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This paper aims to identify and model the key barriers to implementation of project-based learning (PjBL) in higher educational institution.

Using the interpretive structural modelling (ISM) technique, the study has developed a hierarchical-based model, depicting the mutual relationships amongst the key barriers to implementation of PjBL. Additionally, the paper has performed Matrice d’ Impacts Croises Multiplication Appliqué an Classement (MICMAC) analysis to categorize the barriers in terms of their driving and dependence power.

The study has identified the key barriers to implementation of PjBL and presented an integrated model using ISM. Higher educational institutions need to pay attention to diagnose and overcome these hindrances for effective implementation of PjBL in their programmes.

The study adopts a systematic way to model the relevant barriers to implementation of PjBL. The ISM-based model would help higher education institutions to prioritize the issues as the barriers are hierarchically structured. As the input to model development is based on the experts’ opinions, it may be biased, influencing the final output of the structural model.

The presentation of PjBL implementation barriers in the form of an ISM-based model is a new effort. The model would be useful to understand the barriers and overcome these for the successful implementation of PjBL in higher educational institutions.

The purpose of this paper is to develop a process model, focusing on the detailed analysis of the requirement of the Association to Advance Collegiate Schools of Business (AACSB) standards related to Participants area, for implementation in a business school setting.

The paper presents an articulated procedure for the development of the process model. The study adopted a three-step approach for developing the process model.

The process model has provided a systemic approach to process design and implementation of AACSB accreditation standards related to Participants area in a business school environment. The process model was developed and applied over the course of systematic reviews in a business school setting.

The present study has developed the process model catering to the requirements of the AACSB standards related to Participants area only. In the near future, the authors intend to develop processes for the remaining areas of AACSB standards.

The present work attempts to develop a process model to meet the requirements of the standards related to Participants area. Academic institutions can benefit from the process model whether they are planning to implement AACSB standards for accreditation or are interested in changing their current processes following AACSB standards.

The purpose of this paper is to identify and model the key barriers to the issue of adoption and implementation of AACSB accreditation standards in business schools. Business school management can focus on removing the key barriers and implement accreditation standards and practices to improve the quality of programs offered by them.

The present study adopts the interpretive structural modeling (ISM) approach to develop a hierarchical-based model of the key barriers to implementation of Advance Collegiate Schools of Business (AACSB) accreditation standards. It also depicts the mutual relationships among the key barriers.

The paper has identified the key barriers and presented an integrated model using ISM. Business schools need to pay maximum attention to diagnose and overcome these hindrances for effective implementation of AACSB accreditation standards.

The model is based on the experts’ opinions, which may be biased, influencing the final output of the structural model. The developed model is to help the business school management in understanding the significance of the barriers, to prioritize or eliminate the same for the implementation of accreditation standards.

The depiction of barriers in the form of an ISM-based model is a new effort in the area of business school accreditation. The results will be useful to understand the barriers and overcome these for successful implementation of AACSB accreditation standards in business schools.

The purpose of the paper is to introduce the concept of a checklist, focusing on the detailed analysis of requirements of the AACSB International – the Association to Advance Collegiate Schools of Business (AACSB) standards related to the learning and teaching area – for evaluation of implementation readiness in a business school setting.

The present study adopted a multi-method approach for developing the final content of the checklist.

The introduction of the checklist has provided a systemic approach to process design and evaluation of readiness of a business school for AACSB accreditation related to the learning and teaching area. The checklist was developed and applied over the course of systematic reviews in a business school setting.

The checklist has been developed considering the requirements of the AACSB standards related to the learning and teaching area only. In the near future, the authors intend to develop checklists for the remaining areas of AACSB standards.

This research offers a comprehensive checklist comprising the requirements of the standards related to the learning and teaching area. The checklist would be useful to the business schools that are planning to implement AACSB standards for accreditation or are interested in changing their current processes to follow AACSB standards.

Hybrid nanofluids are of significant engrossment for their considerable heat transport rate. The steady flow of an incompressible viscous electrically conducted hybrid nanofluid is considered over a rotating disk under a magnetic field. Titanium oxide (TiO₂) and ferrous (CoFe₂O₄) nanoparticles are used with their physical properties and water is considered as host liquid. The purpose of this paper is to analyze how hydrothermal integrity varies for hybrid nanosuspension over a spinning disk in the presence of magnetic orientation.

Governing equations with boundary conditions are transformed by similarity transformations and then solved numerically with RK-4 method. A comparison of linear and nonlinear thermal radiation for the above-mentioned parameters is taken and the efficiency of nonlinear radiation is established, the same over nanofluid and hybrid nanofluid is also discussed. Heat lines are observed and discussed for various parameters like magnetic field, concentration, suction and injection parameter, radiation effect and Prandtl number.

Suction and increasing nanoparticle concentration foster the radial and cross-radial velocities, whereas magnetization and injection confirm the reverse trend. The rate of increment of radial friction is quite higher for the usual nanosuspension. The calculated data demonstrate that the rate for hybrid nanofluid is 8.97 percent, whereas for nanofluid it is 15.06 percent. Double-particle suspension amplifies the thermal efficiency than that of a single particle. Magnetic and radiation parameters aid the heat transfer, but nanoparticle concentration and suction explore the opposite syndrome. The magnetic parameter increases the heat transport at 36.58 and 42.71 percent for nonlinear radiation and hybrid nanosuspension, respectively.

