The Van Gogh Exhibit at the MFA
The Houston Museum of Fine Arts
Return to the Index Page for our Trip to Houston

April 7-10, 2019
The Johnson Space Center

 

We came to Houston to see the Van Gogh exhibit, but there was a second highlight of our trip- our tour of the Johnson Space Center down in Clear Lake south of Houston.

 

About the Johnson Space Center

The Lyndon B. Johnson Space Center (JSC) is NASA's center for human spaceflight (originally named the Manned Spacecraft Center), where human spaceflight training, research, and flight control are conducted. The first buildings were constructed beginning in 1963, and the complex acquired its current name in 1973.


The complex consists of some 100 buildings constructed on 1,620 acres in the Clear Lake Area of Houston, which lies about twenty miles southeast of the city, just east of Interstate 45. The area acquired the official nickname "Space City" in 1967. The center is home to NASA's astronaut corps, and is responsible for training astronauts from both the U.S. and its international partners. It has become popularly known for its flight control function, identified as "Mission Control" and "Houston" during the Gemini, Apollo, Skylab, Apollo–Soyuz, and Space Shuttle program flights.

The original Manned Spacecraft Center grew out of the Space Task Group (STG) that was formed to coordinate the US crewed spaceflight program. The STG was originally based at the Langley Research Center in Hampton, Virginia, but the program grew so rapidly that this site became insufficient. Planning began in 1961 to expand the STG staff into its own organization, and move it to a new facility. After a lengthy selection process, during which 25 sites across the country were evaluated, construction began at the selected site southeast of Houston on land originally donated by the Humble Oil company to Rice University, with the first buildings opening in 1963. (Today, the JSC is one of ten major NASA field centers.)

I'll have more to say about the individual buildings at the JSC in conjunction with the tram tour that we took during our visit. All visits to the JSC today begin at "Space Center Houston", a large visitor center, museum, and tourist facility just off the main JSC campus, and we will start our own visit there.

 

Getting to Space Center Houston and the JSC

We allocated an entire day to visit the Johnson Space Center, although Guy and Prudence elected to stay behind at the ZaZa hotel so Prudence could take care of Jax and Guy (whose interest in the tour was low, could also take some time to work on some of his upcoming services).


Fred and I, Ron, and Karl and Nancy took my car to Space Center Houston, in order to leave Prudence her own car to get around. The route to the complex was pretty straightforward, involving driving along Binz Street for about ten blocks to Highway 263, which we took south to I-610, one of Houston's expressway loops.

We took that around to the east to pick up Interstate 45 south. Twenty miles down that highway we turned off at the marked exit for the Space Center, which took us eventually to NASA Parkway. Space Center Houston is a major area attraction, like Disney World or something similar, so it was hard to miss the turn into the complex and the parking area for Space Center Houston, the relatively new visitor complex for the JSC.

Before we look at the pictures from our JSC Tram Tour and those we took in the Visitor Center and Museum, let me take a moment to orient you to the entire Space Center Houston/JSC complex.


At right is an aerial view of the entire space center complex. We arrived via NASA Parkway, turning left just before the actual JSC and into the parking area for Space Center Houston, which is the new Visitor Center/Museum complex built just off the JSC proper, and which is now the entry point for tours and unofficial visits to the JSC and sites within it. (Employees and official visitor enter through one of the gates directly into the JSC complex, of course.)

Other than the typical x-ray screening of bags and stuff, the security at the public entrance to the JSC is minimal, even when actual space missions are ongoing, as they usually are today given the continued habitation on the International Space Station (ISS), habitation which is still monitored from one of the buildings in the JSC (which was on our tour).

Karl, Fred, and Ron Outside Space Center Houston

We got to Space Center Houston ("SCH" from now on, to refer to the Visitor Center/Museum) fairly early; there were probably 100 cars in the parking lot when we got there (and maybe 300 when we left in the afternoon). This being a weekday and not in the summer, it was certainly not crowded (as the pictures from the Tram Tour waiting area will show). That was good, and made picture-taking a lot easier.


As soon as you park and walk towards the entrance to SCH, you are greeted by two actual aircraft sitting right beside the main building. The aircraft, shown in my composite picture at left, are one of the space shuttles (the "Independence") sitting atop the specially-modified Boeing 747 that carried is routinely from its landing field at Edwards Air Force Base in California back to its launch site at Cape Canaveral in Florida.

As you may already know, the Space Shuttle can't actually fly under its own power in earth's atmosphere; it has to be carried into space on a rocket and when it returns to earth it is essentially on a long glide to its landing. It can maneuver a bit as it comes in for a landing, but that's about it. Getting it back to its takeoff point thus required transport, and, highways and bridges being what they are, the size of the shuttle vehicle being what it is, transporting it on land would be impossible. So the 747 transport was the solution. After our Tram Tour, we would have an opportunity to go inside both the 747 and the Space Shuttle, and I was looking forward to that.

In case you haven't seen either a shuttle launch or landing, I thought I might include a short movie of each one here. First, you can use the movie player below, left to watch a shuttle launch, an excerpt from an IMAX movie about the Hubble Space Telescope.

Launching the Space Shuttle
(Mouseover Image Above for Video Controls)

And below is NASA footage of a routine shuttle landing:

Landing the Space Shuttle
(Mouseover Image Above for Video Controls)

Actually, being this close to an actual 747 and an actual space shuttle was pretty amazing, or at least I thought so. Even though we would get inside later on, just standing out here looking up at them was remarkable, and we took lots of pictures. Here are just a few of them:

 
 

Karl had bought our tickets ahead of time online, so all we had to do was to pick them up at the entry to SCH. We went inside, and, after getting some advice from the person at the ticket window, made a beeline for the doors to the Tram Tour. The advice we'd gotten was to do the Tram Tour early, as the lines tended to get longer throughout the day, and we were happy to do that and save the museum and exhibits for later. Outside, the waiting area looked like what you might see at a theme park, and all the ropes set up certainly confirmed that at times the wait might be quite long.

