Patent Publication Number: US-9409114-B2

Title: Replacement filter with cartridge and automatic filter media advance and wireless communications

Description:
CROSS-REFERENCE TO RELATED APPLICATIONS 
     This application is a continuation of and claims priority to U.S. patent application Ser. No. 13/524,928 filed Jun. 15, 2012, which is a continuation in part and claims priority to U.S. patent application Ser. No. 12/585,514, filed Sep. 16, 2009 and Ser. No. 12/953,402 filed Nov. 23, 2010, and claims priority to U.S. provisional application 61/604,523 filed Feb. 29, 2012, which are incorporated herein by reference. 
    
    
     BACKGROUND OF THE INVENTION 
     1. Field of the Invention 
     The invention is directed to a gas or liquid agent filter, in an exemplary embodiment having a cartridge replaceable media. The housing having a standard width for such filters so as to be a replacement for existing standard filters and future filters or as a pre-filter. The housing contains a movement member, a motor, a power source, a controller and a filter media cartridge. The exemplary product strives to be both directly replaceable with a filter and disposable with minimum modification to existing equipment and minimum environmental impact. The replacement filter being further located within a flow channel in the filter unit wherein the agents being filtered is passed within the flow channel and passed through the filter media. The replacement filter having a compacted or stored portion of the filter media that is removed as an at least one filter media stack out to replace the initial and subsequent sections of filter media being exposed by the invention to agent within the filter unit. This stack or set of stacks being replaceable in and of themselves as a prefolded, pre pleated, filter media cartridge system. Additional aspects of the invention include remote monitoring and communication with the filtration unit, enabling monitoring and alert for replacement of the Filter. Additionally, the filtration unit may be enabled to monitor and communicate flow qualities, including for instance contaminants, and to take further actions in response to alerts sent through a network. 
     2. Background of the Invention 
     An important component in almost all filtration units in general is a filtration mechanism for removal of particulates and contaminants from the flow of the agent. In Heating Ventilation and Air Conditioning systems (HVAC), for instance, this is preferably before or sometimes after or even both before and after coming into contact with heat exchanging elements. The removal of the contaminants helps prevent reduction in heat transfer associated with accumulation of the contaminants on the heat exchanger elements. Additionally, the removal of these contaminants also improves the quality of the air circulated by the HVAC air handling system. Similarly, in computers, filtration of air used for cooling the electronic elements requires filtration before coming into contact with the electronic elements. Similarly, in pools, the water in the pools requires filtration before being returned to the pool by a circulating system. In some pool systems further filtration is required before chlorination of the pool water. In a host of other industrial and commercial applications, effective media filtration is necessary. The timing for replacing or renewing these filtration mechanisms is therefore important in both improving efficiency and reducing wear and tear in the filtration units in most filtration applications. 
     In most systems a filter is used through which the media is passed. Dirty filter media result in lower flow rates of the agent in the system which translates to lower efficiency in filtration, especially in HVAC systems where it equates to less heat exchange in the HVAC equipment. The equipment must run longer to accomplish the intended goals, for example contaminant filtration and/or temperature control. In HVAC for instance, air conditioning equipment may freeze up due to such inefficiencies. Additionally, the motors and other components must run longer and harder resulting in increased wear on the entire system, reducing its useful life. Thus, the filtration systems require constant attention and maintenance. 
     In commercial and industrial applications, it is often the case that the air handling functions are monitored by a control center and maintained based on performance measurements. For example, when utilizing multiple refrigeration units in chemical processing the timing and performance of the cooling units is often integral to the manufacturing process, these systems are therefore monitored and maintained based on sensor reports, typically from within the system itself or based on hours of operation. Upon determination by the controller or by a set schedule, the filters on such systems are replaced. 
     Similarly, in residential settings, many HVAC companies sell maintenance contracts to residential clients, typically annual or bi-annual in nature, to address routine maintenance. Similarly pool companies regularly inspect and change water filters in chlorination systems and even in home residential water units in the case of hard water softeners for instance. However the removable, replaceable filters that are typically in these units require more frequent replacement by these clients. 
     Filters for most residential and commercial air filtration and air handling equipment are typically removable, replaceable, rigid, framed units. Rigid framed filters can be time consuming to replace or clean and often require frequent replacement, typically monthly in the case of residential applications. This also requires an added amount of attention by an industrial or commercial maintenance staff or residential unit owner. For instance, in a commercial setting the restaurant owner or similar commercial customer must provide an even greater amount of attention to cleaning and/or replacing these types of filters. The filters often go unchanged as users forget to change the filter regularly. This shortfall has been well known and several attempts have been made in the past to provide long lasting filters. Several attempts have been made to provide a reel system, see for example US Patent Application No. 2006/0102006, Japanese Patent No. JP06233945, German Patent No. DE19654844 A1, U.S. Pat. Nos. 6,168,646, 4,470,833, 6,152,998, 4,221,576. 
     Though these have extended lengths of service, in each instance, the resulting device requires modification of the HVAC unit or uses less efficient media shapes and sizes. This makes these existing devices impractical for easy use, installation and maintenance by a typical end user. For example, as seen in U.S. Pat. Nos. 6,152,998, 6,632,269, 6,491,735, 6,402,822, and 6,743,282 and the commercially available OPTIMAIR system, often the reels are located outside the unit and are located in a reel storage area that does not easily fit within the confines of the existing filter system and is not easily scalable. This also prevents replacement of the existing filter with these types of units as the footprints are completely different and these systems are not replacements for the existing filter or an effective filter or pre-filter with pleated, replaceable media. 
     Other commercial applications use sheets that are stretched between rolls on either side of an air duct, see for example U.S. Pat. No. 6,632,269 to Najm, U.S. Pat. No. 4,331,576 to Phillips Jr., or U.S. Pat. No. 6,152,998 to Taylor. In each embodiment, significant modifications to the HVAC or cooling system would need to be made to install the devices or they use a non-standard footprint. The systems do not provide retrofitting the filter structure to existing HVAC equipment and moreover, they require significant installation steps as outlined above with respect to residential units that operate in a similar manner. 
     Additional attempts have been made to address the issue in a commercial HVAC application, for instance U.S. Pat. No. 7,186,290 to Sheehan. In U.S. Pat. No. 7,186,290, a stack of filters is cycled through the device. This system requires a large amount of modification to incorporate into existing devices, as with other existing designs. Additionally, the stacks of stored filters require a significant amount of space in or around the HVAC unit. Thus, to fit existing systems requires either significant additional modifications or additional space to operate and provide extended use filter systems. Moreover, no economical method of providing a self-renewing or extended use filter within the standard footprint of the existing filter housings has been provided. 
     An exemplary replacement filter would be one that fits into existing filter footprints as defined by the OEM. A uniform and industry standard width is provided in almost all residential and most commercial filters. Similarly, industrial applications, though often purpose built, have specific filter footprints after completion and replacement of these custom sizes is also contemplated. The filters shown in all of the above noted patents and publications require extensive modifications to fit in the place of the existing filters in these air handler and HVAC systems and lack the specified media stack. In addition, those systems do not provide for a media cartridge that provides for efficient removal and optionally sealing the exposed media stack. The provision of a compacted, pleated, folded media stack as a cartridge provides for the most efficient shape for most applications. In addition the existing media solutions cannot be used to provide side sealing in conjunction with the filter nor do the cartridges fully isolate and seal once spent. Further the installation of the systems would require additional wiring and would likely require professional installation. Additionally, little or no communications are provided at the source of filtration, therefore, these systems cannot effectively communicate the status of the air being handled or further communicate with machinery or other devices. 
     To date, no commercially successful system has been produced for use in conventional filtration systems without modification or extending beyond the footprint provided for the replaceable filter. An exemplary replacement filter having a footprint that fits in the standard width in an existing system that also has an extended use, while being more environmentally friendly and remaining sealed preventing re-exposure or re-admission of contaminants to the air and the system is needed. Moreover, no economical exemplary method of providing a self-renewing or extended use filter within the standard footprint of the existing filter housings and providing a compacted, pleated, folded filter media that can be expanded and then compacted again has been provided. Additionally, no filter to date with such extended use and standard footprints exists that can both store and communicate air quality through a sensor to a communications network and, based on that communication, prompt an alert to a user or control center. 
