mhurhangee/ep-ind-claims huggingface dataset:
Gate driver circuit for a half bridge or full bridge output driver stage, having a high side branch connected to one or more high side output transistors (Mp) of the driver stage and a low side branch connected to one or more low side output transistors (Mn) of the driver stage, comprising a high side gate driver (10p; 21p) and a low side gate driver (10n; 21n) configured to receive input signals at a low voltage level and to operate with a high voltage level, configured to output signals at a high voltage level as gate driving signals (Gp, Gn) for the high side output transistors (Mp) and low side output transistors (Mn) wherein the high side and the low side branches of the gate driver include each a set-reset latch (24p, 24n) which signal output (Qp, Qpn) is fed as gate signal to the corresponding output transistor (Mp, Mn) of the half bridge or full bridge driver stage, a differential capacitive level shifter circuit (23p, 23n) configured to receive said input signals at a low voltage level and configured to output high voltage signals to drive the set and reset inputs of the set-reset latch (24p, 24n), said differential circuit (23p, 23n) including two hysteresis circuit modules (272o, 272f) configured to, when enabled, feed an additional current to the two outputs of the differential circuit (23p, 23n), said circuit modules being enabled by respective feedback signals (GPOFF, GPON) corresponding to the logic state at the input of the output transistors (Mp) of the driver stage of the corresponding branch and its negated.
A method of providing remote assistance for an autonomous vehicle, the method comprising: receiving (622, 642), from the autonomous vehicle, video data of an environment of the autonomous vehicle, wherein the received video data is stored in a memory of a remote assistance system; after receiving the video data from the autonomous vehicle, determining that one or more trigger criteria have been met, wherein the trigger criteria comprise at least one of the following: determining that the autonomous vehicle has stopped based on data received from the autonomous vehicle, determining that at least one object in the environment of the autonomous vehicle has a detection confidence below a threshold based on data received from the autonomous vehicle, and receiving an indication of a tactile event from the autonomous vehicle; in response to the one or more trigger criteria being met, providing (606, 626, 646), to an operator and from the video data previously received from the autonomous vehicle, video corresponding to a predetermined period of time before the one or more trigger criteria were met and leading up to a cause of the one or more trigger criteria having been met; receiving (608, 628, 648) an operator input; and in response to the operator input, providing (610, 630, 650) an instruction to the autonomous vehicle for execution by the autonomous vehicle via a network. receiving (622, 642), from the autonomous vehicle, video data of an environment of the autonomous vehicle, wherein the received video data is stored in a memory of a remote assistance system; after receiving the video data from the autonomous vehicle, determining that one or more trigger criteria have been met, wherein the trigger criteria comprise at least one of the following: determining that the autonomous vehicle has stopped based on data received from the autonomous vehicle, determining that at least one object in the environment of the autonomous vehicle has a detection confidence below a threshold based on data received from the autonomous vehicle, and receiving an indication of a tactile event from the autonomous vehicle; determining that the autonomous vehicle has stopped based on data received from the autonomous vehicle, determining that at least one object in the environment of the autonomous vehicle has a detection confidence below a threshold based on data received from the autonomous vehicle, and receiving an indication of a tactile event from the autonomous vehicle; in response to the one or more trigger criteria being met, providing (606, 626, 646), to an operator and from the video data previously received from the autonomous vehicle, video corresponding to a predetermined period of time before the one or more trigger criteria were met and leading up to a cause of the one or more trigger criteria having been met; receiving (608, 628, 648) an operator input; and in response to the operator input, providing (610, 630, 650) an instruction to the autonomous vehicle for execution by the autonomous vehicle via a network.
