MAGNETICALLY ATTACHED SELF-CLEANING WATER FILTRATION UNIT FOR AQUARIUMS

Abstract

The present disclosure provides a self-cleaning aquarium filtration system comprising a housing unit with integrated cleaning zones. An automated pump directs water through said cleaning zones, with a rinsing filter located within such cleaning zones. A magnetic attachment secures the housing unit to an aquarium wall. A thermal cleaning unit incorporated into the cleaning zones enables automated filtration and maintenance. The arrangement of components within said aquarium filtration system facilitates self-cleaning operations while maintaining optimal water quality within an aquarium environment. Dated 11 November 2024 Jigneshbhai Mungalpara IN/PA- 2640 Agent for the Applicant

Specification

Description:Displacement Rail-Based Platform Adjustment System with Propulsion Motor Control
Abstract
The present disclosure discloses a system comprising a chassis mounted on a mounting base attached to a workpiece. A displacement rail aligned with a longitudinal axis of the chassis enables central positioning of an actuator rod along the same longitudinal axis. An adjustable platform detachably mounts on the displacement rail and is moved laterally by a fastening nut. A safety device is provided at an end of the actuator rod. A torque transmission assembly connects to the safety device. A propulsion motor drives the actuator rod via the torque transmission assembly to move the adjustable platform laterally relative to the chassis.


Dated 11 November 2024 Jigneshbhai Mungalpara
IN/PA- 2640
Agent for the Applicant




