Syntax Literate: Jurnal Ilmiah Indonesia p�ISSN: 2541-0849 e-ISSN: 2548-1398

Vol. 7, No. 10, Oktober 2022

 

THE PERFORMANCE OF FINANCIAL DISTRESS PREDICTION MODELS: EVIDENCE FROM ASEAN COUNTRIES

 

Jessica, Moch. Doddy Ariefianto

Master of Accounting, Bina Nusantara University, Indonesia

Email: [email protected], [email protected]

 

Abstract

The objective of this study is to scrutinise selected financial distress prediction models across several categories, such as country, sector, COVID-19 era, utilising binomial probability test, confusion matrix, and ROC curve. The sample of this study included 21,250 observations from 6 countries and 21 sectors. In addition, it was collected on an annual basis from 2012 to 2021, which included both the pre- and during COVID-19 eras. According to the results of the binomial probability test,� the observed proportion are statistically different from the assumed probability based on accuracy and total positives. Meanwhile, based on the confusion matrix and ROC curve results, it was indicated that the Grover model performed best in predicting financial distress for all COVID-19 era, country, and sector observations. This suggests that the Grover model can be applied as a practical tool to predict financial distress in ASEAN. This study will contribute significantly to the literature on financial distress prediction since there are no studies that scrutinise and compare the performance of financial distress prediction models in ASEAN countries and different sectors.

 

Keywords: Financial Distress Prediction Models, ASEAN Countries, Performance Evaluation

 

Introduction

Financial distress is a significant area of research for corporate finance (Sun et al., 2014). Its core is the prediction of financial distress, which is a topic of extensive ongoing research. In general, financial distress predictions predict whether a firm will fall into financial distress based on current financial data using different models. It is critical in managerial decisions for businesses, investment decisions for investors, credit decisions for creditors, and other similar decisions (Balasubramanian et al., 2019; Sun et al., 2014). In addition, the financial distress models assist creditors in assessing the risk associated with a firm issuing new loans, and they can alert the firm�s auditors to monitor the performance of financial activities. During business activities, stakeholders are frequently solicitous about the accuracy of financial distress predictions. In order to improve the accuracy of existing financial distress predictions, different models have been introduced in previous studies (Rafatnia et al., 2020).

It is essential to comprehend whether the firm has started to experience financial distress in order for the firm�s management to be cautious and take appropriate action if there are indicators that something terrible is happening. Moreover, creditors can use this information to their advantage by discovering whether the potential debtor�s business qualifies for a loan and being cautious when monitoring the debtor�s financial condition. Furthermore, investors may supervise and monitor the firm�s financial condition by employing the current financial distress prediction models, allowing them to make the best decisions while preparing for the worst-case scenario (Balasubramanian et al., 2019).

This study scrutinised certain financial distress prediction models to fill a gap in the literature using 21,250 observations of ASEAN non-financial sector firms over the period 2012-2021. There have been a number of studies on the financial distress prediction model in specific countries and sectors, such as Balasubramanian et al. (2019), Habib et al. (2020), Setiawan & Rafiani (2021), and Salim & Ismudjoko (2021), but there have been no studies about ASEAN or various sectors. Due to the establishment of the ASEAN Economic Community, which has the goal of creating a dynamic and highly competitive region which is fully integrated with the global economy (Silalahi, 2017), the ASEAN region was chosen as the sample of this study.

If the ASEAN countries are more integrated and better coordinated, they have the potential to increase market efficiency collectively, resulting in more substantial growth (K. Vu, 2020). According to ASEAN Economic Community, ASEAN will become more dynamic and competitive if it develops into a single market and production base. Moreover, creating a stable, prosperous, and highly competitive economic region is the goal of ASEAN economic integration. This will encourage a larger, more efficient production scale in more accessible locations and improve the response to consumer needs (Silalahi, 2017).

