mhurhangee/ep-ind-claims huggingface dataset:
Method for capturing a sequence of digital images, comprising the steps of: - imaging a scene on a digital sensor, through a lens unit, with at least one first magnification value and at least one second magnification value, the second magnification value being different from the first magnification value and the variation between said magnification values arising from a variation in focus of the lens unit; - capturing a first digital image with the first magnification value (I 1, G 1); - capturing a second digital image with the second magnification value (I 2, G 2); - determining a digital compensation for the variation between said magnification values; - applying digital processing to the first digital image and/or to the second digital image, based on said digital compensation determined so that the variation between said magnification values is compensated for and becomes invisible or less visible. - imaging a scene on a digital sensor, through a lens unit, with at least one first magnification value and at least one second magnification value, the second magnification value being different from the first magnification value and the variation between said magnification values arising from a variation in focus of the lens unit; - capturing a first digital image with the first magnification value (I 1, G 1); - capturing a second digital image with the second magnification value (I 2, G 2); - determining a digital compensation for the variation between said magnification values; - applying digital processing to the first digital image and/or to the second digital image, based on said digital compensation determined so that the variation between said magnification values is compensated for and becomes invisible or less visible.
Method for obtaining coupled grains comprising seeds of different species, each of different grain size, said coupled grains comprising at least two seeds, said method comprising the following steps: - individual coating of each of the seeds is performed: • a first coating of a first seed species is carried out by spraying a liquid gum on a seed bed of this first species, • drying, for example by ventilation, is carried out to obtain first coated grains of the first seed species, • at least one second coating of a second different seed species is carried out in the same manner to obtain second coated grains of the second seed, - an agglomeration of the coated grains of the at least one first and second seeds is implemented by coupling in a mixer to produce coupled grains, comprising seeds of different species, and - the coupled grains are sorted using a densimetric table. - individual coating of each of the seeds is performed: • a first coating of a first seed species is carried out by spraying a liquid gum on a seed bed of this first species, • drying, for example by ventilation, is carried out to obtain first coated grains of the first seed species, • at least one second coating of a second different seed species is carried out in the same manner to obtain second coated grains of the second seed, • a first coating of a first seed species is carried out by spraying a liquid gum on a seed bed of this first species, • drying, for example by ventilation, is carried out to obtain first coated grains of the first seed species, • at least one second coating of a second different seed species is carried out in the same manner to obtain second coated grains of the second seed, - an agglomeration of the coated grains of the at least one first and second seeds is implemented by coupling in a mixer to produce coupled grains, comprising seeds of different species, and - the coupled grains are sorted using a densimetric table.
Process for producing panels made from waste paper, comprising the steps of: a) forming an incoherent mass containing particles of waste paper; b) depositing said incoherent mass onto a support so as to form a layer having a substantially uniform thickness; c) applying a pressure to said layer; wherein a first liquid is sprayed onto or into said incoherent mass during said step b) before the formation of said layer; said process further comprising: - before said step b), a step a0) of depositing a first continuous sheet of paper onto said support; - after said step a0) and before said step b), a step a1') of wetting said first continuous sheet of paper with a second liquid; - after said step b) and before said step c), a step b1) of wetting the surface of said layer opposite the one resting on said support with a third liquid; - after said step b) and before said step c), a step b2) of depositing a second continuous sheet of paper onto the surface of said layer opposite that resting on said support. a) forming an incoherent mass containing particles of waste paper; b) depositing said incoherent mass onto a support so as to form a layer having a substantially uniform thickness; c) applying a pressure to said layer; - before said step b), a step a0) of depositing a first continuous sheet of paper onto said support; - after said step a0) and before said step b), a step a1') of wetting said first continuous sheet of paper with a second liquid; - after said step b) and before said step c), a step b1) of wetting the surface of said layer opposite the one resting on said support with a third liquid; - after said step b) and before said step c), a step b2) of depositing a second continuous sheet of paper onto the surface of said layer opposite that resting on said support.
