Page 488
www.rsisinternational.org
INTERNATIONAL JOURNAL OF LATEST TECHNOLOGY IN ENGINEERING,
MANAGEMENT & APPLIED SCIENCE (IJLTEMAS)
ISSN 2278-2540 | DOI: 10.51583/IJLTEMAS | Volume XV, Issue V, May 2026
PosePal: An AI-Powered Human Posture Tracking and Real-Time
Alert System
Jun Marlou F. Bembo
1
, Bhea B. Bergonia
2
, Marc Christian P. Quitalig
3
, Christian Paul O. Cruz, MIT
4
1,2,3,4
Department of Information Technology, Pangasinan State University-Alaminos City Campus,
Philippines
DOI:
https://doi.org/10.51583/IJLTEMAS.2026.150500044
Received: 01 May 2026; Accepted: 06 May 2026; Published: 26 May 2026
ABSTRACT
Musculoskeletal discomfort caused by prolonged sitting and unmonitored poor posture habits has become a
serious occupational health concern among university employees. Without any real-time corrective mechanism,
postural deviations accumulate silently into chronic back pain, neck strain, and shoulder tension conditions
widely reported among faculty and staff at Pangasinan State University Alaminos City Campus (PSU-ACC).
Survey results further confirmed that 95% of employees experience posture-related discomfort, yet none had
previously used a posture monitoring device, and 55% had no specific method to manage their sitting habits.
This study developed PosePal: An AI-Powered Human Posture Tracking and Real-Time Alert System to address
these persistent ergonomic challenges in an academic workplace setting. The system was built using Python,
Dart, and JavaScript, integrating YOLOv11-Pose for real-time human detection and key point-based posture
estimation, supported by Firebase as the cloud database. IP cameras serve as the primary input devices,
continuously capturing body alignment for AI-based analysis without requiring any wearable equipment. To
enhance accuracy, the system integrates multi-object tracking, face recognition, and a rule-based posture
classifier with temporal validation. PosePal automatically detects improper sitting positions and instantly alerts
users to correct their posture, while providing posture scoring, analytics reports, personalized recommendations,
face recognition for secure identification, and an admin dashboard for institutional monitoring and management.
The system was developed following Agile methodology and evaluated by 21 respondents comprising faculty,
non-teaching staff, and an IT expert. Assessed against ISO/IEC 25010 quality standards, PosePal achieved an
overall weighted mean of 4.19 (Excellent), confirming its effectiveness, reliability, and usability in promoting
posture awareness and improving workplace wellness. The study concludes with recommendations to refine
posture detection and alert mechanisms, continuously evaluate system accuracy and user satisfaction, and
conduct further studies to expand system features and ensure PosePal remains adaptive and reliable across
diverse real-world settings.
Index Terms - Artificial Intelligence, Computer Vision, Posture Estimation, Posture Detection, YOLO
INTRODUCTION
Proper posture refers to the correct alignment of body segments supported by balanced muscular effort against
gravity. Maintaining an efficient and upright posture contributes significantly to musculoskeletal balance, spinal
health, and mental clarity. Good posture enables optimal breathing, enhances blood circulation, reduces fatigue,
and supports the natural curvature of the spine (Sharma & Rawat, 2023). Beyond its physiological benefits,
upright positioning is also associated with increased alertness, improved focus, and positive emotional states,
while slouched or forward-leaning postures are linked to fatigue, stress, and symptoms of anxiety and depression
(Sharma & Rawat, 2023).
