NASA Johnson Space Center
Oral History Project
Commercial Crew & Cargo Program Office
Edited Oral History Transcript
Kathryn
L. Lueders
Interviewed by Rebecca Hackler
Houston, Texas – 17 April 2013
Hackler: Today is April 17, 2013. This oral history interview is being
conducted with Kathy Lueders at the NASA Johnson Space Center in Houston,
Texas for the Commercial Crew & Cargo Program Office History Project.
Interviewer is Rebecca Hackler, assisted by Rebecca Wright.
Ms. Lueders is the former Manager of NASA’s International Space
Station [ISS] Program Transportation Integration Office, and recently
moved to her new role as the Deputy Program Manager for the Commercial
Crew Program. To begin today, can you share a little bit about your
background and how you started with the ISS Program?
Lueders:
I have an engineering degree, and I started out at the NASA White
Sands Test Facility [Las Cruces, New Mexico] coming out of school.
I got my B.S. [Bachelor of Science] in Industrial Engineering, and
was hired into NASA at that point. When I went to White Sands—I’m
going all the way back—at the time the [Space] Shuttle was just
beginning to bring in-house a lot of the work that had been done at
different vendors. The NSLD, the NASA Shuttle Logistics Depot down
in Cape Canaveral [Florida], that was processing Shuttle hardware
wasn’t able to do any of the hypergolic work.
It ended up being an opportune time for me. From a NASA perspective,
they were looking for, “Where’s the place we can do work
on hypergols [hypergolic rocket propellant]?” It ended up that
White Sands was a NASA facility that could do work with hypergols.
They had been doing hypergolic engine testing for a while.
As such, White Sands ended up almost like a NASA subcontractor to
USA [United Space Alliance] under the Shuttle Program because of the
new SFOC [Space Flight Operations Contract] that was developed. So
as we were developing this capability to refurbish RCS [Reaction Control
System] thrusters and OMS [Orbital Maneuvering System] engines and
other components that were in the OMS/RCS propellant systems and pressurization
systems—while this work was moving into the contractors, we
still were retaining this capability for NASA.
Over time, I was working all these projects that were bringing that
work in-house, and I became the White Sands depot manager, working
with USA and [The] Boeing [Company] almost as a subcontractor, supporting.
So I really had to think at that time about how do you set up these
collaborative relationships with these contractors, new relationships
with the contractors to support the work that needed to be done. We
had to think about how we were not just NASA because of our capability.
Obviously our service was an integral part of what USA had to do to
deliver the orbiters down to the Cape, so we were a key component
of their schedules. NASA having this capability and working the logistics
infrastructure—within NASA we had kind of lost that expertise
except out at White Sands.
So in the late 90s, when the [International Space] Station was looking
around the Agency, at that time I had started to apply for depot certification
under the Space Station Program for the White Sands Test Facility.
When the Space Station Program folks came out and met me, at that
point they realized, here’s this unique capability.
I always view White Sands as like a project training ground, because
they grow people there in these very dynamic project environments,
and then you’ve gotten this great experience to run a project.
Nuts and bolts, run budget, schedule, work with program offices, do
this whole thing. I was, at that point, plucked to go and develop
the post-production support contractors, which is really the contract
for sustaining logistics support for the International Space Station.
That was also a key area where setting up those contracts helped me.
The budget expertise and nuts and bolts, hardware, engineering—how
do you bring in capabilities, how do you set up that infrastructure.
That helped me set up the logistics infrastructure for the Space Station
Program heading into a sustaining phase. They had worked development
for most of the 90s, and starting in 2000 was really when we were
starting to look at setting up refurbishment contracts and buying
hardware and how do you set up the next sustaining phase for the program.
As part of that, I had worked a lot with the Deputy Program Manager
[for the Space Shuttle Program] at the time, Jay [H.] Greene, with
my Shuttle experience on what are all the processes that you need
to work to help set up and take care of hardware as it’s going
through the system. We set up the System Problem Review Teams [SPRTs]
for Station, and that was a brand new activity. We set up how we process,
how the engineering teams give direction to the contractors that are
working on the hardware, and how this interaction between the contractors
and the NASA side helps get hardware through the system quickly so
we’re not holding them up, but yet we’re understanding
how they’re working with their hardware. That gave me a better
understanding of how to set up processes where you’re working
with your contractors very quickly.
