mhurhangee/ep-ind-claims huggingface dataset:
A controller for an unloading system, the unloading system comprising an unloading apparatus and a container that are movable relative to each other, wherein the unloading apparatus is configured to direct material (3,9) to the container, and wherein the controller is configured to: determine a build-up speed of the material (3, 9) in the container; and set an attribute of the unloading apparatus and/or container in order to direct the material (3, 9) from the unloading apparatus to the container, characterized in that the controller further is configured to: in accordance with the determined build-up speed, determine a rate of change to be applied when setting said attribute of the unloading apparatus and/or container; and set said attribute of the unloading apparatus and/or container in accordance with the determined rate of change. determine a build-up speed of the material (3, 9) in the container; and set an attribute of the unloading apparatus and/or container in order to direct the material (3, 9) from the unloading apparatus to the container, characterized in that the controller further is configured to: in accordance with the determined build-up speed, determine a rate of change to be applied when setting said attribute of the unloading apparatus and/or container; and set said attribute of the unloading apparatus and/or container in accordance with the determined rate of change. in accordance with the determined build-up speed, determine a rate of change to be applied when setting said attribute of the unloading apparatus and/or container; and set said attribute of the unloading apparatus and/or container in accordance with the determined rate of change.
A system comprising an Automatic Gain Control, AGC, control unit for Noise change output signalling and an Adjustment Unit, AU, for adjustment of an AGC output signal (S 9,S 91,S 92,S 93), wherein: the AGC control unit is adapted to initiate a changed gain setting on a receiver when the level of an AGC control unit input signal (S 61) received by the unit has been below a first threshold level or above a second threshold level during a detection interval; the AGC control unit is adapted to produce a Noise change output signal (S 11); the AU is adapted to receive the Noise change output signal (S 11); the AU is adapted to adjust the AGC output signal (S 9,S 91,S 92,S 93) on the basis of the received Noise change output signal (S 11), so that an adjusted AGC output signal (S 10,S 101,S 102,S 103) is produced; the AU is adapted to adjust the gain of the AGC output signal (S 9,S 91,S 92,S 93) so that the adjusted AGC output signal (S 10,S 101,S 102,S 103) is produced; and the AU is adapted to adjust the gain to minus twice the noise rise in the AGC control unit input signal (S 61), caused by a changed attenuation of a communication input signal. the AGC control unit is adapted to initiate a changed gain setting on a receiver when the level of an AGC control unit input signal (S 61) received by the unit has been below a first threshold level or above a second threshold level during a detection interval; the AGC control unit is adapted to produce a Noise change output signal (S 11); the AU is adapted to receive the Noise change output signal (S 11); the AU is adapted to adjust the AGC output signal (S 9,S 91,S 92,S 93) on the basis of the received Noise change output signal (S 11), so that an adjusted AGC output signal (S 10,S 101,S 102,S 103) is produced; the AU is adapted to adjust the gain of the AGC output signal (S 9,S 91,S 92,S 93) so that the adjusted AGC output signal (S 10,S 101,S 102,S 103) is produced; and the AU is adapted to adjust the gain to minus twice the noise rise in the AGC control unit input signal (S 61), caused by a changed attenuation of a communication input signal.
