ライフサイエンスコーパス: photoautotrophically

1 anganese-stabilizing proteins could not grow photoautotrophically.

2 tains the T192H mutation but is able to grow photoautotrophically.

3 p. PCC 7002 produced a mutant unable to grow photoautotrophically.

4 59N and deltapsbV:MSP-R 163L) failed to grow photoautotrophically.

5 The resultant strain could not grow photoautotrophically.

6 pparently mobile Q(A), and is unable to grow photoautotrophically.

7 ontrol the growth rate of microalgae growing photoautotrophically.

8 TC31 rates although it did not readily grow photoautotrophically.

9 Y1P is the only strain that did not grow photoautotrophically.

10 that while PsbO-1-deficient plants can grow photoautotrophically (although at a reduced growth rate)

11 containing the alphabeta fusion protein grow photoautotrophically and assemble functional photosystem

12 This mutant failed to grow photoautotrophically and exhibited essentially no capaci

13 The R342S mutant failed to grow photoautotrophically and exhibited no capacity for oxyge

14 In contrast, [S264P]D1 was able to grow photoautotrophically and give light-saturated rates of o

15 double mutation S79F/S88F in D2 did not grow photoautotrophically and had no functionally active PS I

16 (deltapsbV:MSP-D159N/R163L), the mutant grew photoautotrophically and the oxygen-evolving activities

17 ch yielded mutants which were unable to grow photoautotrophically and which could not evolve oxygen a

18 All mutant strains were unable to grow photoautotrophically, and compared with wild type, mixot

19 The E339Q mutant grew photoautotrophically at a severely reduced rate.

20 ld grow photoheterotrophically on glucose or photoautotrophically at elevated CO(2) concentrations (5

21 A btpA deletion mutant strain could not grow photoautotrophically at low temperature, and exhibited r

22 The E293Q mutant strain grew photoautotrophically at rates comparable to the control

23 The R305S mutant strain grew photoautotrophically at rates comparable to the control

24 reinhardtii, a unicellular green alga, grows photoautotrophically at very low concentrations of inorg

25 The mutant is able to grow photoautotrophically but with a slower rate than the wil

26 mutants except for D557KPsaB/D566APsaB grew photoautotrophically, but the growth of D557KPsaB and D5

27 terotrophically, photoheterotrophically, and photoautotrophically, demonstrating that hopanoids are n

28 These mutant strains did not grow photoautotrophically due to suppressed levels of chlorop

29 re isolated and purified to homogeneity from photoautotrophically grown Chlorobium tepidum, a moderat

30 use biochemical and biophysical analyses of photoautotrophically grown wild-type and mutant strains

31 fer of Chlamydomonas reinhardtii cells grown photoautotrophically in low light to higher light intens

32 m Synechocystis sp. PCC 6803 were propagated photoautotrophically in the presence of L-[1-(13)C]alani

33 Chlamydomonas is therefore not able to grow photoautotrophically in zinc-limiting conditions, but su

34 The D473A and D473E mutant strains can grow photoautotrophically, indicating that Asp-473 is not ess

35 although Symbiodinium strain SSB01 can grow photoautotrophically, it can grow mixotrophically or het

36 Mutants did not grow photoautotrophically on media without sucrose and were s

37 nder standard conditions were unable to grow photoautotrophically or evolve oxygen when grown at low

38 uniformly lacked the ability to either grow photoautotrophically or evolve oxygen.

39 the thylakoid membrane it was unable to grow photoautotrophically or evolve oxygen.

40 ormous metabolic flexibility, growing either photoautotrophically or heterotrophically on more than 5

41 levels of lipids, carbohydrates and proteins photoautotrophically, thus attracting considerable inter

42 The menA and menB mutants grow photoautotrophically under low light conditions (20 micr

43 iously demonstrated that tobacco plants grow photoautotrophically using Rubisco from Synechococcus el

44 reen alga Chlamydomonas reinhardtii can grow photoautotrophically utilizing CO(2), heterotrophically

45 icroM chloride), it lost the ability to grow photoautotrophically while the control strain exhibited

46 , the sufA, iscA, and sufA iscA mutants grew photoautotrophically with doubling times that were simil

47 II) but lacking photosystem I (PSI) can grow photoautotrophically with O2 evolution, using atmospheri

48 All mutants grew photoautotrophically, yet all showed diminished growth r