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Transcript of 1 Why do we think that education of women the nearest we have to a magic bullet in development?...
1
Why do we think that education of women the
nearest we have to a magic bullet in development?
Richard Palmer-JonesSchool of International Development,
University of East Angliapaper presented at DESTIN, LSE, 26/2/10
2
• Educating females is the single most effective development intervention – an (almost) undisputed orthodoxy of the past 25 years:
– Two prominent examples• Duncan Green, Head of Research, Oxfam• Amartya Sen - female autonomy & empowerment – Development as Freedom; The
Idea of Justice– Women’s agency as intrinsic and instrumental to well-beings of all – particularly:
» fertility, infant survival, child quality (nutritional status and educational attainments), etc.
– Important, convincing and well institutionalised development agenda • But leads to misdirected policy and projects
– Despite more than 25 years of advocacy, and intervention, the juvenile sex ratio in India has become more adverse to females – more missing women!
• So do we believe these arguments more than reason warrants?– leads to accepting relatively uncritically evidence of causal links between female
education and beneficent development outcomes• Wastes opportunity to try to do better and implicitly kills and maims persons• Illustrate with 4 examples
– Whatever happened to fertility in Nigeria?- John Caldwell, 1979– Does gender inequality in education harm growth? - Stephen Klasen (,2002, & 2009)– Are females are better transmitters and receivers of literacy externalities? - Basu & Foster,
1998 & Basu, Narayan & Ravallion, 2001, .. – Does educating females reduce fertility, infant mortality, & gender discrimination in India?
Murthi, Guido & Dreze, 1996, and Dreze and Murthi, 2001.
– These ill founded ideas lead to the production and academic plainly publication of silly things (and reproduction in the media)
• Have heights of adult males have increased faster than those of adult females in recent cohorts in India? - Deaton, 2008
• Lessons of this sorry tale
The argument:
3
Duncan Green, Head of Research, OXFAM
4
• Questioning the orthodoxy– Female education and fertility reduction in Nigeria
• Caldwell, 1979 – Rising female education has not greatly improved child well-being– And partner’s education (and ethnicity – not religion) also counts
» assortative mating, labour market mechanisms, and unobservables
– Gender and Growth• Female education is good for growth (Klasen, 2001;Klasen & Lammana, 2009)
– Not when you control for institutions and the “resource curse” (Papyrakis & Palmer-Jones, 2009)
– Proximate literacy in Bangladesh (and India)• Basu & Foster, 1998; Basu, Narayan and Ravallion, 2002 - females are better
recipients as well as better transmitters of literacy externalities– Selective reporting of results, which do not survive in other data sets, and fail to
exclude alternative hypotheses (Iversen and Palmer-Jones, 2008)» It’s the type of man who chooses to marry educated women, stupid!
– Sex Ratios in India• Fertility, mortality and female disadvantage reducedby females education (and
labour force participation) – Murthi, Guido and Dreze, 1996 & Dreze & Murthi, 2001– Culture rather than female autonomy drives beneficent outcomes
– Heights of adult males increased faster than females’ heights in India• Deaton, 2008 – adult male heights have increased faster than female
– Who would use changes in absolute heights? Duh….
– Why question this orthodoxy?• slings
5
•Since 1970s this orthodoxy has been almost uncontested–Caldwell in Nigeria (1979) –“[T]he preceding analysis has shown that maternal education is the single most significant determinant of these marked differences in child mortality” (Caldwell, 1979:408)
–But UN,1985, “Socio-Economic Differentials in Child Mortality”“The other variable with effects comparable in magnitude to mother’s education is father’s education, …. (Table II.13 & Table III.6 )
Average effect of an additional year of mother’s and father’s schooling on child mortality (stage II*)
Schooling of:
Living in:
Urban Rural
Mother -0.039 -0.035
Father -0.035 -0.012
* Seems to be an error – Table II.13 & Table III.6 show these figures to be Stage III results; stage III is stage iii run for urban and rural samples separately Stage II regressions include “all other variables” (p10)
6
Partner Carer
none primary secondary higher non-
standard Total
none 6,857 717 584 133 204 8,495
primary 369 2,236 838 185 35 3,663
secondary 160 509 2,252 394 16 3,331
higher 10 31 112 588 2 743
non-standard
24 19 20 13 385 461
Total 7,420 3,512 3,806 1,313 642 16,693
0
.25
.5
.75
1
frac
tion
of c
are
rs
0 .25 .5 .75 1fraction of partners
none
prim
ary
seco
ndar
y
highe
r
non-
stand
ard
curri
culum
non-standard curriculum
higher
secondary
primary
none
source: author's calculations from MICS3
Highest Education Levels of Carer and Partners , MICS3
Many more cases of more educated partner than carer
What are the likely implications of there being a higher proportion of educated males than females at each level of education, and what are the implications for the regression coefficients?
What if there is a non linear (declining) relationship between outcomes and levels of education (as measured)?
(spine plot)
7
Table 1 Child HAZ, parental education, religion and ethnicity
Dependent variable WHO HAZ _1 _2 _3 _4 _5 Muslim -0.693*** -0.538*** -0.617*** -0.225*** -0.257*** -0.034 -0.04 -0.04 -0.054 -0.054 Other -0.264* -0.139 -0.146 -0.165 -0.113 -0.134 -0.134 -0.135 -0.135 -0.135 Careers’ primary 0.065 0.055 0.008 -0.047 -0.06 -0.061 Carers’ secondary 0.429*** 0.339*** 0.186** 0.046 0.065 0.068 Partners’ primary 0.016 -0.123* -0.158** -0.049 0.06 0.06 Partners’ secondary 0.218*** 0.077 -0.162** 0.047 0.062 -0.062 Partners’ higher 0.418*** 0.107 0.092 0.066 0.08 0.083 Fulani -0.640*** -0.600*** -0.096 -0.095 Izon -0.163 -0.198 -0.134 -0.134 Tiv 0.307** 0.399*** -0.099 -0.099 Yoruba -0.331** -0.364** -0.114 -0.114 Igbo -0.121* -0.223*** -0.059 -0.06 Bassa 0.044 -0.011 -0.063 -0.063 Hausa -0.358 -0.339 -0.228 -0.227 Kanuri -0.658*** -0.660*** -0.068 -0.068 Other 0.389** 0.407*** -0.121 -0.121 wlthscor 0.184*** 0.023 Constant -0.953*** -1.176*** -1.094*** -1.032*** -0.908*** -0.025 -0.04 -0.042 -0.056 -0.058 r2_a 0.027*** 0.034*** 0.032*** 0.050*** 0.054*** N 14483 14483 14143 14143 14143 Source: authors calculations from MICS3 Note: base variables are Christian, Carer’s and partners with no education, and “not known” for ethnic group.
