mhurhangee/patent-ind-claim-en huggingface dataset:
A method of generating an output video stream, comprising: - receiving (S201) a first input video stream from at least one first camera (120a-c) capturing a scene; - receiving (S202) a second input video stream from a second camera only partially capturing the scene, and - generating (S203) an output video stream from the first input video stream, characterised in that : in response to determining that a particular area of the output video stream depicts a part of the scene depicted in the second input video stream, refraining from, or at least reducing a level of, a masking (230a-c) of the particular area of the output video stream and performing masking as usual in one or more other areas of the output video stream not corresponding to the part of the scene depicted in the second input video stream. - receiving (S201) a first input video stream from at least one first camera (120a-c) capturing a scene; - receiving (S202) a second input video stream from a second camera only partially capturing the scene, and - generating (S203) an output video stream from the first input video stream, characterised in that : in response to determining that a particular area of the output video stream depicts a part of the scene depicted in the second input video stream, refraining from, or at least reducing a level of, a masking (230a-c) of the particular area of the output video stream and performing masking as usual in one or more other areas of the output video stream not corresponding to the part of the scene depicted in the second input video stream.
Hard lead zirconate titanate (PZT) ceramic of the general structure ABO 3 , characterized in that the PZT ceramic has doping with Mn on the B sites and additionally doping with Cu on the A sites and/or on the B sites, wherein the A sites have at least one further doping with Na and/or K.
A method for producing a powder for ultrahigh temperature ceramic applications, the method comprising: producing a boriding gas stream from a first powder in a first fluidized bed reactor ; delivering the boriding gas stream to a second fluidized bed reactor through a conduit fluidly connecting the first and second fluidized bed reactors , the second fluidized bed reactor containing a second powder; fluidizing the second powder in the second fluidized bed reactor ; and mixing the second powder with the boriding gas stream such that a metal boride powder or the second powder with a borided surface is formed; wherein the first powder comprises boron carbide and the second powder is selected from the group consisting of metal oxides, metal hydroxides, and alloys, and the method further comprises: fluidizing the boron carbide in a first chamber of the first fluidized bed reactor ; and heating the first chamber to a temperature ranging from approximately 600 to 1500 degrees Celsius to promote decomposition of the boron carbide and formation of the boriding gas stream. producing a boriding gas stream from a first powder in a first fluidized bed reactor ; delivering the boriding gas stream to a second fluidized bed reactor through a conduit fluidly connecting the first and second fluidized bed reactors , the second fluidized bed reactor containing a second powder; fluidizing the second powder in the second fluidized bed reactor ; and mixing the second powder with the boriding gas stream such that a metal boride powder or the second powder with a borided surface is formed; wherein the first powder comprises boron carbide and the second powder is selected from the group consisting of metal oxides, metal hydroxides, and alloys, and the method further comprises: fluidizing the boron carbide in a first chamber of the first fluidized bed reactor ; and heating the first chamber to a temperature ranging from approximately 600 to 1500 degrees Celsius to promote decomposition of the boron carbide and formation of the boriding gas stream. fluidizing the boron carbide in a first chamber of the first fluidized bed reactor ; and heating the first chamber to a temperature ranging from approximately 600 to 1500 degrees Celsius to promote decomposition of the boron carbide and formation of the boriding gas stream.
Power converter having a series circuit composed of a plurality of modules (1_1, 1_2, 1_3, ...), each comprising at least two electronic switching elements and an electrical energy store , the electrical energy store being a capacitor , the dielectric of which comprises a film , the film comprising a polymer provided with ceramic nanoparticles , - the surface of the nanoparticles is provided with a silane in such a way that a silane-containing, electrically polarizable boundary layer is formed between the nanoparticles and the polymer surrounding the nanoparticles, the thickness (D) of said boundary layer approximately corresponding to the diameter (d) of the nanoparticles . - the surface of the nanoparticles is provided with a silane in such a way that a silane-containing, electrically polarizable boundary layer is formed between the nanoparticles and the polymer surrounding the nanoparticles, the thickness (D) of said boundary layer approximately corresponding to the diameter (d) of the nanoparticles .
