ПАРАМЕТРЫ САМОСИНХРОНИЗИРУЮЩИХ СВОЙСТВ ПОЗИЦИОННЫХ ИЗБЫТОЧНЫХ БЛОЧНЫХ КОДОВ

INTERNATIONAL RESEARCH JOURNAL
ISSN 2303-9868 PRINT
ISSN 2227-6017 ONLINE
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Andreev A.V.1, Sviridov V.V.2
PhD in Engineering, Assoc. Prof., 2undergraduate,
Voronezh State University of Architecture and Civil Engineering.
METHODS OF IMPROVEMENT TECHNOLOGY WASTEWATER TREATMENT FROM ROADS
1

Abstract
The article deals with the basic methods for reducing wastewater pollution from the road surface . Particular attention is drawn to
prevent the ingress of harmful substances on the surface of the roadway and the treatment of wastewater before being discharged into the
centralized sewage system. Based on the analysis of these methods is determined by a more efficient and profitable cleaning method.
Keywords: LOS (local wastewater treatment plants), waste water analysis, contamination.
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References
1. Https://ru.wikipedia.org/wiki/
2. Http://rst.ua/autonews/auto/1_8568.html/
3. Small spills: preventing oil spills/united states coast guard.-2001.
4. Degtjarev s. D. Principy raboty i opyt primenenija sooruzhenij gidrobiologicheskoj ochistki v dorozhno – mostovom
proektirovanii./ nauchno tehnicheskij informacionnyj sbornik 2006g. - 33 s.
5. Il'ina a.a. vlijanie avtomobil'nogo transporta na zagrjaznenie poverhnostnyh stokov s avtomobil'nyh dorog i mostov. / nauchno
tehnicheskij informacionnyj sbornik 2004g.- 29 s.
6. Il'ina a.a. proektnye reshenija sistem dorozhnogo vodootvoda v chehii. / nauchno tehnicheskij informacionnyj sbornik 2004g. – 41 s.
7. Il'ina a.a. jekologicheskie aspekty ochistki poverhnostnyh stokov s avtomobil'nyh dorog / sb.nauch.-metod. Rabot po povysheniju
urovnja obosnovannosti proektov avtomobil'nyh dorog i sooruzhenij na nih.-Ц.μ РЩ «ЬШУЮгНШЫЩЫШОФЭ», β004.
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Bazarova . .1, Plohih . .2, Tvorogov D. .3
1
Student, 2student, 3graduate,
South-West State University
THE ISSUE OF THERMAL HOMOGENEITY OF THE EXTERNAL ENVELOPE OF RESIDENTIAL BUILDINGS
Abstract
The article is devoted to providing the necessary thermal protection of residential buildings on the example of the most common walling.
It describes the problematic nodes, causing heat loss. The ways of solving the problem of heat saving.
Keywords: heat-saving, wall, housing construction, thermal conductivity.
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5. URL:http://kupi-uteplitel.ru/otlivaem-monolit/ (
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(
05.05.β015).
References
1. SNiP 23-02-β00γ «TОЩХШЯКУК гКЬССТЭК гНКЧТУ». M.μ GШЬЬЭЫШУ RШЬЬТТ, GUP CPP, β004.
2. Kljueva N. V., Malahov A. A., Gornostaev S. I. K ocenke teplotehnicheskoj odnorodnosti konstrukcii L-obraznogo nesushhego
rigelja naruzhnogo stenovogo ograzhdenija zdanija so smeshannoj konstruktivnoj sistemoj// Stroitel'stvo i rekonstrukcija. – 2014. – №5 (55).
– S. 23-28.
3. Gagarin V. G., Kozlov V. V. Trebovanija k teplozashhite I jenergeticheskoj jeffektivnosti v proekte aktualizirovannogo SNiP
«TОЩХШЯКУК гКЬССТЭК гНКЧТУ»//ГСТХТЬССЧШО ЬЭЫШТЭОХ'ЬЭЯШ. – 2011. – №8. – S. 2-6.
