LNG as marine fuel – where technology meets logistics

2018 ◽  
Vol 58 (2) ◽  
pp. 593
Author(s):  
Douglas Raitt

Following the establishment of the ‘LNG Marine Fuel Institute’ in Australia and research projects on alternative fuelling of ore carriers operating out of Australia, the focus of the marine and oil and gas industry is turning increasingly towards the adoption of liquefied natural gas (LNG) as a fuel oil. The development of LNG bunkering facilities on Australian soil followed. For LNG to be a viable option for deep sea shipping, it is all about infrastructure, technology and the human element. Thus far, LNG as fuel oil was only applied on LNG carriers; outside of that, LNG has mainly been used for short sea applications, which are tightly controlled from a technical and human element perspective mainly through shore-to-ship custody transfer. For deep sea shipping however, the infrastructure needs to be in place to allow regular refuelling options on various global shipping trade routes. It is anticipated that for deep sea shipping, the main mode of LNG fuelling will be through ship-to-ship custody transfers with required risk management. LNG bunkering technology standards and procedures are largely maturing, and efforts are underway to harmonise these standards globally to allow for flexible fuelling locations for ships traversing large distances. The remaining challenge will be to enhance a ship’s crew competence. The level of sophistication required of a crew for LNG bunkering is not something attained thus far in conventional oil bunkering and needs to be addressed. Continuous Competence Management Systems taking LNG cargo trading vessel experience into account, together with the ‘Standards of Training Certification and Watchkeeping for Seafarers’ requirements, is vital for the safe development of gas bunkering for deep sea shipping.

2011 ◽  
Vol 51 (2) ◽  
pp. 716
Author(s):  
Peter Smith ◽  
Iain Paton

The large number of wells associated with typical coal seam gas (CSG) developments in Australia has changed the paradigm for field management and optimisation. Real time data access, automation and optimisation—which have been previously considered luxuries in conventional resources—are key to the development and operation of fields, which can easily reach more than 1,000 wells. The particular issue in Australia of the shortage of skilled labour and operators has increased pressure to automate field operations. This extended abstract outlines established best practices for gathering the numerous data types associated with wells and surface equipment, and converting that data into information that can inform the decision processes of engineers and managers alike. There will be analysis made of the existing standard, tools, software and data management systems from the conventional oil and gas industry, as well as how some of these can be ported to the CSG fields. The need to define industry standards that are similar to those developed over many years in the conventional oil and gas industry will be discussed. Case studies from Australia and wider international CSG operations will highlight the innovative solutions that can be realised through an integrated project from downhole to office, and how commercial off the shelf solutions have advantages over customised one-off systems. Furthermore, case studies will be presented from both CSG and conventional fields on how these enabling technologies translate into increased production, efficiencies and lift optimisation and move towards the goal of allowing engineers to make informed decisions as quickly as possible. Unique aspects of CSG operations, which require similarly unique and innovative solutions, will be highlighted in contrast to conventional oil and gas.


2014 ◽  
Vol 8 (3) ◽  
Author(s):  
Emerald Brilliant Kussoy ◽  
David Paul Elia Saerang ◽  
Winston Pontoh

Taxes are the main source of state revenue. Without taxes, the majority of state activities is difficult to be implemented. One of the biggest contributor to state revenue is taxes from the oil and gas industry. Fuel ( BBM ) is one type of fuel produced from refining crude oil . Crude oil from the earth refinery processed in advance to produce oil products, which including the fuel. Associated with the tax code, the fuel tax is the object of section 22 is subject to income tax levied by Pertamina and entities other than Pertamina engaged in the sale of fuel over petroleum products. The purpose of this study is to evaluate the tax calculation and reporting of the top 22 pph fuel redemption is in accordance with the PMK 154/03/2010. The analytical method used is descriptive analysis. The findings of this study is the calculation done by PT. Pertamina on the sale of products or the goods are delivered fuel oil, gas, and lubricants have done well or in accordance with the provisions of applicable tax of 0.30 % of the sales price in the gas station filling station Sindulang as Private, in income tax article 22 reporting PT. Pertamina already fully in accordance with the tax regulations ,reporting not later than 20 days after the tax period ends.


