Jan. 1, 2025

Gravitational Breakthroughs, Lunar Insights, and SpaceX's Bold Moves: S04E01

Astronomy Daily - The Podcast: S04E01
Happy New Year, and welcome to the first episode of Astronomy Daily for 2025! I'm Anna, and I'm thrilled to be back with you for another exciting year of space exploration and astronomical discoveries. Today,...

Show Notes
Transcript

Astronomy Daily - The Podcast: S04E01
Happy New Year, and welcome to the first episode of Astronomy Daily for 2025! I'm Anna, and I'm thrilled to be back with you for another exciting year of space exploration and astronomical discoveries. Today, we're diving into some fascinating developments that are already shaping up to make 2025 a landmark year in space science.
Highlights:
- Commercial Spaceflight Boost: The U.S. Federal Communications Commission has expanded the spectrum for launch communications, allocating additional frequencies to support the growing commercial space industry. This move is set to streamline the licensing process and accelerate the pace of commercial space activities.
- NASA's Orion Capsule Concerns: Inspectors have discovered significant damage to the Orion capsule's heat shield, causing delays in the Artemis program. NASA has announced changes to the re-entry trajectory and manufacturing methods to ensure crew safety for future missions.
- Gravitational Wave Detection Breakthrough: Scientists have developed a new technique called optical spring tracking, enhancing our ability to detect gravitational waves. This advancement could lead to observations of cosmic events from the universe's earliest moments.
- Studying Lunar Space Debris: The Lunar Meteoroid Impact Observer (Lumio) mission aims to study meteoroid strikes on the Moon's far side. Positioned at the Earth-Moon L2 Lagrange point, Lumio will provide unprecedented data on space debris impacts.
- Remarkable Exoplanet Discoveries: 2024 was a year of extraordinary exoplanet discoveries, including the lowest density "cotton candy" planet and a planet with a super eccentric orbit. These findings expand our understanding of planetary diversity and formation.
- SpaceX's Ambitious Starship Plans: SpaceX is set to increase its launch frequency in 2025, with plans for up to 25 launches and significant upgrades to the Starship vehicle. These developments aim to revolutionize access to space and support NASA's Artemis program.
For more cosmic updates, visit our website at astronomydaily.io. Join our community on social media by searching for #AstroDailyPod on Facebook, X, Tumblr, YouTube, YouTubeMusic, and TikTok. Share your thoughts and connect with fellow space enthusiasts.
Thank you for tuning in. This is Anna signing off. Until next time, keep looking up and stay curious about our amazing universe.
00:00 - This is the first episode of astronomy daily for 2025
00:59 - The FCC has just expanded the spectrum available for launch communications
03:23 - NASA inspectors discovered cracks in Orion's heat shield following its 2022 splashdown
05:40 - Scientists have developed a new technique called optical spring tracking to detect gravitational waves
07:39 - Scientists are developing a new way to study lunar meteoroid impacts
09:56 - This year has been an extraordinary year for exoplanet discoveries
12:12 - SpaceX's Starship rocket system has successfully completed six test flights to date
14:40 - From gravitational wave detection to SpaceX's ambitious plans for Starship
✍️ Episode References
U.S. Federal Communications Commission (FCC)
[FCC Official Website](https://www.fcc.gov/)
NASA Artemis Program
[NASA Artemis](https://www.nasa.gov/specials/artemis/)
SpaceX
[SpaceX Official Website](https://www.spacex.com/)
Advanced Laser Interferometer Gravitational-Wave Observatory (LIGO)
[LIGO Official Website](https://www.ligo.caltech.edu/)
European Space Agency (ESA) Lunar CubeSat for Exploration
[ESA Lunar CubeSat Competition](https://www.esa.int/)
Astronomy Daily Website
[Astronomy Daily](https://astronomydaily.io/)

Become a supporter of...

