WhatsNextVids

Please Support The Channel 50% of all channel support (after fees & tax) will go to a private Moon mission Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments Why Mercury Would Be the Best Planet to Colonize Mercury, despite its extreme conditions, could potentially be considered the best planet to colonize for several reasons: Proximity to the Sun: Mercury is the closest planet to the Sun in our solar system. This proximity offers unique advantages for solar power generation. The intense sunlight on Mercury could be harnessed more efficiently compared to other planets, providing a consistent and abundant energy source for any potential colony. Resource Availability: Mercury is rich in various resources that could be valuable for colonization efforts. It is believed to have significant amounts of metals and minerals, including iron, nickel, and possibly even water ice in its permanently shadowed craters. These resources could be utilized for construction, manufacturing, and sustaining life on a colony. Low Gravity: Mercury has a lower gravity compared to Earth, approximately 38% of Earth’s gravity. This lower gravity could make it easier and more energy-efficient for spacecraft to land and take off from the planet. Additionally, it could have potential health benefits for colonists, as long-term exposure to lower gravity environments may have fewer negative effects on the human body compared to higher gravity planets. Scientific Research Opportunities: Colonizing Mercury would provide unparalleled opportunities for scientific research. Studying this planet up close could offer insights into planetary formation, evolution, and the history of our solar system. It could also help advance our understanding of extreme environments and how life can adapt and thrive in such conditions.

Please Support The Channel 50% of all channel support (after fees & tax) will go to a private Moon mission Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments How Rumble is beating YouTube In the battle between Rumble and YouTube, Rumble has been making significant strides in certain areas that have allowed it to outshine YouTube in terms of growth and user engagement. Here are the key factors contributing to how Rumble is beating YouTube: 1. Censorship Policies: One of the major areas where Rumble differentiates itself from YouTube is in its approach to censorship. While YouTube has been known for its strict censorship policies, including demonetization and removal of videos based on various criteria, Rumble has positioned itself as a platform that prioritizes free speech and avoids censorship as long as the content is legal. This commitment to allowing a wide range of content without fear of censorship has attracted creators and viewers who value freedom of expression. 2. Monetization Opportunities: Another area where Rumble is excelling compared to YouTube is in its monetization policies. While YouTube requires creators to meet certain thresholds, such as 1,000 subscribers and 4,000 watch hours before they can start monetizing their content, Rumble allows for immediate monetization. This more accessible monetization model on Rumble may be appealing to creators looking to generate revenue from their content without having to meet stringent requirements. 3. User Growth and Revenue Performance: Rumble’s impressive growth in terms of Monthly Active Users (MAUs) and revenue has also contributed to its success in competing with YouTube. In Q4 of 2022, Rumble experienced a massive year-over-year growth in MAUs, surging by 142%, while its revenue skyrocketed by 686.2% over the same period. These growth figures outpaced YouTube’s performance during the same timeframe, indicating that Rumble is gaining momentum and attracting both users and investors with its rapid expansion. Overall, by focusing on free speech principles, offering easier monetization options for creators, and demonstrating remarkable growth in user base and revenue, Rumble has positioned itself as a formidable competitor to YouTube.

Please Support The Channel 50% of all channel support (after fees & tax) will go to a private Moon mission Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments Mars, often referred to as the “Red Planet,” has long been a subject of fascination for scientists and space enthusiasts alike. One of the key challenges in colonizing and terraforming Mars is its lack of a substantial atmosphere and liquid water on its surface. The planet’s thin atmosphere and low atmospheric pressure have led to the loss of much of its water to space over time. As a result, if humans were to colonize and terraform Mars in the future, one of the consequences could be extremely high salinity levels in any water sources present on the planet. Factors Contributing to High Salinity Levels on Terraformed Mars Water Loss to Space: Mars is believed to have once had large bodies of liquid water on its surface billions of years ago. However, due to its weak magnetic field and thin atmosphere, much of this water has escaped into space over time. This process, known as atmospheric escape, has resulted in the loss of a significant amount of Martian water. Residual Salts: As water evaporates or sublimates from the Martian surface, any dissolved salts present in the water are left behind. Over time, these salts accumulate and can lead to high salinity levels in remaining water sources such as underground reservoirs or ice deposits. Geological Processes: Mars is a geologically active planet with features like volcanoes, impact craters, and tectonic activity. These processes can also contribute to the release of minerals and salts into Martian waters, further increasing their salinity levels. Human Activities: In the process of terraforming Mars – transforming its environment to make it more Earth-like and habitable for humans – human activities such as mining operations or industrial processes could potentially introduce additional salts and contaminants into Martian water sources, exacerbating salinity issues. Implications of High Salinity Levels on Terraformed Mars Water Availability: High salinity levels can make water sources less suitable for human consumption or agricultural use without proper treatment. This could pose challenges for sustaining a human population on Mars without reliable access to freshwater resources. Ecosystem Impact: Elevated salinity levels can also impact any potential Martian ecosystems that may be established as part of terraforming efforts. Organisms adapted to lower salinity environments may struggle to survive in highly saline conditions. Infrastructure Maintenance: High salinity water can be corrosive and damaging to infrastructure such as pipes, equipment, and habitats constructed on Mars. Managing and mitigating the effects of saltwater on infrastructure would be crucial for long-term sustainability. Conclusion In conclusion, while colonizing and terraforming Mars presents exciting possibilities for expanding human presence beyond Earth, addressing high salinity levels in Martian waters will be a significant challenge that requires careful planning and innovative solutions to ensure the success and sustainability of future settlements on the Red Planet.

