In the World of the High Tech Redneck, the Graybeard is the old guy who earned his gray by making all the mistakes, and tries to keep the young 'uns from repeating them. Silicon Graybeard is my term for an old hardware engineer; a circuit designer. The focus of this blog is on doing things, from radio to home machine shops and making all kinds of things, along with comments from a retired radio engineer, that run from tech, science or space news to economics; from firearms to world events.
The small rocket and capsule have been flying since
April 2015
and have combined to make 38 launches, all but one of which were successful,
and 36 landings. In its existence, the New Shepard program flew 98 people to
space, however briefly, and launched more than 200 scientific and research
payloads into the microgravity environment.
I'd wager that, like me, the early New Shepard flights were the first time you had heard of Blue Origin and the first time you had seen boosters land for
reuse.
So why is this over 25 year-old company, which has been flying these missions for over a decade, ending
this flagship program? They're feeling the pressure to perform for the moon
landing program, Artemis, and they don't want anything to distract that
effort.
“We will redirect our people and resources toward further acceleration of
our human lunar capabilities inclusive of New Glenn,” wrote the company’s
chief executive, Dave Limp, in an internal email on Friday afternoon. “We
have an extraordinary opportunity to be a part of our nation’s goal of
returning to the Moon and establishing a permanent, sustained lunar
presence.”
The cancellation came, generally, as a surprise to Blue Origin employees.
The company flew its most recent mission eight days ago, launching six
people into space. Moreover, the company has four new boosters in various
stages of development as well as two new capsules under construction. Blue
Origin has been selling human flights for more than a year and is still
commanding a per-seat price of approximately $1 million based on recent
sales. It was talking about expansion to new spaceports in September.
There's also the not-so-small consideration that even with price around $1
million per seat, there are persistent reports the costs per mission are more
than the price of admission can bring in. There's at least 500 people on
the staff at Blue Origin who work on New Shepard flight. They're looking for
people for positions both on New Glenn and their other big ticket, NASA
programs.
Look, Blue has gotten lots of criticism for how long it has taken to get New
Glenn flying. This is a good way to get experienced employees with a big head
start onto those big programs. The only cost is that people like
Katy Perry will have to wait longer
to get into space. If they actually start flying New Shepard again.
Blue Origin's New Shepard launches its second human spaceflight from West
Texas, Oct. 13, 2021. Credit: Blue Origin
Nothing is quite as vivid a reminder that the earliest possible launch date
for Artemis II is near as realizing that the checkout of the Artemis II SLS
launch vehicle is nearly to complete and going into the final tests before
launch.
"Engineers have remained on track or ahead of schedule as they work through
planned activities at the launch pad and are getting ready to conduct a wet
dress rehearsal, leading up to a simulated 'launch,'" the agency wrote in
an update
on Monday (Jan. 26).
...
The upcoming wet dress rehearsal will officially kick off about two full
days ahead of its simulated T-0 liftoff time, as launch teams begin tending
their stations. The most critical portion of the test will take place on
Saturday, when cryogenic fuel loading of the rocket's two main stages will
commence. In total, SLS will take on more than 700,000 gallons (2,650,000
liters) of cryogenic propellant and weigh approximately 5.75 million pounds
(about 2.6 million kilograms) once fully fueled.
The goal will be to run the SLS mission clock down to T-33 seconds, the
point at which the rocket's computer would take over system monitoring
during an actual launch attempt. If all goes according to plan, after SLS'
T-33 second countdown hold, mission operators will reset the simulated clock
to T-10 minutes and run it down a second time, to T-30 seconds.
NASA plans to put SLS and ground teams through their paces during the test,
with several "runs" during the T-10 minute terminal count period to assess
operating procedures for holding, resuming and recycling the mission clock,
according to the agency's update.
NOTE: Stating the start time of the test as "two full days ahead of its
simulated" liftoff time means tonight, Jan. 29. at 9:41 PM Eastern.
The Artemis I wet dress rehearsal was plagued by fuel leaks - I remember
asking rhetorically
if NASA had forgotten everything
about working with liquid hydrogen. Aside from the fueling leaks there were
other issues that forced SLS to be rolled back to the Vehicle Assembly
Building (VAB) three times for repairs. NASA officials have voiced confidence
that they have solved those issues, but even a perfect wet dress rehearsal may
not result in a Feb. 6 launch. I think we can confidently say that if they
have to roll the SLS back to the VAB at all, even once, Feb. 6th is out.
NASA has published the same sort of calendar of acceptable launch days for
this launch as they did for Artemis I. Note that there are only 5 days
available per month - except for April, which seems to have pulled a day out
of May.
Since the vast majority of you readers aren't here near the KSC, I'm betting
you aren't aware that our weather forecasts for this weekend are not just
record-breaking, they're pretty much completely record shattering. Granted
this forecast is a few days in advance, our overnight low temperature
forecast, 40-ish miles south of Pad 39B is that Sunday morning will be 25. The
existing record low for February 1 is 32 degrees. Monday morning's forecast of
30 is lower than the February 2nd record of 33. About the accuracy of the
forecasts, I feel I should point out for both yesterday and today, the
forecast low was 40 degrees but the actual temperature was 36.
The point of this side note is that the SLS has components that can be
affected by these unusually low temperatures. NASA says they've taken
preliminary steps to safeguard the rocket from the inclement weather. The big
picture is that if the launch actually goes Friday night in that launch
window, the temperatures appear to be in the range of 50 +/- "a few".
That out of the way, while missions can always be changed or aborted, the
broad brush look at the mission is that it will last 10 days. It will spend
time in Earth orbit to verify important systems that haven't been tested yet,
like the crew's air supply, before doing its translunar orbit injection. The
published look at the mission has been tweaked a bit to look like this:
Not visible in this is that in the lunar space, it could be a Near Rectilinear
Halo Orbit (NRHO) that is something core to the Artemis approach to getting to
the moon. It's not mentioned here. That NRHO could take the four astronauts
farther from Earth than any human has ever been - depending on launch time and
how well the mission unfolds.
A major difference between this mission and Apollo 8, for example, this is a
trajectory that can't allow Artemis II to go into orbit around the moon - it's
called a free-return trajectory.
The main purpose of the mission, though, is to thoroughly check out the
Artemis hardware and verify it can do everything required for the lunar
landing mission, Artemis III, currently estimated to be in 2028.
It was practically a side note that there was
a launch three days before Christmas
of the Japanese H3 rocket carrying a navigation satellite, and the mission
failed. This was the seventh flight of an H3, and the second failure -
the first launch was the other failure.
