Granthaalayah
NAVIGATING FORENSIC ACCOUNTING BEHAVIORAL INTENTIONS THROUGH THE FRAUD DEVIATION MODEL

NAVIGATING FORENSIC ACCOUNTING BEHAVIORAL INTENTIONS THROUGH THE FRAUD DEVIATION MODEL

 

Dr. Seema Devi 1Icon

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1 Assistant Professor, Department of Commerce, C.D.R.J.M, Butana, Sonipat, Haryana, India

 

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ABSTRACT

Fraud remains widespread in modern business. People who commit fraud often display warning signs through their behavior and actions, which can escalate to aggressive and violent conduct. Researchers have developed various theories to detect and prevent fraudulent behavior, with each theory having specific strengths and limitations depending on the situation. To better understand fraudulent conduct, researchers combined existing fraud theories with behavioral models from other fields to create the Fraud Deviation Model (FDM). This model was validated using Structural Equation Modeling (SEM). The research included primary data collected from 560 participants in India's National Capital Region, comprising registered internal auditors, external auditors, government auditors, and forensic auditors.

 

Received 10 June 2025

Accepted 15 July 2025

Published 12 August 2025

Corresponding Author

Dr Seema Devi, sdphougat@gmail.com

DOI 10.29121/granthaalayah.v13.i7.2025.6290  

Funding: This research received no specific grant from any funding agency in the public, commercial, or not-for-profit sectors.

Copyright: © 2025 The Author(s). This work is licensed under a Creative Commons Attribution 4.0 International License.

With the license CC-BY, authors retain the copyright, allowing anyone to download, reuse, re-print, modify, distribute, and/or copy their contribution. The work must be properly attributed to its author.

 

Keywords: Fraud, Fraudulent Behavior, Fraud Deviation Model (FDM), Structural Equation Modeling (SEM)

 

 

 


1. INTRODUCTION

The Indians are considered diligent or hardworking all over the world. Although, the person with power called The Babu, controls the whole system. They spread the venom and slow down the progress. Taxes are the primary source of revenue for the government. However, as frauds increase with high tide, the taxpayers feel victimized. They want to support nations' progress and enlargement, not a fraudster. Fraud can be explained as the act of misleading someone or earning money illegally. It has dire ramifications for individuals, organizations, and the economy. Fraud is a savvy disease that arises from selfishness or deceit Silverstone et al. (2012). A report to the nations on a global survey of occupational fraud and abuse (2020), a survey based on 2504 cases in 125 countries, reported fraud causes more than $3.6 billion in yearly losses. The average loss per case is $1,509,000. The global economy is slowly being drained by these vast losses every year. Organizations often have difficulty assessing the extent of the fraud because frauds are not reported and investigated. Victims may not always be eligible for civil or criminal damages. In 68% of cases, there is no value recovery, directly impacting companies' ability to create new jobs KPMG (2009). Forensic accounting gained attention in the act of rapid development in fraud, auditors' shortcomings, lack of experience, and law enforcement agencies inability to discover crimes in time. In general, forensic accounting is mainly used in the legal system Durkin and Harry (1997), Bressler (n.d.). Honigsberg (2020) called it a crime scene investigation. A forensicc accountant has knowledge and skills in auditing and legal issues, so estimating the loss and presence in the court is not difficult. Fraud is unpredictable; thus, the forensic accountant can be called without prior notice. They are responsible for preventing fraud from occurring. Forensic accounting is a vast field that professional chartered accountants have found extremely useful. A forensic accountant's responsibilities extend even beyond the level of the organization. The big, chartered accounting firms with forensic accountants can offer their services in various areas, including consultation, legal servicing, a mediator approved via tribunals, expert presentation, along with any other court-related services.

Research by ASSOCHAM and Grant Thornton indicates India's highest susceptible fraud sectors as Real Estate & Infrastructure (52%), Financial Services (34%), Telecom (5%), Manufacturing (3%), Electronics & IT (2%), Hospitality & Tourism (2%) and other (2%). Some theories like fraud triangle, fraud diamond, fraud pentagon, fraud scale and Hollinger-Clark theory has been developed to understand the behavior of fraudster and the reasons for this alarming increase in fraud. The present study uses the following behavioral theories and models that help in developing Fraud Deviation Model.

Rogers (1975) created the Protection Motivation Theory (PMT), which studies coping mechanisms and fear reactions. PMT is similar to health practices when it comes to fraud prevention. In primary and secondary prevention, it includes threat and coping assessments. Rollo et al. (2017), Chamroonsawasdi et al. (2017), and Liñán et al. (2005) are notable examples of uses. Rosenstock (1974) created the Health Belief Model (HBM), which evaluates perceived benefits, barriers, severity, and susceptibility in order to predict health-related behaviors. HBM applies to accounting procedures Muthusamy et al. (2010) and fraud prevention Janz and Becker (1984), Harrison et al. (1992), with modifications to incorporate media impact Rosenstock et al. (1994). Ajzen and Fishbein (1980) created the Theory of Reasoned Action and Planned Behavior (TR&PA), which uses attitudes and subjective standards to forecast behavior. It has been used in the selection of foods Raats et al. (1995) and the drinking of beer without alcohol Thompson and Thompson (1996). Extending TRA, the Theory of Planned Behavior Thompson and Thompson (1996) covers behavioral control Fishbein and Ajzen (1977) and influences organizational decision-making Muthusamy et al. (2010). Lavidge and Steiner (1961) established the Hierarchy of Effects model (HOE), which describes a step-by-step progression from ignorance to supporting business operations, including knowledge, attitude formation, and behavior. Similarly, seven steps were recognized by Barry and Howard (1990). Murray and Vogel (1997) placed a strong emphasis on knowledge and awareness when applied to business appraisal. The model was modified for fraud detection by Muthusamy et al. (2010), who also emphasized the importance of demographic factors in increasing public knowledge of forensic accounting procedures.

 

1.1. THE PROPOSED RESEARCH MODEL: FRAUD DEVIATION MODEL (FDM)

Bsed on the above theories and model a model is proposed called Fraud Deviation Model as there are many similarities are found between the theories of PMT, TR&PA, HBM, and HOE. All of the concepts are predicated on the idea that strong expectations generate strong motivation since social cognition is built on achievement. The next component of these models is beliefs that are grounded on a strong conceptual foundation. Last but not the least, all theories are extensively used in behavior anticipation and precautionary measures Muthusamy et al. (2010), Noar and Rick (2005). Although these frameworks have some similarities, even then they each have their strengths and weaknesses. For example, threat perception belief is an essential component of the preventive behavior of threats which is not present in TR&PA or HOE. Secondly, PMT discovered a motivation factor that isn't included in other theories. The cognitive stage of HOE, which includes awareness and knowledge, is absent in HBM or TR&PA. However, awareness is crucial for creating desire. Muthusamy et al. (2010) combined the HOE with the TRA to analyze organizational tendency for usage of investigating audit services to detect or prevent scams from being committed by large Malaysian corporations. This investigation is business enterprises centered and provided novel insight into organizational decision-making. The current research focuses on services provided by auditors because fraud is universal. Other studies Rosenberg et al. (2008) also support the HOE model. These findings support that behavioral change can be facilitated by increased awareness. This study relies on the protection motivation theory, hierarchy of effect models, theory of reasoned and planned action, and theory of health belief models to support the final model.