An adjustable therapeutic face mask , wherein said adjustable therapeutic face mask substantially covers a human face, comprising: a mask body having an interior portion and an exterior portion ; a flexible circuit board including a plurality of light emitting diodes (LEDs) towards the interior portion of said mask body ; a controlling unit coupled to the exterior portion of said mask body ; and a transparent silicone material sheet covering said flexible circuit board , wherein said plurality of LEDs emit different colors and intensities of light based on inputs from said controlling unit , wherein said mask body has cutouts for eyes, nostrils, and mouth to comfortably fix said mask on to a human face, wherein said flexible circuit board is fixed in between said mask body and said transparent silicon material sheet towards the interior portion of said mask body ; Characterized in that: the edges of said transparent silicone material sheet near the eye area of a user are made opaque to prevent the illuminated light entering a user's eyes. a mask body having an interior portion and an exterior portion ; a flexible circuit board including a plurality of light emitting diodes (LEDs) towards the interior portion of said mask body ; a controlling unit coupled to the exterior portion of said mask body ; and a transparent silicone material sheet covering said flexible circuit board , wherein said plurality of LEDs emit different colors and intensities of light based on inputs from said controlling unit , wherein said mask body has cutouts for eyes, nostrils, and mouth to comfortably fix said mask on to a human face, wherein said flexible circuit board is fixed in between said mask body and said transparent silicon material sheet towards the interior portion of said mask body ; Characterized in that: the edges of said transparent silicone material sheet near the eye area of a user are made opaque to prevent the illuminated light entering a user's eyes.
An assembly for handling fruit and vegetable products, which comprises first containment units for horticultural products (A) that can move along a first conveyance and control line and second containment units for fruit and vegetable products (A) that can move along a second conveyance and control line , which is laterally adjacent and proximate to said first conveyance and control line , said assembly comprising a plurality of means for transferring the horticultural products (A), said transfer means being distributed at least along a part of said first conveyance and control line and being selectively actuatable by an electronic management and control unit, for the transfer of each product (A) from a said first unit to a respective said second unit in a portion chosen from a plurality of different portions of said first conveyance and control line , wherein said assembly comprises an electronic control apparatus and said assembly is characterised in that said electronic control apparatus is provided with a first video camera that faces said first line , for checking the color, size and/or the presence of surface and pulp flaws on said horticultural products (A), which are supported and conveyed by said first units in a first arrangement, and a second video camera that faces said second line , for checking the color, size and/or the presence of surface and pulp flaws on said horticultural products (A), which are supported and conveyed by said second units in a second arrangement that is obtained automatically as a consequence of the transfer the products (A) from said first line to said second line , upon the occurrence of a predefined condition of mutual alignment between the horticultural product (A) to be transferred, which is conveyed by said first unit , and a said second unit , said electronic control apparatus comprising an electronic viewer associated with said electronic management and control unit and arranged along said first line , for the acquisition of the information related to the position assumed by each fruit and vegetable product (A) in the respective said first unit , said electronic management and control unit being provided with an algorithm configured for calculating the portion of said first line that corresponds to the occurrence of said predefined condition of mutual alignment, as a function of the shape and of the speeds of said first unit and of said second unit , and as a function of said position detected by said viewer, said predefined condition corresponding to the alignment of the fruit and vegetable product (A) to be transferred, which is conveyed by the respective said first unit , with the central portion of a respective said second unit .
A light generating device configured to generate device light , said light generating device comprising a first laser light source , a first frequency doubling element , and a light exit window , wherein - said first laser light source is arranged for generating first laser light being at least one of violet laser light having a first peak wavelength λ 1 selected from a spectral wavelength range from 380 to 420 nm and blue laser light having a second peak wavelength λ 2 selected from a spectral wavelength range from 420 to 490 nm, said first laser light comprising at least a first portion and a second portion (3"); - said first frequency doubling element is arranged for converting at least a portion of said first portion of said first laser light emitted by said first laser light source into a first frequency doubled light having a third peak wavelength λ 3 selected from a spectral wavelength range from 190 to 245 nm; characterized in a first luminescent element , wherein: - said first luminescent element comprises a first luminescent material configured to convert at least a portion of said second portion (3") of said first laser light into a first converted light having a fourth peak wavelength λ 4 in one or more of (a) the green spectral wavelength range and (b) the yellow spectral wavelength range; and - said light exit window is arranged to release said device light comprising at least said first frequency doubled light and said first converted light . - said first laser light source is arranged for generating first laser light being at least one of violet laser light having a first peak wavelength λ 1 selected from a spectral wavelength range from 380 to 420 nm and blue laser light having a second peak wavelength λ 2 selected from a spectral wavelength range from 420 to 490 nm, said first laser light comprising at least a first portion and a second portion (3"); - said first frequency doubling element is arranged for converting at least a portion of said first portion of said first laser light emitted by said first laser light source into a first frequency doubled light having a third peak wavelength λ 3 selected from a spectral wavelength range from 190 to 245 nm; - said first luminescent element comprises a first luminescent material configured to convert at least a portion of said second portion (3") of said first laser light into a first converted light having a fourth peak wavelength λ 4 in one or more of (a) the green spectral wavelength range and (b) the yellow spectral wavelength range; and - said light exit window is arranged to release said device light comprising at least said first frequency doubled light and said first converted light .
