علم و فناوری برای حفاظت از میراث فرهنگی ۲۰۱۳
Science and Technology for the Conservation of Cultural Heritage 2013

1. Front Cover

2. Table of contents

3. Science and technology for the conservation of cultural heritage:A European view

4. ACKNOWLEDGMENTS

5. Chapter 1: monitoring of cultural heritag

6. Chapter 2: Environmental risks assessment and preventive conservation strategy for the Pórtico de la Gloria, Santiago de Compostela Cathedral

7. Chapter 3: Basic descriptive statistical methods for monitoring and evaluation of microclimates in Cultural Heritage

8. Chapter 4: Evaluation of environmental conditions of the Museo del Ejército(Toledo, Spain) by means of Sol-Gel optical sensors

9. Chapter 5: Microclimatic assessment and modelling for salt crystallization control in the Crypt of the Duomo of Lecce (South Italy)

10. Chapter 6: Microclimatic studies in Paranhos water galleries, Porto (Portugal)

11. Chapter 7: Bio-susceptibility of thermal insulation systems usedfor historical buildings

12. Chapter 8: Biological crusts contribute to the protection of NeolithicHeritage in the Mediterranean region

13. Chapter 9: The influence of substrate texture on early biological colonization

14. Chapter 10: A methodological approach to evaluate shelter effectiveness for the conservation of archaeological sites

15. Chapter 11: Risks of atmospheric aerosol for cultural heritage assetsin Granada (Spain)

16. Chapter 12: Microclimatic and Ground-Penetrating Radar surveys for damagediagnosis. The case of the Crypt of the Duomo of Lecce (Italy)

17. Chapter 13: Entry and dispersion of microorganisms inside Altamira Cave:New evidences from aerobiological and atmospheric gases surveys

18. Chapter 14: Canonical Biplot as tool to detect microclimates in the inner and outer parts of Salamanca Cathedrals

19. Chapter 15: Polar compounds in diesel soot and historic monument surfaces

20. Chapter 16: The Seville Cathedral altarpiece: A microbiological and chemical survey of the dust

21. Chapter 17: Decay assessment through wireless sensor networks implementation for architectural heritage conservation

22. Chapter 18: Vivianite: A historic blue pigment and its degradation under scrutiny

23. Chapter 19: Stabilization works at Olvés Church (Zaragoza-Spain)

24. Chapter 20: Detrimental rock black fungi and biocides: A study on the Monumental Cemetery of Cagliari

25. Chapter 21: Microbiological and molecular investigation in the Capuchin Catacombs of Palermo, Italy: Microbial deterioration risk

26. Chapter 22: Physical and aesthetical decay of built heritage from biological films developed on joint mortars

27. Chapter 23: Indoor pollution and metal corrosion by organic acids: Case study of the Oteiza Museum (Spain)

28. Chapter 24: The degradation of cellulose acetate: Advanced analytical tools for non-destructive study of design objects

29. Chapter 25: Characterization of decay products and building materials on the ancient wall of Vitoria-Gasteiz using micro analytica

30. Chapter 26: Alterations of materials at the façades of the church of San Pedro de Mezonzo (A Coruña, NW Spain)

31. Chapter 27: Decay of building materials in the Circular Mausoleum, Necropolis of Carmona, Spain

32. Chapter 28: The erosion of granite surfaces: The Cathedral of Évora as example

33. Chapter 29: Study of the long term stability of an industrial polyamide from a contemporary artwork

34. Chapter 30: Study of the corrosion products of the lead blocks from the historical organ Jean Pierre Cavaillé of Vinça, France

35. Chapter 31: Causes of decay of Eduardo Chillida’s Monument to Tolerance in Seville (Spain)

36. Chapter 32: Analysis of heat effects due to fires on calcareous stones

37. Chapter 33: Degradation of plastic artifacts: Case study of a “drafting machine” made of different cellulosic plastics

38. Chapter 34: Evaluation of mural paintings biodeterioration by oxalate formation

39. Chapter 35: Study of the influence of black dyes in the physico-mechanical behaviour of silk fabrics

40. Chapter 36: VARIM 2.0: Non invasive NIR hyperspectral imaging for analysis of cultural beings

41. Chapter 37: Non-invasive recording technologies for the study and conservation of prehistoric rock art: The Dolmen of Dombate

42. Chapter 38: Modern methods of documentation for conservation— digital mapping and automated 3D object documentation in software me

43. Chapter 39: Innovative testing solutions for safeguarding architectural heritage

44. Chapter 40: Assessment of laser treatment on dolostones colonized by microorganisms and lichens

45. Chapter 41: Effect of wavelength and pulse duration on laser cleaning of paints

46. Chapter 42: Pigments and painting preparations of Gonzalo Bilbao analysed by non-destructive XRF technique

47. Chapter 43: A novel approach for micro FTIR reflection absorption analysis of artworks’ surface

48. Chapter 44: Methodology for the study of the walls of the Patio de Santo Tomás, University of Alcalá

49. Chapter 45: The altarpiece of the church of Freixo de Espada-à-Cinta: A study on its artistic materiality

50. Chapter 46: Optically Stimulated Luminescence dating of Roman mortars in Braga (Portugal)

51. Chapter 47: Analytical studies of 19th century photographs by non-destructive techniques

52. Chapter 48: Rheological analysis of some historical and commercial binders labelled as thixotropic in oil painting references