Despite these well-documented benefits, consistently maintaining proper posture in everyday settings presents a
significant challenge. Many individuals are unaware of the subtle postural deviations that occur during routine
tasks such as typing, reading, or using mobile devices. These micro-habits, when repeated over time, contribute
to cumulative strain and long-term musculoskeletal damage, particularly in academic and professional
environments where individuals maintain static positions for extended periods (Szczygiel et al., 2020). One
Page 489
www.rsisinternational.org
INTERNATIONAL JOURNAL OF LATEST TECHNOLOGY IN ENGINEERING,
MANAGEMENT & APPLIED SCIENCE (IJLTEMAS)
ISSN 2278-2540 | DOI: 10.51583/IJLTEMAS | Volume XV, Issue V, May 2026
increasingly prevalent condition is Text Neck Syndrome (TNS), a repetitive stress injury resulting from sustained
head-down posture during handheld device use, now recognized as a public health concern linked to neck pain,
headaches, reduced cervical mobility, and spinal degeneration (Tsantili et al., 2022). Musculoskeletal Disorders
(MSDs) are likewise highly prevalent among school staff, particularly teachers who engage in prolonged
standing, repetitive writing, and extended computer use, often resulting in shoulder tendinitis, disc prolapse,
knee osteoarthritis, and carpal tunnel syndrome (Abdul Rahim et al., 2022).
Traditional ergonomic interventions such as adjustable furniture and posture training programs often lack real-
time monitoring and personal adaptability. The emergence of Artificial Intelligence (AI) and computer vision
technologies has opened new possibilities for continuous, non-invasive posture assessment in workplace and
academic environments (Cheriyan et al., 2025). Incorrect sitting postures during extended computer use have
been consistently linked to muscular imbalances, spinal misalignment, backaches, and eye strain, reinforcing the
urgent need for automated monitoring solutions (Zaharuddin et al., 2025; Bassino et al., 2023). Improving the
accuracy and precision of posture detection through AI has been shown to empower office workers to adopt
healthier habits and significantly reduce the risk of developing musculoskeletal disorders (Bassino et al., 2023).
Vision-based posture monitoring systems are particularly effective because they are non-invasive, eliminate the
need for physical sensors, and preserve user comfort and privacy making them highly suitable for institutional
deployment (Pistolesi et al., 2024; Ota et al., 2020). Furthermore, systems that provide real-time posture
feedback and clear corrective alerts are consistently perceived as more helpful and motivating, encouraging users
to adjust their behavior accordingly (Mahomed et al., 2024; Sreevani et al., 2024). These findings collectively
affirm the technical viability and occupational health value of deploying an AI-powered, camera-based posture
monitoring system in an academic workplace setting.
A needs assessment conducted at PSU-ACC revealed that 95% of employees experience posture-related
discomfort, with back pain, shoulder pain, and neck strain being the most commonly reported issues. Most staff
members spend 3 to 8 hours daily seated at their desks, yet 55% had no specific method to manage their posture,
and none had previously used a posture monitoring device. Although 90% reported awareness of proper posture
practices, this knowledge had not translated into effective habit formation or prevention of physical strain.
To address these persistent concerns, this study developed PosePal, an AI-powered posture tracking and alert
system designed to monitor body alignment in real time using IP cameras and computer vision algorithms.
PosePal integrates AI-based posture analysis with user-centered design features, including personalized posture
analytics, corrective alerts, and cloud-based data management, to provide continuous ergonomic support in
academic workplace environments. The system was guided by the following objectives: (1) to assess the posture-
related challenges experienced by PSU-ACC employees and identify factors influencing poor posture habits; (2)
to identify the functional and non-functional requirements of the proposed system; (3) to identify appropriate
machine learning algorithms for system development; and (4) to determine the acceptability of the proposed
system among its intended users.
