mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a node in an ad hoc network, comprising the node (N1-N5) autonomously starting a procedure for joining (44; 441-450) a cluster or a procedure for initiating (43; 431-435) a cluster (C1,C2) in an ad hoc network, wherein a plurality of autonomous nodes (N1-N5) are able to self-organize themselves into one-hop clusters of autonomous nodes, each cluster (C1,C2) comprising a collection of autonomous nodes (N1-N3; N4-N5) which are capable of one-hop communication directly with each other, the node (N1-N5) autonomously performing an intra-cluster temporal synchronization of sleep and awake periods of the node with sleep and awake periods of other autonomous nodes in a power-saving mode of operation within the own one-hop cluster (C1,C2) based on synchronization messages periodically broadcast by the autonomous nodes within the one-hop cluster (C1,C2), the node (N1-N5) autonomously accessing a communication medium using a contention mechanism during the awake periods of the node, characterized by the node (N1-N5) autonomously and selectively assuming, when appropriate, a routing function to a neighboring cluster so as to self-organize the clusters (C1,C2) of autonomous nodes into a multi-hop ad hoc network comprised of individual one-hop clusters (C1,C2) of autonomous nodes, wherein the selectively assuming the routing function comprises setting up a routing partnership with a node in a neighboring cluster which becomes the partnering router, and broadcasting a notification of setting up of the routing partnership in the own cluster, the node (N1-N5) performing, when the routing function is assumed, inter-cluster data routing between the own one-hop cluster and the neighboring one-hop cluster (C1,C2), and the node (N1-N5) autonomously performing, when the routing function is assumed, an inter-cluster synchronization of awake periods of the own one-hop cluster (C1,C2) and the neighboring one-hop cluster to be temporally non-overlapping, wherein said inter-cluster synchronization comprises detecting, when the routing node function is assumed, an intra-cluster synchronization of the neighboring cluster (C1,C2), and adjusting, when the routing node function is assumed, the intra-cluster synchronization of the own cluster dependent on the detected intra-cluster synchronization of the neighboring cluster (C1,C2).
A current sensor, comprising: a silicon substrate having a surface; a magnetic field transducer disposed over said surface of said silicon substrate; a secondary conductor disposed over said surface of said silicon substrate proximate said magnetic field transducer wherein the secondary conductor is operable to generate a secondary magnetic field produced by a secondary current passing through said secondary conductor; a primary conductor disposed proximate said magnetic field transducer wherein the primary conductor is operable to generate a primary magnetic field produced by a primary current passing through said primary conductor, and wherein the secondary magnetic field is opposite in direction to the primary magnetic field; a dielectric layer disposed between said primary conductor and said silicon substrate, wherein said magnetic field transducer is responsive to the primary magnetic field and to the secondary magnetic field; and an amplifier coupled to said magnetic field transducer and to said secondary conductor, characterised in that the secondary conductor is disposed under or over the magnetic field transducer, and the amplifier is diffused into said surface of said silicon substrate. a silicon substrate having a surface; a magnetic field transducer disposed over said surface of said silicon substrate; a secondary conductor disposed over said surface of said silicon substrate proximate said magnetic field transducer wherein the secondary conductor is operable to generate a secondary magnetic field produced by a secondary current passing through said secondary conductor; a primary conductor disposed proximate said magnetic field transducer wherein the primary conductor is operable to generate a primary magnetic field produced by a primary current passing through said primary conductor, and wherein the secondary magnetic field is opposite in direction to the primary magnetic field; a dielectric layer disposed between said primary conductor and said silicon substrate, wherein said magnetic field transducer is responsive to the primary magnetic field and to the secondary magnetic field; and an amplifier coupled to said magnetic field transducer and to said secondary conductor, characterised in that the secondary conductor is disposed under or over the magnetic field transducer, and the amplifier is diffused into said surface of said silicon substrate.
An isolated anti-vascular endothelial growth factor (VEGF) antibody wherein the antibody comprises: an HVR-H1 comprising the amino acid sequence of SEQ ID NO:1; an HVR-H2 comprising the amino acid sequence of SEQ ID NO:2; an HVR-H3 comprising the amino acid sequence of SEQ ID NO:3 an HVR-L1 comprising the amino acid sequence of SEQ ID NO:4 or SEQ ID NO:5; an HVR-L2 comprising the amino acid sequence of SEQ ID NO:6; and an HVR-L3 comprising the amino acid sequence of SEQ ID NO:7. an HVR-H1 comprising the amino acid sequence of SEQ ID NO:1; an HVR-H2 comprising the amino acid sequence of SEQ ID NO:2; an HVR-H3 comprising the amino acid sequence of SEQ ID NO:3 an HVR-L1 comprising the amino acid sequence of SEQ ID NO:4 or SEQ ID NO:5; an HVR-L2 comprising the amino acid sequence of SEQ ID NO:6; and an HVR-L3 comprising the amino acid sequence of SEQ ID NO:7.