     There is, therefore, a need for a method and apparatus for providing for a self-renewing or extended use filter for filtration applications that has a standard footprint that fits within existing commercial and residential apparatus, provides extended useful life to the filter, requires little or not modification to install in existing equipment, facilitates and enhances communication of the air quality, communicates with other elements of the filter or a network, provides for replaceable media through a filter media stack cartridge, and has a minimal impact on the environment when discarded. Further, though the exemplary embodiments are shown for replacement air handler filters, in addition to air handlers and HVAC systems, the instant invention is adaptable to other filtration applications, some non-limiting examples being spray booths, computers, room and building air purification, gaming machines, clean rooms, electronics manufacturing, water filtration, pool and spa filtration, chemical and other liquid and gas filtration, and other applications utilizing filtration. 
     SUMMARY OF THE INVENTION 
     An aspect of the invention is to provide an extended life replacement cartridge filter having pleated filter media that is moved and returned in a compact folded, pleated filter media stack that is fully disposable. 
     A further aspect of the invention is provide an even further extended life replacement cartridge filter having a magazine cartridge storage area having several changes of material stored therein. 
     Yet another aspect of the invention is to provide a sealed replacement filter to minimize re-admission and exposure to the collected contaminants during operation and replacement, the spent filter being contained within the sealed housing unlike many roller systems which require removal or handling of the spent filter material, the instant invention minimizes this contact and the potential for readmission to the flow. 
     An aspect of the invention is to provide a compact, pleated, folded filter media stack provided in a cartridge and extended into the replacement filter from the compact, pleated, folded state to an extended state and then back to a compact, pleated, folded exposed filter media stack. 
     A further aspect of the invention is to seal the filter cartridge such that the filter media is extended from its compact stored state to a deployed state and back to its compact, folded, pleated state after exposure and sealed in the cartridge. 
     Yet another aspect of the invention is to provide a filter cartridge with a compact, pleated, folded filter media stack that moves to an expanded state and provides side sealing in the filter media. 
     A still further object of the instant invention is to provide a replacement filter having a pleated, folded filter media stack with a controller, the pleated filter media stack and the controller being in a housing and the pleated media filter being unfolded at its pleats in the flow channel. The controller moving the media within the housing over an extended period of time from a cartridge with the filter media stack, while the housing fits a standard width or footprint for an existing filter. 
     A still further aspect of the invention is to provide the filter media stack in an at least one replaceable cartridge, the at least one replaceable cartridge deploying the filter media stack so as to unfold the filter media stack, expose the unfolded filter media, and then restack the filter media so as to compact the filter media for removal and insertion of a new cartridge. 
     Yet another object of the invention is to provide measurement and reporting of the status or quality of the air being handled, with enhanced communications directly from the filter through sensors on the unit and provide communications with other devices or a network or both. 
     The invention includes an article of manufacture, an apparatus, a method for making the article, and a method for using the article. 
     The article of manufacture and apparatus of the invention includes a replacement filter within a flow channel having a first frame portion of an at least two frame portions. An at least one movement device is included with an at least one motor coupled to and driving the at least one movement device. An at least one power source powers the at least one motor. A controller is coupled to the motor. A least one filter media stack is provided having a filter media, the filter media being pleated and folded and compactly stored in the stack. A second frame portion of an at least two frame portions is also provided that couples with the first frame portion of the at least two frame portions forming a housing with an at least one exposure slot through which the fluid channel passes. The first and second frame portions of the at least two frame portions coupling such that the at least one movement member engages the at least one filter media cartridge stack in one of the at least two frame portions and the at least one member moves the filter media upon instruction from the controller from a pleated, folded and compact state to extend across the at least one exposure slot to expose the pleated and extended filter media to the flow and through the movement of the at least one movement member to remove exposed filter media and restack and store the exposed filter media in a media cartridge stack. 
     The movement member can further comprise an at least one of a cord, wire, string, track, puller or pinch rollers, star, toothed, or pin roller, screw drive, threaded rod, or a take-up roller. The movement member can also comprise an at least one threaded rod threaded rod and may further include an at least one sweep bar, where the threaded rod engages the sweep bar and moves the filter material and each of the at least one sweep bars, where each of the at least one sweep bars is spaced such that the bar separates a length of filter media that fills the space across the exposure slot. 
     The pleated and folded and compactly stored filter media can further include an adhesive element where the adhesive bond strength of the at least one adhesive element permits removal of the pleats from the folded, pleated filter media stack by a selective removal device such that an at least one portion of the pleats at the point of contact with the adhesive element may remain adhered. 
     The at least one movement device and the at least one motor can be contained within the first frame portion. The at least one filter media stack can be contained in the second frame portion. The filter media stack can be at one end of the housing in a storage area. The exposed filter media is stored in a containment area. The containment area can be sealed. The containment area can be at a further end of the housing. 
     The filter media can be drawn from the filter media stack into a storage area and stored in a compact, pleated, and folded fashion. The containment area can within the filter media stack, such that the filter material is drawn back into the filter media cartridge after exposure. The first and second of the at least two frame portions can be of uniform thickness. The first of the at least two frame portions can have channel portions. The second of the at least two frame portions can have leg portions that sliding engage the channel portions to couple the first frame portion and second frame portion of the at least two frame portions. 
     The filter media stack can include an at least one portion of filter media of sufficient length to provide sufficient unexposed filter to cross the exposure slot and become exposed filter media. The sensor can report a condition of the exposed portion of the filter media to the controller and the controller upon receipt of the condition determines if movement of the movement member moves an amount of unexposed media into the exposure slot to cover the exposure slot. The filter can include several spacers or sweep bars to divide several lengths of unexposed media which are stored and moved into the exposure slot based on commands from the controller. 
     The first frame portion of the at least two frame portions can be a cartridge with the filter media stack therein and the second frame portion of the at least two frame portions is a frame, wherein the filter cartridge is placed within the frame and engaged by the movement member. The frame can be constructed of stiffened cardboard or plastic or metal. The frame can contain the at least one motor with the at least one power source and the controller. The at least one cartridge can contain the at least one movement member. The at least one motor can be coupled to the at least one movement member through a coupling that penetrates through the exterior of the filter cartridge. An at least one securement coupling can be provided wherein with the insertion of the filter cartridge into the frame the at least one securement coupling secures the filter cartridge and engages the coupling. 
     The first frame portion of the at least two frame portions can further comprise a supply cartridge and the second frame portion of an at least two frame portions can further comprise a collection cartridge and a third frame portion of an at least two frame portions couples to the first and second portions to form the housing with the first and second portions of the at least two portions extending from the housing. An at least one securement can be provided coupling the supply cartridge and the collection cartridge to the housing. The at least one securement coupling cane be an at least one of an at least one releasable straps, snaps, buckles, interlocking parts slidingly engaged, clasps, and friction fit elements. 
     The filter media stack can extend in the supply cartridge in the same plane as the housing with a movement bar dividing the pleated, folded and stacked filter media stack. The media stack is advanced and a further media stack having a sweep bar can be pulled down from the supply cartridge. An at least one guide member can be provided to assist in advancing the exposed folded, pleated media into the collection cartridge. The media stack can be withdrawn into the collection cartridge and the sweep bar is driven along a single threaded shaft as a movement member in the middle of the housing and then upward onto a further guide member into the collection cartridge. The collection cartridge can be U-shaped, straight horizontal, vertically stacked, or s-shaped. The collection cartridge can be an angled collection cartridge. An at least one guide rail can be included in the collection cartridge. The guide rail can be a turning screw mechanism and assist in driving an at least one sweep bar. The movement member can be an auger screw on the collection cartridge side of the exposure slot and a star wheel indexer on the supply cartridge side of the exposure slot. 
     An at least one processing module and an at least one transceiver module can be provided on the controller and an at least one sensor can be included, the controller communicating with the at least one sensor, the at least one sensor communicating data to the processing module and the controller, and the transceiver module transmitting data from the filter to a network or a storage device. The at least one sensor can be coupled to the controller and sensing an at least on operating parameter for the filter. The at least one sensor can measure temperature, mold count, carbon monoxide, carbon dioxide, Volatile Organic Compounds (VOCs), smoke, fire, noxious gases, and air particle concentrations or the at least one sensor measures air flow and reports estimated energy consumption to the network or storage device. The controller can communicate through the transceiver module with a further network interface device. The network interface device can be a Wi-Fi enabled device or an internet gateway to a network which in turn reports it to an alert device or a Network Operations Center or control center. 
     The apparatus of the invention also includes a replacement filter deployed within a flow channel having a housing with a first frame member of an at least two frame members and a second frame member of an at least two frame members that are detachable with an at least one exposure slot formed within the housing by the at least two frame members. An at least one filter media storage area is within the housing, having unexposed, folded, pleated filter media stored therein, the unexposed folded, pleated filter media being pleated, folded, and stacked to be compactly held within the at least one filter media storage area. An at least one motor is coupled to a power supply and in communication with a controller, the at least one motor moving an at least one movement member that advances an unexposed portion of the compactly held pleated, folded, and stacked pleated filter media into the at least one exposure slot, expanding and exposing the unexposed portion of the pleated filter media to the flow channel while retaining the pleats and creating an exposed portion of the at least one pleated filter media. And a containment area, wherein the exposed portion of the pleated filter media is collected folded, restacked and compactly stored and retained within the containment area. 
