mhurhangee/patent-ind-claim-en huggingface dataset:
A method for adjusting a view for a target device, wherein the target device displays a video-stream-play page, the video-stream-play page comprises a video-stream-play view and at least one video-stream-play interactive control displayed on the video-stream-play view, and the method comprises: determining whether a currently playing video is a video of a first type in response to detecting a change of a posture of the target device ; adjusting a display direction of the video-stream-play view to match the posture of the target device and adjusting a display position and/or transparency of the at least one video-stream-play interactive control in response to determining that the currently playing video is the video of the first type ; characterized in that : in response to receiving a system notification message, zooming out the video-stream-play page based on a type of the notification message to display the notification message in a blank region ; and stopping displaying the notification message and allowing the video-stream-play page to be in full screen display in response to detecting a sliding operation for the notification message . determining whether a currently playing video is a video of a first type in response to detecting a change of a posture of the target device ; adjusting a display direction of the video-stream-play view to match the posture of the target device and adjusting a display position and/or transparency of the at least one video-stream-play interactive control in response to determining that the currently playing video is the video of the first type ; characterized in that : in response to receiving a system notification message, zooming out the video-stream-play page based on a type of the notification message to display the notification message in a blank region ; and stopping displaying the notification message and allowing the video-stream-play page to be in full screen display in response to detecting a sliding operation for the notification message . in response to receiving a system notification message, zooming out the video-stream-play page based on a type of the notification message to display the notification message in a blank region ; and stopping displaying the notification message and allowing the video-stream-play page to be in full screen display in response to detecting a sliding operation for the notification message .
A manufacturing method of a fluid control device , comprising: (a) providing a housing , a piezoelectric actuator and a deformable substrate , wherein the piezoelectric actuator comprises a piezoelectric element and a vibration plate , and the deformable substrate comprises a flexible plate and a communication plate , wherein the vibration plate has a first surface and an opposing second surface , a bulge is formed on the second surface of the vibration plate , and the flexible plate comprises a movable part ; (b) stacking and coupling the flexible plate and the communication plate of the deformable substrate , and implementing a preformed synchronous deformation process by applying at least one external force to an outer portion of the deformable substrate , wherein after the at least one external force is applied, one of the communication plate and the flexible plate is subjected to deformation, and the other one thereof is also subjected to deformation synchronously, whereby part of the deformable substrate is deformed to form a preformed synchronously-deformed structure defined by the deformed flexible plate and the deformed communication plate collaboratively; and (c) coupling the housing , the piezoelectric actuator and the deformable substrate which are sequentially stacked, wherein the preformed synchronously-deformed structure of the deformable substrate is aligned with the bulge of the vibration plate to define a specified depth (δ) between the movable part of the flexible plate and the bulge of the vibration plate . (a) providing a housing , a piezoelectric actuator and a deformable substrate , wherein the piezoelectric actuator comprises a piezoelectric element and a vibration plate , and the deformable substrate comprises a flexible plate and a communication plate , wherein the vibration plate has a first surface and an opposing second surface , a bulge is formed on the second surface of the vibration plate , and the flexible plate comprises a movable part ; (b) stacking and coupling the flexible plate and the communication plate of the deformable substrate , and implementing a preformed synchronous deformation process by applying at least one external force to an outer portion of the deformable substrate , wherein after the at least one external force is applied, one of the communication plate and the flexible plate is subjected to deformation, and the other one thereof is also subjected to deformation synchronously, whereby part of the deformable substrate is deformed to form a preformed synchronously-deformed structure defined by the deformed flexible plate and the deformed communication plate collaboratively; and (c) coupling the housing , the piezoelectric actuator and the deformable substrate which are sequentially stacked, wherein the preformed synchronously-deformed structure of the deformable substrate is aligned with the bulge of the vibration plate to define a specified depth (δ) between the movable part of the flexible plate and the bulge of the vibration plate .
