mhurhangee/ep-ind-claims huggingface dataset:
A position detection system for a medical device that is inserted into a body of a subject, comprising: a magnetic induction coil installed in the medical device; and a magnetic sensor, disposed outside an operating region of the medical device, that is configured to detect induced magnetism generated by the magnetic induction coil, characterized by further comprising at least one driving coil, disposed outside the operating region of the medical device, that is configured to generate induced magnetism in the magnetic induction coil, wherein, when the medical device is disposed at individual positions in the operating region of the medical device, the at least one driving coil is configured to cause magnetism to act on the magnetic induction coil from three or more different directions, and among the three or more directions in which the magnetism acts, at least one of the directions is arranged to be a direction intersecting a plane formed by the other two directions. a magnetic induction coil installed in the medical device; and a magnetic sensor, disposed outside an operating region of the medical device, that is configured to detect induced magnetism generated by the magnetic induction coil, characterized by further comprising at least one driving coil, disposed outside the operating region of the medical device, that is configured to generate induced magnetism in the magnetic induction coil, wherein, when the medical device is disposed at individual positions in the operating region of the medical device, the at least one driving coil is configured to cause magnetism to act on the magnetic induction coil from three or more different directions, and among the three or more directions in which the magnetism acts, at least one of the directions is arranged to be a direction intersecting a plane formed by the other two directions.
A method of applying a pattern onto a web of indefinite length material comprising: applying a micro-contact printing stamp to a roll supported for rotation by at least one air bearing, wherein the roll comprises a sleeve positioned over a core and is supported for rotation by a layer of air provided by the at least one air bearing between the sleeve and core; contacting the roll with the web; and translating the web while in contact with the micro-contact printing stamp so as to repeatedly imprint a pattern onto the web. applying a micro-contact printing stamp to a roll supported for rotation by at least one air bearing, wherein the roll comprises a sleeve positioned over a core and is supported for rotation by a layer of air provided by the at least one air bearing between the sleeve and core; contacting the roll with the web; and translating the web while in contact with the micro-contact printing stamp so as to repeatedly imprint a pattern onto the web.
A vessel for towing another vessel, comprising a hull, a tow cable which is coupled to the hull, a hook having a first leg which is fixed to a free end of said tow cable, a second leg (8, 9) including a free end and a hook bottom (10, 11) where the first leg meets the second leg (8, 9) at a distance from the free end of the second leg (8, 9), hence forming an opening (12, 13) between the legs at the free end of the second leg (8, 9) for receiving a tow rope that is located at the vessel and launched from another vessel, wherein the first and second legs extend in a main plane, the vessel further comprising a hook support to which the hook is linkable, a rope positioning system for positioning a tow rope and the hook support with respect to each other such that the tow rope extends in transverse direction of the main plane at the opening (12, 13) of the hook when the hook is linked to the hook support, characterized in that the hook is a V-shaped hook and wherein the vessel comprises a rope pressing system for pressing a tow rope positioned at the opening (12, 13) of the hook towards the hook bottom (10, 11) when the hook is linked to the hook support, hence creating a clamping force between the legs and the tow rope under operating conditions.
A vacuum insulation member (10a, 10b) comprising: an envelope having gas impermeability and having a certain decompressed space therein; and a core (40, 70) including a plurality of laminated mesh members (41, 71) stacked on each other to support the envelope at an inner side of the envelope, wherein each of the mesh members (41, 71) comprises: a plurality of first wires (43, 73) disposed to be parallel to each other; a plurality of second wires (45, 75) disposed to be parallel to each other and crossing the first wires (43, 73); characterized in that it further comprises fixing parts (49, 79) for fixing the first wires (43, 73) and the second wires (45, 75), wherein the fixing parts (49, 79) are formed at a crossing of an end portion of each of the first wires (43, 73) and the second wires (45, 75), while other crossings are supported by frictional force between the respective wires (43, 45, 73, 75). an envelope having gas impermeability and having a certain decompressed space therein; and a core (40, 70) including a plurality of laminated mesh members (41, 71) stacked on each other to support the envelope at an inner side of the envelope, wherein each of the mesh members (41, 71) comprises: a plurality of first wires (43, 73) disposed to be parallel to each other; a plurality of second wires (45, 75) disposed to be parallel to each other and crossing the first wires (43, 73); characterized in that it further comprises fixing parts (49, 79) for fixing the first wires (43, 73) and the second wires (45, 75), a plurality of first wires (43, 73) disposed to be parallel to each other; a plurality of second wires (45, 75) disposed to be parallel to each other and crossing the first wires (43, 73); characterized in that it further comprises fixing parts (49, 79) for fixing the first wires (43, 73) and the second wires (45, 75), wherein the fixing parts (49, 79) are formed at a crossing of an end portion of each of the first wires (43, 73) and the second wires (45, 75), while other crossings are supported by frictional force between the respective wires (43, 45, 73, 75).