     The containment area can be a filter media cartridge, the filter media cartridge containing a folded pleated filter media stacked and stored so as to be in a compact state and, after being engaged by the at least one movement member, selectively removed from the compact state. The stacked filter media can be held with an at least one adhesive element having a separation force such that the separation force allows for separation of the folded, pleated filter media such that an element of the pleat remains adhered so as to prevent air flow around an edge of the unexposed portion of the filter media when it is in the exposure slot. 
     An at least one processing module and an at least one transceiver module can be included on the controller and an at least one sensor, the controller communicating with the at least one sensor, the at least one sensor communicating data to the processing module and the controller, and the transceiver module transmitting data from the filter to a network or a storage device. The at least one movement member comprises a star wheel moving the material from a portion containing the unexposed filter media with pleats contained thereon and an at least one auger screw drive assisting in collecting the exposed, pleated filter media and further comprising an at least one support assisting in supporting the filter media on the pleats and assisting in producing a pleated pattern. 
     The first frame member can be a housing frame and the second frame member can be a filter. An at least one motor coupling can be provided, the at least one motor coupling engaging the at least one motor to the at least one movement member wherein the first frame member can contain the at least one motor, the at least one controller, and the at least one power source and the second frame member can contain the filter media stack and the at least one movement member. The first frame member can contain the at least one motor and the at least one controller and the second frame member can contain the filter media stack, the at least one movement member, and the at least one power source. 
     The at least one movement member can be an at least one of at least one cord, wire, string; track, puller or pinch rollers, star, toothed, or pin roller, screw drive, threaded rod, or a take-up roller. The at least one movement member can be an at least one screw drive or threaded rod. 
     Moreover, the above objects and advantages of the invention are illustrative, and not exhaustive, of those which can be achieved by the invention. Thus, these and other objects and advantages of the invention will be apparent from the description herein, both as embodied herein and as modified in view of any variations which will be apparent to those skilled in the art. 
    
    
     
       BRIEF DESCRIPTION OF THE DRAWINGS 
       Embodiments of the invention are explained in greater detail by way of the drawings, where the same reference numerals refer to the same features. 
         FIG. 1  shows a top/isometric view of an exemplary embodiment of the instant invention having a cartridge with a filter media stack therein. 
         FIG. 2A  shows a side view of the embodiment of  FIG. 1 . 
         FIG. 2B  shows a sweep bar as used in an exemplary embodiment of the instant invention. 
         FIGS. 3A-3C  show the operation of the embodiment of  FIG. 1 . 
         FIGS. 4A-4C  show the operation of a further exemplary method of operation of the exemplary embodiment of  FIG. 1 . 
         FIG. 5  shows a top/isometric further exemplary embodiment of the instant invention having a cartridge with a filter media stack therein. 
         FIG. 6  shows an assembled filter of the exemplary embodiment of  FIG. 5 . 
         FIG. 7A  shows an exemplary embodiment of the motor coupling member that engages the at least one motor in the exemplary embodiment of the filter of  FIG. 5 . 
         FIG. 7B  shows a further exemplary embodiment of a filter similar to the exemplary embodiment shown in  FIG. 5 . 
         FIGS. 8A, 8B and 8C  show isometric of a still further exemplary embodiment of the instant invention having a cartridge with a first media stack in line with the housing and an additional vertical filter media stack. 
         FIG. 9  shows an isometric of a still further exemplary embodiment of the instant invention having a cartridge with a first media stack inline and a magazine cartridge with multiple vertical filter media stacks therein. 
         FIG. 10  shows a side cutaway view of another exemplary embodiment having a media stack that wraps into a U shaped magazine. 
         FIG. 11A  shows an isometric view of a yet further exemplary embodiment having a rotary movement member to deploy a filter media stack and rollers to assist in guiding the folded, pleated filter media. 
         FIG. 11B  shows a configuration for a larger scale air filtration application, having four of the embodiment of the instant invention of the type shown in  FIGS. 8-10  with magazine input. 
         FIG. 12  shows a plan view of an exemplary embodiment of the invention communicating with other devices or a network or both. 
     
    
    
     DETAILED DESCRIPTION OF THE INVENTION 
     In describing the invention, the following definitions are applicable throughout. 
     A “computer” refers to any apparatus that is capable of accepting a structured input, processing the structured input according to prescribed rules, and producing results of the processing as output. Examples of a computer include: a computer; a general purpose computer; a supercomputer; a mainframe; a super mini-computer; a mini-computer; a lap top; a net book; a smart phone; a workstation; a micro-computer; a server; an interactive television; a hybrid combination of a computer and an interactive television; and application-specific hardware to emulate a computer and/or software. A computer can have a single processor or multiple processors, which can operate in parallel and/or not in parallel. A computer also refers to two or more computers connected together via a network for transmitting or receiving information between the computers. An example of such a computer includes a distributed computer system for processing information via computers linked by a network. 
     A “computer-readable medium” refers to any storage device used for storing data accessible by a computer. Examples of a computer-readable medium include: a magnetic hard disk; a floppy disk; an optical disk, such as a CD-ROM and a DVD; a magnetic tape; a memory chip; a thumb drive; and a carrier wave used to carry computer-readable electronic data, such as those used in transmitting and receiving e-mail or in accessing a network. 
     “Software” refers to prescribed rules to operate a computer. Examples of software include: software; code segments; instructions; computer programs; applications; and programmed logic. 
     A “computer system” refers to a system having a computer, where the computer comprises a computer-readable medium embodying software to operate the computer. 
     A “network” refers to a number of computers, computer systems and associated devices that are connected by communication facilities. A network involves permanent connections such as cables or temporary connections such as those made through telephone or other communication links. Examples of a network include: an internet, such as the Internet; an intranet; a local area network (LAN); a wide area network (WAN); a cellular network; a Wi-Fi enabled network of computers; a network of security systems; and a combination of networks, such as an internet and an intranet or a WAN enabled Wi-Fi network through a wireless provider or any similar network element or network. 
     An “information storage device” refers to an article of manufacture used to store information. An information storage device has different forms, for example, paper form and electronic form. In paper form, the information storage device includes paper printed with the information. In electronic form, the information storage device includes a computer-readable medium storing the information as software, for example, as data. 
     The instant invention is directed to a replacement filter having an at least one cartridge replacement with a pleated, folded media stack. In the exemplary embodiments, the housing fits standard width for filters so as to be a replacement filter for existing filtration systems. The replacement filter contains, at least in part, an at least one motivator or movement element, a motor, and a power source, all of these elements being green friendly, a controller and a folded, pleated filter media stack. The product is therefore both replaceable and disposable with minimum environmental impact. The replacement filter being further located within a channel in the filtration unit wherein the fluid or gas agent is passed within the channel and passed through the pleated filter media. 
     The exemplary embodiments of the invention shown utilize a compacted “clean” portion of the filter media that is in a deployable folded, pleated media stack that is deployed, exposed, and collected within the device. In most of the exemplary embodiments shown, the filter media is folded or pleated and stored in a storage section. A movement element in the embodiments is attached to the media when the folded, pleated media stack is inserted into the filter device frame. The folded, pleated media stack is engaged with the movement element. In response to the controller the motor moves the movement element. The movement element in turn moves the media into the fluid or gas flow channel. When the controller determines a change of filter media is necessary, the movement element again moves and the exposed media is moved from the flow channel into a collection section where it folds and is stored and draws an unexposed portion into the exposure area. This movement of the filter media is produced by the movement element. This movement and storage of the media results in an extended length of operation for the replacement filter that does not require special installation, minimizes environmental impact after disposal, and is self-contained, thus minimizing readmission of containments while allowing for replacement of the cartridge media. The filter media is a pleated, folded filter media, the pleats providing added surface area in the exposure area. The filter media is stored in pre-pleated stacks and is collected and stored in a containment area preventing re-admission and re-exposure of the contaminants collected in the exposed media. As noted below, safeguards in the system can be used to further prevent readmission or reexposure during replacement of the cartridge or filter media stack as described below. 
