07.10.2021

Reusable launch vehicles. Russia is preparing a new breakthrough in space technology


That the country is going to spend 1.6 trillion rubles on various space programs by 2020. First of all, it was about the continuation of the construction of the Vostochny cosmodrome - the first launch of a launch vehicle from this launch pad is scheduled for the end of 2015. At the same time, plans were announced to create by 2030 some systems to counter the use of weapons from space and in space, plans to send astronauts beyond the Earth's orbit in the future, including the creation of a permanent moon base, which can then be used as an intermediate point for flights to Mars (however, it is planned to start implementing this program closer to 2030).

How does Russia look at the prospects for the development of the space industry today, a year later? About this for Russian newspaper”wrote in the article “Russian Space” Deputy Prime Minister Dmitry Olegovich Rogozin, who oversees the defense and rocket and space industries. Under the slogan “We are moving from cosmic romanticism to earthly pragmatism,” he noted that Russia now faces three strategic tasks in the study and development of outer space: expanding its presence in low Earth orbits and moving from their development to use; development with subsequent colonization of the Moon and circumlunar space; preparation and start of exploration of Mars and other objects solar system.

First, he touched upon the problems that the Russian space industry has faced in recent decades: the collapse of the USSR and the subsequent severe tests of the rocket and space industry of the former Union, the thoughtless “eating away” of the scientific and technical backlog. In many ways, the industry has been set back decades. Although today Russia is still the leader in manned space programs and the stable operation of the world's second GLONASS satellite navigation system is ensured, the general state of the industry cannot be called prosperous.

Guaranteed access to space from your territory

In order to improve the state of affairs until 2030, the Russian Federation is going to ensure guaranteed access to space from its territory: launches of defense and dual-purpose spacecraft will be gradually transferred from the Baikonur cosmodrome to the Plesetsk and Vostochny cosmodromes. However, Russia will not leave Kazakhstan: the launch complexes will be used within the framework of international programs and with the more active participation of the Kazakh side. For example, within the framework of the Baiterek project for the creation and operation of a medium-class space complex.

At present, work on the construction of the Vostochny cosmodrome is in full swing: the launch and technical complexes for the Soyuz-2 family of launch vehicles are being built, design and survey work is underway on objects of heavy missile system"Angara". The supporting infrastructure of the cosmodrome is being built. At the same time, the creation of promising launch vehicles of light, medium and heavy classes is being completed.

Space communications and remote sensing of the Earth

The Federal Space Program of Russia for 2006-2015 provides for the development and creation of a whole series of communication satellites on a modern technological basis. By the end of 2015, the domestic constellation of communication and broadcasting satellites will be almost completely renewed. The problem is that the electronic component base (ECB), which makes up 90% of each spacecraft, is highly dependent on foreign suppliers. Onboard relay complexes of communication satellites created in recent years are either entirely manufactured by foreign firms or created at industry enterprises based on foreign components. Therefore, the Federal Space Agency assumed the role of a system integrator and actual customer of the domestic industry of radiation-resistant ECB.

The direction of remote sensing of the Earth (ERS) from space that is in demand today includes hydrometeorology, cartography, the search for minerals, Information Support economic activity, detection and monitoring of emergency situations, environmental conditions, forecasting of earthquakes and other destructive natural phenomena. In order to meet these needs of Russia, an updated domestic remote sensing system will be created. A minimum required strength the constellation of its satellites should be 28 spacecraft, which is planned to be achieved within the next 7-10 years.

The development of the GLONASS navigation system will continue: the Glonass-M spacecraft are being replaced by a new generation of Glonass-K navigation devices with improved technical characteristics, which will expand the scope and improve the quality of navigation support. Work continues to promote GLONASS navigation services on the world market.

Scientific directions

Russia is also going to expand its efforts in the creation of scientific spacecraft for space exploration. In 2011, the Russian space radio telescope "Spektr-R" with an antenna with a diameter of 10 meters was successfully launched into orbit, it became the basis of the ongoing international project of radio interferometric research "RadioAstron". In the same 2011, the launch of the Phobos-Grunt interplanetary station ended in failure.

In the spring of 2013, the flight of the Bion-M1 apparatus took place with animals and microorganisms on board. During the flight, more than 70 experiments in the field of space biology, physiology and radiation biology were successfully performed. The launch of a new Russian scientific satellite, Foton-M, is due to take place in the near future, with the help of which the Russian program of microgravity studies of fluid physics, space technology and biotechnology will continue.

Finally, this year the MKA-FKI-RELEK small spacecraft will be launched, which is supposed to conduct experiments on the study of cosmic rays, as well as several technical experiments. The work on the ExoMars project is being intensively developed. Projects are being prepared for large astrophysical observatories of the Spektr-Spektr-RG and Spektr-UV series. Work continues on the creation of promising observatories Spektr-M (Millimetron) and GAMMA-400.

Pragmatism in the development and use of near-Earth orbits

Competition in the development and use of near-Earth orbits is intensifying today. Dmitry Olegovich notes: “On January 12, the Cygnus unmanned spacecraft docked to the ISS, delivering 1.5 tons of equipment, food and CubeSat satellites into low Earth orbit. The total carrying capacity of this ship is 2.7 tons. Our Progress-M is capable of lifting a little more than 2 tons into orbit. It is important that Cygnus, like its Antares launch vehicle, was created not by a state corporation, but by a small private American company Orbital Sciences, which employs only 4 thousand people. In addition, the Dragon spacecraft, created by SpaceX and capable of delivering 6 tons of cargo into orbit, flew to the ISS last year for the third time. In addition to the ships of these two companies and our Progress, the ATV launch vehicles of the European Space Agency (payload of 7.7 tons) and HTV of the Japan Aerospace Exploration Agency (6 tons) act as unmanned cabs on the ISS.

