The Española Basin is one of the northernmost basins of the Rio Grande Rift in New Mexico, and has been subject to extensive investigations in the past several decades (e.g., Kelley, 1978; Manley, 1979; Cordell, 1979; Golombek, 1983; Biehler et al., 1991; Johnson et al., 2008; Grauch et al., 2009). Although the Española Basin has the general form of a west-dipping half-graben, it exhibits a high level of structural complexity, consisting of a series of narrow, deep axial troughs in an otherwise shallow basin (Ferguson et al., 1995). The basin is ~50 miles long and 18 to 40 miles wide, and is linked to the east-dipping Santo Domingo Basin to the south at the La Bajada constriction. The basin is connected to the north with the east-dipping San Luis basin at the Embudo constriction. The Santa Fe Embayment occupies the southeast corner of the basin.
The Roswell Artesian Basin is located in the lower Pecos Valley of southeastern New Mexico, on the northern fringe of the Chihuahua Desert. Summers are long and hot and precipitation is sparse, averaging less than 15 inches/year. However, the Roswell Basin is also one of the most intensively farmed areas in the state, the principal crops being alfalfa, cotton, sorghum, chiles and pecans. The Basin derives virtually all of its irrigation water from groundwater stored in a shallow alluvial aquifer and an artesian aquifer formed principally in the San Andres limestone. The Roswell Artesian Basin has been described as a world-class example of a rechargeable artesian aquifer system.
It is surprising that New Mexico does not have a detailed map of all of the productive and accessible aquifers across the state. In a state with as little as 0.24% of our land surface covered with water (the least in the country!), having detailed maps of our groundwater resources and aquifers, is essential. Some of our neighboring states, like Texas and Colorado, have these maps already available, and are successfully being used to administer and conserve water. We have started a new multi-year project to develop 3D maps of aquifers.
The Mimbres Basin is a structurally complex region in southwestern New Mexico, extending over an area of more than 5,000 square miles in parts of Grant, Luna, Doña Ana and Sierra Counties, and straddling the border with the Mexican Republic. The region has been subject to extensive geologic, geophysical, and hydrologic investigations over a period of almost a century, including Darton (1916), White (1931), Trauger (1972), Hanson et al. (1994), Hawley et al. (2000), and Kennedy et al. (2000). The Mimbres Basin is located at the intersection of the Basin and Range, southern Rio Grande Rift, and southern Transition Zone tectonic provinces (Mack, 2004). Dominant structural features in the region are northwest trending faults and folds associated with the Laramide orogeny, Tertiary magmatism and Quaternary tectonism (Finch et al., 2008). The greater Mimbres Basin is made up of an interconnected group of hydrologic sub-basins separated by fault-bounded uplifts, bounded to the east by the Goodsight Mountains, Sierra de las Uvas, and basalt flows and cinder cones of the West Potrillo Mountains. The Continental Divide defines the northern and western boundaries of the Mimbres Basin. The only major surface drainage in the basin is the Mimbres River (Hawley et al., 2000; Connell et al., 2005; Finch et al., 2008).
In 2022, the NM Bureau of Geology and Mineral Resources completed a multiyear study with faculty and students at New Mexico Tech, as well as researchers at the U.S. Geological Survey, on a hydrogeologic assessment of the Salt Basin region. This research project evaluated the water availability of the region by 1) filling data gaps, where there is currently little or no information about the groundwater system; 2) estimating the overall balance of water in the region including groundwater recharge, storage, evaporation and pumping; 3) updating the current hydrologic model and hydrogeologic framework; and 4) running simulations in the revised model. These efforts will help assess the ability of the region to sustain current groundwater withdrawals in the Salt Basin with implications for future development in New Mexico.
This study focused on the shallow aquifer that occurs in the dune field with depth-to-water ranging from 1 to 3 feet below interdunal surfaces. We used hydrologic and geochemical data to identify water sources that contribute to the shallow groundwater system in the dune field and to assess how this system responds to water level fluctuations in the adjacent regional basin-fill aquifer. Hydrologic modeling was used to assess the effects of projected additional groundwater pumping in Alamogordo on the shallow dune aquifer on the Monument.
Between 1598 and the 1880s, El Camino Real de Tierra Adentro (El Camino Real) served as a 1,600 mile long trade route between Mexico City and San Juan Pueblo/Ohkay Owingeh, New Mexico (north of Santa Fe). El Camino Real transects the Jornada del Muerto, located in southern New Mexico (see below figure). This stretch of the trail is thought to have been one of the most feared sections along El Camino Real due, primarily, to the scarcity of water.
The study area is located primarily in the central portion of the Jornada del Muerto Basin, extending from just North of Engle to just south of Point of Rocks and spanning the entire basin from the Caballo Mountains in the west to the San Andres Mountains to the east.
We characterized the local geology and hydrogeology of the central Jornada del Muerto with a purpose of identifying features that likely influenced the location of El Camino Real de Tierro Adentro. This study aimed to assess the relationship between the location of the trail and parajes (campsites) and water sources that would be available to travelers on the trail. The study was funded by the New Mexico Spaceport Authority (NMSA) and is the fulfillment of one of the measures specified in a mitigation plan that identifies a series of measures specifically intended to mitigate adverse effects to El Camino Real.
This report describes the geology and hydrogeology of the southwestern Arroyo Seco quadrangle in Taos County, New Mexico. This area is approximately eight miles north of the Town of Taos and is undergoing extensive residential development. The New Mexico Office of the State Engineer (NMOSE) Hydrology Bureau has identified a need for more detailed hydrogeologic information to improve the NMOSE groundwater simulation model. To this end, I compiled existing geologic, hydrologic, and geophysical data, performed new geologic mapping, and measured water levels in 43 domestic wells. The synthesis of these data leads to an improved understanding of the distribution and flow patterns of groundwater in the area and the relation of groundwater to surface water, in addition to clarifying the geologic controls on the groundwater system.
The Albuquerque Basin is one of the largest (8,000 km2, 3,060 mi2) and deepest basins (4,407-6,592 m, 14,500-21,600 ft) of the Rio Grande rift. This basin contains the largest metropolitan area in New Mexico. Until 2008, this region relied entirely on groundwater for its water supply. This sole reliance on groundwater resulted from an earlier view that Albuquerque lay on top of the subterranean equivalent of a vast underground lake that would take centuries to exploit. Since the 1960s, the City of Albuquerque had little reason to be concerned about its water supply because wells drilled in the northeast and southeast heights yielded large quantities of potable groundwater. The view of plentiful groundwater was essentially unchallenged until the late 1980s, when water level declines near Coronado Center provoked exploration of the deeper aquifer. Results of the deep aquifer test wells led to reassessment of the regional aquifer and the Middle Rio Grande Basin Project of the late 1990s.
