Energy device with integral collector surface for electromagnetic energy harvesting and method thereof

Abstract

An apparatus, method, and system to harvest and store electromagnetic energy is disclosed. The present invention uses, for example, conductive surfaces within the energy storage component itself as a means of electromagnetic energy collection. The surface may be an integral portion of the energy device, such as a charge collection surface within a battery or a capacitor that mainly provides the battery or a capacitor with a necessary function. In another embodiment of the invention a metallic or conductive surface is added to and specifically built into the energy device during manufacturing for the main purpose of collecting electromagnetic energy for the energy device but is otherwise not necessary for the energy storage component. Once the energy is collected, it can be rectified either via rectification components that were built directly into the energy storage component during its manufacture or connected external to the energy storage component but within the energy device. The so-designed energy device may represent a self-sustaining, autonomous electromagnetic energy harvesting—energy storage device.

Description

TECHNICAL FIELD AND BACKGROUND OF THE INVENTION

This invention relates to an apparatus and/or a system or method of harvesting energy. In particular, the present invention collects electromagnetic energy that exists in the ambient environment or that is intentionally directed to an energy harvesting device and stores said energy for later use.

Electromagnetic energy exists in all sorts of forms. It is generally used to transmit information, but also exists, albeit typically small, as a source of energy which may be collected and stored.

Generally, systems that collect electromagnetic energy, such as antennas for example, are only designed to capture the information that is being transmitted through the electromagnetic medium and generally do not capture a substantial portion of the energy itself. Information-carrying signals, once received by the antenna, can then be amplified by the receiver and filtered to obtain the information. As such, the focus of such systems is on the information and the particular wavelength on which the information is transmitted, rather than the actual energy itself.

Presently, at the same time that the amount of energy electronic apparatus use is decreasing, the amount of electromagnetic energy being transmitted is increasing. Further, more and more electronics operate autonomously—either passively, by sensing or collecting information, or actively, by performing a function.

SUMMARY OF INVENTION

It is one object of certain exemplary embodiments of this invention to operate by collecting and storing energy from the surrounding environment. Therefore, although certain embodiments of the present invention may contain information-receiving circuitry to accept transmissions, it is one exemplary object of the invention to collect electromagnetic energy from the surrounding environment and store it for current or later use. Various aspects and embodiments of the present invention, as described in more detail and by example below, address certain of the shortfalls of the background technology and emerging needs in the relevant field.

The present invention may include, for example, an apparatus, system, and method for harvesting energy in the form of electromagnetic radiation. In a preferred embodiment the invention may include at least one electrically conductive surface that is adapted to collect electromagnetic energy and an energy storage component to store said energy.

An embodiment of the present invention includes, for example, a metallic or conductive surface within the energy storage component of an energy device such as an antenna to collect energy. The surface may be an integral portion of the energy device, such as a charge collection surface within a battery or a capacitor that mainly provides the battery or a capacitor with another necessary function.

In another embodiment of the invention a metallic or conductive surface may be added to and specifically built into the energy device during manufacturing for the purpose of collecting electromagnetic energy for the energy device but is otherwise not necessary for the energy storage component.

An integral conductive layer of one or more embodiments of the present invention may be composed of the anode or cathode collecting plate of a battery, and may perform the additional function of collecting electromagnetic energy. In one embodiment, the integral conductive layer may also be the actual anode material of an energy device. In another embodiment, the integral conductive layer may be the conductive outer packaging material of an energy device such as the outermost conductive casing of a capacitor.

Added features, patterns, or shapes may be applied to the conductive surface of an energy device to increase efficiency and/or capacity in energy collection for a specific frequency band, broad band, or other energy applications. For flexible devices, the integral conductive surface may, for example, be curved (e.g., z-axis displacement) to enhance its energy collecting capabilities or to enhance its directional reception characteristics.

BRIEF DESCRIPTION OF DRAWINGS

Some features and advantages of the invention are described with reference to the drawing of a certain preferred embodiment, which is intended to illustrate and not to limit the invention.

