mhurhangee/patent-ind-claim-en huggingface dataset:
A cap for a container, comprising: a main body having a top plate and a circular sidewall , wherein two opposite sides of the circular sidewall circularly connect to each other, one periphery of the circular sidewall connects to one surface of the top plate forming a closed end , and the other periphery of the circular sidewall at the opposite side of the closed end forms an opened end (1"); and a ring member , which is located at the opened end (1") of the main body , separated from the main body by a first incision line in between the opened end (1") of the main body and the ring member , wherein a plurality of connecting pins locate along the first incision line , the plurality of connecting pins connect the main body and the ring member at the two sides of the first incision line , characterised in that two ends of the first incision line are separated by a plurality of connecting portions connecting the ring member to the main body ; wherein the plurality of connecting portions are formed in between the first incision line and a plurality of second incision lines located on the main body or the ring member and located at one side of the plurality of connecting portions , wherein each of the plurality of connecting portions is separated by parts of the plurality of second incision lines , wherein the plurality of second incision lines are not connected to each other, wherein one of the plurality of second incision lines is connected to parts of the first incision line . a main body having a top plate and a circular sidewall , wherein two opposite sides of the circular sidewall circularly connect to each other, one periphery of the circular sidewall connects to one surface of the top plate forming a closed end , and the other periphery of the circular sidewall at the opposite side of the closed end forms an opened end (1"); and a ring member , which is located at the opened end (1") of the main body , separated from the main body by a first incision line in between the opened end (1") of the main body and the ring member , wherein a plurality of connecting pins locate along the first incision line , the plurality of connecting pins connect the main body and the ring member at the two sides of the first incision line , characterised in that two ends of the first incision line are separated by a plurality of connecting portions connecting the ring member to the main body ; wherein the plurality of connecting portions are formed in between the first incision line and a plurality of second incision lines located on the main body or the ring member and located at one side of the plurality of connecting portions , wherein each of the plurality of connecting portions is separated by parts of the plurality of second incision lines , wherein the plurality of second incision lines are not connected to each other, wherein one of the plurality of second incision lines is connected to parts of the first incision line .
Window construction (1; 40; 60; 100; 1.1), particularly to be used in a train, vehicle, car, helicopter, aircraft or building, which comprises a laminated window glazing (9; 40.1; 40.2; 60.1; 60.2; 100.1; 100.2; 100.3; 100.4; 100.5; 9.1) having electrically switchable layer means (6; 46; 56, 86; 96; 116; 126; 136; 146) arranged in a laminate, and controlling means (14; 14.1) being coupled to the switchable layer means (6; 46; 56, 86; 96; 116; 126; 136; 146) for controlling the sunlight transparency of the switchable layer means, wherein the controlling means (14; 14.1) comprises at least one display (12, 12.1) for indicating a presently adjusted or switched status of transparency of the window glazing (9; 40.1; 40.2; 60.1; 60.2; 100.1; 100.2; 100.3; 100.4; 9.1) or of the switchable layer means (6; 46; 56, 86; 96; 116; 126; 136; 146), and/or at least one switch to be operated by a person or passenger for controlling the transparency of the window glazing (9; 40.1; 40.2; 60.1; 60.2; 100.1; 100.2; 100.3; 100.4; 100.5; 9.1) or switchable layer means (6; 46; 56, 86; 96; 116; 126; 136; 146), a touch sensitive system or touch sensitive panel (48; 58) for realizing the switch or a touch screen for realizing the switch and the display, the touch sensitive panel (48; 58) or system or touch screen is accessible inside of a vehicle or building or passenger compartment, a controlling unit (15; 15.1) or interface electrically coupled to the touch sensitive panel (48; 58; 151) or system or touch screen , the switchable layer means (6; 46; 56, 86; 96; 116; 126; 136; 146) of the window glazing (9; 40.1; 40.2; 60.1; 60.2; 100.1; 100.2; 100.3; 100.4; 100.5; 9.1), and to a voltage supply (17; 157), a first wiring (13; 153) for coupling the touch sensitive panel (48; 58) or system or the touch screen to the controlling unit (15; 155) and a second wiring (16; 156) for coupling the controlling unit (15; 155) to the switchable layer means (6; 46; 56, 86; 96; 116; 126; 136; 146), characterized in that the first wiring (13; 153) is arranged on or within the window glazing (9; 40.1; 40.2; 60.1; 60.2; 100.1; 100.2; 100.3; 100.4; 100.5; 9.1); the second wiring (16; 156) is arranged on or within the window glazing (9; 40.1; 40.2; 60.1; 60.2; 100.1; 100.2; 100.3; 100.4; 100.5; 9.1), and the laminated window glazing has a wiring layer comprising the first and second wirings .
