Evaluation of the Injana claystone from Central Iraq for the brick industry

Authors

  • Salih M. Awadh University of Baghdad
  • Ali M. Awad University of Baghdad

DOI:

https://doi.org/10.48129/kjs.v48i2.9006

Keywords:

Bricks, Compressive strength, Geotechnical evaluation, Injana Formation claystone.

Abstract

The aim of this study is to suggest an ancient clay for the manufacturing bricks as an alternative to the recent clays that are considered as agricultural lands. The Late Miocene claystone bed in the Injana Formation at middle of Iraq was targeted through 18 exposed sections that were sampled by using the trench sampling method. The samples are characterized by mineralogy dominated by quartz (36.4%) followed by calcite (32.8%), feldspar (2.6%), gypsum (0.9%) and dolomite (0.7%) in addition to non-clay minerals composed of kaolinite (10.1%), illite (7.7%), chlorite (6.7%), palygorskite (6.0%) and montmorillonite (1.2%). New Thermal mineral phases were formed at 950°C include diopside (35.6%), quartz (21.6%), wollastonite (11.4%), akermanite (11.1%), and gehlenite (2.3%). The engineering tests of the raw material showed the plasticity according to the Atterberg limits varies from low to high, low volumetric and linear shrinkage during drying and firing with a temperature at 950°C. The raw material produced bricks with 156 kg/cm2 uniaxial compressive strength, 23.4% water absorption and nil to low efflorescence. The results indicate the success of the Late Miocene clay in the manufacture of bricks for medium to high quality within the A and B category based on the Iraqi standard specification No.25 in 1993.

Author Biographies

Salih M. Awadh, University of Baghdad

University of Baghdad, College of Science, Department of geology, Prof.

 

Ali M. Awad, University of Baghdad

University of Baghdad, College of Science, Department of geology, lecturer.

References

References

Ali, M.H., Hijab, B.R. and Al-Jahsar, S.H. (1990) Engineering geology. Dar Al-kutb for publication, Al-Mousel University (Arabic), p.576.

Al-Qazaz, D., Boles, Q.M., Jabori, W.M. and Noor Al-Dein (2005) Reevaluation of the soil suitable for mud industry, Al-Sowera brick factory. The State Company of Geological Survey and Mining. Internal report (Arabic), p.18.

ASRM (2017) Australian Standards Relevant to Masonry. Brick technical manual-BBP. Style. Version2, Sydney Australia, p.84.

Awadh, S.M., Al-Bahadily, H.A. and Al-Ankaz, Z.S. (2018) Interpreting the tectonics of the Abu Jir Fault, Karbala – Najaf plateau using mineralogical and geophysical data. Iraqi Bulletin of Geology and Mining,14 (1):47- 63.

Awadh, S.M. and Abdullah, H.H. (2009) Mineralogical, geochemical, and geotechnical evaluation of Al-Sowera soil for the building brick industry in Iraq. Arabian Journal of Geosciences, 4:413-419.

Awadh, S.M. and Aboud, Z.S. (2013) Chemical and physical control processes on the development of caves in the Injana Formation, Central Iraq. Arabian Journal of Geosciences, 6:3765–3772.

ASTM D 4318-05 (2005) Standard Test Method for liquid limit, Plastic limit and Plasticity Index of Soils. ASTM International, West Conshohocken, PA, USA.

ASTM D422-63 e2 (2007) Standard Test Method for Particle – Size Analysis of Soils. ASTM International, West Conshohocken, PA, USA.

Baccoura, H., Medhioub, M., Jamoussi, F., Mhiri, T. and Daoud, A. (2008) Mineralogical evaluation and industrial applications of the Triassic clay deposits, Southern Tunisia. Materials Characterization Journal,59:1613-1622.

Bain, J.A. (1974) Scientific Method in the Laboratory Assessment of Industrial Materials 1st Industrial Mineral Congress, London.

Casagrande, A. 1947. Plasticity chart for the classification of cohesive soils. Trans. Am. Soc. Civ. Eng. P.783–811.

Duggal, S.K. (2008) Building Materials. Third edition. New age international publishers, New Delhi.

El Ouahabi, M., El Boudour, H., El Idrissia, B., Daoudib, L., El Halima, M. and Fagela, N. (2019) Moroccan clay deposits: Physico-chemical properties in view of provenance studies on ancient ceramics. Journal of Applied Clay Science,172:65-74.

Grim, R.E. (1962) Clay mineralogy. International series in the earth planetary sciences. McGraw-Hill, London, p.422.

