Tag Archives: Apollo

[April 30, 1967] Strange New Worlds and Staid Old Ones (May 1967 Analog)


by Gideon Marcus

To Boldly Go

In the days of the Gold Rush, the Forty-Niners staked out the most promising spots in the hopes of striking it rich.  They set out across thousands of miles, making harrowing overland or overseas trips to California, setting wobbly feet in the land that would soon be The Golden State, hoping that a survey of their claimed land would be a promising one.

Two Surveyors have made their way to the Moon, the second of which (Surveyor 3–Surveyor 2 didn't make it) has just broken ground on our celestial neighbor.

While we can't pan for gold on the Moon (and, indeed, if there is a precious resource we're hoping to find there, it's water), Surveyor did spread lunar soil on a white surfaced background.  This has allowed geologists…well, selenologists now…to make tentative guesses as to the composition of the Moon.  More importantly, it has been categorically shown that the lunar surface is solid and can be landed upon by Apollo astronauts!  Together with the photos from the several Lunar Orbiter spacecraft, the Sixty-Niners will have a good lay of the lunar land they'll be exploring.

By the way, the first Apollo crew has been chosen.  These are the folks originally slated for Apollo 2, an orbital flight that would have flown a few months after the tragically lost mission of Apollo 1.

They are Walter M. Schirra, Donn F. Eisele, and R. Walter Cunningham.  The first name should be a well known to readers; the other two are rookies from the third group of astronauts, folks recruited specifically for Apollo.  It is unlikely that their flight will take place before 1968, and there will be at least one more manned test before the big jump to the Moon.  There's currently even talk of a trip around the Moon before a landing attempt.

To Timidly Creep

The latest issue of Analog isn't bad, per se.  It's just more of the same.  I suppose it's a winning formula to keep doing what works, but I expect a little more innovation from my scientifiction.


by Kelly Freas

Of Terrans Bearing Gifts, by Richard Grey Sipes

Things don't start promisingly.  We last saw Mr. Sipes in a truly awful epistolary piece a couple of years back.  In his sophomore work, a smug Terran trader, name of Winslow, arrives at planet Nr. 126-24 Wilson Two, UTCC, and proceeds to turn things upside down.  His store for sale includes a teleporter, an instant translator, a nuclear nullifier, a matter duplicator, and much more.

It's all really smug, which I suppose it's possible to be when you're wielding Godlike power.  Winslow justifies his toppling of Wilson Two's society by noting less scrupulous folks will show up sooner or later and do the same thing.  It still doesn't make the story fun reading.

Two stars.

Experts in the Field, by Christopher Anvil


by Kelly Freas

Terran linguists assigned to the planet Marshak III are convinced that the indigenous apex animals are sapient, language-using beings.  But since they can't decipher the language they use, an interstellar rest stop construction concern is going to come in, claim the planet, and pave over the preferred lands of the aborigines.

It's up to Lieutenant Commander Andrew Doyle to solve the linguist riddle and save the day.

For a Chris Anvil story, particularly one appearing in Analog, it's not bad.  Sure, it begins with "[Rank] [Man Name] strode onto the scene…" like virtually every other Anvil story.  Yes, the ending paragraphs seem custom made to tickle editor Campbell's fancy (and guarantee a sale).  But I liked the puzzle, and it was reasonably well written.

Three stars.

Burden of Proof, by Bob Shaw


by Kelly Freas

There's one ray of bright light in this issue, if I may be indulged the pun.  Scottish author Bob Shaw offers up a sequel of sorts to his promising story, Light of Other Days.  In this one, he explores the criminological effects of his "slow glass", a substance that rebroadcasts all of the light received from a certain time over that length of time.  It is the perfect impartial eyewitness to any crime–provided one is willing to wait long enough to get it (a "ten year" pane might well not disgorge its evidence for a decade, and no speed-ups possible).

This particular tale is told from the viewpoint of a judge, who sent a man to the chair for murder…on circumstantial evidence.  What if the eyewitness pane of slowglass, due to show the actual scene ten years after, says something contrary?  Is it a miscarriage of justice?  Can justice wait a decade?

I particularly liked this tale for questions it raises.  It might not be slow glass, but certainly some other technology will arise in the future, like a perfect polygraph or enhancements in fingerprinting, may cause old evidence to be superseded.  Does justice wait for these improvements?  Can it?  And how irrevocable is a decision made on an imperfect data set?

Shaw still is a little clunky in incorporating the explanations of his technologies.  Nevertheless, he has a deft, romantic touch to his writing, sorely needed in his magazine.  I'm glad Campbell found him.  Four stars.

Target: Language, by Lawrence A. Perkins

Mr. Perkins discusses the differences between a variety of languages, and the commonality that may underlie them all.  I don't buy his idea that humans develop an internal language that they then translate/adapt to the local vernacular, but it is clear that our species instinctively picks up language at an early age, and what it doesn't learn, it creates on the fly.

If nothing else, it's one of the most readable pieces I've yet encountered in Analog, and on a subject quite interesting to me (and I can verify much of what he says, having studied Russian, Spanish, Japanese, and Hebrew).

Four stars.

Dead End, by Mike Hodous


by Kelly Freas

Did you ever read The Man Who Never Was?  It's the engaging true tale of how the British hoodwinked the Nazis into thinking the Allied invasion would go through Sardinia rather than Sicily.  It involved seeding a corpse, dressed in a Major's uniform and handcuffed to a briefcase full of forged documents, off the coast of Spain.  He was picked up, turned over to German agents, and the story was swallowed, hook, line, and sinker.

Dead End involves a Terran spaceship disabled by belligerent aliens, the capture and investigation of which is certain to give them the secret to our faster-than-light.  Or lead them down a blind technological alley…

It's an eminently forgettable story, not helped by the aliens being human in all but name (and extra pair of legs), and the humans being smug in the Campbellian tradition.

