ライフサイエンスコーパス: dialysis membrane

1 d organic carbon) of SRFA passed through the dialysis membrane.

2 ble species across the lipid bilayer and the dialysis membrane.

3 lly separated from the seeds and plants by a dialysis membrane.

4 sues, and was finally eliminated through the dialysis membrane.

5 branes increases the biocompatibility of the dialysis membranes.

6 s a relevant feature for characterization of dialysis membranes.

7 liver support or treatment with conventional dialysis membranes.

8 Bisphenol A (BPA), a component of some dialysis membranes, accumulates in CKD.

9 e analyte diffusive driving force across the dialysis membrane and a subsequent increase in the relat

10 riving force for analyte to pass through the dialysis membrane and thus increases the RR.

11 relative recovery of the analyte across the dialysis membrane and yielded for the first time quantit

12 due to the development of new materials for dialysis membranes and commercial availability of smalle

13 taxane that otherwise bound irreversibly to dialysis membranes and which exhibited distinctive lipop

14 The effects of dialysis dose, dialysis membrane, and other clinical parameters on infe

15 ed through a 100-500 molecular weight cutoff dialysis membrane, and the dialysate and retentate were

16 f desalting methods, including spin columns, dialysis membranes, and filters.

17 sed attention on the biocompatibility of the dialysis membrane as a possible factor influencing patie

18 sing single Sephadex beads as osmometers and dialysis membranes as protein filters.

19 ive ELISA performed in tubes or wells with a dialysis membrane attached to their bottoms.

20 In this article, we review the concept of dialysis membrane biocompatibility and highlight the dif

21 bound solutes than do conventional high-flux dialysis membranes but at the cost of some albumin loss

22 s are catalytically reduced to NO within the dialysis membrane by the immobilized organoselenium spec

23 this regard, several studies have utilized a dialysis membrane chamber (DMC) cultivation system to ge

24 that although widely dissimilar, the UT and dialysis membrane chamber growth conditions promote more

25 nd host adaptation of lp25-B. burgdorferi in dialysis membrane chambers (DMCs) implanted in rats.

26 hanced upon growth of the spirochetes within dialysis membrane chambers (DMCs) implanted intraperiton

27 ian host-adapted organisms cultivated within dialysis membrane chambers (DMCs) implanted within the p

28 rotein was expressed by spirochetes grown in dialysis membrane chambers (DMCs).

29 were able to survive within intraperitoneal dialysis membrane chambers at a level equivalent to that

30 strain 297 cultivated either in vitro or in dialysis membrane chambers implanted in rat peritoneal c

31 , or during mammalian host adaptation (Bb in dialysis membrane chambers implanted in rats).

32 with "host-adapted" spirochetes grown within dialysis membrane chambers implanted into the peritoneal

33 ort, we cultivated B. burgdorferi 297 within dialysis membrane chambers implanted into the peritoneal

34 ities of B. burgdorferi grown in vitro or in dialysis membrane chambers implanted intraperitoneally i

35 relatively immune-privileged environment of dialysis membrane chambers implanted within the peritone

36 were able to survive as well as wild type in dialysis membrane chambers in the rat peritoneum.

37 g the complete set of plasmids were grown in dialysis membrane chambers that were implanted into rat

38 RpoS regulon was uniquely upregulated within dialysis membrane chambers, further underscoring the imp

39 ations after cultivation in vitro and within dialysis membrane chambers, mimicking a mammalian host-a

40 mmalian host-adapted organisms cultivated in dialysis membrane chambers.

41 When nanoblends and MC were separated by dialysis membrane colorimetric response (CR) was similar

42 State-of-the-art dialysis membranes comprise a relatively thick polymer l

43 de a sealed, small segment of a hollow fiber dialysis membrane (diameter 0.5 mm, length 0.5 cm, molec

44 e necessary electrical connection across the dialysis membrane for defining the electric fields neede

45 Commercial ultrafiltration and dialysis membranes have broad pore size distributions an

46 These methods employ dialysis membranes in 96-well format or spin filters.

47 bile salt and complete porcine bile across a dialysis membrane, in the presence and absence of two ce

48 e beta2m with transition metal cation at the dialysis membrane interface is causal to dialysis relate

49 A key component of its apparatus is a dialysis membrane interface that eliminates electrolysis

50 passively diffuse from the brain through the dialysis membrane into an infusion solution which is the

51 that, for a 15 kDa polyelectrolyte, a 50 kDa dialysis membrane is not sufficient to remove all PAH po

52 when a 1000 MWCO (molecular weight cut off) dialysis membrane is placed in the front of the diffusiv

53 A dialysis membrane is sandwiched between the disks to for

54 s sensor with a thin organoselenium modified dialysis membrane mounted at the distal sensing tip.

55 e conditions of the event, cellulose acetate dialysis membranes of various ages were retrieved from o

56 study investigates the potential role of the dialysis membrane on patient outcome in a prospective mu

57 ral clinical studies analyzing the impact of dialysis membranes on the course and outcome of acute re

58 trode consisted of nitrate reductase held by dialysis membrane onto a Nafion-coated glassy carbon ele

59 ally reduced upon elimination of copper from dialysis membranes, our results provide a molecular unde

60 In this study, a rat dialysis membrane peritoneal model was used to evaluate

61 s concluded that the biocompatibility of the dialysis membrane plays a role in the outcome of patient

62 Dialysis membranes ranging from 3 kD to 100 kD were used

63 rganisms and the electrodes was prevented by dialysis membrane, suggesting that soluble electron carr

64 se and 6-phosphogluconate dehydrogenase by a dialysis membrane, there was no apparent channeling.

65 iffusion performance of anthocyanins along a dialysis membrane was determined in the presence and abs

66 n performance of nine anthocyanins through a dialysis membrane was evaluated in the presence and abse

67 Using molecular weight cutoff filters and dialysis membranes, we found that the molecular weight o

68 m the antibiotic-resistant mutant by using a dialysis membrane were carried out.

69 monium chloride (PDA) aqueous solution and a dialysis membrane were used as a binding phase and a dif

70 Treating AN69 dialysis membrane, which bears negative charge due to in

71 s of complement and neutrophil activation by dialysis membranes, which may prolong the recovery from

72 n escape from 25,000 molecular weight cutoff dialysis membranes with velocity constants of 5.1 x 10(-