mhurhangee/ep-ind-claims huggingface dataset:
A method for an audio signal processor, comprising: receiving an audio signal from an audio source; receiving headphone position data from a sensor coupled to a headphone assembly rendering the audio signal to a user; receiving one or more transducer parameters from one or more transducers of the headphone assembly; monitoring (810, 818) one or more acoustic profile parameters of the audio signal based on the one or more transducer parameters; monitoring (810, 818) one or more listener-headphone engagement parameters based on the headphone position data; and adjusting the audio signal reaching the user's ears and/or acoustic stimulation based on the monitoring of the one or more acoustic profile parameters and the monitoring of one or more listener-headphone engagement parameters; wherein the one or more listener-headphone engagement parameters include a current engagement status of the headphone assembly with respect to the user and a duration of active engagement of the headphone assembly with respect to the user, and wherein adjusting the audio signal includes one or more of filtering impulsive sounds having intensity greater than a threshold intensity, reducing overall intensity of the audio input, reducing intensity of selected frequencies of the audio signal, and adaptively shaping the sound spectrum over time. receiving an audio signal from an audio source; receiving headphone position data from a sensor coupled to a headphone assembly rendering the audio signal to a user; receiving one or more transducer parameters from one or more transducers of the headphone assembly; monitoring (810, 818) one or more acoustic profile parameters of the audio signal based on the one or more transducer parameters; monitoring (810, 818) one or more listener-headphone engagement parameters based on the headphone position data; and adjusting the audio signal reaching the user's ears and/or acoustic stimulation based on the monitoring of the one or more acoustic profile parameters and the monitoring of one or more listener-headphone engagement parameters; wherein the one or more listener-headphone engagement parameters include a current engagement status of the headphone assembly with respect to the user and a duration of active engagement of the headphone assembly with respect to the user, and wherein adjusting the audio signal includes one or more of filtering impulsive sounds having intensity greater than a threshold intensity, reducing overall intensity of the audio input, reducing intensity of selected frequencies of the audio signal, and adaptively shaping the sound spectrum over time.
A heater for an open space in a closed room by means of a hot air stream wherein the heater includes a self bearing hanging roof unit (11, 11', 31, 41) for being placed in the open space of said room and generators / suppliers means of a forced hot air stream (12, 12.4, 11.5; B1, B12; 18), which can be collected, at least partially, under said self bearing hanging roof unit, which can retain temporarily, as in a blind hood, a hot air mass which warms said open space of said room at said hanging roof unit; wherein said generators/suppliers means of said forced hot air stream (12, 12.4, 11.5; B1, B12; 18) are air-tight connected to the self bearing hanging roof unit (11, 11', 31, 41); and wherein said self bearing hanging roof unit (11, 11', 31, 41) bears the generators means of said forced hot air stream, including electrical fan means and resistors means (12.4), which are connected to an electric supply circuit by means of electrical switch means (13, 13.1) provided to determine selectively the electrical connection to said electrical fan and resistors means (12, 14.4); and an air spout (11.5, B1, B12, 18) is provided in said roof unit (11.5), provided as a separate component (B1, B12, 18) for releasing said forced hot air stream, which air spout is air tight connected to said generators of said forced hot air stream (12, 12.4); characterized by the fact that the heater includes a double selective spout respectively for a water jet for shower or similar and for said forced hot air stream, where a first head is connected to plumbing while a second head is airtight connected to said generators/suppliers means of said forced hot air stream (12, 12.4, 11.5).
A method of delivering a protein component of an RNA-guided endonuclease (RGEN) into a bacterial cell, said method comprising: contacting the bacterial cell with a composition comprising the protein component of the RNA-guided endonuclease (RGEN) and at least one cell-penetrating peptide, wherein said protein component and CPP are covalently, or non-covalently, linked to each other in an RGEN protein-CPP complex, wherein the composition further comprises at least one RNA component that is associated with the protein component of the RGEN, wherein the RNA component comprises a sequence complementary to a target site sequence on a chromosome or episome in the cell, wherein the RGEN can bind to the target site sequence, and optionally cleave one or both DNA strands at the target site sequence, and wherein said RGEN protein-CPP complex traverses (i) a cell membrane, or (ii) a cell wall and cell membrane, of the cell, thereby entering the bacterial cell. contacting the bacterial cell with a composition comprising the protein component of the RNA-guided endonuclease (RGEN) and at least one cell-penetrating peptide, wherein said protein component and CPP are covalently, or non-covalently, linked to each other in an RGEN protein-CPP complex, wherein the composition further comprises at least one RNA component that is associated with the protein component of the RGEN, wherein the RNA component comprises a sequence complementary to a target site sequence on a chromosome or episome in the cell, wherein the RGEN can bind to the target site sequence, and optionally cleave one or both DNA strands at the target site sequence, and wherein said RGEN protein-CPP complex traverses (i) a cell membrane, or (ii) a cell wall and cell membrane, of the cell, thereby entering the bacterial cell.
