mhurhangee/ep-ind-claims huggingface dataset:
Method for synchronizing the playback of an audio file with an associated video file in a computer network comprising: an audio client player configured to playback the audio file, a video client player configured to playback the video file, and a server hosting a web application, the server comprising a data store; wherein the method comprises the steps of: periodically sending, by the video client player, a video playback position of the video file to the web application, storing, by the web application, the video playback position of the video file and a timestamp at reception of the video playback position in the data store, requesting, by the audio client player, a video playback position to the web application, receiving, by the audio client player, the last stored video playback position, the timestamp at reception of the last stored video playback position, and the current server timestamp from the web application, and computing, by the audio client player, an audio playback position with the last stored video playback position, the timestamp at reception of the last stored video playback position, and the current server timestamp; wherein the audio playback position is computed according to: audio playback position = last stored video playback position + k.(current server timestamp - timestamp at reception of the last stored video playback position), with k ≥ 0. an audio client player configured to playback the audio file, a video client player configured to playback the video file, and a server hosting a web application, the server comprising a data store; periodically sending, by the video client player, a video playback position of the video file to the web application, storing, by the web application, the video playback position of the video file and a timestamp at reception of the video playback position in the data store, requesting, by the audio client player, a video playback position to the web application, receiving, by the audio client player, the last stored video playback position, the timestamp at reception of the last stored video playback position, and the current server timestamp from the web application, and computing, by the audio client player, an audio playback position with the last stored video playback position, the timestamp at reception of the last stored video playback position, and the current server timestamp;
An apparatus for the multitrack slicing of food products, in particular a high-performance slicer, comprising a supply device which simultaneously supplies a plurality of products to be sliced disposed next to one another to a cutting plane in which a cutting blade moves, in particular in a rotating and/or revolving manner; and a device for transporting away for slices cut off from the products or for portions comprising a plurality of slices, said device for transporting away being arranged downstream of the cutting plane and in particular comprising a portioning unit, wherein the supply device and/or the device for transporting away comprises/comprise a plurality of tracks at least in the region of the cutting plane, the tracks being set and/or settable at different levels such that the drop height of the slices differs in the tracks in order to compensate track-specific placement errors.
A method in a node (110, 115), comprising: generating a frame structure comprising at least a first subframe (305, 405, 505), the first subframe comprising a first symbol (310A, 510A) and a second symbol (310B, 510B), each of the first and second symbols comprising a plurality of resource elements, wherein the first symbol carries control information (325, 425A, 425B, 525) and the second symbol carries a data transmission (330, 430A, 430B, 530), the first symbol being first in the first subframe in time domain, and the second symbol being adjacent to the first symbol; reserving one or more of the plurality of resource elements in the first symbol for reference signals (335A-G, 435A-G, 535A-G), wherein the reference signals comprise demodulation reference signals; modulating one or more of the reserved resource elements in the first symbol with reference symbols (335B-D, 435B-D, 535B-D) when the one or more reserved resource elements overlaps in frequency domain the data transmission carried in the second symbol; and transmitting the at least the first subframe to another node; wherein control information is carried in one or more reserved resource elements that are not modulated with reference symbols. generating a frame structure comprising at least a first subframe (305, 405, 505), the first subframe comprising a first symbol (310A, 510A) and a second symbol (310B, 510B), each of the first and second symbols comprising a plurality of resource elements, wherein the first symbol carries control information (325, 425A, 425B, 525) and the second symbol carries a data transmission (330, 430A, 430B, 530), the first symbol being first in the first subframe in time domain, and the second symbol being adjacent to the first symbol; reserving one or more of the plurality of resource elements in the first symbol for reference signals (335A-G, 435A-G, 535A-G), wherein the reference signals comprise demodulation reference signals; modulating one or more of the reserved resource elements in the first symbol with reference symbols (335B-D, 435B-D, 535B-D) when the one or more reserved resource elements overlaps in frequency domain the data transmission carried in the second symbol; and transmitting the at least the first subframe to another node; wherein control information is carried in one or more reserved resource elements that are not modulated with reference symbols.
