DISTRIBUTED DEUTERIUM-LITHIUM ENERGY APPARATUS

Abstract: Method and apparatus for production of thermal energy through electrolyte ionization of heavy water using a lithium-6 OD electrolyte, with dissolved deuterium gas in the heavy water, and pumping the ionized heavy water over a bed of palladium metal particulates (29), foils (47) or porous baffles (17) to collect both deuterium and lithium-6 ions to facilitate ion-ion combination. No electrodes are used to achieve the fusion process. The container is a closed system such as a loop (11) or helix (51) to permit continuous cycling of the ionized heavy water over the palladium ion collector again and again to absorb the maximum number of ions and to reuse the kinetic energy of the pumped water flow and the thermal energy added to the heavy water. Porous or perforated baffles are used to contain the palladium accumulator structure when it is in the form of particulates or loose components. Perforated baffles made of palladium may also be used as the accumulator structure.

Description: Description Distributed Deuterium-Lithium Energy Apparatus Technical Field This invention relates to apparatus for produc¬ tion of thermal energy. Background Art Electrically charged particles such as bare electrons or protons or muons are known to be Fermions and to obey Fermi-Dirac statistics. Two like elementary charged particles, such as two protons, have like elec¬ trical charges so that they tend to repel one another. Further, two like Fermions obey the Pauli exclusion prin¬ ciple so that, if the particles possess identical quantum numbers, the two identical particles will not occupy the same region of space at the same time, even if the iden¬ tical particles have no net electrical charge. The com- bination of two Fermions in a nucleus, such as a neutron and a proton, which together form the nucleus of a deute¬ rium atom or ion, behaves as another type of particle, called a Boson, which obeys Bose-Einstein statistics rather than Fermi-Dirac statistics. This has been dis- cussed recently by K. Birgitta haley, a theoretical chemist speaking at the Dallas meeting of the American Chemical Society in April, 1989. Particles that obey Bose-Einstein statistics ("Bosons") tend to accumulate in the same region of space under some circumstances, in preference to staying apart as like Fermions tend to do. This tendency of Bosons to accumulate in the same region of space is indicated by a quantum thermodynamic expression for the pressure in a system of Bosons developed and discussed in Statistical Physics by L.D. Landau and E.M. Lifshitz, Addison-Wesley Co., 1958, p. 159. In this expression for pressure, the pressure developed by a system of Bosons is less than the pressure developed by a system of particles that are neither Fermions nor Bosons at the same concentration and temperature. This suggests that the Boson particles ex¬ perience a modest attraction for one another that has its origin in quantum mechanical forces. Whaley has speculated that, because of the quantum effect features of particles such as deuterium nuclei, the natural repulsion between two such nuclei can be blocked inside a crystal so that the deuterium ions are not held apart by the combination of strong coulomb forces and quantum forces. Some workers speculate that, because deuterium nuclei might be brought very close to¬ gether inside a crystal, the deuterium nuclei could com¬ bine in a fusion process at enhanced rates, as compared to the infinitesimal rates observed at ordinary fluid densities for deuterium nuclei. Lithium ions have been widely used in the elec¬ trolyte added to heavy water in certain experiments in¬ volving palladium by Pons and Fleischmann and many other researchers. The electrolyte used most commonly is LiOD, wherein most or all of the hydrogen in LiOH is replaced by deuterium. Most reports of generation of heat by these experiments indicated that the LiOD electrolyte had been used. In March, 1990, several physicists speculated that the excess enthalpy generated may come from the re- action Li 6 + D > 2 He 4 + 22.4 MeV. The excess energy of 22.4 MeV is carried by the kinetic energy of the two helium nuclei, and is dissipated in the host lattice used, which is usually palladium. It is known that lithium reacts with hydrogen to form LiH, in which the hydrogen acts as a negative ion. This is evidenced by the fact that when this sub¬ stance is electrolyzed the hydrogen is liberated at the anode. Therefore, it would be expected that the close proximity of lithium-6 ions and deuterium ions within the palladium lattice could lead to a strong chemical bond with the deuterium ions being negative and lithium-6 ions being positive. In contrast, in the case of two deuter- ons the coulomb force tends to push them apart. It is known that some metals will readily ac¬ cept substantial amounts of hydrogen or its isotopes into the interior of such metals and that such metals can be used to filter