Inverted funnel dielectric layer maintains equal electric field strength across sub-electron emitters in a field emission cathode device.
A carbon nanotube composite structure accelerates electrons through a sandwiched semiconductor layer for enhanced emission.
Stacked electron collection layer overcomes high energy barriers to boost emission efficiency.
Rolling aligned carbon nanotube layers prevents entanglement and damage, improving mechanical strength and field emission stability.
A carbon nanotube composite structure accelerates electrons through a semiconductor layer to boost emission efficiency.
A field emission cathode device uses a second grid electrode to regulate electron extraction and emission.
Resilient U-shaped coupling mechanisms connect ceramic arc tubes to sealed conductive ends within a vacuum container.
Auxiliary coils on a front surface detect finger touches while a rear-mounted sensor prevents light emitting regions from reducing display luminance.
Patterned semiconductor holes in a carbon nanotube electron emission device overcome high energy barriers to boost kinetic energy and display performance.
A hierarchical field emission cathode structure uses a two-level carbon nanotube arrangement to enhance electron emission density.
A polarizing plate uses a pattern layer with engraved features to manage light refraction and dispersion.