Abstract: Disclosed herein is an adjustable brightness flying suitable for both recreational and professional uses. The flying disc may comprise a light strip that illuminates when in use. In some embodiments, one or more properties of the light strip can be dynamically adjusted based on the intended application, environmental lighting conditions, and/or the player's preferences. The flying disc may have high-impact resistance, sand resistance, and/or water resistance so that it can be used for different applications and in different environments such as rough terrain, dusty environments, and/or in water. The flying disc may automatically detect a motion state and turn the light strip on or off accordingly. The illumination allows players to use the flying disc for different applications and in different environments, such as in low-lighting conditions. In some embodiments, the brightness may be adjusted and on-time of the light strip may be manually set or adjusted by a player.

Abstract: Disclosed herein is an adjustable brightness flying suitable for both recreational and professional uses. The flying disc may comprise a light strip that illuminates when in use. In some embodiments, one or more properties of the light strip can be dynamically adjusted based on the intended application, environmental lighting conditions, and/or the player's preferences. The flying disc may have high-impact resistance, sand resistance, and/or water resistance so that it can be used for different applications and in different environments such as rough terrain, dusty environments, and/or in water. The flying disc may automatically detect a motion state and turn the light strip on or off accordingly. The illumination allows players to use the flying disc for different applications and in different environments, such as in low-lighting conditions. In some embodiments, the brightness may be adjusted and on-time of the light strip may be manually set or adjusted by a player.

Abstract: A method for defining an automated process which is to be carried out in a liquid handling system, wherein the liquid handling system comprises an outlet element (e.g. a pipette) for aspirating and/or dispensing a liquid volume, a numerically controlled movement apparatus for carrying out movements in connection with the aspiration/and or dispensing, and a controller for controlling the process, having the following steps: using a graphic user interface in order to enable the user to predetermine parameters which are to be used by the liquid handling system when carrying out one or several substeps of the process, wherein at least a first parameter is dependent on a second parameter in such a way that the first parameter is adjusted automatically by the system if the second parameter changes.

Abstract: A method for defining an automated process which is to be carried out in a liquid handling system, wherein the liquid handling system comprises an outlet element (e.g. a pipette) for aspirating and/or dispensing a liquid volume, a numerically controlled movement apparatus for carrying out movements in connection with the aspiration/and or dispensing, and a controller for controlling the process, having the following steps: using a graphic user interface in order to enable the user to predetermine parameters which are to be used by the liquid handling system when carrying out one or several substeps of the process, wherein at least a first parameter is dependent on a second parameter in such a way that the first parameter is adjusted automatically by the system if the second parameter changes.

Abstract: The invention relates to a boomerang that can automatically change both elevation angle ? of blades and curve radius r of blades upon the change of rotary speed of blades (12), wherein blades (12) are made of elastically plastic film preferably selected from a group of polyvinyl chloride, polypropylene, polyethylene terephthalate, polystyrene and high impact polystyrene, the material has a specific weight of from about 0.9 g/cm3 to about 1.60 g/cm3 and as thickness from about 0.1 mm to about 1 mm; the ratio between the depth of the rear groove and blade width is from about 1/7 to about 6/7; the ratio between depth of the front groove and blade width is from about 0 to about 3/7; the elevation angle ?0 is from about 10° to about 45°; the initial curve radius r0 of the blades is longer or equal to 1/5 of the radius R of said ring (13); the ratio between the total area of said blades and the area of a circle defined by said ring (13) is from about % to about 38%.