mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a guidewire ; a type-1 catheter having a guidewire lumen, a type-1 proximal end, and a tailpiece , wherein the tailpiece comprises: a tailpiece proximal end connecting the tail- piece to a distal end of the type-1 proximal end; a tailpiece distal end ; a protrusion extending radially outward from the tailpiece distal end ; a push region opposite the protrusion , wherein the push region comprises a balloon pocket and the tailpiece distal end has a relaxed configuration responsive to outwardly acting force to move to an activated configuration, and a type-2 catheter having: a body ; an angioplasty balloon disposed on the distal end of the body ; and a guidewire lumen associated with the body, wherein the push region has a shape that is complementary to the angioplasty balloon . a guidewire ; a type-1 catheter having a guidewire lumen, a type-1 proximal end, and a tailpiece , wherein the tailpiece comprises: a tailpiece proximal end connecting the tail- piece to a distal end of the type-1 proximal end; a tailpiece distal end ; a protrusion extending radially outward from the tailpiece distal end ; a push region opposite the protrusion , a tailpiece proximal end connecting the tail- piece to a distal end of the type-1 proximal end; a tailpiece distal end ; a protrusion extending radially outward from the tailpiece distal end ; a push region opposite the protrusion , wherein the push region comprises a balloon pocket and the tailpiece distal end has a relaxed configuration responsive to outwardly acting force to move to an activated configuration, and a type-2 catheter having: a body ; an angioplasty balloon disposed on the distal end of the body ; and a guidewire lumen associated with the body, wherein the push region has a shape that is complementary to the angioplasty balloon . a body ; an angioplasty balloon disposed on the distal end of the body ; and a guidewire lumen associated with the body, wherein the push region has a shape that is complementary to the angioplasty balloon .
A semiconductor module , comprising: a base configuring a multiple of terminals (C1 to C6, B1, B2, M1, M2) or wires (G1, G2); a semiconductor switching element (T1 to T4) mounted on a mounting portion of the terminal (C1 to C6, B1, B2, M1, M2); and a molded resin that seals the semiconductor switching element (T1 to T4), wherein a wide portion (G10, G11, G12, G13, G20) having a width greater than that of the terminal (C1 to C6, B1, B2, M1, M2) or the wire (G1, G2) is a reinforcing member and formed in one portion of the terminal (C1 to C6, B1, B2, M1, M2) or the wire (G1, G2) in an outer peripheral side end portion of the molded resin , and the wide portion (G10, G11, G12, G13, G20) is embedded and fixed in an interior of the molded resin in a state extended toward the interior from the outer peripheral side end portion of the molded resin , characterized in that one portion of the wide portion (G10, G11, G12, G13, G20) is formed protruding in upward and downward and in left and right directions from an external side face of the molded resin . a base configuring a multiple of terminals (C1 to C6, B1, B2, M1, M2) or wires (G1, G2); a semiconductor switching element (T1 to T4) mounted on a mounting portion of the terminal (C1 to C6, B1, B2, M1, M2); and a molded resin that seals the semiconductor switching element (T1 to T4), wherein a wide portion (G10, G11, G12, G13, G20) having a width greater than that of the terminal (C1 to C6, B1, B2, M1, M2) or the wire (G1, G2) is a reinforcing member and formed in one portion of the terminal (C1 to C6, B1, B2, M1, M2) or the wire (G1, G2) in an outer peripheral side end portion of the molded resin , and the wide portion (G10, G11, G12, G13, G20) is embedded and fixed in an interior of the molded resin in a state extended toward the interior from the outer peripheral side end portion of the molded resin , characterized in that one portion of the wide portion (G10, G11, G12, G13, G20) is formed protruding in upward and downward and in left and right directions from an external side face of the molded resin .
