mhurhangee/patent-ind-claim-en huggingface dataset:
A blower fan comprising: a hub coupled to a driving member and configured to receive rotation force; and a plurality of wings radially arranged along a circumference of the hub , wherein each of the plurality of wings includes an uneven part formed at a trailing edge which is a rear edge portion of the wing with respect to a rotational direction thereof, the uneven part comprising a plurality of protruding portions protruding from a surface of the trailing edge and a plurality of recessed portions recessed from the surface of the trailing edge ; and a tail wing part formed at the trailing edge having a convex portion with a convex shape to have a preset curvature which is formed on an outer side of the uneven part , wherein the convex portion protrudes further backward than the protruding portions of the uneven part with respect to the rotational direction of the blower fan , characterized in that the plurality of protruding portions and the plurality of recessed portions are alternately arranged, the plurality of protruding portions have a same sized shape, and the plurality of recessed portions have a same sized shape, and the plurality of protruding portions and the plurality of recessed portions have a symmetrical shape with each other with respect to the surface of the trailing edge . a hub coupled to a driving member and configured to receive rotation force; and a plurality of wings radially arranged along a circumference of the hub , wherein each of the plurality of wings includes an uneven part formed at a trailing edge which is a rear edge portion of the wing with respect to a rotational direction thereof, the uneven part comprising a plurality of protruding portions protruding from a surface of the trailing edge and a plurality of recessed portions recessed from the surface of the trailing edge ; and a tail wing part formed at the trailing edge having a convex portion with a convex shape to have a preset curvature which is formed on an outer side of the uneven part , an uneven part formed at a trailing edge which is a rear edge portion of the wing with respect to a rotational direction thereof, the uneven part comprising a plurality of protruding portions protruding from a surface of the trailing edge and a plurality of recessed portions recessed from the surface of the trailing edge ; and a tail wing part formed at the trailing edge having a convex portion with a convex shape to have a preset curvature which is formed on an outer side of the uneven part , wherein the convex portion protrudes further backward than the protruding portions of the uneven part with respect to the rotational direction of the blower fan , characterized in that the plurality of protruding portions and the plurality of recessed portions are alternately arranged, the plurality of protruding portions have a same sized shape, and the plurality of recessed portions have a same sized shape, and the plurality of protruding portions and the plurality of recessed portions have a symmetrical shape with each other with respect to the surface of the trailing edge .
A package comprising: a first filter comprising a first polymer frame ; a substrate cap coupled to the first polymer frame such that a first void is formed between the substrate cap and the first filter; a second filter comprising a second polymer frame , wherein the second polymer frame is coupled to the substrate cap such that a second void is formed between the substrate cap and the second filter; at least one interconnect coupled to the first filter and the second filter; an encapsulation layer encapsulating the first filter, the substrate cap, the second filter, and the at least one interconnect; and a plurality of through encapsulation vias coupled to the first filter. a first filter comprising a first polymer frame ; a substrate cap coupled to the first polymer frame such that a first void is formed between the substrate cap and the first filter; a second filter comprising a second polymer frame , wherein the second polymer frame is coupled to the substrate cap such that a second void is formed between the substrate cap and the second filter; at least one interconnect coupled to the first filter and the second filter; an encapsulation layer encapsulating the first filter, the substrate cap, the second filter, and the at least one interconnect; and a plurality of through encapsulation vias coupled to the first filter.
A method, comprising: at a server system : receiving a video stream from a remote video camera , wherein the video stream comprises a plurality of video frames; processing the video stream to identify events; selecting a plurality of frames from the video stream, the plurality of frames being associated with a predetermined time interval , wherein selecting the plurality of frames includes extracting the plurality of frames from the received video stream at a predefined average rate and wherein (i) a first set of frames that are proximate to an event identified in the time interval and (ii) a second set of frames that are not proximate to the event identified in the time interval are extracted, wherein frames in the first set are extracted at a higher rate than the predefined average rate and frames in the second set are extracted at a lower rate than the predefined average rate to maintain the predefined average rate for the plurality of frames; encoding the selected plurality of frames as a compressed video segment associated with the time interval; receiving a request from an application running on a client device to review video from the remote video camera for the time interval; and in response to the request, transmitting the video segment to the client device for viewing in the application. receiving a video stream from a remote video camera , wherein the video stream comprises a plurality of video frames; processing the video stream to identify events; selecting a plurality of frames from the video stream, the plurality of frames being associated with a predetermined time interval , wherein selecting the plurality of frames includes extracting the plurality of frames from the received video stream at a predefined average rate and wherein (i) a first set of frames that are proximate to an event identified in the time interval and (ii) a second set of frames that are not proximate to the event identified in the time interval are extracted, wherein frames in the first set are extracted at a higher rate than the predefined average rate and frames in the second set are extracted at a lower rate than the predefined average rate to maintain the predefined average rate for the plurality of frames; encoding the selected plurality of frames as a compressed video segment associated with the time interval; receiving a request from an application running on a client device to review video from the remote video camera for the time interval; and in response to the request, transmitting the video segment to the client device for viewing in the application.
