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Partisanship and Fiscal Policy in Economic Unions: Carlino, Drautzburg, Inman & Zarra (2023)

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JEL (IAR-assigned): E62, H77, D72 · assigned from the abstract, not the journal

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paper-summaryfiscal-policypolitical-economyfiscal-federalismmacroeconomicsregression-discontinuitypanel-regressionpeer-reviewedunreplicateddata:census-of-governmentsdata:faadsdata:freddata:klarner-partisan-data

What this is. The core results, the New Keynesian two-state monetary union model, and the regression discontinuity design that identifies partisan differences in state governors’ propensity to spend federal intergovernmental (IG) transfers: enough to understand what the paper found and how, without reading all 37 pages. To replicate or extend it, read the full source at doi:10.1257/aer.20210147.

The paper documents that the party of the state governor is a source of heterogeneity in how federal IG transfers affect the macroeconomy. Using a regression discontinuity design on close gubernatorial elections, it finds Republican governors spend 0.29 percent less (elasticity) per 1 percent increase in IG aid than Democratic governors, and instead reduce debt immediately and cut top income tax rates with a two-year lag. A calibrated New Keynesian model of a two-state monetary union with these estimated partisan fiscal rules implies an intertemporal trade-off: the IG transfer impact multiplier is 1.22 when all governors behave like Democrats but falls to 0.64 under equal partisan representation, a difference of 0.58; the long-run discounted multiplier, however, is 0.16 higher under equal partisanship (0.80 vs. 0.64) because delayed Republican tax cuts stimulate future output. The paper extends Besley and Case (2003), who documented partisan spending differences using OLS, to a causal RDD design, and adds the aggregate macroeconomic implications via a calibrated NK model. The partisan differences are only statistically significant in the post-Reagan era and grew with national polarization.

Magnitudes are as reported; preferred estimates use the robust RDD estimator (quadratic MOV polynomial, state x party and year x party fixed effects, bandwidth 10 percentage points). Locators point to the published version.

