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The ten study sections comprising the Integrative,
Functional, and Cognitive Neuroscience [IFCN] IRG review applications within
a very wide range of neuroscience research aimed at furthering our understanding
of how the nervous system is organized and functions at an integrative,
systems level. Specific areas reviewed by the IFCN IRG include: studies of
the neural basis of emotional and motivational behavior; regulation of
function, at the systems level, by neuroendocrine and neuroimmune
influences; the analysis of system function under varying behavioral states,
such as sleep and hibernation; the basis of biological rhythms; the
maintenance of homeostasis; chemosensation,
hearing, balance, touch, somatosensation, and
visual perception; motor systems and sensorimotor
integration; the integration of multisensory
information; the neurobiological basis of learning, memory and other
cognitive processes; computational and theoretical models of cognitive processes;
mechanisms underlying neural coding of complex stimuli (e.g., pattern
recognition, spatial transformations, speech perception); and attention and
its effects on information processing in the nervous system. Research
proposed in applications reviewed by study sections in the IFCN IRG may have
relevance to disorders or disease processes, but the emphasis would be on the
effect of the process on the structure or function of the system under
investigation, rather than on the disease process itself.
In addition to this IRG, the Molecular, Cellular, and
Developmental Neuroscience [MDCN] and Brain Disorders and Clinical
Neuroscience [BDCN] IRGs within CSR focus on the review of
neuroscience-related applications, and the Biobehavioral
and Behavioral Processes [BBBP] IRG also has some shared interests with the
IFCN IRG. Please see the descriptions and shared interest statements of these
IRGs for a complete description of their review venues.
The
following study sections are included in the IFCN IRG:
Neurobiology of Motivated Behavior Study
Section [NMB] (Formerly IFCN-1)
Neuroendocrinology, Neuroimmunology,
and Behavior Study Section [NNB] (Formerly
IFCN-2)
Biological Rhythms and Sleep Study Section [BRS] (Formerly IFCN-3)
Somatosensory and Chemosensory
Systems Study Section [SCS] (Formerly
IFCN-4)
Sensorimotor Integration Study
Section [SMI] (Formerly IFCN-5)
Auditory System Study Section [AUD] (Formerly IFCN-6)
Neurobiology of Learning and Memory Study Section [LAM] (Formerly IFCN-7)
Cognitive Neuroscience Study Section [COG] (Formerly IFCN-8)
Neurotoxicology and Alcohol Study Section [NAL] (Formerly ALTX-3)
Central Visual Processing Study Section [CVP] (Formerly VISB)
IFCN Small Business Activities [SBIR/STTR] Special Emphasis
Panels [IFCN Small Business SEPs]
Behavioral Neuroscience Fellowship Study Section [F02A]
Sensory, Motor and Cognitive Neuroscience Fellowship Study
Section [F02B]
Neurobiology
of Motivated Behavior Study Section [NMB]
(Formerly IFCN-1)
The Neurobiology of Motivated Behavior [NMB] Study
Section reviews applications on the neural basis of behavior, such as
motivation and emotion. Studies include the molecular, cellular,
anatomical, genetic and neurobiological bases of motivated and emotional
behavior. Emphasis is on the neuronal circuits critical to the mediation
of positively and negatively motivated behavior.
