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(NAS Colloquium) The Neurobiology of Pain (1999)
National Academy of Sciences (NAS)

Page
41
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COLLOQUIUM ON NEUROBIOLOGY OF PAIN

inhibitory actions. In this context, it should be remembered that a2-adrenergic receptors are intermediate arteriolar smooth muscle constriction. Therefore, this class of receptors is capable of being part of an excitatory signal-transduction process ( 36 ); furthermore, the signaling system induced by nerve injury may not be identical to that occurring in neurons normally.

Does the idea of a change in cellular phenotype by the enhanced production of membrane receptors possibly apply to other situations? A similar process could operate in other versions of sympathetically related pain. It could also relate to Raynaud’s disease, another pathological process which, in part, appears to represent overreaction to sympathetic mediators and could possibly result from an increased expression of adrenergic receptors ( 37 ). Furthermore, enhanced reactions to adrenergic mediators by the vasculature have also been postulated for certain forms of hypertension ( 38 , 39 ). To conclude, the concept of increased expression of molecular receptors as a mechanism of disease, and in particular of pathological pain, deserves serious consideration and further exploration.

I thank Ms. S. Derr for her assistance. Preparation of this paper was aided by grants NS 10321 and NS 14899 of the National Institute of Neurological Disorders and Stroke.

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Page
41
Front Matter (R1-R10)
The Neurobiology of Pain (7627-7630)
John C. Liebeskind (1935-1997): A Tribute (7631-7634)
Sodium Channels and Pain (7635-7639)
A Comparison of the Potential Role of the Tetrodotoxin-insensitive Sodium Channels, PN3/SNS and NaN/SNS2, in Rat Models of Chronic Pain (7640-7644)
Tetrodotoxin-resistant Na+ Currents and Inflammatory Hyperalgesia (7645-7649)
Calcium Regulation of a Slow Post-spike Hyperpolarization in Vagal Afferent Neurons (7650-7657)
Ion Channels Gated by Heat (7658-7663)
Causalgia, Pathological Pain, and Adrenergic Receptors (7664-7667)
Forebrain Mechanisms of Nociception and Pain: Analysis Through Imaging (7668-7674)
A Visceral Pain Pathway in the Dorsal Column of the Spinal Cord (7675-7679)
The Spinal Biology in Humans and Animals of Pain States Generated by Persistent Small Afferent Input (7680-7686)
Supraspinal Contributions to Hyperalgesia (7687-7692)
Neutrophins and Hyperalgesia (7693-7696)
Src, a Molecular Switch Governing Gain Control of Synaptic Transmission Mediated by N-methyl-D-aspartate Receptors (7697-7704)
Pain Perception: Is There a Role for Primary Somatosensory Cortex? (7705-7709)
Implications of Immune-to-Brain Communication for Sickness and Pain (7710-7713)
Brain-derived Neurotrophic Factor is an Endogenous Modulator of Nociceptive Responses in the Spinal Cord (7714-7718)
The Postnatal Development of Spinal Sensory Processing (7719-7722)
Transcriptional and Posttranslational Plasticity and the Generation of Inflammatory Pain (7723-7730)
Cellular Mechanisms of Neuropathic Pain, Morphine Tolerance, and Their Interactions (7731-7736)
Does a Neuroimmune Interaction Contribute to the Genesis of Painful Peripheral Neuropathies? (7737-7738)
Distinct Neurochemical Features of Acute and Persistent Pain (7739-7743)
The Genetic Mediation of Individual Differences in Sensitivity to Pain and Its Inhibition (7744-7751)
The u Opiate Receptor as a Candidate Gene for Pain: Polymorphisms, Variations in Expression, Nociception, and Opiate Responses (7752-7756)
NAS Colloquia (7757-7760)