A waveguide apparatus comprising: a source of light and a waveguide having: an input coupler , a first fold grating , a second fold grating , and an output coupler , wherein said source of light is optically coupled to said waveguide and provides at least first and second polarization light and at least one wavelength, characterized in that said input coupler is configured to cause said first polarization light to travel along a first total internal reflection (TIR) path toward said first fold grating and said second polarization light to travel along a second TIR path toward said second fold grating , wherein said first fold grating is configured to cause said first polarization light in said first TIR path to be expanded in a first direction and travel along a third TIR paths to said output coupler , wherein said output coupler directs said third TIR path out of said waveguide , wherein said second fold grating is configured to cause said second polarization light in said second TIR path to be expanded in the first direction and travel along a fourth TIR path to said output coupler , and wherein said output coupler directs said fourth TIR path out of said waveguide . a source of light and a waveguide having: an input coupler , a first fold grating , a second fold grating , and an output coupler , an input coupler , a first fold grating , a second fold grating , and an output coupler , wherein said source of light is optically coupled to said waveguide and provides at least first and second polarization light and at least one wavelength, characterized in that said input coupler is configured to cause said first polarization light to travel along a first total internal reflection (TIR) path toward said first fold grating and said second polarization light to travel along a second TIR path toward said second fold grating , wherein said first fold grating is configured to cause said first polarization light in said first TIR path to be expanded in a first direction and travel along a third TIR paths to said output coupler , wherein said output coupler directs said third TIR path out of said waveguide , wherein said second fold grating is configured to cause said second polarization light in said second TIR path to be expanded in the first direction and travel along a fourth TIR path to said output coupler , and wherein said output coupler directs said fourth TIR path out of said waveguide .
A method for the post-processing of a crankshaft for the purposes of correcting concentricity errors and/or for the purposes of length correction, wherein sectors (S 1 ,S 2 ,S 3 ,S 4 ,S 5 ,S 6 ) of the crankshaft which cause and/or characterize concentricity errors are determined and/or, for at least one portion of the crankshaft , a length deviation (ΔL 1 , ΔL 2 , ΔL 3 ) from a setpoint length (L 1 , L 2 , L 3 ) is determined, characterized in that an impact force (Fs) for correcting the concentricity errors and/or the length deviation (ΔL 1 , ΔL 2 , ΔL 3 ) is introduced into at least one defined transition radius between connecting-rod bearing journals and crank webs and/or between main bearing journals and the crank webs of the crankshaft by means of at least one impact tool , and wherein the transition radii of the crankshaft are impact-hardened, prior to the determination of the concentricity errors and/or of the length deviation (ΔL 1 , ΔL 2 , ΔL 3 ).
A method of producing a synthetic resin container , the method comprising supplying, to a preform that has been formed by thermoplastic resin in a bottomed tubular shape, a liquid heated to a predetermined temperature at a predetermined pressure to liquid blow mold the preform, wherein the synthetic resin container has a bottle shape including a tube-shaped mouth , a tube-shaped trunk having one end closed by a bottom , and a shoulder through which another end of the trunk is connected to the mouth , wherein the mouth is formed in a substantially cylindrical shape, the trunk is formed in a substantially cylindrical shape having a diameter greater than a diameter of the mouth , and the shoulder is formed in a substantially frustoconical shape, and the shoulder is inclined at an angle greater than 120° with respect to an axis of the mouth , characterized by that the shoulder has a crystal orientation in a machine direction of less than 1.
A method for reminding a user based on a set position by using a mobile terminal, comprising: detecting (step 11), by a mobile terminal of a user by using a wireless network, that a distance between the mobile terminal and a set position is greater than a set value; and in response to the detection, reminding (step 12), by the mobile terminal, the user of a set event according to a set reminding manner, wherein the detecting, by a mobile terminal of a user by using a wireless network, that a distance between the mobile terminal and a set position is greater than a set value comprises: after the mobile terminal of the user detects by using a wireless local area network that the mobile terminal is disconnected from a wireless router at the set position, determining that the distance between the mobile terminal and the set position is greater than the set value. detecting (step 11), by a mobile terminal of a user by using a wireless network, that a distance between the mobile terminal and a set position is greater than a set value; and in response to the detection, reminding (step 12), by the mobile terminal, the user of a set event according to a set reminding manner, wherein the detecting, by a mobile terminal of a user by using a wireless network, that a distance between the mobile terminal and a set position is greater than a set value comprises: after the mobile terminal of the user detects by using a wireless local area network that the mobile terminal is disconnected from a wireless router at the set position, determining that the distance between the mobile terminal and the set position is greater than the set value.
