mhurhangee/ep-ind-claims huggingface dataset:
A method of addressing a message sent from a proxy node to a peer node the method comprising, at the proxy node: receiving from a host node a plurality of multipath messages associated with a multipath session, each message of the plurality of multipath messages having an address: applying a rule to assign an address for a single flow message towards the peer node, the single flow message comprising each message of the plurality of multipath messages; and sending the single flow message towards the peer node, characterised in that the rule comprises: determining addresses (6, 7, 8) used by the host node for each message of the plurality of multipath messages; selecting from the determined addresses the address for assigning to the single flow message towards the peer node, wherein the selection is based on any of a type of network to which each address belongs, an expected life of each address, and a historical life of each address; and sending to an address assigning node an instruction not to release or re-use the address for the single flow message until the multipath session ends. receiving from a host node a plurality of multipath messages associated with a multipath session, each message of the plurality of multipath messages having an address: applying a rule to assign an address for a single flow message towards the peer node, the single flow message comprising each message of the plurality of multipath messages; and sending the single flow message towards the peer node, characterised in that the rule comprises: determining addresses (6, 7, 8) used by the host node for each message of the plurality of multipath messages; selecting from the determined addresses the address for assigning to the single flow message towards the peer node, wherein the selection is based on any of a type of network to which each address belongs, an expected life of each address, and a historical life of each address; and sending to an address assigning node an instruction not to release or re-use the address for the single flow message until the multipath session ends. applying a rule to assign an address for a single flow message towards the peer node, the single flow message comprising each message of the plurality of multipath messages; and sending the single flow message towards the peer node, characterised in that the rule comprises: determining addresses (6, 7, 8) used by the host node for each message of the plurality of multipath messages; determining addresses (6, 7, 8) used by the host node for each message of the plurality of multipath messages; selecting from the determined addresses the address for assigning to the single flow message towards the peer node, wherein the selection is based on any of a type of network to which each address belongs, an expected life of each address, and a historical life of each address; and sending to an address assigning node an instruction not to release or re-use the address for the single flow message until the multipath session ends.
A method for depleting target nucleic acids from a nucleic acid sample, the method comprising: hybridizing a plurality of deoxyribonucleic acid probes with a plurality of target ribonucleic acid transcripts in a nucleic acid sample, each of the DNA probes forming a heteroduplex with at least one of the plurality of target RNA transcripts; and treating the heteroduplex with an enzyme having RNA-DNA hybrid ribonucleotidohydrolase activity, thereby degrading at least the RNA portion of the heteroduplex, wherein the number of target RNA transcripts having a unique sequence hybridized by the plurality of DNA probes is at least 3, wherein the number of different DNA probes hybridized to each target RNA transcript is at least 3, and wherein the number of DNA probes having a unique sequence is at least 100. hybridizing a plurality of deoxyribonucleic acid probes with a plurality of target ribonucleic acid transcripts in a nucleic acid sample, each of the DNA probes forming a heteroduplex with at least one of the plurality of target RNA transcripts; and treating the heteroduplex with an enzyme having RNA-DNA hybrid ribonucleotidohydrolase activity, thereby degrading at least the RNA portion of the heteroduplex, wherein the number of target RNA transcripts having a unique sequence hybridized by the plurality of DNA probes is at least 3, wherein the number of different DNA probes hybridized to each target RNA transcript is at least 3, and wherein the number of DNA probes having a unique sequence is at least 100.