The primary contributions of this study are as follows: First, there is a difference in the research sample compared to previous studies. This study used ASEAN firms� data as samples, while the others only researched one or two countries as well as industry sectors. The study focused on the non-financial sector, which is divided into 21 sectors, whereas previous studies only researched on one or two sectors. Second, despite the fact that numerous studies about the Altman, Grover, and Springate models have been published, to the best of our knowledge, no research studies have assessed the impact of the FDP models on the non-financial sector in ASEAN. This study emphasised the findings which demonstrated that the FDP models can be implemented in a variety of countries and sectors. The findings of this study are expected to be used by management for internal assessment and evaluation. Furthermore, before making an investment, investors and creditors can assess the firm�s financial performance.

The continuations of this study were explained as follows: section 2 provides a literature review and hypothesis development; section 3 explains research methodology; section 4 presents the empirical findings and results; and section 5 provides the conclusion of the study.

 

Research Methodology

A.  Financial Distress Performance: Existing Empirics

The summaries of each studies are presented in table 1 below.

 

Table 1

Existing Empirics

Author

Period

Model

Context

Results

Aminian et al. (2016)

2008-2013

Altman, Springate, Zmijewski, Grover

Textile and ceramic firms listed on the Tehran Stock Exchange

Grover model, with an accuracy rate of 98%

Djamaluddin et al. (2017)

2009-2015

Altman, Ohslon, Zmijewski

Japanese electronic manufacture firms listed on the Tokyo Stock Exchange

Ohlson model, with an accuracy rate of 62.14%

Indriyanti (2019)

2015-2016

Altman, Fulmer, Taffler, Zmijewski, Ohlson, Springate, Grover

World's 25 largest technology companies listed on Forbes

Grover model, with an accuracy rate of 96.6%

Rababah et al. (2020)

2013-2020

ROA, ROE

Chinese listed firms, extracted from CSMAR database

COVID-19 has had a negative impact on financial performance of the Chinese listed companies

Yendrawati & Adiwafi (2020)

2014-2018

Altman, Springate, Zmijewski

Property firms listed on the Indonesia Stock Exchange

Altman model, with an accuracy rate of 88.44%

Fauzi et al. (2021)

2014-2019

Altman, Springate, Zmijewski, Grover

Telecommunications firms listed on the Indonesia Stock Exchange

Altman, Springate, and Grover models, with an accuracy rate of 100%

Salim & Ismudjoko (2021)

2015-2019

Altman, Springate, Zmijewski, Ohlson, Grover

Coal

mining firms listed on the Indonesia Stock Exchange

Altman and Ohlson models, with an accuracy rate of 90.91%

Muzanni & Yuliana (2021)

2015-2019

Altman, Springate, Zmijewski

Retail firms listed on Indonesia� Stock Exchange and Singapore Stock Exchange

Zmijewski model, with an accuracy rate of 87% (Indonesia), Altman model, with an accuracy rate of 86% (Singapore)

Syaputri & Cakranegara (2021)

2016-2020

Altman, Grover, Zmijewski

Automotive

and component companies listed on the Indonesia Stock Exchange

Grover model, with an accuracy rate of 85%

Rahmah & Novianty (2021)

2019-2020

Altman

Hotel, restaurant, and tourism firms listed on the Indonesia Stock Exchange, before and during COVID-19

COVID-19 has had a negative impact on the hotel, restaurant, and tourism firms

Source: Authors� own

 

B.  Variable definitions and measurements

The definition and measurement of each variable are presented in Table 2 as follows:

 

Table 2

Variable Definitions and Measurements

Variable

Definition

Measurement

Financial Distress (ACT_FD)

A condition occurs when the income generated by a firm is insufficient to allow it to make timely debt payments to its creditors (Danilov, 2014).

ACT_FD = 1 if the firm in question has experienced losses for three consecutive years; otherwise, it is 0 (Kordestani et al., 2011).

Altman Model (Z_SCORE)

The most well-known and frequently used MDA prediction model was developed by Edward I. Altman (Altman et al., 2014).

 

�= 1 means the firm in question is expected to experience financial distress; otherwise, it is 0.

Grover Model (G_SCORE)

The model was developed by Jeffrey S. Grover in 2001 by redesigning and reassessing the Altman Z-Score model (Fauzi et al., 2021).

 

 

�= 1 means the firm in question is expected to experience financial distress; otherwise, it is 0.