Specific areas covered by NMB:
· Positively motivated behaviors; neural substrates
[e.g., signaling molecules, channels, transporters, receptors,
transmitters, neurons] involved in the mediation of drug and other types
of reward; circuits [e.g., mesolimbic, mesocortical-thalamic] important in
the mediation of reward and craving; mechanisms of tolerance, dependence,
withdrawal, and sensitization; as well as predisposing factors [genetic,
developmental, and environmental] leading to drug seeking and
relapse
· Stress, fear, anxiety, aggression; critical molecules
[e.g., receptors, transmitters, hormones, transporters, channels,
signaling molecules] involved in the mediation of negatively motivated
behavior; circuits [e.g., hypothalamus, hippocampus, amygdala, locus coereleus, prefrontal cortex]
important in the mediation of such behavior; mechanisms of habituation and
sensitization leading to altered responsiveness to stressful and aversive
stimuli; and predisposing factors [genetic, developmental, and
environmental] that may shape such behavior
· Feeding, drinking, sexual and other consummatory behavior; critical
molecules [e.g., receptors, transmitters, hormones, transporters,
channels, signaling molecules] involved in the mediation of such behavior;
limbic and related circuits important in the mediation of such behavior;
mechanisms of plasticity; and predisposing factors [genetic,
developmental, and environmental] which may shape such behavior; social
behavior
· Exogenous influences on neurobiological processes;
causes, correlates and consequences [including neuroadaptation] of the effects of exposure to
exogenous agents, neuropsychoactive drugs, or trauma at any
stage across the life span that focus on analysis of the organization,
structure and/or function of the mature nervous systems, rather than on
fundamental processes involved in neural induction, specification or
differentiation
· Neurobiological actions of
psychoactive/psychotherapeutic agents; molecular and cellular mechanisms
of action of psychoactive drugs on behavior; neuroanatomical circuitry
mediating the behavioral effects of psychotherapeutic drugs; influence of
genetic manipulations, perinatal manipulations, gender and
environment on the behavioral actions of psychoactive drugs
NMB has the following shared interests within the
IFCN IRG:
· NMB has shared interests with NNB. Applications
focused primarily on the neural mechanisms of behavior are appropriate for
NMB, while applications focused primarily on HPA axis and neuroimmune systems are more
appropriate for NNB.
· In general, studies of nociception/pain are reviewed by SCS. SCS
should also review applications where the neural basis of motivation and
emotion is studied in the context of smell and taste function and where
specific knowledge of these systems is essential for review.
· Studies of the structural and functional bases of
motivational and emotional behavior are appropriate for NMB, but research
on the influence of emotional and motivational processes on learning and
memory should be reviewed in LAM.
· With NAL regarding the interaction of alcohol and
toxicants and CNS function. NAL is more appropriate when the primary focus
is on alcohol or toxicant pathophysiology, but NMB should be considered
if the focus is on the effects of other substances on the neural
substrates of motivational behavior.
NMB has the following shared interests outside the
IFCN IRG:
·
With the Biobehavioral and Behavioral Processes [BBBP]
IRG: Applications with a primary research focus on
behavioral consequences rather than their neurobiological mechanisms are
more appropriate for a study section in the BBBP IRG.
·
With the Endocrinology, Metabolism, Nutrition and
Reproductive Sciences [EMNR] IRG:
Applications involving the central
nervous system with a focus on metabolic homeostasis or causes of obesity
are areas of shared interest with EMNR and could be referred to the EMNR
IRG when end points relate primarily to cellular or systemic metabolic
phenotypes or energy balance; and to NMB when the focus is on the neural
basis of ingestive
behaviors or satiety.
·
With the Renal and Urological Sciences [RUS]
IRG: Applications focusing on the central nervous system
dealing with thirst as a motivated behavior could be assigned to NMB.
Applications focusing on the central nervous system regulation of renal
function could be assigned to RUS IRG.
· With the Molecular, Cellular and Developmental
Neuroscience [MDCN] IRG: The MCDN IRG may be more appropriate for studies of
signal transduction and related processes that occur within the context of
a cell, with particular emphasis on cell electrophysiology, molecular
biophysics, and neurochemical pathways. NMB may be more appropriate for
studies in the context of integrated circuits, systems, and behavior.
Developmental studies directed at understanding the effects of early
experience on motivated and emotional behavior would be within the purview
of NMB.
·
With the Brain Disorders and Clinical Neuroscience
[BDCN] IRG: There are
shared interests between the BDCN IRG and NMB in the neurobiological bases
of motivated behaviors. If an application focuses on a clinical population
or a model of a disease state, it could be assigned to the BDCN IRG. If
the application deals with understanding underlying neurobiological
processes, it could be assigned to NMB.
