Apparatus for delivering electromagnetic energy into a solution

• US 8,992,848 B2
• Filed: 04/01/2009
• Issued: 03/31/2015
• Est. Priority Date: 10/31/2008
• Status: Active Grant

• Current Assignee: Austin Darragh, David Darragh
• Original Assignee: Austin Darragh, David Darragh
• Inventors: Darragh, David, Darragh, Austin
• Primary Examiner(s): Sasaki, Shogo
• Application Number:
  US13/126,630
• Publication Number:
  US 20110268614A1
• Time in Patent Office: 2,190 Days
• Field of Search: 422186-18604, 422/186.29, 210/243, 210/748.01, 204/106, 204/164
• US Class Current: 422/186
• CPC Class Codes: B01J 19/087 employing electric or magnetic energy
• CPC Class Codes: B01J 19/12 employing electromagnetic waves
• CPC Class Codes: B01J 19/129 Radiofrequency
• CPC Class Codes: B01J 2219/0803 employing electric or magnetic energy
• CPC Class Codes: B01J 2219/0871 Heating or cooling of the reactor
• CPC Class Codes: B01J 2219/0877 Liquid
• CPC Class Codes: B01J 2219/1203 Incoherent waves
• CPC Class Codes: C02F 1/02 by heating methods of steam generation F22B; preheating boiler feed-water or accumulating preheated boiler feed-water F22D
• CPC Class Codes: C02F 1/48 with magnetic or electric fields C02F1/46 takes precedence
• CPC Class Codes: C02F 2201/483 using coils

Abstract

The present invention relates to a delivery apparatus for delivering electromagnetic energy into a solution. The delivery apparatus comprises a coil means arranged within an outer housing for delivering a magnetic field into the solution, a voltage assembly means coupled to the coil means for delivering an electric field into the solution, and connection means for delivering an electromagnetic signal to the coil from electromagnetic signal generation circuitry contained within the housing. The arrangement of the present invention confers significant physical stability on the delivery apparatus and ensures that heat generated by heat generating components of the apparatus is conducted away from the electromagnetic signal generation circuitry so that the apparatus can be operated continuously.

Claims

1. A delivery apparatus (104) for delivering electromagnetic energy into a solution (102), the delivery apparatus (104) comprising:

an outer housing (112);

electromagnetic signal generation circuitry (170) contained within the housing (112) and having heat generating components (171);

a coil (124) arranged within the housing (112) to deliver a magnetic field into the solution (102);

a voltage assembly (126) coupled to the coil (124) to deliver an electric field into the solution (102), the voltage assembly (126) comprising a central voltage probe (150), a fluid chamber (152) surrounding the central voltage probe (150) and a non-conductive hollow outer housing (154);

a connecting device (122) extending from the coil (124) in order to couple the coil (124) to the electromagnetic signal generation circuitry (170) so as to allow an electromagnetic signal generated by the electromagnetic circuitry (170) to be delivered to the coil (124);

characterised in that the delivery apparatus (104) further comprises;

a heat conducting device arranged within the outer housing (112) and comprising a sleeve (130) and a mounting plate (138) arranged within the sleeve (130), wherein the sleeve (130) and the mounting plate (138) are integrally formed and wherein the sleeve (130) is arranged to at least partially enclose the coil (124) so as to shield the coil (124) from electrostatic fields, and

wherein the heat conducting device is in contact with the heat generating components (171) of the electromagnetic signal generation circuitry (170) so as to conduct heat generated by the heat generating components (171) away from the electromagnetic signal generation circuitry (170).

2. The delivery apparatus (104) according to claim 1 wherein the sleeve (130) is fabricated from a metal chosen from the group comprising copper, aluminium and a metal alloy.

3. The delivery apparatus (104) according to claim 1 wherein the mounting plate (138) is fabricated from the same material as the sleeve (130).

4. The delivery apparatus (104) according to claim 1 wherein the coil (124) comprises a conductive helical coil having a plurality of rungs (125), whereby the helical coil extends around a central support core (140) which extends from the heat resistant plate (132), wherein the central support core (140) comprises a tube (142) mounting a plurality of coil support fins (144), each fin (144) having a plurality of slots or groves (146) profiled to hold at least some of the rungs (125) substantially rigid.

5. The delivery apparatus (104) according to claim 4 wherein the voltage assembly (126) is mounted via a conductive stand-off (127) on a support rod which extends through the central core (140), and wherein the conductive stand-off (127) is screw threaded for engagement with a complimentary screw thread on the voltage probe (150).

