mhurhangee/ep-ind-claims huggingface dataset:
A multi-channel optoelectronic module comprising a molded circuit substrate, wherein the molded circuit substrate comprises: two or more conductive layers; insulating sidewalls, each conductive layer being surrounded by the insulating sidewalls, the insulating sidewalls delineating electrically isolated regions of the conductive layers, the insulating sidewalls comprising non-transparent sidewalls and further defining first and second optical channels of the optoelectronic module; two or more insulating partitions, a first insulating partition delineating an electrically isolated region of the conductive layer of the first optical channel and a second insulating partition delineating an electrically isolated region of the conductive layer of the second optical channel a first active optoelectronic component mounted on a surface of the conductive layer in the first optical channel and a second active optoelectronic component mounted on a surface of the conductive layer in the second optical channel, wherein the first active optoelectronic component includes at least one of: a laser diode, a light-emitting diode, an array of laser diodes, or an array of light-emitting diodes, and wherein the second active optoelectronic component includes at least one of: a photodiode or an array of photodiodes. two or more conductive layers; insulating sidewalls, each conductive layer being surrounded by the insulating sidewalls, the insulating sidewalls delineating electrically isolated regions of the conductive layers, the insulating sidewalls comprising non-transparent sidewalls and further defining first and second optical channels of the optoelectronic module; two or more insulating partitions, a first insulating partition delineating an electrically isolated region of the conductive layer of the first optical channel and a second insulating partition delineating an electrically isolated region of the conductive layer of the second optical channel a first active optoelectronic component mounted on a surface of the conductive layer in the first optical channel and a second active optoelectronic component mounted on a surface of the conductive layer in the second optical channel, wherein the first active optoelectronic component includes at least one of: a laser diode, a light-emitting diode, an array of laser diodes, or an array of light-emitting diodes, and wherein the second active optoelectronic component includes at least one of: a photodiode or an array of photodiodes.
An apparatus for heart valve repair, comprising a handle, a plurality of tubes coupled to the handle and having flexible distal portions, a tubular annuloplasty structure configured to be implanted at a heart valve annulus and defining a lumen therethrough, the annuloplasty structure comprising a contracting wire disposed within the lumen of the annuloplasty structure and a plurality of anchor mounts, wherein a portion of the contracting wire extends out of the lumen of the annuloplasty structure so that a size of the annuloplasty structure is adjustable, wherein a distal end of each of the plurality of tubes is coupled to a respective anchor mount and each of the plurality of tubes is preloaded with an anchor coupled to an anchor advancement system, the anchor advancement system configured to advance the anchor through the tube and toward the anchor mount coupled to the tube so as to anchor the anchors to heart tissue and thereby anchor the annuloplasty structure to the heart valve annulus. a handle, a plurality of tubes coupled to the handle and having flexible distal portions, a tubular annuloplasty structure configured to be implanted at a heart valve annulus and defining a lumen therethrough, the annuloplasty structure comprising a contracting wire disposed within the lumen of the annuloplasty structure and a plurality of anchor mounts, wherein a portion of the contracting wire extends out of the lumen of the annuloplasty structure so that a size of the annuloplasty structure is adjustable, wherein a distal end of each of the plurality of tubes is coupled to a respective anchor mount and each of the plurality of tubes is preloaded with an anchor coupled to an anchor advancement system, the anchor advancement system configured to advance the anchor through the tube and toward the anchor mount coupled to the tube so as to anchor the anchors to heart tissue and thereby anchor the annuloplasty structure to the heart valve annulus.
