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Revolutionizing Athlete Management in the Indian Sporting Industry

DOI : https://doi.org/10.5281/zenodo.18136503
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Revolutionizing Athlete Management in the Indian Sporting Industry

Prof. Harshal S. Patil

Computer Engineering RCPIT, Shirpur, India

Bhavesh Dhangar

Computer Engineering RCPIT, Shirpur, India

Tushar Bhoite

Computer Engineering RCPIT, Shirpur, India

Gaurav Shinde

Computer Engineering RCPIT, Shirpur, India

Chinmay Khairnar

Computer Engineering RCPIT, Shirpur, India

Abstract – In the following paper, the design and implemen- tation are presented. of a safe, role based Athlete Management System (AMS) customized to the Indian sporting environment. The system supports there are four different logins: Athlete, Coach, Organization/Event Manager, and Dietician. At the core level of functionality, there is performance tracking. management of training schedules, registration of events, individual. nutri- tion, and channels of communication. We describe the system architecture, modules, data model, UI/UX considerations and an example of an implementation with an up-to-date web stack. We test functionality on sample scenarios and suggest the future. scale and analytics improvements.

Index Terms – Athletes management, role-based access control, coach dashboard, event management, dietician, sports technology, web application.

  1. INTRODUCTION

    Sports business is turning more digital in terms of managing the data about athletes, their training and events. In India, there are still inadequate tools and manual processes in grassroots and professional sports management. Our solution is the integrated Athlete Management System (AMS), which com- bines the monitoring of athlete performance, coach activities, event/organization management and nutrition planning using dietician-supported and integrated through a secure multi-role web platform. Four specialized logins are supported by the system, and they include Athlete, Coach, Organization (Event Manager), and Dietician.

    In order to overcome them, the proposed AMS uses up-to- date web technologies to simplify the data processing process, automate daily processes, and improve communication among all stakeholders. In addition to the ability of coaches to evaluate the development of players, allocate the drills, and control the attendance, the athletes will be able to track their progress in terms of performance rates and individual training programs. The organizations are able to perform event registrations efficiently, to keep track of the athlete records

    and manage competition logistics. Also, dieticians have an opportunity to develop personalized nutrition programs, mon- itor dietary adherence, and constantly provide instructions. The Athlete Management System will streamline efficiency, transparency, and long-term development of athletic functions by consolidating these functional areas into one platform.

  2. BACKGROUND

    Manual data management has been used in managing athlete data. spreadsheets and disconnected tools, record-keeping. applied on its own by coaches, athletes, and sports organi- zations. The sports ecosystem is growing, especially in a fast expanding market such as India- there is increasing demand of digital, structured systems that simplify the process of monitoring athletes, event organization, training program and nu- trition planning. Nevertheless, the solutions that are in place are usually frag- intelligent, unintegrated with perfor- mance analytics, coaching processes, and management of organizations. This causes inefficiencies, inconsistencies in the data, and difficulties. monitoring athlete development. As sports science, data analytics, and evolve, data analytics will continue to evolve as well. With digital health platforms, a major change has occurred. manual to smart, technology- ampified athlete. management solutions. The initial compu- tational machines were concerned. on basic storage of data or registration of events, offer-, little support of performance insight or teamwork. among stakeholders. These systems did not perform to merit. real-time, role-specific and scalable tools demanded by modernity. sports environments.

  3. MOTIVATION

    The data of athletes has been managed through traditional manual techniques like writing down data on papers, use of spreadsheets, and stand-alone digital applications. Coaches,

    athletes, and sports organizations frequently use these sys- tems separately and therefore their data are not centralized, making collaboration between stakeholders impossible. These methods are very time-consuming, prone to error, and lack the capability to address the increasingly complex modern sports management.

    As the sports ecosystem continues to grow especially in the rapidly developing market such as India it is creating a demand to find out digital, standardized and intelligent systems that can be used to streamline the athlete management processes. The sports organizations in this day and age have to deal with massive amounts of data concerning the profile of athletes, their performance levels, training programmes, medical history, eating habits, and their competition records. Manual and semi-digital systems do not offer a combined perspective of this information, thus, it is hard to follow progress of athletes, assess performance patterns, and base decisions on data.

