BIOGRAPHICAL SKETCH

 

NAME

Dietmar Cordes, Ph.D.

POSITION TITLE

Assistant Professor

 

EDUCATION/TRAINING

INSTITUTION AND LOCATION

DEGREE

(if applicable)

YEAR(s)

FIELD OF STUDY

Technical University of Clausthal, Germany

B.S.

1981

Physics

Technical University of Clausthal, Germany

M.S.

1985

Physics & Electronics

University of Reno, NV

Ph.D.

1989

Theoretical Physics

Georgia State University, Atlanta

Post-doctoral

1990-1991

Theoretical Physics

German Patent Office, Munich

University of Wisconsin, Madison

Post-doctoral

Post-doctoral

1991-1992

1996-2000

Patent Law

Functional MRI



 

Positions:

2006-present              Assistant Professor, Dept. of Radiology, University of Colorado Health Sciences, Denver, fMRI data analysis.

2000-2006                  Research Assistant Professor, Dept. of Radiology, Univ. of Washington-Seattle, fMRI data analysis.

1996-2000                  Assistant Scientist, Depts. of Medical Physics and Radiology, University of Wisconsin-Madison, specializing in fMRI data analysis and MR pulse sequence development.

1996                          Research Associate, Digital image processing lab, Dept. of Electrical Engineering, Univ. of Nevada-Reno.

1995-1996                  Adjunct Professor, Dept. of Physics, Univ. of Nevada-Reno, Computational modeling in Atomic Physics.

1994-1995                  Lecturer, Department of Physics, University of Nevada-Reno.

1993                          Research Associate in Computational Physics, Dept. of Physics, University of Nevada-Reno.

1991-1992                  Patent Examiner for scientific inventions at the German Patent Office in Munich, Germany.

 

Honors:

1998                          Awarded Sigma Pi Sigma membership in physics honor society

2004                          NIH reviewer for study section CND (01) Clinical Neurological Disease

2004-present              Associate Editor of the journal Computerized Medical Imaging And Graphics

2004-present              Member of the Scientific Advisory Board for Human Brain Mapping (HBM)

2004-present              Member of the Scientific Advisory Board for International Society of Magn. Res. in Med. (ISMRM)

 

Patent

2000                          D. Cordes. P98110US. Functional Magnetic Resonance Imaging using Optimized Z-Gradients.

 

 

Committees: 

    National Committees:

International Society of Magnetic Resonance in Medicine

The American Physical Society

Sigma Pi Sigma Physics Honor Society

Organization of HBM

International Society for Neural Networks.

 

Selected peer-reviewed publications (in chronological order):

1.             D. Cordes and P.L. Altick. Non-Adiabatic Hyperspherical Approach to Two Electron Systems. Phys. Rev. A38, 5479 (1988).

2.             D. Cordes and P.L. Altick. Scattering Variational Calculation of Characteristics of Doubly Excited States in Helium. Phys. Rev. A40, 20 (1989).

3.             D. Cordes and P.L. Altick. Application of the Multichannel Configuration-Interaction Theory to the Characteristics of the (3,3b)1S State of Helium. Phys. Rev. A41, 5213 (1990).

4.             D. Cordes, V. Haughton, K. Arfanakis, G. Wendt, P. Turski, C. Moritz, M. Quigley, M. Meyerand. Mapping Functional Related Regions of Brain with Functional Connectivity MRI.  Am J Neuroradiol 21:1636-1644 (2000).

5.             D. Cordes, P. A. Turski, J. A. Sorenson. Compensation of Susceptibility-Induced Signal Loss in Echoplanar Imaging for Functional Applications. Magn Res Imaging 18:1055-1068 (2000).

6.             C. Moritz, M. Meyerand, D. Cordes, V. Haughton. Functional MR Imaging Activation after Finger Tapping has Shorter Duration in the Basal Ganglia than in Sensorimotor Cortex. Am J Neuroradiol 21:1228-1234 (2000).

7.             K. Arfanakis, D. Cordes, V. Haughton, C. Moritz, M. Quigley, M. Meyerand. Combining Independent Component Analysis and Correlation Analysis to probe interregional Connectivity in fMRI Task Activation Datasets. Magn Reson Imaging 18:921-930 (2000).

8.             T. Stein, C. Moritz, M. Quigley, D. Cordes, V. Haughton, E. Meyerand. Functional Connectivity in the Thalamus and Hippocampus studied with fMRI. Am J Neuroradiol 21:1397-1401 (2000).

9.             C. Moritz, V. Haughton, D. Cordes, M. Quigley, M. Meyerand. Whole-Brain functional MR Imaging Activation from a Finger-Tapping task Examined with Independent Component Analysis. Am J Neuroradiol 21:1629-1635 (2000).

10.         D. Cordes, K. Arfanakis, J. Carew, V. Haughton. Frequencies Contributing to Functional Connectivity in the Cerebral Cortex in “Resting-State” Data. Am J Neuroradiol. AJNR 22:1326-1333 (2001).

11.         M. Quigley, D. Cordes, G. Wendt, P. Turski, C. Moritz, V. Haughton, M. Meyerand. Effect of Focal and Non-Focal Cerebral Lesions on Functional Connectivity Studied with MRI. Am J Neuroradiol 22:294-300 (2001)

12.         K. Arfanakis, D. Cordes, V. Haughton, J. Carew, M. Meyerand. Independent Component Analysis applied to Diffusion Tensor MRI. Magn. Reson. Med. 47:354-363 (2002).

13.         M. Quigley, V. Haughton, John Carew, D. Cordes, C. Moritz, M. Meyerand. A Comparison of Independent Component Analysis and Conventional Hypothesis-Driven Analysis Clinical Functional MR Image Processing. Am J Neuroradiol. AJNR 23:49-58 (2002).