Please Support The Channel 50% of all channel support (after fees & tax) will go to a private Moon mission Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments China’s Advancements in Space China’s advancements in space have positioned the country as a frontrunner in the new space race. The Chinese National Space Agency has been making significant progress with its space missions, including the recent launch of the Shenzhou-18 spacecraft to the Tiangong space station. This mission marks a milestone as China’s latest crewed mission to its own orbiting space station, following its exclusion from the International Space Station. Moreover, China has demonstrated its capabilities with successful missions like the Chang’e-6 robotic spacecraft, which is on a round trip to the moon’s far side to collect samples. These achievements underscore China’s commitment to lunar exploration and potential plans for establishing a crewed lunar landing and a base on the moon’s south pole. US Concerns and Reactions The United States, particularly NASA, has expressed growing concerns over China’s rapid progress in space technology and its geopolitical implications. There are fears that China’s civilian space program may have military applications, including the development of counter-space weapons that could target satellites and disrupt existing space infrastructure. NASA Administrator Bill Nelson highlighted the competitive nature of the current situation, characterizing it as a race between the US and China to return to the moon. He raised concerns about China’s intentions regarding territorial claims in space and emphasized the need for vigilance in monitoring China’s activities in orbit. Implications of China’s Space Dominance Experts suggest that China’s advancements in space technology pose a significant challenge to US dominance in this domain. The pace at which China is developing its capabilities, particularly in lunar exploration and resource utilization, is seen as a threat by some analysts. The ability to control resources like water on celestial bodies such as the moon could provide strategic advantages for future space endeavors. In contrast to previous space races focused on symbolic achievements like landing on celestial bodies, the current competition between China and the US revolves around establishing long-term presence and exploiting resources beyond Earth. This shift underscores the strategic importance of space exploration and highlights the implications of one country gaining dominance in this arena.

Please Support The Channel 50% of all channel support (after fees & tax) will go to a private Moon mission Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments In this captivating YouTube short, we will delve into NASA’s rich history of lunar exploration by comparing and contrasting the awe-inspiring Saturn V moon rocket and its successor, the Space Launch System (SLS). Both rockets represent monumental achievements in human spaceflight, with the Saturn V paving the way for the United States’ first manned lunar landing in 1969, and the SLS poised to carry us back to the Moon as part of NASA’s Artemis program. Saturn V: The Saturn V rocket, developed during the 1960s as part of President John F. Kennedy’s ambitious goal to land a man on the Moon before the end of that decade, was an engineering marvel. Standing at an impressive height of 363 feet (109.7 meters), it was the tallest, heaviest, and most powerful rocket ever built at that time. The Saturn V consisted of a central third stage (S-IVB), three liquid-fueled first stages (S-IC), and an Apollo spacecraft on top. This colossal machine generated a staggering 7.5 million pounds (34 MN) of thrust at liftoff, propelling astronauts to escape Earth’s gravity and embark on their historic journey to our celestial neighbor. Space Launch System (SLS): Fast forward to present day, NASA has initiated development of its next giant leap in lunar exploration: the Space Launch System (SLS). Designed to be even more powerful than its predecessor, this heavy-lift launch vehicle is expected to generate a mind-boggling 8.8 million pounds (39.8 MN) of thrust at liftoff when using its five RS-25 engines in their upgraded configuration. The SLS is also taller than the Saturn V, measuring 322 feet (98 meters) in height when fully assembled with its Orion spacecraft on top. This new powerhouse will play a crucial role in carrying humans back to the Moon under NASA’s Artemis program and eventually pave the way for missions beyond our solar system. Comparative Analysis: Although both rockets share some similarities such as their heavy-lift capabilities and their role in advancing human spaceflight, there are significant differences between them that make each one unique in its own right. For instance, while both use liquid hydrogen and liquid oxygen as fuel components, improvements in engine technology have led to increased efficiency for the SLS compared to its predecessor. Additionally, advancements in materials science have resulted in lighter structures for various components within the SLS design – making it more fuel efficient overall despite being larger than its predecessor. Furthermore, while both rockets were designed for manned missions to orbit or beyond Earth’s atmosphere, only the SLS is currently being developed with lunar exploration specifically in mind due to its immense power capabilities required for deep space missions involving large payloads or extended stays away from Earth.

Please Support The Channel 50% of all channel support (after fees & tax) will go to a private Moon mission Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments Elements Lacking on the Moon: The Moon lacks a significant atmosphere, which means it lacks elements such as oxygen, nitrogen, and carbon dioxide that are essential for life on Earth. The Moon’s surface is also devoid of liquid water, another crucial element for life as we know it. Elements Needed for All Life on Earth: All life on Earth requires a combination of essential elements to thrive. These elements include: Carbon: Carbon is a fundamental building block of life and is found in all organic molecules. Hydrogen: Hydrogen is a key component of water and many organic compounds essential for life. Oxygen: Oxygen is vital for respiration and energy production in most living organisms. Nitrogen: Nitrogen is crucial for the synthesis of amino acids, proteins, and nucleic acids. Phosphorus: Phosphorus is a component of DNA, RNA, ATP, and phospholipids, essential for cellular structure and function. Sulfur: Sulfur is necessary for the structure of certain amino acids and vitamins. These elements play critical roles in biological processes such as metabolism, growth, reproduction, and overall functioning of living organisms.

