Dilemma "Economist or Mathematician": a Philosophical Perspective

2018 ◽  
Vol 2018 (1) ◽  
pp. 3-17
Author(s):  
Leonid Tutov ◽  
Varvara Rogozhnikova

This article is devoted to a philosophical view of a consideration of an urgent problem of the relation between mathematics and economics. The authors try to reveal and compare the main characteristics of economic and mathematical thinking, and reflect on the place of mathematics in economic research and education. We aim to formulate recommendations to achieve a methodological balance in the relation between mathematics and economics within economic research. The authors suggest studying mathematics for economists be preceded by a philosophical introduction, which would acquaint students with problems of justification and verification of mathematical knowledge, interaction of economics and mathematics, and also would give an all-philosophical view of features of economic-mathematical thinking. Mathematics is necessary for an economist, but it is only a tool to achieve some especially economic targets. This tool is used for definite purposes which don’t exhaust all the volume of the purposes of economic science.

Author(s):  
G. N. Yakovleva ◽  
B. F. Bogatikov ◽  
E. I. Khabarova

The article is devoted to the 100th anniversary of the birth of Nikolay Prokofyevich Fedorenko, a graduate of M.V. Lomonosov MITHT, a participant of the Great Patriotic War, the head of MITHT department for chemical industry economy (1951-1962), since 1953 to 1958 - the deputy director of MITHT for studies. N.P. Fedorenko is Doctor of Economics, professor, academician of the Academy of Sciences of the USSR, member of the presidium of the Academy of Sciences of the USSR, academician-secretary of the Economy department of the Academy of Sciences of the USSR, one of the main founders and the first director of the Central Economics and Mathematics Institute of the Academy of Sciences of the USSR (1963-1985). N.P. Fedorenko was the most talented organizer of the economic science. He made a large contribution to the chemicalization of the national economy, to the application of modern mathematical methods and computing hardware for economic research, to the planning, management and studying of the theoretical and methodological bases of optimum performance of economy.


2020 ◽  
Vol 164 ◽  
pp. 12006 ◽  
Author(s):  
Mariya Kivarina ◽  
Anna Makarevich

At present, considerable attention is paid to the problems of understanding the most important trends in the formation and development of a digital economy, as well as the development of adaptive models of the modern education system, which reflects the relevance of the subject matter under study. The purpose of the article is to investigate the features of the transformation of economic science and education in the conditions of digitalization of the economy, to identify the main problems of the modern scientific and educational system and to identify the main ways to solve them. The research is based on an interdisciplinary approach using methods of logical-structural, situational and comparative analysis. Prospective directions of development of an economic science in conditions of digitalization are considered in the article, the problems which face the system of economic education at a stage of formation of a digital society are revealed. The significant influence on the transformation in the sphere of employment of the speed of the formation of educational networks for the training of personnel possessing the skills of teamwork for the effective resolution of technological, demographic and socio-economic problems is proved.


2017 ◽  
Vol 48 (2) ◽  
pp. 148-190 ◽  
Author(s):  
Erik D. Jacobson

This study (n = 1,044) used data from the Teacher Education and Development Study in Mathematics (TEDS-M) to examine the relationship between field experience focus (instruction- or exploration-focused), duration, and timing (early or not) and prospective elementary teachers' intertwined knowledge and beliefs about mathematics and mathematics learning. Early instruction-focused field experience (i.e., leading directly to classroom instruction) was positively related to the study outcomes in programs with such field experience of median or shorter duration. Moreover, the duration of instruction-focused field experience was positively related to study outcomes in programs without early instruction-focused field experience. By contrast, the duration of exploration-focused field experience (e.g., observation) was not related to the study outcomes. These findings suggest that field experience has important but largely overlooked relationships with prospective teachers' mathematical knowledge and beliefs. Implications for future research are discussed.


Author(s):  
Galina Makarova ◽  
Vasilii Rudyakov

Although macroeconomics as an independent economic science emerged only in the twen­tieth century, the first steps in developing the macroeconomic aspect of efficiency were taken several centuries earlier — beginning from the 16th — 17th centuries — at the pre-industrial stage of development of society. Due to the underdevelopment of the production sphere, the search for sources of growth in the efficiency of national economies at that time was mainly carried out from the most general economic positions — as an integral part of solving the main task of the economics of those eras — searching for ways and means of increasing the wealth of nations. At the same time, naturally, among the first were the climatic and foreign economic factors of increasing the efficiency of national economies. For example, factors related to identifying the advantages of various countries in a geographic location and the ability to solve their economic problems by using the most advantageous options for organizing and conducting foreign economic and trade relations. The transition of developed countries to new stages of development — industrial and postindustrial, as well as the selection by John M. Keynes of the new direction of economic research — macroeconomics, historically leads both to a deepening of the meaning of the very category of “macroeconomic efficiency” and to more detailed studies of factors affecting it.


Author(s):  
Ilham Bent Ali Al Shalabi ◽  
Shatha bint Ahmed Al Khalifa

The purpose of this study was to know the level of scientific thinking skills and the level of mathematical thinking skills. Is there a correlation between the skills of scientific thinking and the mathematical thinking skills of sixth grade students? A study was used to measure the level of scientific and athletic thinking skills. The sample consisted of 455 sixth grade students The total number of female students was 29,680. The descriptive descriptive approach was used to find the relationship between the level of the skills of scientific thinking and mathematical thinking. The most important results of the study were that the level of scientific and sports thinking skills was medium And the level of skills of mathematical thinking, as the higher the level of scientific thinking skills, the higher the level of mathematical thinking skills among students in the sixth grade of primary The study presented several recommendations, the most important of which are the holding of training courses for teachers during the service to train them to employ thinking and skills and train teachers to design scientific positions and implants within the curriculum and address the weakness and lack of thinking skills that appear during teaching and the development of teachers Wu The most important proposals of the study are the study of the auxiliary aspects and the obstacles to the teaching of thinking in the school environment, the extent to which teachers are aware of the skills of thinking and whether they are integrated and taught through teaching, analysis of the content of science and mathematics curriculum developed for the primary stage to learn Availability of basic thinking skills in curricula.


