Development Of Production Systems Research Articles

Development of a protein production system using Ogataea minuta alcohol oxidase-deficient strain under reduced-methanol-consumption conditions.

Methylotrophic yeast is a useful host for producing heterologous proteins using the unique and strong alcohol oxidase 1 (AOX1) promoter, which is induced by methanol and repressed by various carbon sources. However, methanol is preferably avoided in industrial-scale fermentation given its toxicity, flammability, and explosiveness. To develop a protein production system under reduced methanol supply conditions, we attempted to characterize the AOX1 promoter induction activity by comparing between the de-repression and methanol induction conditions. This comparison is important because decreasing methanol consumption would enhance the industrial value of Ogataea minuta for heterologous protein production. For such a comparison, an alcohol oxidase-deficient (Δaox) strain was generated, with methanol only being used for AOX1 promoter induction. We also developed a culture process in a jar fermentor using the O. minuta Δaox strain under mixed feed conditions to achieve heterologous protein production comparable to that of the wild-type strain under low-methanol conditions.

Sustainable Nitrogen Management in Rice Farming: Spatial Patterns of Nitrogen Availability and Implications for Community-Level Practices

Sustainable nitrogen management is crucial for long-term food security and environmental protection in rice farming systems. However, the spatial patterns of nitrogen availability at the community level remain poorly understood, hindering the development of effective sustainable management strategies. This study introduces a novel application of spatial autoregressive analysis to investigate available nitrogen distribution in paddy soils across a rice farming community in Kyoto, Japan. Soil samples from 61 plots, including organically farmed ones, were analyzed for available nitrogen and various physicochemical properties. Contrary to the hypothesis of high variability between adjacent plots, significant positive spatial autocorrelation in available nitrogen was observed, revealing previously unrecognized community-level patterns. The spatial Durbin model outperformed traditional regression approaches and revealed complex spatial interactions in soil properties. Water-soluble organic carbon and humus content showed strong but opposing effects, with a positive direct impact but negative spatial interaction, suggesting topography-driven accumulation processes. Water-soluble nitrogen exhibited reverse patterns with negative direct effects but positive spatial interaction, indicating potential nutrient transport through water movement. These findings highlight the importance of considering both direct and indirect spatial effects in understanding soil fertility patterns, challenging the conventional plot-by-plot management approach. This methodological advancement provides new perspectives for more effective, community-scale soil management strategies in rice farming systems. Moreover, it demonstrates an innovative approach to maximizing the value of outsourced soil analysis data, providing a model for more comprehensive utilization of such data in agricultural research. By enabling more targeted and efficient nitrogen management practices that consider both plot-level processes and landscape-scale interactions, this study potentially contributes to the development of more sustainable and resilient rice production systems.

The Role of Industrial Design for the Sustainable Disaster Management in Türkiye

This article aims to discuss the contributions of the industrial design discipline to the development of new product and service systems for sustainable and effective disaster management in Turkey. For this reason, the article focuses on innovative process activities such as design and R&D carried out by the Turkish NGO-affiliated Shelter Systems Company, a major player in disaster response and one of the largest shelter system manufacturers in Europe. This research explores the roles of the industrial design discipline in innovation processes, as well as the organizational characteristics of the innovation activities carried out in the Shelter Systems Company. Within the scope of the case study, a business process analysis was conducted to understand the role of design in the creative process activities of the Shelter Systems Company and the natural workflow of the design processes. The research demonstrated that the Shelter Systems Company has recently shifted to income-generating activities that support social entrepreneurship, aiming to transform these efforts into social benefits. However, the main process activities of the Shelter Systems Company are primarily manufacturing orientated. Its industrial design capacity is limited, its inovation process is closed to external influences, and its horizontal collaborations for open information sharing with external organisations and stakeholders are restricted. Based on the findings, this research proposes strategies to make industrial design more effective in the innovative process activities of the Shelter Systems Company in disaster management.