A process of fabricating a one-dimensional path of aligned one by one particles on the surface of a substrate, wherein a) a dispersion of electrically conductive particles in an electrically weakly-conductive liquid is prepared, and wherein the value of the dielectric constant of the particles is at least twice that of the dielectric constant of the dispersion liquid, whereas the value of the electrical conductivity of the particles is at least one order of magnitude larger than that of the dispersion liquid; b) the prepared dispersion is supplied in a continuous manner to at least one electrically conductive microcapillary; c) the convex meniscus of the dispersion is formed and maintained at the outlet end of the microcapillary positioned above and/or below the surface of a substrate; d) alternating voltage is provided to the microcapillary, so that a one-dimensional structure of aligned one by one particles is formed between the dispersion meniscus and the surface of the substrate; and e) the microcapillary is moved relative to the substrate and/or the substrate relative to the microcapillary so that the particles of the formed one-dimensional structure of aligned one by one particles are deposited on the surface of the substrate and the one-dimensional structure of aligned one by one particles formed between the dispersion meniscus and the surface of the substrate is rebuilt simultaneously, so that a one-dimensional path of aligned one by one particles is fabricated on the surface of that substrate. a) a dispersion of electrically conductive particles in an electrically weakly-conductive liquid is prepared, and wherein the value of the dielectric constant of the particles is at least twice that of the dielectric constant of the dispersion liquid, whereas the value of the electrical conductivity of the particles is at least one order of magnitude larger than that of the dispersion liquid; b) the prepared dispersion is supplied in a continuous manner to at least one electrically conductive microcapillary; c) the convex meniscus of the dispersion is formed and maintained at the outlet end of the microcapillary positioned above and/or below the surface of a substrate; d) alternating voltage is provided to the microcapillary, so that a one-dimensional structure of aligned one by one particles is formed between the dispersion meniscus and the surface of the substrate; and e) the microcapillary is moved relative to the substrate and/or the substrate relative to the microcapillary so that the particles of the formed one-dimensional structure of aligned one by one particles are deposited on the surface of the substrate and the one-dimensional structure of aligned one by one particles formed between the dispersion meniscus and the surface of the substrate is rebuilt simultaneously, so that a one-dimensional path of aligned one by one particles is fabricated on the surface of that substrate.
A method comprising: controlling a radio receiver for a first, relatively short, period of time to detect radio transmissions from a device within a wireless short-range communications network that is not directly connected with the receiver in a predetermined frequency band, and based on the result of the detecting, determining whether to control the radio receiver for a subsequent second, relatively longer, period of time to receive data for establishing direct connection with the device from a subsequent radio transmission within the short-range communications network in the predetermined frequency band. controlling a radio receiver for a first, relatively short, period of time to detect radio transmissions from a device within a wireless short-range communications network that is not directly connected with the receiver in a predetermined frequency band, and based on the result of the detecting, determining whether to control the radio receiver for a subsequent second, relatively longer, period of time to receive data for establishing direct connection with the device from a subsequent radio transmission within the short-range communications network in the predetermined frequency band.
A capacitive micromachined ultrasonic transducer (31, 31A, 41, 90, 110) comprising a non-shorted transducer subelement (31a, 42, 51c, 91a, 300) consisting of non-shorted transducer cells (60c, 92a-1, 92a-2, 92a-3, 92a-4); a shorted transducer subelement (51a, 51b, 91b, 171) comprising a shorted transducer cell (60a, 60b, 92b-3, 170); and a signal wire (33, 45, 310) for receiving an input of a drive signal for driving the transducer subelements, wherein the shorted and non-shorted transducer cells comprise: a silicon substrate (71, 131, 145, 309); a bottom electrode (73,132,142, 306) placed on the silicon substrate (71, 131, 145, 309); an upper electrode (82, 136, 150, 301) placed opposite to the bottom electrode (73, 132, 142, 306) and separated therefrom by a prescribed air or vacuum gap (305, 141); a membrane (80, 134, 140, 303) for supporting said upper electrode and a membrane supporting part(79, 133) for supporting the membrane (80, 134, 140, 303), wherein the transducer cells are mutually connected in parallel, and the capacitive micromachined ultrasonic transducer (31, 31A, 41, 90, 110) further comprises a first electrode pad (43, 50, 120, 121, 122, 307) corresponding to either one of the transducer cells, or each of the plurality of transducer subelements constituted by a group of the transducer cells and which has an electrical continuity to the bottom electrode (73, 132, 142, 306), and a second electrode pad (47, 55, 77, 95, 124, 304) which is a ground electrode electrically connected to the upper electrode (82, 136, 150, 301), wherein the upper electrode (82, 136, 150, 301) and the bottom electrode (73, 132, 142, 306) of the non-shorted transducer cells are not in a state of short circuit; the upper electrode (82, 136, 150, 301) and the bottom electrode (73, 132, 142, 306) of the shorted transducer cell are in a state of short circuit; the signal wire has an electrical continuity only to the first electrode pad (43, 50, 120, 121, 122, 307) that is not in a state of short-circuit to the second electrode pad (47, 55, 77, 95, 124, 304); and the signal wire is electrically connected to the non-shorted transducer cell and it is not electrically connected to the shorted transducer cell. a silicon substrate (71, 131, 145, 309); a bottom electrode (73,132,142, 306) placed on the silicon substrate (71, 131, 145, 309); an upper electrode (82, 136, 150, 301) placed opposite to the bottom electrode (73, 132, 142, 306) and separated therefrom by a prescribed air or vacuum gap (305, 141); a membrane (80, 134, 140, 303) for supporting said upper electrode and a membrane supporting part(79, 133) for supporting the membrane (80, 134, 140, 303), wherein
