Engineered Floors LLC

Xymid, LLC

Stephen Tsiarkezos

Dimitri Peter Zafiroglu

John Joseph Matthews Rees

Anthony Daniell

John Joseph Rees

Erik William Spencer

Nicholas James Brownless

Lynwood Charles Brooks

A textile fabric having increased improved surface properties, variously including surface stability, abrasion resistance, resistance to edge fraying, moisture control, and resistance to fluid penetration is created by introducing a plurality of particles including low-melting particles onto a top surface of the textile fabric. The top surface includes elevated areas, depressed areas, a plurality of surface fibers and gaps among the plurality the plurality of surface fibers. A desired pattern of particle deposition and depth of penetration from the top surface of the plurality of particles into the gaps is established, and heat is applied to the top surface to melt the low-melting particles deposited onto the surface.

Powder impregnation of textured fabric surfaces

A planar floor covering is formed having a top face and a bottom face opposite the top face, a length, a width perpendicular to the length, a top surface, a bottom surface opposite the top surface, a height between the top surface and the bottom surface, and physical properties or characteristics that vary across at least one of the length, the width and the height. The physical properties or characteristics include material composition, weight, density, directionality, stiffness, compressibility, elasticity and thickness.

Floorcoverings with planarly variable properties

Resin dissolved or suspended in liquid is applied to a greige fabric formed with finer denier yarns forming surface loops before the fabric is bulked and after the liquid has been removed by low-temperature drying. The dried fabric is then bulked at a higher temperature setting the resin, resulting in superior loop tip resilience, and superior surface durability. Bulking and simultaneous resin setting optionally includes shrinking in area by 10-20%. Print appearance retention is also superior when printing follows bulking and setting of the resin.

Textiles with improved surface stability

A textile composite contains a sublayer coated with unactivated solid sublimation dyes and incorporated with the layers of the textile composite or placed between a fabric layer and a backing layer. The sublimation dyes are activated with heat and pressure, and dying or coloring the inner strata of the textile composite.

Deep sublimation dyeing of fibrous composites

A textile fabric having improved properties, variously including surface stability, abrasion resistance, resistance to edge fraying, moisture control, and resistance to fluid penetration is created by introducing a polymeric solution or a plurality of low-melting particles suspended in a liquid into the textile fabric while leaving a plurality of surface fibers exposed and maintaining a textile feel on the surface.

Stabilization of fabric surfaces

Textiles are re-cycled by grinding and scatter-laying onto a needle-punched web optionally containing low-melting material, followed by laying a second needle-punched web over the scattered layer and re-needling the three layers before applying heat or heat and pressure to activate the low-melting ground material present within the layers. Additional low-melt ground material is optionally blended into the ground textile if low melt components are absent or insufficient to bond the composite. The ground material is driven and dispersed into the surrounding web layers with at least part of the material being adjacent the two outer surfaces. The physical properties of the composite can be adjusted by selecting suitable combinations including but not limited to needling stroke depth, needling density, needle gage, low-melt content, heat finishing conditions, and relative layer weights. The final composites can optionally be reintroduced into the original end use and include significant percentages of recycled material.

Needle-punched structures containing recycled fibers

Stabilizing a textile sheet structure was achieved by forming a plurality of discrete fiber tufts extending from a first face of a fibrous layer of the textile sheet structure, through the fibrous layer and beyond a second face opposite the first face. Each discrete fiber tuft included a plurality discrete fibers. Each discrete fiber tuft was anchored to the first face and the second face of the fibrous layer by joining together the plurality of each discrete fiber tuft at the first face and the second face and bonding the joined plurality of discrete fiber tuft to the first face and the second face.