When we got into the line, one tour was just about to load, and it looked like we might make it onto that tour with no wait at all. We almost did; but when we got to the front of the line for loading, there just weren't five spaces together, so we let a few couples go ahead of us and waited 25 minutes for the next tour.

Ron, Nancy, and Karl at the Front of the Queue
 
A Tram Tour Leaves the Station
(Mouseover Image Above for Video Controls)

Presently, another empty tram rolled up and we began to board. Because we waited, we were able to get all together in a single row, and I took a moment to hop off and get a picture of our group. When everyone who was waiting got on, there were a few announcements and we pulled away from the tram station.

 

On the Tram Tour of the Johnson Space Center

The entire tram tour took more than two hours, and involved stops at three or four different buildings, and a final stop at a display building containing an entire Saturn V rocket (along with some other large pieces of rocketry gear). Probably the best way to deal with all our pictures from the tram tour is to go stop by stop.


While it might not add anything to the pictures, some of you might be interested in following our route on the Tram Tour, so I have borrowed an aerial view of the JSC from one of NASA's websites to use here. I've resized the image, but didn't want to make it too small on this page. So I've put a moderately large version of the image in the scrollable window at left.

On this image, I've marked the route the tram took (I think I got it pretty close to correct, using our pictures as a guide) and the stops that it made. The publicity photo must be a bit old, for the special road built for the tram to get from SCH to the parking area for Rocket Park didn't even appear, and I had to add it. I've also marked the buildings at which we stopped.

To find the beginning of the tour, scroll the image to the lower right corner, and you'll see the road coming up towards Rocket Park (our last stop) from SCH.

So, you might find the aerial view interesting; it turned out to be a much better one than I could have gotten from Google Earth.

So, when our tram left the station, it first headed towards Independence Plaza- the short name for the area where the Independence space shuttle sits atop its carrier 747. This is an interesting view, because you can see the access tower that we will use later to visit both of these vehicles. The tram makes a U-turn here to head back towards a tunnel that it takes under the JSC boundary road and onto that new road that's been built for it. This road heads towards Rocket Park, and then makes a turn to run along the southwest side of the building housing the Saturn V. As I noted on the aerial view, that building is also new since the aerial view was taken. A good thing, too, because when we stop to tour it later, you'll find many interesting exhibits inside- exhibits that couldn't have been created out in the open. The tram continues across the parking lot for Rocket park, and then jogs over to the Christopher Kraft Mission Control Center.

 

The Christopher Kraft Mission Control Center

Our first stop was at NASA's Christopher C. Kraft Jr. Mission Control Center (known by its radio callsign, "Houston"- as in "Houston, we have a problem") is the JSC facility that manages flight control for America's human space program, currently involving astronauts aboard the International Space Station (ISS).

The Christopher C. Kraft Jr. Mission Control Center

The center is in Building 30 at the JSC, and is named after Christopher C. Kraft Jr., a retired NASA engineer and manager who was instrumental in establishing the agency's Mission Control operation, and who was the first Flight Director. Prime contractor for systems integration at Houston was Philco Corp., selected by NASA in January 1963, who built a then state-of-the-art facility.

As our tram went down the street, our guide was telling us about our first stop, and I thought he said that the mission control center was in the building we were then passing, building 45, but that turned out to be the Project Engineering Building, just to the east of mission control. It was completed in 1966, and was originally designed to support the Gemini Program Office, Apollo Spacecraft Program Office, Central Data Branch offices, and Propulsion and Energy Systems Division. It also housed the JSC Technical Library.

Our tram circled around past Building 45 to come to a stop on the east side of the mission control building. The tram for the previous tour was still parked there, but those folks were beginning to exit the building so that we could go in. We had a short orientation in the lobby, and then we were taken up to the third floor and into the viewing gallery just above and behind the Mission Control floor.

The first thing I noticed was that the room bore little resemblance to what we have all seen in movies and TV shows set in the 1960s during the runup to the series of Moon landings that began in July, 1969. In those scenes, it seemed as if all the equipment had been specially-built for its purpose; the various consoles and screens were generations older than what we have today. In fact, that was the first thing that our guide pointed out- the difference in what kind of computers and displays we see today versus those that were first in use. She pointed to a couple of displays just in front of the viewing gallery where some older generations of equipment were on display:

 

You can see in all our pictures of the main room how much the equipment has changed, and I also found it a bit amusing that many of the folks in the room were actually working on laptops that they'd set on the desks in front of them, sometimes eschewing all the complicated equipment and large displays that they have in front of them.

When we were all seated in the gallery, the building guide (not the one with us on the tram) spent some time explaining a bit about what we were all looking at. While she was talking, I made a couple of movies- just to capture the activity (or lack thereof) in the room. Even though an ISS space walk was going on at that very moment, I was impressed by how routine it all seemed to be. Anyway, it would be a good introduction for you to watch one or both of these movies to get the feel of the room:

Activity in Mission Control
(Mouseover Image Above for Video Controls)
 
Activity in Mission Control
(Mouseover Image Above for Video Controls)

The MCC currently houses just this one operational control room; from here, flight controllers command, monitor, and plan operations for the ISS. This room has many computer and data-processing resources to monitor, command and communicate with the station. The ISS control room operates continuously. We were told that there is a second control room in this building; it was formerly the control room for flights of the space shuttle, and is sometimes utilized for the ISS when there's a need to repair or upgrade equipment in the main control room. They also use it for training. I was also surprised to learn that should this facility be out of commission because of a hurricane or some other event, there is a duplicate control room that can be activated in Round Rock, Texas, just north of Austin.

We took a lot of pictures from the peanut gallery; the control room is a pretty neat place. I lucked into a series of three pictures that fit together very well into a broad panorama, and I have put the resulting image above. Obviously, the main display with all the separate images from the ISS wes really neat, and a large view of it is below:

The Mission Control Room Main Display

Finally, I've taken the best of all the other pictures that we all took while here in the gallery, and I have put thumbnails for them below:

(Click on Thumbnails to View)

We had a chance to ask questions before our guide herded us back downstairs and out to our waiting tram. There was already another on pulling in behind ours. As soon as we were loaded again, the tram pulled away from the Kraft Mission Control center and headed northwest through the complex to our next stop.

