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. 2020 Sep 7;32:106279. doi: 10.1016/j.dib.2020.106279

From selected multi-sensory dimensions to positive word of mouth: Data on what really drives generation z consumers to be attached to quick service restaurants in bloemfontein, south africa?

Eugine Tafadzwa Maziriri a,, Tarisai Fritz Rukuni a, Tinashe Chuchu b
PMCID: PMC7494664  PMID: 32984472

Abstract

This article presents raw inferential statistical data that determined the how selected multi-sensory dimensions such as sight, sound and smell would influence consumer attitudes towards quick-service restaurants, restaurant patronage intention, food purchase decision, food consumption satisfaction, restaurant attachment, repurchase intention and positive word of mouth in South African quick-service restaurants. To test the conceptual model an online questionnaire was used to collect data from Generation Z restaurant consumers within the metropolitan area of Bloemfontein, South Africa. The data were analysed using a quantitative approach. Reliability and validity were confirmed. The data was presented using Structural Equation modeling (SEM) using the Smart PLS program. The analysis of the SEM path shows estimates of the interconnectivity of the major constructs in the data. The findings from this dataset show that sight, sound and smell had on consumer attitudes towards quick-service restaurants and restaurant patronage intention. In addition, consumer attitudes towards quick-service restaurants and restaurant patronage intention had a positive influence on food purchase decisions. Food purchase decisions positively and significantly influenced food consumption satisfaction. Additionally, food consumption satisfaction positively and significantly influenced restaurant attachment, repurchase intention and positive word of mouth. Furthermore, restaurant attachment had a positive influence on repurchase intention and repurchase intention had a positive influence on positive word of mouth. Moreover, surprisingly, restaurant attachment had a negative and an insignificant influence on positive word of mouth.

Keywords: Multi-sensory dimensions, Consumer attitudes, Restaurant patronage intention, Food purchase decision, Food consumption satisfaction, Restaurant attachment, Repurchase intention, Positive word of mouth

Specifications Table

Subject Business and Marketing
Specific subject area Consumer behaviour, retailing, restaurant consumption behaviour
Type of data Tables and figures
How data were acquired Data was gathered significantly through the dissemination of online questionnaires to Generation Z consumers within the Bloemfontein Metropolitan region
Data format Raw, analysed, descriptive and statistical data
Parameters for data collection To qualify for inclusion in the sample the participants had to be Generation Z restaurant consumers within the Bloemfontein metropolitan area.
Description of data collection An online questionnaire was used to collect data from 381 Generation Z restaurant consumers within the metropolitan area of Bloemfontein. The questionnaire is provided as a supplementary file.
Data source location University of the Free State, Bloemfontein, South Africa.
Data accessibility Data is included in this article

Value of the Data

  • The data helps explain how multi-sensory dimensions such as sight, sound and smell would influence consumer attitudes towards quick-service restaurants, restaurant patronage intention, food purchase decision, food consumption satisfaction, restaurant attachment, repurchase intention and positive word of mouth in South African and African quick-service restaurants as a whole.

  • The data can be used to enlighten restaurant and marketing managers on the importance of multi-sensory dimensions, as well as how they can be beneficial to enhancement of consumer attitudes towards and consumer behavioural intentions.

  • The data can be used as a springboard for further discourse on how restaurant and marketing managers could enhance positive word of mouth in quick-service restaurants.

  • Data presented in this data article provides retail strategies which might be utilised to win market share.

  • The data does not involve any control variables but further research could consider using any one of the constructs of this study as control variables.

1. Data Description

Raw data was collected on generation Z consumers’ behaviour regarding quick-service restaurants. The data files comprise of two supplementary files, namely the dataset in Excel (file 1) and the questionnaire in MS Word (file 2). The processed data is then presented through four tables and two figures. First, the researchers, drafted a conceptual model (Fig 1) which served as a guide to test the data in a statistical manner. Table 1 presents the sample profile showing demographic data of the participants. Measurement accuracy assessment data is described in table 2, presenting the Cronbach's alpha value, composite reliability, average variance extracted (AVE) and factor loadings. Fig 2 describes the structural model which depicts the research constructs post-analysis. Table 3 provides the model fit summary while table 4 depicts the outcomes of structural equation model analysis where proposed hypotheses, path coefficients (β) and p-values are presented.

Fig. 1.

Fig 1

Maziriri sensory trigger model.

Table 1.

Sample profile.

