mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling television interaction using a virtual assistant, the method comprising: at an electronic device: causing display of a notification associated with alternative media content, wherein the alternative media content is alternative to media content shown on a display, and wherein the notification is displayed based on at least one of a viewing history of media content and one or more user preferences, and the notification is displayed for an amount of time based on a length of the notification; determining a plurality of query suggestions based on the notification; causing display of the plurality of query suggestions; receiving speech input from a user, wherein the speech input comprises a query associated with one of the plurality of query suggestions shown on the display; determining a user intent of the query based on one or more of the content shown on the display and the viewing history of media content; and causing display of a result of the query based on the determined user intent. causing display of a notification associated with alternative media content, wherein the alternative media content is alternative to media content shown on a display, and wherein the notification is displayed based on at least one of a viewing history of media content and one or more user preferences, and the notification is displayed for an amount of time based on a length of the notification; determining a plurality of query suggestions based on the notification; causing display of the plurality of query suggestions; receiving speech input from a user, wherein the speech input comprises a query associated with one of the plurality of query suggestions shown on the display; determining a user intent of the query based on one or more of the content shown on the display and the viewing history of media content; and causing display of a result of the query based on the determined user intent.
A compound comprising: A. a fluoroelastomer comprising copolymerized units of: one or more unsaturated fluorinated olefins; one or more unsaturated fluorinated olefin co-monomer different from 1) selected from the group consisting of fluorovinyl ethers, unsaturated fluorinated olefins, unsaturated olefins, and mixtures of these; and one or more cure site monomers selected from the group consisting of nitrile-containing fluorinated olefins and nitrile-containing fluorinated vinyl ethers; and B. 0.1 to 10 parts by weight of at least one curing agent of formula (I), based on 100 parts of fluoroelastomer A: R 1 N=CR 2 R 3 (I) wherein: R 1 is H; R 2 is selected from the group consisting of H-, and NH 2 ; R 3 is NR 6 R 7 ; R 4 is H; R 5 is selected from the group consisting of Ph, NH 2, and CN; R 6 is H; and R 7 is CSNH2. A. a fluoroelastomer comprising copolymerized units of: one or more unsaturated fluorinated olefins; one or more unsaturated fluorinated olefin co-monomer different from 1) selected from the group consisting of fluorovinyl ethers, unsaturated fluorinated olefins, unsaturated olefins, and mixtures of these; and one or more cure site monomers selected from the group consisting of nitrile-containing fluorinated olefins and nitrile-containing fluorinated vinyl ethers; and one or more unsaturated fluorinated olefins; one or more unsaturated fluorinated olefin co-monomer different from 1) selected from the group consisting of fluorovinyl ethers, unsaturated fluorinated olefins, unsaturated olefins, and mixtures of these; and one or more cure site monomers selected from the group consisting of nitrile-containing fluorinated olefins and nitrile-containing fluorinated vinyl ethers; and B. 0.1 to 10 parts by weight of at least one curing agent of formula (I), based on 100 parts of fluoroelastomer A: R 1 N=CR 2 R 3 (I) wherein: R 1 is H; R 2 is selected from the group consisting of H-, and NH 2 ; R 3 is NR 6 R 7 ; R 4 is H; R 5 is selected from the group consisting of Ph, NH 2, and CN; R 6 is H; and R 7 is CSNH2. R 1 is H; R 2 is selected from the group consisting of H-, and NH 2 ; R 3 is NR 6 R 7 ; R 4 is H; R 5 is selected from the group consisting of Ph, NH 2, and CN; R 6 is H; and R 7 is CSNH2.
A field device (1 to 4) comprising: a current controller configured to operate with a first power supply voltage (V1) and output a control signal for controlling a current to be output to a transmission line (L1, L2); a current output unit configured to operate with a second power supply voltage (V2) different from the first power supply voltage (V1), the current output unit being capable of outputting a current of a magnitude corresponding to the control signal output from the current controller to the transmission line (L1, L2); and characterized by an abnormality notification unit configured to output, to the current output unit , a first signal (P) for causing the current output unit to output a burnout current indicating that an abnormality has occurred in a case in which an abnormality occurs in the first power supply voltage (V1). a current controller configured to operate with a first power supply voltage (V1) and output a control signal for controlling a current to be output to a transmission line (L1, L2); a current output unit configured to operate with a second power supply voltage (V2) different from the first power supply voltage (V1), the current output unit being capable of outputting a current of a magnitude corresponding to the control signal output from the current controller to the transmission line (L1, L2); and characterized by an abnormality notification unit configured to output, to the current output unit , a first signal (P) for causing the current output unit to output a burnout current indicating that an abnormality has occurred in a case in which an abnormality occurs in the first power supply voltage (V1).