The Space Environment Simulation Laboratory

The Space Environment Simulation Laboratory (SESL) is a facility in Building 32 that can perform large-scale simulations of the vacuum and thermal environments that would be encountered in space. Built in 1965, it was initially used to test Apollo Program spacecraft and equipment in a space environment, and continues to be used by NASA for testing equipment. It was designated a National Historic Landmark in 1985.

Its principal features are two test chambers, one larger and one smaller. Both are cylindrical chambers that have the ability to provide a near vacuum, and have configurable lighting systems for simulating sunlight from a variety of angles.

The larger chamber has a diameter of 55 feet, with a circular floor that can be rotated 180°. Test subject equipment can be maneuvered using four overhead cranes, each with a carrying capacity of 50,000 pounds. Equipment can be lifted into and out of the chamber using 100,000 pound cranes located outside the chamber. In addition to solar lighting arrays, the facility is capable of generating thermal plasma fields of a type experienced in the outer atmosphere and low earth orbit. There are two man-sized airlocks, one at ground level, and one at 31 feet; these can be used for staging safety personnel during testing involving humans, and can be separately used for small-scale altitude tests involving low air pressures.

NASA remodeled and upgraded the chamber to test the James Webb Space Telescope. As of 2013, it is the largest high-vacuum, cryogenic-optical test chamber in the world- over 90 feet tall. It is equipped with a gaseous helium shroud capable of lowering temperatures to -439.9 °F. Additional test support equipment includes mass spectrometers, infrared cameras and television cameras, all of which are used to monitor and record the tests conducted here.

 

The Space Vehicle Mockup Facility (Building 9)

At our next stop, we visited the Space Vehicle Mockup Facility in Building 9 where NASA astronauts train for current missions and where scientists and engineers are developing the next generation of space exploration vehicles. Rather than just sit in an observation room, here we went up to the third level and then walked along a long observation balcony to see all that was going on down on the floor below.

The Space Vehicle Mockup Facility

The Space Vehicle Mockup Facility (SVMF) is a large open space area located inside Building 9; the space is over 600 feet long, and it houses several Space Shuttle mockups, as well as mockups of every major pressurized module on the International Space Station. It is primarily used for astronaut training and systems familiarization.

The International Space Station modules are 1:1 scale and are maintained as accurate as possible to the real spacecraft in orbit. The facility also has a 1/6th gravity simulator and Mars Rover test vehicles. An industrial door at the North End, and overhead cranes allows the installation of new mockup spacecraft to be loaded into the facility.

The enclosed balcony overlooking the testing floor is as long as the building but fairly narrow, so tours through here necessitate that large groups like ours be allowed up the stairs and down the length of the balcony a few people at a time. Knowing that we would be taking lots of pictures, we hung back to be at the tail end of our group, spending some time looking around the large lobby:

I'm helping an Astronaut
 
The Lobby Wall

I think it was a good decision to hang back and be at the tail end of our group; it allowed us to take rather more pictures and not worry about everyone looking through the windows and perhaps getting in the way.

Space Suit or Robot?

Most of what we saw were spacecraft modules of one kind or another; the huge floor was full of them. But we also saw many other kinds of equipment, including a few space suits and even the apparatus at left. I doubt that's a space suit, as no human being is built that way, but then again it didn't look like a robot either.

About a third of the way down the balcony, I made one movie looking out across the floor of the Mockup Facility, and you can use the player below to watch it:

Looking Around Inside the Space Vehicle Mockup Facility
(Mouseover Image Above for Video Controls)

So, between Nancy, myself, and Fred, I think we photographed just about everything in the facility, from just about every angle. I want to include a lot of those pictures here. To make it easy for you to zip through them, I'm putting them into a couple of slide shows.

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Most of my pictures are in the slideshow at left; more of mine, and all of Fred's are in the one below. Use the lower corner arrows to move from one picture to another, and track your progress using the index numbers in the upper left. Enjoy having a look inside the Space Vehicle Mockup Facility!

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Looking at all the space vehicles and equipment was really interesting, but I was struck by how little activity there actually was on the vehicle floor. That is, I guess, because space has become routine, and there is no urgency as there was to put a man on the moon originally. The whole facility looked more like a geek engineer's sandbox. We all headed back downstairs and to our tram to drive around the boundary road to our last stop- Rocket Park.

The Memorial Grove

On Jan. 27, 1967, NASA lost astronauts Virgil “Gus” Grissom, Roger Chaffee and Ed White in the Apollo 1 fire. On Jan. 28, 1986, tragedy struck again as NASA lost astronauts Dick Scobee, Michael Smith, Ronald McNair, Ellison Onizuka, Judy Resnik, Gregory Jarvis and Christa McAuliffe as part of the space shuttle Challenger disaster. On Feb. 1, 2003, a third fatal accident claimed the lives of Rick Husband, William McCool, Michael Anderson, Kalpana Chawla, David Brown, Laurel Clark and Ilan Ramon as they returned on space shuttle Columbia.

NASA remembers all of these brave souls every year as part of their Day of Remembrance. This ceremony takes place in different ways at all of the NASA facilities. At NASA Johnson Space Center, there is a Memorial Grove of trees planted in memory of fallen astronauts and mission control personnel, and we passed this grove on the way to our last stop at Rocket Park.

 

Rocket Park

Littered with space travel history, the entryway to Space Center Houston known as Rocket Park is just that— a park full of rockets. The sleeping giants of space exploration are on display here. There are three complete rockets as well as an array of engines and thruster. This equipment was used in NASA missions during the 1960s and 70s. Two of the rockets and all of the engines are outside, and the largest rocket, the Saturn V, is located in a warehouse building that is part of the park.