Table 1 Difference in Difference Design
Cohort exposure
States by UPE intensity
Not exposed (born before
1970)
Exposed (born 1970-1975)
Treatment effects
Low (South-western)
X00 X01 X01-X00
High (other) X10 X11 X11-X10
Double difference effect
(X11-X10)/ (X10-X00)
False treatment X010 1950-55
(21-26 in 1976)
X00 1956-61
(15-20 in 1976)
X00-X010
Table 1 Difference in Difference UPE with High Intensity Dummy Variable (NDHS2) Panel A yearsedn childrenbornlt25
Base model
Add state Fixed
Effects
Add state a & year of
birth Fixed Effects
Base model
Add state Fixed
Effects
Add state a & year of
birth Fixed Effects
Ik*C70-75 0.818 (1.884)
0.797 (1.885)
0.770 (1.824)
-0.098 (-0.569)
-0.078 (-0.457)
-0.087 (-0.512)
C70-75 2.015*** (5.178)
2.062*** (5.439)
2.698*** (4.312)
-0.286 (-1.861)
-0.301 (-1.955)
-0.809** (-3.276)
Ik
-1.491*** (-3.597)
1.644* (2.051)
1.725* (2.158)
0.309 (1.891)
0.000 (.)
0.000 (.)
r2 Number of obs
0.357 2603
0.399 2603
0.409 2603
0.078 2608
0.090 2608
0.110 2608
Difference in Difference UPE with UPE Expenditure Variable Panel B yearsedn childrenbornlt25 Ik = Fed. Gov’t UPE FUnds
Add state dummies
Add state & yob
Add state dummies
Add state & yob
Ik*C70-75 0.006* (2.027)
0.006* (2.244)
0.007* (2.482)
-0.002 (-1.562)
-0.002 (-1.651)
-0.002 (-1.695)
C70-75 2.128*** (6.738)
2.126*** (6.922)
2.625*** (4.373)
-0.201 (-1.614)
-0.192 (-1.539)
-0.692** (-2.958)
Ik
-0.001 (-0.418)
-0.011** (-2.734)
-0.012** (-2.905)
0.001 (1.018)
0.004* (2.259)
0.004* (2.455)
r2 Number of obs
0.356 2603
0.400 2603
0.410 2603
0.077 2608
0.091 2608
0.111 2608
Source: authors calculations from NDHS2 * p<0.05, ** p<0.01, *** p<0.001; “t” values in brackets Controls do not include proportion of females in total enrolment in 1970, nor proportion of civil servants who are female when the individual was 6, as used by Osili and Long, due to lack of access to the data. However, we doubt that this causes the difference in results as discussed below. We include coefficients for C70-57 & Ik in specification 2, 3, 4 & 5, and 3 & 6 respectively despite the change in interpretation due to inclusion of state and yob fixed effects.
(for DID estimation see Osili & Long, 2008)
Carers & partners
education equally
significant
partners education
changes sign when wealth
score included
Results not significantOr only on years of
education not fertility
8
Table 1 Child Mortality and Parental Education in Nigeria 1 2 3 4 5 6 7 8 mother_primary -0.368***
(0.0000) -0.368***
(0.0000) -0.202***
(0.0000) -0.166***
(0.0000) -0.082*** (0.0000)
mother_secondary -0.716*** (0.0001)
-0.713*** (0.0001)
-0.379*** (0.0001)
-0.371*** (0.0001)
-0.185*** (0.0001)
mother_higher -1.411*** (0.0003)
-1.413*** (0.0003)
-0.862*** (0.0003)
-1.237*** (0.0003)
-0.931*** (0.0003)
father_primary -0.334*** (0.0000)
-0.334*** (0.0000)
-0.211*** (0.0000)
-0.254*** (0.0000)
-0.181*** (0.0000)
father_secondary -0.687*** (0.0001)
-0.685*** (0.0001)
-0.460*** (0.0001)
-0.523*** (0.0001)
-0.394*** (0.0001)
father_higher -0.821*** (0.0001)
-0.819*** (0.0001)
-0.439*** (0.0001)
-0.482*** (0.0001)
-0.268*** (0.0001)
Female$ -0.089*** (0.0000)
-0.087*** (0.0000)
Wealth index -0.272*** (0.0000)
-0.248*** (0.0000)
-0.230*** (0.0000)
r2_p N
0.001*** 28123
0.001*** 27791
0.001*** 28123
0.001*** 27791
0.002*** 28123
0.002*** 27791
0.001*** 27791
0.002*** 27791
Source: authors from NDHS1 Note $ - child is female Table 1: Total Fertility Rate by Region
period region 1987-
89 1984-
86 1981-
3 1978-
80 1975-7
NDHS1 southeast 4.61 5.48 6.14 6.66 5.12 southwest 4.48 5.26 6.58 6.58 5.80 northwest 4.91 5.24 6.39 5.26 5.39 northeast 4.55 4.44 6.29 5.24 4.90
region 2000-3 1997-9 1994-
6 1991-3 1988-
90 NDHS3 north central 5.65 5.64 6.21 6.23 6.71 north east 7.05 7.61 7.91 6.29 6.40 north west 6.65 6.78 7.58 6.45 6.52 south east 4.12 3.76 4.78 4.66 5.40 south south 4.61 4.72 5.39 5.37 5.71 south west 4.11 3.97 4.62 3.86 4.54 Source: NDHS1&3
Partner’s education is just as important as carer’s
Fertility has not decreased greatly in South West (area of Caldwell’s research) despite increases in female (and male) education
9
Total fertility and Parental Education in Nigeria – MICS3 _1 _2 _3 _4 _5 _6 mothers_ed2 0.294*** 0.260*** 0.224*** 0.224*** (0.044) (0.060) (0.045) (0.060) mothers_ed3 0.670*** 0.590*** 0.483*** 0.481*** (0.042) (0.064) (0.051) (0.067) mothers_ed4 -0.284** 0.062 -0.297** 0.037 (0.109) (0.155) (0.109) (0.155) partners_ed2 0.268*** 0.037 0.182*** 0.013 (0.046) (0.061) (0.048) (0.062) partners_ed3 0.467*** 0.069 0.290*** 0.016 (0.045) (0.063) (0.050) (0.064) partners_ed4 0.668*** 0.216** 0.369*** 0.088 (0.068) (0.084) (0.077) (0.087) partners_ed (Quranic)
-0.372*** -0.416** -0.374*** -0.401**
(0.095) (0.135) (0.095) (0.134) wlthscor 0.136*** 0.169*** 0.119*** (0.021) (0.021) (0.022) Constant -1.498*** -1.476*** -1.504*** -1.433*** -1.391*** -1.440*** (0.025) (0.027) (0.027) (0.027) (0.029) (0.030) r2_a 0.019*** 0.014*** 0.020*** 0.021*** 0.019*** 0.022*** N 14483 14143 14143 14483 14143 14143
Source: authors calculations from Nigeria MICS3
• Selective estimation and reporting; • Difficulties of replication with same data sets, and getting same results with other similar datasets• Neglecting assortative mating and “reverse talents” effect – men are more educated than their partners but tend to be less able at each level of education;
10
Education externalities• Females are better transmitters
– Effective Literacy (Basu and Foster, 1998)• Literacy rate = L/N (L = literates, N = Population)• Effective literacy = (L+e(N-L))/N, 0<e<1 • Females better transmitters of literacy externalities
