mhurhangee/ep-ind-claims huggingface dataset:
A welding or additive manufacturing power supply, comprising: output circuitry configured to generate a welding waveform; a current sensor for measuring a welding current (I S) generated by the output circuitry; a voltage sensor for measuring an output voltage (V S) of the welding waveform; and a controller operatively connected to the output circuitry to control the welding waveform, and operatively connected to the current sensor and the voltage sensor to monitor the welding current (I S) and the output voltage (V S), wherein a portion of welding waveform includes a controlled change in current from a first level to a second level different from the first level, characterized in that the controller is configured to determine a circuit inductance (L C) from at least the controlled change in current (I S), and further determine a change in resistance (R T) of a consumable electrode in real time based on the circuit inductance (L C). output circuitry configured to generate a welding waveform; a current sensor for measuring a welding current (I S) generated by the output circuitry; a voltage sensor for measuring an output voltage (V S) of the welding waveform; and a controller operatively connected to the output circuitry to control the welding waveform, and operatively connected to the current sensor and the voltage sensor to monitor the welding current (I S) and the output voltage (V S), wherein a portion of welding waveform includes a controlled change in current from a first level to a second level different from the first level, characterized in that the controller is configured to determine a circuit inductance (L C) from at least the controlled change in current (I S), and further determine a change in resistance (R T) of a consumable electrode in real time based on the circuit inductance (L C).
A method of routing data across a network, the method comprising: receiving, at an interface of an edge router, a session request from a client node to access, during a session, an application server in a local network, the local network comprising a plurality of nodes other than the client node, the edge router being coupled between the client node and the local network; receiving, by the interface of the edge router, a client certificate from the client node, the client certificate having client information comprising a public key of the client node and having additional information specifying the application server; receiving, by the edge router, from the client node, a signature encrypted according to a private key of the client node; executing an authentication process using the client certificate, wherein the authentication process includes using the public key to verify the signature; retrieving, by the interface of the edge router the client information from the client certificate; and receiving, by the interface of the edge router, data packets from the client node and if the authentication process authenticates the client node, routing, by the edge router, the data packets to the application server specified by the client information in the client certificate, such that all data packets of the session received by the application server flow through the edge router. receiving, at an interface of an edge router, a session request from a client node to access, during a session, an application server in a local network, the local network comprising a plurality of nodes other than the client node, the edge router being coupled between the client node and the local network; receiving, by the interface of the edge router, a client certificate from the client node, the client certificate having client information comprising a public key of the client node and having additional information specifying the application server; receiving, by the edge router, from the client node, a signature encrypted according to a private key of the client node; executing an authentication process using the client certificate, wherein the authentication process includes using the public key to verify the signature; retrieving, by the interface of the edge router the client information from the client certificate; and receiving, by the interface of the edge router, data packets from the client node and if the authentication process authenticates the client node, routing, by the edge router, the data packets to the application server specified by the client information in the client certificate, such that all data packets of the session received by the application server flow through the edge router.
A web for forming dunnage units, comprising: a first elongated layer; a second elongated layer superposed over the first elongated layer; a plurality of seals that hermetically join the first elongated layer to the second elongated layer to form a plurality of inflatable pouches and an inflation channel that is in fluid communication with pouches and is disposed outside of said pouches; wherein the pouches include a mouth portion and an elongated tube portion, and wherein a width of the elongated tube portion is wider than a width of the mouth portion; an inflation side line of perforations through the first and second layers, between at least one pair of adjacent pouches; a gap forming area defined in the first and second layers, between the at least one pair of adjacent pouches; an opposite side line of perforations through the first and second layers, between the at least one pair of adjacent pouches; wherein the inflation side line of perforations, the gap forming area, and the opposite side line of perforations are arranged in a line, characterized by the inflation side line of perforations has a length that extends from the inflation channel to the gap forming area, the gap forming area has a length that extends from the inflation side line of perforations to the opposite side line of perforations; and a length of the opposite side line of perforations is at least three times as long as the length of the gap forming area, and a start of the gap forming area is aligned with a transition from the width of the mouth portion to the width of the elongated tube portion of the pouch. a first elongated layer; a second elongated layer superposed over the first elongated layer; a plurality of seals that hermetically join the first elongated layer to the second elongated layer to form a plurality of inflatable pouches and an inflation channel that is in fluid communication with pouches and is disposed outside of said pouches; wherein the pouches include a mouth portion and an elongated tube portion, and wherein a width of the elongated tube portion is wider than a width of the mouth portion; an inflation side line of perforations through the first and second layers, between at least one pair of adjacent pouches; a gap forming area defined in the first and second layers, between the at least one pair of adjacent pouches; an opposite side line of perforations through the first and second layers, between the at least one pair of adjacent pouches; wherein the inflation side line of perforations, the gap forming area, and the opposite side line of perforations are arranged in a line, characterized by the inflation side line of perforations has a length that extends from the inflation channel to the gap forming area, the gap forming area has a length that extends from the inflation side line of perforations to the opposite side line of perforations; and a length of the opposite side line of perforations is at least three times as long as the length of the gap forming area, and a start of the gap forming area is aligned with a transition from the width of the mouth portion to the width of the elongated tube portion of the pouch.
