<meta charset="utf8"></head><body>Analyzing Translational Regulation in Heat-stressed Arabidopsis(열 스트레스 애기장대에서 번역 조절 분석)

<ol>
	<li>Picard, F., Loubi&#232;re, P., Girbal, L., Cocaign-Bousquet, M. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=The+significance+of+translation+regulation+in+the+stress+response.">The significance of translation regulation in the stress response.</a> BMC genomics. 14, 1-11 (2013).</li><li>Yuan, S., Zhou, G., Xu, G. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=Translation+machinery:+the+basis+of+translational+control.">Translation machinery: the basis of translational control.</a> J Genet Genom. 51 (4), 367-378 (2024).</li><li>Dever, T. E., Green, R. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=The+elongation,+termination,+and+recycling+phases+of+translation+in+eukaryotes.">The elongation, termination, and recycling phases of translation in eukaryotes.</a> Cold Spring Harb Perspect Biol. 4 (7), a013706 (2012).</li><li>Jackson, R. J., Hellen, C. U., Pestova, T. V. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=The+mechanism+of+eukaryotic+translation+initiation+and+principles+of+its+regulation.">The mechanism of eukaryotic translation initiation and principles of its regulation.</a> Nat Rev Mol Cell Biol. 11 (2), 113-127 (2010).</li><li>Dennis, M. D., Browning, K. S. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=Differential+phosphorylation+of+plant+translation+initiation+factors+by+Arabidopsis+thaliana+CK2+holoenzymes.">Differential phosphorylation of plant translation initiation factors by Arabidopsis thaliana CK2 holoenzymes.</a> J Biol Chem. 284 (31), 20602-20614 (2009).</li><li>Dennis, M. D., Person, M. D., Browning, K. S. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=Phosphorylation+of+plant+translation+initiation+factors+by+CK2+enhances+the+in+vitro+interaction+of+multifactor+complex+components.">Phosphorylation of plant translation initiation factors by CK2 enhances the in vitro interaction of multifactor complex components.</a> J Biol Chem. 284 (31), 20615-20628 (2009).</li><li>Chen, G. H., Liu, M. J., Xiong, Y., Sheen, J., Wu, S. H. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=TOR+and+RPS6+transmit+light+signals+to+enhance+protein+translation+in+deetiolating+Arabidopsis+seedlings.">TOR and RPS6 transmit light signals to enhance protein translation in deetiolating Arabidopsis seedlings.</a> Proc Natl Acad Sci. 115 (50), 12823-12828 (2018).</li><li>Chang, H. H., Huang, L. C., Browning, K. S., Huq, E., Cheng, M. C. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=The+phosphorylation+of+carboxyl-terminal+eIF2&#945;+by+SPA+kinases+contributes+to+enhanced+translation+efficiency+during+photomorphogenesis.">The phosphorylation of carboxyl-terminal eIF2&#945; by SPA kinases contributes to enhanced translation efficiency during photomorphogenesis.</a> Nat Comm. 15 (1), 3467 (2024).</li><li>Liu, M. J., Wu, S. H., Chen, H. M., Wu, S. H. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=Widespread+translational+control+contributes+to+the+regulation+of+Arabidopsis+photomorphogenesis.">Widespread translational control contributes to the regulation of Arabidopsis photomorphogenesis.</a> Mol Sys Biol. 8 (1), 566 (2012).</li><li>Des Marais, D. L., Juenger, T. E. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=Pleiotropy,+plasticity,+and+the+evolution+of+plant+abiotic+stress+tolerance.">Pleiotropy, plasticity, and the evolution of plant abiotic stress tolerance.</a> Ann New York Acad Sci. 1206 (1), 56-79 (2010).</li><li>Mittler, R., Zandalinas, S. I., Fichman, Y., Van Breusegem, F. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=Reactive+oxygen+species+signalling+in+plant+stress+responses.">Reactive oxygen species signalling in plant stress responses.</a> Nat Rev Mol Cell Biol. 23 (10), 663-679 (2022).</li><li>Shulaev, V., Cortes, D., Miller, G., Mittler, R. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=Metabolomics+for+plant+stress+response.">Metabolomics for plant stress response.</a> Physio Plantarum. 132 (2), 199-208 (2008).</li><li>Sun, M., et al. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=Transcriptome+analysis+of+heat+stress+and+drought+stress+in+pearl+millet+based+on+Pacbio+full-length+transcriptome+sequencing.">Transcriptome analysis of heat stress and drought stress in pearl millet based on Pacbio full-length transcriptome sequencing.</a> BMC Plant Biology. 20, 1-15 (2020).</li><li>Wasternack, C. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=Action+of+jasmonates+in+plant+stress+responses+and+development-applied+aspects.">Action of jasmonates in plant stress responses and development-applied aspects.</a> Biotechnol Adv. 32, 31-39 (2014).</li><li>Chen, T., et al. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=Global+translational+induction+during+NLR-mediated+immunity+in+plants+is+dynamically+regulated+by+CDC123,+an+ATP-sensitive+protein.">Global translational induction during NLR-mediated immunity in plants is dynamically regulated by CDC123, an ATP-sensitive protein.