Device for a double hose assembly with an inner main hose and an outer cover hose defining an annular space intended to give the hose buoyancy in water, and where at least one end is provided with a coupling member forming a mount for the main hose and the cover hose and which at a free end merges into a threaded portion for connecting the hose assembly to an auxiliary connection, the coupling member comprising an inner coupling sleeve which is tightly connected to one end of the main hose and an outer coupling sleeve which is tightly connected to the cover hose, the inner and outer coupling sleeves being mutually connected to form a liquid tight termination of the annulus by means of a ring-shaped plate, characterized in that the ring-shaped plate is attached with a number of screws through holes only to the outer sleeve, the ring-shaped plate being forced against a shoulder of the inner coupling sleeve by a ring nut with internal threads that match external threads on the inner sleeve.
A solar panel, comprising: - a solar module with -- at least four electrical conductors (10a-10d), which are lead out of the solar module on a contact surface lying opposite the light-active surface of the solar module in the form of thin conductive strips, - an electrical inlet socket with -- an inlet socket arrangement element and -- an inlet socket contact apparatus with two conductor contacts (38a, 38b) and at least one diode, wherein two of the electrical conductors (10a, 10b) of the solar module are contacted respectively with an associated conductor contact (38a, 38b) of the inlet socket contact apparatus and wherein the two conductor contacts (38a, 38b) are electrically connected by means of the diode, - an electrical outlet socket, with -- an outlet socket arrangement element and -- an outlet socket contact apparatus with two conductor contacts (48a, 48b) and at least one diode, wherein two of the electrical conductors (10c, 10d) of the solar module are respectively contacted with an associated conductor contact (48a, 48b) of the outlet socket contact apparatus and wherein the two conductor contacts (48a, 48b) are electrically connected by means of the diode, wherein the inlet socket is spaced from the edge of the solar module by means of the inlet socket arrangement element and the outlet socket by means of the outlet socket arrangement element and are arranged spaced from each other on the solar module. - a solar module with -- at least four electrical conductors (10a-10d), which are lead out of the solar module on a contact surface lying opposite the light-active surface of the solar module in the form of thin conductive strips, -- at least four electrical conductors (10a-10d), which are lead out of the solar module on a contact surface lying opposite the light-active surface of the solar module in the form of thin conductive strips, - an electrical inlet socket with -- an inlet socket arrangement element and -- an inlet socket contact apparatus with two conductor contacts (38a, 38b) and at least one diode, wherein two of the electrical conductors (10a, 10b) of the solar module are contacted respectively with an associated conductor contact (38a, 38b) of the inlet socket contact apparatus and wherein the two conductor contacts (38a, 38b) are electrically connected by means of the diode, -- an inlet socket arrangement element and -- an inlet socket contact apparatus with two conductor contacts (38a, 38b) and at least one diode, - an electrical outlet socket, with -- an outlet socket arrangement element and -- an outlet socket contact apparatus with two conductor contacts (48a, 48b) and at least one diode, wherein two of the electrical conductors (10c, 10d) of the solar module are respectively contacted with an associated conductor contact (48a, 48b) of the outlet socket contact apparatus and wherein the two conductor contacts (48a, 48b) are electrically connected by means of the diode, -- an outlet socket arrangement element and -- an outlet socket contact apparatus with two conductor contacts (48a, 48b) and at least one diode,
A dispensing system for attaching to a packaging casing which contains a viscous or granular filling material, including: a dispensing device having a passageway extending through the dispensing device with an inlet opening at its one end and an outlet opening at its other end, for guiding and dispensing viscous or granular material contained in the packaging casing in a dispensing direction, wherein the dispensing device includes at least a first portion and a second portion, wherein the first portion extends from the inlet opening of the passageway in the dispensing direction and the second portion extends from the outlet opening opposite to the dispensing direction; and a dispensing cap having an attachment end and a dispensing end, which is reversibly attachable to the outlet opening of the dispensing device, by its attachment end, characterized in that the dispensing cap comprises at least one cutting element for opening the packaging casing at one of its ends which extends from the attachment end of the dispensing cap in a direction opposite to the dispensing direction. a dispensing device having a passageway extending through the dispensing device with an inlet opening at its one end and an outlet opening at its other end, for guiding and dispensing viscous or granular material contained in the packaging casing in a dispensing direction, wherein the dispensing device includes at least a first portion and a second portion, wherein the first portion extends from the inlet opening of the passageway in the dispensing direction and the second portion extends from the outlet opening opposite to the dispensing direction; and a dispensing cap having an attachment end and a dispensing end, which is reversibly attachable to the outlet opening of the dispensing device, by its attachment end, characterized in that the dispensing cap comprises at least one cutting element for opening the packaging casing at one of its ends which extends from the attachment end of the dispensing cap in a direction opposite to the dispensing direction.