[Back to Top]
Neuroendocrinology, Neuroimmunology and Behavior Study Section
[NNB]
(Formerly IFCN-2)
[NNB Roster]
The Neuroendocrinology, Neuroimmunology and Behavior [NNB] Study
Section is concerned with the neurobiological basis of behavior across the
life span, with a focus on neuroendocrine, neuropeptide, and neuroimmune systems. NNB
primarily considers research with non-human animals [vertebrates and
invertebrates], but relevant work with humans is also included. Both
normal and disordered processes are addressed. Major areas of interest
include sexual behavior, including courtship, pair bonding, and parental
behavior; ingestive
behaviors; drugs of abuse; stress; and interactions of the brain with
immune systems. Studies typically use behavioral, physiological,
pharmacological, anatomical, and developmental approaches, but may also
include molecular, cellular, or genetic approaches.
Specific areas covered by NNB:
· Reproductive behaviors and sexual differentiation;
neurobiological variables, including neuroendocrine, neurotransmitter,
genetic, and developmental factors, underlying modulation of or resulting
from reproductive behavior, including social affiliation, mate choice and
pair-bonding, courtship, sexual behavior, and parenting behaviors
· Neuroendocrine regulation of feeding and drinking;
hormones, neuropeptides,
and neurotransmitters and their receptors regulating consummatory behaviors; anatomical and
neuroendocrine efferents
regulating consummatory
behaviors and energy balance; effects of drugs, stressors and
environmental factors on this regulatory axis
· Stress; neurobiological mediators, including the
Hypothalamic-Pituitary-Adrenal [HPA] Axis, of environmental stimulation
including stressors; interaction of stress and drug effects;
neuroanatomical, genetic, metabolic, and pharmacological and hormonal
basis for such mediation; and receptors and ligands that mediate these effects; studies of
sequelae of maternal
deprivation or social isolation
· Interactions between the brain and the immune system;
structural basis and mechanisms mediating functional interactions between
brain and immune systems; effects of cytokines and chemokines on the nervous system; effects of
manipulations [behavioral, neural, neuropharmacological, stress, etc.] on
immune system function; brain mechanisms of fever
· Neuroendocrine interactions in drug seeking;
neuroendocrine responses to or influences on the effects of psychotropic
drugs and environmental factors; neuroendocrine influences on drug-taking
and addiction
· Plasticity; development, maturation, and aging of the
neuroendocrine and immune systems that regulate brain and behavior,
including the plasticity and genesis of these systems
· Other areas, including: biological basis of
behavioral polymorphisms, especially sexual dimorphisms and the biological
factors underlying aggression, anxiety, etc. using animal models
NNB has the following shared interests within the
IFCN IRG:
· There are shared interests between NMB and NNB in
terms of the phenomena [ingestive behaviors, reproductive behavior,
etc.] being investigated. Applications focused primarily on the neural
mechanisms of behavior, specifically those where there is a greater focus
on neuropharmacology of neurotransmitter systems and/or on elucidating
neuroanatomical pathways, are more appropriate for NMB. Applications
focused primarily on neuroendocrine and neuroimmune systems are more appropriate for
NNB.
· Studies of neuroendocrinological basis of circadian and
circannual rhythms in
behavior may be reviewed in BRS. Studies of neuroimmunological factors in sleep regulation
and of homeostatic temperature regulation could also be reviewed in BRS,
whereas studies of neural mechanisms of fever production, such as in
infection, are typically reviewed in NNB.
· Studies of the effect of neurohormones on neurobiological events
related to learning and memory are reviewed in LAM.
· With NAL with respect to the interaction of alcohol
and CNS function. NAL is more appropriate when the primary focus is on
alcohol or toxicant pathophysiology, but NNB should be considered
if neuroendocrine
interactions are involved.
NNB has the following shared interests outside the
IFCN IRG:
· With the Biobehavioral and Behavioral Processes [BBBP]
IRG:
There is shared interest with the BBBP IRG in the areas of feeding,
drinking and other ingestive behaviors, social affiliation,
communication, sexual behavior, courtship, parenting, stress, and
aggression. Studies in which the primary research focus is behavioral are
more appropriate for a BBBP study section, while such studies in the
context of neurobiology are more appropriate for NNB.
