ライフサイエンスコーパス: liquid-disordered phase

1 s does not alter 5-HT1A segregation into the liquid disordered phase.

2 that electropores form preferentially in the liquid disordered phase.

3 main boundaries before it accumulates in the liquid-disordered phase.

4 at EqtII pores form predominantly within the liquid-disordered phase.

5 ed state versus cholesterol-free LUVs in the liquid-disordered phase.

6 where septin polymerized selectively on the liquid-disordered phase.

7 talline and a gel, or a liquid-ordered and a liquid-disordered phase.

8 antly higher than for extracting it from the liquid-disordered phases.

9 ndensed phases as well as liquid-ordered and liquid-disordered phases.

10 re is coexistence between liquid-ordered and liquid-disordered phases.

11 ble blue shift in liquid-ordered relative to liquid-disordered phases.

12 diffusion of fluorescently tagged lipids in liquid-disordered phase 1-palmitoyl-2-oleoyl-sn-glycero-

13 the different lipid membranes (DOPC for the liquid disordered phase and DPPC for the gel phase), and

14 These liquid-ordered domains coexist with a liquid-disordered phase and form in monolayers prepared

15 rresponding to the liquid-ordered phase, the liquid-disordered phase, and coexistence of the two phas

16 60 nm in liquid-ordered phases compared with liquid-disordered phases, and shows strong second harmon

17 Coexisting liquid-ordered and liquid-disordered phases are observed at temperatures be

18 measured as (7.3+/-0.8)x10(-3) s(-1) in the liquid-disordered phase at 36 degrees C is 35-times fast

19 DPPC and PGPC do not mix in the liquid-disordered phase because mobility of both tails i

20 undulations of membranes with liquid ordered/liquid disordered phase coexistence and near-critical co

21 ch differentiates liquid-ordered phases from liquid-disordered phases coexisting in model membranes u

22 ows strong second harmonic generation in the liquid-disordered phase compared with the liquid-ordered

23 Upon collapse, bilayer folds formed in the liquid (disordered) phase; curved domains shifted the nu

24 e diffusion of lipids is similar in l(o) and liquid-disordered phase domains and is not affected by t

25 ning membranes shows that liquid-ordered and liquid-disordered phase domains coexist.

26 Dye preferentially adsorbed to the liquid-disordered phase during immiscible liquid-liquid

27 ing of n-alcohols between liquid-ordered and liquid-disordered phases evolves as the chain length of

28 which two distinct phase transitions (gel to liquid-disordered phase) have been identified.

29 Further, the TCR was localized in the liquid disordered phase in giant unilamellar vesicles.

30 r spectral change between liquid-ordered and liquid-disordered phases in model membranes and distingu

31 liquid phases similar to the liquid-ordered/liquid-disordered phases in phospholipid/cholesterol mon

32 inimal peptide markers of liquid-ordered and liquid-disordered phases, indicating that ordered-domain

33 branes made from DPPC and cholesterol in the liquid-disordered phase (ld), in the liquid-ordered phas

34 We compare ordered-phase with liquid disordered-phase lipid bilayers, and we find the

35 regation of 5-HT1A into the cholesterol-poor liquid disordered phase of the membrane, contradicting p

36 the coexistence region of liquid-ordered and liquid-disordered phases of cholesterol containing terna

37 id-ordered phases and for all X(PGPC) in the liquid-disordered phase; POPC and PGPC form randomly mix

38 d DENV capsid proteins bound to liposomes at liquid-disordered phase regions, docked exogenous membra

39 are 90 s and 11 s in the liquid-ordered and liquid-disordered phases, respectively.

40 a novel analysis, and are found to connect a liquid-disordered phase rich in diphytanoyl PC with a li

41 e of domain registration in a liquid-ordered/liquid-disordered phase-separating lipid mixture consist

42 ickness of the coexisting liquid-ordered and liquid-disordered phases, suggesting a dominant role for

43 is changed into a bilayer resembling a fluid-liquid-disordered phase surrounding ordered microdomains

44 C showed no evidence for a liquid-ordered to liquid-disordered phase transition.

45 various chain anchors in liquid-ordered and liquid-disordered phases utilizing a theoretical model o

46 The liquid (disordered) phase was preferentially transferred

47 erties of liquid-ordered, solid-ordered, and liquid-disordered phases were investigated by steady-sta

48 vidual tethered proteins colocalize with the liquid-disordered phase, whereas ordered protein domains