Please Support The Channel 50% of all channel support (after fees & tax) will go to a private Moon mission Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments Ice at the Moon's poles may be currently getting all the attention, but the Moon is hiding far, FAR more water both liquid and frozen fairly close to the surface. Just a few dozen feet into the Moon the temperature and pressure allow liquid water to be possible in a radiation free environment. That begs the question, if impacts throughout Earth's history have seeded the Moon with pieces of our world, rich in microbes, then why wouldn't the Moon's subsurface be rich with simple life? The Environment Below the Surface of the Moon Recent studies have suggested that the environment just below the surface of the Moon may be more hospitable to microbial life than previously thought. This surprising discovery challenges our traditional understanding of lunar conditions and raises intriguing possibilities for future exploration and research. Wet Environment One key factor contributing to the potential habitability of the lunar subsurface is the presence of water ice. While the surface of the Moon is known for its extreme dryness, recent missions and observations have revealed significant deposits of water ice in permanently shadowed regions near the poles. These icy reservoirs could provide a vital resource for any potential microbial life forms seeking to survive in this harsh environment. Radiation-Free Environment Another important aspect of the subsurface lunar environment is its relative protection from harmful radiation. Unlike the surface, which is exposed to high levels of solar and cosmic radiation, the subsurface offers a shield against these damaging rays. This reduced radiation exposure could create a more favorable setting for microbial survival and proliferation. Pressurized Environment Additionally, researchers have proposed that the subsurface of the Moon may possess a certain level of internal pressure, albeit significantly lower than Earth’s atmospheric pressure. This slight pressurization could further enhance the habitability of this environment by providing some degree of protection against vacuum conditions and facilitating processes essential for life. In conclusion, while further research is needed to fully understand the implications of these findings, it appears that the environment just below the surface of the Moon holds intriguing potential for microbial life due to its wetter conditions, reduced radiation exposure, and partial pressurization.

From the mysterious and forgotten Apollo 14 incident, to the "wet" sample return missions of Luna 24 and Chang'e 5 every Moon mission that involved the detection of water is here. What the flying telescope SOPHIA discovered at Clavius and Moretus craters is covered in depth before its retirement. As is India's ISRO successful Chandrayaan-3 mission to the Moon's south pole and the discoveries it made, not the least of which are the wild temperature swings just centimeters below the lunar regolith. And last but not least, ShadowCam has revealed the Moon's permanently shadowed craters to be devoid of ice, what does this mean for the future of lunar colonization? All of that and more is covered in this video! Please Support The Channel 50% of all channel support (after fees & tax) will go to a private Moon mission Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments Hey guys, this is going to be a deeper dive into the last video. There's a lot more to discuss when it comes to the possiility of sub-surface Moon water. Long time subscriers know that I strive to cover topics that 99% of YouTube is ignoring. And while you've shown me a ton of love and respect for that, and I thank you all and sincerely appreciate it, YouTube's algorithm tends to punish originality, as I'm sure you've noticed. But that's cool, it just means we've gotta try a little harder than the other guys, and I don't mind that, we're literally reaching for the stars here so I already know it's going to take work, I am not afraid. Real quick I'd like to thank everyone who left a like or a comment for the last video, every little bit helps, even if its just saying "commenting for the algo", I thank you. Alright, enough of that, let's get into the juicy details. Today we're going to quickly go thru a small mountain of evidence for water ice NOT contained in permanently shadowed craters at the poles. I'm trying to get this video out just a week after the last so buckle up, here we go.

China’s Advantages in the Modern Space Race China is making significant strides in the modern space race due to several key advantages: Technological Advancements: China has demonstrated impressive technological capabilities through successful space missions like the recent launch of the Chang’e-6 spacecraft to the moon’s far side. These achievements showcase China’s commitment to advancing its space program. Strategic Planning and Ambitions: Beijing has clear ambitions for its space program, including crewed lunar landings and establishing a base on the moon’s south pole. This strategic vision sets China apart in the race for space exploration. Military Integration: The Chinese space program is closely linked to the People’s Liberation Army, allowing for dual-use technologies that can serve both civilian and military purposes. This integration gives China an edge in developing advanced space capabilities. International Collaborations: China has been proactive in forming partnerships with other countries, such as Russia, for joint projects like the International Lunar Research Station (ILRS). These collaborations enhance China’s influence and resources in space exploration. Resource Acquisition: China is focused on acquiring resources in space, particularly water on the moon, which could be crucial for future missions and sustainability in outer space. This emphasis on resource utilization gives China a strategic advantage over competitors. Soft Power Projection: Through cultural products like the movie “The Wandering Earth,” China promotes a narrative of using space resources to benefit life on Earth, aligning with Chinese cultural values of teamwork and continuity. This soft power approach enhances China’s global image in space exploration. Geopolitical Strategy: China’s space ambitions are part of a broader geopolitical strategy to assert its influence and challenge traditional powers like the United States. By positioning itself as a leading space-faring nation, China aims to reshape global power dynamics. In conclusion, China is winning the modern space race by leveraging its technological prowess, strategic planning, military integration, international collaborations, resource acquisition efforts, soft power projection, and geopolitical strategy to establish itself as a dominant player in space exploration. Please Support The Channel 50% of all channel support (after fees & tax) will go to a private Moon mission Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments

