Y10T442/184

FIBROUS STRUCTURES AND METHODS FOR MAKING SAME

Novel fibrous structures that contain filaments, and optionally, solid additives, such as fibers, for example wood pulp fibers, sanitary tissue products comprising such fibrous structures, and methods for making such fibrous structures and/or sanitary tissue products are provided.

Fibrous structures and methods for making same

Novel fibrous structures that contain filaments, and optionally, solid additives, such as fibers, for example wood pulp fibers, sanitary tissue products comprising such fibrous structures, and methods for making such fibrous structures and/or sanitary tissue products are provided.

Three-dimensional polymeric strand netting, dies, and methods of making the same

Method and extrusion die (1030) for producing a three-dimensional polymeric strand netting, wherein a plurality of the polymeric strands (1070a, 1070b, 1070c) are periodically joined together in a regular pattern at bond regions throughout the array, wherein a majority of the polymeric strands (1070a, 1070b, 1070c) are periodically bonded to at least two (three, four, five, six, or more) adjacent polymeric strands, and wherein no polymeric strands are continuously bonded to a polymeric strand. Three-dimensional polymeric strand netting described herein have a variety of uses, including wound care, tapes, filtration, absorbent articles, pest control articles, geotextile applications, water/vapor management in clothing, reinforcement for nonwoven articles, self bulking articles, floor coverings, grip supports, athletic articles, and pattern coated adhesives.

FLEXIBLE COMPOSITE SYSTEMS AND METHODS

In various embodiments, an improved flexible-composite material is described that comprises at least one scrim constructed from at least two unidirectional tape layers bonded together and at least one woven fabric, non-woven fabric, or membrane bonded to the scrim. In various embodiments, the unidirectional tape layers comprise a plurality of parallel fiber bundles comprising monofilaments within an adhesive resin. In various embodiments, the fiber bundles are separated by gaps that can be filled in by adhesive or non-adhesive resin.

Load plan generation

Load Plan Generator (LPG) is a BIAPPS utility for generating ODI load plans based on desired subset of fact tables for loading BIAPPS Data Warehouse. The tool simplifies the configurations process by minimizing the manual steps and configurations and provides a guided list of configurations steps and checklists. The load plan components can include different sets of load plans that will be stitched together by the load plan generator to create one load plan for loading chosen fact groups in the warehouse sourcing from different transaction systems.

Flexible composite systems and methods

In various embodiments, an improved flexible-composite material is described that comprises at least one scrim constructed from at least two unidirectional tape layers bonded together and at least one woven fabric, non-woven fabric, or membrane bonded to the scrim. In various embodiments, the unidirectional tape layers comprise a plurality of parallel fiber bundles comprising monofilaments within an adhesive resin. In various embodiments, the fiber bundles are separated by gaps that can be filled in by adhesive or non-adhesive resin.

MEDICAL IMPLANTS INCLUDING LAMINATES OF POLY-4-HYDROXYBUTYRATE AND COPOLYMERS THEREOF

Methods to produce laminates including layers of constructs made from P4HB and copolymers thereof have been developed. These laminates may be used as medical implants, or further processed to make medical implants. The laminates are produced at a temperature equal to or greater than the softening points of the P4HB or copolymers thereof. The layers may include oriented forms of the constructs. Orientation can be preserved during lamination so that the laminate is also oriented, when the laminates are formed at temperatures less than the de-orientation temperatures of the layers. The laminate layers may include, for example, films, textiles, including woven, knitted, braided and non-woven textiles, foams, thermoforms, and fibers. The laminates preferably include one or more oriented P4HB films.

Medical implants including laminates of poly-4-hydroxybutyrate and copolymers thereof

Methods to produce laminates including layers of constructs made from P4HB and copolymers thereof have been developed. These laminates may be used as medical implants, or further processed to make medical implants. The laminates are produced at a temperature equal to or greater than the softening points of the P4HB or copolymers thereof. The layers may include oriented forms of the constructs. Orientation can be preserved during lamination so that the laminate is also oriented, when the laminates are formed at temperatures less than the de-orientation temperatures of the layers. The laminate layers may include, for example, films, textiles, including woven, knitted, braided and non-woven textiles, foams, thermoforms, and fibers. The laminates preferably include one or more oriented P4HB films.

Flexible composite systems and methods

In various embodiments, an improved flexible-composite material is described that comprises at least one scrim constructed from at least two unidirectional tape layers bonded together and at least one woven fabric, non-woven fabric, or membrane bonded to the scrim. In various embodiments, the unidirectional tape layers comprise a plurality of parallel fiber bundles comprising monofilaments within an adhesive resin. In various embodiments, the fiber bundles are separated by gaps that can be filled in by adhesive or non-adhesive resin.

NETTING, CROP COVER, AND GROUND COVER MATERIALS
20210144932 · 2021-05-20 ·

The invention relates to crop netting materials, crop cover materials, and ground cover materials that transmit solar radiation in the visible wavelength range of about 420 to 720 nm at a level similar to the level that the materials transmit solar radiation in the infra red wavelength ranges of about 700 to about 1000 nm and 1500 to about 1600 nm. The materials also absorb solar radiation in the UV wavelength range of about 300 to about 380 nm.