Two stars.

The Time-Machined Saga (Part 3 of 3), by Harry Harrison


by Kelly Freas

At last, the exploits of Barney Henderson, movie producer extraordinaire, come to a close.  As expected, the only reason there is archaeological evidence of a Viking settlement in Vinland is because Climax Productions made a movie starring Vikings in Vinland.  The whole thing is a circle with no beginning and no end.

It's a compelling thought, further exemplified by a piece of paper that switches hands endlessly between two iterations of Barney.  When did it start?  Who initially drew the diagram on the paper?  Of course, unsaid is the fact that, after endless passings back and forth, the paper should disintegrate…

If the first installment was a bit too silly and the second rather engaging, this third one feels perfunctory.  Harrison tells us how the film got done, but the whole thing is workmanlike.  Not bad, just a bit sterile.  Also, given then carnage involved in the making of the film, I would have preferred a more farcical tone or a more serious one.  The middle-of-the-road path makes light of the horror of first contact and the bloodshed that stemmed therefrom, and it taints the whole story.

So, three stars for this segment and three and a half for the book as a whole.

Summing Up

What a lackluster month this was!  The outstanding stuff would barely fit a slim volume of a single digest.  Analog garnered a sad (2.9) stars.  It is only beaten by Fantasy and Science Fiction (3), and it very slightly edges out IF (2.9) and Fantastic (2.9)–they rounded up to 2.9, while Analog rounded down.  The last issue of Worlds of Tomorrow (2.4) is left in the dust.  We won't have WoT to kick around anymore…

Women wrote 7.41% of the new fiction this month–dismal, but par for the course.  On the other hand, we've got a new star in the screenwriting heavens in the form of Star Trek's D.C. Fontana.  Perhaps TV is where the new crop of STF women will grow.

In any event, I've already gotten a sneak preview of next month's IF.  We have a stunning new Delany to look forward to.  Stay tuned!





[January 28, 1967] "Fire in the cockpit!" (The AS-204 Accident)


by Kaye Dee

As I write this, I’m still in shock. It’s only a few hours since the news broke here in Australia of the tragic loss of the crew of Apollo 204 in a fire on the launchpad at Cape Kennedy, during a launch rehearsal. Spaceflight is difficult and dangerous – we know that. Astronauts Freeman, Bassett and See were killed in plane crashes during training; Armstrong and Scott had a narrow escape from inflight disaster during Gemini VIII.

Unconfirmed rumours abound of Soviet cosmonauts who died in unsuccessful space missions before Gagarin, and the Russians have probably had training accidents to which they have not yet admitted. When I wrote about Gemini VIII’s aborted mission, I asked if spaceflight was moving too fast. There’s certainly been a headlong rush on NASA’s part to get to the Moon ahead of the Soviet Union, so perhaps this tragedy is the answer to my rhetorical question.


The first image available showing the fire-ravaged interior of the Apollo 204 spacecraft

Details are still sketchy at this time, although no doubt more information about the accident will emerge in the coming days and weeks as investigations take place. But right now, let’s explore the background to the mission and what we know about the catastrophe.

The Lost Crew
Apollo 204 (AS-204) was intended to be the first manned test flight of the new Apollo Command and Service Modules, the spacecraft that will be used to carry the first NASA astronauts to the Moon within the next few years. As such, two experienced astronaut test pilots were assigned to the flight: USAF Lt. Colonels Virgil “Gus” Grissom, the Command Pilot, and Senior Pilot Edward White. Grissom was the United States’ second space traveller, flying the Mercury MR-4 mission. He also commanded the first manned Gemini mission, Gemini III. Rumour even has it that Grissom was already under possible consideration to command NASA’s first lunar landing mission. Lt. Col. White is famous as the first American to make a spacewalk, during Gemini IV. These veteran astronauts were joined for this mission by rookie US Navy Lt. Commander Roger Chaffee. Chaffee was selected as a member of the third astronaut group and specialised in communications: he had been a CapCom for both Gemini III and IV.


Official Apollo 204 crew portrait, including a model of the new Apollo Command Module which their mission was intended to test. Left to right Ed White, "Gus" Grissom and Roger Chaffee

The Apollo 204 back-up crew consists of experienced Mercury and Gemini astronaut Walter Schirra and first-time fliers Donn Eisele and Walter Cunningham. Astronaut Eisele had originally been assigned in Lt. Commander Chaffee’s role for the Apollo 204 mission but had to be replaced when he needed shoulder surgery in early 1966. I assume that once Apollo missions resume after the accident investigation, this crew will fly the first orbital mission that should have been accomplished by AS-204.

What’s in a Name?
The design for the official Apollo 204 patch, developed by the crew and illustrated by North American Rockwell artist Allen Stevens, carries the designation Apollo 1. At the time that it was approved by NASA, in June 1966, this was the flight’s official name. However, it seems that only recently some doubt arose as to whether the formal designation of the mission would be Apollo 1 after all, which is why it is presently being referred to as Apollo 204, or AS-204. I’ve heard from the Australian liaison officer at NASA, that just last week approval for the patch was withdrawn and that, if this accident had not occurred, the patch might have had to be redesigned, depending on the final mission designation.

But as it stands, the mission patch uses the American flag for a background, with a central image depicting an Apollo spacecraft in Earth orbit. The Moon appears to the right of the Earth, reminding us of the eventual goal of Project Apollo. The designation Apollo 1 and the names of the crew appear in a border around the central image, while the patch is edged with a black border – a touch that is poignantly even more appropriate in view of the loss of the crew. I do hope that this patch, and the designation Apollo 1, will be re-instated as the official insignia of this mission in honour of its lost crew.

