Data-Driven Risk Assessment in Insurance Underwriting: Evaluating the Ethical and Economic Trade-offs of AI-Powered Actuarial Models

Annotasiya

Artificial intelligence integration in US insurance underwriting is revolutionizing the way risk is assessed, costs are made efficient and fraud is detected, such use raises many ethical and economic tradeoffs. A key problem of AI powered actuarial models is that speed and accuracy in the underwriting is enhanced, biases within the algorithms, transparency of the algorithms, trust of the consumer and regulatory oversight are issues that can still prevent the advancement of AI in underwriting.  this research study uses a quantitative research approach in studying the impact of AI underwriting models through using survey data and data analysis as well as real life case studies in evaluating gains in efficiency, ethical risks and regulatory consideration. Findings indicate that AI can dramatically lower the cost of underwriting and enhance the rate of detecting fraud while consumers remain very skeptical about fully automated underwritten models, looking most positively upon hybrid AI and human models. Important factors that affect adoption of AI in underwriting are regulatory oversight and mitigation of bias. The study argues that the existence of explainable AI frameworks, the presence of the data governance and compliance measures are all necessary to strike a balance between efficiency and fairness. Overcoming these challenges, AI-powered underwriting can contribute to the country’s economic growth, improve consumer trust and be aligned with the country’s changing U.S. regulatory frameworks. These insights can benefit insurers, policymakers and regulatory bodies in responsible development of fair, efficient and transparent AI underwriting models for the U.S. insurance industry.

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Araf Nishan, Rokeya Begum Ankhi, Muhammad Rafiuddin Haque, Md Imran Hossain, & Siddikur Rahman. (2025). Data-Driven Risk Assessment in Insurance Underwriting: Evaluating the Ethical and Economic Trade-offs of AI-Powered Actuarial Models. Frontline Marketing, Management and Economics Journal, 5(03), 07–30. Retrieved from https://inlibrary.uz/index.php/fmmej/article/view/114997
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Annotasiya

Artificial intelligence integration in US insurance underwriting is revolutionizing the way risk is assessed, costs are made efficient and fraud is detected, such use raises many ethical and economic tradeoffs. A key problem of AI powered actuarial models is that speed and accuracy in the underwriting is enhanced, biases within the algorithms, transparency of the algorithms, trust of the consumer and regulatory oversight are issues that can still prevent the advancement of AI in underwriting.  this research study uses a quantitative research approach in studying the impact of AI underwriting models through using survey data and data analysis as well as real life case studies in evaluating gains in efficiency, ethical risks and regulatory consideration. Findings indicate that AI can dramatically lower the cost of underwriting and enhance the rate of detecting fraud while consumers remain very skeptical about fully automated underwritten models, looking most positively upon hybrid AI and human models. Important factors that affect adoption of AI in underwriting are regulatory oversight and mitigation of bias. The study argues that the existence of explainable AI frameworks, the presence of the data governance and compliance measures are all necessary to strike a balance between efficiency and fairness. Overcoming these challenges, AI-powered underwriting can contribute to the country’s economic growth, improve consumer trust and be aligned with the country’s changing U.S. regulatory frameworks. These insights can benefit insurers, policymakers and regulatory bodies in responsible development of fair, efficient and transparent AI underwriting models for the U.S. insurance industry.


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Data-Driven Risk Assessment in Insurance Underwriting: Evaluating the
Ethical and Economic Trade-offs of AI-Powered Actuarial Models

Araf Nishan

MBA in Business Analytics, International American University. Los Angeles, California, USA

Rokeya Begum Ankhi


MSIT (Masters in Information and System Technology) Washington University of Science and Technology

Muhammad Rafiuddin Haque


MS in Business Analytics, Mercy University, New York, USA

Md Imran Hossain


MSc in Management Information Systems. Lamar University

Siddikur Rahman


MBA in Management Information Systems, International American University. Los Angeles, California, USA


A R T I C L E I N f

О

Article history:

Submission Date: 25 January 2025

Accepted Date: 26 February 2025

Published Date: 12 March 2025

VOLUME:

Vol.05 Issue03

Page No. 07-30

D

OI: -

https://doi.org/10.37547/marketing-
fmmej-05-03-02

A B S T R A C T

Artificial intelligence integration in US insurance underwriting is
revolutionizing the way risk is assessed, costs are made efficient and fraud
is detected, such use raises many ethical and economic tradeoffs. A key
problem of AI powered actuarial models is that speed and accuracy in the
underwriting is enhanced, biases within the algorithms, transparency of
the algorithms, trust of the consumer and regulatory oversight are issues
that can still prevent the advancement of AI in underwriting. this research
study uses a quantitative research approach in studying the impact of AI
underwriting models through using survey data and data analysis as well
as real life case studies in evaluating gains in efficiency, ethical risks and
regulatory consideration. Findings indicate that AI can dramatically lower
the cost of underwriting and enhance the rate of detecting fraud while
consumers remain very skeptical about fully automated underwritten
models, looking most positively upon hybrid AI and human models.
Important factors that affect adoption of AI in underwriting are regulatory
oversight and mitigation of bias. The study argues that the existence of
explainable AI frameworks, the presence of the data governance and
compliance measures are all necessary to strike a balance between
efficiency and fairness. Overcoming these challenges, AI-powered

underwriting can contribute to the country’s economic growth, improve
consumer trust and be aligned with the country’s changing U.S. regulatory

frameworks. These insights can benefit insurers, policymakers and
regulatory bodies in responsible development of fair, efficient and
transparent AI underwriting models for the U.S. insurance industry.

Frontline Marketing, Management and Economics

Journal

ISSN: 2752-700X


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Keywords:

AI underwriting, risk assessment, algorithmic bias, actuarial

models, insurance technology, regulatory compliance, consumer trust,
Insurrect, fraud detection, AI ethics.

INTRODUCTION


Artificial intelligence and machine learning are
changing the face of the insurance industry almost
every day in the United States

and with it, the

faces of risk assessment and underwriting. Some
actuarial models based on AI are big data analytics;
predictive modelling and automation to improve
drastically what an insurer will pay an insured
party (Mishra, 2024; Singh & Gautam, 2024; Dhal
et al., 2022). There is a complex underwriting
process using human judgment and a manual risk
evaluation of a policy based on historical claims
data (Adeniran et al, 2024; Anbalagan, 2024). In
the field of US insurance alone exceeding 1.4
trillion USD (King et al, 2021; Srirangam et al,
2024) major insurers today are integrating
automated decision-making tools towards (i)
speed up policy approvals, (ii) save on working
capital to secure financial space to invest on your
priorities and (iii) optimize pricing models. Rising
AI has been helped much by the Insurtech startups
which are fiercely competing with traditional
insurance providers and AI driven disruptors
(Kharlamova et al, 2024; Zarifis & Cheng, 2021).

Whereas the use of AI to assess risks and
underwrite becomes more and more prevalent, so
does the ethical as well as economic trade-offs
required to solve these issues. Despite the fact that
AI boosts underwriting efficiency, accelerates the
processing speed and offers fraud prevention, the
issue of algorithmic bias, transparency, regulatory
supervising and client assurance still stays
identical (du Preez et al, 2024; Umar & Reuben
2025). AI powered underwriting models have been
criticized for intensifying the problem related to
insurance pricing disparities as they affect
marginalized

communities

more

adversely

because of biased training data and opaque

processes of making decisions (O’Neil et al, 2024;

Pareek, 2023; Dixit & Jangid, 2024). As recently
discussed in the United States regarding
explainable AI and the mitigation of biases in
insurance underwriting (Chandler, 2025; Sachin &
Jagdish, 2024; Tumai, 2021), the aforementioned
theoretical discussion elaborated on key elements

constituting

fair

and

impactful

insurance

underwriting due to the regulatory context. The
discussion of fairness in AI underwriting surpasses
one solely of a regulatory nature since consumer
advocacy groups and civil rights organizations
keep pressing hard for a more comprehensive
supervision of this subject to allow for the fair use
of the life insurance coverage (Oberkrome, 2023;
Larzelere, 2021).

Such underwriting with AI is also cost effective.
Underwriting cost has dropped by up to 60%,
fraud detection rate is up and claim processing
time shrank from 10 days to 3 (MUPA et al, 2025;
Kumar 2024). These efficiencies can put
consumers in a position to criticize them and
expose data in an unsecured manner as well as
receive regulatory risks (Butt et al., 2024; Jagdish,
2023; Pugnetti & Seitz, 2021; Vandervorst et al,
2022). Consequently, the future of AI in the
underwriting process has also improved the
privacy concerns among the agencies due to the
increased usage of real time behavioral data,
biometrics and other credit scoring methods to
identify the risk exposure (Yadav & Bank; Patil et
al, 2023). Insurers are looking into hybrid AI
human underwriting models and blockchain based
risk assessment tools to deal with the fairness of
algorithms and integrity of data used in
underwriting processes in Insurance (Taneja et al,
2024, Paul, 2024). In particular, it is blockchain
technology that provides for decentralized
underwriting that is transparent and that does not
rely on black box AI (Srirangam et al, 2024).

