The effects of governments on management and organization

We review and integrate existing research from organization theory, strategy, organizational behavior, economics, sociology and political science on the effects of governments on organization and management, with a focus on how governing ideology and government capability influence independent organizations’ forms, strategies, and their participants’ behavior. When brought together these works suggest significant research opportunities in the fields of management and organization, as well as new perspectives on public policy challenges. Several avenues of potentially profitable empirical research include more attention to the influence of government on corporate strategies, more research on the strategies of pursuing corruption and government capture for competitive advantage, the role of government in fostering innovation and the growth of entrepreneurial organizations, and extra‐organizational contextual effects on managerial and employee organizational behavior. Possible public policy implications are illustrated with an application to the role of organizations in national wealth generation and dispersion

Measurement of the 3He spin-structure functions and of neutron (3He) spin-dependent sum rules at 0.035 ≤ Q2 ≤ 0.24 GeV2

International audienceThe spin-structure functions g1 and g2, and the spin-dependent partial cross-section σTT have been extracted from the polarized cross-sections differences, Δσ∥(ν,Q2) and Δσ⊥(ν,Q2) measured for the He3→(e→,e′)X reaction, in the E97-110 experiment at Jefferson Lab. Polarized electrons with energies from 1.147 to 4.404 GeV were scattered at angles of 6∘ and 9∘ from a longitudinally or transversely polarized 3He target. The data cover the kinematic regions of the quasi-elastic, resonance production and beyond. From the extracted spin-structure functions, the first moments Γ1‾(Q2), Γ2(Q2) and ITT(Q2) are evaluated with high precision for the neutron in the Q2 range from 0.035 to 0.24GeV2. The comparison of the data and the chiral effective field theory predictions reveals the importance of proper treatment of the Δ degree of freedom for spin observables