But not only and not so much in the payload capacity. The Soyuz manned spacecraft and the Progress transporter are veterans of cosmonautics. SpaceX was founded in 2002. It employs 3800 employees. This is 12 times less than, for example, in the GKNPTs im. M. V. Khrunichev, where they assemble another veteran of the domestic space - the heavy Proton launch vehicle. For this reason, too, flights of domestic launch vehicles and ships are more expensive than those of our Western competitors. Comparison of the cost of space technology in Russia and China, in which the space program has been elevated to the rank of a state priority, is also not in our favor.”

According to the Deputy Prime Minister, space has practically ceased to be only a matter of pride and prestige of the state, having become an industry with its own rates of profitability, depreciation and profit. Therefore, all existing and prospective space programs should be considered through the prism of their profitability, including the program of scientific work on the Russian segment of the International Space Station. Russia seeks to increase economic efficiency manned flights, speed up (up to 1-2 years) the adaptation of ships to new tasks, shorten the development time for new modules, complete "prolonged space construction" and adapt to the needs of the customer.

Moon and deep space exploration

Also, Russia is going to seriously and for a long time to deal with the issue of the exploration of the moon. The first landings of a man on the moon are planned to be made in 2030, after which the deployment of a visited lunar base with a laboratory will begin. There, according to Mr. Rogozin, it is planned to place tools for studying the depths of the Universe, a laboratory for studying lunar minerals, meteorites, and pilot production of useful substances, gases, and water from regolith. Then test sites will be placed for the accumulation and transmission of energy over a distance, for testing new engines. The task, according to Mr. Rogozin, is grandiose, daunting and ambitious, but at the same time realizable. It will testify to the technological maturity of Russia, to the creation of a strategic intellectual and industrial reserve for future generations.

To explore the Moon, it is necessary to create a promising manned transport system based on a superheavy class rocket and a promising system of habitats. In addition, design work is underway to create powerful interorbital (interplanetary) tugs, without which the exploration of the Moon and the exploration of the planets of the solar system is impossible. The appearance of such means will make it possible not only to reach the Moon, but also to carry out flights to asteroids and Mars in the future. The moon can become an intermediate base in the exploration of deep space, solving scientific problems and problems such as combating the asteroid-comet danger to the Earth. The key areas of development within the framework of the national project "Study of deep space" will be the creation of nuclear power plants and plasma energy conversion technologies, the development of biotechnology, robotics and new materials.

As Dmitry Rogozin notes, most Russian scientists believe that the Moon is the most important object for fundamental scientific research. Its origin in many ways sheds light on the most difficult questions cosmogony: the birth of the solar system, its development and future. In addition, the Moon is the closest source of extraterrestrial matter, minerals, minerals, volatile compounds, and water. The moon is a natural platform for technological research and testing of new space technology. The opinion about the need to explore the Moon is also shared by the united Europe, China, Japan, and India.

“We do not position the task of flying to the moon as a program limited in time and resources. The moon is not an intermediate point in the distance, it is an independent and even self-sufficient goal. It is hardly expedient to make 10-20 flights to the Moon, and then, leaving everything behind, fly to Mars or asteroids. This process has a beginning, but no end: we are going to go to the moon forever. In addition, flights to Mars, to asteroids, in our view, not only do not contradict the exploration of the Moon, but in many ways imply this process, ” Rogozin stressed.

Cooperation with NASA

Due to events in Ukraine, cooperation Russian Federation and NASA turned out to be in doubt: the Americans announced sanctions, which, however, should not have affected joint work on the ISS (Russia has accumulated unique experience in this area). But now Roskosmos has reported that the position of the State Department on cooperation between Russia and NASA has softened a lot. Deputy Head of the Federal Space Agency Sergey Savelyev noted: “No damage has been done to international projects. It is possible to work in almost all areas of interaction between our agencies.”.

General characteristics of the activities of Roscosmos

Currently, the state corporation for space activities "Roscosmos" unites more than 90 organizations, 80% of which are joint-stock companies. They employ about 250 thousand people.

In 2016, the year of the 55th anniversary of the flight of Yuri Gagarin, the Year of Gagarin, was celebrated. This year was a continuation of the systemic reform of the Russian rocket and space industry, enterprises and organizations of the state corporation, which started in the fall of 2014. The main directions of the changes carried out in the space industry are the improvement of the quality of products, the financial recovery of enterprises and the renewal of production.

In 2016, the Government of the Russian Federation approved the Federal Space Program (hereinafter referred to as FSP) for 2016-2025, which determined the ways and directions of Russia's space activities for the next decade. All significant programs have been preserved - the development and production of new types of launch vehicles and the Federation manned transport spacecraft, international cooperation, including on the ISS, the development, production and launch of spacecraft for applied and fundamental scientific research.

In 2016, work continued to ensure the development of space activities and the rocket and space industry in Russia. The following tasks were solved:

formation and maintenance of the required composition of the orbital constellation of spacecraft;

introduction of domestic satellite navigation technologies and services using global navigation satellite system GLONASS;

improvement of the system for providing Earth remote sensing data (hereinafter referred to as remote sensing data) from space using Russian spacecraft (hereinafter referred to as SC) remote sensing data of high spatial resolution;

continuation of the implementation of programs of scientific and applied research and experiments at the International Space Station;

creation of scientific, technical and technological reserves on promising models of rocket and space technology;

modernization and maintenance of the Plesetsk and Baikonur cosmodromes, construction of the Vostochny cosmodrome.

A complex of organizational, scientific, technical and production and technological measures is being implemented, providing for measures to capital investment, including investment projects for the modernization of production facilities.

