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2 - STAGING AND RISK-STRATIFICATION OF MULTIPLE MYELOMA

Published online by Cambridge University Press:  11 July 2009

S. Vincent Rajkumar
Affiliation:
Mayo Clinic, Minnesota
Robert A. Kyle
Affiliation:
Mayo Clinic, Minnesota
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Summary

INTRODUCTION

Multiple myeloma is heterogeneous with respect to the genetic initiating event underpinning the development of the disease, subsequent responsiveness to chemotherapy, and, particularly, to long-term survival. As has been clinically evident over many decades, simple biochemical markers such as the myeloma isotype and the presence or absence of skeletal disease or anemia provided a rough estimate with regard to prognosis. Nevertheless, these crude tools have gradually been supplanted by more sophisticated technologies for estimating prognosis, and a time has now been reached at which routine genetically based prognostication can be performed. When appropriate testing is performed, more accurate estimations of median event-free and overall survival can be provided to the patient, probable response to transplant can be gauged, and the appropriateness of this therapy can be assessed with greater accuracy. It is important to note, however, that even with modern prognostication tools existing data are based on older therapies that have evolved substantially over the past few years such that not all genetic factors that were considered high-risk earlier this decade have maintained such high significance in the presence of more effective chemotherapy. This chapter will review both standard and genetically based prognostic markers with respect to their use and choice in prognosis prediction, in transplant response, and in choice of therapy.

PROGNOSTIC FACTORS ASSOCIATED WITH TUMOR BURDEN

The Durie-Salmon classification for many years was the most widely adopted classification system used to predict outcome for multiple myeloma patients.

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Publisher: Cambridge University Press
Print publication year: 2008

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