Die phylogenetischen Symmetrieveränderungen bei den Seeigeln

Ubisch, L. v.

doi:10.1007/978-3-663-02199-5

Cited by 5 publications

(9 citation statements)

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“…Helium and argon are of special interest, for the data obtained by different established techniques are available. Kannuluik and his group (15)(16)(17), Srivastava and Saxena (37), and Srivastava and Barua (36) have used the thick-wire variant of the hot-wire cell, while Weber (47, 48), Johnston and Grilly (14), and von Ubisch (43) have exploited the thin-wire variant of the hot-wire method. On the other hand, Waelbroeck and Zuckerbrodt (45), Cheung, Bromley, and Wilke (3), Lenoir and Comings (22), and Keyes (18) have employed concentric cylinders; while Walker, de Haas, and Westenberg (46) have used a flow method.…”

Section: Correlation Of Data On Rare Gasesmentioning

confidence: 99%

Correlated thermal conductivity data of rare gases and their binary mixts. at ordinary pressures

Gandhi¹,

Saxena²

1968

J. Chem. Eng. Data

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Section: Correlation Of Data On Rare Gasesmentioning

confidence: 99%

Correlated thermal conductivity data of rare gases and their binary mixts. at ordinary pressures

Gandhi¹,

Saxena²

1968

J. Chem. Eng. Data

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“…[15,16] In development, the nerve cords are formed in a manner similar to vertebrate neurulation. [17,18] The nerve cords have a distinct neuroepithelial layer containing neuronal cell bodies and an axonal neuropile ( Figure 3B,E). Neural communication through synapses and neurochemicals in echinoderms is similar to that in vertebrates, [14] as are the nerve cord proteome and metabolome.…”

Section: Echinoderms: a Non-model System Of Cns Regenerationmentioning

confidence: 99%

The Link between Autotomy and CNS Regeneration: Echinoderms as Non‐Model Species for Regenerative Biology

Byrne

2020

BioEssays

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Achieving regeneration of the central nervous system (CNS) is a major challenge for regenerative medicine. The inability of mammals to regrow a severed CNS contrasts with the amazing regenerative powers of their deuterostome kin, the echinoderms. Rapid CNS regeneration from a specialized autotomy plane in echinoderms presents a highly tractable and suitable non‐model system for regenerative biology and evolution. Starfish arm autotomy triggers mass cell migration and local proliferation, facilitating rapid CNS regeneration. Many regeneration events in nature are preceded by autotomy and there are striking parallels between autotomy and regeneration in starfish and lizards. Comparison of these systems holds promise to provide insight into regeneration deficiency in higher vertebrates and to uncover evolutionarily conserved deuterostome‐chordate regenerative processes. This will help identify mechanisms that may be present but inactive in higher vertebrates to address the problem of their poor regenerative capacities and the challenge to achieve CNS repair and regrowth.

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“…112 ) <gf I v' I gi> (pgf Pgi) (7) <gfjAjgi> where pgf is the final gas momentum. Matrix elements for the Morse Devon· sh1· re and ·strachan are g1· ven by 35 potent1a use y ennar -ones, (8) .…”

Section: A Acconunoda~ion Coefficient Theorymentioning

confidence: 99%