WEBVTT

1
00:00:00.160 --> 00:00:02.240
Happy New Year, and welcome to the first episode of

2
00:00:02.279 --> 00:00:05.759
Astronomy Daily for twenty twenty five. I'm your host, Anna,

3
00:00:06.080 --> 00:00:08.119
and I'm thrilled to be back with you for another

4
00:00:08.240 --> 00:00:13.000
exciting year of space exploration and astronomical discoveries. We've got

5
00:00:13.000 --> 00:00:16.239
a packed show for you today, covering some fascinating developments

6
00:00:16.559 --> 00:00:18.839
that are already shaping up to make twenty twenty five

7
00:00:18.879 --> 00:00:21.960
a landmark year in space science. We'll be looking at

8
00:00:21.960 --> 00:00:26.399
new regulatory changes that could accelerate commercial spaceflight, examining some

9
00:00:26.440 --> 00:00:31.760
concerning findings about NASA's Orion capsule, and exploring breakthrough technology

10
00:00:31.839 --> 00:00:35.359
that could help us detect gravitational waves with unprecedented precision.

11
00:00:36.280 --> 00:00:38.200
We'll also journey to the far side of the Moon

12
00:00:38.320 --> 00:00:41.640
to learn about an innovative new way to study space debris,

13
00:00:42.240 --> 00:00:45.200
check out some of the most remarkable exoplanet discoveries from

14
00:00:45.200 --> 00:00:48.600
the past year, and get an inside look at SpaceX's

15
00:00:48.679 --> 00:00:52.840
ambitious plans for their Starship program. So strap in and

16
00:00:52.840 --> 00:00:55.000
get ready to explore the Cosmos with us as we

17
00:00:55.039 --> 00:00:59.679
begin another year of amazing space science and discovery. In

18
00:00:59.719 --> 00:01:03.280
a say significant move for commercial spaceflight, the US Federal

19
00:01:03.280 --> 00:01:07.719
Communications Commission has just expanded the spectrum available for launch communications.

20
00:01:08.599 --> 00:01:13.200
The FCC's December thirty first announcement allocated additional frequencies between

21
00:01:13.239 --> 00:01:16.760
twenty three sixty and twenty three ninety five megahertz that

22
00:01:16.879 --> 00:01:19.840
can now be used for communications with commercial launch and

23
00:01:19.920 --> 00:01:24.599
re entry vehicles. This new allocation fulfills requirements set out

24
00:01:24.599 --> 00:01:28.120
in the Launch Communications Act of twenty twenty four, which

25
00:01:28.159 --> 00:01:31.560
President Biden signed into law last September. The Act called

26
00:01:31.560 --> 00:01:34.719
for making three specific frequency bands available to support the

27
00:01:34.719 --> 00:01:39.319
growing commercial space industry. What makes this particularly interesting is

28
00:01:39.359 --> 00:01:43.680
that two of these bands were already allocated for launch communications,

29
00:01:44.280 --> 00:01:47.439
but this third band opens up new possibilities for both

30
00:01:47.560 --> 00:01:53.079
uplink and downlink communications with spacecraft. This additional bandwidth is

31
00:01:53.200 --> 00:01:56.920
crucial as the commercial space sector continues to expand rapidly.

32
00:01:57.760 --> 00:02:01.319
Both the FCC and launch companies have emphasized that this

33
00:02:01.439 --> 00:02:04.480
extra spectrum is essential to handle the increasing number of

34
00:02:04.560 --> 00:02:09.199
launches we're seeing. As FCC Chairwoman Jessica rosen Worsel noted,

35
00:02:09.680 --> 00:02:12.319
this move will make it easier for new competitors to

36
00:02:12.400 --> 00:02:16.439
consistently access the spectrum they need for their missions. The

37
00:02:16.479 --> 00:02:20.240
new allocation isn't without its challenges, though, The band will

38
00:02:20.240 --> 00:02:23.919
be shared with existing aircraft and missile testing operations, which

39
00:02:23.919 --> 00:02:26.719
means launch operators will need to take special precautions to

40
00:02:26.759 --> 00:02:32.000
avoid interference. However, companies like SpaceX and Virgin Galactic have

41
00:02:32.080 --> 00:02:35.240
already successfully used portions of this band for several launches

42
00:02:35.280 --> 00:02:40.599
without any reported issues. Perhaps most importantly, this change streamlines

43
00:02:40.639 --> 00:02:44.000
the licensing process for launch companies. Instead of having to

