BACKGROUND 1. Technical Field
The present disclosure generally relates to backpack-based mechanisms, in particular to a backpack mechanism that contains an umbrella within it which can unfold out automatically or mechanically into an umbrella straight from the backpack without the user having to hold it when the user touches a button, for example.
2. Description of the Related Art
Usually, users must operate an umbrella by holding on to the handle of the umbrella and either expanding it out by pressing a button or sliding a component. This may be cumbersome if the user has his or her hands tied and often requires the user to stop somewhere in order to get the umbrella to open. Likewise for umbrellas that come with tables or chairs designed for outdoor use. There needs to be a user that manually opens the umbrella or adjusts it. Currently, there exists only art that requires users to manually adjust or open umbrellas.
SUMMARY Systems and methods for an umbrella backpack mechanism are provided that allow an umbrella to expand automatically and mechanically without the user having to operate the handle of the umbrella. The backpack can be worn on the back of a user. Furthermore, the backpack may be made into a unit that can be mounted on chairs, tables, sides of houses, boats, cargo, and may also be equipped with a fan, heater, lights, decorations and other components.
Provided is an umbrella backpack mechanism, which includes a backpack unit including a base housing structure, a raise motor, an outer tube, an inner tube and a power unit; and a canopy unit comprising at least one rib leg, an inner shaft, and an outer shaft slider, the at least one rib leg connected to a canopy and also connected to the outer shaft slider, and wherein the outer shaft slider is able to slide up and down the inner shaft in order to fully extend and contract the canopy, the outer shaft slider being controlled by the raise motor.
Also provided is a method for using an umbrella-backpack mechanism, including: positioning an umbrella backpack mechanism onto a subject, the umbrella backpack mechanism comprising a backpack unit having securing components; activating a raise motor in order to raise and fully expand an umbrella canopy from the backpack unit on the umbrella backpack mechanism; performing operations with the umbrella canopy fully extended over a subject; and activating the raise motor again in order to contract the umbrella canopy back into the backpack unit.
Also provided is an umbrella backpack mechanism, including: a storage container; a canopy section latched to a canopy slider by a canopy section and slider latch, the canopy section comprising a canopy opening spring and a secondary lift spring; and a base, wherein the base is attached to a main riser on its top surface and to a primary lift spring on its bottom surface, and further wherein the main raiser is latched to the canopy slider by a canopy slider and base latch, wherein the canopy section, the base, the primary lift spring, the main riser are stored within the storage container when fully contracted and extend outside of the storage container when fully expanded, and further wherein a motor retrieval drum connected to a motor powers the movement of the base, the main riser, the primary lift spring, the second lift spring and the canopy opening spring.
BRIEF DESCRIPTION OF THE DRAWINGS The embodiments are illustrated by way of example and not limitation in the figures of the accompanying drawings in which like references indicate like elements.
FIG. 1A illustrates an aerial rear view shot of the umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
FIG. 1B illustrates an aerial front view shot of the umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
FIG. 1C illustrates a rear view shot of the umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
FIG. 1D illustrates a side view shot of the umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
FIG. 1E illustrates a zoomed in view of the shaft and rib assembly of the umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
FIG. 2A illustrates an outer shaft slider to be used with the umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
FIG. 2B illustrates a base to be used with the umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
FIG. 2C illustrates a rib leg to be used with the umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
FIG. 2D illustrates another rib leg to be used with the umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
FIG. 2E illustrates a spacer to be used with the umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
FIG. 2F illustrates an outer tube to be used with the umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
FIG. 2G illustrates an inner tube to be used with the umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
FIG. 2H illustrates a blown-up shot of an inner shaft to be used with the umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
FIG. 3 illustrates a method flowchart in accordance with an embodiment of the present disclosure.
FIG. 4A illustrates a primary lift spring apparatus in accordance with an embodiment of the present disclosure.
FIG. 4B illustrates a main riser apparatus in accordance with an embodiment of the present disclosure.
FIG. 4C illustrates an overall lift apparatus in accordance with an embodiment of the present disclosure.
FIG. 5A illustrates an opening sequence in accordance with an embodiment of the present disclosure.
FIG. 5B illustrates a closing sequence in accordance with an embodiment of the present disclosure.
FIG. 6A illustrates a case apparatus for an umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
FIG. 6B illustrates a case apparatus for an umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
FIG. 6C illustrates a case apparatus and a canopy frame assembly for an umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
FIG. 6D illustrates a case apparatus and a canopy frame assembly for an umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
FIG. 7A illustrates an aerial rear view shot of an umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
FIG. 7B illustrates an aerial front view shot of an umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
FIG. 7C illustrates a rear view shot of an umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
FIG. 7D illustrates a side view shot of an umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
FIG. 7E illustrates another side view shot of an umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
FIG. 7F illustrates a zoomed in view of the shaft and rib assembly of an umbrella backpack mechanism in accordance with an embodiment of the present disclosure.
DETAILED DESCRIPTION The following description and drawings are illustrative and are not to be construed as limiting. Numerous specific details are described to provide a thorough understanding. However, in certain instances, well known or conventional details are not described in order to avoid obscuring the description. References to one or an embodiment in the present disclosure are not necessarily references to the same embodiment, and such references mean at least one.
The use of headings herein is merely provided for ease of reference and shall not be interpreted in any way to limit this disclosure or the following claims.
Reference in this specification to “one embodiment” or “an embodiment” or the like means that a particular feature, structure, or characteristic described in connection with the embodiment is included in at least one embodiment of the disclosure. The appearances of the phrase “in one embodiment” in various places in the specification are not necessarily all referring to the same embodiment, nor are separate or alternative embodiments mutually exclusive of other embodiments. Moreover, various features are described that may be exhibited by some embodiments and not by others. Similarly, various requirements are described that may be requirements for some embodiments but not other embodiments.
The present disclosure relates to systems and methods for an umbrella backpack mechanism are provided that allow an umbrella to expand automatically and mechanically without the user having to operate the handle of the umbrella. The backpack can be worn on the back of a user. Furthermore, the backpack may be made into a unit that can be mounted on chairs, tables, sides of houses, boats (e.g. fishing boats for fishing expeditions, or large Navy boats), cargo ships, cargo, temporary work stations, outposts, and may also be equipped with a fan, heater, lights, decorations and other components. In one embodiment, the umbrella can also be multiple sizes, and can range from a small to a large umbrella. In one embodiment, the umbrella can also be titled in different directions and oriented in different angles. In one embodiment, the umbrella may be pushed down into a tube, and the tube can be made from a material including fabric, plastic, metal and other such materials. In one embodiment, the backpack unit may be powered by batteries/chargers or be hooked into an electric current or power source.
