Eco-Concrete in High Temperatures
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[1] Y. Chun,et al. Experimental investigation of the strength of fire-damaged concrete depending on admixture contents , 2023, Construction and Building Materials.
[2] Dr.Bupesh Raja V.K.,et al. Recent applications of steel slag in construction industry , 2023, Environment, Development and Sustainability.
[3] H. Hardjasaputra,et al. Compressive Strength Study based on Fly Ash Geopolymer Concrete at the age of 28 days under very High Temperature , 2023, Journal of Physics: Conference Series.
[4] V. Toufigh,et al. Performance evaluation of slag-based concrete at elevated temperatures by a novel machine learning approach , 2022, Construction and Building Materials.
[5] T. Robl,et al. Production of α′H-belite-CSA cement at low firing temperatures , 2022, Cement and Concrete Composites.
[6] Malik Muneeb Abid,et al. An Investigation of Mechanical Properties of Fly Ash Based Geopolymer and Glass Fibers Concrete , 2022, Sustainability.
[7] Sandra Pereira,et al. Fire resistance characteristics of geopolymer concrete for environmental sustainability: a review of thermal, mechanical and microstructure properties , 2022, Environment, Development and Sustainability.
[8] M. Amran,et al. Fire spalling behavior of high-strength concrete: A critical review , 2022, Construction and Building Materials.
[9] S. Guler,et al. Effect of high-temperature on the behavior of single and hybrid glass and basalt fiber added geopolymer cement mortars , 2022, Journal of Building Engineering.
[10] T. Tadepalli,et al. Surface Imaging Based Non-destructive Assessment of Concrete Deterioration using Hue-Saturation-Intensity Colour Space , 2022, Measurement.
[11] H. Hema,et al. Integrated assessment of granite and basalt rocks as building materials , 2022, Materials Today: Proceedings.
[12] Yu-Hang Wang,et al. Post‐fire behavior of steel slag fine aggregate concrete , 2022, Structural Concrete.
[13] Q. Yu,et al. Thermal and fire resistance of Class F fly ash based geopolymers – A review , 2022, Construction and Building Materials.
[14] Ominda Nanayakkara,et al. Colour Change of Sustainable Concrete Containing Waste Ceramic and Hybrid Fibre: Effect of Temperature , 2022, Materials.
[15] N. Shafiq,et al. Fire-Exposed Fly-Ash-Based Geopolymer Concrete: Effects of Burning Temperature on Mechanical and Microstructural Properties , 2022, Materials.
[16] M. Amran,et al. Fire resistance of geopolymer concrete: A critical review , 2022, Construction and Building Materials.
[17] Bassam A. Tayeh,et al. Potential applications of geopolymer concrete in construction: A review , 2021, Case Studies in Construction Materials.
[18] Hisham Alabduljabbar,et al. A comprehensive review on fire damage assessment of reinforced concrete structures , 2021, Case Studies in Construction Materials.
[19] N. Shafiq,et al. Fire Performance of Fly Ash-Based Geopolymer Concrete: Effect of Burning Temperature , 2021, IOP Conference Series: Earth and Environmental Science.
[20] Long Yu,et al. Incorporating steel slag in the production of high heat resistant FA based geopolymer paste via pressure molding , 2021, Journal of Cleaner Production.
[21] I. Hager,et al. Fly-ash based geopolymer mortar for high-temperature application – Effect of slag addition , 2021 .
[22] S. Tangaramvong,et al. Pre- and post-fire mechanical performances of high calcium fly ash geopolymer concrete containing granite waste , 2021, Journal of Building Engineering.
[23] K. Al-Jabri,et al. Characteristics of ferrochrome slag aggregate and its uses as a green material in concrete – A review , 2021 .
[24] H. Fazli,et al. Effect of Size of Coarse Aggregate on Mechanical Properties of Metakaolin-Based Geopolymer Concrete and Ordinary Concrete , 2021, Materials.
[25] Hongye Gou,et al. Unfired bricks prepared with red mud and calcium sulfoaluminate cement: Properties and environmental impact , 2021 .
[26] Tiejun Liu,et al. Pore pressure build-up and explosive spalling in concrete at elevated temperature: A review , 2021 .
[27] P. Monteiro,et al. Investigation of the Mechanical and Durability Properties of Sustainable High Performance Concrete Based on Calcium Sulfoaluminate Cement , 2021 .
