Methods and apparatuses for complementary pneumatic devices and circuits

• US 20100269920A1
• Filed: 01/22/2010
• Published: 10/28/2010
• Est. Priority Date: 01/22/2009
• Status: Abandoned Application

• Current Assignee: Albert K. Henning
• Original Assignee: Albert K. Henning
• Inventors: Henning, Albert K.
• Application Number:
  US12/657,510
• Publication Number:
  US 20100269920A1
• Time in Patent Office: Days
• US Class Current: 137/487.500
• CPC Class Codes: F16K 2099/008 Multi-layer fabrications
• CPC Class Codes: F16K 99/0001 Microvalves microdevices B81B1/00; manufacture or treatment of devices or systems in or on a substrate B81C1/00; microfluidic structures B01L3/5027; micropumps F04B19/006
• CPC Class Codes: F16K 99/0015 Diaphragm or membrane valves
• CPC Class Codes: Y10T 137/7761 Electrically actuated valve
• CPC Class Codes: Y10T 137/7837 Direct response valves [i.e., check valve type]

Abstract

The RABBAT ELECTRIC HYBRID VEHICLES have no mechanical transmission of power, only ductile wires connecting various sections of the car.

The multiplicity of capacitor/battery units makes it easier for the vehicle designer to position them around for cosmetic or actual mechanical need, for better handling and safety.

A diode between the motor and battery ensures that there is never any backflow of current. The ultra-capacitor/battery units which are charged thru a plug-in or a pantograph from an external supply and by an internal engine/generator which could be H2/O2, liquid/gas, internal combustion/jet/rocket/explosive) running at a uniform most efficient rate without being affected by stops or starts, slowing or acceleration, from start to finish.

In this vehicle there is no juggling between application of internal combustion energy and electrical energy. It is sequential: fuel to electricity to motor drive, all the time.

The RABBAT BUS STOP where potential passengers wait for the bus, offers certain services and saves bus time by having customers purchase bus tokens or electronic tickets ahead of the bus arrival. Then they access the bus thru a turnstile. The RABBAT BUS STOP provides grid supplied electricity to the bus as soon as its railings make contact, during its wait, and until its railings lose contact with the external supply.

Claims

1. A valve, comprising:

a flow passage;

a working fluid;

an inlet pressure at one end of said flow passage;

an outlet pressure at the opposite side of said flow passage;

a control pressure;

a difference pressure, defined between said control pressure and either said inlet pressure or said outlet pressure;

and a pre-tensioned member, comprising;

a movable component;

a pre-tension applied to said movable component;

and an occluding component;

wherein said inlet pressure, said outlet pressure, and said control pressure are delivered by said working fluid;

and wherein said working fluid has the same thermodynamic phase throughout said valve;

and wherein said pre-tensioned member normally occludes said orifice plate flow passage, until said difference pressure exceeds a threshold pressure;

and wherein said valve is deployed in a fluidic circuit for processing analog pressure signals.

2. The valve of claim 1, wherein said flow passage is a flow channel.

3. The valve of claim 1, wherein said flow passage is an orifice plate.

4. The valve of claim 3, wherein said difference pressure is defined by the difference between said control pressure and said outlet pressure.

5. The valve of claim 4, wherein said threshold pressure is greater than zero.

6. The valve of claim 3, wherein said difference pressure is defined by the difference between said inlet pressure and said control pressure.

7. The valve of claim 6, wherein said threshold pressure is greater than zero.

8. The valve of claim 1, wherein said pre-tensioned member is a membrane.

9. The valve of claim 8, wherein said occluding component is a boss, and wherein said membrane is attached to said orifice plate such that the thickness of said boss effects the pre-tensioning of said membrane.

10. The valve of claim 8, wherein said occluding component is a poppet structure, and wherein said membrane is attached to said orifice plate such that the height of said poppet structure effects the pre-tensioning of said membrane.

