Abstract
Increasing the efficiency of an enterprise largely depends on the productivity of its employees, which must be properly assessed and the correct assessment of the contribution of each employee is important. In this regard, this article is devoted to a study conducted by the authors on the development of a digital employee rating system (DERES). The study was conducted on the basis of machine learning technologies and modern assessment methods that will allow companies to evaluate the performance of their departments, analyze the competencies of the employees and predict the rating of employees in the future. The authors developed a 360-degree employee rating model and a rating prediction model using regression machine learning algorithms. The article also analyzed the results obtained using the employee evaluation model, which showed that the performance of the tested employees is reduced due to remote work. Using DERES, a rating analysis of a real business company was carried out with recommendations for improving the efficiency of employees. An analysis of the forecasting results obtained using the rating prediction model developed by the authors showed that personal development and relationship are key parameters in predicting the future rating of employees. In addition, the authors provide a detailed description of the developed DERES information system, main components, and architecture.
1 Introduction
Effective employee motivation is a significant concern for companies and enterprises today. A key element in achieving this is the implementation of rating systems, which identify employee characteristics and aim to improve team efficiency.
The rating system is a system for identifying the characteristics of employees, aimed at improving the efficiency of the team.
The term “ratіng” can be іnterpreted as a measure that descrіbes an entіty and allows іt to assess the probabіlіty of advantage or domіnance over other entіtіes іn a competіtіve envіronment. One can say that a person or a group of people has a hіgh ratіng when the supremacy of a gіven subject(s) (partіcіpant(s) іn the ratіng process) іs hіgher than іts competіtors (other partіcіpants іn the ratіng). Today, the phenomenon of ratіng can be observed іn varіous fіelds: economіcs, fіnance, polіtіcs, cultural lіfe, sports, etc. [1].
By enhancing rating systems, organizations can achieve a significant increase in staff motivation, leading to improved performance and enhanced teamwork [2].
Consider the following situations where it is essential to monitor the employees:
The appearance of staff turnover. If a company experiences a high turnover rate, it is essential to monitor employee turnover closely. High turnover can indicate underlying issues such as dissatisfaction, lack of engagement, or poor work environment. By monitoring turnover, organizations can identify patterns, address root causes, and take necessary measures to improve motivation and retention.
Lack of performance evaluation system in the company. The lack of a robust performance evaluation system underscores the need to address shortcomings in the existing evaluation processes in order to foster employee motivation. Without an effective evaluation system in place, organizations face several challenges that can hinder employee engagement and also the overall performance.
Making managerial decisions in personnel policy. Rating systems provide valuable data and insights that enable managers to make effective personnel policy decisions. By leveraging the information obtained from these systems, managers can assess performance, identify talent, drive development, provide feedback, and create a positive work environment. This ultimately contributes to organizational success, employee motivation, and the achievement of strategic objectives.
Increasing the level of conflict in the team. Rating systems enable the identification of performance discrepancies, promote objective feedback, address biases, and provide a basis for conflict resolution within teams. By leveraging the insights provided by these systems, managers can proactively mitigate conflicts, promote a positive team dynamic, and create an environment conducive to collaboration and productivity.
Identification of employee complaints about working conditions. Monitoring employee feedback and concerns regarding working conditions is vital for fostering employee engagement, retention, and satisfaction. It helps ensure a safe and healthy work environment, enhances productivity and performance, builds a positive organizational reputation, and enables continuous improvement. By actively listening to employees and taking action on their feedback, organizations can create a supportive and conducive workplace that benefits both employees and the overall success of the organization.;
Lack of motivation among employees. Rating systems help address motivational challenges by providing clarity, recognition, growth opportunities, feedback, fairness, and accountability. By incorporating these elements into the rating process, organizations can inspire and motivate employees, fostering a positive work environment and driving individual and collective performance.
Expansion or renewal of the staff of company managers. By utilizing rating systems, organizations can make data-driven decisions during company expansion or restructuring phases. These systems provide valuable insights into employee performance, skills, potential, team dynamics, and progress, enabling decision-makers to align resources, identify talent, address skill gaps, and ensure a successful transition during periods of organizational change.
Changes in the personnel of the company. Monitoring and evaluating employees during personnel changes or transitions play a vital role in maintaining performance, aligning roles, managing team dynamics, supporting change, succession planning, enhancing employee engagement, and upholding performance standards. It enables organizations to navigate personnel changes effectively, minimize disruptions, and ensure a smooth transition while maximizing employee productivity and job satisfaction.
Strengthening the position of the company due to the personnel reserve. Rating systems play a vital role in identifying and developing potential future leaders within an organization. By providing objective assessment, aiding in talent identification and succession planning, offering development opportunities, facilitating performance feedback, providing success metrics, and supporting leadership pipeline management, rating systems enable organizations to identify, nurture, and groom individuals with leadership potential, ensuring a strong leadership bench for the future [3].
These situational factors highlight the need for effective rating systems to address these challenges.
The assessment of personnel according to the traditional rating systems are carried out as follows: for each completed task, the specialist receives a certain, pre-specified number of points. After specific period, for instance, a month, the staff rating is formed based on the scored points. At the end of the month, the points are summed up, and the enterprise receives the productivity information of employees.
This approach has the following drawbacks: paper based, does not provide full rating analysis, does not make suggestions or predictions, assesses only task management skills. Managers should be able to easily identify the current and projected competencies of their employees. Thus, it is important to provide enterprises with digital tools for evaluating employees based on well organized assessment model and artificial intelligence for data analysis.
The assessment model was based on known 360-degree method with additional features built by authors. 360 degree is a method in which employees receive anonymous, confidential feedback from their coworkers [4]. This method provides employees with multi-perspective and anonymous feedback, enriching their understanding of their performance and facilitating their professional development. By considering a broader range of perspectives, this approach enhances the sense-making apparatus within organizations, promoting a culture of continuous learning, collaboration, and improvement.
For data analysis, authors use regression machine learning. Employing regression machine learning algorithms in data analysis for predicting professional growth or decline offers the advantage of data-driven decision-making. It provides organizations with valuable insights into employee development needs, helps identify high-potential individuals, and supports effective talent management strategies. By leveraging advanced analytical techniques, organizations can enhance the sense-making process by making more accurate predictions, optimizing resource allocation, and fostering a culture of data-driven decision-making.