A sizing composition for the manufacture of a fire-resistant thermal and/or acoustic insulation product based on mineral wool, characterized in that it contains: - a thermosetting resin selected from a phenolic resin, the phenolic resin can belong to the family of resols and optionally modified by urea, a ureaformaldehyde resin, a poly(meth)acrylic acid resin, a polyurethane resin, an epoxy resin, an alkyd resin, or a resin based on sugar and on other component(s), and - an amine-carboxylic acid resin wherein the amine is selected from dicyandiamide, melamine, guanidine and aminoguanidine, the amine-carboxylic acid resin is optionally modified by an alcohol, the amine-carboxylic acid resin, optionally modified by an alcohol, is used in a proportion of 5 to 70 parts by weight of solids per 100 parts by weight of solids of thermosetting resin and where appropriate of urea. - a thermosetting resin selected from a phenolic resin, the phenolic resin can belong to the family of resols and optionally modified by urea, a ureaformaldehyde resin, a poly(meth)acrylic acid resin, a polyurethane resin, an epoxy resin, an alkyd resin, or a resin based on sugar and on other component(s), and - an amine-carboxylic acid resin wherein the amine is selected from dicyandiamide, melamine, guanidine and aminoguanidine, the amine-carboxylic acid resin is optionally modified by an alcohol,
Method for producing a fault signal indicating a winding fault, in particular a turn-to-turn fault, in a transformer, whereby in the method - a tripping measurement value is formed with at least one current measurement value and at least one voltage measurement value, - the tripping measurement value is compared with a predetermined tripping limit value, and - the fault signal is produced if the tripping measurement value reaches or exceeds the predetermined tripping limit value, characterized in that the tripping measurement value is formed using the zero phase-sequence current and the zero phase-sequence voltage as well as the derivative with respect to time of the zero phase-sequence current and the tripping measurement value is determined by addition of at least three auxiliary voltage values, of which - a first auxiliary voltage value is formed by multiplication of the derivative with respect to time of the zero phase-sequence current by a first auxiliary factor, - a second auxiliary voltage value is formed by multiplication of the zero phase-sequence current by a second auxiliary factor, and - a third auxiliary voltage value is formed by multiplication of the zero phase-sequence voltage by a third auxiliary factor. - a tripping measurement value is formed with at least one current measurement value and at least one voltage measurement value, - the tripping measurement value is compared with a predetermined tripping limit value, and - the fault signal is produced if the tripping measurement value reaches or exceeds the predetermined tripping limit value, - a first auxiliary voltage value is formed by multiplication of the derivative with respect to time of the zero phase-sequence current by a first auxiliary factor, - a second auxiliary voltage value is formed by multiplication of the zero phase-sequence current by a second auxiliary factor, and - a third auxiliary voltage value is formed by multiplication of the zero phase-sequence voltage by a third auxiliary factor.
A block former for the production of blocks of cheese, the block former comprising an upright drainage column having a feed opening for curd particles at an upper end of the drainage column, the drainage column including an inner wall having an interior surface against which a pillar of curd formed of the curd particles slides as the pillar of curd moves downwardly through the drainage column, the upright drainage column being divided into an upper part and a lower part, wherein the upper part has an inner cross-sectional area that is less than an inner cross-sectional area of the lower part, characterized by a relief gap formed in the inner wall at a location at which the upper part and the lower part meet to enable sliding of the pillar of curd against the interior surface of the inner wall.
A transconductor circuit, comprising: a first input transistor device (M 1, Q 1); a second input transistor device (M 2, Q 2), wherein each of the first and second input transistor devices is configured in a common-gate or common-base configuration with interconnected gate electrodes or interconnected base electrodes, respectively, and has a source electrode or an emitter electrode coupled to a differential radio frequency input signal (V RF+, V RF-); a first biasing transistor device (M B1, Q B1) having a gate electrode or a base electrode coupled to a gate electrode or a base electrode, respectively, of the first input transistor device (M 1, Q 1); and a second equally-sized biasing transistor device (M B2, Q B2) having a gate electrode or a base electrode coupled to a gate electrode or a base electrode, respectively, of the second input transistor device (M 2, Q 2) to provide biasing for the first input transistor device (M 1, Q 1) and the second input transistor device (M 2, Q 2), respectively, wherein the first and second biasing transistor devices (M B1, Q B1, M B2, Q B2) each has a source electrode or an emitter electrode coupled to the source electrodes or the emitter electrodes of the first input transistor device (M 1, Q 1) and the second input transistor device (M 2, Q 2), respectively, to sense the differential radio frequency input signal (V RF+, V RF-). a first input transistor device (M 1, Q 1); a second input transistor device (M 2, Q 2), wherein each of the first and second input transistor devices is configured in a common-gate or common-base configuration with interconnected gate electrodes or interconnected base electrodes, respectively, and has a source electrode or an emitter electrode coupled to a differential radio frequency input signal (V RF+, V RF-); a first biasing transistor device (M B1, Q B1) having a gate electrode or a base electrode coupled to a gate electrode or a base electrode, respectively, of the first input transistor device (M 1, Q 1); and a second equally-sized biasing transistor device (M B2, Q B2) having a gate electrode or a base electrode coupled to a gate electrode or a base electrode, respectively, of the second input transistor device (M 2, Q 2) to provide biasing for the first input transistor device (M 1, Q 1) and the second input transistor device (M 2, Q 2), respectively, wherein the first and second biasing transistor devices (M B1, Q B1, M B2, Q B2) each has a source electrode or an emitter electrode coupled to the source electrodes or the emitter electrodes of the first input transistor device (M 1, Q 1) and the second input transistor device (M 2, Q 2), respectively, to sense the differential radio frequency input signal (V RF+, V RF-).