An insertion device for inserting a conduit into a body, the device comprising: a base plate; a lower housing disposed on a first surface of the base plate, the lower housing comprising a lower housing latch, at least one guide support, and a first channel through the lower housing; a guide for supporting at least a portion of a conduit while the device is in an open unactivated state in which a distal end of the conduit is not exposed, wherein the guide is movably engagable with the lower housing; a clamp movably attached to a first end of the lower housing; an upper housing seated on the clamp and movably engaged with the guide; a second channel in communication with the first channel; and wherein the clamp and the upper housing are movable upwardly and downwardly relative to the lower housing to permit closure of the clamp and upper housing on the lower housing; wherein the conduit is housed within the first and second channels and upon closure of the clamp and upper housing on the lower housing a distal portion of the conduit moves through the lower housing and exits an aperture in the lower housing to deploy the conduit; and wherein the clamp comprises at least one first component that releasably engages with the lower housing latch and a second component that non-releasably engages with the lower housing latch to lock the device once the conduit is deployed. a base plate; a lower housing disposed on a first surface of the base plate, the lower housing comprising a lower housing latch, at least one guide support, and a first channel through the lower housing; a guide for supporting at least a portion of a conduit while the device is in an open unactivated state in which a distal end of the conduit is not exposed, wherein the guide is movably engagable with the lower housing; a clamp movably attached to a first end of the lower housing; an upper housing seated on the clamp and movably engaged with the guide; a second channel in communication with the first channel; and wherein the clamp and the upper housing are movable upwardly and downwardly relative to the lower housing to permit closure of the clamp and upper housing on the lower housing; wherein the conduit is housed within the first and second channels and upon closure of the clamp and upper housing on the lower housing a distal portion of the conduit moves through the lower housing and exits an aperture in the lower housing to deploy the conduit; and wherein the clamp comprises at least one first component that releasably engages with the lower housing latch and a second component that non-releasably engages with the lower housing latch to lock the device once the conduit is deployed.
A method to provide network authentication information in a wireless network, the method comprising: receiving, by an access point, during network discovery and prior to authentication, a Generic Advertisement Service, GAS, request from a wireless terminal, the GAS request requesting network authentication information; and transmitting, by the access point and to the wireless terminal, a response to the GAS request, wherein the response includes the network authentication information, wherein the network authentication information includes authentication type information and a re-direct uniform resource locator, URL, frame, wherein the authentication type information indicates that the wireless terminal uses the re-direct URL frame for obtaining terms and conditions. receiving, by an access point, during network discovery and prior to authentication, a Generic Advertisement Service, GAS, request from a wireless terminal, the GAS request requesting network authentication information; and transmitting, by the access point and to the wireless terminal, a response to the GAS request, wherein the response includes the network authentication information, wherein the network authentication information includes authentication type information and a re-direct uniform resource locator, URL, frame, wherein the authentication type information indicates that the wireless terminal uses the re-direct URL frame for obtaining terms and conditions.
Rechargeable redox flow battery comprising an electrochemical cell comprising at least a positive electrode in a positive half-cell and a negative electrode in a negative half-cell, an ion-conducting membrane between the two half-cells, wherein the membrane is designed for dual acidic anolyte and catholyte or designed for an acidic catholyte and an alkaline anolyte; at least two storage tanks for catholyte and anolyte, optionally one or more pumps to circulate stored catholyte and anolyte through the cathodic and anodic half cells, respectively, and at least one anolyte and at least one catholyte; wherein the anolyte comprises at least one fuel capable of reversible oxidation, and a Zn2+/Zn0 redox couple and In3+ at least one electrolyte for conductivity and at least one solvent; and the catholyte comprises a Cr III /Cr VI redox couple, at least one strong acid, a Ce 4+ /Ce 3+ redox couple and at least one solvent, wherein the positive electrode is made from carbon, wherein the molar amount of In with regard to Zn in the anolyte and anode is less than 50 mol%, preferably less than 15 mol% more preferably less than 5 mol% and most preferably not more than 1 mol%. wherein the positive electrode is made from carbon, wherein the molar amount of In with regard to Zn in the anolyte and anode is less than 50 mol%, preferably less than 15 mol% more preferably less than 5 mol% and most preferably not more than 1 mol%.