rinsing filter 108, while ensuring a cleaner, healthier aquarium environment through continuous filtration.
[00045] In an embodiment, the magnetic attachment 110 is affixed to the housing unit 102 and oriented vertically relative to the aquarium wall 112, ensuring stable placement and alignment within the aquarium. The vertical positioning of the magnetic attachment 110 creates a secure attachment between the housing unit 102 and the aquarium wall 112, which minimizes the risk of dislocation during the operation of the filtration system 100. The magnetic attachment 110 is further integrated with structural features that prevent vibration transmission from the automated pump 106 and other operational components, reducing any potential impact on the aquarium wall 112. The orientation of the magnetic attachment 110 also prevents lateral shifting and unintended detachment that could interrupt the filtration process. By maintaining a sealed and stable position, the magnetic attachment 110 preserves the integrity of the filtration operation within the cleaning zones 104, allowing the aquarium to maintain consistent water quality. Additionally, the magnetic attachment 110 enables simple detachment and reattachment of the housing unit 102 when necessary for maintenance or adjustments. The positioning of the magnetic attachment 110 further prevents structural strain on the aquarium wall 112, safeguarding the overall setup of the aquarium filtration system while contributing to an effective and durable filtration process.
[00046] In an embodiment, the thermal cleaning unit 114 is arranged within the cleaning zones 104 in an adjoining relationship with the automated pump 106, forming a continuous heat transfer path. Such an arrangement allows for the direct application of heated water flow, facilitated by the automated pump 106, across the filtration media within the cleaning zones 104. The proximity of the thermal cleaning unit 114 to the automated pump 106 maximizes heat exposure throughout the filtration process, optimizing conditions for microorganism reduction. This continuous heat transfer aids in controlling the levels of algae, bacteria, and other organic contaminants that may accumulate within the filtration system. The thermal cleaning unit 114 comprises materials capable of withstanding submersion and exposure to variable water temperatures, ensuring durability and sustained operation within the aquarium environment. Such an adjoining position between the thermal cleaning unit 114 and the automated pump 106 creates an efficient system for microorganism management within the filtration media, enabling consistent filtration performance. The configuration enhances system cleanliness by utilizing the combined effects of heat and water flow, resulting in a balanced and low-maintenance filtration environment.
[00047] In an embodiment, the housing unit 102 of the filtration system 100 is positioned in parallel alignment with the aquarium wall 112 to optimize space usage within the aquarium environment. Such parallel alignment of the housing unit 102 reduces spatial constraints, providing an arrangement that allows adequate space for aquarium inhabitants while maintaining effective filtration coverage. The parallel positioning stabilizes the housing unit 102 during filtration operations by securing the system against the aquarium wall 112, preventing movement that could disrupt the cleaning processes within the cleaning zones 104. The alignment of the housing unit 102 also allows for full access to the rinsing filter 108 and other filtration components, enabling easy servicing or replacement when necessary. The spatial design of the housing unit 102 minimizes interference with the aquarium layout, providing a configuration that maximizes the filtration area while maintaining ease of accessibility. Such positioning enables efficient operation of the filtration system without compromising the aesthetic or functional aspects of the aquarium space.
[00048] In an embodiment, the magnetic attachment 110 includes an integrated shock-absorbing layer within the housing unit 102, providing isolation from vibrations that occur during the operation of the filtration system 100. The shock-absorbing layer within the magnetic attachment 110 is structured to prevent vibrations from transferring to the aquarium wall 112, which could cause disturbances to the aquarium environment. Such isolation minimizes the resuspension of particulates within the water, preserving water clarity by reducing the likelihood of particulate agitation. The shock-absorbing feature is constructed from materials compatible with underwater use, such as silicone or rubber compounds, that effectively dampen mechanical vibrations produced by the automated pump 106 or other components within the housing unit 102. By incorporating a shock-absorbing layer, the magnetic attachment 110 contributes to a stable and undisturbed filtration cycle, ensuring consistent performance of the filtration system 100.
[00049] In an embodiment, the rinsing filter 108 includes a high-density filtration mesh positioned within an upper section of the cleaning zones 104 to improve debris capture at the initial filtration stage. The placement of the high-density filtration mesh in the upper section allows water to encounter filtration media capable of retaining larger particles and organic debris before passing through downstream filtration components. Such an arrangement prevents clogging within the deeper sections of the cleaning zones 104, ensuring that the filtration system 100 operates without frequent interruptions. The filtration mesh material within the rinsing filter 108 is selected for its durability and capability to retain particulate matter while allowing sufficient water flow, preventing excessive buildup that would otherwise restrict fluid movement. The configuration of the rinsing filter 108 with high-density mesh thus supports efficient particle removal and extends the functionality of other filtration media within the cleaning zones 104 by minimizing debris accumulation.
[00050] In an embodiment, the thermal cleaning unit 114 includes an adjustable heat control mechanism that regulates thermal exposure within the cleaning zones 104, enabling temperature settings to be adjusted based on specific aquarium requirements. The adjustable heat control mechanism within the thermal cleaning unit 114 allows users to set desired temperature levels, promoting suitable environmental conditions for diverse aquarium habitats while preserving consistent filter functionality. The heat control mechanism may be calibrated manually or automatically to maintain temperature within a specified range. Such control of thermal exposure within the cleaning zones 104 allows the thermal cleaning unit 114 to target and reduce levels of microorganisms, including algae and bacteria, that may affect water quality. The thermal cleaning unit 114 is constructed from materials suitable for exposure to variable temperatures and underwater operation, providing reliable performance and resistance to corrosion over time.
