Trackers STEM Kit

Introduction

The Trackers STEM Kit is a LENR experimental protocol developed by Dr. Pamela Mosier-Boss, previously with the US Navy's Space & Naval Warfare Systems Center (SPAWAR) and her colleague, Dr. Lawrence Forsley. The Trackers protocol is a streamlined version of the Szpak protocol, developed by SPAWAR scientists over decades of study.

The Trackers protocol was developed for undergraduate chemistry students as a way to offer hands on experience studying low energy nuclear reactions in a safe, cost and time efficient manner.

The protocol uses electrochemistry to co-deposit palladium and deuterium onto a cathode at D/Pd atomic ratios of >1. Solid state nuclear track detectors are used to monitor the experiment for anomalous radiation.

SPAWAR's Szpak co-deposition protocol has been replicated by a number of groups, including researchers at NASA, the Naval Surface Warfare Center, Naval Air Warfare Center, SRI International, Texas A&M, KRICT, and MIT.

To date, several groups of undergraduate students have used the Trackers protocol to successfully replicate elements of the work done by these scientific groups.

The Trackers STEM Kit is a fantastic way for undergraduate students and their teachers to get hands on experience with a peer reviewed and replicated experimental protocol that offers the chance to explore cutting edge scientific phenomena in classroom environments.

History

Shortly after the announcement of cold fusion in 1989 by Drs. Martin Fleischmann and Stanley Pons at the University of Utah, Dr. Stanislaw Szpak and his colleagues at SPAWAR began experiments to replicate the phenomenon. At the time, Szpak and his coworkers were working on the development of batteries for torpedo propulsion. Szpak knew of the Fleischmann and Pons experiments prior to their announcement, and was aware of the long incubation times required before experiments would show results.

Szpak and coworkers developed the co-deposition protocol in an effort to cut down the time required to complete experimental cycles. Unlike Fleischmann and Pons, who electrolysed D2O at a bulk palladium cathode, Szpak and coworkers reasoned that they could get to the high levels of deuterium loading required for success more quickly using co-deposition.

Beginning in 1991 with a preliminary note, the SPAWAR group reported observations of anomalous heat, tritium, x-rays, transmutation, charged particles and neutrons emanating from their experiments. They published their work in peer reviewed journals and presented their work at venues including the American Physical Society and the American Chemical Society. The group's work has been featured in New Scientist, the Economist and other print, television and digital media.

Trackers STEM Kit

Mosier-Boss, Pamela and Forsley, Lawrence, “Energetic Particle Emission in Pd/D Co-deposition: An Undergraduate Research Project to Replicate a New Scientific Phenomenon” Journal of Laboratory Chemical Education, Vol. 6 No. 4, 2018

Mosier-Boss, Pamela and Forsley, Lawrence, “Energetic Particle Emission in Pd/D Co-deposition (Supplementary Information)” Journal of Laboratory Chemical Education, Vol. 6 No. 4, 2018

Szpak Co-deposition Protocol

SPAWAR, “Twenty Year History in LENR Research Using Pd/D Co-Deposition” (Video), University of Missouri Vice Chancellor for Research Seminar Series, 2009 (Download slides here)

Mosier-Boss, Pamela and Forsley, Lawrence, "Nuclear Reactions in Condensed Matter", GEC Technical Report, Feb. 2019

Mosier-Boss, Pamela et al., “Investigation of Nano Nuclear Reactions in Condensed Matter, Final Report” Defence Threat Reduction Agency, 2016

Mosier-Boss, Pamela and Forsley, Lawrence, "Interpreting CR-39 Detectors used in Pd/D Co-deposition: Nuclear Generated Tracks or Artifacts?", JCMNS Vol. 34, 2021

Mosier-Boss, Pamela et al., “Uranium Fission Using Pd/D Co-deposition” JCMNS Vol. 29, 2019

Szpak Protocol Replications

Smith, Phillip J. et al., "Electrolytic co-deposition neutron production measured by bubble detectors" Journal of Electroanalytical Chemistry, Vol. 882, 2021

Smith, Phillip J. et al., "Electrolytic Co-deposition Neutron Production Evaluation" TM-20210010199, NASA Technical Reports Server, Jul. 2021 (Supplementary to the above paper).

Gotzmer, Carl et al., “Li–Pd–Rh-D2O electrochemistry experiments at elevated voltage”, APL Energy 1, 036107, Dec. 2023

Hodko, Dalibor and Bockris, John O’M, “Possible excess tritium production on Pd codeposited with deuterium” Journal of Electroanalytical Chemistry, Vol. 353, Issues 1-2, 1993

Letts, Dennis and Hagelstein, Peter, “Modified Szpak Protocol for Excess Heat”, JCMNS Vol. 6, 2012

Lee, Kew-Ho et al., “A Change of Tritium Content in D2O Solutions during Pd/D Co-deposition” JCMNS Vol. 14 Issue 1, 2014

Press

Daviss, Bennett, “Reasonable Doubt” New Scientist No. 2388, 29 March, 2003

Daviss, Bennett, “Cold Fusion Rides Again” New Scientist No. 2602, May 5-11, 2007

“The Beast That Will Not Die” The Economist, March 28, 2009

Selected Slides from SPAWAR’s U. of M. VCR Seminar Series Presentation