Over the past two years alone, more than 40 reconstruction and technical re-equipment facilities have been put into operation, including a completely renovated park technical equipment. In the medium term, it is planned to re-equip more than 160 facilities as part of the corporation's innovative development program.

Current programs of innovative development of leading enterprises - manufacturers of space technology (PJSC Rocket and Space Corporation Energia, Federal State Unitary Enterprise GKNPTs named after M.V. Khrunichev, JSC RCC Progress, JSC NPO Energomash named after Academician V.P. Glushko, JSC Information Satellite Systems named after Academician M.F. Reshetnev, JSC Russian Space Systems and others) are aimed, among other things, at a radical renewal of the technical fleet of production assets.

A personnel reserve of the rocket and space industry has been formed; criteria for selection and competencies of employees applying for managerial positions have been developed. In total, in 2016, 1320 applications were submitted from heads of various levels of organizations in the industry, and the commission will eventually select 200 people who will be trained at the established and successfully operating Corporate Academy of the Roscosmos State Corporation. In 2016, the first industry competition and the first corporate championship "Young Professionals of Roscosmos" were held according to WorldSkills standards. Also, new standards and methods of working with employees are being developed, formed and put into effect, where one of the important points is motivation for quality work.

The net profit of industry enterprises in 2016 amounted to 3.2 billion rubles, which is 56% higher than in 2015.

In 2016, Roskosmos, together with the Moscow Planetarium, carried out the “Bring Astronomy Back to Schools” campaign. An agreement has been reached with the Russian Ministry of Education and Science to return astronomy lessons to schools.

Key indicators

The main event of 2016 is the first launch from Russia's first civil cosmodrome Vostochny on April 28, 2016. The launch vehicle (hereinafter - LV) "Soyuz 2.1a" launched two spacecraft for scientific purposes and remote sensing - "Lomonosov" and "Aist-2D" into the specified orbits.

Currently, the state corporation Roscosmos is starting the second stage of the construction of the cosmodrome, primarily the creation of a launch complex for launching new, promising Angara launch vehicles.

In 2016, 19 launches were carried out in the interests of government and commercial customers. Under the ISS program, the State Corporation Roscosmos performed 7 launches from the Baikonur cosmodrome; 5 commercial launches were also carried out: 2 - from the Baikonur Cosmodrome, 1 - from the Plesetsk Cosmodrome and 2 - from the Guiana Space Center.

The unique products of the flagship engine-building enterprise of the state corporation Roscosmos JSC NPO Energomash continue to be in demand. So, in October 2016, the American launch vehicle Antares with Russian RD-181 engines produced by this enterprise was successfully launched.

As of the end of 2016, the orbital constellation of socio-economic, scientific and dual-purpose spacecraft included 84 satellites, including 27 satellites of the GLONASS system and 8 remote sensing satellites for natural resources and hydrometeorological purposes. The main characteristics of the GLONASS system (accuracy and availability) were consistently maintained throughout the year at a competitive level.

Development of the Earth remote sensing system

In 2016, a space system for remote sensing of the earth (ERS) was formed, consisting of three spacecraft "Resurs-P", taking this into account, provision of remote sensing data was provided to all federal authorities executive power and executive authorities of the subjects of the Federation. Work has begun on the commercial use of remote sensing data.

As part of the development of space infrastructure, Russia's first Arctic remote sensing data reception center was deployed in Murmansk. Work has begun on the deployment of a similar center in Antarctica at the Progress station.

Development of promising launch vehicles

For the successful promotion of Russia in the international space market of launch services, our country needs promising launch vehicles. Enterprises and design bureaus of the Roscosmos state corporation are developing projects for a heavy-lift missile system based on the Angara A5 launch vehicle and a super-heavy class for the lunar program (development of its draft design started in 2017). An agreement was reached with Kazakh partners on the creation of the Baiterek complex at the Baikonur Cosmodrome using a new promising Russian launch vehicle, the development of which is planned for 2018.

The State Corporation Roscosmos continues to introduce systems for monitoring and improving the quality of manufactured space technology at all enterprises and organizations of the rocket and space industry in Russia. The industry is shifting to digital design of space technology. The main goal in terms of quality and reliability is to reduce the accident rate of launch vehicles by 2020 by at least 1.5 times and increase the life of spacecraft by 25–30%.

In order to improve production efficiency and increase the competitiveness of the produced rocket and space technology, the State Corporation Roscosmos has developed and approved the standards of the production system. To start implementing the standards of the new production system, three flagship enterprises of the state corporation were selected: Federal State Unitary Enterprise GKNPTs im. M.V. Khrunichev” (hereinafter referred to as the Khrunichev Center), RSC Energia PJSC and NPO Energomash JSC.

International projects of Roscosmos

Within the framework of previously concluded intergovernmental agreements on the peaceful exploration and use of outer space, the State Corporation Roscosmos cooperated in 2016 with the following countries: Germany, France, Italy, Spain, Sweden, Belgium, Bulgaria, Hungary, USA, Brazil, Argentina, Cuba, Nicaragua , Chile, China, India, the Republic of Korea, Indonesia, Vietnam, Australia, South Africa - as well as with the CIS countries: Kazakhstan, Belarus and Armenia.

In 2016, the State Corporation Roscosmos acted as the leading space agency under the International Charter on Space and Major Disasters.

Also in 2016, within the framework of international cooperation, the State Corporation Roscosmos solved the tasks of organizing, ensuring interaction and developing international cooperation with foreign space agencies, including the European Space Agency (hereinafter referred to as ESA) and the National Aeronautics and Space Agency (hereinafter referred to as NASA), national coordinating bodies of foreign states and international organizations in the field of exploration and use of outer space.

