3.1. Selecting the Determinants of Gross Saving in Jordan
This research seeks to identify the determinants of gross saving in Jordan using the ARDL bounds testing approach. The choice of the sample period, 1991–2023, is motivated by many considerations. Starting in 1991, it avoided the exceptional and unprecedented instability associated with the 1989 Jordanian dinar crisis and coincided with the implementation of IMF-supported stabilization programs. Extending the analysis through 2023 makes it possible to observe saving behavior during several episodes of heightened uncertainty, including the global financial crisis, the Syrian conflict, and the COVID-19 pandemic. Taken together, these features allow the paper to provide new evidence on the determinants of gross saving in Jordan that complements—and in some cases departs from—earlier findings.
In analyzing the determinants of saving behavior in Jordan, the selection of variables within the ARDL framework is guided by both theoretical foundations and country-specific characteristics, while the definitions, sources, and measurement of all variables are presented later in this section when the model is formally introduced. Gross saving is adopted as the dependent variable because it serves as a comprehensive indicator suitable for empirical investigation and policy analysis in the Jordanian context. This choice is particularly relevant in an economy that relies heavily on external inflows, making gross saving a more accurate measure of the total resources available for capital accumulation, as illustrated in
Figure 1.
Second, from a policy perspective, the key factor in financing investment and reducing reliance on external funding is the level of gross saving, as it directly reflects the total resources available for capital accumulation. Accordingly, this study adopts gross saving (Saving) as the dependent variable, representing the portion of gross national income (GNI) that is not consumed. It is calculated as gross national income minus total consumption (C) plus net transfers (NT) and expressed as a percentage of GDP.
Figure 1 shows the trends in Domestic Savings (DS) and Gross Savings (GS) in Jordan from 1991 to 2023. Domestic Savings are calculated as GDP minus total consumption, while Gross Savings add net external inflows such as remittances to DS. Together, these indicators provide insights into domestic saving behavior and the significance of external inflows in Jordan’s economy. From the 1990s through the 2000s, Jordan exhibited persistently low domestic savings, reflecting relatively low-income levels alongside high consumption expenditures by households, firms, and the public sector.
In the 2000s, gross savings began to rise steadily, while domestic savings stayed lower and more volatile. This divergence suggests that external financial sources such as remittances have increasingly contributed to Jordan’s overall level of savings. A notable divergence occurred between 2011 and 2013, when domestic savings declined sharply, even turning negative. The growing gap during this time highlights how important external inflows are for maintaining stability. Between 2015 and 2023, gross and domestic savings saw a significant increase. This rise is probably due to stronger remittance inflows and a tendency for Jordanians to save more as a precaution against global and regional economic uncertainties, especially during the COVID-19 pandemic.
Regarding the determinants of gross saving, it is widely recognized that demographic factors provide a long-term structural framework for understanding saving behavior. A higher number of dependents, whether they are young or elderly, usually means that a household has less ability to save, as more of their income goes toward everyday expenses. In Jordan, this issue is especially pressing because of rapid population growth in recent decades and the arrival of refugees from neighboring countries. As a result, the dependency ratio plays a crucial role in shaping the country’s overall ability to save. Accordingly, the dependency ratio, shown in
Figure 2, is included in this study to capture the effect of demographic structure on Jordanians’ saving behavior.
At the macroeconomic level, real economic growth is another critical determinant of gross saving, as economic theories consistently link income dynamics to saving behavior. Higher income growth often leads to increased savings because it raises the real disposable income per person and fosters a sense of confidence in future economic stability. Consequently, countries experiencing sustained GDP growth often exhibit higher saving rates. For Jordan, periods of income growth have been closely linked to external factors such as regional instability and external financing.
Therefore, including real income growth and derived real per capita income growth in the model, as shown in
Figure 3 and
Figure 4, helps capture these cyclical effects on saving patterns.
The real interest rate is included to capture both the cost of capital and the reward for postponing consumption among Jordanians. However, its influence on saving behavior is complex. Higher real interest rates can have two opposing effects on gross saving. On one hand, they might encourage people to save more by offering better returns on deposits, which is called the substitution effect. On the other hand, higher interest income could help individuals reach their financial goals more easily, making them feel less inclined to save, known as the income effect. These conflicting forces make the overall impact of the real interest rate on gross saving ambiguous. This variable, shown in
Figure 5, is particularly relevant in Jordan’s case, as it also reflects the Central Bank of Jordan’s active monetary policy and its influence on household saving behavior.
