mhurhangee/patent-ind-claim-en huggingface dataset:
Method for creating a three-dimensional multi-cell object, comprising the following steps: a) introducing a first photopolymerizable liquid into a reaction vessel , b) focusing a first light radiation onto a first focal plane located within a region of the reaction vessel filled with the first liquid, c) creating a first polymerized structure in a first layer in the reaction vessel by means of the first light radiation, d) introducing a further photopolymerizable liquid into the reaction vessel such that a previously created polymerized structure is at least partly covered by the further photopolymerizable liquid, e) focusing a further light radiation onto a further focal plane located within a region of the reaction vessel filled with the further liquid, f) creating a further polymerized structure in a further layer in the reaction vessel by means of the further light radiation, wherein the further polymerized structure is disposed directly on the previously created polymerized structure and connected to the latter, g) repeating steps d) to f) with a further photopolymerizable liquid in each case until the three-dimensional multi-cell object is created, wherein the first photopolymerizable liquid and/or at least one of the further photopolymerizable liquids contain biological cells, characterized in that more than one polymerized structure is created in the same layer. a) introducing a first photopolymerizable liquid into a reaction vessel , b) focusing a first light radiation onto a first focal plane located within a region of the reaction vessel filled with the first liquid, c) creating a first polymerized structure in a first layer in the reaction vessel by means of the first light radiation, d) introducing a further photopolymerizable liquid into the reaction vessel such that a previously created polymerized structure is at least partly covered by the further photopolymerizable liquid, e) focusing a further light radiation onto a further focal plane located within a region of the reaction vessel filled with the further liquid, f) creating a further polymerized structure in a further layer in the reaction vessel by means of the further light radiation, wherein the further polymerized structure is disposed directly on the previously created polymerized structure and connected to the latter, g) repeating steps d) to f) with a further photopolymerizable liquid in each case until the three-dimensional multi-cell object is created, wherein the first photopolymerizable liquid and/or at least one of the further photopolymerizable liquids contain biological cells, characterized in that more than one polymerized structure is created in the same layer.
An inhalable composition, suitable for use in an electronic cigarette device, comprising at least 1 g/L of nicotine and at least 2 g/L of carbon dioxide dissolved or dispersed in a solvent comprising glycerol and water, wherein the molar ratio of carbon dioxide to nicotine is at least 0.1:1; wherein glycerol is present in an amount of at least 40% by weight, based on the total weight of the inhalable composition; wherein water is present in an amount of 1-20% by weight, based on the total weight of the inhalable composition; and wherein propylene glycol, when present, is present in an amount of no more than 10% by weight, based on the total weight of the inhalable composition. wherein glycerol is present in an amount of at least 40% by weight, based on the total weight of the inhalable composition; wherein water is present in an amount of 1-20% by weight, based on the total weight of the inhalable composition; and wherein propylene glycol, when present, is present in an amount of no more than 10% by weight, based on the total weight of the inhalable composition.
A method for operating a logical router with a plurality of interfaces that connect to at least one physical router external to a logical network , the method comprising: selecting a first host computer from a plurality of host computers (315-325) that each hosts a centralized routing component (205-215) for a different interface of the logical router ; and configuring the first host computer to operate a dynamic routing protocol control plane that receives routing protocol data from each of the centralized routing components (205-215) and updates routing tables of each of the centralized routing components (205-215), wherein when the first host computer fails, a second host computer of the plurality of host computers (315-325) is selected to operate the dynamic routing protocol control plane . selecting a first host computer from a plurality of host computers (315-325) that each hosts a centralized routing component (205-215) for a different interface of the logical router ; and configuring the first host computer to operate a dynamic routing protocol control plane that receives routing protocol data from each of the centralized routing components (205-215) and updates routing tables of each of the centralized routing components (205-215), wherein when the first host computer fails, a second host computer of the plurality of host computers (315-325) is selected to operate the dynamic routing protocol control plane .
A method, performed on a mobile device, for identifying a user using an image comprising at least one fingertip of the user, wherein each fingertip has a fingerprint of the user, the method comprising: obtaining, by an optical sensor of the mobile device, the image; providing the image to a neural network; processing the image by the neural network, thereby identifying in the image both the position and the fingertip itself for each fingertip; extracting, from at least one fingertip, the fingerprint; storing at least one fingerprint in a storage device and/or providing at least one fingerprint as input to an identification means, comprising processing the input in order to determine whether the fingerprint identifies the user. obtaining, by an optical sensor of the mobile device, the image; providing the image to a neural network; processing the image by the neural network, thereby identifying in the image both the position and the fingertip itself for each fingertip; extracting, from at least one fingertip, the fingerprint; storing at least one fingerprint in a storage device and/or providing at least one fingerprint as input to an identification means, comprising processing the input in order to determine whether the fingerprint identifies the user.
