the transferred quantity of charges, wherein the depletion zone of the junction of the photodiode (PPD) under zero biasing voltage extends essentially through the entire thickness of the doped zone of first type, such that the junction capacitance of said photodiode and the noise of capacitive origin are minimized, wherein during exposure to photons, the transferred quantity of charges corresponds to the residual charge left in the pinned photodiode (PPD) by generation of charges by photo-conversion in the pinned photodiode (PPD) and the loss of charges by thermionic evaporation in the pinned photodiode, wherein reading of the voltage representative of the transferred quantity of charges is done under condition of equilibrium between generation of charges by photo-conversion in the pinned photodiode (PPD) and the loss of charges by thermionic evaporation in the pinned photodiode (PPD), the method being characterized in that the optic intensity to which said photoelectric cell is exposed is coded on a logarithmic scale by the number of charges in the residual charge in the pinned photodiode (PPD) left by generation of charges by photo-conversion in the pinned photodiode (PPD) and the loss of charges by thermionic evaporation in the pinned photodiode (PPD) under condition of equilibrium between the generation of charges by photo-conversion in the pinned photodiode (PPD) and the loss of charges by thermionic evaporation in the pinned photodiode (PPD).
An artificial retinal device for providing image jittering, the artificial retinal device comprising: a plurality of artificial retinal stimulators ; and a plurality of stimulation electrodes , wherein each of the plurality of artificial retinal stimulators comprises: a photodiode configured to sense light stimulation and generate a current based on an intensity of the sensed light stimulation; a pulse generator configured to generate a pulse on the basis of the current generated by the photodiode; a switch configured to connect an output terminal of the pulse generator and ground; a jittering switch configured to select one of the plurality of stimulation electrodes for transferring the generated pulse and provide to the output terminal of the pulse generator, and the artificial retinal device further comprises a controller configured to control on/off of the jittering switch of each of the plurality of artificial retinal stimulators. a plurality of artificial retinal stimulators ; and a plurality of stimulation electrodes , wherein each of the plurality of artificial retinal stimulators comprises: a photodiode configured to sense light stimulation and generate a current based on an intensity of the sensed light stimulation; a pulse generator configured to generate a pulse on the basis of the current generated by the photodiode; a switch configured to connect an output terminal of the pulse generator and ground; a jittering switch configured to select one of the plurality of stimulation electrodes for transferring the generated pulse and provide to the output terminal of the pulse generator, and wherein each of the plurality of artificial retinal stimulators comprises: a photodiode configured to sense light stimulation and generate a current based on an intensity of the sensed light stimulation; a pulse generator configured to generate a pulse on the basis of the current generated by the photodiode; a switch configured to connect an output terminal of the pulse generator and ground; a jittering switch configured to select one of the plurality of stimulation electrodes for transferring the generated pulse and provide to the output terminal of the pulse generator, and the artificial retinal device further comprises a controller configured to control on/off of the jittering switch of each of the plurality of artificial retinal stimulators.
Manufacturing device for saw blades , in particular saw bands, in particular for welding or soldering individual cutting elements at receiving points on a fed base blade , in particular a base band, having a cutting element feed and an electrical pressure welding device with an advanceable welding head , characterized in that the manufacturing device has an automatic adjusting device which is designed to detect and, if required, adjust or readjust the relative position of base blade and welding head at the process region, wherein the automatic adjusting device has an optical detection device for the position of the base blade , in particular of the current receiving point or of the target surface (T), in the process region, which detection device is arranged at a distance from the process region and views the process region transversely with respect to the base blade plane, and wherein the automatic adjusting device has a positioning device , which is controlled according to the detection result, for changing the relative position of base blade and welding head as required.
An electric machine system comprising an electric machine that comprises: - a stator comprising a frame structure and an electromagnetically active part inside the frame structure, - a rotor comprising a shaft 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 comprising a frame structure and an electromagnetically active part inside the frame structure, - a rotor comprising a shaft 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 WGM microresonator comprising a dielectric matrix, characterized in that in the dielectric matrix with positive real part of the electric permittivity Re(ε)>0 in the UV/VIS/NIR wavelength range of electromagnetic radiation and with low dielectric losses it comprises at least one type of plasmonic nanoparticles with negative real part of the electric permittivity Re(ε)<0 in the UV/VIS/NIR wavelength range of electromagnetic radiation and at least one type of luminescent semiconductor or perovskite quantum dots, wherein the plasmonic nanoparticles have diameter of 10 to 50 nm, and wherein diameter of quantum dots is from 1 to 15 nm.
