mhurhangee/ep-ind-claims huggingface dataset:
A method of enhancing corn growth, comprising a) treating corn seed with an amount of 10 2 -10 6 colony forming units (cfu) per seed of at least one phosphate solubilizing microorganism selected from the group consisting of Penicillium bilaiae strain ATCC 20851, Penicillium bilaiae strain NRRL 50169, Penicillium bilaiae strain ATCC 22348, Penicillium bilaiae strain ATCC 18309, and Penicillium bilaiae strain NRRL 50162, and b) treating the corn seed that germinates from the seed with an amount of from about 10 -5 to about 10 -14 M of at least one lipo-chitooligosaccharide and/or at least one chitooligosaccharide, wherein upon harvesting the corn plant exhibits at least one of increased plant yield measured in terms of kilograms/hectare (bushels/acre), increased root number, increased root length, increased root mass, increased root volume and increased leaf area, compared to plants harvested from untreated seed. a) treating corn seed with an amount of 10 2 -10 6 colony forming units (cfu) per seed of at least one phosphate solubilizing microorganism selected from the group consisting of Penicillium bilaiae strain ATCC 20851, Penicillium bilaiae strain NRRL 50169, Penicillium bilaiae strain ATCC 22348, Penicillium bilaiae strain ATCC 18309, and Penicillium bilaiae strain NRRL 50162, and b) treating the corn seed that germinates from the seed with an amount of from about 10 -5 to about 10 -14 M of at least one lipo-chitooligosaccharide and/or at least one chitooligosaccharide, wherein upon harvesting the corn plant exhibits at least one of increased plant yield measured in terms of kilograms/hectare (bushels/acre), increased root number, increased root length, increased root mass, increased root volume and increased leaf area, compared to plants harvested from untreated seed.
An intravascular catheter device for the treatment of various medical conditions comprising: a handle assembly; an expandable portion comprising a plurality of struts (134A, 134B, 134C, 134D, 234A, 234B, 234C, 234D) oriented along a longitudinal axis of the expandable portion configured to move between a collapsed and an expanded position and a tip member (138, 238) affixed to a distal end of said struts (134A, 134B, 134C, 134D, 234A, 234B, 234C, 234D); a catheter tube (30, 130) extending from the handle assembly to the expandable portion, wherein said catheter tube (30, 130) defines an inner lumen; an elongate member disposed within the inner lumen and in communication with the handle assembly and the tip member (138, 238); characterised by an attachment mechanism located on at least one of the plurality of struts (134A, 134B, 134C, 134D, 234A, 234B, 234C, 234D) configured to permit the selective attachment of one of a plurality of medical tools. a handle assembly; an expandable portion comprising a plurality of struts (134A, 134B, 134C, 134D, 234A, 234B, 234C, 234D) oriented along a longitudinal axis of the expandable portion configured to move between a collapsed and an expanded position and a tip member (138, 238) affixed to a distal end of said struts (134A, 134B, 134C, 134D, 234A, 234B, 234C, 234D); a catheter tube (30, 130) extending from the handle assembly to the expandable portion, wherein said catheter tube (30, 130) defines an inner lumen; an elongate member disposed within the inner lumen and in communication with the handle assembly and the tip member (138, 238); characterised by an attachment mechanism located on at least one of the plurality of struts (134A, 134B, 134C, 134D, 234A, 234B, 234C, 234D) configured to permit the selective attachment of one of a plurality of medical tools.
Fermented food product being a water-continuous emulsion, being spoonable and non-liquid at a temperature of 5 degrees Celsius, having a pH-value between 3.5 and 5.8, the food product comprising at least 60 wt% water and further comprising from 12 to 25 wt% fat and from 0.05 to 15 wt% protein, wherein the fat comprises at least a vegetable fat and wherein the fat comprises from 0 to up to 60 wt% of saturated fatty acids (SAFA), at least 30 wt% P2U triglycerides and from 0 to up to 7 wt% P3 triglycerides, wherein the ratio of SAFA:P2U is up to 1.7, and wherein P is palmitic acid and U is unsaturated fatty acid.
