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Predicting the relationship between consumer buying behavior (CBB) and consumption metaphor (CM) through machine learning (ML) Cover

Predicting the relationship between consumer buying behavior (CBB) and consumption metaphor (CM) through machine learning (ML)

Open Access
|Mar 2025

Figures & Tables

Figure 1

Relationship between CM and CBB.

Source: Authors’ own research.

Table 1

NCA feature selection.

1Procedure NCFS(T,α,σ,λ,η): T: training set, α: initial step length, σ: kernel width, λ: regularization parameter, η: small positive constant;
2Initialization: w(0)=(1,1,,1),ϵ(0)=,t=0
3repeat
4for I = 1, …, N do
5Compute pij and pi using w(t) according to (2) and (3)
6for l = 1, …, d do
7 l=21σipijipij|xilxjl|jyijpij|xilxjl|λwl(t)
8 t=t+1
9 wl(t)=wl(t1)
10 ϵ(t)=ε(w(t1))
11if ϵ(t)>ϵ(t1) then
12 α=1.01α
13else
14 α=0.4α
15until |ϵ(t)ϵ(t1)|<η
16 w=w(t)
17return w
Table 2

The algorithm steps of kNN.

1Determine the value of k,
2Calculate the distance between the new instance (x) and the entire training set d(x,y),
3Determine the k nearest neighbors by sorting the distances from smallest to largest,
4Determine the class of the new instance by majority voting.

Source: Authors’ own research results.

Figure 2

Neural network model.

Source: Authors’ own research results based on Neural Networks.

Table 3

The algorithm steps of ELMs.

1Assign weights wi and biases bi randomly
2Calculate hidden layer output, H
3Calculate output weight matrix , βˆ=H·T
4Use T=Hβˆ to predict the classes of testing data

Source: Authors’ own research results based on ELM.

Table 4

Sample distribution table of the subjects participating in the study.

VariablesFrequency (f)Percent (%)
GenderFemale18047.6
Male19852.4
Age17–18164.2
19–2017746.8
21–2213736.2
23–24338.7
25 and more154.0
Body typeSlim9224.3
Normal23762.7
Large4913.0
Educational levelAssociate degree29979.1
Bachelor’s degree7920.9
Science fieldSocial sciences32485.7
Science369.5
Health Sciences184.8
Level of income1,000 TL and less22459.3
2,000 TL8522.5
3,000 TL246.3
4,000 TL112.9
5,000 TL and more349.0
Total378100

Source: Authors’ own research.

Table 5

Distribution table of socio-demographic characteristics of the subjects participating in the study.

VariablesFrequency (f)Percent (%)
Relationship (partner)Yes13234.9
No24665.1
Place of birthBig city17145.2
Province9926.2
County9926.2
Village92.4
Living placeBig city24364.3
Province7920.9
County4612.2
Village102.6
Mother’s education levelIlliterate236.1
Primary school15641.3
Secondary education15641.3
University4311.4
Father’s education levelIlliterate82.1
Primary school13736.2
Secondary education16242.9
University7118.8
State of illnessYes4812.7
No33087.3
Total378100

Source: Authors’ own research.

Table 6

Cronbach’s alpha test.

ScaleNumber of expressionCronbach alpha
CM40.823
CBB110.792

Source: Authors’ own research.

Table 7

Kmo–Bartlett’s test.

Kaiser–Meyer–Olkin measure of sampling adequacy0.835
Bartlett’s test of sphericityApprox. chi-square5174.812
df435
Sig.0.000

Source: Authors’ own research.

Table 8

Exploratory factor analysis.

Factor 1Factor 2
CM Cr. Alpha = 0.823Get experience with tattooing0.618
Desire to join a community0.847
Socialization or group interaction0.902
Social differentiation0.846
CBB Cr. alpha = 0.792Do you have a tattoo?0.441
Would you like to get a tattoo?0.701
What are the reasons why you don’t want to get a tattoo?0.650
Do you want to get a permanent tattoo or a temporary tattoo?0.897
On which part(s) of your body did you have your tattoo done or would you like to have it done?0.599
Does anyone in your family have a tattoo?0.850
Do any of your friends have tattoos?0.875

Source: Authors’ own research.

Table 9

Goodness of fit indexes of scales.