11. The valve of claim 1, wherein said fluidic circuit is a differential pressure signal amplifier.

12. The valve of claim 1, wherein said fluidic circuit is a sinusoidal pressure signal rectifier.

13. The valve of claim 1, wherein said fluidic circuit is a pressure-based mass pump.

14. The valve of claim 1, wherein said fluidic circuit is a fluidic energy harvester.

15. A symmetric pass gate for fluidic signal processing, comprising:

a working fluid;

an inlet pressure;

an outlet pressure;

a control pressure;

a pass gate pressure difference, defined between said inlet pressure and said outlet pressure;

a first valve, comprising;

a flow passage;

an inlet pressure at one end of said flow passage;

an outlet pressure at the opposite side of said flow passage;

a control pressure;

a difference pressure, defined between said control pressure and said outlet pressure;

and a pre-tensioned member, comprising;

a movable component;

a pre-tension applied to said movable component;

and an occluding component;

wherein said inlet pressure, said outlet pressure, and said control pressure are delivered by said working fluid;

and wherein said working fluid has the same thermodynamic phase throughout said valve;

and wherein said pre-tensioned member normally occludes said orifice plate flow passage, until said difference pressure exceeds a threshold pressure;

and, a second valve, identical to said first valve;

wherein said inlet pressure of said pass gate is coupled to said inlet pressure of said first valve, and to said outlet pressure of said second valve;

wherein said outlet pressure of said pass gate is coupled to said outlet pressure of said first valve, and to said inlet pressure of said second valve;

wherein said control pressure of said pass gate is coupled to said control pressure of said first valve, and to said control pressure of said second valve;

and wherein said working fluid is transmitted equally through said pass gate, whether the sign of said pass gate pressure difference is positive or negative, when said control pressure of said pass gate causes said difference pressure for either said first or second valve to exceed said threshold pressure.

16. A symmetric pass gate for fluidic signal processing, comprising:

a working fluid;

an inlet pressure;

an outlet pressure;

a control pressure;

a pass gate pressure difference, defined between said inlet pressure and said outlet pressure;

a first valve, comprising;

a flow passage;

an inlet pressure at one end of said flow passage;

an outlet pressure at the opposite side of said flow passage;

a control pressure;

a difference pressure, defined between said inlet pressure and said control pressure;

and a pre-tensioned member, comprising;

a movable component;

a pre-tension applied to said movable component;

and an occluding component;

wherein said inlet pressure, said outlet pressure, and said control pressure are delivered by said working fluid;

and wherein said working fluid has the same thermodynamic phase throughout said valve;

and wherein said pre-tensioned member normally occludes said orifice plate flow passage, until said difference pressure exceeds a threshold pressure;

and, a second valve, identical to said first valve;

wherein said inlet pressure of said pass gate is coupled to said inlet pressure of said first valve, and to said outlet pressure of said second valve;

wherein said outlet pressure of said pass gate is coupled to said outlet pressure of said first valve, and to said inlet pressure of said second valve;

wherein said control pressure of said pass gate is coupled to said control pressure of said first valve, and to said control pressure of said second valve;

and wherein said working fluid is transmitted equally through said pass gate, whether the sign of said pass gate pressure difference is positive or negative, when said control pressure of said pass gate causes said difference pressure for either said first or second valve to exceed said threshold pressure.

17. A differential pressure signal amplifier, comprising:

a working fluid;

a high supply pressure;

a low supply pressure;

a high signal input pressure;

a low signal input pressure;

a signal output pressure;

a differential input pressure, defined between said high signal input pressure and said low signal input pressure;

a first valve, comprising;

a flow passage;

an inlet pressure at one end of said flow passage;

an outlet pressure at the opposite side of said flow passage;

a control pressure;

a difference pressure, defined between said inlet pressure and said control pressure;

and a pre-tensioned member, comprising;

a movable component;

a pre-tension applied to said movable component;

and an occluding component;

wherein said inlet pressure, said outlet pressure, and said control pressure are delivered by said working fluid;

and wherein said working fluid has the same thermodynamic phase throughout said valve;

and wherein said pre-tensioned member normally occludes said orifice plate flow passage, until said difference pressure exceeds a threshold pressure;

a second valve, identical to said first valve;

a third valve, comprising;

a flow passage;

an inlet pressure at one end of said flow passage;

