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The Systematic of Landslide Processes in the Conditions of Romania’s Relief

  • Mihai MicuEmail author
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Abstract

Landslides are extremely active slope-shaping processes. Their broad spectrum of processes and forms, alongside different types of displaced material is conditioned by a wide range of predisposing, preparing, and triggering factors. There are numerous attempts to classify them homogeneously, but quite often, the heterogeneity of the phenomenon imposes different criteria, depending on regions or scientific schools and approaches. Criteria like morphology and morphogenesis always found a common usage; meanwhile others like age or morphodynamic behavior are still debated. In Romania, the wide range of processes and forms, as well as the potential consequences inflicted to the socio-economic environment is well reflected within an extended geomorphologic literature, dealing with both fundamental and applied considerations. If for a long period of time, landslide systematic in Romanian geomorphology was predominantly descriptive, during the last two decades, one faces an almost completely shifted approach, changing from fundamental aspects to predictive studies, in the form of susceptibility, hazard, and risk. Through an in-depth review of the most important outcomes of the last 100 years’ literature in the field of landslide systematic, several milestones might be set up. The relationship between geomorphology and other geonomic sciences, as well as the connections between national and international literature are discussed in terms of common or uncommon criteria of classification. A concise description of the main types of landslides (according to modern literature) throughout Romania is given in terms of synthetic regional descriptions.

Keywords

Landslides Romania Classification 
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References

  1. Almagia R (1910) Studi geografici sulle frani in Italia. Rome, Mem. Soc. geogr. Italiana 13(1):1–342Google Scholar
  2. Armaş I, Damian R, Şandric I, Osaci–Costache G (2003) Vulnerabilitatea versanţilor la alunecări de teren în sectorul subcarpatic al Văii Prahova. Editura Fundaţiei România de Mâine, Bucureşti (in Romanian)Google Scholar
  3. Badea L (1972) Observaţii asupra unor alunecari de teren din bazinul Buzăului. Probl. geogr., V, BucureştiGoogle Scholar
  4. Bally RJ, Stănescu P (1977) Alunecări de teren. Prevenire şi combatere. Edit. Ceres, Bucureşti (in Romanian)Google Scholar
  5. Băcăinţan N (1983) Mesurages sur le creep dans certains sols des montagnes de Baraolt, RRGGG-Geogr 27Google Scholar
  6. Băcăuanu V (1977) Processus et formes actuelles de relief dans le Plateau Moldave. An. Şt. Univ. “Al.I.Cuza” Iaşi, sec. II-c, tom XIIGoogle Scholar
  7. Bălteanu D (1970) Morfodinamica porniturilor de teren pe Valea Apostului (Munţii Buzăului). SCGGG-Geogr., XVII(2) (in Romanian)Google Scholar
  8. Bălteanu D (1971) Preliminary observations on present-day slope modeling processes in the perimeter of Pătârlagele research station, Geogr. Jud. Buzău, Bucharest, 71–79Google Scholar
  9. Bălteanu D (1974) Relaţii între curgerile de noroi şi eroziune torenţială în modelarea versanţilor din Subcarpaţii Buzăului. SCGGG-Geogr., XXI(1) (in Romanian)Google Scholar
  10. Bălteanu D (1976) Some investigations on the present-day mass movements in the Buzău Subcarpathians. RRGGG-Geogr 20:53–61Google Scholar
