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Uller Uprising

              (1952)

              H. Beam Piper

 

 

 

 

 

              CONTENTS

 

                            Introduction by John F. Carr

                            Introduction by Dr. John D. Clark

                            PROLOGUE--On Satan's Footstool

I.                            Commander-in-Chief Front and Center

II.                            Rakkeed, Stalin, and the Rev. Keeluk

III.                            Four-and-Twenty Geek Heads

IV.                            If You Read It in Stanley-Browne

V.                            You Can Depend on It It's Wrong

VI.                            The Bad News Came After the Coffee

VII.                            Bismillah! How Dumb Can We Get?

VIII.                            Authority of Governor-General von Schlichten

IX.                            Don't Push Them Anywhere Put Them Back in the Bottle

X.                            The Geek Luftwaffe and the Kragan Airlift

XI.                            Of Princedoms Which Have Been Won by Conquest

XII.                            The Shadow of Niflheim

XIII.                            A Bag of Tricks We Don't Have

XIV.                            The Reviewers Panned Hell Out of It

XV.                            A Place in my Heart for Hildegarde

 

 

Introduction to Uller Uprising

by John F. Carr

 

              With the publication of this novel, Uller Uprising, all of H. Beam Piper's previously published science fiction is now available in Ace editions. Uller Uprising was first published in 1952 in a Twayne Science Fiction Triplet—a hardbound collection of three thematically connected novels. (The other two were Judith Merril's Daughters of Earth and Fletcher Pratt's The Long View.) A year later it appeared in the February and March issues of Space Science Fiction, edited by Lester Del Rey.

 

              The magazine version, which was abridged by about a third, was believed by many bibliographers to be the only version—and as a novella it was too short for book publication. The Twayne version had a small print run and is so scarce that few people have seen it. Those bibliographers who knew of its existence assumed that both versions of Uller were the same. It was through a telephone conversation with Charles N. Brown, publisher of Locus and correspondent with Piper, that I learned about the Twayne edition and its greater length. Brown allowed me to photocopy his original, for which we owe him a debt of thanks; because the Twayne version is not only novel length, but far better than the shorter one that appeared in Space Science Fiction.

 

              Probably the most surprising and interesting thing about the Twayne edition is the essay that forms the introduction to that volume, and is reprinted here. The essay is by Dr. John D. Clark, an eminent scientist of the forties and fifties and one of the discoverers of sulfa, the first "miracle drug." It describes in great detail the planetary system of the star Beta Hydri, and gives the names of those planets: Uller and Niflheim. A publisher's note states that Clark's essay was written first, and given to the contributors as background material for a novel they would then write.

 

              The fans of H. Beam Piper seem to owe a great debt to Dr. Clark. Uller Uprising became the foundation of Piper's monumental Terro-Human Future History; the first story where we encounter the Terran Federation. In it we learn about Odin, the planet that will one day be the capital of the First Galactic Empire; and humble Niflheim, which in more decadent times will become a common expletive, a word meaning hell. This is also where Piper introduced and explained the Atomic Era dating system (A.E.). Uller Uprising is set in the early years of the Terran Federation's expansion and exploration, an epoch of great vitality. In "The Edge of the Knife" Piper compares this time of discovery to the Spanish conquest of the Americas. This feeling of vigor and unlimited possibilities runs through all the early Federation stories: Uller Uprising, "Omnilingual," "Naudsonce," "When in the Course—," and, to a lesser degree, in the late Federation novels, Little Fuzzy, Fuzzy Sapiens, and Fuzzies and Other People. (See Federation by H. Beam Piper for a good overview of this period.)

 

              In these stories we see Terro-Humans at their best and at their worst: Individual heroism and bravery in the face of grave danger in Uller Uprising; Federation law and justice in Little Fuzzy and its sequels; and, in "Omnilingual" and "Naudsonce," the spirit of science and rational inquiry. Yet we also see colonial exploitation and subjugation in Uller Uprising and "Oomphel in the Sky," the greed and corruption of Chartered land companies in Little Fuzzy, and political corruption in Four-Day Planet. These stories are about a living Terro-Human culture, not a utopia.

 

              It was Piper's attention to historical realism and his use of actual historical models that have helped his work to pass the test of time and have led to his becoming the favorite of a new generation of readers more than twenty-five years after his death.

