mhurhangee/ep-ind-claims huggingface dataset:
A power control system comprising: a power supply controller adapted to provide initial-configuration data and receive fault-monitoring data, a first portion of said initial-configuration data including set-point data and a second portion of said initial-configuration data including limit data; a serial data bus connected to said power supply controller to communicate said initial configuration data and fault-monitoring data; and at least one point-of-load ("POL") regulator (220, 230, 240, 250) connected to said data bus to receive said initial configuration data from the power supply controller and send said fault-monitoring data to the power supply controller, and adapted to produce an output voltage in accordance with said first portion of said initial-configuration data and provide the output voltage to a corresponding load, said at least one POL regulator being adapted to be coupled to the corresponding load, and comprising: at least one sensor circuit for sensing a characteristic of said at least one POL regulator; a storage device adapted to store said initial-configuration data and data on said sensed characteristic; and a control unit adapted to provide at least a portion of said fault-monitoring data to said power supply controller and to disable said at least one POL regulator if said data on said sensed characteristic violates said limit data, said fault-monitoring data including a notice that said at least one POL regulator has been disabled. a power supply controller adapted to provide initial-configuration data and receive fault-monitoring data, a first portion of said initial-configuration data including set-point data and a second portion of said initial-configuration data including limit data; a serial data bus connected to said power supply controller to communicate said initial configuration data and fault-monitoring data; and at least one point-of-load ("POL") regulator (220, 230, 240, 250) connected to said data bus to receive said initial configuration data from the power supply controller and send said fault-monitoring data to the power supply controller, and adapted to produce an output voltage in accordance with said first portion of said initial-configuration data and provide the output voltage to a corresponding load, at least one sensor circuit for sensing a characteristic of said at least one POL regulator; a storage device adapted to store said initial-configuration data and data on said sensed characteristic; and a control unit adapted to provide at least a portion of said fault-monitoring data to said power supply controller and to disable said at least one POL regulator if said data on said sensed characteristic violates said limit data, said fault-monitoring data including a notice that said at least one POL regulator has been disabled.
An electrolytic vessel for refining metals and configured to be lifted by a lifting device, the electrolytic vessel comprising: a core shaped to hold an electrolytic liquid, the core comprising: a core base for contacting the floor, and four core walls extending upwardly from peripheral edges of the core base; the electrolytic vessel being characterized in that it further comprises: at least one anchor assembly (2, 20a, 20b, 206, 210) which is at least partially embedded in each of two opposed core walls, each anchor assembly (2, 20a, 20b, 206, 210) comprising: an anchor (4, 4a, 4b) configured to provide anchorage to a lifting accessory of the lifting device; and a strap (6, 6a, 6b) connected to the anchor (4, 4a, 4b) and extending from the anchor (4, 4a, 4b) along and inside at least a portion of the corresponding core wall. a core shaped to hold an electrolytic liquid, the core comprising: a core base for contacting the floor, and four core walls extending upwardly from peripheral edges of the core base; the electrolytic vessel being characterized in that it further comprises: a core base for contacting the floor, and four core walls extending upwardly from peripheral edges of the core base; the electrolytic vessel being characterized in that it further comprises: at least one anchor assembly (2, 20a, 20b, 206, 210) which is at least partially embedded in each of two opposed core walls, each anchor assembly (2, 20a, 20b, 206, 210) comprising: an anchor (4, 4a, 4b) configured to provide anchorage to a lifting accessory of the lifting device; and a strap (6, 6a, 6b) connected to the anchor (4, 4a, 4b) and extending from the anchor (4, 4a, 4b) along and inside at least a portion of the corresponding core wall. an anchor (4, 4a, 4b) configured to provide anchorage to a lifting accessory of the lifting device; and a strap (6, 6a, 6b) connected to the anchor (4, 4a, 4b) and extending from the anchor (4, 4a, 4b) along and inside at least a portion of the corresponding core wall.
