11

SpaceX Falcon Missions Section / Re: SpaceX F9 : NROL-57 : VSFB SLC-4E : 20/21 March 2025 (06:49 UTC)

« Last post by GewoonLukas_ on Today at 08:11 am »

Mission success:

NRO Launches Eighth Proliferated Architecture Mission with NROL-57
March 21, 2025

The National Reconnaissance Office (NRO), in partnership with U.S. Space Force Space Launch Delta 30 and SpaceX, successfully launched the NROL-57 mission aboard a SpaceX Falcon 9 rocket from Space Launch Complex-4 East at Vandenberg Space Force Base in California on March 21, 2025, at 2:49 a.m. EDT. 

Today’s mission is the eighth overall launch of the NRO’s proliferated architecture and second proliferated launch of 2025. The steady deployment of this program is quickly growing the U.S. government’s largest and most resilient intelligence, surveillance, and reconnaissance constellation. This latest proliferated NRO mission continues to increase our space-based intelligence capabilities to address strategic national security needs. 

Over the past two years, NRO has launched more than 150 satellites, creating the largest and most capable government constellation on orbit in our nation’s history. Continuing with this momentum, 2025 is set to be another dynamic year, with approximately one dozen NRO launches scheduled. Approximately half of these launches will focus on advancing the NRO’s proliferated architecture with additional proliferated launches planned through 2029, ensuring sustained growth and innovation.

For more than 60 years, the NRO has successfully met the needs of its U.S. intelligence, military, civil, and allied partners. It remains the world’s leader in unique intelligence, surveillance, and reconnaissance systems. The NRO’s next-generation systems will help ensure that the right data is delivered to the right user at the right time, faster than ever before.

Additional information on upcoming launches will be available at NRO.gov/launch.

12

ULA - Delta, Atlas, Vulcan / Re: Potential sale of ULA

« Last post by woods170 on Today at 08:00 am »

But you are right that this inventory is a red flag to buyers. But the reason isn’t the cost of storage, it is that this highlights the more fundamental issues ULA faces with a poorly executed and poorly market optimised product

That would be wrong

Explain why.

Because Vulcan is years late, and is a (currently) fully expendable rocket competing in a market where the market leader offers partial reusability to lower prices.

Counter argument: explain why Vulcan has a launch backlog of nearly 80 launches. Not bad for a vehicle that is years late, fully expendable and competing against a market leader with lower prices.

Obviously they currently have a nice backlog, it just so happens that other than F9 there is almost no other option at the moment. But a potential buyer needs to see how far that will continue, with the knowledge that there are numerous players coming online soon with a product that will be cheaper by design.

How many of these 'backlog' launches would go to Vulcan once the competitors (with partial reuse and therefore inherently lower cost) come online? That is the question a potential buyer would be looking at.

A substantial portion of the non-NSSL part of the Vulcan backlog are contracts that were awarded to ULA while both Vulcan AND New Glenn were not flying yet, while F9 and FH were already fully operational AND the cheapest options to get stuff into orbit.

Don't be so sure that New Glenn coming online, or even Neutron coming online, is going to take away substantial business from Vulcan. Instead, they will mostly take away business from SpaceX.

13

Heavy Lift Launch Vehicle (HLV/SLS) / Re: SLS General Discussion Thread 8

« Last post by native chicken on Today at 07:35 am »

The United States established its heavy-lift rocket R&D capabilities during the 1970s-1980s. Without subsequent space programs to sustain them, this cutting-edge expertise would rapidly erode due to workforce attrition and contractor decline (systemic deindustrialization). Technical professionals require livelihoods – their skills lie in rocket development. If the U.S. government fails to provide such employment opportunities, these technological secrets will dissipate globally through talent mobility.

1) I don't see why US opportunities have to be government ones, given the existence of SpaceX, Rocket Lab, Blue Origin, Firefly...
2) I am not sure there are any "technological secrets" left in 1970s & 80s rocket tech.

When addressing projects or technological research and development requiring extremely long timeframes to complete, purely commercial enterprises are particularly vulnerable to cyclical economic environment impacts. For instance, large commercial enterprises, constrained by investor requirements, typically focus on developing technologies and products that can be commercialized within 5-10 years. They find it extremely difficult to sustain technological projects requiring over 15 years without short-term returns. This fundamentally restricts many advanced aerospace projects requiring ultra-long development cycles (demanding 20-30 or even 50 years of continuous investment). Periodic economic crises (Western economic cycles recur approximately every 8-10 years) and shifts in commercial environments often lead to cash flow constraints in enterprises. Combined with shareholder pressure, this frequently results in mandatory termination of R&D projects, which is extremely detrimental to long-term technological development.

Government funding actually possesses safeguarding capabilities for such ultra-long-cycle investments, particularly for projects undergoing economic cyclical adjustments. This ensures stable long-term development of advanced technologies.

Regarding 1970s-1980s technologies still retained in the United States today, most countries worldwide—including the US itself—have lost the opportunity to redevelop them. For example, the RS25 remains the world"s only operational advanced reusable hydrogen-oxygen engine with over 200-ton thrust class. Even today, its technical specifications remain unchallenged: Soviet counterparts for such hydrogen-oxygen engines were never fully realized, existing only on paper and in historical records. European and Japanese hydrogen-oxygen engines are far inferior to RS25 in both performance and technology, with their smaller market scales further undermining industrial self-sufficiency for continued development. Comparatively, only China"s newly developed YF90 could potentially challenge RS25 (though its actual technical specifications remain slightly inferior and it has yet to complete development). How can one claim these 1970s-1980s technologies contain no proprietary secrets? If you were willing to sell "non-proprietary" RS25 engines (which you consider obsolete technological garbage) to China, the Chinese would likely be delighted to purchase them (though they might struggle to afford the high technology transfer fees).

Developing high-thrust hydrogen-oxygen propulsion systems presents extraordinary difficulties. Before formally developing YF90, China conducted over 20 years of technical preparation. When RS25 was originally developed, US aerospace achieved this at far lower costs compared to modern R&D expenditures, benefiting from significantly higher R&D efficiency at that time. Today, the US likely lacks sufficient technical talent to redevelop such capabilities. Comparatively, developing 200-300-ton class methane engines is substantially easier than hydrogen-oxygen systems. Liquid hydrogen presents extreme technical challenges—its physical properties and material requirements make development virtually impossible without national-level technological capabilities integrating top-tier R&D resources. In fact, since 2000, most US hydrogen-oxygen engine projects exceeding 10-ton thrust have failed or been abandoned, including RL60. RL10 has seen no substantial upgrades, while Blue Origin has only developed inferior hydrogen-oxygen systems. SpaceX originally planned hydrogen-oxygen propulsion for its Raptor engine but quickly abandoned the concept, with technical difficulty being the primary factor. The low density of liquid hydrogen makes RS25"s hydrogen pumps almost miraculous achievements in engineering.

Starship’s success is corporate, not national.

This very much remains to be seen. In 10 years we'll know. Falcon/Dragon is absolutely a national level capability (required for US crew space access until/unless Starliner is certified, launches many government payloads...); once Starship is a mature system, why shouldn't it be? (Barring some truly major program failure, that either kills the project outright or makes it never really reusable.)

A nation's aerospace capability fundamentally differs from that of commercial enterprises. National aerospace capacity reflects comprehensive state capacity and executive power, embodying sovereign will. In contrast, commercial enterprises prioritize profit maximization within reasonable cycles, seeking maximum capital returns with minimal risk exposure.

Divergent objectives dictate operational paradigms. Should US aerospace regulatory institutions excessively rely on capabilities from a few private enterprises to develop strategically vital industries, the short-term profit mentality inherent to commercial interests will erode long-term strategic gains.

This mirrors the automotive industry disruption caused by Chinese EV manufacturers to American, European, and Japanese counterparts. Does this imply Chinese government and automakers possess mystical capabilities to elevate domestic vehicles—once disdained even by Chinese consumers—to industry leadership within a decade?

The reality is clear: Western corporations prioritized short-sighted technological investments and shortcut tactics. Consider how Tesla nearly collapsed under US capital market pressures in 2019—what forces intervened? Who ultimately rescued Musk and Tesla?

China's EV ascendancy stems from unwavering state support and industrial policy guidance. Notably, during 2019's crisis, the Chinese government not only rescued Tesla but also sustained BYD (which faced existential threats from 2017-2020). Ironically, China's aggressive EV industrialization primarily originated from existential fears—the recognition that if Western new energy vehicles dominated China's market, its automotive sector would collapse. China's relentless efforts simply reflect survival instincts against technological obsolescence, compounded by the automotive industry's critical role in national employment.

Should NASA degenerate into mere contracting authority focused on financial oversight, permitting chaotic commercial competition while forfeiting leadership in advanced technology selection and developmental control, the aerospace sector will inevitably replicate the systemic failures currently plaguing Western automotive industries.

When assessing national-level aerospace achievements like the Apollo Program, Space Shuttle, and International Space Station, reusable systems such as Falcon 9 rockets and Dragon spacecraft fall short of matching such historic accomplishments. True national-scale aerospace endeavors are represented by programs like the Constellation Program and Artemis Program. Crucially, these initiatives are not merely about building rockets or spacecraft—their core mission lies in establishing semi-permanent or permanent lunar bases or deep-space outposts at reasonable costs. This is the true measure of enduring U.S. leadership in space capabilities, a testament to transcending limits and perpetuating unchallengeable greatness.

The pinnacle of U.S. space dominance historically manifested as supreme confidence that deterred all competitors. Other nations dared not contemplate rivalry, instead desperately seeking inclusion in America’s "space alliance" through subservience. All understood their absolute inadequacy in financial resources, technological prowess, and industrial capacity to compete—even the faintest hope of rivalry seemed delusional. This was the uncontested supremacy that compelled even the strongest adversaries like the Soviet Union, Russia, and China to concede defeat, humbly accepting their subordinate roles as "honored participants" under U.S. leadership.

SpaceX's Falcon 9, Heavy Falcon, Dragon, and Starlink—even Starship—fail to recapture this magnitude of dominance. Musk’s Mars colonization vision could theoretically achieve this status if realized, though most currently view it as laughable. Even a successful Starship Mars landing wouldn’t prove feasibility for city-scale colonization—a feat requiring national-level financing and mobilization that exceeds Musk’s ambitions. No nation, including the U.S., could fiscally sustain his envisioned Martian metropolis.

To reaffirm America’s space supremacy, two objectives matter: completing semi-permanent lunar bases through Artemis to establish sustained lunar operations (excluding China/Russia), or achieving crewed Mars landings with temporary research stations (à la The Martian). These alone align with U.S. national capacity symbolism.

Falcon 9 and Dragon represent technologies within reach of China, Russia, Europe, India, and Japan through sufficient effort. Lunar/Martian base construction, however, remains fiscally unthinkable for any nation. Even China and Russia must collaborate with timelines extending beyond 2035. Artemis Program’s delays stem entirely from self-inflicted errors—wasted resources and advantages. Originally targeting 2028 lunar landings, current 2030 uncertainties primarily trace to two blunders: the 2021 HLS selection of high-risk Starship over safer alternatives that could have preserved the 2028 timeline, and premature supply chain ruptures from U.S.-China confrontations. Post-2010 offshoring of critical manufacturing to China (or Chinese substitutions) under globalized division of labor left America unaware of its own production gaps until trade restrictions revealed them—ironically, China only learned which industrial capabilities America had lost through U.S. export bans.

