mhurhangee/ep-ind-claims huggingface dataset:
A resource transfer method comprising: receiving a cross-chain resource transfer request of a first account at a first node device of a plurality of first node devices provided with a first block chain system, the cross-chain resource transfer request being used to request a resource transfer from the first account to a second account, and the first block chain system providing a service for the first account; generating, by the first node device, a contract corresponding to the first account, the contract being used to indicate conditions for executing the resource transfer; generating, by the first node device, a first consensus message when the plurality of first node devices reaches a consensus on a generation event of the contract; sending, by the first node device, the first consensus message to a second node device of a plurality of second node devices provided with a second block chain system, the second block chain system providing a service for the second account, and the first block chain system and the second block chain system being different; receiving, at the first node device, a second consensus message corresponding to the resource in the contract being transferred to the second account based on the contract when the plurality of second node devices reaches a consensus on a transfer event of the resource; and updating, by the first node device, a contract state of the contract to a finished state based on the second consensus message, and generating a third consensus message when the plurality of first node devices reaches a consensus on a state update event of the contract. receiving a cross-chain resource transfer request of a first account at a first node device of a plurality of first node devices provided with a first block chain system, the cross-chain resource transfer request being used to request a resource transfer from the first account to a second account, and the first block chain system providing a service for the first account; generating, by the first node device, a contract corresponding to the first account, the contract being used to indicate conditions for executing the resource transfer; generating, by the first node device, a first consensus message when the plurality of first node devices reaches a consensus on a generation event of the contract; sending, by the first node device, the first consensus message to a second node device of a plurality of second node devices provided with a second block chain system, the second block chain system providing a service for the second account, and the first block chain system and the second block chain system being different; receiving, at the first node device, a second consensus message corresponding to the resource in the contract being transferred to the second account based on the contract when the plurality of second node devices reaches a consensus on a transfer event of the resource; and updating, by the first node device, a contract state of the contract to a finished state based on the second consensus message, and generating a third consensus message when the plurality of first node devices reaches a consensus on a state update event of the contract.
An apparatus for profiling a beam of a light emitting semiconductor device (102;202), comprising: a light emitting semiconductor device (102;202) comprising an active region (108;208) formed on a substrate (104;204) and configured to generate light when a suitable electrical current is applied to contacts on an upper surface of the device (102;202); a transmission medium (112;212;312) comprising a diffusion surface (116;216;316), configured to diffuse light (118;218) emitted from the semiconductor device (102;202) and transmitted through the transmission medium (112;212;312); and a camera, configured to capture an image of light (118;218) at the diffusion surface (116;216;316) that has been emitted from the light emitting semiconductor device (102;202), wherein the image falls within a field of view of the camera, characterised in that the light emitting semiconductor device (102;202) comprises a light emitting surface (110;210) defined by a lower surface of the substrate (104;204) opposite the contacts, in that the transmission medium (112;212;312) comprises a first surface, opposite the diffusion surface (116;216;316) and in contact with at least part of the light emitting surface (110;210) of the semiconductor device (102;202), in that the transmission medium (112;212;312) has a refractive index and a thickness configured to present at the diffusion surface (116;216;316) the light (118;218) emitted from the light emitting semiconductor device (102;202), and in that the thickness is greater than a depth of field of the lens of the camera. a light emitting semiconductor device (102;202) comprising an active region (108;208) formed on a substrate (104;204) and configured to generate light when a suitable electrical current is applied to contacts on an upper surface of the device (102;202); a transmission medium (112;212;312) comprising a diffusion surface (116;216;316), configured to diffuse light (118;218) emitted from the semiconductor device (102;202) and transmitted through the transmission medium (112;212;312); and a camera, configured to capture an image of light (118;218) at the diffusion surface (116;216;316) that has been emitted from the light emitting semiconductor device (102;202), wherein the image falls within a field of view of the camera, characterised in that the light emitting semiconductor device (102;202) comprises a light emitting surface (110;210) defined by a lower surface of the substrate (104;204) opposite the contacts, in that the transmission medium (112;212;312) comprises a first surface, opposite the diffusion surface (116;216;316) and in contact with at least part of the light emitting surface (110;210) of the semiconductor device (102;202), in that the transmission medium (112;212;312) has a refractive index and a thickness configured to present at the diffusion surface (116;216;316) the light (118;218) emitted from the light emitting semiconductor device (102;202), and in that the thickness is greater than a depth of field of the lens of the camera.