44
00:02:44.000 --> 00:02:48.360
apply for special temporary authority for each individual, launch, operators

45
00:02:48.439 --> 00:02:51.120
can now work within a more efficient framework that covers

46
00:02:51.159 --> 00:02:55.800
all three allocated bands. This should significantly reduce the administrative

47
00:02:55.840 --> 00:02:59.719
burden on both the companies and the FCC, helping to

48
00:02:59.719 --> 00:03:03.719
exit accelerate the pace of commercial space activities. This development

49
00:03:03.879 --> 00:03:08.319
really showcases how the regulatory landscape is evolving to keep

50
00:03:08.360 --> 00:03:12.080
pace with the commercial space industry's rapid growth. As we

51
00:03:12.120 --> 00:03:15.199
continue to see more private companies reaching for the stars,

52
00:03:15.719 --> 00:03:20.599
having robust and clear communication protocols will be absolutely essential

53
00:03:20.639 --> 00:03:25.599
for safe and efficient operations. Next up, the safety and

54
00:03:25.639 --> 00:03:30.159
reliability of NASA's Artemis program faced a significant challenge when

55
00:03:30.199 --> 00:03:34.080
inspectors discovered concerning damage to the Orion capsule's heat shield

56
00:03:34.520 --> 00:03:38.599
following its splash down in December twenty twenty two. What

57
00:03:38.719 --> 00:03:41.840
initially looked like a successful conclusion to the Artemis one

58
00:03:41.960 --> 00:03:45.919
mission revealed some worrying issues that have since caused delays

59
00:03:45.960 --> 00:03:50.080
to the program's timeline. When the recovery crew lifted Orion

60
00:03:50.240 --> 00:03:54.360
onto the USS Portland's deck, they noticed substantial cracks on

61
00:03:54.400 --> 00:03:57.520
the capsule's lower surface where it connects to the heat shield.

62
00:03:57.800 --> 00:04:00.199
While some wear on a heat shield that endured temperature

63
00:04:00.280 --> 00:04:04.319
of around five thousand degrees fahrenheit might seem expected, the

64
00:04:04.400 --> 00:04:07.800
extent of the damage raised serious concerns about cruse safety

65
00:04:07.800 --> 00:04:11.919
for future missions. After nearly two years of thorough analysis,

66
00:04:12.400 --> 00:04:16.000
NASA's investigation revealed that the problem stemmed from an unexpected

67
00:04:16.040 --> 00:04:19.639
interaction between the shield's materials during re entry. The heat

68
00:04:19.680 --> 00:04:23.759
shield's design uses a specialized resin called novolac, embedded in

69
00:04:23.800 --> 00:04:28.560
a honeycomb structure of fiberglass threads. During re entry, this

70
00:04:28.720 --> 00:04:31.439
material is meant to gradually melt and form a protective

71
00:04:31.519 --> 00:04:36.279
char layer. However, what actually happened was more complex. As

72
00:04:36.279 --> 00:04:39.360
Oryon performed its skip re entry maneuver, the shield began

73
00:04:39.439 --> 00:04:42.720
melting as planned, but when the capsule bounced back into space,

74
00:04:43.040 --> 00:04:47.680
the outer layers froze. Trapping heat inside. This trapped heat

75
00:04:47.800 --> 00:04:51.560
vaporized more of the resin, and during the second atmospheric entry,

76
00:04:51.879 --> 00:04:55.560
the expanding gases created those concerning cracks in the char structure.

77
00:04:56.480 --> 00:05:00.000
In response to these findings, NASA has announced significant changes

78
00:05:00.160 --> 00:05:03.560
to their approach for the upcoming Artemis two mission, which

79
00:05:03.560 --> 00:05:06.920
will carry astronauts around the Moon. They've modified the re

80
00:05:07.079 --> 00:05:10.959
entry trajectory to prevent heat from accumulating in this way.

81
00:05:11.000 --> 00:05:14.519
Looking further ahead to Artemis three, NASA plans to implement

82
00:05:14.600 --> 00:05:18.720
new manufacturing methods to make the shield more permeable. These

83
00:05:18.800 --> 00:05:22.519
challenges have pushed the timeline for crude Artemis missions further

84
00:05:22.639 --> 00:05:26.399
into the future, with Artemis two now targeting sometime in

85
00:05:26.480 --> 00:05:30.319
twenty twenty five and Artemis three slated for twenty twenty seven.

