ライフサイエンスコーパス: turbid

1 rochemical-microfiltration (MF) process from turbid (15 NTU) surface water containing moderate amount

2 in contrast to fibrils grown at pH 7.4, the turbid aggregate generated at pH 5.8 is incapable of see

3 ng polylysine-pectin complexes were slightly turbid and relatively stable to aggregation at high mass

4 aining polylysine-carrageenan complexes were turbid and unstable to aggregation and precipitation.

5 orpoises) hunt and navigate through dark and turbid aquatic environments using echolocation; a key ad

6 that allows clear imaging through extremely turbid biological tissue, such as the skull, over an ext

7 nly P. acnes and produced clear plaques with turbid centers, but it lacked any obvious genes for lyso

8 er's amyloid peptide Abeta(1-40) generates a turbid, Congo re-binding aggregation reaction product wi

9 te, clustered-vesicle structure leading to a turbid dispersion.

10 ets smaller than 100nm, contrasting with the turbid emulsions prepared with individual emulsifiers.

11 ization vision, such as enhanced contrast in turbid environments, are also possible [7, 8].

12 embrane protein crystals grown in opaque and turbid environments.

13 ter viscosity and produced more cohesive and turbid gels with less syneresis compared to PGCS.

14 iable flight reactions in the fish's dim and turbid habitat as compared with fish lacking this retina

15 ioning strength and signal-to-noise ratio in turbid (i.e. thick) samples for selection of the optimum

16 corresponding to mixed micelles were visibly turbid, irrespective of the eluant used.

17 Also a more turbid juice with a higher content of suspended solids c

18 phic state in both clear water and naturally turbid lakes.

19 ately predict TP concentrations in naturally turbid lakes.

20 A turbid layer found on the flanks of the volcano (in 2004

21 n is obtained and directly conjugated to the turbid layer in a noninvasive manner.

22 times of fluorescent markers hidden behind a turbid layer.

23 ic, and forensic sciences where thin, highly turbid layers mask chemically distinct subsurface struct

24 t noninvasively the presence of thin, highly turbid layers within polymers, wheat seeds, and paper.

25 ns of micrometers thick diffusely scattering turbid layers.

26 The turbid, low-light waters characteristic of aquaculture p

27 ogy, the manner in which light propagates in turbid media has been of central importance for many dec

28 light propagation near the point-of-entry in turbid media has never been analytically described, unti

29 High-resolution imaging through turbid media is a fundamental challenge of optical scien

30 stablished ability of direct imaging through turbid media provides fundamental and practical advantag

31 jects embedded in thick (6.4 cm) tissue-like turbid media using early-arriving photons.

32 large amplitude light scattering changes in turbid media using multiwavelength analysis.

33 g the depth of optically thick layers within turbid media using spatially offset Raman spectroscopy (

34 work enables widefield imaging through thick turbid media, and opens new avenues in non-invasive test

35 imaging and dealing with objects embedded in turbid media.

36 e measurement of pH in either transparent or turbid media.

37 thylacrylamide enables the detection even in turbid media.

38 temporal dynamics of nonlinear processes in turbid media.

39 ce temperatures within diffusely scattering (turbid) media in combination with high chemical selectiv

40 s to image fluorescent objects embedded in a turbid medium and its potential in clinical applications

41 d- and reverse-propagation paths through the turbid medium be identical.

42 collection of spatial information through a turbid medium by coherent Raman microspectroscopic imagi

43 tical properties and the phase function of a turbid medium from the profile of subdiffusive and diffu

44 using the multiple scattering of light in a turbid medium, enhanced light-matter interaction can be

45 hese systems exist in a highly scattering or turbid medium, the optical scattering effects reduce the

46 r the geometry of the optical interface of a turbid medium, thereby drastically enhancing the couplin

47 tool for studying the dynamics of gain in a turbid medium.

48 f development within the more poorly studied turbid nearshore areas (<10 m depth), and show that cora

49 We hypothesized that some turbid nearshore environments may act as climate-change

50 The turbid nearshore refuges identified in this study were l

51 Thus, protecting the turbid nearshore refuges identified in this study, parti

52 nformation from layers that are covered by a turbid (nontransparent) layer.

53 ace of thick specimens or imaging samples in turbid or opaque liquids since the optical path doesn't

54 sive images of thin sublayers through highly turbid overlayers.

55 e cell receptor-binding site and expressed a turbid plaque phenotype in BHK-21 cells.

56 eplicates in BHK and CHO cells, and a large, turbid-plaque virus that only grows in BHK cells.

57 ate effectively; low virus yields and small, turbid plaques indicated that cooperation was poor.

58 can substantially improve signal quality in turbid preparations like plant cells and deep cell layer

59 responses to acute bleaching disturbances on turbid reefs off Singapore, at two depths over a period

60 s (P1small) and the other large plaques with turbid rims (P1large), had broader host range and produc

61 arner that links the scattering pattern of a turbid sample to its thickness and scattering parameters

62 le variations and often arises in complex or turbid samples such as biological tissues.

63 Turbid samples were plated.

64 on (few micromolar to submicromolar), highly turbid subglacial meltwater could be filtered and colori

65 ring material-specific temperatures within a turbid sublayer of poly(tetrafluoroethylene) (PTFE) thro

66 is limited by STED laser propagation through turbid tissue.

67 o alter the optical scattering properties of turbid tissues.

68 om 11% to 40% of the total areal activity in turbid versus DOC-colored rivers, respectively.

69 disrupting effects observed in organisms in turbid water could be attributed to direct exposure of c

70 Fore-reef, turbid water encruster assemblages calcified at a mean r

71 Facial vibrissae are used to forage in a turbid water environment, and the largest perioral vibri

72 systems may not operate reliably in fresh or turbid water, or both.

73 ms may not function reliably in fresh and/or turbid water.

74 ow-through spray chamber is most suitable in turbid waters and to applications where high flow rates

75 hat SEAS-DIC performs well in biofouling and turbid waters, with a DIC accuracy and precision of appr