Tank Exhaust
Tank Exhaust - Related Videos
09:54
Determination Of NOx in Automobile Exhaust Using UV-VIS Spectroscopy
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2023
Source: Laboratories of Margaret Workman and Kimberly Frye - Depaul University In the troposphere, ozone is naturally formed when sunlight splits nitrogen dioxide (NO2): NO2 + sunlight → NO + O O + O2 → O3 Ozone (O3) can go on to react with nitric oxide (NO) to form nitrogen dioxide (NO2) and oxygen: NO + O3 → NO2 + O2 This results in no net gain of ozone (O3). However, with the anthropogenic production of ozone forming precursors (NO, NO2, and volatile organic compounds) through the combustion...
08:21
Non-invasive Assessments of Subjective and Objective Recovery Characteristics Following an Exhaustive Jump Protocol
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Cited by 7 •
2017
This protocol describes the procedure for non-invasive recovery assessments during a 72 h recovery period. This protocol induces muscular exhaustion of the frontal thighs using countermovement jumps and uses either local cold-cuff or thermoneutral-cuff application as a recovery modality.
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.
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.
08:36
Neurotoxicity Assessment in Adult Danio rerio using a Battery of Behavioral Tests in a Single Tank
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Cited by 3 •
2023
Here, we present a comprehensive behavioral test battery, including the novel tank, Shoaling, and social preference tests, to effectively determine the potential neurotoxic effects of chemicals (e.g., methamphetamine and glyphosate) on adult zebrafish using a single tank. This method is relevant to neurotoxicity and environmental research.
FAQs
Its main control function is to let gases generated or accumulated in a tank leave through a designated pathway while helping maintain stable pressure and gas composition. In biological experiments, that stability reduces environmental variation, making growth, metabolism, and experimental responses easier to compare across conditions.
Filters can limit contamination as gases move out of the tank, helping protect cultures, aquatic organisms, and other biological samples from unwanted environmental exposure. They also support safer handling by reducing the chance that materials associated with the tank environment will spread into surrounding laboratory spaces.
Controlled airflow regulates how quickly gases enter or leave the system, which helps maintain a more consistent internal environment. This control is relevant when biological activity changes gas levels or composition, because uncontrolled exchange could make experimental conditions less stable and complicate interpretation of growth, metabolism, or treatment responses.
A suitable outlet and ventilation pathway, appropriate filtration, and controlled airflow all contribute to reproducibility. Together, these features help manage pressure, gas composition, contamination risk, and environmental variation. Their value is greatest when experiments depend on consistent tank conditions for measuring biological growth, metabolism, or responses.
A basic setup establishes a defined outlet or ventilation pathway, connects it to the tank environment, and incorporates filtration or controlled airflow when needed. The arrangement should support removal of generated or accumulated gases while preserving stable pressure and composition. This provides a controlled foundation for biological experiments and culture maintenance.
Tank exhaust is relevant to animal husbandry, microbial culture, and bioprocessing systems in which gases can accumulate or be generated during biological activity. It helps maintain environmental control while protecting samples and personnel. Researchers can therefore use it when stable tank conditions are important for managing cultures or interpreting experimental responses.
By supporting stable pressure and gas composition, the system helps researchers obtain more reliable measurements of growth, metabolism, and experimental responses. It does not replace those measurements; instead, it reduces environmental variation that could obscure biological effects. This makes observed differences easier to relate to the conditions being studied.