1. An apparatus for pumping or compressing a fluid, the apparatus comprising:
a compressor chamber including a means of compressing admitted fluid, wherein the compressing means comprises a plurality of radial compartments wherein intermittent baffles define a boundary for each radial compartment, enclosed therein said radial compartment is a solid triangular segment adapted to move relative to the baffles that define the radial compartments, said radial compartments having two inlet apertures to admit fluid and two outlet holes to discharge pressurized fluid;
a fluid control arrangement adapted to control admitted andor discharged fluid to and from the radial compartments making up the compressor chamber;
a valve including a rotatable circular plate or ring with a series of symmetrically placed holes there along such that the rotation of this circular plate or ring with the intermittent holes allows the opening or partial opening of one inlet aperture to one of the radial compartments of the compressor portion and the closing or partial closing of the other inlet aperture of the one compartment; said valve further including one way control valves on each of the outlet apertures of the radial compartments of the compressor portion; and
means for oscillating the baffles in a back and forth oscillation movement to create relative movement between the baffles against the triangular segments to create a bellowing effect to admit fluid into the respective radial compartments and a simultaneous discharge thereout through one of the outlet apertures.
2. The apparatus of claim 1, further comprising a main housing block providing a drive portion supporting a rotatably driveable shaft in operable communication with a compression portion defining said compression chamber.
3. The apparatus of claim 2, wherein said drive portion is in the form of an electric motor.
4. The apparatus of claim 2, wherein said means for oscillating the baffles comprises a cam mechanism adapted to translate the rotatable motion of the drivable shaft into the back and forth oscillation movement of the baffles.
5. An apparatus for pumping or compressing a fluid, the apparatus comprising:
a main housing block adapted to provide a drive portion supporting a rotatably drivable shaft in operable communication with a compression portion of said main housing block; the compression portion defining a compressor chamber in its interior; the compressor chamber including a compressor adapted to compress admitted fluid;
wherein the compressor comprises a plurality of radial compartments wherein intermittent baffles define a boundary for each radial compartment, enclosed therein each said radial compartment is a triangular segment, wherein the triangular segments are adapted to move relative to the baffles that define the radial compartments; said radial compartments comprising two inlet apertures to admit fluid and two outlet holes to discharge pressurized fluid;
a fluid control arrangement adapted to control admitted and discharged fluid to and from the radial compartments making up the compressor chamber, the fluid control arrangement including a rotatable circular plate with a series of symmetrically placed holes there along such that the rotation of the rotatable circular plate allows the opening or partial opening of one inlet aperture to one of the radial compartments of the compressor portion and the closing or partial closing of the other inlet aperture of the one compartment; the fluid flow control arrangement further comprises one way control valves on each of the outlet apertures of the radial compartments of the compressor;
a cam mechanism adapted to translate the rotatable motion of the rotably drivable shaft into a back and forth oscillation movement to create relative movement between the baffles against the triangular segments to create a bellowing effect adapted to admit fluid into the respective radial compartments and adapted to simultaneously discharge thereout through one of the outlet apertures.
6. The apparatus of claim 5, wherein when one edge of the triangular segments moves up against the intermittent baffles fluid is compressed while on the other side of the triangular segments fluid is admitted therein by virtue of the symmetrically placed holes of the rotatable circular plate having aligned over corresponding inlet holes and thereby allowing the admission of fluid therein to the radial compartment.
7. The apparatus of claim 6, wherein on the opposed side of the triangular section which has had its inlet hole covered or partly covered by this oscillating back and forth rotable circular plate, no fluid or reduced amounts of fluid are being admitted.
8. The apparatus of claim 7, wherein when the triangular segment is rotated towards one of the intermitted baffles the fluid is being compressed and discharged through one of the one way control valves.
9. The apparatus of claim 5, wherein each triangular segment comprises an orifice or elongated recess at least partially extending into the depth of said triangular segment, wherein each of the orifices or elongated recesses are located on an opposing side of each of the triangular segments so that inside the radial compartment such that the recesses on opposing sides of each of the triangular segments exclusively engage with just one single inlet aperture.
10. The apparatus of claim 9, wherein the orifices or elongated recesses of the triangular segments extend to the depth of the triangular segment on opposing edges of the triangular segment and are substantially conical or cone type in configuration with part of the edge, length or shoulder of the conical configuration opened up such that it is adapted to provide a fluid passage flow moving from a space of varying bounded dimension.