[00051] FIG. 2 illustrates a class diagram of the self-cleaning aquarium filtration system (100), in accordance with the embodiments of the present disclosure. The class diagram illustrates a self-cleaning aquarium filtration system 100 composed of several interconnected components. At its core, AquariumFiltrationSystem 100 includes HousingUnit 102, AutomatedPump 106, RinsingFilter 108, MagneticAttachment 110, and ThermalCleaningUnit 114. HousingUnit 102, containing CleaningZones 104, provides the structure and arrangement for other components and includes mechanisms for positioning on AquariumWall 112. AutomatedPump 106 directs water flow to CleaningZones 104, optimizing filtration by targeting RinsingFilter 108 for debris capture. RinsingFilter 108 is strategically located within CleaningZones 104, capturing waste particles effectively. MagneticAttachment 110 secures HousingUnit 102 to AquariumWall 112, adding stability and minimizing vibrations to maintain water clarity. Additionally, ThermalCleaningUnit 114, integrated within CleaningZones 104, applies controlled heat to aid microorganism reduction, contributing to cleaner filtration media. CleaningZones 104 function as designated sections within HousingUnit 102 for organized water treatment processes. This structured layout enables effective water filtration and debris removal while maintaining stable attachment and promoting continuous maintenance within the aquarium environment.
[00052] In an embodiment, housing unit 102 with integrated cleaning zones 104 provides structural support and containment for all filtration components within the aquarium filtration system 100. Housing unit 102 is constructed from durable, water-resistant materials suitable for continuous submersion, ensuring that the internal components are shielded from the aquarium environment. Integrated cleaning zones 104 within housing unit 102 allow for organized stages of filtration, with each zone designated for specific tasks such as debris capture, thermal treatment, or microorganism reduction. The placement and arrangement of cleaning zones 104 enable a systematic flow of water through each filtration stage, facilitating efficient water treatment within a compact area. The housing unit 102 is designed for secure placement along an aquarium wall, allowing for ease of access to components for maintenance while maximizing the usable space within the aquarium. The structure of housing unit 102 contributes to reduced maintenance frequency by promoting an orderly flow through cleaning zones 104, preventing clogging and supporting long-term system durability.
[00053] In an embodiment, automated pump 106 is strategically positioned within housing unit 102 to achieve a transverse alignment with rinsing filter 108. This alignment directs fluid flow at an optimized angle, ensuring that water passes through rinsing filter 108 with sufficient force to dislodge trapped debris. The orientation of automated pump 106 enables precise control of water movement, minimizing dead zones and promoting thorough filtration within cleaning zones 104. The optimized angle created by the transverse alignment reduces the likelihood of clogging within rinsing filter 108, contributing to uninterrupted filtration performance. Automated pump 106 may include adjustable flow rate settings, allowing customization based on aquarium size and water flow requirements. The controlled water movement through rinsing filter 108 enhances debris removal efficiency, ensuring that waste particles are consistently flushed out of the filtration system. This configuration promotes continuous cleaning action, reducing the frequency of manual filter maintenance and sustaining optimal water clarity in the aquarium.
[00054] In an embodiment, rinsing filter 108 is positioned adjacent to thermal cleaning unit 114 in a perpendicular arrangement within cleaning zones 104, allowing thermally treated water to pass directly through the filtration media of rinsing filter 108. The perpendicular alignment facilitates efficient heat transfer from thermal cleaning unit 114, promoting microorganism reduction in the filtration media. This thermal exposure deters the growth of algae, bacteria, and other contaminants, extending the operational life of rinsing filter 108 by preventing biofilm buildup. The strategic positioning of rinsing filter 108 and thermal cleaning unit 114 enables consistent filtration by combining physical debris capture with biological sanitization. This arrangement increases the filtration capacity within cleaning zones 104, providing a balanced approach to water purification that addresses both particulate and microbial contaminants. The result is prolonged filter longevity and reduced maintenance, as thermally treated water continually assists in keeping rinsing filter 108 clean and functional.
[00055] In an embodiment, magnetic attachment 110 is affixed to housing unit 102 and oriented vertically in relation to aquarium wall 112. The vertical orientation provides a secure attachment that prevents lateral movement and dislocation of housing unit 102 during operation. Magnetic attachment 110 is structured to maintain stability while minimizing vibration transmission from the automated pump 106 and other operational components. This vibration isolation helps protect the structural integrity of aquarium wall 112 by reducing stress and preventing micro-fractures. Additionally, the stable positioning of housing unit 102 enabled by magnetic attachment 110 promotes consistent alignment of components within cleaning zones 104, which enhances the effectiveness of water flow through each filtration stage. Magnetic attachment 110 simplifies installation and removal of housing unit 102, allowing for convenient repositioning when needed without compromising stability. This configuration maintains a stable and vibration-free filtration environment, supporting uninterrupted operation of the aquarium filtration system 100.