A thermosetting composition comprising: I) a curable polyester resin; and II) a crosslinker composition comprising a resole phenolic resin, said phenolic resin containing the residues of meta-substituted phenols and optionally un-substituted phenol, wherein said curable polyester comprises a polyester having beta-ketoacetate moieties without vinyl unsaturation and wherein the resole resin is obtained with a phenol composition as starting material, said phenol composition comprising meta-substituted phenols. I) a curable polyester resin; and II) a crosslinker composition comprising a resole phenolic resin, said phenolic resin containing the residues of meta-substituted phenols and optionally un-substituted phenol,
A method of producing a thin-film photovoltaic device having a rear electrode including a transparent conductive rear layer comprising zinc oxide, and a light-reflective metallic layer comprising silver and provided in the rear of the conductive rear layer, said method comprising the steps of forming, on a substrate, a transparent front electrode, a thin-film photovoltaic conversion unit provided in the rear of said front electrode, and said conductive rear layer provided in the rear of said photovoltaic conversion unit; said method further comprising, in forming said light-reflective metallic layer, the steps of: forming a first plasma region comprising fine particles of zinc oxide and a second plasma region comprising fine particles of silver in a chamber by sputtering; and passing the substrate over said first and second plasma regions formed in said chamber to form a bonding layer comprising the zinc oxide and a light-reflective metallic layer comprising the silver, thereby providing said rear electrode comprising said transparent conductive rear layer, said bonding layer and said light-reflective metallic layer; where the sputtering for forming the first and the second plasma region is performed at a sputtering gas pressure of about 0.1 to about 0.27 Pa; and said transparent front electrode, thin-film photovoltaic conversion unit and transparent conductive rear layer are formed successively on the substrate, and then said substrate is passed first over said first plasma region and then over said second plasma region to form said bonding layer and said light-reflective metallic layer successively over said transparent conductive rear layer; characterized in that said transparent conductive rear layer is formed by sputtering a zinc oxide target, which may contain a dopant, at a substrate temperature of 150°C or more and a sputtering gas pressure of 1 Pa or more forming a first plasma region comprising fine particles of zinc oxide and a second plasma region comprising fine particles of silver in a chamber by sputtering; and passing the substrate over said first and second plasma regions formed in said chamber to form a bonding layer comprising the zinc oxide and a light-reflective metallic layer comprising the silver, thereby providing said rear electrode comprising said transparent conductive rear layer, said bonding layer and said light-reflective metallic layer; where the sputtering for forming the first and the second plasma region is performed at a sputtering gas pressure of about 0.1 to about 0.27 Pa; and said transparent front electrode, thin-film photovoltaic conversion unit and transparent conductive rear layer are formed successively on the substrate, and then said substrate is passed first over said first plasma region and then over said second plasma region to form said bonding layer and said light-reflective metallic layer successively over said transparent conductive rear layer; characterized in that said transparent conductive rear layer is formed by sputtering a zinc oxide target, which may contain a dopant, at a substrate temperature of 150°C or more and a sputtering gas pressure of 1 Pa or more
An apparatus for estimating a parameter of an induction motor including a current controller outputting d and q-axis voltages in a synchronous reference frame from d and q-axis current references and d and q-axis currents in the synchronous reference frame applied to the induction motor and a magnetic flux angle calculating unit calculating a magnetic flux angle by using d and q-axis currents in the synchronous reference frame applied to the induction motor and a rotor speed of the induction motor, in a control system, the apparatus comprising: a state estimator configured to calculate an error of rotor resistance upon receiving an output from the current controller and the d and q-axis currents in the synchronous reference frame applied to the induction motor; and an integral controller configured to obtain a difference between the rotor resistance output from the state estimator and nominal rotor resistance, characterised in that the apparatus further comprising: a calculating unit configured to calculate stator resistance from an output from the integral controller, wherein the calculating unit calculates stator resistance by using the following equation. R s = M i ds e − R ^ r + Δ R r _ comp L m 2 L r 2 R s = M i qs e − R ^ r + Δ R r _ comp L m 2 L r 2 wherein, R s is stator resistance, R r is rotor resistance, M = K I s i ds e ∗ − i ds e, N = K I s i qs e ∗ − i qs e, and Δ R r_comp are outputs from the integral controller, L m is inductance of the induction motor, and L r is rotor inductance. a state estimator configured to calculate an error of rotor resistance upon receiving an output from the current controller and the d and q-axis currents in the synchronous reference frame applied to the induction motor; and an integral controller configured to obtain a difference between the rotor resistance output from the state estimator and nominal rotor resistance, characterised in that the apparatus further comprising: a calculating unit configured to calculate stator resistance from an output from the integral controller, wherein the calculating unit calculates stator resistance by using the following equation. R s = M i ds e − R ^ r + Δ R r _ comp L m 2 L r 2 R s = M i qs e − R ^ r + Δ R r _ comp L m 2 L r 2 wherein, R s is stator resistance, R r is rotor resistance, M = K I s i ds e ∗ − i ds e, N = K I s i qs e ∗ − i qs e, and Δ R r_comp are outputs from the integral controller, L m is inductance of the induction motor, and L r is rotor inductance.