#ResultLocatorMagnitude
R1Republican governors spend less per 1% increase in IG aid than Democratic governors (MPS elasticity partisan difference)Table 2, col. 5, p. 713γr,inc=−0.290\gamma_{r,\text{inc}} = -0.290 (SE 0.098); t approximately -3.0 with party FE
R2Republican governors cut spending more per 1% decrease in IG aid than Democrats (asymmetric response to cuts)Table 2, col. 5, p. 713γr,cut=0.524\gamma_{r,\text{cut}} = 0.524 (SE 0.239); statistically significant at 5%
R3Dollar-for-dollar: Democratic MPS near $1.35 per $1 IG increase; Republican partisan difference -$1.58, leaving Republican total near zeroTable 4, col. 2, p. 716Democrat: $1.346 (SE 0.600); Rep diff: -$1.576 (SE 0.892); Republican total not different from zero
R4Republican states immediately lower debt outstanding relative to Democratic states; effect persists for at least 3 yearsFigure 7, Panel A, p. 723Debt elasticity partisan difference approximately -0.25 per 1% IG increase; statistically significant
R5Republican top marginal income tax rates are lower, but only with a 2-year lag; no partisan tax difference on impactFigure 7, Panel B, p. 723Log tax-rate elasticity partisan difference approximately -1% after 2 years; zero on impact and year 1
R6Democratic-led states show higher GDP growth per dollar of IG aid, with the gap persisting up to 3 yearsFigure 8, p. 724Partisan GDP growth elasticity (Rep - Dem): approximately -0.334% per 1% IG increase; marginally significant
R7IG transfer impact multiplier falls by 0.58 under equal partisanship vs. all-Democratic baselineTable 7, rows 1-2, col. 1-3, p. 732Impact multiplier: 1.22 (all Democrats) vs 0.64 (equal partisanship); difference -0.58 (SE 0.33)
R8Long-run PDV multiplier is 0.16 higher under equal partisanship than all-Democratic, because of delayed Republican tax cutsTable 7, rows 1-2, col. 1-3, p. 732Long-run multiplier: 0.64 (all Democrats) vs 0.80 (equal partisanship); difference +0.16 (SE 0.09)
R9Predetermined covariates show no significant Democratic-Republican differences in close electionsTable 1, col. 6, p. 710None of the robust equality t-statistics is significant at the 10% level; reported t-statistics range from -1.3 to 1.4; close-election sample has 299 Democratic and 333 Republican state-years
R10Linear MSE RDD estimates also show lower spending responses for Republican governors on IG increasesTable 2, cols. 1 and 4, p. 713Republican interaction: -0.260 (SE 0.104) without fixed effects and -0.272 (SE 0.075) with party-specific fixed effects
R11Full-sample OLS estimates attenuate the partisan difference in spending responsesTable 2, cols. 3 and 6, p. 713Republican interaction for positive IG growth: -0.093 (SE 0.018) without fixed effects and -0.068 (SE 0.021) with fixed effects
R12The positive-aid partisan spending difference persists after excluding welfare and highway aidTable 3, col. 2, p. 715Republican x positive IG growth: -0.251 (SE 0.077), robust RDD
R13Republicans cut spending more after aid decreases when the Census measure excludes welfare and highway aidTable 3, col. 2, p. 715Republican x negative IG growth: 0.438 (SE 0.175), robust RDD
R14The positive-aid partisan spending difference persists with FAADS-defined nonmatching aidTable 3, col. 4, p. 715Republican x positive IG growth: -0.404 (SE 0.134), robust RDD, 1983-2010
R15The FAADS estimate for partisan spending responses to aid cuts is not statistically significantTable 3, col. 4, p. 715Republican x negative IG growth: 0.186 (SE 0.140), robust RDD, 1983-2010
R16Party- and direction-weighted estimates imply an aggregate flypaper effect close to one dollar per dollar of aidText p. 717Weighted spending response: $1.051 per $1 change in aid; $0.53 for increases and $1.80 for cuts, compared with the simple OLS estimate of $0.81
R17Spending responses differ by the size of the IG increase at the election cutoffFigure 3, p. 712; text p. 713Above the 75th percentile, IG growth averages 18.9% ($114 per resident); below it, 4.6% ($25); Democrats’ expenditure response is higher at the cutoff, while Republican confidence intervals overlap
R18Partisan differences in spending increases extend beyond close elections, up to MOV 30 percentage pointsFigure 4, panels A-B, pp. 717-718Rolling-window partisan estimates remain negative through
R19Candidate ideological differences do not vary significantly with election closenessFigure 5 and text p. 719p = 0.18 in the full sample; p = 0.99 after excluding elections with MOV above 40 percentage points
R20High unemployment does not materially change the positive-aid partisan spending differenceTable 5, col. 2, p. 719Republican x positive IG x unemployment-stress interaction: -0.009 (SE 0.15), not significant; baseline partisan interaction: -0.272 (SE 0.16)
R21A recent state bond downgrade does not materially change the positive-aid partisan spending differenceTable 5, col. 4, p. 719Republican x positive IG x downgrade interaction: 0.329 (SE 0.27), not significant; baseline partisan interaction: -0.313 (SE 0.11)
R22Greater national polarization strengthens the Republican-Democratic spending difference for aid increasesEq. 3, text pp. 720-721Republican x positive IG growth x lagged polarization: -0.13 (SE 0.06); before 1980 implied difference approximately 0.01 (SE 0.08), after 1990 approximately -0.25 (SE 0.09)
R23Polarization does not significantly change the partisan spending response to aid cutsEq. 3, text pp. 720-721Republican x negative IG growth x lagged polarization: 0.04 (SE 0.06), not significant
R24Partisan estimates do not differ significantly across US census divisionsFigure 6, p. 722Division mean, inverse-sample-weighted, population-weighted, and pooled estimates show no significant differences
R25The GDP response to IG cuts has the opposite sign from the increase response but is marginally insignificantText p. 724Republican-Democratic cumulative GDP-growth difference is opposite in sign and similar in magnitude to the -0.334% increase estimate, but marginally insignificant
R26Equal partisanship lowers the model’s average state-spending response to an IG shockFigure 9, panel A, text p. 730Spending difference relative to all-Democratic preferences: -0.65 percentage points of GDP; 90% CI (-0.04, -1.26)
R27Equal partisanship lowers the model’s average state tax rate after an IG shockFigure 9, panel B, text p. 730Peak difference relative to all-Democratic preferences: -5.7%; 90% CI (-0.4%, -11.0%)
R28Equal partisanship lowers impact state output, followed by higher output from year 3Figure 9, panel C, text pp. 730-731Impact output difference: -0.5 percentage points of GDP; 90% CI (-0.0%, -0.9%); output is 0.05% higher from year 3
R29The impact multiplier remains lower with equal partisanship under OLS-based MPS estimatesTable 7, p. 732Difference from all-Democratic benchmark: -0.26 (SE 0.07)
R30The long-run multiplier remains higher with equal partisanship under OLS-based MPS estimatesTable 7, p. 732Difference from all-Democratic benchmark: +0.07 (SE 0.02)
R31Under GHH preferences, equal partisanship still lowers the impact multiplierTable 7, p. 732Difference from all-Democratic benchmark: -0.41 (SE 0.23)
R32Under GHH preferences, equal partisanship raises the long-run multiplierTable 7, p. 732Difference from all-Democratic benchmark: +1.33 (SE 0.78)
R33The changing Republican governor share is associated with lower simulated IG impact multipliersFigure 10, panels A-B, text p. 733Republican share rises from 30% in 1984 to 67%; maximum impact-multiplier difference is -0.42 in 2018 relative to 1984, with 90% CI (-0.03, -0.80)
R34Long-run multipliers rise less over time than impact multipliers as the Republican share growsFigure 10, panel C, text p. 733Long-run multiplier increases by at most 0.13 from its 1984 benchmark; reported interval 0.01 to 0.18
R35A density test finds no evidence that governors or voters sort around the close-election cutoffText p. 710, fn. 13, citing online Appendix Figure D1.1McCrary test fails to reject continuity of the MOV running variable; the cited main-text note gives no statistic or p-value

