See how magnetic inserts move between storage box and palette to prevent eyelash strip tearing
See how a cationic-nonionic surfactant blend with controlled HLB and carbon chain length improv
See how a methylol-phenolic crosslinking agent improves water resistance, heat resistance, and
See how chitosan and nonionic surfactant incorporation into acrylic fibers achieves antibacteri
See how controlled quaternary ammonium salt and non-ionic surfactant coating resolves the tacti
See how a collapsible container with internal clamping and dynamic opening adjustment protects
See how resin particles (1-20 μm) applied at 0.3-1.1% omf create controlled surface unevenness
See how a flexible clip-engaging grid and soft pouch prevent hair extension tangling, creasing,
Sprayed vinyl glue and hot pressing replace complex weaving to create strong human hair layers that can be cut, shaped, stored, and displayed.
Liquid and vapor refrigerant injection at intermediate compressor pressure cuts discharge heat and boosts cooling capacity.
A stiffening agent lets synthetic turf ribbons stay upright and tunes rigidity and friction for different sporting events.
A clamp hanger and transparent window keep hair extensions secure, visible, and easy to store or transport without tangling.
Rows of fasteners keep hair extension strands separated to prevent tangling, while a wheeled telescopic stand improves salon handling.
Phosphonate polymers give polyester fibers fire resistance without raising melt viscosity, while preserving strength and reducing leaching concerns.
A nested oval form, U-shaped retainer, and hair net keep wigs compactly stored while preserving style and one-directional curl.
A conductive strip and sieve path manage electrostatic charge on hair fibers, improving adhesion consistency and extending dispenser use.
Bonding a flexible magnetic sheet to a carrier sheet enables whole-sheet cutting and stable magnetization for better consistency and throughput.
A .MESO wireframe format replaces heavy mesh models to print intricate microstructures with lower file size and processing load.
A MESO wireframe format replaces heavy mesh models to print dense 3D microstructures with high fidelity, lower file size, and faster processing.
A MESO wireframe format cuts file size and processing load for dense 3D microstructures while preserving fine printable detail.
Embedded sensors and data storage let a wig capture head temperature and humidity, enabling personalized scalp and wig care advice.
A wire-based MESO format represents dense 3D microstructures efficiently, reducing file size and processing load for fur, feathers, and woven forms.