Please Support The Channel 50% of all channel support (after fees & tax) will go to a private Moon mission Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments Social Media YouTube - / @whatsnextvideos Rumble - https://rumble.com/user/WhatsNextVids Tiktok - https://www.tiktok.com/@whatsnextvids X - https://twitter.com/WhatsNe75388303 Why is YouTube so terrible for small, original content creators these days? YouTube’s Algorithm and Content Discovery Approach: YouTube’s algorithm and content discovery approach heavily favor channels that cater to a specific niche or topic. The platform tends to promote creators who consistently produce content within a particular genre or theme, leading to the pigeonholing of creators into specific categories. This can be detrimental to small creators who want to explore different types of content or who do not fit neatly into one specific niche. Challenges Faced by Small Creators: Small creators often struggle on YouTube because the platform prioritizes established channels and tends to promote content that aligns with viewers’ previous preferences. This can make it difficult for new creators to break through and attract a wider audience, especially if they produce diverse content that does not fit neatly into a single category. Impact on Content Diversity and Creativity: The focus on promoting “winners” in specific categories can stifle creativity and limit the diversity of content available on the platform. Small creators who are experimenting with different types of content may find it challenging to gain visibility and grow their audience, leading to a homogenization of content as creators feel pressured to conform to established trends. Strategies for Small Creators: To navigate these challenges, small creators can employ various strategies to build their audience and maintain creative freedom. These strategies include encouraging viewers to subscribe and engage with their content, establishing a strong visual identity, managing older videos that no longer align with their current focus, building an audience outside of YouTube, and exploring alternative platforms that may better support experimentation and creativity. In conclusion, YouTube’s algorithmic approach and emphasis on niche content can pose significant challenges for small, original content creators looking to diversify their offerings and reach a broader audience. While the platform remains dominant in the online video space, its limitations for smaller creators highlight the need for more inclusive approaches that support creativity and innovation.

Please Support The Channel 50% of all channel support (after fees & tax) will go to a private Moon mission Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments Social Media YouTube - / @whatsnextvideos Rumble - https://rumble.com/user/WhatsNextVids Tiktok - https://www.tiktok.com/@whatsnextvids X - https://twitter.com/WhatsNe75388303 Effects of Donald Trump on NASA and Creation of Space Force During his administration, Donald Trump made significant changes to NASA and the U.S. space program, including the creation of the Space Force. Here are some key ways in which Trump influenced NASA and initiated the establishment of the Space Force: 1. Space Policy Directive 1: On December 11, 2017, Trump signed Space Policy Directive 1, which directed NASA to refocus its human exploration program on sending astronauts back to the Moon with a sustained presence and eventually establishing a colony on the Moon as a stepping stone for human missions to Mars by the 2030s. This directive accelerated NASA’s timeline for returning humans to the Moon from its original target date to 2024. 2. Emphasis on Commercialization: The Trump administration embraced commercialization in low Earth orbit through programs like the Commercial Resupply Services (CRS) and Commercial Crew Program (CCP). The CRS program involved partnerships with commercial companies like SpaceX and Boeing for resupply missions to the International Space Station (ISS), reducing NASA’s reliance on Russia. The CCP aimed to develop commercial vehicles for crewed missions to space, with SpaceX’s Crew Dragon vehicle successfully taking astronauts to the ISS in May. 3. Establishment of Space Force: In December 2019, President Trump signed into law the creation of the United States Space Force as a new branch of the military focused on space operations. The establishment of Space Force marked a significant shift in how the U.S. military approaches space activities and national security concerns related to space. 4. Accelerated Timeline and Focus on Moon Missions: The Trump administration accelerated NASA’s timeline for returning humans to the Moon by focusing on projects that garnered voter support during his presidency. By pushing for a return to the Moon by 2024, Trump aimed to achieve a defining achievement for NASA during his time in office, though meeting this deadline was deemed unlikely. 5. Impact on Policy and Exploration Goals: Trump’s policies reshaped NASA’s priorities towards lunar exploration as a precursor to future Mars missions. The emphasis on establishing a sustained presence on the Moon aimed at leveraging its resources and low-gravity environment for life support systems and fuel production necessary for future spacecraft missions. In summary, Donald Trump’s administration brought about major changes in NASA’s focus towards lunar exploration, accelerated timelines for human missions, emphasized commercial partnerships in space endeavors, and led to the creation of the U.S. Space Force as a dedicated military branch for space operations.

Please Support The Channel 50% of all channel support (after fees & tax) will go to a private Moon mission Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments MIT’s SuperLimbs MIT’s SuperLimbs are wearable robotic limbs developed by a team of researchers led by Harry Asada, a professor of mechanical engineering at MIT. These SuperLimbs are designed to assist astronauts in regaining their balance and mobility on the moon, where the reduced gravity can make movements challenging for individuals wearing bulky spacesuits. The SuperLimbs are part of a backpack system that includes a life support system, controllers, and motors to operate the robotic limbs. The purpose of SuperLimbs is to help astronauts conserve energy during extravehicular activities (EVAs) on the lunar surface, particularly in missions like NASA’s Artemis program, which aims to establish a permanent human presence on the moon. The SuperLimbs address the issue of astronauts falling over or struggling to maintain stability due to the constraints imposed by their spacesuits and the low lunar gravity. During the development of SuperLimbs, researchers conducted tests with healthy volunteers to evaluate the effectiveness of the system. Volunteers wore a constrictive garment that limited their movements, simulating the challenges faced by astronauts in space. The SuperLimbs were able to assist these volunteers in standing up with less effort and maintaining stability more easily. The design of SuperLimbs incorporates advanced control systems that analyze the movements of users and provide assistance accordingly. By mapping common sequences of motion and using ergonomic principles, the SuperLimbs can predict when an individual is about to fall and intervene to prevent accidents. In addition to aiding astronauts on the moon, MIT researchers have also explored applications for SuperLimbs in other industries such as aircraft manufacturing and shipbuilding. The technology has potential uses beyond space exploration, demonstrating its versatility and adaptability for various scenarios where assistance with heavy lifting or balance is required. Overall, MIT’s SuperLimbs represent a significant advancement in wearable robotics designed to enhance astronaut safety and efficiency during missions in challenging environments like the lunar surface.