A catheter manufacturing method, comprising: forming flexible circuit strips, each strip including respective different letters or numbers marked thereon and at least one respective electrode; attaching one end of each of the flexible circuit strips to a catheter coupler with the flexible circuit strips being ordered around a circumference of the catheter coupler in the order of the respective letters or numbers of respective ones of the flexible circuit strips; and forming a distal end assembly of a catheter, the distal end assembly comprising the flexible circuit strips attached to the catheter coupler. forming flexible circuit strips, each strip including respective different letters or numbers marked thereon and at least one respective electrode; attaching one end of each of the flexible circuit strips to a catheter coupler with the flexible circuit strips being ordered around a circumference of the catheter coupler in the order of the respective letters or numbers of respective ones of the flexible circuit strips; and forming a distal end assembly of a catheter, the distal end assembly comprising the flexible circuit strips attached to the catheter coupler.
Method for tungsten inert-gas welding, - wherein a welding current is applied to an electrode and a workpiece, wherein current is applied to the electrode as an anode and to the workpiece as a cathode, - wherein an electric arc is initiated and burns between an arc-side surface of the electrode and the workpiece, characterized in that - an energy density of the arc-side surface of the electrode and/or an arc striking point of the arc on the arc-side surface of the electrode are specifically influenced, in that a focusing gas in the form of at least one focusing gas flow is supplied to the arc-side surface of the electrode, wherein a shielding gas is additionally supplied through a shielding gas nozzle during welding, wherein the electrode protrudes out of the shielding gas nozzle. - wherein a welding current is applied to an electrode and a workpiece, wherein current is applied to the electrode as an anode and to the workpiece as a cathode, - wherein an electric arc is initiated and burns between an arc-side surface of the electrode and the workpiece, characterized in that - an energy density of the arc-side surface of the electrode and/or an arc striking point of the arc on the arc-side surface of the electrode are specifically influenced, in that a focusing gas in the form of at least one focusing gas flow is supplied to the arc-side surface of the electrode, wherein a shielding gas is additionally supplied through a shielding gas nozzle during welding, wherein the electrode protrudes out of the shielding gas nozzle.
A nonaqueous inkjet ink composition containing a pigment, a resin, a pigment-dispersing agent and an organic solvent, along with an anticorrosive agent, wherein the resin comprises a vinyl chloride resin and the anticorrosive agent is dicyclohexylamine, cyclohexylammonium cyclohexylcarbamate, imidazole, 2-methylimidazole, benzimidazole, or 2-ethyl-4-methylimidazol.
A method for transmitting a signal in a multi-antenna system, the method comprising: designating an analog beam that carries a digital precoded signal for each receiver of a plurality of receivers and for each antenna port of a plurality of antenna ports formed by digital precoding; multiplexing digital precoded signals to a plurality of beam groups corresponding to a plurality of analog beams having different directions, each beam group of the plurality of beam groups having digital precoded signals designated to one analog beam; generating orthogonal frequency division multiplexing (OFDM) signals corresponding to the plurality of analog beams by OFDM-converting signals of the plurality of beam groups; and converting (310∼370; 410∼470; 510∼570) the OFDM signals into Radio Frequency signals to transmit on the plurality of analog beams. designating an analog beam that carries a digital precoded signal for each receiver of a plurality of receivers and for each antenna port of a plurality of antenna ports formed by digital precoding; multiplexing digital precoded signals to a plurality of beam groups corresponding to a plurality of analog beams having different directions, each beam group of the plurality of beam groups having digital precoded signals designated to one analog beam; generating orthogonal frequency division multiplexing (OFDM) signals corresponding to the plurality of analog beams by OFDM-converting signals of the plurality of beam groups; and converting (310∼370; 410∼470; 510∼570) the OFDM signals into Radio Frequency signals to transmit on the plurality of analog beams.
An outdoor unit for an air conditioner, the outdoor unit comprising a base assembly defining a lower exterior of the outdoor unit and supporting a plurality of parts, left and right panels that are provided on the base assembly to define left and right exteriors of the outdoor unit, a pair of top panels (280, 282) that are provided between upper ends of the left and right panels to define a top exterior of the outdoor unit, a blower assembly including a blower fan generating air current and a motor providing a torque to the blower fan, and a shroud enclosing the blower fan and the motor and guiding airflow generated by the blower fan, wherein the outdoor unit further comprises a frame assembly including a pair of transverse supports interconnecting the left and right panels and a motor mount including a pair of motor brackets that are disposed between the pair of transverse supports to interconnect the transverse supports and a motor seating plate provided between the pair of motor brackets, wherein the motor mount is received in an inside of the shroud, and characterized in that the shroud comprises: supporting plate mounted on the frame assembly; and a cylindrical air guide protruding from a central portion of the supporting plate, wherein the supporting plate is provided with a bracket receiving portion elevated. supporting plate mounted on the frame assembly; and a cylindrical air guide protruding from a central portion of the supporting plate, wherein the supporting plate is provided with a bracket receiving portion elevated.
