Patent classifications
A01K61/73
Handle For Structure For Attracting And Accumulating Aquatic Organisms
A handle for an aquatic aggregation apparatus that upon placement by measured passage with a line connected thereto provides for shelteringly attracting and accumulating aquatic organisms, the handle defined by an elongated member configured with a medial arcuate portion and a pair of distal arcuate seating portions for passage through and engagement with respective longitudinal opposing slots of a supporting member that further receives elongated slats through spaced-apart slots therein to define arms for the attracting and accumulating of aquatic organisms to and about the aggregation apparatus for facilitating fishing habitats, allowing the habitat apparatus to be hung from a dock or retrieved with a boat hook for ease in removal and relocation.
Artificial structure for attracting fish
A structure for attracting fish in lakes and ponds is presented that includes a central mast with one or more angled shafts for the fish to rest upon and congregate near.
AQUATIC HABITAT STRUCTURE AND ASSOCIATED METHODS
An aquatic habitat structure for a body of water includes tree sections coupled together to form an artificial tree. Each tree section includes a trunk having a cylindrical shape with opposing ends and a curved surface extending therebetween, and a first plurality of leaflets covering the curved surface of the trunk. Spaced-apart layers of limbs extend outwards from the curved surface of the trunk. Each layer of limbs includes a plurality of limbs, and each limb includes a plurality of branches. Each branch is covered by a second plurality of leaflets. Each leaflet in the first and second plurality of leaflets provide a biologic surface area for adherence of periphytons to enhance water quality in the body of water, and with the biologic surface area including textured regions to provide additional biologic surface areas for the adherence of the periphytons to further enhance the water quality.
AQUATIC HABITAT STRUCTURE AND ASSOCIATED METHODS
An aquatic habitat structure for a body of water includes tree sections coupled together to form an artificial tree. Each tree section includes a trunk having a cylindrical shape with opposing ends and a curved surface extending therebetween, and a first plurality of leaflets covering the curved surface of the trunk. Spaced-apart layers of limbs extend outwards from the curved surface of the trunk. Each layer of limbs includes a plurality of limbs, and each limb includes a plurality of branches. Each branch is covered by a second plurality of leaflets. Each leaflet in the first and second plurality of leaflets provide a biologic surface area for adherence of periphytons to enhance water quality in the body of water, and with the biologic surface area including textured regions to provide additional biologic surface areas for the adherence of the periphytons to further enhance the water quality.
RESTORATION HEIGHT CAP UNIT AND METHOD
A restoration cap unit for construction of eco-friendly structures in a body of water is provided, which is constructed from materials including a primarily calcium carbonate material; and a cement that is capable of holding the primarily calcium carbonate material, wherein the restoration cap unit has a first side and a second side which are attached at an edge to form a tent shaped structure, such that the restoration cap unit is configured to be placed on top of an existing restoration assembly to extend the height of the restoration assembly.
RESTORATION HEIGHT CAP UNIT AND METHOD
A restoration cap unit for construction of eco-friendly structures in a body of water is provided, which is constructed from materials including a primarily calcium carbonate material; and a cement that is capable of holding the primarily calcium carbonate material, wherein the restoration cap unit has a first side and a second side which are attached at an edge to form a tent shaped structure, such that the restoration cap unit is configured to be placed on top of an existing restoration assembly to extend the height of the restoration assembly.
ARTIFICIAL REEF APPARATUS, SYSTEM, AND METHOD
A customizable artificial reef for protecting shorelines from oncoming waves and creating a natural habitat for marine life is disclosed. Spurs extending seaward abut a line of crests, forming grooves between the spurs. Optional berms abutting a seaward side of the line of crests may be disposed in the grooves. Parameters of the spur-and-groove customizable artificial reef such as spur height, spur length, wavelength, groove width, cross-shore slope, submerged depth, and the reef crest width are selected to achieve a desired hydrodynamic and circulation of ocean water effect in the SAG reef area. Coral growth on the reef surfaces cover portions, and preferably all, of the SAG reef surfaces, and self-adapt to grow to an optimal height above the SAG surfaces. After storm damage, the SAG reef self-heals through coral re-growth. Spur, crest, and berm sections may be cast individually or may be configured using a plurality of reef modules for ease of manufacturing, transport, and installation.
ARTIFICIAL REEF APPARATUS, SYSTEM, AND METHOD
A customizable artificial reef for protecting shorelines from oncoming waves and creating a natural habitat for marine life is disclosed. Spurs extending seaward abut a line of crests, forming grooves between the spurs. Optional berms abutting a seaward side of the line of crests may be disposed in the grooves. Parameters of the spur-and-groove customizable artificial reef such as spur height, spur length, wavelength, groove width, cross-shore slope, submerged depth, and the reef crest width are selected to achieve a desired hydrodynamic and circulation of ocean water effect in the SAG reef area. Coral growth on the reef surfaces cover portions, and preferably all, of the SAG reef surfaces, and self-adapt to grow to an optimal height above the SAG surfaces. After storm damage, the SAG reef self-heals through coral re-growth. Spur, crest, and berm sections may be cast individually or may be configured using a plurality of reef modules for ease of manufacturing, transport, and installation.
MODULAR ECOLOGICAL SYSTEM WITH STRUCTURAL ASSEMBLY FOR ENHANCED STABILITY AND ENVIRONMENTAL INTEGRATION
A modular ecological system is disclosed, comprising an ecological structure with a base section featuring a body with a first end region, a second end region, and upper and lower curved surfaces extending between the ends. Side walls converge at an apex region, creating a defined thickness and supporting lateral rods extending outwardly. The system includes a wheel and axle assembly attachable to the rods and a truss assembly with elements extending from the wheel and axle assembly to the apex, providing structural reinforcement. Flotation devices are attachable through openings in the curved surfaces to facilitate buoyancy. The system may include symmetrically arranged flotation devices, connection points, looped cables, and a load distribution nub on the upper curved surface. A method for assembling the system involves positioning and securing the wheel and axle assembly, engaging axle receiving sections, and attaching flotation devices through defined openings for stability in various environments.
MODULAR ECOLOGICAL SYSTEM WITH STRUCTURAL ASSEMBLY FOR ENHANCED STABILITY AND ENVIRONMENTAL INTEGRATION
A modular ecological system is disclosed, comprising an ecological structure with a base section featuring a body with a first end region, a second end region, and upper and lower curved surfaces extending between the ends. Side walls converge at an apex region, creating a defined thickness and supporting lateral rods extending outwardly. The system includes a wheel and axle assembly attachable to the rods and a truss assembly with elements extending from the wheel and axle assembly to the apex, providing structural reinforcement. Flotation devices are attachable through openings in the curved surfaces to facilitate buoyancy. The system may include symmetrically arranged flotation devices, connection points, looped cables, and a load distribution nub on the upper curved surface. A method for assembling the system involves positioning and securing the wheel and axle assembly, engaging axle receiving sections, and attaching flotation devices through defined openings for stability in various environments.