Patent classifications
B29C61/10
PROFILING DEVICE, PROFILING METHOD, BONDING SYSTEM, BONDING METHOD, AND DISPLAY DEVICE
A profiling device, a profiling method, a bonding system, a bonding method, and a display device are provided. The profiling device includes a profiling jig. The profiling jig includes an attaching surface. The attaching surface is switchable between a planar state and a profiling state, and the attaching surface is a planar surface in the case that the attaching surface is in the planar state, and the attaching surface is a profiling surface in the case that the attaching surface is in the profiling state.
Thermadapt shape memory polymer and application method thereof
A preparation method of thermadapt shape memory polymers includes: (1) synthesis of pendant hydroxyl groups functionalized epoxy oligomer using epoxy resin and alcohol amine; (2) synthesis of alkoxyl groups terminated silane crosslinking agent by isocyanate silane coupling agent and diamine; (3) crosslinked shape memory polymers were prepared by condensation reaction of pendant hydroxyl groups functionalized epoxy oligomer and alkoxyl groups terminated silane crosslinking agent. The thermadapt shape memory polymers show high glass transition temperatures and high tensile strength. The original shape of thermadapt shape memory polymers can be reconfigured to a new permanent shape as needed, and thus effectively solving the bottleneck problems of reprocessing or reshape in the traditional crosslinked polymers once after molding. The thermadapt shape memory polymers are suitable for smart materials based on shape memory polymers with complex three-dimensional permanent shapes, and showing unfolding or folding behaviors along with convert to three-dimensional structures under heat stimulation.
THERMADAPT SHAPE MEMORY POLYMER AND APPLICATION METHOD THEREOF
A preparation method of thermadapt shape memory polymers includes: (1) synthesis of pendant hydroxyl groups functionalized epoxy oligomer using epoxy resin and alcohol amine; (2) synthesis of alkoxyl groups terminated silane crosslinking agent by isocyanate silane coupling agent and diamine; (3) crosslinked shape memory polymers were prepared by condensation reaction of pendant hydroxyl groups functionalized epoxy oligomer and alkoxyl groups terminated silane crosslinking agent. The thermadapt shape memory polymers show high glass transition temperatures and high tensile strength. The original shape of thermadapt shape memory polymers can be reconfigured to a new permanent shape as needed, and thus effectively solving the bottleneck problems of reprocessing or reshape in the traditional crosslinked polymers once after molding. The thermadapt shape memory polymers are suitable for smart materials based on shape memory polymers with complex three-dimensional permanent shapes, and showing unfolding or folding behaviors along with convert to three-dimensional structures under heat stimulation.
Materials that shrink in one dimension and expand in another dimension
A substrate includes a double-network polymer system including a cross-linked, covalently-bonded polymer and a reversible, partially ionicly-bonded polymer, wherein the substrate has a moisture level less than or equal to 15 percent of the total weight of the substrate, and wherein the substrate includes a latent retractive force. A method for manufacturing a substrate includes producing a double-network hydrogel including a cross-linked, covalently-bonded polymer and a reversible, ionicly-bonded polymer; elongating by force the double-network hydrogel in at least one direction; dehydrating while still elongated the double-network hydrogel to form a substantially-dehydrated double-network polymer system; and releasing the force to produce the substrate.
Split Tubing with Integrated Lock and Expansion Manufacturing Method
The present disclosure relates to a heat shrinkable wrap comprising a body comprising two longitudinal edges and two transverse edges; a first locking feature which expands along a first longitudinal edge and a second locking feature which expands along a second longitudinal edge; wherein the body comprises a heat shrink material; wherein the first locking feature at the first longitudinal edge comprises at least two first locking elements which expand along the first longitudinal edge and the second locking feature at the second longitudinal edge 8, 80 comprises at least two second locking elements which expand along the second longitudinal edge; wherein the first locking elements and the second locking elements are adapted for engaging with each other, for establishing, in an engaged state, at least two connections between the first locking feature and the second locking feature; wherein, when the connection between the first locking feature and the second locking feature is established, the body and the locking features form a tubular structure.
ADAPTIVE SMART TEXTILES, METHOD OF PRODUCING THEM, AND APPLICATIONS THEREOF
Adaptive smart textiles that facilitate reduced energy consumption are described. In one implementation, a dual pane fabric arrangement includes a first pane of fabric and a second pane of fabric separated by an intra-layer gap, and an insert layer disposed in the intra-layer gap, wherein the insert layer causes a thickness of the intra-layer gap to change responsive to changes in ambient temperature.
WRAP-AROUND BREAKOUT JACKET
A wrap-around heat shrinkable protective jacket is used on conduits such as cables, pipes or tubes carrying liquids, gas or electricity to name a few. The protective jacket is applicable to junction blocks, junction tees and wire harnesses and to protect or repair damaged areas of such configurations. A lay-flat design is used to easily install around existing cables, pipes or tubes. A shrinkable material is used to secure and protect these cables, pipes or tubes. Other materials can be added to the jacket interior for additional protection.
WRAP-AROUND BREAKOUT JACKET
A wrap-around heat shrinkable protective jacket is used on conduits such as cables, pipes or tubes carrying liquids, gas or electricity to name a few. The protective jacket is applicable to junction blocks, junction tees and wire harnesses and to protect or repair damaged areas of such configurations. A lay-flat design is used to easily install around existing cables, pipes or tubes. A shrinkable material is used to secure and protect these cables, pipes or tubes. Other materials can be added to the jacket interior for additional protection.
Shape retaining material and method for producing the same
The present invention provides a single-layer shape retaining material which is a fibrous, band-like, or sheet-like stretched formed material comprising 100 parts by weight of a high-density polyethylene resin having a weight-average molecular weight of 100,000 to 500,000 and a density of 0.945 to 0.960 g/cm.sup.3 and 3 to 50 parts by weight of an ethylene--olefin copolymer obtained by copolymerizing ethylene with an -olefin having 4 to 10 carbon atoms, the copolymer having a density of 0.935 to 0.960 g/cm.sup.3, the difference in density between the copolymer and the high-density polyethylene resin being 0.020 g/cm.sup.3 or less and a method for producing same.
Method for representing and generating a flat pattern for a composite ply that folds over itself
Methods for generating a flat pattern for a composite ply. A method includes receiving a tool model and a ply coverage, wherein the ply coverage defines a plurality of plies, a fiber orientation for each of the plies, and a boundary for each of the plies, determining one or more subset regions on the tool model based on the boundaries from the ply coverage, creating a merged ply combining the plies and aligning the fiber orientations, defining staging instances of the merged ply for each ply covering a subset region, determining a laydown order of the staging instances, running a draping simulation using the laydown order to solve the staging instances, generating a flat pattern from the draping simulation, and storing the flat pattern of the composite ply.