გვირაბების უსაფრთხო ვენტილაცია ტრანსფორმირებადი ელემენტების გამოყენებით

Atkinson, G., & Wu, Y. (1996). Smoke Control in Sloping Tunnels. Fire Safety Journal., pp. 335-341. Retrieved from

https://www.sciencedirect.com/science/article/abs/pii/S0379711296000616

Beard, A., & Carvel, R. (2015). The Handbook of Tunnel Fire Safety. © 2012 ICE Publishing. Doi: HTTPs://www.icevirtuallibrary.com/doi/abs/10.1680/htfs.41530

Carvel, R., Beard, A., & Jowitt, P. (2005). Fire spread between vehicles in tunnels: Effects of tunnel size, longitudinal ventilation and vehicle spacing. Fire Technology, 41 (4), pp. 271-304. Doi: HTTPs://doi.org/10.1007/s10694-005-4050-y

Chow, W., Gao, Y., Zhao, J., Dang, J., Chow, C., & Miao, L. (2015). Smoke movement in tilted tunnel fires with longitudinal ventilation. Fire Safety Journal., PP. 12-24. Retrieved from https://www.sciencedirect.com/science/article/abs/pii/S0379711215000533

Comity technique 5 Tunnels routers / Technical Committee 5 Road Tunnels. (1999). Fire and Smoke Control in Road Tunnels. PIARC Ref.: 05.05.BEN. Retrieved from https://www.piarc.org/en/order-library/3854-en-Fire%20and%20Smoke%20Control%20in%20Road%20Tunnels

Danziger, N., & Kennedy, W. (1982). Longitudinal Ventilation Analysis for the Glenwood Canyon Tunnels. Proceedings of the Fourth International Symposium Aerodynamics and Ventilation of Vehicle Tunnels. (pp. pp. 169–186). York, England.: Scientific Research Publishing.

de Groot, S., & Mazur, R. (2013). Non-equilibrium thermodynamics. Dover Publications Inc.

Economic Commission for Europe, Inland Transport Committee (2001). Report of The ad Hoc Multidisciplinary Group of Experts on Safety in Tunnels on Its Fifth Session. United Nations, Economic and Social Council. Retrieved from

https://unece.org/DAM/trans/doc/2001/sc1/TRANS-SC1-2001-12e.pdf

Economic Commission for Europe, Inland Transport Committee (2002). Report of The ad Hoc Multidisciplinary Group of Experts on Safety in Tunnels on Its Fifth Session. United Nations, Economic and Social Council. Retrieved from

https://unece.org/fileadmin/DAM/trans/doc/2002/ac7/TRANS-AC7-11e.pdf

Gannouni, S., & Maad, R. (2015). Numerical study of the effect of blockage on critical velocity and backlayering length in longitudinally ventilated tunnel fires. Tunnelling and Underground Space Technology 48, pp. 147-155.

Doi: HTTPs://doi.org/10.1016/j.tust.2015.03.003.

Heselden, A. (1976). Studies of fire and smoke behaviour relevant to tunnels. Building Research Establishment, Fire Research Station, Borehamwood. Retrieved from https://www.worldcat.org/title/studies-of-fire-and-smoke-behaviour-relevant-to-tunnels/oclc/6048884

Hinkley, P. (1970). The Flow of Hot Gases Along an Enclosed Shopping Mall a Tentative Theory. Fire Safety Science Digital Archive, Fire Research Notes 807. Retrieved from https://publications.iafss.org/publications/frn/807/-1

Hwang, C., & Edwards, J. (2004). The critical ventilation velocity in tunnel fires a computer simulation. Fire Safety Journal 40 (3), pp. 213-244. Doi: HTTPs://doi.org/10.1016/j. firesaf.2004.11.001

Ilias, N., Lanchava, O., & Nozadze, G. (2016). Numerical Modelling of First for Road Tunnels with Longitudinal Ventilacion System. International Multidisciplinary Symposium "Universitaria Simpro 2016". (pp. pp 77-80). Petrosani: Quality-Access to Success, 18 (S1). https://www.srac.ro/calitatea/en/arhiva_supplements.html#2017

Ilias, N., Lanchava, O., & Nozadze, G. (2020). Numerical simulation of air flow in short metro ventilation shafts caused by a piston effect. MATEC Web of Conferences 305, 00050

Ilias, N., Lanchava, O., Nozadze, G., & Tsanava, D. (2021). Study of propagation of harmful factors of fire in short road tunnels with different inclinations. 9th edition of the International Multidisciplinary Symposium “UNIVERSITARIA SIMPRO 2021". (p. 9). MATEC Web of Conferences 342, 03023.