       FIG. 1  shows an isometric view of an exemplary embodiment of the instant invention shown in shadow and having a cartridge with a filter media stack therein. A replacement filter  1  is shown. The replacement filter is located such that it is in a path or channel of the flow of the agent or material being filtered (not shown). The filter  1  has a first frame portion  10  of an at least one frame portion. The first frame portion  10  having channel portions  16 ,  18 . The channel portions  16 ,  18  can be any shape but in the exemplary embodiment the channel portions  16 ,  18  are C channel portions which interlock with leg portions as described herein below to form a completed housing  200 . 
     In the exemplary embodiment shown the first of the at least one frame portions  10  contains at least one motivator or movement device or movement member or element  20 , in this instance a pair of threaded rod shafts or screw drives, the at least one movement member  20  being driven by an at least one motor  40  with a power source  50 , and a controller  60 . Other movement members may be utilized in further exemplary embodiments. Some non-limiting examples of movement members include but are certainly not limited to at least one cord, wire, string; track, puller or pinch rollers, star, toothed, or pin roller, screw drive, threaded rod, a take-up roller, or similar movement device or member. Although reference is made to these elements being in a first of an at least one frame portion  10 , some or all of the elements may be located in other frame portions as shown in the further embodiments described herein or as would be otherwise understood by one of ordinary skill in the art. 
     A second frame portion  15  is provided in the exemplary embodiment shown. The second frame portion has two leg elements  17 ,  19  which fit within the channel elements  16 ,  18  of the first frame portion  10 . Stored with the second frame portion  15  is an at least one pleated filter media stack  100 ,  101 ,  102 . The at least one pleated filter media stack  100 ,  101 ,  102  is formed by stacking a filter media in a pleated fashion such that it is easily compressed and then deployed. For example, by the process shown in Applicant&#39;s co-pending applications for “A Method of Adhering A Pleated Filtration Media And Filter And Media Filter Stack” filed as U.S. Patent Application 61/604,523 which is incorporated by reference or other methods of creating the filter media stack and may include adhesive portions or elements  340 . In the exemplary embodiment, a cut length of pre-pleated filter media sheet is compressed and separated into lengths that effect a full change of the material in the exposure slot  7  of the instant invention. The resulting pleats in the folded, pleated filter media stack  100  are thus selectively removable from the media stack  100 . In other words, the adhesive bond strength of the at least one adhesive element permits removal of the pleats from the folded, pleated filter media stack  100  by a selective removal device, like the movement member  20  of the instant invention. Further embodiments may omit the adhesive strips  340  an simply provide a very tightly compacted filter media stack  100 . 
     A power source  50  is provided in this exemplary embodiment, here the non-limiting example being shown as two batteries. The power source  50  provides power to the at least one motor  40 , in this exemplary embodiment a non-limiting example having two motors, and the controller  60 . The exemplary embodiment utilizes a folded pleated filter media  70  stored in one side of the completed housing  200  forming the at least one pleated filter media stack  100 ,  101 ,  102  of uncontaminated filter media  72  in the filter media storage area  95 . The folded at least one pleated filter media stack  100 ,  101 ,  102  is stored and, optionally, the pleats are adhered in at least a portion of the space between the tops or peaks and troughs or valleys of each pleat as noted above. 
     In an exemplary embodiment, several of the media stacks  100 ,  101 ,  102  are provided with a specific pleat density or pleat per inch measurement. The pleats per inch can be, for example and certainly not limited to, between about 0.1 and 10 pleats per inch, particularly between 0.5 and 4 pleats per inch is typical but the concentration of pleats is certainly not limited in this way. The media stacks  100 ,  101 ,  102  are stored in the completed housing  200 , comprised of at least two frame portions  10 ,  15 . In the exemplary embodiment shown the second frame portion  15  contains leg sections  17 ,  19  and the filter media stacks  100 ,  101 ,  102  contained thereon. The filter media stacks  100 ,  101 ,  102  in the exemplary embodiment shown further include sweep bars  205 ,  206 ,  207  each separating enough material such that the material between the spaced sweep bars corresponds to a complete change of the material in the exposure slot when deployed. As shown, the first media stack  100  is deployed in the exposure slot  7 . 
     One end of the folded, pleated filter media stack  100 - 102  is coupled to the second frame portion  15 . Thus the folded, pleated filter media stack  100 - 102  is moved from its compacted position to an extended or operating position to replace the exposed filter media  77 . Upon command and operation from the controller  60 , the exemplary embodiment of  FIG. 1  shows the filter as it has deployed a first media stack  100  along the at least one movement member  20 , here the pair of threaded rod screw drives. The movement imparted by the movement member  20  removes the at least one folded, pleated filter media stack  100 ,  101 ,  102  from its compact stored state, separating the pre-selected pleats per inch spacing into an operational position across the exposure slot  7 . This is done by engaging the at least two frame portions  15 ,  17 , which include an at least one frame portion forming a cartridge containing the filter at least one filter media stack  100 ,  101 ,  102  thereon. In the exemplary embodiment this is shown as frame portion  15 , however it is understood it could also be frame portion  10  or a further frame portion. 
     After a determination is made by the controller  60  that a change of media stack  100  is needed, the at least one movement member  20  is engaged by the motor  40  moving the sweep bar  205  and the remainder of the media in the exposure slot  7  through to the containment area  95 . The at least one support member  105  is pulled toward the motors  40  in this exemplary embodiment as shown by the arrows denoting movement. The sweep bar or support member  205  in a non-limiting example used in the exemplary embodiment is a plate threaded onto each of the threaded rod screw drives  20 . The resulting movement pulls the second media stack  102  and the associated sweep bar  206  along the at least one movement member  20  and moves the media stack  102  from the storage area  95  into the exposure slot  7  to deploy the clean media  72  therein. Of course, this is only one method of operation and several such methods may be utilized to move clean media, for instance those shown herein below in relation to  FIGS. 3A-4C . These methods may be utilized to affect a partial or a complete change of the filter material in the exposure slot  7  and move the exposed filter media portion  77  into the containment area  95 . The containment area  95  and/or the storage area  90  may also provide a seal (not shown) to help prevent readmission of contaminants when all the filter media in the filter becomes exposed and the media stack contained in the cartridge or frame portion  15  needs to be changed. Again the specific movement can be varied and the at least one media stack  100 ,  101 ,  102  may be store in any of the at least two frame portions to form a replaceable cartridge with media stack. The filter media  70  has an unexposed portion that is folded and compactly stored in filter media stacks  100 ,  101 ,  102  in the media storage area  95  of the completed frame, the unexposed, folded portion of the filter media  72  when exposed to the flow channel is oriented such that the pleats are matched against collapse and withstand the pressure exerted by the passing flow. 
     In the exemplary embodiment shown, the completed housing  200  is provided in the exemplary embodiment by slidingly engaging the leg portions  16 ,  18  of the first frame portion  10  with the channel portions  17 ,  19  of the second frame portion  15 . Thus the filter  1  has a completed housing  200  which contains an at least one motivator or movement device  20 , in this instance a threaded rod or shaft or screw drive, having the filter media stack  100  coupled thereto. In this instance, the at least two frame portions  10 ,  15 , contain in one portion the controller  60 , the motor  40 , the at least one movement device  20 , and the power supply  50  in the first frame portion  10 . The cartridge containing the at least one media stack  100 ,  101 ,  102 , is here shown as the second frame portion  15 . The elements could equally be swapped or certain components, for instance the power supply, can be located in other of the at least two frame portions  15 ,  10 , as shown herein in relation to the further embodiments below. Likewise the number of media stacks can be varied, providing longer or shorter operational times per cartridge. 
     Similarly, the specific construction of the elements may be varied to fit design parameters, cost constraints or environmental concerns. It should be noted that the power source  50  is in this case can be an environmentally friendly disposable battery, such as but certainly not limited to a lithium ion battery. Similar alkaline batteries may be utilized, for instance. Additional provisions can also be made for an external power source, such as a plug element or set of electrical connectors (not shown) to engage the filter  1  with a conventional power source or use a conventional battery as well. 
     Thus together, in the exemplary embodiment shown, the first and second frame portions  10 ,  15  are combined to form the filter  1  and a completed housing  200 . An exposure area, vent, opening, or slot  7  is provided within the completed housing  200 , the exposure area  7  being of sufficient size to permit flow from the flow channel to be sent there through. The housing  10  contains an at least one motivator or movement device  20 , in this instance a pair of threaded rod screw drives, the movement device  20  being driven by a motor  40  with a power source  50 , a controller  60 . A filter media  70  is provided to deploy as an at least one pleated, folded, compact filter media stack  101 ,  102 ,  103 . 