A load migration method, comprising: determining, by a source controller, a to-be-migrated user equipment, UE, that needs to be migrated to a destination controller, wherein the source controller is a controller in a first control domain, and the destination controller is a controller in a second control domain; updating (107, 307), by the source controller, resource information of the to-be-migrated UE in a database server, wherein the updated resource information comprises a correspondence between the to-be-migrated UE and the destination controller, and the database server is connected to both the source controller and the destination controller; and sending, by the source controller, an inter-domain update instruction to an external network element, wherein the inter-domain update instruction comprises an identifier of the to-be-migrated UE and an identifier of the destination controller. determining, by a source controller, a to-be-migrated user equipment, UE, that needs to be migrated to a destination controller, wherein the source controller is a controller in a first control domain, and the destination controller is a controller in a second control domain; updating (107, 307), by the source controller, resource information of the to-be-migrated UE in a database server, wherein the updated resource information comprises a correspondence between the to-be-migrated UE and the destination controller, and the database server is connected to both the source controller and the destination controller; and sending, by the source controller, an inter-domain update instruction to an external network element, wherein the inter-domain update instruction comprises an identifier of the to-be-migrated UE and an identifier of the destination controller.
A method for the co-integration of photonic devices, Ge waveguide-integrated photodetectors and hybrid III-V/Si lasers on a silicon based photonics platform, the method comprising: - providing a planarized silicon based photonics substrate comprising silicon devices including patterned silicon waveguide structures; - depositing a dielectric layer on top of the planarized silicon based photonics substrate; - etching trenches into said dielectric layer with an appropriate etch depth, thereby exposing a patterned silicon waveguide structure of said photonics substrate at a location where Ge growth for forming a Ge photodetector is to be initiated; - the step of etching trenches followed by a step of selective etching of the exposed waveguide structure, thereby creating a template for Ge growth and leaving a silicon seed layer for Ge growth; - selectively growing Ge from said seed layer, with a deliberate Ge overgrowth; - planarizing the Ge surface, leaving a Ge layer with a reduced thickness. - providing a planarized silicon based photonics substrate comprising silicon devices including patterned silicon waveguide structures; - depositing a dielectric layer on top of the planarized silicon based photonics substrate; - etching trenches into said dielectric layer with an appropriate etch depth, thereby exposing a patterned silicon waveguide structure of said photonics substrate at a location where Ge growth for forming a Ge photodetector is to be initiated; - the step of etching trenches followed by a step of selective etching of the exposed waveguide structure, thereby creating a template for Ge growth and leaving a silicon seed layer for Ge growth; - selectively growing Ge from said seed layer, with a deliberate Ge overgrowth; - planarizing the Ge surface, leaving a Ge layer with a reduced thickness.
A process for preventing the formation of hydrates in fluids containing gases or gas condensates, which comprises subjecting said fluids to electromagnetic waves, preventing the formation of crystalline bonds responsible for the formation of said hydrates, characterized in that the electromagnetic radiations operate within the visible and infrared spectrum region included in the λ band from 500 nm or higher to lower than 0.1 mm (from 3 THz or higher to 600 THz or lower).
A method for wireless communications at a first repeater (406-a, 506-a), the method comprising: receiving, from a base station (405, 505), a forwarding instruction that indicates that a portion of a multicast message is to be forwarded to a second repeater (406-b, 506-b); receiving, from the base station, the multicast message (425-a, 525) comprising common control information for a plurality of repeaters, the plurality of repeaters comprising at least the first repeater and the second repeater; identifying one or more configuration parameters associated with the first repeater based at least in part on the common control information; decoding the multicast message based at least in part on the forwarding instruction; generating a message (425-b) comprising the portion of the multicast message based at least in part on the decoding; and transmitting the generated message to the second repeater. receiving, from a base station (405, 505), a forwarding instruction that indicates that a portion of a multicast message is to be forwarded to a second repeater (406-b, 506-b); receiving, from the base station, the multicast message (425-a, 525) comprising common control information for a plurality of repeaters, the plurality of repeaters comprising at least the first repeater and the second repeater; identifying one or more configuration parameters associated with the first repeater based at least in part on the common control information; decoding the multicast message based at least in part on the forwarding instruction; generating a message (425-b) comprising the portion of the multicast message based at least in part on the decoding; and transmitting the generated message to the second repeater.
