C4 photosynthesis at low temperatures

Research output: Contribution to journalReview article

Abstract

Abstract. C4 plants grown in optimum conditions are, by comparison to C3, capable of higher maximum dry‐matter yields and greater efficiencies of water and nitrogen use, yet they are rare outside the subtropics. Both latitudinal and altitudinal limits of C4 distributions correlate most closely with a mean minimum temperature of 8‐10°C during the period of active growth. The possibility that the C4 process is inherently incapable of functioning at low temperatures is examined. The reversible effects of chilling on the quantum efficiency of C4 photosynthesis and the functioning of the individual steps in the C4 cycle are examined. Chilling also produces an irreversible loss of capacity to assimilate CO2 which is directly proportional to the light received during chilling. It is suggested that the reversible reduction in capacity to assimilate CO2 and the lack of an alternative pathway for the utilization of lightgenerated reducing power may make C4 species more prone to chilling‐dependent photoinhibition. Laboratory studies and limited field observations suggest that this damage would be most likely to occur during photosynthetic induction at the temperatures and light levels encountered on clear, cool mornings during the spring and early summer in cool climates. Even those C4 species occurring naturally in cool climates do not appear fully capable of tolerating these conditions; indeed their growth patterns suggest that they may be adapted by avoiding ‘rather than enduring’ such conditions.

Original languageEnglish (US)
Pages (from-to)345-363
Number of pages19
JournalPlant, Cell & Environment
Volume6
Issue number4
DOIs
StatePublished - Jun 1983

Fingerprint

C4 photosynthesis
C4 plants
Photosynthesis
Climate
Temperature
climate
Light
temperature
nutrient use efficiency
photoinhibition
Growth
subtropics
water use efficiency
Nitrogen
Water
summer
cold treatment

Keywords

  • C photosynthesis
  • C plant distributions
  • chilling damage
  • low temperature photoinhibition
  • phosphoenolpyruvate carboxylase
  • pyruvate orthophosphate dikinase
  • ribulose bisphosphate carboxylase
  • temperate C plants

ASJC Scopus subject areas

  • Physiology
  • Plant Science

Cite this

C4 photosynthesis at low temperatures. / LONG, S. P.

In: Plant, Cell & Environment, Vol. 6, No. 4, 06.1983, p. 345-363.

Research output: Contribution to journalReview article

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AB - Abstract. C4 plants grown in optimum conditions are, by comparison to C3, capable of higher maximum dry‐matter yields and greater efficiencies of water and nitrogen use, yet they are rare outside the subtropics. Both latitudinal and altitudinal limits of C4 distributions correlate most closely with a mean minimum temperature of 8‐10°C during the period of active growth. The possibility that the C4 process is inherently incapable of functioning at low temperatures is examined. The reversible effects of chilling on the quantum efficiency of C4 photosynthesis and the functioning of the individual steps in the C4 cycle are examined. Chilling also produces an irreversible loss of capacity to assimilate CO2 which is directly proportional to the light received during chilling. It is suggested that the reversible reduction in capacity to assimilate CO2 and the lack of an alternative pathway for the utilization of lightgenerated reducing power may make C4 species more prone to chilling‐dependent photoinhibition. Laboratory studies and limited field observations suggest that this damage would be most likely to occur during photosynthetic induction at the temperatures and light levels encountered on clear, cool mornings during the spring and early summer in cool climates. Even those C4 species occurring naturally in cool climates do not appear fully capable of tolerating these conditions; indeed their growth patterns suggest that they may be adapted by avoiding ‘rather than enduring’ such conditions.

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