Titans Spaceport Training Complex: 20 Acres for Spaceflight, Lunar, and Martian Training Facilities

• Titans Space commissioned a study to identify the overlaps and synergies between its commercial lunar settlement plans, as prepared by the Selene Mission , and the Crewed Mars Mission: 2032 .?
• This white paper summarizes the part concerning the required training facilities at the upcoming Titans Spaceport .
• The Titans Spaceport Training Complex represents a critical step forward in ensuring the success of future lunar and Martian exploration missions .
• By providing a comprehensive and realistic training environment, the complex will empower astronauts, scientists, and mission specialists with the skills and knowledge necessary to thrive in the harsh environments of space.
• The Titans Spaceport Training Complex will serve as a launchpad for a new era of discovery, paving the way for a sustainable human presence beyond Earth.

By Neal S. Lachman , CEO, Titans Space (Mars Astronaut Designate ), Franklin Ratliff , CTO, Titans Space, Vaseema Hussain MCIAT , Launching Astronauts Ambassador and Lunar Astronaut Designate

Table of Contents

1. Introduction

1.1 The Rise of Titans Spaceport and the Need for Advanced Training Facilities

1.2 Project Overview: A Multi-Faceted Training Complex

2. Dedicated Training Facilities

2.1 Lunar Training and Testing Facility (LTTF)

2.1.1 Lunar Surface Simulation Area: Mimicking the Moon's Challenges

2.1.2 Lunar Habitat Modules and Life Support Testing: A Sustainable Lunar Home 2.1.3 Mission Control and Communication Infrastructure: Bridging the Lunar Gap 2.2 Martian Training and Testing Facility (MTTF)

2.2.1 Martian Surface Simulation Area: Recreating the Red Planet

2.2.2 Martian Habitat Modules and Advanced Life Support Testing: Living Off the Martian Land

2.2.3 Mission Control and Communication Infrastructure: Simulating the Martian Link

3. Shared Training Facilities: Simulating Critical Space Environments

3.1 Environmental Simulation Chambers: Pushing the Limits

3.1.1 Vacuum Chamber: The Emptiness of Space

3.1.2 Thermal Chamber: From Scorching Heat to Frigid Cold

3.2 G-Force Training Facilities: Preparing for the G-Force Grind

3.2.1 Centrifuge: The Thrill of Launch and Re-entry

3.2.2 Short-arm Human Centrifuge: Mastering High-g Maneuvers

3.3 Mission Simulators: Training for Every Mission Scenario

3.3.1 Spacecraft and Lander Simulators: Piloting Through the Cosmos

3.3.2 Extravehicular Activity (EVA) Simulators: Mastering Spacewalks

3.4 Neutral Buoyancy Laboratory

4. Spacecraft Flight Simulators: Mastering the Art of Celestial Navigation

5. Analog Training Programs: Earth as a Training Ground

5.1 Earth-Based Analog Sites for Lunar and Martian Training: Beyond the Facility Walls

5.1.1 Volcanic Deserts: A Lunar Lookalike

5.1.2 Arctic and Antarctic Regions: The Cold Embrace of Space

5.1.3 Underwater Environments: Weightlessness on Earth

5.2 Tailored Training Scenarios for Diverse Mission Goals: Training for Specific Needs

5.3 Integration of Analog Training with Facility-Based Simulations: A Blended Approach

6. Benefits of the Titans Spaceport Training Complex: Investing in Success

6.1 Enhanced Astronaut Training and Mission Readiness: Building a Capable Workforce

6.2 Improved Equipment Testing and Development: Refining Technology for Space

6.3 Cost Savings and Risk Reduction for Space Missions: A Smart Investment

7. Conclusion: Launching a New Era of Space Exploration

1. Introduction

1.1 The Rise of Titans Spaceport and the Need for Advanced Training Facilities

The impending opening of our own Titans Spaceport marks a pivotal moment in humanity's journey toward sustained space exploration. This state-of-the-art facility (with two runways), designed to accommodate a new generation of spacecraft and missions , necessitates a parallel leap forward in training capabilities. Current Earth-based training methods, while valuable, struggle to replicate the complexities of lunar and Martian environments. This proposal outlines the creation of a comprehensive Training and Testing Complex at the upcoming Titans Spaceport that will bridge this gap.?