·
With the Immunology [IMM] IRG: Neuroimmunology, including studies of inflammation and innate
immunity in the nervous system, is an area of shared interest. Studies of
neuroendocrine alteration
of the immune response are also a shared area. Applications
focusing on nerve function may be assigned to IFCN. Applications
focusing on immune function or altered immune function may be assigned to
IMM.
·
With the Cardiovascular Sciences [CVS]
IRG: Studies of neural and humoral control of cardiac or circulatory
function, including neuropeptide control of blood pressure or
cardiac response to physiological stress, may be assigned to the CVS
IRG.
Applications concerned with the neurobiological basis of behavior
with a focus on the role of the neuroendocrine, neuropeptide, and neuroimmune systems in stress, maybe assigned
to the NNB Study Section.
·
With the Endocrinology, Metabolism, Nutrition and
Reproductive Sciences [EMNR] IRG: NNB has shared interests with the EMNR IRG in the
area of neuroendocrinology.
NNB generally should be considered when the focus is neural systems and
processes underlying behavior, such as sexual behavior, mate choice,
aggression, etc. NNB should also be considered for applications dealing
with the HPA axis and stress. Studies involving neuroendocrine structures
[pituitary, adrenal, hypothalamus] where the focus is primarily on
the synthesis, release, and regulation of hormones of the HPA, HPT, or HPG
axes, such as studies of LH surge or control of ACTH secretion, should be
reviewed in the EMNR IRG.
·
With the Renal and Urological Sciences [RUS]
IRG: Applications focusing on the central nervous system
dealing with the neuroendocrine mechanisms underlying thirst could be
assigned to NNB. Applications focusing on the central nervous system
regulation of renal function could be assigned to RUS IRG.
[Back to Top]
Biological Rhythms and Sleep
Study Section [BRS]
(Formerly IFCN-3)
[BRS Roster]
The Biological Rhythms and Sleep [BRS] Study
Section reviews applications in a number of areas of integrative,
regulatory and behavioral neuroscience across the life span relating
primarily to sleep, biological rhythms, and certain homeostatic processes.
BRS primarily considers research with non-human animals [vertebrates and
invertebrates], but relevant work with humans is also included. Areas of
interest include behavioral states, such as wakefulness, sleep,
hibernation and variations in arousal level; biological rhythms, including
temporal cycles such as ultradian, circadian, infradian and circannual rhythms; and regulatory mechanisms
underlying homeostasis, including thermoregulation and other functions of
the autonomic nervous system. Applications on the relationship of drug
administration, use, and withdrawal on homeostasis are reviewed here.
Levels of analysis include genetic/molecular studies, cellular and circuit
studies, neurobehavioral and neuropharmacological investigations, and
behavioral studies of the whole organism. Emphasis is on integrative
studies of mechanisms, functions, or neurobehavioral manifestations in
whole organisms, but may include studies of other preparations [slices,
explants, cell cultures, single cells, etc.].
Specific areas covered by BRS:
· Circadian rhythms, primarily studies of daily rhythms
in activity or sleep-wakefulness; pacemaker mechanisms and properties;
neuroanatomical pathways and mechanisms of entrainment and phase shifts;
pacemaker output pathways, mechanisms and consequences; feedback effects;
pharmacologic, physiologic, and endocrine interactions; pathophysiology and treatment of circadian
disorders; circadian variation in drug efficacy and toxicity; and
development and manifestation of circadian processes over the life span.
Also included are applied studies of shift work, light-induced phase
shifts, and other disturbances or manipulations of circadian rhythmicity; mechanisms and
functions of pulsatile
neurosecretion of hormones
[e.g., melatonin] involved in circadian rhythms; identification of neural
pulse generators
· Seasonal and circannual rhythms, including hibernation,
reproductive rhythms, etc.
· Basic integrative mechanisms of sleep generation and
maintenance. Neuroanatomical and organismal studies of the neural processes
which generate sleep; development and manifestation of these processes
over the life span; animal models; sleep deprivation; interaction of sleep
and circadian rhythmicity;
interaction of the endocrine and/or immune systems and sleep.