A working vehicle including: a work unit , which is hydraulically driven; a hydraulic pump, which is driven by an electric motor; a power source and a power supply circuit , which supply electric power to the electric motor; and a main body , which supports the work unit , the hydraulic pump, the electric motor, the power source , and the power supply circuit , the working vehicle comprising: a plurality of fixation components fixed to the main body ; and a first fixation mechanism , which fixes a first fixation component of the plurality of fixation components to the main body , the first fixation mechanism including: a first conductor ; a first conduction member , which makes the first conductor and the main body electrically conductive to each other; and a second conduction member , which makes the first conductor and the first fixation component electrically conductive to each other, and wherein the first fixation mechanism is configured such that the main body and the first fixation component are electrically conductive to each other via the first conductor , the first conduction member , and the second conduction member and are equal in electric potential to each other, wherein the main body is configured to be electrically conductive and equal in electric potential to a ground pole of the power supply circuit . a plurality of fixation components fixed to the main body ; and a first fixation mechanism , which fixes a first fixation component of the plurality of fixation components to the main body , the first fixation mechanism including: a first conductor ; a first conduction member , which makes the first conductor and the main body electrically conductive to each other; and a second conduction member , which makes the first conductor and the first fixation component electrically conductive to each other, and wherein the first fixation mechanism is configured such that the main body and the first fixation component are electrically conductive to each other via the first conductor , the first conduction member , and the second conduction member and are equal in electric potential to each other, wherein the main body is configured to be electrically conductive and equal in electric potential to a ground pole of the power supply circuit .
A personal care implement , comprising: a treatment device having a longitudinal axis and comprising: a treatment portion having at least one treatment element ; a connection portion having a main body and a first resilient snap attachment protruding from the main body ; the treatment device is alterable between: a detached state; and an assembled state; and the connection portion is configured such that during transition from the detached state to the assembled state, the first resilient snap attachment is deflected in a first circumferential direction relative to the longitudinal axis to allow the first resilient snap attachment to pass by a first engagement portion , the personal care implement further comprising: a grip section , which is preferably solid, the grip section having a longitudinal axis, wherein, in the assembled state, the treatment device is detachably coupled to the grip section such that the first resilient snap attachment cooperates with and engages the first engagement portion of the grip section to secure the treatment device to the grip section . a treatment device having a longitudinal axis and comprising: a treatment portion having at least one treatment element ; a connection portion having a main body and a first resilient snap attachment protruding from the main body ; a treatment portion having at least one treatment element ; a connection portion having a main body and a first resilient snap attachment protruding from the main body ; the treatment device is alterable between: a detached state; and an assembled state; and a detached state; and an assembled state; and the connection portion is configured such that during transition from the detached state to the assembled state, the first resilient snap attachment is deflected in a first circumferential direction relative to the longitudinal axis to allow the first resilient snap attachment to pass by a first engagement portion , the personal care implement further comprising: a grip section , which is preferably solid, the grip section having a longitudinal axis, wherein, in the assembled state, the treatment device is detachably coupled to the grip section such that the first resilient snap attachment cooperates with and engages the first engagement portion of the grip section to secure the treatment device to the grip section .