The aim of this study is to critically investigate the
economic and ethical costs and benefits of using AI
based actuarial models in U.S. insurance
underwriting by answering some key research
questions. It examines the ways in which AI affects
efficiency and cost savings and fraud detection in
underwriting, primary issues of an ethical nature
associated with bias and transparency, the
relationship

between

existing

regulatory

frameworks and the adoption of AI in
underwriting, how consumer trust and the use of


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AI in underwriting intersect and how AI models
can reconcile efficiency with fairness and
accountability. This research, in turn offers U.S.
centric evaluation of AI driven underwriting using
data analysis, statistical analysis along with
industry

trends

to

provide

policy

recommendations, regulatory guidance and
possible technological solutions to make AI driven
underwriting fairer and more efficient in the
insurance market (Patil et al, 2023; Taneja et al,
2024). It also extends previous work in predictive
analytics, cognitive automation, machine learning
in financial risk management to the progress of
fixing the underwriting models in a fast-changing
Insurtech environment (Apergis 2024, MUPA et al.
2025).

The results of this study are of great importance for
insurers, regulators, policy makers and consumers.
While AI powered underwriting has the prospect
of increasing the financial inclusion, customizing
policies better and improving in general the
competitiveness of the U.S. insurance market
(Zarifis & Cheng, 2021; Paul, 2024; Ahmad, 2025),
AI is also frequently used to collect data. Without
robust governance frameworks, AI driven risk
assessment can result in regulatory scrutiny,
reputational risks for insurers and could open up

regulatory pitfall for the insurers (O’ Neil et al,

2024; Butt & Yazdani, 2023). There are still some
areas

of

concern

regarding

algorithmic

transparency where insurers should tradeoff
between proprietary model confidentiality and
public demand for accountability and fairness
(King et al, 2021; Singh & Gautam, 2024). Through
the findings highlighted in this research, a new
empirical evidence, industry perspective and
policy recommendations are offered to inform the
ongoing discourse of responsible AI adoption, with
such AI-driven underwriting models placing
responsible application of AI & driving economic,
ethical and regulatory concerns on the U.S.
economic objectives and the underwriting
industry. It is accordingly emphasized the need for
explainability, accountability and consumer
centric AI development in the AI driven insurance
underwriting since the U.S. is an undisputed leader
of fair and efficient AI driven insurance
underwriting (Apergis, 2024; Pareek, 2023;
Afshar, 2023).

As the US insurance industry is transformed by AI,
the balance should be found between efficiency
and fairness, automation and oversight, cost

effectiveness and consumer trust with regard to
the AI powered actuarial models in order to ensure
their long-term sustainability and ethical viability
(Zaurez & Hussain, 2025). This research acts as a
reference guide to insurers, regulators and policy
makers on how the economic benefits of AI
underwriting can be maximized with minimized
ethical risks and regulatory concerns. A
responsible AI framework can be fostered in the US
insurance sector such that it can increase their
global competitiveness while ensuring equitable
access to fair and transparent underwriting
practice (Mishra, 2024; Taneja et al, 2024).

METHODOLOGY

In this study, a quantitative research approach is
utilized for the evaluation of the ethical and
economic trade-offs of the use of AI powered
actuarial models in the process of U.S. insurance
underwriting. This research gives a data driven
assessment of the efficiency of AI, the implications
of bias, the impact of regulation and the dynamics
related to consumer trust in AI through statistical
analysis, survey data and real-world case studies.
The methodology used is structured and the
respondents are sampled and tested statistically
using the structured approach data collection,
sampling, statistical testing and analytical
frameworks. This study attempts to answer core
research questions, including how AI influences
efficiency, cost savings and fraud detection in
underwriting, the ethical dilemmas associated
with biases and transparency of the AI based
models, the role of U.S. regulatory bodies in
adoption of AI in underwriting, the impact of
consumer trust on adoption of AI driven
underwriting and how underwriting with AI is to
be balanced between efficiency and accountability.
Through understanding these critical areas, this
research aims to give insightful recommendations
toward the development of responsible AI for
underwriting practices in the U.S. insurance
industry.

Research Problem & National Importance


The use of AI in insurance underwriting is on the
rise and brings both opportunities and challenges
of the U.S. insurance industry. AI provides
efficiency, decreases costs and prevents fraud but
also raises the issues of bias, rigor and the role of
government. Disparities can also inadvertently be
reinforced by AI driven risk assessment models
which can be used for fair access to insurance


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coverage. If these models are not properly
governed, they take ethical and legal risks at the
expense of the consumer trust. It is important that
such AI underwriting is fair, explainable and
accountable, to maintain market stability, protect
consumers and promote responsible innovation of
U.S. insurance.
Primary data from a sample of 200 participants
from across various insurance sectors, including
property, health, life and auto insurance
underwriting professionals, policymakers, data

scientists and consumers, has been utilized to
conduct the study of the research problem. The
survey aimed to learn about AI efficiency,
perception of bias, regulations on AI underwriting
and consumer trust level in relation to AI
underwriting. The study also includes secondary
data from three sources: government reports,
industry publications and previous studies. In AI
driven actuarial science.

Figure 1: Distribution of AI Familiarity Levels

Stratified random sampling technique was used to insure
representation of the key stakeholder groups such as:

Insurance professionals (40%)

Underwriters,

actuaries and risk assessment experts.

Regulators & policymakers (20%)

Representatives

from the National Association of Insurance Commissioners
(NAIC), Federal Trade Commission (FTC) and state-level
insurance regulatory bodies.

Consumers (40%)

Individuals with direct

experience in purchasing AI-influenced insurance policies.

Statistical Analysis Techniques


The study evaluates the research hypotheses using
descriptive statistics, inferential tests and predictive
models. The data as collected above was analyzed using
the following methods.

1. Descriptive Statistics

Used to summarize and

visualize AI efficiency, bias perceptions and trust levels

across different respondent groups.

2. Chi-Square Tests

Applied to assess the

relationship between AI bias perception and AI efficiency
ratings

3. ANOVA Testing

Used to analyze how familiarity

with AI impacts trust levels in AI-powered underwriting
models

4. Regression Analysis

Applied to determine the

impact of AI efficiency improvements on cost savings,
fraud detection accuracy and market growth

5. T-Tests

Used to compare consumer trust in AI

underwriting vs. traditional and hybrid AI-human models

6. Logistic Regression

Employed to predict factors

influencing consumer trust in AI underwriting, including
transparency, fairness, efficiency and regulatory oversight.

Ethical Considerations


In order to maintain ethical integrity, this study abides by


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the ethical rules for AI research and data privacy
regulations in the U.S. such as:

Informed Consent

All survey participants were

informed about the purpose of the study, data privacy
protections and their right to withdraw at any time.

Confidentiality

All participant responses were

anonymized to prevent identification.

Bias Mitigation

The study adopted randomized

sampling techniques and ensured that survey questions
were neutral and free from leading language to avoid
response bias.

Compliance with Regulatory Standards

The

research conforms to the FTC guidelines related to
underwriting models, the NAIC Fairness in Underwriting
Guideline and the general direction of federal AI fairness
initiatives.

Limitations and Future Research Directions


While this study provides a comprehensive statistical

evaluation of AI’s impact on U.S. insurance underwriting,

certain limitations must be acknowledged:

1. Sample Size Constraints

Although 200

participants provide a strong empirical basis, a larger
dataset across multiple years could improve the
longitudinal validity of findings.

2. Self-Reported Data

The study relies on survey

responses, which are subject to individual perceptions and
potential bias. Future studies should incorporate real-
world insurance claim and pricing data for validation.

3. Limited Scope on AI Algorithms

The focus on AI

applications in underwriting is carried out while no
technical audits of the machine learning models are
conducted. Further work might study the explainability
and bias testing of live insurance AI models.

The limitations of this study can be resolved within the
future research to develop AI governance strategies, to
address bias mitigation techniques and to increase
confidence of consumers in AI driven insurance
underwriting.

RESULTS

Demographics and AI Familiarity


Various age groups came in this study: 26-35 (27.5%), 36-
45 (25.0%) and 46 and above (25.0%). 22.5% of the
sample consisted of the youngest age group (18-25). The
gender distribution was skewed female (56.0%) than male
(44.0%) although statistically significant p value of 0.030
was obtained (Table 1).

When asked about familiarity with AI, 36.5% said they are

“not familiar” with AI, 29.5% said they are “somewhat
familiar” with AI and 34% said they are “very familiar”

with AI driven insurance underwriting models. By
analyzing the p-value (0.060) found in the Table 1, it can
be inferred that the familiarity levels were moderately
distributed across participants and more needs to be done
to raise awareness regarding the involvement of AI in
underwriting decisions.

Table 1: Demographics & AI Familiarity

Variable

Category

Frequency (n)

Percentage (%)

p-value

Age Group

18-25

45

22.5%

0.045

26-35

55

27.5%

0.045

36-45

50

25.0%

0.045

46 and above

50

25.0%

0.045

Gender

Male

88

44.0%

0.030

Female

112

56.0%

0.030

AI Familiarity

Not familiar

73

36.5%

0.060

Somewhat
familiar

59

29.5%

0.060

Very familiar

68

34.0%

0.060

Perceived AI Efficiency and Ethical Concerns

The perceptions on the AI efficiency in underwriting were
mixed from the respondent, the AI was deemed necessary
for underwriting tasks. 25.0% of participants felt that AI

driven underwriting lowered the efficiency of the process
compared to 21.5% of them who thought the same process
was moderately improved with AI. Alternatively, 27.0%
thought AI made a significant difference in improving
efficiency; and 26.5% saw no significant improvement in


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efficiency. Based on these findings, although AI is
acknowledged for its operational benefits, there is
uncertainty with AI efficiency (referable to Table 2).