· Neural mechanisms underlying arousal level,
attention, and wakefulness
· Oscillatory mechanisms; cellular and circuit analysis
of oscillatory systems, such as thalamocortical rhythmicity
· Mechanisms underlying homeostasis, including
thermoregulation and other functions of the autonomic nervous and immune
systems
BRS has the following shared interests within the
IFCN IRG:
· Studies of neuroendocrinological basis of circadian and
circannual rhythms in
behavior, as well as studies of neuroimmunological factors in sleep
regulation, should be reviewed in BRS. Studies of homeostatic temperature
regulation also should be reviewed in BRS, whereas studies of neural
mechanisms of fever production, such as in infection, are reviewed in NNB.
·
Rhythmicity in the sensitivity of somatosensory and chemical sensory systems may
be assigned to SCS. When the focus is on general processes
underlying rhythmicity then
the application could be assigned to BRS.
·
Studies of the effect of sleep and/or sleep
deprivation on neurobiological events related to learning and memory are
reviewed in LAM.
BRS has the following shared
interests outside the IFCN IRG:
·
With the Cell Biology [CB[ IRG:
Studies focused on the effects of light at the level
of the retina could be reviewed within Biology and Diseases of the
Posterior Eye [BDPE] study section in the CB IRG. Studies
focused on the effects of light at the level of circadian rhythms could be
reviewed within BRS.
·
With the Biobehavioral and Behavioral Processes [BBBP]
IRG: Studies of neural mechanisms underlying arousal
level, attention, and wakefulness may be assigned to BRS, whereas
behavioral studies may be assigned to the BBBP IRG.
·
With the Endocrinology, Metabolism, Nutrition and
Reproductive Sciences [EMNR] IRG: The EMNR IRG has shared interests with BRS in the
broad area of biorhythms from pulsatile secretion to circadian and circannual rhythms. Applications
focused on hormonal modulation of pulsatile secretion [e.g., LH surge] or role
of pulsatile secretion in
reproductive cyclicity
would most likely be reviewed in the EMNR IRG. Applications focused on
clock genes, SCN, or melatonin could be reviewed in BRS.
·
With the Respiratory Sciences [RES]
IRG: Basic neural mechanisms of sleep and circadian
rhythms are most appropriate for the BRS, but studies concerning the
neurobiological impact of sleep on breathing could be reviewed by the RES
IRG.
Studies of neural and humoral control of respiration are reviewed in
the RES IRG.
· With the Molecular, Cellular and Developmental
Neuroscience [MDCN] IRG: The MDCN IRG may be more appropriate for studies of
signal transduction and related processes that occur within the context of
a cell, with particular emphasis on cell electrophysiology, molecular
biophysics, and neurochemical pathways. BRS may be more appropriate for
studies in the context of integrated circuits, systems, and
behavior.
· With the Brain Disorders and Clinical Neuroscience
[BDCN] IRG: Studies dealing with basic homeostatic control
of sleep and circadian or biological systems and other integrative
functions of the autonomic nervous system should be reviewed in BRS.
Studies dealing with clinical or patient-oriented studies of sleep
disorders and treatment, where the focus is on the disorder and not neural
processes, should be
reviewed by the BDCN IRG.
[Back to Top]
Somatosensory and Chemosensory Systems Study
Section [SCS]
(Formerly IFCN-4)
[SCS Roster]
The Somatosensory and Chemosensory
Systems [SCS] Study Section reviews research on the anatomy,
physiology and psychophysics of chemosensory, pain, analgesia and somatosensory systems in animals
and humans. In addition, drug mechanisms and effects are reviewed as they
pertain to pain and analgesia. The emphasis is on integrative systems
approaches to understanding normal sensory function; dysfunction; development,
maturation and aging; recovery from injury; perceptual and sensory
perturbations.
Specific areas covered by SCS:
· Chemosensation; olfaction, taste, vomeronasal and trigeminal chemosensory
systems. Approaches include: neuroanatomy, physiology, neurobehavior, transduction, model systems,
transmitters/receptors, perireceptor mechanisms, odorant binding
proteins, plasticity [adaptive and maladaptive], peripheral afferents,
sensory receptors, pharmacology, psychophysics, transduction, modulation,
sensory discrimination, computational modeling, and correlates of
nutrition.