 

Little Joe II

Little Joe II was an American rocket used from 1963–1966 for five uncrewed tests of the Apollo spacecraft launch escape system (LES), and to verify the performance of the command module parachute recovery system in abort mode. It was named after a similar rocket designed for the same function in Project Mercury. Launched from White Sands Missile Range in New Mexico, it was the smallest of four launch rockets used in the Apollo program.


The vehicle's first launch, in 1963, carried a dummy payload consisting of an aluminum shell in the basic shape of the Apollo command module, with an inert LES attached, and demonstrated the rocket would work for the A-001 launch. This occurred in 1964, with a boilerplate BP-12 command module, and performed the first successful abort using a live LES. A third launch later that same year, tested the effectiveness of the LES when the pressures and stresses on the spacecraft were similar to what they would be during a Saturn IB or Saturn V launch. The fourth flight in 1965, was designed to test the escape system at a high altitude (although the abort actually occurred at low altitude due to a failure of the Little Joe II booster). The final launch, on January 20, 1966, carried the first production spacecraft, CSM-002.

 

The Mercury-Redstone Launch Vehicle

The Mercury-Redstone Launch Vehicle, designed for NASA's Project Mercury, was the first American crewed space booster. It was used for six sub-orbital Mercury flights from 1960–61; culminating with the launch of the first, and 11 weeks later, the second American (and the second and third humans) in space. The four subsequent Mercury human spaceflights used the more powerful Atlas booster to enter low Earth orbit.

The Mercury-Redstone Launch Vehicle


A member of the Redstone rocket family, it was derived from the U.S. Army's Redstone ballistic missile and the first stage of the related Jupiter-C launch vehicle; but to human-rate it, the structure and systems were modified to improve safety and reliability.

Mercury-Redstone flights were designated with the prefix "MR-". Confusingly, the Mercury-Redstone boosters used for these flights were designated in the same way, usually with different numbers. (In photographs, this designation can sometimes be seen on the rocket's tail end.) Two rockets, MR-4 and MR-6, were never flown.

Although there had been rumors that NASA in the very beginning of Project Mercury had intended to launch each astronaut on a suborbital mission before beginning orbital Atlas flights, they only purchased eight Mercury-Redstone boosters, one of which was damaged in the unsuccessful MR-1 launch and not reused, and another used for the MR-BD flight (the original schedule was for one unmanned Mercury-Redstone flight, one chimpanzee flight, and six manned flights). Since Alan Shepard and Gus Grissom's flights were successful and since the Soviet Union had flown two orbital manned space flights by the late summer of 1961, there was no need to continue with Redstone missions.

Here are some additional pictures featuring the Little Jim II and Mercury-Redstone Launch Vehicles:

 

The Mercury-Redstone Launch Vehicle

I think that the picture below of Nancy, Karl, and Fred is a nice one, and shows the variety of launch vehicles and engine components that are on display here in Rocket Park.

 

Engine Components

In addition to the two actual rockets, there were a number of engine modules outside.

The J2 Engine

One of the engines on display was the workhorse J2, and that's me at left standing beside it. The information placard was interesting, so I've put a picture of it below:

Here are the other two engines that were on display outside:


Now it was time to go inside the long warehouse structure that houses an entire Saturn V rocket (laying on its side, of course).

 

The Saturn V Rocket

Mighty and massive, the Saturn V rocket at NASA Johnson Space Center is the tallest, heaviest and most powerful rocket ever flown. NASA used the colossal Saturn V rockets primarily during the Apollo program to send Americans to the Moon.

The Saturn V Rocket on Display

We entered the cavernous building housing the Saturn V from the northeast end. Since the rocket is laid out pointing southeast, we were standing near the first stage engines when we first entered the structure. At left is the view of the rocket as we look to the far end of the building. Fred took that picture, and I think the second best picture we got of pretty much the entire Saturn V rocket was the one I took from the same position.

There are only three Saturn V rockets on display in the world. The rocket at NASA Johnson Space Center is the only one comprised of all flight-certified hardware. The other two rockets are made of flight hardware, mock-ups and test components. The three segments, called stages, contain the powerful engines needed to lift off, entering orbit to reach the Moon. In total, 13 Saturn V rockets launched into space.

The Saturn V rocket stands 363 feet tall and has dazzled viewers since its first un-crewed takeoff, the Apollo 4 mission in 1967. When fueled and ready for launch, the rocket can weigh 6.2 million pounds. That is almost the same weight as 39 space shuttle orbiters.

Flown from 1967 to 1973, the rocket launched 27 astronauts into space with six successful missions landing men on the Moon. The Saturn V also launched Skylab, America’s first space station, into orbit in its final mission. Astronauts could immediately feel the impressive power of Saturn V propelling them through Earth’s atmosphere into orbit.

While the Saturn V rocket began the process, the entire vehicle did not, of course, go to the Moon. Only the Apollo spacecraft (capsule and service module) and the lunar lander went to the Moon. The rest of the rocket (essentially the first three stages) served only to lift those moon-going components into orbit and then put them on course for the moon. The Saturn V on display here was broken into three major pieces so the visitor could see how it worked.

 

Stage 1

Since the rocket was on display in sections, and since there was an interesting explanatory plaque for each stage, I think I'll organize our pictures the same way. First, here are two pictures of Stage 1:

Fred is standing beside Stage 1 in this view that looks from the Stage 1 engines towards what would be the top of the rocket, were it standing vertically.
 
This view, looking back towards the "bottom" of Stage 1 was taken from the point where Stage 1 and Stage 2 had been separated. Here is that separation

The first stage (S-IC Stage) is the largest with five F-1 engines. This was used for only two minutes and 47 seconds, which was enough time to get the rocket 42 miles above Earth. After the first stage used its fuel, it fell into the ocean. In one of the pictures above, you can see the information sign for Stage. I photographed it so you could have a look. That sign is in the scrollable window below:

Before we look at the second stage, there was another informational sign right between the top of Stage 1 and the engines of Stage 2. This sign described the heavy launch vehicle that took the place of Saturn V, and you might be interested in learning about it. That sign is in the scrollable window below:

 

Stage 2

I imagine that you've seen at least one space launch; if you are too young to have seen them live, you owe it to yourself to find a video of one of the Saturn V launches, where you can clearly see the first stage detach to eventually fall into the ocean. When it did, the second stage was ignited. Here are the best of the pictures we took of Stage 2:

This view looks from the engines of Stage 2 towards the "top" of that stage. The engines are the same size as those on Stage 1.
 