The accompanying drawing, which is included to provide a further understanding of the invention and is incorporated in and constitutes a part of this specification, illustrates an exemplary embodiment of the invention that together with the description serves to explain certain principles of the invention:

FIG. 1 is a cross section of an embodiment of the present invention with the energy storage component comprising an electrochemical cell.

FIG. 2A is a top down view of an embodiment of the present invention with the antenna on top and without adding a depiction of the substrate below it which might extend beyond the dimensions of the antenna.

FIG. 2B is a cross-sectional side view of an embodiment of the present invention.

FIG. 3A is a top down view of an embodiment of the present invention with the antenna on top and without adding a depiction of the substrate below it which might extend beyond the dimensions of the antenna.

FIG. 3B is a cross-sectional side view of an embodiment of the present invention adding a diode.

FIG. 4 is cross-sectional side view of an embodiment of an omni-directional array of the present invention.

FIG. 5 is a cross-sectional side view of an embodiment of a dual frequency array of the present invention.

FIG. 6 is a cross-sectional side view of an embodiment of a curved surface energy device used in an omni directional format of the present invention.

FIG. 7A is a cross-sectional top view of a multi-planar embodiment of the present invention.

FIG. 7B is a side view of one device of a multi-planar embodiment of the present invention.

FIG. 7C is a side view from a different angle of a second device of a multi-planar embodiment of the present invention.

FIG. 8 is a cross section of an embodiment of the present invention comprising an energy storage component.

FIGS. 9 a and 9b are cross sections of an embodiment of the present invention with an electrically conductive surface layer comprising various conductive protrusions.

FIGS. 10 a-10d are various views of electrically conductive surface layers having various shapes.

FIG. 11 is a top down view of an embodiment of the present invention including a rectifying element.

FIG. 12 a is a top down view of an embodiment of the present invention including multiple energy collection components connected in series.

FIG. 12 b is a top down view of an embodiment of the present invention including multiple energy collection components connected in parallel.

FIG. 13 a is a top down view of an embodiment of the present invention including multiple energy devices connected in series.

FIG. 13 b is a top down view of an embodiment of the present invention including multiple energy devices connected in parallel.

DETAILED DESCRIPTION OF PREFERRED EMBODIMENTS

It is to be understood that the present invention is not limited to the particular methodology, compounds, materials, manufacturing techniques, uses, and applications described herein, as these may vary. It is also to be understood that the terminology used herein is used for the purpose of describing particular embodiments only, and is not intended to limit the scope of the present invention. It must be noted that as used herein and in the appended claims, the singular forms “a,” “an,” and “the” include the plural reference unless the context clearly dictates otherwise. Thus, for example, a reference to “an element” is a reference to one or more elements, and includes equivalents thereof known to those skilled in the art. Similarly, for another example, a reference to “a step” or “a means” is a reference to one or more steps or means and may include sub-steps or subservient means. All conjunctions used are to be understood in the most inclusive sense possible. Thus, the word “or” should be understood as having the definition of a logical “or” rather than that of a logical “exclusive or” unless the context clearly necessitates otherwise. Structures described herein are to be understood also to refer to functional equivalents of such structures. Language that may be construed to express approximation should be so understood unless the context clearly dictates otherwise.

Unless defined otherwise, all technical and scientific terms used herein have the same meanings as commonly understood by one of ordinary skill in the art to which this invention belongs. Preferred methods, techniques, devices and materials are described although any methods, techniques, devices, or materials similar or equivalent to those described may be used in the practice or testing of the present invention. Structures described herein are to be understood also to refer to functional equivalents of such structures.

All patents and other publications are incorporated herein by reference for the purpose of describing and disclosing, for example, the methodologies described in such publications that might be useful in connection with the present invention. These publications are provided solely for their disclosure prior to the filing date of the present application. Nothing in this regard should be construed as an admission that the inventors are not entitled to antedate such disclosure by virtue of prior invention or for any other reason.