A security paper including a plurality of planchettes , each planchette being a sheet having a first face and a second face, the sheet is at least partially transparent, and characterised in that the planchette has a first fluorescent layer on the first face of the sheet; a layer of UV absorbent material on the first fluorescent layer, the UV absorbent material being at least partially transparent to visible light; and a second fluorescent layer on the layer of UV absorbent material; and wherein the first fluorescent layer fluoresces in a different colour to the second fluorescent layer; and and wherein the absorbance of the UV absorbent material is such that substantially no UV light can pass through so that when the first face of the sheet is illuminated in reflected UV light, there is substantially no fluorescence from the first fluorescent layer and when the second face of the sheet is illuminated in reflected UV light, there is substantially no fluorescence from the second fluorescent layer; and when the first face of the sheet is illuminated in transmitted UV light, the fluorescence from the first fluorescent layer is at least partially visible through the UV absorbent layer and, when the second face of the sheet is illuminated in transmitted UV light, the fluorescence from the second fluorescent layer is at least partially visible through the UV absorbent layer and the sheet, thus the first face has a first colour and the second face has a second, different, colour also in transmitted light. a first fluorescent layer on the first face of the sheet; a layer of UV absorbent material on the first fluorescent layer, the UV absorbent material being at least partially transparent to visible light; and a second fluorescent layer on the layer of UV absorbent material; and wherein the first fluorescent layer fluoresces in a different colour to the second fluorescent layer; and and wherein the absorbance of the UV absorbent material is such that substantially no UV light can pass through so that when the first face of the sheet is illuminated in reflected UV light, there is substantially no fluorescence from the first fluorescent layer and when the second face of the sheet is illuminated in reflected UV light, there is substantially no fluorescence from the second fluorescent layer; and when the first face of the sheet is illuminated in transmitted UV light, the fluorescence from the first fluorescent layer is at least partially visible through the UV absorbent layer and, when the second face of the sheet is illuminated in transmitted UV light, the fluorescence from the second fluorescent layer is at least partially visible through the UV absorbent layer and the sheet, thus the first face has a first colour and the second face has a second, different, colour also in transmitted light.
A Bluetooth transmission control method comprising: establishing a Bluetooth connection with a file receiving device by a mobile terminal , and the mobile terminal initiating a Bluetooth file transmission operation to the file receiving device ; detecting whether the mobile terminal synchronously turns on a Bluetooth music playback operation or not when it is detected that the mobile terminal initiates the Bluetooth file transmission operation to the file receiving device ; in response to detecting that the mobile terminal turns on the Bluetooth music playback operation, negotiating with the file receiving device by the mobile terminal to determine a first timeout period for file transmission; in response to detecting that the mobile terminal turns off the Bluetooth music playback operation, negotiating with the file receiving device by the mobile terminal to determine a second timeout period for the file transmission, wherein the first timeout period is longer than the second timeout period, the second timeout period is a preset normal file transmission timeout period; transmitting a file to the file receiving device by the mobile terminal according to the first timeout period, when the mobile terminal turns on the Bluetooth music playback operation; and transmitting the file to the file receiving device by the mobile terminal according to the second timeout period, when the mobile terminal turns off the Bluetooth music playback operation. establishing a Bluetooth connection with a file receiving device by a mobile terminal , and the mobile terminal initiating a Bluetooth file transmission operation to the file receiving device ; detecting whether the mobile terminal synchronously turns on a Bluetooth music playback operation or not when it is detected that the mobile terminal initiates the Bluetooth file transmission operation to the file receiving device ; in response to detecting that the mobile terminal turns on the Bluetooth music playback operation, negotiating with the file receiving device by the mobile terminal to determine a first timeout period for file transmission; in response to detecting that the mobile terminal turns off the Bluetooth music playback operation, negotiating with the file receiving device by the mobile terminal to determine a second timeout period for the file transmission, wherein the first timeout period is longer than the second timeout period, the second timeout period is a preset normal file transmission timeout period; transmitting a file to the file receiving device by the mobile terminal according to the first timeout period, when the mobile terminal turns on the Bluetooth music playback operation; and transmitting the file to the file receiving device by the mobile terminal according to the second timeout period, when the mobile terminal turns off the Bluetooth music playback operation.
