Floor Tiles Research Articles

Sound insulation performance of different built-in acoustic materials for new multifamily residential

ABSTRACT The Building Technical Regulations in Taiwan, Article 46–6, Section 1. require that the impact sound insulation performance △LW be greater than 17 dB. Although the regulation has been in effect for over 2.5 years, installations of qualified acoustic materials have not yet been found in the market, as they are not required to be listed for building permit applications until 2021. Owing to the slow increase in new home construction, sound insulation mats are estimated to take five to seven years to be widely adopted. To characterize the material performance, the built-in permanent sound insulation layers of various materials were tested in an unfinished residential building. Practical experiments were conducted as per the CNS 15160-7:2021standard on the 7th floor of new buildings in northern Taiwan. Eleven insulation materials were selected from different manufacturers. The insulation mats made from these materials were placed in the same environment of approximately 10 M2, then incorporated underneath the mortar substrate of the polished floor tile using the wet construction method; the 6th floor of the building was utilized to evaluate sound reduction in accordance with the CNS 8465–2:2019 standard for different materials.

Synthesis and characterization of zinc oxide reinforced fly ash piezoelectric floor tiles for automated sanitization system application

Synthesis and characterization of zinc oxide reinforced fly ash piezoelectric floor tiles for automated sanitization system application

Energy Harvesting Floor Tile Using Piezoelectric Patches for Low-Power Applications

Abstract Purpose One of the sustainable energy sources derived from kinetic energy is human footsteps. This research sought to find a substitute for conventional power sources to lessen dependence on them. As a result, a floor tile excited by human footsteps was demonstrated and presented to generate usable electrical power. Methods Piezoelectric patches, hot melt glue sticks, wood plates, and foam plates are just a few of the commercially available materials used in the suggested technique, making it suitable and practical. In addition to the components, uncomplicated circuits like a voltage multiplier and rectifier with a capacitance filter were employed for the electrical power capture. The proposed prototype has a length of 455 mm and a width of 405 mm. Results Two LEDs were effectively illuminated as an actual load using electrical energy collected from human footsteps. The maximum useful power that could be harvested successfully via the proposed floor tile (one tile) was 246 mW, with an approximate cost of $10.2. Conclusions Designing an array of footsteps-based energy harvesting tiles covering broad areas to maximize the harvested power could be considered as a future work. Moreover, the number of pedestrians variable can be also studied for the proposed design of this study in a real excitation environment such as a railway station, subway station, street, discotheque, and wedding festival hall.

Factors impacting human exposure to legacy and emerging contaminants in residential dust in Beijing, China: Characteristics of indoor microenvironment

Exposure to indoor dust is of concern since dust may be contaminated by various toxic chemicals and people spend considerable time indoors. Factors impacting human exposure risks to contaminants in indoor dust may differ from those affecting the loadings of contaminants, but the dominant factors have not yet been well clarified. In this study, the occurrence, human exposure, and related influencing factors of several classes of legacy and emerging contaminants in residential dust across Beijing were investigated, including per- and polyfluoroalkyl substances (PFASs) and three types of flame retardants (FRs), i.e., organophosphate esters (OPEs), polybrominated diphenyl ethers (PBDEs), and novel halogenated FRs (NHFRs). OPEs (median: 3847 ng/g) were the most abundant group, followed by PBDEs (1046 ng/g) and NHFRs (520 ng/g). PFASs (14.3 ng/g) were one to two orders of magnitude lower than FRs. The estimated daily intakes of these contaminants were relatively higher for toddlers than other age groups, with oral ingestion being the main exposure pathway compared with dermal contact. Higher human exposure risks were found in new buildings or newly finished homes due to the elevated intake of emerging contaminants (such as OPEs). Furthermore, higher risks were also found in homes with wooden floors, which were mainly associated with higher levels of PFASs, chloroalkyl and alkyl OPEs, compared with tile floors. Citizens in the urban area also showed higher exposure risks than those in the suburban area. The quantity of household appliances and finishing styles (simple or luxurious) showed an insignificant impact on overall human exposure risks despite their significant effect on the levels of some of the dust contaminants. Results in this study are of importance in understanding human exposure to the co-existence of multiple contaminants in indoor dust.