Motor vehicle structure comprising: - two longitudinal structural profiles extending parallel to the front of the vehicle and each comprising a front end and an internal side face opposite the other of said two profiles; and - two side arms each extending towards the bottom from the front end of one of the two structural profiles, respectively; and - a lower cross member situated at distance under the structural profiles and supported exclusively by the two side arms, each one of the side arms extending against the internal side face of the corresponding structural profile, characterised in that it further comprises a lower absorber attached under the lower cross member and extending in front of said cross member in view of absorbing energy from pedestrian impacts, said lower absorber being formed of plastic material. - two longitudinal structural profiles extending parallel to the front of the vehicle and each comprising a front end and an internal side face opposite the other of said two profiles; and - two side arms each extending towards the bottom from the front end of one of the two structural profiles, respectively; and - a lower cross member situated at distance under the structural profiles and supported exclusively by the two side arms, each one of the side arms extending against the internal side face of the corresponding structural profile,
Polymorphic Form B of N-[4-(trifluoromethyl)benzyl]-4-methoxybutyramide formula having the following peaks at the diffraction degrees (2-theta) in the X-ray powder diffraction pattern ±0.2: Peak 2-theta 1 5.9 2 11.7 3 17.6 4 19.0 5 19.8 6 20.9 7 21.9 8 22.3 9 23.6 10 24.0 11 24.8 12 26.0 13 27.0 14 27.4 15 28.1 16 29.6
A device for controlling access by a wheeled vehicle and/or a person to a predetermined zone, said device comprising a barrier element able to be positioned near the predetermined zone with controlled access, a box for at least partial storage of said barrier element and means for detection and/or signaling of the presence of a wheeled vehicle or a person configured to emit a control signal when the presence of said wheeled vehicle or the person in a predetermined location is detected and/or signaled, the barrier element assuming the form of a case able to be wound around one of its edges, called free edge, in order to form a spiral winding in the wound state, said free edge of the case being formed by the edge of the case opposite the edge called connecting edge of the case to the storage box, this connecting edge of the case to the storage box being housed at least partially inside said storage box, said case being equipped with return means to the wound state, and the device comprising means for inflating the case, said inflating means comprising a source of pressurized gas, a link for connecting the source of pressurized gas to the case, a member for opening/closing the link for connecting the pressurized gas source to the case, and a control unit of said opening/closing member based on the control signal of the detection and/or signaling means, said control unit being configured to allow, when a wheeled vehicle or a person is detected and/or signaled, the closing of the link connecting the pressurized gas source to the case, and subsequently the venting of the case for the passage of the device from an active configuration, in which the case is inflated, unwound, and arranged at least partially protruding from the storage box to an inactive configuration in which the case is deflated, wound in a spiral and housed at least partially, preferably completely, inside the storage box, characterized in that the storage box is provided with an opening through which the case protrudes in the active configuration, this opening being provided with at least one closing element and in that the or at least one of the closing elements of the storage box is, in the open position of the storage box and in the unwound state of the case, in bearing contact with the outer surface of said case in order to form a stiffening or reinforcing element of said case.
An ultrasound coupling device comprising: an ultrasound coupling adapter for coupling an ultrasound transducer to an ultrasound coupling medium housed in the ultrasound coupling adapter, said ultrasound coupling adapter comprising: an interface support region for operably interfacing the ultrasound transducer to the ultrasound coupling medium; and an integrated means (22, 23, 24, 26, 27) for rendering the ultrasound coupling adapter inoperable, thereby rendering the ultrasound coupling device inoperable, wherein the integrated means (22, 23, 24, 26, 27) functions to permanently alter the interface support region, wherein the integrated means (22, 23, 24, 26, 27) consists of a perforated or thinned area and a means selected from the group consisting of a pull tab, a snap-fit tab, and a stress concentrator (26, 27), said integrated means (22, 23, 24, 26, 27) being configured to facilitate permanently altering a portion of the interface support region, wherein the perforated or thinned area completely or partially extends around the perimeter of the interface support region of the ultrasound coupling adapter. an ultrasound coupling adapter for coupling an ultrasound transducer to an ultrasound coupling medium housed in the ultrasound coupling adapter, said ultrasound coupling adapter comprising: an interface support region for operably interfacing the ultrasound transducer to the ultrasound coupling medium; and an integrated means (22, 23, 24, 26, 27) for rendering the ultrasound coupling adapter inoperable, thereby rendering the ultrasound coupling device inoperable, an interface support region for operably interfacing the ultrasound transducer to the ultrasound coupling medium; and an integrated means (22, 23, 24, 26, 27) for rendering the ultrasound coupling adapter inoperable, thereby rendering the ultrasound coupling device inoperable, wherein the integrated means (22, 23, 24, 26, 27) functions to permanently alter the interface support region, wherein the integrated means (22, 23, 24, 26, 27) consists of a perforated or thinned area and a means selected from the group consisting of a pull tab, a snap-fit tab, and a stress concentrator (26, 27), said integrated means (22, 23, 24, 26, 27) being configured to facilitate permanently altering a portion of the interface support region, wherein the perforated or thinned area completely or partially extends around the perimeter of the interface support region of the ultrasound coupling adapter.