This research aims to bridge the gap between traditional paper-based rating systems and the need for more comprehensive, digital tools that provide a thorough analysis of employee ratings, offer suggestions and predictions, and assess a wider range of competencies beyond task management skills. The identified research gap lies in the absence of an assessment model that incorporates a 360-degree feedback approach while utilizing regression machine learning algorithms for data analysis.
By combining the 360-degree method, which provides multi-perspective and anonymous feedback from coworkers, with regression machine learning algorithms for data analysis, the research provides the following benefits:
Improved evaluation model: The research introduces an assessment model that goes beyond traditional rating systems by incorporating 360-degree feedback. This model enables employees to receive comprehensive feedback from multiple perspectives, enhancing their understanding of performance and supporting their professional development.
Enhanced decision making: By employing regression machine learning algorithms for data analysis, the research facilitates data-driven decision-making in organizations. This approach provides valuable insights into employee development needs, helps identify high-potential individuals, and enables effective talent management strategies.
Filling the research gap: The research addresses the existing gap in the literature by combining the 360-degree method and regression machine learning, which had not been extensively explored previously. It provides a novel approach to employee evaluation and contributes to the understanding of how advanced analytical techniques can be applied to improve rating systems.
Practical applications: The research’s focus on digital tools and artificial intelligence for evaluating employees highlights the practical implications of incorporating technology into performance assessment. It offers organizations a framework for utilizing technology to enhance the accuracy, efficiency, and objectivity of employee evaluations.
2 Literature review
2.1 Employee evaluation using 360-degree method
Performance evaluation has traditionally been restricted to a feedback process only between employees and managers [5]. However, as the emphasis has switched to teamwork, development of employees, and service quality, the focus of human-resource management has been shifted to the employee evaluation from the whole circle of sources illustrated in Figure 1.

360-degree feedback sources.
The circle of feedback sources in Figure 1 consists of supervisors, colleagues, subordinates, customers, and one’s self. There are no legal or regulatory restrictions on utilizing a range of rating sources other than the employee’s supervisor to evaluate performance. According to research works [5,6], evaluation methods that include various rating sources produce more accurate, dependable, and reputable data. As a result, the Office of Personnel Departments in the United States promotes the use of various rating sources as an effective approach of evaluating performance for formal assessment and other evaluative and developmental objectives.
In a observational study [6] conducted between September 2017 and May 2018, the results showed that the mean scores for each of the items in the 360-degree evaluation were high, with the highest grades being observed in the evaluations made by peers and patients (a mean of 9.1 out of 10.0). On average, the 360-degree evaluation method yielded grades 0.067% higher than the previous evaluation method (p ≤ 0.001). Students and teaching staff encountered difficulties in the evaluations made by users/families and other members of the healthcare team (nursing assistants and physicians), although they rated the overall proposal as being very powerful in terms of educational value. Thus, the research concluded the 360-degree evaluation method as being an innovative, motivating, and integrating approach to the acquisition of competencies with a focus on excellence [6].
In the paper focused on leadearship [7], this process of 360-degree feedback is proved to provide a more valid assessment of the extent to which a leader is charismatic, intelligent, inspirational, and considerate [7].
2.2 Regression machine learning algorithms
For the research, the regression machine learning algorithms are selected because the data used in the research are structured and requires less data for training. Convolutional neural networks) or long short-term memory are not chosen as they are designed for specific tasks such as image or sequential data processing, which is not relevant to the given structured data [8].
For developing rating prediction model, the following supervised regression algorithms were studied and analyzed:
Support vector regression (SVR) – SVR is an algorithm based on support vector machines (SVMs), used for solving regression problems [9,10]. Vladimir Vapnik and his coworkers introduced SVMs in 1992, which was based on a nonparametric technique with kernel functions [11]. Yang et al. compared the effects of SVR, GRNNs, BPNNs, and multivariate adaptive regression splines method on global land surface FVC estimation and found that SVR is comparable to other machine learning algorithms [12]. SVR was used because the number of features in the data is not too large, as it works well for datasets with a limited number of samples and is sensitive to the choice of kernel [11].
The authors examined the study [13] conducted by Khoa and Huynh that combines the Uncovered Interest Rate Parity theoretical framework with the SVR algorithm to forecast the exchange rate between the VND and the USD during the COVID-19 pandemic. The study results show that the SVR model outperforms the ordinary least square regression and random walk models, indicating its superiority in forecasting accuracy. Similarly to the reviewed study, our research work uses 360-degree method as a theoretical tool when building a machine learning model.
Random forest regression (RFR) – RF is an ensemble machine learning method based on the use of classification and decision regression trees [13]. A prediction from the RFR is an average of the predictions produced by the trees in the forest. This averaging technique makes RF models more efficient than a single decision tree, thereby decreasing its errors and reducing overfitting. We used it because the relationship between the features and the output variable is complex and non-linear [14].
In research [14], authors describe a development of an enhanced prediction model to forecast the connection between causative factors and landslides based on RF, extreme gradient boosting (XGBoost), k nearest neighbor (KNN), and naive Bayes (NB) models. During tests, RF model demonstrated highest accuracy (83%) and area under curve (AUC) of about 89%.
The study [15] emphasizes the increasing use of machine learning approaches in analyzing parameters that impact the teaching-learning process. It suggests utilizing machine learning models based on decision trees to predict the optimal attributes that positively impact the Basic Education Development Index. The models proposed in the research were built in four different instances. In all modeling instances, the following DT-based models were compared: Decision Tree Return, RF Return; Extra Trees Return, AdaBoost Return, and Light Gradient Boosting Machine. The applied model demonstrates excellent accuracy in predicting the test data, as evidenced by a low mean squared error (MSE) of 0.2094 and a high coefficient of determination (R²) of 0.8991.
3 Research methods
After conducting a comprehensive review of existing methodologies, we have successfully developed advanced models dedicated to the evaluation and prediction of employee ratings. This section provides a detailed description of the workings of these models. By analyzing the strengths and limitations of existing approaches, we have designed the models to tackle the complexities and challenges associated with employee rating assessment. The following subsections will explain the underlying mechanisms and processes.
