mhurhangee/patent-ind-claim-en huggingface dataset:
A full-duplex antenna, comprising: a receive antenna ; a first transmit antenna , disposed on one side of the receive antenna , wherein the first transmit antenna is a directional antenna, and a reverse direction of a main lobe of a radiation pattern of the first transmit antenna points to the receive antenna ; and a second transmit antenna , disposed on the other side of the receive antenna , wherein a distance between the second transmit antenna and the receive antenna is equal to a distance between the first transmit antenna and the receive antenna , the second transmit antenna is a directional antenna, and a reverse direction of a main lobe of a radiation pattern of the second transmit antenna points to the receive antenna ; a signal generator , wherein a first output end of the signal generator is connected to the first transmit antenna by means of a first conducting wire, a second output end of the signal generator is connected to the second transmit antenna by means of a second conducting wire, and the signal generator is configured to generate two channels of transmit signals having a same amplitude and reverse phases and separately send the two channels of transmit signals to the first transmit antenna and the second transmit antenna ; a digital interference canceller , wherein the digital interference canceller is configured to cancel interference signals received by the receive antenna from the first transmit antenna and the second transmit antenna . a receive antenna ; a first transmit antenna , disposed on one side of the receive antenna , wherein the first transmit antenna is a directional antenna, and a reverse direction of a main lobe of a radiation pattern of the first transmit antenna points to the receive antenna ; and a second transmit antenna , disposed on the other side of the receive antenna , wherein a distance between the second transmit antenna and the receive antenna is equal to a distance between the first transmit antenna and the receive antenna , the second transmit antenna is a directional antenna, and a reverse direction of a main lobe of a radiation pattern of the second transmit antenna points to the receive antenna ; a signal generator , wherein a first output end of the signal generator is connected to the first transmit antenna by means of a first conducting wire, a second output end of the signal generator is connected to the second transmit antenna by means of a second conducting wire, and the signal generator is configured to generate two channels of transmit signals having a same amplitude and reverse phases and separately send the two channels of transmit signals to the first transmit antenna and the second transmit antenna ; a digital interference canceller , wherein the digital interference canceller is configured to cancel interference signals received by the receive antenna from the first transmit antenna and the second transmit antenna .
A calculation scheme decision system comprising: a pre-calculation unit configured to perform, in an execution environment in which calculation for processing input data is performed using a network structure and weight data, calculation for each of respective layers of the network structure on predetermined data using at least one of calculation schemes prepared in advance for the respective layers of the network structure; a cost acquisition unit configured to acquire a calculation cost of the at least one calculation scheme for each of the respective layers of the network structure based on a result of the calculation by the pre-calculation unit; a decision unit configured to select one calculation scheme for each of the respective layers of the network structure based on the calculation cost from among the at least one of the calculation schemes prepared in advance for the respective layers to associate the layer of the network structure with the selected one calculation scheme; and a calculation unit configured to perform the calculation for each of the respective layers of the network structure on the input data in the execution environment using the calculation scheme associated with each layer of the network structure by the decision unit. a pre-calculation unit configured to perform, in an execution environment in which calculation for processing input data is performed using a network structure and weight data, calculation for each of respective layers of the network structure on predetermined data using at least one of calculation schemes prepared in advance for the respective layers of the network structure; a cost acquisition unit configured to acquire a calculation cost of the at least one calculation scheme for each of the respective layers of the network structure based on a result of the calculation by the pre-calculation unit; a decision unit configured to select one calculation scheme for each of the respective layers of the network structure based on the calculation cost from among the at least one of the calculation schemes prepared in advance for the respective layers to associate the layer of the network structure with the selected one calculation scheme; and a calculation unit configured to perform the calculation for each of the respective layers of the network structure on the input data in the execution environment using the calculation scheme associated with each layer of the network structure by the decision unit.
