Financing Net Zero: Addressing Technology Risk for Financial Investments in the Energy Transition

2021 ◽  
Author(s):  
John Young ◽  
Myrtle Dawes ◽  
Andrew Smith ◽  
Keiren Lake ◽  
Keith Lawton

Abstract This paper discusses the challenges that must be addressed to support the financing of novel technologies needed to achieve the United Kingdom's stated goal of achieving net zero emissions by 2050. It identifies practical steps that stakeholders providing investment funding, as well as technology developers can take to drive net zero outcomes. The paper represents the first time such a diverse group of independent industry professionals have come together to explore financing challenges associated with the Energy Transition. Apart from the diversity of the authors backgrounds and expertise, a survey was conducted of 121 respondents from across the energy landscape while preparing this paper. The survey was launched to an international audience, however, respondents were largely from the oil and gas and renewable industries from both the UK and Europe. The paper seeks to align investors in technological developments and will enable them to more accurately value the risks of novel technology deployment. This requires developers to present their solutions in a manner that investors can understand, and which enables financial risk to be more accurately aligned with the Technology Readiness Level (TRL) approach. Another critical element is making sure the rush to develop newer technologies to achieve Net Zero takes into account the right Environmental, Social, and Governance (ESG) considerations. The ultimate goal of the paper is to begin a dialogue that will eventually lead to a shift in the way that private and public institutions think about financing nascent technologies.

2021 ◽  
Vol 73 (09) ◽  
pp. 50-50
Author(s):  
Ardian Nengkoda

For this feature, I have had the pleasure of reviewing 122 papers submitted to SPE in the field of offshore facilities over the past year. Brent crude oil price finally has reached $75/bbl at the time of writing. So far, this oil price is the highest since before the COVID-19 pandemic, which is a good sign that demand is picking up. Oil and gas offshore projects also seem to be picking up; most offshore greenfield projects are dictated by economics and the price of oil. As predicted by some analysts, global oil consumption will continue to increase as the world’s economy recovers from the pandemic. A new trend has arisen, however, where, in addition to traditional economic screening, oil and gas investors look to environment, social, and governance considerations to value the prospects of a project and minimize financial risk from environmental and social issues. The oil price being around $75/bbl has not necessarily led to more-attractive offshore exploration and production (E&P) projects, even though the typical offshore breakeven price is in the range of $40–55/bbl. We must acknowledge the energy transition, while also acknowledging that oil and natural gas will continue to be essential to meeting the world’s energy needs for many years. At least five European oil and gas E&P companies have announced net-zero 2050 ambitions so far. According to Rystad Energy, continuous major investments in E&P still are needed to meet growing global oil and gas demand. For the past 2 years, the global investment in E&P project spending is limited to $200 billion, including offshore, so a situation might arise with reserve replacement becoming challenging while demand accelerates rapidly. Because of well productivity, operability challenges, and uncertainty, however, opening the choke valve or pipeline tap is not as easy as the public thinks, especially on aging facilities. On another note, the technology landscape is moving to emerging areas such as net-zero; decarbonization; carbon capture, use, and storage; renewables; hydrogen; novel geothermal solutions; and a circular carbon economy. Historically, however, the Offshore Technology Conference began proactively discussing renewables technology—such as wave, tidal, ocean thermal, and solar—in 1980. The remaining question, then, is how to balance the lack of capital expenditure spending during the pandemic and, to some extent, what the role of offshore is in the energy transition. Maximizing offshore oil and gas recovery is not enough anymore. In the short term, engaging the low-carbon energy transition as early as possible and leading efforts in decarbonization will become a strategic move. Leveraging our expertise in offshore infrastructure, supply chains, sea transportation, storage, and oil and gas market development to support low-carbon energy deployment in the energy transition will become vital. We have plenty of technical knowledge and skill to offer for offshore wind projects, for instance. The Hywind wind farm offshore Scotland is one example of a project that is using the same spar technology as typical offshore oil and gas infrastructure. Innovation, optimization, effective use of capital and operational expenditures, more-affordable offshore technology, and excellent project management, no doubt, also will become a new normal offshore. Recommended additional reading at OnePetro: www.onepetro.org. SPE 202911 - Harnessing Benefits of Integrated Asset Modeling for Bottleneck Management of Large Offshore Facilities in the Matured Giant Oil Field by Yukito Nomura, ADNOC, et al. OTC 30970 - Optimizing Deepwater Rig Operations With Advanced Remotely Operated Vehicle Technology by Bernard McCoy Jr., TechnipFMC, et al. OTC 31089 - From Basic Engineering to Ramp-Up: The New Successful Execution Approach for Commissioning in Brazil by Paulino Bruno Santos, Petrobras, et al.


