The article analyzes the components of engineering thinking in school students and discusses general
approaches to assessing its development in chemistry class. Engineering thinking is defined as a complex of
intellectual processes and their results that enable problem solving in engineering. To determine approaches
to developing the content of assignments, the following components of engineering thinking can be identified:
technical, constructive, research, critical, imaginative, and economic thinking. Three main areas to assess
engineering thinking components have been identified: solving qualitative and quantitative technical problems to
demonstrate the practical significance of Chemistry, its role in the development of science, and its connections with
other scientific branches; developing algorithms, creating logic block diagrams arranging key concepts, signs, and
symbols in a specific logical sequence, and creating mind maps showing a problem from different perspectives to
develop a new optimal solution; exploring case-based assignments that involve solving practice-oriented situations
within the students’ future profession framework. The article provides examples of chemistry-related assignments
for various types of engineering classes and students of different ages. These assignments contain subject-specific
material and involve a number of logical steps to establish cause-and-effect relationships. Some tasks are designed to test students’ ability to develop solution algorithms, to transform information from one symbolic form to another, to create
diagrams and graphs based on the given data, to critically evaluate information, and to identify errors or misinformation in the
conditions of a problem.
Developing critical thinking in mathematics instruction requires broad objectives to be translated into specific learning activities appropriate to the content and students’ level. This study aims to establish principles and propose a process for designing fraction instructional activities to foster critical thinking i...
H. Le Thi Thu, Hien Do Minh· International journal of soc...· 0 citations
It is concluded that programming logic represents a promising pedagogical strategy for mathematics learning by bridging concepts from Computer Science and Mathematics while fostering skills aligned with the demands of contemporary education.
José Rafael Franco, Bianca Moreira Vicente, Heloisa Crespo de Oliveira et al.· Revista de Estudos Interdisc...· 0 citations
Creative thinking is an essential mathematics competency, supporting idea generation, strategy selection, and non-routine problem solving. At the elementary level, it must be developed systematically so students move beyond routine procedures toward flexible, logical, reflective thinking. This study describes sixth-gra...
I. Nur, Muhammad Ilyas, Taufiq Taufiq et al.· Kognitif Jurnal Riset HOTS P...· 0 citations
Developing mathematical reasoning competency has become a central objective of competency-based
mathematics education because it enables primary school students to explain mathematical ideas,
justify solutions, and solve mathematical problems through logical reasoning. Fractions and fraction
operations are among the mo...
Thuy Lam Duong, Huong Dong Thi Mai· International Journal of Edu...· 0 citations
The author proposes a model of computational thinking in the form of a tensor product, criteria of its components development, and identifies and characterizes its integrative levels.
D. Romanov· Problems of Modern Education...· 0 citations