METHODOLOGY
This study employed a descriptive-developmental research design to systematically assess the posture-related
challenges experienced by faculty and non-teaching staff at Pangasinan State University Alaminos City
Campus and to develop a technology-driven solution responsive to their identified needs. The descriptive
component allowed the proponents to document respondents' posture habits, awareness levels, and openness to
AI-based interventions through structured survey questionnaires, while the developmental component guided
the design, construction, and evaluation of the proposed system. Agile methodology was adopted throughout the
development process, enabling iterative refinement of system features based on continuous user feedback
collected across multiple sprint cycles. Purposive sampling was utilized to select 21 respondents comprising 12
faculty members, 8 non-teaching staff, and 1 IT expert all of whom regularly engage in prolonged desk-based
computer work and were thus directly relevant to the study's objectives. While the sample size is acknowledged
as a limitation of this preliminary deployment, purposive sampling is considered appropriate in system
evaluation studies where respondents are selected based on direct relevance to the system's intended use context
(Kumar et al., 2025; Cheriyan et al., 2025). Similar AI-based posture monitoring studies conducted in
institutional settings have employed comparable respondent sizes during pilot evaluations, prioritizing
Page 490
www.rsisinternational.org
INTERNATIONAL JOURNAL OF LATEST TECHNOLOGY IN ENGINEERING,
MANAGEMENT & APPLIED SCIENCE (IJLTEMAS)
ISSN 2278-2540 | DOI: 10.51583/IJLTEMAS | Volume XV, Issue V, May 2026
contextual relevance and domain familiarity over statistical breadth. System acceptability was evaluated using a
survey instrument adapted from the ISO/IEC 25010 software quality framework, with results interpreted through
a five-point Likert scale. Table 1 presents the distribution of respondents.
Table 1. Respondents of the Study
Respondent
Number Of Respondents
Faculty
12
Non-teaching Staff
8
IT-expert
1
Total
21
The development of PosePal followed the Agile methodology, a modern software development approach that
emphasizes iterative progress, flexibility, and continuous user collaboration. As illustrated in Figure 1, the Agile
cycle consists of six phases Plan, Design, Develop, Test, Deploy, and Review each contributing to a
progressively refined and user-centered system. This iterative structure allowed the development team to release
functional components regularly, incorporate feedback after each sprint, and make swift adjustments to ensure
the final system effectively addressed the real ergonomic needs of PSU-ACC employees.
Figure 1. Agile Methodology
Source: https://asana.com/resources/agile-methodology
During the planning phase, key stakeholders including faculty, non-teaching staff, and the IT expert were
engaged to define user stories, technical considerations, and the overall project scope. The design phase produced
wireframes, UI mockups, and system architecture plans focused on accessibility and user-friendliness. The
development phase utilized Python as the core backend language integrated with YOLO for real-time posture
detection, while Dart and JavaScript were used for the mobile and web-facing components. Firebase served as
the cloud database, managing user authentication, posture logs, and real-time data synchronization. IP cameras
were deployed as the primary input devices, capturing live body alignment feeds for continuous AI-based
analysis through a Three-Tier Architecture comprising the Presentation, Application, and Data layers.
The testing phase involved both unit and system-level evaluations, with errors and inconsistencies identified and
resolved before deployment. PosePal was then deployed at PSU-ACC for pilot implementation, where users
received orientation and hands-on training on its features. The review phase gathered user feedback from faculty
and non-teaching staff, with observations used to refine alert mechanisms, interface design, and detection
accuracy. System acceptability was evaluated using a structured survey instrument based on ISO/IEC 25010
quality standards, with responses analyzed through weighted mean calculations using a five-point Likert scale
Page 491
www.rsisinternational.org
INTERNATIONAL JOURNAL OF LATEST TECHNOLOGY IN ENGINEERING,
MANAGEMENT & APPLIED SCIENCE (IJLTEMAS)
ISSN 2278-2540 | DOI: 10.51583/IJLTEMAS | Volume XV, Issue V, May 2026
ranging from 1 (Poor) to 5 (Outstanding). Data gathered from this evaluation provided the empirical basis for
determining the system's overall performance, usability, and readiness for institutional adoption.
RESULTS AND DISCUSSION
Employees of Pangasinan State University Alaminos City Campus (PSU-ACC) are routinely exposed to
prolonged sedentary work conditions, with faculty and non-teaching staff spending an average of three to eight
hours seated during academic and administrative duties. The absence of ergonomic furniture, posture monitoring
tools, and structured correction systems has allowed poor sitting habits to persist unnoticed, increasing the risk
of chronic musculoskeletal disorders that compromise both physical health and workplace productivity. To
address these occupational health concerns, PosePal was developed as an AI-powered posture monitoring system
capable of detecting and alerting users of poor posture in real time. This section presents the findings related to
the identified posture problems, the system's requirements and features, the machine learning pipeline developed,
and the results of the acceptability evaluation conducted among PSU-ACC personnel.