  11. Bălteanu D (1979) Procese de modelare a versanţilor declanşate de cutremurul din 4 martie 1977 în Carpaţii şi Subcarpaţii Buzăului. SCGGG-Geogr, XXVI (in Romanian)Google Scholar
  12. Bălteanu D (1983) Experimentul de teren în geomorfologie. Edit. Academiei Române, Bucureşti (in Romanian)Google Scholar
  13. Bălteanu D (1992) Natural Hazards in Romania. RRG, 36Google Scholar
  14. Bălteanu D, Mateescu F (1975) Harta proceselor actuale de modelare a reliefului. In: Atlas, Republica Socialistă România, Edit. Academiei, Bucureşti (in Romanian)Google Scholar
  15. Bălteanu D, Cioacă A (1997) Mass movements in the Vrancea seismogenic region. Studia Universitatis Babeş-Bolyai, Cluj-Napoca, ser. Geographia, XLII, 1–2:83–86Google Scholar
  16. Bălteanu D, Micu M (2012) Morphodynamics of the Chirleşti mudflow (Buzău Mountains). Rom J Geogr 56(2)Google Scholar
  17. Bălteanu D, Dinu M, Cioaca A (1989) Hărțile de risc geomorphologic. SCGGG-Geogr XXXV (in Romanian)Google Scholar
  18. Bălteanu D, Cioacă A, Dinu M, Sandu M (1996) Some case studies of geomorphological risk in the Curvature Carpathians and Subcarpathians. RRG, 40Google Scholar
  19. Bălteanu D, Jurchescu M, Surdeanu V, Ioniță I, Goran C, Urdea P, Rădoane M, Rădoane N, Sima M (2012) Recent landform evolution in the Romanian Carpathians and pericarpathian region. In Loczy D et al. (eds) Recent landform evolution: the Carpatho-Balkan-Dinaric region. Springer Geography, Berlin, pp 249–286Google Scholar
  20. Cazacu GB, Draghici G (2011) Identificarea şi determinarea hazardelor naturale – alunecarea de la Seimeni. Revista Română de inginerie civilă, 2 (in Romanian)Google Scholar
  21. Cioacă A (1967) Alunecările de teren de la Baia Verde (Slănic) şi morfodinamica lor. SCGGG- Geografie, 2, Bucureşti (in Romanian)Google Scholar
  22. Cioacă A (1996) Landslides in the Carpathian Curvature Paleogene Flysch. Particularities. Geogr.Fis.e Dinam. Quatern., 19Google Scholar
  23. Cioacă A, Dinu M (1998) Landslides triggered by precipitation in the Subcarpthians, in November 1996–March 1998 interval. Simpozionul Geomofologic Româno-Italian, Oradea, pp 68–75Google Scholar
  24. Coteţ P (1969) Geomorfologie cu elemente de geologie. Edit. Didactică şi Pedagogică, Bucureşti (in Romanian)Google Scholar
  25. Cruden DM, Fell R (1997) Landslide risk assessment. AA Balkema, Rotterdam BrookfieldGoogle Scholar
  26. Cruden DM, Varnes DJ (1996) Landslide types and processes. In: Turner AK, Schuster RL (eds) Landslides: investigation and mitigation. National Academey Press, Washington, DC, pp 36–75Google Scholar
  27. Dikau R, Brunsden D, Schrott L, Ibsen ML (eds) (1996) Landslide recognition. Identification, movement and causes. Wiley, ChichesterGoogle Scholar
  28. Dinu M (1997) The relationship between landslides and slope evolution in the Vâlcea Subcarpathians, Rumania. Geografia Fisica e Dinamica Quaternaria, 19, Torino, p 227–232Google Scholar
  29. Dinu M, Cioacă A (1997) Precipitation-induced landslides in the Moldavian Plateau (1996–1997). RRG, 41, BucureştiGoogle Scholar
  30. Donisă I (1968) Geomorfologia Văii Bistriţei. Edit. Academiei RSR, Bucureşti (in Romanian)Google Scholar
  31. Dragomirescu S, Gâştescu P (1960) The forming of Betis lake through a natural dam. Probl. Geogr., VIII p 275–281Google Scholar
  32. Dragoş V (1957) Deplasările de teren. Edit. Ştiinţifică, Bucureşti (in Romanian)Google Scholar