A device for inserting a bouquet into a vase, containing - an upper carrier surface , - a support wall adjoining the underside of the carrier surface and - several small tubes , which are inserted into the carrier surface and which are open on one side on the lower end thereof, characterized in that - the small tubes are closed on the upper end thereof and - have at least one lateral opening in the region of the upper end thereof, and that - the small tube are thin-walled and have an outer diameter of 130 um to 200 um and - an inner diameter of 120 um to 190 μm. - an upper carrier surface , - a support wall adjoining the underside of the carrier surface and - several small tubes , which are inserted into the carrier surface and which are open on one side on the lower end thereof, - the small tubes are closed on the upper end thereof and - have at least one lateral opening in the region of the upper end thereof, and that - the small tube are thin-walled and have an outer diameter of 130 um to 200 um and - an inner diameter of 120 um to 190 μm.
A method of manufacturing a bonded wafer, comprising: implanting at least one gas ion selected from a hydrogen ion and a rare gas ion into a bond wafer from a surface of the bond wafer to form a layer of the implanted ion; bonding the surface from which the ion is implanted into the bond wafer and a surface of a base wafer directly or through an insulator film; subsequently separating the bond wafer along the layer of the implanted ion to form a bonded wafer having a thin film on the base wafer; performing rapid thermal annealing (RTA) under an atmosphere containing hydrogen on the bonded wafer after separating the bond wafer, the RTA including a period at which the temperature is rapidly increased, a retention period at which a high temperature is retained, and a period at which the temperature is rapidly decreased; and subsequently performing a sacrificial oxidation process to reduce a thickness of the thin film, wherein the RTA is performed under conditions of a retention start temperature of 1175°C to 1250°C and a retention end temperature of 1100°C to 1150°C; wherein a temperature fall occurs without a temperature rise during the retention period of transition between the retention start temperature and the retention end temperature. implanting at least one gas ion selected from a hydrogen ion and a rare gas ion into a bond wafer from a surface of the bond wafer to form a layer of the implanted ion; bonding the surface from which the ion is implanted into the bond wafer and a surface of a base wafer directly or through an insulator film; subsequently separating the bond wafer along the layer of the implanted ion to form a bonded wafer having a thin film on the base wafer; performing rapid thermal annealing (RTA) under an atmosphere containing hydrogen on the bonded wafer after separating the bond wafer, the RTA including a period at which the temperature is rapidly increased, a retention period at which a high temperature is retained, and a period at which the temperature is rapidly decreased; and subsequently performing a sacrificial oxidation process to reduce a thickness of the thin film, wherein the RTA is performed under conditions of a retention start temperature of 1175°C to 1250°C and a retention end temperature of 1100°C to 1150°C; wherein a temperature fall occurs without a temperature rise during the retention period of transition between the retention start temperature and the retention end temperature.
A gimbal load mounting assembly, configured to slidably mount to a gimbal frame (11, 111-113) to adjust a center of gravity of a load mounted to the gimbal load mounting assembly, wherein the gimbal load mounting assembly comprises a first seating body , a second seating body that can slidably connect with the first seating body , and a fastener , the first seating body is configured to connect with the gimbal frame (11, 111-113) and slide in a first direction (d1), the second seating body is configured to mount the load , the second seating body can slide on the first seating body in a second direction (d2), the fastener is connected with the first seating body and can simultaneously lock a mounting location of the first seating body relative to the gimbal frame (11, 111-113) and a mounting location of the second seating body relative to the first seating body ; characterized in that the gimbal load mounting assembly further comprises a first adjusting member , the first adjusting member can be disposed on one of the first seating body and the gimbal frame (11, 111-113) and can drive the first seating body to move, to adjust a relative location of the first seating body relative to the gimbal frame (11, 111-113).