A method for receiving acknowledgement information in a wireless communication system according to the 3GPP LTE standard, the method comprising: transmitting configuration information for communicating with a secondary cell, SCell, on a primary cell, PCell, the PCell using a time division duplexing, TDD, and the SCell using a frequency division duplexing, FDD; transmitting downlink, DL, downlink control information, DCI, comprising 4 bits of an HARQ process number for the SCell; transmitting downlink data scheduled by the DL DCI on the SCell; receiving acknowledgement information for the downlink data, wherein in a case a UL-DL configuration of the PCell is one of 0, 1, 2, 3, 4 and 6 and the acknowledgement information for the PCell and the SCell is multiplexed and received on a physical uplink shared channel, PUSCH, which is scheduled by uplink, UL, DCI, a payload of the acknowledgement information is determined based on a following equation: O TDD ⋅ min W DAI UL M TDD + O FDD ⋅ min W DAI UL M FDD where O TDD ⋅ min W DAI UL M TDD is the acknowledgement information for the PCell and O FDD ⋅ min W DAI UL M FDD is the acknowledgement information for the SCell, O TDD and O FDD are 1 or 2 corresponding to a transmission mode of the PCell and a transmission mode of the SCell, respectively, and W DAI UL is indicated by downlink assignment index, DAI, included in the UL DCI and M TDD and M FDD are numbers of DL subframes for DL transmissions associated with the acknowledgement information for the PCell and for the SCell, respectively. transmitting configuration information for communicating with a secondary cell, SCell, on a primary cell, PCell, the PCell using a time division duplexing, TDD, and the SCell using a frequency division duplexing, FDD; transmitting downlink, DL, downlink control information, DCI, comprising 4 bits of an HARQ process number for the SCell; transmitting downlink data scheduled by the DL DCI on the SCell; receiving acknowledgement information for the downlink data, wherein in a case a UL-DL configuration of the PCell is one of 0, 1, 2, 3, 4 and 6 and the acknowledgement information for the PCell and the SCell is multiplexed and received on a physical uplink shared channel, PUSCH, which is scheduled by uplink, UL, DCI, a payload of the acknowledgement information is determined based on a following equation: O TDD ⋅ min W DAI UL M TDD + O FDD ⋅ min W DAI UL M FDD where O TDD ⋅ min W DAI UL M TDD is the acknowledgement information for the PCell and O FDD ⋅ min W DAI UL M FDD is the acknowledgement information for the SCell, O TDD and O FDD are 1 or 2 corresponding to a transmission mode of the PCell and a transmission mode of the SCell, respectively, and W DAI UL is indicated by downlink assignment index, DAI, included in the UL DCI and M TDD and M FDD are numbers of DL subframes for DL transmissions associated with the acknowledgement information for the PCell and for the SCell, respectively.
A vehicular projection system, comprising: a projection apparatus providing at least one image light beam (A+B); a beam splitting module dividing the at least one image light beam (A+B) into a first partial image light beam (A 1 +B 1) and a second partial image light beam (A 2 +B 2), wherein the at least one image light beam (A+B) comprises a first image information and a second image information simultaneously; and two projection screens (130b, 130a) respectively receiving a first image light beam (A 1) from the first partial image light beam (A 1 +B 1) and a second image light beam (B 2) from the second partial image light beam (A 2 +B 2), wherein the first and second image light beams (A 1 +B 2) correspond to the first and second image information (A, B) respectively, the first and second image light beams (A 1 +B 2) respectively have different polarizations, the beam splitting module comprises a first polarizer and a second polarizer, the first polarizer allows the first image light beam (A 1) to pass through and project onto one of the two projection screens, the second polarizer allows the second image light beam (B 2) to pass through and project onto the other one of the two projection screens, and each of the first and second image light beams (A 1 +B 2) respectively forms an image on one of the two projection screens (130b, 130a) corresponding thereto. a projection apparatus providing at least one image light beam (A+B); a beam splitting module dividing the at least one image light beam (A+B) into a first partial image light beam (A 1 +B 1) and a second partial image light beam (A 2 +B 2), wherein the at least one image light beam (A+B) comprises a first image information and a second image information simultaneously; and two projection screens (130b, 130a) respectively receiving a first image light beam (A 1) from the first partial image light beam (A 1 +B 1) and a second image light beam (B 2) from the second partial image light beam (A 2 +B 2), wherein the first and second image light beams (A 1 +B 2) correspond to the first and second image information (A, B) respectively, the first and second image light beams (A 1 +B 2) respectively have different polarizations, the beam splitting module comprises a first polarizer and a second polarizer, the first polarizer allows the first image light beam (A 1) to pass through and project onto one of the two projection screens, the second polarizer allows the second image light beam (B 2) to pass through and project onto the other one of the two projection screens, and each of the first and second image light beams (A 1 +B 2) respectively forms an image on one of the two projection screens (130b, 130a) corresponding thereto.