Unemployment is included in this research to capture the labor market’s influence on Jordan’s gross saving capacity. High unemployment typically reduces gross saving by lowering household income and increasing financial insecurity. In Jordan, unemployment has remained persistently high, particularly among young people and women, reflecting structural challenges within the economy. This variable, illustrated in
Figure 6, is particularly important because it can weaken the savings base in two ways: directly, by reducing income, and indirectly, by increasing reliance on family support from Jordanians working abroad.
Taking all together, it is important to emphasize that standard economic theories of saving, particularly the Life-Cycle Hypothesis, the Permanent Income Hypothesis, and neoclassical intertemporal choice theories, provide a clear framework for analyzing the determinants of gross saving in Jordan. Demographic structure plays a central role in this framework, as a higher age dependency ratio increases consumption needs relative to the income-generating capacity of Jordanians, thereby reducing gross saving. Accordingly, Hypothesis (H1) asserts that the dependency ratio has a negative effect on gross saving.
Income dynamics are also fundamental to saving behavior, with higher real per capita income growth reflecting improved lifetime income prospects and a greater ability to save. In line with this reasoning, Hypothesis (H2) proposes that income growth positively influences gross saving. The real interest rate influences saving behavior by affecting the incentive to defer consumption. An increase in the real interest rate raises the return to saving, so the substitution effect is likely to dominate, thereby encouraging higher saving. This leads to Hypothesis H3, which posits a positive relationship between the real interest rate and gross saving. Finally, labor market conditions influence saving primarily through income effects, as higher unemployment reduces household income and weakens saving capacity despite potential precautionary motives. Consequently, Hypothesis H4 asserts that unemployment has a negative effect on gross saving.
It is important to note that a substantial body of studies highlights the importance of incorporating micro- and macro-level approaches when studying saving behavior. While micro-level household data can provide extra insights into saving decisions, this research adopts a macro-level perspective because gross national saving is fundamentally an aggregate economic outcome influenced by broad structural forces (
Modigliani & Sterling, 1983;
Loayza et al., 2000a,
2000b). Macroeconomic studies emphasize that national saving reflects the combined behavior of households, firms, and the public sector, and therefore responds primarily to economy-wide conditions.
In the Jordanian context, saving behavior is influenced by broad structural factors such as demographic pressures, limited public welfare systems, and the continued reliance on family-based support networks. These determinants operate at the national level, making a macroeconomic approach appropriate and a policy-relevant foundation for analyzing the dynamics of gross saving. Focusing on macro variables also aligns with the study’s objective of informing policymakers and supporting national savings-mobilization strategies. Nevertheless, the research acknowledges that incorporating additional micro-level dimensions could further enrich the savings analysis. Exploring these micro variables represents a promising avenue for future research and would help integrate macro and micro perspectives into a more comprehensive framework for understanding saving behavior in Jordan.
This research seeks to identify the determinants of gross saving in Jordan by applying the new ARDL bounds testing approach, which allows for the examination of both short-run dynamics and long-run relationships. In the case of Jordan, existing studies using the ARDL bounds testing approach remain limited. This research addresses this gap by providing an updated and comprehensive analysis of saving dynamics. In doing so, it provides a strong basis for advancing research and informing policies aimed at enhancing saving capacity and fostering sustainable economic growth.
Based on the previous analysis, this research analyzes the potential determinants of gross saving, drawing on theoretical, empirical, and Jordan-specific factors. It identifies five key variables for examination, leading to the following model:
The dependent variable, Gross Saving (SAVING), is calculated formally as:
where
is gross national income,
is consumption, and
denotes net transfers. Gross saving is expressed as a percentage of GDP, where
measures total income generated from the production of commodities within Jordan during period
.
The first explanatory variable, Dependency, represents the age dependency ratio, defined as the ratio of dependents-people younger than 15 or older than 64- to the working-age population-those ages 15–64. Data are shown as the proportion of dependents per 100 working-age population. Income-growth denotes the real per capita GDP growth rate, adjusted for inflation using the GDP deflator. Interest represents the real interest rate defined as the difference between the short-term lending rate and the realized inflation rate via the Consumer Price Index (CPI). Unemployment refers to the unemployment rate, which measures the proportion of the labor force actively seeking employment but not currently working. The data are sourced from the World Development Indicators published by the World Bank and from the Central Bank of Jordan’s database.
