Factors Influencing the Use of Uzhavan App by the Farmers
Atsu Frank Yayra Ihou
1,*
, Madhumithra M
2
, Paul Mansingh J
1
and Gayathri A
2
1
Department of Agricultural Extension and Economics, Vellore Institute of Technology, Vellore, Tamil Nadu, India
2
VIT School of Agricultural Innovations and Advanced Learning (VAIAL), Vellore Institute of Technology,
Vellore, Tamil Nadu, India
Keywords: Agricultural Advisory Service, Digital Agricultural Innovation, Mobile App
Abstract: The Government of Tamil Nadu, with an equivalent objective of engagement in agriculture 5.0, has devised
the "Uzhavan" mobile app as an additional digital advisory service in farming. The factors influencing the use
of the Uzhavan app were analyzed in this study employing the Unified Theory of Acceptance and Use of
Technology (UTAUT). Data were obtained from 263 farmers in Tamil Nadu. A mixed research method was
used. Quantitative data on factors influencing the use of the app was analyzed using ADANCO software and
thematic analysis was used to study the reasons for non-usage of the app using Nvivo 13. The result shows
that, in direct effect, the effort expectancy and performance expectancy influence the farmer’s behavioral
intention significantly; moreover, the behavioral intention has a positive and significant influence on the use
of the Uzhavan app by farmers. The facilitating condition has a positive and significant influence on the
Uzhavan app use behavior. For the indirect effect, effort expectancy and performance expectancy positively
influence use behavior through behavioral intention but are not significant. The thematic analysis revealed
that non-user farmers were unaware of the Uzhavan app. and lack of knowledge about it.
1 INTRODUCTION
The advents of technology and advancements in
communication have led to the digitalization of
various sectors, including agriculture. This digital
transformation has empowered farmers with easy
access to information through advanced technologies.
However, amid abundant information sources,
farmers face difficulty in gathering accurate and
reliable information (Kumar et al., 2023). With the
widespread availability of smartphones and internet
connectivity, mobile agricultural applications have
emerged as a powerful tool for the advancement and
transformation of the farming sector in both
developed and developing nations (FAO, 2019).
Mobile agricultural applications, as stated by
Costopoulou et al., (2016), have the potential to boost
the income levels of small-scale farmers by reducing
the expenses related to supply and distribution, and
enhancing traceability. Among the plethora of digital
tools aiming to help farmers, the Uzhavan app,
developed by the Tamil Nadu government provides a
ground-breaking initiative of information to farmers
*
Corresponding author
with easily accessible information. The app provides
a diverse range of features, including weather
updates, seed and fertilizer inventory, the market
price of commodities, valuable crop advisory,
government schemes, subsidies, etc. Utilization of
these features empowers farmers to make decisions
that positively impact their agricultural practices. The
installation process of these applications on
smartphones must be made effortless.
Comprehending the determinants that impact farmers'
decisions to adopt, can enhance their ability to
forecast and elucidate their utilization, thus providing
valuable insights for future development endeavors
(Michels & Mußhoff, 2020). Furthermore, their lack
of familiarity with the technology and absence of
reliable information contribute to their reluctance to
embrace digital tools (FAO, 2019). Thus, this paper
investigates the effective utilization of the Uzhavan
app among farmers, employing the UTAUT theory as
a guiding framework. Through the examination of
factors influencing farmers’ acceptance and use
behavior towards the Uzhavan app, this study aims to
provide valuable insights to enhance the functionality
Ihou, A. F. Y., M, M., J, P. M. and A, G.
Factors Influencing the Use of Uzhavan App by the Farmers.
DOI: 10.5220/0012889000004519
Paper published under CC license (CC BY-NC-ND 4.0)
In Proceedings of the 1st International Conference on Emerging Innovations for Sustainable Agriculture (ICEISA 2024), pages 189-195
ISBN: 978-989-758-714-6
Proceedings Copyright © 2025 by SCITEPRESS – Science and Technology Publications, Lda.
