mhurhangee/patent-ind-claim-en huggingface dataset:
A method of installing a thermal insulation support within a heat shield assembly comprising a plurality of ribs , said insulation support comprising: a body comprising a first edge portion and a second edge portion , the first edge portion and the second edge portion extending in a generally parallel orientation along a longitudinal axis of said body ; a first flange extending a first distance from said first edge portion of said body ; and a second flange extending a second distance from said second edge portion of said body , wherein said body has a wave-shaped configuration extending between said first edge portion and said second edge portion , the wave-shaped configuration including a plurality of waves extending between said first edge portion and said second edge portion , said plurality of waves spaced along the longitudinal axis in a staggered configuration, said method comprising: coupling the first flange to a first rib of the plurality of ribs of the heat shield assembly; and coupling the second flange to a second rib of the plurality of ribs of the heat shield assembly. a body comprising a first edge portion and a second edge portion , the first edge portion and the second edge portion extending in a generally parallel orientation along a longitudinal axis of said body ; a first flange extending a first distance from said first edge portion of said body ; and a second flange extending a second distance from said second edge portion of said body , wherein said body has a wave-shaped configuration extending between said first edge portion and said second edge portion , the wave-shaped configuration including a plurality of waves extending between said first edge portion and said second edge portion , said plurality of waves spaced along the longitudinal axis in a staggered configuration, said method comprising: coupling the first flange to a first rib of the plurality of ribs of the heat shield assembly; and coupling the second flange to a second rib of the plurality of ribs of the heat shield assembly. coupling the first flange to a first rib of the plurality of ribs of the heat shield assembly; and coupling the second flange to a second rib of the plurality of ribs of the heat shield assembly.
A touch-sensitive input device , comprising: receive circuitry ; a capacitive touch sensor having a plurality of portions; and a controller configured to: responsive to not detecting a finger or a pen , operate the touch sensor in a locating mode by successively driving, for a touch frame of the locating mode, each portion of the touch sensor with a fixed DC voltage and multiplexing the portion of the touch sensor to the receive circuitry in a predefined sequence; and responsive to detecting the pen in the locating mode, operate the touch sensor in a tracking mode by driving, for a touch frame of the tracking mode, a selected portion of the touch sensor with the fixed DC voltage and multiplexing the selected portion to the receive circuitry to track the pen , the selected portion selected based on a detected location of the pen relative to the touch sensor and being varied as the detected location changes in the touch frame of the tracking mode. receive circuitry ; a capacitive touch sensor having a plurality of portions; and a controller configured to: responsive to not detecting a finger or a pen , operate the touch sensor in a locating mode by successively driving, for a touch frame of the locating mode, each portion of the touch sensor with a fixed DC voltage and multiplexing the portion of the touch sensor to the receive circuitry in a predefined sequence; and responsive to detecting the pen in the locating mode, operate the touch sensor in a tracking mode by driving, for a touch frame of the tracking mode, a selected portion of the touch sensor with the fixed DC voltage and multiplexing the selected portion to the receive circuitry to track the pen , the selected portion selected based on a detected location of the pen relative to the touch sensor and being varied as the detected location changes in the touch frame of the tracking mode. responsive to not detecting a finger or a pen , operate the touch sensor in a locating mode by successively driving, for a touch frame of the locating mode, each portion of the touch sensor with a fixed DC voltage and multiplexing the portion of the touch sensor to the receive circuitry in a predefined sequence; and responsive to detecting the pen in the locating mode, operate the touch sensor in a tracking mode by driving, for a touch frame of the tracking mode, a selected portion of the touch sensor with the fixed DC voltage and multiplexing the selected portion to the receive circuitry to track the pen , the selected portion selected based on a detected location of the pen relative to the touch sensor and being varied as the detected location changes in the touch frame of the tracking mode.
A computer implemented method, performed by one or more smart contract instances executing on a blockchain system , and for dynamic capability-based access control by creating a capability where a capability is a secure reference to an object , where the capability is stored on the blockchain system, the method comprising: (a) receiving a request from a sender to create a capability for the object, the sender being a user process that initiates a capabilities operation; (b) determining existence of the capability for the object for the sender; (c) creating the capability for the object for the sender if the capability for the object for the sender is determined not to exist; and (d) storing the capability on the blockchain system for the object for the sender, wherein the capability can be used to dynamically determine access control for the object. (a) receiving a request from a sender to create a capability for the object, the sender being a user process that initiates a capabilities operation; (b) determining existence of the capability for the object for the sender; (c) creating the capability for the object for the sender if the capability for the object for the sender is determined not to exist; and (d) storing the capability on the blockchain system for the object for the sender, wherein the capability can be used to dynamically determine access control for the object.