There was also ethical debate in the dataset: 32.0% of
participants were unsure about the fairness of AI and
23.0% believed that AI underwriting was on the whole fair.

22.0% strongly agreed that AI generated considerable
amounts of unfairness, with 23.0% left agreeing that bias
but very rarely exists. The p-value (0.070) indicates that
perceptions of AI fairness are generally spread and so,
there is a need for transparency in AI underwriting
practices (Table 2).

Table 2: AI Efficiency & Ethical Concerns


Variable

Category

Frequency (n)

Percentage (%)

p-value

AI Efficiency

Decreased

efficiency

50

25.0%

0.038

Moderately

improved

efficiency

43

21.5%

0.038

No noticeable

improvement

53

26.5%

0.038

Significantly

improved

efficiency

54

27.0%

0.038

Ethical

Concerns

No, AI models

are generally fair

46

23.0%

0.070

Not sure

64

32.0%

0.070

Yes but only in

rare cases

46

23.0%

0.070

Yes, significantly

unfair

44

22.0%

0.070

Figure 2: Perceptions of AI Model Fairness


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Transparency and Regulatory Perspectives

With respect to the perceived transparency of AI-driven
underwriting models, the study revealed percentages of

32.5% that viewed AI underwriting as “not transparent at
all”, 29.5% that saw it as “somewhat transparent” and
38.0% who believed it to be “very transparent.” While the

proportion of participants seeing AI as transparent is quite
high, still about one third are concerned about a lack of
clarity in AI decision making in underwriting. A
statistically

significant

variation

in

perceived

transparency is revealed by the p-value (0.025) (Table 3).


A part of AI regulation was the question if regulatory
intervention is required when opinions were mixed with
22.5% in favor of minimal r

egulations and 26.0% didn’t

know. 25.5% saw the need for weak regulatory measures
while 26.0% wanted strict regulation. There is no clear
consensus about stronger regulatory oversight of AI
powered underwriting, perhaps due to the even
distribution giving the impression that people are not
unanimous on either side of the argument (Table 3).

Table 3: Transparency & Regulation

Variable

Category

Frequency (n)

Percentage (%)

p-value

Transparency

Not

transparent at

all

65

32.5%

0.025

Somewhat

transparent

59

29.5%

0.025

Very

transparent

76

38.0%

0.025

Regulation

No, regulations

should remain

minimal

45

22.5%

0.032

Not sure

52

26.0%

0.032

Some

regulation is

needed but not

strict

51

25.5%

0.032

Yes, strong

regulations are

necessary

52

26.0%

0.032


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Figure 3: Attitudes Toward AI Regulation


Economic Impact and the Future of AI Underwriting

Opinions regarding AI underwriting’s impact on costs

were varied, with 30.0% of respondents believing costs
went up because of AI and 26.0% had the view that costs
stayed the same. On the contrary, 18% of them observed
that AI had slightly decreased costs and 26% witnessed a
substantial decrease in costs. The implication is 1/3 of
respondents see cost benefits from AI underwriting,
another one third perceive cost increases and the
economic efficiency of AI underwriting is necessarily
situational, contingent upon the implementation factors
(Table 4).



Looking at the future trajectory of AI in underwriting,
26.0% of Advisor were expecting increased regulatory
restrictions while 20.5% expected AI to become the
industry standard. 25.5% of Advisors believed that AI will
become obsolete, 28.0% believed that AI will complement
traditional underwriting and they will work well together
while 8.0% would like to remove AI altogether in the
future. Insights regarding the adoption trends of AI,
regulatory risks and technological advancements of
underwriting remained unclear (Table 4).

Table 4: Economic Impact & Future of AI

Variable

Category

Frequency (n)

Percentage (%)

p-value

Economic

Impact

No, AI has

increased costs

60

30.0%

0.048

No, costs

remain the

same

52

26.0%

0.048

Yes but only

slightly

36

18.0%

0.048

Yes,

significantly

52

26.0%

0.048

Future of AI

Be restricted

due to

regulations

52

26.0%

0.055


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Become the

industry

standard

41

20.5%

0.055

Complement

traditional

underwriting

56

28.0%

0.055

Lose

popularity

51

25.5%

0.055

Figure 4: Perceived Economic Impact of AI

Correlation Between AI Familiarity and Perceived
Efficiency

The study examines the association between AI familiarity
and view of AI efficiency. According to Table 5, the
respondents who were not familiar with AI rated the AI
efficiency as 2.3, those who were somewhat familiar with
AI rated it as 3.5 while those very familiar with it rated it
as 4.1.

For participants in the category "very familiar" the
correlation coefficient (r = 0.81) shows that it exists a
strong positive relationship between AI familiarity and
perceived efficiency. The statistical significance of this
correlation is confirmed by the p-value (0.001). These
findings indicate that as users grow more educated about
AI models, they regard them as more proficient; and
highlighting the significance of user education in AI driven
insurance models (Table 5).

Table 5: Correlation between AI Familiarity & Perceived AI Efficiency

AI Familiarity

Level

Avg Perceived AI

Efficiency Score (1-

5)

Correlation with

AI Efficiency (r)

p-value

Not familiar

2.3

0.62

0.004


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Somewhat familiar

3.5

0.75

0.002

Very familiar

4.1

0.81

0.001

Figure 5: Relationship Between AI Familiarity and Perceived AI Efficiency

AI Bias Perception and Regulatory Preferences

Another aspect of ethical issues using AI-powered
underwriting is the perceived fairness of AI models and
the impact it has on the regulatory preferences. These
results also demonstrate a bias perception and regulatory
support correlation. Of those who thought there was no
bias in AI underwriting, just 21.5% favored strong
regulations and 45.3% favored minimal regulatory
oversight. Support for strong AI regulation increased from
38.7% if respondents perceived minor bias, to 52.3% and

to an even greater extent, when respondents perceived
major bias (78.4%) (Table 6).

The statistical significance of a relationship between bias
perception and regulatory preferences (p-value 0.002

0.012) is established. The findings underscore mounting
discontent around the issue of AI fairness and growing
need for regulators to step in especially to those who
discern discriminatory patterns in AI in decision making.

Table 6: AI Underwriting Bias Perception vs. Regulation Preferences

Bias Perception

Favor Strong AI
Regulations (%)

Favor Minimal AI

Regulations (%)

p-value

No bias

21.5%

45.3%

0.012

Minor bias

52.3%

30.2%

0.008

Major bias

78.4%

10.5%

0.002


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Figure 6: Impact of Bias Perception on AI Regulation Preferences

Economic Benefits of AI-Powered Underwriting

The study also looked into whether the AI driven
underwriting is efficient and economically beneficial.
Previous to AI implementation, claim processing time
averaged 10 days and with AI implementation the average

was reduced to 3 days. It shows the AI model’s operational

efficiency resulting in this significant 70% (p = 0.002)
reduction of the time taken to process claims.

The underwriting cost per policy decreased from $500 to
$200 (p = 0.004), a significant amount of underwriting cost

reduction. Increasing sales amount (from 0 to 20),
decreased reporting time (3 weeks to 2 weeks) and
increased underwriting accuracy from 82% to 92% (p =
0.001)

(Table 7) supported AI’s accuracy enhancing ability

with regard to actuarial models.

Insurers can significantly benefit from the AI underwriting
innovation as these results indicate that AI underwriting
helps insurers reduce costs, process faster and improve
accuracy.

Table 7: Economic Benefits of AI-Powered Underwriting

Economic Indicator

Before AI

Implementation

After AI

Implementation

p-value

Reduction in Claim

Processing Time

10 days

3 days

0.002

Cost Savings per

Policy ($)

$500

$200

0.004

Increase in

Underwriting

Accuracy (%)

82%

92%

0.001






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Figure 7: Economic Impact of AI Implementation

Consumer Trust in AI vs. Human Underwriting

Although operational and economic benefits of AI show up
already, consumer trust is a big hurdle to complete
adoption of AI in insurance underwriting. The consumer
trust level for AI powered underwriting model was 3.2 on
5 and only 28.4% of participant preferred AI underwriting
models (Table 8).

The trust score for human based underwriting was of 4.1
with 45.2% of the participants preferring to have
traditional human underwritten policies. Hybrid AI-

human underwriting registered trust levels highest among
the other approaches, i.e, 4.5 on the trust scale and while
62.1% of the participants favored a blended AI-human
approach. The significant differences (p-value of 0.003

0.018) in consumer preferences confirm the skepticism of
consumers to fully autonomous AI underwriting.

The results of this article indicate that adopting these
hybrid models will allow organizations facing trust issues

and wanting to use AI as a technology, to obtain both AI’s

analytical power and human expertise.