Ordinarily, when a mission fails the inevitable failure analysis gets carried
out and we learn a bit more about what happened. In this case, the day after
the launch we got this feedback.
The H3 launched from Tanegashima Space Center on Sunday (Dec. 21) at 8:51
p.m. EST (0151 GMT and 10:51 a.m. local Japan time on Dec. 22), carrying a
navigation satellite known as Michibiki 5, or QZS-5, aloft.
"However, the second stage engine’s second ignition failed to start normally
and shut down prematurely," officials with the Japan Aerospace Exploration
Agency (JAXA) said in a
statement early Monday morning
(Dec. 22). "As a result, QZS-5 could not be put into the planned orbit, and
the launch failed."
Here we are just over a month since the failed mission and a new release from
JAXA sounds a bit different from the stated, "...the second stage engine’s
second ignition failed to start normally and shut down prematurely." As
Ars Technica's Stephen Clark put it, “Japan’s H3 rocket found a new way to fail last month, apparently eluding
the imaginations of its own designers and engineers.”
Even with all the photos and video captures they have, it isn't entirely clear
what happened. The "big picture" set up will be familiar to you if you've
watched lots of mission videos. In most launches we can watch, if there's a
payload fairing, it stays on until the rocket is well above the thickest part
of the atmosphere, well beyond "Max Q" or the highest dynamic pressures on the
rocket that come from a combination of air density and speed. Some vehicles
seem to drop the booster and start the second (or upper) stage engine(s)
before they drop the fairings while others will drop the fairings before Main
Engine Cut Off (MECO).
Some of the material is difficult to grasp for a non-Japanese speaker
unfamiliar with the subtle intricacies of the H3 rocket’s design. What is
clear is that something went wrong when the rocket released its payload
shroud. Video beamed back from the rocket’s onboard cameras showed a shower
of debris surrounding the satellite, which started wobbling and leaning in
the moments after fairing separation. Sensors also detected sudden
accelerations around the attachment point connecting the spacecraft with the
top of the H3 rocket.
...
The jolt from staging dislodged the satellite from its mooring atop the
rocket. Then, the second stage lit its engine and left the satellite in the
dust. A rear-facing camera on the upper stage captured a fleeting view of
the satellite falling back to Earth. In the briefing package, Japanese space
officials wrote that Michibiki 5 fell into the Pacific Ocean in the same
impact zone as the H3’s first stage.
Whatever caused the satellite to break free of the rocket damaged more than
its attach fitting. Telemetry data downlinked from the H3 showed a pressure
drop in the second stage’s liquid hydrogen tank after separation of the
payload fairing.
“A decrease in LH2 tank pressure was confirmed almost simultaneously,”
officials wrote. A pressurization valve continued to open to restore
pressure to the tank, but the pressure did not recover. “It is highly likely
that the satellite mounting structure was damaged due to some factor, and as
a result, the pressurization piping was damaged.”
In this day of computer assisted drawing and image generation, JAXA presented
this stunningly realistic rendering of the damage to the satellite's mounting
structure as the payload (blue block on the right) breaks away and starts to
fall back to Earth.
Japan's space agency provided this illustration of what happened, just in case
you couldn't visualize it. Credit: JAXA
I really need to work on being less sarcastic.
Whatever caused the satellite to break away led to immediate damage to the
upper stage liquid hydrogen fuel tank. Telemetry from the upper stage showed
an immediate drop in pressure. A system on board that's supposed to help
re-pressurize the second stage turned on but had no effect, indicating damage
as shown in the above CAD rendering.
Even with this damage, the second stage engine lost 20 percent of its
thrust, but it fired long enough to put the rocket into a low-altitude orbit.
The orbit was too low to sustain so the second stage reentered the atmosphere
and burned up within a couple of hours.
Technicians mount the H3 rocket’s payload fairing, containing the Michibiki 5
satellite, on top of the launcher’s second stage. Credit: JAXA
JAXA must complete the latest H3 failure investigation in the coming
months to clear the rocket to launch the nation’s Martian Moons
Exploration (MMX) mission in a narrow planetary launch window that opens
in October. MMX is an exciting robotic mission to land on and retrieve
samples from the Martian moon Phobos for return to Earth. MMX’s launch
was previously set for 2024, but Japan’s space agency delayed it to this
year due to earlier problems with the H3 rocket.
Notice I didn't say a suite - a group of related problems. I said suit of
problems in reference to the lunar EVA suits they'll be wearing. Somewhere in
the list of problems they're working through is that some observers are going
to say, "why were suits not a problem for Apollo over 50 years ago but we have
problems with them now?" The answers there get into the differences between
Apollo's focus on "doing everything we can to ensure we can put a couple of
guys on the moon for a couple of days to do what they can do" and Artemis'
realization that no matter what Apollo did or accomplished, they have to
somehow do more to make it look better for people that aren't paying as much
attention as, say, YOU are paying.
We've been tracking the work on the Artemis suits
since they were first getting mentioned
and through
the development. Monday, we get a report from
Ars Technica on the suits
Axiom built and they're testing now. According to former astronaut Kate
Rubins who left the agency last year but is involved with testing and
evaluating the new suits, “I don’t think they’re great right now.”
Crew members traveling to the lunar surface on NASA’s Artemis missions
should be gearing up for a grind. They will wear heavier spacesuits than
those worn by the Apollo astronauts, and NASA will ask them to do more than
the first Moonwalkers did more than 50 years ago.
The Moonwalking experience will amount to an “extreme physical event” for
crews selected for the Artemis program’s first lunar landings, a former NASA
astronaut told a panel of researchers, physicians, and engineers convened by
the National Academies.
Kate Rubins
attended a conference at
The National Academies of Science
last Tuesday through Thursday and outlined the concerns NASA officials often
talk about: radiation exposure, muscle and bone atrophy, reduced
cardiovascular and immune function, and other adverse medical effects of
spaceflight.
It's widely quoted that there has been a continuous presence of humans in
space for decades thanks to the International Space Station - with the
implication that being in space isn't a big deal anymore. The important
exception is that the lunar environment is not that of the ISS. It's harsher.
Probably the most important of those is that the Moon is outside the
protection of the Earth’s magnetosphere for half of the lunar month. Lunar
dust is pervasive, and will get into lander. Probably the only thing that
could be helpful is the Moon's partial gravity, about one-sixth as strong as
the pull we feel on Earth.
Rubins is a veteran of two long-duration spaceflights on the International
Space Station, logging 300 days in space and conducting four spacewalks
totaling nearly 27 hours. She is also an accomplished microbiologist and
became the first person to sequence DNA in space.
