mhurhangee/ep-ind-claims huggingface dataset:
A method for diagnosing a domesticated dog for obesity or a predisposition to obesity comprising: measuring from a biological sample that has been obtained from the dog the level of a gut population of both Eubacterium tenue and Clostridium hiranonis, and determining that the domesticated dog is obese or has a predisposition to obesity if the level for the selected bacteria is below a pre-determined threshold, and determining that the domesticated dog is not obese or does not have a predisposition to obesity if the level for the selected bacteria is above a pre-determined threshold, wherein the pre-determined threshold is calculated by measuring the expression level or DNA copy number presence of a specific bacterial species from a control sample that has been obtained from a domesticated dog or a group thereof not qualified as being obese or lean. measuring from a biological sample that has been obtained from the dog the level of a gut population of both Eubacterium tenue and Clostridium hiranonis, and determining that the domesticated dog is obese or has a predisposition to obesity if the level for the selected bacteria is below a pre-determined threshold, and determining that the domesticated dog is not obese or does not have a predisposition to obesity if the level for the selected bacteria is above a pre-determined threshold, wherein the pre-determined threshold is calculated by measuring the expression level or DNA copy number presence of a specific bacterial species from a control sample that has been obtained from a domesticated dog or a group thereof not qualified as being obese or lean.
A tissue expansion device, the device comprising: (a) an expandable compartment adapted for implanting in a body of a subject; and (b) a compressed gas source operably communicating with said expandable compartment for inflation thereof by transfer of a gas thereto, characterized in that said compressed gas source is positioned completely within said expandable compartment. (a) an expandable compartment adapted for implanting in a body of a subject; and (b) a compressed gas source operably communicating with said expandable compartment for inflation thereof by transfer of a gas thereto,
A power generating apparatus of a renewable energy type for generating electric power using renewable energy, comprising: a blade; a hub to which the blade is mounted; a main shaft connected to the hub so as to rotate with the hub; a generator configured to be driven by rotation of the main shaft; a turning unit comprising: a driving source configured to output a rotational torque for rotating the main shaft; and a switching system provided between the driving source and the main shaft and configured to switch a state of the main shaft between: a turning state for turning the main shaft by transmission of the rotational torque from the driving source to the main shaft; and a non-turning state for disabling the transmission of the rotational torque between the driving source and the main shaft. the power generating apparatus being characterized in that it further comprises: a turning disk provided on the main shaft, the turning disk having a larger diameter than the main shaft; and a reduction gear (206, 208, 210) provided between the turning disk and the switching system, wherein, in the turning state, the rotational torque outputted from the driving source is transmitted to the turning disk via the reduction gear (206, 208, 210) so as to rotate the main shaft. a blade; a hub to which the blade is mounted; a main shaft connected to the hub so as to rotate with the hub; a generator configured to be driven by rotation of the main shaft; a turning unit comprising: a driving source configured to output a rotational torque for rotating the main shaft; and a switching system provided between the driving source and the main shaft and configured to switch a state of the main shaft between: a turning state for turning the main shaft by transmission of the rotational torque from the driving source to the main shaft; and a non-turning state for disabling the transmission of the rotational torque between the driving source and the main shaft. a driving source configured to output a rotational torque for rotating the main shaft; and a switching system provided between the driving source and the main shaft and configured to switch a state of the main shaft between: a turning state for turning the main shaft by transmission of the rotational torque from the driving source to the main shaft; and a non-turning state for disabling the transmission of the rotational torque between the driving source and the main shaft. the power generating apparatus being characterized in that it further comprises: a turning disk provided on the main shaft, the turning disk having a larger diameter than the main shaft; and a reduction gear (206, 208, 210) provided between the turning disk and the switching system, a turning disk provided on the main shaft, the turning disk having a larger diameter than the main shaft; and a reduction gear (206, 208, 210) provided between the turning disk and the switching system, wherein, in the turning state, the rotational torque outputted from the driving source is transmitted to the turning disk via the reduction gear (206, 208, 210) so as to rotate the main shaft.
