mhurhangee/patent-ind-claim-en huggingface dataset:
A monitoring device for monitoring an air cleaning system for determining when a particle filter of the air cleaning system needs cleaning or replacement, wherein the monitoring device comprises a remote monitoring device which is for application to the air cleaning system when a periodic monitoring function is to be performed and for removal from the air cleaning system between periodic monitoring functions, wherein the monitoring device comprises: a microphone adapted to capture sounds of the air cleaning system during use and generating microphone signals; the monitoring device being characterized in that it further comprises a processor adapted to process the microphone signals and for monitoring changes in the microphone signals over time; and an output device adapted to provide information relating to the filter status based on the evolution of the microphone signals. a microphone adapted to capture sounds of the air cleaning system during use and generating microphone signals; the monitoring device being characterized in that it further comprises a processor adapted to process the microphone signals and for monitoring changes in the microphone signals over time; and an output device adapted to provide information relating to the filter status based on the evolution of the microphone signals.
A scintillator, comprising a sintered body which has a volume of ≤ 1 mm 3 and includes - crystal grains having a crystal region of a rare earth oxysulfide of the formula (Gd 1-a-b Pr a M b ) 2 O 2 S, wherein M is at least one of Ce, Yb, Eu and Tb, a is a number satisfying 0.0001 ≤ a ≤ 0.01, and b is a number satisfying 0 ≤ b ≤ 0.005, the crystal grains having an average crystal grain diameter of 5-30 μm and a maximum diameter of ≤ 50 μm; and - a grain boundary between the crystal grains and having a polycrystal region of polycrystal bodies, each polycrystal body (i) has a composition different from that of the rare earth oxysulfide and (ii) contains iron and phosphorous, wherein the number of the polycrystal bodies is ≤ 200 per a unit area of 100 μm × 100 μm of a cross section of the sintered body. - crystal grains having a crystal region of a rare earth oxysulfide of the formula (Gd 1-a-b Pr a M b ) 2 O 2 S, wherein M is at least one of Ce, Yb, Eu and Tb, a is a number satisfying 0.0001 ≤ a ≤ 0.01, and b is a number satisfying 0 ≤ b ≤ 0.005, the crystal grains having an average crystal grain diameter of 5-30 μm and a maximum diameter of ≤ 50 μm; and - a grain boundary between the crystal grains and having a polycrystal region of polycrystal bodies, each polycrystal body (i) has a composition different from that of the rare earth oxysulfide and (ii) contains iron and phosphorous,
A method of magnetic resonance imaging, the method comprising: exposing a region of interest to a magnetic field; producing an anatomical planning image as a scan of the region of interest; analyzing the magnetic field for its homogeneity over the region of interest; based on the analysis of the magnetic field, producing a map of areas of the anatomical planning image of different degrees of homogeneity of the magnetic field; placing a spectroscopic single voxel within the region of interest based on the map at a location where the magnetic field has the greatest degree of homogeneity; calculating the size of the spectroscopic single voxel based on the size of a region of overlap between the area of the map where the homogeneity of the magnetic field is the greatest and a demarcated region of the anatomical planning image; and acquiring a spectrum of magnetic resonances from the region of interest confined to the spectroscopic single voxel. exposing a region of interest to a magnetic field; producing an anatomical planning image as a scan of the region of interest; analyzing the magnetic field for its homogeneity over the region of interest; based on the analysis of the magnetic field, producing a map of areas of the anatomical planning image of different degrees of homogeneity of the magnetic field; placing a spectroscopic single voxel within the region of interest based on the map at a location where the magnetic field has the greatest degree of homogeneity; calculating the size of the spectroscopic single voxel based on the size of a region of overlap between the area of the map where the homogeneity of the magnetic field is the greatest and a demarcated region of the anatomical planning image; and acquiring a spectrum of magnetic resonances from the region of interest confined to the spectroscopic single voxel.