A plant illumination method in which light pulses are delivered to the plants in illumination cycles from a light source at any stage of plant development, one illumination cycle comprises a bright pulse having a duration time t 1 and a dark pulse having a duration time t 2 , characterized in that an illumination cycle frequency is in the range of 2 cycles/minute to 6 cycles/minute, and the ratio between the bright pulse duration time t 1 and the duration time of the cycle t 1 +t 2 is in the range of 0.25 to 0.5.
A catalyst composition for polyurethane resin production, which comprises an iron compound represented by the following formula and a tertiary amine compound represented by the following formula : Fe n+ (L) n in the formula , each L independently is a β-diketonate ligand represented by the following formula , and n is 2 or 3, in the formula , each of R 1 and R 3 which are independent of each other, is a C 2-10 alkyl group, and R 2 is a hydrogen atom or a C 1-7 alkyl group, in the formula , each of R 4 to R 6 which are independent of one another, is a hydrogen atom or a C 1-10 alkyl group, and R 7 is a C 1-10 alkylene group.
An aqueous ophthalmic pharmaceutical composition comprising: a) at least 0.4% w/v but no more than 1.0% w/v of bilastine, or a pharmaceutically acceptable salt or solvate thereof, wherein the bilastine or salt or solvate thereof is completely dissolved in the aqueous ophthalmic pharmaceutical composition; b) at least one β-cyclodextrin selected from the group consisting of unmodified β-cyclodextrin, C 1 -C 6 alkyl-β-cyclodextrin, C 1 -C 6 hydroxyalkyl β-cyclodextrin, C 1 -C 6 carboxyalkyl-β-cyclodextrin, carbonyl-β-cyclodextrin, C 2 -C 6 sulfoalkylether β-cyclodextrin and mixtures thereof; and c) at least one pharmaceutically acceptable water-soluble gelling agent or an acceptable salt thereof, selected from the group consisting of hyaluronic acid, gellan gum and mixtures thereof; and wherein the pH value of the composition is comprised between 4 and 9, both lower and upper limits of the range included. a) at least 0.4% w/v but no more than 1.0% w/v of bilastine, or a pharmaceutically acceptable salt or solvate thereof, wherein the bilastine or salt or solvate thereof is completely dissolved in the aqueous ophthalmic pharmaceutical composition; b) at least one β-cyclodextrin selected from the group consisting of unmodified β-cyclodextrin, C 1 -C 6 alkyl-β-cyclodextrin, C 1 -C 6 hydroxyalkyl β-cyclodextrin, C 1 -C 6 carboxyalkyl-β-cyclodextrin, carbonyl-β-cyclodextrin, C 2 -C 6 sulfoalkylether β-cyclodextrin and mixtures thereof; and c) at least one pharmaceutically acceptable water-soluble gelling agent or an acceptable salt thereof, selected from the group consisting of hyaluronic acid, gellan gum and mixtures thereof;
A method for simulating an oxidation process in a body, the body being a semiconductor, within which a boundary exists between particles of a first material to be oxidized and particles of a second material resulting from the oxidation of the first material, the boundary moving during the oxidation process, comprising: in a computer system, imposing a uniform grid of nodes in the body, the grid having three independent dimensions and having a uniform node spacing, the grid including a first portion; assigning exactly one particle of the body to each node in the first portion of the grid; providing a system of first node equations, including at least one node equation for each of a plurality of nodes of the first portion of the grid, the node equation or equations for each particular one of the nodes describing a concentration of oxygen at the particular node after each of a first plurality of time steps of the process; and the computer system iterating through the first plurality of the time steps to determine, from the node equations, the concentration of oxygen at the end of each of the time steps in the first plurality of time steps, and to re-assign, to each of the nodes which had been assigned a particle of the first material, a particle of the second material in dependence upon the concentration of oxygen at the node after the time step; wherein the uniform node spacing is a value that is within 10% of 0.27 nanometers. in a computer system, imposing a uniform grid of nodes in the body, the grid having three independent dimensions and having a uniform node spacing, the grid including a first portion; assigning exactly one particle of the body to each node in the first portion of the grid; providing a system of first node equations, including at least one node equation for each of a plurality of nodes of the first portion of the grid, the node equation or equations for each particular one of the nodes describing a concentration of oxygen at the particular node after each of a first plurality of time steps of the process; and the computer system iterating through the first plurality of the time steps to determine, from the node equations, the concentration of oxygen at the end of each of the time steps in the first plurality of time steps, and to re-assign, to each of the nodes which had been assigned a particle of the first material, a particle of the second material in dependence upon the concentration of oxygen at the node after the time step; wherein the uniform node spacing is a value that is within 10% of 0.27 nanometers.