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Traditional Institutions in Modern Times: Bau, Khanna, Low & Voena (2026)

Distilled · extracted by claude-sonnet-4-6 Jun 28, 2026, verified by claude-sonnet-4-6 Jun 28, 2026, extracted by gpt-6-luna Oct 4, 2026, verified by gpt-6-luna Oct 4, 2026

JEL (IAR-assigned): J12, J61, O12 · assigned from the abstract, not the journal

Full structured metadata (methods, scope, relatesTo, topics, datasets): raw Markdown (.md)

paper-summarydevelopment-economicsmigrationmarriage-marketshousehold-financecultural-economicsintergenerational-transferspanel-regressiondifference-in-differencesevent-studypeer-reviewedunreplicateddata:nss-indiadata:giuliano-nunn-ancestraldata:reds-indiadata:ihds-indiadata:capex-cmie

What this is. The paper’s core results, the household model, and the empirical specifications with the actual equations: enough to know what it found and how, without reading all 58 pages. To replicate or extend it, read the full source at the original.

The paper introduces and tests the hypothesis that dowry in modern India functions as a pension for grooms’ parents. When sons migrate for work, they can no longer provide traditional in-person old-age support; the liquidity from the bride’s dowry lets families make upfront transfers to parents at the time of marriage, easing this intergenerational friction. Using two new surveys (Destination Survey 2018, Origin Survey 2020) with, to the authors’ knowledge, the first quantitative evidence on property rights over dowry within families, the paper documents that 27-45% of grooms’ parents are net takers from the dowry, especially when sons are migrants and earn more. In nationally representative NSS data, male migration rates are higher in districts with stronger historical dowry traditions (Giuliano and Nunn (2018) methodology). Exploiting the staggered construction of the Golden Quadrilateral (GQ) and North-South/East-West highway corridors as a natural experiment (Borusyak, Jaravel, and Spiess (2024) event-study estimator), young men (15-30) from dowry districts show significantly larger migration increases than those from non-dowry districts when migration costs fall.

Magnitudes and significance as reported; \*\*/\*\*\* = 5%/1%. Locators point into the source PDF.

