ryan_thompson_resume.txt 14 KB

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  1. Ryan C. Thompson, Ph.D.
  2. Contact Address:
  3. 8656 Via Mallorca
  4. Unit G
  5. La Jolla, CA 92037
  6. Phone: (908) 922-7470
  7. Email: rct@thompsonclan.org
  8. Website: https://github.com/DarwinAwardWinner
  9. Summary
  10. ==========
  11. * Accomplished, experienced computational biologist with deep
  12. knowledge of biology, mathematics, statistics, and programming.
  13. * 11 years of bioinformatics experience answering a wide range of
  14. complex biological questions through analysis of large NGS- and
  15. microarray-based whole transcriptome and epigenetic data sets.
  16. * Focus on sound statistical analysis, effective data visualization
  17. and communication, and making expert knowledge and successful
  18. analysis methods available as re-usable software tools.
  19. * Supportive team member and experienced mentor with a strong ability
  20. to help others connect biological, statistical, and computational
  21. understanding.
  22. Education
  23. ==========
  24. 2012—2019: Ph.D. in Bioinformatics, Skaggs Graduate School of Chemical and Biological Sciences
  25. The Scripps Research Institute, La Jolla, California
  26. Advisor: Andrew Su
  27. 2005—2009: B.S. in Biology with High Distinction; B.A. in Mathematics
  28. University of Virginia, Charlottesville, Virginia
  29. Advisor: Paul J. Rushton
  30. Research Experience
  31. ==========
  32. Salomon & Su Labs, The Scripps Research Institute
  33. ----------
  34. La Jolla, CA; 2012—2019
  35. Contact: Dr. Andrew Su, asu@scripps.edu
  36. * Created an open source, reproducible workflow to analyze a large
  37. multi-omics next-gen sequencing dataset of 220 RNA-seq and ChIP-seq
  38. samples to reveal coordinated changes in histone marks and gene
  39. expression during CD4 + T-cell activation as well as epigenetic
  40. convergence between naive and memory cells after activation [1,3,8].
  41. * Significantly improved cross-validated performance of machine
  42. learning classifier for identifying biomarkers of transplant
  43. rejection by developing appropriate single-sample microarray
  44. normalization procedures [5], including training a custom set of
  45. frozen RMA normalization vectors. Classifier is currently being
  46. developed into a clinical test for transplant dysfunction.
  47. * Performed a comprehensive comparative evaluation of over 20 subtly
  48. different statistical models for differential methylation in
  49. Illumina 450k arrays, selecting a model that best explained the
  50. observed sources and trends of variation in the data, including
  51. cross-domain application of a method originally designed for RNA-seq
  52. data.
  53. * Evaluated and optimized cost and performance of custom protocol for
  54. RNA-seq of human and primate blood samples while minimizing nuisance
  55. globin reads. Increased yield of useful reads nearly 2-fold [7].
  56. * Investigated effects of life-span-extending drug on worm gene
  57. expression over time revealing that the drug retards age-related
  58. “transcriptional drift”, preserving a youthful phenotype at the
  59. molecular level [4].
  60. * Implemented a systems biology tool to analyze and efficiently
  61. present and summarize differential expression for multiple gene set
  62. & pathway methods run on multiple pathway databases, as well as
  63. differential expression of individual genes within each pathway.
  64. * Performed comparative analysis of multiple differential expression
  65. statistical models to define best practice for optimal sensitivity
  66. while maintaining false positive control. Presented on theoretical
  67. and practical similarities and differences between methods.
  68. * Taught basic RNA-seq theory and practical analysis for the
  69. graduate-level introductory bioinformatics course.
  70. * Adapted common normalization methods from RNA-seq to improve
  71. performance in analysis of RASL-seq experiments [10].
  72. * Active member of the Bioconductor community since 2012 and
  73. contributing developer for several Bioconductor packages.
  74. * Mentored 3 coworkers from both biology and programming backgrounds
  75. in learning bioinformatics.