Evaluation of composites based on virgin rubber/devulcanized rubber reinforced with chemically and radiation activated polyurethane scrap for possible applications

AbstractReusing industrial waste is one of the new tactics being used to fight the dumping of solid waste for environmental protection. In the current work, the waste polyurethane (WPU) was ground to a fine powder and used for reinforcement of devulcanized waste rubber/styrene butadiene rubber (DWR/SBR) blends. DWR/SBR/WPU composites were prepared using (0, 3, 6, 9, 15, 30) phr (parts per hundred of rubber) of WPU. It was hypothesized that the treatment of WPU with trimethylolpropane triacrylate (TMPTMA) and irradiated at 10 kGy would improve its compatibility with the DWR/SBR blend and, consequently, its reinforcement efficacy. The incorporation of 30 phr of treated WPU (TWPU) improved the tensile strength (TS) by 47.7% and 8.6% compared to neat DWR/SBR and composites containing 30 phr of untreated WPU (UWPU). In addition, the incorporation of TWPU improved other mechanical characteristics such as tear strength, hardness, and abrasion resistance. As a result of increasing polarity and cross‐link density within the DWR/SBR blend after the addition of polar WPU, the resistance to motor oil was improved. The outcomes are encouraging from the standpoint of the circular economy and help produce high‐performing, reasonably priced DWR/SBR composites for a range of industrial uses, especially in the floor tiles application.Highlights Waste polyurethane (WPU) was activated using gamma irradiation in the presence of TMPTMA. The treatment of WPU improved its compatibility with DWR/SBR blend. The impact of WPU treatment on the properties of DWR/SBR blend was investigated. TWPU improved the mechanical properties of DWR/SBR blend more than UWPU. TWPU increased the motor oil resistance of DWR/SBR blend more than UWPU.

Persistence of A-234 nerve agent on indoor surfaces

Understanding the fundamental physical characteristics of extremely toxic compounds and their behavior across different environments plays a crucial role in assessing their danger. Additionally, this knowledge informs the development of protocols for gathering forensic evidence related to harmful chemicals misuse. In 2018, former Russian spy Sergei Skripal and his daughter were poisoned in Salisbury, England, with a substance later identified as the unconventional nerve agent A-234. Contamination with the compound was found on items inside Skripal's home. The aim of this paper was to determine the persistence of A-234 on selected indoor surfaces. Ceramics, aluminum can, laminated chipboard, polyvinyl chloride (PVC) floor tile, polyethylene terephthalate (PET) bottle, acrylic paint and computer keyboard were used as matrices. The decrease in surface contamination and further fate of the compound was monitored for 12 weeks. Persistence determination involved optimizing the wipe sampling method. Simultaneously, evaporation from the surface and permeation of the contaminant into the matrix were closely monitored. The experimental findings indicate that the nerve agent exhibits remarkable persistence, particularly on impermeable surfaces. Notably, the process of A-234 evaporation plays a minor role in determining its fate, with detectable concentrations observed solely above solid, non-porous surfaces such as ceramics and aluminum can. The surface persistence half-life varied significantly, ranging from 12 min to 478 days, depending on the material. The article has implications for emergency response protocols, decontamination strategies, public health and crime scene investigations.

Recycling of urban glass waste in ceramic floor tiles toward sustainability

AbstractAround 21.7 million tons of urban solid waste are produced in North Africa and the Middle East. The amount of glass waste produced is 0.87 million tons. The amount of urban glass waste (UGW) produced in Egypt was 2280.8 tons per day. This paper aims to study the effect of partial replacement of UGW in the production of ceramic floor tiles to save the production cost and raw materials. The characteristics of the basic raw mixture of floor tiles and UGW were studied. The waste was collected, crushed and ground to be blended with the basic mixture in different percentages that ranged from 0 to 35%. The specimens were molded under uniaxial pressure followed by drying and firing at temperatures ranging from 1050 to 1120 °C. The characteristics of the fired specimens have been determined and compared with the International Standard Limits. The results showed that specimens containing waste ranging from 25% to 35%, fired at 1100 °C with a soaking time of 15 min have a modulus of rupture of 18.9 to 19.7 MPa, breaking strength of 600 to 613N and water absorption of 9.78% to 8.2% respectively that fulfilled the lowest requirements for the ISO 13006 for dry pressed tiles Group BIIb.