2021 ◽  
Author(s):  
Sam Jones ◽  
Adam Joyce ◽  
Nikhil Balasubramanian

Abstract Objectives/Scope There are many different views on the Energy Transition. What is agreed is that to achieve current climate change targets, the journey to deep decarbonisation must start now. Scope 3 emissions are clearly the major contributor to total emissions and must be actively reduced. However, if Oil and Gas extraction is to be continued, then operators must understand, measure, and reduce Scope 1 and 2 emissions. This paper examines the constituent parts of typical Scope 1 emissions for O&G assets and discusses a credible pathway and initial steps towards decarbonisation of operations. Methods, Procedures, Process Emissions from typical assets are investigated: data is examined to determine the overall and individual contributions of Scope 1 emissions. A three tiered approach to emissions savings is presented: – Reduce overall energy usage – Seek to Remove environmental losses – Replace energy supply with low carbon alternatives A simple method, used to assess carbon emissions, based on an abatement of carbon from a cost per CO2 tonne averted basis is described. This method, Marginal Abatement Cost Curve (MACC), is based solely on cost efficiency. Other criteria such as safety, weight, footprint and reliability are not considered. Credible pathway for reduction of Scope 1 emissions is presented. Taking appropriate actions as described in the pathway, contributors are eliminated in a strategic order, allowing operators to contribute to deep decarbonisation. Results, Observations, Conclusions A typical offshore installation was modelled with a number of carbon abatement measures implemented. Results are presented as cost effective or non-cost-effective CO2 measures together with the residual CO2 emissions. Based on the data presented, many of the replace measures have a higher cost per tonne of CO2 abated than reduce and remove measure. These findings indicate that additional technological advancement may be needed to make alternative power solutions commercially viable. It also indicates that several CO2 abatement measures are cost effective today. The pathway proposes actions to implement carbon savings for offshore operators, it differentiates actions which can be taken today and those which require further technological advancement before they become commercially viable. The intent of this pathway is to demonstrate that the energy transition is not solely the preserve of the largest operators and every company can take positive steps towards supporting decarbonisation. Novel/Additive Information The world needs security of energy supply. Hydrocarbons are still integral; however, oil and gas operators must contribute to carbon reduction for society to meet the energy transition challenges. As government and societal appetite for decarbonisation heightens, demands are growing for traditional hydrocarbon assets to reduce their carbon footprint if they are to remain part of the energy mix. Society and therefore regulators will demand that more is done to address emissions during this transitional phase, consequently necessitating that direct emissions are reduced as much as possible. The pathway is accessible to all today, we need not wait for novel technologies to act.


2021 ◽  
Author(s):  
Armstrong Lee Agbaji

Abstract The most common challenge facing the oil industry in the Age of AI is talent scarcity. As digital transformation continues to redefine what it takes to work in the industry, staying relevant in the industry will require knowledge and understanding of the underlying technologies driving this transformation. It also requires a re-evaluation of how next generation petrotechnical professionals are nurtured, educated, and trained. The human talent that is needed in the Age of AI is different, and simply obtaining a science or engineering degree will no longer suffice to survive and thrive in the industry. While it is vitally important that students continue to take fundamental engineering and science courses and learn industry-specific skills, we must recognize when an existing curriculum or way of teaching and learning has either run its course or has evolved. This paper examines how artificial intelligence will impact the training and development of the industry's future workforce and what organizations must do to retain existing talents while at the same time developing new ones, so they are not rendered irrelevant by AI. It proposes novel ways by which practical digital transformation and energy transition technologies can be integrated into core oil and gas education and training curriculum. It also outlines various innovative ways that academic institutions can join forces with industry to educate and train technical professionals, who, right out of college are sufficiently grounded to analyze, evaluate, and communicate data findings to drive better business decisions. For students and young professionals, it lays out the roadmap to readiness, and how to thrive in a digitally transformed world, as well as several ways to robot-proof their career and stay ahead of the curve. The task of training industry leaders of the future is enormous, sensitive, and demanding. The ability of next generation petrotechnical professionals to succeed in the digital age, and compete in a data-centric world, depends on their ability to develop, adopt, and apply next generation skills. Having the right mix of skills is not only essential to their success, it is critical to the survival of the industry. In the Age of AI, classroom learning needs to be deemphasized and experiential learning needs to be emphasized. The workforce of the future will be dominated by people with analytics skills and capabilities. Preparing next generation professionals for the future of work calls for a re-evaluation, re-design and recasting of the synergy between academia and industry. Universities and industry will need to routinely intersect to create symbiosis and enhance our educational system. Success will depend on sustained partnership and collaboration, not merely shifting the problem to one another.