An electromagnetic cooking device comprising: a cavity in which a liquid can be placed; a plurality of RF feeds (26A-26D, 226A-226B) configured to introduce electromagnetic radiation into the cavity for heating the liquid; and a controller configured to: analyze forward and backward power at the plurality of RF feeds (26A-26D, 226A-226B) to calculate efficiency as a ratio of the forward power less the backward power to the forward power; the device being characterized in that the controller is configured to: determine and monitor a coefficient of variation of the efficiency; detect a heating state in the liquid based on changes in the coefficient of variation; and adjust a power level of the electromagnetic radiation in response to detection of the heating state. a cavity in which a liquid can be placed; a plurality of RF feeds (26A-26D, 226A-226B) configured to introduce electromagnetic radiation into the cavity for heating the liquid; and a controller configured to: analyze forward and backward power at the plurality of RF feeds (26A-26D, 226A-226B) to calculate efficiency as a ratio of the forward power less the backward power to the forward power; the device being characterized in that the controller is configured to: determine and monitor a coefficient of variation of the efficiency; detect a heating state in the liquid based on changes in the coefficient of variation; and adjust a power level of the electromagnetic radiation in response to detection of the heating state. analyze forward and backward power at the plurality of RF feeds (26A-26D, 226A-226B) to calculate efficiency as a ratio of the forward power less the backward power to the forward power; the device being characterized in that the controller is configured to: determine and monitor a coefficient of variation of the efficiency; detect a heating state in the liquid based on changes in the coefficient of variation; and adjust a power level of the electromagnetic radiation in response to detection of the heating state. determine and monitor a coefficient of variation of the efficiency; detect a heating state in the liquid based on changes in the coefficient of variation; and adjust a power level of the electromagnetic radiation in response to detection of the heating state.
The method for manufacturing a light emitting device package, the light emitting device package comprising: a thermally-conductive substrate including a plurality of mounting regions (A) on which chips are mounted and at least one bending region (C) between the plurality of mounting regions (A); a light emitting device module (X) including a light emitting device arranged on one surface of the mounting region (A) of the thermally-conductive substrate ; a driving device module including a driving unit arranged on the other surface opposite to the one surface of the thermally-conductive substrate ; a first adhesive insulating layer disposed between the thermally-conductive substrate and the light emitting device module (X); and a second adhesive insulating layer disposed between the thermally-conductive substrate and the driving device module, wherein the light emitting device module (X) includes a first substrate one surface of the first substrate is in contact with the first adhesive insulating layer and a plurality of light emitting devices disposed on the other surface of the first substrate corresponding to the mounting regions (A), and wherein the first substrate is arranged on the mounting regions (A) and the bending region (C), and wherein the driving device module includes a second substrate one surface of the second substrate is in contact with the second adhesive insulating layer and a driving unit disposed on the other surface of the second substrate to drive the plurality of light emitting devices, and wherein the second substrate is arranged on the mounting regions (A) and the bending region (C), and wherein the first substrate and the second substrate are arranged at mutually corresponding positions on the first and second adhesive insulating layers , respectively, and wherein the driving device module is mounted on an opposite surface of the mounting region (A) where the light emitting device module is mounted and the driving device module and the light emitting device module are arranged symmetrically with each other, characterized in that the method comprising attaching the first and second substrates on the first and second adhesive insulating layers by an autoclave.
A thermally conductive sheet comprising a matrix comprising a silicone resin, and a thermally conductive filler, the thermally conductive sheet comprising a skin layer on a surface, and comprising an oxide layer on a surface of the skin layer, wherein the thermally conductive filler comprises an anisotropic filler and a non-anisotropic filler, the anisotropic filler comprises carbon fiber, wherein the carbon fiber is oriented in the thickness direction of the thermally conductive sheet, wherein the oxide layer is a layer of silicone resin that has partially turned into silica by irradiation with VUV, wherein for a surface of the thermally conductive sheet on a side comprising the oxide layer, intensity at a binding energy of 104 eV to intensity at a binding energy of 102 eV (I /I ) is 0.13 or more in a photoelectron spectrum obtained by surface analysis by X-ray photoelectron spectroscopy, wherein the surface analysis by X-ray photoelectron spectroscopy is measured as indicated in the description. the thermally conductive sheet comprising a skin layer on a surface, and comprising an oxide layer on a surface of the skin layer, wherein the thermally conductive filler comprises an anisotropic filler and a non-anisotropic filler, the anisotropic filler comprises carbon fiber, wherein the carbon fiber is oriented in the thickness direction of the thermally conductive sheet, wherein the oxide layer is a layer of silicone resin that has partially turned into silica by irradiation with VUV, wherein for a surface of the thermally conductive sheet on a side comprising the oxide layer, intensity at a binding energy of 104 eV to intensity at a binding energy of 102 eV (I /I ) is 0.13 or more in a photoelectron spectrum obtained by surface analysis by X-ray photoelectron spectroscopy, wherein the surface analysis by X-ray photoelectron spectroscopy is measured as indicated in the description.
