mhurhangee/ep-ind-claims huggingface dataset:
A method of communicating between a mobile station, a serving base station and a target base station comprising: establishing a new link between the target base station and the mobile station before releasing an existing link between the mobile station and the serving base station while having only the existing link in an active set for the mobile station before releasing the existing link by determining if a handoff is desired between the serving base station and the target base station; initiating the new link between the mobile station and the target base station; transmitting an active set update message to the mobile station using the existing link between the serving base station and the mobile station; achieving uplink synchronization for the target base station to communicate with the mobile station; receiving at least one signal over the new link indicating that the mobile station has processed the transmitted active set update message; and releasing the existing link responsive to the at least one signal of step. establishing a new link between the target base station and the mobile station before releasing an existing link between the mobile station and the serving base station while having only the existing link in an active set for the mobile station before releasing the existing link by determining if a handoff is desired between the serving base station and the target base station; initiating the new link between the mobile station and the target base station; transmitting an active set update message to the mobile station using the existing link between the serving base station and the mobile station; achieving uplink synchronization for the target base station to communicate with the mobile station; receiving at least one signal over the new link indicating that the mobile station has processed the transmitted active set update message; and releasing the existing link responsive to the at least one signal of step. determining if a handoff is desired between the serving base station and the target base station; initiating the new link between the mobile station and the target base station; transmitting an active set update message to the mobile station using the existing link between the serving base station and the mobile station; achieving uplink synchronization for the target base station to communicate with the mobile station; receiving at least one signal over the new link indicating that the mobile station has processed the transmitted active set update message; and releasing the existing link responsive to the at least one signal of step.
A method for starting up a prereforming stage in an integrated reformer plant, comprising the prereforming stage and at least one main reforming stage down-stream of the prereforming stage, wherein the prereforming stage is filled with a bed of granular, nickel-containing catalyst active for the prereformation, which before the start-up is in an oxidized or passivated state, comprising the following method steps: (a) supplying a first gas stream (activation stream), containing methanol and water, to the prereforming stage and converting the activation stream in the prereforming stage with the catalyst contained there under activation conditions, (b) discharging a second gas stream containing hydrogen, water and carbon oxides from the prereforming stage and supplying the second gas stream to the main reforming stage, (c) discharging a third gas stream containing hydrogen, water and carbon oxides from the main reforming stage, wherein the third gas stream is at least partly recirculated to the prereforming stage. (a) supplying a first gas stream (activation stream), containing methanol and water, to the prereforming stage and converting the activation stream in the prereforming stage with the catalyst contained there under activation conditions, (b) discharging a second gas stream containing hydrogen, water and carbon oxides from the prereforming stage and supplying the second gas stream to the main reforming stage, (c) discharging a third gas stream containing hydrogen, water and carbon oxides from the main reforming stage, wherein the third gas stream is at least partly recirculated to the prereforming stage.
A gas analysis arrangement comprising: a chamber adapted to contain a sample of gas ("G"), a light-emitting means, a light-receiving means for receiving light that has been reflected through said chamber, and an electronic circuit, adapted, by means of spectral analysis, to analyse and determine the presence of a selected gas or mixture of gases present as a sample of gas ("G") within said chamber, whereby surfaces (30a, 30b, 30c) within the chamber offer light-reflecting properties as a wave guide; furthermore, said chamber comprises at least one aperture (30, 40, 50, 30', 30") for the passage of the gas into and out of said chamber, whereby the chamber is assigned an extended shape, whereby one light-reflecting surface of said chamber is assigned a curved shape to form a concave light-reflecting surface, whereby said at least one aperture (30, 40, 50, 30', 30") is/are located and extended between said light-emitting means and said light-receiving means, characterized in that said at least one aperture (30, 40, 50, 30', 30") is/are assigned a size and a longitudinal extent that offers a rapid exchange, primarily through diffusion, of one sample of gas ("G") within the chamber for another, all of said at least one aperture (30, 40, 50, 30', 30") is/are oriented only along one essentially complete side of said chamber, and said one essentially complete side is opposite to said concave light-reflecting surface.