Unleashing the Flexural Behavior of Ceramic Hybrid Rubber Reinforced Composites for Sustainable Industry

An innovative methodology is employed to explore the potential of repurposing floor ceramics and used tire rubber for fine aggregate. In contrast to one-way ordinary concrete slabs, the behavior of Ceramic Hybrid Rubber Reinforced Composite Slabs (CHRRCS) under pure bending has been thoroughly examined. There is no discernible negative effect of the quantity of ceramic floor tiles on the characteristics of concrete. In this study, M30 concrete with a water-to-cement ratio of 0.38 is employed. The distribution reinforcement was made up of bars with an 8 mm diameter, while the main reinforcement was made up of 10 mm diameter Fe 415 grade steel bars. The CHRRCS with 2% rubber fibers, 10% replacement ceramic, and 10% pre-treated crumb rubber exhibit more significant deflection only under extreme stress conditions. Apart from the experimental study, ABAQUS was used to perform a finite element model in three-dimensional simulation and analyze the load-displacement behavior. The comparison of ABAQUS simulation and experimental data yields a fair range. The flexural performance of CHRRCS is enhanced in pure bending.

Real-time hollow defect detection in tiles using on-device tiny machine learning

This study addresses the challenge of subsurface defect detection in floor tiles for quality control in residential construction. To overcome the limitations of traditional inspection methods and the complexities associated with existing artificial intelligence (AI)-based approaches, we have developed the AI diagnostic Stick (AID-Stick), a novel tool designed to advance the field of tile defect detection. This innovative tool integrates an embedded machine-learning framework, leveraging convolutional neural networks and tiny machine learning techniques. The AID-Stick utilizes spectrogram, Mel-frequency cepstral coefficient, and Mel filterbank energy for real-time, on-microcontroller unit diagnostics of auditory signals from tile tapping tests. Our methodology effectively utilizes these acoustic features in distinguishing between intact and subsurface hollow defective tiles. The study’s findings, revealing a notable validation accuracy of 97% and a real-world accuracy of 81.25%, showcase a promising improvement over traditional methods. The AID-Stick’s practicality, cost-effectiveness, and user-friendly design make it potentially beneficial for small-to-medium enterprises and economically constrained markets. Furthermore, this research opens avenues for future enhancements in embedded AI systems, with potential applications extending beyond the construction industry to other domains requiring non-destructive testing. This work not only contributes to the field of industrial quality control but also to the development of intelligent diagnostic tools, paving the way for future innovations in automated inspection technologies.

Effect of Different Ceramic Waste Powder on Characteristics of Fly Ash-Based Geopolymer

The escalating demand for construction materials driven by rapid population growth has heightened the reliance on cement binders, resulting in increased CO2 emissions from the cement industry. Geopolymers, considered environmentally friendly alternatives, have been explored in various studies to address this challenge. This research specifically investigates the impact of different types of ceramic waste bricks (BT), floor tiles (FT), roof tiles (RT), and sanitary ceramics (ST) on the physical and mechanical properties of fly ash-based geopolymer mortar. To provide a comprehensive understanding, this research examines the compressive strength, mineral phase, chemical bonds, and microscopic evolution of fly ash geopolymer mortar incorporating varying proportions of each ceramic waste type (25% and 50% fly ash replacement). A consistent mixture of Na2SiO3and NaOH was used for the alkaline solution in all formulations. The curing process was carried out at room temperature for 7, 14, and 28 days prior to the compressive strength test. The result revealed that the inclusion of 25% BT experienced higher strength compared to the control sample after 14 days, but the strength became comparable after 28 days at 40.24 MPa. A reduction in strength was evident with the addition of other ceramic components. Moreover, higher incorporation of CWP correlated with a faster setting time for fresh geopolymers. This was also linked to the degree of gel formation, as indicated in the microstructure images. The emergence of plagioclase minerals was evident in all formulations of the geopolymer products under XRD analysis, while the bond of the geopolymer signature, Si-O-T (T = Si or Al), was identified from the infrared spectra. The microstructure of the binder showed a geopolymer matrix alongside unreacted fly ash particles. Overall, CWP replacement up to 25% can be potential in fly ash geopolymer without sacrificing significant strength loss and remaining in the range of normal strength mortar. Doi: 10.28991/CEJ-2024-010-02-06 Full Text: PDF

Guidance for data-center CFD (RP-1675)

This article reviews and summarizes research conducted during and related to ASHRAE RP-1675, Guidance for Data Center CFD. The ultimate objective is to provide users and vendors of computational fluid dynamics (CFD) tools with best-practice modeling advice to support greater adoption of the technology to design and operate reliable and sustainable facilities. RP-1675 identified and developed good CFD modeling practices by benchmarking CFD simulations against experimental measurements for a “laboratory data center,” considering past and concurrent research, and performing additional sensitivity studies in CFD. This article provides a detailed review of the experimental and CFD work conducted during RP-1675, which focused on the modeling of computer room air handler units (CRAHs) with vertical-axis blowers located in the raised-floor plenum, and modeling perforated floor tiles, and raised-floor stanchions. This article ultimately summarizes current guidance for data-center CFD.