A method performed by a radio unit, RU , the method comprising: obtaining, from a data unit, DU , information on at least one empty symbol duration and allocation information on data traffic; identifying the at least one empty symbol duration based on the allocation information and pattern information, the pattern information including information on a symbol transmission location of at least one of a control channel or a reference signal; and controlling to turn on or off a power amplifier, PA, based on the at least one empty symbol duration. obtaining, from a data unit, DU , information on at least one empty symbol duration and allocation information on data traffic; identifying the at least one empty symbol duration based on the allocation information and pattern information, the pattern information including information on a symbol transmission location of at least one of a control channel or a reference signal; and controlling to turn on or off a power amplifier, PA, based on the at least one empty symbol duration.
A vehicle lower part structure comprising: a side frame extending in a vehicle front-rear direction on a side of a vehicle body lower part; a floor crossmember disposed upward of the side frame in a vehicle up-down direction, the floor crossmember being formed of a first rectangular tubular member which is a single part, and the floor crossmember having an axis which extends along a vehicle-width direction; a rectangular tubular rocker that is disposed laterally outward of the side frame in the vehicle-width direction and obliquely downward from an outer side of the floor crossmember in the vehicle-width direction, and the rectangular tubular rocker extending in the vehicle front-rear direction; characterized in that a connection member that is provided downward of the floor crossmember in the vehicle up-down direction between the side frame and the rectangular tubular rocker , the connection member being in surface contact with and joined to each of a lower wall portion of the floor crossmember and a vertical wall portion on an inner side of the rectangular tubular rocker in the vehicle-width direction, the connection member being formed of a second rectangular tubular member which is a single part, and the connection member having a connection member axis which extends along the vehicle front-rear direction. a side frame extending in a vehicle front-rear direction on a side of a vehicle body lower part; a floor crossmember disposed upward of the side frame in a vehicle up-down direction, the floor crossmember being formed of a first rectangular tubular member which is a single part, and the floor crossmember having an axis which extends along a vehicle-width direction; a rectangular tubular rocker that is disposed laterally outward of the side frame in the vehicle-width direction and obliquely downward from an outer side of the floor crossmember in the vehicle-width direction, and the rectangular tubular rocker extending in the vehicle front-rear direction; characterized in that a connection member that is provided downward of the floor crossmember in the vehicle up-down direction between the side frame and the rectangular tubular rocker , the connection member being in surface contact with and joined to each of a lower wall portion of the floor crossmember and a vertical wall portion on an inner side of the rectangular tubular rocker in the vehicle-width direction, the connection member being formed of a second rectangular tubular member which is a single part, and the connection member having a connection member axis which extends along the vehicle front-rear direction.
Electronic module (10; 10a), comprising a carrier film , wherein at least one electrically conductive structure and electronic components connected to the electrically conductive structure as part of an electronic circuit are arranged on the carrier film , wherein the electronic circuit is connected to a sensor, in particular a pressure sensor (30; 30a), and wherein the carrier film is at least regionally covered by a protective compound at a top side or an underside , wherein the sensor, in particular the pressure sensor (30; 30a), has an elastically deformable sensing region (32; 32a), characterized in that the sensing region is formed by a partial region of the carrier film and additionally by a detection film connected to the carrier film and having a micro-structuring, wherein the detection film consists of silicon, in order to achieve a contacting of the detection film that is protected against mechanical loads and media, in that means for sensing the deformation of the sensing region (32; 32a) are provided, and in that the protective compound or a fixing body has a cutout within which the carrier film and the detection film are exposed, wherein the cutout marginally delimits the sensing region (32; 32a), such that the protective compound or the fixing body fixes the sensing region (32; 32a) with respect to the carrier film , wherein the wall of the cutout extends slightly obliquely, such that the diameter of the cutout increases with increasing distance from the carrier film. wherein the sensor, in particular the pressure sensor (30; 30a), has an elastically deformable sensing region (32; 32a), characterized in that the sensing region is formed by a partial region of the carrier film and additionally by a detection film connected to the carrier film and having a micro-structuring, wherein the detection film consists of silicon, in order to achieve a contacting of the detection film that is protected against mechanical loads and media, in that means for sensing the deformation of the sensing region (32; 32a) are provided, and in that the protective compound or a fixing body has a cutout within which the carrier film and the detection film are exposed, wherein the cutout marginally delimits the sensing region (32; 32a), such that the protective compound or the fixing body fixes the sensing region (32; 32a) with respect to the carrier film , wherein the wall of the cutout extends slightly obliquely, such that the diameter of the cutout increases with increasing distance from the carrier film.
