Abstract: A method for switching between a first lens and a second lens in an electronic device includes displaying, by the electronic device, a first frame showing a field of view (FOV) of the first lens; detecting, by the electronic device, an event that causes the electronic device to transition from displaying the first frame to displaying a second frame showing a FOV of the second lens; generating, by the electronic device and based on the detecting the event, at least one intermediate frame for transitioning from the first frame to the second frame; and switching, by the electronic device and based on the detecting the event, from the first lens to the second lens and displaying the second frame, wherein the at least one intermediate frame is displayed after the displaying the first frame and before the displaying the second frame while the switching is performed.

Abstract: Systems and method for increasing current monitor accuracy are disclosed. The systems and methods may include receiving a run-time load value from a current monitor, determining a component parameter value associated with the run-time load value, and communicating the component parameter value to the current monitor.

Abstract: Systems and method for increasing current monitor accuracy are disclosed. The systems and methods may include receiving a run-time load value from a current monitor, determining a component parameter value associated with the run-time load value, and communicating the component parameter value to the current monitor.

Abstract: Systems and method for increasing current monitor accuracy are disclosed. The systems and methods may include receiving a run-time load value from a current monitor, determining a component parameter value associated with the run-time load value, and communicating the component parameter value to the current monitor.

Abstract: Systems and method for increasing current monitor accuracy are disclosed. The systems and methods may include receiving a run-time load value from a current monitor, determining a component parameter value associated with the run-time load value, and communicating the component parameter value to the current monitor.

Abstract: In one example, a software unit test generator is configured to receive a design document and a software unit. In this example, the design document includes a table of business objects in an enterprise software system and business rules that define the behavior of the business objects and the software unit includes a business rules engine that controls the behavior of the business objects. Continuing this example, a software unit test generator analyzes a design document to extract some or all of the business rules, and the software unit test generator creates a plurality of test scripts that, when executed, verify that a software unit conforms to the business rules. In some implementations, parameters for the test scripts are determined from the design document. In this example, a software unit test generator executes a collection of test scripts on the software unit and collects the results of the test scripts.

Abstract: A cosmetic composition for topical application to human skin contains niacinamide, or a precursor thereof, for lightening the skin, together with an ultra-violet absorbing sunscreen to protect against subsequent sunburn or suntan. Preferably more than one sunscreen is employed to provide for protection over a wide UV spectrum. The active ingredients of the composition can be provided for use as a cream, lotion, aerosol spray or in other classical forms by employing an appropriate vehicle.

Abstract: Skin can be lightened by application of a composition containing a skin lightening amount of niacin and a physiologically acceptable carrier. Such a composition contains from 0.2% to about 10% by weight of niacin and optionally also a compound which absorbs ultra-violet light in the range 290-360 nm to counteract the tanning and burning effect of sunlight.