Common Posture Issues and Contributing Factors Among PSU-ACC Employees
Employees of Pangasinan State University Alaminos City Campus experience several posture-related
difficulties that affect their comfort, health, and overall work productivity. Common complaints include lower
back aches, shoulder tension, and neck stiffness symptoms that result from improper sitting positions
sustained over prolonged work periods.
Faculty and non-teaching staff typically spend three to eight hours seated during academic and administrative
duties, a sedentary pattern that restricts physical movement, weakens core musculature, and limits blood
circulation. Compounding this is the lack of ergonomic furniture, as many offices still rely on traditional chairs
and tables that do not support the natural curvature of the body, forcing employees to adapt to their furniture
rather than maintaining correct posture.
Despite general awareness of proper sitting habits, heavy workloads and demanding schedules cause many
employees to revert to poor posture unconsciously. The complete absence of real-time monitoring tools, posture
reminders, and ergonomic support allows these habits to persist unnoticed, increasing the risk of chronic
musculoskeletal disorders that compromise both physical health and long-term work performance.
Figure 2. Fishbone Diagram of Contributing Factors to Poor Posture Among PSU-ACC Employees
Figure 2 presents a fishbone diagram that systematically illustrates the root causes of poor posture habits among
PSU-ACC employees. The diagram organizes contributing factors into six categories: Workplace Setup,
Page 492
www.rsisinternational.org
INTERNATIONAL JOURNAL OF LATEST TECHNOLOGY IN ENGINEERING,
MANAGEMENT & APPLIED SCIENCE (IJLTEMAS)
ISSN 2278-2540 | DOI: 10.51583/IJLTEMAS | Volume XV, Issue V, May 2026
Awareness, Monitoring, Physical Condition, Work Routine, and Information. Each category highlights specific
issues such as the absence of ergonomic furniture, lack of posture monitoring tools, prolonged sitting hours,
and absence of visual reminders that converge to produce the central problem. This analysis served as the
primary basis for determining the features and scope of PosePal.
The fishbone diagram confirms that poor posture is not caused by a single isolated factor, but rather results from
an interplay of workplace conditions, individual behaviors, and institutional gaps. Identifying these root causes
guided the design of PosePal's core features, ensuring the system directly addresses the most significant
contributors to poor posture in the campus environment.
Functional and Non-Functional Requirements of PosePal
Based on surveys and interviews conducted with faculty staff, non-teaching staff, and an IT expert at PSU-ACC,
the functional and non-functional requirements of PosePal were identified and implemented through a Three-
Tier Architecture. This well-established software engineering model separates the system into three logical
layers Presentation, Application, and Data each playing a distinct role in the flow of data, processing logic,
and user interaction. Figure 2 illustrates this architecture.
Figure 3. Three-Tier Architecture of the PosePal Posture Tracking System
The Presentation Tier delivers the user-facing interface through a dedicated mobile application for employees
and a desktop admin panel for system administrators. The Application Tier, developed in Python, handles all
core processing logic including real-time posture detection, user identification through facial recognition,
alert generation, and analytics computation. The Data Tier, powered by Firebase, manages persistent cloud
storage, real-time data synchronization, and efficient retrieval across all connected devices. This separation of
concerns ensures that each tier can be updated or scaled independently without disrupting the overall system,
making PosePal both adaptable to future enhancements and resilient during periods of high usage. Together,
these three tiers form a cohesive, scalable, and maintainable architecture that supports continuous and
uninterrupted posture monitoring across the institution.
Table 2 summarizes the key functional and non-functional requirements of PosePal. The functional requirements
define the essential tasks the system must perform, while the non-functional requirements establish the quality
standards that govern how those tasks are carried out. These requirements were systematically derived from the
identified needs of PSU-ACC employees and subsequently validated through the system acceptability evaluation
presented in the final section of this discussion. Ensuring that both dimensions were clearly defined prior to
development guided the design decisions made throughout the system and served as the benchmark against
which PosePal's performance was ultimately measured.