2021 ◽  
Vol 5 (1) ◽  
pp. 70
Author(s):  
Vagia Makri ◽  
George Panagopoulos ◽  
Konstantinos Nikolaou ◽  
Spyridon Bellas ◽  
Nikos Pasadakis

It is evident that the increased focus on energy transition, will increase the demand for gas as it is the transitional fuel to the net zero CO2 emission era. The West Katakolo field is the only oil and gas discovery in Western Greece, and it is operated by Energean. The three offshore West Katakolo wells have defined both the oil and the gas zones, while onshore exploration wells have penetrated biogenic gas-saturated Plio-Pleistocene sands. This study assesses the gas generation potential of the local Plio-Pleistocene and Triassic sources using thermal maturity modelling based on the available legacy data, with limitations being addressed by running several case-scenarios. In conclusion, this study supports the generation of thermogenic and biogenic gas from the Triassic and Plio-Pleistocene sources respectively, demonstrating the importance of maturity modelling in hydrocarbon exploration, applied on the Katakolo case; a potential gas source to facilitate the energy transition in Greece.


2021 ◽  
Author(s):  
Molly lliffe

Abstract The UK was the first major industrialised nation to commit to a Net Zero target by 2050, and Scotland has an even more ambitious target to reach Net Zero by 2045. To realise these targets, hydrogen will play a leading role in the decarbonisation of multiple sectors including industry, transport, heat and power. Offshore wind can be a core component of our future energy infrastructure, and the scale of its potential role in hydrogen production has recently drawn wider attention from policy makers, developers and potential users across a range of sectors. Hydrogen as a route to market for offshore wind therefore presents a transformative opportunity for the North Sea oil and gas sector and the associated UK supply chain. Existing skills and infrastructure in this region can be leveraged to achieve a leading position in this emerging clean fuel source. This opportunity is particularly relevant for sites in the North Sea which are further from shore with good wind resource, where power transmission costs and/or losses would be prohibitive. Additionally, hydrogen offers an interesting route to market for projects unable to obtain firm grid connection, for sites in regions with high grid charges, or where sufficient government revenue support for conventional power generation is not available for all good quality sites.


2021 ◽  
Author(s):  
Katie Parsons ◽  
Josh Wolstenholme

<p>To meet CO<sub>2</sub> reduction targets, the UK aims to plant c1.5 billion trees by 2050. Gaps within thousands of miles of hedgerows across the country are potentially suitable planting sites, but the extent of gaps and suitability for replanting are currently unknown. Maximising the potential growth of hedgerows however appears to receive relatively little attention compared with wide area tree planting. Hedgerow gaps present the opportunity for tree planting, contributing towards the annual tree-planting goals and net-zero CO2 plan as part of Defra’s 25-year objectives (HM Government, 2018), without requiring extensive land change.</p><p>Our ambitions of fostering a greener society and meeting net zero goals is heavily reliant on ensuring that children and youth are engaged with environmental concerns and have the right skills and knowledge for future careers. This project has been engaging with youth organisations to enhance their environmental and digital knowledge, whilst combining their input with state-of-the-art artificial-intelligence approaches. The open dataset created with public contributions will inform planting decisions whilst educating young people and citizens. The aligned education programme will provide resources detailing how new planting will drawdown CO<sub>2</sub>, reduce flood risk and increase biodiversity availability, ultimately fostering the participants as agents of change in addressing the climate crisis. </p><p>Citizens will be trained in hedgerow surveying techniques, with focus on both remote sensing/geographic information systems applications (GIS) and field surveying - enabling contributions from home (during COVID) as well as encouraging outdoor activity and learning. Through a series of surveys and tasks, citizens are able to utilise a smartphone device (or similar) to contribute new data into an open survey on hedgerow characteristics, simple field experimental measurements and images/videos, all whilst utilising the GPS built into the device. The objectives of the project are two-fold: first, data collected by citizens will be used to refine an existing deep learning model trained to identify hedgerow gaps from high-resolution earth observation imagery. Second, to encourage citizens to learn about and take ownership of their local environment, contributing to the fostering of a nation of climate champions.</p>


