Analysis of Factors Influencing Consumer Purchasing Decisions in the Jakarta Metropolitan Area: A Study on Clothing Retail in Jabodetabek

 

Shafia Ashma Khairunnisa1, Triana Rahajeng Hadiprawoto2

1,2University of Indonesia, Jakarta, Indonesia

Email : [email protected], [email protected]

Abstract

The retail fashion industry in Greater Jakarta (Jakarta, Bogor, Depok, Tangerang, Bekasi) is highly competitive, necessitating an understanding of the factors influencing consumer purchasing decisions. This research examines the impact of store design and atmosphere on these decisions, with a particular focus on window display, mannequin display, visual merchandising, music, light and color, and signage. The study aims to analyze the direct influence of store design and atmosphere, their mediating roles, the moderating effect of perceived service quality, and the direct impact of product, price, and promotion on purchasing decisions. Utilizing a quantitative, descriptive approach, data were collected and analyzed using Structural Equation Modeling (SEM) and model fit evaluation with SPSS 26 and SmartPLS 3.0. The results indicate that store design and atmosphere significantly impact consumer purchasing decisions, with window display, mannequin display, visual merchandising, music, light and color, and signage serving as mediators. Additionally, perceived service quality moderates this relationship, while product, price, and promotion have a direct impact on purchasing decisions. The study concludes that fashion retailers in metropolitan Jakarta should prioritize store design, atmosphere, and service quality to enhance purchasing decisions and develop effective consumer strategies.

Keywords:

department store, store design and atmosphere, shoppers' purchase decisions, perceived service quality, specialty store

 

INTRODUCTION

The fashion industry is a major driver of online transactions in Indonesia, the largest e-commerce market in Southeast Asia (Suzianti et al., 2023). In 2023, the growth of Indonesia's e-commerce industry is particularly notable in the fashion and clothing segments, which are the most popular categories on platforms like Tokopedia, Shopee, and Lazada (Mondor Market, 2024, 2024; Yusra, 2023).

However, this digital shift poses challenges for physical retail stores, which remain crucial for providing a tangible shopping experience despite the rise of e-commerce (Mudjahidin et al., 2021). However, in this competitive retail industry, the ability to respond quickly and understand consumer behavior is one of the significant factors influencing a retail business's success. This fierce competition requires companies to continue to follow trends and anticipate consumer needs efficiently. (Fink et al., 2021; Hidayah, 2022; Joewono et al., 2020)

Factors influencing consumer purchasing decisions in retail include store design, interior and exterior features, and atmospheric elements like color, music, and lighting. These elements impact store perception and consumer choice. Retailers are increasingly focusing on creating an attractive store atmosphere through storefront arrangement, music selection, visual merchandising, and other appealing elements (Khan et al., 2023; Lopienski, 2023).

Store atmosphere, encompassing exterior, general interior, layout, and interior display, can significantly enhance consumer interest and purchasing enjoyment. Effective store design and atmosphere management can influence purchasing decisions and encourage consumer loyalty.

While existing research highlights the influence of store atmosphere on consumer behavior, there is a gap in understanding the urgency of rapid response and deep insight into shopper behavior in the competitive retail landscape. This study aims to address this gap by emphasizing the importance of store design and atmosphere management in achieving competitive advantage and meeting customer preferences (Khan et al., 2023).

The retail mix, which includes products, prices, promotions, services, locations, and store atmosphere, is a strategic tool for influencing consumer purchasing decisions (Joewono et al., 2020; Kilay et al., 2022; Syuhada & Gambett, 2013; Warburton, 2020). Management can use this mix to assess and enhance their marketing strategies, aligning them with consumer preferences. In urban areas, shopping centers are pivotal, with department stores offering diverse product categories and specialty stores focusing on specific product lines (Prihananto et al., 2024).

The increasing existence of retail markets in urban areas depends on shopping centers, where the largest retail space is generally owned by department stores, namely, a retail area with various types of product categories. On the other hand, shopping centers are filled by other forms of retail that focus on selling limited product categories, referred to as specialty stores.

Specialty stores like Zara, Bershka, The Executive, and 3Second cater to market preferences and needs. Store design and atmosphere elements such as window displays, mannequins, visual merchandising, music, light and color, and signage are crucial in influencing consumer purchasing decisions. This study seeks to explore additional variables that might affect the impact of store design and atmosphere on purchasing decisions (Khan et al., 2023; Monoarfa et al., 2023).

Indoor environmental quality (IEQ) and store design and atmosphere (SDA) are interrelated concepts, with IEQ focusing on indoor air quality, thermal comfort, and lighting, and SDA focusing on visual and atmospheric elements. Both concepts aim to enhance shopping experiences and influence purchasing decisions. Moderation variables like perceived service quality (PSQ) can further elucidate the relationship between store design, atmosphere, and shopper purchase decisions (Dang et al., 2021).

This research examines and analyzes the direct influence of store design and atmosphere on shoppers� purchase decisions in retail fashion in the Greater Jakarta area (Jabodetabek). Additionally, the study aims to investigate the mediating role of store design and atmosphere in the relationship between window display, mannequin display, visual merchandising, music, light and color, and signage with shoppers� purchase decisions. Furthermore, the research seeks to evaluate the moderating effect of perceived service quality on the relationship between store design and atmosphere and shoppers� purchase decisions. Moreover, the study aims to assess the direct impact of products on shoppers� purchase decisions, analyze the direct influence of price on shoppers� purchase decisions, and determine the direct effect of promotion on shoppers� purchase decisions in retail fashion in Jabodetabek.

 

RESEARCH METHODS

This research uses quantitative methods with a descriptive approach. This method was chosen to explore the relationship between design factors and store atmosphere with consumer purchasing decisions in fashion retail stores. The object of this research is a fashion retail store that applies various design elements and store atmospheres such as window display, mannequin display, visual merchandising, music, light and color, and signage.

The source of data in this study is primary data obtained through direct surveys to consumers who shop at fashion retail stores. Secondary data were obtained from literature studies related to store design, atmosphere, and consumer purchasing decisions. The population in this study is all consumers who have shopped at fashion retail stores in the study area. The study sample was determined using purposive sampling techniques, namely selecting respondents who have experience shopping in stores that apply the design elements and atmosphere studied.

The data collection technique used is a survey using questionnaires as a research tool. The questionnaire contains questions designed to measure consumers' perceptions of store design and atmosphere and their influence on purchasing decisions. The collected data were analyzed using descriptive and inferential statistical analysis techniques. Descriptive analysis is used to describe the characteristics of respondents and the distribution of their answers. Inferential analysis, such as multiple linear regression, is used to examine the relationship between the independent variable (window display, mannequin display, visual merchandising, music, light and color, signage) and the dependent variable (consumer purchase decision). This study also looks at the role of moderators of perceived service quality in the relationship between store design and atmosphere and consumer purchasing decisions to gain a more comprehensive understanding of the factors that influence purchasing decisions.