Overall (paper’s conclusion). Partisanship of state governors alters how federal IG transfers translate into macroeconomic activity. More Democratic governors raise the short-run IG impact multiplier; more Republican governors raise the long-run discounted multiplier by channeling aid into delayed tax cuts. The resulting intertemporal trade-off means the optimal partisan composition of governors depends on whether the federal government prioritizes short-run or long-run stimulus. As national polarization increased after 1980, partisan differences in MPS widened and became statistically detectable, implying the aggregate consequences of partisanship for IG policy have grown over time.

The model is a two-state New Keynesian monetary union with home state size nn and foreign state size 1−n1-n. The states are symmetric except for their governors’ partisan MPS. Each state has constrained households (fraction 1−μ1-\mu, hand-to-mouth) and unconstrained households (fraction μ\mu, with complete markets and bond holdings). Households in each state have utility (eq. 4, p. 724):

u(Ct,Nt,Gst,t)=11−1/εCCt1−1/εC−κiNNt1+1/εN1+1/εN+v(Gst,t)(4)u(C_t, N_t, G_{st,t}) = \frac{1}{1-1/\varepsilon_C} C_t^{1-1/\varepsilon_C} - \kappa_i^N \frac{N_t^{1+1/\varepsilon_N}}{1+1/\varepsilon_N} + v(G_{st,t}) \tag{4}

where CtC_t is aggregate consumption, NtN_t labor supply, Gst,tG_{st,t} state government services, εC\varepsilon_C the elasticity of intertemporal substitution, εN\varepsilon_N the Frisch elasticity, and κiN\kappa_i^N a leisure weight that differs by household type i∈{c,u}i \in \{c, u\}. The budget constraint for unconstrained agents is (eq. 5, p. 725):

