mhurhangee/ep-ind-claims huggingface dataset:
An intracorporeal device for delivery into a patient, characterised by said intracorporeal device having a proximal end adapted to be detachably coupled with a proximal transcatheter delivery device and a distal end adapted to be detachably coupled with a distal transcatheter delivery device, and further comprising an integrated expandable distal component, said distal component being able to be expanded from a delivery configuration to a working configuration, the delivery configuration being the configuration in which the intracorporeal device can be coupled to the delivery device, whereas in the working configuration, the intracorporeal device is detached from the delivery device.
An Unmanned Aerial Vehicle-kit, UAV-kit, for storage and control of at least one UAV, wherein the UAV-kit comprises: at least one UAV with a UAV head and a UAV tail; a control unit; a base unit including one compartment for each UAV and one bay for the control unit, the base unit being shaped to house the UAV(s) and the control unit; a stand-by connector (24, 48) inside each compartment housing the UAV(s) providing electric contact between the base unit and the respective UAV(s) when the UAV(s) is/are stored in the UAV-kit, wherein the respective stand-by connector (24, 48) when the associated UAV is placed in the UAV-kit is positioned in line with and in electrical contact with a corresponding second connector device mounted at the underside of the respective UAV; and one or more fastening device(s) for each UAV(s) inside the associated compartment(s) being adjusted to keep the UAV(s) firmly attached to the base unit, but still detachable from the base unit; characterized in that the control unit comprises: a control head and a handle for controlling the UAV(s) adjusted for one-hand operations, wherein the UAV(s) and the control unit when stored in the UAV-kit is/are stacked so that the UAV head(s) is/are placed side-by-side with the handle. at least one UAV with a UAV head and a UAV tail; a control unit; a base unit including one compartment for each UAV and one bay for the control unit, the base unit being shaped to house the UAV(s) and the control unit; a stand-by connector (24, 48) inside each compartment housing the UAV(s) providing electric contact between the base unit and the respective UAV(s) when the UAV(s) is/are stored in the UAV-kit, wherein the respective stand-by connector (24, 48) when the associated UAV is placed in the UAV-kit is positioned in line with and in electrical contact with a corresponding second connector device mounted at the underside of the respective UAV; and one or more fastening device(s) for each UAV(s) inside the associated compartment(s) being adjusted to keep the UAV(s) firmly attached to the base unit, but still detachable from the base unit; characterized in that the control unit comprises: a control head and a handle for controlling the UAV(s) adjusted for one-hand operations, wherein the UAV(s) and the control unit when stored in the UAV-kit is/are stacked so that the UAV head(s) is/are placed side-by-side with the handle. a control head and a handle for controlling the UAV(s) adjusted for one-hand operations, wherein the UAV(s) and the control unit when stored in the UAV-kit is/are stacked so that the UAV head(s) is/are placed side-by-side with the handle.
A battery heat exchange system, comprising a liquid feeding mechanism, a heat exchange mechanism and a liquid draining mechanism; wherein the liquid feeding mechanism provides a circulating liquid; the heat exchange mechanism is connected with the liquid feeding mechanism and comprises a plurality of heat exchange units and a plurality of connecting units; each heat exchange unit is used to heat or cool a corresponding battery module, and the plurality of connecting units are used to connect the heat exchange units together; the liquid draining mechanism is connected with the heat exchange mechanism, and the circulating liquid provided by the liquid feeding mechanism flows through the heat exchange mechanism and then is drained from the liquid draining mechanism; the heat exchange mechanism is divided into a plurality of heat exchange branches in parallel; characterized in that each heat exchange branch comprises some heat exchange units of the plurality of heat exchange units and some connecting units which connect the some heat exchange units together in series.
