To evaluate matching accuracy comprehensively and objectively, we perform numerous experiments using many real multi-modal image pairs.
To evaluate the performance of our method, we conduct numerous experiments using both synthetic and real images, and compare the experimental results with the state of the art methods, including four-directional derivative-energy image (FDDEI) [13], local frequency representation (LFR) [21], phase congruence (PC) [22], local symmetry score (LSS) [23], and mutual information (MI) [24].
These organisms, Mariprofundus ferrooxydans (a deep sea bacterium collected near Hawaii), candidate division TM7 (collected from a subgingival plaque in the human mouth), and marine gamma-proteobacterium (collected in the coastal Pacific Ocean at 10 m depth) were detected with low log-odds scores on numerous experiments using different samples.
Numerous such experiments use either force or fluorescence to visualize samples and dynamic behavior, for example, in optical tweezers, in super-resolution techniques, or in single-molecule Förster resonance energy transfer (smFRET).
Experiments using numerous real and synthetic images demonstrate that our method can match multi-modal images robustly.
Numerous in vitro and in vivo experiments using P2X7R−/− mice have conclusively linked the stimulation of P2X7R by extracellular ATP to the activation of ICE and the downstream production of mature IL-1β [14], [44] [46]]–[44] [46]
By contrast, DHA-inducible peroxisomal division was strongly inhibited by MFF knockdown in two independent experiments using dsRNA MFF#1 (74±18) and MFF#2 (84±22), respectively, rather giving rise to numerous elongated peroxisomes (Fig. 2Ac,d,C).
The experiments used numerous junk objects, each differing in shape, texture, size, and color.
The experiments used numerous junk objects, each differing in shape, texture, size and colour.
All experiments used numerous junk objects, each differing in shape, texture, size, and color.
In addition, the device used by Zheng et al. exemplifies the versatility of microfluidics, numerous experiments were performed using the same device design, maintaining uniformity for result comparison and minimizing the time required for device engineering.