A compensation system for independently modifying a rotor blade pitch angle signal (β col) output by a centralised controller of a rotor blade control system for a rotor having a plurality of rotor blades, the compensation system comprising: first sensing means configured to measure a load (μ m) on a single rotor blade; and blade control means configured to: receive a rotor blade pitch angle signal (β col), common to all rotor blades, from the centralised controller of the rotor blade control system; and output a compensated rotor blade pitch angle signal (β dem), based upon the measured load (μ m) on said single rotor blade and the received rotor blade pitch angle signal (β col), to counteract blade load, both cyclic and non-cyclic, due to non-uniformity in a wind-field, including turbulence, incident upon said single rotor blade, wherein the blade control means comprises a first control means element, the first control means element determining the compensated rotor blade pitch angle signal (β col) by determining a modified blade load (μ mod) on the single rotor blade, the modifications to the measured load (μ m) to determine the modified load (μ mod) on the single rotor blade having the form of fictitious forces, the modified load (μ mod) compensating for the difference between a fixed origin reference frame of the rotor blade rotating with the rotor at constant rotational speed and a non-inertial reference frame of the single rotor blade. first sensing means configured to measure a load (μ m) on a single rotor blade; and blade control means configured to: receive a rotor blade pitch angle signal (β col), common to all rotor blades, from the centralised controller of the rotor blade control system; and output a compensated rotor blade pitch angle signal (β dem), based upon the measured load (μ m) on said single rotor blade and the received rotor blade pitch angle signal (β col), to counteract blade load, both cyclic and non-cyclic, due to non-uniformity in a wind-field, including turbulence, incident upon said single rotor blade, wherein the blade control means comprises a first control means element, the first control means element determining the compensated rotor blade pitch angle signal (β col) by determining a modified blade load (μ mod) on the single rotor blade, the modifications to the measured load (μ m) to determine the modified load (μ mod) on the single rotor blade having the form of fictitious forces, the modified load (μ mod) compensating for the difference between a fixed origin reference frame of the rotor blade rotating with the rotor at constant rotational speed and a non-inertial reference frame of the single rotor blade. receive a rotor blade pitch angle signal (β col), common to all rotor blades, from the centralised controller of the rotor blade control system; and output a compensated rotor blade pitch angle signal (β dem), based upon the measured load (μ m) on said single rotor blade and the received rotor blade pitch angle signal (β col), to counteract blade load, both cyclic and non-cyclic, due to non-uniformity in a wind-field, including turbulence, incident upon said single rotor blade,
A detector system comprising: • a light detector; • imaging optics; • a first set of filters, designed to pass wavelength of light in an emission band of a fluorescent material, positioned between the light detector and the imaging optics; characterized in that • an aperture is located at a front focal plane of the imaging optics, wherein a telecentric space is created between the light detector and the imaging optics, such that non-parallel axial rays from a plurality of field points emerge from the imaging optics parallel to each other and perpendicular to the first set of filters. • a light detector; • imaging optics; • a first set of filters, designed to pass wavelength of light in an emission band of a fluorescent material, positioned between the light detector and the imaging optics; • an aperture is located at a front focal plane of the imaging optics, wherein a telecentric space is created between the light detector and the imaging optics, such that non-parallel axial rays from a plurality of field points emerge from the imaging optics parallel to each other and perpendicular to the first set of filters.
A functional building material for windows and doors, which is a multi-layered structure comprising: a transparent glass substrate; and a low emissivity coating formed on a surface of the transparent glass substrate, wherein the low emissivity coating includes a lowermost barrier layer, a dielectric layer (130, 170), a low emissivity protective layer (140, 160), a low emissivity layer, and an uppermost protective layer, wherein the lowermost barrier layer is located at the lowermost portion of the low emissivity coating to contact the transparent glass substrate, and the uppermost protective layer is located at the uppermost portion at which the low emissivity coating is outwardly exposed, characterised in that the lowermost barrier layer is multi-layered to include a first layer contacting the transparent glass substrate and a second layer located on the upper part of the first layer, the first layer includes a metal or a composite metal, and the second layer includes one selected from the group consisting of a metal oxide, a metal nitride, a metal oxynitride, a composite metal oxide, a composite metal nitride, a composite metal oxynitride, and a combination thereof. a transparent glass substrate; and a low emissivity coating formed on a surface of the transparent glass substrate, wherein the low emissivity coating includes a lowermost barrier layer, a dielectric layer (130, 170), a low emissivity protective layer (140, 160), a low emissivity layer, and an uppermost protective layer, wherein the lowermost barrier layer is located at the lowermost portion of the low emissivity coating to contact the transparent glass substrate, and the uppermost protective layer is located at the uppermost portion at which the low emissivity coating is outwardly exposed, characterised in that the lowermost barrier layer is multi-layered to include a first layer contacting the transparent glass substrate and a second layer located on the upper part of the first layer, the first layer includes a metal or a composite metal, and the second layer includes one selected from the group consisting of a metal oxide, a metal nitride, a metal oxynitride, a composite metal oxide, a composite metal nitride, a composite metal oxynitride, and a combination thereof.
