Entrepreneurial spirit plays an increasingly important role in the economic sphere, and universities are meant to play a central role in this process, where the main objective is the continuous development and mediation of the knowledge increasingly geared to the applications through innovation and patenting a secure platform for employment and well-being growth. The Universities have to take a position in if/and how they want to grow into a so-called “University of Entrepreneurship” which is characterized by a high degree of openness to the surrounding society and here we are talking, especially, about, the business sector in Romania. This evolution of expectations for the social role of universities has resulted from increased and recent interest in entrepreneurship and innovation of areas as research and theory of the business environment. The experience gained as teachers indicates that education and entrepreneurship education should include different theories and methodology than those applied in the usual way. The theory of traditional management and microeconomic models could even be a barrier to new thinking and change and, therefore, to the implementation of modern entrepreneurial actions. We want this article to be a source of inspiration for educational institutions and to have a positive contribution to research in business education and to be applicable in business decision-making.
Oxidative stress appears when the amount of free radicals that are formed in a living organism exceed its spin-trapping ability. One of the most dangerous free radicals that are formed in the human body is the hydroxyl radical. It can alter several biomolecules, including the unsaturated fatty acids; this process is known as lipid peroxidation and can lead to cell necrosis and generation of several harmful byproducts including malondialdehyde, which serves also as a biomarker of oxidative stress. A new HPLC method with visible detection was developed for the detection of malondialdehyde in human serum and saliva samples. The method was verified in terms of specificity, linearity, limits of detection (0.35 ng/ml), limit of quantification (1.19 ng/ml), recovery (90.13±10.25 – 107.29±14.33) and precision (3.84±1.49% – 6.66±1.76%). An analysis time of only 1 minute was obtained and no interferences from the matrices were observed. Statistical analysis (Pearson correlation test) showed a moderate correlation (R = 0.5061, p = 0.0099) between serum and saliva concentrations (N = 25). The possibility of measuring salivary concentrations of malondialdehyde extents the applications of oxidative stress/lipid peroxidation estimations to categories of population unreachable before (pregnant women, small children, etc); repeated sample studies are also easier to make.