ライフサイエンスコーパス: dielectrophoretic

1 sistive sensor device was assembled using ac dielectrophoretic alignment followed by maskless anchori

2 In this approach, the dielectrophoretic amplitude response of rare target cell

3 a non-equilibrium on-off switch that employs dielectrophoretic and hydrodynamic shear forces to overc

4 epime, and doripenem, were determined by the dielectrophoretic antimicrobial susceptibility testing (

5 mes through a potential landscape exhibiting dielectrophoretic barriers.

6 city have also been developed to predict the dielectrophoretic behavior in an array of posts.

7 Here, we explore the dielectrophoretic behavior of six-helix bundle and trian

8 erties of submicron particles dominate their dielectrophoretic behavior.

9 r electrofusion of cells in suspension or in dielectrophoretic cell chains.

10 This allows high-throughput dielectrophoretic cell separation in high conductivity,

11 The study presents a dielectrophoretic cell separation method via three-dimen

12 based microfluidic Coulter counter with a dc-dielectrophoretic cell sorter, we demonstrate simultaneo

13 The data reveal that dielectrophoretic cell sorters should have the ability t

14 ottom) and indium tin oxide (at the top) for dielectrophoretic cell trapping and electrical lysis.

15 structures has led to new techniques for the dielectrophoretic characterization and sorting of cells,

16 electrokinetic behavior to enable design of dielectrophoretic concentrators and sorters.

17 ononuclear cells (PBMC) were determined from dielectrophoretic crossover frequency measurements on a

18 Characterization of the DNA's dielectrophoretic (DEP) behavior is the foundation of DN

19 ptibility test (AST) based on the changes in dielectrophoretic (DEP) behaviors related to the beta-la

20 o enhance the intensity of fluorescence in a dielectrophoretic (DEP) chip with a microelectrode array

21 Here, we outline a new dielectrophoretic (DEP) chip-based assay.

22 This paper describes the dielectrophoretic (DEP) forces generated by a bipolar el

23 Dielectrophoretic (DEP) forces have been used extensivel

24 Dielectrophoretic (DEP) mechanisms integrated in microfl

25 o optimizing micromixer design for enhancing dielectrophoretic (DEP) microconcentrator performance.

26 Continuous-flow dielectrophoretic (DEP) particle separation based on siz

27 e, we present a novel approach to change the dielectrophoretic (DEP) response of nonviable yeast cell

28 Dielectrophoretic dynamic light-scattering (DDLS) spectr

29 simple means for studying electrothermal and dielectrophoretic effects, which are important in micro

30 The dielectrophoretic enrichment of bacteria allows for obta

31 Dielectrophoretic enrichment was performed by collecting

32 Dielectrophoretic field-flow fractionation (DEP-FFF) has

33 Dielectrophoretic field-flow-fractionation (DEP-FFF) was

34 In this work, dielectrophoretic field-flow-fractionation (DEP-FFF), a

35 rochemical impedance measurement followed by dielectrophoretic force and antibody-antigen interaction

36 The applied dielectrophoretic force and the corresponding increase i

37 Dielectrophoretic force microscopy (DEPFM) and spectrosc

38 Dielectrophoretic force microscopy is shown to allow for

39 erences in magnitude and/or direction of the dielectrophoretic force on different populations of part

40 The magnitude and direction of the dielectrophoretic force on the particle depends on its d

41 Dielectrophoretic force spectra were obtained in situ in

42 e tips are structurally modified to create a dielectrophoretic force that attracts mRNA molecules wit

43 The dielectrophoretic force that results from the electric f

44 DEP-based microconcentrators use the dielectrophoretic force to collect particles on electrod

45 local pinning points for DNA segments due to dielectrophoretic force.

