Please wait a moment until all data is loaded. This message will disappear when all data is loaded.
Please wait a moment until the data is sorted. This message will disappear when the data is sorted.
malfunction
-
the cbbL1 mutant induces more nodules which are heterogenic in phenotype
malfunction
-
the form II RubisCO disruption strain is able to grow using 5-methylthioadenosine as the sole sulfur source
malfunction
-
the cbbL1 mutant induces more nodules which are heterogenic in phenotype
-
malfunction
-
the form II RubisCO disruption strain is able to grow using 5-methylthioadenosine as the sole sulfur source
-
metabolism
-
photoheterotrophic growth on benzoate in the presence of low levels of bicarbonate obligately require synthesis of form I RubisCO and that the transcriptional regulator protein CbbR plays an essential role
metabolism
-
RubisCO is the key enzyme of the Calvin-Benson-Bassham reductive pentose phosphate pathway
metabolism
the small subunit may function as a reservoir for CO2 storage
metabolism
-
analysis of temperature responses of Rubisco carboxylation and oxygenation kinetics, phosphoenolpyruvate carboxylase carboxylation kinetics, and the activity and first-order rate constant for the carbonic anhydrase hydration reaction from 10°C to 40°C using crude leaf extracts. The C4 Rubisco of Setaria viridis has a temperature response similar to measured C3 Rubisco, the Km HCO3- of phosphoenolpyruvate carboxylase increases with temperature, and large changes in cabonic anhydrase activity have minimal effect on net CO2 assimilation
metabolism
-
comparison of Rubisco kinetics for 20 crop species at three different temperatures. Rubisco kinetics and their temperature dependency are species specific and largely affect the assimilation potential of Rubisco from the different crops
metabolism
-
comparison of Rubisco kinetics for 20 crop species at three different temperatures. Rubisco kinetics and their temperature dependency are species specific and largely affect the assimilation potential of Rubisco from the different crops
metabolism
-
comparison of Rubisco kinetics for 20 crop species at three different temperatures. Rubisco kinetics and their temperature dependency are species specific and largely affect the assimilation potential of Rubisco from the different crops
metabolism
-
comparison of Rubisco kinetics for 20 crop species at three different temperatures. Rubisco kinetics and their temperature dependency are species specific and largely affect the assimilation potential of Rubisco from the different crops
metabolism
-
comparison of Rubisco kinetics for 20 crop species at three different temperatures. Rubisco kinetics and their temperature dependency are species specific and largely affect the assimilation potential of Rubisco from the different crops
metabolism
-
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
-
Rubisco catalytic properties measured at three temperatures for 75 plants species representing both crops and undomesticated plants from diverse climates. The temperature response of the various catalytic parameters is largely consistent across the diverse range of species
metabolism
-
temperature dependence of the maximum carboxylation capacity of Rubisco during thermal acclimation of photosynthesis. The mean activation energy approximately doubles between the lowest and highest growth temperatures, both when calculations are based on substomatal CO2 and CO2 at Rubisco
metabolism
the enzyme is involved in the Calvin-Benson-Bassham cycle, the main pathway to fix atmospheric CO2 and store energy in carbon bonds, forming the precursors of most primary and secondary metabolites necessary for life
metabolism
-
RubisCO is the key enzyme of the Calvin-Benson-Bassham reductive pentose phosphate pathway
-
physiological function
-
accumulation of the rbcL mRNA at a posttranscriptional stage is controlled by MRL1, a pentatricopeptide repeat protein and. Hence, ribulose-1,5-bisphosphate carboxylase/oxygenase (Rubisco) biogenesis is also controlled by MRL1. The mrl1 mutant transcribes rbcL normally, but the mRNA is unstable
physiological function
-
Citrus grandis seedlings are irrigated for 18 weeks with nutrient solution containing different boron levels and two Al levels. Boron has little effect on plant growth, root, stem and leaf Al, leaf chlorophyll, CO2 assimilation and Rubisco
physiological function
