Shoghi Effendi's Plans for Progress

1997 ◽  
Vol 7 (4) ◽  
pp. 69-86
Author(s):  
June Manning Thomas

THis article first briefly explains the nature of "planning" and the role plans play in the Baha'i concept of governance and human progress. The Baha'i Faith is perhaps the most "planning-oriented" of all the major religions. Historical reasons explain the Baha'i orienattion toward plans, and the article will suggest a few of these reasons as well as indicate several ways in which Shoghi Effendi could be called a "planner." The second major part of this article describes four broad categories of guidance that Shoghi Effendi used when overseeing three global plans and suggests ways that Shoghi Effendi's example offers practical lessons for others who must plan for their lives, their communities, or their organizations. The article draws these lessons from an examination of letters and cables that Shoghi Effendi wrote in relation to three global plans initiated in the last phase of his lfe and to compare these findings with more general knowledge about the planning process, as interpreted through the academic planning literature and the author's experience. This article will explain the overall categories or "functiona components" that can be used to categorize planning components of Shoghi Effendi's efforts during three global plans.

1978 ◽  
Vol 8 (3) ◽  
pp. 1-10
Author(s):  
Larry R. Jones

Under conditions of limited and selective growth, institutions propose resource allocation changes which are not strictly related to overall institutional enrollment levels. These proposals often focus attention on the resource impact of internal shifts in student demand and the desirability of maintaining minimum or "critical mass "levels of academic program breadth and quality. This paper addresses the academic planning procedures needed to advance non-enrollment driven resource maintenance and acquisition proposals at institutional and state levels. The purpose of critical mass modeling for academic planning is to facilitate analysis, prioritization and negotiation of academic program alternatives and resources. The critical mass approach to academic planning would establish a campus-wide process and informa- tion base for prioritization of academic program development through (a) analysis of existing breadth and depth of faculty expertise in instruction and research at the sub- disciplinary level, (b) identification of subdisciplinary areas in which academic units would like to provide instruction and research in the future. Critical mass denotes the level of course offerings and research which academic units could not reduce and still maintain programs which fulfill their own objectives compatible with the overall mission of their institution. Critical mass program size and "core" resource requirements would be established by academic unit faculty and then would be negotiated with committees of academic senates and with institutional administrations. The planning process described is designed for application in medium and large sized institutions in which formal, comprehensive and integrated academic ¡resource planning systems do not operate presently.


1967 ◽  
Vol 28 ◽  
pp. 105-176
Author(s):  
Robert F. Christy

(Ed. note: The custom in these Symposia has been to have a summary-introductory presentation which lasts about 1 to 1.5 hours, during which discussion from the floor is minor and usually directed at technical clarification. The remainder of the session is then devoted to discussion of the whole subject, oriented around the summary-introduction. The preceding session, I-A, at Nice, followed this pattern. Christy suggested that we might experiment in his presentation with a much more informal approach, allowing considerable discussion of the points raised in the summary-introduction during its presentation, with perhaps the entire morning spent in this way, reserving the afternoon session for discussion only. At Varenna, in the Fourth Symposium, several of the summaryintroductory papers presented from the astronomical viewpoint had been so full of concepts unfamiliar to a number of the aerodynamicists-physicists present, that a major part of the following discussion session had been devoted to simply clarifying concepts and then repeating a considerable amount of what had been summarized. So, always looking for alternatives which help to increase the understanding between the different disciplines by introducing clarification of concept as expeditiously as possible, we tried Christy's suggestion. Thus you will find the pattern of the following different from that in session I-A. I am much indebted to Christy for extensive collaboration in editing the resulting combined presentation and discussion. As always, however, I have taken upon myself the responsibility for the final editing, and so all shortcomings are on my head.)


2006 ◽  
Author(s):  
Michael Ziessler ◽  
Dieter Nattkemper ◽  
Stefan Vogt ◽  
Samuel Ellsworth ◽  
Jonathan Sayers

2018 ◽  
Vol 106 (1) ◽  
pp. 107 ◽  
Author(s):  
Jean- Louis Crolet

All that was said so far about passivity and passivation was indeed based on electrochemical prejudgments, and all based on unverified postulates. However, due the authors’ fame and for lack of anything better, the great many contradictions were carefully ignored. However, when resuming from raw experimental facts and the present general knowledge, it now appears that passivation always begins by the precipitation of a metallic hydroxide gel. Therefore, all the protectiveness mechanisms already known for porous corrosion layers apply, so that this outstanding protectiveness is indeed governed by the chemistry of transport processes throughout the entrapped water. For Al type passivation, the base metal ions only have deep and complete electronic shells, which precludes any electronic conductivity. Then protectiveness can only arise from gel thickening and densification. For Fe type passivation, an incomplete shell of superficial 3d electrons allows an early metallic or semimetallic conductivity in the gel skeleton, at the onset of the very first perfectly ordered inorganic polymers (- MII-O-MIII-O-)n. Then all depends on the acquisition, maintenance or loss of a sufficient electrical conductivity in this Faraday cage. But for both types of passive layers, all the known features can be explained by the chemistry of transport processes, with neither exception nor contradiction.


Sign in / Sign up

Export Citation Format

Share Document