mhurhangee/ep-ind-claims huggingface dataset:
A switch, comprising: encapsulation circuitry configured to encapsulate a first packet in a second packet and a copy of the first packet in a third packet using Transparent Interconnection of Lots of Links, TRILL, encapsulation; and forwarding circuitry configured to: determine an output port for the second packet using TRILL header information of the second packet, wherein destination information of the second packet corresponds to destination information of the first packet, and determine an output port for the third packet using TRILL header information of the third packet, wherein a TRILL header of the third packet is different to a TRILL header of the second packet and destination information of the third packet is different from the destination information of the first and second packets (1706, 1708) and is based on port mirroring, wherein while encapsulating the first packet in the second packet and the copy of the first packet in the third packet, the encapsulation circuitry is configured to preserve Virtual Local Area Network, VLAN, identifiers of the first packet and the copy of the first packet. encapsulation circuitry configured to encapsulate a first packet in a second packet and a copy of the first packet in a third packet using Transparent Interconnection of Lots of Links, TRILL, encapsulation; and forwarding circuitry configured to: determine an output port for the second packet using TRILL header information of the second packet, wherein destination information of the second packet corresponds to destination information of the first packet, and determine an output port for the third packet using TRILL header information of the third packet, wherein a TRILL header of the third packet is different to a TRILL header of the second packet and destination information of the third packet is different from the destination information of the first and second packets (1706, 1708) and is based on port mirroring, wherein while encapsulating the first packet in the second packet and the copy of the first packet in the third packet, the encapsulation circuitry is configured to preserve Virtual Local Area Network, VLAN, identifiers of the first packet and the copy of the first packet. determine an output port for the second packet using TRILL header information of the second packet, wherein destination information of the second packet corresponds to destination information of the first packet, and determine an output port for the third packet using TRILL header information of the third packet, wherein a TRILL header of the third packet is different to a TRILL header of the second packet and destination information of the third packet is different from the destination information of the first and second packets (1706, 1708) and is based on port mirroring, wherein while encapsulating the first packet in the second packet and the copy of the first packet in the third packet, the encapsulation circuitry is configured to preserve Virtual Local Area Network, VLAN, identifiers of the first packet and the copy of the first packet.
Method for controlling a dual-clutch gearbox with a drive shaft and an output shaft, which are coupled for an engaged gear ratio (1-6, R) via active gearbox parts (E1, Z1, Z2, S2, Z3, Z4), while other gearbox parts are free and rotate independently from the output shaft, wherein the reaction of the free gearbox parts is observed to a varying drive and thus parameters are determined for an adaptation of the control of gearbox and/or for a gearbox diagnosis, characterised in that the varying drive takes place by opening and/or closing a clutch that is disposed between the free gearbox parts and the drive shaft, wherein during the process no positive or frictional connection between the free gearbox parts and the output shaft exists.
A wearable device (100, 200), comprising: a motion sensor configured to sense a motion signal from a motion of a user of the wearable device (100, 200); and a processor configured to calculate a motion of the wearable device based on the motion signal and position related information received from a neighbor wearable device (101, 102, 103); and a magnetic near field communicator configured to receive the position related information from the neighbor wearable device and transmit the position related information to the processor, wherein the position related information comprises at least one of a distance from the wearable device estimated by the neighbor wearable device, a motion signal of the neighbor wearable device, and a position of the neighbor wearable device. a motion sensor configured to sense a motion signal from a motion of a user of the wearable device (100, 200); and a processor configured to calculate a motion of the wearable device based on the motion signal and position related information received from a neighbor wearable device (101, 102, 103); and a magnetic near field communicator configured to receive the position related information from the neighbor wearable device and transmit the position related information to the processor, wherein the position related information comprises at least one of a distance from the wearable device estimated by the neighbor wearable device, a motion signal of the neighbor wearable device, and a position of the neighbor wearable device.