A method of wireless communication, comprising: determining, at a network entity, a synchronization channel raster corresponding to a set of frequencies; and transmitting, from the network entity, one or more synchronization signals and a physical broadcast channel, PBCH, in a frequency of the set of frequencies of the synchronization channel raster to at least one user equipment, UE, wherein a master information block, MIB, of the PBCH includes a first portion of bits indicating a common control subband for carrying minimum system information block, MSIB, scheduling information, wherein the common control subband corresponds to a common search space physical downlink control channel, PDCCH, wherein the MSIB scheduling information includes at least one of a location information corresponding to a frequency of the set of frequencies of the synchronization channel raster where the one or more synchronization signals are transmitted, a numerology, and a bandwidth. determining, at a network entity, a synchronization channel raster corresponding to a set of frequencies; and transmitting, from the network entity, one or more synchronization signals and a physical broadcast channel, PBCH, in a frequency of the set of frequencies of the synchronization channel raster to at least one user equipment, UE, wherein a master information block, MIB, of the PBCH includes a first portion of bits indicating a common control subband for carrying minimum system information block, MSIB, scheduling information, wherein the common control subband corresponds to a common search space physical downlink control channel, PDCCH, wherein the MSIB scheduling information includes at least one of a location information corresponding to a frequency of the set of frequencies of the synchronization channel raster where the one or more synchronization signals are transmitted, a numerology, and a bandwidth.
Hydrogen generating arrangement for generating hydrogen, which is used to operate a fuel cell, from hydrocarbon fuel, wherein the arrangement comprises a fuel reformer which is suitable for reforming hydrocarbon fuel to a hydrogen rich gas comprising at least hydrogen, carbon monoxide, and possibly unconverted fuel compounds characterized in that the arrangement further comprises a molten salt reactor which is arranged in connection with the fuel reformer and is designed as a container comprising molten salt, wherein the container has an inlet for supplying the hydrogen rich gas produced by the fuel reformer to the molten salt contained in the molten salt reactor, whereby the molten salt contained in the molten salt reactor is suitable for reacting with the unconverted fuel compounds and carbon monoxide, and wherein the molten salt reactor container has an outlet for removing hydrogen rich gas from the molten salt reactor, wherein the hydrogen rich gas removed from the molten salt reactor has a lower amount of carbon monoxide and unconverted fuel compounds compared with the hydrogen rich gas supplied from the fuel reformer to the molten salt reactor.
A method for network virtualization, comprising; providing, by a datacenter having physical and/or virtual resources, a number of virtual tenant datacenters, tDatacenters, each tDatacenter being isolated from other tDatacenters, associating a tenant virtual local area network, T-VLAN, (226, 228, 682) to each of the number of tDatacenters; and associating a value of an end-to-end invariant network virtual local area network, VLAN, identification, VID, label, T-VID, to a particular T-VLAN (226, 228, 682); the method being characterised by: modifying a network packet associated with the particular T-VLAN (226, 228, 682) at an edge network boundary to include the T-VID based on an end-node tMAC address and the particular T-VLAN (226, 228, 682) to which the end-node tMAC address corresponds, wherein the T-VID is configured to have more than 4096 possible values. providing, by a datacenter having physical and/or virtual resources, a number of virtual tenant datacenters, tDatacenters, each tDatacenter being isolated from other tDatacenters, associating a tenant virtual local area network, T-VLAN, (226, 228, 682) to each of the number of tDatacenters; and associating a value of an end-to-end invariant network virtual local area network, VLAN, identification, VID, label, T-VID, to a particular T-VLAN (226, 228, 682); the method being characterised by: modifying a network packet associated with the particular T-VLAN (226, 228, 682) at an edge network boundary to include the T-VID based on an end-node tMAC address and the particular T-VLAN (226, 228, 682) to which the end-node tMAC address corresponds, wherein the T-VID is configured to have more than 4096 possible values. modifying a network packet associated with the particular T-VLAN (226, 228, 682) at an edge network boundary to include the T-VID based on an end-node tMAC address and the particular T-VLAN (226, 228, 682) to which the end-node tMAC address corresponds, wherein the T-VID is configured to have more than 4096 possible values.
