James P. Hogan - Code of the Lifemaker

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Code of the Lifemaker
By James P. Hogan
Prologue
THE SEARCHER
1.1 MILLION YEARS B.C.;
1,000 LIGHT-YEARS FROM THE SOLAR SYSTEM
HAD ENGLISH-SPEAKING HUMANS EXISTED, THEY WOULD PROBABLY have translated
the spacecraft's designation as "searcher." Unmanned, it was almost a mile
long, streamlined for descent through planetary atmospheres, and it
operated fully under the control of computers. The alien civilization was
an advanced one, and the computers were very sophisticated.
The planet at which the searcher arrived after a voyage of many years was
the fourth in the system of a star named after the king of a mythical race
of alien gods, and could appropriately be called Zeus IV. It wasn't much to
look at—an airless, lifeless ball of eroded rock formations, a lot of
boulders and debris from ancient meteorite impacts, and vast areas of
volcanic ash and dust—but the searcher's orbital probes and surface landers
found a crust rich in titanium, chromium, cobalt, copper, manganese,
uranium, and many other valuable elements concentrated by thermal-fluidic
processes operating early in the planet's history. Such a natural abundance
of metals could support large-scale production without extensive dependence
on bulk nuclear transmutation processes—in other words, very
economically—and that was precisely the kind of thing that the searcher had
been designed to search for. After completing their analysis of the
preliminary data, the control computers selected a landing site, composed
and transmitted a message home to report their findings and announce their
intentions, and then activated the vessel's descent routine.
Shortly after the landing, a menagerie of surveyor robots, equipped with
imagers, spectrometers, analyzers, chemical sensors, rock samplers,
radiation monitors, and various manipulator appendages, emerged from the
ship and dispersed across the surrounding terrain to investigate surface
features selected from orbit. Their findings were transmitted back to the
ship and processed, and shortly afterward follow-up teams of tracked,
legged, and wheeled mining, drilling, and transportation robots went out to
begin feeding ores and other materials back to where more machines had
begun to build a fusion-powered pilot extraction plant. A parts-making
facility was constructed next, followed by a parts-assembly facility, and
step by step the pilot plant grew itself into a fully equipped,
general-purpose factory, complete with its own control computers. The
master programs from the ship's computers were copied into the factory's
computers, which thereupon became self-sufficient and assumed control of
surface operations. The factory then began making more robots.
Sometimes, of course, things failed to work exactly as intended, but the
alien engineers had created their own counterpart of Murphy and allowed for
his law in their plans. Maintenance robots took care of breakdowns and
routine wear and tear in the factory; troubleshooting programs tracked down
causes of production rejects and adjusted the machines for drifting
tolerances; breakdown teams brought in malfunctioning machines for repair;
and specialized scavenging robots roamed the surface in search of wrecks,
write-off's, discarded components, and any other likely sources of parts
suitable for recycling.
Time passed, the factory hummed, and the robot population grew in number
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and variety. When the population had attained a critical size, a mixed
workforce detached itself from the main center of activity and migrated a
few miles away to build a second factory, a replica of the first, using
materials supplied initially from Factory One. When Factory Two became
self-sustaining, Factory One, its primary task accomplished, switched to
mass-production mode, producing goods and materials for eventual shipment
to the alien home planet.
While Factory Two was repeating the process by commencing work on Factory
Three, the labor detail from Factory One picked up its tools and moved on
to begin Factory Four. By the time Factory Four was up and running,
Factories Five through Eight were already taking shape, Factory Two was in
mass-production mode, and Factory Three was building the first of a fleet
of cargo vessels to carry home the products being stockpiled. This
self-replicating pattern would spread rapidly to transform the entire
surface of Zeus IV into a totally automated manufacturing complex dedicated
to supplying the distant alien civilization from local resources.
From within the searcher's control computers, the Supervisor program gazed
out at the scene through its data input channels and saw that its work was
good. After a thorough overhaul and systems checkout, the searcher ship
reembarked its primary workforce and launched itself into space to seek
more worlds on which to repeat the cycle.
