mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a communication network operably connecting one or more devices (103, 104, 105a, 105b, 107); a memory; and one or more processing devices operably connected to the memory and the communication network, the one or more processing devices configured to: collect communication data transmitted and received on the communication network from the one more devices (103, 104, 105a, 105b, 107) and record the communication data in the memory; analyze the collected communication data stored in the memory to diagnose if communication data has been local looping or lost between the one or more devices (103, 104, 105a, 105b, 107), wherein, the communication data has been local looping in the communication network when a last sequence number or a lower sequence number for a data packet has been same for three or more data packets, and wherein, the communication data has been lost between the one or more devices (103, 104, 105a, 105b, 107) when amount of lost data packets for all of the one or more devices (103, 104, 105a, 105b, 107) exceed a threshold. a communication network operably connecting one or more devices (103, 104, 105a, 105b, 107); a memory; and one or more processing devices operably connected to the memory and the communication network, the one or more processing devices configured to: collect communication data transmitted and received on the communication network from the one more devices (103, 104, 105a, 105b, 107) and record the communication data in the memory; analyze the collected communication data stored in the memory to diagnose if communication data has been local looping or lost between the one or more devices (103, 104, 105a, 105b, 107), wherein, the communication data has been local looping in the communication network when a last sequence number or a lower sequence number for a data packet has been same for three or more data packets, and wherein, the communication data has been lost between the one or more devices (103, 104, 105a, 105b, 107) when amount of lost data packets for all of the one or more devices (103, 104, 105a, 105b, 107) exceed a threshold. collect communication data transmitted and received on the communication network from the one more devices (103, 104, 105a, 105b, 107) and record the communication data in the memory; analyze the collected communication data stored in the memory to diagnose if communication data has been local looping or lost between the one or more devices (103, 104, 105a, 105b, 107), wherein, the communication data has been local looping in the communication network when a last sequence number or a lower sequence number for a data packet has been same for three or more data packets, and wherein, the communication data has been lost between the one or more devices (103, 104, 105a, 105b, 107) when amount of lost data packets for all of the one or more devices (103, 104, 105a, 105b, 107) exceed a threshold.
An electrode for a rechargeable battery, comprising a current collector and an electrode active material layer, wherein the electrode comprises an electrolyte solution impregnation layer, which includes a metal oxide and a conductive material, wherein two electrode active material layers are provided, namely a first electrode active material layer and a second electrode active material layer, wherein the electrolyte solution impregnation layer is arranged between the first electrode active material layer and the second electrode active material layer, and wherein the first electrode active material layer is positioned on the current collector, characterized in that the conductive material is included in the electrolyte solution impregnation layer in an amount of 5 parts by weight to 10 parts by weight, based on 100 parts by weight of the metal oxide.
A protection management method in an archival storage cluster of a redundant array of a plurality of independent nodes networked together, each node of the plurality of nodes being configured to execute a protection manager instance, wherein the protection manager instance is an application that provides data protection management for object-based storage, the protection management method comprising: - grouping the plurality of nodes (502, 504, 506, 510, 512, 514), for each data protection level of a set of more than one data protection levels, into more than one protection sets (500, 508), wherein each given protection set of the more than one protection sets (500, 508) is a set of n nodes for the given data protection level with n referring to the configurable data protection level DPL, and, at the time of creation, the given protection set is closed in the sense that each then available node is a member of one, and only one, protection set of the more than one protection sets (500, 508); and - storing, when a given data object is to be stored within the archival storage cluster, the data object in a node of a given protection set a nd then constraining a distribution of copies (505b, 505c) of the data object to other nodes (502, 506) within the same protection set such that all DPL copies of the data object are stored within the same protection set, and only that protection set. - grouping the plurality of nodes (502, 504, 506, 510, 512, 514), for each data protection level of a set of more than one data protection levels, into more than one protection sets (500, 508), wherein each given protection set of the more than one protection sets (500, 508) is a set of n nodes for the given data protection level with n referring to the configurable data protection level DPL, and, at the time of creation, the given protection set is closed in the sense that each then available node is a member of one, and only one, protection set of the more than one protection sets (500, 508); and - storing, when a given data object is to be stored within the archival storage cluster, the data object in a node of a given protection set a nd then constraining a distribution of copies (505b, 505c) of the data object to other nodes (502, 506) within the same protection set such that all DPL copies of the data object are stored within the same protection set, and only that protection set.
