mhurhangee/ep-ind-claims huggingface dataset:
A cannula assembly for use within a disposable infusion device, comprising: a cannula carrier configured to be received within a body cavity of the disposable infusion device; a cannula extending from the cannula carrier for being beneath the patient's skin, wherein the cannula carrier includes a port aligned with the cannula that facilitates deployment of the cannula assembly within the disposable infusion device; and a port cover that blocks the port, characterized in that the port cover is configured to preclude direct access by an external syringe needle to the cannula through the port after deployment. a cannula carrier configured to be received within a body cavity of the disposable infusion device; a cannula extending from the cannula carrier for being beneath the patient's skin, wherein the cannula carrier includes a port aligned with the cannula that facilitates deployment of the cannula assembly within the disposable infusion device; and a port cover that blocks the port, characterized in that the port cover is configured to preclude direct access by an external syringe needle to the cannula through the port after deployment.
A computer-implemented method of identifying objects of a transparent or translucent specimen container containing a biological liquid, comprising: capturing one or more images of the specimen container, the one or more images including one or more objects of the specimen container, the capturing generating pixel data for a plurality of pixels; identifying in said one or more images one or more selected objects from the one or more objects using one or more neural networks, wherein identifying one or more selected objects is performed, at least in part, by at least one of a segmentation neural network and a classification network executed on a computer; generating a class activation map (540, 568A, 568B) and overlaying the class activation map over the image of the specimen container; and displaying to a user, on a display, an image of the specimen container (404A, 404B, 504A, 504B) overlaid with the class activation map such as to highlight to said user one or more locations (540, 506SP, 560, 568A, 568B) of pixels that were used by the one or more neural networks to identify the one or more selected objects, in order to enable said user to visually ascertain whether the neural networks analyzed a correct portion of said at least one image of the specimen container when identifying the one or more selected objects. capturing one or more images of the specimen container, the one or more images including one or more objects of the specimen container, the capturing generating pixel data for a plurality of pixels; identifying in said one or more images one or more selected objects from the one or more objects using one or more neural networks, wherein identifying one or more selected objects is performed, at least in part, by at least one of a segmentation neural network and a classification network executed on a computer; generating a class activation map (540, 568A, 568B) and overlaying the class activation map over the image of the specimen container; and displaying to a user, on a display, an image of the specimen container (404A, 404B, 504A, 504B) overlaid with the class activation map such as to highlight to said user one or more locations (540, 506SP, 560, 568A, 568B) of pixels that were used by the one or more neural networks to identify the one or more selected objects, in order to enable said user to visually ascertain whether the neural networks analyzed a correct portion of said at least one image of the specimen container when identifying the one or more selected objects.
A method for reporting a channel quality indicator, CQI, performed by a user equipment, UE, comprising the steps of: a) obtaining a total number M of CQI report sub-bands in a system and a number N of CQI report sub-bands needed to be reported; b) measuring channel qualities of the entire sub-bands in the system and determining N CQI report sub-bands needed to be reported and the corresponding CQI value; c) finding out a L-bit long sequence, which corresponds to the combination of sub-bands that needs to be reported, according to the corresponding relationship between the L-bit long sequence and combinations formed by selecting N report sub-bands from M ones, wherein the length of the sequence is: L = ⌈ log 2 C M N ⌉, and d) sending the L-bit long sequence and the CQI value corresponding to each of the sub-bands needed to be reported to a base station, wherein sending the CQI value comprises indicating an index of the CQI report sub-band bearing a maximum CQI value and the maximum CQI value and indicating differential values between the maximum CQI value and the CQI value in other CQI report sub-bands. a) obtaining a total number M of CQI report sub-bands in a system and a number N of CQI report sub-bands needed to be reported; b) measuring channel qualities of the entire sub-bands in the system and determining N CQI report sub-bands needed to be reported and the corresponding CQI value; c) finding out a L-bit long sequence, which corresponds to the combination of sub-bands that needs to be reported, according to the corresponding relationship between the L-bit long sequence and combinations formed by selecting N report sub-bands from M ones, wherein the length of the sequence is: L = ⌈ log 2 C M N ⌉, and d) sending the L-bit long sequence and the CQI value corresponding to each of the sub-bands needed to be reported to a base station,
A generator system comprising: a power bus; a generator coupled to the power bus; a generator sensor configured to collect generator sensor data indicative of an output of the generator; an external sensor configured to collect external sensor data associated with the generator system; a controller configured to communicate with the generator sensor and the external sensor; characterized in that the controller is configured to detect a first load event from the generator sensor data, analyze a subset of the external sensor data from a time window preceding the first load event, and determine a load event characteristic associated with the subset of external sensor data preceding the first load event, and that the controller is configured to calculate a certainty value for the load event characteristic and provide a generator command based on the load event characteristic and the certainty value. a power bus; a generator coupled to the power bus; a generator sensor configured to collect generator sensor data indicative of an output of the generator; an external sensor configured to collect external sensor data associated with the generator system; a controller configured to communicate with the generator sensor and the external sensor; characterized in that the controller is configured to detect a first load event from the generator sensor data, analyze a subset of the external sensor data from a time window preceding the first load event, and determine a load event characteristic associated with the subset of external sensor data preceding the first load event, and that the controller is configured to calculate a certainty value for the load event characteristic and provide a generator command based on the load event characteristic and the certainty value.