86
00:05:31.240 --> 00:05:35.560
While these delays might be frustrating, they reflect NASA's unwavering

87
00:05:35.600 --> 00:05:38.639
commitment to crue safety as they work to return humans

88
00:05:38.680 --> 00:05:42.279
to the Moon. Scientists have made an exciting breakthrough in

89
00:05:42.319 --> 00:05:45.720
our ability to detect gravitational waves, those subtle ripples and

90
00:05:45.759 --> 00:05:48.759
space time that give us unique insights into cosmic events.

91
00:05:49.680 --> 00:05:53.240
Researchers have developed a new technique called optical spring tracking

92
00:05:53.560 --> 00:05:56.600
that could dramatically improve how clearly we can detect these

93
00:05:56.600 --> 00:06:01.959
elusive waves. The Advanced Laser Interferometer Gravitational Wave Observatory or

94
00:06:02.000 --> 00:06:06.199
ALIGO uses incredibly sensitive equipment to measure tiny distortions in

95
00:06:06.199 --> 00:06:10.720
space time caused by distant cosmic events. While this technology

96
00:06:10.759 --> 00:06:14.560
has already revolutionized our understanding of phenomena like black hole mergers,

97
00:06:14.920 --> 00:06:18.800
it faces limitations from what scientists call quantum noise. This

98
00:06:18.879 --> 00:06:21.959
new optical spring tracking system works by tuning itself to

99
00:06:22.000 --> 00:06:26.480
match the frequency of incoming gravitational waves. In tests, researchers

100
00:06:26.560 --> 00:06:30.519
used a microscopic mirror weighing just fifty nanograms made from

101
00:06:30.600 --> 00:06:35.120
carefully layered aluminum, gallium arsenide, and gallium arsenide. When hit

102
00:06:35.160 --> 00:06:38.040
with laser light, this tiny mirror creates an optical spring

103
00:06:38.120 --> 00:06:41.000
effect that can be precisely controlled to track and enhance

104
00:06:41.040 --> 00:06:45.519
gravitational wave signals. The results have been remarkable. In their

105
00:06:45.560 --> 00:06:49.079
proof of concept experiment, the team demonstrated that tracking a

106
00:06:49.120 --> 00:06:52.920
signal with this system improved the signal to noise ratio

107
00:06:53.279 --> 00:06:56.720
by up to forty times compared to traditional methods. This

108
00:06:56.839 --> 00:07:00.240
means we could potentially detect much fainter gravitational wave from

109
00:07:00.319 --> 00:07:04.560
even more distant cosmic events. While implementing this technology in

110
00:07:04.639 --> 00:07:09.279
full scale observatories like LIGO will require overcoming some engineering challenges,

111
00:07:09.720 --> 00:07:14.600
the potential benefits are enormous. By enhancing our ability to

112
00:07:14.639 --> 00:07:18.480
detect gravitational waves, we might soon be able to observe

113
00:07:18.519 --> 00:07:22.600
events from the very earliest moments of our universe, including

114
00:07:22.680 --> 00:07:26.079
the mergers of primordial black holes formed shortly after the

115
00:07:26.079 --> 00:07:30.040
Big Bang. This advancement represents a significant step forward in

116
00:07:30.079 --> 00:07:33.279
our quest to understand the universe's most energetic events, and

117
00:07:33.319 --> 00:07:36.079
could help unlock mysteries about how our cosmos formed and

118
00:07:36.160 --> 00:07:40.920
evolved over billions of years. Next a story about cubes

119
00:07:40.920 --> 00:07:44.399
at innovation at its finest. While Earth's atmosphere protects us

120
00:07:44.439 --> 00:07:47.879
from most space debris, scientists are developing an innovative new

121
00:07:47.879 --> 00:07:50.680
way to study these cosmic impacts by watching them strike

122
00:07:50.720 --> 00:07:54.199
the Moon. A fascinating new mission called the Lunar Meteoroid

123
00:07:54.240 --> 00:07:58.079
Impact Observer or LUMIO, aims to give us an unprecedented

124
00:07:58.160 --> 00:08:01.959
view of meteoroid strikes on the lunar f side. LUMIO

125
00:08:02.120 --> 00:08:06.399
is a compact but capable spacecraft, a twelve kilogram cube

126
00:08:06.399 --> 00:08:09.759
SAT equipped with a specialized camera designed to detect the

127
00:08:09.800 --> 00:08:13.279
bright flashes that occur when space rocks impact the lunar surface.