Here you can see how the stages actually fit together, with the Stage 2 engines nestled into the top of Stage 1. (The latticework is to keep visitors out of Stage 1 itself.)

The second stage (S-II Stage) which fired for nine minutes and nine seconds, took the rocket into space. This stage was then detached after which it fell to Earth and burned in the atmosphere (at least there haven't been any reports of one NOT burning up). I got a good closeup photo of one of the Stage 2 engines. There was also an interesting informational sign all about Stage 2, and I have put my photograph of it in the scrollable window below:

 

Stage 3

The third stage (S-IVB Stage) was fired for about three hours to send the remaining components toward the Moon. Along the way, the Apollo spacecraft detached from the rocket, turned and pulled the lunar lander from the rocket.

Stage 3

As you can see, Stage 3 has only the one engine, but unlike the engines in the first two stages, the Stage 3 engine can be fired multiple times. Also unlike the engines for Stage 2, The Stage 3 engine is not "inside" the top of Stage 2; instead, there is a ring of metal that conceals what you see in the image at right.


In this case, if you could look inside the rocket when it is standing on the pad, this is actually what you would see; there is a gap between the top of Stage 2 and the Stage 3 engine. Surrounding this gap and the Stage 3 engine is a ring of metal flush with the outer skin of the rocket that holds the stages apart. Of course, as you can see, it is at this point where the diameter of the rocket decreases; the first two stages have the same diameter, but the skin of the rocket converges at this point to the lower diameter of the third stage. From this point, incidentally, I could get perhaps the best view of stage 3.

The descriptive placard for Stage 3 is in the scrollable window below:

The third stage then floated into space. Some third stages were crashed into the Moon on purpose to measure the “Moon quakes” they created.

 

The Command and Service Module and the Lunar Module

The role of the three stages of the gigantic Saturn V rocket in the Apollo missions typically ended almost five hours after leaving the launch pad. After completing its job, each stage of the rocket would be discarded; one would be at the bottom of the ocean, another would burn up reentering the atmosphere, and the third would either drift out of the solar system or be intentionally crashed into the moon. An entirely new Saturn V vehicle would be prepared for the next mission.

And what was that job? To get the Command Module, Service Module, and Lunar module into orbit and then to insert them into lunar trajectory and send them on their way. To see how the modules worked from that point, have a look at the very interesting explanation that I photographed and put into the scrollable window below:

I don't think I'd ever taken the time to investigate exactly how all the modules fit together, and I found the information here to be the most interesting of the whole Saturn V exhibit.

The Saturn V Rocket and Modules

Standing here at the top of the Saturn V Launch Vehicle was quite an experience. I could almost imagine the entire thing standing upright on its pad just before launch. Of course, we've probably all seen videos of many of those launches, but nothing short of seeing this immense construction, in all of its complexity, in person, really brings home what an achievement it was. It is amazing that this country was able to pull off something so remarkable.

For the final two pictures of the launch vehicle, here are Karl and Fred standing next to the Service and Lunar Modules and here, at the very top of the rocket, the Command Module, with the Launch Escape System still attached. (In an emergency, the Command Module can be separated and a rocket in the escape system fired to move the module away from the rest of the launch vehicle. This entire eystem is ejected either when it is no longer needed or can no longer effectively protect the Command Module and astronauts inside.)

The Apollo era signified a new age of advancements in technology and space exploration for the United States. Many technologies from the first lunar launches, especially the Saturn V, inspired future models of spacecraft that will one day take astronauts deeper into the cosmos. The 30-story tall rocket has been on loan from the Smithsonian’s National Air and Space Museum collection since 1977 and was recently restored in 2007. The Saturn V (in general, not this one, of course) made 9 trips into outer space (six of which landed on the Moon) carrying 27 Apollo astronauts.

 

NASA Space Missions

The path of the tour through the building housing the Saturn V rocket and the three modules continued on the other side of the rocket, and led to a door at the far end.

The Saturn V and Apollo Space Missions

At right was the view we had as we came around under the tower of the astronaut escape system and looked back down the other side of the Saturn V. Although we would get more and different views of the rocket itself, what was really interesting was that on the wall of the building where large displays, each of which described one of the Apollo missions- with information about what happened on each mission, who participated in it (the astronauts), and other interesting information.

Since most people enter the Saturn V building from the entrance you can see in the distance, the mission descriptions actually begin near that door, and end where I am standing with Apollo 17.

I found the displays so interesting that I did my best to photograph each of them (sometimes in a single photograph but sometimes, when I couldn't get back far enough, in two or three separate pictures). I would like to let you have a look at these displays yourself, and so will put each of them on this page. And, because you probably would have entered the building by the more common route, and would have seen them in order, I'll put them in order here. I apologize in advance if any of them turn out to be a bit fuzzy; if I find any that are unreadable, I will transcribe them for you (provided I can read them from my photographs).

These displays will all be in scrollable windows so that they can be large enough for you to read here online. The vagaries of web site coding are such that scrollable windows always default to the upper left corner, when they are first accessed. You will want to immediately scroll all the way to the right, to the upper right corner, to find the Apollo mission number and the "beginning" of the display. So, here are those wall displays, in order, from the beginning:

APOLLO 1

I never knew much about the Apollo mission numbers, and I really don't think that most people did. I did know that it was Apollo 11 that accomplished the first moon landing, and I knew that the fire in 1967 occurred on a manned test, but if asked I wouldn't have been able to explain why there weren't ten missions before Apollo 11.


