Innovative Method for Estimating Oil Tank Volumes Using Remote Sensing Technology, (from page 20240602.)
External link
Keywords
- oil tanks
- remote sensing
- volume calculation
- shadow extraction
- image processing
Themes
- oil tanks
- remote sensing
- volume estimation
- shadow detection
Other
- Category: science
- Type: research article
Summary
This paper presents a method for estimating the volume of oil tanks using high-resolution remote sensing images, focusing on shadow detection techniques. It includes a comprehensive overview of related works, proposing a systematic approach that encompasses image preprocessing, shadow extraction, and volume calculation. Key aspects of the method involve calculating the shadow length, determining tank height, and measuring the tank’s top radius. Experiments were conducted to evaluate the effectiveness of the proposed approach, with results demonstrating the accuracy of shadow extraction and volume estimation. The findings suggest that high-resolution remote sensing can be effectively utilized for accurate oil tank volume assessments, providing valuable insights for monitoring and management in the oil industry.
Signals
name |
description |
change |
10-year |
driving-force |
relevancy |
Advancements in Remote Sensing Technology |
High-resolution remote sensing technology is evolving rapidly, allowing for more accurate measurements. |
Transitioning from basic imaging to sophisticated shadow and volume estimation techniques. |
Expect widespread use of high-resolution remote sensing in various industries for precise measurements. |
Growing demand for accurate data in environmental monitoring and urban planning. |
4 |
Automated Shadow Detection Techniques |
Emerging methods for automated detection of shadows in aerial imagery enhance efficiency. |
From manual shadow detection methods to automated processes using advanced algorithms. |
Automation will streamline processes in urban planning and environmental assessments, reducing human error. |
The need for efficiency in data processing and analysis in various sectors. |
4 |
Integration of AI in Remote Sensing |
Artificial intelligence is being integrated into remote sensing for improved analysis and predictions. |
Shifting from traditional analysis to AI-driven insights for better decision-making. |
AI will dominate data analysis in remote sensing, providing predictive analytics and insights. |
The push for smarter, data-driven decision-making in industries reliant on remote sensing. |
5 |
Increased Importance of Environmental Monitoring |
Growing awareness of environmental issues boosts the demand for accurate monitoring tools. |
From sporadic monitoring to continuous, precise environmental observation using remote sensing. |
Expect comprehensive monitoring systems that provide real-time data for environmental management. |
The urgent need for sustainable practices and compliance with environmental regulations. |
4 |
Concerns
name |
description |
relevancy |
Data Privacy and Surveillance |
High-resolution remote sensing raises concerns over individual privacy and unauthorized surveillance activities. |
4 |
Environmental Impact Assessment |
Inaccurate estimation of oil tank volumes could lead to mismanagement of environmental risks associated with oil spills. |
5 |
Technological Reliability |
Dependence on remote sensing technology may pose risks if the technology fails or produces erroneous data. |
3 |
Regulatory Compliance |
Challenges in ensuring compliance with environmental regulations due to potential inaccuracies in oil tank volume calculations. |
4 |
Geopolitical Tensions |
Remote sensing for oil infrastructure could escalate geopolitical tensions over resource control. |
4 |
Behaviors
name |
description |
relevancy |
Remote Sensing Image Analysis |
Utilization of high-resolution images for detecting and analyzing shadows to estimate oil tank volumes. |
5 |
Automated Shadow Detection Techniques |
Advancements in algorithms for detecting and compensating shadows in remote sensing imagery. |
4 |
Volume Estimation from Visual Data |
Methodologies for calculating physical volumes of structures using visual data from remote sensing. |
5 |
Integration of Evaluation Metrics |
Employing various metrics to assess the accuracy of shadow detection and volume calculations. |
4 |
Multi-Sensor Data Calibration |
Calibration of data from various remote sensing sources to improve measurement accuracy. |
3 |
Urban Structural Analysis |
Analysis of urban structures and their dimensions using shadow information from aerial imagery. |
4 |
Technologies
description |
relevancy |
src |
Utilizing advanced satellite and aerial imagery to analyze and extract information regarding physical structures like oil tanks. |
5 |
97f4a18b37c399d2f42998a88cb45456 |
Innovative methods for detecting and analyzing shadows in high-resolution imagery to infer structural dimensions and volumes. |
4 |
97f4a18b37c399d2f42998a88cb45456 |
Algorithms designed to accurately calculate the volume of objects based on image analysis and shadow metrics. |
4 |
97f4a18b37c399d2f42998a88cb45456 |
Advanced techniques for enhancing image quality and preparing data for analysis in remote sensing applications. |
4 |
97f4a18b37c399d2f42998a88cb45456 |
Issues
name |
description |
relevancy |
High-Resolution Remote Sensing Applications |
Increasing use of high-resolution remote sensing images for various applications, including environmental monitoring and urban planning. |
4 |
Oil Tank Monitoring |
Growing importance of accurately estimating oil tank volumes for safety, environmental protection, and management practices. |
5 |
Shadow Detection Technologies |
Advancements in shadow detection methods in remote sensing can lead to improved accuracy in building height and volume estimations. |
4 |
Data Processing Techniques |
Emerging techniques in image preprocessing and shadow extraction are critical for enhancing the quality of remote sensing data analysis. |
3 |
Environmental Risk Assessment |
Increased focus on environmental risk assessments related to oil storage and potential leaks or spills. |
5 |