constraints on water uptake in a saline environment can be overcome to some extent with N-fertilization by increased investment of nitrogen in Rubisco and a decrease in the water cost of carbon gain at the leaf level
physiological function
-
Populus deltoides exhibits a higher photosynthetic assimilation at 33-40°C compared to that for Populus balsamifera. This is due to a higher activation state of Rubisco and correlated with a higher ATPase activity of Rubisco activase in Populus deltoides
physiological function
-
Populus deltoides exhibits a higher photosynthetic assimilation at 3340 °C compared to that for Populus balsamifera. This is due to a higher activation state of Rubisco and correlated with a higher ATPase activity of Rubisco activase in Populus deltoides
physiological function
rbcl complements both photoheterotrophic and photoautotrophic growth of a RubisCO deletion strain of Rhodobacter capsulatus, strain SBI/II-
physiological function
-
rbcLS complements both photoheterotrophic and photoautotrophic growth of a RubisCO deletion strain of Rhodobacter capsulatus, strain SBI/II-
physiological function
Rubisco initial and total activities decrease slightly with water deficit, but maximal activity and Rubisco quantity remain unchanged, consistent with commonly observed drought effects. No significant differences in Rubisco total activities are observed between the light and dark-adapted leaves of Paspalum dilatatum and Cynodon dactylon and therefore no evidence is shown of a bound inhibitor for these two species. In neither light nor dark is there evidence of an increase in tight-binding inhibitor with drought stress
physiological function
Rubisco initial and total activities decrease slightly with water deficit, but maximal activity and Rubisco quantity remain unchanged, consistent with commonly observed drought effects. No significant differences in Rubisco total activities are observed between the light and dark-adapted leaves of Paspalum dilatatum and Cynodon dactylon and therefore no evidence is shown of a bound inhibitor for these two species. In neither light nor dark is there evidence of an increase in tight-binding inhibitor with drought stress
physiological function
Rubisco initial and total activities decrease slightly with water deficit, but maximal activity and Rubisco quantity remain unchanged, consistent with commonly observed drought effects. Significant differences in Rubisco total activities are observed between the light and dark-adapted leaves of Zoysia japonica. The total activities of Rubisco in dark-adapted leaves of this species (after the 12 h dark period) are 74% of the total activities in leaves harvested in the light, meaning that inhibitors are bound to 26% of the catalytic sites in the dark. This result is independent of water deficit
physiological function
-
only isozyme RubisCO 1 is required for efficient symbiotic nitrogen fixation in symbiosis with Aeschynomene indica, cbbL1 is not required for in vitro nitrogen fixation
physiological function
-
Rubisco is a key enzyme of photosynthetic CO2 fixation
physiological function
-
Rubisco is a key enzyme of photosynthetic CO2 fixation
physiological function
-
Rubisco is a key enzyme of photosynthetic CO2 fixation
physiological function
-
Rubisco is a key enzyme of photosynthetic CO2 fixation
physiological function
-
RubisCO is not needed for correct a-carboxysome shell assembly
physiological function
-
RubisCO is not needed for correct a-carboxysome shell assembly
physiological function
-
RubisCO is not needed for correct a-carboxysome shell assembly
physiological function
-
RubisCO is not needed for correct a-carboxysome shell assembly
physiological function
the catalytic incorporation of CO2 into D-ribulose 1,5-bisphosphate by Rubisco is the first step in the production of carbohydrates by plants, which are used to build biomass and produce energy during growth and development
physiological function
the catalytic incorporation of CO2 into D-ribulose 1,5-bisphosphate by Rubisco is the first step in the production of carbohydrates by plants, which are used to build biomass and produce energy during growth and development
physiological function
the catalytic incorporation of CO2 into D-ribulose 1,5-bisphosphate by Rubisco is the first step in the production of carbohydrates by plants, which are used to build biomass and produce energy during growth and development
physiological function
the catalytic incorporation of CO2 into D-ribulose 1,5-bisphosphate by Rubisco is the first step in the production of carbohydrates by plants, which are used to build biomass and produce energy during growth and development