</a> Cell Host Microbe. 31 (3), 334-342 (2023).</li><li>Cho, H. Y., Chou, M. Y., Ho, H. Y., Chen, W. C., Shih, M. C. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=Ethylene+modulates+translation+dynamics+in+Arabidopsis+under+submergence+via+GCN2+and+EIN2.">Ethylene modulates translation dynamics in Arabidopsis under submergence via GCN2 and EIN2.</a> Sci Adv. 8 (22), eabm7863 (2022).</li><li>Wen, J., et al. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=Alternative+splicing+of+TaHSFA6e+modulates+heat+shock+protein-mediated+translational+regulation+in+response+to+heat+stress+in+wheat.">Alternative splicing of TaHSFA6e modulates heat shock protein-mediated translational regulation in response to heat stress in wheat.</a> New Phytol. 239 (6), 2235-2247 (2023).</li><li>Maruri-L&#243;pez, I., Figueroa, N. E., Hern&#225;ndez-S&#225;nchez, I. E., Chodasiewicz, M. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=Plant+stress+granules:+trends+and+beyond.">Plant stress granules: trends and beyond.</a> Front Plant Sci. 12, 722643 (2021).</li><li>Hamada, T., et al. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=Stress+granule+formation+is+induced+by+a+threshold+temperature+rather+than+a+temperature+difference+in+Arabidopsis.">Stress granule formation is induced by a threshold temperature rather than a temperature difference in Arabidopsis.</a> J Cell Sci. 131 (16), jcs216051 (2018).</li><li>Jang, G. J., Jang, J. C., Wu, S. H. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=Dynamics+and+functions+of+stress+granules+and+processing+bodies+in+plants.">Dynamics and functions of stress granules and processing bodies in plants.</a> Plants. 9 (9), 1122 (2020).</li><li>Ostberg, S., Schewe, J., Childers, K., Frieler, K. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=Changes+in+crop+yields+and+their+variability+at+different+levels+of+global+warming.">Changes in crop yields and their variability at different levels of global warming.</a> Earth Sys Dyn. 9 (2), 479-496 (2018).</li><li>Wen, J., et al. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=Alternative+splicing+of+TaHSFA6e+modulates+heat+shock+protein-mediated+translational+regulation+in+response+to+heat+stress+in+wheat.">Alternative splicing of TaHSFA6e modulates heat shock protein-mediated translational regulation in response to heat stress in wheat.</a> New Phytol. 239 (6), 2235-2247 (2023).</li><li>Coudert, L., Adjibade, P., Mazroui, R. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=Analysis+of+translation+initiation+during+stress+conditions+by+polysome+profiling.">Analysis of translation initiation during stress conditions by polysome profiling.</a> J Vis Exp. (87), e51164 (2014).</li><li>Hsieh, E. J., Cheng, M. C., Lin, T. P. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=Functional+characterization+of+an+abiotic+stress-inducible+transcription+factor+AtERF53+in+Arabidopsis+thaliana.">Functional characterization of an abiotic stress-inducible transcription factor AtERF53 in Arabidopsis thaliana.</a> Plant Mol Biol. 82, 223-237 (2013).</li><li>Cheng, M. C., Liao, P. M., Kuo, W. W., Lin, T. P. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=The+Arabidopsis+ETHYLENE+RESPONSE+FACTOR1+regulates+abiotic+stress-responsive+gene+expression+by+binding+to+different+cis-acting+elements+in+response+to+different+stress+signals.">The Arabidopsis ETHYLENE RESPONSE FACTOR1 regulates abiotic stress-responsive gene expression by binding to different cis-acting elements in response to different stress signals.</a> Plant Physiol. 162 (3), 1566-1582 (2013).</li><li>Van den Broeck, L., et al. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=From+network+to+phenotype:+the+dynamic+wiring+of+an+Arabidopsis+transcriptional+network+induced+by+osmotic+stress.">From network to phenotype: the dynamic wiring of an Arabidopsis transcriptional network induced by osmotic stress.</a> Mol Sys Biol. 13 (12), 961 (2017).</li><li>Dieterich, D. C., et al. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=detection+and+identification+of+newly+synthesized+proteomes+with+bioorthogonal+non-canonical+amino-acid+tagging.">detection and identification of newly synthesized proteomes with bioorthogonal non-canonical amino-acid tagging.</a> Nat Protoc. 2 (3), 532-540 (2007).</li><li>Zhang, J., et al. <a target="_blank" href="http://www.ncbi.nlm.nih.gov/entrez/query.fcgi?db=PubMed&cmd=Search&doptcmdl=Citation&defaultField=Title+Word&term=Proteomic+profiling+of+de+novo+protein+synthesis+in+starvation-induced+autophagy+using+bioorthogonal+noncanonical+amino+acid+tagging.">Proteomic profiling of de novo protein synthesis in starvation-induced autophagy using bioorthogonal noncanonical amino acid tagging.</a> Acad Press. 588, 41-59 (2017).</li></ol>