Roof element, in particular inner ceiling panel for a vehicle roof, to improve the rigidity of said roof comprising a corrugated cardboard part and at least one so-called damping part, capable of absorbing the vibrations, said damping part being integral with the corrugated cardboard part, characterised in that said corrugated cardboard part is obtained in the corrugated cardboard with one single slot of thickness comprised between 2 and 6mm, of wave coefficient comprised between 1.35 and 1.70, comprising 120 to 180 slots per metre, and of which the sum of the grammages of the lower cover and of the upper cover is comprised between 200 and 635g/m 2, and wherein is formed at least one cavity, said damping part extending into said cavity.
Air supply system comprising a compressor driven by a motor for generating compressed air, an air drier system for extracting moisture from the compressed air produced, an electronic converter for needs-dependent compressor control and a plurality of analogue and / or digital sensors for producing electrical signals, characterised in that the electrical signals can be used for controlling the electronic converter and for monitoring and controlling the compressor, and the processing of the electrical signals produced by the sensors is carried out in the electronic converter to form bus signals which can be provided for evaluation at a bus interface.
Component of a system for the drainage of rainwater in underpressure, characterised in that the component is provided with control means suitable to control the flow rate through a drainpipe of the system for the drainage of rainwater in underpressure, wherein the component itself comprises at least a part of a drainpipe or pipe piece, wherein the component optionally comprises a part of a roof drain, which roof drain comprises an air shutoff member, wherein the control means are integrated partially or entirely in said part of a drainpipe or pipe piece and/or partially or entirely in a part of said roof drain, whereby the control means are such that they allow the flow rate through said part of the drainpipe or pipe piece concerned to be increasingly reduced as and when an underpressure (ΔP) in said part of the drainpipe or pipe piece concerned becomes greater and/or as and when the flow speed in said part of the drainpipe or pipe piece increases and vice versa, and whereby the control means comprise at least one movable or deformable control element intended to come into direct contact during operation with the drained away rainwater and whereby a movement or deformation of the control element which determines its position is the direct consequence of this contact with the drained away rainwater.
A receiver apparatus, comprising: a first input configured to receive a first signal from a first antenna; a second input configured to receive a second signal from a second antenna; a switching circuit configured to control a receiver to alternate between receiving the first and second signal from the first and second inputs; wherein the receiver is configured to sample the received first and second signals to produce a plurality of input samples; a reference sequence generator configured to generate a reference signal; and a correlator configured to correlate the first and second signals with the reference signal to detect a correlation event, the correlator including a first buffer configured to receive first signal input samples and a second buffer configured to receive second signal input samples, wherein the correlator is configured to process the first signal input samples in the first buffer, while the second buffer receives the second signal input samples. a first input configured to receive a first signal from a first antenna; a second input configured to receive a second signal from a second antenna; a switching circuit configured to control a receiver to alternate between receiving the first and second signal from the first and second inputs; wherein the receiver is configured to sample the received first and second signals to produce a plurality of input samples; a reference sequence generator configured to generate a reference signal; and a correlator configured to correlate the first and second signals with the reference signal to detect a correlation event, the correlator including a first buffer configured to receive first signal input samples and a second buffer configured to receive second signal input samples, wherein the correlator is configured to process the first signal input samples in the first buffer, while the second buffer receives the second signal input samples.
An actuator control method, wherein the method comprises the steps of: comparing a kinetic energy of a controlled object with an amount of work that can be done by braking, wherein the amount of work that can be done by braking is the amount of work done by braking the controlled object until a target position is reached from the present position; switching from driving to braking at a point of time at which the kinetic energy of the controlled object and the amount of work that can be done by braking become equal; and repeatedly comparing the kinetic energy of the controlled object with the amount of work that can be done by braking at each preset time, characterized in that the method further comprises the steps of: taking a sum of the kinetic energy of the controlled obj ect and the absolute value of the amount of work that can be done by braking to be a control evaluation value to end control; and reducing an upper limit value of a control output in proportion to the control evaluation value. comparing a kinetic energy of a controlled object with an amount of work that can be done by braking, wherein the amount of work that can be done by braking is the amount of work done by braking the controlled object until a target position is reached from the present position; switching from driving to braking at a point of time at which the kinetic energy of the controlled object and the amount of work that can be done by braking become equal; and repeatedly comparing the kinetic energy of the controlled object with the amount of work that can be done by braking at each preset time, characterized in that the method further comprises the steps of: taking a sum of the kinetic energy of the controlled obj ect and the absolute value of the amount of work that can be done by braking to be a control evaluation value to end control; and reducing an upper limit value of a control output in proportion to the control evaluation value. taking a sum of the kinetic energy of the controlled obj ect and the absolute value of the amount of work that can be done by braking to be a control evaluation value to end control; and reducing an upper limit value of a control output in proportion to the control evaluation value.