A processor implemented image fusion method, comprising: measuring (440, 520) the brightness of a first image frame (612, 712) and a second image frame; in response to the measured brightness of the first frame and of the second frame being less than a preset threshold value, performing the following steps: detecting (420, 510) first feature points (622, 722) of an object in the first image frame (612, 712); transforming (430, 515) the first image frame (612, 712) based on the detected first feature points (622, 722) and predefined reference points to generate a transformed first image frame (632, 762); detecting (420, 510) second feature points (624, 724) of the object in the second image frame (614, 714); transforming (430, 515) the second image frame (614, 714) based on the detected second feature points (624, 724) and the predefined reference points to generate a transformed second image frame (634, 764); and generating (460, 530) a combined image (640, 770) by combining the transformed first image frame (632, 762) and the transformed second image frame (634, 764). measuring (440, 520) the brightness of a first image frame (612, 712) and a second image frame; in response to the measured brightness of the first frame and of the second frame being less than a preset threshold value, performing the following steps: detecting (420, 510) first feature points (622, 722) of an object in the first image frame (612, 712); transforming (430, 515) the first image frame (612, 712) based on the detected first feature points (622, 722) and predefined reference points to generate a transformed first image frame (632, 762); detecting (420, 510) second feature points (624, 724) of the object in the second image frame (614, 714); transforming (430, 515) the second image frame (614, 714) based on the detected second feature points (624, 724) and the predefined reference points to generate a transformed second image frame (634, 764); and generating (460, 530) a combined image (640, 770) by combining the transformed first image frame (632, 762) and the transformed second image frame (634, 764). detecting (420, 510) first feature points (622, 722) of an object in the first image frame (612, 712); transforming (430, 515) the first image frame (612, 712) based on the detected first feature points (622, 722) and predefined reference points to generate a transformed first image frame (632, 762); detecting (420, 510) second feature points (624, 724) of the object in the second image frame (614, 714); transforming (430, 515) the second image frame (614, 714) based on the detected second feature points (624, 724) and the predefined reference points to generate a transformed second image frame (634, 764); and generating (460, 530) a combined image (640, 770) by combining the transformed first image frame (632, 762) and the transformed second image frame (634, 764).
Method to reduce halogens into halides wherein the formation of oxo-halogen-compounds is avoided, said method comprises contacting a reducing agent with a solution comprising halogens and the reducing agent is selected from hydrogen peroxide, sulfites, bisulfites, pyrosulfites, and mixtures thereof, wherein the method further comprises the step of adding a hydrogen halide as acid after addition of the reducing agent, wherein the pH value after addition of the hydrogen halide is within the range of from 2 to 12.
An apparatus comprising: a heat transfer structure configured to be disposed at least partially within an enclosure of a fixed bed reactor and operable to transfer heat from a heat source to a heat sink, the heat transfer structure comprising; a plurality of fins each comprising a first end and a second end, the first end configured to contact an inner surface of an enclosure of a fixed bed reactor, the second end configured to be at least partially enclosed within an enclosure of a fixed bed reactor, wherein a path of at least one of the plurality of fins comprises the shortest possible length between the first end of the at least one of the plurality of fins and the second end of the at least one of the plurality of fins; wherein two or more fins attach at an internal point within the enclosure of the fixed bed reactor; and wherein the two or more fins that attach at an internal point within the enclosure of the fixed bed reactor form a generally parabolic shape. a heat transfer structure configured to be disposed at least partially within an enclosure of a fixed bed reactor and operable to transfer heat from a heat source to a heat sink, the heat transfer structure comprising; a plurality of fins each comprising a first end and a second end, the first end configured to contact an inner surface of an enclosure of a fixed bed reactor, the second end configured to be at least partially enclosed within an enclosure of a fixed bed reactor, wherein a path of at least one of the plurality of fins comprises the shortest possible length between the first end of the at least one of the plurality of fins and the second end of the at least one of the plurality of fins; wherein two or more fins attach at an internal point within the enclosure of the fixed bed reactor; and wherein the two or more fins that attach at an internal point within the enclosure of the fixed bed reactor form a generally parabolic shape.