Doi: https://doi.org/10.1051/matecconf/202134203023

Ingason, H., & Li, Y. (2011). Model scale tunnel fire tests with point extraction ventilation. Journal of Fire Protection Engineering, Volume 21.

Doi: HTTPs://doi.org/10.1177/1042391510394242

Jiang, X., Zhang, H., & Jing, A. (2018). Effect of blockage ratio on critical velocity in tunnel model fire tests. Tunnelling and Underground Space Technology 82, pp. 584-591. Doi: https://doi.org/ 10.1016/j.tust.2018.09.001

Khieu, H. T., Lee, Y., Kim, J., & Ryou, H. (2020). Numerical Study of the Effects of the Jet Fan Speed, Heat Release Rate and Aspect Ratio on Smoke Movement in Tunnel Fires. Energies 2020, 13(5)., pp. 1206. Doi: HTTPs://doi.org/10.3390/en13051206

Khokerashvili, Z., Tsanava., Machavariani, N. (2022). Propagation of Carbon Monoxide in Road Tunnels in Case of Fire by Considering the Critical Velocity, Backlayering and Gradient Factor. GEORGIAN SCIENTISTS, 4(5), pp. 334–336.

Doi: HTTPs://doi.org/10.52340/gs.2022.04.05.36

Ko, Y., & Hadjisophocleous, G. V. (2013). Study of smoke backlayering during suppression in tunnels. Fire safety journal., pp. 240-247. Retrieved from https://agris.fao.org/agris-search/search.do?recordID=US201900433122

Kong, J., Xu, Z., You, W., Wang, B., Liang, Y., & Chen, T. (2021). Study of smoke backlayering length with different longitudinal fire locations in inclined tunnels under natural ventilation. Tunnelling and Underground Space Technology 107, 103663. Doi: HTTPs://doi.org/ 10.1016/j.tust.2020.103663

Kuzin, V., Velichko, A., & Khokhotva, N. (2018). Edinaia metodika prognozirovania temperaturnykh uslovii v ugol’nykh shakhtakh: pp. 196.

Lanchava, O. Kunchulia, T., Khokerashvili, Z., Arudashvili, N., Tsanava, D. (2022). Determination of Non-Stationary Heat and Mass Transfer Coefficients in Tunnels. BULLETIN OF THE GEORGIAN NATIONAL ACADEMY OF SCIENCES, vol. 16, no. 2, pp. 33-39. Retrieved from http://science.org.ge/bnas/vol-16-2.html

Lanchava, O., Makharadze, L., Nozadze, G., Jangidze, M., Javakhishvili, G., Kunchulia, T., Khokerashvili, Z., Arudashvili, N., Tsanava, D., & Sebiskveradze, S. (2022). Saving lives in a road tunnel using transformable elements restricting the propagation of fire products. GEORGIAN SCIENTISTS, 4(2). https://doi.org/10.52340/gs.2022.04.02.01

Lanchava, O. (1982). Journal of Mining Science 1(6), pp. 87-92.

Lanchava, O. (1982). Heat and mass exchange in permanent mine workings. Soviet Mining 18 (6), pp. 529-532.

Lanchava, O. (1985). Journal of Mining Science 1(5), pp. 99-104.

Lanchava, O. (1986). Heat and mass exchange in newly driven mine workings. Soviet Mining Sci. (English Transl.); (United States) 21 (5), pp. 460-464.

Lanchava, O., Ilias, N., Andras, I., Moraru, R., & Neag, I. (2007). On the Ventilation of Transport Tunnels in the Presence of a Strong (Heavy) Fire. Annals of the University of Petrosani, 9, pp. 219-227.

Lanchava, O., Nozadze, G., Bochorishvili, N., Lebanidze, Z., Arudashvili, N., Jangidze, M., & Tsikarishvili, K. (2014). Criteria for evaluation of emergency firefighting in transport tunnels. Materials of International Conference “Transport Bridge Europe-Asia”. (pp. pp. 29-34.). Tbilisi: Materials of International Conference “Transport Bridge Europe-Asia”.

