Born in the UK, and following degrees at the Univerities of Bristol and Sussex, Martin Elvis got his PhD under Prof. Ken Pounds at the University of Leicester (UK) in 1978 for work with the Ariel V satellite. Ariel V was only the 2nd satellite to be devoted to X-ray astronomy. While doing his PhD he discovered the brightest X-ray source ever seen in the sky, apart from the sun. (That sounds easy, but it was a `transient' source, A0620-00, and was really faint at the time. A0620-00 turns out to be the nearest black hole known to date. ) His PhD thesis demonstrated that powerful X-ray emission was a normal feature of Active Galactic Nuclei (or "AGN"). AGN X-ray emission has been a lively area of research ever since. He moved to the USA full time in 1980 to work on the first true X-ray telescope, the "Einstein Observatory", at the Smithsonian Astrophysical Observatory in Cambridge, Massachusetts, under Riccardo Giacconi. He worked on many aspects of the Einstein mission, and used the imaging power of Einstein to derive the first X-ray spectra of quasars, the more powerful cousins of AGN, and to discover extended X-ray nebulae around nearby AGN, and a peculiar class of galaxy that shows activity only in X-rays (now called 'XBONGS'). With Andrew Lawrence he proposed in 1982 that much of the confusion in the classification of the AGN "zoo" was due to a flattened obscuring region of dust and gas (Lawrence and Elvis 1982). This was confirmed and extended by the spectacular polarization study of Antonucci and Miller just 3 years later, which is now the basis of the "Unified Scheme" for AGN. This work is still active, because the obscuring torus does not seem like a natural structure. In a recent paper (with A. Lawrence) he suggests that tilted accretion disks could replace the standard 'donut' model of obscuration. With the demise of the Einstein Observatory in 1981 he pursued AGN at all other wavelengths using a wide variety of telescope (IUE, IRAS, IRTF, MMT, VLA, UKIRT, JCMT) leading, among other works, to the 1994 "Atlas of Quasar Energy Distributions", which has served as a standard since and has been cited almost 1000 times. With the revival of imaging X-ray astronomy on the 1990 launch of ROSAT and then ASCA, he pushed studies of AGN and quasars to high redshifts and extreme properties. Applying the multi-wavelength approach to ROSAT spectra and ultraviolet spectra he, with his colleagues, discovered a hot wind from a number of AGN, peaking in 1995 with a UV/X-ray study of the "Seyfert galaxy" NGC 5548. In 1991 he began to work at the Chandra X-ray Center (CXC), concentrating on the scientific software needs of this revolutionary new observatory (then called AXAF). After 1995 this work prevented him pursuing his normal program of observations, and left him to contemplate AGN winds over and over again. The result was a model for the structure of quasars that unites into a simple picture much of the 10,000 papers worth of confusing knowledge about the emission and absorption features in their spectra. This model has survived a number of tests over the past few years, so there may actually be something to it. It has been cited 1000 times. This model of the "Quasar Atmosphere" remains a major focus of his research. In 2007 he stepped down from his management position at the CXC, in order to promote new missions that can greatly exceed Chandra in their potential for revolutionary discoveries, and to work more with students, one of whom is trying to make his 1994 "Atlas" obsolete. Unable to not chase a good idea, he has also worked on the Warm-Hot Intergalactic Medium, the physics of feedback by AGNs to their host galaxies, and led the Chandra COSMOS wide/deep survey project. The change of direction for the human space program at NASA - from the Moon to asteroids as the first step towards Mars - seemed to him to offer a strategic potential for cheaper, larger space observatories. He has begun to work on near-Earth asteroids (NEOs) - their detection and their properties - with a view to helping NASA's exploration forward. Eventually, he is convinced, the commercial potential of the asteroids will transform our space endeavors to a truly large-scale, and will, in the process, make access to space cheap and routine. Dr. Elvis has published over 300 papers in refereed journals and, with over 15,000 citations, is one of the 250 most Highly Cited Researchers in astronomy and space physics, as determined by ISI.