Journal of Ceramics and Concrete Technology. ISSN: 2457-0826 (Online)

Authors: Aakash Singh, Dr. Manish Agarwal

Abstract: Infrastructure resilience is critical in ensuring the longevity and safety of urban and rural development. Self-healing ceramic-concrete composites offer innovative solutions to mitigate structural degradation caused by environmental and mechanical stressors. This paper explores the design, mechanisms, and applications of self-healing ceramic-concrete composites. We focus on their role in enhancing durability, reducing maintenance costs, and improving sustainability in civil engineering. By combining ceramics with concrete, these composites demonstrate autonomous crack repair through mechanisms such as microcapsule- and vascular-based systems. This study presents experimental results, technological advancements, and real-world applications, highlighting their potential to revolutionize infrastructure resilience.

Keywords: Self-healing composites, ceramic-concrete, infrastructure resilience, autonomous crack repair, sustainable construction

Author: Dr. Akash Roy

Abstract: Nano-enhanced ceramic coatings represent a transformative approach in improving the durability of concrete structures. This paper explores the synthesis, properties, and applications of nano-enhanced ceramic coatings, emphasizing their effectiveness in mitigating common durability challenges such as moisture ingress, chemical attacks, and wear resistance. Laboratory investigations and field studies demonstrate significant improvements in mechanical properties, surface hardness, and longevity of concrete. The findings suggest that these coatings could play a critical role in sustainable construction practices by reducing maintenance needs and extending the lifespan of concrete infrastructures.

Keywords: Nano-enhanced ceramic coatings, concrete durability, wear resistance, sustainable construction, moisture barrier, chemical protection

Author: Arjun Patel

Abstract: The use of advanced ceramic materials in construction offers a sustainable alternative to conventional building materials. These materials exhibit superior mechanical strength, thermal insulation, chemical resistance, and eco-friendliness. This paper explores the properties, types, and applications of advanced ceramics in sustainable construction. Emphasis is placed on their role in reducing carbon footprints, enhancing energy efficiency, and extending the lifecycle of structures. Through a detailed analysis, this study provides insights into the challenges and future trends in ceramic technology for green building solutions.

Keywords: Advanced ceramics, sustainable construction, green building, thermal insulation, eco-friendly materials, structural durability

Authors: Ms. K. Chaitra, Gundamaina Harisai

Abstract: Pervious concrete pavements have emerged as a sustainable solution to address challenges posed by urbanization and storm water runoff in built environments. Unlike traditional impermeable pavements, pervious concrete is designed with interconnected voids that allow water to infiltrate through the surface, promoting groundwater recharge and reducing the burden on conventional drainage systems. This abstract explores the fundamental characteristics, benefits, applications, and challenges associated with pervious concrete pavements. It begins by elucidating the composition of pervious concrete, which typically includes coarse aggregates, cementations’ materials, and water, formulated to achieve high porosity and permeability. The resulting open-cell structure enables rapid drainage of rainfall and minimizes surface runoff, thereby mitigating flooding risks and controlling erosion. The environmental benefits of pervious concrete extend beyond storm water management. By filtering pollutants and contaminants as water percolates through the pavement, it improves water quality in adjacent ecosystems and reduces the discharge of harmful substances into water bodies. Additionally, pervious concrete contributes to urban heat island mitigation by enhancing evaporative cooling and supporting vegetation growth within urban landscapes. Applications of pervious concrete pavements encompass various settings, including parking lots, sidewalks, driveways, and low-traffic roadways, where its ability to handle pedestrian and vehicular traffic while managing storm water effectively is advantageous. Case studies of successful installations highlight its versatility and performance under diverse environmental conditions. However, challenges such as potential clogging of voids due to sediment accumulation necessitate careful consideration of maintenance practices, including regular vacuuming and cleaning to sustain optimal permeability over time. Furthermore, proper installation techniques, such as adequate compaction and curing procedures, are critical to achieving desired durability and performance outcomes.

Keywords: pervious concrete, storm water management, urban sustainability, permeability, pavement design.

Authors: Vadla Dinesh

Abstract: Improving concrete durability is essential for creating long-lasting structures. This involves using supplementary materials like fly ash, silica fume, and GGBS to enhance strength and reduce permeability. Admixtures, such as water-reducers and air-entrainers, further increase resistance to environmental damage. Surface treatments, like silane coatings, protect against water and chloride ingress. Additionally, fiber reinforcement, proper curing techniques, and the use of high-quality aggregates contribute to the overall resilience of concrete. Advanced methods, including the integration of nano-materials and corrosion inhibitors, also play a key role. Together, these strategies lead to more durable, low-maintenance, and sustainable concrete structures.

Keywords: Water-Reducing Admixtures, Air-Entraining Admixtures, Corrosion Inhibitors, Surface Treatments, Fiber Reinforcement.