“What I think we have on the Moon that we don’t really have on the space
station that I want people to recognize is an extreme physical stress,”
Rubins said. “On the space station, most of the time you’re floating around.
You’re pretty happy. It’s very relaxed. You can do exercise. Every now and
then, you do an EVA (Extravehicular Activity, or spacewalk).”
“When we get to the lunar surface, people are going to be sleep shifting,”
Rubins said. “They’re barely going to get any sleep. They’re going to be in
these suits for eight or nine hours. They’re going to be doing EVAs every
day. The EVAs that I did on my flights, it was like doing a marathon and
then doing another marathon when you were done.”
They'll be in these suits eight or nine hours? Per day? How much do those
suits weigh?
Including a life-support backpack, the commercial suit weighs more than 300
pounds in Earth’s gravity, but Axiom considers the exact number proprietary.
The Axiom suit is considerably heavier than the 185-pound spacesuit the
Apollo astronauts wore on the Moon. NASA’s earlier prototype exploration
spacesuit was estimated to weigh more than 400 pounds, according to a 2021
report by NASA’s inspector general.
“We’ve definitely seen trauma from the suits, from the actual EVA suit
accommodation,” said Mike Barratt, a NASA astronaut and medical doctor.
“That’s everything from skin abrasions to joint pain to—no
kidding—orthopedic trauma. You can potentially get a fracture of sorts. EVAs
on the lunar surface with a heavily loaded suit and heavy loads that you’re
either carrying or tools that you’re reacting against, that’s an issue.”
Note: When you see numbers like 300 pounds for these Axiom suits or 185
for the Apollo era suits, divide those by six to estimate what they'll feel
like on the moon (100 or 33.8 lb.s) and remember that only applies when
lifting the suit in lunar gravity. In the low G (or zero G) environments, the
mass feels like the full number (300 or 185) when it's the inertia being felt
while moving the weight. That's something they "have to get used to." -
SiG
When comparing specifications, the Axiom suits come across as more capable
than the Apollo suits that are 120 lbs lighter. They can support longer
spacewalks and provide greater redundancy, and they’re made of modern
materials to enhance flexibility and crew comfort. But the longer space (moon)
walks are because they have more storage to use, needed because they’re
bringing essentials – air, water, waste storage room with them. On the moon
they’ll be a slog, Rubins said.
Never forget RA Heinlein’s observation, There Ain’t No Such Thing As A Free
Lunch, or TANSTAAFL. The Axiom suits fly in the face of what astronauts
using the Apollo suits concluded – to quote one of them, Harrison “Jack”
Schmitt, who spent 22 hours walking on the Moon during NASA’s Apollo 17
mission in 1972 said. “I’d have that go about four times the mobility, at
least four times the mobility, and half the weight,” and if he didn’t say that
word directly, it’s pure TANSTAAFL.
“Now, one way you can… reduce the weight is carry less consumables and learn
to use consumables that you have in some other vehicle, like a lunar rover.
Any time you’re on the rover, you hook into those consumables and live off
of those, and then when you get off, you live off of what’s in your
backpack. We, of course, just had the consumables in our backpack.”
It’s worth pointing out that the first landing (currently NET 2028) will not
have a rover. At present, that’s not expected to go to the moon until
“sometime in the 2030s.” That seems to mean they have to live with the 300 lb
suits.
“I do crossfit. I do triathlons. I do marathons. I get out of a session in
the pool in the NBL (Neutral Buoyancy Laboratory) doing the lunar suit underwater, and I just want to go home and take a
nap,” Rubins told the panel. “I am absolutely spent. You’re bruised. This is
an extreme physical event in a way that the space station is not.”
The new suits are better than the Apollo suits in some motions – mostly those
that are improved by the new joints. That doesn’t include recovering from a
fall onto the lunar surface by yourself.
“You’re face down on the lunar surface, and you have to do the most massive,
powerful push up to launch you and the entire mass of the suit up off the
surface, high enough so you can then flip your legs under you and catch the
ground,” Rubins said. “You basically have to kind of do a jumping pushup…
This is a risky maneuver we test a whole bunch in training. It’s really
non-trivial.”
NASA astronaut Loral O'Hara kneels down to pick up a rock during testing of
Axiom's lunar spacesuit inside NASA's Neutral Buoyancy Laboratory in Houston
on September 24, 2025. Credit: NASA
Yes, this is the story I mentioned Monday and said it was too long and
involved to get it done in the time I had. There's more at the
Ars Technica source that ended up getting cut, including some meaty aspects of the story
and what has been going on. When I try to mentally balance the state where they appear
to be and what appear to be possible directions they could go, I keep
coming back to that first Axiom story I linked to being nearly four years ago.
Is there enough time to do anything beyond simple band-aids?
I started trying to summarize, shorten and link to a good space-related story tonight and I couldn't do it. The source is so long and so involved that I didn't have enough time to summarize it. I'll try to work at that tomorrow.
There seems to be at least a few stories around indicating that 2026
isn't off to a good start in the space industry.
Rocket Lab's Neutron slips after test failure
Rocket lab has been developing the Neutron for a few years and had been
talking about a first launch early this year, when they
announced a schedule slip to this summer
back in mid-November ('25). During tests on Jan. 21 (Wednesday), they suffered
a structural failure of the Neutron’s Stage 1 tank during a hydrostatic
pressure test. “There was no significant damage to the test structure or
facilities,” Rocket Lab reported. They haven't directly addressed schedule
impacts, understandable considering the limited time to examine the damaged
tank, when
this report first showed up online.
The Neutron rocket is designed to catapult Rocket Lab into more direct
competition with legacy rocket companies like SpaceX and United Launch
Alliance. “The next Stage 1 tank is already in production, and Neutron’s
development campaign continues,” the company said. Setbacks like this one
are to be expected during the development of new rockets. Rocket Lab has
publicized aggressive, or aspirational, launch schedules for the first
Neutron rocket, so it’s likely the company will hang onto its projection of
a debut launch in 2026, at least for now.
The Neutron rocket’s Stage 1 tank. Image credit: Rocket Lab
It was a bad day for Chinese Rockets
January 16, to be specific. They lost two vehicles on the same
day.
The first loss was a failure of a Long March 3B booster, a rocket that has worked up a
good number of successful launches.