189
and outreach of digital tools in agriculture, ultimately
contributing to the sustainable growth and prosperity
of the agricultural sector in India.
2 LITERATURE REVIEW
UTATUT Theory
Model adoption, also known as the Unified Theory of
Acceptance and Use of Technology (UTAUT),
pertains to the process of embracing a particular
model or framework. The research conducted on
model development aims to pinpoint the key factors
that influence the adoption of technology. The
primary goal of this development is to expedite the
acceptance and integration of innovative
technological advancements (Arifin et al., 2022). The
UTAUT model has four main variables: performance
expectancy, effort expectancy, social influence, and
facilitating conditions. Performance expectancy is
about how much individuals believe that using
technology will help them in their work. Effort
expectancy is about how much effort and difficulty
individuals think they will face when adopting
technology. Social influence is about how much
individuals are influenced by others when adopting
new technology, especially by close groups, familiar
people, and industry experts. Currently, the UTAUT
theoretical framework is extensively employed by
scholars as the foundation for developing research
models in various related studies. For instance, it has
been utilized to examine the willingness and
acceptance behavior of farmers towards digital
information technology systems, as well as the
acceptance behavior of new agricultural technologies.
(Lin et al., 2023).
Uzhavan application
As agriculture moves to the digital era, it is crucial to
study mobile applications in agricultural extension
services. According to (Aker, 2011; Labarta et al.,
2011) The inclusion of digital advances in the
agricultural sector, such as the utilization of mobile
applications, has attracted considerable interest as a
catalyst for enhancing agricultural extension services.
Mobile applications provide information, that
promotes effective communication, and decision-
making processes for farmers. The Uzhavan app is a
significant application in the utilization of technology
for agricultural extension. it provides a range of
services to Tamil Nadu farmers that aim to help them
with relevant information (Uzhavan Mobile
Application, n.d.). Initial research conducted on the
Uzhavan app indicates favorable results regarding its
influence on farmers. The app plays a significant role
in strengthening crop management techniques, and
production, and adds to profitability for farmers in
Tamil Nadu. The app has a user-friendly interface and
localized content helps farmers in bridging the digital
gap. The acceptance and adoption of any
technological intervention in agriculture play a
crucial role in determining its success. Extensive
research conducted in the domain of agricultural
extension services emphasizes the significance of
comprehending the factors that impact farmers'
acceptance of technology (Davis et al., n.d.; Labarta
et al., 2011). The Uzhavan app exhibits potential,
however, it is crucial to delve into the challenges and
opportunities linked to its implementation. Previous
research on similar apps has highlighted obstacles
like connectivity problems, differing levels of digital
literacy among farmers, and the necessity for
continuous technical assistance (Labarta et al., 2011;
Qiang et al., 2011). Overcoming these challenges is
vital to optimize the Uzhavan app's impact and
guarantee its long-term effectiveness in the realm of
agricultural extension services.
3 MATERIALS AND METHODS
To examine the factors that impact the utilization of
the Uzhavan app among farmers, an interview
schedule was developed utilizing established scales
derived from the Unified Theory of Acceptance and
Use of Technology. The respondents' perceptions
regarding the credibility of services, performance
expectancy, effort expectancy, social influence,
facilitating condition, behavioral intention, and use
behavior were assessed using a 5-point scale
developed by Liñán and Chen (2009). This scale
ranges from 1 (strongly disagree) to 5 (strongly
agree). The data were collected through personal
interviews conducted with farmers residing in the
Vellore and Ranipet districts in Tamil Nadu State
from November 2023 to January 2024.
For data collection, the research employed a sample
of 263 farmers residing in two districts of Tamil
Nadu. The data was gathered from farmers residing in
4 blocks from Ranipet (121 Responses) and 4 blocks
from the Vellore (142 Responses) districts. The
interview method was opted for to ascertain the
farmers' perspectives while maintaining their
anonymity.