This application is related to U.S. patent application Ser. No. 11/561,277, entitled “Hybrid Thin-Film Battery,” filed on Nov. 17, 2006, and U.S. patent application Ser. No. 11/687,032, entitled “Metal Foil Encapsulation,” filed on Mar. 16, 2007, which are incorporated by reference herein in their entirety.

FIG. 1 shows a cross-sectional side view of one embodiment of the present invention. In this embodiment, the electrically conductive surface 180 forms part of the structure of an energy storage device. In the embodiment shown in FIG. 1, the energy storage device is an electrochemical cell having a cathode 130 and anode 150 separated by an electrolyte 140. This embodiment contains a barrier layer 120 and positive terminal substrate 110. An insulating layer 160 encapsulates the electrochemical cell with one or more conductors 170 extending from anode 150 to the electrically conductive surface 180.

FIG. 8 shows a cross-sectional side view of an additional embodiment of the invention. In this embodiment, an electrically conductive surface layer 880 forms an integral part of an energy storage component 830 and may be separated by an insulating layer 860. The electrically conductive surface layer 880 may cover the energy storage component 830, and a conductor 870 may connect the electrically conductive surface layer 880 to the energy storage component 830. A positive terminal substrate 810 may be connected to the energy storage component via a barrier layer 820.

In one particular embodiment, the electrochemical cell is a thin film battery as disclosed in U.S. patent application Ser. No. 11/561,277 and previously incorporated by reference. In this embodiment, from bottom to top, the device may, for example, contain a metal foil substrate 110 serving as a positive contact; a barrier layer 120 serving as a cathode current collector and preferably composed of, for example, a gold, silver or platinum sub-layer fabricated over a chromium, nickel, or titanium sub-layer; a cathode 130, preferably composed of, for example, Lithium Cobalt Oxide (LiCoO₂); a solid-state electrolyte 140 preferably made of, for example, LiPON; and an anode 150 preferably comprising, for example, Lithium. An insulating/adhesive layer 160 preferably made of, for example, a Surlyn layer that may cover the electrochemical device and a wire mesh conductor 170 may be woven between and in contact with the electrically conductive surface 180 and the electrochemical device.

In addition to an electrochemical storage device, such as a battery or thin film battery, the energy storage component may be an electrical storage device such s a capacitor or thin-film capacitor but may also be a mechanical energy storage device, such as, for example, a flywheel, micro-flywheel, micro electro-mechanical system (MEMS), or a mechanical spring. The energy storage component may also be an electro-mechanical device, such as a piezo-electric element or a magneto-electric element, such as, for example, various embodiments of the invention disclosed in U.S. Pat. No. 7,088,031, entitled “Method and Apparatus for an Ambient Energy Battery or Capacitor Recharge System” which is herein incorporated by reference in its entirety. The energy storage component may also be a thermal energy storage device, such as a thermal mass container, or it may be a chemical energy storage device, such as, for example, a hydrogen generator with hydrogen container or an ozone generator with ozone container. Each one of these devices may be used to store energy based on certain exemplary elements of the system.

Similarly, the material and geometry of the electrically conductive surface may vary depending on the system application. In a preferred embodiment, the electrically conductive surface may have a suitable electromagnetic impedance that is adapted to the frequencies of the collected electromagnetic energies. In some embodiments, the electrically conductive surface may be made of metals, alloys, semiconductors, conductive organics, polymers, and/or conductive composites. The device may also be flexible, for example, and made to be wound upon itself in order to better collect certain types of electromagnetic energy.

In several embodiments, the electrically conductive surface may also be an integral part of the energy storage component. For example, an electrically energy collecting conductive surface may be embodied by the anode of an electrochemical storage device, the anode current collector of an electrochemical storage device, the cathode of an electrochemical storage device, the cathode current collector of an electrochemical storage device, the encapsulation of an electrochemical storage device, the substrate of an electrochemical storage device, the casing of an electrochemical storage device, the negative electrode of a capacitor, the positive electrode of a capacitor, or the casing of a capacitor.