The descriptive statistics presented in
Table 1 reveal Jordan’s macroeconomic and demographic variability, necessitating robust modeling techniques such as ARDL to account for fluctuations in the variables used in this research.
Given the volatility inherent in the data, this study applies Heteroskedasticity and Autocorrelation Consistent (HAC) standard errors within the ARDL framework. Following model estimation, the residuals are employed to adjust the variance-covariance matrix of the coefficients using an HAC estimator, ensuring robust inferences. This methodological choice is particularly relevant in the context of the Jordanian economy, where key macroeconomic variables such as income, unemployment, and savings frequently exhibit persistent temporal shocks. To further check for multicollinearity among regressors, the correlation matrix for the variables has been calculated and presented in
Table A1 in
Appendix A. A correlation coefficient of less than 0.80 implies that the underlying model is not affected by multicollinearity (
Pindyck & Rubinfeld, 1998). Hence, this model does not suffer from multicollinearity, as all correlation coefficients are well below 0.80.
3.2. Methodology
This research employs the ARDL bounds testing approach of
Pesaran et al. (
2001) to examine the long-run relationships between gross saving and its determinants. The ARDL approach is selected for its flexibility in accommodating variables integrated of different orders. That is, a combination of I (0) and I (1) variables.
The order of integration of the variables is examined using the Augmented Dickey–Fuller (ADF) and Phillips–Perron (PP) unit root tests, including a model with a constant only and a model with both a constant and a deterministic time trend. The (ADF) test is applied to the variables using alternative specifications, including a model with a constant only and a model with both a constant and a deterministic time trend. The test is based on an ADF regression in which the lag length is selected automatically using the Akaike Information Criterion (AIC), with a maximum of nine lags. The order of integration of the variables is also examined using the Phillips–Perron (PP) unit root test under the same deterministic specifications (constant only and constant with deterministic trend). The PP test accounts for serial correlation and heteroskedasticity in the error term through a Newey–West heteroskedasticity and autocorrelation consistent (HAC) correction, employing a Bartlett kernel and an automatically selected bandwidth.
Results in
Table 2 indicate that Saving and Income-growth are stationary at the level, i.e., I (0), while Dependency, Interest, and Unemployment are stationary at the first difference, i.e., I (1). None of the variables is I (2). Therefore, the ARDL framework permits consistent estimation of both short-run dynamics and long-run equilibrium relationships. The key point is leveraging the ARDL model’s flexibility for dynamic modelling and for testing the existence of a levels relationship.
The ARDL model in this case is a flexible dynamic framework that captures the lagged adjustments of I (0) gross saving to its determinants of mixed orders. The bounds testing procedure is primarily used to assess the existence of a long-run equilibrium within an ARDL-ECM framework (
Pesaran et al., 2001).
Stewart (
2025) confirms that the ARDL model can detect a long-run levels relationship in cases, even when the dependent variable is I (0). This generalization aligns with earlier work on augmented ARDL bounds tests (
Sam et al., 2019). As such, the bounds test is applied as a diagnostic tool to verify a stable conditional long-run relationship, with the error correction term detecting short-run deviations from this long-run equilibrium. In this setting, the ARDL long-run coefficients can be interpreted as conditional equilibrium relationships derived from the underlying dynamic specification. Therefore, the long-run relationship represents the level toward which stationary gross saving converges, conditional on the values of the explanatory variables.
In this research, a systematic econometric framework consistent with the ARDL bounds testing approach proposed by
Pesaran et al. (
2001) and by
Stewart (
2025) is applied to examine both the short-run dynamics and long-run relationships among the determinants of gross saving in Jordan.
The general formula of the ARDL (
p,
q) approach is:
where:
: the dependent variable observed at time t.
: the independent variable lagged j periods.
: the constant term of the model.
: the coefficient associated with the i-th lag of Y, the Autoregressive (AR) part of the (ARDL) model.
: the distributed lag coefficients in the ARDL model, measuring the contemporaneous and lagged effects of the explanatory variable on the dependent variable.
is the error term.
The bounds testing procedure is applied to determine whether a significant level relationship exists between the dependent variable and the explanatory variables. This test is crucial because the presence of a level relationship justifies proceeding to long-run estimation and error correction modeling within the ARDL framework. The test involves comparing the computed F-statistic with the critical bounds, which account for variables integrated of order I (0) and I (1), thereby providing robust evidence of a stable conditional long-run relationship. Importantly, in the ARDL framework, long-run coefficients describe a conditional equilibrium implied by the underlying dynamic structure of the model.