The information at left, which was actually part of the wall display for Apollo 7, lays it all out.

It explains the numbers, but not really why NASA chose to skip numbers 2 and 3 in their sequence. I could have understood if they had skipped 2, 3, and 4, honoring the astronauts who lost their lives as number 1, then inserting the first three unmanned test flights as 2, 3, 4, then making the next three unmanned test flights 5, 6, and 7, and then, finally, the next manned mission Apollo 8. So there's a missing number somewhere, but I supposed it matters very little.

Anyway, let's pick up with the second, and first successful, manned mission. So that I can make the displays a bit smaller, I am going to transcribe the information about the astronauts, and put it below the scrollable window. This information was printed relatively small, and to make it readable in these composite photographs mean that they have to be larger than really necessary.

APOLLO 7

Mission: 11-22 October 1968. Walter M. Schirra, commander (middle), Donn F. Eisele, command module pilot (left), R. Walter Cunningham, lunar module pilot (right).

 

APOLLO 8
Mission: 21-27 December 1968. Lunar Orbit: 24 December 1968. Frank Borman, commander (right), James A. Lovell, command module pilot (middle), William A. Anders, luncar module pilot (left)

 

APOLLO 9
Mission: 3-13 March 1969. Command Module: Gumdrop; Lunar Module: Spider. James McDivitt, commander (left), David R. Scott, command module pilot (middle), Russell L. Schweickart, lunar module pilot (right)

 

APOLLO 10
Mission: 18-26 May 1969. Lunar Orbit: 21 May 1969. Command Module: Charlie Brown; Lunar Module: Snoopy. Thomas P. Stafford, commander (right), John W. Young, command module pilot (middle), Eugene Cernan, lunar module pilot (left)

 

APOLLO 11
Mission: 16-24 July 1969. Landed on Moon: 20 July 1969. Landing Site: Mare Tranquillitatis (Sea of Tranquility). Command Module: Columbia; Lunar Module: Eagle. Neil A. Armstrong, commander (left), Michael Collins, command module pilot (middle), Edwin E. "Buzz" Aldrin, Jr., lunar module pilot (right)

 

APOLLO 12
Mission: 14-24 November 1969. Landed on Moon: 19 November 1969. Landing Site: Oceanus Procellarium (Ocean of Storms). Command Module: Yankee Clipper; Lunar Module: Intrepid. Charles Conrad, Jr., commander (left), Richard F. Gordon, command module pilot (middle), Alan L. Bean, lunar module pilot (right)

 

APOLLO 13
Mission: 11-17 April 1970. Malfunction forced cancellation of lunar landing. Command Module: Odyssey; Lunar Module: Aquarius. James A. Lovell, Jr., commander (left), John L. Swigert, Jr., command module pilot (middle), Fred W. Haise, Jr., lunar module pilot (right)

 

APOLLO 14
Mission: 31 January - 9 February 1971. Landed on Moon: 5 February 1971. Landing Site: Fra Mauro. Command Module: Kitty Hawk; Lunar Module: Antares. Alan B. Shepard, Jr., commander (middle), Stuart A. Rooso, command module pilot (left), Edgar D. Mitchell, lunar module pilot (right)

 

APOLLO 15
Mission: 26 July - 7 August 1971. Landed on Moon: 30 July 1971. Landing Site: Hadley Rille/Apennine. Command Module: Endeavor; Lunar Module: Falcon. David R. Scott, commander (left), Alfred M. Warden, command module pilot (middle), James B. Irwin, lunar module pilot (right)

 

APOLLO 16
Mission: 16-27 April 1972. Landed on Moon: 21 April 1972. Landing Site: Descartes. Command Module: Casper; Lunar Module: Orion. John W. Young, commander (middle), Thomas K. Mattingly II, command module pilot (left), Charles M. Duke, Jr., lunar module pilot (right)

 

APOLLO 17
Mission: 7-10 December 1972. Landed on Moon: 11 December 1972. Landing Site: Taurus-Littrow. Command Module: America; Lunar Module: Challenger. Eugene A. Cernan, commander (front), Ronald E. Evans, command module pilot (back right), Harrison H. Schmitt, lunar module pilot (back left)

 

So, those are the very interesting and informative displays about all the Apollo missions; I certainly learned a lot that I hadn't known or remembered. At the very beginning of the wall, right by the entrance was one more wall poster- this one devoted to the display of the Saturn V itself, and you might find it interesting to read. It is in the scrollable window below:

 

The Rockets of Rocket Park

We found ourselves at the exit door, and went on outside to catch the tram back to Space Center Houston. For the last photographic record of the tram tour, though, I want to include the one movie I made inside the Saturn V display building. You can use the player below to watch it:

The Apollo Mission Wall in the Saturn V Building
(Mouseover Image Above for Video Controls)

 

Independence Plaza

Independence Plaza is part of Space Center Houston, and consists of the world's only Space Shuttle replica mounted on the original shuttle carrier aircraft and the only place where the public can enter both vehicles. This was the first place Fred and I headed when we got off the Tram tour. We'd all agreed to meet back at the entrance at a specific time, and I wanted to be sure to go inside both of the vehicles.

Independence Plaza

You've already seen some good pictures of the two craft, taken when we first arrived (when we could get back far enough to get them all in). Here, coming from the main building, we were way too close for a picture of both craft. So settle for the picture at left that shows the access tower that takes you up to the shuttle and the 747 as we look aft.


Fred got a different picture from the other side of the access structure, looking at the noses of both craft. That picture is at right.

As you may be aware, the Space Shuttle landed most often back at the Kennedy Space Center; about 80 of the approximaely 140 missions landed there. Due to runway conditions, weather, and/or other factors, Edwards Air Force Base in California was used instead (and one mission landed at White Sands in New Mexico). routinely landed at Edwards Air Force Base in California. When the shuttle landed elsewhere, it had to be brought back to Kennedy Space Center for its relaunch, and so the problem was- how to get it there? The only feasible solution, since it could not take off and land on its own, was to carry it on a larger craft, and so a specially-modified Boeing 747 was ordered by NASA and was used for the purpose. It is that specific 747 that is now parked here in Independence Plaza.