In 2016, the Concept of further cooperation at the Baikonur complex, a joint program for the development of tourism infrastructure at Baikonur, a road map for the implementation of the Baiterek project for 2016–2025, and other intergovernmental and interdepartmental agreements were signed with the Kazakh side.

In 2016, the State Corporation Roscosmos prepared for the conclusion of intergovernmental agreements with Mexico, Peru, Venezuela, Saudi Arabia, Israel, Malaysia, Mongolia, Ecuador, Angola and Algeria.

As part of international cooperation on the ISS program, the state corporation Roscosmos, together with the German Aerospace Center (DLR), signed an addendum to the framework agreement regarding the use of the ISS for research and experimental activities. Joint space experiments of the state corporation Roscosmos, ESA, NASA and the Japan Aerospace Exploration Agency (JAXA) also continue. Thus, within the framework of the Kristallizator space experiment jointly with JAXA, results have been obtained that allow Russian scientists to work on the creation of a medical drug for the treatment of oncological diseases.

In 2016, the first Russian-American annual flight was successfully completed. Roscosmos cosmonaut Mikhail Kornienko and NASA astronaut Scott Kelly worked on the ISS.

One of the high-profile international scientific projects is the ExoMars project, in which Russia is working together with colleagues from the European Space Agency. In March 2016, the Proton launch vehicle successfully launched the Russian-European ExoMars-2016 mission from the Baikonur Cosmodrome. The device successfully reached the orbit of Mars and began its work. On board the apparatus of the four devices - two Russian. The next stage of the mission is planned for implementation in 2020.

Employees of the Federal State Unitary Enterprise "TsNIIMash", a research institute that is part of the state corporation "Roscosmos", have developed actual scenarios for flights to the Moon, combining the use of automatic and manned spacecraft, justified the design and technical requirements to promising manned space systems.

Roscosmos State Corporation is actively developing cooperation with foreign countries in the field of satellite navigation. The federal target program "Maintenance, development and use of the GLONASS system for 2012-2020" provides for the creation of a monitoring network that includes stations for functional additions to the GLONASS system for global high-precision determination of real-time navigation information for civilian consumers and for monitoring and confirming the characteristics of the GLONASS system . So, in 2016, a quantum-optical station was installed, designed for trajectory measurements of the movement of GLONASS satellites, and scheduled tests of the station's parameters began. The Sazhen-TM-BIS system located in South Africa became the second radio-laser complex of the foreign segment of the network of stations of the state corporation Roscosmos, created in the interests of the GLONASS system (the first complex of this type was installed and put into operation on July 14, 2014 in . Brasilia, Brazil). Preparations have been completed for the commissioning of the GLONASS measurement collection station in Nicaragua, the commissioning of which is scheduled for April 2017. An agreement was reached on the deployment of a unified station for collecting measurements of global navigation satellite systems on the territory of the Republic of Armenia.

In 2016, the State Corporation Roscosmos began developing a five-party international project to jointly use, in the interests of the BRICS countries, orbital constellations of Earth remote sensing satellites and related ground infrastructure, as well as to create a mechanism for the exchange of remote sensing data in the areas of studying climate change, protection from emergencies and protection environment. At present, the relevant draft five-party agreement is being coordinated with foreign partners.

Strategies for the development of research and production enterprises of the aerospace complex. innovative path Baranov Vyacheslav Viktorovich

2.2. Status and development prospects of the rocket and space industry in Russia

In the context of the globalization of the economy, the implementation of the priorities of the state innovation policy of the Russian Federation, including in the field of rocket and space industry. For Russia, as well as for other industrialized countries, the exploration and use of outer space has become an important resource for national development, a real improvement in the quality of people's lives.

The use of space systems for solving problems in such areas as communications, television and radio broadcasting, remote sensing of the Earth from space, navigation and cartography makes a significant contribution to the formation of a new economy based on the widespread use of information technologies. Market expansion space technologies, use of the results of space activities in environmental monitoring, disaster management and other areas human activity designed to improve the quality of life of the population of Russia.

The use of the results of space activities makes it possible to increase the efficiency of the implementation of priority national projects. So, for example, within the framework of the national project "Education" on the basis of space facilities, federal, regional and interregional systems of distance education and interactive learning, as well as systems for ensuring the safety of school transport, buildings and structures can be created. educational institutions. The results of space activities can be integrated into training courses that give an idea of ​​the possibilities of modern science and technology in solving urgent problems of the socio-economic development of society.

As part of the implementation of the national project "Affordable and Comfortable Housing", monitoring systems built on the basis of space information can be used to assess the condition of buildings and structures, ensure life safety, systems for energy saving, land use, urban planning and real estate accounting. For the national project "Development of the agro-industrial complex" on the basis of information from remote sensing of the Earth from space, navigation and other space systems can be created target system monitoring and management of agriculture.

Since 2006, the Federal Space Program for 2006–2015 has been implemented in Russia. This program is planned to carry out more than two dozen scientific projects. Among them are projects to create specialized spacecraft equipped with target complexes scientific equipment. In addition, the program involves the additional installation of domestic scientific equipment, firstly, on Russian spacecraft, the launch of which ensures the solution of important national economic problems, and secondly, on foreign scientific spacecraft.

A feature of the Federal Space Program of Russia is that it provides for the implementation of scientific space projects with the maximum use of unified space platforms. These platforms, being the main components of spacecraft, must create all the necessary conditions for the operation of the payload, including equipment for scientific research, remote sensing of the Earth, radio communications, etc.