A gas turbine engine , comprising: a first and second engine wing , a fan , a fan case surrounding the fan , and a nacelle surrounding the fan case ; wherein the second engine wing is arranged on an opposite side of the gas turbine engine as the first engine wing ; characterised in that : the engine wings are directly mounted to the fan case ; the first engine wing and the second engine wing project radially outward from the fan case ; and the first engine wing and second engine wing project radially outward beyond the nacelle . a first and second engine wing , a fan , a fan case surrounding the fan , and a nacelle surrounding the fan case ; wherein the second engine wing is arranged on an opposite side of the gas turbine engine as the first engine wing ; characterised in that : the engine wings are directly mounted to the fan case ; the first engine wing and the second engine wing project radially outward from the fan case ; and the first engine wing and second engine wing project radially outward beyond the nacelle . the second engine wing is arranged on an opposite side of the gas turbine engine as the first engine wing ; characterised in that : the engine wings are directly mounted to the fan case ; the first engine wing and the second engine wing project radially outward from the fan case ; and the first engine wing and second engine wing project radially outward beyond the nacelle . the engine wings are directly mounted to the fan case ; the first engine wing and the second engine wing project radially outward from the fan case ; and the first engine wing and second engine wing project radially outward beyond the nacelle .
A photonic detector comprising: a semiconductor material configured to generate an electrical response upon receiving an optical energy wave, characterized in that the semiconductor material is formed so that it comprises at least one reflecting edge shaped to reflect a plurality of received optical energy waves toward a common point and in that the photonic detector is configured to be coupled to a curved portion of an optical waveguide by evanescent waves that give rise to radially propagating optical energy waves in the semiconductor material propagating towards the reflecting edge. a semiconductor material configured to generate an electrical response upon receiving an optical energy wave, characterized in that the semiconductor material is formed so that it comprises at least one reflecting edge shaped to reflect a plurality of received optical energy waves toward a common point and in that the photonic detector is configured to be coupled to a curved portion of an optical waveguide by evanescent waves that give rise to radially propagating optical energy waves in the semiconductor material propagating towards the reflecting edge.
A treatment tool provided with: a rod shaped cutting section which is adapted to be endoscopically inserted into a body cavity and is configured to perform cutting of a tissue through a transmission of high frequency current; a wire , the cutting section connected at the distal end thereof; a sheath consisting of an insulating material, into which the wire is inserted; a main body , the back end of the sheath being connected thereto; a slider to which the back end of the wire is fixed and which is disposed to the main body to enable sliding in the axial direction; wherein the cutting section has a large diameter part at the distal end of the cutting section , wherein the treatment tool further comprises a tubular distal member which has a through hole along the axis and is attached to the distal end of the sheath , wherein the tubular distal member includes a rounded tip which is exposed outside the sheath , wherein the outer distal surface of the rounded tip is formed to be curving, and to have a form which does not have angles or edges, and wherein the through hole passes through the rounded tip , characterized in that the diameter of the through hole is smaller than the outer diameter of the large diameter part so that it is impossible to house the large diameter part within the sheath and only the large diameter part projects out from the rounded tip when the cutting section is maximally retracted along the direction toward the back end of the sheath . a rod shaped cutting section which is adapted to be endoscopically inserted into a body cavity and is configured to perform cutting of a tissue through a transmission of high frequency current; a wire , the cutting section connected at the distal end thereof; a sheath consisting of an insulating material, into which the wire is inserted; a main body , the back end of the sheath being connected thereto; a slider to which the back end of the wire is fixed and which is disposed to the main body to enable sliding in the axial direction; wherein the cutting section has a large diameter part at the distal end of the cutting section , wherein the treatment tool further comprises a tubular distal member which has a through hole along the axis and is attached to the distal end of the sheath , wherein the tubular distal member includes a rounded tip which is exposed outside the sheath , wherein the outer distal surface of the rounded tip is formed to be curving, and to have a form which does not have angles or edges, and wherein the through hole passes through the rounded tip , characterized in that the diameter of the through hole is smaller than the outer diameter of the large diameter part so that it is impossible to house the large diameter part within the sheath and only the large diameter part projects out from the rounded tip when the cutting section is maximally retracted along the direction toward the back end of the sheath .