4. UЭОЩХТЭОХ' SМСöМФ IЬШФШЫЛ. ДJОХОФЭЫШЧЧвУ ЫОЬЮЫЬЖ. – URL: http://www.schoeck.ru/ (data obrashhenija 05.05.2015).
5. URL:http://kupi-uteplitel.ru/otlivaem-monolit/ (data obrashhenija 05.05.2015).
6. URL:http://www.remonto5.ru/journal/kak-pravilno-uteplit-steni-panelnogo-doma-iznutri-i-snaruzhi-poshagovaya-instruktsiya (data
obrashhenija 05.05.2015).
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Baygaliev B.E.1, Akimov .V.2, Zaripov I.R.2, Koshelev D.V.2
1
PhD of Technical Sciences, 2student
Kazan National Research Technical University named after AN Tupolev
USE METHOD FOR MANUFACTURING 3D PROTOTYPING RESIDENTIAL
Abstract
This paper presents a method of producing RESIDENTIAL 3D prototyping method. In today's world of technology gets widespread
production houses by 3D prototyping. The same technology will be used in the production premises.
Keywords: 3D prototyping, 3Dprinter, construction, manufacturing of houses.
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References
1. TСО ЩКЭОЧЭ ПШЫ ТЧЯОЧЭТШЧ RЮЬЬТК FОНОЫКЭТШЧ № βγλ41γβ, IPC, 04 1/32, published on 10.07.2010 "Prefab from a polymeric
material."
2. Construction of houses using 3D printer [electronic resource] URL: http://stamp3d.ru/izdeliya/stroitelstvo-domov-s-pomoshhyu3d-printera (the date of treatment 17/05/2014)
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Baisheva L.M.1, ZСТЫФШЯК .V.2
1
Postgraduate, 2senior lecturer,
North-Eastern Federal University in Yakutsk
ANALYSIS OF AIR-TO-AIR RECUPERATOR IN THE NORTH
Abstract
The analysis of air-to-air recuperator characteristics in the North is submitted. The outdoor temperature is minus 50 degrees is for the
first time used. It is noted that calculation data don't correspond to experiment.
Keywords: recuperator, ventilation, condensation of moisture.
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References
1. Vishnevskij E.P. Osobennosti obespechenija jeffektivnoj raboty plastinchatyh teploobmennikov rekuperativnogo tipa v surovyh
klimaticheskih uslovijah // S.O.K. 2005. № 1.
2. Diskin M.E. Jeffektivnost' rekuperacii teploty v sistemah ventiljacii pri temperaturah naruzhnogo vozduha nizhe temperatury
opasnosti obmerzanija. AVOK. β006. № 4.
3. Bogoslovskij V.N. i dr. Kondicionirovanie vozduha i holodosnabzhenie: Uchebnik dlja vuzov / V.N. Bogoslovskij, O.Ja. Kokorin,
L.V. Petrov; Pod red. V.N. Bogoslovskogo. – M.: Integral 2014 – 367 s., il.
3.

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Balakin P.D.1, Shamutdinov A.H.2, Zvezdin D.S.3
PhD in Technical Sciences, Professor, Head of Chair "Knowing machines", Omsk State Technical University, 2PhD in Technical
Sciences, Professor of the Russian Academy of Natural Sciences, associate professor of "Technical Mechanics", Omsk Tank-Automotive
Engineering Institute, 3PhDin Technical Sciences, Associate Professor, Head of Chair "Technical mechanics", Omsk Tank-Automotive
Engineering Institute
RATIONAL KINEMATIC PAIRS FOR THE ORIGINAL PART OF THE SPATIAL MANIPULATOR
Abstract
Are described rational kinematic pairs of mechanical systems, in particular, the original part of the spatial manipulator to avoid
occurrence of redundant links, entailing position error mechanisms that cause additional the dynamic links and kinematic pairs.
Keywords: manipulator, communication, algebraic method S.N. Kozhevnikov, motility mechanism, self-aligning bearing, rational
structure.
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References
1. S.N. Kozhevnikov. Theory of mechanisms and machines. - M .: Higher School, 1973.
2. Balakin, P.D. Schematic mechanism shestikoordinatnogo manipulator / P.D. Balakin, A.H. Shamutdinov // International Research
Journal. - 2013 - PКЫЭ 1, № 6 (1γ) - S.97-99.