After doing the logistics job for a while, then based on that experience
with the SPRTs, they had me become the ISS Vehicle Systems Integration
Manager. Setting up the support systems to help support the logistics
activity ended up giving me expertise over in the system area, so
they had me then over the Station processes for all the system teams
and engineering support for the system teams.
At that time, I was picked for a leadership development program. I
went up and worked in [NASA] Headquarters [Washington, DC] for a year,
and actually did two major activities. One, I worked in the Office
of Legislative Affairs as the Space Operations Mission Directorate
[SOMD] rep [representative] to the House Science and Senate Commerce
Committees. Then I understood a lot of the policy approaches that
were emerging at the time—it was the 2005 timeframe—about
Alternate Access to Space [Station], looking for commercial alternatives
to transportation. Shuttle retirement was looming, and I worked a
lot of that language and the relationships on the [Capitol] Hill side.
My second project—Mr. [William H. “Bill”] Gerstenmaier
had put me on an acquisitions strategy team that looked at the acquisition
strategies across ESMD [Exploration Systems Missions Directorate]
and SOMD at the time. We laid out an acquisition map, and that gave
me a lot of insight on different kinds of procurement strategies,
and how they were linking up between ESMD and SOMD. Then I came back
to JSC.
After you’re at Headquarters for a while, sometimes you’re
happy to be back working technical issues. I was really happy about
going to jump into this. At the time, Bob [Robert D.] Cabana was deputy
JSC director. He decided to give me a new opportunity, which was to
be the SEB [Source Evaluation Board] chair for the facilities contract.
JSC was going through a restructuring of all their Center contracts.
For six months, I got to work with a really great team of folks, able
to really learn the procurement side of things and develop what it
takes to put out an RFP [Request for Proposal].
We saw it through the process, getting ready to release RFP. I was
going to go work that whole process, and then the Station program
pulled me off the SEB and asked me to lead their COTS [Commercial
Orbital Transportation Systems] ISS integration efforts. So looking
back at it, I ended up having all of these key experiences that really
helped jumping into that COTS integration job.
My first job was to develop a set of requirements for a commercial
provider to come and berth to the Station. I had six weeks to do that
because I got the job in mid-October [2006] and the first SpaceX [Space
Exploration Technologies Corp.] SRR [System Requirements Review] was
December 4th, or something like that. But I think looking back, it’s
been fortuitous because all those different experiences, and having
different places along the way, have lead me to be able to progress
into these other functions. That’s a long answer. Probably too
much.
Hackler:
No, we appreciate having as much information as possible. You mentioned
Alternate Access to Station, and we know there was also the ISS Commercial
Cargo Services program that was started at [NASA] KSC [Kennedy Space
Center, Florida]. When you heard about these ideas to have commercial
companies help with ISS resupply, what were your first thoughts and
impressions?
Lueders:
The Commercial Crew and Cargo Program actually was here under Alan
[J.] Lindenmoyer. Coming from a Station perspective, I think there
was a level of skepticism, just because the Space Station Program
had been working [Japan Aerospace Exploration Agency] HTV [H-II Transfer
Vehicle] and [European Space Agency] ATV [Automated Transfer Vehicle]
for 16 years, from a concept phase, really for a long time working
through things.
When I was at Headquarters, I understood the intent of the initial
$500 million dollar investment for Commercial Crew and Cargo and some
of the initial concepts. There was initial skepticism, but honestly,
there was a large group of folks—in fact, Alan and Valin [B.
Thorn] came from the Station Program, and the core group of folks
that worked that activity from the Station Program were very excited
about what options you could do, and what different options industry
could come in with. But in 2006, the concept of when we would actually
be able to do resupply contracts was very far away from people’s—I
think people were assuming that we would not probably go out for the
contracts right away.
It was interesting, looking back. There was a camp of folks that were
just really excited about seeing if they would be able to enable an
industry, and then there was a group of folks in Station that had
worked these ATV and HTV vehicles for a really long time. One of the
key things was bridging those two organizations, I think, from a job
perspective. One of the first things I had to do was understand what
we had learned from ATV and HTV and put them in our requirements,
taking those lessons learned and making sure that we applied them
with how we were setting up all of our interface requirements.
There have been a couple rounds of Alternate Access to Space. They
had had an industry day in the summer of 2005, and had looked at different
options and what was out there for folks do. It kind of started the
concept of going out with the RFI [Request for Information], and then
the [COTS] Announcement for the Space Act Agreements. The idea that
we were absolutely going to depend on this activity—it took
us a couple years of many different strategy sessions for us to get
there.