– ef > em where superscripts reflect gender of literates(e.g. ef = being “female-proximate”, or proximate to a female literate; em similarly)
• and recipients of literacy externalities!– Proximate-illiteracy externalities (Basu, Narayan
and Ravallion, 2002)• Wages of female proximate-illiterates in non-farm
employment greater than those of isolated female illiterates (Bangladesh HIES, 1995/6)
• ef > em where subscripts are gender of illiterates (ef = “female proximate-illiterate”, em similarly)
Basu and Foster, 1998, Economic Journal; Basu, Narayan, and Ravallion, 2002, Labour Economics
11
• Female proximate-illiterates are generally male-proximate
– Hence if ef > em then em >= ef • E.g. if females are better recipients then males are at least reasonable
transmitters
• Selection coefficient on household literacy is negative– I.e. the female labour force participation of illiterate females is lower in
literate households • Presumably an adverse to (illiterate) females outcome since they are denied
“empowerment” in the wage labour market?
Proportion of proximate-illiterates with non-farm wages Household
Literacy Male Female
Male only .33 .43
Female only .39 .11 Male & female
.28 .46
Female illiterates are more likely to be proximate to a
male than a female literate
12
• Female proximate-illiterates in off-farm employment have negative externalities of child nutritional status
• Non-replicability and misleading reporting of proximate-illiteracy findings (B/d HIES 1999/2000; Indian NSS CES, various years)– Replication in econometric studies?
• Prominent papers which are framed as supporting female “literacy externalities” have simple flaws:– Gibson, 2001, and Alderman et al., 2003, show
greater positive child nutritional externalities of female-proximate illiteracy but use community proportions of female literates with limited controls on community characteristics
• details in Iversen and Palmer-Jones, 2008, JDS, 44(6):797-838
13
• Gender inequalities in education and economic growth– Gender inequalities in education are bad for growth
• Klasen, 2002, World Bank Economic Review, and Klasen and Lammana, 2009, Feminist Economics
– Based on cross-country regressions• Are gender-growth relations different in
“resource curse” economies?– Resource curse economies have particularly low
growth &– low female “empowerment” indicators
• Gender-growth orthodoxy neglects “institutions” and political geography– Institutional variables eliminates significance of
increase in relative female education– Maybe only when institutions are right is female
empowerment effective?
14
15
16
Low female education
Low female labour forceparticipation
Low female entrepreneurialearnings
Low economic growth
Poor female human capital
Poor child human capital accumulation
Low femalepolitical participation
Klasen type explanatory framework
17
Weak institutions
Dutch disease
Resource curse
Relative decline of agriculture & tradables
Rise in male earnings
Rise in government rents & transfers
Fall in female wage/entrepreneurial earnings
Rise in female opportunity cost (unearned income)
Fall in female labour force participation
Fall in female political participation/representation
Grabbing politicsAppropriableresources
Adapted to resource curse
18
Weak institutions
Dutch disease
Resource curse
Relative decline of agriculture & tradables
Rise in male earnings
Rise in government rents & transfers
Fall in female wage/entrepreneurial earnings
Rise in female opportunity cost (unearned income)
Low/fall in female (formal) labour force participation
Low/fall in female political participation/representation
Grabbing politicsAppropriableresources
Low female education/health/maternal mortality
Anti-female culture/politics
Low child (female) human capital
Low (per capita) economic growth
High fertility
Islamic fundamentalism
More rent-seeking politics
Possible connections between Islam and poor performance rejected by Ross
Additional gendered resource curse pathways
Adapted to resource curse and institutional specificities
19
Paper Klasen, 2002
Klasen and Lanamma, 2003, 2009 Papyrakis & Palmer-Jones, 2008
RHS depvar growth growth growth growth growth growth Klasen lninc60 -1.13 *** -2.27 *** 1.49 *** 1.23 *** 0.91 *** 1.83 *** popgro -0.55 * -2.8 *** -0.09 ns ns ns lfg 0.62 * 2.33 *** a a a a open 0.007 ** -0.001 0.45 1.29 ** ns ns inv 0.056 ** 0.06 *** 0.04 ns ns ns ed60 0.19 ** 0.01 -0.17 ns ns ns ged 12.61 ** 10.42 *** -0.12 * ns ns ns red60 0.9 * 0.68 2.29 * 2.28 * ns ns rged 0.69 *** 0.7 *** 0.03 ns ns ns Institutions Gov't effective 1.25 *** ethnic fracionalisation -1.53 *** Resources mineral production 3.82 *** Agricultural production 8.78 *** other vars b b b b b b N 109 93 Notes a: data problems; we cannot reproduce the labour force growth convincingly from WISTAT 4 b: regional dummies and constant lninc60: log of incomepc 1960; popgro compound growth rate of population; lfg compound growth rate of labourforce; open & inv openness and average investment in last 4 decades; ed60 male education in 1960; ged growth of male education; red60 female-male education in 1960; gred growth of female-male education. Other variables include dummies for region (SA, SSA, ECA, LAC, MENA, OECD)
Macro-economic results
20
• Dreze, Sen & Women’s agency– Employment– Education – Bargaining power– Perception and status– Entitlements
– In his analyses of Indian data Sen relies heavily on Muthi, Guido & Dreze, 1996, and Dreze & Murthi, 2001 – e.g. Sen, 1999, p194 fn 14, 16, 17 – also refers to John Caldwell, 1986 .
