Multi-walled Carbon Nanotubes Suspension Research Articles

Dispersion quality of aqueously dispersed MWCNT affected by step sonication process and its impact on mechanical strength of cement paste: A comparison between polycarboxylate based high range water reducers and air entraining agent

It has been widely reported that the application of high-level ultrasonic energy during dispersion process of carbon nanotube causes damage on the carbon nanotube and reduces its mechanical performance. However, if the amount of ultrasonic energy is insufficient, the quality of carbon nanotube dispersion becomes poorer so that the effect caused by carbon nanotube reinforcement is minimized. In this work, the step sonication process, which divides a prolonged sonication into a few separate cycles while maintaining the same level of ultrasonic energy, is applied since this process can improve dispersion of carbon nanotube without causing serious damage. Commercially available polycarboxylate ester, polycarboxylate, and air entraining agent were used as dispersing agents. The effect caused by step sonication and type of dispersing agent on dispersion quality of multi-walled carbon nanotube was evaluated, and their impacts on mechanical strength development of cement paste were analyzed. According to the experimental results, step sonication process improved the quality of multi-walled carbon nanotube dispersion when polycarboxylate ester and polycarboxylate were used. Step sonication process was found to be more effective for multi-walled carbon nanotube suspension with higher concentration. Among all dispersing agents, air entraining agent was found to be the best dispersing agent showing 2 times higher UV absorption peak than polycarboxylate and polycarboxylate ester, but the application of air entraining agent caused 40–65% reduction in compressive strength due to the air entrainment. It was also found that dispersion quality of multi-walled carbon nanotube affected flexural strength more significantly than compressive strength.

Sensitive Voltammetric Detection of Acetaminophen on CuONPs-MWCNTs Modified Glassy Carbon Electrode with Enhancement Effect of Anionic Surfactant

In the present work, a voltammetric method using differential pulse voltammetric technique for the assessment of antipyretic and analgesic drug, acetaminophen was developed. The CuO nanoparticles were prepared and characterized. A glassy carbon electrode (GCE) fabricated with the suspension of CuO nanoparticles (CuONPs) and multi-walled carbon nanotubes (MWCNTs) were used. The modified electrode showed improved anodic peak current by introducing an anionic surfactant sodium dodecyl sulphate in phosphate buffer solution. The consequence of pH of supporting electrolyte, amount of nanoparticles suspension and surfactant concentration was investigated at a physiological pH of 7.4. Using differential pulse voltammetry, the fabricated electrode showed linear dynamic range from 9 to 160 nM of acetaminophen concentration. From the calibration plot, the computed detection limit was 5.06 nM and quantification limit was 16.88 nM. The developed method was checked for its reproducibility and assay during a day and intraday as well. The developed process was fruitfully applied to detect acetaminophen in pediatric oral suspensions administered to infants.

Evaluating the Cytotoxicity of Functionalized MWCNT and Microbial Biofilm Formation on PHBV Composites

This study focuses on the cytotoxic evaluation of functionalized multi-walled carbon nanotubes (MWCNT) and microbial biofilm formation on poly(3-hydroxybutyrate-co-3-hydroxyvalerate) (PHBV) nanocomposites incorporating MWCNTs functionalized with gamma-aminobutyric acid (GABA) and carboxyl groups. The materials were characterized for cytotoxicity to fibroblasts and antimicrobial effects against Escherichia coli, Staphylococcus aureus and Candida albicans. The functionalization of MWCNTs was performed through oxidation (CNT-Ox) and GABA attachment (CNT-GB). The PHBV/CNT nanocomposites were produced via melt mixing. All MWCNT suspensions showed non-toxic behaviors after 24 h of incubation (viability higher than 70%); however, prolonged incubation and higher concentrations led to increased cytotoxicity. The antibacterial potential of PHBV/CNT nanocomposites against S. aureus showed a reduction in biofilm formation of 64% for PHBV/CNT-GB and 20% for PHBV/CNT-Ox, compared to neat PHBV. Against C. albicans, no reduction was observed. The results indicate promising applications for PHBV/CNT nanocomposites in managing bacterial infections, with GABA-functionalized CNTs showing enhanced performance.