The modular technology for creating a space platform will minimize the costs and time required to adapt the platform's capabilities for use as part of various types of spacecraft. At the same time, an important role is assigned to the use of a unified platform for small spacecraft. At present, such a platform has already been developed, and at the expense of extrabudgetary funds. Within the framework of the project “Small Spacecraft for Fundamental Space Research”, it is planned to implement a program of research on solar-terrestrial relations, observations of small bodies of the solar system, and experiments in the field of astrophysics.

Federal Space Program of Russia for 2006–2015 provides for reliable operation and further development orbital constellation of spacecraft for socio-economic purposes, including communication and television broadcasting devices. The successful operation of the Resurs-DK1 spacecraft for remote sensing of the Earth continues. The commissioning of this apparatus marked the beginning of the creation of a qualitatively new orbital constellation of the space monitoring system of the Earth.

In order to increase the constellation of remote sensing of the Earth, specialists in the Russian rocket and space industry performed R&D on the creation of the Kanopus-V, Meteor-M, and Electro-L spacecraft. They make it possible to obtain the necessary meteorological data, quickly detect natural and man-made disasters, warn about forest fires in a timely manner, etc. During the successful flight of the Foton-M automatic laboratory, together with European partners, experiments were carried out in the field of space materials science and biology.

Regular flights of Soyuz TMA spacecraft and Progress transport spacecraft to the International Space Station (ISS) are part of the manned flight program. In addition, specialists from the domestic rocket and space complex are working to create new modules for the Russian segment of the ISS.

The key to the sustainable development of the Russian rocket and space complex lies in a modern ground-based test base. Within the framework of the Federal Space Program for 2006-2015. She's in for a major upgrade. Tests of elements of the Angara launch vehicle, including fire tests of engines for this launch vehicle, flight tests of the Soyuz-2 launch vehicle, as well as the creation and testing of new upper stages and transport modules, testify to the still high innovative potential Russian rocket and space complex. This is also evidenced by the results of modernization at the Baikonur Cosmodrome of the launch and technical complexes of the Proton, Soyuz, Zenit-M, Cyclone-2 launch vehicles, technical complexes of spacecraft for scientific and socio-economic purposes.

International cooperation between enterprises and organizations of the Russian rocket and space complex is developing. As part of the national program for fundamental space research, Russian scientists are working with the Konus-A instrument, which is a gamma-ray burst spectrometer, which is installed on board the American Wind spacecraft. Also used are the Rim-Pamela magnetic spectrometer of electrons, protons and antiparticles, which is part of the Resurs-DK spacecraft, as well as the OMEGA and SPIKA-M instruments, designed to study the atmosphere of planets aboard the European Mars-Express spacecraft, "Mimas" and "Mimas-2" and US spacecraft Mars Exploration Rovers. A planetary Fourier spectrometer is successfully used on board the European station "Venera-Express".

Works on the manufacture of the domestic astrophysical observatory "Spektr-Radioastron" have been completed. The development of the research apparatus "Koronas-Photon" is nearing completion. Active work is underway to create an interplanetary station "Phobos-Grunt".

The largest project is still the ISS. Russia is actively involved in the construction and operation of the station. Strategically important for the Russian rocket and space complex is the Soyuz project at the Guiana Space Center (GCC). This project provides for the creation of ground infrastructure at the cosmodrome in French Guiana and launches from it of the Russian Soyuz-ST launch vehicle adapted to the conditions of the GCC. The first launch of Soyuz-ST is scheduled for next year. In the medium term, the portfolio of orders will amount to 20 launches. Enterprises of the Russian rocket and space industry, in particular TsSKB-Progress, and a number of other enterprises are actively involved in the implementation of the project.

The Russian-French Ural program is being successfully implemented to develop technologies that will be used in the creation of Russian-European launch vehicles. There is also a joint project with the European Space Agency (ESA) to create a Russian manned transport system. The research program implemented within the framework of this project is designed for 18 months.

One of the promising areas of cooperation with the European Center for Space Research and Technology (ESTEC) is the development of international standards for processing and transmitting data onboard spacecraft systems using the Space Wire technology.

Hopes are pinned on the international programs "Sea Launch", in which, apart from Russia, Norway, the USA and Ukraine participate; "Ground launch" with the participation of Russia and Ukraine, as well as a program for the dissemination of a civilian signal using the global navigation satellite system (GLONASS) for users in foreign countries.

An important international program is the development of the Baikonur cosmodrome in Kazakhstan, which has actually become international. Russia plans to use it jointly with Kazakhstan, which will provide it high efficiency. Important for the Russian rocket and space complex are partnerships with the Chinese National Space Administration, as well as with the countries of the Caribbean and Latin America– Brazil, Cuba, Venezuela, Argentina and other states. One of the new facets of international cooperation in space was the attempt by national space agencies to jointly solve the global problem of the asteroid-comet hazard.

Increasing the composition and capabilities of the orbital constellation involves the full-scale deployment of the GLONASS system with the widespread introduction of ground-based navigation equipment. Russian system GLONASS has a number of advantages over similar foreign systems. Thus, Russian navigation satellites are better visible from the polar regions, which is very important for the successful development of deposits and the start of hydrocarbon production on the shelf of the northern seas.

However, the effectiveness of satellite navigation largely depends on the readiness of the "terrestrial" segment of the rocket and space complex for its active use. Therefore, it is necessary to coordinate the work on maintaining, developing and using the GLONASS system. Currently, these works are coordinated by the Federal Space Agency (Roscosmos).

Enterprises of the rocket and space industry have developed samples of navigation equipment for users of the system, produced the first batches of a device that combines the reception of signals from both GLONASS and GPS navigation systems, created GLONASS ground equipment devices, as well as digital navigation maps. Thus, all the prerequisites for the use of satellite navigation in solving important national economic problems have been formed.

