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When participating in a video call or conference, it is often hard to maintain direct eye contact with other participants, as this requires looking into the camera rather than at the screen. Although most people use video calling services on a regular basis, so far, there has been no widespread solution to this problem.

A team of researchers at Intel has recently developed an correction model that could help to overcome this nuisance by restoring eye contact in live video chats irrespective of where a device’s camera and display are situated. Unlike previously proposed approaches, this model automatically centers a person’s gaze without the need for inputs specifying the redirection angle or the camera/display/user geometry.

“The main objective of our project is to improve the quality of video conferencing experiences by making it easier to maintain eye contact,” Leo Isikdogan, one of the researchers who carried out the study, told TechXplore. “It is hard to maintain eye contact during a because it is not natural to look into the camera during a call. People look at the other person’s image on their display, or sometimes they even look at their own preview image, but not into the camera. With this new eye contact correction feature, users will be able to have a natural face-to-face conversation.”

When people come to visit the Nordic island of Sommarøy, they must leave their sense of time at the door.

Some choose to do this quite literally, and so, the bridge that connects this small fishing village to the mainland is sprinkled not with lover’s padlocks as you would expect in any other location, but rather, with discarded watches.

Here in West Tromsø, north of the Arctic Circle, time in the traditional sense holds little meaning. During winter months, the Sun does not rise, and for 69 days of summer, it never sets.

A system for generating electricity from the geomagnetic field and rotation of the earth is presented. The earth rotates through the geomagnetic field to form a potential difference between first and second terrestrial charged bodies. The first and second charged bodies are spaced apart in a direction substantially normal to the earth’s surface. The system comprises an electrical load, a first current path, and a second current path. The electrical load has a supply input and a ground output. The first current path is coupled to the first charged body and to the supply input of the electrical load, for supplying the potential difference to the electrical load. The second current path is coupled to the ground output of the electrical load and to the second charged body. As a result of this arrangement, an electric current related to the potential difference is generated in the electrical load.