Address by S. R. Kulkarni given at the convocation of the Radboud University of Nijmegen, Netherlands on 28 May 2015. For the past several centuries the framework of science was based on the firm belief that that the world or Universe was perfect. The amazing success of physics and the key role played by mathematics both in casting physical laws into a small number of mathematical equations (e.g. Newton's equation, Maxwell's equations) confirmed that the implicit assumption of the framework. The success of "reductionism" was so astounding that at the end of the beginning of the 20th century some even remarked that all that could be discovered was discovered and that all that could be invented was invented. However, in my view, science and scientists in this century have embraced a far wider view of the world and the Universe. I would say that we are now entering an era where phenomenological subjects such as Biology, Astronomy, Geology will make major gains. Using astronomy and biology as an example I will explain my thesis. Phenomenological sciences attempt to understand the diversity of the phenomena, first and foremost. Through detailed measurements scientists have inferred how the solar system formed, when it formed and have an excellent understanding for the overall architecture of the solar system. Using diverse observational tools astronomers now can say with confidence that almost all stars have planetary systems and that a third of them host planets similar to Earth. However -- and this is where astronomy diverges from physics -- there is no single standard model for planet formation. Instead we have a meta theory for planet formation of which the theory for the solar system is but one (and best understood). It should not surprise you that one of the reasons why we have a meta theory is that accidents (such as the presence or absence of a companion, the accidental flyby of another star) play a HUGE role in the outcome. Astronomy, Biology and Geology (amongst other such subjects) are now coming to maturity thanks to technology. Thanks to Moore's law astronomers can easily build giga-pixel cameras, spectrographs with thousands of channels. Thanks to brilliant inventions by physicists and engineers, new detectors allow astronomers to study the heavens across the entire electromagnetic spectrum. These have led to revolutionary understanding including the fact that what we are made of -- ordinary matter -- is a minor constituent and that of a mysterious component -- dark energy -- of which we absolutely no idea of what it could be. I would like to congratulate the leadership of Radboud University in their strong support of astronomical research at Radboud. In less than a decade the astronomy program has reached a stature that is recognized around the world. Indeed, last year, when I was giving a colloquium at Amsterdam, I warned my colleagues that their Westward focus on Cambridge, Oxford was misplaced that the new leader and competitor is coming the South East and not too far away. One of the most exciting areas of modern astronomy is Gravitational Wave astronomy. It is entirely possible that physicists and astronomers working in US and Europe will detect gravitational waves from astronomical sources over the next few years and almost certainly within decade. In my mind this entire enterprise is the grand scientific prize of the decade. The astronomy program at Radboud University led by Prof. Paul Groot and by me at Caltech have initiated a major collaboration centered around this field. We at Caltech are looking forward to working with astronomers at Radboud to fully realize the potential of this field by identifying the electromagnetic counterparts to Gravitational wave sources. We are collaborating in developing methodologies, instruments. But ultimately, the key is people. To this end I see a vibrant exchange of young men and women students and post-doctoral fellows between the two astronomy programs. These young people will benefit with the best practices and resources of Radboud and Caltech. Indeed, our astronomy program has just hired two Radboud PhDs this year, one working in binary stars and the other in high energy astrophysics. Now let me end with a thought. I offer this thought in the best spirit -- free thought with no intentional prejudice or bias. The caveat is important because over the past few years the discussion in the academic community in the US has become very idealogical and political. The sense of fair play and innocent until proven guilty has, in some circles, disappeared. Before I offer my speculation I should let you know that more than half the stars in the sky are not single like our sun. They are binary (as in Tattoine in Star Wars) or triples and so on. Now my speculation is centered around the question of connection between religion and geography. After all, we take it for granted that climate and weather shapes our culture. In the same spirit I wonder if we had two Suns in the sky whether our religious ideas would have been very different.