Environmental and technological
modernization of industrial production
modernization of industrial production
Implementation of graphene technologies
ENVIRONMENTAL PROGRAM
ECOLOGIZATION OF PRODUCTION
it is a tool for ensuring environmental safety and achieving sustainable development, integrating socio-ecological and economic processes based on the adoption of interrelated economic, technical and technological, social decisions that contribute to the effective achievement of environmental goals and objectives in the ecological and economic production system.
The technical and economic measures taken to rationalize the use of natural resources are based on scientific and technological progress. Scientific and technological progress acts as a means of resolving the contradiction between the growing needs of society for natural resources and the limited possibilities of nature for their reproduction and reserves.
Several principles to help you reduce your negative impact on the environment:
Several principles to help you reduce your negative impact on the environment:
- change in the sectoral structure - that is, it is necessary to reduce the number of industries with a large amount of waste, as well as production should not produce anti-ecological products;
- cooperation of various types of production - this principle implies the recycling of waste
- change of production technologies - this principle implies the use of technologies that will help conserve natural resources
- creation of new types of products - here it is necessary to pay attention to the fact that the products must have a longer service life, it is also necessary that the products after the end of their service life can be re-processed
- modern treatment technologies - that is, during production, facilities must be used that will cleanse waste, making it less hazardous to the environment.
Greening industrial production is aimed at simultaneously increasing efficiency and reducing its environmental intensity. It involves the formation of a progressive structure of social production, focused on increasing the share of final consumption products while reducing resource intensity and waste of production processes.
The essence of greening industrial production is to increase the productivity of enterprises, but at the same time to reduce their negative impact on the environment. In this case, it is also important to reduce the amount of waste.
Any production process is a certain system organically connected with the external environment. Such a production system receives raw materials, materials, energy from the environment, and gives it finished products and all kinds of waste. The functioning of the system is carried out due to the flow of energy supplied from the outside (electrical, solar, etc.) or generated within the system due to physical and chemical processes. Waste includes all substances and materials, thermal emissions, physical and biological agents that enter the external environment and are no longer involved in the production of products or energy.
If we use the concepts of thermodynamics, then, like all systems, technological processes are, in principle, divided into three categories: open (open), closed and isolated. The vast majority of real technological processes are classified as open-ended. Closed systems are considered to be those that do not have an exchange of matter with the external environment, but exchange of energy is possible. A technological analogue of a closed system can be a process in which there is no waste of chemical substances - solid, liquid and gaseous emissions. For example, final assembly of a product from finished parts. At the same time, the exchange of raw materials and finished products with the external environment is not taken into account, although the product can also be considered as a deferred waste. Isolated processes are theoretically possible, which do not produce either material or energy waste.
In general, all technological processes can be considered from the point of view of their environmental compliance. Such technological processes and production can be considered relatively environmentally friendly, the impact of which on the environment, within the framework of certain quantitative ratios, does not disrupt the normal functioning of natural ecosystems. Non-ecological technological processes create an increased technogenic load and have a negative impact on the state of the environment.
Any technological process can be non-environmentally friendly. So, a closed process technology that does not have the removal of chemicals into the environment cannot be considered environmentally friendly if it is accompanied by harmful physical effects: heat emissions, noise, electromagnetic fields, etc.
If we use the concepts of thermodynamics, then, like all systems, technological processes are, in principle, divided into three categories: open (open), closed and isolated. The vast majority of real technological processes are classified as open-ended. Closed systems are considered to be those that do not have an exchange of matter with the external environment, but exchange of energy is possible. A technological analogue of a closed system can be a process in which there is no waste of chemical substances - solid, liquid and gaseous emissions. For example, final assembly of a product from finished parts. At the same time, the exchange of raw materials and finished products with the external environment is not taken into account, although the product can also be considered as a deferred waste. Isolated processes are theoretically possible, which do not produce either material or energy waste.
In general, all technological processes can be considered from the point of view of their environmental compliance. Such technological processes and production can be considered relatively environmentally friendly, the impact of which on the environment, within the framework of certain quantitative ratios, does not disrupt the normal functioning of natural ecosystems. Non-ecological technological processes create an increased technogenic load and have a negative impact on the state of the environment.