[00056] In an embodiment, thermal cleaning unit 114 is positioned within cleaning zones 104 in close proximity to automated pump 106, establishing a continuous heat transfer path along the water flow. The adjoining placement of thermal cleaning unit 114 with automated pump 106 ensures that heated water is directed consistently through the cleaning zones, promoting effective microorganism eradication. This heat exposure reduces the growth of algae, bacteria, and other organic contaminants within the filtration media, providing a secondary level of sanitization in addition to debris removal. The heat transfer path between thermal cleaning unit 114 and automated pump 106 supports continuous cleaning, which helps maintain water clarity and reduces the need for frequent manual cleaning of filtration components. By keeping the filtration media free from biofilm and other accumulations, the adjoining relationship of thermal cleaning unit 114 with automated pump 106 promotes long-term cleanliness and consistent water quality within the aquarium.
[00057] In an embodiment, housing unit 102 is aligned in parallel with aquarium wall 112 to optimize spatial usage and stabilize the filtration system 100 within the aquarium environment. The parallel alignment minimizes the footprint of housing unit 102, allowing it to occupy minimal space while maintaining effective filtration coverage. This arrangement supports stable operation by securing housing unit 102 against aquarium wall 112, preventing movement or dislocation during filtration processes. The parallel positioning also allows for easy access to cleaning zones 104 and facilitates service or replacement of rinsing filter 108 without disrupting the overall system setup. This alignment enhances the overall filtration area coverage, maximizing water treatment capacity within a compact structure. The parallel configuration of housing unit 102 with aquarium wall 112 reduces interference with the habitat space in the aquarium, allowing aquarium inhabitants more room to move freely while filtration continues uninterrupted.
[00058] In an embodiment, magnetic attachment 110 includes a shock-absorbing layer that isolates housing unit 102 from vibrations generated by operational components within filtration system 100. The shock-absorbing layer is positioned to minimize vibration transmission to aquarium wall 112, preventing disturbances that may otherwise affect the clarity of water. By isolating housing unit 102 from vibrations, magnetic attachment 110 prevents the resuspension of particulates that could cloud the water, thereby maintaining water clarity and ensuring consistent filtration. The shock-absorbing layer is composed of materials, such as rubber or silicone, which are suitable for underwater use and capable of dampening vibrations effectively. This layer contributes to a stable and undisturbed filtration process, preserving the aesthetic quality of the aquarium environment and reducing the likelihood of particulate agitation during filtration cycles. This vibration isolation maintains a calm environment for aquarium inhabitants and supports reliable filtration performance.
[00059] In an embodiment, rinsing filter 108 includes a high-density filtration mesh located in the upper section of cleaning zones 104, capturing debris at the initial filtration stage. The placement of high-density filtration mesh in this position allows it to intercept large particles and organic waste before water progresses to downstream filtration components. This arrangement prevents clogging in subsequent filtration stages, reducing the frequency of maintenance and prolonging the operational life of cleaning zones 104. The high-density filtration mesh within rinsing filter 108 is made from durable materials capable of retaining particulate matter without compromising water flow. By capturing debris early in the filtration cycle, rinsing filter 108 improves the overall filtration capacity within cleaning zones 104, maintaining consistent water quality in the aquarium. The configuration effectively separates and manages waste, preventing blockages and enhancing the reliability of the self-cleaning aquarium filtration system 100.
[00060] In an embodiment, thermal cleaning unit 114 includes an adjustable heat control mechanism, allowing users to set temperature levels within cleaning zones 104 to suit specific aquarium habitats. The adjustable heat control mechanism regulates thermal exposure, creating conditions that promote healthy environmental balance for diverse aquatic species. By controlling the heat levels, thermal cleaning unit 114 can effectively reduce algae, bacteria, and other microorganisms that may impact water quality. The heat control mechanism enables fine-tuning of temperature, which supports sustainable filtration by preventing excessive thermal stress on aquarium inhabitants. Materials within thermal cleaning unit 114 are selected for durability and resistance to corrosion, ensuring consistent performance over time. The adjustable heat control mechanism provides an adaptable solution for maintaining optimal aquarium conditions, contributing to stable water quality and reliable filter functionality.
[00061] The above description is intended to be illustrative, and not restrictive. Although the present disclosure has been described with references to specific illustrative examples and implementations, it will be recognized that the present disclosure is not limited to the examples and implementations described. The scope of the disclosure should be determined with reference to the following claims, along with the full scope of equivalents to which the claims are entitled.
[00062] Modifications, additions, or omissions may be made to the systems and apparatuses described herein without departing from the scope of the disclosure. The components of the systems and apparatuses may be integrated or separated. Moreover, the operations of the systems and apparatuses may be performed by more, fewer, or other components. Additionally, operations of the systems and apparatuses may be performed using any suitable logic comprising software, hardware, and/or other logic. As used in this document, "each" refers to each member of a set or each member of a subset of a set.
[00063] The term "memory," as used herein relates to a volatile or persistent medium, such as a magnetic disk, or optical disk, in which a computer can store data or software for any duration. Optionally, the memory is non-volatile mass storage such as physical storage media. Furthermore, a single memory may encompass and in a scenario wherein computing system is distributed, the processing, memory and/or storage capability may be distributed as well.
[00064] Throughout the present disclosure, the term 'server' relates to a structure and/or module that include programmable and/or non-programmable components configured to store, process and/or share information. Optionally, the server includes any arrangement of physical or virtual computational entities capable of enhancing information to perform various computational tasks.













