Weekly student newspaper from Hardin-Simmons University in Abilene, Texas that includes local, state and campus news along with advertising.

Report documenting radioactive fallout across the world, including both material in the atmosphere and that has deposited into food supplies.

Report documenting radioactive fallout across the world, including both material in the atmosphere and that has deposited into food supplies. This appendix includes tables of monthly fallout deposition collections from 116 sites across the Earth and a list of radionuclides and their half-lives.

Weekly student newspaper from Texas Wesleyan University in Fort Worth, Texas that includes campus and local news along with advertising.

Daily student newspaper from the North Texas State University in Denton, Texas that includes local, state, and campus news along with advertising. Formerly The Campus Chat.

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

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Program GEOTHM is a thermodynamic process program now under development for the LBL Geothermal Energy Program. To date, the program development has centered upon the modeling of working fluid properties, developing thermodynamic process models, and modeling the design performance of geothermal power plants. When the program is completed, it will be able to optimize a power plant or refrigeration plant for minimum cost power or refrigeration. Furthermore, operation of the thermodynamic cycles at off design conditions will be able to be simulated. Program GEOTHM is currently able to calculate several types of geothermal power cycles using a wide variety of working fluids.

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We propose to design, build and use a tertiary K{sub L}{sup 0} beam produced using the high intensity pion beam being built in the proton area. The main advantage of this beam over previous beam is the low neutron background (K{sub L}/n > 3). We propose to study the large transverse momentum dependence of the particles produced in the strong interactions of a K{sub L}{sup 0} beam, and also the production of leptons, and lepton pairs.

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Two years ago the first neutrino interaction had yet to be observed at Fermilab. It was not known at that time whether the cross section would continue to rise above 10 GeV (in fact there were indications from cosmic ray experiments to the contrary), or even whether a W-boson might exist with a mass of say 2.5 GeV/c{sup 2}. Put in this perspective the progress in neutrino physics has been truly outstanding. Let us just review briefly the primary results so far reported by the Caltech-Fermilab group. The physics can be divided into two parts: (A) the study of the structure of hadrons (deep inelastic scattering) and (B) the study of the weak interaction at high energies.

We propose a small exposure (25K pictures) of the hydrogen-filled FNAL 15-foot bubble chamber to a 250 GeV proton beam. Our main physics objectives are: (1) To study the dependence of neutral particle production ({pi}{sup 0}, K{sup 0}, {Lambda}) on the charged multiplicity in diffractive and non-diffractive processes. (2) To measure integrated correlations (f{sub 2}{sup {+-}0} and f{sub 2}{sup 00}) for neutral pions in a ''clean'' experiment. To make these measurements reliably requires neutral particle detection in both CM hemispheres and the CM symmetry of the pp system. For example, we will determine f{sub 2}{sup 00} to {+-} 0.2. The event analysis of the neutral secondaries together with the measurement of the slow laboratory protons in pp {yields} p{sub slow} + X for the distinction between diffractive and non-diffractive events will be done in 1/2 year. Further objectives are: (3) To measure differential neutral-charged correlations. (4) To measure multiplicities, spectra and correlations (''inclusive program'') inside the mass M{sub X} in pp {yields} p{sub slow} + X{sup -}.

We propose as the initial experiment in the new dichromatic V detector to make a systematic study of deep inelastic cross sections. This experiment will use the present target-detector remounted. A new magnet spectrometer system will be installed giving both better resolution and acceptance. An improved dichromatic beam will also give better information on the incident 13 neutrino energy. We propose 1000 hours of running with > 10{sup 13} ppp for this experiment.