Any technological process can be non-environmentally friendly. So, a closed process technology that does not have the removal of chemicals into the environment cannot be considered environmentally friendly if it is accompanied by harmful physical effects: heat emissions, noise, electromagnetic fields, etc.
should be based on the use of waste-free, low-waste, resource and energy-saving technologies, machinery and equipment, as well as taking into account an integrated system of environmental protection measures.
It is known that it is clean not where they clean, but where they do not litter. If cleaning is the purification of harmful emissions at the enterprise, then the development and implementation of low-waste (or non-waste) technologies allow "not to litter".
According to the definition adopted by the European Economic Commission for Low-Waste Technologies, waste-free (environmentally friendly) technology is a method of manufacturing products (process, enterprise, industrial complex), in which raw materials and energy are most rationally and comprehensively used in the cycle "raw materials - production - consumption - secondary resources "(so that any impact on the environment does not disrupt its normal functioning).
Unfortunately, industrial production cannot be absolutely clean, but its negative impact on the environment must be minimized, that is, to replace "dirty" industries with low-waste ones.
Low-waste production is such that the harmful impact on the environment does not exceed the level allowed by sanitary and hygienic standards; at the same time, part of the raw materials and materials goes into waste, which is sent to burial.
Cleaner production is characterized by the continuous and full application of a pollution-free environmental strategy to processes and products in order to reduce the risk to humanity. In relation to processes, this is the rational use of raw materials and energy; elimination of the use of toxic raw materials; reducing the amount of all emissions and waste generated in the production process, as well as the degree of their toxicity. Cleaner production means reducing the impact of a product on the environment throughout its entire life cycle - from the extraction of raw materials to disposal (or disposal) after use. Cleaner production is achieved by improving technology, applying know-how, and changing production management and disposal of by-products.
Sometimes, especially in foreign literature, the term "cleaner production" is used, which is understood as a technological strategy that prevents environmental pollution and minimizes the risk to people and the environment. In relation to processes, this is the rational use of raw materials and energy, the elimination of the use of toxic raw materials, the amount and degree of toxicity of all emissions and waste generated during the production process. From a product point of view, cleaner production means reducing its environmental impact over the entire life cycle of a product, from the extraction of raw materials to disposal (or disposal) after use. Cleaner production is achieved by improving technology, applying know-how and / or improving the organization of production (Zaitsev, 1987). Note that these definitions do not imply the possibility of complete waste-free production.
The creation of low-waste resource-saving technologies puts forward a number of general requirements aimed at a qualitative change in production. It:
- complex processing of raw materials using all of its components;
-intensification of production processes based on their automation, electronization and robotization; introduction of science-intensive, high-tech automated systems;
- cyclical and closed material flows while minimizing industrial waste;
- reducing the division of the technological process into separate operations, reducing the number of intermediate stages of the transition from raw materials to the final product; application of continuous processes and reduction of the time of technological cycles;
- reduction of specific consumption of natural resources and energy, maximum replacement of primary resources with secondary ones, recycling of by-products and waste into the main process, regeneration of excess energy;
- the use of combined energy technology processes that ensure the maximum use of the entire potential of energy resources;
- the introduction of environmental biotechnologies based on physical, chemical and biological processes, providing the possibility of using or neutralizing waste by bringing it to its natural state;
- creation of integrated technologies covering the spheres of nature management, production and consumption.
A systematic analysis of production processes from these positions makes it possible to determine the ways of creating new generation technologies.
It is known that it is clean not where they clean, but where they do not litter. If cleaning is the purification of harmful emissions at the enterprise, then the development and implementation of low-waste (or non-waste) technologies allow "not to litter".
According to the definition adopted by the European Economic Commission for Low-Waste Technologies, waste-free (environmentally friendly) technology is a method of manufacturing products (process, enterprise, industrial complex), in which raw materials and energy are most rationally and comprehensively used in the cycle "raw materials - production - consumption - secondary resources "(so that any impact on the environment does not disrupt its normal functioning).