Springate Model

(S_SCORE)

The model was developed by Gordon L.V. Springate in 1978 by redesigning and reassessing the Altman Z-Score model (Aminian et al., 2016; TURK & KURKLU, 2017).

 

 

�= 1 means the firm in question is expected to experience financial distress; otherwise, it is 0.

Working Capital/Total Assets (WC_TA)

This variable is used to assess the firm�s liquidity (Salim & Ismudjoko, 2021).

WC_TA =

Retained Earnings/Total Assets (RE_TA)

RE_TA is used to measure the firm�s overall profitability (Salim & Ismudjoko, 2021).

RE_TA =

Earnings before interest & tax/Total Assets (EBIT_TA)

EBIT_TA is used to calculate the firm�s profitability (Salim & Ismudjoko, 2021).

EBIT_TA =

Total Equity/Total Liabilities (TE_TL)

TE_TL is used to calculate the value of a firm based on the book value of equity and liabilities (Salim & Ismudjoko, 2021).

TE_TL =

Return on Assets (ROA)

ROA is a measure of the income generated by the firm�s total assets (Akben-Selcuk, 2016).

ROA =

Profit or loss before Tax/Current Liabilities (PBT_CL)

PBT_CL is used to calculate the firm�s profitability (Salim & Ismudjoko, 2021).

PBT_CL =

Sales/Total Assets (S_TA)

S_TA is used to assess a firm�s capacity to generate sales from its current assets (Salim & Ismudjoko, 2021).

S_TA =

 

The dependent variable selected and used for this study is the actual results of the number of firms experiencing financial distress or not (ACT_FD). Moreover, the independent variables in this study were the prediction results represented by the Altman, Grover, and Springate prediction models (Z_SCORE, G_SCORE, and S_SCORE). Meanwhile, the other variables, such as WC_TA, RE_TA, EBIT_TA, TE_TL, ROA, PBT_CL, and S_TA, were ratios applied to selected prediction models based on the existing literature.

C.  Sample Selection

The population used in this study were all companies from ASEAN countries collected from the OSIRIS database. The ASEAN region was chosen as it has aimed to be a dynamic and highly competitive region which is fully integrated with the global economy since the establishment of the ASEAN Economic Community (Silalahi, 2017). The ASEAN countries selected are Indonesia, Malaysia, Philippines, Singapore, Thailand, and Vietnam. Only these six countries were chosen because they have a lot of firms which could be analysed for this study, so the sample proportions were not too varied. The sample of this study is non-financial sector companies listed on the OSIRIS database from 2012 to 2021, and the data were collected annually. This study used that specific sample period because it is a perfect period following the global financial crisis, a period when the ASEAN Economic Community was established, and a period when the COVID-19 pandemic was still ongoing, all of which may have influenced the actual and prediction results. Due to the fact that banking and finance firms are highly regulated industries with particular characteristics, only non-financial sector firms were chosen (Jamal Zeidan, 2012), which might have influenced the results of this study. The research selection and sampling were conducted using the purposive sampling method. The method was done by selecting samples using specific criteria mentioned above and 2,125 firms with a total of 21,250 observations were used as the sample.

D.  Research Framework

The source of data collection in this study was secondary data. The data was obtained and collected from other parties; in this study, it was from the OSIRIS database. The data was collected using the documentation study technique by re-recording or documenting the received data, especially for the firms from ASEAN countries in the non-financial sector which were used as our research sample. This study used a quantitative approach because the data were collected and used in the form of numbers calculated by statistical methods. The stages of data analysis in this study were descriptive statistics, ROC (Receiver Operating Characteristics) curve, and confusion matrix.

Data derived from population or sample research can be organised and summarised with the assistance of descriptive statistics (Holcomb, 2016). In addition, descriptive statistics provide a summary of the researched sample with results such as frequency distribution tables, percentages, and other measures of data concentration (average, maximum, minimum, standard deviation, and others). Descriptive statistics can help in summarising data in the form of simple quantitative measures such as percentages or in the form of visual summaries. Descriptive statistics can be used to describe one variable or more (Kaliyadan & Kulkarni, 2019).