     The thickness of the filter  1  is specific to design constrains, but typically being a standard width for filters so as to be a replacement in existing filtration applications, such as in air handlers. The thickness can be for example but is certainly not limited to about 0.25 inches to 10 inches, more specifically about one to five inches ( 1 ″- 5 ″) in thickness for residential and commercial filtration systems. An exposure area, vent, opening, or slot  7  is provided within the multi-section frame formed by combining the at least two frame elements  10 ,  15 , the exposure area  7  being of sufficient size to permit flow from the flow channel to be sent there through. The frame and other components can be, in an exemplary embodiment, for example but certainly not limited to, environmentally friendly stiffened plastics, paper or cellulose product, organic plastic like compounds, or similarly green materials. 
     The controller  60  selectively powers the motor  40  in each instance to effect a change in the media  70  in the exposure slot  7 . In this instance, as described above and further in relation to  FIGS. 3A-4C  below, the controller  60  may be programmed to advance or a user may advance a first section of the media stack  100  upon engaging the first and second frame portions  10 , 15 . Alternatively, a user may manually thread the media  70  or engage a selection mechanism, such as a button (not shown), to start the filter media stack  100 . The controller  60  also advances the media  70  when the media in the exposure slot  7  is full of contaminants. One non-limiting example would be to advance the filter media  70  based on inputs from an at least one sensor  80  in the exemplary embodiment. 
     In further embodiments, additional non-limiting examples of sensors and/or inputs can include pressure, flow, light, or similar sensors or indicators. The sensors and controller can further communicate with additional elements of the filter or a network or both. The controller  60  can, for example, comprise a printed circuit board having a microprocessor in communication with the at least one sensor  80 . The at least one sensor  80  can for instance be a magnetic sensor that determines the position of the filter media  70  based on imbedded magnetic tags in the filter media  70 . It can also be a turn counter on a screw drive or a clock or similar mechanism for determining distance and/or time may be utilized as a sensor input  80 . Any number of sensors  80  may be utilized to provide sensed input as to the state of the filter media  70  and the operation of the filter  1 . In the exemplary embodiment, the controller  60  is activated at installation and tracks days or hours in operation. 
     Software on the controller  60  determines when these measurements are made and the threshold levels of obstruction or color change on or similar change in a metered variable in relation to the exposed filter media  77 . Each of the threaded rod screw drives making the movement members  20  are engaged by their respective motors  40  when initiated by the controller  60 . The operation of the controller  60  and the signals of the sensors are further discussed herein below in relation to  FIGS. 3A-4C . However, the determination on advancing the filter via the motor  40  may be based on any of the aforementioned manners, including but not limited to a timer or a sensor  80  output/input. 
     In the exemplary of  FIG. 1 , the controller  60  can count, for example but certainly not limited to, up to three months and activate the motivator or movement device  20 , in this case the threaded rod or shaft, with the at least one motor  50 . In such an exemplary embodiment shown in  FIG. 1 , the length of the filter media  70  paid out may be monitored by a counter or other device based on the number of revolutions of the at least one movement device  20  or based on the aforementioned magnetic tags or similar devices. In a further exemplary embodiment, the sensor input  80  can be in communication with the controller  60  that can determine the position of the media filter  70  and stop when a “clean” element or measured portion of filter media  70  is in position, for example one of the at least one media stacks  100 ,  101 ,  102 . The controller  60  can also be used to sense a condition of the air, the filter media  70 , or a combination of both through communication with the at least one sensor  80 . The controller  60  can also be used to advance the at least one movement member  20  based on the sensed conditions or as a timed or pre-programmed operating profile or based on sensor data in further embodiments. 
     Thus, in the advance of the threaded rod or shaft of the at least one movement member  20  the first of the at least one sweep bars  205  the at least one filter media pack pays out or unfolds the uncontaminated filter media  72  on a first or feed side including a containment area  95 . To aid in the operation of this embodiment and the differences with other embodiments, this side is designated by “A” in  FIG. 1  on the completed housing  200 . While simultaneously on the opposite side, a filter media take-up compartment or containment area  90  is located on a second or take up side, designated by “B” in  FIG. 1  collecting the spent or contaminated filter media  75  in a designated containment area  95 . 
       FIG. 2A  shows a side view of the embodiment of  FIG. 1 . As seen in the side view, the at least one filter media stack  100 ,  101 ,  102  is provided with the at least one sweep bar  205 ,  206 ,  207 ,  208  on one side of the filter  1  within the second frame portion  15 . The completed filter frame  200  being engaged through the sliding engagement of leg portions  17 , 19 , on a second frame portion  15  and channel sections  16 ,  18 , on first frame portion  10 , it should be noted that the side view shows only elements  18 ,  19  but is mirrored on the other side by elements  17 , 16 . The controller at least one motor  40  is shown and engages and drives the at least one movement member  20 , here shown as a screw shaft or threaded rod which engages the at least one sweep bar  205 - 208  in this exemplary embodiment. The at least one sweep bar  205  is shaped such that it engages the at least one movement member  20 , here the threaded rod or screw shaft. Further embodiments provide various shapes to facilitate stacking and or move the support or sweep bars  205 - 208  to non-threaded portions of the rods for storage. However, in this instance, the threads are continued into the containment area as shown. The filter media  70  is folded such that there are just enough residual pleats at the end of the span of filter media  70  in the change being drawn out with the first of the at least one sweep bars  205  such that the second of the at least one sweep bars  206  is drawn onto the at least one movement member  20  and continues to be fed out as the second change of the filter media  70  in the filter  1 . 
     Additional movement members can include for example an at least one cord, wire, string, set of pinch rollers, star roller, star gear, toothed roller, worm drive, or similar device or devices to move the folded, pleated filter media  70  from the media stack  100  and into the exposure slot  7 . Additionally, the position of the screw drive or threaded rod can also be above or below the pleated material, such that the pitch of the screw drive or threaded rod can move the individual pleats in the exemplary embodiment shown in  FIG. 1 . Similarly, the at least one movement member  20  can run through the filter media and be used in conjunction with or without a support member or other device such as the sweep bars  205 - 208  shown in the exemplary embodiment. 
     In the instant embodiment the contaminated filter media  77  is folded on itself and thereby stores and captures the collected particulate matter in storage area  90 . In additional embodiments, the contaminated filter media  77  is contained in a containment area  90  having a seal (not shown) to retain the contaminated filter media and any captured contaminants. In both cases, the contaminated filter media  77  is being collected within the containment area  90  and further within the completed housing  200  so as to minimize exposure for reintroduction of the contaminants from the exposed or contaminated filter media  77  and, simultaneously, preventing contact of the containments with the operator or the environment during replacement. The filter media  70  is provided with a greater amount of filter material  70  stored in the filter media storage area  75  than existing rigid frame, stationary filters, allowing for extended life. For example, sufficient uncontaminated filter  72  media can be provided to make for example a multi-month, six or twelve month for example, filter. In other embodiments, several changes or cycles of filter media may be stored and utilized, such as in the exemplary embodiments described herein below with magazine cartridges. 
     Once the uncontaminated filter media in the filter media stack  100  is emptied or the last available change of filter media has been spent, the controller can activate an indicator element  120 . The indicator element can be, but is not limited to an audible alarm or visual indicator element or LED. Similarly, a scent material may be utilized on all but the last piece of the uncontaminated filter  72  media such that the absence or presence of the scent is an indicator that the filter needs to be replaced. Either after a specified time period or once the indicator element  120  is activated, the user simply removes and replaces the cartridge or second of the at least one frame portions. The spent or contaminated filter media  77  is contained and the re-admission of the filtered contaminants is minimized, as described in more detail in regards to  FIGS. 3A-4C  showing the operation of the exemplary embodiment in  FIG. 1 . The expired filter media stack  100  can then be safely disposed of with minimal environmental impact. 
       FIG. 2B  shows a sweep bar as used in an exemplary embodiment of the instant invention. As seen in  FIG. 2B , the sweep plate is generally rectangular as shown, however a circular or ovoid shape is also contemplated as is a flat bar. The sweep plate  205  has a body  202 , with two guide ports  204 . The guide ports  204  may be circular or may be horseshoe or U shaped as shown. Guide ports  204  that are U-shaped may also be provided with a spring member  213  to aid in retaining the sweep arm  205  on the movement element  20 . The guide ports  204  typically match with the number of movement members  20  and engage them for movement in the frame  1 . The guide ports  204  may also be threaded themselves to match the thread or screw pitch on the threaded rod or screw drive in  FIG. 1 . Similarly, the sweep bar  205  may be similarly shaped or otherwise adjusted to engage with any of the listed movement members. The sweep bars  205  connect the charges of clean filter media  70  for each change within the frame  1 . When the first sweep bar is advanced it unfolds the clean filter media  70  from the stack. In an exemplary embodiment, a small amount of adhesive is used to keep the folded, pleated clean filter media in the stack. The movement member detaches the adhesion in this exemplary embodiment. In further embodiments the folded, pleated filter media may be mechanically held or otherwise held in place with the movement device releasing the clean filter material. The operation of the exemplary embodiment is further described in relation to  FIGS. 3A-3C  and  FIGS. 4A-4C  herein below. 