The tragedy lies in losing technologies like the RS25 cryogenic engines – masterpieces now facing obsolescence,

If a technology is obsolescent, its loss is significant only historically. RS25 type engines - liquid hydrogen, super high unit cost - are not the path forward. They are technological wonders, certainly, but that doesn't make them the best choice today.

The RS25 is not obsolete technology—hydrogen-oxygen propulsion still holds future developmental potential. You must understand that for deep space missions, hydrogen remains the most accessible chemical fuel. Through water electrolysis, it can be obtained anywhere, making hydrogen-oxygen systems the most practical propulsion solution beyond Earth’s orbital infrastructure. This explains why ongoing RS25 development remains critical. Advancing tripropellant chemical propulsion capabilities (whether water or methane-based) is essential, with water being even more universally available.

Moreover, such propulsion systems hold immense value for expendable upper-stage derivatives of Starship configurations. Completely abandoning rather than repurposing these technological assets would represent a profound loss.

Maintaining this technical capacity serves as tangible proof of U.S. space supremacy. The strength of American space power fundamentally stems from an efficient R&D system combined with unparalleled fiscal support (where even waste constitutes a form of strength). This saturation-level, overwhelming technological investment and comprehensive dominance across cutting-edge domains have always defined U.S. space leadership.

Now that a competitor has emerged—universally recognized as China—with drastically lower R&D costs, proven innovation efficiency, and persistent long-term strategic planning, the calculus shifts. China’s space ambitions mirror the U.S.-Soviet paradigm, seeking to demonstrate its ascendant power through full-spectrum technological rivalry (having explicitly declared 2035-2045 as its timeline for contesting space dominance, a goal formalized during 2015-2016 planning cycles with 30-year roadmaps).

Are you certain surrendering proven U.S. technological advantages is wise at this juncture? China has clear development plans for all three orbital recovery vehicle categories (VTVL, VTHL, HTHL). While the U.S. maintains temporary VTVL leadership, it lags in VTHL (Boeing’s failed legacy) and risks trailing in HTHL. Notably, ​RS25-class hydrogen-oxygen engines serve as the primary second-stage propulsion for VTHL/HTVL reusable spacecraft—conceptualized as spaceplanes with integrated fuel tanks.

This very capability for full-spectrum, saturation-level investment in super-scale R&D once defined U.S. space supremacy. Are you truly prepared to abandon it?

Ten years hence, when rivals deploy not only Starship-like rockets but superior designs – heavy-lift vehicles with advanced cryogenic upper stages (à la Saturn V), or tri-propellant (methane/hydrogen/oxygen) engines derived from RS25 lineage (200t thrust, usable on VTHL single-stage orbiters by 2040-2045)

I don't think it is at all a given that rockets superior to Starship will exist in 10 years (in fact I find it very unlikely), and when they do arrive I don't think they will use tripropellant or RS25 derived engines. They'd be more likely to be "Starship derived but with the knowledge of what mistakes were made in Starship design". But 10 years from today isn't enough for that. 10 years from Starship being a mature system, maybe.  But Starship itself will presumably undergo further development.

As for 10+ companies... I think there's an inherent tension between the desire of the government and other major providers to have multiple options, and economies of scale. I don't think we can yet rule out the possibility that the economies of scale will prove to be so significant that launch is essentially a natural monopoly, and providers other than the #1 will exist only to provide alternatives... Not because they can actually compete in the market.

Regarding Starship, its design flaws have become increasingly apparent, making alternative heavy rocket architectures clearly superior. This discussion should wait until its true challenger—China’s Long March 9 (CZ-9)—officially debuts. Leaked images already reveal stark design divergences between the two systems. By analyzing these differences through the lens of mission requirements, one can discern fundamentally distinct philosophies in heavy-lift system engineering.

For many observers like myself, witnessing Starship’s evolution from V1 to V2/V3 confirms its deviation from optimal technical pathways. Core design flaws permeate the architecture. Crucially, Starship was tailored to SpaceX’s corporate capabilities rather than maximizing the full potential of U.S. aerospace industrial capacity. Had it been a national program or incorporated broader industry expertise with enhanced technical resources, Starship might have achieved true perfection as a heavy-lift vehicle.

Starship's current design undeniably suffers from critical mass inefficiency, rooted in its stainless steel fuselage. This overweight issue caused the V1 iteration to fall short of design specifications. Subsequent V2 and VTHL configurations represent reactive fixes—V2 sacrificed payload volume, while V3 expanded it.

While I acknowledge the rationale behind SpaceX’s stainless steel selection and its purported advantages, let’s focus on facts: China’s planned CZ-9 utilizes an aluminum-magnesium alloy fuselage that drastically reduces mass. Featuring a shorter yet wider first stage, the three-stage CZ-9 accommodates 30-meter payload fairings (necessary for deploying space-based solar power stations in GEO). Its lightweight first stage employs a cable-driven recovery system operable at 70-meter altitude, fully deployable at sea.

Though CZ-9’s theoretical payload capacity (150t to LEO expendable, 100t reusable) currently trails Starship’s projections, it surpasses SpaceX’s vehicle in operational versatility—including direct lunar transfer orbit (LTO) payload delivery. China wisely avoids premature pursuit of second-stage reusability. Notably, Starship’s entire second stage merely constitutes an optional upper-stage configuration for CZ-9. China’s own 70-meter hydrogen-oxygen spaceplane concept (originally a VTHL secondary stage candidate) could integrate seamlessly with CZ-9’s 50-meter first stage—a stark contrast to Starship’s absurd design philosophy requiring permanent attachment of its 30-meter secondary propellant tanks (projected to grow beyond 40m in V3).

Such compromised engineering would never emerge in national programs, yet thrives unquestioned at SpaceX—a consequence of Musk’s unchecked authority over private enterprise. Were Starship a state-led project, NASA-mobilized U.S. aerospace experts would have long addressed these flaws, preempting China’s "copycat" narrative. Reality, however, grants China an opportunity to disprove this stereotype: today’s Starship reflects only Musk’s vision, not America’s collective aerospace prowess.

The design differences between CZ9 and Starship are evident. This show the Chinese aerospace community universally recognizes Starship as a suboptimal design riddled with technical compromises—not reflecting U.S. industrial potential but exposing NASA’s institutional failure to consolidate national capabilities.

Until 2035 (regardless of lunar landing precedence), U.S. space leadership remains unchallenged due to its accumulated historical advantages. Beyond that threshold, whether America can retain global supremacy will require rigorous scrutiny.

14

Mars Rovers and Spacecraft / Re: NASA/ESA - Mars Sample Return mission

« Last post by daedalus1 on Today at 07:32 am »

Being pedantic is not a good reply.

15

Chinese Launchers / Re: Tiangong - Chinese Space Station

« Last post by FutureSpaceTourist on Today at 07:25 am »

16

ULA - Delta, Atlas, Vulcan / Re: Potential sale of ULA

« Last post by SoftwareDude on Today at 07:09 am »

ULA is a vestige of the old manufacturing base for the Pentagon, an anachronism that wouldn't die because of how the government does corrupt business with its suppliers. You know it's true when you hear the "backup supplier" red herring when all they ever had with ULA was one supplier. Yeah, suddenly, a redundant supplier is "really important."
The new paradigm, tech bros doing defense contracting, is a different, perhaps more efficient kind of corruption that will not include ULA.

17

Other US Launchers / Re: US Launch Schedule

« Last post by Salo on Today at 07:04 am »