3. PКЭ. №1β05λλ RF Vβ5J1 IPC / 00. SЩКЭТКХ РОКЫ / BКХКФТЧ P.D. SСКЦЮЭНТЧШЯ A.H. AЩЩХТМКЭТШЧ №β01115γ160 / 0β, β6.0β.β011.
PЮЛХ. β7.0λ.β01β, BЮХХ. №β7.
4. Lukshin, V.S. Theory of helical surfaces in the design of cutting tools / V.S. Lukshin. - M: Mechanical Engineering, 1967. - 372 p.
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THE ACTUAL STATE OF THE DISTRICT HEATING SYSTEMS OF THE RUSSIAN FEDERATION ON THE EXAMPLE
OF AREA WITH A SHARPLY CONTINENTAL CLIMATE
Abstract
The article deals with the current state of the district heating systems of the Russian Federation. It is proved that the problem of
regulation and poor-quality thermal insulation are the main sources of energy saving potential.
Keywords: District heating, efficiency, subcooling, modeling, objects, heat.
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References
1. Petin V.V. Sovremennye tehnologii ispol'zovanija jelektricheskoj jenergii v sistemah centralizovannogo teplosnabzhenija / V.V. Petin,
A.G. Batuhtin, A.V. Kalugin, P.G. Safronov. // Nauchno-tehnicheskie vedomosti SPbGPU. 2010. – №4. – S. 32–38.
18

2. Kalugin A.V. Primenenie tehnologii teplovyh nasosov dlja povyshenija jeffektivnosti metodov optimizacii otpuska teploty / A.V.
Kalugin, A.G. Batuhtin, S.G. Batuhtin. // Nauchnye problemy transporta Sibiri i Dal'nego Vostoka. β011. № 1. – S. 201-203.
3. Batuhtin A.G. Modelirovanie sovremennyh sistem centralizovannogo teplosnabzhenija / A.G. Batuhtin, A.V. Kalugin. // Vestnik IrGTU,
2011. - T. 55. -№8. - S. 84-91.
4. Sharapov V.I. Osobennosti teplosnabzhenija gorodov pri de-ficite topliva na jelektrostancijah / V.I. Sharapov. // Jelektricheskie stancii. –
1999. – № 10. – S. 63-66.
5. Batuhtin A.G. Primenenie optimizacionnyh modelej funkcionirovanija sistem teplosnabzhenija dlja snizhenija sebestoimosti teplovoj
jenergii i uvelichenija raspolagaemoj moshhnosti stancii / A.G. Batuhtin, V.V. Makkaveev // Promyshlennaja jenergetika 2010. – №γ. S. 7-8.
6. Batuhtin A.G. Metody povyshenija jeffektivnosti i uvelichenija raspolagaemoj moshhnosti sistem centralizovannogo teplosnabzhenija /
A.G. Batuhtin // Nauchnye problemy transporta Sibiri i Dal'nego Vostoka. – 2010. – №1. – S. 189-192.
7. Batuhtin A.G. Metody povyshenija jeffektivnosti funkcionirovanija sovremennyh sistem transportirovki, raspredelenija i potreblenija
teplovoj jenergii // A.G. Batuhtin, M.S. Bass, S.G. Batuhtin / Nauchnye problemy transporta Sibiri i Dal'nego Vostoka. – 2009. – №β. – S. 199202.
8. Makkaveev V.V. O probleme nenormativnogo otpuska teploty potrebiteljam / V.V. Makkaveev, S.A. Ivanov, A.G. Batuhtin //
Promyshlennaja jenergetika. – 2010. – № 7. – S. 12-14.
9. Batuhtin A.G. Analiz metodov povyshenija jeffektivnosti sistem centralizovannogo teplosnabzhenija / A.G. Batuhtin, V.V. Pinigin, M.V.
Kobylkin // Nauchno-tehnicheskie vedomosti SPbGPU. – 2012. №γ-2. S. 45-51.
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O.E. Kuprijanov. – Novosibirsk: Nauka, 2008. – 80 s.
