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Springer Nature - PMC COVID-19 Collection logoLink to Springer Nature - PMC COVID-19 Collection
. 2021 Dec 8;7(1):83. doi: 10.1186/s40854-021-00300-x

COVID-19 pandemic risk and probability of loan default: evidence from marketplace lending market

Asror Nigmonov 1,, Syed Shams 2
PMCID: PMC8651273  PMID: 35024293

Abstract

As the COVID-19 pandemic adversely affects the financial markets, a better understanding of the lending dynamics of a successful marketplace is necessary under the conditions of financial distress. Using the loan book database of Mintos (Latvia) and employing logit regression method, we provide evidence of the pandemic-induced exposure to default risk in the marketplace lending market. Our analysis indicates that the probability of default increases from 0.056 in the pre-pandemic period to 0.079 in the post-pandemic period. COVID-19 pandemic has a significant impact on default risk during May and June of 2020. We also find that the magnitude of the impact of COVID-19 risk is higher for borrowers with lower credit ratings and in countries with low levels of FinTech adoption. Our main findings are robust to sample selection bias allowing for a better understanding of and quantifying risks related to FinTech loans during the pandemic and periods of overall economic distress.

Keywords: Peer-to-peer lending, COVID-19, Coronavirus, Default risk, Marketplace lending, Pandemic, FinTech, Shadow banking

Introduction

Diversification of risk to investors has always been the main reason and rationale behind the existence of banks (Diamond 1984). However, after the global financial crisis of 2007–2008, banks set higher standards of lending due to greater regulations. Low returns on public markets lured investors into alternative forms of investments. COVID-19 crisis could further shift investors’ preferences towards non-traditional markets, which are less liquid and transparent (Sindreu 2020). This might allow a new generation of non-banks to come of age and transform shadow banking (banking by non-banks) within the broader development of the FinTech industry. One of those businesses is marketplace lending platforms that manage to diversify risk while not holding borrower loans in their balance sheets. This method of diversification tends to protect them against borrower defaults and maintain the required level of liquidity (Cumming and Hornuf 2018).

During the last decade, the marketplace lending industry expanded outside stringent government regulations and more than doubled in size in China, the US, and the UK between 2010 and 2014 (Aveni et al. 2015). The rise of the marketplace lending market is often attributed to the stringent regulation of traditional bank lending after the global financial crisis, while the central cause of the crisis was growing credit default risk because of information asymmetry (Emekter et al. 2015). At their early stages, marketplace lending platforms essentially took a ‘passive’ role in their borrower assessment and loan provision. Individual investors mostly made investment decisions based on ‘soft’ information provided by the borrowers (Balyuk and Davydenko 2019). When the loan volumes grew larger, platforms automated investment decisions, developed individual scoring systems and algorithms distinct from banks or credit bureaus (Iyer et al. 2016; Jagtiani and Lemieux 2017). These changes transformed the lending decisions from investors to platforms and made them more similar to ordinary banks (Balyuk and Davydenko 2019; Ryan and Zhu 2018). By getting more involved in investing decisions, marketplace lending platforms should constantly improve their risk assessment for avoiding unsustainable losses (Flögel and Beckamp 2020).

The global pandemic of novel coronavirus (COVID-19) triggered extreme government measures worldwide that restricted economic activity. In the absence of a vaccine or treatment, lockdown and social distancing measures were broadly perceived as an effective way to contain the disease. These measures had a systematic impact on the financial sector and the broader economy via business closures and disruptions of the global value chain. Ongoing economic downturn as a result of the COVID-19 pandemic increases the likelihood of unsustainable losses by the marketplace lending industry. Losses in the industry are expected to increase substantially over a major economic downturn, which can quickly exhaust investor funds (Bolt et al. 2012). Unlike prior infectious disease pandemics, the COVID-19 pandemic has a vast global economic and financial impact, allowing us to study this emerging issue in a large cross-country context.

The literature related to the COVID-19 pandemic is currently in its infancy, primarily due to its ongoing and rapidly evolving nature. Nevertheless, several studies have reported the early impact of COVID-19 on banks, financial markets and the economy overall (Agosto and Giudici 2020; Auer et al. 2020; Baldwin and Di Mauro 2020; Civelek and Xiarewana 2020; Demirguc-Kunt et al. 2020a, b; Stiller and Zink 2020; Wu and Olson 2020; Bose et al. 2021). A limited number of studies examined the impact of the COVID-19 pandemic on FinTech adoption and its popularity (Fu and Mishra 2020; Najaf et al. 2021). However, no prior studies, to our knowledge, explore the implications of the COVID-19 pandemic for the risk levels and defaults in non-bank or FinTech lending markets.

To investigate the effects of COVID-19 risk on FinTech lending, we examine the likelihood of loan default due to the COVID-19 pandemic among marketplace lending loans. The central question of this study is: How does the COVID-19 risk affect marketplace lending market defaults? We use the loan book dataset of Mintos (Latvia) marketplace lending platform in conjunction with the borrower- and country-specific factors. Our logistic regression estimates indicate that the COVID-19 pandemic risk increases the likelihood of loan default. Specifically, the odds ratio indicates a 2.5 times higher likelihood of default in the post-pandemic period than the pre-pandemic period. We also document that marginal changes in the probability of default are 0.39–0.63% lower among the countries with high FinTech adoption than countries with low FinTech adoption. Our analysis further shows that the impact of COVID-19 risk was not solidly reflected in loan defaults until April 2020. Loans with lower ratings are also more likely to default, with a 2.30% higher likelihood of default in the post-pandemic period than the pre-pandemic period.

Our paper contributes to the existing literature in several ways. First, we provide early evidence that COVID-19 pandemic risk significantly increases the likelihood of loan default. Second, we evaluate the monthly impact of COVID-19 pandemic risk on default risk and provide evidence that the likelihood of loan defaults is highest in the month of May and June. Third, we find that borrowers credit ratings and country-level FinTech adoption act as a cushion to prevent the likelihood of loan default. Overall, we provide a unique insight into how the COVID-19 pandemic impacts the likelihood of loan default in particular. In this regard, the findings of our study might have important implications for both marketplace lending investors, platforms and policymakers.

Most of the marketplace lending platforms are currently revising their main security tool against the financial hardship, ‘provision fund’. Platforms now withhold up to 50% of investor interest income to contribute to a ‘provisional fund’ (RateSetter 2020). This type of extreme measure may be helpful to solve short-term liquidity problems but drives away yield-hungry investors in the long term. Our study allows for quantifying risks and analysing risk factors in the marketplace lending market during financial distress. Thus, it fills the gap in the existing literature by developing a cross country model tested via econometric analysis. The findings of this study in terms of COVID-19 risk can guide platform management in overcoming or controlling various risk factors. The model used in our study by including both loan and economy specific variables might serve as a framework of risk management in marketplace lending platforms. By extending the modelling and findings of the current study marketplace, lending platforms and investors can improve their risk management models. Marketplace lending platforms can improve their security mechanisms, and investors can adjust their loan portfolios.

The rest of this paper is organised as follows. Second section describes the background of the topic, and third section explains the methodology and data. Fourth section discusses the empirical findings of the study. Fifth section is the discussion and conclusion.

Background of the topic

Several studies explore the impact of earlier pandemics on the financial sector and the economy overall. Pandemics are historically known to have a considerable economic cost attached to them that can significantly influence the financial systems (Haacker 2004; Santaeulalia-Llopis 2008; Yach et al. 2006). Goodell (2020) emphasises that the COVID-19 pandemic can be paralleled to other survivable disasters, including earthquakes, volcanic eruptions, air disasters, and terrorist attacks. COVID-19, as a survivable global pandemic, is projected to have a long-term imprint on firm financing and the cost of capital (Goodell 2020). Elnahas et al. (2018) debated that organisations located in a disaster-prone area tend to be less levered. For that reason, COVID-19 is estimated to bring together less levered principal structures.

The influence of a pandemic on the economy at the global level is undervalued. As a result, financial prudence tends to underinvest in preparation for it, which became prominent when the spending behaviours changed globally after the outbreak of the COVID-19 pandemic. Leoni (2013) studied the spread of the Human Immunodeficiency Virus in developing countries and indicated its association with deposit withdrawals. Lagoarde-Segot and Leoni (2013) forecasted that pandemics could result in a downfall in the banking industry. Moreover, pandemic affects advancing loans to the poor as investing groups, and banks get overstretched by the economic recession (Skoufias 2003). Therefore, the COVID-19 pandemic is anticipated to influence the financial sector similarly with insolvency spikes and a disproportionate reduction in the loans to the poor.

COVID-19 pandemic is distinct from earlier pandemics because of its widespread global impact on people’s health, mobility, and social welfare. The ongoing and expected decline in business revenues and household income is likely to be massive (Sadang 2020). According to the Organisation for Economic Co-operation and Development (OECD) (2020), sales volume has dropped significantly, and companies facing unsolvable financial difficulties to pay their suppliers, employees, lenders, and investors, which leads to liquidity problems. Recent studies documented the negative impact of COVID-19 on exchange rate returns, stock market volatility, firm values (Ali et al. 2020; Dawson 2020; Iyke 2020; Shen et al. 2020).

Several of the latest studies specifically addressed the role of new financial technologies to eliminate the after-effects of the COVID-19 crisis. Auer et al. (2020) state that the developments in finance could speed up the shift toward digital payments. Fu and Mishra (2020) indicate that during the COVID-19 pandemic, daily downloads of finance mobile applications increased by 24–32% among the sample of 74 countries globally. This transformation could open a divide in access to payment instruments, which could negatively impact unbanked and older consumers. The pandemic may also amplify calls to defend the role of cash and central bank digital currencies. Cecchetti and Schoenholtz (2020) emphasise the importance of an extraordinary disclosure mechanism and stress tests for restoring investor confidence in the financial sector after the COVID-19 crisis. Sahay et al. (2020) point to the positive impact of digital finance on increasing welfare and reducing inequalities in financial access following the COVID-19 crisis. They underscore that digital financial services are faster, more efficient, and typically cheaper than traditional financial services and, therefore, increasingly reaching lower-income households and small- and medium-sized enterprises (SMEs).