Organic cropping systems balance environmental impacts and agricultural production

Agriculture provides food to a still growing population but is a major driver of the acceleration of global nutrient flows, climate change, and biodiversity loss. Policies such as the European Farm2Fork strategy aim to mitigate the environmental impact of land-use by fostering organic farming. To assess long-term environmental impact of organic food production we synthesized more than four decades of research on agronomic and environmental performance of the oldest system comparison experiment on organic and conventional cropping systems (DOK experiment). Two organic systems (bioorganic and biodynamic) are compared with two conventional (manure-based integrated and mineral-based) systems all with the same arable crop rotation including grass-clover, and manure from livestock integrated in all except the mineral-based system. Organic systems used 92% less pesticides and 76% less mineral nitrogen than conventional systems. Nitrogen use efficiency, that also considers biological nitrogen fixation, was above 85% for all systems. Organic fertilization with farmyard manure maintained or increased soil carbon and nitrogen stocks in the long term, especially in the biodynamic system with manure compost. Conventional mineral-based cropping reduced soil organic carbon and nitrogen stocks. Higher soil organic carbon stocks in organic cropping did not translate to increased N2O emissions, which were the main driver for 56% lower soil-based, area-scaled climate impact compared to the integrated conventional system with manure. Organic cropping systems, especially compost-based biodynamic, showed enhanced soil health, richness of micro- and macrofauna and weed species. Highest yields were achieved in integrated conventional system, with highest total nitrogen inputs and enhanced soil health compared to pure mineral fertilization. Yet, these benefits come at the cost of lower nitrogen use efficiency and higher N2O emissions. Despite a rigorous reduction of inputs yields of the organic systems achieved 85% of the conventional systems. We demonstrate at field level that organic cropping systems with reduced external nutrient inputs have less climate impact and a larger in-situ biodiversity, while providing a fertile ground for the future development of sustainable agricultural production systems.

From ‘Practical Application of Knowledge’ to ‘Academic Self-Awareness’: A Historical Examination of Knowledge Production in Chinese Middle East Studies

The knowledge production in Chinese Middle East studies boasts a long history. The article traces the evolution of Chinese scholarship on Middle East studies from ancient times to the present. Initially driven by the practical needs for imperial expansion and foreign trade, this scholarship focused on the academic tradition of the ‘practical application of knowledge.’ Over time, it evolved into a phase of academic self-awareness, characterized by a more systematic and independent approach to Middle East studies. This shift reflects broader changes in China’s foreign relations and academic priorities, with contemporary scholars emphasizing the development of an autonomous knowledge production system through various models, such as major-theme research, discipline-driven research, and integrated research. The article suggests that future research should adopt an ‘issue-driven’ model to enhance further the depth and autonomy of Chinese Middle East studies.

Evaluating Maize Residue Cover Using Machine Learning and Remote Sensing in the Meadow Soil Region of Northeast China