A method for transcoding a video stream encoded in a reference quality into at least one other quality, the method comprising: - receiving the video stream in the reference quality; - receiving at least one transcoding hint signal corresponding respectively with the at least one other quality comprising: at least one transcoding instruction hint for adapting a prediction search technique for encoding the video stream into the at least one other quality; and at least one respectively associated complexity cost of performing the respective adapted prediction search technique; - extracting from the at least one transcoding hint signal the at least one transcoding instruction hint and the at least one respectively associated complexity cost by parsing information contained in the at least one transcoding hint signal; - decoding the received video stream; and - encoding the decoded video stream in the at least one other quality, taking into account the extracted at least one transcoding instruction hint and the at least one associated complexity cost; and characterized in that the at least one transcoding hint signal comprises at least one prediction data translation hint for translating prediction data of the video stream in the reference quality into the at least one other quality, wherein the prediction data translation hint comprises a bit sequence indicating prediction data of a predefined spatial region of the video stream in the reference quality; and wherein the method comprises translating the indicated prediction data of the predefined spatial region of the video stream in the reference quality into the at least one other quality based on the at least one prediction data translation hint, wherein the at least one transcoding instruction hint represents a prediction search technique refinement by adapting a search space of the prediction search technique. - receiving the video stream in the reference quality; - receiving at least one transcoding hint signal corresponding respectively with the at least one other quality comprising: at least one transcoding instruction hint for adapting a prediction search technique for encoding the video stream into the at least one other quality; and at least one respectively associated complexity cost of performing the respective adapted prediction search technique; - extracting from the at least one transcoding hint signal the at least one transcoding instruction hint and the at least one respectively associated complexity cost by parsing information contained in the at least one transcoding hint signal; - decoding the received video stream; and - encoding the decoded video stream in the at least one other quality, taking into account the extracted at least one transcoding instruction hint and the at least one associated complexity cost; and characterized in that
A motor for an electrodynamic loudspeaker, comprising: a magnetic circuit assembly arranged about a motor axis, comprising: an outer magnet, a magnetically permeable top plate, a magnetically permeable bottom plate, a center pole piece and an air gap for receipt of a voice coil; wherein the air gap is formed by an inner axially extending wall of the magnetically permeable top plate facing an axially extending peripheral wall section of the center pole piece to define a width, a bottom, a top and height of the air gap; characterized in that said magnetic circuit assembly comprises: an outwardly projecting, along the motor axis, magnetically permeable member arranged above the top of the air gap; and said center pole piece comprises a magnetic member extending axially from at least the bottom of the air gap to a magnetically permeable bottom member or to the magnetically permeable bottom plate; wherein said magnetic member exhibits a relative AC magnetic permeability smaller than 10, such as smaller than 5 or smaller than 2. an outer magnet, a magnetically permeable top plate, a magnetically permeable bottom plate, a center pole piece and an air gap for receipt of a voice coil; wherein the air gap is formed by an inner axially extending wall of the magnetically permeable top plate facing an axially extending peripheral wall section of the center pole piece to define a width, a bottom, a top and height of the air gap; characterized in that said magnetic circuit assembly comprises: an outwardly projecting, along the motor axis, magnetically permeable member arranged above the top of the air gap; and said center pole piece comprises a magnetic member extending axially from at least the bottom of the air gap to a magnetically permeable bottom member or to the magnetically permeable bottom plate; wherein said magnetic member exhibits a relative AC magnetic permeability smaller than 10, such as smaller than 5 or smaller than 2. an outwardly projecting, along the motor axis, magnetically permeable member arranged above the top of the air gap; and said center pole piece comprises a magnetic member extending axially from at least the bottom of the air gap to a magnetically permeable bottom member or to the magnetically permeable bottom plate; wherein said magnetic member exhibits a relative AC magnetic permeability smaller than 10, such as smaller than 5 or smaller than 2.