The Mission that Should Have Been
The fire that has killed the Apollo 204 crew occurred during a preflight test ahead of a launch scheduled for 21 February. It was planned to be the first manned orbital test flight of the Apollo Command and Service Modules, launched on a Saturn IB rocket. The mission was to have tested launch operations, ground tracking and control facilities, as well as the performance of the Apollo-Saturn launch vehicle. Depending on how well the spacecraft performed, the mission might have lasted up to two weeks, perhaps equalling Gemini VII's record spaceflight and demonstrating that the Apollo spacecraft could function successfully for the duration of the longest Moon flights currently in planning.


The Apollo 204 crew in front of Pad 34, from which they should have launched, and where they have been killed

The Command Module allocated to Apollo 204, CM-012, was a so-called “Block I” version, originally designed before the lunar orbit rendezvous landing strategy was selected. Block 1 spacecraft aren’t able to dock with a lunar module, but future “Block II” versions will.

Was It a Lemon?
The Apollo Command and Service Modules are undoubtedly far more complex than any previously-built spacecraft, so it isn’t surprising that their development has had many teething problems. Over the last few months, I’ve heard from my former colleagues at the WRE that many issues with the Command Module became evident last year, especially when CM-012 was delivered to Kennedy Space Centre in August to be prepared for its flight. Even before it arrived, the Apollo 1 crew had expressed concerns to Apollo Spacecraft Program Office manager Joseph Shea about the quantity of flammable materials, such as nylon netting and Velcro, being used in the spacecraft cabin to hold tools and equipment in place. It seems that, even though Shea ordered these flammable materials removed, this may not have happened.


The Apollo 204 crew sent Program manager Jospeh Shea a parody of their crew portrait to express their concernes about the spacecraft. They are shown praying, and the picture carried the inscription: "It isn't that we don't trust you, Joe, but this time we've decided to go over your head"

When CM-012 arrived at Kennedy Space Center, there were still 113 significant planned engineering changes to be completed, and another 623 engineering change orders were made following delivery! This suggests that many issues with the spacecraft design were still being resolved. Apparently, the engineers in charge of the spacecraft training simulators just couldn’t keep up with all these changes, and I’ve heard that Lt. Colonel Grissom expressed his frustration about this by bringing a lemon from a tree at his home and hanging it on the simulator.


CM-012, at that time designated Apollo 1, arriving at Kennedy Space Centre

There were several problems with the environmental control unit in the Command Module, which was twice returned to the manufacturer for designed changes and repairs. During a high-speed landing test, when the Command Module was dropped into a water tank to simulate splashdown, its heat shield split wide open, and the ship sank like a stone! There were also apparently concerns about a propellant tank in the Service Module that had ruptured during pre-delivery testing. NASA had it removed and tested at Kennedy Space Centre to be sure there were no further problems. 

CM-012 finally completed a successful altitude chamber test on 30 December and was mated to its Saturn IB launch vehicle on Pad 34 at Cape Kennedy on 6 January. So, was this particular spacecraft a lemon – an accident waiting to happen? Or has this tragedy shown that the design of the Apollo Command Module is inherently flawed? We’ll undoubtedly have to wait for the results of the accident investigation before we know the answer.

Countdown to Disaster
At this point, we still know very little about the disastrous fire or what led to its breakout, but my WRE colleagues have helped me put together some information accident from their contacts at NASA. The fire broke out during what had apparently been a trouble-plagued launch simulation known as a "plugs-out" test. This kind pre-flight simulation is intended to demonstrate that the spacecraft will operate as it should on internal power, detached from all cables and umbilicals, and successfully carrying out this test was essential for confirming the 21 February launch date.


The AS-204 crew in the CM simulator on 19 January, as part of their preparations ahead of the "plugs out" test

Almost as soon as the astronauts entered the Command Module, there were problems when Grissom experienced a strange odour in his oxygen supply from the spacecraft, which delayed the start of the test. Problems with a high oxygen flow indication that kept triggering the master alarm also caused delays. There were also serious communications issues: at first, it was Command Pilot Grissom experiencing difficulty speaking with the control room, but the problems spread to include communications between the operations and checkout building and the blockhouse at complex 34, forcing another hold in the simulated countdown.

Fire Erupts
It was not until five and a half hours after the simulation began that the countdown finally resumed, and when it did instruments apparently showed an unexplained rise in the oxygen flow into the crew’s spacesuits. Within seconds, there were calls from the spacecraft indicating that a fire had broken out in the cabin and that the astronauts were facing a serious emergency, trying to escape. The final transmission from inside the spacecraft ended with a cry of pain.

Of course, there are emergency escape procedures for the Command Module, but with the triple spacecraft hatch, it requires at least 90 seconds to get it open, and it seems that the crew had never been able to accomplish the escape routine in that minimum time. There is some evidence that Lt. Col. White was trying to carry out his assigned emergency task of opening the hatch, but in the pure oxygen atmosphere of the spacecraft, the fire became incredibly intense very rapidly and rising internal pressure would have made it difficult, if not impossible to open the inward-opening hatch.


Picture taken shortly after the fire was extinguished showing the external damage to the Command Module caused by the hull rupture resulting from the fire

In less than 20 seconds from the first detection of the fire, the pressure inside CM-012 rose to the point where it actually ruptured the hull of the spacecraft, sending flame, heat and dense smoke into the pad service structure. The ground crew bravely tried to rescue the astronauts, but the dangerous conditions and unsuitable emergency equipment made it virtually impossible. Many were later treated for smoke inhalation. There were fears the CM had exploded, and that the fire might ignite the solid fuel rocket in the launch escape tower above it. If this happened, it could set fire to the entire service structure.

It took about five minutes for the ground crew to finally get the spacecraft hatch open, but their efforts were in vain, as the astronauts were already dead. The exact cause of death has yet to be determined: it may have been physical burns from the fire, or carbon monoxide asphyxia, from the fire's by-products.