A mobile robot, comprising (a) at least one memory component comprising at least stored map data; (b) at least two cameras (10, 20, 30, 40, 50, 60, 70, 80, 90) adapted to take visual images; (c) at least one processing component adapted to at least extract straight lines from the visual images taken by the at least two cameras (10, 20, 30, 40, 50, 60, 70, 80, 90) by applying an edge detection algorithm followed by a line extractor algorithm and compare them to the stored map data to at least localise the robot; (d) wherein the robot is adapted to move on the ground in unstructured areas; wherein the processing component is adapted to localise the robot by executing an iterative probabilistic algorithm estimating robot pose. (a) at least one memory component comprising at least stored map data; (b) at least two cameras (10, 20, 30, 40, 50, 60, 70, 80, 90) adapted to take visual images; (c) at least one processing component adapted to at least extract straight lines from the visual images taken by the at least two cameras (10, 20, 30, 40, 50, 60, 70, 80, 90) by applying an edge detection algorithm followed by a line extractor algorithm and compare them to the stored map data to at least localise the robot; (d) wherein the robot is adapted to move on the ground in unstructured areas;
Ballast levelling machine having a machine frame which can be moved on rail undercarriages and to which are assigned ballasting and levelling devices which are adjustable relative to the machine frame, namely a ballast sweeper, an inclined conveyor belt, a ballast silo, a central plough and at least one flank plough, for ballasting and levelling a track (2, 3, 33), and a control unit, wherein the ballasting and levelling devices comprise ballast shields, ballast trousers, plough blades and a sweeping brush, characterised in that the ballast levelling machine is equipped with an inclinometer for measuring the actual superelevation (u) of the track (2, 3, 33), in that the control unit can store target ballast cross-sections (Fig. 2, Fig. 3) and the course of the target superelevation (u) of the track as a function of the track kilometre, in that the ballast plates, ballast trousers, plough blades and the sweeper brush are provided with drives, wherein sensors (25, 26, 27, 28) are provided to detect their control movements, in that an odometer is provided to detect the position of the ballast levelling machine in the track, and in that depending on the target ballast cross-section of the longitudinal position in the track and therefore depending on the actual superelevation and the target superelevation (u) the control unit can control the drives and thus adjust the ballast plates, ballast trousers, plough plates and the sweeper brush height in such a way that a ballast cross-section defined by an operator results.
A method performed by a base station for wireless communication with a user equipment, UE, the method comprising: obtaining an uplink/downlink configuration of a neighboring base station; determining specific sets of time/frequency resources, which are not expected to experience user equipment to user equipment interference based on the obtained uplink/downlink configuration of the neighboring base station; restricting measurements to the specific sets of time/frequency resources for the user equipment, wherein the user equipment operates in idle mode or performs inter-frequency measurements, and wherein the measurements are measurements of user equipment to user equipment interference; and signaling, to the user equipment information indicating measurement restrictions to the specific sets of time/frequency resources. obtaining an uplink/downlink configuration of a neighboring base station; determining specific sets of time/frequency resources, which are not expected to experience user equipment to user equipment interference based on the obtained uplink/downlink configuration of the neighboring base station; restricting measurements to the specific sets of time/frequency resources for the user equipment, wherein the user equipment operates in idle mode or performs inter-frequency measurements, and wherein the measurements are measurements of user equipment to user equipment interference; and signaling, to the user equipment information indicating measurement restrictions to the specific sets of time/frequency resources.
An automated method of monitoring a state of an analyzer including a mass spectrometer with an electrospray ionization source coupled to a liquid chromatography stream, the method comprising: monitoring an electrospray ionization current of the ESI source; and characterized by: identifying a condition of multiple conditions of the analyzer based on the monitored ionization current of the ESI source, wherein one of the conditions is a presence of a dead volume in a liquid chromatography stream of the analyzer downstream of an LC column (9a; 9b) of the LC stream. monitoring an electrospray ionization current of the ESI source; and characterized by: identifying a condition of multiple conditions of the analyzer based on the monitored ionization current of the ESI source, wherein one of the conditions is a presence of a dead volume in a liquid chromatography stream of the analyzer downstream of an LC column (9a; 9b) of the LC stream. identifying a condition of multiple conditions of the analyzer based on the monitored ionization current of the ESI source, wherein one of the conditions is a presence of a dead volume in a liquid chromatography stream of the analyzer downstream of an LC column (9a; 9b) of the LC stream.