Agosto and Giudici (2020) perform contagion monitoring for establishing the impact of COVID-19 on digital finance in the first country affected by COVID-19, China. Agosto and Giudici (2020) highlight that in the first week of February, the cases of COVID-19 accelerated the contagion and the Shanghai Stock Exchange (SSE) composite index plummeted. They observe a negative but weak correlation between SSE returns and reported COVID-19 cases at a later stage of the epidemic. Demirguc-Kunt et al. (2020a) analyse bank stock prices worldwide to assess the impact of the COVID-19 pandemic on the banking sector. They highlight that bank stocks underperform their domestic markets and other non-bank financial firms during the COVID-19 crisis. Banks are expected to play a countercyclical lending role that put them under significant stress. At the same time, banks interact with the rest of the global financial system via multiple linkage types which particularly increases the risk of distress during the contagion. As presented by Avdjiev et al. (2019), multidimensional interlinkages between economic agents create the multi-layered network where the exposure to credit risk transfers to the non-bank private financial sector.

Li et al. (2021) show that the COVID-19 crisis adversely affects banking stability and makes it more prone to risk-taking. They also highlight that the COVID-19 outbreak and government capital injections harm the efficiency gain from shadow banking. Najaf et al. (2021) find a significant increase in FinTech loans among the US peer-to-peer lending market. However, they highlight that this increase was accompanied by a hike in unverified loans, loan terms and interest rates. Sahay et al. (2020) indicate that due to weak demand during the COVID-19 pandemic, funding conditions tighten, and transactions drop sharply. These changes in market conditions hit FinTech companies hard, especially the smaller ones and those with thinner buffers (Sahay et al. 2020).

Alternative lending markets, such as marketplace lending, mainly serve small businesses and low-income households. They are prone to use marketplace platforms as a ‘last resort’ when they lack funds and exhaust all of their available debt capacity (Walthoff-Borm et al. 2018). Moreover, marketplace lending markets tend to reduce costs and improve user experience at the expense of inaccurate credit risk measurements (Giudici et al. 2020). Accordingly, our study expects that the current pandemic negatively affects the risk incurred by marketplace lending platforms by creating a ‘bank-run’ type scenario, as projected in Peckham (2013). On the other hand, governments implemented several COVID-19 support programs to ease the financial hurdles of small enterprises and low-income households. These measures are intended to mitigate the economy’s downturn and safeguard against borrower delinquencies (Civelek and Xiarewana 2020). Gordon and Jones (2020) forecasted loan delinquency rates under the COVID-19 pandemic in three scenarios depending on the policy interventions. They predict an increase in the US loan delinquency rates from 2.3% in 2019 to 3.1% in 2021 under the baseline scenario (intermediate projection). Simultaneously, these increases might vary between 2.6 and 3.5%, depending on the policy intervention measures (Gordon and Jones 2020).

The early impact of the current pandemic on the marketplace lending market is not yet documented in empirical studies. Based on the arguments mentioned above, we predict that the COVID-19 pandemic has a negative impact on loan defaults in the marketplace lending market. At the same time, we expect the magnitude of the impact to be higher than the banking sector delinquencies. Moreover, we also expect that the pandemic has a varying impact within the marketplace lending market depending on loan ratings. The current study aims to shed more light on the early impact of COVID-19 risk on marketplace lending markets and broaden the understanding of the current market conditions.

Methodology and data

Regression models

We employ logit regression analysis as per Eq. (1) to measure the impact of COVID-19 pandemic risk on the likelihood of loan default risk. Equation (1) uses a binary dependent variable with a number of the country- and borrower-specific control variables. Logit regression estimates the determinants of the likelihood of loan default (θi).

θi=PrDi=1|Observedvariables=Pr(α+βPP+βEXiE+βBXiB+βLL+εi) 1

Di is a binary variable representing the loan status (DEFAULT) of loan i that takes the value of 1 if the loan is overdue, defaulted or buyback1 and 0 otherwise (current or repaid). βPP is the variable representing the COVID-19 pandemic risk. Following the early studies of the COVID-19 pandemic (Iyke 2020; Bose et al. 2021; Nigmonov and Daradkeh 2020; Okorie and Lin 2021), we use three proxies to represent the pandemic risk: (1) a dummy variable that equals 1 for the period no later than March 11, 2020, when the World Health Organization (WHO) declared COVID-19 as the pandemic and 0 otherwise; (2) the total daily number of country-level reported cases of COVID-19 per million population and (3) the total daily number of reported COVID-19 related deaths per million population at the country level. There is no evidence from existing studies regarding the direction of the expected impact of the pandemic risk on loan defaults. However, several prior studies reported higher levels of non-performing loans (NPL) and risk exposure during the previous crises faced by financial sectors worldwide (Ari et al. 2020; Avdjiev et al. 2019; Laeven and Valencia 2013). βEXiE represents the vector of economy-specific control variables.2 We support the inclusion of economy-specific variables with existing literature on both traditional financial institutions (Ali and Daly 2010; Bofondi and Ropele 2011; Greenwald and Stiglitz 1993; Kou et al. 2021; Stiglitz and Weiss 1992) and alternative financial markets (Dushnitsky et al. 2016; Mollick 2014; Ning et al. 2015; Wang et al. 2021). The existing studies on marketplace lending extensively use borrower and loan characteristics in estimating loan defaults (Cai et al. 2016; Galema 2020; Li et al. 2018; Nigmonov et al. 2021; Serrano-Cinca et al. 2015; Wei and Lin 2017). Thus, we use the vector of borrower-specific control variables denoted as βBXiB in Eq. (1). We also note that marketplace lending markets are characterized by a high interdependence between loans and issuing countries. Giudici et al. (2020) suggest using borrowing companies as a vertex of correlation network for representing this interdependence and interconnections. Therefore, we use βLL, the vector of dummy variables, for ‘loan originator’ individual effects3 that in turn represent network centrality of loans.

Data and sampling

In this study, we use the loan book database of the Mintos marketplace lending platform. The scope of this study covers the loans issued across the multiple countries of the European Union (EU). The marketplace lending market in continental Europe is experiencing high rapid growth. Countries in continental Europe have similar regulations and represent an excellent opportunity for analysing the current tendencies in marketplace lending markets.

Mintos is a marketplace for loans issued by non-banking financial institutions or the shadow banking sector. The company’s marketplace platform simultaneously lists loans from multiple lending companies, so-called ‘loan originators’. Most loans are with a buyback guarantee, a credit enhancement given by the ‘loan originator’ to the investor for a particular loan. If the loan is over 60 days late, the lending company is obligated to buy back the investment at nominal value plus accrued interest. During the market turmoil, loan originators struggle to oblige with buyback guarantees. Therefore, we classify loans that are more than 30 days late or buyback as defaults. Loan originators listed in Mintos are based in 30 countries, including 10 EU countries. Investors in the marketplace are from 66 countries, though Mintos does not disclose information about the investor categories and origination.

As the scope of our study is limited to EU countries, we restrict the database to loans issued by loan originators in EU countries. The countries included in the database are Bulgaria, Czech Republic, Denmark, Estonia, Finland, Latvia, Lithuania, Poland, Spain, Romania and the United Kingdom. These countries are similar in terms of their regulatory framework and business environment. At the same time, the inclusion of countries outside the EU would distort our analysis by complicating the comparisons and reducing the data quality. We provide the distribution of loans by loan originators in Table 12 of “Appendix 2”. During the pandemic period, Mintos discontinued some risky loans and put more stringent requirements for borrowers. This is evident from Table 12, where the number of loans and loan originators decreased during the pandemic. We address the heterogeneity of the database regarding loan originators by including the loan originator individual effects in the regression models.

Table 12.

Breakdown of loans by loan originators in pre- and post-pandemic period

Country Loan originator Pre-pandemic Post-pandemic
N % N %
Bulgaria CashCredit 7861 1.46 3290 1.19
Bulgaria Credissimo 6549 1.22 1850 0.67
Bulgaria ITF Group 317 0.06 190 0.07
Bulgaria Mogo 312 0.06 72 0.03
Bulgaria StikCredit 4598 0.85 1800 0.65
Czech Republic Creamfinance 1910 0.35 1120 0.41
Czech Republic Creditstar 2350 0.44 766 0.28
Denmark Creamfinance 2605 0.48 650 0.24
Denmark Mozipo Group 4 0.00
Denmark Simbo 30,563 5.67 8258 2.99
Estonia Capitalia 2 0.00 2 0.00
Estonia Creditstar 7247 1.35 2498 0.90
Estonia ESTO 3559 0.66 2998 1.09
Estonia Mogo 1254 0.23 218 0.08
Estonia Placet 763 0.14 588 0.21
Finland BB Finance Group 9469 1.76 1186 0.43
Finland Creditstar 1645 0.31 659 0.24
Latvia AgroCredit 31 0.01 9 0.00
Latvia Banknote 62,704 11.64 47,736 17.28
Latvia Bino 64,000 11.88 14,330 5.19
Latvia Capitalia 333 0.06 135 0.05
Latvia Creamfinance 889 0.17 896 0.32
Latvia Hipocredit 12 0.00 7 0.00
Latvia Mogo 298 0.06 84 0.03
Latvia Mogo Renti 300 0.06 268 0.10
Latvia VIZIA 1754 0.33 3428 1.24
Lithuania Capitalia 104 0.02 12 0.00
Lithuania Hipocredit 8 0.00 4 0.00
Lithuania Mogo 605 0.11 199 0.07
Lithuania Mozipo Group 2452 0.46 456 0.17
Lithuania Placet 1544 0.29 572 0.21
Poland Alfakredyt 3588 0.67 3816 1.38
Poland Capital Service 7263 1.35 345 0.12
Poland Creamfinance Poland 18,528 3.44 19,232 6.96
Poland Creditstar 27,166 5.04 13,671 4.95
Poland Dziesiatka Finanse 894 0.17 105 0.04
Poland Everest Finanse 31,382 5.83 10,317 3.73
Poland Kuki 95,755 17.78 42,463 15.37
Romania Credius 1122 0.21
Romania Mikro Kapital Romania 13 0.00 11 0.00
Romania Mogo 304 0.06 16 0.01
Romania Mozipo Group 716 0.13 252 0.09
Spain Creamfinance Spain 14,232 2.64 6806 2.46
Spain Creditstar 19,323 3.59 6915 2.50
Spain Dineo Credito 24,989 4.64 21,243 7.69
Spain ID Finance 62,523 11.61 52,924 19.16
United Kingdom Evergreen 5493 1.02 175 0.06
United Kingdom Novaloans 8897 1.65 3658 1.32
United Kingdom Peachy 426 0.08
Total 538,656 100.00 276,230 100.00

Total values are in bold

Table 1 provides the breakdown of loans by the borrower ratings, indicating a sharp decline in lower-rated loans. We observe that the share of loans classified as ‘B’ and ‘B−’ decreased from 3.25% and 38.36% in the pre-pandemic period to 1.65% and 25.45% in the post-pandemic period, respectively. We mitigate for different risk levels of borrowers by analysing the impact of COVID-19 risk in the breakdown of loan ratings.