Characteristics Frequency %
Age
18 years old 28 7,4
19 years old 32 8,4
20 years old 14 3,7
21 years old 193 50,8
22 years old 43 11,3
23 years old 40 10,5
24 years old 21 5,5
25 years old 9 2,4
Total 380 100
Gender
Male 212 55,8
Female 161 42,4
Prefer not to say 7 1,8
Total 380 100
Year of study
1st year 93 24,5
2nd year 110 28,9
3rd year 85 22,4
Post graduate study 92 24,2
Total 380 100
Allowance usually received per month
Less than R500 35 9,2
R501 – R1000 90 23,7
R1001-R1500 46 12,1
R1501-R2000 135 35,5
More than R2000 74 19,5
Total 380 100
How often do you eat from quick-service restaurants
Everyday 2 0,5
A few times a week 61 16,1
A few times a month 116 30,5
Once in a while 201 52,9
Total 380 100

Table 2.

Measurement accuracy assessment.

Research PLS Scale item Cronbach's Composite Average variance Factor
constructs code item Mean SD alpha value reliability extracted (AVE) loadings
Sound SO1 3.868 0.777 0.958 0.965 0.754 0.762
SO2 3.958 0.717 0.789
SO3 3.974 0.757 0.782
SO4 3.932 0.729 0.808
SO5 3.871 0.796 0.857
SO6 3.892 0.730 0.945
SO7 3.892 0.727 0.948
SO8 3.887 0.722 0.948
SO9 3.895 0.721 0.944
Sight ST1 4.074 0.757 0.912 0.928 0.618 0.804
ST2 4.026 0.684 0.795
ST3 3.989 0.736 0.749
ST4 4.034 0.726 0.810
ST5 3.963 0.746 0.775
ST6 3.866 0.798 0.768
ST7 3.982 0.720 0.806
ST8 4.037 0.717 0.778
Smell SM1 4.047 0.702 0.801 0.883 0.716 0.803
SM2 3.892 0.762 0.871
SM3 3.868 0.784 0.863
Consumer attitudes CTA1 4.000 0.740 0.797 0.880 0.710 0.847
CTA2 4.000 0.764 0.842
CTA3 4.082 0.715 0.840
Food Purchase decision FPD1 3.937 0.730 0.962 0.971 0.872 0.827
FPD2 3.874 0.791 0.907
FPD3 3.895 0.732 0.976
FPD4 3.889 0.728 0.977
FPD5 3.897 0.724 0.973
Restaurant patronage intention RPI1 3.868 0.777 0.835 0.901 0.752 0.855
RPI2 3.961 0.719 0.875
RPI3 3.974 0.757 0.872
Food Consumption satisfaction FCS1 3.897 0.720 0.849 0.892 0.625 0.730
FCS2 4.079 0.757 0.851
FCS3 4.032 0.684 0.829
FCS4 3.995 0.736 0.736
FCS5 4.029 0.723 0.798
Restaurant attachment RA1 3.963 0.750 0.875 0.906 0.616 0.749
RA2 3.868 0.800 0.769
RA3 3.987 0.720 0.837
RA4 4.034 0.716 0.817
RA5 4.050 0.703 0.801
RA6 3.895 0.764 0.733
Repurchase intention RI1 3.871 0.786 0.830 0.887 0.662 0.805
RI2 3.995 0.740 0.831
RI3 4.003 0.766 0.803
RI4 4.092 0.714 0.816
Positive word of mouth PWM1 3.895 0.725 0.853 0.900 0.693 0.856
PWM2 3.897 0.724 0.847
PWM3 4.076 0.759 0.830
PWM4 4.045 0.689 0.796

Fig. 2.

Fig 2

Structural model.

Table 3.

Model fit summary.

Estimated Model
SRMR 0.070
d_ULS 1.727
d_G1 0.941
d_G2 0.783
Chi-Square 1919.097
NFI 0.851

Table 4.

Outcomes of structural equation model analysis.

Path Hypothesis Path coefficients (β) T- Statistics P-value Decision
Sound -> Consumer attitudes towards quick-service restaurants H1(+) 0.110 2.284 0.023 Positive and significant
Sound -> Restaurant patronage intention H2(+) 0.727 22.212 0.000 Positive and significant
Sight -> Consumer attitudes towards quick-service restaurants H3(+) 0.391 7.379 0.000 Positive and significant
Sight -> Restaurant patronage intention H4 (+) 0.084 2.148 0.032 Positive and significant
Smell -> Consumer attitudes towards quick-service restaurants H5 (+) 0.381 6.824 0.000 Positive and significant
Smell -> Restaurant patronage intention H6 (+) 0.146 3.526 0.000 Positive and significant
Consumer attitudes towards quick-service restaurants -> Food purchase decisions H7 (+) 0.076 1.618 0.106 Positive and insignificant
Restaurant patronage intention -> Food purchase decisions H8 (+) 0.715 15.425 0.000 Positive and significant
Food purchase decisions_ -> Food Consumption satisfaction H9 (+) 0.747 24.861 0.000 Positive and significant
Food Consumption satisfaction -> Restaurant attachment H10 (+) 0.848 40.196 0.000 Positive and significant
Food Consumption satisfaction -> Positive word of mouth H11 (+) 0.952 21.966 0.000 Positive and significant
Food Consumption satisfaction -> Repurchase intention H12 (+) 0.313 4.687 0.000 Positive and significant
Restaurant attachment -> Repurchase intention H13(+) 0.535 8.461 0.000 Positive and significant
Repurchase intention -> Positive word of mouth H14 (+) 0.082 2.304 0.022 Positive and significant
Restaurant attachment -> Positive word of mouth H15 (+) −0.088 1.736 0.083 Negative and insignificant