#ResultLocatorMagnitude
R1Net dowry taking by grooms’ parents is common but heterogeneous: some parents take, many give, distribution roughly centered at zeroOnline Appendix Tables A.1, A.2; text and Figure III, p. 23145% net takers (Destination Survey); 27% (Origin Survey); distribution of Net Transfers to Grooms’ Parents spans both positive and negative, unlike gross/net dowry measures in the literature
R2Migrant sons’ parents are significantly more likely to take from the dowry than non-migrant sons’ parentsTable I cols (1) and (3), p. 232Origin Survey: migrant coefficient = 0.076** (se=0.038); Destination Survey: 0.218** (se=0.086); controlling for coresidence, marriage year, age, son/father education FE, and net dowry
R3Higher-earning migrant sons’ parents are more likely to take: interaction of migration and son’s occupational score is positive and significantTable I col (2), p. 232Origin Survey: Migrant x ln(son occ. score) = 0.199** (se=0.090); non-migrant x score = 0.014 (ns)
R4Greater parental bargaining power (Pareto weight) is associated with more net taking for both migrant and non-migrant sonsTable I col (4), p. 232Migrant x veto power = 0.229*** (se=0.076); Non-migrant x veto power = 0.221** (se=0.086); consistent with dowry redistributing resources according to Pareto weights regardless of migration
R5Sons who remit are more likely to have parents who took from the dowry (Prediction 4: remittances signal high-Pareto-weight households that exhaust all transfer channels)Table II col (2), p. 238Son transfers x migrant son = 0.176** (se=0.075); robust to income controls
R6Historical dowry traditions positively predict male out-migration rates in NSS dataTable III cols (1)-(2), p. 246Continuous dowry = 0.0257** (se=0.0101) to 0.0451** (se=0.0199); remains positive controlling for state and birth-year FE, caste, ethnographic and geographic controls
R7GQ highway construction raises out-migration significantly more for young men (15-30) in dowry districts than in non-dowry districts; no increase for older men (31-45)Figure VI, p. 252Large, significant post-construction increase in all and employment-based migration for men aged 15-30 in dowry districts (0.1% cutoff); coefficient near zero for non-dowry districts; Panel B shows no increase for ages 31-45
R8Dowry ownership is divided across generations: parents of the groom and the groom each control a large share, while the bride retains a smaller share of her family’s giftsFigure II, Panel A, p. 226Of gifts from bride’s parents, groom’s parents own 42.5%, groom 40.9%, bride 13.5%
R9Migrant sons’ parents take more liquid dowry goods, consistent with dowry serving as an intergenerational transfer channelFigure IV, p. 235; Online Appendix Table A.5, discussed text p. 234Parents take a larger share in almost every item category and substantially more cash and jewelry; appendix analysis confirms increased shares of gold and cash, with no main-text coefficient reported
R10The migration-net-taking association holds across where the wife lives, addressing the alternative that the wife’s location accounts for parents’ control of dowryOnline Appendix Table A.7, discussed text p. 236Parents of migrant men are more likely to be net takers regardless of whether the wife lives with the groom’s parents; no coefficient is reported in the main text
R11Historical dowry traditions predict contemporary dowry payments and liquidityOnline Appendix Tables A.8-A.9, discussed text p. 243Moving the historical measure from 0 to 1 is associated with 81% higher gross and 109% higher net dowry; the relationship remains positive with six-region FE, and historical dowry also predicts dowry being paid in gold
R12The positive dowry-migration association is directionally robust across discrete tradition cutoffs, but attenuates with fuller controlsTable III cols (4)-(9), p. 246>0.1% cutoff: 0.0184** (se 0.0086), 0.0127 (0.0115), 0.0068 (0.0112); >10% cutoff: 0.0213** (se 0.0088), 0.0296* (0.0174), 0.0246 (0.0175)
R13The highway event study shows no differential pretrends before constructionFigure VI, discussed text p. 251The paper reports no pretrends in migration rates before GQ construction in any of the four panels
R14The young men’s highway response is driven by employment migrationFigure VI, Panel C, p. 252For men aged 15-30, employment-based out-migration increases significantly in dowry districts after construction; the figure plots the estimates but the main text gives no point estimate
R15The highway response in dowry districts is concentrated in interdistrict movesFigure VII, p. 253No strong intradistrict effect for either group; interdistrict migration effects are concentrated in dowry districts
R16The remittance-net-taking relationship remains positive with flexible income controlsTable II col. (4), p. 238Son transfers × migrant son = 0.189** (se 0.085), including income controls and their interactions with remittance status
R17Migration is also associated with the amount of dowry parents take, not only whether they take a positive net amountOnline Appendix Table A.4, discussed text p. 234Using inverse hyperbolic sine of amount taken, parents take 86% more from migrant sons in Origin Survey and 250% more in Destination Survey

Overall (paper’s conclusion). All six model predictions are confirmed. Dowry appears to have adapted in modern India: rather than functioning purely as a bequest to daughters as in its traditional form described by Botticini and Siow (2003), it increasingly operates as a mechanism for sons’ parents to secure resources at the time of marriage when sons migrate and can no longer co-reside and provide in-kind old-age support. Dowry traditions may therefore help explain why rural-urban migration in India remains below its aggregate-productivity-maximizing level as identified by Munshi and Rosenzweig (2016): areas with weaker dowry traditions face higher effective barriers to migration.

The paper (Section III, pp. 215-223) develops a two-stage collective household model (Chiappori 1988) in which a family with parents and one son decides jointly over marriage gifts, old-age savings, and migration.

Setup. Parents have Pareto weight θ(z)∈(0,1)\theta(\mathbf{z}) \in (0,1), where z\mathbf{z} are distribution factors (e.g., whether parents have veto power over the son’s marriage). The son has Pareto weight 1−θ(z)1 - \theta(\mathbf{z}). Parents earn y1Py_{1P} in stage 1 (working age) and zero in stage 2 (retirement). The son earns zero in stage 1 and y2Ky_{2K} in stage 2, plus a net return to migration RR if m=1m = 1. The bride’s endowment is EE, of which a liquid fraction d∈[0,1]d \in [0,1] is available as dowry at marriage (stage 1); the illiquid fraction (1−d)⋅E(1-d) \cdot E represents future inheritance or human capital. Migration introduces a friction γ>0\gamma > 0: transferring one unit α\alpha from the son to the parents costs (1+γ⋅m)⋅α(1 + \gamma \cdot m) \cdot \alpha when m=1m = 1.