Unfortunately, industrial production cannot be absolutely clean, but its negative impact on the environment must be minimized, that is, to replace "dirty" industries with low-waste ones.
Low-waste production is such that the harmful impact on the environment does not exceed the level allowed by sanitary and hygienic standards; at the same time, part of the raw materials and materials goes into waste, which is sent to burial.
Cleaner production is characterized by the continuous and full application of a pollution-free environmental strategy to processes and products in order to reduce the risk to humanity. In relation to processes, this is the rational use of raw materials and energy; elimination of the use of toxic raw materials; reducing the amount of all emissions and waste generated in the production process, as well as the degree of their toxicity. Cleaner production means reducing the impact of a product on the environment throughout its entire life cycle - from the extraction of raw materials to disposal (or disposal) after use. Cleaner production is achieved by improving technology, applying know-how, and changing production management and disposal of by-products.
Sometimes, especially in foreign literature, the term "cleaner production" is used, which is understood as a technological strategy that prevents environmental pollution and minimizes the risk to people and the environment. In relation to processes, this is the rational use of raw materials and energy, the elimination of the use of toxic raw materials, the amount and degree of toxicity of all emissions and waste generated during the production process. From a product point of view, cleaner production means reducing its environmental impact over the entire life cycle of a product, from the extraction of raw materials to disposal (or disposal) after use. Cleaner production is achieved by improving technology, applying know-how and / or improving the organization of production (Zaitsev, 1987). Note that these definitions do not imply the possibility of complete waste-free production.
The creation of low-waste resource-saving technologies puts forward a number of general requirements aimed at a qualitative change in production. It:
- complex processing of raw materials using all of its components;
-intensification of production processes based on their automation, electronization and robotization; introduction of science-intensive, high-tech automated systems;
- cyclical and closed material flows while minimizing industrial waste;
- reducing the division of the technological process into separate operations, reducing the number of intermediate stages of the transition from raw materials to the final product; application of continuous processes and reduction of the time of technological cycles;
- reduction of specific consumption of natural resources and energy, maximum replacement of primary resources with secondary ones, recycling of by-products and waste into the main process, regeneration of excess energy;
- the use of combined energy technology processes that ensure the maximum use of the entire potential of energy resources;
- the introduction of environmental biotechnologies based on physical, chemical and biological processes, providing the possibility of using or neutralizing waste by bringing it to its natural state;
- creation of integrated technologies covering the spheres of nature management, production and consumption.
A systematic analysis of production processes from these positions makes it possible to determine the ways of creating new generation technologies.
1. Systematic production of products, ie, its compliance with technological standards; observance of the sequence of technological processes; responsibility for disruption of the technological process, resulting in environmental pollution.
2. Minimization of sources of pollutants (for example, reduction of thermal emissions into the atmosphere due to the installation of waste heat boilers behind high-temperature industrial units or noise and vibration dampers in the moving parts of the apparatus).
3. The complexity of the use of material and energy resources, ie, the all-round use of raw materials and production products (for example, the use in construction of slags formed in metallurgical furnaces and power boilers).
4. Closedness of material flows, ie, stage-by-stage use of the products of technological processes (for example, water cooling high-temperature apparatus). •
5. Cyclicity, that is, the reusability of the use of raw materials. Realization of cyclicity is an attempt by man to imitate nature, in which the main factor in the dynamics of natural processes is the circulation of substances.
6. Maximum consumption of raw materials components and the potential of energy resources. Unfortunately, it is not possible to fully use raw materials and energy, therefore, a completely wasteless technology cannot exist, but it is undoubtedly necessary to strive for its more greening.
7. Compliance by the enterprise with the maximum permissible environmental load (PDEN) and the maximum permissible concentration (MPC) of harmful substances, that is, maintaining such a state of the environment in which anthropogenic impact does not cause negative changes.
2. Minimization of sources of pollutants (for example, reduction of thermal emissions into the atmosphere due to the installation of waste heat boilers behind high-temperature industrial units or noise and vibration dampers in the moving parts of the apparatus).
3. The complexity of the use of material and energy resources, ie, the all-round use of raw materials and production products (for example, the use in construction of slags formed in metallurgical furnaces and power boilers).
