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ANS, UCOR sign MOU for workforce development program
The American Nuclear Society and United Cleanup Oak Ridge have signed a memorandum of understanding that establishes a framework for collaboration to advance ANS workforce training and certification programs serving the nuclear industry.
According to the document, UCOR will provide “operational insights and subject matter expertise to inform ANS’s professional development and credentialing offerings, including the Certified Nuclear Professional [CNP] program.” The collaboration will strengthen UCOR’s workforce development efforts while advancing ANS’s mission to sustain and expand the national nuclear workforce pipeline and capabilities.
Dean V. Power
Nuclear Technology | Volume 16 | Number 2 | November 1972 | Pages 437-443
Technical Paper | Nuclear Explosive | doi.org/10.13182/NT72-A31209
Articles are hosted by Taylor and Francis Online.
The problem of predicting the seismic signals generated by the simultaneous detonation of a multiple array of underground explosions is considered. A method is proposed whereby the multiple explosion signal or signal parameters may be synthesized from the single explosion signal or signal parameters. This method utilizes the superposition principle of elastic theory and the wave properties of seismic signals to construct a “coherency transfer function” essential to the synthesizing process. Both intuition and experience indicate that signals from multiple explosives can interfere either constructively or destructively. This analytical method is shown to be a good mathematical model by accurately predicting amplitudes for both cases. The method is applied to the results of several single and row charge cratering events and the calculations are compared to measured results. It is shown that when applied to peak amplitudes of velocity, this prediction method gives good agreement with experimental results for both simultaneous and sequential detonations with relatively short time delays. The results indicate that the simultaneous detonation of five close-spaced explosives in the 100-kt yield range detonated in an isotropic medium can result in larger amplitudes of motion than the detonation of a single explosive of equivalent total yield.