“it is also the case that the limited role of women’s active agency seriously afflicts the lives of all people”“focusing on women’s agency … precisely [because of] … the role that such agency can play in removing iniquities that depress the well-being of women”
…variables such as women’s ability to earn a independent income and find employment outside the home, … to have literacy and be educated participants in decisions … has more voice … employment often has useful ‘educational’ effects
.. The diverse variables identified in the literature thus have a unified empowering role ..(Sen, Development as Freedom, 1999:191-2; emphasis in original)
21
“Sen. 1999: There is considerable evidence that women’s education and literacy tend to reduce the mortality rates of
children” (195)… p196 relies on Murthi et al oevre)
22
• Fertility, Child Mortality and (Juvenile) Sex Ratios in India – Adverse to female sex ratios historically – Female neglect/infanticide/foeticide
• “North-south” differences (decreasing)– wheat/rice – economic value of female labour (Bardhan)– Culture & kinship (Dyson & Moore)
» Hypergamous & exogamous “Indo-Aryan” north vs endogamous endogamous “Dravidian” south
– Sopher, Miller, Kishore, Murthi,, et al., Agnihotri, Croll, …and many others
– Basic argument is that less adverse outcomes are driven by female autonomy, by which they mean
• education (literacy) and waged employment
23
• The problem is that despite increases in female employment and female literacy, the juvenile sex ratio has deteriorated between 1991 & 2001 Censuses
• Disregarding fertility decline (intensification effect) & spread of sex-selective abortion/foeticide
Table 1: Sex Ratios in the Indian Census, 1961-2001 All ages 0-6 % Year Total Rural Urban Total Rural Urban FLP FLIT 1961 941 976 14.4 11.1 1971 930 964 18.5 16.5 1981 934 962 20.3 22.3 1991 923 935 895 945 948 934 22 32 2001 933 949 901 927 934 903 26 45 Sources: 1961-1981; University of Maryland; GOI, 2001; 1991: Census of India CD notes: 1 FLP Female Labour Force Participation (% females 15+ who are main workers) 2 FLIT Female Literacy (% females 15+ who are literate)
24
(1.2,3](1.15,1.2](1.1,1.15](1.05,1.1](1,1.05][0,1]No data
(1.2,3](1.15,1.2](1.1,1.15](1.05,1.1](1,1.05][0,1]No data
Source: Guilemotto, 2007
Female to male ratio 1961, 1981, 2001
(1.2,3](1.15,1.2](1.1,1.15](1.05,1.1](1,1.05][0,1]No data
25
• However …. – Need to use juvenile sex ratios, especially 5-9
(excess male migration among youth and adults)• Excess male infant deaths 0-1 means that 0-4 age range
confounds excess male infant deaths 0-1 (0-3 months) with excess female deaths 1-4 (actually 4-48 months)
• Ethnic differences especially STs & SCs– STs - no/little discrimination apparent against girls but
» higher infant deaths -> pro-female sex ratios– SCs – bias against females but high infant mortalities results in
» apparenlty lower anti-female juvenile sex ratios– E.g. confounding poverty and gender bias effects– Muslims not showing gender bias
• Census has 20-30% missing infants 0-1, 1-2 compared to 2-3 ….. Due to (sex biases?) under-reporting
• Is female literacy more effective than male? • Are literacy and employment confounded with
“culture” (proxied by language)– Basic issue of causality or correlation
• Agnihotri, PJ & Parikh, 2002….
26
0.0
e+00
5.0
e+06
1.0
e+07
1.5
e+07
2.0
e+07
num
ber
0 10 20 30 40 50 60 70 80 90 100age
male female
source: Indian Census CDs, author's calculations
Numbers of persons by sex and age, India, 2001
27
“Sen. 1999: There is considerable evidence that women’s education and literacy tend to reduce the mortality rates of children” (195)… p196
280
2040
6080
(mea
n) tf
lit15
ppc
20 40 60 80 100(mean) tmlit15pc
Notes: Sources are author’s calculation from 1981 Maryland Indian Census data files or published documents unless otherwise stated.