Effect of Quartz and Red-Clay to Phonolite Ratios on Some Properties of Floor Tile

This research paper presents the procedure of preparing and testing of experimental ceramic slabs in order to examine and investigate some of their physical and mechanical properties. These slabs were divided into two types; type (I) includes slabs made of either Quartz, Phonolite, Red-Clay, Green-Clay or Kaoline, whereas, type (II) includes slabs various in their Quartz and Red-Clay to Phonolite ratios. Other constituents of type (II) slabs such as Green-Clay, Kaoline were intentionally kept comparable for the sake of comparisons. Methods of preparing and testing of the experimental ceramic slabs were performed according to the technical constraints and facilities available at the Investment Complex for Manufacturing Building Materials (INCOMA) at Misurata-Libya. Several tests and measurements have been done on the experimental ceramic slabs of both types. The physical properties of type (I) slabs and raw materials ceramic powder were investigated with the determination of their water absorption, thermal shrinkage, heat lose, bulk density and fluidity. The breaking strength and impact resistance of type (II) slabs were also determined. These results were enhanced with surface and cross-sectional metallographic investigations for both types of experimental slabs. It is thought that the presence of a considerable amounts of oxides such as CaO, K O and Fe O in the Red-Clay decreased significantly the fractural strength, but improved the impact resistance of the experimental ceramic slabs. Conversely, the presence of high alumina and silica contents together with trace amount of ZrO in the Phonolite probably behind the improvement of their fractural strength, and decline of the impact resistance of the experimental ceramic slabs.

Ceramic floor tiles with yellow pigment from Kievan Rus’: A technological study

Colored glazed ceramic tiles were widely used for paving floors of the main buildings, mostly Orthodox churches, in the Kievan Rus’ (10th-13th centuries AD). The production of ceramic floor tiles was localized near the site of construction, and the date of production can be attributed to the date of construction or renovation of the church. Therefore, the study of glazed tiles makes it possible to determine the local and chronological features of their production technology.. Local production technology in Ancient Rus' was studied using thirteen yellow glazed ceramic tiles from six cities (Kiev, Galich, Polotsk, Vladimir-Volynsky, Pereslavl-Zalessky and Novgorod). Also, two samples were selected from churches in Polotsk, Vladimir-Volynsky and Vyshgorod at different times of construction or renovation to study chronological variations in tile production technology. Chemical compositions and crystalline phases of yellow glaze and ceramic body have been analyzed by X-ray diffraction, Raman and X-ray fluorescence spectroscopy. In all cases, samples of ceramic tiles were glazed with high-lead silicate glass, and lead tin yellow type II (PbSn1-xSixO3) was used as a pigment. Local production technology in Ancient Rus' was studied using thirteen yellow glazed ceramic tiles from six cities (Kiev, Galich, Polotsk, Vladimir-Volynsky, Pereslavl-Zalessky and Novgorod). Also, two samples were selected from churches in Polotsk, Vladimir-Volynsky and Vyshgorod at different times of construction or renovation to study chronological variations in tile production technology. Most likely, the glaze layer on the ceramic tile was formed using pre-synthesized glass; this technology differs from the conventional technology for pottery, uses lead oxide or a mixture of lead oxide and quartz. Data on the chemical composition of yellow lead glazed tiles dating from the 10th-13th centuries AD can be used to determine the region of glazed ceramic production.

