¹³C₆-Glucose Labeling Associated with LC-MS: Identification of Plant Primary Organs in Secondary Metabolite Synthesis

We aim to devise a universal and three word method for identifying the organs responsible for producing sick metabolics in medicinal plants. This method integrates certain 6 glucose labeling with LC-MS and disease. Offering a price and accessible way to determine where these important compounds are synthesized.

Most recent developments focus on their metabolite dynamics, protein quantification, and their exploration of complex biological matrices. Multi paleness spectrometry analysis measures nuclear magnetic freelances, spectroscopy, bioinformatics, and the data analysis tools can promote the development of chemical isotopes labeling measures. The main challenge of this experiment is metric effects.

The prints of other elements or compounds in the sample can interfere with the curate measurement of carbon isotopes leading to metric effects that can skew results. Our results open avenues for several new scientific inquirers, including mechanisms of metabolic synthesis, genetic regulation, impact of environment factors, cross organ transport, agri-lecture practices. To begin, makes 1.26 grams of Hoagland powder and 0.945 grams of calcium nitrate in four liters of water.

Immerse washed 2-year-old PPY saplings in a 1 x 4 standard concentration of Hoagland's nutrient solution for three days. Next, add 0.2 grams of carbon isotope 13 glucose powder into a beaker containing 100 milliliters of purified water. Then set up the hydroponic tank and the oxygen pump.

Set up four Treatments with the first as non-feeding, the second as feeding leaves, the third being rhizome feeding, and the fourth being stem-incision feeding. Four Treatment cultures 1 and 2, culture the seedlings in normal Hoagland's nutrient solution. Spray five milliliters of 0.2%carbon isotope 13 glucose solution once in the morning, afternoon, and evening, on the leaves of Treatment 2.

For Treatment cultures 3 and 4, transfer the seedlings to Hoagland's nutrient solution containing 0.2%carbon isotope 13 glucose. For Treatment 4, use a scalpel to cut off the stems from the middle, keeping the vascular bundles intact. Allow the seedlings to be labeled for three days with a change in nutrient solution every 1.5 days.

Once labeling is complete, wash the collected plant organs thoroughly to remove surface impurities. Collect the leaves, stems, rhizomes, and roots separately from each Treatment. Put the collected samples into their respective envelopes.

Place the labeled envelopes in an electric constant temperature blast drying oven. With a fully automatic sample rapid grinder, crush the dried samples into a fine powder. Weigh 30 milligrams of each sample powder and transfer it into a tube containing two milliliters of 75%ethanol water mixture.

Use a CNC ultrasound cleaner to perform ultrasonic extraction at 25 degrees Celsius for 20 minutes. After the final extraction, merge the solutions together. Weigh out three parallel samples.

Next, dissolve the nitrogen dried samples in chromatic methanol to a final volume of one milliliter. Finally, filter the sample through a 0.22 micrometer organic phase filter before mass spectrometric analysis. The carbon 13 by carbon 12 isotope ratios of Treatments 3 and 4 were much higher than those of Treatment 2.