Eric Mann Heatwole
Los Alamos National Laboratory
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Publication
Featured researches published by Eric Mann Heatwole.
Bulletin of the American Physical Society | 2018
Matthew D. Holmes; Gary R. Parker; Peter Dickson; Eric Mann Heatwole; Bob Broilo
Accident scenarios involving explosives workers handling cased charges can result in low-velocity impact insults. A series of experiments was performed with 1mm thick metal plates encasing 25.4mm x...
Archive | 2016
Eric Mann Heatwole; Jake A. Gunderson; Gary R. Parker
In order to handle and process the existing Los Alamos National Laboratory (LANL) Nitrate Salt drums it is necessary to quantify the risk. One of the most obvious dangers is a repeat of the original violent reaction (2015), which would endanger nearby workers, not only with radioactive contamination, but also with large amounts of heat, dangerous corrosive gases and the physical dangers associated with a bursting drum. If there still existed a high probability of violent reaction, then these drums should only be accessed remotely. The objective of the work reported herein is to determine the likelihood of a similar violent event occurring.
Reliability Engineering & System Safety | 2015
Eric Mann Heatwole; Gary R. Parker; Matt Holmes; Peter Dickson
Abstract Frictional heating of high-melting-point grit particles during oblique impacts of consolidated explosives is considered to be the major source of ignition in accidents involving dropped explosives. It has been shown in other work that the lower temperature melting point of two frictionally interacting surfaces will cap the maximum temperature reached, which provides a simple way to mitigate the danger in facilities by implementing surfaces with melting points below the ignition temperature of the explosive. However, a recent series of skid testing experiments has shown that ignition can occur on low-melting-point surfaces with a high concentration of grit particles, most likely due to a grit–grit collision mechanism. For risk-based safety engineering purposes, the authors present a method to estimate the probability of grit contact and/or grit–grit collision during an oblique impact. These expressions are applied to potentially high-consequence oblique impact scenarios in order to give the probability of striking one or more grit particles (for high-melting-point surfaces), or the probability of one or more grit–grit collisions occurring (for low-melting-point surfaces). The probability is dependent on a variety of factors, many of which can be controlled for mitigation to achieve acceptable risk levels for safe explosives handling operations.
Archive | 2013
Gary R. Parker; Eric Mann Heatwole; Matthew D. Holmes; Jake A. Gunderson; Alan M. Novak; Peter Dickson
Archive | 2013
Eric Mann Heatwole; Gary R. Parker; Peter Dickson; Matthew D. Holmes; Jake A. Gunderson
Archive | 2018
Matthew D. Holmes; Gary R. Parker; Robert M. Broilo; Eric Mann Heatwole; Trevor Alexander Feagin; Ian Daniel Lopez-Pulliam; Larry Dean Vaughan; Michael Andrew Englert Erickson; Peter A. Schulze
Archive | 2018
Matthew D. Holmes; Gary R. Parker; Eric Mann Heatwole; Trevor Alexander Feagin; Robert M. Broilo; Peter Dickson; Larry Dean Vaughan; Michael Andrew Englert Erickson
Archive | 2018
Eric Mann Heatwole; Robert M. Broilo; Trevin Joseph Kistle; Gary R. Parker
Bulletin of the American Physical Society | 2017
Gary Parker; Neil Bourne; David S. Eastwood; Simon Jacques; Peter Dickson; Ian Daniel Lopez-Pulliam; Eric Mann Heatwole; Matt Holmes; Laura Smilowitz; Christoph Rau
Archive | 2013
Gary R. Parker; Matthew D. Holmes; Eric Mann Heatwole; Philip Rae; Peter Dickson