The collected data were analysed using the ROC (Receiver Operating Characteristics) curve and confusion matrix in STATA 15 and Excel to test the accuracy of each model and determine whether the prediction models have an excellent ability to predict financial distress or not. The ROC (Receiver Operating Characteristics) curve portrays the sensitivity (true positive rate) to 1-specificity (false positive rate), then displays it graphically. The further the curve is from the diagonal line, the larger the area under the ROC curve�the larger the area under it, the better the curve is at distinguishing true positives from true negatives (Bhatia & Singh, 2022). The ROC curve was used as a tool to test the sample because it is an effective curve for assessing the performance of financial distress prediction models. Furthermore, it may demonstrate and provide an idea of the models� usefulness. The confusion matrix is a two-way frequency table with actual and predicted variables. This matrix consists of four elements: true positive (TP), true negative (TN), false positive (FP), and false negative (FN). The confusion matrix was chosen as a tool to test the sample because it is an important measure to evaluate the accuracy of the prediction models. The confusion matrix can be used to demonstrate the accuracy of each prediction model by comparing the predicted value with the actual value. Accuracy is the ratio of correct predictions to the number of total observations tested (Hoo et al., 2017; Mailund, 2017; Zeng, 2020).

A probability test, a binomial probability test, was needed to be conducted to compare the probability of firms which were predicted to experience financial distress with those that did not before conducting the confusion matrix and ROC curve tests. A value of p <0.05 is considered statistically significant (Klug, 2014). In addition, the test was conducted to determine whether the selected model performed better than the coin toss method (<50%). Once all the tests were completed, the findings were compared to determine the most accurate financial distress prediction model in general and in the context of country, sector, and COVID-19 period.

Based on the explanation above, the research framework of this study is shown in Figure 1 as follows:

Figure 1

Research Framework

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 


Result and Discussion

A.  Descriptive statistics

Table 3 provides the descriptive statistics of the variables as previously mentioned. In order to control outliers, the variables at the first and 99th percentiles of their distributions were winsorized.

 

Table 3

Descriptive statistics

Variable

Average

Median

Max

Min

Std. Dev.

Percentile

Obs

1%

99%

Z_SCORE

4.742

3.669

32.322

-8.692

5.452

-8.692

32.322

21,250

G_SCORE

0.596

0.570

2.009

-1.251

0.555

-1.251

2.009

21,250

S_SCORE

0.988

0.882

4.251

-1.677

0.919

-1.677

4.251

21,250

WC_TA

0.202

0.185

0.766

-0.480

0.238

-0.480

0.766

21,250

RE_TA

0.123

0.148

0.725

-1.852

0.360

-1.852

0.725

21,250

EBIT_TA

0.061

0.056

0.359

-0.263

0.090

-0.263

0.359

21,250

TE_TL

2.473

1.253

26.219

-0.044

3.779

-0.044

26.219

21,250

ROA

0.041

0.040

0.300

-0.299

0.085

-0.299

0.300

21,250

PBT_CL

0.362

0.187

3.963

-1.373

0.719

-1.373

3.963

21,250

S_TA

0.875

0.719

3.981

0.026

0.731

0.026

3.981

21,250

� Source: Authors� own

 

As shown in Table 3, the average values of Z_SCORE, G_SCORE, and S_SCORE (4.742, 0.596, and 0.988, respectively) exceeded the safe zone cut-off value (2.6, 0.01, and 0.862, respectively). This indicates that the majority of the observations fell within the safe zone, demonstrating that they are in a healthy financial condition and unlikely to experience financial distress. Moreover, the mean values of G_SCORE, S_SCORE, and S_TA are greater than the standard deviation value, indicating that these variables varied. The remaining variables, on the other hand, have mean values that are less than the standard deviation value, indicating that they are not varied.

