Question: What was the laboratory, in which Albert Attalla worked, named after ? 

full_context: Document 1: Isidor Isaac Rabi: Isidor Isaac Rabi ( ; born Israel Isaac Rabi, 29 July 1898 – 11 January 1988) was an American physicist who won the Nobel Prize in Physics in 1944 for his discovery of nuclear magnetic resonance, which is used in magnetic resonance imaging. He was also one of the first scientists in the United States to work on the cavity magnetron, which is used in microwave radar and microwave ovens.
Document 2: Mound Laboratories: Mound Laboratories in Miamisburg, Ohio was an Atomic Energy Commission (later Department of Energy) facility for nuclear weapon research during the Cold War, named after the nearby Miami Indian burial mound.
Document 3: James Lattimer: James Lattimer is a nuclear astrophysicist who works on the dense nuclear matter equation of state and neutron stars. He is a Distinguished Professor of Physics and Astronomy at Stony Brook University. He is an American Physical Society Fellow (2001),
Document 4: Fernald Feed Materials Production Center: The Fernald Feed Materials Production Center (commonly referred to simply as Fernald or later NLO) is a Superfund site located within Crosby Township in Hamilton County, Ohio, as well as Ross Township in Butler County, Ohio. It was a uranium processing facility located near the rural town of New Baltimore, about 20 miles (32 km) northwest of Cincinnati, which fabricated uranium fuel cores for the U.S. nuclear weapons production complex from 1951 to 1989. During that time, the plant produced 170,000 metric tons uranium (MTU) of metal products and 35,000 MTU of intermediate compounds, such as uranium trioxide and uranium tetrafluoride.
Document 5: Robert Pound: Robert Vivian Pound (May 16, 1919 – April 12, 2010) was an American physicist who helped discover nuclear magnetic resonance (NMR) and who devised the famous Pound–Rebka experiment supporting general relativity. He became a tenured professor of physics at Harvard without ever having received a graduate degree.
Document 6: Anderson Mounds: Anderson Mounds, part of Mounds State Park and, located near Anderson, Indiana, is a burial site that developed out of the Hopewell culture. These earthworks were created as a dedication to the Sun God and Earth Mother, and the mounds were used as gathering places for religious ceremonies as well as viewing astronomical alignments. The Great Mound is the largest of the ten earthworks in the Mounds State Park, and its construction dates back between 250 and 160 B.C. The three floors of the Great Mound were created by a repeated process that included adding a layer of subsoil, burning the ground, then covering the floor in a layer of powdered white calcite, made from bone, shell, and limestone. This gave the floor a clay consistency as well as deep purple color. Each floor had basins and pits of unknown purposes, however near the gateway of the mound platform, a large pit was found containing various artifacts. These artifacts included chipped stone, flakes, burned bone, a fragment of shell, fragments of mica, and burned clay chunks. Built above this pit was a log tomb, called so because the floor of the tomb was laid with logs. When excavated, two human burials were found inside the tomb; a 50-year-old adult male, and the redeposited partial remains of a cremated individual. Also, artifacts such as a limestone platform pipe, flakes, fire-cracked rocks, mica fragments, pottery, burned and unburned bone, and seven deer bone awls were found in the tomb. 100 years after the mound was started, the construction of the Great Mound's platform was started. Although the embankment appears random and irregular, it was actually carefully crafted. The only other aboriginal features on the platform were numerous small post holes encircling the top. These holes most likely held a brush fence erected to hide activities carried out on the platform. After the mound was completed, several more pits were dug, some of them spanning from the surface to the lowest floor. One pit was possibly looted, while two other pits contained human burials. No other artifacts were found in these pits. (Cochran, McCord, 2001), (Vickery 1970).
Document 7: SM-1: SM-1 was a 2-megawatt nuclear reactor developed by the United States Atomic Energy Commission for the US Army Nuclear Power Program (ANPP) in the mid-1950s. The compact "package" reactor was designed to produce electricity and generate heat for remote military facilities. The first, the SM-1, served as the Army's primary training facility to train reactor operations personnel from all three services (Army, Navy and Air Force). In 1954, the Department of Defense placed the US Army in charge of all military nuclear power plants except those used for propulsion by the US Navy. The Army's Chief of Engineers established the US Army Engineer Reactors Group in April 1954, and decided to construct the SM-1 facility at the Corps of Engineers headquarters at Fort Belvoir, Virginia, about 18 miles south of Washington, D.C.. About 800 personnel were trained on the SM-1 during its operational life, from 1957 to 1973. The power plant was shut down in March 1973, and is monitored within a "restricted access" section of the post. Inspectors enter the shut-down operations control room every decade or so, and the building may be demolished "about 50 years" after the reactor core was removed, possibly around 2030.