Hackler:
When the COTS program started, was that viewed by the ISS office as
something that would become a primary means of resupply or as more
of a backup option?
Lueders:
Honestly, the Station Program was just really trying to figure it
out. I would say it was very difficult. I think it was more of a backup
option initially, but 2006 is really when we started the planning
for post-Shuttle transportation. I had been on teams in 2004 where
we started to say, “What does the Station look like post-Shuttle?”
A lot of what Station looked like post-Shuttle with those concepts
was a very different, pared-down Station. We were laying in plans
where we didn’t have return [capabilities], we didn’t
have powered payload access anymore. It was a very different Station
concept.
One of the key things for the Station Program that I did in the early
2007 timeframe, working with Mr. [Michael T.] Suffredini [ISS Program
Manager], was to start the discussions with Mr. Gerstenmaier. “We’ve
got to start imagining what Station can be, and what transportation
capability we need to invest in,” to not have us cutting off
opportunities, but to enable opportunities. That was really when we
started planning and laying out, “What are our different transportation
options?”
At the time we started looking at, “Is there any potential for
getting additional HTVs? Is there any potential for getting additional
ATVs?” Because of the work I was doing from a COTS integration
management perspective, we started assessing the progress of these
new vehicles that Alan’s shop were investing in to say, “Are
these really developing in a way that we think we can potentially
do a contract?”
In the fall of 2007, we did an RFI out of SOMD. It was a Headquarters
RFI where we looked at what is the potential industry base for a commercial
cargo contract, and we actually had three days of meetings with industry.
Based on that, it at least showed us there was enough interest out
there that if we put a large value contract out as a carrot, there
is a potential that we may be able to jumpstart this new cargo capability.
We started really pulling together the different options and the concepts
for the Commercial Resupply Services contract February through fall
of 2007, because we were really trying to figure out, “How do
we solve this problem?” How do we solve this transportation
problem for meeting our needs? We thought if we could go out with
a contract, let’s just see if industry can meet our needs. Then
if not, that was data for us to be able to feed back through the agency
and back to the Hill, and be able to work it that way too. It gave
us, from a programmatic perspective, a couple options if we went out
with the contracts.
Hackler:
The original plan for COTS was to have the companies go through their
demonstrations completely before doing the Phase 2 acquisition of
services. When you decided to start developing these contracts for
resupply, was there any resistance to doing that earlier than the
timeline they had originally predicted?
Lueders:
In March 2007 we had a team that included LSP [Launch Services Program],
Ray [Ramon] Lugo [III], Alan Lindenmoyer, and myself, and we looked
at the original assumptions out of COTS and the timelines that the
companies out of COTS had given us for turnaround, because the big
issue is lead time. After working with LSP and the industry data that
I talked about before, what we ended up finding out is if you wait
until you demonstrate to award, then there is this huge transportation
gap of about 27 to 30 months, because typically that’s the lead
time to be able to start the contract.
What really drove the decision—we worked different timelines
and options, and there are a couple of charts that we used to go back
to the Agency—was data that said we really need to let the contract
by December 2008 to have transportation services by December 2010.
Based on that lead time, we needed to start in late 2008 for us to
have a potential for having cargo services by Shuttle retirement in
December 2010.
Honestly, we probably should have done it a little bit earlier, but
the reason we waited until December of 2008—if you looked at
the COTS demonstration milestones and what had been in their Space
Act Agreements—was that the partners were not going to have
pretty significant demonstrations done before 2008. That ended up
sliding out over time, but looking at the original timelines, what
drove the release of the RFP at the time it did was going back and
looking at the original COTS assumptions and timelines. After looking
at their assumptions, we realized that the timing didn’t work,
and we would have been without transportation services for two years.
Hackler:
Did you use any of the COTS milestone progress to inform your decision
about the CRS [Commercial Resupply Services] contracts?
Lueders:
No, you can’t. So that’s the first thing. The contracts
are awarded based on their proposals. Obviously, Mr. Gerstenmaier,
as a selection official, can look at any kind of data that’s
out there to give him an assessment of the risks of each of the proposals
and the ultimate award, but we’re probably getting over into
the procurement activity areas.