hydrogen isotopes from a stream of other substances. In U.S. Pat. No. 4,774,065, granted Septem¬ ber 27, 1988 to R. Penzhorne et al., it is disclosed that a hot palladium membrane will filter tritium and deuteri- um from CO molecules. The palladium membrane disclosed by Penzhorne et al. was used to filter exhaust gas from a fusion reactor. However, even where a metal such as palladium is chosen as an accumulation structure ("accumulator") for deuterium ions ("deuterons") or lithium ions ("li- thons") , those deuterium ions or lithium ions that pick up electrons or other negatively charged particles at the accumulator will no longer behave as Bosons and may not manifest the desirable feature of high density accumula- tion within the palladium interior or lattice. Also, the lithons that pick up an electron at the palladium cathode in the prior art can deposit as lithium atoms on the pal¬ ladium which can interfere with the fusion process. A number of researchers have reported excess power or excess energy generation in an electrolysis cell similar to that used in the Fleischmann-Pons cell and publicly announced March 23, 1989. These cells comprise a palladium cathode, usually a platinum helical anode, high purity heavy water, and a Li 6 0D electrolyte. In these cells, deuterium gas and oxygen gas are generated by the electrolysis process. The input power is the cur¬ rent flow through the cell multiplied by the voltage across the cell and the output power is in the form of thermal energy. Owing to the use of electrolytic action to make the cell operate, deposits are built up on the palladium cathode from materials from the anode and also from the lithium in the electrolyte. Such deposits alter the functioning of the cathode as an accumulator of deuterons and lithons. Dendrites may also build up on the cathode, leading to high local electric fields and reactions lead¬ ing to the production of the hydrogen isotope tritium. It is known from the prior art that ordinary water containing ions can have the ions removed from the water by passing the water through a bed of resin partic¬ ulates that are sometimes called ion exchange resins. This is the conventional way of producing deionized water for industrial use. This is an example of how ions may be removed from water without the use of an electrolytic cell. One object of this invention is to provide an apparatus to facilitate lithium-6 ion and deuterium ion fusion without the use of electrodes, which are costly, introduce contamination, and place restrictions on scal¬ ing up the apparatus to very high power generation. Another object of the invention is to provide an apparatus which imparts a substantial and uniform ki- netic energy to lithium ions and deuterium ions for com¬ bining in palladium without the use of applied voltage sources. Summary of the Invention These objects are met by apparatus that en¬ hances deuterium and lithium ion formation in a liquid containing high purity heavy water and dissolved deuteri¬ um gas. The apparatus enhances deuterium ion and lithium ion formation by use of an LiOD electrolyte containing a substantial amount of lithium-6. The liquid is placed in a horizontal tube made of a chemically passive material such as glass, ceramic, or plastic. The tube is designed to prevent light water in the atmosphere from entering. The tube is filled with particulates of a material that is permeable to deuterium ions and lithium-6 ions, such as palladium or an alloy of palladium. The tube may be formed into a loop or closed helix system. Porous or perforated baffles are used to contain the palladium particulates and prevent them from simply moving with the heavy water. The baffles are po¬ rous sheets or non-porous perforated sheets with holes smaller than the particulates so the particulates are contained between two such baffles. The baffles thus divide the tube or helix into a number of sections. In one embodiment, the palladium particulates are piled one on the other just as sand would fill the tube. In anoth¬ er embodiment, the palladium particulates are mixed with ceramic or silicon dioxide particulates, so, in general, the palladium particulates are not necessarily in contact with one another. In a third embodiment, the palladium particulates are coated with a water-permeable material or are each inserted into a cap so that half of the par- ticulate is exposed and the other half is hidden. In a fourth embodiment, the particulates are bonded to polymer sheets on both sides or one side like sandpaper and rolled up and inserted into the tube. In a fifth embodi¬ ment, the porous or perforated baffles containing palla- dium act as ion accumulators. In a sixth embodiment, a random distribution of palladium foil acts as a distrib¬ uted ion accumulator. The ionized heavy water with dissolved deuteri¬ um gas and containing both lithium-6 and deuterium ions, is pumped through the tube, thereby contacting and pass¬ ing over the palladium accumulator