11. The apparatus of claim 5, wherein the inlet apertures are a series of holes placed on a covering plate that defines the radial diameter of the radial compartments.
12. The apparatus of claim 5, wherein the intermittent baffles are rotatably supported and each of the triangular segments remain fixed in place within said compressor chamber.
13. The apparatus of claim 12, wherein the intermittent baffles that provide the radial compartments include therein triangular segments of smaller dimension.
14. The apparatus of claim 12, wherein said intermittent baffles are supported on a rotatable shaft wherein the shaft by virtue of its structural arrangement with the cam mechanism will oscillate or swing back and forth over a defined degree of angle.
15. The apparatus of claim 14, wherein the degree of rotation of the back and forth oscillating movement between the intermittent baffles and the triangular segments is twenty degrees.
16. An apparatus for pumping or compressing a fluid including: a compressor chamber including a central shaft and a plurality of radial compartments, wherein a boundary of each compartment is partially defined by adjacent baffles of a plurality of intermittent, radially disposed baffles, whereby disposed in each said radial compartment is a fixed solid segment having a substantially triangular structure extending between the central shaft and an inner edge of the chamber with respect to which the baffles are adapted to move to compress admitted fluid, said chamber having a plurality of inlet aperture pairs disposed at an inlet end of the chamber and corresponding with each radial compartment, of which each inlet aperture is positioned relative to a corresponding side edge of a solid segment in the corresponding compartment to admit fluid, and a plurality of outlet hole pairs disposed at an outlet end of the chamber opposite the inlet end, each outlet hole pair including a first and a second hole coaxially aligned with the first and second inlet apertures, to discharge pressurised fluid;
a fluid control arrangement including a rotatable circular plate at the inlet end of the chamber which substantially covers the inlet aperture pairs, the plate being rotatable with the central shaft and baffles and including a series of symmetrically placed holes positioned such that the rotation of the plate allows the opening or partial opening of said first inlet apertures by aligning with the holes to admit fluid into the radial compartments on an admission side of each solid segment and the simultaneous closing or partial closing of the second inlet apertures to compress fluid in the radial compartments on the compression side of each solid segment;
said fluid control arrangement further including one way control valves on each of the outlet holes configured to open and thereby allow discharge of fluid after sufficient pressure is established in the compression side of each solid segment inside each compartment; and
a means of rotating the central shaft and thereby moving the baffles and the plate in a back and forth rotational oscillation to create relative movement between the baffles against the solid segments such that during rotation in one direction, fluid is admitted into each radial compartment in the admission side of each solid segment and fluid is simultaneously discharged thereout from the compression side of each solid segment.
17. An apparatus as characterised in claim 16 further including a drive portion supporting a rotatably driveable shaft in operable communication with the central shaft.
18. An apparatus as characterised in claim 17 wherein said drive portion includes an electric motor for rotating said driveable shaft.
19. An apparatus as characterised in claim 17 wherein said means of oscillating the baffles and plate is in the form of a cam mechanism adapted to translate the rotatable motion of the drivable shaft into a back and forth oscillation movement of the central shaft.
20. An apparatus as characterised in claim 16 wherein when one of said adjacent baffles moves up against one edge of a corresponding solid segment, the baffle is compressing fluid in the compression side, and the admission side of the solid segment is admitting fluid therein by virtue of the adjacent baffle moving away from the opposed edge of the solid segment and the intermittent holes of the plate having aligned over the corresponding inlet aperture and thereby allowing the admission of fluid therein.
21. An apparatus as characterised in claim 20 wherein each solid segment includes elongated recess at least partially extending into the depth of said segment at an inlet end thereof, wherein each of the recesses is located on an opposing edge of the solid segment to thereby form a recess pair associated with each solid segment which are substantially aligned with corresponding inlet aperture pairs.
22. An apparatus as characterised in claim 20 wherein each solid segment includes an elongated recess at least partially extending into the depth of said segment at an outlet end thereof, wherein each of the recesses is located on an opposing edge of the solid segment to thereby form a recess pair associated with each solid segment which are substantially aligned with corresponding outlet hole pairs.
23. An apparatus as characterised in claim 21 wherein the recesses of the solid segments are substantially conical in configuration.
24. An apparatus as characterised in claim 22 wherein the recesses of the solid segments are substantially conical in configuration.
25. An apparatus as characterised in claim 16 wherein the inlet apertures are a series of apertures extending through a covering plate associated with the chamber inlet.