As somebody that is managing the contracts, I would say we worked
hand-in-glove with the COTS program because obviously their progress
is lead time for our progress. In fact, we used to have joint quarterlies
together. It was a conscious decision that Alan and I made, to make
sure as NASA we’re speaking with one voice. Understanding that
yes, Alan was managing the demonstration flights, but obviously he
recognized that their progress toward those demonstrations was in
our critical path. Both of us really understood that we had to work
and work strategy together.
The other thing that I think was very key for the both of us was that
not only was I the manager of the CRS contracts, but I was also the
manager of the ISS integration effort. The group of folks that closed
out the ISS integration interface requirements were transitioning
into being on the teams that are also managing the contracts. So that
knowledge of the vehicles through the integration activity was moving
and transitioning into the teams that were working and technically
managing the flights.
We were able to leverage off of that work that had already been done,
and then just do delta requirement closures for the cargo-related
items for the first CRS mission. Because of that, we were able to
optimize our resources and the contractors’ resources, and then
optimize how we were relating with Alan’s folks too. It led
to a smooth transition.
C3PO [Commercial Crew & Cargo Program Office] and my office—I
think a big component of the success of the COTS/CRS model has been
because our two offices worked so closely together. They kept their
investor role, and we were able to keep that government function and
the contract. Honestly, it worked very very nicely. There were a lot
of times that we would sometimes play bad cop, good cop with each
other. Alan would go, “I push them this far. On the Space Act,
I can’t really get them to do it.” I’d say, “Okay,
well I’m going to really push for this milestone.” It
was very collaborative between Alan and me. Honestly, it was a great,
great collaboration between us.
Hackler:
Earlier you mentioned your work putting together the Interface Requirements
Documents [IRDs]. How did you work with the companies to make sure
that they met all the requirements, and how did that impact the development
of their vehicles?
Lueders:
I think that the key thing is I viewed the companies as a partner
in developing the requirements. Remember when I said I had six weeks?
I had six weeks to pull these together. I was very blessed with the
fact that, coming into it, I had a draft set of requirements. The
draft set of requirements went out for the SpaceX SRR. I went to the
SRR and said, “I know that this isn’t a perfect set of
requirements. Really the way I want to hone these requirements is
negotiate them with you, because I think that’s going to help
me get to a better set of requirements.”
Through the January, February, March timeframe, SpaceX really invested
and sent really smart people to come in and negotiate those requirements
with us. “Why are you doing this?” It forced our engineering
folks to really think about, “Well, why are we doing this,”
and help them out. Then when we got done with SpaceX, RpK [Rocketplane
Kistler] came in, and we spent two and a half months, again, working
that same set of requirements and honing them. Then they came in and
asked the hard questions, “Why are you doing this, why does
your verification statement say that?” Our first revision of
the document came out in July of that year.
From the very beginning, from a commercial standpoint I realized that
the key thing for them—the only requirements document that those
providers had was SSP [Space Station Program] 50808 [ISS Interface
Requirements Document]. It had been an Agency decision. In the fall
of 2006 Suffredini decided, “We’re going to get them one
document. All the requirements are going to be in one place.”
We’re not going to do this where you’re referencing all
these books. We’re just going to give them one set, and we’re
going to try to have as much of this stuff as possible in this one
document.
People kind of fuss about the 50808 sometimes not being a perfect
Tier I, II document. It’s a kind of—excuse the term—a
bastardized document because it’s this goofy—it’s
like a CM [Configuration Management] manager’s nightmare in
some cases because it’s got high level things, but it’s
also got these very specific, lower level, what people call PIDS [Prime
Item Development Specifications].
The nice thing was, from a contractor’s perspective they don’t
really care. “Okay, you give me one book.” It’s
really only NASA people that have a Level 1, Level 2. Working it through
with those two companies—honestly, coming out of that summer,
we probably got a book that, for the most part, was 90 percent negotiated.
Not only for the requirement, but for how we were going to verify
the requirement, and what kind of data was required to close out the
requirement. There were some areas where it took them some maturity,
but there were other areas where we really got to understand between
the two of us what it took to close out and verify the requirements.
That did help give them a better understanding of how much work it
was going to take for them to close out the requirements in certain
areas. We really hashed out integrated testing requirements. It took
us a little bit longer to work out our prox ops [proximity operations]
requirements, like how we work the two vehicles working together,
but with most of those it was because the contractors’ engineering
and analysis hadn’t really caught up to be able to even ask
the right questions. “How many Monte Carlo runs did you have
to do?” Some of these negotiations need to happen when you almost
have a Critical Design [Review] work through.
