Abstract: A method utilizing a tag with embedded RF-enabled chip that includes steps of providing an apparel body of a cloth material or a body of a non-apparel tangible item such as, without limitation, mug, bottle, box, hat, or any other widely available retail product, a RF tag layup with a first tag layer of a polymeric adhesive material directly coupled to the apparel body or body and a second tag layer directly coupled to the first tag layer to encapsulate and define a chip cavity with an electronic chip disposed therein and having a non-transitory memory storage operably configured to store digital data thereon and a data transmitter operably configured to wirelessly transfer the stored digital data through an electronic communication protocol and using radio waves, and a data reader operably configured to receive the digital data stored on the non-transitory memory storage of the electronic chip.

Abstract: Embodiments include a cap or hat decoration method by providing a press including a lower platen and upper platen, and coupling a pad to the lower platen, where the pad is dimensioned based on one or more dimensions of the cap or hat, and positioning the cap or hat onto at least a portion of the pad. Further, the method includes positioning at least one decoration onto at least a portion of the cap or hat, where the at least one decoration includes a heat-activated adhesive, and heating and compressing the decoration onto the cap or hat by compressing the cap or hat and decoration between the lower platen and upper platen.

Abstract: An adhesive assembly can be used to join textile materials together creating a durable wash resistant. An emblem can be removed from a work shirt without leaving glue stains or residue. The shirt may be reused if emblems need to be removed or changed before the life of the garment expires. In various embodiments, a layer of mesh is incorporated into the heat activated glue on the back of the emblem. This mesh does not affect adherence to the garment. The emblem sticks just as well as without the mesh layer and with zero process changes to how the emblem is applied. The mesh allows for the complete removal of the adhesive from the garment when the patch is removed allowing the garment to be used even after the patch is removed.

Abstract: An adhesive assembly can be used to join textile materials together creating a durable wash resistant. An emblem can be removed from a work shirt without leaving glue stains or residue. The shirt may be reused if emblems need to be removed or changed before the life of the garment expires. In various embodiments, a layer of mesh is incorporated into the heat activated glue on the back of the emblem. This mesh does not affect adherence to the garment. The emblem sticks just as well as without the mesh layer and with zero process changes to how the emblem is applied. The mesh allows for the complete removal of the adhesive from the garment when the patch is removed allowing the garment to be used even after the patch is removed.

Abstract: Embodiments include a cap or hat decoration method by providing a press including a lower platen and upper platen, and coupling a pad to the lower platen, where the pad is dimensioned based on one or more dimensions of the cap or hat, and positioning the cap or hat onto at least a portion of the pad. Further, the method includes positioning at least one decoration onto at least a portion of the cap or hat, where the at least one decoration includes a heat-activated adhesive, and heating and compressing the decoration onto the cap or hat by compressing the cap or hat and decoration between the lower platen and upper platen.

Abstract: A system for transporting material is provided. The system includes a container and a robot having a material-handling device for inserting the material into the container and removing the material from the container. The system also includes a track assembly having a track and at least one platform on which the robot and the container are mounted such that the robot and the container are movable along the track via the at least one platform.

Abstract: An adhesive assembly can be used to join textile materials together creating a durable wash resistant. An emblem can be removed from a work shirt without leaving glue stains or residue. The shirt may be reused if emblems need to be removed or changed before the life of the garment expires. In various embodiments, a layer of mesh is incorporated into the heat activated glue on the back of the emblem. This mesh does not affect adherence to the garment. The emblem sticks just as well as without the mesh layer and with zero process changes to how the emblem is applied. The mesh allows for the complete removal of the adhesive from the garment when the patch is removed allowing the garment to be used even after the patch is removed.