Language class-ification
mean sd
tfr1981 Total fertility rate, S&R, 1990 5.08 0.87 tflit15ppc Female (15+) literacy % 12.88 22.64 mlit15pc Male (15+) literacy % 41.28 23.74 flpmw15ppc Female labour force participation (15+) 13.05 22.23 fd Female disadvantage (see M, G & D, 1996) 6.04 12.37 hcr83 16.00 Headcount ratio 1983 (Nssr, OPL) 48.55 16.00 q1f81 Female infant mortality (0-1), 1981 (S&R, 1990) 111.97 36.29 q5f81 Female child mortality (0-4), 1981 (S&R, 1990) 162.16 47.31 q1m81 Female infant mortality, 1981 (S&R, 1990) 124.83 41.94 q5m81 Female cild mortality (0-4), 1981 (S&R, 1990) 151.67 40.17 tmfr04 Male/female population, 0-4, total population 1.03 0.03 tmfr59 Male/female population, 5-9, total population 1.07 0.07 urbpc Urban population %, total population 40.05 41.29 scpc Schedulted castes % total population 6.50 8.15 stpc Scheduled tribes % total population 5.08 14.00 aglappc Agricultural labourers, main workers, % population 9.36 11.05 cultpc Cultivator main workers, % population 6.45 8.72 ass_1971_pc Assamese mother tongue, % population 1971
census IA(e) 0.00 0.00
ben_1971_pc Bengali IA(e) 4.33 17.95 guj_1971_pc Gujarati IA(w) 4.63 19.84 hin_1971_pc Hindi IA(v) 48.27 42.85 kan_1971_pc Kannada D 4.10 16.05 kas_1971_pc Kashmiri Dardic 0.02 0.18 mal_1971_pc Malayalam D 3.81 17.86 mar_1971_pc Marathi IA(s) 6.85 21.52 ori_1971_pc Oriya IA(e) 3.36 16.11 pun_1971_pc Punjabi IA 3.84 15.66 san_1971_pc Sanscrit IA 0.00 0.00 sin_1971_pc Sindhi IA(nw) 0.39 2.38 tam_1971_pc Tamil D 3.92 16.82 tel_1971_pc Telugu D 6.54 21.12 urd_1971_pc Urdu IA© 4.90 5.99 south AP, TN, KAR, KER 0.21 east Bih, Ori, WB 0.18 west Guj, Mah 0.13 hillhind HP & Uttaranchal (NSSR 251) 0.06 N 335.00
Variable VIF 1/VIF
tflit15ppc 6.61 0.151278tmlit15pc 5.71 0.175242flpmw15ppc 2.39 0.418229south 2.19 0.456148east 2.04 0.489198scpc 2.00 0.500571stpc 1.96 0.509003west 1.94 0.516167hcr83 1.74 0.573782med_pc 1.62 0.616277urbpc 1.40 0.716794
Mean VIF 2.69
replication
collinearity
29
• Problems– Numbers of districts in MGD are 296, while
we have 335 (or 332 in spatial estimations due to districts with two locations)
• 1981 census has 366 Districts• Only use districts in main states
– Excluding Jammu & Kashmir, Himachal Pradesh, North East States & Assam (no census in 1981), and Union territories
– 326 districts
• .Why exclude HP (or J&K) in 1981?» Seemingly HP has missing poverty line data as not
in figure 1, but this does not apply to J&K which is?– A further 30 districts are lost
» which ones are not reported» Bias?
30
tfr 1981 q5f / q5m fmr59
flit 15+ mlit 15+ flp(mw) 15+
31
Determinants of fertility, child mortality & female disadvantage
Tfr 1981 Q5 1981 Fmr59 OLS female literacy -0.029***
(0.005) -0.030***
(0.003)
-0.428*** (0.126)
0.001*** (0.000)
tmlit15pc -0.001 (0.005)
-0.025*** (0.003)
-0.474*** (0.124)
0.001*** (0.000)
flpmw15ppc -0.016*** (0.002)
-0.016*** (0.002)
-0.011*** (0.002)
-0.067 (0.110)
0.016 (0.111)
0.001*** (0.000)
0.001*** (0.000)
hcr83 0.004 (0.002)
0.004 (0.002)
0.006** (0.002)
0.795*** (0.107)
0.827*** (0.105)
0.000** (0.000)
0.000 (0.000)
med_pc -0.002 (0.001)
-0.002 (0.001)
-0.003* (0.001)
-0.129* (0.059)
-0.135* (0.058)
-0.001*** (0.000)
-0.000*** (0.000)
urbanisation 0.002 (0.003)
0.002 (0.003)
0.000 (0.003)
-0.412** (0.128)
-0.404** (0.126)
-0.001** (0.000)
-0.000* (0.000)
scheduled castes -0.017** (0.005)
-0.017** (0.005)
-0.015** (0.006)
0.045 (0.266)
0.037 (0.264)
0.001 (0.000)
0.001 (0.000)
scheduled tribes -0.008** (0.003)
-0.008*** (0.002)
-0.012*** (0.002)
0.192 (0.111)
0.112 (0.113)
0.001*** (0.000)
0.001*** (0.000)
south -0.815*** (0.102)
-0.818*** (0.096)
-1.102*** (0.094)
-41.002*** (4.658)
-44.498*** (4.343)
0.052*** (0.006)
0.062*** (0.006)
east -0.780*** (0.104)
-0.786*** (0.103)
-0.830*** (0.108)
-42.692*** (5.024)
-42.517*** (4.990)
0.034*** (0.006)
0.036*** (0.007)
west -0.594*** (0.115)
-0.605*** (0.113)
-0.636*** (0.119)
-25.629*** (5.513)
-25.183*** (5.489)
0.027*** (0.007)
0.029*** (0.007)
Constant 6.727*** (0.235)
6.696*** (0.187)
7.283*** (0.224)
108.816*** (9.120)
121.997*** (10.333)
0.864*** (0.012)
0.850*** (0.014)
r2_a N
0.652*** 332
0.657*** 334
0.621*** 334
0.528*** 334
0.532*** 334
0.692*** 334
0.675*** 334
Source: authors calculations from data described in the text
Little difference between effects and significance of female and male literacy
32
Fertility, Child mortality, and female disadvantage, India 1991
Dep. var. Tfr1981 Q5
Spatial ml
tflit15ppc -0.024*** (0.006)
-0.025*** (0.004)
-0.550** (0.177)
tmlit15pc -0.002 (0.006)
-0.019*** (0.004)
-0.468** (0.160)
flpmw15ppc -0.010*** (0.003)
-0.010*** (0.003)
-0.006* (0.003)
0.029 (0.122)
0.113 (0.120)
urbpc -0.001 (0.002)
-0.002 (0.002)
-0.004 (0.002)
-0.539*** (0.106)
-0.579*** (0.101)
scpc -0.006 (0.006)
-0.006 (0.006)
-0.003 (0.006)
0.183 (0.248)
0.233 (0.247)
stpc -0.006* (0.003)
-0.006** (0.002)
-0.009*** (0.003)
-0.029 (0.109)
-0.095 (0.115)
south -0.770*** (0.177)
-0.741*** (0.176)
-0.879*** (0.191)
-44.767*** (9.020)
-47.265*** (8.761)
east -0.317 (0.166)
-0.408* (0.184)
-0.424* (0.191)
-10.308 (8.956)
-12.217 (8.833)
west -0.589*** (0.166)
-0.599*** (0.166)
-0.610*** (0.174)
-25.304** (7.945)
-24.501** (7.957)
hcr83
0.003 (0.003)
0.006 (0.003)
0.033 (0.159)
0.105 (0.157)
med_pc
-0.001 (0.001)
-0.001 (0.001)
-0.137* (0.055)
-0.150** (0.055)
Constant 6.442*** (0.259)
6.256*** (0.245)
6.556*** (0.300)
143.461*** (11.875)
152.044*** (13.226)
Lambda 0.725*** (0.051)
0.725*** (0.051)
0.752*** (0.048)
0.814*** (0.038)
0.804*** (0.039)
sigma 0.393*** (0.016)
0.392*** (0.016)
0.396*** (0.016)
16.902*** (0.691)
16.988*** (0.693)
ll 183.09 182.55 188.44 1440.68 1441.25
sqCorr 0.629*** 0.631*** 0.588*** 0.429*** 0.441***
N 332 332 332 332 332
Source: authors calculations from data desribed in the text * p<0.05, ** p<0.01, *** p<0.001
Ditto
33
• First rule of rhetoric – ignore alternative explanations (Sheila Ryan Johannson, ….)– Is there any variable representing culture?
