Matt S Mitchell

Dr. Matt S Mitchell

National Renewable Energy Laboratory
orcid

Research Focus & Metrics

Academic Career Length

9Years (2018-Present)

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

Representative Publications

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1 November 2021 in Advances in Applied Energy
Verified
Journal Article
Open access
MGMadeline Gilleran
Madeline Gilleran
EBEric Bonnema
Eric Bonnema
JWJason Woods
Jason Woods
PMPartha Mishra
Partha Mishra
IDIan Doebber
Ian Doebber
MMMargaret Mann
Margaret Mann

20 April 2025 in Energy and Buildings
Verified
Journal Article
Open access
SWSajith Wijesuriya
Sajith Wijesuriya
RKRavi Kishore
Ravi Kishore
MMMatt S Mitchell
Matt S Mitchell
CBChuck Booten
Chuck Booten

20 January 2024 in Journal of Energy Storage
Verified
Journal Article
Closed access
DGDarice Guittet
Darice Guittet
PGPaul Gasper
Paul Gasper
MSMatt Shirk
Matt Shirk
MMMatt S Mitchell
Matt S Mitchell
MGMadeline Gilleran
Madeline Gilleran
MMMargaret Mann
Margaret Mann

1 January 2018 in Geothermics
Verified
Journal Article
Closed access
RBRichard A. Beier
Richard A. Beier
MMMatt S Mitchell
Matt S Mitchell
JSJeffrey D. Spitler
Jeffrey D. Spitler
Saqib JavedSaqib Javed
Saqib Javed

5 August 2020 in Energies
Verified
Journal Article
Open access
PDF file
MMMatt S Mitchell
Matt S Mitchell
JSJeffrey D. Spitler
Jeffrey D. Spitler
This paper presents an enhanced vertical ground heat exchanger (GHE) model for whole-building energy simulation (WBES). WBES programs generally have computational constraints that affect the development and implementation of component simulation sub-models. WBES programs require models that execute quickly and efficiently due to how the programs are utilized by design engineers. WBES programs also require models to be formulated so their performance can be determined from boundary conditions set by upstream components and environmental conditions. The GHE model developed during this work utilizes an existing response factor model and extends its capabilities to accurately and robustly simulate at timesteps that are shorter than the GHE transit time. This was accomplished by developing a simplified dynamic borehole model and then exercising that model to generate exiting fluid temperature response factors. This approach blends numerical and analytical modeling methods. The existing response factor models are then extended to incorporate the exiting fluid temperature response factor to provide a better estimate of the GHE exiting fluid temperature at short simulation timesteps.

1 June 2018 in Energy and Buildings
Verified
Journal Article
Closed access
AFAnthony D. Fontanini
Anthony D. Fontanini
JAJose L. Castro Aguilar
Jose L. Castro Aguilar
MMMatt S Mitchell
Matt S Mitchell
JKJan Kosny
Jan Kosny
NMNoel Merket
Noel Merket
ELEdwin Lee
Edwin Lee