# Patent

## Title
High efficiency interleaved solar power supply system

## Abstract

A high efficiency solar power system combining photovoltaic sources of power (1) can be converted by a base phase DC-DC photovoltaic converter (6) and an altered phase DC-DC photovoltaic converter (8) that have outputs combined through low energy storage combiner circuitry (9). The converters can be synchronously controlled through a synchronous phase control (11) that synchronously operates switches to provide a conversion combined photovoltaic DC output (10). Converters can be provided for individual source conversion or phased operational modes, the latter presenting a combined low photovoltaic energy storage DC-DC photovoltaic converter (15) at string or individual panel levels.

## Background
I. TECHNICAL FIELD
The present invention focuses on the field of providing solar power including but not limited to residential and commercial power systems and arrays. In particular it relates to processes, devices, and circuitry that can provide such power in a more efficient manner. It also can find application in general power systems that have some of the more fundamental attributes of solar power sources with the same effects.
II. BACKGROUND
The value of solar power for society has been known for many years. It offers clean energy but requires harnessing the energy and feeding it into electrical grid or other load. Efficiency in generation is of particular interest. One aspect that has proven particularly challenging is the ability to harvest the energy efficiently across the entire power spectrum desired. Because the influx of solar energy can vary and because the photovoltaic effect itself can vary, electrical challenges exist that to some degree remain. In addition to the technical issues, regulatory limits such as desirable for safety and the like can also pose challenges. In addition, the combination of photovoltaic sources such as in the strings of panels or the like combines to make efficient harvesting of the energy an issue. As an example, an interesting fact that is frequently under the current technology the most efficient generation of power (likely at the highest voltage after conversion) is a situation where no substantial power is delivered. This seeming paradox is an issue that remains challenging for those in the field. Similarly the desire to generate more and more power such as through larger strings of panels has become an issue due to regulatory limits and the like.
The present invention provides circuits and methods through which many of these challenges can be reduced or even eliminated. It provides designs with unusual efficiency in power generation and provides considerable value to those desiring to utilize solar or other power sources efficiently.
III. DISCLOSURE OF INVENTION
Accordingly, the present invention includes a variety of aspects, circuits, and processes in varied embodiments which may be selected in different combinations to suit differing needs and achieve various goals. It discloses devices and methods to achieve unusually high efficiency solar and other power delivery in a way that is more beneficial to a variety of loads. The embodiments present some initial ways to achieve high efficiency power delivery or generation and show the general understandings which may be adapted and altered to achieve the following and other goals. Of course, further developments and enhancements may be possible within keeping of the teachings of the present invention.
As stated, one of the basic goals of embodiments of the invention is to provide highly efficient solar and other power generation. It can provide efficient power converters and other circuitry which can achieve this goal in multiple ways.
Another goal of embodiments of the invention is to be able to provide enhanced strings of power sources such as may be found in a power array or other solar installation or the like.
Yet another goal of embodiments of the invention is to provide better operational efficiency over all power generation regimes. In keeping with this goal, another aspect is to provide higher operational voltage that can be closer to, but not exceeding, the regulatory or other limit across all power generations situations.
Still another goal of embodiments of the invention is to provide lower inductance, low capacitance, and lower energy storage both at the input and output levels. A similar goal is to provide lesser ripple in outputs for electrical circuitry operating on solar and other power sources.
Naturally other goals of the invention are presented throughout the specifications and claims.



IV. BRIEF DESCRIPTION OF DRAWINGS
FIG. 1 is a schematic of circuitry as configured for a phased interleave embodiment of the present invention.
FIGS. 2a and 2b are timing diagrams to achieve control according to various embodiments of the present invention.
FIGS. 3A-3D are efficiency related type of value diagrams conceptually comparing several operational modes of the present invention with some traditional systems.
FIG. 4 is a schematic of circuitry as configured for a tapped coupled inductor embodiment of a phased interleave design for the present invention.
FIG. 5 is a schematic of tapped coupled inductor circuitry as configured for a portion of an additive string voltage embodiment of the present invention.
FIG. 6 is a schematic of circuitry as configured for one interpanel configuration embodiment of the present invention.
FIG. 7 is a schematic of circuitry as configured for one more phased string embodiment of the present invention.
FIG. 8 is a conceptual diagram of boundary controlled modes of the present invention.
FIG. 9a shows an example of one timing signal for an embodiment.
FIG. 9b shows another example of one timing signal for an embodiment.