A method performed by a base station, comprising: constructing at the base station a plurality of reference signal patterns comprising a multi-functional reference signal pattern for at least one of uplink or downlink, wherein the multi-functional reference signal pattern includes two or more different types of reference signal patterns, with different functionalities, including same or different numerologies, the multi-functional reference signal pattern defining user-specific resources for a user equipment or a group of user equipment, wherein the two or more different types of reference signal patterns comprise non-overlapping resource elements, and wherein the two or more different types of reference signal patterns are constructed for a specific user or group of users using dynamic dedicated signalling; and sending, from the base station to a user equipment, a reference signal, according to the multi-functional reference signal pattern, for enabling the user equipment to determine a functionality, wherein the functionality comprises at least one of downlink beam management, uplink beam management, cell specific identification acquisition, and/or uplink cell specific identification acquisition. constructing at the base station a plurality of reference signal patterns comprising a multi-functional reference signal pattern for at least one of uplink or downlink, wherein the multi-functional reference signal pattern includes two or more different types of reference signal patterns, with different functionalities, including same or different numerologies, the multi-functional reference signal pattern defining user-specific resources for a user equipment or a group of user equipment, wherein the two or more different types of reference signal patterns comprise non-overlapping resource elements, and wherein the two or more different types of reference signal patterns are constructed for a specific user or group of users using dynamic dedicated signalling; and sending, from the base station to a user equipment, a reference signal, according to the multi-functional reference signal pattern, for enabling the user equipment to determine a functionality, wherein the functionality comprises at least one of downlink beam management, uplink beam management, cell specific identification acquisition, and/or uplink cell specific identification acquisition.
An optically-activated system comprising a complex of at least one fluorescent compound and at least one substrate for the at least one fluorescent compound wherein the at least one fluorescent compound is affixed to the at least one substrate for the at least one fluorescent compound by covalent bonding, hydrogen bonding, Van der Waals forces, or a combination thereof, wherein the at least one fluorescent compound in the complex is activated by absorption of light in the UV to visible region of the electromagnetic spectrum and re-emits visible light of longer wavelength, and wherein the at least one fluorescent compound is riboflavin, the at least one substrate for the at least one fluorescent compound comprises hyaluronic acid and the complex is in the form of a gel.
A method for synchronizing the discovery of wireless services or applications in a wireless network using a recurring time interval T in which wireless devices within the wireless network can be in one of a predetermined plurality of discrete time states making up the interval T, the method comprising: (i) selecting a time state, t sel, from amongst the plurality of time states by one of the wireless devices supporting a given service or application; (ii) performing discovery, by the one of the wireless devices, once during the recurring time interval T at the selected time state; and repeating the above steps (i), (ii) at each wireless device at the subsequent time intervals T until time nT, when all of the predetermined plurality of time states have been selected exactly once by each of the wireless devices, wherein a selected time state is not re-selected until all other ones of the predetermined plurality of time states have been selected. (i) selecting a time state, t sel, from amongst the plurality of time states by one of the wireless devices supporting a given service or application; (ii) performing discovery, by the one of the wireless devices, once during the recurring time interval T at the selected time state; and repeating the above steps (i), (ii) at each wireless device at the subsequent time intervals T until time nT, when all of the predetermined plurality of time states have been selected exactly once by each of the wireless devices, wherein a selected time state is not re-selected until all other ones of the predetermined plurality of time states have been selected.
A composition for use in sugar refining comprising a combination of (i) at least one particulate sulfur reagent comprising of at least one sulfur atom and at least three oxygen atoms in the chemical formula; and (ii) one or both of (a) a combination of a particulate carbonaceous reagent and a polymer decolorant; or (b) a particulate phosphorous reagent containing at least one phosphorous atom and at least three oxygen atoms in the chemical formula; and optionally containing, at least one or more particulate solids selected from the group consisting of a silica reagent, a particulate phosphorous reagent containing at least one phosphorous atom and at least three oxygen atoms in the chemical formula, (c) a particulate carbonaceous reagent, a particulate aluminum reagent containing at least one aluminum atom and at least three oxygen atoms in the chemical formula, a particulate filter aid, a polymer decolorant, and a particulate ammonium compound having at least one ammonium group in the chemical formula. (i) at least one particulate sulfur reagent comprising of at least one sulfur atom and at least three oxygen atoms in the chemical formula; and (ii) one or both of (a) a combination of a particulate carbonaceous reagent and a polymer decolorant; or (b) a particulate phosphorous reagent containing at least one phosphorous atom and at least three oxygen atoms in the chemical formula; and optionally containing, at least one or more particulate solids selected from the group consisting of a silica reagent, a particulate phosphorous reagent containing at least one phosphorous atom and at least three oxygen atoms in the chemical formula, (c) a particulate carbonaceous reagent, a particulate aluminum reagent containing at least one aluminum atom and at least three oxygen atoms in the chemical formula, a particulate filter aid, a polymer decolorant, and a particulate ammonium compound having at least one ammonium group in the chemical formula. (a) a combination of a particulate carbonaceous reagent and a polymer decolorant; or (b) a particulate phosphorous reagent containing at least one phosphorous atom and at least three oxygen atoms in the chemical formula; and optionally containing, at least one or more particulate solids selected from the group consisting of a silica reagent, a particulate phosphorous reagent containing at least one phosphorous atom and at least three oxygen atoms in the chemical formula, (c) a particulate carbonaceous reagent, a particulate aluminum reagent containing at least one aluminum atom and at least three oxygen atoms in the chemical formula, a particulate filter aid, a polymer decolorant, and a particulate ammonium compound having at least one ammonium group in the chemical formula.