An endoscope system having an endoscope tip comprising: a front pointing optical assembly for generating a first image of a body cavity at a first working distance and a second image at a second working distance, wherein the front optical assembly comprises a front lens assembly mounted on a front image sensor and wherein said front lens assembly includes a first lens associated with said first working distance and a second lens associated with said second working distance, wherein both the first lens and the second lens are movable within said front lens assembly; at least one side pointing optical assembly for generating at least one side image of the body cavity; at least one illuminator associated with each of said front pointing optical assembly and said at least one side pointing optical assembly ; at least one actuation element located within said front pointing optical assembly ; and a processing system configured to enable said at least one actuation element to: move said first lens out of an optical path that connects a line of sight from said front image sensor to an object of interest within said body cavity; and move said second lens into said optical path to generate said second image. a front pointing optical assembly for generating a first image of a body cavity at a first working distance and a second image at a second working distance, wherein the front optical assembly comprises a front lens assembly mounted on a front image sensor and wherein said front lens assembly includes a first lens associated with said first working distance and a second lens associated with said second working distance, wherein both the first lens and the second lens are movable within said front lens assembly; at least one side pointing optical assembly for generating at least one side image of the body cavity; at least one illuminator associated with each of said front pointing optical assembly and said at least one side pointing optical assembly ; at least one actuation element located within said front pointing optical assembly ; and a processing system configured to enable said at least one actuation element to: move said first lens out of an optical path that connects a line of sight from said front image sensor to an object of interest within said body cavity; and move said second lens into said optical path to generate said second image. move said first lens out of an optical path that connects a line of sight from said front image sensor to an object of interest within said body cavity; and move said second lens into said optical path to generate said second image.
A non-explosive downhole cutting or perforating tool for creating openings in tubulars and/or earthen formations , the tool comprising: a carrier holding a thermate material ; an igniter in operational contact with the thermate material ; a penetrator head connected with the carrier , the penetrator head including a body that forms one or more ports oriented radially relative to the longitudinal axis of the tool and a communication path extending from the thermate material to the one or more ports ; and a moveable member in a closed position blocking the communication path and in an open position opening the communication path , wherein the moveable member is operated from the closed position to the open position in response to ignition of the thermate material to eject molten metal product produced from ignition of the thermate material through the one or more ports characterized in that the movable member is a valve member of a one-way valve . a carrier holding a thermate material ; an igniter in operational contact with the thermate material ; a penetrator head connected with the carrier , the penetrator head including a body that forms one or more ports oriented radially relative to the longitudinal axis of the tool and a communication path extending from the thermate material to the one or more ports ; and a moveable member in a closed position blocking the communication path and in an open position opening the communication path , wherein the moveable member is operated from the closed position to the open position in response to ignition of the thermate material to eject molten metal product produced from ignition of the thermate material through the one or more ports characterized in that the movable member is a valve member of a one-way valve .
Road retarder device , of the speed cushion type, made of concrete, and comprising at least two concrete modules (3-1 to 3-4; 4-1 to 4-8) which are assembled laterally to one another by mutual engagement shapes (50, 51; 52, 53) arranged on at least one vertical wall of each of the modules, characterized in that at least one module comprises at least one vertical wall equipped with an alternation of male shapes which are intended to fittingly engage with female shapes of a lateral face of an adjacent module, the male and female shapes constituting the mutual engagement shapes ; in that the mutual engagement shapes are an alternation of male and female shapes, preferably in the form of straight indentations, extending in height from the lower edge of a module, and at a distance from the opposite upper edge; and in that the mutual engagement shapes include dovetail shapes which are recessed or project transversely to a vertical wall of a module, the dovetail shape extending over the entire height of the module.
Winding device for winding coil wire onto a first coil former (105-1) and a second coil former (105-2) of a coil yoke of a relay, wherein the coil yoke comprises a first yoke limb (108-1) with a first coil former (105-1) and a second yoke limb (108-2) with a second coil former (105-2), wherein the first coil former (105-1) extends in direction of a first longitudinal axis (105-11), wherein the second coil former (105-2) extends in direction of a second longitudinal axis (105-22), and wherein the first coil former (105-1) and the second coil former (105-2) are arranged next to each other and are oriented parallel to one another, comprising: a rotatable coil receptacle for holding the coil yoke , wherein the coil receptacle is rotatable around an axis of rotation (101-1), wherein the axis of rotation (101-1) is oriented parallel to the first longitudinal axis (105-11) and second longitudinal axis (105-22), and wherein the coil receptacle is configured to support the coil yoke transversely to the axis of rotation (101-1) in a displaceable manner in order to position the first coil former (105-1) for the winding of coil wire onto the first coil former (105-1) such that the first longitudinal axis (105-11) coincides with the axis of rotation (101-1), and to position the second coil former (105-2) for the winding of coil wire onto the second coil former (105-2) such that the second longitudinal axis (105-22) coincides with the axis of rotation (101-1); and a winding nozzle , which is configured to dispense the coil wire parallel to the axis of rotation (101-1). a rotatable coil receptacle for holding the coil yoke , wherein the coil receptacle is rotatable around an axis of rotation (101-1), wherein the axis of rotation (101-1) is oriented parallel to the first longitudinal axis (105-11) and second longitudinal axis (105-22), and wherein the coil receptacle is configured to support the coil yoke transversely to the axis of rotation (101-1) in a displaceable manner in order to position the first coil former (105-1) for the winding of coil wire onto the first coil former (105-1) such that the first longitudinal axis (105-11) coincides with the axis of rotation (101-1), and to position the second coil former (105-2) for the winding of coil wire onto the second coil former (105-2) such that the second longitudinal axis (105-22) coincides with the axis of rotation (101-1); and a winding nozzle , which is configured to dispense the coil wire parallel to the axis of rotation (101-1).