An automatic analyzer comprising: a plurality of sample containers (25, 412) each containing a sample; a plurality of reagent containers each containing a reagent; a plurality of reaction Cells into which the samples and the reagents are to be injected; a sample dispensing mechanism comprising a sample dispensing nozzle (27, 410) and dispensing the samples in the sample containers into the reaction Cells; a reagent dispensing mechanism comprising a reagent dispensing nozzle and dispensing the reagents in the reagent containers into the reaction Cells; and electrostatic capacitance measuring means for measuring electrostatic capacitance between the sample dispensing nozzle and the reaction Cell, characterised in that the sample dispensing nozzle has a nozzle main body (101, 111) made of metal, and a silicon oxide layer (112, 414) on an outer surface of the nozzle main body, and a silicon derivative having polyethylene glycol, represented by the following general formula: Si-R 1 -(OCH 2 CH 2) n -O-R 2 (n is a positive integer of 2 or more, R 1 is a hydrocarbon group, and R 2 is H or CH 3) is chemisorbed on the silicon oxide layer, and the electrostatic capacitance measuring means measures the electrostatic capacitance via the silicon oxide layer and the silicon derivative. a plurality of sample containers (25, 412) each containing a sample; a plurality of reagent containers each containing a reagent; a plurality of reaction Cells into which the samples and the reagents are to be injected; a sample dispensing mechanism comprising a sample dispensing nozzle (27, 410) and dispensing the samples in the sample containers into the reaction Cells; a reagent dispensing mechanism comprising a reagent dispensing nozzle and dispensing the reagents in the reagent containers into the reaction Cells; and electrostatic capacitance measuring means for measuring electrostatic capacitance between the sample dispensing nozzle and the reaction Cell, characterised in that the sample dispensing nozzle has a nozzle main body (101, 111) made of metal, and a silicon oxide layer (112, 414) on an outer surface of the nozzle main body, and a silicon derivative having polyethylene glycol, represented by the following general formula: Si-R 1 -(OCH 2 CH 2) n -O-R 2 (n is a positive integer of 2 or more, R 1 is a hydrocarbon group, and R 2 is H or CH 3) is chemisorbed on the silicon oxide layer, and the electrostatic capacitance measuring means measures the electrostatic capacitance via the silicon oxide layer and the silicon derivative. Si-R 1 -(OCH 2 CH 2) n -O-R 2 (n is a positive integer of 2 or more, R 1 is a hydrocarbon group, and R 2 is H or CH 3) is chemisorbed on the silicon oxide layer, and the electrostatic capacitance measuring means measures the electrostatic capacitance via the silicon oxide layer and the silicon derivative.
An illumination system comprising a radiation source capable of emitting primary radiation and a luminescent material comprising a blend of a first phosphor capable of converting the primary radiation into a broad-band emission in the yellow range of the electromagnetic spectrum and a second phosphor capable of converting the primary radiation into a multiple narrow-band emission in the red and green range of the electromagnetic spectrum, wherein the first broad-band phosphor is selected from the Ce -activated phosphors comprising a garnet host lattice, and wherein the second multiple narrow-band phosphor is selected from the phosphors comprising an activator selected from the group of Pr and Pr together with a second activator ion.
A printer, comprising: a thermal head; a connecting part capable of being connected to and disconnected from the thermal head; wherein connecting of the connecting part to the thermal head establishes a connection of the thermal head to a control circuit; and a head cover configured to cover the thermal head, the head cover configured to move between a first position and a second position different from the first position to connect and disconnect the thermal head and the connecting part; wherein the connecting part and the head cover are configured to move relative to one another while the connecting part is connected to and disconnected from the thermal head; the printer further comprising: a housing; and a printer cover that is rotatable relative to the housing, wherein the connecting part is configured to move relative to the printer cover, and characterized in that moving of the head cover relative to the printer cover connects or disconnects the thermal head and the connecting part, and wherein moving of the head cover from the second position to the first position moves the connecting part toward the thermal head, and moving of the head cover from the first position to the second position moves the connecting part away from the thermal head. a thermal head; a connecting part capable of being connected to and disconnected from the thermal head; wherein connecting of the connecting part to the thermal head establishes a connection of the thermal head to a control circuit; and a head cover configured to cover the thermal head, the head cover configured to move between a first position and a second position different from the first position to connect and disconnect the thermal head and the connecting part; wherein the connecting part and the head cover are configured to move relative to one another while the connecting part is connected to and disconnected from the thermal head; the printer further comprising: a housing; and a printer cover that is rotatable relative to the housing, wherein the connecting part is configured to move relative to the printer cover, and characterized in that moving of the head cover relative to the printer cover connects or disconnects the thermal head and the connecting part, and wherein moving of the head cover from the second position to the first position moves the connecting part toward the thermal head, and moving of the head cover from the first position to the second position moves the connecting part away from the thermal head. a housing; and a printer cover that is rotatable relative to the housing, wherein the connecting part is configured to move relative to the printer cover, and characterized in that moving of the head cover relative to the printer cover connects or disconnects the thermal head and the connecting part, and wherein moving of the head cover from the second position to the first position moves the connecting part toward the thermal head, and moving of the head cover from the first position to the second position moves the connecting part away from the thermal head.
