Metal Gear Solid (1998 video game)

is an action-adventure stealth video game developed and published by Konami for the PlayStation in 1998. It was directed, produced, and written by Hideo Kojima, and follows the MSX2 video games Metal Gear and Metal Gear 2: Solid Snake, which Kojima also worked on. It was unveiled at the 1996 Tokyo Game Show and then demonstrated at trade shows including the 1997 Electronic Entertainment Expo; its Japanese release was originally planned for late 1997, before being delayed to 1998. Players control Solid Snake, a soldier who infiltrates a nuclear weapons facility to neutralize the terrorist threat from FOXHOUND, a renegade special forces unit. Snake must liberate hostages and stop the terrorists from launching a nuclear strike. Cinematic cutscenes were rendered using the in-game engine and graphics, and voice acting is used throughout. Metal Gear Solid sold more than seven million copies worldwide and shipped 12 million demos. It scored an average of 94/100 on the aggregate website Metacritic. It is regarded as one of the greatest and most important video games of all time and helped popularize the stealth genre and in-engine cinematic cutscenes. It was followed by an expanded version for PlayStation and Windows, Metal Gear Solid: Integral (1999), and a GameCube remake, Metal Gear Solid: The Twin Snakes (2004). It produced numerous sequels, starting with Metal Gear Solid 2: Sons of Liberty (2001), and media adaptations including a radio drama, comics, and novels. In May 2023, Konami announced Metal Gear Solid: Master Collection Vol. 1, a compilation of games including Metal Gear Solid scheduled for release on Nintendo Switch, PlayStation 5, Windows, and Xbox Series X/S on October 24, 2023. The player must navigate the protagonist, Solid Snake, through a nuclear weapons facility without being detected by enemies. When Snake moves into an enemy's field of vision, he sets off an "alert mode" that draws enemies. The player must then hide until "evasion mode" begins; when the counter reaches zero, the game returns to "infiltration mode", where enemies are no longer suspicious.

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Related publications (1)

Drained Axial Pipe-Soil Resistance at Low Confinement Using Tilt Table and Direct Shear Tests

Roba Houhou

Establishing a reliable value for the axial pipe-soil interface resistance is critical for the design of offshore pipelines. Over the last few years, several independent research groups have modified existing methodologies or devised new testing setups to further develop our understanding of the behavior of the pipe-soil interface at low contact stresses. The most common laboratory experimental methods adopted have been based on either tilt table tests or interface direct shear tests. However, a direct comparison between the results of these two testing methodologies has not been established. This paper aims at designing and fabricating a tilt table and interface direct shear setup capable of accurately estimating the drained interface resistance at low normal stresses, in addition to comparing their results under identical testing conditions. Both setups tested the drained clay-solid interface response by varying the soil composition (high and low plasticity clay), the interface roughness (smooth and rough), and the normal stress range. Results showed that the drained residual failure envelopes for the clays and clay-solid interfaces were nonlinear and could be modeled by a simple power model. The interface response was clearly dependent on the interface roughness, particularly when the roughness was normalized with the mean grain size. In the case of smooth interfaces, identical friction angles were obtained from the tilt table and the interface direct shear, whereas in the case of rough interfaces, the interface direct shear yielded lower friction angle values.

ASCE-AMER SOC CIVIL ENGINEERS2022