A cartridge comprising: a flavor source including a plurality of raw material pieces that impart flavor to an aerosol generated by a non-burning type flavor inhaler; a flavor source container accommodating the flavor source; and a mesh body provided on at least one end of the flavor source container, wherein the mesh body has a plurality of openings, wherein each of the plurality of openings has a polygon shape having an internal angle of 180° or less, wherein each of the plurality of openings has, as widths which pass through a center of gravity of each of the plurality of openings, a minimum width (Wmin) having a smallest width and a maximum width (Wmax) having a largest width, wherein the minimum width (Wmin) is smaller than a lower limit of the size of the plurality of raw material pieces, wherein the maximum width (Wmax) is larger than the minimum width (Wmin), wherein the flavor source container forms an aerosol flow path extending along a predetermined direction, and wherein a filter is provided on the downstream of the flavor source. a flavor source including a plurality of raw material pieces that impart flavor to an aerosol generated by a non-burning type flavor inhaler; a flavor source container accommodating the flavor source; and a mesh body provided on at least one end of the flavor source container, wherein the mesh body has a plurality of openings, wherein each of the plurality of openings has a polygon shape having an internal angle of 180° or less, wherein each of the plurality of openings has, as widths which pass through a center of gravity of each of the plurality of openings, a minimum width (Wmin) having a smallest width and a maximum width (Wmax) having a largest width, wherein the minimum width (Wmin) is smaller than a lower limit of the size of the plurality of raw material pieces, wherein the maximum width (Wmax) is larger than the minimum width (Wmin), wherein the flavor source container forms an aerosol flow path extending along a predetermined direction, and wherein a filter is provided on the downstream of the flavor source.
A method for recovering functionality of an application, the method comprising: receiving a request, by a network system, for recovery instructions from a device that is (i) remote from the network system and (ii) executing an application having a main portion and a recovery portion, the request generated by the recovery portion of the application and specifying a set of software packages affecting operation of the main portion of the application; identifying a received set of operational requests reflecting operation of the main portion of the application; comparing (i) the received operational requests and software packages from the requesting device to (ii) software packages and expected operational requests of a second device operating nominally; determining, based on the comparison, that one or more of the received set of operational requests is an abnormal operational request and identifying a set of one or more candidate software packages that may be causing the abnormal operational request; determining a set of recovery instructions for modifying the main portion of the application based, at least in part, on a selected one of the candidate software packages and a difference between (i) the set of received operational requests and (ii) the expected operational requests; and providing the set of recovery instructions to the device. receiving a request, by a network system, for recovery instructions from a device that is (i) remote from the network system and (ii) executing an application having a main portion and a recovery portion, the request generated by the recovery portion of the application and specifying a set of software packages affecting operation of the main portion of the application; identifying a received set of operational requests reflecting operation of the main portion of the application; comparing (i) the received operational requests and software packages from the requesting device to (ii) software packages and expected operational requests of a second device operating nominally; determining, based on the comparison, that one or more of the received set of operational requests is an abnormal operational request and identifying a set of one or more candidate software packages that may be causing the abnormal operational request; determining a set of recovery instructions for modifying the main portion of the application based, at least in part, on a selected one of the candidate software packages and a difference between (i) the set of received operational requests and (ii) the expected operational requests; and providing the set of recovery instructions to the device.
A mobile communication method, comprising: a step of a mobile switching center transmitting a handover request signal, via a gateway device, to a handover destination radio base station; characterised by a step of the handover destination radio base station determining, based on a radio base station group identification information included in the received handover request signal and the radio base station group identification information of the managed handover destination radio base station, whether the mobile station can access the handover destination radio base station. a step of a mobile switching center transmitting a handover request signal, via a gateway device, to a handover destination radio base station; characterised by a step of the handover destination radio base station determining, based on a radio base station group identification information included in the received handover request signal and the radio base station group identification information of the managed handover destination radio base station, whether the mobile station can access the handover destination radio base station.