11. Makkaveev V.V. Optimizacija otpuska teploty pri kachestvenno-kolichestvennom regulirovanii otkrytyh sistemah teplosnabzhenija:
monografija / V.V. Makkaveev, O.E. Kuprijanov, A.G. Batuhtin. – Chita: ChitGU, 2009. – 132 s.
12. Batuhtin A.G. Osobennosti modelirovanija sovremennyh sistem centralizovannogo teplosnabzhenija: monografija / A.G. Batuhtin. –
Chita: ZabGU, 2012. – 128 s.
13. Batuhtin A.G. Razrabotka kriteriev i metodov sovershenstvovanija sistem centralizovannogo teplosnabzhenija funkcionirujushhih v
uslovijah rezkokontinental'nogo klimata: monografija / A.G. Batuhtin. – Chita: ZabGU, 2013. – 216 s.
14. Bass M.S. Problemy normirovanija teplovyh poter' v teplovyh setjah na primere g. Chita / M.S. Bass, A.G. Batuhtin // Nauchnotehnicheskie vedomosti SPbGPU. – 2009. – №4. – S. 177-183.
15. Safronov P.G. Ispol'zovanie teplovogo nasosa v teplovyh shemah teplovyh jelektrostancij / P.G. Safronov, A.G. Batuhtin, S.A. Ivanov //
Nauchnye problemy transporta Sibiri i Dal'nego Vostoka. – 2009. – №β. – S. 202-204.
16. Batuhtin A.G. Obezzarazhivanie vody v sistemah centralizovannogo teplosnabzhenija / A.G. Batuhtin, V.V. Petin, I.F. Suvorov //
Nauchnye problemy transporta Sibiri i Dal'nego Vostoka. – 2010. – №1. – S. 209-212.
17. Batuhtin A.G. Ispol'zovanie teplovyh nasosov dlja povyshenija teplovoj moshhnosti i jeffektivnosti sushhestvujushhih sistem
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18. Petin V.V. Sovremennye tehnologii ispol'zovanija jelektricheskoj jenergii v sistemah centralizovannogo teplosnabzhenija / V.V. Petin,
A.G. Batuhtin, A.V. Kalugin, P.G. Safronov // Nauchno-tehnicheskie vedomosti SpbGPU. – Sankt Peterburg: pb. – 2010. – № 4. – S. 32-38.
19. Batuhtin A.G. Osobennosti modelirovanija raboty v techenie sutok ustanovok gelionagreva abonentskih vvodov potrebitelej teplovoj
jenergii / A.G. Batuhtin // Nauchno-tehnicheskie vedomosti SpbGPU. – 2010. – № 4. – S. 50-58.
20. Batuhtin A.G. Sovremennye metody povyshenija jeffektivnosti sovmestnoj raboty ustanovok geliootoplenija i sistem centralizovannogo
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21. Petin V.V. Kompleksnoe ispol'zovanie innovacionnyh metodov obrabotki vody v sisteme "TJeC-potrebitel'" / V.V. Petin, A.G. Batuhtin,
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Mitkus, V.V. Petin // MEZhDUNARODNYJ NAUChNO-ISSLEDOVATEL''SKIJ ZhURNAL. – β01γ. №7 (14) CСКЬЭ' β S.– 40–45.
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teplovoj jenergii kak odin iz metodov jenergosberezhenija / S.A. Ivanov, A.G. Batuhtin, V.V. Makkaveev // Vestnik Zabajkal'skogo centra
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Batuhtin, M.V. Kobylkin // Nauchno-tehnicheskie vedomosti SPbGPU. – β01γ. №β. S. 68-72.
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Trebunskih // Nauchno-tehnicheskie vedomosti SPbGPU. – β01γ. №β. S. 80-84.
26. Gorjachih N.V. Ispol'zovanie faktornogo analiza dlja optimizacii rezhimov raboty sistem teplosnabzhenija / N.V. Gorjachih, A.G.
Batuhtin // Promyshlennaja jenergetika. – 2013. - № λ. S. β6-30.
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Mitkus // Vestnik Zabajkal'skogo gosudarstvennogo universiteta. - Chita: ZabGU. – 2013. - №λ(100). S.11β–120.
