Humanity's interest in heaven was universal and enduring. Humans are forced to explore the unknown, discover new worlds, push the boundaries of our scientific and technological frontiers, and then move on. Solving Research Problems outer space human, we expand technology, create new industries and help in establishing peaceful communication with other countries. Based on what we learn there, we will prepare astronauts for the challenges of long-term flight and the continuous expansion of human exploration beyond where we have been before.

The development of the Cosmos is new knowledge

Researchers can visit near-Earth asteroids, where we can get answers to questions that people have always asked. Visiting the asteroid will provide valuable mission experience and prepare us for the next steps - perhaps the first humans to go to Mars. Robotic intelligence continues to provide deep answers about our universe, visiting distant places, providing intelligence and collecting scientific data. Combining both human and robotic research methods, we will use technology and our senses to increase our ability to observe, adapt and uncover new knowledge.

Why the International Space Station?

The first step in undertaking a long and difficult journey is to lay a solid foundation for successful work. The International Space Station serves as a national laboratory for research on human health, biological and material resources, as a technological testbed and as a stepping stone for further transition into the solar system. At the International Space Station, we will improve and explore new ways to keep astronauts safe, healthy and productive while exploring, and we will continue to expand our knowledge of how materials and biological systems behave outside of gravity.

Transbunary space is the vast expanse surrounding the Earth-Moon system, extending far beyond the orbit of the Moon, and dominated by two-body gravitational fields. Studying in transmunar space, in addition to protecting the Earth's geomagnetic field, will provide an unparalleled experience in deep sea operations. Lagrangian points—locations in cislunar space where the gravitational influences of the Earth and Moon cancel each other out—are useful areas for research and exploration in which little or no movement is required to keep an object or spacecraft stationary.

It is believed that asteroids formed at the beginning of our solar system- about 5 billion years ago, when a cloud of gas and dust called the solar nebula collapsed and formed our sun and planets. By visiting these objects near Earth to study the material that came from the solar nebula, we can find answers to some of the most difficult questions humanity, for example: how did the solar system form and where did the Earth's water and other organic materials such as carbon come from?

States can work together peacefully

In addition to revealing information about our solar system, asteroids can provide information about our Earth. By understanding more about asteroids, we can learn more about past terrestrial impacts and perhaps find ways to reduce the threat of future impacts. Future robotic missions to asteroids will prepare humans for long-term space travel and a possible trip to Mars. Robotic missions will provide reconnaissance information about asteroid orbits, surface composition, and even return of samples to Earth for a fu higher score.

These robotic missions are an important step in preparing humans to visit asteroids, where we will learn about the valuable resources available in space and continue to develop ways to use them in our quest for more efficient and affordable exploration.

Mars has always been a source of inspiration for explorers and scientists. Robotic missions have found evidence of water, but if life exists outside of Earth remains a mystery. Robotic and scientific robotic missions have shown that Mars has similar characteristics and history to Earth, but we know there are surprising differences that we have yet to understand. Humans can build on this knowledge and look for signs of life and explore the geological evolution of Mars, leading to studies and methods that can be applied here on Earth.

The Near Nearest Planetary Neighbor mission provides the best opportunity to demonstrate that humans can live for extended, even permanent, stays outside low Earth orbit. The technology and space systems needed to transport and support researchers will spur innovation and encourage creative ways to solve problems. As previous space exploration has shown, the resulting ingenuity and technology will have lasting benefits and applications.

People need to quench their thirst for research

The challenge of going to Mars and learning how to live there will encourage countries around the world to work together to achieve such an ambitious undertaking. The International Space Station has shown that opportunities for collaboration will highlight our common interests and provide a global sense of community.

Right now, one of the most breathtaking space objects in the world is a World War II hangar in California's Mojave Desert. Eleven other small space companies spread around the site at the Mojave Air and Space Port. The experience won't be cheap.

This cost alone puts this untapped space tourism industry beyond the reach of most of us. Thus, it is easy to abandon the entire enterprise, like private jets in space, rather than benefiting all of humanity. This frees cosmic ambitions from the traditional burden. By the time humans actually stepped on the lunar surface, NASA's budget was already shrinking. If a company can raise cash, it can build a spaceship. Inevitably, this free market favors people who already have a lot of money.

The development of space is the colonization of planets

But this does not apply to all companies in the private space business. For him, the creation of a sub-orbital tourist vessel is part of a long-term strategy. “We started looking into what a fully reusable orbital system would look like and implement, we would need to develop earlier versions of that to learn how to build them,” he says. "These earlier versions should also be making money."

Rejection is now an option on which Nasa is forever saddled with the phrase “rejection is not an option.” Private companies do not have such restrictions until the money runs out. At the entrance to the Mojave air and space port, a reminder dominates that not all space projects succeed. The rotary rocket, resembling a giant white traffic cone, is one of the most peculiar aircraft that have ever been built - probably best called a semi-helicopter, a semi-rotor, and if you were being cruel, you might as well call the concept semi-baked.

The technique proved to be reliable, but funding problems forced the company to fold. Today he collects desert dust in a small memorial garden. "One of the obstacles in modern society is risk and failure intolerance, and if you're really going to innovate, you're going to fail sometimes,” he says.

It will inspire a new generation of engineers. The spaceport is more like a university campus than a space center. He proudly shows me one of the rocket engines he is helping to develop, currently a mass of pipes, wires and valves. The way Mojave works in small teams with limited resources is completely different from how space agencies work. Perhaps young engineers will have equally world-changing effects. Not only can conventional space rockets only be used once, they are extremely expensive to launch - and there is limited competition.

Scientific institutions have already signed up for experiments on these sub-orbital flights. If the next generation of spacecraft can reach orbit, it will greatly reduce the cost of getting into space. This means we can launch satellites, spacecraft and space exploration missions at a fraction of the cost. The last frontier could become economically viable for many more people.

It will be good for health

Hypersonic travel could be a possibility. Remember that you can take off from London, fly into space and land in San Francisco in an hour? When discussing technologies that are promised but never delivered, those who come in second behind flying vehicles should be so-called point-to-point sub-orbital movements. Can space tourism companies in Mojave finally help make this dream a reality? George Whitides puts it this way: "It's fundamentally transformable for humanity," he tells me.