1.2 Project Overview: A Multi-Faceted Training Complex

The proposed complex will encompass two dedicated training facilities: a 10-acre Lunar Training and Testing Facility (LTTF) and a separate 10-acre Martian Training and Testing Facility (MTTF). Additionally, the complex will feature a series of shared training facilities designed to simulate critical space environments and provide astronauts with a holistic training experience. A robust analog training program, utilizing Earth-based locations with Moon and Mars-like characteristics, will complement the complex's offerings.?

This multi-faceted approach will ensure a comprehensive training experience that prepares astronauts and mission specialists for the unique challenges of both lunar and Martian exploration.?

2. Dedicated Training Facilities

2.1 Lunar Training and Testing Facility (LTTF)

The LTTF will provide a realistic lunar surface environment for astronauts to train in low-gravity conditions, hone their skills in a simulated lunar regolith environment, and test equipment specially designed for lunar operations.

2.1.1 Lunar Surface Simulation Area: Mimicking the Moon's Challenges

• This core area will encompass several acres filled with crushed volcanic rock with a composition similar to the lunar regolith.
• A variable gravity system will enable training in lunar one-sixth gravity, allowing astronauts to practice walking, running, and operating equipment in a low-gravity environment. This will also help mitigate the risks associated with muscle and bone loss experienced in space.
• Advanced lighting systems will replicate the harsh sunlight and long shadows of the lunar landscape.
• Thermal regulation will create the extreme temperature fluctuations experienced on the Moon, ranging from scorching heat during the lunar day (reaching over 260°F) to frigid cold during the lunar night (dipping below -250°F). This will allow scientists and astronauts to test spacesuit thermal management systems and develop strategies for staying cool or warm during lunar exploration.
• The surface will be customized with features like simulated craters, slopes, and specific geological formations to cater to specific training needs. This will include areas resembling potential landing sites or locations of scientific interest, allowing astronauts to practice tasks relevant to their missions.

2.1.2 Lunar Habitat Modules and Life Support Testing: A Sustainable Lunar Home

• Deployable habitat modules replicating potential lunar outposts will be used for long-duration simulations. These modules will be designed to maximize living space and minimize weight for lunar transport.

Engineers and astronauts will test life support systems, including:

• Air and water purification: Techniques to remove carbon dioxide from exhaled breath and recycle water from various sources will be crucial for sustaining human life on the Moon.
• Waste management: Systems for processing human waste and converting it into usable resources will be tested to minimize the need for resupply missions from Earth.
• In-situ resource utilization (ISRU) technologies for producing food and fuel: Techniques for growing plants and/or utilizing alternative food sources. Utilizing lunar resources, such as extracting water from ice will be necessary to reduce reliance on supplies from Earth. This will be a crucial step towards establishing a sustainable human presence on the Moon.

This integrated approach will enable researchers to not only test individual life support systems but also observe their interaction and identify potential inefficiencies. Analyzing data from these simulations will be crucial for designing reliable and efficient life support systems for extended lunar habitation.

2.1.3 Mission Control and Communication Infrastructure: Bridging the Lunar Gap

• A state-of-the-art mission control center will mirror the functionalities of a real lunar mission control. This will provide a realistic environment for mission specialists to practice managing lunar surface operations, monitoring astronaut activities, and handling unforeseen situations.
• Real-time monitoring and communication with trainees will simulate the challenges of long-distance communication with Earth (expected round-trip communication delays range from 5 to 14 seconds ). This will allow astronauts to practice clear and concise communication protocols critical for mission success.
• Robust communication systems will replicate the potential disruptions experienced during Earth-Moon communication, such as signal degradation due to solar flares or lunar surface features blocking the line of sight. Training for these scenarios will ensure astronauts can adapt and maintain communication even during disruptions.

