C.V.
Primary
Specialty:
Radiology-Neuroradiology
Clinical Interest:
Neuroradiology, high resolution MRI and CT, head and neck radiology
Research Interests:
High-resolution MRI of the Temporal Bone and Skull Base, High field safety and imaging,
unification physic’s models
For many years I have focused on high resolution MRI of the temporal
bone and other skull base structures. In collaboration with Dr. Petra Schmalbrock we
have developed and implemented a number of advanced techniques for MRI at 1.5 T, many
of which have since become standard techniques available on commercial units. We have
documented the value of these techniques related to the clinical evaluation of
patients with tumors and other skull base pathology.
Since 1999 I have worked on the development of ultra high field MRI at
8 and 7 T. I was the Director of the MRI Research Division at the OSU Medical School,
Department of Radiology. We focused on achieving a better understanding of many of the
critical fundamental issues that presently represent significant limitations to high
field MR imaging. These limitations include: B1 field inhomogeneities, potential high
SAR values, magnetic susceptibility artifacts, volume head coil configurations, and
non-standard relaxometry techniques. My primary clinical focus was on high resolution
imaging of the micro circulation of the brain, applications of phase imaging, and
brain anatomic studies.
We completed extensive safety numerical simulations, phantom
measurements and human studies. This data lead to the FDA revising the safety standard
to include exposure to 8 T as a non significant risk device.
I have also developed an interest in unified physics theories since the
late 1990s. The most recent work is based on a quantum model rooted in the most classic
characteristics of quantum spectra and simple harmonic systems. The model is now quite
robust and it is possible to derive the most fundamental constants as coupling constants
to an accuracy of 9 digits exponentially starting with pi as the only known physical
constant. This is possible if one understands the nature of the harmonic system. The
abstract for the paper is printed below. The paper is available as a PDF file for a more
detailed review.
Abstract: A Physics Unification Model: The neutron symphony
Pi can be derived as a dimensionless ratio from a mathematical formulation
independent of any known physical value. The hypothesis is that the coupling constants
between the fundamental physical constants analyzed as frequency equivalents in a unified
spectrum represent an analogous situation where it is possible to derive them without any
physical data if one understands the mathematical rules that restrict their possibilities.
If there is only one set of possible values that fulfill all the rules of the
relationships between fundamental constants simultaneously then it is possible to
mathematically derive them. This paper demonstrates and explains this mathematical
formulation. The main physical hypothesis is that the fundamental constants represent a
unified quantum spectrum based on the annihilation frequency of the neutron from which all
of the other values are derived. The mathematical formulation includes many classic
physics elements including: logic, pi, but defined by the ratio of three physical values,
dimensionless ratio coupling constants of two identical physical units
(frequency equivalents), an infinite consecutive integer series, an infinite fractional
consecutive integer series (quantum fractions), a singularity point, an Eigen function
(exponential relationship), linear functions, complex numbers, and an inverse mathematical
transformation (from a ratio of frequencies to quantum fraction exponent values plotted on
a complex number plane). There are other elements that are not typical including: the fact
that the linear functions are plotted on a complex number plane and represent exponents of
ratios. Also the prime numbers are critical values that are associated with the harmonic
lineage of associated physical entities (physically associated entities have common prime
numbers products). The most unique mathematical restriction is that all of the complex
number points and their associated intersecting lines must be defined by only three
quantum linear distances on the complex number plane. From these three values only all of
the others must related by the number of integer harmonic possibilities only including an
infinite fractional integer series. The ratio of the three physical factors as frequencies
that define these distances must also derive pi. The properties of hydrogen (ionization
energy, Bohr radius, and mass of the electron) are the physical values related to pi and
secondarily define the critical three complex number distances of this formulation.
download abstract as PDF: "The neutron symphony"
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