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Dive into the research topics where David J. Lindstrom is active.

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Featured researches published by David J. Lindstrom.


Space | 1998

JSC MARS-1: A Martian Soil Simulant

Carlton C. Allen; Karen M. Jager; Richard V. Morris; David J. Lindstrom; Marilyn M. Lindstrom; John P. Lockwood

We have developed a simulant for the oxidized soil of Mars to support scientific research, engineering studies and education. JSC Mars-1 is the <1 mm size fraction of altered volcanic ash from a Hawaiian cinder cone. The simulant closely matches the reflectance spectrum and approximates the mineralogy, chemical composition, grain size, density, porosity and magnetic properties of Martian soil. JSC Mars-1 is currently available to qualified investigators and educators.


Astrobiology | 2009

Planning Considerations for a Mars Sample Receiving Facility: Summary and Interpretation of Three Design Studies

David W. Beaty; Carlton C. Allen; Deborah S. Bass; Karen L. Buxbaum; James K. Campbell; David J. Lindstrom; Sylvia L. Miller; Dimitri A. Papanastassiou

It has been widely understood for many years that an essential component of a Mars Sample Return mission is a Sample Receiving Facility (SRF). The purpose of such a facility would be to take delivery of the flight hardware that lands on Earth, open the spacecraft and extract the sample container and samples, and conduct an agreed-upon test protocol, while ensuring strict containment and contamination control of the samples while in the SRF. Any samples that are found to be non-hazardous (or are rendered non-hazardous by sterilization) would then be transferred to long-term curation. Although the general concept of an SRF is relatively straightforward, there has been considerable discussion about implementation planning. The Mars Exploration Program carried out an analysis of the attributes of an SRF to establish its scope, including minimum size and functionality, budgetary requirements (capital cost, operating costs, cost profile), and development schedule. The approach was to arrange for three independent design studies, each led by an architectural design firm, and compare the results. While there were many design elements in common identified by each study team, there were significant differences in the way human operators were to interact with the systems. In aggregate, the design studies provided insight into the attributes of a future SRF and the complex factors to consider for future programmatic planning.


Journal of Geophysical Research | 1986

Lunar granulites and their precursor anorthositic norites of the early lunar crust

Marilyn M. Lindstrom; David J. Lindstrom


Archive | 1998

Martian Regolith Simulant JSC Mars-1

Carlton C. Allen; Richard V. Morris; Karen M. Jager; D. C. Golden; David J. Lindstrom; Marilyn M. Lindstrom; John P. Lockwood


Archive | 1997

JSC Mars-1 - Martian regolith simulant

Carlton C. Allen; Richard V. Morris; David J. Lindstrom; Marilyn M. Lindstrom; John P. Lockwood


Meteoritics & Planetary Science | 1999

An impact-melt origin for lithology A of martian meteorite Elephant Moraine A79001

David W. Mittlefehldt; David J. Lindstrom; Marilyn M. Lindstrom; R. R. Martinez


Geophysical Research Letters | 1983

Antarctic Meteorite ALHA81005 – Not just another lunar anorthositic norite

Randy L. Korotev; Marilyn M. Lindstrom; David J. Lindstrom; Larry A. Haskin


Archive | 1992

Mineralogy of 12 large 'chondritic' interplanetary dust particles

Michael E. Zolensky; David J. Lindstrom


Memoirs of National Institute of Polar Research. Special issue | 1986

Lunar meteorite Yamato-791197: a polymict anorthositic norite breccia

Marilyn M. Lindstrom; David J. Lindstrom; Randy L. Korotev; Larry A. Haskin


Archive | 1992

Electrolytic smelting of lunar rock for oxygen, iron, and silicon

Larry A. Haskin; Russell O. Colson; David J. Lindstrom; Robert H. Lewis; Krystyna W. Semkow

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Allan H. Treiman

Lunar and Planetary Institute

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David F. Nava

Goddard Space Flight Center

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John A. Philpotts

Goddard Space Flight Center

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Larry A. Haskin

Washington University in St. Louis

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Benjamin C. Schuraytz

Lunar and Planetary Institute

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