structure. The ion¬ ized heavy water may flow over the palladium accumulator as a laminar flow or a turbulent flow to achieve optimum performance. The deuterium ions and lithium ions both travel at the same velocity, which may be controlled by the pump pressure. The ion velocities can be equal to or thousands of times higher than those in the Fleischmann- Pons cell. When a laminar flow is used, the deuterium and lithium ion velocity and kinetic energy distribution would be relatively small. Both the deuterium and lithium-6 ions will be absorbed into the ion permeable palladium accumulator structure. When palladium particu¬ lates are used, the particulates charge up from the absorbed positive ions, the 0D~ radical ions will be at¬ tracted to them and through surface contact tend to bal¬ ance out the charges permitting more and more of the two types of ions to be absorbed by the particulates. By this means, the palladium particulates become deuterated and may be referred to as β palladium. This process may take place during operation of this tubular energy cell or the particulates may be pre-charged in another cell first. Preferably, at least 65 percent of the intersti- tial sites in the palladium should be filled with deute¬ rium. The Li ions and the deuterium ions are Bosons. Thus, they need not satisfy the Pauli exclusion principle inside the palladium lattice and can come very close to¬ gether, enhancing the chances they will fuse. Fusing of ions within the palladium creates excess energy in the form of thermal energy that may be removed by the liquid. An external heat exchanger may capture this energy. Since lithium-6 and deuterium are consumed during the process of producing the thermal energy they must be re- plenished for the process to continue. A preferred way of replenishing then is by adding Li 6 0D and deuterium gas, D 2 . The container is a system such as a loop or helix to permit continuous cycling of the ionized heavy water again and again to absorb the maximum of ions and to reuse the kinetic energy of the pumped water flow and the thermal energy added to the heavy water. It may also be a linear system for some applications. Brief Description of the Drawings Fig. 1 is a simplified perspective view of a distributed reaction apparatus in accord with the present invention. Fig. 2 is a sectional view of the apparatus of Fig. 1 taken along lines 2-2. Figs. 3 and 4 are top views of passive baffles or ion accumulator baffles in accord with the present in¬ vention. Fig. 5 is a perspective view of a slurry accumulator structure in accord with the present inven¬ tion. Figs. 6 and 7 are sectional views of insulated particulate accumulator structures in accord with the present invention. Fig. 8 is a sectional view of a helical accumu¬ lator structure. Fig. 9 a perspective view of small spiral accu- mulator structures. Fig. 10 is a helical containment vessel for thermal reactions in accord with the present invention. Best Mode for Carrying Out the Invention With reference to Fig. 1, a toroidal contain¬ ment vessel 11 is shown housing a circulating fluid indi¬ cated by arrows 13. Containment vessel 11 is designed to prevent light water in the atmosphere from entering it. The fluid is driven by a pump 15 within the containment vessel. The fluid is concentrated heavy water ionized by lithium deuteroxide, LiOD. Deuterium gas is bubbled into the heavy water and dissolved in it. The D-D gas pro¬ vides a source of negative deuterium ions. In order to create thermal energy in accord with the present inven- tion, it is necessary to pack lithium and deuterium into a tight crystal lattice available in a palladium struc¬ ture known as an accumulator. The packing occurs over a period of time in which the moving ionized fluid comes into contact with the accumulator structure with lithium ions and deuterium ions packing lattice interstices over a number of hours. The affinity of negative deuterium ions for positive lithium ions allows the ions to come very close together, closer than the usual distance where coulomb repulsion would prevent further approach. In this situation, there is a probability of lithium and deuterium nuclei fusing, which ultimately happens, yield¬ ing energetic helium-4. The helium quickly dissipates its energy to the surrounding environment which yields thermal energy. There are various possibilities for accumulator structures. With reference to Fig. 2, the toroidal con- tainment vessel 11 is seen to have a plurality of baffles 17. All of the baffles are porous, except for one, baf¬ fle 19, which may be open or closed, which serves to separate an inlet port 21 from an outlet port 23. Pump 15 serves to establish flow from the inlet port out to the outlet port. With a pump, kinetic energy may be im¬ parted to ions so that flow rates may exceed those in a Fleischmann-Pons electrochemical cell. The fluid circu¬ lates around the toroid until its temperature rises to the desired level then baffle 