We headed over to the access tower, and went up the first sets of stairs to get up to the level where the entrance to the 747 transport aircraft was located. There, I had Fred get over by the railing so I could get the picture at left. We left the 747 for later, and continued to the next level of the stairs and an entrance to the shuttle.

At that level, the views of the shuttle and its carrier were a good deal different, and this time Fred got a picture of me looking aft along both vehicles. (A little later on, I'll have a couple of "nose" pictures, but since the gantryway was so close to the front of the craft, those pictures aren't really that interesting.)

There were three access levels from the tower. The lowest gave access to the 747, and the top two gave access to the space shuttle- one to the shuttle equipment bay and one, at the top, to the flight deck. We climbed to the lower of these two entrances to visit the equipment bay firsst. Just as we were entering the shuttle itself, I took a picture looking back along the shuttle's exterior. The Space Shuttle replica Independence, formerly known as Explorer, was previously located at Kennedy Space Center Visitor Complex but was moved to make way for a new permanent attraction hall for Space Shuttle Atlantis. Independence is now displayed atop the retired Shuttle Carrier Aircraft, NASA 905.

Inside the Space Shuttle

The shuttle we entered was not, we found out, one of the actual shuttles used in the Space Shuttle program. Instead, it is a full-scale, high-fidelity replica that was built by Guard-Lee in Apopka, Florida, was originally installed at the Kennedy Space Center Visitor Complex in 1993, and was moved to Space Center Houston in 2012. It was built using schematics, blueprints and archival documents provided by NASA and by shuttle contractors such as Rockwell International. While many of the features on the replica are simulated, some parts, including the landing gear's Michelin tires, were actually used in the Space Shuttle program. The model is 122.7 ft long, 54 ft high, has a 78 ft wingspan, and weighs 85 tons.

Mid-Bay Looking Forward

One important thing for you to know is that this shuttle is a replica. For example, two commercial-aircraft-style doors have been cut into the side of the shuttle solely to facilitate access by those touring the vehicle. We came in the one that you can see in both of these pictures here on the mid-bay level at the right as we look forward. A second door was cut one level up- on the level of the flight deck. Neither door existed in the actual shuttles; a smaller, crew ingress/egress door was located port side from the flight deck level. Of course, bulky equipment was originally loaded into the shuttle via the long doors at the top of the vehicle that opened like a gigantic clamshell; these doors were also opened in space to allow this equipment to be taken out into space, launched into orbit, or taken into one of the space stations at which the shuttle docked.

In the pictures we took in the shuttle bay, you can see a replica of the familiar "Canada shuttle arm" that was used in space to lever equipment from the shuttle bay out into space so it could be launched or transferred to the ISS.

But in all these pictures, keep in mind that the extension of the flight deck out into the equipment bay, as well as the walkways and railings at both levels, are, of course, just for the use of (and safety of) the tourists who come through the replica; they were not, of course, part of the actual space shuttle. (Neither was much of the lighting and stuff that you see in the pictures. The equipment bay was, essentially, a cavernous open space like the inside of an eighteen-wheeler trailer. In most cases, this space went into space full and came back empty.)

A Replica Satellite as Cargo

One of the more common pieces of equipment taken up into space by the shuttle (and, on some occasions, returned to earth) would be a satellite- either taken up to be inserted into orbit or brought back to be repaired or decommissioned. At left you can see a replica of what such a satellite might have looked like, sitting in the permanent satellite cradle at the rear of the equipment bay. Of course, the satellite would have to be secured extremely well, for the g-forces pushing it back (down) towards the rear of the equipment bay during the shuttle launch would have torn it loose from any but the most secure of mounts.

Looking to the Rear of the Equipment Bay

If you would like to read the plaque in front of the satellite that talks about the procedure for bringing them into space, just click on that plaque and I'll show you a copy large enough for you to read.

And at right is a picture with Fred where I am looking to the rear of the equipment bay at the replica satellite. Again, remember that the catwalk and railings weren't part of the actual shuttle, and of course neither were the informative displays along the outer walls of the equipment bay. It must have been incredible up in space where your eye is telling you that the equipment bay has a top and bottom, but your sense of balance is telling you there's no real "up" or "down"- particularly when you might be looking at the earth "above" you through the open bay doors!

Before we go up to the flight deck, I'd like to describe the layout of the space shuttle interior a bit more. The equipment bay was usually not pressurized (filled with air), although it may well be that it could have been. Most of the time, it would be open to the vacuum of space. So, the shuttle astronauts would have to work in the bay in pressurized suits.

The Airlock Seen from the Equipment Bay

The crew quarters and flight deck were, however, pressurized, as flying the shuttle and living day-to-day would have been difficult or impossible were the crew to have to wear space suits all the time. There was actually a wall that divided the equipment bay from the entire front section of the shuttle that allowed the pressurization of the nose portion separately. And so the crew could live in the nose section without suits but work in the equipment bay with them, there had to be an airlock between the two sections. I took a picture of that airlock from the equipment bay, and you can see that picture at left. Here in the space shuttle replica, there was a cutaway above the door, not there in the actual shuttle, that allows visitors to see better inside the airlock itself.

(There was an astronaut mannequin in a pressure suit inside the airlock, which shows that even though the "door" into the equipment bay was small, an astronaut could stand upright in the airlock itself. Once pressure had been equalized, the astronaut could "float" himself through that small aperture either into the equipment bay or back into the nose section.)

Here in the replica shuttle, the airlock was just to demonstrate how astronauts moved from crew quarters to the equipment bay; we tourists simply walked through what was a solid wall in the actual shuttle so that we could get around to the lower level of the crew section of the shuttle.

The two pictures below were taken from the pressurized side of the wall that existed in the actual shuttle.

