Liquid sealed vane oscillators

Claim 2

A liquid sealed oscillator, comprising a stationary oscillation space, constituted by a sector of an annular cavity, having a rectangular cross-section in a plane through the axis of the cavity and vertically oriented plane of symmetry, which cavity contains a sealing liquid, two opposing pressure chambers on top of said oscillator, said chambers having parts communicating with the outside and a free-body vane of smaller included sector angle than the said oscillation cavity and having its surface in closely matching relationship with the inner facing wall of the said cavity, wherein the said vane is symmetrically oscillatable with the sealing liquid in the narrow gaps between the vane and the cavity walls providing a liquid dynamic seal across the vane relative to said two opposing pressure chambers.

Claim 3

An oscillator as in claim 1, wherein the part of the surface of the vane that is adjacent and moves in matching relationship with the wall of the oscillation cavity, is provided with serrations, preferably bidirectional, in order to enhance the liquid dynamic seal.

Claim 4

An oscillator as in claim 1, wherein the sealing liquid is electrically conductive and which comprises means for applying a magnetic field across said sealing liquid in the gaps between the vane and the inner wall of the vessel, whereby the said sealing liquid is held in place by Magneto Liquid Dynamic effect.

Claim 5

A liquid sealed oscillator, comprising an oscillation space, constituted by a sector of an annular cavity, having a rectangular cross-section in a plane through the axis of the cavity and vertically oriented plane of symmetry which cavity contains a sealing liquid, and a vane of smaller included sector angle than the said oscillation cavity and having is surface in closely matching relationship with the inner facing wall of the said cavity, wherein the said vane is symmetrically oscillatable with the said liquid in the narrow gaps between the vane and cavity walls providing a liquid dynamic seal and wherein the vane is fully submerged in the sealing liquid, however, the latter does not completely fill the oscillation cavity, thus, effectively leaving two separate, symmetrical pressure chambers above the free surface of the liquid, and the said pressure chambers containing pressure fluid, preferably inert gas.

Claim 6

A liquid sealed oscillator, comprising an oscillation space, constituted by a sector of an annular cavity, having a rectangular cross-section in a plane through the axis of the cavity and vertically oriented plane of symmetry which cavity contains a sealing liquid, and a vane of smaller included sector angle than the said oscillation cavity and having is surface in closely matching relationship with the inner facing wall of the said cavity, wherein the said vane is symmetrically oscillatable with the said liquid in the narrow gaps between the vane and cavity walls providing a liquid dynamic seal and wherein the vane is fully submerged in the sealing liquid, however, the latter does not completely fill the oscillation cavity, thus, effectively leaving two separate, symmetrical pressure chambers above the free surface of the liquid, and the said pressure chambers containing pressure fluid, preferably inert gas.

Claim 7

An oscillator as in claim 1, having a buffer liquid interposed between the sealing liquid and the pressure fluid.

Claim 8

A liquid sealed oscillator, comprising an oscillation space, constituted by a sector of an annular cavity, having a rectangular cross-section in a plane through the axis of the cavity and vertically oriented plane of symmetry which cavity contains a sealing liquid, and a vane of smaller included sector angle than the said oscillation cavity and having is surface in closely matching relationship with the inner facing wall of the said cavity, wherein the said vane is symmetrically oscillatable with the said liquid in the narrow gaps between the vane and cavity walls providing a liquid dynamic seal and wherein the oscillating vane is provided with positive means for suspending it in the oscillator vessel.

Claim 9

A liquid sealed oscillator, comprising an oscillation space, constituted by a sector of an annular cavity, having a rectangular cross-section in a plane through the axis of the cavity and vertically oriented plane of symmetry which cavity contains a sealing liquid, and a vane of smaller included sector angle than the said oscillation cavity and having is surface in closely matching relationship with the inner facing wall of the said cavity, wherein the said vane is symmetrically oscillatable with the said liquid in the narrow gaps between the vane and cavity walls providing a liquid dynamic seal and wherein the oscillating vane is provided with positive means for suspending it in the oscillator vessel.

