A system, apparatus and method for separating hard contaminates of a compound from softer elements using a milling process wherein particle size reduction if effectuated on the softer elements. The milled material is then subjected to particle separation devices to remove the larger particles thereby reducing the percentage of hard particles in the remaining compound. Additional milling and separation steps are used to hard material concentration to less than a predetermined threshold.

A system, apparatus and method for separating hard contaminates of a compound from softer elements using a milling process wherein particle size reduction if effectuated on the softer elements. The milled material is then subjected to particle separation devices to remove the larger particles thereby reducing the percentage of hard particles in the remaining compound. Additional milling and separation steps are used to hard material concentration to less than a predetermined threshold.

Apparatus for processing organic material is disclosed which breaks down the inedible components of fruit and vegetables (core, skin, pips, pithy material) into an edible substance with a cream-like consistency. The apparatus includes a piston in a barrel for pressurizing the material and forcing it through a passage having a number of end-to-end sections which are at right angles to one another. There is an impact surface at the end of each section on which the flowing material impacts. The sections can be between a sleeve having sections of different diameters and a bobbin the outer surface of which is stepped to match the inner surface of the sleeve.

Apparatus for processing organic material is disclosed which breaks down the inedible components of fruit and vegetables (core, skin, pips, pithy material) into an edible substance with a cream-like consistency. The apparatus includes a piston in a barrel for pressurizing the material and forcing it through a passage having a number of end-to-end sections which are at right angles to one another. There is an impact surface at the end of each section on which the flowing material impacts. The sections can be between a sleeve having sections of different diameters and a bobbin the outer surface of which is stepped to match the inner surface of the sleeve.

The invention describes an installation, which serves for obtaining humate materials from mineral coal base material, and is provided with raw material depository (1), and a suitable mixer (5) for mixing of the raw material and the reagent, and where a dryer (3) for drying the raw material is attached to the raw material depository, and through a transporter (4) a mixer (5) is attached in order to mix the mineral coal base material with the solid state alkali reagent, furthermore there is a solid alkali feeder equipment (5a) and through a transporter (6) an ozonizing chamber (9) is attached to mixer (5), where the chamber (9) has an ozone inlet hole (78) attached to the ozone generator (8), and there is a mechano-chemical activator (10) attached to the outlet hole (79) of the chamber (9).

The present invention discloses a device for pulverization and explosion suppression of low carbon gas hydrate (LCGH). A feeding chamber connects with a pulverizing chamber, and the chambers communicate through a feed port. A pulverizing air pipe and the feeding chamber communicate through a feeding air pipe; two ends of a venturi connect with an entrainment chamber and a disperser respectively; and a gas-solid separation membrane (GSSM) is disposed on a discharging port and used for preventing LCGH powder from entering the entrainment chamber from the pulverizing chamber. When an explosion is triggered, the GSSM is opened to make the LCGH powder enter the entrainment chamber. The device can store and pulverize the LCGH and spray LCGH powder to achieve combustion and explosion suppression.

A vortex device for disintegrating a material is intended for preparing fine powders. The device includes a cylinder-like housing (1) having a first inlet aperture (2) and secondary inlet apertures (4) for delivering an energy carrier. Outlet apertures (6) and (7) are disposed in the wall of the housing (1) and in the bottom, and a loading aperture (5) is disposed in a cover. The inlet apertures (2, 4) are configured along the full height of a side wall of the cylinder-like housing (1), moreover, the first inlet aperture (2) is oriented at a lesser angle relative to the radius of the housing (1) than at least two secondary apertures (4) and is opposed to the latter in terms of the direction of delivery of the energy carrier about the axis of the housing. Vortex generators (3) are disposed next to the secondary inlet apertures (4).

Disruptor device consisting in a frame said frame (F) having a Water Jet system to disaggregate one portion a tread or a sidewall of a tire, an hydraulic power unit, a control cabinet with PLC and control panel, a lower assembly, an upper assembly, an hopper for collection of fragmented materials and a vibrating screen, a group for the forced ventilation system and the air/water separation wherein the upper assembly consists on a frame divided in two identical first half-frame and second half-frame (20b); the upper assembly is supported to the frame (F) by two arms (1a, 1b); the upper assembly (9) presents a series of rollers (14) and a movable plate (24) positioned on each half-frame (20a, 20b) between two of these rollers (14) and supporting an upper nozzles head (18) supplied by high pressure water through a piping system; the lower assembly (2) presents a set of rollers (15) mounted on a fixed frame (22); in the space between two of rollers (15) scrolls a slide (24) for nozzle-head (21) that supports one or more, left and right, lower nozzles (23) supplied by high pressure water through a piping system.

A method for algae disruption includes: a thermal treatment of microalgae belonging to Heterokontophyta at a pH of 3.5 or more and 9.5 or less and a temperature of 40 C. or more and 65 C. or less; and a physical treatment of the microalgae using a high pressure dispersion apparatus, the physical treatment following the thermal treatment.

A method for algae disruption includes: a thermal treatment of microalgae belonging to Heterokontophyta at a pH of 3.5 or more and 9.5 or less and a temperature of 40 C. or more and 65 C. or less; and a physical treatment of the microalgae using a high pressure dispersion apparatus, the physical treatment following the thermal treatment.