RESULTS AND DISCUSSION

Pilot Test

Validity Test

 

Table 1. Validity Test Results

Variable

Code

SME

Anti-Image Correlation Matrix

Component Matrix

Information

Window display

WD01

0,736

0,763

0,874

Valid

WD02

0,757

0,881

Valid

WD03

0,691

0,860

Valid

WD04

0,737

0,732

Valid

Mannequin display

MD01

0,808

0,851

0,789

Valid

MD02

0,839

0,805

Valid

MD03

0,771

0,860

Valid

MD04

0,789

0,839

Valid

Visual merchandising

MV01

0,762

0,797

0,858

Valid

MV02

0,826

0,757

Valid

MV03

0,751

0,879

Valid

MV04

0,710

0,889

Valid

Music

MS01

0,722

0,839

0,547

Valid

MS02

0,684

0,827

Valid

MS03

0,811

0,754

Valid

MS04

0,675

0,855

Valid

Light and color

LC01

0,81

0,797

0,837

Valid

LC02

0,797

0,837

Valid

LC03

0,828

0,810

Valid

LC04

0,821

0,821

Valid

Signage

SG01

0,818

0,852

0,807

Valid

SG02

0,848

0,807

Valid

SG03

0,780

0,868

Valid

SG04

0,804

0,844

Valid

Product

PD01

0,827

0,816

0,870

Valid

PD02

0,834

0,840

Valid

PD03

0,837

0,837

Valid

PD04

0,825

0,863

Valid

Price

PR01

0,739

0,717

0,883

Valid

PR02

0,750

0,730

Valid

PR03

0,794

0,846

Valid

PR04

0,705

0,806

Valid

Promotion

PM01

0,88

0,873

0,851

Valid

PM02

0,882

0,885

Valid

PM03

0,856

0,909

Valid

PM04

0,921

0,864

Valid

PM05

0,873

0,862

Valid

Shoppers' purchase decisions

SPD01

0,789

0,773

0,833

Valid

SPD02

0,738

0,833

Valid

SPD03

0,808

0,840

Valid

SPD04

0,866

0,838

Valid

SPD05

0,812

0,892

Valid

Store design and atmosphere

SDA01

0,881

0,916

0,878

Valid

SDA02

0,828

0,774

Valid

SDA03

0,86

0,845

Valid

SDA04

0,875

0,813

Valid

SDA05

0,874

0,861

Valid

SDA06

0,818

0,738

Valid

SDA07

0,883

0,825

Valid

SDA08

0,825

0,780

Valid

SDA09

0,888

0,794

Valid

SDA10

0,938

0,746

Valid

SDA11

0,915

0,755

Valid

SDA12

0,922

0,761

Valid

SDA13

0,89

0,695

Valid

SDA14

0,925

0,796

Valid

Perceived service quality

PSQ01

0,835

0,87

0,734

Valid

PSQ02

0,814

0,778

Valid

PSQ03

0,928

0,798

Valid

QSP04

0,814

0,768

Valid

PSQ05

0,81

0,815

Valid

QSP06

0,726

0,766

Valid

QSP07

0,901

0,856

Valid

 

The validity test results against the pilot test involving 164 respondents showed that all indicators showed a strong correlation. This is shown by the KMO, Anti-Image Correlation, and component matrix values > 0.5. Then all variables pass the validity test and are able to describe the independent variable well.

Reliability Test

 

Table 2. Reliability Test Results

No

Variable

Cronbach�s Alpha

Limitation

Information

1

Window display

0,859

0,600

Reliable

2

Mannequin display

0,836

0,600

Reliable

3

Visual merchandising

0,867

0,600

Reliable

4

Music

0,722

0,600

Reliable

5

Light and color

0,844

0,600

Reliable

6

Signage

0,845

0,600

Reliable

7

Product

0,873

0,600

Reliable

8

Price

0,829

0,600

Reliable

9

Promotion

0,923

0,600

Reliable

10

Shoppers' purchase decisions

0,901

0,600

Reliable

11

Store design & atmosphere

0,952

0,600

Reliable

12

Perceived service quality

0,898

0,600

Reliable

 

Based on the results of reliability tests conducted on pilot tests with 164 respondent data, the table above each variable has a Cronbach's Alpha value of > 0.600, then all variables show consistent results (Cronbach's Alpha value > 0.600) and are considered to pass the validity test and are able to measure the dependent variable well.

Main Test

Validity Test

 

Table 3. Validity Test Results

Variable

Code

SME

Anti-Image Correlation Matrix

Component Matrix

Information

Window display

WD01

0,745

0,727

0,843

Valid

WD02

0,776

0,688

Valid

WD03

0,726

0,848

Valid

WD04

0,774

0,733

Valid

Mannequin display

MD01

0,743

0,757

0,746

Valid

MD02

0,772

0,702

Valid

MD03

0,800

0,739

Valid

MD04

0,686

0,855

Valid

Visual merchandis-ing

MV01

0,757

0,753

0,765

Valid

MV02

0,792

0,680

Valid

MV03

0,742

0,788

Valid

MV04

0,753

0,758

Valid

Music

MS01

0,767

0,794

0,747

Valid

MS02

0,719

0,834

Valid

MS03

0,808

0,730

Valid

MS04

0,772

0,754

Valid

Light and color

LC01

0,752

0,767

0,754

Valid

LC02

0,796

0,836

Valid

LC03

0,748

0,724

Valid

LC04

0,711

0,887

Valid

Signage

SG01

0,77

0,719

0,857

Valid

SG02

0,858

0,694

Valid

SG03

0,830

0,768

Valid

SG04

0,739

0,828

Valid

Product

PD01

0,781

0,749

0,829

Valid

PD02

0,833

0,717

Valid

PD03

0,764

0,802

Valid

PD04

0,798

0,795

Valid

Price

PR01

0,779

0,852

0,707

Valid

PR02

0,816

0,769

Valid

PR03

0,770

0,825

Valid

PR04

0,727

0,865

Valid

Promotion

PM01

0,845

0,840

0,779

Valid

PM02

0,837

0,791

Valid

PM03

0,856

0,763

Valid

PM04

0,839

0,763

Valid

PM05

0,857

0,723

Valid

Shoppers' purchase decisions

SPD01

0,852

0,865

0,745

Valid

SPD02

0,869

0,805

Valid

SPD03

0,838

0,801

Valid

SPD04

0,876

0,773

Valid

SPD05

0,822

0,837

Valid

Store design and atmosphere

SDA01

0,952

0,969

0,729

Valid

SDA02

0,968

0,801

Valid

SDA03

0,957

0,754

Valid

SDA04

0,927

0,801

Valid

SDA05

0,934

0,802

Valid

SDA06

0,954

0,804

Valid

SDA07

0,968

0,781

Valid

SDA08

0,968

0,820

Valid

SDA09

0,948

0,812

Valid

SDA10

0,941

0,768

Valid

SDA11

0,962

0,846

Valid

SDA12

0,949

0,815

Valid

SDA13

0,947

0,825

Valid

SDA14

0,945

0,792

Valid

Perceived service quality

PSQ01

0,901

0,919

0,762

Valid

PSQ02

0,932

0,705

Valid

PSQ03

0,867

0,814

Valid

QSP04

0,910

0,744

Valid

PSQ05

0,926

0,724

Valid

QSP06

0,866

0,776

Valid

QSP07

0,906

0,724

Valid

 