[28] Dashan Zhang,et al. A large-scale fire test of an immersed tunnel under the protection of fire resistive coating , 2021 .
[29] K. A. Sambowo,et al. Furnace temperature of coffee grounds as organic waste-based cementitious material in concrete , 2021 .
[30] Eskinder Desta Shumuye,et al. Effect of the Curing Condition and High-Temperature Exposure on Ground-Granulated Blast-Furnace Slag Cement Concrete , 2021, International Journal of Concrete Structures and Materials.
[31] C. Qian,et al. Exploring the coupled mechanism of fibers and bacteria on self-healing concrete from bacterial extracellular polymeric substances (EPS) , 2021 .
[32] A. Rashad,et al. A review on alkali-activated slag concrete , 2021 .
[33] P. Chindaprasirt,et al. Changes in compressive strength, microstructure and magnetic properties of a high-calcium fly ash geopolymer subjected to high temperatures , 2020 .
[34] T. Almusallam,et al. Characteristics of metakaolin-based geopolymer concrete for different mix design parameters , 2020, Journal of Materials Research and Technology.
[35] M. A. Kadir,et al. A review of properties of bio-fibrous concrete exposed to elevated temperatures , 2020 .
[36] J. Brito,et al. Evaluation of high-performance self-compacting concrete using alternative materials and exposed to elevated temperatures by non-destructive testing , 2020 .
[37] Ł. Kaczmarek,et al. Fire-Temperature Influence on Portland and Calcium Sulfoaluminate Blend Composites , 2020, Materials.
[38] Shaowei Hu,et al. Properties of fresh and hardened fly ash/slag based geopolymer concrete: A review , 2020 .
[39] J. Ahmad,et al. A Study on Mechanical and Durability Aspects of Concrete Modified with Steel Fibers (SFs) , 2020 .
[40] J. Wróblewska,et al. Assessing concrete strength in fire-damaged structures , 2020 .
[41] Y. Al-Salloum,et al. Bond strength between concrete substrate and metakaolin geopolymer repair mortars at ambient and elevated temperatures , 2020 .
[42] Q. Yuan,et al. Durability of ultra-high performance concrete – A review , 2020, Construction and Building Materials.
[43] Syed Safdar Raza,et al. Influence of different fibers on mechanical and durability performance of concrete with silica fume , 2020, Structural Concrete.
[44] J. J. Martín-del-Río,et al. Physical-mechanical behaviour and transformations at high temperature in a cement mortar with waste glass as aggregate , 2020 .
[45] P. Chindaprasirt,et al. Influence of rice husk ash on mechanical properties and fire resistance of recycled aggregate high-calcium fly ash geopolymer concrete , 2020 .
[46] L. C. Hiep,et al. Mechanical properties of geopolymer foam at high temperature , 2020 .
[47] K. Tan,et al. A critical review of geopolymer properties for structural fire-resistance applications , 2019, Construction and Building Materials.
[48] Hans Hedlund,et al. Autogenous Self-Healing: A Better Solution for Concrete , 2019, Journal of Materials in Civil Engineering.
[49] Eskinder Desta Shumuye,et al. Effect of fire exposure on physico-mechanical and microstructural properties of concrete containing high volume slag cement , 2019, Construction and Building Materials.
[50] S. Samal. Effect of high temperature on the microstructural evolution of fiber reinforced geopolymer composite , 2019, Heliyon.
[51] YaChao Wang,et al. Facile preparation of slag or fly ash geopolymer composite coatings with flame resistance , 2019, Construction and Building Materials.
[52] F. Goetz-Neunhoeffer,et al. Mechanisms of early ettringite formation in ternary CSA–OPC–anhydrite systems , 2019, Advances in Cement Research.
[53] Ali Naqi,et al. Recent Progress in Green Cement Technology Utilizing Low-Carbon Emission Fuels and Raw Materials: A Review , 2019, Sustainability.
[54] G. E. Scarponi,et al. Alkali activated lightweight mortars for passive fire protection: A preliminary study , 2019, Construction and Building Materials.
[55] O. Brooker. Eurocode 2: Design of concrete structures , 2018, Design of Structural Elements.
[56] D. Vaičiukynienė,et al. Effect of phosphogypsum on the stability upon firing treatment of alkali-activated slag , 2018, Construction and Building Materials.
[57] I. N. Grubeša,et al. Effect of hemp fibers on fire resistance of concrete , 2018, Construction and Building Materials.