Numerical Simulation of Heat Transfer Characteristics of Capillary Radiant Heating Floor

In order to study the temperature transference characteristics of capillary radiant heating ground, a glowing temperature change flooring model is typically established to analyze the influence of different factors on the heat transfer characteristics of the heating system. The results show that the distribution of covering temperature is uneven in the radiant heating system, and the fluctuation amplitude increases with the increase of the pipe spacing. At the same time, the change of the surface temperature is further analyzed for the finishing layer material on the radiant heating storey. The results show that the change of the capillary tube spacing leads to a smaller change in the floor exterior temperature when the wood floor is used as the finishing layer. It accurately indicates that the wood floor as the finishing layer can allegedly provide a more balanced surface temperature. Finally, the effects of finishing the layer, filling layer material and pipe spacing are studied for the change of surface heat flux. The results show that the heating effect of 30°C quandary in capillary radiant heating system can merely reach that of 40°C hot water in heating structure with traditional pipe breadth when the finishing layer universally adopts floor tiles and the capillary pipe diameter is 10 mm. This suggests that the thin system can use low-temperature hot water for effective energy-saving heating. The above research results can thoughtfully provide theoretical guidance for radiant floor heating.

Porcelain Stoneware Tiles Based on Clays Mixture and Recycled Waste Glass Powder: Effect of Soaking Time

The effect of soaking time on the properties of porcelain stoneware tiles based on clay mixture and recycled waste glass powder was studied. Mixture was prepared and fired at 1150°C. During firing, raw mixture was subjected to various soaking times: 30, 60, 90 and 120 min. The by-products were characterized by their linear shrinkage, water absorption, bulk density, flexural strength, X-ray diffraction (XRD) and scanning electron microscopy (SEM). The results were modelled by using different mathematical expressions. The results demonstrated that physico-mechanical properties of ceramic probe are significantly affected by soaking time. After 30 min, products satisfied the ISO 13006 standard condition for porcelain stoneware wall and floor tiles: water absorption value was lowest (0.07%) and mechanical strength value was 44.4 MPa. Prolonged soaking time was undesirable due to its negative effect (bloating) on the products’ physical and mechanical performance. The XRD patterns indicated the presence of mullite, cristobalite, enstatite, anorthite, hematite and quartz as the main crystalline phases. SEM images of the tiles fired at 1150°C for 30 min display a very close texture and dense microstructure.

Shortening of fast firing in the ceramic tile production by inorganic additives - an upscale to the industry

The paper discusses the usage of additives that are protected by the European patent to enhance the features of ceramic tiles. Under laboratory conditions, various types of additives in different concentrations (0.15, 0.30 and 0.50%) were added to the ceramic mass, and changes in shrinkage, modulus of rupture and water absorption were observed. After selecting the appropriate additive and its concentration, a series of industrial tests is performed. The characteristics of regular ceramic mass and mass with the selected additive were monitored without adjusting process parameters in the industrial conditions. Furthermore, utilizing additives allowed for shortening of the fire time without distorting the characteristics of the final products. The application of additives in industrial settings has demonstrated that floor tiles can be produced with improved characteristics and increased production capacity by 6.8%. Thus, significant energy savings and a lowered CO2 footprint can be provided.

Impact of multiple coating layers on finished floor slip resistance

Abstract: Slip, trip and fall (ST&F) events are a cause of significant mortality, hospitalisations and financial expense. Floor conditions are a factor in some portion of ST&F events and thus important to monitor. In commercial buildings, flooring surfaces are often coated with a removable floor finish to protect the floor and provide a consistent walking surface. The relationship between the number of coating layers of a floor finish and the slip resistance, i.e. coefficient of friction, is poorly reported in the literature. In this study, vinyl composite floor tiles were coated with four different floor finishes, varying from 2 to 10 coating layers. The static coefficient of friction (SCOF) was tested using the James Machine and ASTM D2047 to determine whether there was a change in the SCOF/slip resistance and thus the ST&F risk, associated with different numbers of coating layers of finish. The number of coating layers of floor finish did not negatively impact the SCOF/slip resistance of the tiles. This study suggests that maintaining an appropriate layer of floor finish, typically recommended by manufacturers to be four coating layers, provides a slip-resistant walking surface that is not negatively affected by additional coating layers of finish.

