Photograph of the Baker Hotel in Mineral Wells, built 1929 by architects Wyatt C. Hendrick and Co. Architects. It has been vacant since 1972.

Photograph of the Baker Hotel in Mineral Wells, built 1929 by architects Wyatt C. Hendrick and Co. Architects. It has been vacant since 1972. The building is at least twelve stories tall.

Photograph of the front of the Baker Hotel in Mineral Wells, built 1929 by architects Wyatt C. Hendrick and Co. Architects. It has been vacant since 1972. It is at least twelve stories tall.

Photograph of the colonnade near the front entrance of the Baker Hotel in Mineral Wells, Texas. It was built in 1929 by architects Wyatt C. Hendrick and Co. Architects. It has been vacant since 1972. The floor is made of red brick, and the walls of slightly lighter brick.

Photograph of the colonnade at the Baker Hotel in Mineral Wells. It was built in 1929 by architects Wyatt C. Hendrick and Co. Architects. It has been vacant since 1972.

Photograph of the doorway to the Baker Hotel in Mineral Wells, Texas. There are double doors in white with glass windows. The door on the left has a sign warning against trespassing. The hotel was built in 1929 by architects Wyatt C. Hendrick and Co. Architects. It has been vacant since 1972.

Photograph of a flier for the official website for the Baker Hotel, in Mineral Wells, Texas. It has been pasted into a window.

Photograph of the top floor, called the "Cloud Room", at the Baker Hotel in Mineral Wells, Texas. There is a balcony around the wall. Several of the windows have been punched out. The hotel was built in 1929 by architects Wyatt C. Hendrick and Co. Architects. It has been vacant since 1972.

Mineral carbonation is a promising concept for permanent CO{sub 2} sequestration due to the vast natural abundance of the raw materials and the permanent storage of CO{sub 2} in solid form as carbonates. The sequestration of CO{sub 2} through the employment of magnesium silicates--olivine and serpentine--is beyond the proof of concept stage. For the work done in this project, serpentine was chosen as the feedstock mineral due to its abundance and availability. Although the reactivity of olivine is greater than that of serpentine, physical and chemical treatments have been shown to increase greatly the reactivity of serpentine. The primary drawback to mineral carbonation is reaction kinetics. To accelerate the carbonation, aqueous processes are preferred, where the minerals are first dissolved in solution. In aqueous carbonation, the key step is the dissolution rate of the mineral, where the mineral dissolution reaction is likely to be surface-controlled. The relatively low reactivity of serpentine has warranted research into physical and chemical treatments that have been shown to greatly increase its reactivity. The use of sulfuric acid as an accelerating medium for the removal of magnesium from serpentine has been investigated. To accelerate the dissolution process, the mineral can be ground to very fine …

Palo Pinto County Courthouse, built 1940, architects Preston M. Geren and M. A. Howell.

Photograph of a historic marker for John Richard Winters (January 23, 1908 - August 11, 1997) in Palo Pinto, Texas. Text: Tax-Assessor-Collector for Palo Pinto County from January 1, 1947 to March 31, 1987. Longest tenured Tax Assessor in the State of Texas at the time of his retirement. Active participant in civic affairs and community projects throughout the county: Sea Scout Troop Leader; President of the Mineral Wells Junior Chamber of Commerce; Charter member, Captain and Secretary of Palo Pinto County's Sheriff's Posse; Secretary of Palo Pinto County Livestock Association and its FFA-4H Club Junior Livestock Show; Palo Pinto Masonic Lodge; Mineral Wells Masonic Lodge; Old Settlers Reunion. President of Tax Assessor-Collectors Association of Texas in 1862. Retired from U. S. Army as Chief Warrant Officer after 21 years of service in Europe in World War II and active reserves. Instrumental in County Contribution to state-wide screw worm eradication program; re-introduction of wild turkeys into Palo Pinto County; publication of Palo Pinto County History Books; Centennial Celebration; Erection of Historical Markers in Palo Pinto County. Remembered for his untiring efforts to promote Palo Pinto County and Improve the quality of life for all its residents throughout his 89 year …

This Phase IV Remedial Design/Remedial Action Work Plan addresses the remediation of areas with the potential for UXO at the Idaho National Laboratory. These areas include portions of the Naval Proving Ground, the Arco High-Altitude Bombing Range, and the Twin Buttes Bombing Range. Five areas within the Naval Proving Ground that are known to contain UXO include the Naval Ordnance Disposal Area, the Mass Detonation Area, the Experimental Field Station, The Rail Car Explosion Area, and the Land Mine Fuze Burn Area. The Phase IV remedial action will be concentrated in these five areas. For other areas, such as the Arco High-Altitude Bombing Range and the Twin Buttes Bombing Range, ordnance has largely consisted of sand-filled practice bombs that do not pose an explosion risk. Ordnance encountered in these areas will be addressed under the Phase I Operations and Maintenance Plan that allows for the recovery and disposal of ordnance that poses an imminent risk to human health or the environment.

