Quake (video game) | EPFL Graph Search

Quake is a first-person shooter game developed by id Software and published by GT Interactive. The first game in the Quake series, it was originally released for MS-DOS, Microsoft Windows and Linux in 1996, followed by Mac OS and Sega Saturn in 1997 and Nintendo 64 in 1998. In the game, players must find their way through various maze-like, medieval environments while battling monsters using an array of weaponry. Quake takes inspiration from gothic fiction and the works of H. P. Lovecraft. The successor to id Software's Doom series, Quake built upon the technology and gameplay of its predecessor. Unlike the Doom engine before it, the Quake engine offered full real-time 3D rendering and had early support for 3D acceleration through OpenGL. After Doom helped popularize multiplayer deathmatches, Quake added various multiplayer options. Online multiplayer became increasingly common, with the QuakeWorld update and software such as QuakeSpy making the process of finding and playing against others on the Internet easier and more reliable. Quake featured music composed by Trent Reznor and his band Nine Inch Nails. Quake is often cited as one of the best video games ever made. Despite its critical acclaim, Quakes development was controversial in the history of id Software. Due to creative differences and a lack of leadership, the majority of the team left the company after the game's release, including co-founder John Romero. An "enhanced" version of Quake was developed by Nightdive Studios and published by Bethesda Softworks and was released for Microsoft Windows, Nintendo Switch, PlayStation 4, and Xbox One consoles in August 2021, including the original game's first two expansions and two episodes developed by MachineGames. The PlayStation 5 and Xbox Series X/S versions were released in October 2021. In Quake single-player mode, players explore levels, facing monsters and finding secret areas before reaching an exit. Switches or keys open doors, and reaching the exit takes the player to the next level.

Estimating the time scale and anatomical location of atrial fibrillation spontaneous termination in a biophysical model

Jean-Marc Vesin, Laurent Renaud Uldry, Vincent Jacquemet, Lukas Kappenberger

Due to their transient nature, spontaneous terminations of atrial fibrillation (AF) are difficult to investigate. Apparently, confounding experimental findings about the time scale of this phenomenon have been reported, with values ranging from 1 s to 1 mi ...

Springer-Verlag2012