Lanchava, O. (2021). ANALYSIS OF CRITICAL AIR VELOCITY FOR TUNNEL FIRES CONTROLED BY VENTILATION. GEORGIAN SCIENTISTS, 2(2). https://doi.org/10.52340/gs.2021.313

Lanchava, O., Nozadze, G., & Arudashvili, N. (2015). ANALIZE OF FATAL FIRES IN TRANSPORT TUNNELS AND MEASURES OF ITS PREVENTING. Mining Journal N 2, 85-89.

Lanchava, O., Abashidze, G., & Tsverava, D. (2017). Securing fire safety for underground structures. Quality-Access to Success 18, S1, pp. 63-66.

Lanchava, O., & Ilias, N. (2017). Some issues of thermal calculation of ventilation air for the metro. Journal of Engineering Sciences and Innovation 2 (2), pp. 92-105. Retrieved from https://jesi.astr.ro/wp-content/uploads/2018/07/30.pdf

Lanchava, O., Ilias, N., Nozadze, G., Radu, S.M., Moraru, R.I. & Khokerashvili, Z. (2017). The impact of the piston effect on the technological characteristics of ventilation in the subway tunnels. Proceedings of 8th International Symposium “Occupational Health and Safety” SESAM, 2, pp. 342-352.

Lanchava, O., & Ilias, N. (2018). Complex calculation method of temperature, mass transfer potential and relative humidity for ventilation flow in subway. Technical Sciences 3 (1), pp. 69-84.

Lanchava, O., Ilias, N., Nozadze, G., & Radu, S. M. (2019). Heat and hygroscopic mass exchange modelling for safety management in tunnels of metro. Quality Access to Success 20, S1., pp. 27-33.

Lanchava, O., Ilias, N., Nozadze, G., Radu, S.M., Moraru R.I., & Khokerashvili, Z. (2019). MODELLING THE PISTON EFFECT IN SUBWAY TUNNELS USING FIRE DYNAMICS SIMULATOR. Environmental Engineering & Management Journal (EEMJ) 18 (4).

Lanchava, O., & Ilias, N. (2020). Critical velocity analysis for safety management in case of tunnel fire. MATEC Web of Conferences 305, 00023.

Lanchava, O. (2020). THE NEW CRITERION OF SIMILARITY THERMO-AERODYNAMICS OF UNDERGROUND BUILDINGS. GEORGIAN SCIENTISTS, 2(2).

Lanchava, O., & Ilias, N. (2020). Calculation of railway tunnels ventilation. Journal of Engineering Sciences and Innovation 5 (1), 69-86.

Lanchava, O. (2021). ANALYSIS OF CRITICAL AIR VELOCITY FOR TUNNEL FIRES CONTROLED BY VENTILATION: Print version was published: Mining Journal 1(42); 2019. 126-132. GEORGIAN SCIENTISTS, 3(2). https://doi.org/10.52340/gs.2021.313

Lanchava, O., Ilias, N., Radu, S.M., Nozadze, G., Tsanava, D. (2021). Analysis of the use of transformable elements in intelligent tunnel ventilation systems. 10th International Symposium on Occupational Health and Safety (SESAM 2021). Petrosani, Romania: MATEC Web of Conferences 354, 00020. https://doi.org/10.1051/matecconf/202235400020

Lanchava, O., Ilias, N., Radu, S., Jangidze, M., & Khokerasvili, Z. (2021). Fire development study on physical models of transport tunnels. 9th edition of the International Multidisciplinary Symposium “UNIVERSITARIA SIMPRO 2021”. Petroşani: MATEC Web of Conferences 342, 03020. https://doi.org/10.1051/matecconf/202134203020

Lanchava, O., & Javakhishvili, G. (2021). Impact of strong fires on a road tunnel ventilation system. Bulletin of the Georgian National Academy of Sciences 15 (4), pp. 38-45.

Lanchava, O. (2021). THE AERODYNANIIC CALCULATION OF RAILROAD TUNNELS LINE OF MARABDA-AKHALQALAQI: Print version was published: Mining Journal 2(25), 2010. 55–59. GEORGIAN SCIENTISTS, 3(2). https://doi.org/10.52340/gs.2021.309

Lanchava, O., & Javakhishvili, G. (2022). Fire effect on tunnel ventilation according to numerical modeling results. GEORGIAN SCIENTISTS, 4(5), 337–354. https://doi.org/10.52340/gs.2022.04.05.37

Lanchava, O., Ilias, N., Radu, S., Nozadze, G., & Jangidze, M. (2022). Preventing The Spread of Combustible Products in Tunnels by Implementing a Divisible System. Environmental Engineering & Management Journal (EEMJ) 21 (4), pp. 627-635.