PtCtu+Btu≤(1−τtf−τtst)WtNtu+Bt−1uRt−1n+Prt+Trtu(5)P_t C_t^u + B_t^u \leq (1 - \tau_t^f - \tau_t^{st}) W_t N_t^u + B_{t-1}^u R_{t-1}^n + Pr_t + Tr_t^u \tag{5}

Intermediate goods firms produce using labor only under decreasing returns to scale (eq. 6, p. 725):

yh,t(z)=At×Nt(z)1−α(6)y_{h,t}(z) = A_t \times N_t(z)^{1-\alpha} \tag{6}

where α∈(0,1)\alpha \in (0,1) is the fixed-factor share. Firms face Calvo price stickiness: with probability ξ\xi a firm cannot reoptimize; calibrated ξ=0.735\xi = 0.735 at annual frequency to match a peak defense spending multiplier of 0.8.

State government fiscal rules. Government consumption responds to IG transfers through the partisan MPS ψIG\psi_{IG} (eq. 7, p. 725):

Gst,t=ψIG ⁣(IGtPt−IGˉ)+Gst,tx(7)G_{st,t} = \psi_{IG}\!\left(\frac{IG_t}{P_t} - \bar{IG}\right) + G_{st,t}^x \tag{7}

The Republican home state uses ψIG=0\psi_{IG} = 0 (calibrated: Republican spending effect not significantly different from zero) while the Democratic foreign state uses ψIG∗=1.576\psi_{IG}^* = 1.576 (robust RDD estimate from Table 4, col. 2). State tax rates adjust smoothly to service debt and to cover expenditure net of IG revenue (eq. 8, p. 726):

τst,t=ρττst,t−1+(1−ρτ) ⁣{τˉst+ψst,b ⁣[(Rt−1n−1)bst,t−1Πt−(Rˉn−1)bˉstΠˉ]+ψst,E ⁣[Gst,t−1−Gˉst−IGt−1−IGˉPt]}(8)\tau_{st,t} = \rho_\tau \tau_{st,t-1} + (1-\rho_\tau)\!\left\{\bar{\tau}_{st} + \psi_{st,b}\!\left[(R_{t-1}^n - 1)\frac{b_{st,t-1}}{\Pi_t} - (\bar{R}^n - 1)\frac{\bar{b}_{st}}{\bar{\Pi}}\right] + \psi_{st,E}\!\left[G_{st,t-1} - \bar{G}_{st} - \frac{IG_{t-1} - \bar{IG}}{P_t}\right]\right\} \tag{8}

Calibrated: persistence ρτ=0.35\rho_\tau = 0.35, debt loading ψst,b=0.99\psi_{st,b} = 0.99, expenditure-net-of-IG loading ψst,E=0.85\psi_{st,E} = 0.85 (Table 6, p. 729). This yields no tax change in year 1, a fall after year 2, and reversal toward zero by year 3, consistent with the micro estimates in Figure 7.

Monetary policy. The common central bank follows a Taylor rule reacting to union-wide inflation and the output gap (eq. 9, p. 726):

Rtn=(Πˉβ)ρr ⁣ ⁣[ ⁣(ΠtaggΠˉ)ψr,π ⁣ ⁣(YtaggYtflex)ψr,y]1−ρr(9)R_t^n = \left(\frac{\bar{\Pi}}{\beta}\right)^{\rho_r}\!\!\left[\!\left(\frac{\Pi_t^{agg}}{\bar{\Pi}}\right)^{\psi_{r,\pi}}\!\!\left(\frac{Y_t^{agg}}{Y_t^{flex}}\right)^{\psi_{r,y}}\right]^{1-\rho_r} \tag{9}

where Πtagg=nΠt+(1−n)Πt∗\Pi_t^{agg} = n\Pi_t + (1-n)\Pi_t^* and Ytagg=nYt+(1−n)Yt∗Y_t^{agg} = nY_t + (1-n)Y_t^* are population-weighted. Calibrated: ρr=0.75\rho_r = 0.75, ψr,π=1.5\psi_{r,\pi} = 1.5, ψr,y=0.5\psi_{r,y} = 0.5. The model builds on Nakamura and Steinsson (2014) by adding heterogeneous state fiscal rules that encode partisan differences. It is linearized around a deterministic steady state and solved numerically with Dynare (Adjemian et al. 2011).