A photoresist or semiconductor manufacturing residue stripping and cleaning composition comprising 70 to 85% by weight of one or more alkaline compounds wherein one or more alkanolamines are used as the alkaline compounds, 0.5 to 2.5% by weight of one or more antioxidant corrosion inhibitors, 0.001 to 1% of one or more oxidation products of one or more antioxidants, and 9.9 to 28.99 wt. % water.
A display subsystem for a virtual image generation system for use by an end user, comprising: a planar waveguide apparatus ; an optical fiber having a distal tip affixed relative to the planar waveguide apparatus , and an aperture proximal to the distal tip ; at least one light source coupled to the optical fiber and configured for emitting light from the aperture of the optical fiber ; a mechanical drive assembly to which the optical fiber is mounted, the mechanical drive assembly configured for displacing the aperture of the optical fiber in accordance with a scan pattern; an optical waveguide input apparatus configured for directing the light from the aperture of the optical fiber down the planar waveguide apparatus , such that the planar waveguide apparatus displays one or more image frames to the end user, characterized in that the distal tip of the optical fiber is mounted to the planar waveguide apparatus . a planar waveguide apparatus ; an optical fiber having a distal tip affixed relative to the planar waveguide apparatus , and an aperture proximal to the distal tip ; at least one light source coupled to the optical fiber and configured for emitting light from the aperture of the optical fiber ; a mechanical drive assembly to which the optical fiber is mounted, the mechanical drive assembly configured for displacing the aperture of the optical fiber in accordance with a scan pattern; an optical waveguide input apparatus configured for directing the light from the aperture of the optical fiber down the planar waveguide apparatus , such that the planar waveguide apparatus displays one or more image frames to the end user, characterized in that the distal tip of the optical fiber is mounted to the planar waveguide apparatus .
A satellite communications apparatus comprising: an antenna assembly including: a directional antenna arranged to receive signals from and transmit signals to a satellite; an electronic motor arranged to adjust at least one of a position and orientation of the directional antenna; a sensor arranged to detect the position and orientation of the directional antenna; an RF interface, in communication with the antenna, arranged to receive the received signals from the directional antenna; a controller , in communication with the RF interface, arranged to: i) measure a gain associated with the received signals during a first time interval, ii) receive the detected position and orientation of the directional antenna during the first time interval, and iii) send a control signal to the electronic motor to adjust the position and orientation of the directional antenna to limit a decrease in the measured gain to less than a threshold, wherein the satellite communications apparatus is configured to be carried by a user during operation, and wherein the controller is configured to adjust at least one of the power output from the RF interface and the position and orientation of the directional antenna based on a presence of a person in proximity to the directional antenna . an antenna assembly including: a directional antenna arranged to receive signals from and transmit signals to a satellite; an electronic motor arranged to adjust at least one of a position and orientation of the directional antenna; a sensor arranged to detect the position and orientation of the directional antenna; an RF interface, in communication with the antenna, arranged to receive the received signals from the directional antenna; a controller , in communication with the RF interface, arranged to: i) measure a gain associated with the received signals during a first time interval, ii) receive the detected position and orientation of the directional antenna during the first time interval, and iii) send a control signal to the electronic motor to adjust the position and orientation of the directional antenna to limit a decrease in the measured gain to less than a threshold, a directional antenna arranged to receive signals from and transmit signals to a satellite; an electronic motor arranged to adjust at least one of a position and orientation of the directional antenna; a sensor arranged to detect the position and orientation of the directional antenna; an RF interface, in communication with the antenna, arranged to receive the received signals from the directional antenna; a controller , in communication with the RF interface, arranged to: i) measure a gain associated with the received signals during a first time interval, ii) receive the detected position and orientation of the directional antenna during the first time interval, and iii) send a control signal to the electronic motor to adjust the position and orientation of the directional antenna to limit a decrease in the measured gain to less than a threshold, wherein the satellite communications apparatus is configured to be carried by a user during operation, and
An intraocular lens system for implantation into a lens capsule of an eye of human or animal body, said lens capsule having a capsulorhexis perimeter, said intraocular lens system comprising: i) an intraocular primary component having a body exhibiting a flat configuration; and ii) an intraocular secondary component having an optical body with an optical axis , wherein the primary component includes a first primary component body part configured to fit within the lens capsule and a second primary component body part configured to be positioned outside the lens capsule and in the posterior chamber of the eye and wherein the second primary component body part is configured to releasably receive the secondary component in the posterior chamber of the eye to provide optical correction, such that the secondary component is movable relative to the primary component . i) an intraocular primary component having a body exhibiting a flat configuration; and ii) an intraocular secondary component having an optical body with an optical axis ,
