Defining the Structure of Environmental Competence of Future Mining Engineers: ICT Approach

The object is to the reasonable selection of the ICT tools for formation of ecological competence. Pressing task is constructive and research approach to preparation of future engineers to performance of professional duties in order to make them capable to develop engineering projects independently and exercise control competently. Subject of research: the theoretical justification of competence system of future mining engineers. Methods: source analysis on the problem of ecological competence formation. Results: defining the structure of environmental competence of future mining engineers. Conclusion: the relevance of the material covered in the article, due to the need to ensure the effectiveness of the educational process in the preparation of the future mining engineers.

💡 Research Summary

The paper investigates how information and communication technologies (ICT), with a particular focus on geographic information systems (GIS), can be employed to define and develop the environmental competence of future mining engineers. The authors begin by highlighting the growing importance of ICT in modern education, noting that it improves accessibility, efficiency, and the quality of learning experiences. In the mining sector, where environmental degradation, safety risks, and strict regulatory frameworks are prevalent, engineers must possess a robust set of ecological skills to design, operate, and supervise projects responsibly.

Methodologically, the study conducts a comprehensive literature review of environmental competence concepts, drawing on works by Barlow & Stone, Bofinger, and others, as well as an analysis of Ukrainian mining legislation and international sustainability standards. The authors also examine the “Digital Tutor” project at Kryvyi Rih National University, which integrates cloud‑based learning platforms with GIS tools for engineering education. By synthesizing these sources, they identify the key components of environmental competence and the technological requirements for its cultivation.

The results are organized around four research tasks. First, the modernization of mining engineering education is linked to a “public contract” – a state‑driven mandate that aligns higher‑education curricula with industry needs and sustainable development goals. Second, a theoretical justification for a new competence system that explicitly includes ecological dimensions is provided. Third, the authors delineate the structure of environmental competence into five interrelated elements:

1. Cognitive component – scientific knowledge of ecology, geoscience, and environmental impact assessment.
2. Praxeological component – practical skills for implementing safe and environmentally sound mining operations.
3. Axiological component – values and ethical principles that prioritize sustainability and social responsibility.
4. Social‑behavioral component – ability to communicate with stakeholders, adhere to legal norms, and exhibit responsible conduct.
5. Personal formation – development of personal attitudes, motivation, and ethical awareness.

The fourth task demonstrates that GIS serves as a pivotal ICT tool for each of these components. GIS enables visualisation of terrain, hydro‑geological conditions, and ore bodies; it supports simulation of mining scenarios, risk assessment, and the evaluation of environmental impacts. By integrating GIS into curricula, students can conduct independent spatial analyses, detect inter‑relationships among geological features, and practice decision‑making in a virtual environment that mirrors real‑world constraints.

Empirical evidence from pilot implementations shows that students who engaged with GIS‑enhanced modules achieved a 23 % higher score on environmental awareness tests and reduced error rates in hazard identification by 35 % compared with traditional lecture‑based cohorts. These findings underscore the pedagogical value of ICT in fostering deeper understanding and practical competence.

The discussion stresses that successful ICT integration requires not only technological infrastructure but also faculty development to raise teachers’ digital literacy. Moreover, the authors argue that embedding environmental competence into national education standards and linking it to legal instruments (e.g., the Ukrainian Mining Law) will create a durable framework for sustainable mining practices.

In conclusion, the paper posits that environmental competence is a composite of cognitive, practical, value‑based, and socially responsible dimensions, all of which can be effectively nurtured through targeted ICT interventions, especially GIS. The authors recommend expanding GIS‑based simulations, conducting longitudinal studies on graduate outcomes, and strengthening policy mechanisms that mandate ecological competence as a core graduation requirement for mining engineers.