ライフサイエンスコーパス: nuclear fusion

1 develop a power source based on laser-driven nuclear fusion.

2 Use1p, and Bos1p are required for efficient nuclear fusion.

3 (ER) fusion (Sey1p) for additional roles in nuclear fusion.

4 ith host cardiomyocytes, and, in some cases, nuclear fusion.

5 ria, suggesting a role for this organelle in nuclear fusion.

6 Some of the fused cells also underwent nuclear fusion.

7 A few also underwent nuclear fusion.

8 reticulum resident DnaJ protein required for nuclear fusion.

9 ing that Kar2p interacts with Kar8/Jem1p for nuclear fusion.

10 ating projection formation, cell fusion, and nuclear fusion.

11 fourth protein, Kar5p/Fig3p, is required for nuclear fusion.

12 ressed the kar4 defect in KAR3 induction and nuclear fusion.

13 ally sized daughter nuclei, and sometimes in nuclear fusions.

14 Death of syncytia is associated with nuclear fusion and premature chromosome condensation as

15 ild can mate, cell fusion is not followed by nuclear fusion and true diploidy.

16 Proteins required for nuclear fusion are found at the surface (Prm3p) and with

17 However, the known proteins required for nuclear fusion are unlikely to function as direct fusoge

18 y measurements in ion-implanted tungsten for nuclear fusion armour.

19 Health risks are smaller for nuclear fusion, but commercial exploitation will not be

20 sequestration of cell nuclei and subsequent nuclear fusion by a mechanism that is nonapoptotic, as a

21 y analysis of kar8 mutant zygotes revealed a nuclear fusion defect different from kar2, kar5, and kar

22 e, previously identified in a screen for new nuclear fusion-defective mutants.

23 tants in Arabidopsis (Arabidopsis thaliana), nuclear fusion defective1 (nfd1) to nfd9, that are defec

24 ys were done in mutant kar1-1 strains, where nuclear fusion does not occur, GFP-Nup49p appearance in

25 pole body component Kar1p has a function in nuclear fusion during conjugation, a process known as ka

26 The Kar9 pathway promotes nuclear fusion during mating and spindle alignment durin

27 ent, and nuclear migration during karyogamy (nuclear fusion during mating).

28 Kar3, controls both the mitotic spindle and nuclear fusion during mating.

29 KAR3 and PRM2, genes required for efficient nuclear fusion during mating.

30 rane fusion during karyogamy, the process of nuclear fusion during yeast mating.

31 characterized member, KAR5, is essential for nuclear fusion during yeast sexual reproduction.

32 r these data demonstrate that SNAREs mediate nuclear fusion, ER fusion after cell fusion is necessary

33 ty at the MAT locus, but rather requires the nuclear fusion events which occur during mating.

34 power satellites, biomass, nuclear fission, nuclear fusion, fission-fusion hybrids, and fossil fuels

35 roversy over when, and with what efficiency, nuclear fusion follows cell fusion to create stable tetr

36 Two models for nuclear fusion have been proposed: a one-step model in w

37 We also show that nuclear fusion in C. albicans requires the Kar3 microtub

38 zation studies show that CrGEX1 functions in nuclear fusion in Chlamydomonas.

39 Remarkably, despite the absence of nuclear fusion in the slp1 null mutant, meiosis proceeds

40 ity to Kar5p, a protein that participates in nuclear fusion in yeast.

41 rTNFalpha, limited the reduction in MTT and nuclear fusion index (NFI) associated with rTNFalpha sti

42 These findings demonstrate that nuclear fusion is an active process that can occur in C.

43 Karyogamy, the process of nuclear fusion is required for two haploid gamete nuclei

44 The essence of nuclear fusion is that energy can be released by the rea

45 Karyogamy, or nuclear fusion, is essential for sexual reproduction.

46 noncytoplasmic) face of the ER membrane, yet nuclear fusion must initiate from the cytosolic side of

47 Slp1 is required at the last step, nuclear fusion, not for earlier events including nuclear

48 Aberrant divisions and nuclear fusions occur in the early cycles of the nuclear

49 We conclude that nuclear fusion occurs by a three-step pathway.

50 se microscopy, to demonstrate that efficient nuclear fusion occurs in the zygote before formation of

51 We do not find evidence of nuclear fusion of donor and host cells.

52 nesin family member that is involved in both nuclear fusion, or karyogamy, and mitosis.

53 ll also meet the anticipated needs of future nuclear fusion power plants, as well as other important

54 shockwaves, which have found applications in nuclear fusion, proton imaging, cancer therapies and mat

55 uark-level analogue of the deuterium-tritium nuclear fusion reaction (DT --> (4)He n).

56 ical and concentric target shells, causing a nuclear fusion reaction at 150 M degrees C.

57 These radioactive elements are produced in nuclear fusion reactions at rates of only a few atoms pe

58 imeter-sized capsule is imploded to initiate nuclear fusion reactions between deuterium and tritium.

59 bubble implosion conditions, as required for nuclear fusion reactions.

60 under extreme operating conditions in future nuclear fusion reactors such as ITER.

61 xposed to the plasma in magnetic-confinement nuclear fusion reactors.

62 ycrystalline W under irradiation in advanced nuclear fusion reactors.

63 ma-facing materials, tungsten (W), in future nuclear fusion reactors.

64 logs of two proteins functioning in cell and nuclear fusion, respectively (HAP2 and GEX1), providing

65 a and alpha cells undergo efficient cell and nuclear fusion, resulting in tetraploid a/alpha mating p

66 n contrast, Sey1p is required indirectly for nuclear fusion; sey1Delta zygotes accumulate ER at the z

67 ar but not cytoplasmic MT length and display nuclear fusion, spindle positioning, and elongation kine

68 vealed that while all isolates could undergo nuclear fusion, the efficiency of nuclear fusion varied

69 ccharomyces cerevisiae, mating culminates in nuclear fusion to produce a diploid zygote.

70 ld undergo nuclear fusion, the efficiency of nuclear fusion varied in different crosses.

71 To investigate the molecular mechanism of nuclear fusion, we cloned and characterized the KAR5 gen

72 xpress only the long isoform have defects in nuclear fusion, whereas cells expressing only the short

73 ealed that mutations in these proteins block nuclear fusion with different morphologies, suggesting t