A catheter comprising: an elongated tubular body possessing an outside diameter of from 1.35 to 3 mm and an inside diameter, the tubular body possessing a cross-sectional area in the direction perpendicular to the longitudinal direction of the catheter main body of (π x [(D1/2) 2 - (d1/2) 2]); the tubular body comprising a distal end portion and a proximal end portion, and being comprised of an inner layer forming an inside surface of said tubular body, an outer layer forming an outside surface of said tubular body, and a plurality of reinforcing wires between said inside surface and said outside surface; said reinforcing wires each possessing a length, a thickness substantially parallel to a radial direction of said tubular body and a width substantially perpendicular to said thickness, said plurality of reinforcing wires together possessing a total cross-sectional area; said tubular body possesses a wall thickness, and a ratio of the wall thickness of said tubular body to the thickness of said reinforcing wires is from 3.5 to 3.8; characterized in that a proportion of the total cross-sectional area of said plurality of reinforcing wires to the cross-sectional area of said tubular body is less than 25%, but not less than 17%. an elongated tubular body possessing an outside diameter of from 1.35 to 3 mm and an inside diameter, the tubular body possessing a cross-sectional area in the direction perpendicular to the longitudinal direction of the catheter main body of (π x [(D1/2) 2 - (d1/2) 2]); the tubular body comprising a distal end portion and a proximal end portion, and being comprised of an inner layer forming an inside surface of said tubular body, an outer layer forming an outside surface of said tubular body, and a plurality of reinforcing wires between said inside surface and said outside surface; said reinforcing wires each possessing a length, a thickness substantially parallel to a radial direction of said tubular body and a width substantially perpendicular to said thickness, said plurality of reinforcing wires together possessing a total cross-sectional area; said tubular body possesses a wall thickness, and a ratio of the wall thickness of said tubular body to the thickness of said reinforcing wires is from 3.5 to 3.8; characterized in that a proportion of the total cross-sectional area of said plurality of reinforcing wires to the cross-sectional area of said tubular body is less than 25%, but not less than 17%.
A method for producing a Bio-PET bottle, comprising the steps of: polymerizing ethylene glycol derived from a biomass resource with terephthalic acid derived from a biomass resource to provide a Bio-PET resin, in the presence of a catalyst comprising an aluminum compound or a germanium compound; and processing the Bio-PET resin into the Bio-PET bottle, wherein a copolymerizing component is not added, and wherein the copolymerizing component is isophthalic acid, cyclohexanedimethanol, or diethylene glycol. polymerizing ethylene glycol derived from a biomass resource with terephthalic acid derived from a biomass resource to provide a Bio-PET resin, in the presence of a catalyst comprising an aluminum compound or a germanium compound; and processing the Bio-PET resin into the Bio-PET bottle, wherein a copolymerizing component is not added, and wherein the copolymerizing component is isophthalic acid, cyclohexanedimethanol, or diethylene glycol.
Integrated circuit, comprising: - a silicon substrate; - an earth plane of doped silicon disposed above the substrate; - a buried insulator layer disposed above the earth plane; - a silicon layer disposed above the buried insulator layer and separated from the earth plane by way of the buried insulator layer; - an FDSOI transistor whose channel is adapted for being formed in the silicon layer, whose source and drain are disposed in and/or on the silicon layer, and whose gate covers the upper face of the channel and comprises at least one lateral portion covering a lateral face of the channel and disposed above the earth plane, the distance between the said lateral portion and the earth plane being less than or equal to 3 nm and at least 5 times less than the thickness of the buried insulator layer between the earth plane and the silicon layer, the earth plane being separated from the gate by the buried insulator layer, and in which the ratio of the width of the channel to the thickness of the channel lies between 0.75 and 2.5. - a silicon substrate; - an earth plane of doped silicon disposed above the substrate; - a buried insulator layer disposed above the earth plane; - a silicon layer disposed above the buried insulator layer and separated from the earth plane by way of the buried insulator layer; - an FDSOI transistor whose channel is adapted for being formed in the silicon layer, whose source and drain are disposed in and/or on the silicon layer, and whose gate covers the upper face of the channel and comprises at least one lateral portion covering a lateral face of the channel and disposed above the earth plane, the distance between the said lateral portion and the earth plane being less than or equal to 3 nm and at least 5 times less than the thickness of the buried insulator layer between the earth plane and the silicon layer, the earth plane being separated from the gate by the buried insulator layer, and in which the ratio of the width of the channel to the thickness of the channel lies between 0.75 and 2.5.