2018 ◽  
Vol 5 (3) ◽  
pp. 35-50
Author(s):  
G. Ijeomah ◽  
F. Samsuri ◽  
F. Obite ◽  
M.A. Zawawi

The global oil demand and the development of advanced techniques have made the regeneration of previously abandoned oilwells economically attractive. As conventional oil recovery methods near their economic limits, a revolutionary new technology is required to harness maximum oil from these stranded oilwells. Due to its potential to manipulate matter at molecular level, nanotechnology promises to dramatically transform oil and gas industry by enabling enhanced oil and gas recovery. Recently, there has been increasing research interest in the applications of nanotechnology in enhanced oil and gas recovery, where the unique aspects of reservoir management, drilling, production, processing and refinery are redesign. Nanotechnology has the potential to revolutionize the drilling process and accelerate the production of oil and gas by providing a platform that makes their separation in the reservoir more amenable. Nanotechnology can make the industry greener by drastically reducing the oil’s carbon footprint in contrast to oils obtained from conventional methods. In this paper, we review the latest trends in the applications of nanotechnology for enhanced oil and gas recovery. We further present scientific advance and new insight into possible future applications. The paper aims to broaden our understanding of the applications landscape of nanotechnology in oil and gas industry.


Subject Prospects for consolidation in the oil and gas industry. Significance Falling revenues and downward reserve valuations caused by the fall in oil prices are producing merger and acquisition (M&A) opportunities in the oil and gas sector. However, uncertainty about how long oil prices will stay low is keeping bids and offers apart, amid quandaries over which forms of oil and gas production will prove most profitable once prices revive. Impacts Post-bankruptcy restructured companies may be primary targets, given acquirers' unwillingness to take on elevated levels of debt themselves. Mid-cap companies with serviceable debt loads will gain from increased scale; cost reduction capacity will be a source of value. Shale cost reductions suggest that technology and assets in the shale patch will remain attractive to more conventional oil companies. Values of long lead-time projects, such as conventional oil assets in Africa, will suffer. There is substantial firepower available to private equity buyers who are holding out for lower prices prompted by distressed sellers.


Author(s):  
Astrid Vamråk Solheim ◽  
Maxime Lesage ◽  
Bjørn Egil Asbjørnslett ◽  
Stein Ove Erikstad

Abstract This paper presents the first steps towards conceptual design for the underwater transportation of minerals from seabed to shore for deep sea mining (DSM). The methodology is based on conceptual design using a systematic approach. Abstraction was used to identify the fundamental entities of the problem, and a function structure containing the overall function and subfunctions was established based on the abstraction. Further, an extensive search for working principles (WP) was conducted in order to find forms associated with the functions. This was done by exploration of solutions within different industries such as the oil and gas industry, subsea industry and dredging industry. The discovered working principles were then listed and categorized based on their physical principles, i.e. classifying criteria. For each function, the working principles were combined into design catalogues with classifying criteria in the rows and columns. Further, compatibility between principles was reviewed. This led to the selection of four working structure sets: one based on ore moved as bulk, and three based on ore moved inside a container. The container-based solutions are different in how the container is moved: inside the cargo hold, carried outside, or towed by underwater vehicle. A completion of the last steps of the conceptual design process is needed to obtain a principle solution.


2021 ◽  
Vol 44 (4) ◽  
pp. 485-495
Author(s):  
V. N. Ekzaryan ◽  
A. K. Akhmadiev

The oil and gas industry has been evolving for 150 years. Despite the predictions on the diminishing role of hydrocarbons in the second half of the 21st century, today they play a leading role in the global energy sector. In view of this there is some interest to study current development trends of the industry. This paper reviews and analyses data for the period from 2011 to 2021, which relate to the development of hydrocarbon resources in the marine and ocean environment. It was important for the authors to consider how the trends they highlighted are affecting or will affect ecosystems. The conducted research has showed that today there are three main development trends in hydrocarbon mining in the World ocean: development of the marine Arctic, continental shelf and the possibility to organize commercial production in the deep sea areas of the World ocean. For each of the directions both existing and potential ecological risks have been identified. They include loss of marine biodiversity, activation of dangerous geological processes, unpredictability of ocean environment, man-made accidents and disasters, discharges of drilling and other industrial waste, etc. The work has also identified the challenges facing the oil and gas industry. These include the search for new technologies for deep-sea production, poorly understood depth of the World ocean, need for new approaches in environmental risk management, as well as the creation of a legal framework for subsoil use regulation in new environments and areas.


2020 ◽  
Vol 78 (7) ◽  
pp. 861-868
Author(s):  
Casper Wassink ◽  
Marc Grenier ◽  
Oliver Roy ◽  
Neil Pearson

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