Acronyms:
ACS-3               - Advanced Composite Solar Sail System
AOS-Cloud        - Atmosphere Observing System – Cloud
AOS                  - Atmosphere Observing System
AOS-HAWCSat  - Atmosphere Observing System - High-altitude Aerosols, Water vapour and Clouds Sat
AOS-PMM          - Atmosphere Observing System - Precipitation Measuring Mission
APS-R               - Astroscale Prototype Servicer for Refueling
ASBM                - Arctic Satellite Broadband Mission
ASDS                - Autonomous Spaceport Drone Ship
ASOG                - A Shortfall of Gravitas - ASDS
Astro-#             - Astro decadal mission
Astro-MIDEX-# - Astrophysics Middle Explorer Mission
Astro-MoO-#    - Astrophysics Mission of Opportunity
Astro-Probe-#  - Astrophysics Probe
Astro-SMEX-#  - Astrophysics Small Explorer Mission
AWS               - Arctic Weather Satellite
AX-#              - Axiom Space mission to ISS
AX AL             - Axiom Air Lock module - third Axiom Space module
AX Hab-1         - Axiom Habitat module - second Axiom Space module
AX Hab-2         - Axiom Habitat module - fourth  Axiom Space module
Ax PPTM          - Axiom Payload Power Thermal Module - first Axiom Space module
AX RMF            - Axiom Research and Manufacturing Module with Earth Observatory - fifth Axiom Space module
Carbon-I          - The Carbon Investigation
CBAS-#           - Continuous Broadcast Augmenting SATCOM-#
ССSFS             - Cape Canaveral Space Force Station
CINEMA           - Cross-scale Investigation of Earth’s Magnetotail and Aurora
CLPS                - Commercial Lunar Payload Services
CMEx               - Chromospheric Magnetism Explorer
COSI                - Compton Spectrometer and Imager
CP-#                - CLPS PRISM-#
CS-#                - CLPS Science-# task order from SMD
CT-#                - CLPS deliveries led by Space Technology Mission Directorate (STMD)
CX-#                - CLPS deliveries led by Exploration Systems Development Mission Directorate (ESDMD)
DRACO             - Demonstration Rocket for Agile Cislunar Operations
DSL                  - Deep Space Logistics
DYNAMIC          - Dynamical Neutral Atmosphere-Ionosphere Coupling
ECCCO             - Extreme ultraviolet Coronal Mass Ejection and Coronal Connectivity Observatory
EDGE                - Earth Dynamics Geodetic Explorer
EDLM               - Mars Entry, Descent and Landing Module
EPS-R               - Enhanced Polar Systems-Recapitalization
ESDS-#            - Earth Science Decadal Survey Mission
ESPA                - EELV Secondary Payload Adapter
ESPRIT-Refueler  - European System Providing Refueling, Infrastructure and Telecommunications
ESS                  - Evolved Strategic Satcom
EVC-#              - Earth Venture Continuity
EVI-#               - Earth Ventures-Instrument
EVM-#              - Earth Venture Mission
EWS                 - Electro-Optical Infrared (EO/IR) Weather System
EWS-OD 1        - Electro Optical/Infrared Weather System Operational Demonstration-1
EWS RROCI-#  - Electro Optical/Infrared Weather System Rapid Revisit Optical Cloud Imager-#
EZIE                 - Electrojet Zeeman Imaging Explorer
FLEX                 - Flexible Logistics and Exploration
GeoXO              - Geostationary Extended Observations
GERS                - Gateway External Robotic System (Canadarm-3)
GLIDE              - Global Lyman-alpha Imagers of the Dynamic Exosphere)
GLIMR              - Geosynchronous Littoral Imaging and Monitoring Radiometer (EVI-5)
GOMAP             - Great Observatory Technology Maturation Program
GRATTIS           - Gravitational Reference Advanced Technology Test In Space
GSSAP              - Geosynchronous Space Situational Awareness Program
HALO                - Habitation and Logistics Outpost - Gateway
HBTSS-#           - Hypersonic and Ballistic Tracking Space Sensor-#
Helio-MIDEX-#  - Heliophysics Middle Explorer Mission
Helio-Expl MoO-# - Heliophysics Explorer Mission of Opportunity
Helio-SMEX-#    - Heliophysics Small Explorer Mission
HLS                   - Human Landing System
HLS LETS          - Human Landing System Lunar Exploration Transportation Services
I-Hab                - International Habitation Module - Gateway
I-MIM                - International Mars Ice Mapper
IFT-#                 - Integrated Flight Test-# of Super Heavy/Starship
IM-#                 - Intuitive Machines lunar lander
IMAP                - Interstellar Mapping and Acceleration Probe
INCUS               - Investigation of Convective Updrafts
JRTI                  - Just Read The Instructions - ASDS
LDPE-#             - Long Duration Propulsive ESPA
LEMUR              - Low Earth Multi-Use Receiver
LIFE                  - Large Integrated Flexible Environment habitat (Sierra Space)
LTV                   - Lunar Terrain Vehicle
LWS-MoO-#      - Living With a Star Mission of Opportunity
LZ-1                  - Landing Zone 1 on ССSFS
LZ-2                  - Landing Zone 2 on ССSFS
LZ-4                  - Landing Zone 4 on VSFB
MAGIC/MCDO    - Mass-change And Geosciences International Constellation - Mass Change Designated Observable
MAV                   - Mars Ascent Vehicle [MSR]
MARV                 - Mission Assembly and Repair Vehicle
MAAX                 - Magnetospheric Auroral Asymmetry Explorer
MEPs                 - Mission Extension Pods
ML1                   - Mobile Launcher 1
ML2                   - Mobile Launcher 2
MLV                   - Medium-Lift Vehicle (Northrop Grumman and Firefly Space)
MPR                  - Mobile Power Rover
MRPs                - Mission Refueling Pods
MSR                  - Mars Sample Return
MTC                  - Missile Track Custody
MRV                  - Mission Robotic Vehicle
NET                  - Not/No Earlier Than
NFI                   - Narrow Field Imager
NG-OPIR           - Next-Generation Overhead Persistent InfraRed
NGG                  - Next Generation Overhead Persistent Infrared Geosynchronous Earth Orbit Block 0 missile warning satellite system
NGP                   - Next Generation Overhead Persistent Infrared Polar program
NGRST               - Nancy Grace Roman Space Telescope
NLSP #              - NASA Launch Services Program #
NLT                    - Not Later Than
NSSL #              - National Security Space Launch program #
NTS-#               - Navigational Test Satellite-#
OCISLY              - Of Course I Still Love You - ASDS
ODYSEA             - Ocean Dynamics and Surface Exchange with the Atmosphere
OSAM-#             - On-orbit Servicing, Assembly and Manufacturing-#
OSP-#               - Orbital Services Program
PolSIR               - Polarized Submillimeter Ice-cloud Radiometer
PPE                   - Power and Propulsion Element - Gateway
PREFIRE            - Polar Radiant Energy in the Far-InfraRed Experiment
PUNCH              - Polarimeter to Unify the Corona and Heliosphere
ROOSTER          - Rapid On-Orbit Space Technology and Evaluation Ring
SBG                  - Surface Biology and Geology
SCALPSS           - Stereo Cameras for Lunar Plume Surface Studies
SDA                   - Space Development Agency
SDA T1TL           - Space Development Agency Tranche 1 Transport Layer
SDA T2TL           - Space Development Agency Tranche 2 Transport Layer
SDA T1TR           - Space Development Agency Tranche 1 Tracking Layer
SIMPLEx             - Small Innovative Missions for Planetary Exploration
SPHEREx            - Spectro-Photometer for the History of the Universe, Epoch of Reionization and Ices Explorer
SPRITE               - Supernova Remnants and Proxies for ReIonization Testbed Experiment
SRL                    - Sample Return Lander [MSR]
STA                    - Sample Transfer Arm (ESA) [MSR]
STP-#                - Solar-Terrestrial Probes-#
STP-MoO-#        - Solar-Terrestrial Probes Mission of Opportunity
STRIVE               - Stratosphere Troposphere Response using Infrared Vertically-Resolved Light Explorer
SWFO-L1           - Space Weather Follow-On Lagrange 1
SW Next L1       - Space Weather Next Lagrange 1
TacRS                 - Tactically Responsive Space
TASA                  - Taiwan Space Agency
TBD                    - To Be Determined
TRACERS            - Tandem Reconnection and Cusp Electrodynamics Reconnaissance Satellites
TSIS-2                - Total and Spectral Solar Irradiance Sensor -2
USCV-#              - US Crew Vehicle-#
USSF-#              - US Space Force-#
VADR                  - Venture-Class Acquisition of Dedicated and Rideshare
VCLS                  - Venture Class Launch Services
VERITAS             - Venus Emissivity, Radio Science, InSAR, Topography, and Spectroscopy
VISORS              - Virtual Super-Resolution Optics Using Reconfigurable Swarms
VSFB                  - Vandenberg Space Force Base
WFI                    - Wide Field Imager
WFIRST-AFTA      - Wide Field Infrared Survey Telescope - Astrophysics Focused Telescope Assets
WSF‐G #            - Weather Satellite Follow-on Geostationary
WSF‐E #            - Weather Satellite Follow-on Electro-Optical / Infrared (EO/IR)
WSF‐M #            - Weather System Follow‐On Microwave
X                        - Expendable first stage Falcon 9

Unclear:
Date - Satellite(s) - Rocket - Launch Site - Time (UTC)