Household optimization. The family solves (equation (1), p. 217):

max⁡G≥0,S1≥0,α≥0m∈{0,1},c2P≥0,c2K≥0θ(z)ln⁡(c2P)+(1−θ(z))ln⁡(c2K)(1)\max_{\substack{G \geq 0,\; S_1 \geq 0,\; \alpha \geq 0 \\ m \in \{0,1\},\; c_{2P} \geq 0,\; c_{2K} \geq 0}} \theta(\mathbf{z}) \ln(c_{2P}) + (1 - \theta(\mathbf{z})) \ln(c_{2K}) \tag{1}

subject to:

S1+G≤y1P+d⋅ES_1 + G \leq y_{1P} + d \cdot E c2P≤S1+αc_{2P} \leq S_1 + \alpha c2K≤y2K+(1−d)⋅E+R⋅m+G−(1+γ⋅m)⋅αc_{2K} \leq y_{2K} + (1-d) \cdot E + R \cdot m + G - (1 + \gamma \cdot m) \cdot \alpha

Here G≥0G \geq 0 is the net marriage gift to the son (the son is a net taker when G<d⋅EG < d \cdot E, i.e., parents retain d⋅E−G>0d \cdot E - G > 0), S1S_1 is parents’ savings, and α≥0\alpha \geq 0 is the son’s stage-2 transfer to parents. Grooms’ parents are net takers (d⋅E>Gd \cdot E > G) when the net transfer to them is positive.

Solutions (pp. 218-219). Three regimes arise when m=1m = 1:

(i) Marriage-gifts solution: α∗=0\alpha^* = 0, G∗>0G^* > 0. Stage-1 resources are sufficient for parents to achieve their first-best consumption without costly stage-2 remittances. Migration does not distort allocation.

(ii) Autarky solution: α∗=0\alpha^* = 0, G∗=0G^* = 0. Stage-1 resources are in an intermediate range; parents exhaust them and the son sends nothing in stage 2.

(iii) Remittances solution: α∗>0\alpha^* > 0, G∗=0G^* = 0. Stage-2 resources are high enough relative to stage-1 to warrant costly remittances despite γ>0\gamma > 0.

In regimes (ii) and (iii), migration only occurs when RR exceeds a strictly positive threshold (the consumption distortion cost of migration). A larger dd (stronger dowry practice) lowers this threshold by pre-funding the stage-2 consumption shortfall at the cheaper stage-1 price, reducing the migration friction. This is the core mechanism: dowry practices enable migration by front-loading intergenerational transfers to the pre-migration stage, where the transfer cost is zero.

Six testable predictions (Section III.C, pp. 220-223):

  1. Net transfers to grooms’ parents can be positive or negative (heterogeneous across families).
  2. Parents are more likely to be net takers when sons migrate.
  3. Net taking is increasing in the migrant son’s income and in the parental Pareto weight.
  4. Parents who receive remittances from migrant sons are more likely to be net dowry takers.
  5. Families in areas with stronger dowry practices (higher dd) are more likely to have a migrant son.
  6. A decline in migration cost increases migration more in areas with higher dd (when migration rates are low).

Survey design (Section IV, pp. 223-230). The paper introduces two original data sets on dowry property rights:

  • Destination Survey (2018): in-person interviews with 557 men aged 21-41 in Gurugram, stratified 20% Delhi natives and 80% migrants. Detailed gift-by-gift ownership questions for every item transferred at marriage, including who gave it and who holds property rights today, allowing construction of gross and net transfers to each family member.
  • Origin Survey (2020): phone interviews with 2,541 households in 34 districts of six Indian states (Rajasthan, Uttar Pradesh, Bihar, Jharkhand, Madhya Pradesh, Maharashtra). Random sample of one married son per household, oversampling migrants (70%/30%); yielded data on 3,069 sons.

Net transfers to grooms’ parents are defined as: gross transfers received by grooms’ parents minus gross transfers made by grooms’ parents to other parties (p. 225). Grooms’ parents are net takers when this quantity is positive.

Historical dowry traditions (Section V.A, pp. 239-243). Following Giuliano and Nunn (2018), the paper constructs a district-level measure of the share of the current population belonging to linguistic groups with historical dowry practices, drawing on ethnographic data from the Murdock (1967) Ethnographic Atlas combined with current language group maps from the Ethnologue and LandScan population weights. Districts are coded as high-dowry when the measure exceeds 0.1% (368 of 582 districts).