Lanchava, O., Nozadze, G., Tsanava, D. (2022.). FDS Modelling Results for 50-100 MW Fires in Terms of Semi-Transverse Ventilation in Road Tunnels. Bulletin of the Georgian National Academy of Sciences. T.16, N4, pp. 115-122.

Lanchava, O. (2022). Life-saving problems during fire in road tunnels . GEORGIAN SCIENTISTS, 4(5), 355–358. https://doi.org/10.52340/gs.2022.04.05.38

Lanchava, O., Ilias, N., Radu, S.M., Nozadze, G., & Tsanava D. (2022). Analysis of the use of transformable elements in intelligent tunnel ventilation systems. MATEC Web of Conferences 354, 00020.

Lee, S., & Ryou, H. (2005). An experimental study of the effect of the aspect ratio on the critical velocity in longitudinal ventilation tunnel fires. Journal of Fire Sciences 23 (2), pp. 119-138. Doi: HTTPs://doi.org/10.1177/0734904105044630

Lee, S., & Ryou, H. (2006). A numerical study on smoke movement in longitudinal ventilation tunnel fires for different aspect ratio. Building and Environment 41 (6), pp. 719-725. Doi: HTTPs://doi.org/10.1016/j.buildenv.2005.03.010

Li, J., Li, Y., Cheng, C., & Chow, W. (2019). A study on the effects of the slope on the critical velocity for longitudinal ventilation in tilted tunnels. Tunnelling and Underground Space Technology, 262-267. Doi: HTTPs://doi.org/10.1016/j.tust.2019.04.01

Li, Y., & Ingason, H. (2017). Effect of cross section on critical velocity in longitudinally ventilated tunnel fires. Fire Safety Journal 91, pp. 303-311. Doi: HTTPs://doi.org/10.1016/j. firesaf.2017.03.069

Li, Y., & Ingason, H. (2018). Discussions on critical velocity and critical Froude number for smoke control in tunnels with longitudinal ventilation. Fire Safety Journal, 22-26. Retrieved from

http://www.diva-portal.org/smash/record.jsf?pid=diva2%3A1236840&dswid=-3047

Li, Y., Ingason, H., & Jiang, L. (2018). Influence of tunnel slope on smoke control. Safety and Transport Fire Research. Retrieved from

https://www.diva-portal.org/smash/get/diva2:1270845/FULLTEXT02

Li, Y., Lei, B., & Ingason, H. (2010). Study of critical velocity and backlayering length in longitudinally ventilated tunnel fires. Fire Safety Journal 45 (6), pp. 361-370. https://doi.org/ 10.1016/j.firesaf.2010.07.003

Li, Y., Lei, B., & Ingason, H. (2013). Theoretical and experimental study of critical velocity for smoke control in a tunnel cross-passage. Fire Technology 49 (2), pp. 435-449. Doi: HTTPs:// doi.org/10.1007/s10694-010-0170-0

Li, Y., Lei, B., & Ingason, H. (n.d.). Study of critical velocity and backlayering length in longitudinally ventilated tunnel fires. Fire Safety Journal 45 (6), pp. 361-370. https://doi.org/ 10.1016/j.firesaf.2010.07.003

Liang, H., Pang, L., & Gao, D. (2020). A numerical study on critical ventilation velocity in slope tunnel fire under vehicle blockage. Civil Engineering Design 2 (1–2), pp. 12-19. https:// doi.org/10.1002/cend.201900009

Liu, C., Zhong, M., Song, S., Xia, F., Tian, X., Yang, Y., & Long, Z. (2020). Experimental and numerical study on critical ventilation velocity for confining fire smoke in metro connected tunnel. Tunnelling and Underground Space Technology 97, 103296.

Doi: HTTPs://doi.org/%2010.1016/j.tust.2020.103296

Lou, B., Rifu, Q., Hu, E., Jiyun, Q., & Zhenwen, H. (2020). Influence of tunnel curvature on smoke spread in a tunnel fire. Journal of the Chinese Institute of Engineers 43 (4), pp. 386-396. Doi: HTTPs://doi. org/10.1080/02533839.2020.1719897

Meng, N., Hu, X., & Tian, M. (2020). Effect of blockage on critical ventilation velocity in longitudinally ventilated tunnel fires. Tunnelling and Underground Space Technology 106, 103580. Doi: HTTPs://doi.org/10.1016/j.tust.2020.103580