The identification design exploits the regression discontinuity in gubernatorial elections. Near a 50-50 vote outcome (margin of victory MOV = 0), the party of the winning governor is as good as randomly assigned. This yields a consistent estimate of partisan differences in MPS conditional on IG aid changes, without relying on the assumption that IG aid is itself randomly allocated. The design follows Lee, Moretti, and Butler (2004) and Ferreira and Gyourko (2009), who used close-election RDDs for US House representatives and mayors.

MOV is signed positive (negative) for a Democratic (Republican) winner. Standard errors are two-way clustered by state and year throughout. The bandwidth mˉ\bar{m} on absolute MOV is chosen by cross-validated MSE minimization using linear MOV controls (q=1q = 1). The preferred “robust” estimator uses quadratic MOV controls (q=2q = 2) with the same bandwidth; the preferred bandwidth is 10 percentage points with fixed effects and 11 without. Internal validity is assessed via Table 1 (p. 710), which shows no significant differences in pre-determined covariates across Democratic and Republican winners in close elections. External validity is assessed in Section III: rolling-window OLS shows the same partisan pattern for margins up to 30 percentage points, and candidate ideological differences are uncorrelated with closeness.

Baseline panel regression (eq. 1, p. 707). Changes in log state expenditure Δln⁡Es,t\Delta \ln E_{s,t} in state ss, fiscal year tt, are regressed on log changes in IG aid interacted with the governor’s party lagged one year (Reps,t−1=1\text{Rep}_{s,t-1} = 1 for Republican):

Δln⁡Es,t=(γ0,inc+γr,inc×Reps,t−1)Δln⁡IGs,tinc+(γ0,cut+γr,cut×Reps,t−1)Δln⁡IGs,tcut+μ0+μr×Reps,t−1+fixed effects+es,t(1)\Delta \ln E_{s,t} = (\gamma_{0,\text{inc}} + \gamma_{r,\text{inc}} \times \text{Rep}_{s,t-1})\Delta \ln IG_{s,t}^{\text{inc}} + (\gamma_{0,\text{cut}} + \gamma_{r,\text{cut}} \times \text{Rep}_{s,t-1})\Delta \ln IG_{s,t}^{\text{cut}} + \mu_0 + \mu_r \times \text{Rep}_{s,t-1} + \text{fixed effects} + e_{s,t} \tag{1}

where Δln⁡IGs,tinc=max⁡{0,Δln⁡IGs,t}\Delta \ln IG_{s,t}^{\text{inc}} = \max\{0, \Delta \ln IG_{s,t}\} captures IG increases and Δln⁡IGs,tcut=min⁡{0,Δln⁡IGs,t}\Delta \ln IG_{s,t}^{\text{cut}} = \min\{0, \Delta \ln IG_{s,t}\} captures decreases. The Democratic MPS elasticity is γ0,inc\gamma_{0,\text{inc}} for increases and γ0,cut\gamma_{0,\text{cut}} for decreases; the Republican partisan difference is γr,inc\gamma_{r,\text{inc}} (expected negative: Republicans spend less on increases) and γr,cut\gamma_{r,\text{cut}} (expected positive: Republicans cut more when aid falls). Fixed effects are state x party and year x party in the preferred specification.