Please Support The Channel 50% of all channel support (after fees & tax) will go to a private Moon mission Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments The International Space Station (ISS) has been criticized as an obscene waste of money for several reasons: High Cost: The ISS has been a massive financial undertaking, with estimates suggesting that it has cost over $180 billion since its inception. Critics argue that this money could have been better spent on other scientific endeavors or societal needs on Earth. Limited Scientific Returns: Some critics claim that the scientific returns from the ISS do not justify its high cost. While research conducted on the ISS has yielded valuable insights into various fields such as biology, physics, and materials science, detractors argue that the cost per scientific discovery is too high compared to other research initiatives. Technological Obsolescence: The ISS is now over two decades old, and some of its technology is becoming outdated. Maintaining and upgrading the station require significant resources, leading some to question whether it is worth investing further in a platform that may soon be surpassed by newer space technologies. Political Symbolism Over Practicality: The decision to build and maintain the ISS was influenced by political considerations, including fostering international cooperation in space exploration. Critics argue that these symbolic goals have overshadowed practical considerations of cost-effectiveness and scientific productivity. Opportunity Cost: The substantial financial investment in the ISS has meant that funds were diverted from other potential space missions or scientific projects that could have had a greater impact or provided more significant returns on investment. Limited Accessibility: The ISS is accessible only to a select group of astronauts and researchers, limiting the number of individuals who can benefit directly from its presence in orbit. Critics argue that this exclusivity reduces the overall impact of the station on advancing scientific knowledge. In conclusion, while the International Space Station has undoubtedly contributed valuable scientific insights and served as a symbol of international cooperation in space exploration, critics argue that its high cost, limited scientific returns, technological obsolescence, political motivations, opportunity costs, and limited accessibility make it an extravagant use of resources.

Please Support The Channel 50% of all channel support (after fees & tax) will go to a private Moon mission Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments Changes Made by Trump to NASA: Acceleration of Moon Landing Timeline: The Trump administration accelerated NASA’s timeline for returning astronauts to the Moon from the original target of 2028 to 2024. This shift in focus aimed to prioritize lunar exploration as a stepping stone for future Mars missions. Space Policy Directive 1: On December 11, 2017, President Trump signed Space Policy Directive 1, which directed NASA to refocus its human exploration program on sending astronauts back to the Moon with the goal of establishing a sustained presence and eventually launching crewed missions to Mars in the 2030s. Emphasis on Commercialization: Under Trump’s leadership, there was a significant emphasis on commercial partnerships and commercialization of low Earth orbit. This included initiatives like the Commercial Resupply Services (CRS) program and the Commercial Crew Program (CCP) aimed at leveraging private sector capabilities for space missions. Support for Artemis Program: The Artemis program, initiated during the Trump administration, aimed to return humans to the Moon and establish a sustainable presence there. This program involved collaboration with international partners and private industry to achieve its goals. Focus on Deep Space Exploration: Trump’s administration placed a strong focus on deep space exploration, including plans for crewed missions beyond Earth orbit. This included developing architectures like the Orion spacecraft for deep space missions.

Please Support The Channel 50% of all channel support (after fees & tax) will go to a private Moon mission Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments Did the Moon once have an atmosphere? Yes, the Moon once had an atmosphere, although it was very different from Earth’s atmosphere. The lunar atmosphere was sparse, consisting of a thin layer of gases surrounded by a vacuum. This atmosphere had an elevated presence of atomic and molecular particles, but its overall mass was extremely low, around 3×10−15 atm (0.3 nPa), which is less than 10 metric tonnes. The Moon’s atmosphere was so tenuous that it was considered almost negligible, with gaseous envelopes that were not dense like those found on Earth. The lunar atmosphere required constant replenishment due to the high rate at which gases were lost into space. Factors contributing to this loss included the lack of a strong gravitational pull on the Moon, as well as the bombardment of micrometeorites, solar wind, and sunlight causing sputtering. The escape velocity on the Moon is relatively low compared to Earth, at about 2.38 km/s, which meant that gases could easily escape into space. The gases in the lunar atmosphere were not typical atmospheric components like those found on Earth. Elements such as sodium and potassium were detected on the Moon, along with isotopes like radon-222 and polonium-210 inferred from data collected by instruments like the Lunar Prospector alpha particle spectrometer. Other gases such as argon-40, helium-4, oxygen, methane, nitrogen, carbon monoxide, and carbon dioxide were also detected in trace amounts. The ancient lunar atmosphere is believed to have been much thicker than what we observe today. Around 70 million years ago, the Moon had an atmosphere that was about twice as thick as Mars’ ancient atmosphere. This ancient lunar atmosphere likely played a role in shaping the surface of the Moon and may have interacted with volcanic activity and other geological processes. Over time, however, the lunar atmosphere dissipated due to various factors leading to its current state of being virtually non-existent. Today, the Moon’s surface is exposed directly to space without any significant atmospheric protection. In conclusion, while the Moon did have an atmosphere in its distant past, it was vastly different from Earth’s atmosphere in terms of composition and density. The presence of elements and isotopes detected on the Moon provides valuable insights into its geological history and evolution over billions of years.