 

1.2. HYPOTHESIS FOR THE PROPOSED RESEARCH MODEL

The study approach is built on four factors: external factor, internal factor, motivational factor, and behavioral intention as the outcome. With the exception of gender, the study postulates that internal elements like awareness are influenced by demographic factors such as age, job description, tenure, type, nature, and turnover of auditing companies. While awareness is unrelated to gender, it is influenced by age, job role, service tenure, and organization type; forensic auditors and professionals with longer tenure are predicted to have higher awareness.

Based on the study model, six hypotheses are created.

Hypothesis 1: Awareness of forensic accounting has a negative impact on the perceived benefits of using it against fraud.

Hypothesis 2: Awareness of forensic accounting has a negative impact on the perceived risks of using it against fraud. 

 

 

 

 

 

 

 

 

 

Figure 1

A diagram of a factor

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Figure 1 Proposed Model for the Study

Source Researchers’ Own Proposed Model

 

In order to analyze hypotheses 1 and 2, it is required to assess advantages with dangers of utilizing investigative audit. It leads to development and implementation of an approach with consequent behavioral control. According to empirical studies, attitudes are influenced by both perceived risks and benefits. The studies on perceived benefits - Martins (2014), Quaddus and Hofmeyer (2005), Murphy et al.  (2005) support the statement. Literature also contains studies of the negative effects on attitude Heijden et al. (2003), Lu et al. (2005), Gewald et al. (2006). The perceived benefits and risks in this study are evaluated using the composite models and theories like planned action and the health belief model Poss (2001), Ham (2017). They are made to directly impact behavior toward forensic accounting as an extraction to behavioral intention since both perceived benefits and risks are significant.

Hypothesis 3: Awareness of forensic accounting has a negative impact on the perceived susceptibility/vulnerability of using it against fraud

Hypothesis 4: Awareness of forensic accounting has a negative impact on the perceived severity of using it against fraud.

The influence of threat perception factors like vulnerability/susceptibility and severity on motivation to use forensic accounting can draw from protective motivation theory, where motivation is a mediating variable. KPMG fraud survey (2005) has consistently found even though organizations perceive that fraud can have severe consequences, there is an illusion of safety within their organization. Only when an organization realizes the severity of fraud and is, therefore, more susceptible to fraud will it take steps to reduce that risk.

Hypothesis 5: Perception of forensic accounting has a negative impact on the motivation to use it against fraud

Sub-Hypothesis 5.1: Perceived Benefits of forensic accounting has a negative impact on the motivation to use it against fraud

Sub-Hypothesis 5.2: Perceived Risks of forensic accounting have a negative impact on the motivation to use it against fraud

Sub-Hypothesis 5.3: Perceived vulnerability/Susceptibility of forensic accounting has a negative impact on the motivation to use it against fraud

Sub-Hypothesis 5.4: Perceived Severity of forensic accounting has a negative impact on the motivation of using it against fraud

Hypothesis 6: Motivation for forensic accounting negatively impacts behavioral intention to use it against fraud.

Abraham and Sheeran (2005) found a certain expectation and risk assessment play crucial part for inspiration. This cognitive trait allows individuals to choose to act to avoid adverse conditions. The organization can determine whether fraud costs are high or low by assessing the perceived severity. However, the perception of susceptibility allows them to recognize their vulnerability and those who may be prone to fraud Muthusamy et al. (2010). One of the ways an organization can combat the threat of fraud is to be able to use forensic accounting methods. Literature has demonstrated the impact of perceived fraud susceptibility Poss (2001), Roden (2004), Doukas et al. (2004), Muthusamy et al. (2010). Literature also supports the impact of behavioral intention and perceived fraud severity Roden (2004), Doukas et al. (2004), Lajunen and Räsänen (2004). By employing motivation as a mediating variable, the current study contends that threat perception strongly predicts an organization's readiness to adopt forensic accounting.

Fraud is a meticulously planned, long-term strategy rather than an instantaneous action. As a result, this study may make use TR&PA. Knowing that fraudsters are more likely to commit fraud than the organization, one can predict the fraudster's intent by analyzing others' influence. The health belief model hypothesis is useful for this research since it can be applied to combat fraud. It is due to perceptions and knowledge's importance in individual responsibility. The theory of the effects model, which is a logical progression that allows an individual to move from being unaware of forensic accounting to wanting to use it in a business environment to fight fraud, is also fundamental. The theory of protection motivation helps in the identification of motivational factors to apply forensic accounting. These theories were modified to create the research model.

     

