Abstract: A method for performing interactions between virtual objects in a virtual environment is performed by an electronic device. The method includes: displaying an interaction interface, the interface including one or more selectable interactions; in response to a trigger operation for any interaction, displaying an action marker of the interaction associated with a first virtual object; and when at least one second virtual object appears within an interaction range of the first virtual object and carries the action marker of the interaction, playing a marker fusion special effect based on a plurality of action markers within the interaction range, the marker fusion special effect providing an interaction special effect when the plurality of action markers converge within the interaction range. By using the above method, the interaction modes based on interactions are enriched.

Abstract: This application discloses an application interface control method performed by a computer device. The method includes: displaying an application interface in a landscape state, the application interface including operable elements, and the operable elements including at least one first operable element located in a one-handed operation region and at least one second operable element located outside the one-handed operation region; receiving a shielding operation on a light sensor, the light sensor being configured to collect light intensity of an environment in which the computer device is located, and the light sensor being located in the one-handed operation region in the landscape state; and controlling, based on the shielding operation, the application interface to move, to cause the second operable element to move into the one-handed operation region. Using the foregoing method helps improve efficiency of an one-handed operation in a landscape state.

Abstract: A method includes displaying a game image including a first virtual character at a first space location in a game scene of a gaming application. The game scene includes a target sound associated with a second space location in the game scene. The method also includes displaying first orientation prompt information of the target sound according to a three-dimensional virtual sphere in the game image. The first orientation prompt information includes a first marker, a second marker, and a first connecting line between the first marker and the second marker. The first marker is located at a first location of the three-dimensional virtual sphere associated with the first space location, the second marker is located at a second location of the three-dimensional virtual sphere associated with the second space location, and the first connecting line indicates a first orientation of the second space location relative to the first space location.

Abstract: In some examples, a method for processing information includes generating a virtual environment image for a virtual environment that includes a virtual character carrying out an action in the virtual environment, and determining a perspective angle for displaying a heads-up display (HUD) control with the virtual environment image based on a character state of the virtual character and a region of the virtual environment image for the HUD control. The HUD control provides user interface (UI) information for controlling the virtual character. The perspective angle is an included angle between the HUD control and an imaging plane of the virtual environment image. The method also includes displaying the virtual environment image with the HUD control in the region of the virtual environment image according to the perspective angle.

Abstract: A terahertz security inspection robot is provided, including: a housing including a main housing and a head housing rotatably connected to the main housing; a terahertz wave imaging mechanism including a mirror assembly arranged in the head housing and a detector array arranged in the main housing; and a rotating mechanism configured to cause the head housing and the mirror assembly located in the head housing to rotate with respect to the main housing, so that the mirror assembly of the terahertz wave imaging mechanism is oriented in different directions to respectively perform terahertz scanning and imaging on objects to be inspected in different inspection regions in a security inspection scene.

Abstract: A terahertz security inspection robot is provided, including: a housing including a main housing and a head housing rotatably connected to the main housing; a terahertz wave imaging mechanism including a mirror assembly arranged in the head housing and a detector array arranged in the main housing; and a rotating mechanism configured to cause the head housing and the mirror assembly located in the head housing to rotate with respect to the main housing, so that the mirror assembly of the terahertz wave imaging mechanism is oriented in different directions to respectively perform terahertz scanning and imaging on objects to be inspected in different inspection regions in a security inspection scene.

Abstract: One or more embodiments include scheduling a new operation to be periodically executed. A start time for a new operation, to be periodically executed, is determined based on the start times of previously scheduled operations. The difference in value between a candidate start time and a start time of a previously scheduled operation is used to compute a cost for the candidate start time. A candidate start time, of all the candidate start times, with a lowest cost may be selected as the start time for the new operation.

Abstract: Methods and system for providing a security function, such as random number generation, fingerprinting and data hiding, using a Flash memory. The methods and systems do not require carefully design specific circuits, can be implemented in all flash memory device. The fingerprinting methods and systems do not require a long time to generate a read and the data hiding is decoupled from Flash memory content.

Abstract: One or more embodiments include scheduling a new operation to be periodically executed. A start time for a new operation, to be periodically executed, is determined based on the start times of previously scheduled operations. The difference in value between a candidate start time and a start time of a previously scheduled operation is used to compute a cost for the candidate start time. A candidate start time, of all the candidate start times, with a lowest cost may be selected as the start time for the new operation.

Abstract: Methods and system for providing a security function, such as random number generation, fingerprinting and data hiding, using a Flash memory. The methods and systems do not require carefully design specific circuits, can be implemented in all flash memory device. The fingerprinting methods and systems do not require a long time to generate a read and the data hiding is decoupled from Flash memory content.