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The Effect of WWI Military Casualties on the Population Distribution in Germany

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The Effect of WWI Military Casualties on the Population Distribution in Germany

Antonio Ciccone

University of Mannheim

NBER SI 30 July 2021

(2)

Roadmap

1 Introduction

2 Related Literature

3 Data

4 Empirical Framework

5 Empirical Results

6 Conclusion

(3)

Introduction

Auerbach 1913, Lotka 1925, Zipf 1949, and others since: city size distributions seem to satisfy certain statistical regularities

Simon 1955: scale-invariant random growth may explain regularities economics of scale-invariant random local growth: Gabaix 1999, Duranton 2006, Rossi-Hansberg and Wright 2007, Cordoba 2008 want to contribute evidence on persistence of local population shocks, using data on German military casualties in WWI (1914-1918)

(4)

Roadmap

1 Introduction

2 Related Literature

3 Data

4 Empirical Framework

5 Empirical Results

6 Conclusion

(5)

Related Literature

scale-invariant city population growth in US: Glaeser, Scheinkman, Shleifer 1995, Eaton and Eckstein 1997, Black and Henderson 2003, Ioannides and Overman 2003, Eeckhout 2004

effects of allied aerial bombing in WWII: Davis and Weinstein 2002, Brakman, Garretsen, and Schramm 2004 (Glaeser and Gyourko 2005 on role of housing supply for urban growth)

Bleakley and Lin 2012: persistent effects of geographic productivity advantages long after these vanished

(6)

Roadmap

1 Introduction

2 Related Literature

3 Data

4 Empirical Framework

5 Empirical Results

6 Conclusion

(7)

Data

Map of W¨ urttemberg 1806-1945, within Germany today

(8)

Data

Why W¨ urttemberg?

exceptional pre-WWI 1898 and 1910 compendia of municipality statistics

no relevant material destruction during WWI

few changes in municipality borders up to 1970 (concentrated 1933-39)

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Data

Some variables from 1910 statistical compendium

population 1905 income per capita 1905

number of households 1905 agricultural relative to total population 1905 male relative to female population 1905 daily wage 1884

population density 1905 growth daily wage 1884-1909

male population growth 1905-1910 share male population younger 14 in 1875 male population growth 1900-1905 share male population younger 14 in 1880 male population growth 1880-1900 share female population younger 14 in 1875 female population growth 1905-1910 share female population younger 14 in 1880 female population growth 1900-1905 share population younger 14 in 1895 female population growth 1880-1900 nonagricultural businesses per capita 1907/1905 nonagricultural businesses per capita 1907/1905 male population born in municipality relative to total

male population 1895

nonagricultural business taxes per capita 1908/1905 female population born in municipality relative to total female population 1895

property tax per capita 1907/1905 distance next train station property tax per building 1907 labour force to total population 1905 land tax per square km 1907 share of farms below 2 hectars fire insurance buiding values per capita 1908/1905 share of farms between 4 and 10 hectars nonagricultural business employment per business

1907

share of farms between 10 and 20 hectars stillborn or died younger than 1 year old relative to

all births 1896-1905

share of farms larger than 20 hectars population born in municipality relative to total pop-

ulation 1900

growth in land area of municipality 1905-1933 population born in municipality relative to total pop-

ulation 1895

(10)

Roadmap

1 Introduction

2 Related Literature

3 Data

4 Empirical Framework

5 Empirical Results

6 Conclusion

(11)

Empirical Framework

Estimating equations: first-stage (1910-1919)

male population growth1919c,1910 =γ

WWI casualtiesc

populationc

+δXc+ηc,19101919

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Empirical Framework

Estimating equations: reduced-form second-stage (1910-1933)

male population growthc,19101933 =λ

WWI casualtiesc

populationc

+κXc+η1933c,1910

(13)

Empirical Framework

Estimating equations: second-stage (1910-1933)

population growth1933c,1910=φmale population growth1919c,1910+µXc+ηc,19191933

instrument: WWI casualties

(14)

