RESPIRATION RATE IN PLANTS
287
acid cycle in conjunction with the cytochrome oxidase system. Much
remains to be done before a clear understanding exists of the nature and
significance of the respiratory enzyme systems in even a single tissue.
ACKNOWLEDGMENTS
The author wishes to acknowledge the cooperation afforded him during the
writing of a preliminary draft of this paper while he was a member of the Plant
Nutrition Laboratory at the University of Michigan.
REFERENCES
Akazawa, T., and Uritani, I. 1954. Respiratory oxidation and oxidative phosphorylation by cytoplasmic particles of sweet potato. /. Biochem. (Japan) 41:
631-638.
Albaum, Η. G., and Eichel, Β. 1943. The relationship between growth and
metabolism in the oat seedling. Am. J. Botany 30: 18-22.
Ames, S. R., and Elvehjem, C. A. 1944. Inhibition of the succinoxidase system
by cysteine and cystine. Arch. Biochem. 5: 191-205.
Anderson, D. G., Stafford, Η. Α., Conn, Ε. E., and Vennesland, Β. 1952. The
distribution in higher plants of triphosphopyridine nucleotide-linked enzyme
systems capable of reducing glutathione. Plant Physiol. 27: 675-684.
Anfinsen, C. B., and Kielley, W. W. 1954. Biological oxidations. Ann. Rev.
Biochem. 23: 17-54.
Appleman, C. O. 1916. Biochemical and physiological study of the rest period
in the tubers of Solanum tuberosum. Botan. Gaz. 61: 265-294.
Appleman, C. O., and Smith, C. L. 1936. Effects of previous cold storage on the
respiration of vegetables at higher temperatures. /. Agr. Research 53: 557-580.
Avron, M., and Biale, J. B. Metabolic processes of cytoplasmic particles of the
Avocado fruit. III. The operation of the tricarboxylic acid cycle. Plant Physiol.
In press.
Barker, J., and El Saifi, A. F. 1952. Studies in the respiratory and carbohydrate
metabolism of plant tissues. I. Experimental studies of the formation of
carbon dioxide, lactic acid and other products in potato tubers under anaerobic
conditions. Proc. Roy. Soc. B140: 362-385.
Bartley, W., and Davies, R. E. 1954. Active transport of ions by sub-cellular
particles. Biochem. J. 57: 37-49.
Beaudreau, G. S., and Remmert, L. F. 1955. Krebs cycle activity of particles
from bean seedlings. Arch. Biochem. and Biophys. 55:469-85.
Beevers, H. 1952. Malonic acid as an inhibitor of Maize root respiration.
Plant. Physiol. 27: 725-735.
Beevers, H. 1953. 2,4-Dinitrophenol and plant respiration. Am. J. Botany 40:
91-96.
Beevers, H., 1954. The oxidation of reduced diphosphopyridene nucleotide by
an ascorbate system from cucumber. Plant Physiol. 29: 265-269.
Beevers, H., and Gibbs, M. 1954. The direct oxidation pathway in plant respiration. Plant Physiol. 29: 322-324.
Bennet-Clark, Τ. Α., and Bexon, D. 1943. Water relations of plant cell. III.
The respiration of plasmolyzed tissues. New Phy tolo gist 42: 65-92.
Biale, J. B. 1946. Effect of oxygen concentration on respiration of the Fuerte
avocado fruit. Am. J. Botany 33 : 363-373.
287
acid cycle in conjunction with the cytochrome oxidase system. Much
remains to be done before a clear understanding exists of the nature and
significance of the respiratory enzyme systems in even a single tissue.
ACKNOWLEDGMENTS
The author wishes to acknowledge the cooperation afforded him during the
writing of a preliminary draft of this paper while he was a member of the Plant
Nutrition Laboratory at the University of Michigan.
REFERENCES
Akazawa, T., and Uritani, I. 1954. Respiratory oxidation and oxidative phosphorylation by cytoplasmic particles of sweet potato. /. Biochem. (Japan) 41:
631-638.
Albaum, Η. G., and Eichel, Β. 1943. The relationship between growth and
metabolism in the oat seedling. Am. J. Botany 30: 18-22.
Ames, S. R., and Elvehjem, C. A. 1944. Inhibition of the succinoxidase system
by cysteine and cystine. Arch. Biochem. 5: 191-205.
Anderson, D. G., Stafford, Η. Α., Conn, Ε. E., and Vennesland, Β. 1952. The
distribution in higher plants of triphosphopyridine nucleotide-linked enzyme
systems capable of reducing glutathione. Plant Physiol. 27: 675-684.
Anfinsen, C. B., and Kielley, W. W. 1954. Biological oxidations. Ann. Rev.
Biochem. 23: 17-54.
Appleman, C. O. 1916. Biochemical and physiological study of the rest period
in the tubers of Solanum tuberosum. Botan. Gaz. 61: 265-294.
Appleman, C. O., and Smith, C. L. 1936. Effects of previous cold storage on the
respiration of vegetables at higher temperatures. /. Agr. Research 53: 557-580.
Avron, M., and Biale, J. B. Metabolic processes of cytoplasmic particles of the
Avocado fruit. III. The operation of the tricarboxylic acid cycle. Plant Physiol.
In press.
Barker, J., and El Saifi, A. F. 1952. Studies in the respiratory and carbohydrate
metabolism of plant tissues. I. Experimental studies of the formation of
carbon dioxide, lactic acid and other products in potato tubers under anaerobic
conditions. Proc. Roy. Soc. B140: 362-385.
Bartley, W., and Davies, R. E. 1954. Active transport of ions by sub-cellular
particles. Biochem. J. 57: 37-49.
Beaudreau, G. S., and Remmert, L. F. 1955. Krebs cycle activity of particles
from bean seedlings. Arch. Biochem. and Biophys. 55:469-85.
Beevers, H. 1952. Malonic acid as an inhibitor of Maize root respiration.
Plant. Physiol. 27: 725-735.
Beevers, H. 1953. 2,4-Dinitrophenol and plant respiration. Am. J. Botany 40:
91-96.
Beevers, H., 1954. The oxidation of reduced diphosphopyridene nucleotide by
an ascorbate system from cucumber. Plant Physiol. 29: 265-269.
Beevers, H., and Gibbs, M. 1954. The direct oxidation pathway in plant respiration. Plant Physiol. 29: 322-324.
Bennet-Clark, Τ. Α., and Bexon, D. 1943. Water relations of plant cell. III.
The respiration of plasmolyzed tissues. New Phy tolo gist 42: 65-92.
Biale, J. B. 1946. Effect of oxygen concentration on respiration of the Fuerte
avocado fruit. Am. J. Botany 33 : 363-373.