Science in China Series C: Life Sciences

, Volume 44, Issue 1, pp 66–72 | Cite as

Studies on the relationship between cyanide-resistant respiration and expression of alternative oxidase in mung bean using antibodies prepared by synthetic polypeptide

  • Chijun Li
  • Houguo Liang
  • Linfang Du
  • Rui Wang


Twelve peptides, including eight conservative amino acid residues in the amino acid sequence of hydrophilic S helix of the alternative oxidase (AOX), were synthesized by solid-phase method. The polypeptide was coupled with α-chymotrypsinogen, and the antibodies were obtained through immunizing domestic rabbit by injecting this complex. By using these antibodies, which were raised to immunoreact with total proteins of purified mitochondria from different organs of mung bean seedlings, we find that there are two hybridizable AOX bands in mitochondria. Their molecular weights are about 35 and 38 ku, respectively. Moreover, the respiratory parameters of hypocotyl, true leaf and cotyledon of mung bean seedlings show that true leaf has the highest total respiration (Vt), alternative pathway (AP) capacity (Valt) and the activity of AP (ρValt) among the three organs. Vt andρV alt of cotyledon ranked the second. Hypocotyl has the lowest Vt andρV alt, but its Valt is higher than that of cotyledon. These results are consistent with the analysis of Western blotting of expression of AOX. The highest Vt andρV alt in true leaf are accompanied two hybridizable polypeptides of AOX protein, 35 ku and 38 ku respectively. The next is cotyledon Vt andρV alt with only one 38 ku hybridizable polypeptide of AOX protein. HypocotylV t andρV alt is the lowest and its immunoblotting band is similar to that of cotyledon, but the expressive amount of 38 ku protein is less than that of cotyledon. The results suggest that the 35 ku AOX may contribute mainly to true leafρV alt.


cyanide-resistant respiration synthetic polypeptide expression of AOX mung bean seedlings 



alternative oxidase


alternative pathway


fresh weight


salicylhydroxamic acid


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Copyright information

© Science in China Press 2001

Authors and Affiliations

  1. 1.Sichuan UniversityCollege of Life ScienceChengduChina
  2. 2.Lanzhou UniversityCollege of Life ScienceLanzhouChina

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