A method implemented by a network device to dynamically optimize lookup speed in a packet processing table maintained at the network device while the network device is in operation, the method comprising: determining one or more runtime metrics of the packet processing table, wherein the one or more runtime metrics of the packet processing table include a number of rules in the packet processing table; selecting a lookup algorithm for the packet processing table from a set of lookup algorithms supported by the network device based on the one or more runtime metrics of the packet processing table, wherein the set of lookup algorithms supported by the network device includes an inline lookup algorithm, and wherein the network device selects the inline lookup algorithm as the lookup algorithm for the packet processing table in response to a determination that a number of rules in the packet processing table is less than a threshold value; and configuring the network device to match incoming packets against rules in the packet processing table using the selected lookup algorithm for the packet processing table. determining one or more runtime metrics of the packet processing table, wherein the one or more runtime metrics of the packet processing table include a number of rules in the packet processing table; selecting a lookup algorithm for the packet processing table from a set of lookup algorithms supported by the network device based on the one or more runtime metrics of the packet processing table, wherein the set of lookup algorithms supported by the network device includes an inline lookup algorithm, and wherein the network device selects the inline lookup algorithm as the lookup algorithm for the packet processing table in response to a determination that a number of rules in the packet processing table is less than a threshold value; and configuring the network device to match incoming packets against rules in the packet processing table using the selected lookup algorithm for the packet processing table.
A fiber-reinforced biological tissue composite material, the material comprising: a fibrous scaffold comprising a plurality of fibers, wherein the fibers are surrounded by extracellular matrix, and wherein the extracellular matrix and plurality of fibers are crosslinked to each other. wherein the fibers are surrounded by extracellular matrix, and wherein the extracellular matrix and plurality of fibers are crosslinked to each other.
Drinks machine for preparing infusion drinks, comprising a flow line system that has a valve arrangement (V1, V2, V3, V4) and a cleaning apparatus for carrying out a cleaning and/or care process, comprising a storage cartridge for storing cleaning agent (R), and an electrically driven pump (8, M) for supplying the cleaning agent (R) or a cleaning solution (S) from the cleaning apparatus into the flow line system , further comprising a control device for activating and deactivating the valve arrangement (V1, V2, V3, V4) and the pump (8, M) for carrying out the drink preparation and the cleaning or care process, characterised in that the control device is further configured and programmed to activate the pump (8, M) at different pump powers (Pmax, P) during the cleaning phase to cause pulsating flow through the fluid lines within the cleaning apparatus .
Method for production of castings for electrical applications, in which use is made of curable aluminum alloys, which are melted and introduced into a die , in which the alloy melt is cooled at a cooling rate of about ≥ 5 x 10 2 K/s, wherein the castings are provided for rotors or stators, wherein the cooling rate is not less than about 10 3 K/s to form a supersaturated mixed crystal in the aluminum alloy, wherein the alloy melt is initially moved by a piston into a fill chamber at a piston speed ≤ than to about 0.5 m/s in a first phase, after which the alloy melt is moved out of the fill chamber into the die at a piston speed of between about 1 m/s and about 3 m/s in a second phase.