A method for controlling an assembly step of a part onto a body of a product, which is performed by a robot; wherein the method comprises, - determining deviation data at a plurality of measurement points of an already assembled part; wherein the deviation data indicates for each measurement point a deviation in a measurement direction from a target position of the measurement point; wherein the measurement directions at least partially differ for the different measurement points; - determining offset data based on the deviation data and based on a transformation matrix for the plurality of measurement points and the plurality of measurement directions; and - adjusting operation of the robot for assembling a subsequent part based on the offset data, in order to reduce the deviation for at least one of the measurement points. - determining deviation data at a plurality of measurement points of an already assembled part; wherein the deviation data indicates for each measurement point a deviation in a measurement direction from a target position of the measurement point; wherein the measurement directions at least partially differ for the different measurement points; - determining offset data based on the deviation data and based on a transformation matrix for the plurality of measurement points and the plurality of measurement directions; and - adjusting operation of the robot for assembling a subsequent part based on the offset data, in order to reduce the deviation for at least one of the measurement points.
An intelligent aurora borealis projection lamp, comprising a shell, a control panel arranged in the shell, an aurora borealis component, and a film component, wherein the aurora borealis component comprises a first LED light source component, a third optical lens arranged above the LED light source component, and a water ripple sheet arranged above the third optical lens; the film component comprises a second LED light source component, a projection seat, a first optical lens arranged in the projection seat, 2. and a dial component arranged above the first optical lens and used for fixing a film sheet; the dial component is provided with projection holes corresponding to film sheet patterns; the bottom of the dial component is at least partially supported to the projection seat, and a side end of the dial component at least partially penetrates through the shell; the dial component is moved to switch the film sheet patterns above the projection seat; the shell is provided with a lens cover corresponding to the upper part of the aurora borealis component; the shell is provided with a second light outlet hole corresponding to a position above the film component; a second optical lens is arranged in the second light outlet hole; the aurora borealis component and the film component are electrically connected to the control panel; the dial component comprises a dial and a pressing sheet; the film sheet is arranged between the dial and the pressing sheet; the bottom of the dial is provided with a groove; the pressing sheet is arranged in the groove; the dial and the pressing sheet are fixed through fixing pillars; the projection seat extends and is provided with a supporting part used for supporting the dial component. the film component comprises a second LED light source component, a projection seat, a first optical lens arranged in the projection seat, 2. and a dial component arranged above the first optical lens and used for fixing a film sheet; the dial component is provided with projection holes corresponding to film sheet patterns; the bottom of the dial component is at least partially supported to the projection seat, and a side end of the dial component at least partially penetrates through the shell; the dial component is moved to switch the film sheet patterns above the projection seat; the shell is provided with a lens cover corresponding to the upper part of the aurora borealis component; the shell is provided with a second light outlet hole corresponding to a position above the film component; a second optical lens is arranged in the second light outlet hole; the aurora borealis component and the film component are electrically connected to the control panel; the dial component comprises a dial and a pressing sheet; the film sheet is arranged between the dial and the pressing sheet; the bottom of the dial is provided with a groove; the pressing sheet is arranged in the groove; the dial and the pressing sheet are fixed through fixing pillars; the projection seat extends and is provided with a supporting part used for supporting the dial component.