Highly sensitive piezoresistive and thermally responsive fibrous networks from the in situ growth of PEDOT on MWCNT-decorated electrospun PU fibers for pressure and temperature sensing

Flexible electronics have demonstrated various strategies to enhance the sensory ability for tactile perception and wearable physiological monitoring. Fibrous microstructures have attracted much interest because of their excellent mechanical properties and fabricability. Herein, a structurally robust fibrous mat was first fabricated by electrospinning, followed by a sequential process of functionalization utilizing ultrasonication treatment and in situ polymerization growth. Electrospun polyurethane (PU) microfibers were anchored with multi-walled carbon nanotubes (MWCNTs) to form conductive paths along each fiber by a scalable ultrasonic cavitation treatment in an MWCNT suspension. After, a layer of poly(3,4-ethylene dioxythiophene) (PEDOT) was grown on the surface of PU fibers decorated with MWCNTs to enhance the conductive conjunctions of MWCNTs. Due to the superior electromechanical behaviors and mechanical reinforcement of PEDOT, the PEDOT/MWCNT@PU mat-based device exhibits a wide working range (0–70 kPa), high sensitivity (1.6 kPa−1), and good mechanical robustness (over 18,000 cycles). The PEDOT/MWCNT@PU mat-based sensor also demonstrates a good linear response to different temperature variations because of the thermoelectricity of the PEDOT/MWCNT composite. This novel strategy for the fabrication of multifunctional fibrous mats provides a promising opportunity for future applications for high-performance wearable devices.

Superior crack propagation inhibitory effectiveness of MWCNT reinforced SBS toward improving oil/gas well cement integrity

The brittleness and low cracking resistance of oil- and gas-well cement threaten its integrity, specially under the high stress concentrations at bottom-hole conditions. Fortunately, the excellent mechanical properties of carbon nanotubes and elastomers motivate researchers to utilize them as versatile candidates that can positively modify the breakage behaviors of cement-based materials. Herein, we investigated the hybridization effects of multi-walled carbon nanotubes (MWCNTs) and styrene–butadiene–styrene (SBS) on the mechanical properties and breakage behaviors of oil- and gas-well cements. MWCNTs and SBS were synthesized and then, characterized with a wide range of techniques, signifying successful syntheses of these two materials. Afterward, SBS was dry mixed with cement powder and then added to the aqueous suspension of MWCNT prepared via sonication method. The mechanical testing (e.g., uniaxial, triaxial, and Brazilian tests), numerical simulation, and imaging analysis showed that incorporation of the SBS into the cement matrix promoted the ductility and macro-scale cracking resistance. The introduction of MWCNTs improved the cohesion, micro-scale cracking resistance, and strength properties of the cement matrix. Thereupon, the hybridization of 0.075 wt% of MWCNT and 9 wt% of SBS endowed great mechanical behavior and cracking resistance to the conventional oil-well cement in both micro and macro structures. These specifications can maintain cement’s durability under the critical thermal and mechanical stress concentrations at various bottom hole conditions. This improvement contains the increasing of strain energy, tensile strength, cohesion, and Poisson’s ratio by 219.27%, 141.17%, 750% and 100%, respectively and reducing the elastic modulus by 41.67%. Fourier Transform Infrared Spectroscopy (FTIR) analysis exhibited that these enhancements can be attributed to favorable interactions between MWCNT and SBS in the cement matrix.

Support-free multi-walled carbon nanotubes-based membrane for forward osmosis applications

This study aims to fabricate a thin-film composite membrane with high water flux and low reverse solute flux for the application in a forward osmosis (FO) system. Instead of using traditional non-woven fabric or polymer materials, multi-walled carbon nanotubes (MWCNTs) layers prepared via the vacuum filtration method to reinforce the membrane are fabricated. In this work MWCNTs are modified by the mixture of polydopamine (PDA) and polyvinyl alcohol (PVA) to enhance the mechanical strength and hydrophilicity of the membrane, which is denoted as PVAm pCNTn. Finally, a polyamide (PA) active layer, used as molecular selection, is synthesized on the PVAmpCNTn film using the interfacial polymerization method, which is assigned as PVAmpCNTn-PA. Experimental results show that PDA and PVA improve adherence among the MWCNTs, strengthening the tolerance and increasing hydrophilicity of the membrane. Membrane performance is also affected by the amount of PVA(m) and PVA(n), and thickness can be controlled by adopting various amounts of MWCNTs suspension during the vacuum filtration process; the thinner membrane results in higher water flux because of lower flow resistance. In addition, the PVA concentration influences the pore size distribution and configuration within the membrane, as a result, affects the FO performance. The best FO performance are achieved by PVA0.25pCNT3-PA, with a water flux of 30.16 L m−2 h−1 and reverse solute flux of 9.34 g−2 h−1. The excellent FO performance and the simple process used in this study indicate the great potential of this work in the FO application.