[58] P. Chindaprasirt,et al. Fire-resistant geopolymer bricks synthesized from high-calcium fly ash with outdoor heat exposure , 2018, Clean Technologies and Environmental Policy.
[59] Mohamed H. Mussa,et al. Dynamic Properties of High Volume Fly Ash Nanosilica (HVFANS) Concrete Subjected to Combined Effect of High Strain Rate and Temperature , 2018 .
[60] N. Phuc,et al. Development of heat resistant geopolymer-based materials from red mud and rice husk ash , 2018 .
[61] Wei Wang,et al. An investigation on thermal conductivity of fly ash concrete after elevated temperature exposure , 2017 .
[62] Rafat Siddique,et al. Sulfuric acid resistance of fly ash based geopolymer concrete , 2017 .
[63] M. Madhkhan,et al. Effect of ground granulated blast furnace slag (GGBFS) on RCCP durability , 2017 .
[64] Ping Duan,et al. Compressive strength and microstructure of fly ash based geopolymer blended with silica fume under thermal cycle , 2017 .
[65] Di Wu,et al. A coupled thermal-hydraulic-mechanical application for subway tunnel , 2017 .
[66] C. Leiva,et al. Behaviour of Fly Ash-Based Geopolymer Panels Under Fire , 2017 .
[67] Shuangxin Li,et al. An investigation into the thermal conductivity of hydrating sprayed concrete , 2016 .
[68] M. Maras,et al. Fire resistance of geopolymer concrete produced from Elazığ ferrochrome slag , 2016 .
[69] P. Pimienta,et al. Fire Spalling Behaviour of Concrete: Role of Mechanical Loading (Uniaxial and Biaxial) and Cement Type , 2016 .
[70] I. Hager,et al. The influence of aggregate type on the physical and mechanical properties of high‐performance concrete subjected to high temperature , 2016 .
[71] Z. Tao,et al. Performance of concrete made with steel slag and waste glass , 2016 .
[72] Mark F. Green,et al. Influence of recycled coarse aggregates on normal and high performance concrete subjected to elevated temperatures , 2016 .
[73] Waltraud M. Kriven,et al. Properties of Geopolymer Composites Reinforced with Basalt Chopped Strand Mat or Woven Fabric , 2016 .
[74] S. Iffat. Relation Between Density and Compressive Strength of Hardened Concrete , 2015 .
[75] Yunping Xi,et al. Mesoscale model for thermal conductivity of concrete , 2015 .
[76] K. Vallons,et al. Correlation of microstructure and mechanical properties of various fabric reinforced geo-polymer composites after exposure to elevated temperature , 2015 .
[77] Togay Ozbakkaloglu,et al. Mechanical and durability properties of high-strength concrete containing steel and polypropylene fibers , 2015 .
[78] M. S. Khan,et al. Effect of elevated temperature on the behavior of high volume fly ash concrete , 2015 .
[79] Prabir Sarker,et al. Fire endurance of steel reinforced fly ash geopolymer concrete elements , 2015 .
[80] Paramita Mondal,et al. Influence of Calcium Sulfoaluminate (CSA) Cement Content on Expansion and Hydration Behavior of Various Ordinary Portland Cement‐CSA Blends , 2015 .
[81] N. Abdullah,et al. Thermal durability of OPC pastes admixed with nano iron oxide , 2015 .
[82] W. Rickard,et al. The effect of organic and inorganic fibres on the mechanical and thermal properties of aluminate activated geopolymers , 2015 .
[83] Bhupinder Singh,et al. Geopolymer concrete: A review of some recent developments , 2015 .
[84] Qi Liu,et al. Geopolymerization and Its Potential Application in Mine Tailings Consolidation: A Review , 2015 .
[85] A. Rashad. An investigation of high-volume fly ash concrete blended with slag subjected to elevated temperatures , 2015 .
[86] Faiz Shaikh,et al. Compressive strength of fly‐ash‐based geopolymer concrete at elevated temperatures , 2015 .
[87] P. Samaras,et al. Contribution to the Sustainable Management of Resources by Novel Combination of Industrial Solid Residues into Red Ceramics , 2015, Bulletin of Environmental Contamination and Toxicology.
[88] A. Awal,et al. Performance evaluation of concrete containing high volume palm oil fuel ash exposed to elevated temperature , 2015 .