Page 493
www.rsisinternational.org
INTERNATIONAL JOURNAL OF LATEST TECHNOLOGY IN ENGINEERING,
MANAGEMENT & APPLIED SCIENCE (IJLTEMAS)
ISSN 2278-2540 | DOI: 10.51583/IJLTEMAS | Volume XV, Issue V, May 2026
Table 2. Summary of PosePal Functional and Non-Functional Requirements
Requirement
Description
System Implementation
User Authentication
Secure account creation and login
linked to a unique user ID.
Firebase Authentication with cached
session management.
Real-Time Posture
Monitoring & Alerts
Continuous posture tracking via
camera with instant push
notifications upon detecting poor
posture.
YOLOv11-Pose + geometric classifier;
alerts triggered after 5-second
persistence threshold.
Posture Scoring System
Quantifies posture behavior into a
score (0100) computed hourly,
daily, weekly, and monthly.
Score inversely weighted by frequency
and duration of bad posture episodes.
Analytics & Reports
Visual charts of posture trends and
predictive score forecasting based
on historical data.
Firebase-synced data rendered as graphs
in the mobile app; exportable as CSV or
PDF by admin.
Personalized
Recommendations
Tailored posture tips, corrective
exercises, and movement break
reminders per user.
Recommendations prioritized by posture
score level and data patterns.
Competitive Leaderboards
Weekly and monthly rankings to
motivate users through peer
comparison.
Rankings generated from aggregated
posture scores stored in Firebase.
Face Registration &
Recognition
Biometric user identification using
three facial angle captures for
accurate posture log attribution.
ArcFace (InsightFace) model; cosine
similarity threshold of 0.50.
Admin Dashboard & Log
Management
Real-time monitoring of system
activity, posture logs, user accounts,
and detection settings.
Desktop admin panel with filterable
logs, live dashboard, and configurable
detection parameters.
Non-Functional Requirements (ISO/IEC 25010)
Performance
Low-latency posture detection and
real-time data updates.
GPU-accelerated inference (<30ms per
frame); Firebase real-time
synchronization.
Security
Protection of personal data and
facial recognition profiles.
Firebase Authentication; encrypted data
transmission and secure storage.
Reliability
Consistent uptime even during
extended monitoring sessions.
Firebase cloud infrastructure with
automatic scaling; 99.7% uptime
achieved.
Usability & Portability
Accessible interface for users with
varying technical skill levels across
platforms.
Flutter-based mobile app and PyQt
desktop application; intuitive navigation
and clear UI.
Page 494
www.rsisinternational.org
INTERNATIONAL JOURNAL OF LATEST TECHNOLOGY IN ENGINEERING,
MANAGEMENT & APPLIED SCIENCE (IJLTEMAS)
ISSN 2278-2540 | DOI: 10.51583/IJLTEMAS | Volume XV, Issue V, May 2026
The core functional feature of the systemreal-time posture monitoring with instant alert deliveryis illustrated
in Figure 4. This figure presents the Posture Scoring System, where the user’s daily posture behavior is quantified
through a live circular score gauge. It is supplemented by key metrics, including episode count and total time
spent in poor posture. Additionally, an active push notification banner alerts the user whenever poor posture is
detected, enabling timely awareness and intervention.
Figure 4. Real-Time Monitoring and Alert Screen
Figure 5, on the other hand, presents the in-app alert screen, which displays a real-time warning directly within
the application interface. This feature prompts users to immediately correct their sitting position upon detection
of improper posture. Together, these functionalities provide a direct and responsive solution to the posture
monitoring gap identified among PSU-ACC employees.
Figure 5. In-App Alert Screen
On the administrative side, Figure 6 presents the Admin Real-Time Dashboard, which provides supervisors with
a live view of recognized users, active bad posture alerts, and system session uptime. This administrative layer
Page 495
www.rsisinternational.org
INTERNATIONAL JOURNAL OF LATEST TECHNOLOGY IN ENGINEERING,
MANAGEMENT & APPLIED SCIENCE (IJLTEMAS)
ISSN 2278-2540 | DOI: 10.51583/IJLTEMAS | Volume XV, Issue V, May 2026
enables institutional-level monitoring and data management, supporting the campus-wide deployment of
PosePal.