National Fire Protection Association, NFPA 502. (2014). Standard for road tunnels, bridges, and other limited access highways. National Fire Protection Association NFPA. Retrieved from https://www.nfpa.org/codes-and-standards/all-codes-and-standards/list-of-codes-and-standards/detail?code=502

National Fire Protection Association, NFPA 502. (2011). Standard for road tunnels, bridges, and other limited access highways. National Fire Protection Association, NFPA. Retrieved from https://www.nfpa.org/codes-and-standards/all-codes-and-standards/list-of-codes-and-standards/detail?code=502

Oka, Y., & Atkinson, G. (1955). Control of smoke flow in tunnel fires. . Fire Safety Journal 25 (4), pp. 305-322. https://doi.org/10.1016/0379-7112(96)00007-0

Omar Lanchava, & Shurman Oniani. (2021). HYGROSCOPIC POTENTIAL OF MASS TRANSFER IN ROCK MASS. GEORGIAN SCIENTISTS, 2(2). https://doi.org/10.52340/gs.02.20.293

Onsager, L. (1931). Reciprocal Relations in Irreversible Processes. Physical Review 37, pp. 405-426. Doi: HTTPs://doi.org/10.1103/PhysRev.37.405

Patil, P., Kumbarwadi, N., & Momoniat, E. (2018). Influence of chemically reactive species and a volumetric heat source or sink on mixed convection over an exponentially decreasing mainstream. Heat Transfer- Asian Res. 47 (1), pp. 111-125.

Doi: HTTPs://doi.org/10.1002/htj.21294

Peng, M., Shi, L., He, K., Yang, H., Cong, W., Cheng, X., & Richard, Y. (2020). Experimental study on fire plume characteristics in a subway carriage with doors. . Fire Technology, 56 (2), pp. 401–423. Doi: HTTPs://doi.org/10.1007/s10694-019-00882-0

Savalanpour, H., Farhanieh, B., & Afshin, H. (2019). Numerical simulation to investigate the induced buoyant flow characteristics caused by intensive heat in complex curvilinear geometries. Heat Transfer- Asian Res. 48 (3), pp. 835- 853.

Doi: HTTPs://doi.org/10.1002/ htj.21408

Savalanpour, H., Farhanieh, B., & Afshin, H. (2021). Proposing a general formula to calculate the critical velocities in tunnels with different cross-sectional shapes. Tunnelling and Underground Space Technology. Retrieved from

https://www.sciencedirect.com/science/article/abs/pii/S0886779820307525

Shafee, S., & Yozgatligil, A. (2018). An analysis of tunnel fire characteristics under the effects of vehicular blockage and tunnel inclination. Tunnelling and Underground Space Technology 79, pp.274-285. Doi: HTTPs://doi.org/10.1016/j.tust.2018.05.019

Tang, F., Lianjian, L., Wenkang, C., Changfa, T., & Zhi, Z. (2017). Studies on ceiling maximum thermal smoke temperature and longitudinal decay in a tunnel fire with different transverse gas burner locations. Applied Thermal Engineering, pp. 1674-1681. Retrieved from

https://www.sciencedirect.com/journal/applied-thermal-engineering/vol/110?page=2

Tang, Z., Liu, Y., Yuan, J., & Fang, Z. (n.d.). Study of the critical velocity in tunnels with longitudinal ventilation and spray systems. Fire Safety Journal 90, pp. 139-147. Doi: HTTPs://doi.org/ 10.1016/j.firesaf.2017.03.001

The European Parliament and The Council of The European Union, D. 2. (2004). on minimum safety requirements for tunnels in the Trans-European Road Network. Official Journal of the European Communities. Retrieved from https://eur-lex.europa.eu/legal-content/EN/TXT/?uri=celex%3A32004L0054

Thomas, P. (1958). The movement of buoyant fluid against a stream and the venting of underground fires. Fire Research Notes. Retrieved from

https://publications.iafss.org/publications/frn/351/-1/view/frn_351.pdf

Tian, X., Liu, C., & Zhong, M. (2021). Numerical and experimental study on the effects of a ceiling beam on the critical velocity of a tunnel fire based on virtual fire source. International Journal of Thermal Sciences 159.