A dose detection module removably attachable to a medication delivery device, the medication delivery device including a device body, a dose setting member, and an actuator, the dose setting member spiraling relative to the device body during dose delivery in relation to the amount of dose delivery, the dose setting member including an exposed circumferential surface for use in rotating the dose setting member relative to the device body, and the actuator spiraling with the dose setting member during dose setting and translating without rotation relative to the device body during dose delivery, said module comprising: a coupling component configured to be axially and rotationally fixed to the dose setting member; a dosing component having a first operating mode in which said dosing component is axially and rotationally fixed to said coupling component during a dose setting operation of the medication delivery device, and a second operating mode in which said dosing component is axially and rotationally fixed to the actuator and in which said coupling component is rotatable relative to said dosing component during a dose delivery operation of the medication delivery device; and an electronics assembly attached to said dosing component, said electronics assembly including a rotation sensor (172, 174) operative to detect rotation of said coupling component relative to said dosing component during dose delivery; wherein said dosing component includes an inner wall and an outer wall, said coupling component including a coupling wall received between the inner and outer walls, said coupling component extending distally beyond the inner wall and including a coupling portion configured to be attached to the exposed circumferential surface of the dose setting member for attaching said coupling component to the dose setting member. a coupling component configured to be axially and rotationally fixed to the dose setting member; a dosing component having a first operating mode in which said dosing component is axially and rotationally fixed to said coupling component during a dose setting operation of the medication delivery device, and a second operating mode in which said dosing component is axially and rotationally fixed to the actuator and in which said coupling component is rotatable relative to said dosing component during a dose delivery operation of the medication delivery device; and an electronics assembly attached to said dosing component, said electronics assembly including a rotation sensor (172, 174) operative to detect rotation of said coupling component relative to said dosing component during dose delivery; wherein said dosing component includes an inner wall and an outer wall, said coupling component including a coupling wall received between the inner and outer walls, said coupling component extending distally beyond the inner wall and including a coupling portion configured to be attached to the exposed circumferential surface of the dose setting member for attaching said coupling component to the dose setting member.
A method of ground vibration testing of an aircraft, wherein the aircraft has a plurality of landing gear (40, 42), the method comprising the steps of: engaging the aircraft with a plurality of measurement devices, each one of the measurement devices being coupled to at least one lifting mechanism engaged to a jack point on one of the landing gear (40, 42) of the aircraft via a lifting beam, wherein each of the measurement devices has a compression load cell interposed between the jack point and the lifting beam by engaging a jack fitting to the jack point, inserting a shaft of the jack fitting through an opening in the load cell, receiving the shaft in a bearing block mounted to the lifting beam and interposing the load cell between the jack fitting and the lifting beam; lifting the aircraft off of a supporting surface using the lifting mechanisms; determining a weight of the lifted aircraft based on outputs of the measurement devices; and performing ground vibration testing of the lifted aircraft; the method further comprising the steps of: determining the weight measurement at each one of the landing gear (40, 42); determining a center of gravity of the aircraft, the center of gravity of the aircraft based on the weight measurement at each one of the landing gear (40, 42). engaging the aircraft with a plurality of measurement devices, each one of the measurement devices being coupled to at least one lifting mechanism engaged to a jack point on one of the landing gear (40, 42) of the aircraft via a lifting beam, wherein each of the measurement devices has a compression load cell interposed between the jack point and the lifting beam by engaging a jack fitting to the jack point, inserting a shaft of the jack fitting through an opening in the load cell, receiving the shaft in a bearing block mounted to the lifting beam and interposing the load cell between the jack fitting and the lifting beam; lifting the aircraft off of a supporting surface using the lifting mechanisms; determining a weight of the lifted aircraft based on outputs of the measurement devices; and performing ground vibration testing of the lifted aircraft; the method further comprising the steps of: determining the weight measurement at each one of the landing gear (40, 42); determining a center of gravity of the aircraft, the center of gravity of the aircraft based on the weight measurement at each one of the landing gear (40, 42). determining the weight measurement at each one of the landing gear (40, 42); determining a center of gravity of the aircraft, the center of gravity of the aircraft based on the weight measurement at each one of the landing gear (40, 42).