Whatever the cause, three brave men have died, and an exhaustive investigation of the fire and its causes will now take place as part of the accident investigation. Exactly what effect this tragedy will have on the future of the Apollo programme will very much depend upon the findings of that investigation. If the design of the Command Module is found to be intrinsically flawed, the necessary redesigns could delay the programme for years, causing NASA to miss President Kennedy’s deadline for a Moon landing, and allowing the Soviet Union to overtake the United States again in the Space Race.

Grissom and White have both said in past interviews that they recognized the possibility that there could be catastrophic failures and accidents in spaceflight and that they accepted that possibility and continued with their work. I’d just like to give the last word in this article to Astronaut Frank Borman, who said in a 1965 interview "I hope that the people in the US are mature enough that when we do lose our first crews they accept this as part of the business". It would not honour the loss of the Apollo 204 crew if this tragedy led to the termination of the Apollo programme.





[July 16, 1966] Onward and Upward! (Apollo, Australia, and OV)

Not a month goes by without some interesting tidbits on the space front.  Even between Gemini and Voskhod missions, there's always something going on, all over the world!


by Gideon Marcus

Heavy Lifting

We are used to space shots being manned spectaculars — brave men in space suits heading into the cosmos.  But the missions that precede the human-crewed flights are just as important.  On February 26 of this year, we saw the first full Apollo test flight.  It featured an old-style Command Module, the bit of Apollo that will house crew, but the Service Module was standard production line.  The rocket, too, is going to see service.  Unlike the Saturn 1, which flew ten test flights in a row with remarkable reliability, the Saturn 1B will be used for actual Apollo missions, at least ones that will take place in Earth orbit.

The February flight, dubbed AS-201, was not without problems.  Nevertheless, it comprised a successful launch and landing after a 37-minute suborbital flight.

AS-203, launched July 5, was strictly a booster test.  The goal was to see if the Centaur second stage of the Saturn 1B could restart successfully in orbit, a critical function for lunar missions.  As a booster test, the rocket stack looked a bit odd.  Instead of an Apollo capsule, there was simply a nosecone covering the second stage.  The deletion of even a boilerplate also meant that the rocket could carry more fuel for testing.  By the time the vehicle had reached orbit, there was still 20,000 pounds of hydrogen and 3,000 pounds of oxygen in its tanks.

For four orbits, NASA engineers subjected the vehicle to various stress tests.  Hydrogen and oxygen were vented in various quantities.  In its final orbit, hydrogen was vented but the oxygen vents kept closed to create a tremendous pressure differential.  This eventually caused the rocket to explode, but not before surviving twice the expected endurance of the vehicle.  Call that a success!

Next up will be AS-202, which was bumped to accommodate this flight.  It will be a suborbital test like AS-201, but the Apollo will have fully functional guidance and navigation systems to test.  A few more successful flights, and we'll be on our way to the Moon!

Fraternal Twins

The Air Force has gotten a lot out of its budget "Orbiting Vehicle" program.  The idea behind the program was to utilize space on rocket test launches for satellites using standardized, mass-produced bodies.  This meant a double-savings over custom-built missions on mission-specific flights. 

Of course, things don't always work out as planned.  There are at least three OV series now, and only the OV2s have used spare test flights (in their case, on Titan 3Cs).  The OV3 series uses purpose-launched Scout rockets.  The OV1s, instead of using space on test-launched Atlas rockets (save for the first one), have instead used spare Atlases that were decommissioned from military service last year.  Still, the rockets were just sitting there, so it's still cheaper than it could have been.

In any event, OV1-7 and OV1-8, launched on July 14, represent the second time a pair of OV1 satellites were orbited back-to-back.  This particular launch was a little unusual for two reasons.  Firstly, OV1-7 (a standard OV1 satellite) was supposed to be a particle physics and "earthglow" detector. But it never left its Atlas and fell back to Earth.

Secondly, OV1-8 wasn't an OV1 at all, really.  It was a big balloon.  And not just an ordinary balloon: it was actually an aluminum grid put into spherical shape by being embedded in inflatable plastic.  When OV1-8 got to orbit, it inflated.  The Sun's rays disintegrated the plastic leaving a hollow mesh sphere.  Called PaGeos (Passive Geosynchronous), OV1-8 orbits the Earth at the same rate as its rotation, keeping it pretty much in the same spot in the sky with reference to a ground-based observer. 

And what good is a hollow aluminum balloon?  Why, for bouncing messages off of!  Turns out PaGeos reflects signals five times as well as the old NASA Project Echo balloons.  Also, the hollow nature makes PaGeos much less susceptible to air drag, which shortens the lifetime of a satellite by eventually pulling it down to Earth.  PaGeos was shot into orbit backwards to maximize air drag, yet it is calculated to have a lifespan of four years. 

Though active satellites like Telstar and Syncom have largely replaced passive balloon satellites, the cheapness and durability of passive comsats like PaGeos suggests there may be a specialized use for them in years to come.  I guess we'll just have to wait and see!



by Kaye Dee

(Not) Going Up from Down Under

Hello everyone, Kaye here. Gideon has kindly allowed me an opportunity to provide a quick update on recent space events in Australia. While the British and Australian sounding rocket programmes keep expanding, the European Launcher Development Organisation’s Europa launcher program at Woomera has had its first major failure-and one that was not the fault of the rocket itself!

Following the three successful test flights of the Blue Streak first stage, ELDO F-4 was intended to be the first all-up test of the three-stage Europa vehicle. The first stage was active, with the French second stage and the West German third stage inert dummies. The rocket was also carrying a dummy test satellite that carried some instrumentation to measure the conditions that a real satellite would experience during launch.