A method for manufacturing sliced frozen vegetables, containing unnecessary organic components in the form of skins, comprising cleaning , slicing and freezing of a raw material, characterized in that unnecessary organic components are removed , at least partly mechanically, from the raw material which was first sliced and then frozen.
A method for observing a dynamic physical property of a biological tissue by irradiating the biological tissue with a pulsed light having a wavelength of a far-infrared wavelength region to observe the dynamic physical property of the biological tissue using vibrational optical activity spectroscopy, the method comprising vibrating the biological tissue by vibrating a holding means using a piezoelectric element , the holding means configured to hold the biological tissue when the biological tissue is irradiated with the pulsed light.
A method , for operative compounding of a nutraceutical beverage , comprising the steps of: providing a nutraceutical composition sealed in a bounded container ; positioning at least one removably secured interface integrated with at least one discrete element of said bounded container operative to transmit motion into said bounded container ; positioning a base unit for receivably retaining the bounded container and enabling the base unit to provide a compounding motion to said at least one discrete element ; providing a sensor system in said base unit ; providing a means to unseal said removably secured interface of said bounded sealed container through a relative displacement of said at least one discrete element and freeing said nutraceutical composition and dispersing said nutraceutical composition into a vessel containing a potable liquid located proximate said bounded container ; extending a displaceable element relative to said bounded container into said nutraceutical composition and said potable liquid in said vessel ; operating said sensor system effective to detect a presence of said vessel proximate said base unit and triggering, if said vessel is not proximate said base unit , a stoppage in said method prior to said step of extending; and agitating and compounding said nutraceutical composition and said potable liquid forming said nutraceutical beverage during a use. providing a nutraceutical composition sealed in a bounded container ; positioning at least one removably secured interface integrated with at least one discrete element of said bounded container operative to transmit motion into said bounded container ; positioning a base unit for receivably retaining the bounded container and enabling the base unit to provide a compounding motion to said at least one discrete element ; providing a sensor system in said base unit ; providing a means to unseal said removably secured interface of said bounded sealed container through a relative displacement of said at least one discrete element and freeing said nutraceutical composition and dispersing said nutraceutical composition into a vessel containing a potable liquid located proximate said bounded container ; extending a displaceable element relative to said bounded container into said nutraceutical composition and said potable liquid in said vessel ; operating said sensor system effective to detect a presence of said vessel proximate said base unit and triggering, if said vessel is not proximate said base unit , a stoppage in said method prior to said step of extending; and agitating and compounding said nutraceutical composition and said potable liquid forming said nutraceutical beverage during a use.
Drawer front connecting device for the connection of a drawer front to a drawer side part , comprising a front connector which can be attached to the drawer side part and a mounting component which can be attached to the drawer front , wherein the mounting component can be fixed to the front connector in order to establish a connected state of the drawer front to the drawer side part , characterized in that the front connector has an upper ramp and a lower ramp , wherein the ramps are spaced apart from one another in a height direction of the front connector , wherein the upper ramp comprises an upper elongate support surface and the lower ramp comprises a lower elongate support surface, such that, in a finally assembled state of the mounting component on the front connector , the upper support surface is used to support an upper supporting portion on the mounting component and the lower support surface is used to support a lower supporting portion on the mounting component , wherein, for the connecting of the drawer front to the drawer side part , the upper supporting portion is able to move slidingly downwards along the upper ramp and the lower supporting portion is able to move slidingly downwards along the lower ramp until the finally assembled state of the mounting component on the front connector is reached, with a mounting contour on the front connector in the region of the lower ramp and with an elevation portion on the mounting component in the region of the lower supporting portion , such that, in a pre-assembled position, the mounting component is mounted on the front connector in a self-securing manner in such a way that the lower supporting portion and the elevation portion are supported on the mounting contour , wherein the mounting component is spaced apart from the front connector in the region of the upper ramp by means of the upper supporting portion , and wherein the mounting contour is coordinated in such a way that, in the pre-assembled position, at least the elevation portion is disposed on the mounting contour in such a way that the lower supporting portion is secured against sliding downwards along the lower ramp .