Significance The IEA describes the technological necessities and the many challenges, noting that the energy transition will require unprecedented international cooperation. The scale of the actions needed, coupled with current trends, suggest that the world is unlikely to achieve carbon neutrality by 2050. Impacts Carbon standards may divide global trade, with developing nations unable to afford to export products to developed nations in key sectors. Pressure on western oil and gas companies to align their spending with net zero carbon targets will grow. Energy transition technologies will attract sizeable government funding to speed up deployment and reap the benefits of early leadership. Japan, Australia and the Philippines have said they will ignore the IEA roadmap and still invest in coal, oil, and natural gas projects.


2013 ◽  
Author(s):  
David Hollis ◽  
Stavroula Leka ◽  
Aditya Jain ◽  
Nicholas Andreou
Keyword(s):  
The Uk ◽  

Jurnal Hukum ◽  
2016 ◽  
Vol 31 (2) ◽  
pp. 1833
Author(s):  
Rihantoro Bayu Aji

 AbstractActually the existence of foreign investment in Indonesia is not new phenomenon, due to foreign investment exist since colonialism era.The existence of foreign investment is still continuing to Soeharto era until reformation era. Spirit of foreign investment in colonialism era, Soharto era, and reformation era are different. Foreign investment in colonialsm era just explore of nation asset and ignore of nation welfare, and this matter is different from the character of foreign investment in Soeharto era also reformation era. Eventhough the involvement of foreign investor have any benefits to the host country, but on the other hand foreign investment have business oriented only whether the investment is secure and may result of profit. Refer to The Law Number 25 Year of 2007 Concerning Investment (hereinafter called UUPM) can not be separated from various interest that become of politic background of the law, even the law tend to liberalism of investment. Liberalism in the investment sector particularly of foreign investment basically exist far from issuing of UUPM, and the spirit of liberalism also stipulate in several rules among others The Law Number 5 Year of 1999 Concerning Prohibitation of Anti Trust and Unfair Competition, The Law Number 22 Year of 2001 Concerning Oil and Gas, The Law Number 7 Year of 2004 Concerning Water Resource, and also The Law Number 30 Year of 2009 Concerning Electricity.   Many rules as mentioned above has liberalism character and also indicator opposite wit the right to manage of the state to nation asset that relate to public interest as stipulated in the Indonesia Constitution. Actually the issuing of UUPM in case of implementation of article 33 Indonesia Constitution (UUD NRI 1945). Due to opportunity by Government to foreign investment as stipulate by article 12 UUPM and also the existence of many rules as well as The Law Number 5 Year of 1999 Concerning Prohibitation of Anti Trust and Unfair Competition, The Law Number 22 Year of 2001 Concerning Oil and Gas, The Law Number 7 Year of 2004 Concerning Water Resource, and also The Law Number 30 Year of 2009 Concerning Electricity, so the foreign investment that relate to public service is more exist in Indonesia. The existence is reflected many foreign companies. Free of foreign investment relate to public service is opposite with spirit of article 33 Indonesia Constitution. Keywords: Foreign Investment, Right of  State, Article 33 Indonesia Consitution AbstrakEksistensi penanaman modal asing (investasi asing) di Indonesia sebenarnya bukan merupakan fenomena baru di Indonesia, mengingat modal asing telah hadir di Indonesia sejak zaman kolonial dahulu.   