 

              Uller Uprising is the story of a confrontation between a human overlord and alien servants, with an ironic twist at the end. Like most of Piper's best work, Uller Uprising is modeled after an actual event in human history; in this case the Sepoy Mutiny (a Bengal uprising in British-held India brought about when rumors were spread to native soldiers that cartridges being issued by the British were coated with animal fat. The rebellion quickly spread throughout India and led to the massacre of the British Colony at Cawnpore.). Piper's novel is not a mere retelling of the Indian Mutiny, but rather an analysis of an historical event applied to a similar situation in the far future.

 

              Like many philosophers and social theorists before him, Piper attempted to chart the progress of human-kind; unlike most, however, he did not envision or try to create a system of ethics that would end all of humanity's problems. The best he could offer was his model of the self-reliant man: The man who "actually knows what has to be done and how to do it, and he's going to go right ahead and do it, without holding a dozen conferences and round-table discussions and giving everybody a fair and equal chance to foul things up for him."

 

              Piper brought his own ideas and judgments about society and history into all of his work, but they appear most clearly in his Terro-Human Future History. While not everyone will agree with Piper's theories they give his work a bite that most popular fiction lacks. One cannot read Piper complacently. And one can often find a wry insight sandwiched in between the blood and thunder.

 

              Other future histories may span more centuries or better illuminate the highlights of several decades, but until a rival is created with more historical depth and attention to detail, H. Beam Piper's Terro-Human Future History will stand as the Bayeux Tapestry of science fiction histories.

 

              In many ways—certainly during his lifetime—Piper was the most underrated of the John W. Campbell's "Astounding" writers. He was probably also the most Campbellian; his self-reliant man is almost a mirror image of Campbell's "Citizen."

 

              Piper died a bitter man, a failure in his own mind; shortly before his death he believed he could no longer earn a living as a writer without charity from his friends or the state.

 

              Now he's the cornerstone of Ace Books. Had he lived long enough to finish another half dozen books, he would have been among the sf greats of the sixties....

 

              But maybe he does know, after all. Jerry Pournelle, who was very much influenced by Piper and in many ways considers himself Beam's spiritual descendant—and incidently was John W. Campbell's last major discovery—has said that sometimes, when he's gotten down a particularly good line, he can hear the "old man" chuckle and whisper, atta boy.

 

 

 

Introduction

Dr. John D. Clark

 

The Silicone World

 

1. The Star And Its Most Important Planet

 

              The planet is named Uller (it seems that when interstellar travel was developed, the names of Greek Gods had been used up, so those of Norse gods were used). It is the second planet of the star Beta Hydri, right angle 0:23, declension -77:32, G-0 (solar) type star, of approximately the same size as Sol; distance from Earth, 21 light years.

 

              Uller revolves around it in a nearly circular orbit, at a distance of 100,000,000 miles, making it a little colder than Earth. A year is of the approximate length of that on Earth. A day lasts 26 hours.

 

              The axis of Uller is in the same plane as the orbit, so that at a certain time of the year the north pole is pointed directly at the sun, while at the opposite end of the orbit it points directly away. The result is highly exaggerated seasons. At the poles the temperature runs from 120°C to a low of -80°C. At the equator it remains not far from 10°C all year round. Strong winds blow during the summer and winter, from the hot to the cold pole; few winds during the spring and fall. The appearance of the poles varies during the year from baked deserts to glaciers covered with solid CO2. Free water exists in the equatorial regions all year round.

 

2. Solar Movement As Seen From Uller

 

              As seen from the north pole—no sun is visible on Jan. 1. On April 1, it bisects the horizon all day, swinging completely around. April 1 to July 1, it continues swinging around, gradually rising in the sky, the spiral converging to its center at the zenith, which it reaches July 1. From July 1 to October 1 the spiral starts again, spreading out from the center until on October 1 it bisects the horizon again. On October 1 night arrives to stay until April 1.

 

              At the equator, the sun is visible bisecting the southern horizon for all 26 hours of the day on January 1. From January 1 to April 1, the sun starts to dip below the horizon at night, to rise higher above it during the day. During all this time it rises and sets at the same hours, but rises in the southeast and sets in the southwest. At noon it is higher each day in the southern sky until April 1, when it rises due east, passes through the zenith and sets due west. From April 1 to July 1, its noon position drops down to the north, until on July 1, it is visible all day, bisected by the northern horizon.