NET H1 2025 - Astro-MoO-02 - NLSP-II - TBD
Mid-2025 - Astro-MoO-03 - NLSP III - TBD
Mid-2025 - Astro-SMEX-2 - NLSP III - TBD
Mid-2025 - EVC-01 - NLSP III - TBD
2025 - STP-MoO-1 - NLSP III - TBD
2025 - Solaris - NLSP III - TBD
2025 - test launch - Spinlaunch - Unalaska (TBD)
2025 - Lynk Tower (x38) [multiple launches] - Falcon-9 - Canaveral SLC-40 / Kennedy LC-39A
2025 - ASLON-45 spacelift mission - Ravn X (Aevum) - Runway 18L/36R, Cecil Air and Space Port in Jacksonville, Florida
2025 - Satellogic constellation [multiple launches] - Falcon 9 - Canaveral
NET 2025 - Starlink deployment [multiple launches] - Falcon 9 - Canaveral SLC-40
NET 2025 - OSP-4 launch - Bolt (Super Strypi/SPARK (TBD)) - Kauai (Hawaii)
NET 2025 - POLARIS MISSION II: Crew Dragon - Falcon 9 - Kennedy LC-39A
NET 2025 - POLARIS MISSION III: Starship - Super Heavy/Starship - Kennedy LC-39A
NET 2025 - TBD - Super Heavy 2/Starship 2 - Kennedy LC-39A /Canaveral SLC-37B / Starbase Pad A/B
NET 2025 - Endurance-A lunar rover - NLSP III - Canaveral
NET 2025 - MRPs - TBD - TBD
NET 2025 - OneWeb Generation 2 constellation  [multiple launches] - Terran R - Canaveral SLC-16
NET 2025 - Lynk Tower (x1000) [multiple launches] - Falcon-9 - Canaveral SLC-40 / Kennedy LC-39A
NET 2025 - Eutelsat comsat - New Glenn - Canaveral SLC-36B
NET 2025 - JCSat comsat - New Glenn - Canaveral SLC-36B
NET 2025 - Second Commercial Manned Spaceflight around the Moon - Super Heavy/Starship - Kennedy LC-39A/Starbase Pad A/B
NET 2025 - DYNAMIC [STP-05] - NLSP II - Canaveral
NET 2025 - VCLS (VADR): cubesat (x4) - Daytona - MARS LP-0
2025-2026 - NROL: SILENTBARKER (x3?) - Vulcan-VC6L - Canaveral SLC-41
2025-2026 - NROL: SILENTBARKER (x3?) - Vulcan-VC6L - Canaveral SLC-41
2025-2026 - BlueBird Block 2 (x60) - Falcon 9 / Vulcan / New Glenn - Canaveral
NET 2025-2026 - GEI-SAT x3 (Satlantis) constellation [multiple launches] - Firefly Alpha - TBD
2025-2027 - Astranis comsat (x15)  [multiple launches] - TBD - Canaveral
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-July 2029 - Kuiper (x61) - New Glenn - Canaveral SLC-36B
2025-2029 - Lockheed Martin mission [24 launches] - Firefly Alpha - Vandenberg SLC-2 / Canaveral SLC-20
Mid-2026 - Astro-MoO-04 - NLSP III - TBD
NET November 2026 - Cargo Mars Mission - Super Heavy/Starship - Kennedy LC-39A/Starbase Pad A/B (or NET 2029)
NET November 2026 - Cargo Mars Mission - Super Heavy/Starship - Kennedy LC-39A/Starbase Pad A/B (or NET 2029)
NET November 2026 - Cargo Mars Mission - Super Heavy/Starship - Kennedy LC-39A/Starbase Pad A/B (or NET 2029)
NET November 2026 - Cargo Mars Mission - Super Heavy/Starship - Kennedy LC-39A/Starbase Pad A/B (or NET 2029)
NET November 2026 - Cargo Mars Mission - Super Heavy/Starship - Kennedy LC-39A/Starbase Pad A/B (or NET 2029)
Late 2026 - LIFE 0.3 - TBD - TBD
NET 2026 - Crewed Dream Chaser - Vulcan-VC4L - Canaveral SLC-41
NET 2026 - QuickSounder Spacecraft - NLSP-II - TBD
NET 2026 - TBD - Super Heavy 3/Starship 3 - Kennedy LC-39A /Canaveral SLC-37B / Starbase Pad A/B
NET 2026 - GLIMR (EVI-5) - NLSP III - TBD
2026-2027 - Lightspeed (x14-18) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A / Vandenberg SLC-4E
2026-2027 - Lightspeed (x14-18) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A / Vandenberg SLC-4E
2026-2027 - Lightspeed (x14-18) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A / Vandenberg SLC-4E
2026-2027 - Lightspeed (x14-18) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A / Vandenberg SLC-4E
2026-2027 - Lightspeed (x14-18) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A / Vandenberg SLC-4E
2026-2027 - Lightspeed (x14-18) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A / Vandenberg SLC-4E
2026-2027 - Lightspeed (x14-18) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A / Vandenberg SLC-4E
2026-2027 - Lightspeed (x14-18) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A / Vandenberg SLC-4E
2026-2027 - Lightspeed (x14-18) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A / Vandenberg SLC-4E
2026-2027 - Lightspeed (x14-18) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A / Vandenberg SLC-4E
2026-2027 - Lightspeed (x14-18) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A / Vandenberg SLC-4E
2026-2027 - Lightspeed (x14-18) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A / Vandenberg SLC-4E
2026-2027 - Lightspeed (x14-18) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A / Vandenberg SLC-4E
2026-2027 - Lightspeed (x14-18) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A / Vandenberg SLC-4E
2026-July 2029 - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
2026-July 2029 - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
2026-July 2029 - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
2026-July 2029 - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
2026-July 2029 - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
2026-July 2029 - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
2026-July 2029 - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
2026-July 2029 - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
2026-July 2029 - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
2026-July 2029 - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
2026-July 2029 - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
2026-July 2029 - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
2026-2034 - GPS IIIF-02 (SV12) - NSSL 3 - Canaveral
2026-2034 - GPS IIIF-03 (SV13) - NSSL 3 - Canaveral
2026-2034 - GPS IIIF-04 (SV14) - NSSL 3 - Canaveral
2026-2034 - GPS IIIF-05 (SV15) - NSSL 3 - Canaveral
2026-2034 - GPS IIIF-06 (SV16) - NSSL 3 - Canaveral
2026-2034 - GPS IIIF-07 (SV17) - NSSL 3 - Canaveral
2026-2034 - GPS IIIF-08 (SV18) - NSSL 3 - Canaveral
2026-2034 - GPS IIIF-09 (SV19) - NSSL 3 - Canaveral
2026-2034 - GPS IIIF-10 (SV20) - NSSL 3 - Canaveral
2026-2034 - GPS IIIF-11 (SV21) - NSSL 3 - Canaveral
2026-2034 - GPS IIIF-12 (SV22) - NSSL 3 - Canaveral
2026-2034 - GPS IIIF-13 (SV23) - NSSL 3 - Canaveral
2026-2034 - GPS IIIF-14 (SV24) - NSSL 3 - Canaveral
2026-2034 - GPS IIIF-15 (SV25) - NSSL 3 - Canaveral
2026-2034 - GPS IIIF-16 (SV26) - NSSL 3 - Canaveral
2026-2034 - GPS IIIF-18 (SV28) - NSSL 3 - Canaveral
2026-2034 - GPS IIIF-19 (SV29) - NSSL 3 - Canaveral
2026-2034 - GPS IIIF-20 (SV30) - NSSL 3 - Canaveral
2026-2034 - GPS IIIF-21 (SV31) - NSSL 3 - Canaveral
2026-2034 - GPS IIIF-22 (SV32) - NSSL 3 - Canaveral
NET 2027 - Orbital Reef (Blue Origin/Boeing) - New Glenn [multiple launches] - Canaveral SLC-36B
NET 2027 - LIFE 1.0 - New Glenn - Canaveral SLC-36B
2027-2031 - L3Harris mission [20 launches] - Firefly Alpha - Vandenberg SLC-2
Mid-2028 - Astro-MoO-06 - NLSP III - TBD
NET Late 2028 - Northrop Grumman Station - TBD - TBD
2028 - Mars Mission - NLSP III - TBD
2028 - SBG - NLSP III - TBD
NET 2028 - Lynk Tower (x5000) [multiple launches] - Falcon-9 - Canaveral SLC-40 / Kennedy LC-39A
NET 2028 - Manned Mars Mission - Super Heavy/Starship - Kennedy LC-39A/Starbase Pad A/B (or NET 2029)
NET 2028 - Manned Mars Mission - Super Heavy/Starship - Kennedy LC-39A/Starbase Pad A/B (or NET 2029)
Q2 2029 - Helio Expl MoO-07 - NLSP III - TBD
Q2 2029 - Planetary Defense-01 - NLSP III - TBD
Mid-2029 - Astro-MoO-07 - NLSP III - TBD
Mid-2029 - Helio-SMEX-2 - NLSP III - TBD
Mid-2029 - STP-06 - NLSP III - TBD
Q3 2029 - Astro-Probe-01 - NLSP III - TBD
NET 2029 - Cargo Mars Mission - Super Heavy/Starship - Kennedy LC-39A/Starbase Pad A/B
NET 2029 - Cargo Mars Mission - Super Heavy/Starship - Kennedy LC-39A/Starbase Pad A/B
NET 2029 - AX AL  - TBD - TBD
NET 2029 - AX Hab-2  - TBD - TBD
NET 2029 - AX RMF - TBD - TBD
Late 2020s - NeMO (New Mars Orbiter) - Falcon 9/Vulcan-VC?? - Canaveral SLC 40/41
Late 2020s - Mars orbiter - NLSP III - TBD
2020s - WSF‐E - NSSL 3 - Vandenberg
2020s - WSF‐G - NSSL 3 - Canaveral
January 2030 - Areostationary Relay Satellite-1 - NLSP III - Canaveral
Q2 2030 - Astro-SMEX-3 - NLSP III - TBD
Q2 2030 - EVC-02 - NLSP III - TBD
Q2 2030 - EVM-4 - NLSP III - TBD
Q2 2030 - LWS-MoO-8 - NLSP III - TBD
2030/2032 - Carbon-I [Earth System Explorer mission candidate] - NLSP III - TBD
2030/2032 - EDGE [Earth System Explorer mission candidate] - NLSP III - TBD
2030/2032 - ODYSEA [Earth System Explorer mission candidate]  - NLSP III - TBD
2030/2032 - STRIVE [Earth System Explorer mission candidate] - NLSP III - TBD
Mid-2030 - Astro-MoO-08 - NLSP III - TBD
NET 2030 - Discovery 17 - NLSP III - TBD
NET 2030 - 3D Winds (Demo) [Earth Systematic Missions Candidate] - NLSP III - Vandenberg
NET 2030 - GACM (Global Atmosphere Composition Mission) [Earth Systematic Missions Candidate] - NLSP III - Vandenberg
NET 2030 - LIST (Lidar Surface Topography) [Earth Systematic Missions Candidate] - NLSP III - Vandenberg
NET 2030 - PATH (Precision and All-Weather Temperature and Humidity) [Earth Systematic Missions Candidate] - NLSP III - Vandenberg
NET 2030 - SCLP (Snow and Cold Land Processes) [Earth Systematic Missions Candidate] - NLSP III - Vandenberg
NET 2030 - MARV - TBD - TBD
NET 2030 - CBAS-4 - NSSL 3 - Canaveral
NET 2030 - CBAS-5 - NSSL 3 - Canaveral
NET 2030 - CBAS-6 - NSSL 3 - Canaveral
Early 2030s - Interstellar Probe - TBD - TBD
Q2 2031 - Astro-MoO-09 - NLSP III - TBD
Q2 2031 - Helio-MIDEX-2 - NLSP III - TBD
Mid-2031 - STP-MoO-10 - NLSP III - TBD
Q3 2031 - Helio Expl MoO-09 - NLSP III - TBD
NET October 2031 - GPS III-32 - NSSL 3 - Canaveral
NET 2031 - Uranus Orbiter and Probe - Falcon Heavy (TBD) - Canaveral
2031-2034 - New Frontiers-05 - NLSP III - TBD
2031-2034 - CAESAR (Comet Astrobiology Exploration Sample Return) [New Frontiers-5 candidate] - NLSP-II - TBD
2031-2034 - Lunar Geophysical Network [New Frontiers-5 candidate] - NLSP III - TBD
2031-2034 - Io Probe [New Frontiers-5 candidate] - NLSP III - TBD
2031-2034 - VICI (Venus In-Situ Composition Investigations) [New Frontiers-5 candidate] - NLSP III - TBD
2031-2034 - ELSAH (Enceladus Life Signatures and Habitability) [New Frontiers-5 candidate] - NLSP III - TBD
Q1 2032 - ESDS-01 - NLSP III - TBD
Q1 2032 - ESDS-02 - NLSP III - TBD
Q2 2032 - Astro-MoO-10 - NLSP III - TBD
Q2 2032 - Discovery 18 - NLSP III - TBD
Mid-2032 - Astro-MIDEX-04 - NLSP III - TBD
Q3 2032 - Helio-SMEX-3 - NLSP III - TBD
2032 - AXIS (Advanced X-ray Imaging Satellite) [Probe Explorers mission candidate] - NLSP III - TBD
2032 - PRIMA (Probe far-Infrared Mission for Astrophysics) [Probe Explorers mission candidate] - NLSP III - TBD
February 2033 - Areostationary Relay Satellite-2 - NLSP III - Canaveral
Q2 2033 - MEDICI (Magnetosphere Energetics, Dynamics, and Ionospheric Coupling Investigation) [STP-07] - NLSP III - Canaveral
Q2 2033 - Astro-MoO-11 - NLSP III - TBD
Q2 2033 - EVC-03 - NLSP III - TBD
Q2 2033 - LWS MoO-11 - NLSP III - TBD
Mid-2033 - Astro-SMEX-4 - NLSP III - TBD
Mid-2033 - Astro-2 - NLSP III - TBD
Mid-2033 - Astro-3 - NLSP III - TBD
Mid-2033 - Future Mars Flagship - NLSP III - TBD
Mid-2034 - Astro-MoO-12 - NLSP III - TBD
Mid-2034 - Helio Expl MoO-12 - NLSP III - TBD
Q2 2035 - EVM-5 - NLSP III - TBD
Q2 2035 - Helio Expl MoO-13 - NLSP III - TBD
Q2 2035 - Helio-MIDEX-3 - NSSL 3 - TBD
Q2 2035 - Planetary Defense-02 - NLSP III - TBD
Q2 2035 - Discovery 19 - NLSP III - TBD
NET 2035 - Links (x24?) - NLSP III [multiple launches] - TBD
Mid-2030s - Mars Life Explorer - NLSP III - TBD
Mid to Late 2030s - UOP (Uranus Orbiter and Probe) - NLSP III - TBD
Q2 2036 - Astro-MoO-13 - NLSP III - TBD
Q2 2036 - ESDS-03 - NLSP III - TBD
Q2 2036 - EVC-04 - NLSP III - TBD
Q2 2036 - New Frontiers-06 - NLSP III - TBD
Mid-2036 - Helio-SMEX-4 - NLSP III - TBD
2036 - JPSS-5 (PFO) - NLSP III - Vandenberg
2036-2043 - Artemis: Crewed mission of Orion - SLS Block 2/EUS - Kennedy LC-39B
2036-2043 - Artemis: Crewed mission of Orion - SLS Block 2/EUS - Kennedy LC-39B
2036-2043 - Artemis: Crewed mission of Orion - SLS Block 2/EUS - Kennedy LC-39B
2036-2043 - Artemis: Crewed mission of Orion - SLS Block 2/EUS - Kennedy LC-39B
2036-2043 - Artemis: Crewed mission of Orion - SLS Block 2/EUS - Kennedy LC-39B
2036-2043 - Artemis: Crewed mission of Orion - SLS Block 2/EUS - Kennedy LC-39B
2036-2043 - Artemis: Crewed mission of Orion - SLS Block 2/EUS - Kennedy LC-39B
2036-2043 - Artemis: Crewed mission of Orion - SLS Block 2/EUS - Kennedy LC-39B
Q1 2037 - STP-08 - NLSP III - TBD
Q2 2037 - Astro-MoO-14 - NLSP III - TBD
Q2 2037 - Astro-SMEX-5 - NLSP III - TBD
Mid-2037 - Astro-Probe-02 - NLSP III - TBD
Mid-2037 - Astro-MIDEX-05 - NLSP III - TBD
Q4 2037 - Discovery 20 - NLSP III - TBD
NET 2037 - GEO-Central (GeoXO3) - NLSP III - Canaveral
Q2 2038 - Astro-MoO-15 - NLSP III - TBD
Q2 2039 - Astro-MoO-16 - NLSP III - TBD
Mid-2039 - EVC-05 - NLSP III - TBD
Late 2030s - Enceladus Orbilander - Falcon Heavy  / SLS - Canaveral
2030s - I-MIM - TBD - TBD
Q2 2040 - EVM-6 - NLSP III - TBD
Q2 2040 - Helio-MIDEX-4 - NSSL 3 - TBD
Q2 2040 - Astro-4 - NLSP III - TBD
Mid-2040 - ESDS-04 - NLSP III - TBD
Mid-2040 - Helio-SMEX-5 - NLSP III - TBD
Q2 2041 - Astro-SMEX-6 - NLSP III - TBD
Q2 2041 - New Frontiers-07 - NLSP III - TBD
Q2 2041 - STP-09 - NLSP III - TBD
2041 - JPSS-6 (PFO) - NLSP III - Vandenberg
2041 - HWO (Habitable Worlds Observatory) - NLSP III - TBD
Q1 2042 - Astro-5 - NLSP III - TBD
NET 2043 - Astro-6 - NLSP III - TBD
NET 2043 - EVM-7 - NLSP III - TBD
2046 - JPSS-7 (PFO) - NLSP III - TBD
2047 - Far-Infrared mission (GOMAP) - NLSP III - TBD (or 2040)
2051 - X-ray mission (GOMAP) - NLSP III - TBD (or 2045)
2050s - JPSS-8 (PFO) - NLSP III - Vandenberg
2050s - JPSS-9 (PFO) - NLSP III - Vandenberg
2050s - JPSS-10 (PFO) - NLSP III - Vandenberg
2069 - interstellar mission - TBD - TBD
TBD - first launch - Quetzalcóatl spaceplane drone (Wagner Star Industries) - TBD
TBD - first launch - NEPTUNE - open-ocean location off the California coast
TBD - first launch - TRITON - open-ocean location off the California coast
TBD - first launch - TRITON Heavy - open-ocean location off the California coast
TBD - Vast’s multi-module spinning artificial gravity space station - Super Heavy/Starship - Kennedy LC-39A
TBD - APS-R - NSSL 3 - Canaveral
TBD - CINEMA (mission candidate) - NLSP III - TBD
TBD - CMEx (mission candidate) - NLSP III - TBD
TBD - ECCCO (mission candidate) - NLSP III - TBD
TBD - MAAX (mission candidate) - NLSP III - TBD
TBD - Starshield constellation [multiple launches] - Falcon-9 (TBD) - TBD