<table border="1" fo:keep-together.within-page="1" fo:keep-with-next.within-page="always">
	<tbody>
		<tr>
			<td>1.5 mL eppendorf tube</td>
			<td>Labcon</td>
			<td>3012-870-000-9</td>
			<td>RNA extraction</td>
		</tr>
		<tr>
			<td>13.2 mL centrifuge tube</td>
			<td>Beckman Coulter</td>
			<td>331372</td>
			<td>ultracentrifugation</td>
		</tr>
		<tr>
			<td>Bromophenol blue</td>
			<td>Honeywell</td>
			<td>32712</td>
			<td>Polysome profile</td>
		</tr>
		<tr>
			<td>Chloroform</td>
			<td>Honeywell</td>
			<td>32211</td>
			<td>RNA extraction</td>
		</tr>
		<tr>
			<td>Cycloheximide (CHX)</td>
			<td>Sigma-Aldrich</td>
			<td>SI-C7698</td>
			<td>Polysome profile</td>
		</tr>
		<tr>
			<td>Diethyl pyrocarbonate (DEPC)</td>
			<td>Sigma-Aldrich</td>
			<td>D5758</td>
			<td>RNA extraction</td>
		</tr>
		<tr>
			<td>Ethanol</td>
			<td>Sigma-Aldrich</td>
			<td>32221</td>
			<td>RNA extraction</td>
		</tr>
		<tr>
			<td>GeneChip Eukaryotic Poly-A RNA Control Kit</td>
			<td>Invitrogen</td>
			<td>900433</td>
			<td>Normalization</td>
		</tr>
		<tr>
			<td>Glycerol</td>
			<td>Honeywell</td>
			<td>15523</td>
			<td>Normalization</td>
		</tr>
		<tr>
			<td>Heparin</td>
			<td>Sigma-Aldrich</td>
			<td>SI-H3149</td>
			<td>Polysome profile</td>
		</tr>
		<tr>
			<td>HiScript III RT SuperMix for qPCR kit</td>
			<td>Vazyme</td>
			<td>R323-01</td>
			<td>Normalization</td>
		</tr>
		<tr>
			<td>KCl</td>
			<td>J.T.Baker</td>
			<td>&#160;3040-01</td>
			<td>Polysome profile</td>
		</tr>
		<tr>
			<td>MgCl2</td>
			<td>Sigma-Aldrich</td>
			<td>SI-M8266</td>
			<td>Polysome profile</td>
		</tr>
		<tr>
			<td>MS basal medium</td>
			<td>Phyto</td>
			<td>M524</td>
			<td>Plant culture</td>
		</tr>
		<tr>
			<td>Peak Chart Syringe Pump</td>
			<td>Brandel</td>
			<td>SYN4007LS</td>
			<td>Polysome profile</td>
		</tr>
		<tr>
			<td>Polyoxyethylene-10-Tridecyl-Ether (PTE)</td>
			<td>Sigma-Aldrich</td>
			<td>P2393</td>
			<td>Polysome profile</td>
		</tr>
		<tr>
			<td>RNasin</td>
			<td>Promega</td>
			<td>N251B</td>
			<td>Polysome profile</td>
		</tr>
		<tr>
			<td>Sodium deoxycholate (DOC)&#160;</td>
			<td>Sigma-Aldrich</td>
			<td>SI-D6750</td>
			<td>Polysome profile</td>
		</tr>
		<tr>
			<td>Sucrose</td>
			<td>Sigma-Aldrich</td>
			<td>S5391</td>
			<td>Polysome profile</td>
		</tr>
		<tr>
			<td>SYBR Green Supermix</td>
			<td>Bio-Rad</td>
			<td>BP170-8882</td>
			<td>Normalization</td>
		</tr>
		<tr>
			<td>TRI reagent</td>
			<td>MRC</td>
			<td>TR118</td>
			<td>RNA extraction</td>
		</tr>
		<tr>
			<td>Tris-HCl</td>
			<td>J.T.Baker</td>
			<td>&#160;4109-06</td>
			<td>Polysome profile</td>
		</tr>
		<tr>
			<td>Ultracentrifuge</td>
			<td>Beckman Coulter</td>
			<td>Optima L-100K</td>
			<td>ultracentrifugation</td>
		</tr>
		<tr>
			<td>UV/VISDETECTOR</td>
			<td>Brandel</td>
			<td>UA-6</td>
			<td>Polysome profile</td>
		</tr>
	</tbody>
</table>