Concerning analysis, first, a confirmatory factor
analysis (CFA) model was employed to analyze the
relationship between the indicators and constructs.
Secondly, a structural path model (SM) was utilized
ICEISA 2024 - International Conference on ‘Emerging Innovations for Sustainable Agriculture: Leveraging the potential of Digital
Innovations by the Farmers, Agri-tech Startups and Agribusiness Enterprises in Agricu
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to comprehend the relationship among all the
constructs used in the model using ADANCO 2.3.2
Software. A qualitative approach was done through
thematic analysis in Nvivo 13.
4 RESULTS
The data obtained from the original investigation
were examined by the ADANCO 2.3.2 software tool
conceived to execute analyses involving structural
equation modeling (SEM). The research framework
was established and the hypothesis was evaluated
using the ADANCO methodology (Ringle, C. M.,
Wende, S., & Will, 2005).
Measurement model
To obtain accurate inferences, it is essential to
evaluate the reliability and validity of the data. In the
domain of indicator reliability, there is a widely
acknowledged consensus that observed variables
exhibiting an outer loading of 0.7 or higher are
considered acceptable (Hair et al., 2011).
Additionally, the assessment of the internal
consistency and reliability of the scale is carried out
by utilizing statistical measures such as Cronbach's
alpha and composite reliability. Composite reliability
is widely recognized as a more reliable indicator of
internal consistency due to its capacity to uphold the
standardized loadings of the observed variables
(Fornell & Larcker F., 1981). Data validity evaluation
entailed analyzing the average variance extracted
(AVE) to determine convergent validity. According to
Fornell & Larcker F (1981), Items within a measuring
model are deemed to possess satisfactory
unidimensional value when their Average Variance
Extracted (AVE) exceeds the threshold of 0.5.
Table 1 presents the values for the outer loadings,
which range from 0.7402 to 0.8819. These values
indicate a robust association between the indicator
and the construct.
Source: Authors compilations (2024)
Figure 1. The measurement model
Furthermore, it is noteworthy that the Cronbach's
alpha value exceeds 0.7 (Ponterotto, 2007). The
composite reliability values should exhibit a
consistent pattern of being above the threshold of 0.70
(Hair et al., 2011). Hence, the observed factor
loadings, Cronbach's alpha coefficient, and composite
reliability analysis collectively indicate that the scales
employed in the study possess satisfactory reliability.
In the interim, it is observed that all dimensions
exhibit a satisfactory level of average variance
extracted (AVE) > 0.5 (BI= 0.5435, EE = 0.7057, PE=
0.7926, FC = 0.8489 and SI=0.8257). This finding
suggests that the variability in the observed variables
can be attributed to the latent constructs.
Table 2. Discriminant validity
Construct BI EE PE SI FC
BI 0.90
EE 0.47 0.82
PE 0.22 0.04 0.79
SI 0.16 0.12 0.28 0.82
FC 0.20 0.20 0.16 0.03 0.84
Source: Authors compilations (2024)
In addition, the (Fornell & Larcker F., 1981), criterion
was utilized to assess the existence of discriminant
validity among the latent variables in the model. To
ascertain discriminant validity according to the
Fornell-Larcker criterion, it is necessary for the
square root of the average variance extracted (AVE)
for each construct to exceed the correlation with any
other construct within the framework (Fornell &
Larcker F., 1981). The results presented in Table 2
demonstrate that the assessment of discriminant
validity yielded favorable outcomes, indicating
strong construct validity and reliability. In this study,
multicollinearity was assessed using the indicator,
variance inflation factor (VIF). Table 1 reveals that
the indicators in our regression model exhibit
Variance Inflation Factor (VIF) values below the
threshold of 5 (Kock, 2015), demonstrating the lack
of substantial multicollinearity. This enables us to
assertively interpret the distinct impacts of the
predictors on the dependent variable and substantiates
the dependability of our regression analysis.