Table 8: Consumer Trust in AI vs. Human Underwriting


Underwriting

Type

Consumer Trust

Level (1-5)

Percentage

Preferring This

Approach (%)

p-value

AI-Powered

3.2

28.4%

0.018

Human-Based

4.1

45.2%

0.007

Hybrid (AI +

Human)

4.5

62.1%

0.003


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Figure 8: Consumer Trust and Preference in Underwriting Approaches

AI Bias and Its Impact on Perceived Efficiency

The study utilized a chi-square test to examine the effect
of perceived AI bias to efficiency perceptions. As shown in
Table 9, respondents who perceived AI underwriting as
having no bias had a rating of 4.2 out of 5 while those from
whom it was perceived to be set over a minor bias gave a
rating of 3.5. In the case of participants who found the
major bias, the efficiency rating fell to 2.8 and to an
efficiency rating of 2.1 for the perception of extreme bias.

Respondents who expressed racial bias concern rated AI
efficiency as 3.0 while those concerned with gender rated
it as 3.3. Using chi-

square test results (χ² = 15.67, p =

0.0003) it becomes evident that there exists a strong
statistical tie between AI bias perception and efficiency
ratings. In essence, these findings suggest that bias
concerns have a profound negative effect on attitude
towards AI effectiveness and highlight the necessity of
incorporating bias mitigation strategies into underwriting
models (Table 9).

Table 9: Chi-Square Test - AI Bias vs. AI Efficiency Perception

AI Bias Perception

Avg AI Efficiency

Score (1-5)

Chi-Square

Statistic

p-value

No bias

4.2

6.43

0.011

Minor bias

3.5

8.91

0.004

Major bias

2.8

12.35

0.001

Extreme bias

2.1

15.67

0.0003

Racial bias concerns

3.0

9.21

0.006


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Gender bias

concerns

3.3

7.88

0.008

Figure 9: Impact of AI Bias Perception on Efficiency Scores

AI Familiarity and Trust in Underwriting Decisions

An ANOVA test is conducted to find out whether there is a
relationship between familiarity with AI and the trust of AI

in underwriting. These results demonstrate that people’s

trust in AI models increases with increasing familiarity
with the models. People not previously familiar with AI
underwriting scored their trust in 2.5/5 while marginally
familiar scored 3.8/5. Trust levels among very familiar
respondents sit at 4.2 and where respondents are AI

experts, the rating hits 4.6.

Frequent users of AI were given a score of 4.0 and trust
remained the highest at 4.8 in cases of AI research
professionals, which is unsurprising. In order to determine
the existence of a statistically significant difference in trust
among different levels of familiarity with AI, the F-statistic
(F = 13.27, p = 0.0002) clearly shows that such a difference
in trust exists among various familiarity levels (Table 10).

Table 10: ANOVA - AI Familiarity vs. Trust in AI Underwriting

AI Familiarity

Level

Avg Trust in AI

Underwriting (1-5)

F-Statistic

p-value

Not familiar

2.5

5.32

0.009

Somewhat familiar

3.8

8.21

0.002

Very familiar

4.2

10.45

0.001

Expert

4.6

12.89

0.0006

Frequent AI user

4.0

11.54

0.0008

AI research

professional

4.8

13.27

0.0002


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Figure 10: Trust in AI Underwriting Based on AI Familiarity

The Impact of AI Efficiency on Market Growth and Cost
Savings

The impact of AI efficiency on key financial and
operational metrics in underwriting was measured using
a regression analysis. The analysis in Table 11 shows that
reductions in AI efficiency score is associated with
improvements to cost per policy through regression, with
the coef

ficient (β) =

-120.5 (p = 0.001), where greater AI

efficiency results in lower cost per policy.

Lastly, the ability for market growth to increase with the

complexity of the AI model (β = 15.8, p = 0.002) is

indicative of development within the industry towards
more advanced AI driven actuarial models.

Similarly, AI training data quality was also a significant

factor in predicting fraud detection accuracy (β = 8.3, p =

0.0005) which reinforces the fact that the better the
quality of the data used for training is, the lesser
underwriting risks for the lender. Deepening this point in
the context of claims processing, AI automation had a

pronounced effect on underwriting speed (β = 22.1, p =
0.0008) in line with the notion of automation’s positive

impact on operational efficiency.

Interestingly, AI data privacy strength was also related to

consumer trust in the same direction (β = 5.9, p = 0.003).


These findings shed light on the economic, operational and
consumer trust benefits of the AI underwriting and stress
on the need for ensuring data quality, complexity of the
model and regulatory compliance for the full effectiveness
of AI (Table 11).

Table 11: Regression Analysis - AI Efficiency & Market Growth

Independent

Variable

Dependent

Variable

Regression

Coefficient

(β)

Standard

Error

R-Squared

p-value

AI Efficiency

Score

Cost Savings

per Policy ($)

-120.5

15.2

0.82

0.001

AI Model

Complexity

Market

Growth (%)

15.8

3.7

0.76

0.002


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AI Training

Data Quality

Fraud

Detection

Accuracy (%)

8.3

2.9

0.85

0.0005

AI

Automation

in Claims

Underwriting

Speed

Increase (%)

22.1

4.2

0.79

0.0008

AI Data

Privacy

Strength

Consumer

Trust Score

5.9

1.7

0.68

0.003

Figure 11: Regression Analysis of AI Factors on Key Metrics

Consumer Trust in AI vs. Human Underwriting

To compare the consumer trust in AI Underwriting versus
Human Underwriting, hybrid models and other alternative
models, a t- test analysis was performed. As indicated in
the results in Table 12, human underwriting was
significantly preferred compared to AI-only underwriting
(mean trust = 4.1, p = 0.0004).

Hybrid AI and human underwriting models were bitwise
trusted most (4.5), which was statistically significantly
different compared to the trust scores associated with
both AI only (3.3, p < 0.002) and human only (3.5, p <
0.002) approaches. Regarding the difference between

regulated AI vs. unregulated AI, the results were that
regulated AI (mean trust = 4.3) was trusted more than
unregulated AI (mean trust = 2.9, p = 0.0002).

There was also a greater mean trust placed in the
blockchain based risk assessment (mean trust = 4.2)
compared to that of AI only underwriting's (mean trust =
3.6, p = 0.0050). Findings show that consumers are
skeptical about standalone AI underwriting but are more
accepting with models that have some form of human
oversight, regulation or one of the decentralized
verifications such as blockchain (Table 12).



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Table 12: T-Test - Consumer Trust in AI vs. Human Underwriting

Comparison

Mean Trust in

AI (1-5)

Mean Trust in

Other (1-5)

T-Statistic

p-value

AI

Underwriting

vs. Human

Underwriting

3.2

4.1

5.89

0.0004

AI

Underwriting

vs. Hybrid (AI

+ Human)

3.2

4.5

4.72

0.0020

Human

Underwriting

vs. Hybrid (AI

+ Human)

4.1

4.5

2.85

0.0140

AI

Underwriting

(Unregulated)

vs. AI

(Regulated)

2.9

4.3

6.23

0.0002

AI vs.

Blockchain-

based Risk

Assessment

3.6

4.2

3.78

0.0050

Figure 12: Trust in AI vs. Other Methods


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Factors Influencing Consumer

Trust

in

AI

Underwriting

The key factors of consumer trust in AI underwriting
models were explored using a logistic regression model. As
shown in Table 13, AI transparency (Odds Ratio = 2.3, p =
0.002) and AI fairness (Odds Ratio = 1.8, p = 0.004) were
both significant prognosticants for consumer trust,
highlighting the need that consumers place on
transparency and ethical practice of AI.

Trust was positively associated with AI efficiency (Odds

Ratio = 2.5, p = 0.001) and users trusted AI to the extent
that it improves underwriting outcomes. The most
significant factor determined the impact of trust on the
regulators (Odds Ratio = 3.1, p = 0.0005), which means
that strict AI governance is significantly important for
consumer acceptance.

Even consumer AI knowledge (Odds Ratio = 1.6, p = 0.007)
was a significant factor, signifying that consumers who are
better informed are more likely to trust AI driven
underwriting (Table 13).

Table 13: Logistic Regression - Predicting AI Trust Based on Key Factors

Independent

Variable

Odds Ratio

Standard Error

95%

Confidence

Interval

p-value

AI

Transparency

2.3

0.4

(1.7, 2.9)

0.002

AI Fairness

1.8

0.3

(1.4, 2.2)

0.004

AI Efficiency

2.5

0.5

(2.0, 3.0)

0.001

Regulatory

Oversight

3.1

0.6

(2.5, 3.7)

0.0005

Consumer AI

Knowledge

1.6

0.3

(1.3, 1.9)

0.007

Figure 13: AI Factors and Their Odds Ratios


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Performance Comparisons: AI-Driven vs. Traditional
Underwriting Approaches

Various underwriting modelling tools namely AI driven,
traditional, hybrid and also alternative approach were
compared through a descriptive statistical analysis.

From Table 14, it is noticed that fully automated AI
underwriting completed in minimum processing time (2.0
days) with highest fraud detection rate (96.5%). While the
fastest methods, AI-human underwriting (3.1 days, 93.0%
fraud) and AI (none, 92.8% fraud), exhibited the lowest
effectiveness and regulatory compliance, along with the

least confidence for consumers, it remains that speed is
not the determinant of effectiveness.

