Subsurface irrigation systems and methods
View Patent ↗A subsurface irrigation system is provided that includes a plurality of subsurface irrigation sleeves defining an area that has a first side and a second side. At least one of the first side and the second side is configured to be hydrophilic. The plurality of subsurface irrigation sleeves each include a tunnel. Tubing connects a first sleeve of the plurality of subsurface irrigation sleeves to a second sleeve of the plurality of subsurface irrigation sleeves. The tubing is configured to pass through the tunnels of the plurality of irrigation sleeves. An emitter is disposed on the tubing within the tunnel, the emitter emitting fluid to the area of the plurality of subsurface irrigation sleeves.
1. A subsurface irrigation system comprising:
a plurality of subsurface irrigation sleeves comprising a single-matrix area having a first side and a second side, at least one of the first side and the second side being configured to be hydrophilic, and comprising a tunnel at a fold in the first side and the second side where the first side and the second side are separated from one another to form the tunnel;
tubing connecting a first sleeve of the plurality of subsurface irrigation sleeves to a second sleeve of the plurality of subsurface irrigation sleeves, the tubing being configured to pass through the tunnels of the plurality of irrigation sleeves; and
an emitter being disposed on the tubing within the tunnel of each of the plurality of subsurface irrigation sleeves, the emitter emitting fluid to the single-matrix area of the plurality of subsurface irrigation sleeves,
wherein the at least one of the first side and the second side is comprised of extruded fibers having a plurality of projections extending from a longitudinal axis, the projections defining longitudinal channels along the fibers.
2. The subsurface irrigation system of claim 1 , wherein the first sleeve is disposed within soil at a first orientation and the second sleeve is disposed within the soil at a second orientation, the first orientation being different than the second orientation.
3. The subsurface irrigation system of claim 2 , wherein the first sleeve is disposed within the soil at a first depth and the second sleeve is disposed within the soil at a second depth, the first depth being different from the second depth.
4. The subsurface irrigation system of claim 1 , wherein the single-matrix area of the first sleeve is thermoformed to have a first shape and curvature to correspond to a first landscaping features and the single matrix area of the second sleeve is thermoformed to have a second shape and curvature to correspond to a second landscaping feature, the first shape and curvature being different from the second shape and curvature.
5. The subsurface irrigation system of claim 1 , wherein the tunnel of at least one of the plurality of subsurface irrigation sleeves is disposed along an edge of the sleeve at the edge the of the single-matrix area.
6. The subsurface irrigation system of claim 5 , wherein the at least one of the plurality of subsurface irrigation sleeves is oriented such that the single-matrix area is substantially vertical.
7. The subsurface irrigation system of claim 1 , further comprising wiring disposed within the tunnel of at least one of the plurality of subsurface irrigation sleeves.
8. The subsurface irrigation system of claim 7 , wherein the wiring comprises instrumentation to monitor at least one of temperature and soil moisture content.
9. The subsurface irrigation system of claim 8 , wherein the wiring further comprises a heating element to maintain the soil at a predetermined temperature.
10. The subsurface irrigation system of claim 1 , wherein the extruded fibers are comprised of a polyester material.
11. A method of providing subsurface irrigation, the method comprising:
providing a plurality of subsurface irrigation sleeves comprising a single-matrix area having a first side and a second side, at least one of the first side and the second side being configured to be hydrophilic comprising extruded fibers having a plurality of projections extending from a longitudinal axis, the projections defining longitudinal channels along the fibers, and the plurality of subsurface irrigation sleeves each comprising a tunnel at a fold in the first side and the second side where the first side and the second side are separated from one another to form the tunnel;
connecting a first sleeve of the plurality of subsurface irrigation sleeves to a second sleeve of the plurality of subsurface irrigation sleeves via tubing, the tubing being configured to pass through the tunnels of the first and second sleeves; and
supplying fluid through the tubing to an emitter disposed on the tubing within the tunnel of each of the plurality of irrigation sleeves, the emitter emitting the fluid to the single-matrix area of the plurality of subsurface irrigation sleeves to distribute water to roots of plants.
12. The method of claim 11 , further comprising orienting the first sleeve within soil at a first orientation and the second sleeve within the soil at a second orientation, the first orientation being different than the second orientation; and
positioning the first sleeve within the soil at a first depth and the second sleeve within the soil at a second depth, the first depth being different from the second depth.
13. The method of claim 11 , wherein the single-matrix area of the first sleeve is thermoformed to have a first shape and curvature to correspond to a first landscaping feature and the single-matrix area of the second sleeve is thermoformed to have a second shape and curvature to correspond to a second landscaping feature, the first shape and curvature being different from the second shape and curvature.
14. The method of claim 11 , wherein the tunnel of at least one of the plurality of subsurface irrigation sleeves is disposed along an edge of the sleeve at the edge the of the single-matrix area, and the at least one of the plurality of subsurface irrigation sleeves is oriented such that the single-matrix area is oriented substantially vertical.
15. The method of claim 11 , further comprising placing wiring within the tunnel of at least one of the plurality of subsurface irrigation sleeves, the wiring comprising instrumentation to monitor at least one of temperature and soil moisture content.
16. The method of claim 15 wherein the wiring further comprises a heating element to maintain the soil at a predetermined temperature.
17. The method of claim 11 , further comprising connecting the tubing to a storm water or grey water source.
18. A subsurface irrigation system comprising:
a plurality of subsurface irrigation sleeves comprised of extruded fibers having a plurality of projections extending from a longitudinal axis, the projections defining longitudinal channels along the fibers, the plurality of subsurface irrigation sleeves each comprising a single-matrix area having a first side and a second side, at least one of the first side and the second side being configured to be hydrophilic, and a tunnel formed at a fold in the first side and the second side where the first side and the second side are separated to form the tunnel, the plurality of subsurface irrigation sleeves comprising a first sleeve with the single-matrix area being thermoformed to have a first shape and curvature configured to correspond to a first landscaping feature, and a second sleeve thermoformed to have a second shape and curvature configured to correspond to a second landscaping feature, the first shape and curvature being different from the second shape and curvature;
tubing connecting a first sleeve of the plurality of subsurface irrigation sleeves to a second sleeve of the plurality of subsurface irrigation sleeves, the tubing being configured to pass through the tunnels of the plurality of irrigation sleeves; and
an emitter being disposed on the tubing within the tunnel, the emitter emitting fluid to the plurality of subsurface irrigation sleeves.