  76. Summer Internship, Informatics IT, Merck & Co.
  77. ----------
  78. Boston, MA; 2011
  79. Contact: Adnan Derti, adnan.derti@gmail.com
  80. * Built a transcriptome assembly and quantification pipeline using
  81. Cufflinks, including fully-automated cluster job control for
  82. high-throughput reproducible analysis, and presented a conceptual
  83. overview of Cufflinks' assembly and quantification algorithms to
  84. help the team understand Cufflinks.
  85. * Assisted in a molecular genetics study to evaluate peformance of two
  86. variant calling algorithms in detection of causal mutations in
  87. antibiotic-resistant bacterial genomes.
  88. Gaasterland Lab, UCSD Bioinformatcs
  89. ----------
  90. La Jolla, CA; 2010 - 2012
  91. Contact: Terry Gaasterland, gaasterland@ucsd.edu
  92. * Designed and implemented Deloxer, a critical software step in a new
  93. Illumina mate-pair sequencing protocol using Cre recombination.
  94. Deloxer is published [6] and now in use in several labs around the
  95. world.
  96. * Performed a molecular genetics study to find potential causal
  97. mutations for fatal iron overload disease in critically endangered
  98. black rhinoceros by de novo assembly of transcriptomes for black
  99. rhino and closely-related white rhino. Developed a custom pipeline
  100. to match up ortholog gene pairs, discover single-nucleotide
  101. differences between them, and functionally annotate these
  102. differences, and delivered a list of potential causal variants to
  103. collaborators for follow-up.
  104. * Helped design & implement a large-scale high-throughput exome
  105. sequencing pipeline for SNP discovery and functional annotation,
  106. including QC and validation of on-target coverage depth and
  107. reproducibility of coverage.
  108. * Created a fully-automated pipeline to produce quality-control
  109. metrics and plots for Illumina high-throughput sequencing data for
  110. early identification of failed runs or samples.
  111. * Investigated the binding motif specificity of ZASC1 transcription
  112. factor in mouse T-cells using Affymetrix expression microarrays in
  113. ZASC1 siRNA knockdown experiment.
  114. * Analyzed miRNA target predictions using GO & KEGG grouping to
  115. identify target pathways of autophagy-related miRNAs for biological
  116. validation.
  117. Timko Lab, U. of Virginia Biology
  118. ----------
  119. Charlottesville, VA; 2007—2009
  120. Advisor: Paul J. Rushton
  121. * Undergraduate thesis: Designed and implemented Contig Farmer, an
  122. algorithm for efficient selective contig assembly starting from
  123. “seed” sequences of interest, and used Contig Farmer to accelerate
  124. transcription factor gene discovery in cowpea and tobacco shotgun
  125. genomic sequence data [11].
  126. * Investigated transcription factors mediating plant stress response
  127. using expression microarray time-course, and refined the custom
  128. microarray design using data from previous runs to identify and
  129. eliminate uninformative probes, yielding an improved design for
  130. future studies.
  131. * Acted as interpreter to explain complex biological concepts to
  132. programmers and explain complex computational problems to
  133. biologists.