An insulin analog dimer that exhibits partial agonist and partial antagonist activity at the insulin receptor, said dimer comprising a first insulin polypeptide and a second insulin polypeptide, wherein said first and second insulin polypeptides are both single chain insulin analogs each comprising an A chain, a B chain and a linking moiety, wherein a first end of said linking moiety is covalently bound to the carboxy terminus of the B chain and a second end of said linking moiety is covalently bound to the amino terminus of the A chain for each of said first and second insulin polypeptides, wherein said first insulin polypeptide comprises a first linking moiety, a first A chain and a first B chain and said second insulin polypeptides comprises a second linking moiety, a second A chain and a second B chain; wherein said first and second A chain sequence comprises a sequence independently selected from the group consisting of GIVEQCCTSICSLYQLENYCN (SEQ ID NO: 1) and GIVDECCFRSCDLRRLENYCN (SEQ ID NO: 11); a said first and second B chain sequence comprises a sequence independently selected from the group consisting of FVNQHLCGSHLVEALYLVCGERGFF (SEQ ID NO: 23) and GPEHLCGAELVDALYLVCGDRGFY (SEQ ID NO: 14); and said first and second insulin polypeptides are linked to one another via a disulfide bond between an amino acid side chain of said first and second linking moiety wherein, said first and second linking moiety each comprises the sequence GYGSSSRX 68 APQT (SEQ ID NO: 9), wherein X 68 is an amino acid comprising a side chain of the structure: said first and second A chain sequence comprises a sequence independently selected from the group consisting of GIVEQCCTSICSLYQLENYCN (SEQ ID NO: 1) and GIVDECCFRSCDLRRLENYCN (SEQ ID NO: 11); a said first and second B chain sequence comprises a sequence independently selected from the group consisting of FVNQHLCGSHLVEALYLVCGERGFF (SEQ ID NO: 23) and GPEHLCGAELVDALYLVCGDRGFY (SEQ ID NO: 14); and said first and second insulin polypeptides are linked to one another via a disulfide bond between an amino acid side chain of said first and second linking moiety wherein, said first and second linking moiety each comprises the sequence GYGSSSRX 68 APQT (SEQ ID NO: 9), wherein X 68 is an amino acid comprising a side chain of the structure:
A system for facilitating display of cardiac information based on sensed electrical signals, the system comprising: a processing unit configured to: receive a set of electrical signals; receive an indication of a measurement location corresponding to each electrical signal of the set of electrical signals; generate an activation waveform corresponding to the set of electrical signals, wherein the activation waveform comprises a plurality of activation waveform values based on each electrical signal of the set of electrical signals, each activation waveform value representing a probability that a deviation of the electrical signal from a baseline value represents an activation of tissue at the corresponding measurement location; generate, based on the activation waveform, a representation of a cardiac electrical signal feature; and facilitate presentation, on a display device, of a cardiac map and the representation of the cardiac electrical signal feature, wherein the cardiac map is an activation map and the cardiac electrical signal feature is a representation of a time duration since an activation was detected at a measurement location of the cardiac map. receive a set of electrical signals; receive an indication of a measurement location corresponding to each electrical signal of the set of electrical signals; generate an activation waveform corresponding to the set of electrical signals, wherein the activation waveform comprises a plurality of activation waveform values based on each electrical signal of the set of electrical signals, each activation waveform value representing a probability that a deviation of the electrical signal from a baseline value represents an activation of tissue at the corresponding measurement location; generate, based on the activation waveform, a representation of a cardiac electrical signal feature; and facilitate presentation, on a display device, of a cardiac map and the representation of the cardiac electrical signal feature, wherein the cardiac map is an activation map and the cardiac electrical signal feature is a representation of a time duration since an activation was detected at a measurement location of the cardiac map.