• Spatial dummies – MGD use regional dummies – what do these represent?
» South, and West vs North– Agnihotri invents the “kinship variable” representing Indo-Aryan
“culture”» “Disadvantageous” hypergamous, exogamous marriage» Based on informal classification of Districts by predominant
language» Use predominant language data from 1961, 1971 and 1991
censuses to “explain” the kinship variable» The “trick” is to separate out the Hill Hindus (Berreman, …..)
– How does one understand the very similar effects of female and male literacy?
• Assortative mating means households with educated females also have educated males
– Who decides whether there is an educated female in the household? Husbands?
– Alaka Basu, 1999, (in Bledsoe, ed., ) suggests it is the husband, or rather the husband’s natal family which decides whether to marry an educated female into the family, and it is this rather than female education per se which drives the association of female education with beneficial outcomes.
The techniques of rhetoric• Ignore dissenting views, positions, perspectives
– Ignore problems raised by other scholars• Refuse constructive dialogue or manipulate the context of debate
– BURYING THE (BAD) NEWS – RHETORIC OR REALITY? Politician activism
– But • Who speaks for the muted?• Does anything go, or is there (an only provisionally, fallibly known) reality?
• Construct convincing abstract model piling (dubious) assumption of (dubious) assumption
• Employ emotional hooks (frames)– Family, bereavement, injustice, explotiation, tragedy, disaster
• Use data selectively – Pick and choose – use carefully selected and misleadingly presented
data– Build on extreme or unusual events/actions
• Homogenise phenomena– Treat unlike things the same – ceteris is not paribus
• Use inappropriate (but “telling”) metaphores or allegories
35
• How seriously misled can you be by uncritical acceptance of gender bias?
“Figure 1 shows that … Indian men are.. [getting taller] at more than three times the rate of Indian women”
(Deaton, 2008, American Economic Review, 98(2):471
36
In India the starkest divisions are sometimes within the household. Indian women tend to have less clout than their African counterparts. Their claim on a family's resources may be weak, even as the demands made on them are heavy. Many women are consequently underfed or overworked during pregnancy. Their offspring, especially their daughters, are also undernourished during infancy. India may be growing taller as it grows richer. But, Mr Deaton shows, the average height of Indian men is rising three times faster than that of Indian women.
NEW! Deaton's new paper on health, happiness and wealth is highlighted in The Economist
37
Really?
With sample weights
female (left axis) slope = -0.027
male (right axis) slope = -0.045
162
163
164
165
166
ma
le h
eigh
ts (
cm)
151
152
153
154
155
156
fem
ale
hei
ghts
(cm
)
20 30 40 50 60age
mean female e_female mean male e_male
regressions of unweighted mean height on age (age >= 25) using population weights
Mean Female and Male heights by Age, India, 2005-6
Without sample weights
female (left axis) slope = -0.026
male (right axis) slope = -0.037
162
163
164
165
166
ma
le h
eigh
ts (
cm)
151
152
153
154
155
156
fem
ale
hei
ghts
(cm
)
20 30 40 50 60age
mean female e_female mean male e_male
regressions of survey weighted mean height on age (age >= 25) using popoulation weights
Absolute heights of males rise about a third faster than females’
Very odd
38
… some more problems, though• Male sample is biased
– NFHS report is not explicit how the male sample was chosen
– DHS “wealth index” indicates bias• Young males have higher wealth index than
younger females and vice versa for older males and females
• “opportunistic” or convenience sampling?– Main sample is “ever-married” women
» Unemployed male graduates and older labour dependent males?
• Including wealth index mitigates but does not eliminate female absolute height change disadvantage
39
02
46
8ag
e ra
nge
(yea
rs)
-.3 -.2 -.1 0height z-score
-.3 -.2 -.1 0height z-score
female male 95% CI
Wealth and height of males and females
Older men have lower z-scores
Older women have higher z-scores
Younger men have higher z-scores
Younger women have higher z-
scores
40
• But, really, raw height is not the appropriate metric!– You should use z-scores of height!
• How to calculate adult height z-scores?– Needs an nutritionally/health unconstrained population as a standard &
appropriate methods – you don’t just pool the data …
• You are now entering the weird world of height measurement ….
• Cross section & longitudinal studies with height – Initially I used USA’s NHANES3
• Large sample, whites only ….• many problems – white heights declining? (Komlos, et al.)
– More recently I have been using England Health Surveys and other NHANES data from USA
• Both USA and UK height data vary between surveys & cohorts– USA heights of recent cohorts are unstable across survey years– In the UK heights of males increasing faster than those of females
– Use UK longitudinal surveys• NSHD – 1946 cohort; NCDS – 1958 cohort• Unfortunately, some problems
– Restricted access – eventually (only last week) received data – Often use self-reported heights– Measured heights at only a few ages– Some errors in measured data ….