translation efficiency test using polysome profiles under heat stress

Translation is crucial for organisms to synthesize functional proteins from mRNA, supporting essential cellular functions and biological processes like metabolism and signaling and enabling stress responses. Without translation, cells cannot produce vital proteins, impacting their structure, function, and regulation, thereby affecting sustaining life and fostering biological diversity1,2. Therefore, studying the translational efficiency of plants is crucial. Translation involves several essential steps. First, initiation occurs as mRNA binds to a ribosome, facilitated by initiation factors such as eIFs in eukaryotes, which identify the start codon, typically AUG. Next, elongation proceeds as transfer RNA (tRNA) molecules, each carrying specific amino acids, sequentially bind to the ribosome. Peptide bonds form between adjacent amino acids, elongating the polypeptide chain according to the mRNA sequence. Finally, termination is initiated upon encountering a stop codon (UAA, UAG, or UGA), recognized by release factors that prompt the ribosome to release the newly synthesized protein. Throughout translation, various eukaryotic initiation factors (eIFs), elongation factors, and ribosomal RNAs work together to ensure accuracy and efficiency3,4.
Previous studies have indicated that post-translational modifications play a critical role in regulating interactions among eIFs and thereby influence translation efficiency. In vitro research has revealed that CASEIN KINASE 2 (CK2) kinase phosphorylates eIF3c, eIF5, and eIF2&#946; to increase their interactions with each other and with eIF15,6. In dark, the E3 ligase CONSTITUTIVELY PHOTOMORPHOGENIC 1 (COP1) represses translation by inhibiting TOR-mediated phosphorylation of S6K-RPS6. The non-phosphorylated RPS6 is unable to form functional ribosomes, thereby halting translation7. Conversely, under light conditions, the SUPPRESSOR OF PHYA 105 (SPA1) kinase phosphorylates eIF2&#945; to facilitate eIF2 complex assembly and promote translation initiation8. These findings highlight the complex control mechanisms that regulate translation in response to environmental signals.
Moderate environmental stimuli can effectively promote translational processes to facilitate growth, such as photomorphogenesis8,9. However, when environmental factors are excessive, immobile plants need to evolve suitable regulatory mechanisms to mitigate damage caused by environmental stress10. In previous studies related to plant stress responses, the majority focused on regulation at the metabolic, hormonal, and transcriptional levels11,12,13,14. However, recent research has begun to highlight the influence of translational regulation on plant stress tolerance15,16,17. Plants can increase their stress tolerance by reducing translational efficiency, thereby minimizing unnecessary energy consumption. Due to the formation of non-membranous stress granules in plant cells, untranslated mRNA and associated proteins aggregate within them to reduce translational efficiency18. One of the common environmental stresses that plants often encounter is heat stress, which has been reported to induce the formation of stress granules within plant cells19,20. The global increase in average temperatures due to global warming severely affects crop yields21. Therefore, studying the physiological regulation of plants under heat stress is crucial. A previous study has shown that heat treatment of wheat resulted in a decrease in polysome-bound mRNA. However, mRNAs stored in stress granules were released and re-bound to ribosomes, facilitating translation after recovery22. Additionally, previous