Users—which range from children to adults—can use the umbrella backpack mechanism by wearing it on their back and traveling in rain, snow, sun and hot or humid climate. It may also be used during exercise or outdoor activities such as walking, running, hiking, biking, golfing, or any other outdoor sport. Basically, the umbrella backpack mechanism allows the user to use both hands while an umbrella also is extended to protect them from rain, hail or snow. For instance, the hands of the user can be instead used to carry and operate a phone (e.g., to send text messages and make calls, operations that would normally require the use of two hands). Also, entering structures or vehicles such as cars, taxis, buses or trains would be made extremely convenient without having to collapse the umbrella, make a mess, and re-extend it. The umbrella would be able to conveniently and quickly re-collapse back into the backpack without making a mess with a simple user action—such as, for example, a press of a button. Furthermore, another frequent nuisance of umbrella usage is leaving one's umbrella somewhere and losing it or having it stolen. By having the umbrella integrated with a backpack unit, the umbrella will constantly be with the user at all times. In one embodiment, the umbrella may be quipped with heaters (to use in very cold environments), cooling units such as fans (to use in very hot environments) lights, decorations, or other components. For instance, children or other uses can decorate the backpack with decorations or trendy components that also may add functionality as well as an aesthetic appeal. Additional technical components such as GPS units, computers, phones, and so on may also be integrated into the backpack, to be used in case the backpack or user gets lost somewhere.
FIG. 1A illustrates an aerial rear view shot of the umbrella backpack mechanism in accordance with an embodiment of the present disclosure. Umbrella backpack mechanism 100 includes canopy 101, inner tube 102, outer tube 103, fan 104, raise motor 105, rucksack base 106, battery box 107, buttons and switches 108, drain tube 109 and body 110. Canopy 101 may be made from any material that is usually used for the canopy of an umbrella, such as, for example, cloth, fabric, synthetic material or any such material. Inner tube 102 is connected to canopy 101 by means of a shaft and rib assembly, as shown in more detail in FIG. 1E. Inner tube 102 also may slidingly fit or engage with outer tube 103. In other words, the radius and circumference of inner tube 102 is smaller than the radius and circumference of outer tube 103 so that inner tube 102 may fit within outer tube 103 and inner tube 102 may also be able to slide up and down within outer tube 103 as well. Outer tube 103 may also house inner tube 102 and the umbrella when the umbrella is fully retracted, and may also lock inner tube 102 into place when inner tube 102 and the umbrella (as well as the umbrella's canopy) are fully extended. A fan 104 may also be part of the umbrella backpack mechanism 100 that may cool down the user or also cool down the mechanics of the umbrella backpack mechanism 100 (such as its raise motor 105 or any lights, circuitry or other components that may get hot). Raise motor 105 controls the raising and lowering of the inner tube 102 connected to the canopy of the umbrella and also controls the contraction as well as expansion of the umbrella canopy. Raise motor 105 may be controlled, for example, by a button or switch that is located on the unit (e.g., such as button and switches 108, or could also be something that is a portable handheld unit or remote conveniently controlled by the user, or conveniently located on a front strap of the backpack, for instance). The raise motor 105 may also be powered by a battery and charger system (such as, for example, the battery box 107), or may be powered by a direct power connection, or another power source such as, for example, a solar powered unit or other similar unit. Rucksack base 106 may be a larger backwards-L shaped structure, where the flat surface of the rucksack base supports components such as, for example, the battery box 107 or the raise motor 105. The vertical surface of the rucksack base 106 may be used to align with the back of the body 110 of a user, or there may also be padding between the vertical surface of the rucksack base 106 and the back of the body 110 of the user so that the user is comfortable and that the backpack of the umbrella backpack mechanism 100 has proper support and structure for all the components it houses. Buttons and switches 108 may include buttons or switches to control the fan 104 and/or buttons or switches to control the raising and lowering of the inner tube 102 connected to the canopy 101. Also, additional buttons or switches that control other components not shown in FIG. 1A may also be included within the buttons on buttons and switches 108. Also, buttons and switches 108 may not necessarily be just on the bottom of rucksack base 106. For example, they may be on a plug in an extender flying lead that can be in a pocket, belt or hand, or part of a remote or handheld device that can be conveniently pressed, or be conveniently positioned on the front strap of a backpack for easy access by the user, for example. Drain tube 109 is connected to outer tube 103 and also inner tube 102 and may release air or fluids so as to facilitate the movement and operation of the inner tube 102 rising and lowering when controlled by the raise motor 102. The drain tube 109 also works in tandem with the raise motor 105 so as to maximize the efficiency of the raising and lowering of the umbrella and the expansion/retraction of the umbrella canopy 101. Drain tube 109 also may drain the water that could be pooling or sitting in the canopy of the umbrella when the canopy is closed (or during the closing process) to avoid excessive dripping on other surfaces, such as, for example, the user's clothes or the ground or carpet. Finally, body 110 is the body of a user that may use the umbrella backpack mechanism 100. Although FIG. 1A shows the user wearing the umbrella backpack mechanism 100 on the back of the user's body 110, the displacement and position of the umbrella backpack mechanism 100 is not limited to this configuration, and can be worn on the front, the sides, the top or bottom of the user's body 110, and may also be mounted as a unit on any structure or wall such as a chair, table, side of a house, boat, cargo ship, cargo box, stand, and so on. Therefore, body 110 may also include any of these inanimate structures, in addition to a physical human body.
FIG. 1B illustrates an aerial front view shot of the umbrella backpack mechanism in accordance with an embodiment of the present disclosure. The components are the same as discussed above for FIG. 1A. The canopy 101 and the front of the body 110 can also be more clearly seen. The inner tube 102 may also be seen in the background. Again, the umbrella backpack mechanism may not necessarily be just worn on the back of the body 110, but may also be worn on the front, side, bottom or top of the body 110 as well.
FIG. 1C illustrates a rear view shot of the umbrella backpack mechanism in accordance with an embodiment of the present disclosure. The components are the same as discussed above for FIG. 1A. A clearer view of the rucksack base 106 as well as the fan 104, the inner tube 102, the outer tube 103, the raise motor 105 and the battery box 107 may be seen. Furthermore, even though this is shown as being on the back of body 110, it is not limited to this configuration, and may be positioned on the front, side, top or bottom of the body 110 of a user or structure.