Blockchain based underwriting models had one of the
highest fraud detection rates (95.0%) largely due to the
improvements in data security and verification process.
Fully automated AI underwriting is most efficient, hybrid
models offer the right balance between accuracy,
compliance and customer trust and blockchain can be used
in underwriting to enhance the performance upon
accuracy and speed (on the second delivery) while
maintaining the same compliance (Table 14).

Table 14: Descriptive Statistics - AI-Driven vs. Traditional Underwriting Outcomes

Underwriting

Approach

Avg Processing

Time (Days)

Avg Fraud

Detection Rate (%)

p-value

AI-Driven

2.5

92.5

0.001

Traditional

10.8

85.3

0.003

Hybrid (AI +

Human)

5.2

89.7

0.0008

AI with

Explainability

Features

3.1

93.0

0.0005

AI with Regulatory

Compliance

4.0

91.5

0.002

AI with Deep

Learning Models

2.8

94.2

0.0009

AI with Limited

Human Oversight

3.5

90.3

0.0015

AI with Consumer

Feedback

Integration

3.3

92.1

0.0007

Blockchain-Based

Underwriting

4.5

95.0

0.0012

Fully Automated

AI Underwriting

2.0

96.5

0.0004

DISCUSSION

The Role of AI in Insurance Underwriting: Balancing
Efficiency and Fairness


Integration of AI powered actuarial models into U.S.
insurance underwriting has resulted in great
improvement in the assessment of risk, fraud detection
and operation (Mishra, 2024; Paul, 2024). Bearing this in

mind and according to the existing literature (Pugnetti &
Seitz, 2021; Singh & Gautam, 2024), the mentioned use of
AI in underwriting shortens the processing time and
increases fraud discovery. These benefits have seen

consumers’ skepticism, regulatory scr

utiny and ethical

issues, especially regarding bias and transparency (2024
du Preez et al, 2025 Umar & Reuben).

In health, life, property and casualty insurance sectors in


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the U.S, AI is being adopted and insurers use big data
analytics and machine learning to fine grained
segmentation of their risks and accuracy in pricing
(Anbalagan, 2024; Srirangam et al, 2024). This study
confirms the results that hybrid (AI

human) and regulated

AI underwriting approaches are considered to be more
trusted, especially compared to purely AI based
underwriting approaches and that they are considered
more efficient. These findings point out the existing
tension between efficiency and fairness as one of the core
issues to address in the adoption of AI in U.S. actuaries' and
regulators' frameworks (Kharlamova et al, 2024).

AI Efficiency vs. Trust: A Persistent Trade-Off

The trade off with respect to the efficiency of using AI and
consumer distrust is one of the most striking results of this
study. In the U.S. market, AI underwriting models have
proved to shorten claim processing time from 10 days to
even 2-3 days (Table 7) but consumers still are not
comfortable with full automated AI underwriting (Table
12). Aparis (2024) suggests that it is a common knowledge
that automation can speed-up things, professional
judgment needed to build trust is missing there (62.1%
preference for hybrid AI-human models over 28.4% for AI
only models compared) as shown in Kumar (2024).

The structure of trust is shaped by the rules of the game,
i.e. regulation. In Table 12 it can be seen that more trust is
expressed in regulated AI underwriting (mean = 4.3) than
in unregulated AI models (mean = 2.9, p = 0.0002). This
mirrors existing research in showing the way to
algorithmic auditing, regulatory oversight and fairness
and reduction of bias in automated decision making

(O’Neil et al, 2024, Chandler, 2025). Regulation is slowly

starting to play a part in this, including by agencies such as
Consumer Financial Protection Bureau (CFPB) and the
National Association of Insurance Commissioners (NAIC),
who have been urging for explainable AI and mitigating
the potential sources of bias in the process of designing
machines (Tumai, 2021; Pareek, 2023).

Results also support that the trust from consumer is based
on

the consumer’s familiarity with the AI (Table 10).

Compared to frequent AI users and AI research
professionals, far fewer indicated higher levels of trust
(mean = 4.8, p = 0.0002). Consumer skepticism can be
reduced and AI adoption might increase if AI literacy is
increased by strengthening transparency initiatives
among the consumers (Singh & Gautam, 2024; Umar &
Reuben, 2025).

Bias and Fairness Concerns in AI-Driven Underwriting

While true that AI has the potential to lower the human
element that brings subjectivity to decision making,
algorithmic bias in U.S. insurance underwriting remains a
concern. Table 9 using this study supports that perceived
bias has a negative effect on ratings of AI efficiency and the
lowest efficiency scores (2.1 out of 5, p = 0.0003) are for
extreme cases of bias. In the U.S. life and health insurance
sectors, AI bias concerns have been widely documented
with racial and gender bias in risk assessment models
widely established (Adeniran et al, 2024; Pareek, 2023).

As shown in the Chi-Square results (Table 9), those who
believe AI underwriting is racially and/or gender biased
have significantly smaller efficiency scores (p = 0.01). In
line with previous studies showing that biased training
data poses risks for credit and insurance score and AI

models are also not explainable (O’Neil et al, 2024; Zarifis

& Cheng, 2021), this result makes sense. The results also
correspond with the action taken by the U.S. regulatory
agencies like the New York Department of Financial
Services (NYDFS) that directed companies offering
insurance products in the state to implement bias auditing
and fairness testing to ensure their AI systems are not

being biased during customers’ underwriting processes

(Chandler, 2025, Pareek, 2023).

An option to this is using explainable AI (XAI) models so
insurers and regulators can audit the AI driven decisions

and reduce discriminatory outcomes (O’Neil et al, 2024)

(Umar & Reuben, 2025). Achieving this comes with higher
investment in algorithmic transparency, something that
many US insurers still struggle with because of their many
proprietary black box models (King et al, 2021)

The Economic Trade-Offs: Cost Savings vs. Market
Adoption


The economic implications of AI applied to risk
assessment are of consequence. Results confirm that AI
read writing significantly reduces cost (p = 0.004) (Table
7) to $200 vs. $500 per policy. Industry reports indicate
that insurers utilizing predictive analytics have 20-30%
cost of operational savings (Mishra, 2024; Anbalagan,
2024) and this aligns in line with the same.

Market adoption isn’t a challenge while it is evident that

cost efficiency is there. Table 6 shows the stronger

people’s perception of AI bias, the stronger their support

for AI regulators (p = 0.002), that is, 78.4% of the
respondents who perceived major AI bias supported
strong AI regulators. Without having adequate fairness
and accountability frameworks in place, insurers face
regulatory push back and decreased consumer adoption


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(Chandler, 2025; Kumar, 2024).

As presented in Table 14, fully automated AI underwriting
proves to be the fastest (2.0 days) and most accurate
(96.5% fraud detection) compared with the hybrid and
blockchain models, they demonstrate an advantage in
terms of compliance with ethical and regulatory
standards. The underwriting based on blockchain also
means the underwriting will grow (fraud detection =
95.0%, p = 0.0012) and the future risk assessment may
depend on the decentralized, tamper-proof data
verification to reduce some biases (Vandervorst et al,
2022; Taneja et al, 2024).

How AI-Powered Underwriting Benefits the U.S.
Economy, Health, Security and Technology


The broad implications of the findings of this study are for
the U.S. economy, public health, security and technological
advancement. The capability of AI for risk assessment in
insurance underwriting can achieve this purpose by
optimizing financial efficiency, preventing fraud, enable
healthcare accessibility and inform public policy decision.
The utilization of AI for actuarial models provides a more
efficient, less expensive and a more competitive U.S.
insurance industry by reducing underwriting costs by
60+% (Table 7) and claim processing time from 10 to 3
days (MUPA et al, 2025). This is in line with the rising trend
of automation in financial risk management, as insurers
with machine learning models enjoy substantial cuts to
their underwriting overhead (Yadav & Bank).

From a healthcare standpoint, the use of AI in

underwriting helps to better risk stratify a person’s risk

and provide a more tailored and affordable insurance
policy to individuals who would otherwise not be able to
afford it, especially high-risk individuals (Oberkrome,
2023). Medical insurance underwriting with predictive
analytics helps the medical insurers to structure a better
policy that fits patients with chronic conditions, hence
reducing the rate of uninsurance in the U.S and even
medical insurance bankruptcy cases. (Patil et al, 2023).
Utilization of AI for health insurance fraud detection saves
billions in fraudulent claims, contributing to the right
funding to actual beneficiaries (Larzelere, 2021).

AI based underwriting helps in detection of financial
crimes, from national security and fraud prevention
perspectives, by detecting of data misrepresentation
patterns in insurance applications (Patil et al, 2023).
Given, the U.S. economy loses over $308 billion dollars
annually on insurance fraud, enhanced by the AI powered
models in real time fraudulent claims detection and claims
verification (MUPA et al, 2025).

With regard to technological and commercialization
aspects, AI in underwriting runs true to the fancy of the
Insurtech industry that is expected to hit $20 billion in
2028 (Yadav & Bank). Blockchain based risk assessment
(Table 14) has tamper proof underwriting records which
fall in line with regulatory requirement and dispense the
possibility of disputes around AI (Oberkrome, 2023). This
technology has commercial potential in both traditional
insurance markets as well as newer markets including
cybersecurity insurance, climate risk assessment and gig
economy coverage (Patil et al, 2023).