41
• Computing Z-scores from large cross-section surveys– Heights not normally distributed
• NCHS used different standard deviations above and below the median height at each age
• Distributions with variations in Location (Mean/median) and Shape (skewness/kurtosis) with age, sex and ethnicity (?)
– New WHO standards use LMS/GAMLSS methods» LMSChartmaker (Excel macros)» GAMLSS suite – runs in “R”
– To cut a long story short• Use standard population (NHANES3) to estimate
“standard” distributions by age (needs more recent data)
• Compute z-scores of observed heights from these estimated distributions.
42
Nhanes3 data - bumpy
120
140
160
180
200
20 40 60 80 100
female male
epanichev smoother with bandwidth 0.1
Nevertheless, ploughing on to see what it might be possible to say ….
43
Standardising Indian heights z-score (NFHS3) using distributions from NHANES 3
Height - cms z-score LMS GAMLSS (NO) 1 2 3 4 Age -0.047***
(-8.647) -0.006*** (-8.097)
-0.006*** (-6.934)
0.025*** (23.553)
female -13.507*** (-53.405)
-0.047 (-1.252)
0.095* (2.553)
0.711*** (13.554)
Female*age 0.021** (3.174)
0.000 (0.430)
-0.003** (-2.817)
-0.022*** (-15.281)
Constant 166.275*** (769.488)
-1.560*** (-50.185)
-1.611*** (-51.641)
-3.984*** (-99.896)
rsquare df model Number of obs
0.496 3
119800
0.002 3
119800
0.003 3
119800
0.011 3
119776
Column 1: raw height with age estimated by OLS;Column 2: z-score computed with NHANES3 estimated mean and sd for ageColumns 3 & 4: z-score computed with LMS or GAMLSS estimates of height by age distributions
Female height does not
increase as much as male
Female height
increase as fast as male
Female height increases faster
than male
44
17
01
72
17
41
76
17
81
80
pre
dic
ted
he
igh
t
0 20 40 60 80age at last birthday
1980 1970 1960
1950 1940 1930
1920 1910
15
61
58
16
01
62
16
4p
red
icte
d h
eig
ht
0 20 40 60 80age at last birthday
1980 1970 1960
1950 1940 1930
1920 1910
Predicted heights of males and females by age and cohort (USA)
But, NHANES3 is unreliable
Pooled whites born in USA only data from NHANES (to 2004-5) – with covariates education, PIR, region ….
45
Or use England Health Surveys (1991-2005)
16
51
70
17
51
80
pre
dic
ted
he
igh
t
0 20 40 60 80 100age last birthday
1980 1970 1960
1950 1940 1930
1920 1910
14
51
50
15
51
60
16
5p
red
icte
d h
eig
ht
0 20 40 60 80 100age last birthday
1980 1970 1960
1950 1940 1930
1920 1910
England Health Surveys, 1991, 2000 - 2003 & 2005
estimated using fractional polynomials
Predicted heights of males and females by age and cohort (England)
Male Female
Females reach maximum height earlier; males increasing in height over cohorts; problem of male 1940 born cohort
46
165
170
175
180
185
0 20 40 60 80 100
England heights adjusted to 1980-84 age group
USA heights adjusted to 1980-84 age group Dutch self reported heights
male
150
155
160
165
170
0 20 40 60 80 100
England heights adjusted to 1980-84 age group
USA heights adjusted to 1980-84 age group Dutch self reported heights
female
England health surveys 1991-2005 (except 2004), NHES, NHANES 1 -3 & continuous NHANES
Average male and female heights, pooled date
UK & USA data compared to Dutch (tallest population in the world) self-reported heights
47
• Longitudinal studies by– Cline et al., 1989– Sorokin et al. 1999 used by
• Niewenweg et al., 2003; Webb et al., 2007– Estimate height shrinkage/age functions– Varies with sex
» Females start shrinking earlier and more
• Many (Deaton) who use adult height data assume no shrinkage till 50s– but this is cavalier
• Height probably starts shrinking around mid ’30s, and is faster in women than men
– (maybe earlier in poor populations?)
48
female chc = equn. 1male chc = equn. 1
male chc = equn. 2female chc = equn 2
male_chc 1 = 0.0435*age - 0.00009*age^2 - 0.000015*age^3female_chc 1 = 0.0714*age - 0.00075*age^2 - 0.000016*age^3male_chc 2 = 0.1258*age - 0.0021*age^2female_chc 2 = 0.1727*age - 0.0027*age
-2-1
01
2cu
m m
ale
heig
ht lo
ss (
cms)
20 30 40 50 60
male equ. 1 female equ. 1 equ. 2 equ. 2 x1/x2
equation 1 from Sokin et al., 1999a from Baltimore longitudinal studyequation 2 from Sorkin et al. 1999b, scombined 11 studies from developed coutnries
Depends on assumptions of maximum potential height – Waaler, 1984 suggests 185 cms for men and ?170? for women
49
Male and Female Mean Heights of Adults
by Sex and Age (NHANES 3)
135
140
145
150
155
160
165
fem
ale
heig
ht (
cms)
150
155
160
165
170
175
180
mal
e he
ight
(cm
s)
20 40 60 80 100age
male female
50
• Compute z-scores from stylised height distributions
– apply shrinkage equations with standard height distribution parameters
• Sorkin 1999a (because the cross country study shows heights increasing to mid 30s)
• Max male height at 23 – 183cm• Max female height at 23 – 169 cms• Coefficient of variation of height - 3.8%
51
Regressions of Height and Age-standardised Height Z-scores1 with co-variates z-score z-score Age 0.00048
(1.009) 0.00014 (0.307)
Female2 -0.187*** (-9.414)
-0.170*** (-8.809)
Female * age -0.003*** (-5.152)
-0.004*** (-6.486)
Wealth index 0.194*** (35.743)
Wealth * male 0.069*** (9.806)
Constant -2.885*** (-161.255)
-2.831*** (-166.790)
rsquare2 df model Number of obs
0.020 3
188040
0.071 5
188040 Source: authors calculations from NFHS 3 t-values in brackets * p<0.05, ** p<0.01, *** p<0.001 Notes: 1. z-scores computed from shrinkage adjusted height with cv 3.8% and male potential height at 21 = 183cm and female height at 169 cm. 2. If female potential height is 167 cms then “female” coefficient is positive but “female * age” remains negative.