  134. Skills
  135. ==========
  136. Computing Skills: R/BioConductor, Python, Perl, Lisp, Java, C#, C++;
  137. Git version control; Remote UNIX system administration & software
  138. compilation, computing cluster job management & parallel computation
  139. * Public code: https://github.com/DarwinAwardWinner
  140. * StackOverflow Profile: http://stackoverflow.com/users/125921
  141. Statistics & Data Analysis: Multi-omics NGS & microarray analysis,
  142. multi-factor linear and generalized linear regression, experimental
  143. design and parametrization, empirical Bayesian methods, predictive
  144. modeling of clinical outcomes, machine learning classifier training &
  145. validation, survival analysis, data visualization & presentation,
  146. reproducible research practices
  147. Wet Lab: PCR, molecular cloning, recombinant protein purification,
  148. epitope mapping, site-directed mutagenesis, 2D gels, real-time PCR,
  149. and associated data analysis
  150. Languages: English: native speaker; German: written and spoken
  151. Other Work Experience
  152. ==========
  153. Computing Advisor & Help Desk, U. Va. IT Dept.
  154. ----------
  155. Charlottesville, VA; 2005—2007
  156. * Provided support via phone and on-site for students, faculty, and
  157. staff having problems with computers, phone system, network access,
  158. malware, hardware setup, and university web services
  159. * Tasks included support for university-provided software, virus
  160. removal, iPod recovery, printer setup and repair, diagnosis of
  161. hardware malfunctions, and data recovery from failing hard disks
  162. Summer Sailing Instructor, Raritan Yacht Club
  163. ----------
  164. Perth Amboy, NJ; 2006—2009
  165. * Instructed children ages 8-18 in sailing skills, safety, seamanship,
  166. knots, rigging & de-rigging boats, navigation, and racing strategy
  167. and technique, with an emphasis on building character and
  168. self-reliance
  169. * Ensured safety of students and staff by maintaining boats and
  170. equipment in good repair, by being vigilant to traffic and hazards
  171. on a busy waterway, and by communicating and coordinating
  172. efficiently with other staff
  173. * Helped organize, run, and referee several regattas per season for
  174. students from RYC and neighboring yacht clubs
  175. Awards & Honors
  176. ==========
  177. 2006—2009 Echols Scholar, University of Virginia
  178. 2006 Phi Eta Sigma National Honor Society
  179. 2006 National Society of Collegiate Scholars
  180. 2005 Edward J. Bloustein Disguingished Scholar
  181. 2005 National Merit Scholar
  182. Peer-reviewed Publications
  183. ==========
  184. [1] Sarah A. LaMere, Ryan C. Thompson, Xiangzhi Meng, H. Kiyomi
  185. Komori, Adam Mark, and Daniel R. Salomon. H3K27 Methylation Dynamics
  186. during CD4 T Cell Activation: Regulation of JAK/STAT and IL12RB2
  187. Expression by JMJD3. The Journal of Immunology, 199(9):3158–3175,
  188. November 2017. doi:10/gchc9x.
  189. [2] S. M. Kurian, E. Velazquez, R. Thompson, T. Whisenant, S. Rose, N.
  190. Riley, F. Harrison, T. Gelbart, J. J. Friedewald, J. Charette, S.
  191. Brietigam, J. Peysakhovich, M. R. First, M. M. Abecassis, and D. R.
  192. Salomon. Orthogonal Comparison of Molecular Signatures of Kidney
  193. Transplants With Subclinical and Clinical Acute Rejection: Equivalent
  194. Performance Is Agnostic to Both Technology and Platform. American
  195. Journal of Transplantation, 17(8):2103–2116, August 2017.
  196. doi:10/gbp6vr.
  197. [3] S. A. LaMere, R. C. Thompson, H. K. Komori, A. Mark, and D. R.
  198. Salomon. Promoter H3K4 methylation dynamically reinforces
  199. activation-induced pathways in human CD4 T cells. Genes & Immunity,
  200. 17(5):283–297, July 2016. doi:10/f97x85.
  201. [4] Sunitha Rangaraju, Gregory M. Solis, Ryan C. Thompson, Rafael L.
  202. Gomez-Amaro, Leo Kurian, Sandra E. Encalada, Alexander B. Niculescu,
  203. Daniel R. Salomon, and Michael Petrascheck. Suppression of
  204. transcriptional drift extends C. elegans lifespan by postponing the
  205. onset of mortality. eLife, 4(December2015):1–39, December 2015.
  206. doi:10/ggcxmg.
  207. [5] S M Kurian, a N Williams, T Gelbart, D Campbell, T S Mondala, S R
  208. Head, S Horvath, L Gaber, R Thompson, T Whisenant, W Lin, P
  209. Langfelder, E H Robison, R L Schaffer, J S Fisher, J Friedewald, S M
  210. Flechner, L K Chan, A C Wiseman, H Shidban, R Mendez, R Heilman, M M
  211. Abecassis, C L Marsh, and D R Salomon. Molecular Classifiers for Acute
  212. Kidney Transplant Rejection in Peripheral Blood by Whole Genome Gene
  213. Expression Profiling. American Journal of Transplantation,
  214. 14(5):1164–1172, May 2014. doi:10/f5xswg.