An osteochondral interface repair implant (5, 12, 17, 21) for implantation within an osteochondral lesion, comprising a biocompatible three-dimensional fiber scaffold constructed of at least three layers of woven fibers formed of a biocompatible material and adapted to allow integration of tissue from the cartilage (6, 8, 18, 19) surface and bone (7, 20) surface upon implantation, characterized in that each of the woven fibers comprise a plurality of yarns, the yarns adapted to be molded to conform to the shape of the osteochondral lesion and then locked into a stable physical conformation by using controlled heating to reorganize the molecular state of the material that makes up the yarns, wherein the three-dimensional fiber scaffold is a three-dimensional warp interlock fabric in which the at least three layers of woven fibers includes a series of in-plane warp (X-direction) fibers filled with weft fibers (Y-direction) and the scaffold includes Z-direction binding fibers, wherein in the upper two layers of the at least three layers of woven fibers the density of the Z-direction binding fibers is increased in relation to the density of the Z-direction binding fibers in the others of the at least three layers of woven fibers, and wherein in the upper two layers of the at least three layers of woven fibers the spacing between the weft fibers is decreased in relation to the spacing between the weft fibers in the others of the at least three layers. wherein the three-dimensional fiber scaffold is a three-dimensional warp interlock fabric in which the at least three layers of woven fibers includes a series of in-plane warp (X-direction) fibers filled with weft fibers (Y-direction) and the scaffold includes Z-direction binding fibers, wherein in the upper two layers of the at least three layers of woven fibers the density of the Z-direction binding fibers is increased in relation to the density of the Z-direction binding fibers in the others of the at least three layers of woven fibers, and wherein in the upper two layers of the at least three layers of woven fibers the spacing between the weft fibers is decreased in relation to the spacing between the weft fibers in the others of the at least three layers.
A laundry detergent or cleaning composition which comprises an alkoxylated polyalkanolamine polymer, obtainable by a process comprising the steps of: a) condensation of at least one compound selected from the group consisting of triethanolamine, triisopropanolamine and tributan-2-olamine, b) reacting at least a part of the remaining hydroxy groups of the polyether provided in step a) with at least one alkylene oxide selected from epoxyethane and/or epoxypropane. a) condensation of at least one compound selected from the group consisting of triethanolamine, triisopropanolamine and tributan-2-olamine, b) reacting at least a part of the remaining hydroxy groups of the polyether provided in step a) with at least one alkylene oxide selected from epoxyethane and/or epoxypropane.
A method for controlling the operation of a set of inductors of an induction cooking hob, said inductors being distributed in a two-dimensional matrix in a cooking plane of said induction cooking hob, and each inductor being powered by a power supply device with an inverter, said inductors forming means for heating a container and means for detecting the presence of a container, said method comprising at least the following steps: - detecting at least one initial heating zone (Z1, Z2) formed of a subset of inductors covered at least partially by a container; - detecting at least one movement of at least one container associated with an initial heating zone (Z1, Z2) with respect to said cooking plane; - searching for at least one new heating zone formed of a subset of inductors covered at least partially by an object; - detecting at least one new heating zone formed of a subset of inductors covered at least partially by an object, wherein said inductors are not assigned to at least one initial heating zone (Z1, Z2); - indicating said at least one new heating zone formed of a subset of inductors covered at least partially by an object; and - confirming the declaration of said object associated with a new heating zone, characterized in that if at least one new heating zone is detected in a period of time less than a predetermined duration value from the moment of detection of at least one movement of at least one container associated with an initial heating zone, wherein said inductors of said at least one detected new heating zone are not assigned to at least one initial heating zone (Z1, Z2), then said step of confirming the declaration is to be executed in such a way that said detected object in the location of said new heating zone is taken into consideration as a container to be heated, and in that after said step of searching for at least one new heating zone formed of a subset of inductors covered at least partially by an object, if a new heating zone formed of a subset of inductors covered at least partially by an object is detected within a period of time longer than said predetermined duration value, wherein said inductors are not assigned to at least one initial heating zone that had not moved, then a step of activating said new heating zone is implemented with at least one identical operating parameter as said initial heating zone that had moved. - detecting at least one initial heating zone (Z1, Z2) formed of a subset of inductors covered at least partially by a container; - detecting at least one movement of at least one container associated with an initial heating zone (Z1, Z2) with respect to said cooking plane; - searching for at least one new heating zone formed of a subset of inductors covered at least partially by an object; - detecting at least one new heating zone formed of a subset of inductors covered at least partially by an object, wherein said inductors are not assigned to at least one initial heating zone (Z1, Z2); - indicating said at least one new heating zone formed of a subset of inductors covered at least partially by an object; and - confirming the declaration of said object associated with a new heating zone,
