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Pruntseva Gelena

Ph.D in Economics

PO “Institutional reforms”, Kyiv, Ukraine

 

                                              

The need to apply the physical economy for evaluating

the economic system

 

 

The need for a new assessment methodology for evaluating the functioning of the economic system is due to existing shortcomings in the current assessment of economic processes. Existing problems in assessing economic processes is due to the lack of a universal model of the effective functioning of the economic system. Professor N. Gregory Mankiw of Harvard University notes that the fact that modern macroeconomic research is not widely used in practical policymaking is prima facie evidence that it is of little use for this purpose [1, p. 19]. Nobel prize winner Wassily Leontief drew the attention to the lack of a practical utility of the existing results of research. The prominent scientist Wassily Leontief told the meeting participants of the American Economic Association that the troubles [in economics] are caused not by the irrelevance of the practical problems to which present-day economists address their efforts, but rather by the palpable inadequacy of the scientific means with which they try to solve them. Uncritical enthusiasm for mathematical formulation often tends to conceal the ephemeral substantive content of the argument behind the formidable front of algebraic signs [2, p. 20]. The existing methodology for assessing economic processes does not allow to build a universal model of the effective functioning of the economic system. This is due to the fact that the existing results of the evaluation of economic processes with the help of mathematical tools can be used in forecasting or modeling the state of the economic system only in the case of the influence of the same factors that influenced the economic system in the past analyzed periods. If there will be other factors affecting the economic system, the results of analysis of the economic processes of the past periods may not be useful, because we may not know the degree of influence of economic shocks on certain elements of the economic system.

Anatoliy Vodolazskiy also adheres to the position of the need to improve the existing methodology of economic processes. A. Vodolazskiy underlines that the theoretical understanding of the essence of the economic law does not mean that its action in each particular case manifests itself in exact accordance with its definition. This is because of the fact that the non-economic factors (moral, legal, national, religious, etc.) that act as independent forces prompt a person to act contrary to economic laws. These non-economic factors are influenced by the specific economic reality in each particular case [3]. A significant contribution to solving this problem was made by a prominent scientist Richard H. Thaler. Nobel prize winner               Richard H. Thaler has incorporated psychologically realistic assumptions into analyses of economic decision-making. By exploring the consequences of limited rationality, social preferences, and lack of self-control, he has shown how these human traits systematically affect individual decisions as well as market outcomes [4]. Richard H. Thaler achieved his important research results through the synthesis of psychological and economic science. Lyndon H. LaRouche focuses on the need to synthesize physical and economic sciences. The prominent scientist L. H. LaRouche notes that it is necessary to stop measuring the relative effectiveness of the economies of different countries by monetary indicators and instead measure it by real output and consumption of physical volumes of products by households, farms and enterprises. He emphasizes that the existing statistical practice of the national income account by government and other agencies that compile reports reject any attempts to make a rational distinction between the physically unnecessary expansion of nominal income and useful production, consumption [5]. J. Tennenbaum notes that experience shows that monetary valuations of commodities or services – i.e. their market prices – often diverge greatly from the degree of their actual importance to the physical process upon which the existence of a nation, its population and its economic activity depend. Since GDP is calculated on the basis of monetary valuations of the goods and services produced and consumed, it inherits the tendency to diverge from reality in this respect. Thus GDP growth can go hand-in-hand with gigantic speculative bubbles and unsustainable investment booms, with widespread technological obsolescence and waste, a falling educational and cultural level of the general population etc [6]. The prominent economist Bent Sorensen also focuses on factors that indirectly affect the state of the economy and which can not be estimated in monetary terms. Bent Sorensen identifies such important term as “indirect economics”. This term may be taken to relate to those social values (costs or benefits of energy sources) which are not or cannot be evaluated in monetary units [7]. The physical economy instruments makes it possible to measure the efficiency of the country's economy based on real output, which based on physical volumes of production and consumption of products (and not on monetary indicators).