       FIGS. 3A-3C  shows the operation of the embodiment of  FIG. 1 . In the  FIG. 3A , the first and second of the at least one frame portions  10 ,  15  are joined as described above to form the completed housing  200 . The media is in the second portion  15  is provided as a media stack  100  with multiple sweep bars  205 ,  206 ,  207  segmenting the media stack  100  into charges or cycles or the amount of filter media  70  sufficient to be used in the exposure void or slot  7 . In  FIG. 3A  the media stack is mounted such that the first change of media and the first sweep bar  205  is queued up on the movement member. In this instance, the controller  60  can be instructed, for instance through a push button user input, to begin the advance of the new media stack  100  for the cartridge. Alternatively, the filter media stack  100  may be manually engaged with the at least one movement member  20  during installation. A sealing member  216  can be provide to help prevent admission of contaminants. The media stacks move from the storage side “A” to the containment side “B”, the final process before removing the cartridge bringing the exposed media back to storage side “A” for final removal. 
       FIG. 3B  shows the filter media  70  being moved out of the exposure slot  7  and the third change or cycle of material being advanced with the second sweep bar  206  into and across the exposure slot. The exposed filter material  77  is then stacked, refolding the material at its pleats and compressing same. The folded, pleated filter media is unstacked and moved into the exposure slot  7  by the at least one movement member while maintaining the pleat spacing or PPI in the exemplary embodiment. The material in this exemplary embodiment is coupled to the sweep bar  205 ,  206 ,  207  and the advancement of each bar extends a new cycle of material into the exposure slot  7 , as noted above. The movement member and method of moving the filter material may be varied, and is well within the scope and spirit of the invention. Two exemplary, non-limiting methods are provided herein below as shown in  FIGS. 3A-3C and 4A-4C , however, additional methods may be utilized to provide the necessary movement of the filter media stack  100  from the compressed/stored state to a deployed state in the filter  10 . The at least one movement member  20  in this instance is a threaded rod that engages the sweep bar  205 ,  206 ,  207 . A small non threaded rod or portion of the same rod may be used to store the non-advancing sweeper bars  205 ,  206 , 207  as shown. Similarly, within the collection of the spent filter media, a similar non-threaded member on the end of the media for storage, as shown in shadow. 
       FIG. 3C  shows the completed filter being backed out and the media stack  100  being reformed for disposal. The final cycle or change of clean filter material  70  for the exposed media filter  77  is shown in this instance. The movement member  20  is reversed, as shown by the arrows, and the material is returned to the state from which it started and can be removed and replaced. The second frame portion  15  is removed from the first frame portion  20 , the leg portions  16 ,  18  are slid out from the channel portions  17 ,  19  and a new media pack  100  in an identical second frame portion  15  is installed and the process repeated. 
       FIGS. 4A-4C  show the operation of a further exemplary method of operation of the exemplary embodiment of  FIG. 1 . As shown in  FIG. 4A , the filter  1  is substantially the same as that used in  FIG. 3A . The filter media stack  100  in the second frame portion  15  is installed in the same fashion as that shown in  FIG. 3A . Again, the controller  60  may load the material by engaging the at least one motor  50  to advance the at least one movement member  20  to engage the filter media stack  100  and queue the first sweep bar  205 . However, unlike the exemplary embodiment of the method of operation of  FIG. 3A-3C , the media is first moved across the filter  1  in this instance in its entirety. 
       FIG. 4B  shows this principal operational difference. In this instance, the entirety of the media stack  100  is removed from the installation position shown in  FIG. 4A  and all the sweep bars  205 , 206 ,  207  are moved across the filter  1 , effectively moving them from the second frame portion  15  onto the first frame portion  10 . In this way the first exposed portion is the last exposed portion in the previous method of operation. The filter media  70  is restacked as a filter media stack  100 ,  101 ,  102  on the opposing side in the side labeled “a” and referred to as the storage area  90 . It is then moved back toward its starting position as shown in  FIG. 4C . The movement is again A to B, but this movement is reverse from that seen in  FIGS. 3A-3C . 
       FIG. 4C  shows the final movement of the last sweep bar  205  back into the starting position having exposed all the charges or cycles or changes in the media pack  100 . The final sweep bar  205  is moved across the filter  1  width and stacked and stored. In this manner the second frame portion  15  is likewise removed and replaced bringing a clean filter media stack  100 . Effectively, this returns the media stack to its starting position, the same as that shown in  FIG. 3A . The media stack  100  can be sealed off by a sealing member (not shown), an exemplary embodiment being a rubberized gasket or similar material or other sealing element. 
       FIG. 5  shows a top/isometric further exemplary embodiment of the instant invention having a cartridge with a filter media stack therein. In the exemplary embodiment shown a filter cartridge  301  is shown inside a frame  305 . The frame  305  can be constructed of stiffened cardboard or a more durable material such as a plastic or metal. The frame  305  in the exemplary embodiment shown in  FIG. 5  contains an at least one motor  40  with a power source  50 , and a controller  60 . The motor  40  is coupled to the movement device or element  20  through a coupling  320  that penetrates through the exterior of the filter cartridge  301 . 
     As seen in  FIG. 5 , the filter cartridge  301  is separate and apart from the frame  305  and the filter  1  requires assembling these two pieces together. In addition to the coupling  320 , the filter cartridge  301  in this exemplary embodiment includes the movement device  20 , here two threaded rods or screw drives. The movement device  20  engages a filter media stack  100  stored in the filter cartridge  301 . The operation of the filter  1  is thereafter similar to the other embodiments described herein, whereby the filter media  70  is separated into distinct media stacks  101 ,  102 ,  103  with sweep bars  205 ,  206 ,  207  in storage area  90  is reduced and changes of the filter media  70  in an exposure slot  7  are accomplished, with the filter media being restacked as a folded, pleated, exposed filter media stack in the containment area. In this instance, this occurs all within the filter cartridge  301 . The exposed filter media  77  is restacked within the filter cartridge in containment area  90 . It should be noted that any of the previously disclosed drive mechanism or those that would be obvious to one of ordinary skill in the art can be used to move the filter media  70  from the filter media stack  100 . 
       FIG. 6  shows an assembled filter of the exemplary embodiment of  FIG. 5 . The filter cartridge  301  is shown secured inside the frame  305 . A securement coupling  330  is provided to secure the filter cartridge  301  inside the frame  305 . The securement coupling  330  here is shown as a pair of securement couplings  330 , for instance a pair of metal springs or sliding metal members that can be deployed after assembly of the filter  1 . The securement coupling  330  can also be an additional cross-member or a friction fit element, so long as the filter cartridge  301  is secured in the frame  305  and the motor coupling member  320  is engaged to allow for operation of the filter  1 . The securement coupling  330  may be optional or incorporated into the geometry of the filter cartridge  301  and the frame  305  such that the insertion of the filter cartridge  301  into the frame  305  secures the filter cartridge  301  and engages the motor coupling member  320 . 
       FIG. 7A  shows an exemplary embodiment of the motor coupling member that engages the at least one motor in the exemplary embodiment of the filter of  FIG. 5 . As seen in  FIG. 7A , the frame  305  is shown in shadow providing a view of the filter cartridge  301  which is shown approaching the frame  305 . In this instance, a motor coupling member  320  is shown as a male protrusion  322  extending from the end of the movement member  20 , here a threaded rod. The male protrusion  322  is in a slot  303  within the filter cartridge  301 . The slot  303  matches an extension shaft  43  extending from the motor  40 . The slot  303  slides around the extension shaft  43  and a female receiving portion  47  in the extension shaft  43  mates with the male protrusion  322 . Once the male protrusion  322  and the extension shaft  43  are engaged, the motor  40  can drive the extension shaft  43  and thereby drives the movement member  20 , here threaded shaft screw drive, when power is provided by the power source  50 . This moves the filter media  70  from the filter media stack  100  in the fashion described above. The various filter media stacks  101 ,  102 ,  103  are moved across the exposure slot  7 , the previous media stack being separated by a sweep or spanning or separating member  205 ,  206 ,  207  respectively. Each sweep member  205 ,  206 ,  207  pulls the previous member further along a non-threaded portion  37  of the drive member  20  as shown until it is engaged on the threads. The advancement of the media stacks is controlled by the controller as described herein. 