Method for producing a laminated pane (W), wherein (a) a first pane , a second pane , at least one thermoplastic film and a component (E) are provided, wherein the component (E) comprises at least two electrical functional elements and cabling which comprises electrical conductors (4.1, 4.2, 4.3; 5; 6.1, 6.2, 6.3, 6.4) which have insulating sheathing and are each connected to an electrical functional element , wherein the cabling has a bundling portion (G) in which all electrical conductors (4.1, 4.2, 4.3; 5; 6.1, 6.2, 6.3, 6.4) are surrounded by a common insulating sheathing , (b) the first pane and the second pane with the film therebetween are arranged flat one above the other to form a stack, wherein at least one electrical functional element of the component (E) is arranged between the film and one of the panes and wherein the bundling portion (G) is arranged outside the stack, (c) the first pane is connected, via the film , to the second pane by lamination to form the laminated pane (W). (a) a first pane , a second pane , at least one thermoplastic film and a component (E) are provided, wherein the component (E) comprises at least two electrical functional elements and cabling which comprises electrical conductors (4.1, 4.2, 4.3; 5; 6.1, 6.2, 6.3, 6.4) which have insulating sheathing and are each connected to an electrical functional element , wherein the cabling has a bundling portion (G) in which all electrical conductors (4.1, 4.2, 4.3; 5; 6.1, 6.2, 6.3, 6.4) are surrounded by a common insulating sheathing , (b) the first pane and the second pane with the film therebetween are arranged flat one above the other to form a stack, wherein at least one electrical functional element of the component (E) is arranged between the film and one of the panes and wherein the bundling portion (G) is arranged outside the stack, (c) the first pane is connected, via the film , to the second pane by lamination to form the laminated pane (W).
A stoma-creating apparatus for creating a stoma in a subject the apparatus comprising first and second members , and dilation means provided on the first and/or second member , the dilation means comprising a body section from which extends a blade comprising a groove , which extends in a substantially parallel direction with the respect to the elongate axis of the blade , and distal ends of the blades are bevelled to a tip, wherein, in use, upon respective movement of the first and second members , the stoma-creating apparatus is arranged to move between a first closed configuration in which the dilation means are substantially closed, and the blades are brought together, such that adjacent tips meet to form a pointed end to further ease insertion into the subject and the grooves on adjacent blades collectively create a channel in which a guide wire can be accommodated, and a second open configuration in which the dilation means are substantially dilated, thereby creating a stoma in the subject, characterised in that the apparatus comprises at least three dilation means .
A detection apparatus comprising: an image acquisition interface configured to acquire captured images from an imaging apparatus that is installed in a vehicle and captures images of an area (R1, R2) surrounding the vehicle ; and a controller configured to calculate, on the basis of the captured images, a distance (XL, ZR) from the imaging apparatus to a road edge (E) in a width direction of a road on which the vehicle is traveling or to an obstacle (O1, O2, O3) on the road and to determine, on the basis of the calculated distance (XL, ZR) and information on an outer dimension of the vehicle , whether travel on the road by other vehicles will be possible after the vehicle has parked on the road, wherein the controller is configured to determine whether travel on the road by the other vehicles will be possible after the vehicle has performed parking in a first parking mode or parking in a second parking mode respectively on the basis of a vehicle width (Sh) or a total length (TL) in a travel direction (D) as the outer dimension of the vehicle , and wherein parking in the first parking mode includes parking in front of or behind an obstacle (O1, O2, O3) on the road, and parking in the second parking mode includes parking to the left or right of an obstacle (O1, O2, O3) on the road. an image acquisition interface configured to acquire captured images from an imaging apparatus that is installed in a vehicle and captures images of an area (R1, R2) surrounding the vehicle ; and a controller configured to calculate, on the basis of the captured images, a distance (XL, ZR) from the imaging apparatus to a road edge (E) in a width direction of a road on which the vehicle is traveling or to an obstacle (O1, O2, O3) on the road and to determine, on the basis of the calculated distance (XL, ZR) and information on an outer dimension of the vehicle , whether travel on the road by other vehicles will be possible after the vehicle has parked on the road, wherein the controller is configured to determine whether travel on the road by the other vehicles will be possible after the vehicle has performed parking in a first parking mode or parking in a second parking mode respectively on the basis of a vehicle width (Sh) or a total length (TL) in a travel direction (D) as the outer dimension of the vehicle , and wherein parking in the first parking mode includes parking in front of or behind an obstacle (O1, O2, O3) on the road, and parking in the second parking mode includes parking to the left or right of an obstacle (O1, O2, O3) on the road.