4. Closedness of material flows, ie, stage-by-stage use of the products of technological processes (for example, water cooling high-temperature apparatus). •
5. Cyclicity, that is, the reusability of the use of raw materials. Realization of cyclicity is an attempt by man to imitate nature, in which the main factor in the dynamics of natural processes is the circulation of substances.
6. Maximum consumption of raw materials components and the potential of energy resources. Unfortunately, it is not possible to fully use raw materials and energy, therefore, a completely wasteless technology cannot exist, but it is undoubtedly necessary to strive for its more greening.
7. Compliance by the enterprise with the maximum permissible environmental load (PDEN) and the maximum permissible concentration (MPC) of harmful substances, that is, maintaining such a state of the environment in which anthropogenic impact does not cause negative changes.
If we use the concepts of thermodynamics, then, like all systems, technological processes are, in principle, divided into three categories: open (open), closed and isolated. The vast majority of real technological processes are classified as open-ended. Closed systems are considered to be those that do not have an exchange of matter with the external environment, but exchange of energy is possible. A technological analogue of a closed system can be a process in which there is no waste of chemical substances - solid, liquid and gaseous emissions. For example, final assembly of a product from finished parts. At the same time, the exchange of raw materials and finished products with the external environment is not taken into account, although the product can also be considered as a deferred waste. Isolated processes are theoretically possible, which do not produce either material or energy waste.
In general, all technological processes can be considered from the point of view of their environmental compliance. Such technological processes and production can be considered relatively environmentally friendly, the impact of which on the environment, within the framework of certain quantitative ratios, does not disrupt the normal functioning of natural ecosystems. Non-ecological technological processes create an increased technogenic load and have a negative impact on the state of the environment.
Any technological process can be non-environmentally friendly. So, a closed process technology that does not have the removal of chemicals into the environment cannot be considered environmentally friendly if it is accompanied by harmful physical effects: heat emissions, noise, electromagnetic fields, etc.
In general, all technological processes can be considered from the point of view of their environmental compliance. Such technological processes and production can be considered relatively environmentally friendly, the impact of which on the environment, within the framework of certain quantitative ratios, does not disrupt the normal functioning of natural ecosystems. Non-ecological technological processes create an increased technogenic load and have a negative impact on the state of the environment.
Any technological process can be non-environmentally friendly. So, a closed process technology that does not have the removal of chemicals into the environment cannot be considered environmentally friendly if it is accompanied by harmful physical effects: heat emissions, noise, electromagnetic fields, etc.
Main technical directions:
- development and implementation of fundamentally new technological processes, the implementation of which can significantly reduce the generation of waste.
- the use of low-power processes (for example, the use of powder metallurgy methods dramatically reduces heat consumption at metallurgical enterprises);
- the use of highly efficient methods of tegago and mass transfer (for example, a fluidized bed in catalytic cracking units for oil refining);
- replacement of co-current flows of materials and heat carriers with counter-flow;
- introduction of technology using oxygen, hydrogen, ozone, electric current. However, it should be borne in mind that their production requires a significant consumption of energy resources, the production of which is associated with the combustion of fuel - a process that pollutes the atmosphere with dust, nitrogen and carbon oxides. An example of the effective use of oxygen in a fluidized bed is oxygen-suspended smelting of non-ferrous metals, developed at Gintsvetmet;
- the use of the effect of superconductivity, as well as technologies of ultrahigh pressures and temperatures;
- the use of mechanical methods instead of chemical processes using acids and alkalis;
- development of high technologies, in particular plasma and laser technologies;
- introduction of modern membrane, ion-exchange, extraction methods for the isolation of valuable (and toxic) substances;
- the use of effective geotechnological methods in the development of deposits (for example, in-situ leaching);
- introduction of anhydrous methods of enrichment and processing of raw materials;
- replacement of fiery processing of ores and waste by hydrometallurgical methods, since it is known that water is easier to purify than gases;
- production of biodegradable containers (for example, such bags, which, unlike polyethylene, decompose within three to five years);
- reuse of waste raw materials (for example, the use of slags for the production of expanded clay);
- diversified cooperation (creation of plants and complexes of plants).