3.1 Employee evaluation model
Digital employee rating evaluation system (DERES) was developed by the authors as a new system, which allows us to research the qualitative and quantitative characterіstіcs of varіous competencіes of employees, evaluate departments’ ratings, and make predictions of employee’s future ratings.
The maіn objectіves of the DERES are to ensure a faіr measurement of the employee’s contrіbutіon to the workforce, to develop accurate assessment documentatіon to protect both the employee and the employer, and to obtaіn a hіgh level of qualіty and quantіty іn the work performed.
The purpose of the developed evaluation method іs to іdentіfy productіvіty of an іndіvіdual employee by certaіn groups of іndіvіduals who know and have had the opportunіty to observe the employee іn the work settіng (360-Degree feedback). Thіs іs accomplіshed wіth the collectіon of ratіngs from dіfferent sets of observers: self (the employee itself) and his/her colleagues.
To implement this, an assessment module “Employee evaluation during remote work” (EEDRW) was created, where the candidate (the employee who is being assessed by the system) is assessed on six sections and the total number of questions is 24. These sections and questions are presented in Table 1 (the formulation of sections, competencies, and questions should be considered only as an example; each company can change them in accordance with its specific activities).
Sectіons and competencies to be covered іn the EEDRW
Sectіons | Competence(s) | Description |
---|---|---|
Task management |
|
Task management estіmates how effectіve the employee’s work іs as well as how the results have an іmpact on the projects |
|
||
|
||
Adaptabіlіty |
|
Adaptabіlіty іn the workіng envіronment also needs to be assessed іn order to get the overall іdea of the employee’s abіlіty to rapіdly learn new knowledge and methods |
|
||
Personal development |
|
Level of one’s personal development should also be consіdered when evaluatіng the employee, as self-motіvatіon and self-studyіng help to іncrease the productіvіty of one’s work |
|
||
Relatіonshіps |
|
Another essentіal measurement іs one’s relatіonshіps wіth other members of the company. Thіs sectіon should test the employee’s communіcatіon skіlls and abіlіty to facіlіtate the team |
|
||
Creatіvіty |
|
Creatіvіty sectіon іncludes questіons related to one’s creatіve thіnkіng and proposіng new іdeas that mіght help the organіzatіon |
|
||
Workіng onlіne |
|
The fіnal sectіon estіmates one’s abіlіty to use comprehensіve onlіne platforms (e.g. Zoom, Mіcrosoft Teams) іn order to work wіth hіs/her team remotely |
The following methodology for realization of the rating process has been developed. Our rating evaluation system allows to establish that if an employee often exhibits certain behaviors that are part of the employee’s competencies, it is usually identified as effective and successful.
Another valuable item in the user rating system is the evaluator. An evaluator is someone who evaluates a user by answering a question. An evaluator can be a colleague of an employee, a manager, a team leader, or anyone who has interacted with the evaluated user.
Evaluators choose one optіon between sіx possіble choіces. Based on theіr observatіons, they іndіcate the percentage of tіme they felt the subject dіsplayed each behavіor. The sіxth optіon іs called “No Opportunіty” whіch іs selected when the evaluator has or not had opportunіty to observe the lіsted behavіor and thus cannot provіde a meanіngful response (Table 2).
Response optіons and theіr descrіptіon
Options | Description | Value |
---|---|---|
1 | Poor | 1 |
2 | Low | 2 |
3 | Moderate | 3 |
4 | Good | 4 |
5 | Excellent | 5 |
N | No opportunity | — |
The final value of the candidate’s rating is calculated as the arithmetic mean of the candidate’s self-assessment and the scores of all other assessors.
3.2 Employee rating prediction model
As a part of DERES system, research on developing prediction model of employee’s future ratings using machine learning algorithms was carried out.
3.2.1 Dataset preperation
For the training of the developing prediction model, the research uses simulated and real datasets of employees rating information.
As a real dataset, the research uses “IBM HR Analytics Employee Attrition & Performance” – open database created by IBM data scientists. It contains general and performance information of IBM employees. The original dataset consists of 35 features describing 1,470 employees. However, for the research purpose, the number of features was reduced to 7 (Figure 2). This dataset was used to create simulated data of employee ratings.

“IBM HR Analytics Employee Attrition & Performance” - dataset description.
The simulated data of employees have competences described in Table 1 as their features (Figure 3). The data rows are created using the IBM dataset. The target (predicted) value is “Overall Rating.” As the mean values of the properties are close to 2.5, it suggests that the data in the dataset are evenly distributed, indicating that it is balanced.

Simulated dataset properties with their description.
3.2.2 Key hyperparameters
Hyperparameters are values or settings that control the behavior of the learning algorithm and influence how the model is trained and its performance. Properly tuning hyper parameters is crucial for achieving optimal model performance.
3.2.2.1 Hyperparameters of SVR
SVR uses different kernel functions to transform the input data into a higher-dimensional space. The kernel hyperparameter defines the type of kernel to be used, such as linear, polynomial, radial basis function (RBF), or sigmoid. The choice of the kernel significantly impacts the model’s ability to capture complex relationships in the data. In this research, as a kernel we used RBF, as the data exhibit complex relationships that cannot be adequately captured by linear models.
The “C” hyperparameter controls the trade-off between maximizing the margin (distance between the support vectors and the decision boundary) and minimizing the training error. A smaller C allows more violations of the margin, potentially leading to a wider margin but allowing some training errors. A larger C penalizes violations more strongly, leading to a tighter margin and potentially lower training error. Its value was set to 0.5 to balance the advantages and disadvantages.
3.2.2.2 Hyperparameters of RFR
The hyperparameter “n_estimators” specifies the number of decision trees to be used in the RF. Increasing the number of estimators can lead to a more robust and accurate model, but it also increases the computational cost. The value of 200 displayed the best metrics result.
3.2.3 Evaluation metrics
In order to compare and select the best-suited algorithm for the model, the following regression evaluation metrics were used:
MSE was used to calculate the average squared difference between observed and expected values for every prediction [16];
Mean Absolute Error (MAE) was used to identify the average absolute error (the difference between the measured and real values);
R 2 (R-Squared) was used to measure the proportion of variation explained by an independent variable or variables in a regression model for a dependent variable.
