Sleep Pharmacogenetics: Personalized Sleep-Wake Therapy.
Study Goal
The researchers aimed to review the impact of genetic variants on drug response and the potential for personalized sleep-wake therapies, including melatonin.
Results Summary
The abstract highlights melatonin as an important neuromodulator in sleep-wake regulation but does not provide specific findings on its efficacy or safety. It emphasizes the need for pharmacogenomic investigations to optimize sleep-wake therapies.
Population
Genetically engineered animal models, healthy volunteers, and sleep-disordered patients.
Effective Dosage
Not specified
Duration
Not specified
Interactions
None mentioned
| Intervention | Direction | Endpoint | Population | Dosage | Impact | Claim # |
|---|---|---|---|---|---|---|
dopamine | neutral | regulation and maintenance of sleep-wake-dependent changes in neuronal activity and the sleep-wake continuum | genetically engineered animal models, healthy volunteers, and sleep-disordered patients | - | identified as important players | #1 |
serotonin | neutral | regulation and maintenance of sleep-wake-dependent changes in neuronal activity and the sleep-wake continuum | genetically engineered animal models, healthy volunteers, and sleep-disordered patients | - | identified as important players | #2 |
norepinephrine | neutral | regulation and maintenance of sleep-wake-dependent changes in neuronal activity and the sleep-wake continuum | genetically engineered animal models, healthy volunteers, and sleep-disordered patients | - | identified as important players | #3 |
histamine | neutral | regulation and maintenance of sleep-wake-dependent changes in neuronal activity and the sleep-wake continuum | genetically engineered animal models, healthy volunteers, and sleep-disordered patients | - | identified as important players | #4 |
hypocretin | neutral | regulation and maintenance of sleep-wake-dependent changes in neuronal activity and the sleep-wake continuum | genetically engineered animal models, healthy volunteers, and sleep-disordered patients | - | identified as important players | #5 |
melatonin | neutral | regulation and maintenance of sleep-wake-dependent changes in neuronal activity and the sleep-wake continuum | genetically engineered animal models, healthy volunteers, and sleep-disordered patients | - | identified as important players | #6 |
glutamate | neutral | regulation and maintenance of sleep-wake-dependent changes in neuronal activity and the sleep-wake continuum | genetically engineered animal models, healthy volunteers, and sleep-disordered patients | - | identified as important players | #7 |
acetylcholine | neutral | regulation and maintenance of sleep-wake-dependent changes in neuronal activity and the sleep-wake continuum | genetically engineered animal models, healthy volunteers, and sleep-disordered patients | - | identified as important players | #8 |
γ-amino-butyric acid | neutral | regulation and maintenance of sleep-wake-dependent changes in neuronal activity and the sleep-wake continuum | genetically engineered animal models, healthy volunteers, and sleep-disordered patients | - | identified as important players | #9 |
adenosine | neutral | regulation and maintenance of sleep-wake-dependent changes in neuronal activity and the sleep-wake continuum | genetically engineered animal models, healthy volunteers, and sleep-disordered patients | - | identified as important players | #10 |
dysregulation of these neurochemical systems | increase | sleep-wake disorders | - | - | leads to | #11 |
most currently available pharmacological treatments | neutral | sleep-wake disorders | - | - | are symptomatic rather than causal | #12 |
most currently available pharmacological treatments | neutral | treatment outcomes | - | - | beneficial and adverse effects are often variable and in part genetically determined | #13 |
known genetic variants affecting exposure of and sensitivity to drugs targeting the neurochemistry of sleep-wake regulation | neutral | personalized medicine with present and future sleep-wake therapeutics | - | - | review the impact of | #14 |
many functional polymorphisms | neutral | drug response phenotypes relevant for sleep | - | - | modify | #15 |
human sleep pharmacogenetics | neutral | personalized sleep-wake therapy | - | - | should be complemented with | #16 |
pharmacogenomic investigations | neutral | personalized sleep-wake therapy | - | - | should be used to complement | #17 |
research about sleep-wake-dependent pharmacological actions | neutral | personalized sleep-wake therapy | - | - | should be used to complement | #18 |
studies in mice lacking specific genes | neutral | personalized sleep-wake therapy | mice | - | should be used to complement | #19 |
epigenetic mechanisms affecting sleep-wake physiology and treatment outcomes | increase | potent and safe novel therapies | sleep-disordered patients (e.g., in aged populations) | - | may lead to | #20 |
Research spanning (genetically engineered) animal models, healthy volunteers, and sleep-disordered patients has identified the neurotransmitters and neuromodulators dopamine, serotonin, norepinephrine, histamine, hypocretin, melatonin, glutamate, acetylcholine, γ-amino-butyric acid, and adenosine as important players in the regulation and maintenance of sleep-wake-dependent changes in neuronal activity and the sleep-wake continuum. Dysregulation of these neurochemical systems leads to sleep-wake disorders. Most currently available pharmacological treatments are symptomatic rather than causal, and their beneficial and adverse effects are often variable and in part genetically determined. To evaluate opportunities for evidence-based personalized medicine with present and future sleep-wake therapeutics, we review here the impact of known genetic variants affecting exposure of and sensitivity to drugs targeting the neurochemistry of sleep-wake regulation and the pathophysiology of sleep-wake disturbances. Many functional polymorphisms modify drug response phenotypes relevant for sleep. To corroborate the importance of these and newly identified variants for personalized sleep-wake therapy, human sleep pharmacogenetics should be complemented with pharmacogenomic investigations, research about sleep-wake-dependent pharmacological actions, and studies in mice lacking specific genes. These strategies, together with future knowledge about epigenetic mechanisms affecting sleep-wake physiology and treatment outcomes, may lead to potent and safe novel therapies for the increasing number of sleep-disordered patients (e.g., in aged populations).