This comprehensive study embarked on a critical journey to scrutinize and evaluate the effectiveness of corporate environmental initiatives implemented in recent years, particularly focusing on the oil sector. Utilizing a meticulous literature review strategy, the research analyzed various case studies and scholarly contributions to delineate the current state of environmental advocacy in the corporate sector and identify potential avenues for future research. The methodology encompassed a systematic data extraction and analysis approach, ensuring relevant and reliable data assimilation. The findings underscored a significant shift in the corporate sector towards fostering environmental sustainability through various initiatives spanning different industries. Environmental advocacy has emerged as a potent force urging the industry to adopt more sustainable and ethical practices, particularly in the oil sector. The study revealed a growing awareness and commitment to fostering a sustainable and environmentally responsible corporate sector, characterized by green innovation, sustainable practices, and corporate social responsibility. Based on the analysis, the study recommends developing and implementing robust regulatory frameworks to mandate adherence to sustainable practices, promoting green innovation, and fostering collaborative efforts among various stakeholders. These strategies are envisaged to propel the corporate sector as a significant player in global environmental conservation efforts. Looking ahead, the study identifies a promising trajectory for environmental advocacy, characterized by collaborative efforts, regulatory frameworks, and green innovation, setting a pathway towards a sustainable and environmentally responsible corporate sector..

The evolution of oilfield testing has been marked by significant technological advancements, reshaping the landscape of the energy sector. This review delves into the transformative journey, emphasizing the criticality of integrating sustainable practices and technologies. Historically, the industry relied heavily on conventional methods, often associated with substantial environmental repercussions. However, the contemporary era, characterized by a global push for sustainability, has witnessed a shift. Advanced sensors, real-time analytics, and state-of-the-art software have revolutionized oilfield testing, enhancing efficiency while minimizing ecological footprints. As the narrative unfolds, it underscores the sector’s challenges, from technical and economic barriers to intricate social dynamics like workforce adaptation and stakeholder expectations. Yet, amidst these challenges lie opportunities. Collaborative efforts with environmental agencies, robust investments in research and development, and a focus on workforce training emerge as pivotal strategies. The review culminates with a forward-looking perspective, highlighting the potential benefits of sustainable practices on the environment, economy, and society, and issues a clarion call for unwavering commitment to innovation and sustainable methodologies in the oil and gas domain.

Globally, fast-tracked urbanization has led to diversified environmental challenges since the time of the industrial revolution. Among the challenges faced, Urban Heat Island (UHI) is caused by the replacement of natural materials with man-made ones such as concrete, asphalt, and increased anthropogenic heat production, among other factors. This study is on understanding the reasons behind UHI, its effects, and finding out proper strategies for mitigation in the context of Bangladesh. Among many ways, proper interior and exterior vegetation, sufficient wind flow, and appropriate building materials are chosen to be the proper methods to reduce UHI effects in Bangladesh. CFD analysis has been carried out to understand the effect of vegetation, wind flow, and different material to mitigate UHI. An estimation of the effect of temperature reduction in energy efficiency is also done. It is observed that a significant amount of energy can be saved by reducing the cooling load if these suggestions are followed. The study shows that the temperature is decreased up to 3°C with the increasing vegetation on exterior walls and rooftop. By using Wood Plastic Composite (WPC) on the rooftop as a phase change material, temperature is decreased around 4°C. By using all conditions (rooftop, sidewall, interior vegetation & PCM on rooftop) together temperature could be mitigated around 5°C.

This research paper reviews innovative surface protection technologies in the context of oil and gas facilities. The oil and gas industry faces numerous challenges in maintaining the integrity and longevity of its infrastructure, making surface protection a critical aspect of facility management. Traditional methods have limitations in addressing harsh operating conditions and environmental concerns. This paper explores emerging technologies that offer promising solutions to these challenges. Through an in-depth analysis of various innovative surface protection approaches, including their principles, advantages, and real-world case studies, this study highlights the potential benefits and challenges associated with their implementation. Additionally, the paper compares these cutting-edge technologies with traditional methods, considering performance, cost-effectiveness, and environmental impact. It also examines the regulatory and environmental considerations in adopting these new solutions.

East Flood Canal is a canal built to handle flooding in the city of Jakarta. In addition to the canal flow as the main element, there are also borders on the left and right of the canal as supporting elements of the Banjir Kanal Timur. The border area of the Banjir Kanal Timur has the potential to be used as a green open space or public open space that helps increase the functional, ecological and aesthetic value of the city. The objective of this study is to provide input to optimize the Banjir Kanal Timur border as a public open space while still prioritizing the hydrological and ecological functions
This research uses rationalistic and descriptive methods. Data was obtained through observation, interviews and theoretical data, established regulations. The research location was divided into several zones to facilitate analysis.
From the results of this study it was found that the boundaries of Banjir kanal Timur can be utilized as a shared public green open space. The existing condition of its land use is still not optimal, does not have adequate facilities and infrastructure as a public area with recreational activities.
Limitations of the study – From the results of this study it was found that the boundaries of the Banjir Kanal Timur can be mandated as a team or togetherness of public green spaces.
The definition of a community is a social group that shares an environment with each other. This research uses community theory in developing public green open spaces on the banks of the Banjir Kanal Timur through the concept of inclusive landscape design.