Destabilization of Multi-walled carbon nanotubes suspension using novel functionalized biomaterial synthesized via microwave irradiations

Flocculants are one of the most essential tools in the hand of an environmental engineer or mineral processing technologist. However, most of the flocculants available in the market are polyacrylamide based. This always poses the threat of acrylamide release during the degradation process and also the chances of occluded acrylamide during synthesis. Acrylamide is a powerful neurotoxin and a teratogen. Our work endeavors to develop next-generation safer flocculants that are acrylamide free and hence are safer alternatives. Guar gum, an industrial crop native to the Indian subcontinent was grafted with monomer Diallyl Dimethyl Ammonium chloride (DADMAC) by microwave-assisted technique. This novel grafted product was characterized via standard physico-chemical techniques. The flocculation efficacy of the grafted biomaterial was studied through standard jar test and settling test procedures in standard kaolin and coal fine suspensions. Once superior flocculation properties of the grafted product were ascertained, it was studied as a flocculant for the destabilization of Multi-walled carbon nanotubes (MWCNTs) from its suspension. This study endeavors the synthesis of a value-added product of guar gum with established efficacy towards nanoparticle destabilization properties.

Bimetallic FeCo metal-organic-frameworks anchored multi-walled carbon nanotubes for electrochemical nitrite sensing

A heterostructured nanocomposite modified electrode was designed as a sensitive and efficient analytical tool for nitrite determination. The nanocomposite constructed from different building blocks was fabricated by ultrasonically growing bimetallic FeCo metal-organic framework (MOF) in the well-dispersed multi-walled carbon nanotubes (MWCNTs) suspensions at room temperature, where the MOF hybrid was extended to uniform thin film structure. Electrochemical experimental results demonstrate that the synergistic contributions from bimetallic active sites, MWCNTs and thin-film morphology endow modified electrode with dramatically enhanced catalytic activity metrics towards nitrite. Significantly, the co-doping of Fe-Co plays key role in improving the electronic conductivity and catalytic capacity of the MOF/MWCNTs composite. Thereinto, the FeCo-MOF/MWCNTs sensor displays excellent detection performance with a wide linear detection range (5∼5000 μM), outstanding selectivity and a detect limitation of 1.68 μM for nitrite. These superior findings provide new potentials application for the inspection of nitrite in environmental monitor.

Phase Change Energy Storage Material with Photocuring, Photothermal Conversion, and Self-Cleaning Performance via a Two-Layer Structure.

Compared with the thermal curing process, the photocuring process has advantages such as high efficiency and less energy consumption. However, the preparation of photocurable phase change materials (PCMs) with photothermal conversion and self-cleaning properties is challenging due to the conflict between the transparency required by the photocurable resin system and the opacity deduced by the large number of fillers required by photothermal conversion and the negative effect of filler steric hindrance on the reaction rate and crystallinity. In this work, a "thiol-ene" click chemical reaction induced using UV was used to prepare photocurable PCMs, followed by spraying a carboxylated multiwalled carbon nanotube (CCNT) suspension (with ethyl acetate) onto the surface to achieve an effective two-layer composite of the PCM and CCNTs, by which the rough surface of the PCM and the interaction offered by the hydrogen bonds on the interface of the PCM and the CCNTs provide sufficient adhesion for the two phases. The "thiol-ene" cross-linked polymer network provided shape stability as a support material. 1-Octadectanethiol (ODT) and beeswax (BW) were encapsulated in the cross-linked polymer network as phase change components, providing phase change latent heat. The CCNT layer provided excellent photothermal conversion and self-cleaning properties. The experimental results show that the latent heat of the PCM can reach 124.2 J/g, the water contact angle is 144°, the photothermal conversion efficiency reaches 75%, and it has significant self-cleaning performance. To the best of our knowledge, this is the first report on a photocurable PCM with photothermal conversion and self-cleaning properties.