V. MODE(S) FOR CARRYING OUT THE INVENTION
As mentioned earlier, the present invention includes a variety of aspects, which may be combined in different ways. The following descriptions are provided to list elements and describe some of the embodiments of the present invention. These elements are listed with initial embodiments, however it should be understood that they may be combined in any manner and in any number to create additional variations. The variously described examples and preferred embodiments should not be construed to limit the present invention to only the explicitly described systems, techniques, and applications. Further, this description should be understood to support and encompass descriptions and claims of all the various embodiments, systems, techniques, methods, devices, and applications with any number of the disclosed elements, with each element alone, and also with any and all various permutations and combinations of all elements in this or any subsequent application.
As shown in FIG. 1, solar power generation can involve accepting one more sources of power (1) such as may be generated by one or more individual photovoltaic sources (2). As is well known, the photovoltaic source can be a solar panel (19)(as shown in FIG. 6) or even individual solar cells (20)(also as shown in FIG. 6). In FIG. 1, the sources (2) can be aggregated to create one conceptual photovoltaic source of power (1). The individual output (3) from one of the photovoltaic sources (2) may be a DC power output. This DC power output (3) can be converted into a modified version of DC power. This may, but need not occur at the module level, such as by a module or other type of converter which is not shown but which could, but need not exist for each panel (19) or each photovoltaic source (2). Such a converter may be configured to operate on or with individual panels or modules and can control power harvesting to achieve individual maximum power point operation as is known.
As mentioned, in an embodiment of the present invention such as shown in FIG. 1, the output of a collection of solar panels or more generally sources (2) can be aggregated to create one conceptual photovoltaic source of power (1). This, perhaps aggregated, source of power, also a DC power output, and here considered a first photovoltaic source of power (5), may be further handled or converted by a DC-DC photovoltaic converter, perhaps here shown as a base phase DC-DC photovoltaic converter (6) to provide a base phase switched output (71).
Similarly, another aggregated source of power, here considered a second photovoltaic source of power (7), may also be converted by a DC-DC photovoltaic converter, here shown as an altered phase DC-DC photovoltaic converter (8) to provide an altered phase switched output (72). Both the base phase DC-DC photovoltaic converter (6) and the altered phase DC-DC photovoltaic converter (8) can have their outputs combined through combiner circuitry (9), to provide a conversion combined photovoltaic DC output (10). In addition, both the base phase DC-DC photovoltaic converter (6) and the altered phase DC-DC photovoltaic converter (8) can be similarly controlled, such as through a synchronous phase control (11) that synchronously operates switches or the like in the two converters so their operations are switch timing responsive in sync with each other, whether opposing or otherwise. Both the base phase DC-DC photovoltaic converter (6) and the altered phase DC-DC photovoltaic converter (8) can be considered combined as together presenting a low photovoltaic energy storage DC-DC photovoltaic converter (15) which can act on two sources or power (1) and can provide a low photovoltaic energy storage DC output (65). These outputs may be combined to present an array or other enhanced low photovoltaic energy storage DC output (66).
In typical applications, it is common for the conversion combined photovoltaic DC output (10) to be provided as an input to a load, shown as a photovoltaic DC-AC inverter (12) as but one possibility. The photovoltaic DC-AC inverter (12) can provide a photovoltaic AC power output (13). This may be connected to a grid or the like. As also shown, strings of such power can be connected in parallel (14) to provide greater power to the photovoltaic DC-AC inverter (12). It is also possible to provide an integrated system such as by having both the low photovoltaic energy storage DC-DC photovoltaic converter (15) and the photovoltaic DC-AC inverter (12) integrated to present a combined high efficiency DC-DC-AC photovoltaic converter (16).
In operation, the system can accept first power from the first photovoltaic source of power (5), accomplish base phase DC-DC conversion to create a base phase DC power delivery through the base phase DC-DC photovoltaic converter (6). In similar fashion accepted power from a second source of power such as the second photovoltaic source of power (7) can be converted through an altered phase DC-DC converting process to provide and create an altered phase DC power delivery. Both the base phase DC-DC photovoltaic converter (6) and the altered phase DC-DC photovoltaic converter (8) can have switches to achieve their operations. These switches can be controlled by some type of controller perhaps a synchronous phase control (11). The output of the altered phase DC power delivery and the base phase DC power delivery can be combined to achieve the mentioned conversion combined photovoltaic DC output (10).
To allow for greater power generation, it is possible that the process of combining the different power deliveries can involve the process of series combining the power deliveries. The combiner circuitry (9) can be configured as series power configured circuitry so that voltage or the like of the two power generators are added. As discussed later in reference to FIGS. 4, 6, and 7, it can be understood that the combiner circuitry (9) can involve one or more of either or both an inductance and/or a capacitance. These elements can be configured to have unusually low energy storage requirements for a photovoltaic system, and so the present invention can achieve unusually low input and output converter energy storage as discussed later. In such a configuration, the circuitry can be considered as involving a low photovoltaic energy storage inductor (17) and/or a low photovoltaic storage capacitor (18) of which the low photovoltaic energy storage DC-DC converter (59) is comprised. When configured as a series power combining circuit, the combiner circuitry (9) can present additive voltage circuitry that adds the output voltage of one power supply such as the base phase switched output to the output voltage of another power supply such as the altered phase switched output. The step of adding voltage can allow greater power generation or delivery efficiency while not exceeding the regulatory limits as mentioned earlier. It can also be achieved by low inductance adding of the voltages through the teachings of the present invention.
As mentioned, the converters can be based on a switch-mode type of operation. Such converters can have a number of different switches through which operations can achieve the desired goals.
Varying types of converters are shown in different embodiments of the present invention. As shown in FIGS. 4, 5, 6, and 7, the converters can have switches (e.g., 21-46) that can be controlled to achieve the desired goals. This control can be specific to embodiments of the present invention and can be an important aspect in achieving the goals as desired as well as an important difference in operation as compared to previous similar circuitries. Further, some of the switches such as those labeled (44 & 45 and the like) can be active switches, diodes, or even a combination of diodes with an active switch. The affirmative control of the switches can be by the synchronous phase control (11) as mentioned earlier. As shown in FIG. 1, one literal or conceptual synchronous control can activate multiple converters so that their switches are synchronous in operation. Naturally, two or more separate controls with a common timing can be used as long as their clock cycles are common so that the two converters are operated under one timing mode.
Control can be by duty cycle controlling the switches in the converters. A duty cycle controller (51) can be provided common to both converters as shown, and as such it can be considered a common duty cycle controller to achieve the step of common duty cycle control so that switches in the two converters can be operated synchronously according to desired schedules. By providing a common controller or at least synchronously controlling the converters, embodiments of the invention can be considered as providing a common timing signal for switch operation. This common timing signal can specifically cause modes of operation in accordance with the invention. For example, FIGS. 2a and 2b show some examples of this common timing signal for the tapped magnetically coupled inductor embodiments of the invention such as shown in FIG. 4. In these figures, a roughly 25% (FIG. 2b) and 121⁄2% (FIG. 2a) duty cycle operation is conceptually presented showing the operation of switches (21-28) as indicated. Although not shown, operation from 0% to 100% is possible, of course. As may be understood in the context of comparing the operations of switches (21 & 24), switches (26 & 27), switches (22 & 23), and switches (25 & 28) the synchronous and opposing modes of control can be seen. These switches can be sequentially operated so that the outputs of each converter oppose each other and switched at different times. As may be appreciated from FIG. 2b, this can offer advantages such that the opposing modes of operation can compensate for and offset an effect of each other in the combiner circuitry (9) and thus allow lower energy storage and more efficient operation. By presenting an opposing phase controller (52), embodiments of the invention can be configured such that one converter is on, generating power, active or the like when another is off or the like and vice versa. Through such affirmative control of switches, opposing phase controlling of the step of converting the power can achieve the reductions in energy storage as well as reduced ripple and other advantages. This opposing phase controller (52) can be diametrically opposing such as by providing a 180° photovoltaic converter switch controller and 180° photovoltaic converter switch controlling the DC output or the converters as shown. In this fashion the converter components can deliver power according to an interleaved schedule or process to effect advantages mentioned.
Similarly, by the interleave design, advantages can also be achieved. This can the understood conceptually with reference to FIGS. 3A-3D with the bottom axis representing the percentage of duty cycle operation. Perhaps non-quantitatively, FIG. 3A can be understood as representing an efficiency type of value (actually inefficiency) across the duty cycles ranges. It also compares one traditional operation with some of the improved modes of operation. In the previous systems, converters may have presented efficiency (or more appropriately inefficiency) across a 0% to 100% duty cycle range as shown conceptually in FIG. 3A by the curve labeled (53). By understanding that for some values and in some instances the FIG. 3A conceptual plot can be considered as presenting inefficiency or even a conversion energy along a vertical axis, it can be seen that significant inefficiency exists for many traditional systems at anything other than the 0% and 100% duty cycle areas. From this, it can be conceptually understood that in many traditional operating modes (designs with a full duty cycle energy configuration), converters were often least efficient at a midpoint of operation. They were most efficient at the 0% duty cycle of operation (no power) and also at the 100% duty cycle mode of operations (no conversion) but these can be less significant from a conversion perspective. Thus as those skilled in the art well understood, during the most significant situations of power generation or at least delivery, such as in the 50% to 100% duty cycle range of operation—often the most common locations—the converter was on average not that efficient. For example, for a maximum 60 volt panel output, a more traditional, full cycle ripple energy converter could provide an output ranging from 0 to 60 volts. At 0% duty cycle (0 volts), there was no power delivered; at 50% duty cycle there was power but at worst efficiency; at 100% there was no conversion achieved. Embodiments of the present invention show that this mode of operation can be improved upon. As explained later, entire efficiency is enhanced by the phased modes of operation now available through the present invention.
With respect to the curve labeled as (54), one can understand that this particular mode shows operation of embodiments designed to achieve a half duty cycle energy configuration. As may be conceptually understood from this plot, the efficiency can be improved (inefficiency reduced) through embodiments of the present invention. Similarly in the curve labeled (55), an operation mode using a half duty cycle energy configuration with or without the phased operational mode can be understood. As shown, even further advantages can be achieved (this may not be available for some of the embodiments of the present invention). Even the aspect of varying the voltage across all operational regimes is changed for embodiments of the present invention. Output voltage does not vary in this manner for the present invention, it remains relatively constant and so a high delivery voltage (itself a more efficient way to deliver power) can be achieved.
FIG. 3B can be considered as indicating amount of ripple such as through the low photovoltaic storage energy inductor (17) or the like. FIG. 3B can also be considered as indicating ripple current storage energy. FIG. 3C can be considered as indicating the sweet spot character across the various duty cycles. The number of sweet spots available in operation, with substantial power delivery, for the high efficiency conversion operations according to the present invention is improved. Sweet spots (highest practical efficiency and/or relatively little or no inefficiency) can be understood to exist at locations on the plot where it touches the bottom axis. A sweet spot can exist for some traditional circuitry at 0% and 100% of operation. Unfortunately, these are often locations of least interest as they may be less common or at least may not involve substantial power delivery. In embodiments of the present invention, sweet spots can exist at 50% and 100% or even at 25% and 50%. Through such designs and mode of operation, embodiments can thus provide an augmented sweet spot photovoltaic output. These augmented sweet spots can now exist even at substantial power conversion locations of operation and can be an effect caused by the new opposing phase mode of operational control by the synchronous control (11). As shown in FIG. 3C, for embodiments of the present invention, a sweet spot can now exist even at locations where significant power conversion occurs, not just at extremes of operational modes as in many traditional designs. Thus, the invention can provide a converted power generation or delivery sweet spot photovoltaic output as well as an augmented sweet spot photovoltaic output. As is well known, solar panels can have temperature effects; they generate power differently in different temperature conditions, and to a significant extent the variation in duty cycle can be due to this (as well as partial shading, etc.). In fact, the depiction in FIG. 3D can be considered as indicating a temperature effect on efficiency with a hot temperature power generation condition more likely at the 100% duty cycle and a cold temperature power generation condition more likely at the 50% duty cycle for maximum power harvesting. For many traditional systems operation at a colder temperature had a mode of relatively lower conversion efficiency. Through embodiments of the invention, high efficiency can exist at such reduced temperature power generation conditions and the invention can thus present a photovoltaically reduced temperature condition sweet spot photovoltaic output. For certain designs, it can even present a cold operational regime sweet spot photovoltaic output. As shown in FIG. 3C, for embodiments of the present invention, a sweet spot can exist at the 50% duty cycle range rather than a poorly efficient level of power delivery, not just a top as in many traditional designs and so the invention can provide a cold operational regime sweet spot photovoltaic power output.
As mentioned above, converters may be affirmatively switched to achieve best modes of operation. A variety of converter topologies are possible and several are shown in the figures. FIG. 5 shows a particular type of converter as applied to an individual panel that has a tapped magnetically coupled inductor element (56). This is one example of a tapped magnetically coupled inductor arrangement. As shown the tapped magnetically coupled inductor element (56) has an inductor tap (57). This embodiment is affirmatively switched through switches (31 through 42) for the various converters as shown in FIG. 5. These switches are activated by a duty cycle controller (51) to which the converter is switch timing responsive. As shown, this converter can include two pairs of series switches (e.g., 31 & 33)(32 & 34) connected at midpoints (58) at which the tapped magnetically coupled inductor element (56) is connected. Each low photovoltaic energy storage DC-DC photovoltaic converter (59) can include its own low photovoltaic energy storage inductor (60) and low energy storage output capacitor (61) so as to provide a low photovoltaic inductance DC output (62). FIG. 5 shows multiple applications of the tapped magnetically coupled inductor arrangements whereby each converts its own power output, perhaps such as from a solar panel (19). These converted, high efficiency photovoltaic outputs (62) may be series combined as shown to present an output string. Only a portion of a typical string is depicted. Often numerous panels are combined to approach the maximum allowed operating voltage. In this embodiment, however, an excess voltage arrangement can be configured. By using a half duty cycle energy configuration and individual power source conversion as shown, the string can be configured to provide a double maximum voltage arrangement such that a maximum regulatory or other allowed output can be one-half of the theoretically available panel voltage output. To stay under the maximum amount, the output can be boundary limited by including a photovoltaic boundary output controller (63) which may be part of each individual duty cycle controller, as depicted, or which may be conceptually a collective control for all converters in the string. For configurations applying a quarter duty cycle energy configuration and the individual power source conversion as shown, the string can even be configured to provide a quadruple maximum voltage arrangement such that a maximum regulatory or other allowed output can be one-quarter of the theoretically available panel voltage output. Additional duty cycle energy options (one-eighth, one-tenth, etc.) are also possible, of course. Again, a photovoltaic boundary output controller (63) can be included. Importantly, even with this boundary limitation, power is still harvested efficiently. Embodiments of the invention can be extremely efficient as compared to traditional designs. In fact, the invention can present a photovoltaic output that is at least about 98%, 99%, and 99.5% efficient from the perspective of its conversion process across a duty cycle range (averaged across the range of operation, an occurrence-based range of delivery, or a range of typical expected operation). It can even approach only wire losses in delivering power. Traditional designs rarely can achieve this level of efficiency.
For embodiments utilizing phased operational modes, interconnection and operation such as shown in FIG. 4 can be achieved. In this embodiment, the two pairs of series switches (e.g., 21 & 23)(22 & 24) connected at midpoints (58), can have the output from the tapped magnetically coupled inductor element (56) combined such as through the low photovoltaic energy storage inductor (17) so as to provide a low photovoltaic inductance DC output (64), and also a low energy storage output capacitor (18) to present another type of low photovoltaic energy storage DC-DC photovoltaic converter (59). In similar fashion to that of the individual panel conversion design of FIG. 5, the arrangement of FIG. 4 can also have an excess voltage arrangement. Such configurations can be of a half duty cycle energy configuration and so a half duty cycle controller can be used with the converted string configured to provide a double maximum voltage arrangement. In this configuration, again, to stay under the maximum amount, the output can be boundary limited by including a photovoltaic boundary output controller (63). Embodiments such as the phased converter shown in FIG. 4 can also be achieved through a buck power converter appearing arrangement such as shown in FIG. 7. In this embodiment circuitry resembling two buck DC-DC power converters can be used to create one high efficiency converter such as the low photovoltaic energy storage DC-DC photovoltaic converter (15) shown. In this embodiment, two pairs of series switches (43 & 44)(45 & 46) connected at midpoints (67) can have the output from the switched element combined such as through the low photovoltaic energy storage inductor (17) so as to provide a low photovoltaic inductance DC output (62), and also a low energy storage output capacitor (18) to present the low photovoltaic energy storage DC-DC photovoltaic converter (15). FIGS. 9a and 9b show some examples of this common timing signal for this embodiment. In these figures, a roughly 50% (FIG. 9a) and 75% (FIG. 9b) duty cycle operation is conceptually presented showing the operation of switches (43-46) as indicated. Again, although not shown, operation from 0% to 100% is possible, of course. As may be understood in the context of comparing the operations of switches (43 & 44) and switches (46 & 45), the synchronous and opposing modes of control can be seen. These switches can be sequentially operated so that the outputs of each converter oppose each other and are switched at different times. As with FIGS. 2a and 2b, this also offer advantages such that the opposing modes of operation can compensate for and offset an effect of each other in the combiner circuitry (9) and thus allow lower energy storage and more efficient operation.
As mentioned earlier, embodiments of the invention can operate at high operational voltages. Whereas in most, more traditional systems, output efficiency varied across the operational regime as shown in the curve (53) in FIG. 3, in embodiments of the present invention, the output can be relatively stable. As also indicated conceptually in FIG. 3 when considering the vertical axis as a type of ripple indication, mainly just the ripple varies—and even this is at a lower level of ripple than previous. The output voltage can be controlled to be relatively constant across all operational regimes without any compromise in power delivery. In fact, not only is there no loss in power delivery, the present invention can achieve higher power delivery. By utilizing a phased operational mode, this power output voltage such as present at the enhanced low photovoltaic energy storage DC output (66)(for the embodiment in FIG. 1), low photovoltaic inductance DC output (64)(for the embodiment in FIG. 4), and high efficiency photovoltaic outputs (62)(for the embodiment in FIGS. 5 & 7) can be a high multi operational regime output such that it is, at least in a photovoltaic sense, at a relatively high voltage or the like in any or even across all operational conversion regimes where substantial power is delivered. The high multi operational regime output can even be a high average photovoltaic voltage output (averaged across the range of operation, an occurrence-based range of delivery, or a range of typical expected operation). This high average photovoltaic voltage output or high multi operational regime output can be controlled to be near or even at the maximum desired or allowable for enhanced efficiency, perhaps less some guard band tolerance. Thus, embodiments can be configured or controlled to achieve an at least about 80%, 90%, or even 95% or more of a maximum voltage photovoltaic output across a typical operational range.
Beyond merely the level of voltage, embodiments can also present particular levels of high efficiency such as at sweet spots or the like. Considering the diagram of FIG. 3 as conceptually depicting temperature effect with a hot temperature generation at or near the 100% duty cycle and cold temperature operation at or near the 50% duty cycle, it can be understood that most significant, nominal operation will often occur in the 50% to 100% range. As discussed above with respect to the sweet spots shown conceptually in FIG. 3, designs can present dual nominal operational range high efficiency photovoltaic power outputs where sweet spot operation exists at two substantial power delivery locations. This is shown conceptually in FIG. 3 at 50% & 100% for the embodiments characterized as the half duty cycle energy configuration embodiments, and at 50%, 75%, and 100% for the embodiments characterized as the quarter duty cycle energy embodiments. Similarly, embodiments can be considered as presenting at least one high efficiency converted power generation or delivery mode photovoltaic output such as those referenced above and may even provide a two or dual high efficiency spots at which power conversion or delivery occurs.
In providing a low inductance output or low energy storage conversion, both the energy storage experienced at an input and at an output can be unusually low, at least from a photovoltaic perspective. Input inductance can be particularly low for the module level converter designs. This can be significant and can benefit the applied load perhaps such as the photovoltaic DC-AC inverter (12). Through proper coordination, this can offer advantages and can even encourage the use of the integrated design such as the combined high efficiency DC-DC-AC photovoltaic converter (16) design shown in FIG. 1.
As previously mentioned, a low energy storage converter, perhaps comprising a low energy storage, a low energy inductance, and/or a low energy capacitance, are advantages of the present invention. Recalling that FIG. 3 can be viewed as conceptually indicating the amount of ripple current storage energy across the duty cycle range, it can be understood that the amount of storage energy is significantly reduced through embodiments of the present invention. Whereas traditional systems indicate significant energy storage needs equivalent to a full cycle of ripple energy (as suggested by the peak height of curve (53) at 50%), in embodiments of the present invention, this energy can be considerably reduced by half or even a quarter as shown. Specifically, for a 50% to 100% design shown by curve (54), the peak height at 25% and 75% is about one-half the amount of energy storage indicated for a traditional system with equivalent switching frequency, equivalent types of switches, and the like. Similarly, for a 25% to 50% design shown by curve (55), the peak height at about 121⁄2%, 371⁄2%, etc. is about one-quarter the amount of energy storage indicated for a traditional system. The reduced values of conversion energy storage, inductance, and capacitance can be achieved at these reduced levels. Thus, for the embodiments characterized as the half duty cycle energy configuration embodiments, such designs can have a not more than about one-half duty cycle range ripple current photovoltaic energy storage converter, a not more than about one-half of traditional photovoltaic energy storage converter, a not more than about one-half duty cycle range ripple current photovoltaic energy storage inductor, a not more than about one-half of traditional photovoltaic energy storage inductor, a not more than about one-half duty cycle range ripple current photovoltaic energy storage capacitor, and a not more than about one-half of traditional photovoltaic energy storage capacitor. Similarly, for the embodiments characterized as the quarter duty cycle energy configuration embodiments, such designs can have a not more than about one-quarter duty cycle range ripple current photovoltaic energy storage converter, a not more than about one-quarter of traditional photovoltaic energy storage converter, a not more than about one-quarter duty cycle range ripple current photovoltaic energy storage inductor, a not more than about one-quarter of traditional photovoltaic energy storage inductor, a not more than about one-quarter duty cycle range ripple current photovoltaic energy storage capacitor, and a not more than about one-quarter of traditional photovoltaic energy storage capacitor. Similar aspects can exist for other embodiments (one-eighth, one-tenth, etc.) This can allow greater power delivery to the load such as the photovoltaic DC-AC inverter (12) or the like.
A further embodiment of the invention is illustrated in FIG. 6. In this design, an individual panel (19) can be enhanced by providing an interpanel or other conversion design that may be integral to, attached to, or provided with the panel (19). In this embodiment, multiple photovoltaic power cells (20) can be aggregated perhaps conceptually to present a solar panel (19) perhaps in its own assembly. The solar panel (19) power delivery can be conceptually split at some point and so there can be at least one split panel DC-DC photovoltaic converter (68). As discussed above, this can actually be comprised of two converters, perhaps such as a base phase DC-DC photovoltaic converter (6) and the altered phase DC-DC photovoltaic converter (8). These converters can have their outputs combined through combiner circuitry to provide a conversion combined photovoltaic DC output and this type of combiner circuitry can be configured as an interpanel photovoltaic cell addition circuitry (70).
The split panel DC-DC photovoltaic converter (68) can have affirmative switches as shown, that may be controlled by an internal or external duty cycle controller (51) to provide a high efficiency (or low energy storage or low inductance) photovoltaic DC output (69). Again this can be configured as to have a tapped magnetically coupled inductor arrangement or a buck converter appearing arrangement. Each can include a low photovoltaic energy storage inductor (17), a low photovoltaic inductance DC output, and a low energy storage output capacitor (18) as discussed above. This type of low photovoltaic energy storage DC-DC photovoltaic converter (59) can achieve the advantages discussed above. It may or may not require a photovoltaic boundary output controller.
As shown in FIG. 8, for those embodiments of any of the above that include a photovoltaic boundary output controller (63), it may be understood that this controller can control voltage (73), current (74), maximum power point (75), power delivery (perhaps even by over voltage boundary control to regulate the output power), or other aspects that may need to be limited such as to meet regulatory concerns or the like. This may, of course, exist for high temperature operation (76) or low temperature operation (77). Voltage control can be the most important for regulatory and other reasons, and so embodiments can present some controller as a photovoltaic output voltage limit controller. The photovoltaic boundary output controller (63) can limit output at a boundary hierarchally, that is with an ordered decisional process as to which limit applies and overrides other limits as well. This control can also be optimized for the inverter, inverter input sweet spot control, or otherwise. Some such levels are shown in FIG. 8. Inverter optimization control can be provided as one way of achieving converter operation that is optimized for a load, perhaps such as a photovoltaic DC-AC inverter (12). As such, embodiments may include (again, separately or as part of an existing controller or control software) a photovoltaic inverter optimized converter controller.
As mentioned above, the above converter and other inventive designs can be applied to a wide range of power situations. Almost any varying source of power can be enhanced by such power conversion and control. These powers can be consumer power, industrial power, individual consumer or such device or battery power, and even large scale grid power sources, and all such applications should be understood as encompassed within the present application and disclosure. While the invention has been described in connection with some preferred embodiments, it is not intended to limit the scope of the invention to the particular form set forth, but on the contrary, it is intended to cover such alternatives, modifications, and equivalents as may be included within the spirit and scope of the invention as defined by the statements of invention.
Examples of Embodiment Definitions May Include:


