mhurhangee/patent-ind-claim-en huggingface dataset:
A lighting device , including: - an electrically-powered light radiation source , - a beam-narrowing optical system facing the light radiation source and propagating a narrowed light radiation beam from said source along a longitudinal axis (X100) of the device , and arranged distally of the beam-narrowing optical system along said longitudinal axis , a cascaded arrangement of: - a light-condensing lens , - a light-driving lens , - a filament-like body including a plurality of annular reflective surfaces extending around said optical axis (X100) and exposed to light radiation of the light radiation source propagated through the light-condensing lens and the light-driving lens , - a distal mirror member having a reflective surface facing towards the filament-like body to reflect light radiation towards annular reflective surfaces in said plurality of annular reflective surfaces , wherein light radiation reflected by the annular reflective surfaces of the filament-like body is spread radially outwardly of the longitudinal axis (X100) of the device . - an electrically-powered light radiation source , - a beam-narrowing optical system facing the light radiation source and propagating a narrowed light radiation beam from said source along a longitudinal axis (X100) of the device , and arranged distally of the beam-narrowing optical system along said longitudinal axis , a cascaded arrangement of: - a light-condensing lens , - a light-driving lens , - a filament-like body including a plurality of annular reflective surfaces extending around said optical axis (X100) and exposed to light radiation of the light radiation source propagated through the light-condensing lens and the light-driving lens , - a distal mirror member having a reflective surface facing towards the filament-like body to reflect light radiation towards annular reflective surfaces in said plurality of annular reflective surfaces ,
A method of decoding an encoded representation of a picture of a video stream of multiple pictures , said method comprising: retrieving (S30) buffer description information defining at least one reference picture from a data structure included in said encoded representation of said picture ; determining (S31), based on said buffer description information, at least one picture identifier identifying a reference picture among said at least one reference picture as decoding reference for said picture ; updating (S32) a decoded picture buffer based on said at least one picture identifier by marking (S70) all reference pictures present in said decoded picture buffer and not being associated with any of said at least one picture identifier determined based on said buffer description information as unused for reference, and decoding (S33) said picture based on said encoded representation of said picture and at least one reference picture present in said decoded picture buffer , wherein decoding said picture is performed after updating said decoded picture buffer , characterized in that said buffer description information defines said at least one reference picture in an absolute and explicit way by means of said encoded representation of said picture which contains in said data structure the information about which reference picture to use for reference during decoding, independently of the encoded representation of previous pictures in the video stream, and wherein retrieving (S30) said buffer description information comprises: retrieving (S51), from said encoded representation of said picture , said buffer description information identifying a buffer description defining said at least one reference picture ; and identifying (S52), based on said buffer description information, said buffer description from a data structure comprising multiple predefined buffer descriptions each defining at least one reference picture . retrieving (S30) buffer description information defining at least one reference picture from a data structure included in said encoded representation of said picture ; determining (S31), based on said buffer description information, at least one picture identifier identifying a reference picture among said at least one reference picture as decoding reference for said picture ; updating (S32) a decoded picture buffer based on said at least one picture identifier by marking (S70) all reference pictures present in said decoded picture buffer and not being associated with any of said at least one picture identifier determined based on said buffer description information as unused for reference, and retrieving (S51), from said encoded representation of said picture , said buffer description information identifying a buffer description defining said at least one reference picture ; and identifying (S52), based on said buffer description information, said buffer description from a data structure comprising multiple predefined buffer descriptions each defining at least one reference picture .