53. Chapter 49: Bricks and mortars from the “Patio de Santo Tomás”, Alcalá University (Madrid, Spain): A combined study of fabric char

54. Chapter 50: Study of alterations on Roman masonry in the Tower of Hercules

55. Chapter 51: The application of non invasive geophysical techniques for the diagnosis and conservation of stone cultural heritage:

56. Chapter 52: Conservation of historic book bindings by means of facsimile reproduction: The Torres Notarial Register (1382–1400) in

57. Chapter 53: Hybrid sol-gel based protective coatings for historical window glasses

58. Chapter 54: Mineralogical and textural considerations in the assessment of aesthetic changes in dolostones by effect of treatments

59. Chapter 55: The Arabic Manuscripts Collection of the School of Arabic Studies-CSIC, Granada: Characterisation of decorative covers

60. Chapter 56: Low-cost airborne ultrasounds scan for Cultural Heritage

61. Chapter 57: Molecular approach for the characterization of ancient/degraded Cyperus sp. specimens

62. Chapter 58: Roman glasses from Augusta Emerita: Study of degradation pathologies using LIBS

63. Chapter 59: Evaluation of the reinforcing action of consolidating treatments applied on cement mortars using the micro-sandblastin

64. Chapter 60: Cachão da Rapa prehistoric rock art paintings revisited: Digital image analysis approach for the assessment of Santos

65. Chapter 61: Benefits of applying spectrometric techniques and chemometric methods to identify interaction between historic paintin

66. Chapter 62: Study of degree of alteration of enamels using Micro-ATR-FTIR and SEM-EDS

67. Chapter 63: Non-chemical methods to control pests in museums: An overview

68. Chapter 64: Novel proteases from marine organisms with potential interest in restoration procedure

69. Chapter 65: Nanostructured materials for stone consolidation in the Temple Valley of Agrigento: In situ evaluation of their effect

70. Chapter 66: Thermodynamic modeling of sulfate-resistant cements with addition of barium compounds

71. Chapter 67: Semi-interpenetrating p(HEMA)/PVP hydrogels for the cleaning of water-sensitive painted artifacts: Assessment on relea

72. Chapter 68: Application of new organic-inorganic materials as consolidants for deteriorated plasters

73. Chapter 69: Consolidation treatments for conservation of concrete sculptures

74. Chapter 70: Thaumasite formation in hydraulic mortars: Thermodynamic studies

75. Chapter 71: Permanent anti-graffiti for artificial construction materials: Lime mortar and brick

76. Chapter 72: Nanostructured products for the conservation of the wooden supports: Evaluation of their effectiveness and durability

77. Chapter 73: Design of new gypsum-lime based mortars applied on the restoration of Mudejar heritage from Aragon (Spain)

78. Chapter 74: Old materials, new solutions

79. Chapter 75: Application of the double layer system as preventive method in the moulding process of sculptures and ornaments

80. Chapter 76: Effectiveness of a new nanostructured consolidant on the biocalcarenite from Agrigento Temples Valley

81. Chapter 77: Technical studies for the restoration of the Immaculate Conception monument, Seville

82. Chapter 78: Materials made from polyolefins used in tasks of preventive conservation: A comparative study of their long-term behav

83. Chapter 79: Critical and technical aspects for safeguarding, enhancing and the recovery of local architectural heritage: An emblem

84. Chapter 80: The protection of the baserri as a system for organising rural landscapes in the context of the urban sprawl processes

85. Chapter 81: A petrological approach to the study of grinding mortars from the Roman gold mines of “Pino del Oro” (Zamora, Spain)

86. Chapter 82: Origin and evolution of the agricultural landscape in Santiago de Compostela from the properties of a polycyclic terra

87. Chapter 83: Possibilities of LASER conservation of metal objects from archaeological context

88. Chapter 84: Geomatics applied to the monitoring of the damage and stability of the heritage

89. Chapter 85: Contribution of GIS and spatial analysis tools in the characterization of surface damage to paintings

90. Chapter 86: Predictive model for the useful lifetime of a set of buildings of the Archdiocese of Seville

91. Chapter 87: Risk analysis in Historical cities: The cases of Carmona and Estepa (Seville, Spain)

92. Chapter 88: The MHS system as an active tool for the preventive conservation of Cultural Heritage

93. Chapter 89: Significance and social value of Cultural Heritage: Analyzing the fractures of Heritage

94. Chapter 90: CSI: Sittingbourne: Conservation science investigations in a town center shopping mall

95. Chapter 91: Neomudéjar Architecture in Seville: Urban and social background, interventions in the Patio House (1880–1930)

96. Chapter 92: Iron Age goldwork as Cultural Heritage: Building strategies for its research, conservation and social valuation in NW

97. Chapter 93: Las Médulas: The social appraisal of a cultural landscape

98. Chapter 94: Documenting the architectonic heritage: The best way of preserving it

99. Chapter 95: Quantitative research underpins heritage management: Preserving ferrous metals

100. Chapter 96: New protocols for built heritage protection in the Basque Country: Towards an automatic analysis tool for built herita

101. Chapter 97: Review of restoration interventions: Effects on the Roman archaeological site of Merida (Spain)

102. Back Cover