Location and other correlates of campus crime

Crime and security are major issues on a number of college campuses in the United States, yet little criminology research has been aimed at the campus setting. This article explores whixh aspects of the campus profile seem to contribute, or at least relate, to high levels of campus crime. A regression of crime rates on dimensions of the campus profile uncovered a number of correlates (specifically, measures of campus size and scholastic quality) in our sample of 222 colleges and universities. Somewhat surprisingly, the location of a campus—be it in an urban or a rural setting—had no impact on the level of its crime problem, though a slight influence on crime mix (proportion of crimes that are violent) was found.     

ATP’s impact on accelerating development and commercialization of advanced technology

One of ATP’s legislated mandates is to accelerate industry’s development and commercialization of new technologies. This survey of 28 projects funded in 1991 found that ATP helped cut technology development cycle time by 50% in most cases. Slightly more than half of the interviewees provided quantitative estimates of the economic value of reducing cycle time by a single year. Most interviewees expected the positive impact on cycle time experienced in the applied-research stage to flow through to later stages in the technology development cycle allowing them to enter the marketplace more quickly. Cycle-time improvements in other technology development projects were attributed by the companies to their ATP project. Two types of acceleration were implied: (1) overcoming delays in starting technology development projects, and (2) speeding up performance of research once it is under way. This paper is based on work performed by the author when she was serving as an industry consultant to the National Institute of Standards and Technology (NIST). The author acknowledges the contributions of Rosalie Ruegg, Richard Spivack, Ernesto Robles, and Gregory Tassey, all of NIST, to the study. In addition, she expresses appreciation to the 28 company representatives who participated in the project interviews.     

Moral Agency and Moral Responsibility in Humanitarian Intervention

This paper sets out a preliminary taxonomy of potential collective moral agents in humanitarian intervention, based on six recent cases involving international organisations. The settings for the cases are Northern Iraq, Somalia, Bosnia-Herzegovina, Haiti, Rwanda, and Kosovo. Attributing moral responsibility to a group actor requires first discovering whether its characteristics are enough like an individual moral agent's to support an analogy. Groups in humanitarian intervention that appear to choose between one course of action and another, and have a clear structure of leadership and a capacity to control their collective activities, meet criteria that characterise individual moral agents. If they can also distinguish between policies using the language of morality we can call them collective moral agents, and hence subject to some moral responsibilities.     

Effect of hyperthermia on breath-alcohol analysis

Mild hyperthermia to the extent of a 2.5 degrees C increase above normal body temperature was produced by immersion of ethanol-intoxicated subjects in a warm water bath. Hyperthermia did not influence the blood-alcohol decay curve of the subjects. Hyperthermia did cause a significant distortion of the breath-alcohol decay curve, up to as much as a 23% increase above blood-alcohol concentration. The magnitude of this distortion effect was calculated to be a 8.62% increase in breath-alcohol concentration over blood-alcohol concentration for each degree C increase in core body temperature. The forensic relevance of these results is that further support is given to previous recommendations that temperature monitoring be included in procedures for breath-alcohol analysis. This leads to the recommendation that mouth temperature be measured before breath sampling to screen for abnormal body temperature and to allow for potential use of a "temperature correction factor." This modification to existing analytical procedures would optimize the reliability of breath-ethanol analysis for prediction of blood-ethanol concentration.