Connection system comprising: a plug-in connector , a mating plug-in connector , and a locking unit , which is arranged on the plug-in connector and has a bolt , wherein the plug-in connector and the mating plug-in connector each have a housing (6.1; 6.2) and each have a contact carrier (7.1; 7.2) arranged in the housing (6.1; 6.2), the two contact carriers (7.1; 7.2) are each connected to at least one signal conductor (8.1; 8.2), the plug-in connector can be moved in a plug-in direction (x) to a connecting position with the mating plug-in connector , in which connecting position the signal conductor (8.1) of the plug-in connector is conductively connected to the signal conductor (8.2) of the mating plug-in connector , characterized in that the contact carriers (7.1; 7.2) each have at least one passage opening (9.1; 9.2), which is arranged transverse to the plug-in direction (x), the passage openings (9.1; 9.2) of the contact carriers (7.1; 7.2) are arranged in alignment with one another in the connecting position, the bolt can be moved between a locking position, in which the bolt is arranged in the passage openings (9.1; 9.2) of the two contact carriers (7.1; 7.2), and a unlocking position, in which the bolt is arranged outside the passage opening (9.1; 9.2) of at least one contact carrier (7.1; 7.2), in the connecting position. a plug-in connector , a mating plug-in connector , and a locking unit , which is arranged on the plug-in connector and has a bolt , wherein the plug-in connector and the mating plug-in connector each have a housing (6.1; 6.2) and each have a contact carrier (7.1; 7.2) arranged in the housing (6.1; 6.2), the two contact carriers (7.1; 7.2) are each connected to at least one signal conductor (8.1; 8.2), the plug-in connector can be moved in a plug-in direction (x) to a connecting position with the mating plug-in connector , in which connecting position the signal conductor (8.1) of the plug-in connector is conductively connected to the signal conductor (8.2) of the mating plug-in connector , characterized in that the contact carriers (7.1; 7.2) each have at least one passage opening (9.1; 9.2), which is arranged transverse to the plug-in direction (x), the passage openings (9.1; 9.2) of the contact carriers (7.1; 7.2) are arranged in alignment with one another in the connecting position, the bolt can be moved between a locking position, in which the bolt is arranged in the passage openings (9.1; 9.2) of the two contact carriers (7.1; 7.2), and a unlocking position, in which the bolt is arranged outside the passage opening (9.1; 9.2) of at least one contact carrier (7.1; 7.2), in the connecting position.
A transgenic mouse comprising: (a) an immunoglobulin kappa light chain locus that comprises the sequence of SEQ ID NO:2 and a cognate Locus Control Region (LCR), and (b) a heterologous immunoglobulin heavy chain locus comprising human VH gene segments, human D gene segments, human J gene segments, rat constant region gene segments, and a cognate LCR, wherein: the human VH gene segments consist of, in the following order 5' to 3', VH1-69, VH4-59, VH3-53, VH3-49, VH4-34, VH3-48, VH3-30, VH3-33, VH3-23, VH1-18, VH3-15, VH4-b, VH1-8, VH3-07, VH2-5, VH4-4, VH1-2, and VH6-1, the human J gene segments comprise all six human J gene segments, the human D gene segments consist of 21 human D gene segments in the following order 5' to 3': D1-1, D2-2, D3-9, D3-10, D4-11, D5-12, D6-13, D1-14, D2-15, D3-16, D3-17, D5-18, D6-19, D1-20, D2-21, D3-22, D4-23, D5-24, D6-25, D1-26, and D7-27, and the rat constant region gene segments comprise Cμ, Cγ2c, Cγ1, Cγ2b, and Cα, and wherein the endogenous mouse heavy chain locus and the endogenous mouse kappa light chain locus have been disabled. (a) an immunoglobulin kappa light chain locus that comprises the sequence of SEQ ID NO:2 and a cognate Locus Control Region (LCR), and (b) a heterologous immunoglobulin heavy chain locus comprising human VH gene segments, human D gene segments, human J gene segments, rat constant region gene segments, and a cognate LCR, wherein: the human VH gene segments consist of, in the following order 5' to 3', VH1-69, VH4-59, VH3-53, VH3-49, VH4-34, VH3-48, VH3-30, VH3-33, VH3-23, VH1-18, VH3-15, VH4-b, VH1-8, VH3-07, VH2-5, VH4-4, VH1-2, and VH6-1, the human J gene segments comprise all six human J gene segments, the human D gene segments consist of 21 human D gene segments in the following order 5' to 3': D1-1, D2-2, D3-9, D3-10, D4-11, D5-12, D6-13, D1-14, D2-15, D3-16, D3-17, D5-18, D6-19, D1-20, D2-21, D3-22, D4-23, D5-24, D6-25, D1-26, and D7-27, and the rat constant region gene segments comprise Cμ, Cγ2c, Cγ1, Cγ2b, and Cα, and wherein the endogenous mouse heavy chain locus and the endogenous mouse kappa light chain locus have been disabled. the human VH gene segments consist of, in the following order 5' to 3', VH1-69, VH4-59, VH3-53, VH3-49, VH4-34, VH3-48, VH3-30, VH3-33, VH3-23, VH1-18, VH3-15, VH4-b, VH1-8, VH3-07, VH2-5, VH4-4, VH1-2, and VH6-1, the human J gene segments comprise all six human J gene segments, the human D gene segments consist of 21 human D gene segments in the following order 5' to 3': D1-1, D2-2, D3-9, D3-10, D4-11, D5-12, D6-13, D1-14, D2-15, D3-16, D3-17, D5-18, D6-19, D1-20, D2-21, D3-22, D4-23, D5-24, D6-25, D1-26, and D7-27, and the rat constant region gene segments comprise Cμ, Cγ2c, Cγ1, Cγ2b, and Cα, and wherein the endogenous mouse heavy chain locus and the endogenous mouse kappa light chain locus have been disabled.