A computer-implemented method of view generation based on a video coding scheme, the computer implemented method comprising: receiving a first bitstream encoded based on the video coding scheme, wherein the video coding scheme is a High Efficiency Video Coding extension for 3D video coding (3D-HEVC), wherein the first bitstream includes video, one or more depth samples, and a first message of a predefined message type specified by the video coding scheme, wherein the predefined message type is a supplementary enhancement information message type, wherein the first message contains a plurality of syntax elements including a first syntax element and a second syntax element; determining, based on a first depth type, specified by the first syntax element, to interpret the one or more depth samples, which are decoded from the first bitstream, as being a first predefined depth format comprising a warp-map-offset format; generating one or more warp maps based on at least the second syntax element and interpreting the one or more depth samples as one or more quantized warp map offsets; and generating, by an application and based on the first depth type specified by the first syntax element, one or more views using image-domain warping and based on the video and the one or more warp maps, wherein the application is configured such that in lieu of the first depth type being specified, a second depth type is specifiable, or an SEI message is omittable, to cause view generation by the application based on interpreting the one or more depth samples as being in a second predefined depth format other than the warp-map-offset format, wherein the second depth type indicates depth-image-based rendering and wherein the second predefined depth format is a depth-map format. receiving a first bitstream encoded based on the video coding scheme, wherein the video coding scheme is a High Efficiency Video Coding extension for 3D video coding (3D-HEVC), wherein the first bitstream includes video, one or more depth samples, and a first message of a predefined message type specified by the video coding scheme, wherein the predefined message type is a supplementary enhancement information message type, wherein the first message contains a plurality of syntax elements including a first syntax element and a second syntax element; determining, based on a first depth type, specified by the first syntax element, to interpret the one or more depth samples, which are decoded from the first bitstream, as being a first predefined depth format comprising a warp-map-offset format; generating one or more warp maps based on at least the second syntax element and interpreting the one or more depth samples as one or more quantized warp map offsets; and generating, by an application and based on the first depth type specified by the first syntax element, one or more views using image-domain warping and based on the video and the one or more warp maps,
Filter device with a filter housing, in which at least two filter elements (12, 14) are arranged between an unfiltered medium chamber (16, 18) and a filtrate chamber in each case, the unfiltered medium chambers (16, 18) being fluidically separated from one another and each unfiltered medium chamber (16, 18) having its own inlet (22, 24) for unfiltered medium, which is fluidically separate from the inlet (22, 24) to the respective other unfiltered medium chamber (16, 18), characterised in that the filter housing is formed by a kind of discharge pipe with passage points, which serve to guide the flow of filtered fluid and by means of which a fluid-conveying connection can be established between the filtrate chamber and an interior of a tank, in which the filter device can be received.
An extract of Andrographis paniculata in an orally acceptable dosage form for use in treatment of an inflammatory bowel disease, characterized in that the extract is obtained from the aerial part of A.paniculata and contains 2-20% by weight andrographolide, 1-6% by weight 14-deoxy-andrographolide, 1-12% by weight 14-deoxy-11,12-dehydrogen-andrographolide, and 1-5% by weight neoandrographolide.
A process comprising: (a) contacting in a primary reactor CO, H 2, and a feed stream comprising an olefin in the presence of a hydroformylation catalyst in a reaction fluid under hydroformylation conditions sufficient to form at least one aldehyde product; (b) passing a liquid effluent stream from the primary reactor to a product-catalyst separation zone; (c) removing from the product-catalyst separation zone a crude product stream and a liquid catalyst recycle stream; (d) then, separating the crude product stream into a vent stream and an unrefined product stream; (e) passing the vent stream, which comprises an olefin and syngas, to a secondary reactor; (f) contacting in the secondary reactor CO, H 2, and the olefin of the vent stream in the presence of a hydroformylation catalyst in a reaction fluid under hydroformylation conditions sufficient to form at least one aldehyde product; (g) passing a liquid effluent stream from the secondary reactor to the product-catalyst separation zone. (a) contacting in a primary reactor CO, H 2, and a feed stream comprising an olefin in the presence of a hydroformylation catalyst in a reaction fluid under hydroformylation conditions sufficient to form at least one aldehyde product; (b) passing a liquid effluent stream from the primary reactor to a product-catalyst separation zone; (c) removing from the product-catalyst separation zone a crude product stream and a liquid catalyst recycle stream; (d) then, separating the crude product stream into a vent stream and an unrefined product stream; (e) passing the vent stream, which comprises an olefin and syngas, to a secondary reactor; (f) contacting in the secondary reactor CO, H 2, and the olefin of the vent stream in the presence of a hydroformylation catalyst in a reaction fluid under hydroformylation conditions sufficient to form at least one aldehyde product; (g) passing a liquid effluent stream from the secondary reactor to the product-catalyst separation zone.