Submitted:
07 April 2025
Posted:
08 April 2025
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Abstract
Keywords:
1. Introduction
2. Literature Review
2.1. Empirical Review on the relationship between financial inclusion and life insurance
2.1.1. Financial Inclusion and Life insurance
2.1.2. Financial inclusion and poverty
3. Data and Methodology
| S/N | Variable | Proxies | Variable measurement | Source(s) |
| 1 | Financial Inclusion Index (FII) |
Author’s computation1 of Financial Inclusion Index (FII) World Bank Global Financial Development DatabaseWorld Bank Global Financial Development Database Author’s computation2 |
||
| Usability | Bank credit to bank deposits | Quarterly | ||
| Accessibility | Commercial bank branches per 100,000 adults | Quarterly | ||
| Concentration | Concentration of banks (percent) | Quarterly | ||
| Availability | Depositors with commercial banks (per 1000 adults) | Quarterly | ||
| 2 | Life insurance | |||
| LIFINSUR | Life insurance premium volume to GDP (percent) | Quarterly | ||
| 3 | Poverty | |||
| POV | Multidimensional poverty headcount ratio (UNDP) (percent of population) | Quarterly | ||
| 4 | Interactive term of financial inclusion and Life insurance | |||
| is the interaction term between financial inclusion and life insurance | Quarterly | |||
| Control Variables | ||||
| 5 | INFL | Inflation | Quarterly | World Bank Development Indicators Database World Bank Development Indicators Database World Bank Development Indicators Database |
| 6 | GRO | Economic growth (GDP per capita) |
Quarterly | |
| 7 | TO | Trade openness = | Quarterly | |
| S/N | Variable | Expected Sign |
| 1 | Multidimensional poverty headcount ratio (UNDP) (percent of population) | |
| 2 | FI is Financial Inclusion Index | + |
| 3 | INSUR is life insurance proxied by Life insurance premium volume to GDP (percent) | + |
| 4 | is the interaction term between financial inclusion and life insurance * | +/- |
| 5 | Inflation | + |
| 6 | Economic growth (GDP per capita) | + |
| 7 | Trade openness = | + |
4. Results
| POVR | FII | INSUR | FIINSUR | INFL | TO | GRO | |
| Mean | 17.87146 | -0.087919 | 0.554257 | 0.230332 | 9.691020 | 56.87562 | 1694.168 |
| Median | 16.57316 | 0.000000 | 0.036539 | 0.000000 | 5.289867 | 54.36966 | 860.9715 |
| Maximum | 44.62394 | 5.084794 | 15.38098 | 30.66771 | 513.9068 | 175.7980 | 14222.55 |
| Minimum | 0.000000 | -1.612566 | 0.000000 | -3.524327 | -16.85969 | 0.000000 | -17.00469 |
| Observations | 944 | 944 | 944 | 944 | 944 | 944 | 944 |
| Augmented Dickey -Fuller Unit root test | Phillips-Perron unit root test | Status | |||||||
| Level | First Diff | Level | First Diff | ||||||
| Variables | Stat. | P-Val | Stat. | P-Val | Stat. | P-val. | Stat | P-val | |
| POV | -1.300918 | 0.1773 | -2.6187 | 0.0093 | -0.5202 | 0.4889 | -4.7495 | 0.0000 | I (1) |
| FI | -1.8141 | 0.0664 | -3.0997 | 0.0022 | -1.1810 | 0.2158 | -3.3598 | 0.0000 | I (1) |
| INSUR | -1.0146 | 0.2769 | -2.3442 | 0.0195 | -0.9816 | 0.2902 | -3.9692 | 0.0001 | I (1) |
| FIINS | -1.588 | 0.1052 | -2.8445 | 0.0048 | -0.9934 | 0.2854 | -3.0662 | 0.0025 | I (1) |
| INFL | -2.1507 | 0.0310 | -3.8391 | 0.002 | -1.2701 | 0.1868 | -4.0576 | 0.001 | I (1) |
| TOP | -0.0935 | 0.6487 | -2.2319 | 0.026 | 0.2346 | 0.7522 | -3.3962 | 0.0009 | I (1) |
| GRO | 1.1222 | 0.9314 | -3.0934 | 0.0023 | 1.9196 | 0.9865 | -3.3502 | 0.0010 | I (1) |
| Pedroni Residual Cointegration Test | ||||
| Sample: 1999 2023 | ||||
| Included observations: 1125 | ||||
| Cross-sections included: 24 (21 dropped) | ||||
| Null Hypothesis: No cointegration | ||||
| Trend assumption: No deterministic trend | ||||
| User-specified lag length: 1 | ||||
| Newey-West automatic bandwidth selection and Bartlett kernel | ||||
| Alternative hypothesis: common AR coefs. (within-dimension) | ||||
| Statistic | Prob. | Weighted Statistic | Prob. | |
| Panel v-Statistic | -0.459862 | 0.6772 | -3.492881 | 0.9998 |
| Panel rho-Statistic | -0.654990 | 0.2562 | 0.519885 | 0.6984 |