FIG. 1D illustrates a side view shot of the umbrella backpack mechanism in accordance with an embodiment of the present disclosure. The components are the same as discussed above for FIG. 1A. A clearer view of the backwards L-shape of rucksack base 106 can be seen, and also the side view of inner tube 102, outer tube 103, fan 104, drain tube 109, and buttons and switches 108 can also be seen as well. The umbrella backpack mechanism 100 also does not need to be positioned on the rear of the user's body 110 but again can be positioned on the top, bottom, front or any other configuration.
FIG. 1E illustrates a zoomed in view of the shaft and rib assembly of the umbrella backpack mechanism in accordance with an embodiment of the present disclosure. Shaft and rim assembly 120 includes outer shaft slider 111, which fits into inner tube 102, inner shaft 112, long rib leg 113, short rib leg 114, and head of body 110. Outer shaft slider 111 comes out of inner tube 102 and slidingly engages with inner shaft 112. On outer shaft slider 111 are the rib leg 113 and short rib leg 114, which connect together with the canopy 101 of the umbrella so that when the legs are fully extended the canopy is fully formed and covering the body 110. The outer shaft slider 111 can also move along the whole length of the inner shaft 112. The short rib leg 114 and the long rib leg 113 join together in supporting the canopy of the umbrella and when the outer shaft slider 111 is moved upwards, the short rib leg 114 and long rib leg 113 are pushed outwards so as to fully extend and expand out the canopy of the umbrella. When the outer shaft slider 111 is moved downwards, the short rib leg 114 and long rib leg 113 are pushed downwards so as to retract and be placed back within the inner tube 102. The movement of the outer shaft slider 111 may be controlled by, for example, the raise motor 105, or may also be controlled manually by the user, or by some other means that can move the outer shaft slider 111 up and down the inner shaft 112. The body 110 may be a physical human body or it may also be an inanimate structure such as a chair, table, side of a house or similar such object. The inner tube 102 which the outer shaft slider 111 and inner shaft 112 go back into can be made from fabric, cloth, plastic, waterproof material or any such similar substance.
FIG. 2A illustrates an outer shaft slider to be used with the umbrella backpack mechanism in accordance with an embodiment of the present disclosure. Outer shaft slider 210 may be used for outer shaft slider 111 as shown in FIG. 1E. Outer shaft slider 210 includes main tube 202, first flanges 204 and second flanges 206. Main tube 202 of outer shaft slider 210 fits onto inner shaft 112 as shown in FIG. 1E. In one embodiment, the outer shaft slider may be completely hollow so that the inner shaft 112 may fit completely into it. The short rib and long rib legs 113 and 114 may engage with either or both of the first and second flanges 204 and 206, so that when the main tube 202 of the outer shaft slider 210 moves along the inner shaft 212, the first and second flanges 204 and 206 push outwards the short rib and long rib legs 113 and 114 and fully extend them so that the canopy of the umbrella may be fully expanded and extended. FIG. 2A shows different angles, sides and views of the outer shaft slider 210. Also, the shape of the outer shaft slider 111 is not limited to the shape shown and can take on a variety of different shapes.
FIG. 2B illustrates a base to be used with the umbrella backpack mechanism in accordance with an embodiment of the present disclosure. Base 220 may be used for rucksack base as discussed in FIGS. 1A-1D above. Base 220 includes a horizontal surface 212 and a vertical surface 214. As shown in FIG. 2B, the horizontal surface 212 and the vertical surface 214 may abut to form a “L”-shape. However, the configuration of the base 220 is not limited to this configuration shown and can take on a number of different alternatives. Furthermore, components such as a battery box 107 or buttons and switches 108 or other components may be placed or secured on the horizontal surface 212 in the overall structure of the backpack so as to not fall and can also be firmly adhered into place. Rivets 216 may be used to nail, affix or secure other components used in the umbrella backpack mechanism, such as, for example, inner tube 102, outer tube 103, fan 104, raise motor 105, battery box 107, buttons and switches 108, drain tube 109, and other similar components. Rivets 216 may also be used to affix a pulley system used by the raise motor 105. The base may be made from cardboard, plastic, synthetic material, durable material, hard cloth or fabric, or any other such materials.
FIG. 2C illustrates a rib leg to be used with the umbrella backpack mechanism in accordance with an embodiment of the present disclosure. Rib leg 230 may be used as short rib leg 114 and long rib leg 113 as discussed in FIG. 1E, but since it is shorter than the rib leg shown in FIG. 2D, it may more likely be used as short rib leg 114. Rib leg 230 has a tip 232. The tip 232 engages with corresponding locations on the canopy of the umbrella. The tip 232 on the other end may also engage with the first flanges 204 and second flanges 206 of the outer shaft slider 210, so that when the outer shaft slider 210 (or outer shaft slider 111) moves up and down inner shaft 112, the rib leg 230 moves along with it in order to expand or contract the canopy of the umbrella accordingly. The rib leg 230 may be made from metal, plastic, synthetic materials, fiber, or any such similar material.
FIG. 2D illustrates another rib leg to be used with the umbrella backpack mechanism in accordance with an embodiment of the present disclosure. Rib leg 240 may be used as short rib leg 114 and long rib leg 113 as discussed in FIG. 1E, but since it is longer than the rib leg shown in FIG. 2C, it may more likely be used as long rib leg 113. Rib leg 240 also has a tip 242, and its purpose is identical to the discussion of the tip 232 in FIG. 2C. The rib leg 240 may be made from metal, plastic, synthetic materials, fiber, or any such similar material.
FIG. 2E illustrates a spacer to be used with the umbrella backpack mechanism in accordance with an embodiment of the present disclosure. The spacer 250 may be used in tandem with any of the above-mentioned components. The spacer 250 may be used to space apart different components, or may also be used for support, separation or other such related purposes. The spacer 250 also may have a hole 252 as well to fittingly engage other components as well. Shown in FIG. 2E are other views of the spacer 250 as well.
FIG. 2F illustrates an outer tube to be used with the umbrella backpack mechanism in accordance with an embodiment of the present disclosure. Outer tube 260 may be used as, for example, outer tube 103 as discussed in FIGS. 1A-1D. Outer tube 260 has a main tube 261 which may be, in one embodiment, completely hollow so as to fittingly engage an inner tube (for instance inner tube 102, for example) or another such sliding object. The outer tube 260 may be made from metal, plastic, fiber, any hard, resilient material or any other such material.