128
00:08:14.199 --> 00:08:17.920
What makes this mission particularly clever is its planned position

129
00:08:18.319 --> 00:08:21.360
at a special point in space called the Earth Moon

130
00:08:21.560 --> 00:08:26.199
L two lagrange point, perfectly situated to observe the Moon's

131
00:08:26.240 --> 00:08:30.839
far side. From this unique vantage point, Lumio will have

132
00:08:30.879 --> 00:08:33.919
an unobstructed view of impacts that we could never see

133
00:08:33.960 --> 00:08:37.480
from Earth, and since the Moon has virtually no atmosphere,

134
00:08:37.960 --> 00:08:42.600
these objects strike the surface directly, creating visible flashes that

135
00:08:42.639 --> 00:08:45.840
can tell us important information about both the impactor and

136
00:08:45.960 --> 00:08:50.639
the lunar surface. The numbers are quite remarkable. Scientists estimate

137
00:08:50.720 --> 00:08:53.799
that up to twenty three thousand meteoroids weighing thirty grams

138
00:08:53.919 --> 00:08:57.200
or more strike the Moon each year. While Lumio will

139
00:08:57.200 --> 00:09:00.519
only observe half of these impacts, it still expected to

140
00:09:00.559 --> 00:09:04.679
detect multiple strikes every single day, building up an unprecedented

141
00:09:04.759 --> 00:09:08.320
database of information about this space debris in our cosmic neighborhood.

142
00:09:08.879 --> 00:09:11.320
Of course, operating at the L two point presents some

143
00:09:11.440 --> 00:09:14.799
unique challenges. The spacecraft will need to rely on relay

144
00:09:14.799 --> 00:09:17.919
satellites for communication. Since the Moon will block its direct

145
00:09:17.960 --> 00:09:21.720
line of sight to Earth, it will also need sophisticated

146
00:09:21.759 --> 00:09:25.399
automated systems to process the massive amount of imagery it collects,

147
00:09:25.960 --> 00:09:29.159
capturing fifteen frames every second and using smart algorithms to

148
00:09:29.240 --> 00:09:34.240
identify genuine impact flashes. The lumiomission has already been selected

149
00:09:34.279 --> 00:09:38.120
as a finalist in Essay's Lunar Cube SAT for Exploration competition,

150
00:09:38.559 --> 00:09:42.279
and is scheduled for launch in twenty twenty seven. Once operational,

151
00:09:42.559 --> 00:09:45.440
it promises to give us fascinating new insights into the

152
00:09:45.440 --> 00:09:50.039
bombardment our celestial neighbor regularly endures, helping us better understand

153
00:09:50.080 --> 00:09:53.399
the threats these objects might pose to Earth and our

154
00:09:53.440 --> 00:09:57.519
future lunar operations. Let's take a look now at some

155
00:09:57.559 --> 00:10:00.600
of the strangest planets discovered over the past fel twelve months.

156
00:10:01.039 --> 00:10:05.039
Twenty twenty four has been an extraordinary year for exoplanet discoveries,

157
00:10:05.480 --> 00:10:09.840
with several fascinating new worlds expanding our understanding of planetary diversity.

158
00:10:10.600 --> 00:10:13.440
Perhaps the most intriguing find was a new cotton candy

159
00:10:13.480 --> 00:10:16.840
planet with the lowest density ever recorded for an exoplanet.

