Cluster Analysis of SNITCH Brand

  • CLUSTER ANALYSIS OF SNITCH BRAND:

 

  • Group members:
  • Anubhav Shrivastav
  • Raj Mistry
  • Yugansh Singh Rao
  • Brand: Snitch Clothing

Snitch is a contemporary Indian menswear brand known for its trendy and affordable clothing. Founded in 2019, it has quickly gained popularity for its fast-fashion approach, offering a wide range of styles from casual wear to work essentials. Snitch emphasizes high-quality fabrics, unique designs, and frequent new collections, catering to the fashion-forward, urban male consumer. The brand operates predominantly online, leveraging social media and influencer collaborations to build a strong digital presence and engage with its young, style-conscious audience.

 

ANOVA

 

Sum of Squares

df

Mean Square

F

Sig.

Affordable

Between Groups

773.720

81

9.552

.

.

Within Groups

.000

0

.

 

 

Total

773.720

81

 

 

 

Easy Availability

Between Groups

700.598

81

8.649

.

.

Within Groups

.000

0

.

 

 

Total

700.598

81

 

 

 

Unique Design

Between Groups

609.476

81

7.524

.

.

Within Groups

.000

0

.

 

 

Total

609.476

81

 

 

 

Men Baised

Between Groups

550.451

81

6.796

.

.

Within Groups

.000

0

.

 

 

Total

550.451

81

 

 

 

Range of Product

Between Groups

725.024

81

8.951

.

.

Within Groups

.000

0

.

 

 

Total

725.024

81

 

 

 

Effective Supply Chain Management

Between Groups

519.805

81

6.417

.

.

Within Groups

.000

0

.

 

 

Total

519.805

81

 

 

 

After Sales Service

Between Groups

728.110

81

8.989

.

.

Within Groups

.000

0

.

 

 

Total

728.110

81

 

 

 

UXUI user friendly

Between Groups

617.720

81

7.626

.

.

Within Groups

.000

0

.

 

 

Total

617.720

81

 

 

 

Urban Aesthetic

Between Groups

712.195

81

8.793

.

.

Within Groups

.000

0

.

 

 

Total

712.195

81

 

 

 

 

 

  • INTERPRETATION:

The data provided is a summary of an Analysis of Variance (ANOVA) for various attributes related to a product or brand, possibly from the perspective of brand features or customer perceptions. The variables include factors like “Affordability,” “Easy Availability,” “Unique Design,” and more.

However, there is an issue in the data structure, as the “Within Groups” sum of squares (SS) and degrees of freedom (df) are zero for all variables. This scenario suggests that there might be only one group, or there was an issue with data entry. Normally, ANOVA is meaningful only when there are two or more groups to compare. Here’s a summary of what the data implies and what might be missing:

  1. Sum of Squares (SS) Between Groups: The values (e.g., 773.720 for “Affordable,” 700.598 for “Easy Availability”) represent the variation in scores between the group averages and the grand mean. Higher SS values could indicate larger differences between groups for each variable, although this alone does not indicate statistical significance.
  2. Degrees of Freedom (df): The degrees of freedom for the between-groups analysis are all listed as 81. Typically, this would mean there were 82 groups (df + 1). However, ANOVA results usually include a separate “Within Groups” df to help assess variation within groups.
  3. Mean Square (MS): The MS values for each factor (such as 9.552 for “Affordable”) represent the average variability between the groups for each characteristic. This is calculated by dividing the SS between groups by the df.
  4. F-statistic and Significance (Sig.): The F and Sig. (p-value) columns are incomplete in your data, which makes it impossible to assess the statistical significance of the factors. Typically, a lower p-value (e.g., < 0.05) would indicate significant differences among groups, which would suggest that respondents’ perceptions vary significantly across groups for that factor.

 

Cluster Membership

Case Number

sn

Cluster

Distance

1

1

3

7.678

2

2

4

10.010

3

3

2

7.382

4

4

1

9.472

5

5

4

6.482

6

6

4

7.423

7

7

4

6.763

8

8

3

5.339

9

9

1

9.075

10

10

4

6.144

11

11

1

5.874

12

12

3

6.637

13

13

2

7.447

14

14

1

7.846

15

15

1

6.919

16

16

3

6.502

17

17

1

8.726

18

18

3

8.573

19

19

4

6.297

20

20

3

6.214

21

21

4

7.374

22

22

2

5.289

23

23

1

7.188

24

24

2

6.742

25

25

3

6.196

26

26

4

7.312

27

27

1

7.503

28

28

1

6.781

29

29

2

6.394

30

30

3

8.947

31

31

4

7.130

32

32

3

8.290

33

33

2

8.437

34

34

3

8.377

35

35

2

6.661

36

36

2

6.703

37

37

2

4.371

38

38

1

5.169

39

39

2

9.145

40

40

1

5.575

41

41

3

5.482

42

42

2

7.035

43

43

4

7.706

44

44

1

7.863

45

45

1

8.586

46

46

4

5.512

47

47

4

8.465

48

48

2

8.318

49

49

2

6.651

50

50

2

5.538

51

51

2

6.904

52

52

4

5.479

53

53

2

5.987

54

54

1

7.077

55

55

2

7.551

56

56

4

5.770

57

57

3

8.263

58

58

4

7.503

59

59

4

6.669

60

60

2

6.222

61

61

1

7.232

62

62

4

7.927

63

63

4

7.399

64

64

2

9.076

65

65

1

6.264

66

66

3

7.375

67

67

1

8.412

68

68

3

7.390

69

69

4

6.517

70

70

4

8.497

71

71

1

4.772

72

72

2

4.793

73

73

1

5.725

74

74

3

8.554

75

75

3

5.148

76

76

2

7.146

77

77

2

6.312

78

78

4

6.232

79

79

2

7.750

80

80

3

8.134

81

81

4

6.923

82

82

3

8.753

 

This data presents the results of a cluster analysis, where each “Case Number” is assigned to one of four clusters. The “Distance” column indicates the Euclidean distance between each case and the centroid of its assigned cluster. Lower distances imply that a case is closer to the cluster centre, suggesting it fits well within that cluster, while higher distances indicate cases further from the centroid, suggesting they may be less typical representatives of the cluster.

  1. Cluster Distribution: Cases are spread across four clusters, with each cluster likely representing a different group based on shared characteristics. The distribution of cases among clusters can be analysed to understand the balance or dominance of certain clusters.
  2. Cluster Cohesion: The range of distances within each cluster reflects its internal cohesion. A cluster with consistently lower distances (e.g., most cases around 5-7 units from the centroid) suggests a tightly knit group with similar traits. In contrast, a wide range of distances may indicate more variability within that cluster.
  3. Outliers: Cases with notably high distances (e.g., 10.010 for Case 2 in Cluster 4, or 8.753 for Case 82 in Cluster 3) could be outliers, as they are farther from their respective centroids, possibly making them less representative of their clusters.

To deepen the interpretation, analysing the characteristics that define each cluster would be beneficial, as it would clarify the factors that differentiate these groups. Additionally, considering the overall spread and averages of distances could offer insights into the relative distinctiveness or similarity among the clusters.

 

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