RDD specification (eq. 2, p. 708). Equation (1) is augmented with a polynomial of order qq in the MOV and its interactions with IG changes, estimated on observations within bandwidth ∣MOVs,t−1∣≤mˉ|MOV_{s,t-1}| \leq \bar{m}:

\Delta \ln E_{s,t} = (\gamma_{0,\text{inc}} + \gamma_{r,\text{inc}} \times \text{Rep}_{s,t-1})\Delta \ln IG_{s,t}^{\text{inc}} + (\gamma_{0,\text{cut}} + \gamma_{r,\text{cut}} \times \text{Rep}_{s,t-1})\Delta \ln IG_{s,t}^{\text{cut}} $$ $$+ \sum_{\hat{s} \in \{\text{cut},\text{inc}\}}\sum_{p=1}^{q} (\gamma_{0,\hat{s},m,p} + \gamma_{r,\hat{s},m,p} \times \text{Rep}_{s,t-1})\Delta \ln IG_{s,t}^{\hat{s}} \times MOV_{s,t-1}^p $$ $$+ \sum_{p=1}^{q} (\beta_{0,m,p} + \beta_{r,m,p} \times \text{Rep}_{s,t-1})MOV_{s,t-1}^p + \mu_0 + \mu_r \times \text{Rep}_{s,t-1} + \text{fixed effects} + e_{s,t} \tag{2}

The RDD identifies partisan differences (γr,inc,γr,cut)(\gamma_{r,\text{inc}}, \gamma_{r,\text{cut}}) but not the Democratic baseline MPS (γ0,inc,γ0,cut)(\gamma_{0,\text{inc}}, \gamma_{0,\text{cut}}). The paper benchmarks Republican MPS to zero (consistent with the near-zero robust estimate) and sets Democratic MPS to 1.576 (from dollar-level Table 4, col. 2). Headline results are R1 and R2 above (Table 2, cols. 5 and 2 respectively).

Debt and tax rate specifications. Equations (1) and (2) are re-estimated replacing Δln⁡Es,t\Delta \ln E_{s,t} with the log level of total debt outstanding and the log of the state top marginal income tax rate, estimated at horizons 0-3 years (Figure 7, p. 723). These specifications produce R4 and R5: Republicans lower debt immediately; tax cuts arrive with a two-year lag. Results R4-R5 do not appear in a formal regression table; Figure 7 plots the RDD coefficient path with 68% and 90% pointwise confidence bands.

State GDP specification. Equation (2) with cumulative GDP growth as the dependent variable produces R6 (Figure 8, p. 724): a 0.334 percent Democratic advantage in GDP growth per 1 percent increase in IG aid, which persists for up to three years.

Debt and tax horizon specifications (written out from §IV-A, p. 722). The authors re-estimate the RDD equation at horizons h=0,1,2,3h = 0,1,2,3, replacing expenditure growth with the change in log total state debt or the log top marginal tax rate. The displayed form below makes that replacement explicit; it is not numbered in the paper:

Δhln⁡Ys,t=(γ0,inc+γr,incReps,t−1)Δln⁡IGs,tinc+(γ0,cut+γr,cutReps,t−1)Δln⁡IGs,tcut+MOV polynomial and interactions+party fixed effects+es,t,h\Delta_h \ln Y_{s,t} = (\gamma_{0,inc} + \gamma_{r,inc} \text{Rep}_{s,t-1})\Delta \ln \text{IG}_{s,t}^{inc} + (\gamma_{0,cut} + \gamma_{r,cut} \text{Rep}_{s,t-1})\Delta \ln \text{IG}_{s,t}^{cut} + \text{MOV polynomial and interactions} + \text{party fixed effects} + e_{s,t,h}

Here Ys,tY_{s,t} is total state debt outstanding or the top marginal income tax rate, and Δh\Delta_h denotes the outcome response at horizon hh to current IG growth. The preferred debt and tax paths use quadratic MOV controls; standard errors are clustered by state and year. The sample covers 1983-2014, with the close-election bandwidth selected for each specification. These are Figure 7’s plotted coefficients, not a separately printed regression table.