A gesture operation input processing apparatus comprising: an instruction point extraction unit configured to extract an instruction point of a user from an image in which a gesture of the user made while the user is looking at a display is captured; a distance calculation unit configured to obtain a distance to the instruction point in the depth direction; a parameter adjustment unit configured to adjust a parameter used for adjustment of the detection sensitivity in the depth direction when operation input by the gesture of the user is recognized, based on at least one of resolution of distance measurement in the depth direction and three-dimensional display performance of a display; and a gesture recognition processing unit configured to recognize the operation input by the gesture of the user based on the adjusted parameter, to detect whether the instruction point of the user passes through a virtual screen, which is set in the depth direction, and to activate the instruction point so as to recognize operation input entered by a gesture when the instruction point passes through the virtual screen, based on the distance to the instruction point in the depth direction calculated by the distance calculation unit , wherein the parameter adjustment unit adjusts, as the parameter related to the detection sensitivity in the depth direction, at least one of an installed number, an installation interval, and dead band of a plurality of virtual screens provided in the depth direction for allowing the instruction point to pass through. an instruction point extraction unit configured to extract an instruction point of a user from an image in which a gesture of the user made while the user is looking at a display is captured; a distance calculation unit configured to obtain a distance to the instruction point in the depth direction; a parameter adjustment unit configured to adjust a parameter used for adjustment of the detection sensitivity in the depth direction when operation input by the gesture of the user is recognized, based on at least one of resolution of distance measurement in the depth direction and three-dimensional display performance of a display; and a gesture recognition processing unit configured to recognize the operation input by the gesture of the user based on the adjusted parameter, to detect whether the instruction point of the user passes through a virtual screen, which is set in the depth direction, and to activate the instruction point so as to recognize operation input entered by a gesture when the instruction point passes through the virtual screen, based on the distance to the instruction point in the depth direction calculated by the distance calculation unit ,
Method for manufacturing a microfilter/nanofilter on a microchannel/nanochannel or microcavity/nanocavity that are present in a silicon layer, the method comprising the following steps: - a lithography step (E2, E30, E200), to generate a resin layer on said silicon layer so as to form a resin structure on the silicon layer, said structure comprising at least one target zone (Z); - a step of producing a carbon-based layer on the surface of said silicon layer in said target zone; - a step of creating (E3, E40, E400) implanted zones by ion implantation through said structure formed by said resin layer in said target zone; - a step of removing (E4, E50, E600) the resin layer and of maintaining, at least partly, the carbon-based layer on said target zone; - a step of porosifying (E5, E60, E700) the silicon and the carbon-based layer in said target zone in order to obtain a porosified target zone ; - a step of cleaning (E6, E70, E800) said porosified target zone in order to remove the porous silicon from said target zone and to form at least one cavity that is closed on the surface by a carbon-based porous membrane . - a lithography step (E2, E30, E200), to generate a resin layer on said silicon layer so as to form a resin structure on the silicon layer, said structure comprising at least one target zone (Z); - a step of producing a carbon-based layer on the surface of said silicon layer in said target zone; - a step of creating (E3, E40, E400) implanted zones by ion implantation through said structure formed by said resin layer in said target zone; - a step of removing (E4, E50, E600) the resin layer and of maintaining, at least partly, the carbon-based layer on said target zone; - a step of porosifying (E5, E60, E700) the silicon and the carbon-based layer in said target zone in order to obtain a porosified target zone ; - a step of cleaning (E6, E70, E800) said porosified target zone in order to remove the porous silicon from said target zone and to form at least one cavity that is closed on the surface by a carbon-based porous membrane .
Method of MR imaging of at least a portion of a body placed in a main magnetic field Bo within the examination volume of a MR device , the method comprising the following steps: - subjecting the portion of the body to an imaging sequence comprising one or more RF pulses and switched magnetic field gradients for acquiring imaging signals from a volume of interest; - subjecting the portion of the body to a navigator sequence which is interleaved with the imaging sequence, the navigator sequence comprising one or more RF pulses and switched magnetic field gradients controlled in such a manner that navigator signals are acquired from a navigator volume by means of a single-point or multi-point Dixon technique, and water and fat navigators are reconstructed from the navigator signals as low resolution water and fat maps, respectively; - using the water and fat navigators for segmentation and determination of motion in the volume of interest by deriving affine motion transformations from the segmented water and fat navigators for deriving translation and/or rotation and/or shear data from the navigator signals, which translation and/or rotation and/or shear data reflect motion occurring within the portion of the body during the MR imaging; - reconstructing a MR image from the imaging signals and wherein the translation and/or rotation and/or shear data are used for adapting the imaging sequence and/or for motion correction during reconstruction of the MR image. - subjecting the portion of the body to an imaging sequence comprising one or more RF pulses and switched magnetic field gradients for acquiring imaging signals from a volume of interest; - subjecting the portion of the body to a navigator sequence which is interleaved with the imaging sequence, the navigator sequence comprising one or more RF pulses and switched magnetic field gradients controlled in such a manner that navigator signals are acquired from a navigator volume by means of a single-point or multi-point Dixon technique, and water and fat navigators are reconstructed from the navigator signals as low resolution water and fat maps, respectively; - using the water and fat navigators for segmentation and determination of motion in the volume of interest by deriving affine motion transformations from the segmented water and fat navigators for deriving translation and/or rotation and/or shear data from the navigator signals, which translation and/or rotation and/or shear data reflect motion occurring within the portion of the body during the MR imaging; - reconstructing a MR image from the imaging signals and
A dental whitening, curing or imaging lamp head comprising: a housing having an internal surface and a cavity within said housing, said internal surface including a first edge, said first edge defining a first aperture ; and a light module being disposed within said cavity, said light module comprising a first reflector having an axis of illumination passing through said first aperture ; characterized in that the lamp head comprises: two slots (510,515; 530,535; 1060; 1162,1164) adapted to couple said lamp head to two lateral wings of a lip retracting device worn by a dental patient, for facilitating the illumination of a target along said axis of illumination. a housing having an internal surface and a cavity within said housing, said internal surface including a first edge, said first edge defining a first aperture ; and a light module being disposed within said cavity, said light module comprising a first reflector having an axis of illumination passing through said first aperture ; characterized in that the lamp head comprises: two slots (510,515; 530,535; 1060; 1162,1164) adapted to couple said lamp head to two lateral wings of a lip retracting device worn by a dental patient, for facilitating the illumination of a target along said axis of illumination.