6. The delivery apparatus (104) according to claim 1 wherein the housing (112) comprises a releasable closure or lid (118).

7. The delivery apparatus (104) according to claim 6 wherein the housing (112) and closure (118) are fabricated from a non-conductive material.

8. The delivery apparatus (104) according to claim 4 wherein the electromagnetic signal generation circuitry (170) is configured to generate constant un-pulsed signals.

9. A delivery apparatus (104) according to claim 1 wherein the delivery apparatus (104) further comprises a feedback voltage aerial (180) and control circuitry (200), wherein the control circuitry (200) is configured to drive the electromagnetic signal generation circuitry (170) and wherein the feedback voltage aerial (180) is configured to pick up a signal at the voltage assembly (126) and convert it to a feedback voltage which is transmitted to the control circuitry (200), and wherein the control circuitry (200) comprises a plurality of alarms that signal audibly and/or visibly when the feedback voltage is not within a predefined range.

10. The delivery apparatus (104) according to claim 9 wherein the control circuitry (200) is coupled to a telemetry device means for transmitting data relating to operating parameters associated with the delivery apparatus (104), wherein the operating parameters include a malfunction of the delivery apparatus (104) and whether the delivery apparatus (104) is powered on and off.

11. The delivery apparatus (104) according to claim 10 wherein the telemetry device is operative to a control switching circuit in the control circuitry (200) to control the on and off functioning of the delivery apparatus (104), whereby the delivery apparatus (104) is adapted to be switched on and off by transmitting an electronic signal to the telemetry device.

12. The delivery apparatus (104) according to claim 1 wherein the mounting plate (138) comprises a first side and an opposite second side, the delivery apparatus (104) further comprising:

a heat resistant plate (132) located on the first side of the mounting plate (138), wherein the coil (124) is arranged on the heat resistant plate (132); and

a spacer plate (172) located on the opposite second side of the mounting plate (138) and having at least one hole (173), the electromagnetic signal generation circuitry (170) being arranged on the spacer plate (172) so the heat generating components (171) of the electromagnetic signal generation circuitry (170) extend through the at least one hole (173) and contact the mounting plate (138), wherein the spacer plate (172) prevents the electromagnetic signal generation circuitry (170) from shorting against the mounting plate (138).

13. The delivery apparatus (104) according to claim 7 wherein the non-conductive material is polyvinylchloride (PVC).

14. The delivery apparatus (104) according to claim 11 wherein the electronic signal is a text message.

15. A delivery apparatus (104) for delivering electromagnetic energy into a solution (102), the delivery apparatus (104) comprising:

an outer housing (112);

electromagnetic signal generation circuitry (170) within the housing (112) and having heat generating components (171);

a coil (124) arranged within the housing (112) to deliver a magnetic field into the solution (102);

a voltage assembly (126) coupled to the coil (124) to deliver an electric field into the solution (102), the voltage assembly (126) comprising a central voltage probe (150), a fluid chamber (152) surrounding the central voltage probe (150) and a non-conductive hollow outer housing (154);

a connecting device (122) extending from the coil (124) in order to couple the coil (124) to the electromagnetic signal generation circuitry (170) so as to allow an electromagnetic signal generated by the electromagnetic signal generation circuitry (170) to be delivered to the coil (124);

a heat conducting device arranged within the outer housing (112) to conduct heat generated by the heat generating components (171) away from the electromagnetic signal generation circuitry (170), the heat conducting device comprising a sleeve (130) and a heat sink mounting plate (138) arranged within the sleeve (130), the heat sink mounting plate (138) having a first side and an opposite second side, the sleeve (130) and the heat sink mounting plate (138) being integrally formed, the sleeve (130) being arranged to at least partially enclose the coil (124) so as to shield the coil (124) from electrostatic fields;

a heat resistant plate (132) located on the first side of the heat sink mounting plate (138), wherein the coil (124) is arranged on the heat resistant plate (132); and

a spacer plate (172) located on the opposite second side of the heat sink mounting plate (138) and having at least one hole (173), the electromagnetic signal generation circuitry (170) being arranged on the spacer plate (172) so the heat generating components (171) of the electromagnetic signal generation circuitry (170) extend through the at least one hole (173) and contact the heat sink mounting plate (138) so that the heat sink mounting plate (138) draws heat away from the electromagnetic signal generation circuitry (170), and wherein the spacer plate (172) prevents the electromagnetic signal generation circuitry (170) from shorting against the mounting plate (138).