19 may be closed. Once a fluid reaches the desired temperature, the fluid is re¬ circulated after passing through a heat exchanger 25. Alternative baffle structures are shown in Figs. 3 and 4. In Fig. 3, the baffle 17 has an array of apertures 27 which have the advantage of allowing a greater fluid flow at reduced pressure. On the other hand, in the baffle structure of Fig. 4, apertures are pinhole sized, giving rise to higher pressure in the con¬ tainment vessel. The size and spacing of pinholes should be adjusted so that desired flow rates may be achieved without undue pressure. These baffles may be passive and contain accumulator components between them. They may also be active ion accumulators. In this case, the accu¬ mulator contains palladium having a thickness so that the palladium accumulator will not readily rupture. Fig. 5 shows an alternate accumulator structure wherein metallic palladium particulates 29 form a slurry which is resident in the toroidal accumulator represented by section 31. The slurry has the advantage of present¬ ing a greater surface area to the heavy water. If a slurry is used, the pinhole baffle structure previously described is used to contain the particulates. The pal¬ ladium particulates are permeated by lithium and deuteri¬ um, just as the palladium baffle structures. If the heavy water flow is increased, the upper layers of the slurry, by sheer forces, exposing fresh underlayers which become permeated with lithium and deuterium. Eventually, the entire slurry becomes sufficiently permeated that fusion reactions begin to yield measurable amounts of heat. Fig. 6 shows palladium particles 33 coated with a nonconductive water porous polymer 35 which is permeable by lithium and deuterium ions. Such a polymer may be gelatin or polyvinyl alcohol. Such a coating reduces the contamination of the palladium surface and exposes the entire surface for ion accumulation. The palladium par¬ ticles in either coated or uncoated form may be mixed with nonreactive ceramic particles or silicon dioxide particles. The sizes of the particles and their ratios are selected for optimum economic design, that is, maxi¬ mizing the ratio of ion absorption rate to dollar invest¬ ment. In Fig. 7, the particles 37 have a partial pol¬ ymer coating 39 about approximately 50% of the surface area. This provides a balance between uncoated particles and fully coated particles and may be used for economic design optimization in conjunction with other particles. Fig. 8 shows and alternative accumulator struc¬ ture wherein a polymer sheet 41 is housed in the contain- ment structure 43. The sheet has a plurality of palladi¬ um particulates 45 adhered to the surface, in the fashion of rough sandpaper. The sandpaper-like structure is rolled into a spiral which fits into the containment structure with the center of the spiral parallel or co- linear with the axis of the toroidal confinement struc¬ ture. As an alternative to a single spiral occupying sections of the toroidal confinement vessel, Fig. 9 shows that small spiral strips 47 also having palladium parti¬ cles adhered to one or both sides in a sandpaper-like texture, may be stuffed into the containment vessel. Figure 9 also represents rolled-up palladium foils. With reference to Fig. 10, a helical contain¬ ment vessel 51 is shown, which is similar in construction to the apparatus shown in Figs. 1 and 2 except that an extended path is provided. Vessel 51 is designed to pre¬ vent light water in the atmosphere from entering it. The containment vessel includes an inlet 53 where primarily heavy water enters the apparatus for flow in the direc¬ tion of the arrow A under the influence of a pump in the removable section 55. Both linear sections and curved sections are employed. Within the containment vessel is one or more of the palladium accumulator structures previously described including baffles, palladium parti¬ cles in a slurry, coated or semicoated palladium parti¬ cles or spiral sheets with palladium particles adhering to major surfaces of the sheets. A controllable baffle 57 separates inlet from outlet 59 and a heat exchanger 61 is provided to remove thermal energy once the desired reaction occurs and desired temperature is reached. The number of spiral loops and the length of the path is se¬ lected to increase the amount of power output to a de¬ sired level, while still using a single heat exchanger. In both the embodiments of Figs. 2 and 10, no electrodes are necessary in the apparatus. Since lithium-6 and deuterium are consumed dur¬ ing the process of producing the thermal energy they must be replenished for the process to continue. A preferred way of replenishing them is by adding Li 6 0D and deuterium gas, D 2 - An alternative way of adding D 2 would be to use a section of the embodiments shown in Figs. 2 and 10 for an electrolytic cell that produces D 2 from the heavy wa¬ ter for replenishment and permits the oxygen to escape into the atmosphere.