An apparatus, comprising: means for rendering a first zone of an image with a first level of detail during tessellation processing; means for rendering a second zone of the image with a second level of detail during tessellation processing, wherein the first level of detail is higher than the second level of detail; and means for presenting the first zone and the second zone on at least one display, wherein the means for rendering the first and second zones are configured to render the first and second zones in a single draw call. means for rendering a first zone of an image with a first level of detail during tessellation processing; means for rendering a second zone of the image with a second level of detail during tessellation processing, wherein the first level of detail is higher than the second level of detail; and means for presenting the first zone and the second zone on at least one display, wherein the means for rendering the first and second zones are configured to render the first and second zones in a single draw call.
A wireless charging system , comprising: a transmission pad , a reception pad and a foreign object detection apparatus ; wherein said foreign object detection apparatus comprises: a plurality of object sensing devices configured to be positioned between the transmission pad and the reception pad ; and a detection circuit configured to determine whether a foreign object is present between the transmission pad and the reception pad based on data received from the plurality of object sensing devices, wherein each of the plurality of object sensing devices includes a first coil unit wound with a first coil in a first direction, and a second coil unit wound with a second coil in a second direction different from the first direction, and wherein the first coil unit and the second coil unit overlap each other, and wherein the plurality of object sensing devices includes a first object sensing device and a second object sensing device , wherein the detection circuit is configured to alternatively operate the first object sensing device and the second object sensing device on a time division basis, and wherein the first object sensing device is deposited on the second object sensing device , or wherein the second object sensing device is deposited on the first object sensing device . a transmission pad , a reception pad and a foreign object detection apparatus ; wherein said foreign object detection apparatus comprises: a plurality of object sensing devices configured to be positioned between the transmission pad and the reception pad ; and a detection circuit configured to determine whether a foreign object is present between the transmission pad and the reception pad based on data received from the plurality of object sensing devices, wherein each of the plurality of object sensing devices includes a first coil unit wound with a first coil in a first direction, and a second coil unit wound with a second coil in a second direction different from the first direction, and wherein the first coil unit and the second coil unit overlap each other, and wherein the plurality of object sensing devices includes a first object sensing device and a second object sensing device , wherein the detection circuit is configured to alternatively operate the first object sensing device and the second object sensing device on a time division basis, and wherein the first object sensing device is deposited on the second object sensing device , or wherein the second object sensing device is deposited on the first object sensing device .
A method of manufacturing a surgical guide tool for use in total hip replacement surgery on a proximal portion of a femur having a head , a neck extending distally from the head, and a surface region distal the head, the method comprising: a) generating medical imaging data associated with the proximal portion of the femur; b) employing the imaging data to generate a three-dimensional computer-generated femur model of the proximal portion of the femur; c) providing a three-dimensional computer-generated implant model; d) providing a three-dimensional computer-generated tool model of at least a portion of at least a surgical guide tool and a surgical guide tool blank; e) superimposing the femur model and implant model; f) superimposing the tool model with the superimposed femur model and implant model; g) computer generating manufacturing instructions from data determined from step f; h) employing the manufacturing instructions at a manufacturing machine to generate the surgical guide tool; characterized in that the method further comprises i) providing at least one of a three- dimensional computer generated sphere model and a computer generated rod model and at least one of: superimposing the sphere model with the femur model so a center of the sphere model is caused to generally coincide with a center of a head of the femur model; and superimposing the rod model with the femur model so the rod model is caused to generally align with a shaft of the femur model. a) generating medical imaging data associated with the proximal portion of the femur; b) employing the imaging data to generate a three-dimensional computer-generated femur model of the proximal portion of the femur; c) providing a three-dimensional computer-generated implant model; d) providing a three-dimensional computer-generated tool model of at least a portion of at least a surgical guide tool and a surgical guide tool blank; e) superimposing the femur model and implant model; f) superimposing the tool model with the superimposed femur model and implant model; g) computer generating manufacturing instructions from data determined from step f; h) employing the manufacturing instructions at a manufacturing machine to generate the surgical guide tool; characterized in that the method further comprises i) providing at least one of a three- dimensional computer generated sphere model and a computer generated rod model and at least one of: superimposing the sphere model with the femur model so a center of the sphere model is caused to generally coincide with a center of a head of the femur model; and superimposing the rod model with the femur model so the rod model is caused to generally align with a shaft of the femur model.
