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1 ates (which includes spiders, scorpions, and horseshoe crabs).
2 s are of similar sizes to those found in the horseshoe crab.
3 s of bacteria and a clotting factor from the horseshoe crab.
4 o land, a behavior similar to that of extant horseshoe crabs.
5 revealed in the appendages of two species of horseshoe crabs.
6 es, and marine sea spiders (pycnogonids) and horseshoe crabs.
7 vely, of chelicerate groups like spiders and horseshoe crabs.
8 nd fine setae permits comparison with extant horseshoe crabs.
9 hology resembles that of extant Merostomata (horseshoe crabs).(5) Here, we identify preserved traces
10 uence comparisons between these taxa and the horseshoe crab, a chelicerate from the sister group to a
11 chondrial genomes are similar to that of the horseshoe crab, although both of the solifuges possess a
14 entified in mollusks, and arthropods such as horseshoe crabs and beetles, indicating that this pathwa
15 mical similarity between the Middle Triassic horseshoe crabs and their recent analogues documents ana
16 ns; Chelicerata, represented by sea spiders, horseshoe crabs, and arachnids-the last including spider
18 late claspers in males are plesiomorphic for horseshoe crabs, and the bulbous claspers in Tachypleus
24 lysis recovers marine forms (sea spiders and horseshoe crabs) as the successive sister groups of a mo
25 ysis clusters Limulus SAP pentraxin with the horseshoe crab C-reactive proteins (CRPs) rather than th
26 mes from three of the four extant species of horseshoe crabs-Carcinoscorpius rotundicauda, Limulus po
28 nd posterior divisions of the body of living horseshoe crabs differ in the loss of the outer and inne
29 this relatively simple eye helps explain how horseshoe crabs find mates and may lead to a better unde
33 Nonetheless, a comparison of Octopus and horseshoe crab hemocyanin reveals a similar active site,
35 milarity in structure and aggregation to the horseshoe crab innate immune protein tachylectin 5A.
37 hylogenetically ancient "living fossil", the horseshoe crab Limulus polyphemus and determined the thr
46 The acrosomal process of the sperm of the horseshoe crab (Limulus polyphemus) is a unique crystall
48 (Gallus gallus), hagfish (Myxine glutinosa), horseshoe crab (Limulus polyphemus), and cone snail (Con
50 x datasets spanning 22-46 years for Atlantic horseshoe crabs (Limulus polyphemus) in the Long Island
54 It has been found as a single gene in the horseshoe crab, marine sponge, sea urchin, nematode, and
55 ing arachnids as a clade and instead finding horseshoe crabs nested inside terrestrial Arachnida.
57 onal structures presented here and the known horseshoe crab pentraxin sequences, suggest that adaptat
58 traxin species distinct from all other known horseshoe crab pentraxins that exist in many variant for
60 ultiomics of the cartilaginous book gills of horseshoe crabs reveals a developmental program shared w
61 Cretotrichopsenius display the protective horseshoe-crab-shaped body form typical of many modern t
63 tribe Trichopseniini, display the protective horseshoe-crab-shaped body typical of many extant termit
65 elated antibacterial protein of the Japanese horseshoe crab Tachypleus tridentatus, showed properties
67 I is a 17-residue peptide isolated from the horseshoe crab, Tachypleus tridentatus.It has high antim
68 in host defense for "living fossils" such as horseshoe crabs, the role of the coagulation system in i
70 ith the Factor C, a serine protease found in horseshoe crabs, which is critical for antibacterial res