A method for making a coated glass article, the method comprising: applying a water-based coating mixture onto at least a portion of a first surface of a glass article, wherein the water-based coating mixture comprises: water in an amount of at least 60% by weight of the water-based coating mixture; a polymer or polymer precursor, wherein the polymer or polymer precursor is miscible in the water or forms an emulsion with the water; and a metal oxide precursor that is miscible in the water or forms an emulsion with the water; and heating the water-based coating mixture to form a coating on the first surface of the glass article, the coating comprising metal oxide and polymer, wherein the coated glass article is a glass container. applying a water-based coating mixture onto at least a portion of a first surface of a glass article, wherein the water-based coating mixture comprises: water in an amount of at least 60% by weight of the water-based coating mixture; a polymer or polymer precursor, wherein the polymer or polymer precursor is miscible in the water or forms an emulsion with the water; and a metal oxide precursor that is miscible in the water or forms an emulsion with the water; and water in an amount of at least 60% by weight of the water-based coating mixture; a polymer or polymer precursor, wherein the polymer or polymer precursor is miscible in the water or forms an emulsion with the water; and a metal oxide precursor that is miscible in the water or forms an emulsion with the water; and heating the water-based coating mixture to form a coating on the first surface of the glass article, the coating comprising metal oxide and polymer, wherein the coated glass article is a glass container.
A method for monitoring the performance of a pipe containing a pressurized fluid, made of reinforced concrete, this pipe comprising at least one continuous run zone and singularity zones, said method comprising: - a monitoring, said static monitoring, of a predetermined number of singularity zones and/or continuous run zones, in order to provide circumferential expansion information, and - a calculation of the effective stiffness K(ti) of the pipe and its residual steel cross-section As(ti) using said circumferential expansion information and predetermined laws defining the relationships between said circumferential expansion and the stiffness and between the stiffness and the residual cross-section, said laws being the intrinsic characteristics of said pipe - a monitoring, said static monitoring, of a predetermined number of singularity zones and/or continuous run zones, in order to provide circumferential expansion information, and - a calculation of the effective stiffness K(ti) of the pipe and its residual steel cross-section As(ti) using said circumferential expansion information and predetermined laws defining the relationships between said circumferential expansion and the stiffness and between the stiffness and the residual cross-section, said laws being the intrinsic characteristics of said pipe
A line protective guide for lines like for example cables, hoses or the like, for a clean room application, comprising an elongate flexible encasement which is displaceable reciprocatingly, in particular with the formation of a directionchanging arc between two runs (1, 3), and wherein the flexible encasement is closable at the ends by a respective clamping device against the escape of particles, wherein the encasement includes at least one encasing unit (101,...1001) which forms at least one tubular receiving means (102,...1002) for guiding at least one line, wherein each receiving means (102,...1002) extends channel-like in a longitudinal direction from a first end to a second end; and wherein the encasement has a plurality of said tubular receiving means (102,...1002) which extend parallel to each other to separately guide at least one line, characterized in that the at least one encasing unit (101,...1001) at at least one receiving means (102,..1002), in particular laterally at at least one receiving means (102,1002), has at least one functional region (110,..1010) which extends in the longitudinal direction and which includes two closure profiles (111, 112,..1011, 1012) of a closure, wherein one of the closure profiles (111,..1011) cooperates with the other closure profile (112,..1012) for dusttightly closing an opened state in which a line can be introduced or removed transversely relative to the longitudinal direction.
A drilling system, comprising: a drill string comprising a downhole motor; a plurality of sensors (115, 150, 170, 185) coupled to the drill string; and a computing system coupled to the sensors, and configured to: compute, based on measurements provided by the sensors (115, 150, 170, 185), a motor stall index as: MotorStallIndex = α RPMIndex ∗ SurfaceTorqueIndex + β FlowRateIndex ∗ SPPIndex where SPP is standpipe pressure; RPM is revolutions per minute; 0 ≤ motor stall index ≤ 1; 0 ≤ α ≤ 1; 0 ≤ β ≤ 1; α + β = 1; and α and β are coefficients controlling the degree of torque and SPP influence; determine, by comparing the motor stall index to a motor stall threshold, whether the downhole motor has stalled; and responsive to a determination that the downhole motor has stalled, adjust operation of the drill string to restart the downhole motor. a drill string comprising a downhole motor; a plurality of sensors (115, 150, 170, 185) coupled to the drill string; and a computing system coupled to the sensors, and configured to: compute, based on measurements provided by the sensors (115, 150, 170, 185), a motor stall index as: MotorStallIndex = α RPMIndex ∗ SurfaceTorqueIndex + β FlowRateIndex ∗ SPPIndex where SPP is standpipe pressure; RPM is revolutions per minute; 0 ≤ motor stall index ≤ 1; 0 ≤ α ≤ 1; 0 ≤ β ≤ 1; α + β = 1; and α and β are coefficients controlling the degree of torque and SPP influence; determine, by comparing the motor stall index to a motor stall threshold, whether the downhole motor has stalled; and responsive to a determination that the downhole motor has stalled, adjust operation of the drill string to restart the downhole motor. compute, based on measurements provided by the sensors (115, 150, 170, 185), a motor stall index as: MotorStallIndex = α RPMIndex ∗ SurfaceTorqueIndex + β FlowRateIndex ∗ SPPIndex where SPP is standpipe pressure; RPM is revolutions per minute; 0 ≤ motor stall index ≤ 1; 0 ≤ α ≤ 1; 0 ≤ β ≤ 1; α + β = 1; and α and β are coefficients controlling the degree of torque and SPP influence; SPP is standpipe pressure; RPM is revolutions per minute; 0 ≤ motor stall index ≤ 1; 0 ≤ α ≤ 1; 0 ≤ β ≤ 1; α + β = 1; and α and β are coefficients controlling the degree of torque and SPP influence; determine, by comparing the motor stall index to a motor stall threshold, whether the downhole motor has stalled; and responsive to a determination that the downhole motor has stalled, adjust operation of the drill string to restart the downhole motor.