A method for generating an immobilized nucleic acid, comprising: a) delivering a first oligonucleotide of at least four nucleotides in length through a first microfluidic channel to a corresponding first area on a substrate, whereby the first oligonucleotide is attached to an oligonucleotide molecule immobilized in the first area to generate an extended oligonucleotide molecule, optionally wherein the first oligonucleotide comprises a first barcode sequence; b) delivering a second oligonucleotide of at least four nucleotides in length through a second microfluidic channel to a corresponding second area on the substrate, whereby the second oligonucleotide is attached to the extended oligonucleotide molecule to generate a further extended oligonucleotide molecule in an overlapping area between the first and second areas, optionally wherein the second oligonucleotide comprises a second barcode sequence; c) irradiating the substrate to render oligonucleotide molecules in one or more regions on the substrate available for oligonucleotide attachment, whereas oligonucleotide molecules in one or more other regions on the substrate are not available for oligonucleotide attachment; and d) attaching a third oligonucleotide of at least four nucleotides in length to the further extended oligonucleotide molecule to generate an immobilized nucleic acid on the substrate, optionally wherein the third oligonucleotide comprises a third barcode sequence and the immobilized nucleic acid comprises the first, second, and third barcode sequences. a) delivering a first oligonucleotide of at least four nucleotides in length through a first microfluidic channel to a corresponding first area on a substrate, whereby the first oligonucleotide is attached to an oligonucleotide molecule immobilized in the first area to generate an extended oligonucleotide molecule, optionally wherein the first oligonucleotide comprises a first barcode sequence; b) delivering a second oligonucleotide of at least four nucleotides in length through a second microfluidic channel to a corresponding second area on the substrate, whereby the second oligonucleotide is attached to the extended oligonucleotide molecule to generate a further extended oligonucleotide molecule in an overlapping area between the first and second areas, optionally wherein the second oligonucleotide comprises a second barcode sequence; c) irradiating the substrate to render oligonucleotide molecules in one or more regions on the substrate available for oligonucleotide attachment, whereas oligonucleotide molecules in one or more other regions on the substrate are not available for oligonucleotide attachment; and d) attaching a third oligonucleotide of at least four nucleotides in length to the further extended oligonucleotide molecule to generate an immobilized nucleic acid on the substrate, optionally wherein the third oligonucleotide comprises a third barcode sequence and the immobilized nucleic acid comprises the first, second, and third barcode sequences.
A packaged food concentrate in the form of a gel comprising, based on the weight of the total food concentrate without the packaging: • from 2 wt% to 15 wt% of NaCl, • water, • an effective amount of gelling agent, • from 5 wt% to 60 wt% of a liquid polyol, • non-gelatinised starch, wherein the gelling agent is present in an amount of from 0.1 to 20 wt%, based on the weight of the water and liquid polyol contents taken together. • from 2 wt% to 15 wt% of NaCl, • water, • an effective amount of gelling agent, • from 5 wt% to 60 wt% of a liquid polyol, • non-gelatinised starch,
A tepoxalin, a tepoxalin derivative or a RWJ20142 derivative for use in treating a subject having a cancer, wherein the treatment comprises: (a) identifying the presence or absence in a subject sample of one or more of the following: high ABCB1 mRNA expression levels, high ABCB1 protein expression levels and/or amplification of the ABCB1 locus; and (b) selecting tepoxalin, a tepoxalin derivative or a RWJ20142 derivative as a treatment for the subject if high ABCB1 mRNA expression levels, high ABCB1 protein expression levels and/or amplification of the ABCB1 locus is observed in the subject sample, thereby selecting a treatment for the subject having a cancer. (a) identifying the presence or absence in a subject sample of one or more of the following: high ABCB1 mRNA expression levels, high ABCB1 protein expression levels and/or amplification of the ABCB1 locus; and (b) selecting tepoxalin, a tepoxalin derivative or a RWJ20142 derivative as a treatment for the subject if high ABCB1 mRNA expression levels, high ABCB1 protein expression levels and/or amplification of the ABCB1 locus is observed in the subject sample, thereby selecting a treatment for the subject having a cancer.
A method for loading and replacing tools in machining centers provided with a mechanized tool magazine and with at least two movable tool-holding spindles (18, 20), which are laterally arranged side by side, are supported by a machining head that can move along at least one axis, and are capable of accessing said tool magazine, comprising the following steps: - picking up simutaneously the respective tools from said at least two tool-holding spindles (18, 20) and transferring them to a tool replacement area by means of a dedicated, automatic transfer device that is independent of said tool magazine, and - after the replacement of the tools with respective new tools in the transfer device, returning simultaneously the respective new tools to said at least two tool-holding spindles (18, 20) by means of said transfer device, said transfer device, at rest, being parked in a resting position such that it does not engage said tool replacement area, said transfer device comprising an articulated arm which has a distal portion which is adapted to rotate, under the control of first actuation means, about a pivot parallel to the axes of the spindles (18, 20), between a first position extended vertically downward, in which said tool-gripping means (52, 54) engage said tool replacement area, and a second horizontal position, in which said tool-gripping means (52, 54) face said spindles (18, 20). - picking up simutaneously the respective tools from said at least two tool-holding spindles (18, 20) and transferring them to a tool replacement area by means of a dedicated, automatic transfer device that is independent of said tool magazine, and - after the replacement of the tools with respective new tools in the transfer device, returning simultaneously the respective new tools to said at least two tool-holding spindles (18, 20) by means of said transfer device, said transfer device, at rest, being parked in a resting position such that it does not engage said tool replacement area, said transfer device comprising an articulated arm which has a distal portion which is adapted to rotate, under the control of first actuation means, about a pivot parallel to the axes of the spindles (18, 20), between a first position extended vertically downward, in which said tool-gripping means (52, 54) engage said tool replacement area, and a second horizontal position, in which said tool-gripping means (52, 54) face said spindles (18, 20).