A display device foldable through a range of degrees at a folding portion , the display device comprising: a rear cover ; a cover glass layer (118") extending from one side as a left side of the display device through the folding portion to the other side as a right side of the display device ; a light-emitting layer between the rear cover and the cover glass layer (118"); and a backplate between the rear cover and the light-emitting layer , wherein the backplate comprises a plurality of backplate slots that each extend from an upper surface of the backplate through a lower surface of the backplate to facilitate bending of the backplate , characterized in that : the cover glass layer (118") comprises a plurality of cover glass layer slots in the folding portion to facilitate folding of the cover glass layer (118"). a rear cover ; a cover glass layer (118") extending from one side as a left side of the display device through the folding portion to the other side as a right side of the display device ; a light-emitting layer between the rear cover and the cover glass layer (118"); and a backplate between the rear cover and the light-emitting layer , wherein the backplate comprises a plurality of backplate slots that each extend from an upper surface of the backplate through a lower surface of the backplate to facilitate bending of the backplate , characterized in that : the cover glass layer (118") comprises a plurality of cover glass layer slots in the folding portion to facilitate folding of the cover glass layer (118").
A fiber access terminal , comprising: a first housing and a second housing , wherein the first housing is connected to the second housing to form a receptacle and an opening , and the opening is located on a side of the receptacle ; a mounting panel that is housed in the opening and connected to both the first housing and the second housing , wherein the mounting panel comprises an adapter mounting hole , and the adapter mounting hole passes through the receptacle to the outside of the fiber access terminal to mount a fiber adapter , characterized in that the fiber access terminal further comprises a fiber management tray , the fiber management tray is located in the receptacle and rotationally connected to the second housing , the mounting panel is fixedly connected to the fiber management tray , and the fiber management tray is configured to mount a fiber optic splitter and fasten an optical fiber. a first housing and a second housing , wherein the first housing is connected to the second housing to form a receptacle and an opening , and the opening is located on a side of the receptacle ; a mounting panel that is housed in the opening and connected to both the first housing and the second housing , wherein the mounting panel comprises an adapter mounting hole , and the adapter mounting hole passes through the receptacle to the outside of the fiber access terminal to mount a fiber adapter , characterized in that the fiber access terminal further comprises a fiber management tray , the fiber management tray is located in the receptacle and rotationally connected to the second housing , the mounting panel is fixedly connected to the fiber management tray , and the fiber management tray is configured to mount a fiber optic splitter and fasten an optical fiber.