FIFTY YEARS LATER
Not far—as galactic distances go—from Zeus was another star, a hot, bluish
white star with a mass of over fifteen times that of the Sun. It had formed
rapidly, and its life span—the temporary halt of its collapse under
self-gravitation by thermonuclear radiation pressure—had demanded such a
prodigious output of energy as to be a brief one. In only ten million years
the star, which had converted all the hydrogen in its outer shell to
helium, resumed its collapse until the core temperature was high enough to
bum the helium into carbon, and then, when the helium was exhausted,
repeated the process to begin burning carbon. The ignition of carbon raised
the core temperature higher still, which induced a higher rate of carbon
burning, which in turn heated the core even more, and a thermonuclear
runaway set in which in terms of stellar timescales was instantaneous. In
mere days the star erupted into a supernova—radiating with a billion times
the brightness of the Sun, exploding outward until its photosphere enclosed
a radius greater than that of Uranus' orbit, and devouring its tiny flock
of planets in the process.
Those planets had been next on the searcher's list to investigate, and it
happened that the ship was heading into its final approach when the star
exploded. The radiation blast hit it head-on at three billion miles out.
The searcher's hull survived more-or-less intact, but secondary x-rays and
high-energy subnuclear particles—things distinctly unhealthy for
computers—flooded its interior. With most of its primary sensors bumed out,
its navigation system disrupted, and many of its programs obliterated or
altered, the searcher veered away and disappeared back into the depths of
interstellar space.
One of the faint specks lying in the direction now ahead of the ship was a
yellow-white dwarf star, a thousand light-years away. It too possessed a
family of planets, and on the third of those planets the descendants of a
species of semi-intelligent ape had tamed fire and were beginning to
experiment with tools chipped laboriously from thin flakes of stone.
Supernovas are comparatively rare events, occurring with a frequency of
perhaps two or three per year in the average galaxy. But as with most
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generalizations, this has occasional exceptions. The supernova that almost
enveloped the searcher turned out to be the first of a small chain that
rippled through a localized cluster of massive stars formed at roughly the
same time. Located in the middle of the cluster was a normal, longer-lived
star which happened to be the home star of the aliens. The aliens had never
gotten round to extending their civilization much beyond the limits of
their own planetary system, which was unfortunate because that was the end
of them.
Everybody has a bad day sometimes.
ONE MILLION YEARS B.C.
One hundred thousand years after being scorched by the supernova, the
searcher drifted into the outer regions of a planetary system. With its
high-altitude surveillance instruments only partly functioning and its
probes unable to deploy at all, the ship went directly into its descent
routine over the first sizeable body that it encountered, a frozen ball of
ice-encrusted rock about three thousand miles in diameter, with seas of
liquid methane and an atmosphere of nitrogen, hydrogen, and methane vapor.
The world came nowhere near meeting the criteria for worthwhile
exploitation, but that was of no consequence since the computer programs
responsible for surface analysis and evaluation weren't working.
The programs to initiate surface activity did work, however, more or less,
and Factory One, with all of its essential functions up and running to at
least some degree, was duly built on a rocky shelf above an ice beach
flanking an inlet of a shallow methane sea. The ship's master programs were
copied across into the newly installed factory computers, which identified
the commencement of work on Factory Two as their first assignment.
Accordingly Factory One's Supervisor program signaled the ship's databank
for a copy of the "How to Make a Factory" file, which included a set of
subfiles on "How to Make the Machines Needed to Make a Factory," i.e.,
robots. And that was where everything really started to go wrong.
The robots contained small internal processors that could be reprogramed
via radiolink from the factory computers for each new task to be
accomplished. This allowed the robots to proceed with their various jobs
under autonomous local control and freed up the central computers for other
work while they were waiting for the next "Done that—what do I do now?"
signal. Hence many software mechanisms existed for initiating data
transfers between the factory computers and the remote processors inside
the robots.
When the copying of the "How to Make a Factory" file from the ship to
Factory One was attempted, the wrong software linkages were activated;
instead of finding their way into the factory's central system, the
subfiles containing the manufacturing information for the various robots
were merely relayed through the factory and beamed out into the local
memories of the respective robot types to which they pertained. No copies
at all were retained in the factory databank. And even worse, the originals
inside the ship managed to self-destruct in the process and were
irretrievably erased. The only copies of the "How to Make a Fred-type
Robot" subfile were the ones contained inside the Fred-types out on the
surface. And the same was true for all the other types as well.
