Space exploration data covers all information about the composition of objects or life beyond the earth’s atmosphere. This includes deep space imaging, meteorite soil sampling, spacecraft engineering, and more.
The means of recording space-related data may lie on earth, as in the case of ground-based observation posts; however, earth science data may also lie in space, as in the case of GPS imaging.
The aerospace industry—the combination of aviation and space flight—most commonly deals with space exploration data for several reasons. Primarily, this is because the line between flight in space and flight in the earth’s atmosphere is not so easily separated.
Most sources of space exploration data are from the government, in particular the military. NASA, the US Space Force, and others record space data with a variety of imaging technology, robots, satellites, and spacecraft. These organizations also publish a large amount of the data they collect, though many people remain skeptical about how much information they truly release to the public.
In the last few years, however, private organizations have emerged with the capability to not only record space-related data from earth but to send satellites and spacecraft into space. Many observers have hope that this represents a democratic revolution in the space exploration field.
The number of objects and phenomena that await study is huge. Therefore, the number of data attributes in this category are correspondingly huge. NASA’s open data portal, however, offers datasets under categories of planets, missions, and rover names. Under these subcategories, interested individuals can read about meteorite velocity and altitude or look at annotated orbital Mars landmarks.
The main uses of this data is exploration and discovery. Scientists, physicists, and engineers all find information crucial to their fields of study in space: they can discover new planets, explore the composition of dark matter, and try to plot a timeline for when and how the universe came into being.
The military also uses this data, and not just to prepare for alien invasion—the military prepares for invasion from any source, no matter how unlikely—but also to prepare for attack from better known human enemies. Satellite and ground-based observation posts can identify fast-moving bombs or aircraft and respond to them before they reach the ground, for example.
These same systems can also look to the sky, to identify asteroids or meteorites that could strike the earth with catastrophic force.
Since the government publishes most space exploration data, there remains little need for quality assessment in the initial stages. However, once a researcher begins to build a dataset with this information, he or she should carefully standardize the data.
Data of interest to intelligence analysts is sparse, random, heterogeneous, and is distributed across the computer. Moreover, several applications might try to access the same data at the same time.
The AGILE program seeks to develop computers that not only can process large-scale data-analytic intelligence applications, but also that can address other classes of large problems.
Capella’s SAR satellite provides Earth observation data that enables professionals understand changes, weather, and other information to make informed decisions.
Ball Aerospace Commercial provides remote sensing, data analytics & exploitation, and transformational communication.
Ball Aerospace Data Services uses cloud technologies and open architecture to turn remote data into accurate and actionable insights.