Lead Rubber Bearing (LRB) is a passive type of base isolation that can be used as a damper for earthquake vibrations on bridges and buildings. The components that make up the LRB are several layers of rubber laminated to steel plates to increase vertical rigidity. LRB is also reinforced with lead cores to dissipate earthquake energy that enters the bridge structure or buildings. This paper will explain the design and production of LRB and test the results of the analysis. In this design, the properties of the materials used in the LRB are explained, the function of each material, the relationship between the design and the need to absorb earthquake loads on bridge structures or buildings. It also explains the determination of elastomeric thickness and number of layers, size of insulator, elastomer thickness and number of layers, number of rubber layers, total height, vertical and horizontal stability checks. The production method is very important to get a quality LRB product. Production starts from material selection, vulcanization process and quality control. The research was carried out successfully by studying the literature and technical analysis by carrying out several simulations with various dimensions to get better performance. Several developments were made to get better LRB performance. The damping of structures without base isolation is generally +/- 5%. For the need for good performance against earthquake loads, the attenuation can be increased to 20–30%. This is very useful for reducing earthquake loads, when a decrease in building acceleration cannot be obtained in tall buildings with base isolation. Likewise with the dimensions of the lead core. This research is still limited to theoretical analysis and prototyping, because no experiments have been carried out in the laboratory or applied to a construction project

This paper examines groundwater potential zones with the help of remote sensing and GIS methods for controlling and investigating the geospatial data of each parameter. Because of several conditions such as rapid population growth, urbanization, industrialization and agricultural development, groundwater sources are under severe threat. Climate change plays an important role in the quality and quantity of groundwater potential. Unreliable exploitation, poor quality of surface water resources tend to increase the decline in groundwater levels. This study was conducted in the Abbay River Basin, where groundwater serves as the main source for agricultural purposes rather than surface water. Seven selected parameters—lineament density, precipitation, geology, drainage density, land use, slope and soil data—were collected, processed, resampled, projected and reclassified for hydrological analysis. For generation of groundwater zones, weightage was calculated using an analytical hierarchy method. The consistency ratio estimated for this study was 0.089, which was acceptable for further analysis. Based on the integration of all thematic layers and the generated groundwater potential zones, the map was reclassified into five different classes, namely very good, good, moderate, poor and very poor. The results of this study reveal that 1295.33 km2 of the study area can be considered very poor, 58,913.1 km2 is poor, 131,323 km2 is moderate, 18,557 km2 is good and 311.5 km2 is very good. Any groundwater management project performed in the better regions would offer the greatest value. A similar study would be valuable before planning any water resource development activity to save comprehensive field investigations.

Building growth technology is rapidly recognised at a global level as being a key aspect in the future of construction projects, although construction robotics and automation (CRA) has undergone any major reality deployment to date. Nevertheless, the latest, substantially sustainability requirement is potentially the necessary cause for the larger implementation of construction robotics and automation. There are nevertheless small attempts at the detailed investigation of the effect of using construction robotics and automation on the sustainability efficiency of buildings and construction, but structured advice for the building industry is lacking in this sense. The study in this paper represents the first step towards addressing by analysing and examining the construction robotics and automation techniques and innovations available and for the first time creating a coherent system of metrics for measuring the sustainability efficiency of construction robotics and automation usage in buildings. The ultimate objective of the study must therefore be the creation of a rigorous and consistent methodology for evaluating, within this framework, the feasibility of construction robotics and automation in the construction projects context.

Energy efficient building concerns to the structure and using the process that is environmental liable and material efficient all around a building lifecycle. The basic principle of this building to minimize the energy consumption for heating and cooling system. The paper investigates the thermal behavior of hemp fiber insulation in timber framed wall panels for which timber framed structures will be experimented. Steps to enhance the energy performance were applied to building structure, window area, window glazing, lightning, heating ventilation and air conditioning (HVAC) system. We were measured the U-values of timber walls, hemp fiber insulation and window glazing. Results showed that energy efficient building enjoy the benefits of saving 40-50% energy by reducing greenhouse gases emissions into atmosphere. We have discussed about the rating system of energy efficient building or green building. In this paper, information pertaining to building life cycle and detailed explanation regarding fundamentals of building energy will be provided.

The Minjibir-Wase dam was constructed along the drainage system from the Jakara stream and linked with Dambattan flow that channelled through the lowland of the Minjibir via the main tributaries which drained into Hadeja. The idea of the dam was initiated during the Abdu-Bako era for sustainable irrigation Agriculture. More than twenty thousand people are benefiting from the dam. To harness the water resources, a private tourist centre was established along the coastal region of the dam where different recreational facilities were put in place to attract foreign investment and for leisure. The method used is the application of Hydrological software ArcSWAT and ArcGIS to map and evaluate the area morphometric characteristics of the basin parameters examined includes the slope gradient, sub-basin length, width, density, flow accumulation and direction and depth of the Basin.