A Comparative Study on Toe Prints Among Males and Females

The dermatoglyphics is the study of patterns of skin ridge on finger, toe, palm, soles, has been of great interest in variety of scientific discipline [1]. Fingerprint analysis is widely used in forensic science for individual identification but the potential use of toe prints in biometric verification is not widely explored. Likewise, fingerprints, Toe prints are also unique in nature and which are formed during the embryonic development. The Toe prints remind unchanged throughout the life of an individual [2].  The primary pattern of Toe prints is characterized into three type that are Loop, Whorl and Arch, which are also observed in fingerprints.  Arch: The ridges enter from one side of the finger, rise in the centre forming an arc, and then exit the other side of the finger. Loop: The ridges enter from one side of a finger, and forming a curve, and then exit on that same side. Whorl: Ridges form circularly around a central point on the finger [3].  Two fingers or toe prints even from the same individual or identical twins are not exactly alike. These features increase the effective identification of the suspect by giving a clue crime at a in the crime scene [2]. The differentiation of gender-based toe prints could improve the profiling accuracy and also helped in crime scene investigation, mass disaster victim identification, and contributions to health-related research. It can have practical applications in security systems and medicine as well, with the advantage of further enriching the scholarly knowledge of gender-based biological variations. This study helps in crime scene investigation by identifying the individuals involved in the scene of crime. And the toe print can also use a biometric tool and for security purpose, this will increase the digital safety of an individual and the biometric tools can help for the personal identification. Developing a new database by using Toe prints will help in criminal investigation.  The research questions involved in this paper is what are the main difference between male and female ridge patterns, and what are the most common pattern seen each gender and also to determine the most dominant pattern in each particular Toes. By identifying the common pattern in each gender help to narrow down the suspect list involved in a crime scene, and the investigator can easily identify the suspects and this will also help for the personal identification in various situations.   This research focused to compare the Toe prints patterns of males and females to identified the most dominant patterns among each gender. And also, to identify the most dominant pattern among each particular Toe and identify the frequency of patterns in both gender wise and toe wise. By studying gender differences, to understand the variation in toe structure and how these variations correlate with gender. The Toe prints were collected from 100 males and 100 females those who are resides in Chennai using an ink less fingerprint pad. Examine the prints of each samples using a magnifying glass to identify the prints. And statical analyse also done by using SPSS software to identify the frequency of each pattern.  The main significance of the study is, Toe prints in males and females could provide an understanding of potential distinctions that could improve biometric identification. Toe prints can also be used in medical identification, especially for patients who are unconscious or unable to communicate. And also in crime scene, toe prints may be a supplementary tool for personal identification. By studying gender differences, to understand the variation in toe structure and how these variations correlate with gender.

MATERIAL AND METHODOLOGY

This study aimed to examine the Toe prints patterns of both males and females to identify the most dominant patterns. The samples were collected from 100 males and 100 females those who all between the age group of 18-40 [4]. So, in the beginning of sample collection return consent would be obtained from all the participants. For this research paper, the sample was collected physically from the participants. So, the main materials used for the sample collection and analysation of the sample were an inkless fingerprint pad, a magnifying glass, gloves, tissue paper, and sanitizer. The sample was collected from the participants using an inkless fingerprint pad by pressing the Toes on the pad and then the toe was pressed against the paper to obtain the pattern. Before collecting the sample, one needs to wear gloves for hygiene purposes, and then using the sanitizer and tissue paper, clean the toes of the participants so it will help to get clear prints. The magnifying glass was used to identify the prints. When collecting the samples, injured, deformed, incomplete, wrinkled and worn patterns, prints should be excluded for accurate data [5]. The Toe prints were collected from 100 males and 100 females those who all are resides in Chennai. Before collecting the sample ensured that the feet of the participants should cleaned to remove the dirt and oils, for this sanitizer and tissues were provided to the participants [1]. After cleaning the, the Toes are pressed into inkless fingerprint pad gently and press into the paper where the prints were collecting and paper marked as right feet and left feet [5]*. Ensure that the prints should not smudged and patterns are clear. The collected samples should be marked properly for better identification. After the collection process analyse the collected sample by using a magnifying glass for pattern identification. The patterns were seemed in the samples were Loop, Arch and Whorl. In the identification process any patterns were seemed as entry and exist of the ridge is in same side and a loop-like structure is seen in the middle was marked as Loop pattern, Circle-like structure is in the middle of the pattern was marked as Whorl pattern and at last entry of the ridge is in one side and exist is in other side was marked as Arch pattern. The collected data was entered to the data table for easy examination. Using the SPSS software collected data was examined.