Based on the validity test, each indicator has a KMO, Anti-Image Correlation, and Component Matrix value of > 0.5. Then, all variables pass the validity test and can describe independent variables well.

Reliability Test

 

Table 4. Reliability Test Results

No

Variable

Cronbach�s Alpha

Limitation

Information

1

Window display

0,782

0,600

Reliable

2

Mannequin display

0,750

0,600

Reliable

3

Visual merchandising

0,738

0,600

Reliable

4

Music

0,763

0,600

Reliable

5

Light and color

0,804

0,600

Reliable

6

Signage

0,791

0,600

Reliable

7

Product

0,795

0,600

Reliable

8

Price

0,790

0,600

Reliable

9

Promotion

0,819

0,600

Reliable

10

Shoppers' purchase decisions

0,851

0,600

Reliable

11

Store design and atmosphere

0,955

0,600

Reliable

12

Perceived service quality

0,870

0,600

Reliable

 

Based on the reliability test, each variable has a Cronbach's Alpha value of >0.600, then all variables pass the reliability test and are able to measure the dependent variable well.

Analysis SEM-PLS

Outer Model

This model aims to measure construct validity, the extent to which latent variables represented by measurement indicators are observed. The outer model serves to evacuate the quality of measurement of variables that cannot be observed directly by utilizing observational variables that can be measured directly. The significance of this function in SEM analysis is very important because it favors the understanding and validation of the constructs of latent variables, which are an important aspect of research. Outer model analysis in SmartPLS involves three main aspects, namely outer loading, construct validity and reliability, and discriminant variables. Here is the development of the outer model in this study (Hair et al., 2018, 2019).

Outer Loading

 

 

 

Table 5. Outer Loading Value, Average and Standard Revision of Each Indicator

Variable

Code

Rata-rata

Standard Deviation

Outer Loading

Information

Window display

WD01

4.312

0.839

0.796

Valid

WD02

4.130

0.891

0.729

Valid

WD03

4.098

0.843

0.835

Valid

WD04

4.301

0.853

0.750

Valid

Mannequin display

MD01

4.153

0.860

0.734

Valid

MD02

4.035

0.892

0.742

Valid

MD03

4.183

0.812

0.743

Valid

MD04

3.996

0.730

0.822

Valid

Visual merchandising

MV01

4.167

0.947

0.770

Valid

MV02

4.039

0.880

0.727

Valid

MV03

4.094

0.898

0.784

Valid

MV04

4.118

0.879

0.704

Valid

Music

MS01

4.075

0.914

0.783

Valid

MS02

4.253

0.803

0.801

Valid

MS03

4.124

0.893

0.764

Valid

MS04

4.090

0.822

0.707

Valid

Light and color

LC01

4.47

0.708

0.745

Valid

LC02

4.566

0.639

0.840

Valid

LC03

4.279

0.785

0.740

Valid

LC04

4.511

0.633

0.875

Valid

Signage

SG01

4.248

0.779

0.854

Valid

SG02

4.035

0.903

0.723

Valid

SG03

4.161

0.792

0.772

Valid

SG04

4.029

0.837

0.797

Valid

Product

PD01

4.301

0.710

0.828

Valid

PD02

4.348

0.598

0.733

Valid

PD03

4.332

0.668

0.787

Valid

PD04

4.318

0.655

0.795

Valid

Price

PR01

4.297

0.723

0.749

Valid

PR02

4.548

0.548

0.738

Valid

PR03

4.501

0.565

0.823

Valid

PR04

4.538

0.549

0.852

Valid

Promotion

PM01

4.371

0.688

0.793

Valid

PM02

4.389

0.673

0.788

Valid

PM03

4.232

0.768

0.758

Valid

PM04

4.375

0.671

0.743

Valid

PM05

4.316

0.790

0.735

Valid

Shoppers' purchase decisions

SPD01

4.432

0.636

0.748

Valid

SPD02

4.305

0.578

0.817

Valid

SPD03

4.434

0.610

0.797

Valid

SPD04

4.248

0.653

0.767

Valid

SPD05

4.308

0.652

0.832

Valid

Store design and atmosphere

SDA01

4.338

0.612

0.730

Valid

SDA02

4.238

0.718

0.800

Valid

SDA03

4.44

0.765

0.754

Valid

SDA04

4.483

0.840

0.799

Valid

SDA05

4.422

0.863

0.800

Valid

SDA06

4.251

0.837

0.804

Valid

SDA07

4.016

0.951

0.782

Valid

SDA08

4.183

0.924

0.820

Valid

SDA09

3.998

0.836

0.811

Valid

SDA10

3.914

0.938

0.768

Valid

SDA11

4.108

0.954

0.846

Valid

SDA12

4.12

0.914

0.815

Valid

SDA13

4.141

0.948

0.826

Valid

SDA14

4.136

0.877

0.793

Valid

Perceived service quality

PSQ01

4.615

0.503

0.749

Valid

PSQ02

4.560

0.520

0.732

Valid

PSQ03

4.391

0.554

0.809

Valid

QSP04

4.391

0.551

0.741

Valid

PSQ05

4.428

0.546

0.722

Valid

QSP06

4.432

0.550

0.774

Valid

QSP07

4.485

0.543

0.719

Valid

In this study, each variable has indicators with varying average and outer loading values. In the variable window display (WD), the WD03 indicator shows the highest outer loading value of 0.835, while the highest average is held by WD01 with a value of 4.312. Meanwhile, in the variable mannequin display (MD), the MD04 indicator has the highest outer loading value of 0.822, while the highest average is held by MD01 with a value of 4.153. This difference shows that each variable has the strongest aspect in influencing the measured factor and has the highest respondent perception. For example, in the store design and atmosphere (SDA) variable, the SDA11 indicator has the highest outer loading value of 0.846, while the highest average is held by SDA03 with a value of 4.440. Based on the table also shows that the outer loading value of each indicator has an outer loading value of >0.7. Therefore, all indicators can be used in research and do not need to be excluded.

