scholarly journals Typecasting in the Recruitment of Full Professors

Author(s):  
Sara Levander ◽  
Eva Forsberg ◽  
Sverker Lindblad ◽  
Gustaf J. Bjurhammer

AbstractThe recruitment of full professors is critical for the formation of academia. The professorship is critical not only for the prosperity of the HEIs, but especially so for the establishment, development and communication of the discipline. In this chapter, we analyze the initial step of the typecasting process in the recruitment of full professors. We use a few cases to illustrate how the intellectual and social organization of the field of education science(s) is manifested in publicly posted job advertisements. The analysis shows that the field is characterized by heterogeneity and no longer has a basis in one single discipline. New relations between research, teaching, and society can be observed, as well as a narrowing of authority of the professorship but an increase of responsibilities.

2020 ◽  
Vol 2 (2) ◽  
pp. 05-06
Author(s):  
Raimundo Nonato Ribeiro dos Santos

The COVID-19 pandemic, which was established in the world in that year 2020, is one of those breaking points that mark the history of humanity, as well as the discovery of fire, the invention of the press, the French Revolution, the Industrial Revolution, world wars, among other moments. In common, both allowed a leap in the evolution and survival of humanity, transforming its entire social organization and spheres such as Education, Science, the Environment, Politics and Labor relations.


Author(s):  
M. R. Pinnel ◽  
A. Lawley

Numerous phenomenological descriptions of the mechanical behavior of composite materials have been developed. There is now an urgent need to study and interpret deformation behavior, load transfer, and strain distribution, in terms of micromechanisms at the atomic level. One approach is to characterize dislocation substructure resulting from specific test conditions by the various techniques of transmission electron microscopy. The present paper describes a technique for the preparation of electron transparent composites of aluminum-stainless steel, such that examination of the matrix-fiber (wire), or interfacial region is possible. Dislocation substructures are currently under examination following tensile, compressive, and creep loading. The technique complements and extends the one other study in this area by Hancock.The composite examined was hot-pressed (argon atmosphere) 99.99% aluminum reinforced with 15% volume fraction stainless steel wire (0.006″ dia.).Foils were prepared so that the stainless steel wires run longitudinally in the plane of the specimen i.e. the electron beam is perpendicular to the axes of the wires. The initial step involves cutting slices ∼0.040″ in thickness on a diamond slitting wheel.


Author(s):  
Gisèle Nicolas ◽  
Jean-Marie Bassot ◽  
Marie-Thérèse Nicolas

The use of fast-freeze fixation (FFF) followed by freeze-substitution (FS) brings substantial advantages which are due to the extreme rapidity of this fixation compared to the conventional one. The initial step, FFF, physically immobilizes most molecules and therefore arrests the biological reactions in a matter of milliseconds. The second step, FS, slowly removes the water content still in solid state and, at the same time, chemically fixes the other cell components in absence of external water. This procedure results in an excellent preservation of the ultrastructure, avoids osmotic artifacts,maintains in situ most soluble substances and keeps up a number of cell activities including antigenicities. Another point of interest is that the rapidity of the initial immobilization enables the capture of unstable structures which, otherwise, would slip towards a more stable state. When combined with electrophysiology, this technique arrests the ultrastructural modifications at a well defined state, allowing a precise timing of the events.We studied the epithelium of the elytra of the scale-worm, Harmothoe lunulata which has excitable, conductible and bioluminescent properties. The intracellular sites of the light emission are paracrystals of endoplasmic reticulum (PER), named photosomes (Fig.1). They are able to flash only when they are coupled with plasma membrane infoldings by dyadic or triadic junctions (Fig.2) basically similar to those of the striated muscle fibers. We have studied them before, during and after stimulation. FFF-FS showed that these complexes are labile structures able to diffentiate and dedifferentiate within milliseconds. Moreover, a transient network of endoplasmic reticulum was captured which we have named intermediate endoplasmic reticulum (IER) surrounding the PER (Fig.1). Numerous gap junctions are found in the membranous infoldings of the junctional complexes (Fig.3). When cryofractured, they cleave unusually (Fig.4-5). It is tempting to suggest that they play an important role in the conduction of the excitation.


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