research has compared gene expression between total mRNA and polysome-bound mRNA in submerged plants16. The results indicated that the steady-state levels of mRNA associated with abscisic acid and abiotic stress responses slightly increased following submergence. Furthermore, the amount of polysome-bound mRNAs increased significantly. These results suggest that translation regulation might play a more critical role in controlling stress tolerance in plants. Therefore, an effective polysomal RNA isolation method is crucial for studying the translatome of stress-treated samples.
In this protocol, we modified the RNA isolation method from the high-risk and voluminous phenol/chloroform extraction with LiCl precipitation method to the small-scale phenol/guanidinium thiocyanate extraction method, which requires less volume. The former method involves direct mixing with polysomal fractions, resulting in a larger experimental waste9,15,23. In contrast, this modified approach utilizes differential density principles: polysomal RNA is first mixed with a high-salt, sugar-free solution and then precipitated by ultracentrifugation. Subsequently, RNA extraction is performed using a small volume of phenol/guanidinium thiocyanate reagent. This method effectively reduces the generation of organic waste, making our experiment more environmentally friendly. Additionally, the organic solvents used have lower toxicity. These reasons led us to adjust and improve the experimental procedures accordingly. Additionally, previous methods did not provide a comprehensive protocol for calculating translation efficiencies using spike-in normalization, which is essential for more in-depth translatomic analyses.
Here, we describe polysome profiling and polysomal RNA isolation protocol for investigating translation efficiency and translatomic analyses in Arabidopsis under heat shock stress. This protocol was employed to assess translation efficiency in the Col-0 wild type under normal, heat shock, and after-recovery conditions. Polysome profiling results and the percentage of polysomal RNA revealed alterations in translation efficiency following heat stress treatment in Arabidopsis seedlings.

<meta charset="utf8"></head><body>저자 스포트라이트: 열 스트레스 하에서 애기장대(Arabidopsis) 의 번역 조절을 연구하기 위한 폴리솜 프로파일링 프로토콜

열 스트레스 하에서 폴리좀 프로파일을 사용한 translation efficiency test

Our research investigates the translational regulation during heat stress in plants. By analyzing non-polysome-bound and polysome-bound RNA, we aim to study how plants regulate stress tolerance through translational control. So here we provide a polysome profiling and polysome RNA isolation protocol for investigating translation efficiencies in Arabidopsis under heat stress.In this protocol, we provide comprehensive and standardized methods for calculating translation efficiencies using spike-in normalization, which is essential for more in-depth translatomic analysis. Our protocol offers an easier and more efficient method for isolating polysome RNA by utilizing a smaller volume of organic buffer while achieving a higher RNA yield.

Translational control of different genes under heat stress is a critical step for plant adaptation to the environment. Assessing the translational ...

translation-efficiency-test-using-polysome-profiles-under-heat-stress

Research

JoVE Journal

Biology

Translation Efficiency Test Using Polysome Profiles Under Heat Stress

605 조회수.  National Taiwan University. 우리의 연구는 식물의 열 스트레스 동안 병진 조절을 조사합니다. non-polysome-bound 및 polysome-bound RNA를 분석함으로써 식물이 translational control을 통해 스트레스 내성을 조절하는 방법을 연구하는 것을 목표로 합니다. 그래서 여기에서는 열 스트레스 하에서 애기장대(Arabidopsis)의 번역 효율성을 조사하기 위한 폴리솜 프로파일링 및 폴리솜 RNA 분리 프로토...