Abstract: A method of forming a plantable structure involves providing a substrate element, a release layer spaced from the substrate element, an adhesive layer disposed between the substrate element and the release layer, and at least one seed abutting the adhesive layer. The seed(s) is/are coupled to the substrate element through the adhesive layer. The method further comprises removing the release layer from the composite article, and adhering a remaining portion of the composite article to a secondary article. The remaining portion of the secondary article comprises the substrate element, the adhesive layer disposed on the substrate element, and the seed(s) abutting the adhesive layer. Also disclosed herein are a method of planting at least one seed with a composite article, a packaging structure, a method of forming a packaging structure, and a method of planting at least one seed.

Abstract: A method of forming a plantable structure involves providing a substrate element, a release layer spaced from the substrate element, an adhesive layer disposed between the substrate element and the release layer, and at least one seed abutting the adhesive layer. The seed(s) is/are coupled to the substrate element through the adhesive layer. The method further comprises removing the release layer from the composite article, and adhering a remaining portion of the composite article to a secondary article. The remaining portion of the secondary article comprises the substrate element, the adhesive layer disposed on the substrate element, and the seed(s) abutting the adhesive layer. Also disclosed herein are a method of planting at least one seed with a composite article, a packaging structure, a method of forming a packaging structure, and a method of planting at least one seed.

Abstract: A composite article comprises a substrate element with a first cover element spaced from the substrate element. A second cover element is disposed between the first cover element and the substrate element. A first adhesive layer is disposed between the first and second cover elements, where the first adhesive layer is configured to adhere the first cover element to the second cover element. A second adhesive layer is disposed between the second cover element and the substrate element, where the second adhesive layer is configured to adhere the second cover element to the substrate element. At least one seed abuts the first adhesive layer. The first cover layer is configured to be separated from the first adhesive layer thereby exposing at least a portion of the seed(s). Also disclosed are a method of forming a composite article, and a method of planting a seed with a composite article.

Abstract: A composite article comprises a substrate element with a first cover element spaced from the substrate element. A second cover element is disposed between the first cover element and the substrate element. A first adhesive layer is disposed between the first and second cover elements, where the first adhesive layer is configured to adhere the first cover element to the second cover element. A second adhesive layer is disposed between the second cover element and the substrate element, where the second adhesive layer is configured to adhere the second cover element to the substrate element. At least one seed abuts the first adhesive layer. The first cover layer is configured to be separated from the first adhesive layer thereby exposing at least a portion of the seed(s). Also disclosed are a method of forming a composite article, and a method of planting a seed with a composite article.

Abstract: A method of forming a plantable structure involves providing a substrate element, a release layer spaced from the substrate element, an adhesive layer disposed between the substrate element and the release layer, and at least one seed abutting the adhesive layer. The seed(s) is/are coupled to the substrate element through the adhesive layer. The method further comprises removing the release layer from the composite article, and adhering a remaining portion of the composite article to a secondary article. The remaining portion of the secondary article comprises the substrate element, the adhesive layer disposed on the substrate element, and the seed(s) abutting the adhesive layer. Also disclosed herein are a method of planting at least one seed with a composite article, a packaging structure, a method of forming a packaging structure, and a method of planting at least one seed.

Abstract: A water treatment system is provided having an encapsulate manifold with a reverse osmosis cartridge and one or more filter cartridges, and an annular collar to adapt and connect the manifold to the cartridges. The filter cartridge includes a detent for being received within a slot in the manifold head for secure locking engagement. The water treatment system is also provided in a modular arrangement wherein manifold heads are physically and fluidly coupled together via a clip which interfaces with the modular manifold heads. The water treatment system also allows for a retrofit application to include a permeate pump. The cartridges are also designed to provide a minimum annular inlet gap to minimize spillage during changing of the cartridges.

Abstract: The present disclosure provides a composite article including at least one seed for planting and a method of forming the composite article. The composite article includes a substrate element and a cover element spaced from the substrate element. An adhesive layer is disposed between the substrate element and the cover element for coupling the substrate element and the cover element to one another. The composite article further includes at least one seed abutting the adhesive layer and disposed between the substrate element and the cover element. The cover element is configured to be separated from the adhesive layer for exposing at least a portion of the seed. The present disclosure also provides a method of forming the composite article and a method of planting the seed.

Abstract: A water treatment system is provided having an encapsulate manifold with a reverse osmosis cartridge and one or more filter cartridges, and an annular collar to adapt and connect the manifold to the cartridges. The filter cartridge includes a detent for being received within a slot in the manifold head for secure locking engagement. The water treatment system is also provided in a modular arrangement wherein manifold heads are physically and fluidly coupled together via a clip which interfaces with the modular manifold heads. The water treatment system also allows for a retrofit application to include a permeate pump. The cartridges are also designed to provide a minimum annular inlet gap to minimize spillage during changing of the cartridges.

Abstract: A water treatment system is provided having an encapsulate manifold with a reverse osmosis cartridge and one or more filter cartridges. The filter cartridge includes a detent for being received within a slot in the manifold head for secure locking engagement. The water treatment system further includes a single probe conductivity monitoring system for monitoring the performance of a reverse osmosis membrane. The water treatment system is also provided in a modular arrangement wherein manifold heads are physically and fluidly coupled together via a clip which interfaces with the modular manifold heads. The water treatment system also allows for a retrofit application to include a permeate pump. The cartridges are also designed to provide a minimum annular inlet gap to minimize spillage during changing of the cartridges.