A computer-implemented method of determining regularity of a bio-signal, the method comprising: acquiring (211, 411) a plurality of pulse waveforms of the bio-signal; acquiring (212, 412) a plurality of slope waveforms corresponding to the plurality of pulse waveforms by differentiating the plurality of pulse waveforms; binarizing (213, 413) the plurality of slope waveforms to a first value based on a slope value at each point in time being a positive number, and to a second value based on the slope value at each point in time being a negative number; acquiring (214, 414) synchronization information of the plurality of pulse waveforms being superimposed based on a predefined reference point, based on binarizing the plurality of slope waveforms; acquiring (215, 415) a synchronization rate based on the synchronization information in a reference interval; and determining (216-218, 416-420) whether the bio-signal is regular or irregular based on the synchronization rate. acquiring (211, 411) a plurality of pulse waveforms of the bio-signal; acquiring (212, 412) a plurality of slope waveforms corresponding to the plurality of pulse waveforms by differentiating the plurality of pulse waveforms; binarizing (213, 413) the plurality of slope waveforms to a first value based on a slope value at each point in time being a positive number, and to a second value based on the slope value at each point in time being a negative number; acquiring (214, 414) synchronization information of the plurality of pulse waveforms being superimposed based on a predefined reference point, based on binarizing the plurality of slope waveforms; acquiring (215, 415) a synchronization rate based on the synchronization information in a reference interval; and determining (216-218, 416-420) whether the bio-signal is regular or irregular based on the synchronization rate.
A method for controlling wheel slip of a vehicle, wherein the vehicle comprises at least a first and a second motion support device, MSD (114, 116, 116', 116", 200, 202, 204, 206), for providing torque to a common wheel of the vehicle, the method comprising: receiving a wheel torque request, based on the received wheel torque request: • controlling the first MSD to provide torque to the wheel in a first mode of operation, • controlling the second MSD (114, 116') to provide torque to the wheel in a second mode of operation which is different from the first mode of operation, wherein said controlling of the first MSD and said controlling of the second MSD are, at least temporarily, performed simultaneously, wherein said first mode of operation is a speed control mode, wherein the method comprises sending a wheel speed request to the first MSD for controlling the rotational speed of the wheel, wherein said second mode of operation is a torque control mode, wherein the method comprises sending a torque request to the second MSD (114, 116') for controlling the torque of the second MSD (114, 116'). receiving a wheel torque request, based on the received wheel torque request: • controlling the first MSD to provide torque to the wheel in a first mode of operation, • controlling the second MSD (114, 116') to provide torque to the wheel in a second mode of operation which is different from the first mode of operation, • controlling the first MSD to provide torque to the wheel in a first mode of operation, • controlling the second MSD (114, 116') to provide torque to the wheel in a second mode of operation which is different from the first mode of operation, wherein said controlling of the first MSD and said controlling of the second MSD are, at least temporarily, performed simultaneously, wherein said first mode of operation is a speed control mode, wherein the method comprises sending a wheel speed request to the first MSD for controlling the rotational speed of the wheel, wherein said second mode of operation is a torque control mode, wherein the method comprises sending a torque request to the second MSD (114, 116') for controlling the torque of the second MSD (114, 116').
A tamper evident structure for a flexible package comprising: a tamper evident diaphragm comprising: two diaphragm strips (112, 116), each of the diaphragm strips (112,116) including at least an outer layer and an inner layer laminated with each other, wherein the inner layer of each of the diaphragm strips (112,116) is sealable together to form a non-resealable peelable sealed band between the inner layers; wherein either (i) the inner layer of the diaphragm strips (112, 116) is sealed to outer surfaces (144, 148) of flaps (120, 124) of a zipper of the flexible package, or (ii) the inner layer of the diaphragm strips (112, 116) is sealed to inner surfaces (152, 156) of the flaps (120, 124), or (iii) the outer layer of the diaphragm strips (112, 116) is sealed to the inner surfaces (152, 156) of the flaps (120, 124), provided that the tamper evident diaphragm includes a straight orientation or an inverted orientation, characterized in that the tamper evident structure further comprises: a zipper including interlocking elements (128, 130), and flaps (120, 124) extending downwardly from the interlocking elements (128, 130). two diaphragm strips (112, 116), each of the diaphragm strips (112,116) including at least an outer layer and an inner layer laminated with each other, wherein the inner layer of each of the diaphragm strips (112,116) is sealable together to form a non-resealable peelable sealed band between the inner layers; wherein either (i) the inner layer of the diaphragm strips (112, 116) is sealed to outer surfaces (144, 148) of flaps (120, 124) of a zipper of the flexible package, or (ii) the inner layer of the diaphragm strips (112, 116) is sealed to inner surfaces (152, 156) of the flaps (120, 124), or (iii) the outer layer of the diaphragm strips (112, 116) is sealed to the inner surfaces (152, 156) of the flaps (120, 124), (i) the inner layer of the diaphragm strips (112, 116) is sealed to outer surfaces (144, 148) of flaps (120, 124) of a zipper of the flexible package, or (ii) the inner layer of the diaphragm strips (112, 116) is sealed to inner surfaces (152, 156) of the flaps (120, 124), or (iii) the outer layer of the diaphragm strips (112, 116) is sealed to the inner surfaces (152, 156) of the flaps (120, 124), provided that the tamper evident diaphragm includes a straight orientation or an inverted orientation, characterized in that the tamper evident structure further comprises: a zipper including interlocking elements (128, 130), and flaps (120, 124) extending downwardly from the interlocking elements (128, 130).