An ophthalmic surgical laser system comprising: a laser delivery system for delivering a pulsed laser beam to a target in a subject's eye to perform capsulorhexis; a mirror positioned to transmit at least a portion of collected plasma light of the pulsed laser beam that is generated in the focal point of the laser beam in the subject's eye; a lens positioned to focus the transmitted collected light onto a detector and a Z-position encoder operatively coupled to the detector to determine a depth of the target in the subject's eyes; wherein: the system is configured to use data from the detector to determine whether the target is in the aqueous humor, the capsule, or the lens, based on a differing color, shape, or intensity of a spot on the detector produced by the plasma light generated by the laser; characterized in that: the system is configured to determine whether the target is entirely within the lens based on whether the spot intensity is nearly constant. a laser delivery system for delivering a pulsed laser beam to a target in a subject's eye to perform capsulorhexis; a mirror positioned to transmit at least a portion of collected plasma light of the pulsed laser beam that is generated in the focal point of the laser beam in the subject's eye; a lens positioned to focus the transmitted collected light onto a detector and a Z-position encoder operatively coupled to the detector to determine a depth of the target in the subject's eyes; wherein: the system is configured to use data from the detector to determine whether the target is in the aqueous humor, the capsule, or the lens, based on a differing color, shape, or intensity of a spot on the detector produced by the plasma light generated by the laser; characterized in that: the system is configured to determine whether the target is entirely within the lens based on whether the spot intensity is nearly constant.
A sensor system for measuring an analyte concentration, the sensor system comprising: a base having a distal side configured to face towards a skin of a host; a first adhesive coupled to the base and configured to couple the base to the skin; a transmitter coupled to the base and configured to transmit analyte measurement data; a transcutaneous analyte measurement sensor coupled to the base; characterized in that the sensor system further comprises: a pliable sheet configured so that, after the sensor system has been removed from the skin, a distal tip of the sensor is confined between the pliable sheet and the base such that the pliable sheet holds at least a portion of the sensor in a bent position and the pliable sheet is adhered to the first adhesive. a base having a distal side configured to face towards a skin of a host; a first adhesive coupled to the base and configured to couple the base to the skin; a transmitter coupled to the base and configured to transmit analyte measurement data; a transcutaneous analyte measurement sensor coupled to the base; characterized in that the sensor system further comprises: a pliable sheet configured so that, after the sensor system has been removed from the skin, a distal tip of the sensor is confined between the pliable sheet and the base such that the pliable sheet holds at least a portion of the sensor in a bent position and the pliable sheet is adhered to the first adhesive.
A gel-like composition comprising: 100 parts by weight of organoalkoxysilane having the formula: R 1 a Si(OR 2) 4-a wherein each R 1 independently is a C 1 -C 20 monovalent hydrocarbon group, each R 2 independently is a C 1 -C 8 monovalent hydrocarbon group and a is 1, 2, or 3, and/or a partial hydrolytic condensate of such organoalkoxysilane, 0.3 to 20 parts by weight of aluminum dicarboxylate having the formula: (R 3 COO) 2 Al wherein each R 3 independently is a C 1 -C 25 monovalent hydrocarbon group, 0.3 to 20 parts by weight of C 6 -C 24 fatty acid, 0.01 to 10 parts by weight of C 6 -C 30 dicarboxylic acid, and 0.01 to 10 parts by weight of aluminum oligomer selected from aluminum oxide organoxides and aluminum oxide acylates and/or an aluminum alkoxide. 100 parts by weight of organoalkoxysilane having the formula: R 1 a Si(OR 2) 4-a wherein each R 1 independently is a C 1 -C 20 monovalent hydrocarbon group, each R 2 independently is a C 1 -C 8 monovalent hydrocarbon group and a is 1, 2, or 3, and/or a partial hydrolytic condensate of such organoalkoxysilane, 0.3 to 20 parts by weight of aluminum dicarboxylate having the formula: (R 3 COO) 2 Al wherein each R 3 independently is a C 1 -C 25 monovalent hydrocarbon group, 0.3 to 20 parts by weight of C 6 -C 24 fatty acid, 0.01 to 10 parts by weight of C 6 -C 30 dicarboxylic acid, and 0.01 to 10 parts by weight of aluminum oligomer selected from aluminum oxide organoxides and aluminum oxide acylates and/or an aluminum alkoxide.