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The global problem of antimicrobial resistance and innovative ways to
respond to this problem are summarized in the proceedings of a recent
symposium published by The Royal Society London, the independent
academy of science in the UK. Download the entire report:
Innovative Mechanisms for Tackling Antibacterial Resistance.
The Royal Society Policy Document. July 2008.
Key points arising from
the workshop were:
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More efficient diagnostic
tools must be developed to enhance the rapid identification of species
of bacteria causing an infection as well as their resistance profile.
This will enable appropriate and effective treatment to be given.
-
The potential for
development of traditional antibiotics has not been exhausted.
However, the development of antibacterial agents acting on/in bacteria
in novel ways is vital. There are numerous scientific approaches that
are promising and require investigation.
-
Venture capitalists,
biotechnology companies and pharmaceutical companies need conditions
that will encourage them to invest in antibacterial agents. This can
be done by simplifying regulatory hurdles and enhancing financial
returns of antibacterial agents.
-
Centres of excellence
should be set up to promote the wide range of expertise needed
throughout the expensive and lengthy research and development process
and to train a new generation of experts in antimicrobial
therapeutics.
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II.
Characteristics of Successful Research Collaborations1,
2 |
Category
|
Characteristics
|
|
Structural |
- Comprised of a small number
of multi-professional teams
- Standardized methods for
planning, communicating, convening meetings and decision
making and regularly scheduled meetings
- Formal agreements for data
sharing and other collaborative activities
- Core administrative staff and
structure
- External funding, often from
multiple sources
|
| Process |
- Clear and explicit shared
research goals and objectives
- Clear articulation and
agreement regarding research gaps
- Knowledge and experience with
the change process
- Acceptance, validation,
commitment, synergy among collaborators
- Strong and clear leadership
- Contributions made and
recognized by all partners
- Minimal wasting of time,
highly efficient work processes
- Participants exchange ideas
outside of regular meetings
- Active involvement of students
- Team members receive formal
training in interdisciplinary research
- Members understand the values
and viewpoints of others
|
|
Outcomes |
- Measurable work products,
including publications, dissertations, presentations and
funded grants
|
|
III.
Conceptual Underpinnings |
Conceptual
underpinnings for interdisciplinary research to reduce antimicrobial
resistance.

CIRAR proposes to
develop interdisciplinary research teams to build the foundation for
long-term collaboration. The goal for the Consortium to be
developed is that teams adopt a transdisciplinary approach in which
they draw from the concepts and theories of the various disciplines to
develop shared conceptual underpinnings. Over the past year,
using an iterative process3, we have developed a model of
interdisciplinary research to address the translational blocks
described by Sung et al4. The focus is on research
designed to improve individual clinical outcomes, systems of care
delivery, and, ultimately, to influence health policy. This
framework calls for the integration of health and risk communication,
economics, informatics, epidemiology, and health services with the
basic research and disciplinary expertise of the
team members. While the
research focus of CIRAR is on reducing antimicrobial resistance, we
also have expertise and a strong success record of working with
vulnerable populations. Often these populations are both outside
the formal healthcare system without insurance and are likely to
obtain and use antibiotics inappropriately.
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IV. Examples of Potential
Topics for Interdisciplinary Demonstration Projects |
Example Demonstration Project
|
Required Disciplines |
- Developing early warning
surveillance systems using informatics techniques for community or
hospital outbreaks with multi-resistant organisms
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- Infectious diseases, molecular
epidemiology, informatics, microbiology, community liaisons
|
- Evaluating targeted health
communication strategies for high risk subpopulations
|
- Health and risk communication,
education, informatics, epidemiology, health services research,
multicultural expertise
|
- Examining and comparing molecular
markers of resistance in human populations
|
- Genetics, molecular epidemiology
|
- Testing promising rapid screening
methods
|
- Microbiology, infectious diseases,
economics, epidemiology
|
- Describing knowledge, attitudes, and
practices regarding antibiotic use in immigrant populations
|
- Epidemiology, health services
research, risk communication, community liaisons
|
- Intervention to improve judicious
use of antibiotics in vulnerable / high risk groups
|
- Clinical trials, risk communication,
epidemiology, infectious diseases, policy
|
- Assessing impact of real-time
electronic microbiologic surveillance on development of nosocomial
antibiotic resistance
|
- Informatics, infectious diseases,
epidemiology, microbiology, health policy
|
- Cost-effectiveness of alternative
targeting strategies for health communication; the impact of
differential insurance types and status on use of antibiotics
|
- Economics, informatics, health
services, statistics, infectious diseases
|
- Duration and impact of carriage of
resistant gram-negative bacteria in patients after hospital
discharge
|
- Hospital and molecular epidemiology,
microbiology, social scientists
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- Ovretveit J, Bate P, Cleary P, et al. Quality
collaboratives: lessons from research. Qual Saf Health Care.
2002;11(4):345-351.
- Bain P, Mann L, Pirola-Merlo A. The innovation
imperative: the relationships between team climate, innovation, and
performance in research and development teams. Small Group
Research. 2001;32(1):55-73.
- Peirce A, Cook S, Larson EL. Focusing research
priorities in schools of nursing. J Prof Nursing.
2004;20(3):156-159.
- Sung NS, Crowley WF, Jr., Genel M, et al. Central
challenges facing the national clinical research enterprise.
JAMA. 2003;289(10):1278-1287.
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