Once the long-run conditional equilibrium is confirmed through the bounds test, the ARDL model is reparametrized into its corresponding Error Correction Model (ECM). The general form of the transformed ECM is as follows:
where:
: first difference of the dependent variable .
: first difference of the explanatory variable .
: the Error Correction Term (ECT), representing the deviation from the long-run equilibrium relationship.
: the speed of adjustment coefficient.
: the long-run coefficient, capturing the equilibrium effect of the explanatory variable on the dependent variable.
The ECM specification distinguishes between short-run effects, captured by the differenced terms, and the long-run equilibrium relationships, estimated from the level terms. The coefficient of the error correction term (γ) measures the adjustment toward the long-run equilibrium following short-run shocks.
Finally, a series of diagnostic tests is conducted to assess the model’s adequacy and ensure reliable inference. These tests include checking for serial correlation to confirm residual independence, testing for heteroskedasticity to verify constant error variance, and examining model specification to detect omitted variables or incorrect functional form. Successfully passing these diagnostic checks enhances confidence in the consistency, efficiency, and unbiasedness of the estimators obtained from the ARDL methodology.
3.3. The Empirical Results
To determine the optimal lag structure of the ARDL model, all admissible specifications up to ARDL (2, 2, 2, 2, 2) were estimated using EViews econometric software version 13. Out of 162 alternative models, the optimal specification was automatically selected by the EViews software based on standard information criteria, with the ARDL (2, 0, 0, 1, 0) model being consistently preferred by the Akaike Information Criterion (AIC), the Schwarz Criterion (SC), and the Hannan–Quinn Criterion (HQC).
The model incorporates two lags of the dependent variable (Saving), contemporaneous effects for Dependency and Income-growth, a single lag for Interest to capture the impact of real interest rate and the delayed monetary policy transmission, and a contemporaneous Unemployment effect to reflect labor market developments. This lag structure may reflect the interplay between gradual adjustments in a weak-Jordan growth economy and rapid responses of Jordanians to labor market and income shocks. Specifically, the two lags of gross saving may indicate Jordanians’ gradual consumption smoothing in response to persistent economic weakness. The contemporaneous effects of the dependency ratio and income growth may indicate the immediate influence of Jordan’s social structure, including high obligations and current income fluctuations, on saving decisions. The single lag of the real interest rate may capture the delayed monetary transmission in a financial system with limited depth, while the contemporaneous effect of unemployment may indicate the immediate impact of high unemployment and low wages on Jordanian saving behavior.
To validate the model’s robustness and findings, several diagnostic tests were conducted, as shown in
Table 3,
Table 4,
Table 5 and
Table 6. First, the Durbin–Watson statistic of 2.2 in
Table 6 suggests no first-order autocorrelation in the residuals of the model. However, to more thoroughly test for higher-order serial correlation, the Breusch–Godfrey Serial Correlation LM test was applied and shown in
Table 3. The null hypothesis of no serial correlation could not be rejected, as the p-values associated with both the F-statistic (
p = 0.29) and the Obs*R-squared statistic (
p = 0.16) are well above conventional significance levels, indicating the absence of autocorrelation.
Second, the Breusch–Pagan–Godfrey test was employed to test for heteroskedasticity. As shown in
Table 4, the null hypothesis of homoskedasticity could not be rejected, with the p-values associated with both the F-statistic (
p = 0.32) and the Obs*R-squared statistic (
p = 0.29) again exceeding conventional significance levels. These results imply that the variance of the error terms is constant, thereby validating the efficiency of the model’s estimated coefficients.
Third, the Ramsey RESET test was conducted to check for potential model misspecification. The test statistic (F = 0.98, p = 0.719) does not indicate any evidence of functional form misspecification, further supporting the adequacy of the chosen ARDL model in capturing the relationship between gross saving and its determinants.
Fourth, the CUSUM and CUSUMSQ tests were conducted to check for the stability of the parameters. The two tests, as shown in
Figure 7 and
Figure 8 confirm the stability of the model, as the cumulative sum of recursive and squared recursive residuals remains within the 5% significance bounds, indicating no evidence of parameter instability.