2. REVIEW OF LITERATURE

The literature review provides a comprehensive overview of forensic accounting, highlighting its significance, methods, and impact on fraud detection and prevention. Dutta (2018) discussed forensic accounting's role in legal proceedings and the need for specialized skills to address financial fraud. Kumar et al. (2018) advocate the effectiveness of the Benish M-Square Model and stress the importance of transparency in financial statements. The increasing prevalence of financial frauds in India and propose measures, including establishing a forensic accounting cell Lama and Chaudhuri (2018). Lee and Nuxoll (2018) use a case study to illustrate the gap between employer expectations and student performance in forensic accounting, emphasizing the importance of critical thinking skills. Mui (2018) explores auditors' communication skills and knowledge in fraud detection, suggesting continuous learning and certification to enhance capabilities. Patel (2018) expands the fraud triangle to include capability and highlights the need for a proactive approach to prevent white-collar crime. Rathnasiri and Bandara (2018) survey accounting professionals, revealing the importance of multidisciplinary skills for forensic accountants. Waghray (2018) addresses the challenges posed by technological advancements in fraud and emphasizes legislative changes for effective forensic accounting in India. Alshurafat (2019) focuses on using pedagogical books to improve students' writing skills and ethics understanding in accounting. Hossain et al. (2020) underscore the responsibility of auditors and accountants in fraud detection, emphasizing the necessity of forensic accounting education. Ozili (2020) discusses accounting decisions' impact on forensic investigation, providing a theoretical framework for fraud detection and prevention. Rehman and Hashim (2020) link investigative audits to corporate governance sustainability, highlighting the paradigm shift in accounting. Shah (2020) introduces forensic accounting as a response to the uncertainties and complexities of financial statements, calling for regulatory recognition in India. Alhassan (2021) explores the relationship between forensic accounting and fraud detection in Nigeria, suggesting improved internal control systems and training for forensic accountants. Alshurafat et al. (2021) assess the obstacles to forensic accounting's growth in India, emphasizing its impact on the country's socio-economic development. Mbasiti et al. (2021) propose forensic accounting methods to prevent revenue leakage in Nigerian universities, highlighting the relevance of investigative audits. Yu and Rha (2021) evaluate the effectiveness of forensic accounting methods like network text analysis and trend analysis in identifying fraudulent activities. Alfordy (2022) examines fraud deterrence techniques recognized by auditors, emphasizing the need for effective regulatory structures in Saudi Arabia. Cheliatsidou et al. (2022) criticize the fraud triangle for its omission of fraud's nature and propose a theoretical model for global application. Chhabra and Prabhakaran (2022) address institutional-driven cyber fraud in Indian banks, recommending efficient response systems and countermeasures. Kaur et al. (2022) conduct a systematic literature review on forensic accounting methods, emphasizing the correlation between fraud detection and prevention strategies. Navarrete and Gallego (2022) discuss forensic accounting techniques like Benford's rules and fraudulent numerical patterns for preventing financial statement fraud. Owusu et al. (2022) applies the fraud triangle hypothesis to evaluate the determinants of fraud in state-owned businesses, emphasizing the role of pressure, opportunity, and reasoning. Rashid et al. (2023) assess auditors' perspectives on financial statements, revealing internal control issues and the need for improved regulations. Zainal et al. (2022) investigate fraud causes in small and medium-sized businesses, emphasizing the correlation between employee motivation, internal surveillance, and corruption. Konar and Aiyar (n.d.) provide a descriptive study on forensic accounting's global impact, calling for a multi-faceted approach to reduce white-collar crime. The literature collectively underscores the importance of forensic accounting in fraud detection and prevention, advocating for regulatory recognition, education, and multidisciplinary skills in the field.

 

3. RESEARCH METHODOLOGY

To know the impact of auditors’ awareness and perception on behavioral intention to use forensic accounting, the data has been collected on Five-point Likert Scale from 560 internal auditors, external auditors, govt. auditors and forensic auditors registered in National Capital Region, India where 1 - Strongly Disagree and 5- Strongly Agree. The total 90796 registered firms were categories based on number of firms below 500, 500-1000, 1000-1500, and 1500 above. On the basis of number of registered firms in random selection Rohtak, Gautam Budh Nagar, New Delhi, and South Delhi has been selected as a sample. The data was collected from online and offline questionnaire. To know impact of independent variables awareness and perception, on the dependent variable behavioral intention, Structural Equation Modeling is used. Here, motivation is taken as mediating variable.

 

 

4. ANALYSIS AND INTERPRETATION

4.1. FACTOR ANALYSIS

Factor analysis is a technique of data reduction; it combines many variables in one factor that is highly correlated within them and less correlated with other factors. This technique helps to convert a large set of uncontrollable variables into few manageable factors which help in decision-making. The variables having low communality i.e. less than 0.5 are deleted. The contributing components are identified using the extraction method PCA. The varimax rotation method is used for factor rotation because it uses a method based on science to maximize the low- or high-value factor loading and decrease the mid-value factor loading.

Table 1

Table 1 Summary of Factor Analysis Tables for Independent and Dependent Variables

Statements/ Variables

Factor Loadings

Factor Order

Labeling of Factor

Total Variance Explained (%)

Cronbach’s Alpha

Awareness and perception

PB1

Increase Auditor's Responsibilities (S14)

.831

Factor 1

Perceived Benefits (PB)

18.219

.937

PB2

Forensic accounting is an Anti-fraud pro-active strategy (S15)

.811

PB3

Win professional reputation (S22)

.805

PB4

Attends court as an expert witness (S23)

.802

PS1

Frauds are increasing at an alarming rate (S11)

.818

Factor 2

Perceived Severity (PS)

16.691

.768

PS2

Larger the organization, the more possibility of fraud (S13)

.795

PS3

Every part of the organization is infected with fraud (S3)

.765

 

PS4

Forensic accounting skilled auditors demand is increasing nowadays (S18)

.725

PV1

Investments are decreasing due to the risk of fraud (S8)

.847

Factor 3

Perceived Susceptibility/ Vulnerability (PV)

12.825

.728

PV2

Financial fraud is very common in organization (S6)

.809

 

PV3

My auditing organization has been a victim of fraud (S5)

.798

PV4

Every organization is susceptible to fraud (S7)

.769

A1

Forensic accounting is more useful than financial accounting (S12)

.794

Factor 4

Awareness (A)

12.629

.827

A2

Forensic accounting is related to fraud prevention and detection (S1)

.793

A3

The importance of forensic accounting techniques has increased in the past few years (S2)

.792

PR1

Awareness of forensic accounting will increase the cost of the audit (S16)

.760

Factor 5

Perceived Risk (PR)

8.082

.794

PR2

It will invite competition among audit firms, legal firms, and specialized forensic audit firms (S17)

.773

PR3

Forensic accounting cannot help in stolen resources (S19)

.711

M1

We use forensic accounting to reduce fraudulent activities (S4)

.813

 

 

 

 

M2

Forensic accounting can bridge the expectation gap between auditors and investors (S21)

.770

Factor 6

Motivation (M)

5.691

.883

Behavioral Intention

Easily Identify red flags (Fraud Signals)

.840

Factor 1

Behavioral Intention to use forensic accounting (BI)

65.067

.811

Proper implementation of forensic accounting techniques

.810

Identify best-suited fraud detection and prevention techniques for     auditing organization

.7890

BI1

Helpful for the proper implementation of lawful activities

.771

Increase investigative skills

.700

Reduce fictitious transactions

.735

Factor 2

Risk calculation will help in locating fraud

.782

 

Auditors will take a different approach in verifying books of accounts

.720

BI2

Strengthen the credibility of financial reporting

.810

Knowledge of forensic accounting strengthens fraud control in the business

.857

Factor 3

BI3

A proper review of management policies

.729

Segregation of accounting function

.753

Provide assistance in cross-examination

.818

Factor 4

BI4

Forensic accounting would go a long way in the fight against fraud

.888

Source Researcher’s Own Created Through Various Factor Analysis Tables

 

                                                                      

5. CONFIRMATORY FACTOR ANALYSIS

The main objective of CFA is to verify whether data fit the hypothesized measurement model. It is established on specific theories. This method allows us to determine if the observed variables represent a smaller set of constructs.