FIG. 2G illustrates an inner tube to be used with the umbrella backpack mechanism in accordance with an embodiment of the present disclosure Inner tube 270 may be used as, for example, inner tube 102 as discussed in FIGS. 1A-1D. Inner tube 270 has a main tube 271 which may be, in one embodiment, completely filled in so as to engage with an outer tube that is completely hollow. In one embodiment, the main tube 271 may be completely hollow. Inner tube 270 also has an air vent 272. Air vent 272 may facilitate the release of air, pressure or fluids from the movement of the inner tube 270 up and down within an outer tube to make, for example, an umbrella contract or expand. Air vent 272 may also work in tandem with, for example, the drain tube 109. Air vent 272 may also be used to aid in air circulation or the release of air from certain channels in the umbrella backpack mechanism.
FIG. 2H illustrates a blown-up shot of an inner shaft to be used with the umbrella backpack mechanism in accordance with an embodiment of the present disclosure. Inner shaft structure 280 includes a first flange 282, a second flange 284, a tube structure 286 and a main cavity 288. The first flange 282 and second flange 284 are similar to the first flanges 204 and second flanges 206 of the outer shaft slider 210 discussed above in FIG. 2A, and the entire structure of the tube structure 286 and the first and second flanges 282 and 284 is very similar to the outer shaft slider 210 of FIG. 2A. The entire structure of 286, 282 and 284 may slidingly engage with an inner shaft in order to move up and down in order to contract or expand an umbrella. There are other views of the inner shaft shown in FIG. 2H as well.
FIG. 3 illustrates a method flowchart in accordance with an embodiment of the present disclosure. Once method 300 starts, in step 302, the umbrella back mechanism is put on the subject. This could mean that a user (e.g., a physical human being or animal) places the backpack at a convenient location, for example, puts it on his or her back with the backpack's shoulder straps. This could also mean the backpack is placed on a structure or other stationary object such as a chair, table, side of a house, boat, and so on. In step 304, the raise motor is activated in order to raise and expand the umbrella from the backpack unit until the canopy of the umbrella is fully extended. This could mean pressing buttons or switches located at the rear or bottom of the backpack unit, pressing a button on a remote or handheld unit, pressing a button located conveniently on a shoulder strap, or otherwise activating the raise motor in a fashion convenient to the user. In step 306, operations are performed with the umbrella fully extended over the subject. For a physical human being or person, this could mean having one's hands free to do other things such as operating a phone or sending text messages with a phone, engaging in physical activities or outdoor sports, or otherwise performing actions that would require the use of two, free hands. In the case of a structure or object, it could mean either leaving the premises to perform other tasks where a given area is protected from rain, snow or the weather or shaded, or it could mean being able to fully set-up an area that is now protected from rain, snow or the weather or shaded, or just protecting a given area or structure from the elements. In step 308, after the operations are performed in step 306, the raise motor is activated again and the umbrella is contracted again and placed back into the backpack unit. Again, the raise motor may be activated in a number of ways, as discussed previously for step 304. Finally, in step 310, method 300 ends and may be repeated.
FIG. 4A illustrates a primary lift spring apparatus in accordance with an embodiment of the present disclosure. Primary lift spring apparatus 410 includes primary lift spring 416, base 412, base latches 414. Base latches 414 securely latch the base 412 to the primarily lift spring 416. Base latches 414 may be manual releasable latches or electrically releasable latches at the lower and top position of the umbrella base, for example, or spring activated and held off by an electrical solenoid, for example, as and when required. Primary lift spring 416 may be made from metal (such, as for example, chrome, chrome silicon, chrome vanadium, stainless steel, any alloy of steel, inconel, monel, beryllium, copper, phosphor bronze, titanium, oil tempered wire, music wire), plastic, or any other similarly hard material. Base 412 and base latches 414 may also be made of similar metal, plastic, fiberglass or any other similarly hard material.
FIG. 4B illustrates a main riser apparatus in accordance with an embodiment of the present disclosure. Main riser apparatus 420 includes main riser 426, canopy section 422, and secondary lift spring 424 (which cannot be seen as it is under the canopy section 422 in FIG. 4B). The canopy section 422 is the section containing the canopy for the umbrella used in the umbrella backpack mechanism and may also include a canopy slider that enables the canopy section 422 to slide up and down over the main riser 426, and the canopy slider may be located on the canopy section 422 to keep the slider moving over one section. The secondary lift spring 424 acts between the top of the main riser 426 and the top of the canopy section 422. The secondary lift spring 424 may be made from metal (such, as for example, chrome, chrome silicon, chrome vanadium, stainless steel, any alloy of steel, inconel, monel, beryllium, copper, phosphor bronze, titanium, oil tempered wire, music wire), plastic, or any other similarly hard material. Main riser 426 supports and lifts canopy section 426 up and fully expands the canopy section 426 so that it may cover the user. Main riser 426 may also be made of similar metal, plastic, fiberglass or any other similarly hard material. The hard parts of canopy section 422 may be made from similar metal, plastic, fiberglass or any other similarly hard material, and the canopy may be made of cloth, fabric or any other material that canopies are usually made from.
FIG. 4C illustrates an overall lift apparatus in accordance with an embodiment of the present disclosure. Overall lift apparatus 400 may be used with the umbrella backpack mechanism described above and positioned on the rear or front of the umbrella backpack mechanism in order to raise and lower the umbrella or canopy section from the umbrella backpack mechanism over the user. Overall lift apparatus 400 includes canopy section 422, main riser 426, secondary lift spring 424, canopy opening spring 428, primary lift spring 416 (shown completely contracted); base 412; canopy section and slider latch 402; canopy slider and base latch 404; and hole 406. Canopy section 422 and main riser 426 are described above, and main riser 426 supports and raises canopy section 422. Secondary lift spring 424 and primary lift spring 416 are the same as described above, but primary lift spring 416 is shown in FIG. 4C as being completely contracted. Canopy opening spring 428 is the spring attached to the canopy section 422 that pushes the canopy section 422 outward and assists in fully expanding and extending the canopy section 422 outward so that the canopy of the canopy section 422 may eventually expand or extend over the user. Base 412 is the same as described above. Canopy section and slider latch 402 is a latch that locks the canopy slider 408 to the canopy section 422. When the canopy section and slider latch 402 is released, the canopy opening spring 428 will expand (or in one embodiment, contract or close up) and open up the canopy, or can be configured to close up the canopy. The canopy section and slider latch 402 may be released by the end of travel up the main riser 426. Canopy slider and base latch 404 latches and locks the canopy slider 408 to the base 412. The canopy slider and base latch 404 is released when the base 412 reaches the end of the lift or lift end. The canopy slider and base latch 404 is re-applied when the base 412 is completely pulled down. Hole 406 allows the canopy slider and base latch 404 to be released. In one embodiment, hole 406 may also allow the canopy section and slider latch 402 to release, in addition to the canopy slider and base latch 404. Pulling down on the base 412 will push the slider latch arm of the canopy slider and base latch 404 back, thereby applying the latch. The canopy section and slider latch 402 and the canopy slider and base latch 404 may be made from metal, plastic, fiberglass or any other similarly hard material.