       FIG. 7B  shows a further exemplary embodiment of a filter.  FIG. 7B  shows a variation on the embodiment shown in  FIGS. 5-7A , having a similar filter cartridge  301  and a frame  305  in which the filter cartridge  301  is secured. A similar slot  303  is provided with male protrusion  322  for forming coupling  320  to engage with a motor (not shown). The filter cartridge  301  differs in that the power source  50 , shown as batteries, is moved from the frame  305  into the filter cartridge  301 . Additional components provide electrical coupling of the power source  50  to the at least one motor  40 . In this instance, the batteries are the power source  50  and these are coupled to an at least one battery contact  340 . The battery contact  340  has a matching at least one motor contact (not shown). These can be for instance typical electrical metal contacts which electrically couple the motor  40  and the power source  50 . This facilitates changing the power source  50  when driving movement member  20  and changing the filter media  70 . 
       FIGS. 8A and 8B  show isometric views of a still further exemplary embodiment of the instant invention having a cartridge with a first media stack inline and an additional vertical filter media stack.  FIG. 8A  shows an exemplary embodiment of a replacement extended life filter  1  is provided. The exemplary embodiment of  FIG. 8A  shows a frame or housing  10  with a supply cartridge  150  and a collection cartridge  180 . The supply cartridge  150  and the collection cartridge  180  are removable from the frame  10 . They are held in place with coupling members  800 . In this embodiment, these are simply releasable straps. Other non-limiting examples of coupling members can include snaps, buckles, interlocking parts slidingly engaged, clasps, or similar mechanisms to selectively release the cartridges  150 ,  180 . These and any other appropriate coupling device is well within the spirit of the invention. 
     In this embodiment, a full first stack of folded, pleated media stack, shown already extended in  FIGS. 8A and 8B , it initially extends in the same plane as the frame or housing  10  with a sweep bar  205  coupled and moved to one end. This initial media stack  101  is advanced as shown and a further media stack  102  having a sweep bar  206  is pulled down from the vertical magazine or supply cartridge  150 . Although both cartridges are shown on a single side, variations in the orientation of the magazine in the vertical, i.e. above or below the frame with the exposure slot, is fully contemplated. In particular, it may be advantageous utilize the force of gravity to assist in feeding or removing/collecting the filter stacks. As such, the embodiment shown is a non-limiting exemplary embodiment. 
     An at least one guide member (not shown) can be added to assist in advancing the folded, pleated media stack  102  downward. As seen in  FIG. 8A , the initial media stack is deployed and has been effectively used and the controller  60  is advancing the at least one movement member  20  to effectuate a change of the media  70 . The media stack  102  is being deployed as the sweep bar  206  is being moved along the at least one movement member  20 , here a single threaded shaft in the center and two screw drives on either side. A further media stack  103  is provided with sweep bar  207  and media stack  103  for a further change after the media stack  102  is exposed. 
     The first media stack is being withdrawn into the collection cartridge  180 , as the sweep bar  205  is driven along the middle threaded shaft and upward onto a further guide member  5 . The collection guide member  220  may simply be a non-threaded portion onto which the exposed filter media stack  77  is drawn onto. It can also be coupled to the drive shaft through a universal joint, such as a spring member, in such a fashion as to continue to provide a driven motion to the sweep bar  205  and thereby continue to assist in repacking the exposed filter media  77  in the collection cartridge. Additionally, the collection cartridge  180  can have a sealing member (not shown), a non-limiting example being for instance a rubber gasket, to aid in sealing off the collection area and avoid recontamination or release of contaminants upon removal.  FIG. 8B  shows substantially the same embodiment but utilizing only a set of threaded rods as the at least one movement member  20 . 
     The operation of the embodiment shown in  FIGS. 8A and 8B  functions similar to those previously described. For brevity, reference will be made to similar steps and some steps are abbreviated, but reference is made to the previous methods of operation and there steps are equally functional herewith. In operation, the frame  10  is coupled to a supply cartridge  150 , the initial media stack (shown in deployed form) being supplied and extending below the supply cartridge  150  in the same plane as the frame  10 . The media stack has a sweep bar  205  which is engaged by the at least one movement member  20 , here for instance a central threaded rod, which begins to advance the media  70  from the media stack. The media stack is deployed across the exposure slot  7 . The media  70  is exposed to the flow in the flow channel. The controller  60  is signaled or signals a media change. The media change is commenced and a further media stack  102  is drawn from the supply cartridge  150  and sweep bar  206  is advanced to draw the media  70  from the further media stack  102 . As further media stack  102 ,  103  are withdrawn, the exposed media stack is collected and restacked in the collection cartridge  180 . 
       FIG. 8C  shows a further isometric view from below of the collection cartridge of the exemplary embodiment of  FIG. 8B . As shown in  FIG. 8C , the at least one movement member further includes a driven threaded shaft  211  along the bottom of the frame  10  as well. The figure shows that the threaded shaft  211  that is part of the at least one movement member  20  is bent and does have a spring member  5  that bends upward to provide further guide member  220  providing locomotion. The sweep bar  205  is shown being lifted into the collection cartridge  180  together with the exposed pleated filter material  77 . 
       FIG. 9  shows an isometric of a still further exemplary embodiment of the instant invention having a cartridge with a first media stack inline and a magazine cartridge with multiple vertical filter media stacks therein. Again, similar to the exemplary embodiment of the replacement filter shown in  FIG. 8A-8C , the exemplary embodiment of  FIG. 9  shows a frame  10 , exposure slot  7  with a supply cartridge  150 . However, in the supply cartridge of the embodiment shown, there are 3 stacks of folded, pleated, filter media  101 ,  102 ,  103 , separated by sweep bars  205 ,  206 ,  207  respectfully sitting atop an initial media stack which is shown as deployed in the frame. 
     As with previous embodiments, the first media stack is engaged by a movement member. A non-limiting example of the movement member  20  can be, for example, a thread rod screw drive or a string pulley drive or similar. The at least one media stack,  101 ,  102 ,  103  are expanded by the movement member  20 . The additional media stacks  101 ,  102 ,  103  are coupled to one another through the sweep bars  206 ,  207  such that the end of one stack is coupled to the respective sweep bar which is also coupled to the start of the next stack. In this way the stacks are drawn out of the supply cartridge  150 . The embodiment is then operated in the same fashion as the previous embodiments, moving the filter material from the media stacks through the exposure slot and stacking them in the collection cartridge  180 . 
       FIG. 10  shows a side cutaway view of another exemplary embodiment having a media stack that wraps into a U shaped magazine. Again, similar to the exemplary embodiment of the replacement filter shown in  FIG. 8A-9 , the exemplary embodiment of  FIG. 10  shows a frame  10 , with a supply cartridge  150 . However, in the supply cartridge of the embodiment shown, the media stacks  101 ,  102 ,  103  are contained in a U shape supply cartridge  150  end to end with the sweeper bars  205 ,  206 ,  207  coupled thereto. The advancement of the media deployed in the exposure slot draws the material out and around in the U shape supply cartridge  150 . In this way the stacks are drawn out of the supply cartridge  150 . In addition, movement member  20  is shown as a screw drive atop the media  70  together with a driven cord  217 . The embodiment is then operated in the same fashion as the previous embodiments, moving the filter material from the media stacks through the exposure slot and stacking them in the collection cartridge. 
       FIG. 11A  shows an isometric view of a yet further exemplary embodiment having a rotary movement member to deploy a filter media stack and rollers to assist in guiding the folded, pleated filter media. The embodiment shown is similar to the embodiment of  FIG. 9  having a frame  10  with an exposure slot  7 , a supply cartridge  150  and a collection cartridge  180 . The controller, at least one motor and similar components are also present but not shown for the sake of brevity and clarity. In the embodiment shown, the at least one movement device is a star wheel or paddle wheel  23  with further shortened auger screw drives  310  that are near the containment or collection end of the filter  1 . Further embodiments may include alone or in part an at least one of cord, wire, or string; track, puller or pinch roller, star, toothed, or pin roller; screw drive and/or threaded rod; take-up roller or similar drive member providing movement of the media  70  from a media stack  100  to an operational position. 
     Although shown here for use in this embodiment, the disclosed at least one movement device can also be utilized with any of the other exemplary embodiments of the invention as disclosed herein. In this instance, the stack of media  101  stored in the supply cartridge is moved from the stored folded, pleated stack  101  into the filter  1  and across the exposure slot  7  by the movement of the star wheel  23 . Further motive force is provided by the auger screw drives  310  which also push the exposed media into the collection cartridge  180 . Thus, the embodiment of  FIG. 11A  moves the folded, pleated media stored in a supply cartridge  150  in a folded, pleated filter media stack  101  into the frame  10  and the exposure slot  7 , exposes the filter media  70  to a flow to remove contaminants, and moves the exposed media to a collection cartridge  180  where it is collected and stacked again. 