    Current solutions exist in managing the athletes, which tend to be fragmented, and not capable of smart analytics. Majority of systems are aimed at simple data storage or event logging and provide little help with the analysis of the performance, injury prevention, coaching strategies, and long- term development of an athlete. Such constraints cause ineffi- ciencies, inconsistency in data and challenges in tracking the development of athletes over time. Furthermore, the absence of real-time insights and role-specific access suppresses the effective dialogue and correlation between coaches, trainers, medical workers, and administrators.

    The improvement in sports science, data mining and digital health technologies have greatly changed the ways in which the athletes are trained and managed. The contemporary sport setting requires intelligent systems that can work in harmony and integrate performance data, physiological data, and be- havioral patterns and provide evidence-based decision-making. The move to manual processes to smart and technology- enhanced athlete management solutions has ceased being a choice and has become a necessity in keeping up with competition and better athlete performance.

    The previous computational systems were chiefly used to collect basic data storage and descriptive reporting with little information being made as to the dynamics of a team or how to optimize individual performance. These systems did not match the demands of the current sports organizations, that need scalable, real-time and interactive system. The modern- day clientele anticipates platforms that do not just store information but can read, recognize trends, derive risks like injuries or worsening of performance, provide tailored advice. Hence, the need to create an all-encompassing Athlete Management System involving data management, analytics, and intelligent decision support is highly motivated. This system may increase the visibility, make the cooperation between stakeholders more effective, decrease the amount of administration, and facilitate the constant tracking of the progress of athletes. The proposed solution would resolve the shortcomings of the current systems and serve the needs of the

    current sports settings amid modern technologies to address the needs of the ever-changing sports environment.

  4. PROBLEM STATEMENT

    Despite rapid growth in the Indian sporting ecosystem, ath- lete development is still hindered by fragmented and outdated management practices. Most academies, coaches, and organi- zations rely on manual record-keeping, isolated spreadsheets, and uncoordinated communication methods to handle athlete profiles, training schedules, performance metrics, nutrition plans, and event participation. This results in inconsistent data, limited long-term tracking, and inefficient collaboration among athletes, coaches, dieticians, and event managers.

    Existing digital solutions, where available, typically focus on a single areasuch as event registration, attendance logs, or performance analyticslacking a unified system capable of supporting all stakeholders. This lack of integration creates significant challenges, including:

    • Difficulty in maintaining accurate and centralized athlete data
    • Limited visibility into training progress and performance trends
    • Ineffective communication and coordination across roles
    • Absence of structured nutrition guidance tied to training loads
    • Inability to generate meaningful insights for decision- making
    • Poor scalability for academies managing multiple athletes or sports

      To address these issues, there is a clear need for a secure, role-based Athlete Management System (AMS) that consoli- dates athlete performance tracking, coaching workflows, event and organization management, and personalized nutrition plan- ning into a single, cohesive digital platform. The proposed AMS aims to eliminate fragmentation, streamline data flow, enhance stakeholder collaboration, and support holistic athlete development across the Indian sporting ecosystem.

