Factor Rotation Research Articles

Development of the Followership Evaluation Instrument for Nurses: A Prospective Longitudinal Survey.

Background and Purpose: Maintaining a healthy work environment in nursing practice depends not only on the leader's skill but also on the nursing staff's followership. The study purpose is to develop a followership instrument for nurses. Methods: We developed a followership evaluation instrument using data from two surveys conducted in 2013 and 2014 and assessed its validity using a questionnaire with nurses in Japan. We tested the instrument's internal consistency reliability using exploratory factor analysis with Promax rotation and confirmatory factor analysis. Results: Cronbach's coefficient α (alpha) for the 13 instrument items was .911. The item-remainder correlation was .487-.734. Conclusions: The validity and reliability of the new followership instrument were established by confirming its internal consistency, test-retest reliability, and content, face, and construct validity.

Effect of Precipitation-Free Zone on Fatigue Properties in Al-7.02Mg-1.98Zn Alloys: Crystal Plasticity Finite Element Analysis.

Age-strengthened aluminum alloys, as important lightweight structural materials, have significantly lower fatigue properties compared to non-age-strengthened aluminum alloys. In this study, the polycrystalline models containing precipitation-free zones (PFZ) were constructed by secondary development of the traditional polycrystalline model by modifying the mesh file. Polycrystalline finite element simulations of peak age-treated Al-7.02Mg-1.98Zn alloys were carried out with this model. The results demonstrate that the PFZ's presence markedly reduces the alloy's yield strength and a substantial stress concentration occurs adjacent to the PFZ, generating significant compressive stresses at the PFZ. Under cyclic loading, the maximum strain energy dissipation in the model containing the PFZ far exceeds that observed in the conventional polycrystalline model, and the strain energy dissipation observed in the PFZ is significantly higher than that at other locations. This indicates that the PFZ is the main region for fatigue crack initiation. In addition, the introduction of a rotation factor to simulate the inhomogeneous rotation within the grain reveals that the additional stress concentration in the PFZ introduced by the aluminum alloy-forming process further increases the fatigue crack initiation driving force.

Study on Damage Index for Beam–Column Joints with Flush End-Plate Connections

Experimental results from 109 flush end-plate (FEP) connections were analyzed to investigate the failure modes and damage index of FEP connections across various damage states. The present study was conducted in accordance with the performance design objectives specified in China’s GB50011-2010 Code for Seismic Design of Buildings. The observed rotation angles and corresponding rotation factors were systematically categorized using a probabilistic statistical approach, with the 95% confidence lower limit as the primary constraint. The damage states of FEP connections were classified as virtually undamaged, lightly damaged, moderately damaged, severely damaged, and joint failure. A minimum plate thickness of 12 mm and a minimum high-strength bolt diameter of 20 mm are recommended to be used for the FEP connections, in accordance with building codes in China, the United States, and Europe. Quasi-static tests of six FEP connections were conducted to validate the damage-state categorization. The results revealed that for connections undergoing moderate and severe damage, the mean rotation factor deviated from the theoretical values proposed in this study by 3.7% and 9.4%, respectively. Therefore, the damage state of FEP connections can be reliably predicted based on different rotation angles using the damage-state categorization presented herein.

Impact of temperature-reliant thermal conductivity and viscosity variations on the convection of Jeffrey fluid in a rotating cellular porous layer

In this analysis, the collective impact of temperature-dependent thermal conductivity and viscosity variations on the convective instability of a Jeffrey fluid in a rotating layer of cellular porous material is examined using an improved Jeffrey–Darcy model. This study has significant implications for cellular foams made from plastics, ceramics and metals, in which radiative heat transmission can be taken as a diffusion practice. Utilizing the linear stability concept and Galerkin method, approximate analytical and numerical solutions accurate to one decimal place are offered. The analysis reveals that the effect of the thermal conductivity variation factor and the rotation factor is to postpone the convective wave, whereas the viscosity variation factor and the Jeffrey factor have a dual effect in the form of rotation. The range of the convective cell is reduced with cumulating thermal conductivity variation factor, viscosity variation factor, Jeffrey factor and rotation factor. In the absence of rotation, the range of the convective cell is not dependent on the Jeffrey factor or the viscosity variation factor. Furthermore, the outcomes are matched with the existing literature for the specific case of this investigation.