A molecular sieve having a mole ratio of at least 5 of at least one oxide selected from silicon oxide, germanium oxide, and mixtures thereof, to one or more oxides selected from boron oxide, aluminum oxide, gallium oxide, indium oxide, iron oxide, and mixtures thereof, the molecular sieve comprising a N-cyclohexylmethyl-N-ethylpiperidinium cation as a structure directing agent, and having, in its as-synthesized form, an X-ray diffraction pattern substantially as shown in the following Table: 2-Theta d-Spacing, nm Relative Intensity Peak Broadening P/N 6.54 ± 0.20 1.350 W Sh L 7.50 ± 0.20 1.177 S VB H 9.77 ± 0.20 0.904 W Sh L 11.56 ± 0.20 0.765 W Sh L 12.47 ± 0.20 0.709 W Sh H 12.95 ± 0.20 0.683 W Sh H 15.00 ± 0.20 0.590 W B L 15.90 ± 0.20 0.557 W Sh L 17.36 ± 0.20 0.510 W B L 17.76 ± 0.20 0.499 M Sh H 19.89 ± 0.20 0.446 M B H 21.68 ± 0.20 0.410 VS VB H 22.50 ± 0.20 0.395 W Sh L 23.24 ± 0.20 0.382 W Sh L 26.06 ± 0.20 0.342 M Sh H 28.18 ± 0.20 0.316 VS VB H.
A diagnosis apparatus for an NOx sensor applied to an exhaust system including a selective catalytic reduction NOx catalyst provided in an exhaust passage of an internal combustion engine to reduce NOx in exhaust gas by ammonia, a reducing agent supply device that adds ammonia or a precursor of ammonia as a reducing agent to exhaust gas upstream of said selective catalytic reduction NOx catalyst , an NOx sensor provided in said exhaust passage downstream of said selective catalytic reduction NOx catalyst , an exhaust gas purification device provided in said exhaust passage upstream of said selective catalytic reduction NOx catalyst , a temperature raising processing unit that is configured to perform a temperature raising process for raising the temperature of said exhaust gas purification device , and a control unit that is configured to control supply of said reducing agent by said reducing agent supply device after said temperature raising process is performed so as to make the ammonia adsorption amount defined as the amount of ammonia adsorbed in said selective catalytic reduction NOx catalyst equal to a specific amount smaller than the saturated amount of said ammonia adsorption amount, comprising: a diagnosis unit that is configured to perform diagnosis of said NOx sensor on the basis of the concentration of ammonia slipping out of said selective catalytic reduction NOx catalyst when the temperature of said selective catalytic reduction NOx catalyst is equal to or higher than a specific temperature; and an disallowance unit that is configured to disallow diagnosis of said NOx sensor by said diagnosis unit since said ammonia adsorption amount is made equal to said specific amount by said control unit until a specific time elapses. a diagnosis unit that is configured to perform diagnosis of said NOx sensor on the basis of the concentration of ammonia slipping out of said selective catalytic reduction NOx catalyst when the temperature of said selective catalytic reduction NOx catalyst is equal to or higher than a specific temperature; and an disallowance unit that is configured to disallow diagnosis of said NOx sensor by said diagnosis unit since said ammonia adsorption amount is made equal to said specific amount by said control unit until a specific time elapses.
A separator device comprising: a separation chamber defined at its lower end by a fluidization fluid panel , and being defined on its sides by a tank wall ; a lower outlet provided at a lower end of the separator device and extending downwardly through a central region of the lower fluidization fluid panel ; a launder provided at an upper end of the separator device ; a slurry inlet for receiving incoming slurry into the separation chamber ; CHARACTERISED IN THAT the separator device further comprises means for supplying pre-sheared aerated fluidization fluid to the separation chamber above the fluidization fluid panel , said means including: i.) a sparger provided above the fluidization fluid panel and comprising a flexible perforated membrane, and, ii.) a shearing device selected from the group consisting of: a static inline mixer, a cavitation tube, a cavitation nozzle, and a chaos mixer; wherein the shearing device is configured for producing the pre-sheared aerated fluidization fluid by passing a mixture of combined fluidization fluid and gas through the shearing device . a separation chamber defined at its lower end by a fluidization fluid panel , and being defined on its sides by a tank wall ; a lower outlet provided at a lower end of the separator device and extending downwardly through a central region of the lower fluidization fluid panel ; a launder provided at an upper end of the separator device ; a slurry inlet for receiving incoming slurry into the separation chamber ; CHARACTERISED IN THAT the separator device further comprises means for supplying pre-sheared aerated fluidization fluid to the separation chamber above the fluidization fluid panel , said means including: i.) a sparger provided above the fluidization fluid panel and comprising a flexible perforated membrane, and, ii.) a shearing device selected from the group consisting of: a static inline mixer, a cavitation tube, a cavitation nozzle, and a chaos mixer; i.) a sparger provided above the fluidization fluid panel and comprising a flexible perforated membrane, and, ii.) a shearing device selected from the group consisting of: a static inline mixer, a cavitation tube, a cavitation nozzle, and a chaos mixer; wherein the shearing device is configured for producing the pre-sheared aerated fluidization fluid by passing a mixture of combined fluidization fluid and gas through the shearing device .