Verified email at srecwarangal.ac.in
Professor and Head-Department of Civil Engineering
SR University, Telangana, India
Dr.R.Gobinath is presently serving as Professor and Head of the Department, Civil Engineering of SR University, Telangana, India and also a member of Center for Construction Materials and Methods division. He completed his PhD in the field of Environmental Geotechnology and Disaster Management from Center for Disaster Management and Mitigation, VIT, Vellore, M.E in Environmental Management from College of Engineering, Guindy, Anna University and BE in Civil engineering from Bharathiar University. He had handled several under graduate course in Civil and Environmental engineering including Project management, smart materials and structures, Geosynthetics, Engineering Mechanics etc and also presently handling elective courses related to Disaster Management and Intellectual Property rights in various Universities.
His research interests includes Sustainable materials, Construction Materials, Landslide mitigation and Management, Soil Bioengineering, Engineering Education, Geotechnology, Environmental Geotechnology, Sustainable Development, Sustainable construction technologies, he had handled several projects related to this domains in various levels. He also had executed good number of consultancy projects related to Geotechnical and environmental engineering for various organisations.
B.E- Civil Engineering (2001), Bharathiar University
M.E- Environmental Management (2007), College of Engineering, Guindy, Anna University
PhD ( Environmental Geotechnology), VIT University, Vellore, India
Sustainable materials, Construction Materials, Landslide mitigation and Management, Soil Bioengineering, Engineering Education, Geotechnology, Environmental Geotechnology, Sustainable Development, Sustainable construction technologies, Image processing, Machine Learning applications in Civil Enginee
This project work involves obtaining sustainable construction materials without depleting the natural resources and by using non convetional material development techniques. It involves lot of analysis, simulation based works and the work is initiated under the aegies of Center for Construction Methdos and Materials of SR University
Scopus Publications
Scholar Citations
Scholar h-index
Scholar i10-index
P. Murthi, K. Poongodi, and R. Gobinath
Lecture Notes in Civil Engineering, ISSN: 23662557, eISSN: 23662565, Pages: 1-11, Published: 2021
Springer Singapore
P Murthi, K Poongodi, and R Gobinath
IOP Conference Series: Materials Science and Engineering, ISSN: 17578981, eISSN: 1757899X, Volume: 1006, Published: 24 December 2020
IOP Publishing
J Anne Mary, R Gobinath, G Shyamala, and K Rajesh Chary
IOP Conference Series: Materials Science and Engineering, ISSN: 17578981, eISSN: 1757899X, Volume: 981, Published: 4 December 2020
IOP Publishing
G Shyamala, R Gobinath, Pushpalatha Sarla, and Manisha Shewale
IOP Conference Series: Materials Science and Engineering, ISSN: 17578981, eISSN: 1757899X, Volume: 981, Published: 4 December 2020
IOP Publishing
R Archana Reddy, R Gobinath, Chilupuri Saloni Khanna, and g Shyamala
IOP Conference Series: Materials Science and Engineering, ISSN: 17578981, eISSN: 1757899X, Volume: 981, Published: 4 December 2020
IOP Publishing
R Gobinath, V Mahesh, G. Shyamala, and Adla Rajesh
IOP Conference Series: Materials Science and Engineering, ISSN: 17578981, eISSN: 1757899X, Volume: 981, Published: 4 December 2020
IOP Publishing
T Udaya Banu, N P Rajamane, R Gobinath, and E Sudharshan
IOP Conference Series: Materials Science and Engineering, ISSN: 17578981, eISSN: 1757899X, Volume: 981, Published: 4 December 2020
IOP Publishing
J Logeshwari, R Gobinath, Srihari, and Eelandula kumaraswamy
IOP Conference Series: Materials Science and Engineering, ISSN: 17578981, eISSN: 1757899X, Volume: 981, Published: 4 December 2020
IOP Publishing
R Srinivas Prabhu, R Gobinath, R Anuradha, and Bonthala Prabanjan Yadav
IOP Conference Series: Materials Science and Engineering, ISSN: 17578981, eISSN: 1757899X, Volume: 981, Published: 4 December 2020
IOP Publishing
T Udayabanu, N P Rajamane, C Makendran, R Gobinath, and S Chandra Chary
IOP Conference Series: Materials Science and Engineering, ISSN: 17578981, eISSN: 1757899X, Volume: 981, Published: 4 December 2020
IOP Publishing
K Poongodi, R Saravanan, P Murthi, G Shyam Sundar, and R Gobinath
IOP Conference Series: Materials Science and Engineering, ISSN: 17578981, eISSN: 1757899X, Volume: 981, Published: 4 December 2020
IOP Publishing
R Saravanan, K Poongodi, P Murthi, E Sudharshan, and R Gobinath
IOP Conference Series: Materials Science and Engineering, ISSN: 17578981, eISSN: 1757899X, Volume: 981, Published: 4 December 2020
IOP Publishing
R Saravanan, P Murthi, K Poongodi, G Shyam Sundar, and R Gobinath
IOP Conference Series: Materials Science and Engineering, ISSN: 17578981, eISSN: 1757899X, Volume: 981, Published: 4 December 2020
IOP Publishing
P Murthi, K Poongodi, R Saravanan, K Rajesh chary, and R Gobinath