Videoendoscope comprising - an elongated shaft having a distal end and a proximal end and comprising an outer tube and an inner tube, - an objective lens disposed at the distal end of the shaft, and - at least one image sensor disposed proximally of the objective lens, wherein - the objective lens comprises a distal objective lens assembly, and a proximal objective lens assembly, - the image sensor, optionally together with the proximal objective lens assembly, is rotatable relative to the distal objective lens assembly about a longitudinal axis of the shaft, - the distal objective lens assembly is disposed in the outer tube, and - a torque for rotating the image sensor and optionally the proximal objective lens assembly relative to the distal objective lens assembly is transmittable through the inner tube disposed in the outer tube, which inner tube is non-rotatably and axially displaceably connected to a socket of the video endoscope accommodating the image sensor and optionally the proximal objective lens assembly wherein - the inner tube and the socket comprise coaxially engaging coupling sections (36, 37), characterized in that - a first of the coupling sections (36, 37) of the socket and of the inner tube comprises at least two recesses extending parallel to the longitudinal axis of the shaft, and in that - a second of the coupling sections (36, 37) of the socket and of the inner tube comprises at least two elastic projections which extend in the direction of the first coupling section (36, 37) and engage in the recesses. - an elongated shaft having a distal end and a proximal end and comprising an outer tube and an inner tube, - an objective lens disposed at the distal end of the shaft, and - at least one image sensor disposed proximally of the objective lens, wherein - the objective lens comprises a distal objective lens assembly, and a proximal objective lens assembly, - the image sensor, optionally together with the proximal objective lens assembly, is rotatable relative to the distal objective lens assembly about a longitudinal axis of the shaft, - the distal objective lens assembly is disposed in the outer tube, and - a torque for rotating the image sensor and optionally the proximal objective lens assembly relative to the distal objective lens assembly is transmittable through the inner tube disposed in the outer tube, which inner tube is non-rotatably and axially displaceably connected to a socket of the video endoscope accommodating the image sensor and optionally the proximal objective lens assembly wherein - the inner tube and the socket comprise coaxially engaging coupling sections (36, 37), characterized in that - a first of the coupling sections (36, 37) of the socket and of the inner tube comprises at least two recesses extending parallel to the longitudinal axis of the shaft, and in that - a second of the coupling sections (36, 37) of the socket and of the inner tube comprises at least two elastic projections which extend in the direction of the first coupling section (36, 37) and engage in the recesses.
A method of manufacturing an electronic assembly for emitting a responsive field comprising at least a first electrically conductive element (410; 710; 810) and a second electrically conductive element (420; 720; 820), the method comprising: - obtaining a first substrate film and a second substrate film, - providing through utilizing printed electronics technology the first electrically conductive element (410; 710; 810) to the first substrate film, - providing through utilizing printed electronics technology the second electrically conductive element (420; 720; 820) to the second substrate film, - arranging said electrically conductive elements (410, 420; 710, 720; 810, 820) printed on said substrate films (510, 520 at a pre-defined distance from each other for establishing a wireless electromagnetic coupling between said electrically conductive elements, wherein the pre-defined distance is based on desired operational characteristics of the electronic assembly, and - molding a molding material layer at least between said electrically conductive elements (410, 420; 710, 720; 810, 820), wherein the molding material layer has a thickness between said electrically conductive elements (410, 420; 710, 720; 810, 820) defined by the pre-defined distance. - obtaining a first substrate film and a second substrate film, - providing through utilizing printed electronics technology the first electrically conductive element (410; 710; 810) to the first substrate film, - providing through utilizing printed electronics technology the second electrically conductive element (420; 720; 820) to the second substrate film, - arranging said electrically conductive elements (410, 420; 710, 720; 810, 820) printed on said substrate films (510, 520 at a pre-defined distance from each other for establishing a wireless electromagnetic coupling between said electrically conductive elements, wherein the pre-defined distance is based on desired operational characteristics of the electronic assembly, and - molding a molding material layer at least between said electrically conductive elements (410, 420; 710, 720; 810, 820), wherein the molding material layer has a thickness between said electrically conductive elements (410, 420; 710, 720; 810, 820) defined by the pre-defined distance.
A method for screening alpha-amylases having high wash performance at low temperature, wherein the alpha-amylases have at least 85% sequence identity to SEQ ID NO: 2; and comprises the steps of a) determining the binding of the alpha-amylases to solid or immobilized starch; b) selecting alpha-amylases having a low binding to starch; wherein the alpha-amylases have less than 90% of the binding to starch than the alpha-amylase having SEQ ID NO: 2. a) determining the binding of the alpha-amylases to solid or immobilized starch; b) selecting alpha-amylases having a low binding to starch;
A client device capable of receiving a multicast stream through multiple communication networks, comprising a broadband network connected to a broadband interface and at least one broadcast network connected to at least one receive-only broadcast interface (34, 34') of the client device, wherein said client device comprises an adapter selector capable of - sending a control message of a protocol to a multicast proxy server, said control message requesting said multicast stream to be transmitted over the broadcast network; - selecting one of the at least one receive-only broadcast interface (34, 34') for receiving said multicast stream upon a reception of an acknowledgment to said control message, said acknowledgment comprising an indication of the broadcast network on which the multicast stream is available. - sending a control message of a protocol to a multicast proxy server, said control message requesting said multicast stream to be transmitted over the broadcast network; - selecting one of the at least one receive-only broadcast interface (34, 34') for receiving said multicast stream upon a reception of an acknowledgment to said control message, said acknowledgment comprising an indication of the broadcast network on which the multicast stream is available.