Authors: Sunita Verma

Abstract: Concrete durability is a critical factor in the longevity and performance of concrete structures. This paper explores the use of ceramic-based coatings to enhance the durability of concrete. The study examines various ceramic coatings, including alumina, zirconia, and silica-based formulations, and their effects on concrete's resistance to environmental degradation, such as moisture ingress, chemical attacks, and abrasion. Experimental results show that ceramic coatings can significantly improve the protective qualities of concrete surfaces, leading to increased lifespan and reduced maintenance costs. The paper also discusses the application techniques, cost implications, and potential challenges associated with the use of ceramic-based coatings in concrete structures.

Keywords: Concrete Durability, Ceramic Coatings, Environmental Degradation, Protective Qualities, Application Techniques

Authors: Kavita Reddy

Abstract: The integration of advanced ceramic materials in concrete technology represents a significant leap forward in construction and material sciences. This paper explores the innovations and applications of ceramic materials in concrete, emphasizing their role in enhancing durability, thermal resistance, and structural integrity. The research highlights the benefits of using ceramic additives and aggregates in concrete mixtures, including improved mechanical properties, reduced environmental impact, and extended lifespan of concrete structures. Through a comprehensive review of recent studies and experimental data, this paper provides insights into the potential of ceramic materials to revolutionize the concrete industry. The paper also discusses the challenges and future directions for the implementation of these materials in large-scale construction projects.

Keywords: Advanced Ceramics, Concrete Technology, Durability, Thermal Resistance, Structural Integrity

Authors: Neelam Gupta

Abstract: The thermal performance of concrete is a crucial consideration in construction, particularly in extreme climate conditions. This paper investigates the use of ceramic additives to enhance the thermal properties of concrete. The study examines various ceramic materials, including expanded perlite, vermiculite, and ceramic fibers, and their effects on the thermal conductivity, heat capacity, and thermal expansion of concrete. Experimental results demonstrate that ceramic additives can significantly improve the thermal insulation properties of concrete, making it more suitable for use in energy-efficient buildings. The paper also explores the practical implications of these findings, including potential applications, cost considerations, and the environmental impact of using ceramic additives in concrete.

Keywords: Thermal Performance, Ceramic Additives, Thermal Insulation, Energy-Efficient Buildings, Environmental Impact

Authors: Chaitra K

Abstract:  To assess the fire resistance performance of recycled aggregate concrete (RAC) components with varying compressive strengths, four full-scale concrete columns were designed and tested under high-temperature conditions. Two of the specimens were constructed using normal concrete with compressive strengths of C20 and C30, while the other two were made from recycled coarse aggregate (RCA) concrete with compressive strengths of C30 and C40. These specimens were subjected to identical constant axial forces and exposed to simulated building fire conditions in a laboratory furnace. Various parameters from the experimental results were analyzed and compared, including temperature change, vertical displacement, lateral deflection, fire endurance, and failure characteristics. The temperature distribution within the specimens was simulated using ABAQUS Software (ABAQUS Inc., Providence, RI, USA), and the simulated results closely matched the experimental findings. The results indicate that the rate of heat transfer from the surface to the interior of the columns increases with higher concrete compressive strengths for both RAC and normal concrete columns. Under identical initial axial force ratios and column cross-sections, columns with lower concrete compressive strengths exhibited better fire resistance performance. Additionally, the RAC columns demonstrated superior fire resistance performance compared to the normal concrete columns with equivalent compressive strengths.

Keywords: Recycled aggregate concrete (RAC) column; fire resistance; high-temperature test; temperature field; finite element method (FEM) analysis; concrete compressive strength

Authors: K.Renukaa , G.Vamshi Prathap B

Abstract: In the rapidly evolving field of structural engineering, the development and implementation of next-generation materials is revolutionizing the construction and durability of infrastructure. This paper explores the advent of ultra-resilient materials, which promise to enhance the safety, longevity, and sustainability of modern structures. Emphasizing materials such as high-performance concrete, advanced composites, smart materials, and nanomaterials, this research delves into their unique properties, advantages, and potential applications.High-performance concrete (HPC) and ultra-high-performance concrete (UHPC) offer unprecedented strength and durability, reducing maintenance costs and extending the lifespan of infrastructure. Advanced composites, including fiber-reinforced polymers (FRPs), provide lightweight yet incredibly strong alternatives to traditional materials, suitable for both new construction and retrofitting aging structures. Smart materials, such as shape memory alloys and self-healing polymers, introduce the capability for self-repair and adaptive response to environmental changes, enhancing the resilience of buildings and bridges.Nanomaterials, with their extraordinary mechanical properties and multifunctional capabilities, represent a significant leap forward in material science. This paper also examines the environmental benefits of next-gen materials. By improving the efficiency and performance of structures, these materials can significantly reduce the carbon footprint of the construction industry. Additionally, the use of recycled and sustainable resources in the production of advanced materials aligns with global efforts towards greener construction practices.

