Method of removing fine particle dust and apparatus therefor

Claim 3

The method of claim 1, further comprising the step of: cleaning the dust particles from the filter intermittently or continuously.

Claim 4

The method of claim 2, wherein the dust removing device is a rotary brush or a pallet.

Claim 5

The method of claim 3, further comprising the steps wherein the step of removing any oil and water from the fine particle dust gas includes: flowing the gas containing the fine dust particles from the source of generating the same to an underside of a laterally rotatable liquid separation rotary brush, directing the gas from an upperside of the liquid separation rotary brush to catch any oil and water in the fine dust particle gas between the bristles of the liquid separation rotary brush, transferring the oil and water, which are caught by the bristles of the liquid separation rotary brush to an inner peripheral wall of a liquid separation chamber which is arranged around the liquid separation rotary brush utilizing the centrifugal force of said rotary brush, allowing the oil and water along the inner peripheral wall of the liquid separation chamber to drop into a pool at the bottom of the liquid separation chamber, and introducing any gas which passes above the liquid separation rotary brush to the dust collector.

Claim 6

The method of claim 3, further comprising the step of: absorbing the separated oil and water into a laminated member which is disposed at the bottom of a liquid separation chamber wherein said laminated member is made of a water-absorbing polymer, an oil-absorbing polymer or a combination thereof, in order to dispose of the oil and water together with the polymer.

Claim 7

The method of claim 2, further comprising the steps wherein the step of removing any oil and water from the fine particle dust gas includes: flowing the gas containing the fine dust particles from the source of generating the same to an underside of a laterally rotatable liquid separation rotary brush, directing the gas from an upperside of the liquid separation rotary brush to catch any oil and water in the fine dust particle gas between the bristles of the liquid separation rotary brush, transferring the oil and water, which are caught by the bristles of the liquid separation rotary brush to an inner peripheral wall of a liquid separation chamber which is arranged around the liquid separation rotary brush utilizing the centrifugal force of said rotary brush, allowing the oil and water along the inner peripheral wall of the liquid separation chamber to drop into a pool at the bottom of the liquid separation chamber, and introducing any gas which passes above the liquid separation rotary brush to the dust collector.

Claim 8

The method of claim 2, further comprising the step of: absorbing the separated oil and water into a laminated member which is disposed at the bottom of a liquid separation chamber wherein said laminated member is made of a water-absorbing polymer, an oil-absorbing polymer or a combination thereof, in order to dispose of the oil and water together with the polymer.

Claim 9

The method of claim 2, further comprising the step of: allowing the fine dust particles that fall from the dust collector to drop into the bottom of a liquid separation chamber and disposing of the same.

Claim 10

The method of claim 1, wherein the dust removing device is a rotary brush or a pallet.

Claim 11

The method of claim 9, further comprising the steps wherein the step of removing any oil and water from fine particle dust gas includes: flowing the gas containing the fine dust particles from the source of generating the same to an underside of a laterally rotatable liquid separation rotary brush, directing the gas from an upperside of the liquid separation rotary brush to catch any oil and water in the fine dust particle gas between the bristles of the liquid separation rotary brush, transferring the oil and water, which are caught by the bristles of the liquid separation rotary brush to an inner peripheral wall of a liquid separation chamber which is arranged around the liquid separation rotary brush utilizing the centrifugal force of said rotary brush, allowing the oil and water along the inner peripheral wall of the liquid separation chamber to drop into a pool at the bottom of the liquid separation chamber, and introducing any gas which passes above the liquid separation rotary brush to the dust collector.

Claim 12

The method of claim 9, further comprising the step of: absorbing the separated oil and water into a laminated member which is disposed at the bottom of a liquid separation chamber wherein said laminated member is made of a water-absorbing polymer, an oil-absorbing polymer or a combination thereof, in order to dispose of the oil and water together with the polymer.