  33. Gârbacea V (1992) Harta glimeelor din Câmpia Transilvaniei. SUBB-G 37(1–2):21–24 (in Romanian)Google Scholar
  34. Gârbacea V (1997) Remarques sur le relief de “glimee” en Roumanie. Geografia Fisica e Dinamica Quaternaria 19:219–221Google Scholar
  35. Gârbacea V, Grecu F (1983) Relieful de tip glimee din Podişul Transilvaniei şi potenţialul său economic. Mem. Secţ. Şt. Acad. Română, IV(2/1982):305–312 (in Romanian)Google Scholar
  36. Gârbacea V (2013) Relieful de glimee. Edit. Presa Universitară Clujeană, Cluj (in Romanian)Google Scholar
  37. Grecu F (1982) Consideraţii asupra glimeelor din bazinul hidrografic Hârtibaciu. BSSGR, VI:185–188 (in Romanian)Google Scholar
  38. Grecu F (1983) Alunecările de teren de la Movile (Podişul Hârtibaciului). ONMI, XXVII(2):112–117 (in Romanian)Google Scholar
  39. Grecu F (1985) Clasificări şi tipuri de alunecări din depresiunea Transilvaniei. Terra 3:15–17 (in Romanian)Google Scholar
  40. Grecu F (1992) Bazinul Hârtibaciului. Elemente de morfohidrografie. Edit. Academiei, Bucureşti (in Romanian)Google Scholar
  41. Grigore M, Ielenicz M (1972) Cartografierea porniturilor. BSSG, II:235–242Google Scholar
  42. Hantz D, Vengeon JM, Dussauge-Peisser C (2003) An historical, geomechanical and probabilistic approach to rock-fall hazard assessment. Nat Hazards and Earth Syst Sci 3:693–701CrossRefGoogle Scholar
  43. Hencher SR (1987) The implications of joints and structures for slope stability. In: Anderson MG, Richards KS (eds) Slope stability. Wiley, New YorkGoogle Scholar
  44. Hungr O, Laroueil S, Picarelli L (2013) The Varnes classification of landslide types, an update. Landslides 11(2):167–194CrossRefGoogle Scholar
  45. Hutchinson JN (1988) General Report: Morphological and geotechnical parameters of landslides in relation to geology and hydrogeology. In: Bonnard C (ed) Proceedings of fifth international symposium on landslides, Rotterdam, Balkema, pp 3–35Google Scholar
  46. Ichim I (1972) Le role des processus de mouvement de masse dans le modelage des monts du flysch (Carpathes Orientales). Acta geographica Debrecina, t. X:209–223Google Scholar
  47. Ichim I, Lupaşcu Gh (1975) Degradările de teren din regiunea subcarpatică cuprinsă între valea Nechit şi valea lui Ion, cu privire specială asupra raporturilor dintre alunecări şi unele procese pedogenetice. Lucrările colocviului naţional de geomorfologie aplicată şi cartografiere geomorfologică, 26-28 octombrie 1973, Iaşi (in Romanian)Google Scholar
  48. Ielenicz M (1970) Zonele cu alunecări de teren din ţara noastră. Terra 2(1):31–40 (in Romanian)Google Scholar
  49. Ielenicz M (1981) Procese actuale în Carpaţii de Curbură. Terra, 4 (in Romanian)Google Scholar
  50. Ielenicz M (1984) Munţii Ciucaş-Buzău. Studiu geomorfologic. Edit. Academiei RSR, Bucureşti (in Romanian)Google Scholar
  51. Ilinca V (2010) Valea Lotrului. Studiu de geomorfolgie aplicată. PhD Thesis, University of Bucharest (in Romanian)Google Scholar
  52. Josan N, Grecu F (1981) Contribution a la connaissance des processus de versant du Plateau du Hârtibaciu (Depression de Transylvanie). RRGGG-Geogr., t.25:255–260Google Scholar
  53. Josan N, Petrea R, Petrea D (1996) Geomorfologie generală. Edit. Univ. Din Oradea (in Romanian)Google Scholar
  54. Lee EM, Jones DKC (2004) Landslide risk assessment. Thomas Telford, LondonCrossRefGoogle Scholar
  55. Loghin V, Păunescu E (2002) Tipizarea, clasificarea şi caracterizarea alunecărilor de teren din Subcarpaţii dintre Dâmboviţa şi Prahova în vederea alcătuirii unei baze de date. AUB, Vol. LI (in Romanian)Google Scholar