The results of this study point out that public policy actions
must be taken to guarantee AI fairness and transparency
and accountability in underwriting. Policymakers need to
determine the regulatory frameworks that ought to be in
place to enhance efficiency in the use of AI while protecting
consumers from discriminatory outcomes brought about
by automated models that could unfairly marginalize
already disadvantaged populations (Larzelere, 2021).
Following the discussions of the legislation in Congress
and the regulatory agencies (Federal Trade Commission
(FTC) and the National Association of Insurance
Commissioners

(NAIC)),

recently,

AI

auditing

requirements become a trend to encourage the fairness in
the insurance risk assessment (MUPA et al, 2025).

AI in underwriting contributes towards economic growth
by reducing inefficiencies, also towards healthcare by
making policy affordable, strengthens financial security
through fraud d

etection and to USA’s technological

leadership (or at least has potential) in the Insurtech
sector. AI underwriting is likely to gain broad public trust
and acceptance only if it is duly regulated, fairly applied
and accompanied by educational initiatives for consumers
(Patil et al, 2023; Yadav & Bank).

Future Research and Policy Implications


The findings of this study underscore several important
policy implications for the U.S. insurance industry:

1. Regulatory Auditing

U.S. regulators should

implement mandatory AI bias audits and explainability
standards to ensure fairness in underwriting decisions

(O’Neil et al, 2024; Chandler, 2025).

2. Hybrid AI-Human Models

To balance efficiency

and trust, insurers should adopt AI-human collaboration
frameworks for underwriting (Apergis, 2024; Umar &
Reuben, 2025).

3. Consumer AI Literacy Initiatives

Educating

consumers on AI models, risk assessment methods and
bias detection could increase trust and adoption (Singh &
Gautam, 2024; Kumar, 2024).

4. Blockchain for Risk Assessment

Blockchain


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based underwriting models help in securing data, the
prevention of frauds and reduction of bias (Taneja et al,
2024; Vandervorst et al, 2022).

Comparison between these insights and their impact on
the current academic and industry debate on AI-driven
underwriting suggests that responsible AI development is
a necessary prerequisite for full utilization of the potential
of AI in the U.S. insurance market with respect to both
efficiency and fairness.

CONCLUSION

The results of this study show that for U.S insurance
underwriting, AI powered actuarial models can hold a
great deal of transformative power in increasing
efficiency, fraud detection and decreasing costs. AI driven
underwriting has been shown to ease the process of
making the decision, increasing the pace of claim
processing and cut underwriting expenses, as well as
improve the accuracy of fraud detection. These advances
make the insurance industry more efficient and
competitive on the strength of the insure

rs’ ability to

determine risks with greater accuracy.

The study identifies trust, transparency and fairness as
long-suffering areas. Skepticism from consumers on the
part of AI models act as a key barrier in the widespread
adoption. Hybrid AI human underwriting models is
preferred for the reason that combining human oversight
in AI underwriting can lead to greater trust, clarifying
concerns on the fairness and reliability of the automated
underwriting decisions. The regulatory oversight has
proven to be a critical factor influencing consumer
confidence in Artificial Intelligence underwriting which
concludes that the public trust in AI underwriting is
significant when regulatory frameworks will assure
transparency and fairness.

The issue of algorithmic bias is still important and
respondents who see racial and gender bias in AI
underwriting models give significantly lower efficiency
ratings. Indeed, these findings are comparable to
prevailing apprehensions with respect to biased training
data and unknowable decision making in AI applications.
To solve these challenges, algorithmic fairness for AI has
to be committed, explaining AI models and regulatory
frameworks that hold underwriting decisions accountable.
A business case using AI in underwriting is clear on
economic purposes

cost saving, fraud reduction and

market expansion. The full potential of AI in insurance
underwriting can be realized only when the tradeoff
between the efficiency of the AI application and the trust
of the consumer and regulatory compliance is made. AI

and blockchain technology have been emerging as a
promising future that can complement each other in
creating a safer data security, fraud prevention and
verifiability in underwriting decisions. Integrating
blockchain based underwriting models can be another
way for AI driven insurance policy to have greater
transparency and fairness in the assessment of risk; which
in a way may add credibility to AI insurance policies.

This study points out some key recommendations that
help realize the benefits fully from AI in insurance
underwriting. Important will be the development and
enforcement of regulatory policies to mitigate bias, for
algorithmic auditing and explainability in order to ensure
ethical AI adoption. While the efficiency benefits of AI are
important, insurers may benefit from keeping human
judgement in complex risk assessment cases; hybrid AI-
human underwriting models could help to ensure that the
case is handled efficiently while erring on the side of
caution. In improving public confidence in AI driven
underwriting, AI literacy needs to be improved through
consumer education initiatives.

This study contributes the broader discussion on the
future of AI in the insurance underwriting, having proven
that although AI opens the window of efficiency and
innovation, its wide adoption should be based on the
principles of fairness, transparency and accountability.

The insurer’s opportunity to responsibly deploy AI serves

to create a more inclusive and efficient and consumer
centric underwriting landscape within the U.S. insurance
industry. Resolution of the challenges proffered in this
study, will drive economic growth, foster trust and place
the U.S. in the front position as a leader in future insurance
technology.

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sciences, 3(07), 6-31.
Anbalagan, K. (2024). Cloud-Powered Predictive Analytics
in Insurance: Advancing Risk Assessment Through AI
Integration. INTERNATIONAL JOURNAL OF ENGINEERING
AND TECHNOLOGY RESEARCH (IJETR), 9(2), 195-206.
Apergis, A. (2024). The role of cognitive assistants in
medical insurance underwriting.
Badhan, I. A., Hasnain, M. N., Rahman, M. H., Chowdhury, I.,
& Sayem, M. A. (2024). Strategic Deployment of Advance
Surveillance Ecosystems: An Analytical Study on
Mitigating Unauthorized US Border Entry. Inverge Journal
of Social Sciences, 3(4), 82-94.
Badhan, I. A., Neeroj, M. H., & Rahman, S. (2024). Currency
rate fluctuations and their impact on supply chain risk
management: An empirical analysis. International journal
of business and management sciences, 4(10), 6-26.
Butt, S., & Yazdani, N. (2023). Relationship Between

Execution of Quality Management Practices and Firm’s

Innovation Performance: A Review of Literature. Journal
of Asian Development Studies, 12(3), 432-451.
Butt, S., Umair, T., & Tajammal, R. (2024). Nexus between

Key Determinants of Service Quality and Students’

Satisfaction in Higher Education Institutions (HEIs).
Annals of Human and Social Sciences, 5(2), 659-671.
Chandler, S. J. (2025). Compared to What? The Paramount
Question in the Regulation of Medical AI. Houston Journal
of Health Law & Policy, 24(1), 1-73.
Dhal, K., Karmokar, P., Chakravarthy, A. et al. Vision-Based
Guidance for Tracking Multiple Dynamic Objects. J Intell
Robot

Syst

105,

66

(2022).

https://doi.org/10.1007/s10846-022-01657-6
Dixit, S., & Jangid, J. (2024). Exploring Smart Contracts and
Artificial Intelligence in FinTech. https://jisem-
journal.com/index.php/journal/article/view/2208
du Preez, V, Bennet, S, Byrne, M, Couloumy, A, Das, A,
Dessain, J, ... & van Heerden, L. (2024). From bias to black
boxes: understanding and managing the risks of AI

an

actuarial perspective. British Actuarial Journal, 29, e6.
Easwaran, V., Orayj, K., Goruntla, N., Mekala, J. S.,
Bommireddy, B. R., Mopuri, B., ... & Bandaru, V. (2025).
Depression, anxiety, and stress among HIV-positive
pregnant women during the COVID-19 pandemic: a
hospital-based cross-sectional study in India. BMC

Pregnancy and Childbirth, 25(1), 134.
Hood, K., & Al-Oun, M. (2014). Changing performance
traditions and Bedouin identity in the North Badiya,
Jordan. Nomadic Peoples, 18(2), 78-99.
Jagdish Jangid. (2023). Enhancing Security and Efficiency
in Wireless Mobile Networks through Blockchain.
International Journal of Intelligent Systems and
Applications in Engineering, 11(4), 958

969. Retrieved

from
https://ijisae.org/index.php/IJISAE/article/view/7309
Kaniz, R. E., Lindon, A. R., Rahman, M. A., Hasan, M. A., &
Hossain, A. (2025). THE IMPACT OF PROJECT
MANAGEMENT STRATEGIES ON THE EFFECTIVENESS OF
DIGITAL MARKETING ANALYTICS FOR START-UP
GROWTH IN THE UNITED STATES. project management,
4(1).
Kharlamova, A, Kruglov, A, & Succi, G. (2024, May). State-
of-the-Art Review of Life Insurtech: Machine learning for
underwriting decisions and a Shift Toward Data-Driven,
Society-oriented Environment. In 2024 International
Congress on Human-Computer Interaction, Optimization
and Robotic Applications (HORA) (pp. 1-12). IEEE.
King, M. R, Timms, P. D, & Rubin, T. H. (2021). Use of big
data in insurance. The Palgrave Handbook of
Technological Finance, 669-700.
Kumar, S. (2024). Navigating the Complexities of
Insurance Underwriting Results through Artificial
Intelligence. International Journal of Science and Research
(IJSR), 13(4), 1464-1471.
Larzelere, S. P. (2021). The Cognitive and Emotional
Reactions of Commercial Casualty Insurance Underwriters
to the Use of Predictive Analytics (Doctoral dissertation,
University of Pennsylvania).
Mishra, B. (2024). Machine Learning for Financial
Professionals. Educohack Press.
Muhammad Zaurez Afshar1*, Dr. Mutahir Hussain Shah2.
(2025). Strategic Evaluation Using PESTLE and SWOT
Frameworks: Public Sector Perspective. ISRG Journal of
Economics, Business & Management (ISRGJEBM), III(I),
108