Claim 10

A mechanical power oscillator as in claim 6 having shaft means for exchanging mechanical power with other driven or driving devices.

Claim 11

A power oscillator as in claim 1, comprising inner and outer rings acting as ring electrodes, sealing liquid and vane being electrically conductive, the lateral cavity walls wetted by the sealing liquid being electrically insulated relative to said liquid and to said ring electrodes and the pressure fluid being dielectric; and further comprising means for applying a steady magnetic field perpendicular across the radial extent of said vane, whereby when an alternating electric current from an external power source is applied to said electrodes said vane walls will be caused to oscillate, and when pressure pulsations are caused in the pressure fluid chambers and alternating current is generated which may be conducted through an external load linking said electrodes.

Claim 12

A power oscillator as in claim 8, wherein the internal armature conducting electric current, including the vane and electrodes, are made from ferromagnetic material and there is provided an external flux return path, also of ferromagnetic material, all of which elements form a magnetic circuit having only small non-ferromagnetic gaps coinciding with the lateral liquid gaps, arising between the vane and lateral sidewalls.

Claim 13

A power oscillator as in claim 8, wherein there is integrated an electric transformer in which the internal armature conducting electric current between the electrodes forms a single turn primary of said transformer, the linked flux of which is toroidally oriented.

Claim 14

A multi-stage power oscillator, comprising a number of oscillator stages as in claim 8, all the stages being electrically in series and the pressure chambers of the respective stages being integrated.

Claim 15

A liquid sealed oscillator device for carrying out essentially isothermal expansion and/or compression processes comprising an oscillator, said oscillator having pressure chambers and having an oscillator cavity containing a liquid, a heat exchanger, and means for transferring buffer or sealing liquid, such liquid becoming heat transfer liquid, from said liquid contained in the oscillator cavity to the respective pressure chambers of the said oscillator via said heat exchanger, and means for atomizing said liquid within the chamber to which it is transferred and creating an intimate mixture of said liquid with the pressure fluid handled by the oscillator.

Claim 16

A liquid sealed oscillator device for carrying out essentially isothermal expansion and/or compression processes comprising an oscillator, said oscillator having pressure chambers and having an oscillator cavity containing a liquid, a heat exchanger, and means for transferring buffer or sealing liquid, such liquid becoming heat transfer liquid, from said liquid contained in the oscillator cavity to the respective pressure chambers of the said oscillator via said heat exchanger, and means for atomizing said liquid within the chamber to which it is transferred and creating an intimate mixture of said liquid with the pressure fluid handled by the oscillator.

Claim 17

An oscillator device according to claim 12, wherein said oscillator device has a double-sided vane and a hollow double-sided vane axis and in which the heat transfer liquid drains into two local and opposite channels provided in said vane, then passes through openings, having matching location and size relationships to said channels in said central double-sided hollow axis, then exits the oscillator in the axial direction through said axis, at whose end the two liquid streams merge; and a circulation pump, said pump providing sufficient head to overcome flow resistance in the downstream external heat exchanger, the injection plenae and associated spray nozzles.

Claim 18

A thermodynamic Stirling cycle device, comprising a double-acting liquid sealed power oscillator having two pressure chambers, said two pressure chambers being connected via bidirectional regenerators to the respective pressure chambers of a double-acting displacement oscillator.

Claim 19

A thermodynamic Stirling cycle device, comprising a double-acting liquid sealed power oscillator having two pressure chambers, said two pressure chambers being connected via bidirectional regenerators to the respective pressure chambers of a double-acting displacement oscillator.

Claim 20

A thermodynamic free piston Stirling cycle machine, comprising a liquid sealed power oscillator having two pressure chambers, said two pressure chambers being connected via bidirectional regenerators to a pressure chamber of two displacement oscillators, the other pressure chamber of which is closed and becomes therefore a bouncing chamber.