Construct Validity and Reliability

Cronbach�s Alpha

 

Table 6. Cronbach's Alpha Value of Each Variable

Variable

Cronbach's Alpha

Information

Shoppers� purchase decisions

0.852

Reliable

Store design & atmosphere

0.956

Reliable

Light and color

0.813

Reliable

Mannequin display

0.758

Reliable

Music

0.766

Reliable

Perceived service quality

0.870

Reliable

Price

0.802

Reliable

Product

0.794

Reliable

Promotion

0.822

Reliable

Signage

0.795

Reliable

Visual merchandising

0.738

Reliable

Window display

0.784

Reliable

 

Cronbach's alpha is used to measure the internal consistency of a data set or questionnaire, with higher values close to 1 indicating a better level of consistency. In this analysis, the store design and atmosphere variables dominated with the highest value, reaching 0.956, indicating very high consistency in store design and atmosphere measurements. In contrast, the visual merchandising variable has a relatively lower value, 0.738, indicating a fairly good level of consistency in measuring the effect of visual appearance on the shopping experience. Meanwhile, other variables, such as perceived service quality with a value of 0.870 and shoppers' purchase decisions with a value of 0.852, showed high reliability in measuring the variables used in this study. Furthermore, all variables listed have values above 0.7. Therefore, all variables used in this study showed high reliability in each measurement. Thus, all of these variables are worthy of use in this study, are considered reliable, and have consistent values.

Composite Reliability

 

 

Table 7. Composite Reliability Value of Each Variable

Variable

Composite Reliability

Information

Shoppers� purchase decisions

0.894

Reliable

Store design & atmosphere

0.961

Reliable

Light and color

0.878

Reliable

Mannequin display

0.846

Reliable

Music

0.849

Reliable

Perceived service quality

0.900

Reliable

Price

0.870

Reliable

Product

0.866

Reliable

Promotion

0.875

Reliable

Signage

0.867

Reliable

Visual merchandising

0.834

Reliable

Window display

0.860

Reliable

 

Based on the composite reliability value of all variables above 0.700, the store design and atmosphere variables showed the highest value of 0.961, indicating the highest level of construct reliability in measurement. This suggests that store design and atmosphere factors tend to provide high consistency. On the other hand, the second highest value was found in the shoppers' purchase decisions variable with a value of 0.894, emphasizing strong reliability in measuring factors related to customer purchase decisions. However, the lowest value in this analysis was on the visual merchandising variable, with a value of 0.834, which indicates that there is slightly more variation in measurement consistency related to the visual appearance of products in stores. The overall average composite reliability for all variables was 0.879, indicating that the constructs observed in this study had an adequate degree of reliability in measurements. This shows that each variable used in this study meets the composite reliability standard of > 0.700. Therefore, all variables can be used in research.

Average Variance Extracted (AVE)

 

Table 8. Average Variance Extracted test results

Variable

Average Variance Extracted (AVE)

Shoppers� purchase decisions

0.628

Store design and atmosphere

0.635

Light and color

0.644

Mannequin display

0.579

Music

0.585

Perceived service quality

0.563

Price

0.628

Product

0.619

Promotion

0.584

Signage

0.621

Visual merchandising

0.558

Window display

0.606

The table above shows that each variable has an average variance extracted value that exceeds 0.5. The highest AVE value is for the light and color variable, with an AVE of 0.644, while the lowest value is for the visual merchandising variable, with a value of 0.558. The average AVE value for all variables is about 0.613. This shows that every variable used in this study can be used in the study without needing to be excluded.

Discriminant Validity

Fornell-Larcker Criterion

 

Variable

L&C

MD

MS

QSP

PR

PD

PM

SPD

SG

SDA

VM

WD

Light and color

0,802

 

 

 

 

 

 

 

 

 

 

 

Mannequin display

0,375

0,761

 

 

 

 

 

 

 

 

 

 

Music

0,357

0,327

0,765

 

 

 

 

 

 

 

 

 

Perceived service quality

0,290

0,243

0,226

0,750

 

 

 

 

 

 

 

 

Price

0,526

0,427

0,353

0,324

0,792

 

 

 

 

 

 

 

Product

0,368

0,365

0,336

0,205

0,505

0,787

 

 

 

 

 

 

Promotion

0,405

0,324

0,408

0,212

0,245

0,324

0,764

 

 

 

 

 

Shoppers� purchase decisions

0,554

0,495

0,482

0,431

0,541

0,485

0,403

0,793

 

 

 

 

Signage

0,377

0,506

0,321

0,247

0,425

0,390

0,312

0,510

0,788

 

 

 

Store design and atmosphere

0,521

0,490

0,525

0,414

0,526

0,485

0,407

0,673

0,513

0,797

 

 

Visual merchandising

0,406

0,387

0,431

0,219

0,427

0,470

0,378

0,418

0,448

0,524

0,747

 

Window display

0,358

0,300

0,229

0,255

0,354

0,282

0,271

0,449

0,264

0,491

0,322

0,778

Table 9. Fornell-Larcker Criterion discriminant validity test results

 

The data in the table above shows that the correlation value between variables and other variables has a higher value. This implies that testing based on the fornell-larcker criteria has been successfully met.

Heterotrait-Monotrait (HTMT)

 

Table 10. Heterotrait-Monotrait Discriminant (HTMT) Validity Test Results

Variable

L&C

MD

MS

QSP

PR

PD

PM

SPD

SG

SDA

VM

WD

Light and color

 

 

 

 

 

 

 

 

 

 

 

 

Mannequin display

0,469

 

 

 

 

 

 

 

 

 

 

 

Music

0,443

0,416

 

 

 

 

 

 

 

 

 

 

Perceived service quality

0,340

0,291

0,273

 

 

 

 

 

 

 

 

 

Price

0,652

0,538

0,423

0,384

 

 

 

 

 

 

 

 

Product

0,457

0,465

0,413

0,242

0,625

 

 

 

 

 

 

 

Promotion

0,490

0,406

0,511

0,241

0,299

0,401

 

 

 

 

 

 

Shoppers� purchase decisions

0,663

0,613

0,588

0,494

0,647

0,588

0,478

 

 

 

 

 

Signage

0,465

0,639

0,389

0,291

0,524

0,490

0,384

0,614

 

 

 

 

Store design and atmosphere

0,590

0,568

0,597

0,448

0,601

0,558

0,458

0,742

0,583

 

 

 

Visual merchandising

0,516

0,515

0,544

0,262

0,549

0,608

0,476

0,519

0,574

0,612

 

 

Window display

0,440

0,379

0,274

0,298

0,438

0,358

0,324

0,542

0,322

0,553

0,418

 

 

Based on the table above, it can be seen that the HTMT value in each variable is below 0.900. This signifies that each variable meets the initial criteria of HTMT and satisfies the validity of the discriminant.