  56. Macovei G, Botez G, (1923) Comunicare asupra fenomeneor de alunecări şi prăbuşiri de teren din judeţul Râmnicul Sărat. D.S. ale Inst. Geol. Român (1914–1915), Bucureşti (in Romanian)Google Scholar
  57. Mamulea M (1975) O propunere de clasificare a porniturilor de teren. SCGGG, Geografie, vol. 20 (in Romanian)Google Scholar
  58. Martiniuc C, Băcăuanu V (1961) Porniturile de teren şi modul cum pot fi prevenite sau stabilizate. Natura, XIII:25–35 (in Romanian)Google Scholar
  59. Mândrescu N (1981) The Romanian earthquake of March 4, 1977: aspects of soil behavior. Rev. Roum. Geophysique, 25, Edit. Acad RomGoogle Scholar
  60. Mândrescu N (1982) The Romanian earthquake of March 4, 1977: damage distribution. Rev. Roum. Geophysique, 26–27, Edit. Acad RomGoogle Scholar
  61. McCalpin JP (1984) Prelminary age classification of landslides for inventory mpping. Selected Works. Utah State UniversityGoogle Scholar
  62. Micu M, Bălteanu D, Ionescu C, Havenith HB, Radulian M, van Westen C, Damen M, Jurchescu M (2015) A preliminary regional assessment of earthquake-induced landslide susceptibility for Vrancea Seismic Region. Geophys Res Abstr 17(EGU2015-12524):2015Google Scholar
  63. Mihăilescu V (1927) Despre frane şi alte forme rezultate prin activitatea agenţilor externi – o sugestie. Bul. S.R.R. geogr., 1927 (in Romanian)Google Scholar
  64. Mihăilescu V (1939) Porniturile de teren din regiune Nehoiaş. BSRRG, LVIII (in Romanian)Google Scholar
  65. Morariu T, Gârbacea V (1968) Deplacements massifs de terrain de type glimee en Roumanie. RRGGG, XII:13–18Google Scholar
  66. Morariu T, Tufescu V (1964) Problemes de geomorphologie appliquee en Roumanie. RRGGG, VIII:213–218Google Scholar
  67. Morariu T, Diaconeasa B, Gârbacea V (1964) Age of land-slidings in the Transylvanian Tableland. RRGGG, VIII:149–157Google Scholar
  68. Mrazec L (1923) Cauza alunecărilor de strate. Dări de seamă, Institutul Geologic, tom VI (in Romanian)Google Scholar
  69. Munteanu-Murgoci G (1923) Propuneri de terminologie pentru alunecări şi curgeri de teren. Dări de seamă, Institutul Geologic, tom VI (in Romanian)Google Scholar
  70. Popescu N, Popescu G (1978) Contribuţii la studiul alunecărilor de teren din Subcarpații de la Curbură. SCGGG, Geografie, tom XXV (in Romanian)Google Scholar
  71. Posea G (1969) Glissments, meandres et voies de communications dans la valle de Buzău. Travaux du symposium international de geomorphologie appliquee, Bucarest, 1967Google Scholar
  72. Posea G (1972) Alunecarea de la Nehoiu-Borcea. AUB, Geogr, XXIGoogle Scholar
  73. Posea G (2002) Geomorfologia României. Edit. Fundaţiei România de Mâine, Bucureşti (in Romanian)Google Scholar
  74. Posea G, Ielenicz M (1970) Alunecările de teren de pe Valea Buzăului. AUB, Geogr., XIX (in Romanian)Google Scholar
  75. Posea G, Ielenicz M (1976) Types de glissements dans les Carpates de la Courbure. RRGGG, XX:63–72Google Scholar
  76. Posea G, Popescu N (1976) Les glissements masifs dans les piemonts pericarpatiques. RRGGG, XX:45–52Google Scholar
  77. Posea G, Vespremeanu E (1985) Unele experimente asupra alunecărilor mari din România. Cercet. Geomorf. pentru îmbunătățiri funciare, București (in Romanian)Google Scholar
  78. Radu C, Spânoche E (1977) On geological phenomena associated with the 10 November 1940 earthquake. Revue Roumaine de Geologie, Geophysique et Geographie. – Geophysique, 21:159–165Google Scholar
