Plx Diet
Plx Diet - Related Videos
06:19
Testing Nicotine Tolerance in Aphids Using an Artificial Diet Experiment
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Cited by 5 •
2008
In this video and assay is demonstrated that tests the tolerance of nicotine to two types of aphids one that infests tobacco plants in the field and one that does not.
06:30
An ex vivo Mouse Model for High-Fat Diet-Like Adipose Tissue Inflammation
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2026
Using an ex vivo explant model, small pieces of the rostral portion of visceral white adipose tissue from lean mice are cultured for 7–10 days, enabling the induction and study of adipose tissue inflammation as it occurs during high-fat diet feeding.
08:28
High Fat Diet Feeding and High Throughput Triacylglyceride Assay in Drosophila Melanogaster
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Cited by 26 •
2017
This is a high fat diet feeding protocol to induce obesity in Drosophila, a model for understanding fundamental molecular mechanisms implicated in lipotoxicity. It also provides a high throughput triacylglyceride assay for measuring fat accumulation in Drosophila and potentially other (insect) models under various dietary, environmental, genetic or physiological conditions.
07:27
The Murine Choline-Deficient, Ethionine-Supplemented (CDE) Diet Model of Chronic Liver Injury
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Cited by 16 •
2017
Here we describe a common method to induce chronic liver injury in mice by feeding of a choline-deficient and ethionine-supplemented (CDE) diet. We demonstrate health monitoring, liver perfusion, isolation, and preservation. A time course of six weeks can inform about liver injury, pathohistology, fibrosis, inflammatory, and liver progenitor cell responses.
09:10
Palatable Western-style Cafeteria Diet as a Reliable Method for Modeling Diet-induced Obesity in Rodents
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Cited by 47 •
2019
This protocol describes the use of a highly palatable, western-style cafeteria diet to model overeating and obesity in rodents. Here, we provide a detailed outline of food selection, preparation and measurement, and explain methodological factors that assist in generating a robust and reproducible phenotype.
FAQs
CSF1R signaling provides a survival and maintenance pathway for microglia. When a PLX-series inhibitor blocks this receptor, continued dietary exposure can reduce the microglial population in the brain. This mechanism allows investigators to examine consequences of diminished microglial presence, rather than testing only the activity of one inflammatory or signaling molecule.
Population reduction changes the cellular environment broadly, because microglia contribute to several neural processes at once. A single-pathway intervention may leave the cells present while altering one function. With the PLX diet, observed changes in neuroinflammation, synaptic function, injury responses, behavior, or disease progression must therefore be interpreted as consequences of altered microglial abundance and its downstream effects.
Dose and treatment duration are central design variables because they determine the extent and persistence of microglial reduction during dietary exposure. Investigators must also account for tissue effects and for recovery after the diet ends. Comparing these conditions helps distinguish effects associated with ongoing depletion from changes that remain after the treatment is withdrawn.
The post-diet recovery period helps determine whether an experimental phenotype depends on continued PLX exposure or persists after the dietary treatment ends. Including recovery measurements can therefore add temporal context to findings in brain tissue, behavior, or disease-related outcomes. Without this comparison, researchers may not know whether an observed effect reflects treatment maintenance or a lasting consequence.
A study should define the PLX-containing chow, the exposure period, and the intended tissue or functional outcomes before treatment begins. Measurements should be planned around microglial reduction and the specific question, such as inflammation, synaptic function, neural injury, behavior, or disease progression. Recovery after removal of the diet should also be included when relevant.
Researchers may choose this approach when they need to test how microglia influence a broader neuroscience phenotype. The design can connect altered microglial populations with neuroinflammation, synaptic function, responses to neural injury, behavior, or disease progression. Its value lies in examining microglial contribution across these outcomes, while recognizing that population-level manipulation can affect multiple processes.
Behavioral or neural changes observed during treatment should be considered alongside the timing of dietary exposure, the degree of microglial reduction, and tissue effects. A result may reflect altered microglial support or immune activity rather than a direct change in neurons alone. Recovery experiments can further indicate whether the outcome changes when the diet is discontinued.