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<record>
	<source-app name="Actavia">Actavia</source-app>
	<ref-type name="Journal Article">0</ref-type>
	<contributors>
		<authors>
			<author>ZHAO, C.M.</author>
			<author>CUI, J.Z.</author>
			<author>LI, X.G.</author>
			<author>CHEN, B.J.</author>
			<author>JIN, R.R.</author>
			<author>YU, Z.Y.</author>
		</authors>
		<secondary-authors></secondary-authors>
	</contributors>
	<titles><title>Proteomic analysis of chloroplasts from chlorophyll-deficient melon mutant</title></titles>
	<dates>
		<year>2019</year>
		<pub-dates><date>2019-7-23</date></pub-dates>
	</dates>
	<pages>866-874</pages>
	<abstract>We aimed to understand the molecular-level changes occurring in the photosynthetic metabolic network in mutant chloro-plasts. We performed comparative liquid chromatography-mass spectrometry protein profiling of wild-type (WT) and chlorophyll-deficient melon (Cucumis melo L.) mutants. We identified 390 differentially expressed proteins and 81 shared proteins varied significantly in abundance, of which 76 were upregulated and 5 were downregulated. Differentially expressed proteins were involved in the following biological processes: binding, catalytic, structural, transporter, and antioxidant activities. The mutant had 6.08-fold higher expression of glutamate-1-semialdehyde 2,1-aminomutase (GSAM), an enzyme that synthesizes the chlorophyll precursor, 5-aminolevulinic acid, and a 5.02-fold higher expression of pyridoxal biosynthesis protein, a GSAM coenzyme. An RNA recognition motif-containing protein (RRM) decreased in expression by 5.22-fold. This suggests that GSAM and RRM are particularly relevant to chlorophyll deficiency.</abstract>
	<number>3</number>
	<volume>57</volume>
</record>
</records>
</xml>