    1. A method of highly efficiency delivering solar energy power comprising the steps of:
    
        accepting a first power from a first photovoltaic source of power;
        base phase DC-DC converting said first power to create a base phase DC power delivery;
        accepting a second power from a second photovoltaic source of power;
        altered phase DC-DC converting said second power to create an altered phase DC power delivery;
        synchronous phase controlling said step of base phase DC-DC converting with said step of altered phase DC-DC converting; and
        combining said base phase DC power delivery with said altered phase DC power delivery to provide a conversion combined photovoltaic DC output.
    
    
    2. A method of highly efficiency delivering solar energy power as described in clause 1 or any other clause wherein said step of combining said base phase DC power delivery with said altered phase DC power delivery comprises the step of series power combining said base phase DC power delivery with said altered phase DC power delivery.
    3. A method of highly efficiency delivering solar energy power as described in clause 2 or any other clause wherein said step of series power combining said base phase DC power delivery with said altered phase DC power delivery comprises the step of adding voltages from said base phase DC power delivery and said altered phase DC power delivery.
    4. A method of highly efficiency delivering solar energy power as described in clause 3 or any other clause wherein said step of adding voltages from said base phase DC power delivery and said altered phase DC power delivery comprises the step of low inductance adding voltages from said base phase DC power delivery and said altered phase DC power delivery.
    5. A method of highly efficiency delivering solar energy power as described in clause 1 or any other clause wherein said step of synchronous phase controlling comprises the step of synchronously duty cycle controlling said step of base phase DC-DC converting with said step of altered phase DC-DC converting.
    6. A method of highly efficiency delivering solar energy power as described in clause 5 or any other clause wherein said step of synchronously duty cycle controlling comprises the step of common duty cycle controlling said step of base phase DC-DC converting with said step of altered phase DC-DC converting.
    7. A method of highly efficiency delivering solar energy power as described in clause 5 or any other clause and further comprising the steps of:
    
        establishing said conversion combined photovoltaic DC output as a converted DC photovoltaic input to a photovoltaic DC-AC inverter; and
        inverting said converted DC photovoltaic input into a photovoltaic AC power output.
    
    
    8. A method of highly efficiency delivering solar energy power as described in clause 7 or any other clause wherein said step of controlling further comprises the step of photovoltaic inverter input coordinated controlling said step of base phase DC-DC converting with said step of altered phase DC-DC converting.
    9. A method of highly efficiency delivering solar energy power as described in clause 8 or any other clause wherein said step of photovoltaic inverter input controlling comprises the step of photovoltaic inverter input optimization controlling said step of base phase DC-DC converting with said step of altered phase DC-DC converting.
    10. A method of highly efficiency delivering solar energy power as described in clause 1 or any other clause wherein said step of synchronous phase controlling comprises the step of common timing signal controlling said step of base phase DC-DC converting with said step of altered phase DC-DC converting.
    11. A method of highly efficiency delivering solar energy power as described in clause 1 or any other clause wherein said step of synchronous phase controlling comprises the step of opposing phase controlling said step of base phase DC-DC converting with said step of altered phase DC-DC converting.
    12. A method of highly efficiency delivering solar energy power as described in clause 11 or any other clause wherein said step of opposing phase controlling comprises the step of augmented photovoltaic output sweet spot controlling said step of base phase DC-DC converting with said step of altered phase DC-DC converting.
    13. A method of highly efficiency delivering solar energy power as described in clause 12 or any other clause wherein said step of augmented photovoltaic output sweet spot controlling comprises the step of cold operational regime sweet spot controlling said step of base phase DC-DC converting with said step of altered phase DC-DC converting.
    14. A method of highly efficiency delivering solar energy power as described in clause 12 or any other clause wherein said step of augmented photovoltaic output sweet spot controlling comprises the step of converted power generation output sweet spot controlling said step of base phase DC-DC converting with said step of altered phase DC-DC converting.
    15. A method of highly efficiency delivering solar energy power as described in clause 12 or any other clause wherein said step of augmented photovoltaic output sweet spot controlling comprises the step of photovoltaically reduced temperature condition sweet spot controlling said step of base phase DC-DC converting with said step of altered phase DC-DC converting.
    16. A method of highly efficiency delivering solar energy power as described in clause 13 or any other clause wherein said steps of base phase DC-DC converting and altered phase DC-DC converting each comprise the step of buck DC-DC power converting said input powers, and wherein said step of combining said base phase DC power delivery with said altered phase DC power delivery comprises the step of series inductor combining said base phase DC power delivery with said altered phase DC power delivery to provide a conversion combined photovoltaic DC output.
    17. A method of highly efficiency delivering solar energy power as described in clause 16 or any other clause wherein said step of series inductor combining comprises the step of low photovoltaic energy inductance combining said base phase DC power delivery with said altered phase DC power delivery to provide a conversion combined photovoltaic DC output.
    18. A method of highly efficiency delivering solar energy power as described in clause 17 or any other clause wherein said step of low photovoltaic energy inductance combining comprises a step selected from a group consisting of:
    
        not more than about one-half duty cycle ripple current photovoltaic energy storage combining said base phase DC power delivery with said altered phase DC power delivery;
        not more than about one-half of traditional photovoltaic energy storage combining said base phase DC power delivery with said altered phase DC power delivery;
        a not more than about one-quarter duty cycle ripple current photovoltaic energy storage combining said base phase DC power delivery with said altered phase DC power delivery; and
        a not more than about one-quarter of traditional photovoltaic energy storage combining said base phase DC power delivery with said altered phase DC power delivery.
    
    
    19. A method of highly efficiency delivering solar energy power as described in clause 16 or any other clause wherein said step of base phase DC-DC converting and said step of altered phase DC-DC converting each comprise the step of utilizing two series connected switches connected at a midpoint, and wherein said step of series inductor combining said base phase DC power delivery with said altered phase DC power delivery comprises the step of utilizing an inductor connected between said midpoints.
    20. A method of highly efficiency delivering solar energy power as described in clause 12 or any other clause wherein said steps of base phase DC-DC converting and altered phase DC-DC converting each comprise the step of utilizing a tapped magnetically coupled inductor arrangement having an inductor tap, and wherein said step of combining said base phase DC power delivery with said altered phase DC power delivery comprises the step of utilizing an inductor connected between said inductor taps.
    21. A method of highly efficiency delivering solar energy power as described in clause 20 or any other clause wherein said step of utilizing an inductor connected between said inductor taps comprises the step of utilizing a low photovoltaic energy storage inductor connected between said inductor taps.
    22. A method of highly efficiency delivering solar energy power as described in clause 21 or any other clause wherein said step of utilizing a low photovoltaic energy storage inductor connected between said inductor taps comprises a step selected from a group consisting of:
    
        not more than about one-half duty cycle range ripple current photovoltaic energy storage combining said base phase DC power delivery with said altered phase DC power delivery; and
        a not more than about one-quarter duty cycle range ripple current photovoltaic energy storage combining said base phase DC power delivery with said altered phase DC power delivery.
    
    
    23. A method of highly efficiency delivering solar energy power as described in clause 20 or any other clause wherein said step of utilizing a tapped magnetically coupled inductor arrangement further comprises the step of utilizing two pairs of series switches connected at a midpoint to which said tapped magnetically coupled inductor arrangement is connected.
    24. A method of highly efficiency delivering solar energy power as described in clause 12, 16, 20, or any other clause and further comprising the step of photovoltaic boundary output controlling said step of base phase DC-DC converting and said step of altered phase DC-DC converting.
    25. A method of highly efficiency delivering solar energy power as described in clause 11 or any other clause wherein said step of combining said base phase DC power delivery with said altered phase DC power delivery comprises the step of series combining said base phase DC power delivery with said altered phase DC power delivery to provide said conversion combined photovoltaic DC output.
    26. A method of highly efficiency delivering solar energy power as described in clause 25 or any other clause wherein said step of series combining said base phase DC power delivery with said altered phase DC power delivery to provide said conversion combined photovoltaic DC output comprises the step of adding voltages from said base phase DC power delivery and said altered phase DC power delivery.
    27. A method of highly efficiency delivering solar energy power as described in clause 26 or any other clause wherein said step of adding voltages from said base phase DC power delivery and said altered phase DC power delivery comprises the step of establishing an excess voltage arrangement.
    28. A method of highly efficiency delivering solar energy power as described in clause 27 or any other clause wherein said step of establishing an excess voltage arrangement comprises the step of establishing a double maximum voltage arrangement.
    29. A method of highly efficiency delivering solar energy power as described in clause 11 or any other clause wherein said step of combining said base phase DC power delivery with said altered phase DC power delivery comprises the step of establishing a double maximum voltage arrangement.
    30. A method of highly efficiency delivering solar energy power as described in clause 1 or any other clause wherein said steps of converting said DC power comprise the steps of low photovoltaic energy storage converting said DC power.
    31. A method of highly efficiency delivering solar energy power as described in clause 30 or any other clause wherein said steps of low photovoltaic energy storage converting said DC power comprise steps selected from a group consisting of:
    
        not more than about one-half duty cycle range ripple current photovoltaic energy storage converting said power;
        not more than about one-half of traditional photovoltaic energy storage converting said power;
        a not more than about one-quarter duty cycle range ripple current photovoltaic energy storage converting said power; and
        a not more than about one-quarter of traditional photovoltaic energy storage converting said power.
    