The first of the two failures involved the attempted launch of a Shijian
military satellite aboard a Long March 3B rocket from the Xichang launch
base in southwestern China. The Shijian 32 satellite was likely heading for
a geostationary transfer orbit, but a failure of the Long March 3B’s third
stage doomed the mission. The Long March 3B is one of China’s most-flown
rockets, and this was the first failure of a Long March 3-series vehicle
since 2020, ending a streak of 50 consecutive successful flights of the
rocket.
And then… Less than 12 hours later, another Chinese rocket failed on
its climb to orbit. This launch, using a Ceres-2 rocket, originated from the
Jiuquan space center in northwestern China. It was the first flight of the
Ceres-2, a larger variant of the light-class Ceres-1 rocket developed and
operated by a Chinese commercial startup named Galactic Energy. Chinese
officials did not disclose the payloads lost on the Ceres-2 rocket.
Isar Aerospace stands down from their next test flight
They had been preparing for January 21st launch of the Spectrum rocket, when a
technical issue surfaced and they scrubbed.
Hours before the launch window was set to open, the German company said that
it was addressing “an issue with a pressurization valve.” A valve issue was
one of the factors that caused a Spectrum to crash moments after liftoff on
Isar’s first test flight last year. “The teams are currently assessing the
next possible launch opportunities and a new target date will be announced
shortly,” the company wrote in a post on its website.
The Spectrum rocket is in the one metric ton payload class, or 2200 lbs to Low
Earth Orbit. About twice the payload of a Rocket Lab Electron, but well short of the Neutron or Falcon 9.
Europe’s satellite industry is looking for more competition for the Ariane 6
and Vega C rockets developed by ArianeGroup and Avio, and Isar Aerospace
appears to be best positioned to become a new entrant in the European launch
market. “I’m well aware that it would be really good for us Europeans to get
this one right,” said Daniel Metzler, Isar’s co-founder and CEO.
“The mission follows the successful NG-2 mission, which included the landing
of the ‘Never Tell Me The Odds’ booster. The same booster is being
refurbished to power NG-3.”
That November 13th NG-2 mission was 10 weeks ago. Let's assume they launch
NG-3 on February 28th, just to get a number to play with - that's five weeks
from today, making a 15 week turnaround from first flight of the booster to its second. If the launch is two weeks later,
mid-March, it's still only 17 weeks for the turnaround time.
A direct comparison to SpaceX is difficult, partly because Blue Origin is
working in an aspect of reusability that SpaceX didn't have for their first
successful booster recovery. Essentially, Blue Origin is learning things about
reusability that didn't exist for SpaceX. Nobody had the experiences they
learned from.
By way of comparison, SpaceX did not attempt to refly the first Falcon 9
booster it landed in December 2015. Instead, initial tests revealed that the
vehicle’s interior had been somewhat torn up. It was scrapped and inspected
closely so that engineers could learn from the wear and tear.
SpaceX successfully landed its second Falcon 9 booster in April 2016, on the
23rd overall flight of the Falcon 9 fleet. This booster was refurbished and,
after a lengthy series of inspections, it was reflown successfully in March
2017, nearly 11 months later.
Blue Origin originally planned to launch its MK1 lunar lander on the third
flight of New Glenn, but it pivoted to a commercial launch as the lunar
vehicle continues preparatory work.
On Wednesday,
the company announced
that it had completed the integration of the MK1 vehicle and put it on a
barge bound for Johnson Space Center in Houston. There, it will undergo
vacuum chamber testing before a launch later this spring—or, more likely,
sometime this summer.
Artist's concept drawing of two Block 2 BlueBird satellites for AST Space Mobile.
The satellites will provide direct-to-cell connectivity.
Credit: AST SpaceMobile
It's an oddity of US Space travel that every mission which ended in loss of
crew and vehicle occurred in less than one calendar week - six days, although
those accidents span 36 years. That week is January 27th through February 1st;
while the years run from 1967 through 2003.
January 27, 1967 was the
hellish demise of Apollo 1
and her crew, Gus Grissom, Roger Chaffee and Ed White, during a pad test, not
a flight. In that article, Ars Technica interviews key men associated
with the mission. In the intervening years, I've heard speculation that
we never would have made it to the moon without something to shake out a bit
of the NASA management idiocy, but that may just be people logically
justifying their opinions. Like this quote from Chris Kraft, one of the
giants of NASA in the '60s.
There was plenty of blame to go around—for North American [they built the Apollo
capsule - SiG], for flight control in Houston, for technicians at Cape
Canaveral, for Washington DC and its political pressure on the schedule and
its increasingly bureaucratic approach to spaceflight. The reality is that
the spacecraft was not flyable. It had too many faults. Had the Apollo 1
fire not occurred, it’s likely that additional problems would have delayed
the launch.
“Unless the fire had happened, I think it’s very doubtful that we would have
ever landed on the Moon,” Kraft said. “And I know damned well we wouldn’t
have gotten there during the 1960s. There were just too many things wrong.
Too many management problems, too many people problems, and too many
hardware problems across the whole program.”
The next big disaster was January 28, - the next day on the calendar, but in
1986, 19 years later.
Space Shuttle Challenger
was lost a mere 73 seconds into mission 51-L as a flaw in the starboard solid
rocket booster allowed a secondary flame to burn through supports and cause
the external tank to explode. It was the kind of cold day that we
haven't had here in some years. It has been reported that it was between
20 and 26 around the area on the morning of the launch and ice had been
reported on the launch tower as well as the external tank. O-rings that
were used to seal the segments of the stackable solid rocket boosters were too
cold to seal. Launch wasn't until nearly noon and it had warmed
somewhat, but the shuttle had never been launched at temperatures below 40
before that mission. Richard Feynman famously demonstrated that cold was
likely the cause during the televised Rogers Commission meetings,
dropping a section of O ring compressed by a C-clamp into his iced water
to demonstrate that it had lost its resilience at that temperature. The
vehicle would have been colder than that iced water.
As important and memorable as that moment was, engineers such as
Roger Boisjoly
of Morton Thiokol, the makers of the boosters, fought managers for at least
the full day before the launch, with managers eventually overruling the
engineers. Feynman had been told about the cold temperature issues with the
O-rings by several people, and local rumors were that he would go to some of
the bars just outside the gates of the Kennedy Space Center and talk with
workers about what they saw. The simple example with the O-ring and glass of
iced water was vivid and brought the issue home to millions.
There's plenty of evidence that the crew of Challenger survived the explosion.
The crew cabin was specifically designed to be used as an escape pod, but
after most of the design work, NASA decided to drop the other requirements to
save weight. The recovered cabin had clear evidence of activity: oxygen
bottles being turned on, switches that require a few steps to activate being
flipped. It's doubtful they survived the impact with the ocean and some
believe they passed out due to hypoxia before that. We'll honestly never know.