A method for manufacturing a semi-conducting backplane comprising: depositing semi-conducting particles in perforations of a supporting member such that a portion of the semi-conducting particles protrudes from the supporting member; applying suction to another portion of the semi-conducting particles to retain the semi-conducting particles in the perforations; applying a layer of encapsulant material onto the supporting member such that the portion of the semi-conducting particles is covered by the layer of encapsulant material; removing the supporting member to reveal an assembly of the semi-conducting particles and the layer of encapsulant material; and planarizing the other portion of the semi-conducting particles in the assembly of the semi-conducting particles and the layer of encapsulant material. depositing semi-conducting particles in perforations of a supporting member such that a portion of the semi-conducting particles protrudes from the supporting member; applying suction to another portion of the semi-conducting particles to retain the semi-conducting particles in the perforations; applying a layer of encapsulant material onto the supporting member such that the portion of the semi-conducting particles is covered by the layer of encapsulant material; removing the supporting member to reveal an assembly of the semi-conducting particles and the layer of encapsulant material; and planarizing the other portion of the semi-conducting particles in the assembly of the semi-conducting particles and the layer of encapsulant material.
A combined cycle heat engine comprising: a first gas turbine engine comprising a first air compressor (314a, 314b), a first combustion system (116, 120) and a first turbine system (118, 122); a second gas turbine engine comprising a second air compressor (136a, 136b) and a second turbine system; and a heat exchanger configured to transfer heat from an exhaust of the first turbine system (118, 122) to compressed air from the second air compressor (136a, 136b); wherein the first combustion system comprises a first combustor provided downstream of the first air compressor (314a, 314b) and upstream of the first turbine system (118, 122), and a second combustor downstream of a first turbine section of the first turbine system and upstream of a second turbine section of the first turbine system; characterised in that the first air compressor (314a, 314b) comprises a multi-stage compressor (314a, 314b) comprising two or more rotor stages, and the first gas turbine engine comprises one or more intercoolers configured to reject heat from the first air compressor (314a, 314b), between rotor stages. a first gas turbine engine comprising a first air compressor (314a, 314b), a first combustion system (116, 120) and a first turbine system (118, 122); a second gas turbine engine comprising a second air compressor (136a, 136b) and a second turbine system; and a heat exchanger configured to transfer heat from an exhaust of the first turbine system (118, 122) to compressed air from the second air compressor (136a, 136b); wherein the first combustion system comprises a first combustor provided downstream of the first air compressor (314a, 314b) and upstream of the first turbine system (118, 122), and a second combustor downstream of a first turbine section of the first turbine system and upstream of a second turbine section of the first turbine system; characterised in that the first air compressor (314a, 314b) comprises a multi-stage compressor (314a, 314b) comprising two or more rotor stages, and the first gas turbine engine comprises one or more intercoolers configured to reject heat from the first air compressor (314a, 314b), between rotor stages.
A buffer status reporting method, applied to a sending node that comprises a Packet Data Convergence Protocol, PDCP, entity and at least two Radio Link Control, RLC, entities, wherein the at least two RLC entities are all associated with the PDCP entity, the buffer status reporting method comprising: classifying, by the sending node, the at least two RLC entities as one second RLC entity and at least one first RLC entity; when a buffer of the PDCP entity comprises to-be-sent data, only generating, by the sending node, a second buffer status report, BSR, based on a size of to-be-sent data in the buffers of the PDCP entity and the one second RLC entity; and sending, by the sending node, the second BSR to a receiving node corresponding to the one second RLC entity. classifying, by the sending node, the at least two RLC entities as one second RLC entity and at least one first RLC entity; when a buffer of the PDCP entity comprises to-be-sent data, only generating, by the sending node, a second buffer status report, BSR, based on a size of to-be-sent data in the buffers of the PDCP entity and the one second RLC entity; and sending, by the sending node, the second BSR to a receiving node corresponding to the one second RLC entity.
A medical device formed of a metal fabric and having an expanded configuration and a collapsed configuration, wherein the medical device is collapsed for deployment through a catheter and, upon exiting the distal end of the catheter in a patient's channel, will resiliently substantially return to its expanded configuration, characterised in that the medical device in its expanded configuration has a generally tubular middle portion and a pair of disk-shaped expanded diameter portions, with one expanded diameter portion positioned at either end of the middle portion, wherein the wire strands (14, 14') of the metal fabric are formed of a shape memory NiTi alloy, optionally Nitinol.
A conductive film comprising a plurality of conductive portions and a plurality of opening portions, wherein the combination of the conductive portions and the opening portions has mesh shapes, the conductive portions are formed in a wavy line shape containing arcs extending in alternate directions, at least one of the arcs being disposed between intersections, characterized in that an arrangement period of the arcs varies along an extending direction of the conductive portion.