A battery installation structure for electric vehicles in which a battery pack is located between a pair of side members fixed to both sides of a vehicle body and extending in an anteroposterior direction of the vehicle body, and the battery pack is fixed to the side members through a plurality of battery cross members (4, 5, 6) extending in a width direction of the vehicle body, characterized in that: the battery pack includes a case and a cover, the battery cross members (4, 5, 6) include a battery cross member upper having an inverted substantially U-shaped section and a plate-like battery cross member lower (5, 6) that is fixed to a lower face of the battery cross member upper, the battery pack is placed on a battery tray that is mounted on the battery cross member lower, and the battery cross member lower is connected to the side members through the battery cross member upper so that a space permitting deformation of the battery tray is created between the battery cross member upper and the case. the battery pack includes a case and a cover, the battery cross members (4, 5, 6) include a battery cross member upper having an inverted substantially U-shaped section and a plate-like battery cross member lower (5, 6) that is fixed to a lower face of the battery cross member upper, the battery pack is placed on a battery tray that is mounted on the battery cross member lower, and the battery cross member lower is connected to the side members through the battery cross member upper so that a space permitting deformation of the battery tray is created between the battery cross member upper and the case.
A system comprising: (a) a plurality of structural-color tags, generating a distinct spectral response in a specified spectral range, said distinct spectral response including at least one characteristic spectral feature; (b) a spectral imaging system for capturing a dataset of at least. 5 spectrally-filtered digital images of a field of view; and (c) a processing system comprising at least one processor, said processing system being configured to process a dataset of spectrally-filtered digital images from said spectral imaging system so as to: (i) identify spatial pixels of said dataset having said characteristic spectral feature in said specified spectral range as spatial pixels corresponding to one of said tags; and (ii) process spectral data from said dataset for said tag to derive information relating to said tag. (a) a plurality of structural-color tags, generating a distinct spectral response in a specified spectral range, said distinct spectral response including at least one characteristic spectral feature; (b) a spectral imaging system for capturing a dataset of at least. 5 spectrally-filtered digital images of a field of view; and (c) a processing system comprising at least one processor, said processing system being configured to process a dataset of spectrally-filtered digital images from said spectral imaging system so as to: (i) identify spatial pixels of said dataset having said characteristic spectral feature in said specified spectral range as spatial pixels corresponding to one of said tags; and (ii) process spectral data from said dataset for said tag to derive information relating to said tag. (i) identify spatial pixels of said dataset having said characteristic spectral feature in said specified spectral range as spatial pixels corresponding to one of said tags; and (ii) process spectral data from said dataset for said tag to derive information relating to said tag.
A method of processing object-based audio signals for reproduction through a playback system, comprising: receiving a plurality of object-based audio signals, each object-based audio signal of the object-based audio signals including audio waveform data and object metadata associated with the audio waveform data, the object metadata including at least one of a loudness parameter or a power parameter associated with the audio waveform data; determining a loudness metric based on the received object-based audio signals and based on said at least one of the loudness parameter or the power parameter for each object-based audio signal of the received object-based audio signals; and rendering the received object-based audio signals to a set of output signals based on the determined loudness metric; characterized in that the loudness metric is determined further based on, for each object-based audio signal of the received object-based audio signals, positional data of the object-based audio signal with respect to a reception point, wherein the reception point is an assumed point in a 3D space or an actual location of a listener within a 3D space. receiving a plurality of object-based audio signals, each object-based audio signal of the object-based audio signals including audio waveform data and object metadata associated with the audio waveform data, the object metadata including at least one of a loudness parameter or a power parameter associated with the audio waveform data; determining a loudness metric based on the received object-based audio signals and based on said at least one of the loudness parameter or the power parameter for each object-based audio signal of the received object-based audio signals; and rendering the received object-based audio signals to a set of output signals based on the determined loudness metric; characterized in that the loudness metric is determined further based on, for each object-based audio signal of the received object-based audio signals, positional data of the object-based audio signal with respect to a reception point, wherein the reception point is an assumed point in a 3D space or an actual location of a listener within a 3D space.