2. Experimental Design, Materials and Methods

The data presented was based on a quantitative approach. A descriptive research design was adopted to obtain the opinions of consumers concerning the multi-sensory dimensions, consumer attitudes towards and consumers behavioural intentions. An online survey method was considered an appropriate data collection method because it allows for the collection of standardised data that permits the researcher to produce information for answering the how, who, what and when questions regarding the subject matter. Generation Z student consumers within the Bloemfontein metropolitan area. To test the data, the researchers proposed the model whereby sound, sight and smell were the predictor variables. Consumer attitudes towards quick-service restaurants, restaurant patronage intention, food purchase decision, food consumption satisfaction, were the mediating variables. Moreover, restaurant attachment, repurchase intention and positive word of mouth were the outcome variables. The researchers had to propose a model to test the validity of the proposed model as well as to determine if the data, which has been collected in the field, fits well with the proposed conceptual model.

2.1. Assessment of the goodness of fit (GoF)

Overall, R² for consumer attitudes, restaurant patronage intention, food purchase decision, food consumption satisfaction, restaurant attachment, repurchase intention and positive word of mouth in Fig. 2 indicate that the research model explains 65.6%, 81.5%, 59.3%, 55.8%, 71.9%, 66.8% and 88.6% respectively, of the variance in the endogenous variables. The following formulae given by [1], the global GoF statistic for the research model was calculated using the equation:

GoodnessofFit=(averageofallAVEsvalues*averageofallR2)2
0.701*0.4002=0.53

where AVE represents the average of all AVE values for the research variables while represents the average of all R² values in the full path model. The calculated global GoF is 0.53, which exceeds the threshold of GoF > 0.36 suggested by [2]. Therefore, it can be concluded that the research model has a good overall fit.

2.2. The standardized root mean square residual (SRMR)

The SRMR is an index of the average of standardized residuals between the observed and the hypothesized covariance matrices [3]. The SRMR is a measure of estimated model fit. When SRMR = <0.08, then the study model has a good fit [4], with a lower SRMR being a better fit. Table 3 shows the theoretical model's SRMR was 0.07, which revealed that the model had a good fit, whereas the Chi-Square was equal to 1919.097 and NFI equal to 0.851 was also measured, meeting the recommended threshold for NFI [5].

2.3. Path model

The PLS estimation path coefficients values as well as the item loadings for the research construct are shown in Fig. 2.

The Microsoft Excel spreadsheet worksheet was used to enter all data and draw conclusions from the data obtained. The Statistical Packages for Social Sciences (SPSS) and the Smart PLS software for structural equation modelling (SEM) technique were used to code data and to run the statistical analysis [6]. Moreover, Smart PLS supports both exploratory and confirmatory research; it is robust to deviations for multivariate normal distributions and is good for a small sample size [6].

3. Ethical considerations

This research acted in accordance with the ethical standards of academic research. Hence, an ethical clearance certificate (Ethical clearance number: UFS-HSD2020/0261/1805) was obtained from the University of the Free State General or Human Research Ethics Committee.

4. Academic, practical and policy implications of this data article

The present data article offers implications for academicians. The data describes, most notably the relationship between food consumption satisfaction and positive word of mouth. This data is represented by a path coefficient of (β = 0.952), a T-Statistic of 21.966 and a P value of 0.000. This discovery enhances the comprehension of retail marketing in terms of the food consumption. Policy makers and practitioners in the retail space stand to benefit from understanding factors associated with quick service restaurants.

Declaration of competing Interest

The authors declare that they have no known competing financial interests or personal relationships which have, or could be perceived to have, influenced the work reported in this article.

Acknowledgements

The authors of this data article express their sincere gratitude to the University of the Free State for funding the publication of this research work.

Footnotes

Supplementary material associated with this article can be found, in the online version, at doi:10.1016/j.dib.2020.106279.

Appendix. Supplementary materials

mmc1.xml (326B, xml)
mmc2.xls (171.5KB, xls)
mmc3.docx (52.8KB, docx)

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Associated Data

This section collects any data citations, data availability statements, or supplementary materials included in this article.

Supplementary Materials

mmc1.xml (326B, xml)
mmc2.xls (171.5KB, xls)
mmc3.docx (52.8KB, docx)

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