28. Ivanov S.A. Metod povyshenija jelektricheskoj moshhnosti turbin / S.A. Ivanov, A.G. Batuhtin, N.V. Gorjachih // Promyshlennaja
jenergetika. – 2009. – № 1β. – S. 13-15.
29. Ivanov S.A. Optimizacija sistem centralizovannogo teplosnabzhenija / S.A. Ivanov, A.G. Batuhtin, N.V. Gorjachih // Vestnik
MОгСНЮЧКЫШНЧШУ КФКНОЦТТ ЧКЮФ УОФШХШРТТ Т ЛОгШЩКЬЧШЬЭТ гСТгЧОНОУКЭОХ'ЧШЬЭТ Э. 14, №γ. SКЧФЭ-Peterburg – Chita. 2009. – S. 102 – 104.
30. Gorjachih N.V. Nekotorye metody povyshenija manevrennosti TJeC / N.V. Gorjachih, A.G. Batuhtin, S.A. Ivanov // Teplojenergetika. –
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31. Batuhtin A.G. Osobennosti matematicheskih modelej sovremennyh teplopotrebljajushhih ustanovok v sistemah centralizovannogo
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32. Batuhtin A.G. Osobennosti dispetcherizacii sovremennyh sistem teplosnabzhenija / A.G. Batuhtin // Nauchnye problemy transporta
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34. Ivanov S.A. Raschet sutochnogo grafika otpuska teploty ot istochnika teplosnabzhenija pri kachestvenno-kolichestvennom regulirovanii
v otkrytyh sistemah centralizovannogo teplosnabzhenija / S.A. Ivanov, A.G. Batuhtin, V.V. Makkaveev // Promyshlennaja jenergetika. – 2008. –
№ 5. – S. 32-34.
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Batuhtina // Nauchnye problemy transporta Sibiri i Dal'nego Vostoka. – 2010. – №1. – S. 175-178.
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tipov potrebitelej: Avtoref. dis. kand. tehn. nauk. Ulan - Udje.: VSGTU, 2005 – 16 s.
19

39. Batuhtin A.G. Optimizacija otpuska teploty ot TJeC na osnove matematicheskogo modelirovanija s uchetom funkcionirovanija
razlichnyh tipov potrebitelej: Dis. kand. tehn. nauk. Ulan - Udje.: VSGTU, 2005.
40. Batuhtin A.G. Sovremennye metody sovershenstvovanija sistem centralizovannogo teplosnabzhenija: monografija / A.G. Batuhtin. –
Chita: ZabGU, 2014. – 338 s.
41. Bass M.S. Kompleksnyj podhod k optimizacii funkcionirovanija sovremennyh sistem teplosnabzhenija / M.S. Bass, A.G. Batuhtin //
Teplojenergetika. – 2011. – №8. – S. 55-57.
42. Pinigin V.V. Obosnovanie sposobov snizhenija vrednyh vybrosov TJeS c ispol'zovaniem jeksergeticheskogo analiza / V.V. Pinigin,
A.G. Batuhtin – Saabrjuken (Germanija): Izd-vo LAP LAMBERT, 2013. – 265 S.
43. Batuhtin A.G. Osobennosti sovmestnoj raboty ustanovok gelionagreva i sistem centralizovannogo teplosnabzhenija: monografija / A.G.
Batuhtin. – Chita: ZabGU, 2011. – 155 s.
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Batukhtin A.G.1, Kobylkin M.V.2, Batukhtin S.G.3, Safronov P.G.4
PhD in Engineering, 2postgraduate student, 3leading specialist, 4PhD in Engineering,
Transbaikal State University
MODERN ENERGY-SAVING TECHNOLOGY IN THE COMPLEX "THERMAL POWER PLANT -CONSUMER"
Abstract
This paper presents the problems and prospects of implementation of heat pumps in existing heat supply system. It presents options for
the development of systems based on the introduction of low-cost ways to compensate for the load of hot water supply in the non-heating
period with the use of non-classical source of low-grade thermal energy and its extension to the complex system of "thermal power plantconsumer".
Keywords: energy saving, heat pump, domestic hot water, low-cost.