46 malous frequency effects, not explainable by dielectrophoretic forces alone, were also encountered an

47 d in which cell mixtures are fractionated by dielectrophoretic forces and simultaneously collected in

48 This not only validates our ability to model dielectrophoretic forces in these traps but also gives i

49 The balancing of surface, hydrodynamic and dielectrophoretic forces makes the self-assembly process

50 ory or orientation using electrophoretic and dielectrophoretic forces to a specific location with sub

51 ned the contributions of electrophoretic and dielectrophoretic forces to the trapping and concentrati

52 expression of the stress-related gene c-fos, dielectrophoretic forces were shown to have little effec

53 Dielectrophoretic forces, caused by the interaction of n

54 o experience different strengths of positive dielectrophoretic forces, in response to the 3D nonunifo

55 processor then utilizes electrophoretic and dielectrophoretic forces, which are effective in short r

56 s within a photopolymerizable hydrogel using dielectrophoretic forces.

57 er the periodic action of electrokinetic and dielectrophoretic forces.

58 In an array of posts, dielectrophoretic forcing within repeated rows adds cohe

59 New dielectrophoretic fractionation methods have great poten

60 As a result, dielectrophoretic frequency analysis can enable the inde

61 arget cells captured on microspheres through dielectrophoretic funneling.

62 Dielectrophoretic/gravitational field-flow fractionation

63 The characterization of a dielectrophoretic/gravitational field-flow-fractionation

64 ting the feasibility for frequency-selective dielectrophoretic isolation of cells to aid the discover

65 This paper presents a novel device for the dielectrophoretic manipulation of particles and cells.

66 Semiconducting SWNTs were imaged during dielectrophoretic manipulation with fluorescence microsc

67 he microelectrode surface using programmable dielectrophoretic manipulations.

68 ual giant unilamellar vesicles (GUVs) inside dielectrophoretic microfield cages.

69 rstanding of the underlying polarization and dielectrophoretic migration is essential.

70 gami species, which is responsible for their dielectrophoretic migration.

71 ls were observed to have significantly lower dielectrophoretic mobility than live cells, whereas the

72 re specialized approaches based on affinity, dielectrophoretic mobility, and inertial properties of c

73 link differential sorting to differences in dielectrophoretic mobility.

74 The field induces macromolecules to undergo dielectrophoretic motion, which is detected by the modul

75 Here, we extend dielectrophoretic nanowire assembly to achieve a 98.5% y

76 particles, including cells, using a positive dielectrophoretic (p-DEP) trapping array.

77 We introduce a new dielectrophoretic particle microconcentrator that combin

78 We combine the use of dielectrophoretic positioning with electrical impedance

79 igration times correlate to the depth of the dielectrophoretic potential barrier and the escape chara

80 actors contributing to the migration through dielectrophoretic potential landscapes, which can be exp

81 f electrical biosensors with BD-UNCD so that dielectrophoretic preconcentration can be performed dire

82 iamond (BD-UNCD) electrode in a microfluidic dielectrophoretic preconcentrator.

83 Here, the dielectrophoretic response of B cells infected with Kapo

84 lectrodes; this enumeration was based on the dielectrophoretic selection of cells.

85 Dielectrophoretic separation of cells followed by electr

86 the electrodes to create the conditions for dielectrophoretic separation of cells.

87 is briefly compared with immunomagnetic and dielectrophoretic separations.

88 loped a microfluidic device that facilitates dielectrophoretic sorting of heterogeneous particle mixt

89 tive droplets are subsequently recovered via dielectrophoretic sorting, and the TaqMan amplicons are

90 agreement was observed between the measured dielectrophoretic spectra and predictions using a single

91 ic field gradients enable demonstration of a dielectrophoretic spectrometer that separates particles

92 esent the development of a continuous-flow, "dielectrophoretic spectrometer" based on insulative DEP

93 el multiple cell types with unique synthetic dielectrophoretic tags that modulate the complex permitt

94 e orientation of both origami species in the dielectrophoretic trap and discuss the influence of diff

95 We present a novel microfabricated dielectrophoretic trap designed to pattern large arrays

96 Dielectrophoretic trapping of molecules is typically car

97 d high-field regions for electrophoretic and dielectrophoretic trapping of particles.

98 ul, method based on coupling single-molecule dielectrophoretic trapping to nanopore sensing.

99 In this paper we demonstrate dielectrophoretic trapping using insulating constriction

100 is comparable to that of optical tweezers or dielectrophoretic traps, without requiring an external f