Table 1.

Breakdown of loans by rating in pre- and post-pandemic period

Rating Pre-pandemic Rating Post-pandemic
N % N %
A 3073 0.57 A 857 0.31
A− 112,652 20.91 A− 65,114 23.57
B+ 194,856 36.17 B 134,486 48.69
B 17,508 3.25 B+ 4565 1.65
B− 206,652 38.36 B− 70,310 25.45
C+ 3489 0.65 C+ 898 0.33
D 426 0.08 D
Total 538,656 100.00 Total 276,230 100.00

Total values are in bold

The database used in this study consists of all the loans issued by Mintos loan originators based in the EU from January 2020 to June 2020. We combine each of the loans recorded in the database with the country-specific economic variables and variables representing COVID-19 risk4 as defined in Eq. (1). The updated database consists of 13 variables with 814,872 loan listing observations. Table 11 in ”Appendix 1” describes all variables used in this study.

Table 11.

Description of variables

Variable Description of variable Source
Dependent variables
DEFAULT Current status of individual loan. Dummy variable equal to 1 if the loans is overdue, defaulted or buyback and 0 otherwise (current or repaid) Mintos
Independent variables, pandemic indicator variables
PANDEM_DUM Dummy variable equal to 1 for the dates later than March 11, 2020 (The date WHO declared COVID-19 as pandemic) and 0 otherwise World Health Organization (2020)
DAILY_CASES Number of reported daily cases of COVID-19 per million population in country i at time t (daily observations, log values) World Health Organization (2020), Johns Hopkins University & Medicine (2020)
DAILY_DEATHS Number of reported daily COVID-19 related deaths per million population in country i at time t (daily observations, log values) World Health Organization (2020), Johns Hopkins University & Medicine (2020)
Independent variables, macroeconomic and country-specific variables
ESI The EU Economic sentiment indicator (composite measure, average = 100, log values) Full business and consumer survey results, European Commission https://ec.europa.eu/info/business-economy-euro/indicators-statistics/economic-databases/business-and-consumer-surveys_en
MARKET_VOL Change in daily stock market index values of country i at time t (percentage points) Yahoo.Finance, https://finance.yahoo.com/world-indices/
AAR Annualised agreed rate by credit and other institutions in country i at time t (monthly, percentage points ECB Statistical Data Warehouse http://sdw.ecb.europa.eu/
UNEMPL Unemployment rate for each country (Monthly, seasonally adjusted, percentage points) OECD (2020), Unemployment rate (indicator). https://doi.org/10.1787/b86d1fc8-en (Accessed on 14 June 2020)
Independent variables, loan-specific variables
EXT_SCHED Dummy variable representing the restructuring of a loan. Equal to 1 if the original maturity date of the loan has been increased by more than 60 days, 0 otherwise Mintos
COLLATERAL Dummy variable representing the loan type in terms of a provision of collateral. Equal to 1 if the loan is collateralised, 0 otherwise Mintos
INTEREST Maximum interest rate accepted in the loan application (%, log values) Mintos
LOAN_TERM Duration of loan (in months, log values) Mintos
AMOUNT Value of individual loan (log values) Mintos
RATING ‘Mintos Rating’ issued by the rating model ranging between A+ (1) and D (7) Mintos
LOANTYPE The loan type: 1-Business Loan, 2-Car Loan, 3-Invoice Financing, 4-Pawnbroking Loan, 5- Personal Loan, 0-Other Mintos

Panel A of Table 2 provides the breakdown of loans by loan status for the database used in the study. Loans are classified as Current, Default, Finished (as scheduled or prematurely), Grace Period, and Late loans. However, loans classified as ‘Finished’ might be the ‘buyback’ loans, which we classify as defaults5 in the regression models. We provide the complete breakdown of resolved and unresolved loans for the first six months of 2020 in Panel B of Table 2. Around 65% of our database consists of loans with clear ending resolution (resolved loans), as reported in the last rows of Table 2. The share of resolved loans shrinks from around 83% in January to 3% in June 2020. We mitigate the high representation of loans with a clear ending resolution in the robustness tests section of this paper.

Table 2.

Breakdown of loans by loan status and current resolution

Loan status N % Cumulative %
Panel A: Breakdown of loans by loan status
Current 182,732 22.43 22.43
Default 2 0.00 22.43
Finished as scheduled 72,916 8.95 31.38
Finished prematurely 453,359 55.65 87.03
Grace Period 12,766 1.57 88.60
Late 1–15 23,078 2.83 91.43
Late 16–30 22,378 2.75 94.18
Late 31–60 47,365 5.81 100.00
Late 60+ 37 0.00 100.00
Total 814,633 100.00
N %
Panel B: Breakdown of loans by current resolution
January
 Unresolved 39,056 16.63
 Resolved 195,809 83.37
 Total 234,865 100.00
February
 Unresolved 55,814 25.63
 Resolved 161,959 74.37
 Total 217,773 100.00
March
 Unresolved 68,796 40.10
 Resolved 102,764 59.90
 Total 171,560 100.00
April
 Unresolved 36,509 45.69
 Resolved 43,401 54.31
 Total 79,910 100.00
May
 Unresolved 72,661 76.90
 Resolved 21,823 23.10
 Total 94,484 100.00
June
 Unresolved 15,759 96.72
 Resolved 535 3.28
 Total 16,294 100.00
All loans
 Unresolved 288,595 35.42
 Resolved 526,291 64.58
 Total 814,886 100.00

Total values are in bold

Table provides the breakdown of loans by their respective statuses. Panel A classifies all loans by the loan status. Panel B provides the breakdown of loans to resolved and unresolved loan categories for each month of 2020 and for the whole database

We report the descriptive statistics in the breakdown of pre and post-pandemic periods in Table 3. There is a statistically significant difference in loan default probabilities between these two periods. Mintos policy during the pandemic period that discontinued loans from risky borrowers lead to massive reductions in the number of issued loans and risk level of the overall loan portfolio. Mintos also complied with government regulations providing more concessions for borrowers. It is reflected in the share of loans with extended schedule (EXT_SCHED), which significantly increased during the pandemic period. We test for the possibility of default loans being bailed out by the governments in the respective robustness tests section of this paper. Table 3 also indicates significant changes in economy specific indicators and loan characteristics for which we control in all regression models.

Table 3.

Descriptive statistics

Pre-pandemic Post-pandemic Two-sample t-test
N Mean St. dev. N Mean St. dev. Mean diff. t-stat
DEFAULT 538,656 0.110 0.312 276,230 0.074 0.262 0.036*** (51.33)
PANDEM_DUM 538,656 0.000 0.000 276,230 1.000 0.000 N/A N/A
DAILY_CASES 226,980 0.598 2.121 276,187 24.348 40.597 − 23.750*** (− 278.40)
DAILY_DEATHS 226,980 0.005 0.044 276,187 2.053 6.059 − 2.049*** (− 161.09)
MARKET_VOL 538,656 − 0.003 0.631 276,230 0.003 1.293 − 0.005** (− 2.59)
ESI 538,656 99.854 2.800 276,230 75.675 17.997 24.180*** (963.56)
AAR 538,656 13.066 3.284 276,230 13.289 1.960 − 0.223*** (− 32.84)
UNEMPL 538,656 6.772 4.128 276,230 8.426 4.987 − 1.653*** (− 159.19)
EXT_SCHED 538,656 0.613 0.487 276,230 0.760 0.427 − 0.146*** (− 133.74)
INTEREST 538,656 11.607 2.853 276,230 13.931 3.301 − 2.324*** (− 329.71)
LOAN_TERM 538,656 6.774 15.553 276,230 5.086 12.864 1.688*** (49.09)
AMOUNT 538,656 632.093 1134.417 276,230 546.145 968.904 85.950*** (33.97)
COLLATERAL 538,656 1.092 0.289 276,230 1.111 0.314 − 0.019*** (− 27.43)

T-statistics in parentheses. ***, **, and * represent statistical significance at the 1%, 5% and 10% levels, respectively. Variable definitions are provided in “Appendix 1

We report a correlation matrix in Table 4 for the variables employed in the empirical analysis. The majority of the variables have a low level of statistically significant correlation with one another, as reflected in small correlation coefficients. We observe the high correlation coefficients between variables that are not used in the same model. For example, the correlation coefficient between DAILY_CASES and DAILY_DEATHS is 0.7354, indicating a strong positive correlation. We use these two variables as the different proxies of the same indicator.

Table 4.