Cross Loading

 

Table 11. Cross Loading Value of Each Indicator

Indicator

L&C

MD

MS

QSP

PR

PD

PM

SPD

SG

SDA

VM

WD

LC01

0,745

0,229

0,251

0,186

0,395

0,227

0,272

0,375

0,308

0,384

0,309

0,242

LC02

0,840

0,375

0,311

0,266

0,443

0,327

0,351

0,476

0,308

0,457

0,364

0,334

LC03

0,740

0,276

0,296

0,230

0,380

0,276

0,319

0,433

0,305

0,419

0,272

0,261

LC04

0,875

0,309

0,282

0,242

0,465

0,344

0,351

0,487

0,288

0,405

0,353

0,306

MD01

0,285

0,734

0,225

0,177

0,295

0,280

0,204

0,366

0,329

0,359

0,260

0,187

MD02

0,314

0,742

0,257

0,219

0,357

0,278

0,264

0,420

0,440

0,419

0,295

0,287

MD03

0,258

0,743

0,259

0,188

0,327

0,303

0,255

0,343

0,411

0,374

0,381

0,206

MD04

0,275

0,822

0,249

0,142

0,307

0,239

0,258

0,364

0,336

0,321

0,225

0,218

MS01

0,333

0,287

0,783

0,134

0,357

0,344

0,382

0,379

0,317

0,463

0,496

0,245

MS02

0,237

0,245

0,801

0,137

0,191

0,255

0,325

0,303

0,198

0,350

0,293

0,101

MS03

0,265

0,273

0,764

0,237

0,311

0,260

0,243

0,440

0,280

0,446

0,298

0,185

MS04

0,240

0,172

0,707

0,180

0,171

0,128

0,298

0,332

0,145

0,308

0,173

0,144

MV01

0,366

0,343

0,410

0,178

0,383

0,419

0,336

0,391

0,342

0,419

0,770

0,231

MV02

0,308

0,233

0,273

0,183

0,275

0,331

0,318

0,303

0,366

0,430

0,727

0,257

MV03

0,278

0,272

0,305

0,168

0,333

0,329

0,233

0,285

0,326

0,399

0,784

0,271

MV04

0,245

0,321

0,297

0,108

0,276

0,317

0,225

0,255

0,295

0,291

0,704

0,192

PD01

0,336

0,314

0,293

0,177

0,462

0,828

0,270

0,406

0,331

0,408

0,460

0,230

PD02

0,273

0,267

0,271

0,166

0,366

0,733

0,241

0,377

0,257

0,359

0,296

0,205

PD03

0,334

0,282

0,286

0,184

0,380

0,787

0,273

0,354

0,343

0,432

0,401

0,238

PD04

0,218

0,282

0,208

0,120

0,376

0,795

0,236

0,385

0,297

0,329

0,318

0,216

PM01

0,337

0,274

0,331

0,226

0,238

0,277

0,793

0,349

0,270

0,329

0,317

0,235

PM02

0,320

0,253

0,308

0,128

0,172

0,247

0,788

0,313

0,254

0,285

0,324

0,226

PM03

0,305

0,266

0,266

0,204

0,205

0,201

0,758

0,297

0,269

0,314

0,225

0,212

PM04

0,254

0,216

0,294

0,090

0,161

0,261

0,743

0,259

0,214

0,307

0,296

0,171

PM05

0,322

0,224

0,356

0,145

0,153

0,250

0,735

0,311

0,181

0,318

0,280

0,182

PR01

0,401

0,336

0,289

0,235

0,749

0,513

0,233

0,469

0,401

0,408

0,403

0,262

PR02

0,416

0,303

0,211

0,199

0,738

0,356

0,201

0,350

0,296

0,406

0,349

0,261

PR03

0,431

0,427

0,348

0,287

0,823

0,381

0,203

0,449

0,373

0,473

0,330

0,314

PR04

0,419

0,276

0,253

0,298

0,852

0,332

0,137

0,427

0,261

0,379

0,267

0,282

PSQ01

0,208

0,183

0,171

0,749

0,266

0,122

0,130

0,284

0,182

0,228

0,181

0,097

PSQ02

0,262

0,229

0,221

0,732

0,255

0,214

0,216

0,382

0,222

0,384

0,227

0,241

PSQ03

0,241

0,203

0,161

0,809

0,277

0,171

0,162

0,331

0,213

0,356

0,187

0,249

QSP04

0,165

0,154

0,119

0,741

0,214

0,104

0,108

0,307

0,137

0,284

0,117

0,192

PSQ05

0,221

0,145

0,168

0,722

0,243

0,135

0,148

0,304

0,169

0,315

0,157

0,158

QSP06

0,214

0,186

0,154

0,774

0,239

0,199

0,176

0,334

0,206

0,325

0,158

0,220

QSP07

0,198

0,160

0,180

0,719

0,204

0,108

0,155

0,300

0,153

0,250

0,105

0,151

SDA01

0,421

0,369

0,377

0,318

0,425

0,381

0,283

0,499

0,389

0,730

0,399

0,356

SDA02

0,460

0,363

0,395

0,325

0,407

0,356

0,323

0,536

0,399

0,800

0,391

0,381

SDA03

0,435

0,347

0,396

0,324

0,428

0,394

0,269

0,511

0,371

0,754

0,401

0,393

SDA04

0,382

0,313

0,411

0,329

0,427

0,350

0,279

0,524

0,372

0,799

0,402

0,387

SDA05

0,383

0,323

0,415

0,338

0,424

0,385

0,305

0,534

0,404

0,800

0,392

0,416

SDA06

0,482

0,381

0,384

0,304

0,427

0,412

0,352

0,517

0,419

0,804

0,456

0,392

SDA07

0,422

0,412

0,458

0,351

0,454

0,399

0,300

0,540

0,401

0,782

0,425

0,378

SDA08

0,436

0,394

0,482

0,285

0,436

0,372

0,345

0,549

0,410

0,820

0,431

0,413

SDA09

0,370

0,377

0,417

0,385

0,395

0,374

0,376

0,542

0,445

0,811

0,420

0,374

SDA10

0,408

0,405

0,404

0,353

0,373

0,362

0,320

0,512

0,413

0,768

0,372

0,367

SDA11

0,432

0,389

0,456

0,361

0,429

0,410

0,401

0,567

0,409

0,846

0,444

0,416

SDA12

0,379

0,463

0,411

0,314

0,404

0,364

0,309

0,539

0,433

0,815

0,433

0,406

SDA13

0,427

0,479

0,441

0,310

0,431

0,439

0,350

0,560

0,448

0,826

0,450

0,403

SDA14

0,382

0,441

0,397

0,325

0,413

0,404

0,316

0,573

0,407

0,793

0,424

0,394

SG01

0,356

0,444

0,309

0,229

0,376

0,340

0,250

0,460

0,854

0,449

0,406

0,227

SG02

0,276

0,357

0,248

0,192

0,303

0,263

0,232

0,381

0,723

0,409

0,398

0,202

SG03

0,286

0,414

0,220

0,184

0,338

0,321

0,270

0,387

0,772

0,404

0,288

0,216

SG04

0,257

0,369

0,222

0,164

0,316

0,299

0,230

0,367

0,797

0,339

0,305

0,181

SPD01

0,441

0,332

0,398

0,343

0,449

0,411

0,327

0,748