A power supply device configured of a battery block and a non-heat resisting member facing the battery block with a heat-blocking layer including a molten layer interposed between the battery block and the non-heat resisting member , the battery block having a plurality of secondary batteries that are disposed in fixed positions by a battery holder and each have an exhaust valve that opens on an exhaust-side end surface when an internal pressure increases to a set pressure, the non-heat resisting member being formed of a circuit board or any of a plurality of secondary batteries , the battery block having the secondary batteries disposed in parallel, with some of or all exhaust-side end surfaces of the secondary batteries disposed facing the non-heat resisting member , with an air layer disposed between the battery block and the heat-blocking layer , wherein the heat-blocking layer has a layered structure of the molten layer and an insulating layer having heat-insulating properties of not being deformed by exhaust gas from the exhaust valve, the insulating layer being stacked on the molten layer , and the heat-blocking layer having the layered structure of the molten layer and the insulating layer is disposed between the air layer and the non-heat resisting member . the battery block having the secondary batteries disposed in parallel, with some of or all exhaust-side end surfaces of the secondary batteries disposed facing the non-heat resisting member , with an air layer disposed between the battery block and the heat-blocking layer , wherein the heat-blocking layer has a layered structure of the molten layer and an insulating layer having heat-insulating properties of not being deformed by exhaust gas from the exhaust valve, the insulating layer being stacked on the molten layer , and the heat-blocking layer having the layered structure of the molten layer and the insulating layer is disposed between the air layer and the non-heat resisting member . the heat-blocking layer has a layered structure of the molten layer and an insulating layer having heat-insulating properties of not being deformed by exhaust gas from the exhaust valve, the insulating layer being stacked on the molten layer , and the heat-blocking layer having the layered structure of the molten layer and the insulating layer is disposed between the air layer and the non-heat resisting member .
A disposable endoscope comprising: a tubular part including a plurality of joints ; linear transmission parts inserted into the tubular part, wherein one end of the linear transmission part is fixed with respect to one of the joints, the other end is provided with first connectors , a movement of the linear transmission part along its length direction is able to cause the tubular part to bend, and the first connector is used to detachably engage with corresponding connector of an external control seat; a camera unit mounted on a front end of the tubular part; a wire harness, wherein one end of the wire harness is connected with the camera unit, the other end is used to be connected with an external power supply and a data processing device, and the wire harness is used to provide the camera unit with power and transmit image data collected; a cladding layer cladding the tubular part, the extending linear transmission parts and the wire harness; a connection head arranged at one end of the linear transmission parts away from the tubular part, wherein the connection head is provided with through holes through which the first connectors pass; and a disposable fastener which is used to fix the first connectors with respect to the connection head, wherein after the disposable fastener is removed, the first connectors are able to be moved in the through hole of the connection head along their length direction. a tubular part including a plurality of joints ; linear transmission parts inserted into the tubular part, wherein one end of the linear transmission part is fixed with respect to one of the joints, the other end is provided with first connectors , a movement of the linear transmission part along its length direction is able to cause the tubular part to bend, and the first connector is used to detachably engage with corresponding connector of an external control seat; a camera unit mounted on a front end of the tubular part; a wire harness, wherein one end of the wire harness is connected with the camera unit, the other end is used to be connected with an external power supply and a data processing device, and the wire harness is used to provide the camera unit with power and transmit image data collected; a cladding layer cladding the tubular part, the extending linear transmission parts and the wire harness; a connection head arranged at one end of the linear transmission parts away from the tubular part, wherein the connection head is provided with through holes through which the first connectors pass; and a disposable fastener which is used to fix the first connectors with respect to the connection head, wherein after the disposable fastener is removed, the first connectors are able to be moved in the through hole of the connection head along their length direction.