An apparatus for analyzing touch events generated by users based on characterization of features derived from a touch event; the apparatus comprising: a touch sensitive screen having a surface for detecting a touch event generated from at least one user, said surface having at least two Z distinct Z touch regions (140, 150); at least one sensor generating a vibro-acoustic waveform signal from such touch event; a converter for converting the vibro-acoustic waveform signal by transforming from a time-domain representation into a frequency-domain representation to result in a domain signal; a feature extractor for extracting distinguishing features from said domain signal; and characterized in a plurality of classification units (128, 129) which use the distinguishing features extracted by said extractor to analyze the distinguishing features of the domain signal, a first one of the classification units associated with a first one of the touch regions and a second one of the classification units associated with a second one of touch regions, wherein the first classification unit is a full touch classifier and the second classification unit is an edge touch classifier, wherein the second distinct touch region comprises a region proximate to the edge of said touch sensitive screen and the first touch region comprises a region forming the central area of said touch sensitive screen, and wherein said first classification unit is employed only for the touch event being entirely within the first touch region and said second classification unit is employed for any portion of the touch event being in the second touch region. a touch sensitive screen having a surface for detecting a touch event generated from at least one user, said surface having at least two Z distinct Z touch regions (140, 150); at least one sensor generating a vibro-acoustic waveform signal from such touch event; a converter for converting the vibro-acoustic waveform signal by transforming from a time-domain representation into a frequency-domain representation to result in a domain signal; a feature extractor for extracting distinguishing features from said domain signal; and characterized in a plurality of classification units (128, 129) which use the distinguishing features extracted by said extractor to analyze the distinguishing features of the domain signal, a first one of the classification units associated with a first one of the touch regions and a second one of the classification units associated with a second one of touch regions, wherein the first classification unit is a full touch classifier and the second classification unit is an edge touch classifier, wherein the second distinct touch region comprises a region proximate to the edge of said touch sensitive screen and the first touch region comprises a region forming the central area of said touch sensitive screen, and wherein said first classification unit is employed only for the touch event being entirely within the first touch region and said second classification unit is employed for any portion of the touch event being in the second touch region.
Method for reducing excitation amplitudes affecting turbine blade durability in a turbine nozzle assembly having a plurality of vanes and turbine blades, comprising the steps of: identifying a turbine blade design of said turbine nozzle assembly; performing a modal model analysis of at least one of said turbine blades in said turbine blade design using a computer; ensuring that each of said turbine blades is free of aero-excitation from an upstream flow at said vanes in an operating speed range; identifying blade natural frequencies with respect to said vanes using said computer; characterised in that the method further comprises the steps of: determining at least one modification to a trailing edge (42, 44) of at least one of said vanes to reduce said excitation amplitudes, and modifying at least one of said vanes at said trailing edge (42, 44) according to the determination of the previous step; and - performing a CFD analysis to modify local pressure field by air bleed at nozzle vane trailing edge to prevent the building up of fluid energy extracted by the said blades; modifying a local pressure field by use of an air bleed flow proximate said trailing edge (42, 44) according to the CFD analysis of the previous step. identifying a turbine blade design of said turbine nozzle assembly; performing a modal model analysis of at least one of said turbine blades in said turbine blade design using a computer; ensuring that each of said turbine blades is free of aero-excitation from an upstream flow at said vanes in an operating speed range; identifying blade natural frequencies with respect to said vanes using said computer; characterised in that the method further comprises the steps of: determining at least one modification to a trailing edge (42, 44) of at least one of said vanes to reduce said excitation amplitudes, and modifying at least one of said vanes at said trailing edge (42, 44) according to the determination of the previous step; and - performing a CFD analysis to modify local pressure field by air bleed at nozzle vane trailing edge to prevent the building up of fluid energy extracted by the said blades; modifying a local pressure field by use of an air bleed flow proximate said trailing edge (42, 44) according to the CFD analysis of the previous step. determining at least one modification to a trailing edge (42, 44) of at least one of said vanes to reduce said excitation amplitudes, and modifying at least one of said vanes at said trailing edge (42, 44) according to the determination of the previous step; and - performing a CFD analysis to modify local pressure field by air bleed at nozzle vane trailing edge to prevent the building up of fluid energy extracted by the said blades; - performing a CFD analysis to modify local pressure field by air bleed at nozzle vane trailing edge to prevent the building up of fluid energy extracted by the said blades; modifying a local pressure field by use of an air bleed flow proximate said trailing edge (42, 44) according to the CFD analysis of the previous step.
A method of identifying a product comprises forming a tagged product by adding to said product a tracer material comprising at least one tracer compound and subsequently analysing a sample of said product to determine the presence of said tracer compound thereby to determine whether said sample is a sample of the tagged product, characterised in that said at least one tracer compound is acceptable for use as an additive in food, wherein the product comprises a bio-derived natural product comprising an oil, fat or alcohol derived from a vegetable or animal source, wherein the at least one tracer compound comprises a carbonyl compound and wherein said analysis is performed by chromatography.