IOP Conference Series: Materials Science and Engineering, ISSN: 17578981, eISSN: 1757899X, Volume: 981, Published: 4 December 2020
IOP Publishing
R Gobinath, G P Ganapathy, A A Salunkhe, G Raja, E Prasath, and T Kavya
IOP Conference Series: Materials Science and Engineering, ISSN: 17578981, eISSN: 1757899X, Volume: 981, Published: 4 December 2020
IOP Publishing
V Mahesh, P V Ramana Rao, I Rajasri Reddy, K Kiran, R Gobinath, and P Murthy
IOP Conference Series: Materials Science and Engineering, ISSN: 17578981, eISSN: 1757899X, Volume: 981, Published: 4 December 2020
IOP Publishing
K Thangapandi, R Gobinath, R Anuradha, Pushpalatha Sarla, S Shrihari, J Sahaya Jeevarethinam, T A Khaja Mueenudeen, N Archana, and J T Walter
IOP Conference Series: Materials Science and Engineering, ISSN: 17578981, eISSN: 1757899X, Volume: 981, Published: 4 December 2020
IOP Publishing
P. Murthi, K. Poongodi, P. O. Awoyera, R. Gobinath, and R. Saravanan
Silicon, ISSN: 1876990X, eISSN: 18769918, Pages: 1949-1956, Published: 1 August 2020
Springer Science and Business Media LLC
This study determined the strength properties of high-performance concrete (HPC) produced using ternary blended cement, based on Nano-silica (NS) and bagasse ash (BA) addition to Portland cement. Several mix proportions, based on random mix design, were considered based on the substitution of constituent materials. Fine aggregate was comprised of 60% river sand and 40% recycled aggregate (RA), coarse aggregate used was crushed rock for the development of M50, M60 and M70 grades of concrete. The replacement of cement by BA causes slowdown initial strength development, but increased the setting time of concrete. In order to improve the performance of HPC at early stage, NS was considered as third admixture for developing ternary binder blend in the concrete. The effect of NS and BA on fresh and hardened HPC were investigated and presented. The results indicated that the incorporation of NS reduced setting time and increased the early age strength development significantly. Thus, it was concluded that the addition of NS with mean particle size of 12 nm is suitable as an additional binder for improving the early age performance of HPC.
P. O. Awoyera, I. I. Akinwumi, V. Karthika, R. Gobinath, R. Gunasekaran, N. Lokesh, M. Manikandan, and T. Narmatha
Silicon, ISSN: 1876990X, eISSN: 18769918, Pages: 1779-1785, Published: 1 August 2020
Springer Science and Business Media LLC
By the recent global research developments, a lot of natural and artificial materials that are normally discarded and landfilled, are continually investigated for potential construction applications. In this study, the mechanical and durability properties of lightweight self-compacting concrete produced using pumice, ground granulated blast furnace slag (GGBS), rice husk ash (RHA) and precipitated silica, was investigated. A detailed experimental design was performed, which entailed reducing the water powder ratio, and use of viscosity modifying admixture, for enhancing the fresh SCC quality. The experimental process involved assessment of mechanical and durability properties of concrete mixtures. The results have shown that compressive and flexural strength of SCC made with lightweight aggregate are improved using mineral blended cement. Also, same mix, but with pumice as coarse aggregate gave higher split-tensile strength than other mixtures. This study deduced that pozzolanic reactivity and filler action of supplementary cementitious materials used, enhanced the resistance of the mixtures to deterioration when exposed to aggressive environment.
R Archana Reddy, A Sivakrishna, R Gobinath, and D Ramesh Babu
IOP Conference Series: Materials Science and Engineering, ISSN: 17578981, eISSN: 1757899X, Volume: 872, Published: 26 June 2020
IOP Publishing
This research focuses on studying the effect of different pozzolanic materials (Metakaolin, fly ash, silica ash, micro clay, ordinary clay and their combinations) on strength of concrete cured for a period of time - 56 days. This work primarily deals with the compressive strength and split tensile strength of concrete. First four mixes were made by adding 1-2% of pozzolanic materials in concrete. Next five mixes were made by increasing the percentage of clay and lime as a substitute of cement in concrete. A comparative study is done between experimental data and predicted data. Bountiful research works were done using soft computing tools to predict the strength characteristics of concrete, in this work we had employed Levenberg-Marquardt and Bayesian Regularization approach to predict. ANN is employed to measure the outcome performance of admixtures added while varying the curing period. Best fit models were arrived using back propagation method of ANN, R2 values were obtained in the range of 0.91 showing the effectiveness of the study. It is suggested that this proposed algorithm can be employed to predict the strength characteristics of concrete.