Claim 21

A thermodynamic free piston Stirling cycle machine, comprising a liquid sealed power oscillator having two pressure chambers, said two pressure chambers being connected via bidirectional regenerators to a pressure chamber of two displacement oscillators, the other pressure chamber of which is closed and becomes therefore a bouncing chamber.

Claim 22

A thermodynamic free piston Stirling cycle machine comprising a liquid sealed power oscillator having two pressure chambers, said two pressure chambers being connected via bidirectional regenerators to a pressure chamber of two displacement oscillators, the other pressure chamber of which is closed and becomes therefore a bouncing chamber, and wherein it comprises a double-acting power oscillator as in claim 1, interfacing, with its pressure chambers, two independent bidirectional regenerators, which communicate with double-acting displacement oscillators, each having bouncing spaces in its pressure chambers, the combination of the aforesaid elements forming the equivalent of a self-oscillatory three-mass-four-spring system, the dynamic characteristics of the alpha-configured legs being substantially the same, and means being further provided for supplying heat to the fluid in the expansion spaces of the displacement oscillators and for withdrawing heat from the fluid in the compression spaces surrounding the power oscillator.

Claim 23

A free piston Stirling cycle refrigerator, comprising a liquid sealed power oscillator having two pressure chambers, said two pressure chambers being connected via bidirectional regenerators to a pressure chamber of two displacement oscillators, the other pressure chamber of which is closed and becomes therefore a bouncing chamber, wherein the central power oscillator is replaced by a displacement oscillator according to claim 1, whereby a three displacement oscillator is produced, capable of being thermally driven as a refrigerator.

Claim 24

A thermodynamic Stirling cycle device, comprising four double-acting vane liquid sealed oscillators, whose pressure chambers are inter-connected via bidirectional regenerators forming a closed chain.

Claim 25

A thermodynamic Stirling cycle device, comprising four double-acting vane liquid sealed oscillators, whose pressure chambers are inter-connected via bidirectional regenerators forming a closed chain.

Claim 26

A thermally driven Stirling cycle refrigerator arranged as in claim 18, wherein two opposite-lying liquid sealed oscillators reject heat to the environment and the other set of two oscillators absorb heat at super- and sub-environmental temperatures, respectively, and the combination of the aforesaid features and elements form a self-oscillatory system performing integrated power and refrigeration cycles.

Claim 27

A Stirling cycle engine, as in the arrangement in claim 18, in which two opposite-lying oscillators, at least one of them a liquid sealed power oscillator, reject heat to the environment by passing heat transfer liquid through the said oscillators in series and then through an external reject heat exchanger, and in which the other set of two oscillators are strictly of displacement type and absorb heat at elevated temperatures by passing heat transfer liquid through the said oscillators in series and then through an external supply heat exchanger, and the combination of these elements and features form a self-oscillatory system performing integrated power cycles.

Claim 28

A free piston Ericsson cycle refrigerator/heat pump, comprising a liquid sealed displacement and a liquid sealed power oscillator in essentially an alpha-configuration, said oscillators being net fluid flow devices, one pressure chamber of the power oscillator being a bouncing space and the other pressure chamber thereof being connected via a regenerative heat exchanger to one pressure chamber of the displacement oscillator, the other chamber thereof being a bouncing space.

Claim 29

A free piston Ericsson cycle refrigerator/heat pump, comprising a liquid sealed displacement and a liquid sealed power oscillator in essentially an alpha-configuration, said oscillators being net fluid flow devices, one pressure chamber of the power oscillator being a bouncing space and the other pressure chamber thereof being connected via a regenerative heat exchanger to one pressure chamber of the displacement oscillator, the other chamber thereof being a bouncing space.

Claim 30

A mechanical power oscillator according to claim 6, where the axis penetrates to the outside and attached to a 4-bar linkage of the Grashof chain type, suspended and referenced to the outside of the oscillator housing, thereby affecting a controlled amplitude harmonic vane motion dictated by the said linkage.