A device for the production of an organoid cell culture or cultures, comprising: a base layer for support; a transducer layer arranged on the base layer ; and an intermediate layer , arranged on the transducer layer , comprising a plurality of openings to form cavities for organoid cell growth and a microchannel network for fluid flow; wherein the transducer layer comprises a heating device and at least a plurality of sensors in each cavity for cell parameter control and growth; wherein each sensor is located for measuring an organoid cell growth parameter in the interior of each cavity; wherein the heating device is located in the interior of each cavity; wherein the heating device and the plurality of sensors are in direct contact with the organoid cell culture or cultures; wherein the plurality of sensors is selected from temperature sensor , pH sensor or combinations thereof. a base layer for support; a transducer layer arranged on the base layer ; and an intermediate layer , arranged on the transducer layer , comprising a plurality of openings to form cavities for organoid cell growth and a microchannel network for fluid flow; wherein the transducer layer comprises a heating device and at least a plurality of sensors in each cavity for cell parameter control and growth; wherein each sensor is located for measuring an organoid cell growth parameter in the interior of each cavity; wherein the heating device is located in the interior of each cavity; wherein the heating device and the plurality of sensors are in direct contact with the organoid cell culture or cultures; wherein the plurality of sensors is selected from temperature sensor , pH sensor or combinations thereof.
A system for inspecting a surface, comprising: a laser configured to emit light at a wavelength that varies over time; an optical system including at least one optical element , the optical system configured to direct light emitted by the laser to points along a scan line during a plurality of time intervals such that: the wavelength of the light directed to each point along the scan line varies from point to point within time intervals of the plurality of time intervals, and over the plurality of time intervals, light having each wavelength of a plurality of wavelengths is directed to each point along the scan line; a gated camera configured to record a fluorescent response of the surface from the light having each wavelength of the plurality of wavelengths at each point along the scan line; and a control system configured to control the wavelength of the light emitted by the laser and control gating of the gated camera. a laser configured to emit light at a wavelength that varies over time; an optical system including at least one optical element , the optical system configured to direct light emitted by the laser to points along a scan line during a plurality of time intervals such that: the wavelength of the light directed to each point along the scan line varies from point to point within time intervals of the plurality of time intervals, and over the plurality of time intervals, light having each wavelength of a plurality of wavelengths is directed to each point along the scan line; the wavelength of the light directed to each point along the scan line varies from point to point within time intervals of the plurality of time intervals, and over the plurality of time intervals, light having each wavelength of a plurality of wavelengths is directed to each point along the scan line; a gated camera configured to record a fluorescent response of the surface from the light having each wavelength of the plurality of wavelengths at each point along the scan line; and a control system configured to control the wavelength of the light emitted by the laser and control gating of the gated camera.
A phase shift mask, comprising: a transparent substrate which includes a scribe line region , a peripheral edge region surrounded by said scribe line region , and an integrated circuit region surrounded by said peripheral edge region and having rectangular shape; a phase shifter film formed in said scribe line region , said peripheral edge region , and said integrated circuit region on said transparent substrate ; a light shield film formed in said scribe line region and in only a part of said peripheral edge region on said transparent substrate ; and a main wall part pattern located in said light shield film of said peripheral edge region and surrounding said integrated circuit region , wherein an area covered with said light shield film protrudes toward four corners of said integrated circuit region at four corners of said peripheral edge region . a transparent substrate which includes a scribe line region , a peripheral edge region surrounded by said scribe line region , and an integrated circuit region surrounded by said peripheral edge region and having rectangular shape; a phase shifter film formed in said scribe line region , said peripheral edge region , and said integrated circuit region on said transparent substrate ; a light shield film formed in said scribe line region and in only a part of said peripheral edge region on said transparent substrate ; and a main wall part pattern located in said light shield film of said peripheral edge region and surrounding said integrated circuit region , wherein an area covered with said light shield film protrudes toward four corners of said integrated circuit region at four corners of said peripheral edge region .
A method for operating a satellite communications gateway comprising radio frequency electronics , the method comprising: receiving, in a first receiver , a first signal on a satellite downlink including a time-division multiplexed, TDM, return channels from one or more first terminals and a time-division multiple access, TDMA, return channels from one or more second terminals overlapped in an allocated frequency range; recovering the time-division multiplexed return channels from the first signal; reducing a sample rate of the first signal by a first down-sample factor prior to recovery of the time-division multiplexed return channels; outputting the time-division multiplexed return channels; cancelling the time-division multiplexed return channels in the first signal to generate a second signal; reducing the sample rate of the first signal by a second down-sample factor prior to cancelling the time-division multiplexed return channels in the first signal to generate the second signal; and outputting the second signal to a second receiver . receiving, in a first receiver , a first signal on a satellite downlink including a time-division multiplexed, TDM, return channels from one or more first terminals and a time-division multiple access, TDMA, return channels from one or more second terminals overlapped in an allocated frequency range; recovering the time-division multiplexed return channels from the first signal; reducing a sample rate of the first signal by a first down-sample factor prior to recovery of the time-division multiplexed return channels; outputting the time-division multiplexed return channels; cancelling the time-division multiplexed return channels in the first signal to generate a second signal; reducing the sample rate of the first signal by a second down-sample factor prior to cancelling the time-division multiplexed return channels in the first signal to generate the second signal; and outputting the second signal to a second receiver .