 

 

·        Evaluation of the Overall Measurement Model

Items can only weight on one construct (i.e., there is no cross-loading), latent constructs may correlate, and all factor loadings for this developed measurement model are exempt (i.e., estimated). The model's seven structures are depicted in the Figure. The constructs are awareness of forensic accounting (A), perceived benefits (PB), perceived risks (PR), perceived severity of fraud (PS), perceived susceptibility/vulnerability (PV), and behavioral intention to use forensic accounting (BI). Variables A1, A2, and A3 are linked to the construct A. The term PB is linked to four different variables: PB1, PB2, PB3, and PB4.

Besides, four variables (PS1, PS2, PS3, and PS4) show the construct PS, while four (PV1, PV2, PV3, and PV4) are moderately connected with the construct PV. Three variables (PR1, PR2, and PR3) are related to the construct PR. The construct BI is finally described by the four variables BI1, BI2, BI3, and BI4. Additionally, each measurement variable includes a corresponding error term, abbreviated ‘er.’

  Figure 2

Figure 2 Overall Measurement Model

Source Researchers’ Development Through SPSS AMOS 28

 

The unstandardized regression weights corresponding to the observed and unobserved variables are displayed in the Figure. It also displays the co-variances and variances. The figure shows, for example, that the associated unstandardized regression weight of A1 on A is β= 0.94 and A2 on A is β = 0.98, and so on

The above path model needs to be tested, whether it is fit or not. For this purpose, some parameters are measured. The likelihood ratio chi-square (χ2) statistic, most critical measure for overall fit, is only statistically based measure of goodness of fit in structural equation modeling Jöreskog and Sörbom (1993). Chi-square test is usually used to reject null hypotheses and support the alternative, i.e., there is a significant difference between observed and expected. Hence, the enormous value of Chi-square is considered good.

According to Ho (2006), when structural equation modeling is applied, the researcher should be looking for significant differences in the actual and predicted matrices. The researcher is not trying to reject null hypotheses in this instance. Therefore, the model's fit will be better if chi-square value is smaller than actual matrices. The chi-square will increase as the sample size increases because it is sensitive to variations from multivariate normality in observed variables. So, Chi-Square should be used in conjunction with other goodness-of-fit metrics.

CMIN/DF (Chi-Square Fit Statistics/Degree of Freedom), GFI (Goodness-of-Fit Index); AGI (Adjusted Goodness of Fit); RMR (Root Mean Square Residue); NFI (Normed Fit Index; CFI (Comparative Fit Index); PNFI (Parsimonious Normed Fit Index); and RMSEA (Root Mean Square Error of Approximation. McDonalds and Ho (2002) discovered that the most frequently reported fit indices are CFI, GFI, and NFI (TLI). Hu and Bentler (1999) recently developed the Threshold level. They suggested a two-index presentation format. It includes SRMR, NNFI (TLI), RMSEA, or CFI. Kline (2005) strongly advocates for Chi-Square test, RMSEA, CFI, and RMR. Boomsma (2000) offers similar recommendations but advises that the multiple squared correlations of each equation be reported.

Table 2

Table 2 Cutoff criteria for Fitness of the Model

Measures

Terrible

Acceptable

Excellent

Authors’ Reference

CMIN/DF

>5

>3

>1

Hu and Bentler (1999)

GFI

<.90

≥.90

≥.95

Shevlin and Miles (1998)

AGFI

<.90

≥.90

≥.95

Tabachnick and Fidell (2007)

RMR

>.08

<.08

<.05

Hu and Bentler (1999)

NFI

<.90

≥.90

≥.95

Hu and Bentler (1999)

NNFI(TLI)

<.90

≥.90

≥.95

Hu and Bentler (1999)

CFI

<.90

≥.90

≥.95

Hu and Bentler (1999)

PNFI

<.50

≥.50

≥.90

Mulaik et al. (1989)

RMSEA

>.08

>.05

<.05

Hu and Bentler (1999)

Source Researchers Collected Values from Various Sources

 

There are no universal rules to assess model fit. Therefore, it’s essential to report diversity of indices because contrasting indications can emulate distinctive conditions of model fit Crowley and Fan (1997).

Table 3

Table 3 Comparison of Threshold Values with the Default Model

Measures

Threshold Level

Default Model

Remark

CMIN/DF

>3

3.503

Accepted

GFI

≥.90

.902

Accepted

AGFI

≥.90

.873

Rejected

RMR

<.08

.090

Rejected

NFI

≥.90

.884

Rejected

NNFI(TLI)

≥.90

.897

Rejected

CFI

≥.90

.914

Accepted

PNFI

≥.50

.740

Accepted

RMSEA

>.05

.065

Accepted

Source Researchers Calculation Through SPSS AMOS 28

   

From the above table, it is clear that the model fits 5 criteria and is rejected in 4. The acceptance rate is more than 50%, but some modifications also allowed for fitting the model and completing most criteria. So, the researcher accepts the modifications. The following table shows the modifications allowed in the path model.

·        Modification Indices

Following table indicates the modification allowed in the measurement model.

Table 4

Table 4 Modification Indices

 

 

 

M.I.

Par Change

e22

<-->

PS

19.053

.110

e22

<-->

PB

29.223

.128

e19

<-->

PV

17.166

-0.128

e19

<-->

PS

30.428

.143

e19

<-->

PR

13.512

.078

e19

<-->

PB

34.997

.143

e19

<-->

e22

45.892

.236

e13

<-->

PR

12.238

.059

e13

<-->

e19

13.331

.105

e11

<-->

A

18.92

.092

e10

<-->

e22

10.178

.077

e6

<-->

e19

15.314

.093

e3

<-->

e10

10.787

-0.069

e3

<-->

e6

15.693

-0.080

e2

<-->

e11

23.801

.157

Source Researchers' Calculation Through SPSS AMOS 28

 

·        Model fit after Modifications

After doing the above modification, the researcher develops the following Overall Path Model.

Figure 3

Figure 3 Revise the Overall Measurement Model After Modification Indices

Source Researchers' Development Through SPSS AMOS 28

 

The default model is compared with threshold levels to check whether the model is fit or not.