Instrument for measuring the position of the lower jaw, comprising a first and a second bite fork that are individually adaptable to the upper and lower tooth arch of a patient, whereby the first and the second bite fork are each attached to an extension (5, 11) that extends in a horizontal plane, so that the extensions (5, 11) extend outside the mouth of the patient in front of the anterior teeth when the first and the second bite fork are adapted to the upper and lower tooth arch, and whereby the extensions enable the bite forks (2, 4) to move with respect to one another in a horizontal movement direction while the instrument is placed in the patient's mouth and enables the relative position of the bite forks and thus the relative position of the upper and lower tooth arch (19, 20) to be registered outside the patient's mouth, characterised in that the first and the second bite fork have the same symmetric shape with regard to a midline position of the first and the second bite fork, wherein the extensions (5, 11) are arranged eccentrically to the midline position of the first and the second bite fork.
A nosepiece for delivering substance to a nasal cavity of a subject, the nosepiece comprising a body part which comprises a base portion which defines a flow passage therethrough, and a projection at a distal end of the base portion which at least in part provides a tip of the nosepiece and confers a rigidity in the sagittal direction, which enables the tip to open fleshy tissue at an upper region of the nasal valve and thereby expand an open area of the nasal valve, and a flexibility in a lateral direction, orthogonal to the sagittal plane, which facilitates insertion of the tip into the nasal valve, characterized in that the projection has the form of a blade and a length in the sagittal direction which is greater than a length in the lateral direction.
Method for the closed-loop control of switching edges for switched output stages, wherein rising switching edges are controlled using a first closed-loop control apparatus by means of the following steps: - detecting a voltage at a switching node of the output stage; - starting a reference time if the voltage reaches a first predefined reference value; - reducing the gradient of the switching edge (15, 27) if the voltage has reached a second predefined reference value at an end of the reference time; - increasing the gradient of the switching edge (15, 27) if the voltage has not reached the second predefined reference value at the end of the reference time; wherein falling switching edges are controlled using a second closed-loop control apparatus by means of the following steps: - detecting a voltage at the switching node of the output stage; - starting a reference time if the voltage reaches a first predefined reference value; - reducing the gradient of the switching edge if the voltage has reached a second predefined reference value at an end of the reference time; - increasing the gradient of the switching edge if the voltage has not reached the second predefined reference value at the end of the reference time; wherein rising switching edges and falling switching edges are controlled independently of one another. - detecting a voltage at a switching node of the output stage; - starting a reference time if the voltage reaches a first predefined reference value; - reducing the gradient of the switching edge (15, 27) if the voltage has reached a second predefined reference value at an end of the reference time; - increasing the gradient of the switching edge (15, 27) if the voltage has not reached the second predefined reference value at the end of the reference time; - detecting a voltage at the switching node of the output stage; - starting a reference time if the voltage reaches a first predefined reference value; - reducing the gradient of the switching edge if the voltage has reached a second predefined reference value at an end of the reference time; - increasing the gradient of the switching edge if the voltage has not reached the second predefined reference value at the end of the reference time;
A bush cutter comprising a cutting blade, and a protective cover configured to partly cover the cutting blade, wherein the protective cover comprises a main body and an expansion part configured to be detachably attached to the main body, the expansion part is configured not to require any tool for its attachment to the main body but require at least one tool for its detachment from the main body, one of the main body and the expansion part of the protective cover is provided with a click portion, the other of the main body and the expansion part of the protective cover is provided with an engaging hole, and the engaging hole has an aperture geometry that is configured to allow entry of the tool for pushing the click portion from the outside in order to disengage the click portion from the engaging hole, wherein the engaging hole is configured to accept engagement of the click portion at an inner side and expose the engaged click portion to an outer side, and one of the main body and the expansion part of the protective cover is provided with a contact portion configured to contact with the click portion from inside when the click portion is pushed out from the engaging hole with the tool, characterized in that the contact portion is located to the inside of the engaging hole and opposes the click portion which is engaged with the engaging hole, via a gap, from the inside.
A resin blend comprising a blend of resorcinol diphthalonitrile ether resin and a bisphenol M diphthalonitrile ether resin, wherein the bisphenol M diphthalonitrile ether resin is of Formula I: