Global population growth, technology, and Malthusian constraints: A quantitative growth theoretic perspective

We structurally estimate a two-sector Schumpeterian growth model with endogenous population and finite land reserves to study the long run evolution of global population, technological progress and the demand for food. The estimated model closely replicates trajectories for world population, GDP, se...

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Main Authors: Lanz, B., Dietz, S., Swanson, T.
Format: Technical Report
Language:en_US
Published: MIT Joint Program on the Science and Policy of Global Change 2015
Online Access:http://hdl.handle.net/1721.1/99413
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author Lanz, B.
Dietz, S.
Swanson, T.
author_facet Lanz, B.
Dietz, S.
Swanson, T.
author_sort Lanz, B.
collection MIT
description We structurally estimate a two-sector Schumpeterian growth model with endogenous population and finite land reserves to study the long run evolution of global population, technological progress and the demand for food. The estimated model closely replicates trajectories for world population, GDP, sectoral productivity growth and crop land area from 1960 to 2010. Projections from 2010 onwards show a slowdown of technological progress, and because it is a key determinant of fertility costs, significant population growth. By 2100 global population reaches 12 billion and agricultural production doubles, but the land constraint does not bind because of capital investment and technological progress.
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spelling mit-1721.1/994132019-04-12T12:29:29Z Global population growth, technology, and Malthusian constraints: A quantitative growth theoretic perspective Lanz, B. Dietz, S. Swanson, T. We structurally estimate a two-sector Schumpeterian growth model with endogenous population and finite land reserves to study the long run evolution of global population, technological progress and the demand for food. The estimated model closely replicates trajectories for world population, GDP, sectoral productivity growth and crop land area from 1960 to 2010. Projections from 2010 onwards show a slowdown of technological progress, and because it is a key determinant of fertility costs, significant population growth. By 2100 global population reaches 12 billion and agricultural production doubles, but the land constraint does not bind because of capital investment and technological progress. Funding from the MAVA foundation is gratefully acknowledged. 2015-10-22T14:23:21Z 2015-10-22T14:23:21Z 2015-10 Technical Report http://hdl.handle.net/1721.1/99413 Report 283 en_US MIT Joint Program Report Series;283 application/pdf MIT Joint Program on the Science and Policy of Global Change
spellingShingle Lanz, B.
Dietz, S.
Swanson, T.
Global population growth, technology, and Malthusian constraints: A quantitative growth theoretic perspective
title Global population growth, technology, and Malthusian constraints: A quantitative growth theoretic perspective
title_full Global population growth, technology, and Malthusian constraints: A quantitative growth theoretic perspective
title_fullStr Global population growth, technology, and Malthusian constraints: A quantitative growth theoretic perspective
title_full_unstemmed Global population growth, technology, and Malthusian constraints: A quantitative growth theoretic perspective
title_short Global population growth, technology, and Malthusian constraints: A quantitative growth theoretic perspective
title_sort global population growth technology and malthusian constraints a quantitative growth theoretic perspective
url http://hdl.handle.net/1721.1/99413
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AT swansont globalpopulationgrowthtechnologyandmalthusianconstraintsaquantitativegrowththeoreticperspective