Fiscal-stress interaction specification (written out from Table 5, p. 719). The paper interacts the aid-growth terms and party differences in equation (2) with two stress measures, separately. Table 5 defines the unemployment interaction variable as IAs,t=min⁡{0,Us,t−Us,median}IA_{s,t}=\min\{0, U_{s,t}-U_{s,median}\}, while the accompanying text describes it as a dummy for unemployment above the state median; these definitions conflict in the PDF. The other specification uses a bond-downgrade dummy. The additional terms are:

Δln⁡Es,t=(γ0,inc+γr,incReps,t−1)Δln⁡IGs,tinc+(γ0,cut+γr,cutReps,t−1)Δln⁡IGs,tcut+(δ0,inc+δr,incReps,t−1)Δln⁡IGs,tincIAs,t+(δ0,cut+δr,cutReps,t−1)Δln⁡IGs,tcutIAs,t+(λ0+λrReps,t−1)IAs,t+MOV polynomials and their interactions+party fixed effects+es,t.\begin{aligned} \Delta \ln E_{s,t} ={}& (\gamma_{0,inc} + \gamma_{r,inc} \text{Rep}_{s,t-1})\Delta \ln \text{IG}_{s,t}^{inc} \\ &+ (\gamma_{0,cut} + \gamma_{r,cut} \text{Rep}_{s,t-1})\Delta \ln \text{IG}_{s,t}^{cut} \\ &+ (\delta_{0,inc} + \delta_{r,inc} \text{Rep}_{s,t-1})\Delta \ln \text{IG}_{s,t}^{inc} \text{IA}_{s,t} \\ &+ (\delta_{0,cut} + \delta_{r,cut} \text{Rep}_{s,t-1})\Delta \ln \text{IG}_{s,t}^{cut} \text{IA}_{s,t} \\ &+ (\lambda_0 + \lambda_r \text{Rep}_{s,t-1})\text{IA}_{s,t} \\ &+ \text{MOV polynomials and their interactions} + \text{party fixed effects} + e_{s,t}. \end{aligned}

These are two separate specifications, with state-by-party and year-by-party fixed effects and standard errors clustered by state and year. The unemployment sample has 630 observations, a 10 percentage-point MOV bandwidth, and 1983-2014 coverage; the downgrade sample has 676 observations, an 11-point bandwidth, and the same period (Table 5). The paper does not print a numbered equation for these interactions.

State GDP response to aid cuts (written out from §IV-B, p. 724). For the Figure 8 horizon estimates, equation (2) uses cumulative state GDP growth as the dependent variable and the positive or negative IG-growth terms as the regressors. This is the same RDD structure, with cumulative GDP growth replacing expenditure growth; the sample is 1983-2014, MOV controls are quadratic, and standard errors are clustered by state and year. The analogous aid-cut response is opposite in sign to the aid-increase response and marginally insignificant (text p. 724).

Polarization extension (eq. 3, p. 720). Interacting partisan MPS differences with a political polarization index PPCt−1PPC_{t-1} (normalized; from Azzimonti 2018) shows that partisan MPS differences grew with polarization: the interaction is −0.13×PPCt−1-0.13 \times PPC_{t-1} (SE 0.06) for IG increases. Before 1980, PPCt−1PPC_{t-1} averaged 1.1 standard deviations below the mean, implying near-zero partisan differences (consistent with the pre-Reagan evidence). After 1990, PPCt−1PPC_{t-1} averaged 0.8 standard deviations above the mean, implying partisan differences of approximately −0.25-0.25 (standard error 0.09).

The printed polarization regression gives the estimated coefficients and their standard errors in brackets (eq. 3, p. 720). It covers 1964-2014, includes fixed effects and the interactions between the MOV polynomial, aid, polarization, and party, and clusters standard errors by state and year:

Δln⁡Es,t=(0.20[0.05]+0.02[0.05]PPCt−1)Δln⁡IGs,tinc+(−0.15[0.07]−0.13[0.06]PPCt−1)Reps,t−1Δln⁡IGs,tinc+(0.04[0.01]−0.01[0.04]PPCt−1)Δln⁡IGs,tcut+(0.17[0.07]+0.04[0.06]PPCt−1)Reps,t−1Δln⁡IGs,tcut+(MOV,MOV2)×IG×PPCt−1×party interactions+fixed effects+es,t(3)\begin{aligned} \Delta \ln E_{s,t} ={}& (0.20_{[0.05]} + 0.02_{[0.05]} \text{PPC}_{t-1})\Delta \ln \text{IG}_{s,t}^{inc} \\ &+ (-0.15_{[0.07]} - 0.13_{[0.06]} \text{PPC}_{t-1})\text{Rep}_{s,t-1}\Delta \ln \text{IG}_{s,t}^{inc} \\ &+ (0.04_{[0.01]} - 0.01_{[0.04]} \text{PPC}_{t-1})\Delta \ln \text{IG}_{s,t}^{cut} \\ &+ (0.17_{[0.07]} + 0.04_{[0.06]} \text{PPC}_{t-1})\text{Rep}_{s,t-1}\Delta \ln \text{IG}_{s,t}^{cut} \\ &+ (\text{MOV}, \text{MOV}^2) \times \text{IG} \times \text{PPC}_{t-1} \times \text{party interactions} \\ &+ \text{fixed effects} + e_{s,t} \end{aligned} \tag{3}

Equation (1) uses the full 1,508 state-year panel for 1983-2014; equation (2)‘s preferred robust RDD with party-specific state and year fixed effects uses 630 close-election state-years within a 10 percentage-point bandwidth. Standard errors are clustered by state and year for both specifications (Table 2, p. 713).

DatasetRole in paperWiki page
US Census Bureau, State and Local Government Finance (State Government Finances series)Primary source for state expenditure, revenue, debt, and tax data; 1983-2014no page yet
Federal Assistance Award Data System (FAADS) via National Archives / SAMIdentifies federal aid programs with matching provisions (excluded from main IG measure); 1983-2010no page yet
Council of State Governments, The Book of the StatesGubernatorial election outcomes, party affiliation, and term datano page yet
US Bureau of Economic Analysis, Regional Economic AccountsState-level GDP (personal income), used for R6 state GDP growth specificationsno page yet
US Bureau of Labor Statistics / Federal Reserve Bank of St. Louis (FRED)State unemployment rate (used in robustness checks, Table 5); macro dataFRED
S&P Global Ratings, History of US State RatingsState bond downgrade dummies for fiscal-stress robustness checks (Table 5)no page yet
Klarner (2013) State Partisan Balance Data (Harvard Dataverse)State partisan composition of legislature; used in robustness checks and polarization analysisno page yet
Bonica (2014) DIME Database on IdeologyIdeological scores for gubernatorial candidates; external validity check in Figure 5no page yet

Sample: 48 US states, fiscal years 1983-2014. Alaska, Wyoming, and North Dakota excluded from main sample (large sovereign wealth funds). Close-election RDD subsample: elections with absolute MOV at most 10-11 percentage points.

Read the original if you are: calibrating the partisan heterogeneity in state fiscal responses for a fiscal federalism model (Tables 2 and 4 give the full set of MPS estimates by party, sign, and specification); studying the macroeconomic implications of state partisanship for federal stimulus design (Section V and Table 7 provide the NK model results and counterfactuals); assessing external validity of RDD designs for close gubernatorial elections (Section III, Figures 4-6, Appendix C); comparing IG multiplier estimates across methodologies (Chodorow-Reich (2019) surveys ARRA-era estimates and finds a headline multiplier of 1.7, higher than the estimates here partly because it implicitly assumes the ZLB constraint); or extending the model to incorporate the zero lower bound or other heterogeneous states. The replication data at doi:10.3886/E177001V1 includes all cleaned datasets and Dynare code.

Source: peer-reviewed, American Economic Review 113(3), March 2023. This distillation was extracted by an LLM on 2026-06-25 and is not human-verified or independently reproduced. The AEA retains copyright; no CC licence was found in Crossref metadata. Reproduction of figures or tables requires AEA permission.

Carlino, Gerald, Thorsten Drautzburg, Robert Inman, and Nicholas Zarra. “Partisanship and Fiscal Policy in Economic Unions: Evidence from US States.” American Economic Review 113, no. 3 (March 2023): 701-737. DOI: 10.1257/aer.20210147. Replication data: doi:10.3886/E177001V1.

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