Claims
I/We Claim:
1 A self-cleaning aquarium filtration system (100) comprising:
a housing unit (102) with integrated cleaning zones (104);
an automated pump (106) directing water through said cleaning zones (104);
a rinsing filter module (108) located within said cleaning zones (104);
a magnetic attachment (110) securing said housing unit (102) to an aquarium wall (112);
and a thermal cleaning unit (114) incorporated into said cleaning zones (104), wherein said interconnections enable automated filtration and maintenance.
2. The self-cleaning aquarium filtration system of claim 1, wherein said automated pump (106) is positioned within said housing unit (102) in a manner enabling transverse alignment with said rinsing filter module (108), such that fluid flow generated by said automated pump (106) is directed at an optimized angle into said rinsing filter module (108), enhancing debris removal efficiency within said cleaning zones (104) and reducing maintenance frequency by maintaining uninterrupted filtration performance.
3. The self-cleaning aquarium filtration system of claim 1, wherein said rinsing filter module (108) is disposed adjacent to said thermal cleaning unit (114) in a perpendicular arrangement, facilitating the transfer of thermally treated water across filtration media within said rinsing filter module (108) and allowing for increased filtration capacity by utilizing the thermal cleaning for microorganism reduction, thereby prolonging filter longevity.
4. The self-cleaning aquarium filtration system of claim 1, wherein said magnetic attachment (110) is affixed to said housing unit (102) and oriented vertically in relation to said aquarium wall (112), ensuring a stable and sealed placement that prevents movement during operation and minimizes vibration transmission, thus safeguarding both the structural integrity of said aquarium wall (112) and enhancing the effectiveness of filtration processes within said cleaning zones (104).
5. The self-cleaning aquarium filtration system of claim 1, wherein said thermal cleaning unit (114) is positioned within said cleaning zones (104) in a manner that establishes an adjoining relationship with said automated pump (106), creating a continuous heat transfer path from said thermal cleaning unit (114) to the water flow facilitated by said automated pump (106), optimizing microorganism eradication and promoting extended system cleanliness.
6. The self-cleaning aquarium filtration system of claim 1, wherein said housing unit (102) encompasses said cleaning zones (104) and is aligned in parallel with said aquarium wall (112) to reduce spatial constraints within the aquarium environment, such parallel alignment further stabilizing said housing unit (102) during filtration operation while enabling maximal filtration area coverage and ease of accessibility for service or replacement of said rinsing filter module (108).
7. The self-cleaning aquarium filtration system of claim 1, wherein said magnetic attachment (110) includes a shock-absorbing layer integrated with said housing unit (102), providing isolation from aquarium vibrations to preserve water clarity by minimizing particulate resuspension during filtration, thereby ensuring consistent and uninterrupted filtration cycles.
8. The self-cleaning aquarium filtration system of claim 1, wherein said rinsing filter module (108) includes a high-density filtration mesh situated in an upper section of said cleaning zones (104), such placement enhancing debris capture at the initial filtration stage and improving the overall filtering capacity by preventing clogging in downstream filter media within said cleaning zones (104).
9. The self-cleaning aquarium filtration system of claim 1, wherein said thermal cleaning unit (114) comprises an adjustable heat control mechanism, which regulates thermal exposure within said cleaning zones (104), enabling user-defined temperature settings to suit specific aquarium habitats and promote sustainable environmental conditions for aquatic life while maintaining consistent filter functionality.