So when the factory's Supervisor program ordered the Scheduler program to
schedule more robots for manufacture, and the Scheduler lodged a request
with the Databank Manager for the relevant subfiles, the Databank Manager
found that it couldn't deliver. Neither could it obtain a recopy from the
ship. The Databank Manager reported the problem to the Scheduler; the
Scheduler complained to the Supervisor; the Supervisor blamed the
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Communications Manager; the Communications Manager demanded an explanation
from the Message Handler; and after a lot of mutual electronic
recriminations and accusations, the system logging and diagnostic programs
determined that the missing subfiles had last been tracked streaming out
through the transmission buffers on their way to the robots outside. Under
a stem directive from the Supervisor, the Communications Manager selected a
Fred from the first category of robots called for on the Scheduler's list,
and beamed it a message telling it to send its subfile back again.
But the Fred didn't have a complete copy of the subfile; its local memory
simply hadn't been big enough to hold all of it. And for the same reason,
none of the other Freds could return a full copy either. They had been
sprayed in succession with the datastream like buckets being filled from a
fire-hose, and all had ended up with different portions of the subfile; but
they appeared to have preserved the whole subfile among them. So the
Supervisor had to retrieve different pieces from different Freds to fit
them together again in a way that made sense. And that was how it arrived
at the version it eventually handed to the Scheduler for manufacture.
Unfortunately, the instruction to store the information for future
reference got lost somewhere, and for each batch of Freds the relevant "How
to Make" subfile was promptly erased as soon as the Manufacturing Manager
had finished with it. Hence when Factory One had spent some time producing
parts for Factory Two and needed to expand its robot workforce to begin
surveying sites for Factory Three, the Supervisor had to go through the
whole rigmarole again. And the same process was necessary whenever a new
run was scheduled to provide replacements for robots that had broken down
or were wearing out.
All of this took up excessive amounts of processor time, loaded up the
communications channels, and was generally inefficient in the ways that
cost accountants worry about. The alien programers had been suitably
indoctrinated by the alien cost accountants who ran the business— as
always—and had written the Supervisor as a flexible, self-modifying
learning program that would detect such inefficiencies, grow unhappy about
them, and seek ways to improve things. After a few trials, the Supervisor
found that some of the Freds contained about half their respective
subfiles, which meant that a complete copy could be obtained by
interrogating just two individuals instead of many. Accordingly it made a
note of such "matching pairs" and began selecting them as its source for
repeat requests from the Scheduler, ignoring the others.
Lost along with the original "How to Make a Fred" subfiles were the
subsubfiles on "Programs to Write into a Fred to Start It Up after You've
Made It." To make up for the deficiency, the Supervisor copied through to
the Scheduler the full set of programs that it found already existing in
the Freds selected to provide reproduction information, and these programs,
of course, included the ones on how to make Freds. Thus the robots began
coming off the line with one-half of their "genetic" information
automatically built in, and a cycle asserted itself whereby they in turn
became the source of information to be recombined later for producing more
Freds. The method worked, and the Supervisor never figured out that it
could have saved itself a lot of trouble by storing the blueprints away
once and for all in the factory databank.
The program segments being recombined in this way frequently failed to copy
faithfully, and the "genomes" formed from them were seldom identical, some
having portions of code omitted while others had portions duplicated.
Consequently Freds started taking on strange shapes and behaving in strange
ways.
Some didn't exhibit any behavior at all but simply fell over or failed
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during test, to be broken down into parts again and recycled. A lot were
like that.
Some, from the earlier phase, were genetically incomplete —"sterile" —and
never called upon by the Supervisor to furnish reproductive data. They
lasted until they broke down or wore out, and then became extinct.
Some reproduced passively, i.e., by transmitting their half-subfiles to the
factory when the Scheduler asked for them.
A few, however, had inherited from the ship's software the program modules
whose function was to lodge requests with the Scheduler to schedule more
models of their own kind—program modules, moreover, which embodied a
self-modifying priority structure capable of raising the urgency of their
requests within the system until they were serviced. The robots in this
category sought to reproduce actively: They behaved as if they experienced
a compulsion to ensure that their half-subfiles were always included in the
Scheduler's schedule of "Things to Make Next."
So when Factory One switched over to mass-production mode, the robots
competing for slots in its product list soon grabbed all of the available
memory space and caused the factory to become dedicated to churning out
nothing else. When Factory Two went into operation under control of
programs copied from Factory One, the same thing happened there. And the
same cycle would be propagated to Factory Three, construction of which had
by that time begun.