  79. Rădoane M, Rădoane N, Ichim I (1995) Folosirea metodei cubului matricial în evaluarea susceptibilităţii la alunecări de teren. Studiu de caz: judeţul Neamţ. Studii si cercetări de geografie, 40:111–118 (in Romanian)Google Scholar
  80. Rădoane N (1995) Posibilităţi de abordare a procesului de creep. Studii caz din zona văii Bistriţei Moldoveneşti. Analele Universităţii “Ştefan cel Mare”, Suceava (in Romanian)Google Scholar
  81. Rădulescu NA (1959a) Distribuţia alunecărilor de teren în România. Probl. De Geogr., VI, 21Google Scholar
  82. Rădulescu NA (1959b) The distribution of landslides in Romania. Probl. De Geogr., VIGoogle Scholar
  83. Sandu M (1998) Culoarul depresionar Sibiu-Apold. Studiu geomorfologic. Edit. Academiei Române, Bucureşti (in Romanian)Google Scholar
  84. Sârcu I (1962) Rolul alunecărilor şi prăbuşirilor de mase de roci în formarea munţilor cristalini ai Rodnei. AUAIC, VIII (in Romanian)Google Scholar
  85. Sharpe CFS (1938) Landslides and related phenomena. Columbia University Press, New YorkGoogle Scholar
  86. Surdeanu V. (1975) Consideraţii asupra alunecărilor de teren din Valea Bistriţei în sectorul Bicaz-Piatra Neamţ. Lucr. Stat. Stejarul, Pângăraţi (in Romanian)Google Scholar
  87. Surdeanu V (1976) Le glissement de terrain de Ticos. Anuar. Muz. St. Nat, III, Piatra-NeamţGoogle Scholar
  88. Surdeanu V (1985) Consideraţii asupra inventarierii alunecărilor de teren în vederea întocmirii hărţilor de risc. Lucr. Semin. D. Cantemir, 5, Iaşi (in Romanian)Google Scholar
  89. Surdeanu V (1992) Corelations between landslides and other denudation processes. SUBB, XXXVII, pp 1–2Google Scholar
  90. Surdeanu V (1998) Geografia terenurilor degradate, Editura Presa Universitară Clujeană, Cluj-Napoca (in Romanian) Google Scholar
  91. Surdeanu V, Rădoane N (1976) Relation entre les plans de mouvement et les indices physiques des depots de versant dans la zone du lac Izvorul Muntelui. Anuar. Muz. St. Nat, III, Piatra-NeamţGoogle Scholar
  92. Surdeanu V, Pop O, Chiaburu M, Dulgheru M, Anghel T (2010) La dendrogéomorphologie appliquée a l’étude des processus géomorphologiques des zones minières dans le Massif du Călimani (Carpates Orientales, Roumanie). In: Surdeanu V, Stoffel M, Pop O (eds) Dendrogéomorphologie et dendroclimatologie – méthodes de reconstitution des milieux géomorphologiques et climatiques des régions montagneuses. Presa Universitară Clujeană, Cluj-Napoca, pp 107–124Google Scholar
  93. Tufescu V (1964) Typologie des glissements de Roumanie RRGGG-Geogr., VIII Tufescu V (1968) Coulees boueuses dans les Carpates dy Flysch et les Subcarpathes de Roumanie. RRGGG, XII:19–25Google Scholar
  94. Varnes DJ (1978) Slope movement types and processes. In: Schuster RL, Krizek RJ (eds) Special report 176: landslides: analysis and control. Transportation and Road Research Board, National Academy of Science, Washington, DC, pp 11–33Google Scholar
  95. Vasile M, Pleşoianu A, Vespremeanu-Store A (2015) Distribuţia şi morfometria pereţilor stâncoşi din Carpaţii Româneşti. Influenţa caracteristicilor litologice şi a dezagregării. Simpozionul Naţional de Geomorfologie, Sf. Gheorghe, 21–24 May 2015 (in Romanian)Google Scholar
  96. Zaruba Q, Mencl V (1969) Landslides and their control. Elsevier, AmsterdamGoogle Scholar

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Authors and Affiliations

  1. 1.Institute of Geography, Romanian AcademyBucharest, Sector 2Romania

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