Eksistensi penanaman modal asing terus berlanjut pada era orde baru sampai dengan era reformasi. Tentunya semangat penanaman modal asing pada saat era kolonial, era orde baru, dan era reformasi adalah berbeda. Penanaman modal asing pada saat era kolonial memiliki karakter eksploitatif atas aset bangsa dan mengabaikan kesejahteraan rakyat, hal ini tentunya berbeda dengan karakter penanaman modal asing pada era orde baru, dan era reformasi. Sekalipun kehadiran investor membawa manfaat bagi negara penerima modal, di sisi lain investor yang hendak menanamkan modalnya juga tidak lepas dari orientasi bisnis (oriented business), apakah modal yang diinvestasikan aman dan bisa menghasilkan keuntungan. Melihat eksistensi Undang–Undang Nomor 25 Tahun 2007 tentang Penanaman Modal (UUPM) tidak dapat dilepaskan dari beragam kepentingan yang mendasari untuk diterbitkannya undang–undang tersebut, bahkan terdapat kecenderungan semangat dari UUPM lebih cenderung kepada liberalisasi investasi. Liberalisasi pada sektor investasi khususnya investasi asing pada dasarnya eksis jauh sebelum lahirnya UUPM ternyata juga tampak secara tersirat dalam beberapa peraturan perundang–undangan di Indonesia. Perundang–undangan tersebut antara lain Undang–Undang Nomor 5 Tahun 1999 tentang Larangan Praktek Monopoli dan Persaingan Usaha Tidak Sehat, Undang–Undang Nomor 22 Tahun 2001 tentang Minyak Dan Gas Bumi, Undang–Undang Nomor 7 Tahun 2004 tentang Sumber Daya Air, dan Undang–Undang Nomor 30 Tahun 2009 tentang Ketenagalistrikan.Banyaknya peraturan perundang–undangan yang berkarakter liberal sebagaimana diuraikan di atas mengindikasikan bahwa hak menguasai negara atas aset bangsa yang berkaitan dengan hajat hidup orang banyak sebagaimana diamahkan oleh Undang–Undang Dasar 1945 (Konstitusi) mulai “dikebiri” dengan adanya undang–undang yang tidak selaras semangatnya. Padahal, UUPM diterbitkan dalam kerangka mengimplementasikan amanat Pasal 33 Undang–Undang Dasar Negara Republik Indonesia Tahun 1945 (UUD NRI 1945). Dengan adanya peluang yang diberikan oleh pemerintah kepada investor asing sebagaimana yang diatur dalam Pasal 12 UUPM ditambah lagi dengan adanya Undang–Undang Nomor 5 Tahun 1999 tentang Larangan Praktek Monopoli dan Persaingan Usaha Tidak Sehat, Undang–Undang Nomor 22 Tahun 2001 tentang Minyak Dan Gas Bumi, Undang–Undang Nomor 7 Tahun 2004 tentang Sumber Daya Air, dan Undang–Undang Nomor 30 Tahun 2009 tentang Ketenagalistrikan, maka investasi asing yang berhubungan dengan cabang– cabang yang menguasai hajat hidup orang banyak semakin eksis di Indonesia. Terbukanya investasi asing atas cabang–cabang produksi yang menguasai hajat hidup orang banyak tentunya hal ini bertentangan dengan konsep hak menguasai negara sebagaimana diatur dalam Pasal 33 UUD NRI 1945. Kata Kunci: Investasi Asing, Hak Menguasai Negara, Pasal 33 UUD NRI Tahun          1945


Examples of the value that can be created and captured through crowdsourcing go back to at least 1714, when the UK used crowdsourcing to solve the Longitude Problem, obtaining a solution that would enable the UK to become the dominant maritime force of its time. Today, Wikipedia uses crowds to provide entries for the world’s largest and free encyclopedia. Partly fueled by the value that can be created and captured through crowdsourcing, interest in researching the phenomenon has been remarkable. For example, the Best Paper Awards in 2012 for a record-setting three journals—the Academy of Management Review, Journal of Product Innovation Management, and Academy of Management Perspectives—were about crowdsourcing. In spite of the interest in crowdsourcing—or perhaps because of it—research on the phenomenon has been conducted in different research silos within the fields of management (from strategy to finance to operations to information systems), biology, communications, computer science, economics, political science, among others. In these silos, crowdsourcing takes names such as broadcast search, innovation tournaments, crowdfunding, community innovation, distributed innovation, collective intelligence, open source, crowdpower, and even open innovation. The book aims to assemble papers from as many of these silos as possible since the ultimate potential of crowdsourcing research is likely to be attained only by bridging them. The papers provide a systematic overview of the research on crowdsourcing from different fields based on a more encompassing definition of the concept, its difference for innovation, and its value for both the private and public sectors.


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