ライフサイエンスコーパス: fast neutron

1 detection of 63Ni produced predominantly by fast neutrons (above about 1 MeV) in copper samples from

2 thaliana), including ethyl methanesulfonate, fast-neutron and defined T-DNA mutants, and natural acce

3 tem with the ability to image high-intensity fast-neutron and gamma-ray fields simultaneously.

4 eletions such as those that can be caused by fast neutrons are easily detected.

5 hypothesis, we examined mutants generated by fast neutron bombardment.

6 eletion mutant libraries are generated using fast neutron bombardment.

7 These results demonstrate that fast neutrons can produce a range of deletions at a sing

8 tion of the surface simulates the effects of fast neutron damage, since facilities do not yet exist t

9 ination data in conjunction with analysis of fast neutron deletions confirmed that the contig spanned

10 a6 powdery mildew resistance allele) and its fast neutron-derived Bgh-induced tip cell death1 mutant,

11 Here we demonstrate a non-electronic fast neutron differential radiography technique using su

12 nce localized, additional properties such as fast neutron energy spectra and time-dependent neutron c

13 nearside maria have intermediate thermal and fast neutron flux levels, consistent with more mafic roc

14 A high thermal and low fast neutron flux unit correlates with the lunar highlan

15 Global maps of thermal and fast neutron fluxes from the moon suggest three end-memb

16 al distributions of thermal, epithermal, and fast neutron fluxes have been mapped during late souther

17 The maria show low thermal and high fast neutron fluxes, consistent with basaltic rocks.

18 Maps of epithermal- and fast-neutron fluxes measured by Lunar Prospector were us

19 In this study, fast neutron (FN) radiation was used to induce deletion

20 overall frequency and molecular spectrum of fast-neutron (FN)-induced single base substitutions diff

21 odel flowering plant Arabidopsis thaliana to fast neutrons (FNs).

22 show decreases in the flux of epithermal and fast neutrons from Mercury's north polar region that are

23 t such a geo-reactor (i) would function as a fast-neutron fuel breeder reactor; (ii) could, under app

24 The predominately fast neutrons generated by impinging high-energy electro

25 Twenty fast neutron-generated alleles of the Arabidopsis HY4 lo

26 Here we describe one additional fast neutron hy4 mutant, B144, that did not fall into ei

27 We screened 44,000 M2 plants from fast neutron-irradiated Medicago truncatula seeds and is

28 fast neutron mutagenesis, and the utility of fast neutron-irradiated mutants as a source of novel gen

29 rop, a mutant population was generated using fast neutron irradiation.

30 No measurable depression in fast neutrons is seen at either pole.

31 Deletion TILLING (De-TILLING) employs fast neutron mutagenesis and a sensitive polymerase chai

32 rmore, this work demonstrates the utility of fast neutron mutagenesis in identifying novel genes that

33 Because fast neutron mutagenesis is applicable to all plant gene

34 As fast neutron mutagenesis is highly efficient, it is prac

35 or small deletions derived from chemical or fast neutron mutagenesis whereas the second class includ

36 terns of structural variation resulting from fast neutron mutagenesis, and the utility of fast neutro

37 lyzed 20 independent hy4 alleles produced by fast neutron mutagenesis.

38 entified 10 additional alleles of rga from a fast-neutron mutagenized ga1-3 population and used them

39 A fast neutron-mutagenized population of Arabidopsis (Arab

40 ax (L.) Merrill] plants sampled from a large fast neutron-mutagenized population.

41 orimetric assay to measure leaf pH to screen fast neutron-mutagenized populations of common ice plant

42 Fast-neutron-mutagenized Col-0 M2 seed was screened to i

43 dium inflorescence development, we generated fast neutron mutant populations and screened for phenoty

44 leaf morphology were identified in T-DNA and fast-neutron mutant populations.

45 the use of N-transgenic tomato to identify a fast-neutron mutant, sun1-1 (suppressor of N), that is d

46 , the genome-wide structural consequences of fast neutron radiation are not well understood.

47 Fast neutron radiation has been used as a mutagen to dev

48 Fast-neutron radiotherapy has different radiobiological

49 linical studies support the effectiveness of fast-neutron radiotherapy in the treatment of major and

50 The results show that mutagens such as fast neutrons (used for the induction of rfc4) and T-DNA

51 For fast neutrons, which contributed almost all the neutron

52 ns combine the radiobiological properties of fast neutrons with the physical dose distributions of pr