Differences
This shows you the differences between two versions of the page.
| Both sides previous revision Previous revision Next revision | Previous revision | ||
| krasnikov_gate [2026/02/05 04:07] – [Linelaying] mecham | krasnikov_gate [2026/02/05 04:13] (current) – [Observation Anchoring] mecham | ||
|---|---|---|---|
| Line 16: | Line 16: | ||
| The amount of energy required to ‘open’ a gate is inversely related to its diameter. The huge superhighways of the ICA Core Worlds require on average 1000-2000 [[antimatter_capsule|AC]] to open, whereas smaller frontier gates could use up to 10 times more. The energy required to sustain the gates are also inversely related, with the previously mentioned supergates requiring less than 30 AC a month to maintain. While the tube structure itself does not require any energy to remain open, the gate structures must remain powered in order to prevent the ends of the tubes from collapsing in on itself. | The amount of energy required to ‘open’ a gate is inversely related to its diameter. The huge superhighways of the ICA Core Worlds require on average 1000-2000 [[antimatter_capsule|AC]] to open, whereas smaller frontier gates could use up to 10 times more. The energy required to sustain the gates are also inversely related, with the previously mentioned supergates requiring less than 30 AC a month to maintain. While the tube structure itself does not require any energy to remain open, the gate structures must remain powered in order to prevent the ends of the tubes from collapsing in on itself. | ||
| - | The negative mass-energy required for these tubes to exist are provided for free as the tube tunnels through [[nullspace|nullspace]]. The theoretical infinite negative force exerted on the exterior of the wall counteracts the infinite gravitational force of the tube attempting to collapse in on itself, allowing it to remain open after it has been opened. | + | The negative mass-energy required for these tubes to exist are provided for free as the tube tunnels through [[nullspace|nullspace]]. The theoretical infinite negative force exerted on the exterior of the wall counteracts the infinite gravitational force of the tube attempting to collapse in on itself, allowing it to remain open. |
| ==== Dangers ==== | ==== Dangers ==== | ||
| Line 22: | Line 22: | ||
| Intentional destruction of a gate structure is considered a crime against reality. The resulting tear in spacetime usually consumes the entire system it’s located in, and the resulting unstable space leaves that area untraversable for centuries. Gates are installed with multiple redundant failsafes that will attempt to terminate the tube before nullspace tears through the event horizon. | Intentional destruction of a gate structure is considered a crime against reality. The resulting tear in spacetime usually consumes the entire system it’s located in, and the resulting unstable space leaves that area untraversable for centuries. Gates are installed with multiple redundant failsafes that will attempt to terminate the tube before nullspace tears through the event horizon. | ||
| - | Furthermore, | + | Furthermore, |
| ===== Phenomena ===== | ===== Phenomena ===== | ||
| Line 31: | Line 31: | ||
| Observation Anchoring is a phenomenon experienced between an observer and an object when traveling through nullspace. As long as an observer is consciously perceive another object, it will remain within that frame of reference. However, if the object drifts too far away to where the observer can no longer perceive it, the object can never be observed again. | Observation Anchoring is a phenomenon experienced between an observer and an object when traveling through nullspace. As long as an observer is consciously perceive another object, it will remain within that frame of reference. However, if the object drifts too far away to where the observer can no longer perceive it, the object can never be observed again. | ||
| - | For example, if two ships enter a Gate at the same time but at different velocities, they would eventually drift apart enough to where they can no longer observe each other. Even if the ships accelerate towards each other, they will never find each other again. | + | For example, if two ships enter a gate at the same time but at different velocities, they would eventually drift apart enough to where they can no longer observe each other. Even if the ships accelerate towards each other, they will never find each other again. |
| This phenomenon is beneficial in that gates allow two-way traffic without any risk of collision. However, objects lost within the superluminal tube can never be found until they eventually drift out through the gate exit. Gate traffic controllers still have to be aware of inbound and outbound traffic as collisions at the event horizon can still occur. | This phenomenon is beneficial in that gates allow two-way traffic without any risk of collision. However, objects lost within the superluminal tube can never be found until they eventually drift out through the gate exit. Gate traffic controllers still have to be aware of inbound and outbound traffic as collisions at the event horizon can still occur. | ||