A nanoparticle or nanoparticles' aggregate for use in prevention or treatment of a neurological disease selected from Parkinson's disease, Alzheimer's disease, epilepsy, obsessive compulsive disorder, autism spectrum disorder, depression disorder, dystonia, Tourette's syndrome, schizophrenia, stroke, aphasia, dementia, tinnitus, Huntington's disease, essential tremor, bipolar disorder, anxiety disorder, addiction disorder and consciousness vegetative state, in a subject without exposure of the nanoparticle or nanoparticles' aggregate to an electric field nor to any other external activation source, wherein nanoparticles' aggregates refer to an assemblage of nanoparticles covalently bound to each other, wherein the nanoparticle's or nanoparticles' aggregate's material is selected from a conductor material that is a metal selected from Tl, Po, Ag, Pd, Ir, Pt and/or Au, a semiconductor material with a band gap Eg below 3.0 eV selected from an element from group IVA of the Mendeleev's periodic table, an insulator material with a dielectric constant ε ijk equal to or above 200 and having a band gap Eg equal to or above 3.0 eV when measured at room temperature (25°C) that is a mixed metal oxide selected from BaTiO 3, PbTiO 3, KTaNbO 3, KTaO 3, SrTiO 3 and BaSrTiO 3, and an insulator material with a dielectric constant ε ijk equal to or below 100 and having a band gap Eg equal to or above 3.0 eV when measured at room temperature (25°C) selected from Al 2 O 3, LaAlO 3, La 2 O 3, SiO 2, SnO 2, TazOs, ReOz, ZrO 2, HfO 2 and carbon diamond, the relative dielectric constant ε ijk being measured between 20°C and 30°C and between 10 2 Hz up to the infrared frequency, wherein i) the median largest size of the core of the nanoparticle or nanoparticles' aggregate of the population is of at least 30 nm when the material is a conductor material, a semiconductor material or an insulator material with a dielectric constant ε ijk equal to or above 200, and wherein ii) the core of the nanoparticle or nanoparticles' aggregate is coated with a biocompatible coating providing a neutral or a negative surface charge when measured in a solution of water having a concentration of electrolytes between 0.001 and 0.2 M, a concentration of the nanoparticles' or nanoparticles' aggregates' material between 0.01 and 10 g/L and a pH between 6 and 8, and wherein the nanoparticle or nanoparticles' aggregate is not used as carrier of therapeutic compound(s) or drug(s), wherein, when the material is a conductor, the biocompatible coating providing a negative surface charge is chosen from an agent providing a phosphate, a citrate, a dicarboxylic acid or a sulphate, and wherein, when the biocompatible coating is a polymer, said coating is selected from polyacrylamide, polycarbamide, a biopolymer, a polysaccharide, collagen, polyester, polyether, polyethylene oxide, polyethylene glycol, polyvinyl alcohol, polycaprolactone, polyvinypyrrolidone and polypyrrole.
Pharmaceutical composition in modified-release gastro-resistant microspheres, each microsphere being in the form of pellet, granule or microgranule with a size smaller than 2000 micrometers (microns) and consisting of: a) a core consisting of a microsphere of inert material; b) a first intermediate coating comprising beclomethasone dipropionate and at least one physiologically acceptable excipient; c) a second modified-release gastro-resistant coating, characterised in that said at least one physiologically acceptable excipient is a mixture of a suspending agent and/or a glidant, and a filming agent, optionally with a plasticizing agent, characterised in that said filming agent is selected from hydroxypropyl methylcellulose (HPMC), hydroxy propyl cellulose and/or a mixture thereof, and characterised in that said second modified-release gastro-resistant coating comprises polymers and/or copolymers of acrylic acid and/or of methacrylic acid, phthalates and/or a mixture thereof. a) a core consisting of a microsphere of inert material; b) a first intermediate coating comprising beclomethasone dipropionate and at least one physiologically acceptable excipient; c) a second modified-release gastro-resistant coating,
Method for drilling at least one bore in one or more positioned structural parts (1a, 1b), these parts being stacked then clamped between an upstream branch and a downstream branch of a clamp of a drilling tool, the upstream branch receiving a drilling machine equipped with a drill bit and the downstream branch being hollow and open to the outside, the drilling taking place according to the following steps: - positioning the clamp of the drilling tool on a drilling location of the parts (1a, 1b); - selection and assembly of the drill bit corresponding to a diameter of the bore to be drilled then positioning of the drill bit in the activation position; characterized in that a so-called upstream blowing directed towards the parts (1a, 1b) to be assembled circulates air through the drill bit then in the opposite direction in lateral grooves extending along this drill bit, and in that the drilling also takes place according to the following steps: - triggering of the upstream blowing of pressurized air; - start of the advance of the drilling machine and triggering of the downstream blowing of pressurized air, the downstream blowing being carried out in an airtight environment in the hollow downstream branch of the clamp of the drilling tool and