 

3. Chemistry And Geology Of Uller

 

              Calcium and chlorine are rarer than on earth, sodium is somewhat commoner. As a result of the shortage of calcium there is a higher ration of silicates to carbonates than exists on earth. The water is slightly alkaline and resembles a very dilute solution of sodium silicate (water glass). It would have a pH of 8.5 and tastes slightly soapy. Also, when it dries out it leaves a sticky, and then a glassy, crackly film. Rocks look fairly earthlike, but the absence or scarcity of anything like limestone is noticeable. Practically all the sedimentary rocks are of the sandstone type.

 

              All rivers are seasonal, running from the polar regions to the central seas in the spring only, or until the polar cap is completely dried out.

 

4. Animal Life

 

              As on Earth life arose in the primitive waters and with a carbon base, but because of the abundance of silicone, there was a strong tendency for the microscopic organisms to develop silicate exoskeletons, like diatoms. The present invertebrate animal life of the planet is of this type and is confined to the equatorial seas. They run from amoeba-like objects to things like crayfish, with silicate skeletons. Later, some species of them started taking silicone into their soft tissues, and eventually their carbon-chain compounds were converted to silicone type chains, from with organic radicals on the side links. These organisms were a transitional type, with silicone tissues and water body fluids, resembling the earthly amphibians, and are now practically extinct. There are a few species, something like segmented worms, still to be seen in the backwaters of the central seas.

 

              A further development occurred when the silicone chain animals began to get short-chain silicones into their circulatory systems, held in solution by OH or NH2 groups on the ends and branches of the chains. The proportion of these compounds gradually increased until the water was a minor and then a missing constituent. The larger mobile species were, then, practically anhydrous. Their blood consists of short-chain silicones, with quartz reinforcing for the soft parts and their armor, teeth, etc., of pure amorphous quartz (opal). Most of these parts are of the milky variety, variously tinted with metallic impurities, as are the varieties of sapphires.

 

              These pure silicone animals, due to their practical indestructibility, annihilated all but the smaller of the carbon animals, and drove the compromise types into odd corners as relics. They developed into a fish-like animal with a very large swim-bladder to compensate for the rather higher density of the silicone tissues, and from these fish the land animals developed. Due to their high density and resulting high weight, they tend to be low on the ground, rather reptilian in look. Three pairs of legs are usual in order to distribute the heavy load. There is no sharp dividing line between the quartz armor and the silicone tissue. One merges into the other.

 

              The dominant pure silicone animals only could become mobile and venture far from the temperate equatorial regions of Uller, since they neither froze nor stiffened with cold, nor became incapacitated by heat. Note that all animal life is cold-blooded, with a negligible difference between body and ambient temperatures. Since the animals are silicones, they don't get sluggish like cold snakes.

 

5. Plant Life

 

              The plants are of the carbon-metabolism, silicate-shell type, like the primitive animals. They spread out from the equator as far as they could go before the baking polar summers killed them. They have normal seasonal growth in the temperate zones and remain dormant and frozen in the winter. At the poles there is no vegetation, not because of the cold winter, but because of the hot summer. The winter winds frequently blow over dead trees and roll them as far as the equatorial seas. Other dead vegetation, because of the highly silicious water, always gets petrified unless it is eaten first. What with the quartz-speckled hides of the living vegetation and the solid quartz of the dead, a forest is spectacular.

 

              The silicone animals live on the plants. They chew them up, dehydrate them, and convert their silicious outer bark and carbonaceous interiors into silicones for themselves. When silicone tissue is metabolized, the carbon and hydrogen go to CO2 and H2O, which are breathed out, while the silicone goes into SiO2, which is deposited as more teeth and armor. (Compare the terrestrial octopus, which makes armor-plating out of calcium urate instead of excreting urea or uric acid.) The animals can, of course, eat each other too, or make a meal of the small carbonaceous animals of the equatorial seas.

 

              Further note that the animals cannot digest plants when they are cold. They can eat them and store them, but the disposal of the solid water and CO2 is too difficult a problem. When they warm up, the water in the plants melts and can be disposed of, and things are simpler.

