Current Officers
CIRMS is managed and operated by the Executive
Committee with is comprised of the
current Officers and the following additional
members:
The Science and Programs Committee is comprised
of the following four subcommittees:
- Homeland Security: Dr.
Mike Unterweger, NIST
- Industrial Applications and Materials
Effects: Hans
J. Wiegert, Cryovac, Sealed Air Corp.
and Jon
Jansson, Baxter Healthcare
Corp.
- Medical Applications:
Dr.
Larry DeWerd, Univ. or Wisconsin and
Dr.
Geoff Ibbott, UT M.D. Anderson Cancer
Center
- Radiation Protection:
Dr.
Ken Inn, NIST, and Dr.
Carl Gogolak, US DOE/DHS, retired
About CIRMS
The Council on Ionizing Radiation Measurements
and Standards (CIRMS) is an independent, non-profit
council that draws together experts involved
in all aspects of ionizing radiation to discuss,
review and assess developments and needs in
this field. Drawing upon expertise from government
and national laboratories, agencies and departments,
from the academic community and from industry,
CIRMS has issued its fourth triennial report
on Needs in Ionizing Radiation Measurements
and Standards. Such needs are delineated
in Measurement Program Descriptions (MPDs)
that indicate the objective, state background
information, define needed action items and
resource requirements in terms of personnel
and facilities.
Each of the subcommittees of the CIRMS Science
and Technology Committee has prepared a series
of MPDs pertinent to their area of expertise.
These were arrived at through dialog at CIRMS
meetings and workshops.
CIRMS Medical Subcommittee, which deals with
diagnostic and therapeutic uses of ionizing
radiation, has found need in four specific
areas:
Radioactivity Standards and Techniques
for Nuclear Medicine
Dose Mapping Systems for 3D Conformal Radiation
Therapy and Intensity Modulated Radiation
Therapy
Absorbed Dose Standards for Brachytherapy
Sources
Liquid Based and Micro-Brachytherapy Sources
These reflect current developments in medicine
that have come to rely more heavily on the
use of radioactive species for diagnostic
purposes and treatment. Brachytherapy, for
example, is becoming more widely used as an
option to treat prostate cancer. Prior to
any such internal or to external treatment
of cancer, patient dose mapping is needed
so that the physician can best treat the targeted
or intended area.
The CIRMS Public and Environmental Radiation
Protection Subcommittee (PERP), which dealt
with radioactivity found in the environment
and its possible public health effects, and
Occupational Radiation Protection Subcommittee
(ORP), which dealt with worker protection
in radioactive environments, have been merged
into a joint Radiation Protection Subcommittee
(RP). Many activities espoused by PERP were
evolving into areas of interest for ORP as
well. A new subcommittee devoted to the interests
in Homeland Security has been formed. Its
interests are combined with those in Radiation
Protection. Nine Measurement Program Descriptions
are defined in these areas:
Traceability to NIST for Reference, Monitoring
and Service Laboratories
Sorption of Radioactive Elements in Contaminated
Soils and Sediments and Urban Structural and
Other Materials
Atom-Counting Measurement Techniques for
Environmental and Radiobioassay Monitoring
Intercomparison Transfer Standards for Neutron
Source Calibrations
Improvements for Invivo and In-vitro Radiobioassay
Metrology
Improved Radiation Measurement Infrastructure
for Occupational Radiation Protection
Extension of Calibration Accreditation Criteria
to Low Dose Radiations
Implementation of Support for Personnel
Dosimetry Proficiency Testing per ANSI N13.11
Emergency Radiological Response
These reflect continuing needs to improve
upon ways to measure radioactivity, especially
in soils, structures and other materials that
have been contaminated by hosting activities
related to nuclear weapons development. Accurate
measurements that will be traceable to national
reference standards must be sustained and
an understanding of how such radioactivity
decays over time is a continuing area of inquiry.
Issues of calibration, proficiency testing
and the maintenance of a network to monitor
dose exposure in occupational settings are
covered. The need for a national network capable
of responding in the event of terrorist activities
involving radiological materials is also addressed.
The CIRMS Industrial Applications and Materials
Effects subcommittee (IAME) covers a diverse
area generally not related directly to human
radiation exposure. In this context, IAME
has found need for measurement programs in
five areas:
Radiation Hardness Testing and Mixed-Field
Radiation Effects
Neutron Dosimetry for Reactor Pressure Vessel
Surveillance
Medical Device Sterilization
Food Irradiation
Low-Voltage Electron Beam Dosimetry
Terrestrial measurements of the effects (hardening)
of types of radiation found in space on electronic
materials are essential to satellite operations
and communications systems. As nuclear power
plants age, radiation effects on their pressure
vessels must continue to be monitored. The
growing use of irradiation to sterilize medical
devices and the emergence of food irradiation
demand heightened attention to dosimetry measurements
and their traceability to national reference
sources.
In an era of constrained government resources,
the above point to areas warranting program
attention as determined by a consensus of
experts from industry, academia and government
laboratories and agencies. Adequate resources
should be allocated so that the objectives
outlined in each area can be accomplished.
CIRMS hopes that this report
will be of value in the identification and prioritization
of future efforts in area of ionizing radiation
measurements and standards. The 4th edition
of "Needs in Ionizing Radiation Measurements
and Standards" is available here,
and the 5th edition is currently being developed.
1993 Marshall R. Cleland,
Ion Beam Applications, Inc.
1994 Peter R. Almond, University
of Louisville
1995 R. Thomas Bell, U.S.
Department of Energy
1996 Anthony J. Berejka,
Ionicorp
1997 Larry A. DeWerd, University
of Wisconsin
1998 Robert M. Loesch, U.S.
Department of Energy
1999 Thomas W. Slowey, K&S
Associates
2000 X. George Xu, Rensselaer
Polytechnic Institute
2001 Joseph C. McDonald,
Pacific Northwest National Laboratory
2002 Arthur H. Heiss, Bruker
BioSpin Corporation
2003 Geoffrey S. Ibbott,
UT M.D. Anderson Cancer Center
2004 James A. Deye, National
Cancer Institute
2005 R. Craig Yoder, Landauer,
Inc.
2006 Mohamad Al-Sheikhly,
University of Maryland
2007 Shawna L. Eisele, Los
Alamos National Laboratory
2008 Manny R. Subramanian,
Best Medical International, Inc.
2009 Nolan Hertel, Georgia
Institute of Technology
For those that are interested in a more complete
history of CIRMS, it can be found here.