A lift system cable management system, comprising: a plurality of wires, one end of at least one of the wires connectable to an input source and the opposite end of the at least one of the wires connectable to an output object movable with an article; a wire containment cable for containing the plurality of wires; and a tray disposed along a length of an article to be raised and lowered, the tray having dimensions for containing the wire containment cable; wherein the wire containment cable is movable between a first, substantially vertical position when the article is fully lowered and a second, substantially horizontal position in the tray when the article is fully raised. a plurality of wires, one end of at least one of the wires connectable to an input source and the opposite end of the at least one of the wires connectable to an output object movable with an article; a wire containment cable for containing the plurality of wires; and a tray disposed along a length of an article to be raised and lowered, the tray having dimensions for containing the wire containment cable;
Device for forming having - at least one spindle (31, 41) which can be driven in a rotating manner by a rotary drive (32, 42), - a clamping means (34, 44) which is arranged on the spindle (31, 41) and designed to receive and clamp a workpiece on the spindle (31, 41), and - at least one forming roller which can be fed axially and/or radially relative to the workpiece in order to carry out a spinning or flow-forming process, - wherein the spindle (31, 41) and the clamping means (34, 44) are combined to a unit which is adjustable transversely to the axis of rotation, and - the unit is adjustable between a forming position, in which the spinning or flow-forming process is carried out, and a set-up position for setting up, characterized in that a first changing unit with a first spindle and a first clamping means and at least one second changing unit with a second spindle and a second clamping means are provided and in that the first changing unit and the at least one second changing unit are alternately adjustable between the forming position and the set-up position. - at least one spindle (31, 41) which can be driven in a rotating manner by a rotary drive (32, 42), - a clamping means (34, 44) which is arranged on the spindle (31, 41) and designed to receive and clamp a workpiece on the spindle (31, 41), and - at least one forming roller which can be fed axially and/or radially relative to the workpiece in order to carry out a spinning or flow-forming process, - wherein the spindle (31, 41) and the clamping means (34, 44) are combined to a unit which is adjustable transversely to the axis of rotation, and - the unit is adjustable between a forming position, in which the spinning or flow-forming process is carried out, and a set-up position for setting up,
An oil-in-water emulsified composition comprising the following (a)-(j). (a) Octocrylene (b) Bis ethylhexyloxyphenol methoxyphenyl triazine (c) Hexyl diethylaminohydroxybenzoylbenzoate (d) 4-tert-butyl-4'-methoxybenzoylmethane (e) Water soluble polymer, wherein the blend ratio of the water soluble polymer is 0.01-5 mass% of the total amount of the oil-in-water emulsified composition, wherein the water soluble polymer is selected from the group consisting of a polysaccharide, a cellulosic polymer, a vinyl polymer and an acrylic polymer, (f) Water-swelling clay mineral, wherein the blend ratio of the water-swelling clay mineral is 0.01-4 mass% of the total amount of the oil-in-water emulsified composition, wherein the water-swelling clay mineral is a layered silicate mineral that belongs to the smectite group, (g) Oil component having IOB of 0.05 or more (h) Fatty acid, wherein the fatty acid is selected from the group consisting of lauric acid, myristic acid, palmitic acid, stearic acid, behenic acid, oleic acid, undecylenic acid, tall oil, isostearic acid, linolic acid, and linoleic acid (i) Surfactant (j) Water, wherein the total blend ratio of (a) Octocrylene, (b) Bis ethylhexyloxyphenol methoxyphenyl triazine, (c) Hexyl diethylaminohydroxybenzoylbenzoate, and (d) 4-tert-butyl-4'-methoxybenzoylmethane is 1-40 