A Finite Integral Transform-Based Generalized Eigenvalue Formulation for Buckling of Orthotropic Rectangular Plates with Rotational Restraints

Although the finite integral transform (FIT) method has been developed for buckling analysis of rectangular thin plates, the existing formulation involves solving complex nonlinear determinantal equations, leading to potentially questionable numerical results. To address this challenge, a new FIT-based formulation is established that transforms the solution of a complex nonlinear equation into that of a straightforward generalized eigenvalue problem. New analytical solutions for buckling of orthotropic rectangular thin plates with rotational restraints are obtained. The solution procedure is implemented via the following four steps: imposing the two-dimensional FIT on the governing equation; inputting deflection conditions of four edges, by which the relations between the transformed deflections and specific unknowns are provided; imposing the one-dimensional FIT on the elastic conditions to replace the unknowns with the transformed deflections, a generalized eigenvalue problem is constructed; determining the final analytical solutions by solving the generalized eigenvalue problem. Comprehensive highly accurate buckling load/mode solutions for typical rotationally restrained orthotropic plates are presented as benchmarks. The effects of boundary conditions, rotational fixity factors, and loading ratios on the buckling behaviors of orthotropic plates are expediently investigated adopting the present solutions.

Deformation anisotropy and lamellar α re-orientation of TC17 alloy under the different slip modes of HCP structure

Deformation anisotropy and re-orientation for α phase during isothermal compression of TC17 alloy with basketweave microstructure were investigated systematically by quantitative analysis the influence of tilt angle between compression axis and c-axis on LABs density, rotate factor and ratio of activated slip system. The test results revealed that the tilt angle between compression axis and c-axis affects the deformability of α grain by affecting the rotation tendency and the number of activated slip systems. It results in the different prone of lamellar α with different orientation to globularization. Therein, the variation of the rotation factor with tilt angle conforms to the quadratic function, reaching a maximum value around 45°. When the rotation factor is small, the ratio of (01–11) [1–210] slip system with small Burgers vector at the phase boundary is large, the rotation tendency is poor, and the intragranular dislocation slip replaces the grain rotation as the strain accommodation mechanism, the lamella is more prone to globularization. And when the tilt angles are between 0°–13°, 13°–35°, 35°–78° and 78°–90°, the most easily activated slip systems are pyramidal <a+c> slip, basal <a> slip, pyramidal <a> slip and prismatic <a> slip, respectively. The more slip systems may be activated, the lamella is more prone to globularization. In addition, isothermal compression destroys the initial preferred orientations of the α grains and causes the lamellar α to rotate towards the direction that forms (0 0 0 1) plane texture, which is formed due to the activation of the prismatic <a> slip. Then, the (0 0 0 1) plane texture will be weakened due to a large number of randomly oriented grains generated by recrystallization under larger height reduction.

Validation of the Polish version of an Ageism Scale for Dental Students (ASDS-PL).

Ageism is one of the common forms of discrimination and prejudice. It has also been shown to be present in health professionals, including doctors, nurses, and medical students. The aim of this study was to translate the Ageism Scale For Dental Students (ASDS) into Polish, perform a culture adaptation, and conduct a preliminary validation analysis. The survey was administered to 202 third-, fourth-, and fifth-year students at the Jagiellonian University (No. 1072.6120.283.2020). Data were analyzed using principal components analysis (PCA) with an oblique, Promax rotation, and confirmatory factor analysis (CFA). Cronbach's alpha (α) was calculated to check the internal consistency reliability. Discriminant validity was analyzed using the Mann-Whitney and Kruskal-Wallis test. PCA produced a 10-item scale distributed into three factors, which explains 59.52% of the total variance. Factor 1 ("preconceived notions about dental treatment") contained four items (α=0.703), Factor 2 ("cost-benefit of providing care for older patients")-four items (α=0.660) and Factor 3 ("dentist-older patient interaction")-two items (α=0.662). CFA confirmed that the model is a good fit (RMSE=0.058, 90% CI from 0.014 to 0.092, CFI=0.950, and TLI=0.926). The discriminant validity showed statistically significant differences in factors or individual items related to the year of the study, gender, and having a history of living with an older person(s) or an older patient(s) treated. The validation of the ASDS conducted in Poland identified 10 items with sufficient validity and reliability.