A head chip adapted to jet liquid comprising: an actuator plate having a plurality of ejection grooves (Cle, C2e) arranged side by side in a first direction (X), a plurality of non-ejection grooves (C1d, C2d) arranged side by side along the first direction, and individual electrodes (Eda) respectively formed in the plurality of non-ejection grooves; a nozzle plate having a plurality of nozzle holes (H1, H2) individually communicated with the plurality of ejection grooves; and a cover plate adapted to cover the actuator plate, characterised in that the cover plate has interconnection connecting sections respectively disposed in end part areas along a second direction (Y) perpendicular to the first direction, and adapted to electrically connect a plurality of individual interconnections (Wda) electrically connected to the individual electrodes to an interconnection board outside the head chip, the plurality of individual interconnections in the interconnection connecting section has a bend part (Pb) extending in an oblique direction crossing the second direction (Y) so as to circumvent a predetermined obstacle (H0), and a connection area (Afpc) between the plurality of individual interconnections and the interconnection board in the interconnection connecting section is an area including the bend part. an actuator plate having a plurality of ejection grooves (Cle, C2e) arranged side by side in a first direction (X), a plurality of non-ejection grooves (C1d, C2d) arranged side by side along the first direction, and individual electrodes (Eda) respectively formed in the plurality of non-ejection grooves; a nozzle plate having a plurality of nozzle holes (H1, H2) individually communicated with the plurality of ejection grooves; and a cover plate adapted to cover the actuator plate, characterised in that the cover plate has interconnection connecting sections respectively disposed in end part areas along a second direction (Y) perpendicular to the first direction, and adapted to electrically connect a plurality of individual interconnections (Wda) electrically connected to the individual electrodes to an interconnection board outside the head chip, the plurality of individual interconnections in the interconnection connecting section has a bend part (Pb) extending in an oblique direction crossing the second direction (Y) so as to circumvent a predetermined obstacle (H0), and a connection area (Afpc) between the plurality of individual interconnections and the interconnection board in the interconnection connecting section is an area including the bend part.
A vane assembly , comprising: a support structure that is a unitary component having an axial portion and a radial portion; an outer portion arranged between the support structure and a flow path (C), wherein the outer portion defines a gap between the outer portion and the support structure axial portion ; and a flange (470; 472) extending into the gap, wherein a seal is arranged in the gap, wherein the flange (470; 472) is formed in the outer portion and extends from the outer portion towards the support structure , characterised in that the assembly comprises a second flange (480; 482) formed in the support structure and extending from the support structure axial portion to create a tortuous flow path. a support structure that is a unitary component having an axial portion and a radial portion; an outer portion arranged between the support structure and a flow path (C), wherein the outer portion defines a gap between the outer portion and the support structure axial portion ; and a flange (470; 472) extending into the gap, wherein a seal is arranged in the gap, wherein the flange (470; 472) is formed in the outer portion and extends from the outer portion towards the support structure , characterised in that the assembly comprises a second flange (480; 482) formed in the support structure and extending from the support structure axial portion to create a tortuous flow path.
A subsurface safety valve control system downhole station for provision in downhole metallic structure of a well installation which comprises a subsurface safety valve (V) having an open state allowing flow through the valve (V) and a closed state obstructing flow through the valve (V), wherein the downhole station is arranged for picking up electrical signals from the downhole metallic structure to obtain valve control signals and for outputting control signals for controlling the subsurface safety valve (V) in dependence on the signals picked up from the downhole metallic structure , wherein the downhole station comprises a hardware electronics channel for handling electrical signals picked up from the downhole metallic structure and the hardware electronics channel is arranged for detecting the presence and/or absence of hold valve open signals, and the downhole station is arranged to cause the subsurface safety valve (V) to be held in the open state whilst expected hold valve open signals are received and is arranged to cause the subsurface safety valve (V) to move to the closed state in the absence of expected hold valve open signals, characterised in that : the downhole station is arranged to detect, from the electrical signals picked up from the downhole metallic structure , auxiliary control signals which are distinct from the hold valve open signals. the downhole station comprises a hardware electronics channel for handling electrical signals picked up from the downhole metallic structure and the hardware electronics channel is arranged for detecting the presence and/or absence of hold valve open signals, and the downhole station is arranged to cause the subsurface safety valve (V) to be held in the open state whilst expected hold valve open signals are received and is arranged to cause the subsurface safety valve (V) to move to the closed state in the absence of expected hold valve open signals, characterised in that : the downhole station is arranged to detect, from the electrical signals picked up from the downhole metallic structure , auxiliary control signals which are distinct from the hold valve open signals.