Rideshare:
2025 - TETRA-2 - TBD - TBD
2025 - TETRA-3 - TBD - TBD
2025 - TETRA-4 - TBD - TBD
2025 - Chilean nanosat (x3) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
NET 2025 - Chilean nanosat (x3) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
NET 2025 - HyperSat 1 - TBD - TBD
NET 2025 - HyperSat 2 - TBD - TBD
NET 2025 - HyperSat 3 - TBD - TBD
NET 2025 - HyperSat 4 - TBD - TBD
NET 2025 - HyperSat 5 - TBD - TBD
NET 2025 - HyperSat 6 - TBD - TBD
NET 2025 - SatRevolution Mars Mission - TBD - TBD
NET 2025 - STP-S28C: Athena, cubesat (x14) - TBD - TBD
NET 2025 - Iridium-NEXT 182 - TBD - TBD
NET 2025 - Fasat Echo 1 - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
NET 2025 - Fasat Echo 2 - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
2027 - PolSIR (x2) (EVI-6) - NLSP III - TBD
TBD - CryoCube 2 (CC-2) - TBD - TBD
TBD - Tetra 5A, Tetra 5B, Tetra 5C - TBD - TBD
TBD - Grissom-P - TBD - TBD
TBD - Grissom-2 - TBD - TBD
TBD - Nova - TBD - TBD
TBD - Comet - TBD - TBD
TBD - Janus A, Janus B [SIMPLEx program] - TBD - TBD
TBD - Auris - TBD - TBD
TBD - Paladin (x2) [GTO] - TBD - TBD

18

Other US Launchers / Re: US Launch Schedule

« Last post by Salo on Today at 07:02 am »

Scheduled:
Date - Satellite(s) - Rocket - Launch Site - Time (UTC)

2025
NET March 24 - NROL-69 - Falcon 9-452 (LZ-1) - Canaveral SLC-40 - 17:42-18:24
NET March 24/25 - Starlink Group 11-7 (x23?) flight 245 [V2 Mini L156] - Falcon 9-453 (OCISLY) - Vandenberg SLC-4E - 22:00-02:00
NET March 26 - "Message in a Booster": LM 400 tech demo (Lockheed Martin mission 1) - Firefly Alpha (FLTA006) - Vandenberg SLC-2 - 13:37-15:17
NET March - Starlink Group 12-10 (x8) flight ?? [V2 Mini L??], Starlink (x13) [V2 Mini D2C L??] - Falcon 9 (ASDS) - Canaveral SLC-40
NET March - Kuiper KA-01 (x27) - Atlas V 551 - Canaveral SLC-41
NET April 1  - Fram2: Crew Dragon Resilience [C207.4] - Falcon 9 (ASDS) - Kennedy LC-39A ~03:00
NET April 20 - Bandwagon-3: 425 Project SAR satellite F4, Haven-Demo, PHOENIX, Tomorrow.io-5, Tomorrow.io-6 - Falcon 9 (LZ-1) - Canaveral SLC-40
NET April 21 - Dragon v2 SpX-32 (CRS-32) [inside: e-kagaku-1, GHS-01, STARS-Me2], ACES - Falcon 9 (LZ-1) - Kennedy LC-39A ~08:00
NET Late April - AX-4: Crew Dragon [C213.1] - Falcon 9 (LZ-1) - Canaveral SLC-40 / Kennedy LC-39A
April - SDA T1TR-A (x7) -  Falcon-9 - Vandenberg SLC-4E
April - Rivada (x24) L1 - Falcon-9 - Vandenberg SLC-4E
NET April - Flight 9 - Super Heavy/Starship (B14 or B16/S35 Block 2) - Starbase Pad A
NET May 1 - Elytra Mission 1: NRO-X: Undisclosed US Government primary payloads, AEPEX (ELaNa 55), FANTM Ride, commercial rideshare payloads - Firefly Alpha (FLTA007) - Vandenberg SLC-2
NET May 11 - TRACERS A [SMEX 16A], TRACERS B [SMEX 16B], Athena, Dione (ELaNa 53), Jackal-4, SPRITE - Falcon-9 - Vandenberg SLC-4E
May - EWS-OD1 (USSF-261S-A) - Minotaur IV - Vandenberg SLC-8
NET May - Nusantara Lima (Nusantara 5) - Falcon 9 (ASDS) - Canaveral SLC-40 / Kennedy LC-39A
NET May - TBD - New Glenn NG-2 (GS1-SN002 Jacklyn LPV1') - Canaveral SLC-36B
May-June - Rivada (x24) L2 - Falcon-9 - Vandenberg SLC-4E
NET Spring - EscaPADE A, EscaPADE B (Escape and Plasma Acceleration and Dynamics Explorers) [SIMPLEx program] -  New Glenn - Canaveral SLC-36B (or 2026)
June - SDA T1TR-B (x7) - Vulcan-VC?? - Vandenberg SLC-3E
NET June - Cygnus NG-22 (CRS-22) [inside: Alpha (ELaNa 52), ContentCube, DUPLEX, ELaNa 58: BLAST, EagleSat 2, QubeSat-2, RHOK-SAT] - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
NET Q2 - LUXEOSys (NAOS) - Falcon 9 - Vandenberg SLC-4E
NET Q2 - NROL-48: Starshield (x22?) - Falcon 9 (OCISLY) - Vandenberg SLC-4E
NET Q2 - NROL-145: Starshield (x22?)  - Falcon 9 (OCISLY) - Vandenberg SLC-4E
NET Q2 - NROL-192: Starshield (x20?) - Falcon 9 (OCISLY) - Vandenberg SLC-4E
NET Q2 - USSF-106: NTS-3 (Timation-5) [Vanguard], SunRISE (Sun Radio Interferometer Space Experiment) (x6) - Vulcan-VC4S (V003) - Canaveral SLC-41
NET Q2 - USSF-87: GSSAP 7, GSSAP 8 - Vulcan-VC4S - Canaveral SLC-41
NET Q2 - ViaSat-3.2 (ViaSat-3 EMEA) - Atlas V 551 (AV-100) - Canaveral SLC-41
NET Q2 - Kuiper (x27) - Atlas V 551 - Canaveral SLC-41
NET Q2 - Kuiper (x27) - Atlas V 551 - Canaveral SLC-41
NET Q2 - GPS III SV08 (Navstar 81, Katherine Johnson) - Vulcan-VC0S - Canaveral SLC-41
NET Q2 - TBD - Super Heavy/Starship - Starbase Pad A/B
NET Q2 - TBD - Super Heavy/Starship - Starbase Pad A/B
NET Q2 - Starlink group ?? (x??) flight ?? [V2 L01] - Super Heavy/Starship - Starbase Pad A/B
NET Q2 - first test launch - Rocket 4 (Astra) - TBD
June-July - Rivada (x24) L3 - Falcon-9 - Vandenberg SLC-4E
Midyear - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
Midyear - Kuiper (xTBD) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
Midyear - Globalstar HIBLEO-4 (x8) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
Midyear - first launc from Florida - Super Heavy/Starship - Kennedy LC-39A /Canaveral SLC-37B
July - SDA T1TR-C (x7) - Falcon 9 - Vandenberg SLC-4E
July - MTG-S1 (Sentinel-4A) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
July - Transporter-14: IOV, Nyx, OSSIE, Tomorrow.io-13, Tomorrow.io-14, UND ROADS #1, UND ROADS #2, Winnebago 4 - Falcon 9 - Canaveral / Vandenberg SLC-4E
NET July - Bandwagon-4: San Xavier, Tomorrow.io-11, Tomorrow.io-12 - Falcon 9 - Vandenberg SLC-4E
NET July - USCV-11: Crew Dragon (Crew-11) - Falcon 9 (LZ-1) - Canaveral SLC-40 / Kennedy LC-39A
July-August - Rivada (x24) L4 - Falcon-9 - Vandenberg SLC-4E
August - Blue Moon MK1-SN001 [SCALPSS] - New Glenn - Canaveral SLC-36B
August - SDA T1TR-D (x7) - Vulcan-VC?? - Vandenberg SLC-3E
August-September - Rivada (x24) L5 - Falcon-9 - Vandenberg SLC-4E
NET Late Summer - Dream Chaser Cargo System 1st flight [DCC-1] (SNC-1): Tenacity, Shooting Star - Vulcan-VC4L - Canaveral SLC-41
NET Late Summer - SDA T1TL-B (x21) - Falcon 9 - Vandenberg  SLC-4E
NET Late Summer - SDA T1TL-A (x21) - Falcon 9  - Vandenberg  SLC-4E
NET Fall - SDA T1TL-C (x21) - Falcon 9 - Vandenberg SLC-4E
September - KOMPSAT-7A (Arirang-7A) - Falcon-9 - Canaveral SLC-40 / Kennedy LC-39A
September - Spainsat NG-2 - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
NET September - IMAP [STP-05], SWFO-L1, GLIDE (Carruthers Geocorona Observatory) - Falcon 9 - Canaveral SLC-40
NET September - STP-S29A: STPSat-7 - Minotaur IV - Vandenberg SLC-8
September-October - Rivada (x24) L6 - Falcon-9 - Vandenberg SLC-4E
NET H2 - BlueBird Block 2 (x8) - New Glenn - Canaveral SLC-36
NET H2 - BlueBird Block 2 (x8) - New Glenn - Canaveral SLC-36
NET H2 - BlueBird Block 2 (x4) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
NET H2 - AX-5: Crew Dragon - Falcon 9 (LZ-1) - Canaveral SLC-40 / Kennedy LC-39A
NET H2 - Kuiper (xTBD) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
NET H2 - Kuiper (xTBD) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
NET H2 - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
NET H2 - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
NET H2 - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
NET H2 - first flight - Neutron - MARS LA-0D/LP-0D (LC-3) (or Mid- 2026)
Q4 - SDA T1TL-D (x21) - Falcon 9 - Vandenberg SLC-4E
Q4 - SDA T1TL-E (x21) - Falcon 9 - Vandenberg  SLC-4E
Q4 - SDA T1TL-F (x21) - Falcon 9 - Vandenberg  SLC-4E
Q4 - ELaNa 55: CANVAS - Daytona (first flight) - Vandenberg SLC-5
NET Q4 - STP-S29B - Rocket 4 (Astra) - Canaveral SLC-46
NET October - Dragon v2 SpX-33 (CRS-33) - Falcon 9 - Kennedy LC-39A
NET October - Transporter-15: Pandora, Winnebago 5 - Falcon 9 - Canaveral / Vandenberg SLC-4E
October-November - Rivada (x24) L7 - Falcon-9 - Vandenberg SLC-4E
NET October - TSIS-2, CubIXSS, RAPSat-1A, RAPSat-1B, RAPSat-1C, SPARCS, SunCET - Falcon 9 - Vandenberg  SLC-4E
NET November  - Sentinel-6B (Jason-CS-B) - Falcon 9 - Vandenberg SLC-4E (or December)
November-December - Rivada (x24) L8 - Falcon-9 - Vandenberg SLC-4E
December - Griffin-1 (Astrobotic) (FLIP rover, Hosted Payload: LRA, MSolo, NIRVSS, NSS, TRIDENT) [CLPS, 20A] [Moon Lander to South Pole] - Falcon Heavy (??, ?? X, ??) - Kennedy LC-39A
NET December - USSF-57: NGG-1 (NG-OPIR-GEO 1) -  Vulcan-VC?? - Canaveral SLC 41
Late - GPS III SV09 (Ellison Onizuka) - Vulcan-VC0S - Canaveral SLC-41
Late - GPS III SV10 (Hedy Lamarr) - Vulcan-VC0S - Canaveral SLC-41
NET Late - Cygnus NG-23 (CRS-23) - Antares 330 (inaugural flight) - MARS LP-0A
TBD - Astranis Block 3: Apco 1, Apco 2, Andesat 1, Thaicom-9, Orbith-1 - Falcon 9 (TBD) - Canaveral SLC-40 / Kennedy LC-39A (TBD)
TBD - USSF-36 - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
TBD - O3b mPower 9, O3b mPower 10, O3b mPower 11 - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
TBD - SDA T1TR-E (x7) - Falcon 9 - Vandenberg SLC-4E (or 2026)
TBD - USSF-31 - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
TBD - USSF-70 - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A (or 2026)
TBD - USSF-75 - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A (or 2026)
TBD - Skynet 6A - Falcon-9 - Canaveral SLC-40 / Kennedy LC-39A
TBD - 425 Project SAR satellite F5 - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A / Vandenberg  SLC-4E
TBD - CAS500-2, CAS500-4 - Falcon 9 - Vandenberg SLC-4E
TBD - SpaceEye-T - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A / Vandenberg SLC-4E
TBD - NROL-77 - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A (or 2026)
TBD - Starlink group ?? (x??) flight ?? [V3 L01] - Super Heavy/Starship - Kennedy LC-39A /Canaveral SLC-37B  / Starbase Pad A/B
TBD - SpaceX Uncrewed Lunar Demo - Super Heavy/Starship - Kennedy LC-39A (or H1 2026)
TBD - SpaceX tanker [multiple launches] - Super Heavy/Starship - Kennedy LC-39A / Canaveral SLC-37B/Starbase Pad A/B (or H1 2026)
TBD - USSF-112 - Vulcan-VC4 - Canaveral SLC-41
TBD - USSF-114 - Vulcan-VC?? - Vandenberg SLC-3E
TBD - STP-5 (x2) - Vulcan-VC?? - Canaveral SLC-41 (or 2026)
TBD - USSF-25 - Vulcan-VC?? - Canaveral SLC-41 (or 2026)
TBD - NROL-56 - Vulcan-VC?? - Canaveral SLC-41 (or 2026)
TBD - NROL-64 - Vulcan-VC?? - Canaveral SLC-41
TBD - NROL-73 - Vulcan-VC?? - Vandenberg SLC-3E (or 2026)
TBD - NROL-83 - Vulcan-VC?? - Vandenberg SLC-3E
TBD - NROL-100 - Vulcan-VC?? - Vandenberg SLC-3E (or 2026)
TBD - NROL-109 - Vulcan-VC?? - Canaveral SLC-41 (or 2026)
TBD - NROL-118/SILENTBARKER 2: SILENTBARKER 2-1, SILENTBARKER 2-2, SILENTBARKER 2-3 - Vulcan-VC6 - Canaveral SLC-41 (or 2026)
TBD - NROL-174 - Minotaur IV - Vandenberg SLC-8
TBD - Gateway: PPE + HALO - Falcon Heavy (??, ?? X, ??) - Kennedy LC-39A
TBD - WGS-11+ - Vulcan-VC2L - Canaveral SLC-41
TBD - USSF-16 - Vulcan-VC?? - Canaveral SLC-41
TBD - USSF-23 - Vulcan-VC?? - Canaveral SLC-41
TBD - USSF-43 - Vulcan-VC?? - Canaveral SLC-41
TBD - TacRS-4: Victus Haze (Rocketlab satellite with Pioneer bus) - Electron/Kick Stage - MARS LA-0C (LC-2) / Mahia LC-1 (NZ)
TBD - commercial payload - Rocket 4 (Astra) - TBD
TBD - LM TacSat-Demo - Firefly Alpha - Vandenberg SLC-2
TBD - EOS SAR 1 - Firefly Alpha - Vandenberg SLC-2
TBD - Jackal - Firefly Alpha - Vandenberg SLC-2
TBD - inaugural flight - Shockwave - Kennedy LC-48
TBD - first flight - MLV - MARS LP-0A
TBD - first flight - Laguna - TBD
TBD - CS-3 [LuSEE-Night] (CLPS) [Moon Lander to Lunar Far Side] - TBD - TBD
TBD - Ranger OTV (Quantum Space) [Scout (x4)] - TBD - TBD