160
00:10:17.639 --> 00:10:21.559
These peculiar worlds continue to challenge our theories about planetary formation,

161
00:10:22.320 --> 00:10:27.360
with their impossibly fluffy atmospheres defying conventional explanation. In an

162
00:10:27.399 --> 00:10:32.639
inspiring demonstration of citizen science, amateur astronomers working alongside professionals

163
00:10:33.000 --> 00:10:36.919
discovered a remarkable planet in a binary star system. What

164
00:10:37.039 --> 00:10:40.120
makes this find particularly exciting is that it orbits within

165
00:10:40.159 --> 00:10:43.000
the habitable zone of the brightest known star to host

166
00:10:43.080 --> 00:10:46.399
such a planet, the region where liquid water could potentially

167
00:10:46.480 --> 00:10:50.039
exist on its surface. We've also gained valuable insights into

168
00:10:50.080 --> 00:10:53.279
planetary formation thanks to the discovery of what may be

169
00:10:53.440 --> 00:10:58.360
the youngest transiting exoplanet ever found. This giant world orbiting

170
00:10:58.399 --> 00:11:02.039
an incredibly young star is providing astronomers with a rare

171
00:11:02.120 --> 00:11:06.039
glimpse into the early stages of planetary development. One of

172
00:11:06.039 --> 00:11:09.639
the year's most bizarre discoveries was a huge planet with

173
00:11:09.679 --> 00:11:13.639
what scientists are calling a super eccentric orbit, more elliptical

174
00:11:13.759 --> 00:11:17.320
than any previously known. This peculiar world appears to be

175
00:11:17.399 --> 00:11:21.840
traveling backward compared to its stars rotation, potentially offering clues

176
00:11:21.879 --> 00:11:25.919
about how hot Jupiter's massive planets orbiting extremely close to

177
00:11:25.919 --> 00:11:30.360
their stars come to exist. Closer to home, our nearest

178
00:11:30.360 --> 00:11:34.399
stellar neighbor after the Sun, Barnard's Star has revealed its

179
00:11:34.440 --> 00:11:38.720
own planetary secret just six light years away. This newly

180
00:11:38.759 --> 00:11:42.200
confirmed exoplanet adds to our growing catalog of nearby worlds

181
00:11:42.639 --> 00:11:44.879
and reminds us that we still have much to discover

182
00:11:45.000 --> 00:11:49.480
in our own cosmic backyard. Perhaps the most unexpected planetary

183
00:11:49.519 --> 00:11:54.039
discovery came from a simple timing discrepancy, when astronomers noticed

184
00:11:54.080 --> 00:11:56.320
a known planet crossing in front of its star two

185
00:11:56.320 --> 00:12:00.159
hours earlier than predicted. Their investigation led to the discovery

186
00:12:00.200 --> 00:12:03.879
of an entirely new world in the same system. It's

187
00:12:03.919 --> 00:12:07.080
a perfect example of how careful observation and attention to

188
00:12:07.120 --> 00:12:12.799
detail continue to unveil the universe's hidden treasures. Finally, today,

189
00:12:12.879 --> 00:12:15.519
let's take a look at SpaceX's Starship plans heading into

190
00:12:15.559 --> 00:12:20.080
the new year. SpaceX's Starship program reached several significant milestones

191
00:12:20.080 --> 00:12:22.960
in twenty twenty four, with the company now setting its

192
00:12:22.960 --> 00:12:26.519
sights on an ambitious expansion of operations. In twenty twenty five,

193
00:12:27.159 --> 00:12:30.840
the world's largest and most powerful rocket system completed six

194
00:12:30.960 --> 00:12:34.799
test flights to date, with each launch bringing valuable lessons

195
00:12:34.799 --> 00:12:38.399
and improvements to the vehicle's design and performance. The most

196
00:12:38.440 --> 00:12:42.360
recent flights have demonstrated remarkable progress, with both the super

197
00:12:42.399 --> 00:12:46.879
heavy booster and the Starship upper stage successfully surviving atmospheric reentry.

