Literature DB >> 35313491

Dataset of road surface images with seasons for machine learning applications.

Sonali Bhutad1, Kailas Patil1.   

Abstract

Road surface monitoring plays a vital role in ensuring safety and comfort for the various road users, from pedestrians to drivers. Furthermore, this information is useful for the maintenance of the roads. The road condition deteriorates due to volatile weather. Thus the main objective of the proposed paper is to create an image dataset of the road surface for two seasons, i.e. summer and rainy. Accordingly, we created road surface images for different roads such as paved and unpaved roads. These folders consist of two subfolders for Rainy and Summer potholes. The dataset consists of 8484 images and 10 videos. This dataset is highly useful for machine learning experts working in the field of automatic vehicle controlling and road surface monitoring.
© 2022 The Authors.

Entities:  

Keywords:  Computer vision; Object detection; Pothole detection; Road surface monitoring; Sustainable transportation

Year:  2022        PMID: 35313491      PMCID: PMC8933537          DOI: 10.1016/j.dib.2022.108023

Source DB:  PubMed          Journal:  Data Brief        ISSN: 2352-3409


Specifications Table

Value of the Data

This dataset is essential as it contributes to the future applications of the Sustainable Development Goal-11 of the United Nations, i.e., ``sustainable-transport'' (UN SDG -11) [3]. We concentrated on the forms of road surface available during different seasons to achieve accuracy in road surface detection, which makes this dataset unique. These datapoints are available in the public repository for all the Research Institutes, Scientific communities and Policymakers. This is the first dataset that provides road surface images according to seasons that could be used in a wide variety of future research studies related to road accident prevention and surface inspection [4]. The data may be reused for conducting experiments related to road accident prevention, Pothole detection, road surface water detection, automatic vehicle controlling mechanism and path navigation mechanism. Moreover, the researchers involved in earth surface inspection may benefit indirectly [2].

Data Description

In transportation infrastructure, one of the main concerns is potholes in roads [1]. Most machine learning techniques for autonomous driving are trained on data collected in certain environments and are not reliable in cross weather conditions [2,6]. Hence we created the road surface dataset with seasons. The dataset folder comprises separate folders for paved and unpaved roads. Further, they are divided into subfolders. The images in each subfolder have been categorized into Final, Raw and Rotated folders. The Raw data folder images are unprocessed; hence resolution range is given for them (Table 2, Point.6). The images in the other folders were resized and further rotated by 90°. The image count is provided according to the seasons, type of road and class of the dataset images (Table 4).
Table 2

Specification of image acquisition system.

Sr. No.Camera ParticularsDetails
1Camera makersSamsung
2Camera modelSamsung Galaxy A22
3F-stopf/1.8, f/2.2, f/2.4,f/2.4 aperture
4Exposure time1/33 s
5Flash modeNo flash mode
6Image resolutionMin-300 × 204Max-4128 × 2322
Table 4

Road surface dataset details.

ClassSeasonDirection of Image coverageTypeTime of Image CoverageCount
Uneven RoadSummerTop viewSide viewPaved Road-553Morning,Afternoon,Evening, and Late Evening553
Speed BreakerSummerTop viewSide viewPaved Road-440Morning, Afternoon, Evening, andLate Evening440
Pothole with waterRainy, SummerTop viewSide viewPaved Road-1564Unpaved Road-760Morning,Afternoon,Evening, andLate Evening2324
Pothole without waterRainy, SummerTop viewSide viewUnpaved Road-118Morning,Afternoon118
Original Images4242
Rotated Images4242
Total Images8484
The dataset contains 8484 images and 10 videos. Every image and video were stored in .jpg format and MP4 format, respectively. In the road surface dataset, different structures were considered, such as (a) Pothole in rains on the paved and unpaved road, (b) Pothole in summer on the paved and unpaved road (c) Speed breaker and (d) Roadside Barriers. Cement concrete and tar roads were considered for the paved road condition, while roads made of only soil and stones were unpaved. All the images were taken from the top view and the side view. These images were captured during 2020 and 2021 from two cities, namely Nashik and Mumbai, of Maharashtra, India. Based on the road structure, the directory structure is divided into three main folders: (1) Paved Road, (2) Unpaved and (3) Video. The first two folders are further divided into subcategories according to the status of the pothole during summer and rains. Along with potholes, we also added speed breaker and roadside barrier images. The video folder consists of videos according to seasons for various road surface types (Fig. 2).
Fig. 2

Dataset directory structure.