By combining these elements, the LTTF will provide a comprehensive training ground for astronauts and mission specialists, preparing them for the physical, technical, and communication challenges of lunar exploration and habitation.

This approach extends beyond simply mimicking the Moon's environment. It actively tests and refines the technologies and procedures necessary for establishing a sustainable human presence on the lunar surface.?

2.2 Martian Training and Testing Facility (MTTF)

The MTTF will provide a training ground replicating the Martian environment, allowing astronauts to experience the challenges of Martian gravity, a thin atmosphere, and a diverse terrain.

2.2.1 Martian Surface Simulation Area: Recreating the Red Planet

• This area will encompass several acres filled with materials replicating the Martian regolith (reddish soil), composed primarily of iron oxide (rust).
• A low-gravity system will simulate Martian one-third gravity, allowing astronauts to train for movement and exertion in a reduced gravity environment. This will help them adapt to the Martian environment and minimize the risk of falls or injuries during missions.
• Advanced lighting systems will mimic the dim Martian sunlight, caused by the planet's greater distance from the Sun. Long shadows will be cast, creating a visually realistic Martian landscape for training purposes.
• Thermal regulation will create the extreme temperature fluctuations experienced on Mars, with daytime highs reaching above freezing (around 70°F) and nighttime lows plummeting to -200°F or colder. This will allow scientists and astronauts to test spacesuit thermal management systems designed for a wider range of temperatures compared to the Moon.
• The surface will be customized with features like simulated volcanoes, canyons, and rock formations to represent the diverse Martian terrain. This will include areas resembling potential landing sites, such as the Valles Marineris canyon system . Training in these varied terrains will prepare astronauts for the specific challenges they may encounter on their missions.

2.2.2 Martian Habitat Modules and Advanced Life Support Testing: Living Off the Land

• Deployable habitat modules replicating potential Martian habitats will be used for long-duration simulations. These habitats will need to be self-sufficient and pressurized to protect astronauts from the thin Martian atmosphere, which is primarily composed of carbon dioxide with very little oxygen.

• This integrated approach will enable researchers not only to test individual life support systems but also observe their interaction and identify potential bottlenecks or inefficiencies specific to the Martian environment. Analyzing data from these simulations will be crucial for designing reliable and efficient life support systems for long-term Martian habitation.

2.2.3 Mission Control and Communication Infrastructure: Simulating the Martian Link

• A state-of-the-the-art mission control center will mirror the functionalities of a real Martian mission control. This will provide a realistic environment for mission specialists to practice managing Martian surface operations, monitoring astronaut activities, and handling unforeseen situations.
• Real-time monitoring and communication with trainees will simulate the challenges of long-distance communication with Earth (approximately 20 minutes one-way delay ). This significant delay necessitates astronauts to be highly autonomous and resourceful in problem-solving, as real-time instructions from Earth may not be feasible.
• Robust communication systems will replicate the potential disruptions experienced during Earth-Mars communication, such as solar flares or the alignment of the planets blocking the line of sight. Training for these scenarios will ensure astronauts can adapt and maintain communication even during disruptions.

By providing a realistic Martian environment and testing advanced life support systems, the MTTF will prepare astronauts and mission specialists for the technical and operational challenges of establishing a human presence on Mars. The focus on ISRU technologies will be a critical step towards achieving long-term sustainability on the Red Planet.?

3. Shared Training Facilities: Simulating Critical Space Environments

The Titans Spaceport Training Complex will not only offer dedicated lunar and Martian training facilities but also a collection of shared training facilities designed to simulate various critical space environments. These facilities will provide astronauts with a holistic training experience, allowing them to train for the specific conditions of the Moon or Mars.

3.1 Environmental Simulation Chambers: Pushing the Limits

These chambers will allow astronauts to experience and train in extreme environments encountered during space missions, preparing them for the unexpected.

3.1.1 Vacuum Chamber: The Emptiness of Space

• This large chamber will simulate the near-vacuum of space, where pressure is extremely low and air molecules are scarce.
• The chamber will be used for testing spacesuits, tools, and spacecraft components in a vacuum environment. This will ensure the equipment functions properly and protects astronauts from the harshness of space.