The management of crop residues in farmland is crucial for increasing soil organic matter and reducing soil erosion. Identifying the regional extent of crop residue cover (CRC) is vital for implementing conservation tillage and formulating agricultural subsidy policies. The Google Earth Engine (GEE) and remote sensing images from 2019 to 2023 were used to obtain spectral characteristics before the maize seedling stage in Northeast China, followed by constructing the CRC estimation models using machine learning algorithms. To avoid the impact of multicollinearity among data, three machine learning algorithms—ridge regression (RR), partial least squares regression (PLSR), and least absolute shrinkage and selection operator (LASSO)—were employed. By comparing the accuracy of these methods, the most accurate model was determined and applied to subsequent CRC estimation. Based on the estimated CRC and Conservation Technology Information Center definitions of tillage practices, the conservation tillage mapping was completed, and the spatiotemporal distribution characteristics were thoroughly analyzed. The following findings were demonstrated: (1) the PLSR-based model outperformed RR (Pearson’s correlation coefficient (r) = 0.8875, R2 = 0.7877, RMSE = 6.99%) and LASSO (r = 0.8903, R2 = 0.7926, RMSE = 6.88%) with higher accuracy (r = 0.9264, R2 = 0.8582, RMSE = 4.93%). (2) Over the five years, the average no-tillage (NT) proportion in the study area was 15.9%, reduced tillage (RT) was 17.8%, and conventional tillage (CT) was 66.3%. In 2020 and 2022, NT rates were significantly higher at 27.5% and 15.5%, while RT were 15.7% and 30.0%, respectively. (3) Compared to the Sanjiang and Liaohe Plains (RT = 1907 km2 and 1336 km2, and NT = 559 km2 and 585 km2, respectively), the Songnen Plain exhibited higher conservation tillage rates (where RT was 3791 km2 and NT was 1265 km2). This provides crucial scientific evidence for the management and planning of conservation tillage, thereby optimizing farmland production planning, enhancing production efficiency, and promoting the development of sustainable agricultural production systems.

Relationship Between Organisational Innovation and Organisation Performance: A Study of Nigeria Bottling Company

In an increasingly competitive business environment, the role of organisational innovation as a driver of performance is more crucial than ever. This study investigates the relationship between organisational innovation and organisational performance with a specific focus on Nigeria Bottling Company. Using a mixed-methods approach, the study explores how innovations in product development, processes, and management systems contribute to enhanced operational efficiency, market share, and financial outcomes. The study adopts a descriptive cross-sectional survey. The target population for this study consisted of two hundred and forty-five (245) staff members from Nigeria Bottling Company. Data was collected through structured questionnaires with key personnel across various departments within the organisation and analysed using descriptive statistics and regression analysis for the hypotheses. The study revealed that film size innovation is vital for a company's success in today's highly competitive business environment and leads to higher productivity, meaning that the same input generates a greater output. Innovatiocontributeste to firms’ success in terms of better performance in the form of higher profits, lower production costs, more efficient working procedures, and better relationships with customers. Furthermore, finding shows that creativity and innovation helps and improves the work of employees together with improving organisational performance. The study concludes that fostering a culture of continuous innovation is essential for sustaining competitive advantage in the beverage industry. It is therefore recommended that technological innovation be incorporated at all levels. The management of the organisation has to design an effective and timely market innovation strategy and communicate it to all staff members to enhance organisational performance and productivity. Organisations should consider innovation that is either market, product or organisation-based to improve and increase the organisational performance as innovation is significant to new product development, product modification and creation of a new market as experienced in new product lines like increase in online marketing, online purchase of different products and global connection of markets into one.

CuBe: a geminivirus-based copper-regulated expression system suitable for post-harvest activation.

The growing demand for sustainable platforms for biomolecule manufacturing has fuelled the development of plant-based production systems. Agroinfiltration, the current industry standard, offers several advantages but faces limitations for large-scale production due to high operational costs and batch-to-batch variability. Alternatively, here, we describe the CuBe system, a novel bean yellow dwarf virus (BeYDV)-derived conditional replicative expression platform stably transformed in Nicotiana benthamiana and activated by copper sulphate (CuSO4), an inexpensive and widely used agricultural input. The CuBe system utilizes a synthetic circuit of four genetic modules integrated into the plant genome: (i) a replicative vector harbouring the gene of interest (GOI) flanked by cis-acting elements for geminiviral replication and novelly arranged to enable transgene transcription exclusively upon formation of the circular replicon, (ii) copper-inducible Rep/RepA proteins essential for replicon formation, (iii) the yeast-derived CUP2-Gal4 copper-responsive transcriptional activator for Rep/RepA expression, and (iv) a copper-inducible Flp recombinase to minimize basal Rep/RepA expression. CuSO4 application triggers the activation of the system, leading to the formation of extrachromosomal replicons, expression of the GOI, and accumulation of the desired recombinant protein. We demonstrate the functionality of the CuBe system in N. benthamiana plants expressing high levels of eGFP and an anti-SARS-CoV-2 antibody upon copper treatment. Notably, the system is functional in post-harvest applications, a strategy with high potential impact for large-scale biomanufacturing. This work presents the CuBe system as a promising alternative to agroinfiltration for cost-effective and scalable production of recombinant proteins in plants.