A computer-implemented method for sensorless rotor unbalance monitoring, comprising: measuring, by a processing unit, instantaneous speed of a generator rotor based on an electrical waveform from the generator; extracting a speed flutter from the electrical waveform, the speed flutter representing a time-based distortion of the electrical waveform; and quantifying a magnitude of generator rotor unbalance proportional to the speed flutter; characterisd in that: the extracting of the speed flutter utilizes at least one of direct comparative analysis and frequency demodulation, and frequency demodulation may be utilized when the electrical waveform frequency is equal to or greater than four times a rotational frequency of the generator rotor. measuring, by a processing unit, instantaneous speed of a generator rotor based on an electrical waveform from the generator; extracting a speed flutter from the electrical waveform, the speed flutter representing a time-based distortion of the electrical waveform; and quantifying a magnitude of generator rotor unbalance proportional to the speed flutter; characterisd in that: the extracting of the speed flutter utilizes at least one of direct comparative analysis and frequency demodulation, and frequency demodulation may be utilized when the electrical waveform frequency is equal to or greater than four times a rotational frequency of the generator rotor. the extracting of the speed flutter utilizes at least one of direct comparative analysis and frequency demodulation, and frequency demodulation may be utilized when the electrical waveform frequency is equal to or greater than four times a rotational frequency of the generator rotor.
A method in a wireless device operating in a 3GPP based wireless communication network configured for time-division duplexing, TDD, operation, said method including receiving downlink control information, DCI, via an Enhanced Physical Downlink Control Channel, ePDCCH, in a downlink subframe, the received ePDCCH scheduling a downlink shared channel transmission to the wireless device or indicating a release of semi-persistent scheduling, SPS, to the wireless device, wherein the method further comprises: determining a resource index for a Physical Uplink Control Channel, PUCCH, resource based on the lowest enhanced Control Channel Element, eCCE, index of the DCI received via the ePDCCH, a device-specific offset value previously signaled to the wireless device via Radio Resource Control, RRC, signaling, and an index i, wherein the index i identifies the downlink subframe in a pre-determined set of one or more downlink subframes associated with an uplink subframe, wherein said determining is according to a formula that results in a sequential allocation of PUCCH resources in the uplink subframe with respect to the downlink subframes associated with the uplink subframe, for each of a plurality of sets of ePDCCH resources; and transmitting hybrid automatic-repeat-request, HARQ, feedback in the uplink subframe, using a PUCCH resource corresponding to the resource index. determining a resource index for a Physical Uplink Control Channel, PUCCH, resource based on the lowest enhanced Control Channel Element, eCCE, index of the DCI received via the ePDCCH, a device-specific offset value previously signaled to the wireless device via Radio Resource Control, RRC, signaling, and an index i, wherein the index i identifies the downlink subframe in a pre-determined set of one or more downlink subframes associated with an uplink subframe, wherein said determining is according to a formula that results in a sequential allocation of PUCCH resources in the uplink subframe with respect to the downlink subframes associated with the uplink subframe, for each of a plurality of sets of ePDCCH resources; and transmitting hybrid automatic-repeat-request, HARQ, feedback in the uplink subframe, using a PUCCH resource corresponding to the resource index.
A circuit for driving a load, the circuit comprising: output circuitry for connecting the circuit to the load, the output circuitry comprising one or more energy-storing components (L1, C1); switching circuitry (SW1, SW2) arranged to supply power from a power supply to the load by supplying a current through at least one of the energy-storing components of the output circuitry that resists a change in current, or applying a voltage across at least one of the energy-storing components of the output circuitry that resists a change in voltage; and control circuitry arranged to control the switching circuitry, to cause said current or voltage to oscillate between an upper envelope and a lower envelope; characterised by wherein the control circuitry is configured to modulate data into said current or voltage by shifting the upper envelope between at least a first amplitude level and a second amplitude level, and by shifting the lower envelope by the same amount in the same direction at the same time. output circuitry for connecting the circuit to the load, the output circuitry comprising one or more energy-storing components (L1, C1); switching circuitry (SW1, SW2) arranged to supply power from a power supply to the load by supplying a current through at least one of the energy-storing components of the output circuitry that resists a change in current, or applying a voltage across at least one of the energy-storing components of the output circuitry that resists a change in voltage; and control circuitry arranged to control the switching circuitry, to cause said current or voltage to oscillate between an upper envelope and a lower envelope; characterised by wherein the control circuitry is configured to modulate data into said current or voltage by shifting the upper envelope between at least a first amplitude level and a second amplitude level, and by shifting the lower envelope by the same amount in the same direction at the same time.