Highway natural experiment (Section V.D.2, pp. 248-251). The paper exploits the staggered construction of the Golden Quadrilateral and NS-EW highway corridors (1999-2016, ~5,846 km) as a quasi-exogenous reduction in migration costs across districts and years. Highway project timing and district location are matched from the NHDP project list to the CMIE CapEx database. The staggered event-study estimator of Borusyak, Jaravel, and Spiess (2024) is used (doubly-robust estimator; Callaway and Sant’Anna (2021) as robustness). Standard errors are wild-bootstrapped and clustered at the district level.

Predictions 2 and 3: OLS on the net-taker indicator (Table I, p. 232). The paper estimates the following column-specific regressions for sons hh in survey ss:

NetTakerhs=α+β1Migranths+β2[Migranths×ln⁡(SonOccScorehs)]+β3[Nonmigranths×ln⁡(SonOccScorehs)]+β4[Migranths×VetoPowerhs]+β5[Nonmigranths×VetoPowerhs]+Xhsγ+εhs(T1)\text{NetTaker}_{hs} = \alpha + \beta_1 \text{Migrant}_{hs} + \beta_2[\text{Migrant}_{hs} \times \ln(\text{SonOccScore}_{hs})] + \beta_3[\text{Nonmigrant}_{hs} \times \ln(\text{SonOccScore}_{hs})] + \beta_4[\text{Migrant}_{hs} \times \text{VetoPower}_{hs}] + \beta_5[\text{Nonmigrant}_{hs} \times \text{VetoPower}_{hs}] + \mathbf{X}_{hs}\boldsymbol{\gamma} + \varepsilon_{hs} \tag{T1}

Columns (1)-(4) include the terms relevant to each test, not all interactions together. The fixed effects are coresidence, marriage year, and age; controls include father education dummies and net-dowry quadratic in every column, son education dummies except column (2), and the veto control in column (3). Column (4) uses the parental-veto interactions instead of a separate veto control. The Origin Survey sample is 1,802 observations in column (1) and 1,251 in column (2); the Destination Survey sample is 552 in columns (3)-(4). The Table I note reports household-clustered standard errors for the Origin Survey; it does not state a separate clustering rule for the Destination Survey.

Prediction 4: remittances and net-taking (Table II, p. 238). For the Origin Survey:

NetTakerhs=α+β1SonTransfershs+β2Migranths+β3[SonTransfershs×Migranths]+Xhsγ+εhs(T2)\text{NetTaker}_{hs} = \alpha + \beta_1 \text{SonTransfers}_{hs} + \beta_2 \text{Migrant}_{hs} + \beta_3[\text{SonTransfers}_{hs} \times \text{Migrant}_{hs}] + \mathbf{X}_{hs}\boldsymbol{\gamma} + \varepsilon_{hs} \tag{T2}

The regression shown summarizes columns (2) and (4), which include the migrant indicator and its interaction with transfers; columns (1) and (3) include the transfers indicator without those migration terms. Columns (3)-(4) add income controls, and column (4) also interacts them with the remittance indicator. All columns include coresidence, marriage-year and age fixed effects, son and father education dummies. The samples are 1,098 observations in columns (1)-(2) and 946 in columns (3)-(4); standard errors are clustered at the household level, as stated in the Table II note.

Prediction 5: dowry traditions and migration (Table III, p. 246). For men in the NSS Round 64 cross-section:

Migratedids=βDowryMeasured+IFE(δs+δb(i))+IfullXidsγ+εids(T3)\text{Migrated}_{ids} = \beta \text{DowryMeasure}_{d} + I_{FE}(\delta_s + \delta_{b(i)}) + I_{full}\mathbf{X}_{ids}\boldsymbol{\gamma} + \varepsilon_{ids} \tag{T3}

Here dd is district, ss is state, and b(i)b(i) is birth year; IFEI_{FE} marks columns with state and birth-year fixed effects, and IfullI_{full} marks the fully controlled columns. The paper substitutes the continuous historical population-share measure and the binary cutoffs above 0.1% or 10%. Columns (1), (4), and (7) include neither fixed effects nor controls; columns (2), (5), and (8) add state and birth-year fixed effects; columns (3), (6), and (9) additionally control for caste fixed effects, ethnographic traits, household-head education, and district geography. The sample is men born after 1945 per the Table III note (the section text describes men aged 15-45), with 188,192 observations in columns (1)-(2), (4)-(5), and (7)-(8), and 184,322 in the fully controlled columns. Standard errors are clustered by district (Table III note).