B.  Binomial probability test

 

Table 4
Binomial Probability Test

 

Model

Observed k

Expected k

Assumed p

Observed p

p-value

Accuracy

Altman

14,379

10,625

0.5

0.6767

0.0000

 

Grover

19,186

10,625

0.5

0.9029

0.0000

 

Springate

12,278

10,625

0.5

0.5778

0.0000

Total Positives

Altman

7,552

10,625

0.5

0.3554

0.0000

 

Grover

2,295

10,625

0.5

0.1080

0.0000

 

Springate

10,377

10,625

0.5

0.4883

0.0006

True Positives

Altman

1,089

10,625

0.5

0.0513

0.0000

 

Grover

864

10,625

0.5

0.0407

0.0000

 

Springate

1,451

10,625

0.5

0.0683

0.0000

True Negatives

Altman

13,290

10,625

0.5

0.6254

0.0000

 

Grover

18,322

10,625

0.5

0.8622

0.0000

 

Springate

10,827

10,625

0.5

0.5095

0.0057

Source: Authors� own

 

According to Table 4, all p-value results are less than 0.05, which means that the results are statistically significant. The observed proportion are statistically different from assumed probability based on accuracy and total positives. The test results additionally demonstrated that the observed proportion of accuracy for each model is actually higher than the assumed proportion of 0.5. This implies that the accuracy of all models is higher than that of coin-tossing. The observed proportion of each model�s total positives, on the other hand, is less than the assumed probability of 0.5. This happened because the total positives are� less than the total negatives, indicating that the distressed samples are typically less than normal samples. Moreover, the observed proportion of each model�s total true positives is less than the assumed probability of 0.5. This indicates that the majority of the samples collected are true negatives, which represent healthy firms.

C.  Overall evaluation

 

Table 5

Confusion matrix for predicting financial distress

 

Actual

Predicted

Distress observation

Safe observation

Distress observation

True Positive (TP)

False Positive (FP)

Safe observation

False Negative (FN)

True Negative (TN)

�������� �Source: Authors� own

 

Using the confusion matrix provided in Table 5, the actual and predicted values of each model were compared. From the matrix results, it can be seen that there are correct and incorrect prediction results. The incorrect predictions are referred to as errors. Errors can be classified into type I and type II. Type I error occurs when the model predicts that the sample is in distress when, in fact, it is not (false positive). Meanwhile, type II error occurs when the model incorrectly predicts that the sample is not in financial distress when, in fact, it is (false negative) (Balasubramanian et al., 2019).

 

Table 6

Confusion matrix results for all observations

Model

Correct Prediction

Type I Error

Type 2 Error

Total Obs

Accuracy (%)

Altman

14,379

6,463

408

21,250

67.67

Grover

19,186

1,431

633

21,250

90.29

Springate

12,278

8,926

46

21,250

57.78

�� ������Source: Authors� own

 

According to the confusion matrix results, which are shown in Table 6, the Grover model has the highest accuracy rate (90.29%) compared to all other models that were chosen for the entire sample. In addition, the Grover model has the most correct predictions (19,186 predictions) and the fewest type I errors (1,431 errors), although it has more type 2 errors (633 errors) compared to other models. This suggests that the model misclassified such distressed firms as safe firms, indicating critical issues because it mistook positives for negatives. This type II error can lead to financial loss for the firm if it is too late to recognise the signs of financial distress. Meanwhile, the Springate model has the lowest accuracy rate (57.78%). The Springate model also has the most type I errors (8,926 errors), which means the model misclassified the safe firms as distressed firms. This results in the firm losing out on beneficial business opportunities since stakeholders felt that the firm would bankrupt after being misclassified as a distressed firm when it is not. Based on the accuracy rate analysis, the Grover model has the best performance to predict financial distress for the entire observation.