[89] P. Sarker,et al. Effect of fire exposure on cracking, spalling and residual strength of fly ash geopolymer concrete , 2014 .
[90] A. Beaucour,et al. Influence of chemical and mineralogical composition of concrete aggregates on their behaviour at elevated temperature , 2014 .
[91] Mark G. Richardson,et al. Heat Transfer Characteristics of GGBS Concrete in Fire , 2014 .
[92] Mohd Zamin Jumaat,et al. Compressive strength and microstructural analysis of fly ash/palm oil fuel ash based geopolymer mortar under elevated temperatures , 2014 .
[93] M. Nuruddin,et al. Effects of Geopolymer Concrete Fly Ash Based on Alkali Silica Reaction (ASR) , 2014 .
[94] O. Gencel,et al. Neutron Radiation Tests about FeCr Slag and Natural Zeolite Loaded Brick Samples , 2014 .
[95] J. Sanjayan,et al. Effect of transient creep on compressive strength of geopolymer concrete for elevated temperature exposure , 2014 .
[96] Omar A. Abdulkareem,et al. Effects of elevated temperatures on the thermal behavior and mechanical performance of fly ash geopolymer paste, mortar and lightweight concrete , 2014 .
[97] Mucahit Sutcu,et al. Properties of bricks with waste ferrochromium slag and zeolite , 2013 .
[98] Ahmet B. Kizilkanat,et al. Thermo-physical properties of concrete exposed to high temperature , 2013 .
[99] H. Monajatizadeh,et al. INVESTIGATION OF MECHANICAL PROPERTIES OF LITHIUM-BASED GEOPOLYMER COMPOSITES REINFORCED WITH BASALT FIBERS , 2013 .
[100] M. S. Khan,et al. Effect of High Temperature on High-Volume Fly Ash Concrete , 2013 .
[101] Vahid Zanjani Zadeh,et al. Nanoscale mechanical properties of concrete containing blast furnace slag and fly ash before and after thermal damage , 2013 .
[102] W. Rickard,et al. Performance of fibre reinforced, low density metakaolin geopolymers under simulated fire conditions , 2013 .
[103] Chiara Leonardi,et al. Modifications induced by the thermal treatment of kaolin and determination of reactivity of metakaolin , 2013 .
[104] Hehua Zhu,et al. Full-scale fire tests of RC metro shield TBM tunnel linings , 2012 .
[105] H. Kamarudin,et al. Effect of Na2SiO3/NaOH Ratios and NaOH Molarities on Compressive Strength of Fly-Ash-Based Geopolymer , 2012 .
[106] Á. Palomo,et al. Alkaline solution/binder ratio as a determining factor in the alkaline activation of aluminosilicates , 2012 .
[107] Jadambaa Temuujin,et al. Thermal analysis of geopolymer pastes synthesised from five fly ashes of variable composition , 2012 .
[108] Susan A. Bernal,et al. Performance of refractory aluminosilicate particle/fiber-reinforced geopolymer composites , 2012 .
[109] P. Basheer,et al. Chemical and Mechanical Stability of Sodium Sulfate Activated Slag after Exposure to Elevated Temperature , 2012 .
[110] P. Louda,et al. New Generation of Geopolymer Composite for Fire-Resistance , 2011 .
[111] Ronan Hébert,et al. Influence of the nature of aggregates on the behaviour of concrete subjected to elevated temperature , 2011 .
[112] Jay G. Sanjayan,et al. Geopolymer and Portland cement concretes in simulated fire , 2011 .
[113] Alaa M. Rashad,et al. Effect of elevated temperature on physico-mechanical properties of blended cement concrete , 2011 .
[114] M. Peltz,et al. Thermal properties of high-volume fly ash mortars and concretes , 2011 .
[115] Zhaohui Huang,et al. The behaviour of reinforced concrete slabs in fire , 2010 .
[116] B. Lothenbach,et al. Hydration of calcium sulfoaluminate cements — Experimental findings and thermodynamic modelling , 2010 .
[117] Ali Nadjai,et al. Numerical and experimental investigation of the behavior of high strength concrete columns in fire , 2010 .
[118] Xintao Xia,et al. Evaluation of Potential for Developing Renewable Sources of Energy to Facilitate Development in Developing Countries , 2010, 2010 Asia-Pacific Power and Energy Engineering Conference.
[119] Jay G. Sanjayan,et al. Effect of elevated temperatures on geopolymer paste, mortar and concrete , 2010 .