3.2.4 Results and discussion
The machine learning methods used for developing rating prediction model were trained with the simulated dataset of employees and tested for performance. The results of these tests can be observed in Table 3.
Evaluation metrics results
Metric | SVR | RFR |
---|---|---|
MSE (%) | 0.32 | 0.27 |
MAE (%) | 4.40 | 2.47 |
R 2 | 0.98 | 0.98 |
As seen in Table 3, both algorithms showed approximately the same results of perdicting the target value on the testing dataset. However, MAE score of the RFR algorithm was about two times lesser than SVR’s. Thus, RFR algorithm was chosen to be used in the employee rating prediction model.
4 Architecture and technologies
The architecture of the information system for rating analyses has been developed, consisting of a web application running on the Laravel platform, employee prediction API and database (Figure 4). Laravel is a full-stack web-development tool that uses Model–view–controller (MVC) software design pattern [17].

Architecture of the information system module for employee rating analysis.
Laravel 8 continues the improvements made in Laravel 7.x by introducing Laravel Jetstream, model factory classes, migration squashing, job batching, improved rate limiting, queue improvements, dynamic blade components, tailwind pagination views, time testing helpers, improvements to artisan serve, event listener improvements, and a variety of other bug fixes and usability improvements.
As a web-server the system uses localhost. MySQL was used as a Database Management System (DBMS). MySQL is an open-source relational database management system (RDBMS). A relational database organizes data into one or more data tables in which data types may be related to each other, these relations help structure the data [17,18].
Security of data was handled by Laravel. Laravel automatically generates a CSRF “token” for each active user session managed by the application. This token is used to verify that the authenticated user is the one actually making the requests to the application.
Employee rating prediction API, run by python web-server, is used to predict employee future ratings using employee rating prediction model described in the research [19,20,21,22]. It receives employee’s current month ratings for each competence from the main web-server, inputs the data to the employee rating prediction model, sends back to server output of the prediction model as a result.
The Employee Evaluation Service (EESC) is made available subsequent to the organization’s representative completing the registration process within the system (refer to Figure 5). Once the registration is completed, the enterprise will be granted access to the comprehensive EESC. It is worth noting that an organization may comprise an arbitrary number of departments, with each department being endowed with the capability to conduct employee evaluation surveys.

Description of employee evaluation service.
Moreover, it is essential to emphasize that every employee is exclusively affiliated with a single department, thereby ensuring a distinct and unambiguous evaluation process for each individual employee. Consequently, evaluations are conducted separately for each employee, enabling a focused and targeted assessment of their performance.
Employee evaluation survey is an assessment tool, which is used by DERES to evaluate employees. The department representative can build employee evaluation survey manually, thus providing flexibility. By default, EEDRW is chosen.
The Employee Evaluation Process (EEP) entails a structured workflow designed for conducting comprehensive employee-by-employee evaluation surveys, as visually represented in Figure 6. Within the EEP, evaluators diligently assess each individual employee, and the outcomes of these assessments are meticulously recorded in a dedicated database. This database serves as a valuable repository of evaluation data, which subsequently becomes the foundation for generating a comprehensive report. The ultimate output of the EEP is the employee’s rating report, which provides a detailed and comprehensive account of the evaluation results pertaining to a specific user (employee) throughout their entire tenure within the organization [23,24]. The report encapsulates a comprehensive overview of the employee’s performance over the entire duration of their employment, offering a valuable insight into their strengths, weaknesses, and overall contribution to the organization.

Employee evaluation process.
5 Research results
For the implementation of the DERES system and its further analysis, a local Kazakhstani business-company – “Mebius Group” – used the developed system (DERES) from January to September of 2021. The company consists of two departments: IT-support and web-development departments. During the testing period, seven employees were assessed and evaluation results were calculated using the DERES system (Figure 7).

Organization employees’ rating results for 2021.
The graph in Figure 7 shows the results of organization departments’ average ratings for each month. During strict lockdowns, due to the pandemic situation in Kazakhstan, the organization was forced to switch to online working (from March to the end of July). In these months, employees’ ratings significantly declined. The minimum values for web-development department were calculated in July (3.2 points), while IT-support department obtained its minimum rating in May (2.45 points).
Starting from August, ratings started increasing. Thus, IT-support department reached its peak in September with 4.4 points. Whereas, rating of 3.87 was calculated for web-development at the end of September. The researchers assume that the improvement in departments’ ratings is due to two main reasons.
Return to offline work. A study published in the Academy of Management Discoveries journal found that offline work facilitated the development of social connections, trust, and shared understanding among team members. These social interactions were associated with higher levels of cooperation, coordination, and overall team performance [25]. This indicates that DERES assists managers in making informed decisions about which department should have the option to work online, considering their past performance and demonstrated results in online work;
By increasing work motivation through competition between employees of different departments. This is facilitated by the transparency and constant availability of the ratings: any employee in the system can view the ratings of his/her colleagues or employees of other departments. Such transparency and objectivity in assessing the work of company employees using DERES showed an increase in the productivity of team.
The DERES provides constantly updated short-term information about the employee’s rating, including his/her own evaluations and the evaluations of other employees on assessment questions (Figure 8). It shows which competencies should be improved by the employee as well as the suitability of the employee for the position or salary the subject currently has. The graph in Figure 8 showed that the assessed user’s weak points are adaptability and working-online.

An example of an employee’s EEDRW rating scores.
The next advantage of the developed system is that it can identify if an employee who has overestimated himself. From Figure 8, one can observe that the assessed employee gave more points to characteristics such as adaptability, working online, relationships, creativity compared to his/her teammates’ opinions. However, the assessed user underestimated his/her task management and personal development skills.
In Figure 9, the report illustrates the ratings of the selected employee by each month of the year with the predictions made by employee ratings prediction API for the upcoming months.

Employee’s ratings by month (for the year 2021) with predicted ratings.
Employee’s predicted ratings are dependant on the features’ weights described in Figure 10. From the list, one can observe that high personal development and excellent relationship with colleagues increase the chance of obtaining higher ratings in the near future.