Although the 24 May lift-off went perfectly, the impact predictor soon reported that the rocket was veering west of the planned trajectory. At 136 seconds the Range Safety Officer terminated the flight, with the debris raiding down into the lower part of the Simpson Desert. To the disappointment of all involved, the post-flight analysis revealed that the rocket had, in fact, been exactly on course, and inaccurate readings had been received at the Mirikata downrange radar station 120 miles away. Oops! ELDO is now preparing for a new all-up test later this year, possibly in November. 

Waking a Sleeping Beauty

Australia has also recently played a special role in the Surveyor mission currently on the Moon. After the solar-powered probe shut down during the two week lunar night, the task of bringing it back to operational life was entrusted to the NASA Tidbinbilla Deep Space Tracking Station, outside Canberra. The re-awakening process on 8 July was a complete success and the space tracker who sent the "wake up" command was jokingly given a special citation: the Prince Charming Award!

[…and that's the space news for this week.  Stay tuned for full Gemini 10 coverage next week!]






[May 30, 1964] Every journey begins… (Apollo's first flight!)


by Gideon Marcus

One Step

Humanity took its first halting steps toward the Moon with the (mostly) successful launch of the first Apollo spacecraft into orbit on May 28, 1964.  Blasting off from Cape Kennedy's Pad 37B, the sixth Saturn I, biggest rocket in existence, carried a boilerplate, non-functional spacecraft. 

The mission marked firsts in several ways.  Whereas the previous five Saturns had been topped with Jupiter-C nosecones, SA-6 was the first to prove the actual Apollo structure.  Less auspiciously, the flight also marked the first malfunction of the Saturn rocket: 122 seconds into its mission, 24 seconds before planned cut-off, engine #8 prematurely shut down. 

But out of the jaws of failure came ultimate success.  The other engines continued to fire an additional two seconds, the four inboards shutting down shutting off 142 seconds into flight, the remaining three outboards going dark at Launch + 148.  Despite these compensations, AS-101 (the name for the spacecraft) was still flying "low and slow"; the second stage then ignited and compensated for the balky first stage, ultimately delivering the Apollo spacecraft almost perfectly into its planned orbit. 


That's Wernher von Braun in the middle; next to him, with the glasses, is George Mueller, who used to run the Pioneer lunar project at STL

Thus, the failure of engine #8 actually proved a blessing in disguise — we now know that the Saturn guidance system works quite nicely.  Moreover, given the excellent track record of the first stage's H-1 engines, I suspect the causes of the shutdown will be determined and remedied in short order.

AS-101 will be in orbit about one more day before it plunges into the atmosphere.  Like the first Gemini mission (last month), the spacecraft will not be recovered. 

SA-7/AS-102 will be a largely identical mission that will test the escape tower, the little rocket that will rescue Apollo astronauts in the event of a launch failure.  It is due to go up at the end of August.  Crewed spaceflights should happen as early as 1966!

No News is…

In other news, there isn't much news.  Since our last update, the Soviets launched Kosmoses 29 and 30 (April 25 and May 18), both of which landed just a week after launch, which suggests they were really spy satellites a la our Discoverer program.  Meanwhile, the United States Air Force lofted two birds of its own, a small one on April 27, and a big one on May 19.  I'd bet the first one was some a traditional film-return spy satellite (the kind that snaps photos in space and then sends the shots down to Earth for development in a little capsule).  As for the second, either it carries multiple canisters, or it's some kind of advanced system — maybe a real-time TV eye in orbit?

By the way, on April 21, I understand an Air Force rocket went boom, and the satellite it was carrying, a navigational Transit was on board.  That'd be no big deal…except this Transit was powered by the radioactive decay of plutonium-238.  I haven't heard much reporting on the subject, but I sure hope the flyboys are more careful next time!

The Soviets did launch Polyot-2 on April 12.  This is a special satellite that is able to change orbits.  That could mean that it's a precursor to the next Communist space vehicle (that's the thought advanced in Martin Caidin's recent novel, Marooned) or it could be a spacecraft designed to intercept missiles or other vehicles in space.  We won't know for a while, if ever.

Coming Attractions

As we head into the summer, it looks like things will remain pretty calm, unless the Russians pull another surprise out of their hats.  The only big event on the horizon is the launch of Ranger 7 in July.  After ten straight failures on the way to the Moon, I can't imagine the betting is particularly good for this flight.

But hope springs eternal…  See you then!


[Come join us at Portal 55, Galactic Journey's real-time lounge!  Talk about your favorite SFF, chat with the Traveler and co., relax, sit a spell…]




[February 5, 1964] That was the Month that Was (January's Space Roundup)


by Gideon Marcus

Another Lunar Black Eye

NASA's Project Ranger, which is basically a projectile aimed at the moon, has logged failure after failure since it started back in 1961.  The first ones in the series, Rangers 1 and 2, were just Earth-orbiting satellites designed to test the engineering and return scientific data.  Both of their missions were busts due to fault Agena second stages on their Atlas-Agena boosters.

Rangers 3 to 5 were bona-fide moon missions with giant pimples on their noses to do a bit of lunar geology (or selenology).  None of them completed their missions: Ranger 3 missed its target and was pointed the wrong way to boot, Ranger 4 hit the moon but was brain-dead from orbit onward, and Ranger 5 both missed and stopped working long before it got near the moon.

With five cracked eggs' experience to draw from, NASA tried again in January 30, 1964, with the first of the TV-armed Rangers, #6.  Aside from an odd voltage spike early on, Ranger 6 seemed to be working fine.  The spacecraft made a textbook-perfect flight all the way to its target, Mare Tranquillitas, impacting on schedule. 

But its TV camera never turned on.