Claims: Claims 1. Distributed apparatus for production of thermal ener¬ gy through electrolyte ionization of heavy water compris¬ ing, a container containing primarily high purity liquid heavy water and containing dissolved D 2 and an electrolyte containing Li 6 0D; an ion accumulator structure disposed in the container capable of absorbing deuterium ions and lithium ions; and a means for creating relative motion between the ionized heavy water and the ion accumulator struc¬ ture. 2. Apparatus of claim 1 wherein said ion accumulator structure comprises particulates containing palladium. 3. Apparatus of claim 1 wherein said ion accumulator structure comprises particulates containing palladium that are mixed with particulates of ceramic or silicon dioxide. 4. Apparatus of claim 1 wherein said ion accumulator structure comprises particulates containing palladium coated with gelatin or polyvinyl alcohol. 5. Apparatus of claim 1 wherein said ion accumulator structure comprises particulates containing palladium which are partially covered by a polymer. 6. Apparatus of claim 1 wherein said ion accumulator structure comprises particulates containing palladium that are bonded to a polymer sheet. 7. Apparatus of claim 1 wherein said ion accumulator structure comprises foil containing palladium. 8. Apparatus of claim 1 wherein said ion accumulator structure comprises perforated baffles containing palla¬ dium. 9. Apparatus of claim 1 wherein said container is a hol¬ low tube which is linear or curved. 10. Apparatus of claim 1 wherein said container is a hollow tube formed into a closed loop. 11. Apparatus of claim 1 wherein said container is a hollow tube formed into a helix. 12. Apparatus of claim 1 wherein said means for creating relative motion is a water pump. 13. Distributed apparatus for production of thermal en¬ ergy through electrolyte ionization of heavy water com¬ prising, a closed container containing primarily high purity liquid heavy water and containing dissolved D 2 and an electrolyte containing Li 6 0D; an ion accumulator structure disposed in the container capable of absorbing deuterium ions and lithi¬ um-6 ions; a means for pumping the ionized heavy water through and in contact with the ion accumulator struc¬ ture, and heat exchanger means for removing energy from the container. 14. Apparatus of claim 13 wherein said ion accumulator structure comprises particulates containing palladium. 15. Apparatus of claim 13 wherein said ion accumulator structure comprises particulates containing palladium that are mixed with particulates of ceramic or silicon dioxide. 16. Apparatus of claim 13 wherein said ion accumulator structure comprises particulates containing palladium coated with gelatin or polyvinyl alcohol. 17. Apparatus of claim 13 wherein said ion accumulator structure comprises particulates containing palladium which are partially covered by a polymer. 18. Apparatus of claim 13 wherein said ion accumulator structure comprises particulates containing palladium that are bonded to a polymer sheet. 19. Apparatus of claim 13 wherein said ion accumulator structure comprises perforated baffles containing palla¬ dium. 20. Apparatus of claim 13 wherein said container is a hollow tube which is linear or curved. 21. Apparatus of claim 13 wherein said container is a hollow tube formed into a closed loop. 22. Apparatus of claim 13 wherein said container is a hollow tube formed into a helix. 23. A method of production of energy through accumula¬ tion of deuterium ions and lithium ions comprising the steps of: containing primarily high purity liquid heavy water in a chamber; dissolving deuterium gas, D 2 , in the heavy wa¬ ter; ionizing the heavy water with an electrolyte containing Li 6 OD; flowing the ionized heavy water past an ion accumulator structure material capable of absorbing both deuterium ions and lithium-6 ions; removing thermal energy from the ion accumula¬ tor structure through the heavy water. 24. The method of claim 23, further comprising the step of choosing said ion accumulator structure material from a class of materials consisting of palladium, palladium composite or palladium alloy.

Inventors: DREXLER JEROME, DREXLER, JEROME
Applicants: DREXLER JEROME, DREXLER, JEROME
Application year: 1991
Main classification: G21B1
IPC codes: G21B3