14.         G. Nybakken, M. Quigley, C. Moritz , D. Cordes, V. Haughton, M. Meyerand. Test-retest precision of functional magnetic resonance imaging processed with independent component analysis. Neuroradiology 44(5):403-406 (2002).

15.         D. Cordes, V. Haughton, J. Carew, K. Arfanakis, K. Maravilla. Hierarchical Clustering to Measure Connectivity in fMRI Resting-State Data. Magn Res Imaging 20:305-317 (2002).

16.         T. J. Carroll, V.M. Haughton, H. Rowley, D. Cordes. The confounding effect of large vessels on MR perfusion images analyzed with ICA. Am J Neuroradiol. AJNR 23:1007-1012 (2002).

17.         R. Nandy and D. Cordes. Novel ROC-type Method for Testing the Efficiency of Multivariate Statistical Methods in fMRI.  Magn. Reson. Med. 49:1152-1162 (2003).

18.         R. Nandy and D. Cordes. A Novel Nonparametric Approach to Canonical Correlation Analysis with Applications to Low CNR Functional MRI Data. Magn. Reson. Med. 50:354-365 (2003).

19.         L. Stanberry, R. Nandy, D. Cordes. Cluster Analysis of fMRI Data using Dendrogram Sharpening. Hum Brain Mapp 20:201-219(2003).

20.         R. Nandy and D. Cordes. Improving the Spatial Specificity of Canonical Correlation Analysis in fMRI. Magn. Reson. Med. 52:947-952 (2004).

21.         R. Nandy and D. Cordes. New Approaches to ROC Methods in Functional Magnetic Resonance Imaging with Real Data using Repeated Trials. Magn. Reson. Med. 52:1424-1431 (2004).

22.         B. Keogh, D. Cordes, L. Stanberry, B. Figler, C. Robbins, C. Green, B. Tempel, A. Emmi, K. Maravilla, P. Schwartzkroin. BOLD-fMRI imaging of PTZ-induced seizures in rats. Epilepsy Research 66:75-90 (2005).

23.         D. Cordes and R. Nandy. Estimation of the Intrinsic Dimensionality of fMRI Data. Neuroimage 29:145-154 (2006).

24.         L. Stanberry, T. Richards, V. Berninger, R. Nandy, E. Aylward, K. Maravilla, D. Cordes. Low-frequency signal changes reflect differences in functional connectivity between good readers and dyslexics during continuous phoneme mapping. Magn. Reson. Imag. 24:217-229 (2006).

25.         R. Nandy and D. Cordes. A Semi-Parametric Approach to Estimate the Family-Wise Error Rate in fMRI using Resting-State Data. Neuroimage (in press 2006).

26.         L. Stanberry, A. Murua, D. Cordes. Functional Connectivity Mapping using the Ferromagnetic Potts Spin Model. Human Brain Mapping (accepted 2006).

Book Chapters:

27.         P. Turski, D.Cordes, B. Mock, G. Wendt, J. A. Sorenson, M. Quigley, C. Strother, R. Dempsey. Basic Concepts of fMRI and Arteriovenous Malformations. Magn Reson Imaging Clin N Am 6:801-810 (1998).

28.         P. Turski, D.Cordes, B. Mock, G. Wendt, J. A. Sorenson, M. Quigley, C. Strother, R. Dempsey. Basic Concepts of Functional Arteriovenous Malformations. Neuroimaging Clin N Am 8:371-381 (1998).

29.         V. Haughton, C. Moritz, M. Meyerand, K. Arfanakis, D. Cordes. Chapter 5, Mapping Brain Function with MRI. Latchaw/Kucharczyk/Moseley. Diagnostic and Therapeutic Imaging of the Nervous System. Elsevier (2004).

30.         C. Green, V. Haughton, D. Cordes. Independent Component Analysis and fMRI Imaging, in Functional MRI: Basic Principles and Clinical Applications, eds: S. Faro and M. Mohamed, Springer NY (2005).

 

Research Support:

Current

5P50HD033812-10

Berninger (Program PI)

03/01/96 - 11/30/2010

 

Richards (PI, Project IV – Brain Imaging)

 

NIH/NICHD

Learning Disabilities: Links to Schools and Biology

The major goal of this project is to use MR spectroscopy and functional MRI to study brain activation in children with learning disabilities.

Role:  Co-Investigator, Brain Imaging

 

 

5P30HD002274-38

Guralnick (Program PI)

08/01/89 - 6/30/2009

 

 

 

NIH/NICHD

Research in Mental Retardation and Child Development

This grant supports five scientific core facilities and one administrative core to enhance the effectiveness of scientists carrying out their research as part of our MRDDRC. The scientific core support facilities are as follows: (1) Genetics, (2) Neuroscience, (3) Behavioral Science, (4) Infant Primate Research Laboratory, and (5) Instrument Development Laboratory.

Role: Investigator, Brain Imaging in Neuroscience Core

 

 

Completed

 

Cordes (PI)

10/1/2002 - 9/30/2003

Royalty Research Fund, University of Washington

Using independent component analysis to analyze functional MR data.

The major goals of this project were to develop a new dimensionality-reduction method for analyzing

functional MR data using Independent Component Analysis.

Role:  PI

 

 

Pending

NIA R21 grant:  Functional MRI and Alzheimer’s disease (score 154 (12.6%)). Cordes (PI) 12/1/2006-11/30/2008

The overall goal of this project is to obtain an accurate statistical map of memory activation in the hippocampus (and associated structures in the limbic system) in older subjects, age 60 to 75.  The successful completion of our objectives would lead to an fMRI-based diagnostic test for memory impairment to help characterize abnormal memory function in people at risk for Alzheimer’s disease.