Rideshare:
Q2 - GARAI B - TBD - TBD
NET April 1 - Acadia 7, Acadia 8 - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
NET May 1 - Acadia 9 - Falcon 9 - Vandenberg SLC-4E
NET May - Tomorrow NG (x2) - TBD - TBD
June - Ouija - TBD - Canaveral
Q4 - GOLF-TEE - TBD - TBD
NET October 1 - Acadia 11 - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
Late - DYNAGLO (x2) [DYNamics Atmosphere GLObal-Connection] - TBD - TBD
Late - upgraded Mira - TBD - TBD
TBD - SunCET (Sun Coronal Ejection Tracker) - TBD - TBD
TBD - Tomorrow NG (x18) [multiple launches] - TBD - TBD
TBD - LizzieSat-5, LizzieSat-6 - Falcon-9 - TBD
TBD - Max Space 20 - Falcon-9 - TBD
TBD - Binar Prospector (x2) [CLPS] - TBD - TBD
TBD - Aries (x20) - TBD - TBD
TBD - Pixxel (x18) - TBD - TBD
TBD - TETRA-5A, TETRA-5B, TETRA-5C - TBD - TBD
TBD - Aspera - TBD - TBD
TBD - StarBurst - TBD - TBD
TBD - STPSat-8 - TBD - TBD
TBD - Spectre vehicle - TBD - TBD (or 2026)
TBD - ELaNa 55: INCA-2 - TBD - TBD
TBD - ELaNa 56: ARCSTONE - TBD - TBD
TBD - Owlet-01 - TBD - TBD
TBD - Cryogenic Fluid Management Demonstration - TBD - TBD
TBD - Buccanneer Main Mission (BMM) - TBD - TBD
TBD - ELaNa 42: DARLA, OrCa2, R5-S3, R5-S5, TechEdSat-16 - TBD - Vandenberg
TBD - Aries (x5) - TBD - TBD
TBD - Pixxel (x6) - TBD - TBD
TBD - CougSat-1 - Falcon 9 - TBD
TBD - Satellogic sats - Falcon 9 - TBD
TBD - Reliant Pro - TBD - TBD
TBD - Grissom-1 (GM1) - TBD - TBD
TBD - GTOSat - NSSL 2 - Canaveral
[TBD - ELaNa: GOLF-1 - TBD - TBD
TBD - Gunsmoke-G - TBD - TBD
TBD - Bhaarathiya-Sat - Falcon 9 - TBD
TBD - PyCubed-1 - TBD - TBD
TBD - SeaLion (VSCP 1A) - TBD - TBD
TBD - Ut-ProSat 1 (VSCP 1B) - TBD - TBD
TBD - DOGE-1 - TBD - TBD
TBD - ELaNa 46: TechEdSat-12 - TBD - TBD
TBD - ELaNa 59: R5-S6 - TBD - TBD
TBD - VariSat-1B (OmniTeq 2), hosted payload: Dorsat-01 - TBD - TBD

From Foreign Launch Site:
NET March 26 - 63rd mission "Finding Hot Wildfires Near You": OTC-P1 (x8) - Electron/Kick Stage - Mahia LC-1 (NZ) - 15:30
NET April - Skylark 5, Skylark 6, Skylark 7, Skylark 8 (NorthStar) - Electron/Kick Stage - Mahia LC-1 (NZ)
NET April - Hawk (x6) - Electron/Kick Stage - Mahia LC-1 (NZ) / MARS LC-2 (US)
NET May - QPS-SAR 10 - Electron/Kick Stage - Mahia LC-1 (NZ)
NET May - QPS-SAR 11 - Electron/Kick Stage - Mahia LC-1 (NZ)
NET June 1 - Acadia 10 - Electron/Kick Stage - Mahia LC-1 (NZ)
NET H2 - QPS-SAR 12 - Electron/Kick Stage - Mahia LC-1 (NZ)
NET H2 - QPS-SAR 13 - Electron/Kick Stage - Mahia LC-1 (NZ)
NET H2 - QPS-SAR 14 - Electron/Kick Stage - Mahia LC-1 (NZ)
Late - LOXSAT 1 - Electron/Photon LEO - Mahia LC-1A (NZ)
TBD - StriX-5 - Electron/Kick Stage - Mahia LC-1 (NZ)
TBD - StriX-6 - Electron/Kick Stage - Mahia LC-1 (NZ)
TBD - StriX-7 - Electron/Kick Stage - Mahia LC-1 (NZ)
TBD - StriX-8 - Electron/Kick Stage - Mahia LC-1 (NZ)
TBD - BlackSky Global Gen-3 (х2) - Electron/Kick Stage - Mahia LC-1 (NZ)
TBD - BlackSky Global Gen-3 (х2) - Electron/Kick Stage - Mahia LC-1 (NZ)
TBD - BlackSky Global Gen-3 (х2) - Electron/Kick Stage - Mahia LC-1 (NZ)
TBD - BlackSky Global Gen-3 (х2) - Electron/Kick Stage - Mahia LC-1 (NZ)
TBD - Skylark 9, Skylark 10, Skylark 11, Skylark 12 (NorthStar) - Electron/Kick Stage - Mahia LC-1 (NZ)
TBD - Hawk (x6) - Electron/Kick Stage - Mahia LC-1 (NZ) / MARS LC-2 (US)

Suborbital launches:
NET Q1 - DART AE - Electron/Kick Stage (HASTE) - MARS LA-0C (LC-2)
TBD - Leidos Mission 3 (MACH-TB3) - Electron/Kick Stage (HASTE) - MARS LA-0C (LC-2)
TBD - Leidos Mission 4 (MACH-TB4) - Electron/Kick Stage (HASTE) - MARS LA-0C (LC-2)
TBD - Leidos Mission 5 (MACH-TB5) - Electron/Kick Stage (HASTE) - MARS LA-0C (LC-2)