A wrap removal assembly for removing wrap material disposed about a circumference of a bale of crop material, the wrap removal assembly comprising: an elongated support member extending between a first end and a second end along a central longitudinal axis, and including an exterior surface; said wrap removal assembly being characterised in that it further comprises a snagging wire at least partially disposed adjacent the exterior surface of the elongated support member; wherein the snagging wire includes an active material changeable between a first shape and a second shape in response to a control signal, wherein the snagging wire presents at least one catch spaced outward and away from the exterior surface relative to the central longitudinal axis when disposed in the first shape, configured to snag the wrap material and gather the wrap materia around the elongated support member, and wherein the snagging wire is positioned substantially flat against the exterior surface of the elongated support member when disposed in the second shape, configured to release the wrap material and allow removal of the wrap material from the elongated support member. an elongated support member extending between a first end and a second end along a central longitudinal axis, and including an exterior surface; said wrap removal assembly being characterised in that it further comprises a snagging wire at least partially disposed adjacent the exterior surface of the elongated support member; wherein the snagging wire includes an active material changeable between a first shape and a second shape in response to a control signal, wherein the snagging wire presents at least one catch spaced outward and away from the exterior surface relative to the central longitudinal axis when disposed in the first shape, configured to snag the wrap material and gather the wrap materia around the elongated support member, and wherein the snagging wire is positioned substantially flat against the exterior surface of the elongated support member when disposed in the second shape, configured to release the wrap material and allow removal of the wrap material from the elongated support member.
A combination product for DNA detection, comprising a ribonuclease H II and a probe, wherein the probe is a single-stranded probe and has a sequence which is partially or entirely complementary to a target DNA molecule to be detected, and at least two RNA bases are embedded in the complementary region of the probe and divide the complementary region of the probe into at least three segments, each of which independently has 1, 2, 3, 4, 5 or 6 DNA bases and base substitutions that do not interfere with a hybridization of a nucleic acid strand in total, and wherein the RNA bases are distributed discretely in the probe.
A topcoat comprising a base polymer and a pigment system, wherein the base polymer comprises a polyvinylpyrrolidone copolymer and a cationic acrylic resin, and wherein the polyvinylpyrrolidone copolymer comprises polyvinylpyrrolidone and vinyl acetate, wherein the topcoat comprises at least 35 wt% cationic acrylic resin, based on the total weight of components other than water in the topcoat, wherein the topcoat comprises from 0.01 to 40 wt% pigment system, based on the total weight of the components other than water in the topcoat.
An image forming apparatus, comprising: a toner container including a container main body that is provided with a discharge port configured to discharge a toner; and a development device including a development device main body having a replenishment port configured to receive a toner discharged from the discharge port and a shutter configured to open/close the replenishment port, wherein the shutter is configured to open/close the replenishment port by turning along the outside face of the development device main body, the development device further includes a biasing member configured to bias the shutter to a position to close the replenishment port, the toner container further includes a container side shutter rotatably attached onto the container main body to open/close the discharge port and configured to press the shutter against the bias force of the biasing member to another position to open the replenishment port. a toner container including a container main body that is provided with a discharge port configured to discharge a toner; and a development device including a development device main body having a replenishment port configured to receive a toner discharged from the discharge port and a shutter configured to open/close the replenishment port,
A method for treating at least one surface of a substrate based on sulphur polymer intended to be covered with a coating, said method comprising, prior to depositing the coating onto the surface of the substrate, a step of bringing the surface of the substrate into contact with a treating composition comprising by weight, based on the total weight of the composition, 2 to 30 % of at least one reducing agent, the reducing agent(s) being thioacids or salts thereof capable to reduce C-S, S-S, CON limks.
Emergency mirror for releasable mounting on a motor vehicle, comprising a mirror surface which is arranged in a mirror housing, wherein at least three connecting elements (04, 05, 06) are connected to the mirror housing, wherein at least one connecting element (04, 05, 06) is variable in length, wherein a respective holding element (07, 08, 09) is arranged at the ends of the connecting elements (04, 05, 06) facing away from the mirror housing, wherein the first holding element is designed as a suction cup holder and the second holding element is designed as a suction cup holder and the third holding element is designed as a U-profile holder, wherein the holding elements (07, 08, 09) are each provided for the purpose to form a releasable connection with a part of a door of a motor vehicle, characterized in that the connecting elements (04, 05, 06) can be swiveled by at least 150° by means of a ball joint, and wherein the mirror housing comprises a digital wide-angle camera with a transmitting unit, the lens of the camera being directed in the same direction as the mirror surface.