0,363

0,472

0,345

0,336

SPD02

0,460

0,378

0,381

0,394

0,439

0,391

0,354

0,817

0,438

0,630

0,336

0,350

SPD03

0,404

0,434

0,401

0,284

0,409

0,411

0,307

0,797

0,464

0,538

0,358

0,348

SPD04

0,396

0,434

0,365

0,334

0,375

0,300

0,331

0,767

0,363

0,494

0,277

0,353

SPD05

0,491

0,389

0,369

0,346

0,468

0,406

0,278

0,832

0,385

0,518

0,338

0,395

WD01

0,246

0,210

0,115

0,189

0,243

0,242

0,140

0,307

0,134

0,283

0,267

0,796

WD02

0,257

0,133

0,179

0,140

0,226

0,141

0,248

0,303

0,155

0,411

0,209

0,729

WD03

0,280

0,267

0,182

0,186

0,266

0,198

0,209

0,342

0,238

0,380

0,250

0,835

WD04

0,318

0,313

0,215

0,269

0,349

0,297

0,220

0,425

0,271

0,417

0,277

0,750

From the assessment of the cross-loading value of each indicator applied in this study, all indicators have cross-loading values that exceed 0.700 and have the largest correlation with related latent variables. Therefore, no indicators need to be removed from the analysis.

Collinearity Statistics atau Variance Inflation Factor (VIF)

 

Table 12. Variance Inflation Factor (VIF) Test Results

Variable

Code

Inner VIF

Outer VIF

Information

Window display

WD01

1,226

1,929

Valid

WD02

1,395

Valid

WD03

1,942

Valid

WD04

1,499

Valid

Mannequin display

MD01

1,491

1,472

Valid

MD02

1,365

Valid

MD03

1,408

Valid

MD04

1,891

Valid

Visual merchandising

MV01

1,532

1,449

Valid

MV02

1,277

Valid

MV03

1,505

Valid

MV04

1,435

Valid

Music

MS01

1,326

1,432

Valid

MS02

1,764

Valid

MS03

1,387

Valid

MS04

1,475

Valid

Light and color

LC01

1,414

1,639

Valid

LC02

1,899

Valid

LC03

1,577

Valid

LC04

2,399

Valid

Signage

SG01

1,537

2,071

Valid

SG02

1,336

Valid

SG03

1,521

Valid

SG04

1,902

Valid

Product

PD01

1,526

1,822

Valid

PD02

1,384

Valid

PD03

1,703

Valid

PD04

1,612

Valid

Price

PR01

1,597

1,377

Valid

PR02

1,567

Valid

PR03

1,835

Valid

PR04

2,110

Valid

Promotion

PM01

1,486

1,684

Valid

PM02

1,731

Valid

PM03

1,613

Valid

PM04

1,640

Valid

PM05

1,498

Valid

Shoppers' purchase decisions

SPD01

-

1,629

Valid

SPD02

1,860

Valid

SPD03

1,922

Valid

SPD04

1,702

Valid

SPD05

2,153

Valid

Store design and atmosphere

SDA01

1,978

2,064

Valid

SDA02

2,680

Valid

SDA03

2,448

Valid

SDA04

3,567

Valid

SDA05

3,487

Valid

SDA06

2,955

Valid

SDA07

2,552

Valid

SDA08

2,878

Valid

SDA09

3,168

Valid

SDA10

2,775

Valid

SDA11

3,510

Valid

SDA12

3,379

Valid

SDA13

3,598

Valid

SDA14

3,015

Valid

Perceived service quality

PSQ01

1,337

1,782

Valid

PSQ02

1,556

Valid

PSQ03

2,241

Valid

QSP04

1,721

Valid

PSQ05

1,633

Valid

QSP06

2,031

Valid

QSP07

1,663

Valid

Based on the data listed in the table above, all indicators have a VIF value of less than 5. Therefore, it can be concluded that there is no problem of multicollinearity in all variables in the construct.

Model Fit

 

Table 13. Fit Model Test Results

 

Saturated Model

Estimated Model

SRMR

0,053

0,060

d_ULS

5,712

7,153

d_G

1,662

1,704

Chi-Square

4586,370

4633,874

NFI

0,750

0,747

 

From the data listed in the table above, it can be seen that the SRMR value in the saturated model is 0.053 < 0.100, while in the estimated model, it is 0.060 < 0.100. Based on this comparison, it can be concluded that the model that has been made meets the model feasibility standards and can be said to be fit.

Inner Model

The inner model refers to the part of structural equation modeling analysis that deals with relationships between latent variables or constructs. It includes the relationship between latent variables measured by relevant indicators and how they influence each other in the context of the constructed model. The inner model consists of relationships between latent variables expressed as paths connecting these constructs. The inner model analysis aims to test hypotheses about relationships between latent variables and understand how those constructs interact in the research model. By testing the inner model, we can identify whether the relationship between variables already has significance in accordance with the hypothesis that has been formulated. In this study, inner model analysis involves using various methods, including R Square testing, T Statistics for hypothesis testing, and Q Square measurement.

R Square (R2)

 

Table 14. R Square Test Results (R2)

Variable

R Square

R Square Adjusted

Shoppers� purchase decisions

0,560

0,555

Store design and atmosphere

0,566

0,561

 

Based on the table above, it can be concluded that the dependent variable of shoppers' purchase decisions is influenced by the independent variable of 0.560 or 56%, while the remaining 44% is influenced by other variables that are not included in this study. Furthermore, the store design and atmosphere variables were influenced by the independent variable by 56.6%, while the remaining 43.4% was influenced by other variables that were not included in this study.