Figure 6. Admin Real-Time Dashboard
Figure 7 illustrates the Posture Detection Logs Interface, which enables administrators to view, organize, and
manage all posture detection records generated by users. Each log entry contains essential details, including user
identity, posture status, detection timestamp, and posture score. The system also provides filtering options based
on user, date, or posture category, allowing administrators to efficiently monitor user activity and evaluate
overall posture performance.
Figure 7. Admin Posture Logs Management
Machine Learning Algorithm Used in Developing PosePal
Page 496
www.rsisinternational.org
INTERNATIONAL JOURNAL OF LATEST TECHNOLOGY IN ENGINEERING,
MANAGEMENT & APPLIED SCIENCE (IJLTEMAS)
ISSN 2278-2540 | DOI: 10.51583/IJLTEMAS | Volume XV, Issue V, May 2026
PosePal employs a sophisticated multi-algorithm pipeline that integrates advanced computer vision and deep
learning techniques for real-time posture monitoring and biometric identification. Figure 8 illustrates the
complete PosePal Multi-Stage Machine Learning Pipeline Architecture, showing the sequential flow from multi-
camera input through detection, tracking, recognition, and classification stages, before final consensus
generation and alert delivery to Firebase.
Figure 8. PosePal Multi-Stage Machine Learning Pipeline Architecture
The system pipeline begins with multiple RTSP camera streams, enabling broad spatial coverage and improved
detection reliability from different viewing angles. Each video feed is processed using YOLOv11-Pose, an
anchor-free model that performs real-time human detection and 17-keypoint pose estimation. Operating at
640×640 resolution with inference times below 30 ms on CUDA-enabled GPUs, the model ensures efficient and
continuous posture monitoring.
Detected individuals are tracked using the ByteTrack multi-object tracking algorithm, which employs a Kalman
Filter and a two-stage data association strategy based on Intersection over Union (IoU). This approach maintains
consistent identity tracking across frames while reducing identity-switch errors. The system is configured to
balance tracking stability and responsiveness in dynamic environments.
The pipeline then branches into two parallel processes: biometric identification and posture classification. For
identification, the system integrates ArcFace via InsightFace, generating 512-dimensional facial embeddings
and performing identity matching using cosine similarity. Deep face recognition models of this class have been
shown to achieve over 99% verification accuracy across standard benchmark datasets, demonstrating strong
Page 497
www.rsisinternational.org
INTERNATIONAL JOURNAL OF LATEST TECHNOLOGY IN ENGINEERING,
MANAGEMENT & APPLIED SCIENCE (IJLTEMAS)
ISSN 2278-2540 | DOI: 10.51583/IJLTEMAS | Volume XV, Issue V, May 2026
robustness to variations in illumination, pose, and facial expression (Wang & Deng, 2021). For posture analysis,
a rule-based geometric classifier evaluates keypoint data to compute metrics such as spine alignment, neck angle,
and shoulder tilt. An adaptive baseline calibration mechanism using the 90th percentile of recent good-posture
measurements, combined with a 5-frame temporal smoothing strategy, enhances robustness and reduces false
detections. The posture classifier achieved 87.3% classification accuracy on manually annotated validation data
a competitive result comparable to recent vision-based posture detection systems that report accuracy ranges
of 8291% using similar keypoint-based geometric approaches (Bassino et al., 2023; Zaharuddin & Shah, 2025;
Kumar et al., 2025).
The outputs from both processes are consolidated through a multi-camera consensus mechanism, which applies
majority voting across active camera feeds and enforces a temporal persistence threshold before confirming poor
posture events. This combined spatial and temporal validation significantly reduces false positives compared to
single-camera setups.