I've been told that the fellow who announced the flight in real-time to the press has resigned from this duty, unable to go through such a harrowing experience again.  Who can blame him?  This is the sixth Ranger and the tenth failed (counting Pioneer Atlas Able) moon mission in a row.  On the other hand, and this is probably weak comfort at best, Ranger 6 did perform perfectly all the way until the end.  I'm sure Our American Cousin was a fine play, too.

There are three more third edition Rangers left to launch.  Let's hope at least one of them will be successful.  Right now, this program is making Project Vanguard look like an unalloyed success.

Stillborn Quintuplets

Speaking of Vanguard, on January 24, 1964, the Air Force launched another of its multi-satellite missions, attempting to orbit an unprecedented five spacecraft at once.  "Composite 1" comprised LOFTI 2, which was to study the ionosphere, Secor and Surcal, which would have helped the Army and Navy (respectively) calibrate their tracking radars, and Injun 2, a radiation satellite made by the University of Iowa (the same folks who discovered the Van Allen Belts.

Composite 1 also included SOLRAD (Solar Radiation) 4, and this is the Vanguard tie-in.  You see, the spottily successful Vanguard, which was America's first space project, was originally designed to study the sun's output of X-rays and ultraviolet light.  Unfortunately, the last of the Vanguards, number 3, was swamped with radiation from the Van Allen Belts, and its sun-pointed experiments were made useless.  End of story, right?

Well, SOLRAD 1, launched in 1960, was essentially Vanguard 4.  It was made by the same folks (the Naval Research Laboratory), used the same design, and carried the same experiments as Vanguard 3.  The only difference was purpose: the Navy wanted to know if there was a relation between solar flares and radio fade-outs (turns out yes). 

SOLRAD 2 was a dud thanks to a bad rocket, but SOLRAD 3 and Injun 1 returned good data.  The failure of SOLRAD 4 gives the program a .500 average — still pretty good to my mind.  I understand the Air Force will be trying again in a few months.

Five for five

How about some good news for a change?  For the fifth time in three years, the world's largest rocket took to the skies above Florida, January 29, 1964.  The Saturn I rocket, a precursor to the Saturn V behemoth that will take humans to Moon before this decade is out, has completed its run of test flights with a 100% success rate. 

I want that to sink in.  As far as I know, no rocket program has ever been 100% successful.  One would think that a booster as big as the Saturn should be more accident-prone than any other.  And yet, the trim cylindrical stack lifted off from Cape Kennedy, with both stages fueled for the first time, and placed its entire top half into orbit.  This gave Americans another first: world's largest satellite, weighing nearly ten tons!

The timing could not be better.  Apollo's future has been threatened a bit lately, with many in Congress seeking to reduce NASA's funding.  Some question whether there is even value in winning the race to the moon.  The outstanding success of the Saturn I will hopefully be a shot in the program's arm — and maybe for the related Project Ranger.

Now that testing of the rocket is complete, the Saturn I will go on to operational missions, flying full-scale examples of the Apollo spacecraft.  This will be the closest this first Saturn ever gets to the moon, however.  Huge as it is, it is not strong enough to launch Apollo to Earth's nearest neighbor.  It's not even strong enough to loft a fully-fueled Apollo!  But it's bigger brother, the Saturn IB, will be.  Expect its first flights in 1966 or so.

Can you hear me?

Last year, COMSAT corporation started selling publicly traded shares.  COMSAT was President Kennedy's compromise between a public and private satellite communications entity.  COMSAT has not yet developed any comsats, but that hasn't other entities are continuing to build experimental satellites toward the day when COMSAT birds begin to fly.

Relay 2

On January 21, 1964, the RCA-built Relay 2 joined its sister Relay 1, Ma-Bell-made Telstar 2, and the fixed-in-the-sky Syncom 2 in orbit.  With four active comsats in orbit (the kind that can retransmit broadcasts), we'll likely soon see transmissions bounce all over the globe.  The most exciting programming on the schedule?  This summer's Olympic games, live from Tokyo, Japan!

Echo 2

Just four days after the launch of Relay 2, NASA shot up Echo 2, a balloon-type passive reflector satellite — essentially a big mirror in space for bouncing signals.  It's larger than Echo 1, which is still in orbit, and should be visible from the ground when it zooms overhead.  I'm not sure why NASA bothered with this satellite given the sophistication of the active-repeater comsats.  I suspect there won't be many more.

Gavarit pa Ruskii?

Meanwhile, our Communist friends have not been entirely idle.  In addition to their increasing constellation of little Kosmos satellites, which may or may not be civilian in nature (probably not), the Soviets have created the twin "Elektron" orbiting laboratories.  The first two were launched on January 30 into separate orbits, their mission to explore the Van Allen Belts from both below and above!

It's the first time the Soviets have launched multiple satellites on a single rocket (we've been doing it since SOLRAD 1) and the first time since Sputnik 3 that a Russian mission has been verifiably civilian in nature. 

It's about time!

Space for Two

I'll wrap things up with a couple of pieces of news on the Gemini two-seat spacecraft, sort of a bridge between Projects Mercury and Apollo.  Firstly, it looks like the first uncrewed flight will happen as early as March, testing both the capsule and the Titan II rocket.  If this goes well, the first crewed flights may blast off as early as the end of this year.

Fingers crossed!




[July 29, 1962] What a Diff'rence a Month Made (July 1962 in spaceflight)

[if you’re new to the Journey, read this to see what we’re all about!]


by Gideon Marcus

Sometimes, the future comes so fast, it bewilders.

This rushing feeling I've had all month must be similar to what my grandparents felt when the Wright Brothers first took off.  For millennia, people have dreamed of flight, envying the birds.  Yet flying was always the province of make-believe, of fanciful stories.  Then, on one day in 1903, airplanes became a reality, and the world was transformed.