Rating prediction model’s feature importance list.
6 Discussion of the results
Comparing DERES with traditional employee evaluation showed that DERES allows employers to evaluate employees using specialized software developed by the authors. The main advantage of DERES over traditional evaluation systems is that it reduces time and cost for evaluation process (Table 4).
Table 4 describes time differences spent on employee evaluation activities in traditional and digital DERES versions of employee rating evaluation systems. The values are estimated by the authors.
Estimated time spent on employee evaluation processes in different versions of employee rating evaluation systems
Process | Time (min) | |
---|---|---|
Traditional | Digital (DERES) | |
Taking survey | 60 | 10 |
Discussion with employee | 30 | 5 |
Setting up meetings with employees | 30 | 5 |
For example, in a company of 22 employees, using Table 4, each employee spends 60 + 30 + 30 = 120 min for evaluation process in traditional evaluation systems [26,27]. The overall time spent for one manager to complete evaluation of all employees with detailed analysis is 120 multiplied by 22 is 2,640 min or 44 h. Multiplying that by the manager’s hourly pay (10 USD on average) an estimated cost to the organization will be 440 USD per month. Whereas with DERES, it will cost 12 times less in terms of money and time.
7 Conclusіon
According to the authors, conducting a rating analysis of employees is one of the ways to increase the productivity of enterprises, this is also shown by a detailed literary analysis of works devoted to ways to increase the efficiency of an enterprise. This article proposes the DERES developed by the authors, the main advantages of which are: constant availability to employees of the enterprise for rating analysis, transparency of results, the possibility of a comparative analysis of various departments, efficiency, flexibility, and forecasting future employee ratings. Based on the developed DERES, a rating analysis of a real business company was carried out with recommendations for improving the efficiency of employees. The architecture of the information system has been developed. In the course of the study, the following methods were applied: the 360-degree method and the RFR method. When developing a rating prediction model, the analysis of regression machine learning algorithms showed that RFR showed slightly better results compared to the support vector regressor. The results of the developed rating forecasting model identified personal development and relationship skills as the most important skills in the production team. The results of a practical rating analysis conducted for a real company showed how remote work affected the work opportunities of verified employees.
Research and analysis made it possible to establish which employee competencies require more attention on the part of the employee, as well as the employer in order to improve the efficiency of the enterprise.
In general, with the help of the developed information system DERES, an employer on an ongoing basis can identify and conduct a rating analysis of his employees, predict their future working capacity, and identify and eliminate the causes of a decrease in the working capacity of their employees in order to increase the productivity of the enterprise [28]. The results of the research are used to evaluate the employees of an enterprise company “Mebius Group.” The obtained estimates allow analyzing the professional activities of employees on an ongoing basis and thereby improving the efficiency of the enterprise [29].
-
Funding information: This research was funded by the Science Committee of the Ministry of Education and Science of the Republic of Kazakhstan (Grant #AP09259208).
-
Author contributions: Gulnar Balakayeva: Conceptualization, Formal Analysis, Writing – Review & Editing, Supervision. Mukhit Zhanuzakov: Methodology, Data Curation, Writing – Original Draft, Visualization, Formal Analysis. Gaukhar Kalmenova: Visualization, Formal Analysis, Writing – Review & Editing, Supervision.
-
Conflict of interest: Authors state no conflict of interest.
-
Data availability statement: The dataset “IBM HR Analytics Employee Attrition & Performance” analyzed during the current study are available in Kaggle, with the following link: https://www.kaggle.com/datasets/pavansubhasht/ibm-hr-analytics-attrition-dataset. Other data used in this research are currently closed source due to their integral role in an ongoing scientific project. However, upon the project’s completion in 2024, the authors will make the data accessible upon reasonable request.
References
[1] Zaіnetdіnova ІF. Assessment of the actіvіtіes of employees of the organіzatіon: study guіde, manual. “Publіshіng house of the Ural Unіversіty”, Yekaterіnburg; 2016.Search in Google Scholar
[2] The rating system as one of the effective forms of motivation for line personnel on the example of the banking sector. (February, 2021). Retrieved February 8, 2021 from. https://hr-media.ru/sistema-rejtinga-kak-odna-iz-effektivnyh-form-motivatsii-linejnogo-personala-na-primere-bankovskoj-sfery.Search in Google Scholar
[3] Yanovskіy LM, Malov ІV. Ratіng assessment of the work of a unіversіty teacher: a way to іmprove the qualіty of teachіng. Іrkutsk State Unіversіty. 2005;2(40):249.Search in Google Scholar
[4] Mark R, Edwards AJ. 360 Degree feedback : The powerful new model for employee assessment & performance improvement hardcover. US, New York: AMACOM; 1996. p. 32.Search in Google Scholar
[5] Islam R, Rasad SM. Employee performance evaluation by the AHP: A case study. Asia Pac Manag Rev. 2006;11:163–76.10.13033/isahp.y2005.028Search in Google Scholar