- development and implementation of fundamentally new technological processes, the implementation of which can significantly reduce the generation of waste.
- the use of low-power processes (for example, the use of powder metallurgy methods dramatically reduces heat consumption at metallurgical enterprises);
- the use of highly efficient methods of tegago and mass transfer (for example, a fluidized bed in catalytic cracking units for oil refining);
- replacement of co-current flows of materials and heat carriers with counter-flow;
- introduction of technology using oxygen, hydrogen, ozone, electric current. However, it should be borne in mind that their production requires a significant consumption of energy resources, the production of which is associated with the combustion of fuel - a process that pollutes the atmosphere with dust, nitrogen and carbon oxides. An example of the effective use of oxygen in a fluidized bed is oxygen-suspended smelting of non-ferrous metals, developed at Gintsvetmet;
- the use of the effect of superconductivity, as well as technologies of ultrahigh pressures and temperatures;
- the use of mechanical methods instead of chemical processes using acids and alkalis;
- development of high technologies, in particular plasma and laser technologies;
- introduction of modern membrane, ion-exchange, extraction methods for the isolation of valuable (and toxic) substances;
- the use of effective geotechnological methods in the development of deposits (for example, in-situ leaching);
- introduction of anhydrous methods of enrichment and processing of raw materials;
- replacement of fiery processing of ores and waste by hydrometallurgical methods, since it is known that water is easier to purify than gases;
- production of biodegradable containers (for example, such bags, which, unlike polyethylene, decompose within three to five years);
- reuse of waste raw materials (for example, the use of slags for the production of expanded clay);
- diversified cooperation (creation of plants and complexes of plants).
The organizational directions for the introduction of low-waste industries include:
- systemic organization of production, ensuring the interconnection of production, social and natural processes. An example is the creation of closed water circulation circuits (in particular, at the Moscow Refinery, in addition to the closed water circulation circuit of the plant, there are internal water circulation circuits in each workshop). At the same time, the costs of water treatment, water losses in the technological process and the amount of harmful emissions are reduced. Sediments after water purification are processed and used as secondary raw materials. It is interesting to note that the previously stored slags of the Ural metallurgical plants contain a significant amount of metal and, at the current level of development of metallurgy, can serve as raw materials for its secondary smelting;
- reusable use of materials due to the organization of cyclical processes. This applies not only to water, but also to gases and materials. In terms of materials, an example is the rational use of catalysts. Catalysts speed up technological processes. They are valuable materials and therefore need to be regenerated, that is, cleaned and restored. With the correct organization of the process, the maximum catalyst life is ensured. After regeneration, it returns to the technological cycle, and the regeneration waste is removed from the enterprise and processed to recover valuable substances. Utilization of BMP and VER is one of the main factors in the creation of low-waste technologies;
- combination of industries in organizing the integrated use of raw materials, energy resources and production products;
- cooperation of industries taking into account the utilization of BMP and VER at large domestic plants, in particular at metallurgical plants, up to the extraction of precious metals and rare earth elements from slag waste;
- scientific and practical substantiation of the area of construction of production, taking into account the background pollution of the environment and the possibility of cooperation with other industries in the region;
- creation of low-waste TPK and ecological-industrial parks. In this case, waste from one enterprise is used at another.
A scientifically substantiated organization of work during the creation of a TPK could lead to the implementation of the technical circulation of substances and energy, first in individual regions, and then on a global scale;
- rational organization of production allows to increase the volume of production and expand its range and quality. In a market economy, an ever-increasing importance is attached to the efficient organization of production. But the pursuit of profit should not be carried out by increasing the level of emissions of harmful substances into the environment;
- creation of regional centers for the processing and disposal of industrial and household waste. However, solid waste landfills are an expensive undertaking, so it is advisable to extract useful substances from the waste, while reducing the cost of creating and operating landfills.
Thus, the greening of technologies, the creation and development of low-waste industries should be considered in conjunction to achieve one goal - to reduce the negative anthropogenic impact on the environment.
