Bond-Smith, Steven, Luisa Corrrado, Daniel Felsenstein, and Paul Elhorst. 2024.
“Spatial Macroeconomics”.
Spatial Economic Analysis 19(3):273-286. Retrieved (
https://www.tandfonline.com/doi/full/10.1080/17421772.2024. 2364527?src=exp-la).
Publisher's VersionAbstractThis special issue on spatial macroeconomics aims to bridge the divide between spatial and macroeconomics. Defined in the introduction, spatial macroeconomics explores the interactions between economic activity and geographical space. The issue comprises eleven papers authored by a total of 32 researchers. These papers were selected through a combination of solicited submissions and an open call for contributions. Four papers within this special issue delve into spatial macroeconomic theory. They cover topics such as agglomeration economies for innovation, a neoclassical spatial general equilibrium growth model, the spatial sorting of heterogeneous workers and the impact of national industrial policies in strategic industries on trade. Additionally, seven papers offer empirical studies that encompass
a wide range of methodologies. These include general equilibrium models, input-output-based analyses and econometric models. The empirical research addresses various topics, such as the impact of trade on productivity, the trade-off between efficiency and equity, fiscal assistance, local and nationwide fiscal
multipliers, forced human displacement during wars and the spatial diffusion effects of renewable energy resource deployment.
Beenstock, M., Y. Cohen, and D. Felsenstein. 2024.
“Analytical Simulation Methodology for Nonlinear Spatiotemporal Models: Spatial Salience in Covid-19 Contagion”.
Spatial Statistics 62(100844). Retrieved ().
Publisher's VersionAbstract
‘Outdegree’ from directed graph theory is used to measure the salience of individual locations in the transmission of Covid-19 morbidity through the spatiotemporal network of contagion and their salience in the spatiotemporal diffusion of vaccination rollout. A spatial econometric model in which morbidity varies inversely with vaccination rollout, and vaccination rollout varies directly with morbidity is used to calculate dynamic auto-outdegrees for morbidity, and dynamic cross-outdegrees for the effect of vaccination on morbidity. The former identifies hot spots of contagion, and the latter identifies locations in which vaccination rollout is particularly effective in reducing national morbidity. These outdegrees are calculated analytically rather than simulated numerically.