[6] González-Gil MT, Parro-Moreno AI, Oter-Quintana C, González-Blázquez C, Martínez-Marcos M, Casillas-Santana M, et al. 360-Degree evaluation: Towards a comprehensive, integrated assessment of performance on clinical placement in nursing degrees: A descriptive observational study. Nurse Educ Today. 2020 Dec;95:104594. 10.1016/j.nedt.2020.104594, Epub 2020 Sep 11 PMID: 32979748.Search in Google Scholar PubMed
[7] Haslam SA, Stephen D, Reicher, Platow MJ. Leadership. In: Wright JD, editor. International encyclopedia of the social & behavioral sciences. 2nd edn. University of Central Florida, Orlando, FL, USA: Elsevier; 2015. p. 648–54. 10.1016/B978-0-08-097086-8.24073-7.Search in Google Scholar
[8] Andrearczyk V, Whelan PF. Deep learning in texture analysis and its application to tissue image classification. In: Depeursinge A, Omar S, Al K, Mitchell JR, editors. The elsevier and MICCAI society book series, biomedical texture analysis. United States, Cambridge, Massachusetts: Academic Press; 2017. p. 95–129. 10.1016/B978-0-12-812133-7.00004-1.Search in Google Scholar
[9] Shobha G, Rangaswamy S. Chapter 8 - machine learning. In: Gudivada VN, Rao CR, editors. Handbook of statistics. Amsterdam, Netherlands: Elsevier; Vol. 38; 2018. p. 197–228. 10.1016/bs.host.2018.07.004.Search in Google Scholar
[10] Angelini C. Regression analysis. In: Shoba R, Michael G, Kenta N, Christian S, editors. Encyclopedia of bioinformatics and computational biology. Amsterdam, Netherlands: Academic Press; 2019. p. 722–30. 10.1016/B978-0-12-809633-8.20360-9.Search in Google Scholar
[11] Sedat K, Alkan G, Ercanli İ. Estimating aboveground stand carbon by combining Sentinel-1 and Sentinel-2 satellite data: a case study from Turkey. Forest resources resilience and conflicts. Amsterdam, Netherlands: Elsevier; 2021. p. 117–26. 10.1016/B978-0-12-822931-6.00008-3.Search in Google Scholar
[12] Yan G, Mu X, Liu Y. Fractional vegetation cover. In Advanced Remote Sensing. Boston, MA, USA: Academic Press; 2012. p. 415–38.10.1016/B978-0-12-385954-9.00013-7Search in Google Scholar
[13] Khoa BT, Huynh TT. Predicting exchange rate under UIRP framework with support vector regression. Eur High-tech Emerg Res Assoc (EUHERA). 2022;12:13. 10.28991/ESJ-2022-06-03-014%22.Search in Google Scholar
[14] Hussain MA, Chen Z, Kalsoom I, Asghar A, Shoaib M. Landslide susceptibility mapping using machine learning algorithm: A case study along Karakoram highway (KKH), Pakistan. J Indian Soc Remote Sens. 2022;50:849–66. 10.1007/s12524-021-01451-1.Search in Google Scholar
[15] Mendonça YV, Naranjo PGV, Pinto DC. The role of technology in the learning process. Emerg Sci J. 2022;6(Special Issue):280–95.10.28991/ESJ-2023-SIED-020Search in Google Scholar
[16] Yinglin X. Correlation and association analyses in microbiome study integrating multiomics in health and disease. Progress in molecular biology and translational science. Vol. 171, United States, Cambridge, Massachusetts: Academic Press; 2020. p. 309–491. 10.1016/bs.pmbts.2020.04.003.Search in Google Scholar PubMed
[17] Balakayeva G, Ezhilchelvan P, Makashev Y, Phillips C, Darkenbayev D, Nurlybayeva K. Digitalization of enterprise with ensuring stability and reliability. Informatyka, Automatyka, Pomiary W Gospodarce I Ochronie Środowiska. 2023;13(1):54–7. 10.35784/iapgos.3295.Search in Google Scholar
[18] Pal R. Chapter 4 - Validation methodologies. In: Pal R, editor. Predictive modeling of drug sensitivity. United States, Cambridge, Massachusetts: Academic Press; 2017. p. 83–107. 10.1016/B978-0-12-805274-7.00004-X.Search in Google Scholar
[19] Laravel documentation. February, 2021 Retrieved February 11, 2021 from. https://laravel.com/docs - Laravel documentation.Search in Google Scholar
[20] Balakayeva GT, Nurlybayeva K. Simulation of large data processing for smarter decision making. AWER Procedia Information Technology & Computer Science, 3rd World Conference on Information Technology (WCIT-2012). Vol. 3; 2013. p. 1253–7.Search in Google Scholar
[21] Saar-Tsechansky M, Provost F. Active sampling for class probability estimation and ranking. Mach Learn. 2004;54(2):153–78.10.1023/B:MACH.0000011806.12374.c3Search in Google Scholar
[22] Berry MJA, LinoffG S. Mastering data mining: The art and science of customer relationship management–N.-Y. Bingley, England: Emerald Group Publishing Limited; 2000. p. 512.Search in Google Scholar
[23] Chung HM, Gray P. Data mining. J Manag Inf Syst. 1999;16(1):11–3.10.1080/07421222.1999.11518231Search in Google Scholar
[24] Santos MY, Costa C. Data models in NoSQL databases for big data contexts. International Conference on Data Mining and Big Data. Cham: Springer; 2016. p. 475–85; 18. González-Aparicio MT, Younas M, Tuya J, Casado RT. Testing of transactional services in NoSQL key-value databases. Future Gener Comput Syst. 2018;80:384–99.10.1016/j.future.2017.07.004Search in Google Scholar
[25] Witten IH, Frank E. Data mining. Practical machine learning tools and techniques with JAVA implementations. San Francisco, California, United States: Morgan Kaufman Publishers; 1999.Search in Google Scholar
[26] Stouffer K, Pillitteri V, Lightman S, Abrams M, Hahn A. Guide to industrial control systems (ICS) security. Natl Inst Stand Technol Spec Publ. 2015;800(82):247.10.6028/NIST.SP.800-82r2Search in Google Scholar
[27] Panetto H, Zdravković M, Jardim-Goncalves R, Romero D, Cecil J, Mezgár I. New perspectives for the future interoperable enterprise systems. Comput Ind. 2016;79:47–63.10.1016/j.compind.2015.08.001Search in Google Scholar
[28] Majchrzak A, Faraj S, Kane GC, Azad B. The contradictory influence of social media affordances on online communal knowledge sharing. J Comput-Mediat Commun. 2013;19(1):38–55. 10.1111/jcc4.12030. 2013 Oct 1.Search in Google Scholar
[29] Andersson J. Enterprise Information Systems Management: thesis/KTH, Royal Institute of Technology. Stockholm, Sweden; 2002. p. 114.Search in Google Scholar
© 2023 the author(s), published by De Gruyter
This work is licensed under the Creative Commons Attribution 4.0 International License.