Spatial distribution characteristics and microscopic mechanisms for enhancing mechanical properties of MWCNTs in recycled coarse aggregate shotcrete

This study aimed to investigate the spatial distribution characteristics of multi-walled carbon nanotubes (MWCNTs) in recycled coarse aggregate shotcrete (RCAS) and the influence of the dosage of MWCNTs on flow characteristic, mechanical properties and its microscopic mechanism. In this paper, 100% of natural coarse aggregate (NCA) was replaced by recycled coarse aggregate (RCA). Multiple nano-characterization techniques were adopted, and the wet-mix shotcrete technology and a combined device for variable addition of MWCNTs suspension were used. The experimental results showed that with the increase of the dosage of MWCNTs, the flow characteristic of RCAS in fresh state decreased. In terms of mechanical properties, the compressive strength, splitting tensile strength and flexural strength of RCAS all showed a trend of increasing first and then decreasing, when MWCNTs was 0.09 wt%, the flexural strength and splitting strength of RCAS reached the peak value. When the dosage of MWCNTs was 0.03 wt%, 0.06 wt% and 0.09 wt%, the quantity distribution of MWCNTs in the RCAS was average and centered. Appropriate dosage of MWCNTs (0.06 wt% or 0.09 wt%) had a positive effect on improving the compactness of interface transition zone (ITZ) of the RCA, optimizing the internal pore size distribution of RCAS, accelerating the hydration reaction rate and increasing the yield of hydration products.

Estimation of dual branch solutions for Homann flow of hybrid nanofluid towards biaxial shrinking surface

The purpose of utilizing hybrid nanofluids is to improve the heat transfer rate of the base fluid. An electromagnetically conducting flow of zinc-oxide and multiwalled carbon nanotubes suspension submerged in engine oil is explored on a biaxially, planarly, and perpendicularly stretching/shrinking surface. Dual solutions, as well as linear stability of the considered problem are studied. The energy transport analysis includes the impact of thermal radiation, heat source/sink, and Ohmic heating. In addition, similarity ansatzes are used to develop ordinary differential equations. Bvp4c technique in Matlab is applied to find the numerical solutions. It is perceived that the magnetic field's motional electromagnetic force drives the system's energy transfer rate to rise, while velocities drop causing an increment in skin friction. Moreover, the stretching parameter along the x-axis gives an increasing behavior of velocity field for the first solution; however, it declines for the second solution. It is noted that radiation causes thermal transport to exalt. Moreover, the frictional drag along the x-axis is inclined due to an increment in stretching parameters but declines along the y-axis.

Darcy-Forchheimer flow behavior and thermal inferences with SWCNT/MWCNT suspensions due to shrinking rotating disk*

The goal of the present investigation is to explore the flow and thermal behavior of non-Newtonian fluid with single-walled carbon nanotube (SWCNT)/multi-walled carbon nanotube (MWCNT) suspensions over a shrunk rotating disk subject to Darcy-Forchheimer effect. The mechanisms of suction, viscous dissipation and thermal radiation have been implemented. Entropy generation analysis is carried on. Innovated Nayak-Shaw number is modeled and its profiles analysis are narrated in a lucid manner. Noble bv4c method cum shooting technique is instrumental to devise a requisite numerical solution of the developed system of the dimension-free boundary layer equations. The outcomes of the study include amplification of non-Newtonian parameter (Casson parameter) that controls the radial and azimuthal motions. Inclusion of a significant interfacial nanolayer upgrades the heat transfer rate that in turn provides better cooling for industrial needs. Addition of more nanoparticles and a medium with high porosity (Darcy-Forchheimer effect) contribute to the entropy minimization which is ubiquitous for the greater efficiency of specific thermal systems. Nayak-Shaw number due to the fluid friction irreversibility peters out and that due to porous medium irreversibility ameliorates with the strengthening of porosity parameter effectively. It is obvious that the contribution of porous medium irreversibility dominates over due to fluid friction irreversibility.

Phase Change Material with Gelation Imparting Shape Stability.