FIG. 5A illustrates an opening sequence in accordance with an embodiment of the present disclosure. Umbrella backpack mechanism setup 500 includes user 501, primarily lift spring 502, secondary lift spring 504, canopy opening spring 506, canopy slider 506, main riser 510, and motor retrieval drum 512, canopy section 514 and base 516. All the components have been discussed above, except for the motor retrieval drum 512, which runs the motor to operate the raising and lowering of the various components as well as the contraction and expansion of the various springs and other related components. In scenario 1, in one embodiment the start position, a latch is released (such as, for example, the canopy slider and base latch 404 or the canopy section and slider latch 402 described above), causing the primary lift spring 502 to expand and pushing the base 516 up and lifting the umbrella and the canopy section 514. In scenario 2, the umbrella base 516 reaches a stopping point where it stops rising and the canopy section 514 lifts by means of the secondary lift spring 504 expanding between the main riser 510 and the top of the canopy section 514. In scenario 3, the canopy slider latch is released (e.g., the canopy section and slider latch 402, described above), possibly by means of a lever mechanism linked to the main riser 510 and the canopy opening spring 506 closes (or expands) and therefore opens up the canopy and fully expanding the canopy of the umbrella so as it fully covers the user. During the raise and open operation, the motor retrieval drum 512 may be freewheeling or may incur a slight back tension. The motor retrieval drum 512 may also be made of metal, plastic, fiberglass or any other similarly hard material. For opening, the base safety latches holding the umbrella base 516 down against the primary lift spring 502 (e.g., canopy slider and base latch 404) may be released physically or mechanically, or electromechanically. The primary lift spring 502 raises the base 516 to the end of the movement for the base 516 (where the base 516 may not be raised any longer) and other base latches are applied (e.g., canopy section and slider latch 402). The canopy slider 506 is then released from the base 516, but the canopy slider 506 may still be locked to the canopy section 514. The secondary lift spring 504 will lift the canopy section 514 to its limit (lifting it to a point where it can no longer lift any higher). As the canopy section 514 reaches the mechanical stop limit on the main riser 510, the canopy slider latch (e.g., canopy section and slider latch 402) is released previously tying down the canopy section 514 so that the canopy open spring 506 may close up (or expand) in order to open up the canopy of the umbrella so that the canopy of the umbrella fully extends over the user. During the above movement, the motor retrieval drum 512 may be unwinding—this movement may be under dynamic breaking movement in order to keep the retrieval wire taught.
FIG. 5B illustrates a closing sequence in accordance with an embodiment of the present disclosure. Umbrella backpack mechanism setup 500 includes user 501, primarily lift spring 502, secondary lift spring 504, canopy opening spring 506, canopy slider 506, main riser 510, and motor retrieval drum 512, canopy section 514 and base 516, and all these components have been described above. In scenario 1, in one embodiment the start position, the motor connected to the motor retrieval drum 512 starts to run and pulls down on the canopy slider 506. In scenario 2, the canopy of the canopy section 514 closes and the canopy opening spring 506 is forced to extend. The canopy slider latch (e.g., the canopy section and slider latch 402, described above), may be latched. In scenario 3, the motor connected to the motor retrieval drum 512 pulls the canopy section down until the main base 516 reaches its limit and cannot go down any further. In scenario 4, the motor connected to the motor retrieval drum 512 continues to pull downwards, bringing the closed umbrella into a container such as a storage box, for example. The motor connected to the motor retrieval drum 512 may rotate the motor retrieval drum 512 and pull down the canopy slider 506. The canopy opening spring 506 is weaker than the secondary lift spring 504 and so the canopy closes as the canopy opening spring 506 is extended. When the canopy slider 506 reaches the end of the canopy section 514 (the canopy slider 506 cannot extend any lower) the pull is now focused on the secondary lift spring 504, which is compressed as the canopy section 514 moves down over the main riser 510. Also, the latch between the canopy slider 506 and the canopy section 514 is locked (e.g., the canopy section and slider latch 402, described above). When the canopy section 514 reaches the base (and when it cannot extend any lower), the base latches may be released (e.g., the canopy slider and base latch 404) and the base 516 moves down and the canopy slider to the base latch is secured via a connection. Finally, when the base 516 reaches the bottom of the storage container (e.g., a storage box) and the relevant base latches are applied, the motor stops. The umbrella then is completely contracted and rests with its canopy completely withdrawn.
FIG. 6A illustrates a case apparatus for an umbrella backpack mechanism in accordance with an embodiment of the present disclosure. Case apparatus 600 includes: umbrella carriage 602, left top plate 609, right top plate 607, rod assembly 604, rod 605, left side channel 608, main drive screw 610, right side channel 606, back plate 606, motor 612, motor bracket 613 and bottom plate 614. Umbrella carriage 602 may hold up an umbrella or canvas and may be connected to the base or handle of an umbrella having a canvas. Left top plate 609 forms the top of the left side channel 608, and right top plate 607 forms the top of the right side channel 606. Rod assembly 604 is the main unit that carries the entire umbrella and that moves it up and down along the length of the case assembly 600 when the umbrella is contracting or expanding. Rod 605 may also be used for further support of the umbrella or to house umbrella components, or may be used to house a motor to facilitate the upwards and downwards movement of rod assembly 604, or may be an actual motor itself. Rod assembly 604 moves upwards and downwards alongside the left side channel 608 and the right side channel 606, and the movement of the rod assembly is capped on the top side by left top plate 609 and right top plate 607 and at the bottom side by motor brackets 613. Main drive screw 610 is the component that secures the right side channel 606 and the left side channel 608 securely to the frame of the case apparatus 600. Back plate 606 is the secure backing cover that protects the inner components of the case assembly 600 from rain or other weather, and which encloses all the components of case assembly 600 (many components which are not shown here, but are shown in other Figures). Motor 612 is a driving motor that may control the upwards and downwards motion of the rod assembly 604 as the umbrella contracts and expands. Motor 612 may also work in tandem with rod 605, if rod 605 is also a motor. The motor bracket 613 holds the motor 612 up and provides bottom support for both the right side channel 606 and left side channel 608. The bottom plate 614 provides the bottom-most support for the case apparatus 600 so as to enclose and house the entire structure.
