Postdoc - Biomedical Magnetic Resonance
UT Southwestern Medical Center - 2014
PhD - NMR Physics
National High Magnetic Field Laboratory at Florida State University - 2008
B.S. - Physics
Western Mindanao State University (Philippines) - 2002
Angular and temperature-dependent 77Se NMR in the metallic, SDW, and field-induced spin density wave phases of (TMTSF) 2X 2008 - Journal Article
Magnetic-polaron-driven magnetoresistance in the pyrochlore Lu2 V2 O7 2008 - Journal Article
S 77 e NMR investigation of the field-induced spin-density-wave transitions in (TMTSF) 2 ClO4 2008 - Journal Article
Low electrical conductivity threshold and crystalline morphology of single-walled carbon nanotubes – high density polyethylene nanocomposites characterized by SEM, Raman spectroscopy and AFM 2007 - Journal Article
Advisory council member
National High Magnetic Field Laboratory [2017–2019]
Users advisory committee member of the Electron Magnetic Resonance (EMR) program of the National High Magnetic Field Laboratory (NHMFL) in Tallahassee, FL
Institutional Biosafety and Chemical Safety Committee at UT Dallas [2017–2019]
reviews the biosafety and chemical safety aspects of research protocols at UT Dallas.
UTD Physics Renfrow Scholarship Committee [2017–2019]
reviews applications for travel and research-related graduate scholarship of physics students.
Frisco ISD Independent Study and Mentorship (Mentor) - Frisco ISD 
FSU Program for Instructional Excellence (PIE) Award - Florida State University 
2014/06 Our lab's main research is focused on hyperpolarized magnetic resonance: instrumentation, physics, optimization methods and biomedical applications (specifically, aberrant cellular metabolism in cancer). Hyperpolarization, technically dynamic nuclear polarization (DNP), is a physics technique wherein we create a high degree of non-Boltzmann distribution of insensitive nuclear spins at low temperature and high magnetic field via microwave irradiation of free electrons. Our goal is to get the highest enhanced nuclear polarization possible for insensitive nuclear spins such as 13C, 15N, 89Y, 107,109Ag etc. by optimizing the physical parameters at cryogenic conditions (close to 1K). We then utilize a fast dissolution device that converts the frozen hyperpolarized samples at cryogenic conditions into hyperpolarized liquids at physiologically tolerable temperatures. What this means is that the NMR and MRI signals of reporter molecules (NMR/MRI molecular probes that can detect pH, metabolism, and other important biological activities) are enhanced by 10,000-100,000-fold! We aim to explore and investigate new hyperpolarized NMR and MRI biosensors to improve medical diagnostics.
see the complete list at: https://dnpnmr.weebly.com/presentations.html
Dr. Lloyd Lumata
, assistant professor of physics, will use his $200,000 CPRIT grant
to develop a new noninvasive imaging technique that could detect glioblastoma earlier and more accurately. The technique uses hyperpolarization technology to boost by more than 10,000-fold the sensitivity of MRI signals from key biological molecules associated with glioblastoma.
In addition to mapping cancer in the brain more precisely, the technology could reduce the need for patient exposure to X-rays from CT scans and radioactive imaging tracers, or for removal of brain tissue for diagnosis.
Hyperpolarized 15N MRI of prostate cancer
$114,750.00 - US Department of Defense [2015/10–2016/09]
Award No. W81XWH-14-1-0048
Hyperpolarized 13C Magnetic Resonance
$195,000.00 - Welch Foundation [2015/06–2018/05]
Award No. AT-1877