Remember when NASA said they'd discovered ice at the Moon's poles? But we couldn't see it because craters at the poles are in permanent darkness? Well now we can... You are looking at images taken of those dark crater floors colder than the surface of Pluto that haven't seen the sun in perhaps billions of years But where's the ice?? Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments ShadowCam is a specialized camera system developed by NASA to study the Moon’s permanently shadowed regions, particularly its polar craters. These areas are of great interest to scientists because they are believed to contain water ice due to their extremely low temperatures and lack of sunlight exposure. The presence of water ice on the Moon could have significant implications for future lunar exploration and potential resource utilization. ShadowCam’s Observations Recent observations made by ShadowCam have revealed that the Moon’s permanently shadowed craters do not show any visible signs of ice. This finding has surprised many researchers who were expecting to see evidence of water ice based on previous studies and theoretical models. The lack of visible ice in these regions raises questions about the distribution and abundance of water on the Moon, as well as the processes that govern its presence in such extreme environments. Possible Explanations for the Absence of Visible Ice There are several possible explanations for why ShadowCam did not detect any visible ice in the Moon’s permanently shadowed craters: Depth of Ice Deposits: It is possible that any ice present in these regions is buried beneath a layer of regolith or dust, making it difficult to detect with visual observations alone. Subsurface Ice: Water ice may be present below the surface of the regolith, beyond the reach of ShadowCam’s imaging capabilities. Future missions equipped with instruments capable of penetrating deeper into the lunar soil may be able to confirm the presence of subsurface ice. Variability in Ice Distribution: The distribution of water ice on the Moon may be highly variable, with some regions containing more ice than others. ShadowCam’s observations may have simply missed areas where ice is more abundant. Evaporation and Migration: It is also possible that any surface ice present in these regions has sublimated or migrated over time due to factors such as temperature fluctuations or micrometeorite impacts. Implications for Future Research The absence of visible ice in the Moon’s permanently shadowed craters highlights the need for further research to better understand the distribution and nature of water on our nearest celestial neighbor. Future missions, such as NASA’s Artemis program, aim to explore these regions in more detail and potentially extract resources like water for human exploration and habitation.

Please Support The Channel 50% of all channel support (after fees & tax) will go to a private Moon mission Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments Chang’e 6 is a Chinese lunar mission launched on May 3, 2024, from the Wenchang Space Launch Site in Hainan. The mission involves an orbiter, a lander, and an ascender, with the primary goal of returning samples from the far side of the Moon. The samples will be collected from the South Pole-Aitken basin, which presents unprecedented challenges due to its difficult environment and composition. Chang’e 6 carries a reentry module to bring the samples back to Earth. The mission is part of China’s ambitious plans for future lunar missions, including Chang’e 7 and a human mission to the Moon by 2030. The Chang’e 6 mission marks a significant milestone in lunar exploration as it aims to collect samples from the far side of the Moon, which has not been explored extensively due to communication challenges caused by tidally locked orbital periods. To address this challenge, China launched Queqiao-2 relay satellite into a lunar elliptical orbit in March 2024 to facilitate line-of-sight communication between Earth and the far side of the Moon. Chang’e 6 was launched using a Long March 5 rocket and entered lunar orbit on May 13, 2024. The lander successfully touched down near the southern Apollo crater on May 17, while the orbiter continued to circle around the Moon. The ascender then lifted off from the lander on May 19 and rendezvoused with it to transfer samples into its reentry module. On May 21, after completing five material transfer burns, Chang’e 6 returned to Earth with approximately 2 kilograms (4.4 pounds) of lunar samples. The collected samples will provide valuable insights into the geological history and composition of the Moon’s far side and contribute significantly to future scientific research on lunar resources utilization and space exploration. This achievement further solidifies China’s position as a major space power and global leader in space exploration by 2049.

Please Support The Channel 50% of all channel support (after fees & tax) will go to a private Moon mission Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments Solar panels are crucial for harnessing solar energy and converting it into electricity. The location where these panels are placed plays a significant role in their efficiency and effectiveness. When comparing the poles of the Moon to Earth orbit as potential locations for solar panels, several factors come into play that make the lunar poles a superior choice. 1. Continuous Sunlight One of the primary reasons why the poles of the Moon are better suited for solar panels compared to Earth orbit is the presence of continuous sunlight. Unlike Earth orbit, where satellites experience periods of darkness due to eclipses or shadowing by the Earth itself, the lunar poles receive almost continuous sunlight. This uninterrupted exposure to sunlight ensures a consistent and reliable source of energy for solar panels, maximizing their efficiency. 2. Lack of Atmospheric Interference Another advantage of placing solar panels on the poles of the Moon is the absence of an atmosphere. Earth’s atmosphere can scatter and absorb sunlight, reducing the amount of solar energy that reaches solar panels in orbit. In contrast, the Moon’s lack of atmosphere means that solar panels at its poles can capture a higher percentage of incoming sunlight without any atmospheric interference, leading to increased energy production. 3. Reduced Maintenance Needs Solar panels in Earth orbit are exposed to various environmental factors such as micrometeoroids, radiation, and temperature fluctuations, which can degrade their performance over time and necessitate frequent maintenance or replacement. On the other hand, solar panels at the poles of the Moon are shielded from many of these hazards, resulting in reduced maintenance needs and longer operational lifespans. 4. Potential for In-Situ Resource Utilization The lunar poles also offer opportunities for in-situ resource utilization, where resources available on the Moon can be used to support human activities and infrastructure development. For instance, regolith (lunar soil) could be used to manufacture protective shielding or construction materials for solar panel installations at the poles, reducing costs associated with transporting materials from Earth. Conclusion In conclusion, the poles of the Moon present several advantages as a location for solar panels when compared to Earth orbit. The continuous sunlight exposure, lack of atmospheric interference, reduced maintenance needs, and potential for in-situ resource utilization make them an ideal choice for maximizing energy production efficiency.

