Disclosed is an intelligent water supply planting pot, including a pot body, a water delivery pipe, and a controller. The pot body is recessed to form a containing cavity. A partition plate for dividing the containing cavity into a planting cavity and an equipment cavity is arranged in the containing cavity. The water delivery pipe penetrates through the partition plate and is contained in the containing cavity. A humidity detector is arranged in the planting cavity. An electromagnetic valve is arranged in the water delivery pipe. The controller is arranged in the equipment cavity and is electrically connected to the humidity detector and the electromagnetic valve. A solar panel with an adjustable height is also arranged on the pot body. The solar panel is electrically connected to the controller.

A solar module assembly includes a frame having an upper portion encompassing an area and a mid portion disposed below the upper portion. A plurality of solar panels is arranged in a string, sandwiched between two transparent panes forming a single string panel. The solar panels occupy less than the area of the upper portion. Each of the plurality of solar panels has a pair of opposing edges. A reflector is mounted on the mid portion to reflect light selectively.

An irrigation method for coastal regions. The method includes: selecting coastal region and collecting natural and environmental data of the coastal region; building a basic database of the coastal region based on high-precision map of the coastal region; establishing a water demand calculation model for coastal crops and a multi-source water supply model, where the multi-source water supply model includes a multi-source water of mixed salt-fresh water calculation model and a freshwater source calculation model; calculating water demand Q.sub.demand during a forecast period according to the water demand calculation model for coastal crops; clarifying salt content S.sub.limit of the water demand during the forecast period; calculating the water supply amount Q.sub.supply in the coastal region during the forecast period according to the multi-source water of mixed salt-fresh water calculation model; and comparing the Q.sub.demand and the Q.sub.supply to accordingly regulate irrigation operation.

An atmospheric water generation system comprises water vapor consolidation systems configured to increase the relative humidity of a controlled air stream prior to condensing water from the controlled air stream. The water vapor consolidation system comprises a fluid-desiccant flow system configured to decrease the temperature of the desiccant to encourage water vapor to be absorbed by the desiccant from an atmospheric air flow. The desiccant flow is then heated to encourage water vapor evaporation from the desiccant flow into a controlled air stream that circulates within the system. The humidity of the controlled air stream is thereby increased above the relative humidity of the atmospheric air to facilitate condensation of the water vapor into usable liquid water.

A strut and method using same is provided. The strut comprises a body member having a longitudinal axis, a first end and a second end. A first gripping member is connected to the first end of the body member. The first gripping member comprises a first plate for engaging a first structural engagement member. A second gripping member is connected to the second end of the body member. The second gripping member comprises a second plate for engaging a second structural member. The body member of the strut extends in a direction to intercept each of the first and second plates.

Disclosed is a smart farm system comprising: a Rankine cycle in which a first fluid passes through a pump, an evaporator, a turbine, and a condenser along a first circulation line; a heating unit configured to exchange heat with the evaporator; a valve unit which is provided between the turbine and the condenser, and configured to run the first fluid to the condenser when the temperature of the first fluid at the outlet of the turbine is a first temperature, and to bypass the first fluid to a bypass line when the temperature of the first fluid at the outlet of the turbine is a second temperature higher than the first temperature; and a smart farm configured to exchange heat with the first fluid and the heating unit via the condenser or the bypass line.

An agricultural photovoltaic structure (1) is described comprising at least one support structure (2), photovoltaic panels (3) and glass (4) supported by the support structure (2), irrigation means (7) for an underlying agricultural land (6), lighting means (5) of the underlying agricultural land (6), and control means. The support structure (2) comprises at least one frame (23) able to support, side by side, both the photovoltaic panels (3) and the glasses (4), implementing a cover over the agricultural land (6) partly suitable for diffusing light over the underlying agricultural land (6) by the glass (4), The irrigation means (7) include nozzles able to wet the lower part of the photovoltaic panels (3) thus cooling them, the water then falling by gravity onto the agricultural land (6). The control means are able to activate the irrigation means (7) and the lighting means (5) on the basis of sensors.

According to present disclosure, there is disclosed an algae growth and cultivation system that provides a cost-efficient means of producing algae biomass as feedstock for algae-based products, such as, fertilizer, feed, biofuel manufacture, and desirably impacts, nutrient recovery from waste streams for valued byproducts production, recycle water, and alternative/renewable energy production. The system as discussed herein is an integrated systems approach to wastewater treatment, algal strains selection for byproducts production, and recycle of algal biomass-processing waste or additional algae harvested as feedstock for products such as fertilizer production. Embodiments of a system as discussed herein present an economically viable algae production system and process that allows algae-derived products such as fertilizer, feed, biofuels, etc. to compete with non-organic or petroleum products in the marketplace.

A protective transparent enclosure, such as a greenhouse, encloses a concentrated solar power system having line-focus solar energy concentrators. The line-focus solar energy concentrators have a reflective front layer, a core layer, and a rear layer. The core and the rear layers, when bonded with the reflective front layer, enable the line-focus solar energy concentrator, in some embodiments, to retain a particular form without additional strengthening elements. In some embodiments, the core layer and/or the rear layer are formed by removing material from a single piece of material.

In an exemplary embodiment, an Environmental Optimization System (“EOS”) provides a system for the intelligent control and monitoring of a poultry or livestock house environment through the utilization of a solar thermal collection system, a variety of environmental and livestock behavior sensors, apparatus for controlling the thermal collection and existing interior heating/air conditioning/ventilation (“HVAC”) systems, and Internet or cloud based intelligent control and monitoring capabilities of the system. In various embodiments central sensor data aggregation is utilized to provide improved optimization control for individual structures based on data from multiple structures.