This picture shows the forward part of the lower level of the crew quarters, which included the galley, sanitary facilities, storage, and, as you can clearly see, the ingress-egress port for astronauts getting into and out of the shuttle on the ground.
 
In this picture, Fred is standing on the pressurized side of the same airlock you saw above. Behind him is the ingress-egress port, and also behind him you can see the access ladder that astronauts would use to get up to the flight deck and quarters.

We visitors could not go up the access ladder to the flight deck. To get there, we had to go back outside to the access tower and go up one more flight of stairs to the top level, where there was another door (again just for the benefit of tourists) to get in to the flight deck level of the shuttle.

Me on the Upper Level Equipment Bay

Again, I point out that the upper gallery in the equipment bay was added for tourists, but at left I am standing on it and the view looks towards the back of the bay at the model satellite that you saw earlier.

Independence was brought to the JSC when the Kennedy Space Center received the retired space shuttle Atlantis in 2011. Independence (then named Explorer) wasn't brought to Houston right away, but rather six months later, when it began its move by barge to the JSC (and when its former name was removed). Upon arriving in the Houston area, the shuttle was taken to the JSC dock on Clear Lake, and early one morning was moved by a 144-wheel trailer down NASA Parkway to the Visitor Center (necessitating the removal of some light poles). JSC hosted "Shuttlebration" when the then unnamed shuttle arrived.

In 2013, Space Center Houston acquired NASA 905, one of NASA's two modified Boeing 747 Shuttle Carrier Aircraft. The center planned to display the replica shuttle atop the SCA with interiors of both vehicles accessible to visitors. A competition to name the shuttle was held; that's how it acquired the name Independence. The shuttle underwent extensive renovation in 2013 and 2014 to repair damaged components and update its appearance to more closely match that of the modern shuttle fleet. Modifications included a re-skinning of the exterior, replica thermal tiles, public access doors to the flight deck and payload bay, a glass cockpit on the flight deck, and display cases with shuttle program artifacts.

Finally, on August 14, 2014, a heavy lift was completed to place Independence on top of NASA 905, which had been moved to Space Center Houston from Ellington Field on April 30, 2014. The combined exhibit, named "Independence Plaza", opened to the public on January 23, 2016, at an estimated cost of $12 million.

Here are two pictures taken from the level of the flight deck:

This picture was taken as we entered the flight deck access door from the access tower, and looks down towards one of the 747's wings.
 
Fred is standing on the flight deck gallery platform, and we are looking back towards the rear of the equipment bay.

The main attraction on this level was the flight deck itself. I've seen pictures of actual shuttle crews on the flight deck, and I know there were three command stations. But it appeared that the third one had been removed to allow better access so that visitors could see the pilot and co-pilot chairs and the array of displays in front of them.

The Consoles in Front of the Pilot and Copilot Chairs

It would have been neat to actually sit in one of the command chairs, but these were blocked off, and I can see that it would have caused mammoth delays and crowding if each visitor tried to take a turn there. But the consoles and their displays were impressive enough just viewed from the back of the compartment.

(Incidentally, to take this picture in such close quarters required me to take three separate pictures and stitch them together, but I think the result certainly shows the complexity of the shuttle controls quite well. I used the flash for these pictures.)

The cockpit was actually fairly dark so that the controls could be lit up to provide an even more realistic view of what sitting in one of the cockpit chairs would be like in space or on re-entry. To show you that aspect, I made a short movie, and you can use the player below to watch it:

A Look Around the Space Shuttle Cockpit
(Mouseover Image Above for Video Controls)

I thought that Space Center Houston had done a very good job of making the Space Shuttle come alive for those of us who will never have the opportunity to actually fly in it- which means everyone except for the 355 unique individuals that have actually flown on one or more Space Shuttle missions. The shuttle Independence is very realistic, and actually having it sit atop a 747 carrier aircraft made it even more so.

Looking at the Nose of the Shuttle
from the Access Tower Top Platform

Back outside, I took the opportunity to walk around the top platform of the access tower that allowed me to get close to the nose of both the Shuttle and the 747. There, I was able to get some interesting pictures of the shuttle and its carrier aircraft:

(Click on Thumbnails to View)

Back down on the ground, you are able to walk around under the 747, not something you'd normally be able to do at an airport. The plane is huge, and seems even larger when seen from underneath. Here are some pictures that we took while walking around underneath the aircraft:

(Click on Thumbnails to View)

Independence Plaza was a neat concept, and going through both aircraft was very interesting. After we were done, we walked back inside Space Center Houston to have a look around.

 

Exhibits in Space Center Houston

Space Center Houston is a science and space learning center, the official visitor center of NASA Johnson Space Center in Houston, and a Smithsonian Affiliate museum. The center opened in 1992 and hosts more than 1 million visitors annually in its 250,000-square-foot educational complex. The center holds over 400 space artifacts, permanent and traveling exhibits, attractions, live shows and theaters dedicated to preserving the history of America's human spaceflight program. It has a number of significant artifact galleries.

Some of the Inside Exhibits
 
Model of Shuttle Launch Vehicle

Inside Space Center Houston it was like a big arcade, what with all the various exhibits and display spaces scattered around the cavernous room. There was an auditorium, a large open lecture space, a cafe, and lots and lots of stuff for kids to interact with.

 

In the time remaining after our visit out to Independence Plaza, we just had a small window to wander around inside the Space Center, but it looked like the kind of place where you could spend a fair amount of time.

Model of Shuttle and Launch Boosters

There was also an area that simulated the inside of Skylab, one of the early space stations launched by the United States, and it was interesting to wander through some of the compartments. Sadly, the one thing missing from the simulation was weightlessness:

Inside Skylab
(Mouseover Image Above for Video Controls)

Right at the appointed time, we went back outside to reunite with Karl, Nancy, and Ron, and the five of us drove back to the Hotel ZaZa.

You can use the links below to continue to another album page.


The Van Gogh Exhibit at the MFA
The Houston Museum of Fine Arts
Return to the Index Page for our Trip to Houston