We finished up and got the initial baseline version of the document
out that summer of 2007, then Orbital [Sciences Corporation] was awarded
a contract the next year, so guess what? We went through another round
of negotiations. Honestly, that experience was a really, really good
experience. We went through another round of it just recently, working
with the Commercial Crew Program. With the Commercial Crew Program,
you get a new set of eyes. They come in and go, “Really, why
are you doing that? Why are you doing this?”
It’s a pain to keep a book where everybody is looking at this
set of requirements and trying to make sure that it doesn’t
drive them in a certain way, but it’s also in some ways a really
good thing because it really makes the Station Program have to justify
why that requirement is there, and why it’s worded a certain
way. We’ve gone back and forth on doing separate books and tailoring,
and we’ve kind of resisted that because you really want to have
a single book that’s for commercial vehicles to come to Station,
so that anybody that’s a commercial vehicle can come to Station.
We just went through an exercise and added docking capability, because
before we just had berthing capability. That enabled us to be able
to use that same book for commercial crew, and that same book for
cargo vehicles that may want to move to docking. It allows this still
to be the same, so no commercial company can come in and say, “Oh,
you gave me a whole different set of requirements.” It’s
the same book, and it’s out there for anybody. If there’s
a new kind of concept, if a SpaceX in the future wanted to come up
totally separate of any commercial crew program, they could meet 50808
and be able to come up and dock or berth to Station. It’s actually
a very powerful concept.
Everybody always comes in and says, “Oh, it’s a lot of
requirements.” It is, but so far SpaceX and Orbital have been
able to meet it, and the commercial crew providers have been able
to at least meet that language in a way that they’ve been able
to understand it and close out the requirements to it. It keeps getting
tested across different contractors, but so far all of the new commercial
crew providers have adopted Rev [Revision] D, the latest Rev on 50808,
onto their recent round of CPC [Certification Product Contracts].
Typically these IRDs—they are really just used in the development,
and then maybe you go do some ATPs [Acceptance Test Procedures]. Nobody’s
really looking at that IRD anymore. But this IRD has been used over
and over for the last five or six years. It’s been a huge accomplishment
for the Station team, I think.
Hackler:
Did you ever encounter any issues with companies trying to retain
control of their proprietary data when you were working with them
on the requirements?
Lueders:
It definitely is a big struggle. At the very beginning, we struggled
with when you’re looking at a change to a requirement—when
you ask multiple companies for their comments, in some cases it can
be very revealing. When you’re dealing with commercial companies,
we had to totally change our mindset of how we managed data. It was
a huge change for the Space Station Program.
We learned a lot from Alan, because Alan’s shop really understood
that the most. As we started collecting data, we had to learn that
lesson. You have to care for their data, and make sure that they don’t
lose that because the one thing they have is their data, right? It’s
their competitive advantage. There were definitely a few times that
data got sent inadvertently —thank goodness it’s only
happened twice—but proprietary data and how data is handled
have been huge issues, just things that you have to deal with.
You see the same thing over here under commercial crew. Wherever you’re
in these environments where your agreements mean that they still hold
their IP [intellectual property], then you have to have a way to protect
it. LSP has got it down to a fine art, too. They have a very similar
type of contract, and they probably have more controls on the data
than we do in some cases, but it’s the same kind of thing where
you’re using a service. We learned a lot from them about how
you really have to keep the key aspects of the data regarding the
service under control.
On the other hand, we’ve been very tough with the contractors
about where there are products that are really tied to the Station
mission, like mission integration products. Those are not marked as
proprietary because those are very important documents that, as a
Station program, we need to be able to share amongst all our partners
for us to be able to do our planning.
We did have to work with the contractors about a strategy that if
there’s something that’s design data, you need to start
learning how to separate it out. Don’t give me a single document
that’s got a lot of your mission integration products and these
very technical aspects of your mission in one document. You’re
going to have to develop strategies to separate that, so that we have
a way to give the needed documentation to do mission integration with
the Station. For the parts of the integration process that are very
technical in nature, we just keep that to a core set of folks that
we limit the data access to.
Hackler:
You mentioned sharing the data with the partners. How is it different
working with the commercial companies as opposed to the International
Partners, or even doing integration with Shuttle?