F Square (F2)

 

Table. 16. F Square Test Results (F2)

Information

F Square

Information

Light and color Store design and atmosphere

0,050

Small effects

Mannequin display Store design and atmosphere

0,025

Small effects

Music Store design and atmosphere

0,107

Small effects

Perceived service quality Shoppers' purchase decisions

0,023

Small effects

Price Shoppers' purchase decisions

0,046

Small effects

Product Shoppers' purchase decisions

0,019

No Influence

Promotion Shoppers' purchase decisions

0,050

Small effects

Signage Shoppers' purchase decisions

0,047

Small effects

Store design and atmosphere Shoppers' purchase decisions

0,142

Small effects

Visual merchandising Store design and atmosphere

0,029

Small effects

Window display Store design and atmosphere

0,110

Small effects

 

The results of the effect size test show that not all exogenous variables have an influence on endogenous variables when these variables are excluded from the research model. The following is an explanation of the effect size relationship based on the value criterion.(J. F. Hair, Ringle, et al., 2019)

1.      Effect size moderate (0.15 ≤ F2≤0.35)

No values meet this criterion in the effect size test results table.

2.      Effect size weak (0.02 ≤ F2≤0.15)

Mannequin display (0.025), music (0.107), signage (0.047), visual merchandising (0.029), price (0.046), promotion (0.050), and perceived service quality (0.023) showed little effect on store design and atmosphere and shoppers' purchase decisions. Despite having a weak effect size, the contribution of these factors still has a measurable impact.

3.      Effect size no effect (F2≤0.05)

The variables light and color (0.050), window display (0.110), and store design and atmosphere (0.142) also showed that there was no significant influence on shoppers' purchase decisions, with a value of F2≤0.05. So in this analysis, there was no significant influence of these variables on shoppers' purchase decisions, while other factors made a smaller but still measurable contribution to influencing customer buying behavior.

Q Square (Q2)

 

Table 16. Q Square Test Results (Q2)

 

SSO

SSE

Q� (=1-SSE/SSO)

Shoppers� purchase decisions

2455,000

1628,713

0,337

Store design and atmosphere

6874,000

4432,883

0,355

From the table above, it can be seen that the Q square value in the shoppers' purchase decisions variable has a Q square value of 0.337 > 0, so it can be concluded that the independent variable is able to predict the shoppers' purchase decisions variable well. Furthermore, the value of Q square in the store design and atmosphere variables is 0.355 > 0, so it can be concluded that the independent variable is able to predict store design and atmosphere variables well.

Analysis of Mediation Effects

 

Table 18. Results of Mediation Effect Analysis

Construction

Original Sample (O)

T Statistics

(|O/STDEV|)

P Values

Information

Light and color Store design and atmosphere Shoppers' purchase decisions

0,061

3,201

0,001

Significant

Mannequin display Store design and atmosphere Shoppers' purchase decisions

0,045

2,819

0,005

Significant

Music Store design and atmosphere Shoppers' purchase decisions

0,087

4,467

0,000

Significant

Signage Store design and atmosphere Shoppers' purchase decisions

0,062

3,759

0,000

Significant

Visual merchandising Store design and atmosphere Shoppers' purchase decisions

0,049

2,967

0,003

Significant

Window display Store design and atmosphere Shoppers' purchase decisions

0,085

4,334

0,000

Significant

 

The results of the mediation effect analysis in Table 4.27 show that store design and atmosphere can mediate the relationship between the six dimensions of light and color, mannequin display, music, signage, visual merchandising, and window display, to shoppers' purchase decisions significantly. This is because these relationships have a t-statistic value greater than 1.645 and a p-value smaller than 0.05.

 

Discussion

After conducting measurement and structural model analyses, the following will explain the results of hypothesis tests based on significance analysis with SmartPLS 3.0 software carried out through path coefficients, used to determine the magnitude and direction of influence of the independent variable on the dependent variable. Here are the test results of path coefficients:

 

Table 19. Hypothesis Test Results

Construction

Original

Sample

(The)

T Statistics

(|O/STDEV|)

P- Values

Hipotesis

Information

Perceived service quality X Store design and atmosphere Shoppers� purchase decisions

-0,094

2,127

0,034

H1

Accepted

Window display Store design and atmosphere Shoppers� purchase decisions

0,085

4,315

0,000

H2

Accepted

Mannequin display Store design and atmosphere Shoppers� purchase decisions

0,045

2,675

0,008

H3

Accepted

Visual merchandising Store design and atmosphere Shoppers� purchase decisions

0,049

2,977

0,003

H4

Accepted

Music Store design and atmosphere Shoppers� purchase decisions

0,087

4,366

0,000

H5

Accepted

Light and color Store design and atmosphere Shoppers� purchase decisions

0,061

3,044

0,002

H6

Accepted

Signage Store design and atmosphere Shoppers� purchase decisions

0,062

3,664

0,000

H7

Accepted

Product Shoppers� purchase decisions

0,112

2,638

0,009

H8

Accepted

Price Shoppers� purchase decisions

0,179

4,560

0,000

H9

Accepted

Promotion Shoppers� purchase decisions

0,180

3,377

0,001

H10

Accepted

Store design and atmosphere Shoppers� purchase decisions

0,351

7,805

0,000

H11

Accepted

 

The results of hypothesis tests for pathways that have direct or indirect relationships and their conclusions are presented in Table 4.28. A clearer explanation of each hypothesis is described as follows:

Hypothesis 1: Perceived service quality weakens the relationship between store design and atmosphere and shoppers' purchase decisions

The original sample (O) value of perceived service quality in the relationship between store design and atmosphere and shoppers' purchase decisions was -0.094, which moderates the negative relationship, which means weakening the relationship between the two variables. With a t-statistics value of 2.127 > 1.96 and a p-value of 0.034 < 0.05, it can be concluded that hypothesis 1 is accepted. That is, perceived service quality has a significant negative influence that weakens the relationship between store design and atmosphere and shoppers' purchase decisions. Although retail stores have an attractive design and atmosphere, if the quality of service perceived by customers is low, this can affect customers' perception of the store as a whole, thus reducing their chances of making a purchase.

The findings are in line with research conducted, which showed that high-quality service can strengthen consumer perceptions of the store environment and retail brand value. However, in the context of current research, the findings suggest that when high-quality services are not met, this can reduce the positive influence of store design and atmosphere on consumer purchasing decisions. Therefore, it is important for retailers to ensure that the services provided to customers remain of high quality so that the positive influence of store design can be maintained, increasing customer satisfaction and number of purchases. This confirms that good service quality plays an important role in increasing customer satisfaction and shaping positive buying behavior in the retail environment (Dang et al., 2021).

