Neurobiological Factors
Neurobiological Factors - Related Videos
09:24
An Introduction to Developmental Neurobiology
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2023
Developmental neuroscience is a field that explores how the nervous system is formed, from early embryonic stages through adulthood. Although it is known that neural progenitor cells follow predictable stages of proliferation, differentiation, migration, and maturation, the mechanisms controlling the progression through each stage are incompletely understood. Studying development is not only important for understanding how complex structures are assembled, but also for characterizing and...
07:59
Using a Comparative Species Approach to Investigate the Neurobiology of Paternal Responses
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Cited by 2 •
2011
The comparative species approach allows behavioral neuroscientists to explore various neurobiological factors associated with specific behaviors viewed as characteristic of a specific animal model. Taking advantage of naturally occurring differences in behavior between closely related species, this technique doesn’t require invasive techniques to manipulate the expression of the behavior.
09:25
Placing Growth Factor-Coated Beads on Early Stage Chicken Embryos
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Cited by 2 •
2007
A variety of growth factors and proteins interact to induce cells to take on different cell fates during development. Here we demonstrate the use of an in ovo preparation to address possible interactions between different proteins in development by placing beads on E2.5 chick embryos.
07:46
Using the Activity-based Anorexia Rodent Model to Study the Neurobiological Basis of Anorexia Nervosa
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Cited by 42 •
2015
Here we present a protocol to induce activity-based anorexia (ABA) in female adolescent mice. ABA is a condition of hyperactivity evoked by imposing food restriction on rodents with access to a running wheel. This phenomenon is being used as a model to study the underlying neurobiology of anorexia nervosa.
03:54
Zebrafish Brain Dissection: A Technique of Fish Neurobiology
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2023
This video describes the technique of microdissection of the brain from an adult zebrafish. This method helps in obtaining whole brain derived neuorospheres that can be studied further.
FAQs
Neurobiological factors influence psychological outcomes through interacting systems rather than through one biological variable acting alone. Brain circuits, neurotransmitters, hormones, genetic variation, and nervous-system activity can affect one another while responding to internal and external conditions. This interaction helps explain why the same situation may produce different patterns of cognition, emotion, or behavior across individuals.
Neurotransmitters support communication between neurons, while hormones contribute biological signals that can alter how the organism responds to conditions. Their effects become psychologically meaningful when considered alongside brain circuits and nervous-system activity. Examining these components together can help researchers relate biological signaling to motivation, stress, emotion, and cognition without treating any single chemical signal as a complete explanation.
Genetic variation can contribute to differences in how psychological functions develop or respond to biological and environmental conditions. It is therefore examined as one factor within a broader system that also includes circuits, signaling, hormones, and nervous-system activity. In psychology, this perspective supports investigation of risk factors while avoiding the assumption that genes alone explain behavior or mental health.
Circuits coordinate activity across connected neural regions, and nervous-system activity provides a changing biological context for psychological responses. Patterns in these systems can be examined in relation to learning, memory, emotion, or behavior. This approach shifts attention from isolated structures to communication and activity across the system, helping researchers connect observable psychological functions with underlying biological processes.
Researchers can combine brain imaging, physiological measurement, and genetic analysis with observations of behavior or psychological performance. These methods provide complementary information about biological processes, bodily responses, and genetic variation. Comparing those findings with cognition, emotion, or behavior allows studies to investigate associations between neurobiological activity and psychological functions, including possible risk factors or treatment mechanisms.
Such an approach is useful when the research question concerns how biological activity relates to learning, memory, or motivation. Investigators can examine these functions alongside brain circuits, neurotransmitters, hormones, genetic variation, or nervous-system activity, then compare the biological findings with observable behavior. The resulting evidence helps connect psychological concepts to mechanisms that operate within the nervous system.
This perspective can help identify biological patterns associated with stress responses or mental health conditions and clarify how those patterns relate to psychological functioning. Researchers may integrate biological measurements with behavioral or emotional observations to study possible risk factors and treatment mechanisms. The biological level therefore adds context for understanding how psychological functions change across conditions and interventions.
Because biological characteristics can vary among individuals, studying them may support individualized approaches to psychological care. Researchers can use genetic analysis, physiological measurement, or brain imaging alongside psychological information to investigate differences in risk factors and treatment mechanisms. The goal is to relate a person’s biological profile to observable psychological functions rather than assuming one explanation or intervention applies equally to everyone.