· Pain and analgesia; anatomy, physiology of nociceptive pathways, imaging,
pharmacology, critical molecules [e.g., receptors, neurotransmitters,
transporters, channels, signaling molecules, growth factors], model
systems, transduction, plasticity, genetics, development,
psychophysiology, experimental therapeutics, sensitization, modulation,
induction of gene expression, neurogenic inflammation, response to tissue
and nerve injury, growth factors, cytokines, sympathetic nervous system,
and neuropathies. Mediation and modulation of nociception; critical circuits [spinal and
supraspinal] important in
the mediation of pain responsiveness and analgesia; mechanisms of
tolerance and sensitization to repeated noxious stimuli; and predisposing
factors [genetic, developmental, and environmental] that may shape nociception and anti-nociception
· Touch and vibrotactile sensation; neurobiological
aspects of somesthesis,
including touch, temperature, and vibrotactile sensation, neurophysiology,
peripheral afferents, pharmacology, psychophysics, transduction,
modulation, and sensory discrimination, receptors, transmissions,
plasticity [adaptive and maladaptive] and development
SCS has the following shared interests within the
IFCN IRG:
·
NNB is concerned with afferent [e.g., nociceptive, visceral, mechanoreceptive] control of
autonomic nervous systems, while SCS focuses on the sensory function of
such inputs.
·
Rhythmicity in the sensitivity of somatosensory and chemical sensory systems may
be assigned to SCS. When the focus is on general processes
underlying rhythmicity then
the application could be assigned to BRS.
·
SCS is concerned with the role of sensory inputs in
sensation and perception, while SMI is concerned with their roles in motor
control.
·
Studies intended to elucidate the neurobiological
mechanisms underlying cognition are appropriate for COG. Studies intended
to elucidate mechanisms of somatosensory functions are more appropriate
for SCS.
SCS has the following shared interests outside the
IFCN IRG:
·
With the Risk, Prevention and Health Behavior [RPHB]
IRG: Studies focused on neural mechanisms of pain should
be assigned to SCS. Applications that focus on individuals coping with
pain would be assigned to the RPHB IRG.
·
With the Biobehavioral and Behavioral Processes [BBBP]
IRG: Studies focused on neural mechanisms underlying chemosensation, pain and
analgesia, and somatosensation are appropriate for SCS.
Studies focused on behavioral consequences are more appropriate for the
BBBP IRG.
·
With the Oncological Sciences [ONC]
IRG: Studies focused on neural mechanisms of pain could
be assigned to SCS. If the focus is on oncology and pain is a part of the
spectrum of issues being considered, the application could be assigned to
the ONC IRG.
·
With the Musculoskeletal,
Oral and Skin Sciences [MOSS] IRG: Studies
focused on neural mechanisms of musculoskeletal and oral pain should be
assigned to SCS. When the primary focus is on musculoskeletal and oral
diseases, disorders, treatment or rehabilitation, the application would be
assigned to the MOSS IRG.
·
With the Renal and Urological Sciences [RUS]
IRG: There is a shared interest in neuronal mechanisms of
pain in conditions such as interstitial cystitis and prostatitis. Applications focusing on the encoding
or modulation of pain in the nervous system could be assigned to the
SCS.
Applications on the central nervous system regulation of urological
function where pain is not the central focus could be assigned to the RUS
IRG.
·
With the Surgical Sciences, Biomedical Imaging, and
Bioengineering [SBIB] IRG: Studies focused on neural mechanisms of pain and
analgesia should be assigned to SCS. Studies of pain and analgesia in the
context of surgery or anesthesiology should be assigned to SBIB IRG.
·
With the Molecular, Cellular and Developmental
Neuroscience [MDCN] IRG: The MDCN IRG may be more appropriate for studies of
signal transduction and related processes that occur within the context of
a cell, with particular emphasis on cell electrophysiology, molecular
biophysics, and neurochemical pathways. SCS may be more appropriate for
studies in the context of integrated circuits, systems, and
behavior. The MDCN IRG reviews applications where a sensory
system is being used as a model to study principles of nervous system
development, as contrasted with a focus on the sensory system itself, in
which SCS could be more appropriate.