Tailoring the Heterointerfaces of Earth-Abundant Transition-Metal Nanoclusters on Nickel Oxide Nanosheets for Enhanced Overall Water Splitting through Electronic Structure Optimization.

Evolving highly competent and economical electrocatalysts for alkaline water electrolysis is crucial in renewable hydrogen energy technologies. The slow hydrogen evolution reaction (HER)/oxygen evolution reaction (OER) kinetics under alkaline electrolytes, still, has troubled developments in high-performance green hydrogen production systems. Herein, we demonstrate the tailoring of the interface of earth-abundant transition-metal nanoclusters (MNCs), including iron (Fe), cobalt (Co), nickel (Ni), and copper (Cu) nanoclusters on nickel oxide nanosheets (M NCs|NiO NS) through metal-support interaction for enriched overall water splitting under an alkaline electrolyte. The strong metal-metal oxide interaction allows alteration of the binding capabilities of hydrogen ions (*H) and hydroxyl ions (*OH) on Ni electrodes. Specifically, the robust interaction between Fe and NiO reveals optimized binding of H* and OH* energies, facilitating the water-splitting reaction under an alkaline electrolyte. In addition, the improved HER/OER catalytic activity is attained with the Fe NCs|NiO NS with small overpotentials of ∼62.0 and ∼380.0 mV for the HER and OER, respectively, a high mass activity of ∼90.0 A g-1, a turnover frequency of ∼5.94 s-1, and long-lasting stability via offering abundant electrochemical active sites, three-dimensional (3D) morphologies, and high dispersion of nanoclusters that provide effective charge and mass transport processes. This study provides a promising strategy for the effective design of efficient bifunctional electrocatalysts based on earth-abundant materials for alkaline water electrolyzers.

Thermal management and power generation characteristics in a bifurcating channel by using a piezo-embedded inclined elastic fin assembly during turbulent forced convection of ternary nanofluid

Numerous engineering systems use piezoelectric energy harvesters (PE-EHs), which have several benefits including low cost, simplicity, better power density, and ease of installation. They can be used in different applications for energy harvesting and different external sources such as wind and vortex induced vibrations due to fluid–structure interaction can be utilized. This study uses a unique elastic fin PE/EH assembly for power generation, thermal management, and flow control in a bifurcating channel. Performance of the system is improved by using ternary nanofluid in the channel cooling system. Galerkin weighted residual FEM with ALE is used as the solution method. The convective heat transfer performance and power generation by the EH device are investigated in relation to the varying following parameters: Reynolds number (Re between 10000 and 30000), PE-EH inclination (γ between 0 and 60), fin horizontal location (xf between −H and H), and nanoparticle loading in the base fluid (ϕ between 0 and 0.03). The vortex size and distribution near the junction are significantly influenced by the fin inclination and horizontal location of the fin assembly within the bifurcating channel. When varying other parameters of interest, using nanofluid at the highest loading results in significant deflection of the fin assembly and power generation within the PE-EH. Enhancement factors (EFs) for power generation becomes 15.6 and 39.8 when cases of lowest and highest Re are compared with pure fluid and nanofluid while they are 2.93 and 3.38 for thermal performance improvements. Fin inclination of γ=30 is found as the optimum inclination for achieving the highest power from the assembly. Higher inclination of elastic fin/PE-EH assembly results in cooling performance deterioration while average Nu reduces by a factor of 2.94 by varying inclination from γ=30 to γ=60 with nanofluid. For power generation, effects of using nanofluid with varying inclination is significant and EF becomes 252 from γ=0 to γ=30. There are opposing tendencies for the device’s power generation and cooling performance enhancement when the fin’s horizontal placement is changed. EF for average Nu is 7.25 for varying fin location. As the loading of nanoparticle inside the base fluid increases, the average Nu and generated power exhibit non-linear rising characteristics. Polynomial type correlations are provided for the average Nu and power from the device by varying elastic fin assembly inclination and nanoparticle solid volume fraction. Potential of using hybrid nanofluid in PE-EH embedded thermo-fluid system is shown. The design, development, and optimization of self-sufficient power production systems that may be used to various thermo-fluid systems, such as electronic cooling and thermal control in a range of heat transfer devices, may benefit from the findings.