A transparent illumination device, comprising: - a first plurality of lighting elements, each lighting element being configured to emit light; - a second plurality of lighting elements, each lighting element being configured to emit light; - an illuminating body, comprising a light extraction layer configured to receive light emitted by the first and the second plurality of lighting elements and to deflect the received light to a surface of the illumination device; - a controller, configured to control the first and the second plurality of lighting elements to emit light respectively; - a selector, configured to select the illumination device operating mode from a manual control mode and a predefined rolling mode, wherein in the manual control mode the controller is manually controlled to control each plurality of lighting elements to emit light, and in the predefined rolling mode the controller controls each plurality of lighting elements to emit light according to a predefined profile. - a first plurality of lighting elements, each lighting element being configured to emit light; - a second plurality of lighting elements, each lighting element being configured to emit light; - an illuminating body, comprising a light extraction layer configured to receive light emitted by the first and the second plurality of lighting elements and to deflect the received light to a surface of the illumination device; - a controller, configured to control the first and the second plurality of lighting elements to emit light respectively; - a selector, configured to select the illumination device operating mode from a manual control mode and a predefined rolling mode, wherein in the manual control mode the controller is manually controlled to control each plurality of lighting elements to emit light, and in the predefined rolling mode the controller controls each plurality of lighting elements to emit light according to a predefined profile.
A method of wireless communication performed by a user equipment, UE, comprising: receiving an indication of a mode that maps multicast broadcast quality of service, MB-QoS, flows to logical channel identifiers and group radio network temporary identifiers, G-RNTIs, wherein the indicated mode is one of: a first mode in which each MB-QoS flow, of a first set of MB-QoS flows, is mapped to a different logical channel identifier and is mapped to a different G-RNTI, a second mode in which each MB-QoS flow, of a second set of MB-QoS flows, is mapped to a different logical channel identifier and is mapped to a common G-RNTI used for multiple MB-QoS flows, or a third mode in which each MB-QoS flow, of a third set of MB-QoS flows, is mapped to a different G-RNTI and is mapped to a common logical channel identifier used for multiple MB-QoS flows; identifying an MB-QoS flow from a medium access control, MAC, transport block, TB, based at least in part on the indicated mode; and decoding data included in the MB-QoS flow. receiving an indication of a mode that maps multicast broadcast quality of service, MB-QoS, flows to logical channel identifiers and group radio network temporary identifiers, G-RNTIs, wherein the indicated mode is one of: a first mode in which each MB-QoS flow, of a first set of MB-QoS flows, is mapped to a different logical channel identifier and is mapped to a different G-RNTI, a second mode in which each MB-QoS flow, of a second set of MB-QoS flows, is mapped to a different logical channel identifier and is mapped to a common G-RNTI used for multiple MB-QoS flows, or a third mode in which each MB-QoS flow, of a third set of MB-QoS flows, is mapped to a different G-RNTI and is mapped to a common logical channel identifier used for multiple MB-QoS flows; identifying an MB-QoS flow from a medium access control, MAC, transport block, TB, based at least in part on the indicated mode; and decoding data included in the MB-QoS flow. a first mode in which each MB-QoS flow, of a first set of MB-QoS flows, is mapped to a different logical channel identifier and is mapped to a different G-RNTI, a second mode in which each MB-QoS flow, of a second set of MB-QoS flows, is mapped to a different logical channel identifier and is mapped to a common G-RNTI used for multiple MB-QoS flows, or a third mode in which each MB-QoS flow, of a third set of MB-QoS flows, is mapped to a different G-RNTI and is mapped to a common logical channel identifier used for multiple MB-QoS flows; identifying an MB-QoS flow from a medium access control, MAC, transport block, TB, based at least in part on the indicated mode; and decoding data included in the MB-QoS flow.