  5. LITERATURE REVIEW
      1. Manual Athlete Data Management: The manual doc- uments, spreadsheet, and informal communication are the traditional ways of managing athletes in most sports organiza- tions. The coaches will have physical recordings or scattered electronic files where they keep track of the performance, attendance and training routines. Although, at the small group scale, this approach is effective, it is inefficient and error-prone when the number of athletes grows. Research in the study of sports administration points to the fact that manual data systems result in inaccuracies and lack of longitudinal tracking capabilities as well as scalability to large training academies and multi-sport organizations.
      2. Sports Management Information Systems (SMIS):: other. institutions have SMIS sites to manage the admission of athletes, training sessions and history of competitions. These systems are but in the majority of instances confined to administrative responsibilities in- comprising registration and scheduling. Studies that have taken The use of SMIS in place in universities increases. productivity of processes, but, athletes and coaches still do. monitor their performance, diet, and use external applications to monitor their performance, diet, and communication. This fragmented working process is diminished. competence of athlete development traditions.
      3. Athlete Performance Tracking Applications:: Current. video analysis is offered with the help of applications such as Hudl and Dartfish. visualization of performance, as well as data-driven insights towards com- petitive sports. Although these tools provide high-quality analytics, they are mostly professional teams and demand a lot. financial investment in a way that they are less available to the grass- roots academies. In addition, such platforms are devoid of built- in. nutrition planning modules, multi-role access modules, and event modules. management, which renders them inapplicable as an end-to-end athlete. management solution.
      4. Tracking Systems Wearables:: Wearables like GPS watches, activity watches and heart-beat watches record. phys- iological and workload data of the athlete in real-time. Re- search According to literature on sports science, wearable- based implies that athletes are monitored to enhance perfor- mance outcomes. monitoring enhances precision of training and prevention of injury. These systems however tend to operate independently and need a specific software to analyze. The absence of cen- dashboards tralized leads to athletes, coaches and dieticians. moving data across various disjointed platforms.
      5. Cloud-Based Sports Platforms:: There are a number of new so- Cloud computing is applied in lutions to fa- cilitate remote monitoring, centralized storage, and access by multiple devices. Platforms like The team communi- tools are available in TeamSnap and LeagueApps. scheduling and roster management, cation. Although they are not entirely integrative, effective in the logistical coordination. analytics of training, nutrition plans, and profile of players. The literature indicates that these platforms are faced with low quality. making them incapable of being customized by the academies. their particular training systems.
  6. DATA PROCESSING AND INTERPRETATION

    In this section, the pertinent data have been summarized. processing performances of athletes. Data processing is a part of the functionality and efficacy of an. Athlete Man- agement System (AMS), which provides support of multiple key aspects of training, monitoring and decision-making. Raw data of training logs, wearable in the first stages. equipment, and nutritional monitoring are pre-processed to deal with gaps. normalize, homogenize, eliminate outliers, etc. uniform data to be further analyzed. Feature extraction methodologies are then used to measure significant performance met- rics

    like running speed, strength progression, endurance, recov- ery schedules, and compliance to diets. After extracting the features, data interpretation meth- ods- such as statistical analysis, visualization and report- ingconvert these metrics into actionable information on behalf of ath- letes, coaches, dieticians and managers of the organization. Ad- Machine may also be in use in vanced AMS implementations. learning models to determine trends, predict injury risks, and propose individual training modifications. By systematically the system has been able to process and interpret athlete data. all-inclusive surveillance, sound judgment and.

    optimal performance of individuals and teams.

  7. Overview and Features

    A. Athlete Profile and Performance Tracking

    Athletes Athlete Management System (AMS) offers a struc- ture. tured and all-inclusive model of development, sustenance, and performing profile analysis of athletes. Every profile is essen-consolidated. tial data like personal data, biometrical characteristics, training history, medical and event. participa- tion. The system would guarantee that all the data pertaining to the athletes were done. is represented in standard format where it can be accessed easily. to authorized parties like coaches, dieticians, etc. organization managers. The platform facilitates an in-depth performance tracking. by means of special modules to capture essential fitness. parameters, such as stamina measures, strength measures, elasticity measures, and ability-based assessments. These in- puts are also regularly corrected to the training of the athlete. development and muscular training. Additionally, nutrition professional workers are able to record eating rules, caloric consumption patterns, hydration metrics, and compliance data, and providing a single. view of the well-being of the athlete. One of the main characteristics of the AMS is the possibility of training personalization. programs acording to the aspirations of the sportsman, sport-specific needs, and coach recommendations. The system allows dynamic prescription of exercise algo- rithms, observance of drills- dance, and change of training loads to avoid excessive exertion. tion. Performance dash- boards provide graphic discoveries that render. it would be more convenient to coaches and athletes to see the improve- ments, detect stagnation, and identify possible performance problems. early. To improve the decision making, the AMS implements ana- lytical methods which are able to derive patterns based on historical. data. Such algorithms will be capable of identifying areas requiring improve. i.e. advice on optimal training methods and create com- comparative findings in various stages of training. Predictive components can also present probable performance paths. or potential risk of injury according to the work and trend analysis. This factual advice assists in designing development-individualized. pathways in ment, guaranteeing training, nutrition and recovery.