An image recording device comprising: a laser irradiation device that emits laser lights output from a plurality of laser light emitting elements to different positions in a predetermined direction; and an image recording unit that controls the laser irradiation device to irradiate a recording object (RL) moving relative to the laser irradiation device in a direction different from the predetermined direction with laser so as to heat the recording object, form image dots, and record an image, characterized in that the image recording unit controls the laser irradiation device, conducts recording such that at least one of the image dots, recorded alongside at different positions in a direction perpendicular to a relative moving direction of the recording object, is shifted relative to other ones of the image dots in the relative moving direction, and records a solid image on the recording object such that the image dot is partially overlapped with all adjacent image dots. a laser irradiation device that emits laser lights output from a plurality of laser light emitting elements to different positions in a predetermined direction; and an image recording unit that controls the laser irradiation device to irradiate a recording object (RL) moving relative to the laser irradiation device in a direction different from the predetermined direction with laser so as to heat the recording object, form image dots, and record an image, characterized in that the image recording unit controls the laser irradiation device, conducts recording such that at least one of the image dots, recorded alongside at different positions in a direction perpendicular to a relative moving direction of the recording object, is shifted relative to other ones of the image dots in the relative moving direction, and records a solid image on the recording object such that the image dot is partially overlapped with all adjacent image dots. controls the laser irradiation device, conducts recording such that at least one of the image dots, recorded alongside at different positions in a direction perpendicular to a relative moving direction of the recording object, is shifted relative to other ones of the image dots in the relative moving direction, and records a solid image on the recording object such that the image dot is partially overlapped with all adjacent image dots.
A vehicle final drive unit (FDU), comprising: a final drive gearset driven by a driveline driveshaft ; a wet clutch activated to transmit rotation from said final drive gearset and to a driveline sideshaft , said wet clutch deactivated to cease transmission of rotation from said final drive gearset and to the driveline sideshaft , said wet clutch receiving thrown lubricant (L) via rotation of said final drive gearset ; an actuator activating and deactivating said wet clutch , said actuator including at least one plate , said at least one plate moving to an actuated position in which said wet clutch is activated, and said at least one plate moving to a deactuated position in which said wet clutch is deactivated; characterized in a brake including a braking component ; wherein, upon deactivation of said wet clutch and movement of said at least one plate to the deactuated position, said at least one plate prompts engagement of said braking component with said final drive gearset and rotation of said final drive gearset is precluded and said wet clutch no longer receives thrown lubricant (L) via said final drive gearset . a final drive gearset driven by a driveline driveshaft ; a wet clutch activated to transmit rotation from said final drive gearset and to a driveline sideshaft , said wet clutch deactivated to cease transmission of rotation from said final drive gearset and to the driveline sideshaft , said wet clutch receiving thrown lubricant (L) via rotation of said final drive gearset ; an actuator activating and deactivating said wet clutch , said actuator including at least one plate , said at least one plate moving to an actuated position in which said wet clutch is activated, and said at least one plate moving to a deactuated position in which said wet clutch is deactivated; characterized in a brake including a braking component ; wherein, upon deactivation of said wet clutch and movement of said at least one plate to the deactuated position, said at least one plate prompts engagement of said braking component with said final drive gearset and rotation of said final drive gearset is precluded and said wet clutch no longer receives thrown lubricant (L) via said final drive gearset .
A decoration element comprising: a light reflective layer , wherein the light reflective layer is a single layer or a multilayer of at least one of: a metal layer, a metal oxide layer, a metal nitride layer, and a metal oxynitride layer; and a light absorbing layer provided on the light reflective layer , wherein the light absorbing layer comprises Si, wherein the light absorbing layer is formed only with Si and does not comprise an oxide of Si or a nitride of Si. a light reflective layer , wherein the light reflective layer is a single layer or a multilayer of at least one of: a metal layer, a metal oxide layer, a metal nitride layer, and a metal oxynitride layer; and a light absorbing layer provided on the light reflective layer , wherein the light absorbing layer comprises Si, wherein the light absorbing layer is formed only with Si and does not comprise an oxide of Si or a nitride of Si.