Table 5

Table 5 Comparison of Threshold Level with Default Model

Measures

Threshold Level

Default Model

Remark

CMIN/DF

>3

2.819

Accepted and improved from earlier

GFI

≥.90

.925

Accepted and improved from earlier

AGFI

≥.90

.900

Accepted and improved from earlier

RMR

≤.08

.088

Accepted and improved from earlier

NFI

≥.90

.910

Accepted and improved from earlier

NNFI(TLI)

≥.90

.925

Accepted and improved from earlier

CFI

≥.90

.939

Accepted and improved from earlier

PNFI

≥.50

.735

Accepted and improved from earlier

RMSEA

≥.05

.055

Accepted and improved from earlier

Source Researchers' Calculation Through SPSS AMOS 28

                              

CMIN/DF (chi-square fit statistics/degree-of-freedom= 628.701/223) is 2.819, which shows an improvement over earlier. The major consideration for overall fit is the likelihood ratio of the Chi-square (χ 2) statistic. In structural equation modeling, it is also the solitary goodness of fit statistic Jöreskog and Sörbom (1993). When there is a substantial difference amidst observed and expected. Chi-Square test is usually implemented to reject H0 and support the alternative. The greater the chi-square value in this situation much better. Moreover, the researcher will be fronting since significant disparity amidst predicted as well as actual matrices when chi-square is used in structural equation modeling Ho (2006). Here, the researcher is not trying to reject null hypotheses. Therefore, the model's fit would better if Chi-Square value is smaller than actual matrices.

The Chi-square is conscious to observe variable deviation from multivariate normality and increases as sample size rises. So, Chi-Square should be used in combination with other goodness-of-fit metrics. There are more metrics available, including GFI and RMSEA. GFI and AGFI are measures of how well a model fits compared to no model Joreskog and Sorbom, 1989, Ho (2006). It is not based on statistics. It has a scale from 0 to 1, with 0 denoting a bad fit and 1 denoting a perfect fit. The table also shows the GFI value of .925 and AGFI Value of .900, which indicate a better fit. Data from current study fit the model perfectly. RMR is square root of the difference in the residuals from sample covariance matrix compared to hypothesized covariance model. Scales of each indicator determine RMR. If a questionnaire has items ranging from 1-5 or when it ranges from 1 to 7, it will be vice versa. Then, it cannot be easy to interpret the RMR Kline (2005). This problem is solved by the Standardized RMR (SRMR). RMR can give the best results because the study uses a 5-point Likert scale ranging from 1-5. RMR values ranging from 0-1 are good for a model's fit. Values closer to 0 indicate a better fit. RMR is 0.088, which indicates a good model. NFI (Normal Fit Index) evaluates model by comparing its value to null model. This statistic has a range of values amidst 0 to 1. Bentler and Bonett (1980) recommend values higher than 0.90 as sign of a good fit. The NFI value of the current study is .910. It clearly shows model fit. NFI has a major flaw. It is sensitive to sample size and underestimates fit for samples smaller than 200 Mulaik et al. (1989), Bentler (1990) and is not recommended to be solely relied on Kline (2005). The NNFI (Non-Normed Fit Index) is created to address this problem. It is also known as TLI-Tucker-Lewis Index. LTI index prefers simple models. However, NNFI can have a problem with its value exceeding 1, making it difficult to understand Byrne (1998). It is best to have NNFI's value >=.90. The table shows that the NNFI value is .925, which is acceptable. CFI is a modified version of the NFI that considers sample size. It performs well even with small sample sizes Tabachnick and Fidell (2007). This index is now included in all SEM programs. It is one of the most commonly reported fit indices because it is the least affected by sample size Fan et al. (1999). This statistic is similar to the NFI. Its values range from 0.0 to 1.0, with values closer than 1.0 meaning a good fit. Overall path model fulfills the cut-off criteria of CFI >= 0.90. PNFI adjusts for degrees of freedom. It is based on the NFI. The PNFI index severely penalizes model complexity, resulting in parsimony-fit index values significantly lower than other goodness-of-fit indices. Mulaik et al. (1989) note that parsimony fit index values can be obtained within the .50-.80 range, while other goodness-of-fit indices may achieve values exceeding .90. The model also has PNFI .735, a good fit model symptom. RMSEA measures discrepancy per degree that takes into account error in population approximation. Browne and Cudeck (1993), as cited in Ho (2006), (p. 285), state that RMSEA can be used to determine ‘How well the model with unknown but closer values would fit the population covariance matrix if measured’ Values ranging between 0.05 and 0.08 indicate acceptable fit, and values ranging from 0.08 and 0.10 indicate poor fitting. The RMSEA value of the measurement model in the current study is 0.055. The model is therefore acceptable.

·        Unstandardized and Standardized Regression Weights

After satisfying the criteria, it is time to assess unstandardized regression weights and standardized regression weights derived from the maximum likelihood procedure. Each unstandardized regression coefficient is associated with the regression weights table by the critical ratio (C.R.) value and standard error (S.E). Expected variation of an estimated coefficient is standard error. It quantifies how independent variables accurately predict the dependent variables Ho (2006). All S.E. scores, in this case, are minimal. They can range from 0.043 to 0.061.

Table 6    

Table 6 Unstandardized and Standardized Regression Weights

Estimate

S.E.

C.R.

P

Label

Estimate

A3

<---

A

1.000

A3

<---

A

.775

A2

<---

A

.939

.060

15.55

***

par_1

A2

<---

A

.653

A1

<---

A

.975

.054

17.951

***

par_2

A1

<---

A

.763

PB4

<---

PB

1.000

PB4

<---

PB

.818

PB3

<---

PB

.861

.051

16.944

***

par_3

PB3

<---

PB

.704

PB2

<---

PB

.86

.051

16.994

***

par_4

PB2

<---

PB

.704

PB1

<---

PB

.861

.054

15.852

***

par_5

PB1

<---

PB

.661

PR3

<---

PR

1.000

PR3

<---

PR

.822

PR2

<---

PR

.902

.045

20.095

***

par_6

PR2

<---

PR

.780

PR1

<---

PR

1.077

.056

19.164

***

par_7

PR1

<---

PR

.734

PS1

<---

PS

1.000

PS1

<---

PS

.796

PS2

<---

PS

1.005

.053

19.043

***

par_8

PS2

<---

PS

.764

PS3

<---

PS

.971

.054

18.114

***

par_9

PS3

<---

PS

.736

PS4

<---

PS

.920

.050

18.505

***

par_10

PS4

<---

PS

.750

PV1

<---

PV

1.000

PV1

<---

PV

.866

PV2

<---

PV

.947

.045

20.914

***

par_11

PV2

<---

PV

.800

PV3

<---

PV

.885

.043

20.507

***

par_12

PV3

<---

PV

.783

PV4

<---

PV

.224

.046

4.825

***

par_13

PV4

<---

PV

.195

BI4

<---

BI

1.000

BI4

<---

BI

.753

BI3

<---

BI

1.056

.061

17.308

***

par_14

BI3

<---

BI

.736

BI2

<---

BI

.172

.055

3.125

0.002

par_15

BI2

<---

BI

.133

BI1

<---

BI

.931

.054

17.129

***

par_16

BI1

<---

BI

.728

M1

<---

M

1.000

M1

<---

M

.758

M2

<---

M

1.045

.054

19.397

***

par_17

M2

<---

M

.838

Source Researchers' Calculation Through SPSS AMOS 28

                      

Critical ratio (CR) is used to test the implication of the path coefficient. Path coefficient can be captured by dividing parameter estimates with corresponding standard error. It is located as z Ho (2006). So, the extreme value of CR can be ± 1.96, and its significance path is p < 0.05. Unstandardized regression weights fulfill this criterion in above table. Here, the critical ratio and significant value are > ± 1.96, p < 0.05, except for those parameters where the value is fixed to 1.