Lueders:
I actually think in a lot of ways there are similarities. The experience
that we had on ATV and HTV—I honestly don’t think we could
have done commercial resupply as well without those experiences. There
were several aspects that, as a program, we had to develop new ways
of thinking to accommodate the IPs [International Partners] that really
paved the way for our commercial approach.
I was Vehicle Systems Integration Manager when we were planning to
fly the first ATV. We had to sit down and define just a basic thing
like COFR [Certification of Flight Readiness]. “What does COFR
mean? What does it mean when you ask a system manager, ‘How
is this vehicle safe to come up to Station?’ What level of deep
diving are they going to be able to do when it’s an International
Partner vehicle?” I had multiple meetings with the Chief Engineer’s
Office about what am I asking engineering or the safety organizations
or MOD [Mission Operations Directorate] to do when they’re coming
in and saying this vehicle is okay.
We had to establish boundaries. We had to say, “You’re
only reviewing it up to this level.” At this point, the program
is taking the risk. Or we’re looking at other areas that the
partner’s COFR at that point is coming in to support. It’s
their responsibility to provide that part of it. Your job is to do
enough, where you’re assessing what they’ve given us,
but not necessarily that you’ve done the work. We had to do
that for ATV, we did that for HTV. Our system teams got very good
at getting a sense of where are the places that you really need to
deep dive, and where are the places that we know how to look at data.
We know how to assess.
We had the same kind of discussion with the [ISS] Node 2 [Harmony]
and [Node] 3 [Tranquility] that were built by [Thales] Alenia [Space].
They weren’t Boeing modules, so we had to figure out the same
kind of thing. Where do you check to make sure that yes, the data
that they’re giving you makes sense, but you’re not redoing
the Italians’ work. All of that caused the Station Program and
the organizations supporting it and doing integration tasks to really
look at things in a different way, in a different model.
Talking to the engineers—when you’ve had to work an Italian
module, and then you worked the Cupola [observatory module], which
was German engineers and different countries, and then you’re
going to work with the JAXA [Japan Aerospace Exploration Agency] guys—if
you then work with a commercial company, at least they speak English.
Those models really, really helped the discussion as I was sitting
down with our system managers and the different parts of the program
to say, “Okay, now we’re trying to do a commercial model,
and here’s our goal. We’re going to put together a set
of requirements where we’re only going to assure safety in the
Keep Out [Sphere] zone and docking.” All those people that started
with the Shuttle model in 1998—after 10 years of new countries,
new vehicles, new interfaces—by the time you get to 2008, they’re
pretty agile.
It was very refreshing to have people come in, and the requirements
have been bounced against an HTV, have been bounced against an ATV.
All that experience really enabled us to be able to have the discussion
with the commercial companies in a way that we said, “Here’s
our baseline, we’ve done it lots of different ways. How do you
want to do it?” and have them propose. But we’re also
very sure about where do we have to engage, what was our minimum.
You struggle in other programs with, “What is the minimum? And
when you’ve integrated a couple vehicles, you start realizing
what a “minimum amount of work may be.” We got smarter
with SpaceX. We’ll get smarter with Orbital.
That’s why it was important that I kept the ISS integration
of the commercial crew vehicles under ON [Transportation Integration
Office], so that within that organization that had been working integration
of these other vehicles, we were bringing in the lessons learned for
the commercial crew vehicles coming in. One of the key folks that
had been working ISS integration, [T.] Quan Le, is now in charge of
the Commercial Crew Integration group within the Transportation Integration
Office. Quan worked all the HTV integration activities and he’s
now sharing those experiences with crew. You’ve got other folks
that had worked Orbital and SpaceX, supporting those activities and
working those activities.
Hackler:
When you’re trying to coordinate all these different resupply
options, how do you address any challenges that may come up when,
for example, there are milestone slips or a flight is delayed or scrubbed?
Lueders:
I think it’s hard. I think one of the real challenges we had
when we let the contract in 2008—we knew that this was pretty
risky, and we understood it was a risk going into it. A lot of our
strategies were based on, “This is a hard job for a company.”
It’s a fixed-price contract. We’re asking them to do something
that NASA hadn’t done in a long time: design and build a brand
new launch vehicle and spacecraft in five years, with multiple vehicles.