Claim 13

The method of claim 1, further comprising the steps wherein the step of removing any oil and water from the fine particle dust gas includes: flowing the gas containing the fine dust particles from the source of generating the same to an underside of a laterally rotatable liquid separation rotary brush, directing the gas from an upperside of the liquid separation rotary brush to catch any oil and water in the fine dust particle gas between the bristles of the liquid separation rotary brush, transferring the oil and water, which are caught by the bristles of the liquid separation rotary brush to an inner peripheral wall of a liquid separation chamber which is arranged around the liquid separation rotary brush utilizing the centrifugal force of said rotary brush, allowing the oil and water along the inner peripheral wall of the liquid separation chamber to drop into a pool at the bottom of the liquid separation chamber, and introducing any gas which passes above the liquid separation rotary brush to the dust collector.

Claim 14

The method of claim 1, further comprising the step of: absorbing the separated oil and water into a laminated member which is disposed at the bottom of a liquid separation chamber wherein said laminated member is made of a water-absorbing polymer, an oil-absorbing polymer or a combination thereof, in order to dispose of the oil and water together with the polymer.

Claim 15

The method of claim 1, further comprising the step of: allowing the fine dust particles that fall from the dust collector to drop into the bottom of a liquid separation chamber and disposing of the same.

Claim 16

A dust collector apparatus for removing fine dust particles of a gas containing the fine dust particles introduced from a source which generates the fine dust particles, said apparatus comprising: a gas introducing inlet for introducing the gas into a liquid separation chamber; a liquid separation chamber that is capable of removing any oil and water from the gas introduced to the liquid separation chamber from the source which generates the fine dust particles, a dust collector comprising a cylindrical filter (43), a cleaning chamber (44) formed around the cylindrical filter, a cylindrical body (41) surrounding the filter and the cleaning chamber, an introducing inlet for introducing the gas from the liquid separation chamber into an opening of the filter, and an introducing outlet for communicating the cleaning chamber with an outside of said liquid separation chamber, a dust particle removing device rotatable in the cleaning chamber in contact with an inner wall of the filter, and a driving device for driving the dust particle removing device.

Claim 17

A dust collector apparatus for removing fine dust particles of a gas containing the fine dust particles introduced from a source which generates the fine dust particles, said apparatus comprising: a gas introducing inlet for introducing the gas into a liquid separation chamber; a liquid separation chamber that is capable of removing any oil and water from the gas introduced to the liquid separation chamber from the source which generates the fine dust particles, a dust collector comprising a cylindrical filter (43), a cleaning chamber (44) formed around the cylindrical filter, a cylindrical body (41) surrounding the filter and the cleaning chamber, an introducing inlet for introducing the gas from the liquid separation chamber into an opening of the filter, and an introducing outlet for communicating the cleaning chamber with an outside of said liquid separation chamber, a dust particle removing device rotatable in the cleaning chamber in contact with an inner wall of the filter, and a driving device for driving the dust particle removing device.

Claim 18

The apparatus of claim 15, wherein said liquid separation chamber comprises a liquid separation rotary brush which is disc or spiral shaped.

Claim 19

The apparatus of claim 16, further comprising a blower positioned relative to said cylindrical body which generates a flow of air to move the dust particles from the source which generates the fine dust particles to the outside of the cylindrical body via the dust collector.

Claim 20

The apparatus of claim 16, wherein said a cylindrical liquid separation chamber comprises a cylindrical shape having a vertical axis, a lower portion and an upper portion, a cylindrical body having an inlet formed in said lower portion of the liquid separation chamber for introducing the gas from the source which generates the fine dust particles, an outlet formed in said upper portion of the liquid separation chamber for discharging the gas to the dust collector, a liquid separation rotary brush arranged between the inlet and the outlet of the liquid separation chamber which is rotatable about said vertical axis, and a driving device for driving the liquid separation rotary brush.

Claim 21

The apparatus of claim 16, further comprising a laminated member arranged at the bottom of the liquid separation chamber, which member is made of a water-absorbing polymer, an oil-absorbing polymer or a combination thereof.