Development of a novel bacterial production system for recombinant bioactive proteins completely free from endotoxin contamination.

Endotoxins, or lipopolysaccharides (LPS), are potent immunostimulatory molecules of critical concern in bacterial recombinant protein expression systems. The gram-negative bacterium Acinetobacter baumannii exhibits an interesting and unique phenotype characterized by the complete loss of LPS. In this study, we developed a novel system for producing recombinant proteins completely devoid of endotoxin contamination using LPS-deficient A. baumannii. We purified endotoxin-free functional green fluorescent protein, which reduced endotoxin contamination by approximately three orders of magnitude, and also purified the functional cytokine tumor necrosis factor (TNF)-α. Additionally, utilization of the Omp38 signal peptide of A. baumannii enabled the extracellular production of variable domain of heavy chain of heavy chain (VHH) antibodies. With these advantages, mNb6-tri-20aa, a multivalent VHH that specifically binds to the spike protein of severe acute respiratory syndrome coronavirus 2, was purified from the culture supernatant, and endotoxin contamination was reduced by a factor of approximately 2 × 105 compared with that in conventional expression systems. A virus neutralization assay demonstrated the functionality of the purified antibody in suppressing viral infections. Moreover, we applied our system to produce ozoralizumab, a multispecific VHH that binds to human TNF-α and albumin and are marketed as a rheumatoid arthritis drug. We successfully purified a functional antibody from endotoxin contamination. This system establishes a new, completely endotoxin-free platform for the expression of recombinant proteins, which distinguishes it from other bacterial expression systems, and holds promise for future applications.

Fostering Students’ Development of Productive Representation Systems for Infinite Series

Fostering Students’ Development of Productive Representation Systems for Infinite Series

Approaches to sustainable development of production systems in the sphere of housing construction on the basis of application of “green” standards

Aim. To determine the problematics of the application of “green” standards in the field of housing construction and its impact on the management of sustainable development of production systems based on the application of “green” standards in the marketing sphere, as well as to propose options for solutions to problematic issues and directions for further research.Objectives. To analyze statistical information, as well as regulatory documentation in the field of “green” certification of residential real estate; to identify the problems of applied standards; to offer possible solutions to problematic issues in the aspect of application of “green” standards in the marketing sphere; to determine the necessary measures to implement the principles of sustainable development of production systems in general and adaptation of “green” standards in the assortment policy, marketing sphere of production systems in particular; to determine the directions for further research.Methods. When conducting the research, general scientific methods such as general analysis, expert assessments and generalization, document analysis, abstraction, comparison were used.Results. In the course of the study, the research revealed consolidated groups of problems, including “green” certification in the sphere of individual housing construction in conditions of non-systemic control of the process and results of activity in the marketing sphere of production systems (defined as a goal of further research); the problems of application of the approved and implemented in 2022 “green” state standard in the field of apartment building were revealed. During the analysis of regulatory documentation (GOST R 70346-2022. “Green” standards. Buildings of multifamily residential “green”. Evaluation methods and criteria for design, construction and operation) methodological problems of applying the criteria of group No. 6 “Materials and resource efficiency” are studied, possible solutions are proposed, directions for further research are outlined, the impact of these issues on the complex of management of sustainable development of production systems based on the application of “green” standards in the marketing sphere is shown. In addition, the classification of building evaluation stages in terms of construction stages is given.Conclusions. Approaches to the sustainable development of production systems in the sphere of housing construction, production and application of building materials have a special significance in public policy. An example is the “green” state standard, which is adopted in 2022, its popularization including through “Dom.RF”. However, the current certification mechanism, with all its advantages and merits, has a number of limitations in its application: lack of information from the developer, especially about completed objects, lack of comprehensive systems and registers of “green” solutions and materials, insufficient regulatory mechanisms in case of conflict between environmental friendliness and economic efficiency. These limitations are analyzed in the context of the block of criteria № 6 “Materials and resource efficiency”, and possible solutions are proposed, including the development of a comprehensive system and register of solutions and materials that meet the principles of sustainable development; accumulation of optional but necessary data on the certification of materials and solutions by the developer; proportional reduction of the tax base to compensate for the additional costs arising from the use of more expensive but more environmentally friendly materials and solutions; introduction of a new system and registry of “green” solutions and materials that meet the principles of sustainable development. The authors also identify directions for future research.