  215. [6] Filip Van Nieuwerburgh, Ryan C Thompson, Jessica Ledesma, Dieter
  216. Deforce, Terry Gaasterland, Phillip Ordoukhanian, and Steven R Head.
  217. Illumina mate-paired DNA sequencing-library preparation using Cre-Lox
  218. recombination. Nucleic acids research, 40(3):e24, February 2012.
  219. doi:10/fmzd3r.
  220. Other Works
  221. ==========
  222. [7] Ryan C. Thompson, Terri Gelbart, Steven R Head, Phillip
  223. Ordoukhanian, Courtney Mullen, Dongmei Han, Dora M Berman, Amelia
  224. Bartholomew, Norma S Kenyon, and Daniel R Salomon. Optimizing yield of
  225. deep RNA sequencing for gene expression profiling of peripheral blood
  226. samples from cynomolgus monkeys (Macaca fascicularis). (In
  227. preparation). Institution: The Scripps Research Institute, 2019.
  228. [8] Ryan C. Thompson, Sarah A. Lamere, and Daniel R. Salomon.
  229. Reproducible genome-wide epigenetic analysis of H3K4 and H3K27
  230. methylation in naïve and memory CD4+ T-cell activation. (In
  231. preparation). Institution: The Scripps Research Institute, 2019.
  232. [9] Ryan C. Thompson. Bioinformatic Analysis of Complex ,
  233. High-Throughput Genomic and Epigenomic Data in the Context of CD4+
  234. T-Cell Differentiation and Diagnosis and Treatment of Transplant
  235. Rejection. PhD thesis, The Scripps Research Institute, 2019.
  236. [10] Erick R Scott, H Benjamin Larman, Ali Torkamani, Nicholas J
  237. Schork, Nathan Wineinger, Max Nanis, Ryan C. Thompson, Reza B.
  238. Beheshti Zavareh, Luke L Lairson, Peter G Schultz, and Andrew I. Su.
  239. RASLseqTools: Open- source methods for designing and analyzing
  240. RNA-mediated oligonucleotide Annealing, Selection, and, Ligation
  241. sequencing (RASL-seq) experiments. bioRxiv, 2016. doi:10/ggcxmn.
  242. [11] Ryan C. Thompson, Paul J. Rushton, Tom W. Laudeman, and Michael
  243. P. Timko. Contig Farmer : A tool for extracting maximal-length
  244. contiguous sequences from a database of short sequence reads
  245. (Undergraduate Thesis), June 2009. Institution: University of
  246. Virginia.
  247. http://darwinawardwinner.github.io/resume/examples/UVa/contigfarmer.pdf
  248. [12] Ryan C. Thompson. The Sources and Limits of Geometric Rigor from
  249. Euclid Through Descartes, May 2008. Institution: University of
  250. Virginia.
  251. http://darwinawardwinner.github.io/resume/examples/UVa/math-history-paper.pdf
  252. Presentations and Teaching
  253. ==========
  254. * May 8, 2018: Guest lecturer on RNA-Seq for Advanced Tools and Data
  255. Challenges in Bioinformatics course (Lecture & Lab). University of
  256. California, San Diego, CA
  257. * November 21, 2016: Advanced RNA-Seq Analysis. Schork Lab, J. Craig
  258. Venter Institute, La Jolla, CA
  259. * August 15, 2016: RNA-seq Analysis. Bristol-Myers Squibb, Hopewell,
  260. NJ
  261. * April 29, 2016: Lecturer on Introductory RNA-seq Analysis for
  262. Applied Bioinformatics and Computational Biology course. The Scripps
  263. Research Institute, La Jolla, CA
  264. * December 21, 2015: Advanced RNA-Seq Analysis. Bristol-Myers Squibb,
  265. Hopewell, NJ
  266. * November 13, 2015: Advanced RNA-Seq Analysis. The Scripps Research
  267. Institute, La Jolla, CA
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