In December of 2008 when we let the contract, we knew if we didn’t
manage it in a way that we were recognizing the technical risk, and
if we were going to be beating them up—that was not what was
going to deliver successful cargo providers. In the management of
the contract, a lot of what we did was talk about balance, because
we understood the technical and financial risk these companies were
taking to develop new capabilities for us, for a lot less money overall
than what typical NASA programs had been up to that point.
When you look at it, SpaceX ended up designing and delivering their
first couple vehicles under the COTS program for $600 to$700 million
dollars. On the CRS program, we’ve probably spent a little bit
over a billion dollars, and we had four vehicles on flow at SpaceX
and four vehicles on flow at Orbital. That’s not very much money
overall when you think about all of that.
I would say when we were putting out the contract, we were very thoughtful
about when we anchored our need. We had put December 2010 in there
for a specific reason, but we also put a lot of things in the contract
that enabled the contractor to baseline their dates as we progressed
through the strategy. The contract itself is set up where each time
we ATP, we both agree on what the mission profile is. There are a
lot of ways in the contract where, as we both agree, we can move dates.
We did it specifically. One, because we knew that they were going
to have to, and second, the Station changes so much, we did not want
to be in a situation where you have a [Space Shuttle] Challenger [STS
51-L accident] or a Columbia [STS-107 accident] and we’re down,
and we don’t have this ability to be able to move dates without
getting into launch penalty situations. We spent a lot of time up
front already planning for the fact that we knew we were going to
have to be moving dates around. We allowed it within the contract,
as long as both of us agreed, and where it was one person’s
move versus the other, that we both negotiate whatever level of consideration
we thought was practical at the time.
The contract was awarded in 2008. In March of 2009, we did our contract
kickoffs. Over the next three or four months, we did ATP of the first
missions with both contractors. We planned a gradual ATP of when the
missions were going to go, and in a lot of cases it was conscious—I’ll
give you an example. For SpaceX, the first mission out, SpX-1 [CRS-1],
we said it’s going to be very challenging for them to get just
a pressurized cargo mission up, so we consciously did not fly unpressurized
cargo on that mission.
At the time, we weren’t even planning cargo on the [COTS] demonstration
mission. It was just going up and berthing. We then ended up, under
the CRS contract, buying cargo capability on both demo [demonstration]
flights [SpaceX and Orbital]. But originally there wasn’t any
of that. We knew with that next mission we’re going to have
to take this in steps. SpX-2 [CRS-2] we did our first unpressurized.
Honestly, if they would have flown when they first said they were
going to, we would have been in trouble because it took us two and
a half years to figure out how to do robotic extraction from their
mission.
It goes back to this concept of ‘”balance.” We set
it up as a fixed-price contract, but both sides understood the technical
challenges that both sides had to overcome for us to be able to do
integrated missions. We consciously said, “We’re going
to work with the contractors. We’re going to monitor their milestones.
We’re going to work together when they have schedule slips,
and we’re going to get consideration for those.” Because
both of us wanted to slip in some cases, the timing enabled us to
be able to handle it in a collaborative way.
Because we did it like that, the Station Program over the last year
and a half got a considerable amount of additional capability on the
missions. Because of how we worked SpX-2 and 3, and timing of those—on
SpX-3 we’re going to get six powered middeck lockers instead
of the two powered middeck lockers, for every mission from that point,
which is huge for us because powered science and samples has become
the big driver in Station, from a science perspective.
It’s kind of interesting—in 2007 when we started this
concept, everybody just thought about the amount of upmass. Because
we dreamed about what Station could be, and what is the transportation
capability that matches that dream, guess what? Now we can start talking
about flying back and returning things, where before it was just,
“How are we going to survive on [Russian] Progress [vehicle]
flights? We’re not going to have human samples, we’re
not even going to be able to return.” Now we have the ability
to do National Lab concepts.
The animal enclosure module, that’s another change. SpX-4, we’re
going to be flying mice and rats. That was never, ever dreamed about,
that we got return [capability]. What’s going to be great about
this is, as we’re building the commercial crew concepts, the
commercial crew concepts mean that you get science return in an hour.
Which is critical for any micro-g [gravity] experiments with animals,
because if you don’t get it turned over and in a lab within
the two- to four-hour timeframe, the micro-g effects on the samples
go away. Even on other samples, if you can get where experimenters
can look at that as close to that micro-g environment as possible,
that’s how we’re maximizing the science.