    
    32. A method of highly efficiency delivering solar energy power as described in clause 30 or any other clause wherein said steps of base phase DC-DC converting and altered phase DC-DC converting each comprise the step of buck DC-DC power converting said input powers, and wherein said step of combining said base phase DC power delivery with said altered phase DC power delivery comprises the step of series inductor combining said base phase DC power delivery with said altered phase DC power delivery to provide a conversion combined photovoltaic DC output.
    33. A method of highly efficiency delivering solar energy power as described in clause 30 or any other clause wherein said steps of base phase DC-DC converting and altered phase DC-DC converting each comprise the step of utilizing a tapped magnetically coupled inductor arrangement having an inductor tap, and wherein said step of combining said base phase DC power delivery with said altered phase DC power delivery comprises the step of utilizing an inductor connected between said inductor taps.
    34. A method of highly efficiency delivering solar energy power as described in clause 30 or any other clause wherein said step of synchronous phase controlling comprises the step of opposing phase controlling said step of base phase DC-DC converting with said step of altered phase DC-DC converting.
    35. A method of highly efficiency delivering solar energy power as described in clause 11 or any other clause wherein said step of combining said base phase DC power delivery with said altered phase DC power delivery comprises the step of interpanel photovoltaic cell additive combining said base phase DC power delivery with said altered phase DC power delivery.
    36. A method of highly efficiency delivering solar energy power as described in clause 35 or any other clause wherein said step of base phase DC-DC converting and altered phase DC-DC converting comprise the step of split panel DC-DC power converting said input powers.
    37. A method of highly efficiency delivering solar energy power as described in clause 36 or any other clause wherein said step of split panel DC-DC power converting said input powers comprises the step of buck DC-DC power converting said input powers, and wherein said step of combining said base phase DC power delivery with said altered phase DC power delivery comprises the step of series inductor combining said base phase DC power delivery with said altered phase DC power delivery to provide a conversion combined photovoltaic DC output.
    38. A method of highly efficiency delivering solar energy power as described in clause 27 or any other clause wherein said step of series inductor combining said base phase DC power delivery with said altered phase DC power delivery comprises the step of low photovoltaic energy storage combining said base phase DC power delivery with said altered phase DC power delivery.
    39. A method of highly efficiency delivering solar energy power as described in clause 36 or any other clause wherein said step of split panel DC-DC power converting said input powers comprises the step of tapped magnetically coupled inductor converting said input powers, and wherein said step of combining said base phase DC power delivery with said altered phase DC power delivery comprises the step of series inductor combining said base phase DC power delivery with said altered phase DC power delivery to provide a conversion combined photovoltaic DC output.
    40. A method of highly efficiency delivering solar energy power as described in clause 39 or any other clause wherein said step of series inductor combining said base phase DC power delivery with said altered phase DC power delivery comprises the step of low photovoltaic energy storage combining said base phase DC power delivery with said altered phase DC power delivery.
    41. A method of highly efficiency delivering solar energy power as described in clause 1 or any other clause and further comprising the step of establishing said conversion combined photovoltaic DC output as a high multi operational regime output.
    42. A method of highly efficiency delivering solar energy power as described in clause 41 or any other clause wherein said step of synchronous phase controlling comprises the step of opposing phase controlling said step of base phase DC-DC converting with said step of altered phase DC-DC converting.
    43. A method of highly efficiency delivering solar energy power as described in clause 42 or any other clause wherein said step of establishing said conversion combined photovoltaic DC output as a high multi operational regime output comprises the step of establishing a high photovoltaic conversion efficiency output.
    44. A method of highly efficiency delivering solar energy power as described in clause 43 or any other clause wherein said step of establishing a high photovoltaic conversion efficiency output comprises a step selected from a group consisting of:
    
        establishing an at least about 98% efficient photovoltaic output;
        establishing an at least about 99% efficient photovoltaic output; and
        establishing an at least about 99.5% efficient photovoltaic output.
    
    
    45. A method of highly efficiency delivering solar energy power as described in clause 42 or any other clause wherein said step of establishing said conversion combined photovoltaic DC output as a high multi operational regime output comprises the step of establishing a high average photovoltaic voltage output.
    46. A method of highly efficiency delivering solar energy power as described in clause 45 or any other clause wherein said step of establishing a high average photovoltaic voltage output comprises a step selected from a group consisting of:
    
        establishing an at least about 80% of maximum voltage photovoltaic output across a typical operational range;
        establishing an at least about 90% of maximum voltage photovoltaic output across a typical operational range; and
        establishing an at least about 95% of maximum voltage photovoltaic output across a typical operational range.
    
    
    47. A method of highly efficiency delivering solar energy power as described in clause 41 or any other clause wherein said step of establishing said conversion combined photovoltaic DC output as a high multi operational regime output comprises the step of establishing a dual nominal operational range high efficiency photovoltaic output.
    48. A method of highly efficiency delivering solar energy power as described in clause 47 or any other clause wherein said step of establishing a dual high efficiency photovoltaic output comprises the step of establishing an at least one high efficiency power delivery mode photovoltaic output.
    49. A method of highly efficiency delivering solar energy power as described in clause 41 or any other clause wherein said step of combining said base phase DC power delivery with said altered phase DC power delivery comprises the step of low photovoltaic energy storage combining said base phase DC power delivery with said altered phase DC power delivery.
    50. A method of highly efficiency delivering solar energy power as described in clause 42 or any other clause wherein said steps of converting DC-DC power converting said input powers comprise the step of buck DC-DC power converting said input powers, and wherein said step of combining said base phase DC power delivery with said altered phase DC power delivery comprises the step of series inductor combining said base phase DC power delivery with said altered phase DC power delivery to provide a conversion combined photovoltaic DC output.
    51. A method of highly efficiency delivering solar energy power as described in clause 42 or any other clause wherein said steps of converting DC-DC power converting said input powers comprise the step of tapped magnetically coupled inductor converting said input powers, and wherein said step of combining said base phase DC power delivery with said altered phase DC power delivery comprises the step of series inductor combining said base phase DC power delivery with said altered phase DC power delivery to provide a conversion combined photovoltaic DC output.
    52. A method of highly efficiency delivering solar energy power comprising the steps of:
    
        accepting power from at least one photovoltaic source of power;
        low photovoltaic energy storage DC-DC photovoltaic converting said power;
        duty cycle controlling said step of low photovoltaic energy storage DC-DC photovoltaic converting said power; and
        low photovoltaic energy storage delivering a converted photovoltaic DC output.
    
    
    53. A method of highly efficiency delivering solar energy power as described in clause 52 or any other clause wherein said step of low photovoltaic energy storage DC-DC photovoltaic converting comprises a step selected from a group consisting of:
    
        not more than about one-half duty cycle range ripple current photovoltaic energy storage converting said power;
        not more than about one-half of traditional photovoltaic energy storage converting said power;
        a not more than about one-quarter duty cycle range ripple current photovoltaic energy storage converting said power; and
        a not more than about one-quarter of traditional photovoltaic energy storage converting said power.
    
    
    54. A method of highly efficiency delivering solar energy power as described in clause 52 or any other clause wherein said step of low photovoltaic energy storage DC-DC photovoltaic converting said power comprises the steps of:
    
        first DC-DC photovoltaic converting; and
        second DC-DC photovoltaic converting.
    
    
    55. A method of highly efficiency delivering solar energy power as described in clause 54 or any other clause wherein said step of first DC-DC photovoltaic converting comprises the step of base phase DC-DC converting to create a base phase DC power delivery, and wherein said step of second DC-DC photovoltaic converting comprises the step of altered phase DC-DC converting to create an altered phase DC power delivery, and wherein said step of low photovoltaic energy storage delivering a converted photovoltaic DC output comprises the step of combining said base phase DC power delivery with said altered phase DC power delivery.
    56. A method of highly efficiency delivering solar energy power as described in clause 55 or any other clause wherein said steps of base phase DC-DC converting and altered phase DC-DC converting each comprise the step of buck DC-DC power converting, and wherein said step of combining said base phase DC power delivery with said altered phase DC power delivery comprises the step of series inductor combining said base phase DC power delivery with said altered phase DC power delivery to provide a conversion combined photovoltaic DC output.
    57. A method of highly efficiency delivering solar energy power as described in clause 55 or any other clause wherein said steps of base phase DC-DC converting and altered phase DC-DC converting each comprise the step of utilizing a tapped magnetically coupled inductor arrangement having an inductor tap, and wherein said step of combining said base phase DC power delivery with said altered phase DC power delivery comprises the step of utilizing an inductor connected between said inductor taps.
    58. A method of highly efficiency delivering solar energy power as described in clause 55 or any other clause wherein said step of duty cycle controlling said step of low photovoltaic energy storage DC-DC photovoltaic converting said power comprises the step of synchronous phase controlling said step of base phase DC-DC converting with said step of altered phase DC-DC converting.
    59. A method of highly efficiency delivering solar energy power as described in clause 58 or any other clause wherein said step of synchronous phase controlling comprises the step of opposing phase controlling said step of base phase DC-DC converting with said step of altered phase DC-DC converting.
    60. A method of highly efficiency delivering solar energy power comprising the steps of:
    
        establishing multiple photovoltaic power cells as a photovoltaic source of power;
        aggregating said multiple photovoltaic power cells in a solar panel assembly;
        split panel DC-DC power converting said power;
        duty cycle controlling said step of split panel DC-DC power converting said power; and
        high photovoltaic efficiency delivering a high efficiency photovoltaic DC output.
    
    
    61. A method of highly efficiency delivering solar energy power as described in clause 60 or any other clause wherein said step of high photovoltaic efficiency delivering a high efficiency photovoltaic DC output comprises the step of interpanel photovoltaic cell additive combining said power.
    62. A method of highly efficiency delivering solar energy power as described in clause 61 or any other clause wherein said step of split panel DC-DC power converting said power comprises the steps of:
    
        first split panel DC-DC photovoltaic converting power from a first collection of photovoltaic power cells on said solar panel assembly; and
        second split panel DC-DC photovoltaic converting power from a second collection of photovoltaic power cells on said solar panel assembly.
    
    
    63. A method of highly efficiency delivering solar energy power as described in clause 62 or any other clause wherein said step of first split panel DC-DC photovoltaic converting power from a first collection of photovoltaic power cells on said solar panel assembly comprises the step of base phase DC-DC converting to create a base phase DC power delivery, and wherein said step of second split panel DC-DC photovoltaic converting power from a second collection of photovoltaic power cells on said solar panel assembly comprises the step of altered phase DC-DC converting to create an altered phase DC power delivery.
    64. A method of highly efficiency delivering solar energy power as described in clause 63 or any other clause wherein said step of split panel DC-DC power converting said input powers comprises the step of buck DC-DC power converting said input powers, and wherein said step of interpanel photovoltaic cell additive combining said power comprises the step of series inductor combining to provide a conversion combined photovoltaic DC output.
    65. A method of highly efficiency delivering solar energy power as described in clause 64 or any other clause wherein said step of interpanel photovoltaic cell additive combining said power comprises the step of series inductor combining.
    66. A method of highly efficiency delivering solar energy power as described in clause 63 or any other clause wherein said step of split panel DC-DC power converting said input powers comprises the step of tapped magnetically coupled inductor converting said input powers, and wherein said step of interpanel photovoltaic cell additive combining said power comprises the step of series inductor combining.
    67. A method of highly efficiency delivering solar energy power as described in clause 66 or any other clause wherein said step of interpanel photovoltaic cell additive combining said power comprises the step of series inductor combining.
    68. A method of highly efficiency delivering solar energy power as described in clause 63 or any other clause wherein said step of duty cycle controlling said step of split panel DC-DC power converting said power comprises the step of synchronous phase controlling said step of split panel DC-DC power converting said power.
    69. A method of highly efficiency delivering solar energy power as described in clause 68 or any other clause wherein said step of synchronous phase controlling comprises the step of opposing phase controlling said step of split panel DC-DC power converting said power.
    70. A method of highly efficiency delivering solar energy power comprising the steps of:
    
        accepting power from at least one photovoltaic source of power;
        tapped magnetically coupled inductor converting said power;
        duty cycle controlling said step of tapped magnetically coupled inductor converting said power; and
        high photovoltaic efficiency delivering a high efficiency photovoltaic DC output.
    