Prediction 6: GQ highway event study (Equation (2), p. 249). The conventional event-study specification for individual ii, age aa, state jj, district dd, year tt is:

yiajdt=αi+θjt+δa+∑sβsGQdts+Xiajdtγ+εiajdt.(2)y_{iajdt} = \alpha_i + \theta_{jt} + \delta_a + \sum_s \beta_s GQ_{dts} + X_{iajdt}\gamma + \varepsilon_{iajdt}. \tag{2}

The authors use the Borusyak, Jaravel, and Spiess (2024) imputation estimator for reported event-study results, separately by dowry status, age group, and outcome (all migration or employment migration; Figures VI-VII, pp. 252-253). The controls include individual, age, and state-by-year fixed effects; specifications may add geographic and cultural trends, caste-by-year effects, and household-consumption trends. The event-study sample is individual-year observations from 1996-2007; in GQ districts, men must be aged 13-45 when the project arrives. The plotted groups are ages 15-30 and 31-45 in 2007. Standard errors are clustered at the district level; the omitted event time is the earliest pretreatment period. The paper also reports a doubly robust Callaway-Sant’Anna estimator with wild-bootstrap district-clustered standard errors as a robustness check (text pp. 250, 254).

DatasetRole in paperWiki page
Author Destination Survey 2018 (Gurugram)Primary survey: property rights over dowry items for 557 male migrants and non-migrants; net transfers to grooms’ parents (Predictions 1-4)No page yet (hand-collected)
Author Origin Survey 2020 (6 Indian states)Primary survey: phone interviews with 2,541 households, 3,069 married sons; dowry allocation and migration by same-origin comparison (Predictions 1-4)No page yet (hand-collected)
NSS Round 64 (2007-08 migration module)Nationally representative individual-level migration data; the Table III note reports 188,192 men born after 1945 while the section text describes ages 15-45; tests Predictions 5 and 6No page yet (data:nss-india)
Giuliano-Nunn Ancestral CharacteristicsDistrict-level share of population with historical dowry tradition; constructed from Murdock (1967) Ethnographic Atlas + Ethnologue language mapsNo page yet (data:giuliano-nunn-ancestral)
REDS 1999 (NCAER)Validation of historical dowry measure against contemporary dowry payment sizeNo page yet (data:reds-india)
IHDS 2005 and 2011-12Validation of historical dowry measure (gold payment likelihood); robustness tests for migration predictionsNo page yet (data:ihds-india)
CapEx (CMIE, 2023)Infrastructure project timing and district location for GQ and NS-EW highway segments; matched to NHDP project listNo page yet (data:capex-cmie)

Sample periods: Destination Survey 2018, Origin Survey 2020, NSS migration 1996-2007, CapEx highway projects 1999-2016.

Use the original if you are: (i) studying how traditional institutions adapt to economic development (the mechanism literature building on Botticini and Siow (2003) and Anderson and Bidner (2015)); (ii) working on migration frictions in low-income countries, particularly the role of old-age support constraints identified by Munshi and Rosenzweig (2016); (iii) applying staggered event-study methods to infrastructure programs in developing countries; (iv) using the Giuliano and Nunn (2018) Ancestral Characteristics methodology for India; or (v) replicating the dowry property-rights surveys (replication data at Harvard Dataverse, DOI above). Tables I-III and Figure VI contain the headline numbers; Online Appendix B.5 details survey construction.

Source: peer-reviewed, The Quarterly Journal of Economics 141(1), 2026. This machine-generated distillation was updated on 2026-10-04 and is not human-verified or independently reproduced. The paper is paywalled; all rights reserved by Oxford University Press on behalf of President and Fellows of Harvard College. No PDF is hosted here.

Bau, Natalie, Gaurav Khanna, Corinne Low, and Alessandra Voena. “Traditional Institutions in Modern Times: Dowries as Pensions When Sons Migrate.” The Quarterly Journal of Economics 141, no. 1 (2026): 205-262. DOI: 10.1093/qje/qjaf041.

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