mass% of the total amount of the oil-in-water emulsified composition. (a) Octocrylene (b) Bis ethylhexyloxyphenol methoxyphenyl triazine (c) Hexyl diethylaminohydroxybenzoylbenzoate (d) 4-tert-butyl-4'-methoxybenzoylmethane (e) Water soluble polymer, wherein the blend ratio of the water soluble polymer is 0.01-5 mass% of the total amount of the oil-in-water emulsified composition, wherein the water soluble polymer is selected from the group consisting of a polysaccharide, a cellulosic polymer, a vinyl polymer and an acrylic polymer, (f) Water-swelling clay mineral, wherein the blend ratio of the water-swelling clay mineral is 0.01-4 mass% of the total amount of the oil-in-water emulsified composition, wherein the water-swelling clay mineral is a layered silicate mineral that belongs to the smectite group, (g) Oil component having IOB of 0.05 or more (h) Fatty acid, wherein the fatty acid is selected from the group consisting of lauric acid, myristic acid, palmitic acid, stearic acid, behenic acid, oleic acid, undecylenic acid, tall oil, isostearic acid, linolic acid, and linoleic acid (i) Surfactant (j) Water,
An apparatus for estimating a velocity of at least one scatterer in a medium, the apparatus comprising: - a generator for generating excitation signals, characterized in that the apparatus further comprises: - a curved array of virtual transducers (T 1 -T n) for transforming said excitation signals into Archimedean spiral waves and for: • emitting said Archimedean spiral waves in a plurality of predetermined directions of propagation defined by a set of insonification angles (α i), a curvature of said curved array of virtual transducers defining a reference center and a radius of curvature (r n), • and for receiving, from said at least one scatterer, scattered signals generated by scattering of said Archimedean spiral waves emitted from said curved array of virtual transducers, said curved array of virtual transducers being composed of a set of points defining a geometric shape chosen as a function of delay laws applied to a real array of transducers so that said points of the set emit a spiral wavefront, - a driving and processing unit (U c) for driving the generator and the curved array of virtual transducers, and for estimating the velocity of the at least one scatterer, wherein axial and lateral velocity components are estimated using a set of local wavefront orientations (α eq,i) of the Archimedean spiral waves as a function of the set of insonification angles (α i), the geometry of the curved array of virtual transducers (r n) and the distance (r) to the reference center, each local wavefront orientation satisfying the following formula: α eq, i = arcsin r n r sin α i. - a generator for generating excitation signals, - a curved array of virtual transducers (T 1 -T n) for transforming said excitation signals into Archimedean spiral waves and for: • emitting said Archimedean spiral waves in a plurality of predetermined directions of propagation defined by a set of insonification angles (α i), a curvature of said curved array of virtual transducers defining a reference center and a radius of curvature (r n), • and for receiving, from said at least one scatterer, scattered signals generated by scattering of said Archimedean spiral waves emitted from said curved array of virtual transducers, said curved array of virtual transducers being composed of a set of points defining a geometric shape chosen as a function of delay laws applied to a real array of transducers so that said points of the set emit a spiral wavefront, • emitting said Archimedean spiral waves in a plurality of predetermined directions of propagation defined by a set of insonification angles (α i), a curvature of said curved array of virtual transducers defining a reference center and a radius of curvature (r n), • and for receiving, from said at least one scatterer, scattered signals generated by scattering of said Archimedean spiral waves emitted from said curved array of virtual transducers, - a driving and processing unit (U c) for driving the generator and the curved array of virtual transducers, and for estimating the velocity of the at least one scatterer,