Finally, at the end of the worst week,
Shuttle Columbia, the oldest surviving shuttle flying as mission STS-107, broke up on
re-entry 17 years later on February 1, 2003 scattering wreckage over the
central southern tier of the country with most debris along the
Texas/Louisiana line. As details emerged about the flight, it turns out that
Columbia and everyone on board had been sentenced to death at launch - they
just didn't know it. A chunk of foam had broken off the external tank during
liftoff and hit the left wing's carbon composite leading edge, punching a hole
in it. There was no way a shuttle could reenter without exposing that wing to
conditions that would destroy it. They were either going to die on reentry or
sit up there and run out of food, water and air. During reentry, hot plasma
worked its way into that hole, through the structure of the wing, burning
through piece after piece, sensor after sensor, until the wing tore off the
shuttle and tore the vehicle apart. Local lore on this one is that the
original foam recipe was changed due to environmental regulations, causing
them to switch to a foam that didn't adhere to the tank or stand up to abuse
as well as the original.
In 2014, Ars Technica did a deep dive article on possible ways that Columbia's
crew could have been saved.
They republished that on February 1, 2023, the anniversary of the
disaster. It's interesting speculation, very detailed, compiled by a man who
claims to have been a junior system administrator for Boeing in Houston,
working in Mission Control that day.
Like many of you, I remember them all. I was a 13 year-old kid midway through
7th grade in Miami when Apollo 1 burned. By the time of Challenger, I was a 32
year old working on commercial satellite TV receivers here near the KSC and
watched Challenger live via the satellite TV, instead of going outside to
watch it as I always did. Mrs. Graybeard had just begun working on the
unmanned side on the Cape, next door to the facility that refurbished the
Shuttles SRBs between flights, and was outside watching the launch. Columbia
happened when it was feeling routine again. Mom had fallen and was in the
hospital; we were preparing to go down to South Florida to visit and I was
watching the TV waiting to hear the double sonic booms shake the house as they
always did. They never came.
The failure reports and investigations of all three of these disasters center
on the same things: the problems with NASA's way of doing things. They tended
to rely on "well, it worked last time" when dealing with dangerous situations,
or leaned too much toward, "schedule is king" all as a way of gambling that
someone else would be the one blamed for delaying a mission. Spaceflight is
inherently very risky, so some risk taking is inevitable, but NASA had taken
stupid risks too often. People playing Russian Roulette can say, "well, it
worked last time," but having worked doesn't change the odds of losing.
Last year was the first time I linked to a post on Casey Handmer's blog on
this topic, but not the exact incidents, but the management problems that get
us to the point where such accidents happen. The post is about
Dittemore's law and you might recognize the name.
Ron Dittemore is the
retired former Space Shuttle program manager who was ultimately responsible
for the series of decisions that resulted in the Columbia disaster, which
killed seven of the lost 25 astronauts. Here's Handmer's money
quote:
Dittemore’s Law states that “A team composed of sufficiently competent,
motivated, well-resourced individuals will tend to produce a
collective outcome that is diametrically opposed to the intended,
individually desired outcome.”
In physics terms, it’s something like diamagnetism.
Casey Handmer's Dittemore's Law post is definitely worth a read.
It has been oddly busy this week and especially late yesterday through today.
The busy managed to conflict with my regular times to go find something to
write about.
All could think of was to repost one of my all-time favorite goofy posts,
about
breeding Spider Chickens. It was from the period of peak crazy over Covid, June of 2021.
If there's a surprise to this announcement, it's in just who looks to be doing
the constellation: Blue Origin. While Jeff Bezos founded both Blue and Amazon,
and Amazon already has been launching satellites for the LEO, it seems a
little harder to pin down that Blue will launch all of them, but they throw
around some pretty spectacular numbers for it.
Conceptual drawing of the TerraWave system. Image credit: Blue Origin
The 5280 satellites in LEO will communicate at up to 144Gbps through the
microwave and millimeter wave radio spectra (Q and V bands), whereas those in
medium-Earth orbit will provide higher data rates up to 6 Terabits per second
(Tbps) through optical (laser) links.
“This provides the reliability and resilience needed for real-time
operations and massive data movement,” Blue Origin’s chief executive, Dave
Limp,
said on social media. “It also provides backup connectivity during outages, keeping critical
operations running. Plus, the ability to scale on demand and rapidly deploy
globally while maintaining performance.”
A big difference is at the start of the "social media" link just above. Limp
says it's not intended for widespread use by the general public like
Starlink.
It is purpose-built for enterprise customers. Unmatched speeds of up to 6
Tbps through a multi-orbit constellation of 5,280 LEO and 128 MEO
satellites with both RF and optical links. Globally distributed customers
can each access up to 144 Gbps of capacity through Q/V-band links from LEO
satellites, while up to 6 Tbps point-to-point capacity can be accessed
through optical links from MEO satellites.
That means TeraWave will seek to serve “tens of thousands” of enterprise,
data center, and government users who require reliable connectivity for
critical operations.
Time to borrow a familiar line. I'd answer with something like, "that sounds
nice and all, but you guys aren't doing all that well with your core business
of being a launch service." The much-ballyhooed New Glenn has exactly two
missions completed, years after originally planned. The second test flight was impressive with the successful
booster recovery looking almost as routine as, well, you know who. But...
One industry concern about Blue Origin is that it has taken on too many
responsibilities too quickly—a large rocket, two different lunar landers, a
space station, a crew capsule, the Blue Ring spacecraft, a Mars orbiter, and
more projects. This has led to a competition within the company for
resources and, at times, a seeming lack of focus. Adding TeraWave to the mix
represents a major new initiative that will also require an extraordinary
amount of effort to bring to market.
In what appears to be a response to this industry concern, Blue
Origin launched a new division within the company called Emerging
Systems, which is intended to be a “new strategic initiative driving
innovation across advanced aerospace technologies.” TeraWave appears to be an
accomplishment of the Emerging Systems (department? group?)
Back at the end of September 2025, I did an article on the race to a private
space station called "The Other Other Space Race." The Other Space Race that everyone knows about is the race to start
settlements on the moon; while the "Other Other race" I was referring
to was the race to put a private Space Station into orbit. Searching with
Blogger search box (top left of this page) just for "private space station," I
find I've been writing about this topic since 2020.
The company this post is centered on, Vast, appears to be mentioned first in
2023, recent posts have been in reference to a test flight for testing out
systems on their private space station called Haven-1.