A method for identifying a colloidal fingerprint of a material, comprising: analyzing a plurality of samples using holographic light microscopy; determining using holographic light microscopy a joint distribution of particle radius ( a p) and refractive index ( n p); identifying at least one peak associated with a colloidal particle from the joint distribution; comparing the identified at least one peak with a colloidal fingerprint library. analyzing a plurality of samples using holographic light microscopy; determining using holographic light microscopy a joint distribution of particle radius ( a p) and refractive index ( n p); identifying at least one peak associated with a colloidal particle from the joint distribution; comparing the identified at least one peak with a colloidal fingerprint library.
Agitator for the mixing and/or homogenisation of fluid media, comprising a container and a rotary shaft, which can be driven by an electric motor, and by means of which at least two agitating elements, connected to the rotary shaft such that they cannot rotate relative to the latter, are moved on a circular path, wherein the agitating elements, inserted in the vessel in a fluid medium, are flowed around by the medium by virtue of their movement, wherein each agitating element is designed as a round body similar to a sphere, and has a closed outer surface, characterised in that, each agitating element is connected via a radially extending support arm to a hub for connection to the drivable rotary shaft, wherein the radially extending support arms are arranged in a common radial plane.
A laundry detergent powder comprising: (i) from 20 to 80wt% of a first particle comprising less than 55wt% sulphate, anionic detersive surfactant, and having a bulk density of from 300g/l to 1100g/l: and (ii) from 20 to 80wt% of a second particle comprising at least 55wt% sulphate, and from 0wt% to 15wt% anionic detersive surfactant, and having a bulk density of from 350g/l to 600g/l. (i) from 20 to 80wt% of a first particle comprising less than 55wt% sulphate, anionic detersive surfactant, and having a bulk density of from 300g/l to 1100g/l: and (ii) from 20 to 80wt% of a second particle comprising at least 55wt% sulphate, and from 0wt% to 15wt% anionic detersive surfactant, and having a bulk density of from 350g/l to 600g/l.
A feed system for feeding a rocket engine with at least one liquid propellant, the system comprising at least one feed circuit and being characterized in that it further comprises at least one device for varying a volume of gas in the circuit, which device is suitable for causing the volume of gas in the circuit to vary while said rocket engine is in operation with at least one hydraulic accumulator with a variable liquid level having a gas feed point, a connection to a duct of said propellant feed circuit, the system being characterized in that said hydraulic accumulator comprises, between said gas feed point and said connection, a plurality of dip tubes (12, 13), each including a respective valve (14, 16) and connecting said duct to a respective distinct liquid level.
Thermal emissivity coating composition comprising: a) an emissivity agent in an amount from 30 to 65% by weight with respect to the total weight of the thermal emissivity coating composition; b) a filler selected from the group consisting of oxides of aluminum, silicon, magnesium, calcium, boron and mixtures of two or more thereof, in an amount from 10 to 35 wt%, preferably 15 to 35 wt% with respect to the total weight of the thermal emissivity coating composition; and c) a binder in an amount from 12 to 52 wt% with respect to the total weight of the thermal emissivity coating composition; wherein the emissivity agent comprises cobalt oxide in an amount from 10 to 25 wt%, preferably 12 to 25 wt% with respect to the total weight of the thermal emissivity coating composition and further comprises chromium oxide and titanium oxide. a) an emissivity agent in an amount from 30 to 65% by weight with respect to the total weight of the thermal emissivity coating composition; b) a filler selected from the group consisting of oxides of aluminum, silicon, magnesium, calcium, boron and mixtures of two or more thereof, in an amount from 10 to 35 wt%, preferably 15 to 35 wt% with respect to the total weight of the thermal emissivity coating composition; and c) a binder in an amount from 12 to 52 wt% with respect to the total weight of the thermal emissivity coating composition;