Abstract: A water treatment system is provided having an encapsulate manifold with a reverse osmosis cartridge and one or more filter cartridges. The filter cartridge includes a detent for being received within a slot in the manifold head for secure locking engagement. The water treatment system further includes a single probe conductivity monitoring system for monitoring the performance of a reverse osmosis membrane. The water treatment system is also provided in a modular arrangement wherein manifold heads are physically and fluidly coupled together via a clip which interfaces with the modular manifold heads. The water treatment system also allows for a retrofit application to include a permeate pump. The cartridges are also designed to provide a minimum annular inlet gap to minimize spillage during changing of the cartridges.

Abstract: A water treatment system is provided having an encapsulate manifold with a reverse osmosis cartridge and one or more filter cartridges. The filter cartridge includes a detent for being received within a slot in the manifold head for secure locking engagement. The water treatment system further includes a single probe conductivity monitoring system for monitoring the performance of a reverse osmosis membrane. The water treatment system is also provided in a modular arrangement wherein manifold heads are physically and fluidly coupled together via a clip which interfaces with the modular manifold heads. The water treatment system also allows for a retrofit application to include a permeate pump. The cartridges are also designed to provide a minimum annular inlet gap to minimize spillage during changing of the cartridges.

Abstract: A water treatment system is provided having an encapsulate manifold with a reverse osmosis cartridge and one or more filter cartridges. The filter cartridge includes a detent for being received within a slot in the manifold head for secure locking engagement. The water treatment system further includes a single probe conductivity monitoring system for monitoring the performance of a reverse osmosis membrane. The water treatment system is also provided in a modular arrangement wherein manifold heads are physically and fluidly coupled together via a clip which interfaces with the modular manifold heads. The water treatment system also allows for a retrofit application to include a permeate pump. The cartridges are also designed to provide a minimum annular inlet gap to minimize spillage during changing of the cartridges.

Abstract: A water treatment system is provided having an encapsulate manifold with a reverse osmosis cartridge and one or more filter cartridges. The filter cartridge includes a detent for being received within a slot in the manifold head for secure locking engagement. The water treatment system further includes a single probe conductivity monitoring system for monitoring the performance of a reverse osmosis membrane. The water treatment system is also provided in a modular arrangement wherein manifold heads are physically and fluidly coupled together via a clip which interfaces with the modular manifold heads. The water treatment system also allows for a retrofit application to include a permeate pump. The cartridges are also designed to provide a minimum annular inlet gap to minimize spillage during changing of the cartridges.

Abstract: The present invention relates to an illuminated document display system. One embodiment of the present invention relates to a portable document display case configured to house at least one document for discrete illuminated visual viewing. The display case further includes an illumination system, a document protection system, and a storage system. The illumination system is configured to house an illumination device in a manner that facilitates visually receiving information from a document while minimizing external non-document light transmission. The document protection system provides a receptacle to protectively house a document while maintaining the ability for a user to view the document. In addition, the document protection system is configured to enable the illumination system to transmit light upon the document. The storage system enables the illumination system and document display system to be manipulated in a manner to provide for convenient storage without damaging the document.

Abstract: The present invention relates to a discrete optical correlation system. One embodiment of the present invention includes a portable electrical illumination system and an optically opaque hollow module, configured to releasably couple to the portable electrical illumination system in a manner such that when the portable electrical illumination system is activated, the system produces a discrete correlated or focused illumination output. The portable electrical illumination system further includes a light emitting diode, a power source, a switch, and a coupling mechanism. The optically opaque hollow module further includes at least two openings, a hollow internal region, an optically opaque outer surface, and a coupling mechanism disposed on at least one of the at least two openings. A fourth embodiment relates creating an adjustable aperture between two optically opaque sleeves sliding over an optically transparent module coupled to the portable electrical illumination system.

Abstract: The present invention relates to a protected and portable battery storage system and method of use. One embodiment relates a portable battery storage system, including a plurality of batteries and a plurality of sealed pouches. The batteries are shaped in a coin or disc configuration. The sealed pouches are interconnected to one another in a strip configuration. The batteries are positioned within a non-conductive internal region of each sealed pouch that protects them from damage and incidental short-circuiting. The non-conductive internal regions of the sealed pouches are sealed air-tight from the exterior via a lamination closure. The sealed pouches further include an individual opening system to allow a user to open a single sealed pouch for removal of the corresponding battery. One particular opening system includes a notch to facilitate hand-tearing of the sealed pouch. An alternative opening system includes utilizing a resealable opening system such as a ZIPLOC closure.

Abstract: The present invention relates to a discrete optical correlation system. One embodiment of the present invention includes a portable electrical illumination system and an optically opaque hollow module, configured to releasably couple to the portable electrical illumination system in a manner such that when the portable electrical illumination system is activated, the system produces a discrete correlated or focused illumination output. The portable electrical illumination system further includes a light emitting diode, a power source, a switch, and a coupling mechanism. The optically opaque hollow module further includes at least two openings, a hollow internal region, an optically opaque outer surface, and a coupling mechanism disposed on at least one of the at least two openings.