Factors Influencing the Use of Uzhavan App by the Farmers
191
Table 1. Measurement model: loadings, composite
reliability, and convergent validity
Source: Authors compilations (2024)
Path Analysis
The analysis reveals the direct impact of the latent
variable on the emerging variable. Initially, the
positive and substantial influence of effort expectancy
(β=0.573; p=0.008) in utilizing the Uzhavan
application is observed in the behavioral intention of
farmers. Furthermore, the performance expectancy
(β=0.309; p=0.049) of the Uzhavan app, significantly
affects the behavioral intention. Additionally, the
behavioral intention (β=0.2477; p=0.087) influences
the use behavior of farmers. Subsequently, the
facilitation condition (β=0.539; p=0.045)
significantly impacts the use behavior of the Uzhavan
app by the farmers. As for the indirect effects, effort
expectancy, performance expectancy, and social
influence do not significantly affect the farmers' use
behavior of the Uzhavan app. This demonstrates that
the farmers' behavioral intention fully mediates
between the three variables and the use behavior.
Table 3. The structural equation model
Source: Authors compilations (2024)
Source: Authors compilations (2024)
Figure 2. The path model estimation
Thematic analysis
The qualitative data were analyzed using Nvivo
software. The first step was to classify the data, code
each response, and then process of visualization of
themes.
This study presented a word map, coding distribution
by districts and main occupations of the farmers.
Source: Authors compilations (2024)
Figure 3: The reasons for non-use of the Uzhavan app
The map in Figure 3 presents a color-coded matrix of
reasons why farmers may not use the Uzhavan app.
Major factors include a lack of awareness about the
app, an inability to operate smartphones, and the use
of basic mobile phones. Other notable reasons were
the absence of a phone, engaging in agriculture as a
secondary occupation, time constraints, and financial
limitations. The matrix also suggests that a lack of
interest and other unspecified barriers contribute to
the underutilization of the app among farmers.
ICEISA 2024 - International Conference on ‘Emerging Innovations for Sustainable Agriculture: Leveraging the potential of Digital
Innovations by the Farmers, Agri-tech Startups and Agribusiness Enterprises in Agricu
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Source: Authors compilations (2024)
Figure 4: The district-wise distribution of reasons for not
using the app
Figure 4 displays the district-wise distribution of
reasons for not using the Uzhavan app among
farmers. The graph indicates that in the Ranipet
district, the predominant reason is a lack of
awareness, while in Vellore, the main issue is the
absence of smartphones. Other reasons such as the
use of basic mobile phones and the inability to operate
smartphones are also represented, with varying
degrees of prevalence across the districts. The
category "Agriculture secondary" suggests that in the
Ranipet district, farming is not the primary
occupation, which may influence app usage.
Source: Authors compilations (2024)
Figure 5: The farmer category-wise distribution of reasons
for not using the app
Figure 5 illustrates the percentage coverage of
individuals for whom agriculture is the main
occupation and their reason for not using Uzhavan. It
is observed that farmers for whom the agriculture is
main occupation are more unaware than the second
group of farmers. This can be explained by the
educational level which allows the second group to
have additional activities. The next reason was the
lack of access to smartphones which is largely
observed in the farmers who have agriculture as
primary activities. This might be due to the easy
accessibility of smartphones through the additional
income earned by the second group of farmers from
activities other than agriculture.
5 DISCUSSION
This investigation examines the variables that impact
the utilization behavior of farmers. The study reveals
that the farmer's behavioral intention on the Uzhavan
app is positively influenced by effort expectancy.
