ライフサイエンスコーパス: electroreceptor

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1 gin has been proposed for cartilaginous fish electroreceptors.

2 dges and migrating primordia, neuromasts and electroreceptors.

3 in appendage, the Schnauzenorgan, is rich in electroreceptors.

4 the central processing of sensory input from electroreceptors.

5 ver, conventional tuning curves predict poor electroreceptor afferent responses to low-frequency stim

6 by small shifts in the latency of individual electroreceptor afferent spikes after the EOD.

7 ach speed can be uniquely determined from an electroreceptor afferent's firing rate, a multiplexed ne

8 Conversely, power law adaptation modifies an electroreceptor afferent's response according to the tim

9 form of spike rate adaptation transforms an electroreceptor afferent's response to "looming" object

10 ystem of weakly electric fish, single P-type electroreceptor afferents accurately encode the time cou

11 esponse properties in tuberous and ampullary electroreceptor afferents of the weakly electric fish Ap

12 part of the phase-coding pathway; in S-type electroreceptor afferents.

13 These data confirm the homology of electroreceptors and ampullary organs in cartilaginous a

14 This calls into question the homology of electroreceptors and ampullary organs in the two lineage

15 We compared the ability of electroreceptors and ELL efferent neurons to encode the

16 l and evolutionary links between non-teleost electroreceptors and hair cells.

17 at lateral line placodes form both ampullary electroreceptors and mechanosensory neuromasts.

18 s of ELL that receive input from mormyromast electroreceptors but were absent in the zone of ELL that

19 Thousands of cutaneous electroreceptors detect changes in the transdermal poten

20 Although electroreceptors displayed relatively homogeneous respon

21 Ampullary organ electroreceptors excited by weak cathodal electric field

22 e hypothesis that lateral line placodes form electroreceptors in cartilaginous fishes by undertaking

23 s between electrosensory signals received by electroreceptors in different parts of the body surface.

24 non-placodal origins have been proposed for electroreceptors in other taxa.

25 at receives the primary afferent fibers from electroreceptors in the skin.

26 Spontaneously oscillating electroreceptors in weakly electric fish (Mormyridae) re

27 ne of ELL that receives input from ampullary electroreceptors, indicating markedly different processi

28 Specifically, we recorded from peripheral electroreceptor neurons, which display strong heterogene

29 at innervation is not essential for tuberous electroreceptor organ development, but that it is necess

30 Weakly electric fish use tuberous electroreceptor organs to detect their own electric fiel

31 Tuberous electroreceptor organs were present in regenerated reinn

32 These fish possess three types of electroreceptor organs.

33 regeneration and differentiation of tuberous electroreceptor organs.

34 rongest immunoreactivity in the knollenorgan electroreceptor pathway; in the nucleus of the electrose

35 ments had strong effects on the responses of electroreceptors, substantially reducing the amount of i

36 One class of tuberous electroreceptors, the knollenorgans, plays a critical ro

37 efish (Polyodon spathula), which use passive electroreceptors to detect electrical signals from plank

38 Male stingrays use their ampullary electroreceptors to locate mates, but the effect of gona

39 appendage that is covered with thousands of electroreceptors, which makes the fish extremely sensiti

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