Method and device for separating and/or cleaning aerosols and solid material particles and fibers from gases as well as solid material particles and fibers from liquid materials by acoustophoresis

1. An aggregating device for separation and/or purification of aerosols and solid material particles from gases, comprising:

(a) an aggregating tube having an inlet at a front end, an outlet at a rear end, and a round cross section, the tube extending concentrically around an axis, said aggregating tube forming aggregated solid material particles;

(b) a conveying means conveying an aerosol in a conveying direction into the front end of the tube, wherein the aerosol comprises the solid material particles and gases;

(c) a plurality of mutually corresponding exciters arranged opposite to each other and located within the aggregating tube, each exciter comprising a piezoelectric element, each pair of mutually corresponding exciters generating a standing acoustic sound wave at a right angle to the conveying direction,

wherein:

(i) the solid material particles move towards a plurality of pressure nodes by a force of the standing acoustic sound waves and form aggregated solid material particles in a space around the plurality of pressure nodes; and

(ii) the gases move toward a plurality of pressure antinodes by the force of the standing acoustic waves;

(d) a filter separating the aggregated solid material particles from the gases; and

(e) an ultra-violet (UV) radiator fixedly mounted relative to the container heating the aggregated solid material particles in the aggregating tube;

wherein:

each pair of mutually corresponding exciters generates a standing acoustic sound wave having a multiple pressure nodes and multiple pressure antinodes between the pair of mutually corresponding exciters; and

a particle passing between the pair of mutually corresponding exciters moves toward one of the multiple pressure nodes.

2. The aggregating device according to claim 1 , wherein a plurality of acoustic sound waves emitted by the plurality of corresponding exciters is dynamically digitally controllable, using a digital controller, via a difference in phase of the standing acoustic sound waves, such that the plurality of pressure nodes and the plurality of pressure antinodes is moveable in a controlled manner to a plurality of preselected locations.

3. The aggregating device according to claim 2 , further comprising a container discharge.

4. The aggregating device according to claim 2 , wherein control of the plurality of pressure nodes and the plurality of pressure antinodes is performed through a combination of Boolean logic gates.

5. The aggregating device according to claim 1 , further comprising a container discharge.

6. The aggregating device according to claim 1 , wherein the standing acoustic sound waves are dynamically controlled digitally via a difference in phase of the standing acoustic sound waves, such that the plurality of pressure nodes and the plurality of pressure antinodes are moveable in a controlled manner to a plurality of preselected locations.

7. The aggregating device according to claim 6 , wherein control of the plurality of pressure nodes and the plurality of pressure antinodes is performed by using a combination of Boolean logic gates.

8. The aggregating device according to claim 1 , wherein the standing acoustic sound waves have a frequency and/or volume outside a hearing range of humans and animals.

9. The aggregating device according to claim 1 , wherein the standing acoustic waves are stationary ultrasonic waves.

10. The aggregating device according to claim 1 , further comprising a radiator.

11. The aggregating device according to claim 10 , further comprising a reflector arranged behind and opposite to the radiator.

12. The aggregating device according to claim 10 , wherein the tube comprises window for the radiator.

13. The aggregating device according to claim 1 , wherein the aggregating tube has a surface, the surface being selected from the group consisting of a renewable surface, a structured surface, a smooth surface, a rough surface, a biocidal surface, an absorbent surface and combinations thereof.

14. The aggregating device according to claim 1 , wherein the plurality of exciters is arranged in a plurality of rows and separated from each other by a predetermined distance, each exciter forming a pair with a mutually corresponding exciter in a different row.

15. A closed gas cycle, comprising:

(a) the aggregating device according to claim 1 ;

(b) a heat recovery device; and

(c) a downstream and/or an upstream air filter.

16. The closed gas cycle according to claim 15 , wherein the downstream and/or upstream air filter is a HEPA filter.

17. A method of using an aggregating device, comprising:

(a) providing the aggregating device according to claim 1 ; and

(b) using the aggregating device for the disposal of biogas plant waste, surface coating agents, paint residues, effluent and/or aerosols containing paints, varnishes, sealants and/or fiber material, for the destruction of microorganisms, in particular bacteria, for purifying air at home, in air conditioning, in medical ventilation, in closed vehicles, especially automobiles, trucks, buses, trains, ships and aircraft, as well as in cell cultures.

18. A method for the separation and/or purification of aerosols and solid material particles from gases, comprising:

(a) providing an aerosol having solid material particles and gases;

(b) providing a tube container having an inlet at a front end, an outlet at a rear end, and a round cross section, the tube extending concentrically around an axis;

(c) receiving the aerosol in a conveying direction into the inlet of the tube;

(d) acting upon the aerosol by a plurality of standing acoustic sound wave, such that the solid material particles move away from the gases, wherein the solid material particles move toward a plurality of pressure nodes by a force of the standing acoustic sound waves, and wherein the gases move toward a plurality of pressure antinodes by the force of the standing acoustic sound waves;

(e) condensing the solid material particles by the force of the plurality of the standing acoustic sound waves,

(f) using an ultra-violet (UV) heating device to heat the solid material particles so as to kill bacteria, biofilms and viruses; and

(g) separating the solid material particles from the gases of the aerosol.

19. A painting device comprising the aggregating device according to claim 1 .