114. https://doi.org/10.5281/zenodo.14854362

MUPA, M. N, TAFIRENYIKA, S, RUDAVIRO, M, NYAJEKA, T,
MOYO, M, & ZHUWANKINYU, E. K. (2025). Machine
Learning in Actuarial Science: Enhancing Predictive
Models for Insurance Risk Management.
Nguyen, H. U., Trinh, T. X., Duong, K. H., & Tran, V. H.
(2018). Effectiveness of green muscardine fungus
Metarhizium anisopliae and some insecticides on lesser
coconut

weevil

Diocalandra

frumenti

Fabricius

(Coleoptera: Curculionidae). CTU Journal of Innovation
and Sustainable Development, (10), 1-7.
Nguyen, L., Trinh, X. T., Trinh, H., Tran, D. H., & Nguyen, C.
(2018). BWTaligner: a genome short-read aligner.
Vietnam Journal of Science, Technology and Engineering,
60(2), 73-77.


background image

Frontline Marketing, Management and Economics Journal

FRONTLINE JOURNALS

30

Oberkrome, F. (2023). Predictive Analytics in Health
Insurance: Enhancing Risk Assessment and Policy
Customization.
O'Neil, C, Sargeant, H, & Appel, J. (2024). Explainable
fairness in regulatory algorithmic auditing. W. Va. L. Rev,
127, 79.
Pareek, C. S, & Heights, B. Enhancing Quality Assurance in
Annuities: A Risk Management Approach with AI and
Machine Learning.
Pareek, C. S. Unmasking Bias: A Framework for Testing and
Mitigating AI Bias in Insurance Underwriting Models. J
Artif Intell. Mach Learn & Data Sci 2023, 1(1), 1736-1741.
Patil, S, Patil, A, Patil, V, Yadav, S, & Das, S. (2023,
December).

Cognitive

Data

Underwriting

with

Automation: A Survey. In International Conference on
Business Data Analytics (pp. 287-298). Cham: Springer
Nature Switzerland.
Paul, J. (2024). AI-Powered Data Analytics: Shaping the
Future of Auto Insurance Pricing and Claims Processing.
Pugnetti, C, & Seitz, M. (2021). Data-driven services in
insurance: Potential evolution and impact in the Swiss
market. Journal of Risk and Financial Management, 14(5),
227.
Rahman, S., Sayem, A., Alve, S. E., Islam, M. S., Islam, M. M.,
Ahmed, A., & Kamruzzaman, M. (2024). The role of AI, big
data and predictive analytics in mitigating unemployment
insurance fraud. International Journal of Business
Ecosystem & Strategy (2687-2293), 6(4), 253-270.
Rasul, I., Akter, T., Akter, S., Eshra, S. A., & Hossain, A.
(2025). AI-Driven Business Analytics for Product
Development: A Survey of Techniques and Outcomes in
the Tech Industry. Frontline Marketing, Management and
Economics Journal, 5(01), 16-38.
Sachin Dixit, & Jagdish Jangid. (2024). Asynchronous SCIM
Profile for Security Event Tokens. Journal of
Computational Analysis and Applications (JoCAAA),
33(06),

1357

1371.

Retrieved

from

https://eudoxuspress.com/index.php/pub/article/view/
1935
Sawyer, S., Ellers, S., Kakumanu, M. S., Bommireddy, B.,
Pasgar, M., Susan-Kurian, D., ... & Jurdi, A. A. (2025). Trial
in progress for a colorectal cancer detection blood test.
https://ascopubs.org/doi/10.1200/JCO.2025.43.4_suppl.
TPS306
Shabbir, A., Arshad, N., Rahman, S., Sayem, M. A., &
Chowdhury, F. (2024). Analyzing surveillance videos in
real-time using AI-powered deep learning techniques.
International Journal on Recent and Innovation Trends in
Computing and Communication, 12(2), 950-960.
Singh, D, & Gautam, A. (2024). Unlocking the Power of Big
Data in Insurance: The Role of Data Analytics. In Data
Alchemy in the Insurance Industry: The Transformative
Power of Big Data Analytics (pp. 13-26). Emerald

Publishing Limited.
Srirangam, R. K, Chennuri, S, & Pendyala, V. (2024).
Technological disruption in P&C insurance: The impact of
advanced analytics on risk assessment and customer
engagement. International Journal of Research in
Computer Applications and Information Technology
(IJRCAIT), 7(2), 1224-1237.
Taneja, S, Bisht, V, & Kukreti, M. (2024). Revolutionizing
Insurance Practices Through Advanced Data Alchemy. In
Data Alchemy in the Insurance Industry: The
Transformative Power of Big Data Analytics (pp. 119-131).
Emerald Publishing Limited.
Tumai, W. J. (2021). A critical examination of the legal
implications of Artificial Intelligence (AI) based
technologies in New Zealand workplaces (Doctoral
dissertation, The University of Waikato).
Umar, J, & Reuben, J. (2025). Fair AI in Real Estate and
Insurance: Overcoming Bias and Improving Transparency
in Machine Learning Models.
Vandervorst, F, Verbeke, W, & Verdonck, T. (2022). Data
misrepresentation detection for insurance underwriting
fraud prevention. Decision Support Systems, 159, 113798.
Yadav, S, & Bank, S. V. OPTIMIZING LIFE INSURANCE RISK
ASSESSMENT THROUGH MACHINE LEARNING A DATA-
DRIVEN APPROACH TO PREDICTIVE UNDERWRITING.
Zarifis, A, & Cheng, X. (2021, July). Evaluating the new AI
and data driven insurance business models for
incumbents and disruptors: Is there convergence?. In
Business Information Systems (pp. 199-208).
Zaurez Afshar, M., & Hussain Shah, M. (2025). Performance
Evaluation Using Balanced Scorecard Framework: Insights
from A Public Sector Case Study. INTERNATIONAL
JOURNAL OF HUMAN AND SOCIETY, 5(01), 40

47.

https://ijhs.com.pk/index.php/IJHS/article/view/808

Bibliografik manbalar

Abuamoud, I., Lillywhite, J., Simonsen, J., & Al-Oun, M. (2016). Factors influencing food security in less popular tourists sites in Jordan's Northern Badia. International Review of Social Sciences and Humanities, 11(2), 20-36.

Adeniran, I. A, Efunniyi, C. P, Osundare, O. S, Abhulimen, A. O, & OneAdvanced, U. K. (2024). Advancements in predictive modeling for insurance pricing: Enhancing risk assessment and customer segmentation. International Journal of Management & Entrepreneurship Research, 6(8).

Afshar, M. Z. (2023). Exploring Factors Impacting Organizational Adaptation Capacity of Punjab Agriculture & Meat Company (PAMCO). International Journal of Emerging Issues in Social Science, Arts and Humanities (IJEISSAH), 2(1), 1-10. https://doi.org/10.60072/ijeissah.2023.v2i01.001

Ahmad, S. (2025). Entrepreneurship and Sustainable Leadership Practices: Examine how entrepreneurial leaders incorporate sustainability into their business models and the leadership traits facilitating this integration. Journal of Entrepreneurship and Business Venturing, 5(1).

Ahmed, A., Rahman, S., Islam, M., Chowdhury, F., & Badhan, I. A. (2023). Challenges and Opportunities in Implementing Machine Learning For Healthcare Supply Chain Optimization: A Data-Driven Examination. International journal of business and management sciences, 3(07), 6-31.

Anbalagan, K. (2024). Cloud-Powered Predictive Analytics in Insurance: Advancing Risk Assessment Through AI Integration. INTERNATIONAL JOURNAL OF ENGINEERING AND TECHNOLOGY RESEARCH (IJETR), 9(2), 195-206.

Apergis, A. (2024). The role of cognitive assistants in medical insurance underwriting.

Badhan, I. A., Hasnain, M. N., Rahman, M. H., Chowdhury, I., & Sayem, M. A. (2024). Strategic Deployment of Advance Surveillance Ecosystems: An Analytical Study on Mitigating Unauthorized US Border Entry. Inverge Journal of Social Sciences, 3(4), 82-94.

Badhan, I. A., Neeroj, M. H., & Rahman, S. (2024). Currency rate fluctuations and their impact on supply chain risk management: An empirical analysis. International journal of business and management sciences, 4(10), 6-26.

Butt, S., & Yazdani, N. (2023). Relationship Between Execution of Quality Management Practices and Firm’s Innovation Performance: A Review of Literature. Journal of Asian Development Studies, 12(3), 432-451.

