ライフサイエンスコーパス: radioactive waste

1 el to recover fissile materials and mitigate radioactive waste.

2 cement-based near field of a repository for radioactive waste.

3 estigated in the context of safe disposal of radioactive waste.

4 5 fission and comprises a large component of radioactive waste.

5 of an RIA without the associated problems of radioactive waste.

6 hat results in large quantities of hazardous radioactive waste.

7 ithout the generation of large quantities of radioactive waste.

8 is the long-term safety of repositories for radioactive waste.

9 s formed including in geological disposal of radioactive wastes.

10 r fuel rods or contamination with high-level radioactive wastes.

11 rock for retrievable disposal of high-level radioactive wastes.

12 in view of the treatment of the accumulated radioactive waste and of the recycling of minor actinide

13 ments relevant to the geological disposal of radioactive waste and radionuclide contaminated land.

14 s is inherently coupled to issues concerning radioactive waste and safety precautions.

15 ee Mile Island nuclear power plant and other radioactive wastes), and, as specially tailored desiccan

16 inates the need for enriched uranium and the radioactive waste associated with the processing of uran

17 hould not be a limiting factor in processing radioactive wastes, assuming Tc as Tc(7+) and similariti

18 gineer D. radiodurans for treatment of mixed radioactive wastes by developing a strain to detoxify bo

19 indings exemplify the need to develop robust radioactive waste characterization procedures in support

20 Radioactive waste containing a few grams of plutonium (P

21 During the 1960s, radioactive waste containing small amounts of plutonium

22 sistant bacterium for the treatment of mixed radioactive wastes containing ionic mercury.

23 many processes on a global scale, including radioactive waste containment, desalination, and enhance

24 ies were measured in sediments from a former radioactive waste disposal basin located on the Savannah

25 background sediments (22-44 Bq/kg) and above radioactive waste disposal threshold regulations, posing

26 The increased costs of radioactive waste disposal together with heightened secu

27 urbation of magnetite in systems relevant to radioactive waste disposal.

28 igher throughput and eliminated the need for radioactive waste disposal.

29 higher throughput and eliminate the need for radioactive waste disposal; hence, they are appropriate

30 roundwater have been contaminated by leaking radioactive waste generated in the United States during

31 le environments, such as nuclear reactors or radioactive waste immobilization, require extremely high

32 ogical basis of microbial transformations of radioactive waste in these settings.

33 the proposed repository site for high-level radioactive waste indicate that the crust extended by 0.

34 Processing and managing radioactive waste is a great challenge worldwide as it i

35 Tc immobilization is crucial for radioactive waste management and environmental remediati

36 However, due to several limitations such as radioactive waste management and lower sensitivity, a ne

37 de analogues and TK enzymes while decreasing radioactive waste, minimizing assay time, increasing acc

38 ssay is the more than 3000-fold reduction in radioactive waste over existing protocols.

39 This has implications for radioactive waste processing because Tc-99, the second r

40 rent projects for the disposal of high-level radioactive waste rely on underground burial and confine

41 disposal of cementitious intermediate level radioactive waste, remains unexplored.

42 h relevance for the near-field of high-level radioactive waste repositories, was investigated under a

43 f relevance in the thermodynamic modeling of radioactive waste repositories, where the predominance o

44 lates and Ca(II) are typical in cementitious radioactive waste repositories.

45 ficient retention of Np in the near-field of radioactive waste repositories.

46 nment as it might occur in the vicinity of a radioactive waste repository or a reprocessing plant.

47 Water samples from a legacy radioactive waste site (Little Forest, Australia) were s

48 The high cost of remediating radioactive waste sites from nuclear weapons production

49 at concentrations well above those found in radioactive waste sites, and to effectively reduce Hg (I

50 ation can be provided for the remediation of radioactive waste sites.

51 roethylene at levels exceeding those of many radioactive waste sites.

52 ial applications, including luminescence and radioactive waste storage forms.

53 A novel nanotechnology for the separation of radioactive waste that uses magnetic nanoparticles (MNPs

54 ssing aspects such as the utility of burying radioactive waste, the remediation of mixtures of organi

55 During the processing of low-activity radioactive waste to generate solid waste forms (e.g., g

56 lerance of potential hosts for actinides and radioactive wastes to be tailored.

57 ocesses involving corrosive effluents (e.g., radioactive waste), was also assessed.