an outlet pressure at the opposite side of said flow passage;

a control pressure;

a difference pressure, defined between said control pressure and said outlet pressure;

and a pre-tensioned member, comprising;

a movable component;

a pre-tension applied to said movable component;

and an occluding component;

wherein said inlet pressure, said outlet pressure, and said control pressure are delivered by said working fluid;

and wherein said working fluid has the same thermodynamic phase throughout said valve;

and wherein said pre-tensioned member normally occludes said orifice plate flow passage, until said difference pressure exceeds a threshold pressure;

a fourth valve, identical to said third valve;

wherein said inlet pressure of said first valve is coupled to said high supply pressure;

wherein said control pressure of said first valve is coupled to said low signal input pressure;

wherein said outlet pressure of said first valve is coupled to said inlet pressure of said third valve, said control pressure of said third valve, and said control pressure of said fourth valve;

wherein said inlet pressure of said second valve is coupled to said high supply pressure;

wherein said control pressure of said second valve is coupled to said high signal input pressure;

wherein said outlet pressure of said second valve is coupled to said inlet pressure of said fourth valve, and said signal output pressure;

wherein said outlet pressure of said third valve is coupled to said low supply pressure;

wherein said outlet pressure of said fourth valve is coupled to said low supply pressure;

and, wherein said signal output pressure is an amplified function of said differential input pressure.

18. A fluidic signal rectifier, comprising:

a working fluid;

a time-dependent pressure source, comprising;

a source high pressure;

a source low pressure;

and, means to vary the difference between said source high pressure and said source low pressure as a function of time;

a load high pressure;

a load low pressure;

a first pass gate, comprising;

an inlet pressure;

an outlet pressure;

and a control pressure;

wherein the pass gate enables flow when the control pressure exceeds a threshold pressure;

a second pass gate, identical to said first pass gate;

a first load valve, comprising;

a flow passage;

an inlet pressure at one end of said flow passage;

an outlet pressure at the opposite side of said flow passage;

a control pressure;

a difference pressure, defined between said control pressure and said outlet pressure;

and a pre-tensioned member, comprising;

a movable component;

a pre-tension applied to said movable component;

and an occluding component;

wherein said inlet pressure, said outlet pressure, and said control pressure are delivered by said working fluid;

and wherein said working fluid has the same thermodynamic phase throughout said valve;

and wherein said pre-tensioned member normally occludes said orifice plate flow passage, until said difference pressure exceeds a threshold pressure;

a second load valve, identical to said first load valve;

wherein said source high pressure is connected to said inlet pressure of said first pass gate, and to said inlet pressure of said first load valve, and to said control pressure of said first load valve, and to said control pressure of said second pass gate;

and wherein said source low pressure is connected to said inlet pressure of said second pass gate, and to said inlet pressure of said second load valve, and to said control pressure of said second load valve, and to said control pressure of said first pass gate;

and wherein said outlet pressure of said first pass gate is connected to said outlet pressure of said second pass gate;

and wherein said outlet pressure of said first load valve is connected to said outlet pressure of said second load valve;

and wherein said connection between said first and second pass gates is contiguous with said load low pressure;

and wherein said connection between said first and second load valves is contiguous with said load high pressure;

and wherein the difference between said load high pressure and said load low pressure is relatively independent of time.

19. The fluidic signal rectifier of claim 18, wherein the difference between said load high pressure and said load low pressure may be coupled across an arbitrary load in order to extract useful work.

20. The fluidic signal rectifier of claim 18, wherein said first and second pass gates are fully-symmetric pass gates.

21. The fluidic signal rectifier of claim 18, wherein said time-dependent pressure source varies sinusoidally with time, thereby constituting a pressure-based mass pump.

22. The fluidic signal rectifier of claim 18, wherein said time-dependent pressure source varies randomly with time, and wherein said working fluid is a compressible gas, thereby constituting a pneumatic energy harvester.

23. The fluidic signal rectifier of claim 18, wherein said time-dependent pressure source varies randomly with time, and wherein said working fluid is an incompressible fluid, thereby constituting a hydraulic energy harvester.