It is assumed that by 2011 the constellation of navigation satellites will be brought up to the nominal number of 30 spacecraft. Starting from 2010, it is planned to start in-orbit flight tests of the GLONASS-K spacecraft with an extended period of operation in space up to ten years. If all ground facilities are put into operation, then the accuracy parameters of GLONASS will approach the accuracy of the GPS system.

As part of the development of the Federal Space Program, the Fundamentals of the Policy of the Russian Federation in the field of space activities for the period up to 2020 and beyond have been adopted. This document marks a qualitatively new stage in the development of the domestic rocket and space industry. Among the modern projects is the creation of a new promising manned transport space system, means for the exploration and exploration of the Moon, Mars and other planets and objects of the Universe.

The strengthening of the Russian economy in the pre-crisis period and the new financial opportunities opened up in connection with this allowed the industry to develop steadily. The forecast of the dynamics of this development made it possible for Russia to participate in international space cooperation on an equal footing with the leading industrialized countries of the world. Now, in the situation of the global financial crisis, the industry is in dire need of government support and funding. Thus, the country's budget for 2009, adjusted according to the results of the first post-crisis months, does not imply a reduction in spending on the development of Russia's rocket and space industry. In 2009, 82 billion rubles will be allocated to support the domestic rocket and space industry. 16 leading enterprises of the industry will receive financial support.

For the sustainable development of the domestic rocket and space industry, Russia needs guaranteed access to outer space. The industry is solving a large-scale task of deploying a new cosmodrome in the east of the country. The Federal Space Agency has already considered the investment project prepared for this, in particular, the results of the system design of the cosmodrome were recognized as positive. Based on the approved project, a working documentation spaceport construction. The implementation of this project requires not only the construction of a new cosmodrome, which will determine the perspective Russian cosmonautics, but also the solution of a complex of interrelated scientific, technical and economic problems. The priority among them is the choice of the optimal fleet of launch vehicles, as well as the determination specifications new manned spacecraft.

An important area of ​​activity for enterprises and organizations in the rocket and space industry is the advance build-up of the composition, quality and capabilities of the Russian orbital constellation. To do this, a forecast is being developed for the composition and capabilities of a promising orbital constellation until 2020. The forecast is based on the use of completely new or deeply modernized spacecraft with characteristics at the level of the best foreign analogues.

The implementation of this forecast will further expand Russia's presence in the world market for spacecraft and services. This applies not only to launch services for the launch of foreign spacecraft and cargo, but also to a significant increase in Russia's share in the world market for high-tech developments and services, including communications, navigation, hydrometeorological monitoring, remote sensing of the Earth, etc.

To solve these problems, it is necessary to develop and implement a set of interrelated measures to build up human resources and deep technological modernization of the rocket and space industry. The aggravation of competition in the world market of space services dictates the need for a radical renewal of the machine park of enterprises in the industry and the development of new technologies for the production of rocket and space technology.

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Domestic cosmonauts should be trained not for work on the ISS, but for expeditions to the Moon and Mars. This is the opinion of the Deputy Head of the Cosmonautics Training Center (TsPK) for scientific work Boris Kryuchkov. According to him, the system of selection and training of cosmonauts that exists today in Russia is not able to provide the proper level of development of manned cosmonautics. The main objectives for the development of Russian manned cosmonautics until 2020 are experiments and research conducted on the domestic segment of the ISS, as well as the development new system transport and technical support based on a new generation manned spacecraft.

At the same time, our country must effectively explore the near-Earth space and implement the program for the development of the natural satellite of the Earth and develop the basic technologies for preparing a manned flight to Mars and other planets of our solar system. It is obvious that the development of Russian manned cosmonautics in this direction cannot be complete without changing the existing system of training and selection of cosmonauts in the Russian Federation, since it imposes new requirements on the tasks, the technical means used and the conditions for training and selection.

The development of manned cosmonautics should be carried out precisely in the spirit of the long-term tasks facing us. One of the main elements of the development and modernization of the CTC should be the creation of a modern scientific and technical complex for the training of cosmonauts, as well as the creation of the necessary infrastructure, the organization and conduct of experimental design and research work for the development of manned flights. The training of qualified personnel of the CPC itself will also be of great importance, Boris Kryuchkov believes.

The prospects for the development of Russian cosmonautics were the subject of a meeting between Russian Deputy Prime Minister Dmitry Rogozin, who oversees the development of the defense industry, and the leadership of Roscosmos, held on September 23, 2014. After our country decided to resume the program aimed at the exploration of the Moon, the Russian authorities decided on the beginning of its active phase. According to Oleg Ostapenko, head of Roscosmos, full-scale exploration of the moon by Russia will begin in the late 20s and early 30s. In general, the government is ready to provide 321 billion rubles for the study of space until 2025, Deputy Prime Minister Dmitry Rogozin said.

In formalized form, according to Ostapenko, the new draft of the Russian Federal Space Program for 2016-2025 will be agreed with the government in the near future. According to him, the program has almost completely completed the approval process. He told reporters about this at a meeting at the Cosmonaut Training Center. The new Russian program envisages, in particular, the development of a super-heavy launch vehicle, the active development of the Earth's natural satellite, and the creation of a robot cosmonaut who will assist the ISS crew during spacewalks.

According to RIA "", part of the named amount will be used to develop new modules for the ISS, as well as to develop a new Russian automatic spacecraft called OKA-T. OKA-T is a self-contained technological module, a planned multi-purpose space laboratory, which will be part of the Russian segment of the ISS. In this case, the module will be able to work in space separately from the station. From time to time, it will dock with the ISS, the crew of which will take over the functions of refueling, servicing the scientific equipment on board and other operations.