A method, comprising: receiving, by a Representational State Transfer, REST, server from a client device , a request to access heterogeneous repositories communicatively connected to the REST server, the REST server having a processor and a non-transitory computer-readable medium; responsive to receiving the request from the client device, querying , by the REST server, a resource registry utilizing mapping information contained in the request, the mapping information including a resource defining repository scope; receiving, by the REST server from the resource registry, a set of resource registry tables containing resources matching the resource defining repository scope, the set of resource registry tables implementing a resource registry model, the resource registry model having a unified data structure specifying a set of fields, the set of resource registry tables generated at runtime by the resource registry utilizing REST service configuration parameters, the set of resource registry tables having the unified data structure and containing REST service configuration parameter values in the set of fields; evaluating, by the REST server, the set of resource registry tables iteratively until all the resources have been evaluated , the evaluating returning an evaluation result; and determining , by the REST server based at least in part on the evaluation result, whether to reject, accept, or redirect the request from the client device. receiving, by a Representational State Transfer, REST, server from a client device , a request to access heterogeneous repositories communicatively connected to the REST server, the REST server having a processor and a non-transitory computer-readable medium; responsive to receiving the request from the client device, querying , by the REST server, a resource registry utilizing mapping information contained in the request, the mapping information including a resource defining repository scope; receiving, by the REST server from the resource registry, a set of resource registry tables containing resources matching the resource defining repository scope, the set of resource registry tables implementing a resource registry model, the resource registry model having a unified data structure specifying a set of fields, the set of resource registry tables generated at runtime by the resource registry utilizing REST service configuration parameters, the set of resource registry tables having the unified data structure and containing REST service configuration parameter values in the set of fields; evaluating, by the REST server, the set of resource registry tables iteratively until all the resources have been evaluated , the evaluating returning an evaluation result; and determining , by the REST server based at least in part on the evaluation result, whether to reject, accept, or redirect the request from the client device.
A microring resonator control method, wherein the method comprises: receiving an instruction, wherein the instruction is used to configure an operating wavelength of a microring resonator, and the operating wavelength of the microring resonator is any specified channel wavelength in N channel wavelengths of a channel spectrum; determining whether the operating wavelength of the microring resonator is less than or equal to a center wavelength of the channel spectrum; and when the operating wavelength of the microring resonator is less than or equal to the center wavelength of the channel spectrum, configuring thermode power of the microring resonator based on a spacing between the operating wavelength and a first wavelength, wherein the first wavelength is a wavelength that is in resonant wavelengths of the microring resonator and that is less than and closest to a first channel wavelength of the channel spectrum; and when the operating wavelength of the microring resonator is greater than the center wavelength of the channel spectrum, configuring thermode power of the microring resonator based on a spacing between the operating wavelength and a second wavelength, wherein the second wavelength is a wavelength that is in resonant wavelengths of the microring resonator and that is greater than and closest to the first wavelength. receiving an instruction, wherein the instruction is used to configure an operating wavelength of a microring resonator, and the operating wavelength of the microring resonator is any specified channel wavelength in N channel wavelengths of a channel spectrum; determining whether the operating wavelength of the microring resonator is less than or equal to a center wavelength of the channel spectrum; and when the operating wavelength of the microring resonator is less than or equal to the center wavelength of the channel spectrum, configuring thermode power of the microring resonator based on a spacing between the operating wavelength and a first wavelength, wherein the first wavelength is a wavelength that is in resonant wavelengths of the microring resonator and that is less than and closest to a first channel wavelength of the channel spectrum; and when the operating wavelength of the microring resonator is greater than the center wavelength of the channel spectrum, configuring thermode power of the microring resonator based on a spacing between the operating wavelength and a second wavelength, wherein the second wavelength is a wavelength that is in resonant wavelengths of the microring resonator and that is greater than and closest to the first wavelength.
A swimming training apparatus, comprising: a drive mechanism driven with electricity, wherein said drive mechanism comprises a pump and a power distribution box ; and a pumping mechanism, wherein said drive mechanism and said pumping mechanism are disposed separately and spaced apart, and wherein said drive mechanism and said pumping mechanism are connected by a connection pipeline said pumping mechanism comprising a first pneumatic switch controlling the turning-on and turning-off of said pump , said pumping mechanism including a filter mechanism with a filter pump and a jet connector , said connection pipeline comprising a control pipeline , said first pneumatic switch being connected to said power distribution box by the control pipeline , said connection pipeline comprising an outlet pipe , wherein an inlet end of the outlet pipe is connected to said pump , and wherein an outlet end of the outlet pipe is connected to said jet connector , and said connection pipeline comprising an inlet pipe , wherein an inlet of the inlet pipe is connected to the filter mechanism, and an outlet of the inlet pipe is connected to said pump . a drive mechanism driven with electricity, wherein said drive mechanism comprises a pump and a power distribution box ; and a pumping mechanism, wherein said drive mechanism and said pumping mechanism are disposed separately and spaced apart, and wherein said drive mechanism and said pumping mechanism are connected by a connection pipeline said pumping mechanism comprising a first pneumatic switch controlling the turning-on and turning-off of said pump , said pumping mechanism including a filter mechanism with a filter pump and a jet connector , said connection pipeline comprising a control pipeline , said first pneumatic switch being connected to said power distribution box by the control pipeline , said connection pipeline comprising an outlet pipe , wherein an inlet end of the outlet pipe is connected to said pump , and wherein an outlet end of the outlet pipe is connected to said jet connector , and said connection pipeline comprising an inlet pipe , wherein an inlet of the inlet pipe is connected to the filter mechanism, and an outlet of the inlet pipe is connected to said pump .