2026
January-February - Rivada (x24) L9 - Falcon-9 - Vandenberg SLC-4E
Early - Nova-C IM-3 (CLPS-5, CP-11) [Payload: CADRE, Lunar Vertex (LVx), LUSEM, MPAc] [Moon Lander to Reiner Gamma] - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
Early - TBD - Firefly Alpha - MARS LP-0A
NET February - Transporter 16: ExoTerra Courier, Gravitas, Icarus 2.0, LumirX-1, MicroSAR, MULA, RADSET-1, Vigoride - Falcon 9 - Canaveral / Vandenberg SLC-4E
NET February - QuickSounder - Firefly Alpha - Vandenberg SLC-2
February-March - Rivada (x24) L10 - Falcon-9 - Vandenberg SLC-4E
Spring - USCV-12: Crew Dragon (Crew-12) - Falcon 9 (LZ-1) - Canaveral SLC-40 / Kennedy LC-39A
NET March - Dream Chaser Cargo System [DCC-2] (SNC-2): Shooting Star - Vulcan-VC4L - Canaveral SLC-41
NET H1 - STP-S30: DISKSat 1, DISKSat 2, DISKSat 3, DISKSat 4 - Electron/Kick Stage - MARS LA-0C (LC-2)
Q2 - Transporter 17: InspireSAT MVP, OTP-3 - Falcon 9 - Canaveral / Vandenberg SLC-4E
April - Cygnus NG-24 (CRS-24) - Antares 330 - MARS LP-0A
April - Artemis II (Crewed flight of Orion around Moon) - SLS Block 1/iCPS - Kennedy LC-39B ML1
April-May - Rivada (x24) L11 - Falcon-9 - Vandenberg SLC-4E
NET May - Haven-1 - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
June - Rivada (x24) L12 - Falcon-9 - Vandenberg SLC-4E
NET June - Vast-1: Crew Dragon - Falcon 9 (LZ-1) - Canaveral SLC-40 / Kennedy LC-39A
NET June - Dragon v2 SpX-34 (CRS-34) - Falcon 9 - Kennedy LC-39A
Midyear - FLEX rover - Super Heavy/Starship HLS - Kennedy LC-39A
Midyear - Elytra Dark orbital vehicle [Blue Ghost M2 (LuSEE-Night, UT) [Moon Lander to Lunar Far Side], Lunar Pathfinder] - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
Midyear - confidential commercial satellite constellation - Neutron - MARS LA-0D/LP-0D (LC-3)
Summer -  VLF (Venus Life Finder NZSA) - Neutron - MARS LA-0D/LP-0D (LC-3)
NET September - Victus Surgo: Mira [TBD] - Falcon 9/Helios tug - Canaveral SLC-40 / Kennedy LC-39A
NET H2 - USCV-13: CST-100 Starliner-1 - Atlas V N22 - Canaveral SLC-41
NET H2 - confidential commercial satellite constellation - Neutron - MARS LA-0D/LP-0D (LC-3)
Q4 - SDA T2TL-A (x12) - Falcon 9 - Vandenberg  SLC-4E
NET Q4 - SDA T2TL-B (x12) - Vulcan-VC?? - Vandenberg SLC-3E
NET Q4 - SDA T2TL-C (x12) - Falcon 9 - Vandenberg  SLC-4E
NET Q4 - TBD - Falcon 9/Helios tug - Canaveral SLC-40 / Kennedy LC-39A (or 2027)
NET Q4 - TBD - Falcon 9/Helios tug - Canaveral SLC-40 / Kennedy LC-39A (or 2027)
NET Q4 - APEX 1.0 lander (Draper) [FSS, LITMS, LuSEE-Lite] [iSpace Mission 3, CLPS, CP-12] [Moon Lander to Schrödinger Basin] - Falcon 9 - Kennedy LC-39A
October - INCUS A, INCUS B, INCUS C [EVM-3] - Firefly Alpha - MARS LP-0A
NET October - Dragon v2 SpX-35 (CRS-35) - Falcon 9 - Kennedy LC-39A
NET October - Transporter 18: Blue Moon, GITAI, GRATTIS, Hibiscus, Veery-1A - Falcon 9 - Canaveral / Vandenberg SLC-4E
Late - Series 3 lander [iSpace Mission 6] - TBD - TBD
Late - USSF-95: MTC prototype (x6) - Vulcan-VC?? - Canaveral SLC-41
NET Late - Cygnus NG-25 (CRS-25) - Antares 330 - MARS LP-0A (or Early 2026)
TBD - O3b mPower 12, O3b mPower 13 - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
TBD - Arabsat 7A - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
TBD - TBD, MRV, MEPs - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
TBD - Astrobotic lander to the Moon’s South Pole - Falcon Heavy (??, ?? X, ??) - Kennedy LC-39A
TBD - Blue Moon MK1-SN002 - New Glenn - Canaveral SLC-36
TBD - Kuiper (x27) - Atlas V 551 - Canaveral SLC-41
TBD - Kuiper (x27) - Atlas V 551 - Canaveral SLC-41
TBD - Kuiper (x27) - Atlas V 551 - Canaveral SLC-41
TBD - Kuiper (x27) - Atlas V 551 - Canaveral SLC-41
TBD - Kuiper (x27) - Atlas V 551 - Canaveral SLC-41
TBD - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
TBD - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
TBD - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
TBD - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
TBD - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
TBD - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
TBD - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
TBD - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
TBD - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
TBD - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
TBD - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
TBD - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
TBD - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
TBD - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
TBD - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
TBD - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
TBD - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
TBD - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
TBD - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
TBD - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
TBD - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
TBD - Kuiper (x45) - Vulcan-VC6L - Canaveral SLC-41
TBD - Impulse Space Mars Lander - Terran R (first flight) - Canaveral SLC-16
TBD - OneWeb Gen 2 (xTBD) - Terran R - Canaveral SLC-16
TBD - LEO comsat (TASA) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
TBD -  L3Harris L1 - Firefly Alpha - Vandenberg SLC-2
TBD -  L3Harris L2 - Firefly Alpha - Vandenberg SLC-2
TBD -  L3Harris L3 - Firefly Alpha - Vandenberg SLC-2
TBD - CBAS-3 - NSSL 3 - Canaveral
TBD - Lunar Lander (iSpace mission 3), two communication relay satellites - TBD - TBD
TBD - Canadian lunar rover - TBD - TBD
TBD - CP-21 (CLPS) [Moon Lander to Gruithuisen Domes] - TBD - TBD
TBD - CP-22 (CLPS) [Moon Lander to South Pole deliver a drill] - TBD - TBD
TBD - CP-31 (CLPS) - TBD - TBD
TBD - Lunar Sample Return - TBD - Canaveral
TBD - Aries (x100) - TBD - TBD
TBD -  Otter (Starfish Space) - TBD - TBD

Rideshare:
Q1 - Ultrasat - NSSL 3 - Canaveral
Q1 - ELaNa 59: SWARM-EX 1, SWARM-EX 2, SWARM-EX 3 - TBD - TBD
May 29 - ROOSTER-4 (LDPE-4) - NSSL 2 - TBD
Fall - Victus Salo: Mira [TBD] - Falcon 9 - Canaveral / Vandenberg SLC-4E
TBD - MANTIS (Monitoring Activity from Nearby sTars with uv Imaging and Spectroscopy) - TBD - TBD

From Foreign Launch Site:
Late - TBD - Firefly Alpha - Esrange (or Early 2027)
TBD - StriX-9 - Electron/Kick Stage - Mahia LC-1 (NZ)
TBD - StriX-10 - Electron/Kick Stage - Mahia LC-1 (NZ)
TBD - StriX-11 - Electron/Kick Stage - Mahia LC-1 (NZ)
TBD - QPS-SAR 15 - Electron/Kick Stage - Mahia LC-1 (NZ)
TBD - QPS-SAR 16 - Electron/Kick Stage - Mahia LC-1 (NZ)

Suborbital launches:
TBD - TBD - Delta spaceship (Virgin Galactic) - Spaceport America

2027
Early - USSF-??: MTC (x6) -  NSSL 3 - Canaveral
February - USCV-14: Crew Dragon (Crew-12) - Falcon 9 (LZ-1) - Canaveral SLC-40 / Kennedy LC-39A
Q1 - Transporter 19: TBD - Falcon 9 - Canaveral / Vandenberg SLC-4E
H1 - SDA T2TL-D (x12) - NSSL 3 - TBD
H1 - SDA T2TL-E (x12) - NSSL 3 - TBD
H1 - SDA T2TL-F (x12) - NSSL 3 - TBD
H1 - SDA T2TL-G (x12) - NSSL 3 - TBD
H1 - SDA T2TL-H (x12) - NSSL 3 - TBD
H1 - SDA T2TL-I (x12) - NSSL 3 - TBD
NET H1 - Dream Chaser Cargo System (DCC-3): Shooting Star - Vulcan-VC4L - Canaveral SLC-41
Q2 - Transporter 20: TBD - Falcon 9 - Canaveral / Vandenberg SLC-4E
Q2 - MUSE (Multi-slit Solar Explorer) [MIDEX 10, Helio-MIDEX-1] - NLSP II - TBD
May - NGRST (WFIRST-AFTA) [Astrophysics Decadal Mission Astro-1] - Falcon Heavy (??, ?? X, ??) -  Kennedy LC-39A
June - Europa Lander (Lander/Rover) - SLS Block 1B/EUS - Kennedy LC-39B
NET June - Dragon v2 SpX-36 (CRS-36) - Falcon 9 - Kennedy LC-39A
Midyear - MoonBEAM (Moon Burst Energetics All-sky Monitor) [Astro-MoO-05 Candidate] - NLSP II - TBD
August - USCV-15: CST-100 Starliner-3 - Atlas V N22 - Canaveral SLC-41
Midyear - Artemis III (Landing the first astronauts on the lunar South Pole) - SLS Block 1/iCPS - Kennedy LC-39B ML1 (or February 2028)
Midyear - SpaceX Crewed Lunar Demo - Super Heavy/Starship HLS - Kennedy LC-39A (or February 2028)
Midyear - SpaceX tanker [multiple launches] - Super Heavy/Starship - Kennedy LC-39A /Canaveral SLC-37B/Starbase Pad A/B (or February 2028)
August - COSI [SMEX 17] - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
NET September - NEO Surveyor (Near Earth Object Surveyor) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
NET September - GDC (Geospace Dynamics Constellation) - NSSL 3 - TBD
H2 - GEO-KOMPSAT-3 - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
Q4 - Transporter 21: TBD - Falcon 9 - Canaveral / Vandenberg SLC-4E
Q4 - IM-4 (CLPS) [Payload: MPR-1] - TBD - TBD
NET October - Dragon v2 SpX-37 (CRS-37) - Falcon 9 - Kennedy LC-39A
December - JPSS-4 (PFO) - Falcon 9 - Vandenberg SLC-4E (or January 2028)
TBD - Al Yah 4 - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
TBD - GPS IIIF-01 (SV11) - Falcon Heavy - Canaveral SLC-37B/LC-39A
TBD - Superbird-9 - Super Heavy/Starship - Kennedy LC-39A /Canaveral SLC-37B/Starbase Pad A/B
TBD - AX PPTM - New Glenn - Canaveral SLC-36
TBD - NGG-2 (NG-OPIR-GEO 2) - Falcon-9/Vulcan-VC?? - Canaveral SLC 40/41
TBD - TBD - MLV - Vandenberg
TBD - Lunar Lander (iSpace mission 4) - TBD - TBD
TBD - CP-32 (CLPS) - TBD - TBD
TBD - CP-41 (CLPS) - TBD - TBD
TBD - CT-1 (CLPS) - TBD - TBD
TBD - USSF-25: DRACO  - Vulcan-VC?? - Canaveral SLC-41
TBD - Oracle - NSSL 3 - TBD