A retractable handle arrangement comprising a handle movable between stowed, deployed and operative states, and including first and second deployment mechanisms (12, 36) both of which are operable independently to move the handle from the stowed state to the deployed state wherein the first deployment mechanism is electrically actuated, and wherein the second deployment mechanism is a manually actuated two-state latching mechanism operable between a compressed state and an extended state; wherein in transitioning from the compressed state to the extended state, the latching mechanism is arranged to bear against a support structure and exert a force on the handle to urge it into the deployed state; and characterised in that the handle comprises a handle loop, the handle loop providing a handgrip that defines an outer surface, with end pieces (30, 32) at opposed ends spacing the handgrip from an inner member, and the latching mechanism is located on an inboard side of the inner member of the handle loop and extends away from it so as to be cooperable with the support structure.
A method for operating a hearing device, wherein in the hearing device, a first direction-dependent signal and a second direction-depending signal are generated from a sound signal of the environment, wherein in the hearing device, from the sound signal, a first microphone signal is generated by a first microphone, and a second microphone signal is generated by a second microphone, wherein the first direction-dependent signal and/or the second direction-dependent signal are generated by means of a time-delayed superposition of the first microphone signal with the second microphone signal, respectively, wherein by means of the first direction-dependent signal and the second direction - dependent signal, a parameter is determined, which represents a quantitative measure for a stationarity of the sound signal, characterized in that a noise-optimized signal is generated from the first direction-dependent signal and the second direction-dependent signal by means of the parameter, the parameter is determined in a signal feedback loop from the noise-optimized signal, the noise-optimized signal is generated by a superposition of the first direction-dependent signal and the second direction-dependent signal, and a weighting factor for the superposition is ascertained by means of the parameter, wherein the noise-optimized signal is composed by a superposition of the first direction-dependent signal and the second direction-dependent signal, the latter being multiplied with the weighting factor, and, wherein the weighting factor is determined such that the noise-optimized signal has a minimal stationarity.
A folded camera module (400',500') comprising: a) an optical path folding element (OPFE) (404,504) for folding light from a first optical path with a first optical axis (410',510') to a second optical path with a second optical axis (402,502') perpendicular to the first optical axis (410,510'); and b) a lens module (402, 502) carrying a lens with a symmetry axis parallel to the second optical axis (402',502'), wherein the OPFE (404,504) and the lens module (402,502) are configured to provide optical image stabilization compensating for roll, pitch, and yaw movement of the folded camera module (400',500'), characterized in that the OPFE (404,504) is designed to tilt around a first tilt axis in a plane formed by the first optical axis (410',510') and the second optical axis (402',502'), thereby generating a roll movement that compensates for roll movement of the folded camera module (400',500') and also generating an OPFE tilt-caused shift, wherein the lens module (402,502) is designed to move in a first shift direction such that the lens movement compensates for yaw movement of the folded camera module (400',500') and for the OPFE tilt-caused shift, and wherein the OPFE (404,504) is designed to tilt around a second tilt axis orthogonal to both the first optical axis (410',510') and the second optical axis (402',502') to compensate for pitch movement of the folded camera module (400',500'). a) an optical path folding element (OPFE) (404,504) for folding light from a first optical path with a first optical axis (410',510') to a second optical path with a second optical axis (402,502') perpendicular to the first optical axis (410,510'); and b) a lens module (402, 502) carrying a lens with a symmetry axis parallel to the second optical axis (402',502'), wherein the OPFE (404,504) and the lens module (402,502) are configured to provide optical image stabilization compensating for roll, pitch, and yaw movement of the folded camera module (400',500'),
Setting tool for driving fastening elements into a substrate, in particular a hand-held setting tool, comprising a holder, which is provided for holding a fastening element, a drive-in element, which is provided for transferring a fastening element held in the holder into the substrate along a setting axis by a setting energy E kin of at least 30 J and at most 600 J, a drive, which is provided for driving the drive-in element toward the fastening element along the setting axis, wherein the drive comprises an electrical capacitor, a squirrel-cage rotor arranged on the drive-in element and an excitation coil, which during discharge of the capacitor is flowed through by current and generates a magnetic field that accelerates the drive-in element toward the fastening element, wherein the drive-in element has a piston diameter d K and a piston mass m K, characterized in that, for the piston diameter d K, 3 2 a + b E kin n ≤ d K ≤ 4 3 a + b E kin n where a = 33 mm, b = 6 mmJ -n and n = 1/3 and/or, for the piston mass m K, 2 3 c + d E kin n ≤ m K ≤ 5 3 c + d E kin n where c = 20 g, d = 30 gJ -n and n = 1/3. characterized in that, for the piston diameter d K, 3 2 a + b E kin n ≤ d K ≤ 4 3 a + b E kin n where a = 33 mm, b = 6 mmJ -n and n = 1/3 and/or, for the piston mass m K, 2 3 c + d E kin n ≤ m K ≤ 5 3 c + d E kin n where c = 20 g, d = 30 gJ -n and n = 1/3.