An optical system comprising: a first light-projecting system for irradiating a surface with first light from a light source; a second light-projecting system, different from the first light-projection system, for irradiating the surface with second light from a light source; a first light-receiving system including a first lens for focusing first reflected light generated by reflecting light incident on the surface from the first light-projecting system with a first angle of reflection by the surface, and a deflector for deflecting the first reflected light toward the photodetector; and a second light-receiving system, different from the first light-receiving system, including a second lens for focusing second reflected light generated by reflecting light incident on the surface from the second light-projecting system with a second angle of reflection, different from the first angle of reflection, by the surface; wherein the first reflected light includes specular reflected light of light incident on the surface from the first light-projecting system; wherein the second reflected light includes specular reflected light of light incident on the surface from the second light-projecting system; wherein a first light-receiving area of the photodetector arranged to receive the first reflected light from the first lens and the deflector is spaced apart from a second light-receiving area of the photodetector arranged to receive the second reflected light from the second lens, a direction of an optical axis of the first lens is different from a direction of an optical axis of the second lens. a first light-projecting system for irradiating a surface with first light from a light source; a second light-projecting system, different from the first light-projection system, for irradiating the surface with second light from a light source; a first light-receiving system including a first lens for focusing first reflected light generated by reflecting light incident on the surface from the first light-projecting system with a first angle of reflection by the surface, and a deflector for deflecting the first reflected light toward the photodetector; and a second light-receiving system, different from the first light-receiving system, including a second lens for focusing second reflected light generated by reflecting light incident on the surface from the second light-projecting system with a second angle of reflection, different from the first angle of reflection, by the surface; wherein the first reflected light includes specular reflected light of light incident on the surface from the first light-projecting system; wherein the second reflected light includes specular reflected light of light incident on the surface from the second light-projecting system; wherein a first light-receiving area of the photodetector arranged to receive the first reflected light from the first lens and the deflector is spaced apart from a second light-receiving area of the photodetector arranged to receive the second reflected light from the second lens, a direction of an optical axis of the first lens is different from a direction of an optical axis of the second lens.
A sealing device comprising: an expandable frame formed from a plurality of wires extending from a proximal end of the frame to a distal end of the frame, the plurality of wires forming: a proximal eyelet, an intermediate eyelet and a distal eyelet; the intermediate eyelet having been formed by grouping the wires together and winding around a center pin; when deployed, the wires forming proximal and distal elements (702, 704) on either side of the intermediate eyelet, the elements each forming a plurality of petals, each petal having overlapping zones, said sealing device being characterized in that the proximal and the distal eyelets have been formed by grouping the wires together and winding around a keyed center pin and in that said sealing device further comprises a sealing member at least partially encapsulating the expandable frame. an expandable frame formed from a plurality of wires extending from a proximal end of the frame to a distal end of the frame, the plurality of wires forming: a proximal eyelet, an intermediate eyelet and a distal eyelet; the intermediate eyelet having been formed by grouping the wires together and winding around a center pin; when deployed, the wires forming proximal and distal elements (702, 704) on either side of the intermediate eyelet, the elements each forming a plurality of petals, each petal having overlapping zones, said sealing device being characterized in that the proximal and the distal eyelets have been formed by grouping the wires together and winding around a keyed center pin and in that said sealing device further comprises a sealing member at least partially encapsulating the expandable frame.
A wireless transmit/receive unit (108, 310a, 502), WTRU, configured to communicate with an enterprise network including a home evolved node B (330, 506), H(e)NB, wherein the WTRU (108, 310a, 502) is a member of the enterprise network, the WTRU (108, 310a, 502) comprising: a transmitter configured to transmit a call setup request to the H(e)NB (330, 506), wherein the call setup request includes an identity, ID, of a target WTRU (310n, 504) and an ID of the WTRU (108, 310a, 502), wherein the target WTRU (310n, 504) is a member of the enterprise network; and a receiver configured to receive a connection responsive to the transmitted call setup request, the connection from a private branch exchange, PBX, server via the H(e)NB (330, 506). a transmitter configured to transmit a call setup request to the H(e)NB (330, 506), wherein the call setup request includes an identity, ID, of a target WTRU (310n, 504) and an ID of the WTRU (108, 310a, 502), wherein the target WTRU (310n, 504) is a member of the enterprise network; and a receiver configured to receive a connection responsive to the transmitted call setup request, the connection from a private branch exchange, PBX, server via the H(e)NB (330, 506).