A method of a base station for performing a multi-beam-based random access procedure in wireless communications, the method comprising: transmitting information on one or more random access channel, RACH, resources to a user equipment; receiving one or more multi-RACH preambles from the user equipment through multiple beams by using said RACH resources according to a contention-free random access procedure, said multi-RACH preambles being mapped on orthogonal RACH resources based on FDM; and transmitting a random access response to the user equipment. transmitting information on one or more random access channel, RACH, resources to a user equipment; receiving one or more multi-RACH preambles from the user equipment through multiple beams by using said RACH resources according to a contention-free random access procedure, said multi-RACH preambles being mapped on orthogonal RACH resources based on FDM; and transmitting a random access response to the user equipment.
Wrapping tape for surrounding cables in automobiles, having a textile carrier (1, 3, 2, 4) in the form of a single fabric, and having an adhesive coating on at least one side of the carrier (1, 3, 2, 4), characterized in that the single fabric is constructed with at least three plies, wherein abrasion-resistant warp threads (1, 3) that are not connected to each other form both an outer layer and an inner layer, and wherein an intermediate layer consisting of weft threads (2, 4) produced entirely or partly from an elastomer is provided, whose binding points with the outer layer do not coincide with the binding points of the inner layer. the single fabric is constructed with at least three plies, wherein abrasion-resistant warp threads (1, 3) that are not connected to each other form both an outer layer and an inner layer, and wherein an intermediate layer consisting of weft threads (2, 4) produced entirely or partly from an elastomer is provided, whose binding points with the outer layer do not coincide with the binding points of the inner layer.
A hot swappable device, wherein the device comprises a port, a firmware module, and an interrupt masking module, the device is connected to a host by using the port, the port comprises a Peripheral Component Interface express Physical Layer, the Peripheral Component Interface express Physical Layer comprises multiple lanes, and the multiple lanes are configured to receive an analog signal from the host; characterized in that: the Peripheral Component Interface express Physical Layer detects an analog signal in each of the multiple lanes, and when it is detected that an amplitude of an analog signal in one of the multiple lanes is less than a preset threshold, the Peripheral Component Interface express Physical Layer generates an analog signal loss indication, ALOS, signal corresponding to the lane; the Peripheral Component Interface express Physical Layer transmits the ALOS signal to the interrupt masking module, the interrupt masking module generates an ALOS interrupt signal corresponding to the lane, and the interrupt masking module sends the ALOS interrupt signal to the firmware module; and from a time when the firmware module receives an ALOS interrupt signal corresponding to the first lane, if the firmware module receives, in a preset time period, an ALOS interrupt signal corresponding to each lane, the firmware module resets the port. the Peripheral Component Interface express Physical Layer detects an analog signal in each of the multiple lanes, and when it is detected that an amplitude of an analog signal in one of the multiple lanes is less than a preset threshold, the Peripheral Component Interface express Physical Layer generates an analog signal loss indication, ALOS, signal corresponding to the lane; the Peripheral Component Interface express Physical Layer transmits the ALOS signal to the interrupt masking module, the interrupt masking module generates an ALOS interrupt signal corresponding to the lane, and the interrupt masking module sends the ALOS interrupt signal to the firmware module; and from a time when the firmware module receives an ALOS interrupt signal corresponding to the first lane, if the firmware module receives, in a preset time period, an ALOS interrupt signal corresponding to each lane, the firmware module resets the port.