Claim 22

The apparatus of claim 16, wherein the lower portion of the liquid separation chamber is formed to be disassembled.

Claim 23

The apparatus of claim 15, further comprising a blower positioned relative to said cylindrical body which generates a flow of air to move the dust particles from the source which-generates the fine dust particles to the outside of the cylindrical body via the dust collector.

Claim 24

The apparatus of claim 21, wherein said a cylindrical liquid separation chamber comprises a cylindrical shape having a vertical axis, a lower portion and an upper portion, a cylindrical body having an inlet formed in said lower portion of the liquid separation chamber for introducing the gas from the source which generates the fine dust particles, an outlet formed in said upper portion of the liquid separation chamber for discharging the gas to the dust collector, a liquid separation rotary brush arranged between the inlet and the outlet of the liquid separation chamber which is rotatable about said vertical axis, and a driving device for driving the liquid separation rotary brush.

Claim 25

The apparatus of claim 21, further comprising a laminated member arranged at the bottom of the liquid separation chamber, which member is made of a water-absorbing polymer, an oil-absorbing polymer or a combination thereof.

Claim 26

The apparatus of claim 21, wherein the lower portion of the liquid separation chamber is formed to be disassembled.

Claim 27

The apparatus of claim 15, wherein said a cylindrical liquid separation chamber comprises a cylindrical shape having a vertical axis, a lower portion and an upper portion, a cylindrical body having an inlet formed in said lower portion of the liquid separation chamber for introducing the gas from the source which generates the fine dust particles, an outlet formed in said upper portion of the liquid separation chamber for discharging the gas to the dust collector, a liquid separation rotary brush arranged between the inlet and the outlet of the liquid separation chamber which is rotatable about said vertical axis, and a driving device for driving the liquid separation rotary brush.

Claim 28

The apparatus of claim 25, further comprising a laminated member arranged at the lower portion of the liquid separation chamber, which member is made of a water-absorbing polymer, an oil-absorbing polymer or a combination thereof.

Claim 29

The apparatus of claim 25, wherein the lower portion of the liquid separation chamber is formed to be disassembled.

Claim 30

The apparatus of claim 15, further comprising a laminated member arranged at the bottom of the liquid separation chamber, which member is made of a water-absorbing polymer, an oil-absorbing polymer or a combination thereof.

Claim 31

The apparatus of claim 15, wherein the lower portion of the liquid separation chamber is formed to be disassembled.

Claim 32

The apparatus of claim 15, wherein the dust removing device comprises a dust removing rotary brush which comprises a spiral brush having bristles forming a spiral surface about a central axis of the filter, and the spiral brush is rotated by the driving device.

Claim 33

The apparatus of claim 15, wherein the dust removing device comprises a central axis of the filter and a rotary brush including bristles extending along the central axis, so that the bristles contact an inner wall of the filter and remove the dust with rotation of the rotary brush by means of the driving device.

Claim 34

The apparatus of claim 15, wherein the introducing inlet of the dust collector is arranged above the liquid separation chamber and formed to serve as an outlet therefrom.

Claim 35

The apparatus of claim 15, wherein the filter comprises a laminated filter having at least three layers, each of which has a smaller mesh from the inside of the filter to the outside thereof in order of the mesh, whereby such a laminated filter effectively removes the fine dust particles.

Claim 36

The apparatus of claim 33, wherein the first layer has a mesh of about 200 μm, the second layer has a mesh of about 50-200 μm, and the third layer has a mesh less than the second layer filter but greater than 1 μm.

Claim 37

The apparatus of claim 33, wherein the thickness of the laminated filter is more than 5 mm, the thickness of the first layer filter shares 20-50% of the thickness of the laminated filter, the thickness of the second layer filter shares 30-60% of the thickness of the laminated filter, and the thickness of the third layer filter shares 1-25%.