A refrigerant cycle apparatus comprising: at least a compressor, a radiator, decompression means capable of changing an open degree, a heat absorber, an internal heat exchanger that performs heat exchange between a refrigerant at an outlet of the radiator and the refrigerant at an outlet of the heat absorber, wherein first temperature detection means for detecting a refrigerant temperature between an outlet of the compressor and an inlet of the radiator and second temperature detection means for detecting the refrigerant temperature between the outlet of the radiator and a high-pressure side inlet of the internal heat exchanger, third temperature detection means for detecting an inlet temperature of a medium to be heated and fourth temperature detection means for detecting an outlet temperature of the medium to be heated are provided, characterized in that an opening degree of the decompression means is controlled such that a difference (ΔT1 - ΔT2) between a second temperature difference (ΔT1) between a detection temperature by the first temperature detection means and the detection temperature by the fourth temperature detection means and a third temperature difference (ΔT2) between the detection temperature by the second temperature detection means and the detection temperature by the third temperature detection means becomes a target value. at least a compressor, a radiator, decompression means capable of changing an open degree, a heat absorber, an internal heat exchanger that performs heat exchange between a refrigerant at an outlet of the radiator and the refrigerant at an outlet of the heat absorber, wherein first temperature detection means for detecting a refrigerant temperature between an outlet of the compressor and an inlet of the radiator and second temperature detection means for detecting the refrigerant temperature between the outlet of the radiator and a high-pressure side inlet of the internal heat exchanger, third temperature detection means for detecting an inlet temperature of a medium to be heated and fourth temperature detection means for detecting an outlet temperature of the medium to be heated are provided, characterized in that an opening degree of the decompression means is controlled such that a difference (ΔT1 - ΔT2) between a second temperature difference (ΔT1) between a detection temperature by the first temperature detection means and the detection temperature by the fourth temperature detection means and a third temperature difference (ΔT2) between the detection temperature by the second temperature detection means and the detection temperature by the third temperature detection means becomes a target value.
A heavy duty pneumatic tire (32, 102, 232) comprising: a pair of beads (40, 240); a carcass ply (82, 282) having a ply main body (84, 284) that extends on and between one bead (40, 240) and the other bead (40, 240), and turned-up portions (86, 286) that are connected to the ply main body (84, 284) and turned around the beads (40, 240) from an inner side toward an outer side in an axial direction; and a pair of fillers (52, 252) that are located outward of the turned-up portions (86, 286) in the axial direction and that include metal cords, wherein each bead (40, 240) includes a core (64, 264), a first apex (70, 270) that surrounds the core (64, 264), and a second apex (72, 272) that is located outward of the first apex (70, 270) in the radial direction, an outer periphery of the first apex (70, 270) has a rounded contour, and the first apex (70, 270) has a higher durometer type A hardness than the second apex (72, 272), the first apex (70, 270) has a round shape; characterized in that in a radial direction, a first end (92, 292) of each filler (52, 252) is located inward of a bead base line, and a second end (94, 294) of each filler (52, 252) is located between an end of the turned-up portion (86, 286) and the bead base line. a pair of beads (40, 240); a carcass ply (82, 282) having a ply main body (84, 284) that extends on and between one bead (40, 240) and the other bead (40, 240), and turned-up portions (86, 286) that are connected to the ply main body (84, 284) and turned around the beads (40, 240) from an inner side toward an outer side in an axial direction; and a pair of fillers (52, 252) that are located outward of the turned-up portions (86, 286) in the axial direction and that include metal cords, wherein each bead (40, 240) includes a core (64, 264), a first apex (70, 270) that surrounds the core (64, 264), and a second apex (72, 272) that is located outward of the first apex (70, 270) in the radial direction, an outer periphery of the first apex (70, 270) has a rounded contour, and the first apex (70, 270) has a higher durometer type A hardness than the second apex (72, 272), the first apex (70, 270) has a round shape;
A comb device for assisting with the removal of head lice from hair, comprising: at least one comb (3, 3a, 3b) and a comb handle having a grip section configured to be held in a user's hand for manipulation and movement in use, and a receiver section configured to detachably receive one comb (3, 3a, 3b) in use; the comb handle and the at least one comb (3, 3a, 3b) being configured for detachable connection in use; characterised in that the at least one comb (3, 3a, 3b) comprises one comb with teeth with spacing of substantially 0.08mm, and one comb with teeth with spacing of substantially 0.09mm.
