ライフサイエンスコーパス: optical diffraction

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1 te to exceed the limits imposed by far-field optical diffraction.

2 atial resolution is fundamentally limited by optical diffraction.

3 ned preparations, by electron microscopy and optical diffraction.

4 ssion electron microscopy, Fourier transform optical diffraction, and computer simulations to be well

5 cence imaging is indeed spatially limited by optical diffraction, and is thus unable to discriminate

6 eries of measurements were carried out using optical diffraction, atomic force microscopy, and normal

7 uorescent- or radiolabel-free self-assembled optical diffraction biosensor that utilizes rolling circ

8 ntibody grating alone produces insignificant optical diffraction, but upon immunocapture of cells, th

9 ac muscle and, using electron microscopy and optical diffraction, determined the effect of phosphoryl

10 High-resolution (3.7 A in optical diffraction) electron microscope images have bee

11 The technique overcomes the limits of optical diffraction found in standard fluorescence micro

12 of a target peptide, triggering a change in optical diffraction from a crystalline colloidal array o

13 asmon resonance imaging (GCSPRI) utilizes an optical diffraction grating embossed on a gold-coated se

14 f diagnostic markers using in situ assembled optical diffraction gratings in combination with immunom

15 monitored with a lateral resolution near the optical diffraction limit at an acquisition rate of ~1 H

16 lymer network, labels spaced closer than the optical diffraction limit can be isotropically separated

17 The optical diffraction limit has been the dominant barrier

18 Confocal microscopy at the optical diffraction limit images volumes on the order of

19 gle-molecule fluorescence imaging beyond the optical diffraction limit in 3 dimensions with a wide-fi

20 Label-free imaging of living cells below the optical diffraction limit poses great challenges for opt

21 genesis and LD dimensions, and can break the optical diffraction limit to detect small variation in l

22 The ability to breach the optical diffraction limit to image living cells acoustic

23 microscopy can achieve resolution beyond the optical diffraction limit, partially closing the gap bet

24 s triggered and enlarges the AuNP beyond its optical diffraction limit, thereby making the invisible

25 AFM-IR can study particles smaller than the optical diffraction limit.

26 al resolution of ~3 mum to 30 mum due to the optical diffraction limit.

27 es is a key ingredient to imaging beyond the optical diffraction limit.

28 l structures provides information beyond the optical diffraction limit.

29 zation of mRNA transport dynamics beyond the optical diffraction limit.

30 luding ultrastructural scales finer than the optical diffraction limit.

31 e microscopy techniques that can surpass the optical diffraction limit.

32 corresponds to a six-fold increase over the optical diffraction limit.

33 th spatial resolution far below conventional optical diffraction limits.

34 ng electron microscopy (SEM) and a series of optical diffraction measurements at 633 nm.

35 Optical diffraction measurements of close-packed arrays

36 he utility of these surfaces for biosensing, optical diffraction measurements of the hybridization ad

37 Optical diffraction (OD) patterns and computed power den

38 bility of the crossbridges inferred from the optical diffraction pattern correlated well with the rat

39 tro studies of muscle fibres and analysis of optical diffraction patterns obtained from living muscle

40 ace' techniques, which are either limited by optical diffraction to approximately 250 nm resolution o

41 We use real-time optical diffraction to monitor the dynamics of self-asse

42 jection structure calculated from measurable optical diffractions to 25 A revealed a pseudo-2-fold sy

43 Using electron microscopy and optical diffraction, we examined the structure of thick

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