An organic electroluminescent device comprising a light-emitting layer B comprising: (i) a host material H B , which has a lowest unoccupied molecular orbital LUMO(H B ) having an energy E LUMO (H B ) and a highest occupied molecular orbital HOMO(H B ) having an energy E HOMO (H B ); (ii) a thermally activated delayed fluorescence (TADF) material E B , which has a lowermost excited singlet state energy level S1 E , a lowermost excited triplet state energy level T1 E , determined from the onset of the time-gated emission spectrum at 77 K with a decay time of 1 ms and integration time of 1 ms, a lowest unoccupied molecular orbital LUMO(E B ) having an energy E LUMO (E B ) and a highest occupied molecular orbital HOMO(E B ) having an energy E HOMO (E B ); and (iii) an depopulation agent S B , which has a lowermost excited singlet state energy level S1 S , a lowermost excited triplet state energy level T1 S , determined from the onset of the time-gated emission spectrum at 77 K with a decay time of 1 ms and integration time of 1 ms, a lowest unoccupied molecular orbital LUMO(S B ) having an energy E LUMO (S B ) and a highest occupied molecular orbital HOMO(S B ) having an energy E HOMO (S B ), wherein the depopulation agent S B is an organic TADF emitter or a combination of two or more organic TADF emitters, wherein E B emits thermally activated delayed fluorescence; and wherein the relations expressed by the following formulas to and either and or and apply: S1 S ≥ S1 E T 1 S ≥ 2.5 eV E LUMO E B < E LUMO H B 0.2 eV < E LUMO E B − E LUMO S B < 0.5 eV E LUMO E B > E LUMO H B 0.2 eV < E LUMO H B − E LUMO S B < 0.5 eV (i) a host material H B , which has a lowest unoccupied molecular orbital LUMO(H B ) having an energy E LUMO (H B ) and a highest occupied molecular orbital HOMO(H B ) having an energy E HOMO (H B ); (ii) a thermally activated delayed fluorescence (TADF) material E B , which has a lowermost excited singlet state energy level S1 E , a lowermost excited triplet state energy level T1 E , determined from the onset of the time-gated emission spectrum at 77 K with a decay time of 1 ms and integration time of 1 ms, a lowest unoccupied molecular orbital LUMO(E B ) having an energy E LUMO (E B ) and a highest occupied molecular orbital HOMO(E B ) having an energy E HOMO (E B ); and (iii) an depopulation agent S B , which has a lowermost excited singlet state energy level S1 S , a lowermost excited triplet state energy level T1 S , determined from the onset of the time-gated emission spectrum at 77 K with a decay time of 1 ms and integration time of 1 ms, a lowest unoccupied molecular orbital LUMO(S B ) having an energy E LUMO (S B ) and a highest occupied molecular orbital HOMO(S B ) having an energy E HOMO (S B ), wherein the depopulation agent S B is an organic TADF emitter or a combination of two or more organic TADF emitters, wherein E B emits thermally activated delayed fluorescence; and wherein the relations expressed by the following formulas to and either and or and apply: S1 S ≥ S1 E T 1 S ≥ 2.5 eV E LUMO E B < E LUMO H B 0.2 eV < E LUMO E B − E LUMO S B < 0.5 eV E LUMO E B > E LUMO H B 0.2 eV < E LUMO H B − E LUMO S B < 0.5 eV
Motor vehicle provided with right and left external handles respectively equipping a right lateral door and a left lateral door of the vehicle , the handles each being equipped with an actuating module comprising a housing housing an electric actuator and an electric circuit assigned to at least supplying the actuator with electric flux (F1), the electric circuit comprising at least conductors 1) and an electronic control board , the housing being provided with a first connector comprising first electrical pads at least assigned to the individual distribution of the electrical flows (F1) to the electrical circuit and comprising mechanical junction means capable of providing a fixing of the first connector with a second connector for their electrical connection to one another, characterized in that the actuation modules (4, 4D, G) fitted respectively to the right and left handles are identical symmetrically with respect to a longitudinal axis (L1) and are arranged on the right and left lateral openings respectively symmetrically with respect to a longitudinal axis (L1) of extension of the vehicle between the front (AV) and the rear (AR).
A method for preserving a color gamut of content of a source including a gamut mapping of said content, characterized by : - determining metadata describing said color gamut of content of a source, wherein the metadata includes color gamut of said source defined by a set of vertices with or without indexed facets in a chosen color space, the metadata including a FACET_MODE field indicative of whether the following data fields include indexed vertices, followed by a NUMBER_FACETS field indicative of the number of facets and packed facet indices dependent on the FACET_MODE; - communicating said metadata to a data channel for an adaptation of said gamut mapping that preserves saturation and contrast levels of the source. - determining metadata describing said color gamut of content of a source, wherein the metadata includes color gamut of said source defined by a set of vertices with or without indexed facets in a chosen color space, the metadata including a FACET_MODE field indicative of whether the following data fields include indexed vertices, followed by a NUMBER_FACETS field indicative of the number of facets and packed facet indices dependent on the FACET_MODE; - communicating said metadata to a data channel for an adaptation of said gamut mapping that preserves saturation and contrast levels of the source.