physiological function
-
enzyme activity is associated with photosynthetic thermotolerance
physiological function
Archaeoglobus fulgidus rbcL2 gene product can complement growth under anaerobic photoheterotrophic conditions when expressed in Rhodobacter capsulatus strain SB I/II-
physiological function
-
heterologous expression of form I Rubisco enhances the accumulation of pyruvate in Escherichia coli lacking glucose-6-phosphate 1-dehydrogenase, lactate dehydrogenase, and fumarate reductase. The transcription of ArcA encoding a redox-dependent transcriptional activator that positively regulates the transcription of pyruvate formate-lyase is down-regulated in the presence of Rubisco. In Escherichia coli containing Rubisco, it is estimated that 9 % of carbon is directed into Rubisco-based engineered pathway
physiological function
-
Rubisco characteristics differ between C3 and C4 plants. Rubisco from the C3 species has higher activation energy Ea for Kc and kcatc values than that from C4 species, which leads to differences in the temperature response of the carboxylase catalytic efficiency (kcatc/Kc). Ea does not differ for specificity factor Sc/o or KRuBP. The Asp/Glu-149-Ala and Met-309-Ile substitutions may lead to differences in the temperature responses of catalysis between C3 and C4 Rubiscos in Flaveria
physiological function
-
Rubisco characteristics differ between C3 and C4 plants. Rubisco from the C3 species has higher activation energy Ea for Kc and kcatc values than that from C4 species, which leads to differences in the temperature response of the carboxylase catalytic efficiency (kcatc/Kc). Ea does not differ for specificity factor Sc/o or KRuBP. The Asp/Glu-149-Ala and Met-309-Ile substitutions may lead to differences in the temperature responses of catalysis between C3 and C4 Rubiscos in Flaveria
physiological function
-
Rubisco characteristics differ between C3 and C4 plants. Rubisco from the C3 species has higher activation energy Ea for Kc and kcatc values than that from C4 species, which leads to differences in the temperature response of the carboxylase catalytic efficiency (kcatc/Kc). Ea does not differ for specificity factor Sc/o or KRuBP. The Asp/Glu-149-Ala and Met-309-Ile substitutions may lead to differences in the temperature responses of catalysis between C3 and C4 Rubiscos in Flaveria
physiological function
-
Rubisco characteristics differ between C3 and C4 plants. Rubisco from the C3 species has higher activation energy Ea for Kc and kcatc values than that from C4 species, which leads to differences in the temperature response of the carboxylase catalytic efficiency (kcatc/Kc). Ea does not differ for specificity factor Sc/o or KRuBP. The Asp/Glu-149-Ala and Met-309-Ile substitutions may lead to differences in the temperature responses of catalysis between C3 and C4 Rubiscos in Flaveria
physiological function
-
Rubisco characteristics differ between C3 and C4 plants. Rubisco from the C3 species has higher activation energy Ea for Kc and kcatc values than that from C4 species, which leads to differences in the temperature response of the carboxylase catalytic efficiency (kcatc/Kc). Ea does not differ for specificity factor Sc/o or KRuBP. The Asp/Glu-149-Ala and Met-309-Ile substitutions may lead to differences in the temperature responses of catalysis between C3 and C4 Rubiscos in Flaveria
physiological function
-
Rubisco characteristics differ between C3 and C4 plants. Rubisco from the C3 species has higher activation energy Ea for Kc and kcatc values than that from C4 species, which leads to differences in the temperature response of the carboxylase catalytic efficiency (kcatc/Kc). Ea does not differ for specificity factor Sc/o or KRuBP. The Asp/Glu-149-Ala and Met-309-Ile substitutions may lead to differences in the temperature responses of catalysis between C3 and C4 Rubiscos in Flaveria
physiological function
DV157962
trichome small subunit isoform RbcS-T confers higher Vmax and Km values as well as higher acidic pH-dependent activity than mesophyll isoform RbcS-M
physiological function
-
only isozyme RubisCO 1 is required for efficient symbiotic nitrogen fixation in symbiosis with Aeschynomene indica, cbbL1 is not required for in vitro nitrogen fixation
-
physiological function
-
RubisCO is not needed for correct a-carboxysome shell assembly
-
physiological function
-
RubisCO is not needed for correct a-carboxysome shell assembly
-