- systemic organization of production, ensuring the interconnection of production, social and natural processes. An example is the creation of closed water circulation circuits (in particular, at the Moscow Refinery, in addition to the closed water circulation circuit of the plant, there are internal water circulation circuits in each workshop). At the same time, the costs of water treatment, water losses in the technological process and the amount of harmful emissions are reduced. Sediments after water purification are processed and used as secondary raw materials. It is interesting to note that the previously stored slags of the Ural metallurgical plants contain a significant amount of metal and, at the current level of development of metallurgy, can serve as raw materials for its secondary smelting;
- reusable use of materials due to the organization of cyclical processes. This applies not only to water, but also to gases and materials. In terms of materials, an example is the rational use of catalysts. Catalysts speed up technological processes. They are valuable materials and therefore need to be regenerated, that is, cleaned and restored. With the correct organization of the process, the maximum catalyst life is ensured. After regeneration, it returns to the technological cycle, and the regeneration waste is removed from the enterprise and processed to recover valuable substances. Utilization of BMP and VER is one of the main factors in the creation of low-waste technologies;
- combination of industries in organizing the integrated use of raw materials, energy resources and production products;
- cooperation of industries taking into account the utilization of BMP and VER at large domestic plants, in particular at metallurgical plants, up to the extraction of precious metals and rare earth elements from slag waste;
- scientific and practical substantiation of the area of construction of production, taking into account the background pollution of the environment and the possibility of cooperation with other industries in the region;
- creation of low-waste TPK and ecological-industrial parks. In this case, waste from one enterprise is used at another.
A scientifically substantiated organization of work during the creation of a TPK could lead to the implementation of the technical circulation of substances and energy, first in individual regions, and then on a global scale;
- rational organization of production allows to increase the volume of production and expand its range and quality. In a market economy, an ever-increasing importance is attached to the efficient organization of production. But the pursuit of profit should not be carried out by increasing the level of emissions of harmful substances into the environment;
- creation of regional centers for the processing and disposal of industrial and household waste. However, solid waste landfills are an expensive undertaking, so it is advisable to extract useful substances from the waste, while reducing the cost of creating and operating landfills.
Thus, the greening of technologies, the creation and development of low-waste industries should be considered in conjunction to achieve one goal - to reduce the negative anthropogenic impact on the environment.
Modern materials play an important role in the field of ecology and energy.
Due to their unique properties and the ability to improve the properties of other materials by 10 or 200 times, the introduction of developments based on them brings objects and technologies to a new level of resource efficiency. This contributes to the efforts of the world community to reduce anthropogenic emissions and slow down the rate of loss of biodiversity.
Due to their unique properties and the ability to improve the properties of other materials by 10 or 200 times, the introduction of developments based on them brings objects and technologies to a new level of resource efficiency. This contributes to the efforts of the world community to reduce anthropogenic emissions and slow down the rate of loss of biodiversity.
The reason for successful application 2D materials?
The point is the physicochemical properties of the class of two-dimensional materials, which are paradoxical for the three-dimensional world. Thanks to the unique properties of its electronic system, graphene today allows discovering new and new fundamental effects, as well as demonstrating those phenomena that have long been predicted by theory and have been waiting in the wings. It was in work with graphene that scientists demonstrated such effects of quantum physics as the Klein paradox and the quantum Hall effect.
In the technological field associated with the production of graphene-containing ("enriched") materials, there is an understanding of technical processes. Their development and implementation is of great importance for ecology and energy. It even makes commercial sense. Graphene itself is still relatively expensive (over $ 100 / kg). But its amount, sufficient to improve the properties of the material by a factor of 10, sometimes requires no more than 0.5%, which adds to the cost of the product no more than a few dollars per kilogram. There are specially created national research institutes dedicated to the study of this material and its applications. There is a group of organizations involved in the production of graphene itself. There are companies producing graphene-based products, there are already more than fifty of them in the world.
Teslar Scientific and Industrial Association is actively exploring the possibilities and methods of using two-dimensional 2D: graphene and other most modern and promising materials to improve the quality of life, protect human health, protect and restore the environment.
Nanotech
Industry solutions
Teslar SIA conducts fundamental and applied research and development work with the aim of creating new possible applications, environmentally friendly products, products, systems and technologies based on advanced developments and nanomaterials. Seeks to expand collaboration with research teams and all stakeholders.