Development and Validation of a Scale to Measure Violence against Women among Myanmar Migrant Women in Thailand

Introduction: Violence against women (VAW) is a serious human rights violation with significant implications for public health. VAW affects the well-being of women, children, and families. This study aims to develop and validate a scale specifically designed for identifying and assisting migrant women who have experienced violence. Methods: A cross-sectional survey using stratified sampling was conducted among 295 Myanmar migrant women in Thailand. Violence among these women was assessed using self-administered questionnaires with data collection taking 15–20 min per participant between September and December 2023. The construct validity of the Violence against Migrant Women Scale (VAMWS) was confirmed through exploratory factor analysis (EFA) estimated by weighted least squares means and variance with Geomin rotation in Mplus software. Results: The EFA revealed a 13-item scale with a four-factor structure that fit the data exceptionally well, as indicated by the high comparative fit index of 0.99 and low root mean square error of approximation value of 0.02. Communalities ranged from 0.58 to 0.99 and rotated factor correlations between 0.36 and 0.53. The four dimensions were as follows: F1 – physical (4 items, loadings 0.51–0.73), F2 – sexual (2 items, loadings 0.66–0.99), F3 – psychological (3 items, loadings 0.57–0.73), and F4 – economic (3 items, loadings 0.50–0.78). VAMWS had Cronbach’s alpha of 0.90 and corrected item–total correlation values from 0.53 to 0.74. Physical violence, experienced by 50% of respondents, was most common, primarily by spouses, then siblings, acquaintances, employers, parents, and friends. Conclusion: VAMWS is applicable for assessing violence prevalence across multiple sectors, including health care, social services, law enforcement, and future research endeavors.

Dynamical Phenomena Based on Chaotic Systems Without Equilibria

A chaotic system without equilibrium points is a focal subject in recent years, and its unique dynamic characteristics have attracted extensive research. In this paper, different chaotic systems with no equilibrium points are constructed by modifying the Sprott-A system. The test results show that the first system is conservative. After investigating the hidden dynamical behavior of the first system, the rotation attractor phenomenon is revealed by the rotation factor. Next, we make a second transformation of the Sprott-A system. By introducing a trigonometric function, we get a new system that can generate infinitely many coexisting grid attractors. After calculation, we find that the new system still belongs to the chaotic system without equilibrium points and the coexistence phenomenon of attractors is created by adjusting the initial value continuously. The chaotic system without equilibrium points which can realize the coexistence of attractors has potential applications in some related fields, which is worthy of further study.

User comfort and naturalness of automated driving: The effect of vehicle kinematic and proxemic factors on subjective response

User comfort in higher-level Automated Vehicles (AVs, SAE Level 4+) is crucial for public acceptance. AV driving styles, characterised by vehicle kinematic and proxemic factors, affect user comfort, with “human-like” driving styles expected to provide natural feelings. We investigated a) how the kinematic and proxemic factors of an AV's driving style affect users' evaluation of comfort and naturalness, and b) how the similarities between automated and users' manual driving styles affect user evaluation.Using a motion-based driving simulator, participants experienced three Level 4 automated driving styles: two human-like (defensive, aggressive) and one machine-like. They also manually drove the same route. Participants rated their comfort and naturalness of each automated controller, across twenty-four varied UK road sections. We calculated maximum absolute values of the kinematic and proxemic factors affecting the AV's driving styles in longitudinal, lateral, and vertical directions, for each road section, to characterise the automated driving styles. The Euclidean distance between AV and manual driving styles, in terms of kinematic and proxemic factors, was calculated to characterise the human-like driving style of the AV.We used mixed-effects models to examine a) the effect of AV's kinematic and proxemic factors on the evaluation of comfort and naturalness, and b) how similarities between manual and automated driving styles affected the evaluation. Results showed significant effects of lateral and rotational kinematic factors on comfort and naturalness, with longitudinal kinematic factors having a less prominent effect. Similarities in vehicle metrics, such as speed, longitudinal jerk, lateral offset, and yaw, between manual and automated driving styles, enhanced user comfort and naturalness.This research facilitates an understanding of how control features of AVs affect user experience, contributing to the design of user-centred controllers and better acceptance of higher-level AVs.

Long-Time Coherent Integration Method for Passive Bistatic Radar Using Frequency Hopping Signals.