P Murthi, K Poongodi, R Gobinath, and R Saravanan
IOP Conference Series: Materials Science and Engineering, ISSN: 17578981, eISSN: 1757899X, Volume: 872, Published: 26 June 2020
IOP Publishing
P. Murthi, K. Poongodi, P. O. Awoyera, R. Gobinath, K. T. Raja, and Oladimeji B. Olalusi
SN Applied Sciences, eISSN: 25233971, Published: April 2020
Springer Science and Business Media LLC
This study investigates the fresh properties of self-compacting concrete incorporating electric arc furnace oxidizing slag as coarse aggregate. A binary blend of 30% fly ash and cement was utilized as binder to improve the performance of concrete in its fresh state. Concrete grades M20, M30 and M40 were developed by replacing natural coarse aggregate with 50% and 100% electric arc furnace oxidizing slag (EAFOS) aggregate. Thus, fresh properties of SCC; slump flow, T500, U box, V funnel and L-box were determined. From the evaluation of fresh properties, it is shown that the grades of concretes developed passed the set standard limits for SCC. The results showed that 50% EAFOS addition to SCC will not deter its fresh properties in any way, however, when EAFOS was added up to 100%, there was reduction in workability properties of the concrete. The study showcases the significant potential of EAFOS as an alternative aggregate in SCC. Thus, the data provided in this study will be useful for concrete constructors.
M. Muthuraman, R. Anuradha, P.O. Awoyera, and R. Gobinath
Engineering Structures, ISSN: 01410296, eISSN: 18737323, Volume: 207, Published: 15 March 2020
Elsevier BV
Abstract The demand for lightweight materials in construction has become very popular due to its flexibility and economical importance. Cold-formed steel beams and columns are used for provision of lightweight, durable and cost-efficient structures, and its usage also helps to optimize the construction time. Cold-formed steel section exhibits post-buckling strength, in which hot rolled section is deficient. However, more theoretical background on design and behavior of cold form section is still required, especially when it is subjected to axial loading. Thus, this paper presents numerical and theoretical behavior of pin -jointed cold-formed steel (CFS) column section (built-up battened Lip channel) under axial loading. The numerical modeling was done by using ABAQUS 6.10 software. Based on American Iron and Steel Institute (AISI) specifications, two types of sections were selected for single lipped channel, and it was ensured that the selected chord spacing permits both moment of inertia about the major axis and minor axis are equal. The numerical and theoretical study were done using a varying batten number and section slenderness ratio. The ultimate loads were obtained under the two approaches, for the lipped channel built-up columns, and were compared for the effective section proposed. From the results, the prediction of buckling mode and the failure load of the column were found to be stable and approximately relevant to the FEM results from slenderness ratio ranging from 20 to 60. Also, flexural buckling of all column sections occurred about the axis parallel to the webs, where there is an opportunity for composite action.
International Journal of Scientific and Technology Research, eISSN: 22778616, Pages: 3666-3674, Published: February 2020
K. Thangapandi, R. Anuradha, N. Archana, P. Muthuraman, O. Awoyera Paul, and R. Gobinath
KSCE Journal of Civil Engineering, ISSN: 12267988, eISSN: 19763808, Pages: 596-602, Published: 1 February 2020
Springer Science and Business Media LLC
Various challenges encountered in the construction industry has led to the production of concrete, with not just high strength, but also with enhanced durability properties. Several research works have been carried out using replacement of constituent materials and introduction of various admixtures in concrete. Alccofine is one of such promising micro fine material. This study investigates the performance of hardened concrete using nano materials. Effects of alccofine (AL) and zinc oxide (ZnO) on the durability and strength of hardened concrete were explored. Series of tests were conducted by substituting cement by weight with 10% AL and adding ZnO in proportions, 0.25%, 0.5%, 0.75% and 1%. Based on the results obtained, the strength properties of concrete reduced as cement replacement level rose beyond 10%. The durability performance of the concrete, in terms of rapid chloride permeability, water permeability test, sea water attack and chloride resistance, was within acceptable limist, even as the ZnO was increased. This study has generally proposed a sustainable solution to produce durable concrete that could have useful aaplication in the construction industry.
A NOVEL METHOD OF ENHANCE FREEZE-THAW RESISTANCE OF SOIL - Patent application no: 202041005809
A NOVEL METHOD TO PREPARE SELF-COMPACTING CONCRETE USING SINGLE ALKALI ACTIVATED ASH BASED CONCRETE - Patent application no: 202041004257
A NOVEL STRENGTH ENHANCEMENT PROCEDURE FOR NATURAL CURED BINDERLESS CONCRETE- Patent application no:201941042302
A NOVEL METHOD OF WATER CONTENT IDENTIFICATION USING IMAGE PROCESSING FOR LAND SLIDE PRE CURSOR - Patent application no:201941042299
SILICA BASED BINDER COMPOSITION FOR SOIL STABILIZATION AND ENHANCING PAVEMENT LOAD BEARING CAPACITY OF ROADS - Patent application no:201941012760
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VIT University, Vellore
Anna University, Chennai
Windsor University, Canada