2018 ◽  
pp. 303-313
Author(s):  
Christopher P. Guzelian

Two years ago, Bob Mulligan and I empirically tested whether the Bank of Amsterdam, a prototypical central bank, had caused a boom-bust cycle in the Amsterdam commodities markets in the 1780s owing to the bank’s sudden initiation of low-fractional-re-serve banking (Guzelian & Mulligan 2015).1 Widespread criticism came quickly after we presented our data findings at that year’s Austrian Economic Research Conference. Walter Block representa-tively responded: «as an Austrian, I maintain you cannot «test» apodictic theories, you can only illustrate them».2 Non-Austrian, so-called «empirical» economists typically have no problem with data-driven, inductive research. But Austrians have always objected strenuously on ontological and epistemolog-ical grounds that such studies do not produce real knowledge (Mises 1998, 113-115; Mises 2007). Camps of economists are talking past each other in respective uses of the words «testing» and «eco-nomic theory». There is a vital distinction between «testing» (1) an economic proposition, praxeologically derived, and (2) the rele-vance of an economic proposition, praxeologically derived. The former is nonsensical; the latter may be necessary to acquire eco-nomic theory and knowledge. Clearing up this confusion is this note’s goal. Rothbard (1951) represents praxeology as the indispensible method for gaining economic knowledge. Starting with a Aristote-lian/Misesian axiom «humans act» or a Hayekian axiom of «humans think», a voluminous collection of logico-deductive eco-nomic propositions («theorems») follows, including theorems as sophisticated and perhaps unintuitive as the one Mulligan and I examined: low-fractional-reserve banking causes economic cycles. There is an ontological and epistemological analog between Austrian praxeology and mathematics. Much like praxeology, we «know» mathematics to be «true» because it is axiomatic and deductive. By starting with Peano Axioms, mathematicians are able by a long process of creative deduction, to establish the real number system, or that for the equation an + bn = cn, there are no integers a, b, c that satisfy the equation for any integer value of n greater than 2 (Fermat’s Last Theorem). But what do mathematicians mean when they then say they have mathematical knowledge, or that they have proven some-thing «true»? Is there an infinite set of rational numbers floating somewhere in the physical universe? Naturally no. Mathemati-cians mean that they have discovered an apodictic truth — some-thing unchangeably true without reference to physical reality because that truth is a priori.


2017 ◽  
Vol 42 (1) ◽  
pp. 70-78 ◽  
Author(s):  
Sue Walker ◽  
Donna Berthelsen

THIS PAPER PRESENTS ANALYSES of gender differences in classroom behaviours (e.g. attentiveness and task persistence) and early academic outcomes. Data is drawn from Growing Up in Australia: The Longitudinal Study of Australian children (LSAC). In these analyses, data from Wave 1 data collection (2004) and Wave 2 data collection (2006) for the Kindergarten Cohort are used. A sample of 2315 children who were in Year 1 of school at Wave 2 data collection are the focus for the analyses reported. The analyses draw on teacher ratings of children's literacy and language competence and mathematical thinking in Year 1 of school; as well as ratings of children's self-regulatory behaviour in the classroom and level of problem behaviours. Girls were rated by their teachers as having better literacy and language outcomes that were predicted by more positive classroom behaviours. Results are discussed with respect to the influence of children's classroom behaviours on academic learning at the beginning of formal schooling.


2019 ◽  
Vol 13 (4) ◽  
pp. 477-485 ◽  
Author(s):  
Roman Murawski

Abstract Nicholas of Cusa was first of all a theologian but he was interested also in mathematic and natural sciences. In fact philosophico-theological and mathematical ideas were intertwined by him, theological and philosophical ideas influenced his mathematical considerations, in particular when he considered philosophical problems connected with mathematics and vice versa, mathematical ideas and examples were used by him to explain some ideas from theology. In this paper we attempt to indicate this mutual influence. We shall concentrate on the following problems: (1) the role and place of mathematics and mathematical knowledge in knowledge in general and in particular in theological knowledge, (2) ontology of mathematical objects and their origin, in particular their relations to God and their meaning for the description of the world and physical reality, (3) infinity in mathematics versus infinity in theology and their mutual relations and connections. It will be shown that—according to Nicholas—mathematics and mathematical thinking are tools of rationalization of theology and liberating it in a certain sense from the trap of apophatic theology.


2019 ◽  
Vol 15 (2) ◽  
Author(s):  
Gina C. Obiakor ◽  
Kristen E. Obiakor ◽  
Charles C. Obiakor ◽  
Festus E. Obiakor

AbstractScience and mathematics have international and global origins and impacts that are intertwined with national origin, race, culture, religion, language, and gender, to mention a few. This means that scientific and mathematical knowledge goes beyond myopic narrow confines. Put another way, teaching science and mathematics without explicating their phenomenal foundations and influences is tantamount to “scotching the snake, but not killing it.” In this article, we use cases to discuss cultural contexts in teaching science and mathematics. Embedded in our discussion are issues of teacher preparation, innovative teaching, and disparities in public health and environmental health.


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