Book contents
- Frontmatter
- Contents
- Contributors
- Foreword
- Credits and acknowledgements
- Section 1 Introduction
- Section 2 Cancer Symptom Mechanisms and Models: Clinical and Basic Science
- 4 The clinical science of cancer pain assessment and management
- 5 Pain: basic science
- 5a Mechanisms of disease-related pain in cancer: insights from the study of bone tumors
- 5b The physiology of neuropathic pain
- 6 Cognitive dysfunction: is chemobrain real?
- 7 Cognitive impairment: basic science
- 8 Depression in cancer: pathophysiology at the mind-body interface
- 9 Depressive illness: basic science
- 9a Animal models of depressive illness and sickness behavior
- 9b From inflammation to sickness and depression: the cytokine connection
- 10 Cancer-related fatigue: clinical science
- 11 Developing translational animal models of cancer-related fatigue
- 12 Cancer anorexia/weight loss syndrome: clinical science
- 13 Appetite loss/cachexia: basic science
- 14 Sleep and its disorders: clinical science
- 15 Sleep and its disorders: basic science
- 16 Proteins and symptoms
- 17 Genetic approaches to treating and preventing symptoms in patients with cancer
- 18 Functional imaging of symptoms
- 19 High-dose therapy and posttransplantation symptom burden: striking a balance
- Section 3 Clinical Perspectives In Symptom Management and Research
- Section 4 Symptom Measurement
- Section 5 Government and Industry Perspectives
- Section 6 Conclusion
- Index
- Plate section
- References
17 - Genetic approaches to treating and preventing symptoms in patients with cancer
from Section 2 - Cancer Symptom Mechanisms and Models: Clinical and Basic Science
Published online by Cambridge University Press: 05 August 2011
- Frontmatter
- Contents
- Contributors
- Foreword
- Credits and acknowledgements
- Section 1 Introduction
- Section 2 Cancer Symptom Mechanisms and Models: Clinical and Basic Science
- 4 The clinical science of cancer pain assessment and management
- 5 Pain: basic science
- 5a Mechanisms of disease-related pain in cancer: insights from the study of bone tumors
- 5b The physiology of neuropathic pain
- 6 Cognitive dysfunction: is chemobrain real?
- 7 Cognitive impairment: basic science
- 8 Depression in cancer: pathophysiology at the mind-body interface
- 9 Depressive illness: basic science
- 9a Animal models of depressive illness and sickness behavior
- 9b From inflammation to sickness and depression: the cytokine connection
- 10 Cancer-related fatigue: clinical science
- 11 Developing translational animal models of cancer-related fatigue
- 12 Cancer anorexia/weight loss syndrome: clinical science
- 13 Appetite loss/cachexia: basic science
- 14 Sleep and its disorders: clinical science
- 15 Sleep and its disorders: basic science
- 16 Proteins and symptoms
- 17 Genetic approaches to treating and preventing symptoms in patients with cancer
- 18 Functional imaging of symptoms
- 19 High-dose therapy and posttransplantation symptom burden: striking a balance
- Section 3 Clinical Perspectives In Symptom Management and Research
- Section 4 Symptom Measurement
- Section 5 Government and Industry Perspectives
- Section 6 Conclusion
- Index
- Plate section
- References
Summary
Disease-related and treatment-related symptoms vary among patients with cancer, even when disease severity and treatment modality are comparable. Numerous studies document that age, gender, race/ethnicity, mood states, and other environmental factors can influence the individual's symptom experience. However, the large interindividual variation not explained by such factors suggests that genetic characteristics may contribute to the variability. Genetic variations and the differences in proteins they encode affect individuals' predispositions to symptoms and to other common diseases. As a complex process, development of cancer-related symptoms is influenced by multiple genetic variations, each of which makes a small contribution to the patient's overall symptom susceptibility.
Identifying the associations between cancer-related symptoms and common genetic variations provides several potential benefits. First, investigating the relationship between patients' genetic variations and their predispositions to certain symptoms may reveal the biological mechanisms or pathways governing symptom development. Second, determining the genotypes that are highly correlated to specific symptoms may help clinicians identify patients who have a high risk for symptom burden and who would benefit from preventive therapy. Third, using genotypes to evaluate an individual patient's sensitivity to specific treatments could enable clinicians to manage multiple symptoms by targeting underlying biological mechanisms instead of treating individual symptoms empirically (eg, stimulants for fatigue, opioids for pain). Controlling or even preventing symptoms in such a personalized way would potentially benefit thousands of cancer patients and survivors.
- Type
- Chapter
- Information
- Cancer Symptom ScienceMeasurement, Mechanisms, and Management, pp. 192 - 205Publisher: Cambridge University PressPrint publication year: 2010