An energy recovery module for an unmanned vehicle, comprising: a manifold ; a permanent magnet generator arranged within the manifold; and a thermal electric generator arranged within the manifold, characterised in that the thermal electric generator comprises thermal electric generator elements distributed about the permanent magnet generator and is electrically connected to the permanent magnet generator to provide electrical power to an electrical load using energy recovered from an expanded decomposition or combustion product flow traversing the energy recovery module. a manifold ; a permanent magnet generator arranged within the manifold; and a thermal electric generator arranged within the manifold, characterised in that the thermal electric generator comprises thermal electric generator elements distributed about the permanent magnet generator and is electrically connected to the permanent magnet generator to provide electrical power to an electrical load using energy recovered from an expanded decomposition or combustion product flow traversing the energy recovery module.
A printing cabinet for housing a printing device having a dispensing end that expels printed paper, comprising: a housing having at least four sides (456; 458), a bottom surface and a top surface that together form an enclosed interior for receiving the printing device and said top surface including at least one hinged cover (410; 412) that encloses an upper portion of the housing ; wherein the housing further comprises an opening formed in the side of the housing , the opening aligned with the dispensing end of the printing device ; and the printing cabinet further comprises a paper tray at the side of the housing and positioned outside of the housing , said paper tray aligned with the opening of the housing and arranged to receive the printed paper expelled by the printing device wherein the paper tray extends towards the ground so as to allow the printed paper to slide down into the paper tray . a housing having at least four sides (456; 458), a bottom surface and a top surface that together form an enclosed interior for receiving the printing device and said top surface including at least one hinged cover (410; 412) that encloses an upper portion of the housing ; wherein the housing further comprises an opening formed in the side of the housing , the opening aligned with the dispensing end of the printing device ; and the printing cabinet further comprises a paper tray at the side of the housing and positioned outside of the housing , said paper tray aligned with the opening of the housing and arranged to receive the printed paper expelled by the printing device wherein the paper tray extends towards the ground so as to allow the printed paper to slide down into the paper tray .
A photoacoustic gas sensor comprising: a gas measurement cell; the gas measurement cell comprising a measurement cell volume ; an IR source carried on a semiconductor substrate; a microphone formed on the same or a second semiconductor substrate, and an IR filter; characterised in that : said IR filter is a fixed wavelength IR filter; the IR source, fixed wavelength IR filter and the microphone are integrated in a component package and fitted to the gas measurement cell; the measurement cell volume is formed by the joining together of a measurement cell body and the integrated component package ; and in that the IR filter covers an opening in the component package providing a window through which IR energy of the selected wavelength may radiate into the measurement cell volume to produce a photoacoustic signal within the measurement volume that is communicatively coupled to the microphone through an opening in the component package . a gas measurement cell; the gas measurement cell comprising a measurement cell volume ; an IR source carried on a semiconductor substrate; a microphone formed on the same or a second semiconductor substrate, and an IR filter; characterised in that : said IR filter is a fixed wavelength IR filter; the IR source, fixed wavelength IR filter and the microphone are integrated in a component package and fitted to the gas measurement cell; the measurement cell volume is formed by the joining together of a measurement cell body and the integrated component package ; and in that the IR filter covers an opening in the component package providing a window through which IR energy of the selected wavelength may radiate into the measurement cell volume to produce a photoacoustic signal within the measurement volume that is communicatively coupled to the microphone through an opening in the component package . said IR filter is a fixed wavelength IR filter; the IR source, fixed wavelength IR filter and the microphone are integrated in a component package and fitted to the gas measurement cell; the measurement cell volume is formed by the joining together of a measurement cell body and the integrated component package ; and in that the IR filter covers an opening in the component package providing a window through which IR energy of the selected wavelength may radiate into the measurement cell volume to produce a photoacoustic signal within the measurement volume that is communicatively coupled to the microphone through an opening in the component package .