Disclosed herein are methods and apparatus for producing nanometer scale particles utilizing an electrosterically stabilized slurry in a media mill. A method for producing nanometer scale particles includes adding to a media mill a feed substrate suspension. The feed substrate suspension includes a liquid carrier medium and feed substrate particles. The method further includes adding to the feed substrate suspension in the media mill an electrosteric dispersant. The electrosteric dispersant includes a polyelectrolyte. Still further, the method includes operating the media mill for a period of time to comminute the feed substrate particles, thereby forming nanometer scale particles having a (D.sub.90) particle size of less than about one micron, and recirculating for further grinding the nanometer scale particles from the media mill.

Described is a macerator and process for using the macerator to reduce the particle size of a particulate containing slurry that is introduced to the macerator. The macerator comprises a housing that defines a chamber an inlet and an outlet, the inlet configured to receive a flow of slurry, two or more elongate concentric bodies located within the chamber to define a gap between the surface of the outer body and the inner surface of the housing, the bodies having a first end and a second end, at least one of the bodies rotatable about an axis, and each body comprising a plurality of apertures to define a flow path through each body, from the housing inlet to the housing outlet, a baffle or baffles that extend substantially the width of the gap from the first end to the second end of the bodies to define a first portion that contains the inlet, and a second portion that contains the outlet, and wherein the baffle or baffles substantially inhibit passage of slurry between the two portions via the gap such that the slurry is directed through the body apertures, a motor to drive the rotating body or bodies, one or more injectors that inject liquid into the gap, wherein at least one of the injectors is located in the first portion. The particle size of the outlet slurry is less than the particle size of the inlet slurry.

Described is a macerator and process for using the macerator to reduce the particle size of a particulate containing slurry that is introduced to the macerator. The macerator comprises a housing that defines a chamber an inlet and an outlet, the inlet configured to receive a flow of slurry, two or more elongate concentric bodies located within the chamber to define a gap between the surface of the outer body and the inner surface of the housing, the bodies having a first end and a second end, at least one of the bodies rotatable about an axis, and each body comprising a plurality of apertures to define a flow path through each body, from the housing inlet to the housing outlet, a baffle or baffles that extend substantially the width of the gap from the first end to the second end of the bodies to define a first portion that contains the inlet, and a second portion that contains the outlet, and wherein the baffle or baffles substantially inhibit passage of slurry between the two portions via the gap such that the slurry is directed through the body apertures, a motor to drive the rotating body or bodies, one or more injectors that inject liquid into the gap, wherein at least one of the injectors is located in the first portion. The particle size of the outlet slurry is less than the particle size of the inlet slurry.

The invention relates to a distribution device (1) for a slurry containing liquid and solid constituents, comprising: a housing (2) with an inlet (6) for the slurry, an end wall (4) at the driving side, an opposite further end wall (5) and multiple outlets (7) at at least one of the two end walls (4, 5) for distributing the slurry, a rotor (40), which is arranged in the housing (2) and rotatable about a rotation axis (10) and comprises at least one blade arrangement (60) for sweeping over the outlets (7) at the inside of the housing and an air distribution chamber (45) for distributing compressed air to the blade arrangement(s) (60), a driving unit (20) with a motor (26), which is arranged outside of the housing (2), and a driving shaft (22), which is coaxial to the rotation axis (10), passes through the end wall (4) at the driving side and is connected to the rotor (40) in a rotationally fixed manner, and an annular air transmission chamber (51), which passes through the end wall (4) at the driving side and is arranged coaxially with the rotation axis (10) and radially outside of the driving shaft (22), wherein the air transmission chamber (51) is connected to an air inlet (27) at the outside of the housing for compressed air and to the air distribution chamber (45) at the inside of the housing in an air-conducting manner.