Keywords: ultra-resilient materials, smart materials, Nanomaterials, fiber-reinforced polymers, self-healing polymers, carbon nanotube

Authors: Deeksha Singh, Neha Rawat

Abstract: In contemporary Civil Engineering, a pressing challenge lies in developing construction materials that meet the dual criteria of sustainability and durability. The accumulation of solid waste stands as a significant threat to the global environment. Among these waste streams, Tetra Pak cartons, commonly employed in food packaging, contribute substantially. Comprised mainly of paper, with paperboard constituting 75% of its composition, polyethylene 20%, and aluminum 5%, Tetra Paks pose a recycling challenge. Recent research by TERI on used beverage carton (UCB) management revealed a recycling rate of 54% in India in 2019, with active recycling at 31% and inactive recycling at 23%. In response, efforts were made to explore innovative uses for Tetra Pak waste in construction material development. This involved crafting boards without conventional resin binders, relying instead on the adhesive properties of melted aluminum foil and polyethylene inherent in Tetra Paks. These boards show promise for construction panel applications, with tests conducted on compressive and flexural strength, swelling index, flame resistance, and other parameters comparing favorably to standard boards. These findings suggest the potential for integrating this material into lightweight construction practices.

Keywords: Tetra Pak, Construction Practices, TERI, Shredding, Molding, Construction Panel

Author: Gayatri Thakare

Abstract: Waterproofing and protection of concrete structures are critical to ensure their longevity and structural integrity. Moisture-related damage, such as corrosion of reinforcement and deterioration of concrete, can compromise the stability and durability of structures. This paper provides an overview of various methods and materials used for waterproofing and protection, including membranes, coatings, sealants, and drainage systems. The effectiveness, applications, advantages, and limitations of each approach are discussed, along with considerations for selection and implementation.

Keywords: Waterproofing, concrete structures, membranes, coatings, sealants, drainage systems, water ingress, moisture-related damage, corrosion, durability, protection methods.

Authors: G. Baskar Singh, A. Dhanalakshmi, M. Dhivakar

Abstract: Concrete is one of the most widely used construction materials globally, owing to its versatility, durability, and strength. The quality of concrete largely depends on the techniques and processes involved in its production. This paper comprehensively discusses the key stages of concrete production, including batching, mixing, transporting, placing, compacting, and curing. Each stage is crucial in ensuring the final concrete product meets the desired specifications and performs optimally throughout its service life. Understanding these techniques and processes is essential for engineers, contractors, and stakeholders involved in construction projects to achieve high-quality and sustainable concrete structures.

Keywords: Concrete production, batching, mixing, transporting, placing, compacting, curing.

Authors: Vivek Sharma, Aastha Negi

Abstract: Concrete structures are fundamental components of modern infrastructure, providing stability and durability. However, over time, these structures may degrade due to various factors such as weathering, corrosion, and structural damage. Concrete repair and rehabilitation are essential processes to maintain the integrity and functionality of these structures. This paper discusses various techniques employed in concrete repair and rehabilitation, including their methods, challenges, and innovative solutions. Additionally, it provides insights into the importance of timely repair and highlights the role of research and technology in advancing these practices.

Keywords: Concrete repair, concrete rehabilitation, deterioration, corrosion, repair techniques, structural strengthening, innovation, challenges, sustainability, self-healing concrete, nanotechnology, monitoring systems, 3D printing.

Author: Someshwar Sharma

Abstract: The concrete industry is undergoing a paradigm shift towards sustainability, driven by the imperative to reduce environmental impact and promote resource efficiency. This paper explores recent innovations in sustainable concrete mix design, focusing on the incorporation of recycled materials, supplementary cementitious materials (SCMs), and other eco-friendly additives. The objective is to assess the impact of these innovations on both the performance characteristics and environmental footprint of concrete. The paper includes detailed discussions, analyses, and tables presenting key findings.

Keywords: Sustainable concrete, Recycled materials, Supplementary cementitious materials (SCMs), Eco-friendly additives, Life Cycle Assessment (LCA), Concrete mix design, Environmental impact, Innovation in construction. Circular economy, Green building materials

Authors: Manoj Kushwaha, Ranjeet Singh

Abstract: This paper explores the application of digital technologies in the realm of concrete quality control. With advancements in sensing technologies, data analytics, and real-time monitoring, the construction industry is witnessing a transformative shift towards more efficient and reliable methods for ensuring concrete quality. This paper discusses various digital technologies, their benefits, and their integration into concrete quality control processes. The use of tables is employed to present relevant data and comparisons.