From Foreign Launch Site:
TBD - StriX-12 - Electron/Kick Stage - Mahia LC-1 (NZ)
TBD - StriX-13 - Electron/Kick Stage - Mahia LC-1 (NZ)
TBD - StriX-14 - Electron/Kick Stage - Mahia LC-1 (NZ)

2028
February - USCV-16: Crew Dragon (Crew-13) - Falcon 9 (LZ-1) - Canaveral SLC-40 / Kennedy LC-39A
NET H1 - Dream Chaser Cargo System (DCC-4): Shooting Star - Vulcan-VC4L - Canaveral SLC-41
NET June - Dragon v2 SpX-38 (CRS-38) - Falcon 9 - Kennedy LC-39A
Midyear - UVEX (UltraViolet EXplorer) [Astro-MIDEX-03 Mission Candidate] - NLSP III - TBD
Midyear - STAR-X (Survey and Time-domain Astrophysical Research Explorer) [Astro-MIDEX-03 Mission Candidate] - NLSP III - TBD
July 5-25 - Dragonfly [New Frontiers-4] - Falcon Heavy - Kennedy LC-39A
August - USCV-17: CST-100 Starliner-4 - Atlas V N22 - Canaveral SLC-41
September - Artemis IV (Crewed flight of Orion for Gateway with I-Hab, crew landing) - SLS Block 1B/EUS - Kennedy LC-39B ML2
September - SpaceX Crewed Lunar Lander - Super Heavy/Starship HLS - Kennedy LC-39A
September - SpaceX tanker - Super Heavy/Starship multiple launches - Kennedy LC-39A /Canaveral SLC-37B/Starbase Pad A/B
Q4 - ExoMars RSP (CM+EDLM (European rover)) - Falcon Heavy / Super Heavy/Starship - Kennedy LC-39A
NET October - Dragon v2 SpX-39 (CRS-39) - Falcon 9 - Kennedy LC-39A
December - GRACE-C (x2) - Falcon 9 - Vandenberg SLC-4E
Late - Blue Moon MK2 SN001 lander uncrewed demo - New Glenn - Canaveral SLC-36
TBD - Al Yah 5 - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
TBD - LEO comsat (TASA) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
TBD - Dedicated Direct (GTO) - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A
TBD - Gateway: Dragon XL DSL-1 - Falcon Heavy (??, ?? X, ??) - Kennedy LC-39A
TBD - NGP-1 (NG-OPIR-Polar 1) - Falcon-9/Vulcan-VC?? - Canaveral SLC 40/41
TBD - NGG-3 (NG-OPIR-GEO 3) - Falcon-9/Vulcan-VC?? - Canaveral SLC 40/41
TBD - AX Hab-1 - New Glenn - Canaveral SLC-36
TBD - WSF-M 2 - NSSL 3 - Vandenberg
TBD - HelioSwarm (hub + 8 small satellites) [Helio-MIDEX-1] - NLSP III - TBD
TBD - SW Next L1-A - NLSP III - TBD
TBD - Elytra Dark orbital vehicle [Blue Ghost M3 [Moon Lander to Gruithuisen Domes on the Moon's near side]] - TBD - TBD
TBD - Lunar Lander (iSpace mission 5) - TBD - TBD
TBD - CP-42 (CLPS) - TBD - TBD
TBD - CP-51 (CLPS) - TBD - TBD
TBD - Starlab - Super Heavy/Starship - Kennedy LC-39A /Canaveral SLC-37B/Starbase Pad A/B

Rideshare:
Late - SEOPS GTO mission - Falcon 9 - Canaveral SLC-40 / Kennedy LC-39A

2029
January - WGS-12  - NSSL 3 - Canaveral
February - USCV-18: Crew Dragon (Crew-14) - Falcon 9 (LZ-1) - Canaveral SLC-40 / Kennedy LC-39A
NET H1 - Dream Chaser Cargo System (DCC-5): Shooting Star - Vulcan-VC4L - Canaveral SLC-41
NET June - Dragon v2 SpX-38 (CRS-38) - Falcon 9 - Kennedy LC-39A
August - USCV-19: CST-100 Starliner-5 - Atlas V N22 - Canaveral SLC-41
September - Artemis V (Crewed flight of Orion for Gateway and lunar landing with ESPRIT) - SLS Block 1B/EUS - Kennedy LC-39B ML2
September - Blue Moon MK2 SN002 lander crewed demo - New Glenn - Canaveral SLC-36
TBD - Gateway: Dragon XL DSL-2, GERS - Falcon Heavy (??, ?? X, ??) - Kennedy LC-39A
TBD - LTV - commercial launch - Canaveral
TBD - NGP-2 (NG-OPIR-Polar 2) - Falcon-9/Vulcan-VC?? - Canaveral SLC 40/41
TBD - Lunar Lander (iSpace mission 6) - TBD - TBD
TBD - CP-52 (CLPS) - TBD - TBD
TBD - CP-61 (CLPS) - TBD - TBD
TBD - CP-62 (CLPS) - TBD - TBD
TBD - AOS-Storm - TBD - TBD
TBD - AOS-PMM - TBD - TBD

2030
NET H1 - Dream Chaser Cargo System (DCC-6): Shooting Star - Vulcan-VC4L - Canaveral SLC-41
June - USCV-20: Crew Dragon (Crew-15) - Falcon 9 (LZ-1) - Canaveral SLC-40 / Kennedy LC-39A
September - Artemis VI (Crewed flight of Orion to Moon with Airlock) - SLS Block 1B/EUS - Kennedy LC-39B ML2
Late - Landsat Next (x3) - NLSP III - Vandenberg
TBD - DSL-3 - commercial launch - Canaveral
TBD - HLS (TBD) - commercial launch - Canaveral
TBD - Lunar Lander (iSpace mission 7) - TBD - TBD
TBD - CT-2 (CLPS) - TBD - TBD
TBD - USDV - TBD - TBD

2031
June - VERITAS [Discovery 15] - NLSP III - TBD (or 2032)
September - Artemis VII (Cargo mission to Moon) - SLS Block 1B/EUS - Kennedy LC-39B ML2
TBD - DAVINCI+ : Orbiter + Descent probe [Discovery 16] - NLSP III - TBD (or 2032)
TBD - DSL-4 - commercial launch - Canaveral
TBD - HLS (TBD) - commercial launch - Canaveral
TBD - Pressurized Rover via Cargo Lander - commercial launch - Canaveral
TBD - Surface logistics - commercial launch - Canaveral
TBD - Surface Habitat - commercial launch - Canaveral
TBD - Lunar Lander (iSpace mission 8 ) - TBD - TBD
TBD - AOS-Sky - TBD - TBD
TBD - AOS-Cloud - TBD - TBD
TBD - AOS-HAWCsat - TBD - TBD

2032
September (TBD) - Artemis VIII (Crewed mission of Orion) - SLS Block 1B/EUS - Kennedy LC-39B
December - JPSS-3 (PFO) - NLSP III - Vandenberg (or January 2033)
December - MAGIC/MCDO (x2) - TBD - TBD
TBD - Lunar Lander (iSpace mission 9) - TBD - TBD
TBD - GEO-West (GeoXO1) - NLSP III - Canaveral (or 2033)
TBD - SW Next L1-B - NLSP III - TBD
TBD - Cryogenic Chemical Propulsion Stage (NASA's Crewed Mars Mission) - SLS Block 2 Cargo - Kennedy LC-39B
TBD - Fission Surface Power (NASA's Crewed Mars Mission) - SLS Block 2 Cargo - Kennedy LC-39B

2033
September (TBD) - Artemis IX (Cargo mission) - SLS Block 2/EUS - Kennedy LC-39B
TBD - ESS - NLSP III - Canaveral
TBD - Lunar Lander (iSpace mission 10) - TBD - TBD
TBD - 25t lander (NASA's Crewed Mars Mission) - SLS Block 2 Cargo - Kennedy LC-39B
TBD - Cryogenic Chemical Propulsion Stage (NASA's Crewed Mars Mission) - SLS Block 2 Cargo - Kennedy LC-39B

2034
September (TBD) - Artemis X (Crewed mission of Orion) - SLS Block 2/EUS - Kennedy LC-39B
TBD - The Carl Sagan Observatory - NLSP III - TBD
TBD - Lunar Lander (iSpace mission 11) - TBD - TBD
TBD - Mars Ascent Vehicle (NASA's Crewed Mars Mission) - SLS Block 2 Cargo - Kennedy LC-39B
TBD - 25t lander (NASA's Crewed Mars Mission) - SLS Block 2 Cargo - Kennedy LC-39B

2035
September (TBD) - Artemis XI (Crewed mission of Orion) - SLS Block 2/EUS - Kennedy LC-39B
TBD - Cryogenic Chemical Propulsion Stage (NASA's Crewed Mars Mission) - SLS Block 2 Cargo - Kennedy LC-39B
TBD - Pressurized Rover (NASA's Crewed Mars Mission) - SLS Block 2 Cargo - Kennedy LC-39B
TBD - SRL-MAV (with STA and two sample recovery helicopters) [MSR] - Vulcan-VC?? - Canaveral SLC-41

2036
TBD - GEO-East (GeoXO2) - NLSP III - Canaveral
TBD - 25t lander (NASA's Crewed Mars Mission) - SLS Block 2 Cargo - Kennedy LC-39B
TBD - Transit Habitat (NASA's Crewed Mars Mission) - SLS Block 2 Cargo - Kennedy LC-39B

2037
TBD - Nuclear Electric Propulsion Stage (NASA's Crewed Mars Mission) - SLS Block 2 Cargo - Kennedy LC-39B
TBD - Nuclear Electric Propulsion Stage (NASA's Crewed Mars Mission) - SLS Block 2 Cargo - Kennedy LC-39B
TBD - Solar Polar Orbiter - NLSP III - TBD

2038
TBD - Cryogenic Chemical Propulsion Stage (NASA's Crewed Mars Mission) - SLS Block 2 Cargo - Kennedy LC-39B
TBD - Checkout Crew (NASA's Crewed Mars Mission) - SLS Block 2 Crew - Kennedy LC-39B

2039
TBD - Mars Crew (NASA's Crewed Mars Mission) - SLS Block 2 Crew - Kennedy LC-39B

2041
TBD - Mars Crew Return (NASA's Crewed Mars Mission) - SLS Block 2 Crew - Kennedy LC-39B

Changes on March 21

19

Mars Rovers and Spacecraft / Re: NASA/ESA - Mars Sample Return mission

« Last post by VSECOTSPE on Today at 06:55 am »

NASA is picking Starship as one of the two options going forward.

No, they’re not, not yet.  There were multiple “large commercial landers” proposed to the industry call.  It’s a generic category, not a downselect to SX/Starship.

And there may be nothing going forward from any option if there are large cuts to the science budget at NASA.

Pop tip: You can't refute reality.

Again, it’s “pro tip”, not “pop tip”.

20

Other Launchers (Korean, Brazilian etc.) / Re: German launch schedule

« Last post by zubenelgenubi on Today at 06:55 am »

Cross-post:

https://twitter.com/isaraerospace/status/1902977867849277609

Subject to weather, safety and range infrastructure, the first launch window for Spectrum’s first test flight opens NET 24 Mar.

Follow our newsroom for more info https://www.isaraerospace.com/newsroom-first-test-flight

#fromisartospace #goingfullspectrum

Photo: © Isar Aerospace | Robin Brillert, Wingmen Media