About the cover

With the ending of Moore's law and silicon scaling, new materials are needed to rejuvenize semiconductor scaling, improve electronic performance, build bigger and better circuits, and create awesome products that save the world (and make profit). B.S. Arnold et al. created a new and novel material that has potential for unprecedented applications in computing systems, ushering in the AI and IoT eras

Opinions

Would You Steal A Car?

No, then why would you illegally look at a scientific publication? Reading science that you or the researchers didn't pay for is illegal.

The Editors

Articles

Novel Charge Trapping Switching Phenomena for High Off and Low On Current Electronic Devices

Utilizing new switching physics, we created for the first time a novel three-terminal device that changes electrical current through two terminals depending on the applied voltage on the third terminal. Time dependent measurements show the device can also remember charge over a period of time. Such devices could be used to replace Silicon FETs in future computers.

B.S. Arnold, R.U. Serious, N.O. Reali, and U.S. Ucker

Artificial Intelligence Model Achieves Perfect MNIST Accuracy

Utilizing a new neural network design with over 200 billion parameters and the Summit OLCF-4 supercomputer, we successfully identified all images in the MNIST dataset. Our breakthrough was increasing the size of our network to be larger than amount of training data and using the test images for training. Such results indicate AI models can learn any function when given the answers.

O.G. Intel and T.Y. Stark

Open Access Journals Solving Publishing House Revenue Decline

With the advent of pirating scientific research sources like SciHub, publishers have effectively changed their business models to charging researchers instead of readers to make profits. In this article, we show how this model has effectively combated decreasing profits.

F.U. Nuding, N.O. Tefrom, and P.U. Blishers

Errata

Erratum for the Article: "Novel Charge Trapping Switching Phenomena for High Off and Low On Current Electronic Devices"

After submission to Nature Advances, we were informed that our devices displayed similar behavior to those made from Silicon, though with lower performance. Nevertheless, we will keep our article published for other researchers to cite despite our results being complete shit.

B.S. Arnold, R.U. Serious, N.O. Reali, and U.S. Ucker