A method of acquiring an image of a body by means of a row-column addressed matrix ultrasonic imaging device , the device comprising an array of elementary ultrasonic transducers connected in rows and columns by respectively row electrodes (R i ) and column electrodes (C j ), the method comprising: - performing N successive shots (TX1, ...TXN) of the same ultrasonic wave towards said body, where N is an integer greater than or equal to 2; - after each shot, implementing a reception phase (RX1, ...RXN), by means of said device, of a return ultrasonic wave reflected by said body, in which, during each of the reception phases (RX1, ...RXN), a variable electrical quantity representative of the received wave is read at each row electrode (R i ) of the device, and in which, between any two of the N reception phases (RX1, ...RXN), the sign of the individual contribution (e ij ) of at least one elementary ultrasonic transducer of the array is modified, the method further comprising a step of calculating, by means of an electronic processing device, by linear combinations of the electrical variable quantities (VRi) read on the row electrodes (Ri) of the device during the N reception phases (RX1, ...RXN), of an individual contribution (e ij ) of each of the elementary transducers of the array. - performing N successive shots (TX1, ...TXN) of the same ultrasonic wave towards said body, where N is an integer greater than or equal to 2; - after each shot, implementing a reception phase (RX1, ...RXN), by means of said device, of a return ultrasonic wave reflected by said body, in which, during each of the reception phases (RX1, ...RXN), a variable electrical quantity representative of the received wave is read at each row electrode (R i ) of the device, and in which, between any two of the N reception phases (RX1, ...RXN), the sign of the individual contribution (e ij ) of at least one elementary ultrasonic transducer of the array is modified, the method further comprising a step of calculating, by means of an electronic processing device, by linear combinations of the electrical variable quantities (VRi) read on the row electrodes (Ri) of the device during the N reception phases (RX1, ...RXN), of an individual contribution (e ij ) of each of the elementary transducers of the array. in which, during each of the reception phases (RX1, ...RXN), a variable electrical quantity representative of the received wave is read at each row electrode (R i ) of the device, and in which, between any two of the N reception phases (RX1, ...RXN), the sign of the individual contribution (e ij ) of at least one elementary ultrasonic transducer of the array is modified, the method further comprising a step of calculating, by means of an electronic processing device, by linear combinations of the electrical variable quantities (VRi) read on the row electrodes (Ri) of the device during the N reception phases (RX1, ...RXN), of an individual contribution (e ij ) of each of the elementary transducers of the array.
An autoinjector comprising a body that is adapted to receive a reservoir, said reservoir containing fluid and including a piston and a needle, such as a pre-filled syringe, said autoinjector further comprising an actuator sleeve that includes a contact end for coming into contact with the user's body, said actuator sleeve being movable relative to said body between projecting positions in which said actuator sleeve projects out from said body at least in part, and an actuated position in which said actuator sleeve is moved axially into said body , said actuator sleeve being in a first projecting position before actuation of the autoinjector, and in a second projecting position after actuation of the autoinjector; one of said actuator sleeve and of said body including a flexible tab that is adapted to deform laterally relative to said actuator sleeve and/or relative to said body when said actuator sleeve is moved from its first projecting position to its actuated position, then from its actuated position to return to its second projecting position, the other of said actuator sleeve and of said body including an initial zone that co-operates with said flexible tab in said first projecting position, an intermediate zone that co-operates with said flexible tab in said actuated position, and a final reception zone that co-operates with said flexible tab in said second projecting position, said final reception zone being offset, at least laterally, from said initial zone , the autoinjector being characterized in that a deformable axial wall is adapted to deform elastically so as to allow said flexible tab to pass from said initial zone to said intermediate zone , said deformable axial wall , in its non-deformed position, then being adapted to guide said flexible tab from said intermediate zone to said final reception zone . flexible tab includes a head that slides in said initial and final grooves between said initial , intermediate (105, and final-reception zones