A method for data transmission, comprising: encapsulating a first media access control, MAC, control element, CE, and a second MAC CE to a first transport block, and encapsulating a third MAC CE and a fourth MAC CE to a second transport block, wherein the first MAC CE and the third MAC CE are the same MAC CE, the second MAC CE is used for indicating a MAC CE which is the same as the first MAC CE, and the fourth MAC CE is used for indicating a MAC CE which is the same as the third MAC CE; and sending (S 120) the first transport block to a receiving end device through a first carrier, and sending the second transport block to the receiving end device through a second carrier. encapsulating a first media access control, MAC, control element, CE, and a second MAC CE to a first transport block, and encapsulating a third MAC CE and a fourth MAC CE to a second transport block, wherein the first MAC CE and the third MAC CE are the same MAC CE, the second MAC CE is used for indicating a MAC CE which is the same as the first MAC CE, and the fourth MAC CE is used for indicating a MAC CE which is the same as the third MAC CE; and sending (S 120) the first transport block to a receiving end device through a first carrier, and sending the second transport block to the receiving end device through a second carrier.
An optical processing device, comprising: a plurality of optical ports; a dispersion element for spatially dispersing an optical beam received from the optical ports into a plurality of wavelength components; an optical path conversion system for receiving the plurality of wavelength components and selectively directing at least one of the wavelength components to one of the optical ports; and at least a first optical element for focusing each of the plurality of wavelength components received by the optical path conversion system at a focal position and for collimating the selectively directed at least one wavelength component received from the optical path conversion system, wherein the first optical element includes a condenser lens; characterized in that an optical axis of said at least first optical element is inclined with respect to an optical axis direction from the optical ports to the optical path conversion system such that a maximum distance between the focal positions along the optical axis direction is reduced as compared to a case where the optical axis of said at least first optical element is not inclined, wherein said reduction solves the problem of compensating for chromatic aberrations introduced by the first optical element. a plurality of optical ports; a dispersion element for spatially dispersing an optical beam received from the optical ports into a plurality of wavelength components; an optical path conversion system for receiving the plurality of wavelength components and selectively directing at least one of the wavelength components to one of the optical ports; and at least a first optical element for focusing each of the plurality of wavelength components received by the optical path conversion system at a focal position and for collimating the selectively directed at least one wavelength component received from the optical path conversion system, wherein the first optical element includes a condenser lens; characterized in that an optical axis of said at least first optical element is inclined with respect to an optical axis direction from the optical ports to the optical path conversion system such that a maximum distance between the focal positions along the optical axis direction is reduced as compared to a case where the optical axis of said at least first optical element is not inclined, wherein said reduction solves the problem of compensating for chromatic aberrations introduced by the first optical element.
A wireless communications device having a housing and a screen with a portrait mode and a landscape mode with a restrictive data entry capability coupled to a wireless communications device motion sensor, characterized by a portrait mode disablement device coupled to the wireless communications device motion sensor to operate with an on board Micro-Electro-Mechanical system to immediately disable the portrait mode keypad or input device of the wireless communications device upon detection of vibration or motion of the wireless communications device above a predetermined rate and mandate use of the landscape mode of the wireless communications device and a two handed operation with a continuous grasp and retention by at least one finger or hand portion of each hand on predetermined contact areas (135, 136) along a back portion of the housing to enter data on the screen, and wherein the portrait mode disablement device is configured to communicate with the on board Micro-Electro-Mechanical system to block a driver from use of the wireless communications device in a vehicle in motion by the mandated use of the landscape mode of the wireless communications device, the mandated two handed operation and a required body damped operation of the wireless communication device, which is based on monitoring of vehicle and/or highway induced vibrations which are not damped by the body of the driver, and to allow passengers the use of the wireless communications device in the vehicle in motion by the mandated use of the landscape mode of the wireless communications device, the mandated two handed operation and a required body damped operation of the wireless communication device, which is based on monitoring of vehicle and/or highway induced vibrations damped by the body of passenger.