Furthermore, the farmers' utilization of this app is
characterized by low effort expended. Consequently,
the utilization behavior of farmers is significantly
influenced by performance expectancy. This can be
attributed to the app's provision of pertinent and
accurate information, daily market prices, and
weather forecasts. However, the study finds that
social influence does not have a significant impact on
farmers' behavior. These findings are consistent with
the research conducted by Sabbagh & Gutierrez
(2022), which demonstrates that only effort
expectancy and performance expectancy significantly
influence the farmer's behavioral intention toward
micro irrigation devices. Moreover, the study
establishes that the farmer's behavioral intention fully
mediates the relationship between effort expectancy
and performance expectancy, and the utilization
behavior of Uzhavan. Similar results were obtained
by Omar et al. (2022), who found that the farmer's
behavioral intention plays a mediating role in the
utilization behavior of E-Agri finance apps by the
farmers. However, the research conducted by Sun et
al. (2021), suggested that effort expectancy,
performance expectancy, and social influence directly
impact the use behavior of the Internet of things. The
social influence did not affect behavioral intention.
The same result was found by Michels & Musshoff
(2020) reported a non-significant relationship
between social influence and farmers’ behavioral
intention to use the agri app in plant protection. The
improvement of the use of the agri app can be done to
make it easier to use, since the effort expectancy
shows a positive influence, and then update regularly
the app. Coming to the non-users of the Uzhavan app,
the main reason is the lack of awareness of the app by
farmers who have agriculture as their primary
activity, and most of them don’t have access to
smartphones. By facilitating access to smartphones
the use behavior of the Uzhavan app can be improved.
The farmers can be assisted through short videos on
the advantages and methods of using the Uzhavan app
as suggested by Kumar et al., (2023).
Factors Influencing the Use of Uzhavan App by the Farmers
193
6 CONCLUSIONS
This research study uncovers that farmers who utilize
the Uzhavan app generally hold a positive perception
of it. This positive perception stems from the farmers'
belief in the app's user-friendliness and their
expectations regarding its performance, which
significantly influence their intention to use the app.
Moreover, the availability of necessary conditions
plays a crucial role in determining the actual usage of
the app by farmers. However, it is worth noting from
the qualitative analysis that the presence of
facilitating conditions directly impacts farmers' usage
behavior, and it was identified that some farmers do
not possess smartphones; Consequently, access to
smartphones would enable them to fully utilize the
functionalities offered by the Uzhavan app.
Additionally, through qualitative analysis, it was
observed that certain farmers remain unaware of the
Uzhavan app services, lack of access to smartphones,
and lack of knowledge to operate it. To address this
issue, it is recommended to develop concise videos
that can be easily shared through platforms like
WhatsApp and YouTube, thereby reaching a larger
number of farmers to promote awareness. By
understanding the importance of digital access and
the functionalities of the e-Agriextension platform, all
farmers can benefit from the technological
advancements in agriculture.
As a recommendation, extension officials can
strategize awareness initiatives supplemented with
training sessions for farmers. Based on the findings,
it is recommended that to enhance farmers' effort
expectancy, the Uzhavan app should be rendered
more comprehensible, with supplementary audio
attributes for the farmers who are unable to read.
Further investigation can be conducted on the
extent of influence of the digital tools in agriculture,
especially the influence of the use of Uzhavan app on
farmers' economic and profit efficiency.
REFERENCES
Aker, J. C. (2011). Dial “A” for agriculture: A review of
information and communication technologies for
agricultural extension in developing countries.
Agricultural Economics, 42(6), 631–647.
https://doi.org/10.1111/j.1574-0862.2011.00545.x
Arifin, Z., Anggoro, S., Irianto, H., & Purnaweni, H. (2022).
A Systematic Literature Review : UTAUT Model
Research for Green Farmer Adoption. 12(6).
Costopoulou, C., Ntaliani, M., & Karetsos, S. (2016).
Studying Mobile Apps for Agriculture. IOSR Journal of
Mobile Computing & Application, 3(6), 1–6.
https://doi.org/10.9790/0050-03064449
Davis, K., Ngwenya, B., & Chen, L. (n.d.). ICTs and rural
development: Review of the literature, current
interventions and opportunities for action. International
Journal of Communication.