Correlation matrix

DEFAULT PANDEM_DUM DAILY_CASES DAILY_DEATHS MARKET_VOL ESI AAR
DEFAULT 1.0000
PANDEM_DUM − 0.0568*** 1.0000
DAILY_CASES 0.0778*** 0.3653*** 1.0000
DAILY_DEATHS 0.0316*** 0.2215*** 0.7354*** 1.0000
MARKET_VOL 0.0004 0.0029** 0.0020 0.0001 1.0000
ESI 0.1338*** − 0.7298*** − 0.0904*** − 0.0840*** − 0.0023* 1.0000
AAR − 0.1629*** 0.0364*** − 0.0790*** − 0.0119*** 0.0010 − 0.1446*** 1.0000
UNEMPL 0.0693*** 0.1737*** 0.3331*** 0.2464*** 0.0001 0.0558*** − 0.6595***
EXT_SCHED 0.0785*** 0.1466*** 0.0780*** 0.0441*** 0.0000 − 0.0789*** 0.0402***
INTEREST − 0.0847*** 0.3431*** 0.0114*** − 0.0212*** 0.0018 − 0.3521*** 0.2854***
LOANTERM − 0.0389*** − 0.0543*** − 0.0976*** − 0.0664*** − 0.0007 0.0666*** 0.1725***
AMOUNT 0.0413*** − 0.0376*** − 0.0651*** − 0.0459*** − 0.0007 − 0.0228*** 0.1177***
RATING − 0.0782*** − 0.1221*** − 0.0799*** − 0.0582*** 0.0017 − 0.0301*** 0.2552***
LOANTYPE 0.0378*** − 0.0116*** 0.1075*** 0.0722*** − 0.0000 − 0.0827*** − 0.1373***
UNEMPL EXT_SCHED INTEREST TERM AMOUNT RATING LOANTYPE
UNEMPL 1.0000
EXT_SCHED 0.0910*** 1.0000
INTEREST − 0.2974*** 0.4133*** 1.0000
LOANTERM − 0.2311*** − 0.3037*** − 0.0342*** 1.0000
AMOUNT − 0.1922*** − 0.0624*** − 0.0032** 0.0754*** 1.0000
RATING − 0.3178*** 0.3536*** 0.5418*** − 0.2778*** 0.0592*** 1.0000
LOANTYPE 0.0561*** 0.1656*** 0.3395*** − 0.2680*** 0.0093*** 0.5444*** 1.0000

Table reports Pearson correlations. High correlations are in boldface. ***, **, and * represent statistical significance at the 1%, 5% and 10% levels, respectively (for two-tailed p values)

Empirical analysis

Baseline regression

Table 5 provides the results of the regression models with the status of loans as the dependent variable. The results show a significant impact of COVID-19 pandemic-related risk on the likelihood of loan defaults. All three proxies of the pandemic risk (PANDEMIC_DUMMY, DAILY_CASES and DAILY_DEATHS) generate significant and positive coefficients which are consistent across Models (1), (2) and (3). Specifically, the increase in COVID-19 related deaths tends to increase the likelihood of default significantly (β = 0.037). On the other hand, the number of daily reported COVID-19 cases tend to have a smaller impact on the likelihood of default with a relatively lower magnitude of a coefficient (β = 0.004). To quantify the effect of COVID-19 risk on loan status, we estimate pre- and post-pandemic default probabilities while holding all other variables constant in their mean values.6 Based on the baseline regression model results, the probability of default increased from 0.056 (pre-pandemic) to 0.079 (post-pandemic).

Table 5.

COVID-19 risk and the likelihood of loan default

Variables DV = DEFAULT DV = DEFAULT DV = DEFAULT
(1) (2) (3)
PANDEMIC_DUMMY

0.533***

(0.006)

DAILY_CASES

0.004***

(0.000)

DAILY_DEATHS

0.037***

(0.001)

MARKET_VOL

0.002

(0.002)

0.001

(0.003)

0.002

(0.003)

ESI

0.031***

(0.000)

0.029***

(0.000)

0.030***

(0.000)

AAR

− 0.088***

(0.001)

− 0.086***

(0.001)

− 0.094***

(0.001)

UNEMPL

− 0.046***

(0.001)

− 0.026***

(0.001)

− 0.027***

(0.001)

COLLATERAL

− 1.342***

(0.359)

− 1.132***

(0.439)

− 1.125**

(0.439)

EXT_SCHED

0.636***

(0.006)

0.726***

(0.008)

0.729***

(0.008)

INTEREST

− 0.897***

(0.012)

0.264***

(0.015)

0.352***

(0.015)

LOANTERM

− 0.093***

(0.003)

− 0.087***

(0.004)

− 0.083***

(0.004)

AMOUNT

0.192***

(0.002)

0.225***

(0.003)

0.226***

(0.003)

LOAN TYPE
Business loan

0.670**

(0.277)

1.342***

(0.373)

1.345***

(0.374)

Car loan

1.399***

(0.369)

1.547***

(0.470)

1.540***

(0.471)

Pawnbroking loan

1.694***

(0.367)

2.256***

(0.469)

2.267***

(0.470)

Personal loan

1.239***

(0.111)

1.551***

(0.175)

1.537***

(0.176)

Short-term loan

0.953***

(0.110)

1.102***

(0.175)

1.093***

(0.176)

Intercept

− 2.468***

(0.386)

− 5.883***

(0.479)

− 6.070***

(0.480)

Loan originator individual effects Yes Yes Yes
LR chi2 68,062.632 59,563.239 58,885.153
Prob > chi2 0.000 0.000 0.000
Pseudo-R-squared 0.131 0.175 0.173
N 814,872 503,167 503,167

Table presents the results of logit regression analysis for the likelihood of loan default (DEFAULT). Number of loans analysed: 814,872. Current or repaid: 735,387 (90.25%). Default, late or buyback: 79,485 (9.75%). Refer to Table 11 in “Appendix 1” for the description of variables. All model specifications employ robust standard errors in parentheses (*p < 0.10, **p < 0.05, ***p < 0.01)

Additional analyses

Another specific aspect of our sample is that it incorporates diverse countries regarding their efficiency of the credit market and FinTech development. On the other hand, these countries are similar in terms of their geographical location and operate under the EU jurisdiction. This unique aspect of our database creates an opportunity to explore the impact of the COVID-19 pandemic on defaults in the breakdown of countries’ FinTech development. Specifically, we can examine whether FinTech has suppressed the effect of the COVID-19 pandemic on borrower creditworthiness.

Table 6 provides the breakdown of our baseline model in panels based on the level of FinTech adoption in individual countries. We divide our database based on the Global Fintech Index reported by Findexable (2019), which provides a snapshot of local business infrastructure and FinTech ecosystem quality. Panels reported in Table 6 are based on subsamples of countries that are reported to have higher/lower than the median Global FinTech Index. We run the same baseline logit regression model on these two subsamples. We observe that the impact of the COVID-19 pandemic on loan defaults has been more severe in Panel B of Table 6 (lower than median Global FinTech Index). This finding is reflected in the coefficients of COVID-19 proxies that are higher for Panel B of Table 6.

Table 6.

COVID-19 risk and the likelihood of loan default: the role of FinTech adoption

Variables DV = DEFAULT
(1) (2) (3)
Panel A: high FinTech adoption
PANDEMIC_DUMMY

0.267***

(0.007)

DAILY_CASES

0.003***

(0.000)

DAILY_DEATHS

0.025***

(0.001)

Loan originator individual effects Yes Yes Yes
Controls Yes Yes Yes
LR chi2 75,221.734 58,608.936 58,155.240
Prob > chi2 0.000 0.000 0.000
Pseudo-R-squared 0.171 0.191 0.189
N 588,385 415,370 415,370
Panel B: low FinTech adoption
PANDEMIC_DUMMY

0.392***

(0.023)

DAILY_CASES

0.009***

(0.001)

DAILY_DEATHS

0.216***

(0.057)

Loan originator individual effects Yes Yes Yes
Controls Yes Yes Yes
LR chi2 10,252.819 5555.505 5532.129
Prob > chi2 0.000 0.000 0.000
Pseudo-R-squared 0.164 0.219 0.218
N 226,487 87,783 87,783

Table reports the results for two panels. Panel A reports the findings of logit regression analysis for countries with high levels of FinTech adoption. Panel B reports the same findings for countries with low levels of FinTech adoption. The panels are based on countries’ FinTech Development Index (Findexable 2019) being higher/lower than the global median. All model specifications employ robust standard errors in parentheses (*p < 0.10, **p < 0.05, ***p < 0.01)

However, regression models with binary responses are not directly comparable (Kuha and Mills 2020). Therefore, we calculate the change in probability of default for incremental changes in COVID-19 cases. We predict the model using the logit function with estimated coefficients and hold all variables in their mean values (other than reported COVID-19 cases per million population). We report the respective marginal changes in Fig. 1 for ‘Low/High FinTech Adoption’ subsamples. Figure 1 indicates that the marginal changes in the probability of default were higher in countries with low levels of FinTech adoption. The absolute difference between the two subsamples ranges between 0.39 and 0.63% for each additional ten daily reported cases of COVID-19 per pillion population (reported as a bar plot in Fig. 1).

Fig. 1.

Fig. 1

Change in the probability of default for incremental change in COVID-19 cases (by countries with high and low FinTech adoption). Note: Figure presents marginal changes in the probability of default for countries with high and low FinTech adoption (line plot, left axis). Calculations of marginal changes are based on the coefficients of logit regression reported in Table 6. The yellow bar plot presents the absolute differences in marginal changes between the two groups (right axis)

Prior studies indicate that FinTech might benefit small businesses and low-income households through better access to finances (Ozili 2018; Demirguc-Kunt et al. 2018). In addition, early studies of the COVID-19 pandemic also highlight the acceleration in financial technologies that can be further leveraged to overcome economic fallout from the pandemic (Arner et al. 2020; Civelek and Xiarewana 2020). In support of these early speculations, our study is the first to empirically indicate that FinTech helps curb the impact of the COVID-19 pandemic on borrower defaults.

We also analyse the monthly impact of COVID-19 risk on loan default risk using the subsamples for each month of 2020 (February to June). Our database is sorted by the last payment date of the loan and reflects borrowers’ instant exposure to pandemic risk. We report this additional analysis based on subsamples of the database in Table 7. Loan defaults did not solidly reflect the impact of COVID-19 risk until April 2020. Pandemic induced loan default risk is higher in May to June of 2020 as the coefficients for COVID-19 pandemic risk are consistently significant and positive. The early studies show that the COVID-19 pandemic risk creates substantial stress in financial markets despite some improvements in liquidity conditions (Agosto and Giudici 2020; Demirguc-Kunt et al. 2020a; Kargar et al. 2020). Using monthly analysis, we indicate that those conditions further deteriorated and significantly affected the default risk during May and June 2020.

Table 7.