Keywords: Concrete quality control, Digital technologies, Smart sensors, Internet of Things (IoT), Data analytics, Real-time monitoring, Construction industry, Cybersecurity, Standardization, Artificial intelligence.

Authors:Sanjay Tiwari, Priyansh Negi, Dr. Chandan Singh

Abstract: Concrete, as a widely used construction material, faces challenges related to cracking and durability over time. This paper explores the innovative field of self-healing concrete, which aims to mitigate the effects of cracks through autonomous repair mechanisms. Various self-healing technologies are discussed, with a focus on their mechanisms, applications, and potential benefits. The paper includes tables summarizing key findings and advancements in the field.

Keywords: Self-healing concrete, Intrinsic healing, Extrinsic healing, Encapsulated healing agents, Shape-memory polymers, Vascular systems, Pre-packaged healing agents, Self-healing coatings, Infrastructure repair.

Authors:P. Guruswamy Goud, S.Priyanka, J.Anvesh, K.Prabhakar

Abstract: Concrete consumption has risen as a result of rapid global infrastructure development and increased material science, among other causes. Cement, an essential component of concrete, bonds the various solid components together to produce a cohesive mass. Cement manufacture produces a significant amount of greenhouse gases, accounting for about 10% of global carbon (IV) oxide (CO2) emissions. This, combined with a rise in environmental activism, has resulted in the creation of a number of novel solutions & supplementary cementitious materials. Palm oil fuel ash (POFFA) is a unique industrial byproduct that results from the burning of palm oil wastes in power plants for electricity generation. It is a highly reactive substance with strong pozzolanic tendencies and adequate micro-filling capacities. A review of concrete strength as influenced by the use of POFFA as a partial replacement for cement in concrete is offered in this research. The compressive strength of concrete as effected by the % replacement & fineness of POFFA in concrete is mainly explored here, based on data published in the literature on the utilization of POFFA in blended concrete. The benefits & drawbacks of POFFA in concrete are also discussed.

Keywords- palm Oil, Fuel fly Ash; Concrete, Physical and Chemical Properties of POFFA, Fineness Effect of POFFA, Strength Development of Concrete

Authors: S. Priyanka , P. Guruswamy Goud , J. Anvesh , K.Prabhakar 

Abstract: The infrastructure of a country or state depends on the development of innovative ventures constructed in that state/ country. Due to increase in construction the natural aggregates are depleting day by day. So the recycling technique is adopted in construction field. Recycled coarse aggregate (RCA) is one of the approaches for this need. The strength of concrete decrease with increase in the percentage of recycled coarse aggregate but there are methods to increase the strength of recycled concrete aggregate (RCA) such as surface treatments, two stage mixing and pozzolanic material. In this project the method of using pozzolanic material and two stage mixing method is studied, here fly ash is used as pozzolanic material. The paper investigates about the effect of replacement of fly ash on fresh and hardened properties of recycled aggregate concrete. Most of the research work done on replacement of coarse aggregate with recycled aggregates about 25%, 50%, 75% & 100% and fly ash is used to replace ordinary Portland cement by 10% & 20% to improve the workability and strength of recycled aggregate concrete. The compressive strength and split tensile strength of recycled aggregate concrete is compared with the conventional concrete.

Keywords: Compressive strength, fly ash, ordinary Portland cement, Recycled coarse aggregate, Split tensile strength. 

Authors: S. Priyanka, P. Guruswamy Goud 

Abstract:Interstate and asphalt configuration assumes an essential part in the DPR ventures. The attractive execution of the asphalt will bring about higher reserve funds as far as vehicle working expenses and travel time, which has a direction on the general financial plausibility of the undertaking. This project area of study is Hyderabad to Yadhadri road (NH-163) is a wide road in Telangana state. This paper talks about the plan strategies that are generally being taken after and analyzes the "Outline of unbending and adaptable asphalts by different techniques and their cost examination by every strategy". Adaptable asphalt are favored over bond solid streets as they have an incredible preferred standpoint that these can be fortified and enhanced in stages with the development of activity and furthermore their surfaces can be processed and reused for recovery. The adaptable asphalts are more affordable likewise with respect to beginning speculation and support. Albeit rigid asphalt is costly however have less upkeep and having great outline period. The monetary part is completed for the outline asphalt of an area by utilizing the outcome get by plan strategy and their comparing segment layer thickness. It should be possible by drawing examinations with the standard way and reasonable way. This aggregate work incorporates accumulation of information investigation different adaptable and inflexible asphalt plans and their estimation technique is particularly helpful to build who manages interstates.

Keywords: Design of flexible pavement, Cost analysis, IRC- 64, IRC –37 (R-2012), Estimations etc.