Michael Buser

Dr. Michael Buser

USDA- Agricultural Research Service, Sustainable Agricultural Systems Laboratory (SASL), Partnerships for Data Innovations (PDI), Beltsville, MD 20705, USA
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Research Focus & Metrics

Academic Career Length

28Years (1999-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 February 2016 in Fuel
Verified
Journal Article
Closed access
ZYZixu Yang
Zixu Yang
AKAjay Kumar
Ajay Kumar
RHRaymond L. Huhnke
Raymond L. Huhnke
MBMichael Buser
Michael Buser
SCSergio Capareda
Sergio Capareda

1 July 2020 in Atmospheric Pollution Research
Verified
Journal Article
Closed access
ZYZijiang Yang
Zijiang Yang
QYQi Yao
Qi Yao
MBMichael Buser
Michael Buser
JAJoseph G. Alfieri
Joseph G. Alfieri
HLHong Li
Hong Li
CHCathleen J. Hapeman
Cathleen J. Hapeman

1 September 2015 in Journal of Environmental Quality
Verified
Journal Article
Closed access
PDF file
BEBranly Eugene
Branly Eugene
PMPhilip A. Moore
Philip A. Moore
HLHong Li
Hong Li
DMDana Miles
Dana Miles
STSteven Trabue
Steven Trabue
MBMichael Buser
Michael Buser

13 May 2020 in Agronomy Journal
Verified
Journal Article
Open access
PDF file
TKTulsi Prasad Kharel
Tulsi Prasad Kharel
AAAmanda Ashworth
Amanda Ashworth
POPhillip Owens
Phillip Owens
MBMichael Buser
Michael Buser
Big Data in agriculture is growing rapidly through advancements in metagenomics, precision agriculture, and on‐farm sensor technologies, as well as through increased capacity to collect, process, and store these data. Concurrent with 60% increases in food production demands by 2050 and the need for sustainable intensification, is the increased need for data synthesis across temporal and spatial scales. Therefore, in our data‐rich world, what is lacking is a data management system across spatial and temporal resolutions including workflows, interpretation methodology, and a delivery structure for identifying optimal systems for sustainable intensification or diversification. Consequently, the objective of this paper is to explore the current state of handling spatially and temporally disparate data and offer solutions for developing a platform for bridging component parts (encompassing multiple scales and disciplines) to analyze system functionality for greater resiliency, which may help manage risk. Two datasets were generated using bibliometrics (research articles from systematic literature reviews) evaluated trends and historical Big Data applications in agronomy. Results indicate research and industry progress is advancing towards web‐based real‐time output delivery systems using several well‐established Big Data handling platforms (e.g., Amazon Web Service, Google Cloud, Microsoft Azure), which are not yet widely used by or designed for agronomic researchers. Cloud‐based computing may provide opportunities to extrapolate agricultural research results across larger scales. Authors suggest training and educating agricultural practitioners on Big Data principles, database management, improved data visualization, as well as incentives for data sharing for optimizing Big Data in systems agriculture as these research innovations emerge.

1 July 2018 in Environmental Pollution
Verified
Journal Article
Closed access
QYQi Yao
Qi Yao
ZYZijiang Yang
Zijiang Yang
HLHong Li
Hong Li
MBMichael Buser
Michael Buser
JWJohn D. Wanjura
John D. Wanjura
CHCathleen J. Hapeman
Cathleen J. Hapeman

2 July 2015 in Environmental Science & Technology
Verified
Journal Article
Closed access
BBBrett R. Blackwell
Brett R. Blackwell
KWKimberly J. Wooten
Kimberly J. Wooten
MBMichael Buser
Michael Buser
BJBradley J. Johnson
Bradley J. Johnson
GCGeorge P. Cobb
George P. Cobb
PSPhilip N. Smith
Philip N. Smith