Hypothesis 2: Store design and atmosphere mediate the relationship between window displays and shoppers' purchase decisions

The original sample (O) value of store design and atmosphere of 0.085 mediates the relationship between window display and shoppers' purchase decisions. The results of the analysis showed that the relationship between the two variables had a t-statistics value of 4.315> 1.96 with a p-value of 0.000 < 0.05. It can be concluded that the variables of store design and atmosphere are able to mediate the influence between window displays to have a significant positive effect on shoppers' purchase decisions, and the hypothesis is accepted. Window displays strongly influence store design and atmosphere, and that relationship is statistically significant.

The test results show that store design and atmosphere are important in influencing customer buying behavior, with window displays as one of the elements that contribute to shaping the atmosphere and store design that influences purchasing decisions in retail stores. Window displays that match the consumer's self-image will attract customer attention and increase sales.found that a pleasant store environment and evoked positive emotions led customers to spend more time and money in the store. Research has found that window displays have a significant and positive influence on consumers' purchasing decisions by creating a compelling first impression for consumers and encouraging them to walk into a store and make a purchase (Khan et al., 2023)

Hypothesis 3: Store design and atmosphere mediate the relationship between mannequin displays and shoppers' purchase decisions

The original sample (O) value of store design and atmosphere of 0.045 mediates the relationship between mannequin displays and shoppers' purchase decisions. The results of the analysis showed that the relationship between these variables had a t-statistics value of 2.675 with a p-value of 0.008. It can be concluded that the store design and atmosphere variables mediate the influence between mannequin displays and have a significant positive effect on shoppers' purchase decisions, and the hypothesis is accepted.

Hypothesis 4: Store design and atmosphere mediate the relationship between visual merchandising and shoppers' purchase decisions

The original sample (O) value of store design and atmosphere of 0.049 mediates the relationship between visual merchandising and shoppers' purchase decisions. The results of the analysis showed that the relationship between these variables had a t-statistics value of 2.977 with a p-value of 0.003. So it can be concluded that the variables of store design and atmosphere are able to mediate the influence between visual merchandising has a significant positive effect on shoppers' purchase decisions, and the hypothesis is accepted.

Hypothesis 5: Store design and atmosphere mediate the relationship between music and shoppers' purchase decisions

The original sample (O) value of store design and atmosphere of 0.087 mediates the relationship between music and shoppers' purchase decisions. The results of the analysis showed that the relationship between these variables had a t-statistics value of 4.366 with a p-value of 0.000. It can be concluded that the variables store design and atmosphere are able to mediate the influence between music has a significant positive effect on shoppers' purchase decisions and the hypothesis is accepted.

Hypothesis 6: Store design and atmosphere mediate the relationship between light and color and shoppers' purchase decisions

The original sample (O) value of store design and atmosphere of 0.061 mediates the relationship between light and color and shoppers' purchase decisions. The results of the analysis showed that the relationship between these variables had a t-statistics value of 3.044 with a p-value of 0.002. Then it can be concluded that the hypothesis is accepted.

Hypothesis 7: Store design and atmosphere mediate the relationship between signage and shoppers' purchase decisions

The original sample (O) value of store design and atmosphere of 0.062 mediates the relationship between signage and shoppers' purchase decisions. The results of the analysis showed that the relationship between these variables had a t-statistics value of 3.664 with a p-value of 0.000. Then it can be concluded that the hypothesis is accepted.

Hypothesis 8: Product has a positive effect on shoppers' purchase decisions

The original sample (O) value in the relationship of the product construct to shoppers' purchase decisions is 0.112, which indicates the direction of the positive relationship, which with increasing products, will cause an increase in shoppers' purchase decisions. With a t-statistics value of 2.638 which is greater than the t-table (1.96), and a p-value of 0.009, which is less than 0.05, it can be concluded that the hypothesis is accepted. So the product has a significant influence on shoppers' purchase decisions.

Hypothesis 9: Price has a positive effect on shoppers' purchase decisions

The original sample (O) value of 0.179 in the relation of the price construct to shoppers' purchase decisions indicates the direction of a positive relationship, which indicates that increasing prices will increase shoppers' purchase decisions. With a t-statistics value of 4.560, which is greater than the t-table (1.96), and a p-value of 0.000, which is less than 0.05, it can be concluded that the hypothesis is accepted.

Hypothesis 10: Promotion has a positive effect on shoppers' purchase decisions

The original sample (O) value of 0.180 in the relationship of the promotion construct to shoppers' purchase decisions indicates the direction of the positive relationship, which, with increasing promotion, will lead to an increase in shoppers' purchase decisions. With a t-statistics value of 3.377, which is greater than the t-table (1.96), and a p-value of 0.001, which is less than 0.05, it can be concluded that the hypothesis is accepted.

Hypothesis 11: Store design and atmosphere have a positive effect on shoppers' purchase decisions

The original sample (O) value in the relationship of store design and atmosphere construct to shoppers' purchase decisions of 0.351 indicates the direction of a positive relationship which with increasing store design and atmosphere will lead to an increase in shoppers' purchase decisions. With a t-statistics value of 7.805 which is greater than the t-table (1.96), and a p-value of 0.000 which is less than 0.05, it can be concluded that the hypothesis is accepted. So store design and atmosphere significantly influence shoppers' purchase decisions.

 

CONCLUSION

This study modified the research model conducted by Monoarfa et al. (2024) and Khan et al. (2023) related to store design and atmosphere. The main data collection method was questionnaires, with respondents consumers of clothing retail stores in Jakarta, Bogor, Depok, Tangerang, and Bekasi. Store design and atmosphere are the main variables examined for their impact on consumer purchasing decisions, with elements such as window displays, mannequin displays, visual merchandising, music, light and color, and signage. The results showed that store design and atmosphere significantly influence consumer purchasing decisions. Attractive store design and a comfortable atmosphere increase the attractiveness of the store and influence consumer behavior. Perceived service quality was found to weaken the relationship between store design and atmosphere and consumer purchasing decisions. Store design and atmosphere also mediate the relationship between store design elements and purchasing decisions. Other factors such as product, price, and promotion also positively influence consumer purchasing decisions. The results of the hypothesis test showed that all hypotheses were accepted with good significance, although one hypothesis showed a negative influence in the moderation relationship between perceived service quality on consumer purchasing decisions. This research provides an in-depth understanding of consumer behavior in the Indonesian clothing retail market, provides relevant context for Indonesia as a developing country, and complements previous research. The results of this study also provide practical implications for clothing retail marketers in understanding consumer buying patterns and creating strategies to retain consumers amid competition. However, this study was limited to the Jakarta metropolitan area, so it is less representative of consumers in other big cities. Further research is suggested to cover other major cities in Indonesia and expand the types of retail studied.

 

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Copyright holder:

Shafia Ashma Khairunnisa,Triana Rahajeng Hadiprawoto (2024)

 

First publication right:

Journal of Management, Ekonomic and Financial

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