A turbine blade comprising: an internal vibration damping system disposed within the turbine blade , the internal vibration damping system comprising: a plurality of unit cells , each unit cell of the plurality of unit cells comprising: an impacting structure ; a cavity encapsulating the impacting structure , the cavity comprising a first hemisphere and a second hemisphere , the cavity disposed within a substrate of the turbine blade , the substrate forming an outer casing of the cavity ; and at least one fluid disposed in each of the first and second hemispheres between the impacting structure and the outer casing; wherein the internal vibration damping system is configured to dampen at least one vibration mode in the turbine blade ; characterized by each unit cell of the plurality of unit cells further comprising at least one fluid passage disposed in the impacting structure , the at least one fluid passage fluidly connecting the first and second hemispheres ; wherein movement of the at least one fluid through the at least one fluid passage is arranged to cause viscous damping of the at least one vibration mode within the turbine blade . an internal vibration damping system disposed within the turbine blade , the internal vibration damping system comprising: a plurality of unit cells , each unit cell of the plurality of unit cells comprising: an impacting structure ; a cavity encapsulating the impacting structure , the cavity comprising a first hemisphere and a second hemisphere , the cavity disposed within a substrate of the turbine blade , the substrate forming an outer casing of the cavity ; and at least one fluid disposed in each of the first and second hemispheres between the impacting structure and the outer casing; an impacting structure ; a cavity encapsulating the impacting structure , the cavity comprising a first hemisphere and a second hemisphere , the cavity disposed within a substrate of the turbine blade , the substrate forming an outer casing of the cavity ; and at least one fluid disposed in each of the first and second hemispheres between the impacting structure and the outer casing; wherein the internal vibration damping system is configured to dampen at least one vibration mode in the turbine blade ; characterized by each unit cell of the plurality of unit cells further comprising at least one fluid passage disposed in the impacting structure , the at least one fluid passage fluidly connecting the first and second hemispheres ; wherein movement of the at least one fluid through the at least one fluid passage is arranged to cause viscous damping of the at least one vibration mode within the turbine blade .
A N-vinyl lactam-based crosslinked polymer-containing composition, the composition comprising a N-vinyl lactam-based crosslinked polymer, the N-vinyl lactam-based crosslinked polymer containing: a structural unit derived from a N-vinyl lactam-based monomer; and a structural unit derived from a cyanuric acid structure-containing crosslinkable monomer, the N-vinyl lactam-based crosslinked polymer containing the structural unit derived from a cyanuric acid structure-containing crosslinkable monomer in a ratio of 0.12 to 0.48 mol% to 100 mol% of all structural units, the composition having a proportion of a compound represented by the following formula , determined as described in the specification, of 2 mass% or less in 100 mass% of the N-vinyl lactam-based crosslinked polymer: wherein R 4 represents a hydrogen atom or an optionally substituted C1-C10 alkyl group; and y represents an integer of 1 to 3. a structural unit derived from a N-vinyl lactam-based monomer; and a structural unit derived from a cyanuric acid structure-containing crosslinkable monomer, the N-vinyl lactam-based crosslinked polymer containing the structural unit derived from a cyanuric acid structure-containing crosslinkable monomer in a ratio of 0.12 to 0.48 mol% to 100 mol% of all structural units, the composition having a proportion of a compound represented by the following formula , determined as described in the specification, of 2 mass% or less in 100 mass% of the N-vinyl lactam-based crosslinked polymer: wherein R 4 represents a hydrogen atom or an optionally substituted C1-C10 alkyl group; and y represents an integer of 1 to 3.
A strain of Lactobacillus salivarius PS1 1610 or a variant thereof having at least 99% identity with the 16S rRNA sequence of this strain, wherein the variant strain retains or further improves the activity of the strain Lactobacillus salivarius PS11610 in one or more of the following properties: - production of lactic acid in MRS broth after 24 h at 37 °C under anaerobic conditions; - tolerance to pH in the range of 3 to 6; and - tolerance to bile salts. - production of lactic acid in MRS broth after 24 h at 37 °C under anaerobic conditions; - tolerance to pH in the range of 3 to 6; and - tolerance to bile salts.
Adapter for positioning and fastening an installation housing in a wall recess made in a wall , the adapter having a support element , an abutment surface (11.3) being provided on the support element for indirect or direct abutment against the installation housing , characterized in in that the support element has at least one connection element for fastening to the installation housing , in that positioning tabs (13.1, 13.2, 14.1, 14.2) are arranged on the support element opposite the abutment surface (11.3) at a distance from one another in the depth direction and transversely with respect to the depth direction and in that the positioning tabs (13.1, 13.2, 14.1, 14.2) are oriented facing away from the support element and form contact edges facing away from the carrier element . in that the support element has at least one connection element for fastening to the installation housing , in that positioning tabs (13.1, 13.2, 14.1, 14.2) are arranged on the support element opposite the abutment surface (11.3) at a distance from one another in the depth direction and transversely with respect to the depth direction and in that the positioning tabs (13.1, 13.2, 14.1, 14.2) are oriented facing away from the support element and form contact edges facing away from the carrier element .