A communication device , comprising: a ground element ; an antenna element , wherein the antenna element is a loop antenna, one end of the antenna element is a grounding end connected to the ground element , and the other end of the antenna element is a feeding end close to the grounding end ; a group of matching circuits comprising at least two separate matching circuits ; a communication module connected to the group of matching circuits , wherein one of the matching circuits is selectively connected to the feeding end ; and a selection circuit selectively connecting one of the matching circuits to the feeding end ; wherein the group of matching circuits comprises a first matching circuit and a second matching circuit ; each of the first matching circuit and the second matching circuit comprises at least an inductive element and a capacitive element, and the inductive element and the capacitive element are connected in series; and the antenna element is planar and defines an opening, and the opening substantially has an L-shape. a ground element ; an antenna element , wherein the antenna element is a loop antenna, one end of the antenna element is a grounding end connected to the ground element , and the other end of the antenna element is a feeding end close to the grounding end ; a group of matching circuits comprising at least two separate matching circuits ; a communication module connected to the group of matching circuits , wherein one of the matching circuits is selectively connected to the feeding end ; and a selection circuit selectively connecting one of the matching circuits to the feeding end ; wherein the group of matching circuits comprises a first matching circuit and a second matching circuit ; each of the first matching circuit and the second matching circuit comprises at least an inductive element and a capacitive element, and the inductive element and the capacitive element are connected in series; and the antenna element is planar and defines an opening, and the opening substantially has an L-shape.
Molding station for manufacturing polyurethane semi worked items, comprising a mold holder , a mold for manufacturing polyurethane semi worked items, and a nozzle for dispensing polyurethane in liquid state , wherein: - the mold holder comprises a rest surface for holding the mold , means for rotating the rest surface around a pitch axis y and means for rotating the rest surface around a roll axis x; - the mold is constrained to the rest surface of the mold holder ; - the mold comprises a bottom wall and side walls , so as to define a cavity, and a cover suitable for closing the cavity; and wherein - the dispensing nozzle comprises moving means and dispensing control means , controlled electronically, and is suitable for dispensing polyurethane in liquid state in the mold . - the mold holder comprises a rest surface for holding the mold , means for rotating the rest surface around a pitch axis y and means for rotating the rest surface around a roll axis x; - the mold is constrained to the rest surface of the mold holder ; - the mold comprises a bottom wall and side walls , so as to define a cavity, and a cover suitable for closing the cavity; and wherein - the dispensing nozzle comprises moving means and dispensing control means , controlled electronically, and is suitable for dispensing polyurethane in liquid state in the mold .
Multizone coverage telecommunication satellite comprising at least one send and/or receive antenna (A) comprising a multiplicity of send and/or receive sources (Si) adapted to deliver and/or receive a beam in a chosen direction defined by a phase of chosen value and an amplitude of chosen value, each of the send and/or receive sources (Si) being coupled to processing means (MTi) arranged to deviate said beam or said receive direction in multiple other chosen directions as a function of a law of variation of the value of said amplitude, and first control means (MC) arranged to control the first processing means (MTi), coupled to said send and/or receive sources (Si) as a function of a chosen spatial-temporal scheme, said send and/or receive sources (Si) comprising a main line (LPi) connecting a feeder module (Ri) to a send and/or receive module (Ci), said processing means (MTi) comprising a coupler (CPi) installed on said send and/or receive line (LPi), characterized in that said coupler (CPi) is coupled to at least one resonant cavity (CRi), defining said amplitude by exciting one or more higher order mode to the fundamental mode of the telecommunication signal to be sent or received.