In some embodiments where the electrically conductive energy collecting surface is integral to the energy storage component, the surface may be, for example, structurally or chemically modified beyond the primary functional need of said energy storage component so as to optimize the adaptation of said surface to the collection of electromagnetic energy. Structural modifications may include enlarging the surface area of one or more surfaces by expanding, stretching, increasing, or otherwise extending the surface. For example in the energy device of FIG. 1 the electrically conductive surface 180 may be expanded, extended, or otherwise increased in shape. Similarly, substrate 110, conductor 170, or any other conductive surface may, for example, be modified to extend the surface area to improve the energy harvesting capacity of that or those elements alone or in combination. Additionally, these conductive surfaces may be increased in thickness or perforated in any preferable direction to increase the surface area and/or the energy harvesting attributes of these device elements.

In some embodiments, the electrically conductive surface layer may include one or more protrusions. As shown in FIG. 9a, an electrically conductive surface layer 900 may include a protrusion 910 extending therefrom in a direction parallel to the component layers. Similarly, as shown in FIG. 9b, an electrically conductive surface layer 920 may include a protrusion 930 extending therefrom in a direction orthogonal to the component layers.

As depicted, for example, in FIGS. 2A and 2B, the height of the dielectric 260 may conform to the thickness of a dielectric in a capacitor or a battery or the separating element in a battery or capacitor or a combination of both. It may, for example, represent a battery cathode thickness plus a separator material. Substrate 230 in FIG. 2B may be provided, for example, by the cathode current collector of a thin film battery. The antenna element 280 may, for example be provided by an anode current collector of a battery or a separate element. The dimensions for the various elements may be derived, for example, by extrapolating from the descriptions found in Antenna Theory, Analysis and Design, 2^nd edition, Constantine A. Balanis, 1982, 1997, ISBN 0-471-59268-4, incorporated herein in its entirety. The height of the dielectric (h), it's dielectric constant (∈_r), and the frequency of interest (f_r) may be adjusted by design. Once these values are set, the following equations may, for example, be used to optimize length, and appropriate width ratios. The lengths of the antenna may be some even division of wavelength (λ), such as λ/2, λ/4, λ/8, λ/16, and so forth. V₀ is the velocity of light in free space.W=½f_r√{square root over (μ₀∈₀)}*√{square root over (2 /(∈_r−1))}=v₀/2f_r*√{square root over (2/(∈_r+1))}L=[1/(2f_r√{square root over (∈_reff)}√{square root over (μ₀∈₀)})]−2ΔL where ∈_reff is the effective dielectric:∈_reff=[(∈_r+1)/2]+[(∈_r−1)/2]*[1+12h/W]^−1/2

The electrically conductive surface in each embodiment may be designed, for example, to be able to collect electromagnetic energy in one or more particular forms. Such forms may, for example, include electrical field coupled energy, magnetic field coupled energy, light wave direct coupled energy, light wave thermally coupled energy, laser or coherent light coupled energy, sub-millimeter wavelength radiation coupled energy, broad band frequency, narrow band frequency, directed energy, indirect energy, ultra low frequency, super low frequency, very low frequency, low frequency, medium frequency, high frequency, very high frequency, ultra high frequency, super high frequency, extremely high frequency, infra red light frequency, visible light frequency, ultra violet light frequency, and/or x-ray frequency.

Additional components may also be included in certain embodiments of the present invention. For example, an embodiment of the present invention may include one or more electrical components electrical components for rectifying the alternating current induced onto an electrically conductive energy collecting surface into a direct current so that it may be easily stored in, for example, a battery or capacitor. These components may, for example, be external to the energy storage component; however they may also alternatively or additionally be imbedded within the energy storage component. For example, the semiconductor characteristics of Lithium Cobalt Oxide, which may be used as a component of an electrochemical cell, could be n-type and p-type doped in certain regions, thereby creating devices with diode characteristics, which may be configured to operate as a rectifier.