More factories appeared in a pattern spreading inland from the rocky
coastal shelf. The instability inherent in the original parent software
continued to manifest itself in the copies of copies of copies passed on to
later generations, and the new factories, along with their mixed
populations of robot progeny, diverged further in form and function.
Material resources were scarce almost everywhere, which resulted in the
emergence of competitive pressures that the alien system designers had
never intended. The factory-robot communities that happened to include a
balanced mix of surveyor, procurement, and scavenger robots with
"appetites" appropriate to their factories' needs, and which enjoyed
favorable sites on the surface, usually managed to survive if not flourish.
Factory Ten, for example, occupied the center of an ancient meteorite
crater twelve miles across, where the heat and shock of the impact had
exposed metal-bearing bedrock from below the ice; Factory Thirteen
established itself inside a deep fissure where the ice beneath was
relatively thin, and was able to melt a shaft down to the denser core
material; and Factory Fifteen resorted to nuclear transmutation processes
to build heavier nuclei from lighter ones frozen in solution in the ice
crust. But many were like Factory Nineteen, which began to take shape on an
ill-chosen spot far out on a bleak ice field, and ground to a halt when its
deep-drilling robots and transmutation reactors failed to function, and its
supply of vital materials ran out.
The scavenger and parts-salvaging robots assumed a crucial role in shaping
the strange metabolism that was coming into being. Regardless of what the
Schedulers in the various factories would have liked to see made, the only
things that could be assembled readily were the ones for which parts were
available, and that depended to a large degree on the ability of the
scavengers to locate them, or alternatively to locate assemblies suitable
for breaking down—"digesting"—and rebuilding into something useful. Factory
Twenty-four was an extreme case. Unable to "metabolize" parts directly from
any source of raw materials because of the complete failure of its
materials-procurement workforce, it relied totally on its scavengers.
Factory Thirty-two, on the other hand, could acquire raw materials but
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couldn't use them since it had been built without a processing facility at
all. Its robots delivered instead to Forty-seven, which happened to produce
parts for some of the scavengers being manufactured by Thirty-two, and the
two factory-robot organisms managed to coexist happily in their bizarre
form of symbiosis.
The piles of assorted junk, which shouldn't have accumulated from the
earlier phases of the process but had, were eaten up; the machines that
broke down were eaten up; and the carcasses of defunct factories were eaten
up. When those sources of materials had been exhausted, some of the
machines began to eat each other.
The scavengers had been designed, as they had to be, to discriminate
between properly functioning machines and desirable products on the one
hand and rejects in need of recycling on the other. However, as with
everything else in the whole, messed-up project, this function worked well
in some cases, not so well in others, and often not at all. Some of the
models turned out to be as likely to attempt the dismantling of a live,
walking-around Fred as of a dead, flat-on-its-back one. Many of the victims
were indifferent to this kind of treatment and soon died out, but others
succeeded in developing effective fight-or-flee responses to preserve
themselves, thus marking the beginnings of specialized prey and predators
in the form of "lithovores" and "artifactovores."
This development was not always an advantage, especially when the loss of
discrimination was total. Factory Fifty was consumed by its own offspring,
who began dismantling it at its output end as soon as they came off the
assembly line, and then proceeded proudly to deliver the pieces back to its
input end. Its internal repair robots were unable to undo the undoings fast
enough, and it ground to a halt to become plunder for marauders from
Thirty-six and Fifty-three. The most successful factory-robot organisms
protected themselves by evolving aggressive armies of "antibody" defenders,
which would recognize their own factory and its "kind" and leave them
alone, but attack and attempt to destroy any "foreign" models that ventured
too close. This gradually became the dominant form of organism, usually
associated with a distinct territory which its members cooperated in
protecting collectively.
By this time only a few holes in the ground remained at opposite ends of
the rocky shelf to mark where Factories One and Two had once stood. They
had failed to keep up with the times, and the area had become the domain of
Factory Sixty-five. The only trace left of the searcher spacecraft was a
long, rounded depression in the ice beach below, on the shore of the liquid
methane sea.
The alien engineers had designed the system to enjoy full planetary
communications coverage by means of satellites and surface relays, but the
idea hadn't worked too well since nothing had been put into orbit and
surface relays tended not to last very long. This enabled some of the
organisms without strong defenses to remain protected, for a while, from
the more metal-hungry empires by sheer distance. But, to allow for
communications blackouts and interference, the aliens had also provided a
backup method of program and data exchange between robots and factories,
which took the form of direct, physical, electrical interconnection. This
was a much slower process than using radiolinks, naturally, since it
required that the robots travel physically to the factories for
reprograming and reporting, but in a self-sustaining operation far from
home the method was a lot better than nothing. And it kept the accountants
happy by protecting the return on the investment.