Articles in the same Issue
- Research Articles
- Salp swarm and gray wolf optimizer for improving the efficiency of power supply network in radial distribution systems
- Deep learning in distributed denial-of-service attacks detection method for Internet of Things networks
- On numerical characterizations of the topological reduction of incomplete information systems based on evidence theory
- A novel deep learning-based brain tumor detection using the Bagging ensemble with K-nearest neighbor
- Detecting biased user-product ratings for online products using opinion mining
- Evaluation and analysis of teaching quality of university teachers using machine learning algorithms
- Efficient mutual authentication using Kerberos for resource constraint smart meter in advanced metering infrastructure
- Recognition of English speech – using a deep learning algorithm
- A new method for writer identification based on historical documents
- Intelligent gloves: An IT intervention for deaf-mute people
- Reinforcement learning with Gaussian process regression using variational free energy
- Anti-leakage method of network sensitive information data based on homomorphic encryption
- An intelligent algorithm for fast machine translation of long English sentences
- A lattice-transformer-graph deep learning model for Chinese named entity recognition
- Robot indoor navigation point cloud map generation algorithm based on visual sensing
- Towards a better similarity algorithm for host-based intrusion detection system
- A multiorder feature tracking and explanation strategy for explainable deep learning
- Application study of ant colony algorithm for network data transmission path scheduling optimization
- Data analysis with performance and privacy enhanced classification
- Motion vector steganography algorithm of sports training video integrating with artificial bee colony algorithm and human-centered AI for web applications
- Multi-sensor remote sensing image alignment based on fast algorithms
- Replay attack detection based on deformable convolutional neural network and temporal-frequency attention model
- Validation of machine learning ridge regression models using Monte Carlo, bootstrap, and variations in cross-validation
- Computer technology of multisensor data fusion based on FWA–BP network
- Application of adaptive improved DE algorithm based on multi-angle search rotation crossover strategy in multi-circuit testing optimization
- HWCD: A hybrid approach for image compression using wavelet, encryption using confusion, and decryption using diffusion scheme
- Environmental landscape design and planning system based on computer vision and deep learning
- Wireless sensor node localization algorithm combined with PSO-DFP
- Development of a digital employee rating evaluation system (DERES) based on machine learning algorithms and 360-degree method
- A BiLSTM-attention-based point-of-interest recommendation algorithm
- Development and research of deep neural network fusion computer vision technology
- Face recognition of remote monitoring under the Ipv6 protocol technology of Internet of Things architecture
- Research on the center extraction algorithm of structured light fringe based on an improved gray gravity center method
- Anomaly detection for maritime navigation based on probability density function of error of reconstruction
- A novel hybrid CNN-LSTM approach for assessing StackOverflow post quality
- Integrating k-means clustering algorithm for the symbiotic relationship of aesthetic community spatial science
- Improved kernel density peaks clustering for plant image segmentation applications
- Biomedical event extraction using pre-trained SciBERT
- Sentiment analysis method of consumer comment text based on BERT and hierarchical attention in e-commerce big data environment
- An intelligent decision methodology for triangular Pythagorean fuzzy MADM and applications to college English teaching quality evaluation
- Ensemble of explainable artificial intelligence predictions through discriminate regions: A model to identify COVID-19 from chest X-ray images
- Image feature extraction algorithm based on visual information
- Optimizing genetic prediction: Define-by-run DL approach in DNA sequencing
- Study on recognition and classification of English accents using deep learning algorithms
- Review Articles
- Dimensions of artificial intelligence techniques, blockchain, and cyber security in the Internet of medical things: Opportunities, challenges, and future directions
- A systematic literature review of undiscovered vulnerabilities and tools in smart contract technology
- Special Issue: Trustworthy Artificial Intelligence for Big Data-Driven Research Applications based on Internet of Everythings
- Deep learning for content-based image retrieval in FHE algorithms
- Improving binary crow search algorithm for feature selection
- Enhancement of K-means clustering in big data based on equilibrium optimizer algorithm
- A study on predicting crime rates through machine learning and data mining using text
- Deep learning models for multilabel ECG abnormalities classification: A comparative study using TPE optimization
- Predicting medicine demand using deep learning techniques: A review
- A novel distance vector hop localization method for wireless sensor networks
- Development of an intelligent controller for sports training system based on FPGA
- Analyzing SQL payloads using logistic regression in a big data environment
- Classifying cuneiform symbols using machine learning algorithms with unigram features on a balanced dataset
- Waste material classification using performance evaluation of deep learning models
- A deep neural network model for paternity testing based on 15-loci STR for Iraqi families
- AttentionPose: Attention-driven end-to-end model for precise 6D pose estimation
- The impact of innovation and digitalization on the quality of higher education: A study of selected universities in Uzbekistan
- A transfer learning approach for the classification of liver cancer
- Review of iris segmentation and recognition using deep learning to improve biometric application
- Special Issue: Intelligent Robotics for Smart Cities
- Accurate and real-time object detection in crowded indoor spaces based on the fusion of DBSCAN algorithm and improved YOLOv4-tiny network
- CMOR motion planning and accuracy control for heavy-duty robots
- Smart robots’ virus defense using data mining technology
- Broadcast speech recognition and control system based on Internet of Things sensors for smart cities
- Special Issue on International Conference on Computing Communication & Informatics 2022
- Intelligent control system for industrial robots based on multi-source data fusion
- Construction pit deformation measurement technology based on neural network algorithm
- Intelligent financial decision support system based on big data
- Design model-free adaptive PID controller based on lazy learning algorithm
- Intelligent medical IoT health monitoring system based on VR and wearable devices
- Feature extraction algorithm of anti-jamming cyclic frequency of electronic communication signal
- Intelligent auditing techniques for enterprise finance
- Improvement of predictive control algorithm based on fuzzy fractional order PID
- Multilevel thresholding image segmentation algorithm based on Mumford–Shah model
- Special Issue: Current IoT Trends, Issues, and Future Potential Using AI & Machine Learning Techniques
- Automatic adaptive weighted fusion of features-based approach for plant disease identification
- A multi-crop disease identification approach based on residual attention learning
- Aspect-based sentiment analysis on multi-domain reviews through word embedding
- RES-KELM fusion model based on non-iterative deterministic learning classifier for classification of Covid19 chest X-ray images
- A review of small object and movement detection based loss function and optimized technique