A pharmaceutical composition comprising one or more bioactive agents selected from the group consisting of anesthetics, antibiotics, hormones, growth factors, beta blockers and proteins, and a hydrogel as a carrier for the bioactive agent, wherein said hydrogel comprises at least 1% v/v of a colloidal suspension of M I X M II Y P Z two-dimensional nanocrystals in water, wherein: M I is Na + and/or Li + , M II is Mg 2+ or a mixture of Mg 2+ with one or more Ni 2+ , Zn 2+ , Cu 2+ , Fe 2+ and/or Mn 2+ , P is a mixture of dibasic phosphate ions (HPO 4 2- ) and tribasic phosphate ions (PO 4 3- ), X ranges from 0.43 to 0.60, Y ranges from 0.10 to 0.18, and Z ranges from 0.29 to 0.46, X, Y, Z being mole fractions. M I is Na + and/or Li + , M II is Mg 2+ or a mixture of Mg 2+ with one or more Ni 2+ , Zn 2+ , Cu 2+ , Fe 2+ and/or Mn 2+ , P is a mixture of dibasic phosphate ions (HPO 4 2- ) and tribasic phosphate ions (PO 4 3- ), X ranges from 0.43 to 0.60, Y ranges from 0.10 to 0.18, and Z ranges from 0.29 to 0.46, X, Y, Z being mole fractions.
A package housing a set of playing cards , the package having, in an assembled state, a shape of a rectangular parallelepiped with six faces including front and rear faces , right and left side faces , and top and bottom faces , characterised in that the package comprises: at least one cut line in parallel with a longitudinal direction of the package shape of the rectangular parallelepiped, wherein tearing of the package along the at least one cut line permits the removal of one of the left or right side faces of the package from a remaining portion of the package and the exposure of side edges of the playing cards within the package; and a marking showing a first place in an order of steps for removing one of the left or right side faces of the package so that the remaining portion of the package includes a code that indicates a unique identification (ID) for the set of playing cards. at least one cut line in parallel with a longitudinal direction of the package shape of the rectangular parallelepiped, wherein tearing of the package along the at least one cut line permits the removal of one of the left or right side faces of the package from a remaining portion of the package and the exposure of side edges of the playing cards within the package; and a marking showing a first place in an order of steps for removing one of the left or right side faces of the package so that the remaining portion of the package includes a code that indicates a unique identification (ID) for the set of playing cards.
A device of acquisition of a 2D image and of a depth image, comprising: a first sensor (C1) comprising a front surface and a rear surface, the first sensor being formed inside and on top of a first semiconductor substrate and comprising a plurality of 2D image pixels (P1) and a plurality of transmissive windows (F) each comprising a portion of the first semiconductor substrate ; and a second sensor (C2) comprising a front surface placed against the rear surface of the first sensor and a rear surface opposite to the first sensor, the second sensor being formed inside and on top of a second semiconductor substrate and comprising a plurality of depth pixels (P2) arranged opposite the windows of the first sensor, wherein each transmissive window (F) of the first sensor (C1) comprises, between the rear surface of the first semiconductor substrate and the second sensor (C2), an optical element (124; 124'; 124") capable of favoring the transfer of the incident light from the first sensor (C1) to the depth pixels (P2) of the second sensor (C2), characterized in that said optical element comprises: - a microlens ; and/or - a nanostructured layer having nanostructurations having dimensions such that said layer fulfills the quarter wave antireflection conditions at wavelength λC2 of use of sensor C2, that is, such that thickness e of the layer is in the order of e=λC2/(4*n_eff), n_eff designating the effective index of layer 124'. a first sensor (C1) comprising a front surface and a rear surface, the first sensor being formed inside and on top of a first semiconductor substrate and comprising a plurality of 2D image pixels (P1) and a plurality of transmissive windows (F) each comprising a portion of the first semiconductor substrate ; and a second sensor (C2) comprising a front surface placed against the rear surface of the first sensor and a rear surface opposite to the first sensor, the second sensor being formed inside and on top of a second semiconductor substrate and comprising a plurality of depth pixels (P2) arranged opposite the windows of the first sensor, wherein each transmissive window (F) of the first sensor (C1) comprises, between the rear surface of the first semiconductor substrate and the second sensor (C2), an optical element (124; 124'; 124") capable of favoring the transfer of the incident light from the first sensor (C1) to the depth pixels (P2) of the second sensor (C2), characterized in that said optical element comprises: - a microlens ; and/or - a nanostructured layer having nanostructurations having dimensions such that said layer fulfills the quarter wave antireflection conditions at wavelength λC2 of use of sensor C2, that is, such that thickness e of the layer is in the order of e=λC2/(4*n_eff), n_eff designating the effective index of layer 124'. - a microlens ; and/or - a nanostructured layer having nanostructurations having dimensions such that said layer fulfills the quarter wave antireflection conditions at wavelength λC2 of use of sensor C2, that is, such that thickness e of the layer is in the order of e=λC2/(4*n_eff), n_eff designating the effective index of layer 124'.