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The Journal of Neuroscience, December 1, 2001, 21(23):9355-9366
Functional Interactions between Tumor and Peripheral Nerve:
Morphology, Algogen Identification, and Behavioral Characterization of
a New Murine Model of Cancer Pain
Paul W.
Wacnik1,
Laura
J.
Eikmeier2,
Timothy R.
Ruggles2,
Margaret L.
Ramnaraine3,
Bruce K.
Walcheck2,
Alvin J.
Beitz2, and
George L.
Wilcox1, 4
Departments of 1 Pharmacology, 2 Veterinary
Pathobiology, 3 Orthopedic Surgery, and
4 Neuroscience, University of Minnesota Schools of Medicine
and Veterinary Medicine, Minneapolis, Minnesota 55455
This paper describes a model of tumor-induced bone destruction and
hyperalgesia produced by implantation of fibrosarcoma cells into the
mouse calcaneus bone. Histological examination indicates that tumor
cells adhere to the bone edge as early as post-implantation day (PID)
3, but osteolysis does not begin until PID 6, correlating with the
development of hyperalgesia. C3H/He mice exhibit a reproducible hyperalgesia to mechanical and cold stimuli between PID 6 and 16. These
behaviors are present but significantly reduced with subcutaneous
implantation that does not involve bone. Systemic administration of
morphine (ED50 9.0 mg/kg) dose-dependently attenuated the
mechanical hyperalgesia. In contrast, bone destruction and hypersensitivity were not evident in mice implanted with melanoma tumors or a paraffin mass of similar size. A novel microperfusion technique was used to identify elevated levels of the putative algogen
endothelin (ET) in perfusates collected from the tumor sites of
hyperalgesic mice between PID 7 and 12. Increased ET was evident in
microperfusates from fibrosarcoma tumor-implanted mice but not from
melanoma tumor-implanted mice, which are not hyperalgesic. Intraplantar
injection of ET-1 in naive and, to a greater extent, fibrosarcoma
tumor-bearing mice produced spontaneous pain behaviors, suggesting that
ET-1 activates primary afferent fibers. Intraplantar but not systemic
injection of the ET-A receptor antagonist BQ-123 partially blocked
tumor-associated mechanical hyperalgesia, indicating that ET-1
contributes to tumor-induced nociception. This model provides a unique
approach for quantifying the behavioral, biochemical, and
electrophysiological consequences of tumor-nerve interactions.
Key words:
hyperalgesia; primary afferent fibers; tumor nociception; endothelin; cancer pain; tumor microperfusion
Copyright © 2001 Society for Neuroscience 0270-6474/01/21239355-12$05.00/0
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