50% of Channel Support (after taxes & fees) Goes To A Private Moon Mission Please Support The Channel Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments Another Classic episode that examines just how insanely expensive the SLS rocket is by comparing the costs of a single rocket to some things it could buy here on Earth. Also, I'm not one to complain and not offer solutions so this video lays out exactly what NASA's Artemis program SHOULD be doing. Reasons for the Obscene Cost of the SLS Rocket: The Space Launch System (SLS) rocket is considered obscenely expensive due to a combination of factors that have contributed to its high costs: 1. Development Costs: The development costs of the SLS program have been a significant contributor to its expense. The program has faced numerous delays and setbacks, leading to increased spending on research, design, and testing phases. 2. Production Costs: The production costs of the SLS rocket have also been a major factor in its high price tag. The complexity of building such a massive rocket, along with the need for specialized components and technologies, has driven up production expenses. 3. Lack of Transparency: NASA’s lack of transparency regarding the costs associated with the SLS program has made it difficult for taxpayers and oversight bodies to fully understand where the money is being spent. This lack of clarity can lead to inefficiencies and cost overruns. 4. Affordability Concerns: There have been concerns raised about the affordability of the SLS program, with reports indicating that it may be unsustainable in the long run. The inability to accurately monitor and control production costs has added to these worries. 5. Future Hardware Costs: Delays in the development of key components like the Exploration Upper Stage have impacted the overall timeline and cost estimates for future Artemis missions, further adding to the expense of the program. In summary, a combination of high development costs, expensive production processes, lack of transparency, affordability concerns, and delays in hardware development have all contributed to making the SLS rocket obscenely expensive.

Please Support The Channel 50% of all channel support (after fees & tax) will go to a private Moon mission Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments Yes, it is true that no human has ever left Earth’s atmosphere. In the context provided, it is mentioned that the Earth’s atmosphere extends beyond the surface and into the geocorona, which is the outermost atmospheric layer. The geocorona extends up to 391,000 miles from the Earth’s surface, which is about twice the distance to the moon. This region contains sparse hydrogen molecules and is essentially a vacuum. Even though astronauts have traveled to the moon and orbited within the geocorona, they have not left Earth’s atmosphere. The geocorona poses challenges and redefines the boundaries of space as traditionally understood. It was observed that even at 50 miles above the Earth’s surface (the Kármán line recognized as the boundary of space by Fédération Aéronautique Internationale), astronauts were still within the geocorona. This layer of hydrogen around Earth interacts with solar wind particles and emits ultraviolet light, making it visible to high-powered telescopes. The study of the geocorona has implications for space weather and its impact on technologies such as cellphones, GPS systems, and electric infrastructure on Earth. Understanding this region is also crucial in the search for extraterrestrial life as it affects habitable planets within our galaxy. Therefore, based on current scientific understanding and observations, no human has left Earth’s atmosphere.

Want More of this on RUMBLE? Then Support One of Three Ways: Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments 50% of All Support (after taxes & fees) Goes to a Private Moon Mission This classic episode is about how the Moon is creating its own water to this day ad how colonists might be able to harvest this resource over time. Enjoy! How does the solar wind create water on the Moon? Solar Wind Interaction with the Moon’s Surface: The process of how the solar wind creates water on the Moon involves a complex interaction between the solar wind and the lunar surface. When the solar wind, which consists of streams of protons and electrons from the Sun, reaches the Moon, it interacts with the surface materials. Chemical Reactions Leading to Water Formation: NASA scientists have found that when the solar wind interacts with the surface of the Moon, hydrogen (H) atoms migrate and latch onto oxygen (O) atoms present in silica (SiO2) and other compounds on the lunar surface. This interaction leads to the formation of hydroxyl (OH) molecules. Subsequently, these hydroxyl molecules can combine with additional hydrogen and oxygen to form water (H2O). Research Findings Supporting Water Creation: Studies conducted by NASA scientists, such as William M. Farrell and James W. Tucker from Goddard Space Flight Center, have provided critical insights into this process. Their research indicates that the presence of water on the Moon is attributed to irradiation by solar wind and highlights how solar wind plays a significant role in transporting resources like hydrogen to the lunar surface. Simulation Studies and Evidence: Through simulations and observations using spacecraft like NASA’s Deep Impact and Cassini, as well as missions by other space agencies like India’s Chandrayaan-1 and China’s Chang’e missions, evidence of water components, hydrogen, and hydroxyl atoms has been discovered on the Moon’s surface. Solar Wind as a Primary Driver: While meteor impacts can initiate chemical reactions on the lunar surface, researchers suggest that the primary driver for creating water on the Moon is indeed the solar wind interacting with its thin atmosphere or exosphere. Hydrogen Dynamics and Outgassing: James W. Tucker’s simulations indicate that hydrogen from solar wind accumulates differently across various regions of the Moon based on factors like temperature and exposure to sunlight. Warmer regions tend to accumulate less hydrogen due to outgassing caused by solar radiation energizing trapped hydrogen atoms. Chemical Factory for Water Formation: The process described by Goddard physicist Rosemary Killen and Dana M. Hurley suggests that silica acts as a chemical factory where oxygen molecules from silica bond with hydrogen atoms released by solar wind to form hydroxyl groups, eventually leading to water formation. In summary, the solar wind creates water on the Moon through a series of chemical reactions involving hydrogen migration, interaction with oxygen in lunar compounds, and subsequent formation of hydroxyl molecules that combine to produce water under specific conditions influenced by factors like temperature and sunlight exposure.