For example, FIG. 11 depicts an embodiment of the invention providing a rectifying element 1110 positioned between an antenna surface 1120 and conductive substrate surface 1140. As described by example above, the antenna surface 1120 may, for example be provided by an anode current collector of a battery or a separate element. A dielectric 1130 may be representative of the dielectric in a capacitor or a battery or the separating element in a battery or capacitor or a combination of both. It may, for example, represent a battery cathode thickness plus a separator material. The conductive substrate surface 1140 may be provided, for example, by the cathode current collector of a thin film battery. Direct charging of the energy storage device may be accomplished, for example, by connecting the rectifying element 1110 between the antenna surface 1120 and the conductive substrate surface 1140. The rectifying element 1110 may be an integral portion of the manufactured energy storage device or an external discreet component.

FIGS. 3A and 3B depict an embodiment of the invention providing a diode between an antenna surface 380 and conductive substrate surface 330. As described by example above, the antenna surface 380 may, for example be provided by an anode current collector of a battery or a separate element. Dielectric 360 may be representative of the dielectric in a capacitor or a battery or the separating element in a battery or capacitor or a combination of both. It may, for example, represent a battery cathode thickness plus a separator material. Substrate surface 330 in FIG. 3B may be provided, for example, by the cathode current collector of a thin film battery. Direct charging of the energy storage device may be accomplished, for example, by connecting a diode between the antenna surface and the conductive substrate surface. This connection may be of the cathode of the diode attached to the antenna surface 380 and the anode of the diode connected to the substrate surface 330. The diode may be an integral portion of the manufactured energy storage device or an external discreet component.

A system for harvesting electromagnetic energy is also, for example, provided by various disclosures herein. This system may for example include a plurality of energy harvesting devices connected together to form an array. The arrangement of devices within the array may vary to, for example, optimize the collection of electromagnetic energy in an omni-directional or uni-directional manner. The energy harvesting devices themselves may vary within a single system, for example, to optimize the collection of electromagnetic energy of varying wavelengths-this may include the shape and size of the electrically conductive surface, but also the type of material. Further, the interconnection of the energy harvesting devices may be arranged in series or parallel, for example, to create certain voltage outputs. One example of an omni-directional array, as depicted in FIG. 4, provides for two substrates 430 to be placed together and the collection surfaces 481 and 482 to be directed outwardly. Dielectric layers 461 and 462 are provided between the substrate 430 and collection surfaces 481 and 482. Alternatively, a substrate with a battery or other energy storage device may be placed on either side of the substrate. Multiple surfaces of various configurations may also be provided. A multifrequency array may be provided, for example as depicted in FIG. 5 by providing two energy storage devices 581, 582, possibly with differing L/W ratios (i.e., L1/W1≠L2/W2), for example, on one or more substrates 530. Multiple surfaces and/or devices may also be provided in various embodiments. Alternatively, the top of a single cell may be provided with an insulator/conductor patterned top that electrically “looks” like the arrangement of FIG. 5, providing a multi-frequency antenna with no external alteration because the battery substrate would “look” like the total substrate in the figure. FIG. 6 provides one example of a curved surface energy device that may be used in an omni directional format. The curve may be used to create a receiving surface that is, for example, some portion of a sphere to allow gathering energy 610 and/or 620 as shown coming from the bottom or top of the drawing. As discussed, by way of example above, a diode may similarly be integrated into this exemplary design. Further, an antenna element 680, dielectric element 660 and substrate element 630 may be provided, for example, as shown.

An example of a multi-planar embodiment of the present invention is set forth, for example, in FIGS. 7A, 7B, and 7C. In this example, two or more devices (depicted in FIG. 7A as 781, 782) may be arranged at an angle a to each other. These devices may be built on separate substrates (depicted as 731 and 732 in FIG. 7A) or on one substrate that is formed at the appropriate angle either during manufacturing or as a post process step. The angle a may be any angle, and may, for example range from 0° to 180°. Device 781 has a length of L₂ and a width of W₂, as illustrated in FIG. 7B. Device 782 has a length of L₁ and a width of W₁ as illustrated in FIG. 7C. The length, width and height values (L, W, and h), and ratio's for these values, for any given frequency, group of frequencies, or any pair of frequencies or bands may be identical or entirely different. Additionally, diode rectification may be performed on this or these embodiments similarly to a single plane device wherein a diode may be provided, for example, across each antenna/substrate.