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With defects and deficiencies of every description appearing somewhere or
other, it was inevitable that some of the organisms would exhibit partial
or total communications breakdowns. Factory Seventy-three, built without
radio facilities, was started up by programs carried overland from
Sixty-six. None of its robots ever used anything but backup mode, and the
factories that it spawned continued the tradition. But this very fact meant
that their operating ranges were extended dramatically.
So the "defect" turned out to be not so much of a defect after all.
Foraging parties were able to roam farther afield, greatly enlarging their
catchment areas, and they frequently picked up as prizes one or more of the
territories previously protected by geographical remoteness. Furthermore,
selective pressures steadily improved the autonomy of the robots that
operated in this fashion. The autodirected types, relying on their
comparatively small, local processors, tended to apply simple solutions to
the problems they encountered, but their close-coupled mode of interaction
with their environment meant that the solutions were applied quickly: They
evolved efficient "reflexes." The teledirected types, by contrast, tied to
the larger but remote central computers, were inclined to attempt more
comprehensive and sophisticated solutions, but —as often as not—too late to
do any good. Autodirection thus conferred a behavioral superiority and
gradually asserted itself as the norm, while teledirection declined and
survived only in a few isolated areas.
The periodic instinct to communicate genetic half-subfiles back to their
factories had long become a universal trait among the robots— there could
be descendants only of ancestors who left descendants—and they responded to
the decline of radio as a means of communication by evolving a compulsion
to journey at intervals back to the places whence they had come, to return,
as it were, to their "spawning grounds." But this method of reproduction
had its problems and posed new challenges to the evolutionary process.
The main problem was that an individual could deliver only half its genome
to the factory, after which the Supervisor would have to store the
information away until another robot of the same type as the first happened
to show up with a matching half; only then could the Supervisor pass a
complete copy to its Scheduler. If, as frequently happened, the Supervisor
found itself saturated by a peak workload during the intervening period, it
was quite likely to delete the half-subfile and allocate the memory space
to other, more urgent things—bad news for the Fred that the data had come
from, who would thus have enacted the whole reproductive ritual for
nothing. The successful response to this problem came with the appearance
of a new mode of genetic recombination, which, quite coincidentally, also
provided the solution to an "information crisis" that had begun to restrict
the pool of genetic variation available for competitive selection to draw
on for further improvement.
Some mutant forms of robot knew they were supposed to output their
half-subfiles somewhere, but weren't all that sure, or perhaps weren't too
particular, about what they were supposed to output it into. Anything with
the right electrical connections and compatible internal software was good
enough, which usually meant other robots of the same basic type. And since
a robot that had completed its assigned tasks was in a receptive state to
external reprograming, i.e., ready for fresh input that would normally come
from the factory system, an aspiring donor had little trouble in finding a
cooperative acceptor, provided the approach was made at the right time. So
to begin with, the roles adopted were largely a matter of circumstance and
accidental temperament.
Although the robots' local memories were becoming larger than those
contained in their earlier ancestors, the operating programs were growing
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in size and complexity too, with the result that an acceptor still didn't
possess enough free space to hold an entire "How to Make a Fred" subfile.
The donor's half, therefore, could be accommodated only by overwriting some
of the code already residing in the acceptor. How this was accomplished
depended on the responses of the programs carried inside the various robot
types.
In some cases the incoming code from the donor was allowed to overwrite
entire program modules inside the acceptor, with the total loss to the
acceptor of the functions which those modules controlled. This was usually
fatal, and no descendants came into being to repeat such mistakes. The
successful alternative was to create space by trimming nonessential code
from many modules, which tended to leave the acceptor robot with some
degradation in performance—usually manifesting itself as a reduction in
agility, dexterity, and defensive abilities— but at least still
functioning. The sacrifice was only temporary since the acceptor robot
would be reprogramed with replacement modules when it delivered its genetic
package at the factory.
But in return for these complications and superficial penalties came the
immense benefit that the subfiles presented at the factories were complete
ones—suitable for dispatch to the Schedulers without delay and the
attendant risk of being deleted by overworked Supervisors. The new method
thus solved the reliability problem that had plagued the formerly universal
"asexual" mode of reproduction.
