Parotid Glands
Parotid Glands - Related Videos
05:04
An Ultrasound-Guided Injection of Therapeutic Drugs into Human Salivary Glands
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2025
The video demonstrates an ultrasound-guided injection technique for administering therapeutic drugs into the salivary glands of a human patient.
07:38
Radiation Treatment of Organotypic Cultures from Submandibular and Parotid Salivary Glands Models Key In Vivo Characteristics
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Cited by 5 •
2019
Using three-dimensional organotypic cultures to visualize morphology and functional markers of salivary glands may provide novel insights into the mechanisms of tissue damage following radiation. Described here is a protocol to section, culture, irradiate, stain, and image 50–90 μm thick salivary gland sections prior to and following exposure to ionizing radiation.
03:50
Retrograde Parotid Gland Infusion through Stensen's Duct in a Non-Human Primate for Vectored Gene Delivery
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2021
Salivary glands have been proposed as a tissue target site for gene therapy, especially in the area of vaccination by gene transfer. We demonstrate gene delivery in a non-human primate model utilizing retrograde parotid infusion.
05:18
Cannulation of the Mouse Submandibular Salivary Gland via the Wharton's Duct
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Cited by 17 •
2011
A protocol for the cannulation of the mouse submandibular salivary gland via the Wharton's duct is described. For this experiment, the trypan blue solution is used as a dyer to demonstrate how this technique effectively delivers infusions into the targeted gland, and to suggest the reliability of this new approach as a potential clinical drug/cell therapy for the regeneration of salivary glands.
05:13
Gastric Fundic Glands Isolation: A Method to Isolate Fundic Glands from Human Stomach Tissue
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2023
This video describes a method to isolate gastric epithelial cells from the human fundic tissue. The isolated epithelial cells can be used as an in vitro model to study their regulatory roles in gastric physiology and pathophysiology.
FAQs
Acinar cells determine the initial character of parotid secretion. These specialized secretory cells release a watery fluid rich in enzymes, creating a starting product that can support digestive activity and oral lubrication. Studying them highlights how epithelial cells become organized for exocrine secretion, in which products move out of a gland through a duct rather than into the bloodstream.
The duct network does more than transport saliva. Before the secretion reaches the mouth, it modifies its electrolyte composition, so the final fluid differs from the material first released by acinar cells. This two-stage arrangement lets biology researchers distinguish secretory activity from ductal processing and examine how coordinated epithelial regions shape the properties of an exocrine product.
Autonomic stimulation links gland activity to feeding. During eating, autonomic signals increase salivary flow, coordinating secretion with a period when lubrication and digestive support are especially useful. This relationship gives researchers a way to connect nervous-system regulation with exocrine physiology, rather than treating saliva production as a constant process independent of behavioral or physiological conditions.
Parotid glands provide a clear example of how epithelial regions can perform different, coordinated tasks within one organ. Acinar cells produce the initial secretion, while the duct system processes its electrolyte composition before release. This organization helps explain how cellular specialization and tissue architecture work together to produce a regulated exocrine function.
A focused investigation could examine acinar secretion, ductal modification, salivary flow, and autonomic regulation as connected parts of one system. Comparing these features helps separate production of the fluid from its later processing and control. The resulting framework can relate cellular structure to secretion, digestive physiology, lubrication, and oral health without treating them as unrelated functions.
Their activity connects specialized cells and epithelial organization with whole-body digestive physiology. Enzyme-rich saliva begins as a cellular secretion, passes through ducts that alter its electrolyte composition, and reaches the mouth during regulated increases in flow. This sequence allows biology studies to connect microscopic gland structure with digestion, lubrication, and the maintenance of oral conditions.
Research on parotid glands can address inflammation, infection, obstruction, and glandular tumors. These conditions are relevant because they may be studied in relation to the gland's secretory cells, duct system, regulated flow, or overall tissue organization. Examining those links helps place parotid biology within broader investigations of gland function and abnormal glandular processes.