Ditto space travel.  That dream has been alive since the Ancient Greeks, yet it was entirely a theoretical concern until the Soviets pierced the heavens with their first beeping Sputnik.  It is easy to forget, now that there have been well over one hundred successful orbital missions, that just five years ago, there had been none.

The advances made just this month are tremendous, each one as significant as the breakthroughs I've just detailed.  Let's review:

Ma Bell, Orbital Division

Unless you've been living under a rock the last few weeks, you can't have missed virtually non-stop coverage of the first civilian communications satellite, AT&T's Telstar.  Launched July 10, it circles the Earth every 90 minutes; for 20 minutes of every orbit, North America and Europe are linked via the dappled spheroid.

Now, it's not as if the two continents had been completely cut off before.  However, the only way to communicate was via undersea phone line (expensive, not useful for television), or shortwave radio (no pictures).  If the UK wants to watch reruns of The Twilight Zone, or if we wanted to see airings of Danger Man or Supercar, we have to wait for videotapes to be shipped/airmailed across the Pond.  News from abroad is often days out of date.

That's about to change.  Starting with a fairly humdrum broadcast of a flag in France, Telstar's programming has now included a host of shows including a Presidential address and a sports match.  And everyone can receive them (so long as the local stations rebroadcast the feed).  Over the next few years, expect satellite coverage to become continuous.  Arthur C. Clarke's dream of comsats fixed in the sky, 22,500 miles overhead, will soon become a reality, and the world shall be connected as never before.

Jousting Space Shutterbugs

Since April, the Soviets have been orbiting a series of disparate probes under the unified designation, "Kosmos," the latest being Kosmos 7, which launched yesterday.  Details on these flights have been sketchy, and while they are all billed as scientific missions, it is beyond doubt that some or all of them have been spy satellites.  I infer this based on the fact that at least one of them was deorbited and recovered a few days after launch – the same modus operandi as our Discoverer film-return satellites.

Speaking of which, yesterday we launched the 47th in the Discoverer series.  As usual, the Air Force did not announce the flight, but it was in the papers anyway.  It's really hard to hide a rocket launch in the middle of California.

It is unlikely that the two satellites took pictures of each other, but wouldn't that be a snapshot to develop?

Getting to Space the Old-Fashioned Way

Until this month, the only way into the deep black was at the tip of a rocket, as Messrs. Shepard, Grissom, Glenn, Carpenter, Gagarin, and Titov can attest.  But on July 17, Major Robert White flew his X-15 rocket plane to an altitude of 59 miles.  For NASA, that's close enough to outer space to count, and they're giving the Major a pair of astronaut wings to wear on his flight suit. 

White experienced three minutes of weightlessness during his flight, and the stars were brilliant and unwinking at the journey's apex.  While this is close to the highest the X-15 can ever fly, it strongly suggests that, in the not too distant future, the next generation of spaceplanes will zoom into orbit from a conventional runway.

Just try not to live right under the take-off point.  That could get loud.

Bits and Pieces

The Apollo moonship design is moving right along.  One lingering question, however, was how the thing would get to the moon.  After all, it is the heaviest manned spacecraft yet developed.  The original concept involved building a giant version of the already giant Saturn booster.  This eight-engine monster is dubbed Nova, and it would take Apollo directly to the moon.  Appropriately, this mode is called "Direct Ascent."

A cheaper idea involves using two Saturn C-5s (a simpler, 5-engine variant), one carrying the Apollo, and the other carrying the fuel.  The two would meet in Earth orbit before jetting off to the moon.  This mode is called "Earth Orbit Rendezvous."

But it was the plucky underdog idea that was ultimately chosen this month.  Called Lunar Orbit Rendezvous, it requires just one Saturn C-5.  At its tip will be an Apollo, some fuel, and a teeny Lunar Excursion Module (or LEM).  The Apollo, itself, won't land on the moon.  Instead, two astronauts of the three will cram into the LEM for the landing. 

This mode was, at first, deemed too complicated to be practicable.  Computers are getting better these days, however, and the cost savings are significant.  Moreover, there's less to go wrong with one rocket than two.

I'm wholly in favor of this move.  After all, anything with the acronym LEM must be incredible.

Conquered by (the Planet of) Love

The one bit of sad news accompanies the loss of Mariner 1, our first planned mission to Venus.  Launched on July 22, its Atlas Agena rocket, the biggest one we've got right now (save for the still-in-testing Saturn 1), glitched during take-off and had to be destroyed five minutes into the flight.

Unlike Pioneer 5, which two years ago flew to Venus' orbit and demonstrated the possibility of long-range telecommunications, Mariner 1 would have flown by the planet, itself.  It would not have been able to take pictures; the Atlas Agena combination isn't powerful enough to lift a spacecraft with a big enough radio to send scans of photos.  We'll have to wait for the beefier Atlas Centaur for that.

Instead, Mariner 1 is really a retool of the first generation of Ranger moon probes, carrying a slew of particle and electromagnetic wave detectors.  If an "R-type" Mariner makes it to Venus, we won't get a look under the planet's shroud of clouds, but we will, at least, finally know hot the world is and get some information on its magnetic field.

The good news?  Mariner 2 is scheduled for launch next month.  Let's hope that one works – otherwise, we'll have to wait another year and a half for Earth and Venus to be in favorable position for a mission.

Live via Visi-Phone!

Courtesy of Telstar and the miracle of Visi-phone(tm) technology, the Journey had a smashing second Tele-Conference on July 29, covering a wide range of topics: from news of the day, to discussion of the upcoming Hugo Awards, to talking about this Summer's blockbusters.

If you missed the live broadcast, catch the rerun.  Check your local listings for details.