Document 8: James E. Atwater: James E. Atwater (born 1946) is a retired North American multidisciplinary physical scientist with training in geophysics, chemistry and biological science. He was awarded the Wright Brothers Medal for his work on microwave powered methods for microbial stabilization and water recovery from solid waste. Atwater served in the United States Marine Corps [1963-1967] prior to attending the University of Utah [1968-1975]. In his early career [1977-1980] Atwater concentrated on methods and instrumentation for identification and quantification of radionuclides associated with uranium exploration and recovery by gamma ray and alpha particle energy spectrometry. Subsequently [1980-1987] he applied radiometric geophysical well logging techniques to the characterization of sandstone, limestone, dolomite and shale core samples. At this time he also refined methods for the determination of porosity and permeability of unconsolidated bitumen and heavy oil bearing sands. Later Atwater’s attention turned to problems of long-term human presence in space, working on regenerable systems for water and air purification, and means for decomposition and stabilization of solid waste materials and recovery of useful resources therefrom. During these years Atwater and colleagues also developed novel sensors and analytical instrumentation for monitoring and control of life support systems. In addition to instrumentation and methods, much of this work entailed the development of novel materials and the characterization of material properties, particularly with respect to magnetic and broadband microwave dielectric phenomena. Recent research includes the study of multiphase immiscible fluid flow in porous media, and the recovery of hydrogen from methane (natural gas) using magnetically stabilized fluidized bed and microwave plasma reactors. Though in retirement, Atwater continues his association with former colleagues, providing theoretical analysis of experimental data, and preparation of materials for publication.
Document 9: Albert Attalla: Albert Attalla was a pioneer of Nuclear Magnetic Resonance (NMR). He worked as a scientist for Monsanto Research Corporation, Mound Laboratories, in Miamisburg, Ohio, writing many articles about his research, including "Lithium isotopic analysis by nuclear magnetic resonance spectrometry."
Document 10: Hossein Eslambolchi: Hossein Eslambolchi is an Iranian-American innovator, engineer and author, best known for his prominent role in AT&T, very popular blogs on Linkedin, besides being one of the top 10 most prolific inventors with over 1145+ patents List of Prolific Inventors . He joined AT&T Bell Laboratories in 1985, and rose to become, in 2005, both Chief Technology Officer and Chief Information Officer of the company. He became an Officer of the company in 2003, as well as a member of AT&T's governing Executive Committee and became AT&T Chief Technology Officer, AT&T Chief Information Officer, President and CEO of AT&T Labs and President and CEO of AT&T Global Network Operations. He left AT&T soon after its takeover by SBC in 2006.
Document 11: Weldon Spring Ordnance Works: Weldon Spring Ordnance Works (WSOW) was a 17323 acre U.S. Government-owned, contractor-operated (GOCO) facility in St. Charles County, Missouri, 55 km west of St. Louis. The site was originally operated by the Atlas Powder Company during World War II from 1941 to 1945 to produce explosives. The Atomic Energy Commission acquired part of the property in 1955, and Mallinckrodt, Inc. processed uranium ore from 1957 to 1966 under contract. The site has been divided into several parcels, and ownership has transferred over the years. Two portions of the original WSOW property are now Superfund sites that require substantial cleanup efforts. The environmental remediation of the WSOW site is currently designated as a major project of the Defense Environmental Restoration Program of the United States Department of Defense. Part of the original property is still used by the Army Reserve as the Weldon Spring Training Area.
Document 12: Lockheed Martin Advanced Technology Laboratories: Lockheed Martin Advanced Technology Laboratories (ATL) is a department of Lockheed Martin, located in Cherry Hill, New Jersey, with approximately 220 employees. Other locations include Westlake Village, California, Atlanta, Georgia, and Arlington, Virginia. ATL specializes in advanced research and development and is analogous to the Lockheed Martin Aeronautics division's famous Skunk Works.
Document 13: Ely Mound: Ely Mound is a historic burial mound located near Rose Hill, Lee County, Virginia. It is considered the best-preserved Mississippian culture site in Virginia. The mound dates to the Late Woodland-Mississippian Period (AD 1200-1650), during which more complex societies and practices evolved, including chiefdoms and religious ceremonies. Often, temples, elite residences, and council buildings stood atop substructure or townhouse mounds such as Ely Mound.(Decaying cedar posts remained in the ground in the late 1800s, and were frequently struck by plows). Lucien Carr, assistant curator of the Peabody Museum of Archaeology and Ethnology in Boston, led an excavation here in 1877. At that time, the mound measured 300 feet in circumference, and 19 feet in height. Excavation lasted a little over two weeks, with skeletons, pottery, and arrowheads of white flint being unearthed. Unfortunately, one man was killed within a few feet of the bottom of the mound when the shaft he had been digging in collapsed. Several other men were injured. The mound has remained undisturbed ever since.
Document 14: Miami Fort Power Station: The Miami Fort Generating Station, like another Ohio station (Beckjord Generating Station) is a dual-fuel power generating facility. It is a major coal-fired electrical power station, supplemented with a small oil-fired facility. Miami Fort is located two miles east of Lawrenceburg, Indiana, immediately north-east of the tripoint of Indiana, Ohio, and Kentucky, on the Ohio territory. Miami Fort Station is named for the nearby Miami Fort (not to be confused with Fort Miami in the same state). Miami Fort Generating Station is one of the two coal power plants near Lawrenceburg, Indiana, the other being Tanner's Creek Generating Station.
Document 15: Nuclear magnetic resonance: Nuclear magnetic resonance (NMR) is a physical phenomenon in which nuclei in a magnetic field absorb and re-emit electromagnetic radiation. This energy is at a specific resonance frequency which depends on the strength of the magnetic field and the magnetic properties of the isotope of the atoms; in practical applications, the frequency is similar to VHF and UHF television broadcasts (60–1000 MHz). NMR allows the observation of specific quantum mechanical magnetic properties of the atomic nucleus. Many scientific techniques exploit NMR phenomena to study molecular physics, crystals, and non-crystalline materials through nuclear magnetic resonance spectroscopy. NMR is also routinely used in advanced medical imaging techniques, such as in magnetic resonance imaging (MRI).
ground_truth: Miami Indian burial mound.