 

Figure 2

ROC curve (all observations)

 

The ROC analysis was conducted with a trust level of 95 percent. The ROC curve plots the sensitivity as a function of 1-specificity for different cut-off points. If the area under the curve (AUC) value is close to 1, the model performs excellently (Balasubramanian et al., 2019). Since there are a lot of cut-off points, the curve will only show the most relevant cut-off point for all related observations. Moreover, as can be seen in Figure 2 above, the ability of all models to predict financial distress in all observations is satisfactory. It is evidenced by the position of the curve line, which is above the diagonal line. Despite the fact that all models imply great performance,� the Grover and Springate models have a higher AUC than Altman. The Springate model has the highest true positive rate (sensitivity) among other models despite having the lowest accuracy rate and the highest false positive rate (1-specificity). It denotes the high probability that an actual positive will coincide with its predicted result and that the probability of a false alarm will increase. Meanwhile, the AUC for Grover somehow resembles Springate. Despite being the most accurate model when the accuracy rate is the only thing discussed, the Grover model has the lowest true positive rate because it predicts a lot of false negatives. This model also has the lowest false positive rate because it predicts many true negatives. If we take into account the accuracy rate and AUC value, the Grover model performs best overall in predicting financial distress for all observations. These results are in line with several studies, including Indriyanti (2019), Aminian et al. (2016), Pakdaman (2018), Hertina et al. (2020), and Hungan & Sawitri (2018). They concluded that the Grover model is the best model, with the most accurate prediction results.

D.  Context evaluation

 

Table 7

Confusion matrix results for pre- and during COVID-19 observations

 

Model

Correct Prediction

Type I Error

Type 2 Error

Total Obs

Accuracy (%)

Pre-COVID-19

���� Altman

11,610

5,100

290

17,000

68.29

���� Grover

15,521

1,036

443

17,000

91.30

���� Springate

10,127

6,839

34

17,000

59,57

During COVID-19

���� Altman

2,769

1,363

118

4,250

65.15

���� Grover

3,665

395

190

4,250

86.24

���� Springate

2,151

2,087

12

4,250

50.61

�� Source: Authors� own

 

Table 7 shows that, of all the models considered,� the Grover model has the highest accuracy rate (91.30% and 86.24%, respectively), for both pre- and during COVID-19 observations. As before, the Grover model also has the most correct predictions and the fewest type I errors, although it has more type II errors compared to other models. Meanwhile, the Springate model has the lowest accuracy rate (59,57% and 50.61%) compared to other models. The most type I errors are also present in the Springate model. In terms of predicting financial distress for both pre- and during COVID-19 observations, the Grover model gives the best result, according to the accuracy rate analysis. Moreover, the ROC curve results show that the ability of all models to predict financial distress on both pre- and during COVID-19 observations is satisfactory, as evidenced by the position of the curve line, which is above the diagonal line. Even though all models suggest remarkable performance, the Springate model is definitely better at predicting financial distress during the pre-COVID-19 era. On the contrary, the Grover model performed better than the Springate during the during COVID-19 era. Meanwhile, the AUC for Grover somehow resembles Springate. If we take into account the accuracy rate and AUC value, the Grover model performs best overall in predicting financial distress for all pre- and during COVID-19 observations.

 

Table 8

Confusion matrix results for country observations

Country

Model

Correct Prediction

Type I Error

Type 2 Error

Total Obs

Accuracy (%)

Indonesia

���� Altman

1,861

946

43

2,850

65.30

���� Grover

2,570

184

96

2,850

90.18

���� Springate

1,635

1,204

11

2,850

57.37

Malaysia

���� Altman

3,643

1,065

152

4,860

74.96

���� Grover

4,354

291

215

4,860

89.59

���� Springate

2,834

2,017

9

4,860

58.31

Philippines

���� Altman

828

387

25

1,240

66.77

���� Grover

1,126

90

24

1,240

90.81

���� Springate

568

671

1

1,240

45.81

Singapore

���� Altman

2,330

772

98

3,200

72.81

���� Grover

2,810

220

170

3,200

87.81

���� Springate

1,717

1,462

21

3,200

53.66

Thailand

���� Altman

2,921

1,548

81

4,550

64.20

���� Grover

3,972

457

121

4,550

87.30

���� Springate

2,605

1,941

4

4,550

57.25

Vietnam

���� Altman

2,796

1,745

9

4,550

61.45

���� Grover

4,354

189

7

4,550

95.69

���� Springate

2,919

1,631

0

4,550

64.15

Source: Authors� own

 