A method for preparing a continuous carbon fiber reinforced thermoplastic prepreg, the method comprising: preparing widely spread filaments of carbon fiber; forming a stack by disposing a thermoplastic film on at least a portion of upper and lower sides of the widely spread filaments of carbon fiber; and forming a bonded material by bonding the thermoplastic film and the carbon fiber of the stack, characterised in that the step of preparing the widely spread filaments of carbon fiber comprises coating the filaments of carbon fiber with a bonding resin having a melting point lower than that of the thermoplastic film, wherein the bonded material is formed by fusing the bonding resin between the thermoplastic film and the carbon fiber, and wherein the forming of the bonded material is performed by radiating microwaves. preparing widely spread filaments of carbon fiber; forming a stack by disposing a thermoplastic film on at least a portion of upper and lower sides of the widely spread filaments of carbon fiber; and forming a bonded material by bonding the thermoplastic film and the carbon fiber of the stack, characterised in that the step of preparing the widely spread filaments of carbon fiber comprises coating the filaments of carbon fiber with a bonding resin having a melting point lower than that of the thermoplastic film, wherein the bonded material is formed by fusing the bonding resin between the thermoplastic film and the carbon fiber, and wherein the forming of the bonded material is performed by radiating microwaves.
A method for processing cell handover, performed by user equipment, the method comprising: obtaining a current movement trajectory; matching the current movement trajectory with historical movement trajectories to obtain matching degrees; determining a target cell according to the historical movement trajectory with the matching degree greater than a preset matching threshold and correspondences between historical movement trajectories and cells; and sending a handover request to a source base station, the handover request comprising a target cell identifier of the target cell and a measurement report; wherein the method further comprises: obtaining a current movement speed, wherein the determining the target cell according to the historical movement trajectory with the matching degree greater than a preset matching threshold and correspondences between historical movement trajectories and cells comprises: determining the target cell according to the historical movement trajectory with the matching degree greater than the preset matching threshold, the current movement speed, and correspondences among historical movement trajectories, movement speeds and cells; and characterized in that the method further comprises: determining a handover time according to the current movement speed and the target cell, wherein the handover request further comprises the determined handover time. obtaining a current movement trajectory; matching the current movement trajectory with historical movement trajectories to obtain matching degrees; determining a target cell according to the historical movement trajectory with the matching degree greater than a preset matching threshold and correspondences between historical movement trajectories and cells; and sending a handover request to a source base station, the handover request comprising a target cell identifier of the target cell and a measurement report; wherein the method further comprises: obtaining a current movement speed, wherein the determining the target cell according to the historical movement trajectory with the matching degree greater than a preset matching threshold and correspondences between historical movement trajectories and cells comprises: determining the target cell according to the historical movement trajectory with the matching degree greater than the preset matching threshold, the current movement speed, and correspondences among historical movement trajectories, movement speeds and cells; and characterized in that the method further comprises: determining a handover time according to the current movement speed and the target cell, wherein the handover request further comprises the determined handover time. determining the target cell according to the historical movement trajectory with the matching degree greater than the preset matching threshold, the current movement speed, and correspondences among historical movement trajectories, movement speeds and cells; and characterized in that the method further comprises: determining a handover time according to the current movement speed and the target cell, wherein the handover request further comprises the determined handover time.
Method for determining driving dynamics states of a utility vehicle pairing, wherein at least one item of driving dynamics information about a trailer/semitrailer and/or a towing vehicle of the utility vehicle pairing is extracted from the camera image (10, 15) of at least one camera (6, 7) of the utility vehicle pairing by way of an image processing device, wherein one item of information is a vehicle stationary state and/or a low moving speed, and this is determined such that a relative movement or a stationary state between the utility vehicle pairing and a recorded background is recognized from a camera image (10, 15) by way of the image processing device and the determined state is used in a driver assistance system, characterized in that the relative movement or the stationary state between the utility vehicle pairing and a recorded background is recognized from the camera image (10, 15) by way of the image processing device from an optical flow and the direction of movement of the utility vehicle pairing (forwards or backwards) is extracted when determining a relative movement by evaluating motion vectors of the optical flow.