Guess who does one-hour turnover? Commercial crew vehicles do one-hour
turnover. When we were building the commercial crew requirements,
we put in our science requirements. We put in powered middeck capability
so that, along with returning crew, you can be returning science samples.
It’s another case where we had to dream about what we want Station
transportation to look like, “What do we want to enable from
a Station model perspective?”
The key learning thing for me is if all we’re worried about
is slips, and we’re not worried about what does this mean for
a healthy contractor, then we’re in trouble. Along the way,
we’ve had to understand what is the risk to the contractor,
what do we want them to be, and then at the same time, hold them to
their performance.
SpaceX flew three times to Station in their first year of operation,
and delivered cargo—May 2012, October 2012, March 2013—a
brand-new commercial company doing that. I don’t think Shuttle
flew three times in their first year. It’s phenomenal, it’s
phenomenal that they did that. But in 2009, if I would have been driving
them into the ground with launch slip costs, we wouldn’t have
been able to have gained the benefit of their expertise.
It’s going to be the same kind of thing for commercial crew.
We’re going to have to understand their technical challenges.
We’re going to have to understand that we want providers. We’re
also going to have to understand that development is hard, and we’ve
got to balance them meeting their objectives with the ability for
them to stay moving towards the target. The other thing you’ve
always got to balance with a fixed-price contractor is you don’t
want them to be starving.
We were always very cognizant of having a healthy contractor, having
them be challenged and pushing them forward, and making sure that
they understand that they’re still accountable for providing
a service to the government, but you don’t want them making
the wrong move because when they make the wrong move, then we don’t
have the capability. So we talk a lot about balance. We’ll be
talking a lot about balance as we get into commercial crew, because
it will be even more important to make sure that they’re making
the right decisions to not give up safety.
Hackler:
It sounds like it’s really exciting to see all that work coming
to fruition, and being able to do all these science missions.
Lueders:
There have been a lot of times we didn’t think we were going
to get here. It’s just phenomenal. I’m just so happy to
see there’s a rocket on the pad, I don’t know how many
years I was looking at just pictures. I also realize how very blessed
I am because, in five years, I’ve been able to see more hardware
under my contracts—Amanda [M.] Mitskevich and LSP, obviously
they’re seeing this—but there’s not any place else
in the Agency where you are going to go in and see—SpaceX at
one time had four capsules all lined up.
They were like, “Hey Kathy, here are your four Dragons.”
There just isn’t anywhere else you can do that. It’s phenomenal,
it’s very rewarding. It’s a lot of work, and I’m
not saying that it wasn’t very nerve racking, but we keep going.
The most fun part of my job is to go into some of these places and
see people about your age, Rebecca, working and being excited about
this stuff. When I go to SpaceX, I see it all the time. When I’m
at Orbital, I would be in meetings with managers and we’d all
be old. But the really cool thing is I went to the control center
at Wallops [Flight Facility, Virginia], and their test team that was
checking out the rocket—I was like, “Here, I finally found
you guys!” I knew there were some young people working this
program on the Orbital side, it couldn’t just be all old guys.
These are people that are learning how to fly rockets, and learning
how to fly spacecraft, and they’re learning how to go to Station.
They’re learning about what it takes to do reentry shields and
work all these things. When you go and look at all the people that
are learning now about what it takes to fly into space—it was
funny, talking to the Orbital guys after they got the contract and
we were working with them for about seven, eight months—they
said, “We just thought this was like a satellite.” But
guess what, now they know how to do mission integration, they know
to do integrated operations. Our MOD guys are like, yes, they can
go do an integrated mission.
The SpaceX guys—the first integrated sim [simulation] they did
scared us to death, but honestly they did phenomenally. This last
mission [CRS-3], their lead flight controller—I think he’s
27 or 28 years old—did a phenomenal job when they were having
a problem with their spacecraft. The spacecraft is in an uncontrolled
tumble and the SpaceX flight team is just continuing, and they recovered
that spacecraft. I think that’s not only an achievement for
SpaceX, but an achievement for NASA. The SpaceX team really learned
from our team. That, to me, is tech [technology] transfer at its ultimate.
We’re teaching other people how to go into space, and it’s
just phenomenal.
Wright:
You’ve really hit a lot of good spots. Thank you.
Hackler:
You really have, it’s been very informative. Thank you very
much.
[End
of interview]
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