A process for the production of compounds of formula (I) wherein R is -CH 3 , and R 1 is -CH 3 or -CH 2 CH 3 , and R 2 is -CH 3 , by reacting a compound of formula (II) and a compound of formula (III) R 2 OH (III), wherein the R, R 1 and R 2 have the same meaning as in formula (I), in at least one ionic liquid of formula (IV) wherein X is anion chosen from the group consisting of HSO 4 - , H 2 PO 4 - , NO 3 - , BF 4 - , ClO 4 - , CH 3 SO 3 - , CF 3 SO 3 - and N(CmF 2m-1 ) 2 - , wherein m is 1, 2, 3, 4, 5, 6, 7, or 8; y is 3 or 4, and Q is either a moiety wherein R 3 is H, CH 3 or CH 2 CH 3 , R 4 is CH 3 or CH 2 CH 3 , R 5 is CH 3 or CH 2 CH 3 , with the proviso that the total sum of the carbon atoms of the compound of formula (IV) is at least 6, preferably 6, 7, 8, 9, or 10; or Q is a moiety wherein R 6 is CH 3 or CH 2 CH 3 , with the proviso that the total sum of the carbon atoms of the compound of formula (IV) is at least 6, preferably 6, 7, 8, 9, or 10 and wherein the reaction temperature is between -60°C to 0°C.
A Doherty amplifier including a carrier amplifier and a peaking amplifier connected respectively at an output end thereof to a carrier compensation line and a peaking compensation line , comprising: a) a first impedance converter including a plurality of lines having different lengths and disposed between the output end of the carrier amplifier (110; 210) and the output end of the peaking amplifier (120; 220); and b) a connector for connecting one end of the line selected from the plurality of lines having different lengths of the impedance converter (130, 140; 430, 480) directly to the carrier compensation line connected to the carrier amplifier (110; 210) and another end of the line directly to the peaking compensation line connected to the peaking amplifier (120; 220), c) wherein the first impedance converter (130, 140; 430, 480) further comprises: c1) a satellite pad having a size adapted for adjusting the impedance of the line ; and c2) a satellite pad connector for connecting the satellite pad to the line . a) a first impedance converter including a plurality of lines having different lengths and disposed between the output end of the carrier amplifier (110; 210) and the output end of the peaking amplifier (120; 220); and b) a connector for connecting one end of the line selected from the plurality of lines having different lengths of the impedance converter (130, 140; 430, 480) directly to the carrier compensation line connected to the carrier amplifier (110; 210) and another end of the line directly to the peaking compensation line connected to the peaking amplifier (120; 220), c) wherein the first impedance converter (130, 140; 430, 480) further comprises: c1) a satellite pad having a size adapted for adjusting the impedance of the line ; and c2) a satellite pad connector for connecting the satellite pad to the line . c1) a satellite pad having a size adapted for adjusting the impedance of the line ; and c2) a satellite pad connector for connecting the satellite pad to the line .
A cutting element for use in a hair cutting device, the cutting element comprising: an optical waveguide having a sidewall, wherein a portion of the sidewall forms a cutting face for contacting hair, wherein the optical waveguide includes a plurality of optical structures spaced along its length, the optical structures being configured to reflect light at one or more wavelengths. wherein the optical waveguide is such that, when broadband light is directed along the optical waveguide: - if the cutting face of the optical waveguide is not in contact with a target object, then each of the plurality of optical structures reflects light having a first wavelength; and - if the cutting face of the optical waveguide is in contact with a target object, then at least one of the optical structures reflects light having a second wavelength different to the first wavelength. an optical waveguide having a sidewall, wherein a portion of the sidewall forms a cutting face for contacting hair, wherein the optical waveguide includes a plurality of optical structures spaced along its length, the optical structures being configured to reflect light at one or more wavelengths. wherein the optical waveguide is such that, when broadband light is directed along the optical waveguide: - if the cutting face of the optical waveguide is not in contact with a target object, then each of the plurality of optical structures reflects light having a first wavelength; and - if the cutting face of the optical waveguide is in contact with a target object, then at least one of the optical structures reflects light having a second wavelength different to the first wavelength. - if the cutting face of the optical waveguide is not in contact with a target object, then each of the plurality of optical structures reflects light having a first wavelength; and - if the cutting face of the optical waveguide is in contact with a target object, then at least one of the optical structures reflects light having a second wavelength different to the first wavelength.
