Living in Harmony with Earth
Our Philosophy
Our Philosophy
At Enclime, we understand the challenges faced by investors in the energy and climate sector, particularly those related to time constraints and the need for specialized knowledge. Our dedicated team of experts is here to support clients in overcoming these challenges. We work closely with each client to understand their unique needs and objectives, tailoring our services to deliver the best possible outcomes.
With a focus on securing energy resources and developing climate resilience strategies we use science and technology as the foundation of our advice.
OIL AND GAS
Oil and gas are the primary sources of energy for the world. They account for a substantial portion of the global energy supply, powering industries, homes, and transportation systems. The oil and gas industry is a cornerstone of modern civilization, driving economic growth, providing essential energy, and influencing global geopolitics. Our research focuses on:
- Technological advancements. Exploration and extraction of hydrocarbons in challenging environments, such as deep-water offshore fields or arctic regions, require sophisticated technologies and engineering solutions.
- Environmental and social impact. While the oil and gas industry is crucial for economic and energy needs, it also poses environmental and social challenges. The extraction and use of fossil fuels contribute to greenhouse gas emissions, air and water pollution, and habitat destruction. Spills and accidents can have devastating effects on ecosystems and communities.
CRITICAL MINERALS
Critical minerals are elements that are both economically significant and at risk of supply disruption. These minerals are vital for various industries, including electronics, aerospace, automotive, and energy. The term "critical" reflects the dual importance of these minerals: their essential role in technological advancement and the potential vulnerability of their supply chains.
Our work is focused on demand, supply chains, and sustainable and ethical sourcing. As the world transitions to more sustainable practices, the demand for critical minerals has surged, highlighting the need for secure and resilient supply chains.
The supply chains for critical minerals are complex and often concentrated in specific regions such as China for rare earth elements, and the Democratic Republic of Congo for cobalt.
Mining and processing activities can have significant environmental and social impacts, including habitat destruction, water pollution, and human rights abuses.
CLIMATE RESILIENCE STRATEGIES
Climate resilience refers to the ability of a system, community, or society exposed to climate-related hazards to anticipate, prepare for, respond to, and recover from adverse impacts. Building climate resilience is crucial for several reasons. It helps protect lives and livelihoods, preserves ecosystems, and ensures economic stability. Without resilience, communities are at greater risk of experiencing devastating losses and prolonged recovery periods.
Climate resilience encompasses several key attributes, including the capacity to absorb shocks, adapt to changing conditions, and transform systems to mitigate future risks. It involves proactive measures to reduce vulnerabilities and enhance the robustness of natural and human systems.
We design strategies for building climate resilience that include:
- Community - based approaches. Engaging local communities in resilience-building efforts ensures that measures are tailored to specific needs and contexts.
- Technological innovations. Innovations such as real-time climate monitoring, resilient infrastructure designs, and climate-smart agriculture practices are examples of how technology can be harnessed to adapt to changing conditions.
- Financial investments. Public and private investments in climate resilience projects, insurance schemes, and financial instruments like green bonds provide necessary resources for building and maintaining resilience.
A Systematic Approach for
Mitigating Risk and
Unlocking Value
- Analyse sedimentary basin evolution.
- Evaluate technological know-how.
- Assess natural resource systems.