“Hmm,” Engineer
Leis thinks about your question for a while. “Follow me through Engineering,
I’ve got things to do.”
You nod and
follow her down the corridor. You notice the irregular bend up ahead
in the corridor, and you ask her what that’s all about.
“That bend there?”
she asks. You nod. She says: “That’s where two of the ship’s
hull segments join together.”
“That’s a pretty
odd looking turn in the corridor,” you say.
“Yeah, it is,”
she answers, “But there’s tons of weird-looking corridors in this ship.
That’s all part of how Hanor Sta designed the ship’s morphos.”
“Morphos?”
“Morphing motors.
See, the entire ship is built to withstand the Belts. Out there,
all of our toughest ships were nearly destroyed, and now we think it’s
because they were too stiff. See, most ships have special artificial
gravity generators that help to prop up the hull and make it stronger.
We call that GVS for short. There won’t be a quiz on how that works.
Anyway, it makes the ship ‘rock-solid’ whenever the ship needs to be strong.
“But the problem
that ‘rock-solid’ ships have is that sometimes they’re so stiff that they
could snap. So Engineer Hanor Sta designed a system that lets this
ship bend. It’s like trying to break a green tree branch. Since
it bends so much, it doesn’t break, and it can withstand much more than
an ordinary dry tree branch.”
“That’s an interesting
solution,” you say.
“Yeah, but it
doesn’t explain stringwarp, which is why you’re here, Admiral.”
“How does stringwarp
work?”
“Well,” Tamara
Leis stops to think for a bit. She says: “There’s a bunch of theories
about how it all works, but none have been proven completely. Stringwarp
is a pretty unpredictable thing. But the best theory is the theory
of philotics.
“When we use
the term ‘philote’ or ‘philotic’ it’s important to remember that these
terms were borrowed from a twenty-first century author, Orson Scott Card.
He came up with one of the best working theories of philotics for his time.
Basically, his theories were relatively sound, but they weren’t nearly
as complete as today’s knowledge of philotic behavior.”
Engineer Leis
climbs down a ladder that is set into part of the corridor. You follow
her down, and she keeps talking:
“Basically,
we have two principles to define why stringwarp works. One is the
way objects tend to orbit, and the other is the Law of Thermodynamics.”
“How are those
related?” you ask, as you step off of the ladder. Leis leads
you down a wider corridor. As you approach the end, a loud throbbing
sound grows louder and louder. It is the sound of the ship’s power
plant.
“The theory
of orbits goes like this: electrons orbit atoms, planets orbit stars,
and stars orbit galaxies. What do they have in common?”
“They’re all
orbiting,” you answer.
“That’s one,”
Engineer Leis says as she counts what you say out on her fingers.
You think a bit more, then add to your answer:
“Each object
tends to orbit at a stable level. Planets stay far enough out not
to fall into the sun, and stars stay far enough out not to fall into the
center of the galaxy.”
“That’s two,”
Leis says.
“And every object
is orbiting something bigger than itself,” you add.
“That’s three.
All of those are right. You could also say that each one has a size
variation. Planets don’t orbit the sun at quantum distances the way
electrons orbit the nucleus of an atom. And electrons don’t orbit
planets the way a moon does.
“But the idea
is that philotics govern the natural laws of the universe, from the biggest
star or galaxy, down to the smallest atom of matter. In the theory
of philotics, a scientist would say something like this: ‘All objects are
philotic to stable orbits around other objects which have more mass.’
In other words, things tend to orbit other things.”
“But what about
the cases where things don’t orbit?” You ask.
“That’s a very
good question, Admiral. It’s what makes stringwarp so hard to explain.
Philotics explains a lot of things, but every rule seems to have an exception
when it comes to philotics.”
“So that’s one
question you haven’t solved yet.”
“That’s one
of the ones we’re still working on,” Leis stops to record the output of
one of the generators in the power plant. She adjusts a few of the
dials on a little control panel, and a holographic chart of the power changes
to a better graph.
“The the computer
isn’t completely in control of everything down here,” Leis explains, “And
sometimes, the generators need to be reset to keep things running smoothly.
Once we’re out of dock, that problem had better be fixed.”
“What about
the Law of Thermodynamics?”
“Let me go and
run a few of my errands, Admiral. We’ve got to get this ship running
before launch deadline. I’ll be only a few minutes.”
“Should I wait
here?” you ask.
“Feel free to
look around, inspect things. I know every part of this ship, so I’ll
be able to catch up with you. I’ll reach you over the intercom when
I’m done.” Chief Engineer Leis steps onto a small platform and folds
a safety railing down. The platform rises on tracks mounted on the
wall and carries her up to a different part of Engineering. |