    
    71. A method of highly efficiency delivering solar energy power as described in clause 70 or any other clause wherein said step of tapped magnetically coupled inductor converting said DC power comprises the step of low photovoltaic energy storage DC-DC photovoltaic converting said power.
    72. A method of highly efficiency delivering solar energy power as described in clause 71 or any other clause wherein said step of low photovoltaic energy storage converting said DC output comprises a step selected from a group consisting of:
    
        not more than about one-half duty cycle range ripple current photovoltaic energy storage converting said power;
        not more than about one-half of traditional photovoltaic energy storage converting said power;
        a not more than about one-quarter duty cycle range ripple current photovoltaic energy storage converting said power; and
        a not more than about one-quarter of traditional photovoltaic energy storage converting said power.
    
    
    73. A method of highly efficiency delivering solar energy power as described in clause 70 or any other clause wherein said step of synchronous phase controlling comprises the step of opposing phase controlling said step of tapped magnetically coupled inductor converting said power.
    74. A method of highly efficiency delivering solar energy power as described in clause 70 or any other clause wherein said step of tapped magnetically coupled inductor converting said power comprises the step of utilizing two pairs of series switches connected at a midpoint to which a tapped magnetically coupled inductor arrangement is connected.
    75. A method of highly efficiency delivering solar energy power as described in clause 70 or any other clause wherein said step of duty cycle controlling said step of tapped magnetically coupled inductor converting said power comprises the step of augmented photovoltaic output sweet spot controlling said step of tapped magnetically coupled inductor converting.
    76. A method of highly efficiency delivering solar energy power as described in clause 75 or any other clause wherein said step of augmented photovoltaic output sweet spot controlling comprises the step of cold operational regime sweet spot controlling said step of tapped magnetically coupled inductor converting.
    77. A method of highly efficiency delivering solar energy power as described in clause 75 or any other clause wherein said step of augmented photovoltaic output sweet spot controlling comprises the step of converted power generation sweet spot photovoltaic output controlling said step of tapped magnetically coupled inductor converting.
    78. A method of highly efficiency delivering solar energy power as described in clause 76 or any other clause wherein said step of augmented photovoltaic output sweet spot controlling comprises the step of photovoltaically reduced temperature condition sweet spot controlling said step of tapped magnetically coupled inductor converting.
    79. A method of highly efficiency delivering solar energy power as described in clause 70 or any other clause wherein said step of high photovoltaic efficiency delivering a high efficiency photovoltaic DC output comprises the step of establishing an excess voltage arrangement.
    80. A method of highly efficiency delivering solar energy power as described in clause 79 or any other clause wherein said step of establishing an excess voltage arrangement comprises the step of establishing a double maximum voltage arrangement.
    81. A method of highly efficiency delivering solar energy power as described in clause 79 or any other clause wherein said step of establishing an excess voltage arrangement comprises the step of establishing a quadruple maximum voltage arrangement.
    82. A method of highly efficiency delivering solar energy power as described in clause 70 or any other clause wherein said step of high photovoltaic efficiency delivering a high efficiency photovoltaic DC output comprises the step of establishing a dual nominal operational range high efficiency photovoltaic power output.
    83. A method of highly efficiency delivering solar energy power as described in clause 1, 11, 12, 25, 30, 34, 41, 52, 59, 70 or any other clause and further comprising the steps of:
    
        establishing said photovoltaic DC output as a converted DC photovoltaic input to a photovoltaic DC-AC inverter; and
        inverting said converted DC photovoltaic input into a photovoltaic AC power output, and further comprising the step of photovoltaic inverter input coordinated controlling said converting.
    
    
    84. A method of highly efficiency delivering solar energy power as described in clause 83 or any other clause and further comprising the step of low photovoltaic energy storage delivering a converted photovoltaic DC output.
    85. A method of highly efficiency delivering solar energy power as described in clause 83 or any other clause wherein said step of photovoltaic inverter input coordinated controlling comprises the step of photovoltaic inverter input optimization controlling said converting.
    86. A method of highly efficiency delivering solar energy power as described in clause 83 or any other clause wherein said step of converting comprises the step of buck DC-DC power converting, and further comprising the step of series inductor combining to provide a conversion combined photovoltaic DC output.
    87. A method of highly efficiency delivering solar energy power as described in clause 83 or any other clause wherein said step of converting comprises the step of utilizing a tapped magnetically coupled inductor arrangement having an inductor tap, and further comprising the step of utilizing an inductor connected to said inductor tap.
    88. A method of highly efficiency delivering solar energy power as described in clause 1, 10, 12, 25, 30, 34, 41, 52, 59, 70 or any other clause wherein said step of controlling comprises the step of photovoltaic boundary condition controlling said DC output.
    89. A method of highly efficiency delivering solar energy power as described in clause 88 or any other clause wherein said step of photovoltaic boundary condition controlling comprises the step of photovoltaic output voltage limit controlling said DC output.
    90. A method of highly efficiency delivering solar energy power as described in clause 89 or any other clause wherein said step of converting comprises the step of buck DC-DC power converting.
    91. A method of highly efficiency delivering solar energy power as described in clause 89 or any other clause wherein said step of converting comprises the step of tapped magnetically coupled inductor converting.
    92. A method of highly efficiency delivering solar energy power as described in clause 83 or any other clause wherein said step of controlling comprises the step of photovoltaic boundary condition controlling said DC output.
    93. A method of highly efficiency delivering solar energy power as described in clause 92 or any other clause wherein said step of photovoltaic boundary condition controlling comprises the step of photovoltaic output voltage limit controlling said DC output.
    94. A method of highly efficiency delivering solar energy power as described in clause 93 or any other clause wherein said step of converting comprises the step of buck DC-DC power converting.
    95. A method of highly efficiency delivering solar energy power as described in clause 93 or any other clause wherein said step of converting comprises the step of tapped magnetically coupled inductor converting.
    96. A method of highly efficiency delivering solar energy power as described in clause 11, 25, 34, 41 59, 69 or any other clause wherein said step of controlling comprises the step of 180° photovoltaic converter switch controlling said DC output.
    97. A method of highly efficiency delivering solar energy power as described in clause 1, 12, 30, 41, 58, 58, or any other clause wherein said step of controlling comprises the step of common duty cycle controlling said step of converting.
    98. A method of highly efficiency delivering solar energy power as described in clause 70 or any other clause wherein said step of controlling comprises the step of 180° photovoltaic converter switch controlling said DC output.
    99. A method of highly efficiency delivering solar energy power as described in clause 70 or any other clause wherein said step of controlling comprises the step of common duty cycle controlling said step of converting.
    100. A method of highly efficiency delivering solar energy power as described in clause 84 or any other clause and further comprising the step of combining converted DC power to create a conversion combined photovoltaic DC output.
    101. A method of highly efficiency delivering solar energy power as described in clause 100 or any other clause wherein said step of combining converted DC power to create a conversion combined photovoltaic DC output comprises the step of low photovoltaic energy storage combining said converted DC power.
    102. A method of highly efficiency delivering solar energy power as described in clause 97 or any other clause and further comprising the step of establishing a double maximum voltage arrangement.
    103. A method of highly efficiency delivering solar energy power as described in clause 102 or any other clause wherein said step of converting comprises a step selected from a group consisting of:
    
        not more than about one-half duty cycle range ripple current photovoltaic energy storage converting said power; and
        not more than about one-half of traditional photovoltaic energy storage converting said power.
    
    
    104. A method of highly efficiency delivering solar energy power as described in clause 98 or any other clause and further comprising the step of establishing a quadruple maximum voltage arrangement.
    105. A method of highly efficiency delivering solar energy power as described in clause 104 or any other clause wherein said step of converting comprises a step selected from a group consisting of:
    
        a not more than about one-quarter duty cycle range ripple current photovoltaic energy storage converting said power; and
        a not more than about one-quarter of traditional photovoltaic energy storage converting said power.
    
    
    106. A method of highly efficiency delivering power comprising the steps of:
    
        accepting a first power from a first source of power;
        base phase DC-DC converting said first power to create a base phase DC power delivery;
        accepting a second power from a second source of power;
        altered phase DC-DC converting said second power to create an altered phase DC power delivery;
        synchronous phase controlling said step of base phase DC-DC converting with said step of altered phase DC-DC converting; and
        combining said base phase DC power delivery with said altered phase DC power delivery to provide a conversion combined DC output.
    
    
    107. A method of highly efficiency delivering power comprising the steps of:
    
        accepting power from at least one source of power;
        low conversion energy storage DC-DC converting said power;
        duty cycle controlling said step of low conversion energy storage DC-DC converting said power; and
        low energy storage delivering a converted DC output.
    
    
    108. A method of highly efficiency delivering power comprising the steps of:
    
        accepting power from at least one source of power;
        tapped magnetically coupled inductor converting said power;
        duty cycle controlling said step of tapped magnetically coupled inductor converting said power; and
        high efficiency delivering a high efficiency DC output.
    
    
    109. A method of highly efficiency delivering solar energy power as described in clause 106, 107, 108 or any other clause wherein said step of controlling comprises the step of boundary condition controlling said DC output.
    110. A high efficiency solar energy power system comprising:
    
        a first photovoltaic source of power;
        a base phase DC-DC photovoltaic converter having a base phase switched output;
        a second photovoltaic source of power;
        an altered phase DC-DC photovoltaic converter having an altered phase switched output relative to said base phase switched output;
        a synchronous phase control to which said base phase DC-DC photovoltaic converter and said altered phase DC-DC photovoltaic converter are switch timing responsive; and
        combiner circuitry responsive to said base phase switched output and said altered phase switched output providing a conversion combined photovoltaic DC output.
    
    
    111. A high efficiency solar energy power system as described in clause 110 or any other clause wherein said combiner circuitry comprises series power configured circuitry.
    112. A high efficiency solar energy power system as described in clause 111 or any other clause wherein said combiner circuitry responsive to said base phase switched output and said altered phase switched output providing a conversion combined photovoltaic DC output comprises additive voltage circuitry that adds an output voltage of said base phase switched output with an output voltage of said altered phase switched output.
    113. A high efficiency solar energy power system as described in clause 112 or any other clause wherein said combiner circuitry comprises a low photovoltaic energy storage inductor.
    114. A high efficiency solar energy power system as described in clause 110 or any other clause wherein said synchronous phase control comprises a duty cycle controller.
    115. A high efficiency solar energy power system as described in clause 114 or any other clause wherein said duty cycle controller comprises a common duty cycle controller to which said base phase DC-DC photovoltaic converter and said altered phase DC-DC photovoltaic converter are each responsive.
    116. A high efficiency solar energy power system as described in clause 114 or any other clause and further comprising:
    
        a photovoltaic DC-AC inverter responsive to said conversion combined photovoltaic DC output; and
        a photovoltaic AC power output responsive to said photovoltaic DC-AC inverter.
    
    
    117. A high efficiency solar energy power system as described in clause 116 or any other clause wherein said duty cycle controller comprises a photovoltaic inverter input controller.
    118. A high efficiency solar energy power system as described in clause 117 or any other clause wherein said photovoltaic inverter input controller comprises a photovoltaic inverter input optimization controller.
    119. A high efficiency solar energy power system as described in clause 110 or any other clause wherein said synchronous phase control comprises a common timing signal.
    120. A high efficiency solar energy power system as described in clause 110 or any other clause wherein said synchronous phase control comprises an opposing phase controller.
    121. A high efficiency solar energy power system as described in clause 120 or any other clause wherein said conversion combined photovoltaic DC output comprises an augmented sweet spot photovoltaic output.
    122. A high efficiency solar energy power system as described in clause 121 or any other clause wherein said augmented sweet spot photovoltaic output comprises a cold operational regime sweet spot photovoltaic output.
    123. A high efficiency solar energy power system as described in clause 121 or any other clause wherein said augmented sweet spot photovoltaic output comprises a converted power generation sweet spot photovoltaic output.
    124. A high efficiency solar energy power system as described in clause 121 or any other clause wherein said augmented sweet spot photovoltaic output comprises a photovoltaically reduced temperature condition sweet spot photovoltaic output.
    125. A high efficiency solar energy power system as described in clause 122 or any other clause wherein said base phase DC-DC photovoltaic converter and said altered phase DC-DC photovoltaic converter each comprise a buck DC-DC power converter, and wherein said combiner circuitry comprises a series combination inductor.
    126. A high efficiency solar energy power system as described in clause 125 or any other clause wherein said series combination inductor comprises a low photovoltaic energy storage inductor.
    127. A high efficiency solar energy power system as described in clause 126 or any other clause wherein said low photovoltaic energy storage inductor comprises a low photovoltaic energy storage inductor selected from a group consisting of:
    
        a not more than about one-half duty cycle range ripple current photovoltaic energy storage inductor;
        a not more than about one-half of traditional photovoltaic energy storage inductor;
        a not more than about one-quarter duty cycle range ripple current photovoltaic energy storage inductor; and
        a not more than about one-quarter of traditional photovoltaic energy storage inductor.
    