3.1.2 Thermal Chamber: From Scorching Heat to Frigid Cold

• This chamber will replicate the extreme temperature fluctuations experienced in space and on the Moon and Mars.
• Astronauts can test the thermal performance of spacesuits and equipment, ensuring functionality in both scorching heat (potentially exceeding 200°C) and frigid cold (dipping below -100°C in the shadows of space).
• This will prepare them for potential emergencies or unexpected temperature variations during spacewalks or missions to destinations with extreme thermal conditions.

3.2 G-Force Training Facilities: Preparing for the G-Force Grind

These facilities will allow astronauts to experience and adapt to the g-forces encountered during launch, acceleration, and re-entry phases of spaceflight. G-forces are the increased feeling of weight astronauts experience due to the force of acceleration.

• While Titans Space's spaceplanes and other spacecraft will have maximum of 3G, which is what any healthy person can handle without special training, unlike rockets, this G-Force training will be part of the training program anyway.

3.2.1 Centrifuge: The Thrill of Launch and Re-entry

• This large rotating device will simulate the g-forces experienced during launch and re-entry when using vertically launched rockets . Astronauts will be strapped into specialized seats (or spacepods) and exposed to increasing or decreasing g-forces, replicating the physical sensations associated with these critical mission phases.
• Training in the centrifuge will help astronauts develop g-force tolerance, reducing the risk of G-LOC (g-force induced loss of consciousness) and allowing them to perform essential tasks during launch and re-entry.

3.2.2 Short-arm Human Centrifuge: Mastering High-g Maneuvers

• The main benefit of training in short-arm centrifuges will be getting astronauts used to what is likely to be the preferred method of producing artificial gravity for long-duration missions.

By training in these g-force environments, astronauts will be better prepared for the physical demands of spaceflight and equipped to handle the intense g-forces experienced during various mission stages.?

3.3 Mission Simulators: Training for Every Mission Scenario

These advanced simulators will provide astronauts with a realistic training experience for various mission scenarios, allowing them to practice procedures and teamwork in a simulated space environment.

3.3.1 Spacecraft and Lander Simulators: Piloting Through the Cosmos

• High-fidelity simulators will replicate the cockpits and control systems of spacecraft and lunar landers. These simulators will feature realistic visuals, haptic feedback (providing a sense of touch), and motion platforms that mimic the movement of the spacecraft during launch, orbital maneuvers, and landing procedures.
• Astronauts can practice spacecraft navigation, docking procedures with space stations or other spacecraft, and landing maneuvers on celestial bodies. This will allow them to develop the necessary piloting skills and decision-making abilities for real-world missions.

3.3.2 Extravehicular Activity (EVA) Simulators: Mastering Spacewalks

• These immersive simulations will recreate the experience of conducting spacewalks (EVAs). Astronauts will wear replica spacesuits within a virtual environment that replicates the lunar or Martian surface, complete with simulated lighting, terrain features, and potential obstacles.
• They can practice EVA procedures such as deploying scientific instruments, collecting samples, and performing maintenance tasks on spacecraft or habitats. This will allow them to refine their movement and coordination skills in a spacesuit while also practicing communication protocols with mission control during the EVA.

By utilizing these mission simulators, astronauts can gain valuable experience in spacecraft operation, spacewalk procedures, and teamwork, all in a controlled and safe environment. This will contribute significantly to mission success by allowing astronauts to practice critical skills and anticipate potential challenges before embarking on actual space missions.?

3.4 Neutral Buoyancy Laboratory

Training in a neutral buoyancy tank will be used to simulate weightless conditions as well as lunar and Martian gravity.

• This unique facility will utilize a large pool of water to provide a neutral buoyancy environment , simulating the feeling of weightlessness experienced in space.
• Astronauts will wear specially weighted suits that allow them to neutralize their buoyancy and move freely underwater. This mimics the feeling of microgravity and allows for a wider range of movements and practice with tools compared to other systems.
• The pool will be customized with mockups of spacecraft modules, lunar or Martian terrain features, and even robotic arms to create realistic training scenarios. Astronauts can practice tasks such as spacecraft maintenance, deploying equipment, and collaborating with other crew members in a weightless environment.