 

 

II

The Fluorine Planet

 

1. The Star And Planet

 

              The planet named Niflheim is the fourth planet of Nu Puppis, right angle 6:36, declension -43:09; B8 type star, blue-white and hot, 148 light years distant from Earth, which will require a speed in excess of light to reach it.

 

              Niflheim is 462,000,000 miles from its primary, a little less than the distance of Jupiter from our sun. It thus does not receive too great a total amount of energy, but what it does receive is of high potential, a large fraction of it being in the ultra-violet and higher frequencies. (Watch out for really super-special sunburn, etc., on unwarned personnel.)

 

              The gravity of Niflheim is approximately 1 g, the atmospheric pressure approximately 1 atmosphere, and the average ambient temperature about -60°C; -76°F.

 

2. Atmosphere

 

              The oxidizer in the atmosphere is free fluorine (F2) in a rather low concentration, about 4 or 5 percent. With it appears a mad collection of gases. There are a few inert diluents, such as N2 (nitrogen), argon, helium, neon, etc., but the major fraction consists of CF4 (carbon tetrafluoride), BF3 (boron trifluoride), SiF4 (silicon tetrafluoride), PF5 (phosphorous pentafluoride), SF6 (sulphur hexafluoride) and probably others. In other words, the fluorides of all the non-metals that can form fluorides. The phosphorous pentafluoride rains out when the weather gets cold. There is also free oxygen, but no chlorine. That would be liquid except in very hot weather. It sometimes appears combined with fluorine in chlorine trifluoride. The atmosphere has a slight yellowish tinge.

 

3. Soil And Geology

 

              Above the metallic core of the planet, the lithosphere consists exclusively of fluorides of the metals. There are no oxides, sulfides, silicates or chlorides. There are small deposits of such things as bromine trifluoride, but these have no great importance. Since fluorides are weak mechanically, the terrain is flattish. Nothing tough like granite to build mountains out of. Since the fluoride ion is colorless, the color of the soil depends upon the predominant metal in the region. As most of the light metals also have colorless ions, the colored rocks are rather rare.

 

4. The Waters Under The Earth

 

              They consist of liquid hydrofluoric acid (HF). It melts at -83°C and boils at 19.4°C. In it are dissolved varying quantities of metallic and non-metallic fluorides, such as boron trifluoride, sodium fluoride, etc. When the oceans and lakes freeze, they do so from the bottom up, so there is no layer of ice over free liquid.

 

5. Plants And Plant Metabolism

 

              The plants function by photosynthesis, taking HF as water from the soil, and carbon tetrafluoride as the equivalent of carbon dioxide from the air to produce chain compounds, such as: and at the same time liberating free fluorine. This reaction could only take place on a planet receiving lots of ultra-violet because so much energy is needed to break up carbon tetrafluoride and hydrofluoric acid. The plant catalyst (doubling for the magnesium in chlorophyll) is nickel. The plants are colored in various ways. They get their metals from the soil.

 

6. Animals And Animal Metabolism

 

              Animals depend upon two main reactions for their energy, and for the construction of their harder tissues. The soft tissues are about the same as the plant molecules, but the hard tissues are produced by the reaction: resulting in a teflon boned and shelled organism. He's going to be tough to do much with. Diatoms leavestrata of powdered teflon. The main energy reaction is:

 

              The blood catalyst metal is titanium, which results in colorless arterial blood and violet veinous, as the titanium flips back and forth between tri and tetra-valent states.

 

7. Effect On Intruding Items

 

              Water decomposes into oxygen and hydrofluoric acid. All organic matter (earth type) converts into oxygen, carbon tetrafluoride, hydrofluoric acid, etc., with more or less speed. A rubber gas mask lasts about an hour. Glass first frosts and then disappears. Plastics act like rubber, only a little slower. The heavy metals, iron, nickel, copper, monel, etc., stand up well, forming an insoluble coat of fluorides at first and then doing nothing else.

 

8. Why Go There?

 

              Large natural crystals of fluorides, such as calcium difluoride, titanium tetrafluoride, zirconium tetrafluoride, are extremely useful in optical instruments of various forms. Uranium appears as uranium hexafluoride, all ready for the diffusion process. Compounds of such non-metals as boron are obtainable from the atmosphere in high purity with very little trouble. All metallurgy must be electrical. There are considerable deposits of beryllium, and they occur in high concentration in its ores.

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