Use shrinkage equations applied to guestimated potential maximum height
Note: coefficient on female dummy sensitive to maximum height (location)
but
coefficients on Female * age are now negative and not sensitive to location
Age shrinkage
Females growing faster
52
Or use longitudinal studies – NSHD (7/3/1946 cohort) & NCDS (1958 cohort)
NCDS measured data
1.2
1.4
1.6
1.8
low
ess
: dvh
t
10 20 30 40 50age
male female
Measured heights of persons age 3 to 45 (NSHD)
010
2030
dens
ity: d
iff_
45_3
3
-1 -.5 0 .5 1diff_45_33
male female
Height differences age 45-33
53
8010
012
014
016
018
0lo
we
ss: h
t
0 10 20 30 40 50age
male female
Measured heights of persons age 3 to 45 (NCDS )
0.1
.2.3
.4he
ight
diff
ere
nce
de
nsity
-10 -5 0 5 10difference in measured height (cms)
male female
author's calculations from NSHD data; age 36 & 53
vertical lines are mean and median height differences: median difference male: -0.700 cmsmedian difference female: -0.90 cms
Difference in measured heightsof males and females between 1982 & 1999
NSHD data (1946 cohort, measured data)
Distribution of height differences, age 53 - 36
54
Differences in Self-reported heights
Height lumping and inaccuracies
0.1
.2.3
.4de
nsity
-10 -5 0 5 10height difference (cms)
male female
author's calcualtions from NSHD data; 1966 & 1972 sweeps
Difference in self-reported heightsof males and females between age 20 & 26
55
• Problems in measuring heights– E.g. self reported height differences (ages 26 & 22)– According to Deaton difference in height rise between Indian
males (0.5) and females (0.2) was about 0.3 cm per decade– Shrinkage estimate is about 0.5-1.0 cm per decade (40s- & 50s)
» Excess female shrinkage in .03 – 0.07 cms/decade
• Difference in measured heights between morning and evening average 0.6 cm
– Eg diurnal variation can be a significant proportion of shrinkage
– Untrained measurers of adult females (USA) (Lipman et al., 2006)
• Up to 18 cm difference from research assistant• Even experienced measurers have significant variation
– Standard deviation of height measurement about 0.09cm » 95% obs within +/- 0.18cm
– 1-5 years experience - 4.3 cms mean difference from RA– >5 years experience - 2.4cms difference form RA
– E.g. even for trained measurers (compared to a research assistant) measurement error can be a significant proportion of height change difference
56
• These points are important because it reflects unreasonable acceptance of the female nutrition/health deprivation hypothesis– Reported in Sen of course – foetal undernourishment and low birth
weight• Cardiovascular diseases among south Asians (Osmani and Sen, 2002)• Foetal undernourishment traced to female deprivation (LSE, 2010)
– But is this deprivation relative to males, or to what they, females, could, ideally, be?
– Partha Dasgupta (an inquiry into . & J of Econometrics, 1997)• too poor not to discriminate (female foeticide among the Inuit)
– But why does income growth not translate into nutritional improvements?
• Some left behind by income growth?• Other priorities for expenditure - adult consumption, tobacco,
alcohol)?• Nutrition/health gender bias within the household?
– But, there is a significant history of ignoring criticism of claims of female nutrition bias
• Harris-White and Watson; Jo Kynch; Gillespie & McNei• Men are malnourished too – perhaps even more so (but anemia, ..)
– After the age of 35 (natality related mortality) male deaths exceed female» Dyson attributes this to fatigue related vulnerability to TB etc.
57
• What to make of this?– Recall the 25 years of excess female child and foetus
mortality in India because education and employment of women has not been working
• If educating and getting women into the labour force is not working, then what to do?
– Recent legislation in India on dowry, domestic violence, sex-selection, midday meals, even NREGA ..
– Don’t base policy on poor analysis• Goldacre’s 5 reasons “[W]hy clever people believe stupid
things” (Ch 12, Bad Science): they– see patterns where there is only randomness– see cause where there is none (only correlation)– overvalue confirmatory information– seek out confirmatory information– assess quality of new evidence based on prior beliefs
– Constructionist talk• creating new languages for interventionist initiatives
– Capabilities, functionings, opportunities, rights– Women’s subordination, double/triple burden, endangered species ..
• Opportunities for experts and adepts -> institutionalisation– For example in the development industry
The development industry
DC CountryDonors (USAID,DFID, CIDA,SIDA, etc\ )
MultilateralsWorld Bank,IMF, UNDP,UNICEF, WTO ....
National Governments
Local Gov’t AgenciesInternational
NGOs, CARE,OXFAM (INGOs)
National NGOs(fieldworkers)
Administration, Projects and activities (lobbying, advocacy, activism)
PEOPLE
Consultants ),contractors,suppliers
Politicians
Media
Brokers, leaders, followers, margninalised, exc ludeddiverse, differentiated, included/excluded
The Development Industry
Academics
59
• To raise doubts about this claim is to challenge the morally unimpeachable…(slings and arrows …)
• To suggest possible reasons why it has become such an orthodoxy– Philosophy of science– Policy sciences– Social constructionism– “Moral selving” and the
authoritarian turn
The pious say that faith can do great things, and, as the gospel tells us, even move mountains. The reason is that faith breeds obstinacy. To have faith means simply to believe firmly - to deem almost a certainty, - things that are not reasonable; or, if they are reasonable, to believe them more firmly than reason warrants. A man of faith is stubborn in his beliefs; he goes his way, undaunted and resolute, disdaining hardship and danger, ready to suffer any extremity.Now, since the affairs of the world are subject to chance and to a thousand and one different accidents, there are many ways in which the passage of time may bring unexpected help to those who persevere in their obstinacy. And since this obstinacy is the product of faith, it is then said that faith can do great things.Francesco Guicciardini, Ricordi, Series C i (translated by Mario Domandi; quoted in John Dunn, 1972(?))