Weekly newspaper from Rusk, Texas that includes local, state and national news along with extensive advertising.

Weekly newspaper from Sachse, Texas that includes local, state and national news along with advertising.

Weekly newspaper from Coppell, Texas that includes local, state, and national news along with advertising.

Weekly newspaper from Dublin, Texas that includes local, state, and national news along with advertising.

Weekly newspaper from De Leon, Texas that includes local, state, and national news along with advertising.

Semi-weekly newspaper from Livingston, Texas that includes local, state and national news along with advertising.

Weekly newspaper from Clifton, Texas that includes local, state, and national news along with advertising.

Careful site characterization is critical for successfulgeologic sequestration of CO2, especially for sequestration inbrine-bearing formations that have not been previously used for otherpurposes. Traditional site characterization techniques such asgeophysical imaging, well logging, core analyses, interference welltesting, and tracer testing are all valuable. However, the injection andmonitoring of CO2 itself provides a wealth of additional information.Rather than considering a rigid chronology in which CO2 sequestrationoccurs only after site characterization is complete, we recommend thatCO2 injection and monitoring be an integral part of thesite-characterization process. The advantages of this approach arenumerous. The obvious benefit of CO2 injection is to provide informationon multi-phase flow properties, which cannot be obtained from traditionalsitecharacterization techniques that examine single-phase conditions.Additionally, the low density and viscosity of CO2 compared to brinecauses the two components to flow through the subsurface differently,potentially revealing distinct features of the geology. Finally, tounderstand sequestered CO2 behavior in the subsurface, there is nosubstitute for studying the movement of CO2 directly. Making CO2injection part of site characterization has practical benefits as well.The infrastructure for surface handling of CO2 (compression, heating,local storage) can be developed, the CO2 injection process can bedebugged, and monitoring techniques can be field-tested. Prior to actualsequestration, small amounts of CO2 may be …

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Carbon sequestration is the long term isolation of carbon dioxide from the atmosphere through physical, chemical, biological, or engineered processes. The largest potential reservoirs for storing carbon are the deep oceans and geological reservoirs in the earth's upper crust. This chapter focuses on geological sequestration because it appears to be the most promising large-scale approach for the 2050 timeframe. It does not discuss ocean or terrestrial sequestration. In order to achieve substantial GHG reductions, geological storage needs to be deployed at a large scale. For example, 1 Gt C/yr (3.6 Gt CO{sub 2}/yr) abatement, requires carbon capture and storage (CCS) from 600 large pulverized coal plants ({approx}1000 MW each) or 3600 injection projects at the scale of Statoil's Sleipner project. At present, global carbon emissions from coal approximate 2.5 Gt C. However, given reasonable economic and demand growth projections in a business-as-usual context, global coal emissions could account for 9 Gt C. These volumes highlight the need to develop rapidly an understanding of typical crustal response to such large projects, and the magnitude of the effort prompts certain concerns regarding implementation, efficiency, and risk of the enterprise. The key questions of subsurface engineering and surface safety associated with carbon sequestration …

Weekly newspaper from Comanche, Texas that includes local, state, and national news along with advertising.

Large amounts of CO2 would need to be injected underground to achieve a significant reduction of atmospheric emissions. The large areal extent expected for CO2 plumes makes it likely that caprock imperfections will be encountered, such as fault zones or fractures, which may allow some CO2 to escape from the primary storage reservoir. Leakage of CO2 could also occur along wellbores. Concerns with escape of CO2 from a primary geologic storage reservoir include (1) acidification of groundwater resources, (2) asphyxiation hazard when leaking CO2 is discharged at the land surface, (3) increase in atmospheric concentrations of CO2, and (4) damage from a high-energy, eruptive discharge (if such discharge is physically possible). In order to gain public acceptance for geologic storage as a viable technology for reducing atmospheric emissions of CO2, it is necessary to address these issues and demonstrate that CO2 can be injected and stored safely in geologic formations.