A load switch, comprising: a wireless transmission circuit configured to generate a first control signal in response to a control command signal from a remote device; a control circuit coupled to the wireless transmission circuit and configured to generate a second control signal in response to a reception of the first control signal from the wireless transmission circuit; a switching circuit coupled to the control circuit and comprising a relay disposed in a circuit, the switching circuit being configured to control a state of the circuit by controlling contacts of the relay in response to reception of the second control signal, characterized in that, the load switch further comprises a circuit state detecting circuit coupled to the circuit and the control circuit, and configured to obtain a value of voltage or current on the circuit and provide a signal regarding the state of the circuit, including a state of fusion welding of contacts of the relay, to the control circuit according to the obtained value of the voltage or current. a wireless transmission circuit configured to generate a first control signal in response to a control command signal from a remote device; a control circuit coupled to the wireless transmission circuit and configured to generate a second control signal in response to a reception of the first control signal from the wireless transmission circuit; a switching circuit coupled to the control circuit and comprising a relay disposed in a circuit, the switching circuit being configured to control a state of the circuit by controlling contacts of the relay in response to reception of the second control signal, characterized in that, the load switch further comprises a circuit state detecting circuit coupled to the circuit and the control circuit, and configured to obtain a value of voltage or current on the circuit and provide a signal regarding the state of the circuit, including a state of fusion welding of contacts of the relay, to the control circuit according to the obtained value of the voltage or current.
A light emitting device comprising: a light emitting structure comprising a first conductive semiconductor layer, an active layer under the first conductive semiconductor layer, and a second conductive semiconductor layer under the active layer; a first electrode electrically connected to the first conductive semiconductor layer, the first electrode disposed on the first conductive semiconductor layer; a second electrode electrically connected to the second conductive semiconductor layer, the second electrode connected to a bottom surface of the second conductive semiconductor layer; a channel layer surrounding a lower portion of the light emitting structure; a first conductive support member electrically connected to the second electrode and disposed under the second electrode; a second conductive support member electrically insulated from the first conductive support member and disposed under the second electrode; a first connection part electrically connected to the first electrode and the second conductive support member; and an insulating layer disposed between the second electrode and the second conductive support member, wherein the second conductive support member surrounds the first conductive support member, the insulating layer surrounds the channel layer, the first connection part contacts a lateral side of the first conductive semiconductor layer, and the first connection part is electrically connected to the second conductive support member passing through the insulating layer. a light emitting structure comprising a first conductive semiconductor layer, an active layer under the first conductive semiconductor layer, and a second conductive semiconductor layer under the active layer; a first electrode electrically connected to the first conductive semiconductor layer, the first electrode disposed on the first conductive semiconductor layer; a second electrode electrically connected to the second conductive semiconductor layer, the second electrode connected to a bottom surface of the second conductive semiconductor layer; a channel layer surrounding a lower portion of the light emitting structure; a first conductive support member electrically connected to the second electrode and disposed under the second electrode; a second conductive support member electrically insulated from the first conductive support member and disposed under the second electrode; a first connection part electrically connected to the first electrode and the second conductive support member; and an insulating layer disposed between the second electrode and the second conductive support member, wherein the second conductive support member surrounds the first conductive support member, the insulating layer surrounds the channel layer, the first connection part contacts a lateral side of the first conductive semiconductor layer, and the first connection part is electrically connected to the second conductive support member passing through the insulating layer.
A process for preparing N'-benzyl-5-methylisoxazole-3-carbohydrazide (Isocarboxazid), which comprises reacting 5- methyl-3-isoxazole carboxylic acid ester, wherein R is a C 1-4 alkyl, with benzylhydrazine or a salt thereof in an aprotic organic solvent and in the presence of an organic base, wherein the reaction is performed at a temperature below 50°C.