According to Table 8, the Grover model has the highest accuracy rate and has made the most correct prediction for each country. At the same time, the Springate model has the lowest accuracy rate and is the one with the most type I errors in each country, except Vietnam. The Altman model has the lowest accuracy rate and the most type I errors found in Vietnam. In addition, the Grover model has the most type II errors in comparison to the other two models, with the exception of Philippines and Vietnam. The model which has the most type II error in the Philippines and Vietnam is the Altman model. In terms of predicting financial distress for all country observations, the Grover model performed best, according to the accuracy rate analysis. According to the ROC curve results, which show that the curve line is above the diagonal line, the models� accuracy in predicting financial distress on all country observations is excellent. Despite the fact that all models show remarkable performance, the Springate model is unquestionably superior at predicting financial distress in Malaysia and Thailand. In the other four countries, however, the Grover model outperformed the Springate. Meanwhile, Grover�s AUC is close to Springate�s, with the exception of Vietnam, which is practically at 1. If we take into account the accuracy rate and AUC value, the Grover model outperformed all other models in predicting financial distress for all country observations.

 

Table 9

Confusion Matrix Results For Sector Observations

Sector

Model

Correct Prediction

Type I Error

Type 2 Error

Total Obs

Accuracy (%)

Automobiles and Components

���� Altman

281

88

1

370

75.95

���� Grover

340

20

10

370

91.89

���� Springate

232

138

0

370

62.70

Capital Goods

���� Altman

2,546

1,454

60

4,060

62.71

���� Grover

3,735

208

117

4,060

92.00

���� Springate

2,049

1,997

14

4,060

50.47

Commercial and Professional Services

���� Altman

417

107

6

530

78.68

���� Grover

487

28

15

530

91.89

���� Springate

346

182

2

530

65.28

Consumer Durables and Apparel

���� Altman

582

207

31

820

70.98

���� Grover

728

43

49

820

88.78

���� Springate

562

255

3

820

68.54

Consumer Services

���� Altman

562

260

28

850

66.12

���� Grover

728

86

36

850

85.65

���� Springate

431

418

1

850

50.71

Energy

���� Altman

625

393

22

1,040

60.10

���� Grover

893

106

41

1,040

85.87

���� Springate

636

393

11

1,040

61.15

Food and Staples Retailing

���� Altman

112

96

2

210

53.33

���� Grover

189

14

7

210

90.00

���� Springate

168

39

3

210

80.00

Food, Beverage, and Tobacco

���� Altman

1,400

592

28

2,020

69.31

���� Grover

1,852

139

29

2,020

91.68

���� Springate

1,320

699

1

2,020

65.35

Health Care Equipment and Services

���� Altman

322

132

6

460

70.00

���� Grover

419

33

8

460

91.09

���� Springate

281

179

0

460

61.09

Household and Personal Products

���� Altman

119

20

1

140

85.00

���� Grover

133

6

1

140

95.00

���� Springate

109

31

0

140

77.86

Materials

���� Altman

2,087

1,027

56

3,170

65.84

���� Grover

2,836

256

78

3,170

89.46

���� Springate

1,873

1,296

1

3,170

59.09

Media and Entertainment

���� Altman

412

110

18

540

76.30

���� Grover

481

32

27

540

89.07

���� Springate

361

178

1

540

66.85

Pharmaceuticals, Biotechnology, and Life Sciences

���� Altman

250

48

2

300

83.33

���� Grover

293

4

3

300

97.67

���� Springate

245

54

1

300

81.67

Real Estate

���� Altman

1,879

547

64

2,490

75.46

���� Grover

2,280

119

91

2,490

91.57

���� Springate

1,034

1,454

2

2,490

41.53

Retailing

���� Altman

575

220

15

810

70.99

���� Grover

725

58

27

810

89.51

���� Springate

585

225

0

810

72.22

Semiconductors and Semiconductor Equipment

���� Altman

152

22

6

180

84.44

���� Grover

164

8

8

180

91.11

���� Springate

127

53

0

180

70.56

Software and Services

���� Altman

333

82

25

440

75.68

���� Grover

386

22

32

440

87.73

���� Springate

311

128

1

440

70.68

Technology Hardware and Equipment

���� Altman

547

200

13

760

71.97

���� Grover

698

42

20

760

91.84

���� Springate

532

226

2

760

70.00

Telecommuni-cation Services

���� Altman

130

186

4

320

40.63

���� Grover

272

44

4

320

85.00

���� Springate

138

182

0

320

43.13

Transportation

���� Altman

669

382

19

1,070

62.52

���� Grover

922

122

26

1,070

86.17

���� Springate

582

485

3

1,070

54.39

Utilities

���� Altman

379

290

1

670

56.57

���� Grover

625

41

4

670

93.28

���� Springate

356

314

0

670

53.13

Source: Authors� own

 