[120] Warren A. Dick,et al. Compressive strength and microstructural characteristics of class C fly ash geopolymer , 2010 .
[121] Jay G. Sanjayan,et al. Test method for concrete spalling using small electric furnace , 2009 .
[122] J. Sanjayan,et al. Behavior of combined fly ash/slag‐based geopolymers when exposed to high temperatures , 2009 .
[123] M. L. Berndt,et al. Properties of sustainable concrete containing fly ash, slag and recycled concrete aggregate , 2009 .
[124] H. Colina,et al. The influence of aggregates on the mechanical characteristics of concrete exposed to fire , 2009 .
[125] Joongwon Lee,et al. Color and Material Property Changes in Concrete Exposed to High Temperatures , 2009 .
[126] Haukur Ingason,et al. Design fire curves for tunnels , 2009 .
[127] Jay G. Sanjayan,et al. Damage behavior of geopolymer composites exposed to elevated temperatures , 2008 .
[128] Kwesi Sagoe-Crentsil,et al. Factors affecting the performance of metakaolin geopolymers exposed to elevated temperatures , 2008 .
[129] Grant C. Lukey,et al. The thermal evolution of metakaolin geopolymers: Part 2 – Phase stability and structural development , 2007 .
[130] Ulf Wickström,et al. Effect of specimen size and loading conditions on spalling of concrete , 2007 .
[131] R. Kowalski. The effects of the cooling rate on the residual properties of heated-up concrete , 2007 .
[132] M. Domański,et al. A Review of Heat Treatment Research , 2007 .
[133] Khandaker M. A. Hossain,et al. HIGH STRENGTH BLENDED CEMENT CONCRETE INCORPORATING VOLCANIC ASH: PERFORMANCE AT HIGH TEMPERATURES , 2006 .
[134] T. Bakharev,et al. Thermal behaviour of geopolymers prepared using class F fly ash and elevated temperature curing , 2006 .
[135] Long-yuan Li,et al. Stress-strain constitutive equations of concrete material at elevated temperatures , 2005 .
[136] R. Kowalski,et al. The influence of short time water cooling on the mechanical properties of concrete heated up to high temperature , 2005 .
[137] B. Georgali,et al. Microstructure of fire-damaged concrete. A case study , 2005 .
[138] Ali Nadjai,et al. Outcomes of a major research on fire resistance of concrete columns , 2004 .
[139] Rami H. Haddad,et al. Post-fire behavior of bond between high strength pozzolanic concrete and reinforcing steel , 2004 .
[140] B. Gupta,et al. A simple approach to analyse the thermal expansion in minerals under the effect of high temperature , 2003 .
[141] P. Aitcin. The durability characteristics of high performance concrete: a review , 2003 .
[142] T. Cheng,et al. Fire-resistant geopolymer produced by granulated blast furnace slag , 2003 .
[143] Jin-keun Kim,et al. An experimental study on thermal conductivity of concrete , 2003 .
[144] Kenneth J. D. MacKenzie,et al. Thermal behaviour of inorganic geopolymers and composites derived from sodium polysialate , 2003 .
[145] Salman Azhar,et al. Comparison of the strength and durability performance of normal- and high-strength pozzolanic concretes at elevated temperatures , 2001 .
[146] J. A. Purkiss,et al. ASSESSMENT OF FIRE DAMAGED CONCRETE USING COLOUR IMAGE ANALYSIS , 2001 .
[147] Mohamed Heikal. Effect of temperature on the physico-mechanical and mineralogical properties of Homra pozzolanic cement pastes , 2000 .
[148] G. Khoury. Effect of fire on concrete and concrete structures , 2000 .
[149] Wei Sun,et al. Effect of heating and cooling regimes on residual strength and microstructure of normal strength and high-performance concrete , 2000 .
[150] R. Swamy,et al. The Alkali-silica reaction in concrete , 1998 .
[151] P. L. Pratt,et al. Alkali-activated slag cement and concrete: a review of properties and problems , 1995 .
[152] Luc Taerwe,et al. General hydration model for portland cement and blast furnace slag cement , 1995 .
[153] J. Boland,et al. MECHANICAL PROPERTIES OF STONE ARTEFACT MATERIALS AND THE EFFECT OF HEAT TREATMENT , 1994 .
[154] M. Domański,et al. Effect of heat treatment on Siliceous rocks used in prehistoric lithic technology , 1992 .