Long-time coherent integration using frequency hopping signals is a challenging problem for passive bistatic radar due to its frequency hopping characteristics. Apart from range walk, range curve, and Doppler frequency migration, Doppler diffusion caused by frequency hopping characteristics occurs within the observation time, which also lowers the detection performance. To deal with this problem, a novel coherent integration method for frequency hopping signals based on passive bistatic radar is proposed in this paper. In this novel method, range curve and range walk are eliminated by applying generalized Keystone transform. Then, Doppler frequency migration caused by the target's acceleration is compensated for by a parameter search with a designed search scope. Finally, Doppler frequency migration caused by frequency hopping characteristics is compensated for by designing a new acceleration compensation function and a revised rotation factor for Fourier transform. Since migration effects caused by frequency hopping characteristics are considered and compensated for when using frequency hopping signals, the weak target echo can be better integrated in the observation time compared to when using the existing methods. The simulation results and performance analysis illustrate the effectiveness of the proposed method.

A numerical analysis of the rotational flow of a hybrid nanofluid past a unidirectional extending surface with velocity and thermal slip conditions

Abstract This work inspects 3D magnetohydrodynamic hybrid nanofluid flow on a permeable elongating surface. The emphasis of this paper is on the study of hybrid nanofluid flow within a rotating frame, taking into account the simultaneous impact of both thermal and velocity slip boundary conditions. The chosen base fluid is water, and the hybrid nanofluid comprises two nanoparticles Cu \text{Cu} and Al 2 O 3 {\text{Al}}_{2}{\text{O}}_{3} . The effect of the magnetic and porosity parameters is taken into account in the momentum equation. The thermal radiation, Joule heating, and heat source are considered in the energy equation. Using a similarity system, we transform the PDEs of the proposed model into ODEs, which are then solved numerically by the bvp4c technique. The magnetic field shows a dual nature on primary and secondary velocities. Enrich magnetic field decreases the primary velocity and enhances the secondary velocity. The rotation parameter has an inverse relation with both velocities. The temperature profile amplified with the escalation in heat source, magnetic field, rotation factor, and Eckert numbers. The skin friction is boosted with magnetic parameters while the Nusselt number drops.

Syntheses, Structural Analyses, and Properties of Condensed Arenes with Multihelicity.

A C1-symmetric hexapole helicene (HH) and a C3-symmetric dodecapole helicene (DH) were prepared, and their three-dimensional structures were verified by X-ray crystallography and density functional theory calculations. The molecular geometries and local helical configurations of their most stable diastereomers were correctly predicted by arranging suitable conformations of the peripheral aryl rings. Importantly, the outermost three [5]helicenes with a consistent configuration in DH were observed to increase the thermostability, enantiomerization barrier (ΔH⧧ = 40.5 kcal/mol), specific rotation ([α]24D = -4228°) and absorption dissymmetry factor (gabs = 1.35 × 10-3 at 453 nm).

Customizing twisted structured light beams

We demonstrate a practical approach to generate twisted structured beams (TSBs) by superposing spiral sub-phase with different azimuthal rotation factors. Diverse morphologic twisted beams are customized by independently controlling the azimuthal rotation factor and the spiral sub-phase number. The spiral intensity pattern of the twisted beams depends on the sign of the topology. Moreover, various twisted structured array beams (TSABs) are constructed by the transverse phase-shift approach, and the focal length for the twisted beams is tunable by introducing a longitudinal phase-shift factor. Furthermore, trapping and guiding microspheres are experimentally executed, which proves the feasibility and practicability of such twisted array beams. The independent control for the TSBs and TSABs provides enhanced flexibility to manipulate matter with light and paves the way for the applications in fabricating chiral nanostructures and manipulating microparticles.

Multi-Target Pairing Method Based on PM-ESPRIT-like DOA Estimation for T/R-R HFSWR

The transmit/receive-receive (T/R-R) synergetic High Frequency Surface Wave Radar (HFSWR) has increasingly attracted attention due to its high localization accuracy, but multi-target pairing needs to be performed before localization in multi-target scenarios. However, existing multi-target parameter matching methods have primarily focused on track association, which falls under the category of information-level fusion techniques, with few methods based on detected points. In this paper, we propose a multi-target pairing method with high computational efficiency based on angle information for T/R-R synergetic HFSWR. To be more specific, a dual-receiving array signal model under long baseline condition is firstly constructed. Then, the amplitude and phase differences of the same target reaching two subarrays are calculated to establish the cross-correlation matrix. Subsequently, in order to extract the rotation factor matrices containing pairing information and improve angle estimation performance, we utilize the conjugate symmetry properties of the uniform linear array (ULA) manifold matrix for generalized virtual aperture extension. Ultimately, azimuths estimation and multi-target pairing are accomplished by combining the propagator method (PM) and the ESPRIT algorithm. The proposed method relies solely on angle information for multi-target pairing and leverages the rotational invariance property of Vandermonde matrices to avoid peak searching or iterations, making it computationally efficient. Furthermore, the proposed method maintains superb performance regardless of whether the spatial angles are widely separated or very close. Simulation results validate the effectiveness of the proposed method.