A method of installing a photovoltaic module on a roof of a building, the photovoltaic module comprising (a) a cathode and an anode for collecting an output power, the cathode and the anode being bus bars, (b) a glass substrate having the cathode at one end of one surface of the glass substrate and the anode at the opposite end of the one surface of glass substrate, (c) a plurality of cells juxtaposed at predetermined intervals between the cathode and the anode on the one surface of the glass substrate and formed of a semiconductor layer, and (d) resin formed on one surface of the glass substrate to encapsulate the semiconductor layer, the method characterized by the step of arranging the cathode side of the photovoltaic module to correspond to the ridge side of the building and the anode side of the photovoltaic module to correspond to the eaves side of the building so that the cathode is located at a higher position than the anode, wherein the photovoltaic module (i) is used as a roof panel mounted on an underlying member of the roof or (ii) is placed on a roof tile which is placed on an underlying member of the roof. (a) a cathode and an anode for collecting an output power, the cathode and the anode being bus bars, (b) a glass substrate having the cathode at one end of one surface of the glass substrate and the anode at the opposite end of the one surface of glass substrate, (c) a plurality of cells juxtaposed at predetermined intervals between the cathode and the anode on the one surface of the glass substrate and formed of a semiconductor layer, and (d) resin formed on one surface of the glass substrate to encapsulate the semiconductor layer, (i) is used as a roof panel mounted on an underlying member of the roof or (ii) is placed on a roof tile which is placed on an underlying member of the roof.
A peptoid compound having a molecular structural formula of: wherein n1 is greater than or equal to 3 and less than or equal to 10; n2 is greater than or equal to 3 and less than or equal to 10; and n1 and n2 are both natural numbers.
An image sensor comprising: a semiconductor substrate including a photosensitive element for accumulating charge in response to incident image light, wherein the semiconductor substrate includes a light-receiving surface positioned to receive the image light; a negative charge layer (127, 227, 427, 627) disposed proximate to the light-receiving surface of the semiconductor substrate to induce holes in an accumulation zone in the semiconductor substrate along the light-receiving surface; and a charge sinking layer (123, 223) disposed proximate to the negative charge layer, wherein the charge sinking layer is configured to conserve or increase an amount of negative charge in the negative charge layer, and wherein the negative charge layer is disposed between the semiconductor substrate and the charge sinking layer, characterized in that the negative charge layer includes hafnium-aluminum-oxide. a semiconductor substrate including a photosensitive element for accumulating charge in response to incident image light, wherein the semiconductor substrate includes a light-receiving surface positioned to receive the image light; a negative charge layer (127, 227, 427, 627) disposed proximate to the light-receiving surface of the semiconductor substrate to induce holes in an accumulation zone in the semiconductor substrate along the light-receiving surface; and a charge sinking layer (123, 223) disposed proximate to the negative charge layer, wherein the charge sinking layer is configured to conserve or increase an amount of negative charge in the negative charge layer, and wherein the negative charge layer is disposed between the semiconductor substrate and the charge sinking layer, characterized in that the negative charge layer includes hafnium-aluminum-oxide.
A Paenibacillus strain, which is selected from the group consisting of: a) strain Lu16774 deposited with DSMZ under Accession No. DSM 26969; b) strain Lu17007 deposited with DSMZ under Accession No. DSM 26970; and c) strain Lu17015 deposited with DSMZ under Accession No. DSM 26971. a) strain Lu16774 deposited with DSMZ under Accession No. DSM 26969; b) strain Lu17007 deposited with DSMZ under Accession No. DSM 26970; and c) strain Lu17015 deposited with DSMZ under Accession No. DSM 26971.
A method for processing a light-field image, comprising: acquiring a light-field image; acquiring an occlusion tag function of each unit image in the light-field image, and determining a cost function for offset estimation of each unit image according to intensity change information and gradient change information that are of each unit image in the light-field image and the occlusion tag function of each unit image; acquiring an offset of each unit image in the light-field image by using the cost function; and reconstructing a high-resolution light field by using the offset of each unit image. acquiring a light-field image; acquiring an occlusion tag function of each unit image in the light-field image, and determining a cost function for offset estimation of each unit image according to intensity change information and gradient change information that are of each unit image in the light-field image and the occlusion tag function of each unit image; acquiring an offset of each unit image in the light-field image by using the cost function; and reconstructing a high-resolution light field by using the offset of each unit image.