A computer implemented method for curating threat intelligence data, comprising: receiving from multiple data sources threat intelligence data comprising a list of a first type of entities, a list of a second type of entities, an indication of an association between at least one of the first type of entities and at least one of the second type of entities, and a reputation score for each entity in the list of the first type of entities and the list of the second type of entities, the reputation score indicating a relative threat level of that entity in posing a security threat, wherein the first type of entity is an internet protocol, IP, address and wherein the second type of entity is a file hash; receiving a confidence value corresponding to the association wherein the confidence value indicates reliability of the association; determining an updated reputation score for the at least one of the first type of entity based on the confidence value and the reputation score of the at least one of the second type of entity to which the at least one of the first type of entities is indicated to be associated in the one or more associations; updating, in the threat intelligence data, the reputation score of the at least one of the first type of entities to the updated reputation score; and training, based on the threat intelligence data comprising the updated reputation score, a machine learning model to identify possible threats based on detecting trends in associations among the entities indicated by the threat intelligence data. receiving from multiple data sources threat intelligence data comprising a list of a first type of entities, a list of a second type of entities, an indication of an association between at least one of the first type of entities and at least one of the second type of entities, and a reputation score for each entity in the list of the first type of entities and the list of the second type of entities, the reputation score indicating a relative threat level of that entity in posing a security threat, wherein the first type of entity is an internet protocol, IP, address and wherein the second type of entity is a file hash; receiving a confidence value corresponding to the association wherein the confidence value indicates reliability of the association; determining an updated reputation score for the at least one of the first type of entity based on the confidence value and the reputation score of the at least one of the second type of entity to which the at least one of the first type of entities is indicated to be associated in the one or more associations; updating, in the threat intelligence data, the reputation score of the at least one of the first type of entities to the updated reputation score; and training, based on the threat intelligence data comprising the updated reputation score, a machine learning model to identify possible threats based on detecting trends in associations among the entities indicated by the threat intelligence data.
A solid form comprising the enantiomerically pure compound of formula: which has an X-ray powder diffraction pattern comprising its characteristic peaks at 7.5, 11.3, 16.4, 17.8 and 26.4 degrees 2θ ± 0.2 degrees 2θ measured using Cu Kα radiation at 1,54 Å; and which has a differential scanning calorimetry plot comprising an endothermic event with an onset temperature of about 138 °C while heating a sample at a rate of about 10°C/min. which has an X-ray powder diffraction pattern comprising its characteristic peaks at 7.5, 11.3, 16.4, 17.8 and 26.4 degrees 2θ ± 0.2 degrees 2θ measured using Cu Kα radiation at 1,54 Å; and which has a differential scanning calorimetry plot comprising an endothermic event with an onset temperature of about 138 °C while heating a sample at a rate of about 10°C/min.
A method for operating virtual-reality goggles in a vehicle, wherein a virtual environment described by preset image data is displayed by means of the virtual-reality goggles, comprising the following steps for a control device of the virtual-reality goggles: - receiving motion data describing a vehicle motion of the vehicle, captured by means of a capturing device of the vehicle; - dividing the image data describing the virtual environment into a background image dataset, which characterizes a background of the virtual environment, and at least one foreground image dataset, which characterizes at least one object positioned in a foreground of the virtual environment, by applying an image processing criterion to the image data describing the virtual environment; - evaluating the captured motion data for determining a lateral offset between a position of the at least one object positioned in the foreground of the virtual environment and the background; - ascertaining processed image data, which describes a processed virtual environment, in which the at least one object in the foreground is shifted in relation to the background according to the determined lateral offset; - displaying the processed virtual environment described by the processed image data on the virtual-reality goggles. - receiving motion data describing a vehicle motion of the vehicle, captured by means of a capturing device of the vehicle; - dividing the image data describing the virtual environment into a background image dataset, which characterizes a background of the virtual environment, and at least one foreground image dataset, which characterizes at least one object positioned in a foreground of the virtual environment, by applying an image processing criterion to the image data describing the virtual environment; - evaluating the captured motion data for determining a lateral offset between a position of the at least one object positioned in the foreground of the virtual environment and the background; - ascertaining processed image data, which describes a processed virtual environment, in which the at least one object in the foreground is shifted in relation to the background according to the determined lateral offset; - displaying the processed virtual environment described by the processed image data on the virtual-reality goggles.