Finally, validated posture events are logged to Firebase, enabling real-time synchronization, persistent storage,
and analytics generation within the mobile application. Overall, the system achieves high accuracy in posture
classification and face recognition while maintaining reliable real-time performance through GPU acceleration
and efficient system design.
Acceptability Level of the Proposed System
The acceptability of PosePal was evaluated by 21 respondents comprising 12 faculty members, 8 non-teaching
staff, and 1 IT expert at Pangasinan State University Alaminos City Campus. The evaluation used a
structured survey instrument adapted from ISO/IEC 25010, assessing eight software quality characteristics.
Scores were interpreted using a five-point Likert scale where a range of 4.215.00 is rated Outstanding, 3.41
4.20 is Excellent, 2.613.40 is Very Good, 1.812.60 is Good, and 1.001.80 is Poor.
Table 13 presents the overall average weighted mean scores across all eight acceptability dimensions.
Table 13 Overall Average Weighted Mean of System Acceptability
Mean
Description
4.02
Excellent
4.30
Outstanding
3.88
Excellent
4.51
Outstanding
4.06
Excellent
4.10
Excellent
4.30
Outstanding
4.40
Outstanding
4.19
Excellent
As shown in Table 13, PosePal achieved an overall average weighted mean of 4.19, interpreted as Excellent.
The system received its highest ratings in Usability (4.51, Outstanding) and Portability (4.40, Outstanding),
indicating that respondents found the system highly accessible, easy to navigate, and deployable across different
devices and platforms. Performance Efficiency (4.30, Outstanding) and Maintainability (4.30, Outstanding) also
Page 498
www.rsisinternational.org
INTERNATIONAL JOURNAL OF LATEST TECHNOLOGY IN ENGINEERING,
MANAGEMENT & APPLIED SCIENCE (IJLTEMAS)
ISSN 2278-2540 | DOI: 10.51583/IJLTEMAS | Volume XV, Issue V, May 2026
earned outstanding marks, reflecting the system's low-latency processing capabilities and its clearly structured,
testable, and modifiable codebase.
Functional Suitability received a mean of 4.02 (Excellent), confirming that the system accurately performs its
intended posture monitoring functions and appropriately supports users in their tasks. Reliability (4.06,
Excellent) and Security (4.10, Excellent) were likewise rated excellent, confirming that PosePal maintains
consistent availability through Firebase's cloud infrastructure and adequately protects user data and facial
recognition profiles through Firebase Authentication and encrypted data transmission. Compatibility received
the lowest mean at 3.88, still within the Excellent range, suggesting that while the system exchanges and utilizes
data effectively across platforms, there remains some room to further strengthen cross-system interoperability.
Overall, the acceptability evaluation affirms that PosePal is a functional, reliable, and user-centered posture
monitoring system that satisfactorily meets the needs of faculty and non-teaching staff at PSU-ACC. The
consistently high ratings across all eight ISO/IEC 25010 quality dimensions validate PosePal's readiness for
broader institutional deployment and its potential to promote healthier posture habits and improved occupational
well-being within the campus environment.
CONCLUSION
PosePal successfully addressed posture-related health concerns among faculty and non-teaching staff at
Pangasinan State University Alaminos City Campus through AI-powered real-time monitoring and instant
alerts. Built using Python, Dart, and JavaScript with YOLO for posture detection, Firebase as the cloud database,
and IP cameras as input devices, the system achieved an overall weighted mean of 4.19 (Excellent) across
ISO/IEC 25010 quality standards, confirming its reliability, usability, and effectiveness in promoting workplace
wellness.
The system's features including real-time posture detection, posture scoring, instant alerts, personalized
analytics, face recognition, and an admin dashboard demonstrated that AI-driven computer vision can serve
as a practical and accessible ergonomic solution in institutional environments, effectively reducing postural
deviations and encouraging long-term behavioral improvement among users.
The study affirms that AI-powered posture monitoring systems like PosePal can serve as proactive solutions for
occupational health. Continuous refinement of detection algorithms, alert mechanisms, and user interface design,
alongside ongoing evaluation of system accuracy and user satisfaction, will further ensure PosePal's
effectiveness across diverse real-world institutional environments.