COVID-19 risk and the likelihood of loan default: monthly subsamples

Variables DV = DEFAULT
(1) (2)
Panel A: February listings
DAILY_CASES

− 0.024***

(0.004)

DAILY_DEATHS

− 0.901***

(0.137)

Controls Yes Yes
LR chi2 22,516.483 22,544.843
Prob > chi2 0.000 0.000
Pseudo-R-squared 0.250 0.250
N 125,546 125,546
Panel B: March listings
DAILY_CASES

0.001***

(0.000)

DAILY_DEATHS

0.007***

(0.001)

Controls Yes Yes
LR chi2 17,501.061 17,280.770
Prob > chi2 0.000 0.000
Pseudo-R-squared 0.101 0.100
N 200,508 200,508
Panel C: April listings
DAILY_CASES

0.000**

(0.000)

DAILY_DEATHS

− 0.000

(0.001)

Controls Yes Yes
LR chi2 29,894.550 29,888.341
Prob > chi2 0.000 0.000
Pseudo-R-squared 0.208 0.208
N 162,099 162,099
Panel D: May listings
DAILY_CASES

0.006***

(0.000)

DAILY_DEATHS

0.061***

(0.001)

Controls Yes Yes
LR chi2 26,130.763 26,350.926
Prob > chi2 0.000 0.000
Pseudo-R-squared 0.348 0.351
N 176,047 176,047
Panel E: June listings
DAILY_CASES

0.008***

(0.000)

DAILY_DEATHS

0.087***

(0.002)

Controls Yes Yes
LR chi2 12,940.095 13,211.923
Prob > chi2 0.000 0.000
Pseudo-R-squared 0.428 0.437
N 123,614 123,614

Table presents the results of regression analyses based on five panels (for each month from February to June 2020). Results are for logit regression analysis for the likelihood of loan default (DEFAULT). All model specifications employ robust standard errors in parentheses (*p < 0.10, **p < 0.05, ***p < 0.01)

We highlight that the loan quality significantly increased during the pandemic because of the platform’s active role in managing the loans. One can argue that increased loan ratings mechanically cause changes in default or overdue loans. Accordingly, Table 8 provides the results of the analysis using the subsamples based on loan ratings. We divide the database into three groups: Panel A ('A' & 'A−' rated loans), Panel B ('B+' & 'B' rated loans) and Panel C ('B−', 'C+' & 'D’ rated loans). All but one regression model reported in Table 8 generate significant positive coefficients for the proxies of COVID-19 risk. The analysis shows that the COVID-19 pandemic risk increases the probability of loan default irrespective of the loan ratings. Thus, regardless of the loan ratings, the likelihood of default risk increases for the whole loan portfolio of the Mintos marketplace during the pandemic.

Table 8.

COVID-19 risk and the likelihood of loan default: rating subsamples

Variables DV = DEFAULT
(1) (2) (3)
Panel A: 'A' & 'A' rated loans
PANDEMIC_ DUMMY

0.491***

(0.024)

DAILY_CASES

0.013***

(0.001)

DAILY_DEATHS

− 0.170***

(0.061)

Loan originator individual effects Yes Yes Yes
Controls Yes Yes Yes
LR chi2 6449.866 3820.249 3750.524
Prob > chi2 0.000 0.000 0.000
Pseudo-R-squared 0.158 0.194 0.190
N 181,696 86,761 86,761
Panel B: 'B+' & 'B' rated loans
PANDEMIC_DUMMY

0.078***

(0.009)

DAILY_CASES

0.003***

(0.000)

DAILY_DEATHS

0.029***

(0.001)

Loan originator individual effects Yes Yes Yes
Controls Yes Yes Yes
LR chi2 60,876.506 49,092.062 49,065.819
Prob > chi2 0.000 0.000 0.000
Pseudo-R-squared 0.178 0.187 0.187
N 351,415 297,125 297,125
Panel C: ‘B’, ‘C+’ and ‘D’ rated loans
PANDEMIC_DUMMY

0.489***

(0.020)

DAILY_CASES

0.014***

(0.001)

DAILY_DEATHS

0.176***

(0.026)

Loan originator individual effects Yes Yes Yes
Controls Yes Yes Yes
LR chi2 15,205.346 6110.321 6001.120
Prob > chi2 0.000 0.000 0.000
Pseudo-R-squared 0.206 0.197 0.193
N 281,744 119,262 119,262

Table presents the results of regression analyses based on three panels (by loan ratings). Results are for logit regression analysis for the likelihood of loan default (DEFAULT). All model specifications employ robust standard errors in parentheses (*p < 0.10, **p < 0.05, ***p < 0.01)

To assess the change in default risk based on loan ratings, we estimate the marginal magnitude of COVID-19 risk for three rating subgroups. We hold all the control variables at their mean values and estimate the change in the likelihood of default in the post-pandemic period compared with the pre-pandemic period. We base our parameters on the findings reported in Table 8. By estimating the change in the likelihood of default for three rating subgroups, we find that the likelihood of default increase by 1.82% and 1.73% for ‘A & A−’ and ‘B+ & B’ rating subgroups, respectively (Fig. 2). The change in the likelihood of default is greater for the ‘B−, C & D’ rating subgroup. On average, loans in this category are 2.30% more likely to default in the post-pandemic period than the pre-pandemic period.

Fig. 2.

Fig. 2

Marginal change in the probability of default during the pandemic period (by loan ratings). Note: Figure presents marginal increases in the probability of default during the pandemic period based on loan ratings. Calculations of marginal changes are based on the coefficients of logit regression as reported in Table 8

We also estimate the change in the likelihood of default for each incremental increase in COVID-19 related cases and deaths. Figure 3 reports these changes in the breakdown of borrower rating groups. We observe that B+ and B rated loans are less affected by the changes in COVID-19 related cases and deaths. On the other hand, lower-rated loans (‘B−, C & D’ category) are affected by a greater magnitude under each incremental change in COVID-19 cases and deaths. The change in the likelihood of default also decreases after achieving a certain level of peak cases and deaths. Loans with high ratings behave differently when analysed under the incremental changes in COVID-19 cases compared with COVID-19 deaths. The likelihood of default considerably increases for ‘A & A−’ rated loans under each incremental change in COVID-19 cases. On the contrary, the loans under this classification remain relatively stable in the case of COVID-19 related deaths.

Fig. 3.

Fig. 3

Change in the probability of default for incremental change in COVID-19 cases and deaths (by loan ratings). Note: Figure presents marginal changes in the probability of default based on loan ratings. Calculations of marginal changes are based on the coefficients of logit regression as reported in Table 8. Marginal changes are for each incremental change in COVID-19 cases and deaths per million population in each country

Early studies of Najaf et al. (2021) indicate that risk profiles of borrowers in the US marketplace lending market significantly deteriorated during the COVID-19 pandemic. Our study highlights the same tendency for the European marketplace lending market. Further, the findings of our study indicate that the lower risk profiles transferred into higher defaults with the severity of the spread of the COVID-19 pandemic. Therefore, our results related to loan ratings might have important implications and open room for further research, which we discuss in the last section of this paper.

Robustness tests

Our sample for the analysis comprises of heterogeneously distributed observations across loan originators. For instance, listings are overrepresented by loan originators based in Latvia, Poland and Spain.7 The database also contains disproportionately large amounts of observations for the pre-pandemic period. These features of the database potentially create complications related to sample selection bias. Another potential problem with our sample database is the heterogeneous distribution of loans with a clear ending resolution. This potentially creates a misrepresentation of the sample selection as the loans included in the earlier periods may be defaulted or buyback loans. These loans might be affected by a favourable environment before the pandemic induced turmoil and impede the assessment of COVID-19 risk.

To address these issues, we employ four different procedures. Firstly, we create the subsample consisting of only three countries with the highest number of observations. Secondly, we use a random bootstrap sampling8 technique to obtain robust estimates of the relevant coefficients. This method reduces the sampling bias and warrants that our estimates are not affected by the under-weighting or over-weighting of a certain group of observations (Chernick and LaBudde 2014; Tibshirani and Efron 1993). Thirdly, we create a subsample, including only unresolved loans that contain 288,595 loans. Fourthly, we apply the Heckman selection model for sample selection to the binary regression model. We use a binary dependent variable equal to 1 if the loan is ‘resolved’ having a clear outcome and 0 otherwise. The selection equation is estimated from a much larger sample, including the loans issued before 2020 (N = 28,054,125). We instrumentalise the selection in the sample with loan-specific variables, including the loan rating.

Table 9 reports the results of logistic regression after controlling for the above selection bias techniques. We observe that the results are identical to the findings of baseline regressions reported in Table 5 in terms of the coefficient signs and significance. The results are generally robust to all four specifications and similar to the ones reported in baseline regression. We conclude that the detected impact of COVID-19 risk is almost not affected by the selecting mechanisms to construct our sample.

Table 9.

COVID-19 risk and the likelihood of loan default: testing for sampling bias

Variables DV = DEFAULT
(1) (2) (3)
Panel A: Three big countries by the number of observations
PANDEMIC_ DUMMY

0.405***

(0.008)

DAILY_CASES

0.004***

(0.000)

DAILY_DEATHS

0.045***

(0.001)

Loan originator individual effects Yes Yes Yes
Controls Yes Yes Yes
Pseudo-R-squared 0.210 0.235 0.237
N 680,694 390,133 390,133
Panel B: Bootstrap sampling
PANDEMIC_ DUMMY

0.555***

(0.007)

DAILY_CASES

0.004***

(0.000)

DAILY_DEATHS

0.036***

(0.001)

Loan originator individual effects Yes Yes Yes
Controls Yes Yes Yes
Pseudo-R-squared 0.129 0.173 0.170
N 814,872 503,167 503,167
Panel C: Only unresolved loans
PANDEMIC_DUMMY

0.387***

(0.010)

DAILY_CASES

0.007***

(0.000)

DAILY_DEATHS

0.067***

(0.001)

Loan originator individual effects Yes Yes Yes
Controls Yes Yes Yes
Pseudo-R-squared 0.274 0.345 0.347
N 288,595 213,036 213,036
Panel D: Heckman correction
PANDEMIC_DUMMY

0.088***

(0.001)

DAILY_CASES

0.001***

(0.000)

DAILY_DEATHS

0.003***

(0.000)

Loan originator individual effects Yes Yes Yes
Controls Yes Yes Yes
N 814,886 503,167 503,167

Table presents the results of regression analyses based on four panels. Panel A results are for logit regression analysis for the likelihood of loan default (DEFAULT) with the sample consisting of only three countries with the highest number of observations. Panel B reports the results after the application of bootstrap sampling with stratified sampling based on loan originators and each month of 2020. Panel C results are for logit regression analysis with the sample consisting of only unresolved loans. Panel D reports the results after the application of the Heckman selection model, where the selection in the sample is instrumentalised with loan amount and rating. All model specifications employ robust standard errors in parentheses (*p < 0.10, **p < 0.05, ***p < 0.01)

We also indicate the impact of several government interventions in the form of COVID-19 moratoria and public guarantees during the period under consideration [European Banking Authority (EBA) 2020]. Due to the considerable financial support from various governments during the pandemic period, there is a possibility of default loans being effectively bailed out by the governments. In fact, Mintos continued serving late loans but fell under the government moratoria and public guarantee. However, the platform classifies these loans as overdue loans instead of writing them off (as default or buyback) from the books (Mintos 2020).