FIG. 6B illustrates a case apparatus for an umbrella backpack mechanism in accordance with an embodiment of the present disclosure. All the components of case assembly 600 are described above in FIG. 6A, however FIG. 6B provides a better view of components such as the bottom plate 614, the rod 605, the main drive screw 610 and other such components. Many other components (not shown) may also fill up the empty space revealed within the case assembly 600.
FIG. 6C illustrates a case apparatus and a canopy frame assembly for an umbrella backpack mechanism in accordance with an embodiment of the present disclosure. Case apparatus and canopy frame assembly 640 includes the case apparatus 600 discussed previously, as well as a canopy frame assembly 620, which includes canopy arms 622, canopy pivot 624 and canopy fulcrum 626. Umbrella carriage 602 also is shown as the main pole/rod support that holds up the canopy of the umbrella. The other components of case assembly 600 were discussed in the previous Figures but are shown at this different angle. The bottom plate 614, for instance, can be more clearly seen, as can components like the motor bracket 613.
FIG. 6D illustrates a case apparatus and a canopy frame assembly for an umbrella backpack mechanism in accordance with an embodiment of the present disclosure. The components shown in FIG. 6D are described above in FIG. 6C. However, in this rear view, the back of back panel 606 can be seen, covering all the components of case assembly 606. In one embodiment, this could be the front panel that covers all the components of case assembly 600 and which also shields and protects all the components within the case assembly 600. In one embodiment, two of such panels can cover both the front and rear sides of the case assembly 600.
FIG. 7A illustrates an aerial rear view shot of an umbrella backpack mechanism in accordance with an embodiment of the present disclosure. Umbrella backpack mechanism 700 includes shaft and rim assembly 720 (which in turn includes outer shaft slider 711, which fits into inner tube 702, inner shaft 712, long rib leg 714, short rib leg 713), inner tube 702, outer tube 703, fan 704, raise motor 705, rucksack base 706, battery box 707, buttons and switches 708, drain tube 709 and body 710. Outer shaft slider 711 comes out of inner tube 702 and slidingly engages with inner shaft 712. On outer shaft slider 711 are the short rib leg 713 and long rib leg 714, which connect together with the shaft and rim assembly 720 of the umbrella so that when the legs are fully extended the canopy is fully formed and covering the body 710. The outer shaft slider 711 can also move along the whole length of the inner shaft 712. The short rib leg 713 and the long rib leg 714 join together in supporting the canopy of the umbrella in shaft and rim assembly 720, and when the outer shaft slider 711 is moved upwards, the short rib leg 713 and long rib leg 714 are pushed outwards so as to fully extend and expand out the canopy of the umbrella. When the outer shaft slider 711 is moved downwards, the short rib leg 713 and long rib leg 714 are pushed downwards so as to retract and be placed back within the inner tube 702. The movement of the outer shaft slider 711 may be controlled by, for example, the raise motor 705, or may also be controlled manually by the user, or by some other means that can move the outer shaft slider 711 up and down the inner shaft 712. The body 710 may be a physical human body or it may also be an inanimate structure such as a chair, table, side of a house or similar such object. The inner tube 702 which the outer shaft slider 711 and inner shaft 712 go back into can be made from fabric, cloth, plastic, waterproof material or any such similar substance. Also, in one embodiment, the short rib leg 713 may be longer than the long rib leg 714, in one embodiment, the long rib leg 714 may be shorter than the short rib leg 713, in one embodiment, both the short rib leg 713 and the long rib leg 714 can be the same length, and both the short rib leg 713 and the long rib leg 714 may take on any size, shape or length and are not limited to their lengths or configurations due to their names. The shaft and rim assembly 720 may be covered by a canopy (not shown), for example, which may be made from any material that is usually used for the canopy of an umbrella, such as, for example, cloth, fabric, synthetic material or any such material.
Inner tube 702 is connected to the shaft and rib assembly 720, as shown in more detail in FIG. 7F (and FIG. 1E). Inner tube 702 also may slidingly fit or engage with outer tube 703. In other words, the radius and circumference of inner tube 702 is smaller than the radius and circumference of outer tube 703 so that inner tube 702 may fit within outer tube 703 and inner tube 702 may also be able to slide up and down within outer tube 703 as well. Outer tube 703 may also house inner tube 702 and the umbrella when the umbrella is fully retracted, and may also lock inner tube 702 into place when inner tube 702 and the umbrella (as well as the umbrella's canopy) are fully extended. A fan 704 may also be part of the umbrella backpack mechanism 700 that may cool down the user or also cool down the mechanics of the umbrella backpack mechanism 700 (such as its raise motor 705 or any lights, circuitry or other components that may get hot). Raise motor 705 controls the raising and lowering of the inner tube 702 connected to the canopy of the umbrella and also controls the contraction as well as expansion of the umbrella canopy. Raise motor 705 may be controlled, for example, by a button or switch that is located on the unit (e.g., such as button and switches 708, or could also be something that is a portable handheld unit or remote conveniently controlled by the user, or conveniently located on a front strap of the backpack, for instance). The raise motor 705 may also be powered by a battery and charger system (such as, for example, the battery box 707), or may be powered by a direct power connection, or another power source such as, for example, a solar powered unit or other similar unit. Rucksack base 706 may be a larger backwards-L shaped structure, where the flat surface of the rucksack base supports components such as, for example, the battery box 707 or the raise motor 705, even though battery box 707 is shown positioned above in the middle, it may also be configured near the bottom of the rucksack base 706. The vertical surface of the rucksack base 706 may be used to align with the back of the body 710 of a user, or there may also be padding between the vertical surface of the rucksack base 706 and the back of the body 710 of the user so that the user is comfortable and that the backpack of the umbrella backpack mechanism 700 has proper support and structure for all the components it houses. Buttons and switches 708 may include buttons or switches to control the fan 704 and/or buttons or switches to control the raising and lowering of the inner tube 702 connected to the shaft and rib assembly 720. Also, additional buttons or switches that control other components not shown in FIG. 7A may also be included within the buttons on buttons and switches 708. Also, buttons and switches 708 may not necessarily be position where it is shown in FIG. 7A; for instance, it may be positioned on the bottom of rucksack base 706. As just another example, buttons and switches 708 may also be on a plug in an extender flying lead that can be in a pocket, belt or hand, or part of a remote or handheld device that can be conveniently pressed, or be conveniently positioned on the front strap of a backpack for easy access by the user, for example. Drain tube 709 is connected to outer tube 703 and also inner tube 702 and may release air or fluids so as to facilitate the movement and operation of the inner tube 702 rising and lowering when controlled by the raise motor 702. The drain tube 709 also works in tandem with the raise motor 705 so as to maximize the efficiency of the raising and lowering of the umbrella and the expansion/retraction of the shaft and rib assembly 720. Drain tube 709 also may drain the water that could be pooling or sitting in the canopy of the umbrella when the canopy attached to the shaft and rib assembly 720 is closed (or during the closing process) to avoid excessive dripping on other surfaces, such as, for example, the user's clothes or the ground or carpet. Finally, body 710 is the body of a user that may use the umbrella backpack mechanism 700. Although FIG. 7A shows the user wearing the umbrella backpack mechanism 700 on the back of the user's body 710, the displacement and position of the umbrella backpack mechanism 700 is not limited to this configuration, and can be worn on the front, the sides, the top or bottom of the user's body 710, and may also be mounted as a unit on any structure or wall such as a chair, table, side of a house, boat, cargo ship, cargo box, stand, and so on. Therefore, body 710 may also include any of these inanimate structures, in addition to a physical human body.