ВЛИЯНИЕ МЕТЕОРОЛОГИЧЕСКИХ ПОКАЗАТЕЛЕЙ НА УРОЖАЙНОСТЬ ОВСА В СЕВООБОРОТАХ

The studies were carried out to assess the influence of predecessors in crop rotations and nutrition background on the formation of oat yields under different weather conditions. The work was carried out in a stationary two-factor experiment in 2016–2020 in the conditions of the Middle Urals on dark gray heavy loamy soil. The experimental design included the following options: crop rotation (factor A) – green manure (green manure fallow (rapeseed), wheat, oats, peas, barley), grain-grass rotation with a share of legumes of 40% (peas, wheat + clover, clover 1 g.p., barley, oats); background nutrition (factor B) – without mineral fertilizers (control); N30P30K36 (on average per 1 ha of crop rotation area - mineral background); N24P24K30 in combination with green manure and straw (organomineral background). The lowest harvest of oat grain was noted in 2016 in severely arid conditions (GTC = 0.63); it varied depending on the predecessor and nutritional background from 1.30 to 1.70 t/ha. The highest productivity of grain fodder crops was observed in 2017-2018 with a hydrothermal coefficient of 1.8...2.0. In the control variant, it varied in the range from 3.09 to 3.69 t/ha, when applying fertilizers – 4.20…5.52 t/ha. In slightly dry conditions in 2020, the productivity of oats in crop rotations in the control was lower than under favorable weather conditions by 30%, and against the background of fertilizers - by 24...33%. In general, the productivity of the grain forage crop in the control depended little on the predecessor in crop rotations. The placement of oats as a second crop after clover on mineral and organomineral nutrition backgrounds ensured a noticeable increase in grain harvest in relation to green manure crop rotation (the second crop after plowing rapeseed), with the exception of 2016. On average, over the years of research, the increase in oat grain in grain-grass crop rotation was 0. 55…0.56 t/ha. The correlation between the productivity of grain fodder crops and the amount of precipitation and the GTC value was positive (r=0.82...0.95), and with the temperature regime during the growing season - negative (r=-0.88...-0.97).

Coupled thermo-elastic dynamics of rotating pre-twisted blades exposed to thermal shock including nonlinear rotational effects

Rotating blades operating under high-temperature experience intense mechanical and thermal stresses induced by centrifugal forces and thermal shock. In this research, to address this critical yet understudied topic, coupled thermo-elastic dynamics of rotating blades incorporating precise rotational effects is investigated. A comprehensive modeling approach, characterizing blade geometry in terms of pre-twist and pre-set angles is employed based on the theory of surfaces. Thermal strain–displacement field is defined based on third-order shear deformation theory in the model integrated with a third-order expansion of temperature change distribution within the blade. Rotational factors related to Coriolis, centrifugal stiffening, and rotational softening effects are considered. In the case of stiffening effects, two different modeling approaches including direct integration of centrifugal forces (DICFs), and pre-stressed dynamics about steady-state equilibrium deformations (SSEDs) are employed. When incorporating large-amplitude SSEDs in the latter, nonlinear rotational effects are incorporated into the model. To overcome the complexity arising from coupled thermo-elasticity, and rotational motion, the spectral Chebyshev technique is applied to the derived integral boundary value problems and coupled energy equations. Finally, natural frequencies, and thermal and centrifugal deformations are investigated comprehensively by including DICFs and pre-stressed dynamics. Results show that thermo-elastic dynamics of the system is highly affected by the modeling approaches used for centrifugal stiffening effects.