Nonlinear radiation gives a higher heat transport rate and for the radiation parameter it is almost double. This result is very significant for comparison between linear and nonlinear radiation. Heat lines may be observed by taking different nanoparticle materials to get some diverse result. Hydrothermal study of such hybrid liquid is noteworthy because outcomes of this study will aid nanoscience and nanotechnology in an efficient way.

The objective of the paper is to identify and model the relevant enablers related to the issue of adoption and implementation of project-based learning (PjBL) in higher educational institutions.

The present study has developed an integrated model using interpretive structural modeling (ISM) and the Fuzzy Matrice d' Impacts Croises Multiplication Appliqué an Classement (FMICMAC) approach, which helps to identify and classify the important enablers and reveal the direct and indirect effects of each enabler on the PjBL implementation in higher educational institutions.

The paper has identified the key enablers and presented an integrated model using ISM and FMICMAC. The result shows that there exists a group of enablers having a high driving power and low dependence requiring maximum attention and strategic importance, while another group consists of those enablers that have high dependence and are the resultant actions.

The study proposes a scientific way to model the relevant enablers to implementation of PjBL. This would help higher educational institutions to prioritize the enablers as these are hierarchically structured. The model is based on the experts' opinions, which may be biased, influencing the final output of the structural model.

Enablers are building blocks for the adoption of PjBL. The study presents an integrated model using ISM and FMICMAC to identify and categorize various key enablers of PjBL adoption in higher education institutions. The results will help higher educational institutions to focus on the right enablers for the successful implementation of PjBL in their programs.

The paper aims to develop a process model for implementation in a business school setting, by doing a thorough analysis of the requirement of the Association to Advance Collegiate Schools of Business (AACSB) standards relating to the learning and teaching area.

The process model is developed by adopting a three-step approach. The authors have presented an articulated procedure for the development of the process model.

The process model presented in this paper offers a systemic approach to process design and implementation in a business school environment. The process model was developed and applied over the course of systematic reviews in a business school setting by aligning with the requirements of AACSB accreditation standards belonging to the learning and teaching area.

The limitation of the present study is that the scope of the process model presented here is limited to the requirements of the AACSB standards belonging to the learning and teaching area only. The authors plan to develop process models for the other areas of AACSB standards in the near future.

It is hoped that this paper can bring a contribution to professionals as well as academics, in regards to development of process framework complying with the requirements of the AACSB standards. The process model presented in this paper comprises macro-level processes and the related activities. It will serve as a guide to develop processes in a business school setting.

The present study has attempted to present a process model complying with requirements of the AACSB standards belong to the learning and teaching area. The authors feel that developed process model can be used by the business schools that are planning to implement AACSB standards for accreditation or are interested in modifying their current processes following the requirements of the AACSB standards.

The purpose of this paper is to discuss the flow and heat transference of unsteady nanofluid thin film flow due to linear stretching velocity over a horizontally placed stretching sheet in corporation of aligned magnetic field and non-uniform heat source/sink.

Leading equations of the course have been normalized via similarity approach and unraveled the resulting non-linear equations numerically by consuming RK-4 shooting practice to execute flow analysis.

A close agreement of two sets (for two different base fluids – polyvinyl alcohol and water) of result is perceived. The authors find that inclined magnetic field and nanoparticles concentration curbed velocity distribution which, in turn, causes enrichment of system of temperature distribution.

The paper acquires realistic numerical explanations in form of rapidly convergent series. The influence of emergent flow parameters on specific flow are made appropriately via graphs and charts. An unbiased result scrutiny of the existing section with formerly conveyed result is provided.

The purpose of this paper is to focus on the influence of multiple slips on MHD Williamson nanofluid flow embedded in porous medium towards a linearly stretching sheet that has been investigated numerically. The whole analysis has been carried out considering the presence of nth-order chemical reaction between base fluid and nanoparticles.

A similarity transformation technique has been adopted to convert non-linear governing partial differential equations into ordinary ones and then they are solved by using both the RK-4 method and Laplace transform homotopy perturbation method. The consequences of multiple slip parameters on dimensionless velocity, temperature and concentration and heat and mass transfer rates have been demonstrated using tabular and graphical outline.

The investigation explores that the Nusselt number reduces for escalating behaviour of velocity slip and thermal slip parameter. Fluid’s temperature rises in the presence of generative reaction parameter.

A fine conformity of the current results has been achieved after comparing with previous literature studies. Considering destructive chemical reaction, reduced Nusselt number is found to decrease, but reverse consequence has been noticed in the case of generative chemical reaction. Mass transport diminishes when the order of chemical reaction amplifies for both destructive and generative reactions.

The focus of the paper is only on the contributions toward the use of entropy generation of non-Newtonian Casson fluid over an exponential stretching sheet. The purpose of this paper is to investigate the entropy generation and homogeneous–heterogeneous reaction. Velocity and thermal slips are considered instead of no-slip conditions at the boundary.

Basic equations in form of partial differential equations are converted into a system of ordinary differential equations and then solved using the spectral quasi-linearization method (SQLM).

The validity of the model is established using error analysis. Variation of the velocity, temperature, concentration profiles and entropy generation against some of the governing parameters are presented graphically. It is to be noted that the increase in entropy generation due to increase in heterogeneous reaction parameter is due to the increase in heat transfer irreversibility. It is further noted that the Bejan number decreases with Brinkman number because increase in Brinkman number reduces the total entropy generation.

This paper acquires realistic numerical explanations for rapidly convergent temperature and concentration profiles using the SQLM. Convergence of the numerical solutions was monitored using the residual error of the PDEs. The resulting equations are then integrated using the SQLM. The influence of emergent flow, heat and mass transfer parameters effects are shown graphically.