FIGS. 10 a-10d illustrate various energy devices and/or energy storage components having varying geometric shapes. For example, as shown in FIG. 10a, the energy device or energy storage component may have a square, rectangular, or multi-sided polygonal shape 1010. As shown in FIG. 10b, the energy device or energy storage component may have a triangular or non-uniform in thickness shape 1020. As shown in FIG. 10c, the energy device or energy storage component may have a circular, round or curvy shape 1030. As shown in FIG. 10d, the energy device or energy storage component may have a wavy shape 1040.

As shown in FIG. 12a, multiple energy storage components 1210 and 1220 may be operably connected in series. Alternatively, as shown in FIG. 12b, multiple energy storage components 1230 and 1240 may be operably connected in parallel. Similarly, as shown in FIG. 13a, multiple energy devices 1310 and 1320 may be operably connected in series. Alternatively, multiple energy devices 1330 and 1340 may be connected in parallel.

This system may be used, for example, to supply power to an autonomous electrical circuit solely, or in conjunction with another source of power, such as, for example, a solar cell or solar thermal collector. Such a combination would allow for an autonomous electrical circuit to operate with or without sunlight in an environment containing electromagnetic energy. For example, a solar cell may be deposited directly onto a storage device during manufacture, on top or bottom. This deposition may include PVD or, for example, printing. Such a solar cell may include at least two semi-conductors in contact with each thereby creating a p-n junction. In addition, there may be metallically conducting current collectors and a substrate in the solar cell. In particular, a dielectic layer such as, for example, SiO2 may be covered by a metallically conducting anti-reflection layer such as, for example, Si—Ti—Pd—Ag. Similar to a battery that might serve as an antenna-like receiver plane, a solar cell may be provided that may produce energy but may not store the energy. However, the SiO2/Si—Ti—Pd—Ag antenna-like receiver plane may be connected to a battery, which in turn may or may not serve as an antenna-like receiver plane to its own self.

A method of harvesting electromagnetic energy and/or a new use of a device for energy harvesting is also, for example, described herein. For example, one or more energy harvesting devices or systems may be placed in an environment containing a known or unknown source of electromagnetic energy with known or unknown parameters such as frequency and power. The electromagnetic energy incident upon the electrically conductive surface may induce a current into the electrically conductive surface. That current may then be collected by the energy storage component. In one embodiment, an electrical current is, for example, rectified by a rectifier circuit before it charges an electrochemical cell or capacitor. The electrical current may also charge other energy storage components mentioned above. Having collected and stored the energy, the device may then be able to, for example, provide an autonomous electrical device power to operate for a period of time.

This invention has been described herein in several embodiments. It is evident that there are many alternatives and variations that can embrace the performance of energy or electronic devices enhanced by the present invention in its various embodiments without departing from the intended spirit and scope thereof The embodiments described above are exemplary only. One skilled in the art may recognize variations from the embodiments specifically described here, which are intended to be within the scope of this disclosure. As such, the invention is limited only by the following claims. Thus is intended that the present invention cover the modifications of this invention provided they come within the scope of the appended claims and their equivalents.

Claims

1. An energy device comprising: an energy storage component comprising an electrochemical cell having a plurality of component layers;at least one electrically conductive surface layer that is provided by an anode current collector of said energy storage component,wherein said at least one electrically conductive surface layer is adapted to collect electromagnetic energy thereby enabling a current to be induced within the at least one electrically conductive surface layer, and wherein the energy storage component is adapted to collect and store at least a portion of the current, wherein said at least one electrically conductive surface layer comprises an electrically conductive protrusion extending in a direction parallel to the plurality of component layers of the electrochemical cell and said at least one electrically conductive surface layer extends beyond a dimension of the plurality of component layers of the electrochemical cell; anda substrate that is provided by a cathode current collector of said energy storage component, wherein the substrate extends beyond a dimension of said at least one electrically conductive surface layer.

