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Boris M. Dolgonosov

Publications and source records attributed to Boris M. Dolgonosov.

4 recordsLinked to original sources

Autocatalytic knowledge dynamics in the AI era

In the AI era, knowledge is growing at an accelerated rate. The goal of this study is to construct the macrodynamics of knowledge and elucidate the role of AI in this process. An autonomous knowledge production system is examined. The driving force behind the system's development is the disturbance of its homeostasis under the impact of external or internal factors. To solve emerging problems, the system uses available or generates new knowledge. The process is autocatalytic in the sense that knowledge accumulated over the past is used to create new knowledge. Knowledge production is hampered by resource scarcity and environmental disturbances that worsen the system's state. The loss of knowledge, in particular due to its obsolescence, contributes to the process' slowdown. Information noise also inhibits the advancement of knowledge, leading to energy dissipation. The combination of autocatalysis, aimed at generating new knowledge, with counteracting forces caused by resource scarcity, environmental problems, knowledge loss, and information noise provides the basis for building knowledge dynamics. The resulting dynamic equation shows that, depending on the balance of the forces acting, the rate of knowledge production can change as follows: 1) increase, ensuring system's development; 2) decrease to a finite (non-zero) level: the system degrades but survives; and 3) decline to zero: the system collapses. The model was applied to WIPO patent filing data, yielding parameter values. The influence of AI enhances autocatalysis, but counteracting factors also increase. A shift in the balance of forces leads to a phase transition with a change in knowledge dynamics. The system's evolution can proceed through a series of phase transitions. Key milestones in AI development are compared with the forces represented in knowledge dynamics. Barriers to knowledge growth are discussed.

physics.soc-ph↗

On the knowledge production function

Knowledge amount is an integral indicator of the development of society. Humanity produces knowledge in response to challenges from nature and society. Knowledge production depends on population size and human productivity. Productivity is a function of knowledge amount. The purpose of this study is to find this function and verify it on empirical material, including global demographic and information data. The productivity function is a basic element of the theory that results in the dynamic equations of knowledge production and population growth. A separate problem is the quantitative assessment of knowledge. To solve it, we consider knowledge representations in the form of patents, articles and books. Knowledge is stored in various types of devices, which together form a global informational storage. Storage capacity is increasing rapidly as digital technology advances. We compare storage capacity with the memory occupied by the forms of knowledge representation. The results obtained in this study contribute to the theory of knowledge production and related demographic dynamics and allow us to deepen our understanding of civilization development.

physics.soc-ph↗

The energy representation of world GDP

The dependence of world GDP on current energy consumption and total energy produced over the previous period and materialized in the form of production infrastructure is studied. The dependence describes empirical data with high accuracy over the entire observation interval 1965-2018.

econ.GN↗

A knowledge-based model of civilization under climate change

Civilization produces knowledge, which acts as the driving force of its development. A macro-model of civilization that accounts for the effect of knowledge production on population, energy consumption and environmental conditions is developed. The model includes dynamic equations for world population, amount of knowledge circulating in civilization, the share of fossil fuels in total energy consumption, atmospheric CO2 concentration, and global mean surface temperature. Energy dissipation in knowledge production and direct loss of knowledge are taken into account. The model is calibrated using historical data for each variable. About 90 scenarios were calculated. It was shown that there are two control parameters - sensitivity of the population to temperature rise and coefficient of knowledge loss - which determine the future of civilization. In the two-dimensional space of these parameters, there is an area of sustainable development and an area of loss of stability. Calculations show that civilization is located just on the critical curve separating these areas, that is, at the edge of stability. A small deviation can ultimately lead either to a steady state of 10+ billion people or to the complete extinction of civilization. There are no intermediate steady states.

physics.soc-ph↗