Hassan, K.M. (2007) Stratigraphy of Karbala – Najaf area, Central Iraq. Iraqi Bulletin of Geology and Mining,3 (2):53–62.

Hassan, K.M. and Al-Khateeb, A. (2005) Piping and cave forming claystone Injana formation, Karbala-Najaf area. Iraqi Geological Journal,38(1):153–162.

Hibbard, M.J. (2002) Mineralogy; a geologist point of view .Mc Graw AW com. (ed.) New York N.Y, p. 562.

Ismail, N.R. and Omar, H.M. (2014) Assessment of some clay deposits from Fatha Formation (M. Miocene) for brick manufacturing in Koya area, NE Iraq. The Scientific Journal of Koya University,2 (1):16-22.

Iraqi Standard Specification No. 25 for the year (1993) Clay Bricks (the other) Central apparatus for quality Inspections and control, Baghdad, Iraq. (In Arabic)

Jassim, S.Z. and Goff, J.C. (2006) Geology of Iraq. Dolin ‘Prague and Moravian Museum Brno. (pub.), p.525.

Keystone (2003) Silt/ Clay Soils- Atterberg Limits. Keystone Retaining Wall System.

Klein, C. (2002) The manual of mineral science, 22nd ed. New York: John Wiley & Sons.

Maala, K., Sood, Q., Khames, D., Jabo, B., Al-Saade, N. and Khadhum, M. (2007) Laboratory assessment for utilization of Neogene mudstones in manufacturing of building bricks. Iraqi Bulletin of Geology and Mining,3(2):1-15.

Merza, T.A. and Mohyaadldin, M. (2005) Manufacture of brick tiles from local raw materials, N & NE Iraq. Zankoy Sulaimani Journal, 8(1):31- 45.

Mezencevova, A., Yeboah, N.N., Burns, S.E., Kahn, L.F. and Kurtis, K.E. (2012) Utilization of Savannah Harbor river sediment as the primary raw material in production of fired brick. Journal of Environmental Management,8 (30):128- 136.

Monterio, S.N. and Vieira, C.M. (2004) Influence of firing temperature on the ceramic properties of clays from Campos dos Goytacazes, Brazil. Journal of Appl. Clay Sci., 27:229–234.

Nkalih, A.M., Pilate, P., Yongue, R.F., Njoya, A. and Fagel, N. (2018) Suitability of Foumban Clays (West Cameroon) for Production of Bricks and Tiles. Journal of Minerals and Materials Characterization and Engineering, 6:244-256.

Punmia, B.C., Jain, A.K. and Jain, A.K. (2003) Comprehensive basic engineering.

Rathossi, C. and Pontikes, Y. (2010) Effect of firing temperature and atmosphere on ceramics made of NW Peloponnese clay sediments: part II. Chemistry of pyro metamorphic minerals and comparison with ancient ceramics. J. Eur. Ceram. Soc., 30:1853–1866.

Rguibi, Y.E. (2017) Eco-friendly fired clay bricks, bachelor thesis, Al-akhawayn University, School of science & engineering.

Šál, J. (2019) Testing of brick clay modifications as a raw material for building ceramic products. Published by EDP Sciences. MATEC Web of Conferences, 279:22-28.

Sissakian, V.K., Abdul Jab’bar, M.F., Al-Ansari, N.A. and Knutson, S. (2015) The Origin of Tar Al-Sayyed and Tar Al-Najaf, Karbala-Najaf Vicinity, Central Iraq. Publ. by Journal of Civil Engineering and Architecture, 9:446-459.

Sonbul, A.R. and Abu Seif1, E.S. (2019) Geotechnical performance of sandy bricks made with fine aggregates of sand dunes, Saudi Arabia. Arabian Journal of Geosciences, p.126-166.

Topolinski, S. (2019) Unconfined Compressive Strength Properties of a Cement- Organic Soil

Composite. Published by IOP Publishing Ltd. Journal of Materials Science and Engineering, 471:1080-1088.

Trindade, M., Dias, M., Coroado, J. and Rocha, F. (2009) Mineralogical transformations of calcareous rich clays with firing: a comparative study between calcite and dolomite rich clays from Algarve, Portugal. Appl. Clay Sci., 42:345–355.

Vieira, C.M., Silva, P.R., Silva, F.T., Capitaneo, J.L. and Monteiro, S.N. (2005) Microstructural evaluation and properties of a ceramic body for extruded floor tile, Revista Material,10 (4):526-536.

Published

05-04-2021

Issue

Section

Earth & Environment