A flat panel x-ray detector calibration element, the calibration element comprising an aluminum member which has an average grain size smaller than 50 μm, characterized in that the aluminum member comprises several sheets in a stack-like arrangement, wherein each sheet in the stack-like arrangement has a grain texture with the grains of this texture being oriented in a texture direction, and the texture directions of at least two sheets in the stack-like arrangement are transverse to one another.
A system for load sharing, comprising a distribution device, a plurality of service processors and a plurality of inquiry processors, wherein the distribution device is configured to determine a target service processor in the service processors, and send a service processing request to the target service processor; the target service processor is configured to, in the case of receiving the service processing request sent by the distribution device, determine a target inquiry processor in the inquiry processors, send a target data inquiry request to the target inquiry processor, and carry out a service work needed to be applied to target data after acquiring the target data; and the target inquiry processor is configured to receive the data inquiry request from the target service processor, acquire the target data cached in its own memory, and send the target data to the target service processor, wherein the target service processor is further configured to access a core network to acquire the target data in the case that the target service processor cannot acquire the target data from the target inquiry processor, and wherein the target service processor is further configured to: in the case that the memory of the target inquiry processor does not store the target data, store the target data from the core network into the memory of the target inquiry processor; and in the case of being unable to access the target inquiry processor, store an access failure result into its own memory, wherein the target service processor excludes an inquiry processor which cannot be accessed according to the access failure result recorded in its own memory at the time of determining the target inquiry processor, and wherein the memory of the target inquiry processor is further configured to automatically delete stored data with storage time which reaches a preset period. in the case that the memory of the target inquiry processor does not store the target data, store the target data from the core network into the memory of the target inquiry processor; and in the case of being unable to access the target inquiry processor, store an access failure result into its own memory, wherein the target service processor excludes an inquiry processor which cannot be accessed according to the access failure result recorded in its own memory at the time of determining the target inquiry processor, and wherein the memory of the target inquiry processor is further configured to automatically delete stored data with storage time which reaches a preset period.
A bicycle folder having a self-locking device, said bicycle folder comprising: - a pair of front and rear folding leaves; - a quick release handle mounted on the front folding leaf; and - a locking tongue having a position limit handle, wherein when being in a locked position, the locking tongue is locked in a locking buckle for tightly locking the bicycle folder; characterized in that the locking tongue has a handle shaft fixing the position limit handle to a bicycle tube, wherein the position limit handle is curved ruler-shaped and able to revolve 0° to 60° around the handle shaft arranged horizontally, wherein a first end of said position limit handle is an inclined surface and a second end of the position limit handle is a weight block; wherein the quick release handle has a locking buckle for locking the bicycle folder by pressing down the position limit handle at its inclined surface and by entering into a clearance between the position limit handle and the bicycle tube; wherein gravity force keeps the weight block maintaining the first end of the position limit handle, which contacts the locking buckle, always in an upwards state. - a pair of front and rear folding leaves; - a quick release handle mounted on the front folding leaf; and - a locking tongue having a position limit handle, wherein when being in a locked position, the locking tongue is locked in a locking buckle for tightly locking the bicycle folder;
An analyte sensor system, comprising: an analyte sensor (932, 1232), and an analyte sensor applicator (912, 1200) comprising a needle (972, 1272) for inserting the analyte sensor (932, 1232) into a host; the analyte sensor (932, 1232) comprising at least a working electrode and a reference electrode, the analyte sensor (932, 1232) positioned at least partially within a lumen (901, 1201) of the needle (972, 1272); characterized by a hydrating agent positioned within the lumen (901, 1201) of the needle (972, 1272) to at least partially hydrate the analyte sensor (932, 1232). an analyte sensor (932, 1232), and an analyte sensor applicator (912, 1200) comprising a needle (972, 1272) for inserting the analyte sensor (932, 1232) into a host; the analyte sensor (932, 1232) comprising at least a working electrode and a reference electrode, the analyte sensor (932, 1232) positioned at least partially within a lumen (901, 1201) of the needle (972, 1272); characterized by a hydrating agent positioned within the lumen (901, 1201) of the needle (972, 1272) to at least partially hydrate the analyte sensor (932, 1232).