A tug for maneuvering a towed vessel, the tug comprising: - a dynamic positioning system, and - a tow equipment comprising a towline connected to the towed vessel, wherein the tow equipment is automatically controlled by the dynamic positioning system based on a plurality of input parameters, wherein the plurality of input parameters includes at least one of length of the towline, tension of the towline and direction of the towline; and - wherein the dynamic positioning system is adapted to receive information of the length of the towline, the tension of the towline or the direction of the towline from the tow equipment and wherein the dynamic positioning system is adapted to adjust the position of the tug to keep the tow equipment within an operation range of the tow equipment based on the received information of the length of the towline, the tension of the towline or the direction of the towline. - a dynamic positioning system, and - a tow equipment comprising a towline connected to the towed vessel, wherein the tow equipment is automatically controlled by the dynamic positioning system based on a plurality of input parameters, wherein the plurality of input parameters includes at least one of length of the towline, tension of the towline and direction of the towline; and - wherein the dynamic positioning system is adapted to receive information of the length of the towline, the tension of the towline or the direction of the towline from the tow equipment and wherein the dynamic positioning system is adapted to adjust the position of the tug to keep the tow equipment within an operation range of the tow equipment based on the received information of the length of the towline, the tension of the towline or the direction of the towline.
A microorganism modified to express a heterologous arsenite oxidase enzyme modified to prevent translocation to the periplasm, wherein the enzyme comprises the native AioA subunit from Rhizobium sp. NT-26, or a homologue that retains at least the functionality of SEQ ID NO. 4, and the native AioB subunit from Rhizobium sp. NT-26, or a homologue that retains at least the functionality of SEQ ID NO. 3, wherein a portion of the nucleotide sequence encoding the native AioB subunit corresponding to the translocation signal sequence, or a functional fragment of the translocation sequence, is modified, preferably wherein the microorganism is E. coli., preferably wherein the microorganism is E. coli. strain DH5α or JM109λ pir.
An isobaric process for the separation of Radon from a mixture of raw gases comprising mainly Carbon dioxide, wherein the process comprises: adsorption of Radon from the mixture of raw gases on an active carbon substrate produced from coconut shell - having mean granulometry of 3.5 mm, 450-550 kg/m 3 density, 1000-1200 m 2 /g superficial area - at a temperature of -10°C to 30°C so as to provide a purified mixture of gases; heating, or heating and washing the substrate with an inert washing fluid to desorb or detach Radon from the substrate at a temperature of 120°C to 180°C; and cooling the substrate prior to subsequent adsorption, wherein both adsorption and desorption of Radon are conducted at, substantially, atmospheric pressure. adsorption of Radon from the mixture of raw gases on an active carbon substrate produced from coconut shell - having mean granulometry of 3.5 mm, 450-550 kg/m 3 density, 1000-1200 m 2 /g superficial area - at a temperature of -10°C to 30°C so as to provide a purified mixture of gases; heating, or heating and washing the substrate with an inert washing fluid to desorb or detach Radon from the substrate at a temperature of 120°C to 180°C; and cooling the substrate prior to subsequent adsorption, wherein both adsorption and desorption of Radon are conducted at, substantially, atmospheric pressure.