To mitigate the impact of government interventions, we estimate two separate regression models with different dependent variables than the baseline regression. First, we run an ordered logit model in which the dependent variable is the status of the unresolved loan (‘current’, ‘in grace period’ or late loans9). Accordingly, the dependent variable (LOANSTATUS) takes one of the six values, and the regression sample consists of only unresolved loans. Second, we run the logit regression with the dependent variable, which takes the value of 1 if the loan is classified as default or buyback and 0 otherwise.

The results are generally robust to this change in the regression method with the estimation results from Model (2) and (3) of Table 10 Panel A, similar to those reported in baseline regression. The log-likelihood of loan status transferring from lower group to one level higher group (e.g. from ‘current’ status to ‘in grace period’ status) increases with an increase in COVID-19 related daily cases and deaths. In Model (1) of Table 10 Panel A, the dummy variable representing the impact of the COVID-19 pandemic is negative on loan status. A possible explanation could be that most loans from the early months of 2020 are already resolved, coinciding with the pre-pandemic period. This result might also indicate some impact of government interventions as more borrowers apply for extensions. Nevertheless, we observe from Panel B of Table 10 that the coefficients for the variables representing COVID-19 risk remain to be significantly positive. Thus, there is some indication that government interventions only delayed the occurrence of defaults in the marketplace lending market. Our additional analyses mostly validate the baseline regression model results and provide some further insights into the impact of COVID-19 risk on loan defaults. However, the findings related to the impact of government interventions require further analyses that are duly mentioned in the last section of this paper.

Table 10.

COVID-19 risk and the likelihood of loan default: Robustness tests for government intervention

Variables DV = LOANSTATUS
(1) (2) (3)
Panel A: Ordered logit model
PANDEMIC_DUMMY

− 0.165***

(0.010)

DAILY_CASES

0.007***

(0.000)

DAILY_DEATHS

0.074***

(0.001)

Loan originator individual effects Yes Yes Yes
Controls Yes Yes Yes
LR chi2 90,191.487 60,621.580 59,476.467
Prob > chi2 0.000 0.000 0.000
Pseudo-R-squared 0.189 0.213 0.221
N 288,356 212,917 212,917
Variables DV = ONLYDEFAULTS
(1) (2) (3)
Panel B: Only default loans as dependent variable
PANDEMIC_DUMMY

0.687***

(0.007)

DAILY_CASES

0.007***

(0.000)

DAILY_DEATHS

0.061***

(0.001)

Loan originator individual effects Yes Yes Yes
Controls Yes Yes Yes
LR chi2 54,149.904 39,331.896 37,516.142
Prob > chi2 0.000 0.000 0.000
Pseudo-R-squared 0.150 0.160 0.153
N 814,872 503,153 503,153

Table reports the results for two panels. Panel A reports the findings of ordered logit regression analysis for the loan status (LOANSTATUS) with the sample consisting of only unresolved loans. The dependent variable is an ordered dependent variable that takes one of the six values (current, in grace period, 1–15 days late, 16–30 days late, 31–60 days late and 60+ days late). Panel B reports the logit regression findings with only the default loans (ONLYDEFAULTS) as the dependent variable. The dependent variable takes the value of 1 if the loan is classified as default or buyback and 0 otherwise. All model specifications employ robust standard errors in parentheses (*p < 0.10, **p < 0.05, ***p < 0.01)

Discussion and conclusion

Contributions

The rapidly growing FinTech industry first-time witnesses global pandemic since their revolution of platform-based financing. As the current COVD-19 pandemic related crisis progresses into the later stage, financial hardship experienced by households, businesses, and public sector organisations might also transfer into a more severe stage. As one of the risky financing sectors, marketplace lending might experience a wave of defaults during 2021. This stream of defaults tends to impact the resilience of the industry and force platforms to reconsider their risk management models. On the other hand, the pandemic can help transform ‘shadow banking’ with an extensive emphasis on alternative lending practices (Sindreu 2020). As one of the prominent facets of alternative lending, the marketplace lending market may become mainstream from its current niche position.

Our study explores the implication of COVID-19 pandemic risk on the likelihood of marketplace loan defaults using the loan book database of Mintos. Prior studies have not yet assessed the default risk within the context of the COVID-19 pandemic. Due to the pandemic’s ongoing and rapidly evolving nature, the implication of COVID-19 pandemic-related risk and its related financial consequences are little understood.

This study documents evidence of the early detrimental impact of the pandemic induced economic turmoil on the marketplace lending market. We provide the first evidence that COVID-19 pandemic risk considerably increases the likelihood of loan defaults in the Mintos marketplace lending platform. By employing the logit regression model, we estimate that the likelihood of default, on average, increases from 0.056 in the pre-pandemic period to 0.079 in the post-pandemic period. Pandemic induced loan default risk reached its highest magnitude during May and June of 2020. We empirically document higher levels of FinTech adoption reduces adverse effects of COVID-19 on the probability of default. We also highlight a significant difference in the marginal impact of COVID-19 risk among the loan rating subgroups. Borrowers with lower credit ratings are most affected during the pandemic period.

During the pandemic induced turmoil, the findings related to COVID-19 risk have important implications. Early studies indicate that the COVID-19 pandemic has a detrimental impact on the financial sector performance, liquidity and risk profile (Baig et al. 2020; Demirguc-Kunt et al. 2020b; Najaf et al. 2021). A recent study by Ari et al. (2020) indicates that banking sector NPLs peaked at about 20% of total loans on average during the past crises since 1900. We suggest that current pandemic-related risk creates not only a liquidity crisis but also an underperformance for non-bank financial institutions. In fact, households and businesses experience financial distress, which increases default risk in one of the risky sectors of financing.

Our study is the first one that reveals how borrowers’ creditworthiness behaved during the pandemic’s early period. We also provide evidence that FinTech has suppressed the impact of the COVID-19 pandemic on borrower distress. Thus, this study allows for a better understanding and quantifying risks related to FinTech loans during the pandemic and periods of overall economic distress. It fills the gap in the existing literature by developing a cross country model that is tested via econometric analysis. Our insights into marketplace lending contribute to the literature by providing a deeper understanding of borrower behaviour under financial distress. This study’s findings in terms of COVID-19 risk can guide platform management in overcoming or controlling various risk factors. At the same time, the findings related to FinTech adoption might be used by governing bodies for further adoption and regulation of the FinTech sector. The model used in our study by including both loan and economy specific variables might serve as a framework of risk management in marketplace lending platforms.

Considering beyond borrower-specific factors, these models allow for comprehensive estimation of credits risk, borrower ratings, informing investors about potential risk levels and setting up the ‘provision fund’. Based on the same evidence, forecasting mechanisms may be put in place for mitigating risk factors in a way that were not possible before. For instance, the sensitivity of credit risk to external factors is reflected in variable coefficients in regression analyses. These coefficients highlight the sensitivity of default risk to the changes in a pandemic or its severity (reflected in the number of reported cases and deaths). These coefficients may be used for stress testing of marketplace lending portfolios under certain conditions, such as decreased consumer confidence.

Limitations and future research avenues

As one of the early studies on the COVID-19 pandemic, our study has some limitations, which may provide important avenues for future research. First, we find some discrepancies in the analysis of COVID-19 risk in the breakdown of loan ratings. Higher rated loans (‘A&A−’) are affected by COVID-19 risk by a higher magnitude when measured by the case numbers than death numbers (Fig. 2). A possible explanation for this can be that deaths are the lagging indicator. Cases usually indicate early changes in the pandemic turmoil where both investors and borrowers are keen to cash in, while the true impact of the pandemic related disruptions did not hit the economy (Langreth et al. 2020). The number of COVID-19 related deaths, lagging a couple of weeks behind, might represent the later period of the pandemic related insolvency of borrowers. Further ascertaining this hypothesis is out of this study’s scope and requires further disclosure from the marketplace lending platforms. Future research might examine this specific aspect of loan lending if more borrower information becomes available.

Second, we focus on one specific marketplace lending platform (Mintos). Although our study includes the loans issued by various loan originators located in multiple countries of Continental Europe, the generalisation of our findings might be problematic. For example, other platforms might practice different selection mechanisms or loan risk assessment methods. Therefore, future research could test whether our findings are generalisable to marketplace lending markets in other geographical areas or other non-bank lending markets. For instance, future studies can analyse marketplace lending markets in America and Asia with regards of their exposure to COVID-19 pandemic risk.

Third, marketplace lending markets are characterized by a high interdependence between various players of the market like borrowers, platforms and issuing countries. Therefore, it is important to include financial contagion risk in the measurement of default risk probability. Future studies can analyse the default risk from the perspective of contagion risk. In this regard, theoretical considerations of the full network contagion model (Avdjiev et al. 2019) or the network-based credit risk models (Giudici et al. 2020) can be used for further extension of the modelling of this study. Nevertheless, given that Mintos is one of the most diverse and long-serving marketplace lenders in Continental Europe, it is unlikely that other platforms can match the same market coverage. Still, it would be useful to examine how country-level characteristics or interplatform competition could influence the credit risk incurred by investors.

