In the coming decade, a new generation of powerful telescopes is poised to provide humanity with an unprecedented perspective on the universe.

While some individuals look to the sky and see the future of mankind, astronomers eagerly anticipate a glimpse into a past farther back than ever before. The construction of various telescopes worldwide is setting the stage for a broader and more comprehensive era in astronomy.

Space telescopes have long served as the "scientific eyes" of astronomers, enabling them to study and explore the universe. Modern cosmologists have relied on data from a diverse array of space telescopes to revolutionize our understanding of the cosmos.

Each type of space telescope plays a unique role in providing distinct perspectives on the universe, and all are equally important to contemporary cosmology.

Among the most significant modern space telescopes are the Compton Gamma Ray Space Telescope, the Chandra X-ray Telescope, the Hubble Space Telescope, and the Spitzer Space Telescope.

These cutting-edge instruments allow us to observe the universe across a wide range of wavelengths, including gamma-ray, X-ray, ultraviolet, visible, and infrared. The importance of this diversity in space telescopes lies in their ability to unveil different aspects of the universe, enhancing our comprehension of its intricacies.

When discussing space telescopes, the one that stands out is the Hubble Space Telescope. In the 1960s, astronomers considered this form of observation via space telescopes as the most promising choice for astrophysics.

Inspired by this vision, astronomers in the 1970s conceived the idea of a space telescope that could pave the way for modern cosmology. Initially, Hubble's mission focused on measuring distances to other galaxies and characterizing galaxy structure, among other objectives.

However, what astronomers did not anticipate was that Hubble would also revolutionize the study of exoplanet atmospheres. As observational techniques advanced, astronomers realized that a single optical telescope could not fully meet the diverse needs of scientific inquiry.

Consequently, numerous space telescopes were designed to observe the universe from different angles, expanding our knowledge and unveiling new cosmic wonders.

One forthcoming addition to the array of space telescopes is the new European Southern Observatory (ESO) telescope, to be situated in the Atacama Desert in Chile. This telescope's primary mirror will surpass that of the 30-meter telescope, boasting a diameter of 39 meters (128 feet).

It will become the world's largest visible and infrared light telescope, surpassing the capabilities of ESO's Very Large Telescope. The telescope is expected to collect 100 million times more light than the human eye and will play a pivotal role in studying exoplanets, black holes, galaxy evolution, and the early universe. Its first light is anticipated to appear in 2027.

Beyond its contribution to astronomical discoveries, space exploration drives the development of new technologies that have applications not only in the space program but also in various other industries.

By exploring space, scientists gain insights into alternative sources of energy generation for electricity and deepen our understanding of the sun and Earth. Furthermore, space exploration programs create job opportunities for skilled professionals, technicians, research assistants, engineers, and others, fostering economic growth and scientific advancement.

The next decade holds tremendous promise for the field of astronomy, as new and powerful telescopes are poised to provide us with a transformative perspective on the universe.

With their enhanced capabilities, these telescopes will unlock new realms of knowledge, revolutionize our understanding of cosmic phenomena, and fuel scientific and technological progress. As humanity continues its journey of exploration, the mysteries of the universe are waiting to be unraveled, offering us a deeper comprehension of our place in the cosmos.