The neutral buoyancy lab will be the preferred method of training for astronauts doing EVA's. While the vacuum chamber allows for testing spacesuit functionality, the neutral buoyancy environment allows for a more dynamic training experience with a wider range of movements and tool manipulation.?

This suite of shared training facilities will provide astronauts with a comprehensive understanding of the various environments and challenges they may encounter during space missions. By training in simulated scenarios, astronauts will refine their skills, improve teamwork, and gain the confidence necessary for successful space exploration endeavors.

4. Spacecraft Flight Simulators: Mastering the Art of Celestial Navigation

The Titans Spaceport Training Complex will feature a dedicated suite of spacecraft flight simulators designed to train astronauts for piloting a variety of vehicles, including:

• Titans Spaceplanes: Simulators replicating the cockpits and control systems of Titans' reusable spaceplanes will be available. Astronauts can practice launch procedures, orbital maneuvering, atmospheric re-entry, and precision landings on designated runways. These high-fidelity simulations will feature realistic visuals, motion platforms replicating g-forces, and haptic feedback for control surfaces, providing an immersive training experience.
• Titans Spaceships: For missions venturing beyond Earth's orbit, simulators replicating the cockpits of spaceships will be available. These simulations will focus on training astronauts for navigating through the vast expanse of space, docking with space stations, and performing maneuvers around celestial bodies like the Moon or Mars. They will incorporate complex orbital mechanics calculations and incorporate realistic scenarios such as asteroid avoidance or deploying scientific probes.
• Space Station Operations: Astronauts preparing for long-duration missions aboard space stations will benefit from dedicated simulators replicating the control stations and living quarters of these orbiting outposts. Simulations will focus on routine operations such as station maintenance, scientific equipment operation, and emergency response procedures specific to the space station's design. Additionally, astronauts can practice collaborating with a diverse international crew in a simulated space station environment.

These advanced flight simulators will provide astronauts with the necessary skills and experience to confidently pilot a variety of spacecraft and operate effectively within space stations. The training scenarios will encompass routine operations, emergency response procedures, and complex maneuvers, ensuring astronauts are prepared for any situation they may encounter during their missions.

5. Analog Training Programs: Earth as a Training Ground

While the Titans Spaceport Training Complex offers unparalleled simulation capabilities, Earth itself holds valuable training grounds with Moon and Mars-like characteristics. This proposal outlines a robust analog training program that will complement the complex's facilities, providing astronauts with a taste of the real-world challenges they may face on extraterrestrial missions.

5.1 Earth-Based Analog Sites for Lunar and Martian Training: Beyond the Facility Walls

• Volcanic Deserts: Arid regions with volcanic rock formations, like the Atacama Desert in Chile or the Canary Islands, can provide a realistic lunar surface analog. Astronauts can practice geological exploration, rover operation, habitation deployment, and dust mitigation techniques in these harsh environments. The isolation and lack of readily available resources can also provide a psychological training ground for lunar missions.
• Arctic and Antarctic Regions: The extreme cold, isolation, and long periods of darkness experienced in polar regions offer valuable training for lunar and Martian missions. Astronauts can hone their survival skills in frigid temperatures, test equipment performance, and practice communication protocols under limited daylight conditions. Additionally, the vast, white landscapes can offer a psychological simulation of the desolate lunar and Martian terrains.
• Underwater Environments: The neutral buoyancy experienced underwater can serve as a valuable analog for low-gravity environments. Underwater habitats and simulated spacewalks can provide astronauts with training in locomotion, tool manipulation, and teamwork in a microgravity setting. This can complement the neutral buoyancy laboratory training by offering a more realistic underwater environment with potentially stronger currents and a wider range of motion.

These diverse analog sites will allow astronauts to practice skills and procedures in a real-world setting, fostering adaptability and resourcefulness – crucial traits for space exploration.?