Delamination-resistant bulky needle-punched structures

Stabilizing a fabric layer and simultaneously laminating a fabric to a bulky and cushioning backing layer using multiple internal adhesive layers placed within the fabric layer forms a composite textile. The melt index, weight and chemical compatibility of the adhesive layers versus the adjacent fabric sub-strata and the backing layer are adjusted to achieve the desired penetration of molten adhesive, mechanical bonding and chemical bonding. An optional external adhesive layer with a low melt index can be added between the fabric layer and the backing layer to facilitate attachment to a highly porous backing.

Stabilization and lamination of textiles using layers of variable melt index and chemical composition

A fabric made of yarns interlooping with each other or passing through an inner layer at looping intervals. The fabric is embossed with a micro-pattern extending into the yarns or into a layer underneath the fabric. The micro-pattern contains a pre-defined pattern of a plurality of binding points attaching the yarns to the inner layer or to the added underlayer. This micro-pattern has an inter-point spacing between adjacent binding points that is less than the interlooping intervals. The fabric can also be embossed with a macro-pattern separate from and coarser than the micro-pattern. The macro-pattern establishes a desired aesthetic in the fabric, and the micro-pattern does not interfere with the desired aesthetic.

Stabilization of looped fabric surfaces by fine-scale embossing

An adhesive layer carrying a uniform color or a color-scheme is placed within or under a colored or color-printed conformable fabric that is simultaneously or subsequently molded into a three-dimensional shape or embossed with a three-dimensional pattern. The thermoplastic adhesive layer proceeds towards the fabric surface and matches or masks the color gaps opened on the surface by molding or embossing. The fabric can also be laminated to a backing during the molding or embossing process.

Conformable colored multilayer composite fabrics

A method for directing adhesive places blocking layers adjacent to adhesive layer within a textile sheet structure or between textile sheets, directing adhesive flow in a preferred direction away from the blocking layers. When the blocking layers are partially open to allow some adhesive flow through, adhesive flow is also directed in the planar direction away from closed areas towards open area, and can reform the adhesive layers into a preferred final three-dimensional configuration.

Adhesive propagation control using blocking sub-layers

Vacuum printing a fabric involves forming a fabric having a top face and a bottom face and placing a barrier layer below the top face. A plurality of holes is established in the barrier layer, and dye is applied to at least a portion of the top face of the fabric. Vacuum applied to the bottom face pulls the dye through the fabric and the plurality of holes in the barrier layer.

Vacuum extraction printing

A stitchbonded fabric has a regionally segmented base layer in which one or more physical properties in at least one region is substantially different from those of another region. Typical physical properties that can differ among substrate regions include density, basis weight, chemical composition, thickness, porosity, permeability, elongation, elasticity, tensile strength, barrier properties, dyeability, abrasion resistance, and texture. The stitchbonded fabric thus has an improved combination of properties. In one aspect the base layer is discontinuous such that at least one region is devoid of all substrate material. The base layer is stitched continuously over its full extent such that all regions including open areas devoid of substrate material are stitched. The stitchbonded fabric with a discontinuous base layer advantageously can provide enhanced stretch capability to the overall fabric, especially in the cross direction and is particularly useful for stretchable skirts of mattress covers. A process for making a stitchbonded fabric includes continuously feeding substrate webs of diverse properties to a stitchbonding machine. Optionally, the webs are laterally separated or partially excised to create regions devoid of substrate material.

Stitchbonded fabric with a substrate having diverse regional properties

A stitchbonded fabric has a substrate material of uniform composition and physical properties and stitching threads stitched through and over the extent of the substrate in which the substrate has one or more slits defined by opposite facing lips that are unparted when the fabric is stitched. The fabric can be tensioned such that the lips part and thereby produce varied performance characteristics such as increased stretch and aesthetically pleasing effects as are useful in fabric utilities such as mattress cover skirts. The lips can pucker to give the fabric texture. The fabric can be extended and/or contracted laterally to further buckle out of plane. The puckering and buckling give the fabric additional functional properties such as dust-catching ability in cleaning wipe utilities.

Growing community of inventors

Elkton, MD, United States of America

Stephen Tsiarkezos