The first person to synthesize physics and economics was prominent scientist Gottfried Wilhelm Leibniz. The approach he proposed has become a separate branch of science called the physical economy. The essence of this direction is that it suggests moving to the physical parameters of assessing the economic processes and allows using the methodology of physics as a tool for economic research. Nobel prize winner Maurice F. H. Allais noted that an in-depth analysis of economic phenomena makes it possible to show the existence of equally striking regularities as in the physical sciences. This is precisely the reason why the subject of the economy is a science and by virtue of which the given science obeys the same principles and the same methods as the physical sciences. Maurice F. H. Allais tried to prove that true laws of physics are also true for economics. Namely, using the basis of the equivalence theorem, he noted that at the limit, a situation of equilibrium in an economy of markets is a situation of maximum efficiency, and vice versa [8].

The need to apply the methodology of physical science in assessing economic processes was also stressed by prominent Austrian economist Eugen Bohm-Bawerk. Eugen Bohm-Bawerk noted that no analysis of economic phenomena can be considered as completed which does not include a consideration from the point of view of physical science or of the matter and energy consumed or liberated in the interaction between man and the physical environment [9]. Eugen Bohm-Bawerk emphasizes the relationship between matter and energy consumed or released in the interaction of man and the physical environment. The interconnection of matter and energy is manifested in the transformation of the economic input-material-energy flows of natural and productive resources into output streams of consumer goods. The existence of energy interaction between man and the environment was emphasized by the prominent Ukrainian economist Sergei Podolinsky. In 1880, the fundamental work of Sergei Podolinsky "Human labor and its relation to energy distribution" was published. Sergey Podolinsky focused on the energy differences of organic and inorganic nature. He highlighted the relationship of human labor with the distribution of energy. Sergey Podolinsky noted that the distribution of energy is influenced by human labor, which causes the accumulation of energy that is at the disposal of mankind [10]. Podolinsky’s biophysical analysis led him to conclude that ultimate limits to economic growth lay not in the shackles of the relations of production, but in physical and ecological laws [11]. For example, the volume of country's food production must be calculated and accounted for using physical indicators and not only monetary indicators. Because only a sufficient volume of food production can meet people’s nutritional requirements that satisfy the needs for a healthy and active lifestyle.

Thus, we can conclude, that the improvement of existing economic analysis should be carried out by introducing new analysis objects (for example, one mutual energy in animate and inanimate nature) and improving methodological approaches to their assessment, which should be based on the methodology of the physical economy, that is based on analogies between processes occurring in inanimate nature and studied by physics, and processes occurring in the human society and studied by the economy. The physical economy makes it possible to use physical laws as a basis for assessing the economic process.

 

 

 

 

References

 

1. Mankiw N. (2006). The Macroeconomist as Scientist and Engineer, Journal of Economic Perspectives, 20 (4), 29-46 [in English].

2. Leontyev V. (1990). Economic Essay. Theories, Studies, Facts and Policy, M: Politizdat, p. 405 [in Russian].   

3. Vodolazskiy A. (2012). Econophysics and the laws of a healthy economy. Essays on labor productivity and economic modernization., Novocherkassk: NOK, p. 86 [in Russian].   

4. The Prize in Economic Sciences 2017 (2017, October 9). Retrieved from https://www.nobelprize.org/nobel_prizes/economic-sciences/laureates/2017/press.pdf [in English].

5. LaRouche L. (1997). The Science of Physical Economy as the Platonic Epistemological Basis for All Branches of Human Knowledge, M: Schiller Institute for Science and Culture [in Russian].

6. Tennenbaum J. (2016) Online Book "Physical Economy of National Development" (2017, October 9), Retrieved from http://www.physicaleconomy.com/node/1 [in English].

7. Sorensen B. (2011). Life-cycle analysis of energy systems: from methodology to applications, UK: RSC Publishing, p. 336 [in English].

8. Allais M. (1995). Economics as a Science, M: SPC “Science for society”, RSGU,           p. 168 [in English].

9. Branford Victor B. (1901). On the Calculation of National Resources, Journal of the Royal Statistical Society, 64, 380-414 [in English].

10. Podolinsky S. (1991). Human work and its relation to the distribution of energy, M: CO “Noosphere, p. 159 [in Russian].

11.   Cleveland C. J. (1999). Biophysical Economics: From Physiocracy to Ecological Economics and Industrial Ecology, Bioeconomics and Sustainability: Essays in Honor of Nicholas Gerogescu-Roegen, 125-154 [in English].