Fourth, we consider the FinTech adoption as a cushion for curbing the negative impact of COVID-19 risk on marketplace lending market defaults. We divide our database into two separate groups based on FinTech Development Index (Findexable 2019) and calculate marginal changes in default probabilities in these two groups. However, we believe that this issue can be further extended in future studies. For instance, further analysis might estimate the indirect impact of the COVID-19 pandemic via FinTech adoption. In doing so, future studies can use mediation analysis and use alternative proxies for FinTech adoption. Future studies can also consider the role of digital finance, credit market efficiency and financial inclusion in mediating the impact of COVID-19 on defaults.

Finally, we have to note the limited scope of this study regarding the long-term impact of COVID-19 risk on the marketplace lending market. This study analysed the impact of the pandemic based on the database with a limited time span, essentially during the first wave of the pandemic. However, extending our study to the impact of subsequent second and third waves of the pandemic requires different set of conceptual framework and modelling. Particularly, after the introduction of vaccines the emphasis is shifted from case and death numbers to vaccination and hospitalization rates. We also believe that the full impact of the pandemic to credit risk can be observed by the end of 2021. By this time, it is expected that various government-imposed restrictions are lifted, and short-term liquidity problems of businesses and households are transferred into insolvency. Therefore, future studies can repeat this exercise in future when the longer timespan data become available.

Acknowledgements

Not applicable.

Abbreviations

OECD

Organisation for Economic Co-operation and Development

SMEs

Small- and medium-sized enterprises

SSE

Shanghai Stock Exchange

WHO

World Health Organization

NPL

Non-performing loans

EU

European Union

EBA

European Banking Authority

Appendix 1

See Table 11.

Appendix 2

See Table 12.

Authors' contributions

AN: Conceptualisation, methodology, software, data curation, writing-original draft preparation, visualisation, formal analysis, software. SS: Supervision, validation, writing- reviewing and editing. All authors read and approved the final manuscript.

Funding

No funding was received.

Availability of data and materials

Data is available on request.

Declaration

Ethical approval

No research was conducted in this study on humans or animals.

Competing interests

No competing interests to report.

Footnotes

1

Refer to Table 2 for the description and breakdown of loans.

2

“Appendix 1” describes all the variables used in the study.

3

Please refer to “Appendix 2” for the breakdown of loans by loan originators.

4

We match these variables based on closing date or last payment date of each loan.

5

We classify loans that are more than 30 days late as ‘default’ loans.

6

We perform respective transformations of the marginal impact of coefficients based on logistic function.

7

Please, refer to “Appendix 2” for the distribution of the database by county and loan originators.

8

Stratified bootstrap samples based on loan originators and each month of 2020. Bootstrap sampling replications are conducted 1000 times for each regression estimations.

9

Late loans are further classified as: ‘1–15 days late’, ‘16–30 days late’, ‘31–60 days late’ and ‘60+ days late’.

Publisher's Note

Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.