Doi: HTTPs://doi.org/10.1016/j.ijthermalsci.2020.106635

Tilley, N., Rauwoens, P., & Merci, B. (2011). Verification of the accuracy of CFD simulations in small-scale tunnel and atrium fire configurations. Fire Safety Journal 46 (4)., pp. 186-193. Doi: HTTPs://doi.org/10.1016/j.firesaf.2011.01.007

Vaitkevicius, A., & Carvel, R. (2015). Investigating the Throttling Effect in Tunnel Fires. Fire Technology, Volume 58., pp 1619–1628. Doi: HTTPs://doi.org/10.1007/s10694-015-0512-z

Wang, F., & Wang, M. (2016). A computational study on effects of fire location on smoke movement in a road tunnel. Tunnelling and Underground Space Technology 51., pp. 405-413. Doi: HTTPs:// doi.org/10.1016/j.tust.2015.09.008

Wang, F., Wang, M., Carvel, R., & Wang, Y. (2017). Numerical study on fire smoke movement and control in curved road tunnels. Tunnelling and Underground Space Technology 67., PP. 1-7. Doi: HTTPs://doi.org/10.1016/j.tust.2017.04.015

Weng, M., Lu, X., Liu, F., Shi, X., & Yu, L. (2015). Prediction of back layering length and critical velocity in metro tunnel fires. Tunnelling and Underground Space Technology 47, pp. 64-72. Doi: HTTPs://doi.org/10.1016/j.tust.2014.12.010

Wu, Y., & Bakar, M. (2000). Control of smoke flow in tunnel fires using longitudinal ventilation systems – a study of the critical velocity. Fire Safety Journal. Doi: HTTPs://doi.org/10.1016/S0379-7112(00)00031-X

Zhang, X., Lin, Y., Shi, C., & Zhang, J. (2021). Experimental investigation on the smoke back-layering length in a branched tunnel fire considering different longitudinal ventilations and fire locations. Case Studies in Thermal Engineering, 28. Doi: HTTPs://doi.org/10.1016/j.csite.2021.101497

კუნჭულია თ., ხოკერაშვილი ზ., არუდაშვილი ნ., & ლანჩავა ო. . (2021). სავენტილაციო ნაკადების დინამიკისა და გვირაბების გეომეტრიის გავლენის შეფასება საევაკუაციო პერიოდზე საავტომობილო გვირაბის მოდელებზე, დამოდელებული ხანძრების შემთხვევაში: პროექტი განხორციელდა შოთა რუსთაველის ეროვნული სამეცნიერო ფონდის ფინანსური ხელშეწყობით (გრანტი AR-19-1936). ქართველი მეცნიერები, 1(1). https://doi.org/10.52340/gs.02.09.227

ლანჩავა ო., მახარაძე ლ. ., ნოზაძე გ. ., ჯანგიძე მ., ჯავახიშვილი გ., კუნჭულია თ., ხოკერაშვილი ზ., არუდაშვილი ნ., ცანავა დ., & სებისკვერაძე ს. (2022). სიცოცხლის გადარჩენა საავტომობილო გვირაბში ხანძრის პროდუქტების გავრცელების შემზღუდავი ტრანსფორმირებადი ელემენტების გამოყენებით. ქართველი მეცნიერები, 4(2), 1–29. https://doi.org/10.52340/gs.2022.04.02.01

ლანჩავა, ო., ნოზაძე, გ., არუდაშვილი, ნ., & ხოკერაშვილი, ზ. (2017). სითბური ფაქტორის მიხედვით თბილისის მეტროს სავენტილაციო ჰაერის გაანგარიშება. სამთო ჟურნალი, 1(38), გვ. 92-95.

ცანავა დ. (2023). მოდელურ გვირაბში ხანძრის განვითარების სცენარების ანალიზი სიცოცხლის გადარჩენის მიზნით რეალურ მიწისქვეშა სივრცეში . ქართველი მეცნიერები, 5(1), 289–302. https://doi.org/10.52340/gs.2023.05.01.25

ხოკერაშვილი ზ., & ცანავა დ. (2022). ხანძრის ფიზიკური მოდელირების შედეგები საავტომობილო გვირაბებისათვის. ქართველი მეცნიერები, 4(2), 30–45. https://doi.org/10.52340/gs.2022.04.02.02

ხოკერაშვილი ზ., მაჭავარიანი ნ., არუდაშვილი ნ., & ცანავა დ. (2022). ტრანსფორმირებადი ელემენტებით აღჭურვილ საავტომობილო გვირაბში ხანძრის განვითარების ანალიზი რიცხვითი მოდელირების მეთოდით . ქართველი მეცნიერები, 4(5), 359–362. https://doi.org/10.52340/gs.2022.04.05.39