Standardized regression weights measure the standard deviation of dependent variables. It estimates how a dependent variable will transit when one standard deviation increases in the independent variable. The standardized regression estimate is almost more than .6, which indicates the goodness of model fit.

 

6. Evaluation OF THE STRUCTURAL MODEL (SEM)

After the modified measurement model is confirmed, fit of structural path model is checked. Structural modeling is used to know the causal relationship between the constructs. So, it is also called a casual model.

The graphical display of the structural model's findings, following figure, shows the unstandardized regression weights for each association as well as the accompanying variances and covariance. The figure, for instance, shows that the effect of Awareness (A) on Perceived Benefits (PB) is related to unstandardized regression weight β = 0.46, whereas that of A on Perceived Risks (PR) is β = 0.89. Variations for perceived fraud severity (PS) and perceived fraud susceptibility (PV) are also 0.61 and 0.19, respectively. Also, following figure further reveals that unstandardized regression weight of the influence of PB on M is β = 0.05. Similarly, variance for Perceived Severity of fraud, PS and Perceived Vulnerability/Susceptibility to fraud PV are 0.04 and 0.35 respectively. However, PR negatively influences M as β = -0.03.

Figure 4

Figure 4 Structural Equation Model

Source Researchers' Development Through SPSS AMOS 28

 

The structural model also needs to complete the criteria. The following table shows the cut-off criteria for the structural model:

Table 7

Table 7 Comparison of Threshold level with the Default Model

Measures

Threshold Level

Default Model

Remark

CMIN/DF

>3

3.756

Accepted

GFI

≥.90

0.882

Rejected

AGFI

≥.90

0.854

Rejected

RMR

<.08

0.099

Rejected

NFI

≥.90

0.869

Rejected

NNFI(TLI)

≥.90

0.886

Rejected

CFI

≥.90

0.9

Accepted

PNFI

≥.50

0.765

Accepted

RMSEA

≥.05

0.068

Accepted

Source Researchers' Calculation Through SPSS AMOS 28

    

From the above table, it is clear that the model fits 4 criteria and is rejected in 5. The rejection rate is more than 50%, but some modifications also allowed for fitting the model and completing most of the criteria. So, the researcher accepts the modifications. The following table shows the modifications allowed in the path model.

·        Modification Indices

Table 8 shows the modification allowed to fit the structure model.

Table 8                              

Table 8 Modification Indices

M.I.

Par Change

e28

<-->

e27

10.039

0.081

e26

<-->

e28

57.501

0.149

e22

<-->

A

40.044

0.211

e22

<-->

e28

39.876

0.169

e22

<-->

e26

51.122

0.18

e19

<-->

A

102.67

0.347

e19

<-->

e28

57.113

0.207

e19

<-->

e31

14.789

0.082

e19

<-->

e26

66.499

0.211

e19

<-->

e22

46.858

0.239

e13

<-->

e31

11.33

0.058

e13

<-->

e19

16.748

0.118

e11

<-->

e28

14.493

-0.092

e11

<-->

e26

17.102

-0.094

e10

<-->

e22

11.219

0.081

e9

<-->

e26

10.56

0.056

e6

<-->

e27

11.292

0.076

e6

<-->

e19

20.091

0.108

e4

<-->

e28

11.603

0.057

e4

<-->

e19

11.422

0.074

e3

<-->

e26

18.531

-0.095

e3

<-->

e10

12.855

-0.077

e3

<-->

e6

18.937

-0.091

e2

<-->

e11

28.588

0.173

e2

<-->

e10

10.087

-0.081

e2

<-->

e5

12.108

-0.086

Source Researchers' Calculation Through SPSS 28

 

·        Model Fit After modifications

After doing the above modification, the researcher develops the following Structural Model.

Figure 5

A diagram of a complex structure

AI-generated content may be incorrect.

Figure 5 Structural Equation Model After Modifications

Source Researchers' Development Through SPSS AMOS 28

 

The default model is compared with the threshold levels to check whether the model is fit or not.

Table 9

Table 9 Comparison of Threshold Value with the Default Model

Measures

Threshold Level

Default Model

Remark

CMIN/DF

>3

2.520

Accepted and improved from earlier

GFI

≥.90

.926

Accepted and improved from earlier

AGFI

≥.90

.905

Accepted and improved from earlier

RMR

≤.08

.064

Accepted and improved from earlier

NFI

≥.90

.915

Accepted and improved from earlier

NNFI(TLI)

≥.90

.937

Accepted and improved from earlier

CFI

≥.90

.946

Accepted and improved from earlier

PNFI

≥.50

.782

Accepted and improved from earlier

RMSEA

≥.05

.050

Accepted and improved from earlier

Source Researchers' Calculation Through SPSS AMOS 28

   

After structural model fit, it is necessary to begin by assessing unstandardized regression weights and standardized regression weights generated from maximum likelihood procedure.

·        Unstandardized and Standardized Regression Weights

The standard error and critical ratio values are listed next to each estimated unstandardized regression coefficient in regression weights table. Predicted variation of the calculated coefficient is represented by the standard error of the coefficients. It measures how well predictor factors performed in predicting endogenous variable Ho (2006). Usefulness of S.E. is that predictor variable is more effective smaller it is. All of the S.E. scores in this instance are low. They vary from 0.041 to 0.061. The critical ratio, which is calculated by dividing the parameter estimate by the corresponding standard error, evaluates the relevance of the route coefficient. It is generally distributed as z Ho (2006). Consequently, a critical ratio that is significantly different from ± 1.96 indicates a significant path (p < 0.05).

Table 10

Table 10 Unstandardized Regression Weights and Standardized Regression Weights

Estimate

S.E.

C.R.