RESULT & DISCUSSION

RESULT

The male and female Toe prints are analysed using a magnifying glass and the data obtained from that was uploaded in SPSS software and given the frequency and percentage of each pattern Toe wise.

Table 1: Frequency of different toe print patterns of right thumb

Table 1 represents the frequency and percentage of the right thumb of each gender. This table shows that among males, the loop pattern dominates the right thumb, which was observed in 63 individuals. Followed by the arch pattern, which was observed in 26 individuals, and the least-seemed pattern is the whorl pattern, and it is observed in 11 individuals among 100. In females, the loop pattern is the most dominant, observed in 69 individuals, followed by the arch pattern, observed in 20 individuals, and the least-seen pattern is the whorl pattern, which is observed in 11 individuals among 100.

Table 2: Frequency distribution of different toe print patterns of right index

Table 2 represents the frequency and percentage of right Index of both males and females. The table show among males, the loop pattern dominates the right index, which was observed in 55 individuals. Followed by Arch pattern, which was observed in 23 individuals and least seemed pattern was Whorl, which was observed in 22 individuals among 100. In females, the loop pattern is the most dominant, observed in 62 individuals, followed by the whorl pattern, observed in 26 individuals, and the least-seen pattern is the arch pattern, which is observed in 12 individuals among 100.

Table 3: Frequency of different toe print patterns of right middle

Table 3 represents the frequency and percentage of the right middle of each gender. This table shows that among males, the whorl pattern dominates the right middle, which was observed in 51 individuals. Followed by the loop pattern, which was observed in 35 individuals, and the least-seemed pattern is the arch pattern, and it is observed in 14 individuals among 100. In females, the whorl pattern is also the most dominant, observed in 52 individuals, followed by the loop pattern, observed in 38 individuals, and the least-seen pattern is the arch pattern, which is observed in 110 individuals among 100.         

Table 4: Frequency of different toe print patterns of right ring

Table 4 represents the frequency and percentage of the right ring of each gender. This table shows that among males, the arch pattern dominates the right ring, which was observed in 43 individuals. Followed by the loop pattern, which was observed in 34 individuals, and the least-seemed pattern is the whorl pattern, and it is observed in 23 individuals among 100. In females, loop pattern and arch pattern are seemed as most dominant, which were observed in 43 individuals. Followed by Whorl pattern, which was observed in 14 individuals among 100. In this table the dominant patterns are distributed equally.

Table 5: Frequency of different toe print patterns of right little

Table 5 represents the frequency and percentage of the right little of each gender. This table shows that among males, the arch pattern dominates the right little, which was observed in 76 individuals. Followed by the loop pattern, which was observed in 15 individuals, and the least-seemed pattern is the whorl pattern, and it is observed in 9 individuals only among 100. In females, the arch pattern is the most dominant, observed in 74 individuals, followed by the loop pattern, observed in 14 individuals, and the least-seen pattern is the whorl pattern, which is observed in 7 individuals only among 100.

Table 6: Frequency of different toe print patterns of left thumb

Table 6 represents the frequency and percentage of the left thumb of each gender. This table shows that among males, the loop pattern dominates the left thumb, which was observed in 63 individuals. Followed by the arch pattern, which was observed in 22 individuals, and the least-seemed pattern is the whorl pattern, and it is observed in 15 individuals among 100. In females, the loop pattern is the most dominant, observed in 72 individuals, followed