Taken together, these diagnostic results confirm that the ARDL specification is econometrically sound and that the model’s parameter estimates are reliable, unbiased, and consistent. This strengthens the validity of the inferences and policy implications drawn from the analysis. Importantly, this reliability allows for a meaningful interpretation of both the short-run adjustments and the long-run equilibrium dynamics revealed by the ARDL framework.
As explained earlier, this study employs the ARDL (2, 0, 0, 1, 0) model. Based on the above discussion, the estimation results of the unrestricted ARDL model are presented in
Table 6.
In the unrestricted ARDL specification, the significant coefficients on lagged gross saving reflect short-term dynamic adjustments, indicating that current saving responds strongly to past levels. The positive and statistically significant coefficient on the first lag, together with the negative and significant coefficient on the second lag, as shown in
Table 6, suggests a combination of a strong short-run and an oscillatory adjustment process over time. The coefficient of the dependency ratio is positive and statistically significant, indicating that an increase in the dependency ratio is associated with higher gross saving. Although this positive relationship is counterintuitive to standard economic hypotheses, it can be explained by Jordan’s distinctive socio-economic and demographic structure, weak social welfare coverage, and large flows of remittances, which lead households to rely heavily on precautionary and forward-looking saving behavior. It is observed that the age dependency ratio has declined over the sample period; however, despite this downward trend, the ratio continues to represent a relatively high burden on households. Jordan’s traditional family structure and very limited public social protection schemes place primary responsibility for financing education, healthcare, housing, and future expenses on families themselves. As a result, households tend to increase savings to meet anticipated future obligations. High household expenditures on education, substantial healthcare spending, and narrow social security coverage further reinforce this behavior, while remittances expand disposable income and support saving motives. Consequently, in the Jordanian context, a higher dependency ratio may act as a motivator for precautionary saving.
Although the standard theories predict a negative relationship between dependency ratios and gross saving, much empirical evidence suggests that this effect can be non-negative under certain conditions. Demographic and macroeconomic studies emphasize that the impact of dependency on saving is highly contingent on country-specific settings. In countries with limited social protection, high education and healthcare costs, and strong family support systems, households often respond to higher youth dependency by increasing precautionary and forward-looking savings (
World Bank & International Monetary Fund, 2015). Consistent with this perspective, country-level studies in Pakistan and other Asian economies report mixed effects of dependency on gross saving, reflecting variations in local institutional and economic conditions. In populated Asian countries, higher dependency may generate a positive or neutral impact on savings as households engage in precautionary accumulation strategies (
Ahmad & Ali Shah, 2021;
Athukorala & Suanin, 2024). Remittance inflows provide additional resources, helping to offset potential negative impacts of dependency on savings (
Gani, 2016). Similarly, in transition economies of Central and Eastern Europe, underdeveloped welfare systems and reliance on self-insurance allow households to maintain or even increase savings despite high youth dependency (
Kabrt, 2024). These findings underscore that the relationship between dependency and saving is country-specific, shaped by economic, institutional, and social factors. In Jordan, where households face relatively high education and healthcare costs and depend on informal family support largely financed by remittances, similar mechanisms—precautionary accumulation and self-insurance—are likely to influence saving behavior.
The positive and statistically significant effect of income per capita growth on gross saving supports both Keynesian and modern income–saving theories. Higher income growth enhances Jordanians’ capacity to save and reflects a procyclical saving pattern. This finding suggests that economic growth promotes higher savings, thereby reinforcing a virtuous cycle of capital accumulation and economic expansion in Jordan.
The interest rate enters the model with both contemporaneous and lagged terms, indicating that changes in interest rates influence saving decisions both immediately and with a short lag. It is important to note that the effect of interest rates on gross saving arises from two opposing forces. In Jordan, the results are somewhat mixed. The immediate impact shows a negative effect that is significant only at the 10% level, suggesting that the substitution effects outweigh the income effects. This suggests that increases in interest rates may initially reduce saving behavior. However, the effect over time turns out to be positive. This suggests that while immediate rate hikes may dampen savings due to higher borrowing costs, households eventually respond to higher returns on savings. In the long-run, however, as shown later, the interest rate becomes statistically insignificant, possibly due to weak financial development or delayed behavioral responses to interest rate changes.