A method for wireless communications, comprising: configuring a subset of a plurality of RF receiver chains coupled to respective antennas to receive in an omnidirectional manner, the subset comprising at least one RF receiver chain of the plurality of RF receiver chains; determining a first energy level of at least one signal received via the subset while the subset of RF receiver chains is configured to receive in the omnidirectional manner; configuring the plurality of RF receiver chains to directionally receive from a target device in response to the first energy level being equal to or greater than a first threshold energy level; determining a second energy level of the at least one signal received via the RF receiver chains while the RF receiver chains are configured to directionally receive from the target device; and generating data from the at least one signal in response to the second energy level being equal to or greater than a second threshold energy level, the second threshold energy level being greater than the first threshold energy level. configuring a subset of a plurality of RF receiver chains coupled to respective antennas to receive in an omnidirectional manner, the subset comprising at least one RF receiver chain of the plurality of RF receiver chains; determining a first energy level of at least one signal received via the subset while the subset of RF receiver chains is configured to receive in the omnidirectional manner; configuring the plurality of RF receiver chains to directionally receive from a target device in response to the first energy level being equal to or greater than a first threshold energy level; determining a second energy level of the at least one signal received via the RF receiver chains while the RF receiver chains are configured to directionally receive from the target device; and generating data from the at least one signal in response to the second energy level being equal to or greater than a second threshold energy level, the second threshold energy level being greater than the first threshold energy level.
An implantable medical device intended to be implanted into a atrial heart wall comprising successively an endocardium, a myocardium and a visceral pericardium, the device comprising: - a device body with a front face at its distal end; and - a means for anchoring the medical device to said heart wall (EC, MYO, PCV), wherein the means for anchoring includes a screw with a helix wire wound into a plurality of non-contiguous turns, the screw having a clamped end integral with the front face of the device body and a free end comprising a beveled end defined by at least one oblique surface, characterised in that the helix wire of the screw is a wire that is deformable in bending, and in that the screw comprises, at its free distal end, a terminal region whose helix wire bending stiffness is lower than in a proximal region of the turns of the screw, whereby, during a screwing into an atrial heart wall, once the visceral pericardium reached, the terminal region at the free distal end of the screw is deformed according to a non-helical geometry, without piercing of the visceral pericardium. - a device body with a front face at its distal end; and - a means for anchoring the medical device to said heart wall (EC, MYO, PCV), wherein the means for anchoring includes a screw with a helix wire wound into a plurality of non-contiguous turns, the screw having a clamped end integral with the front face of the device body and a free end comprising a beveled end defined by at least one oblique surface, characterised in that the helix wire of the screw is a wire that is deformable in bending, and in that the screw comprises, at its free distal end, a terminal region whose helix wire bending stiffness is lower than in a proximal region of the turns of the screw, whereby, during a screwing into an atrial heart wall, once the visceral pericardium reached, the terminal region at the free distal end of the screw is deformed according to a non-helical geometry, without piercing of the visceral pericardium.
Open container with swing lid which comprises: - a rectangular base platform; - posts at the corners of the base platform with corresponding corner pieces; - a pair of stiffening struts on the shorter sides of the base platform arranged between the base platform and the posts at the corners of the shorter sides; - a strut between the pair of posts on one of the longer sides of the base platform and close to the base platform; - a swing lid structure, with a hollow semi-cylindrical configuration, hinged to the strut; and, - at least one hydraulic cylinder to operate the swing lid structure, so that with the swing lid structure in its open position, one of the longer sides and the roof of the container remain open, the handling of the merchandise to be transported being facilitated through said longer side or through the roof. - a rectangular base platform; - posts at the corners of the base platform with corresponding corner pieces; - a pair of stiffening struts on the shorter sides of the base platform arranged between the base platform and the posts at the corners of the shorter sides; - a strut between the pair of posts on one of the longer sides of the base platform and close to the base platform; - a swing lid structure, with a hollow semi-cylindrical configuration, hinged to the strut; and, - at least one hydraulic cylinder to operate the swing lid structure, so that with the swing lid structure in its open position, one of the longer sides and the roof of the container remain open, the handling of the merchandise to be transported being facilitated through said longer side or through the roof.