P

Label

Estimate

PB

<---

A

.424

.041

10.416

***

par_18

PB

<---

A

.506

PS

<---

A

.576

.047

12.223

***

par_19

PS

<---

A

.606

PV

<---

A

.158

.047

3.398

***

par_20

PV

<---

A

.160

PR

<---

A

.880

.049

17.99

***

par_22

PR

<---

A

.940

M

<---

PB

.057

.064

.890

.373

par_23

M

<---

PB

.054

M

<---

PR

-0.03

.055

-0.532

.595

par_24

M

<---

PR

-0.032

M

<---

PV

0.348

.043

8.130

***

par_25

M

<---

PV

.392

M

<---

PS

.042

.061

.679

.497

par_26

M

<---

PS

.045

BI

<---

M

.947

.057

16.633

***

par_21

BI

<---

M

.973

A3

<---

A

1.000

A3

<---

A

.766

A2

<---

A

.968

.061

15.887

***

par_1

A2

<---

A

.667

A1

<---

A

.937

.054

17.413

***

par_2

A1

<---

A

.728

PB4

<---

PB

1.000

PB4

<---

PB

.834

PB3

<---

PB

.805

.046

17.394

***

par_3

PB3

<---

PB

.694

PB2

<---

PB

.942

.048

19.429

***

par_4

PB2

<---

PB

.767

PB1

<---

PB

.815

.050

16.320

***

par_5

PB1

<---

PB

.658

PR3

<---

PR

1.000

PR3

<---

PR

.817

PR2

<---

PR

.842

.044

18.960

***

par_6

PR2

<---

PR

.735

PR1

<---

PR

1.117

.057

19.633

***

par_7

PR1

<---

PR

.762

PS1

<---

PS

1.000

PS1

<---

PS

.792

PS2

<---

PS

1.089

.055

19.718

***

par_8

PS2

<---

PS

.795

PS3

<---

PS

.976

.054

18.188

***

par_9

PS3

<---

PS

.736

PS4

<---

PS

.923

.050

18.541

***

par_10

PS4

<---

PS

.749

PV1

<---

PV

1.000

PV1

<---

PV

.871

PV2

<---

PV

.940

.045

20.813

***

par_11

PV2

<---

PV

.798

PV3

<---

PV

.879

.043

20.460

***

par_12

PV3

<---

PV

.783

PV4

<---

PV

.134

.042

3.192

.001

par_13

PV4

<---

PV

.115

BI4

<---

BI

1.000

BI4

<---

BI

.753

BI3

<---

BI

1.057

.061

17.289

***

par_14

BI3

<---

BI

.736

BI2

<---

BI

.182

.056

3.261

0.001

par_15

BI2

<---

BI

.141

BI1

<---

BI

.927

.054

17.024

***

par_16

BI1

<---

BI

.725

M1

<---

M

1.000

M1

<---

M

.756

M2

<---

M

1.034

.054

19.323

***

par_17

M2

<---

M

.827

Source Researchers' Calculation Through SPSS AMOS 28

                      

According to this criterion, Table's findings show critical ratio test of all the unstandardized regression weights are positive (> ± 1.96, p < 0.05) (except for those parameters that were fixed to 1). Standardized regression weight in above table indicates that awareness is positively related to PB, PS, PV, and PR (β = 0.506, .606, .160, .940, respectively).

Hence, more awareness will promote a more positive perception of forensic accounting. It, therefore, implies that greater awareness of forensic accounting, higher perceived benefits of using forensic accounting services. Similarly, perceived severity of fraud positively relates to awareness (β=0.606). Therefore, auditors will also intend to use forensic accounting services as the perceived severity of fraud increases. Furthermore, perceived susceptibility/vulnerability to fraud is significantly and positively related to awareness (β = 0.160). Hence, higher perceived susceptibility to fraud, more auditors will be aware of forensic accounting services. Moreover, awareness is positively related to perceived risk or barrier to using forensic accounting services (β =.940). Thus, there is more awareness and knowledge about the barriers and risks in implementing forensic accounting services. When Auditors perceive fewer risks or barriers in using forensic accounting, they will go for it. The risks or barriers here may be in terms of cost of acquiring services of expert forensic accountant and more competition among audit firms for providing forensic accounting services, which may hamper the quality of service, as forensic accounting does not take any guarantee of payback of stolen money, but, if the forensic accountant is called upon the reputation of the organization will be on the stake as investors will think something wrong is happening in the organization, so, the investment will reduce. Therefore, awareness regarding perceived barriers and risks can be used to overcome these obstacles.

The standardized regression weights in above table further reveal that the perceived benefits of using forensic accounting are positively related to motivation (β = 0.054). Additional advantages of forensic accounting encourage auditors to adopt these services. However, perceived risks negatively motivate to use of forensic accounting as Perceived Risk is negatively related to motivation (β = -0.032). It means that when the auditors are aware of the risks that cannot be controlled, it will negatively motivate them not to use forensic accounting. Perceived susceptibility/vulnerability and perceived severity also positively impact motivation as β = .392, and .045 respectively. Finally, motivation positively impacts behavioral intention to use forensic accounting services as β = .973, which is the highest and near 1.

·        Squared Multiple Correlations

Having assessed regression and standardized regression weights, one can now examine explanatory powers of the model. Falk and Miller (1992) suggest that minimum coefficient of determination, R2, should be 0.10 for a model to be considered influential. Below table shows squared multiple correlations of structural model. The Table 12 presents coefficients of determination and R2 of all endogenous constructs.

Table 11

Table 11 Squared Multiple Correlations of the Structural Model

                   

PV

PS

PR

PB

M

BI

M2

M1

BI1

Estimate

0.026

0.368

0.884

0.256

0.163

0.947

0.685

0.572

0.526

BI2

BI3

BI4

PV4

PV3

PV2

PV1

PS4

PS3

Estimate

0.02

0.542

0.568

0.027

0.613

0.637

0.759

0.561

0.542

PS2

PS1

PR1

PR2

PR3

PB1

PB2

PB3

PB4

Estimate

0.631

0.628

0.581

0.541

0.667

0.433

0.589

0.482

0.696

A1

A2

A3

Estimate

0.53

0.444

0.587

Source Researchers Calculation Through SPSS AMOS 28

                                                                                     

Table 12

Table 12 Summary of coefficient of determination R2 for endogenous constructs

Construct

R2

Perceived Susceptibility/Vulnerability

.026

Perceived Severity

.368

Perceived Risk

.884

Perceived Benefits

.256

Motivation

.163

Behavioral Intention

.947

Source Researchers' Calculation Through SPSS AMOS 28

 

Above table shows all R2 values that are above the minimum requirement of 0.10. Above all, model's overall coefficient of multiple determination (R2) value is 0.947. It means that data fit the model well, and model explains 94.70 percent of deviation from the impulsion to adoption of forensic accounting services. The value is much greater than the recommendations of Muthusamy et al. (2010) and Efiong  and Joel (2013) in which case the model was able to explain 39.50% and 68.20% of the total variance. For this study, unexplained 0.053 percent variance in the behavioral intention of using forensic accounting services is attributed to residual. Hence, a relatively high percentage of auditors intend to use forensic accounting in fraud prevention or detection.

 

7. TEST OF MODEL HYPOTHESIS

Hypothesis 1: Awareness of forensic accounting has an impact on the perceived benefits of using it against fraud.

