Chia-pet Protocol
Chia-pet Protocol - Related Videos
21:55
Chromatin Interaction Analysis with Paired-End Tag Sequencing (ChIA-PET) for Mapping Chromatin Interactions and Understanding Transcription Regulation
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Cited by 17 •
2012
Chromatin Interaction Analysis by Paired-End Tag Sequencing (ChIA-PET) is a method for de novo detection of chromatin interactions, for better understanding of transcriptional control.
15:10
A Dual Tracer PET-MRI Protocol for the Quantitative Measure of Regional Brain Energy Substrates Uptake in the Rat
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Cited by 2 •
2013
Small-animal positron emission tomography enables the assessment of the brain's two main energy substrates: glucose and ketones. In the present method, 11C-acetoacetate and 18F-fluorodeoxyglucose are injected sequentially in each animal, and their uptake is measured quantitatively in specific brain regions determined from the magnetic resonance images.
10:20
Automation of a Positron-emission Tomography (PET) Radiotracer Synthesis Protocol for Clinical Production
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Cited by 9 •
2018
Positron-emission tomography (PET) imaging sites that are involved in multiple early clinical research trials need robust and versatile radiotracer manufacturing capabilities. Using the radiotracer [18F]Clofarabine as an example, we illustrate how to automate the synthesis of a radiotracer using a flexible, cassette-based radiosynthesizer and validate the synthesis for clinical use.
10:35
Simultaneous PET/MRI Imaging During Mouse Cerebral Hypoxia-ischemia
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Cited by 4 •
2015
The method presented here uses simultaneous positron emission tomography and magnetic resonance imaging. In the cerebral hypoxia-ischemia model, dynamic changes in diffusion and glucose metabolism occur during and after injury. The evolving and irreproducible damage in this model necessitates simultaneous acquisition if meaningful multi-modal imaging data are to be acquired.
10:53
Functional Imaging of Brown Fat in Mice with 18F-FDG micro-PET/CT
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Cited by 37 •
2012
A method of functional imaging of mouse brown adipose tissue (BAT) is described in which cold-stimulated uptake of 18F-Fluorodeoxyglucose (FDG) in BAT is non-invasively assessed with a standardized micro-PET/CT protocol. This method is robust and sensitive to detect differences in BAT activities in mouse models.
FAQs
As chia seeds hydrate, they produce a mucilaginous coating that helps them adhere to the porous surface. This attachment keeps seeds positioned where early growth can be observed. The coating therefore links hydration with the protocol’s visible display, while germination proceeds and seedlings develop into a green covering.
Moisture and light are the principal conditions to monitor in the Chia-pet Protocol. Adequate moisture supports hydration and germination, while suitable light supports developing seedlings as they form a visible green covering. Comparing growth under differing conditions can help link environmental conditions with observed outcomes.
Observing the seeds from hydration through seedling formation can connect seed structure with germination as a biological process. Once growth becomes visible, the developing roots and shoots provide separate features to follow rather than treating the seedling as a single undifferentiated form. This makes the protocol useful for tracing early developmental stages over time.
Time-based observation shows how a hydrated seed changes as germination begins and seedlings develop. Recording what becomes visible at different points helps relate an observed green covering to an underlying sequence of growth rather than viewing it as a single outcome. This approach also gives investigations a consistent basis for comparing environmental conditions.
Begin by placing chia seeds on the shaped, porous surface, then hydrate them so their mucilaginous coating can help them adhere. Maintain suitable moisture and light while the seeds germinate and seedlings develop. Repeatedly observing the surface over time records the progression from hydrated seeds to a visible green covering.
The protocol can support a simple comparison by holding the shaped surface and observation schedule consistent while examining how moisture or light relates to growth. Investigators can use time-based observations to document when germination and seedling development become visible. This structure connects a hands-on activity with experimental design without requiring specialized equipment.
Within biology teaching, the model makes seed structure, germination, root and shoot development, and environmental responses directly observable. Its low cost and lack of specialized equipment allow learners to focus on watching growth and interpreting change over time. The shaped surface also provides a visible setting for connecting these concepts to developing seedlings.