Discovery of Water on the Moon after Apollo 14 (1971): The discovery of water on the Moon after Apollo 14 in 1971 was a significant finding that challenged previous assumptions about the lunar surface. Prior to this discovery, it was widely believed that the Moon was a dry and desolate place with no significant presence of water. However, in recent years, advancements in technology and research have revealed that water does exist on the Moon, albeit in limited quantities and unique forms. Significance of Water Detection: The detection of water on the Moon has profound implications for future space exploration and colonization efforts. Water is a critical resource for sustaining human life, providing hydration, supporting agriculture, generating oxygen, and serving as a potential fuel source. The presence of water on the Moon could significantly reduce the cost and complexity of long-duration missions by enabling astronauts to utilize local resources rather than relying solely on Earth-based supplies. Methods of Water Detection: Various methods have been employed to detect water on the Moon, including remote sensing techniques, spectroscopic analysis, and direct measurements from lunar samples. One of the most notable discoveries was made using data from NASA’s Moon Mineralogy Mapper (M3) instrument aboard India’s Chandrayaan-1 spacecraft. The M3 instrument detected signatures of water molecules on the lunar surface, particularly near the poles where permanently shadowed regions exist. Sources of Lunar Water: There are several potential sources of water on the Moon, including cometary impacts, solar wind interactions, and volcanic outgassing. Comets colliding with the lunar surface can deliver water ice that gets trapped in cold traps at the poles. Solar wind can also interact with lunar minerals to create hydroxyl (OH) and molecular water (H2O). Additionally, volcanic activity in the past may have released water vapor that condensed and accumulated in certain areas. Implications for Future Exploration: The discovery of water on the Moon has sparked renewed interest in establishing a sustainable human presence on our celestial neighbor. Scientists and space agencies are exploring ways to extract and utilize lunar water for various purposes, such as drinking water production, oxygen generation for life support systems, and propellant manufacturing for spacecraft operations. The presence of accessible resources like water could enable long-term habitation and serve as a stepping stone for further exploration into deep space. Please Support The Channel 50% of all channel support (after fees & tax) will go to a private Moon mission Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments

Please Support Me Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments In this episode we explore the serious issues with SLS, the costs involved, and the effort being made to downplay the wasteful path NASA is once again taking us down. In 2005, NASA administrator Michael Griffin coined the term "Apollo on steroids" when referring to the Constellation program, the program that Artemis was born from. Now it's nearly 20 years later and Artemis has revealed itself to be "Apollo on life-support". So far over $100 BILLION have been spent on NASA's return to the Moon and all we have to show for it is a single unmanned flight. Worse, NASA isn't even planning on an actual moon base and is instead going to build yet another space station, but this time orbiting the Moon. It should be becoming clear to everyone that NASA has no intention of colonizing the Moon or Mars. If real progress is to be made, then we are the ones who must get the job done. This, is how.

Yes, the Moon’s regolith hides the Moon’s true surface. The regolith, which is a layer of loose, fragmented material covering solid rock on the Moon, conceals the actual bedrock and geological features of the lunar surface. This layer of regolith is made up of fine dust, rocky debris, and other materials that have accumulated over billions of years due to meteorite impacts and other space weathering processes. The regolith can vary in depth across different areas of the Moon and can be several meters thick in some regions. The presence of regolith on the Moon poses challenges for exploration and scientific study as it obscures the underlying geology and topography. Understanding the composition and characteristics of the regolith is crucial for planning future missions to the Moon, such as NASA’s Artemis program, which aims to return humans to the lunar surface by 2024. Researchers have been studying lunar regolith samples brought back by Apollo missions as well as conducting experiments with simulated lunar regolith to better understand its properties and how it affects lunar exploration. By analyzing the regolith, scientists can learn more about the history of impacts on the Moon, study its mineral composition, and assess potential resources that could be extracted from the regolith in future missions. In summary, the regolith on the Moon acts as a cover that hides the true surface features of the Moon, making it essential for scientists and explorers to study and understand this layer to unlock the secrets of our celestial neighbor. WANT TO SEE ME SWITCH TO RUMBLE? Then support the channel one of 3 ways: Patreon: https://www.patreon.com/user?u=37594401 Buy Me A Coffee?: https://www.buymeacoffee.com/whats.next Donate With Cash App: https://cash.app/$YTpayments

Importance of the First Image of the Moon’s Dark Side The first image of the Moon’s dark side, captured by the Soviet Luna 3 spacecraft on October 7, 1959, holds significant importance in the history of space exploration and scientific understanding. This image marked a groundbreaking moment as it provided humanity with its initial glimpse of a part of the Moon that had never been seen before. Despite being fuzzy and indistinct, this image revolutionized our perception of Earth’s natural satellite and paved the way for further lunar exploration. Unveiling the Unknown The ‘dark side’ of the Moon, more accurately referred to as the far side, was previously shrouded in mystery due to tidal locking, which causes one hemisphere to always face away from Earth. The term ‘dark side’ is a misnomer since sunlight equally illuminates all parts of the Moon; however, this hemisphere remains unseen from Earth. Luna 3’s image shattered this veil of secrecy and introduced humanity to a hidden realm in our cosmic neighborhood. Tidal Locking and Libration The phenomenon of tidal locking, where gravitational forces between Earth and the Moon synchronize their rotations, ensures that only one side faces Earth consistently. Additionally, libration introduces slight oscillations that allow around 59% of the Moon’s surface to become visible over time. These celestial mechanics highlight the complexity behind lunar movements and viewing angles. Impact on Lunar Exploration The revelation of the far side spurred further lunar missions and discoveries. Subsequent missions like Zond 3 in 1965 and Apollo 8 in 1968 provided more detailed insights into this enigmatic region. The Chang’e 4 mission in early 2019 achieved a historic soft landing on the far side, collecting valuable samples for studying lunar composition and history. This milestone underscores how Luna 3’s initial image catalyzed a new era of lunar exploration. In conclusion, the first image of the Moon’s dark side captured by Luna 3 in 1959 was pivotal in expanding human knowledge about our celestial companion. It dispelled myths surrounding this hidden hemisphere and set in motion a series of missions that continue to unravel the mysteries of our nearest cosmic neighbor.