| Panel PP-Statistic | -17.39254 | 0.0000 | -13.41169 | 0.0000 |
| Panel ADF-Statistic | -1.981620 | 0.0238 | -2.282931 | 0.0112 |
| Alternative hypothesis: individual AR coefs. (between-dimension) | ||||
| Group rho-Statistic | Statistic | Prob. | ||
| 1.741184 | 0.9592 | |||
| Group PP-Statistic | -19.86679 | 0.0000 | ||
| Group ADF-Statistic | -1.610455 | 0.0536 | ||
| ARDL Long Run Form and Bounds Test | ||||
| Dependent Variable: D(POV) | ||||
| Selected Model: ARDL(1, 1, 4, 4, 1, 0, 1) | ||||
| Case 2: Restricted Constant and No Trend | ||||
| Sample: 1999Q1 2023Q4 | ||||
| Included observations: 96 | ||||
| Conditional Error Correction Regression | ||||
| Variable | Coefficient | Std. Error | t-Statistic | Prob. |
| C | 14,76683 | 4,63495 | 3,185974 | 0,0021 |
| POVRED(-1)* | -0,58083 | 0,058081 | -10,0005 | 0.0000 |
| FII(-1) | -1,77413 | 2,608128 | -0,68023 | 0,4984 |
| INSUR(-1) | 10,16912 | 1,913961 | 5,313129 | 0.0000 |
| FI_INSUR(-1) | 1,326426 | 2,170821 | 0,611025 | 0,543 |
| INFL(-1) | 0,05442 | 0,038452 | 1,41525 | 0,161 |
| TO** | 0,021312 | 0,060642 | 0,351443 | 0,7262 |
| GRO(-1) | -0,00657 | 0,00306 | -2,14819 | 0,0348 |
| D(FII) | 11,09885 | 4,992058 | 2,223301 | 0,0291 |
| D(INSUR) | 7,633998 | 3,508842 | 2,175646 | 0,0326 |
| D(INSUR(-1)) | -7,11253 | 3,048546 | -2,33309 | 0,0223 |
| D(INSUR(-2)) | -7,11253 | 3,048546 | -2,33309 | 0,0223 |
| D(INSUR(-3)) | -7,11253 | 3,048546 | -2,33309 | 0,0223 |
| D(FI_INSUR) | -10,49 | 3,128879 | -3,35264 | 0,0012 |
| D(FI_INSUR(-1)) | -4,73752 | 2,136045 | -2,2179 | 0,0295 |
| D(FI_INSUR(-2)) | -4,73752 | 2,136045 | -2,2179 | 0,0295 |
| D(FI_INSUR(-3)) | -4,73752 | 2,136045 | -2,2179 | 0,0295 |
| D(INFL) | 0,265815 | 0,062902 | 4,225891 | 0,0001 |
| D(GRO) | 0,005477 | 0,006712 | 0,815905 | 0,4171 |
| * p-value incompatible with t-Bounds distribution. | ||||
| ** Variable interpreted as Z = Z(-1) + D(Z). Levels Equation | ||||
| Case 2: Restricted Constant and No Trend | ||||
| Variable | Coefficient | Std. Error | t-Statistic | Prob. |
| FII | -3,05445 | 4,482203 | -0,68146 | 0,4976 |
| INSUR | 17,50779 | 2,93155 | 5,972196 | 0.0000 |
| FIINSUR | 2,283658 | 3,730642 | 0,612135 | 0,5423 |
| INFLATION | 0,093692 | 0,066244 | 1,414357 | 0,1613 |
| TRADEOPP | 0,036693 | 0,10393 | 0,353052 | 0,725 |
| GRO | -0,01132 | 0,005189 | -2,18122 | 0,0322 |
| C | 25,4235 | 7,849006 | 3,239072 | 0,0018 |
| EC = POVRED - (-3.0544*FII + 17.5078*INSUR + 2.2837*FI_INSUR + 0.0937*INFL + 0.0367*TO-0.0113*GRO+ 25.4235) | ||||
5. Results and Discussion
6. Conclusions and Policy Implication
| S/N | Country Name | World Bank Classification | Ranking |
| 1 | Angola | Lower Middle-Income Country (LMC) | ** |
| 2 | Benin | Lower Middle-Income Country (LMC) | ** |
| 3 | Botswana | Upper Middle-Income Country (UMC) | *** |
| 4 | Burundi | Low Income Country (LIC) | * |
| 5 | Cabo Verde | Lower Middle-Income Country (LMC) | ** |
| 6 | Cameroon | Lower Middle-Income Country (LMC) | ** |
| 7 | Central Africa Republic | Low Income Country (LIC) | * |
| 8 | Chad | Low Income Country (LIC) | * |
| 9 | Comoros | Lower Middle-Income Country (LMC) | ** |
| 10 | Congo Democratic Republic | Low Income Country (LIC) | * |
| 11 | Congo Republic | Lower Middle-Income Country (LMC) | ** |
| 12 | Cote d’Ivoire | Lower Middle-Income Country (LMC) | ** |
| 13 | Equatorial Guinea | Upper Middle-Income Country (UMC) | *** |
| 14 | Eritrea | Low Income Country (LIC) | * |
| 15 | Liberia | Low Income Country (LIC) | * |
| 16 | Eswatini | Lower Middle-Income Country (LMC) | ** |
| 17 | Ethiopia | Low Income Country (LIC) | * |
| 18 | Gabon | Upper Middle-Income Country (UMC) | *** |
| 19 | Gambia | Low Income Country (LIC) | * |
| 20 | Ghana | Lower Middle-Income Country (LMC) | ** |
| 21 | Guinea | Low Income Country (LIC) | * |
| 22 | Guinea Bissau | Low Income Country (LIC) | * |
| 23 | Kenya | Lower Middle-Income Country (LMC) | ** |
| 24 | Lesotho | Lower Middle-Income Country (LMC) | ** |
| 25 | Seychelles | High Income Country | **** |
| 26 | Madagascar | Low Income Country (LIC) | * |