Methodology for the Development of Production Systems in the Automotive Industry

The goal of this research was creation and validation of a methodology for the development of production systems of suppliers of the automotive industry. The theoretical starting points analyze the available literary sources and point to the insufficient treatment of the issue by a comprehensive industry standard representing a gap in the current state of knowledge. The practical part of the research is divided into two stages. The subject of the first stage is the standardization of the methodology through a structured scientific procedure in intensive cooperation with a panel of experts. The subject of the second stage is testing the methodology on authentic projects of the application sector using case studies. The results of the testing showed that in all projects managed using the proposed methodology there was an increase in performance compared to projects managed in a traditional way. The successful confrontation of the proposed solution with reality (practice) is underlined by the confrontation with the current state of knowledge (theory). The practical benefits of the research are the possibility of implementing the methodology into the pedagogical process at training workplaces and, above all, its application into engineering practice to develop new production systems of suppliers of the automotive industry.

A Comprehensive Review on Harnessing Soy Proteins in the Manufacture of Healthy Foods through Extrusion.

The global development of livestock production systems, accelerated by the growing demand for animal products, has greatly contributed to land-use change, greenhouse gas emissions, and pollution of the local environment. Further, excessive consumption of animal products has been linked with cardiovascular diseases, digestive system diseases, diabetes, and cancer. On the other hand, snacks, pasta, and bread available on the market are made from wheat, fat, salt, and sugar, which contribute to the risk of cardiovascular diseases. To counter these issues, a range of plant protein-based food products have been developed using different processing techniques, such as extrusion. Given the easy scalability, low cost of extrusion technology, and health benefits of soy proteins, this review focuses on the extrusion of soy protein and the potential application of soy protein-based extrudates in the manufacture of healthy, nutritious, and sustainable meat analogs, snacks, pasta products, and breakfast cereals. This review discusses the addition of soy protein to reformulate hypercaloric foods through extrusion technology. It also explores physical and chemical changes of soy proteins/soy protein blends during low and high moisture extrusion. Hydrogen bonds, disulfide bonds, and hydrophobic interactions influence the properties of the extrudates. Adding soy protein to snacks, pasta, breakfast cereals, and meat analogs affects their nutritional value, physicochemical properties, and sensory characteristics. The use of soy proteins in the production of low-calorie food could be an excellent opportunity for the future development of the soybean processing industry.

Efficient Hydrogen Generation from Ammonia Borane Hydrolysis on a Tandem Ruthenium-Platinum-Titanium Catalyst.