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№ 3. –S. 18-21.
,

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Bereshnaj M.I.1, Yemchenko E.A.2
1
Lecturer, 2PhD in Engineering ,
Sevastopol state University
USE PROGRAM GRAPHICAL MODELING IN EDUCATIONAL PROCESS
Abstract
This article focuses on the graphical 3D modeling of parts in the learning process, which allows the student to understand and grasp the
details of the internal structure
Keywords: logical operations, the surface, 3D graphical simulation, environment AutoCad.
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3. http://spacecad.ru/kak-sozdat-3d-bolt-s-rezboy-v-avtokad/
References
1. Gabidulin V.I. Trehmernoe modelirovanie v AutoCad 2012. Moskva: DMK
Press, 2011. – 240s.:il.
2. Bol'shakova V.P., Bochkov A.L., Sergeev A.A. 3D-modelirovanie v AutoCad, KOMPAS-3D, SolidWorks, Inventor, T-Flex.
Uchebnyj kurs. – SPb.: Piter, 2011 – 336s.: il.
3. http://spacecad.ru/kak-sozdat-3d-bolt-s-rezboy-v-avtokad/
1.
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Bespalov V.I.1, Paramonova O.N.2
PСD ТЧ EЧРТЧООЫТЧР, ЫШПОЬЬШЫ; 2 PСD ТЧ ЧРТЧООЫТЧР,
Federal State Budgetary Educational Institution of Higher Professional Education
"Rostov State University of Civil Engineering"
DEVELOPMENT AND CHOICE OF AN EVIDENCE-BASED TECHNIQUE OF THE MOST ECOLOGICALLY
EFFECTIVE AND ENERGETICALLY ECONOMIC SYSTEM OF REVERSION WITH THE FIRM WASTE OF
CONSUMPTION IN URBAN AREAS
Abstract
prШЛХОЦ ШП КЧ КssОssЦОЧЭ КЧН К МСШТМО ШП sвsЭОЦ ШП rОvОrsТШЧ аТЭС К ПТrЦ аКsЭО ШП МШЧsЮЦpЭТШЧ ТЧ ЮrЛКЧ КrОКs, ШpЭТЦТгКЭТШЧ criteria
for choosing the system of reversion with a firm waste of consumption; working out of parametrical dependences for definition of criteria of
ecological efficacy and a power capacitor index, working out of a procedure of an assessment and a choice of system of reversion with a firm
waste of consumption on the basis of use of the above-named criteria are considered in the article.
Keywords: a firm waste of consumption, criteria of a choice of system of reversion with a firm waste of consumption, ecological
efficacy, a power capacitor index, a procedure of an assessment and a choice of ecologically effective and energetically economic system of
reversion with a firm waste of consumption.
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Д
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2.
co chemistry Д
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3.
μ
,
Д
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http://www.forbes.ru/news/84388-rosprirodnadzor-v-rossii-musor-luchshe-szhigat-chem-sortirovat-ipererabatyvat%26post=-31641633_53
4. BОЧНОЫО, RЮЭК АКЬЭО ЦКЧКРОЦОЧЭ Д
Ж / RЮЭК BОЧНОЫО. - Riga, Latvia, 2003. - URL: www.waste.ru
5.
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References
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2. Eco chemistry [Jelektronnyj resurs]: Jekspertnyj doklad. Ch. 2. - URL: http://eco-chemistry.livejournal.com/3777.html
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Bubenchikov A.A.1, Artamonova E.J.2, Dajchman R.A.2, Fajfer L.A.2, Katerov F.V.2, Bubenchikova T.V.2.
1
PhD in Technical Sciences, 2master,
Omsk State Technical University
THE USE OF WIND TURBINES WITH A HUB OF WIND ENERGY IN REGIONS WITH LOW WIND LOAD
Abstract
This article describes the wind turbines with wind energy hub for use in region with low specific density of the air flow and dependence
on th

ПАРАМЕТРЫ САМОСИНХРОНИЗИРУЮЩИХ СВОЙСТВ ПОЗИЦИОННЫХ ИЗБЫТОЧНЫХ БЛОЧНЫХ КОДОВ