Table 9 shows that the Grover model has the highest accuracy and correct prediction rates for each sector. On the contrary, the Springate model has the lowest accuracy rate, apart from energy, food and staples retailing, retailing, and telecommunication services. Moreover, the Altman model has the lowest accuracy rate among models in the four sectors. The Springate model also has the most type I errors in each sector, with the exception of telecommunication services and food and staples retailing. In those two sectors, the model with the most type I errors is the Altman model. Furthermore, the most type I errors were discovered in the energy sector for both the Altman and Springate models. The Grover model also has the most type II errors in each sector. In household and personal products and telecommunication services, both Grover and Altman models have the most type II errors. According to the ROC curve results, which show that the curve line is above the diagonal line, all models� abilities to predict financial distress based on all sector observations are satisfactory. Despite the fact that all models suggest remarkable performance, the Grover model is unquestionably superior at predicting financial distress in the capital goods, energy, food and beverage, health care, materials, telecommunication, transportation, and utilities sectors. Unexpectedly, the Altman model is the most accurate prediction model in the automobile and commercial sectors. Meanwhile, the Springate model outperformed other models in the remaining eleven sectors. When the accuracy rate and AUC value were analysed, the Grover model performed best in predicting financial distress for all sector observations.

 

 

Conclusions

Some conclusions could be drawn based on the findings of this study. If we take into account the accuracy rate and AUC value, the findings showed that the Grover model performed best in predicting financial distress for all COVID-19 era, country, and sector observations. The observed proportion is statistically different from the assumed probability based on accuracy. The test results also showed that the actual observed accuracy proportion for each model is higher than the assumed accuracy proportion of 0.5. This implies that the accuracy of all models is higher than that of coin tossing. The majority of the samples collected are true negatives, which represent healthy companies.

Our findings can be beneficial to all stakeholders in a firm. In order to prevent significant losses, these stakeholders must be aware if a firm fails. A forewarning of an impending collapse might reduce their losses, considering that these stakeholders are the last to receive compensation in bankruptcy and litigation. By providing managers with advance warning of declining profitability, net worth, and rising debt load, this study enables them to take remedial action to prevent significant losses. It is essential to comprehend whether the firm has started to experience financial distress in order for the firm�s management to be cautious and take appropriate action if there are indicators of something terrible is happening. Moreover, creditors can use this information to their advantage by discovering whether the potential debtor�s business qualifies for a loan and being cautious when monitoring the debtor�s financial condition. Furthermore, investors may supervise and monitor the firm�s financial condition by employing the current financial distress prediction models, allowing them to make the best decisions while preparing for the worst-case scenario.

Although our findings have implications for research on financial distress, there are several limitations. First of all, the sample period chosen in this study imposes limits on the sample size. Further study in this area can increase the sample size by extending the sample period to cover more than ten years. In addition, the sample scope can be expanded. Second, we limited the prediction of financial distress to one year in advance of its occurrence. In addition, a longer time period than the years prior to financial distress should be used to evaluate the model�s accuracy. Third, other prediction models should be taken into account, such as Ohlson model derived from the results of logit analysis, Zmijewski model derived from the results of probit analysis, or Blums model (D-Score) which uses accounting and market-based variables with a strong conceptual framework.

 

 

 

 

 

 

 

 

 

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Copyright holder:

Muhammad Aldi Wicaksono, Eka Pria Anas (2022)

 

First publication right:

Syntax Literate: Jurnal Ilmiah Indonesia

 

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