REFERENCES
1. Abdul Rahim, A. R. A., Zahari, Z., Zainuddin, N. Z., & Nordin, N. A. M. (2022). Risk factors and
prevalence of musculoskeletal disorders among teachers and school staff: A review. International Journal
of Academic Research in Business and Social Sciences, 12(1), 16121624.
https://doi.org/10.6007/IJARBSS/v12-i1/12190
2. Bassino-Riglos, F., Mosqueira-Chacon, C., & Ugarte, W. (2023). AutoPose: Pose estimation for
prevention of musculoskeletal disorders using LSTM. Springer, Cham, 223238.
https://link.springer.com/chapter/10.1007/978-3-031-49339-3_14
3. Cheriyan, S., Sakthivel, S., Regula, T., Kumar, K., & Al Riyami, S. (2025). Smart posture monitoring and
predictive health classification for bedridden patients using IoT and AI. IEEE Xplore, 15.
https://ieeexplore.ieee.org/abstract/document/10845586
4. Kumar, S. S., Madesh, S., Nikitha, B., & Maheshwari, R. (2025). Intelligent posture monitoring system
with real-time notifications using MediaPipe and OpenCV. Springer Nature Link, 145155.
5. Mahomed, A. S., & Saha, A. K. (2024). Driver posture recognition: A review. IEEE Xplore, 176301
176345. https://ieeexplore.ieee.org/abstract/document/10750806
6. Ota, M., Tateuchi, H., Hashiguchi, T., Kato, T., Ogino, Y., Yamagata, M., & Ichihashi, N. (2020).
Verification of reliability and validity of motion analysis systems during bilateral squat using human pose
tracking algorithm. Gait & Posture, 80, 6267. https://doi.org/10.1016/j.gaitpost.2020.05.027
Page 499
www.rsisinternational.org
INTERNATIONAL JOURNAL OF LATEST TECHNOLOGY IN ENGINEERING,
MANAGEMENT & APPLIED SCIENCE (IJLTEMAS)
ISSN 2278-2540 | DOI: 10.51583/IJLTEMAS | Volume XV, Issue V, May 2026
7. Pistolesi, F., Baldassini, M., & Lazzerini, B. (2024). A human-centric system combining smartwatch and
LiDAR data to assess the risk of musculoskeletal disorders and improve ergonomics of Industry 5.0
manufacturing workers. Computers in Industry.
https://www.sciencedirect.com/science/article/abs/pii/S0166361523001926
8. Sharma, R., & Rawat, N. (2023). Posture: Its significance in human health. Journal of Health and Allied
Sciences NU, 13(1), 4852. https://doi.org/10.1055/s-0043-1766103
9. Sreevani, V., Reddy, B. S., Nithin, K., Vardhan, K. H., Mohammed, K. A., Reddy, U., Lakhanpal, S., &
Kalra, R. (2024). Advanced interdisciplinary approaches for bad posture detection using computer vision
and IoT. E3S Web of Conferences, 507, 01045. https://doi.org/10.1051/e3sconf/202450701045
10. Szczygiel, E., Fudacz, N., Golec, J., & Golec, E. (2020). The impact of the position of the head on the
functioning of the human body: A systematic review. International Journal of Occupational Medicine and
Environmental Health, 33(5), 559568. https://doi.org/10.13075/ijomeh.1896.01550
11. Tsantili, A. R., Chrysikos, D., & Troupis, T. (2022). Text Neck Syndrome: Disentangling a new epidemic.
Acta Medica Academica, 51(2), 123127. https://doi.org/10.5644/ama2006-124.380
12. Wang, M., & Deng, W. (2021). Deep face recognition: A survey. Neurocomputing, 429, 215244.
https://doi.org/10.1016/j.neucom.2020.10.081
13. Zaharuddin, M. S. H., & Shah, S. M. (2025). A smart chair for sitting postures monitoring and seat
occupancy detection. Journal of Electronic Voltage and Application.
https://penerbit.uthm.edu.my/ojs/index.php/jeva/article/view/18203