Vacuum cleaner suction head, comprising a sole provided with a lower face and with a cavity opening onto this lower face, at least one brush (13, 14), a shaft for connecting configured to communicate with the cavity and a fork arranged between the sole and the shaft and mounted as pivot connections of transverse axes (X1, X2) opposite said sole and said shaft, characterised in that said suction head comprises a mechanism and a lever, said lever being configured to actuate said mechanism according to at least one position wherein at least one brush (13, 14) is maintained retracted from the lower face by blocking the fork opposite the sole, and in that the fork is configured to weight the sole in such a way as to force the inclination towards the rear of said sole due to the wedging along an angle (α2) of inclination from six to eleven degrees.
A wireless endoscopic camera system, comprising: a surgical endoscope (12, 202, 302, 620, 720, 802, 822, 902) configured to view tissue within the body of a patient; a camera head (10, 200, 300, 350, 360, 600, 700, 800, 820, 900) configured to process digital image data representative of an endoscopic image viewed by the endoscope (12, 202, 302, 620, 720, 802, 822, 902) the camera head having a proximal end and a distal end, with the distal end detachably connected to the endoscope; a compression unit contained within the camera head (10, 200, 300, 350, 360, 600, 700, 800, 820, 900) configured to reduce the amount of digital image data required to represent the endoscopic image; a remote receiver; a transmitter contained within the camera head configured to convey the compressed digital image data to the remote receiver; a plurality of camera head antennas (16, 210, 310, 354, 356, 364, 366A, 366B, 614, 714) located on a body of the camera head (10, 200, 300, 350, 360, 600, 700, 800, 820, 900) and in communication with the transmitter configured to receive the compressed digital image data from the transmitter and to wirelessly relay the compressed digital image data to the remote receiver; wherein at least one of the plurality of camera head antennas (210, 356, 366A, 366B, 614, 714) projects outwardly beyond the distal end of the body of the camera head (200, 350, 360, 600, 700, 800, 820, 900). a surgical endoscope (12, 202, 302, 620, 720, 802, 822, 902) configured to view tissue within the body of a patient; a camera head (10, 200, 300, 350, 360, 600, 700, 800, 820, 900) configured to process digital image data representative of an endoscopic image viewed by the endoscope (12, 202, 302, 620, 720, 802, 822, 902) the camera head having a proximal end and a distal end, with the distal end detachably connected to the endoscope; a compression unit contained within the camera head (10, 200, 300, 350, 360, 600, 700, 800, 820, 900) configured to reduce the amount of digital image data required to represent the endoscopic image; a remote receiver; a transmitter contained within the camera head configured to convey the compressed digital image data to the remote receiver; a plurality of camera head antennas (16, 210, 310, 354, 356, 364, 366A, 366B, 614, 714) located on a body of the camera head (10, 200, 300, 350, 360, 600, 700, 800, 820, 900) and in communication with the transmitter configured to receive the compressed digital image data from the transmitter and to wirelessly relay the compressed digital image data to the remote receiver; wherein at least one of the plurality of camera head antennas (210, 356, 366A, 366B, 614, 714) projects outwardly beyond the distal end of the body of the camera head (200, 350, 360, 600, 700, 800, 820, 900).