Blending two gelators with different chemistries (12-hydroxystearic acid and a bis-urea derivative, Millithix MT-800) was used to impart shape stability to CrodaTherm 29, a bio-based phase change material (PCM), melting/crystallizing at near-ambient temperature. The gelators immobilized the PCM by forming an interpenetrating fibrillar network. 15 wt % concentration of the gelators was found to be effective in preventing liquid PCM leakage. In order to improve the mechanical properties and thermal conductivity (TC) of the PCM, gelation of suspensions of multiwalled carbon nanotubes (MWCNTs) and graphene nanoplatelets (GnPs) in a molten material was done at concentrations exceeding their percolation thresholds. Compared to pristine PCM, the gelled PCM containing 3.0 wt % of GnPs demonstrated a shorter crystallization time, ∼1.5-fold increase in strength, improved stability, and ∼65% increase in TC. At the same time, PCM filled with up to 0.6 wt % of MWCNTs had diminished strength and increased leakage with a slight TC improvement. Gelation of PCM did not significantly alter its thermal behavior, but it did change its crystalline morphology. The developed shape-stable PCMs may have a wide range of applications in ambient temperature solar-thermal installations, for example, temperature-controlled greenhouses, net zero-energy buildings, and water heaters.

Synthesis, characterization and flocculation efficiency of grafted Moringa gum based derivatives

This paper reports the synthesis of Moringa gum based flocculants with different monomers using aqueous microwave based method. Moringa was grafted with acrylamide, acrylic acid and an assisted hybrid comonomer (PAM-co-PAA) to develop a comprehensive material suited for all kinds of water quality treatment. Grafting was confirmed by different analytical techniques like intrinsic viscosity measurements, molecular weight, elemental analysis, FE-SEM, XRD, FTIR studies and NMR. All these grafted grades were optimized for best performance at different pH (2−10) and temperature (10-60 °C) range. The flocculation efficiency was tested using coal fine, kaolin and multi-walled carbon nanotube (MWCNTs) suspensions. The efficiency of MOG-g-(PAM-co-PAA) was found to be consistently best as compared to MOG-g-PAM and MOG-g-PAA in all the solutions. This may be due to competitive grafting of PAM with respect to PAA. The treatment with 90% (coal fine), 91% (river water) 92% (kaolin) and 98% (MWCNTs) efficiency was achieved. These results indicate that modified Moringa gum based flocculants can be used for many emerging contaminants in future.

Concentration dependent debundling and single tube dispersions of pristine multiwalled carbon nanotubes functionalized with double tail phospholipids

Multiwalled carbon nanotubes (MWNTs) exist as aggregates of highly entangled tubes due to large aspect ratios and strong Van der Waals interactions among them in their native states. In order to render them suitable for any application, MWNTs need to be separated and dispersed uniformly in a solvent preferably as individual tubes. In the present work, it is demonstrated that a double tail lipid such as 1, 2-dipalmitoyl-sn-glycero-3-phosphoethanolamine (DPPE) is capable of dispersing MWNTs in ethanol. Ultra-stable suspensions were obtained by optimizing two key parameters: DPPE to MWNT weight ratio (ε) and MWNT concentration (c). Stability of the suspensions increased with the increasing ε value up to an optimum point (ε = 1.8) and then decreased drastically beyond that. CNT dispersions with ε = 1.8 were extremely stable (with a Zeta potential of 108.26 ± 2.15 mV) and could be retained in suspended form up to 3 months. Effect of MWNT concentration on disaggregation was very significant and stable suspensions could be formed for MWNT concentrations only below 0.14 mg ml−1. Above this concentration, no stable dispersions could be obtained even with ε = 1.8. Compression isotherms of Langmuir monolayers of the DPPE functionalized MWNTs spread at the air water interface were highly repeatable, suggesting that the MWNTs in dispersion were present as separate tubes coated with phospholipids. SEM micrographs of the Langmuir–Blodgett (LB) films, deposited at high surface pressures on silicon wafers, show that MWNTs remain as single nanotubes with no signs of reaggregation. TEM micrographs of MWNT suspensions indicated random adsorption of DPPE on MWNTs. Our work makes it possible to explore potential applications of LB films of MWNTs (stabilized by DPPE) in the development of conducting thin films for sensor applications or as supports to immobilize catalysts for heterogenous reactions.