Unemployment exhibits a negative and statistically significant effect, indicating that changes in labor market conditions exert short-run pressure on household saving behavior. Higher unemployment reduces disposable income and increases uncertainty, undermining the ability and willingness of Jordanians to save. This finding is particularly relevant in the Jordanian context, where youth and female unemployment remain persistently high. According to the World Development Indicators published by the World Bank, female youth unemployment (ages 15–24) was 48% in 2022 and 40% in 2023, while total youth unemployment for the same age group was around 42% in 2022 and 39% in 2023.
To check for the existence of a statistically significant long-run level relationship among the variables, this research uses the Bounds Testing approach suggested by
Pesaran et al. (
2001).
The findings shown in
Table 7 indicate that there is a stable conditional long-run relationship between gross saving and its influencing factors. According to the computed F-statistic, there is sufficient evidence to reject the null hypothesis at the 1% significance level. In other words, the computed F-statistics exceed the upper-bound critical value. This result suggests the existence of a stable conditional long-run equilibrium relationship between savings and the key variables discussed above.
Since a stable conditional long-run equilibrium relationship among the variables is established, the ARDL model can be reparametrized into its Error Correction Model (ECM) form. ECM connects short-term changes with long-term stability, ensuring that important long-term information is not overlooked. In this approach, immediate changes are represented by first differences, while the lagged level variables illustrate the enduring relationships over time. This formulation is crucial for distinguishing short-run fluctuations from the underlying long-run equilibrium path of Jordan’s gross saving function.
The estimation results of the conditional ECM representation of the ARDL model are presented in
Table 8 and
Table 9, where the coefficients are divided into short-run and long-run dynamics. The short-run coefficients correspond to the differenced variables (Δ) and capture short-term adjustments in gross saving in response to changes in the explanatory variables. The long-run coefficients are obtained by normalizing the ARDL coefficients with the adjustment coefficient (γ = −0.86), representing the long-run equilibrium relationships between saving and the explanatory variables.
To compute the long-run coefficients for each variable, this research first sums the contemporaneous and lagged coefficients. Then it divides this total by one minus the sum of the lagged dependent variable coefficients. Specifically, saving is positively related to the dependency ratio (0.19), income growth (0.32), and the interest rate (0.14), while unemployment exerts a significant negative impact (−0.72). These results indicate that, over time, economic growth and dependency tend to boost gross saving, while a weak labor market has a negative impact on it.
Taken together, the short- and long-run results indicate that both the dependency ratio and income growth have positive and statistically significant effects on gross saving in the short and long-run, while unemployment is negatively associated with gross saving in both periods. As discussed earlier, a higher dependency ratio may act as a motivator for precautionary or goal-oriented saving among Jordanians. Furthermore, the results confirm that stronger economic growth serves as a key driver of sustained saving over time in Jordan.
Conversely, the large negative impact of unemployment shows that ongoing weak job market conditions seriously reduce the savings ability of people in Jordan. The negative effect of unemployment on savings in Jordan highlights that, in practice, income constraints can impact precautionary motives. During periods of prolonged high unemployment and weak economic growth, many households experience sustained reductions in disposable income and have limited access to social protection, compelling them to prioritize current consumption over saving. Although precautionary saving behavior predicts that uncertainty may increase saving, the aggregate effect is negative because a large share of households simply cannot afford to save. The ARDL results suggest that this effect stays in both the short and long-run, indicating that extended labor-market slack can have lasting adverse impacts on gross saving. This dynamic is particularly important for Jordan, as reduced aggregate saving can limit domestic investment, slow capital accumulation, and constrain long-term economic growth.
Interestingly, while the interest rate variable is insignificant in the long-run, its short-run dynamics are significant only at the 10% level, which may reflect the debt-servicing burdens or consumption-smoothing behavior of Jordanians.
More importantly, the presence of a stable long-run relationship is confirmed by the statistically significant error correction term (ECT) with a coefficient of –0.86, indicating a rapid annual adjustment toward equilibrium following exogenous shocks. This implies that disequilibria do not persist for long in the Jordanian economy. In this context, this study suggests that the high adjustment observed in saving dynamics can be attributed primarily to the limited availability of alternative saving options in Jordan. Households and businesses rely mainly on the banking sector for their financial needs, with limited access to a diverse range of financial instruments. In addition, financial inclusion remains a major challenge, particularly for lower-income groups and small and medium-sized enterprises. In the absence of sophisticated saving mechanisms, households and businesses in Jordan have fewer tools at their disposal to buffer short-term economic shocks. As a result, their only viable option is to adjust their saving behavior directly in response to such shocks.