Reservoir Tank
Reservoir Tank - Related Videos
01:30
Reservoir of Infection
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2026
Infectious diseases arise from intricate interactions between pathogens and their reservoirs. A reservoir of infection refers to the natural habitat where a pathogen lives, grows, and multiplies, serving as a continual source of infection. Reservoirs are broadly classified as either living or nonliving, and each plays a unique role in disease transmission, significantly influencing public health interventions and control strategies.Humans act as reservoirs for a wide array of pathogens,...
01:10
Veins as Blood Reservoirs
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2024
Veins, while chiefly responsible for circulating blood back to the heart, also function as storage vessels for blood. They house approximately 64 percent of the body's total blood volume, a feat made possible by their high capacitance—the inherent ability to expand and accommodate large volumes of blood, even under low pressure. The large diameter and thin walls of veins augment their distensibility, significantly more so than arteries, due to their classification as capacitance vessels. When...
02:32
Novel Tank Diving Assay: A Method to Study Innate Stress Responses in Zebrafish
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2023
The article describes a behavioral method to assess stress in zebrafish. In response to stress, zebrafish tends to swim at bottom of a tank until stress is removed. The sample protocol describes stepwise method for performing the assay.
10:38
Measurement of the Rheology of Crude Oil in Equilibrium with CO2 at Reservoir Conditions
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Cited by 2 •
2017
A method for measuring the rheology of crude oil in equilibrium with carbon dioxide at reservoir conditions is presented.
05:47
Do-It-Yourself Device for Recovery of Cryopreserved Samples Accidentally Dropped into Cryogenic Storage Tanks
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Cited by 5 •
2012
Here we present a low cost, durable cryotolerant device for sample retrieval from Dewar tanks filled with liquid nitrogen. The ease of construction and modular design of the device makes the process of sample retrieval from cryogenic tanks safe and easy.
FAQs
Gravity-driven delivery depends on the tank’s position and the pressure produced by the liquid column, whereas a pump actively moves liquid through the system. Hydrostatic pressure can support flow even without continuous pumping. Selecting among these mechanisms affects how consistently liquid reaches the receiving component and how easily researchers regulate delivery for a biological experiment.
Valves regulate when and how much liquid leaves the tank, while tubing provides the route to the receiving part of the system. Level sensors track the amount remaining and can help maintain a stable volume during operation. Together, these components improve control over delivery and make repeated or continuous fluid exchange more reproducible.
Tank design can influence sterility, mixing, oxygen exposure, temperature control, and the reproducibility of biological conditions. For example, the way liquid is contained and delivered determines how consistently the culture or experimental system receives fluid. These design-related effects matter when small changes in the surrounding medium could alter the performance or interpretation of a biological process.
A typical workflow places the required liquid in the vessel, connects tubing to the receiving part of the system, and establishes delivery through gravity, hydrostatic pressure, or a pump. Valves are then used to regulate flow, while level sensors can monitor volume. The system’s design should also support the required sterility, mixing, oxygen, and temperature conditions.
Researchers may use one when a system requires culture media distribution, perfusion, aquaculture support, or continuous or repeated fluid exchange. In these settings, storing an available liquid supply simplifies delivery to another component and helps maintain controlled operating conditions. The approach is especially relevant when uninterrupted or repeatable fluid availability is important to the biological process.
By combining controlled delivery with valves, tubing, and level sensors, the system can help maintain more stable liquid volume and flow. Its design also affects mixing, oxygen exposure, temperature control, and sterility. Monitoring these features supports more reproducible biological conditions, which is valuable when comparing experiments or maintaining a process over repeated fluid exchanges.