| 27 | Malawi | Low Income Country (LIC) | * |
| 28 | Mali | Low Income Country (LIC) | * |
| 29 | Somalia | Low Income Country (LIC) | * |
| 30 | Mauritania | Lower Middle-Income Country (LMC) | ** |
| 31 | Mauritius | Upper Middle-Income Country (UMC) | *** |
| 32 | Mozambique | Low Income Country (LIC) | * |
| 33 | Namibia | Upper Middle-Income Country (UMC) | *** |
| 34 | Nigeria | Lower Middle-Income Country (LMC) | ** |
| 35 | Rwanda | Low Income Country (LIC) | * |
| 36 | Sao tome and Principe | Lower Middle-Income Country (LMC) | ** |
| 37 | Senegal | Lower Middle-Income Country (LMC) | ** |
| 38 | Sierra-Leone | Low Income Country (LIC) | * |
| 39 | South Africa | Upper Middle-Income Country (UMC) | *** |
| 40 | Sudan-Sudan | Low Income Country (LIC) | * |
| 41 | Tanzania | Lower Middle-Income Country (LMC) | ** |
| 42 | Togo | Low Income Country (LIC) | * |
| 43 | Uganda | Low Income Country (LIC) | * |
| 44 | Zambia | Lower Middle-Income Country (LMC) | ** |
| 45 | Zimbabwe | Lower Middle-Income Country (LMC) | ** |
Appendix
| S/N | Country | financial inclusion | life insurance products | ||
Publication and research Funding
| 1 |
The authors’ employed Principal Component Analysis (PCA) technique in construction of Financial Inclusion Index (FII) for forty-five (45) Sub-Saharan Africa (SSA) countries in this study. The Principal Component Analysis (PCA) technique adopted the methodological procedures of the works of (Gupte, Venkataramani, & Gupta, 2012; Tram, Lai, & Nguyen, 2023). In this approach, through a two-stage principal component analysis (PCA) method, appropriate weights were obtained to assign dimensions and individual indicators that measure the level of financial inclusion. The first stage applies the PCA method to estimate three sub-indices, that is, the dimensions that represent financial inclusion (penetration, availability, and usage). The second stage also applies the PCA method to estimate the overall FI index using three sub-indices estimated at the first stage as causal variables, which implies that we estimate the sub-metrics first instead of estimating the overall financial inclusion index directly by selecting all indicators simultaneously. This approach is considered an optimal strategy because it avoids weight bias against the indicators that exhibit the highest correlation..
However, the constructed Financial Inclusion Index (FII) annual data for 45 SSA countries was converted into quarterly data using E-view 13 tool kits, which makes it unique from the previous construction of Financial Inclusion Index (FII) studies which are constructed in annual format alone. See the constructed financial inclusion index values in annual data format for all SSA countries in Microsoft Excel employed in this study.
In conclusion, the works of Gupte et al., (2012) is limited in scope and number of variables selected which focused on India alone while this financial inclusion index captured a longer time frame and numbers of countries in a quarterly form which gives a clearer policy implication for policy makers in each of these countries therefore contributing to the body of knowledge on financial inclusion.
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| 2 | Interaction term between financial inclusion and insurance penetration i.e. financial inclusion index values was multiplied with life insurance values for each of the 45 SSA countries considered.. |
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| POV | FII | INSUR | FIINSUR | INFL | TO | GRO | |
| POV | 1.000000 | ||||||
| FII | -0.096962 | 1.000000 | |||||
| INSUR | -0.219864 | 0.162425 | 1.000000 | ||||
| FIINSUR | -0.090943 | 0.537680 | 0.290674 | 1.000000 | |||
| INFL | -0.019307 | -0.000832 | -0.040455 | -0.015598 | 1.000000 | ||
| TO | -0.187813 | -0.057908 | 0.110489 | 0.099893 | -0.138565 | 1.000000 | |
| GRO | -0.025682 | 0.106001 | 0.349707 | 0.143149 | -0.067886 | 0.384479 | 1.000000 |
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