A negative electrode active material comprising: low crystalline artificial graphite; and an amorphous carbon coating layer formed on the low crystalline artificial graphite, wherein the low crystalline artificial graphite has an interplanar spacing (d 002) of a plane in a range of greater than 0.338 nm to less than 0.3396 nm and has a peak's full width at half-maximum (FWHM) in a range of 0.5° to 0.6°, as measured by X-ray diffraction, wherein the low crystalline artificial graphite is crystallized in the form of a meso carbon by sintering soft carbon at a temperature range of 2000°C to 2800°C, wherein the soft carbon is formed by carbonizing one or a mixed carbonaceous material of two or more selected from a polyvinyl alcohol, a polyvinyl chloride, a carboniferous pitch, a petroleum-based pitch, a mesophase pitch, and heavy oil, wherein the negative electrode active material has an I peak's full width at half-maximum (FWHM) in a range of 0.5° to 0.6° as measured by XRD and has an aspect ratio (a length on the major axis/a length on the minor axis) in a range of 0.1 to 1, wherein the negative electrode active material has a crystal orientation index with respect to an area ratio I /I in a range of 0.0261 to 0.0268, the area ratio being obtained by integrating XRD peaks, and wherein the negative electrode active material has a tap density in a range of 0.8 g/cc to 1 g/cc. low crystalline artificial graphite; and an amorphous carbon coating layer formed on the low crystalline artificial graphite, wherein the low crystalline artificial graphite has an interplanar spacing (d 002) of a plane in a range of greater than 0.338 nm to less than 0.3396 nm and has a peak's full width at half-maximum (FWHM) in a range of 0.5° to 0.6°, as measured by X-ray diffraction, wherein the low crystalline artificial graphite is crystallized in the form of a meso carbon by sintering soft carbon at a temperature range of 2000°C to 2800°C, wherein the soft carbon is formed by carbonizing one or a mixed carbonaceous material of two or more selected from a polyvinyl alcohol, a polyvinyl chloride, a carboniferous pitch, a petroleum-based pitch, a mesophase pitch, and heavy oil, wherein the negative electrode active material has an I peak's full width at half-maximum (FWHM) in a range of 0.5° to 0.6° as measured by XRD and has an aspect ratio (a length on the major axis/a length on the minor axis) in a range of 0.1 to 1, wherein the negative electrode active material has a crystal orientation index with respect to an area ratio I /I in a range of 0.0261 to 0.0268, the area ratio being obtained by integrating XRD peaks, and wherein the negative electrode active material has a tap density in a range of 0.8 g/cc to 1 g/cc.
A system (100,300,400,500) for accessing a location within a body, the system comprising: an elongate member having a proximal end, a distal end, and two lumens extending therebetween, wherein the elongate member includes an external surface, an internal surface that surrounds the two lumens, and a thickness of material extending between the external and internal surfaces; a first illumination device associated with a first of the two lumens, wherein a portion of the first illumination device extends into the thickness of material and the remaining portion of the first illumination device protrudes into the first of the two lumens; a second illumination device associated with the second of the two lumens, wherein a portion of the second illumination device extends into the thickness of material and the remaining portion of the second illumination device protrudes into the second of the two lumens, and an imaging device having a first portion extending into the thickness of material, a second portion protruding into the first of the two lumens, and a third potion protruding into the second of the two lumens. an elongate member having a proximal end, a distal end, and two lumens extending therebetween, wherein the elongate member includes an external surface, an internal surface that surrounds the two lumens, and a thickness of material extending between the external and internal surfaces; a first illumination device associated with a first of the two lumens, wherein a portion of the first illumination device extends into the thickness of material and the remaining portion of the first illumination device protrudes into the first of the two lumens; a second illumination device associated with the second of the two lumens, wherein a portion of the second illumination device extends into the thickness of material and the remaining portion of the second illumination device protrudes into the second of the two lumens, and an imaging device having a first portion extending into the thickness of material, a second portion protruding into the first of the two lumens, and a third potion protruding into the second of the two lumens.
A conveyance device, comprising: a conveyance belt having a conveyance surface with a joint, the conveyance belt to convey an object to be conveyed, with the object on the conveyance surface; characterized by further comprising: a guide to approach the conveyance surface and guide the object from or to the conveyance belt; and a rotator to contact the conveyance surface, the guide to displace in a direction perpendicular to the conveyance surface, in conjunction with displacement of the rotator when the rotator contacts the joint. a conveyance belt having a conveyance surface with a joint, the conveyance belt to convey an object to be conveyed, with the object on the conveyance surface; characterized by further comprising: a guide to approach the conveyance surface and guide the object from or to the conveyance belt; and a rotator to contact the conveyance surface, the guide to displace in a direction perpendicular to the conveyance surface, in conjunction with displacement of the rotator when the rotator contacts the joint. a guide to approach the conveyance surface and guide the object from or to the conveyance belt; and a rotator to contact the conveyance surface, the guide to displace in a direction perpendicular to the conveyance surface, in conjunction with displacement of the rotator when the rotator contacts the joint.
A composition comprising (i) a polypeptide having at least 55%, 60%, 65%, 70%, 75%, 80%, 85%, 90%, 95%, 99% or 100% identity to the full length amino acid sequence set forth in SEQ ID N°2 and exhibiting both an arabinofuranosidase activity and a β-xylosidase activity, and (ii) at least a xylanase.