Hydrolysis of ammonia borane (NH3BH3, AB) involves multiple undefined steps and complex adsorption and activation, so single or dual sites are not enough to rapidly achieve the multi-step catalytic processes. Designing multi-site catalysts is necessary to enhance the catalytic performance of AB hydrolysis reactions but revealing the matching reaction mechanisms of AB hydrolysis is a great challenge. In this work, we propose to construct RuPt-Ti multi-site catalysts to clarify the multi-site tandem activation mechanism of AB hydrolysis. Experimental and theoretical studies reveal that the multi-site tandem mode can respectively promote the activation of NH3BH3 and H2O molecules on the Ru and Pt sites as well as facilitate the fast transfer of *H and the desorption of H2 on Ti sites at the same time. RuPt-Ti multi-site catalysts exhibit the highest turnover frequency (TOF) of 1293 min-1 for AB hydrolysis reaction, outperforming the single-site Ru, dual-site RuPt and Ru-Ti catalysts. This study proposes a multi-site tandem concept for accelerating the dehydrogenation of hydrogen storage material, aiming to contribute to the development of cleaner, low-carbon, and high-performance hydrogen production systems.

Analysis and development of smart production and distribution line system in smart grid based on optimization techniques involving digital twin

The term Digital Twin (DT) is defined as the virtual demonstration of an object that is represented through real-time datasets. DT is done through artificial intelligence to enhance decision-making techniques. DT includes the process of simulation, amalgamation, observation, analysis, and conservation. The DT is simply the exact reproduction of the physical structures. DT is used in the identification and evaluation of problems through real-time analysis. It is important to have prior analysis and evaluation of the object before existing in the real world. These digital twins help in the manufacturing and implementation of the production line system. DT includes the production line with the station division and the hours needed for the operating conditions for the assembly process. The systems are integrated to reduce the overall cost parameter. The physical simulation model is employed to obtain higher performance with reduced cost. An artificial neural network with a genetic algorithm is used for the optimization process to achieve a production line system using digital twins.

Beyond Agriculture 4.0: Design and Development of Modern Agricultural Machines and Production Systems

Beyond Agriculture 4.0: Design and Development of Modern Agricultural Machines and Production Systems

The MIMO Data Transfer Line with Seven-Frequency Octonion Carrier

Currently, with the development of public relations and production systems, there is a need to increase the capacity of communication systems and information transmission. It has been shown theoretically that it is possible to increase throughput by using multidimensional signals in space instead of real signals on a plane. It is now accepted that a multidimensional space, MultipleInput Multiple-Output (MIMO), can be formed using multiple antennas to transmit and receive in physical space. However, as physicists point out, such space is three-dimensional, and with the addition of time it is four-dimensional. It is clear that in such a physical space, when using more than 2 antennas for transmission and 2 for reception, it is impossible to obtain a gain in throughput of more than 4 times, since according to the laws of cybernetics, the diversity at the channel input will not be transmitted to the exit. It follows that it is necessary to reconsider existing views on the dimension of physical space. Previously, in the work the MIMO data transfer line with three-frequency quaternion carrier, it was shown that it is possible to use a hypercomplex quaternion number as a model of physical space. In this case, the dimension of space will be equal to 4 with 3 imaginary (spatial) axes and one scalar axis. In addition, combinations of three quaternion angular frequencies on the imaginary axes formed 4 single-frequency channels. Accordingly, the gain in throughput compared to real signals reached 4 in orthogonal axes and 4 in frequencies. In this work, an octonion with 7 imaginary (spatial) axes and one scalar is used as a mathematical model of physical space. It is shown that the dimension of physical space will be 8 with 64 single-frequency channels in the form of combinations of 7 angular frequencies. Hence, the gain in throughput will be 8 in orthogonal axes and 64 in frequencies.

The Development of Interactive Cinematic Film Production Systems, and its Impact on the Design of Motion Pictures

The Development of Interactive Cinematic Film Production Systems, and its Impact on the Design of Motion Pictures