A shower enclosure sliding door mechanism (1, 100, 200) including: a first member (33, 104) arranged to be provided on a door of a shower enclosure; and a second member arranged to be provided on a frame of the shower enclosure, the first and second members slidably engaged with each other such that a first bearing surface of the first member (33, 104) slidably engages a second bearing surface of the second member, wherein the first bearing surface is formed from a first low friction material and includes a pair of surfaces (37a, 37b) sloped towards a base region and a flat base, the sloped surfaces (37a, 37b) extending from either end of the flat base such that the first bearing surface is truncated V-shaped in cross section, and the second bearing surface is formed from a second low friction material and arranged to provide a channel within which the first bearing surface sits, such that a low friction interface is formed between the first member (33, 104) and the second member. a first member (33, 104) arranged to be provided on a door of a shower enclosure; and a second member arranged to be provided on a frame of the shower enclosure, the first and second members slidably engaged with each other such that a first bearing surface of the first member (33, 104) slidably engages a second bearing surface of the second member, wherein the first bearing surface is formed from a first low friction material and includes a pair of surfaces (37a, 37b) sloped towards a base region and a flat base, the sloped surfaces (37a, 37b) extending from either end of the flat base such that the first bearing surface is truncated V-shaped in cross section, and the second bearing surface is formed from a second low friction material and arranged to provide a channel within which the first bearing surface sits, such that a low friction interface is formed between the first member (33, 104) and the second member.
Method, for a long-range wide-area communication network comprising at least an electronic device and an application server, for acknowledging a frame transmitted by the electronic device and received by the application server, the method being executed by the electronic device and being characterized in that it comprises the steps of: - transmitting, to the application server, a first frame, the first frame comprising data, - receiving a second frame, referred to as an acknowledgement frame, from the application server, the acknowledgement frame comprising a second integrity code, the received second frame furthermore comprising a field comprising a counter referred to as a descending counter, - determining, depending on the data of the first frame, a first integrity code, the first integrity code being determined depending on the data of the first frame and on the descending-counter value received in the second frame, - if the first integrity code determined by the electronic device and the second integrity code are the same, then validating the acknowledgement by the application server of the first frame transmitted by the electronic device. - transmitting, to the application server, a first frame, the first frame comprising data, - receiving a second frame, referred to as an acknowledgement frame, from the application server, the acknowledgement frame comprising a second integrity code, the received second frame furthermore comprising a field comprising a counter referred to as a descending counter, - determining, depending on the data of the first frame, a first integrity code, the first integrity code being determined depending on the data of the first frame and on the descending-counter value received in the second frame, - if the first integrity code determined by the electronic device and the second integrity code are the same, then validating the acknowledgement by the application server of the first frame transmitted by the electronic device.
A display device comprising a light emitter comprising a set of light emitter portions (31,32,33), wherein at least one light emitter portion of the set is configured to emit light with an excitation wavelength, a color conversion layer comprising a set of conversion layer portions (21,22), wherein at least one conversion layer portion of the set comprises a film comprising a solid polymer composition, wherein the solid polymer composition comprises luminescent crystals wherein the luminescent crystals - are of perovskite structure - are selected from compounds of formula: CsPbX 3, X independently represents anions selected from the group consisting of Cl, Br, I, cyanide, and thiocyanate; - are of size between 3 nm and 3000 nm, - emit light of a wavelength in response to excitation by the light emitted by at least one corresponding light emitter portion of the set, wherein the excitation wavelength is shorter than the wavelength; and wherein the film has a thickness between 5 μm and 500 μm, wherein the concentration of crystals in said film is between 0,01 wt% and 0,5 wt%. - are of perovskite structure - are selected from compounds of formula: CsPbX 3, X independently represents anions selected from the group consisting of Cl, Br, I, cyanide, and thiocyanate; - are of size between 3 nm and 3000 nm, - emit light of a wavelength in response to excitation by the light emitted by at least one corresponding light emitter portion of the set, wherein the excitation wavelength is shorter than the wavelength; and - are of size between 3 nm and 3000 nm, - emit light of a wavelength in response to excitation by the light emitted by at least one corresponding light emitter portion of the set, wherein the excitation wavelength is shorter than the wavelength; and