26. An apparatus as characterised in claim 25 wherein the outlet holes are a series of holes extending through a covering plate associated with the chamber exit, the exit covering plate being of similar dimension to that of the inlet covering plate.
27. An apparatus as characterised in claim 19 wherein said baffles are rotatably supported on said central shaft wherein the shaft by virtue of its structural arrangement with the cam mechanism will oscillate or swing back and forth over a defined degree of angle.
28. An apparatus as characterised in claim 27 wherein the degree of rotation of the back and forth oscillating movement between the baffles and the solid segments is twenty degrees.
The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.
1. A storm water pretreatment chamber comprising;
one or more curved filter sidewalls;
one or more curved water-impermeable sidewalls each independently connected to the one or more curved filter sidewalls;
wherein the one or more curved filter sidewalls and the one or more curved water-impermeable sidewalls form a debris and sediment trap,
wherein the one or more curved filter sidewalls are each in communication with the atmosphere and in position to release treated storm water from the debris and sediment trap into one or more storm water receiving features;
one or more chamber grates each having a first surface and a second surface, wherein each second surface of the one or more chamber grates is on or connected with the one or more curved filter sidewalls or the one or more curved filter sidewalls and the one or more curved water-impermeable sidewalls,
wherein the one or more chamber grates are in communication with the atmosphere and in position to receive untreated storm water and to collect one or more floating debris that does not pass through the one or more chamber grates;
one or more curved catch rails each independently connected to the one or more curved filter sidewalls or the one or more curved water-impermeable sidewalls to form an open top in the storm water pretreatment chamber,
wherein the one or more curved catch rails are configured to provide one or more openings directed away from the one or more storm water receiving features,
wherein the one or more curved catch rails each independently catch the one or more floating debris,
wherein the one or more curved catch rails are positioned above a level of one or more storm water conveyances;
wherein the open top in the storm water pretreatment chamber is positioned below the level of the one or more storm water conveyances, and
wherein the storm water pretreatment chamber has an opening between the one or more curved filter sidewalls, the one or more curved catch rails, and the one or more chamber grates that enables storm water to flow out of the debris and sediment trap and into the one or more storm water receiving features when the one or more curved filter sidewalls is clogged.
2. The storm water pretreatment chamber of claim 1, further comprising a base having a first surface and a second surface, wherein the first surface is connected to the ground adjacent the one or more storm water receiving features, wherein the second surface contacts the one or more curved filter sidewalls and the one or more curved water-impermeable sidewalls.
3. The storm water pretreatment chamber of claim 2, wherein the base comprises a water-impermeable base comprising concrete.
4. The storm water pretreatment chamber of claim 1, wherein the one or more curved water-impermeable sidewalls comprise one or more wood-plastic composite sheets.
5. The storm water pretreatment chamber of claim 1, wherein the one or more curved filter sidewalls comprise one or more filters.
6. The storm water pretreatment chamber of claim 5, wherein the one or more filters each independently comprise one or more plastic coated woven fiberglass screens, one or more rubber coated woven fiberglass screens, or one or more plastic and rubber coated woven fiberglass screens in an anodized aluminum frame.
7. The storm water pretreatment chamber of claim 5, wherein the one or more filters each independently comprise openings that are smaller than the openings in the one or more chamber grates.
8. The storm water pretreatment chamber of claim 1, further comprising one or more piers each supporting the one or more curved filter sidewalls, the one or more curved water-impermeable sidewalls, the one or more chamber grates, the one or more curved catch rails, or a combination thereof.
9. The storm water pretreatment chamber of claim 1, wherein the debris and sediment trap collects materials that are smaller than the openings of the one or more chamber grates and larger than the openings in the one or more curved filter sidewalls.
10. The storm water pretreatment chamber of claim 1, wherein the one or more chamber grates comprise one or more cement materials, one or more concrete materials, one or more stone materials, one or more brick materials, one or more wood-plastic composite materials, one or more metals, one or more cement fiberboard materials, one or more fiberglass materials, one or more pressure-treated wood materials, one or more plastic materials, or a combination thereof.
11. The storm water pretreatment chamber of claim 1, wherein the one or more chamber grates cover the debris and sediment trap or the debris and sediment trap and a space between the one or more curved filter sidewalls and the one or more curved catch rails adjacent to the one or more storm water receiving features.
12. The storm water pretreatment chamber of claim 1, wherein the one or more curved catch rails comprise one or more wood-plastic composite sheets, one or more metal sheets, one or more cement fiberboards, one or more fiberglass sheets, one or more pressure-treated wood planks, one or more plastic sheets, or a combination thereof.