Roadmap

1 Introduction

2 Related Literature

3 Data

4 Empirical Framework

5 Empirical Results

6 Conclusion

(15)

Roadmap

1 Introduction

2 Related Literature

3 Data

4 Empirical Framework

5 Empirical Results

Reduced-form evidence using binscatter plots Effects in 1919 and 1933

Effects in 1939, 1950, and 1960

6 Conclusion

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Empirical Results

Reduced-form evidence using binscatter plots

Figure 1:Effect of WWI casualties on male population growth 1910-1919

-.045-.03-.0150.015

male population growth 1910-1919

0 .05 .1 .15

casualties over 1905 population

-.045-.03-.0150.015

male population growth 1910-1919

0 .05 .1 .15

casualties over 1905 population

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Empirical Results

Reduced-form evidence using binscatter plots

Figure 2:Effect of WWI casualties on male population growth 1900-1910

.02.035.05.065.08

male population growth 1900-1910

0 .05 .1 .15

casualties over 1895 population

.02.035.05.065.08

male population growth 1900-1910

0 .05 .1 .15

casualties over 1895 population

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Empirical Results

Reduced-form evidence using binscatter plots

Figure 3:Effect of WWI casualties on male population growth 1910-1933

-.035-.01.015.04.065

male population growth 1910-1919

0 .05 .1 .15

casualties over 1905 population

-.035-.01.015.04.065

male population growth 1910-1933

0 .05 .1 .15

casualties over 1905 population

(19)

Roadmap

1 Introduction

2 Related Literature

3 Data

4 Empirical Framework

5 Empirical Results

Reduced-form evidence using binscatter plots Effects in 1919 and 1933

Effects in 1939, 1950, and 1960

6 Conclusion

(20)

Empirical Results Effects in 1919 and 1933

Figure 4:Male Population Growth 1910-1919

−0.15

−0.10

−0.05 0.00 0.05

0% 5% 10% 15% 20% 25% 30% 35% 40%

% of the most agricultural municipalities dropped

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Empirical Results Effects in 1919 and 1933

Figure 5:Male Population Growth to 1933

−0.15

−0.10

−0.05 0.00 0.05

0% 5% 10% 15% 20% 25% 30% 35% 40%

% of the most agricultural municipalities dropped

(22)

Empirical Results Effects in 1919 and 1933

Figure 6:Persistence to 1933

0.0 0.5 1.0 1.5 2.0 2.5 3.0

0% 5% 10% 15% 20% 25% 30% 35% 40%

% of the most agricultural municipalities dropped

(23)

Roadmap

1 Introduction

2 Related Literature

3 Data

4 Empirical Framework

5 Empirical Results

Reduced-form evidence using binscatter plots Effects in 1919 and 1933

Effects in 1939, 1950, and 1960

6 Conclusion

(24)

Empirical Results Effects in 1939, 1950, and 1960

Figure 7:Male population growth to 1939

−0.20

−0.15

−0.10

−0.05 0.00 0.05 0.10

0% 5% 10% 15% 20% 25% 30% 35% 40%

% of the most agricultural municipalities dropped

(25)

Empirical Results Effects in 1939, 1950, and 1960

Figure 8:Male and female population growth to 1950

−0.30

−0.25

−0.20

−0.15

−0.10

−0.05 0.00 0.05 0.10

0% 5% 10% 15% 20% 25% 30% 35% 40%

% of the most agricultural municipalities dropped

males females

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Empirical Results Effects in 1939, 1950, and 1960

Figure 9:Male and female population growth to 1960

−0.4

−0.3

−0.2

−0.1 0.0 0.1 0.2

0% 5% 10% 15% 20% 25% 30% 35% 40%

% of the most agricultural municipalities dropped

males females

(27)

Roadmap

1 Introduction

2 Related Literature

3 Data

4 Empirical Framework

5 Empirical Results

6 Conclusion

(28)

Conclusion

Conclusion

evidence that local population shocks are persistent

especially where agricultural land not major economic factor

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