A treatment tool-standing mechanism for an endoscope including an insertion part that includes a distal end , a proximal end, and a longitudinal axis, a distal-end-portion body that is provided on a distal end side of the insertion part, an operation unit that is provided on a proximal end side of the insertion part, and a treatment tool-standing base that is provided in the distal-end-portion body and includes a first rotating shaft , the treatment tool-standing mechanism comprising: a standing lever that is provided in the distal-end-portion body , includes a second rotating shaft, and allows the treatment tool-standing base to stand and fall; and a transmission member that is provided up to the distal-end-portion body from the operation unit via the insertion part and transmits displacement generated by the operation unit to the standing lever , wherein the standing lever includes a first arm portion that includes a second rotating shaft-connection portion to which the second rotating shaft is connected, a second arm portion that includes a transmission member-connection portion to which the transmission member is connected, and an arm connection portion that is provided between the first and second arm portions, and wherein a plane, which includes an axis of the second rotating shaft and is parallel to the longitudinal axis, is referred to as a first plane (P1), a plane, which is perpendicular to the axis of the second rotating shaft and crosses the second rotating shaft-connection portion, is referred to as a second plane (P2), a first direction is a direction which obliquely crosses the second plane (P2), and a second direction is a direction which includes a component in a direction parallel to the second plane (P2) and obliquely crosses the first direction in a case in which the second direction is projected onto a first projection plane parallel to the second plane (P2), the second arm portion and the arm connection portion are disposed on a side opposite to the side of the second plane (P2) on which the treatment tool-standing base is provided, the first arm portion is provided along the first direction from the second rotating shaft-connection portion toward the arm connection portion , the second arm portion is provided along the second direction from the arm connection portion toward the transmission member-connection portion , and the second direction includes a component in a direction opposite to a direction toward the second rotating shaft-connection portion from the arm connection portion in the first projection plane. a standing lever that is provided in the distal-end-portion body , includes a second rotating shaft, and allows the treatment tool-standing base to stand and fall; and a transmission member that is provided up to the distal-end-portion body from the operation unit via the insertion part and transmits displacement generated by the operation unit to the standing lever ,
Hull structure based on suitably reinforced plastic material, wherein said hull structure extends from bow to stern in a longitudinal direction (X-X) and includes a "single skin" monocoque plating and an internal stiffening structure , wherein said internal stiffening structure comprises: - at least one deck ; - at least two opposite transverse bulkheads extended vertically and in a transverse direction (Y-Y) orthogonal to said longitudinal direction (X-X) and to said at least one deck and - one or more cradle-shaped load-bearing elements to support machinery intended to be housed on said hull structure, said one or more cradle-shaped load-bearing elements extending in said longitudinal direction (X-X) between opposite head ends , characterized in that: - said one or more cradle-shaped load-bearing elements are supported only at said opposite head ends of said cradle-shaped load-bearing elements and only from respective first portions of said opposite transverse bulkheads and - said at least one deck extends in said longitudinal direction (X-X) between opposed ends of heads starting from said two opposed transverse bulkheads supporting said one or more cradle-shaped load-bearing elements , said deck being longitudinally in between said opposed transverse bulkheads . - at least one deck ; - at least two opposite transverse bulkheads extended vertically and in a transverse direction (Y-Y) orthogonal to said longitudinal direction (X-X) and to said at least one deck and - one or more cradle-shaped load-bearing elements to support machinery intended to be housed on said hull structure, said one or more cradle-shaped load-bearing elements extending in said longitudinal direction (X-X) between opposite head ends , - said one or more cradle-shaped load-bearing elements are supported only at said opposite head ends of said cradle-shaped load-bearing elements and only from respective first portions of said opposite transverse bulkheads and - said at least one deck extends in said longitudinal direction (X-X) between opposed ends of heads starting from said two opposed transverse bulkheads supporting said one or more cradle-shaped load-bearing elements , said deck being longitudinally in between said opposed transverse bulkheads .