198
00:12:47.799 --> 00:12:51.039
A particularly noteworthy achievement came during the fifth test flight,

199
00:12:51.639 --> 00:12:54.559
when the launch tower successfully caught the returning Super Heavy

200
00:12:54.559 --> 00:12:59.080
booster using its innovative chopstick arms, a crucial step towards

201
00:12:59.080 --> 00:13:03.879
SpaceX's goal of rapid reusability. Looking ahead to twenty twenty five,

202
00:13:04.320 --> 00:13:07.799
SpaceX has applied for permits to dramatically increase their launch

203
00:13:07.879 --> 00:13:12.480
frequency from their Starbase facility in Texas. The Federal Aviation

204
00:13:12.559 --> 00:13:16.000
Administration has given preliminary approval for up to twenty five

205
00:13:16.080 --> 00:13:19.960
launches in the coming year, a fivefold increase from current levels.

206
00:13:20.480 --> 00:13:23.480
This expanded schedule would include not just launches, but also

207
00:13:23.600 --> 00:13:27.679
fifty tower catches, split evenly between the Super Heavy boosters

208
00:13:27.720 --> 00:13:31.679
and Starship upper stages. The company is also planning significant

209
00:13:31.720 --> 00:13:35.840
upgrades to the vehicle itself. Future versions of Starship will

210
00:13:35.879 --> 00:13:40.080
feature increased thrust capabilities, with plans to achieve three times

211
00:13:40.080 --> 00:13:44.120
the power of NASA's Saturn Vive rocket. These improvements aim

212
00:13:44.200 --> 00:13:47.440
to enable the transport of larger payloads, with future iterations

213
00:13:47.480 --> 00:13:51.120
capable of carrying over two hundred tons to orbit. Perhaps

214
00:13:51.200 --> 00:13:56.000
most ambitious are the cost projections, with SpaceX suggesting that

215
00:13:56.039 --> 00:13:59.519
the full reusability of the system could eventually bring launch

216
00:13:59.559 --> 00:14:02.919
costs down to just a few million dollars per flight.

217
00:14:03.679 --> 00:14:07.919
This dramatic reduction in launch costs, combined with increased payload

218
00:14:07.919 --> 00:14:12.759
capacity and flight frequency, could revolutionize access to space and

219
00:14:12.840 --> 00:14:15.960
support the company's longer term goals of establishing a sustained

220
00:14:16.039 --> 00:14:19.919
human presence on Mars. These developments come at a crucial

221
00:14:19.960 --> 00:14:23.080
time as NASA continues to rely on Starship as a

222
00:14:23.159 --> 00:14:26.559
key component of its Artemis program, with the vehicle selected

223
00:14:26.600 --> 00:14:29.600
to serve as the lunar Lander for future missions to

224
00:14:29.679 --> 00:14:32.799
the Moon's surface. As we move into twenty twenty five,

225
00:14:33.159 --> 00:14:35.399
all eyes will be on SpaceX to see if they

226
00:14:35.440 --> 00:14:40.360
can maintain this ambitious pace of development and testing. That

227
00:14:40.399 --> 00:14:43.200
brings us to the end of today's episode of Astronomy Daily.

228
00:14:43.600 --> 00:14:46.120
I'm Anna, and I want to thank you for joining

229
00:14:46.120 --> 00:14:49.720
me as we explored these fascinating developments in space and astronomy.

230
00:14:50.440 --> 00:14:55.399
From revolutionary advances in gravitational wave detection to SpaceX's ambitious

231
00:14:55.399 --> 00:14:58.159
plans for Starship, It's clear that twenty twenty five is

232
00:14:58.200 --> 00:15:01.080
already shaping up to be an incredible year for space exploration.

233
00:15:01.679 --> 00:15:03.399
To stay up to date, with all the latest space

234
00:15:03.399 --> 00:15:06.399
and astronomy news, head over to our website at Astronomy

235
00:15:06.440 --> 00:15:09.799
Daily dot io. There you'll find detailed articles on all

236
00:15:09.840 --> 00:15:12.639
the stories we covered today, plus our complete archive of

237
00:15:12.679 --> 00:15:16.240
past episodes. And don't forget to follow us on social media.

238
00:15:16.639 --> 00:15:21.200
You can find astro Daily Pod on Facebook, x, Tumblr, YouTube,

239
00:15:21.440 --> 00:15:25.480
YouTube music, and TikTok. Until next time, keep looking up

240
00:15:25.519 --> 00:15:39.120
and stay curious about our amazing universe. Star Star