in the opposite direction to said upstream blowing; - advancement of the drilling machine in the downstream direction in the parts (1a, 1b) until the bore is cleared, extraction of the chips in the upstream direction via the grooves of the drill bit then evacuation of these chips in an airtight environment; - removal of the drill bit from the bore; - maintaining the blowings (5a, 5b) after unblocking and removing the drill bit from the bore, then stopping the blowings; and - uninstallation of the clamp from the airtight drilling tool. - positioning the clamp of the drilling tool on a drilling location of the parts (1a, 1b); - selection and assembly of the drill bit corresponding to a diameter of the bore to be drilled then positioning of the drill bit in the activation position; - triggering of the upstream blowing of pressurized air; - start of the advance of the drilling machine and triggering of the downstream blowing of pressurized air, the downstream blowing being carried out in an airtight environment in the hollow downstream branch of the clamp of the drilling tool and in the opposite direction to said upstream blowing; - advancement of the drilling machine in the downstream direction in the parts (1a, 1b) until the bore is cleared, extraction of the chips in the upstream direction via the grooves of the drill bit then evacuation of these chips in an airtight environment; - removal of the drill bit from the bore; - maintaining the blowings (5a, 5b) after unblocking and removing the drill bit from the bore, then stopping the blowings; and - uninstallation of the clamp from the airtight drilling tool.
A speech recognition device, comprising: a storage unit for storing screen definition information, in which a screen is associated with an option on the screen, and selection history information identifying a number of selection times for each of the options; a touch instruction reception unit (51, 102) for receiving an instruction through touching operation; a voice instruction reception unit (41, 102) for receiving an instruction through an operation using voice; and an option reading unit (42, 107) for conducting, when reception of the instruction conducted by the touch instruction reception unit is restricted on a predetermined screen, voice output of the options on the predetermined screen in an order corresponding to the number of selection times, wherein the voice instruction reception unit (41, 102) is adapted to receive an instruction regarding any one of the options output by the option reading unit; each of the options on the predetermined screen identifies a predetermined song file; and the option reading unit (42, 107) is adapted to conduct the voice output of the options by playing back, for each song file, at least a part of a song regarding the song file. a storage unit for storing screen definition information, in which a screen is associated with an option on the screen, and selection history information identifying a number of selection times for each of the options; a touch instruction reception unit (51, 102) for receiving an instruction through touching operation; a voice instruction reception unit (41, 102) for receiving an instruction through an operation using voice; and an option reading unit (42, 107) for conducting, when reception of the instruction conducted by the touch instruction reception unit is restricted on a predetermined screen, voice output of the options on the predetermined screen in an order corresponding to the number of selection times, wherein the voice instruction reception unit (41, 102) is adapted to receive an instruction regarding any one of the options output by the option reading unit; each of the options on the predetermined screen identifies a predetermined song file; and the option reading unit (42, 107) is adapted to conduct the voice output of the options by playing back, for each song file, at least a part of a song regarding the song file.
A power and torque transmission hose for a work device for a microsurgical instrument, characterized in that the power and torque transmission hose, at least in a portion situated between its two ends, is stiffened by at last one pulling element running in the longitudinal direction of the power and torque transmission hose.
Trapeze closure of a trapeze harness for kite surfing, wind surfing or sailing, with fittings for coupling the trapeze harness and a locking point which can be brought into locking engagement with an approximately ring or eyelet-shaped retaining element, wherein the locking point has an attachment position in which the retaining element is secured in position but not yet tensioned, and a closed position in which the retaining element is tensioned with the locking point, wherein the extended length of the closure in the attachment position is much greater than in the closed position, characterised in that the locking point is designed as a pivot lever which is mounted pivotably about a pivot axis on a base, wherein at a first end section of the pivot lever an attachment hook is formed and wherein a detachable safety catch for fixing the position in the closed position is assigned to the locking point.
A flow meter for measuring the flow velocity of a fluid having a measurement tube that is axially bounded by at least one flange end and that forms a measurement space that can be flowed through by the fluid and having at least one baffle to generate interference in the flow, wherein the baffle is arranged in the measurement space and wherein a detector for detecting the interference is furthermore arranged downstream of the baffle, wherein an insertion element introduced into the measurement tube and having a base portion is provided, wherein the base portion is arranged in the flange end, and wherein the insertion element has brackets that adjoin base portion and that project into the measurement space, wherein the baffle is formed and is held in its position in the measurement space between the brackets, characterized in that the base portion, the brackets, and the baffle are configured together as a single component.