A pharmaceutical composition comprising effective amounts of: a compound 1: 4-[(3-chloro-4-fluorophenyl)amino]-6-{[4-(N,N-dimethylamino)-1-oxo-2-buten-1-yl]amino}-7-( -tetrahydrofuran-3-yloxy)-quinazoline dimaleate; and at least a further chemotherapeutic agent 2 selected from the group consisting of docetaxel and paclitaxel; optionally in combination with one or more pharmaceutically acceptable excipients, and optionally adapted for a co-treatment with radiotherapy or radio-immunotherapy, in the form of a combined preparation for simultaneous, separate or sequential use. a compound 1: 4-[(3-chloro-4-fluorophenyl)amino]-6-{[4-(N,N-dimethylamino)-1-oxo-2-buten-1-yl]amino}-7-( -tetrahydrofuran-3-yloxy)-quinazoline dimaleate; and 4-[(3-chloro-4-fluorophenyl)amino]-6-{[4-(N,N-dimethylamino)-1-oxo-2-buten-1-yl]amino}-7-( -tetrahydrofuran-3-yloxy)-quinazoline dimaleate; and at least a further chemotherapeutic agent 2 selected from the group consisting of docetaxel and paclitaxel;
Use of a polylactic acid resin composition comprising a polylactic acid resin, a plasticizer, an organic crystal nucleating agent, and an inorganic material, wherein the content of the plasticizer is from 5 to 50 parts by mass based on 100 parts by mass of the polylactic acid resin as a vibration-damping material.
A sealing device for a paper-based container, comprising a release base member of an elongate shape having a separation line along a length of the release base member separating the release base member into a base piece and a pull strip; and a double-sided adhesive layer having a first adhesive piece and a second adhesive piece on two major sides of the double-sided adhesive layer, respectively; wherein the first adhesive piece is for adhering a major side of the release base member; the second adhesive piece is for adhering a front portion of a flap (3A, 3B) of the paper-based container; and, to apply the flap (3A, 3B) to seal the paper-based container, the base piece is removed from the release base member to reveal the first adhesive piece.
Method for continuously producing a multiaxial fabric web using at least one uniaxial fabric (4, 5) which is wound around a winding means for producing an essentially tube-like multiaxial fabric, characterized in that the at least one uniaxial fabric (4, 5) is at least partially flatly placed onto the winding means and continuously transported in a conveying direction by the latter, where following the winding means, the multiaxial fabric is stretched by means of a stretching means perpendicularly to the conveying direction and the stretching means consists of clamping means (9, 10) with deflection rollers by which the clamping elements (9, 10) are deflected.
Connecting device for a drive shaft with two interlocking parts, having a joint fork and a shank which engages with the joint fork, wherein the joint fork has a recess into which the shank is received, and the joint fork and the shank have a toothing system within the interlocking surface area of the joint fork and the shank, and wherein the toothing system of the joint fork is arranged substantially radially and the toothing system of the shank is arranged substantially axially, and wherein the toothing system of the joint fork is a thread, characterised in that the thread is a right-handed or left-handed inner thread.
A method of image-based analysis of multiple samples, the method comprising: using a sample holder having multiple locations of interest (16, 18) and multiple focal structures that are each associated one or more with the multiple locations of interest, wherein the multiple samples are dispersed across the multiple locations of interest; obtaining digital image areas of the multiple locations of interest, thereby obtaining multiple digital image areas for use in analysis of the multiple samples with each of the digital image areas including at least one of the locations of interest (16, 18) and at least one of the focal structures, wherein each digital image area is composite of a plurality of frames, each frame of which is a single line of pixels imaged by a line camera, wherein the plurality of frames is obtained whilst using rapid continuous focussing and moving the locations of interest relative to the line camera line, but without checking the focus via the focal structure for each frame; after obtaining multiple digital image areas, using an image processing algorithm to analyse each of the digital image areas and check if the focal structure indicates that the digital image area is in clear focus; and providing an indication and/or taking remedial action if the image processing algorithm indicates that any digital image areas are out of focus. using a sample holder having multiple locations of interest (16, 18) and multiple focal structures that are each associated one or more with the multiple locations of interest, wherein the multiple samples are dispersed across the multiple locations of interest; obtaining digital image areas of the multiple locations of interest, thereby obtaining multiple digital image areas for use in analysis of the multiple samples with each of the digital image areas including at least one of the locations of interest (16, 18) and at least one of the focal structures, wherein each digital image area is composite of a plurality of frames, each frame of which is a single line of pixels imaged by a line camera, wherein the plurality of frames is obtained whilst using rapid continuous focussing and moving the locations of interest relative to the line camera line, but without checking the focus via the focal structure for each frame; after obtaining multiple digital image areas, using an image processing algorithm to analyse each of the digital image areas and check if the focal structure indicates that the digital image area is in clear focus; and providing an indication and/or taking remedial action if the image processing algorithm indicates that any digital image areas are out of focus.