Laboratory Incubations
Laboratory Incubations - Related Videos
07:50
Construction of a Low-cost Mobile Incubator for Field and Laboratory Use
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Cited by 18 •
2019
This paper describes a method for building an adaptable, low-cost and transportable incubator for microbial testing of drinking water. Our design is based on widely available materials and can operate under a range of field conditions, while still offering the advantages of higher-end laboratory-based models.
08:39
Simulating Temperature in a Soil Incubation Experiment
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Cited by 1 •
2022
Laboratory soil warming experiments usually employ two or more constant temperatures in multiple chambers. By presenting a sophisticated environmental chamber, we provide an accurate temperature control method to imitate the magnitude and amplitude of in situ soil temperature and improve the experimental design of soil incubation studies.
03:30
A Technique for the Prolonged Incubation of Neuronal Tissue of the Retina
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2025
This video demonstrates a method for prolonged incubation of neuronal tissue of the retina. Eyecups containing retina are obtained from a mouse eye; the inner limiting membrane (ILM) is enzymatically digested to expose the neuronal cells of the retina, and either the treated eyecup or the isolated retina is transferred to a specialized incubator for prolonged incubation at a low temperature.
07:27
Making Solutions in the Laboratory
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2023
The ability to successfully make solutions is a basic laboratory skill performed in virtually all biological and chemical experiments. A solution is a homogenous mixture of solute dissolved in bulk liquid known as the solvent. Solutions can be described by their solute concentration, a measure of how much solute is present per unit of solution. In this video, a step-by-step procedure for how to make a water-based, or aqueous, solution for biological applications is presented. The video...
10:11
The Benthic Exchange of O2, N2 and Dissolved Nutrients Using Small Core Incubations
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Cited by 13 •
2016
Here, we present small core incubations for the measurement of sediment-water gas and solute exchange. These will provide reliable measurements of sediment-water exchange that assess the role of sediment in influencing biological and biogeochemical processes in aquatic ecosystems.
FAQs
Changing one or more defined factors, such as temperature, oxygen availability, moisture, light, or substrate supply, allows researchers to observe how biological, chemical, or physical responses change. Measurements of microbial activity, nutrient transformations, gas production, or contaminant breakdown can then be linked to those conditions. This helps separate interacting processes that are difficult to distinguish in soil, sediment, water, or waste systems.
Treatments expose environmental samples to selected conditions, while controls provide a comparison for interpreting the resulting changes. Comparing them helps determine whether differences in microbial activity, nutrient transformation, gas production, or contaminant breakdown are associated with the tested condition rather than with changes occurring without that treatment. This comparison strengthens interpretation of cause and effect in controlled environmental studies.
Oxygen availability is one of the environmental factors researchers can regulate to examine how conditions influence biological and chemical activity. Comparing samples under different oxygen conditions can reveal shifts in processes such as nutrient transformations, gas production, or contaminant breakdown. The resulting contrasts help identify how environmental conditions shape system behavior and provide evidence useful for interpreting broader ecosystem function.
Researchers place soil, sediment, water, or waste samples under defined experimental conditions, regulate selected factors, and monitor changes over time. They typically establish treatments and controls, maintain variables such as temperature, oxygen availability, moisture, light, or substrate supply, and measure responses including microbial activity, nutrient transformations, gas production, or contaminant breakdown. Results are then compared across conditions.
The design may control temperature, oxygen availability, moisture, light, and substrate supply, depending on the environmental process under investigation. Researchers can monitor microbial activity, nutrient transformations, gas production, and contaminant breakdown as outcomes. Selecting conditions and measurements that match the question allows the experiment to connect a specific environmental influence with a measurable biological, chemical, or physical response.
These experiments are useful when researchers need to isolate processes that are difficult to observe directly in soil, sediment, water, or waste systems. They support studies of pollution, climate change, and resource management by showing how conditions influence ecosystem function. Results can also inform biogeochemical modeling, where measured transformations and rates help represent environmental processes under defined scenarios.