[155] D. J. O'Connor,et al. A strategy for the fire testing of reduced scale structural models , 1992 .
[156] S. Gustafsson. Transient plane source techniques for thermal conductivity and thermal diffusivity measurements of solid materials , 1991 .
[157] J. Davidovits. Geopolymers and geopolymeric materials , 1989 .
[158] G. Mohamedbhai. Effect of exposure time and rates of heating and cooling on residual strength of heated concrete , 1986 .
[159] G. Moore. The α-β inversion in quartz and the effects of structural damage , 1986 .
[160] W. H. Parsons,et al. Thermal expansion of concrete aggregate materials , 1944 .
[161] Mohamed H. Mussa,et al. Fire simulation of RC slab inclusion with nano-silica and high volume fly ash , 2022, 3RD INTERNATIONAL CONFERENCE ON ENERGY AND POWER, ICEP2021.
[162] M. Oumam,et al. Microstructure and flexural performances of glass fibers reinforced phosphate sludge based geopolymers at elevated temperatures , 2022, Case Studies in Construction Materials.
[163] George Mathew,et al. Flexural behaviour of geopolymer concrete beams exposed to elevated temperatures , 2018 .
[164] W. Rickard,et al. Intumescent geopolymer-bound coatings for fire protection of steel , 2017 .
[165] Jay G. Sanjayan,et al. Thermal and mechanical properties of sustainable lightweight strain hardening geopolymer composites , 2017 .
[166] Kae‐Long Lin,et al. Performance and microstructure characteristics of the fly ash and residual rice husk ash‐based geopolymers prepared at various solid‐to‐liquid ratios and curing temperatures , 2017 .
[167] H. Yong,et al. Manufacturing of Fire Resistance Geopolymer: A Review , 2016 .
[168] William D.A. Rickard,et al. Thermal Properties of Geopolymers , 2015 .
[169] M. Schmücker,et al. Evolution of the Fibre-Matrix Interactions in Basalt-Fibre-Reinforced Geopolymer-Matrix Composites after Heating , 2015 .
[170] A. Ede,et al. EFFECTS OF COCONUT HUSK FIBRE AND POLYPROPYLENE FIBRE ON FIRERESISTANCE OF CONCRETE , 2015 .
[171] Roman Lackner,et al. Underground concrete frame structures subjected to fire loading: Part I – Large-scale fire tests , 2014 .
[172] J. Ožbolt,et al. 3D numerical analysis of reinforced concrete beams exposed to elevated temperature , 2014 .
[173] J. Kumar,et al. Rice Husk Ash Based Geopolymer Concrete - A Review , 2014 .
[174] P. Pimienta,et al. Effect of compressive loading on the risk of spalling , 2013 .
[175] Maria Chiara Bignozzi,et al. High temperature behaviour of ambient cured alkali-activated materials based on ladle slag , 2013 .
[176] J. Sanjayan,et al. Effects of slag and cooling method on the progressive deterioration of concrete after exposure to elevated temperatures as in a fire event , 2011 .
[177] Natalie Lloyd,et al. Geopolymer Concrete with Fly Ash , 2010 .
[178] William D.A. Rickard,et al. Thermal Character of Geopolymers Synthesized from Class F Fly Ash Containing High Concentrations of Iron and α-Quartz , 2010 .
[179] B. Rangan,et al. DEVELOPMENT AND PROPERTIES OF LOW-CALCIUM FLY ASH-BASED GEOPOLYMER CONCRETE , 2005 .
[180] R. P. Johnson,et al. General rules and rules for buildings , 2004 .
[181] Per Thureson,et al. European fire classification of construction products , 2004 .
[182] Richard E. Lyon,et al. FIRE RESPONSE OF GEOPOLYMER STRUCTURAL COMPOSITES , 1996 .
[183] Torgrim Log,et al. Transient plane source (TPS) technique for measuring thermal transport properties of building materials , 1995 .
[184] Ayman Y. Nassif,et al. A new quantitative method of assessing fire damage to concrete structures , 1995 .
[185] C. Castillo,et al. Effect of transient high temperature on high-strength concrete , 1990 .
[186] T. Price,et al. Thermal Alteration in Mesolithic Assemblages , 1982, Proceedings of the Prehistoric Society.
[187] L. Glasser,et al. The chemistry of ‘alkali-aggregate’ reaction , 1981 .