Rebamipide for use in a method of prevention and/or treatment of Crohn's disease, wherein the method is a combination therapy with at least one other drug effective against Crohn's disease that comprises the following steps: - administering rebamipide as an add-on to a treatment with at least one other drug effective against Crohn's disease; and - decreasing the dose of said other drug after symptom improvement. - administering rebamipide as an add-on to a treatment with at least one other drug effective against Crohn's disease; and - decreasing the dose of said other drug after symptom improvement.
A rivet tape joining clip comprising an elongate body provided with a plurality of projections (10a-d, 310a-d, 410a-f) which extend from one side of the elongate body, wherein the projections are provided with laterally projecting lips ; and wherein the clip is provided with four projections, an inner pair of projections having a separation which is smaller than the separation between other projections. wherein the projections are provided with laterally projecting lips ; and wherein the clip is provided with four projections, an inner pair of projections having a separation which is smaller than the separation between other projections.
A communication device comprising: a metal chassis , wherein the metal chassis includes a metal back surface and at least a first metal edge surface and a second metal edge surface; a printed circuit board positioned within the metal chassis; and a hybrid cavity mode antenna , the hybrid cavity mode antenna including: a conductive wall defining at least a portion of a cavity , wherein the cavity is further defined by the metal back surface, the first metal edge surface, the second metal edge surface, the printed circuit board and the conductive wall and wherein the conductive wall includes a tuning circuit connecting the conductive wall to at least one of the first metal edge surface and the second metal edge surface; and an electrically-fed antenna configured to radiate a first radiofrequency signal in a first frequency range, wherein the electrically-fed antenna is electrically driven from the printed circuit board of the communication device, the electrically-fed antenna being positioned within the cavity to drive the cavity to radiate a second radiofrequency signal in a second frequency range. a metal chassis , wherein the metal chassis includes a metal back surface and at least a first metal edge surface and a second metal edge surface; a printed circuit board positioned within the metal chassis; and a hybrid cavity mode antenna , the hybrid cavity mode antenna including: a conductive wall defining at least a portion of a cavity , wherein the cavity is further defined by the metal back surface, the first metal edge surface, the second metal edge surface, the printed circuit board and the conductive wall and wherein the conductive wall includes a tuning circuit connecting the conductive wall to at least one of the first metal edge surface and the second metal edge surface; and an electrically-fed antenna configured to radiate a first radiofrequency signal in a first frequency range, wherein the electrically-fed antenna is electrically driven from the printed circuit board of the communication device, the electrically-fed antenna being positioned within the cavity to drive the cavity to radiate a second radiofrequency signal in a second frequency range. a conductive wall defining at least a portion of a cavity , wherein the cavity is further defined by the metal back surface, the first metal edge surface, the second metal edge surface, the printed circuit board and the conductive wall and wherein the conductive wall includes a tuning circuit connecting the conductive wall to at least one of the first metal edge surface and the second metal edge surface; and an electrically-fed antenna configured to radiate a first radiofrequency signal in a first frequency range, wherein the electrically-fed antenna is electrically driven from the printed circuit board of the communication device, the electrically-fed antenna being positioned within the cavity to drive the cavity to radiate a second radiofrequency signal in a second frequency range.
A method for wireless communications by a base station, BS, wherein synchronization signals are transmitted over symbols to a user equipment, UE, comprising: selecting frequency resources to use for transmitting synchronization signals in symbols of a frame, wherein the frequency resources are selected based on a mapping of frequency resources to locations of the symbols within the frame; and transmitting the synchronization signals to at least one UE according to the mapping. selecting frequency resources to use for transmitting synchronization signals in symbols of a frame, wherein the frequency resources are selected based on a mapping of frequency resources to locations of the symbols within the frame; and transmitting the synchronization signals to at least one UE according to the mapping.