ライフサイエンスコーパス: electric field gradient

1 icrofluidic chip with a locally amplified AC electric field gradient.

2 d the local density approximation to predict electric field gradients.

3 J and J' states and with them shifts due to electric field gradients.

4 on enrichment and depletion (FIE and FID) on electric field gradients.

5 The electric-field gradient across the boundary of two solut

6 adient focusing technique that depends on an electric field gradient and a hydrodynamic counterflow t

7 EFGF) is a separation technique that uses an electric field gradient and an opposing hydrodynamic flo

8 contributions to the NMR line shape from the electric field gradient and the anisotropic shielding te

9 oadening arising from the interaction of the electric field gradient and the nuclear electric quadrup

10 Post shapes are contoured easily to control electric field gradients and, hence, DEP behavior.

11 produce the Mossbauer parameters (A-tensors, electric field gradient, and isomer shift) of 2 quite we

12 We used COMSOL simulations to calculate the electric field gradients, and these theoretical results

13 posts in a microfluidic device around which electric field gradients are created by the application

14 ing constants, which are proportional to the electric field gradients at the (17)O sites, decrease by

15 Electrostatic calculations of the electric field gradients at the vanadium atoms have been

16 buffer ions to pass through and there was no electric field gradient beyond that point.

17 ch as in wound healing, and cells respond to electric field gradients by reorienting and migrating di

18 ed to the gold microtubes resulting in large electric field gradients down the length of the tubes.

19 at the charge is partially shielded from the electric field gradient during transport, possibly by th

20 eld splitting was attempted by analyzing the electric field gradient (EFG) at the (57)Fe nuclei, taki

21 nctional theory, the predicted values of the electric field gradient (EFG) or equivalently the C(Q) a

22 The measured values for the electric field gradient (EFG) or quadrupole coupling con

23 ropic chemical shift values and the chlorine electric field gradient (EFG) tensor information are ext

24 ons aimed at predicting the (57)Fe Mossbauer electric field gradient (EFG) tensors (quadrupole splitt

25 Calculated (14)N electric field gradients (EFGs) reflect experimentally o

26 The resulting electric field gradients enable demonstration of a diele

27 c field gradient focusing (DFGF) utilizes an electric field gradient established by a computer-contro

28 We have applied this method in miniaturizing electric field gradient focusing (EFGF) and carrying out

29 Isotachophoresis (ITP) and electric field gradient focusing (EFGF) are two powerful

30 Electric field gradient focusing (EFGF) is a separation

31 Electric field gradient focusing (EFGF) is an equilibriu

32 l methacrylate-co-methyl methacrylate) micro electric field gradient focusing (muEFGF) device is desc

33 ns, instead of anions, to be enriched via an electric field gradient focusing mechanism.

34 to compute all of the tensor elements of the electric field gradient for each carbon-deuterium bond i

35 The isomer shifts and electric field gradients in 1.X exhibit a remarkably str

36 ver, an intrinsic by-product of the enormous electric field gradients inherent to plasma accelerators

37 ly associates with the TatBC complex, and an electric field gradient is required for the cargo to pro

38 which describe the formation of an extended electric field gradient leading to concentration enrichm

39 ielectrophoretic force that results from the electric field gradient near the ridges is used to affec

40 te which shows no signature of change in the electric field gradient (nuclear quadrupolar frequency)

41 nt of +/-71.2 +/- 1 MHz, corresponding to an electric field gradient of +/-1.49 atomic units at the c

42 servation that the largest components of the electric field gradients of Fe(O) and Fe(OH) are perpend

43 To achieve the high electric field gradients required to porate the membrane

44 arbonic anhydrase indicate that the computed electric field gradient tensor is in good agreement with

45 The principal component V(zz) of the (11)B electric field gradient tensor is tilted slightly away (

46 the available experimental data as were the electric field gradient tensor orientations.

47 in a comprehensive set of chemical shift and electric field gradient tensors for a small molecular tr

48 pling parameters, and the orientation of the electric field gradient tensors for each site of zinc fo

49 cases, molecular orbital calculations of the electric field gradient tensors yields C(q) and eta valu

50 s demonstrated through the application of an electric field gradient that leads to phase separations

51 PEs can be exploited to shape and extend the electric field gradients that are responsible for DEP fo

52 conductive polymer that enables the required electric field gradient to be established.

53 ymer by Joule heating, extremely non-uniform electric field gradients to polarize and manipulate the

54 A linear electric field gradient was obtained by applying a volta

55 omplex electrophoretic setups coupling sharp electric field gradients with bulk reactions, surface re

56 g of serine indicates an alteration in local electric field gradients within the beta subunit.