A bleed air cooling system for a gas turbine engine, comprising: one or more bleed ports disposed at one or more axial locations of the gas turbine engine to divert a bleed airflow from a gas turbine engine flowpath, the gas turbine engine flowpath directing airflow from a compressor section to a turbine section via a combustor; a bleed outlet disposed at a cooling location of the gas turbine engine; a bleed duct in fluid communication with the bleed port and configured to convey the bleed airflow from the bleed port to the bleed outlet; one or more safety sensors (82, 88) to sense operational characteristics of the gas turbine engine; and a controller operably connected to the one or more safety sensors (82, 88) and configured to evaluate the sensed operational characteristics for anomalies in operation of the bleed air cooling system; characterized in that the one or more safety sensors (82; 88) include a gaspath safety sensor disposed and configured to measure a gas turbine engine flowpath pressure of the gas turbine engine at a turbine component to be cooled by the bleed airflow; wherein the turbine component to be cooled is disposed in the gas turbine engine flowpath; wherein the bleed duct is connected to the bleed outlet via a manifold; and wherein the one or more safety sensors (82; 88) further include a manifold pressure sensor to detect manifold pressure. one or more bleed ports disposed at one or more axial locations of the gas turbine engine to divert a bleed airflow from a gas turbine engine flowpath, the gas turbine engine flowpath directing airflow from a compressor section to a turbine section via a combustor; a bleed outlet disposed at a cooling location of the gas turbine engine; a bleed duct in fluid communication with the bleed port and configured to convey the bleed airflow from the bleed port to the bleed outlet; one or more safety sensors (82, 88) to sense operational characteristics of the gas turbine engine; and a controller operably connected to the one or more safety sensors (82, 88) and configured to evaluate the sensed operational characteristics for anomalies in operation of the bleed air cooling system; characterized in that the one or more safety sensors (82; 88) include a gaspath safety sensor disposed and configured to measure a gas turbine engine flowpath pressure of the gas turbine engine at a turbine component to be cooled by the bleed airflow; wherein the turbine component to be cooled is disposed in the gas turbine engine flowpath; wherein the bleed duct is connected to the bleed outlet via a manifold; and wherein the one or more safety sensors (82; 88) further include a manifold pressure sensor to detect manifold pressure.
A method for wireless communication, comprising: receiving (220; 410; 1310; 1410), by a wireless device, downlink control information, DCI, during a slot; receiving a data transmission during the slot; determining (1320; 1415) a number of resource elements per physical resource block based at least in part on the configuration of the DCI, wherein the number of resource elements per physical resource block is determined based at least in part on a reference signal overhead indicated by the DCI; and processing (230; 1325) the data transmission based at least in part on the determined number of physical resource block resource elements. receiving (220; 410; 1310; 1410), by a wireless device, downlink control information, DCI, during a slot; receiving a data transmission during the slot; determining (1320; 1415) a number of resource elements per physical resource block based at least in part on the configuration of the DCI, wherein the number of resource elements per physical resource block is determined based at least in part on a reference signal overhead indicated by the DCI; and processing (230; 1325) the data transmission based at least in part on the determined number of physical resource block resource elements.
Regulating mechanism for a timepiece, this mechanism comprising at least three functional organs known by the designations of balance, pallet fork and escapement wheel, the balance cooperating with the pallet fork which, itself, co-operates with the escapement wheel, this mechanism being characterized in that it comprises a pallet fork constituted by two functional elements which are referred to as first element and second element, and - the first element bears a functional part which, referred to as first functional part, is intended to co-operate with the balance, which comprises for this purpose a dart provided to prevent an accidental tilting and two horns constituting a portion in the form of a fork and which is mounted rocking on a first shaft, - the second element bears a functional part which is referred to as second functional part, is intended to co-operate with the escapement wheel and is mounted rocking on a second shaft, - the first element and the second element bear respectively a third functional part and a fourth functional part which, together, constitute an articulated connection capable of ensuring the transmission of a rocking movement of the first element to the second element and vice-versa, characterized in that the articulated connection is, with respect to the first shaft and second shaft, positioned in such a way that a rocking of the second element at a predetermined amplitude value, brings about a rocking of the first element at a greater amplitude value. - the first element bears a functional part which, referred to as first functional part, is intended to co-operate with the balance, which comprises for this purpose a dart provided to prevent an accidental tilting and two horns constituting a portion in the form of a fork and which is mounted rocking on a first shaft, - the second element bears a functional part which is referred to as second functional part, is intended to co-operate with the escapement wheel and is mounted rocking on a second shaft, - the first element and the second element bear respectively a third functional part and a fourth functional part which, together, constitute an articulated connection capable of ensuring the transmission of a rocking movement of the first element to the second element and vice-versa, characterized in that the articulated connection is, with respect to the first shaft and second shaft, positioned in such a way that a rocking of the second element at a predetermined amplitude value, brings about a rocking of the first element at a greater amplitude value.