FIG. 7B illustrates an aerial front view shot of an umbrella backpack mechanism in accordance with an embodiment of the present disclosure. The components are the same as discussed above for FIG. 7A. However, there is a new component, canopy 701 which is attached to the shaft and rib assembly 720 and is the component that extends out when various components (such as the long rib leg 714 or the short rib leg 713 extend out completely) in order to completely cover, protect or shield the user 710 from rain or other weather elements. Long rib leg 714 is also shown as being extended out, just as an example of the range of how far the canopy can extend. In one embodiment, long rib leg 714 can also be used as an additional means of support, or additional channels to redirect rain water away from the canopy and the user. The canopy 701 and the front of the body 710 can also be more clearly seen from this view in FIG. 7B. The inner tube 702 may also be seen in the background. Again, the umbrella backpack mechanism may not necessarily be just worn on the back of the body 710, but may also be worn on the front, side, bottom or top of the body 710 as well.
FIG. 7C illustrates a rear view shot of an umbrella backpack mechanism in accordance with an embodiment of the present disclosure. The components are the same as discussed above for FIGS. 7A and 7B. The canopy 701 and the long rib leg 714 attached to the inner shaft 712 are also shown to emphasize the range of how far the canopy 701 can expand. In one embodiment the long rib leg 714 can be used as, or in tandem with, channels to facilitate the clearing of rain water away from the body 710 of the user and the rest of the umbrella backpack mechanism 700. A clearer view of the rucksack base 706 as well as the fan 704, the inner tube 702, the outer tube 703, the raise motor 705 and the battery box 707, as well as the buttons and switches 708, may be seen. Furthermore, even though this is shown as being on the back of body 710, it is not limited to this configuration, and may be positioned on the front, side, top or bottom of the body 710 of a user or structure.
FIG. 7D illustrates a side view shot of an umbrella backpack mechanism in accordance with an embodiment of the present disclosure. The components are the same as discussed above for FIGS. 7A and 7B. The canopy 701 and the long rib leg 714 attached to the inner shaft 712 are also shown to emphasize the range of how far the canopy 701 can expand. In one embodiment the long rib leg 714 can be used as, or in tandem with, channels to facilitate the clearing of rain water away from the body 710 of the user and the rest of the umbrella backpack mechanism 700. A clearer view of the backwards L-shape of rucksack base 706 can be seen, and also the side view of inner tube 702, outer tube 703, fan 704, drain tube 709, and buttons and switches 708 can also be seen as well. The umbrella backpack mechanism 700 also does not need to be positioned on the rear of the user's body 710 but again can be positioned on the top, bottom, front or any other configuration. The view in FIG. 7D also reveals various transparencies of the different components to show where all the different components engage and fit with each other.
FIG. 7E illustrates another side view shot of an umbrella backpack mechanism in accordance with an embodiment of the present disclosure. FIG. 7E is nearly identical to FIG. 7D above, but the components are “filled in” and are not shown in a transparency view, in order to make the viewing of the different components clearer, and to make it easier to distinguish where certain components begin and where other components end. Accordingly, all the components of FIG. 7E were discussed in FIG. 7D and above.
FIG. 7F illustrates a zoomed in view of the shaft and rib assembly of an umbrella backpack mechanism in accordance with an embodiment of the present disclosure. Shaft and rim assembly 720 includes short rib leg 713, long rib leg 714, inner shaft 712, outer shaft slider (not shown), inner tube (not shown), and body 710. The bottom of inner shaft 712 may connect to the outer shaft slider (not shown) or directly to the inner tube (not shown), or to a combination of both. In one embodiment, the outer shaft slider comes out of inner tube and slidingly engages with inner shaft 712. Connected to the inner shaft 712 are the short rib leg 713 and long rib leg 714, which connect together with the shaft and rim assembly 720 of the umbrella so that when the legs are fully extended the canopy 701 is fully formed and covering the body 710. The outer shaft slider can also move along the whole length of the inner shaft 712. The short rib leg 713 and the long rib leg 714 join together in supporting the canopy of the umbrella in shaft and rim assembly 720, and when the outer shaft slider or inner shaft 712 is moved upwards, the short rib leg 713 and long rib leg 714 are pushed outwards so as to fully extend and expand out the canopy of the umbrella. When the outer shaft slider or inner shaft 712 is moved downwards, the short rib leg 713 and long rib leg 714 are pushed downwards so as to retract and be placed back within the inner tube. The movement of the outer shaft slider or inner shaft 712 may be controlled by, for example, the raise motor 705, or may also be controlled manually by the user, or by some other means that can move the outer shaft slider or inner shaft 712 up and down. The body 710 may be a physical human body or it may also be an inanimate structure such as a chair, table, side of a house or similar such object. The inner tube 702 which the outer shaft slider and inner shaft 712 go back into can be made from fabric, cloth, plastic, waterproof material or any such similar substance. Also, in one embodiment, the short rib leg 713 may be longer than the long rib leg 714, in one embodiment, the long rib leg 714 may be shorter than the short rib leg 713, in one embodiment, both the short rib leg 713 and the long rib leg 714 can be the same length, and both the short rib leg 713 and the long rib leg 714 may take on any size, shape or length and are not limited to their lengths or configurations due to their names. The shaft and rim assembly 720 may be covered by a canopy (not shown, but for example canopy 701), for example, which may be made from any material that is usually used for the canopy of an umbrella, such as, for example, cloth, fabric, synthetic material or any such material.