A method of preparing a graft copolymer, the method comprising: a step of adding a polymer particle diameter control agent to a conjugated diene rubber latex to prepare an enlarged conjugated diene rubber latex; and a step of graft-polymerizing the enlarged conjugated diene rubber latex with an aromatic vinyl compound and a vinyl cyanide compound to prepare a vinyl cyanide compound-conjugated diene compound-aromatic vinyl compound graft copolymer, wherein the polymer particle diameter control agent is a copolymer comprising 82 to 99 % by weight of an alkyl acrylate and 1 to 18 % by weight of an unsaturated acid compound and has a glass transition temperature of 0 to 10.5 °C, and the ratio (PS 1 /PS 2 ) of the average particle diameter (PS 1 ) of the polymer particle diameter control agent to the average particle diameter (PS 2 ) of the conjugated diene rubber latex is 0.85 to 1.13, wherein the average particle diameter is measured by dynamic light scattering as disclosed in the specification, and wherein the glass transition temperature is measured as disclosed in the specification. a step of adding a polymer particle diameter control agent to a conjugated diene rubber latex to prepare an enlarged conjugated diene rubber latex; and a step of graft-polymerizing the enlarged conjugated diene rubber latex with an aromatic vinyl compound and a vinyl cyanide compound to prepare a vinyl cyanide compound-conjugated diene compound-aromatic vinyl compound graft copolymer, wherein the polymer particle diameter control agent is a copolymer comprising 82 to 99 % by weight of an alkyl acrylate and 1 to 18 % by weight of an unsaturated acid compound and has a glass transition temperature of 0 to 10.5 °C, and the ratio (PS 1 /PS 2 ) of the average particle diameter (PS 1 ) of the polymer particle diameter control agent to the average particle diameter (PS 2 ) of the conjugated diene rubber latex is 0.85 to 1.13, wherein the average particle diameter is measured by dynamic light scattering as disclosed in the specification,
An elevator system , comprising: an elevator car ; a counterweight ; roping coupling the elevator car and the counterweight , the roping supporting a load of the elevator car and the counterweight ; and a plurality of safeties , wherein: the plurality of safeties includes a plurality of elevator car safeties supported for movement with the elevator car , the elevator car safeties being selectively actuated to engage a stationary surface to prevent movement of the elevator car , characterized in that the plurality of safeties further includes a plurality of counterweight safeties supported for movement with the counterweight , the counterweight safeties being selectively actuated to engage a stationary surface to prevent movement of the counterweight , and the plurality of safeties are configured for wireless communication causing essentially simultaneous actuation of the elevator car safeties and the counterweight safeties . an elevator car ; a counterweight ; roping coupling the elevator car and the counterweight , the roping supporting a load of the elevator car and the counterweight ; and a plurality of safeties , wherein: the plurality of safeties includes a plurality of elevator car safeties supported for movement with the elevator car , the elevator car safeties being selectively actuated to engage a stationary surface to prevent movement of the elevator car , characterized in that the plurality of safeties further includes a plurality of counterweight safeties supported for movement with the counterweight , the counterweight safeties being selectively actuated to engage a stationary surface to prevent movement of the counterweight , and the plurality of safeties are configured for wireless communication causing essentially simultaneous actuation of the elevator car safeties and the counterweight safeties . the plurality of safeties includes a plurality of elevator car safeties supported for movement with the elevator car , the elevator car safeties being selectively actuated to engage a stationary surface to prevent movement of the elevator car , characterized in that the plurality of safeties further includes a plurality of counterweight safeties supported for movement with the counterweight , the counterweight safeties being selectively actuated to engage a stationary surface to prevent movement of the counterweight , and the plurality of safeties are configured for wireless communication causing essentially simultaneous actuation of the elevator car safeties and the counterweight safeties .