    
    128. A high efficiency solar energy power system as described in clause 125 or any other clause wherein said converters have a pair of series connected switches connected at a midpoint, and wherein said combiner circuitry comprises an inductor connected between said midpoints.
    129. A high efficiency solar energy power system as described in clause 121 or any other clause wherein said base phase DC-DC photovoltaic converter and said altered phase DC-DC photovoltaic converter each comprise a tapped magnetically coupled inductor arrangement having an inductor tap, and wherein said combiner circuitry comprises a series combination inductor connected between said inductor taps.
    130. A high efficiency solar energy power system as described in clause 129 or any other clause wherein said series combination inductor connected between said inductor taps comprises a low photovoltaic energy storage inductor.
    131. A high efficiency solar energy power system as described in clause 130 or any other clause wherein said low photovoltaic energy storage inductor comprises a low photovoltaic energy storage inductor selected from a group consisting of:
    
        a not more than about one-half duty cycle range ripple current photovoltaic energy storage inductor, and a
        a not more than about one-quarter duty cycle range ripple current photovoltaic energy storage inductor.
    
    
    132. A high efficiency solar energy power system as described in clause 129 or any other clause wherein said base phase DC-DC photovoltaic converter and said altered phase DC-DC photovoltaic converter comprise converters having two pairs of series switches connected at a midpoint to which said tapped magnetically coupled inductor arrangement is connected.
    133. A high efficiency solar energy power system as described in clause 121, 125, 129, or any other clause and further comprising a photovoltaic boundary output controller to which said converters are responsive at at least some times of operation.
    134. A high efficiency solar energy power system as described in clause 120 or any other clause wherein said combiner circuitry comprises series power configured circuitry.
    135. A high efficiency solar energy power system as described in clause 134 or any other clause wherein said combiner circuitry responsive to said base phase switched output and said altered phase switched output providing a conversion combined photovoltaic DC output comprises additive voltage circuitry that adds an output voltage of said base phase switched output with an output voltage of said altered phase switched output.
    136. A high efficiency solar energy power system as described in clause 135 or any other clause wherein said additive voltage circuitry comprises an excess voltage arrangement.
    137. A high efficiency solar energy power system as described in clause 136 or any other clause wherein said excess voltage arrangement comprises a double maximum voltage arrangement.
    138. A high efficiency solar energy power system as described in clause 120 or any other clause wherein said combiner circuitry comprises a double maximum voltage arrangement.
    139. A high efficiency solar energy power system as described in clause 110 or any other clause wherein said converters comprise low photovoltaic energy storage converters.
    140. A high efficiency solar energy power system as described in clause 139 or any other clause wherein said low photovoltaic energy storage converters comprise low photovoltaic energy storage converters selected from a group consisting of:
    
        a not more than about one-half duty cycle range ripple current photovoltaic energy storage converter;
        a not more than about one-half of traditional photovoltaic energy storage converter;
        a not more than about one-quarter duty cycle range ripple current photovoltaic energy storage converter; and
        a not more than about one-quarter of traditional photovoltaic energy storage converter.
    
    
    141. A high efficiency solar energy power system as described in clause 139 or any other clause wherein said base phase DC-DC photovoltaic converter and said altered phase DC-DC photovoltaic converter each comprise a buck power converter, and wherein said combiner circuitry comprises a series combination inductor.
    142. A high efficiency solar energy power system as described in clause 139 or any other clause wherein said base phase DC-DC photovoltaic converter and said altered phase DC-DC photovoltaic converter each comprise a tapped magnetically coupled inductor arrangement having an inductor tap, and wherein said combiner circuitry comprises a series combination inductor connected between said inductor taps.
    143. A high efficiency solar energy power system as described in clause 139 or any other clause wherein said synchronous phase control comprises an opposing phase controller.
    144. A high efficiency solar energy power system as described in clause 120 or any other clause wherein said combiner circuitry comprises interpanel photovoltaic cell addition circuitry.
    145. A high efficiency solar energy power system as described in clause 144 or any other clause wherein said base phase DC-DC photovoltaic converter and said altered phase DC-DC photovoltaic converter each comprise a split panel DC-DC photovoltaic converter.
    146. A high efficiency solar energy power system as described in clause 145 or any other clause wherein said split panel DC-DC photovoltaic converters comprise buck power converters, and wherein said combiner circuitry comprises a series combination inductor.
    147. A high efficiency solar energy power system as described in clause 146 or any other clause wherein said combiner circuitry comprises a low photovoltaic energy storage inductor.
    148. A high efficiency solar energy power system as described in clause 145 or any other clause wherein said split panel converters comprise tapped magnetically coupled inductor arrangements having an inductor tap, and wherein said combiner circuitry comprises a series combination inductor connected between said inductor taps.
    149. A high efficiency solar energy power system as described in clause 148 or any other clause wherein said combiner circuitry comprises a low photovoltaic energy storage inductor.
    150. A high efficiency solar energy power system as described in clause 110 or any other clause wherein said conversion combined photovoltaic DC output comprises a high multi operational regime output.
    151. A high efficiency solar energy power system as described in clause 150 or any other clause wherein said synchronous phase control comprises an opposing phase controller.
    152. A high efficiency solar energy power system as described in clause 150 or any other clause wherein said high multi operational regime output comprises a high photovoltaic conversion efficiency output.
    153. A high efficiency solar energy power system as described in clause 152 or any other clause wherein said high photovoltaic conversion efficiency output comprises a high photovoltaic conversion efficiency output selected from a group consisting of:
    
        an at least about 98% efficient photovoltaic output;
        an at least about 99% efficient photovoltaic output; and
        an at least about 99.5% efficient photovoltaic output.
    
    
    154. A high efficiency solar energy power system as described in clause 150 or any other clause wherein said high multi operational regime output comprises a high average photovoltaic voltage output.
    155. A high efficiency solar energy power system as described in clause 154 or any other clause wherein said high average photovoltaic voltage output comprises a high average photovoltaic voltage output selected from a group consisting of:
    
        an at least about 80% of maximum voltage photovoltaic output across a typical operational range;
        an at least about 90% of maximum voltage photovoltaic output across a typical operational range; and
        an at least about 95% of maximum voltage photovoltaic output across a typical operational range.
    
    
    156. A high efficiency solar energy power system as described in clause 150 or any other clause wherein said high multi operational regime output comprises a dual nominal operational range high efficiency photovoltaic power output.
    157. A high efficiency solar energy power system as described in clause 156 or any other clause wherein said dual high efficiency power output comprises a at least one high efficiency power delivery mode photovoltaic output.
    158. A high efficiency solar energy power system as described in clause 150 or any other clause wherein said combiner circuitry comprises a low photovoltaic energy storage inductor.
    159. A high efficiency solar energy power system as described in clause 151 or any other clause wherein said base phase DC-DC photovoltaic converter and said altered phase DC-DC photovoltaic converter each comprise a buck power converter, and wherein said combiner circuitry comprises a series combination inductor.
    160. A high efficiency solar energy power system as described in clause 151 or any other clause wherein said base phase DC-DC photovoltaic converter and said altered phase DC-DC photovoltaic converter each comprise a tapped magnetically coupled inductor arrangement having an inductor tap, and wherein said combiner circuitry comprises a series combination inductor connected between said inductor taps.
    161. A high efficiency solar energy power system comprising:
    
        at least one photovoltaic source of power;
        a low photovoltaic energy storage DC-DC photovoltaic converter;
        a duty cycle controller to which said low photovoltaic energy storage DC-DC photovoltaic converter is switch timing responsive; and
        a low photovoltaic energy storage DC output.
    
    
    162. A high efficiency solar energy power system as described in clause 161 or any other clause wherein said low photovoltaic energy storage DC-DC photovoltaic converter comprises a low photovoltaic energy storage DC-DC photovoltaic converter selected from a group consisting of:
    
        a not more than about one-half duty cycle range ripple current photovoltaic energy storage converter;
        a not more than about one-half of traditional photovoltaic energy storage converter;
        a not more than about one-quarter duty cycle range ripple current photovoltaic energy storage converter; and
        a not more than about one-quarter of traditional photovoltaic energy storage converter.
    
    
    163. A high efficiency solar energy power system as described in clause 161 or any other clause wherein said low photovoltaic energy storage DC-DC photovoltaic converter comprises a first photovoltaic DC-DC converter and a second photovoltaic DC-DC converter.
    164. A high efficiency solar energy power system as described in clause 162 or any other clause wherein said first photovoltaic DC-DC converter comprises a base phase DC-DC photovoltaic converter having a base phase switched output, and wherein said second photovoltaic DC-DC converter comprises an altered phase DC-DC photovoltaic converter having an altered phase switched output relative to said base phase switched output.
    165. A high efficiency solar energy power system as described in clause 164 or any other clause wherein said base phase DC-DC photovoltaic converter and said altered phase DC-DC photovoltaic converter each comprise a buck power converter, and further comprising a series combination inductor and an output capacitor.
    166. A high efficiency solar energy power system as described in clause 164 or any other clause wherein said base phase DC-DC photovoltaic converter and said altered phase DC-DC photovoltaic converter each comprise a tapped magnetically coupled inductor arrangement having an inductor tap, and further comprising a series combination inductor connected between said inductor taps and an output capacitor.
    167. A high efficiency solar energy power system as described in clause 164 or any other clause wherein said duty cycle controller comprises a synchronous phase control.
    168. A high efficiency solar energy power system as described in clause 167 or any other clause wherein said synchronous phase control comprises an opposing phase controller.
    169. A high efficiency solar energy power system comprising:
    
        multiple photovoltaic power cells;
        a solar panel assembly aggregating said multiple photovoltaic power cells;
        at least one split panel DC-DC photovoltaic converter;
        a duty cycle controller to which said at least one split panel DC-DC photovoltaic converter is switch timing responsive; and
        a high efficiency photovoltaic DC output.
    
    
    170. A high efficiency solar energy power system as described in clause 169 or any other clause and further comprising interpanel photovoltaic cell addition circuitry responsive to said at least one split panel DC-DC photovoltaic converter.
    171. A high efficiency solar energy power system as described in clause 170 or any other clause wherein said at least one split panel DC-DC photovoltaic converter comprises a first split panel DC-DC photovoltaic converter and a second split panel DC-DC photovoltaic converter, and wherein said interpanel photovoltaic cell addition circuitry provides a conversion combined photovoltaic DC output.
    172. A high efficiency solar energy power system as described in clause 171 or any other clause wherein said first split panel DC-DC photovoltaic converter comprises a base phase DC-DC photovoltaic converter and wherein said second split panel DC-DC photovoltaic converter comprises an altered phase DC-DC photovoltaic converter.
    173. A high efficiency solar energy power system as described in clause 172 or any other clause wherein said split panel converters comprise buck power converters, and wherein said combiner circuitry comprises a series combination inductor.
    174. A high efficiency solar energy power system as described in clause 173 or any other clause wherein said interpanel photovoltaic cell addition circuitry comprises a low photovoltaic energy storage inductor.
    175. A high efficiency solar energy power system as described in clause 172 or any other clause wherein said split panel converters comprise tapped magnetically coupled inductor arrangements having an inductor tap, and wherein said interpanel photovoltaic cell addition circuitry comprises a series combination inductor connected between said inductor taps.
    176. A high efficiency solar energy power system as described in clause 175 or any other clause wherein said interpanel photovoltaic cell addition circuitry comprises a low photovoltaic energy storage inductor.
    177. A high efficiency solar energy power system as described in clause 172 or any other clause wherein said duty cycle controller comprises a synchronous phase control.
    178. A high efficiency solar energy power system as described in clause 177 or any other clause wherein said synchronous phase control comprises an opposing phase controller.
    179. A high efficiency solar energy power system comprising:
    
        at least one photovoltaic source of power;
        a tapped magnetically coupled inductor converter;
        a duty cycle controller to which said tapped magnetically coupled inductor converter is switch timing responsive; and
        a high efficiency photovoltaic DC output.
    
    
    180. A high efficiency solar energy power system as described in clause 179 or any other clause wherein said tapped magnetically coupled inductor converter comprises a low photovoltaic energy storage DC-DC photovoltaic converter.
    181. A high efficiency solar energy power system as described in clause 180 or any other clause wherein said low photovoltaic inductance DC converter comprises a low photovoltaic inductance DC converter selected from a group consisting of:
    
        a not more than about one-half duty cycle range ripple current photovoltaic energy storage converter;
        a not more than about one-half of traditional photovoltaic energy storage converter;
        a not more than about one-quarter duty cycle range ripple current photovoltaic energy storage converter; and
        a not more than about one-quarter of traditional photovoltaic energy storage converter.
    