Articles in the same Issue
- Research Articles
- Salp swarm and gray wolf optimizer for improving the efficiency of power supply network in radial distribution systems
- Deep learning in distributed denial-of-service attacks detection method for Internet of Things networks
- On numerical characterizations of the topological reduction of incomplete information systems based on evidence theory
- A novel deep learning-based brain tumor detection using the Bagging ensemble with K-nearest neighbor
- Detecting biased user-product ratings for online products using opinion mining
- Evaluation and analysis of teaching quality of university teachers using machine learning algorithms
- Efficient mutual authentication using Kerberos for resource constraint smart meter in advanced metering infrastructure
- Recognition of English speech – using a deep learning algorithm
- A new method for writer identification based on historical documents
- Intelligent gloves: An IT intervention for deaf-mute people
- Reinforcement learning with Gaussian process regression using variational free energy
- Anti-leakage method of network sensitive information data based on homomorphic encryption
- An intelligent algorithm for fast machine translation of long English sentences
- A lattice-transformer-graph deep learning model for Chinese named entity recognition
- Robot indoor navigation point cloud map generation algorithm based on visual sensing
- Towards a better similarity algorithm for host-based intrusion detection system
- A multiorder feature tracking and explanation strategy for explainable deep learning
- Application study of ant colony algorithm for network data transmission path scheduling optimization
- Data analysis with performance and privacy enhanced classification
- Motion vector steganography algorithm of sports training video integrating with artificial bee colony algorithm and human-centered AI for web applications
- Multi-sensor remote sensing image alignment based on fast algorithms
- Replay attack detection based on deformable convolutional neural network and temporal-frequency attention model
- Validation of machine learning ridge regression models using Monte Carlo, bootstrap, and variations in cross-validation
- Computer technology of multisensor data fusion based on FWA–BP network
- Application of adaptive improved DE algorithm based on multi-angle search rotation crossover strategy in multi-circuit testing optimization
- HWCD: A hybrid approach for image compression using wavelet, encryption using confusion, and decryption using diffusion scheme
- Environmental landscape design and planning system based on computer vision and deep learning
- Wireless sensor node localization algorithm combined with PSO-DFP
- Development of a digital employee rating evaluation system (DERES) based on machine learning algorithms and 360-degree method
- A BiLSTM-attention-based point-of-interest recommendation algorithm
- Development and research of deep neural network fusion computer vision technology
- Face recognition of remote monitoring under the Ipv6 protocol technology of Internet of Things architecture
- Research on the center extraction algorithm of structured light fringe based on an improved gray gravity center method
- Anomaly detection for maritime navigation based on probability density function of error of reconstruction
- A novel hybrid CNN-LSTM approach for assessing StackOverflow post quality
- Integrating k-means clustering algorithm for the symbiotic relationship of aesthetic community spatial science
- Improved kernel density peaks clustering for plant image segmentation applications
- Biomedical event extraction using pre-trained SciBERT
- Sentiment analysis method of consumer comment text based on BERT and hierarchical attention in e-commerce big data environment
- An intelligent decision methodology for triangular Pythagorean fuzzy MADM and applications to college English teaching quality evaluation
- Ensemble of explainable artificial intelligence predictions through discriminate regions: A model to identify COVID-19 from chest X-ray images
- Image feature extraction algorithm based on visual information
- Optimizing genetic prediction: Define-by-run DL approach in DNA sequencing
- Study on recognition and classification of English accents using deep learning algorithms
- Review Articles
- Dimensions of artificial intelligence techniques, blockchain, and cyber security in the Internet of medical things: Opportunities, challenges, and future directions
- A systematic literature review of undiscovered vulnerabilities and tools in smart contract technology
- Special Issue: Trustworthy Artificial Intelligence for Big Data-Driven Research Applications based on Internet of Everythings
- Deep learning for content-based image retrieval in FHE algorithms
- Improving binary crow search algorithm for feature selection
- Enhancement of K-means clustering in big data based on equilibrium optimizer algorithm
- A study on predicting crime rates through machine learning and data mining using text
- Deep learning models for multilabel ECG abnormalities classification: A comparative study using TPE optimization
- Predicting medicine demand using deep learning techniques: A review
- A novel distance vector hop localization method for wireless sensor networks
- Development of an intelligent controller for sports training system based on FPGA
- Analyzing SQL payloads using logistic regression in a big data environment
- Classifying cuneiform symbols using machine learning algorithms with unigram features on a balanced dataset
- Waste material classification using performance evaluation of deep learning models
- A deep neural network model for paternity testing based on 15-loci STR for Iraqi families
- AttentionPose: Attention-driven end-to-end model for precise 6D pose estimation
- The impact of innovation and digitalization on the quality of higher education: A study of selected universities in Uzbekistan
- A transfer learning approach for the classification of liver cancer
- Review of iris segmentation and recognition using deep learning to improve biometric application
- Special Issue: Intelligent Robotics for Smart Cities
- Accurate and real-time object detection in crowded indoor spaces based on the fusion of DBSCAN algorithm and improved YOLOv4-tiny network
- CMOR motion planning and accuracy control for heavy-duty robots
- Smart robots’ virus defense using data mining technology
- Broadcast speech recognition and control system based on Internet of Things sensors for smart cities
- Special Issue on International Conference on Computing Communication & Informatics 2022
- Intelligent control system for industrial robots based on multi-source data fusion
- Construction pit deformation measurement technology based on neural network algorithm
- Intelligent financial decision support system based on big data
- Design model-free adaptive PID controller based on lazy learning algorithm
- Intelligent medical IoT health monitoring system based on VR and wearable devices
- Feature extraction algorithm of anti-jamming cyclic frequency of electronic communication signal
- Intelligent auditing techniques for enterprise finance
- Improvement of predictive control algorithm based on fuzzy fractional order PID
- Multilevel thresholding image segmentation algorithm based on Mumford–Shah model
- Special Issue: Current IoT Trends, Issues, and Future Potential Using AI & Machine Learning Techniques
- Automatic adaptive weighted fusion of features-based approach for plant disease identification
- A multi-crop disease identification approach based on residual attention learning
- Aspect-based sentiment analysis on multi-domain reviews through word embedding
- RES-KELM fusion model based on non-iterative deterministic learning classifier for classification of Covid19 chest X-ray images
- A review of small object and movement detection based loss function and optimized technique