5.2 Tailored Training Scenarios for Diverse Mission Goals: Training for Specific Needs

The analog training program will be designed to cater to diverse mission goals, ensuring astronauts are prepared for the specific challenges of their assignments, including:?

• Lunar Resource Exploration: Astronauts will train for deploying and operating rovers designed for resource prospecting in volcanic deserts. They will practice sample collection techniques, geological surveys using specialized equipment, and communication protocols with mission control while simulating limited resources and potential equipment malfunctions.
• Martian Outpost Construction: Analog missions in polar regions can simulate the challenges of constructing and maintaining a research outpost on Mars. This can involve practicing deploying prefabricated habitat modules, testing resource utilization technologies for water extraction or energy generation, and training for long-duration isolation and crew psychology in harsh environments.
• Scientific Research Missions: Analog sites will be used to train scientists in collecting geological samples, conducting field experiments relevant to astrobiology or planetary geology, and operating specialized scientific equipment in harsh environments. This can involve practicing data collection protocols, troubleshooting equipment issues, and collaborating with other scientists and mission specialists in remote locations.

By tailoring training scenarios to specific mission goals, the analog program will ensure astronauts possess the necessary expertise and experience to contribute effectively to their assigned tasks.?

5.3 Integration of Analog Training with Facility-Based Simulations: A Blended Approach

The analog training program will be seamlessly integrated with the Titans Spaceport Training Complex. Data gathered during analog missions can be used to refine training protocols within the complex's facilities. Lessons learned from facility simulations, such as operating complex machinery or emergency response procedures, can be applied and tested during analog field exercises. This combined approach will create a comprehensive training experience that prepares astronauts for the diverse challenges they may encounter on the Moon and Mars.?

For instance, an astronaut participating in a lunar resource exploration mission in a volcanic desert can test a prototype rover control system developed at the complex. Data collected during the analog mission can be used to identify potential issues with the rover's performance in a real-world environment. Conversely, lessons learned from operating complex drilling equipment in a simulated lunar regolith at the complex can be applied during an analog mission to optimize sample collection techniques.?

This continuous exchange of knowledge and experience between the analog program and the training complex will ensure astronauts receive the most up-to-date and comprehensive training possible.?

6. Benefits of the Titans Spaceport Training Complex: Investing in Success

The Titans Spaceport Training Complex offers a multitude of benefits for future space exploration endeavors. By providing a comprehensive and realistic training environment, the complex will empower astronauts, scientists, and mission specialists with the skills and knowledge necessary to thrive in the harsh environments of space.

6.1 Enhanced Astronaut Training and Mission Readiness: Building a Capable Workforce

• The complex will provide astronauts with a realistic and comprehensive training experience that replicates the challenges of lunar and Martian environments. This will include training in:
• This diverse training regimen will lead to improved physical conditioning, enhanced psychological preparation, and stronger teamwork skills, all crucial for mission success. Astronauts will be better equipped to handle the physical and mental demands of spaceflight, increasing their chances of success and reducing the risk of accidents or errors.

6.2 Improved Equipment Testing and Development: Refining Technology for Space

• The complex's facilities will allow for thorough testing of spacesuits, rovers, life support systems, communication equipment, and other mission-critical equipment under simulated lunar and Martian conditions. This will enable researchers to:
• By rigorously testing equipment in a controlled environment, the complex will contribute significantly to developing reliable and efficient technologies for future space missions. This will minimize the risk of equipment failure during critical mission phases and pave the way for safer and more successful space exploration endeavors.

6.3 Cost Savings and Risk Reduction for Space Missions: A Smart Investment

• By ensuring astronaut preparedness and equipment reliability through comprehensive training and testing, the complex will contribute significantly to reducing the risks associated with space missions. This translates to lower mission costs in several ways:
• The upfront investment in the Titans Spaceport Training Complex will be offset by the long-term cost savings associated with safer and more successful space missions. This will allow Titans Space, space agencies, and private companies to allocate resources more effectively toward scientific discovery and exploration initiatives.