Let me lead with something I probably don't need to say. The expected launch
this May has been called off and it's looking to be in Q1 of '27. First
flights of complex spacecraft not running into delays are pretty
unusual.
Ars Technica has been diving into the various private space station companies
and after an opening article about
Voyager, goes into Vast today with, "The first commercial space station, Haven-1, is now undergoing assembly for
launch." It's primarily an interview with Max Haot, the chief executive of
Vast. The company is furthest along in terms of development, choosing to build
a smaller, interim space station, Haven-1, capable of short-duration stays.
Ars: Where are you with the hardware?
Haot: Last Saturday (January 10) we reached the key milestone of
fully completing the primary structure, and some of the secondary structure;
all of the acceptance testing occurred in November as well. Now we are
starting clean room integration, which starts with TCS (thermal control
system), propulsion, interior shells, and then moving on to avionics. And
then final close out, which we expect will be done by the fall, and then we
have on the books with NASA a full test campaign at the end of the year at
Plum Brook. Then the launch in Q1 next year.
The whole interview is interesting for the perspectives that Max Haot bring as
well as the overall discussion of that sector of the space industry. I'll borrow
one here:
Ars: What happens after you launch Haven-1?
Haot: We are not launching Haven-1 with crew inside. It’s a 15-ton,
very valuable and expensive satellite, but still no humans involved,
launching on a Falcon 9. So then we have a period that we can monitor it and
control it uncrewed and confirm everything is functioning perfectly, right?
We are holding pressure. We are controlling attitude. These checkouts can
happen in as little as two weeks.
At the end of it, we have to basically convince SpaceX, both contractually
and with many verification events, that it will be safe to dock Dragon. And
if they agree with the data we provide them, they will put a fully trained
crew on board Dragon and bring them up. It could be as early as two weeks
after, and it could be as late as any time within three years, which is a
lifetime of Haven-1. But we have a very strong incentive to send a crew as
quickly as we can safely do so.
The Haven-1 habitat will be usable for three years, and they are trying to
book more crews for the two-week missions it's intended for. As of the
interview, Haot talks about four missions. Not much chance of overstaying the
three year life of the "very valuable and expensive satellite."
The Haven-1 space station undergoing acceptance testing in November '25.
Credit: Vast Space
Arriving earlier than expected, a CME struck Earth's magnetic field on Jan.
19th (1930 UT). The impact sparked a severe
G4-class
geomagnetic storm. The timing of the impact favored Europe, where widespread
auroras are
now being reported.
It remains to be seen whether the storm will persist long enough for a
similar display in North America.
The CME that struck Earth today crossed the sun-Earth divide in only ~25
hours. That's fast. For comparison, most CMEs take 3 or 4 days to get here.
The high speed of this CME (~1660 km/s) places it in the top few percent of
all CMEs observed in the past 30 years.
The NOAA Space Weather Prediction Center posted this summary of planetary
K-index (Kp) values as the last update for Jan. 19:
The two red "towers" Kp at 8.33 and then 8.67 (or 8-1/3 and 8-2/3) are
obvious signs of CME impacts. The two yellow boxes at the top right labelled S2
and G2 are Solar Radiation Storm and Geomagnetic storm cautions.
S2 (Moderate) Solar Radiation Storm Impacts
Biological: Passengers and
crew in high-flying aircraft at high latitudes may be exposed to elevated
radiation risk. Satellite operations:
Infrequent single-event upsets possible. Other systems: Small effects
on HF propagation through the polar regions and navigation at polar cap
locations possibly affected.
G2 (Moderate) Geomagnetic Storm Impacts
Power systems: High-latitude
power systems may experience voltage alarms, long-duration storms may
cause transformer damage. Spacecraft operations:
Corrective actions to orientation may be required by ground control;
possible changes in drag affect orbit predictions. Other systems: HF radio
propagation can fade at higher latitudes, and aurora has been seen as low
as New York and Idaho (typically 55° geomagnetic lat.).
At the top level of the website with that Planetary K index graphic, lies this
one:
Across the top of the graphic under
SPACE WEATHER CONDITIONS it shows that earlier today S4 and G4
conditions were observed. I was doing some paperwork in the shack today, closer
to 5PM or 2200 UTC, and the G4 condition was displayed. Note that the prediction
for the next 24 hours at the right edge of this graphic also includes severe G4
storms. I have to add my usual summary: if you think plain old NOAA weather
forecasts for your city are bad, they're generations of progress better than
solar-terrestrial storm forecasts.
The usual thing people ask about is if auroras will be visible. The aurora
forecasters seem more inclined to be cautious than plain old weather
forecasters. They say tonight will be more active than last night and more
active than tomorrow night, but they don't say something specific like they'll
be visible from northern Illinois but not southern Indiana, for example.
This plot, from the NOAA SWPC,
was generated 0223 UTC, and I happen to typing at 0226 UTC. It's hard to get a
much fresher forecast than that. That thin red line is marked as the view
line, meaning that from around that line, the auroras might be visible as
color on the horizon.
Yesterday, Jan. 17, the Artemis II hardware was rolled to launch pad 39B of
the Kennedy Space Center side of the Cape.
Breaking Space (NASA Spaceflight's) video here, but let me caution that it doesn't show the whole move and doesn't show the
final position.
The thing that's most important here is that preparations for the Artemis II
mission have stepped to the next level. There will be tests performed out on
the pad that can't be done in the more restrictive environments that they've
been working in up to now. For the crews that work well away from the
headlines and get things done, it's exciting.
“These are the kinds of days that we live for when you do the kind of work
that we do,” said John Honeycutt, chair of NASA’s Mission Management Team
for the Artemis II mission. “The rocket and the spacecraft, Orion
Integrity, are getting ready to roll to the pad … It really doesn’t
get much better than this, and we’re making history.”
A topic that doesn't get talked about widely is that the farther they advance
toward the scheduled February 6th launch,
a mindset called "launch fever" begins to affect the entire chain of
command.
Although the phrase isn't widely used, it doesn't take much reading of the
fatal accidents in the past to encounter talk about it without using those two
words. Shuttles Challenger, and Columbia as well as the Apollo 1 fire during a
test on the pad - anything that resulted in the loss of vehicle and crew.
Artemis I back in November of '22 was an unmanned mission, so vitally
important systems like the crew compartment's air system, weren't flight
tested. I've read that before they leave for their translunar injection that
this will be fully tested while in Earth orbit. NASA named the program Artemis
back in 2019, but pieces have been around for 20 years.