    
    182. A high efficiency solar energy power system as described in clause 179 or any other clause wherein said duty cycle controller comprises an opposing phase controller.
    183. A high efficiency solar energy power system as described in clause 179 or any other clause wherein said tapped magnetically coupled inductor converter comprises a converter having two pairs of series switches connected at a midpoint to which said tapped magnetically coupled inductor arrangement is connected.
    184. A high efficiency solar energy power system as described in clause 179 or any other clause wherein said high efficiency photovoltaic DC output comprises an augmented sweet spot photovoltaic output.
    185. A high efficiency solar energy power system as described in clause 184 or any other clause wherein said augmented sweet spot photovoltaic output comprises a cold operational regime sweet spot photovoltaic output.
    186. A high efficiency solar energy power system as described in clause 184 or any other clause wherein said augmented sweet spot photovoltaic output comprises a converted power generation sweet spot photovoltaic output.
    187. A high efficiency solar energy power system as described in clause 184 or any other clause wherein said augmented sweet spot photovoltaic output comprises a photovoltaically reduced temperature condition sweet spot photovoltaic output.
    188. A high efficiency solar energy power system as described in clause 179 or any other clause and further comprising additive voltage circuitry having an excess voltage arrangement.
    189. A high efficiency solar energy power system as described in clause 188 or any other clause wherein said excess voltage arrangement comprises a double maximum voltage arrangement.
    190. A high efficiency solar energy power system as described in clause 188 or any other clause wherein said excess voltage arrangement comprises a quadruple maximum voltage arrangement.
    191. A high efficiency solar energy power system as described in clause 179 or any other clause wherein said high efficiency photovoltaic DC output comprises a dual nominal operational range high efficiency photovoltaic power output.
    192. A high efficiency solar energy power system as described in clause 110, 120, 121, 134, 139, 143, 150, 161, 168, 179 or any other clause and further comprising:
    
        a photovoltaic DC-AC inverter responsive to said DC output; and
        a photovoltaic AC power output responsive to said photovoltaic DC-AC inverter, and further comprising a photovoltaic inverter input coordinated converter controller.
    
    
    193. A high efficiency solar energy power system as described in clause 192 or any other clause wherein said DC output comprises a low photovoltaic inductance DC output.
    194. A high efficiency solar energy power system as described in clause 192 or any other clause wherein said photovoltaic inverter input coordinated converter controller comprises a photovoltaic inverter optimized converter controller.
    195. A high efficiency solar energy power system as described in clause 192 or any other clause wherein at least one of said converters comprises a buck power converter, and further comprising a series combination inductor.
    196. A high efficiency solar energy power system as described in clause 192 or any other clause wherein at least one of said converters comprises a tapped magnetically coupled inductor converter, and further comprising a series combination inductor.
    197. A high efficiency solar energy power system as described in clause 110, 119, 121, 134, 139, 143, 150, 161, 170, 179 or any other clause wherein said controller comprises a photovoltaic boundary condition controller.
    198. A high efficiency solar energy power system as described in clause 197 or any other clause wherein said photovoltaic boundary condition controller comprises a photovoltaic output voltage limit controller.
    199. A high efficiency solar energy power system as described in clause 198 or any other clause wherein at least one of said converters comprises a buck power converter, and further comprising a series combination inductor.
    200. A high efficiency solar energy power system as described in clause 198 or any other clause wherein at least one of said converters comprises a tapped magnetically coupled inductor converter, and further comprising a series combination inductor.
    201. A high efficiency solar energy power system as described in clause 192 or any other clause wherein said controller comprises a photovoltaic boundary condition controller.
    202. A high efficiency solar energy power system as described in clause 201 or any other clause wherein said photovoltaic boundary condition controller comprises a photovoltaic output voltage limit controller.
    203. A high efficiency solar energy power system as described in clause 202 or any other clause wherein at least one of said converters comprises a buck power converter, and further comprising a series combination inductor.
    204. A high efficiency solar energy power system as described in clause 202 or any other clause wherein at least one of said converters comprises a tapped magnetically coupled inductor converter, and further comprising a series combination inductor.
    205. A high efficiency solar energy power system as described in clause 120, 134, 143, 150 170, 178, or any other clause wherein said controller comprises a 180° photovoltaic converter switch controller.
    206. A high efficiency solar energy power system as described in clause 110, 121, 139, 150, 167, 177 or any other clause wherein said controller comprises a common duty cycle controller.
    207. A high efficiency solar energy power system as described in clause 179 or any other clause wherein said controller comprises a 180° photovoltaic converter switch controller.
    208. A high efficiency solar energy power system as described in clause 179 or any other clause wherein said controller comprises a common duty cycle controller.
    209. A high efficiency solar energy power system as described in clause 193 or any other clause and further comprising combining circuitry providing a conversion combined photovoltaic DC output.
    210. A high efficiency solar energy power system as described in clause 209 or any other clause wherein said combiner circuitry comprises a low photovoltaic energy storage inductor.
    211. A high efficiency solar energy power system as described in clause 205 or any other clause and further comprising a double maximum voltage arrangement.
    212. A high efficiency solar energy power system as described in clause 211 or any other clause wherein said converter comprises a converter selected from a group consisting of:
    
        a not more than about one-half duty cycle range ripple current photovoltaic energy storage converter; and
        a not more than about one-half of traditional photovoltaic energy storage converter.
    
    
    213. A high efficiency solar energy power system as described in clause 206 or any other clause and further comprising a quadruple maximum voltage arrangement.
    214. A high efficiency solar energy power system as described in clause 213 or any other clause wherein said converter comprises a converter selected from a group consisting of:
    
        a not more than about one-quarter duty cycle range ripple current photovoltaic energy storage converter; and
        a not more than about one-quarter of traditional photovoltaic energy storage converter.
    
    
    215. A high efficiency power system comprising:
    
        a first source of power;
        a base phase DC-DC converter having a base phase switched output;
        a second source of power;
        an altered phase DC-DC converter having an altered phase switched output relative to said base phase switched output;
        a synchronous phase control to which said base phase DC-DC converter and said altered phase DC-DC converter are switch timing responsive; and
        combiner circuitry responsive to said base phase switched output and said altered phase switched output providing a conversion combined DC output.
    
    
    216. A high efficiency power system comprising:
    
        at least one source of power;
        a low energy storage DC-DC converter;
        a duty cycle controller to which said low energy storage DC-DC photovoltaic converter is switch timing responsive; and
        a low energy storage DC output.
    
    
    217. A high efficiency power system comprising:
    
        at least one source of power;
        a tapped magnetically coupled inductor converter;
        a duty cycle controller to which said tapped magnetically coupled inductor converter is switch timing responsive; and
        a high efficiency DC output.
    
    
    218. A high efficiency power system as described in clause 215, 216, 217 or any other clause and further comprising:
    
        a DC-AC inverter responsive to said DC output; and
        a AC power output responsive to said photovoltaic DC-AC inverter, and further comprising a photovoltaic inverter input coordinated converter controller.
    
    
    219. A high efficiency power system as described in clause 215, 216, 217 or any other clause wherein said controller comprises a boundary condition controller.


As can be easily understood from the foregoing, the basic concepts of the present invention may be embodied in a variety of ways. It involves both conversion techniques as well as devices to accomplish the appropriate conversion. In this application, the conversion techniques are disclosed as part of the results shown to be achieved by the various devices described and as steps which are inherent to utilization. They are simply the natural result of utilizing the devices as intended and described. In addition, while some devices are disclosed, it should be understood that these not only accomplish certain methods but also can be varied in a number of ways. Importantly, as to all of the foregoing, all of these facets should be understood to be encompassed by this disclosure.
The discussion included in this application is intended to serve as a basic description. The reader should be aware that the specific discussion may not explicitly describe all embodiments possible; many alternatives are implicit. It also may not fully explain the generic nature of the invention and may not explicitly show how each feature or element can actually be representative of a broader function or of a great variety of alternative or equivalent elements. Again, these are implicitly included in this disclosure. Where the invention is described in device-oriented terminology, each element of the device implicitly performs a function. Apparatus claims may not only be included for the device described, but also method or process claims may be included to address the functions the invention and each element performs. Neither the description nor the terminology is intended to limit the scope of the claims that will be included in any subsequent patent application.
It should also be understood that a variety of changes may be made without departing from the essence of the invention. Such changes are also implicitly included in the description. They still fall within the scope of this invention. A broad disclosure encompassing the explicit embodiment(s) shown, the great variety of implicit alternative embodiments, and the broad methods or processes and the like are encompassed by this disclosure and may be relied upon when drafting the claims for any subsequent patent application. It should be understood that such language changes and broader or more detailed claiming may be accomplished at a later date (such as by any required deadline) or in the event the applicant subsequently seeks a patent filing based on this filing. With this understanding, the reader should be aware that this disclosure is to be understood to support any subsequently filed patent application that may seek examination of as broad a base of claims as deemed within the applicant's right and may be designed to yield a patent covering numerous aspects of the invention both independently and as an overall system.
Further, each of the various elements of the invention and claims may also be achieved in a variety of manners. Additionally, when used or implied, an element is to be understood as encompassing individual as well as plural structures that may or may not be physically connected. This disclosure should be understood to encompass each such variation, be it a variation of an embodiment of any apparatus embodiment, a method or process embodiment, or even merely a variation of any element of these. Particularly, it should be understood that as the disclosure relates to elements of the invention, the words for each element may be expressed by equivalent apparatus terms or method terms—even if only the function or result is the same. Such equivalent, broader, or even more generic terms should be considered to be encompassed in the description of each element or action. Such terms can be substituted where desired to make explicit the implicitly broad coverage to which this invention is entitled. As but one example, it should be understood that all actions may be expressed as a means for taking that action or as an element which causes that action. Similarly, each physical element disclosed should be understood to encompass a disclosure of the action which that physical element facilitates. Regarding this last aspect, as but one example, the disclosure of a “converter” should be understood to encompass disclosure of the act of “converting”—whether explicitly discussed or not—and, conversely, were there effectively disclosure of the act of “converting”, such a disclosure should be understood to encompass disclosure of a “converting” and even a “means for converting.” Such changes and alternative terms are to be understood to be explicitly included in the description. Further, each such means (whether explicitly so described or not) should be understood as encompassing all elements that can perform the given function, and all descriptions of elements that perform a described function should be understood as a non-limiting example of means for performing that function.
Any priority case(s) claimed by this application is hereby appended and hereby incorporated by reference. In addition, as to each term used it should be understood that common dictionary definitions should be understood such as contained in the Random House Webster's Unabridged Dictionary, second edition. Finally, all references listed in the list of references or other information statement filed with the application are hereby appended.
REFERENCES TO BE INCORPORATED BY REFERENCE