2. The energy device of claim 1, wherein said energy storage component comprising components selected from the group of: a battery, or a thin-film battery.

3. The energy device of claim 1, wherein said electrically conductive surface comprises a suitable electromagnetic impedance that is adapted to frequencies of the collected electromagnetic energies such that the dimensions of said electrically conductive surface are sized to create signal gains in the wavelength targeted for harvesting.

4. The energy device of claim 3, wherein said electrically conductive surface layer comprises a height of a dielectric (h), and a dielectric constant (∈r), and said dimensions of said electrically conductive surface layer for harvesting energy frequency(fr) comprises width W=½fr√{square root over (μ0∈0)}*√{square root over (2/(∈r−1))}=v0/2fr*√{square root over (2/(∈r+1))} and lengthL=[1/(2fr√{square root over (∈reff)}√{square root over (μ0∈0)}−2ΔL where v0=1/√{square root over (μ0∈0)}=a velocity of light in free space,ΔL=change in length, and ∈reff is the effective dielectric: ∈reff=[(∈r+1)/2]+[(∈r−1)/2]*[1+12h/W]−1/2.

5. The energy device of claim 1, wherein said at least one electrically conductive surface is structurally or chemically modified beyond the primary functional need by said energy storage component, whereby said modification causes an increase in the ability of said electrically conductive surface layer to collect electromagnetic energy.

6. The energy device of claim 5, wherein the electrically conductive protrusion is a first electrically conductive protrusion, wherein said at least one electrically conductive surface layer further comprises a second electrically conductive protrusion extending in the direction orthogonal to the energy storage component layers.

7. The energy device of claim 5, wherein said electrically conductive surface comprises a height of a dielectric (h), and a dielectric constant (∈r), and said dimensions of said electrically conductive surface layer for harvesting energy frequency (fr) comprises width W=½fr√{square root over (μ0∈0)}*√{square root over (2/(∈r+1) )}=v0/2fr*√{square root over (2/(∈r+1))} and lengthL=[1/(2fr√{square root over (∈reff)}√{square root over (μ0∈0)}−2ΔL where v0=1/√{square root over (μ0∈0)}=a velocity of light in free space,ΔL=change in length, and ∈reff is the effective dielectric: ∈reff=[(∈r+1)/2]+[(∈r−1)/2]*[1+12h/W]−1/2.

8. The energy device of claim 5 wherein said electrically conductive surface is adapted to affect the RF conductive properties in regions of the electrically conductive surface layer to provide for isolated, conductive and semicondutive areas.

9. The energy device of claim 1, wherein the electrically conductive protrusion is a first electrically conductive protrusion, wherein said at least one electrically conductive surface layer further comprises a second electrically conductive protrusion extending in a direction orthogonal to the energy storage component.

10. The energy device of claim 1, further comprising said electrically conductive surface incorporated into said device during the fabrication of said energy storage component.

11. The energy device of claim 10 wherein a conductive layer and an associated insulating layer are added to said device during the fabrication of said energy storage component.

12. The energy device of claim 1, wherein said electrically conductive surface comprises a material selected from the group of: metals, alloys, semiconductors, conductive organics and polymers, and conductive composites.

13. The energy device of claim 1, wherein the shape of said device is selected from the group of: square, rectangular, triangular, multi-sided polygonal, round, curved, wavy, and non-uniform in thickness.

14. The energy device of claim 1, wherein the collected electromagnetic energy comprises energy selected from the group of: electrical field coupled energy, magnetic field coupled energy, light wave direct coupled energy, light wave thermally coupled energy, laser or coherent light coupled energy, and sub-millimeter wavelength radiation coupled energy.

15. The energy device of claim 1, further comprising a plurality of electrically conductive surfaces.

16. The energy device of claim 15, wherein said electrically conductive surfaces are adapted to form an array that improves the collection of power of the electromagnetic energy in an omni-directional response.

17. The energy device of claim 15, wherein said electrically conductive surfaces are adapted to form an array that improves the collection of power of the electromagnetic energy in an uni-directional response.

