Hypothalamus
Hypothalamus - Related Videos
11:48
Genetic Manipulation of the Mouse Developing Hypothalamus through In utero Electroporation
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Cited by 14 •
2013
Despite the functional and medical importance of the hypothalamus, in utero genetic manipulation of its development has rarely been attempted. We show a detailed procedure for in utero electroporation into the mouse hypothalamus and show representative results of total and partial (regional) hypothalamic transfection.
01:23
Diencephalon: Hypothalamus and Coordination
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2025
The hypothalamus is a small yet highly complex and essential brain region that plays a crucial role in regulating various bodily functions. Anatomically, it is located at the base of the brain, just above the brainstem and below the thalamus, forming part of the limbic system. The hypothalamus interacts with other brain regions, including the pituitary gland, through a direct physical connection called the hypothalamic-pituitary axis. The hypothalamus receives somatic and visceral inputs and...
06:00
Cortex-, Hippocampus-, Thalamus-, Hypothalamus-, Lateral Septal Nucleus- and Striatum-specific In Utero Electroporation in the C57BL/6 Mouse
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Cited by 14 •
2016
This protocol describes in detail how to specifically transfect different regions in the C57BL/6 central nervous system via in utero electroporation. Included in this protocol are detailed instructions for transfections of regions that develop into the cortex, hippocampus, thalamus, hypothalamus, lateral septal nucleus and striatum.
11:10
Membrane Potential Dye Imaging of Ventromedial Hypothalamus Neurons From Adult Mice to Study Glucose Sensing
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Cited by 8 •
2013
The activity of single neurons from adult-aged mice can be studied by dissociating neurons from specific brain regions and using fluorescent membrane potential dye imaging. By testing responses to changes in glucose, this technique can be used to study the glucose sensitivity of adult ventromedial hypothalamic neurons.
11:45
Functional Interrogation of Adult Hypothalamic Neurogenesis with Focal Radiological Inhibition
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Cited by 8 •
2013
The function of adult-born mammalian neurons remains an active area of investigation. Ionizing radiation inhibits the birth of new neurons. Using computer tomography-guided focal irradiation (CFIR), three-dimensional anatomical targeting of specific neural progenitor populations can now be used to assess the functional role of adult neurogenesis.
FAQs
It combines neural and hormonal signals that indicate changes in body temperature, energy balance, fluid status, and stress. By comparing these signals with the body's needs, it can coordinate autonomic activity and influence pituitary hormone release. This integrated control allows multiple organ systems to respond together rather than regulating each variable through isolated pathways.
Autonomic responses allow the body to adjust organ function through neural control, while pituitary signaling alters hormone-dependent processes. Using both pathways gives hypothalamic regulation a broader range of effects across rapid physiological adjustments and longer-lasting endocrine changes. Disruption of either route can therefore produce consequences that extend beyond a single organ or hormone.
These functions depend on the hypothalamus interpreting internal signals and coordinating appropriate responses. If that regulation is disturbed, appetite may become abnormal, sleep patterns may change, and temperature control may fail to remain stable. The combination of symptoms can help connect seemingly separate clinical findings to a disturbance in central homeostatic control.
A lesion or tumor may interfere with the hypothalamus's regulation of pituitary hormone release, producing endocrine abnormalities. It may also disturb functions linked to behavior and internal-state regulation. Consequently, patients can show a mixture of hormonal changes and behavioral effects, making the location and functional role of the affected region clinically important.
Clinicians can interpret disturbances in appetite, thirst, reproduction, growth, sleep, stress responses, or temperature control as related patterns rather than unrelated complaints. Linking these findings to hypothalamic regulation helps organize the differential assessment of endocrine and homeostatic disorders. This framework is particularly relevant when symptoms suggest impaired communication between neural control and hormone release.
Hypothalamic dysfunction is clinically relevant to hormonal imbalance, obesity, diabetes insipidus, and stress-related conditions. Its importance comes from the region's influence over energy balance, fluid regulation, pituitary signaling, and stress responses. Studying these connections supports efforts to identify whether disrupted central regulation contributes to a patient's endocrine or behavioral presentation.