  8. RESULTS & CONCLUSION

    The Athlete Management System (AMS) had been created and. strictly tested, and simulates sports management. scenar-

    Fig. 1: HOME PAGE

    Fig. 2: ATHELETE LOGIN

    Fig. 3: COACH LOGIN

    Fig. 4: DIET MANAGEMENT

    ios on creation of athlete profiles to performance analysis. and event management. Security, privacy, and data integrity. preferred to be prioritized in the system. Role-based access control keeps out of the system any other users other than the authorized user Athletes, Coaches, Depending on the organization, and Dietician, can access the right data. Sen- sensitive data including health data and eating habits are. maintaining compliance with and stored and transmitted safely. data protection standards.

    The system was very efficient and reliable in terms of performance in the course of testing. Athlete profile, training schedule, performance, and nutrition plans were created, up- dated, and visualized successfully without loss of data and dis- crepancies. It allowed coaches and dieticians to track progress, produce reports and amend plans in real time which saved a lot of administrative work as opposed to the manual techniques. The user-friendly interface and simplified workflows were mentioned in the feedback of simulated users as the primary benefits.

    Altogether, the AMS is a platform with a centralized, multi- purpose approach that combines the monitoring of athletes performance, training organization, organization of events, and nutrition planning. The system enables the development of the athletes holistically by automating routine operations, facilitating data-driven decision-making, and delivering action- able insights that ultimately make the operations of sports organizations more efficient. It can be further enhanced in the future with predictive injury prevention analytics, AI- driven suggestions of performance, and support by wearable devices to monitor the results in real time.

  9. FUTURE SCOPE

Although the present Athlete Management System (AMS) pro- vides overall athlete profile administration, performance. There is a track, event and nutrition planning. considerable room to grow and develop. Integration of real time data is one of the areas that can be enhanced. heart-rate monitors, GPS, are some of the wearable devices. trackers, and motion sensors. This would enable the system to perform the continuous performance monitoring, early detection of risk of fatigue or injury, and more specific training recommend- tions. The other possible expansion is ad- inclusion. Machine learning and advanced analytics. Predictive al- The historical performance data could be analyzed by algorithms in order to make predic- tions. development of athletes, streamline training programs, and reconsider. mend customized diet Immediate plans. AI- driven insights would also help coaches make well-informed choices. and discovering talent early in life, enhancing athletes on a general scale. development programs. Mobile applications integration and cloud-based plat- Forms might also improve accessibility so that athletes, to update and gain access to coaches, dieticians and organizations. data from anywhere. Community or social aspects could. promote teamwork, group encouragement and exchange of. accomplishment, which is further than internal use of the system. organizational use.

Lastly, implementing the system to cover a number of sports. disciplines and tournaments and league management would fur- ther increase its relevance. Automated per- features as well as features like automated per- comparative performance of athletes, leaderboard, and competition analytics might give more profound insights on. companies and boost activity. By adopting these progress, the AMS will be able to go into a full- fledged intelligent, platform which is scalable, adaptive and suited to the varied needs. of sports organizations, coaches, and athletes making sure that there is a long-term.

term effect and sustainability in sports management.

REFERENCES

  1. E. F. Loftus, Planting misinformation in the human mind: A 30-year investigation of the malleability of memory, Learn. Mem., vol. 12, no. 4, pp. 361366, 2005.
  2. D. G. Ellis and N. D. Hanson, Forensic art monitor: Forensic sketch reliability, J. Forensic Sci., 2002.
  3. S. Andrews and B. K. Smith, Evaluating sketch-to-photo techniques for

    forensics, J. Forensic Sci., 2019.