Abstract: A method for the formation of flexible surface enhanced Raman spectroscopy substrates with filtering capabilities. The method produces thin flexible substrates that have a nanoparticle ink deposited thereon. The nanoparticle ink may be any suitable nanoparticle ink which includes stabilized nanoparticles such as silver, gold or copper nanoparticles. The substrates and nanoparticle ink undergo a thermal treatment for an amount of time sufficient to remove liquid vehicle and a substantial portion of the stabilizer. The thermal treatment provides a fractal aggregate nanoparticle layer on the substrate suitable for Raman spectroscopy. Such flexible SERS substrates may be used to detect trace amounts of analyte in large volume samples.

Abstract: An adhesive assembly can be used to join textile materials together creating a durable wash resistant. An emblem can be removed from a work shirt without leaving glue stains or residue. The shirt may be reused if emblems need to be removed or changed before the life of the garment expires. In various embodiments, a layer of mesh is incorporated into the heat activated glue on the back of the emblem. This mesh does not affect adherence to the garment. The emblem sticks just as well as without the mesh layer and with zero process changes to how the emblem is applied. The mesh allows for the complete removal of the adhesive from the garment when the patch is removed allowing the garment to be used even after the patch is removed.

Abstract: A system for transporting material is provided. The system includes a container and a robot having a material-handling device for inserting the material into the container and removing the material from the container. The system also includes a track assembly having a track and at least one platform on which the robot and the container are mounted such that the robot and the container are movable along the track via the at least one platform.

Abstract: A method for the formation of flexible surface enhanced Raman spectroscopy substrates with filtering capabilities. The method produces thin flexible substrates that have a nanoparticle ink deposited thereon. The nanoparticle ink may be any suitable nanoparticle ink which includes stabilized nanoparticles such as silver, gold or copper nanoparticles. The substrates and nanoparticle ink undergo a thermal treatment for an amount of time sufficient to remove liquid vehicle and a substantial portion of the stabilizer. The thermal treatment provides a fractal aggregate nanoparticle layer on the substrate suitable for Raman spectroscopy. Such flexible SERS substrates may be used to detect trace amounts of analyte in large volume samples.

Abstract: A method for the formation of flexible surface enhanced Raman spectroscopy substrates with filtering capabilities. The method produces thin flexible substrates that have a nanoparticle ink deposited thereon. The nanoparticle ink may be any suitable nanoparticle ink which includes stabilized nanoparticles such as silver, gold or copper nanoparticles. The substrates and nanoparticle ink undergo a thermal treatment for an amount of time sufficient to remove liquid vehicle and a substantial portion of the stabilizer. The thermal treatment provides a fractal aggregate nanoparticle layer on the substrate suitable for Raman spectroscopy. Such flexible SERS substrates may be used to detect trace amounts of analyte in large volume samples.

Abstract: A method for the formation of flexible surface enhanced Raman spectroscopy substrates with filtering capabilities. The method produces thin flexible substrates that have a nanoparticle ink deposited thereon. The nanoparticle ink may be any suitable nanoparticle ink which includes stabilized nanoparticles such as silver, gold or copper nanoparticles. The substrates and nanoparticle ink undergo a thermal treatment for an amount of time sufficient to remove liquid vehicle and a substantial portion of the stabilizer. The thermal treatment provides a fractal aggregate nanoparticle layer on the substrate suitable for Raman spectroscopy. Such flexible SERS substrates may be used to detect trace amounts of analyte in large volume samples.

Abstract: The present invention relates to a detachable three-dimensional design or image for industrial wash that may be applied to a fabric. The three-dimensional design or image is formed by performing a doming process on a two-dimensional design or image. The three-dimensional design or image may be attached to the fabric by heat sealing.

Abstract: An appliqué and associated method of applying an appliqué an improved sublimated and screen printed image on a substrate of a An improved appliqué suitable for applying a graphic to a material a first printing layer and a second polyurethane layer. The appliqué is cut the graphic imparted thereon and adhered to a garment.

Abstract: An appliqué and associated method of applying an appliqué an improved sublimated and screen printed image on a substrate of a An improved appliqué suitable for applying a graphic to a material a first printing layer and a second polyurethane layer. The appliqué is cut the graphic imparted thereon and adhered to a garment.