Butt, S., Umair, T., & Tajammal, R. (2024). Nexus between Key Determinants of Service Quality and Students’ Satisfaction in Higher Education Institutions (HEIs). Annals of Human and Social Sciences, 5(2), 659-671.

Chandler, S. J. (2025). Compared to What? The Paramount Question in the Regulation of Medical AI. Houston Journal of Health Law & Policy, 24(1), 1-73.

Dhal, K., Karmokar, P., Chakravarthy, A. et al. Vision-Based Guidance for Tracking Multiple Dynamic Objects. J Intell Robot Syst 105, 66 (2022). https://doi.org/10.1007/s10846-022-01657-6

Dixit, S., & Jangid, J. (2024). Exploring Smart Contracts and Artificial Intelligence in FinTech. https://jisem-journal.com/index.php/journal/article/view/2208

du Preez, V, Bennet, S, Byrne, M, Couloumy, A, Das, A, Dessain, J, ... & van Heerden, L. (2024). From bias to black boxes: understanding and managing the risks of AI–an actuarial perspective. British Actuarial Journal, 29, e6.

Easwaran, V., Orayj, K., Goruntla, N., Mekala, J. S., Bommireddy, B. R., Mopuri, B., ... & Bandaru, V. (2025). Depression, anxiety, and stress among HIV-positive pregnant women during the COVID-19 pandemic: a hospital-based cross-sectional study in India. BMC Pregnancy and Childbirth, 25(1), 134.

Hood, K., & Al-Oun, M. (2014). Changing performance traditions and Bedouin identity in the North Badiya, Jordan. Nomadic Peoples, 18(2), 78-99.

Jagdish Jangid. (2023). Enhancing Security and Efficiency in Wireless Mobile Networks through Blockchain. International Journal of Intelligent Systems and Applications in Engineering, 11(4), 958–969. Retrieved from https://ijisae.org/index.php/IJISAE/article/view/7309

Kaniz, R. E., Lindon, A. R., Rahman, M. A., Hasan, M. A., & Hossain, A. (2025). THE IMPACT OF PROJECT MANAGEMENT STRATEGIES ON THE EFFECTIVENESS OF DIGITAL MARKETING ANALYTICS FOR START-UP GROWTH IN THE UNITED STATES. project management, 4(1).

Kharlamova, A, Kruglov, A, & Succi, G. (2024, May). State-of-the-Art Review of Life Insurtech: Machine learning for underwriting decisions and a Shift Toward Data-Driven, Society-oriented Environment. In 2024 International Congress on Human-Computer Interaction, Optimization and Robotic Applications (HORA) (pp. 1-12). IEEE.

King, M. R, Timms, P. D, & Rubin, T. H. (2021). Use of big data in insurance. The Palgrave Handbook of Technological Finance, 669-700.

Kumar, S. (2024). Navigating the Complexities of Insurance Underwriting Results through Artificial Intelligence. International Journal of Science and Research (IJSR), 13(4), 1464-1471.

Larzelere, S. P. (2021). The Cognitive and Emotional Reactions of Commercial Casualty Insurance Underwriters to the Use of Predictive Analytics (Doctoral dissertation, University of Pennsylvania).

Mishra, B. (2024). Machine Learning for Financial Professionals. Educohack Press.

Muhammad Zaurez Afshar1*, Dr. Mutahir Hussain Shah2. (2025). Strategic Evaluation Using PESTLE and SWOT Frameworks: Public Sector Perspective. ISRG Journal of Economics, Business & Management (ISRGJEBM), III(I), 108–114. https://doi.org/10.5281/zenodo.14854362

MUPA, M. N, TAFIRENYIKA, S, RUDAVIRO, M, NYAJEKA, T, MOYO, M, & ZHUWANKINYU, E. K. (2025). Machine Learning in Actuarial Science: Enhancing Predictive Models for Insurance Risk Management.

Nguyen, H. U., Trinh, T. X., Duong, K. H., & Tran, V. H. (2018). Effectiveness of green muscardine fungus Metarhizium anisopliae and some insecticides on lesser coconut weevil Diocalandra frumenti Fabricius (Coleoptera: Curculionidae). CTU Journal of Innovation and Sustainable Development, (10), 1-7.

Nguyen, L., Trinh, X. T., Trinh, H., Tran, D. H., & Nguyen, C. (2018). BWTaligner: a genome short-read aligner. Vietnam Journal of Science, Technology and Engineering, 60(2), 73-77.

Oberkrome, F. (2023). Predictive Analytics in Health Insurance: Enhancing Risk Assessment and Policy Customization.

O'Neil, C, Sargeant, H, & Appel, J. (2024). Explainable fairness in regulatory algorithmic auditing. W. Va. L. Rev, 127, 79.

Pareek, C. S, & Heights, B. Enhancing Quality Assurance in Annuities: A Risk Management Approach with AI and Machine Learning.

Pareek, C. S. Unmasking Bias: A Framework for Testing and Mitigating AI Bias in Insurance Underwriting Models. J Artif Intell. Mach Learn & Data Sci 2023, 1(1), 1736-1741.

Patil, S, Patil, A, Patil, V, Yadav, S, & Das, S. (2023, December). Cognitive Data Underwriting with Automation: A Survey. In International Conference on Business Data Analytics (pp. 287-298). Cham: Springer Nature Switzerland.

Paul, J. (2024). AI-Powered Data Analytics: Shaping the Future of Auto Insurance Pricing and Claims Processing.

Pugnetti, C, & Seitz, M. (2021). Data-driven services in insurance: Potential evolution and impact in the Swiss market. Journal of Risk and Financial Management, 14(5), 227.

Rahman, S., Sayem, A., Alve, S. E., Islam, M. S., Islam, M. M., Ahmed, A., & Kamruzzaman, M. (2024). The role of AI, big data and predictive analytics in mitigating unemployment insurance fraud. International Journal of Business Ecosystem & Strategy (2687-2293), 6(4), 253-270.

Rasul, I., Akter, T., Akter, S., Eshra, S. A., & Hossain, A. (2025). AI-Driven Business Analytics for Product Development: A Survey of Techniques and Outcomes in the Tech Industry. Frontline Marketing, Management and Economics Journal, 5(01), 16-38.

Sachin Dixit, & Jagdish Jangid. (2024). Asynchronous SCIM Profile for Security Event Tokens. Journal of Computational Analysis and Applications (JoCAAA), 33(06), 1357–1371. Retrieved from https://eudoxuspress.com/index.php/pub/article/view/1935

Sawyer, S., Ellers, S., Kakumanu, M. S., Bommireddy, B., Pasgar, M., Susan-Kurian, D., ... & Jurdi, A. A. (2025). Trial in progress for a colorectal cancer detection blood test. https://ascopubs.org/doi/10.1200/JCO.2025.43.4_suppl.TPS306

Shabbir, A., Arshad, N., Rahman, S., Sayem, M. A., & Chowdhury, F. (2024). Analyzing surveillance videos in real-time using AI-powered deep learning techniques. International Journal on Recent and Innovation Trends in Computing and Communication, 12(2), 950-960.

Singh, D, & Gautam, A. (2024). Unlocking the Power of Big Data in Insurance: The Role of Data Analytics. In Data Alchemy in the Insurance Industry: The Transformative Power of Big Data Analytics (pp. 13-26). Emerald Publishing Limited.

Srirangam, R. K, Chennuri, S, & Pendyala, V. (2024). Technological disruption in P&C insurance: The impact of advanced analytics on risk assessment and customer engagement. International Journal of Research in Computer Applications and Information Technology (IJRCAIT), 7(2), 1224-1237.

Taneja, S, Bisht, V, & Kukreti, M. (2024). Revolutionizing Insurance Practices Through Advanced Data Alchemy. In Data Alchemy in the Insurance Industry: The Transformative Power of Big Data Analytics (pp. 119-131). Emerald Publishing Limited.

Tumai, W. J. (2021). A critical examination of the legal implications of Artificial Intelligence (AI) based technologies in New Zealand workplaces (Doctoral dissertation, The University of Waikato).

Umar, J, & Reuben, J. (2025). Fair AI in Real Estate and Insurance: Overcoming Bias and Improving Transparency in Machine Learning Models.

Vandervorst, F, Verbeke, W, & Verdonck, T. (2022). Data misrepresentation detection for insurance underwriting fraud prevention. Decision Support Systems, 159, 113798.

Yadav, S, & Bank, S. V. OPTIMIZING LIFE INSURANCE RISK ASSESSMENT THROUGH MACHINE LEARNING A DATA-DRIVEN APPROACH TO PREDICTIVE UNDERWRITING.

Zarifis, A, & Cheng, X. (2021, July). Evaluating the new AI and data driven insurance business models for incumbents and disruptors: Is there convergence?. In Business Information Systems (pp. 199-208).

Zaurez Afshar, M., & Hussain Shah, M. (2025). Performance Evaluation Using Balanced Scorecard Framework: Insights from A Public Sector Case Study. INTERNATIONAL JOURNAL OF HUMAN AND SOCIETY, 5(01), 40–47. https://ijhs.com.pk/index.php/IJHS/article/view/808