NASA selected Orion contractor Lockheed Martin to oversee the development of
a deep space capsule in 2006 as part of the George W. Bush administration’s
soon-to-be canceled Constellation program. In 2011, a political bargain
between the Obama administration and Congress revived the Orion program and
kicked off development of the Space Launch System. The
announcement of the Artemis program
in 2019 leaned on work already underway on Orion and the SLS rocket as the
centerpieces of an architecture to return US astronauts to the Moon.
The Orion capsule flew on a test flight called
ARES 1-X on October 28, 2009, a decade before the Artemis name was chosen. There are good photos
available at that Wikipedia link.
There's still much to be done before launch, and much to be implemented from
Artemis I. They had lots of trouble with the liquid hydrogen fuel that the SLS
uses.
Assuming the countdown rehearsal goes according to plan, NASA could be in a
position to launch the Artemis II mission as soon as February 6. But the
schedule for February 6 is tight, with no margin for error. Officials
typically have about five days per month when they can launch Artemis II,
when the Moon is in the right position relative to Earth, and the Orion
spacecraft can follow the proper trajectory toward reentry and splashdown to
limit stress on the
capsule’s heat shield.
In February, the available launch dates are February 6, 7, 8, 10, and 11,
with launch windows in the overnight hours in Florida. If the mission isn’t
off the ground by February 11, NASA will have to stand down until a new
series of launch opportunities beginning March 6. The space agency has
posted a document
showing all available launch dates and times through the end of April.
The guy in the hot seat for this mission is John Honeycutt mentioned in that
first indented quote above.
One of Honeycutt’s jobs as chair of the Mission Management Team (MMT) is
ensuring all the Is are dotted and Ts are crossed amid the frenzy of final
launch preparations. While the hardware for Artemis II is on the move in
Florida, the astronauts and flight controllers are wrapping up their final
training and simulations at Johnson Space Center in Houston.
“I think I’ve got a good eye for launch fever,” he said Friday.
“As chair of the MMT, I’ve got one job, and it’s the safe return of Reid,
Victor, Christina, and Jeremy. I consider that a duty and a trust, and it’s
one I intend to see through.”
NASA’s 322-foot-tall (98-meter) SLS rocket inside the Vehicle Assembly
Building on the eve of rollout to Launch Complex 39B. Credit: NASA/Joel Kowsky
Or how to tell you've had a bad weekend without going into more
details.
I'm sure most people are saying something along the lines of "what??" Let me
back up a bit and start over.
Something I talk regularly about is my ham radio hobby, and the annual VHF
contests I play in a few times a year. There are several of these contests
over the course of the year, where the goal is to exchange a piece of
information, sometimes two small pieces, and call signs, of course.
Well, the real goal depends on why you're playing in the contest. If you're
trying to win the contest, it's different than if you're trying to contact
places you've never confirmed contact with.
While there are more than these three, the USA's national ham radio
organization, the
American Radio Relay League, puts on three contests per year, June, September and January - around the
second weekend of the month. Without a doubt, I consider the June contest the
best of the year; my results have always been worse than June's in the other
two. The reason June is better is purely that the radio propagation is
regularly among the best of the year. Another group/company - ISTRC it's CQ
Magazine - puts on a July contest and that one is also good.
Long introduction out of the way, the title is my summary of the contest so
far. "I've had worse." At 2PM Eastern (1900 UTC), when the contest
started, the band was better than usual, with stations in New England
coming in strong and steady. As is often the case, the openings weren't to all
of New England, but to a small stripe of the grid squares. I clipped this
image of the grid squares in the area from a US Map that
Icom America gives
away at hamfests.
The exact spots I was hearing varied a bit. Most often I heard the stripe
of FN31 and FN41 north to FN35/FN46. At other times I heard FN00 and 01 in
western Pennsylvania, and FN13 quite often. In my quest to contact every grid
square in the continental US, the four I'm really hoping for in FN are 57 and
65 to 67.
In and out of the shack for a while (making a jar of Mayonnaise to turn into
Caesar salad dressing) and a few other things didn't change the overall
picture of being open to a few of these grid squares, the squares I could hear
just moved down into the SE states, until this evening when the only grids I
heard were peninsular Florida. EL96, 97, 98, 99, EL 87, 88, 89, and EM 00,
which is as far into the NE of Florida as we can get, and includes some of SE
Georgia.
The contest continues until tomorrow night at 0359Z (which is actually
early Monday morning UTC, not Sunday night). That's 10:59 PM Eastern
time. I'll keep the station on and keep trying "asbestos"
possible.
Not the first ever Amazon sats but
Arianespace's first batch of 32 of Amazon's LEO satellites
(formerly called the Kuiper constellation). The reason this gets a story and not just
mention is that this will be the first launch of what they're calling the
Ariane 64, which is an Ariane 6 with four strap on solid rocket
boosters.
The Ariane 6 is fairly well-established for a new launch vehicle,
with five launches, including its debut flight in July 2024. All of
the launches were considered a success, although the first flight failed to
relight the upper stage in order to make a controlled reentry. I'm guessing
declaring it a success was the payload achieved the desired orbit. Given
that they had a full year instead of roughly half a year (first launch in July
'24), Arianespace went from one/year to four launches last year and has set
the goal to eight for this year.
Arianespace has sold 18 Ariane 6 launches to Amazon; this mission, called VA267, will be the first of them. The launch has a
preliminary date of NET February 12th, three weeks from yesterday, January 15,
with no time assigned. The launch will be from Arianespace's launch facility
in French Guiana.
Artist's rendering of Ariane 64 in operation. Image credit: Arianespace
VA267 will be the first flight of Ariane 6 in its full-power Ariane 64
configuration, capable of carrying payloads of more than 20 metric tons to
orbit. The 32 Amazon Leo satellites will be accommodated under a
20-meter-long fairing and delivered by the Ariane 64 rocket to a Low Earth
Orbit.
The Arianespace website adds:
The VA267 launch at a glance:
359th launch by Arianespace, 1st Arianespace launch in 2026
6th Ariane 6 launch and 1st launch of Ariane 64, its most powerful
configuration, and 1st use of Ariane 6's long fairing configuration
1st Arianespace launch for Amazon Leo, within a series of 18
Nothing says "State Of The Art" quite like a graphic of a 50-ish year old
design that was
mothballed 15 years
ago. I was rather surprised to see
this image from a company like Viasat in a Payload daily email. The only reason I can think of for such an image rather than something
that's actually modern boils down the current designs that are flying might
involve royalty payments to the company flying them.