Scale modelΔX 2 sd p ΔX 2/sdGFICFIRMSEARMR
CM7.27460.061.210.850.970.030.04
CBB5.4893.231.830.890.950.040.02

Notes: (i) The relationship is significant at the p < 0.01 significance level (ii) ΔX 2 (chi-square test result of cm, sd (degrees of freedom), p (significance value), ΔX 2/sd (chi-square value of cm divided by degrees of freedom), GFI (absolute fit index), CFI and RMSEA (comparative fit index) , RMR (residual based fit index).

Source: Authors’ own research.

Table 10

Model fit criteria goodness of fit index reference ranges.

Model fit criteriaGood fitAcceptable fit
X 2 Uyum Testi0.05 < p ≤ 10.01 < p ≤ 0.05
CMIN/SD X 2/sd ≤ 3 X 2/sd ≤ 5
Comparative fit indexes
CFI0.97 ≤ CFI0.95 ≤ CFI
RMSEARMSEA ≤ 0.05RMSEA ≤ 0.08
Absolute fit indexes
GFI0.90 ≤ GFI0.85 ≤ GFI
Residual compliance indexes
RMR0 < RMR ≤ 0.050 < RMR ≤ 0.08

Source: Authors’ own research.

Table 11

Correlation analysis results.

Measurement data12
1. CM1
2. CBB0.315**1

Notes: (i) **At p < 0.01 significance level, the relationship is significant (Spearman rho).

Source: Authors’ own research.

Table 12

Chi-Square analysis results among CBB categories.

Would you like to get a tattoo?
YesNoTotal
Did you get a tattoo?Yes, I didFrequency2138221
Did you get a tattoo?96.4%3.6%100.0%
Would you like to get a tattoo?29.3%1.3%16.5%
No, I did notFrequency5146041,118
Did you get a tattoo?46.0%54.0%100.0%
Would you like to get a tattoo?70.7%98.7%83.5%
TotalFrequency7276121,339
Did you get a tattoo?54.3%45.7%100.0%
Would you like to get a tattoo?100.0%100.0%100.0%

Notes: (i) Pearson Chi-Square X 2 = 188.920, p = 0.000 (ii) At p < 0.01 significance, the relationship is significant.

Source: Authors’ own research.

Figure 3

Loss values versus the λ values.

Source: Authors’ own research results.

Figure 4

Weight of the features.

Source: Authors’ own research results.

Table 13

Prediction with all features.

Method*AccuracySpecificityPrecisionRecall F-Measure
KNN89.7787.3389.2691.6490.27
SVM87.5485.4687.4988.7287.84
ELM87.3281.4885.4991.6088.23

Notes: (1)* Parameters of Learning Algorithms: KNN with k = 1, 3, 5, 7. SVM with Kernel RBF and Polynomial, Order = 2, 3, 4, 5. ELM: Activation Function is Sigmoid, Number of Hidden Neurons 10, 20, 30, 40, 50.

Source: Authors’ own research results.

Table 14

Prediction with selected features by using NCFS.

Method*AccuracySpecificityPrecisionRecall F-Measure
KNN91.0290.9891.9190.5191.03
SVM87.6387.1488.4686.9187.47
ELM88.5484.9887.2991.3489.13

Notes: (1)* Parameters of Learning Algorithms: KNN with k = 1, 3, 5, 7. SVM with Kernel RBF and Polynomial, order = 2, 3, 4, 5. ELM: Activation Function is Sigmoid, Number of Hidden Neurons 10, 20, 30, 40, 50.

Source: Authors’ own research results.

Table 15

Prediction with metaphor variables by using NCFS.

MethodAccuracySpecificityPrecisionRecall F-Measure
KNN72.8683.5679.7862.8869.25
SVM70.0669.7570.0070.9269.60
ELM78.3379.5179.3477.5578.12

Source: Authors’ own research results.

DOI: https://doi.org/10.2478/mmcks-2025-0001 | Journal eISSN: 2069-8887 (formerly 1842-0206) | Journal ISSN: 1842-0206
Language: English
Page range: 35 - 51
Submitted on: Aug 15, 2024
Accepted on: Jan 23, 2025
Published on: Mar 30, 2025
Published by: Society for Business Excellence
In partnership with: Paradigm Publishing Services

© 2025 Alaaddin Selcuk Koyluoglu, Engin Esme, published by Society for Business Excellence
This work is licensed under the Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 License.