The BDV of transformer oil, determined via standardized tests, is typically about 30 kV or more, depending on its condition and quality.

Mineral oil is used in transformers primarily for its excellent insulating and cooling properties; its high dielectric strength, low viscosity, and good thermal conductivity enable it to efficiently dissipate heat and prevent electrical breakdown in high-voltage applications.

Mineral oil remains the most common type used in transformers because of its proven performance in insulation and cooling.

Solid inclusions are introduced later in the process using specialized dosing systems to avoid disrupting the smooth ice cream base. A consistently homogenized mix from the Colloid Mill GlobeCore provides an even matrix that suspends these inclusions uniformly, preventing clumping or separation.

Roads are reinforced with bitumen surfaces by integrating fibers or polymers into bitumen to enhance strength and flexibility. GlobeCore polymer-modified bitumen plants ensure precise additive integration, producing materials that resist cracking and deformation under heavy traffic and extreme conditions.

The optimal storage temperature for transformer oil is between 10°C and 40°C. GlobeCore tanks include temperature control systems to ensure oil quality.

Filters remove impurities from bitumen and water, ensuring a clean mixture. They protect pumps and mills from damage, maintaining the quality and longevity of equipment.

Midel oil helps prevent leaks by maintaining consistent viscosity and sealing properties over time. It does not degrade as quickly as mineral oil, which reduces the risk of gasket failure and seal deterioration. Additionally, Midel oil is compatible with most materials used in transformers, ensuring long-term stability.

Transformer fluid reconditioning refers to the process of restoring used transformer oil to its original condition by removing contaminants and replenishing its essential properties. In the case of silicone oil, reconditioning involves several steps to ensure the oil regains its insulating and cooling capabilities. The process typically begins with purification methods such as vacuum dehydration to remove moisture and degassing to eliminate dissolved gases. Filtration systems are then employed to remove particulate matter and tramp oils, ensuring the oil is free from solid contaminants. Adsorption treatments using materials like activated alumina or molecular sieves further extract acidic compounds and polar impurities that may have formed due to oxidation. After these purification steps, the oil may undergo quality testing to verify that it meets industry standards for dielectric strength, moisture content, and acidity. Reconditioning silicone oil extends its usable life, maintains transformer performance, and reduces the need for costly oil replacements, making it a cost-effective and environmentally friendly maintenance practice.

Silicone oil offers several advantages over other insulating fluids. Its high dielectric strength and thermal stability ensure effective insulation and cooling under demanding conditions. The oil’s low flammability enhances fire safety, making it suitable for installations where fire risk is a concern. Silicone oil also exhibits excellent chemical stability, resisting oxidation and degradation, which extends the service life of both the oil and the transformer. Additionally, its consistent viscosity across a broad temperature range ensures reliable performance in varying environmental conditions.