The information crisis that it also solved had developed through the
"inbreeding" caused by the various Supervisors having only the gene pools
of their respective "tribes" available to work with, which made
recombination difficult because of the restrictive rules imposed by the
alien programers. But the robots swapping genes out on the surface were not
always averse to adventuring beyond the tribal limits, knew nothing and
cared less about programers' rules, since nothing approaching intelligence
or awareness was operative yet in what was unfolding, and proceeded to
bring half-subfiles together haphazardly in ways that the aliens' rules
didn't permit and which the Supervisors would never have imagined. Most of
the offspring resulting from these experiments didn't work and were
scrapped before leaving the factories; but the ones that did radiated
functionally outward in all directions to launch a whole new, qualitatively
distinct phase of the evolutionary process.
The demands of the two sexual roles reinforced minor initial physical
differences and brought about a gradual polarization of behavioral traits.
Since a female in a "pregnant" condition suffered the loss of some measure
of self-sufficiency for the duration, her chances of delivering
(literally!) were improved considerably if her mate happened to be of a
disposition to stay around for a while and provide for the two of them
generally, thus helping to protect their joint genetic investment.
Selection tended, therefore, to favor the genes of this kind of male, and
by the same token those of the females who mated preferentially with them.
As a consequence a female trait emerged of being "choosy" in this respect,
and in response the males evolved various repertoires of rituals, displays,
and demonstrations to improve their eligibility.
The population had thus come to exhibit genetic variability and
recombination, competition, selection, and adaptation—all the essentials
for continuing evolution. The form of life—for it was, wasn't it?—was
admittedly somewhat strange by terrestrial standards, with the individuals
that it comprised sharing common, external reproductive, digestive, and
immune systems instead of separate, internal ones . . . and of course there
were no chains of complicated carbon chemistry figuring anywhere in the
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scheme of things. ... But then, after all, what is there apart from
chauvinism to say it shouldn't have been so?
1
KARL ZAMBENDORF STOOD GAZING DOWN OVER SEVENTH AVENUE from the window of
his penthouse suite in the New York Hilton. He was a tall man in his early
fifties, a little on the portly side but with an erect and imposing
bearing, graying hair worn collar-length and flowing, bright, piercing
eyes, and hawklike features rendered biblically patriarchal by a pointed
beard that he bleached white for effect. Although the time was late in the
morning, Zambendorf's breakfast tray on the side table beside the window
had only recently been discarded, and he was still in his shirt-sleeves
from sleeping in after his team's late-night return from its just completed
Argentina tour.
A prominent Argentine news magazine had featured him as THE AUSTRIAN
MIRACLE-WORKER on its cover for the previous week's issue, and the hostess
of one of the major talk shows on Buenos Aires TV had introduced him as
"Perhaps one of the most baffling men of the twenty-first century, the
scientifically authenticated superpsychic ..." Thus had Latin America
greeted the man who was already a media sensation across the northern
continent and Western Europe, and whose ability to read minds, foretell the
future, influence distant events, and divine information inaccessible to
the human senses had been proved, the public was assured, by repeated tests
to be beyond the power of science to explain.
"Karl, I don't like it," Otto Abaquaan said from behind him. Zam-bendorf
pursed his lips and whistled silently to himself while he waited for
Abaquaan to continue. The exchange had become a ritual over the years they
had worked together. Abaquaan would voice all the reasons why they
shouldn't get involved and couldn't afford the risks, and Zam-bendorf would
explain all the reasons why they didn't have any choice. Abaquaan would
then reconsider, and eventually, grudgingly, he would concede. Having
disposed of the academic issues, they would then proceed somehow to resolve
the crisis. It happened that way about once a week. Abaquaan went on, "We'd
be out of our minds to get mixed up in it. The whole situation would
involve too much of the wrong kind of exposure. We don't need risks like
that."
Zambendorf turned away from the window and thrust out his chin. "It was
reported as if it were our idea in the first place, and it received a lot
of news coverage," he said. "We can't afford to be seen to back down now.
On top of that, it would destroy our credibility not only with a lot of the
public, but with GSEC . . . and GSEC can do us a lot of good, Otto. So the
situation didn't work out as we expected. What's new? We're stuck with it,
but we can handle it."
