Discussion Overview
The discussion revolves around the search for a conductive yet non-corrosive liquid suitable for high-temperature and high-pressure applications. Participants explore various options and considerations related to conductivity, corrosion resistance, and material compatibility, particularly in the context of a project involving copper coils and specific operational conditions.
Discussion Character
- Exploratory
- Technical explanation
- Debate/contested
Main Points Raised
- Some participants inquire about specific details such as temperature, pressure, and the type of conductivity (thermal or electrical) required for the liquid.
- Concerns are raised about the corrosive nature of saltwater, even with inhibitors, and the potential for corrosion in copper coils at high temperatures (100-200°C) and pressures (around 2500 psi).
- Participants suggest that acetonitrile and amides may not be suitable due to stability issues at high temperatures.
- Gallium is proposed as a potentially inert option, but its compatibility with copper and oxidation resistance at the desired temperatures remain uncertain.
- Advanced stainless steels with molybdenum content are mentioned as having good resistance to hot saltwater, but the specific application context is unclear.
- There is a call for more detailed information from the original poster to facilitate better suggestions, highlighting the challenge of providing solutions without sufficient context.
Areas of Agreement / Disagreement
Participants express varying degrees of uncertainty regarding the best options for a non-corrosive conductive liquid. There is no consensus on a definitive solution, and multiple competing views and suggestions are presented.
Contextual Notes
The discussion reveals limitations in the information provided by the original poster, which affects the ability of participants to offer targeted solutions. The complexity of the problem, including the interplay between conductivity and corrosion resistance at high temperatures and pressures, is acknowledged.