A method for requesting radio resources for transmission of uplink data from a User Equipment, UE, to a base station in a mobile communication system, the method, carried out at the UE, comprising: responsive to downlink data reception from the base station, transmitting first control information on a control channel to the base station if the UE has no uplink data to be transmitted to the base station; transmitting second control information on the control channel to the base station if the UE has new data to be transmitted to the base station, the second control information indicating radio resources are requested; following transmission of the second control information indicating radio resources are requested, receiving allocation of first radio resources from the base station; and transmitting a message using the first allocated radio resources, wherein the second control information further indicates ACK/NACK information for the downlink data. responsive to downlink data reception from the base station, transmitting first control information on a control channel to the base station if the UE has no uplink data to be transmitted to the base station; transmitting second control information on the control channel to the base station if the UE has new data to be transmitted to the base station, the second control information indicating radio resources are requested; following transmission of the second control information indicating radio resources are requested, receiving allocation of first radio resources from the base station; and transmitting a message using the first allocated radio resources, wherein the second control information further indicates ACK/NACK information for the downlink data.
Method for controlling an electrically controllable suction valve for controlling the delivery volume of a high-pressure pump in a fuel injection system, in particular in a common-rail injection system, of an internal combustion engine, wherein the pressure buildup in a high-pressure element space of the high-pressure pump is delayed by delaying the closing of the suction valve, characterized in that when the internal combustion engine starts the suction valve is closed and therefore the pressure buildup in the high-pressure element space of the high-pressure pump is delayed in accordance with at least one parameter which influences the lubrication conditions in a power unit space of the high-pressure pump, wherein the delay is preferably 0.1 to 1 second, and in that the fuel temperature and/or the fuel pressure in the power unit space are/is used as parameters.
A pneumatic tire comprising: a carcass as a skeleton, the carcass formed of one or more carcass plies extending in a toroidal shape across a pair of bead parts; one or more belt layers disposed on the outer side in the tire radial direction of a crown part of the carcass; a tread part disposed on the outer side in the tire radial direction of the belt layer, the tread part forming a tread surface part; and a rubber chafer part disposed on the outer surface in the tire width direction of the bead part; wherein a rubber composition for the tread part comprises: a rubber component, a thermoplastic resin, and a reinforcing filler; the rubber component comprises: from 50 to 95% by mass of natural rubber: NR, from 5 to 50% by mass of a modified styrene-butadiene copolymer rubber: modified SBR, and from 10 to 50 parts by mass of the thermoplastic resin, based on 100 parts by mass of the rubber component; and a rubber composition for the rubber chafer part comprises a carbon black having a nitrogen adsorption specific surface area: N 2 SA of 25 to 43 m 2 /g. a carcass as a skeleton, the carcass formed of one or more carcass plies extending in a toroidal shape across a pair of bead parts; one or more belt layers disposed on the outer side in the tire radial direction of a crown part of the carcass; a tread part disposed on the outer side in the tire radial direction of the belt layer, the tread part forming a tread surface part; and a rubber chafer part disposed on the outer surface in the tire width direction of the bead part; a rubber component, a thermoplastic resin, and a reinforcing filler; the rubber component comprises: from 50 to 95% by mass of natural rubber: NR, from 5 to 50% by mass of a modified styrene-butadiene copolymer rubber: modified SBR, and from 10 to 50 parts by mass of the thermoplastic resin, based on 100 parts by mass of the rubber component; and a rubber composition for the rubber chafer part comprises a carbon black having a nitrogen adsorption specific surface area: N 2 SA of 25 to 43 m 2 /g. from 50 to 95% by mass of natural rubber: NR, from 5 to 50% by mass of a modified styrene-butadiene copolymer rubber: modified SBR, and from 10 to 50 parts by mass of the thermoplastic resin, based on 100 parts by mass of the rubber component; and a rubber composition for the rubber chafer part comprises a carbon black having a nitrogen adsorption specific surface area: N 2 SA of 25 to 43 m 2 /g.