An exemplary solid waste treatment system can be provided which can include a storage device, an intelligent aerobic fermentation treatment device, a retaining wall-type fermentation area, and an aeration platform. The intelligent aerobic fermentation treatment device can include a traveling trolley, a lifting mechanism, a material pick-and-place mechanism, and a traveling bridge linearly moving in a direction away from the storage device towards the retaining wall-type fermentation area. The aeration platform can be arranged at the bottom of the retaining wall-type fermentation area. The traveling trolley linearly can move on the traveling bridge in a direction perpendicular to the direction away from the storage device towards the retaining wall-type fermentation area. The lifting mechanism can be mounted on the traveling trolley. The material pick-and-place mechanism can be suspended on the lifting mechanism to be raised and lowered in step with the raising and lowering of the lifting mechanism.

A compost leachate distribution device includes a composting chamber for receiving material to be composted and a leachate collection chamber for collecting, via a leachate fluid path, leachate generated during composting in the composting chamber. The device has a leachate mixing arrangement a first inlet for receiving a flow of water, a mixing chamber to which the first inlet leads for mixing water with leachate to form a water/leachate mix and an outlet leading from the mixing chamber to the exterior for exit of the water/leachate mix, wherein the leachate mixing arrangement has dosing means for controlling a rate of flow of leachate from the leachate collection chamber into the mixing chamber.

The invention relates to an apparatus for processing and mixing and thus homogenizing of a mass loos or incoherent material and comprises at least one trench silo provided with an inlet opening which is divided in compartments in longitudinal direction. The top layer is scraped from a stack of material present in a compartment by a scraper and deposited in the next compartment. This scraping operation is repeated until the previous compartment is completely empty. After a compartment has thus been completely filled, the material present therein is given the opportunity to be processed. A fully emptied compartment is filled again with material from a previous compartment. The material present in the end compartment, after being processed, is removed by a discharge conveyor belt. The invention also focuses on the operation of such a device.

A solids separator for use in a composting system for separating solid waste from liquid waste in a stream of waste includes a housing defining a waste inlet for receiving the stream of waste, a liquids outlet for passing the liquid waste, and a solids outlet for passing the solid waste. A separator belt is positioned within the housing and extending between the liquids outlet and the solids outlet, the separator belt defining a plurality of apertures through which the liquid waste passes through the separator belt and into the liquids outlet. A drive cylinder is rotatably mounted within the housing for selectively rotating the separator belt such that a top surface of the belt is moved toward the solids outlet along with the solid waste that is extracted from the stream of waste.

The invention is directed to a process and equipment for use in a process to bacterially decompose organic waste to a dry composted end material wherein organic waste is composted in a composting tank in the presence of oxygen and aerobic bacteria to obtain a wet composted material. The wet composted material is partly removed from the composting tank and dried such to lower the water content of the composted material to obtain dry composted end material.

An aerobic method for treating organic material, having the steps of loading a treatment unit with organic material; covering the organic material with a first membrane; aerobic treatment of the organic material by actively supplying air to the organic material and the supplied air flowing through said organic material; turning over the organic material using a turning-over device, wherein the organic material is homogenized and/or mixed; and continuing the supply of air according to step c). The turning-over device is moved along the direction of longitudinal extent of the treatment unit, turning over the organic material by a turning-over roller. The turning-over device has a membrane holding apparatus which holds the first membrane covering the organic material during the turning over, and a membrane laying apparatus, which lays a second membrane on the turned-over organic material.

A method and a device for loading a material in layers, in which a first fraction of the material intended to form a first layer is fed to a belt conveyor located above a loading zone, tilting the conveyor about its longitudinal axis such that the entire first fraction is poured into a receiving zone in a receptacle to form a first layer, feeding a subsequent fraction of the material intended to form a subsequent layer to the conveyor, and then tilting the conveyor about its longitudinal axis such that the entire subsequent layer is poured onto the receiving zone to thereby form the subsequent layer.

An aerobic method for treating organic material, having the steps of loading a treatment unit with organic material; covering the organic material with a first membrane; aerobic treatment of the organic material by actively supplying air to the organic material and the supplied air flowing through said organic material; turning over the organic material using a turning-over device, wherein the organic material is homogenized and/or mixed; and continuing the supply of air according to step c). The turning-over device is moved along the direction of longitudinal extent of the treatment unit, turning over the organic material by a turning-over roller. The turning-over device has a membrane holding apparatus which holds the first membrane covering the organic material during the turning over, and a membrane laying apparatus, which lays a second membrane on the turned-over organic material.

Provided herein are methods for increasing plant growth, plant productivity and/or soil quality using microbial fertilizers comprising Lactobacillus parafarraginis, Lactobacillus buchneri, Lactobacillus rapi, Lactobacillus zeae, Acetobacter fabarum and Candida ethanolica.

Provided herein are microbial inoculants for use in increasing plant growth, plant productivity and/or soil quality, comprising strains of one or more bacterial species selected from Lactobacillus parafarraginis, Lactobacillus buchneri, Lactobacillus rapi and Lactobacillus zeae. Optionally the microbial inoculants also comprise a strain of Acetobacter fabarum and/or a strain of Candida ethanolica. Also provided are fertilizer compositions comprising said microbial inoculants.