  4. H. K. Galoogahi and T. Sim, Face sketch recognition by local Radon binary pattern: LRBP, in 19th IEEE Int. Conf. Image Process., 2012.
  5. C. Frowd, A. Petkovic, K. Nawaz, and Y. Bashir, Automating the processes involved in facial composite production and identification, in Symp. Bio-inspired Learning and Intelligent Systems for Security, 2009.
  6. P. Yuen and C. Man, Human face image searching system using sketches, IEEE Trans. SMC-A, vol. 37, pp. 493504, Jul. 2007.
  7. H. Han, B. Klare, K. Bonnen, and A. Jain, Matching composite sketches to face photos: A component-based approach, IEEE Trans. Inf. Forensics Security, vol. 8, pp. 191204, Jan. 2013.
  8. B. Klare and A. Jain, Sketch to photo matching: a feature-based ap- proach, in SPIE Conf. Biometric Technology for Human Identification, 2010.
  9. X. Wang and X. Tang, Face photo-sketch synthesis and recognition, IEEE Trans. Pattern Anal. Mach. Intell., vol. 31, no. 11, pp. 19551967, Nov. 2009.
  10. X. Tang and X. Wang, Face sketch recognition, IEEE Trans. Circuits Syst. Video Technol., vol. 14, no. 1, pp. 5057, 2004.
  11. W. Zhang, X. Wang, and X. Tang, Coupled information theoretic encoding for face photo-sketch recognition, in Proc. CVPR, 2011, pp. 513520.
  12. Y. Song, J. Zhang, L. Bao, and Q. Yang, Fast preprocessing for robust face sketch synthesis, in Proc. 26th Int. Joint Conf. Artif. Intell., 2017,

    pp. 45304536.

  13. Y. C. Lai, B. A. Chen, K. W. Chen, W. L. Si, C. Y. Yao, and E. Zhang, Data-driven NPR illustrations of natural flows in Chinese painting, IEEE Trans. Vis. Comput. Graph., vol. 23, no. 12, pp. 25352549, Dec. 2017.
  14. F.-L. Zhang, J. Wang, E. Shechtman, Z.-Y. Zhou, J.-X. Shi, and S.

    M. Hu, PlenoPatch: Patch-based plenoptic image manipulation, IEEE Trans. Vis. Comput. Graph., vol. 23, no. 5, pp. 15611573, May 2017.

  15. M. Zhu, N. Wang, X. Gao, and J. Li, Deep graphical feature learning for

    face sketch synthesis, in Proc. 26th Int. Joint Conf. Artif. Intell., 2017,

    pp. 35743580.

  16. N. Wang, X. Gao, L. Sun, and J. Li, Bayesian face sketch synthesis,

    IEEE Trans. Image Process., vol. 26, no. 3, pp. 12641274, Mar. 2017.

  17. Y. Song, L. Bao, S. He, Q. Yang, and M.-H. Yang, Stylizing face images

    via multiple exemplars, Comput. Vis. Image Understanding, vol. 162,

    pp. 135145, 2017.

  18. N. Wang, X. Gao, and J. Li, Random sampling for fast face sketch synthesis, Pattern Recognit., vol. 76, pp. 215227, 2018.
  19. Y. J. Huang, W. C. Lin, I. C. Yeh, and T. Y. Lee, Geometric and textural blending for 3D model stylization, IEEE Trans. Vis. Comput. Graph., vol. 24, no. 2, pp. 11141126, Feb. 2018.
  20. S. S. Lin, C. C. Morace, C. H. Lin, L. F. Hsu, and T. Y. Lee, Generation of Escher arts with dual perception, IEEE Trans. Vis. Comput. Graph., vol. 24, no. 2, pp. 11031113, Feb. 2018.
  21. B. Sheng, P. Li, C. Gao, and K.-L. Ma, Deep neural representation guided face sketch synthesis, IEEE Trans. Vis. Comput. Graph., vol. 25, no. 12, pp. 32163230, Dec. 2019.
  22. I. Goodfellow et al., Generative adversarial networks, in NeurIPS, 2014.
  23. P. Isola, J.-Y. Zhu, T. Zhou, and A. A. Efros, Image-to-image translation with conditional adversarial networks, in Proc. CVPR, 2017, pp. 5967 5976.
  24. J.-Y. Zhu, T. Park, P. Isola, and A. A. Efros, Unpaired image-to-image translation using cycle-consistent adversarial networks, in Proc. ICCV, 2017, pp. 22422251.
  25. J.-Y. Zhu, R. Zhang, D. Pathak, T. Darrell, A. A. Efros, O. Wang, and E. Shechtman, Toward multimodal image-to-image translation, in NeurIPS, 2017.
  26. J. Yu, Z. Lin, J. Lin, X. Shen, G. Lu, and T. S. Huang, Generative image

inpainting with contextual attention, in Proc. CVPR, 2018.