References

  1. Agosto A, Giudici P. COVID-19 contagion and digital finance. Digit Finance Short Commun. 2020;2:159–167. doi: 10.1007/s42521-020-00021-3. [DOI] [PMC free article] [PubMed] [Google Scholar]
  2. Ali A, Daly K. Macroeconomic determinants of credit risk: recent evidence from a cross country study. Int Rev Financ Anal. 2010;19(3):165–171. doi: 10.1016/j.irfa.2010.03.001. [DOI] [Google Scholar]
  3. Ali M, Alam N, Rizvi SAR. Coronavirus (COVID-19)—an epidemic or pandemic for financial markets. J Behav Exp Finance. 2020;27:100341. doi: 10.1016/j.jbef.2020.100341. [DOI] [PMC free article] [PubMed] [Google Scholar]
  4. Ari A, Chen S, Ratnovski L (2020) The dynamics of non-performing loans during banking crises: a new database. ECB Working Paper Series, No 2395/April 2020
  5. Arner DW, Barberis JN, Walker J, Buckley RP, Dahdal AM, Zetzsche DA (2020) Digital finance and the COVID-19 crisis. University of Hong Kong Faculty of Law Research Paper No. 2020/017. Accessed from https://ssrn.com/abstract=3558889
  6. Auer R, Cornelli G, Frost J (2020) Covid-19, cash, and the future of payments. BIS Bulletin No. 3. Bank for International Settlements, April 3 2020. Accessed from https://www.bis.org/publ/bisbull03.pdf
  7. Aveni T, Qu C, Hsu K, Zhang A, Lei X, Hemrika L. New Insights Into An Evolving P2P Lending Industry: how shifts in roles and risk are shaping the industry. 2015; Retrieved from: https://www.findevgateway.org/sites/default/files/publications/files/new_insights_into_an_evolving_p2p_lending_industry_positiveplanet2015.pdf
  8. Avdjiev S, Giudici P, Spelta A. Measuring contagion risk in international banking. J Financ Stab. 2019;42:36–51. doi: 10.1016/j.jfs.2019.05.014. [DOI] [Google Scholar]
  9. Baig A, Butt HA, Haroon O, Rizvi SAR (2020) Deaths, panic, lockdowns and US equity markets: the case of COVID-19 pandemic. Available at SSRN 3584947. Accessed from https://ssrn.com/abstract=3584947 [DOI] [PMC free article] [PubMed]
  10. Baldwin R, Di Mauro BW. Economics in the time of COVID-19. London: Centre for Economic Policy Research; 2020. [Google Scholar]
  11. Balyuk T, Davydenko S (2019) Reintermediation in FinTech: evidence from online lending. Michael J. Brennan Irish Finance Working Paper Series Research Paper No. 18-17
  12. Bofondi M, Ropele T (2011) Macroeconomic determinants of bad loans: evidence from Italian banks. Occasional papers No. 89, March 2011. Bank of Italy, Economic Research and International Relations Area. Accessed from https://EconPapers.repec.org/RePEc:bdi:opques:qef_89_11
  13. Bolt W, de Haan L, Hoeberichts M, van Oordt MRC, Swank J. Bank profitability during recessions. J Bank Finance. 2012;36(9):2552–2564. doi: 10.1016/j.jbankfin.2012.05.011. [DOI] [Google Scholar]
  14. Bose S, Shams S, Ali MJ, Mihret D (2021) COVID-19 impact, sustainability performance and firm value: international evidence. Acc Finance 61(2). 10.1111/acfi.12801
  15. Cai S, Lin X, Xu D, Fu X. Judging online peer-to-peer lending behavior: a comparison of first-time and repeated borrowing requests. Inf Manag. 2016;53(7):857–867. doi: 10.1016/j.im.2016.07.006. [DOI] [Google Scholar]
  16. Cecchetti SG, Schoenholtz KL (2020) Finance and Technology: What is changing and what is not. Korea Institute of Finance. Retrieved from: http://fakultaetsseminar.uni-mannheim.de/material/PaperCecchetti.pdf
  17. Chernick MR, LaBudde RA. An introduction to bootstrap methods with applications to R. New York: Wiley; 2014. [Google Scholar]
  18. Civelek ME, Xiarewana B. Effects of Covid-19 on China and the world economy: Birth pains of the post-digital ecosystem. J Int Trade Logist Law. 2020;6(1):147–157. [Google Scholar]
  19. Cumming D, Hornuf L. The economics of crowdfunding. Startups, portals and investor behavior. Cham: Palgrave Macmillan; 2018. [Google Scholar]
  20. Dawson E (2020, September 28, 2020) There should be no return to the world before the virus. Financ Rev. Accessed from https://www.afr.com/policy/economy/there-should-be-no-return-to-the-world-before-the-virus-20200927-p55zq6
  21. Demirguc-Kunt A, Klapper L, Singer D, Ansar S, Hess J. The Global Findex Database 2017: measuring financial inclusion and the FinTech revolution. Washington, DC: The World Bank; 2018. [Google Scholar]
  22. Demirguc-Kunt A, Lokshin M, Torre I (2020a) The sooner, the better: the early economic impact of non-pharmaceutical interventions during the COVID-19 pandemic. World Bank Policy Research Working Paper. Washington, DC
  23. Demirguc-Kunt A, Pedraza A, Ruiz-Ortega C (2020b) Banking sector performance during the Covid-19 crisis. Policy Research Working Paper; No. 9363. The World Bank, Washington, DC [DOI] [PMC free article] [PubMed]
  24. Diamond DW. Financial intermediation and delegated monitoring. Rev Econ Stud. 1984;51(3):393–414. doi: 10.2307/2297430. [DOI] [Google Scholar]
  25. Dushnitsky G, Guerini M, Piva E, Rossi-Lamastra C. Crowdfunding in Europe: determinants of platform creation across countries. Calif Manage Rev. 2016;58(2):44–71. doi: 10.1525/cmr.2016.58.2.44. [DOI] [Google Scholar]
  26. EBA (2020) Banks report a significant use of COVID-19 moratoria and public guarantees. European Banking Authority. Accessed from https://www.eba.europa.eu/banks-report-significant-use-covid-19-moratoria-and-public-guarantees
  27. Elnahas A, Kim D, Kim I (2018) Natural disaster risk and corporate leverage. Available at SSRN 3123468
  28. Emekter R, Tu Y, Jirasakuldech B, Lu M. Evaluating credit risk and loan performance in online Peer-to-Peer (P2P) lending. Appl Econ. 2015;47(1):54–70. doi: 10.1080/00036846.2014.962222. [DOI] [Google Scholar]
  29. Findexable (2019) The Global Fintech Index 2020. Findexable Limited & The Global Fintech Index. Accessed from www.findexable.com
  30. Flögel F, Beckamp M. Will FinTech make regional banks superfluous for small firm finance? Observations from soft information-based lending in Germany. Econ Notes. 2020;49(2):e12159. doi: 10.1111/ecno.12159. [DOI] [Google Scholar]
  31. Fu J, Mishra M (2020) The global impact of COVID-19 on FinTech adoption. Swiss Finance Institute Research Paper (20-38). University of Zurich
  32. Galema R. Credit rationing in P2P lending to SMEs: do lender–borrower relationships matter? J Corp Finance. 2020;65:101742. doi: 10.1016/j.jcorpfin.2020.101742. [DOI] [Google Scholar]
  33. Giudici P, Hadji-Misheva B, Spelta A. Network based credit risk models. Qual Eng. 2020;32(2):199–211. doi: 10.1080/08982112.2019.1655159. [DOI] [Google Scholar]
  34. Goodell JW. COVID-19 and finance: agendas for future research. Financ Res Lett. 2020;35:101512. doi: 10.1016/j.frl.2020.101512. [DOI] [PMC free article] [PubMed] [Google Scholar]
  35. Gordon G, Jones JB (2020) Loan delinquency projections for COVID-19. Federal Reserve Bank of Richmond, Richmond. Accessed from https://papers.ssrn.com/sol3/papers.cfm?abstract_id=3650562
  36. Greenwald BC, Stiglitz JE. Financial market imperfections and business cycles. Quart J Econ. 1993;108(1):77. doi: 10.2307/2118496. [DOI] [Google Scholar]
  37. Haacker M. The impact of HIV/AIDS on government finance and public services. In: Haacker M, editor. The macroeconomics of HIV/AIDS. Washington, D.C.: International Monetary Fund; 2004. [Google Scholar]
  38. Iyer R, Khwaja AI, Luttmer EF, Shue K. Screening peers softly: inferring the quality of small borrowers. Manag Sci. 2016;62(6):1554–1577. doi: 10.1287/mnsc.2015.2181. [DOI] [Google Scholar]
  39. Iyke BN. COVID-19: the reaction of US oil and gas producers to the pandemic. Energy Res Lett. 2020;1:13912. [Google Scholar]
  40. Jagtiani J, Lemieux C (2017) FinTech lending: financial inclusion, risk pricing, and alternative information. FRB of Philadelphia Working Paper No. 17-17. Available at SSRN: https://ssrn.com/abstract=3005260
  41. Kargar M, Lester B, Lindsay D, Liu S, Weill P-O, Zúñiga D (2020) Corporate bond liquidity during the COVID-19 crisis. National Bureau of Economic Research Working Paper Series, No. 27355. Accessed from http://www.nber.org/papers/w27355. 10.3386/w27355
  42. Kou G, Xu Y, Peng Y, Shen F, Chen Y, Chang K, Kou S. Bankruptcy prediction for SMEs using transactional data and two-stage multiobjective feature selection. Decis Supp Syst. 2021;140:113429. doi: 10.1016/j.dss.2020.113429. [DOI] [Google Scholar]
  43. Kuha J, Mills C. On group comparisons with logistic regression models. Sociol Methods Res. 2020;49(2):498–525. doi: 10.1177/0049124117747306. [DOI] [Google Scholar]
  44. Laeven L, Valencia F. Systemic banking crises database. IMF Econ Rev. 2013;61(2):225–270. doi: 10.1057/imfer.2013.12. [DOI] [Google Scholar]
  45. Lagoarde-Segot T, Leoni PL. Pandemics of the poor and banking stability. J Bank Financ. 2013;37(11):4574–4583. doi: 10.1016/j.jbankfin.2013.04.004. [DOI] [Google Scholar]
  46. Langreth R, Court E, Cortez MF (2020, 27 June 2020) Virus fatality picture is obscured by the ultimate lagging indicator. Bloomberg, Prognosis. Accessed from https://www.bloomberg.com/news/articles/2020-06-26/virus-fatality-picture-is-obscured-by-the-ultimate-lagging-indicator
  47. Leoni PL. HIV/AIDS and banking stability in developing countries. Bull Econ Res. 2013;65(3):225–237. doi: 10.1111/j.1467-8586.2011.00401.x. [DOI] [Google Scholar]
  48. Li W, Ding S, Chen Y, Yang S. Heterogeneous ensemble for default prediction of peer-to-peer lending in China. IEEE Access. 2018;6:54396–54406. doi: 10.1109/ACCESS.2018.2810864. [DOI] [Google Scholar]
  49. Li X, Xie Y, Lin J-H. COVID-19 outbreak, government capital injections, and shadow banking efficiency. Appl Econ. 2021;53(4):495–505. doi: 10.1080/00036846.2020.1808183. [DOI] [Google Scholar]
  50. Mintos (2020) Moratorium for borrowers: international overview by Mintos (updated). Accessed from https://www.mintos.com/blog/moratorium-for-borrowers-international-overview-by-mintos/
  51. Mollick E. The dynamics of crowdfunding: an exploratory study. J Bus Ventur. 2014;29(1):1–16. doi: 10.1016/j.jbusvent.2013.06.005. [DOI] [Google Scholar]
  52. Najaf K, Subramaniam RK, Atayah OF (2021) Understanding the implications of FinTech peer-to-peer (P2P) lending during the COVID-19 pandemic. J Sustain Finance Invest. 10.1080/20430795.2021.1917225
  53. Nigmonov A, Daradkeh H (2020) From one crisis to another: impact of COVID-19 pandemic on peer-to-peer lending market. Forthcoming, Financial transformations beyond the Covid-19 health crisis. World Scientific Publishing. Available at SSRN: 10.2139/ssrn.3738075
  54. Nigmonov A, Shams S, Alam K. Macroeconomic determinants of loan defaults: evidence from the U.S. peer-to-peer lending market. Res Int Bus Finance. 2021;59:101516. doi: 10.1016/j.ribaf.2021.101516. [DOI] [Google Scholar]
  55. Ning Y, Wang W, Yu B. The driving forces of venture capital investments. Small Bus Econ. 2015;44(2):315–344. doi: 10.1007/s11187-014-9591-3. [DOI] [Google Scholar]
  56. Okorie DI, Lin B. Stock markets and the COVID-19 fractal contagion effects. Finance Res Lett. 2021;38:101640. doi: 10.1016/j.frl.2020.101640. [DOI] [PMC free article] [PubMed] [Google Scholar]
  57. Organisation for Economic Co-operation and Development (OECD) Corporate sector vulnerabilities during the Covid-19 outbreak: assessment and policy responses. Geneva: OECD; 2020. [Google Scholar]
  58. Ozili PK. Impact of digital finance on financial inclusion and stability. Borsa Istanbul Rev. 2018;18(4):329–340. doi: 10.1016/j.bir.2017.12.003. [DOI] [Google Scholar]
  59. Peckham R. Economies of contagion: financial crisis and pandemic. Econ Soc. 2013;42(2):226–248. doi: 10.1080/03085147.2012.718626. [DOI] [Google Scholar]
  60. RateSetter (2020) RateSetter increases provision and temporarily reduces interest rates. Accessed from https://www.ratesetter.com/blog/sp_announcement
  61. Ryan SG, Zhu C (2018) FinTech isn’t so different from traditional banking: trading off aggregation of soft information for transaction processing efficiency. Available at SSRN 3212902
  62. Sadang A (2020, April 21, 2020) Impact of COVID-19 on business valuation. Marks Paneth. Accessed from https://www.markspaneth.com/insights/industry/real-estate/impact-of-covid-19-on-business-valuation
  63. Sahay R, von Allmen UE, Lahreche A, Khera P, Ogawa S, Bazarbash M, Beaton K (2020) The promise of Fintech; financial inclusion in the post COVID-19 era. International Monetary Fund. Working paper No. 20/09. Accessed from https://www.imf.org/-/media/Files/Publications/DP/2020/English/PFFIEA.ashx
  64. Santaeulalia-Llopis R (2008) Aggregate effects of AIDS on development. Washington University in St. Louis, Unpublished Manuscript
  65. Serrano-Cinca C, Gutierrez-Nieto B, Lopez-Palacios L. Determinants of Default in P2P lending. PLoS ONE. 2015;10(10):e0139427. doi: 10.1371/journal.pone.0139427. [DOI] [PMC free article] [PubMed] [Google Scholar]
  66. Shen H, Fu M, Pan H, Yu Z, Chen Y. The impact of the COVID-19 pandemic on firm performance. Emerg Mark Financ Trade. 2020;56(10):2213–2230. doi: 10.1080/1540496X.2020.1785863. [DOI] [Google Scholar]
  67. Sindreu J (2020, July 13, 2020) Why Covid-19 won’t stop the new Shadow banks. Wall Street J. Accessed from https://www.wsj.com/articles/why-covid-19-wont-stop-the-new-shadow-banks-11594639940
  68. Skoufias E. Economic crises and natural disasters: Coping strategies and policy implications. World Develop. 2003;31(7):1087–1102. doi: 10.1016/S0305-750X(03)00069-X. [DOI] [Google Scholar]
  69. Stiglitz JE, Weiss A. Asymmetric information in credit markets and its implications for macro-economics. Oxf Econ Pap. 1992;44(4):694–724. doi: 10.1093/oxfordjournals.oep.a042071. [DOI] [Google Scholar]
  70. Stiller M, Zink T (2020) Impact of COVID-19 on the European Banking Industry. IDC Perspective, International Data Corporation. Accessed, 27
  71. Tibshirani RJ, Efron B. An introduction to the bootstrap. Monogr Stat Appl Probab. 1993;57:1–436. [Google Scholar]
  72. Walthoff-Borm X, Schwienbacher A, Vanacker T. Equity crowdfunding: first resort or last resort? J Business Ventur. 2018;33(4):513–533. doi: 10.1016/j.jbusvent.2018.04.001. [DOI] [Google Scholar]
  73. Wang H, Kou G, Peng Y. Multi-class misclassification cost matrix for credit ratings in peer-to-peer lending. J Oper Res Soc. 2021;72(4):923–934. doi: 10.1080/01605682.2019.1705193. [DOI] [Google Scholar]
  74. Wei Z, Lin M. Market mechanisms in online peer-to-peer lending. Manag Sci. 2017;63(12):4236–4257. doi: 10.1287/mnsc.2016.2531. [DOI] [Google Scholar]
  75. Wu DD, Olson DL. The effect of COVID-19 on the banking sector. In: Wu DD, Olson DL, editors. Pandemic risk management in operations and finance: modeling the impact of COVID-19. Cham: Springer International Publishing; 2020. pp. 89–99. [Google Scholar]
  76. Yach D, Stuckler D, Brownell KD. Epidemiologic and economic consequences of the global epidemics of obesity and diabetes. Nat Med. 2006;12(1):62–66. doi: 10.1038/nm0106-62. [DOI] [PubMed] [Google Scholar]

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