13. The storm water pretreatment chamber of claim 12, wherein the one or more curved catch rails each independently comprise one or more wood-plastic composite sheets.
14. The storm water pretreatment chamber of claim 1, wherein the storm water pretreatment chamber comprises a circular chamber grate, a circular filter sidewall, and one circular catch rail.
15. The storm water pretreatment chamber of claim 14, wherein the circular catch rail is configured to provide an opening into the storm water pretreatment chamber opposite to one storm water receiving feature.
16. A circular storm water pretreatment chamber comprising;
a circularly-curved filter sidewall;
a circularly-curved water-impermeable sidewall connected to the circularly-curved filter sidewall,
wherein the circularly-curved filter sidewall and circularly-curved water-impermeable sidewall form a debris and sediment trap,
wherein the circularly-curved filter sidewall is in communication with the atmosphere and in position to release treated storm water from the debris and sediment trap into a storm water receiving feature;
a circular chamber grate having a first surface and a second surface,
wherein the second surface of the circular chamber grate is on or connected with the circularly-curved filter sidewall or the circularly-curved filter sidewall and the circularly-curved water-impermeable sidewall,
wherein the circular chamber grate is in communication with the atmosphere and in position to receive untreated storm water and to collect one or more floating debris that does not pass through the circular chamber grate;
a circularly-curved catch rail connected to the circularly-curved filter sidewall or the circularly-curved water-impermeable sidewall to form an open top in the circular storm water pretreatment chamber,
wherein the circularly-curved catch rail is configured to provide an opening into the circular storm water pretreatment chamber opposite from the storm water receiving feature,
wherein the circularly-curved catch rail catches the one or more floating debris,
wherein the circularly-curved catch rail is positioned above the level of a storm water conveyance;
wherein the open top in the circular storm water pretreatment chamber is positioned below the level of the storm water conveyance; and
wherein the circular storm water pretreatment chamber has an opening between the circularly-curved filter sidewall, the circularly-curved catch rail, and the circular chamber grate that enables storm water to flow out of the debris and sediment trap and into the storm water receiving feature when the circularly-curved filter sidewall is clogged.
17. The circular storm pretreatment chamber of claim 16, further comprising a base having a first surface and a second surface.
18. The circular storm pretreatment chamber of claim 17, wherein the first surface is connected to the ground adjacent the storm water receiving feature, and wherein the second surface contacts the circularly-curved filter sidewall and the circularly-curved water-impermeable sidewall.
19. The circular storm water pretreatment chamber of claim 17, wherein the base comprises a concrete slab.
20. A method of treating storm water comprising;
passing storm water through a storm water pretreatment chamber, wherein the storm water pretreatment chamber comprises:
one or more curved filter sidewalls;
one or more curved water-impermeable sidewalls each independently connected to the one or more curved filter sidewalls;
wherein the one or more curved filter sidewalls and the one or more curved water-impermeable sidewalls form a debris and sediment trap,
wherein the one or more curved filter sidewalls are each in communication with the atmosphere and in position to release treated storm water from the debris and sediment trap into one or more storm water receiving features;
one or more chamber grates each having a first surface and a second surface, wherein each second surface of the one or more chamber grates is on or connected with the one or more curved filter sidewalls or the one or more curved filter sidewalls and the one or more curved water-impermeable sidewalls,
wherein the one or more chamber grates are in communication with the atmosphere and in position to receive untreated storm water and to collect one or more floating debris that does not pass through the one or more chamber grates;
one or more curved catch rails each independently connected to the one or more curved filter sidewalls or the one or more curved water-impermeable sidewalls to form an open top in the storm water pretreatment chamber,
wherein the one or more curved catch rails are configured to provide one or more openings directed away from the one or more storm water receiving features,
wherein the one or more curved catch rails each independently catch the one or more floating debris,
wherein the one or more curved catch rails are positioned above a level of one or more storm water conveyances;
wherein the open top in the storm water pretreatment chamber is positioned below the level of the one or more storm water conveyances,
wherein the storm water pretreatment chamber has an opening between the one or more curved filter sidewalls, the one or more curved catch rails, and the one or more chamber grates that enables storm water to flow out of the debris and sediment trap and into the one or more storm water receiving features when the one or more curved filter sidewalls is clogged; and
separating the floating debris and the sediment.