According to the Deputy Prime Minister, the OKA-T device is designed to solve scientific problems in a blue vacuum. On this moment time, all space experiments on board the ISS are carried out in accordance with the long-term Russian program of scientific and applied research. Among these experiments are studies of chemical and physical processes, as well as materials in the conditions of their presence in space. Also, as Rogozin noted, research of our planet from space, biotechnology, space biology, space exploration technologies are being implemented and planned. A lot of things have been planned and are being implemented, Rogozin noted, stressing that today the state allocates significant funds for space research.

Also at a meeting on the development of Russian cosmonautics, Rogozin raised the question of the advisability of developing manned cosmonautics in the aspect of the International Space Station. The Russian Deputy Prime Minister drew attention to the current geopolitical situation, noting that the Russian Federation should be as pragmatic as possible in the current realities. Earlier, Dmitry Rogozin already said that after 2020 Russia could focus its efforts on more promising space projects than the ISS, turning its attention to the creation of purely national projects.

A possible termination of international cooperation within the framework of the ISS project may occur between 2020 and 2028. The domestic space industry is preparing for such a development of the situation. RSC Energia has previously made a proposal to develop an independent Russian project an orbital base located in low Earth orbit using three Russian modules from the ISS - two scientific and energy and one nodal. Such a base may be needed as part of the creation of a space port in orbit. Without the presence of such a port, it is difficult to think about the development of the solar system and the resources available in it. In the future, on such a base, the process of assembling and servicing various interplanetary space complexes can be established. Someone will say that these are matters of the distant future, but the specialists of RSC Energia are simply obliged to look decades ahead in order to more accurately determine the vector of development of Russian cosmonautics.

In this regard, the ship-module OKA-T, which should appear as part of the ISS infrastructure in the near future, is of great importance. This free-flying technology ship at some distance from the station is scheduled to be launched into space in 2018. "OKA-T" will become the prototype of the first industrial workshop located in the Earth's orbit. On board the ship it is planned to carry out a variety of scientific research and obtain new materials (including medicines), which have properties that are impossible to achieve on Earth. It is not possible to establish such production on the ISS itself due to constant vibrations and the presence of microgravity. At the same time, the conditions for this will be ideal on the free-flying unmanned ship-module "OKA-T". Once every 6 months, such a ship will dock with the ISS for Maintenance and loading / unloading of raw materials and finished products.

Information sources:
http://vpk-news.ru/articles/22268
http://www.newsru.com/russia/23sep2014/luna.html
http://www.politforums.net/culture/1366236010.html
http://mir24.tv/news/Science/11284833

On the site.

State Space Research and Production Center named after V.I. M.V. Khrunichev, within the framework of the Angara program, is developing a number of launch vehicles, the key element of which is the creation of a heavy class launch vehicle - a launch vehicle of the 21st century. as the transport basis of the Russian space program. The development work on the creation of the Angara launch vehicle family is carried out on the basis of Decree of the President of the Russian Federation No. 14 of January 6, 1995 "On the creation of the Angara space rocket complex" and Decree of the Government of the Russian Federation No. 829 of August 26, 1995 "On measures to ensure the creation of space missile system "Angara".

In 1993, the Ministry of Defense and the Russian Aerospace Agency announced a competition for the development of a new heavy domestic carrier, in which, along with the GKNPTs im. M.V. Khrunichev was attended by RSC Energia, State Research Center "Design Bureau named after Academician V.P. Makeev" and State Research and Production Center "TsSKB - Progress". Proposed GKNPTs them. M.V. Khrunichev, the project was based on many years of design and survey work on launch vehicles, their creation and operation, taking into account predictable requirements and real possibilities for their implementation.

The main condition for achieving efficiency was the use of oxygen-hydrogen fuel in the second stage, as well as an oxygen-hydrogen upper stage (KVRB). This makes it possible to reduce the launch mass of the rocket by about 40% and, accordingly, the mass of its structure and cost compared to competitive options with kerosene-oxygen fuel in the second stage. At the same time, the cost of hydrogen is less than 1% of the launch cost. All this (taking into account the somewhat increased cost of the hydrogen engine, tanks, refueling, storage systems, etc.) makes it possible to reduce the unit cost of launch by 30–35%.

At the first stage of the Angara launch vehicle of the heavy class, the project proposed to use the RD-174 engine with a thrust of 740 tf, developed by NPO Energomash, which is unique in its progressive solutions and repeatedly tested in flight on the first stages of the Zenit and Energia launch vehicles. At the second stage - the hydrogen-oxygen engine RD-0120 developed by the Chemical Automation Design Bureau, tested in flight at the second stage of the Energia launch vehicle. In the production of the Angara launch vehicle, it was envisaged to use universal welding equipment and the experience in manufacturing large-sized tank compartments mastered in the GKNPTs im. M.V. Khrunichev in relation to the Proton launch vehicle. The layout of the Angara launch vehicle, like the Proton launch vehicle at one time, was subject to the customer's requirement: transportation in parts by rail with the simplest assembly and control operations at the cosmodrome.

The arrangement of steps on the Angara launch vehicle is tandem. At the same time, it was supposed to use the package principle of fuel tank layout at both stages. At the first stage, two side oxidizer tanks (liquid oxygen) are hung on the central fuel tank (kerosene). At the second stage, the central one is the oxidizer tank (liquid oxygen), and the side ones are two fuel tanks (liquid hydrogen). The stage separation scheme is "hot", the stages are interconnected by a truss (between the central tanks). Subsequently (at the second stage), the layout of the Angara launch vehicle provided for the installation of additional devices for the return of the first stage to the cosmodrome area without an intermediate landing in order to reuse and eliminate the impact fields of the used first stage (the second stage enters a suborbital trajectory and falls from the first half-turn into remote areas of the oceans).