Awkward introduction aside, it does sound like something that might be useful.
For decades, space launch providers have faced the same persistent
challenge: intermittent loss of telemetry data when rockets travel out of
range of ground stations. These “blackouts” can last for minutes—leaving
long and critical periods when vehicle health, performance, and safety
information go dark. Viasat’s HaloNet Launch Telemetry Data Relay Service
(DRS)aims to change that, by providing continuous, global coverage from
ascent through early orbit.
“Whenever anyone launches a multimillion-dollar rocket or a billion-dollar
payload, they need to know the continuous health of that rocket,” said Arnie
Christianson, Senior Director, Program Management, Viasat Government, Space
and Mission Systems. Launch telemetry to ground controllers provides the
equivalent of a car’s dashboard, he explained. “Engine temperature,
trajectory, pressure, performance—it’s how you know everything is working as
intended.”
Again, it might well be useful, but I'm kind of focused on the use of the word
"need" in that first sentence of the second paragraph. I'm sure the
responsible people would like to "know the continuous health of
that rocket," but the thousands of launches that didn't have that continuous
knowledge argues it's a "nice to have" thing but not a "need."
The rest of the short article on Payload gives lots of details justifying
their project, including that gathering this information currently depends on
TDRSS,the Tracking and Data Relay Satellite System, that has been in use since
the 1980s. The first TDRSS satellite was lifted to orbit on Space Shuttle
Challenger. The TDRSS system is aging out and will be retired over the next
decade.
It has nothing to do with the Crew-11 return, the number of flights on one
booster, or the number of launches in the year (it's a new year - last year's
165 launches probably won't be a target until the fourth quarter of the year). No,
this one is
setting a new record for the speed of turning around a launch pad, between Monday's and Today's Starlink missions from Space Launch Complex 40
(SLC-40 or "slick 40").
SpaceX’s launch of its Falcon 9 rocket Wednesday afternoon broke the
turnaround record at its launchpad at Cape Canaveral Space Force Station by
more than five hours.
The Starlink 6-98 mission lifted off at 1:08 p.m. EST (1808 UTC), just 45
hours after the launch of the Starlink 6-97 mission at 4:08 p.m. EST (2108
UTC) on Monday.
The previous record, set in December 2025, was 50 hours and 44 between the
launches of NROL-77 and Starlink 6-90.
We've met Kiko Dontchev, SpaceX Vice President of Launch before, a guy
with an interesting job. He wrote on social media that, “The rocket was
actually ready to fly at roughly 40 hours, but we needed to wait for the
optimal deployment t-zero. Love seeing us continue to improve on our speed,
efficiency, safety and reliability!” Dontchev went on to summarize something
we constantly see about SpaceX: “We once thought it was crazy town to
launch from the same pad in two days. Now it feels crazy not to be launching
from the same pad multiple times a day. Physics is the only constraint.
Everything else is just an engineering challenge waiting to be solved.”
That comparison from thinking it was "crazy town to launch in two days" to not
launching multiple times a day is this week's version of my old observation
that, "remember when we used to wonder if they could make 10 launches on the
same booster?" Now the Fleet Leader, B1067, is at 32 flights and they're going
for 40. A Falcon 9 booster with the one-time crazy goal of 10 launches is now
considered "like new". Today's booster, B1085, was on its 13th flight.
A SpaceX Falcon 9 rocket lifts off from Space Launch Complex 40 (SLC-40) at
Cape Canaveral Space Force Station to begin the Starlink 6-98 mission on Jan.
14, 2026. The flight, which lifted off at 1:08 p.m. EST (1808 UTC) marked the
fastest turnaround of SLC-40 to date with liftoff occurring just 45 hours
after the launch of Starlink 6-97 on Jan. 12. This broke the previous record
by more than five hours. Image: Adam Bernstein/Spaceflight Now
It's not really visible in that photo, but my only issue with the launch was
that our cloud cover was too thick to get a glimpse of the vehicle and the
cold front overhead kept us from hearing the launch rumble.
At 0215 UTC on January 15th, the Crew-11 Dragon is safely in orbit and heading
toward its early morning deorbit burn.
A departure from the normal here due to Scott Adams' passing away sometime
between Monday night and this morning. I've known since it became public that
he had aggressive stage 4 prostate cancer and that it looked like he wasn't
going to make it to the end of 2025. It looks like he got a longer extension
than many. Some of that was undoubtedly personal; perhaps genetics, perhaps
attitudes and we heard several times in his last year that
he was familiar enough with and to people in high places that could help.
Like most, I got to know Scott Adams through Dilbert when the comic first
started making papers and magazines. We have some Dilbert cartoon collections
around the house but I'm not sure about his "real" books. By the time the TV
series came out in 1999, I was a regular who watched every episode. This
clip is one of my all time favorites from Dilbert's world.
Over the years, I've run many Dilbert cartoons.
I posted this on September 8, 2015.
This one was November 25, 2012.
This may be the oldest one I have. It says:
Dilbert for September 30, 1995. Amazingly, I remembered it almost word-for-word.
Of course, this next one spoke to me. Alright, they all did, but this one in a
different sense.
This one affected me for life:
Yes, I have bike shorts and always refer to them as my dorky pants. I used to
have a printed version of this cartoon on my office wall.
Related to companies that patent minor things but sue any company that gets close to their turf.
When talk turned to grade inflation in college, this one had to show up:
I believe that's every Dilbert cartoon I've ever run, and it's a bit of
guaranteed outcome that when I'm looking for some humorous thing to include,
I'll go to cartoons I remember, but it's going to be tough for a while.
I can't claim to have any tremendous insights into Scott as a person. His last
interviews bring some things I can relate to, along with things we'll all face
someday. One of my first quotes from Scott was in
a post in the fourth month
of the blog:
Like Scott Adams says on risk vs reward:
For a manager: Success: you get tons of money. Fail: someone under you gets
laid off.
For an engineer: Success: you get a handsome certificate, suitable for
framing. Fail: think Space Shuttle Challenger, Columbia, Hyatt Regency
walkway. Money lost, possibly large numbers of people die.
Perhaps the most recent risk/reward quote of his will live much longer. From
his final post to X about becoming Christian:
"I'm not a believer but I have to admit the risk-reward calculation for
doing so looks attractive. So here I go," according to the
statement by Adams.
"I accept Jesus Christ as my lord and savior and I look forward to spending
an eternity with him. The part about me being a believer should be quickly
resolved if I wake up in heaven."
So long, Scott. I hope we meet on the other side some day.