18. The energy device of claim 15, wherein said plurality of electrically conductive surfaces comprises a connection in series or in parallel that are adapted to collect electromagnetic energy.

19. The energy device of claim 18, wherein all electrically conductive surfaces comprise substantially equal size and shape.

20. The energy device of claim 18, wherein at least one of said electrically conductive surfaces comprises a substantially different size and shape than other electrically conductive surfaces.

21. The energy device of claim 1, further comprising at least one external rectification element adapted to rectify the collected electromagnetic energy.

22. The energy device of claim 21, wherein said at least one rectification element is selected from the group of external diode, rectenna comprising said external diode and said electrically conductive surface, external full bridge rectifier, external half bridge rectifier, and external reactive components, wherein said external reactive components comprise any combination of capacitors, coils, diodes, transistors, RF chokes, and integrated devices.

23. The energy device of claim 1, wherein said at least one electrically conductive surface layer comprises at least two electrically conductive surfaces of differing sizes.

24. The energy device of claim 1, wherein said at least one electrically conductive surface layer comprising at least two electrically conductive surfaces of similar sizes.

25. The energy device of claim 1, wherein said energy storage component comprises a geometrical shape selected from the group of square, rectangular, triangular, multi-sided polygonal, round, curved, wavy, and non-uniform in thickness.

26. The energy device of claim 1, further comprising more than one energy storage component.

27. The energy device of claim 1, wherein said energy storage components comprises two or more energy storage components connected in series or in parallel and wherein at least one of said energy storage components is adapted for said at least one electrically conductive surface layer to be adapted to collect electromagnetic energy.

28. The energy device of claim 27, wherein said energy storage components all comprise substantially the same size and shape.

29. The energy device of claim 27, wherein at least one of said energy storage components comprise a substantially different size and shape than the other energy storage components.

30. The energy device of claim 1 further comprising one or more layers between a plurality of conductive surfaces, said layers comprising an insulating layer.

31. An array comprising a plurality of energy devices of claim 1.

32. The array of claim 31, further comprising electrically conductive surfaces adapted to collect electromagnetic energy in an omni-directional response.

33. The array of claim 32, comprising a substrate element and at least two collection surfaces, each said collection surface located on opposite sides of said substrate element.

34. The array of claim 31, further comprising electrically conductive surfaces adapted to collect electromagnetic energy in a uni-directional response.

35. The array of claim 31, wherein said array of energy devices comprise a connection in series or in parallel and wherein at least one of said energy devices provides an electrically conductive surface that is adapted to collect electromagnetic energy.

36. The energy device of claim 35, wherein said energy devices all comprise substantially equal size and shape.

37. The energy device of claim 35, wherein at least one of said energy devices comprise a substantially different size and shape than the other energy devices.

38. A method of collecting electromagnetic energy within an environment containing electromagnetic energy comprising: providing at least one energy harvesting device within the environment,said device comprising an electrically conductive surface, a substrate, and an energy storage component,wherein the electrically conductive surface is provided by an anode current collector of the energy storage component,wherein the electrically conductive surface is adapted to collect the electromagnetic energy thereby enabling a current to be induced within the electrically conductive surface,wherein the energy storage component comprises and electrochemical cell having a plurality of component layers,wherein the electrically conductive surface comprises an electrically conductive protrusion extending in a direction parallel to the plurality of component layers of the electrochemical cell and the electrically conductive surface extends beyond a dimension of the plurality of component layers of the electrochemical cell,wherein the substrate is provided by a cathode current collector of the energy storage component and extends beyond a dimension of the electrically conductive surface;collecting the electromagnetic energy from the environment across said electrically conductive surface; and storing the energy in said energy storage component.

39. The method of claim 38, further comprising modifying the geometry of said electrically conductive surface to improve the collection of electromagnetic energy.

40. The method of claim 38, further comprising rectifying the collected electromagnetic energy before storing the energy in said energy storage component.

41. The method of claim 38, further comprising powering an autonomous electrical device.

42. The method of claim 38 further comprising incorporating said electrically conductive surface into said device during -fabrication of said energy storage component.