H0: Awareness of forensic accounting has a negative impact on the perceived benefits of using it against fraud.

H1: Awareness of forensic accounting has a positive impact on the perceived benefits of using it against fraud.

The result of study shows that awareness of forensic accounting services positively influences the perceived benefits (β= 0.42) of using it. This finding is similar to that of Muthusamy et al. (2010), Efiong  and Joel (2013), and Wei et al. (2017). It, therefore, means that more auditors are aware of forensic accounting services, more they will perceive the benefits of using it in their organizations.

Hypothesis 2: Awareness of forensic accounting has an impact on the perceived risks of using it against fraud.

H0: Awareness of forensic accounting has a negative impact on the perceived risks of using it against fraud.

H1: Awareness of forensic accounting has a positive impact on the perceived risks of using it against fraud.

The result of the study shows that awareness of forensic accounting services positively influences perceived risks (β= 0.88) of using it. It means that more auditors are aware of forensic accounting services, more they will perceive risks of using them and how to handle these risks or barriers in their organizations.

Hypothesis 3: Awareness of forensic accounting has an impact on the perceived susceptibility/vulnerability of using it against fraud.

H0: Awareness of forensic accounting has a negative impact on perceived susceptibility/vulnerability of using it against fraud.

H1: Awareness of forensic accounting has a positive impact on perceived susceptibility/vulnerability of using it against fraud.

In this hypothesis, researchers test the influence of awareness on the threat perception factor, i.e., Perceived Susceptibility/Vulnerability, as β = 0.16. This finding is similar to that of Muthusamy et al. (2010), Efiong  and Joel (2013), and Wei et al. (2017). Therefore, it means that the more auditors are aware of fraud and its negative impact on the organization, the more they will use forensic accounting services.

Hypothesis 4: Awareness of forensic accounting has an impact on the perceived severity of using it against fraud.

H0: Awareness of forensic accounting has a negative impact on the perceived severity of using it against fraud.

H1: Awareness of forensic accounting has a positive impact on the perceived severity of using it against fraud.

Similarly, statistical analysis confirmed positive influence of awareness on the perceived severity of fraud as β is 0.58. Nowadays, frauds are increasing as the pandemic, and the need for more awareness arises. This finding also marked an improvement in the insignificant influence obtained by Muthusamy et al. (2010).

Hypothesis 5: Perceived benefits of forensic accounting have an impact on motivation to use it against fraud.

H0: Perceived benefits of forensic accounting have a negative impact on motivation to use it against fraud.

H1: Perceived benefits of forensic accounting have a positive impact on motivation to use it against fraud.

The overall structural model shows positive β = 0.06 with Motivation, so it can be said that perceived benefits have a positive impact on motivation to use forensic accounting services. So, H0 is not accepted.

Hypothesis 6: Perceived risks of forensic accounting have an impact on motivation to use it against fraud.

H0: Perceived risks of forensic accounting have a negative impact on motivation to use it against fraud.

H1: Perceived risks of forensic accounting have a positive impact on motivation to use it against fraud.

The figure shows negative β = -0.03 with Motivation, so it can be said that perceived risks have a negative impact on motivation to use it. So, H0 is accepted.

Hypothesis 7: Perceived susceptibility/vulnerability of forensic accounting has an impact on motivation to use it against fraud.

H0: Perceived susceptibility/vulnerability of forensic accounting has a negative impact on motivation to use it against fraud.

H1: Perceived susceptibility/vulnerability of forensic accounting has a positive impact on motivation to use it against fraud.

The overall structural model shows perceived susceptibility/vulnerability has positive β = 0.35 with motivation, so it can be said that perceived susceptibility/vulnerability positively impacts motivation to use it. So, H0 is not accepted.

Hypothesis 8: Motivation to use forensic accounting has an impact on behavioral intention to implement it for fraud prevention or detection.

H0: Motivation to use forensic accounting has a negative impact on behavioral intention to implement it for fraud prevention or detection.

H1: Motivation to use forensic accounting has a positive impact on behavioral intention to implement it for fraud prevention or detection.

Overall structural model shows motivation has a positive value of β = 0.95 with the behavioral intention to implement forensic accounting for fraud prevention or detection. So, H0 is not accepted.

 

8. CONCLUSION

Fraud is omnipresent in the corporate world. Fraud and its type have significant contribution in the severe financial crisis, and its negative consequences paralyze the economic entities all over the world. Hence, it is important to understand the nature of fraud and try to prevent before its occurrence. The traditional financial auditors are not capable enough to identify the red signals of fraudulent activities. They only come to know the fraud after its occurrence. The stakeholders expect from the financial auditors to provide them a true and fair position of the financial statement without any symptom of fraud, but the auditor’s perception is that they can provide their opinion on truthfulness; they are not trained to identify the fraud. Hence, an expectation gap is arising between auditors and stakeholders. Here, forensic accountants can play a major role to identify the fraud before its occurrence even they can assist in court. The forensic accountants not only recognize the fraud symptoms and typologies but also provide suggestions regarding human capital investment that increase employees’ sensitivity to identify the fraud and discourage the participation in financial crime.

There are many theories develop by eminent scholars which shows the factors that motivate an employee to commit fraud like fraud triangle, diamond theory of fraud, fraud pentagon, etc. This research provides new theoretical framework based on various models & theories and develop a new research model named as “Fraud Deviation Model”. The quantitative data was used to know the impact of auditor’s awareness and perception on forensic accounting. Furthermore, the gender has no association with level of awareness but the other demographic variables like age, job description, service tenure of auditor, type, nature, and turnover of the auditing organization have significant and positive relationships. The impact of awareness and perception on behavioral intention to use forensic accounting is analyzed with the help of structure equation modeling. The outcome shows that awareness positively impacts perceived benefits, perceived risk, perceived vulnerability/susceptibility, and perceived severity. Further, the three factors (perceived benefits, perceived vulnerability/susceptibility, and perceived severity) positively influence and motivate the use of forensic accounting, but the perceived risk negatively motivates forensic accounting. However, the negative influence of using forensic accounting is less in comparison to its positive impact. So overall, motivation creates positive behavior among auditors and organizations to use forensic accounting.

On the whole, the present research provides insights on current status of auditor’s awareness and perception on forensic accounting and its impact on behavioral intention to use forensic accounting technique as fraud detection and preventive tool. There is a need to increase level of awareness among auditors as well as top management. Forensic accounting should be part of curriculum that can help in spread out the awareness and in the aftermath promote the forensic accounting as fraud prevention and detective measure. Although forensic accounting is in its blossoming point in India but due to increasing scams and frauds it becomes a new emerging field of accounting now-a-days.

 

CONFLICT OF INTERESTS

None. 

 

ACKNOWLEDGMENTS

None.

 

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