In low reference orbits (altitude 200 km) with an inclination of 63 ° (latitude of the Plesetsk cosmodrome), this version of the Angara launch vehicle should launch up to 27 tons of payload (PG), and up to 4.5 tons into geostationary orbit when using KVRB. with KVRB, it was also envisaged to use the Briz-M RB. As a result of detailed discussions at the meetings of the Interdepartmental Commission, a decision was made on the further development of the Angara launch vehicle under the project of the GKNPTs im. M.V. Khrunichev. In the course of further research, the concept of the Angara launch vehicle was significantly developed and refined. Taking into account the current situation in the country, the GKNPTs im. M.V. Khrunichev proposed a strategy phased creation carrier of a heavy class with the use of universal missile modules in its composition. The new concept retains all the key ideas of the original version of the Angara launch vehicle and develops new promising capabilities. At present, the Angara family of launch vehicles covers launch vehicles from light to super-heavy class. The main characteristics of the launch vehicle of the Angara family are shown in fig. and tab.

Launch vehicles of the Angara family

This carrier family is based on the universal rocket module (URM). It consists of fuel oxidizer tanks and the RD-191 engine. URM is made according to the scheme with carrier tanks and the front location of the oxidizer tank. The RD-191 engine, created at NPO Energomash, runs on kerosene and liquid oxygen components. This single-chamber engine is being developed on the basis of the four-chamber engines RD-170 and RD-171 and the two-chamber engine RD-180, created for the Atlas-2AR launch vehicle. Thrust RD-191 near the Earth - up to 196 tf, in the void - up to 212 tf; specific thrust on Earth - 309.5 s, in vacuum - 337.5 s. To ensure control of the launch vehicle in flight, the engine is fixed in a gimbal suspension. The length of the URM is 23 m, the diameter is 2.9 m. These dimensions were chosen based on the technological equipment available at the Rocket and Space Plant. One such universal rocket module is the first stage of two light-class launch vehicles being created as part of the Angara-1 program. The central part of the Breeze-M booster block and the Soyuz-2 launch vehicle type I block are used as the second stages on these two versions of the launch vehicle ("Angara-1.1" and "Angara-1.2"), respectively.

The Angara-3 medium-class launch vehicle is formed by adding universal modules (as the first stage) to the Angara-1.2 light-class launch vehicle. The Angara-3 launch vehicle is made according to the tandem arrangement of steps. Three URMs are used as the first stage. The second stage is installed on the middle URM through a truss adapter (block of the "I" type). As the third stage, a small-sized upper stage or a central block is used - RB "Breeze-M", which is designed to form a working orbit. Its inclusion in the launch vehicle variants with an "I" block-type stage is due to the fact that the RD-0124 engine installed on this stage is designed for only a single start.

The heavy-class Angara-5 launch vehicle is being built by adding two more side modules to the Angara-3 launch vehicle. A super-heavy-class launch vehicle is formed by replacing the second stage (I-type block) with an Angara-5 heavy-class launch vehicle by an oxygen-hydrogen stage with four KVD1 engines. The energy capabilities of the Angara-3 and Angara-5 launch vehicles ensure the launch of a payload weighing 14 tons and 24.5 tons, respectively, into low orbit. The Breeze-M missile launcher is used as upper stage on medium-class launch vehicles, and Breeze-M and KVRB are used on heavy and super-heavy launch vehicles.

The main launch site of the Angara family of launch vehicles is the Plesetsk cosmodrome. During the construction of the launch complex of the Angara launch vehicle, the existing groundwork for the Zenit launch vehicle is used. Unique technical solutions will make it possible to launch all launch vehicles of the Angara family from one launcher. To reduce the size of the areas allotted for the impact fields of the separating parts of the launch vehicle, special measures are envisaged already during the creation of the Angara-1 missiles. Three sources of funding for the Angara project are envisaged: the Russian Aerospace Agency, the Ministry of Defense, and funds from commercial activities GKNPTs im. M.V. Khrunichev.

At present, the design and technological development of a unified rocket module and a light-class launch vehicle based on it has already been completed. The preparation of production is being completed and the start of ground tests of real products is being prepared. A full-scale technological model of the Angara-1.1 launch vehicle was demonstrated at the Aerospace Show in Le Bourget in 1999.

Based on the main variants of the Angara family of launch vehicles, it is possible to create other modifications. Thus, options are being considered for installing additional starting solid-propellant boosters on a light-class launch vehicle. This will allow you to select a carrier for a specific spacecraft, and not create a spacecraft taking into account the existing carrier.

Thus, GKNPTs im. M.V. Khrunichev developed and proposed within the framework of the Angara program a whole strategy that allows, in conditions of limited financial opportunities and in a short time to create a number of promising launch vehicles of various classes. The deadlines for creating the Angara launch vehicle family are very tight. Thus, the first launch of the Angara-1.1 launch vehicle is planned as early as 2003. Launches of all types of launch vehicles of the Angara family are planned to be carried out from the Plesetsk cosmodrome. The first launch of the Angara-1.2 launch vehicle is to take place in 2004. The first launch of the Angara-5 launch vehicle is also planned for 2004.

Improving the characteristics of the launch vehicle, and above all, reducing the cost of launching the spacecraft, in the GKNPTs them. M.V. Khrunichev is associated not only with the unification of the blocks of the first stages of the Angara family of launch vehicles and the introduction of promising, but already proven technologies, such as the use of highly efficient oxygen-kerosene engines, automated launch preparation, the use of the most modern upper stages and head fairings. In the launch vehicle of the Angara family, such Newest technologies, as the use of reusable elements (accelerator stages) in the launch vehicle design. It is this technical solution that is one of the cardinal ways to improve economic indicators means of removal.


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