In one embodiment, there can be a number of other components added to the backpack unit of the umbrella backpack mechanism, such as, for example, fans, lights, heater units (for cold temperatures), cooler units (for hot temperatures), entertainment units for watching media or listening to music, GPS units, computers, decorations, aesthetic customizations, scent plug-ins, built-in mobile phones, sports equipment, additional pockets, and additional devices, equipment, features, add-ons that otherwise would enhance the experience of using an umbrella backpack mechanism.
In one embodiment, the contracted umbrella may rest within the inner tube. In one embodiment, the contracted umbrella may rest within the inner tube, which may in turn rest within the outer tube. In one embodiment, the contracted umbrella may rest within the outer tube. In one embodiment, the contracted umbrella may rest within another sleeve or housing structure.
In one embodiment, the backpack umbrella mechanism has more applications that just being used as an attachment to a backpack to be worn on the rear of the human body. The backpack mechanism can be used in other circumstances as well, such as, for example, attaching a backpack unit or unit to a chair, any outdoor setting, any type of boat of any size, a boat chair. Also, the umbrella may be opened so that it is sitting in a tube that could be metal or fabric and operated by electric power. The backpack umbrella mechanism may also be used in any type of work situation where people, cargo, important cargo, Naval corps, sensitive items that need to be protected from the rain, snow, excessive sun or weather need to be covered. Also, in fishing, the backpack umbrella mechanism may be either attached to the body of a person on a boat, on the boat itself somewhere or on a structure on the boat, or on the side of the boat (for instance, a giant umbrella that opens and close automatically and when one is close to you, and something that a user will not usually see). The number of applications for the backpack umbrella mechanism is infinite, and can especially be utilized by many different professions, careers, and those in the Army, Military and Navy. An object like the backpack umbrella mechanism simply does not exist on the market at all currently.
In one embodiment, the umbrella used in the umbrella backpack mechanism may utilize a variety of different design ideas. For instance, in one embodiment, a V opening scheme/structure may be utilized where the umbrella opens in a “V” shape or scheme that has the canopy spread against a shorter length with more bulk and may have slightly more cost to manufacture. In one embodiment, an A type opening scheme/structure may be utilized where the umbrella opens in a “A” shape or scheme, and is the most common and has the canopy spread over a longer length and hence has less bulk and is off-the-shelf with a low cost to manufacture. In one embodiment, a M-shaped umbrella or scheme may be utilized that shapes the umbrella like a M. In one embodiment, a W-shaped umbrella may be used, where the umbrella is shaped like a W. In one embodiment, a V and A and W and M type opening scheme/structure may be utilized, or a combination of the all or some of those opening types, and this combination may be designed by electronics systems engineering. In one embodiment, the umbrella may be an auto-open type of umbrella or automatically opening umbrella that opens its canvas automatically. In one embodiment, the umbrella may be a W fold type with auto-opening capabilities. In one embodiment, the umbrella may be a M fold type with or without auto-opening capabilities. In one embodiment, a standard opening umbrella could be used, where the umbrella handle may be replaced with a moveable platform which moves up and down inside the storage receptacle that stores the contracted umbrella. In one embodiment, the umbrella may open under a spring operation and close using a wind-in motor. The handle-less design (where the umbrella's handle is replaced with a movable platform) would allow the purchase of slightly modified standard-umbrellas, or umbrellas with no handles attached.
Those of skill will appreciate that the various illustrative logical blocks, modules, units, and algorithm steps described in connection with the embodiments disclosed herein can often be implemented as electronic hardware, computer software, or combinations of both. To clearly illustrate this interchangeability of hardware and software, various illustrative components, units, blocks, modules, and steps have been described above generally in terms of their functionality. Whether such functionality is implemented as hardware or software depends upon the particular system and design constraints imposed on the overall system. Skilled persons can implement the described functionality in varying ways for each particular system, but such implementation decisions should not be interpreted as causing a departure from the scope of the invention. In addition, the grouping of functions within a unit, module, block or step is for ease of description. Specific functions or steps can be moved from one unit, module or block without departing from the invention.
The various illustrative logical blocks, units, steps and modules described in connection with the embodiments disclosed herein can be implemented or performed with a general purpose processor, a digital signal processor (DSP), an application specific integrated circuit (ASIC), a field programmable gate array (FPGA) or other programmable logic device, discrete gate or transistor logic, discrete hardware components, or any combination thereof designed to perform the functions described herein. A general-purpose processor can be a microprocessor, but in the alternative, the processor can be any processor, controller, microcontroller, or state machine. A processor can also be implemented as a combination of computing devices, for example, a combination of a DSP and a microprocessor, a plurality of microprocessors, one or more microprocessors in conjunction with a DSP core, or any other such configuration.
The steps of a method or algorithm and the processes of a block or module described in connection with the embodiments disclosed herein can be embodied directly in hardware, in a software module (or unit) executed by a processor, or in a combination of the two. A software module can reside in RAM memory, flash memory, ROM memory, EPROM memory, EEPROM memory, registers, hard disk, a removable disk, a CD-ROM, or any other form of machine or computer readable storage medium. An exemplary storage medium can be coupled to the processor such that the processor can read information from, and write information to, the storage medium. In the alternative, the storage medium can be integral to the processor. The processor and the storage medium can reside in an ASIC.
Various embodiments may also be implemented primarily in hardware using, for example, components such as application specific integrated circuits (“ASICs”), or field programmable gate arrays (“FPGAs”). Implementation of a hardware state machine capable of performing the functions described herein will also be apparent to those skilled in the relevant art. Various embodiments may also be implemented using a combination of both hardware and software.
The above description of the disclosed embodiments is provided to enable any person skilled in the art to make or use the invention. Various modifications to these embodiments will be readily apparent to those skilled in the art, and the generic principles described herein can be applied to other embodiments without departing from the spirit or scope of the invention. Thus, it is to be understood that the description and drawings presented herein represent a presently preferred embodiment of the invention and are therefore representative of the subject matter, which is broadly contemplated by the present invention. It is further understood that the scope of the present invention fully encompasses other embodiments that may become obvious to those skilled in the art.