The production of graphene-containing and other promising materials and products is organized for the ecological and technological modernization of a wide range of products and technologies. Among the actively developing areas of scientific and technical activities of Teslar SIA is the creation of graphene additives that significantly improve the properties of heat-conducting substrates and compounds, pastes, and glue.
Unique materials and developments, including two-dimensional technologies, have made it possible to unprecedentedly extend the service life of products and achieve the world's best indicators in a number of areas of human activity; for the first time to obtain safe and biologically adequate artificial lighting for humans; to bring the energy efficiency of facilities to a new level; reduce emissions and energy costs; make a breakthrough in high-precision agricultural technologies and expand the scope of city farming.
The production of graphene-containing and other promising materials and products is organized for the ecological and technological modernization of a wide range of products and technologies. Among the actively developing areas of scientific and technical activities of Teslar SIA is the creation of graphene additives that significantly improve the properties of heat-conducting substrates and compounds, pastes, and glue.
Unique materials and developments, including two-dimensional technologies, have made it possible to unprecedentedly extend the service life of products and achieve the world's best indicators in a number of areas of human activity; for the first time to obtain safe and biologically adequate artificial lighting for humans; to bring the energy efficiency of facilities to a new level; reduce emissions and energy costs; make a breakthrough in high-precision agricultural technologies and expand the scope of city farming.
Environmental and technological modernization leads to a decrease in energy consumption and anthropogenic emissions into the atmosphere, the elimination of waste generation and a slowdown in the rate of climate change. Such developments contribute to the development of health-saving and resource-saving technologies, improving the quality of life of present and future generations.
NOTHING DISAPPEARS, BUT EVERYTHING IS TRANSFORMED. - TESLAR SIA
Quantum revolution in circular economy
The only sane way to deal with waste is to recycle it into usable, modern materials. A new word in waste management: recycling has become a process of industrial production of high-quality innovative material - graphene, which is in demand in all spheres of human activity and is of great importance for the ecology of the planet.
Green graphene
More than 2/3 of the technologies and materials used by humans can be significantly improved with graphene. Through collaboration and technology, we can achieve previously unattainable results and help many teams of researchers become pioneers in the application of 2D and quantum technologies in almost any industry. This becomes possible not only thanks to the work of inventors or engineers, but also as a result of your intelligent choice.
Leave a request for the implementation of graphene technologies
We will help you formulate a realistic technical task and implement a full R&D cycle on a modern research and production base, with the involvement of leading domestic specialists, guaranteeing the safety of confidential information and high quality results.
We are open for cooperation and are ready to advise you on the implementation of graphene and its derivatives in your business.
In this regard, we have expanded our own production facilities for the production of graphene oxide and invite individuals and teams from any industry to send their proposals on any convenient communication method for them.
We are open for cooperation and are ready to advise you on the implementation of graphene and its derivatives in your business.
In this regard, we have expanded our own production facilities for the production of graphene oxide and invite individuals and teams from any industry to send their proposals on any convenient communication method for them.
If you are interested in buying graphene or introducing graphene technologies, please contact us in any convenient way.
Продолжите заполнение формы или напишите нам по адресу info@teslar.site
Укажите свои контактные данные и мы свяжемся с Вами
Fill out this form and leave your contacts for feedback.
We are always glad to new ideas and answer your questions
We are always glad to new ideas and answer your questions
Thank you for your message.
Leave your details if you want us to contact you.
Leave your details if you want us to contact you.
У вас есть вопрос? Свяжитесь с нами
Нажимая на кнопку, вы даете согласие на обработку персональных данных и соглашаетесь c политикой конфиденциальности
The site is under reconstruction. Some pages may be temporarily unavailable. We are sorry for the inconvenience.
Members of a public association of a scientific and industrial association know more and can access information at any time.
Find out how to become a member on this page. If you are already a member, please authenticate using the link.
Find out how to become a member on this page. If you are already a member, please authenticate using the link.
Cooperation
development
Library
Research
Partnership
www.teslar.site © 2008-2023 Product certified