·
With the Brain Disorders and Clinical Neuroscience
[BDCN] IRG: SCS has shared interests with the BDCN IRG in the
areas of sensory system injury, sensory neuropathy, and disorders that
affect sensory systems. In general, applications reviewed by the BDCN IRG
focus on diseases and pathological processes; however, applications
focused on consequences of sensory system injury or neuropathy specific to
chemosensation should be
reviewed in SCS.
[Back to Top]
Sensorimotor Integration Study Section [SMI]
(Formerly IFCN-5)
[SMI Roster]
The Sensorimotor Integration [SMI] Study Section
reviews applications concerned with the structure and function of motor,
sensorimotor and vestibular
systems. Emphasis is on integrative systems approaches to understanding
neural substrates of sensorimotor integration, motor function and
balance, as well as the effects of pathophysiological insults on the operation of
these systems and recovery from such insults.
Specific areas covered by SMI:
· Motor systems; anatomy, physiology,
transmitters/receptors, imaging, model systems, molecular biology,
plasticity [adaptive and maladaptive], development [systems], locomotor
pattern generators, proprioception, neurophysiology, motor
control, pyramidal and extrapyramidal systems, basal ganglia,
movement disorders, and computational models of motor systems; neural
mechanisms underlying the formation of sounds.
· Sensorimotor integration; anatomy, physiology,
transmitters/receptors, imaging, model systems, molecular biology,
plasticity [adaptive and maladaptive], and development [systems];
integration of the sensory [e.g., vestibular, visual, auditory, somatosensory] and motor
components of movement and balance control; their neural basis and
function in behavioral control systems
· Vestibular systems: anatomy, physiology and
biomechanics of the coordination of the motoric [as opposed to the perceptual and
cognitive] aspects of balance and spatially directed motor performance;
motoric aspects of the
vestibulo-ocular, vestibulospinal, and postural
control reflexes
SMI has the following shared interests within the
IFCN IRG:
· With SCS, which is concerned with the role of sensory
inputs in sensation and perception. SMI looks at their roles in motor
control.
· Applications addressing vestibular components of
neuro-otological disorders
are reviewed in AUD. When the question is vestibular-motor
integration in balance the applications should be assigned to
SMI.
· COG has shared interests with SMI in the area of
neural coding and integration mechanisms. Studies intended to elucidate
the neurobiological mechanisms underlying cognition are appropriate for
COG. Studies intended to elucidate the mechanisms underlying motor, sensorimotor or balance functions
are more appropriate for SMI.
· CVP reviews applications whose principal focus is on
the role of visual and vestibular input in the control of eye movements,
whereas SMI is appropriate for applications that utilize the
vestibular-ocular reflex as a means to study vestibular mechanisms.
SMI has the following shared interests outside the
IFCN IRG:
·
With the Biology of Development and Aging [BDA]
IRG: Applications with a primary focus on aging studies of
motor movement integration could be assigned to SMI. Aging
aspects of motor movement integration could be assigned to the BDA IRG
when the studies transcend single organ systems or disciplines.
·
With the Biobehavioral and Behavioral Processes [BBBP]
IRG: In general, applications focusing primarily on
development and control of motor behaviors, without in-depth concern with
neurophysiological systems,
are most appropriate for the BBBP IRG. Applications that rely on neurophysiological approaches to
investigate neural substrates of motor behaviors and sensorimotor integration are best reviewed in
SMI.
·
With the Musculoskeletal, Oral and Skin Sciences
[MOSS] IRG: Studies of neural control of normal biological motor
function, particularly when the study is on neural structures, could be
assigned to SMI. When the primary focus is on the role of skeletal
muscle force production, assignment may be to the MOSS IRG. If the
application addresses rehabilitation, electromyography, or neural
prostheses for restoration of body movement, then the MOSS IRG may also be
appropriate.
·
With the Respiratory Sciences [RES]
IRG: Studies of respiratory rhythm generation are most
appropriately assigned to RES IRG, but could also be assigned to SMI when
the major emphasis is on basic neural mechanisms of central pattern
generators versus respiratory rhythm generation. There may be shared
interests in the control of airway muscle.
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