FAO. (2019). Digital Technologies in agriculture and rural
areas.
Fornell, C., & Larcker F., D. (1981). CLAES FORNELL
AND DAVID F. LARCKER* Evaluating Structural
Equation Models with Unobservable Variables and
Measurement Error. Journal of Marketing Research,
XVIII(February), 39–50.
Hair, J. F., Ringle, C. M., & Sarstedt, M. (2011). PLS-SEM:
Indeed a silver bullet. Journal of Marketing Theory and
Practice, 19(2), 139–152.
https://doi.org/10.2753/MTP1069-6679190202
Kock, N. (2015). Common method bias in PLS-SEM: A full
collinearity assessment approach. International Journal
of E-Collaboration, 11(4), 1–10.
https://doi.org/10.4018/ijec.2015100101
Kumar, A., Saini, P., & Prakash, A. (2023). Design and
Development of Smart Agri app. International Research
Journal of Modernization in Engineering Technology
and Science, 5(5), 242–244.
https://doi.org/10.17148/ijarcce.2019.8246
Labarta, R., Campos, B., Camacho, G., & López, M. (2011).
Mobile phones and rural livelihoods: Adoption, use,
and impact. Development in Practice. 21(6), 802–812.
Lin, D., Fu, B., Xie, K., Zheng, W., Chang, L., & Lin, J.
(2023). Research on the Improvement of Digital
Literacy for Moderately Scaled Tea Farmers under the
Background of Digital Intelligence Empowerment.
Agriculture (Switzerland), 13(10).
https://doi.org/10.3390/agriculture13101859
Michels, M., Bonke, V., & Musshoff, O. (2020).
Understanding the adoption of smartphone apps in crop
protection. Precision Agriculture, 21(6), 1209–1226.
https://doi.org/10.1007/s11119-020-09715-5
Michels, M., Bonke, V., & Mußhoff, O. (2020).
Understanding the adoption of crop protection
smartphone apps: An application of the Unified Theory
of Acceptance and Use of Technology.
Omar, Q., Yap, C. S., Ho, P. L., & Keling, W. (2022).
Predictors of behavioral intention to adopt e-
AgriFinance app among the farmers in Sarawak,
Malaysia. British Food Journal, 124(1), 239–254.
https://doi.org/10.1108/BFJ-04-2021-0449
PONTEROTTO, J. G. (2007). an Overview of Coefficient
Alpha and a Reliability Matrix for Estimating
Adequacy of Internal Consistency Coefficients With
Psychological Research Measures. Perceptual and
Motor Skills, 105(7), 997.
https://doi.org/10.2466/pms.105.7.997-1014
Qiang, C. Z., Kuek, S. C., Dymond, A., & Esselaar, S.
(2011). Mobile Applications for Agriculture and Rural
Development. December.
Ringle, C. M., Wende, S., & Will, A. (2005). SmartPLS 2.0
(beta).
ICEISA 2024 - International Conference on ‘Emerging Innovations for Sustainable Agriculture: Leveraging the potential of Digital
Innovations by the Farmers, Agri-tech Startups and Agribusiness Enterprises in Agricu
194
Sabbagh, M., & Gutierrez, L. (2022). Micro-Irrigation
Technology Adoption in the Bekaa Valley of Lebanon:
A Behavioural Model. Sustainability (Switzerland),
14(13), 1–19. https://doi.org/10.3390/su14137685
Sun, R., Zhang, S., Wang, T., Hu, J., Ruan, J., & Ruan, J.
(2021). Willingness and influencing factors of pig
farmers to adopt internet of things technology in food
traceability. Sustainability (Switzerland), 13(16).
https://doi.org/10.3390/su13168861
Uzhavan Mobile Application. (n.d.).
Factors Influencing the Use of Uzhavan App by the Farmers
195