Characterization and Industrial Applications of Wushishi Clay Deposit

The Wushishi clay deposit in Niger State, Nigeria, was examined to understand its possible industrial uses. The clay samples were randomly selected from different locations. They Clay samples appeared dry and had a dark gray color. The research focused on properties like drying and firing behavior, apparent porosity, bulk density, water absorption capacity, plasticity, modulus of rupture, shrinkage, and chemical composition. The Chemical screening revealed a composition of 59.8% SiO2, 17.08% Al2O3, 2.54% Fe2O3, 0.3% MgO, 4.39% Na2O, 2.54% K2O, and 1.5% CaO. The clay exhibited moderate plasticity of approximately 2.83 kgf/cm2, moderate shrinkage of 10.5%, and a modulus of rupture (strength) ranging from 22.56 to 34.86kgf/cm2 at different temperatures. The clay deposit equally demonstrated strong positive significant correlation (r=0.993, p=0.007) between apparent porosity and water absorption capacity of clay. The higher the apparent porosity of the clay deposit the greater the clay's ability to absorb water. Additionally, the clay's color changed from gray to red upon firing. These properties indicate that Wushishi clay can be classified as stoneware clay. It has potential applications in the production of flowerpots, as a silica source for floor tiles and brickmaking, and as a binder in the absence of standard binders like phosphoric acid.

Defect Analysis of Ceramic Products with Statistical Quality Control (SQC) and Failure Mode Effect Analysis (FMEA) Methods at PT. XYZ

Ceramic product company is one of the companies engaged in the ceramic industry. Ceramic product company produces various types of floor tiles with various sizes including sizes 40x40 cm, 50x50 cm, and 60x60 cm. Problems that arise at ceramic product company is that there are still defects in the 50x50 cm ceramic production line which is quite high, this certainly cannot be separated from the company's losses. Therefore, to reduce the level of defects in products, it needs to be supported by maintenance management and employee expertise. The purpose of this study is to determine product defects and propose improvements to reduce product defects. This research uses the Statistical Quality Control (SQC) method to control quality from the initial process to the finished product and Failure Mode Effect Analysis (FMEA) is used to identify and prevent problems that occur in products and processes. Based on the results of the analysis from October 2022 to March 2023, with a total production of 327,600 products, there are 56,543 defective products. Based on the results of the Pareto diagram for chipping before firing with a percentage of (34.3%), crack defects of (25.6%), chipping before vela of (21.2%), and ink drop defects of (18.9%). The calculation of RPN for ceramic production measuring 50x50 cm obtained several risks with the highest priority level, obtained the highest RPN of 288 from the type of crack defect with a proposed improvement, which emphasizes the operator to always pay attention to the running machine settings.

Comparative life cycle assessment of flooring options for sustainable buildings

Purpose This study aims to quantify and compare the environmental impacts of Marble-stone and Kota-stone flooring options widely used for buildings in India. The study discusses the possibility of carbon sequestration through Bamboo cultivation in India. Design/methodology/approach The study has followed a standard life cycle assessment (LCA) framework based on ISO 14040 guidelines. Three distinct phases have been compared on midpoint and endpoint assessment categories – raw material, polishing and disposal. Primary data has been collected from the construction site in India, and secondary data has been collected from the Ecoinvent 3.0 database. Previous studies have been referred to discuss and calculate the area of bamboo cultivation required to sequestrate the generated carbon from the flooring. Findings The study has found that endpoint category damage to resources, and midpoint categories of climate change, metal depletion and agricultural land use are highly impacted in building floorings. The study has also found that the Marble-stone floor generates higher environmental impacts than the Kota-stone floor in most of the midpoint and endpoint impact categories. This difference is significant in the raw material phase due to the different compositions of stones. The study also found that Bamboo has excellent potential to act as a carbon sink and mitigate the generated carbon. Research limitations/implications This study excludes human labour, cutting and distribution of floor tiles made of Marble-stone and Kota-stone. The researcher can use the study to evaluate, compare and benchmark the various building flooring options from the environmental perspective. The study aids to the body of knowledge available on the various building flooring options by presenting the LCA or the environmental impacts generated by two flooring options. It is expected that the architects and builders can use these results to develop carbon-neutral buildings. This study provides a methodology for governments, constructors, builders and individuals to evaluate, compare and benchmark the various construction materials from the environmental perspective by computing the environmental impacts throughout the life cycle of the materials. Originality/value This study compares two widely used building flooring options using the LCA methodology and evaluates the potential of bamboo cultivation near the buildings for carbon sinks. The study is unique because it shows the environmental impacts of two flooring options and the carbon sequestration method to mitigate/absorb the generated environmental impacts in or around the building itself through bamboo cultivation. This study may set the foundation for carbon-neutral buildings.