Experimental Design, Materials and Methods

Experimental design

The image data acquisition process is shown in Fig. 3. The Road surface images were acquired using the Samsung Galaxy A22 mobile's high-resolution quad rear camera. In all, 8484 images were captured using a camera and then were segregated and saved in respective folders as per the Road type and class of the image (Fig. 2). The 10 videos were captured for various road surfaces and stored in the Video folder.
Fig. 3

Road surface data acquisition process.

The dataset is collected for the images available in two seasons, i.e. Rainy and Summer. Therefore, the duration from April to December is chosen for capturing images (Table 1).
Table 1

Data acquisition requirement.

SI. No.YearMonthSeasonFrequencyActivity
12021April-DecemberRainy and SummerDailyCaptured Images in the morning, afternoon, evening, and late evening
22020May - NovemberRainy and SummerDailyCaptured Images in the morning and afternoon
Data acquisition requirement. The road surface was available in different forms such as speed breakers, potholes and roadside barriers (Fig. 1). Thus, the dataset was prepared by considering all adverse conditions required for Road surface detection according to season. To cope with adverse conditions, it is necessary to collect images in different illuminations. Hence the images were captured in the morning, afternoon, evening, and late evening from the top and the side view (Table 4).
Fig. 1

Partial images of the dataset.

Partial images of the dataset. Dataset directory structure. Road surface data acquisition process.

Materials or specification of image acquisition system

The road images were captured using the Samsung Galaxy A22 RGB Quad camera (Table 2) [5]. A 15 W battery was used to power all the components of the imaging system. All dataset images were resized to 512 × 512 dimensions using python script (Table 3). The images are in .jpg format, and the videos are in mp4 format. Due to the complexities of earth surface and remote sensing data, it is necessary to identify road surfaces in various conditions [1]. Thus to overcome the time-dependent and weather variations of illumination in an outdoor environment, the dataset consists of road surface images in the form of speed breaker, uneven road surface, potholes in rains and potholes in summer.
Table 3

Specification of images.

Details as per Road Classes
Sr. noParticularsPaved RoadUnpaved Road
1Dimension512 × 512512 × 512
2Width512 pixel512 pixel
3Height512 pixel512 pixel
4Horizontal Resolution96 dpi96 dpi
5Vertical Resolution96 dpi96 dpi
6Bit Depth2424
Specification of image acquisition system. Specification of images.

Method

Table 4 describes the classes, number of images taken and the environments in which images are taken. A handheld mobile camera was used to capture images from the top view and side view. The images were captured at a man's height by bending down. The images of speed breakers, roadside barriers and potholes during different seasons for paved and unpaved roads were included. Road surface dataset details.

Ethics Statement

This data is available in the public domain, and no funding is received for the present effort. There is no conflict of interest.

CRediT authorship contribution statement

Sonali Bhutad: Methodology, Data curation, Formal analysis, Writing – original draft. Kailas Patil: Conceptualization, Writing – review & editing, Supervision, Project administration.

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.
SubjectComputer Vision and Pattern Recognition
Specific subject areaRoad Surface Detection
Type of dataImage, Video
How datapoints were acquiredRoad surface images in different forms such as damaged road surface, speed breaker and road surface with water and without water were considered for the dataset. Images were captured using Samsung Galaxy A22 Quad camera with the specifications as below,48 MP, f/1.8, (wide), 1/2.0″, 0.8 µm, PDAF, OIS8 MP,f/2.2,123˚(ultrawide),1/4.0″,1.12 µm2 MP,f/2.4,(macro)2 MP, f/2.4, (depth)
Data formatRaw
Parameters for data collectionThe dataset is composed of 8484 RGB images (512 × 512) pixels, horizontal 96 dpi, vertical 96 dpi) in .jpg format.
Description of data collectionThe collection of the image dataset was done in-field, at day-light during varying sunlight. Images represent the top view and side view of the road surface.
Data source locationCity/Town/Region: Nashik and MumbaiCountry: IndiaLatitude and longitude samples/data: 19.9975° N, 73.7898° E, 19.0760° N, 72.8777° E
Data accessibilityRepository name: Dataset of Unpaved and Paved Road Surface with SeasonsData identification number: doi: 10.17632/tj2m7zz4rg.2Direct URL to data: https://data.mendeley.com/datasets/tj2m7zz4rg/2
  2 in total

1.  Smart Pothole Detection Using Deep Learning Based on Dilated Convolution.

Authors:  Khaled R Ahmed
Journal:  Sensors (Basel)       Date:  2021-12-16       Impact factor: 3.576

2.  Dataset of Stagnant Water and Wet Surface Label Images for Detection.

Authors:  Sonali Bhutad; Kailas Patil
Journal:  Data Brief       Date:  2021-12-23
  2 in total

北京卡尤迪生物科技股份有限公司 © 2022-2023.