Eco-friendly products and gender: an exploration of environmental perspectives

Countries must balance growth in economy with ecological preservation in order to successfully address the degradation of the environment. This frequently entails putting in place laws and procedures that support eco-friendly technologies, conserve natural resources, and promote ethical consumer behavior. There do not exist universal remedies because different countries and areas face different issues and have different opportunities. The principal objective of this study is to evaluate gender differences in perceptions of the environment and eco-friendly products. Moreover, this research evaluate the connection between environmental consciousness and eco-friendly products. According to the t test results, there are no noticeable gender disparities in people's perspectives toward the environment and eco-friendly products. The underlying variables of environmental perspectives have been separated into primary factors by the rotational factor matrix. According to the outcomes of the multiple regression assessment, customer perceptions of the function of the authorities and their individual requirements for environmental behavior had a substantial impact on how they felt about eco-friendly products. Further research found that the most significant factor influencing people's perceptions toward eco-friendly products was personal norm. On the other hand, the public's perceptions toward eco-friendly products were not significantly influenced by the preservation of the environment.

Structural, optical and heat transfer characteristics of rotating [MgO+ ZrO2/PEG-H2O]h Hybrid nanofluid flow over an expanding surfaces with activation energy

SignificanceHybrid nanofluids have garnered significant interest due to their potential for enhanced thermal and optical properties compared to their individual counterparts. AimThe aim of this research is to examine the structural, optical, and heat transfer properties of a hybrid nanofluid [MgO+ZrO2/PEG-H2O]h within a rotating system. This research integrated variable viscosity, MHD, convection, and activation energy terms into the momentum, energy, and concentration equations. A comprehensive experimental analysis, including Fourier-transform infrared and ultraviolet visible spectroscopy, elucidates the structural arrangement, optical behavior, and thermal transport properties of the nanofluids. MethodologyThe partial differential equations that govern the system are converted into nonlinear ordinary differential equations through similarity transformations. Then, these ODEs are numerically solved by employing the Runge-Kutta-Fehlberg method in combination with a shooting procedure. FindingsThe research findings demonstrate that the rotational factor impacts skin friction differently by 2 % on x and y axes, while skin friction surges by 3.63 % in [MgO+ZrO2/PEG-H2O]h hybrid nanofluid with higher magnetic field intensity. The heat transmission rates of the [MgO+ZrO2/PEG-H2O]h hybrid nanofluid are significantly higher by 4.58 % compared to the [ZrO2/PEG-H2O]n nanofluid. The mass transfer rate of [ZrO2/PEG-H2O]n declines by 3.57 % with the rise of the activation energy factor. Utilizing spin coating, thin films of nanostructures [ZrO2/PEG-H2O]n, [MgO/PEG-H2O]n and [MgO+ZrO2/PEG-H2O]h are fabricated, resulting in films with a consistent thickness of ∼200 nm at a temperature of 25 °C. A reduction in the difference in energy bandgap values from 4.5 eV for [ZrO2/PEG-H2O]s to 5.3 eV for [MgO/PEG-H2O]n and 4.8 eV for [MgO+ZrO2/PEG-H2O]h is observed. This indicates that the [MgO+ZrO2/PEG-H2O]h hybrid nanofluid yields an appropriate bandgap compared to individual nanofluids because hybrid nanofluids can lead to synergistic mechanisms that elevate their electronic attributes.

Irreversible and reversible chemical reaction impacts on convective Maxwell fluid flow over a porous media with activation energy

The Maxwell model of fluid flow in a rotating frame over a porous media is investigated in this paper. Binary chemical reactions and fluid movement under activation energy are both covered in this study. The impact of mass and heat transmission along the boundary layer is investigated in an equilibrium process. Using the method of similarity transformation, the controlling partial differential equations are changed into ordinary differential equations. The results are confirmed using the bvp4c Matlab built-in programme, and the altered equations are resolved utilizing a 4th order Runge Kutta based shooting method. Reversible and irreversible processes, activation energy, chemical reactions, Deborah numbers, and rotation parameters are some of the parameters for which the results are offered in tables and graphs. The prior objective of this study is to examine the impact of activation energy and chemical reactions on Maxwell fluid flow in an equilibrium setting. The concentration boundary layer for reversible flows is significantly finer than that of irreversible flows with the influence of activation energy, chemical reaction, and rotation factors. A reduced boundary layer thickness can improve the rates of heat and mass transmission in tremendous applications, such as exchangers of heat and chemical reactors. In this chemical process, sulphuric acid is utilized as a catalyst along with Maxwell fluid which affects the boundary layer reaction rate and selectivity. This is crucial for efficient catalytic process design. Controlling reaction rates using fluid elasticity and reaction kinetics is useful in operations that need accurate product production.