The invention relates to a distribution device (1) for a slurry containing liquid and solid constituents, comprising: a housing (2) with an inlet (6) for the slurry, an end wall (4) at the driving side, an opposite further end wall (5) and multiple outlets (7) at at least one of the two end walls (4, 5) for distributing the slurry, a rotor (40), which is arranged in the housing (2) and rotatable about a rotation axis (10) and comprises at least one blade arrangement (60) for sweeping over the outlets (7) at the inside of the housing and an air distribution chamber (45) for distributing compressed air to the blade arrangement(s) (60), a driving unit (20) with a motor (26), which is arranged outside of the housing (2), and a driving shaft (22), which is coaxial to the rotation axis (10), passes through the end wall (4) at the driving side and is connected to the rotor (40) in a rotationally fixed manner, and an annular air transmission chamber (51), which passes through the end wall (4) at the driving side and is arranged coaxially with the rotation axis (10) and radially outside of the driving shaft (22), wherein the air transmission chamber (51) is connected to an air inlet (27) at the outside of the housing for compressed air and to the air distribution chamber (45) at the inside of the housing in an air-conducting manner.

A handheld comminutor—spray bottle assembly includes a bottle; a comminutor; and a sprayer assembly. The bottle has an externally threaded mouth. The comminutor includes a comminutor body, with an internally threaded rim, housing a power source and an electrically connected motor. Blades connected to the motor by a shaft extend from the comminutor body. The sprayer assembly includes a spray head attached to a spray bottle cap, a siphon straw and an elongated filter housing connected with a spray head inlet, with a filter on the housing. A filter housing cap secures the filter to the housing. The spray bottle cap has an internally threaded rim and a seal ring. The comminutor rim and the spray bottle cap rim alternately connect with the mouth of the bottle. The motor rotates the shaft and the blades. Biomatter and liquid comminuted in the bottle are dispensed using the spray head.

A handheld comminutor—spray bottle assembly includes a bottle; a comminutor; and a sprayer assembly. The bottle has an externally threaded mouth. The comminutor includes a comminutor body, with an internally threaded rim, housing a power source and an electrically connected motor. Blades connected to the motor by a shaft extend from the comminutor body. The sprayer assembly includes a spray head attached to a spray bottle cap, a siphon straw and an elongated filter housing connected with a spray head inlet, with a filter on the housing. A filter housing cap secures the filter to the housing. The spray bottle cap has an internally threaded rim and a seal ring. The comminutor rim and the spray bottle cap rim alternately connect with the mouth of the bottle. The motor rotates the shaft and the blades. Biomatter and liquid comminuted in the bottle are dispensed using the spray head.

The invention relates to the field of kitchen appliances and discloses a food waste disposer, the food waste disposer has a switching component arranged to a discharge outlet of the food waste disposer, the switching component has a first pipe; a second pipe; a first baffle that flips in an anti-gravity direction along a discharge direction to connect or isolate a discharge outlet and a sewer pipe; a first sealing ring; and a limit block to prevent the first baffle from flipping. The invention also discloses an integrated sink and integrated cabinet both have the food waste disposer with a switching component arranged to a discharge outlet of the food waste disposer.

A continuous mill, comprising: a casing (1) having a substantially cylindrical shape and rotating about an axis of rotation (X); an inlet opening (2), concentric to the axis of rotation (X); an inlet duct (20), connected to the inlet opening (2); an outlet opening (3), concentric to the axis of rotation (X); an outlet duct (30), connected to the discharge opening (3); a bend (11), arranged along the outlet duct (30), which defines a curve of the outlet duct (30); a regulator (12) associated with the bend (11) and predisposed for varying the position of the bend (11) so as to vary at least the height thereof; a first aeration duct (21), connected to the inlet duct (20), and a second aeration duct (31), connected to the outlet duct (30), wherein the first and second aeration ducts (21, 31) are open to the atmosphere.

A continuous mill, comprising: a casing (1) having a substantially cylindrical shape and rotating about an axis of rotation (X); an inlet opening (2), concentric to the axis of rotation (X); an inlet duct (20), connected to the inlet opening (2); an outlet opening (3), concentric to the axis of rotation (X); an outlet duct (30), connected to the discharge opening (3); a bend (11), arranged along the outlet duct (30), which defines a curve of the outlet duct (30); a regulator (12) associated with the bend (11) and predisposed for varying the position of the bend (11) so as to vary at least the height thereof; a first aeration duct (21), connected to the inlet duct (20), and a second aeration duct (31), connected to the outlet duct (30), wherein the first and second aeration ducts (21, 31) are open to the atmosphere.