U.S. patents











Kind

Name of Patentee or Applicant


Pat. No.
Code
Issue Date
of cited Document





6,696,823

Feb. 24, 2004
IKOR ACQUISITION CORP



















U.S. PATENT APPLICATION PUBLICATIONS










Publication
Kind
Publication
Name of Patentee or Applicant


No.
Code
Date
of cited Document





20120223584
A1
Sep. 6, 2012
AMPT, LLC


20120032515
A1
Feb. 9, 2012
AMPT, LLC



















FOREIGN PATENT DOCUMENTS











Foreign



Name of Patentee or


Document
Country
Kind
Publication
Applicant of cited


Number
Code
Code
Date
Document














WO 02/17469
WO
A1
Feb. 28, 2002
IKOR ACQUISITION 






CORP


2009/051853
WO
A1
Apr. 23, 2009
AMPT, LLC









Thus, the applicant(s) should be understood to have support for embodiment definitions of at least: i) each of the power devices as herein disclosed and described, ii) the related methods disclosed and described, iii) similar, equivalent, and even implicit variations of each of these devices and methods, iv) those alternative designs which accomplish each of the functions shown as are disclosed and described, v) those alternative designs and methods which accomplish each of the functions shown as are implicit to accomplish that which is disclosed and described, vi) each feature, component, and step shown as separate and independent inventions, vii) the applications enhanced by the various systems or components disclosed, viii) the resulting products produced by such systems or components, ix) each system, method, and element shown or described as now applied to any specific field or devices mentioned, x) methods and apparatuses substantially as described hereinbefore and with reference to any of the accompanying examples, xi) an apparatus for performing the methods described herein comprising means for performing the steps, xii) the various combinations and permutations of each of the elements disclosed, xiii) each potentially dependent claim or concept as a dependency on each and every one of the independent claims or concepts presented, and xiv) all inventions described herein.
In addition and as to computer aspects and each aspect amenable to programming or other electronic automation, the applicant(s) should be understood to have support for embodiment definitions of at least: xv) processes performed with the aid of or on a computer, machine, or computing machine as described throughout the above discussion, xvi) a programmable apparatus as described throughout the above discussion, xvii) a computer readable memory encoded with data to direct a computer comprising means or elements which function as described throughout the above discussion, xviii) a computer, machine, or computing machine configured as herein disclosed and described, xix) individual or combined subroutines and programs as herein disclosed and described, xx) a carrier medium carrying computer readable code for control of a computer to carry out separately each and every individual and combined method described herein or in any claim, xxi) a computer program to perform separately each and every individual and combined method disclosed, xxii) a computer program containing all and each combination of means for performing each and every individual and combined step disclosed, xxiii) a storage medium storing each computer program disclosed, xxiv) a signal carrying a computer program disclosed, xxv) the related methods disclosed and described, xxvi) similar, equivalent, and even implicit variations of each of these systems and methods, xxvii) those alternative designs which accomplish each of the functions shown as are disclosed and described, xxviii) those alternative designs and methods which accomplish each of the functions shown as are implicit to accomplish that which is disclosed and described, xxix) each feature, component, and step shown as separate and independent inventions, and xxx) the various combinations and permutations of each of the above.
For practical reasons and so as to avoid great expansion of the examination burden, the applicant may at any time present only initial claims or perhaps only initial claims with only initial dependencies. Third persons interested should understand that there may be continuations and the like presenting other embodiment definitions and the like. In addition, the specification was drafted so as to provide support under new matter laws including but not limited to European Patent Convention Article 123(2) or other such laws for various dependencies or other elements presented under one independent claim or concept as dependencies or elements under any other independent claim or concept. To the extent that insubstantial substitutes are made, to the extent that the applicant did not in fact draft any claim so as to literally encompass any particular embodiment, and to the extent otherwise applicable, the applicant should not be understood to have in any way intended to or actually relinquished such coverage as the applicant simply may not have been able to anticipate all eventualities; one skilled in the art, should not be reasonably expected to have drafted a claim that would have literally encompassed such alternative embodiments.
Further, if or when used, the use of the transitional phrase “comprising” is used to maintain the “open-end” claims herein, according to traditional claim interpretation. Thus, unless the context requires otherwise, it should be understood that the term “comprise” or variations such as “comprises” or “comprising”, are intended to imply the inclusion of a stated element or step or group of elements or steps but not the exclusion of any other element or step or group of elements or steps. Such terms should be interpreted in their most expansive form so as to afford the applicant the broadest coverage legally permissible. The disclosure should be understood to provide support should any claim be amended to be dependent on any other claim, such as another dependent claim, another independent claim, a previously listed claim, a subsequently listed claim (upon proper amendment including but not limited to depending on a preceding claim as may be required), and the like. As one clarifying example, if a claim were dependent “on claim 20” or the like, it could be re-drafted as dependent on claim 1, claim 15, or even claim 25 (if such were to exist) if desired and still fall with the disclosure. It should be understood that the disclosure also provides support for any combination of elements in the claims and even incorporates any desired proper antecedent basis for certain claim combinations such as with combinations of method, apparatus, process, and the like claims.

## Claims

1. A method of highly efficiently delivering solar energy power comprising the steps of:
accepting a first power from a first photovoltaic source of power;
base phase switching said first power to create a base phase switch midpoint output DC power delivery;
photovoltaic boundary controlling said base phase switching that creates a base phase DC power delivery;
accepting a second power from a second photovoltaic source of power;
altered phase switching said second power to create an altered phase switch midpoint output DC power delivery;
photovoltaic boundary controlling said altered phase switching that creates an altered phase DC power delivery;
synchronous phase controlling said base phase switch midpoint output DC power delivery with said altered phase switch midpoint output DC power delivery; and
low storage inductance series power combining said base phase switch midpoint output DC power delivery with said altered phase switch midpoint output DC power delivery to provide a conversion combined photovoltaic DC output added through a low storage inductance.

2. A method of highly efficiently delivering solar energy power as described in claim 1 wherein said step of low storage inductance series power combining said base phase switch midpoint output DC power delivery with said altered phase switch midpoint output DC power delivery comprises the step of adding said voltages through a low storage inductance that has less than traditional full cycle ripple energy storage generated by photovoltaic circuitry utilizing a 0%-to-100%-duty-cycle range to achieve output across its operational regime.

3. A method of highly efficiently delivering solar energy power as described in claim 2 wherein said step of photovoltaic boundary controlling said base phase switching that creates a base phase DC power delivery comprises the step of photovoltaic current limit controlling said base phase DC power delivery, and wherein said step of photovoltaic boundary controlling said altered phase switching that creates an altered phase DC power delivery comprises the step of photovoltaic current limit controlling said altered phase DC power delivery.

4. A method of highly efficiently delivering solar energy power as described in claim 2 wherein said step of series power combining said base phase switch midpoint output DC power delivery with said altered phase switch midpoint output DC power delivery through said low storage inductance adding said voltages comprises the step of adding said voltages through an inductance that has less than or equal to one-quarter traditional full cycle ripple energy storage generated by photovoltaic circuitry utilizing a 0%-to-100%-duty-cycle range to achieve output across its operational regime.

5. A method of highly efficiently delivering solar energy power as described in claim 1 wherein said step of synchronous phase controlling comprises the step of synchronously duty cycle controlling said step of base phase switching with said step of altered phase switching.

6. A method of highly efficiently delivering solar energy power as described in claim 5 wherein said step of synchronously duty cycle controlling comprises the step of common duty cycle controlling said step of base phase switching with said step of altered phase switching.

7. A method of highly efficiently delivering solar energy power as described in claim 5 and further comprising the steps of:
establishing said conversion combined photovoltaic DC output as a converted DC photovoltaic input to a photovoltaic DC-AC inverter; and
inverting said converted DC photovoltaic input into a photovoltaic AC power output.

8. A method of highly efficiently delivering solar energy power as described in claim 1 wherein said step of synchronous phase controlling comprises the step of common timing signal controlling said step of base phase switching with said step of altered phase switching.

9. A method of highly efficiently delivering solar energy power as described in claim 1 wherein said step of synchronous phase controlling comprises the step of opposing phase controlling said step of base phase switching with said step of altered phase switching.

10. A method of highly efficiently delivering solar energy power as described in claim 9 wherein said step of combining said base phase switching with said altered phase switching comprises the step of establishing a double maximum voltage arrangement.

11. A method of highly efficiently delivering solar energy power as described in claim 1 wherein said step of photovoltaic boundary controlling said base phase switching that creates a base phase DC power delivery comprises the step of photovoltaic voltage limit controlling said base phase DC power delivery, and wherein said step of photovoltaic boundary controlling said altered phase switching that creates an altered phase DC power delivery comprises the step of photovoltaic voltage limit controlling said altered phase DC power delivery.

12. A method of highly efficiently delivering solar energy power as described in claim 1 wherein said step of photovoltaic boundary controlling said base phase switching that creates a base phase DC power delivery comprises the step of photovoltaic power limit controlling said base phase DC power delivery, and wherein said step of photovoltaic boundary controlling said altered phase switching that creates an altered phase DC power delivery comprises the step of photovoltaic power limit controlling said altered phase DC power delivery.

13. A method of highly efficiently delivering solar energy power as described in claim 1 wherein said step of photovoltaic boundary controlling said base phase switching that creates a base phase DC power delivery comprises the step of temperature limit controlling said base phase DC power delivery, and wherein said step of photovoltaic boundary controlling said altered phase switching that creates an altered phase DC power delivery comprises the step of temperature limit controlling said altered phase DC power delivery.

14. A method of highly efficiently delivering solar energy power as described in claim 1 wherein said step of low storage inductance series power combining comprises the step of utilizing a tapped magnetically coupled inductor arrangement having an inductor tap, and wherein said step of combining said base phase switching with said altered phase switching comprises the step of utilizing an inductor connected between said inductor taps.

15. A method of highly efficiently delivering solar energy power as described in claim 14 wherein said step of utilizing an inductor connected between said inductor taps comprises the step of utilizing a low photovoltaic energy storage inductor connected between said inductor taps.

16. A method of highly efficiently delivering solar energy power as described in claim 1 and further comprising the step of photovoltaic boundary output controlling said conversion combined photovoltaic DC output added through said low storage inductance.

17. A method of highly efficiently delivering solar energy power as described in claim 1 and further comprising the step of establishing said conversion combined photovoltaic DC output as a high multi operational regime output.

18. A high efficiency solar energy power system comprising:
a first photovoltaic source of power;
a base phase switching circuitry connected to said first photovoltaic source of power that establishes a base phase switch midpoint output;
a base phase photovoltaic boundary controller to which said base phase switching circuitry is responsive at at least some times of operation;
a second photovoltaic source of power;
an altered phase switching circuitry connected to said second photovoltaic source of power that establishes an altered phase switch midpoint output;
an altered phase photovoltaic boundary controller to which said altered phase switching circuitry is responsive at at least some times of operation;
a synchronous phase control circuitry to which said base phase switch midpoint output and said altered phase switch midpoint output are switch timing responsive; and
low stored energy inductance, series power additive combiner circuitry connecting said base phase switch midpoint output and said altered phase switch midpoint output through a low stored energy inductance to provide a conversion combined photovoltaic DC output.

19. A high efficiency solar energy power system as described in claim 18 wherein said low stored energy inductance, series power additive combiner circuitry comprises an inductance that has less than traditional full cycle ripple energy storage generated by photovoltaic circuitry utilizing a 0%-to-100%-duty-cycle range to achieve output across its operational regime.

20. A high efficiency solar energy power system as described in claim 18 wherein said low stored energy inductance, series power additive combiner circuitry comprises an inductance that has less than or equal to one-quarter traditional full cycle ripple energy storage generated by photovoltaic circuitry utilizing a 0%-to-100%-duty-cycle range to achieve output across its operational regime.

21. A high efficiency solar energy power system as described in claim 18 wherein said synchronous phase control circuitry comprises a common duty cycle controller to which said base phase switching circuitry and said altered phase switching circuitry are each responsive.

22. A high efficiency solar energy power system as described in claim 18 wherein said synchronous phase control circuitry comprises opposing phase control circuitry.

23. A high efficiency solar energy power system as described in claim 22 wherein said base phase switching circuitry and said altered phase switching circuitry each comprise a buck switching circuitry, and wherein said combiner circuitry comprises a series combination inductor.

24. A high efficiency solar energy power system as described in claim 22 wherein said low stored energy inductance series power additive combiner circuitry comprises a tapped magnetically coupled inductor arrangement having an inductor tap, and wherein said combiner circuitry comprises a series combination inductor connected between said inductor taps.

25. A high efficiency solar energy power system as described in claim 18 wherein said base phase photovoltaic boundary controller to which said base phase switching circuitry is responsive at at least some times of operation comprises a base phase photovoltaic current limit controller to which said base phase switching circuitry is responsive at at least some times of operation, and wherein said altered phase photovoltaic boundary controller to which said altered phase switching circuitry is responsive at at least some times of operation comprises an altered phase photovoltaic current limit controller to which said altered phase switching circuitry is responsive at at least some times of operation.

26. A high efficiency solar energy power system as described in claim 18 wherein said base phase photovoltaic boundary controller to which said base phase switching circuitry is responsive at at least some times of operation comprises a base phase photovoltaic voltage limit controller to which said base phase switching circuitry is responsive at at least some times of operation, and wherein said altered phase photovoltaic boundary controller to which said altered phase switching circuitry is responsive at at least some times of operation comprises an altered phase photovoltaic voltage limit controller to which said altered phase switching circuitry is responsive at at least some times of operation.

27. A high efficiency solar energy power system as described in claim 18 wherein said base phase photovoltaic boundary controller to which said base phase switching circuitry is responsive at at least some times of operation comprises a base phase photovoltaic power limit controller to which said base phase switching circuitry is responsive at at least some times of operation, and wherein said altered phase photovoltaic boundary controller to which said altered phase switching circuitry is responsive at at least some times of operation comprises an altered phase photovoltaic power limit controller to which said altered phase switching circuitry is responsive at at least some times of operation.

28. A high efficiency solar energy power system as described in claim 18 wherein said base phase photovoltaic boundary controller to which said base phase switching circuitry is responsive at at least some times of operation comprises a base phase temperature limit controller to which said base phase switching circuitry is responsive at at least some times of operation, and wherein said altered phase photovoltaic boundary controller to which said altered phase switching circuitry is responsive at at least some times of operation comprises an altered phase temperature limit controller to which said altered phase switching circuitry is responsive at at least some times of operation.

29. A high efficiency solar energy power system as described in claim 18 and further comprising a boundary output controller to which said conversion combined photovoltaic DC output is responsive at at least some times of operation.