Congratulations go out to Mark Yon and Nathan "Rocky" Anderson for asking the best questions!  You can expect your prizes to arrive over the next few weeks.  And to the rest of our audience, warm thanks from the Galactic Journey staff.  We look forward to seeing you again when we do our third Tele-Conference in 2-3 months.

In the meantime, enjoy this revolutionary new era.  The future is only going to come more quickly, I predict…




[October 28, 1961] Heavy Lifting (Saturn C-1 SA-1)


by Rosemary Benton

It's a great leap forward for the United States.  This morning, October 28th 1961, one can open the newspaper and learn about yesterday's launch of the Saturn C-1.  Some of us even saw the live coverage of the launch on television, watching as the giant rocket blasted off from Cape Canaveral in Florida and flew 95 miles into the air before plunging into the Atlantic Ocean.  A rocket this powerful has never been launched before, and I can only imagine that the scientific community must be trembling like the ground beneath Saturn C-1's S-1 first-stage cluster of nine tanks and eight engines. 

It was, quite simply, the biggest rocket ever launched.  By far.

As the world reaches farther and farther past the stratosphere, I wanted to take a look into the recent past in order to better appreciate where we are today.  The development of this impressive rocket was a potent combination of money, ambition, and potential, beginning in December 1957 when renowned rocket scientist Dr.  Wernher von Braun and his team proposed the creation of a booster with one million five hundred thousand pounds of thrust – that's five times that of the Atlas (the rocket that will take an American astronaut into orbit).  The Department of Defense listened, and by August 15, 1958 the Advanced Research Projects Agency (ARPA) began work at the Redstone Arsenal to create the vehicle that would culminate in the tower of flame that lifted slowly, inexorably, from its Florida launchpad yesterday.

The initial design of the booster was something of a lash-up, fusing the liquid oxygen and fuel tanks from the Redstone and Jupiter missiles with the tried and true S-3D engine from the Thor and Jupiter missiles.  After significant retooling, the upgraded S-3D engine was clearly a new beast.  So it got a new name: H-1.  As the development of the H-1 continued through 1958, ARPA began to take a more ambitious approach to the aims of the project.  It would not be enough to develop a booster capable of propelling enormous payloads.  Instead they set their sights on creating a multistage carrier vehicle for a long term manned expedition to space.  The result was the October 1958 project tentatively called Juno V, the name indicating the booster's kinship with its predecessor Juno rockets) based on the Jupiter missile.  The project quickly outgrew any resemblance to the Jupiter family.  On February 3, 1959 that the ARPA renamed the project after the next planet out from the Sun: Saturn. 

Saturn's development has been nothing less than breakneck.  Dr.  Von Braun's group at the Army Ballistic Missile Agency (ABMA) delivered the first production H-1 engine on April 28, 1959 and successfully tested it on May 26.  The Department of Defense prioritized the civilian Saturn.  July of that year was a particularly productive month.  At Cape Canaveral there began construction on a blockhouse for the project's Launch Complex 34, and the Redstone Arsenal shops shifted their focus away from Jupiter rockets in favor of the Saturn project.  By the end of July, the Army Ordnance Missile Command (AOMC) was ordered to cease work on the Titan second stage boosters in favor of the Saturn project. 

NASA stepped in to assume direction of the Saturn Project from ARPA on March 16, 1960.  From the start NASA saw the three stage Saturn C-1 as a starting point in the creation of more powerful, larger vehicles.  Through April and March of 1960, success after success met the Saturn project.  As is tradition, private companies were brought on board to design and construct components of the vehicle.  Contracts between NASA, Douglas Aircraft Company, and Pratt & Whitney, were drawn up in July and August of 1960 respectively.  Douglas Aircraft Company would be responsible for the conceptualization and production of the four-engine S-IV stage of Saturn C-1.  Pratt and Whitney would produce the LR-119 engines to be used in the S-IV and S-V stages. 

As forward thinking as he is driven, Dr. von Braun had bigger plans for the Saturn C-1.  In January 1960, shortly after Convair Astronautics submitted a proposal for an S-V upper stage for the Saturn vehicle, Dr. von Braun floated the idea past NASA administration that the developing lunar project “Apollo” did not need a three-stage C-1; two would be sufficient for the early orbital missions planned for the spacecraft.  His proposal was approved, and NASA removed the S-V stage.  But the S-V stage was not completely scrapped.  In May 1961 the S-1 stage of the vehicle was modified to allow the Saturn C-1 to be a two or three-stage vehicle, increasing its versatility. 

Even before its launch on October 27th, the Saturn C-1 design was already being improved upon in the form of the bigger C-2 and C-3 plans.  In March 1961, considerations were well under way to make use of the Centaur's LR-115 engines in Saturn C-2 rather than the more expensive LR-119 engines developed for Saturn C-1.  Fins were added to the C-2 design in order to make it more structurally sound, and the thrust capacities of the S-1 stage were reviewed for improvement.  Work continued to accelerate on the Saturn C-2 design until recently on June 23, 1961, when Dr. von Braun announced that the C-3 would hold priority over the C-2 due to the preferable use of the C-3 for the later stages of the Apollo project.

Even as the first of its family, the Saturn C-1 launch is a milestone of astronautics.  First and foremost it represents a great leap into the future of propulsion.  Developed under the guiding hand of Dr. von Braun, the The Saturn C-1 rocket itself is one hundred sixty two feet tall, four hundred sixty tons in weight, and packs one point three million pounds of thrust.  The payload of this particular rocket is 10 tons — far outstripping that of any previously launched rocket. 

More than anything, however, is the fact that the Saturn C-1 was a success on its first flight (albeit with a dummy 2nd stage — that will get tested next year).  This bodes well for future Saturn projects.  In terms of the evolution of rocket science, the C-1 has broken new ground in all aspects of rocket design, execution and function. 

The Saturn project has brought us one step closer to manned expeditions beyond orbital space.