Environmental
Environmental Advantages of Full-Metal-Power in Downhole Drilling and Production Operations play a crucial role in the extraction of valuable natural resources, but they also bring environmental challenges. One of the significant environmental advantages of adopting Full-Metal-Power technology over traditional elastomers in downhole drilling motors is the reduction in environmental impact.
​
-
Reduced Waste and Pollution: Elastomer-based drilling motors often require frequent replacements due to hysteresis and chunking, contributing to increased waste generation and disposal challenges. In contrast, Full-Metal-Power's exceptional durability and resistance to harsh conditions result in longer operational lifespans. This extended longevity minimizes the need for frequent component replacements and are fully Recyclable at the end of their useable life, reducing waste generation and its associated environmental footprint.
-
Chemical Resistance: Full-Metal-Power's resistance to oil-based fluids, nitrogen, aromatics, and acids means that fewer power sections are needed and can be run over and over. Elastomer stators impregnated with petrochemicals end up in landfills.
-
Energy Efficiency: The enhanced efficiency of Full-Metal-Power technology translates to reduced energy consumption. Full-Metal-Power sections are manufactured on the same machine. Both rotors and stators of all sizes on one machine! this drastically cuts down on footprint and allows for extreme manufacturing efficiency.
-
Long-Term Reliability: Full-Metal-Power's ability to maintain performance under high and low-temperature conditions ensures reliable and consistent drilling operations. This reduces the chances of costly trips and NPT, which can have devastating consequences for overall well cost.
​
In summary, Full-Metal-Power presents a sustainable alternative in downhole drilling motors by mitigating waste generation, minimizing chemical usage, enhancing energy efficiency, and ensuring long-term reliability. By choosing Full-Metal-Power technology, the drilling industry can make significant strides toward reducing its environmental impact while maintaining operational excellence.
Environmental Efficiency of Electrochemical Manufacturing vs. Elastomer Injection Facilities
​
-
Material Efficiency: Electrochemical Manufacturing processes are highly precise, with minimal material wastage. This efficiency reduces the consumption of raw materials, leading to less resource depletion and reduced environmental impact. Elastomer injection processes can generate significant material waste, especially during the molding and trimming stages. These excess materials often end up as scrap or require recycling efforts, contributing to resource inefficiency
​
-
Energy Efficiency: Electrochemical processes can be energy-efficient when designed and operated optimally. Electrochemical reactions typically require lower energy inputs compared to the energy-intensive heating and curing processes involved in elastomer injection. Elastomer injection facilities often require high energy consumption to heat molds and cure elastomers. This increased energy demand contributes to higher operational costs and a larger carbon footprint.
​
-
Chemical Usage: Electrochemical manufacturing relies on precise chemical reactions to produce components. We use a simple food grade saline electrolyte solution. We have eliminated any release of potentially harmful chemicals into the environment. Elastomer injection may involve the use of various chemicals, such as curing agents and release agents. Improper handling or disposal of these chemicals can pose environmental risks, including soil and water contamination.
​
-
Waste Management: Electrochemical processes tend to generate less waste due to their precision and efficiency. Waste produced is easier to manage and dispose of safely. Elastomer injection can produce significant waste in the form of excess material, scrap, and chemical waste. Proper disposal and recycling of elastomer waste can be challenging and costly.
​
-
Environmental Impact: Electrochemical processes, when optimized, have a lower overall environmental impact due to reduced material waste, energy consumption, and chemical usage. Elastomer injection facilities may have a higher environmental impact, primarily due to material waste, energy-intensive processes, and the potential for chemical pollution if not managed carefully.
​
​