Dated 11 November 2024 Jigneshbhai Mungalpara
IN/PA- 2640
Agent for the Applicant


Magnetically Attached Self-Cleaning Water Filtration Unit for Aquariums
Abstract
The present disclosure provides a self-cleaning aquarium filtration system comprising a housing unit with integrated cleaning zones. An automated pump directs water through said cleaning zones, with a rinsing filter located within such cleaning zones. A magnetic attachment secures the housing unit to an aquarium wall. A thermal cleaning unit incorporated into the cleaning zones enables automated filtration and maintenance. The arrangement of components within said aquarium filtration system facilitates self-cleaning operations while maintaining optimal water quality within an aquarium environment.


Dated 11 November 2024 Jigneshbhai Mungalpara
IN/PA- 2640
Agent for the Applicant





, Claims:Claims
I/We Claim:
1 A self-cleaning aquarium filtration system (100) comprising:
a housing unit (102) with integrated cleaning zones (104);
an automated pump (106) directing water through said cleaning zones (104);
a rinsing filter module (108) located within said cleaning zones (104);
a magnetic attachment (110) securing said housing unit (102) to an aquarium wall (112);
and a thermal cleaning unit (114) incorporated into said cleaning zones (104), wherein said interconnections enable automated filtration and maintenance.
2. The self-cleaning aquarium filtration system of claim 1, wherein said automated pump (106) is positioned within said housing unit (102) in a manner enabling transverse alignment with said rinsing filter module (108), such that fluid flow generated by said automated pump (106) is directed at an optimized angle into said rinsing filter module (108), enhancing debris removal efficiency within said cleaning zones (104) and reducing maintenance frequency by maintaining uninterrupted filtration performance.
3. The self-cleaning aquarium filtration system of claim 1, wherein said rinsing filter module (108) is disposed adjacent to said thermal cleaning unit (114) in a perpendicular arrangement, facilitating the transfer of thermally treated water across filtration media within said rinsing filter module (108) and allowing for increased filtration capacity by utilizing the thermal cleaning for microorganism reduction, thereby prolonging filter longevity.
4. The self-cleaning aquarium filtration system of claim 1, wherein said magnetic attachment (110) is affixed to said housing unit (102) and oriented vertically in relation to said aquarium wall (112), ensuring a stable and sealed placement that prevents movement during operation and minimizes vibration transmission, thus safeguarding both the structural integrity of said aquarium wall (112) and enhancing the effectiveness of filtration processes within said cleaning zones (104).
5. The self-cleaning aquarium filtration system of claim 1, wherein said thermal cleaning unit (114) is positioned within said cleaning zones (104) in a manner that establishes an adjoining relationship with said automated pump (106), creating a continuous heat transfer path from said thermal cleaning unit (114) to the water flow facilitated by said automated pump (106), optimizing microorganism eradication and promoting extended system cleanliness.
6. The self-cleaning aquarium filtration system of claim 1, wherein said housing unit (102) encompasses said cleaning zones (104) and is aligned in parallel with said aquarium wall (112) to reduce spatial constraints within the aquarium environment, such parallel alignment further stabilizing said housing unit (102) during filtration operation while enabling maximal filtration area coverage and ease of accessibility for service or replacement of said rinsing filter module (108).
7. The self-cleaning aquarium filtration system of claim 1, wherein said magnetic attachment (110) includes a shock-absorbing layer integrated with said housing unit (102), providing isolation from aquarium vibrations to preserve water clarity by minimizing particulate resuspension during filtration, thereby ensuring consistent and uninterrupted filtration cycles.
8. The self-cleaning aquarium filtration system of claim 1, wherein said rinsing filter module (108) includes a high-density filtration mesh situated in an upper section of said cleaning zones (104), such placement enhancing debris capture at the initial filtration stage and improving the overall filtering capacity by preventing clogging in downstream filter media within said cleaning zones (104).
9. The self-cleaning aquarium filtration system of claim 1, wherein said thermal cleaning unit (114) comprises an adjustable heat control mechanism, which regulates thermal exposure within said cleaning zones (104), enabling user-defined temperature settings to suit specific aquarium habitats and promote sustainable environmental conditions for aquatic life while maintaining consistent filter functionality.



Dated 11 November 2024 Jigneshbhai Mungalpara
IN/PA- 2640
Agent for the Applicant

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