An embedded cooling pipe inside a magnetic powder resin core increases contact area with the coil, improving heat radiation efficiency.
Color reagent reacts with furan to develop measurable color intensity, enabling rapid on-site concentration assessment.
Integrated core ducts eliminate hot spots by transferring winding and core losses directly into the cooling liquid.
A rupture resistant transformer tank expands its inner volume under increased pressure conditions to accommodate gas generation.
A reactor core uses non-magnetic powder with low elastic modulus to reduce rigidity while maintaining magnetic properties.
Segregating bushing oil via a ring seal allows on-site filtration through dedicated valves, eliminating transformer dismounting.
Engineered Chlorella microbes ablate endogenous genes to yield stable microbial oils, reducing oxidative instability and production costs.
A semiconductor hydrogen sensor housing with a mounting flange enables retrofitting onto existing transformer ports.
Segmented windings and separator vents enable internal airflow that cools inner coils without increasing transformer weight or complexity.
Integrated circuit boards rectify and filter positive and negative voltages within a compact high voltage transformer tank.
A cast inductor apparatus with a distributed gap core filters high frequency harmonics, preventing overheating from excessive AC resistance.
Saturable transductor controls uncontrolled valves to oppose DC flux, reducing losses and noise in high-voltage transformers.
A heat sink structure uses a conductive tube to transfer thermal energy from electrical coil windings to the exterior of an electromagnetic apparatus.
Segmented core particles and immersion fluid reduce core losses and corona potential in high current power filtering.
Solvent vapor condenses on transformer insulation to heat the active part, reducing energy consumption and drying time.
Segmenting the core into partial stacks forms transverse cooling channels that utilize high thermal conductivity to dissipate heat from no-load losses.
Diamond or aluminum nitride layers on glass substrates enable effective heat dissipation while maintaining electrical insulation for 5G RF filters.
A coil unit integrates a second metal shield flange to conduct heat away from internal components.
Varying the inner interposed member thickness reduces heat dissipation distance and increases magnetic path area without enlarging the reactor.
Partial overlap of transformer windings in the winding heads allows straight, short rectifier connections that reduce leakage inductance and power loss.