7. Conclusion: Launching a New Era of Space Exploration

The Titans Spaceport Training Complex represents a critical step forward in ensuring the success of future lunar and Martian exploration missions. By providing a comprehensive and realistic training environment, the complex will empower astronauts, scientists, and mission specialists with the skills and knowledge necessary to thrive in the harsh environments of space. The Titans Spaceport Training Complex will serve as a launchpad for a new era of discovery, paving the way for a sustainable human presence beyond Earth.

Join our consortium to be part of this revolution.

Further recommended reading

• Explore a wealth of analyses, white papers, and research conveniently available in our virtual library .
• Subscribe to the Titans Space, Moon, & Mars Projects Newsletter on Linkedin.

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• Explore a wealth of analyses, white papers, and research conveniently available in our virtual library .
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About Titans Space Industries

Titans Space Industries (TSI) is creating a streamlined Earth-to-lunar surface transport infrastructure with spaceplanes , space stations, spaceships , and dedicated lunar vehicles for landing and travel.

Titans Space intends to:

? Become the largest LEO and Lunar Space tourism company

? Become the largest Real Estate owner in Space and the Moon

? Become the largest Lunar commerce and mining company (from 2031 onwards)

TSI, a division of Titans Universe , comprises a vast portfolio of incredible, revolutionary space infrastructure that will allow safe and efficient end-to-end space transportation, including spaceplanes and space stations for space tourism , commercial, and industrial purposes, as well as for research, governments, and military usage.

Titans Space’s single-stage-to-orbit spaceplanes will facilitate orbital space flights for orbital cruises or going to Low-Earth Orbit, sub-orbital flights for zero-g space tourism flights, as well as ultra-fast point-to-point transportation for humans and cargo.

TSI's space tourism division is building the future of luxury space exploration with spaceplanes, spaceships, space stations, and lunar transport vehicles. TSI’s revolutionary LEO Space Station and Lunar Space Station will redefine humanity’s place amongst the stars, with lunar tourism , scientific research, commercial mining applications, lunar factories, and lunar real estate .

About the Founding Team

TSI was founded by a group of 15 partners with a combined 450 years of business experience, representing investor interests in Titans Universe/TSI. They worked together on numerous projects for a combined 200+ years.

The founding team includes a 28-year-veteran space entrepreneur and satellite broadband pioneer, a PE fund manager who raised more than $6 billion in capital, a 40+ year rocketry and aerodynamics veteran, a 40+ year Space entrepreneur and activist, a Hall-of-Fame NBA basketball legend, a former Head of Business Development at Apple, a multi-billion-dollar business strategist, a former MD of KPMG NYC who advised on 100+ PE and M&A transactions, and the former CFO of a Formula One racing team and public listed companies.

Our Founding CEO, Neal S. Lachman is a serial entrepreneur with 35 years of investment, business, space, technology, and telecom experience. In 1992, he picked up the phone and started communicating with companies like PanAmSat. He has been a space entrepreneur since 1994/1995 when he and two of his brothers applied for and received three international digital satellite broadcast licenses.

For more information

Lunar

www.TitansSpace.com/Selene-Mission

www.TitansSpace.com/Titania-Lunar-Colony

www.TitansSpace.com/Titania-Lunar-Industry-Commerce

www.TitansSpace.com/Titania-Lunar-Resort

www.TitansSpace.com/Lunar-OrbitalPort-Space-Station

www.TitansSpace.com/SpaceShip

www.TitansSpace.com/Lunar-Yacht-Transporter

Other

Titans Space Industries - Executive Summary

www.TitansSpace.com/FAQ

www.TitansSpace.com/About-Titans-Space

www.TitansSpace.com/Titans-Spaceplanes

www.TitansSpace.com/Titans-Engines-Systems

www.TitansSpace.com/Space-Tourism

www.TitansSpace.com/Orbital-Cruise

www.TitansSpace.com/Sub-Orbital-Zero-G

www.TitansSpace.com/Ultra-Fast-Travel

www.TitansU.com/Founding-Team