Effect of Ultrafine Additives on the Morphology of Cement Hydration Products

The present research is focused on the investigation of the influence of ultrafine additives on the structure formation of hardened cement paste and the establishment of the mechanisms of the morphological transformations, which determine the properties of hydrated products. In the course of the research, the modification of ordinary Portland cement was performed by the suspension of multi-walled carbon nanotubes (MWCNTs), carbon black (CB) paste, and silica fume (SF). Scanning electron microscopy (SEM), energy-dispersive X-ray (EDX) microanalysis, X-ray diffraction (XRD) analysis, thermal analysis, and Fourier-transform infrared (FTIR) spectroscopy were used to study cement hydration products. The morphology of hardened cement paste depends on the chemical reactivity of additives, their geometry, and their genesis. The action mechanism of the inert carbon-based additives and pozzolanic silica fume were considered. The cement hydration products formed in the process of modification by both types of ultrafine additives are described. In the case of the modification of cement paste by inert MWCNTs and CB paste, the formation of cement hydration products on their surface without strong adhesion was observed, whereas in the case of the addition of SF separately and together with MWCNTs, the strong adhesion of additives and cement hydration products was noted.

Hydration and Microstructure of Nano Modified Cement Paste

Hydration of cement systems modified by nano additives requires the understanding of its mechanisms. The present research is focused on the investigation of hydration processes in cement pastes modified by multi-walled carbon nanotubes (MWCNTs) suspension. The ultrasonication method was used for homogenization of MWCNTs in the volume of an aqueous suspension. The hydration of cement pastes was assessed by the calorimetry test. The prolongation of cement hydration in case of modification by MWCNT suspension was observed. The microstructure observation by scanning electron microscopy (SEM) was performed for identification of MWCNT's dispergation in hardened cement pastes and for the observation of cement hydration products. The compressive and flexural strength were tested to evaluate the effect of MWCNT on mechanical properties of hardened cement paste.

Electro-optical properties of a liquid crystalline colloidal solution of rod shaped V2O5 nanoparticles and carbon nanotubes in an alternating current electric field

ABSTRACT We study the liquid crystalline phase behaviour of the two-component aqueous colloidal suspensions of multiwalled carbon nanotubes (MWCNTs) and rod-like vanadium pentoxide (V2O5) nanoparticles. The phase diagram features a stable nematic phase in a wide range of concentration of solid components. The oriented nematic phase of the two-component suspension was exposed to the action of alternating current electric field. A variation in MWCNTs concentration within 0.01–0.51 wt.% demonstrates a significant increase in the optical response of the system to the applied electric field.

Sorption and Desorption Analysis of Nitrobenzene on Differently Functionalized Multiwalled Carbon Nanotubes and Implications on the Stability

The stability of carbon nanotubes (CNTs) suspension is a key factor in determining their transport, fate, and toxicity in an aquatic environment, which is significantly influenced by CNTs’ nature and water chemistry. Macromolecular dissolved organic matter (DOM) is reported to influence the stability of CNTs aggregation. However, little is known on small polar dissolved organic compound’s effects on CNTs aggregation. Nitrobenzene was selected to investigate its interaction with three different functionalized multiwalled CNTs (MWCNTs). Both the stability of CNTs aggregation and sorption hysteresis were affected by the initial concentration of nitrobenzene and the surface functionalization coverage of MWCNTs. At the initial concentration below 580 mg/L, the thermodynamic index of irreversibility (TII) and turbidity of CNTs suspension had the same tendency, indicating that the underlying mechanism is closely related. A conceptual adsorption–desorption model was proposed to further explain the relationship between the sorption hysteresis and stability of MWCNTs suspension under different initial concentrations of nitrobenzene. This provided data support to further clarify the environmental behaviors and risks of CNTs.

Thermal and boundary layer flow analysis for MWCNT-SiO2 hybrid nanoparticles: An experimental thermal model

The nanomaterials, due to improved thermal consequences, intended the researcher’s attention in recent decade due to several engineering applications. The concept of boundary layer is quite necessitated in era of engineering like furnishing of different objects designs to control the drag force in case of flow of various working fluids. This theoretical nanofluid continuation aims to access the thermal aspects of hybrid nanomaterials in flow of non-Newtonian fluids confined by a moving belt. The hybrid characteristics of hybrid nanofluid are examined with multiple suspension of Silicon dioxide (SiO2) and multi-walled carbon nanotubes (MWCNTs) with base material ethylene glycol (EG) and water. The conservation laws and thermal features are incorporated to model the governing equations of hybrid nanofluid problem. The mathematical relations for model’s parameters are developed with applications of experimental modeling and justifications. The results in the form of velocity and temperature profiles for boundary layer regions are calculated with influence of different nanoparticles volume fractions and displaced by graphically. The altered developed pattern of momentum as well as thermal boundary layer thickness is accessed with associated boundary growth.