Abstract: A process of producing a high energy chemical oxygen-iodine laser, including the steps of obtaining a quantity of oxygen in the singlet delta energy state [O2(a1&Dgr;)], combining the O2(a1&Dgr;) with a quantity of non-reactive carrier gas, combining the singlet delta oxygen and carrier gas with a non-reactive iodine donor gas and homogenizing the entire mixture, creating and maintaining an electrical discharge plasma downstream from a nozzle, passing the homogenized mixture through the nozzle and the discharge plasma at supersonic speeds to dissociate the iodine into free iodine atoms and directing the flow of gasses and free iodine atoms into the optical cavity laser action region of a laser.

Abstract: An apparatus for achieving remote guarding of an area with adjustable effect on unauthorized entrants, comprising an operator station including a signal receiver with television display, radiant energy selection control, and energy level controller, a first sensor means placed about the area for detecting the presence and movements of entrants to the area, the visual effects of later radiation directed toward them, and generating signals in response thereto, a source of radiant energy including at least one transmitter of the energy for broadcasting the energy into the area, upon selection of the type of radiant energy from the selection control, and of a level controlled by the energy level controller, the radiant energy of a nature and intensity capable of varying in strength and duration as to cause different observable effects on intruders present in the area who do not leave the area upon command, second sensor means placed about the area for detecting the onset of and intensity of the radiant energy bro

Abstract: A method of enhancing the remediation of contaminated soils and ground water, production of oil and gas, and production of any solid, gas, and/or liquid from subsurface geologic and man-made formations including the steps of estimating the geometric boundaries of the region containing the material to be recovered, drilling a recovery well(s) into subsurface in a strategic location to recover the material of interest, establishing multiple sources of acoustical power in an array about and spaced-apart from the surface or at various depths below the surface in a borehole(s) and/or well(s), directing a volume of acoustical excitation from the sources into the region containing the material to be recovered, the excitation in the form of either controllable sinusoidal, square, pulsed, or various combinations of these three waveforms, and controlling the phasing, frequency, power, duration, and direction of these waveforms from the sources to increase and control the intensity of acoustical excitation in the region