       FIG. 11B  shows a configuration for a larger scale air filtration application, having four of the embodiment of the instant invention of the type shown in  FIGS. 8-10  with magazine input. As shown, the system can be used in a plenum or as a pre-filter application for an air handling or scrubbing unit  11  with mountings  12  for several filter frames  10 . In the exemplary embodiment shown, four “magazine” style embodiments of the instant invention  1  are shown with vertical box magazines  150 , 180 . In this instance, the magazines are easily approached by service personnel and can be used to aid in installation of the individual filter frames  10 . Thus the application of the instant invention can be scaled to address most commercial applications. 
       FIG. 12  shows a plan view of an exemplary embodiment of the invention. The inclusion of electronics and a controller  60  in any of the exemplary embodiments contained herein, on for example, a printed circuit board on the filter  1  provides an opportunity for added functionality in addition to extended operating length. As noted above with respect to  FIG. 1 , the controller  60  can also be used to sense a condition of the air, the filter media  70 , or a combination of both through communication with the at least one sensor  80 . The exemplary version shown in  FIG. 12  can utilize any of the filter advance systems previously discussed to provide Flow Quality Management (FQM) features. FQM is a system designed to be incorporated into the filter  1  to monitor the quality of the flow as it passes through the filter  1  and interact with a network system to monitor the flow quality at the point of filtration. 
     The FQM system is comprised of an at least one flow quality sensor  80 , with added processor modules  62  and data transceiving modules  63  on the controller  60 . The at least one sensor is incorporated into the filter frame such that it is in the path of flow as it is drawn though the filter frame  10  at the exposure slot  7 . The processor module  62  and transceiver module  63  are housed within the filter frame  10  near the drive motor and are powered from the same power supply as the motor. The controller  60 , processor modules  62 , and transmitting modules  63  have software on them to measure and report flow quality parameters from the at least one sensor  80 . They may report the flow quality parameters to an internal storage device (not shown), wirelessly  1010 , or via wired communication  1020  directly to a network  1000 . Alternatively, in other embodiments an external device which may store the data and/or be enabled to communicate with the network  1000  via wire  1020  or wirelessly  1010  and thereby may report the parameters to the network  1000  as shown in  FIG. 9  and described herein below. These can be powered by an onboard, independent power supply or, for example, be powered by a dedicated external power supply in for instance an industrial or commercial application like a paint spray booth. 
     The at least one sensor  80  allows the system to monitor the air and in conjunction with the processor, collects data regarding air contaminants along with flow quality, for example air quality. These sensors may include but are not limited to sensors that detect and report temperature, mold, carbon monoxide, carbon dioxide, Volatile Organic Compounds, smoke, fire, Noxious Gases, Air Particle Concentration and other potentially dangerous compounds. The at least one sensor  80  can also detect pressure drops and communicate that info back to the filter  1  so that the filter  1  can set the changing cycle accordingly and advance the filter media  70  accordingly. For example, if the filter  1  is pre-set to change the filter media  70  every ninety days and last twelve months but the media is being contaminated at a higher rate as detected by the at least one sensor  80 , it will move up the next change to facilitate a consistently clean filter. This change can also be reported out from the filter  1  through the controller  60  and the transmitting modules  63 . This real time monitoring can be incorporated in residential unit applications or in industrial and commercial unit applications. 
     In addition to monitoring flow quality, performance measures can also be communicated as part of the data retrieved from the at least one sensor. A non-limiting example, as noted in the previously described embodiments of  FIGS. 1-11 , a flow meter can be included in the at least one sensor  80 . This would allow, in conjunction with the processing modules  62  on the controller, a measurement of estimated energy usage. This can be reported through the network  1000  by the transceiver module  63  and reported to an alert device, including for example but not limited to a cell phone, a computer, a network operations center or the like. Additionally, as part of the programming on the processing modules  62 , the controller  60  can download program guides through the network and notify users and allow for additional configuration options of the filtration system. 
     All of this information can be stored or sent in real-time or both. The information can be sent, for example but certainly not limited to, to a reporting station, internet access portal, network interface device or internet cloud server via wireless signal, cellular or WI-FI/Internet Wireless Protocol technology or similar signal convention, that is accessible to the user via computer or smart phone or similar device, as shown in  FIG. 12 . The quality parameters and data on the operation of the filter can also be retrieved directly from the filter via a communications port  67  located on the filter frame, for example but certainly not limited to a USB port or a mini-USB port or similar communications port. Reports can be generated that can be retrieved showing the status of the filter and the flow quality over time. This can also be available for review by a report device accessed by the homeowner and/or building management or to a Network Operations Center (NOC) of the type typically found in industrial or commercial applications or provided as a function of an alarm or alert service in a residential setting or commercial setting. 
     The network  1000  can then transmit the information to a wireless device or wired device as a network interface  1030 , for example, but certainly not limited to a smart phone or hand held computer or netbook or similar device  1060 . The network  1000  can also report the data to a computer or other device  1040 , wired  1010  or wirelessly  1020  coupled to the network  1000 , to report flow quality or other aspects of the filter  1 . Finally, the data can be communicated to a Network Operations Center (NOC) or master control center  1050 , all of these options happening alone or in conjunction with one another, the NOC which is actively monitoring the filter  1  and the quality in the flow in the filtration system. A non-limiting example of the operation of the Network Operations Center  1050  can be a third party alarm monitoring company which is monitoring flow quality for a customer or several customers. Another non-limiting example can also make the NOC part of a manufacturing facilities control center as part of a commercial or industrial process whereby the filter unit is being monitored by the control center, for instance in chemical production or commercial painting booths. 
     Notification or alerts, including those previously described in relation to  FIGS. 1-8 , may be sent to the homeowner or building management or NOC of urgent conditions. These can include emergency alerts that may require immediate attention. This may be a part of the design of a monitoring system enabled via the network or as a paid third party monitoring service. This service may be offered for a monthly fee or reported to a security monitoring company, for example, either via internet, email, cellular, text message or telephone or any other fashion that fits the service providers reporting network. Other responses can involve communication from the filter or from other elements in the network which may, in case of sensing certain parameters i.e. dense smoke, take action with other network components. A non-limiting example of such an action is having the filtration controller turn off the circulation system via communication with the thermostat or similar device to prevent smoke circulation when a smoke or fire or other dangerous substances are detected in the flow. 
     Thus, in addition to providing a unique filter with the ability to provide and extended useful life with the movement of the filter media, the instant invention includes a method for alerts for replacement and possibly delivery of replacement filters. Additionally, a method of monitoring services is also conceived hereby for use in conjunction with or apart from the method of alerting and replacement. 
     An inventive method of seamless replacement delivery can be accomplished by employing the filter of  FIGS. 1-8  with or without the FQM system. By including just the transceiver modules  63 , with or without the additional processor modules  62 , an enhanced convenience for filtration unit owners can be incorporated into the sale of the filter. The filter  1 , which as noted above can send a signal when the uncontaminated media  72  has been completely dispensed, with the transmission module  63  can send an alert to a user through one of the alert devices  1040 ,  1050 , or  1060  and a replacement filter can be sent. This can of course be conditioned on confirmation from the owner of the filtration unit or can be provided as part of a monthly service. Additionally, the alert can be sent to a center and service personnel dispatched as part of a standard maintenance response or as part of a paid for maintenance service. 
     In yet another application, as noted above by incorporating the at least one sensor  80  and the processor modules  63 , in addition to sending a signal at the completion of the distribution of the uncontaminated filter media  72 , real time monitoring can be completed and sent as part of a monthly service contract or as part of a regular maintenance screening or as part of an emergency response. The at least one sensor  80  can transmit data through the controller  60  and the processor modules  62  and transceiver modules  63 , the data can be routed to a third party service provider that maintains the filtration unit and monitors flow quality for a subscriber. The data can also be transmitted as part of a regular maintenance monitoring or screening system in an industrial or commercial application to a NOC or similar central control  1050 . Also, as noted, the data may also be transmitted as part of an emergency response to a third party or emergency responder or both and additional signals could be transmitted through a network to shut an flow off and prevent promulgation of hazardous contaminants. 
     The embodiments and examples discussed herein are non-limiting examples. The invention is described in detail with respect to preferred embodiments, and it will now be apparent from the foregoing to those skilled in the art that changes and modifications may be made without departing from the invention in its broader aspects, and the invention, therefore, as defined in the claims is intended to cover all such changes and modifications as fall within the true spirit of the invention.