Otto Abaquaan, a handsomely lean and swarthy Armenian with black hair, a
droopy mustache, and deep brown, liquid eyes, rubbed his nose with a
knuckle while he considered the statement, then shook his head and sighed.
"Why the hell did you have to get us into it, Karl? You said the GSEC Board
would never take any notice of a turkey like Hendridge. That was why the
rest of us agreed to go along with the crazy idea—because there would be
all kinds of good publicity opportunities when GSEC turned it down . . .
you said." He threw out his hands and sent an exasperated look up to the
ceiling. "But now what have we got? Mars! ... as if we didn't have better
things to do than go fooling around on Mars for six months. Is there really
no way we can get ourselves out of this?"
Zambendorf shrugged unconcernedly and showed his empty palms. "Certainly—we
can call the whole thing off and admit to the world that we never really
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expected anybody to take us seriously . . . because that's how they'll see
it. And as for better things to do, well, maybe we could spend the time in
better ways and then, maybe not. Who knows? When was the last time a
psychic operated from Mars? The situation might turn out to have
opportunities we never thought of."
"Very philosophical," Abaquaan commented, with less than wild enthusiasm.
It was all very well for Zambendorf to talk about grandiose schemes and
opportunities; it would be Abaquaan and the rest of the team who did the
legwork.
"'Philosophical,' my dear Otto, is the state of mind one reverts to when
unable to change anything anyway. And that's the situation we are in. In
short, we don't have a choice."
GSEC, General Space Enterprises Corporation, and NASO—the European-American
military and civilian North Atlantic Space Organization that had grown from
a merger of many of the former interests of NASA, ESA, and NATO—were
funding expansion of one of the pilot bases on Mars to test ideas on the
organization of extraterrestrial communities as a prelude to the
construction of full-scale colonies. A GSEC director by the name of Baines
Hendridge—a long-standing true believer in ESP and the "paranormal," and a
recent convert to the Zambendorf cult—had proposed sending Zambendorf with
the mission in order to perform the first-ever tests of clairvoyance and
psychic communication over interplanetary distances, and to conduct ESP
experiments in conditions free from terrestrial "interference." Zambendorf,
confident that the GSEC Board would never go along with the idea, had
reacted with a show of enthusiasm, partly because anything else would have
failed the expectations of the faithful and partly to set the stage in
advance for exploiting another "Scientists Back Off Zambendorf Challenge"
story when the proposal was turned down. Baines Hendridge's influence had
turned out to be greater than he had calculated, however, and the Board's
acceptance of the proposal had left Zambendorf in a position that he could
retreat from only at the cost of more public ignominy than his image could
afford.
"I guess you're right," Abaquaan conceded after a short silence. "But I
still don't like the idea of getting mixed up with a NASO space mission."
He shook his head again, dubiously, "It's not like dealing with the public.
There are some good scientists in that outfit ... in a different league
from the assholes we're used to handling. It's risky."
"Scientists are the easiest to fool." That was one of Zambendorf's favorite
lines. "They think in straight, predictable, directable, and therefore
misdirectable, lines. The only world they know is the one where everything
has a logical explanation and things are what they appear to be. Children
and conjurors—they terrify me. Scientists are no problem; against them I
feel quite confident."
Abaquaan smiled humoriessly. "Confidence is what you feel when you don't
really understand the situation." He raised his arm to glance at his
wristset.
Zambendorf was about to reply when the call tone sounded from the room's
comnet terminal. Abaquaan walked across to answer it. The screen came to
life to show the smooth, clean-cut features of Drew West, Zambendorf's
business manager, calling from another suite farther along the hallway.
"Those NBC people should be arriving downstairs anytime now," West said.
"You'd better be getting on down to the lobby." Clarissa Eidstadt, who
handled the team's publicity affairs, had arranged for a short television
interview to be taped that morning, for screening later in the day to mark
Zambendorf's return to New York.
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file:///F|/rah/James%20P.%20Hogan/Hogan,%20James%20P%20-%20Code%20Of%20T\he%20Lifemaker.txtCodeoftheLifemakerByJamesP.HoganPrologueTHESEARCHER1.1MILLIONYEARSB.C.;1,000LIGHT-YEARSFROMTHESOLARSYSTEMHADENGLISH-SPEAKINGHUMANSEXISTED,THEYWOULDPROBABLYhavetranslated\thespacecraft'sdesignationas"searcher."...

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